2021 Conference on Lasers and Electro-Optics Europe & European Quantum Electronics Conference
Advance Programme
Virtual Meeting
CEST time zone 21 - 25 June 2021
www.cleoeurope.org
Sponsored by • European Physical Society / Quantum Electronics and Optics Division • IEEE Photonics Society • The Optical Society
25th International Congress on Photonics in Europe
Collocated with Laser World of Photonics Industry Days https://world-of-photonics.com/en/ 10th EPS-QEOD Europhoton Conference P NOTOHORUE SOLID-STATE, FIBRE, AND WAVEGUIDE COHERENT LIGHT SOURCES
28 August – 02 September 2022 Hannover, Germany
www.europhoton.org Fotos: © HMTG - Lars Gerhardts Fotos: © HMTG Table of contents
TABLE OF CONTENTS
Welcome and Foreword 02 Days at a Glance 04 Sessions at a Glance 14 How to Read the Session Codes? 15 How to Find the Room? 17 Topics 20 General Information 24 Technical Programme 28
01 GENERAL INFORMATION • EPS YoungMinds • World of Photonics Congress Also sponsored by • • European Physical Society Sponsored by w 21 -25June2021 Meeting Virtual CLEO®/Europe -EQEC2021 Q Europe & EuropeanElectro-Optics 2021 Conference on Lasers and • The Optical Society IEEE Photonics Society
uantum Electronics Conference Quantum Electronics and Optics Division
ww.cleoeurope.org
2021 EQEC
CLEO EUROPE
tum optics. physics,in laser nonlinear optics and quan whereas EQEC addresses more basic research applications of photonics and technology, laser sizes applied physics, optical engineering and ence, photonics and quantum electronics. complementarythe research areas of sci laser EQEC have astrong international presence in (OSA),CLEO®/Europe Society Optical the and ics Engineers (IEEE) Photonics Society, and Institute(EPS), the and Electron of Electrical provided by European the Physical Society neers inEurope. With technical co-sponsorship of optics and photonics researchers and engi- most comprehensive and prestigious gathering has established astrong tradition as largest, the ticipation in a major scientificconference. is first ifthis their par success, especially every graduate and PhD students, and we wish them welcome to attending young researchers, post students and graduates. We extend aspecial scientistsindustry and researchers as well as CLEO®/Europe-EQEC targets university and placetake from virtually will June 21 – 25, 2021. 2021 CLEO®/Europe-EQEC conference, which gramme Chairs warmly welcome you to the and General 2013, 2015,2017,2019),the Pro and Munich (2003,2005,2007,2009,2011, Hamburg (1996), Glasgow (1998),Nice (2000) ous conferences held inAmsterdam (1994), Following on successful from previ very the of Photonics Congress 2021 at the CLEO®/Europe-EQEC) World ConferenceElectronics (hereafter Europe &European Quantum on LasersandElectro-Optics Welcome to the2021Conference More specifically, CLEO®/Europe empha The CLEO®/Europe-EQECconference series Welcome andforeword ------02 photonics areas including solid-state lasers, developments range in awide of and laser characterization, ultrafast optical technologies, opticaltics, materials, optical fabrication and applications, applications of nonlinear op semiconductor sources terahertz lasers, and same roof. same and photonicslaser technologies under the together scientists, engineers and users of provide an unparalleled opportunity to bring f ty, research organisations and industry, drawn sessionsin parallel and posters from universi presentations oral of form the in contributions showcase virtually will around 1400technical of photonics. andsystem engineering various applications coherent light development, to technology light-matter interaction and sources new of on range awide of topics, from fundamental tive over-views and recent discuss advances whererum participants can obtain informa ics modelling. photon computational and theoretical and two-dimensionalterials, and novel materials, self-organization, plasmonics and metama science, nonlinear phenomena, solitons, and light, precision metrology, ultrafast optical nication states and topological sensing, of ter, quantum information, quantum commu quantum optics and ultracold quantum mat and medicine,ology and material processing. nanophotonics, photonic applications inbi waveguided and lasers amplifiers, micro- and for communications and data storage, fibre and sensing and microscopy, optical technologies laser high-field and attosecondscience, optical rom countries all around world, the and will CLEO®/Europe showcase will latest the Over fiveOver days CLEO®/Europe-EQEC 2021 CLEO®/Europe-EQEC creates a unique fo featureEQEC will fundamentals the of ------ute long given by talks world-leading these different formats: ofber technical presentations inanumber of CLEO®/Europe-EQEC consists of alarge num and TechnicalSessions Conference Structure https://www.world-of-photonics.com/en/See optics and many interesting showrooms. cations of tomorrow, as well as quantum market figures and photonics the appli You exciting can expect presentations on for information exchange and networking. offerthe photonics community a platform digital Stage.take parallel in theplace Thiswill to Days” dustry the 21 to 24,2021,Messe Munich present will ny, April 26–29,2022.However, from June to place take inperson inMunich,- Germa optical technology, which is rescheduled world’sthe largest tradeshow of and laser to 10:30. place on Tuesday 22June 2021from 09:00 and Plenary Awardspecial Ceremony to take Prizes and Awards remitted be will during a held. be will BO-CLEO®/Europe and LiM-CLEO®/Europe) learning inPhotonics and Flexible Photonics. tion and Applications, Attochemistry, Deep of aseries symposia: be will mented by the This year, notthecomplebe will meeting As of usual aseries prestigious EPS-QEOD Plenary talks Plenary Additionally, two joint sessions (EC Nanophononics, High-Field THz Genera Particular highlights of the 2021 programme “LASER World PHOTONICS of In World of Photonics Congress World Photonics of on World the of Photonics L ASER World Photonics of , are broad-scope, 60-min
and and ------
will featurewill invited orals and talks, post une 2021(16:30to exception 20:00)inthe 23 place take inparallelcost on will Wednesday twelve courses. All at courses short additional • • identified for CLEO®/Europe-EQEC 2021: well defined topics. Five symposia have been in optics by giving emphasis to fast developing, to anticipatesettled and capture emerging fields rope-EQEC meetings are Symposia special the presentations.er field. particular a with are valuable particularly for unfamiliar those of exciting recent developments, and Tutorials with other sessions. Keynotes provide asurvey cific audience, and arethus delivered parallel in areas. They are generally directed at a more spe en by world the technical leaders inparticular presentations Tuesday, 9:00–10:30. 16:30–17:30 and Nirit Dudovich (EQEC), W.Robert Boyd (CLEO®/Europe), Monday, (World of Photonics), Monday, 11:00–12:30, , 2020Nobelhard Genzel Co-Laureate Prize Talks2021 Plenary presented be will by Rein allowing maximum possible attendance. The are not held in parallel with other sessions, exhibitors, and exhibit visitors. talks Plenary audiencenical including conference attendees, scientists, and are accessible to ageneral tech • • • and Applications JSII –High-Field THz Generation JSI – Nanophononics JSV –Flexible Photonics JSIV inPhotonics Learning – Deep JSIII – Attochemistry CLEO®/Europe-EQEC present also 2021will much very appreciatedOther CLEO®/Eu In addition conference the talks to these Tutorials
J Keynote (60-minute and Keynote talks) (45-minute are giv- talks) also - - - - - Thursdayevening. sessions twothe post-deadline to place take on ally, tions and 408poster presentations Addition . to invited, upgraded talks presenta 914oral talks, 9Keynote talks, 72invited talks, 20 Europe, EQEC, WoP Congress), 5 tions (CLEO®/ consist talks will of 3Plenary gramme featuring more than 1400presenta and quantum electronics. The technical pro ers covering range awide of fields in optics sembled an and excellent of post talks series Joint sub-committees Sessions have, who as Europe, 10 EQEC, 5 Joint Symposia and 2 275 scientists, of formingeffort 13 CLEO®/ elaboratedbeen without support vital the and photonics applications. quantum and optical technology science, laser engineers inEurope, spanning classical and ering of optics and photonics researchers and as largest the and most comprehensive gath- work, their discuss interact and exchange ideas. teractive and less formal way for researchers to in CLEO®/Europeboth covered and be EQEC will ing oral presentations, scientific all areas of ence a unique meeting. that makes CLEO®/Europe-EQEC the confer contributecertainly to great the atmosphere usually one of most the attractive events that latest breaking inoptics, news and are these to give audience the chance the to listen to the June is 2021(18:30to 20:00).Their purpose deadline sessions on Thursday evening, 24 zone constraints of instructor. the day in morningthe (08:30 to 12:00) due to time of one course take place which same the will Theconference programmecould not have I CLEO®/Europe-EQEC is now established Theconference also featurewill twopost poster sessions poster n addition to technical the sessions involv 18 oral presentations18 oral featured be will in , which will provide, which will an in- Welcome andforeword
Tutorial ------
03 as large as CLEO®/Europe-EQEC requires their hard work. and fruitful A conference programme committee members for all tend their sincere thanks to technical the sions featured. and 9poster be sessions will the Sponsoringthe for guidance,their Societies Europe-EQEC steering committee and all Congress steering committee, CLEO/ the München GmbH, World the of Photonics Wetance during period. this Messe thank in Munich for invaluable professional assis Society,ical and conference local the chair staff the thank we the also of European Phys two years of planning and organisation. Here, The ConferenceThe Chairs would like to ex During the conference the During week, ses 199oral Liechtenstein (PhysicalSociety Section) Scientific Latvian Physical Society Italian Physical Society Israel Physical Society Icelandic Physical Society Eotvos Lorand Physical Society Hellenic Physical Society PhysicalGerman Society Georgian Physical Society French Physical Society Finnish Physical Society Estonian Physical Society Danish Physical Society PhysicalCzech Society ofCyprus Physicists Society Croatian Physical Society Union of Physicists in Bulgaria PhysicalBelgian Society PhysicalBelarusian Society Austrian Physical Society Armenian Physical Society Albanian Physical Society oftheEuropean Societies Member Physical Society - - - - support, and invaluable their advice, which The Institute of Physics (IOP) Ukrainian Physical Society Turkish Physical Society Swiss Physical Society Swedish Physical Society S of MathematiciansSociety Physicists Slovak Physical Society in 2023! ing forward to you seeing in-person inMunich will be presented. field and the to high quality papersthe of that to tremendous the evolution of our research researchers and students, contribute all who rests on efforts the andcommitments these of success of CLEO®/Europe-EQEC 2021indeed in Europe. many nations, amajor but be also event will corethe of optics and photonics research for ensures that thisevent not only remains at able conference, 2021virtual and we are look S United Physical Society Romanian Physical Society of PhysicistsSociety of Macedonia Portuguese Physical Society Polish Physical Society Norwegian Physical Society Netherlands Physical Society Physicalof Montenegro Society Moldovan Physical Society Association Luxembourgeoise des Physiciens Lithuanian Physical Society panish Royal Physics Society erbian Physical Society We wish you alively, all and enjoy fruitful, Let usthank finallyLet our attendees. Thereal and Astronomers of Slovenia of Astronomers and of Russian the Federation
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GENERAL INFORMATION GENERAL INFORMATION 20:00 19:30 19:00 18:30 18:00 17:30 17:00 16:30 16:00 15:30 15:00 14:30 14:00 13:30 13:00 12:30 12:00 11:30 11:00 10:30 10:00 09:30 09:00 08:30 CLEO/Europe Plenary TalkPlenary CLEO/Europe PL-2 Devices forSemiconductor Photonic CE-2 EA Poster Session EA-P by 2020NobelPrize Co-Laureate Photonics Congress Plenary Talk Welcome Wordsof and World PL-1 PosterCA Session CA-P Visible Lasers CA-1 THz Strong FieldTHz Applications CC-1 ROOM 1 Surgery Laser-Tissue and Interactions CL-1 Nonlinear Metasurfaces CD-1 EB Poster Session EB-P CB Poster Session CB-P Lasers andMembrane Photonic Crystal CB-1 ROOM 2 Photonic Structures CE-1 Intelligence Optical Computing andArtificial EJ-1 2-µm Lasers CA-2 PosterEJ Session EJ-P CI Poster Session CI-P ROOM 3 Monday at aglance 04 Ultrashort Pulse GenerationUltrashort CF-1 Flexible Photonic Devices JSV-2 Sensing Gas CH-1 JSV Poster Session JSV-P ROOM 4 Applications ofStrong FieldsTHz JSII-2 Coherent Combining Beam CJ-1 inSolids Ultrafast Dynamics CG-1 ROOM 5 Intelligence Optical Computing andArtificial ED-2 Novel Integrated Components CK-2 Periodic Components CK-1 ROOM 6 20:00 19:30 19:00 18:30 18:00 17:30 17:00 16:30 16:00 15:30 15:00 14:30 14:00 13:30 13:00 12:30 12:00 11:30 11:00 10:30 10:00 09:30 09:00 08:30 Structures PeriodicLaser Induced Surface CM1 Quantum Networks EB-1 Memories Integrated Devices and EB-2 ROOM 7 Solitons CD-2 in Attochemistry Theoretical Perspectives JSIII-1 Band TopologyI EC-1 ROOM 8 and Perovskites Towards Applications EI-1 Phenomena Mode-Locking EF-1 for Nanophononics Modeling andNumerical Theory JSI-1 ROOM 9 Monday at aglance 05 Strong-field THz Generation Strong-field THz JSII-1 in Attochemistry Experimental Progress JSIII-2 at theNanoscale Emission Control EG-1 ROOM 10 Turbulence andNonlinearEffects EF-2 and Metamaterials Phenomena inPlasmonics andUltrafastExtreme EH-1 and Fundamental Metrology I Precision Spectroscopy ED-1 ROOM 11 Raman Spectroscopy Raman CH-2 Controlled and Intense XUVLight CG-2 and Integration Flexible Photonic Materials JSV-1 ROOM 12
GENERAL INFORMATION GENERAL INFORMATION 20:00 19:30 19:00 18:30 18:00 17:30 17:00 16:30 16:00 15:30 15:00 14:30 14:00 13:30 13:00 12:30 12:00 11:30 11:00 10:30 10:00 09:30 09:00 08:30 Fundamental Metrology II Precision Spectroscopy and ED-3 & Wolfgang Peter Schleich Talk WalterAwardHerbert SP-1 CD Poster Session CD-P Interfaces Waveguide-QED andAtom-light EA-1 Ceremony EQEC Plenary Talk andAward PL-3 Miniaturized CombMiniaturized Platforms Frequency Standards and ED-4 ROOM 1
Cold Molecules EA-2 Microresonators CD-4 ED Poster Session ED-P Photonic Quantum Computation EB-3 ROOM 2 and Molecular Dynamics and Molecular Chemical Reactions CG-4 Ultrafast Spectroscopy CG-3 and Techniques Spectroscopy Nonlinear THz CC-2 ROOM 3 Tuesday at aglance 06
Lasers above 2Micron Fiber Mode-locked CJ-2 and NonlinearSystems High-intensity CA-3 Applications Biological andClinical CL-2 ROOM 4
Novel LaserConcepts CA-4 Nonlinear Topology EC-2 in Waveguides Ultrafast Phenomena EE-1 ROOM 5 Supercontinuum Generation CD-5 Environments to Engineered Photonic From SinglePhotons EI-2 Integrated Photonics Devices CK-3 ROOM 6 20:00 19:30 19:00 18:30 18:00 17:30 17:00 16:30 16:00 15:30 15:00 14:30 14:00 13:30 13:00 12:30 12:00 11:30 11:00 10:30 10:00 09:30 09:00 08:30 with Metasurfaces Advanced Control ofLight EH-3 and Nanophotonics in Metamaterials New Perspectives EH-2 Luminescent Materials CE-4 ROOM 7 of Entanglement I Long-Range Distribution EB-5 Lasers Semiconductor PowerHigh CB-2 Broadband Systems CI-1 ROOM 8 High-order TopologyHigh-order StatesBound and EC-3 Techniques Fabrication andCharacterization CE-3 Nonlinear OpticsModeling EJ-2 ROOM 9 Tuesday at aglance 07 Nonlinear Pulse Propagation CF-3 Fiber-based II Sensors CH-4 and WaveguidesMicroresonators CD-3 ROOM 10
Imaging inScattering Media Imaging CH-5 Nonclassical Light Sources EB-4 Techniques Advanced OpticalSensing CH-3 ROOM 11 High PowerHigh Sources THz CC-3 Ultrafast UVSources CF-2 ROOM 12
GENERAL INFORMATION Semiconductor Lasers Semiconductor Mid-infrared Course 6: Short SH-6
GENERAL INFORMATION 20:00 19:30 19:00 18:30 18:00 17:30 17:00 16:30 16:00 15:30 15:00 14:30 14:00 13:30 13:00 12:30 12:00 11:30 11:00 10:30 10:00 09:30 09:00 08:30 Ultrashort Pulse Characterization Ultrashort Course 1: Short SH-1 Microscopy Sensors andImaging CH-7 EC Poster Session EC-P Fiber Lasers Mode-locked CJ-4 CC Poster Session CC-P Metamaterials andAcousticPhononic Crystals JSI-2 ROOM 1 High-power Fiber Lasers Course 2: Short SH-2 SourcesUltrafast Mid-IR CF-6 EH Poster Session EH-P Sensing for Solutions Optical On-chip CH-6 CF Poster Session CF-P Mid-infrared Lasers CA-5 ROOM 2 Applications Technologies for LIDAR CB-3 Optical Parametric Oscillators Course 3: Short SH-3 Shaping for LaserProcessing I Temporal andSpatial Beam CM-3 EI Poster Session EI-P Pulses inthemid-IR Ultrashort CF-5 CE Poster Session CE-P Wednesday at aglance ROOM 3 08 Novel Approach Sources THz CC-4 Propagation, andSpatial Shaping Analysis,Laser Beam Course 4: Short SH-4 Lasers Semiconductor Mid-infrared CB-5 JSI Poster SessionMetamaterials JSI-P ProcessingSemiconductor CM-2 JSII Poster SessionMetamaterials JSII-P ROOM 4 Practical Quantum Optics Course 5: Short SH-5 Nano-optics Nonlinear andUltrafast EG-4 Integrated Frequency Combs Hot Topics: in What's Next SP-2 Quantum Cascade Lasers CB-4 andNanostructures Micro CE-5 ROOM 5 Semiconductor Lasers Semiconductor Mid-infrared Course 6: Short SH-6 Devices Integrated Optoelectronic CE-7 Coupling at the NanoscaleII EG-3 Ultrafast Lasers CF-4 ROOM 6 20:00 19:30 19:00 18:30 18:00 17:30 17:00 16:30 16:00 15:30 15:00 14:30 14:00 13:30 13:00 12:30 12:00 11:30 11:00 10:30 10:00 09:30 09:00 08:30 and theirApplications Measurements THz Course 7: Short SH-7 andColdCavity-QED Gases EA-4 Resonators Materials for Waveguides and CE-6 Coupling at the NanoscaleI EG-2 ROOM 7 Nonlinear Crystal Optics Nonlinear Crystal Course 8: Short SH-8 Fibers Nonlinear Regimes inOptical EF-4 Detectors Quantum Optomechanics and EA-3 Band TopologyII EC-4 ROOM 8 and Applications Frequency Combs Principles Course 9: Short SH-9 Ultrafast Lasers CA-7 Quantum Effects 2D Transverse and Dynamics EF-3 Digital Signal Processing CI-2 Wednesday at aglance ROOM 9 09 High-Power Yb-lasers CA-6 Optics andSCGeneration Multimode NonlinearFiber CJ-3 Silicon Photonics Course 10: Short SH-10 and Interference Quantum Imaging EB-7 ROOM 10 and other2DMaterials Optics inGraphene Course 11: Short SH-11 Graphene Heterolayers EI-3 Entanglement II of Long-Range Distribution EB-6 Guided WaveDevices CD-6 ROOM 11 Tailored Light EJ-3 forMethods Photonics Finite Element Modelling Course 12: Short SH-12 ROOM 12
GENERAL INFORMATION GENERAL INFORMATION 20:00 19:30 19:00 18:30 18:00 17:30 17:00 16:30 16:00 15:30 15:00 14:30 14:00 13:30 13:00 12:30 12:00 11:30 11:00 10:30 10:00 09:30 09:00 08:30 Joint Session CMwithLiM Joint Session CM-6 Advances inDeep Tissue Imaging CL +ECBOJS PosterCJ Session CJ-P Laser Materials CA-9 CG Poster Session CG-P Thermal Rectification Heat TransferRadiative Optomechanical Systems. Nanophononic and JSI-3 Session CLEO/Europe Postdeadline PD-1 ROOM 1 Session CLEO/Europe Postdeadline PD-2 WavelengthsExtreme Nonlinear Applications at CD-9 Imaging Hyperspectral CH-9 CK Poster Session CK-P and Applications WavelengthSourcesShort CB-7 EE Poster Session EE-P Symmetries inUltrafast Science CG-5 ROOM 2
at the Molecular Levelat theMolecular Spectroscopy CH-8 Fiber LaserComponents CJ-6 Pulse Characterization Ultrashort CF-8 CL Poster Session CL-P Imaging THz CC-5 EF Poster Session EF-P ROOM 3 Thursday at aglance 10 Integration onSilicon CB-6 3D Fabrication3D Techniques CK-6 Shaping for LaserProcessing II Temporal andSpatial Beam CM-5 Tunable Light Sources CD-7 and Components ROOM 4
Systems Topology inDriven-dissipative EC-6 Nanostructures Resonant Dielectric EG-6 BroadeningNonlinear Spectral CF-7 ControlLaser Beam CA-8 ROOM 5 Optical Metrology CH-10 GlassesandCeramicsCrystals, CE-10 Microwave Photonics CI-3 and Functionalisation Engineering Surface CM-4 ROOM 6 20:00 19:30 19:00 18:30 18:00 17:30 17:00 16:30 16:00 15:30 15:00 14:30 14:00 13:30 13:00 12:30 12:00 11:30 11:00 10:30 10:00 09:30 09:00 08:30 Fluids ofLight Polaritons andQuantum EA-6 Pulsed Fiber Laser CJ-5 Manipulation Beam CK-5 Silicon Photonics CK-4 ROOM 7 Advanced Biological Microscopy CL-3 and TopologicalEffects Breaking, Geometrical Symmetry EF-7 Quantum Light Sources EA-5 HHG inCondensed Matter EE-2 ROOM 8 Manipulation atManipulation Nanoscale Ultrafast and Characterisation EE-4 Frequency Combs Semiconductor-based CB-8 and Error Correction Quantum Computation EB-8 inMicroresonators Micro-combs EF-5 ROOM 9 Thursday at aglance 11 Matter Interaction Plasmonics for Enhanced Light- EH-4 and Metrology I Learning inImaging JSIV-2 Quantum Technologies CD-8 Emerging Trendsin Topology EC-5 ROOM 10 Semiconductor Lasers Semiconductor andNovelDynamics Concepts in CB-9 Optical Computing I JSIV-1 Dissipative SolitonsI EF-6 OpticalFibersof Specialty Materials andFabrication CE-8 ROOM 11 Ultrafast Molecular Dynamics Ultrafast Molecular EE-3 Nonlinear andMeta-materials CE-9 at theNanoscale PhenomenaLight-driven EG-5 ROOM 12
GENERAL INFORMATION GENERAL INFORMATION 20:00 19:30 19:00 18:30 18:00 17:30 17:00 16:30 16:00 15:30 15:00 14:30 14:00 13:30 13:00 12:30 12:00 11:30 11:00 10:30 10:00 09:30 09:00 08:30 and NonlinearMedia Amplification Raman CD-12 Wavelength Conversion ControlAll-optical and CD-11 CM Poster Session CM-P andImaging Quantum Sensing CH-11 CH Poster Session CH-P and Techniques Optothermal Characterization Optophononic and JSI-4 ROOM 1 and Applications Optical TechniquesFiber CJ-10 Light Shaping andAdvancedDynamic CL-5 for Telecommunications Emerging Technologies CI-4 EG Poster Session EG-P and Communications Devices THz CC-6 ROOM 2
Harmonic GenerationHarmonic Lasers andHigh-Order CG-6 Micro andNanoResonatorsMicro CK-10 and Metasurfaces Applications ofMetamaterials EH-6 Spectroscopy Sources for DualComb CF-9 JSIV Poster session JSIV-P ROOM 3 Friday at aglance 12
Components FiberMid-IR LaserSources and CJ-7 and Microscopy Beams Structured Temporally andSpatially CH-13 FiberSpeciality Lasers CJ-9 Diagnostics andIn-situ Modelling CM-8 ROOM 4 Transmission Devices CI-5 for Micro-photonics Novel Technologies andMaterials CK-9 Microscopy Nonlinear Spectroscopy and CD-10 Quantum Interferences EA-7 ROOM 5 Nanostructures –SpectroscopyNanostructures - Learning Metasurfaces JSIV-5 QCL-combsTHz andImaging CC-8 andSensing Imaging Spectroscopy, Label-Free CL-4 and State Estimation Quantum Tomography EB-9 ROOM 6
20:00 19:30 19:00 18:30 18:00 17:30 17:00 16:30 16:00 15:30 15:00 14:30 14:00 13:30 13:00 12:30 12:00 11:30 11:00 10:30 10:00 09:30 09:00 08:30 of TransparentMaterials 3D LaserStructuring CM-9 logy II Learning andMetro- inImaging JSIV-4 P CJ-8 Dissipative SolitonsII EF-8 ower Fiber Lasers
ROOM 7 Phenomena Str CF-10 F CH-12 Non-Linear I CK-8 P CK-7 iber-based Sensors I iber-based Sensors hotonic Crystals ong Field andUltrafast
ntegrated Photonics ROOM 8 and X-ray Sources H CG-7 Novel Ultrafast Sources EE-5 Electron-light Interactions EG-7 igh-Repetition XUV igh-Repetition
ROOM 9 Friday at aglance 13 and Non-linearDynamics Many States Body EI-4 and NonlinearMetasurfaces TunableHybrid, EH-5 ROOM 10
TH CC-7 Sur CM-7 z QCL face and Volume Processing
ROOM 11 Optical Computing II JSIV-3 ROOM 12
GENERAL INFORMATION GENERAL INFORMATION PL-3 PL-2 elcome Words and Worldof PL-1 CA-3 CA-3 CA-2 isible Lasers CA-P CA-1 SP-2 SP-1 CA – SOLID-STATE LASERS CLEO®/EUROPE 2021SESSIONS
Tuesday, 09:00 -10:30, ROOM 1 Monday, 16:30 -17:30, ROOM 1 Monday, 11:00 -12:30, ROOM 1 by 2020NobelPrize Co-Laureate Photonics Congress Plenary Talk Monday, 10:00 -11:00, ROOM 1 Monday, 08:30 -10:00,ROOM 1 Tuesday, 14:30 -15:30, ROOM 1 Wolfgang Peter Schleich Talk Tuesday, 16:30 -18:00, ROOM 4 Nonlinear Systems Wednesday, 13:30 -14:30,ROOM 5 Integrated Frequency Combs H M 2-µm Lasers C V Hot Herber EQEC Plenar CLEO/E W A Poster Session igh-intensity PLENARY SESSIONS onday, 14:30 -16:00, ROOM 3 SPECIAL EVENTS Topics: What's in Next t Walter Award & urope Plenary TalkPlenary urope y Talk andAward Ceremony
and
CB-2 CB-P CB-1 CA-8 CA-5 CA-4 CB-6 CB-5 CB-4 CB-3 CA-9 CA-7 CA-6 CB – SEMICONDUCTOR LASERS
Thursday, 08:30- 10:00, 4 ROOM Monday, 10:00 -11:00, ROOM 2 Monday, 08:30 -10:00, ROOM 2 Membrane Lasers Thursday, 11:00- 12:30, 1 ROOM Wednesday, 14:30 -16:00,ROOM 9 Tuesday, 18:30 -20:00, ROOM 5 Wednesday, 14:30 -16:00,ROOM 4 Wednesday, 11:00 -12:30,ROOM 5 Wednesday, 08:30 -10:00,ROOM 3 Tuesday, 16:30 -18:00, ROOM 8 Thursday, 08:30- 10:00, 5 ROOM Wednesday, 11:00 -12:30,ROOM 10 Wednesday, 08:30 -10:00,ROOM 2 H M No I M Q T H CB P Phot Laser M Laser B Ultr ntegration onSilicon echnologies for LIDAR Applications igh Power Lasers Semiconductor igh-Power Yb-lasers uantum Cascade Lasers id-infrared Lasers Semiconductor id-infrared Lasers vel LaserConcepts afast Lasers oster Session onic Crystal onic Crystal eam Control aterials
and
Sessions atSessions aGlance 14 CB-9 CB-8 CB-7 CC-8 CC-7 CC-6 CC-5 CC-P CC-4 CC-3 CC-2 CC-1 AND APPLICATIONS – TERAHERTZCC SOURCES
and A Thursday, 16:30- 18:00, 11 ROOM Lasers in Semiconductor Thursday, 14:30- 16:00, 9 ROOM Thursday, 11:00- 12:30, 2 ROOM Friday, 14:30 - 16:00, ROOM 6 Friday, 11:00- 12:30, ROOM 11 Friday, 08:30- 10:00, ROOM 2 Thursday, 11:00- 12:30, 3 ROOM Wednesday, 10:00 -11:00,ROOM 1 Wednesday, 08:30 -10:00,ROOM 4 Tuesday, 18:30 -20:00, ROOM 12 Tuesday, 11:00 -12:30, ROOM 3 and Techniques S TH TH TH TH C No H M TH D hr Wvlnt Sources Wavelength Short olna Tz Spectroscopy THz Nonlinear emiconductor-based Frequency Combs C Poster Session igh Power SourcesTHz ynamics andNovel Concepts onday, 18:00 -19:30, ROOM 1 z QCL-combs andImaging z QCL z Devices andCommunications z Imaging z Strong Field Applications vel Approach SourcesTHz pplications
CD-10 CD-6 CD-4 CD-P CD-3 CD-2 CD-1 CD-11 CD-9 CD-8 CD-7 CD-5 OF NONLINEAR OPTICS – APPLICATIONSCD
Thursday, 16:30-18:00, 2 ROOM Tuesday, 18:30 -20:00, ROOM 6 Tuesday, 13:30 -14:30, ROOM 1 Tuesday, 11:00 -12:30, ROOM 10 Monday, 18:00 -19:30, ROOM 8 Monday, 14:30 -16:00, ROOM 2 Friday, Friday, and Microscopy Thursday, 14:30-16:00, 10 ROOM Thursday, 11:00-12:30, 4 ROOM Tuesday, 16:30 -18:00, ROOM 2 and W A a Nonlinear A Q T W Guided W Super CD P M Nonlinear M Solitons olna Spectroscopy Nonlinear Microresonators unable Light Sources t Extreme WavelengthsExtreme t ll-optical Controlll-optical uantum Technologies icroresonators and Waveguidesicroresonators ednesday, 08:30-10:00,ROOM 11 oster Session continuum Generation avelength Conversionavelength
ave Devices ave 14:30 - 11:00 - pplications etasurfaces
16:00, ROOM 1 12:30, ROOM 5
CE-8 CE-6 CE-2 CE-10 CE-1 aman AmplificationMedia andNonlinear CD-12 CE-9 CE-7 CE-P CE-5 CE-4 CE-3 CHARACTERISATION FABRICATION AND OPTICAL – MATERIALS,CE
Thursday, 11:00- 12:30, 12 ROOM Wednesday, 14:30 -16:00,ROOM 6 Wednesday, 10:00 -11:00,ROOM 3 Thursday, 14:30- 16:00, 6 ROOM Monday, 08:30 -10:00, ROOM 3 Friday, 16:30- 18:00, ROOM 1 Thursday, 08:30- 10:00, 11 ROOM Wednesday, 11:00 -12:30,ROOM 7 Wednesday, 08:30 -10:00,ROOM 5 Tuesday, 18:30 -20:00, ROOM 7 Tuesday, 16:30 -18:00, ROOM 9 Characterization Techniques and Fabrication Monday, 14:30 -16:00, ROOM 1 Nonlinear andM of Specialt M I M CE P M L S Cr Phot R ntegrated Optoelectronic Devices uminescent Materials emiconductor for Photonic Devices aterials for Waveguides andResonators aterials andFabrication icro andNanostructures ystals, GlassesandCeramics oster Session onic Structures y OpticalFibers
eta-materials
CG-1 CF-9 CF-7 CF-6 CF-5 CF-P CF-4 CF-3 CF-2 CF-1 CF-10 CF-8 AND ATTOSECONDSCIENCE – HIGH-FIELDCG LASER CF – ULTRAFAST OPTICAL TECHNOLOGIES
Monday, 08:30 -10:00, ROOM 5 Friday, 16:30- 18:00, ROOM 8 Thursday, 14:30- 16:00, 3 ROOM Wednesday, 14:30 -16:00,ROOM 2 Wednesday, 11:00 -12:30,ROOM 3 Wednesday, 10:00 -11:00,ROOM 2 Wednesday, 08:30 -10:00,ROOM 6 Tuesday, 18:30 -20:00, ROOM 10 Tuesday, 11:00 -12:30, ROOM 12 Monday, 08:30 -10:00, ROOM 4 Friday, 11:00- 12:30, ROOM 3 Thursday, 11:00- 12:30, 5 ROOM Ultr S Spec S Ultr Nonlinear Spec Ultr Ultr CF P Ultr Nonlinear P Ultr Ultr trong Field andUltrafast Phenomena ources for Comb Dual afast Dynamics in Solids afast Dynamics Pulse Characterization ashort Sourcesafast Mid-IR Pulses inthemid-IR ashort afast Lasers afast UVSources Pulse Generation ashort oster Session troscopy ulse Propagation tral Broadening
Sessions atSessions aGlance 15 • • The ECBO-CLEO®/Europejoint session refer All CLEO®/EuropeAll sessions are on awhite back Europe-EQEC. of papers the presented at 2021CLEO®/ the The following pages contain abstracts the How to read thesessioncodes? • referenced talks with • Plenary • Short courses referenced with SH background: areExceptions mentioned on below adark background and have with beginning PD acode Europe and EQEC presentations are on awhite sessions post-deadline includingBoth CLEO®/ and have that acode with an begins E EQECAll sessions are on ashaded background ground and have with beginning a acode CM-1.1 CM-1 C C of presentation the within session, the e.g. topicthe title, session the title and placement the The first (CM-1.1) indicatespart Conference,the CM-1.1 MON (Invited) 14:30 parts, presentationsOral have made up acode of two PresentationsOral enced with CM-6, Joint. LiM CMwith Session JS withenced CL + ECBO with enced The jointThe session LiM-CLEO®/Europe refer CLEO®/Europe-EQEC joint symposia refer M M-1.1 -1.1 .1 e.g.
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GENERAL INFORMATION GENERAL INFORMATION CG-6 CG-P CG-4 ontrolled andIntense XUVLight CG-3 CG-2 CH-3 as Sensing CH-2 CH-1 CG-7 CG-5 CH-5 CH-4 AND MICROSCOPY CH – OPTICAL SENSING
Thursday, 10:00- 11:00, 1 ROOM Thursday, 08:30- 10:00, 2 ROOM Tuesday, 16:30 -18:00, ROOM 3 Monday, 14:30 -16:00, ROOM 12 Tuesday, 18:30 -20:00, ROOM 11 Monday, 18:00 -19:30, ROOM 12 Monday, 14:30 -16:00, ROOM 4 Friday, 14:30- 16:00, ROOM 9 Friday, 08:30- 10:00, ROOM 3 Harmonic Generation Tuesday, 18:30 -20:00, ROOM 3 Tuesday, 16:30 -18:00, ROOM 10 Tuesday, 11:00 -12:30, ROOM 11 I F A R G and X H Lasers andH C S and M Chemical Reac Ultr C maging in Scattering Media iber-based Sensors II iber-based Sensors ymmetries inUltrafast Science G Poster Session aman Spectroscopy dvanced OpticalSensing Techniques igh-Repetition XUV afast Spectroscopy -ray Sources olecular Dynamics igh-Order igh-Order tions
CI-1 CI-P CH-11 CH-P CH-9 CH-7 CH-6 CI-2 CH-13 CH-12 CH-10 CH-8 AND DATA STORAGE FOR COMMUNICATIONS CI – OPTICAL TECHNOLOGIES
Wednesday, 08:30 -10:00, ROOM 9 Monday, 10:00 -11:00, ROOM 3 Friday, 10:00- 11:00, ROOM 1 Thursday, 16:30- 18:00, 6 ROOM Wednesday, 11:00 -12:30,ROOM 2 Tuesday, 11:00 -12:30, ROOM 8 Friday, 16:30- 18:00, ROOM 4 andMicroscopyBeams Friday, 14:30- 16:00, ROOM 8 Friday, 11:00- 12:30, ROOM 1 Thursday, 14:30- 16:00, 2 ROOM Wednesday, 14:30 -16:00,ROOM 1 M f On- Dig Br CI P T F Q CH P Optical M H Th Spec or OpticalSensing emporally andSpatially Structured iber-based Sensors I iber-based Sensors yperspectral Imaging yperspectral uantum Sensing andImaging uantum Sensing icroscopy Sensors andImaging oadband Systems ursday, 08:30- 10:00, ROOM 3 ital Signal Processing oster Session chip Solutions chip Solutions oster Session troscopy at Level theMolecular etrology
Sessions atSessions aGlance
16 CI-5 icrowave Photonics CI-3 CJ-8 CJ-7 CJ-5 CJ-P CJ-4 CJ-3 oherent Combining Beam CJ-2 CJ-1 CI-4 CJ-6 LASERS AND AMPLIFIERS CJ – FIBRE AND GUIDED WAVE
Friday, 16:30- 18:00, ROOM 5 Friday, 11:00- 12:30, ROOM 2 for Telecommunications Friday, 11:00 - 12:30, ROOM 7 Friday, 08:30- 10:00, ROOM 4 and Components Thursday, 16:30- 18:00, 3 ROOM Thursday, 13:30- 14:30, 1 ROOM Wednesday, 11:00 -12:30,ROOM 1 Wednesday, 08:30 -10:00,ROOM 10 Optics andSCGeneration Tuesday, 18:30 -20:00, ROOM 4 Monday, 14:30 -16:00, ROOM 5 Thursday, 14:30- 16:00, 7 ROOM Th M H M F P C M Multimode NonlinearF M C T mrig Technologies Emerging ransmission Devices iber LaserComponents ulsed Fiber Laser J Poster Session igh Power Fiber Lasers ode-locked Fiberode-locked Lasersabove 2Micron ode-locked Fiberode-locked Lasers id-IR Fiber LaserSources ursday, 11:00- 12:30, ROOM 6
iber iber CK-10 CK-9 CK-8 CK-7 CK-P CK-5 CK-4 CK-3 eriodic Components CK-2 CK-1 CJ-10 CJ-9 CK-6 CK – MICRO- AND NANO-PHOTONICS
Friday, 14:30- 16:00, ROOM 5 for Micro-photonics Friday, 11:00- 12:30, ROOM 8 Friday, 08:30- 10:00, ROOM 8 Thursday, 16:30-18:00, 4 ROOM Thursday, 11:00-12:30, 7 ROOM Thursday, 08:30-10:00, 7 ROOM Tuesday, 11:00 -12:30, ROOM 6 Monday, 14:30 -16:00, ROOM 6 Monday, 08:30 -10:00, ROOM 6 Friday, 16:30- 18:00, ROOM 2 Friday, 14:30- 16:00, ROOM 4 Friday, 16:30 - 18:00, ROOM 3 Thursday, 13:30-14:30, 2 ROOM M No Non-Linear I Phot 3D F CK P B Silic I No P F Specialit ntegrated Photonics Devices iber Optical Techniques andApplications eam Manipulation icro andNanoResonators vel Technologies andMaterials vel Integrated Components abrication Techniques andComponents on Photonics oster Session onic Crystals y Fiber Lasers ntegrated Photonics CM-2 CM-1 CL-5 CL-3 ECBO JS CL + CL-P CL-2 CL-1 CM-4 CM-3 CL-4 WITH LASERS CM – MATERIALS PROCESSING IN BIOLOGY AND MEDICINE CL – PHOTONIC APPLICATIONS
Thursday, 08:30- 10:00, 6 ROOM Monday, 14:30 -16:00, ROOM 7 Structures Surface Friday, 14:30- 15:45, ROOM 2 Friday, 11:00- 12:15, ROOM 6 andSensing Imaging Thursday, 13:30- 14:30 3 ROOM Tuesday, 11:00 -12:30, ROOM 4 Monday, 18:00 -19:30, ROOM 2 Wednesday, 14:30 -16:00,ROOM 3 Shaping for LaserProcessing I Wednesday, 11:00 -12:30,ROOM 4 Thursday, 16:30- 18:00, 8 ROOM Sur T S Laser I D A A CL P Biolog Laser- pcrsoy Label-Free Spectroscopy, Th emporal andSpatial Beam emiconductor Processing dvanced Biological Microscopy ynamic andAdvanced Light Shaping dvances inDeep Tissue Imaging ursday, 14:30-15:45, ROOM 1 face Engineering andFunctionalisation oster Session Tissue Interactions andSurgery nduced Periodic ical andClinicalApplications EA-2 EA-1 EA-P PD-1 CM-P CM-7 CM-6 emporal andSpatial Beam CM-5 CM-9 CM-8 ULTRACOLD QUANTUM MATTER EA – QUANTUM OPTICS AND POSTDEADLINE SESSION
Tuesday, 18:30 -20:00, ROOM 2 Tuesday, 11:00 -12:30, ROOM 1 Monday, 13:30 -14:30, ROOM 1 Thursday, 18:30- 20:00, 1 ROOM Friday, 11:00- 12:30, ROOM 4 Thursday, 16:30- 18:00, 1 ROOM Thursday, 14:30- 16:00, 4 ROOM Shaping for LaserProcessing II Friday, 16:30- 18:00, ROOM 7 Friday, 13:30- 14:30, ROOM 1 Friday, 08:30- 10:00, ROOM 11 C and A EA P CLEO/E of T 3D LaserS CM P Diag M Sur Join T Waveguide-QED EQEC 2021SESSIONS old Molecules odelling and In-situ odelling andIn-situ face and Volume Processing ransparent Materials ransparent t Session CM withLiM t Session oster Session nostics oster Session tom-light Interfaces urope Postdeadline Session tructuring tructuring
Sessions atSessions aGlance 17 EA-7 EA-6 EA-5 uantum Optomechanics andDetectors EA-4 EA-3 EB-2 uantum Networks EB-P EB-1 COMMUNICATION,SENSING AND EB – QUANTUM INFORMATION, CLEO/Europe-EQEC platform. sent emailbe via just prior session. the For other all CLEO/Europe-EQEC sessions join the in via directly broadcasted be will from Messe Munich’s platform. Instructions on how to join in will many entitled "A 40-year to journey" place take Monday 21June 11:00-12:30am CEST zone, time Co-Laureate Reinhard Genzel, Max-Planck-Institut extraterrestrische für Physik, Garching, Ger Note: When on platform, the within each day, just go through session the titles and you find your will way. toallocated allow build-up the of sessions parallel the and check for overlaps. The conferencerunning virtually, each indicated room thisof programme is onlyvirtual space a How to findthe room?
Friday, 08:30- 10:00, ROOM 5 Thursday, 16:30- 18:00, 7 ROOM Thursday, 11:00- 12:30, 8 ROOM Wednesday, 14:30 -16:00, ROOM 7 Wednesday, 11:00 -12:30, ROOM 8 Monday, 18:00 -19:30, ROOM 7 Monday, 13:30 -14:30, ROOM 2 Monday, 08:30 -10:00, ROOM 7 Q C Q I EB P Q Q P ntegrated Devices andMemories The "Welcome Words and World of PhotonicsCongress Plenary by 2020 Nobel Prize olaritons andQuantum Fluids ofLight avity-QED andColdavity-QED Gases uantum Interferences uantum Light Sources oster Session
EB-3 EB-9 EB-8 EB-7 EB-6 EB-5 EB-4
Friday, 08:30- 10:00, ROOM 6 and State Estimation Thursday -11:00 -12:30, 9 ROOM and Error Correction Wednesday, 14:30 -16:00,ROOM 10 Wednesday, 11:00 -12:30,ROOM 11 of Entanglement II Tuesday, 18:30 -20:00, ROOM 8 of Entanglement I Tuesday, 16:30 -18:00, ROOM 11 Tuesday, 11:00 -12:30, ROOM 2 Computation and I Q Nonclassical Ligh Phot unu Tomography Quantum Computation Quantum Distribution Long-Range Distribution Long-Range uantum Imaging onic Quantum nterference t Sources
-
GENERAL INFORMATION GENERAL INFORMATION EC-6 EC-5 EC-P EC-3 EC-2 EC-1 EC-4 EC – TOPOLOGICAL STATES OF LIGHT AND FREQUENCY COMBS ED – PRECISION METROLOGY ED-P ED-3 ED-2 recision Spectroscopy ED-1
Wednesday, 13:30 -14:30,ROOM 1 Wednesday, 08:30 -10:00,ROOM 8 Tuesday, 16:30 -18:00, ROOM 5 Monday, 08:30 -10:00, ROOM 8 Thursday, 16:30- 18:00, 5 ROOM Tuesday, 18:30 -20:00, ROOM 9 TopologyHigh-order Driv T Th Emer EC P Band B Nonlinear T Band Monday, 18:00 -19:30, ROOM 6 Tuesday, 16:30 -18:00, ROOM 1 Tuesday, 13:30 -14:30, ROOM 2 Monday, 08:30 -10:00, ROOM 11 and F P ED P C and F P opology in recision Spectroscopy omb Sources andApplications ound States ursday, 11:00- 12:15, ROOM 10 en-dissipative Systems oster Session oster Session ging Trendsin Topology undamental Metrology II undamental Metrology I Topology –II Topology –I opology
and
EF-4 EF-3 Phenomena ode-Locking EF-2 EF-1 SOLITONSSELF-ORGANIZATION AND EF – NONLINEAR PHENOMENA, EE-4 EE-2 EE-5 EE-3 EE-P EE-1 Standards requency and ED-4 EE – ULTRAFAST OPTICAL SCIENCE
Wednesday, 14:30 -16:00, ROOM 8 Wednesday, 11:00 -12:30,ROOM 9 and Quantum Effects Monday, 18:00 -19:30, ROOM 11 Monday, 14:30 -16:00, ROOM 9 Nonlinear Reg T M Thursday, 14:30- 16:00, 12 ROOM Tuesday, 11:00 -12:30, ROOM 5 Friday, 11:00- 12:30, ROOM 9 Thursday, 16:30- 18:00, 9 ROOM Thursday, 10:00- 11:00, 2 ROOM Thursday, 08:30- 10:00, 8 ROOM Tuesday, 18:30 -20:00, ROOM 1 Miniaturized Comb Platforms No and M Ultr Ultr EE P HHG inC in W F 2D Transverse Dynamics Dynamics Transverse 2D lrfs Phenomena Ultrafast urbulence andNonlinearEffects vel Ultrafast Sources afast Characterisation Dynamics afast Molecular oster Session aveguides anipulation at Nanoscale ondensed Matter imes inOpticalFibers
Sessions atSessions aGlance 18 EF-8 EF-7 EF-6 inMicroresonatorsicro-combs EF-P EF-5 EG-7 EG-6 EG-5 EG-4 EG-3 EG-2 EG-1 AT THE NANOSCALE EG – LIGHT-MATTER INTERACTIONS
Friday, 08:30- 10:00, ROOM 7 Thursday, 14:30- 16:00, 8 ROOM and TopologicalEffects Thursday, 11:00- 12:30, 11 ROOM Thursday, 10:00- 11:00, 3 ROOM Thursday, 08:30- 10:00, 9 ROOM Friday, 08:30 - 10:00, ROOM 9 Thursday, 14:30- 16:00, 5 ROOM Thursday, 08:30- 10:00, 12 ROOM at theNanoscale Wednesday, 11:00 -12:30,ROOM 6 Wednesday, 08:30 -10:00,ROOM 7 Monday, 14:30 -16:00, ROOM 10 Dissipa EF P M Elec Resonan W Nano Nonlinear andUltr C C Emission C Dissipa S Light-driven Phenomena Phenomena Light-driven ymmetry Breaking, Geometrical Breaking, Geometrical ymmetry oupling at theNanoscaleII oupling at theNanoscale I ednesday, 14:30 -16:00,ROOM 5 tron-light Interactions oster Session -optics tive Solitons II tive Solitons I t Dielectric Nanostructures t Dielectric ontrol at theNanoscale
afast
EI-2 owards Applications andPerovskites EI-1 EG-P AND NOVEL MATERIALS EI – TWO-DIMENSIONAL EH – PLASMONICS AND METAMATERIALS EH-3 EH-2 treme andUltrafast Phenomena EH-1 EH-6 EH-5 EH-4 EH-P
Tuesday, 16:30 -18:00, ROOM 6 Photonic Environments Monday, 18:00 -19:30, ROOM 9 Friday, 10:00- 11:00, ROOM 2 F T EG P Tuesday, 11:00 -12:30, ROOM 7 and Nanophotonics Monday, 14:30 -16:00, ROOM 11 in PlasmonicsandMetamaterials Friday, 14:30- 16:00, ROOM 3 and Metasurfaces Friday, 11:00- 12:30, ROOM 10 Nonlinear Metasurfaces Thursday, 08:30- 10:00, 10 ROOM Light-Matter Interaction Wednesday 13:30 - 14:30, ROOM 2 Tuesday, 16:30 -18:00, ROOM 7 with Metasurfaces A Plasmonics f EH P A New P Ex Hybrid, Tunable and and Tunable Hybrid, rom SinglePhotons to Engineered dvanced Control ofLight pplications ofMetamaterials oster Session oster Session erspectives in Metamaterials inMetamaterials erspectives or Enhanced PD-2 EJ-2 J Poster Session EJ-1 EJ-P EI-4 EI-3 EI-P EJ-3 POSTDEADLINE SESSION PHOTONICS MODELLING AND COMPUTATIONAL EJ – THEORETICAL heory and Numerical Modeling andNumerical Modeling heory JSI-1 JSI –NANOPHONONICS
JOINT SYMPOSIA SESSIONS CLEO®/EUROPE-EQEC 2021 Wednesday, 14:30 -16:00,ROOM 12 Monday, 18:00 -19:30, ROOM 3 Intelligence Artificial Monday, 13:30 -14:30, ROOM 3 Friday, 08:30- 10:00, ROOM 10 linear Dynamics Wednesday, 14:30 -16:00,ROOM 11 Wednesday, 13:30 -14:30,ROOM 3 Thursday, 18:30- 20:00, 2 ROOM Tuesday, 11:00 -12:30, ROOM 9 EQEC P T Nonlinear OpticsM Optical C E M Gr EI P Monday, 08:30 -10:00, ROOM 9 for Nanophononics T ailored Light any States Body andNon- aphene Heterolayers oster Session ostdeadline Session omputing and omputing and odeling JSIII – ATTOCHEMISTRYJSIII JSI-3 JSIV-1 JSIII-2 heoretical Perspectives JSIII-1 JSII-P JSII-2 Generation trong-field THz JSII-1 JSI-4 JSI-P JSI-2 JSIV – DEEP LEARNING IN PHOTONICS AND APPLICATIONS JSII – HIGH-FIELD THZ GENERATION
Thursday, 14:30- 16:00, 11 ROOM Monday, 18:00 -19:30, ROOM 10 Wednesday, 13:30 -14:30,ROOM 4 Monday, 14:30 -16:00, ROOM 8 Wednesday, 10:00 -11:00,ROOM 4 Monday, 18:00 -19:30, ROOM 5 Monday, 08:30 -10:00, ROOM 10 Friday, 08:30- 10:00, ROOM 1 and TechniquesCharacterization Thursday, 08:30- 10:00, 1 ROOM Thermal Rectification. Systems. Radiative Heat Transfer Wednesday, 08:30 -10:00,ROOM 1 Acoustic Metamaterials JSI P Phononic Cr Optical C Experimen in A T JSII P A S Opt Nanophononic andOpt pplications ofStrong FieldsTHz ttochemistry ophononic and Optothermal ophononic andOptothermal oster Session oster Session omputing I tal Progress inAttochemistry ystals and
omechanical omechanical Sessions atSessions aGlance 19 JOINT SESSION LIM-CLEO®/EUROPE 2021 JSV – FLEXIBLE PHOTONICS JSIV-5 JSIV-P JSIV-3 andMetrologyearning inImaging I JSIV-2 CM-6 dvances inDeep Tissue Imaging ECBO JS CL + JSV-2 JSV-P lexible Photonic Materials JSV-1 JSIV-4 -CLEO®/EUROPE 2021 OPTICS (RUN BY OSA, SPIE) CONFERENCES ON BIOMEDICAL JOINT SESSION (EUROPEAN ECBO
Friday, 16:30- 18:00, ROOM 6 –SpectroscopyNanostructures Friday, 14:30- 16:00, ROOM 7 Thursday, 16:30-18:00, 10 ROOM Monday, 10:00 -11:00, ROOM 4 Friday, 11:00- 12:15, ROOM 12 Friday Thursday, 16:30-18:00, 1 ROOM Monday, 18:00 -19:30, ROOM 4 Monday, 08:30 -10:00, ROOM 12 and Integration Optical C JSIV P L Join Th A F JSV P F L and M L earning Metasurfaces - - earning Metasurfaces earning inImaging lexible Photonic Devices ursday, 14:30-15:45, ROOM 1 t Session CMwithLiM t Session oster Session oster session
etrology II omputing II 10:00 - 11:00, ROOM 3
SH-1 SH-5 SH-4 SH-3 SH-2 SH-12 SH-11 SH-10 SH-9 SH-8 SH-7 SH-6 SHORT COURSES
Wednesday, 08:30-12:00,ROOM 12 for Methods Modelling Photonics Wednesday, 16:30-20:00,ROOM 4 Shaping TechniquesSpatial Analysis, Propagation, and Wednesday, 16:30-20:00,ROOM 3 Parametric Oscillators Wednesday, 16:30-20:00,ROOM 2 Wednesday, 16:30-20:00,ROOM 1 Pulse Characterization Wednesday, 16:30 -20:00,ROOM 11 and other2DMaterials Wednesday, 16:30-20:00,ROOM 10 Wednesday, 16:30-20:00,ROOM 9 Principles andApplications Wednesday, 16:30-20:00,ROOM 8 Wednesday, 16:30-20:00,ROOM 7 and theirApplications Wednesday, 16:30-20:00,ROOM 6 Lasers Semiconductor Wednesday, 16:30-20:00,ROOM 5 Quantum Optics Shor Shor Shor Shor Shor Shor Shor Shor Shor Shor Shor Short Short t Course 4:LaserBeam t Course 3:Optical t Course 2:High-power Fiber Lasers t Course 1:Ultrashort t Course 11:OpticsinGraphene t Course 10: Silicon Photonics, t Course 9:Frequency Combs t Course Optics 8:NonlinearCrystal t Course 7: Measurements THz t Course 6:Mid-infrared t Course 5:Practical C ourse 12:Finite Element
GENERAL INFORMATION GENERAL INFORMATION Laser, Plasma andRadiation Physics, Romania niques and tunable intracavity lasers; wavelength mid-infrared wavelength lasers; tuning tech short-wavelength up-conversion lasers; lasers; cro-chip waveguide lasers; lasers; crystalline forlasers large-scale facilities; solid-state mi power-scalable lasers; ergy architectures; laser andlasers amplifiers; high-power and high-en Advances insolid-state novel lasers: solid-state CA – S processing; semiconductor inintegrated lasers not limited to: switching, clock recovery, signal techniques; applications, functional including but novel lasers, silicon-based als, characterization amplifiers;cal semiconductor new materilaser generation, semiconductor locking; mode opti lasers; semiconductor ring lasers; short-pulse l semiconductoric crystal lasers, micro-cavity cally-pumped semiconductor lasers; photon (extended) cavity emitting surface opti lasers; - powerhigh and brightness high vertical lasers; lasers; quantum well, wire, dot and dash lasers; W-lasers, quantum and cascade inter-subband to far-infrared semiconductor including lasers visiblelasers, near-infrared lasers, mid lasers; New technology, and devices applications; UV CB – S terization and modeling. ization of solid-state gain charac laser media; ceramics, and spectroscopic glasses; character and advanced stability; frequency crystals laser urations; ns-pulse generation; amplitude and trol; novel pump sources and pumping config for management thermal and quality beam con conversion; resonator laser techniques design; CHAIR: asers, nanolasers, plasmonic lasers, polariton CLEO®/Europe 2021 TopicsCLEO®/Europe emi olid Nicolaie Pavel , NationalInstitute for c ondu - s t a te c
tor L as
er L as s er s ------Paris, France Supérieure, Laboratoire Pierre Aigrain, Surrey, UK tion, chaos. photonic circuits; dynamics, laser synchroniza - photorefractives; electro-optic and Kerr devices and applications devices; of optical solitons and nanostructures; stimulated scattering processes es; novel nonlinear materials; metamaterials and fibres; quasi-phasematched materials and devic structures and microstructuredcrystal optical in waveguides and fibres, including photonic amplifiers and oscillators; nonlinear optics suchparametric devices as optical parametric ing; all-optical delay lines and slow light; optical munications applications and all-optical switch conversion for UV, the visible and IR; telecom nomena and nonlinear devices; new frequency Novel applications of nonlinear optical phe C monitoring. tal microscopy, and environmen devices terahertz - imaging, detectorahertz technologies, near-field and instrumentation, including advances inter cations; measurement terahertz new techniques and imaging; advances communi in terahertz troscopy, nonlinear THz phenomena, sensing, applications using radiation terahertz for spec linear optical mixing and laser-created plasmas; using and lasers, terahertz on sources non based ultrafast time-domain systems, direct generation on variousbased physical principles including radiation range inthe from 200GHz to 100THz, Sources for generating (far-infrared) terahertz CC – CHAIR: CHAIR: D – A T er ppli Juliette Mangeney, Ecole Normale Stephen Sweeney of , University a hertz ca tion S s our
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O ca pti tion cs s Topics ------20 optoelectronic systems applications and devices; andmethods measurement techniques, ultrafast carrier-envelopeultrafast effects; characterization agement; ultrafast electro-optics; pulse-shaping; supercontinuum generation; dispersion man amplifiers;ultrashort-pulse mid-IR generation; ametric amplifiers parametricand pulse chirped semiconductor and lasers ultrafast devices; par waveform ultrashort-pulse synthesis metrology; s es; compression, pulse carrier-envelope phase optical few-cycle lasers; mode-locked puls from state, solid fiber and waveguidesources; Femtosecond and generation picosecond pulse C University, Finland Parma, Italy ed applications.ed coherent quantum microscopy; Raman orient probing of multi-photon surfaces; imaging and includingvices amplifiers andlasers; nonlinear and semiconductors;in crystals de Raman based organic materials. dots, nano-tubes and nano-needles, innovative quantum wells, quantum wires and quantum materials,nano-crystalline single centres, defect fibre and photonic waveguides, crystal micro- and l tegration techniques; optical characterisation of and -engineering techniques; heterogeneous in micro- and nano-fabricationguide geometry; and materials laser glass in bulk, fiber and wave Fabrication of optical materials; crystalline new a C CHAIR: CHAIR: aser andaser nonlinear materials, micro-structured tabilization and pulse characterization; light nd F E – – C U O h ltr a pti Mikko J. Mikko Huttunen,Tampere , University of of , University DanielMilanese r ac ca a f teri as l
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------Universität, Jena,Germany Luxembourg, Luxembourg photonic fibres; active crystal and multispectral sensing; fibresensors usingconventional and sensors; trendsahertz new inoptical remote sensors; metamaterial sensors; biosensors; ter sor technologies and applications plasmonic ; metrology, photonic innew particularly - sen progress of aspects optical inall sensing and macroscopic to nanometric the recent scale; Inspection of range awide of from objects, the C phenomena. optical nonlinear relativistic laser-plasma interaction and acceleration; particle ultra-high-intensity physics laser and technology; tum-confined structures or at surfaces/interfaces; phase,densed nanostructures, bulk media, quan- strong-field driven electron dynamicsthecon in by high-field/attosecond methods; attosecond or dynamicslecular driven by strong fields or probed imagingdiffraction with electrons or photons; mo and microscopy; attosecondtry and femtosecond solved XUV/soft x-ray spectroscopy, interferome phenomena; high-harmonic generation; time-re nomena; laser-driven rescattering and recollision pulses; control of high-field and attosecond phe- ultrafast dynamics with intense free-electron laser field physics and attosecondscience; probing of i ond pulse generation; strong-field ionization and Strong-field and attosecond phenomena; attosec C niques; electro-optic sampling. ultrafastultrafast microscopic spectroscopy; tech of ultrafast technology, technological of aspects CHAIR: CHAIR: onization dynamics; novel technologies for high- G H – – H O igh Adrian Pfeiffer, Friedrich-Schiller- of DanieleBrida,University pti ca - F l ield S en
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M A i tto c ro s sc e c opy ond S c ien c e ------Limoges, France de Catalunya, Spain sers – including combination beam techniques (for power and of scaling energy waveguide and fibrela including novel waveguide and fibre geometries; Waveguide and fibre oscillatorslaser and amplifiers a CJ – age, near-field recording and super-resolution. buffering; holographic and 3D data optical stor photonic technologies, optical regeneration and ulation formats, radio-over-fiber and microwave recovery, packet/burst switching, advanced mod mission. sub-systems Optical including clock tions; multi-band optical amplification transand for transmission, optical amplification funcand access networks. Multi-core, multi-mode fibre politan transport networks, communication and Fourier transform. Submarine, core and metro processing, forward error correction, nonlinear ing and detection of optical signal Digital signals. Semiconductor for devices generation, process agation and polarization effects, fibre gratings. Fibre including devices nonlinear fibre, prop a C inverse problems; adaptive optics; phase retrieval. tion enhancement technologies microscopy; in UVand DUV microscopy; resolumetrology; dimensioncritical multiscale surface metrology; holography; scatterometry; or diffractometry on and interferometry; methods based devices applications and systems; novel measurement techniques,el spectroscopic nanospectroscopy; imaging;hyperspectral sensor multiplexing; nov CHAIR: CHAIR: nd nd I – A D O F mplifier a i pti b t Alessandro Tonello , XLIM, Crina Cojocaru, Universitat Politecnica re a ca S
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University, Turkey Toulouse, France enhanced linear and nonlinear excitation and manipulationporal of light fields for biomedicine; cle/molecule detection and tracking; spatio-tem Emerging concepts in biophotonics: single parti a C andwires, single molecules. nanocrystals nanomaterials including in-/organic nano-layers/ MEMS; hybridoptical 2D efficiency; and energy biology, lighting, communication, sensing and advancing integration the of photonic for devices photonicrials; integrated circuits and applications related to order/disorder in nanostructured mate nanostructuresodic (photonic issues crystals); of light (nanophotonics). Periodic or- quasi-peri regions than smaller or similar to wavelength the ticular, light-matter when interaction in occurs mensionality or size are reduced and, in par and inenvironments detected where either di- light when is created,ena occurring transported niques for photonic applications; novel phenom- Nanostructured materials and fabrication tech CK – cations infibre and wave guided lasers. dustrial applications; nanomaterials and appli their noveldevices; waveguide and fibresources for in- active microstructured fibre and waveguidelaser techniques for waveguide doped and fibre devices; advances infibre waveguide materials;fabrication and compression; spatio-temporal pulse evolution; linear conversion frequency and pulse generation coupling approaches; up-conversion lasers; non pumpboth and beams) and signal waveguide new CHAIR: CHAIR: nd L –
M P M edi hotoni , UNAM-Bilkent BülendOrtaç OlivierGauthier-Lafaye CNRS, , LAAS i c c ro ine - a c nd A ppli
N a ca no tion - P hotoni s
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Topics ------21 FORTH, Greece AustriaUniversität Innsbruck, lography, adaptive optics, phase conjugation time detection inbiophotonicstical ho :spectroscopy; measurements; New routes and for modalities op n urements including organic and inorganic cro-optics; optical new probes for meas local detection; micro-fluidics, optofluidics and mi- photon emission and absorption; quantum optics andtimode mesoscopic quantum optics; single and measurement; quantum fluid of light; mul entanglement; quantum correlations, coherence, cality and quantum interference; squeezing and Quantum light sources and applications; nonlo- E ton polymerization and printing. 3D laser manufacturing; additive manufacturing: two-pho modification, index engineering; laser-assisted micromachining; ultrafast processing: laser volume processes; assisted laser nanosynthesis; femtosecond 2D and 3D micro/nano plasma structuring; related techniques: MAPLE, LIFT, near-field techniques; ablation;growth: thin-film PLD, write LCVD; direct cessing: welding, cutting, treatment; surface laser cesses, ablation; high-power laser-materials pro transformation, chemical reactions, diffusion pro Fundamentals of laser-materials interactions: phase C microscopy, phototherapy, surgery, biomedicine. ance. Advanced light sources and geometries for coherence; polarization; and invari symmetry - reversal; optics inbiological scattering; media: CHAIR: CHAIR: A – Q anoparticles, electric fields andanoparticles, temperature electric M – M u EmmanuelStratakis, IESL- Alexander Jesacher,Medizinische a a teri ntum EQEC 2021 TopicsEQEC a l
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M er s a tter ------Université de Lille-CNRS, Lille, FranceUniversité deLille-CNRS, Maximilians-Universität, München,Germany Brossel Université P. etM.Curie, ENS,CNRS,France in photonic materials, non-reciprocity. quet-topological photonics, spin-orbit coupling nonlinear Flo topologicalsicrystals, effects, invariants, of topological photonic aspects qua non-Hermitian systems, probes of topological and topology lasers, disorder,ical in topology dimensions, Dirac and Weyl points, topolog- edge states,logical topological pumps, synthetic Advances in topological photonic lattices, topo E structures, quantum dots, cavity QED systems. nano-mechanics, ion-trap arrays, superconducting memories; integrated quantum quantum devices, staticfaces between and flying qubits, quantum entanglement distribution and distillation, inter quantum key distribution, quantum gates, logic munication protocols, quantum simulations, cation systems ;quantum algorithms and com Quantum computers and quantum communi a E trapped ion/atom setups, optomechanical devices. hybrid systemsinterferometry; such as cold and with atoms and Efimov molecules; physics; atom and Ferminamics systems; inBose dipolar physics quantum simulation; superfluidity thermody and ultracold quantum of gases atoms and molecules; ments in few- and many-body phenomena with quantum coherentDevelop in effects biology; quantum imaging and quantum lithography; in cavities; slow light and quantum memories; CHAIR: CHAIR: CHAIR: nd C – B – Q S T en opologi u Alberto Amo, Laboratoire Alberto PhLAM, Harald Weinfurter , Ludwig- JulienLaurat, Laboratoire Kastler s a ing ntum ca
I nform l S t a te a tion s
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GENERAL INFORMATION GENERAL INFORMATION F Glasgow, UK University, Sweden ing mid-infrared. applications in different ranges, includspectral units; measurement of fundamental constants; fundamental definition symmetries; of basic as by imposed nature the of quanta; tests of ultimate limitations of measurement precision cluding combs; frequency quantum metrology; Precision interferometry and spectroscopy in ED ena; nonlinear imaging and manipulation, novel phenomena. Applications of nonlinear phenom complex behaviours and statistically heavy-tailed teraction disorder between and nonlinearities, and dissipative solitons, pattern formation, in- wave mixing, parametric processes, conservative ics and self-organization; conversion, frequency Nonlinear optical phenomena including dynam- a EF tosecond pulses. geometries;guided coherent control using fem liquid, and solid materials; and free-space wave propagation andchemistry biology; gas, media: structures;al ultrafast phenomena in physics, troscopy of molecules, solids and low dimension waves and turbulence dynamics; ultrafast spec tation and applications, extreme events, rogue supercontinuum generation, ultrafast filamen ultrashort pulses inlinear and nonlinear media, regimes; propagationspectral and instabilities of Fundamental of ultrafast aspects in all science EE CHAIR: CHAIR: nd re – – – q S uen N U P elf ltr online re DanieleFaccio of , University Aleksandra Foltynowicz , Umeå c - c y org a i C s f ion as om a a t niz r
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------Paolo Biagioni,Politecnico diMilano, Italy Castelldefelds, Barcelona, Spain Ballears, Palma, Spain echanical echanical systems. micro and nano lasers, photonic optom crystals, coupled photonic polariton devices, condensates, mental of aspects nonlinear dynamics in single or optical materials, and devices systems. Funda Southampton, UK Southampton, Fundamental and applications aspects of EI systems with gain. nonlinear structures and effects; active systems, waveguides; metamaterials; hybrid materials; plasmonic nanostructures, antennas, cavities and applications and including regimes: spectral all Metal nanophotonics from fundamentals towards EH photovoltaics and catalysis. radiativees and tweezers; nano-energy: transfer, nanoscopy,and spectroscopy: nano-optical forc plications, ultrafast dynamics; optical imaging interactions with electrons/plasma and ap their and strong-field phenomena the at nanoscale: quantum and nonlinear opticalultrafast effects; and/or matter; quantum nano-optics: coherent, detection, emission and manipulation of light ic architectures, classical and quantum models, nanoantennas and nanophoton nanoscale: at the Fundamental of aspects light-matter interactions the EG CO-CHAIRS: CHAIR: CHAIR: – – –
N T L P a w no ight l o JulienJavaloyes, Universitat delesIlles VassiliFedotov of , University as - sca dimen moni - m le Niekvan Hulst,ICFO, a tter cs s ion
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l a s teri a l s Topics - - - - - 22 of Gothenbur ofoptical artificial materials. conductors and plasmonic structures; modelling optical plasmas, properties semi indielectrics, processing;terial first principlecalculations of nonlinear processes, shocks, wave collapse, ma of hardware accelerators. Modelling of singular massively including codes, parallel utilization ential equations; high-performance computing, ematics and numerical analysis differ of partial and semi-analyticaltreatments;full applied math proaches for fields all of optics and photonics: Predictive theoretical and computational ap E Universität München,Germany es; photovoltaics; smart windows and flexible tors, detectors, and other optoelectronic devic and light lasers; mode-locked sources, modula nonlinear phenomena in 2D and novel materials, actions in 2D materials; ultrafast dynamics and in optics and optoelectronics; light-matter inter graphene and other two-dimensional materials port in molecular junctions. in molecular port Micro/Nanoscale in 2D materials and metamaterials. Heat trans- Extreme-near-field heattransport. Heattransport JS changecentres; phase materials. perovskites and perovskite optoelectronics; NV waveguides; multi-layered 2Dheterostructures; and metamaterials; integration with cavities and displays; tunable devices; terahertz plasmonics P CHAIR: CHAIR: J – hotoni I – T N heoreti CLEO®/Europe-EQEC 2021 CLEO®/Europe-EQEC a Evangelos Siminos,University Alexander Holleitner,Technische cs nophononi Joint Symposia Topics
M g, Sweden odelling ca l
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------Roberto Li Voti Università , Sapienza Roberto ofTokyo,University Japan Mechatronic Systems, LIMMS/CNRS-IIS(UMI2820), VolzSebastian forIntegrated, Laboratory Micro- Computing at clock the frequency of aTHz applications of such interactions are enormous: but rewards the for potential the unlocking of involved in such interactions is challenging, of fields. the The understanding the of physics much cale shorter period oscillation than the matter, and probe interaction the on a times- approaching that of interatomic the fields in ultrashort, tailored THz fieldswith strengths field is spurred possibilitytheby to generate interesthigh and worldwide activity within this range defined (loosely as 0.1–30THz). The teractions light between and matter THz in the developments inexploration of strong-field in- The symposiumthe highlight mostwill recent a JS di Roma,I materials. Optomechanics and Phonon Coupling. Nonlinear Phononic and Acoustic Crystals Meta- amaterials. Topological Acoustics and Phononics. modulated Phononic and Acoustic Crystals Met and AcousticCrystals Metamaterials. Temporally andsign Fabrication. Applications of Phononic and Fabrication. Acoustic Metamaterial De Ultrafast heat transfer. Phononic Design Crystal thermophotovoltaics. and Thermoelectricity tion. interfaceThermal resistance. rectifica Thermal in heat transport and quantum thermodynamics. thermodynamics and Quantum devices. effects radiative heat transfer. Nonequilibrium effects, metrology. thermal scale/microscale Near-field eters, calorimeters, components). energy Nano- and Systems Devices Energy (including bolom- CO-CHAIRS: nd II A – ppli H igh taly ca - tion F
ield s
TH z
G ener a tion
- - - University, Denmark Peter Technical UhdJepsen,Danish Hamburg, Germany Franz, DESY, Kaertner of University gration and charge transfer and inmolecules of charge dynamics; photo-induced charge mi spectroscopy and high-harmonic spectroscopy namics attosecond inmolecules; pump-probe Attosecond imaging and control of charge dy- JS • • • • • • • • • • • • • • • • • • • • • Possible topics: level. elementary at the c formation processing, miniature accelerators, fieldwithout dissipation, energy quantum in CO-CHAIRS: ontrol of behavior the of complex molecules Applications Acceleration Generation THz-driven electrons Ultrafast tunneling phenomena high-harmonic generation lightwave electronics materials 2D Interactions regime ballistic inthe Relativistic strong-field interactions Nonperturbative effects Strong-field THz physics: THz pump – x-ray probe N-dimensional nonlinear spectroscopy Pump-probe experiments Single-pulse experiments Nonlinear spectroscopy techniques High-repetition-rate strong-field THzsources Propagation structures inguided enhancementLocal of strong THz fields Strong-field THz generation and detection III – A tto c
hemi s try - - de Madrid Fernando, Universidad Autónoma Martin Milano, Italy Chris Moser,EPFL,Lausanne, Switzerland Demetri Psaltis , EPFL,Lausanne, Switzerland ear, and dynamic of surfaces living organisms. suchetries, as interfacingcurvilin withsoft, the frombenefit softdevices and nonplanargeom stiff: There are many applications that would fabricated. However, world the is not flat and of because substrates the rigid on are which they Conventional photonic are devices planar and JS on recent progress exciting inthis field. new tation of networks. neural session This focus will functionality and in optical the also implemen- tems, of design optical control devices, of their processingthe of information from optical sys recently inavariety of ways inoptics, including network neural Deep techniques have used been JS for attochemistry.methods theoretical for technology attochemistry; laser damage; attosecond dynamics of chiral systems; gration; ultrafast dynamics of XUV radiation processes inbio-relevant systems; proton mi sional materials, topological systems; ultrafast o namics insolids and nanoparticles: clusters, in molecularsystems; attosecond charge dy of electronic survival in molecules; coherences control of coupled electron-nuclear dynamics nuclear dynamics with XUV and X-ray FELs; imagingin molecules; of ultrafast electron and liquids; imaging of changes few-fs structural CO-CHAIRS: CO-CHAIRS: rganic optoelectronic systems, two-dimen V IV – – F D lexi eep , Spain b
le le Mauro Nisoli,Politechnico di
a P rning hotoni
in cs
P hotoni cs
Topics ------23 Greece (CM chairCLEO®/Europe) Emmanuel Stratakis , IESL- FORTH, Heraklion, Germany (LiM) Materialforschung Berlin, und-prüfung(BAM), Rethmeier,Bundesanstaltfür Michael Berlin, Germany (LiM) Production Systems Technology and Design IPK, GrafBenjamin , Fraunhofer Institute for US (ECBOchair) Peter, Massachusetts Institute So ofTechnology, Austria (CLInnsbruck, chair CLEO®/Europe) Alexander Jesacher,MedizinischeUniversität Juejun Hu , IFAC, Righini Giancarlo Centro Fermi, Italy challenges associated withmaterial their choice, addressdevices, and scientific the technical fieldin the of flexible andstretchable photonic session This ties. lateston focus will advances formed without damage proper to useful their photonic that devices mechanically can be de This mismatch demands flexible stretchableand JS of T technology. the tion, and highlight key applications enabled by engineering, asdevice well as system integra CO-CHAIRS: CO-CHAIRS: CO-CHAIRS: E echnology, USA Joint Session ECBO(EuropeanJoint Session CB Conferences onBiomedical Optics (runby OSA,SPIE)- O LiM-CLEO®/Europe 2021 -C , Massachusetts Institute CLEO®/Europe 2021 LEO
Joint Session Joint Session ®/ E urope
- - - NOTE S
GENERAL INFORMATION GENERAL INFORMATION EQEC, WoP Congress), 5Tutorial talks, 9Key tions (CLEO®/Europe, including talks 3Plenary featuregramme will more than 1400 presenta The CLEO®/Europe-EQEC 2021 technical pro vance programme. CLEO®/Europe-EQEC 2021appear ad inthis Short abstracts of papers the presented to be at rope-EQEC platform. rope-EQEC sessions CLEO/Eu join the invia - to each participant. For other all CLEO/Eu form. Instructions on how to join in was sent broadcastedbe from Messe Munich’s plat 11:00 to 12:30CEST zone. time event The will place take oning will Monday 21June, from The official World of Photonics congress open by 2020Nobel Prize Co-Laureate Photonics Congress Plenary Talk Welcome Words and Worldof CEST zone.time Monday 21 June, 08:30 to Friday 25 June, 18:00, CLEO®/Europe-EQEC running from be 2021will Conference Dates during conference. the parallel sessions will virtually take place daily and 9poster sessions featured. be will Up to 12 conference the During week, 199oral sessions 12 shortwill courses be proposed. placetake on Thursdayevening. Additionally, presented two sessions inthe post-deadline to presentations invited, presentations 914oral and 408poster note talks, 72invited to talks, upgraded 20talks GENERAL INFORMATIONGENERAL . Additionally, be will 18oral talks ------12:15 – 12:30 11:15 - 12:15 Presented by OSA. r. Pfeiffer Reinhard c 11:00 – 11:15 Time schedule: Tuesday 22 June from 09:00 to 10:30, room 1. place during EQEC session the Plenary scheduled ofA series Prize and Award ceremonies take will Prizes andAwards 22 sessioncial to place take on Tuesday afternoon, Function” Zeta Riemann and the during aspe ent aKeynote Talk “Cavity QED, Cold Atoms recipient of Herbert the Walther Award pres will Institut für Quantenphysik, Ulm, Germany, 2021 Note: c c c Loosen Peter Dr. rof. rof. Dr.-Ing. Overmeyer Ludger Menoni rof. Carmen J.rof. Constance Chang-Hasnain . Bergé Luc
Herbert WaltherHerbert Award Prize and the J. resentation of Winners the of Bernard the P Extraterrestrial Physics, Garching, Germany Garching, Physics, Extraterrestrial committee. steering congress Photonics of Technology,Laser ILT and President the of World P PresidentSociety OSA President München GmbH. WLT e.V. Dr P P enad Genzel Reinhard D P Opening - Words of Welcome by: P Couillaud Prize Couillaud Plenary Talk “A 40-Year Journey”
June 2021, from 14:30to 15:30. rof. L David , Andrews Wolfgang Peter, U niversität Schleich Ulm, , President European Physical Society , M ax-Planck-Institute for , , Fraunhofer Institute for InstituteFraunhofer for , 2021, IEEEPhotonics SPIE President 2021 deputy CEO, Messe General information , President , 2021 - -
24 Optical Society (OSA), the European (OSA),the Society Optical Optical byed European the Physical (EPS),the Society The following Prizes and Awardsbe presentwill Interferometry” on “Attosecond talk a plenary Israel, Rehovot, Science, of Institute Consult Consult c c c c c c c c c c (EOS). Society During this session this During Nirit Dudovich recording of is optional. video the screen sharing of presentations. their Pre- Speakers are recommended live to with speak Speakers’ Information and lists of recipients. for information further on Prizes the and Awards c arly Career arly Career Women inPhotonics Award (OSA) Awards Society e Optical and 0 EPS-QEOD Prize for ‘Research inLaser EPS-QEOD/AMOPD (Atomic, Molec Awards EPS-QEOD the of (Quantum PS-QEOD and EPS Young Minds 2021 Best Honours: and Applications’ Science Medal Letokhov Physics and Optical ular Division) Vladilen Electronics and Optics Division Awards.Presentation Student 202 2021 E EOS E 2021 Th (4)PhD Thesis Prizes. (2)Fresnel Prizes.
OSA Foundation Student Prizes OSA Fellow Members Quantum Electronics Prize. (1) Quantum Electronics www.cleoeurope.org/awards-prizes/ ): willpresent , Weizmann - -
to be ableto be to with meet participants and explain/ attend his/her assigned poster break-out room topical poster session. author Each is required to poster authorEach assigned inaone-hour is also during conference. the presentationvideo visible to be to participants posterA4 size inpng format and ashort 3-minute poster presenterEach had possibility the to a post Poster Information ten minutes before of beginning the session. the chair room virtual inthe of their relevant session Speakers are asked to check-in with session the lengths,time given. no cantime extra be Speakers are requested stick to to strictly these presentationshort Course are 2 x 1.5 hour and • presentationslenary are 60 minutes long • eynote presentations are 45minutes long • utorial presentations are 60minutes long • nvited presentations are 30minutes long • ost-deadline presentations are 10minutes long • presentationsral are 15minutes long • of Presentations: the Oral Length S entation with screen sharing). anhalf hour break long in-between (live pres for discussion). for discussion) for discussion) for discussion). 3 minutes for discussion). (7 minutes live or pre-recorded presentation + + 3 minutes for discussion). (12 minutes live or pre-recorded presentation P P K T I O (50 minutes live presentation +10minutes (38 minutes live presentation +7minutes (50 minutes live presentation +10minutes (25 minutes live presentation +5minutes -
dentifying who will go for will dentifying who alive or apre- 3) of speakers hecking session if all the 2) onnecting to his/her session 10 minutes prior 1) SessionThe Chair mainconsist functions will in: help generate discussion. speakers stay within appropriate the limits, time to act introducewill speakers, make the sure the For each oral session anominated session chair chairs Session c c c c c c c c c zone):time Poster times given schedules time (all inCET microphone.her Point, …).She/he able will to mute/unmute his/ screen with apresentation (document, Power session, poster the author can share his/her his/herdiscuss poster presentation. the During riday: 13:30 – 14:30 13:30 – 14:30 riday: 10:00 – 11:00 riday: 13:30 – 14:30 ursday: 10:00 – 11:00 ursday: 13:30 –14:30 ednesday: 10:00 –11:00 ednesday: 13:30– 14:30 uesday: onday: 13:30– 14:30 10:00–11:00 onday: (CM topic) (CH, EGand JSIV topics) (CJ, CKand CLtopics). (CG, EEand EFtopics) (CD and EDtopics) (EA, EBand EJtopics) (CA, CB, CIand JSVtopics) (EC, EH, EIan JSI topics) (CC, CF, CEand JSII topics) F F Th Th W W T M M C I C recorded talk. present. are sessionthe begins.
-
conhome/1000412/all-proceedings). (https://ieeexplore.ieee.org/xpl/ Library Digital a ing (https://www.osa.org/en-us/publications/) published be will onlineries by OSAPublish onlinethe submission, one-page the summa Aftertheconference, if approvalgiven during Post Conference Publications week. full the conference for have who those registered for available be posters) will online during the The accepted one-page summaries (oral or Conference Publication recorded. be Part II(1hour ½). The short courses notwill Part I(1hour ½),break (30minutes), Course courseEach Course is intwo scheduled parts: due to zonetime constraints of instructor. the une exception 2021inthe of one course to placetake on Wednesday morning from 08:30 23 presented inparallel on Wednesday afternoon Twelve short courses at be an cost extra will Courses Short ost conference reporting of no-shows, report 9) eading questions the for to speaker an the 7) hen session the introducing runs, each 4) 8) 6) 5) nd IEEEPhotonics Society’s IEEEXplore
W propriate limits. time ing of any other matter. R swer helping them, generate discussion. M written down chat the via box. I speaker. R P J nforming audience the that questions can be eporting anyeporting problems to technical the staff. aking sureaking speakers the stay within ap the General information - - - - -
25 The CLEO®/Europe-EQECconference digestse- Copyright conference eligible be for will publications. the author(s) physically made presentation the at the Only papers (either oral or poster) for which the meets the requirements the meets as stated 8.2.1 in Section tions Manual. Authors must ensure that work their procedures IEEEPSPB inthe Opera as described Publication with IEEE is subject to policies the and expression of authors) the appear. statements in work published by IEEEare the Operations Manual, 8.1.1.B(concerning section Copyright Form, in which portions of IEEE PSPB “Author Responsibilities” of section IEEE the Authors are encouraged particularly to note the IEEE copyright notice. materialed and that work posted the includes an ers to theirobligations with respect to copyright displaysserver aprominent notice read alerting withoutservers permission, provided that the their IEEE-copyrighted material on their own and/or companies their have right the to post Upon transferring copyright to IEEE, authors published, copyrighted publication. is reprinted with permission from a previously cept for material public in the domain or which requirementis a necessary for publication, ex individualtheir papers. Transferring copyright IEEEinwritingthe any copyright hold they for authorsall or employers their must transfer to requiresIEEE policy that prior to publication digest copyrighted as awhole be shall by IEEE. law, 2021 CLEO®/Europe-EQEC the conference of IEEE.To extent the protectable by copyright conference programme, is registered name inthe containingries, papers presented of as part the - - - - • None of above the • Employed by United the States Government • Employed by European the Commission • Employed by aCrown Government status: ment form asked you your be to select will employ When filling out yourcopyright agreement online your presentations. rights or your employer’s rights to own and use your presentation not will affect in any way your Granting simple IEEEthis permission to record audio recordings of conference their presentation. or not to IEEEto make and distribute and video tion agreement may include permission giving Note: by accident, you are committing plagiarism. credit work the you have reused, either by choice or researchthe and to Society. If you to properly neglect authororiginal credit for his or her contributions to work and make it appear your to be own denies the andcal consequences. legal To reuse someone else’s ethi severe potentially with conduct, professional unacceptable and is considered aserious breach of thatognize plagiarism in any form, at any level, is source. It is important for IEEEauthors all to rec explicitly acknowledging original the author and else’s prior processes, ideas, results, or words without IEEE defines theplagiarism as someonereuse of visit: www.crossref.org/crosscheck/index.html yourscreen work. For more information please submitting your work you agree to allow IEEE to screened for plagiarism using CrossCheck. By seriously.ty Accordingly, submissions all be will protectionIEEE takes the of intellectual proper misconduct. author and responsibilities author authorship, originality, covering provisions of IEEE the PSPB Operations Manual, including part ofpart process the of signing apublica - - - - -
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Munich, Germany, April 26–29,2022.However, which is rescheduled to place take inperson in largest tradeshow of and laser optical technology, by LASER the World of Photonics, world’s the This year, notthecomplementedbe will meeting Exhibition information identification.their [email protected] including their picture to allow request to their send need by email to confer otaped from management the staff or its supplier Persons not wishing photographed to be or vide of use the images, the recordings, or materials. or other compensation arising from or related to cordings. She/he waives also any right to royalties orinspect approve of use the images the or re website. The registrant waivesalso anyright to Europe-EQEC marketing materials or conference his/her image future in the used to be CLEO®/ to capture,society store, use, and/or reproduce istrant grants permission full to management the By registering at CLEO®/Europe-EQEC, reg the Capture andUse ofaPerson’s Image written consent of presenter the or instructor. prior the without prohibited are conference the graphs by participants and other attendees during For copyright reasons, recording video or photo communications media. and/or inprint reporting purposes or electronic image for informational, publicity, promotional and use the distribution by EPSof attendee’s the CLEO/Europe-EQEC constitutes consent to Attendance at, or participation 2021 in,the Digital Recording Policy Audio, Video,Photography, General information - - - - - 26 Conference Registration fees Conference registration and networking. You exciting can expect pres community aplatform for information exchange of Photonics Congress and offerthe photonics take parallelthe digital in to place Thiswill World Days”dustry on World the of Photonics Stage. present “LASER the World of PHOTONICS In- from June 21to 24,2021, Messe Munich will dmission technical sessions virtual to of all the • Registration for meeting the includes: See https://www.world-of-photonics.com/en/ optics and many interesting showrooms. applications of tomorrow, as well as quantum entations on market figures theand photonics • Access to networking the features. eua xr e o hr ore€160 fee extra Regular for Short Course with the online digest online the with EPS/OSA/IEEE Member with the on line digest Non-Member clude copy a of an official student identity card. (*) Applications for student the rates must in tration fees are exempt from Value Added Tax. isPhysical not liable Society to VAT, regis all As an association without profit,the European Student fee (*) extra for Short Course digest online the with EPS/OSA/IEEE Student Member (*) with the online digest online the with Student Non-Member (*) CONFERENCE REGISTRATION FEES A from 21 to 25 June 2021, CEST zone.time ference (CLEO®/Europe-EQEC) to place take Europe –European Quantum Electronics Con 2021 Conference on and Lasers Electro-Optics/ € 470 € 390 € 220 € 200 € 80 - - - - English is official the language the of conferences. Language and André Wobst. This programmeedited is by Patricia Helfenstein 68200 Mulhouse, France des Frères rue 6 Lumière European Physical Society Conference management passed, The isno deadline canbe refund requested. Cancellation policy n-demand access of recorded the oral • technicalnline digest (1-page summaries) • • • a voucher to attend: Additionally, each registered person will receive presentations and panel discussions, network. L Photonics conferences. sessionsselected World from other the Laser of Th conference. the with and login password. O O sessions during a 6months after period ASER World of PHOTONICS Industry Days
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NOTES
27 Monday Orals ureUiest,Sde,Australia Sydney, University, Mac- quarie Mildren, Paul Richard Chair: Lasers Visible CA-1: 10:00 – 8:30 hara ∙ Lasers 8:30 Visible for Materials Tb-doped (Invited) MON CA-1.1 aesaeivsiae o the for peak power. high and investigated energy high lasers ecient semiconductor are blue visible lasers by activated pumped Tb3+ Japan Toki, Science, .Yshr,H hn n .Ue- H. and Chen, H. Yasuhara, R. ; ainlIsiuefrFusion for Institute National OM1 ROOM eie nS substrate. Si on devices photonic III-V of integration have neous We heteroge- demonstrated succesfully lasers. and crystal array photonic laser DFB results membrane recent on our describe will We Japan Atsugi, Corporation, NTT Labs, ogy n .Nishi H. and ∙ lasers crystal photonic and lasers membrane 8:30 integrated Heterogeneously (Invited) MON CB-1.1 King- United dom Guildford, Surrey, of University Sweeney, Stephen Chair: Lasers Membrane and Crystal Photonic CB-1: 10:00 – 8:30 .Mtu,K aea .Fujii, T. Takeda, K. Matsuo, S. OM2 ROOM ; T eieTechnol- Device NTT CLEO hi pia appearance. optical their aect structures photonic natural in disorder and order between terplay in- the how revise we Here sorption. ab- than rather nanos- materials, of tructured scattering by created of- are ten organisms living in Colours United Kingdom Cambridge, Cambridge, of der van and G.T. Kerhof, Jacucci, G. Schertel, L. structures photonic natural in disorder and order 8:30 between Interplay (Keynote) MON CE-1.1 Greece aklion, Her- (FORTH), Hellas - Technology Laser and Research and for Foundation (IESL), Structure Electronic Institute of Pissadakis, Stavros Chair: Structures Photonic CE-1: 10:00 – 8:30 ® Erp-QC2021 /Europe-EQEC OM3 ROOM ∙ .Vignolini S. ; University 28 ag (VIS-NOPO). spectral range visible complete the covers nearly which optical oscillator non-collinear parametric fast-tunable, power a laser high present cre- We ultrashort the tunable pulses. for of sources ation laser are novel oscillators parametric Optical Germany Hannover, GmbH, Germany Hannover, Germany Hannover, 2 Hannover, Morgner Binhammer Andrade de level. dB -10 at nm nm 890 to 628 from spanning signal ultrabroad- band stable delivering of ble capa- is which oscillator, optical parametric non-collinear locked mode Kerr-lens a pulse demonstrate breathing we design, a from Benecial Germany Hannover, e.V., Hannover Zentrum Germany Hannover, DESY,GmbH, Germany Hamburg, Disciplines), Elektronen-Synchrotron Germany Across Hannover, Innovation Engineering- and Optics, (Photonics, Germany Hannover, 2 Hannover, Morgner 8:30 ∙ oscillator parametric optical pulse breathing ultra-broadband pumped, synchronously locked, mode Kerr-lens MON CF-1.1 Germany Erlangen, Light, the of for Science MPI Fattahi, Hanieh Chair: Generation Pulse Ultrashort CF-1: 10:00 – 8:30 ..Dietrich 8:45 C.M. ∙ visible the in oscillator parametric optical non-collinear femtosecond power, high Ultra-broadband, MON CF-1.2 Lang T. .Fan J. .Mevert R. lse fEclec PhoenixD, Excellence of Cluster lse fEclec PhoenixD Excellence of Cluster ⋅ ody2 ue2021 June 21 Monday 1,2 3 1,2 1,2,5 .Binhammer T. , .Zuber D. , ; OM4 ROOM 3 1,2 ; 1,2 .Fan J. , .Binhammer Y. , .Beichert L. , 1 1 1,2 ebi University Leibniz ebi Universit Leibniz ..Cardoso J.R. , 1,2 .Mevert R. , ; ; ; 1,2 3 n U. and , 4 3 4 Deutsches n U. and , neoLASE neoLASE ; 1,2 5 Laser T. , 1,2 1,2 ä t , , ; ; nutaatnano-optics. ultrafast in applications several mo- show We ionic tions. and electronic, agation, prop- light of dynamics coupled ing solv- interaction matter light of tion descrip- computational and the- oretical initio ab an developed have We Japan Tsukuba, ∙ Solids in Dynamics 8:30 Ultrafast of Description Initio Ab (Invited) MON CG-1.1 Japan Science, Laser tense In- Ultrafast for Center Tokyo, of sity Mashiko, Hiroki Chair: Solids in Dynamics Ultrafast CG-1: 10:00 – 8:30 .Yabana K. ; OM5 ROOM nvriyo Tsukuba, of University Univer- e hc eeprmnal realized. experimentally systems, we stacked which such of metasurface examples the tailoring of system. response for the opportunities interesting new all- oers other layers and functional Mie-resonant metasurfaces dielectric of Stacking Germany Jena, sity, ∙ Layers Functional Other and Metasurfaces Resonant of Composed 8:30 Systems Photonic Stacked (Invited) MON CK-1.1 Gauthier-Lafaye, Olivier France Toulouse, LAAS-CNRS, Chair: Components Periodic CK-1: 10:00 – 8:30 .Staude I. ; stl ildsusseveral discuss will talk is rerc cilrUniver- Schiller Friedrich OM6 ROOM noapoo ooecm scarce overcome issues. resource to photon a onto en- information of qubits multiple codes which of multiplexing concept the quantum introduce world. we classical Here the in ways unavailable in enable transmission information will networking Quantum Japan Atsugi, Corporation, for Center Research and Laboratories ∙ 8:30 Multiplexing Quantum (Keynote) MON EB-1.1 MPQ, Reiserer, Germany Andreas Garching, Chair: Networks Quantum EB-1: 10:00 – 8:30 .Munro W. oeia unu hsc.NTT Physics. Quantum eoretical ; OM7 ROOM .NTBscResearch Basic NTT 1. n nqioal rv the this in system. prove TRS bosonic fermionic of unequivocally presence modes and edge protected counter-propagating characteristic demon- the experiments strate Our symmetry (TRS). reversal with time topo- Z2-insulator fermionic photonic Floquet a logical introduce We many Ger- Rostock, Rostock, of University ∙ Insulators 8:30 Z2 topological Photonic (Invited) MON EC-1.1 Germany University, Wuerzburg Klembt, Sebastian Chair: I Topology Band EC-1: 10:00 – 8:30 .Szameit A. OM8 ROOM ; nttt o Physics, for Institute CLEO fTko oy,Japan Tokyo, Tokyo, of Bescond, Marc Chair: Nanophononics for Modeling JSI-1: 10:00 – 8:30 highlighted. simulations. transport initio ab quantum on based dichalcogenides discussed layered be will metal of of Waalstransition composed properties der materials ther- van the transport two-dimensional presentation, mal this In Switzerland Zurich, Zurich, ETH Laboratory, Systems Integrated Szabo A. and Klinkert, C. Backman, ∙ materials Waals der van 2D in eects 8:30 thermal of modeling initio Ab (Invited) MON JSI-1.1 .Liir .Foe .Bnau J. Bunjaku, T. Fiore, S. Luisier, M. nuneo iodrwl be will disorder of inuence e ® Erp-QC2021 /Europe-EQEC oyadNumerical and eory OM9 ROOM University e ; 29 hi:PtrUdJpe,DUFo- Denmark DTU Lyngby, Kgs. Jepsen, tonik, Uhd Peter Chair: Generation THz Strong-eld JSII-1: 10:00 – 8:30 nanotubes. carbon and dichalcogenides, transition metal graphene, as such terials ma- dimensional low focusing cially high espe- of solids, in progress generation harmonic recent show We Japan Kyoto, University, Kyoto ∙ materials dimensional low from 8:30 generation harmonic High (Invited) MON JSII-1.1 .Tanaka K. ⋅ ody2 ue2021 June 21 Monday OM10 ROOM ; eateto Physics, of Department rcsl hnteCODATA2018 the values. than more precisely deter- constants to fundamental mine and quantum calculations ion theory molecular high-precision ab-initio accurately conrm HD laser-cooled trapped and of spectroscopy rotational Research, Doppler-free of precision Improved Nuclear Russia Dubna, for Institute of ratory France Villeneuve d’Ascq, Lille, of University 8523, 2 D Heinrich-Heine-Universit physik, Schiller Constantin Alighanbari S. HD of Spectroscopy THz Doppler-Free with Physics Fundamental of Test and Constants Fundamental 8:30 of Determination Improved (Invited) MON ED-1.1 Poland Torun, University, nicus Coper- Nicolaus Wcislo, Piotr Chair: I Metrology Fundamental and Spectroscopy Precision ED-1: 10:00 – 8:30 aoaor hA,CR UMR CNRS PhLAM, Laboratoire ü slof D sseldorf, + 1 ; 1 ntttf Institut OM11 ROOM 2 .Korobov V. , oeia hsc,Joint Physics, eoretical ; ü 1 slof Germany sseldorf, .Giri G. , 3 ooibvLabo- Bogoliubov ü Experimental- r + osalw to allows ions 3 n S. and , 1 , ∙ F.L. ä t ; esn n ilgclapplications. biological and for sensing integrations photonic 3D novel enables and materials optical selec- of the tion on limitations few shows ap- photonics. exible of universal fabrication the for a proach demonstrate We Zhejiang China Hangzhou, University, Engineering, Electronic 3 China Hangzhou, for Study,, Advanced Institute Westlake Technology, Hangzhou, Engineering, China University, of Westlake School Zhejiang Fabrication of Province, Micro/Nano Characterization and 3D of and Li Shi Y. Wei Chen Z. substrates exible on integration photonic for 8:30 approach universal A (Invited) MON JSV-1.1 Italy Florence, Physics, Applied Nello of Righini, Institute Carrara C. Giancarlo Chair: Integration and Materials Photonic Flexible JSV-1: 10:00 – 8:30 olg fIfrainSine& Science Information of College 3 .Zhong C. , 3 .Jian J. , ∙ ; 1,2 .Li L. 1,2 .Tang R. , 2 OM12 ROOM .Luo Y. , nttt fAdvanced of Institute 1,2 1,2 eeoe approach developed e 3 ; .Ye Y. , .Wu J. , 1 1,2 1,2 e Laboratory Key .Sun C. , 1,2 .Ma H. , 1,2 .Wang L. , .Lin H. , 1,2 3 M. , J. , 3 3 , , ;
Monday Orals Monday Orals lto fteuprlsrlvlby level laser upper cross-relaxation. the of ulation pop- ecient and sections cross tion absorp- Spec- UV higher reveals troscopy pumping. conven- cyan-blue to tional compared eciencies optical-to-optical sig- higher demonstrate nicantly and lasers Tb- based of pumping UV investigate We Germany C. Kristallz and Kr Castellano-Hernández, ∙ A12MN9:00 Tb UV-pumped in eciency absorption Enhanced MON CA-1.2 A13MN9:15 drawn. MON CA-1.3 .Klsik .Tnk,E. Tanaka, H. Kalusniak, S. ä otiuinhsbe with- been has contribution e nkel ; ü hug(K) Berlin, (IKZ), chtung OM1 ROOM ebi-ntttf Leibniz-Institut 3 + :LLF ü r it n nrycs e bit. per cost band- energy and modulation width laser calcula- the the of to tion it apply We Bloch between modes. waveguide gain, crystal by photonic induced cou- and pling, eect in- slow-light equations rate cluding laser derive We Italy Torino, Torino, di litecnico B13MN9:15 and Saldutti M. lasers crystal photonic slow-light of analysis equation Rate MON CB-1.3 injection investigated. being are and eciency the properties laser the the thermal of and evolution equations pumping. spectral rate optical the Using and electrical crystal employing by studied are nanolasers photonic heterostructure Denmark Lyngby, Kongens Denmark, of versity J. and Mørk Yvind, K. Semenova, E. iesen, Math- K.S. Xiong, M. Marchevsky, A. 9:00 ∙ lasers crystal photonic buried-heterostructure pumped optically and electrically of Comparison MON CB-1.2 .Dmpuo,Y u .Sakanas, A. Yu, Y. Dimopoulos, E. rpriso buried- of properties e ; T ooi,TcnclUni- Technical Fotonik, DTU OM2 ROOM ∙ .Gioannini M. ; Po- CLEO oini microcantilever. phonon-driven a in motion (non-Brownian) ballistic short-timescale ob- of optical servation rst the their present We aect properties. move- to which ments, thermal subject opto/electro-mechanical picometre-scale are nanostructures and Singapore Singapore, University, KingdomTechnological United , shire Hamp- Southampton, Southampton, Zheludev N. and E12MN9:15 ∙ Nanostructures Photonic in Motion Ballistic Phonon-induced of Observation First MON CE-1.2 .Liu T. opnnso photonic of components e ® 1 .Y Ou J.-Y. , Erp-QC2021 /Europe-EQEC OM3 ROOM 1 1,2 .MacDonald K. , ; 1 nvriyof University ; 2 Nanyang 1 , 30 updb P-resolid-state CPA-free amplier. a by pumped 1MHz rate. at repetition 7fs below Fourier-transform-limited duration pulse 2 a of energy visible and an with pulses compact ering deliv- a amplier optical-parametric present 30419 We e.V., Germany Hannover, Hannover Germany Zentrum Berlin, 12489 Spectroscopy, Pulse Short and Optics Germany Germany Hamburg, 4 22607 DESY, Hannover, AcrossDisciplines), 3 Innovation 30167 - Engineering and Optics, (Photonics, Germany Hannover, 2 30167 Universit nover, Leibniz Optics, ain n h cso cln to scaling rates. repetition of MHz-level eects the and sation, photoioni- self-focusing, dispersion, modu- third-order of instability, account lational hollow-core taking gas-lled bres, in which is optimal self-compression within soliton-eect space parameter multi- of boundaries the identify We Germany Erlangen, Friedrich-Alexander-Universit Morgner Zuber 9:00 ∙ Amplier Parametric Optical an From Rate Repetition MHz 1 at Pulses Visible Sub-10-fs Towards MON CF-1.3 h cec fLgt Erlangen, Light, of Germany Science the 9:15 K ∙ scaling rate repetition high and limits self-compression: Soliton-eect MON CF-1.4 Tani .Kleinert S. .Schade D. a onIsiuefrNonlinear for Institute Born Max Elektronen-Synchrotron Deutsches PhoenixD Excellence of Cluster ö ⋅ ttig 1 ody2 ue2021 June 21 Monday ; 1,2 1 ...Russell P.S.J. , 1 ...Andrade J.R.C. , 1,2,5 a lnkIsiuefor Institute Planck Max ; 2 OM4 ROOM 1,2 eateto Physics, of Department ; 1,2 1 ..Koehler J.R. , nttt fQuantum of Institute .Tajalli A. , ytmis system e 1,2 4 n F. and , ; n U. and , ä μ Han- t J 3 5 ä 1 D. , Laser t, F. , μ J ; ; ; epc oeprmna noise. experimental with to respect robustness and accuracy high guarantees method ptychographic our on techniques, Based traces. ity reectiv- dynamics transient attosecond exciton from ultrafast reconstruc- itera- of the novel tion for a algorithm tive ePIX, present We Italy Milan, IFN-CNR, Nanotechnologies, and Photonics for iMln,Mln Italy Milan, Milano, di 1 Nisoli M. Palo Di N. G13MN9:15 ∙ Algorithm Phase-retrieval a with Dynamics Exciton Ultrafast of Reconstruction MON CG-1.3 trace. interference an into mapped is tions is spec- zone noncollinear troscopy. Brillouin with rst observed the electrons leave the when direction nates Germany 9:00 Jena, Jena, fer Reisl J. Dielectrics in Oscillations Bloch Dynamical of Observation MON CG-1.2 .Moio B. eateto hsc,Politecnico Physics, of Department ; c httecretalter- current the that eect e ö Friedrich-Schiller-Universit nr .Km and Kim, D. hner, 1,2 1,2 ..Dolso G.L. , OM5 ROOM 1 ne fBohoscilla- Bloch of onset e n .Lucchini M. and , .Borrego-Varillas R. , 1 .Inzani G. , ; 2 ∙ .Pfeif- A. Institute 1,2 ä 2 1 t , , ; rt rirr emshapes. beam arbitrary erate gen- to required contrasts periods index and grating Ana- nonuniform mine deter- chip. models numerical the and lytical above into space waveguides free light integrated deliver from to theoretically cou- plers grating-based investigate We Kingdom United Southampton, Southampton, of University Centre, 9:15 Horak ∙ Shaping Beam Arbitrary for Gratings Bragg Tilted Out-of-Plane Designing MON CK-1.3 band their in diagram. points between exceptional operate hundred- to tuned carefully gratings across photonic We long uniform micrometer losses spatially energy decay. exponential demonstrate an accompanied by typically is lossy materials uniform in penetration Wave PA USA 15213, Pittsburgh, Carnegie University, Mellon Engineering, Computer USA 79409, Texas TX Lubbock, University, Tech Engineering, Computer and USA 20742, MD Park, College Maryland, of University Biochemistry, and istry Standards USA 20899, MD Gaithersburg, of Technology, and Institute National 1 Srinivasan K. Westly D.A. 9:00 ∙ Diagrams Band in Points Exceptional by Enabled Gratings Photonic in Losses Energy Uniformly-Distributed MON CK-1.2 .W o ..Gts n P. and Gates, J.C. Ko, D.-W. Yulaev A. hsclMaueetLaboratory, Measurement Physical ; ; 4 ; eateto lcrcland Electrical of Department 3 eateto Electrical of Department polcrnc Research Optoelectronics OM6 ROOM 1,2 ; 2 1 .Kim S. , eateto Chem- of Department 1 ..Roxworthy B.J. , n .Aksyuk V. and , 3 .Li Q. , 4 1 1 , , ; nals. sig- quantum and classical between coexistence and plane control work net- Intelligence Articial networkooding, protocol, dier- authen- transfer tication protocols, 5 anonymity signatures, ent digital se- cure unconditionally of imple- mentations experimental and quantum multi-user network a present We Changsha, China NUDT, Studies, plinary 7 Vienna Bo Austria Vienna, - (IQOQI), Kingdom Information Quantum United 5 Edinburgh, Kingdom 3 Kingdom United Sheeld, Sheeld, Kingdom United 1 Ursin Andersson E. .Nejabati R. Samec Ž. Neumann Kanellos G. Venkatachalam Alia O. Wengerowsky Lupo C. Puthoor Fletcher B12MN9:15 ∙ communication. classical with coexistence & plane control AI Protocols, Networks: Quantum Based Entanglement MON EB-1.2 ..Joshi S.K. olg fAvne Interdisci- Advanced of College and Optics Quantum for Institute United York, York, of University Bristol, Bristol, of University š kovi 5 .Stip M. , 1 ć 3 4 .Wang R. , .Solomons N. , 2 ; .Pelet Y. , nttt,Zge,Croatia Zagreb, Institute, 5 ..Quintavalle A.O. , 6 .Liu B. , 4 .Kling L. , OM7 ROOM eitWt University, Heriot-Watt 1 1 1 5 .Huang Z. , .Lon M. , 4 .Simeonidou D. , .Sag Tessinari Stange R. , č .Pirandola S. , 1 evi .Hugues-Salas E. , ; 2 ć 1 7 .Clark M. , 7 1 n .Rarity J. and , .Scheidl T. , nvriyof University e .Aktas D. , 1 .Qiu A. , č ari ; 1 I.V. , 2 6 ć A. , Ruder 6 3 2 1 S. , R. , S. , N. , 1 1 5 1 1 1 1 , , , , , , ; ; ; ; ia oe aemerged. have cones Dirac where lattices, honeycomb pressed com- critically also to We scheme our extend bulk. the from Hamiltoni- directly ans chiral 2D of invariants topological measuring for scheme demonstrate a and elaborate we tice, lat- polaritonic honeycomb a Using SpainFrance Barcelona, Catalunya, 4 de Palaiseau, Spain France Nanotechnologies, 1 Ravets S. Harouri Milicevic M. Massignan light- interactions. chiral matter Purcell-enhanced to route a providing res- structures, ring onator in QDs to extend to shown is coupling Chiral pho- waveguides. tonic topological to coupled (QDs) dots quantum interface semiconductor chiral using a demonstrate UnitedWe Sheeld, Kingdom Sheeld, of Univer- sity Facility, Epitaxy National Sheeld, Kingdom of United Sheeld, University tronomy, Skolnick 1 M. Dost R. C13MN9:15 ∙ graphene polaritonic in invariants topological Measuring MON EC-1.3 9:00 ∙ Dots Quantum Embedded with Photonics Topological MON EC-1.2 .St-Jean P. Foster A. HA nvriéd il,Lille, Lille, de Université - PHLAM de et Nanosciences de Centre eateto hsc n As- and Physics of Department ; ; 1 1 .L Gratiet Le L. , 1 .Clarke E. , .Bloch J. , 3 2,3 1 nvria Politecnica Universitat OM8 ROOM .Jalalimehrabad M. , 1 .Dauphin A. , .Real B. , 1 1 2 n .Wilson L. and , .Lema A. , CO Barcelona, ICFO, 1 n .Amo A. and , 4 2 .Jamadi O. , 1 .Patil P. , .Sagnes I. , ; î tre 2 EPSRC 2 1 P. , A. , 1 4 2 1 1 1 , , , , ; ; ; CLEO ductance. con- boundary thermal to monicity anhar- of and contribution the formalism, quantify function Green’s an- non-equilibrium by phonon harmonic interface Si/Ge at transport Japan Tokyo, Tokyo, Science, dustrial Volz S. and Nomura, 9:00 ∙ formalism function Green non-equilibrium phonon anharmonic by interface Si/Ge of MON JSI-1.2 o-hra csi h steady- distributions. electron the state in and eects heating non-thermal of rst comparison a the time, for allowing, lumination, nanos- il- continuous-wave under plasmonic tructures in distribution electron the determining for theory self-consistent a developed have We Israel Sheva, Beer Negev, the of University Gurion Ben- Engineering, Computer and cal Israel Beer University, Sheva, Gurion Ben istry, Sivan 9:15 Y. Dubi Y. eects non-thermal vs. thermal – nanostructures plasmonic in generation electron “Hot” MON JSI-1.3 .Go .Zag .Bsod M. Bescond, M. Zhang, Z. Guo, Y. swr rsnsasuyo heat of study a presents work is ra onayconductance boundary ermal ® 1 Erp-QC2021 /Europe-EQEC .Sarkar S. , 2 ; OM9 ROOM 1 eateto Chem- of Department ; 2 colo Electri- of School 1 , ; nvriyof University e ∙ nttt fIn- of Institute ..Un I.W. 2 and , 31 ihih h nuneo various of frequencies. cyclotron/plasma simulations inuence and the in 1D highlight Particle-in-Cell radiation 2D domain. Terahertz wake the to few-cycle Cerenkov able high-intensity, are magnetized, produce plasmas strongly and underdense between laser a interactions Relativistic Bruyères-le-Châtel, France LMCE, CEA, France Bergé SI12MN9:00 Gremillet ∙ plasmas magnetized laser-created, by generation pulse Terahertz MON JSII-1.2 investigations. spectroscopy THz nonlinear for ful use- uniquely are pulses THz commercial en- ergetic and kHz short extremely 1 Such OPA. standard a by driven air-plasma 2-color from tion genera- pulse THz ultra-broadband multi-mW-level, demonstrated We Denmark Lyngby, Kongens Denmark, of versity Jepsen 9:15 ∙ spectroscopy THz nonlinear for pulses THz ultra-broadband induced air-plasma Multi-mW-level, MON JSII-1.3 .Tailliez C. .Zo,M amse,adP.U. and Rasmussen, M. Zhou, B. ⋅ ody2 ue2021 June 21 Monday 1,2 ; ; T ooi,TcnclUni- Technical Fotonik, DTU ; 1 1,2 E,DM I,Arpajon, DIF, DAM, CEA, 2 OM10 ROOM nvriéParis-Saclay, Université .Debayle A. , 1,2 .Davoine X. , 1,2 n L. and , 1,2 L. , fCH of the of linestrengths of ment CH momethane, CH iodide, methyl of spectra absorption high-resolution transform assign and measure Fourier to spectroscopy fre- comb optical quency mid-infrared use We Germany Kiel, Kiel, of versity Germany 3 Greifswald, (INP), Tech- nology and Science Plasma for stitute est,Ume versity, 1 Germann Vieira Senna F. ∙ 9:15 Spectroscopy Transform Fourier Comb Frequency Using Compounds Organic Volatile Halogenated of Measurements High-Resolution MON ED-1.3 zene. the of study fre- sive center exten- line an and determination CO2 quency uncer- the kHz in 30 tainty report demon- We is strated. source laser tunable nonlinear widely comb-referenced a through metrology modes Bending USA Nashua, Italy Industriale,Bologna, Chimica di partimento Arabia Center, Science Research Combustion Clean for Technology, Milano and University di Italy Abdullah Lecco, Politecnico IFN-CNR, and - Fisica Marangoni Laporta P. Tamassia 9:00 F. Gatti ∙ 12 beyond metrology modes Bending MON ED-1.2 μ .Hj A. Gotti R. nttt fPyia hmsr,Uni- Chemistry, Physical of Institute eateto hsc,Ume Physics, of Department .W lopoietes assess- rst the provide also We m. μ m 1 3 ..Shakfa M.K. , ; ä I. 3 ltén nvriàd oon,Di- Bologna, di Università 1 1 n .Foltynowicz A. and , OM11 ROOM 1 1 .Lamperti M. , ; .Farooq A. , 1 å .Sadiek I. , 3 Sweden , ; .Schunemann P. , 4 1 1 A ytm,Inc., Systems, BAE iatmnodi Dipartimento 2 .Stuhr M. , ˄ Br 1bn fben- of band 11 2 3 2 rud3.3 around , ; wl Saudi uwal, ,addibro- and I, .Canè E. , 2 2 2 ebi In- Leibniz n M. and , .Lu C. , ˄ ; 1 4 å 3 D. , 2 M. , band King Uni- 1 4 3 1 , , , ; ; rcsl n eesbytuned. reversibly is and strength precisely coupling its con- and photonic trolled, is gap the inter-cavity molecule’s stimulus, as temperature external elastomer Using crystal struc- substrates. liquid are on cavities tured mode whispering gallery of molecules Photonic Technology, Germany Karlsruhe, of Institute Karlsruhe Kalt H. 9:15 ∙ Substrates Elastomer Flexible on Molecules Photonic of Coupling Tunable MON JSV-1.3 one only with ber. 0.88 of aperture an cal reaching numeri- ultra-high bacteria, unprecedented coli E. and microbeads silica meta- single of a trapping for ber of single-mode enhanced application lens de- and concept, sign the demonstrate We Germany Jena, FSU Jena, Research, Material of Institute Kingdom London, United London, College Imperial Germany M LMU Munich, Nanoinstitute Nanosystems, Physics, Hybrid Germany of Jena, Jena, Faculty FSU and Photonic Technology, Germany Photonic Jena, of Schmidt Institute M.A. and Kim 9:00 ∙ trapping optical exible for meta-ber aperture numerical Ultra-high MON JSV-1.2 .Wsa .Rez .Kryl and Karayel, O. 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Mathes, ∙ MECSELs broadband for strategy Design MON CB-1.4 ieha spreaders. heat car- bide silicon and operation tem- room perature at tunability nm 86 with .M Phung H.-M. Tatar- P. Phung, H.-M. Kahle, H. 2 .Kahle H. , OM2 ROOM 1 1 ; 2 μ .Tatar-Mathes P. , 1 .Levallois C. , n h mem- the and m polcrnc Re- Optoelectronics 1 .Alouini M. , μ m ; MEC- e 2 Institut 2 N. , μ m 2 1 , , ; CLEO n ehooy wnj,South Gwangju, Korea Technology, and n tcatcpinholes. stochastic ent inher- device having medium lens- PUF brous with strong portable a optical, propose less, we Here, increase security. information and potentially hardware brous can and medium (PUF) functions able unclon- Physically of Combination USA Lafayette, West Korea South Song 9:45 Leem J.W. ∙ Media Fibrous with Function Unclonable Physically Optical and Lensless MON material CE-1.4 to enhanced recongurability. thanks an complexity by crystals liquid characterized on dispersed switchable based polymer PUFs strong and all-optical demonstrate We recongurable networks. for in open proposed processes authentication functions been secure have unclonable (PUFs) Physical Italy Fiorentino, Sesto Italy 50019 (CNR-INO), Institute Optical tional Fiorentino, Sesto Physics, 6 of 50019 Department Florence, Italy Siena, 53100 Sciences, Engi- Mathematical and Information neering M of Department D-80799 Germany Physics, Fiorentino, of Sesto Italy 50019 Spectroscopy (LENS), Nonlinear of oratory (INRiM), Italy Turin, 10135 Research Metrological Riboli F. Barni 9:30 M. ∙ crystals liquid dispersed polymer via PUFs strong optical Switchable MON CE-1.3 ..Kim M.S. Nocentini S. ainlRsac etr-Na- - Center Research National ; 1 ® ; ; 1 wnj nttt fScience of Institute Gwangju Erp-QC2021 /Europe-EQEC 2 3 2,6 osiUiest,Wonju, University, Yonsei ; M M LMU 4 ..Wiersma D.S. , 3 1 ; OM3 ROOM ..Kim Y.L. , ..Lee G.J. , 4 ; 1 nvriyo Siena, of University 1,2 ainlIsiueof Institute National 3 .Ruehrmair U. , udeUniversity, Purdue ; ü 2 ; uoea Lab- Europeran ce Faculty nchen 1 5 ..Choi S.H. , nvriyof University 3 n Y.M. and , 1,2,5 ü nchen, and , 2 3 , , ; 32 fLgt ragn Germany Alexander-Universit Erlangen, Science the Light, 2 for of Institute Planck eects. buildup reducing dissipa- signicantly tion, heat accelerates ductivity con- thermal high with gases lighter Adding gases. noble heavier in rates repetition high at compression pulse aects depressions density thermal Germany Russell Koehler J.R. 9:30 Gases Conned of Photoionization High-Repetition-Rate by Caused Eects Buildup Suppress to Mixtures Gas MON CF-1.5 F16MN9:45 ∙ compression plate multiple double-pass in compression pulse Nonlinear MON CF-1.6 hogptadgo emquality. beam good % and 57 throughput with fs 17.8 to fs 190 from pulse the compressing is demonstrated, rst scheme plate (DPMPC) multiple compression double-pass new A and Dunedin Zealand New Photonic 9016, Technologies, for Quantum Centre Zealand Walls New Victoria 6012, Wellington Wellington, Engineering, of University of Faculty Taiwan 2 30013, Hua Hsinchu University, Tsing National Technologies, Lu C.-H. Chen K. .H Chen B.-H. eateto hsc,Friedrich- Physics, of Department oisnRsac Institute, Research Robinson ⋅ ulu fionisation-related of buildup e ody2 ue2021 June 21 Monday 1,2 and , 1 2,3 ; OM4 ROOM .D Yang S.-D. , 1 1 .X Su J.-X. , 1 nttt fPhotonics of Institute .Schade D. , ∙ .Tani F. ä ; ,Erlangen, t, 1 3 .Y Guo J.-Y. , 1 1,2 Dodd- e ; 1 and , P.S.J. , ermal 1 Max 1 , ; ; iyo aionaBree,Berkeley, Berkeley, California of sity Germany Berlin, 7 Institute, Austria UniversityHaber Vienna, Technical Vienna, Germany Photonics, Jena, Jena, Friedrich-Schiller-University Canada Télécommunications, Recherche Varennes, 4 la Scientique, de et National Institut aux GermanyGermany Friedrich-Schiller- Jena, 2 Jena, University Electronics, 1 Spielmann eld. optical the of shape the by imprinted dynamics carrier band intra- and inter- coupled intricately the reveal currents Ultrafast pulses. laser femtosecond in phase-controlled electrons carrier-envelope using 2D-materials on control coherent sub-femtosecond demonstrate We Stanford 94025, USA CA, Park, SLAC/ Menlo University, Physics and Applied Science Photon of Departments Germany N Universit Alexander 1 .Z M. Pug Weber Uschmann Herrmann Zapf P. 9:45 M. ∙ interaction light-semiconductor intense upon absorption light to carriers free of Contribution MON CG-1.5 9:30 ∙ 2D-materials in dynamics electron eld-driven Light MON CG-1.4 .Hollinger R. Boolakee T. eateto hmsr,Univer- Chemistry, of Department Physics, State Solid for Institute Jena, Jena, Institute Helmholtz Quantum and Optics of Institute Friedrich- Physics, of Department ü neg 15 Erlangen, 91058 rnberg, ž lys ü 1 rch n .Hommelho P. and , 5 .Baltu A. , ; ; 1,6,7,8 1,2,9 1 2 4 3 OM5 ROOM .Reisl U. , o tPLEInstitute, PULSE at now .Shumakova V. , eteÉegeMatéri- Énergie Centre 1 n .Kartashov D. and , .Heide C. , 1 1,2 .Ronning C. , .R R. , ; .Haddad E. , š ka 5 ä 5 nttt for Institute Erlangen- t .Légaré F. , ö hner ö 1,2 der ; H.B. , 4,9 1 4 6 A. , I. , Fritz C. , 1,9 3 5 3 1 , , , ; ; ; ; ; .Switkowski K. etwt ueia simulations. numerical with ment agree- excellent in mid- are results mental a of micro-cavity. modes infrared resonant a with group methylene the vibra- of bands several tional of coupling the issued from modes mul- vibro-polariton of tiple dispersion the resolve We France Nanotechnologies,Palaiseau, A. et and Nanosciences Jeannin, Colombelli, ∙ M. R. Bousseksou, Malerba, 9:45 M. cavity mid-infrared resonant a in embedded lm polyethylene a from formation vibro-polaritons Multiple MON CK-1.5 aper- numerical ture. low with high-quality vortices of and generation end for ber used at integrated rigidly are which systems two-component micro-lenses. index gra- dient nano-structured compact a performance of optical on report We Qatar Qatar, 0200, ACT Australia Canberra, Warsaw, University, 00-662 Poland 75, Poland Koszykowa Warsaw, 02-668 3 Lotników32/46, Al. Photonics, and tronics Poland Warsaw, 02-093 2 5, teura 1 Krolikowski 9:30 ∙ Beam Vortex Optical of Generation for Components Nanostructured with System Fiber MON CK-1.4 .M Manceau J.-M. Nguyen H.T. aswUiest fTechnology, of University Warsaw Pas- Microelec- of Institute Warsaw, Łukasiewicz of University ; ; 5 4,5 OM6 ROOM ea & nvriy, University A&M Texas 4 utainNational Australian 1,2 n .Buczynski R. and , 3 .Filipkowski A. , .Pysz D. , ; etede Centre experi- e 2 W. , ese 1,2 1,2 , ; ; ; Austria Graz, GmbH, TechnologyTelekommunikation Austria Vienna, of GmbH, Institute Austria Lax Austrian S.F. Klosterneuburg, and a in users net-work. 8 quantum to up resource-optimized between 75 to km up over distribution glement entan- recongurable to demonstrate techniques management wave- length exible industry-grade with telecom, source photon entangled on-chip, broadband an combine We France Paris, LIP6, CNRS, France Palaiseau, France Nanotechnologies, et Nanosciences de de Centre CNRS, Paris, 7162, France CNRS-UMR Paris, de Université Quantiques, Phénomènes Ducci ol odtosi Graz in conditions real- world under methods using sharing them secret store sensitive and data and genome images large tribute dis- to AES-encryptors by used been have systems QKD from keys Secure Austria Austria Graz, II, (LKH)-Graz Graz, Graz, M H. Boitier .Brcic L. 9:45 Poppe Zatoukal B. Transit in and Rest at Data Medical Sensitive Securing for Use-case OpenQKD MON EB-1.4 9:30 Amanti ∙ networks quantum for chip AlGaAs an with distribution entanglement Flexible MON EB-1.3 .Appas F. ü 1 2 ; ; ; ller 3 ; .Strasser W. , ; 1 4 .Diamanti E. , .Lema A. , .Setay L. , 1 3 4 aoaor aéiu et Matériaux Laboratoire oi elLb,Nozay, Labs, Bell Nokia 2 .Plass M. , 1 nvriéParis-Saclay, Université OM7 ROOM 4 .Baboux F. , 1 obneUniversité, Sorbonne 4 .Kutschera F. , eia University Medical 5 ; 1 5 .Stockinger B. , .Zatloukal K. , 4 .Kipperer B. , 1 ; fragmentiX, 4 ; î n S. and , tre ; 5 3 1 Hospital Citycom 2 M.I. , 2 F. , , 2 AIT ∙ A. 4 4 3 , , , flgtadmte,bsdo lead on based perovskites. halide matter, and light of of particles hybrid dispersion polaritons, the exciton in invariant topolog- of ical non-Hermitian measurement novel the the present We China Beijing, University, Wroc Technol- and ogy, Science of University Singapore Singapore, Australia Canberra, 2 University, Xiong Liew cinaon ia points. Dirac around inter- action spin-orbit symme- Dresselhaus the of try has splitting with associated TE-TM eld magnetic tive honey- lattice. a microcavity comb in photons for eld gauge non-Abelian synthetic re- a of experimental alization the on report We Kingdom 9:45 United Sheeld, Sheeld, ∙ Graphene Photonic in Interaction Spin-Orbit Dresselhaus of Analogue Optical MON EC-1.5 Pieczarka Huang 9:30 Y. ∙ Polaritons Exciton with Invariants Topological Non-Hermitian Measuring MON EC-1.4 .Krizhanovskii D. Estrecho E. ayn ehooia University, Technological Nanyang 2 .Ostrovskaya E. , 2,4 ; 1,3 1 2 ł w Poland aw, OM8 ROOM .Wurdack M. , 1 ..Truscott A.G. , .Su R. , utainNational Australian e ; 2 .Biega D. , nvriyof University ; ; 1 n Q. and , 4 3 Tsinghua 1 Wroc T.C.H. , eec- e 1 ń M. , ska ł aw 3 , ; CLEO eaet us vrasnl scan single a over pulse terahertz a of can state polarization full the that measure detector cross-nanowire polarization-sensitive a present We Australia Canberra, Physics, Optical of School Research Meta Systems, Transformative on United Glasgow, Kingdom Strathclyde, University of Physics, of Department Kingdom United 2 Oxford, Oxford, of 1 Jagadish C. tralia Aus- Canberra, University,, National Physics, Research of School Engineering, Materials Fu Strain Rothmann Sterzl S. temper- paradigmatic graphene-based crystal. onic a the of for case shown Results are introduced. is short on timescales, tempera- made oscillations sustaining wavelike cell slabs ture unit two a of with structure France Villeurbanne, CNRS, and 1 Lyon Université Institut Matière, Lyon, Lumière de Université group, Italy Brescia, Cuore, Sacro del Cattolica Università Italy Brescia, 2 Engineering, Brescia, of Information University of ment 9:30 ∙ Gandol M. Graphene in Waves Temperature for Superlattice A Crystal: Temperonic MON JSI-1.4 S-. O 9:45 ∙ Nanowires by Detection Full-polarization-state Terahertz MON JSI-1.5 .Ban F. .Peng K. nttt fPoois SUPA Photonics, of Institute University Physics, of Department eateto hsc n I-LAMP, and Physics of Department utainNtoa University, National Australian e 3,4 eprnccytl periodic a crystal, temperonic e ® ..Dawson M.D. , ; 2 ..Tan H.H. , 4 Erp-QC2021 /Europe-EQEC R eteo Excellence of Centre ARC 3 ; 1 1 ; 3 .Jevtics D. , ..Damry D.A. , 1 eateto Electronic of Department 3,4 .Guilhabert B. , 1 OM9 ROOM N-N n Depart- and CNR-INO 1 .Giannetti C. , n ..Johnston M.B. and , ; 3 3,4 FemtoNanoOptics ..Herz L.M. , 2 .Hurtado A. , 2 Australian e .Zhang F. , 1 M.U. , 2 2 M.J. , and , 1 L. , 2 3 1 , , ; ; ; 33 iy anvr,Germany , Hannover Univer- sity, Hannover Leibnitz Optics, Uzbekistan , Tashkent University, Technical State h xioi states excitonic the between as moments dipole well transition as moments dipole per- manent large of contribution the to due pulse terahertz yield may matrix tric dielec- a into quan- incorporated dots semiconductor tum the of sisted con- nanocomposite through gating propa- pulse femtosecond Intensive Germany , Hannover PhoenixD, Excellence of Belarus Minsk, Institute BSU, Environmental Sakharov Belarus Minsk, sity, Germany Minsk, Belarus Belarus, NAS Centre search 1 Sapaev Khasanov Rusetsky G. h neatosa h rsa sur- crystal the face. at interactions the of connement to due free matching transmission. in ZnTe emis- from THz sion the augment to inter-ference scheme quantum two-color novel on based a demonstrate We of Kingdom University United Brighton, Sussex, Lab, Photonics gent 9:30 ∙ Nanocomposites in propagation Pulses Femtosecond under Generation Terahertz of Mechanisms MON JSII-1.4 ecn,J uei .Oiir,A. Peccianti Olivieri, M. and L. 9:45 Pasquazi, Tunesi, J. Cecconi, ∙ ZnTe from Generation Terahertz Interference Quantum MON JSII-1.5 .Fedotova O. .Ptr,JS oeoGnoa V. Gongora, Totero J.S. Peters, L. cet-rcia aeil Re- Materials Scientic-Practical ⋅ eeainmcaimi phase- is mechanism generation e ody2 ue2021 June 21 Monday 5 ; n .Babushkin I. and , 2 ; a onIsiue Berlin, Institute, Born Max 1 3 OM10 ROOM .Smirnova T. , eauinSaeUniver- State Belarusian ; 1 6 .Fedotov A. , nttt fQuantum of Institute 1 .Husakou A. , ; 4 International ; 5 ; Tashkent 7 ; 4 Cluster 3 U. , Emer- O. , 6,7,2 2 , ; fdnmcprocesses. dynamic observations of real-time near abling en- processing data parallel fast and spectroscopy dual-comb QCL measurements with absorption res- olution high gapless, demonstrate We Switzerland Z Zurich, Switzerland ETH Electronics, eNuhtltl Neuchâtel, , Université Switzerland Neuchâtelâtel, Physique, de de Institut Technology, D 2 Environmental Empa, / 1 kHz. 200 below precision average an .Faist J. Mangold cm the of tra spec- Doppler-limited record we ter spectrome- transform Fourier a and dif- comb generation ber-based frequency ference compact a Using Poland Nataraj Kapsalidis Komagata Wroc Technology, and Science of Wroc Electronics, of Faculty Group, Electronics Fiber and Ume University, 1 Sobo G. D15MN9:45 ∙ measurements gas-phase dynamic for processing data real-time with spectroscopy dual-comb QCL high-resolution Gapless MON ED-1.5 G A. Krzempek 9:30 ∙ Source Generation Frequency Dierence Compact a Using 8 at Spectroscopy Transform Fourier Comb Frequency MON ED-1.4 .Gianella M. Germann M. aoaor Temps-Fréquence, Laboratoire Pollution Air for Laboratory eateto hsc,Ume Physics, of Department − 1 n banln oiin with positions line obtain and ł uszek 1 3 ń .Beck M. , 4 n .Emmenegger L. and , .Jouy P. , 2 2 2 3 OM11 ROOM ˄ .Hudzikowski A. , n .Foltynowicz A. and , ü .Hillbrand J. , .Tuzson B. , ; ; 1 2 edr,Switzerland bendorf, 3 .Tomaszewska D. , ado N of band nttt o Quantum for Institute 4 1 1 Rwe G St AG, IRsweep .Vogel S. , .Hj A. , å Sweden , 4 3 .S T. , .Hugi A. , ł wUniversity aw 2 ä ü t1285 at O ltén dmeyer ; 1 1 3 A. , 2 1 K. , F. , ü 4 Laser μ K. , M. , rich, ł m ä aw, fa, 2 2 2 1 1 å , , , ; ; ; ie enhancement. times 1.8 deliver simulations distribution, size NWs’ the considering stretch- Aer 25% ing. under times 2.2 sig- by second-harmonic nal the of ment enhance- experimental nanowires present GaAs and of of arrays performances ordered optical study We Kongens Denmark, Denmark Lyngby, of University Technical Nanophotonics, for Centor Kongens Denmark Denmark, Lyngby, of University Russia Petersburg, Z St. 49, prospect nverkskiy Physics, of Switzerland Quantenelec- Dep. for tronics, Institute Group, Z Grange Lebedkina E. Vogler-Neuling V. 9:45 ∙ Nanowires GaAs of Arrays Stretching by Tuning Generation Second-Harmonic MON JSV-1.5 composite structure. within switching signals optical and of capability strain sensing triaxial We unique demonstrate polymer. bre reinforced glass carbon advanced and namely into glass composites, silica (50 planar exible embed United We Bristol, Bristol, Kingdom of versity Kingdom Southampton, United 3 of Southampton, University ing, of Kingdom University United Southampton, Southampton, Centre, Research Dulieu-Barton J. 9:30 Mennea ∙ Composites Advanced into Embedded Photonics Flexible MON JSV-1.4 .Saerens G. Holmes C. rso opst nttt,Uni- Institute, Composite Bristol ü ih pia Nanomaterial Optical rich, ; 1 1 n .Timofeeva M. and , ; .Jantzen S. , 3 T ooi,Technical Fotonik, DTU OM12 ROOM 1 ; .Bloch E. , 2 1 2 colo Engineer- of School .Godfrey M. , TOUiest,Kro- University, ITMO 3 .Petrov M. , 3 1 ; .Semenova E. , ; 1 1 Optoelectronics .Bull D. , 1 4 .Frizyuk K. , NanoPhoton- μ thick) m 1 ; 2 2 2 1 ü R. , and , P. , ETH rich, 3,4 2 , , ;
Monday Orals Monday Orals prtn t2.35 at operating SESAM InGaSb/GaSb mid-infrared well type-I quantum a present We Electronics, Quantum Z of Institute 14:30 Golling, M. Gaulke, M. Heidrich, J. Alaydin, B.O. SESAM well quantum InGaSb/GaSb type-I Mid-infrared MON CE-2.1 of USA Birmingham, University at Alabama Mirov, Sergey Chair: Devices Photonic for Semiconductor CE-2: 16:00 – 14:30 Germany Tech- Aachen, ILT, Laser nology for Institute Fraunhofer Loosen, Peter Chair: Co-Laureate Nobel Prize 2020 by Talk Plenary Congress tonics Pho- of World and Words Welcome PL-1: 12:30 – 11:00 10.59 r ie( time ery recov- fast suited ideally and 0.81%, ü ih Switzerland rich, μ J/cm2, τ . ps). 1.9 = 2 OM1 ROOM 1 ROOM ∙ .Br,adU Keller U. and Barh, A. Δ f1.69%, of R μ ihFa of Fsat with m Δ n of Rns ; H msinaddetection. and emission for THz metasurfaces absorbing perfect and conversion frequency transient diraction, and switching ultrafast metasurfaces, nonlinear from ation of gener- some harmonic on describe work recent will our I talk, this In USA buquerque, ∙ Metasurfaces Semiconductor Nonlinear 14:30 and Ultrafast (Invited) MON CD-1.1 Tampere Finland Tampere, Huttunen, University, Mikko Chair: Metasurfaces Nonlinear CD-1: 16:00 – 14:30 .Brener I. ; adaNtoa as Al- Labs, National Sandia OM2 ROOM 2 ROOM ecm n nrdcino h ent akof Talk Keynote Loosen Prof. the by Genzel of Prof. Introduction and Welcome Pfeier Dr. by note Welcome CLEO yond. 2 lasers at solid-state emitting ultrafast va- of large a riety mode-locking for used when enable they performance with connection in reviewed are mirrors absorber saturable semiconductor Finland Tampere, ∙ lasers ultrafast mid-IR for technology 14:30 SESAM GaSb-based (Invited) MON CA-2.1 France Caen, CIMAP, of University CNRS, Loiko, Pavel Chair: 2- CA-2: 16:00 – 14:30 .Guina M. e etrso GaSb-based of features key e ® Erp-QC2021 /Europe-EQEC μ OM3 ROOM OM3 ROOM ; Lasers m μ apr University, Tampere idwadbe- and window m OM1 ROOM 34 .Loe,A ufrcmd n L. and Emmenegger Kupferschmid, 14:30 A. Looser, H. ∙ platforms ying aboard sensing Trace-gas air! the in Up MON CH-1.1 France Lille, Lille, de Université Focsa, Cristian Chair: Sensing Gas CH-1: 16:00 – 14:30 oeta sn edapiainre-sults. application eld using potential their highlight We environ- sciences. mental in options remarkable and up rugged opened that instruments to lightweight led spectrometers based QCL of components main the of reconsideration fundamental Our D Empa, Technology, Environmental / lution ormlinslrms bet hc utb single a be must hole. which black object, massive of mass existence solar the million and Way four Milky a our of distribu- Center mass the the in study tion to journey 40-year our discuss I Germany Garching, Physics, ∙ Journey 40-Year A (Plenary) MON PL-1.1 .Tzo,M rf .Scheidegger, P. Graf, M. Tuzson, B. .Genzel R. ⋅ ody2 ue2021 June 21 Monday ü edr,Switzerland bendorf, ; OM4 ROOM OM4 ROOM ; a lnkIsiuefrExtraterrestrial for Institute Planck Max aoaoyfrArPol- Air for Laboratory erpr u rtrslso the on results rst our report We Germany Jena, mechanics, Germany ne Jena, GmbH, 4 Systems Germany Jena, Jena, Jena, Germany University Jena, Schiller Friedrich 1 Grebing C. Gaida Lenski M. ∙ rate repetition kHz 98 14:30 at mJ-pulses 1 delivering system amplication chirped-pulse ber Tm-doped combined coherently Four-channel MON CJ-1.1 Center, Research Russia Moscow, Optics Dianov Fiber Likhachev, Mikhail Chair: Combining Beam Coherent CJ-1: 16:00 – 14:30 carriers. free role of important the reveals threshold intensity lasing the of dependence nZOti lms. thin ZnO in emission stimulated of onset the ing us- by of light wavelength long absorption intense, Friedrich the investigated We Photonics, Germany Jena, University, Schiller of USA Sciences Center Berkeley, Materials Division,, Laboratory, USA .Heuermann T. ruhfrIsiuefrotc and optics for Institute Fraunhofer Physics, Applied of Institute ; 3 8 .Klenke A. , arneBree National Berkeley Lawrence 1 1,4 OM5 ROOM 5 ROOM .Gebhardt M. , n .Limpert J. and , ; 2 emot Institute Helmholtz 1,2 1,2 .Wang Z. , & n iet wtht h te conferences other the to switch to time and Q&A ; .M M. , 3 wavelength e cieFiber Active ; 1,2 ü 9 Abbe C. , ller 1,2,4 1 1 , , ; ; E,LT,Geol,France Grenoble, LETI, 4 Slovakia CEA, Žilina, and 3 Multimedia Technologies, Information-Communication Dept. Žilina, Szelag Boeuf Cassan Roux E. Le X. Aubin ∙ photodetectors p-i-n avalanche 14:30 silicon-germanium Receiver-less (Invited) MON CK-2.1 France Palaiseau, Paris-Saclay, Université CNRS - C2N Dagens, Béatrice Chair: Components Integrated Novel CK-2: 16:00 – 14:30 aasa,France de Nanotechnologies,Palaiseau, Centre et Nanosciences CNRS, Paris-Saclay, .Benedikovic D. Tireetois rle,France and Crolles, STMicroelectronics, Alpes Grenoble University 4 3 1 .M Fedeli J.-M. , n .Vivien L. and , .M Hartmann J.-M. , 1 .Marris-Morini D. , OM6 ROOM 6 ROOM 1 .Alonso-Ramos C. , 1,2 ; .Virot L. , 3 .Kopp C. , 2 nvriyof University 1 ; 3 1 .Amar F. , Universite 3 3 G. , 1 B. , F. , 1 1 , , ; ; ntttf Institut Germany Dresden, 1 Voisiat Bouchard ycmiigdtriitcperi- deterministic combining by fab- the surfaces on multi-functional of report rication we work, this In Argentina Dresden, Neuquen, Comahue, del (IWS), Germany Strahltechnik ∙ Methods Microfabrication Based Laser using Structures Surface Periodic Multi-Scaled and Single Fabricating by Properties Surface 14:30 Controlling (Invited) MON CM-1.1 Berlin, BAM, Bonse, Germany Joern Chair: Structures Surface Periodic Induced Laser CM-1: 16:00 – 14:30 ..Lasagni A.F. ehiceUniversit Technische 1 n .Soldera M. and , ; 1 .Baumann R. , OM7 ROOM 7 ROOM ü 3 ekt und Werksto- r nvria Nacional Universidad 1,2 .Milles S. , ; ä 2 Dresden, t Fraunhofer- 1 B. , 1 F. , 1,3 ; n tutrlrarneet in cation methane rearrangements the eect structural isotope and in making and bond norbornadiene : molecules ex- cited atto in multi- dynamics quantum equilibrium state fem- non ultrafast tosecond driven Coherence Belgium Liege, ∙ Molecules Excited Atto in Dynamics Quantum Electronic Equilibrium Non Multistate Ultrafast by Motion Nuclear Steering 14:30 (Invited) MON JSIII-1.1 Spain Madrid, Madrid, de Autonoma Universi- dad Martin, Fernando Chair: Attochemistry in Perspectives JSIII-1: 16:00 – 14:30 .Remacle F. OM8 ROOM 8 ROOM ; eoretical nvriyo Liege, of University CLEO asmse qainfrA mod- AM for equation master Haus from predictions divergent Its ence. coher- quantum and dynamics gain for fast- equation incorporates that master modelocking a present We Spain Burjassot, Italy France Valbonne, 3 CNRS, d’Azur, Kingdom United 1 Prati Perego A.M. Equation Master Modelocking: Laser in Eects Fast-Gain 14:30 and Coherence Quantum (Invited) MON EF-1.1 Germany Berlin, versity, L Kathy Chair: Phenomena Mode-Locking EF-1: 16:00 – 14:30 applications. new into time-domain imaging and spectroscopy terahertz expand promise to which crosstalk, without nvriàdl’nura Como, dell’Insubria, Università Birmingham, University, Aston ; ® 3 and , Erp-QC2021 /Europe-EQEC 4 nvria eValència, de Universitat OM9 ROOM 9 ROOM 1 ∙ .Barland S. , ü ..d Valcárcel de G.J. g,TcnclUni- Technical dge, ; Coherent e 2 nvriéCôte Université 2 F. , NOTES 4 ; ; 35 fehne n rabn collec- broadband and enhanced capable of devices several present We Oldenburg, Germany Oldenburg, of D-26129 University Physics, W fEclec tqa,Universit ct.qmat, W Institut Excellence W of Physikalisches and Physik, Sweden Stockholm, 10691 University, Stockholm Physics, ∙ .H S. Moczala-Dusanowska Ginés L. nanostructures semiconductor in 14:30 generation Entanglement (Invited) MON EG-1.1 - ICFO Spain Castelldefels, Hulst, van Niek Chair: Nanoscale the at Control Emission EG-1: 16:00 – 14:30 .Predojevi A. ü ü ⋅ nttt fPooi Sciences, Photonic of Institute e zug Germany rzburg, zug mHbad D-97074 Hubland, Am rzburg, ody2 ue2021 June 21 Monday ö ing 1 ü ..Gnae Ureta Gonzales J.R. , zugDednCluster rzburg-Dresden OM10 ROOM OM10 ROOM 2 .Schneider C. , ć 1 ; 1 eatetof Department ; ; 2 .Jurkat J. , 3 2 nttt of Institute Technische 3 and , 1 M. , ä 2 t , il ocnrllna n nonlinearproperties. and linear control to metamate-rials these of used feature ENZ have the We metamaterial. bolic hyper- multilayer metal-dielectric fabricating a and visible designing by at range metamaterial epsilon- obtained near-zero we study, this In Finland Tampere, ∙ metamaterials -near-zero epsilon multilayer with control 14:30 interaction Light-matter (Invited) MON EH-1.1 Portugal Lisbon, Lisbon, Telecomunica Instituto de Huidobro, Paloma Chair: Metamaterials and Plasmonics in Phenomena Ultrafast and Extreme EH-1: 16:00 – 14:30 .Caglayan H. OM11 ROOM 11 ROOM ; apr University, Tampere ç e,Uiest of University ões, toeodpletrains. pulse of attosecond shaping and tempo- characterization the ral for FERMI the FEL at seeded used recently technique ysis anal- correlation the on simulations and data experimental present will I Germany Freiburg, University, ∙ Lasers Electron Free at 14:30 metrology Attosecond (Invited) MON CG-2.1 Germany berg, Heidel- Physics, Nuclear for Institute Chair: Light XUV Intense and Controlled CG-2: 16:00 – 14:30 .Sansone G. msPefr Max-Planck Pfeifer, omas OM12 ROOM 12 ROOM ; Albert-Ludwigs-
Monday Orals Monday Orals Fakult ∙ lasers emitting surface cavity vertical III-N-based 15:00 for concepts Novel (Invited) MON CE-2.3 compatible foundry Si process. pseudo-planar a with 26 with are (7.7 nm powers noise-equivalent 1310 low detectors record at (SPAD) demonstrated Diode Avalanche Single-Photon Ge-on-Si Kingdom United 2 Kingdom United Glasgow, Glasgow, Buller Dumas D. ∙ 14:45 Infrared Short-Wave the in Power Equivalent Noise Low with Detectors Diode Avalanche Single-Photon Ge-on-Si MON CE-2.2 a:etneigcnat are contacts conducting demonstrated. including tunneling highly also GaN:Ge but concepts ITO Hole enabling design. injection VCSEL and cavity short better spreading promoting current mirrors AlInN/GaN Bragg epitaxial conductive highly demonstrate and discuss We Germany Magdeburg, Magdeburg, Otto-von-Guericke-Universit Benakaprasad Llin Kuzmenko .Dadgar A. Millar R. eitWt nvriy Edinburgh, University, Watt Heriot orburn × 1 μ .Yi X. , 10 imtrpxlfabricated pixel diameter m 2 ä n .Paul D. and , f t – 17 2 .Huddleston L. , 2 ü WHz OM1 ROOM .Vines P. , 1 1 Naturwissenschaen, r ; .Greener Z. , .Kirdoda J. , 1 2 .Bruce A. , ntttf Institut .Watson S. , – 1 / 2 1 ,uiga using ), ; 1 2 nvriyof University .Ferre- L. , ü Physik, r ä 2 1 1 t 1 K. , G. , F. , B. , 2 , ; ulco Korea of public Re- Seoul, University, Korea Physics, h utplrntr fterop- their of nature by multipolar the originated nanoparticles Al- Mie-resonant GaAs of dimer a in dichro- ism circular nonlinear of eect the demonstrate experimentally We rea Ko- of Republic Seoul, University, rea Ko- Technology, and Science verging USA Angeles, Los 5 California, ern Russia St. Petersburg, University, ITMO Engineering, inlUiest,Cner,Aus- tralia Canberra, Na- University, Australian tional Physics, of School Park .H Choi J.-H. ∙ 15:00 Dimers Nanoparticle AlGaAs from Generation Second-Harmonic the in Dichroism Circular Nonlinear MON CD-1.2 .Melik-Gaykazyan E. UKS rdaeSho fCon- of School Graduate KU-KIST 3,5 ; n .Kivshar Y. and , 2 eateto hsc and Physics of Department 3,4 OM2 ROOM .Petrov M. , ; 4 nvriyo South- of University ; 3 eatetof Department 1 .Frizyuk K. , 1 ; 1 2 Research H.-G. , 2 , ; CLEO hretpledrto rma the diode-pumped laser. from is duration this Tm,Ho-codoped pulse best knowledge, the shortest To our to 102-MHz. at 2- power modelocked output 200-mW 213-fs and duration pulse with a laser Tm,Ho:CLNGG demonstrated diode-pumped We China Mianyang, Materials, Germany 1 Pan 15:00 ∙ nm 2093 at laser Tm,Ho:CLNGG Modelocked Femtosecond Diode-pumped MON CA-2.2 .Hamdan M. Ruhr-Universit 2 ® .Wang Y. , Erp-QC2021 /Europe-EQEC ; OM3 ROOM 2 nttt fChemical of Institute 1 1 .Tomilov S. , n ..Saraceno C.J. and , ä ohm Bochum, Bochum, t 1 Z. , μ m 1 ; 36 hpbsdsupercontinuum chip-based transmitting by CO achieved a of are molecular bands gas lines. transition extract Distinct absorption post-processing to ro-vibrational propose method We daejeon, of technology, Korea South institute and advanced science korea technol- and ogy, nanoscience of Korea school institute, South research daejeon, energy Australia atomic canberra, 3 university, national australian physics, of school South Korea daejeon, and (kaist), science technology of institute advanced Lee Rotermund source. percontinuum su- the of rate repetition the to enced refer- demodulation synchronous as well as detection balanced of baseband capable mid-infrared source a supercontinuum on based spec- trometer transform Fourier fast- and scanning compact a developed We Netherlands Nijmegen, University, Radboud Materi- als, and Molecules for Institute Physics, Laser and Molecular of Depart- ment Group, Harren Research Krebbers, F.J.M. Gas Trace and R. Abbas, , M.A. Jahromi Eslami K. ∙ 14:45 sources supercontinuum mid-infrared rate repetition high for developed spectrometer transform Fourier MON CH-1.2 H13MN15:00 ∙ source supercontinuum chip-based using spectroscopy gas CO for processing signal Post MON CH-1.3 .Koaahh .Nematollahi, M. Khodabakhsh, A. .Hwang J. unu pisdvso,korea division, optics quantum ⋅ 1,4 ody2 ue2021 June 21 Monday ; ; 1 2 eateto hsc,korea physics, of department ae hsc ete research centre, physics laser 1 OM4 ROOM 1 .h Ko K.-h. , .Y Choi D.-Y. , ; 3 n H. and , 4 graduate 2 F. , ; ; nrya etrwvlnt of wavelength center nm. 1940 a at energy 228 FWHM to up fs with <120 duration with pulses livers coherent ampliers. ber the thulium-doped four of combination demonstrate We Engineering, Germany Precision Jena, Germany and Optics Jena, Jena, 4 Institute Germany Jena, Friedrich-Schiller-Universit Photon- Jena, of Center ics, Abbe Physics, Germany 1 Rothhardt Breitkopf S. Gebhardt cest i/itfo h emitter the an from of side. tip/tilt idea to the access support and agree far- measurements Both is in near-elds. and 300m estimated at simultaneously ampliers of ber seven coherent-beam-combination target-in-the-loop in pointing Beam France Palaiseau, lab, Bour- P. and don Durécu, A. Liméry, A. ∙ 15:00 Turbulence Atmospheric 300m through Combination Beam Coherent Target-in-the-loop in Estimation Pointing Beam MON CJ-1.3 14:45 ∙ Ultrafast Long-term-stable Combined Coherently 4-channel MON CJ-1.2 oe tarptto aeo 8kHz. 98 of rate average repetition W a at 98 power and energy pulse 1 mJ delivering ampliers ber Tm- doped four of combination coherent .Lmad .Rué .Jacqmin, H. Rouzé, B. Lombard, L. Gaida C. ruhfrIsiuefrApplied for Institute Fraunhofer Jena, GmbH, Systems Fiber Active lu-oe ie CPA Fiber ulium-doped ; nr,teFec aerospace French the Onera, ; 2,3 2,3,4 OM5 ROOM .Heuermann T. , 1 2 .Stutzki F. , 1 nttt fApplied of Institute n .Limpert J. and , .Eidam T. , ; ytmde- system e 3 Helmholtz- μ fpulse of J 1 M. , 1 1,2,3,4 J. , 2,3 ä t , ; ; neto okn ya external an by generator locking injection 1 to coupling equal a rate in electro- results actuation ical is made Phoshpide demonstrated. Gallium Indium piezoelectric crystal of optomechanical A France France Palaiseau, 3 otechnologies, France 2 Palaiseau, Technology, and Rossi De A. and Horvarth 15:00 ∙ resonator Optomechanical III-V driven electrically of locking Frequency RF MON CK-2.2 electronic additional stages. at amplication waveband, out detection leaving telecom on-chip mainstream credible Gbps heterojunctions. having 40 in succeeded p-i-n with We photodetectors double silicon-germanium avalanche high- and compact performing on report We .Ghorbel I. nvriéPrsDdrt Paris, Diderot, Paris Université Nan- de et Nanosciences de Centre 2 .Martin A. , OM6 ROOM 1,2 .Combrié S. , μ 1 zadi sdfor used is and Hz ; electromechan- e 1 1 .Braive R. , lsResearch ales 1 R. , 2,3 , ; ; ooyo aeil,Princeton, Materials, USA Tech- of and Science nology the Germany for Institute Berlin, -pr und alforschung Bonse Kirner S.V. ihfmoeodlsrpulses. laser femtosecond with experimentally eect contribution, this explore this we In laser polarization. the anoma- to parallel an orientation lous with LIPSS frequency low-spatial embedded of type of new formation a the to contribute layers may graded oxide Laser-induced Spain Madrid, IO-CSIC, Óptica de Canada Québec, 4 Laval, Université 15:00 ∙ structures surface periodic of formation the in oxidation laser-induced Femtosecond MON CM-1.2 niques. tech- microfabrication dierent laser-based combining by achieved is range-scales. nanometer submicrometerand sizes micrometer, feature the in with structures odic .FoinBaron Florian C. ae rcsigGop Instituto Group, Processing Laser ; 1 3 ; éatmn ePhysique, de Département 1 udsntl f Bundesanstalt OM7 ROOM 1 .Siegel J. , 1,2 ; .L Déziel J.-L. , ü ug(BAM), fung 4 ü 2 n J. and , Princeton Materi- r 3 is , ; ope aepackets wave eect coupled the isotope between quantal coherence by a governed to lead shown to is states electronic multiple to pumping coherent attosecond of case the in dynamics Non-adiabatic Belgium Liege, Liège, Israel of University MOLSYS, Jerusalem, Jerusalem, 2 of Center, .Levine R. 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Ludwig-Maxilimians-Universitat 1 .Maier S. , OM11 ROOM 1 1 .Attavar T. , .Gali E. , 1 ; 1 1,2 meilCollege Imperial .Vezzoli S. , 1 1 J. , J. , 1 , ; a-cl ore ceeaeteun- the accelerate sources Lab-scale Planck Max Germany Berlin, the Society, of France Institute Haber de Palaiseau, Polytechnique Paris, Institut Polytechnique, CNRS, Ecole Paris, ENSTA 5 USA Berkeley, Laboratory, National Berkeley Lawrence Division, Cali- USA Science Berkeley, of University fornia, Chemistry, of Germany Jena, Jena, University, Germany Jena, Friedrich-Schiller Photon- ics, of Center Abbe Electronics, 1 Spielmann Goddet Gautier J.P. J. Homann 15:00 ∙ laser X-ray so seeded a using Generation Harmonic Second Ultraviolet Extreme MON CG-2.2 .Helk T. aoaor ’piu Applique, d’Optique Laboratoire Quantum and Optics of Institute 3,6 1,2 1,2 OM12 ROOM .Kabacinski A. , .Berger E. , 5 5 n .Z M. and , .Tissandier F. , .Sebban S. , ; 2 emot Institute Helmholtz ; 3 ; Department 4 Materials ; ü 3,4 rch 5 C. , L. , 6 Fritz 3,4,6 5 5 , , ; ;
Monday Orals Monday Orals hw oices o treatment for 500 to up increase temperature to was shown eciency Passivation SiOx and coating. sulde ammonium with passivated pillars, on InP/InGaAs/InP investigated was treatment post Netherlands Eindhoven, Technology, of University Eindhoven Calzadilla V. and Williams, K. Fiore, ∙ nanopillars InP/In0.53Ga0.47As/InP 15:30 passivated of performance photoluminescence on post-treatment temperature high of Impact MON CE-2.4 .Mlsea .Plern,A. Pellegrino, D. Malysheva, E. c fhg temperature high of eect e OM1 ROOM ∘ C. ; aorsntrdesigns. new resonator nano and linewidthmaterial small a as GaAsSb using polari- metasurfaces tonic intersubband nonlinear at- of new a eects saturation present overcome to tempt we work this In USA York, Germany Munich, .Alú A. iny(0.01 ciency 99.9 to (up dichroism circular nonlinear metasurfaces enhanced for Si quasi-BIC supporting chiral design We Italy Brescia, cia, Bres- Informa- of University of Engineering, tion Department and AngelisINO De C. and Carletti, L. 15:30 ∙ quasi-BIC by driven dichroism third-harmonic enhanced with metasurface All-dielectric MON CD-1.4 ∙ 15:15 Eciency Conversion High with Generation Harmonic Second for Metasurfaces Polaritonic Intersubband MON CD-1.3 olna iclrdichroism. circular nonlinear and linear selective allows terference Belkin orienta- tion. axis a crystalline on material’s depending and response tical .Gno .Tgaz,D Rocco, D. Tognazzi, A. Gandol, M. Krakofsky J. )adhg Hcneso e- conversion TH high and %) 1 2 .Mekawy A. , ; 1 atrShtk Institute, Schottky Walter OM2 ROOM W 1 − .B G. , 2 .Tnn oein- mode Tuning ). ; 2 .Mann S. , 2 UY New CUNY, ö hm 1 ; 2 M. , CNR- and , CLEO tto aeo 7. MHz. rep- ~78.3 a of with rate nm etition 2033 at fs 47 as as pulses short generate to medium, a gain as sub-50-fs Tm,Ho:Ca(Gd,Lu)AlO4 using rst the 2- mode-locked on report We France Finland Tampere, Ltd., Caen, Caen, Spain Tarragona, Chinese Matter, 3 China Fuzhou, Sciences, of of Academy Structure the 2 Germany Short Berlin, Spectroscopy, Pulse and Optics Nonlinear for tute Petrov V. and Loiko Pan Z. n lrfs ae cec,Ruhr- Science, Universit Laser Saraceno Ultrafast and C.J. and Golling Heidrich 15:30 ∙ nm 2090 at laser thin-disk Ho:YAG SESAM-modelocked W 40 MON CA-2.4 15:15 ∙ laser Tm,Ho:Ca(Gd,Lu)AlO4 mode-locked SESAM Sub-50-fs MON CA-2.3 ihpledrto f16 ps 1.66 of duration pulse oscillator, 40.5 with of W power output thin-disk an delivering Ho:YAG high-power of a soliton-modelocking demonstrate SESAM, We Electronics, Z ETH Quantum for Institute Germany .Tomilov S. Wang L. nvria oiaiVrii(URV), Virgili i Rovira Universitat on Research of Institute Fujian ® 4 .Guina M. , ü 1 2 Erp-QC2021 /Europe-EQEC ih Z rich, .Mero M. , .Wang Y. , 2 ä ; ..Alaydin B.Ö. , 1 ohm Bochum, Bochum, t .Chen W. , 2 OM3 ROOM eateto Physics, of Department 1 .Homann M. , 1 ü ; ih Switzerland rich, μ oi-tt laser solid-state m 1 ; a onInsti- Born Max 5 1 .Griebner U. , .Mateo X. , 1 1 4 .Keller U. , ; ; nvriéde Université 2 .Zhao Y. , 5 1 Reektron Photonics 2 M. , 1 3 J. , P. , 1 1 2 , , , ; ; 38 ∙ 15:15 spectroscopy photoacoustic supercontinuum-based with sensing gas multi-species Sensitive MON CH-1.4 Waclawek ∙ 15:30 modules detection PTS and QEPAS on based monoxide carbon of sensing optical Part-per-billion MON CH-1.5 mixture. gas overlapping a from hydrocarbons spectrally We separate ability to system’s cell. the employing multipass demonstrated by miniature in a mid-infrared spectroscopy the of photoacoustic sensitivity broadband the supercontinuum-based improved We Finland Turku, Finland Tampere, sity, Univer- Tampere Unit, Physics tory, Toivonen J. and sented. pre- is nitrogen in monoxide carbon of detection part-per-billion for tem sys- sensor gas laser-based mid-IR A Italy Bari, Bari, of Politecnico and University Fisica, di Interateneo 2 Technische Universit Analytics, and nologies Lendl Patimisco high-pass signal. the with of along ltering cell, gas into .Mikkonen T. .Pinto D. oyes a Dipartimento - Lab PolySense ⋅ ody2 ue2021 June 21 Monday 1 ; 1 ä nttt fCeia Tech- Chemical of Institute 2 1 in ina Austria Vienna, Wien, t esn ceerle on relies scheme sensing e .Spagnolo V. , .DloRusso Dello S. , 1 OM4 ROOM .Moser H. , 1 .Hieta T. , 1 ; 1 htnc Labora- Photonics ; 2 2 aeaLtd, Gasera .Genty G. , 2 n B. and , 1 J.P. , 2 P. , 1 , ; n emne aern analysis sub-pupils wavefront per segmented tilt and and tip piston, of Extraction laser. digital chan- tosecond 61 fem- combining beam on coherent nels applied inter- is (PISTIL) ferometry TILt and PISton A France Palaiseau, Paris, Poly- de technique Institut CEA, Université, Sorbonne Polytechnique, Ecole CNRS, France Palaiseau, Saclay, 1 Chanteloup C. .Bellanger C. J15MN15:30 ∙ laser digital combining beam coherent channels 61 a on diagnosis interferometry PISTIL MON CJ-1.5 eects. these counteract to strategies show will we Furthermore, stemming thereof. limitations the and considera- tions thermal ampli- including ber ers, en- multicore and combined coherently- power of potential scaling the ergy inves- on theoretical tigations present will We Germany Jena, Engineering, Precision and Optics Applied for tute Germany Jena, Germany Jena, Photonics, of Friedrich-Schiller-University, Center Abbe Physics, Limpert Jauregui ∙ 15:15 systems laser coherently-combined in ampliers ber multicore rod-type Optimizing MON CJ-1.4 .Rouzé B. Steinkop A. OA NR,Uiest Paris- Université ONERA, DOTA, 1,2,3 1 ; .Klenke A. , 1 2 .Bellanger S. , emot-nttt Jena,Helmholtz-Institute OM5 ROOM ; 1 .Veinhard M. , 1 1 2 nttt fApplied of Institute ; .Aleshire C. , n .Primot J. and , 3 ruhfrInsti- Fraunhofer 1,2 2 .Fsaifes I. , n J. and , ; 2 1 LULI, 2 C. , J.- , 2 1 , ; ..Bhave S.A. Weng W. aieruet in quantum ecient alter- transduction. optomechanic to explore resonant route native to double GHz the conguration, as 3 in and micro- GHz K congured 1 10 between rst at range mod- operating the ulator acousto-optic mechanical report We Kingdom United Bristol, Bristol, of ∙ 15:30 Modulators Acousto-optic high-frequency cryogenic as (HBAR) Resonators Acoustic Bulk High-Overtone MON CK-2.4 as well as converters. gyrators MW-optical realize en- to signals ables optical and the microwave between interaction increased stack. MEMS-photonic tegrated par- in- an by of substrate the resonators releasing tially optical of modula- tion ecient demonstrate We Lafayette, USA Lausanne, West University, Purdue Technology (EPFL), Switzerland of SwissLausanne Institute Federal Measurements, Quantum 1 15:15 ∙ modes HBAR using Converter Microwave-to-Optical and Gyrator Optical MON CK-2.3 .VleadKC Balram K.C. and Valle S. Siddharth A. aoaoyo htnc and Photonics of Laboratory 1 ..Wang R.N. , 2 OM6 ROOM ; n ..Kippenberg T.J. and , 1 .Blésin T. , 2 xdMM lab, OxideMEMS 1 1 ; .Tian H. , .Liu J. , University 2 1 1 e , , ; vrc–ie regions. cm–sized over extended periodic (LIPSS) for- structures surface laser–induced the of by mation caused is nanoscale. Anisotropy the induced at fs-laser self–organization by lms (ITO) ide ox- tin indium in sur- produced are faces resistivity anisotropic Highly Sevilla, Facultad de Spain Universidad Sevilla, Nuclear, Física, de y Molecular Spain Sevilla, Materiales3 (US-CSIC), de Sevilla de Ciencia de Instituto Spain Madrid, 2 (IO-CSIC), Óptica 1 González-Elipe López-Flores .Florian C. M14MN15:30 drawn. MON CM-1.4 Santos Macias-Montero M. 15:15 Nanoscale the at Self-organization Laser-induced by produced Surfaces ITO Resistivity Anisotropic MON CM-1.3 eatmnod íiaAtómica, Física de Departamento Group, Surfaces on Nanotechnology de Instituto Group, Processing Laser otiuinhsbe with- been has contribution e 2,3 .Puerto D. , OM7 ROOM 1 2 .Gil-Rostra J. , .Borrás A. , 2 and , 1 1 .Lopez- C. , .Siegel J. , ∙ .Solis J. 2 A.R. , 2 V. , 1 1 , ; ; ; hsk Humboldt-Universit Physik, yl uss u-yl pia con- optical Sub-cycle pulses. method cycle few- ecient using discrimination chiral highly for a ro- optical tation: ultrafast Germany introduce We Berlin, Germany Berlin, Berlin, 4 zu Germany Berlin, United London, Kingdom London, College 1 Ivanov SI-. O 15:30 ∙ Enantio-Discrimination Sensitive Extremely for Rotation Optical Ultrafast MON JSIII-1.4 pulse. to from pulse sequentially po- varies whose larization trains pulse generate attosecond to technique a present We University, Spain Salamanca, Salamanca Fotónica, y Láser del Aplicaciones en vestigación Hernández-García C. 15:15 ∙ Momentum Angular Spin Time-Dependent with Trains Pulse Attosecond MON JSIII-1.3 arigobtlaglrmomen- angular tum. orbital carrying elds counter-rotating time-delayed bichromatic harmonic two with high-order generation driving by .Ayuso D. and Plaja, L. Román, San J. Rego, L. ehiceUniversit Technische Imperial Physics, of Department 1,2,3 ; n .Smirnova O. and , 1,2 OM8 ROOM .Ordonez A. , 2 Max-Born-Institut, si accomplished is is ; ; 3 nttt f Institute rp eIn- de Grupo ä Berlin, t 2 M. , 2,4 ü ä r t ; ; CLEO .Rowley M. inaeue ocnrltesoliton output. the the at control multiplicity to used are disper-sion gain and Group mismatch amplifying velocity demonstrated. is an loop into ber nested temporal cavity micro-ring a stable in solitons laser-cavity of United Self-starting Glasgow, Kingdom Strathclyde, University of Physics, of Chile Department Arica, Tarapacá, Universidad de Investigación, Alta de for Aviv Israel Aviv, Tel University, Center Tel Interaction, the Light-Matter of and Faculty of Engineering School Engineering, Electronics, Electrical Physical of Kingdom United Brighton, Sussex, of Astron- University omy, and Physics of Department 1 Peccianti Oppo 15:15 ∙ Microcomb Laser-based a in Solitons Cavity Temporal Self-Starting MON EF-1.3 M Spain Mallorca, de Palma E-07122 de 7.5, km Valldemossa, Cra. and (IAC-3), Computing Code Community Applied of In- & stitute Balears Illes les de Universitat Gurevich ∙ 15:30 Lasers Emitting Surface Cavity External Vertical Mode-Locked Passively in States Localized Temporal Wiggling MON EF-1.4 oa oaie ttsi system a micro- optical coupled in of composed states tem- of localized dynamics poral the analyze We M 48149 .Cutrona A. .Hessel D. mretPooisLb(Epic), Lab Photonics Emergent ü oeia hsc,Uiest of University Physics, eoretical se,WlemKemSr ,D- 9, Wilhelm-Klemm-Str. nster, ® 4 ..Totero-Gongora J.S. , Erp-QC2021 /Europe-EQEC ü 1 2 n .Pasquazi A. and , se,Germany nster, ; 1,2 1 1 OM9 ROOM .Malomed B. , eatmn eFísica, de Departament .Javaloyes J. , 1 .H Hanzard P.-H. , ; ; 2 2 nttt for Institute Department ; 1 2,3 3 ; n S. and , Instituto 4 G.-L. , 1 SUPA, M. , 1 1 , ; 39 h oiinaddcyrt of rate decay single-molecules and photoactivatable position mapping the simultaneously the by of LDOS modication the nanometer-resolved of imaging perform of We University Netherlands Enschede, Twente., Institute, MESA+ France Paris, CNRS., 2 PSL, versité Uni- Paris, ESPCI Langevin, Institut Arce .Srinivasan K. eWilde De Haner ∙ 2 nm. 57.6 a of tolerance with fabrication MHz/mW 100 a of featuring minimum reached, are 0.75 of GHz/mW eciencies quasi-phase- peak matching, programmable mode-matching and Using are presented. platform photonic-organic a sources in photon-pair of Simulation USA Gaithersburg, Switzerland Zurich, 2 Fields, netic 15:15 by Enabled Rates Generation Pair Photon MHz for Pumping uW MON EG-1.3 G14MN15:30 ∙ nanochimneys plasmonic of array an by modication LDOS of imaging Single-molecule MON EG-1.4 χ .Keller K. ..Córdova-Castro R.M. eocl hmclSystems, Chemical Mesoscale Dam van B. , Laboratory, Measurement Physical ( 2 ⋅ ) rai Chromophores Organic 2 ody2 ue2021 June 21 Monday n .Krachmalnico V. and , 1,2 1 1 ; .Izeddin I. , .Doderer M. , OM10 ROOM 1 nttt fElectromag- of Institute 2 .Leuthold J. , 1 .Blanquer G. , 1 .Susarrey- A. , 1 1 .Jonker D. , .Davis M. , 1 n C. and , 1 1 ; Y. , 1 1. 1 , ; ; ru ne shg s10 for 1600 as high Carbide. Silicon as index group frequencies. excitation system near-zero the near nounced pro- particularly epsilon system, sub- plasmonic signicant deeply a wavelength in a eect slow-light demonstrate We 8QQ, G12 Kingdom United Glasgow, Glasgow, of University Italy L’Aquila, 67100, 3 Vetoio, Via L’Aquila, of University Sciences, ical Kingdom G12 United Glasgow, 2 Glasgow, of 8QQ, University ing, 1 Bruno imdclEgneig Chinese China Ningbo, Sciences, of Academy Engineering, Biomedical Italy Genoa, gia, Milan, Ricerche, Italy delle Nazionale Consiglio Nanotecnologie, e Fotonica Italy Milan, Milano, di 1 Alabastri Nordlander Zaccaria Toma ∙ 15:30 metasurfaces plasmonic in dichroism ultrafast all-optical for symmetry-breaking Photoinduced MON EH-1.4 15:15 ∙ Systems Plasmonic Near-Zero Epsilon Coupled Strongly of Dynamics Temporal MON EH-1.3 .Schirato A. Ebrahim Haji M. colo hsc n Astronomy, and Physics of School Chem- and Physical of Department Engineer- of School Watt James iatmnod iia Politecnico Fisica, di Dipartimento ; 3 3 3 .Fugattini S. , .Faccio D. , siuoIain iTecnolo- di Italiano Istituto 3,4 5 n .DlaValle Della G. and , OM11 ROOM .Laporta P. , 5,6 1,3 .Cerullo G. , .Maiuri M. , ; 3 seetyed a yields eect is 1 n .Clerici M. and , 4 .Marini A. , iiIsiueof Institute Cixi 3 .Proietti R. , ; 2 siuodi Istituto 1,2 1,2 1,2 P. , A. , 2 A. , V. , 1,2 1 ; ; ; ; ; odrc w-htnabsorption. two-photon direct to attributed oscillations strong shows Ar the ment, measure- autocorrelation an in lated While Ar the argon. of ion- dynamics multiple ization multi-photon the of control attosecond demonstrate We Germany .Ng,MJJ rkig and Vrakking, Sch M.J.J. Nagy, T. 15:30 T J. Kretschmar, M. dynamics ionization multiple multi-photon of control Attosecond MON CG-2.4 pulses. coherent rate highly repetition MHz 1 external to up provide will new FLASH2020+ scheme, a seeding with electron-beam a Free- extend accelerator Combining existing superconducting upgrades of will Electron-Lasers. ongoing capabilities the FLASH2020+ Hamburg,With 22607 Germany, Germany 85, Hamburg, Notkestraße DESY, Elektronen-Synchrotron S. Deutsches Scharper, team FLASH2020+ L. t. and Schreiber, Lang, T. Kazemi, 15:15 ∙ Facility X-Ray So Coherent Rate Repetition FLASH2020+: MON CG-2.3 alized. re- was setup table-top X-ray second a with so regime a the time in rst process ma- harmonic the the For inside and terial. surface the on processes nonlinear of derstanding .Alra .By,I at,M. Hartl, I. Beye, M. Allaria, E. ü tte 2 ; + a-onIsiu,Berlin, Max-Born-Institut, o il swal modu- weakly is yield ion OM12 ROOM 3 + uoorlto trace autocorrelation e High New e ü me,I Will, I. mmler, ∙ B. ;
Monday Orals Monday Orals aopooi devices. mode nano-photonic single into incorporation suitable for them makes buer growth re- scal- thin a and process of fabrication use able the where arrays, dot quantum site-controlled low of linewidth, growth the demonstrate Sheeld,We Sheeld, Kingdom United of University 3 Kingdom United Sheeld, Sheeld, of University Astronomy, and Sheeld,Physics Kingdom Sheeld, United of Engineering, Electrical University and tronic Heernan Skolnick M.S. Hallett ∙ 15:45 devices photonic into integration for arrays dot quantum InAs/GaAs site-controlled of Growth MON CE-2.5 .Ovenden C. PR ainlEiayFacility, Epitaxy National EPSRC 2 ..Patil P.K. , 1 ; OM1 ROOM 1 1 2 eateto Elec- of Department .Trapalis A. , .Farrer I. , ; 2 3 eatetof Department .Clarke E. , 1 n J. and , 1 D.J. , 3 , ; D15MN15:45 Enhanced Resonantly MON CD-1.5 eoatehneeto the nm ~800 wavelength. of at signal times third-harmonic enhancement 900 achieve resonant excitation, structures For fundamental the for um ~2.4 up-conversion. structures zero frequency grating demon- contrast one-dimensional amorphous-Germanium resonant experimentally strate We India Bengaluru, Science, of Institute Raghunathan V. and Menon, ∙ Gratings Contrast Zero Germanium Amorphous using Excitation micron 2.4 of Up-conversion Harmonic ..AS,R iws .K,S. KM, J. Biswas, R. A.S., L.K. OM2 ROOM ird ; Indian CLEO 1 Jwt 0 zPFwithout PRF Hz degradation. 100 thermal a energies with pulse mJ and 310 W average 60 of demonstrate powers We quality. beam excellent with lasing Ho:YAG pulsed and cryogenically wave continuous cooled, ecient, report TechnologyWe and Australia Edinburgh, Eects Group, Science and Defence Technologies Australia Energy Adelaide, 1 Simakov 15:45 Hemming ∙ Oscillator Ho:YAG Cooled Cryogenically Energy High MON CA-2.5 MHz, of energy 52.2 0.78 pulse of a to rate corresponding repetition a at .Ganija M. eateto hsc n IPAS, and Physics of Department ® μ J. Erp-QC2021 /Europe-EQEC 2 .Veitch P. , 2 .Carmody N. , OM3 ROOM 1,2 .Boyd K. , 1 n .Munch J. and , ; 2 Directed 1,2 2 N. , A. , NOTES 1 ; 40 eaiehmdt f9.8%. of at humidity relative time was a integration pptv s 90 12 in about achieved of detection of inwsdmntae.1- demonstrated. amplica- was chemical tion by spectroscopy enhanced photoacoustic radicals using peroxy of Measurements Switzerland Zurich, Zurich, ETH Electronics, Quantum ntn N445 USA 47405, IN ington, Bloom- University, Indiana Aairs, Environmental and Public of School China 401331 Chongqing, University, Chongqing Engineer-ing, Chemical Lille, France and Chemistry de Lille, Université 59000 Douai, France Lille Dunkerque, 59140 d’Opale, Côte Littoral l’Atmosphère, du Université de Physicochimie de Sigrist .Dusanter S. Duncianu 15:45 ∙ spectroscopy photoacoustic enhanced amplication chemical by radicals peroxy of Monitoring MON CH-1.6 ueo hra waves. thermal or pres- sure either probing of capable ules mod- compact interchangeable two .Wang G. ⋅ ody2 ue2021 June 21 Monday 5 n .Chen W. and , 2 .Gou Q. , OM4 ROOM 1 2 .Lahib A. , .Tomas A. , ; 4 3 alH O’Neill H. Paul ..Stevens P.S. , 1 ; ; ; 5 1 nttt for Institute Laboratoire 3 colof School 2 ; M.W. , 2 σ M. , 2 limit IMT 4 , combination. coherent for suitable is and structure all-glass an in cladding a pump and shared cores 4x4 contains ber tured aver- of power. 1kW age multicore to up rod-type delivering ber a present We Germany Jena, Engineering, Precision and Optics Applied for tute Germany Jena, Germany hsc,Ab etro Photonics, of Friedrich-Schiller-Universit Center Abbe Physics, Limpert J. Schreiber Nold J. Aleshire 15:45 ∙ ber rod-type multicore 4x4 in-house an from emission power average kW 1 MON CJ-1.6 r conducted/presented. are .Klenke A. 1 3 .Jauregui C. , 3 .Haarlammert N. , ; 1,2,3 .T A. , 2 emot-nttt Jena,Helmholtz-Institute OM5 ROOM 1,2 ; .Steinkop A. , nhuemanufac- in-house e ü ; 1 nttt fApplied of Institute nnermann 3 ruhfrInsti- Fraunhofer 1 .Kuhn S. , ä 1,2,3 ,Jena, t, 3 1 and , T. , C. , 3 , aoEsadnnlsr for nanolasers circuits. integrated nanophotonic highly-ecient and the nanoLEDs of for crucial development is surface recombination of suppression passivated remarkable in nanopillars. low 3400cm/s velocity GaAs/AlGaAs extremely of recombination value an surface report We Portugal Braga, Laboratory, Nanotechnology Iberian ternational and J. Nieder, Borme, 15:45 J. Camarneiro, F. Jacob, B. Passivation Surface SiNx via NanoLEDs and Nanopillars GaAs/AlGaAs Highly-ecient MON CK-2.5 OM6 ROOM ∙ .Romeira B. ; N In- - INL e osrito el,konto known cells, dierentiation. osteogenic promote mechanical on constraint nally shape-based and induce formation protein adhesions focal inuence and thus inuence and adsorption wettability structures surface nanoscale Saint-Etienne, CNRS, France 5513 Dynamics, of UMR Systems Laboratory and Tribology Saint-Etienne, Engineers of of School National Lyon, France CNRS, Lyon, Inter- faces, Lyon 5615 et Matériaux des UMR Bernard Laboratoire University, Claude 1 Lyon, of France Jarez, en Priest University, Saint Monnet U1059-SAINBIOSE, Jean INSERM Lyon, of Saint-Etienne, France Saint-Etienne, Laboratory Curien, France CNRS, University, Hubert 5516 Monnet UMR Jean Lyon, n .Dumas V. and Itina Papa hi:Vla aikvcu,KH tchl,S and IT Roma, SE di Università Stockholm, Sapienza Sibilia, KTH, Concita Pasiskevicius, Valdas Chair: Talk Plenary CLEO/Europe PL-2: 17:30 – 16:30 ∙ 15:45 alloy titanium on migration and adhesion cell of control the for patterns nanostructured of processing laser Ultrafast MON CM-1.5 .Ao Khalil Abou A. lrfs ae induced laser ultrafast e 1 3 .Attik N. , .Claudel P. , ; OM7 ROOM 2 I Manutech-USD, GIE 4 5 .Guignandon A. , 1 ; .Sedao X. , 2 ; .Klos A. , 1 5 nvriyof University ; nvriyof University ; 4 3 University University 1,2 3 T. , S. , 3 , Decleva mtighroisi opposite in directions. harmonics enantiomers emitting opposite scales, ultrafast time on approximation dipole the enan- within discrimination perfect tiomeric allowing of chirality, pattern displaying light charge-polarized-like chirality a net structured zero with introduce Italy We Trieste, Germany Berlin, Trieste, di 5 Studi Kingdom United 3 Germany Universit Berlin, Smirnova 15:45 ∙ bending light unidirectional Enantio-sensitive MON JSIII-1.5 timescales. and ultrafast on manner molecule-specic a the in over matter control of response enantio-sensitive full enables trol .Ordonez A. Humboldt-Universit London, London, College Imperial 4 .Ivanov M. , ä 1,2 eln eln Germany Berlin, Berlin, t OM8 ROOM ; 1,2 1 .Ayuso D. , ; Max-Born-Institut, 4 ; nvriàdegli Università hc h ercieidxvanishes. for index medium refractive a within the light which of properties the explore We USA Rochester, Rochester, of sity L21MN(lnr)16:30 ∙ Index Vanishes Refractive the when Behaves Light How (Plenary) MON PL-2.1 ä .Boyd R. uBerlin, zu t 1,3,5 2 Technische n O. and , 1,3 ; nvriyo taa taa Canada Ottawa, Ottawa, of University P. , ; ; CLEO oahnflo qiitn and equidistant of patterns. pulsing handful symmetry-broken a conditions initial to of variety a from feed- optical back. delayed sustain to subjected when can solitons dissipative temporal lasers Micropillar Zealand New Auckland, Technolo- gies, Quantum Palaiseau, and de Photonic et France Nanosciences Nanotechnologies, de Centre 1 Krauskopf Beaudoin Broderick G. Pammi N.G. 15:45 V.A. feedback delayed optical with lasers micropillar in sequences pulse-timing Symmetry-broken MON EF-1.5 we w ir-aiisla to lead oscillations. pulse wiggling micro-cavities two or- third tween be- detuning that the and show dispersion der We cavities. nvriéPrsSca,CNRS, Paris-Saclay, Université ® ; 2 Erp-QC2021 /Europe-EQEC nvriyo Auckland, of University e s ytm a converge can systems ese 2 and , OM9 ROOM odWlsCnr for Centre Dodd-Walls e 1 1 .Sagnes I. , .Terrien S. , 2 .Braive R. , fundamental e ∙ .Barbay S. ; Univer- 1 B. , OM1 ROOM 1 2 1 , , ; 41 oeua yaiscalculations. dynamics molecular with measurements our support and temperature, cryogenic at molecules dibenzoterrylene single of res- line onances phonon zero the of quency that fre- the of experiments tuning strain demonstrate present will Bristol, We Bristol, Kingdom United of University ing, Engineer- Electronic and Electrical of Department and Laboratory Physics Wills H. H. Labs, Technology neering Kingdom London, United London, College Imperial Laboratory, Blackett Matter, Cold for Hoggarth G15MN15:45 ∙ sources photon single single-molecule-based of tuning Strain MON EG-1.5 nannaryo plasmonic view of of ~10 of eld nanoarray a with nanochimneys a on h olna pia epnei xrml large. extremely is response optical nonlinear Moreover, the modied. profoundly be to predicted are sion emis- stimulated and spontaneous of processes radiative .Fasoulakis A. ⋅ ody2 ue2021 June 21 Monday μ m2. 1 n ..Clark A.S. and , OM10 ROOM 1,2 ..Major K.D. , ; 2 unu Engi- Quantum 1 ; 1 1 Centre R.A. , P ihnShtk are device barrier Schottky within SPs localized b) and Sur- (SPs) Plasmons face propagative remote their with a) production : by plas- devices within monic studied are dynamics Italy Milano, 3 France 2 Dijon, Bourgogne, de Carnot Biagioni1 Bollani P. M. Weeber J.-C. Isella G. Celebrano 15:45 Martins ∙ Dynamics Ultrafast their and Excitation Remote Electrons Hot MON EH-1.5 o aresi ihysymmetric highly metasurface. photoexcited plasmonic a in of carriers nanoscale hot the inhomogeneities at spatial sub-picosecond transient the by driven pump-probe dichroism a broadband polarisation- ultrafast and spectroscopy via predict resolved demonstrate theoretically We USA Houston, Nanophotonics, for Laboratory Astronomy, and Physics USA University, Houston, Rice Engineering, puter 5 .Hernandez R. -ES oo Italy Como, L-NESS, Italy Milano, Milano, Interdisciplinaire di Politecnico Laboratoire eateto lcrcladCom- and Electrical of Department o-lcrn eeainand generation hot-electrons e 1 3,4 .Lodari M. , 2 OM11 ROOM .Petit M. , .Finazzi M. , 2,4 3,4 1 n .Cluzel B. and , .Demichel O. , .Bouhelier A. , ; 1 .Juliano- R. , 6 eatetof Department 1 .Agreda A. , ; 2 4 .Duo L. , IFN-CNR, 3,4 M. , 1 1 1 2 1 , , , , ; ; ; it nawyta a eeas- be can worldwide beamlines implemented that already to way adopted spectral ily a and in energy width photon tun- able with atoms rare-gas a in monics har- demonstrate high-order generate to and method propose We Hungary H-6720 Szeged, 9., tér Dóm Szeged, Szeged, of versity H-6728 3., Hungary utca Wolfgang Sandner Ltd., Non-Prot ELI-HU Marco 15:45 Csizmadia T. ∙ Generation Pulse Attosecond Tunable Spectrally MON CG-2.5 .Glá Oldal Gulyás L. 1 n .Major B. and , ; 2 OM12 ROOM nttt fPyis Uni- Physics, of Institute 1 .Grósz T. , 1,2 .Ye P. , 1 ; 1 1 ELI-ALPS, .Filus Z. , 1 .De M. , 1 ,
Monday Orals Monday Orals LS zgd Hungary Szeged, ALPS, F Chair: Applications Field Strong THz CC-1: 19:30 – 18:00 tutrlcagswt femtosec- resolution. ond with changes track structural to elec- used be can or diraction tron x-ray Simul- ultrafast magnons. taneously, or opti- phonons as cal such materials freedom complex of in degrees low-energy to couple eciently pulses THz Intense Park, USA Menlo Laboratory, celerator ∙ materials strongly-THz-driven of dynamics 18:00 structural Ultrafast (Invited) MON CC-1.1 .Homann M. ü l OM1 ROOM ö ósfAdá,ELI- András, József p ; LCNtoa Ac- National SLAC ∙ Biodiagnostics and Surgery Invasive Minimally to Limit Cell Single Fundamental (PIRL)-Ohmics: Laser Infrared Picosecond 18:00 (Tutorial) MON CL-1.1 of Austria Innsbruck, Division Innsbruck, sity May, Univer- Medical Physics, Molly Biomedical Chair: Surgery and Interactions Laser-Tissue CL-1: 19:30 – 18:00 lrsrcuet eltsu function. cell/tissue to structure ular molec- correlate to guidance abilities new and surgical for molecular intact ngerprints scar with of surgery achievement free the to transitions led phase has of driven understanding strongly level atomic An Canada Toronto, ...Miller R.J.D. OM2 ROOM ; nvriyo Toronto, of University CLEO ein ihnwfbiainap- fabrication proaches. new with inverse design) (photonics techniques ing learn- machine and the optimization art of state combining photonic by of materials variety a in im- plemented be can photonics properties superior quantum with and Classical USA Stanford, ∙ approach optimized 18:00 an photonics: Scalable (Invited) MON EJ-1.1 Spain Catalunya, de Politecnica tat Unitversi- Staliunas, Kestutis Chair: Intelligence Articial and Computing Optical EJ-1: 19:30 – 18:00 .Vuckovic J. ® Erp-QC2021 /Europe-EQEC OM3 ROOM ; tnodUniversity, Stanford 42 hpspectrometers. on- chip and arrays multi- laser area 2D large wavelength on work arrays recent detector to exible and LEDs chips, exible arrays on integrated work earlier 3D from for devices photonic membrane semiconductor hybrid on progresses here report We USA Arlington, lington, ∙ Process Printing Transfer Micro on Based Devices Photonic Membrane Semiconductor Hybrid Flexible 18:00 (Invited) MON JSV-2.1 USA Massachusetts Cambridge, Technology, Hu, of Institute Juejun Chair: Devices Photonic Flexible JSV-2: 19:30 – 18:00 .Zhou W. ⋅ ody2 ue2021 June 21 Monday ; nvriyo ea tAr- at Texas of University OM4 ROOM l ihn resaeTzpropa- THz gation. free-space sam- no with the ple THz and medium the generation between coupling through or direct space free con- through sam- ples to be delivered elds may with ducted spectroscopy THz USA Cambridge, Technology, of tute ∙ Eect Maximum Delivering and elds THz 18:00 Generating (Invited) MON JSII-2.1 Germany burg, K Franz Chair: Fields THz Strong of Applications JSII-2: 19:30 – 18:00 ..Nelson K.A. OM5 ROOM ; mt ape for Samples to em ascuet Insti- Massachusetts ä te,DS,Ham- DESY, rtner, D22MN18:15 McCracken ∙ Identication Mode With Astrocomb 10-GHz Near-Infrared MON ED-2.2 linewidth. resolution-limited with lines of series combs harmonic beating a of dual-comb consists both the locked, When are QCL. single- a ofmode to combs frequency frequency oset injection QCL the of optical locking investigate We ETH Switzerland Zurich, Electronics, Zurich, Quantum Faist of J. tute and Beck, M. salidis, ∙ 18:00 combs frequency laser cascade quantum of locking injection optical by enabled spectroscopy dual-comb mid-infrared Coherent MON ED-2.1 Foltynowicz, Aleksandra Ume Chair: Applications and Sources Comb ED-2: 19:30 – 18:00 trcosclbae otecomb- spacing. the mode to cross-calibrated spectrom- eter Fourier-transform a by provided is identication mode lute Abso- oscillator. degenerate parametric optical broadened spectrally a astrocomb 10-GHz 1.15–1.8 spanning a present We China Nanjing, Technology, & Optics of Astronomical Institute Nanjing Tech- Astronomical Observatories, National & and Optics nology Astronomical United of Edinburgh, Kingdom Heriot-WattUniversity, Sciences, Physical Engineering and of School Sciences, tum 1 ..Cheng Y.S. Kap- F. Bertrand, M. Hillbrand, J. nttt fPooisadQuan- and Photonics of Institute å nvriy Ume University, ; 1 OM6 ROOM 2 n ..Reid D.T. and , A e Laboratory Key CAS 1 .Xiao D. , μ n ae on based and m å Sweden , 2 R.A. , ; Insti- 1 ; optn machines. computing quantum superconducting inter- to coherent faces protocols, system and considers experiments, designs, It architecture dis- networks. communication in quantum and tributed computers photonic quantum modular in applications for circuits memory-integrated Laboratory, USA NY, Upton, National Brookhaven ∙ Systems Concept of Proof to Designs Architecture Circuits: Photonic Scalable in Atoms Articial 18:00 with Networks Quantum (Invited) MON EB-2.1 France Paris, CNRS Diamanti, Eleni Chair: Memories and Devices Integrated EB-2: 19:30 – 18:00 .Englund D. stl icse quantum discusses talk is OM7 ROOM ; I,Cmrde USA Cambridge, MIT, ; irrsntrtrde laser. ber in microresonator-ltered a probed is controls, global simple of University Australia Swinburne, Technology, Swinburne Centre, China Technology, Chengdu, and Science of Electronic University Sciences, Frontier and Canada n rcso ehnc,Xi’an, Mechanics, China Precision and Kong, China Hong Kong, Hong KingdomUniversity United Brighton, Pasquazi A. oeoGongora Totero M of University Physics, .Morandotti R. Cutrona ∙ 18:15 Laser Fiber Microresonator-Filtered a in Cavity-Solitons Laser of Emergence MON CD-2.2 mode. orthogonal a dierent in soliton higher-order a with interac- tion the of account on disper- wave sive a radiates mode low-intensitytransverse A modulation. phase cross- dis- intermodal via of waves generation persive the present We of Netherlands Enschede, University Twente, Nanotechnology, for Jena, Germany of Jena, University Research, terial Ger- many Jena, Technology, Photonic of Germany ster, Fallnich C. Schmidt M.A. Scheibinger R. 18:00 ∙ Modulation Cross-phase Intermodal via Waves Dispersive of Generation MON CD-2.1 USA Technol- ogy, and Standards of National Institute Srinivasan, Kartik Chair: Solitons CD-2: 19:30 – 18:00 .Rowley M. Timmerkamp M. aaee pc,de by dened space, parameter e ; ; ; 3 ; toSht nttt fMa- of Institute Schott Otto 1 3 ..Chu S.T. , 5 ia nttt fOptics of Institute Xi’an nttt fFundamental of Institute 4 1,4 OM8 ROOM NSET Montreal, INRS-EMT, 1 1 ; .H Hanzard P.-H. , ; 2,3 2 1 4,5 ; .Schaarschmidt K. , 1 1 nvriyo Sussex, of University ; .J Boller K.-J. , nttt fApplied of Institute .Peccianti M. , ; ..Moss D.J. , 4 2 1 6 EA Institute MESA+ ebi Institute Leibniz ..L N.M. , pia Sciences Optical 2 ..Little B.E. , ü se,M nster, ; ü 4,1 pken 6 1 1 J.S. , 2 and , and , A. , City ü n- 3 2 1 , , , CLEO n rcs pia mgswithout latency. images optical process and sense simultaneously net- can that neural work articial itself an can constitute array photodiode ductor semicon- 2D a that demonstrate We Austria Vienna, Technology, and Polyushkin, D. Molina-Mendoza, Paur, A. M. Symonowicz, J. Mennel, L. arrays photodiode semiconductor 2D 18:00 with vision machine Ultrafast (Invited) MON EI-1.1 Germany nich, Universit Tech- nische Holleitner, Alexander Chair: Perovskites and Applications Towards EI-1: 19:30 – 18:00 ∙ ® .Mueller T. Erp-QC2021 /Europe-EQEC OM9 ROOM ; inaUiest of University Vienna ä M t ü ce,Mu- nchen, 43 SI-. O Ivtd 18:00 (Invited) MON JSIII-2.1 Italy di Milan, Milano, Politecnico Nisoli, Mauro Chair: Attochemistry in Progress Experimental JSIII-2: 19:30 – 18:00 hpn a eue oisolate to used be states. individual pulse can infrared shaping multidimensional near with and methods time-dynamic mixing analysis, of level four-wave new a allows pulse optical plus ultraviolet extreme attosecond USA Berkeley, ∙ Mixing Wave Four Noncollinear Attosecond .Leone S. ⋅ akrudfe ehdof method background-free e ody2 ue2021 June 21 Monday ; OM10 ROOM nvriyo California, of University nac h tcatcresonance stochastic bandwidth. dramatically the enhance response non-instantaneous nonlinear a eects to Memory attributed stochastic cavity. thermo-optical nonlinear a observation using non-Markovian resonance, rst the of report We Oxford, Kingdom United Oxford, of University rials, ois ML,Amsterdam, AMOLF, Netherlands tonics, Rodriguez Malmir nteaymti rprisof properties potentials. asymmetric non-Hermitian the on tur- ows. of bulent appearance the of re- sponsible is which wavenumbers cascade ac- through energy to the method inuence new tively a propose We Spain Barcelona, Barcelona, Avan Estudis i Recerca (UPC), Spain Catalunya 18:15 1 Herrero ∙ potentials non-Hermitian by control Turbulence MON EF-2.2 ∙ 18:00 Response Nonlinear the in Eects Memory by Enabled Light of Resonance Stochastic Ultra-Broadband MON EF-2.1 Spain Palma, Islands, Balearic of University Javaloyes, Julien Chair: Eects Nonlinear and Turbulence EF-2: 19:30 – 18:00 .BnduaIvars Benadouda S. Peters K.J.H. nvria oiènc de Politècnica Universitat ; 2 1 ..Smith J.M. , n .Staliunas K. and , 2 1 nttcóCtln de Catalana Institució OM11 ROOM ; ; 1 2 etrfrNanopho- for Center eateto Mate- of Department 1 .Geng Z. , ehdi based is method e 1 .Botey M. , 2 ç n S.R.K. and , t (ICREA), ats 1 K. , 1 R. , 1,2 ; n nefrmti detection. showcased. be interferometric imaging, and volumetric schemes quantitative acquisition, hyperspectral including innovative excitation/detection featuring chemically- microscopes scattering label-free Raman coherent a specic of developed has range laboratory Our Kingdom United ∙ bioimaging for microscopy scattering Raman 18:00 coherent Quantitative (Invited) MON CH-2.1 Recife, Brazil Pernambuco, Federal of Gomes, University Anderson Chair: Spectroscopy Raman CH-2: 19:30 – 18:00 .Borri P. i plcto obomgn will bioimaging to application eir ; adUiest,Cardi, University, Cardi OM12 ROOM
Monday Orals Monday Orals h lrfs yaiso single- of dynamics probe ultrafast to electron the Terahertz- compressor pulse ultrafast a driven with an diractometer built We Ultrafast Hamburg, of Germany Hamburg, for University Imaging, Centre Hamburg ycrto,Hmug Germany 2 Hamburg, Synchrotron, Elektronen Deutsches Science, Laser K Calendron Fakhari Ritzkowsky aac band. valance the of nonparabolicity assuming by pulses. hertz tera- intense with pumped perature, order tem- room at ninth Si boron-doped to a from up gen- (HHG) harmonic eration high the report We Germany Berlin, f Institut C13MN18:45 ∙ compressor pulse Terahertz-driven a with powered diraction electron Ultrafast MON CC-1.3 Germany Berlin, Berlin, Humboldt-Universit Physik, Germany (DLR), Berlin, Center Aerospace Germany German Dresden, 3 Rossendorf, Germany Main, 2 am Frankfurt furt, Goethe-Universit Institut, Roskos H.G. and H H.-W. Ponomaryov A. Deinert M.D. 18:30 ∙ pulses THz intense with pumped Si doped from generation High-harmonic MON CC-1.2 .Zhang D. Meng F. eateto hsc and Physics of Department nttt fOtclSno Systems, Sensor Optical of Dresden-Institute Helmholtz-Zentrum ä rtner 2 1 1,2 .Ilyakov I. , omson .Cankaya H. , ü 1 ü .Walla F. , ; Kristallz r 1 bers 1,2 1 ..Matlis N.H. , OM1 ROOM etrfrFree-Electron for Center 1 .Rohwer T. , .Kroh T. , 3,4 1 .Kovalev S. , H smodeled is HHG e 2 ..Abrosimov N.V. , 1 ..Pavlov S.G. , ; ; 1 ü 1 .ul-Islam Q. , 2 hug(IKZ), chtung Physikalisches .Chen M. , 4 ntttf Institut 1 ; 1,2 n F.X. and , ä 5 Frank- t 1,2 A.-L. , Leibniz- 1 2 ä M. , J.-C. , F. , zu t ü 5 3 2 1 e r , , , , ; ; ; OM2 ROOM CLEO nyteiptpleadr char- bre acteristics. and pulse input the only from generation supercontinuum to compression pulse from ranging ios ul- scenar- of dynamics range nonlinear wide trafast a learn can learning tures architec- machine dierent two using that models show We 6174, Besan UMR CNRS Bourgogne Franche-Comté Univer- Université Finland FEMTO-ST, Tampere, Tampere sity, Laboratory, Dudley ∙ Network Neural a Using Dynamics Generation 18:30 Supercontinuum Predicting (Invited) MON EJ-1.2 .Salmela L. ® ç n France on, 2 Erp-QC2021 /Europe-EQEC n .Genty G. and , OM3 ROOM 1 .Hary M. , 1 ; ; 1 Photonics 1,2 2 Institut J.M. , 44 n oprdbfr n rde- aer formation. and measured before are compared samples and the of tures SiO2. and tech- PEEK, PMMA, rf-sputtering as such substrates dierent the on nique fabri- by are cated waveguides planar crystals photonic and 1D Glass-based Italy Fiorentino, Sesto MipLab, IFAC-CNR, Carrara Nello Applicata Kingdom Glasgow, United Strathclyde, Engineering, of University Environmental and Wroclaw, Poland Research, Structure and Poland Wroclaw, 6 Development, Technology for Center Polish PORT, Science Poland Wroclaw, of 5 Technology, and University Engineering, Biomedical Wroclaw and Devices, rials Italy and Trento, Facility, 4 Nano Sensors Micro Kessler, Trento, Italy Trento, of Mechanical University Engineering, and Environmental Italy Trento, Unit, Photonics FBK and Laboratory Ferrari M. Lukowiak A. Krzak L. Iacob ∙ substrates exible on sputtering RF by fabricated systems glass Photonic 18:30 (Invited) MON JSV-2.2 .Chiasera A. nttt fLwTemperature Low of Institute - Network Research Lukasiewicz Mate- Mechanics, of Department ⋅ ody2 ue2021 June 21 Monday 3 gcTran Ngoc i 4 .Szczurek A. , ; .Bursi O. , 7 1 OM4 ROOM eateto Civil of Department ; ; ; 1 6 2 .Sayginer O. , .Righini G. , eateto Civil, of Department 1 3 F-N CSMFO IFN-CNR ; odzoeBruno Fondazione 2,1 8 1 1,4 siuod Fisica di Istituto .Zonta D. , .Varas S. , .Startek K. , 8 2,1 and , fea- e 1 2,1,7 E. , J. , 5,6 , , ; ; ; narycnsrea m period 1mm as undulator. serve can array an resolution, 10fs length with measurements bunch single facilitates a short- resonator While and undulators. streaking period applications electron in with manipulation bunch split- electron for THz-driven ring-resonators introduce We (DESY), Germany Hamburg, Elektronen-Synchrotron Korea South Daejeon, KAERI, Center, Berkeley, Research Radiation Laboratory, USA National hsc,Uiest fBr,Bern, Bern, Switzerland of University Physics, Feurer T. Jeong Y.U. h edi over. is aer eld scale the time nanosecond the on persists orientation induced the that show We pulses polarization. THz twisted with strong using entation ori- molecular of control tioselective enan- demonstrate theoretically We Is- USA Cambridge, Technology, Rehovot, Science, rael of Institute Kim M.H. n ..Averbukh I.S. and Field ∙ 18:45 Polarization Twisted with Pulses Terahertz by Induced Molecules Chiral of Orientation Enantioselective MON JSII-2.3 Kim 18:30 Hayati ∙ Undulators and Streaking for Deection Electron THz-driven MON JSII-2.2 .Tutunnikov I. Rohrbach D. ; 3 ; 2 ..Baek I.H. , ..Nelson K.A. , 1 2 ..Schroeder C.B. , ascuet nttt of Institute Massachusetts 3 1 3 unu-embased Quantum-beam 3 ; ..Kim Y.C. , OM5 ROOM ; ..Leemans W.P. , 1 1 nttt fApplied of Institute 2 .Ollmann Z. , 1 arneBerkeley Lawrence .Xu L. , 3 ..Oang K.Y. , 1 ; 3 2 .H Jang K.-H. , .Prior Y. , ; 1 4 Weizmann Deutsches 2 1 H.W. , R.W. , 4 and , 1 M. , 3 3 1 , , , ae oreadasnl coherent single a receiver. and single source a laser using chip-based microcombs of photonic soliton spreading chirped mixing two dispersive multiheterodyne and on LiDAR based FMCW for architecture parallel novel massively a show We Switzer- land Lausanne, (EPFL), nology Kippen- T.J. and berg Liu, J. , Karpov M. ∙ microcombs soliton dual on using LiDAR coherent parallel 18:30 massively Single-pixel (Invited) MON ED-2.3 .Reesegr .Lukashchuk, A. Riemensberger, J. ; ws eea nttt fTech- of Institute Federal Swiss OM6 ROOM iheog ovoaeaBl in- Bell a excitation. spin-wave a violate and equality) to enough delity high a (with excitation optical an memory. quantum multimode solid- state a and photon telecom a tween be- entanglement demonstrate We Spain Avan Estudis i cerca 3 Kingdom Uni- United Edinburgh, Heriot-Watt versity, SUPA, sciences, Spain Castelldefels, 2 and Science Technology, of Institute Barcelona Universit Germany Berlin, 3 Physics, Atomic Germany Berlin, Optical 2 Systems, of Sensor Institute (DLR), Center Wolters J. Fotoniques, Ciencies Riedmatten de Institut de H. and eimvpu eoywt a with memory EIT-based vapour warm We Cesium a quan- satellites. demonstrate by on memories compensated long- tum be in may communication quantum distance losses Transmission Germany Robertson Seri B23MN18:45 ∙ memories quantum noise-free satellite-suited Towards MON EB-2.3 ∙ 18:30 Memory Quantum Multimode Solid-State Spin-Wave a and Photon Telecom a Between Entanglement MON EB-2.2 .Esguerra L. Rakonjac J.V. CE-nttcóCtln eRe- de Catalana ICREA-Institució quantum and photonics of Institute ntttf Institut and Optics for Institute Berlin, TU nageeti anandfor maintained is entanglement e 1 .Mazzera M. , ä 1,2 uBri,Berlin, Berlin, zu t 1,2 ü OM7 ROOM hsk Humboldt- Physik, r .G M. , ; 1,2 1 .Lago-Rivera D. , 1 .Meßner L. , emnAerospace German ü 1,2 ç ndo t,Barcelona, ats, .Grandi S. , 1,3 ğ an ; 1,3 1 1,2 ICFO- and , 1 E. , A. , 1 e , ; ; ; ; solitons. resonators passive and lasers locked mode- of properties the share pulses threshold. lasing be- its pumped low co- laser, a driven in herently solitons temporal of tence exis- ex- the demonstrate and perimentally describe theoretically We Brux- Belgium elles, Bruxelles, de libre Université Leo F. and Gorza, S.-P. Parra-Rivas, 18:45 ∙ Resonator Fiber Active Driven Coherently a in Soliton Cavity Temporal MON CD-2.4 to up eciency 84.6%. conversion a with band thulium the above nm 310 over passive a ber. on silica based self- shi soliton frequency for con- eciency energy version highest the report We Montreal, University, Canada McGill Engineer- ing, Computer and RochetteElectrical 18:30 M. and ∙ Fiber Silica Passive in Generation Soliton Raman Eciency High MON CD-2.3 emergence their in nonlinearities slow of role the tigate that inves- we region and solitons admits distinct clearly a identify We .Egeet .MsAaí P. Arabí, Mas C. Englebert, N. Alamgir, I. Shamim, M.H.M. OM8 ROOM oio stunable is soliton e ; eatetof Department s new ese ; CLEO h olna epnewti a within model. response tight-binding of nonlinear calculations supported the rst-principle fully by polarization of are and dependence ndings eciency OPA experimental semiconducting Our dichalcogenides. monolayer transition-metal (OPA) in amplication parametric optical single-pass demonstrate We L’Aquila, Italy SPIN, 5 Italy L’Aquila, Italy lan, oti,pooodcieadbolo- and photoconductive voltaic, photo- dier- – mechanisms three operation of ent investi- behaviour We the gate 330GHz. to photode- up graphene tector a mea- of fastest surement the demonstrate We USA Cambridge, Electronics,MA02139 of Technology, Laboratory Research of Institute sachusetts Switzerland 8092 Zurich, (IEF), Fields Electromagnetic USA 1 Zhu Yao Manzoni C. 18:30 Xu ∙ Semiconductors 2D by Amplication Parametric Optical Broadband MON EI-1.2 Leuthold Salamin 18:45 Giger ∙ Limit. the not is GHz 300 Photodetection: Graphene High-Speed MON EI-1.3 .Trovatello C. ..Koepi S.M. F-N,Mln,Italy Milano, IFN-CNR, oubaUiest,NwYr , York New University, Columbia 1 1 .Lee C. , 1 ; .Ciattoni A. , ® ..Schuck P.J. , 1 .Keller K. , 2 oienc iMln,Mi- Milano, di Politecnico Erp-QC2021 /Europe-EQEC 2 1 .Fedoryshyn Y. , ; ; 1 OM9 ROOM T uih nttt of Institute Zurich, ETH 1 3 5 .Liu F. , nvriàdell’Aquila, Università .DlConte Dal S. , 1 ; 1,2 .Baumann M. , 4 1 I,Gnv,Italy Genova, IIT, .Marini A. , n .Cerullo G. and , 1 6 .Horst Y. , ; .Hone J. , 1 2 .Curreli N. , o nMas- in Now 1 ; n J. and , 6 3 2 CNR- 1 1 1 X. , K. , X. , Y. , S. , 2,5 4 , ; ; 45 iy apr,Japan Sapporo, univer- sity, Hokkaido Physics, Applied okioUiest,Sapporo, University, Japan Hokkaido Copenhagen, Engineering, and Sciences Chemical Copenhagen, Denmark of otedissociation. the to excitation the from steps reaction disentangle all to calculations oretical the- by and light EUV with the troscopy spec- by photoelectron in investigated time-resolved carbon was brown atmosphere, in con- tained o-nitrophenol, of Discovery, Photolysis and Japan Sapporo, University, Hokkaido Design Sapporo, Reaction University, Japan Hokkaido .Kanai T. Takatsugu Tsutsumi T. Schalk ∙ o-Nitrophenol from Release Acid Nitrous 18:30 Pulses: Ultraviolet Eextreme Ultrashort by Reaction Photochemical Atmospheric of Probing Real-Time MON JSIII-2.2 Taketsugu Kurimoto Y. Absorption X-Ray So Time-Resolved 18:45 by Probed State Higher a to Photoexcitation upon 1,3-Cyclohexadiene in Ring-Opening Delayed MON JSIII-2.3 icvr,Hkad University,, and Japan Sapporo, Hokkaido Design Discovery, Reaction Chemical Japan University, Tokyo, Sapporo, Hokkaido of Chemistry, Japan University Kashiwa, Sapporo, Physics, University, Japan Hokkaido 1 .Sekikawa T. eatet fApidPhysics. Applied of Department. ⋅ ody2 ue2021 June 21 Monday ; ; ; 2 .Igarashi H. , 4 2 2 5 eateto Chemistry, of Department ; nttt o oi State Solid for Institute .Itatani J. , 3,4 4,5 OM10 ROOM nttt o Chemical for Institute and , 3 1 ; 3 .Saita K. , .Saito N. , rdaeSho of School Graduate 1 .Nitta Y. , ; ; 1 eatetof Department 3 2 eatetof Department ∙ 4 .Sekikawa T. .Saita K. , 2 ; nttt for Institute .Wada S. , 2 2 4 .Ishii Y. , University n T. and , 1 O. , 3 T. , 3 3 1 , , ; esttPltciad Catalunya, Spain Barcelona, de Politecnica Argentina versitat Aires, Buenos 4 de Departamento Física, Aires, Buenos Nouvelle de France France Nouméa, Calédonie, ISEA, Valbonne, donie, Physique Nice, de 2 Institut de 7010, UMR 1 ∙ Gomel Acquaviva 18:45 Marconi M. System Laser Low-dissipation a in Indicator Bifurcation a as Down Slowing Critical Testing MON EF-2.4 scales. the time dierent icantly of signif- two on and occur intensity coherence eld the evo- the of that show lution and laser long of a transient turn-on the analyse We Russia 603950, Novgorod, Nizhny of University State Germany Berlin, Russia Ireland Cork, 4 Cork, College versity Ireland Cork, 3 University, Tech- nological Munster Sciences, Department Physical and of Analysis France Process Nice, INPHYNI, 2 CNRS, Huyet Marconi Pimenov A. Gowda 18:30 Laser ∙ Long a of Transient on Turn the during Structures Coherent and Statistics Photon of Dynamics MON EF-2.3 .Giudici M. Roche A. eatmnod íia Uni- Física, de Departamento Calé- Nouvelle la de Université CNRS- d’Azur, Côte Université TOUiest,SitPetersburg, Saint University, ITMO Uni- Institute, National Tyndall and Photonics Advanced for Centre 1 ; 3 ; 2,3 .Quiniou T. , 1 .Giudici M. , .Kovalev A. , 1 1,2,3 2 OM11 ROOM nvriéCt d’Azur, Côte Université ..Boyer J.M. , 5 4 1 eesrs Institute, Weierstrass .Vladimirov A. , 1 n ..Tredicce J.R. and , .Métayer C. , .Slepneva S. , ; ; 3 .Masoller C. , 4 .Viktorov E. , 6 3 Lobachevsky Universidad 1 n G. and , 1,2,3 2 5,6 A. , 2 A. , M. , U. , 4 4 2 , , ; ; ; ; ; ; geted. tar- CARS successfully are single-beam measurements Raman in Specic 4f- transitions quadratic a functions. in with phase SLM geometry, an shaper using phase are shaped, ANDi-PCF pumped oscilla- tor femtosecond a from pulses I Switzerland Africa South 2 Stellenbosch, stitute, Rohwer E. and 18:45 Neethling ∙ shaping phase-and-polarization using CARS single-beam Targeted MON CH-2.3 H ∙ 18:30 Spectroscopy Vibrational Molecular in Dynamics Transfer Energy Light-Matter Sub-Optical-Cycle MON CH-2.2 rttm,adi erdcdby reproduced is calculations. and ab-initio time, the with rst a for timescale recorded on sub-optical-cycle spectroscopy is eld-resolved aque- solution in ous molecules waveforms vibrating and optical mid-infrared eld-controlled between dynamics M 3 M Germany2 Garching, Quantenoptik, Pupeza 2 .Viljoen R. Buberl T. nttt o ple hsc,Bern, Physics, Applied for Institute Ludwig-Maximilians-Universit Ludwig-Maximilians-Universit ö I opesdsupercontinuum compressed PIE ü ü opeeeeg transfer energy complete e gner ce,Mnc,Germany Germany Garching, nchen, Munich, nchen, 1,3 1 .d Vivie-Riedle de R. , 1 ; .Heidt A. , OM12 ROOM 1 1 1 a-lnkIsiu f Max-Planck-Institut .Spangenberg D. , .Peschel M. , 1 ; 1 ae eerhIn- Research Laser 2 .Feurer T. , 2 2 n I. and , M. , 2 ä ä P. , t t ü 2 r , ; ; ;
Monday Orals Monday Orals edineiso rmmetallic over from emission nano-tips. control ion eld the we using pulses, demonstrate in- Here, terahertz and single-cycle elds. electric localized tense generation extremely the of allows nano- duration metallic structures to pulses picosecond terahertz Coupling France (IUT), France, France Rouvray, du Etienne Saint Rouen, de Université,Université-INSA mandie France Rouvray, du 2 Etienne Rouen, Saint de Université-INSA Uni- versité, Normandie 6634, CNRS UMR Hideur Normand erpr nTzgnrto from generation THz on report We Doha, Qatar, Qatar at Heraklion, University A\&M Crete, Greece of Technology, University and Science Materials Greece Heraklion, FORTH, Laser, and Structure tronic Papazoglou Tzortzakis D.G. Boudant M. ∙ 19:15 Packets Wave Airy 2D by Produced Filaments Two-Color Curved from Waves Terahertz of Emission MON CC-1.5 19:00 ∙ pulses terahertz single-cycle by evaporation Ion MON CC-1.4 with diraction resolution. time demonstrate improved We high-quality silicon. crystal ..Koulouklidis A.D. Tang M. OI M NS61,Nor- 6614, CNRS UMR CORIA ; ; 2,3 3 1 3 n .Vella A. and , 1 1,2,3 cec rga,Texas Program, Science .Houard J. , ntttUiestiede Universitaire Institut .D Costa Da G. , OM1 ROOM 1 ; .Ayoub A. , 1 nttt fElec- of Institute ; 1 1,2 2 .Mansour D. , eatetof Department 1 n S. and , .Arnoldi L. , 1,3 ; 1 1 1 A. , A. , GPM 1,2 1 , , ; iyo uih 09 Munich, , 80799 Munich, Germany of Munich, sity , 80335 3 Lothstrasse 34, Sciences, Applied of sity Univer- Munich CANTER, Medicine Regenerative Munich, and Engineering Tissue , Sciences, 80335 Germany Applied 34, Lothstrasse of University Huber H.P. Schaumann L13MN19:15 Geiger ∙ pulses laser ultra-short using by cells living of Printing MON CL-1.3 demonstrated. was also process the upscaling of sibility surgery. bone of frame the in approach competitive a thus becoming mm3/s, 0.7 to up rates with ablation achieved was femur porcine of ablation fs-laser Carbonization-free France Talence, PhANOV, 19:00 Kling R. and Faucon, M. chinet, ∙ systems laser fs industrial by ablation tissue Bone MON CL-1.2 .Zhang J. Ma- G. Bourgol, Al S. Gemini, L. etrfrNnSine Univer- NanoScience, for Center 1,2 .Docheva D. , ; 1,2,3,4 1 OM2 ROOM 2,3 ; 2 .Sudhop S. , etrfrApplied for Center 1 aecne,Munich Lasercenter, .Byers P. , 4 .Clausen- H. , 2,3 1 and , pos- e Y. , ; AL- ; CLEO notclyadesdsaillight modulators. spatial models optically-addressed Ising in realizing al- be by we can leviated challenge and this inecient, that show very are hard- ware classical in Emulations prob- combinatorial lems. solve con- to powerful cepts are machines Ising Photonics Israel Sheva, Beer and University, Gurion Ben Engineering, Electrooptics Italy of (ISC- Rome, Council CNR), Research National Italy Rome, 3 Sapienza”, ”La Roma di Bourgogne University Department, 2 Besan Franche-Comté, & CNRS Institute/Optics n .Brunner D. and ia inlprocessing. signal op- tical Fourier nonlinear the perform eciently can that architecture work net- neural articial the propose We Kingdom Russia Novosibirsk, United University, 2 Aston Birmingham, Technologies, 1 Chekhovskoy 19:15 ∙ Networks Neural Articial with Signal Optical of Spectrum Fourier Nonlinear Continuous Computing MON EJ-1.4 19:00 Conti ∙ implementation machine Ising the for modulator light spatial Optically-addressed MON EJ-1.3 .Sedov E. Semenov V. nttt o ope Systems, Complex for Institute Università Fisica, di Dipartimento ooiis tt University, State Photonic Novosibirsk of Institute Aston ® 2,3 .Abdulhalim I. , Erp-QC2021 /Europe-EQEC 1,2 OM3 ROOM 2 .Prilepsky J. , n .Turitsyn S. and , 1 .Porte X. , 1 ; ; 4 4 ç 1 Department .Larger L. , n France on, FEMTO-ST 1 per- e 1 C. , I. , 1,2 1 , ; ; ; ; 46 eta lrd,Olno USA China Orlando, Florida, 6 Studies, Central Advanced China Hangzhou, for Institute aghu China Hangzhou, USA Newark, USA Cambridge, Technology, of Institute .Jia X. 19:15 ∙ Control Geometry Deterministic with Platform Photonics Integrated 3D MON JSV-2.4 reectors. microfab- quadratic on ricated based bers inter- with face optical low-loss broadband, realized and also bends waveguide We ultra-compact ruggedness. mechan- ical excellent and loss agation prop- low with platform waveguide polymer exible a demonstrated We USA Cambridge, and Gu, T. 19:00 Zuo, H. Yu, S. interfaces optical low-loss with platform waveguide polymer exible A MON JSV-2.3 Gon .Michon J. hjagUiest,Hangzhou, University, Zhejiang ⋅ ç ; ody2 ue2021 June 21 Monday alves 2 n .Hu J. and , 2 nvriyo Delaware, of University 5 1 .Lin H. , .Geiger S. , OM4 ROOM ; 3 etaeUniversity, Westlake 1 6 ; ; .Richardson K. , 1 ; 5 1,2 Massachusetts nvriyof University .Li L. , ∙ .Hu J. 4 Westlake ; 3,4 MIT, C. , 5 , ; to ehns n rsn de- dynamics. system present tailed and mechanism es- gener-ation We carrier dominant the gaps. tablish band dierent with substrates semiconductor on metama- terials of in- switching THz-eld mode duced ultrafast report Villigen,We 5232 Switzerland Institute, Paul Scherrer Nanotechnology, and 3012 Micro- Bern, Switzerland Bern, of University Physics, Feurer T. and Brunner rni olna epneo bulk of semiconductors. response in- nonlinear the trinsic than stronger much be may nonlinearities connement-induced method. Monte-Carlo calcu- semi-classical by lated is nanoparticles semi- conductor in enclosed gas free-electron of conductivity terahertz Nonlinear Sci- Republic of Czech Academy Prague, ences, Czech Physics, of 19:15 ∙ nanoparticles semiconductor in conductivity terahertz nonlinear of calculations Semi-classical MON JSII-2.5 ∙ 19:00 Ionization Impact Field-Induced THz Intense by Driven Metamaterials of Switching Mode Ultrafast MON JSII-2.4 .NmcadJ Kucharik J. and Nemec H. Kang B.J. 1 .Bagiante S. , OM5 ROOM 1 .Rohrbach D. , 1 ; eutso that show result e 1 nttt fApplied of Institute ; 2 aoaoyfor Laboratory 1,2 .Sigg H. , ; Institute 1 F. , 2 , to swl smaueet in measurements as well as gener- ation comb de- for We approaches scribe range. dynamic sensing high rapid with for allows approach accelerometers. op- tomechanical cavity interrogate to employed were combs frequency Electro-optic USA Gaithersburg, Technology, and Standards of stitute Gorman Le- J. T. and Allen, Brun, R. Madugani, R. Bao, 19:15 ∙ Sensors Optomechanical of Sensing Rapid for Combs Frequency Electro-Optic MON ED-2.5 limit. conventional aliasing metrology the dual-comb rates 2.4 sampling by exceeding and 93 precision with nm nm 1555 at carrier-phase- distance measurement time-of-ight demonstrate insensitive dual detection we two-photon cross-polarized and combs using By Kingdom United China Dongguan Dongguan, Technology, of University Kingdom Intelligentization, and United 2 University, Edinburgh, Heriot-Watt Physical Sciences, and Engineering Sciences, of School Quantum and Photonics of Institute (SUPA), Alliance Physics Reid D. McKendrick 19:00 ∙ Detection Two-Photon Using Metrology Distance Dual-Comb Carrier-Free MON ED-2.4 .Ln,B ecosy .Zo,Y. Zhou, F. Reschovsky, B. Long, D. Wright H. colo lcrncEngineering Electronic of School ; 3 1 eihwPc Edinburgh, Plc, Renishaw ; OM6 ROOM 3 .Weston N. , 1 1 ctihUniversities Scottish .Sun J. , ; ainlIn- National 2 3 D. , and , is ; NP sn ihu niobate a modulator lithium of polarisation a readout waveguide using the on SNSPD Paderborn, report We Optics, Germany Quantum Germany Paderborn, 1 Silberhorn Herrmann H. (MCQST), M Technology and Science Germany Garching, 2 Optics, tum 1 Bruch the repeaters. and networks quantum towards with global of implementation properties platform unique hardware novel wavelength. telecommunication interactions at photons and dopants erbium coherent individual between resonator optical enables high-nesse A Farina Cova ∙ 19:15 modulator cryogenic a with detector photon single superconducting a of readout Optical MON EB-2.5 19:00 Merkel B. resonator High-Q Cryogenic a in Dopants Erbium MON EB-2.4 containing pulses for signal unity of input level signal-to-noise μ ̄ F. eocpcQatmOptics, Quantum Mesoscopic Quantum for Center Munich Quan- of Max-Planck-Institute 1 ü = ce,Germany nchen, 0.013 2 iele .Quiring V. , 1 2 1,2 .Hummel T. , n ..Bartley T.J. and , photons. OM7 ROOM 1,2 .Ulanowski A. , and , 2 .Eigner C. , setbihsa establishes is 2 ∙ .Ricken R. , .Reiserer A. ; 2 1 Integrated .vom F. , 1,2 2 C. , P. , 1,2 2 1 , ; ; ; fZge,Zge 00,Croatia University 10000, Zagreb 4 Engineering, Zagreb, of Canada Civil Varennes, 1S2, of Lionel-Boulet, J3X QC Blvd. of China School 300457, Tianjin University, and Nankai Physics, Institute Physics Buljan H. .Morandotti R. Hu 19:15 Bongiovanni D. Lattices Soliton Interacting in Transition Phase Topological Tunable MON CD-2.6 obtain to shi. soliton used wideband ever energy pump pJ. 64 of energy 2.0-2.6 of range spectral the within tunable solitons Raman generate We Canada City, Québec Canada tréal, Rochette Correr 19:00 ∙ energy pulse pump ultra-low using shi self-frequency soliton Mid-infrared MON CD-2.5 μ .Alamgir I. eateto hsc,Faculty Physics, of Department rma lrlwpm pulse pump ultralow an from m 1 .Luni F. , 2 .Messaddeq Y. , 1 ; 1 1 OM8 ROOM 1,4 cilUiest,Mon- University, McGill ...Shamim M.H.M. , ć ; 2,5 ; 4 ; .Hu Y. , 1,2 .Chen Z. , 2 2 nvriéLaval, Université 1 NSET 1650 INRS-EMT, .Juki D. , EAApplied TEDA si h lowest the is is 1 2 .Song D. , ; n M. and , 3 1,6 ć Faculty 3 and , , 1 W. , ∙ Z. 1 , ; CLEO igpr,Singapore Singapore, University, Technological Plaza, Techno Nanyang Research (ERI@N), Singapore Singapore, 3 University, Technological Nanyang SPMS, Technologies, TPI, Photonic Disruptive Physics, Singapore Applied Singapore, University, Technological and Nanyang Physics of 19:15 Bruno ∙ Transistors Emitting Light Perovskite in Carriers Charge of Injection Synchronized MON EI-1.5 wavelengths. excitation dierent following nisms mecha- dierent revealing ovskites, per- layered in to relaxation spin absorption study transient ro- and Faraday tation ultrafast Munich, combine We Department, University Germany Munich, Physics Technical Cambridge, Institute, Cambridge, Kingdom United of sity Fisica, Italy di Milan, 2 Milano, di Dipartimento Politecnico CNR, Cerullo Shivanna R. Bourelle 19:00 S.A. ∙ perovskites hybrid layered in mechanisms relaxation spin Ultrafast MON EI-1.4 otg wesa ihfrequencies. high bias at and sweeps voltage gate measuring by metric .Klein M. Camargo F.V.A. nryRsac nttt NTU @ Institute Research Energy Univer- Laboratory, Cavendish ® 3 n .Soci C. and , 1 Erp-QC2021 /Europe-EQEC n .Deschler F. and , 1,3 OM9 ROOM .Cheng B. , 2 ..Friend R.H. , 2 .Neumann T. , ; 3 1 Walter-Schottky- .Ghosh S. , 1,2,3 ; 1 2 .Li J. , ; etefor Centre 1 3 Division ; 2 1 3 G. , IFN- A. , 3 1 , , ; ; 47 oxiaint ihrectdstate. excited higher a to toexcitation pho- is upon later fs 1,3-cyclohexadiene 400 about opened of ring high the that conrms on generation based harmonic absorp- spectroscopy x-ray tion so Time-resolved Wood olg odn odn United London, ImperialKingdom London, Consortium, Physics, College of Laser Department MarangosLaboratory J. and Jarosch Matthews ∙ K-edge Carbon the at Spectroscopy Absorption X-ray Resolved Time with Probed Poly(3-hexylthiophene) in Dynamics Exciton Ultrafast 19:00 (Invited) MON JSIII-2.4 h aeilo u 0f timescale. fs 50 sub a on in material the localisation exciton rapid of signa- ture spectroscopic direct, ob- a We serve in dynamics poly(3-hexylthiophene). exciton study K- to carbon edge the at absorp- spectroscopy X-ray tion transient apply We Tyne, Kingdom upon United Newcastle University, Newcastle Sciences, Kingdom Environmental United London, 3 Processable Lon- don, College for Imperial Centre Electronics, and istry .Garratt D. hmsr—colo aua and Natural of Chemistry—School ⋅ ody2 ue2021 June 21 Monday 1 .Witting-Larsen E. , 1 .Bakulin A. , ; 1 OM10 ROOM .Alexander O. , 2 eateto Chem- of Department 1 .Misiekis L. , 1 ; 2 1 .Penfold T. , 1 Blackett e .Ye P. , 1 1 M. , D. , 1 S. , 3 , ; Italy 4 3 USA Belyanin1 A. Beiser Kazakov Silvestri i:rn unu acd lasers cascade microresonators. Kerr quantum and ring me- optical dia: active nonlinear on passive and based physics generators frequency the of comb classes time distinct same two of the at captur- ing framework a introduce We USA Station, College Italy Italy Bari, Bari, Brambilla M. Columbo ∙ Solitons to Turbulence Phase From Lasers: Ring Semiconductor 19:00 in Dynamics Nonlinear (Invited) MON EF-2.5 inpoint. it bifurca- tion the time, beyond where in well place swept takes laser linearly solid-state is a pump in show that, we in- Here an bifurcation. of coming indicator an as perceived commonly is Down Slowing Critical .Piccardo M. nvriádl’nura Como, dell’Insubria, Universitá Italy Torino, Torino, di Politecnico Cambridge, University, Harvard ; ; ; 2 2 5 .Hillbrand J. , UWe,Ven,Austria Vienna, Wien, TU 3 nvriáePltciodi Politecnico e Universitá 7 1 .Gioannini M. , 3 ea & University, A&M Texas .Opacak N. , .Prati F. , OM11 ROOM 7 n .Capasso F. and , 1 5 .Schwarz B. , .Gatti A. , ; 4 6 .Lugiato L. , N,Milano, CNR, 2 .Wang Y. , 2 M. , 3 6 D. , 2 C. , L. , 7 4 2 , , ; ; ; etrbeams. vector frequency- spectral i.e. with polarization, to dependent method beams novel generate a introduce We Canada K1A 0R6, 100 Ontario Ottawa, Canada, Drive, Sussex of Council Research Finland Tampere, 33720 FI- University, Tampere Unit, Physics Fickler R. Huttunen M.J. 19:15 ∙ Measurements Spectroscopic High-Speed for Beams Vector Spectral MON CH-2.5 spectroscopy imaging. Raman stimulated enhanced light squeezed present we Here microscopes. improve state-of-the-art can technology Quantum Denmark, Denmark Lyngby, Kgs. of University Technical Denmark Lyngby, 2 of Kgs. University Denmark, Technical Physics, Department of bigQ, States Quantum Andersen Sørensen 19:00 ∙ Light Squeezed using spectroscopy Scattering Raman Stimulated Advancing MON CH-2.4 .Kopf L. Andrade de Bruzaca R. eateto elhTechnology, Health of Department 1 2 .Do Ruano Deop J. , 1 .Gehring T. , 1 ; OM12 ROOM ; 1 1 etrfrMacroscopic for Center htnc Laboratory, Photonics 1 .Bouchard F. , yalwdetermin- allow ey 1 n .Lund U. and , ; 1 1 .Berg- K. , .Stolt T. , 2 National 2 and , 1 , ;
Monday Orals Monday Posters ∙ Ceramic Transparent Tm:Y2O3 2 MON CA-P.3 eect. ab- control photothermal atomic frequency by is laser induced the beam vapor to leading 976nm Er:Glass iodine Auxiliary in sorbed fre- 127I2 presented. is relative to transition and stabilization generation quency second-harmonic Nd:YVO4/YVO4/KTP/Er:Glass with resonator Microchip Poland Wroclaw, ogy, ∙ SHG with laser mode single microchip monolithic Nd:YVO4-based of stabilization frequency relative Photothermal-controlled MON CA-P.2 1.7 CW under tested Republic Czech Prague, Jelinkova ∙ 2 Diode-pumped Resonantly Highly-ecient MON CA-P.1 Session Poster CA CA-P: 11:00 – 10:00 generated. are dier- polarizations ent with beams non- THz channel, concentric plasma cur- the the of to vature Due 2D packets. wave by Airy produced laments curved u ii eeotie o l ape ihmulti-watt with samples output. all level for obtained were limit tum quan- reaching eciencies arrangement, pumping dinal .Yue F. Dudzik G. H. and Veselsky, K. Kratochvil, J. Nemec, M. Sulc, J. μ lu-ae aes(Tm:YAP, were Tm:YAG, Tm:YLF) lasers ulium-based lu Lasers ulium OALsrBsdo roeial Cooled Cryogenically on Based Laser MOPA m 1,2,3 ; zc ehia nvriyi rge FNSPE, Prague, in University Technical Czech ; OM1 ROOM .Jambunathan V. , rca nvriyo cec n Technol- and Science of University Wroclaw μ id xiain nalongitu- a In excitation. diode m 1 .Pu David Paul S. , n hc visteueo non- ers. of lay- use absorption inorganic the biological avoids print- which cell e- single ing precise the and for cient method laser ultra-short pulse-based new a present We Germany Regensburg, , 93053 Poliklinik f und Klinik fallchirurgie, Germany ü nalhrri,A ipr 9, Biopark Am Unfallchirurgie, r μ m ; 1 X. , OM2 ROOM 4 xeietleUn- Experimentelle aRdií88 5 1DlíB Dolní 41 252 lic Sciences, 828, of Academy Radnicí Czech Za Physics of Institute Center, Spain c/Marcel Sescelades, Campus Virgili, i Rovira Universitat (FiCMA-FiCNA), als Mateos ..Pierpoint K.A. ∙ Tm tunable Widely MON CA-P.5 2.92 ns at 186 pulses of generation gain-switching and laser Er:YAP MON CA-P.4 achieved. was ns 32 of Hz 10 width at pulse mJ a 2.94 with of energy output maximum A nm. around1932 emitting ceramics transparent cryogenically Tm:Y2O3 on cooled based laser MOPA a demonstrated We Republic Prague, Czech 19 115 7, Brehova Prague, in University Technical ue usa cdm fSine,Mso,Russia Moscow, Sciences, of Academy Russian tute, Republic Czech 1 mm achieved. (11 were Hz 186 short 200 duration Using rate pulse repetition the time. resonator rst laser the long) for 2920 tested at was emitting nm laser Er:YAP gain-switched Republic Compact Czech Prague, Prague, in University nical Tech- Czech Engineering, Physical and Sciences Nuclear of ∙ .Veselský K. .Šekr .Šl,M N M. Šulc, J. Švejkar, R. NP,CehTcnclUiest nPau,Prague, Prague, in University Technical Czech FNSPE, ; 2 íiaiCristal i Física ; 3 2 aut fNcerSine n hs n. Czech Eng., Phys. and Sciences Nuclear of Faculty .Sulc J. , 1 .Šulc J. , 2 μ ; ..Konyushkin V.A. , CLEO m 3 2 .Smrz M. , .M rkoo eea hsc insti- Physics General Prokhorov M. A. ⋅ ⋅ or eMtrasiNanomateri- i Materials de lograa 3 íDmno /. -30 Tarragona, E-43007 s/n., Domingo, lí we h rcmue n pre- spectra. and nonlinear dicted precomputed is the be- method tween error the new considering the analysed of formance 1 + .Jelínková H. , :LuF ě ® e,adH Jelínková H. and mec, 3 1 -CaF Erp-QC2021 /Europe-EQEC n .Mocek T. and , OM3 ROOM 2 2 ř n ..Nakladov A.N. and , e 1 id updlaser pumped diode ž ..Doroshenko M.E. , n,CehRepub- Czech any, 1 ± ; swith ns 1 1 ; HiLASE Faculty OM1 ROOM 2 2 , ; 48 omt ehnclsri sensing. plat- strain mechanical the to form of application the strated demon- further We 3D. in locations pre-dened arbitrary at placed de- vices with platform photonics grated inte- 3D fully-packaged a report We Russia Czech Prague, FNSPE, Republic Prague, in University Technical Jelinek ∙ 1.73 under Crystal Single w ieetQsice aespmigat pumping lasers Q-switched dierent Two Ukraine Kharkiv, rtr,Mgrl,Romania Magurele, oratory, Lab- Electronics Quantum Solid-State Physics, Radiation Gheorghe L. Croitoru ∙ High Crystals New Laser as Near-Infrared Performance Yb) Nd, = (RE LGSB RE-doped MON CA-P.7 Cr the of Cr at the through 4.7–5.1 MON CA-P.6 .-t%N:GBad1.-t%Y:GBlsrcrystals laser Yb:LGSB by 12.9-at.% and yielded Nd:LGSB 4.6-at.% performances emission laser Near-infrared mania Ro- Magurele, Physics, of Faculty Bucharest, of University reported. are ftedoepme ae a investigated. was laser diode-pumped the of Tm with new achieved a was nm) crystal (1785-2035 uoride nm thulium-doped 250 of from tunability largest the of One .Riha A. .Greculeasa M. ⋅ ∼ ody2 ue2021 June 21 Monday 2.94 ; 1 .Cech M. , μ 1 3 ; 1 .Doroshenko M. , nttt o igeCytl,NSo Ukraine, of NAS Crystals, Single for Institute aigi Cr in Lasing m .Brandus C. , 2 3 μ 2 rkoo eea hsc nttt,Moscow, Institute, Physics General Prokhorov + + OM4 ROOM i ietectto fFe of excitation direct via m 1 :LuF ,Fe ; 1 1,2 2 ainlIsiuefrLsr lsaand Plasma Laser, for Institute National + 1 3 2 :Zn .Broasca A. , .Kovalenko N. , -CaF + → 1 1 − Fe 2 .Stanciu G. , x Mn crystal. 2 2 2 + + .Jelinkova H. , μ ,Fe ; x n 2.94 and m oseeg rnfrand transfer energy ions 2 e(x Se otrlSho fPhysics, of School Doctoral 1,2 2 + 3 .Voicu F. , :Zn n .Terzin I. and , 1 ≈ ae performance laser e .Gheorghe C. , 1 .)snl crystal single 0.4) − x 1 Mn .Nemec M. , μ Pumping m 1 .Hau S. , x e(x Se ∼ 3 2 1.73 ; + 1 ≈ 1 Czech and , 1 1 0.4) ions OM5 ROOM M. , G. , μ m ∙ nm 1670 at Pumped Laser Fiber-Laser Ceramic In-Band Tm3+:Y2O3 nm 2050 a of Operation Passively-Q-Switched and CW High-Eciency MON CA-P.9 ∙ Lasers Raman Diamond Single-Longitudinal-Mode in Dynamics Frequency Transient MON CA-P.8 ya nrcvt r+ZS aual absorber. saturable Q-switched Cr2+:ZnSe achieved intracavity passively an was and by operation CW Q-switched 1670 Kilohertz the at L- regimes. in laser the studied ber with was a by nm nm pumped 2050 in-band at cavity shaped laser ceramic Tm3+:Y2O3 A Russia Novgorod, Nizhny Sciences, of Academy Russian 5 Novgorod, Russia Nizhny University, Technical State Novgorod Russia Russia Novgorod, Novgorod, Nizhny University, State gorod Nizhny Sciences, of 1 Huang are conductivity discussed. thermal high actua- diamond’s thermo-optical leveraging “fast” tor a for Prospects mi- . per 0.2~MHz crosecond to up rates at chirp exhibiting thermally-induced laser Raman diamond long-pulse a report We Australia Sydney, University, Macquarie msinwt iheciencies. high laser with generate to emission media laser these of properties intrinsic presented. are .Antipov O. Mildren R. and Spence, D. Kitzler, O. Little, D. Abedi, S. nttt fCeityo ihPrt usacso the of Substances High-Purity of Chemistry of Institute Academy Russian the of Physics Applied of Institute ; 4 .Shen D. , 4 ins omlUiest,Xzo,China Xuzhou, University, Normal Jiangsu 1,2 .Getmanovskiy Y. , bandrslspoetefavorable the prove results obtained e 4 dards. stan- acceleration with comparison .Wang J. , 4 OM6 ROOM n .Balabanov S. and , 1,3 .Dobrynin A. , ; 2 ihyNov- Nizhny ; 3 Nizhny 2 H. , 5 ; ; ; rprcmiaino an aa n rqec dou- media. frequency bling and Raman gain, of combination proper applica- ophthalmology in potential tions. has that nm 577 at emitting source laser yellow compact a demonstrated We Sescelades, c/Marcel Campus Virgili, i Rovira Universitat FiCNA), Cristal i zc Republic Czech 1 Gubina ∙ Groups Anionic Tungstate and Molybdate of Vibrations Bending and Stretching on Shis Frequency Combined with Crystal Mixed Pb(MoO4)0.5(WO4)0.5 in Oscillation SRS Ultrafast Multiwavelength MON CA-P.11 B Dolní Rad- 25241, Za Sciences, 828, of Academy nicí Czech the of Physics of tute Novak ∙ for nm 577 Applications at Ophthalmology Source Laser Yellow a of Development MON CA-P.10 events. photon single on based modulation feedforward of opment devel- the towards step important an temperature. cryogenic at twvlntso 1117 n 2712 m respec- nm, tively. a 1217/1222 and achieved 1171/1176 was of on 9.5% wavelengths and at 1.5% of based eciency slope with tion laser in crystal. Raman Pb(MoO4)0.5(WO4)0.5 oscillation pumped ultrafast synchronously multiwavelength present RussiaWe Moscow, Sciences, of Academy Russian the .Frank M. JambunathanV. zc ehia nvriyi rge NP,Prague, FNSPE, Prague, in University Technical Czech 1 2 .Smrz M. , ⋅ .Shukshin V. , ⋅ or eMtrasiNnmtras(FiCMA- Nanomaterials i Materials de lograa si civdb osrcigalsrstpwith setup laser a constructing by achieved is is íDmno /. -30 argn,Spain Tarragona, , E-43007 s/n., Domingo, lí 1 .Smetanin S. , OM7 ROOM ; 2 1 1 rkoo eea hsc nttt of Institute Physics General Prokhorov n .Mocek T. and , .Pu David Paul S. , 2 .Zverev P. , ř 2 e .Jelínek M. , ž n,CehRepublic Czech any, sis is 1 1 ; .Yue F. , 1 iAECne,Insti- Center, HiLASE 2 n .Kube V. and , 1 .Vyhlídal D. , uptradia- output e 1 omn Su-Schrieer-Heeger lattices. interactions soliton forming to due occur phenomena. which topological emergent nonlinear of nonlinearity, example an constitute by entirely transitions driven phase topo- logical dynamical demonstrate We USA CA 94132, Francisco, San University, State Francisco San Astronomy, & Physics China Science Chengdu 610054, China, Electronic of Technology and of University Sciences, Frontier and Fundamental fSine nvriyo Zagreb, of Croatia University 10000, Zagreb Science, of .Mateos X. , s rniin norsystem our in transitions ese ; 2 Física č 1 2 ek OM8 ROOM K. , O. , 1 ; ; 6 eatetof Department Hildenbrand-Dhollande central 999.2nm at obtained wavelength. eciency optical power average 38% 12W and 1016.9nm with at pulses e- 2ps obtained optical wavelength. duration central 28.1% pulse 130fs with and 7W ciency of power output Average Armenia Ashtarak-2, Sciences, Belarus Minsk, University, 2 Technical National larusian 1 Hovhannesyan Mueller resonators ∙ ring non-planar and linear in compared OPO ZGP high-power mid-IR of Performance MON CA-P.14 ∙ Crystal Yb:LuAP on Based Lasers Mode-Locked Femtosecond and Picosecond MON CA-P.13 systems. ef- laser more thin-disk enable cient to could Compared it cavities, disk. Gaussian the fundamental implement on mode and fundamental at-top design a with cavities thin-disk to Yb:YAG in simulations mirrors graded-phase on Talence, report 5107, We UMR CELIA, France CEA, CNRS- Bordeaux- ∙ cavities power thin-disk Yb:YAG high at-top for masks phase intra-cavity of Design MON CA-P.12 ..Medina M.A. Rudenkov A. Petit S. and Nadeau, M.-C. Fortin, V. nttt o hsclRsac,Ntoa cdm of Academy National Research, Be- Physical Technologies, for Institute and Materials Optical for Center ; 5 nttt of Institute 1 .Spindler G. , 2 1,2 CLEO 1 .Petrosyan A. , .Kisel V. , .Piotrowski M. , csadipoe iigof timing improved injection. carrier and space-charge of eects attributed compensation voltages, to bias gate drain of and pulsing independent perovskite operated with transistors the hybrid emitting light of of enhancement brightness report We 3 .Wagner F. , 1 ; ® 1 rnhGra eerhIn- Research French-German Erp-QC2021 /Europe-EQEC 1 .Yasukevich A. , OM9 ROOM 2 n .Kuleshov N. and , 1 2 .Schellhorn M. , .Berrou A. , ; Université 1 n A. and , 1 K. , 1 C. , OM1 ROOM 1 ; ; 49 Psa ihrptto ae ier ITAadFIRE and RISTRA linear, cavities. rate: repetition high ZGP at mid-IR of OPOs types three of power, quality output beam and of eciency terms in performance the compare We Germany Waldshut-Tiengen, France Marseille, nel, Fres- France Marseille,Institut Saint-Louis, Univ.,CNRS,Cetntrale (ISL), Marseille Saint-Louis of stitute ihPrt usacso A,Nzn ogrd Rus- Novgorod, Nizhny RAS, of Substances High-Purity Russia Moscow, Plotnichenko V. Churbanov M. mid-infrared the in doped glasses earth selenide rare of properties laser and Luminescent MON CA-P.16 experi- simulations. between and agreement ments good showing illu- one proposed, designed plate the is phase than dierent spiral wavelength a a at by minated sign generated and beams charge vortex topological of determine to procedure A mania Ro- Magurele, Physics, of Faculty Bucharest, of University Romania Labo- Magurele, Electronics ratory, Quantum Solid-State Physics, diation Dascalu ∙ Plates Phase Spiral Wavelength-Detuned with Generated an Vortex of Optical Shape and Charge Topological the Exploring MON CA-P.15 Velmushov .V Grigore O.-V. ⋅ ody2 ue2021 June 21 Monday 1 ; 1 OM10 ROOM 2 ainlIsiuefrLsr lsaadRa- and Plasma Laser, for Institute National ; 1 rkoo eea hsc nttt fRAS, of Institute Physics General Prokhorov 2 1 .Denker B. , 3 ; .Craciun A. , .Sukhanov M. , 2 eytk nttt fCeityof Chemistry of Institute Devyatykh ; 3 neeGaisackerstrs.,10,79761, Untere 1 ; .Galagan B. , 2 otrlSho fPhysics, of School Doctoral 1,2 2 .Sverchkov S. , .Pavel N. , 1 , ∙ .Koltashev V. 1 n T. and , 1 n A. and , ; OM11 ROOM 2 Aix 3 , ouao raC2:nestrbeabsorber. saturable acousto-optical Cr2+:ZnSe intracavity a an or modulator using achieved was tion and regimes. actively CW, the Q-switched in passively studied was nm 1985 or nm nm, 1935 1896 at laser Tm3+:YAP pumped laser ber In-band Russia region, Moscow Fryazino , IRE-Polys”, cdm fSine,Nzn ogrd,Russia Russian , the Novgorod Nizhny of Sciences, Substances of High-Purity Academy of Chemistry of Ce3+ long ms 3.5-6 7.5 of at the luminescence uncover Sensitization to enabled Dy3+ by glasses. Ce3+ selenide ultrapure Pr-doped oa Bulgaria Soa, Buchvarov Petrov Lasers State Solid L.S. Mode Single of Pumping Bar Diode MON CA-P.18 Russia , Novgorod Nizhny 5 University, Technical State Russia Novosibirsk, University, State Russia , Novgorod Nizhny University, Russia State , Novgorod Nizhny Sciences, 1 Shestakova ∙ In-Band Pumping the Fiber-Laser with Laser Tm3+:YAP a of Operation Q-Switched and CW Low-Quantum-Defect MON CA-P.17 5-6 Russia Moscow, Center, Research Optics Fiber sia .Antipov O. eerhIsiue“ou” ocw Russia Moscow, “Polus”, Institute Research of Academy Russian the of Physics Applied of Institute ; 3 μ rkoo eea hsc nttt fRS Dianov RAS, of Institute Physics General Prokhorov ae cinwsdmntae nT-oe and Tb-doped in demonstrated was action laser m 1,3 5 1 1,2,3 .Shestakov A. , .Georgiev K. , ; ; 1 .Getmanovskiy Y. , 2 hsc eatet oaUniversity, Soa Department, Physics Bhtnc t,S,Bulgaria Soa, Ltd, IBPhotonics hsealn H edotrates. read-out GHz enabling measurements, thus polarization only using by spectrum the in changes ing μ ,as rmsn o lasing. for promising also m, 5 .Balabanov S. , 1 .Trifonov A. , OM12 ROOM 1,3,4 -wthdopera- Q-switched e ; ; 2 4 .Dobrynin A. , ihyNovgorod Nizhny ihyNovgorod Nizhny 6 n .Larin S. and , ; 3 2 Novosibirsk ; and , 6 ; Institute 7 ; “NTO 3 John 2 I. , ∙ 7 I. ; ;
Monday Posters Monday Posters 3 M Univer- of (CeNoS), sity Science Nonlinear for Center & Physics esttd e le aer A-,Cmu I,E- UIB, Campus IAC-3, & Spain Mallorca, Balears de Palma 07122 Illes les de versitat Gurevich Beaudoin utblt o s ndnewvlnt emcombining their beam wavelength systems. showing dense demonstrated, in use is for lasers suitability diode mode ex- gle range sin- mode-ltered) lateral waveguide tuning asymmetric, vertically advanced (highly wide of stabilization spectrum, wavelength ternal narrow loss, Low Germany Berlin, gGmbH, Institut demonstrated. are amplier oscillators fs-regenerative laser Nd:YAP Yb-KGW and single of diode-bar-pumped operation Ecient mode presented. is solid-state- of lasers pumping longitudinally bar de- diode beam-shaping for diode vice a of optimization for method A BNP), Bulgaria (JAC Soa, Photonics Nano and Bio for Center Atanaso ∙ Feedback Optical With a VECSEL in Structures Localized Temporal of Manipulation MON CB-P.4 f Institut Paschke K. ∙ nm 626 at emitting Power-Amplier Master-Oscillator Miniaturized MON CB-P.3 Crump P. and Knigge, A. Fricke, ∙ Output W Spectral 1 pm at Width 50 and Eciency Conversion 65% with Lasers Mode Single Wavelength-Stabilized Externally MON CB-P.2 MON CB-P.1 Session Poster CB CB-P: 11:00 – 10:00 aee mlra o nenltmeauet achieve mW. to 200 approximately temperature a internal and low master-oscillator at as amplier DBR-RWL tapered a de- was uses package It sealed sized, laser veloped. small a in mode nm 626 longitudinal at source single all-semiconductor An many .Seidel T. and Sahm, A. Feise, D. Pohl, J. Drees, M. Blume, G. J. Maaßdorf, A. Wenzel, H. Erbert, G. Wilkens, M. nvriéCt ’zr eteNtoa eL Recherche La de National Centre d’Azur, Côte Université otiuinhsbe withdrawn. been has contribution e ü 1,2 ü 5 1,2 se,Shoslt ,419M 48149 2, Schlossplatz nster, H r .Sagnes I. , ; n .Marconi M. and , .Bartolo A. , ednn-ru-ntttgmH Leibniz- gGmbH, Ferdinand-Braun-Institut ö htrqezehi FH,Bri,Ger- Berlin, (FBH), chstfrequenztechnik 5 .Giudici M. , 3 .Vigne N. , 3 ; ; 2 1 nttt for Institute p.d íia Uni- Física, de Dpt. 3 4 ; .Javaloyes J. , .Garnache A. , Ferdinand-Braun- ü se,Germany nster, eoretical 1 S.V. , 4 G. , ; h edakdlyhroi ouin a eete re- either hindered. be or can inforced solutions harmonic on delay Depending feedback the structures. localized temporal of the regime in operated dynam- lasers the semiconductor mode-locked on of feedback ics optical of eect the analyze We 91120 9001, UMR France Palaiseau, Paris-Saclay, Université CNRS, gies, Montpellier,France 34000 Montpellier, of University UMR5214, Val- F-06560 Nice, France de bonne, Physique de Institut Scientique, inadabnwdhu o1 ie hto h injected the of that times 13 comb. to up bandwidth a and polariza- tion orthogonal with combs tunable injection. two shows comb SEL frequency with VCSEL a of ics dynam- the experimentally and theoretically analyze We Bulgaria Soa, Sciences, Belgium Brussels, Brussel, 4 Universiteit France Vrije Edouard (B-PHOT), Metz, Rue , 2 57070 LMOPS, Belin France CentraleSupélec, Metz, , Lorraine, 57070 de Belin Edouard Rue 2 Sciamanna M. indfrmnaueaoi lcsadro tempera- de- room is magnetometers. and ture GHz clocks atomic 9.19 miniature at for separation signed frequency at a operating with nm laser 894 dual-wavelength coupled laterally A Kingdom United Glasgow, Glasgow, of versity ∙ Combs Frequency VCSEL of Dynamics Injection Optical MON CB-P.5 Evaluating MON CA-P.19 oyo oi tt irsrcue,NnigUniversity, Nanjing Microstructures, China Nanjing, State Solid of tory China Nanjing, Telecommunications, Marsh Qi W. Transitions Atomic to Cs-133 Locking for Designed Laser Wavelength Dual MON CB-P.7 MON CB-P.6 Kingdom Heriot-Watt United Sciences, Edinburgh, University, Quantum and Photonics of stitute ∙ Crystals Laser Slab .Doumbia Y. .Snel .Tre,D ors n ...Esser M.J.D. and Morris, D. Turner, H. Sanwell, J. nttt fSldSaePyis ugra cdm of Academy Bulgarian Physics, Solid-State of Institute otiuinhsbe withdrawn. been has contribution e 1 3 ; , n .Hou L. and , 5 ∙ eted aocecse eNanotechnolo- de et Nanosciences de Centre .Yuan B. 1,2 ; ra nefc aeil o Mounting for Materials Interface ermal 1,2 .Wolfersberger D. , ; CLEO 4 3 ntttdEetoiu tdsSystèmes, des et d’Electronique Institut ; ae atSho fEgneig Uni- Engineering, of School Watt James 1 1 .Shi J. , hiePooiu,CentraleSupélec, Photonique, Chaire 3 ; 1 ajn nvriyo ot and Posts of University Nanjing ® 1 .Zhang Y. , ; Erp-QC2021 /Europe-EQEC 3 rsesPooisGroup Photonics Brussels 1,2 .Panajotov K. , ; 2 1 ainlLabora- National .Chen X. , ; 2 Université 3,4 2 VC- e J.H. , and , ; OM2 ROOM 1 ROOM In- ; 50 edcutr fgoal-on u locally- but globally-bound of clusters nd We Germany and Spain Computing Mallorca, for Applied de of Palma Institute Code, Community & Balears Illes les Germany Berlin, 1 ∙ VECSELs mode-locked V-shaped in molecules photonic Phase-incoherent MON CB-P.10 proposed. is structure optimized an and buried junction the tunnel of dimension vary- longitudinal parametrically and by transverse solver ing optical vectorial us- 3D analyzed are a VCSEL ing GaSb mu 4 a in losses Scattering Italy M Torino, bei Garching D-85748 many Munich, of sity Belkin ∙ VCSEL GaSb um Tunnel 4 Buried Junction a in Losses Scattering of Investigation MON CB-P.9 Lutetskiy A. Losev ∙ Rise-time Non-zero with Pumping Pulsed under Lasers Cascade and Quantum InAs- InP-based in Delay Turn-on the of Observation MON CB-P.8 Kognovitskaya Karachinsky L. ap- this for materials practical PGS most plication. so the and be to foil found Indium are disk geometries. and laser slab mounting solid-state for materials interface solid evaluating thermal comparatively for method a present We n .Sokolovskii G. and ueia iuain ulttvl ge ihthese with agree Our measurements. qualitatively simulations pulse-pumping. rise-time numerical non-zero under quantum-cascadelasers InP-based and InAs- pump- in on amplitude ing dependence non-monotonous reaching its delay and turn-on ~10ns long unexpectedly observe We France Montpellier, Montpellier, of sity 3 Russia .Hausen J. Simaz A. Cherotchenko E. nttt of Institute TOUiest,SitPtrbr,Russia Petersburg, Saint University, ITMO ⋅ ody2 ue2021 June 21 Monday 1 ; oeia hsc,Uiest fM of University Physics, eoretical 1 ; .Babichev A. , ; 2 2 1 onco pisLC an eesug Russia Petersburg, Saint LLC, Optics Connector N-EI / oienc iTrn,10129 Torino, di Politecnico c/o CNR-IEIIT atrShtk nttt / ehia Univer- Technical c/o Institute Schottky Walter 1 1 .Javaloyes J. , .Debernardi P. , 1 .Veselov D. , 1 oeia hsc,Tcnsh nv Berlin, Univ. Technische Physics, eoretical .Egorov A. , 1,2,3 ; 2 1 eatmn eFsc,Uiesttde Universitat Fisica, de Departament .Dudelev V. , 1 .Denisov D. , ; 2,3 1 .Gladyshev A. , oeIsiue an Petersburg, Saint Institute, Ioe 2 .Gurevich S. , 1 .Slipchenko S. , 3 2 .Tessier R. , .Beshara M. , 1 2 .Mikhailov D. , .Kuchinskii V. , 2,3 2 .Novikov I. , ü n .L K. and , 4 .Baranov A. , se,M nster, 1 ; .Pikhtin N. , ü 1 4 n M.A. and , ce,Ger- nchen, E,Univer- IES, ; 3 Institute ü ü 1 nster, 1 dge 1,2,3 E. , S. , 1 4 1 , , , ; ; uaini . sadeeg 0p samxdphoton mixed a is pJ g(3)g(3)*>g(2)g(4). 80 correlations wide- non-classical energy with and state ps multiple 1.2 utilizing is in duration emitters heterostructure. eect pulse quantum-well Stark superradiance quantum-conned report We France Palaiseau, Lab, Switzerland Neuchâtel, (CSEM), SA crotechnique ∙ Lasers Semiconductor Cavity IntegratedExtended on Waveguides Passive InP-based in Index Non-linear and Absorption Two-photon of Eects MON CB-P.13 noise. linewidth phase ~19-kHz ~-122-dBc/Hz with and source quantum- MMW InAs/InP based laser ~1610-nm dash L-band reported an is utilizes link channel that 4-m over signal QPSK of 2-Gbit/s transmission wireless 28-GHz of demonstration First Arabia Saudi Ara- Riyadh, University, Sultan Saudi Prince partment, Riyadh, University, bia Saud Miner- King and partment, Petroleum Arabia Saudi of Dhahran, University als, Fahd King ment, Khan M.Z.M. and ∙ nm 1610 at Source MMW GHz 28 Laser Quantum-dash Injection-locked with System Transmission Wireless QPSK Gbit/s 2 MON CB-P.12 and Robert Krakowski Torcheboeuf N. wells quantum wide multiple utilizing emitters light non-classical pulse Ultra-short MON CB-P.11 nvriyo ehooy idoe,Netherlands Eindhoven, Technology, of University phase-incoherent the of stability analy- bifurcation of clusters. analytics a regions Our while yields distance sis pulse threshold. the the predicts in below VECSELs regime mode-locked long-cavity in pulses independent .Bne .Adeu .Ja,adK Williams K. and Jiao, Y. Andreou, S. Bente, E. Tareq Q. ; ∙ 3 .Boiko D. omnctosadNtok niern De- Engineering Networks and Communications 2 .Vinet E. , 1 2 ..Ragheb A.M. , .Resneau P. , 1 1 ; .Mitev V. , 2 1 .Garcia M. , eteSis ’lcrnqee eMi- de et d’Electronique Suisse Centre 1 ; 1 2 lcrclEgneigDepart- Engineering Electrical 2 .Larrue A. , ..Esmail M.A. , 1 ; .Balet L. , 2 2 .Parillaud O. , lcrclEgneigDe- Engineering Electrical 2 1 ih ussof pulses light e .P Legoec J.-P. , .Renevey P. , 3 .Alshebeili S. , 2 .Gerard B. , ; Eindhoven ; 2 1 III-V 2 M. , Y. , 2 2 , , iy ooiis,Russia Novosibirsk, sity, University Science, Nonlinear for M of Center & Physics ical Spain Mallorca, IAC-3, Nice, & Balears d’Azur, Côte France Université Scientique, Recherche Scien- France Montpellier, Recherche Montpellier, la de 2 de Université National tique, Centre Systèmes, des Giudici Sedov emission wave light axis ob- observed. O been and been have On have study. structures and light served Localized designed studied. been has and technology Semiconductor III-V on based Cavity Laser emitting surface Modeless Spatially A Recherche France la Palaiseau, Paris-Saclay, Université de Scientique, National Centre Nanotechnologiy, and Marconi .Chekhovskoy I. tracking jump phase adaptive using signals telecommunication in problem Zakharov-Shabat direct the of evaluation eigenvalue Fast MON CI-P.2 which wavelength, issue. crosstalk xed optical a the eliminates at purpose an tuning for intensity modulator microring add-drop the to are introduced inside, elements modulation interferometric-couplers, index active symmetic containing two design, this and In Salmani, M. Semnani, B. haghi Saha, S. Luan, E. Systems Photonic Integrated Large-Scale for Modulator Coupling-based Interferometric MON CI-P.1 Session Poster CI CI-P: 11:00 – 10:00 MON CB-P.15 light ∙ localized linear Non III-V technology: on Semiconductor based Cavity Laser Modeless Spatially MON CB-P.14 lasers modelocked theoretically. cavity studied are extended ef- integrated the as on well fects as InGaAsP/InP pulses and picosecond on waveguides waveguides rib ridge InP in re- index non-linear fractive the and absorption two-photon of Eects .Vigne N. ntttd hsqed ie eteNtoa ela de National Centre Nice, de Physique de Institut otiuinhsbe withdrawn. been has contribution e ü ; 1,3 se,M nster, ; uwiCnd,Trno Canada Toronto, Canada, Huawei 2 3 n .Fedoruk M. and , 2 n .Garnache A. and , eatmn eFsc nvria elsIlles les de Universitat , Física de Departament .Javayoles J. , 1 .Bartolo A. , ü se,Germany nster, 1 .Medvedev S. , 2 3 ; .Beaudoin G. , .Gurevich S. , 2 eea eerhCne o In- for Center Research Federal 1,2 1 ; ; 1 1 ; ooiis tt Univer- State Novosibirsk ntttdEetoiu et d’Electronique Institut 5 etrfrNanosciences for Center 2,1 ; 4 .Vaseva I. , nttt for Institute 5 4 .Pantzas K. , .Sagnes I. , 2,1 ∙ .Es- A. 5 eoret- , 5 M. , M. , ∙ E. ; ae nmvn nacmlxpaeaogseiltra- special along plane complex jectories. a on moving on based problem. Zakharov-Shabat the size of step spec- trum discrete adaptive the determining with for method tracking) jump fast (phase new a propose We Kingdom United Birmingham, University, Russia Novosibirsk, Technologies, Computational and formation to up kHz from line GHz. frequency with modulation combs to equal frequency spacing optical generate It to regime. locking allowed self-injection the in possible is eration op- gain-switched that experimentally demonstrated We Russia Moscow, iyo igpr,Snaoe 153 igpr,Singa- Singapore, 117543, Singapore, Singapore, of sity Australia Melbourne, Australia, 3001, Melbourne University, Science, RMIT of China School Shanghai, Nanophotonics, Articial-Intelligence China, 200093, hai Technology, Shang- and Science Engineering, for Shanghai Computer of University and Optical-Electrical of School Gu ∙ nanoparticles upconversion lanthanide-doped using storage data optical sub-diraction Low-power MON CI-P.3 unchanged. sil- remains to icon transferred microlaser a of characteristics thermal microdisk. a addressingto individual silicon. allows method to integration transferred mi- hybrid lasers injection-pumped dot of quantum crodisk lasing cw demonstrated We Russia St.Petersburg, tute, 2 Zhukov Zubov Mintairov F. ∙ silicon on lasers microdisk dot quantum InAs/GaAs of integration Hybrid MON CB-P.17 Russia Bilenko I. and ∙ WGM Microresonator a to Locked Self-Injection Laser Gain-Switched MON CB-P.16 .Lamon S. Kryzhanovskaya N. Shitikov A. leo nvriy tPtrbr,Russia St.Petersburg, University, Alferov 1,2 ; ; ; 1 1 3 etefrAtilItliec Nanophotonics, Articial-Intelligence for Centre ; so nttt fPooi ehoois Aston Technologies, Photonic of Institute Aston 2 ; 3 ..LmnsvMso tt University, State Moscow Lomonosov M.V. 3 1,2 .Kulagina M. , 1,2 eateto hmsr,Ntoa Univer- National Chemistry, of Department 1 1 .Lobanov V. , S nvriy tPtrbr,Russia St.Petersburg, University, HSE .Wu Y. , .Maximov M. , 1,2 CLEO ; 1 lcrcl hehl,seta,and spectral, threshold, electrical, e usa unu etr Moscow, Center, Quantum Russian 1 3 .Moiseev E. , .Zhang Q. , ® 1 .Kondratiev N. , 3 .Nadtochiy A. , Erp-QC2021 /Europe-EQEC 1,2 .Kalyuzhnyy N. , 1 .Liu X. , 1 .Dragunova A. , ; 2 aoaoyof Laboratory 1 ; .Gorelov I. , smto is method is 3,4 3 1 oeInsti- Ioe n A. and , n M. and , 3 S. , OM2 ROOM OM3 ROOM 1 2 e , , ; 51 ihpwrple lr-ieaetr (800 ultra-wide-aperture pulsed High-power Russia Moscow, 2 Marmalyuk A. Slipchenko S. heterostructures triple integrated epitaxially naplmrmti ae nanocomposite. based matrix polymer a in nanoparticles upconversion lanthanide-doped using stor- age data optical sub-diraction low-power present We capacity. single-disk petabyte-level towards optical storage data three-dimensional sub-diraction the for show potential techniques optical super-resolution Far-eld Singapore, 117456, Singapore Singapore, Singapore, Singapore, of University Singapore pore, at observed are W ns. 216 A/100 of 90 power peak inte- of a slope and epitaxially A W/A 2.2-2.9 on developed. are based heterostructures triple nm) grated (905 lasers conductor Kop’evP. (800 aperture ultra-wide an with nm) (905 lasers semiconductor pulsed High-power MON CB-P.18 uainlpwro h reservoir. the of com- power putational the boost signicantly to mul- arrangements tiplication matrix paral- photonic on-chip frequency with combined employs lelization which platform computing haghi Semnani, B. Computing Reservoir Photonic Tunable Multicolor MON CI-P.4 out- the emission. of put concentration spatial and tem- stabilization show poral semi- simulations between Numerical edge-emitting coupling lasers. PT-symmetric of neighbouring a array by lasers an conductor of tur- dynamics spatiotemporal intrinsic bulent the control to propose We Avan Estudis Spain i Recerca de lana Spain Barcelona, (UPC), Catalunya 1 ∙ potentials PT-symmetric by bars laser Edge-Emitting in localization eld and stabilization Spatiotemporal MON CB-P.19 .Medina J. tlmk eerhadDvlpetIsiue“Polyus”, Institute Development and Research Stel’makh eatmn eFsc,UiesttPltciade Politècnica Universitat Física, de Departament ⋅ spprpooe e nci htncreservoir photonic on-chip new a proposes paper is ody2 ue2021 June 21 Monday ; uwiTcnlge oot,Canada Toronto, , Technologies Huawei 1 .Bagaev T. , 1 .Herrero R. , ∙ 1 .Slai .La,S aa n .Es- A. and Saha, S. Luan, E. Salmani, M. , 2 ; ; ∙ .Podoskin A. 1 4 oeIsiue an-eesug Russia Saint-Petersburg, Institute, Ioe . nttt o elh National Health, for Institute N.1 e 2 .Ladugin M. , 1 .Botey M. , 1 .Gavrina P. , ç t IRA,Barcelona, (ICREA), ats 1 μ 2 n .Staliunas K. and , ; )bsdon based m) .Padalitsa A. , 2 nttcóCata- Institució . 1 .Pikhtin N. , μ )semi- m) 2 and , 1,2 1 , ; ; ilysl-okdmodes. par- self-locked quasi-stationary, tially many as well het- as auto- modes C or modulated superradiant class more or a two in supports that trains erolaser pulse emission quasiperiodic simultaneous dierent of of regime intriguing an nd We USA Station, College University, M A\& iy imnhm ntdKingdom United Birmingham, sity, Russia Novosibirsk, Technologies, 3 Computational and Russia birsk, Turitsyn S. and ∙ Systems Transmission Long-Haul WDM in Mitigation Nonlinearity for Span per Layers Multiple with Networks Neural Convolutional MON CI-P.6 cas- of determined. number is gates possible optical maximum equa- caded A Lang-Kobayashi of noise. frame with the tions in studied is gates lasers semiconductor majority of optical Dynamics numerically. of investigated chain is a in development Noise Russia Moscow, Technology, and K F. gates ∙ majority optical cascaded of properties Noise MON CI-P.5 Novgorod, Nizhny Russia Science, of Academy Russian Physics, Kocharovskaya heterolaser ∙ quantum-dot C class a in dierent periods with trains pulse of generation Simultanious MON CB-P.21 diversity. intra-pattern high with patterns repeti- tive clock-free, of sub-nanosecond, consist generate we that power, relative tones’ signals the opti- tuning By periodic short tones. frequency emit equidistant with can lasers feedback semiconductor cal that show We M Spain of University Mallorca, Physics, de Palma UIB), (CSIC- IFISC Complejos Sistemas y Interdisciplinar Física ∙ feedback optical with lasers semiconductor using diversity intra-pattern with high patterns periodic physical fast of Generation MON CB-P.20 .Sidelnikov O. Lerber, von T. Lyubopytov, V. Kontorov, S. Volkova, E. Kocharovsky V. Argyris A. so nttt fPooi ehoois so Univer- Aston Technologies, Photonic of Institute Aston ü pr,adA Shipulin A. and ppers, ; 2 eateto hsc n srnm,Texas Astronomy, and Physics of Department 1 .Schwind J. , ; 1 2 1 .Redyuk A. , 1,3 eea eerhCne o Information for Center Research Federal n .Seleznev A. and , 1 ; .Mishin A. , 1 ooiis tt nvriy Novosi- University, State Novosibirsk ü 1,2 se,M nster, 1,2 n .Fischer I. and , ; klooIsiueo Science of Institute Skolkovo .Sygletos S. , 1 .Kocharovsky V. , ü 1 ; se,Germany nster, ; 2 1 nttt fApplied of Institute nttt fApplied of Institute 3 .Fedoruk M. , 1 ; 1 nttt de Instituto 1,2 E. , 1,2 , ;
Monday Posters Monday Posters u ttspeae ntefeunydmi sexperi- is domain demonstrated. frequency mentally the in prepared quan- states multimode tum of method sim- mixing quantum arbitrary a an in ulator, gating pulse quantum of method a As 2 Lagendijk WDM systems. long-haul transmission in deep compensation of of distortion eciency number nonlinear the the on of layers eect network neural the convolutional study we work, this In ∙ bres crystal photonic hollow-core in generation gas-lled beam twin ultrafast of Dynamics MON EA-P.3 Kannari F. and ∙ Crystal Waveguide Dispersion-Engineered Nonlinear a with Pulse Single a in Generated States Quantum Multi-Spectral of Mixing MON EA-P.2 quan- to related systems processing. information of tum number a in processes ence sin- oscil- lator. Kerr-nonlinear a (“kicked”) in excited phenomenon impulsively echo gle the study theoretically We Israel Rehovot, Science, of Institute Weizmann ∙ Oscillator Kerr-nonlinear Quantum Single a in Echoes MON EA-P.1 Session Poster EA EA-P: 14:30 – 13:30 ∙ medium scattering free-form a through light Focusing MON JSV-P.1 Session Poster JSV JSV-P: 11:00 – 10:00 systems transmission long-haul in compensation fornonlinearity networks neural connected fully Complex MON CI-P.7 .Lippl M. Yamagishi Y. Averbukh I.S. and Viswambharan, R. Tutunnikov, I. Rates A. ainlIsiuefrMtrasSine skb,Japan Tsukuba, Science, Materials for Institute National s cosmyb sflfrsuyn decoher- studying for useful be may echoes ese 1,2 1 1 n ..Vos W.L. and , ...Adam A.J.L. , ..Chekhova M.V. , 1 .Hosaka A. , 1 ; 1 eoUiest,Ykhm,Japan Yokohama, University, Keio 1 ; 1 1 2 1,2 .Tanji K. , ope htncSystems Photonic Complex ..IJzerman W.L. , n ..Joly N.Y. and , 1 .Kurimura S. , 1,2,3 3,4 ; 1 A. , Max 2 , ; ; lnkIsiuefrteSineo ih,Elne,Ger- Universit Erlangen, Light, of Science many the for Institute Planck ed ntegspressure. gas de- the strongly on matching pends phase the where four-wave process, a mixing on based ber gas-lled crystal a photonic ul- in hollow-core an produced with tuneability source frequency photon-pair trabroad correlated a report We Germany Erlangen, Films, Nanostructured for tre Germany Erlangen, Germany Nuremberg, Erlangen, Light, of time- the of intensity. evolution spectral joint the the photonic an modes on hollow-core Schmidt frequency Xe-lled focusing in bre, nm crystal 808 at 300 pulses by generation fs twin-beam of dynamics the study We Germany Erlangen, Films, Nanostructured for tre in intensity the enhance to shaping wavefront use We Netherlands Eindhoven, Netherlands Research, Eindhoven, Technology, Uni- of Eindhoven versity Science, Computer and Mathematics of Netherlands Del, University Technology, Del of Physics, Imaging of Department Group, Netherlands Enschede, Univer- Twente, Nanotechnology, of sity for Institute MESA+ (COPS), ..Chow C.H. neutral single atom decoupled dynamically a of Coherence MON EA-P.6 Chekhova M.V. ∙ Tuneability Frequency Ultrabroad with Biphotons of Source Fiber MON EA-P.5 MON EA-P.4 linear demonstrated. and is networks schemes compensation neural real-valued the over proach optic systems. ber communication in compensation nonlinearity for applied are Russia Novosibirsk, versity, ∙ .Lopez-Huidobro S. Sidelnikov O. and Bogdanov S. otiuinhsbe withdrawn. been has contribution e networks neural connected fully complex-valued e ; 2 ä eateto hsc,Friedrich-Alexander- Physics, of Department ,Elne,Germany Erlangen, t, 1 , ∙ 1,2 ..Ng B.L. CLEO ; 1 a lnkIsiuefrteScience the for Institute Planck Max 1,2 .Lippl M. , 1 n .Kurtsiefer C. and , ® Erp-QC2021 /Europe-EQEC ueirt fasc ap- such a of superiority e ; 2 ; ; ; nvriyo Erlangen- of University 3 3 ooiis tt Uni- State Novosibirsk ; 1,2 nedsilnr Cen- Interdisciplinary nedsilnr Cen- Interdisciplinary 3 AA Department CASA, .Joly N. , ; 2 pisResearch Optics 1,2 2,1,3 ; ; 4 1 Signify Center and , OM3 ROOM OM1 ROOM 4 ROOM 52 fPyisadAtooy nvriyo tAndrews, St of University Astronomy, and Physics of improvement indicating magnitude. of achieved, orders two is over 7ms of Coher- time state. ence excited the with transition optical closed of of states magnetic-sensitiveground on dynamical-decoupling apply We Singapore 3, Drive Science 2 Singapore 2, Drive Science 2 3 Technologies, Quantum for spectrometer. a grating using based Si-CCD photons commercial, undetected with non- on interferometry based linear cm–1) (1.5 resolution high with troscopy curved. is sample the the when and when at eciency is sample the comparing sample, free-form a in Splitting Beam Ultra-Broadband MON CI-P.8 ∙ with Pairs Photon Source of Integrated an For Loss Correlated Engineered MON EA-P.9 (3.2-4.3 mid-infrared fast, demonstrate We Germany Berlin, Germany Ramelow S. ∙ Spectrometers Grating Near-IR with Spectroscopy Mid-IR Broadband MON EA-P.8 MON EA-P.7 Strek W. laser ∙ CW a by excited based graphene light on white of source point-like emissive Highly MON JSV-P.2 Bulgaria Soa, University, Soa France Metz, LMOPS, Supélec, Montemezzani G. ∙ Dissipation with System .d aHoz la de P. Kaufmann P. and Tomala, R. Wiewiorski, P. Hanulia, T. Oleszko, M. Alrifai R. eateto hsc,Ntoa nvriyo Singapore, of University National Physics, of Department ⋅ ornton otiuinhsbe withdrawn. been has contribution e ody2 ue2021 June 21 Monday ; 1 ; nttt fLwTmeaueadSrcueRe- Structure and Temperature Low of Institute .Korolkova N. , 1 2 1,3 .Coda V. , ni ai,Prs France Paris, Paris, Inria ; 1 1 .Chrzanowski H. , 1 .Sakovich A. , 87 Humboldt-Universit 1 bao,mtvtdb h availability the by motivated atom, Rb ; 1 nvriéd orie Centrale- Lorraine, de Université 1 ∼ .Peltier J. , 0 BPm Self-Rejection Pump dB 100 1 n .Mogilevtsev D. and , 2 ; .Mikhalychev A. , 2 1 eateto Physics, of Department 1 .Vanselow A. , .Rangelov A. , ä uBri,Berlin, Berlin, zu t ; 3 ree-Waveguide RSAdlershof, IRIS μ 2 )spec- m) ; 1,2 1 2 School 2 and , and , M. , ; ee xedn 100dB exceeding suppressionlevel pump on-chip an for feature mechanism in-built which an pairs photon entangled in- of an source of design tegrated the for proposal theoretical a present We 220072, 68-2, Ave. Belarus Minsk, Nezavisimosti Belarus, of Sciences Kingdomof United , Andrews St 9SS, 2 KY16 Haugh North fQatmOtc,LinzUiest,Wlegre 1, Welfengarten University, Leibniz Optics, Quantum of ∙ gates qubit ying waveshape-insensitive Towards MON EA-P.11 France Paris, University, Sorbonne Brossel, Treps Roeland ∙ network complex optical quantum in Markovianity non and density Spectral MON EA-P.10 ue niomnsadtepoigo hi spectral their of non-Markovianity probing and struc- density the of and simulation environments the tured we for Here results experimental networks. quantum show complex as arranged tailored be and can processes parametric optical Multimode Australia Canberra, ANU, Science, tum Spain Mallorca, de Palma plejos, Com- Sistemas y Interdisciplinar Fisica Finland de Instituto Turku, CSIC), Physics, Quantum for tre material. excited the of phology mor- on a dependent of strongly emissivity is source the light light that laser-induced shows visible study Our of developed. was spectrum broad emitting Point-source Poland Wroclaw, Sciences, of Academy Polish search, iha vrl Bls.Aaoyt unu popu- is quantum state intermediate to addressed. decaying Analogy a through loss. transfer dB lation 3 overall an splitting with beam ultra-broadband achieve to permits uides .Bbskn .Mrnr n .Demircan A. and Morgner, U. Babushkin, I. Renault P. .I tpnvIsiueo hsc,Ntoa Academy National Physics, of Institute Stepanov I. B. ih ispto ntecnrlo he aallwaveg- parallel three of central the in dissipation Light 1 .Piilo J. , 1 .Davis A. , 1 .Nokkala J. , 2 n .Parigi V. and , 1 .Zambrini R. , 2 .Arzani F. , ; 1 ; 4 eateto Quan- of Department 3 1 .Maniscalco S. , aoaor Kastler Laboratoire 1 .Michel T. , ; ; 3 2 FS (UIB- IFISC uk Cen- Turku ; Institute 1,4 2 G. , N. , ; Schattauer Networks. Quantum in approach scalable for a allowing systems QKD for devices QKD. developing are implement We to technology compelling a providing thus manufacture im- to amenable to circuits photonic platform plement compact provide Photonics Integrated Information, Kingdom Quantum United Bristol, and Nanoscience for Centre Train- Doctoral ing, for Centre Engineering Quantum & Labs Bris- Bristol, Kingdom of United tol, University Electrical Engineering, of Electronic Department and & Laboratory Physics Wills H. ..Rarity J.G. Leija Wolters J. otbeadcmatdcysaeQDsender ∙ QKD decoy-state compact and portable A MON EB-P.3 stan- systems. with telecom compatible dard distribution key quantum based temporal-mode- high-dimensional, for device photons. reading of a modes information temporal decode in to sum-frequency encoded enables engineered that process integrated generation an present (PhoQS), We Systems Germany Photonic Paderborn, University, for Paderborn Institute Group, Optics Silberhorn C. and Brecht, B. Ansari, Gil-Lopez, J. Decoder QKD High-Dimensional MON EB-P.2 ∙ Quantum Network Bristol in QKD Chip-Based on Advances MON EB-P.1 Session Poster EB EB-P: 14:30 – 13:30 Germany Berlin, Kurzzeitspektroskopie, phase ∙ exchange photon the of measurement Direct MON EA-P.12 correlations them. or between photons of waveshape temporal/spatial the on independently correctly photons for processing allow elements gates optical linear of network a to- with conversion, gether photon coherent so-called that show We Germany Hannover, 30167, .Auer M. Aktas D. Tschernig K. ut-uptQatmPleGt:aNovel a Gate: Pulse Quantum Multi-Output e 1,2 ; 1 1 4,5 a-onIsiu f Max-Born-Institut 1 .Rosenfeld L. , 1 1,2,3 ; .Knips L. , .Benson O. , 1 ∙ 1,2 unu niern ehooyLb,H. Labs, Technology Engineering Quantum .Freiwang P. , .Srn,M atnra .Rde,V. Ridder, W. Santandrea, M. Serino, L. .M C. , ; 2 unu niern Technology Engineering Quantum ü 1 1,2,4 2,3 .J F. , ller .Busch K. , 2,3 n .Weinfurter H. and , ö ü hlinger .Smoor M. , 1,2 ihlnaeOtkund Optik Nichtlineare r .Baliuka A. , ; nertdQuantum Integrated 2 1,2 .Hastings E. , n .Pèrez- A. and , ; 3 .Kroh T. , 2 ntttf Institut sprovides is 1,2 2 M. , and , 1,2,4 2,3 ü r , ; eo aigthreshold. lasing operating below diode laser a using experiment ranging optical being despite correlation source. timing stationary for a used be can which Singapore Singapore, Singapore, of node. spectral WSS-based the a in with factor associated leakage rate count photon perfor- total addressing the the experimentally by on link QKD impact BB84 a shi of mance frequency the on study We Greece Athens, 15341, GreeceParaskevi Athens, Athens, of Univer- Technical sity National Engineering, Computer and Giannoulis M Bundeswehr der M 80799 Technology, Germany 1 ehoois igpr,Singapore Singapore, Technologies, Raptakis 4 pia agn sn utrsodLsrDiode ∙ Laser Subthreshold a using Ranging Optical MON EB-P.5 ∙ Nodes QKD on WDM-based Dris in Performance Frequency Center of Impact the On MON EB-P.4 repeti- 100MHz a rate. for tion even pulse-shape as well ac- as timing curacy preserving fully VCSELs, four of intensity modulating the electrically by protocol decoy the running capableof sender QKD low-power small-size, a present We Germany hsclecag ftoparticles. two of exchange physical the phase for geometric the evidence vealing re- and direct wavefunctions two-photon exchange of providing symmetry particle bosonic photons, the of of measurement phase the report We Germany Germany Berlin, Berlin, Berlin, (DLR), e.V. Germany 3 Humbold-UniversitPhysik, ..Tan P.K. Zavitsanos D. Ludwig-Maximilians-Universit a-lnkIsiu f Max-Planck-Institut RSAlrhf Humbold-Universit Adlershof, IRIS ra ih xiispoo ucigbehaviour, bunching photon exhibits light ermal 1 ; ; .Tokas K. , 1 4 1 2 etce etu f Zentrum Deutsches n .Kurtsiefer C. and n .Avramopoulos H. and , uihCne o unu cec and Science Quantum for Center Munich CLEO 1 .Ntanos A. , ü 1 ce,857Nuieg Germany Neubiberg, 85577 nchen, .Kanta K. , ü ü spoet sdmntae nan in demonstrated is property is uneotk 54 Garching, 85748 Quantenoptik, r ce,Germany nchen, ® ä uBri,Bri,Germany Berlin, Berlin, zu t Erp-QC2021 /Europe-EQEC ϕ 1,2 ; ; g 1 2 ä .Kouloumentas C. , 1 ; ü 5 = pao htnc,Ag. Photonics, Optagon ,877M 80797 t, .Toumasis P. , ehiceUniversit Technische u-udRaumfahrt und Lu- r 1 ; 1 π etefrQuantum for Centre ; 2 ä 1 ainlUniversity National soitdwt the with associated uBri,Berlin, Berlin, zu t colo Electrical of School ; 3 Universit ü 1 nchen, 1,2 A. , OM1 ROOM OM2 ROOM G. , ä ä t t ; ; 53 Eckmann ultrathin source. an far- photon-pair in wavelength a paired to its at wavelength information transfer- one eld by at limit information diraction near-eld the ring pho- beyond undetected goes with that scheme tons imaging an propose We Germany Jena, Engineering, cision Ger- Jena, Jena, many University Schiller Friedrich Photonics, chip. detun- generating spectral ultra-wide um ing. realising 2.09 um 1.53 at inter- at pumped photons silicon integrated source a photon demonstrate to modal We fundamental photonics. are quantum sources Photon-pair Kingdom United Bristol, Bristol, of sity Rarity ∙ Chip Silicon a on Mid-Infrared the in Source Photon-Pair Ultra-Wide MON EA-P.13 eprl(u-aoeod n pta 24x22pix- 272 resolution. x els) (224 high spatial with and photons (sub-nanosecond) temporal between detect- correlations of order capable high sensor ing array SPAD new a Switzerland present We Italy Bern, Trento, FBK,, Kessler Physics, Bruno Applied of ∙ quantum for imaging resolution spatial high with array SPAD MON EB-P.8 Setzpfandt pairs ∙ photon of sources thin using photons undetected with imaging near-eld Sub-diraction MON EB-P.7 reported. is network bi-nodal a in experiment principle Proof-of en- quantum networks. quantum generate multi-nodal to in way tanglement ecient and robust a fers of- absorption coherent distributed that demonstrate We dom 2 1 ∙ Generation Entanglement Deterministic for Networks Quantum in Absorption Coherent Distributed MON EB-P.6 ..Rsned .Wlmn,JCF ates n J.G. and Matthews, J.C.F. Wollmann, S. Rosenfeld, L.M. .Stefanov A. Santos E.A. Vetlugin A.N. nvriyo otapo,Suhmtn ntdKing- United Southampton, Southampton, of University Singapore Singapore, University, Technological Nanyang ⋅ ody2 ue2021 June 21 Monday ; ; 2 unu niern ehooyLb,Univer- Labs, Technology Engineering Quantum ruhfrIsiuefrApidOtc n Pre- and Optics Applied for Institute Fraunhofer swr nbe e esn ehooison- technologies sensing new enables work is 1 .Gasparini L. , 1 ; 1 1 .Saravi S. , 1 nttt fApidPyis beCne of Center Abbe Physics, Applied of Institute 1 .Bessire B. , .Guo R. , 1 1 2 .Vega A. , .Soci C. , n .Perenzoni M. and , 1 .Untern M. , 1 1 n ..Zheludev N.I. and , .Pertsch T. , ; 2 2 Fondazione ä ; hrer 1,2 1 Institute n F. and , 1 B. , 1,2 ; ; eain re n orlto egho photons. of length correlation and cor- order nite relations to corresponds resolution quantum maximal and that and light) show pseudo-thermal (SOFI and biphotons schemes with imaging imaging several optimiza- of to tion approach information-based an Switzerland apply Bern, We Bern, of University Physics, Applied of cec n Technology, and Science Belarus Minsk, Belarus, of Mogilevtsev Bessire essicuigitreec iiiiisadgeneration rates. and visibilities interference pro- including parametric cesses non-linear sin- on of based sources limitations photon gle and trade-os uncover unknown to multi- detection previously photon of and framework optics Gaussian applicable mode broadly a develop We Kingdom Edinburgh, United University, Heriot-Watt Bristol, Sciences, Quantum Bristol, of and Kingdom United University Electrical of Engineering, Wills Department Electronic H. and H. Laboratory Training, Physics Doctoral for Centre Engineering, Engineering Electronic Kingdom United Bristol, and Bristol, of University Electrical of Department McCutcheon ∙ Photo-detection and Optics Quantum Gaussian Multimode for Framework General A MON EB-P.10 ∙ Optimization Imaging Quantum for Analysis Information MON EB-P.9 temperature. room emission to reproducible up persists and that narrow exhibit sources beam. ton electron an using (hexagonal nitride) hBN boron material quantum bidimensional the of in activation emitters deterministic demonstrate We France Versailles, GEMaC, CNRS, UVSQ, Delteil A. and Hermier, J.-P. jon, ∙ hBN in wavelength emission reproducible with emitters quantum Position-controlled MON EA-P.14 O.F. Mikhalychev A. Bar- J. Quélin, X. Buil, S. Roux, S. Plaud, A. Fournier, C. 2 .Lyakhov D. , omas 1 1 ; ; 1 1,2 ..Seao nttt fPyiso NAS of Physics of Institute Stepanov B.I. 1 ; .H il hsc aoaoyand Laboratory Physics Wills H. H. 1 .McCutcheon W. , 3 .Karuseichyk I. , BLb,Isiueo htnc and Photonics of Institute BBQLabs, 3 .Michels D. , ; wl ad Arabia Saudi uwal, 2 igAdla nvriyof University Abdullah King ; nvriéParis-Saclay, Université 3 .Stefanov A. , 1 .Vlasenko S. , 1,3 n D.P.S. and , igepho- single e ; 2 ; Quantum 3 2 Institute n D. and , 1 B. ,
Monday Posters Monday Posters htcvt eghhsa pia value. optimal an has length cavity found that we cavity analysis, using this gate From ip electrodynamics. phase quantum of controlled distortion a the in to pulse due photon error the analyze and model We Japan Kanagawa, University, Meiji physics, of Japan Tokyo, University, Waseda Physics, Japan Tokyo, Corporation, Michler Fischer degrees. cou- regime. strong pling the in operating cavity, inside micropillar high-Q dot quantum a charged negatively single a transmitted through light of rotation polarization investigate We Austria Kingdom United Aoki T. and o arsoi unu tts(iQ,Dprmn of Department (BigQ), States Quantum Macroscopic for Berg-Sørensen University Germany SCoPE, Stuttgart, and Stuttgart, (IQst) of Technology and Science Grenz Germany Munich, Munich, Jirauschek ∙ gates fast two-qubit for system cavity-QED a of Optimization MON EB-P.11 .Webb J. laser cavity external an diamond within a in centers nitrogen-vacancy by onabsorption based magnetometry threshold laser Green MON EB-P.14 single-photon behavior. demonstrate to mea- performed Twiss was surement and chip. Hanbury-Brown photonic proof-of-principle SOI an A into photons dots ber-to-chip quantum single telecom of stable from injection and the enables ecient which an coupling, present we Here, Germany stuttgart, of Stuttgart, University Engineering, Communications Optical and ∙ a chip into photonic photons silicon dot quantum telecom of injection the enabling coupling ber-to-chip stable and Ecient MON EB-P.13 ∙ Cavities Dot-Micropillar Quantum Charged on Strongly-Coupled Based Gates Phase Quantum Conditional Towards MON EB-P.12 .Asaoka R. .Bauer S. Haider M. 1 ä 1 ..Portalupi S.L. , 1 hn(HG,Cne o nertdQuantum Integrated for Center (IHFG), chen ; , 1 1 1 .Wang D. , n .Slavcheva G. and , 1 ntttf Institut ∙ 1 2 .Utsugi T. , .Poulsen A. .Koleva M. , ; 3 1 .Andersen U. , T euePafr aoaois NTT Laboratories, Platform Secure NTT ; 3 oainagei prxmtl 127 approximately is angle rotation e oansKpe nvriyLn,Linz, Linz, University Kepler Johannes ü abetrpi n Funktionelle und Halbleiteroptik r 1 1 2 .Hoppe N. , 1 .Jetter M. , .Tokunaga Y. , .Staacke R. , 2 .Maier O. , ; 2 ; unotcnLd,London, Ltd., Quantopticon 2,3 1 n .Huck A. and , 2 ; eateto Applied of Department ; 1 ehia nvriyof University Technical 2 1 nttt fElectrical of Institute .Berroth M. , 2 .Nawrath C. , 3 2 1 .M K. , .Meijer J. , .Kanamoto R. , ; 3 Department 1 ü ; 2 ller 1 n P. and , Center 2 1 1 K. , C. , J. , 3 , o itiue unu nomto processing. information quantum platform distributed scalable for a of implementation the for is promising at which linewidths incorporation narrow with observe sites lattice We well-dened cavities. and waveguides silicon nanophotonic into dopants erbium implanted We Ludwig- (MCQST), Technology Maximilians-Universit and Science Quantum Germany Garching, Quantenoptik, Rinner pa- rameters. material and pT/Hz cavity realistic using the predicted are in range by Sensitivities laser for absorption magnetometry. cavity pump threshold external green an in of centers use nitrogen-vacancy the investigate We Denmark Lyngby, Kgs. Denmark, of University Technical Germany University, Leipzig Leipzig, Physics, State Solid for Institute Bloch Lyngby, Kgs. Denmark Denmark, of University Technical Physics, oad h elzto facmatncermagnetic nuclear compact gyroscope. a resonance of realization the towards cell. vapour small- sized a in conned atoms Xenon of precession spin nu- clear of measurements decay free-induction on report We Germany Renningen, Systems, Micro and Technologies Advanced Engineering, Advance and Research Fuchs Sector rate T. and Roelver, R. gyroscope ∙ resonance magnetic nuclear key a - of cells element vapour MEMS in precession spin Nuclear MON EB-P.16 ∙ Structures Silicon Nanophotonic to Dopants Erbium Coupling MON EB-P.15 ihotmzdpromneadn edo recong- of need no urability. tomography and state performance split optimized multi-photon with on-chip the apply and for circuit it quantum a optical as compact of array form waveguide new coupled segmented a propose We Australia Canberra, University, National tralian Physics, of School Research Centre, Physics linear Non- (TMOS), Systems Meta-Optical Transformative for and Zhang J. tomography state split multi-photon integrated Single-shot MON EB-P.18 MON EB-P.17 .Rerc-ole,R iolti .Shi,T Buck, T. Schmid, M. Cipolletti, R. Riedrich-Moeller, J. Gritsch A. otiuinhsbe withdrawn. been has contribution e 1,2 n .Reiserer A. and , ; 2 1,2 iiino ple unu ytm Felix System, Quantum Applied of Division ∙ ..Sukhorukov A.A. .Weiss L. , CLEO ; 3 eateto elhTechnology, Health of Department xeieti nipratstep important an is experiment e ä M t 1,2 ; ® oetBshGb,Corpo- GmbH, Bosch Robert 1,2 .Fr J. , ü ce,M nchen, Erp-QC2021 /Europe-EQEC ; ; 1 R eteo Excellence of Centre ARC a-lnkIsiu f Max-Planck-Institut ü h ; 1,2 2 uihCne for Center Munich ü .Burger F. , ce,Germany nchen, 1,2 Aus- e OM2 ROOM S. , 0.5 ü r 54 U11 ler ftopoo eie n ietyre- quantities. physical directly observable and to devices late two-photon of algebra SU(1,1) the footing. on same squeezing non-degenerate and degenerate that operators treats quadrature complex of set a introduce We 5290002, Israel Gan, Ramat University, Bar-Ilan otechnology, 5290002, Israel Gan, Ramat University, Bar-Ilan otechnology, Pe’er ∙ optics quantum continuous-variable for formalism generalized a - quadratures two-mode Complex MON EB-P.19 itv ossadniei h substrate. the re- in noise including and line losses transmission sistive are nonlinear equations a Telegrapher’s for derived dissipation. and a noise includ- for ing amplier model parametric line traveling-wave transmission Josephson nonlinear a present We many rauschek ∙ Dissipation and Noise including Amplier Josephson Parametric Traveling-Wave a of Model Line Transmission Nonlinear MON EB-P.22 eld. electric THz a of components Cartesian the phases of and amplitudes enable the may of characterization predictions improved theory HD quantum laser-cooled ab-initio and with trapped of spectroscopy measurements rovibrational two-photon of Comparison France d’Ascq, Villeneuve Lille, of University ∙ Trapped and Ions Cold Molecular with Field Electric THz a Sensing MON EB-P.21 down- parametric ultrafast conversion. via networks opti- quantum variable continuous cal congurable and gener- scalable to ate waveguides velocity non-linear multimode group in of parameters symmetric engineering spectral the the and study condition we matching work, this In France Paris, Universite, Pader- University, Germany Paderborn born, Group, Optics Quantum 1 Silberhorn ∙ matching velocity group symmetric via states quantum multimode variable Continuous MON EB-P.20 .Bello L. .Ya,M adr .Rse,P usr n .Ji- C. and Russer, P. Russer, J. Haider, M. Yuan, Y. Constantin F.L. Roman-Rodriguez V. I6 obneUiest,Prs France Paris, Universite, Sorbonne LIP6, ⋅ 1 ody2 ue2021 June 21 Monday ; ; 2 1 aut fEgneigadBN etro Nan- of Center BINA and Engineering of Faculty eateto hsc n IACne fNan- of Center BINA and Physics of Department 1 ; .Michael Y. , ehia nvriyo uih uih Ger- Munich, Munich, of University Technical 2 .Treps N. , ; ; 3 aoaor hA,CR M 8523, UMR CNRS PhLAM, Laboratoire aoaor ate rse,Sorbonne Brossel, Kastler Laboratoire s ope prtr eciethe describe operators complex ese 1 .Rosenbluh M. , 3 1 .Diamanti E. , .Brecht B. , 1 2 .Cohen E. , 1 .Kaali S. , n .Parigi V. and , ; 2 Integrated 2 n A. and , + 3 C. , ions 3 ; arcnb wthdo n b otoln the controlling by o and photon other on entangled the of the switched phase Pancharatnam-Berry from be photons can the that of pair time one rst of the absorption for demonstrate experimentally We , Kingdom Southampton, United , of Southampton University Metamaterials, Photonic is ayn ehooia nvriy,snaoe Sin- gapore singapore, University,, Technological Nanyang gies, ∙ length crystal with dip interference Hong-Ou-Mandel the of Variation MON EB-P.26 sim- numerical ulations. with anoma- and the theoretically both of average behavior lous power-law the predict dissipa- and and critical driving tion two-photon the with system near a for transition point phase dissipative study We Averkiev ∙ critical point the near dissipation and driving two-photon with systems in transition phase Dissipative MON EB-P.25 mu- of coherence. degrees tual varying time- with pulses the optical of between shi measurements precise this realizing resolve by unambiguously dispute we Here, debate. current to Republic Czech mouc, Germany Erlangen, Lichts, Spain Madrid, Germany Paderborn, versity, Sánchez ∙ Sources Coherent Partially of Resolution Temporal MON EB-P.24 Zheludev ∙ Phase Pancharatnam-Berry with Dissipation Light of Control Non-Local MON EB-P.23 n civdaHMdpo it snro s8.2 as narrow as width of dip HOM a photons achieved the single and producing with crystal nonlinear the characteristics of length interference Hong-Ou- of (HOM) variation Mandel the studied experimentally We India Gandhinagar, Gandhinagar, India ahmedabad, 1 μ .Singh S. N.S. and Sokolovskii, G.S. Potashin, S.O. Mylnikov, V.Y. De S. Guo R. htncSine a. hsclRsac Laboratory, Research Physical Lab., Sciences Photonic sn otnoswv pumping. continuous-wave using m mato oeec nterslto ii ssubject is limit resolution the on coherence of impact e 1 ; .Gil-Lopez J. , 2,3 2 ; 1,2 1 1,2 polcrnc eerhCnr etefor Centre & Centre Research Optoelectronics oeIsiue t eesug Russia Petersburg, St. Institute, Ioe .N Vetlugin N. A. , .Hradil Z. , .Sharma V. , ; 1 etefrDsutv htncTechnolo- Photonic Disruptive for Centre ; 3 a-lnkIsiu f Max-Planck-Institut ; 4 1 n J. and , 2 .Brecht B. , 1 ninIsiueo Technology- of Institute Indian .Kumar V. , ; ; 1 2 Ř .Soci C. , 4 nvria Complutense, Universidad ehá aak nvriy Olo- University, Palacký 1 1 č .Silberhorn C. , ek n ..Samanta G.K. and , 4 ; ü 1 1 i hskdes Physik die r aebr Uni- Paderborn n .I. N. and , 1 L.L. , ± 0.2 1 ; ia etnso aeud eie n t odierent to ts and platforms. devices fabrication waveguide of settings rical thermo- shiers. of phase that responses optic dynamic diusion and heat static for both describes model analytical an develop delle We Nazionale Italy Consiglio Milano, (IFN-CNR), - Ricerche Nanotecnologie e Fotonica iia-Pltciod iao iao Italy Milano, Milano, di Politecnico - Fisica Ceccarelli uainlSine(AS,MS+IsiuefrNan- for Institute MESA+ (MACS), Science putational fTet,Eshd,Netherlands Enschede, Twente, of University Nanotechnology, for Institute MESA+ (COPS), Vegt Renaud ∙ crystals photonic reconstructed tomographically of physics Simulating MON EJ-P.2 ∙ of Response Dynamic the Analytically Modelling MON EJ-P.1 Session Poster EJ EJ-P: 14:30 – 13:30 single-photons the that observed we process, parametric-down- conversion pumped beam vortex orbital-angular-momentum Using single- (OAM). dierent of carrying divergence the photon measure experimentally We India Ahmedabad, Laboratory, Research ical ∙ momentum orbital angular dierent with photons single of Divergence MON EB-P.27 ..CrinvnWillenswaard van Corbijn L.J. Crespi A. Samanta G.K. and Singh, S. Sharma, V. Kumar, V. roOtcPaeShiers Phase ermo-Optic 2 n ..Vos W.L. and , 3 .Schlottbom M. , 2,1 1,2 n .Osellame R. and , .Atzeni S. , smdlwrsi yia geomet- typical in works model is 1 ; 2 .Cloetens P. , 1 1,2 ope htncSystems Photonic Complex .Pentangelo C. , ; 2,1 2 ahmtc fCom- of Mathematics 1,2 ; .Wehner J. , 1 iatmnodi Dipartimento 4 ...vnder van J.J.W. , ; 2 siuodi Istituto 1,2 ; 3 Phys- F. , N. , tutdgoer fara rsa ooecm hsdif- this overcome to crystal ference. real recon- a of the geometry using computation structed com- a for propose used We crystals putations. design the from dierent turally struc- crystals photonic real make eects Manufacturing ehdt aketi su n pl tt eea re- several to it apply and issue problems. search this tackle its to to FEM method multiscale due a propose especially we Here, problem, character. multiscale dicult notoriously crystals a photonic is realistic of of University modelling Computational Nanotechnology, Netherlands Enschede, for Twente, Institute MESA+ 4 3 Netherlands Enschede, Twente, of University otechnology, tcnlg,Uiest fTet,Eshd,Nether- Enschede, Nan- Twente, lands for of Institute University MESA+ otechnology, (COPS), Systems Photonic Vos ∙ structures photonic complex locally periodic through propagation light for FEM Multiscale MON EJ-P.3 Singapore 2, Drive ence Kurtsiefer Utama A.N. a cavity of optical modes near-concentric transverse order higher to light Coupling MON EB-P.28 pump. the to similar divergence de- OAM pendence has imaging coincidence the through detected .Kozon M. ESRF– Netherlands Amsterdam, Center, eScience Netherlands 1 .Schlottbom M. , ; 2 ahmtc fCmuainlSine(MACS), Science Computational of Mathematics 1,2 uoenSnhorn rnbe France Grenoble, Synchrotron, European e 1,2 ; 1 ..CrinvnWillenswaard van Corbijn L.J. , 1 , etefrQatmTcnlge,3Sci- 3 Technologies, Quantum for Centre CLEO ∙ ..Chow C.H. 2 n ...vndrVegt der van J.J.W. and , ; 2 eateto hsc,National Physics, of Department ® Erp-QC2021 /Europe-EQEC 1 ..Nguyen C.H. , 2 ; 1 1 n C. and , 1,2 Complex W.L. , OM2 ROOM OM3 ROOM NOTES ; ; 55 rpeesrcue nrsos ople terahertz terahertz generation. in harmonic pulsed doping and of mobility, role to nitrogen-doped the explore results response various Our in- elds. in the of structures of density graphene evolution time current the tarband show calculations Our university, Queen’s Astronomy, Canada Kingston, & Physics Engineering vapor Cs warm in multi-rail memory quantum a for amplier tapered double-pass Pulsed MON EB-P.29 ∙ radiation THz under graphene nitrogen-doped in dynamics Carrier MON EJ-P.5 strength aberrations. amplitude also optical and the factor We compute to ray which used for is integral, information eects. Debye-Wolf propagation of version interference based a present handles optics that geometrical method a 405, Atomistilor present We Bucharest, of Romania 077125, University Magurele Romania Atomistilor Physics, 077125, Physics, of Radiation Magurele and 409, Plasma Laser, for ∙ ray-tracing by assisted methods propagation beam Accurate MON EJ-P.4 beam modulator. light Gaussian spatial incoming phase a an by using of cavity wavefront near-concentric the a higher shaping in selective modes to transverse matching order mode the Singapore investigate 3, We Drive Science 2 Singapore, of University .Avr n ..Dignam M.M. and Anvari R. Craciun A. ⋅ ody2 ue2021 June 21 Monday 1,2 n .Dascalu T. and ; eateto Physics, of Department 1 ; ; 1 ainlInstitute National 2 otrlSchool Doctoral ayi utmd ae-xie eoepopo sys- phosphor simulations. remote tem laser-excited multimode in accu- improved racy shows mea- likelihood which prole developed, on beam was surements based experimental model from source sampling image laser tracing ray A Germany Hanover, Hanover, Germany of Hanover, University Leibniz Development, Product of Lachmayer cladtertclstudies. theoretical and numer- rigorous ical through optimized and designed infrared is the sheet for and dielectric patches non-tapered graphene with realistic waveguide a of plasmon composed surface tunable coupler and ecient integrated fully Fresnel,A Institut France Marseille, Marseille, Centrale 13013, CNRS, Univ, and seille Demésy, G. Natarajan, A. infrared the for coupler plasmon tunable graphene-based integrated fully a of design Complete MON EJ-P.7 Germany Hanover, e.V., Hannover Zentrum ∙ image sampling likelihood on based for simulation system model LERP tracing ray diode laser the Optimizing MON EJ-P.6 ∙ Wolters u eoyeprmnsi amC ao cells. vapor Cs warm quan- in EIT experiments multi-rail memory in tum use for source laser a present We Germany Humboldt-Universit Berlin, Physik, Physik, Atomare und Berlin, tik Systems, Sensor Optical Germany of Institute (DLR), e.V. .Chatzizyrli E. Meßner L. 1,2 ; ; 2 1,2,3 1 ehiceUniversitTechnische 1,2 etce etu f Zentrum Deutsches .Esguerra L. , .Neumann J. , 1,3 .Hinkelmann M. , ; 3 lse fEclec PhoenixD, Excellence of Cluster ä 1,2 1,3 uBri,Bri,Germany Berlin, Berlin, zu t .G M. , n .Kracht D. and , ä ∙ ü eln ntttf Institut Berlin, t .Renversez G. u-udRaumfahrt und Lu- r 1,3 ü .Afentaki A. , ndo ğ ; an 3 ntttf Institut ; ; 3,1 1,3 2 i Mar- Aix Institute n J. and , ; ü 1 Laser Op- r 1 R. , ü r
Monday Posters Tuesday Orals Universit EOS and OSA Awards. EPS-QEOD, and prestigious Prizes of series a with DE Garching, and CNRS, FR Cotton, Aimé Orsay, Laboratoire Dulieu, Olivier Chair: Cere- mony Award and Talk Plenary EQEC PL-3: 10:30 – 9:00 ié NS N-nvriéPSL, ENS-Université CNRS, Univer- sité, Sorbonne Kastler-Brossel, Urvoy Raskop 11:15 J. ∙ phaenomena quantum collective probe to tool a nanober: a around trapped atoms Cold TUE EA-1.2 emitters. in- two-level N the with from teraction resulting light of the state quantum spectral regime, and saturation temporal full low calculate, the to in one allows analytical that intuitive model an present We A. Germany and Volz, J. Rauschenbeutel 11:00 Schneeweiss, ∙ emitters two-level of ensemble large in nonlinearity enhanced collectively Describing TUE EA-1.1 Singapore Technologies, for Quantum Centre Wilkowski, David Chair: Interfaces Atom-light and Waveguide-QED EA-1: 12:30 – 11:00 .Berroir J. P. Schemmer, M. Cordier, M. sssinwl etr lnr akpeetdtogether presented talk plenary a feature will session is 1 n .Laurat J. and , ä 1 uBri,Berlin, Berlin, zu t 1 ..Kupriyanov D.V. , .Ray T. , OM1 ROOM ; msUe,MIf MPI Udem, omas 1 ..Corzo N.V. , 1 ; 1 Laboratoire Humboldt- 2 A. , 1 , ü Quantenoptik, r lenges. chal- future the and achieved ments improve- technological the both ing describ- in sampling, advances boson photonic recent review will We advantage. computational quantum unequivocal an obtain to candidate a as proposed been has that computational problem a is sampling Boson Italy Roma, Roma, ∙ platform photonics a with 11:00 (Invited) TUE EB-3.1 Ger- Paderborn, many Paderborn, of sity Univer- Silberhorn, Christine Chair: Computation Quantum Photonic EB-3: 12:30 – 11:00 .Sciarrino F. us fqatmadvantage quantum of quest e OM2 ROOM ; ainaUiest di Università Sapienza tmcssest lrfs hrlpeoeaadat- and solids. phenomena in currents chiral scale in tosecond ultrafast photoionization 9:00 to and systems range tunneling atomic from a – resolving processes of describe schemes, will interferometry I phenomena. advanced electronic coher- ultrafast internal in the ence reveals interferometry Attosecond Israel ∙ Interferometry Attosecond (Plenary) TUE PL-3.1 .Dudovich N. ; CLEO ezanIsiueo cec,Rehovot, Science, of Institute Weizmann rtnto tt faioacids amino of on state protonation probe free label local, a provided and nanoconnement under water of Our phases unknown unravelled study samples. solvated ab- of precise sorption record to terahertz spectroscopy nonlinear developed We University Germany Ruhr Bochum, Bochum, II, Chemistry ical ∙ water in dynamics solvent the study to spectroscopy THz 11:00 Nonlinear (Keynote) TUE CC-2.1 King- United dom Guildford, Surrey, of University Murdin, Benedict Chair: Techniques and Spectroscopy THz Nonlinear CC-2: 12:30 – 11:00 .Havenith M. ® Erp-QC2021 /Europe-EQEC OM3 ROOM ; eateto Phys- of Department OM1 ROOM 56 lentv owell-established attractive to techniques an Lab-on-chip oers alternative device diagnostics. viral COVID-19 Our quantify for and RNA detect to idics optou- and microuidics, droplet (LAMP), amplication loop-mediated (LIF) isothermal combining Lab-in-ber a device present We Sweden Stockholm, Sweden, Sweden Solna, Technology, of Institute Royal Sweden Stockholm, 2 Technology, of .Laurell F. Margulis W. Harish ∙ RNA viral SARS-CoV-2 of detection Lab-in-a-ber integrated 11:00 microuidic droplet Digital (Invited) TUE CL-2.1 Africa of South University Town, Cape Jacobs, Caron Chair: Applications Clinical and Biological CL-2: 12:30 – 11:00 wr eeoyt aepaefo 00 ETtime. CEST 10:00 from place take to Ceremony Award .Parker H. ∙ ∙ ∙ ∙ ∙ ∙ cec o ieLbrtr,KTH Laboratory, Life for Science ⋅ ainAad 1 recipients) (10 Awards tation Presen- Student Best Minds Young EPS & EPS-QEOD and Science recipient) Laser (2020 Applications’ in ‘Research for Prize EPS-QEOD recipient) (1 Medal Letokhov Vladilen EPS-QEOD recipients) (2 Prizes Fresnel EPS-QEOD recipient) (1 Prize Electronics Quantum EPS-QEOD olwn rzsadAad ilb remitted: be will Awards and Prizes following e usa 2Jn 2021 June 22 Tuesday 1 ; .Soares R. , 1 ; 3 OM4 ROOM 1 eerhIsiueof Institute Research 1,3 .Sengupta S. , 1 T oa Institute Royal KTH .Russom A. , ssPie 4recipients) (4 Prizes esis 2 .Joensson H. , 2 1 and , A. , 2 , ; n .Kaminer I. and Kociak M. Tizei Adiv 11:15 Y. Shenfux ∙ wavepackets polariton 2D of Imaging Spatiotemporal TUE EE-1.2 maintaining duration. while few-femtosecond stable excep- for be tionally can that conditions, pulses generated the nd generation hollow-core We saturated in dispersive waveguides. emission resonant uctuations wave tuneable timing the of and investigate energy numerically We Kingdom United Edinburgh, University, Watt ∙ 11:00 Waveguides Hollow-Core in Emission Wave Dispersive Resonant by Generated Pulses Few-Femtosecond of Jitter Timing and Noise Energy TUE EE-1.1 Russia Lomonosov University, State Moscow Kosareva, Olga Chair: Waveguides in Phenomena Ultrafast EE-1: 12:30 – 11:00 .Kurman Y. Travers J.C. and Brahms C. 3 .Woo S. , 2 1 .Wang K. , .Reinhardt O. , OM5 ROOM 3 1 ...Koppens F.H.L. , .Dahan R. , 3 .Li J. , 1 ; 1 ehin Israel Technion, 1 ute nomto ntePie n wrsadlists and Awards and recipients. of Prizes the on information further for https://www.cleoeurope.org/awards-prizes/ Consult 4 .Yannai M. , ∙ ∙ ∙ ..Edgar J.H. , O al aerWmni htnc wr 1re- (1 Award Photonics cipient) in Women Career Early EOS recipients) (10 Grants Student Foundation Members Fellow OSA elected newly of recognition OSA 1 .Herzig H. , 1 L.H.G. , ; Heriot- 2,5 4 1 , , , oanweprmna proposal. experimental new a to leading system, emitter-waveguide the of symmetry-breakings symme- and tries the analyzing by into eect We insights this physical new provide waveguides. near-eld onto of emissions coupling strongly directional shown have Experiments Italy Genova, Tecnologia, Karlsruhe, Germany Technology, of Institute Fernandez-Corbaton Puyalto Lamprianidis A. Perspective Symmetry A Waveguides: Into 11:00 Emitters of Coupling Directional (Invited) TUE CK-3.1 LAAS- Calvez, France Stéphane CNRS, Chair: Devices Photonics Integrated CK-3: 12:30 – 11:00 2 .Rockstuhl C. , ; OM6 ROOM 2 siuoIain di Italiano Istituto 1 .Zambrana- X. , 1 ; 1 1 and , Karlsruhe ∙ I. fatilitliec,ad(d) and modelling. intelligence, multi-scale articial eld of the from methodologies computational of the use (c) design, of inverse multi-physics (b) problem, (a) eld nanophotonics: the developments in recent four discuss I Germany Karlsruhe, Technology, ∙ Nanophotonics Computational for Opportunities and 11:00 Challenges (Keynote) TUE EH-2.1 Kingdom United Southampton, Southampton, of University Fedotov, Vassili Chair: Nanophotonics and Metamaterials in Perspectives New EH-2: 12:30 – 11:00 .Rockstuhl C. OM7 ROOM ; alrh nttt of Institute Karlsruhe .Yue Y. Geng 11:15 ∙ Bands S+C+L Across Modes OAM Fundamental Radially >300 Supporting Fibre Trench-Assisted 7-Ring-Air-Core TUE CI-1.2 a over km. nm 50 of 1460 length to SMF range nm wavelength 1350 from the across sion transmis- >65-Gb/s DMT achieve 115- adaptively-loaded and a BDFA utilising nm experiment transmis- sion rst the Southampton, demonstrate We of Cen- Kingdom United Southampton, University Research tre, Richardson D.J. Optoelectronics and Petropoulos, 11:00 N.K. ∙ Amplier Fibre Doped Bismuth Broadband A using SMF 50-km over Transmission O+E-band TUE CI-1.1 Germany Tech- Munich, nologies, Huawei Pittala, Fabio Chair: Systems Broadband CI-1: 12:30 – 11:00 .Zhang W. .Wang Y. Wang, Y. Bottrill, K.R.H. Hong, Y. 1 1 .Zhao W. , ; 1 paau ..Sh,P. Sahu, J.K. ipparapu, akiUiest,Tianjin, University, Nankai 1 1 .Zhu K. , .Ren Y. , OM8 ROOM 1 .Bao C. , 2 1 .Pan Z. , .Fang Y. , 2 .Liu Y. , 3 and , 1 W. , 1 , ; CLEO hsc,Uiest fM of M University Physics, Germany Universit nische of Institute J22TE11:15 Leo F. ∙ oscillators parametric optical resonant singly in patterns localized Bright TUE EJ-2.2 states. interactions localized between harmonic weak and and transitions, Q-switched the de- such as trains, allows pulse complex for scribing condition equation boundary dynamical of a master which in mode-locking generalization Haus a the present Illes les We Spain Palma, de IAC-3, and Universitat Balears Física, de 11:00 L Hausen J. mode-locking of equation master Haus the enters memory carrier How TUE EJ-2.1 of France University Lyon, Skupin, Stefan Chair: Modeling Optics Nonlinear EJ-2: 12:30 – 11:00 insrcueadsaiiyo local- of bifurca- stability and formation, structure tion the study We Belgium Bruxelles, .PraRvs .MsAaí and Mas-Arabí, C. Parra-Rivas, P. ü ü dge se,Germany nster, ® ; 1 and , nvriéLbed Bruxelles, de Libre Université Erp-QC2021 /Europe-EQEC ; 2 1 OM9 ROOM .Gurevich S. , nttt for Institute oeia hsc,Tech- Physics, eoretical ∙ ä .Javaloyes J. eln Berlin, Berlin, t ; 3 Departament eoretical 2,3 ü 3 K. , nster, ; NOTES 1 57 D32TE11:15 ∙ resonators gallery whispering niobate lithium in nonlinearities second-order using generation comb frequency Low-threshold TUE CD-3.2 11:00 drawn. TUE CD-3.1 Er- Germany Light, langen, of Science the for Planck Institute Max Tani, Francesco Chair: Waveguides and Microresonators CD-3: 12:30 – 11:00 nvriyo riug riug, Freiburg Freiburg, of University IMTEK, - Engineering Microsystems Breunig I. .Szabados J. ⋅ otiuinhsbe with- been has contribution e usa 2Jn 2021 June 22 Tuesday OM10 ROOM 1,2 1 ; .Buse K. , 1 eatetof Department 1,2 and , eIgneí imdc,CONICET Biomédica, Ingeniería de 1 Martínez Lacapmesure H32TE11:15 ∙ SUPPOSe Using Sources Overlapping of Localization Super-Resolved TUE CH-3.2 of limit photons. the of number in large and position, troid cen- their light of separa- independently incoherent sources the two between estimate tion to measurement a strategy analyse to in- statistical ference, of techniques use We (Barcelona), Bellaterra Spain E-08193, Física, Barcelona, de Fenòmens Autònoma de Universitat Departament i Quàntics, Informació Teòrica: Spain Barcelona, 08010, 23, (Barcelona), Spain Castelldefels 08860, 3, and Gauss Friedrich Science Carl Av. Technology, of Institute Barcelona Fotoniques, Ciencies Skoteiniotis de 11:00 Institut M. and ∙ resolution super achieving measurements Collective TUE CH-3.1 Lau- Switzerland Lausanne, sanne, de Fédérale nique Polytech- Ecole Altug, Hatice Chair: Techniques Sensing Optical Advanced CH-3: 12:30 – 11:00 .Biat Vazquez Brinatti G. Almeida de J.O. aoaoi eFtnc,Instituto Fotónica, de Laboratorio ; 2 CE,P.LusCompanys Lluís Pg. ICREA, 2 n ..Martínez O.E. and , OM11 ROOM 1 .Toscani M. , 1 .Lewenstein M. , 3 ; 1 1 A.M. , CO- ICFO ; 1 3 S.R. , Física 1,2 1 e , ; h U n DUV. and few- VUV across the tunable to pulses conversion femtosecond ecient and mid-infrared, and near the peak in power gigawatt optical at self- pulses dynamics sub-cycle attosecond to bres: soliton compression hollow-capillary review in We Kingdom United Edinburgh, Physi- University, and Heriot-Watt Sciences, Belli Engineering cal F. of and School Lekosiotis, A. orova, ∙ Fibres Capillary Hollow in 11:00 Dynamics Soliton in Progress (Invited) TUE CF-2.1 Kingdom United College London, London, Imperial Tisch, John Chair: Sources UV Ultrafast CF-2: 12:30 – 11:00 ..Taes .Bam,TF Grig- T.F. Brahms, C. Travers, J.C. OM12 ROOM ;
Tuesday Orals Tuesday Orals .Laurat J. Sauvan C. Universit .Levenson A. to photon-bunching. anti-bunching strong photon over from at light transmitted corre- the order of second lation the of number-dependent change atom an as self nonlineari- atomic ties. weak of ment enhance- collective demonstrate We Denmark Copenhagen, Germany Hannover, 4 Hannover, Austria Wien, Germany .Mahapatra S. Berroir Rauschenbeutel Schemmer Rind S. Mahmoodian S. systems. cavity and atomic mirrors Bragg atomic trollable con- on advances experimental and theoretical show We op- nanober. tical an to coupled ensemble an atomic in excitation collective retrieval single a and of storage on Polytechnic report We Russia State St.-Petersburg, University, St-Petersburg A14TE11:45 ∙ atoms cold trapped with light guided coupling for platform waveguide crystal photonic novel a of design Systematic TUE EA-1.4 11:30 ∙ Mode Optical an to Coupled Weakly Atoms of Response Nonlinear Collective the Using Photons Correlating TUE EA-1.3 France Paris, France, 2 de Collège .Bouscal A. Volz J. nvriyo Copenhagen, of University eatetof Department 1 sehneetmnfssit- manifests enhancement is 1,2 .Ray T. , 2 ä ; .Schneeweiss P. , .Prassad A. , 1 uBri,Berlin, Berlin, zu t 1 ; 2 .Sørensen A. , OM1 ROOM 4 UWien-Atominstitut, TU .J Greet J.-J. , 1 2 1 ; .Urvoy A. , .Bencheikh K. , 1,2 aoaor Kastler Laboratoire 2 3 3 .Raineri F. , ebi University Leibniz .Hammerer K. , ; 1 oeia Physics, eoretical .Kemich M. , 2 .Hinney J. , 1 Humboldt- 4 n A. and , 1,2 4 and , 1 M. , J. , 2,3 2 2 3 2 , , , , , ; ; enih .She,adA Szameit f M. Institut A. and Ehrhardt, Scheel, M. S. Heinrich, Kremer, M. 11:45 ber, ∙ Holonomy U(3) non-Abelian a of Implementation Optical Quantum TUE EB-3.3 ap- plications. useful potentially near drawing setting, interactive the in advantage quantum evi- computational a provides for work dence Our coher- states. with ent protocol quantum a of linear implementation the of through power optics the showcase We United Edinburgh, Kingdom Edinburgh, of France Paris, IRIF, 3 CNRS, Paris, France Paris, LIP6, 1 11:30 Diamanti ∙ verication NP for advantage quantum of demonstration Experimental TUE EB-3.2 oooy yaibtclyprop- adiabatically U(3) By a holonomy. realize experimentally We Germany Rostock, tock, .Ne,J ise .Kac,L Teu- L. Klauck, F. Pinske, J. Neef, V. Centrone F. colo nomtc,University Informatics, of School CNRS, Université, Sorbonne ü 1 hsk Universit Physik, r n .Kerenidis I. and , OM2 ROOM 1,2 .Kumar N. , ; 2 nvriéde Université ä Ros- t 3 E. , 3 ; ; ; CLEO Germany Luxembourg 2 Luxembourg, bourg, Brida Spitzner 11:45 ∙ Frequencies THz and Mid-Infrared at Resolution Field with Spectroscopy Coherent Ultrafast TUE CC-2.2 .Deckert T. Universit ® 1,2 Erp-QC2021 /Europe-EQEC ; 2 .Kurihara T. , ; ä 3 1 osaz Konstanz, Konstanz, t OM3 ROOM 1,2 nvriéd Luxem- du Université nvriyo Tokyo, of University e .Allerbeck J. , 3,2 n D. and , 1,2 L. , ; 58 Quidant Switzerland Barcelona, Spain Regulation, Sciences, Genomic of Photonic Spain of Castelldefels, Institute - 11:45 Ciraulo ∙ dynamics TUE CL-2.3 pathologies. and condition heart clas- sify accurately can ampli- ANN An heart-beat tudes. beyond signals sound Wavelet detailed isolates SNR. analysis with data high with remotely light sounds laser valve beat heart- retrieve to method a show We Kingdom United gow, glas- Glasgow, of University statistics, King- United dom glasgow, Glasgow, of Astronomy,University and Physics of 11:30 Pellicori P. ∙ imaging computational using classication and characterization sound heart Remote TUE CL-2.2 .Wieser S. Cester L. ⋅ roeuaino muecell immune of ermoregulation ; usa 2Jn 2021 June 22 Tuesday ; 2 3 oeto etefrBio- for Centre Robertson 3 .Agazzi C. , 3 n .Ruprecht V. and , 1 T Z - ETH 2 .Starshynov I. , n .Faccio D. and , OM4 ROOM 1 .Company I. , ; 1 ü .Arroyo J. , 2 R Centre - CRG ih Z rich, 1 .Jones Y. , 1 2 ; ; 1 1 1 School ü ICFO B. , 3 rich, R. , 2 , neln hnmn flight of deceleration. & formation, acceleration phenomena its unveiling recording from wavepacket propagating enables the non-destructively probe ultrafast tron an microscope. electron using phonon-polariton wavepackets spatiotemporal 2D of the dynamics measure i We Recerca Spain Barcelona, Avanats, de Estudis Catalana USA Institució KS, Orsay, Manhattan, Paris-Saclay, France Spain Université (Barcelona), fels Castellde- Technology, and Science of Haifa, Fotòniques, Technology, Israel of Institute rcse nchip. on mixing processes in bring three-wave to eort recongurable an in nonlinearity optically-induced nitride, silicon of second-order the on eciency increasing results and recent characterizing our review We Lausanne, Lausanne, Switzerland de Fédérale ∙ gratings self-organized photo-induced via waveguides Nitride Silicon 11:30 in nonlinearity order Second (Invited) TUE EE-1.3 .S Brès C.-S. ; ; 2 COIsiu eCiències de ICFO-Institut 4 assSaeUniversity, State Kansas OM5 ROOM ; acln Institute Barcelona e cl Polytechnique Ecole ; ; 5 ICREA- 3 elec- e CNRS, ainl el iece(IFN- Ricerche Italy Consiglio Milano, CNR), delle - Nanotecnologie Nazionale e ica Osellame Atzeni S. 11:45 ∙ micromachining laser femtosecond 3D by circuits photonic programmable compact and crosstalk low Ecient, TUE CK-3.3 systems. demon- electromechanical nano-opto- with we concept Here this strate controlled. are intensities and phase relative whose elds with laser counter-propagating cavity two Fabry-Pérot a is photonic system a with absorption perfect France Paris, Paris, de France Nanotechnolo- Palaiseau, gies, de et Nanosciences Barbay 11:30 ∙ Systems Nano-Opto-ElectroMechanical coupled in Absorption Perfect Coherent TUE CK-3.2 .Ceccarelli F. Correia F. omnraiaino coherent of realization common e 1 n .Braive R. and , 1,2 2,1 ; OM6 ROOM .Crespi A. , 1 1,2 .Madiot G. , 1 siuod Foton- di Istituto .Pentangelo C. , ; 2 Dipartimento 2 ; 2,1 ; 2 1 Université etede Centre n R. and , 1 S. , 2,1 , atldfl,Breoa Spain, Spain Barcelona, Castelldefels, 08860 Technology, Castelldefels, and Science of Fotòniques, 1 .Cox 11:45 J. ∙ response optical nonlinear the boost lms atomically-thin Crystalline TUE EH-2.2 .RdiuzEcharri Rodriguez A. CO–Isiu eCiències de Institut – ICFO 2,3 n .Grí eAbajo de García J. and , OM7 ROOM acln Institute Barcelona e ; 1 F. , 2 etrfor Center İ yikanat 1,4 1 , ; lr nacnrle way controlled a am- in Raman pliers of gains arbitrary re- to alize used be can learning machine how demonstrate We systems. ment op- measure- of and communication generation tical new are a learning spurring machine in Advances Denmark gby, ∙ 11:30 ampliers Raman enabled learning Machine (Invited) TUE CI-1.3 USA Angeles, Los fornia, China rstl r10k bepropa- gation. bre interring at 100-km low-level total) aer crosstalk in with ones nm 406 OAM1550 58 (i.e. supporting modes each rings with 7 bre trench-assisted air-core multi-ring- a design and propose we USA Lafayette, Lafayette, at Louisiana of .Zibar D. ; 2 nvriyo otenCali- Southern of University ; T ooi,Ks Lyn- Kgs. Fotonik, DTU OM8 ROOM ; 3 University CLEO M,15 ld Lionel-Boulet, Blvd. 1650 EMT, nvriy ini,China Tianjin, University, Nankai Physics, of School and stitute Chen Buljan 11:45 Juki Bongiovanni D. Lattices Optical Su-Schrieer-Heeger in States Corner and Edge Orbital TUE EJ-2.4 Schelte 11:30 C. Lasers Surface-Emitting External-Cavity Integrated Mode-Locked Passively In Instabilities Dispersive TUE EJ-2.3 M Palma E-07122 Vallde- Spain Mallorca, de 7.5, de km Cra. mossa, of (IAC-3), Institute Code & Community Balears and Computing Applied Illes les de 1 Javaloyes dynamical dierent regimes. char- their we acterize and snaking undergo states homoclinic these that show We oscillators. parametric optical reso- nant singly in arising patterns ized cinadtidodrdispersion. order third be- and inter-action pulse carrier to a due of unstable comes edge leading satellites the of on train A lasers. emitting surface- external-cavity mode-locked integrated passively in pearing ap- instability pulse a investigate We (CeNoS), M 48149 Science M of University Nonlinear for M 48149 eatmn eFsc,Universitat Física, de Departament ü oeia hsc,Uiest of University Physics, eoretical se,WlemKemSr 9, Wilhelm-Klemm-Str. nster, ć ® 3 1,6 .Hu Y. , 1,4 ; Erp-QC2021 /Europe-EQEC ü 1 1 .Morandotti R. , ü se,Germany nster, n .Gurevich S. and , EAApidPyisIn- Physics Applied TEDA se,Germany nster, 1,2 OM9 ROOM , ü 1 1,2 se,Crest.2, Corrensstr. nster, ∙ .Song D. , .Hessel D. , ; ∙ 2 .Hu Z. nttt for Institute 2,5 ; ; n Z. and , 3 1,2 2 Center 1 1 INRS- H. , D. , J. , 1,2,3 ; 59 .Buse K. Del’Haye P. and ihnrahuigchip-integratedresonators. using reach Sub- within parametric 85 power. optical using oscillation) and gen- eration sum-frequency generation, (second-harmonic processes optical ntdKingdom Teddington, United Laboratory, Light, Germany Physical of Science Erlangen, the for Institute fFebr,Febr,Germany University Freiburg, IMTEK, Freiburg, of - En- Microsystems gineering of Department 1 11:45 ∙ microresonators high- niobate lithium in conversion frequency adiabatic Pockels-eect-based in Advances TUE CD-3.4 1 as low as power or 10Gbps of bitrates allowing materials dif- explore ferent We memo- gates. logic all-optical and for ries used be can microresonators in Kerr nonreciprocity the from symmetry- arising states broken how demonstrate Erlangen, We Germany Kingdom Erlangen-Nurnberg, United United London, Edinburgh, Kingdom University, 11:30 ∙ Microresonators in Light Counterpropagating on Based Memory Optical TUE CD-3.3 ae ueyon purely microresonatorsbased in combs millimeter-sized frequency generate We Germany Freiburg, TechniquesIPM, Measurement Physical Germany .Minet Y. Bino Del L. aoaoyfrOtclSystems, Optical for Laboratory ⋅ usa 2Jn 2021 June 22 Tuesday ; ; 1,4 1,2 4 OM10 ROOM 2 meilCleeLondon, College Imperial n .Breunig I. and , .Basler M. , ruhfrIsiuefor Institute Fraunhofer 1,2,3 μ hehlsare thresholds W .Moroney N. , 1,5 ; χ ; 2 –nonlinear- (2) ; 1 Q 3 3 a Planck Max .Zappe H. , Heriot-Watt μ optical pump W 2 National ; μ W. 5 1,2,4 FAU 1,4 2 , , ; ; nteRmngrrn and ngerprint Raman regions. CH-stretch the noise in to acquisitions conventional signal over ratio improved demon-strate the We using transform. 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Laptenok ∙ lter tunable acousto-optic an 11:30 using microspectroscopy Scattering Raman stimulated broadband and resolution spectral high Hadamard-transform TUE CH-3.3 tcatcgain ecn method. descent gradient stochastic a by algorithm genetic the replacing by situations, sparse this for speed in SUPPOSe improved the algorithm deconvolution using performed is PSF the within overlapping sources Santaló. Buenos Argentina Aires, A. FCEyN-UBA., CONICET, Luis Matemáticas Argentina Aires, Buenos 2 FIUBA, - .Haber E. Genchi L. optr lcrcladMathe- and Electrical Computer, nttt eInvestigaciones de Instituto iutnoslclzto of localization simultaneous e ra ailr-ae at Capillary-Waves ermal 2 1 ; 1 .Giammona A. , 1 OM11 ROOM .Douvidzon M. , ehin salInstitute Israel Technion, 1 1,2 .Bucci A. , wl ad Arabia Saudi uwal, ; 1 ilgcland Biological ; 1 2 1 n T. and , e Aviv Tel 1 S.P. , and , uwal, ; ; ual nteDVvasltndy- soliton via DUV pulses the in polarized tunable circularly ultra- of short, generation the report We Kingdom TraversUnited Edinburgh, J.C. University, Heriot-Watt and Grigorova, 11:45 T.F. ∙ Fibers Capillary Hollow in Emission Wave Dispersive via Pulses DUV Polarized Circularly TUE CF-2.3 jet. gas a into focused is out- put whose a unit post-compression 100W with a equipped by system driven ber-laser is 66eV It between 150eV. ux and photon large a providing source HHG a present We Engineering, Germany Precision Jena, Netherlands and Optics Veldhoven, 6 B.V., Netherlands Del, Technology, of University Del Germany Friedrich-Schiller- 3 Center Universit Photonics, Abbe Physics, of Applied Germany of Jena, GmbH, Limpert Rothhardt Pyatchenkov Horsten Klas 11:30 R. Tschernjaew M. ux photon ultra-high with generation harmonic high rate repetition High TUE CF-2.2 .Lksoi,C rhs .Belli, F. Brahms, C. Lekosiotis, A. ruhfrIsiuefrApplied for Institute Fraunhofer Jena, Jena, Helmholtz-Institute 4 1,2,3,6 2,3 .Weerdenburg S. , ä ; 2,3 ea ea Germany Jena, Jena, t OM12 ROOM .Gebhardt M. , 4 ; pisRsac Group, Research Optics 4 .Eidam T. , ; .Coene W. , 1 5 cieFbrSystems Fiber Active SLNetherlands ASML 1 , ∙ .H S. ; 1 n J. and , 2 ä 2,3 4,5 Institut drich 4 S. , R. , J. , 1 , ; ; ;
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Vapour Atomic Room-Temperature on based Memory Near-Millisecond with Source Single-Photon TUE EA-1.5 trap. dipole two-color the than in sitting atoms higher for predicted factors are unity Purcell waveg- uide. crystal design photonic GaInP novel a a of near atoms cold trapping Rb for proposal a present We France Palaiseau, Paris-Saclay, Université School, Graduate d’Optique Institut France CNRS, France Palaiseau, Nanotechnologies, Paris-Saclay, Université de et Paris, France, France de Collège ENS-PSL, CNRS, Université, Sorbonne Brossel, .Burdekin P. ; ; ; 4 3 1 1 aoaor hre Fabry, Charles Laboratoire nvriéd ai,Paris, Paris, de Université 2 .Hoggarth R. , n .Clarke A. and , eted Nanosciences de Centre OM1 ROOM 1 .Grandi S. , ; ∙ ytmfeatures system e 2 .Shig K.B. Schmieg, R. CO Barcelona, ICFO, 1 .Major K. , 1 ; 1 1,2 ; Centre R. , Niels 1 , rt outylreo versatile or gen- states. large entangled multimode to robustly erate technologies quantum light-based thus future with compatible and is scheme waveguides. platform-independent integrated-optics nonlinear Our evanescently coupled on based entanglement synthesizer spatial a present C2N, We France Paris, Nanotechnologies Brossel, Kastler France de Palaiseau, et Belabas Levenson n .Renema J. and Bencheikh K. erpr h eosrto fa of demonstration the report We Netherlands Enschede, Twente, Netherlands schede, Vlekkert den van H. 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THz- the in measurements eld elec- tric high-sensitivity sub-cycle for Mach-Zehnder-geometry on-chip a into integrated phase-shiers, electro- optic based niobate lithium lm thin- of potential the investigate We USA Cambridge, University, Z ETH 1 Faist Shams-Ansari Kovalenko Boehme 12:15 S.C. ∙ Pulses THz intense by Dots Quantum CdSe/CdS in tion Modula- Electro-Optic Ultrafast TUE CC-2.4 Cambridge, USA University, Harvard 2 12:00 ∙ phase-shiers nonlinear integrated on based detection on-chip electro-optic Enhanced TUE CC-2.3 measure- antimonide. indium preliminary on ments by as regime shown a excitation in perturbative materials low-energy and correlated semiconductors strongly coherent in dynamics investi- of gation phase-sensitive infrared mid enables the two-dimensional in spectroscopy Noncollinear Japan Tokyo, ws eea aoaoisfrMate- for Laboratories Federal Swiss ETH Z Biosciences, Applied Chem- and of istry Department Chemistry, Vienna, Australia Institute, Photonics Wien, .Gollner C. Herter A. unu polcrnc Group, Optoelectronics Quantum aoaoyfrNnsaeOptics, Nanoscale for Laboratory ü ih uih Switzerland Zurich, rich, ; 1 ® n .C Benea-Chelmus I.-C. and , 3 ü Erp-QC2021 /Europe-EQEC aas ru,Harvard Group, Capasso ih Z rich, ; 2,3 1 1 OM3 ROOM .Jutas R. , 2 ..Settembrini F.F. , 2,3 n .Pug A. and , nttt fInorganic of Institute 2 .Baltu A. , .Lon M. , ü ih Switzerland rich, 1 ..Dirin D.N. , š ž ka lys č ; 1,4 1,4 ar 3 Empa- M.V. , 2 1 ; J. , A. , 1 TU 2,3 3 , ; ; 60 aut fMdcn,F-01,Oulu, FI-90014, Medicine, of Faculty Medicine, Molecular and chemistry Turkey Ankara, 2 TR-06800, Centre, Research Nanotechnology National Elbuken .Midilli Y. 12:15 ∙ Applications Photothermal for particles Nano- Silica Mesoporous with Developed NIR-Absorber Novel A TUE CL-2.5 Hospital, Eye Greece Athens, Athens Research, of Ginis Christaras 12:00 D. light structured using Density Optical Pigment Macular of measurement the for instrument Handheld TUE CL-2.4 holo- tempera- thermo-microscope. graphic digital a by using variations regulated ture is polar- and ization migration that cell show we immune Here single question. an open remains aect dynamics cold cell immune and fever How Spain Murcia, Murcia, de Universidad tica, oarpd cuaeadrepeatable and measurement. accurate rapid, a to resulting signal reected the records photodetector a and light structured developed. was density pig- optical ment macular of in- measurement the vivo for instrument handheld A Kingdom United London, mology, .Beyazkilic P. nvriyo uu aut fBio- of Faculty Oulu, of University ⋅ udsi luiae using illuminated is fundus e usa 2Jn 2021 June 22 Tuesday 1 ; and , 3 1,2 C nttt fOphthal- of Institute UCL 1 ; .Ortac B. , OM4 ROOM ∙ .Artal P. 1,3 ; 1 1 2 ikn University, Bilkent .Mompean J. , .Akcimen S. , aoaoi eOp- de Laboratorio 2 ; 1 Department 1 n C. and , 2 H. , 1 , ; nue yniesee modula- noise-seeded by ssion induced soliton with associated eld full- the time real in characterize We Besan 6174, Franche-Comté UMR CNRS Bourgogne Tampere, versité University, Finland Tampere Genty N dynamics. inco- supercontinuum from herent arise to shown is regime laser. bre soliton statistics dissipative wave a in rogue dy- and femtosecond namics unstable reveal experiments real- characterization and time simulations Numerical Finland Tampere, , Finland FI-33104, Tampere, University, pere E15TE12:15 ∙ Fission Soliton Ultrafast of ment Measure- Real-Time Full-eld TUE EE-1.5 Dijon, France, France Dijon, 6303, CNRS UMR Université Franche-Comté Bourgogne, Bourgogne de Carnot 2 6174, Besan UMR CNRS Bourgogne Franche-Comté Université FEMTO-ST, Genty Merolla Meng F. laser bre 12:00 soliton dissipative pulse noise-like a in waves rogue and dynamics supercontinuum incoherent of simulations and measurements Real-time TUE EE-1.4 .Gallazzi F. aoaor Interdisciplinaire Laboratoire ä hsc fti nielk pulse” “noise-like this of physics e rhi 1 ç 1 3 ; n rne Besan France, on, ..Dudley J.M. , ; n ..Dudley J.M. and , 1 1 3 ; , .Finot C. , htnc aoaoy Tam- Laboratory, Photonics 2 ∙ ntttFMOS,Uni- FEMTO-ST, Institut .Lapre C. 1 OM5 ROOM htnc Laboratory, Photonics 1 .Toenger S. , 2 1 .Sylvestre T. , .Billet C. , 2 ç ç n G. and , n France on, 1 n France on, ; 1 Institut 1 1 J.-M. , M. , 1 G. , ; rmtclyipoe nvacuum. re- in improves dramatically laser in circuits. magnitude written femtosecond of of congurable order them thermally-insulating an We reduce that microstructures crosstalk. show and power dissipation large from suer processors Milano, di Politecnico Italy Milano, - Fisica di be rabn slto ai pto up en- ratio isolation broadband ables which isolator mag- of netoplasmonic concept We new a here circuits. present photonic for technologi- issue main cal the of re- one isolators mains optical of Integration France Palaiseau, 2 Paris-Saclay, YAM K35TE12:15 ∙ isolator waveguide slot Magneto-biplasmonic TUE CK-3.5 are bandwidth 3-dB achieved. nm 90 -5.35 over and A signals input of TE for eciency dB/coupler LiNbO3. coupling thin-lm high fabri- on is cated structure gratings length subwave- waveguide with integrated coupler grating ridge-waveguide A China Tong , Shanghai Jiao University, Shanghai (AEMD), vices De- and Materials Electronic vanced China , University, Shanghai Tong Jiao Shanghai ing, Engineer- Electrical and Information Electronic of School Electronics, nano Cheng 12:00 ∙ couplers grating ridge-waveguide LiNbO3 thin-lm bridged gratings subwavelength Waveguide TUE CK-3.4 .Abadian S. 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Skryabin D.V. and Fan Z. eateto hsc Astron- & Physics of Department and Fundamental of Institute Engineering, Civil of Faculty ® ; Erp-QC2021 /Europe-EQEC 4 eateto Physics, of Department OM9 ROOM essaloniki, ; Univer- ; Aris- es- ; ; ; 61 sfeasible. is microresonators niobate lithium Q high- in conversion frequency batic adia- nanosec- Pockels-eect-based via within onds mode- tuning of GHz hop-free 80 now generators pulse GaN-based designed and specially resonators thinner Employing Germany Freiburg, Measurement IPM, Techniques Physical for Institute Germany IAF, Physics Freiburg, State Solid Applied for Torres-Company Zelan M. 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Spi- and Webb, B. M. latro, Shoup, M. Roides, J. Mileham, R. Feng, Oliver, C. Jeon, C. C. Dorrer, Homan, C. B. Bucht, S. shev, ∙ Systems OPCPA Ultra-Intense 16:30 for Development Technology (Invited) TUE CA-3.1 Romania Magurele, Physics, Radiation and Plasma Laser, for tute Insti- National Pavel, Nicolaie Chair: Systems Nonlinear and High-intensity CA-3: 18:00 – 16:30 in potential applications. their therapeutic revealing light NIR under heat performance NIR generation reproducible and strong dye. absorption show diimmonium-based Nanoparticles a mesoporous with functionalized material from nanoparticles silica developed photothermal is Novel Finland hsc n srnm,TxsAMUiest,College USA University, Station, A&M Texas of Astronomy, Department and and Physics Study Germany Advanced Ulm, for Institute (DLR), Hagler Center Aerospace German gies, Germany Ulm, physik, ∙ .Boae .W ak .Begi- I. Bahk, S.-W. 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Srinivasan ∙ super-solitons Kerr dissipative and combs 16:30 frequency optical Topological (Invited) TUE EC-2.1 Belgium Bruxelles, de Libre Université Goldman, Nathan Chair: Topology Nonlinear EC-2: 18:00 – 16:30 eld. ence refer- ultrabroadband an with com- bined interferometry spectral form Trans- Fourier using instability tion .Mittal S. ü Quanten- r ; 2 ainlIsiueo Stan- of Institute National 2,1 1 1 OM5 ROOM 5 ROOM ; .Moille G. , ..Chembo Y.K. , 1 ; nvriyo Mary- of University oist ebr Walther. 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I21TE16:30 ∙ media hyperbolic indirectly-patterned in modes continuum the in Bound TUE EI-2.1 M of sity Univer- Bratschitsch, Rudolf Chair: Environments Photonic Engineered to Photons Single From EI-2: 18:00 – 16:30 .HzgSheinfux Hezig H. assSaeUiest,Manhat- University, USA State Ithaca, Kansas University, Cornell 1 .Janzen E. , 2 1 ü .Torre I. , ; 3 se,M nster, 1 .Shvets G. , .Castilla S. , 1 OM6 ROOM 6 ROOM COIsiu eCien- de ICFO-Institut 3 ü .Pruneri V. , 1 se,Germany nster, .Ceccanti M. , 1 .Orsini L. , 2 n .H. F. and , 1 1 .Bar- D. , .C.H. N. , 1 J. , 1 1 , , ; ; n olclat-optics. waves, nonlocal and guided of types new porting sup- junctions met- metasurface of alenses, tradeos and limits funda- the mental including of optics, at frontier of eld the at topics ferent dif- on eorts recent our discuss We USA Ithaca, ∙ Optics Flat Nonlocal and 16:30 Local in Directions Emerging (Invited) TUE EH-3.1 Italy Benevento, Sannio, of University Galdi, Vincenzo Chair: Metasurfaces with Light of Control Advanced EH-3: 18:00 – 16:30 di- homogeneous of electrics. layer thin a of feature characteristic essential an is response a magnetic optical magnetism: strong optical of man- the ifestation for necessary not struc- is turing metamaterial that show We .Monticone F. OM7 ROOM 7 ROOM ; onl University, Cornell ebi-ntttf Leibniz-Institut Martin 1 D. uptpwrwt vr6%conver- 60% wave over with power continuous output 800W enable cool- ers advanced and layouts emitter wide-aperture- designs, that epitaxial asymmet- ric nm res- triple 940 extreme 4mm integrate at with emitting bars onators laser 1-cm Germany Berlin, Berlin, sung Germany Berlin, 2 quenztechnik, Karow .Kaul T. B21TE16:30 ∙ nm 940 at Bars Laser Diode 1-cm Single From Output Wave Continuous W 800 at Eciency Conversion Increased TUE CB-2.1 Berlin, Germany Telecommunications, Heinrich-Herz-Institute, Fraunhofer for Troppenz, Institute Ute Chair: Lasers Semiconductor Power High CB-2: 18:00 – 16:30 of beam-steering ± a nm. shiers, thermo-optical 852 phase 12 of considering wavelength By a at ized nm 800 with spacing. emitters end-re 8 array of SiN-based a demonstrate We Germany Dresden, den, .Crump P. ednn-ru-ntttGmbH, Ferdinand-Braun-Institut RMFLsrGb,Niederlas- GmbH, Laser TRUMPF 30 ∘ sachieved. is 1 .Boni A. , 2 .Strohmaier S. , 1 OM8 ROOM 8 ROOM 1 .Meissner-Schenk A. , n .Tr G. and , eiei character- is device e 1 .Maaßdorf A. , ü H r 2 ö M.M. , chstfre- ä nkle 1 2 1 , , ; ; CLEO ihhg sensitivity. metasurface, high in a with of chirality orders optical diracted detect to be used can non-destructive technique photo-deection low-cost, scattering-free, local, a that show we Here Italy Padova, Italy Rome, 1 Scian Voti E31TE16:30 Leahu G. metasurfaces diractive in chirality of characterization for technique Photo-deection TUE CE-3.1 Germany of Stuttgart, Stuttgart, University Jetter, Michael Chair: Techniques Characterization and Fabrication CE-3: 18:00 – 16:30 where patterned. and in-plane structures, is graphene photonic NIR waveguide conning highly of nvriyo oeL Sapienza, La Rome of University 1 ® .Belardini A. , 2 .Mattei G. , Erp-QC2021 /Europe-EQEC 1 , OM9 ROOM 9 ROOM ; ∙ 2 .Petronijevic E. nvriyo Padova, of University 2 n .Sibilia C. and , 1 .Cesca T. , 1 .Li R. , 2 C. , NOTES 1 ; 63 igpatctpsta aeadvan- take that types plastic ing mid-infrared. the aèca aeca Spain Valencia, València, de Politècnica Universitat Química, Spain Valencia, València, de Politècnica Universitat Paterna, València, Spain de Universitat (ICMUV), Materials dels Ciència de Spain Valencia, València, 2 de Univer-sitat València, de Politècnica Universi- tat (IDM), Desar- Tecnológico y rollo Re- Molecular de conocimiento Investigación de versitario Maquieira Pastor D. Avellà-Oliver 16:30 M. Juste-Dolz A. bioanalysis on-ber for networks molecular structured gratings: BIO-Bragg TUE CH-4.1 National Taiwan University, Huang, Taiwan Jian-Jang Chair: II Sensors Fiber-based CH-4: 18:00 – 16:30 aoaoyo ie pis-Institut - Optics Fiber of Laboratory ⋅ usa 2Jn 2021 June 22 Tuesday ; 3 htnc eerhLabs, Research Photonics 3 1,4 OM10 ROOM OM10 ROOM ..Andrés M.V. , ; 1 , ∙ 1 ; .Delgado-Pinar M. 1,4 nttt Interuni- Instituto 4 .Fernández E. , eatmn de Departament 2 n Á. and , 1 2 , , ; iersntra o n ihfre- high quencies. and low at waveg- resonator titanium- uide niobate a lithium from indiused squeezing tical op- continuous-wave of the generation investigate experimentally We Germany Paderborn, sity, Univer- Paderborn Optics, Quantum Germany Berlin, tute, Denmark Lyngby, 2 Kgs. Denmark, of University Technical Physics, of ment Depart- bigQ, States Quantum scopic Gehring T. and Andersen Herrmann 16:30 H. Kleinert ∙ source light quantum integrated for waveguides Nonlinear TUE EB-4.1 many Saarbr Saarlandes, des Universit Becher, Christoph Chair: Sources Light Nonclassical EB-4: 18:00 – 16:30 applications. ing sens- materials on-site for horizons new opens which technology, tonics pho- integrated on based sensor tral spec- NIR mass-producible and ro- bust low-cost, miniaturised, a of tage .Domeneguetti R. ruhfrHirc et Insti- Hertz Heinrich Fraunhofer 2 .Kießler C. , 1 .Neergaard-Nielsen J. , OM11 ROOM 11 ROOM eiepoie inte- promises device e 3 1 .Silberhorn C. , ; 1 1 etrfrMacro- for Center .Conradi H. , 3 .Stefszky M. , ; ü 3 kn Ger- cken, Integrated 3 2 U. , M. , ä 1 3 t , , ; us t1H ih10sburst 100ms with separation. 1MHz at burst generate We 5-10 electron-lasers. x-ray repetition-rate free high for laser μ ussa 5.n n800 in 257.5nm at pulses J OM12 ROOM NOTES μ s
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Kowzan ∙ 17:00 measurement shis mode and widths mode cavity from spectroscopy dispersion and absorption cavity-enhanced Dual-comb TUE ED-3.3 16:45 ∙ H2 of Spectroscopy Stimulated-Raman Comb-calibrated TUE ED-3.2 probe. comb the for cavity enhancement an using sensitivity absorption high achieve .Charczun D. 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D42TE17:00 ∙ microresonator a in light of breaking symmetry polarization Spontaneous TUE CD-4.2 .Moroney N. etrfrFe-lcrnLaser Free-Electron for Center Glasgow, Strathclyde, of University a lnkIsiuefrthe London, London, for College Imperial Institute Planck Max 5 ..Wittwer V.J. , 7 ; .L Oppo G.-L. , 8 8 .Herr T. , ws etrfrElectronics for Center Swiss ; OM2 ROOM 4 ero-atUniver- Herriot-Watt 1,2 7 .DlBino Del L. , 2,3,4 ; n .Del’Haye P. and , ; 6 .S T. , 5 3 .Vanner M. , ainlPhys- National 6 .Zhang S. , nvriéde Université ü dmeyer 1 2 6 L. , V. , T. , 1 1 , ; ; ; ; CLEO ® Erp-QC2021 /Europe-EQEC OM3 ROOM 64 conguration .E9Hz 1.2E-9 Hz 9 mity. unifor- spatial excellent photo- with diodes photocurrent us- high VIRGO very ing Advanced stabi- in power laser lization the Nice, present We CNRS, Italy Cascina, - Observatory, de d’Azur Observatoire France Côte - la d’Azur Côte Kéfélian Genin 17:00 E. Turconi M. Cleva F. VIRGO Advanced for stabilization power Laser TUE CA-3.2 ⋅ usa 2Jn 2021 June 22 Tuesday − 1 ; / 2 1 1 ; .P Coulon J.-P. , 2 − n ilb bet reach to able be will and I screty2.5E- currently is RIN e 2 .Pillant G. , uoenGravitational European 1 OM4 ROOM 1 / 1 REI,Université ARTEMIS, 2 .Merzougui M. , o h otsensitive most the for 1 ..Wei L.W. , 2 and , ∙ F. 1 1 , , olna htncFouttopo- Floquet photonic nonlinear A Spain Barcelona, Lisbon, Catalunya, Lisboa, Portugal de Ciências, Universidade de Faculdade putacional, Portugal Lisbon, Lisboa, Universi- 6 de Ciências, dade de Faculdade Spain Barcelona, Technology, & Science of Moscow, Fotoniques, Sciences, Russia of Academy Russia Moscow, 3 Technology, and many f Institut Szameit Torner L. Kartashov Ehrhardt Kremer M. C22TE17:00 ∙ insulator topological nonlinearity-induced a of realization First TUE EC-2.2 ..Maczewsky L.J. etod íiaTóiaeCom- e Teórica Física de Centro Russian Spectroscopy, of Institute ; ; ; 2 1 ocwIsiueo Physics of Institute Moscow 5 ; 4 ; 1 ü eatmnod Física, de Departamento COIsiu eCiencies de ICFO-Institut 7 .Martinez F. , 3,4 4,7 hsk otc,Ger- Rostock, Physik, r nvria oiènc de Politècnica Universitat OM5 ROOM 1 ..Konotop V.V. , .Bauer D. , ..Ivanov S.K. , 1 nvriyRostock, University acln Institute Barcelona e 1 .Heinrich M. , 1 n A. and , 1 2,3 Y.V. , M. , 5,6 1 , , ; ; n niern,MT Cambridge, USA MIT, Engineering, and De- Germany2 Munich, Physics TUM, partment, and Institut Schottky and Kastl C. Zwiller Lorke Taniguchi T. Sigger 17:00 Micevic H A. MoS2 monolayer in emitters photon single of arrays Gate-switchable TUE EI-2.3 emitters. quantum native and exci- tons 2D in enhancement nescence lumi- the demonstrate and antennas our In WSe thin atomically integrated nanoscale. we work, the at inter- action light-matter engineering for platform novel a represent tructures nanos- dielectric in resonances Mie Germany Munich, Munchen, Maximilians-Universitat Ludwig- Nanoinstitute Physics, of Faculty London, Munich, Nanosystems, brid London, Kingdom Kingdom United College United rial Sheeld, 2 of Sheeld, University tronomy, 1 Maier S. ∙ 16:45 nano-antennas dielectric to coupled emitters photon single 2D and semiconductors thin atomically in interaction light-matter Enhanced TUE EI-2.2 100*100*3nm^3. as small as volumes nanocavity in 100, Germany Universit Japan Ibaraki, 5 Tsukuba, Science, Sweden Stockholm, 4 Technology, .Sortino L. eateto aeil Science Materials of Department Impe- Physics, of Department As- and Physics of Department ntttf Institut Materials for Institute National ; 2 5 1 ihglimpopienano- phosphide gallium with ö .Florian M. , ∙ 3 .Mitterreiter E. , tger 3 1 .Holleitner A. .J K. , T oa nttt of Institute Royal KTH 1 .Klein J. , ä 2,3 ; .M K. , rmn Bremen, Bremen, t 1 ü 1 6 n .Tartakovskii A. and , OM6 ROOM .Zotev P. , .Barthelmi K. , r eateto Physics, of Department 4 ö .Watanabe K. , ns 6 ; oeicePhysik, eoretische ü .Wurstbauer U. , ller 5 2 3 .Jahnke F. , 1 .Sigl L. , hi nHy- in Chair .Sapienza R. , 1 1 1 .Finley J. , ; .Gyger S. , 1 Walter 1 4 A. , 1 M. , 5 F. , V. , 2 7 3 1 1 , , , , ; ; ; ; ; prueojcie(A=0.4). = (NA objective numerical aperture high a using by excited which is metasurface, with plasmonic a in dispersion resonance angular weak extremely lattice (~30) high-Q surface demonstrate unprecedented an experimentally We Melbourne, Technology, Australia of versity Australia berra, 17:00 1 ∙ dispersion angular ultra-weak with metasurfaces plasmonic in resonances collective High-Q TUE EH-3.2 .Liang Y. utai ainlUiest,Can- University, National Australia 1 .Jia B. , OM7 ROOM ; 2 n .Kivshar Y. and , 2 wnun Uni- Swinburne 1 ; ootclecec f42%. of eciency electrical optical output peak to a mW exhibit waveguide and >1800 power ridge deliver Our lasers nm. 885 at lasers diode limited watt- diraction demonstrate class we work, this In USA Barbara, Santa g hl anann ihe- high 60% of maintaining ciency while We volt-age operating lowered for timized op- pumping. diode laser pump laser >12W present ber level kW- for diodes laser and high-eciency high-brightness, high-power, Finland Uusimaa Sillanp J. Melanen, P. nen, 17:00 ∙ eciency conversion power high maintaining while voltage operating lowered for optimized diode laser Pump TUE CB-2.3 unlabelled, are gratings Bio-Bragg Leisher P. 16:45 and Mashanovitch, M. Renner, D. Foong, ∙ Lasers Diode nm 885 Mode Single Watt-Class TUE CB-2.2 peak). (67.5% eciency sion .Nkie,S aml,V Vilokki- V. Talmila, S. Nikkinen, J. F. Labrecque, M. Campbell, J. r sicesn eadfor demand increasing is ere ; ouih n. Tampere, Inc., Modulight OM8 ROOM ; reo Photonics, Freedom ää n P. and , CLEO inloss. tion propaga- large phase and power, nonlinear low shi, small a with cope non- waveguides. of linear characterization the for try interferome- heterodyne on technique relying a present we work, this In France , Dijon, Bourgogne de Carnot 16:45 disciplinaire ∙ waveguides integrated nonlinear of characterization the to applied detection Heterodyne TUE CE-3.2 Lassonde 17:00 ∙ ps. 100 to 2-cycle p from or polarization, s nm, 2000 to nm 205 characterizing for FROG Unied TUE CE-3.3 ylst 0 s n nano-Joule and presented. ps, is energies 100 to cycles from durations 2 nm, from 2000 to ranging nm 205 pulses input po- p larized or s accepting instrument ing Canada Gat- Optical Resolved Frequency A Varennes, inc., 2 cycle Legare Laramee A. .Ibnoussina m. .Wilson D. NSET aens Canada Varennes, INRS-EMT, ® 2 n .Schmidt B. and , Erp-QC2021 /Europe-EQEC 2 .Kumar M. , OM9 ROOM 1,2 2 .Ibrahim H. , .Ramirez A. , ; aoaor Inter- Laboratoire smto can method is 2 .Longa A. , 1 ; 2 1 1 F. , P. , few- 2 , ; 65 fmsca’ oa ytnain dystonia focal future. are musician’s measurements of diagnosis for 3D prospect with possible and depth, and 1D on position Depending number, FBG reported. is eccentric bres optical polymer through multimode in FBGs sensing Bend Hanover, Germany Hanover, 1, University Welfengarten Leibniz helm Wil- Gottfried PhoenixD, Excellence ,Hnvr Germany Hanover, Universit2, der An Hanover, versity Uni- Leibniz Wilhelm Gottfried ogy, Technol- Automation and Transport Germany Hanover, 17, Str. Nienburger Hanover, University Leibniz Wilhelm Gottfried nologies, 1 Roth B. 0.5ppm. of levels detection ethanol achieves readily probe sensing brid, presented. is lithography multi-photon using opti- tapers, ber onto cal of resonators imprinting the micro-ring on vapour based ethanol sensor sensitive highly A Greece Heraklion, (FORTH), Technology-Hellas and Foundation Research (IESL), for Laser and ture H43TE17:00 ∙ Fibres Optical Polymer in Gratings Bragg Eccentrical on based Sensor Bend TUE CH-4.3 and M. sadakis Farsari, Tsilipakos, M. Kafesaki, O. Melissinaki, 16:45 V. Tapers Optical-Fiber on Resonators Micro-ring Photo-imprinted, on Based Sensor Ethanol Sensitivity High A TUE CH-4.2 demonstrated. are serum hu- man in bindings mini- non-specic mized and and perspectives, Multiplexation of tunability surface microber. the a network on bioreceptors periodic of a the of on patterning based biosensors on-ber .Leers L. anvrCnr o pia Tech- Optical for Centre Hannover ⋅ usa 2Jn 2021 June 22 Tuesday ; 1,3 nttt fEetoi Struc- Electronic of Institute 1 n .Overmeyer L. and , OM10 ROOM .Locmelis J. , ; 1 ; .Bremer K. , 2 nttt for Institute 3 lse of Cluster ∙ .Pis- S. shy- is 1,2,3 ä 1 t , ; fteeiso line. emission the of stability long-term the and photons single the indistinguishable of emission investigate here networks.We quantum in node elementary realis- an for ing candidate promising a is Japan Tsukuba, Science, Material Japan Tokyo, Centre, Kingdom United Innovation 3 Oxford, Harwell Global Six Saarbr Becher Markham Iwasaki Herrmann h eeo C-band. telecom the in emitting dots of quantum In(Ga)As properties res- on uorescence study onance in-depth We an present promising. highly are around 1550nm emitting dots quantum tor semiconduc- communication, quan- tum for sources light potential As of University Germany Stuttgart, Stuttgart, SCoPE, and Technology (IQST) and Science Quantum Grenz Michler Portalupi, P. f S.L. and Jetter, Schaber, M. R. cher, 17:00 ∙ Dots Quantum In(Ga)As from C-Band Telecom the in Fluorescence Resonance of Investigation TUE EB-4.3 16:45 ∙ diamond in spin tin-vacancy a from photons Indistinguishable TUE EB-4.2 o oecmlxotclsystems. optical complex more for chips platform dierent with gration ü .Nwah .Vrl .Fis- J. Vural, H. Nawrath, C. G J. oy nttt fTechnology, of Institute Tokyo abetrpi n Funktionelle und Halbleiteroptik r i-aac etei diamond in centre tin-vacancy e 1 ü ö ä 3 ; rlitz kn Germany cken, hn etrfrIntegrated for Center chen, .Taniguchi T. , 2 1 OM11 ROOM .Hatano M. , .O Collard P.-O. , 1 1 ; .Morsch R. , aradUniversity, Saarland 4 ainlIsiuefor Institute National ; 3 n C. and , ; 2 4 Element Institut 1 M. , 2 D. , T. , ; NOTES
Tuesday Orals Tuesday Orals tion. resolu- digit eleven frequency achieving comb, optical an spec- with rotational troscopy terahertz photon molecular two- precision singular demonstrate and ion, a quan- of pure states detect tum and prepare techniques to quantum-logic use We USA CO, Boulder, USA CO, Boulder, Technology, and Standards ∙ Ions Molecular Single of Spectroscopy 17:30 Comb Frequency Precision (Invited) TUE ED-3.5 plasma. the of inside methane distribution temperature tional rovibra- the measure and resolution, 20 with ethane, and methane of for diagnostics resolution plasma time-resolved spectral GHz 5 spectrometer with mid- dual-comb asymmetric infrared an present We Netherlands Ni- jmegen, Nijmegen, University Radboud Khodabakhsh A. M. and Jahromi, Nematollahi, K.E. Krebbers, R. Dijk, 17:15 ∙ plasma a in measurement temperature and spectroscopy dispersion and absorption dual-comb Mid-infrared TUE ED-3.4 in cavity bre a to input is light mismatch frequency mode .Leibrandt D. L.v. Harren, F.J.M. Abbas, M.A. ; OM1 ROOM nvriyo Colorado, of University ; ainlIsiueof Institute National μ time s ; i okl eect. Pockels control via phase direct enable devices lithium (LNOI). thin-lm niobate-on-insulator with wafer ni- tride silicon bonding Damascene wafer photonic of direct fabri- using microresonators cated high- optical hybrid Q in generation frequency comb optical demonstrate We land land R Europe, search Switzerland Lausanne, (EPFL), Lausanne Technology of tute Kippenberg .Popo Y. H r raigisd h tongues. the inside breaking try synchronisa- symme- Arnold frequency-domain report and tion of We sequence parameter tongues. a laser into pump space the microresonators break ring Kerr mix- nesse high four-wave the in conditions the threshold ing that nd We Kingdom United Bath, Skryabin D. 17:30 and ∙ microresonators ring Kerr nesse high in tongues Arnold and mixing Four-wave TUE CD-4.4 17:15 Wang Si Hybrid the in Conversion Frequency Nonlinear TUE CD-4.3 ∙ Platform Integrated random a chirality. acquire to eld cavity causes the nonlinearity Kerr the which .Pzrv .Fn .Villois, A. Fan, Z. Puzyrev, D. .Churaev M. ö nl ; 2 3 1 .Blésin T. , T Z ETH .M C. , 2,3 1 OM2 ROOM .Seidler P. , ; 1 ü .Riedhauser A. , ö 1 ih Z rich, hl 1 ws eea Insti- Federal Swiss ; .Caimi D. , 3 ü 2 nvriyo Bath, of University N .Snigirev V. , clkn Switzer- schlikon, 4 LiNbO - ü ih Switzer- rich, ; 2 n T.J. and , 2 B Re- IBM 2 .Liu J. , 2 3 R.N. , 1 S. , 1 e , CLEO tteatscn timescale. resonance attosecond the shape at molecular a near trapping photoelectron the measure to protocol congestion) spectral RABBITT reduce self-calibrated (that the of a variant implement We Spain Madrid, France Lyon, Matter, and 2 Light of Martin F. Constant Nandi G32TE17:30 ∙ RABBIT-2 the by Measured Nitrogen in Resonance Shape a Around Delay Time Ionization Attosecond TUE CG-3.2 .Loriot V. nvria uooad Madrid, de Autonoma Universidad ® 1 .Karras G. , Erp-QC2021 /Europe-EQEC 1 2 .Plésiat E. , n .Lépine F. and , 1 ω OM3 ROOM .Marciniak A. , method 1 .Hervé M. , 2 .Palacios A. , 1 ; 1 Institute 1 S. , 1 E. , 2 , ; 66 n /caxes. E//a E//c and using amplier, regenerative Yb:YLF cryogenic demonstrate We Bilim Turkey Antalya, Antalya University, Imaging,, Laboratory, nology Ultrafast Germany Hamburg, for Centre Germany Hamburg, Hamburg, of University Department, Science, Germany Hamburg, DESY, Elektronen-Synchrotron Laser Deutsches Free-Electron for updb neetootccomb. electro-optic an by paramet- pumped synchronously optical (OPO) oscillator an ric present We France France Paris, (IUF), Talence, 4 France d’Aquitaine, Talence, LOMA, 3 CNRS, Talence, (LP2N), France Nanosciences et Cormier 1 E. Pontagnier L. 17:30 ∙ comb electro-optic an by driven oscillator parametric optical rate repetition multi-GHz tunable, Highly TUE CA-3.4 dura- sup-ps tions to compress and noise, be RMS could pulses 2.2% mJ has 16 10kHz with at W 160 to up ates Kaertner F. 17:15 and Kellert M. ∙ Amplier Yb:YLF Regenerative Cryogenic 160W TUE CA-3.3 .Ye H. Pergament M. ntttUiestied France de Universitaire Institut d’optique Institut ALPhANOV, Numérique Photonique Laboratoire ⋅ usa 2Jn 2021 June 22 Tuesday 1 ; .Freysz V. , 2 1 nvriéd Bordeaux, de Université J. , OM4 ROOM 1,4 n .Freysz E. and , 1 1 .Santarelli G. , .Demirbas U. , esinga 2 mlrgener- amplier e .Bello-Doua R. , 1,2,3 ; ; 3 4 1 ; ae Tech- Laser .Hua Y. , Hamburg e ; 2 1 Physics Center 1,2 1,4 1 3 2 , , , , ; ; ; esuytennierrsos of response nonlinear the study We de France Université Lille, Lille, CNRS, Molécules, et uege Clermont-Ferrand, France Auvergne, Clermont Université CNRS, Paris- Pascal, France Université Palaiseau, Saclay, CNRS, Nanotechnologies (C2N), et Nanosciences Ravets .L Gratiet Harouri Le L. Jamadi Zambon 17:30 Carlon Solnyshkov ∙ lattice SSH driven-dissipative a in Non-linearities TUE EC-2.4 of arrays in waveguides. eect coupled domain. the linear observe the We in has analogue eect no the bands; occupation topological of non-uniform despite and nonlinear tized propose quan- demonstrate experimentally theoretically We 16802, USA PA Park, University 17:15 versity, Rechtsman ∙ Photons with Pumping Nonlinear Quantized TUE EC-2.3 r xeietlydemonstrated. experimentally statesare edge pre- protected is its and packet sented, wave propagating of is self-action a the itself by about phase brought topological non- the trivial which in insulator logical .Pernet N. J M. ü gne,S uhre,adM. and Mukherjee, S. rgensen, 1 ; 3 n .Bloch J. and , 3 1 .Lema A. , hsqedsLsr Atomes Lasers des Physique .Sagnes I. , ; 2 OM5 ROOM .Malpuech G. , enyvnaSaeUni- State Pennsylvania 1 .St-Jean P. , 1 .Baptiste T. , 1 î .Real B. , tre uespumping, ouless 1 1 .Amo A. , .Morassi M. , 1 ; 1 ; etede Centre 2 1 Institut 2 3 D. , 1 N. , O. , A. , 3 S. , 1 , ooae nertdi fully WS2- a imprinted lattice, in photonic temperature tuneable a integrated room monolayer in study exciton-polaritons We Germany Jena, 5 University, Schiller Germany Jena, versity, Germany Germany Oldenburg, 2 Oldenburg, Schneider C. and Egorov O. Solanas 17:30 ∙ temperature room at lattice optical an in excitons monolayer WS2 from emerging polaritons Bloch-Band tuneable Fully TUE EI-2.5 and doping temperature. of function a as spectra photoluminescence and report absorption and trions for three-particle wavefunction the tri- for solve and We excitons ons. strong bound tightly of leads to which role interaction, the Coulomb quantify We Russia Petersburg, St. University, Germany Regensburg, burg, USA Bualo, 17:15 Gulevich D. Vagov A. ∙ TMDCs of spectra optical in excitons and Trions TUE EI-2.4 structures. eld-eect in mono- embedded MoS2 in layer arrays of emitter gate-switching quantum and deterministic generation the demonstrate We M Germany of University Paderborn, Germany University, Paderborn .Lackner L. Perebeinos V. ruhfrIF ea Germany Jena, IOF, Fraunhofer W University 1 .Knopf H. , ; ; 4 3 .Schr S. , .FraJunior Faria P. , 3 OM6 ROOM 1 3 rerc cilrUni- Schiller Friedrich .Dusel M. , ; 7 ; nttt fPhysics, of Institute 1 2 1 nvriya Bualo, at University ü nvriyo Regens- of University .Zhumagulov Y. , zug W rzburg, ü ö 1 3 ; der se,M nster, .Eilenberger F. , 1 5 nvriyof University 2 .H S. , ; .Anton- C. , 4 Friedrich ; ü 3 ö 2 rzburg, ü ITMO and , ing nster, 2,3 2 3 , , , ; ; a ihos ntp-Ihyper- type-II in dichroism circu- lar magneto-optical study We Italy USA Cleveland, 8 University, serve Italy Roma, Sweden 6 Gothenburg, Italy Gothenburg, Genova, 4 Germany Konstanz, 3 Konstanz, of Luxembourg embourg, 1 .Pineider F. Strangi Pedrueza-Villalmanzo Dmitriev 17:30 E. Petrucci ∙ nanoantennas metamaterial bolic hyper- type-II in Magneto-optics TUE EH-3.4 60 an- of to gles up responds and wave- band narrow length a to conned is eect angle. illumination with depen- dence amplitude strong a displays spectra transmission which in faces metasur- of class special a report We Southampton, Kingdom of United Southampton, University omy, Kingdom United 2 Southampton, Southampton, of Metama- University Photonic terials, for Centre and 1 Lagoudakis Cookson 17:15 T. ∙ Sensitivity Directional High with Metasurfaces Metallic Non-Diracting TUE EH-3.3 .Kuttru J. Gorecki J. nvriàdlaClbi,Cosenza, Calabria, della Università Materia, della Struttura di Istituto Tecnologia, Italy di Pisa, Italiano Pisa, Istituto di Università Lux- Luxembourg, of University colo hsc n Astron- and Physics of School Centre Research Optoelectronics 7,8 3 5 .Zhao Y. , ∘ .Brida D. , .Parracino A. , 1 . .Buchnev O. , 2 3 OM7 ROOM 2 1,2 n .Fedotov V. and , n .Maccaferri N. and , ; .Kaczmarek M. , .Gabbani A. , 7 ; aeWsenRe- Western Case 1 4 5 .D Angelis De F. , .Iarossi M. , nvriyof University ; 1 .Bailey C. , 2 University 5 6 A. , G. , 3 2 G. , P. , 4 4 2 1 1 e , , , ; ; ; ; ; ; ; rwigeect. crowding current longitudinal the on nonuni- temperature formity of role the report We on lasers. in diode scaling power high length cavity of ef- the ciency limit to shown been recently has crowding current Longitudinal USA Barbara, bell Camp- J. and Renner, D. McClune, K. 17:30 ∙ Lasers Diode Power High in Crowding Current Longitudinal on Nonuniformity Temperature of Role TUE CB-2.5 f Leibniz-Institut gGmbh, and Fricke, Crump J. P. Martin, D. Erbert, G. 17:15 ∙ lasers diode high-power GaAs-based in saturation power suppressing for approach design Vertical TUE CB-2.4 ooti ihpwrudrCW under power operation. high needed obtain as to baseline, temperature a to high compared at designs losses driven bias in improvement epitaxial strong high-powerreveals triple extreme of asymmetric using lasers testing diode Pulsed Germany Berlin, frequenztechnik, .Lihr .Lbeqe .Burke, E. Labrecque, M. Leisher, P. Maaßdorf, A. Boni, A. Arslan, S. ; reo htnc L,Santa LLC, Photonics Freedom ; Ferdinand-Braun-Institut OM8 ROOM ü H r ö chst- CLEO E35TE17:30 drawn. TUE CE-3.5 noise. SPDC parasitic low and errors cyle duty random low conclude can From we measurements our platform. converter quency fre- quantum as and suitability quality its hence poling its to regarding ppKTP bulk characterised have We Germany f Institut Berlin, 17:15 Ramelow ∙ generation sum-frequency by revealed KTP periodically-poled in errors duty-cycle random Low TUE CE-3.4 .Mn,H hznwk,adS. and Chrzanowski, H. Mann, F. otiuinhsbe with- been has contribution e ® Erp-QC2021 /Europe-EQEC ; Humboldt-Universit OM9 ROOM ü hsk Berlin, Physik, r ä zu t 67 iey ealo,Greece Heraklion, Greece Winery, Heraklion, Wines, Konstantaki Laderos Poumpouridis 17:30 mantakis N. Barrels Oak of Condition Wetting the Accessing for Sensor Humidity Fibre Optical TUE CH-4.5 a to MMF. superior round-core is MMF the square-core a of distribution, mode because homogeneous that used. demonstrate commonly theoretically and experimentally is We (MMF) multimodeber round-core spec- a and troscopy, imaging based ber For Amsterdam, 1081HV, Netherlands 1081, Vrije Boele- laan Astronomy, De Amsterdam, and Universiteit Physics of En- Netherlands 7500AE, schede, 217, Box of PO University Twente, Nanotechnology, Amsterdam, for 1098XG, Netherlands 106, Park Science (ARCNL), Nanolithography 1 17:15 Pinkse ∙ Spectroscopy and Imaging for Fiber Multimode Square-core a of Superiority TUE CH-4.4 ealo,Greece Heraklion, kin-Wnso rt,Herak- Crete, of Her- Greece Wines of lion, - Department aklion the of ation Herak- Greece Crete, lion, of University ment, Hellas, Greece – Heraklion, Technology and Research for Foundation Laser, and Structure .Lyu Z. dacdRsac etrfor Center Research Advanced ⋅ usa 2Jn 2021 June 22 Tuesday 2 n ..Amitonova L.V. and , 1 3,6 ..Velsink M.C. , 3,4 OM10 ROOM .Pissadakis S. , ; ; 1 ; ; .Gavalas N. , 4 3 1 imnai Winery, Diamantakis ieaes Associ- Winemakers’ nttt fElectronic of Institute 2 EA Institute MESA+ ; ; 2 hsc Depart- Physics 5 ; 1,2 aaa Crete Gavalas 3 .Dia- Z. , Department 1,2 1 and , P.W.H. , ; 3,5 6 Idaia V. , ∙ 1,3 M. ; adqatmdtuigacicular cavity. a grating Bragg using dot quantum band a O- present telecom enhanced We Purcell bright contrast. refrac- index high tive the by limited mainly performances with emitters single- photon excellent are dots Quantum Germany Stuttgart, Stuttgart, Univer- of sity SCoPE, and (IQST) nology Tech- and Science Quantum tegrated Grenz tionelle shg h w-htninterfer- 97.5%. two-photon is visibility the ence – high is of 57%. eciency end-to-end reported total a is with source photon single A Basel, Basel, Switzerland of University Physics, ∙ photons single coherent of source 17:30 bright and fast A (Invited) TUE EB-4.5 f stitut Michler P. Jet- and Portalupi, M. S.L. ter, Sittig, R. Fischer, J. Huang, J. ∙ 17:15 grating Bragg circular a in dot quantum a on based O-band telecom the in source single-photon enhanced Purcell Bright TUE EB-4.4 .Warburton R. Nawrath, C. Bauer, S. Kolatschek, S. ü abetrpi n Funk- und Halbleiteroptik r oeec ftephotons the of coherence e OM11 ROOM ä ; hn etrfrIn- for Center chen, eatetof Department ; In- NOTES
Tuesday Orals Tuesday Orals ilitouetecnet of concepts the introduce will I Bundesanstalt, Germany Universit Germanyniz Braunschweig, Technische ∙ leveling chronometric 18:30 for clocks atomic Optical (Invited) TUE ED-4.1 Nijmegen, versity, Uni- Radboud Harren, Frans Chair: Platforms Comb Miniaturized and Standards Frequency ED-4: 20:00 – 18:30 .Mehlst T. OM1 ROOM ä ä ubler anvr Hannover, Hannover, t ; Netherlands e Physikalisch- ; Leib- eeto f>3 Bfo Bring lter dB 2 from rejection. dB a 37 > of create rejection achieving on-chip to destructive interference, RF and micror- scattering spectrally-selective that resonators Brillouin integrated lter ing mi- photonic multi-notch cascades a crowave present We 2601, Australia ACT Canberra, Australia, Canberra, University, National Australian Centre, Physics Australia Sydney, Australia, Nano), (Sydney Institute Nano ney Sydney, Australia, Australia 2006, NSW ney, Physics, School of (IPOS), Science Optical and Eggleton Yan K. eed rgi aeeghreaches collisions wavelength Broglie molecular de were cold in ef- fects quantum demonstrating ments Israel Rehovot, Science, of ∙ collisions molecular cod in eects 18:30 Quantum (Tutorial) TUE EA-2.1 versit J Chair: Molecules Cold EA-2: 20:00 – 18:30 ∙ 17:45 Resonators Microring and procesing Brillouin On-Chip utilising Filter Photonic Microwave Multi-Notch Ultra-Deep TUE CD-4.5 .Narevicius E. Garrett M. nvriyo yny S 2006, NSW Sydney, of University e uoilwl ou nexperi- on focus will tutorial e ä ,Bri,Germany Berlin, t, 3 .J Madden J. S. , ü 1,2 ; gnVl,Hmod Uni- Humboldt Volz, rgen ; 2 1,2 OM2 ROOM 1 .Liu Y. , nttt fPhotonics of Institute ; nvriyo Syd- of University e nvriyo Syd- of University e ezanInstitute Weizmann 1,2 .Y Choi D.-Y. , 3 n .J. B. and , ; 3 Laser 3 , CLEO .Kule A. Brédy Scognamiglio A. Nash Castellanos 18:30 P. ∙ photoionization molecular XUV following bands correlation of dynamics Ultrafast TUE CG-4.1 Sweden Lund Lund, University, Gisselbrecht, Mathieu Chair: Dynamics Molecular and Reactions Chemical CG-4: 20:00 – 18:30 employ- by the ing Xe investigated been in has resonance plasmonic giant Ot- Canada, Canada tawa, of Council Research Canada Ottawa, Ottawa, Corkum P.B. and 17:45 ∙ Generation Harmonic High of Process Recollision by Resonance Plasmonic Giant in Delay Time of Measurement TUE CG-3.3 estv rbso lrfs multi- interactions. electron ultrafast of probes exquisitely sensitive as electrons using recollision generation harmonic high of .Boyer A. Ko D.H. iedpnetrsos fthe of response time-dependent e ® 1 .Constant E. , nsitu in Erp-QC2021 /Europe-EQEC 1 2 1 ..Brown G.G. , n .Lépine F. and , .Hervé M. , OM3 ROOM esrmn method measurement 1 1,2 .Karras G. , ; 1 3 1 .Tielens A. , 1 .Loriot V. , 1 nvriyof University .Despré V. , .Zhang C. , ; 2 1 National ; 1 1 Univ R. , 2 1 3 1 , , , , 68 edmntaeta picosecond that demonstrate We Limoges, 7252, France CNRS UMR XLIM, Février S. and Couderc, V. Leventoux, Y. haye, ∙ OPO. the of changes any without 1.4 from femtosecond tunable provides pulses laser, rod-type ber controlled ytterbium mode–locked OPO harmonic-order femtosec- ond rate high-power by pumped repetition Tunable F France Talence, UMR-5798, 33400 LOMA, Bordeaux, ∙ laser. ber rod-type 17:45 ytterbium mode–locked controlled harmonic-order femtosecond power high by pumped OPO rate repetition Tunable TUE CA-3.5 J21TE18:30 2.95 at pulses 9 cycle nJ 50 of source format All-ber TUE CJ-2.1 Wroclaw Poland Technology, Grzegorz, of University Sobon Chair: Micron 2 above Lasers Fiber Mode-locked CJ-2: 20:00 – 18:30 inlple cos1.5-1.7 across pulses signal o1 GHz. 14 to 1 from ranging rate repetition exible μ .Tloie .Gagr .Dela- H. Granger, G. Tiliouine, I. FREYSZ E. and FREYSZ V. tdrn eeiinrates repetition dierent at m ⋅ P eiessub-picosecond delivers OPO e usa 2Jn 2021 June 22 Tuesday ; OM4 ROOM nvriéd Limoges, de Université μ m μ o1.7 to m μ with m ; Univ. c luuru,N,USA NM, Albuquerque, , ico Hehlen modes. zero cal topologi- of maneuver non-PT-symmetric and regimes and PT be- tween switching single-channel to non- ing lead- a lattice, in topological potential Hermitian defect a the of modulate loss eectively can earity nonlin- optical that demonstrate We USA California, University, State Francisco San omy, Laser Greece 6 Heraklion, and FORTH, – (IESL) Structure Electronic Croatia Za- of of Zagreb, University greb, Science, of ulty many Universit Greece Her- Crete, aklion, of University Physics, of China Univer- Tianjin, Nankai sity, Physics, of School and Institute Physics Applied TEDA Photonics, Nonlinear Weak-Light of Chen Buljan H. .Peysokhan M. Komis I. Albrecht ∙ Lasers Athermal and Refrigeration Optical Cryogenic 18:30 (Invited) TUE CA-4.1 King-dom United Glasgow, Strathclyde, of University Hastie, Jennifer Chair: Concepts Laser Novel CA-4: 20:00 – 18:30 17:45 ∙ States Topological and PT-symmetry of Control Nonlinear TUE EC-2.5 systems. conservative in counterpart that no solutions have stable new unveil the we of system advantage our of nature non-Hermitian Taking Heeger Schrieer model. Su the of bulk the .Sheik-Bahae M. Xia S. eateto hsc n Astron- and Physics of Department aeo ih Heat: & Light of Game e 1,6 ; 4 2 ; 1 eateto hsc,Fac- Physics, of Department ; 1 .Kaltsas D. , ä 1 .Volpi A. , 2 1 1,4 otc,Rsok Ger- Rostock, Rostock, t .Xu J. , nvriyo e Mex- New of University OM5 ROOM .Makris K. , O e Laboratory Key MOE e 1 ; .Epstein R. , 3 ntttf Institut 1 1 .Kock J. , .Szameit A. , 1 ; .Rostami S. , 2 2 .Song D. , ; Department 2,5 ü 1 5 Physik, r n Z. and , n M. and , Institute 1 ; A. , 2 Los 3 1 1 , , , ; Engelsholm Moselund 18:30 ∙ nm nm-1390 670 covering supercontinuum ber polarized linearly and low-noise ultra-at, an of Generation TUE CD-5.1 of University Italy Brescia, Carletti, Luca Chair: Generation Supercontinuum CD-5: 20:00 – 18:30 valley the pho- the coherence. and polarization WS2 intensity, valley between non-uniform an toluminescence relationship nd the We WS2 inverse CVD-grown akes. monolayer photolumines- from the cence polarization of the properties characterize We Netherlands Del, Technology, of Kuipers 17:45 L. and Boj, ∙ monolayers WS2 of coherence valley and polarization valley Position-dependent TUE EI-2.6 n .Sylvestre T. and o-ier neatn oosin bosons lattices. study interacting study to a non-linear, plaform Our of versatile implementation highly the cavity. at open aims an in .Genier E. Conesa- S. Heijst, Van S. Komen, I. 1 .Bang O. , 1 OM6 ROOM 1,2 .Bowen P. , .Grelet S. , 2 ; ; 1 3 eUniversity Del K Photonics NKT ..Dudley J.M. , 1 1 P.M. , R.D. , 2 , om o o ot ciemetade- active vices. cost, low plat- for forms dielectric conventional rival can metasurfaces perovskite halide re- and properties, 45% light-emission markable as high dichroism as circular potentially With all- meta- surfaces. in perovskite halide chirality dielectric giant report We 20133 Italy 32, Milano, Italy, Vinci Milano, da Pi- Leonardo Milano, azza di Politecnico Physics, Singapore Sin- Singapore, gapore, Drive, Nanyang 50 University, Technological Plaza, Techno Nanyang Research (ERI@N), Singapore Singapore, 2 637371, pore Singa- Link, Nanyang 21 University, Technological Nanyang SPMS, TPI, Technologies, Photonic Disruptive for .Klein M. .Feltri E. USA 32306, and FL Tallahassee, Chemistry Biochemistry, of Department sity, ∙ Imaging and Immunouorescence for Coating Zwitterionic Multifunctional with Photoligated 18:30 Dots Quantum Compact (Invited) TUE CE-4.1 INRS, Vetrone, Canada Montreal, Fiorenzo Montreal, Chair: Materials Luminescent CE-4: 20:00 – 18:30 17:45 Long G. Metasurfaces Perovskite Halide All-dielectric in Chirality Optical Giant TUE EH-3.5 eld. magnetic to external an coupled modes dipole magnetic and electric of excitation the as- to cribe we which response, a broadband reveal simulations numerical Experiments and nanoantennas. bolic .Mattoussi H. nryRsac nttt NTU @ Institute Research Energy 1,3 1,2 1,2 ...Krishnamoorthy H.N.S. , , n .Soci C. and , OM7 ROOM ∙ .Adamo G. ; lrd tt Univer- State Florida ; 3 eatetof Department 1 1,2 .Tian J. , ; 1 Centre 1 1 , , ; eo 0p ilb presented. be will pm 80 below linewidth spectral narrow a to and W up 7 powers output with nm emitting 783 at lasers diode tapered DBR high-power stabilized, Wavelength Tr Germany Berlin, G. gGmbH, and Ferdinand-Braun-Institut Ressel, P. Fricke, M A. wald, aoaor ate rse,Paris, France Brossel, Kastler Laboratoire Laurat Nieddu, J. T. and Mamann, H. Sheremet, ∙ memories quantum cold-atom and light between 18:30 transfer entanglement Ecient (Invited) TUE EB-5.1 Mu- LMU, Leent, Germany nich, van Tim Chair: I Entanglement of tion Distribu- Long-Range EB-5: 20:00 – 18:30 17:45 ∙ W 7 to up powers output and emission narrowband with nm 783 at lasers DBR-tapered TUE CB-2.6 .Ht .Co .Qu A.S. Qiu, S. Cao, M. Hoet, F. L.S. Sumpf, B. OM8 ROOM ü ; lr .Madr,J. Maaßdorf, A. ller, obneUniversités, Sorbonne ue,M Mai- M. eurer, ä nkle ; CLEO aeegh rpledrto tun- ing. duration pulse or wavelength, polarization, enabling (GWS) fabri- tures Struc- the Waveguide Grating for of used cation be to intended dielectric of 1030nm coatings. / 500fs at old Damage Laser-Induced the on results experimental present We France seille, Mar- Fresnel, Institut Marseille, trale ..Rechtsman M.C. 17:45 lais ∙ components reective for coatings optical of resistance damage laser Sub-ps TUE CE-3.6 Hsu Benalcazar Cerjan A. crystals photonic 3D the in in continuum states bound of line a create 18:30 to bandgaps symmetry Using (Invited) TUE EC-3.1 Physics Garcia-Etxarri, International Spain Center, Aitzol Donostia Chair: Topology High-order and States Bound EC-3: 20:00 – 18:30 .Selk .Wge,adL Gal- L. and Wagner, F. Stehlík, M. ; 2 i asil nv NS Cen- CNRS, Univ, Marseille Aix ® .vnFreymann von G. , Erp-QC2021 /Europe-EQEC 1 OM9 ROOM 1 .Vaidya S. , , etdmtrasare materials tested e ∙ .J C. 1 ; 1 ö Department rg 1 1 W.A. , C.W. , 3 and , resh- 69 Légaré Villatoro Ramirez Wilson D. to crosstalk. lengths avoid cavity proper have must parameters. ple multi- monitor to hence sensors, ric interferomet- Fabry-Perot ber use multiplex- ing for the lantern on photonic a report of we work, this In Spain Bilbao, Spain Science, fos Bilbao, Country, 2 17:45 Basque ∙ sensors Fabry-Perot ber multiplexing for lantern Photonic TUE CH-4.6 F31TE18:30 Rovere Jeong Y.-G. the at Pulses Laser of Guiding TUE CF-3.1 Italy Milano, Milano, di Politecnico Lucchini, Matteo Chair: Propagation Pulse Nonlinear CF-3: 20:00 – 18:30 wine in ageing used barrels oak of walls the along content moisture the of monitoring evolution for developed is ity sensor cav- resin photo- bre hydroscopic a optical with Perot Fabry A .Flores J. KRAQE aqeFoundation Basque IKERBASQUE, ⋅ ogptHlo-oeFibers Hollow-Core roughput 97% – Limit eoretical usa 2Jn 2021 June 22 Tuesday 1 1 .Razzari L. , .Zanotto L. , 2 1,2 .Morandotti R. , 1 OM10 ROOM ; 1,2 .Zubia J. , 1 .Ivanov M. , .Piccoli R. , 1 nvriyo the of University interferometers e 1 .Tempea G. , 1 and , 1 n j. and , 1,2 1,3 1 A. , A. , F. , ∙ B.E. 2 , ; Rodrigo Khodabakhsh Hansen Woyessa R.E. G. Petersen C.R. imaging hyperspectral and spectroscopy, OCT, mid-infrared 18:30 based Supercontinuum (Invited) TUE CH-5.1 King- United dom Canterbury, Kent, of University Podoleanu, Adrian Chair: Media Scattering in Imaging CH-5: 20:00 – 18:30 2 .Tidemand-Lichtenberg P. , OM11 ROOM 1 4 1,3 1 .Markos C. , ...Harren F.J.M. , .Kwarkye K. , ..Israelsen N.M. , 1,3 A. , 4 P. , 1,3 2 1 , , , eivsiaeTzgnrto us- generation THz investigate We Saraceno Germany Bochum, C. Bochum, and Ruhr-University Homann, 18:30 M. ∙ Energies Pulse Pump Low with Fronts Pulse Tilted Using Generation THz Power High TUE CC-3.1 Germany Bielefed, Bielefeld, of sity Univer- Turchinovich, Dmitry Chair: Sources THz Power High CC-3: 20:00 – 18:30 .Wl,T oe,S Mansourzadeh, S. Vogel, T. Wulf, F. OM12 ROOM NOTES ;
Tuesday Orals Tuesday Orals bevtied ai,Université Paris, Coq de Le Observatoire Y. and .L Targat Goldner Le R. D42TE19:00 ∙ Lasers Ultra-stable for Burning Hole Spectral TUE ED-4.2 Earth’s the mapping geoid. for clocks applications novel of as for standard well as use the model of their tests and fundamental clocks optical .Zhang S. 3 .Fang B. , 1 .Lu N. , OM1 ROOM 1 .Ferrier A. , č 1 i ć ; 1 1 .Seidelin S. , .Galland N. , 1 LNE-SYRTE, 3 P. , 2,4 1,2 , , h hrceitclnt finterac- tions. of length characteristic the OM2 ROOM CLEO Légaré Saraswathula 19:00 M ∙ molecules chiral in dynamics states Rydberg Femtosecond-resolved TUE CG-4.3 deu- and hydrogen molecules. terium of ultra- in troscopy spec- gain absorption transient XUV optical fast line and absorption shape molecular con- of coherent trol Ottawa, demonstrated We Ottawa, Canada of University Ottawa, Council Canada Ottawa, of Research University and National tory, 1 Corkum 18:45 P. Britton ∙ absorption transient XUV ultrafast of control Coherent TUE CG-4.2 results. explain the of Fermi to size-dependency the proposed on is based rule golden model simple molecules. A several in ex- perimentally measured are correlation, tron elec- by created features bands, tion Netherlands Leiden, University, Leiden servatory, Germany Heidelberg, Universit PCI, Chemie, France Matière, Villeurbanne, Lumière Lyon Institut Bernard CNRS, 1, Claude Univ Lyon, .Wanie V. Peng P. on toeodSineLabora- Science Attosecond Joint å eaaintmsae fcorrela- of timescales relaxation e nsson ® 2 2 .Trabattoni A. , ; Erp-QC2021 /Europe-EQEC .Ding X. , 1,2 1 .Colaizzi L. , 2 1,2 .Mi Y. , eateto Physics, of Department OM3 ROOM 1,2 n .Villeneuve D. and , 1 .Bloch E. , .Riabchuk S. , 1 1,2 .Lytova M. , .Naumov A. , ; ; ä 2 3 Heidelberg, t ednOb- Leiden 1 eoretische M.-C. , 1,4 3 E.P. , K. , 4 2 F. , M. , 1,2 1 , ; 70 n 6f uainpulse. duration fs 86 and 2.95 to up tons the soli- trigger frequency-shied can of formation laser ber rate tion J23TE19:00 ∙ Laser All-Fibre fs-class and nJ- a in Self-Mode-Locking Tuneable TUE CJ-2.3 18:45 ∙ laser ber maintaining polarization 2.8 mode-locked Passively TUE CJ-2.2 2 at pulses Tech- Germany Jena, Photonic nology, of Institute Leibniz rate. repetition MHz dura- 28.8 a ps at 12 tion with pulses stable ultrashort highly a generating and ber polarization ZBLAN mode-locked erbium-doped maintaining a passively featuring a oscillator demonstra- of rst tion the on report We France Caen, Normandie, Caen ENSICAEN-CNRS-CEA-Université France France Bruz, Fluoré, Rouen, Verre Normandie Rouen, INSA Rouen - de Université - Hideur A. and Godin T. Becheker .Krc n .Chernysheva M. and Kirsch D. Kouta A. ⋅ aaiiyo le-estuneabil- lter-less of capability e usa 2Jn 2021 June 22 Tuesday 1 1 .Cozic S. , .Camy P. , OM4 ROOM 1 μ .Berthelot T. , rmaMzrepeti- MHz a from m μ 1 ih5 Jenergy nJ 50 with m ; 1 ulium-doped OI CNRS - CORIA 2 3 .Idlahcen S. , .Poulain S. , ; 3 μ CIMAP, m 2 R. , ; 2 Le 2 1 , , ; epeettemperature-dependent present We Kristallz Tanaka H. 19:00 and ∙ cooling laser for prospects and Yb:YLF of spectroscopy Temperature-dependent TUE CA-4.2 advancing. heat been has internal generation without devel- parallel, lasers for oping In concept 130K. this exploiting to payload a sensor) of (IR cooling and crystals <90K, Yb:YLF shownto of cooling has record refrigeration Optical Los USA NM, , Alamos, Laboratory National Alamos .P S. ü ce,S auna,C Kr C. Kalusniak, S. schel, ü hug eln Germany Berlin, chtung, OM5 ROOM ; ebi-ntttf Leibniz-Institut ä nkel, ü r aiainpoete (PER>17 po- and properties dB). (RIN<0.54%) larization excellent with femtosecond-pumped noise ber nm) maintaining a polarization- us- dispersion all-normal supercontinuum (670-1390 ing octave- coherent ultra-at an spanning report We Denmark Lyngby, Besan Denmark Birkerød, , .Heidt A. Martynkien Mergo P. Rampur D53TE19:00 ∙ Sources Supercontinuum Fiber of Fingerprints Noise TUE CD-5.3 18:45 Rampur A. supercontinuum ber dispersion all-normal of structure ne Temporal TUE CD-5.2 .Pa A. Tarnowski K. Ste¸pniewskiG. akt mefcin ftepump the pulses. of imperfections to back traced and femtosecond observed time-domain are Fast oscillations using ptychography. retrieved per- information is full-eld is and formed ber pulses supercontinuum coherent of structure characterization octave-spanning, spectro-temporal of University, Experimental Poland Lublin, Maria Technology, Curie-Sklodowska Fiber Optical Technology, Poland and Wroclaw, Science of versity Uni- Wroclaw Photonics, and Optics Photonics, of Poland Warsaw, Institute and - Microelectronics Network Research Warsaw, Poland of University Warsaw, Physics, of Switzerland of University Bern, Physics, Bern, Applied of Klimczak Martynkien .M Spangenberg D.-M. ç n France on, ź 1 dzior .H P. , 2 1 3 n .Heidt A. and , ; .Tarnowski K. , OM6 ROOM 1 3 4 .M Spangenberg D.-M. , .Klimczak M. , .Feurer T. , 1 5 2,3 nttt fApplied of Institute .Mergo P. , 4 ä .Stefa K. , nzi .Dobrakowski D. , ; ; ; ; 4 1 1 3 5 eatetof Department .Hartung A. , .Sierro B. , ; T Fotonik, DTU aoaoyof Laboratory 3 2 Łukasiewicz FEMTO-ST, 1 ; ; 1 1 2 Institute , Faculty 4 5 3 ń and , T. , T. , ska 1 ∙ A. , M. 2 1 4 2 , , , , ercecesrlsIn,lsMatéri- les Ions, les sur recherche de Penninckx Doualan E42TE19:00 ∙ applications lasers energy high for ions buer double with CaF2:Nd on based crystals laser New TUE CE-4.2 imaging. in-vivo and cence immunouores- for probes eective tion. compatible conjuga- and click strain-promoted with compact are that ligands hydrophilic multifunctional with photoligated dots been have quantum (QDs) uorescent Highly .Meroni C. s D eete sdas used then were QDs ese 1 .Maunier C. , 2 n .Camy P. and , OM7 ROOM 1 .Braud A. , 1 ; 1 2 1 J.-L. , D. , Centre n .Weinfurter H. and Eppelt Bock B52TE19:00 ∙ Wavelength Telecom at Distributed Atoms Distant of Entanglement Event-Ready TUE EB-5.2 87%. of eciency overall an two quantum with memories based into atomic-ensemble entanglement for photon single- stored re-quirement we where an experiment present critical We memories networks. quantum a quantum entanglement is in storage Highly-ecient .vnLeent van T. 3 .Gartho R. , 1,2 .Zhang W. , OM8 ROOM 1,2 .Fertig F. , 1,2 1,2,4 1,2 .Zhou Y. , .Becher C. , ; 1 Fakult 1,2 1,2 M. , S. , ä 3 t , CLEO l-ilcrc2 eaaeil,pre- metamaterials, 2D patterned create all-dielectric in to modes topological scheme 0D a introduce We Switzerland Zurich, Zurich, C32TE19:00 ∙ systems all-dielectric in modes topological Second-order TUE EC-3.2 epoet eipsil in impossible be to which environments. homogeneous zone, prove Brillouin we the host in complete line a along continuum that the states in bound bandgaps symmetry-protected photonic-crystal specic that symmetry- create can environments show We Germany Kaiserslautern, 67663 OPTIMAS, Kaiserslautern, Center of University Research and USA California 90089, Angeles, Electrical Los California, Southern of of University Engineering, Department USA Hsieh Park, 16802, University Pennsylvania University, Physics, State of .Ko J. ® š t n .Zilberberg O. and ata Erp-QC2021 /Europe-EQEC OM9 ROOM ; 3 hsc Department Physics Pennsylvania e ; ; 2 Ming ETH 71 aoaor hre ar,91127, Fabry, Charles CNRS, Laboratoire School, Graduate d’Optique Hanna 1 M. erdlgtsucsbsdo pi- on technology. ytterbium based cosecond sources light neered engi- spatiotemporally and tunable high-energy compact, of class new a toward route a presenting bre, hollow-core gas-lled a in states solitary multidimensional of of observation formation rst the the report We Énergie Canada Montreal, Canada Montreal, Télécommunications, Centre et Matériaux Scientique, Ibrahim 1 H. Légaré about 1.05. of parameter M2 0.6% an and of RMS stability total energy 92% eciency, with 25fs to are compressed pulses 170fs 1mJ, transmission. 97.4% with (HCF) 1-m-long, ber hollow-core compact, a describe We China Canada Canada Schmidt F33TE19:00 ∙ cell multipass a in conversion Raman TUE CF-3.3 18:45 ∙ bres hollow-core in states solitary multidimensional High-energy TUE CF-3.2 .Daher N. Fan G. nvriéPrsSca,Institut Paris-Saclay, Université ntttNtoa el Recherche la de National Institut ⋅ usa 2Jn 2021 June 22 Tuesday 1 .Lassonde P. , ; ; 1 2 .Safaei R. , ; 3 2 1 FS–USC Chengdu, UESTC, – IFFS OM10 ROOM 1 e-yl n. Varennes, Inc., few-cycle .Délen X. , NS-ET Varennes, EMT, - INRS 1 1 n .Georges P. and , n .Légaré F. and , ; 1 2 1 .Kwon O. , 1 e-yl.Inc., few-cycle. .Guichard F. , .Schmidt B. , 1 K. , 2 2 1 1 , , ; ; mtra,Netherlands Amsterdam, 2 19:00 1 Eikema K.S.E. ∙ tomography coherence optical Ptychographic TUE CH-5.2 ieOT n rc a monitor- gas ing. trace and OCT, time real- imaging, hyper-spectral in tion applica- their and lasers super- continuum mid-IR MHz high power on average result latest the present We Radboud IMM, Netherlands Nijmegen, University, Group, 4000 Research Denmark Virum, 2830 Denmark, Lyngby, Denmark Roskilde, of University Kgs. of Denmark 2800 University Denmark, Technical Fotonik, Pedersen C. .Du M. rj nvrietAmsterdam, Universiteit Vrije Netherlands Amsterdam, ARCNL, ; 1,2 OM11 ROOM 2 2 T ooi,Technical Fotonik, DTU and , .Loetgering L. , 1,2 n .Witte S. and , ∙ .Bang O. ; 3 OBI IVS, NORBLIS ; 4 rc Gas Trace 1,3 ; 1 DTU 1,2 1,2 , ; ; clbetrhrzplesource. pulse terahertz scalable 40 were imaging-free, an temperature than with demonstrated room more at THz energy with single-cycle pulses of Hamburg,Generation of Germany Hamburg, Univesity Imaging, Germany Hamburg, 5 Desy, Hungary Science, Pécs, 4 Group, Research Hungary Pécs, Pécs, 3 of University Hungary Pécs, Pécs, 2 of University Hebling Matlis Kroh sn utm home-built, custom, a Using Germany Hamburg, , Science Laser 19:00 ∙ laser two-line a using niobate lithium poled periodically in generation terahertz multicycle eciency, High TUE CC-3.3 18:45 ∙ Excitation Tilted-Pulse-Front Segmented Using Setup Generation Terahertz Imaging-Free of Demonstration TUE CC-3.2 inydet pta walk-o. spatial to due eciency beam conversion maximum small the that limit sizes shown is high It driving lasers. with rate repetition fronts high power, pulse tilted ing .Olgun H. 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Bino ∙ Microresonators in Suppression ..Svela A.Ø. lcetLbrtr,Ipra Col- Imperial Laboratory, Blackett France, de Universitaire Institut Chimie de Recherche de Institut ; ; 2 ; .Zhang S. , 5 2 3 rerc lxne Univer- Alexander Friedrich a lnkIstt o the for Insitute Planck Max lrno aoaoy Uni- Laboratory, Clarendon n3 BBackscattering dB 34 an ; 4 1,2,3 OM1 ROOM ainlPyia Lab- Physical National 1,3 ; ..Silver J.M. , n .Del’Haye P. and , 2 ...Woodley M.M.T. , 2 nv Grenoble Univ. method e 4 .Del L. , 2,5 1 , ; ; ; OM2 ROOM CLEO Rubio Rupp of femtoseconds. tens few over measurements dichro- ism us- circular studied time-resolved was ing molecules photoexcited chiral of re- dynamics ultrafast laxation the pulses, ultraviolet light few-femtosecond unique delivering a source reso- by temporal provided lution the exploiting By CNR-IFN, Italy Milano, Nanotechnologies and Hamburg, Imaging, Germany Ultrafast Toulouse, for CNRS, France UPS Toulouse Germany Hamburg, Talence, CEA, - France CNRS - Bordeaux Canada Scientique, Recherche Varennes, DESY, la de tional Science, Germany Hamburg, Laser Electron nvriyo ayWashington, Mary of University USA Italy Studi Palermo, degli Palermo, Università di Chimica, e Germany Hamburg, Milano, Canada (Qc), di Italy Politecnico Milano, Physics, Italy Milano, Germany DESY, Hamburg, Science, Laser Free-Electron Germany Garching, Optics, Quantum of Institute Planck Germany Munich, Munich, Ludwig-Maximilians-Universit Calegari Chakraborty Nisoli Mansson Wnuk P. 19:15 ∙ C60 in resonance giant near delays photoemission in polarization dynamic molecular of inuence Probing TUE CG-4.4 Calegari Mairesse Y. Heitz .Biswas S. ltrnIsiue e York, New Institute, Flatiron e ; ® 1,2 5 4,5 7,9 .BnAmor Ben N. , ; ; 10 .Liu Q. , Erp-QC2021 /Europe-EQEC ..Giovannini U.D. , .Magrakvelidze M. , 3,4,12 1,4,6,7 3,4 ; eateto Physics, of Department 1,2 6 1,2 4 .Manie V. , OM3 ROOM 7 Universit 3 11 .Galli M. , nttt o Photonics for Institute ; .Pons B. , .Trabattoni A. , ; abr Centre Hamburg e ; ..Kling M.F. , 1 ; ; hsc Department, Physics 7 1 PDadCFEL, and MPSD etrfrFree- for Center 6 1,2 5 NS Varennes INRS, ; eatetof Department ; .Sch J. , ; 5 ; ä 8 3 ; ; .Blanchet V. , Hamburg, t i.d Fisica di Dip. nvriéde Université 2 ntttNa- Institut 3 3 4 etrfor Center 5 3,4,6 n F. and , CNR-IFN, Université 1,2 4,5 ; ; 7,8 n F. and , E.P. , 10 9 M. , ö 2 CCQ, ä 3 A. , tz H. , Max t P. , 1,2 3 , , 72 usscudb opesdt 295 to fs. compressed a be could with nJ. pulses 1.6 MHz of 16.55 energy pulse at a train emitted pulse It oscillator. 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OM5 ROOM sealsto enables is ; Univer- nest os o nyo the on also geometry. on cross-sectional but its ber, only the of not dispersion relative noise SC intensity of a dependence revealing supercon- ”noise strong sources, (SC) ber unique tinuum technique of novel measuring ngerprints” a for present Warsaw, We Warsaw, Poland of Wro- University Technology, Poland and claw, Jena, Science of Technology, Germany Photonic of Bern, Bern, Switzerland of University Physics, est fBt,Bt,Uie King- United dom Bath, Bath, of versity sia Rus- Petersburg, St. University, State Han- Germany Technologies, nover, Optical for tre Germany In- Han- nover, - Disciplines), Engineering Across novation and (Photon- Optics, PhoenixD ics, Excellence of Germany Hannover, nover, Han- University Leibniz Optics, tum Demircan A. Steinmeyer Babushkin 19:15 I. Pape ∙ Spectra Supercontinuum of Switching All-Optical TUE CD-5.4 lrfs wthn ie,hg con- high times, switching ultrafast achieve We mechanism. interaction nonlinear a by dis- enabled wave, persive a using su- spectra induced percontinuum ssion soliton of of parts switching all-optical discuss We Germany many Universit .Melchert O. ; ; 2 5 6 ; .Arkhipov R. , eateto hsc,Uni- Physics, of Department ntttf Institut 7 a onIsiue Berlin, Institute, Born Max ä ; uBri,Bri,Ger- Berlin, Berlin, zu t 6,7 OM6 ROOM ; 1,2,3 1,2,3 1,2 ; .Morgner U. , 3 rca University Wroclaw ü 4 .Skryabin D. , hsk Humboldt- Physik, r ; aut fPhysics, of Faculty ; ; .Tajalli A. , 1 nttt fQuan- of Institute 2 3 4 Leibniz-Institute anvrCen- Hannover 4 t Petersburg St. .Willms S. , 1,2,3 ; 2 Cluster 1,2 5 and , G. , A. , 1,2 , pcrsoi rpriso this revealed. of is material red-emitting properties extremely of spectroscopic An polarization-anisotropy exhibits strong and cleavage. structure perfect layered possesses monoclinic, a from is It grown ux. the is crystal double molybdate Eu:CsGd(MoO4)2 at.% 17 Russia Novosibirsk, Sciences, of Chemistry, Academy Russian of Inorganic Branch Siberian of Institute an,France Normandie, , Caen Caen de (CIMAP), Université Photonique CEA-CNRS-ENSICAEN, la 6252 UMR et Matéri- aux les Ions, les sur Recherche de Russia Petersburg, St. sity, Spain Tarragona, 1 Aguiló Pavlyuk ampliers. diode-pumped power peak high material large-scale of for promising family this proper- making ties spectroscopic ne of a tailoring enables ions buer dierent France 60001, Cedex, CS Barp Le Sablières, des avenue 15 E43TE19:15 ∙ Structure Layered a with Crystal Eu:CsGd(MoO4)2 Monoclinic Red-Emitting of Spectroscopy Polarized and Growth TUE CE-4.3 France Caen, Juin, Maréchal Blvd 6 (CIMAP), Caen, de Université Photonique CEA-CNRS-ENSICAEN, la 6252 UMR et aux .Volokitina A. nvria oiaiVrii(URV), Virgili i Rovira Universitat odpn fCF:d+with CaF2:Nd3+ of co-doping e 1 .Díaz F. , 4 .Slimi S. , OM7 ROOM 1,2 1 ; n .Mateos X. and , .Loiko P. , ; 1 ..Solé R.M. , ; 2 4 TOUniver- ITMO ..Nikolaev A.V. 2 E CESTA, CEA ; 3 Centre 3 1 A. , M. , 1 ; cdm fSine,Innsbruck, Sciences, Austria of Austrian Academy of Information Quantum 1 0 mo pia ber. optical of km record 100 a over entanglement light- matter distribute to use their and ter, regis- quantum a each dier- in matter-qubit ent a photons, with entangled telecom maximally of of trains production the demonstrate We Austria Innsbruck, Schupp J. .Canteri M. Universit f B53TE19:15 ∙ ions trapped with networking quantum Multimode TUE EB-5.3 (MCQST), M Technology and Science 2 rsrigqatmfrequency wavelength. telecom to polarization- quantum conversion use we preserving 22 bers the to loss attenuation in overcome up To atoms links km. 87 ber Rubidium employing between distant two entanglement demonstrating heralded results present We Germany Garching, f Planck-Institut Saarbr Universit Physik, ü .Krutyanskiy V. nttt o unu pisand Optics Quantum for Institute uihCne o Quantum for Center Munich hsk Ludwig-Maximilians- Physik, r ü ce,Germany nchen, ü ; kn Germany cken, ä 2 ,M t, 1,2 nvriyo Innsbruck, of University OM8 ROOM n .Lanyon B. and , 1,2 .Meraner M. , 1,2 ü ä ce,Germany nchen, ü .Krcmarsky V. , e Saarlandes, des t Quantenoptik, r ; 3 Fachrichtung ; 4 Max- 1,2 1,2 1,2 , , ; ; CLEO ycwt ihteHl displace- Hall wavepacket. the the of ment with with in sync occurs dynamics inter-band the where period, oscilla- multiplied with tions Bloch non-Abelian culiar higher- pe- host that insulators topological show order we work, this In Austria Innsbruck, Informa- tion, Quantum and Optics 19:15 tum ∙ insulators topological higher-order in oscillations Bloch Non-Abelian TUE EC-3.3 ut n eeaiigt broad a structures. lattice to of range generalizing and sults re- numerical and analytical senting .D Liberto Di M. ® Erp-QC2021 /Europe-EQEC OM9 ROOM ; nttt o Quan- for Institute 73 oe i-nrrdsupercontin- sources. uum mid-infrared high- towards power route the open sults re- Our single-mode prole. lead- beam near characteristics with a ber in index nm graded- 2800 from multimode bismuth-gallate to infrared nm the 1000 in supercontinuum generation demonstrate We Warsaw, of Poland University Warsaw, Physics, of and Microelectronics Poland Warsaw, Photonics, of Finland Institute Tampere, 2 University, 1 Buczynski .Pysz D. F34TE19:15 ∙ ber Lead-Bismuth-Gallate multimode graded-index a in generation supercontinuum infrared Octave-spanning TUE CF-3.4 inecece,respectively. eciencies, sion ob- is Stokes with tained 2nd and in- 1st of crystal eration cell. multipass KGW a a in cluded in pulses femtosec- ond stretched of conversion frequency Raman demonstrate We Pessac,France Canteranne, 33600 Photonique, de la de Avenue Cité 11 France Laser, Palaiseau, .Eslami Z. uaiwc eerhNtok– Network Research Łukasiewicz Tampere Laboratory, Photonics ⋅ usa 2Jn 2021 June 22 Tuesday 2 2,3 .Klimczak M. , OM10 ROOM ∼ 1 n .Genty G. and , 1 and 41% .Filipkowski A. , ; ∼ 5 conver- 25% 2 Amplitude ; 3 Faculty 3 gen- e R. , 2,3 1 , ; ; n angle. phase and beams relative two their controlling using and sample scatter- soot highly ing a of extinction total the control we eect, Transparency and Extinction Mutual the on Based University, Netherlands Utrecht Utrecht, Emergent and Phenomena, Matter Extreme Center for and Science NanoMaterials Netherlands Enschede, Twente, of Nanotechnol- University ogy, for Institute MESA+ 1 H53TE19:15 Lagendijk ∙ media scattering strongly in transparency Enhanced TUE CH-5.3 n nailycniuu mouse continuous sample. brain axially an structure dis- and axially nano-lithographic an crete imaging by of POCT capabilities the demonstrate We presented. is coherence (POCT), tomography optical termed ptychographic method, imaging tational compu- 3D high-resolution, new, A .Rates A. ope htncSses(COPS), Systems Photonic Complex 1 OM11 ROOM n ..Vos W.L. and , 1 ; ..Mosk A.P. , 2 ey nttt for Institute Debye 2 A. , 1 ; eso inyo 5 of eciency version of power 490 average an reaching rst in time, the for rate BNA crystal repetition organic the MHz at power scaling average THz investigate We Switzerland Zurich, , Research-Zurich Terahertz Germany Bochum, Bochum, Saraceno Shalaby 19:15 M. ∙ Rates Repetition MHz at BNA Crystal Organic in Source THz Broadband High-Power TUE CC-3.4 n .9 t50Gzwere GHz 530 crystals. PPLN doped at MgO GHz in demonstrated 290 0.89% at and terahertz 0.49% of eciencies level record optical-to-multicycle source, laser two-line .Mansourzadeh S. μ t1%dt yl ihcon- with cycle duty 10% at W 1 ; OM12 ROOM 2 .Wulf F. , 1 urUniversit Ruhr 1 .Vogel T. , × 10-4. 1 n C.J. and , ; 2 Swiss ä 1 t ,
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D44TE19:30 ∙ Source Dual-Comb Integrated Using RF to Downconversion Spectrum Optical Broadband TUE ED-4.4 .Dmitriev N. usa unu etr Moscow, Center, Quantum Russian ; ; 2 ocwIsiueo Physics of Institute Moscow 3 asn & Institute R&D Samsung OM1 ROOM 3 n .Bilenko I. and , 1,2 ; 4 .Voloshin A. , aut fPhysics, of Faculty ; 5 Institute 1,5 1,4 , ; rlo cteiglnt n new ultracold molecules. of and formation the length for paths con- scattering of applications: trol propose potential We two control systems. ultracold in of perspectives new source THz open of developments Paris-Saclay, New Université France Orsay, Paris- ENS Saclay, Paris-Sud, Université France Orsay, 4 Uni- Paris-Saclay, versité Paris-Sud, Université d’Orsay, CNRS, Moléculaires Sciences des Université France Orsay, Paris-Saclay, Canada Paris-Sud, Université Toronto, University Toronto, 2 and Control, of Information Center and Quantum Quantum Chemistry, for of ment Physics A22TE19:30 Koenig Lecomte ∙ gases? ultracold of eld the to bring radiation THz could What TUE EA-2.2 .Devolder A. aoaor iéCto,CNRS, Cotton, Aimé Laboratoire CNRS, Physique, Chimie de Institut 4 n .Dulieu O. and , 2 .Atabek O. , OM2 ROOM oyGop Depart- Group, eory 1 .Desouter- M. , 4 3 ; .Luc- E. , 1 ; Chemical 3 Institut ; ; CLEO fGtebr,Gtebr,Sweden12 Gothenberg, Gothenberg, of Switzerland Lausanne, USA Connecticut, necticut, Sweden Lund, Switzerland Sweden Villigen, 7 Institute, USA Argonne, tory, USA California, Laboratory, Accelerator USA King- California, United dom London, London, United London, Kingdom London, College Cryan Tisch J. Ruberti Robb M. Larsen Kolorenc Feifel Clark A. Bozek Berrah N. Arrel Sanchez-Gonzales 19:30 Garratt Cooper B. ∙ Isopropanol in Migration Hole Valence Inner TUE CG-4.5 USA Northwest Maryville, University, State Innovation, Missouri Hubbard for L D Center Sciences, Natural of USA Fredericksburg, Maxwell Osipov T. Zhaunerchyk Walke D. Johnson A. dy- collective excitation. of and inuence polarizability namic the reveal investiga- tions theoretical exper- and Combined imental metrology. ing streak- attosecond plasmon using giant resonance, around C60 for lays de- photoemission of Measurement Germany Hamburg, Universit physik, .Alexander O. psl nvriy Uppsala, University, Uppsala hre nvriy rge Czech Prague, University, Charles ; ; ; ® 6 11 10 .Averbukh V. , 4 12 1 5 .Fransinski L. , n .Marangos J. and , 3 ; 1 1 1 .Maria-Hernando P. , .Brahms C. , ron ainlLabora- National Argonne Erp-QC2021 /Europe-EQEC tnodPLEInstitute, PULSE Stanford 4 .Sathe C. , .Li S. , ntttf Institut .Ueda K. , 12 ; 1 .Coee R. , 1 .Wolf T. , 10 .E Rubensson J.-E. , .Kumagai Y. , 8 4 1,2 9 OM3 ROOM A VLaboratory, IV MAX .Marinelli A. , .Bostedt C. , 1 .Doumy G. , 11 .Kjellsson L. , .Driver T. , 4 ; 2 .Tan A. , .A Haddad Al A. , nvriyCollege University 9 ä 1 ; nvriyo Con- of University .Barillot T. , abr,DESY, Hamburg, t 1 ü .Agaker M. , 13 4 1 Experimental- r 1 4 3 8 ; LCNational SLAC .Buksbaum P. , .Bearpark M. , .Lutman A. , .Wood D. , ; .Squibb R. , .Vacher M. , 6 1 11 Paul-Scherrer ; .Jarosch S. , 1 11 Department .Walter P. , 1 ; University 1 ; 5,6,10 1,3,4 Imperial 10 5 5 4 7 E. , 7 R. , EPFL, 5,6 7,8 T. , M. , D. , P. , 1 J. , V. , 4 A. , C. , 11 14 J. , 1 1 3 1 1 4 , , , , , , , , ; ; 74 aemd-okdo Q-switch continuous- a regime. mode-locked a or mode-locked both wave in taper.operates chalcogenide a polarization in laser nonlinear rotation on ber based mode-locked thulium- doped rst the demonstrate We 19:30 Canada Montreal, University, ∙ taper chalcogenide a in NPR by enabled 2 TUE CJ-2.5 .AagradM Rochette M. and Alamgir I. μ ⋅ eutn ae stnbeand tunable is laser resulting e oelce brlaser ber mode-locked m usa 2Jn 2021 June 22 Tuesday OM4 ROOM ; McGill t10Woutput. 150mW depth at sub-picosecond modulation 80% and with widths 1064nm at pulses between dark laser. shows Cross-correlation Nd:YVO4 and generation summode-locked synchronized genera- frequency through pulse tion dark free-space intra-cavity of demonstration First Stockholm,Sweden Pasiskevicius Technology, of 19:30 Institute V. and rell, ∙ Generation Pulse Dark Intra-Cavity Free-Space TUE CA-4.4 .Buzl,M iaso,F Lau- F. Widarsson, M. Brunzell, M. OM5 ROOM ; Royal ltd n hs fa ultrashort an pulse. laser of phase and am- time) plitude + spa- space (1D of tiotemporal the measurement for single-shot technique a in- terferometry, spectral supercontinuum shot single- grating transient present We USA Park, lege Applied Col- and Maryland, of University Physics, Electronics in search Milchberg 19:30 H.M. ∙ (TG-SSSI) Interferometry Spectral Supercontinuum Single-shot Grating Transient TUE CD-5.5 rs n aif h a-u crite- fan-out the rion. satisfy and trast ..Hnok .Zhdor and Zahedpour, S. Hancock, S.W. 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LM-Uiest eLmgs ioe,France Limoges, Limoges, de France Limoges, Université LEUKOS, - XLIM 3 1 .Sylvestre T. , .Couderc V. , ; 2 e okUiest b hb,AuDhabi, Abu Dhabi, Abu University York New 1,2 .Paredes B. , 1,2 .Tombelaine V. , 3 1 .L Auguste J.-L. , .Reynaud F. , ; ls htnc mH Ham- GmbH, Photonics 5 Class ; aoaor InterdisciplinaireLaboratoire ; 1 n .Rasras M. and , eywa ekpower peak weak very e 3 ET-T-Université - FEMTO-ST ç n France on, 1 n .Leproux P. and , 2 1 .Huss G. , .Fabert M. , 1 ; 2 A.N. , 1 1 New A. , 1 ; ; r ihhg otato ercieidxadslight and index refractive of asymmetry. dual-core contrast structual high with - optical bre dual-core signal all-solid – in-house fabricated non- nm) linear, highly a (1030 using approach, switching control pulse nm) two-colour (1560 a present We Ilkovi tre, 737 00Ven,Austria Vienna, 1040 27-387, nvriyo asw atua5 203Warsaw, 02-093 5, Pasteura Warsaw, Poland of University Poland eeprmnal bev nci Kerr-nonlinearity on-chip observe experimentally We China Shanghai, Sciences, of Academy Chinese Technology, Information and crosystem Mi- of Institute Shanghai Informatics, for Materials tional genera- signal the aects tion. of strongly use beams the that laser show focused and method, E-FISH the plas- using non-equilibrium mas in measurements eld analysis electric experimental of and theoretical new a present We France Palaiseau, Polytechnique, École Biosciences, Wólczy Photonics, & electronics 1 Uherek F. g.Lnb,Denmark Lyngby, Kgs. Ou ∙ Resonator Microring 4H-SiC-on-insulator a in Oscillation Parametric Optical Dual-pump TUE CD-P.22 powers signal highlighted. high are pump. and Raman eects saturation counter-propagating and a Transient the on of inuence width the pulses of study experimental an report We Lille, Molécules, et France Atomes Lasers des Physique - PhLAM - Mussot A. and ski, ∙ ampliers Raman counter-pumped in amplication pulse of short regime saturated the of investigation Experimental TUE CD-P.21 France Palaiseau, technique, Klein ∙ Beams Gaussian E-FISH Focused Using with Plasmas in Measurements Field Electric TUE CD-P.20 ∙ Fibre Dual-Core Asymmetric in Switching Two-Colour All-Optical Ultrafast TUE CD-P.19 .Shi X. Kudlin- A. Conforti, M. Szrigiser, P. Vanderhaegen, G. Chng T.L. Longobucco M. eateto ls,Łkseiz-Isiueo Micro- of Institute - Łukasiewicz Glass, of Department 1 ; 2 1 ; T ooi,TcnclUiest fDenmark, of University Technical Fotonik, DTU ; ; 1 1 .Fan W. , aoaor ePyiu e lsa,ÉoePoly- École Plasmas, des Physique de Laboratoire 3 2 4 č htnc nttt,T in Gußhausstraße Wien, TU Institute, Photonics eateto htnc,Fclyo Physics, of Faculty Photonics, of Department .Baltu A. , v ,810 rtsaa Slovakia Bratislava, 04 841 3, ova 1 .Starikovskaia S. , CLEO 1,2 1 .Yi A. , ; .Astrauskas I. , š nvriyo il,CR,UR8523 UMR CNRS, Lille, of University ka 3 ; .Buczy R. , 2 2 ® .Ou X. , tt e aoaoyo Func- of Laboratory Key State Erp-QC2021 /Europe-EQEC ; ; 2 4 ń 1 aoaor ’piu et d’Optique Laboratoire nentoa ae Cen- Laser International k 3,0-1 Warsaw, 01-919 133, ska n .C Schanne- M.-C. and , 3 2 ń .Pug A. , .Rottwitt K. , ski 1,2 n .Bugár I. and , ž lys 3 .Pysz D. , 1 n H. and , OM1 ROOM 1,4 1 , ; 79 inidctsSCi oeta aeilfrtefre- the for material potential a generation. comb is quency SiC indicates tion resonator. microring 4H- a SiC-on-insolator in oscillation parametric optical dual-pump based emr in hncnetoa waveforms. conventional than ecient more can be pulses We carrier channels. compact temporally ber that of demonstrate theory perturbation the ac- the of on shape curacy pulse carrier a of impact the examine We Kingdom United Birmingham, University, Aston Technologies, tonic Russia Computational Novosibirsk, Technologies, and Information for Center Research eral 1 ∙ Nonlinearity Fiber of Compensation the for of Methods Accuracy Perturbation the on Waveform Signal of Impact TUE CD-P.23 ovrinecec f14%WmfrSGa 0 nm. 405 at SHG for %/Wcm 1.4 of eciency conversion 3.43 engineering. of eld period cive with crystal RKTP 3-mm thick a of poling periodic high-quality demonstrate We Sweden Stockholm, Technology, of Institute ∙ (3.43 Short Period with PPRKTP Aperture Large of Fabrication TUE CD-P.26 bandwidth. gen- eration the of widening of in uctuations role width the waveguide the study we Moreover, waveguide. silicon interdigitated poled an in generation second-harmonic in- duced electric-eld the of improvement an demonstrate We Italy Trento, Kessler, Bruno dazione Italy Trento, Trento, of sity 1 disorder the ∙ of role the Waveguides: Silicon Generation In Harmonic Second Induced Field Electric TUE CD-P.25 532nm. at 17W of power output high resolved highly a a for with method knowledge be- our presented in is time transfer rst harmonic the for RIN second and the fundamental Talence, of tween characterization Bordeaux, complete de A Université and France CNRS IOGS, Goeppner ∙ study. transfer relative-intensity-noise resolution high at and W nm 17 532 of generation harmonic second pass Single TUE CD-P.24 ..Suchkov S.V. ...Le .Zkuks n .Canalias C. and Zukauskas, A. Lee, C.S.J. Franchi R. Dixneuf C. ooiis tt nvriy ooiis,Russia Novosibirsk, University, State Novosibirsk aocec aoaoy eateto hsc,Univer- Physics, of Department Laboratory, Nanoscience ⋅ usa 2Jn 2021 June 22 Tuesday ; 2 zrih ytm,Psa,France Pessac, Systems, Azurlight 2 .Santarelli G. , 1 1,2 .Vecchi C. , μ 1 .Guiraud G. , )UigCecv il Engineering Field Coercive Using m) ..Reduk A.A. , 1 .Ghulinyan M. , PKPsosanormalized a shows PPRKTP e 1 n .Traynor N. and , ; 2 .Ye H. , 2 1,2 esr n eie,Fon- Devices, and Sensors n ..Turitsyn S.K. and , ; 3 so nttt fPho- of Institute Aston 1 .V Bardin Y.-V. , 2 n .Pavesi L. and , μ sn coer- using m demonstra- e ; T Royal KTH 2 ; 1 ; LP2N, 2 2 Fed- M. , 1,3 1 ; ; oaUiest,S,Bulgaria Soa, University, Soa extreme-ultraviolet studies. plasma-based generation for and tool control, future great shape a pulse temporal accurate 4.5 and to 100mJ, 1.45 from spec- tunability with source, tral light mid-IR nanosecond a is TI-REX Netherlands Amsterdam, Universiteit, Netherlands Amsterdam, Nanolithography, 2 for Center Versolato iuetebihns fLDpme uiecn con- centrators. luminescent LED-pumped of brightness the nitude France Arpajon, France F-91297, DIF, Palaiseau, 91127, Laboratoire Fabry, CNRS, Charles School, Graduate d’Optique Institut Georges P. ∙ light using recycling magnitude of order one by concentrators luminescent of brightness the Enhancing TUE CD-P.30 Amplica- Parametric Optical tion. pump for or illustrated temperature as wavelengths, power, of re- changes with to processes spect conversion the increases frequency dramatically of crystal robustness nonlinear the of segmenta- tion with quasi-phase-matching of Combination France Metz, LMOPS,, CentraleSupélec, Montemezzani ∙ Amplication Parametric Optical Robust for Segmentation Crystal and Matching Quasi-Phase TUE CD-P.29 ∙ in Experiments nanolithography for laser Infrared Tunable A TI-REX: TUE CD-P.28 chaos. and optical-rectication, tion, genera- ef- harmonics its higher discuss processes, and 3ed-order source ciency, nonlinear- this optical het- from SHG of present plasmonic source We ity. new subwavelength-sized a explore deep to erodimer a use We Israel ∙ Nanoantennas Plasmonic in Response Optical Nonlinear Pure TUE CD-P.27 6Wfo 1mm from (63W 2kW/cm emitting sources light incoherent brightest .Pichon P. Al-Mahmoud M. Mazzotta Z. Niv A. aeLB eateto hsc n srnm,Vrije Astronomy, and Physics of Department LaserLaB, swr hw o oehneb n re fmag- of order one by enhance to how shows work is ; e-uinUiest of University Ben-Gurion 1,2 1 1 .Nourry-Martin M. , n .Balembois F. and , n .Witte S. and , 1,2 srslsi ytmcutn mn the among counting system a in results is 2 ; .Mathjissen J. , 2 1 ). 1 eatetof Department .Coda V. , 1,2 1 2 1,2 ; .Rangelov A. , ; ; 1 μ 2 1,2 .Druon F. , nvriéParis-Saclay, Université ,pleeeg pto up energy pulse m, nvriéd Lorraine, de Université 1 .Eikema K. , dacdResearch Advanced ee,SeBoker, Sde Negev, e oeia Physics, eoretical ; 1 2 .Darbon S. , E,DAM, CEA, 1 n G. and , 1,2 O. , 2 /sr 2 , ;
Tuesday Posters Tuesday Posters .Ristau D. bonding. room-temperature the using process fabrication improved by plished quasi-phase-matched for wavelength-conversion. stack aper- GaAs mid-IR whole 25-plate a the of over ture transmittance high achieved We Japan Tokyo, sit Germany Oskouei ∙ Bonding Room-temperature with Fabricated Devices Wavelength-conversion Quasi-phase-matching Mid-infrared for Stacks GaAs Multiple-plate of Improvement TUE CD-P.31 Rutkowski comb frequency ∙ optical infrared near a on based spectroscopy transform Fourier ring-down Cavity TUE ED-P.1 Session Poster ED ED-P: 14:30 – 13:30 laser investigated. the is of high- bandwidth inuence the a Additionally combining routines. coating by establishing and multiplexer mirrors a including THG BBM pro- resolution IBS produce an to for precision cess thickness layer our raised We USA Albu- querque, Mexico, New of University Astronomy, and Physics Universit niz ∙ mirrors tripling frequency of characterization and Manufacturing TUE CD-P.33 parameters. beam pump experiment. and lengths in crystals range mid-IR to two radiation of lasers down-conversion ber parametric single-pass the eciency of 40% to leads optimization lengths PP-crystals Russia Fryazino, ”IRE-Polus”, 3 of DFG Nearly-Degenerate Two-Cascade of Eciency the Improve to Optimization Lengths PP-crystals TUE CD-P.32 ∙ .Soi .Tnmt,adY Takahashi Y. Tanimoto,and R. Shoji, I. .Dubroeucq R. Balendat S. .Lroo,A uysk,adV Tyrtyshnyy V. and Gulyashko, A. Larionov, I. μ ä hoeia oe ie h eednebtenPP- between dependence the gives model theoretical e aito rmFbrNRLasers NIR Fiber from Radiation m anvr anvr Germany Hannover, Hannover, t 4 .Rudolph W. , 1,2,3 ; 1 2 ; nttt fQatmOtc,LinzUniver- Leibniz Optics, Quantum of Institute 1 ; ä .Jupé M. , 1 1 anvr anvr Germany Hannover, Hannover, t nvRne,CR,IR(ntttde (Institut IPR CNRS, Rennes, Univ ae etu anvre . Hannover, V., e. Hannover Zentrum Laser 1 .G A. , 1,3 4 .Zuber D. , .Steinecke M. , ł uszek 2 .Sobo G. , 2,3 .Morgner U. , ; 1 .Jensen L. , ; 3 heiD Leib- PhoenixD, hoUniversity, Chuo swsaccom- was is ń 2 n L. and , ; 1,3 2,3 ; 4 A.K. , Dept. and , NTO utpe easuigatm-eovdfast-scanning time-resolved spectrometer. transform a Fourier the using retrieve decays and multiplex source a comb on frequency based near-infrared spectroscopy ring-down cavity perform We France Rennes, Poland 6251, Wroc UMR - Rennes) 2 de Physique eut rvd rsetfralotclinterconnects. all-optical for prospect a provide beams. results by Bessel counter-propagating induced two be or single can nonlinearity, structures with multi-channels Playing in complex beams medium. Bessel photorefractive of a interactions study numerically We France Metz, F-57000 LMOPS, FranceSupélec, Metz, 57000 1 Acef 1736 to nm 1095 spanning THz, nm. 20 and 8 by separated scattering. polari- ton stimulated by KTiOPO4 Ra- y-cut in multi-ordered generation into man depletion pump 55% report We KTH, Technology, of Sweden Institute Stockholm, Royal Physics, Applied of ∙ Beams Bessel By Induced Structures Waveguiding Optical Complex TUE CD-P.36 2%. under uctuations power resid- cou- ual peak-to-peak a 80% 5- with reached, A an were eciency and pling crystal. eciency PPLN conversion a 5.5%/(W*cm) using device fre- sum generation all-bered quency an of development the on report We France Paris, SYRTE, ∙ devices generation frequency sum non-linear bered and industrial Toward TUE CD-P.35 ∙ regime the nanosecond in KTiOPO4 from Raman IR Multi-ordered TUE CD-P.34 .Chai Y. Mehlman A. Laurell F. and Lindberg, R. Mølster, K.M. nvriéd orie etaeuée,LOS F- LMOPS, CentraleSupélec, Lorraine, de Université ae ie lcrnc ru,Fclyo Electronics, of Faculty Group, Electronics Fiber & Laser 1 ł .Boutin A. , wUiest fSineadTcnlg,Wroclaw, Technology, and Science of University aw 1,2 .Marsal N. , 1,2 CLEO .Holleville D. , 2 .Lepage K. , uptsetu ossso combs of consists spectrum output e ; ; 2 yi,Prs France Paris, Kylia, 2 hi nPoois Centrale- Photonics, in Chair ® 1,2 n .Wolfersberger D. and , Erp-QC2021 /Europe-EQEC 1 2 .Lours M. , n .Fulop L. and , 1 ; .Bise S. , Department 2 ; 1 LNE- 1 O. , OM1 ROOM OM2 ROOM ese 1,2 ; ; 80 ovrinpoesi olna ukcrystals. bulk nonlinear in down- process Parametric conversion Spontaneous the via implemented be Parigi V. asinqatmsae ytemd eetv pho- state. Gaussian selective non- multimode mode a generate to the to addition by ton scheme states quantum theoretical gaussian a propose We France Paris, 75005, France Paris, F-75252, Jussieu, place 2 4 France, de College Université, ENS-PSL CNRS, Universite, Sorbonne Brossel, ∙ process SPDC using eld multimode quantum a to addition photon selective Mode TUE CD-P.37 .Oguri K. Hitachi K. Tsuchizawa ∙ waveguide silicon-nitride dispersion-controlled a by solely self-referencing f-3f with locking carrier-envelope-oset of method Simple TUE ED-P.2 transfer charge inter-valence of mechanism. terms volume. in in discussed observed was not is sam- and the ple of surface the from on observed ceramics Cr:YAG was transparent emission light white Laser-induced Poland Wro- claw, Research, Structure and Temperature Low of stitute ∙ ceramics YAG in Cr-doped observed transparent emission light white of features Novel TUE CD-P.39 40GHz demonstrated. ecient successfully is and operation Stable 40GHz to pulses. signal in- and the clock of put widths switching temporal the through considering 3- investigated experiments a are employing QPM-LN switch cm-long all-optical an of Characteristics Japan Tokyo, Science, of ∙ Nonlinearities Cascaded Using Switch 40GHz to 40GHz QPM-LN-Based TUE CD-P.38 .Kaali S. .Ishizawa A. Strek W. and Tomala, R. Hanulia, T. Chaika, M. Kawanaka K. and Abe, G. Fukuchi, Y. obneUiest,CR,LP,4paeJsiu F- Jussieu, place 4 LIP6, CNRS, Universite, Sorbonne ⋅ usa 2Jn 2021 June 22 Tuesday 1 1 1 .Roeland G. , ; 1 n .Walschaers M. and , .Cong G. , 4 1 .Aihara T. , 1 T ai eerhLbrtre,Atsugi- Laboratories, Research Basic NTT .Kawashima K. , 3 1 .Yamamoto N. , .Roman-Rodriguez V. , 4 .Yoshida K. , 1,2 1 .Kou R. , ; 1 aoaor Kastler Laboratoire 3 1,2 .Yamada K. , ; oy University Tokyo .Nishikawa T. , sphenomenon is 3 .Xu X. , 2 .Treps N. , 3 scan is and , 1 ; T. , In- 1 2 , , ; as ri utmd pia brudrteKr self- Kerr the under ber process. optical cleaning multimode crys- in X(2)-X(3) or in either tals, generated is wave Stokes band ytm prtn ntepcscn domain. picosecond the in operating system, imaging CARS multiplex self-referenced a developed We Poland France deaux, 2 1 h,Japan shi, devices. supercontin- chip-based the mid-IR of control performance uum to opportunities unique pro- vide could graphene mid- dynamics, supercontinuum the the ing enhance bandwidth. eectively supercontinuum infrared could waveguides graphene/ hybrid SiGe that demonstrate experimentally We France Ecully, Lyon, de Grillet Torre ∙ waveguides SiGe Covered Graphene using Mid-IR the in Generation Supercontinuum Enhanced TUE CD-P.42 surface results. simu- experimental the density-functional the on corroborate Time-dependent lations generated lm. are the lm of thin AlN and in propagation har- monics order high beam that conclude of we characteristics, measurement spectral the on Based Spain Terrassa, Física, de partament Austria enna, 1 ∙ lm thin in AlN generation harmonic high in dominance Surface TUE CD-P.41 Krupa ∙ nonlinearities order third and second using by supercontinuum generated pulse picosecond with imaging CARS multiplex Self-referenced TUE CD-P.40 ecniumsetu 4020 ma 4 Blevel) dB -45 at nm su- (400-2500 2.5-octave-wide spectrum a percontinuum and of light third-harmonic method trough robust self-referencing and f-3f with simple locking carrier-envelope-oset very a demonstrate We Japan Japan 3 .Demongodin P. Seres J. Wehbi S. nvriyo ioe-LM ioe,France Limoges, Bor- Center, Technology Lasers Limoges-XLIM, & Optics ALPhANOV of University tmnttt-E4,Tcnsh Universit Technische E141, - Atominstitut ltomPooisRsac etr IT Tsukuba, AIST, Center, Research Photonics Platform 1 ; 3 1 .M Hartmann J.-M. , 4 ; .Wabnitz S. , n .Monat C. and , T eieTcnlg aoaois Atsugi-shi, Laboratories, Technology Device NTT 4 1 IT oe Italy Rome, DIET, 1,2 .Seres E. , ; 2 .Mansuryan T. , oy ek nvriy dcik,Japan Adachi-ku, University, Denki Tokyo ; ; 2 3 nvria oiènc eCtlna De- Catalunya, de Politècnica Universitat nttt fPyia hmsr,Warsaw, Chemistry, Physical of Institute 1 .Armand R. , 4 1 .Vergnole S. , .Serrat C. , ; 1 2 ; 2 E-EI rnbe France Grenoble, CEA-LETI, .Reboud V. , 1 ntttdsNanotechnologies des Institut 1 .Fabert M. , 1 .Sinobad M. , 2 2 n .Schumm T. and , n .Couderc V. and , 2 .M Fedeli J.-M. , 1 .Tonello A. , og impact- rough ä in Vi- Wien, t 1 .Della A. , large e 2 1 C. , K. , 1 1 ; ; ; ; hs eain oprdt i-RQCLs. dierent mid-IR to shows compared relations and phase emission modulated FM indicates Scalari G. and ∙ K 70 above operating Combs Frequency Laser Cascade Quantum THz of Spectroscopy Transform Fourier Interference Wave Shied TUE ED-P.3 silicon- 5-mm-long dispersion-controlled waveguide. nitride a by solely efrneFuirTasomspectroscopy. Transform Fourier In- Wave terference Shied by combs Quan- frequency THz Laser of Cascade tum phases and coherence the investigate We 2 .Forrer A. N-siuod ooiaeNntcooi,Rm,Italy Rome, Nanotecnologie, e Fotonica di CNR-Istituto 1 .Cibella S. , 1 ; 1 T Z ETH 2 .Torrioli G. , ü ih Z rich, 2 .Beck M. , ü ih Switzerland rich, 1 .Faist J. , result e 1 , ; tto hti xetdt ii ute rgesa the at progress further limit to sub- expected lim- is unrecognized that previously itation Schawlow- a decades. imposes recent noise the Townes in dramatic precision a of seen increase has metrology based Frequency-comb Humboldt-Universit .Mnmni .Steshchenko, Du-Burck T. Manamanni, K. locking injection optical via and Comb electrical Frequency based semiconductor a of level 10-13 at demonstration transfer frequency Stability TUE ED-P.5 ∙ metrology TUE ED-P.4 .Steinmeyer G. calwTwe ii nfeunycomb frequency in limit Schawlow–Townes e 10 − 20 ; rcinlucranylevel. uncertainty fractional aoaor ePyiu e aesUMR Lasers des Physique de Laboratoire CLEO ; a-onIsiu,Bri,Germany Berlin, Max-Born-Institut, ä ,Bri,Germany Berlin, t, ® Erp-QC2021 /Europe-EQEC ∙ .Rni,adF. and Roncin, V. OM2 ROOM NOTES ; 81 ar-eo id iharltv tblt t1-3level. 10-13 at stability relative 1.55 a with a diode report, Fabry-Perot of We stabilization frequency performances. the references stability frequency metrological transportable with and compact need systems quantum or Villeta- spectroscopy physics, Fundamental Nord, Paris France Sorbonne neuse, Université 7538, CNRS a oiea 1. mwr esrd yeecon- Hyperne measured. were nm 514.1 at iodine molecu- lar of transitions R(73)46-0 P(91)48-0, P(57)45-0, 240- Japan Yokohama 8501, Hodogaya-ku, Tokiwadai, 79-5 versity, Hong wavelength ∙ telecom at laser narrow-linewidth a using iodine molecular of spectroscopy High-resolution TUE ED-P.6 .Iea .Kt,Y oi .Aaas,adF.-L. and Akamatsu, D. Goji, Y. Kato, R. Ikeda, K. ⋅ bouefeunyadhprn tutr fthe of structure hyperne and frequency absolute e usa 2Jn 2021 June 22 Tuesday ; eateto hsc,Ykhm ainlUni- National Yokohama Physics, of Department μ Quantum-dot m nvriy ooiis,Russia Novosibirsk, RussiaUniversity, Novosibirsk, RAS, SB Physics Mesenzova r discussed. magnetometry are atomic to va- applications Possible buered cells. cesium por with schemes. performed standard were of high- experiments capabilities the the expand notice- observing ably that resonances for level-crossing schemes zero-eld quality novel propose We Russia Novosibirsk, University, nical ∙ Magnetometry Atomic in Applications for Cells Vapor Cesium in Resonances Level-Crossing High-Quality TUE ED-P.7 Hamiltonian. four-term hyperne a measured to the splitting tting by calculated were stants .Brazhnikov D. 1 n .Goncharov A. and , 1,2 .Ignatovich S. , ; 3 1,2,3 ooiis tt Tech- State Novosibirsk 1 .Vishnyakov V. , ; ; 1 2 nttt fLaser of Institute ooiis State Novosibirsk 1 I. , e
Tuesday Posters Wednesday Orals hi:RbroL oi Sapienza Italy Voti, Rome, Roma, Li di Università Roberto Chair: Metamaterials Acoustic and Crystals Phononic JSI-2: 10:00 – 8:30 rpgto rqec a signi- cantly. gap slowly frequency of propagation phonon the cells extend that size unit varying ve of sisting con- structures meta-beam of tapered use phonon the present block We propagation. eciently to tai- lored be can metamaterials Engineering, Acoustic of Japan Sapporo, University, Hokkaido Faculty Physics, ∙ insulation thermal for beam metamaterial nanophononic 8:30 tapered Perfect-bandgap (Invited) WED JSI-2.1 .Wright O. OM1 ROOM ; iiino Applied of Division cec,Uiest fElectro- Japan of Chofu, 2 University Communications, Science, ae nT:uO n Tm:Sc2O3 and Tm:Lu2O3 laser on media based gain mode- combined Kerr-lens locked the on report We Germany Berlin, f Leibniz-Institut Tokurakawa 8:45 ∙ Sesquioxide Tm-doped on Based Laser Media Gain Combined Mode-locked Kerr-lens Optical-cycle Sub-9 WED CA-5.2 8:30 2.4 at Oscillator fs-Cr:ZnS SESAM-Modelocked 1-Watt WED CA-5.1 Spain Tarragona, Universitat Virgili, i Mateos, Rovira Xavier Chair: Lasers Mid-infrared CA-5: 10:00 – 8:30 EA omdlc 2.4- modelock GaSb-based to novel a SESAM present We Switzerland Keller U. and Phillips, C.R. Golling, M. Gaulke, M. ∙ uptpwro rma250 a GHz. from 0.5 to W scalable cavity, 1 MHz of power average output at pulses limited transform fs 120 producing oscillators, Cr:ZnS .Suzuki A. .Br,BO lyi,J Heidrich, J. Alaydin, B.O. Barh, A. etu f Zentrum 1 OM2 ROOM .Kr C. , 1 ; ü ; Lasermaterialien, r T uih Z Zurich, ETH 1 ü nttt o Laser for Institute Kristallz r ä nkel 2 n M. and , ü μ chtung, m ü rich, μ CLEO m ; edmntaeahbi integrated hybrid a demonstrate We Lafayette, USA Lausanne, West University, Purdue (EPFL), Switzerland Lausanne Technology of Institute Federal Swiss Kippenberg Snigirev Siddharth A. Weng 8:45 W. ∙ LiDAR for Laser Integrated Hybrid Frequency-agile, Low-noise, WED CB-3.2 pulse long lasers. ns tapered-waveguide output from 3.3 operation W under 27.4 >18 power of at ex- value W/mm/mrad an brightness studied obtain cellent is to width experimentally trench guiding Germany Berlin, gGmbH, Knigge and A. Wenzel, H. Koester, J.-P. Klehr, ∙ 8:30 values brightness high extremely obtaining lasers tapered-waveguide pulsed nanosecond of investigation Experimental WED CB-3.1 King- United dom Guildford, Surrey, of University Sweeney, Stephen Chair: Applications LIDAR for Technologies CB-3: 10:00 – 8:30 .Lihachev G. A. Zeghuzi, A. Christopher, H. ® nuneo h aea index lateral the of inuence e Erp-QC2021 /Europe-EQEC 1 .He J. , ; 1 Ferdinand-Braun-Institut 1 .Liu J. , OM3 ROOM ; ; 1 1 1 .Riemensberger J. , ..Wang R.N. , 2 1 nttt fPhysics, of Institute xdMM Lab, OxideMEMS .Bhave S. , 1 .Tian H. , 2 n T. and , 1 V. , 2 1 , , 82 ⋅ Huang .Ferreira R. Dol Martin Tignon J. 8:30 ∙ emission THz coherent synchrotron-like for graphene Corrugated Mangeney, WED CC-4.1 Juliette France Paris, LPENS/CNRS, Chair: Sources THz Approach Novel CC-4: 10:00 – 8:30 C42WD8:45 Gongora Totero ∙ Metasurfaces Time-Dependent on Based Sources Terahertz WED CC-4.2 France Palaiseau, Saclay, CNRS- France France Palaiseau, Technology, and Research Paris, Cité, Paris Sorbonne Université, Paris-Diderot, Sorbonne Université CNRS, PSL, Université ENS, supérieure, normale 1 admmtsraeehbtn sub- exhibiting metasurface random time-dependent a demonstrate We Peccianti M. and Fratalocchi A. features. ing interest- unique show of devices characterization these Raman and K at 4 measurements Transport spectral range. THz the in tunable diation ra- synchrotron-like generate to tial poten- their show and devices based Science, graphene corrugated investigate We Materials Japan Tsukuba, for Institute (KAUST), Technology and Science of University Kingdom of United 2 Falmer, Sussex, University of Astronomy, Dept. and (EPic), Physics Lab Photonics .Kerjouan R. .Tunesi J. aoaor ePyiu el’Ecole de Physique de Laboratoire RMLGT igAbdullah King PRIMALIGHT, ensa 3Jn 2021 June 23 Wednesday 2 .Watanabe K. , ; 1 2 .Rosticher M. , .Dlubak B. , 3 ls nvriéParis- Université ales, nt it ePhysique, de Mixte Unité 1 .Dhillon S. , OM4 ROOM 1 1 .Peters L. , n .Mangeney J. and , wl ad Arabia Saudi uwal, 1 .Riccardi E. , 2 .Pasquazi A. , 1 .Olivieri L. , 3 4 1 .Seneor P. , .Taniguchi T. , ; 1 .Pierret A. , ; 1 1 4 ; Emergent M.-B. , National 1 1 2 J.S. , P.H. , 3 D. , ales 4 1 1 1 1 , , , , ; ; aino zplmrm with Compar- lms lithography. nanoimprint azopolymer on fabri- cation microstructure combines It reported. is microstructures of replication optical the for process new A USA Germany Ewing, Jersey, New of College Berlin, Berlin, 1 Kurlandski L. E52WD8:45 ∙ Azopolymer on Microstructures Optical of Replication the for Lithography Nanoimprint WED CE-5.2 bers. optical on integrated devices photonic complex realize to combination their and lithography) high- (two-photon printing by 3D resolution segments (MOFs) bers optical microstructured of fab- rication drawing-less the show we Here and Technology, Science of University Abdullah and bertoncini 8:30 a. printing 3D lithography two-photon by segments (MOF) Fiber Optical Microstructured of Fabrication WED CE-5.1 Italy Parma, Parma, University of Milanese, Daniel Chair: Nanostructures and Micro CE-5: 10:00 – 8:30 .Strobelt J. et ohcuef Hochschule Beuth nFilms in 1 OM5 ROOM .Stolz D. , 2 wl ad arabia saudi uwal, n ..McGee D.J. and , ∙ .liberale c. 1 .Leven M. , ü Technik r ; ; 2 King 1 2 e , ; oe-optbeSSMwt ad- with SESAM power-compatible high- of type new a demonstrate We Kingdom United Glasgow, Research, Gravitational for Institute - Glasgow Electronics, Switzerland Quantum Zurich, of Keller Institute U. and Graumann I.J. Lacaille 8:45 ∙ Lasers High-Power for Devices Novel SESAMs: to Sapphire of Bonding Silicate by Tunable WED CF-4.2 strated. 14 with pulses 140-fs MW, femtosecond 100 delivering oscillator power peak 8:30 Highest Germany Hamburg, Pronin ∙ MW 100 WED CF-4.1 Switzerland Geneva, Geneva, Universityof Wolf, Jean-Pierre Chair: Lasers Ultrafast CF-4: 10:00 – 8:30 .Lang L. O. and Fritsch, K. Goncharov, S. ; 2 emtShitUniversity, Helmut-Schmidt .Rowan S. , 1 OM6 ROOM .Saltarelli F. , ra esn Enabled Lensing ermal nDs Oscillator in-Disk 1 μ 1 ; nryi demon- is energy J ..Phillips C.R. , 1 ; T Z ETH 2 2 .Hough J. , nvriyof University ü 1 ih- rich G. , 2 1 , , odn odn ntdKingdom United 2 London, London, tutrsta antb decom- modes. well-dened be into posed cannot that nanophotonic structures many to eciency, applicable coupling method calculating a for develop and nanophotonicwaveguide interrupted an emit- to photon ter single molecular a of coupling coherent demonstrate We Italy 4 Germany Clark A.S. and Pernice hti eta oeiso control, emission to central is states that of density local funda- the of the mentals analyze theoretical We Netherlands Enschede, AE 7500 Twente, Uni- of versity Nanotechnology, for MESA+ Institute (COPS), Systems Photonic Kingdom of EX4 United Exeter, 4QL, University Road, Stocker Exeter, Astronomy, and ∙ Koppens Jin G22WD8:45 Barnes W. States Optical Density of Local the View to Ways 3 WED EG-2.2 8:30 ∙ Waveguide Nanophotonic Interrupted An To Molecule Single A Coupling WED EG-2.1 tralia Aus- Sydney, Sydney, Technology of University Aharanovich, Igor Chair: I Nanoscale the at Coupling EG-2: 10:00 – 8:30 .Vos W. ..Schoeld R.C. Universit ESadCRIO Florence, CNR-INO, and LENS 2 .Ovvyan A. , 2 ..Major K.D. , 3 2 ; .Toninelli C. , ; ä 3 M t 1,2 1 OM7 ROOM CO acln,Spain Barcelona, ICFO, eateto Physics of Department .Horsley S. , 1 1 ; .Boissier S. , 2 ü .Nur S. , se,M nster, 1 meilCollege Imperial 1 ..Hinds E.A. , ; 4 2 W.H.P. , 1 Complex F.H.L. , 1 and , ü 1 nster, L. , 1 , ; ; ed.Epotn the Exploiting elds. gauge non-abelian of detection photonic and generation the for modulated arrays waveguide design 5, We Moro Italy Rome, Aldo 00185 Italy Piazzale Sapienza, Napoli, S. Monte I-80126 II, 4 Federico Angelo, Napoli di Italy Trieste, I-34151 3 11, Costiera Centre for International Salam Abdus a etae akt h exis- the topological to non-Abelian invariants. back of traced tence photon quantization be can that displacement show beam we pumping Italy Rome, 00185 Tau- 19, dei rini Via (ISC-CNR), Council Research National Systems, Complex n .Conti C. and oooia nesnlocalization Anderson topological Brazil Janeiro, de Rio Físicas, Pesquisas de Brasileiro K zu Germany Paderborn, Silberhorn Altland A. Barkhofen 8:45 ∙ Walks Quantum Time-Multiplexed in Transition Localization Anderson Topological WED EC-4.2 8:30 Brosco V. lattice. Lieb generalized a in holonomies Non-abelian WED EC-4.1 Germany Rostock Rostock, University, Szameit, Alexander Chair: II Topology Band EC-4: 10:00 – 8:30 .De S. eateto hsc,University Physics, of Department Università Fisica, di Dipartimento xeietlfaiiiyof feasibility experimental e ö n K ln, 1 .Bagrets D. , oeia hsc,Strada Physics, eoretical 1 1 1 , 2 .Sperling J. , ; OM8 ROOM ∙ ö .Micklitz T. , .Pilozzi L. n Germany ln, 1 aebr University, Paderborn 1,4 ; 2 ..Kim K.W. , ; 1 1 1 nttt for Institute .Fazio R. , .Brecht B. , 2 Universit 3 ; n C. and , 3 ; Centro ouless 2 2 S. , 2,3 CLEO ä 1 e t , , ; ; ae hs os oeac and equalisation. machine- based learning tolerance eective noise implementing phase laser increasing reviewed. complexity, unit network are networks passive optical for coherent technology develop- transceiver low-complexity the of in ment advances Recent Kingdom United London, don, ∙ Detection Coherent and Equalisation Digital with 8:30 Networks Optical Passive 50G/100G Towards (Invited) WED CI-2.1 Fotonik, Denmark Lyngby, DTU Kgs. Zibar, Darko Chair: Processing Signal Digital CI-2: 10:00 – 8:30 .Killey R. ® s nld euigoptical reducing include ese Erp-QC2021 /Europe-EQEC ; OM9 ROOM nvriyCleeLon- College University 83 ⋅ iRm,Rm,Italy Rome, Roma, di France France Paris, (IUF), France de Universitaire Dijon, CNRS UMR 6303, ICB Franche-Comté, ilb lodiscussed. laser also be will SW/MID-IR diagnostics beam 3D Novel new sources. of develop- and ment of beams, combining self-cleaned coherent optics, in including ber results nonlinear recent multimode our present We Russia Novosibirsk, University, state Brescia, di Italy Brescia, Studi dell’Informazione, degli Università Ingegneria di Sciences, Poland of Warsaw, Academy Polish istry, Limoges, 7252, France CNRS UMR XLIM, Couderc Millot G. Mansuryan Granger G. Sapantan .Leventoux Y. optics ber multimode 8:30 nonlinear in advances experimental Latest (Invited) WED CJ-3.1 Kingdom United Bath, Bath, of sity Univer- Wadsworth, William Chair: Generation SC and Optics Fiber Nonlinear Multimode CJ-3: 10:00 – 8:30 ensa 3Jn 2021 June 23 Wednesday ; ; 2 1 6 nttt fPyia Chem- Physical of Institute ; IT ainaUniversità Sapienza DIET, 4,5 1 , OM10 ROOM 1 1 ∙ .Wabnitz S. , .Niang A. , nvriéd Limoges, de Université ; .Krupa K. 1 4 .Fevrier S. , 1 nvriéBourgogne Université .Fabert M. , ; 3 2 ; Dipartimento 3 .Tonello A. , 7 .Wetzel B. , ; Novosibirsk 6,7 n V. and , 5 Institut 1 1 M. , T. , 1 1 , , h olna rpgto fthe of addressing propagation Aer nonlinear the investigated. lasers is ultrashort using waveguides Germany Jena, ing, Engineer- Precision and Optics plied Ger- many Jena, Jena, University Schiller Jisha 8:45 Blothe ∙ pulses ultrashort via Silicon bulk in waveguides of laser-inscription of Analysis WED CD-6.2 dispersion. anomalous and and normal with demonstrated bers single-mode polarization-maintaining and in presented medium is guiding any in chro- nonlinear coecient the between and determine dispersion ratio matic to the approach directly novel A 46100 Spain 50, Burjassot, Moliner Dr. València, Spain de Burjassot, 46100 Mo- 4 50, Electromagnetisme, Dr. liner València, de i Universitat Aplicada Spain Paterna, 46980 9, Escardino Agustín Catedrático València, Materials, de Universitat dels Ciències de versitari 2, Belgium Pleinlaan Brussel, 1050 Brussel, Universiteit Vrije Photonics, and Physics Applied 1 Vermeulen Díez A. Carrascosa 8:30 ∙ coecient nonlinear the and dispersion chromatic between ratio the of technique measurement General WED CD-6.1 Switzerland Zurich, Zurich, ETH Grange, Rachel Chair: Devices Wave Guided CD-6: 10:00 – 8:30 .Alberucci A. Castelló-Lurbe D. eatmn ’pia Universitat d’Òptica, Departament of Department Photonics, Brussels rcs fwiigSilicon writing of process e 1 ; ; n .Nolte S. and , 1 2 .Chambonneau M. , ruhfrIsiuefrAp- for Institute Fraunhofer 2,3 3 eatmn eFísica de Departament 1 OM11 ROOM 2,3 .VnErps Van J. , n ..Andrés M.V. and , 1 .Silvestre E. , .Alasgarzade N. , 1,2 ; 2 ; ntttUni- Institut 1 1 A. , Friedrich- 1 1 C.P. , N. , 1 M. , 2,4 2,3 , ; ; NOTES
Wednesday Orals Wednesday Orals discussed. be will eect size elastic and tuation, photoac- rectication, thermal tals, crys- phononic hypersonic as such topics particular, In nanostruc- materials. in tured propa- GHz-THz the of gation on studies perimental Poland Poznan, University, ∙ crystals phononic 2D in management 9:00 hypersound and Heat (Invited) WED JSI-2.2 .Graczykowski B. rsnaini eoe oex- to devoted is presentation e OM1 ROOM ; dmMickiewicz Adam ae eeae 4 Wa .3& 2.13 at 2.33 mW 548 generated laser Tm:CNGG A transition. electronic 58.2%. and vi- to processes assigned bronic and studied are tal crys- garnet Tm:CNGG from disordered emissions laser Mid-infrared Mianyang, China Physics, Engineering of Academy China Materials, Chemical France Caen, mandie, Nor- Caen de 6252CEA-CNRS- Université ENSICAEN, UMR Photonique (CIMAP), la et Matériaux les Ions, Camy -wthdb Cr2+:ZnSe. by Q-switched the on mid-infrared 3H4 operating laser diode-pumped Tm:LiYF4 A France Université, Rouvray, du Etienne Normandie Saint Rouen, de CNRS-INSA-Université UMR6614, Doualan J.-L. Doualan J.-L. NIAN nvriéd Caen France de Caen, Normandie, Université Photonique CEA-CNRS- la ENSICAEN, 6252 UMR et (CIMAP), Matériaux les 1 Braud 9:15 Kie E. nm 2305 Diode-Pumped Q-switched Passively WED CA-5.4 9:00 ∙ Crystal Tm:CNGG Disordered of Study Tm of Emissions Laser Mid-Infrared WED CA-5.3 t2.1 at iha vrg oe f5 mW 52 of obtained. power were average an with .Guillemot L. eted ehrh u e Ions, les sur Recherche de Centre ç + → μm dpdGarnets: -doped 1 1 μ H rniini passively is transition 3H5 ; .Hideur A. , 1 .Ple ssota 0fs 60 as short as Pulses m. 1 , ihasoeecec of eciency slope a with eted ehrh u les sur Recherche de Centre ∙ .Loiko P. OM2 ROOM 1 1 1 .Loiko P. , .Braud A. , .Starecki F. , 2 1 lu ae at Laser ulium n .Camy P. and , .Guillemot L. , ; 2 ç 1 nttt of Institute H .Pan Z. , Case e ; 1 ¥ n P. and , 2 CORIA → 1 A. , ç H CLEO 1 2 1 e
, , ; o-ehnclba steering power beam functions. high-resolution high non-mechanical and which watt-class operations beam-scanner, oers demonstrate VCSEL We a sensing. presented VCSEL 3D be for high-power will beam-scanners for iments Japan Yokohama, nology, ∙ sensing 3D for scanners 9:00 beam VCSEL High-power (Invited) WED CB-3.3 rtdANpiezoactuator. inte- AlN grated with microresonator to Si3N4 locking a self-injection laser a DFB by MHz attained 1 bandwidth range, actuation tuning GHz 40 1.5 of Hz, linewidth intrinsic with laser .Koyama F. ® eiecnetadexper- and concept device e Erp-QC2021 /Europe-EQEC ; OM3 ROOM oy nttt fTech- of Institute Tokyo 84 ⋅ .Pugzlys 9:15 A. ∙ Bursts THz-Rate Multi-Millijoule Programmable of Generator Self-Referenced Robust WED CC-4.4 picoseconds. few of lifetimes carrier hot and range THz the in absorption strong exhibit they as devices tronic optoelec- THz advanced devel- of the opment for show properties synthesis attractive colloidal by grown des (~100nm) nanocrystals HgTe Large Institut France Paris, Paris, de CNRS, NanoSciences Sorbonne Université, France Paris, Cité, Paris Paris-Diderot, Uni- Université, versité PSL, Normale Sorbonne Université CNRS, l’Ecole ENS, de Supérieure, Physique de 9:00 Gréboval C. ∙ technology THz for nanocrystals HgTe Large WED CC-4.3 mance. perfor- burst in stability high and ity complex- implementation low very with system master-oscillator can regenerative-amplier any to which applied bursts, be pulse trashort ul- of amplication and multi-millijoule for generation technique programmable the a demonstrate We Vilnius, Technology, Lithuania & Sciences cal Austria enna, 1 Mangeney J. and Dhillon eaet emission. terahertz for responsible nonlinearity the ing modify- discontinuity, temporal acts a as Silicon nanostructured of tion source. electromagnetic photoexcited a with coupled when dynamics phase cycle .Stummer V. Apretna T. htnc nttt,T in Vi- Wien, TU Institute, Photonics ensa 3Jn 2021 June 23 Wednesday 1 .Ferreira R. , 1,2 OM4 ROOM lrfs photoexcita- ultrafast e 1 2 n .Baltuska A. and , 1 .Fl T. , .Goubet N. , ; .Massabeau S. , 2 etrfrPhysi- for Center 1 ö ; 1 ry .Lhuillier E. , 1 1 .Kaksis E. , ; Laboratoire 2 Sorbonne 2 S. , 1,2 1 1 2 , , , ; ihfaueszsdw o10nm. PCMs 100 to down limited of sizes feature with switching sub-diraction We tip-induced index. report refractive reversibly switchable PCMs the to due interest research (PCMs) tremendous sparked by have materials enabled phase-change nanooptics Tunable Switzerland Zurich, 4 Aachen, R Materials, Germany Switzer- Interactive Zurich, Process land and Mechanical Engineering, of Depart- ment Laboratory, Engineering Norris D.J. Bisig S. Giannopoulos I. Oendra Hernandez Lassaline modications. spectral induces nanostructures the of geometry the how nd we ization, polar- and temperature features position, on Raman the of dependence the Studying nanoowers. and mids pyra- WS2 CVD-grown of response (Raman) optical the characterize We Netherlands Del, Technology, of Kuipers 9:15 K. and Boj, ∙ Structures WS2 Low-Dimensional self-Assembled of Modication Spectral Nanogeometry-Induced WED CE-5.4 9:00 ∙ Photonics Material Phase-Change of Nanopatterning WED CE-5.3 n h nlrpiaso excellent delity. show reproduction replica nal the and microstructure original the of isons .Kmn .VnHis,S Conesa- S. Heijst, Van S. Komen, I. Bobzien L. edlegIsrmnsNano, Instruments Heidelberg ü clkn uih Switzerland Zurich, schlikon, ; 2 W ebi nttt for Institute Leibniz DWI 4 1 ; ..Chigrin D.N. , ..Lightner C.R. , OM5 ROOM 1 1 3 nFlsfrTunable for Films in ; .KU Michel A.-K.U. , B Research-Zurich, IBM 1 3 pia Materials Optical .Sebastian A. , ; 1 eUniversity Del .Meyer S. , 1 2 A.C. , and , 1 N. , 3 2 , , ; emqaiyo 2=.6and M2x=1.16 of output excellent quality an an and at beam pulse W 1033 fs a of power 340 with of train a duration pulse delivering 1MHz thin-disk amplier CPA-free multipass a present We Germany Austria Universit Rankweil, Stuttgart, 2 (IFSW) Stuttgart, erkzeuge Ahmed Au R 9:15 ∙ quality beam excellent with power output average of 1kW delivering amplier multipass thin-disk stable Highly WED CF-4.4 per- XUV formance. the of scaling further potential for their and oscillators har- thin-disk laser inside high generation of monic state-of-the-art the and developments de recent discuss We Neuchâtel, Institut Switzerland Neuchatel, de Université (LTF), Physique, T. Fréquence and Wittwer, S V.J. Modsching, 9:00 ∙ Using Generation Harmonic High Intra-Oscillator of Perspectives and Progress Recent WED CF-4.3 laser. same the in SESAMs over state-of-the-art average- 70-W-improvement a 233-W power, achieving thin-disk- laser, high-power a silicate- modelock We by SESAM. the to sapphire lens bonding thermal justable .Bienert F. N. Labaye, F. Drs, J. Fischer, J. K/pcr-hsc Rankweil, MKS/Spectra-Physics ü ö dmeyer cker nDs Lasers in-Disk 2 .Graf T. , 1 1 .Gorjan M. , ; ; OM6 ROOM 1 1 ntttf Institut .Loescher A. , aoaor Temps- Laboratoire 1 n .Abdou M. and , 2 .Aus-der- J. , ü Strahlw- r 1 C. , ä t ; ign ign Germany Siegen, Siegen, Germany Siegen, Siegen, 2 of versity 1 o ir-adNanochemistry (C Engineering and and Micro- for Germany Siegen, Siegen, of University Engineering, Materials of fJyv Germany of Siegen, Siegen, 5 of sity Butz imlclswt o-Aoptics low-NA sensing with for biomolecules suitable thus is ex- emission. method antenna directional the hibit in molecules immobilized DNA labeling Dyes double-stranded detection. planar rescence uo- improve scanning to antenna Yagi-Uda a introduce We (CNR), Italy Florence, Council Research National 6 Druzhinin Esfahany epeettefbiaino circu- of fabrication the present We Kingdom United Bristol, Bristol, of Universtiy and Engineering, Electronic Electrical of Department Labs, Kingdom United 2 Bristol, Bristol, of University Laboratory, Physics Wills HH Training, Doctoral for Centre ing Balram K.C. Kline 9:15 ∙ nitride silicon in encapsulated nanodiamonds in centres NV of read-out optical for resonators grating Bragg Circular WED EG-2.4 9:00 ∙ detection uorescence for antenna Yagi-Uda planar scanning A WED EG-2.3 gineering. en- electrical nanophotonics, optics, quantum from viewpoints dierent completely 3 of equivalence dis- the We cuss transfer. energy antennae, Marke .Mno Ruz Monroy J. Soltani N. hsclCeityI nvriyof University I, Chemistry Physical Uni- Nano-Optics, of Laboratory aocec etr University Center, Nanoscience ainlIsiueo pis(INO), Optics of Institute National unu niern Technology Engineering Quantum 3,4 1,2 š ä .Sch H. , evi .Smith J. , skyl 1,4 ć 2,4 1,5 .Schulte G. , OM7 ROOM ä 2 .M J. , Jyv , ; n .Agio M. and , 1,4 1 unu Engineer- Quantum .Rabbany E. , 2 1,2 ä .Rarity J. , skyl ö .Skoryna C. , nherr μ ü ä ,Univer- ), ller Finland , ; 3 2,4 2,4 ; 3,4 Institute 4 2 S.I. , N. , Center B. , and , 1,4,6 e ; ; ; ; ; eietetplg f2 photonic 2D of charac- topology to the terize calculations loops Wil- son and Chemistry Quantum ical Topolog- of theory the combine We Urbana, USA Urbana-Champaign, at Matter Condensed for Institute Science, and Physics Spain for Bilbao, Foundation Basque USA W. Lafayette, University, Purdue and Astronomy, Physics Engineering Computer Spain San Sebastian, Center, Physics International García-Etxarri A. .Giedke G. setup. photonic a in probed be this can and them, governs number ing period. Bloch distin- one within points oscillations these guishes turning of walks. number quantum in os- Bloch cillations of family new Molecules, a report We et Atomes France Lille, Lasers Lyon, des Physique, France de CNRS, Laboratoire Bernard, Claude Univ Lyon, Delplace P. Randoux C44WD9:15 Vergniory G. M. ∙ Crystals Photonic of Characterization Topological WED EC-4.4 9:00 ∙ sub-oscillations Bloch through number winding bulk Floquet the Probing WED EC-4.3 eect topology. between and disorder targeted interplay the from the arising realizing operations for put coin tunable We with walks quantum time-multiplexed studied. forward is transitions .Bac ePaz de Blanco M. Upreti L.K. ; 2 nv il,CR,Physique CNRS, Lille, Univ. 2 .Suret P. , oy nvriyo Illinois of University eory, 1,3 1 OM8 ROOM ; .Bercioux D. , 1 1 nv yn N de ENS Lyon, Univ. .Evain C. , ; oooia wind- topological e ; ; 1,3 4 2 1,3 eatetof Department 3 1 .Amo A. , 2 IKERBASQUE, .Alaeian H. , .Bradlyn B. , lcrcland Electrical ; 1 Donostia 1,3 2 2 and , S. , and , CLEO 4 2 e , , ie ihasniiiyo -20dBm. of sensitivity a with vices de- photonic and electronic us- 10G ing achieved is transmission receiver. PolMux, coherent 50km a by a received sig- nal on modulation OSSB based multi-CAP link downstream PON 100Gb/s Lyngby, a present We Kgs Denmark SpainCommunications, Barcelona, Catalunya, 4 Zaragoza, de Defensa, la Spain de sitario Spain Zaragoza, Lazaro 1 J.A. Cerda qaie MS-E treception. Error at (MMSE-LE) Equalizer Minimum-Mean-Square with a channel Direct (IM/DD) and an Detection in Modulation transmissions Intensity (NRZ) Non-Return-to- dispersion Zero 50Gbit/s in chromatic (CD) and frequency of chirp impacts the study We 3 2 1 Neto Pincemin 9:15 ∙ dispersion chromatic and chirp of eect combined the compensate to HS-PONs 50Gbit/s in equalization digital linear of analysis An WED CI-2.3 ∙ Networks Optical Passive for Electronics 9:00 10G on based Reception Heterodyne and Transmission OSSB MultiCAP PolMux Using Downstream 50Km Gb/s 100 of demonstration Experimental WED CI-2.2 ..Nger Sampaio Nogueira F.A. Barrio M. CO atldfl,Spain Castelldefels, ICFO, Zaragoza, of University I3A, eeo ai,Plieu France Palaiseau, Paris, France Telecom France Plouzané, Lannion, Atlantique, IMT Labs, Orange ® 2 Erp-QC2021 /Europe-EQEC ; .L Bidan Le R. , 3 .Sarmiento S. , 1 .Genay N. , 3 nvria Politècnica Universitat OM9 ROOM 1 3 .Izquierdo D. , n .Garces I. and , ; 2 2 n .Jaouen Y. and , etoUniver- Centro 4 ..Altabas J.A. , 1 .Anet L. , ; 5 1 2,1 Bifrost E. , J. , 5 1 3 , ; ; ; ; ; 85 ⋅ u agn rm07 o6 a to 0.75 from seed ranging uum to supercontin- spanning order octave three in controlled can be bers multimode index in graded processes nonlinear the interplay between the that demonstrate We Italy Rome, Rome, of Poland Warsaw, Sciences, of Academy Polish France Limoges, 2 7252, CNRS UMR 1 .Couderc V. Krupa Mansuryan T. eeainfo 00n to multimode tellurite nm a in 1000 nm 3000 from generation supercontinuum time rst the octave-spanning for demonstrate We Warsaw, of Poland University Warsaw, Physics, of ∙ ber multimode index graded in dynamics nonlinear spatiotemporal using generation nttt fMcolcrnc and Microelectronics Poland Warsaw, Photonics, of Finland Institute Tampere, 2 University, 1 Buczynski Karpate 9:15 ∙ Fiber tellurite Multimode Graded-Index a in Generation Supercontinuum Infrared Octave-spanning WED CJ-3.3 9:00 0.75-6 WED CJ-3.2 .Leventoux Y. .Krutova E. nttt fPyia Chemistry, Physical of XLIM, Institute Limoges, de Université uaiwc eerhNtok– Network Research Łukasiewicz Tampere Laboratory, Photonics ensa 3Jn 2021 June 23 Wednesday 2 ; μ .Tonello A. , 2,3 3 supercontinuum m IT ainaUniversity Sapienza DIET, 2,3 .Klimczak M. , OM10 ROOM n .Genty G. and , 1 1 n .Février S. and , .Eslami Z. , 1 1 .Fabert M. , .Granger G. , 1 .Wabnitz S. , ; 3 μ Faculty 3 1 m. 1 R. , T. , K. , 3 1 1 1 , , ; ; ; ; rca oei h cteigprocess. scattering the a in role plays crucial charge, topological not der, or- azimuthal of Conservation core. with symmetric rotationally bre in three-fold a crystal modes photonic Bloch chiral helical of tering scat- Brillouin stimulated report We Germany Erlangen, Erlangen,Friedrich-Alexander-Universit Light, of Germany Science the for Russell Frosz .Roth P. com- waveguides. SOI to almost pares performance linear With non- structures, the of wavelength. optimization telecom at TPA free remaining while non- eects of linear boosting plat- a introduce silicon form the with materials ear nonlin- highly 2D of Hybridization Aalto Finland Aalto, University, Physics, Applied of partment Finland Aalto, 3 University, Aalto Nanoengineering, and Electronics of de Nanotechnolo- France Centre Palaiseau, gies, de CNRS, et Nanosciences Saclay, Paris Sun Alonso-Ramos C. D64WD9:15 ∙ bre crystal photonic three-core chiral in modes Bloch helical of scattering Brillouin Stimulated WED CD-6.4 9:00 ∙ platform waveguide material-SiN 2D hybrid in eect Kerr performance High WED CD-6.3 reo h rte waveguides written inputs. transversally-shied using the of prole index nu- the characterize and we merically, analytically pulse writing .Zeng X. Pelgrin V. T eteo xelne De- Excellence, of Centre QTF 2,3 1 .Stiller B. , n .Cassan E. and , 1,2 1,2 ; ; 1 ...Wong G.K.L. , OM11 ROOM 1,2 .He W. , 2 eateto Physics, of Department 1 .Wang Y. , a-lnkInstitute Max-Planck 1 .Vivien L. , 1,2 1 .Huang J. , ; n P.S.J. and , 1 2 2 ; Department .Peltier J. , 1 Université 1 M.H. , ä 1 t, Z. , 1 1 , , ; NOTES
Wednesday Orals Wednesday Orals nttt fPyis eea Research Federal Physics, USA of Institute MA, Technology, Mas- Cambridge, of Institute Electronics, sachusetts of Russia Laboratory Petersburg, St. University, ITMO Engineering, and Bogdanov Muraev Sadrieva S-. E 9:45 Sidorenko M. disks dielectric of chain a in continuum the in state bound Accidental WED JSI-2.4 heterostructures. AlGaAs/GaAs of one- composed systems in GHz quasiperiodic complex 20-100 dimensional of in range phonons the acoustic of calization lo- the demonstrate theoretically We Palaiseau, France CNRS, Paris-Saclay, sité Univer- (C2N), Nanotechnologies de Lanzillotti- Kimura N.D. and 9:30 Rodriguez, A. ∙ Structures Quasiperiodic One-dimensional in Localization Phonon Acoustic WED JSI-2.3 .Pia ..Crood Oliveira, de Cardozo E.R. Priya, P. ; 3,4 1 eted aocecset Nanosciences de Centre .Roques-Carmes C. , 1 .Maksimov D. , ; OM1 ROOM 1 eateto Physics of Department 1 .Sergaeva O. , ; ; 3,4 2 3 Research Kirensky n A. and , 1 , 2 P. , ∙ Z. 4 Wa 2.71&2.85 at mW 342 1750 at studied. HIPing is by ∘ Er:(Lu,Sc)2O3 at.% synthesized 7 sesquioxide ceramic “mixed” Chimie Transparent de France Paris, Recherche Paris, de CNRS, Institut University, PSL ParisTech, lp inyo 41.7%. of eciency slope Belarus Vitebsk, University, Spain Tarragona, Germany FiCMA-FiCNA-EMaS, Berlin, Pulse 4 Short Spectroscopy, and Optics Nonlinear Mianyang, of Academy China Physics, China Engineering Normandie, Materials, Caen CEA-CNRS-ENSICAEN, France Caen, de Université UMR (CIMAP), 6252 Photonique la et Matériaux les Ions, les sur Recherche Viana B. h usa cdm fSciences, of Russia Moscow, Academy Russian the 1 Russia Moscow, University, Technical State Fjodorow Griebner U. d,Uiest fDuisburg-Essen, of Flu- University Reactive ids, – Dynamics Gas and 9:45 Kozlovsky Frolov M.P. Fe:CdTe Single-Crystal on Based Lasers Mid-Infrared Ecient and Tunable Widely High-Energy, WED CA-5.6 Díaz 9:30 2.8 near Ceramics Sesquioxide Er:(Lu,Sc)2O3 at.% 7 “Mixed” Transparent of Operation Laser Ecient WED CA-5.5 Wang ∙ 870 are character- ns/4.4 (duration/energy) pulse best istics the 2304.6 at and mW nm 357 generates laser /0 P n t pcrsoyis spectroscopy its and MPa C/200 .Basyrova L. nvria oiaiVrii(URV), Virgili i Rovira Universitat ..LbdvPyia nttt of Institute Physical Lebedev P.N. 4 ; 3 .Dunina E. , ; ; .Huang H. , μ 5 J. ies tt Technological State Vitebsk 6 3 3 3 n .Camy P. and , 1 nttt o Combustion for Institute a onIsiuefor Institute Born Max n ..Skasyrsky Y.K. and , ..Leonov S.O. , eai ae generates laser ceramic e 3 OM2 ROOM 1 .Petrov V. , 1 ..Korostelin Y.V. , ; .Loiko P. , 2 nttt fChemical of Institute ; 2 5 2 amnMoscow Bauman .Kornienko A. , μ .Aguiló M. , m 3 1 1 .Mateos X. , .Jing W. , ; μ 1 iha with m etede Centre ; 1,2 6 Chimie 1 , V.I. , 4 2 F. , Y. , CLEO ∙ P. 4 5 1 , , ; ; h aual bobrba voltage. of bias absorber function saturable a the as envelope reconstruct pulse and the dispersion modal the phase stepped-heterodyne measure We a technique. with comb laser frequency a of III-V-on-silicon phase-locking the analyze We France Belgium Nice, Nice, 2 de Marconi Physique M. and Netherlands Netherlands Enschede, 2 Twente, Universityof Technology, for and Science Department Optics, Nonlinear Boller K.-J. Moskalenko Geskus D. Memon 9:45 A. ∙ lasers diode InP-Si3N4 integrated hybrid using generation comb frequency optical Broadband WED CB-3.5 9:30 Kuyken ∙ laser comb frequency III-V-on-silicon a of dynamics phase-locking the of Analysis WED CB-3.4 ...Bastiaens H.M.J. Verschelde A. hn nvriy-IE,Ghent, IMEC, - University Ghent inXItrainlB,Enschede, BV, International LioniX ® Erp-QC2021 /Europe-EQEC 2 .Giudici M. , 2 OM3 ROOM 1 1 3 ; .Hoekman M. , .Fan Y. , ; ....Bente E.A.J.M. , 3 1 htncIntegration Photonic 1 .VnGasse Van K. , ae hsc and Physics Laser 1 1 ; .Neijts G. , 1 .Huyet G. , 1 1 .Mak J. , ntttde Institut 3 2 and , V. , 2 B. , 1 1 1 , , , ; ; 86 ⋅ nvriyo oy,Hno Tokyo, Japan Hongo, Tokyo, of University Shimano compared. were antennas ZnSe measured. was energy optical versus pendence antennas. photoconductive ZnGeP2 the using radiation terahertz of tion Crystals”, Optical Russia Tomsk, of atmospheric “Laboratory Russia of Tomsk, RAS, SB Institute optics Zuev E. Russia Tomsk, University, State 9:30 Zinovev ∙ antenna photoconductive ZnGeP2 a using generation Terahertz WED CC-4.5 frda n zmta terahertz azimuthal generation and radial the of demonstrate We Tokyo, Yayoi, Japan Tokyo, of University Kawaguchi 9:45 ∙ emitter terahertz spintronic from beams vector cylindrical terahertz azimuthally-polarized and radially- of Generation WED CC-4.6 Moscow, Sciences, Russian Russia the of of Academy Institute Physics Garnov S. Dolmatov T. Ushakov A. .Bulgakova V. .Niwa H. ensa 3Jn 2021 June 23 Wednesday nen’ eaet nryde- energy terahertz obtained. antenna’s was e waveform THz e genera- the discusses paper e ; ; 2 2,3,4 roei eerhCenter, Research Cryogenic 2 1,2 ainlRsac Tomsk Research National 1 1 1 ; OM4 ROOM .Yoshikawa N. , .Podzyvalov S. , .Hayashi M. , ; 1 1 eateto Physics, of Department .Yudin N. , 1 ne2adCVD- and ZnGeP2 e .Bukin V. , 1 rkoo General Prokhorov 1 .Chizhov P. , 1 2,3,4 n R. and , 1 and , 1 ; M. , M. , 4 ; 2,3,4 LLC 3 V. 1 , , iln,sprsigreections beam focused-ion suppressing by milling, GaSe fabricated on are structures Moth-eye Germany Kon- Konstanz, stanz, of Ap- University for Photonics, Center plied and Physics of ment A. Leitenstorfer A. Bitzer, and Herter, A. Kempf, H. Cimander, 9:45 Sulzer, P. Milling Beam Focused-Ion by Produced GaSe on Structures Antireection Moth-Eye Ultrabroadband WED CE-5.6 9:30 drawn. WED CE-5.5 otiuinhsbe with- been has contribution e ∙ .Hge,A ih,M. Liehl, A. Hagner, M. OM5 ROOM ; Depart- Nagashima em IE etrfrAdvanced for Center Japan RIKEN Team, Keio Yokohama, Technology, 2 Faculty and University, Science Engineering, of Electrical 1 Ishida 9:45 ∙ Nanotubes Carbon and Microcavity Er-doped an with Microlaser Mode-locked Passively a of Design WED CF-4.6 respectively. axes, E//a E//c employing and power by nm, average 995 around 40-W with 105-ps pulses and nm 1017 around average power 28-W mode-locked with pulses generating sub-5-ps SBR laser Yb:YLF a cryogenic report We Turkey Antalya, Antalya Dosemealti, 07190 University, Bilim Laboratory, Chaussee Germany Technology Hamburg, Luruper 149, University Hamburg, Imaging, of Ultrafast for 22607, and partment 85, Germany Hamburg, Notkestraße Science, DESY, Elektronen-Synchrotron Laser Deutsches Pergament Free-Electron for M. and 9:30 Kellert ∙ reectors Bragg saturable with mode-locked lasers Yb:YLF Cryogenic WED CF-4.5 M2y=1.18. .Imamura R. Demirbas U. unu polcrnc Research Optoelectronics Quantum and Electronics of Department 1 1 .Fujii S. , .Reuter S. , 1 OM6 ROOM ....Suzuki T.S.L.P. , 1 1,3 .Nakashima A. , 1,2 J. , abr Centre Hamburg e 1 n .Tanabe T. and , ..K F.X. , ; 1 2 ; esinga hssDe- Physis ä ; rtner 1 Center 3 1 1 Laser 1 M. , R. , K. , 1,2 1 , ; ; etstpcnatilygenerate measure- articially can the setup ment of nu- aperture moderate merical a how theoretically and experimentally demonstrate We Netherlands dam, Amster- AMOLF, Nanophotonics, Rodriguez for S.R.K. and Gar- E.C. nett, Busink, J. Zheng, J.-Y. tra, G26WD9:45 ∙ aperture? numerical the by orobscured generated articially be they Can splittings: mode and lineshapes Fano WED EG-2.6 new optomechanics. entirely cavity continuum, access in regimes to the used be in can and states membranes bound crystal as photonic such nanophotonics, from tures struc- and techniques that show We Sweden G Technology, 9:30 of University and Wieczorek, W. Manjeshwar, S.K. Fitzgerald, J.M. Optomechanics Cavity for Structures Nanophotonic WED EG-2.5 encapsu- nanodiamonds. lated in centre NV of eciency collection the increase to nitride sili- con on resonators grating Bragg lar .Gn,J. Geng, Z. OM7 ROOM ∙ .Tassin P. ehu,BK Pa- B.K. eenhaus, ; Chalmers ; ö teborg, Center onainfrSine Bilbao, Science, Spain for Sebastian, Foundation San Spain Center, Physics Huidobro Proctor M. helicity. and spin a local their to between coupling leading the of eect, breakdown Hall spin quan- the tum emulating crystals pho- tonic topological of states edge in ics harmon- Bloch higher-order of ence inu- the reveal experimentally We lands Nether- Amsterdam, AMOLF, tonics, Netherlands Del, Technology, of University Del 1 nttt o odne Matter Condensed for Institute 9:45 Vergniory Garcia Paz ∙ opportunities new and paradigms Mistaken photonics: Topological WED EC-4.6 Verhagen E. 9:30 ∙ States Edge Crystal Photonic Topological Symmetry-Protected in Locking Spin-to-Helicity of Breakdown WED EC-4.5 topological light. the of states on insights mean- provides ingful analysis the in tion informa- LDOS Including crystals. .Garcia-Etxarri A. Bauer T. al nttt fNnsineDel, Nanoscience of Institute Kavli oy nvriyo liosat Illinois of University eory, 1 .Devescovi C. , ; ; 3 eateto hsc and Physics of Department 5 1 2 ; .Arora S. , KRAQE Basque IKERBASQUE, OM8 ROOM ; 1 4 ootaInternational Donostia 2 2 n .Arroyo P. and , n .Kuipers K. and , etrfrNanopho- for Center 1,2 1 1,2 .Bradlyn B. , .Bercioux D. , 1 .Bac de Blanco M. , .Barczyk R. , 3 M. , 1,2 CLEO 2 1 , , ; aret r present. im- are IQ pairments other if even ps is 0.04 than error less estimation simulations its that Numerical conrm systems. communication coherent digital skew in IQ transmitter estimating for Japan Nagoya, 9:30 Hasegawa H. ∙ Systems Communication Coherent Digital in Transmitter A of skew IQ for Estimation WED CI-2.4 xaso n aéapproximation Padé and Magnus expansion on based scheme servative con- sixth-order novel a propose We Technologies, Russia Novosibirsk, Information Computational for and Center Russia Research Novosibirsk, 9:45 1 Chekhovskoy Medvedev S. Problem Zakharov-Shabat Direct the for Algorithm Sixth-Order Novel A WED CI-2.5 .Tuhd,T uo .Mr,and Mori, Y. Kuno, T. Tsuchida, N. ooiis tt University, State Novosibirsk ® spprpeet oe method novel a presents paper is Erp-QC2021 /Europe-EQEC OM9 ROOM 1,2 1,2 ; n .Fedoruk M. and , , aoaUniversity, Nagoya ∙ .Vaseva I. ; 2 Federal 1,2 I. , 1,2 ; 87 ⋅ igemd em 4n and nJ demonstrated. 24 is pulses fs with sub-100 beam, oscillator single-mode ber presented. Multimode is lasers cleaning mode-locked in self-beam to spatial achieve nonlinearities controlling by spatiotemporal technique novel A Switzerland Lausanne, Lausanne, de polytechnique federale fed- Ecole oratory, Lausanne, Ecole Switzerland de Lausanne, polytechnique erale Devices, Photonics Kakkava iumsann rm0.35-4.5 supercon- from spanning polarized tinuum stable fully A Japan Saitama, Moser 9:30 ∙ lasers ber mode-locked spatiotemporally in cleaning self-beam Spatial WED CJ-3.4 eso npolarization-maintaining dis- in persion anomalous under generated is Japan Nagoya, tute, Fuji ∙ 9:45 amplier ber oscillator master ZBLAN-based a in regime anomalousdispersion under generation supercontinuum coherent Multi-octave WED CJ-3.5 in mid-infrared. sources the high-power light to results supercontinuum way Our the pave could ber. graded-index .Tegin U. ..Rezvani S.A. ensa 3Jn 2021 June 23 Wednesday 1 ; 1 ; 1 ooaTcnlgclInsti- Technological Toyota 2 .Psaltis D. , 1 OM10 ROOM 1,2 aoaoyo Applied of Laboratory .Rahmani B. , 1 .Ogawa K. , ; 2 ieLb Inc., FiberLabs ; 2 2 pisLab- Optics n C. and , 2 n T. and , 1 E. , μ m nrrdasrto spectroscopy. absorption infrared mid- or measurements CARS inte- grated towards path the of paves source potential the integration. sili- full with in nitride oscillation con parametric cal opti- waveguide-based present We M Germany of University Netherlands Enschede, 3 Twente, of University Nanotechnology, for tute h olna rqec conver- frequency shi nonlinear Appropriate can the leveraging engineering dispersion poling. waveguide silicon dierence- all-optical in nitride generation demonstrate frequency We Lau- Switzerland Lausanne, sanne, de Fédérale nique Brès 9:45 C.-S. and Nitiss, ∙ poling all-optical on based waveguides nitride silicon in generation Dierence-frequency WED CD-6.6 M of M University Physics, Fallnich 9:30 W ∙ waveguides nitride silicon on based oscillator parametric Optical WED CD-6.5 .Zblc,E ai,O aa,E. Yakar, O. Sahin, E. Zabelich, B. L N.M. el nMto nefclyCentre, Interfaculty Motion in Cells ü ü se,Germany nster, rthwein 1,2,3 ü pken OM11 ROOM 1 ; .J Boller K.-J. , 1 1 nttt fApplied of Institute .Becker D. , ü ; se,M nster, ; ual light tunable e 2 cl Polytech- Ecole EA Insti- MESA+ 2,1 n C. and , ü ü 1 nster, nster, T. , ; NOTES
Wednesday Orals Wednesday Orals J41WD11:00 Mabed ∙ nm 1550 around oscillator Mamyshev broadband a in states Molecule and Multipulse WED CJ-4.1 Poland Wroclaw, Wroclaw Technology, of Grzegorz, University Sobon Chair: Lasers Fiber Mode-locked CJ-4: 12:30 – 11:00 length. chain’s the decrease of the with state resonant a to transformation its demonstrate and disks of chain o- periodic dimensional an time the rst for analyze experimentally We Russia Krasnoyarsk, Krasnoyarsk, RAS, Russia SB KSC Center rnh-ot NSUR6174, Besan UMR CNRS Bourgogne Franche-Comté Université FEMTO-ST, Genty rtn 0 mbnwdhpulses nm. bandwidth 1550 around nm 100 gen- erating oscillator Mamyshev bre dynamics a unstable in and stable into insights transform new provide Fourier measurements dispersive gating and optical resolved Frequency Finland Tampere, , Finland FI-33104, Tampere, University, pere Dijon, France, France Dijon, 6303, CNRS UMR Université Franche-Comté Bourgogne, Bourgogne de Carnot 2 .Lapre C. aoaor Interdisciplinaire Laboratoire ç 3 ; ; 1 n rne Besan France, on, n .Dudley J. and , 4 3 .Finot C. , ieinFdrlUniversity, Federal Siberian htnc aoaoy Tam- Laboratory, Photonics 1 .Billet C. , OM1 ROOM 2 Γ .Salmela L. , 1 I naone- a in BIC .Meng F. , ç 1 n France on, ; 1 Institut 1 3 M. , G. , ; eatosi h eltm manner. real-time the in teractions in- biochemical protein-ligand of ics kinet- binding explore to developed was chip microuidic tailored a with integrated biosensor (thin- transistor) IGZO-TFT lm the work, this In Optoelectronics, Taiwan Taipei, University, Taiwan and National Photonics Optoelectronics, Taiwan Taipei, University, Taiwan and National Photonics Taiwan Optoelectronics, Taipei, University, Taiwan and National Photonics of Taiwan , Taipei University, Taiwan National tronics, Optoelec- and Photonics of Institute Chou ∙ 11:00 Sensors Integrated Transistor-Microuidic by Kinetics Reaction Protein-Ligand of Investigations WED CH-6.1 Biotec- y Spain Málaga, nología, Nanomedicina An- de Centro daluz - of BIONAND University Halir, Málaga, Robert Chair: Sensing Optical for Solutions On-chip CH-6: 12:30 – 11:00 n tunability. and energy output eciency, regarding characterized are systems laser oped investigated. are atures temper- operation and schemes ing pump- dierent particular, In Fe:CdTe lasers. ob- single-crystal results with recent tained our present We Germany Duisburg, .Y Tsai K.-Y. 3 n .J Huang J.-J. and , ; ; 4 3 OM2 ROOM 1 .C Lee Y.-C. , rdaeIsiueof Institute Graduate of Institute Graduate ; 2 rdaeInstitute Graduate 4 ; 1 2 Graduate C.-H. , devel- e CLEO fPyis Friedrich-Alexander- Universit Physics, Germanyof Spectroscopy, Berlin, Ultrafast and Optics Kuban Russia 4 Krasnodar, University, State Laboratory, Technologies Germany Erlangen, Light, Spain of Barcelona, 2 Technology,Castelldefels, and Science of Institute Fotoniques, Ciencies Tani F. Elu U. Source Light 11:00 Seven-Octave High-Brightness (Invited) WED CF-5.1 Italy Nanotecnologie Rome, (IFN), e Fotonica Is- di CNR, tituto Manzoni, Cristian Chair: mid-IR the in Pulses Ultrashort CF-5: 12:30 – 11:00 at spacing. spectrum comb-lines 2-GHz 1600 broad than more 25-nm with a covers generation. comb frequency on-chip demonstrate we ampliers, semiconductor InP circuits with waveguide long, Si3N4 of low-loss integration hybrid Using Netherlands of Eindhoven, Technology, University De- Eindhoven partment, Engineering Electrical Group, a cae U oTz ihstable phase. with carrier-envelope THz) to (UV octaves cal opti- seven spans which generation frequency dierence intra-pulse and self-compression soliton combining source brightness high a present We 6 Biegert Petrov Badikov V. a-onIsiuefrNonlinear for Max-Born-Institute Science for Institute Max-Planck CE,Breoa Spain Barcelona, ICREA, ® Erp-QC2021 /Europe-EQEC 4 1 1,6 2 ...Russell P.S.J. , .Maidment L. , .Novoa D. , ä ; , ragn Germany Erlangen, t,, OM3 ROOM 3 .Badikov D. , 1 CO ntttde Institut ICFO– ; 2 obdensely comb e ..Frosz M.H. , 1 , 5 2,5 Department ∙ Barcelona e .Vamos L. n J. and , ; 3 3 V. , High 1 2 , , ; ; ; 88 ⋅ ueia pruet obtain to GaAs. inside focusing deep modication aperture and the numerical duration, reveal u- pulse energy, the Results on the existing requirements monitoring orescence. by inside mi- excitation GaAs carrier laser-induced croscale measure We Marseille, France UMR7341, LP3, CNRS, .Grojo D. 11:00 ∙ GaAs inside Deep Modication and Micro-Excitation Laser Ultrafast Monitoring WED CM-2.1 China Mechanics, Fine and Optics of Institute Shanghai Cheng, Ya Chair: Processing Semiconductor CM-2: 12:30 – 11:00 the toward beams. vector cylindrical terahertz access enables method convenient mode our and conversion, external tuning the magnetic-eld Combining terahertz emitter. spintronic a using pulses .Wn,A a,J emn,and Hermann, J. Das, A. Wang, A. ensa 3Jn 2021 June 23 Wednesday ; i-asil Université, Aix-Marseille OM4 ROOM ussfo high-performance a QCL. mid-IR from on of pulses report we picosecond generation Here, transformation-limited the been pulses. insurmountable short for long an obstacle has cascade considered (QCLs) quantum lasers mid-infrared Dresden, Helmholtz-Zentrum Germany Materials Dresden-Rossendorf, and Physics Research, University, Beam USA Ion Harvard Cambridge, Applied and Sciences, Engineering Vienna, of School Wien, Austria TU Electronics, Schwarz Strasser 11:00 Piccardo M. ∙ laser cascade quantum mid-IR a from pulses mode-locked Actively WED CB-4.1 CSEM, Boiko, Dmitri Switzerland Neuchâtel, Chair: Lasers Cascade Quantum CB-4: 12:30 – 11:00 octaves. multiple of range a over yielding percent one below reectivites sampling, via characterized electro-optic is performance radiation. mid-infrared of .Hillbrand J. lrfs are rnpr in transport carrier ultrafast e ; 1 1,2 .Capasso F. , 2 avr onA Paulson A. John Harvard ; OM5 ROOM 1 2 nttt fSldState Solid of Institute .Schneider H. , 1,2 .Opa N. , ; 3 nttt of Institute 2 n B. and , 3 č G. , ak eir 1 , civ asv Lwt toroidal microlaser. a WGM with ML passive to achieve parameters nu- design a optimum claried the on that report investigation we merical work, this In Japan Saitama, Photonics, rpgtn atrresonances. matter momentum propagating high of excitement the to due regime coupling ultra-strong an in enhancement coupling matter light- the limit eld ultimately can con- electromagnetic which the of for nement limit physical a show experimentally and theoretically We Kingdom United Southampton, ton, Southamp- of University Astronomy, Quantum Z Switzerland of ETH Institute Electronics, Group, ics Scalari Liberato De S. G31WD11:00 ∙ systems nanophotonic coupled ultrastrongly in polaritons of Breakdown WED EG-3.1 G Germany gen, Chemistry, Biophysical Institute Planck for Max & Georg-August University Ropers, Claus Chair: 2 Nanoscale the at Coupling EG-3: 12:30 – 11:00 .Rajabali S. 1 ; 1 unu Optoelectron- Quantum OM6 ROOM 1 ; .Cortese E. , 2 colo hsc and Physics of School 2 .Faist J. , ü ih Z rich, 2 .Beck M. , 1 n G. and , ü ö rich, ttin- 1 , n pi eoatmd oa to mode resonant doublet. separated a 10-GHz split and cavity of whispering-gallery shape droplet the a deform gradually holographic-tweezers, we by transformable Assisted operating. while functionality on their change that devices report micro-photonic We USA Missouri, Louis, St. Louis, USA 3 2 Carmon T. Yang Nagar E61WD11:00 ∙ Transformers Photonic WED CE-6.1 Italy Parma, Parma, University of Milanese, Daniel Chair: Resonators and Waveguides for Materials CE-6: 12:30 – 11:00 studying in systems. pitfalls optical such avoid guide- to general lines with conclude and splittings, Rabi and resonances Fano .Douvidzon M. uesCleeo uy e York, New Cuny, of College Queems Israel Aviv, Tel University, Aviv Tel ; 4 .Deych L. , 4 2 ahntnUiest nSt. in University Washington .Admon T. , 2 OM7 ROOM ; 1 ehin af,Israel Haife, Technion, 3 1 .Roichman Y. , .Maayani S. , 2 .Shuvayev V. , 2 1 and , H. , 3 L. , ; ; fTcnlg,Cmrde USA Cambridge, 4 Technology, Institute of Massachusetts gineering, USA Cambridge, 3 Technology, of Institute Massachusetts Switzerland Laboratory, Lausanne, de Lausanne, Fédérale technique 1 Sangouard N. in conditions. am- bient at vibrations correlations and light Bell between produce in to Counting order Re- Photon new Time Single a solved and present Spectroscopy man we Ra- Spontaneous talk leveraging scheme this Basel, In Klingelbergstrasse, Switzerland Basel, 11:00 ∙ Conditions Ambient at Vibrations and Light Between Correlations Bell WED EA-3.1 Republic Czech Olomouc, Olomouc, of versity Uni- Palacky Slodicka, Lukas Chair: Detectors and Optomechanics Quantum EA-3: 12:30 – 11:00 eects. topological photonic 3D novel and higher-order TIs Photonic as photonic frag- well bosonic as topology of ile instance rst the crystals. photonic to Quantum Chemistry” “Topological Lisbon,, apply We of Portugal Lisbon, Tecnico-University Telecomunica Kingdom London, United , London College Imperial 4 USA Urbana, Urbana-Champaign, .TraoVelez Tarrago S. eatmn hsk Universit Physik, Departement En- Mechanical of Department Poly- Ecole Physics, of Institue eateto Mathematics, of Department og hsmto,w found we method, this rough OM8 ROOM ç e,IsiuoSuperior Instituto ões, 4 n .Galland C. and , ; 1 .Sudhir V. , 5 nttt de Instituto ; 2 LIGO 2,3 CLEO ä 1 t , ; ; ; ; ae rmavre pctm,i a superuid. in photonic spacetime, vortex a from waves of amplication the i.e. perradiance, su- experi- Penrose of rst measurement mental the present We space- curved times. mimic to used media be defocusing can in light of Fluids USA son, Tuc- 85721, Arizona Arizona, Univer- of sity Sciences, Optical of Ed- College Kingdom 4AS, United inburgh, EH14 Herriot- University, Sciences, Watt Quantum and Kingdom United Glasgow, 8QQ, G12 Glasgow, of University Astronomy, and Physics 11:00 Wright ∙ light of superuids in amplication wave Penrose WED EF-3.1 ICREA, Spain Staliunas, Barcelona, Kestutis Chair: Eects Quantum and Dynamics Transverse 2D EF-3: 12:30 – 11:00 complexity. computational low with algorithms transform. Fourier nonlinear the implementation of numerical the for ..Braidotti M.C. ® ceealw h s ffast of use the allows scheme e Erp-QC2021 /Europe-EQEC 3 n .Faccio D. and , ; OM9 ROOM 2 nttt fPhotonics of Institute 1 .Prizia R. , 1 ; 1 ; colof School 1,2 3 Wyant E.M. , 89 ⋅ iltre amplier the ber cillator at 2 pulses of vicinity using ber ZBLAN .Klenke A. Germany 1 eies10f,1 Jple t1 at pulses mJ power. average 10 kW fs, 120 and shaping delivers aggressive spectral elaborate through but combining Ytterbium of gain-bandwidth coherent the exploits which on CPA-system ber based a on present We Germany Jena, Engineering, Precision and Optics Applied for tute Germany Jena, power ∙ average kW 1 at pulses mJ 10 120fs, delivering CPA-system 11:00 ber Ytterbium Broadband (Invited) WED CA-6.1 Germany Bochum Bochum, sity Univer- Ruhr Saraceno, Clara Chair: Yb-lasers High-Power CA-6: 12:30 – 11:00 .Buldt J. nttt fApidPyis Jena, Physics, Applied of Institute ensa 3Jn 2021 June 23 Wednesday 1 ; .Stark H. , 1,2 OM10 ROOM n .Limpert J. and , μ rmamse os- master a from m 2 ; Helmholtz-Institute, 3 ruhfrInsti- Fraunhofer 1 .M M. , ü ller 1,2,3 1 , ; h eeo C-band. telecom the to conversion polarization- frequency and preserving using SPDC-source ber of km a 40 to up over tion distribu- demonstrate entaglement we high-delity to- where quantum experiment networks based trapped-ion an wards present We Austria Innsbruck, 6020 Quanteninformation, und tenoptik f Institut Wissenschaen, Saarbr 2 66123 Fakult Saarlandes, Becher C. and Bock 11:00 ∙ Networks Quantum based Trapped-Ion for Distribution Entanglement Long-Distance WED EB-6.1 Germany Saarland, J Chair: II Entanglement of Distribution Long-Range EB-6: 12:30 – 11:00 ae nagaigisrbdwith inscribed signals. grating telecommunication a middle-infrared on based the towards sion .Bauer T. serihshnAaei der Akademie Österreichischen 1,2 .Kucera S. , ü gnEcnr nvriyof University Eschner, rgen 1 OM11 ROOM .Arensk J. , 1 ü ; kn Germany cken, 1 ä T RPhysik, FR NT, t 1 Universit .Eschner J. , ö tter ü Quan- r 1 ä M. , des t 1 , ; NOTES
Wednesday Orals Wednesday Orals nie8uee ae i tune- ltration. spectral via able laser ber 8-gure inside generation soliton dissipative stable searching for algorithm Q-learning of performance the demonstrate Technologies,We Photonic Kingdom United Birmingham, of stitute Russia Novosibirsk, 1 various self-starting functions. evolution- optimizes merit user-dened the output an pulsed algorithm, functions. running ary transfer Aer spectral intracavity and nonlinear both interfaced on applying controls ber with ultrafast smart laser a present We France Université Dijon, Dpt, Bourgogne—Franche-Comté, Photonics CNRS, Serebrennikov P. and Hertz, E. Nafa, Grelu M. let, 11:15 ∙ Controls Intracavity Advanced and Optimization Algorithm Genetic with Laser Mode-locked Autosetting WED CJ-4.2 J43WD11:30 Kokhanovskiy A. laser ber 8-gure self-tuning for algorithm learning reinforcement Deep WED CJ-4.3 .Grro,F ilr,A Coil- A. Billard, F. Girardot, J. ooiis tt University, State Novosibirsk ; aoaor C M 6303 UMR ICB Laboratoire OM1 ROOM 1 n .Turitsyn S. and , 1 , ∙ .Kuprikov E. ; 2 so In- Aston 1 K. , 1,2 ; ird ltwaveguide. slot nitride silicon conventional 4x a by to intensity compared geometry signal the improve waveguide optimized atlmpnoieso waveg- slot uides. pentoxide waveguide- utilizing tantalum sensor a Raman enhanced demonstrate We USA Barbara, Santa Barbara, Santa California, of University Facility, tion Santa USA Barbara, Barbara, Santa California, of University Engineering, Computer Bel- gium Gent, University, Ghent tonics, gium Bel- Gent, University-IMEC, Ghent Baets rsoi eeto faeyeeat nm. acetylene 1520 of detection spec- troscopic through demonstrated waveguide- core, the inside eld the interaction with enhanced gas through has sensitivity waveguide porous meso- thin-lm A interaction. eld evanescent inadequate have sensing gas for waveguides Chip-integrated Norway Tromsø, Norway, of Mitchell B. Jágerská 11:30 ∙ Waveguides Using Detection Gas Spectroscopic WED CH-6.3 11:15 ∙ Spectroscopy Raman Enhanced Waveguide for Waveguides Slot Pentoxide Tantalum WED CH-6.2 .Dta .Abri .Vk n J. and Vlk, M. Alberti, S. Datta, A. Liu Z. omas ; ; 1,2 2 3 etrfrNn-adBiopho- and Nano- for Center eateto lcrcland Electrical of Department 1,2 ; 1,2 ; 1 nmMesoporous in-lm ihidxcnrs and contrast index high e UiT htnc eerhGroup, Research Photonics .Blumenthal D. , .Zhao Q. , OM2 ROOM 4 .Zhao H. , ; 4 CBNanofabrica- UCSB rtcUniversity Arctic e 3 .Shi P. , 1,2 3 .Le N. , n R. and , 1,2 CLEO , rqec eeainmodel. generation dierence frequency four-wave simple a consistent with was CEP the of value lute nitrogen. in 10 amentation at pulses sub-half- of cycle generation demon- the experimentally strated have We Taiwan Hsinchu, University, Tung Japan Nagoya, 1 Kusama 11:30 Huang W.-H. lamentation two-color through 10 sub-half-cycle of Generation WED CF-5.2 μ ooaTcnlgclInstitute, Technological Toyota ussuigfu-aemixing four-wave using pulses m ® Erp-QC2021 /Europe-EQEC 1 .W Luo C.-W. , OM3 ROOM 1,2 ; .Zhao Y. , 2 μ ainlChiao National 2 hog l- through m and , ∙ .Fuji T. abso- e 1 S. , 1 ; 90 ⋅ .Wang A. Garcia-Lechuga M. 11:15 pulses laser ultrashort spectrally-tuned by induced silicon in amorphization surface Deep WED CM-2.2 ∙ 11:30 2- at pulses laser picosecond with silicon of dicing stealth ultrafast of foundations the Laying WED CM-2.3 n a ev nftr o dicing for future applications. in serve may and strength breaking reduced a showed 2- pulses. bulk with laser the silicon into of induced were tions modica- elongated Transversally 07745, Germany Jena, 7, Engineering, Precision Albert-Einstein-Straße and Optics Jena, 3 07745, Fr 15, Germany Friedrich- Einstein-Str. Photonics, Schiller-Universit of Center Limpert 1 J. Heuermann T. nm-limit. 70 cur- rent the exceeding much be achieved, can nm 128 of layers Amorphous 515nm-4000nm. writing from laser wavelength femtosecond the tun- ing by writ- achieved is waveguide applications ing telecom for sil- icon in amorphization surface Deep France seille, Mar- 7341, UMR LP3 CNRS, versity, Spain Madrid, IO-CSIC, Óptica, de Instituto Group, Spain Madrid, Madrid, de Autónoma Universidad 1 .Blothe M. ruhfrIsiuefrApplied for Institute Fraunhofer Abbe Physics, Applied of Institute Aplicada, Física de Departamento ö ensa 3Jn 2021 June 23 Wednesday μ esig3 74,Jn,Germany Jena, 07743, 3, belstieg wavelength m 3 ; .Grojo D. , 2 1,2,3 emot nttt Jena, Institute Helmholtz OM4 ROOM 1 .Chambonneau M. , ; 1,2 n .Nolte S. and , ; 3 oie samples modied e ä i-asil Uni- Aix-Marseille .Gebhardt M. , 2 ea Albert- Jena, t ae Processing Laser 1 3 μ .Casquero N. , and , picosecond m ∙ .Siegel J. 1,2 1,3 2 1 2 , , , ; ; ; hl o eurn erwhor regrowth mounting. requiring epidise-down compatible drivers, not diode while 5V laser standard with below operating voltage and regions active of 9 only temperature 7 at lasers operation cascade quantum room continuous-wave report We Computer M Universit and Technische Electrical Engineering, Depart- of and ment Institut Schottky Belkin M.A. ter and Boehm, Krakofsky, J. G. Gardanow, A. Zhang, ∙ 11:30 Operation Wave Continuous Voltage Low Regrowth-Free for Stages 9 with Lasers Cascade Quantum Mid-Infrared WED CB-4.3 operation. wave -20 at of mW a power 0.23 generating maximum while single-mode of mA current 11.0 only threshold a exhibiting 4.3 at operating laser cascade quantum a present We Faist J. Z and 11:15 Scalari, G. Beck, ∙ Laser Cascade Ultra-low WED CB-4.2 .Brhr,W brasn K. Oberhausen, W. Burghart, D. M. Wang, R. Kapsalidis, F. Wang, Z. ü ü ih Z rich, ce,Grhn,Germany Garching, nchen, ü ih Switzerland rich, OM5 ROOM ehl Quantum reshold μ ∘ aeeghand wavelength m ncontinuous- in C μ with m ; ; Wal- ETH ä t loe values. allowed maximum fundamental its limit that constraints universal nd and scat- terers, line and point using in lms, polaritons thin 2D and light strength between coupling the quantify We Avan Estudis Spain Barcelona, i Recerca de lana Castelldefels, Spain Sciences, Photonic of 11:30 Abajo ∙ polaritons 2D into light of coupling Maximal WED EG-3.3 plasmonic of picocavities. gen- mechanism the probe eration to of We structures nature these multimode the under excitation. leverage laser studied dual-tone are (NPoM) nanocavities Nanoparticle-on-mirror Lau- Lausanne, Switzerland sanne, de fédérale nique 11:15 Galland C. and ∙ Picocavities Optical of Study Raman Dual-Tone WED EG-3.2 .J .Dias C. J. E. Chen, W. Ahmed, A. Verlekar, S. ; 1,2 2 ; CE nttcóCata- Institució - ICREA 1 OM6 ROOM CO- ICFO 1 ; n .Grí de García J. and cl polytech- École Institute e ç ats, ea rcig hc srobust pulse. infrared is mid- initial the of which variations against tracking, delay electro-optic for mid- waveform lter, infrared monochromatic optical a type providing Fabry-Pérot via pulse a mid-infrared few-cycle of elongation a the demonstrate We Hungary Budapest, K., K Kutató omat Universit Germany Germany Pervak f Institut V. and Hussain .Weigel A. ikri aiis nteSl and structures. I II Silk the in shaped cavities, broin silk cylindrically of properties the photo-elastic of and investigation light-localization the for res- used is 1.5 modes the at onation gallery Whispering and Parma, Italy Electronics CNR, (IMEM), for Magnetism Materials Italy of of Parma, University Parma, Architecture, Heraklion, and Crete, Technology,Greece of & University Science and Materials Greece Research aklion, Her- (FORTH), Technology-Hellas for (IESL), Laser Foundation and Structure tronic Pissadakis Selleri Tsilipakos 11:30 ∙ cavities mode gallery whispering broin silk tuneable strain in birefringence Optical WED CE-6.3 11:15 ∙ Tracking Delay Electro-Optic 8.5 at Standard Temporal Based Fabry-Pérot WED CE-6.2 .Korakas N. Amotchkina T. 3 ; .Iannotta S. , 3 2,3 ü eateto Engineering of Department ä ; ; 1 uneotk Garching, Quantenoptik, r M t 1 1,2,3 .Jacob P. , .Cucinotta A. , ; OM7 ROOM 3 1,2 oeuái-Ujjleny- Molekuláris- 2 .Hahner D. , 1 Ludwig-Maximilian- ü ; ö .Vurro D. , 1 nttt fElec- of Institute μ ce,Garching, nchen, hsn Nonprot zhasznú .Trubetskov M. , 2 for m μ ; 2 pcrlband spectral m 1,2 eatetof Department 1 .Pupeza I. , Max-Planck- 4 ; n S. and , 4 Institute 2 3 S.A. , 4 S. , O. , 1,2 1 , , ing exceed- cooperativity tomechanical ( Q cavity crystal photonic ( 1D a tures fea- system Our transducer. mono- nitride silicon a nano-optomechanical lithic of characterization fabrication, design, and the report We Switzer- land Lausanne, (EPFL), sanne Lau- Technology of Institute Federal Kippenberg T.J. and Engelsen, 11:30 ∙ Transducer Optomechanical Nitride Silicon Cooperativity High A WED EA-3.3 can theoretically limit. Heisenberg the and reach scat- light of tered self-homodyne on based f Blatt Heidegger 11:15 ∙ Self-Homodyne via Position Nanoparticle’s Levitated a of Detection WED EA-3.2 l sdetected. nanoparti- is levitated cle a of the position which with eciency in- the to crease technique a demonstrate We Austria Innsbruck, 21a, Technikerstrasse Wissenschaen, Akademie der Österreichische Quanteninfor- mation, und 25, Quantenoptik Austria Technikerstrasse Innsbruck, Innsbruck, ü Q ..Bryi .Aamhgi N.J. Arabmoheghi, A. Bereyhi, M.J. Bykov D.S. xeietlhsk Universit Experimentalphysik, r Q 10 ≈ 1,2 3 10 > . n ..Northup T.E. and , 5 1 10 nertdwt high- a with integrated ) .Cerchiari G. , OM8 ROOM 6 1 aoemwt op- with nanobeam ) .Dania L. , ; ehdis method e 2 ntttf Institut 1 ; 1 Institut 1 1 ; R. , K. , Swiss CLEO ü ä r t Courderc Tonello A. Baronio Laser. Emitting Surface ity Cav- Vertical a in processes) librium equi- (thermal con- photons of densation Einstein Bose and ther- malization photon of signatures we Yet observe devices. emitting equilib- light of rium out as known are Lasers Kingdom United London, , College France Valbonne, 2 Nice, de Physique 1 Lippi 11:15 ∙ condensates? Einstein Bose as operate lasers semiconductor some Can WED EF-3.2 LM M NS75,Limoges, 7252, France CNRS UMR XLIM, Mansuryan T. 11:30 ∙ medium nonlinear quadratic 2D a in ing beam-reshap- and Filamentation WED EF-3.3 nievsbespectrum. visible entire the covering accompanied broadening spectral is by behavior Such crys- tal. quadratic a second in the wave of harmonic for recovery beam bell-shaped the a by followed lamenta- tion, spatial the reported We Telecomunicazioni, dell’Informazione, Italy Rome, University, Sapienza e Elettronica University, Ingegneria USA Methodist Poland Dallas, Warsaw, Southern Sciences, 5 of Academy d’Aquitaine, Polish Chemistry, FrancePhysical d’optique Center, Talence, Technology Lasers Institut & tics Italy Brescia, .Barland S. .Jauberteau R. hsc eatet Imperial Department, Physics de Institut d’Azur, Côte Université eateto Mathematics, of Department ® 1 Erp-QC2021 /Europe-EQEC .Nyman R. , ; 2 .Wetzel B. , 1 ; 2 1 nvriàd Brescia, di Università OM9 ROOM .Wabnitz S. , 1 nvriéd Limoges, de Université 1 ; .Azam P. , ; 1 1,2 .Krupa K. , 3 6 LhNV Op- ALPhANOV, ; 2 iatmnodi Dipartimento .Wehbi S. , n .Kaiser R. and , 1 ..Aceves A.B. , 4 nttt of Institute 6 n V. and , 1 G.L. , 4 F. , 1,3 5 1 , , ; ; ; 91 ⋅ A62WD11:30 Bienert ∙ Green Ultrafast Multi-kW the Towards WED CA-6.2 .Bauer D. e nLBO. in er a on ampli- multipass of based thin-disk Yb:YAG generation is It harmonic second power. average of kW 1.4 than more delivering quality beam laser near-diraction-limited green with ultrafast an present We Germany Schramberg, France Germany Stuttgart, (IFSW), AhmedStrahlwerkzeuge Abdou M. .R C. ensa 3Jn 2021 June 23 Wednesday ; ö 1 cker .Villeval P. , 3 ; nDs Laser in-Disk .Killi A. , 3 OM10 ROOM rmfLsrGmbH, Laser Trumpf 2 1 rsa ae,Messein, Laser, Cristal .Loescher A. , 3 1 2 .Graf T. , ; .Lupinski D. , 1 ntttf Institut 1 1 and , F. , ü 2 r , t efrac sawavevector- a repeater. quantum multiplexed as performance analyze and its modes genera- 500 across Bell-state tion for platform experimen- an tal present dis- We inter-city tances. on distributed be yet to repeaters quantum applications, feasible require broad nd pho- tons of pairs Quantum-entangled Copanhagen, Denmark Copenhagen, of University stitute, fPyis nvriyo Warsaw, of Poland University Warsaw, Physics, of of Poland Warsaw, University Warsaw, Technologies, Centre New Technologies, of Optical tum Parniak M. Leszczy ∙ 11:30 repeaters quantum near-term for platform multimode A km? of hundreds across photons entangled send to How WED EB-6.3 network. quantum geneous hetero- a in information quantum of of encodings dierent connection on relying the nodes enables that proto- col swapping report entanglement we an qubits, continuous- optical and variable discrete- be- tween entanglement 5298, hybrid on Based UMR France CNRS, Bordeaux, Institut Bordeaux, d’Optique, de Universit’e France, Nanoscience, et Numérique tonique de France Collège Paris, ENS-PSL Université, CNRS, Université, bonne Guccione 1 G. Jeannic 11:15 ∙ Networks Quantum Heterogeneous for Protocols Teleportation Hybrid WED EB-6.2 .Lipka M. Darras T. aoaor ate rse,Sor- Brossel, Kastler Laboratoire 2 ń .Dong H. , ski 1,2 OM11 ROOM 1 1,2 1,3 .Cavaillès A. , .Mazelanik M. , 1 .Wasilewski W. , ; ; n .Laurat J. and , 1 ; 2 etefrQuan- for Centre aoaor Pho- Laboratoire 1 3 .Asenbeck B. , il orIn- Bohr Niels ; 1 2 .Le H. , Faculty 1,2 1 and , A. , 1 1 , ; NOTES
Wednesday Orals Wednesday Orals swt ekpwro ~5.6MW. of power peak a with fs ~44 to compressed of be can energy that 625nJ an with pulses generates trY-oe ber. Yb-doped 25 eter a on based lator oscil- Maymshev a demonstrate We Cambridge, Kingdom United Cambridge, of versity Kingdom Southampton, United 2 of Southampton, University tre, Ren 1 11:45 Z. ∙ Fiber Yb-doped LMA few-mode a with Oscillator Mamyshev a from Pulses ~625nJ of Generation WED CJ-4.4 estechnique. time- lens using and evolution temporal technique, the TS-DFT on based mode-locking harmonic entire molecule, the soliton soliton, of including dynamics buildup lasers, mode-locked ber in of evolution dynamics soliton real-time discuss We China Aeronautics Nanjing, Astronautics, and of University Nanjing China jing, Nan- Technology, & Science mation Engineer- China Hangzhou, and University, Zhejiang Science ing, Optical of ∙ lasers ber mode-locked in dynamics buildup 12:00 soliton the Revealing (Invited) WED CJ-4.5 .Lin D. .Liu X. abig rpeeCnr,Uni- Centre, Graphene Cambridge Cen- Research Optoelectronics ; 1,2,3 2 1 1 ajn nvriyo Infor- of University Nanjing .Xu D. , n ..Richardson D.J. and , ; OM1 ROOM n .Huang L. and 3 olg fAstronautics, of College 1 .He J. , μ oediam- core m 2 oscillator e .Feng Y. , 1 ; 1 College 1 1 , ; ; dlt otedsrdholographic desired images. the to delity good their simulate demonstrating and performance, these holograms We on multicolor based two cross-talk. design low and that mission trans- high with arrays lters color as nanohole serve design We Meta-Optical Australia Victoria, (TMOS), Systems Transformative Aus- for 3010, tralia Victoria Melbourne, 2 Australia 3010, Victoria Melbourne, of University Engineering, Electronic 1 Cadusch J. ∙ 12:00 sensing index refractive for conguration resonator ring assisted interferometer Mach-Zehnder WED CH-6.5 ∙ 11:45 simulation and design phase: detour and arrays nanohole plasmonic on based hologram Multicolor WED CH-6.4 needn fteQ-factor. this the is of achieve independent which range, to dynamic congu- utilized enhanced is resonator interferometer ration ring res- assisted ring presented. a Mach-Zehnder is the sensor of onator range in dynamic enhancement Four-fold Norway Trondheim, Tech-nology, and Science of University gian .YdvadA Aksnes A. and Yadav M. Khaleghi Mousavi S.S. colo hsc,Uiest of University Physics, of School and Electrical of Department ; 3 R eteo Excellence of Centre ARC 1 OM2 ROOM n ..Crozier K.B. and , 1 .Wen D. , ; Norwe- 1,2,3 CLEO 1 e , ; ; etto nagngas. argon la- in its mentation on laser this by generated ics interfer- harmon- spectral odd adjacent between the ence of phase measuring the by 3.9um at mid-infrared source ultrafast laser an carrier-envelope of phase the of quantify We University Austria Vienna, Technology, Vienna of Institute, USA University Tucson, Sciences, Arizona, Optical of Pugzlys Shumakova ∙ argon 12:00 in lament laser mid-infrared in interference spectral harmonic using characterization phase Carrier-envelope WED CF-5.4 duration. fs 6.8 sub-150 – 5.4 between tunable >400 delivers OPCPA pre- sented. is laser Cr:ZnS fs a on based PAs OPC- mid-IR for front-end novel A Germany Elsaesser Berlin, Institute, T. Born Max and Griebner, U. Mei, ∙ 11:45 Mid-Infrared the in Generation Pulse Femtosecond for Laser Cr:ZnS a on based Front-End OPCPA WED CF-5.3 .Polynkin P. C. Grafenstein, von L. Fuertjes, P. ® Erp-QC2021 /Europe-EQEC 2 n .Baltuska A. and , OM3 ROOM 2 2- e .Barker J. , 1 .Gollner C. , μ upd1kHz 1 pumped m μ de pulses idler J ; 2 2 Photonics ; μ 1 1 with m College A. , 2 V. , ; 92 ⋅ ln noslcnpooi chips. photonic silicon cou- into light pling vertical and routing op- tical ecient for circuits waveguide 3D of bending high-density fa- cilitated silica fused of and inside disks waveguides mirror process- micro-void of glass ing laser Femtosecond Canada Toronto, laser silicon. 3D inside writing achieve to interactions of aspects dynamical key in- we the ns, vestigate 5 to fs 190 from durations of pulses 1550-nm Marseille, synchronizing By F-13288, France LP3, CNRS, Grojo D. 11:45 ∙ Silicon of Structuring Internal for Parameters Critical as Contrast Temporal and Duration Pulse WED CM-2.4 .Herman P. ∙ 12:00 Photonics Silicon for Platform PCB Optical New a Circuits: Mirror-Waveguide Structured Laser 3D WED CM-2.5 .Ds .Wn,O tz,and Utéza, O. Wang, A. Das, A. .Rhmor,G jg,and Djogo, G. Rahimnouri, A. ensa 3Jn 2021 June 23 Wednesday ; i-asil Université, Aix-Marseille ; OM4 ROOM nvriyo Toronto, of University eeto fm/shaigrates region heating active the inside mK/ns for of allowing detection resolution temporal lasers with temperature quantum-cascade pulse- the pumped of measurements on dynamics report We Saint-Petersburg, Russia Petersburg, LLC, Russia Russia Optics Petersburg, Sokolovskii Karachinsky comb dual a spectrometer. necessary tightly-locking properties for comb bandwidth the actuation of demon- We MHz strate intensity-modulated light. optical a near-infrared of to of comb cascade injection frequency response quantum laser the mid-infrared study We Switzerland Laubisr Switzerland CH-8093 Zurich, Zurich, ETH Electronics, .Slipchenko S. Neuchâtel, CH-2000 Switzerland de Université Neuchâtel, Physique, de Institut S 1 T. Beck Kapsalidis F. Hamrouni M. Losev Mylnikov Chistyakov 12:00 Dudelev V. Lasers Quantum-Cascade Pulse-Pumped of Dynamics Heating WED CB-4.5 ∙ Modulation Intensity 11:45 and Injection Light Near-Infrared by Comb Frequency Laser Cascade Quantum Mid-Infrared a of Control Frequency WED CB-4.4 .Komagata K. aoaor Temps-Fréquence, Laboratoire 2 ü 1 ..Wittwer V.J. , μ ; .Novikov I. , dmeyer -cl pta n sub-ns and spatial m-scale ü itas 4 H81 St CH-8712 44, tistrasse 3 1 TOUiest,Saint- University, ITMO .Gladyshev A. , 1 1 OM5 ROOM ; ; 1 .Babichev A. , 2 2 .Mikhailov D. , .Egorov A. , 1 1 nttt o Quantum for Institute 1 2 oeIsiue Saint- Institute, Ioe n .Schilt S. and , .Pikhtin N. , .Jouy P. , 1 1 .Matthey R. , .Shehzad A. , 2 .Lyutetskiy A. , ; ; 1 3 .Hugi A. , Rwe AG, IRsweep 2 3 Connector and , 3 2 2 M. , 1 1 S. , V. , D. , L. , ä ∙ fa, G. 3 1 1 1 1 , , , , ; obdmolecules. ad- sorbed and materials plasmonic of tion equilibra- level Fermi through tion, produc- carrier charge assisted mon plas- or photoexcitation comple- to mentary pathway, transfer metal-molecule charge new a SERS, by itor mon- and highlight, we study this In Central China of Changsha, University, Electronics, South School and Metallurgy, Physical Powder of Germany Ludwig-Maximilians- Faculty Universit Physics, of Munich, Romania Nanoinstitute Cluj-Napoca, 2 versity, Cortes E. and Liu 12:00 ∙ systems plasmonic in equilibration level Fermi through transfer charge Metal-molecule WED EG-3.5 155 and Hz nm 6 of frequency and tude ampli- capillary Q=10^5, and a phase measure micro- III Winsor submerged the near drop a conditions. operate room We at resonator mi- cro optical soest the on report We Singapore Singapore, 3 University, Technion Israel Technology, City, of Institute Carmon T. and 11:45 Chattopadhyay ∙ Fluctuations Brownian Giant with Cavities WED EG-3.4 .Stefancu A. Douvidzon M. hi nHbi Nanosystems, Hybrid in Chair Israel Aviv, Tel University, Aviv Tel 3 .Ciceo-Lucacel R. , ä ; M t ; OM6 ROOM 2 3 1 ayn Technological Nanyang tt e Laboratory Key State .Lee S. , 2 ; 2 3 .Chong Y. , ü 1 ; ce,Munich, nchen, ae-oyiUni- Babes-Bolyai 1 ehin Israel Technion, 1 2 1 .Leopold N. , .Li Z. , U. , 3 M. , 1 2 , , ; ; n oaiainstate. the order polarization and spectral radial in their upon of losses resonances suppression poling of selective role the reveal results Experimental cavities. cylindrical glass, borosilicate reso- poled, thermally in mode investigated are nances gallery Whispering Kingdom United of Southampton, Southampton, University (ORC), Centre search Her- Crete, Greece aklion, of University Physics, Crete, Greece of Heraklion, University Technology, & 2 Greece Heraklion, (FORTH), Hellas Technology- Foun- and Research for (IESL), dation Laser and Structure Pissadakis Hewak D.W. Filippidis 100 than less of time switching a prove we voltage tuning, driving and mi- crostructuring laser surface lay- optimization, By out switch. thermo-optical fast a design, of characterization the and fabrication present we work this In Italy , Milano Milano, di Italy Milano, IFN-CNR, 2 nologie, 1 .Osellame R. carelli ∙ 12:00 microcavities optical glass borosilicate poled thermally in resonances mode gallery Whispering WED CE-6.5 11:45 ∙ chip glass a in switches thermo-optic of response time the shorten to strategies New WED CE-6.4 .Korakas N. Paiè P. eateto aeil Science Materials of Department Politecnico Fisica, Nanotec- di Dipartimento e Fotonica di Istituto 1 .Sala F. , 1 1 .Calvarese M. , 1 .Moog B. , ; OM7 ROOM 4 1,2 1 1,2 ..Zervas M.N. , μ nttt fElectronic of Institute ; s. n .Bragheri F. and , 4 .Tsafas V. , polcrnc Re- Optoelectronics ; 1,2 3 eatetof Department .Bassi A. , 4 .Craig C. , 1,2 .Cec- F. , 4 n S. and , 1,3 G. , 1,2 4 1 , , ; ; ; G Technology, of University G Chalmers Technology, Sweden Uni- of Chalmers versity Nanoscience, and 1 oois nvriyo Warsaw, Poland of Warsaw, University Tech- New nologies, of Centre Technologies, 1 increase interaction. to light-matter continuum the bound in states photonic exhibit can membranes, which spaced closely inte- grated, create to allows approach Our heterostructures. AlGaAs in slabs tal characterized crys- photonic bi-layered and suspended fabricated We Tassin P. afwu) n eosrt tfor ments. it measure- demonstrate correlation and twin-photons us), few (a real-time in single-photons calizing lo- camera faster magnitude of order an present We measurements. time real- adaptive and detection single- photon spatially-resolved from ben- et oen technologies Quantum Denmark Copenhagen, Copanhagen, of University Institute, 12:00 ∙ second? per frames camera 000 200 at photons single observe to How WED EA-3.5 Fitzgerald J.M. 11:45 ∙ heterostructures AlGaAs with optomechanics free-space Integrated WED EA-3.4 .Lipka M. Glushkova A. eateto Microtechnology of Department etefrQatmOptical Quantum for Centre ö eog Sweden teborg, ; 2 2 n .Wieczorek W. and , eateto Physics, of Department 1 OM8 ROOM n .Parniak M. and 1 ..Manjeshwar S.K. , 2 ..Wang S.M. , ; 2 il Bohr Niels ö teborg, 1,2 CLEO 1 1 2 , , ; ; ae H ae source. laser way polariton- THz based a the of pave realization results towards Our cavity. micro- GaAs-based a in photolu- minescence time-resolved by and demonstrated angle- condensate, polari- a ton of of observation excitation rst two-photon the report We Systems, Germany Material Universit Complex for Conrad-R Israel – 2 Israel Haifa, Technology, of Institute Technion Engineering, Hayat Schneider C. 11:45 Feldman ∙ Condensation Polariton Pumped Two-Photon WED EF-3.4 h- igmcoeoaosusing arrangement. pump-probe microresonators the in ring observed chi-2 be and can resonance dynamics crossings, Rabi demonstrate polaritonic avoided splitting, and the new how - photon-photon of polaritons concept - a quasi-particles present We Kingdom United Bath, Puzyrev Bath, 12:00 D. and lois, ∙ microresonators chi-2 in polaritons Photon-photon WED EF-3.5 .Landau N. .Srai,V akao,A Vil- A. Pankratov, V. Skryabin, D. ehicePyi n Wilhelm- and Physik Technische ® Erp-QC2021 /Europe-EQEC 1 ; 1 ä 1 .Jacovi R. , ö W t eateto Electrical of Department te-eerhCenter ntgen-Research OM9 ROOM 2 1 .H S. , .Panna D. , ü zug W rzburg, 1 ö .Brodbeck S. , ; ing nvriyof University 2 n A. and , ü rzburg, 1 S. , 2 , ; 93 ⋅ 0 mJ. above 100 energies pulse and power aver- age multi-kilowatt quality, beam diraction-limited delivering of ble capa- amplier multipass stable industrially thin-disk an on report We Stuttgart Germany and Stuttgart, University, Physics Technical Institute of (DLR), Center Aerospace KG, Co. Unterf + GmbH Lasers Scientic Germany Schramberg, Dekorsy Metzger T. Rampp A63WD11:45 ∙ mJ 100 above lasers ultrafast kilowatt-class WED CA-6.3 fotu oe eeachieved. were power output of 360W operation In mode fundamental 64%. operation of a eciency optical mutlimode an with in delivering of 1190W power output laser continuous-wave Yb:Lu2O3 ceramic thin-disk a on of report We Academy China Shanghai, of Science, Chinese Institute Inorganic Ceramics, Shanghai Opto-functional Materials, and Jiangsu and China 3 Xuzhou, University, Physics Normal Engineering, of Electronic and School Materials Devices, Laser Advanced of Stuttgart, Stuttgart, Germany of University 12:00 1 Graf ∙ laser disk thin Yb:Lu2O3 ceramic kW-class WED CA-6.4 .Dominik J. .Esser S. e aoaoyo Transparent of Laboratory Key f Institut ensa 3Jn 2021 June 23 Wednesday nds utps mlrfor amplier multipass in-disk 1 n .AduAhmed Abdou M. and , ö 2 rn,Germany hring, 3 .Dannecker B. , ; 1 ; .Xu X. , OM10 ROOM 1 2 2 RMFLsrGmbH, Laser TRUMPF ins e Laboratory Key Jiangsu 1 .Killi A. , ü .Scharun M. , Strahlwerkzeuge, r 2 .Zhang J. , 1 ; .Bauer D. , 1 ; n T. and , 2 TRUMPF 3 German 1 M. , 3 T. , 1 1 , ; ; rqec rcsigapproach. the processing of frequency versatility and scalability num- ber photon demonstrating pho- tons, single pure created pendently inde- between interference Mandel spectral Houng-Ou- fermionic show and we bosonic circuit, fre- photonic quency recongurable a Via Hannover, Germany Hannover, PhoenixD, University, Germany Leibniz Kues ∙ Processing Quantum Frequency-Domain 12:00 Scalable for Photons Single Generated Independently Between Interference Hong-Ou-Mandel Spectral WED EB-6.5 noise. be- vacuum squeezing low of dB 3.6 to mea- up suring oscillator, local real-time a independent with ber km 10 single-mode nm to up through 1550 light squeezed of detection and homodyne transmission demonstrate We Lyngby Denmark Kongens (Copenhagen), University, nical Andersen Lund U. and Gehring, T. Neergaard-Nielsen, ∙ 11:45 Oscillator Local True Real-time a with Detection Homodyne and Light of States Squeezed of Transmission Fiber Optical WED EB-6.4 .Koaa Kashi Khodadad A. J. Guo, X. Arnbak, J. Suleiman, I. 1,2 ; ; OM11 ROOM 1 ntteo Photonics, of Institue 2 lse fExcellence of Cluster ; emr Tech- Denmark 1,2 n M. and NOTES
Wednesday Orals Wednesday Orals htncatna r metallic are Estudis antennas i Photonic Recerca Avan de Catalana Spain Barcelona, 1 Herkert Winkler P. Bioimaging and Biosensing Ultra-sensitive for 14:30 Antennas Photonic (Invited) WED CH-7.1 Christian- Albrechts-Universit Gerken, Martina Chair: Sensors Imaging and Microscopy CH-7: 16:00 – 14:30 USA Cambridge,MA, University, Harvard Piccardo, Marco Chair: Combs Frequency Integrated in Next What’s Topics: Hot SP-2: 14:30 – 13:30 COIsiueo htncSciences, Photonic of ICFO-Institute ç t,Breoa Spain Barcelona, ats, 1 and , OM1 ROOM 1 ROOM 1 .Sanz-Paz M. , ∙ .Garcia-Parajo M. ; 2 ä ICREA-Institució ,Ke,Germany Kiel, t, 1 E. , 1,2 ; erpr h eeaino a of generation the report We Germany f Institut Mak Germany Garching, K.F. Maximilians-Universit and been silicon compact chip. photonic has a into architecture translated probe system demonstrated. to compact is chlorophyll lasers with semiconductor system triple-wavelength A scanning biological monitoring. for technology an eective are sensors multispectral Active Italy Pisa, Studies, Advanced of Kingdom United Glasgow, Glasgow, of University ing, 1 F61WD14:30 ∙ Oscillator Cr:ZnS Diode-Pumped a by Generation Mid-Infrared Multi-Octave Milliwatt-Level WED CF-6.1 Japan Techno- Nagoya, Institute, Toyota logical Fuji, Takao Chair: Sources Mid-IR Ultrafast CF-6: 16:00 – 14:30 12:15 Bogoni ∙ Monitoring Chlorophyll for Scanner Multispectral Integrated WED CH-6.6 .Nagl N. Maidment P. ae atSho fEngineer- of School Watt James 2 .Klitis C. , ü 1 .Pervak V. , uneotk Garching, Quantenoptik, r OM2 ROOM OM2 ROOM 1 ..Malik M.N. , ; 1 2 n .Sorel M. and , atAn School Sant’Anna 2 ; hg- eoaos eie,uigdrn nonlinear- dierent using devices, passive resonators) and (lasers) (high-Q active on based approaches existing Group. Technical Photonics Integrated OSA’s by organized sion ; 1 .Krausz F. , 2 ä Max-Planck- sssinwl hwaea1hu ita ae discus- panel virtual 1-hour a showcase will session is M t 1 Ludwig- ü nchen, 2 A. , vn iloe noeve ftemany the of overview an oer will event e 1,2 1,2 CLEO e , ; epeetanwsse for system new on based shaping a beam on-demand present We Italy Genoa, Spain Italy Genoa, Barcelona, 2 Barcelona, 14:30 On- WED CM-3.1 France Besan Uni- Franche-Comté, of Courvoisier, versity Francois Chair: I Processing Laser for Shaping Beam Spatial and Temporal CM-3: 16:00 – 14:30 1.5 K of number total a pro- energy vide mJ 5- 3.0 with few-cycle pulses by laser driven keV 8 at source X-ray hard table-top novel A Germany Berlin, Institute, U. Elsaesser Escoto, T. and E. Griebner, Bock, M. Woerner, M. 12:15 ∙ OPCPA 5 Few-cycle a by driven Source X-ray hard High-ux Ultrafast, WED CF-5.5 n .Surdo S. and ∙ Acousto-Optouidics With rate. etition .vnGaesen .Ko A. Grafenstein, von L. .Duocastella M. siuoIain iTecnologia, di Italiano Istituto α ® htn e us t1kzrep- kHz 1 at pulse per photons Erp-QC2021 /Europe-EQEC -l ae emShaping Beam Laser e-Fly OM3 ROOM OM3 ROOM ; 3 nvriyo Genoa, of University 2 ; 1,2 .Zunino A. , 1 nvria de Universitat ; ç a Born Max × .Hauf, C. , 0 Cu- 109 ç OM5 ROOM μ μ on, 2,3 m m , ; 94 ⋅ 5 nm. 250 than lower nano- features with structuring “in-chip” demonstrate beams and structured of use ex- smart We ploit wafers. silicon of bulk the con- in capability rst nano-fabrication the trolled introduce we Here, Turkey Ankara, Turkey, Center, 2 Turkey Ankara, Physics, of partment 12:15 ∙ Sabet Asgari R. wafers silicon inside deep nanofabrication Laser WED CM-2.6 nsAS unu-acd lasers quantum-cascade on and InAs/AlSb results (LDs) diodes recent laser GaSb-based our review We France Montpellier, CNRS, J.-B. and Rodriguez Cerutti, L. Baranov, A.N. Teissier, R. Loghmari, Z. Bartolome, ∙ Silicon on-axis on integrated epitaxially 14:30 lasers Mid-IR (Invited) WED CB-5.1 Germany Garching, Institute, tky Schot- Walter Belkin, Mikhail Chair: Lasers Semiconductor Mid-infrared CB-5: 16:00 – 14:30 ihih xiigrltdtlsa LOErp.Pan- Europe. CLEO at talks as related well exciting as highlight applications and characteristics, gener- comb device of ation, mechanism physical the discuss will ters THz). re- the to spectral visible various the (from spanning gions and Chi3) and (Chi2 ities .Tokel O. .Tuné .RoClo .Monge L. Calvo, Rio M. Tournié, E. ainlNntcnlg Research Nanotechnology National ensa 3Jn 2021 June 23 Wednesday 1,2 ; ; OM4 ROOM OM4 ROOM E,Ui.Montpellier, Univ. IES, 1 ikn nvriy De- University, Bilkent 1,2 .Ishraq A. , 1,2 and , ; etrdpresen- featured e rtieMtraxe Phénomènes et Regensburg, Matériaux oratoire Regensburg, Germany of sity Huber 1 R. .Zeller V. observed behavior. devices’ experimentally ex- the to plain provide predictions We theoretical spec- also beatnote technique. coherent troscopy a Lasers using Cascade of Quantum factor Mid-IR the enhancement of linewidth measurements present We G41WD14:30 ∙ Coupling Light-Matter Deep-strong of Switch-o Non-adiabatic Extremely WED EG-4.1 Kingdom United London, ImperialCollege Sapienza, Riccardo Chair: Nano-optics Ultrafast and Nonlinear EG-4: 16:00 – 14:30 Electronics, Z ETH Quantum Faist for J. and Institute 12:15 Beck, M. Kapsalidis, F. ∙ Lasers Cascade Quantum Mid-IR of Factor Enhancement Linewidth WED CB-4.6 .Mornhinweg J. Forrer, A. Franckié, M. Bertrand, M. eateto hsc,Univer- Physics, of Department ü ih Z rich, 1 ; .Ciuti C. , 2 1 nvriéd ai,Lab- Paris, de Université OM5 ROOM 5 ROOM n .Lange C. and , ü ih Switzerland rich, 1 .Halbhuber M. , 2 .Bougeard D. , n noBeng nvriyo Freiburg. of University NIST; Breunig, Papp, Ingo Scott and EPFL; Kippenberg, Tobias Schwarz, Wien; Benedikt TU CNR; Vitiello, Miriam include elists 1,3 1 1 , , ; ; e expansion. mer poly- as nanoantenna patch from single elds a EM map detect and in- teractions light/matter we of coupling light, strong mid-IR and resonator shining cavity optical polyethy- metal of metal-heterostructure- layer a inside lene a inserting By Italy Roma, diTecnologia, Italiano Istituto Nanoscience, Italy Life for Roma, Sapienza, France La Palaiseau, Saclay, 2 Paris Colombelli Sotgiu Gillibert R. ainlUiest fSingapore, of University National Singapore, Singapore Singapore, of University National Technologies, Quantum for Ling A. Viana-Gomez J. 14:30 ∙ Encapsulation Mode-center via Waveguide Polymer Photonic a to Heterostructure 2D a of Coupling WED CE-7.1 Royal Stockholm,Sweden – Technology, KTH of Institute Gallo, Katia Chair: Devices Optoelectronic Integrated CE-7: 16:00 – 14:30 ∙ expansion polymer 12:15 by resonators antenna patch and wells quantum in transitions intersubband between interaction light-matter of study Nano-IR WED EG-3.6 .Frank A. Malerba M. iatmnod iia Università Fisica, di Dipartimento 2 .Ortolani M. , 1,2 ; 1 n .Eda G. and , 1 .Zhou J. , 2 OM6 ROOM 6 ROOM ; eateto Physics, of Department 2 .Giliberti V. , 1 1 .Baldassarre L. , 2,Uiest de Université C2N, 6 .Verzhbitskiy I. , 2 ..Grieve J.A. , 2,3,4 2,3 n R. and , ; ; 3 1 Center Centre 3 S. , 1,5 2 2 , , , ; nects. intercon- optical of class promising a represent waveguides Self-written Germany Hannover, PhoenixD, Hannover, Germany Technologies, Optical Germany Braunschweig, Technology, quency mn simultaneously. ement el- sensing thermal as usage a characteristics enable their Furthermore, elements. optical dierent losses coupling between minimize and tion Kowalsky Zheng unu iuain emeasure We of toolbox simulation. the quantum to sound, tool new with a lattice adding optical an cre- ates that experiment an present We Kingdom United drews, 2 1 ∙ QED cavity confocal using sound with 14:30 lattices optical Creating (Invited) WED EA-4.1 Germany ing, Garch- MPQ Blatt, Sebastian Chair: Gases Cold and Cavity-QED EA-4: 16:00 – 14:30 12:15 ∙ Sensor Temperature and Interconnects Low-Loss as Waveguides Self-Written WED CE-6.6 .Lev B. G A. nvriyo t nrw,S.An- St. Andrews, St. of University USA Stanford, University, Stanford 2,3 ü 1 .Guo Y. , .Roth B. , nther ; ; 1,3 yeal ii connec- rigid a enable ey OM7 ROOM 7 ROOM ; 2 3 anvrCnr for Centre Hannover lse fExcellence of Cluster 1 1,3 nttt fHg Fre- High of Institute .Garg R. , 1 n .Keeling J. and , 2,3 n W. and , 2 L. , 2 ; ; hA hsqedsLasers - France des 8523 Lille, Molécules, 2 Physique UMR et Atomes - CNRS, PhLAM Lille, of Trillo tomography. single detector via quantum it and characterize and vacuum state, photon the of superpo- sitions the of discrimination the for detector displacement photon with combined controlled real-time of feedbak consisting mea- surement a develop experimentally We Physics, Denmark, Denmark Lyngby, Kongens of States of University Technical Department Quantum (bigQ), Macroscopic .Conforti M. 14:30 ∙ process recurrence Ulam Pasta Fermi the in breakings symmetry multiple induced Loss WED EF-4.1 France Nice, Nice, de Physique de Institut Barland, Stephane Chair: Fibers Optical in Regimes Nonlinear EF-4: 16:00 – 14:30 Andersen U.L. and 12:15 ∙ Detection Photon with Measurement Feedback a of Tomography WED EA-3.6 .Vanderhaegen G. Neergaard-Nielsen, J.S. Izumi, S. eateto Engineering, of Department 2 n .Mussot A. and , OM8 ROOM OM8 ROOM 1 .Kudlinski A. , 1 .Szrigiser P. , ; 1 ; etrfor Center 1 University 1 S. , CLEO 1 , ; a ocsaction. forces cal optomechani- and colloids in cesses pro- re- stochastic of a interplay an as of sult obtained Pat- is formation system. tern feedback op- single an tical by driven suspension loidal col- dy- a in self-organization nonlinear of namics the investigate We Germany ster, 12:15 Denz ∙ feedback. single optical by driven colloids in formation Pattern WED EF-3.6 .Lby,VJ ite,adT. and Wittwer, V.J. S 14:30 Labaye, F. ∙ Yb:YAG Sub-100-fs 69-W WED CA-7.1 and Science Norway Trondheim, Technology, of University Nor- wegian NTNU Tolstik, Nicolai Chair: Lasers Ultrafast CA-7: 16:00 – 14:30 okdti-iklsroclao gen- oscillator laser thin-disk locked mode- Kerr-lens a demonstrate We Neuchâtel, Switzerland 51, Bellevaux de Avenue Neuchâtel, de Université Fréquence, .Bboa .Genr n C. and Goenner, A. Bobkova, V. .Ds .Fshr .Modsching, N. Fischer, J. Drs, J. ü ® dmeyer nDs ae Oscillator Laser in-Disk ; Erp-QC2021 /Europe-EQEC nvriyo untr Muen- Muenster, of University OM9 ROOM 9 ROOM ; aoaor Temps- Laboratoire 95 ⋅ ycrto EY Hamburg, Elektronen- DESY, Germany Deutsches Synchrotron Science, 1 K J. 12:15 ∙ rod single a from power output cw W 500 with laser Yb:YLF crygenic diode-pumped Ecient WED CA-6.5 tutrdpoos euethis use We photons. using structured high- gates of quantum range dimensional broad a scheme perform to exible a demonstrate We Finland Tampere, ∙ 14:30 Hiekkam M. photons structured using operations quantum High-dimensional WED EB-7.1 Austria Innsbruck, of University Ringbauer, Martin Chair: Interference and Imaging Quantum EB-7: 16:00 – 14:30 discussed. are mechanisms physical wave- underlying and A observed is 1019nm to 995nm lasing. from shi for length employ- axis by E//c geometry ing rod in Yb:YLF laser cooled cryogenically from power output cw >500W present We Antalya Turkey Antalya, University, Bilim Engineering, Electronics and Electrical of Department ratory, Hamburg, Germany Hamburg, of University .Kellert M. .Fickler R. etrfrFe-lcrnLaser Free-Electron for Center ä ensa 3Jn 2021 June 23 Wednesday rtner esinga 1,2 ; ; n .Pergament M. and , OM10 ROOM OM10 ROOM 3 ; ae ehooyLabo- Technology Laser 1 ä 2 1 .Reuter S. , i .Pahkr and Prabhakar, S. ki, hsc Department, Physics .Demirbas U. , apr University, Tampere 1 F.X. , 1,3 1 , ; o,Uie Kingdom United tol, u cec n ehooy(MC- Germany Munich, Technology QST), and Science tum many Ger- Garching, Munich, of TechnicalUniversity Department, Physics and 14:30 ∙ heterostructures graphene/WTe gated in polarization spin current-induced local of read-out Optoelectronic WED EI-3.1 USA Bualo, Bualo, at University Perebeinos, Vasili Chair: Heterolayers Graphene EI-3: 16:00 – 14:30 mea- shared reference-frame. surement the as in misalignment such imperfections perimental in- ex- against robustness we their vestigate Further, dimension- steering. bounded so-called the on assumptions based minimal with and criteria entropies generalised on based steering quantum demonstrate We Brazil ritiba, Switzerland Geneva, 3 Geneva, of 12:15 Costa ∙ steering quantum robust of demonstration Experimental WED EB-6.6 .Kastl C. Wollmann S. eea nvriyo aaa Cu- Parana, of University Federal ; 3 ; uihCne o Quan- for Center Munich – 1 ; nvriyo rso,Bris- Bristol, of University OM11 ROOM 11 ROOM atrShtk Institut Schottky Walter 1 .Uola R. , ; 2 2 2 University n A. and , ; eslGusa emaddemon- and generalized beam Bessel-Gaussian polarized linearly the of refraction conical investigate We Kingdom United Birmingham, sity, Russia Petersburg, Sokolovskii 14:30 G.S. ∙ beams Bessel-Gaussian generalized with refraction Conical WED EJ-3.1 Spain Palma, Islands, Balearic the of University Javaloyes, Julien Chair: Light Tailored EJ-3: 16:00 – 14:30 ..MylnikovV.Y. OM12 ROOM NOTES 1 1 ..Rafailov E.U. , ; 1 ; oeIsiue St. Institute, Ioe 2 so Univer- Aston 2 and ,
Wednesday Orals Wednesday Orals ainlgotiaigta over- that imaging demon- ghost we tational Here compu- ber-based op- label-free strate standard system. a can tical with that captured information be of amount Amster- Netherlands dam, Amsterdam, Netherlands Universiteit sterdam, Amitonova H72WD15:00 ∙ imaging ghost ber-based label-free Sub-Nyquist WED CH-7.2 detection molecule sensitivity. cells single living with in their processes dynamic and nanoscale monitoring for nanometersuitability geometries various discuss into antenna will I light dimensions. and enhance conne that nanostructures .Abrashitova K. ircinlmtrsrcsthe restricts limit diraction e 1,2 OM1 ROOM ; 1 1 RN,Am- ARCNL, ; n L. and 2 Vrije betruhu 2.5 tun- throughout generating pulses able of few-cycle ampli- capable broadband setup parametric er optical Dual Centre, Lithuania Research Vilnius, Laser Lithuania University Vilnius, Ltd, Varanavi A. 15:00 ∙ 2.5 from Tunable Source Mid-Infrared sub-60fs Yb-laser-based WED CF-6.3 Schmidt-Universit 14:45 ∙ applications microscopy and spectroscopy for oscillator Cr:ZnS modelocked Kerr-lens WED CF-6.2 rsne.Otu oe 15W >1.5 power Output presented. region. print nger- molecular the in applications spectroscopic promis- unique for a source represents ing It power kW. peak 360 a of with pulses fs 39 ting Kerr-lens emit- oscillator broadband Cr:ZnS modelocked a report We many between power average 2.8-14 of over mW providing 75 low-noise oscillator, Cr:ZnS and diode-pumped high-peak-power a by generation directly driven intra-pulse dierence-frequency via light coherent mid-infrared multi-octave-spanning .Budri R. Pronin O. and Meyer J.G. μ m. μ unas ¯ o10 to m OM2 ROOM č ius 1,2 2 ; .Jurkus K. , 1 ä μ ih Conversion, Light ,Hmug Ger- Hamburg, t, m μ m-10 ; ; Helmut- 2 Vilnius 1 μ and , is m CLEO e oewvgiewt h de- the with waveguide mode few A Russia Rus- Moscow, sia, of Technology Chemical of sity Russia Moscow, Sciences, of Academy Russian of tute 1 Vasiliev S. ∙ Crystal YAG 15:00 in Beam Laser Femtosecond by Inscribed Waveguide Bragg Helical in Modes Momentum Angular Orbital of Excitation WED CM-3.3 le. struc- pro- plasma these the on depending on tures, heating and enhance- ment eld waves, surface tions, simula- Particle-In-Cell performing by investigated, have We dielectrics. of bulk the create inside rods nano-plasma pulses Bessel Femtosecond des avenue France Besancon, 15B Montboucons, 6174, Franche-Comte, CNRS UMR Bourgogne Univ. 14:45 Courvoisier ∙ dielectrics inside nano-structures on enhancement Field WED CM-3.2 Gaussian and annular beams. multiple high-throughput Bessel, with we processing material workstation, in writing it demonstrate implementing laser By a cavities. acousto-optouidic two cascading .Okhrimchuk A. F. and Giust, R. Ardaneh, K. rkoo eea hsc Insti- Physics General Prokhorov ® Erp-QC2021 /Europe-EQEC 1 ; OM3 ROOM n .Pryamikov A. and , ET-TInstitute, FEMTO-ST ; 2 1,2 edle Univer- Mendeleev .Likhov V. , 1,2 1 , ; 96 ⋅ unu-elbsdSESAMs InGaSb/GaSb quantum-well-based mid-infrared high-precision charac- reectivity terize to setups pump-probe nonlinear and present (<0.04%) We and Z Physics, Ultrafast Laser Electronics, Barh, Quantum A. for Keller Golling, U. M. din, B52WD15:00 Heidrich, J. SESAMs InGaSb/GaSb of characterization mid-infrared Precise WED CB-5.2 10 to 2 wave- from lengths emission covering and epi- taxy, molecular-beam Si by (001) substrates on-axis on grown (QCLs), ensa 3Jn 2021 June 23 Wednesday ; OM4 ROOM ∙ T Z ETH .Guk,BO Alay- B.O. Gaulke, M. ü ih Switzerland rich, ü μ ih Institute rich, m. ain nasnl eoao tthe at resonator nano-scale. single a exci- in plasmonic tations of dephasing and quan- population to modes the used analyse tively be can electron microscope transmission ultrafast an that demonstrate will we talk, this In Germany gen, G of University tute, Germany tingen, G Chemistry, Biophysical for tute Ropers C. and Japan Tsukuba, (NIMS), Science Materials for Na- Institute tional (ICYS), Scientists Young for ter Finland poo, Es- University, Aalto noengineering, 1 Ahmadi M. Feist A. ∙ 15:00 Structures Plasmonic Using Dichalcogenides Transition-Metal 2D in Enhancement Mixing Four-Wave Broadband WED EG-4.3 ∙ 14:45 microscopy electron transmission ultrafast by nano-resonators plasmonic in interferences modal of Observation WED EG-4.2 model. as quantum our duration, by cycle veried faster optical magnitude the of than order an than more oscillations polarization sub- cycle pronounced deep-strong by characterized extremely non-adiabatically. coupling deactivate light-matter We Dortmund, Germany University, Dortmund France Paris, 3 CNRS, Quantiques, .Dai Y. Louren H. eateto lcrnc n Na- and Electronics of Department Dprmn fPyis TU Physics, of 3Department inatyenhanced signicantly e 1 2 .Wang Y. , .Sivis M. , ç OM5 ROOM 1 o-Martins .Li S. , ; 1,2 2 ; ; nentoa Cen- International 1 2 1 .Das S. , 1,2 V hsclInsti- Physical IV. a ln Insti- Plank Max ö 2 n .Sun Z. and , tne,G ttingen, .Schrauder J. , wtho is switch-o e 1,2 .Geese A. , 1 .Xue H. , ö ttin- ö 2 1 2 1 t- , , , ; ; iuecmae osraeplace- mag- surface ment. of to orders compared two nitude than more by mode-coupling enhances geometry waveguide. elastomer ridge an of pho- mode-center the tonic into heterostructure 2D of a integration the demonstrate We Braga, Física, de Portugal Centro Física, de Abu Dhabi Abu Institute, Dhabi, Innovation nology Singapore Singapore, 5 of Singapore, University National Singa- Chemistry, Singapore Singapore, pore, of National University Materials, 2D Advanced Singapore Singapore, ã als Brazil Carlos, Carlos, São de São Federal versidade 1 H Worschech L. Lopez-Richard Naranjo A. ∙ Diodes Tunneling 15:00 Resonant in Spectroscopy Magneto-Electroluminescence Via Determination Density Carrier Charge WED CE-7.3 ions. Ga+ implanted from orig- inating atoms gallium neutral of transi- tions optical to lumines- attributed is the cence Ga+ where by lms implantation GaN near-infrared in centers site- of color and creation on-demand specic report We Kingdom United Southampton, gapore Sin- Singapore, University, nological Zheludev N.I. ∙ 14:45 Band Frequency Telecom Optical in Nitride Gallium in Centers Luminescence of Implantation Focused-ion-beam WED CE-7.2 ..Crood Oliveira de Cardozo E.R. So J.-K. unu eerhCnr,Tech- Centre, Research Quantum eatmnod íia Uni- Física, de Departamento ö ing ; 3 2 n .Dli Teodoro Daldin M. and , 1 nvriyo Southampton, of University .Soci C. , OM6 ROOM 1 .Pfenning A. , 3 1,2 1 .Hartmann F. , ..Marques G.E. , ; ; 1 1 ; 4 ayngTech- Nanyanag .Gao W. , eatetof Department 6 ; ; Departamento established e 3 2 etefor Centre Université 1 3 and , V. , 3 S. , 1,2 1 1 , , ; ; r eitdb retro-reected a by mediated are interactions eective atomic where cold clouds, stripe, in phases hexagon, honeycomb between tran- structural sitions novel present We King-dom of United Glasgow, University Strathclyde, Physics, of partment .L po n .Ackemann T. and Oppo, G.-L. 15:00 ∙ feedback optical by mediated atoms cold in transitions phase Structural WED EA-4.2 phonons. the relation of dispersion continuous the .Bi,GRM ob ..Yao, A.M. Robb, G.R.M. Baio, G. OM7 ROOM ; De- brrn aiis edemon- We passive cavities. in ber-ring on instability mismatch modulation synchronization of impact the investigate theoretically and numerically experimentally, We France d’Ascq, Mus- sot A. and Kudlinski, A. Conforti, ∙ 15:00 cavity ber-ring passive in instability modulation on mismatch synchronization of Eect WED EF-4.3 fre- detuning. pump-signal quency the MI by spontaneous mediated with interplay as an well as dynamics ex- pulse-splitting deterministic the optics space-time reveal recordings Single-shot ber a periment. in modulation re- instability observations higher-order new garding report We Physique - France PhLAM Lille, Molécules, et Atomes - Lasers des Lille Univ. ∙ 14:45 loop ber recirculating a in instability modulation higher-order of observation Spatio-temporal WED EF-4.2 symmetry occur. breakings which for multiple values highlights critical losses those of process. recurrence Ulam ber Pasta Fermi optical the in eect the losses of experimen- description complete tal a report We Italy Ferrara, Ferrara, of University .Ngii .Cpe .Cuiay M. Coulibaly, S. Copie, F. Negrini, S. Randoux S. and Suret, P. Copie, F. ; nvriyo il,Villeneuve- Lille, of University OM8 ROOM tuning e CLEO ; in 92Wa us uainof duration obtained. was pulse fs a 462 at W opera- 19.2 mode-locked tion, In was achieved. W 155 of power output an ation oper- multimode thin-disk In in conguration. Yb:YAB ex- of modelocking periments rst present We Germany Idar-Oberstein, (EOT), Germany Stuttgart, 2 Stuttgart, of University (IFSW), AhmedStrahlwerkzeuge Abdou M. Weichelt nvriar eFac IF,Paris, CNRS-IOGS-Université (IUF), France de Universitaire France Talence, Bordeaux, UMR 5298, Nanosciences, et Numérique Switzer- Université land Neuchâtel, Neuchâtel, Physique, de de Institut 1 Cormier 15:00 Hamrouni ∙ pulses 22-fs in mW 729 delivering oscillator laser Yb-doped Ecient WED CA-7.3 14:45 ∙ W 19 of power output average an delivering oscillator thin-disk Yb:YAB mode-locked SESAM WED CA-7.2 faysb10f ae oscillator. laser sub-100-fs any of power average highest the to sponds rate. 17.3- repetition at pulses MHz 84-fs 69-W erating .Labaye F. Beirow F. lcr-pisTcnlg GmbH Technology Electro-Optics aoaor Temps-Fréquence, Laboratoire ® ; Erp-QC2021 /Europe-EQEC 2,3 1 2 .Rytz D. , aoaor Photonique, Laboratoire 1 n .S T. and , .Modsching N. , 1 OM9 ROOM 1 .Dannecker B. , ..Wittwer V.J. , 2 1 .Graf T. , ; 1 ntttf Institut ü ; scorre- is dmeyer 3 Institut 1 1 1 1 M. , and , E. , B. , ü 1 r ; ; 97 ⋅ pta oe ln igebeam- single path. a along modes multiple spatial using eects interference two-photon investigate to technique esasre nest hnghost than imaging. intensity absorbed less and visibility/SNR better both it.vides with interacts light no object, an imaging coun- while - always terfactual is for that protocol imaging ghost a developed have We Kingdom United Bristol, Bristol, and of University Engineering, Electrical Electronic 15:00 of Department tory, Labora- Technology Engineering tum ∙ Exchange-Free Imaging Ghost WED EB-7.3 six- generated. to are dimension up chosen user with pump, spectral states dimensional the and of process shaping PDC the of pairs. engineering entangled dispersion Combining photon maximally high-dimensional controllable of highly source a present We (PhoQS), Germany Systems Paderborn, Quantum tonic Pho- for Institute Group, Optics tum Brecht B. and horn, 14:45 ∙ Pairs Photon Entagled High-dimensional of Source Controllable A WED EB-7.2 .HneadJ Rarity J. and Hance J. Silber- C. Ansari, V. Gil-Lopez, J. ensa 3Jn 2021 June 23 Wednesday OM10 ROOM ; tgae Quan- ntegrated ; spro- is Quan- uoPeoM,Brazil Preto-MG, Ouro Preto, Ouro de Federal Universidade Horizonte-MG, Brazil Belo de Gerais, University, Federal Minas Universidade Física, Fudan de China Physics, Shanghai, Department and of Physics Surface Italy Lab. Pisa, NEST, CNR-NANO, Nanoscienze di Ji M. Chiu Moutinho Dreifus 15:00 ∙ Graphene Bilayer Twisted in Photobleaching Enhanced and Absorption Intersubband Photoinduced WED EI-3.3 detection. light high-performance tunnel- for resistance tunable ing by modulated ef- fect photogating explore en- to us realized, abling been tun- has lateral junction vertical nel a a on and heterochannel based combined tor transis- eld-eect Dirac-source A Finland Aalto, Fi-00076 Physics, Quantum Applied of in Department Technology, Excellence of Centre Finland Aalto, Fi-00076 University, Aalto Nanoengineering, 1 Du Cui Dai 14:45 ∙ Resistance Tunneling Tunable by Modulated PhotogatingEect Using Phototransistor Graphene/Bi2Se3Heterojunction WED EI-3.2 nteWTe the curvature in Berry and coupling inter- layer by driven is spin-orientation tures. graphene/WTe on polarizations spin in large based resolve optoelectronic microscopy to Kerr scheme an magneto-optical utilize detection We ...Pogna E.A.A. Yoon H.H. eateto lcrnc and Electronics of Department 1,2 1,2 1,2 2 7 .Lipsanen H. , n ..d Paula de A.M. and , .Manzoni C. , ; .Bai X. , ..Fernandez H.A. , 3 ..Alencar T.V. , 4 eatmnod Física, de Departamento 5 OM11 ROOM .Venezuela P. , 2 . 1,2 1 .Ahmed F. , current-induced e .Miao X. , 1,2 ; ; .Li D. , 1 2 n .Sun Z. and , 8 3 2 .Cerullo G. , Departamento aoaoyof Laboratory heterostruc- 4 ; ; 3 M.V.O. , 2 ; 6 .von D. , 2 1,2 1 1,2 P.-W. , 5 Finnish Istituto Núcleo 1 X. , M. , Y. , 1,2 8 , ; epeetafaeokt mod- to framework a present We Greece aklion, Her- Re- Hellas, - Technology for and search Foundation (IESL), Greece Lasers Heraklion, Crete, 3 of sity Austria Vienna, 2 Wien), (TU Tech- nology of University Vienna Physics, J33WD15:00 Rotter ∙ media scattering inhomogeneous in light of tailoring Local WED EJ-3.3 tally. experimen- conrmed are ndings radial symmetry. usual circular the lose that vec- beams forma- shaped tor complex the highly of predicts tion wave- space in vector inter- transformation with mediate coni- cascade two-crystals diraction cal a of Modeling France Metz, LMOPS, CentraleSupélec, 14:45 Lorraine, Montemezzani ∙ Cascade Diraction Conical via Beams Vector Shaped Complexly WED EJ-3.2 eso foinaino associated half-rings. of in- orientation of and version distributions Lloyd’s ring multi- including dierent fo- parameters, for the beam patterns in intensity changes cal drastic strate .Kresic I. 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Auger dierent fundamentally two emitters. mid-infrared and near- in signicant is recombination Auger Lithuania Vilnius, many Uni- versit Technische Institut, Schottky Surrey, Kingdom of United Guildford, University Institute, ogy Sweeney S. 15:15 Eales T. Lasers Well Quantum Mid-Infrared in Recombination Auger WED CB-5.3 recovery fast times. and non- losses low saturable uences, saturation low 1-2.4%, between depths modulation 2.05 at .Andrejew A. .Guk,J edih ..Alay- B.Ö. Heidrich, J. 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Gan Z. George A. Bernet 15:15 ∙ Bragg-Cavities resonant double with WS2 monolayer in Generation Harmonic Second WED EG-4.4 2D for applications. promising optical nonlinear eld, electric the conned to strongly plasmon-induced attributed 2D is in enhancement structures. plasmonic range dichalcogenides using achieved broadband transition-metal is a in mixing four-wave .Knopf H. e-uinUiest,Beer-Sheva, University, Ben-Gurion Photonics, of School Planck Max Physics, Applied of Institute ö der 1,2 4 .Weissog M. , 2 1 ..Ngo G.Q. , ; n .Eilenberger F. and , 4 and OM5 ROOM .Najadehaghani E. , 1,2,3 2 ruhfrInstitute Fraunhofer 4 ; .Schulz U. , .Zilk M. , ∙ .Sivan Y. 4 nttt fPhys- of Institute 1 ..Abtahi F.A. , 1,3 .Vogl T. , 2 ; 1 1 2 ICN2, S. , S. , 1,2,3 4 4 1 is , , , ; ; ; in opeetn traditional measurements. transport complementing accumula- and tion, dynamics charge the carrier investigate take to nescence We electrolumi- RTDs the of advantage magneto- electroluminescence. and through magnetotransport of studied are (RTDs) diodes tunneling resonant properties n-doped purely Optoelectronic Universit (RCCM), W Systems rial and R Institut Physikalisches Physik, France de Nanotechnolo- Palaiseau, gies, de Centre et Nanosciences CNRS, Paris-Saclay, Israel of University Israel of Beer-Sheva, University Gurion 15:30 ∙ di-chalcogenides metal transition 2D grown ber of tunability optoelectronic Strain-induced WED CE-7.5 tion. illumina- light under and photocurrent ASE theoretically, and imental exper- demonstrates, and exible substrates and rigid both amplier- in integrated an system. construct photodetector to waveg- uides polymer in integrated were lms thin perovskite CH3NH3PbI3 Spain Burjassot, s/n, sidad Univer- la de Avenida Ingeniería, de ∙ 15:15 substrates solid and rigid in system photodetector and amplier perovskite-based a of Integration WED CE-7.4 .Niv A. Suárez I. ö ü te etrfrCmlxMate- Complex for Center ntgen ada fserdMS is MoS2 sheared of bandgap e zug W rzburg, 2 n .Ya’akobovitz A. and ; sul énc Superior Técnica Escuela OM6 ROOM ü zug Germany rzburg, ee,Sde-Boqer, Negev, e ; ; 2 Ben-Gurion 3 Technische eieis device e Negev, e 1 ; 1 Ben- ä t ahmtclSine,Nanyang Singapore, and University, Technological Physical Sciences, of Mathematical School Hub, tum Wilkowski Miniatura Rathod A44WD15:30 Hasan M. eld Gauge non-Abelian SU(2) a in dynamic Wave-packet WED EA-4.4 15:15 drawn. WED EA-4.3 to demonstrated. due is transport symmetry atomic recov- inversion Nontrivial of ery beam. driving otiuinhsbe with- been has contribution e 2,3 ..Kwong C.C. , 1,2,3 1,2,3 1,2 OM7 ROOM .Madasu C. , .Chevy F. , ; 1 ayn Quan- Nanyang 4 and , 1,2 1,2 C. , K. , ∙ D. oron io,France Dijon, , Picozzi Bourgogne A. and Carusotto I. Krupa K. a into evolve soliton. singlemode irreversibly initial and naturally that pulses numerical soliton multimode reveals by simulations, supported (GRIN) of bers, graded-index spans long parabolic over spa- soliton propagation femtosecond of tiotemporal evidence of Experimental University Italy Brescia, Brescia, (DII), Engineering (DIET), and Italy Rome, Rome, of University Sapienza Electronics Telecommunications Engineering, 1 ∙ 15:30 characterization thermodynamic and observation bers: multimode in waves optical of Condensation WED EF-4.5 Mangini 15:15 ∙ Fibers Graded-index Multimode in Attractor Soliton Spatiotemporal WED EF-4.4 param- this eter. on position depends shape sidebands and the that strate .Baudin K. Ferraro M. eateto Information of Department ; 2 eateto Information of Department 2 n .Wabnitz S. and , 3 .Berti N. , 1 OM8 ROOM .Fusaro A. , 5 .Ricca S. , 1 .Zitelli M. , 1 ; 1 1 nvriéde Université .Michel C. , 1 6 .Garnier J. , .Millot G. , ; 1 2 F. , Ecole CLEO 1 4 2 1 , , , ; est fSineadTechnology, and Wroc Science of versity Uni- Wroclaw Electronics, of Faculty 1 Petrov A75WD15:30 ∙ regimes dispersion dierent two in operating simultaneously laser mode-locked Dual-comb WED CA-7.5 rate dierence. repetition rate tunable Hz repetition 208 two with 80-MHz delivers at combs cavity multiplexed simultaneously. duration combs pulse both 100-fs from with oscil- dual-comb lator peak Yb:CaF2 230-kW power a demonstrate We of Switzerland Zurich, Zurich, Institute ETH Electronics, Physics, Quantum of partment Bauer, ∙ C. 15:15 Willenberg, B. Pupeikis, J. Duration Pulse 100-fs with Laser Solid-State Dual-Comb Single-Cavity Power High-Peak WED CA-7.4 naeaepwro 2 Wand mW eciency. 729 optical-to-optical 25% of power with average pulses laser an fs 22 generate to Yb:CALGO enable Kerr-lens a mode-locked to enables bandwidth Applied limitations. previous oscillators for overcoming laser approach BULK cross-pumping A France .Kowalczyk M. Keller U. and Phillips, C. ae ie lcrnc Group, Electronics Fiber & Laser ® omnpt polarization- common-path e ł Erp-QC2021 /Europe-EQEC w Poland aw, 4 .Wang Z. , OM9 ROOM 1 ; .Zhang X. , 2 2 tt e Labora- Key State n .Sotor J. and , 2,3 ; V. , De- 1 ; 99 ⋅ etrfrQatmSineand Uni- Physics, Science of Faculty Technology, Quantum for Center Walther Trenti ∙ 15:30 Nonlinearities Optical by Induced Mechanics Quantum in Interference Higher-Order Experimental WED EB-7.5 camera. a HOM on directly full imaging demonstrate inter- to HOM ference in be- photons delay two temporal tween the coincidence and of events be- number mapping the the tween exploit we Here Kingdom Glasgow, United Glasgow, of University Astronomy, 15:15 Faccio D. and Deenne, H. Ndagano, B. 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I35WD15:30 Dignam ∙ Graphene Bilayer of Response Pump-Probe Terahertz Anisotropic WED EI-3.5 15:15 ∙ waveguide silicon passive on modulator Mach-Zehnder Graphene-WS2 Hybrid WED EI-3.4 nl-ual nryposition. energy twist angle-tunable and pi- time with relaxation cosecond endowed graphene layer bi- twisted in bands enhanced photobleaching and inter- absorption subband photoinduced cov- reveals spectral erage broad with mi- croscopy femtosecond Milano, High-sensitivity di Politecnico Italy Milano, Fisica, Hsinchu, di University, Taiwan Hua National Tsing Engineering, Electrical of UFF, Brazil Janeiro, de Rio Fluminense, Niterói, Federal Janeiro, sidade de Rio Janeiro, Brazil Caxias, de de Rio Duque do Federal Univer- sidade Caxias, de Duque Campus em Pesquisas Computa de Multidisciplinar .Seidl A. Wu C. ; ; 1,2 ; 6 3 1 nttt eFsc,Univer- Física, de Instituto .Richter P. , ; ç .Brems S. , 2 8 1,2 o-NUMPEX-COMP, - ão 3 OM11 ROOM hn University-imec, Ghent F-N,Dipartimento IFN-CNR, 1 1 .VnCampenhout Van J. , ; .Anvari R. , nttt fInBeam Ion of Institute 1 ourhout .Helm M. , 1 1 mc evn Bel- Leuven, imec, .Sorianello V. , 1 .Asselberghs I. , 4 2 .Seyller T. , ; n M. and , 3 1,2 Consorzio 3 M.M. , n S. and , ; Loss e 7 3 Dep. M. , 1 4 1 , , , n,Uiest fBeca Bres- Brescia, Italy of cia, University Engineer- ing, Information of partment rsino nest uctuations sup- intensity of dependent pression Temperature Germany Darmstadt, Physik, f Institut Darmstadt, Walser 15:30 R. ∙ Diodes Superluminescent in Suppression Noise Intensity Light: White Silent WED EJ-3.5 design. verse nanoantennas. nonlinear of array an from scattered far-eld the the and near describe to formulas model analytical theoretical semi- simple relatively provides a that develop We Kingdom United Southampton, Southampton, of University Centre, 15:15 ∙ Gandol M. Nanoantennas Nonlinear of Arrays of Design Optimal WED EJ-3.4 able. struc- modied indistinguish- uni-directionally ture the and leaves initial required the tuning index local distribution. intensity desired following a light connes it that such structure dielectric pre-existing a ify ..Hnmn,W Els W. Hansmann, K.N. 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CE,Breoa Spain Barcelona, Lithuania ICREA, Vilnius, LTD, Femtika ® Erp-QC2021 /Europe-EQEC OM3 ROOM unas ¯ μ 1,2 ,depth=5 m, .Gailevi D. , 1,3,4 ; 1 inu Uni- Vilnius ; č 4 ius UPC, μ m). 1,2 , ; ; 100 ⋅ nai prtn nCW-RT. in on operating on-axis grown lasers etched- GaSb-based rst facets the goals: both on port re- We cavities. cleavage-free of tion fabrica- and substrates Si on-axis epitaxy on direct requires PICs mid-IR on LDs of integration Monolithic Systèmes, des France Montpellier, et d’Electronique tut .Bhi,J-.Rdiuz L. Tournié E. Rodriguez, and J.-B. , Bahriz, Cerutti M. 15:45 ∙ circuits integrated photonic Silicon on diodes laser mid-infrared Toward WED CB-5.5 eemaue o omril2- commercial a for measured were n auainecsof saturation-uences to and up Small-signal-gain chips. μ .MneBrooe .RoCalvo, Rio M. Bartolome, Monge L. 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Benea-Chelmus I.-C. ∙ 15:45 regime non-local the in groundstate electromagnetic the on measurements correlation eld Electric WED EA-4.5 discussed. are tronics atom- and Applications information quantum to plane. two- dimensional in observed are oscillation like Zitterbewegung- gas. anisotropic Fermionic Here, ultracold an using eld gauge non-Abelian synthetic a in dynamic wave-packet present We France Paris, Sorbonne France, de CNRS, College Université, Université, PSL Singapore Singapore, 4 Singapore, University of National Technologies, Singapore Nanyang National Singapore, University, Technological Singapore, d’Azur, of Université, University Côte 3654, Sorbonne UMI Université Unit CNRS, Research Joint Singapore ..Settembrini F.F. aoaor ate rse,ENS- Brossel, Kastler Laboratoire . ü ih nttt o Quantum for Institute rich, ; 2 avr nvriy John University, Harvard ä ; ; riug Physikalisches Freiburg, t 1 2 OM7 ROOM n .Faist J. and , aua,International MajuLab, 3 etefrQuantum for Centre ; 1 3 .Herter A. , ü Albert-Ludwigs- ih Switzer- rich, 2 .Lindel F. , 1 ; 1 ETH 3 1 , , ; aesadotclcommunications optical and lasers high-power for opportunities novel disclosing self-organization unexplored of of types the plethora a to to way the respect counterpart. with single-core freedom of degrees many oer bers Multicore Italy Telecommunications Rome, University, Sapienza (DIET), and Elec- Engineering, tronics Information of equilibrium theory. the with agreement in populated, of macroscopic value gets mode critical fundamental the energy, a kinetic the below multimode in bers: condensation light of the characterization and thermodynamic observation the report We Ibá Italy Povo, antd oron,CNRS, France Bourgogne-Franche- Dijon, Comte, Bourgogne, of University de Carnot Kingdom Southampton, United 2 of Southampton, University tre, 1 Wabnitz Richardson 15:45 Jain S. light of self-organisation recongurable and robust a for platform novel a bers: Multicore WED EF-4.6 Varso- France Nice, Sciences, Poland of via, Academy ish France Palaiseau, 3 Polytechnique, aoaor Interdisciplinaire Laboratoire Cen- Research Optoelectronics Pol- Chemistry Physical of Institute ñ z atao Chile Santiago, ez, 1 3 .Ji K. , and , 1 ; ; OM8 ROOM .Fatome J. , 4 ; nvriéCt d’Azur, Côte Université 6 5 nvriyo Adolfo of University nvriàd Trento, di Università 1 .Sahu J. , ∙ .Guasoni M. ; 3 Department spaves is 1 2 D.J. , S. , CLEO 1 ; ; ; adphotoinjectors. band X- multi-bunch driving ap- of the plication for promising of comb, FHG EO on an based mode burst source the in UV deep femtosecond repetition rate, multi-GHz a present we France Paris, (IUF), France France de Universitaire Pessac, Systems, France Talence, (LP2N), Nanosciences et Numérique tonique Cormier E. 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McCracken R.A. and Hunter D.E. al nttt fNnsine e Netherlands (AR- Nanolithography Del, for Center Nanoscience, Research of Advanced Institute Kavli ensa 3Jn 2021 June 23 Wednesday ä ea ea Germany Jena, Jena, t 2 .Sitnik K. , 1,3 1,3 1 n .Ackermann R. and , .Baudisch M. , ; 1 1 .Hernandez-Rueda J. , klooIsiueo cec n Tech- and Science of Institute Skolkovo 1 .Gladush Y. , 1 ..Lagoudakis P.G. , ; 2 2 .Beutler M. , rkoo eea Physics General Prokhorov ; 2 2 P neadePhysik Angewandte APE n ocretymea- concurrently and 1 1 ; .Melkumov M. , ; 1 eitWt Univer- Heriot-Watt 1,2 nttt fApplied of Institute n .Kuipers K. and , ; 3 2 ruhfrIn- Fraunhofer 1 .Gabler T. , n A.G. and , ; 3 2 Aalto A. , 2 1 1 , ; ; ae ytmi nagnldHrit-yemulti-pass Herriott-type cell. argon-lled an in system laser Yb:ber post- high-power a lossless from close-to pulses pulses by 200-fs kW of 31-fs compression 1 1-mJ, of power average of an generation with the demonstrate We Germany Jena, Jena, Germany Jena, Engineering, cision many model. simple a to Intensity amplitude-phase compared and from correlations investigated matrices. is covariance dynamics ex- related are spectral comb from frequency a tracted of noises wavelength central Gif- LuMIn, France sur-Yvette, CentraleSupélec, Paris-Saclay, ENS CNRS, Germany Paderborn, versity, Uni- Paderborn Physics, Applied Group, USA Optics Quantum Eugene, Oregon, of University Quantum Science, and Molecular, Optical, for France Center Oregon Paris, and Col- France, CNRS, de PSL, lège ENS-Université Université, Sorbonne Bretenaker htnc,Friedrich-Schiller-Universit Photonics, Limpert ussi a-le ut-ascell. ∙ multi-pass gas-lled a in pulses millijoule of compression Kilowatt-average-power WED CF-P.15 interferogram. two single at a from determined Using bands be MIR. spectral can phase the spectral in methods measurement these phase accuracy com- for high aiming presented, are techniques processes nonlinear with interferometric bined resolved Spectrally many Lithuania Vilnius, 2 1 Gimzevskis U. ∙ mid-IR the in interferometry resolved spectrally resolution High WED CF-P.14 ∙ Combs Optical Frequency of Dynamics the Recover to Correlations Spectral Phase and Amplitude Harnessing WED CF-P.13 gases. pressure high in system fs-CARS for hnds ae usspoie aiu us energy ~200 pulse of maximum a provides pulses laser thin-disk .Grebing C. Kurucz M. Ansquer M. nvriyo zgd zgd Hungary Szeged, Hungary Szeged, Szeged, of University Ltd, Non-Prot ELI-HU ELI-ALPS, ual pia aaercapie updby pumped amplier parametric optical tunable A nest,crirevlp e,rptto aeand rate repetition oset, envelope carrier intensity, e ; 2 1,2,3 ruhfrIsiuefrApidOtc n Pre- and Optics Applied for Institute Fraunhofer μ ,a 0-0 madapledrto f~ ps ~1 of duration pulse a and nm 700-900 at J, 4 n .Treps N. and , 1,2 ; 1,2 1 1 nttt fApidPyis beCne of Center Abbe Physics, Applied of Institute .M M. , 3 .Flender R. , V. , .Samalius A. , ; 4 igecceisrmns ea Ger- Jena, instruments, cycle Single ü ller iel 1 2 1 1 ; .De S. , .Buldt J. , .Grosz T. , 1 aoaor ate Brossel, Kastler Laboratoire 3 ; ; .Ho D. , 4 2 nvriéParis-Saclay, Université eateto Physics of Department ; 3 3 1 .Argence B. , Helmholtz-Institute .Stark H. , 1 ä .Borzsonyi A. , ea ea Ger- Jena, Jena, t 4 ; n .Kiss B. and , 3 OPTOMAN, ; 3 Integrated 1 n J. and , 1 F. , 1,2 1 , ; ;
Wednesday Posters Wednesday Posters opigTb atc iesaeinvestigated. are Fibers Lattice Tube Coupling France Limoges, Limoges, of University 7252, UMR CNRS Italy Parma, Parma, of Italy Modena, Emilia, Reggio 2 and Modena of University hoyadMetheory. Mie and potential theory deformation via discussed were certain modes of Raman broadening and splitting ef- shiing, gallium Strain as such analyzed. fects highly-strained and obtained of were NWs phosphide spectra Raman Polarized Russia 1 terms in coupling. modeled mode cladding and of analyzed ap- is thickness apex tube their the proaching of variations incremental of pact Vincetti L. was kW 136 to separate 68 a from achieved. increase in power Kerr-lens peak the repe- a medium controlling the mode- and lowering Kerr-lens rate By tition a oscillator. of bulk Yb:YAG scaling locked power peak present We Helmut-Schmidt-Universit ∙ media Kerr-lens gain separated and with oscillator bulk Yb:YAG fs 85 WED CF-P.16 ∙ strain elastic 5% under nanowires phosphide gallium of Spectroscopy Raman WED CE-P.3 ∙ Fibers Lattice Tube Coupling Inhibited Hollow-Core in Eect Tube of Assessment and Analysis WED CE-P.2 WED CE-P.1 Session Poster CE CE-P: 11:00 – 10:00 .KaiiKlk,J are ee,adO Pronin O. and Meyer, Gabriel J. Kelaki, Khalili M. .Sharov V. Melli F. eateto niern n rhtcue University Architecture, and Engineering of Department an-eesugAaei nvriy Saint-Petersburg, University, Academic Saint-Petersburg cso emtia mefcin nInhibited in imperfections geometrical of eects e otiuinhsbe withdrawn. been has contribution e ; 2 oeIsiue an-eesug Russia Saint-Petersburg, Institute, Ioe 1 .Giovanardi F. , 1 1,2 ; 1 .Alekseev P. , eateto niern Ez Ferrari”, “Enzo Engineering of Department ; 3 PM ru,XI Institute, XLIM Group, GPPMM 2 2 .Fedorov V. , ä .Rosa L. , ,Hmug Germany Hamburg, t, 1 .Benabid F. , 1 cns Variation ickness n .Mukhin I. and , 3 and , im- e 1 ; ; ; n t pcrsoi rprisaesuidevidencing studied ZnO are the properties spectroscopic its and 1180 and at pressing Er3+ hot uniaxial with by fabricated ∘ codoped is ions ceramics Yb3+ optical oxide Zinc (CIMAP), France Photonique Caen Caen, Normandie, de la Université et CEA-CNRS-ENSICAEN, Matériaux 6252 UMR les Ions, les sur Russia Petersburg, St. University, inves- were ceramics tigated. obtained the of emis- performances laser sion and char- properties, spectroscopic morphological the and ce- acteristics, Structural transparent fabricate media. to Yb:Y2O3 laser ramic used and was Nd:Y2O3 method high-quality sintering multi-step A Ro- Magurele, Electronics, mania Quantum Solid-State Labora- of Physics, Radiation tory and Plasma Laser, Gheorghe for L. stitute and Croitoru, G. Gheorghe, C. ∙ Ceramics Transparent Y2O3 Yb3+-doped and Nd3+- High-Quality for Fabricating Technique Sintering New a of Development WED CE-P.4 electrically-controlled pulses. light ultrashort with quality high of loop mation closed switcher. con- acousto-optic regenerators in Mamyshev nected double-stage shaper on pulse light based ultrashort regenerative a present We Lithuania vi ∙ pulses light ultrashort of shaping Regenerative WED CF-P.17 ug Russia burg, Loiko P. Alekseeva Gorohova E. and Er3+ Ions with Yb3+ Codoped Ceramic Optical Oxide Zinc WED CE-P.5 C. .Sacu .Viu .A rnu,E-.Thn .Hau, S. Tihon, E.-C. Brandus, C.-A. Voicu, F. Stanciu, G. Želude- J. and Dubosas, G. Liaugminas, G. Regelskis, K. č ius ; tutr fcrmc(eaoa,wurtzite-type) (hexagonal, ceramic of structure e etrfrPyia cecs&Tcnlg,Vilnius, Technology, & Sciences Physical for Center 3 → ; 1 1 .Khubetsov A. , E+energy-transfer. RE3+ ..VvlvSaeOtclIsiue t Peters- St. Institute, Optical State Vavilov S.I. 1 ; CLEO .Venevtsev I. , 2 ee h ra t eesugPolytechnic Petersburg St. Great the Peter ® 1 Erp-QC2021 /Europe-EQEC .Dymshits O. , 2 .Eron’ko S. , sshm nbe h for- the enables scheme is ; 3 eted Recherche de Centre 1 , 1 ∙ .Zhilin A. , .Basyrova L. ; ainlIn- National 1 and , OM2 ROOM OM3 ROOM 3 I. , 104 ⋅ osnnCDfraino cieslc layers silica active of formation al- non-CVD which lows method polymer-salt the by nanophos- synthesized phors Gd2O3:Nd3+ highly-luminescent lms thin on with based ber antiresonant hollow-core silica modication a the of for applied were crystals Gd2O3 Cubic Russia Petersburg, Telecommunications, St. of University State St.-Petersburg Russia Petersburg, St. Technology, SHG the for wavelength output. of have tunability the we the by Furthermore, investigated broken of center. is (NV) diamond observation symmetry nitrogen-vacancy inversion from the whose (SHG) report crystals, we generation presentation, second-harmonic this Japan In Nomi, Technology, and Science of Institute vanced Japan Tsukuba, 1 t eesug Russia Petersburg, St. Russia Moscow, Russia University, Technical Petersburg, St. stitute, K 290 – 10 of range tech- temperature the spectroscopy in nique luminescence studied and time-resolved phosphors using nm) (651 red-emitting pre- as been have pared Mn4+, ions, exclusively manganese tetravalent doped with spinel MgAl2O4 of samples Ceramic Russia ∙ centers color diamond by generation Second-harmonic WED CF-P.18 Dukelskii Kuzmenko N. ∙ Nanophosphors Gd2O3:Nd3+ with Modied Fiber Optical Antiresonant Hollow WED CE-P.7 Ricerche, delle Italy Nazionale Florence, Consiglio Ottica, Italy di Florence, Nazionale Ricerche, delle Nazionale siglio Moscow, Chemistry, Inorganic Russia and General of Institute Vannini Khaidukov N. Spectroscopy Luminescence Temperature-Resolved and Time- by Studied Spinels Ceramic MgAl2O4 Doped Manganese Red-Emitting WED CE-P.6 .Abulikemu A. .Demidov V. eateto ple hsc,Uiest fTsukuba, of University Physics, Applied of Department ensa 3Jn 2021 June 23 Wednesday nFlsCnann Highly-Luminescent Containing Films in ; 3 2 .Patrizi B. , siuod iiaApiaa“.Craa,Con- Carrara”, “N. Applicata Fisica di Istituto 1,3,5 1,2 ; 1 ; 1 3 , 1 4 & soito aio tt pia In- Optical State Vavilov Association R&P ; .Matrosova A. , .Aseev V. , ∙ .Kainuma Y. , .N eee hsclIsiue Moscow, Institute, Physical Lebedev N. P. .Pirri A. 2 colo aeil cec,JpnAd- Japan Science, Materials of School 3 n .Makhov V. and , ; 4 an-eesugSaeIsiueof Institute State Saint-Petersburg 2 .Brekhovskikh M. , 3 .Nikonorov N. , 2 ; .An T. , 1,2,3 2 amnMso State Moscow Bauman ; 5 .Evstropiev S. , ; 4 3 2 ; Bonch-Bruevich e TOUniversity, ITMO n .Hase M. and , 1 .S Kurnakov S. N. 1 .Toci G. , 3 n K. and , ; 3 Istituto 1,2,3,4 3 M. , 1 , ; ∙ Geometry Elliptical-Core and Panda-Type with Fiber Optical Polarization-Maintaining Biaxial of Production WED CE-P.11 waveguide. and the ring upon between dependent gap strongly coupling is it waveguide that bus report and corrugated system a to coupled ring a corrugated in resonance Fano the demonstrate experimentally We India Bengaluru, , Science ∙ Bragg System Waveguide coupled Ring Corrugated in Resonances Fano WED CE-P.10 WED CE-P.9 applications. bioimaging to at path window the biological opening nm rst 980 the in excitation under cence im- pregnation. dry by nanoparticles luminescent persistent and cles France Paris, , University Brazil Paulo, São Paulo, São of University Chemistry, of Institute Chemistry, Viana Giordano L. upconversion via nanoparticles luminescence persistent activated Deep-red WED CE-P.8 ∙ Intensities Low at Non-instantaneous WED CF-P.19 icinrtooe 0d ihnoeaintemperatures operation -60 within from dB 30 over ratio tinction Turkey Ankara, Nanotechnology, Science Materials and of Institute - UNAM University Bilkent resonances. from far and intensities eld low electric at the even of function instantaneous de- an be by cannot scribed polarization nonlinear belief, common contrary to that, show we simulations rst-principle Using Russia Voronezh, 394036, 1, Ploshchad’, Universitetskaya versity, Germany 1 ihPnatp n litclcr Me designs. ber PM elliptical-core and Panda-type with .Krttu .YprYlıı,E edr n .Orta B. and Kendir, E. Yıldırım, Yapar E. Karatutlu, A. Selvaraja S.K. and Mere, V. Rawat, P. Husakou A. a onIsiue a onSr a 28,Berlin, 12489, 2a, Str. Born Max Institute, Born Max otiuinhsbe withdrawn. been has contribution e swr rpsst obn povrignanoparti- upconverting combine to proposes work is swr eosrtstoae ihplrzto ex- polarization high two-axes demonstrates work is 2 n .Delgado T. and , ; ∘ o+85 to C 2 eateto hsc,Vrnz tt Uni- State Voronezh Physics, of Department 1 1,2 .Morales F. , sebispeetpritn lumines- persistent present assemblies e .Crah eooRodrigues Veloso Carvalho L. , ; 2 ∘ RP NS hmePrseh PSL Paristech, Chimie CNRS, IRCP, sn oe emtycombined geometry novel a using C r-re oaiaini Gases in Polarization ird-order 2 ; 1 1 .Richter M. , eateto Fundamental of Department ; ninIsiueof Institute Indian 1 n .Olvo V. and , 1 , ∙ B. 2 ç ; ; ussa h aeegho 2. mwsmaue to measured was laser nm cm/GW. 523.5 25-ps 0.25 of be of wavelength the trains at with pulses ortho- irradiation calcium under in vanadate coecient absorption RussiaTwo-photon Moscow, Sciences, of Academy Russian the SIP SIPse Session Poster JSII JSII-P: 11:00 – 10:00 and Voronina, I.S. Kravtsov, S.B. Dunaeva, E.E. Chunaev, D.S. in Absorption Two-photon WED CE-P.12 ∙ ..Zverev P.G. ; rkoo eea hsc nttt of Institute Physics General Prokhorov Ca 3 ( VO 4 ) 2 Crystal nvriyo en 02Br,Switzerland Bern, 3012 Bern, of University Stanley ∙ Molecules of Eect Stark Dynamic Non-resonant the and Spectroscopy THz-Pump/SC-Probe WED JSII-P.1 lasers. ber in SA property endurance thermal research high to reference on a provide to expected is performance which tures the tempera- on dierent under studied composites have SA SWNT-based we of time, rst the For China Hangzhou, University, Engi- Zhejiang and neering, Science Optical of College Instrumentation, cal ∙ composites SWNT with heating mode-locking of performance the into Insight WED CE-P.13 ..Kang B.J. Liu X. and Jin C. 4 n .Feurer T. and , 1 ..Rohwer E.J. , CLEO ; tt e aoaoyo oenOpti- Modern of Laboratory Key State ® 1 1 ; .Cascella M. , Erp-QC2021 /Europe-EQEC 1 nttt fApidPhysics, Applied of Institute 2 .X Liu S.-X. , ; 2 Department 3 R.J. , OM3 ROOM OM4 ROOM NOTES 105 ⋅ i 92,USA 19122, Pennsylva-nia Switzerland Philadelphia, Bern, University, Temple 3012 Chemistry, Bern, of sity Norway Oslo, N-0315 Oslo, of 3 Molec- University Quantum Sciences, for ular Centre Hylleraas and Chemistry of ag-cl rnig(-nh simultaneously. (4-inch) resolution, printing DPI large-scale 127000 gamut, color full nanostruc- realizes hierarchical It tures. complex of scatter- resonances of and interaction ing the exploits that based self-assembly technique on color structural low-cost a propose We Technology, and ence ∙ substrate exible of coloration structural wide-gamut high-resolution, Large-scale, WED CE-P.14 .L n .Fratalocchi A. and Li N. eateto hmsr n iceity Univer- Biochemistry, and Chemistry of Department ensa 3Jn 2021 June 23 Wednesday wl ad Arabia Saudi uwal, ; igAdla nvriyo Sci- of University Abdullah King ; 4 eatetof Department ; h ilcrcbekoni ovninlexperiments polarization. conventional arbitrary beyond and in elds breakdown Stark pulses, peak dielectric freezing, traditional the THz sample of No single-cycle limitations spectroscopy: overcoming intense solvated thereby of using spectroscopy Stark molecules THz demonstrate We
Wednesday Posters Wednesday Posters aiiasUiest fW of University Maximilans 1 r ttsaddsusogigeprmnst conrm to predictions. experiments theoretical ongoing the discuss and states ary supports bound- protected that topologically counter-propagating two (TI) insulator topological two-dimensional PT-symmetric a for proposal theoretical a present We Indianapolis, (IUPUI), USA Indianapolis University Purdue Germany many Joglekar of characterization experimental full system. systems. the Floquet-lattice loop to bre door double the lattice a photonic with Floquet-Bloch a disper- realized in the structure of band measurement sive single-shot the report We France Lille, F-5900 Molécules, et Atomes Lasers des PhLAM-Physique Heinrich M. Session Poster EC EC-P: 14:30 – 13:30 ∙ Insulator Topological Floquet PT-Symmetric Two-Dimensional WED EC-P.6 Randoux S. and ∙ Fiber Rigns Coupled with Realised Lattice a Floquet-Bloch of Dispersions Band the of Measurement WED EC-P.5 WED EC-P.4 WED EC-P.3 WED EC-P.2 Universit Physik, insulator ∙ topological fractal a of observation First WED EC-P.1 iei u tutr so neg,etra rinternal. or external edge, an on every is bulk: structure any our of in absence site the despite pro- states topological edge of tected existence the show We insulator. ical topolog- fractal rst the demonstrate experimentally We Israel 32000, Haifa Technology, of Institute Israel 2 .Fritzsche A. Amo, A. Copie, F. Suret, P. Evain, C. Lechevalier, C. Biesenthal T. nttt for Institute hsc eatetadSldSaeIsiue Technion- Institute, State Solid and Department Physics otiuinhsbe withdrawn. been has contribution e withdrawn. been has contribution e withdrawn. been has contribution e ; 2 3 Universit .Heinrich M. , ; 3 eateto hsc,IdaaUniversity- Indiana Physics, of Department 1 .Segev M. , 1 1,2 .Maczewsky L. , oeia hsc n srpyis Julius- Astrophysics, and Physics eoretical ; .Kremer M. , ä ä nvriéd il,CR,UR8523- UMR CNRS, Lille, de Université otc,Isiueo hsc,Rostock, physics, of Institute Rostock, t otc,109Rsok Germany Rostock, 18059 Rostock, t 2 R. , 2 n .Szameit A. and , ü 1 omale zug W rzburg, 2 .Yang Z. , .Maczewsky L. , 1 n .Szameit A. and , 2 1 ü .Kremer M. , ; zug Ger- rzburg, 1 ntttf Institut sopen is 2 Y. , ü 1 2 r , ; ; ihrrbsns oprdt ovninlwaveg- conventional a uide. to magnitude compared of orders robustness two higher reveals eld near vectorial crys- Measuring the photonic eect. Hall topological valley quantum in the emulating states tals edge the of contri- bution back-scattering the quantify experimentally We lands tures. struc- line transmission analogous using experimentally structures. transmission layered measuring phase randomly by through topological observed a be chiral can that transition and shows multilayers models photonic tight-binding between mapping A Kingdom United Sheeld, Sheeld, of University char- distribution. the eld by a electric veried acteristic on further from and bandgap engineered relation the dispersion lattice in the SSH directly manifested an chip, in LiNbO3 states edge logical topo- terahertz of generation nonlinear demonstrate We China Beijing, Technology, Defense of Institute Innovation China Tianjin, University, Nankai 2 Physics, Physics of Applied School and of Institute TEDA Photonics, Nonlinear Chen Z. and pling. cou- and loss, topo- dispersion, cavity- of quantifying protection, hallmarks logical and the explore cavities We in couplers. ring frequencies waveguide telecom crystal at photonic light topological of connement character- the to ize spectroscopy Fourier far-eld employ We Netherlands Del, nology, Netherlands Amsterdam, AMOLF, 2 Nanophotonics, for Kuipers ∙ Structures Photonic Multilayer Random in Transition Phase Topological A WED EC-P.9 states ∙ topological THz on-chip of visualization Direct WED EC-P.8 Alpeggiani F. ∙ crystal nanocavites photonic in light of connement Topological WED EC-P.7 ∙ wavelengths telecom at states edge photonic topologically-protected in robustness of quantication Direct WED EC-P.10 .Whittaker D. Wang J. Barczyk R. .Arora S. noainLbrtr fTrhrzBohsc,National Biophysics, Terahertz of Laboratory Innovation Tech- of University Del Nanoscience, of Institute Kavli ; 2 ML,Asedm Netherlands Amsterdam, AMOLF, 1 1 ; 1 .Wang R. , 1 .Bauer T. , eUiest fTcnlg,Dl,Nether- Del, Technology, of University Del 1 1 CLEO 2 .Parappurath N. , ; .Kuipers K. , ; 1 eateto hsc n Astronomy, and Physics of Department O e aoaoyo Weak-Light of Laboratory Key MOE e 2 .Zhang X. , 1 .Barczyk R. , ® Erp-QC2021 /Europe-EQEC 2 n .Verhagen E. and , 1 .Wu Q. , 1 .Arora S. , 2 .Verhagen E. , 1 .Song D. , 2 si veried is is .Bauer T. , 1 ; 2 1 n L. and , 1 .Xu J. , Center OM1 ROOM 1 2 , , ; ; 106 ⋅ eet n back-scattering. and to defects immunity and unidirectionalilty mode surface topo- logical the demonstrate structure simulations Band scattering interface. direct space and free topological the sustains at that states surface crystal photonic a Ames, present We USA, 50011, Iowa USA Ames, Astronomy, University, and State Physics Iowa of Department and Laboratory environment. magnetic weakly a will, in at possibly implemented be can direction any or of sign vectors magnitude, Chern topological where 3D crystals design photonic to insulating strategy general a propose We Spain Bilbao, BASQUE), Spain Bilbao, Spain Sebastian, Donostia-San (DIPC), Center Physics national Vergniory ooyHla,N lsia10 ealo,Greece Heraklion, 100, Plastira Tech- N. and Hellas, Research nology for Foundation Laser, and Structure Paz de Blanco ∙ vectors Chern orientable large with insulators photonic Chern 3D Cubic WED EC-P.11 esr hi mltd n hs nsaeadtime. and space in phase and directly amplitude and their measure (STOVs) containing vortices pulses optical of spatio-temporal harmonic second the generate We berg Anaraki, Zahedpour S. momentum orbital angular of conservation and (STOVs) vortices optical spatiotemporal of generation harmonic Second WED EC-P.14 Economou ∙ crystals photonic of gyrotropic surface nite the uncorrugated at states surface topological space Free WED EC-P.13 com- transport. transport photonic standard topological to of pared protection claimed quantifythis and analyze we Here, imperfection. ro- against states bust edge topological engineer to attention potential much its to Avancats, due so triggered Estudis has i photonics Topological Recerca de Spain Barcelona, Catalana Institució - Spain Bellaterra, Nanotecnología, y Nanociencia and Arregui G. waveguides photonic in topological transport light of robustness the Quantifying WED EC-P.12 .Devescovi C. .Tasolamprou A. ensa 3Jn 2021 June 23 Wednesday ; nvriyo ayad olg ak USA Park, College Maryland, of University ; ∙ ..García P.D. 2 nvriyo h aqeCuty(UPV-EHU), Country Basque the of University 1,3 1 1 .Gomis-Bresco J. , n .Koschny T. and , n .Grí Etxarri García A. and , ; 1 1 .Grí Díez García M. , .Bradlyn B. , 3 aqeFudto o cec (IKER- Science for Foundation Basque 1 .Kafesaki M. , 1 ; 1 ∙ C2-IsiuoCtlnde Catalán Instituto - ICN2 ..Hnok n ..Milch- H.M. and Hancock, S.W. 2 1 .Li Ma Luis J. , ..Sotomayor-Torres C.M. , 2 ; 2 .RbeoMagro Robredo I. , 1 1 nttt fElectronic of Institute .Soukoulis C. , 1,3 ; 1 ñ ootaInter- Donostia es 2 .García M. , ; 2 ; ICREA 2 1 Ames 1 E. , M. , 1,2 , ierto o NadNNcoupling nega- NNN and and positive NN for between dielectric ratios tune tive can a we how show in direct-laser-writing, NNN- and by naturally fabricated negative structure, arising waveguide a constant, demonstrate coupling experimentally We Germany Kaiserslautern, ITWM, Physics, Torner ∙ Channels Radiation Multiple with Structures Anisotropic in Resonances Unidirectional Guided and Continuum the in States Bound WED EC-P.18 USA , Germany Kaiserslautern, Kaiser- slautern, TU OPTIMAS, Center Research and Department ∙ waveguides dielectric coupled evanescently in next-nearest-neighbor-coupling negative a of Investigation WED EC-P.17 state. interface an of formation to leading topology crystals. photonic two by 1D formed topological state interface topological planar a on (1D) based laser one-dimensional a report We Universit Technische rials, Mate- Photonic and Physics Applied for Center Integrated ∙ Structure Topological Planar in Lasing Cavityless WED EC-P.16 ∙ lattices plasmonic time-reversal-invariant with nanophotonics Topological WED EC-P.15 ito hnesspotsltr on ttsi the in states bound solitary continuum. support channels ra- diation distinct two with structures antiguiding Anisotropic Spain Barcelona, Catalunya, de Politecnica Universitat cations, Spain Castellde- fels, Technology, and Science of Institute Barcelona discussed. be will modes corner and prop- edge topological of in the erties in ubiquitous eect are their and interactions nanophotonics, radiative and Retarded light. subwavelength-conned invari- for phases time-reversal topological realise ant to allow lattices Plasmonic Portugal Lisbon, Lisbon, of University mo- angular SHG. under orbital STOVs of of mentum conservation demonstrate We nol n aito hne,frigunidirectional forming channel, resonances. guided radiation one only in .Mukherjee S. Schulz J. Leo K. and Meister, S. Sudzius, M. Palatnik, A. Huidobro P.A. ; 1,2 3 ruhfrIsiuefrIdsra Mathematics Industrial for Institute Fraunhofer ; 1 ; .J C. , enyvnaSaeUiest,Pennsylvania University, State Pennsylvania e 2 1 eateto Signal of Department COIsiu eCece Fotoniques, Ciencies de ICFO-Institut 1 .Gomis-Bresco J. , ö ; ssse a lob ue oradiate to tuned be also can system is rg nttt eTlcmncce,IST- Telecomunicacoes, de Instituto 1,2 n .vnFreymann von G. and , ä rsashv ieetband dierent have crystals e rse,Dedn Germany Dresden, Dresden, t 1 .Artigas D. , oyadCommuni- and eory ; 2 eatetof Department 1,3 1,2 ; ; n L. and , Dresden 1 Physics e nnnetosmerclyarne AuNR’s. arranged noncentro-symmetrically in plasmons coupled from resulted conversions Ef- SHG AuNR. cient monomeric referential from that times than 20 was higher trimer from intensity SHG nanorod trimer. Au (AuNR) dolmen-type in behaviors SHG present We Japan Hamamatsu, ∙ Au in trimer mode nanorod plasmon coupled to due behaviors SHG WED EH-P.2 range. spectral wide a over large >70% as as depths with conditions, pump-probe under tion modula- metal optical photothermal thin ultrafast and undergo to graphene lms of ability the demonstrate We Avan Spain Ultrafast WED EH-P.1 Session Poster EH EH-P: 14:30 – 13:30 M of University Physics, plied ∙ beams self-similar of counter-propagation WED EC-P.20 plate half-wave anisotropies. intrinsic states a residual of Dierent the interaction with the on symmetry. depending cylindrical arise the pertur- of against laser bations semiconductor beams vertical-cavity vortex a vector nonlinear in of stability the study We France United Montpellier, CNRS, Montpellier, Glasgow, Strathclyde, of Kingdom University Physics, of ∙ Feedback with Lasers Vertical-Cavity in Singularities Polarization Appearing Spontaneously WED EC-P.19 1 Atomically by extent longitudinal and po- transverse and its phase, in amplitude, larization in light fully-structure We ∙ .Sgt,S h n .Nakatsuka Y. and Oh, S. Sugita, A. Denz C. and Otte, E. Droop, R. Asché, E. Ackemann T. .J .Dias C. J. E. CO- ICFO e-iesoa ul-tutrdlgtby light fully-structured ree-dimensional ç ; t,Breoa Spain Barcelona, ats, 2 CE nttcóCtln eRcraiEstudis i Recerca de Catalana Institució - ICREA ; 2 nttt fPooi cecs Castelldefels, Sciences, Photonic of Institute e aoaor hre olm LC,Univ. (L2C), Coulomb Charles Laboratoire ra aiuaino lsosin Plasmons of Manipulation ermal 1 nFilms in 1 n .Guillet T. and .Yu R. , 1 n .Grí eAbajo de García J. and , ü 2 se M , nster ; 1 UAadDepartment and SUPA ; hzoaUniversity, Shizuoka ü ; se,Germany nster, nttt fAp- of Institute 1,2 ; nietage neetn o hrlsnigadchiral and sensing sources. nanoscale chiral for interesting angle, and wavelength incident by re- tuneable features, analysis resonant rich numerical veals and Experimental nanopshere plas- low-cost lithography. by of fabricated behaviour metasurfaces monic chiral broadband demonstrate We Italy aSpez,Rm,Italy Rome, Sapienza, La Scian ..Weber W.M. Hinkelmann ∙ microns nine above for applications waveguides sensing plasmonic loaded dielectric loss Low WED EH-P.5 mod- light spatial ulator. using lm polymer a in meta-atoms of distribution complex a with metasurfaces plasmonic fabri- cate to technique optical high-speed a demonstrate We Bautista Bitarafan, M. modulator light spatial using metasurfaces plasmonic of Formation WED EH-P.4 ∙ Nanostructures Plasmonic Low-cost in Behavior Chiral Broadband Rich WED EH-P.3 band graphene’s the to anisotropy. due conversion angu- momentum spin-to-orbital lar show simulations Our layer single in graphene. beam vector a by driven har- generation high-order monic in coupling spin-orbit novel a unveil We Spain Uni- Salamanca, Fotónica, Salamanca, de y versidad Láser del Aplicaciones en Hernández-García Investigación C. and Plaja, L. Cifuentes, ∙ Anisotropy Band Graphene’s via Generation Harmonic High-Order in Coupling Spin-Orbit Light WED EC-P.21 pnpoaain seicdb rica counter- articial by evinced as propagation. sculpted propagation, are distributions upon polarization as well as tensity in- Spiraling beams. self-similar of counter-propagation .David M. Petronijevic E. Zurrón- Ó. Boyero-García, R. García-Cabrera, A. 2 .Mattei G. , ; apr nvriy apr,Finland Tampere, University, Tampere 3 1 1 CLEO ..Doganlar I.C. , .Dabrowska A. , .Lendl B. , 1 ∙ .Belardini A. , .Anrkht,J ovnn n G. and Toivonen, J. Annurakshita, S. 2 n .Sibilia C. and , ® 2 ; .Strasser G. , 2 Erp-QC2021 /Europe-EQEC nvriyo aoa Padova, Padova, of University 1 1 .Schwarz B. , .Leahu G. , 2 1 .Sistani M. , ; 1 nvriyo Rome of University 1 n .Hinkov B. and , 1 .Cesca T. , 1 .Detz H. , ; rp de Grupo 1 E. , 2 OM1 ROOM OM2 ROOM C. , 1,3 1 , ; 107 ⋅ eta n h eetdeg termination. po- edge driving selected the the and ad- on tential demonstrate depending results velocities group Our justable waveguides. a helical in pled states cou- evanescently edge of lattice protected photonic Lieb-like four-band topologically on report We Science, Nonlinear M for 48149 Center and Physics Applied of tute Korea Korea South Daejeon, University, 2 National Hanbat ics, Lee C.-W. ∙ photonic lattice Lieb-like a in transport edge Topological WED EC-P.22 .Mrear,IS tvig .Lviek,and Lavrinenko, A. Støvring, Malureanu I.S. Mariegaard, E. Ag Al-doped Layers of properties optical the of Investigation WED EH-P.7 Pardo ∙ potential tuning volatile with photonics visible for metasurfaces gap-plasmon Bismuth-based WED EH-P.6 dB/mm. 12 around be to found is tion experimentally. plas- samples characterized fabricated Basic are and calculated are plasmonics. properties infrared monic ma- long-wave dielectric for as terial investigated is germanium Undoped Republic Aus- Czech Brno, Technology, of Vienna, University Analytics, tria and Austria Technologies Vienna, Chemical Nanostructures, and 1 ∙ air-gap an with 1D resonator a crystal in photonic state interface topological the of Robustness WED EC-P.23 eomn fhgl in,adhg uiy n po- generators. and colour purity, structural high active and tentially de- ecient, the highly towards of wavelengths, velopment visible at metasur- absorbing operating plasmon faces gap plasmonic of excellent design an the as for bismuth metal of use the report We Kingdom United Exeter, Exeter, of University Spain ences, Madrid, Optica, de Instituto 2 Group, Processing ..Wcmn,H aa,J-.Ln,adC Denz C. and Lang, J.-P. Hana, H. Wichmann, J.J. .Ri eGalarreta de Ruiz C. Kim S. eateto hsc,Sjn nvriy eu,South Seoul, University, Sejong Physics, of Department nttt fSldSaeEetoisadCne o Micro- for Center and Electronics State Solid of Institute olg fEgneigMteaisadPyia Sci- Physical and Mathematics Engineering of College ensa 3Jn 2021 June 23 Wednesday ; 3 ; 1 eta uoenIsiueo ehooy Brno Technology, of Institute European Central ..Wright C.D. , 3 1,2 B eerh,R , Research IBM ü 1 se,Germany nster, ..Choi H.J. , ; ; ehia nvriyo emr,DUFo- DTU Denmark, of University Technical 1 nttt fAvne pisadPhoton- and Optics Advanced of Institute 2 1 .Serna R. , .Scherrer M. , 1,2 .Nieto-Pinero E. , ü clkn Switzerland schlikon, 1 n .Toudert J. and , 3 .Moselund K. , yia attenua- typical e ; 1 .Garcia- M. , 2 nttt of Institute 1 ; 1 ; 3 Laser Insti- and , ∙ R. ; ; TDS NS M ai,France paris, , Spain UMR Vigv, CNRS, ITODYS, vigo, de versidade tde npoorvnpoessb lrfs transient ultrafast by spectroscopies. processes photodriven in studied their for nanoparticles amount capabilities. the photosensitizing plasmonic of of role the composition on focused and have we work, this in Kingdom imperial United physics, london, collegelondon, of department group, physics solidstate universit tutm theoretically studied been experimentally. has helical and waveguide called the of waveguide modes structured new – waveguide. a Bragg micro of properties of optical investigate type we work this In Russia Moscow, Russia Moscow, Sciences, of Academy Russian 2 the of modes. topological of shi the in sulting distinct with of crystals phases inter- photonic Zak topological two the between on states air-gap face of eect the verify We .Cortés E. Okhrimchuk .Menezes S. Montecelo ∙ nanostructures. based Au–TiO2 with nanoparticles plasmonic through eciency photocatalytic enhancing WED EH-P.8 applica- plasmonic Ag, of many one tions. for the unsuitable than higher them times making 3 colli- about their is Ag energy stable, Al-doped sion morphologically the are although layers that, show ultrathin we article this In Denmark Lyngby, Kgs tonik, ∙ Waveguides Bragg Helical Written Laser Femtosecond in Modes Orbital-Angular-Momentum between Coupling Resonant WED EC-P.24 .Sousa-castillo A. Pryamikov A. edle nvriyo hmclTcnlg fRussia, of Technology Chemical of University Mendeleev ü ce,fakult nchen, ä 1 m t 2 ; 1 .Comesa M. , ..Maier S.A. , 1,2 ü 1 hi nhbi aoytm,nanoinsti- nanosystems, hybrid in chair ce,m nchen, π ; 1 ae naoedmninlsse,re- system, one-dimensional a on based .Vasiliev S. , 1 rkoo eea hsc Institute Physics General Prokhorov 1,2 ä f t eoatculn ewe OAM between coupling resonant e .Mari A. , ü ü ñ ce,Germany nchen, 1,4 hsk uwgmaximilians- ludwig physik, r a-Hermo ..Correa-Duarte M.A. , 1 .Likhov V. , ; ñ ehns a been has mechanism e o-lópez 3 3 .Kr S. , nvriéd paris, de université ; ; 2 2 4 .Negrín- Y. , IBO uni- CINBIO, experimental ü 1,2 hler n A. and , 1 .de L. , 2 and , ;
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UMR5270, phonons. and thermal of model nature wave gas internal phonon the into conventional takes the which both simulations, account atomic direct argu- and theoretical ments by supported formalism a propose We China Shanghai, sity, Tanaka K. and and lm metallic a between coupling the in losses observed optical the reduce dramatically to platelets gold crystalline and temperatures cryogenic Using WED EH-P.9 ∙ modelling optical-electrical-thermal coupled through pathways photonic cells: of investigation solar silicon of cooling sky Radiative WED JSI-P.2 1 ∙ phonons thermal of coherence the intrinsic including conduction heat of law Generalized WED JSI-P.1 Session Poster JSI JSI-P: 14:30 – 13:30 ∙ WSe in Monolayer Dynamics Relaxation and Formation Exciton Dark WED EI-P.1 Session Poster EI EI-P: 14:30 – 13:30 .Dumoulin J. Zhang Z. Kusaba S. nvriyo oy,Tko Japan Tokyo, Tokyo, of University e ; ; 4 2 nttt o nertdCl-aeilSciences, Cell-Material Integrated for Institute N M57,Ui.Lo,EoeCnrl de Centrale Ecole Lyon, Univ. 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Abdala ∙ Range Gigahertz the in Sensing Opto-Phononic for Cavities Acoustic Mesoporous Designing WED JSI-P.3 .Bi G. ..Crood Oliveira de Cardozo E.R. siuoIain iTcooi,Gnv,Italy Genova, Tecnologia, di Italiano Istituto nvriéPrsSca,US,CR,GMC Ver- GEMaC, CNRS, UVSQ, Paris-Saclay, Université otiuinhsbe withdrawn. been has contribution e 1 .Quélin X. , 2 1,2 ..Fuertes M.C. , 1 2 ; .Moreaud L. , .Cho Y. , n ..Lanzillotti-Kimura N.D. and , 4 CLEO etoAóioBrlce&Isiuode Instituto & Bariloche Atómico Centro 4 1 ; .Pastoriza H. , .Dujardin E. , 3 5 .Krahne R. , obneUiest,CR,Institut CNRS, Université, Sorbonne ; 4 ltrnIsiue e ok USA York, New Institute, Flatiron ® 3 ..Angelomé P.C. , 2 Erp-QC2021 /Europe-EQEC .ClsdsFrancs des Colas G. , 1 1 .Esmann M. , n ..Berkelbach T.C. and , 2 4 and , .Perrin B. , ; ; 3 3 eecaQuímica Gerencia oubaUniver- Columbia ∙ .P Hermier J.-P. 1 ; 3 ; .Ortiz O. , 2 ; 1 nttt de Instituto 2 eteNa- Centre 5 Università G.J.A.A. , 1 N.L. , 3 S. , OM3 ROOM 2 ROOM OM4 ROOM 3,4 1 1 , ; ; 108 ⋅ on IB,UR60 NS nvriéBourgogne Université CNRS, France 6303 Dijon, Franche-Comté, UMR (ICB), gogne France France sailles, i sensors. nanoacous- for tic com- potential new with systems propose mesoporous we plex Finally, experimental with simulations. presented, and are results range GHz 5-100 in resonances the acoustic showing meso- thin-lms on oxide porous based resonators nanoacoustic Multilayered macroscopic graphene. non- of the the response of perturbative that signature unequivocal reveal an presents results emission Our harmonic high-order sub- through generation. laser graphene intense of an to dynamics jected electronic the explore We Salamanca, Spain de Salamanca, Universidad Aplicada, Física depar- de Fotónica, tamento y Láser de Plaja Aplicaciones en L. Investigación and Hernández-García, C. Cabrera, ∙ pcrlrslto tbodadaosia n optical and acoustical frequencies. high broadband at with resolution cavities optophononic spectral spec- tunable of Brillouin range 300 to GHz 20 custom-built the in phonons acoustic versatile probe to setup troscopy a present We France Palaiseau, nanotechnologies, de et nanosciences de Centre Lema A. ∙ range GHz the 20-300 in spectroscopy Brillouin for ltering Angular WED JSI-P.4 Japan Technology, and Science Japan Tokyo, Tokyo, of 1 ∙ deposition phase CH CH(NH of growth Epitaxial WED EI-P.5 .Byr-aca .Zró-iune,A García- A. Zurrón-Cifuentes, Ó. Boyero-García, R. .Rdiuz .Pia .Snlat .Gomez-Carbonell, C. Senellart, P. Priya, P. Rodriguez, A. Liu Z. eateto aeil Engineering, Materials of Department ensa 3Jn 2021 June 23 Wednesday 3 NH ; 1 .Matsushita T. , 3 3 î r,M san n ..Lanzillotti-Kimura N.D. and Esmann, M. tre, aoaor nedsilnieCro eBour- de Carnot Interdisciplinaire Laboratoire PbBr ; 3 igecytlsbtae yvapor by substrates crystal single 2 EE/NSUR81,Toulouse, 8011, UPR CEMES/CNRS 2 ; .Sotome M. , 2 eerhCne o Advanced for Center Research nvriyo oy,Tokyo, Tokyo, of University e 2 ) 2 PbI 1,2 3 hnm on lms thin n .Kondo T. and , University e ; rp de Grupo 1,2 ; ; a ossfrteoeec fidvda colloidal at operating opti- individual and lm of of gold 4K. decrease uoresence crystalline a strong the by the nanocrystals for show losses we cal paper, this In ope,bt prtn ntemdifae nte220- the platform. on silicon mid-infrared nm ber-to-chip the in high-performance operating both a coupler, we and source, photonics, single- photon reduced quantum two-photon-absorption silicon a demonstrate low-loss achieve To Japan Tokyo, University, Waseda Physics, Kingdom United Bristol, Bristol, Kingdom United Bristol, 2 Bristol, of University Training, ∙ Mid-Infrared the in Photonics Quantum Silicon Low-Loss Engineering WED JSI-P.5 WED EI-P.7 monolayer. MoS2 integrated photolumines- the the of study cence to response optical optimal an and monolayer structures. photonic MoS2 combining devices of fabrication France Toulouse, France Toulouse, ∙ Filtering Integrated Resonator Cavity using monolayer MoS2 of absorption Optimum WED EI-P.6 Silverstone Palmer Mlayah A. sn ao hs deposition. phase vapor using perovskite I-rich CH the of on we lms growth thin inter-diusion, epitaxial ion the achieved halide have the limiting partially By ..Sulway D.A. Dory J.-B. unu niern ehooyLb,Uiest of University Labs, Technology Engineering Quantum otiuinhsbe withdrawn. been has contribution e swr xlrstenmrclcneto n the and conception numerical the explores work is 1,2 .Jiang P. , 2 1,2 1,2 ; 1 ; 1,2 unu niern etefrDoctoral for Centre Engineering Quantum .Gauthier-Lafaye O. , 1 ..Rosenfeld L.M. , EE-NS nvriéd Toulouse, de Université CEMES-CNRS, ; 2 ASCR,Uiest eToulouse, de Université LAAS-CNRS, 2 3 .Aoki T. , NH eotdhbi eieshows device hybrid reported e 3 PbBr 3 ..Rarity J.G. , 3 ; 3 igecytlsubstrates crystal single 2 eateto Applied of Department .Yonezu Y. , 2 .Calvez S. , 2 n J.W. and , 3 Q.M.B. , 2 and , ; nvria elsIlsBlas am eMloc,Spain Mallorca, de Palma Balears, Illes les de Universitat Romeira ∙ neuron optoelectronic nanolaser-based a in propagation Spike WED JSI-P.6 .Ortega-Piwonka I. 4 n .Javaloyes J. and , 1,2 .Piro O. , 1,2 ; 1 eatmn eFísica, de Departament 1 .Figueiredo J. , 3 B. , ; g aoaoy(N) rg,Portugal Braga, (INL), Laboratory ogy Nanotechnol- Iberian Portugal International Uni- Nanophotonics, Lisboa, and Ciências, Lisboa, de de Faculdade versidade Física, de Departamento Spain Mallorca, de Palma (IAC-3), 2 nttt fApidCmuigadCmuiyCode Community and Computing Applied of Institute CLEO ® Erp-QC2021 /Europe-EQEC ; 3 etaCêca and Centra-Ciências ; 4 lrfs,Bio Ultrafast, OM4 ROOM NOTES 109 ⋅ eoattneigdoeadannlsri demon- is generator. nanolaser pulse excitable a an as and strated diode tunneling of resonant consisting a circuit neuromorphic optoelectronic, An r uniaieycaatrzd et w nt r in- pulses. propagate are to units tegrated two Next, characterized. quantitatively are ensa 3Jn 2021 June 23 Wednesday pia pulses optical e
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Range GHz 20 8:30 the in Phonons Acoustic Coherent of Generation Ecient for Microcavities Fiber-integrated Nanoacoustics: Integrated Towards THU JSI-3.1 .Ordonez-Miranda J. ple hsc Department, Physics Applied nvriéPrsSca,CNRS, Paris-Saclay, Université nvriyo oy,153-8505, Tokyo, of University e ra etaino a of Rectication ermal 4 ra Rectication. ermal ; 1 IM,CR-I M 2820, UMI CNRS-IIS LIMMS, ; 1 1 ∙ 2 .Lanzillotti-Kimura D. 2 .Lemaitre A. , .Pastier F. , uneaSS Palaiseau, SAS, Quandela 1 ..Dumas-Bouchiat F.F. , .Sagnes I. , 1 OM1 ROOM .Giesz V. , ; 3 n ..Alvarado- J.J. and , 2 ntttPprime, Institut 2 .Rodriguez A. , 2 1 ; .Esmann M. , .Harouri A. , 1 1 .Forero- I. , .Gomez C. , 3 Université 3 1 1 1 1 , , , , ; ; toeodtmn ftesystem. the of timing the attosecond dictates the nature solid-state while na- dominates their response, atomic excitons few-femtosecond the of that ture found spectroscopy.We transient-reection MgF in measured was dynamics core-exciton Ultrafast IFN-CNR, Italy Padova, Nanotechnologies, and Tsukuba, Tsukuba, Japan of Germany University Hamburg, Dynamics and Matter, 4 Structure of the for n aoehoois IFN-CNR, Italy Milano, Nanotechnologies, Milano, and Milano, Italy di Politecnico Nisoli Giovannini Poletto L. Borrego-Varillas R. Lucarelli ∙ 8:30 Excitons Core of Nature Dual Attosecond (Invited) THU CG-5.1 Univer- Lund Sweden sity, Arnold, Cord Chair: Science Ultrafast in Symmetries CG-5: 10:00 – 8:30 .Lucchini M. etrfrCmuainlSciences, Computational for Center ; 1,2 ; ; 1,2 2 5 nttt o Photonics for Institute 5 1 nttt o Photonics for Institute .Moio B. , 3 .Huebener H. , OM2 ROOM eateto Physics, of Department .Rubio A. , ; 1,2 3 a lnkInstitute Planck Max ..Sato S.A. , 2 2 .Frassetto F. , 1,2 yattosecond by .Inzani G. , 3 n M. and , 3 3,4 .De U. , G.D. , 5 1 CLEO , , ; nlf cecsaddw stream dis-cussed. down be will and monitoring application bio-process sciences their life and in cas- lasers quantum cade external-cavity mid- IR tunable broadly so- using aqueous lutions in proteins of the analysis for schemes sensing Advanced Austria Universit A. Tech- nische Analytics, and and D.-R. Technologies Ramer, Freitag, Schwaighofer G. S. Hermann, Dabrowska, ∙ Solution Aqueous in Analysis Protein 8:30 for Spectroscopy Laser Mid-IR (Invited) THU CH-8.1 Parajo, Garcia Spain Barcelona, Sciences, Maria Photonic of ICFO-Institute Chair: Level Molecular the at Spectroscopy CH-8: 10:00 – 8:30 .Lnl ..Aha,A. Akhgar, C.K. Lendl, B. ® Erp-QC2021 /Europe-EQEC OM3 ROOM ; nttt fChemical of Institute ä in Vienna, Wien, t 110 hi:Sli eeo cni Pho- France Scintil Lyon, tonics, Menezo, Sylvie Chair: Silicon on Integration CB-6: 10:00 – 8:30 atre iio eielyris for devices. used high-performance be layer can and free the device dislocation from silicon described. III-V patterned be of silicon-on-insulator growth will Lateral wafers (001) p-i-n (SOI) grown and on selectively micro-lasers photodetectors III-V Kong Hong Wa- Bay, ter Clear Technology, & Science of Han Y. and ∙ circuits integrated photonic Si for layers buer without MOVPE selective by 8:30 platform SOI a on components III-V (Invited) THU CB-6.1 ..Lu .Xe .Yn .Lin, L. Yan, Z. Xue, Y. Lau, K.M. ⋅ hrdy2 ue2021 June 24 Thursday OM4 ROOM ; ogKn University Kong Hong 0 H eeiinrate. repetition at kHz extracted 300 be could average power of output kW 1.74 to multipass Up amplier. thin-disk a using ultrafast ization polar- of radial/azimuthal with amplication beams the on achievements latest our present We Germany Stuttgart, 70569 43, Pfaenwaldring Stuttgart, Ahmed Abdou f M. and 8:45 ∙ kW 1.74 of power average an with pulses ultra-short polarized azimuthally delivering THU CA-8.2 (LG0 vortex 31W record demonstrate We Kingdom United Damzen London, 8:30 London, College M.J. rial and Johns, ∙ Coupler Output Vortex Using Laser Vortex W >30 THU CA-8.1 Japan Saitama, 8, Spring- Riken Taira, Takunori Chair: Control Beam Laser CA-8: 10:00 – 8:30 ihsical addesfor handedness applications. high-power switchable with coupler. output interferometric (21.1ns, Q-switching 304 500kHz to ü .Lece,C R C. Loescher, A. Kerridge- W.R. 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Nguyen Rego L. 8:45 Lasers Driving Necklace-Structured from Spacing Line Tunable with Combs Harmonic X-Ray So Low-Divergence, THU EE-2.2 8:30 WSe monolayer in generation High-harmonic THU EE-2.1 Austria Vienna, of versity Uni- Shumakova, Valentina Chair: Matter Condensed in HHG EE-2: 10:00 – 8:30 oy erpltnUniversity, Japan Tokyo, Metropolitan Hachioji, Tokyo Kyoto,Japan Sakyo-ku, University, Kyoto Tanaka Endo T. ∙ doping photo-carrier osic rudteabsorption monolayer. the the of around edge switch to suggested doping is contribution intraband photo-carrier eect. WSe using monolayer by in generation mechanism high-harmonic the main conrmed experimentally We Kyoto,Japan Sakyo-ku, University, Sciences, Kyoto Cell-Material Integrated .Nagai K. nvriyo ooao Boulder, Colorado, of University ; 1 1,3 2 ; 2 .SnRomán San J. , 1 1 2 2 ai fteitradto interband the of ratio e 1 ..Kapteyn H.C. , ..Brooks N.J. , ; .Miyata Y. , and , .Uchida K. , eateto Physics, of Department 1 1 OM8 ROOM nvria eSala- de Universidad eateto Physics, of Department 2 under ∙ .Hernández- C. 1 ; .Kusaba S. , 3 1 2 nttt for Institute .Binnie I. , n K. and , 2 Q.L.D. , 2 M.M. , 2 1 CLEO 2 , , ; iyo aeca Spain Valencia, of sity Univer- Valcarcel, de German Chair: Microresonators in Micro-combs EF-5: 10:00 – 8:30 aoaoy edntn United Kingdom Teddington, Laboratory, Del’Haye P. Bino 8:45 Del L. ∙ Microresonator a in Light Counterpropagating on based Oscillator Kerr A THU EF-5.2 side. red the side or blue into the tuning either from by resonance laser wave con- tinuous a using microresonators cou- pled linearly of in initiation solitons dissipative the demonstrate We Gothen- Sweden burg, Technology, of University Torres-Company 8:30 V. and ∙ molecules photonic in solitons dissipative of initiation Bidirectional THU EF-5.1 nttt o h cec fLight, of Germany Science Erlangen, the for Institute Kingdom Glasgow, United Strathclyde, Kingdom of University United London, 4 Lon- don, College Kingdom Imperial Laboratory, United 3 University, Edinburgh, Heriot-Watt Physics, of ...Woodley M.T.M. Schr J. Ye, Z. Helgason, Ó.B. UAadDprmn fPhysics, of Department and SUPA Blackett Physics, of Department ® Erp-QC2021 /Europe-EQEC ; 2 OM9 ROOM 5,6 1,2,5 UAadDepartment and SUPA ; .L Oppo G.-L. , 1 ainlPhysical National ; 1,2,3 ; 5 a Planck Max .Hill L. , 6 Department ; Chalmers 4 and , ö der, 1,4 , ; ; 111 oe fdrn metals. dierent of posed com- colour nanostructures plasmonic identical for produce re- sponse, optical in the dependence the material reduces that dramatically demonstrate disorder materials We of response varies. optical functions, the dielectric unique to Due United Kingdom London, Kingdom, 2AZ, United SW7 London London, College China Kong, Hong 7 China, Hong Kong, Kong, Hong of University Engineer- ing, Electronic & Electrical China of China, Kong, Kong, Hong Hong Kong, Hong of China Nanjing, 5 China, Nanjing, 210093 University, Nanjing Sciences, Kingdom United 4 Swansea, versity, Uni- Swansea Campus, Bay neering, iyo imnhm Birmingham, Kingdom United Birmingham, of Univer- Astronomy, sity and Physics Germany of Munich, Mu- nich, of University Maximilians wig Lud- Physics, of Faculty Munich, tute Nanoinsti- Nanosystems, Hybrid in Denmark Copenhagen, Denmark, of University Technical Lavrinenko, Andrei Chair: Interaction Light-Matter Enhanced for Plasmonics EH-4: 10:00 – 8:30 abig,Cmrde United Cambridge, JJ Cambridge, Physics, of 8:45 Department ratory, ∙ Absorption Two-Photon by Excited Emission State Trap Plasmon-Induced THU EH-4.2 Zhang 8:30 Song F. ∙ Nanostructures Plasmonic Disordered From Response Optical Material-Insensitive THU EH-4.1 .Ojambati O. Liu C. eateto hsc,Imperial Physics, of Department University Physics, of Department Applied and Engineering of College ⋅ msnAeu,Uiest of University Avenue, ompson hrdy2 ue2021 June 24 Thursday 2,5,6 1 4 .Mao P. , .Han M. , n .Maier S. and , OM10 ROOM ; 2 ; .Niu Y. , aeds Labo- Cavendish 4 3 .Palmer R. , olg fEngi- of College ; 6 Department 1,7 3 ; .Qin Y. , ; 2 1 School Chair 3 S. , 4 , ; ; ; fTcnlg,Gda Technology, of Gda Informatics, and Telecommunications Electronics, of Poland Kraków, University, Poland Warsaw, 3 Photonics, Microelectronics and of Institute - Warsaw, work Warsaw, Poland of University bers. to silica conventional relative im- stability thermal suggest proved Results investi- experiments. annealing is and isochronal through stability gated laser, thermal femtosecond their a bers using optical aluminosilicate into inscribed are modications II Type Technology, Germany Photonic Jena, Albert-Einstein-Str, of Institute Buczy Bogdanowicz Wojciechowski Karpate Ste¸pniewskiT. G. USA Clemson, University, Clemson (COMSET), Engineering Technologies and Science Materials C.N.R.S, France Saclay, Orsay, Paris (ICMMO), Université d’Orsay Matériaux des 1 Poumellec Elsmann T. E82TU8:45 ∙ core nanodiamonds-embedded with bers composite glass Silicate THU CE-8.2 ∙ 8:30 Fibers Optical Glass Aluminosilicate Highly-Doped in Laser Femtosecond IR by Modications THU CE-8.1 Kingdom United Southampton, Southampton, of University Wheeler, Natalie Chair: Fibers Optical Specialty of Fabrication and Materials CE-8: 10:00 – 8:30 .Filipkowski A. Wang Y. nttt fPyis Jagiellonian Physics, of Institute ntttd hmeMlclieet Moléculaire Chimie de Institut ra tblt fTp II Type of Stability ermal ń ; ski 2 1 uaiwc eerhNet- Research Łukasiewicz 1,2 1 .Cavillon M. , OM11 ROOM n .Lancry M. and , 1 3 ; .G M. , 4 .Rothhardt M. , .Gawlik W. , 3 ; 1 .Klimczak M. , aut fPhysics, of Faculty 1,2 2 1,2 etro Optical of Center ń .Mrózek M. , .Ficek M. , k Poland sk, ń ł owacki kUniversity sk 1 .Ballato J. , ; 3 ; n R. and , 4 3 Faculty Leibniz 4 3 1 A. , B. , R. , 4 3 2 1 , , , ; ; asn tmcreconguration surface. gold the near atomic are causing carriers non- photo-excited that thermal propose light We plasmonic green emittersexcitation. gold under of nanojunctions inside observation forming the quantum-conned report We China Wuhan, Univer- sity, Wuhan Studies, Advanced Lau- (EPFL), Switzerland sanne, Lausanne Fédérale ∙ Lingenfelder M. Verlekar S. Chen W. nanojunctions plasmonic of 8:30 dynamics light-driven Atomic-scale, (Invited) THU EG-5.1 - ICFO Spain Castelldefels, Hulst, van Niek Chair: Nanoscale the at Phenomena Light-driven EG-5: 10:00 – 8:30 .Galland C. nttt fPooi Sciences, Photonic of Institute e 1 .Roelli P. , OM12 ROOM 1 1 .Hu H. , ; 1 1 cl Polytechnique Ecole .Tagliabue G. , ; 2 1 2 .Ahmed A. , .Banjac K. , nttt for Institute e 1 and , 1 1 , ,
Thursday Orals Thursday Orals r nvriy vntn(Illinois), USA Evanston University, ern Northwest- Engineering, Computer Italy Roma, Roma, di Università Sapienza Italy Italy,Roma, Roma, di l’Ingegneria, Università per Sapienza Applicate ed Base NI,Uiest fTko Tokyo, Japan Tokyo, of University INQIE, 2 1 USA (California), Berkeley California, of University Engineering, and Science Roma, Vergata, Italy Tor Roma degli di Università Studi Industriale, neria Aydin S-. H 9:15 ∙ cooler cascade quantum the nano-device: cooling thermionic ecient Highly THU JSI-3.4 features. emissivity dierent with body hot underlying an of thermal radiation the controlling for and tuning candidates promising are lms transi- thin VO2 phase that demonstrate and during tion VO2 of emis- sion infrared the investigated We (California), USA National Berkeley Berkeley Laboratory, Lawrence sion, 9:00 Dereshgi Paoloni S. ∙ VO2 using Emission Infrared Tuned Dynamically THU JSI-3.3 uxmeter. in heat a and of vacuum front in placed lm a VO2 of up made diode thermal for far-eld observed experimentally is 61% .Bescond M. Larciprete M.C. IM-NS oy,Japan and Science Industrial of Tokyo, Institute LIMMS-CNRS, ; ; ; ; 4 4 ; eateto lcrcland Electrical of Department 3 5 6 1 iatmnod Chimica, di Dipartimento eateto Materials of Department 4 aeil cecsDivi- Sciences Materials iatmnod cez di Scienze di Dipartimento .Tang K. , ; 2 OM1 ROOM 1,2 .Fratoddi I. , 2 iatmnod Ingeg- di Dipartimento n .Hirakawa K. and 1 5 .Centini M. , .Wu J. , nFilms. in 6 3 n K. and , S.A. , 1,2 1 , ; ; .Ivanov M. Smirnova fPyis nvriyo Ottawa, of University Physics, Germanyof Berlin, Morales F. G53TU9:15 ∙ Inversion without Lasing Beat Quantum Rotational THU CG-5.3 RDS. and dierent two symmetry the observe rotational crystal no the with from harmonics gen- erate we Rotational Here, (RDS). the Shi by Doppler solids observed in be can generation harmonic of exchange momentum angular Spin Japan Kuwata-Gonokami M. 9:00 and moto, ∙ Solids in Generation Harmonic for Shi Doppler Rotational of Observation THU CG-5.2 .Richter M. Yu- J. Konishi, K. Komatsubara, W. nvriyo oy,Tokyo, Tokyo, of University e 1 .Spanner M. , 1 OM2 ROOM 1 ; .Haessler S. , 1 1 .Lytova M. , Max-Born-Institute, ; 2 Department 2,3 4 and , O. , 2,3 CLEO , ; aoaoy eateto Physics, of Department MaierLaboratory, S.A. and Quesada-Cabrera 9:15 ∙ detection molecular trace for vacancies oxygen surface photo-induced utilising and probing Generating, THU CH-8.3 graphene. of doping chemical reversible concentra- via gas tions varying with tuned poly- mer. gas-adsorbing nanos- and graphene tructures of hybrid a combination on plas- based mid-infrared detection monic in sens- gas scheme novel ing a present we Here, Avan Estudis , Spain Barcelona, 08010 23, i Companys, Lluís Passeig Recerca Barcelona, de Castelldefels, Spain Technology,08860 and Science of Institute Fotoniques, Ciencies Pruneri Gopalan 9:00 ∙ polymer gas-adsorbing ultrathin and nanostructures graphene hybrid on based sensor gas Mid-infrared THU CH-8.2 .Glass D. Bareza N.J. ® ; Erp-QC2021 /Europe-EQEC 2 1,2 1 CE-nttcóCatalana ICREA-Institució lsoi eoac is resonance plasmonic e .Alani R. , ; 1,2 OM3 ROOM .Cortes E. , 1 .Paulillo B. , 1 COIsiu de ICFO-Institut 1,3 2 ..Parkin I.P. , ; 1 1 Barcelona e n V. and , Blackett e 1,3 1 R. , K. , ç ats, 2 , 112 B63TU9:15 ∙ platform III/V generic a and SiN using laser mode-locked cavity extended Hybrid-integrated THU CB-6.3 Baryshnikova 9:00 ∙ Wafer Si mm 300 a on Grown Monolithically O-band Telecom the in Emitting Laser Nano-ridge InGaAs THU CB-6.2 a Gasse Van Kunert B. Pantouvaki Muneeb hn nvriyIE,Ghent, IMEC, Technology, University Information Ghent of ment 1 1 aordew ute xedits applications. extend telecom to reach further we nano-ridge InGaAs a By from lasing demonstrating on platform. Photonics components Silicon the active inte- of monolithic gration the novel for a approach is engineering Nano-ridge 2 .Vissers E. Colucci D. htnc eerhGop Depart- Group, Research Photonics Belgium Ghent, University, Ghent MC evn,Belgium , Leuven IMEC, ⋅ hrdy2 ue2021 June 24 Thursday 1 .D Koninck De Y. , 2 n .Van D. and , 2 1,2 1,2 OM4 ROOM .VnCampenhout Van J. , 2 1,2 n .Kuyken B. and , .Poelman S. , .Mols Y. , .Shi Y. , ourhout 1 2 1,2 M. , 2 M. , M. , K. , 1,2 2 1 , ; ; ; 2 1 Miyamoto K. A84TU9:15 ∙ laser degenerate Nd:GdVO4 pumped o-axis an from generation mode Laguerre-Gaussian Geometrical THU CA-8.4 ratio. extinction polarization 35:1 a with 1.3W of output polarized re- ported. is waveplate variant intracav- spatially an ity using laser end-pumpedNd:YVO4 po- an from radially mode a larized of excitation Direct Kingdom United Southampton, Southampton, and Kazan- sky, P. Lei, 9:00 Y. Jeerson-Brain, T. Waveplate Variant Spatially Intracavity an Using Laser Solid-State a in Beam Polarised Radially a of Generation THU CA-8.3 .Ma Y. QPooisRsac Centre, Research Japan Photonics Chiba, MQ University, Chiba 1 ..Lee A.J. , ∙ .Clarkson W. ae ile radially a yielded laser e OM5 ROOM 1,3 n .Omatsu T. and , 2 ..Pask H.M. , ; nvriyof University 1,3 2 , ; ; ois colo Optical-Electrical of School tonics, Gu Nanopho- M. Articial-Intelligence and for Chen, X. Ma, 9:15 ∙ Writing Direct Laser on Based Oxide Graphene Reduced in Encryption Holographic Optical All THU CM-4.3 of delay pulses. time double a by controlled be can properties characteristic their found We pulse. an laser femtosecond with intense metalized transiently Si on of excited polaritons observation plasmon rst surface on report We Japan 184-8588, Agriculture Tokyo Nakacho, Kognei, 2-24-16 of Technology, and University Tokyo 9:00 ∙ pulse Laser Femtosecond Intense An with Metalized Transiently Si on excited Polaritons Plasmon Surface of Observation THU CM-4.2 .Dn,X ag .Ln X. Lin, D. Fang, X. Dong, Y. Miyaji G. and Tateda, M. Iida, Y. OM6 ROOM ; Centre ; Poelman Zaknoune and Schmid, Moselund H. K.E. Caimi, D. Sousa, ∙ 9:15 Platform Silicon-Nitride a on Micro-Transfer-Printing using Photodiodes Uni-Travelling-Carrier of Integration Heterogeneous THU CK-4.3 for connement. QWs carrier increased InP/InGaAs integrated lasers. compare InP-on-Si and demonstrated previously with 1530nm, them at lasing room-temperature by of evidence Si with on cavities template-assisted-selective-epitaxy inte- InGaAs monolithically grated present We Switzerland Rueschlikon, rope, Trivi Vico N. Brugnolotto, E. 9:00 ∙ nm 1530 at emission temperature room with Si on integrated monolithically cavities microdisk InGaAs THU CK-4.2 .Maes D. Mauthe, S. Fischer, A. Tiwari, P. 1 .Billet M. , 2 1,2 .O eBeeck de Op C. , OM7 ROOM .Roelkens G. , ; B eerhEu- Research IBM 1 .Muneeb M. , salw for allows is 1 ñ M. , ,M. o, 1 S. , 1 , sdme ysatrn fthe of molecules. neighbouring scattering from electron by driven damped is emission mechanism. recombina- tion a with supporting 50eV harmonic features to extreme- which extends isopropanol (XUV) from emission dependent ultraviolet (CEP) carrier-envelope-phase present We Kingdom United don, gos .Brad .Frhu,E Lar- E. Ferchaud, son, C. Avni, T. Barnard, Alexander, J. O. Jarosch, S. liquids in (HHG) 9:00 generation harmonic high energy High (Invited) THU EE-2.3 with decreases frequency further x-rays. divergence, which low so extremely present the harmonics emitted to the Remarkably, up content, ; meilCleeLno,Lon- London, College Imperial ∙ .Mthw,adJ Maran- J. and Matthews, M. OM8 ROOM emission e CLEO ometries. ge- based coupled-cavity modulator-based, and single- of in dynamics gen- microcombs and the control cover eration, will I photonics. Specically, inte- niobate by lithium powered grated combs, develop- fre- Kerr quency recent and electro-optic of the ment discuss We Cam- Sci- USA University, bridge, Applied Harvard and ences, Engineering of ∙ Combs 9:00 Frequency Lithium-Niobate-Based (Invited) THU EF-5.3 tions. applica- cryptographic and coding, en- waveforms, of generation optical all- chip-integrated for way the pave symmetry average. on restoration to due Kerr microresonator, a in light counterpropagating in behaviours self-switching retical theo- and experimental present We Erlangen-Nuremberg, Alexander Germany Erlangen, Friedrich University Physics, of .Yu M. ® Erp-QC2021 /Europe-EQEC ; onA alo School Paulson A. John OM9 ROOM s results ese 113 hl upesn band-edge suppressing emission. dots quantum while single states in trap nonlinear emission new ecient elicits this interaction and 108 106 - by photoluminescence two-photon excited enhances plasmonic a nanocavity that demonstrate We Kingdom lso transients. plasmon lo- few-cycle enables of characterization calized geometries various of nanoparticles from photoemission time-resolved and Energy-selective Franzens-Universit rpriso neitri ffun- of is emitter an of properties radiation and emission the Tailoring Finland pere, 9:15 Caglayan ∙ Cavities Metal-Insulator-Metal in Enhancement Rate Emission Spontaneous of Mechanisms THU EH-4.4 Hungary Budapest, Physics, for Centre search Krenn 9:00 Bánhegyi Sándor P. dynamics photoemission nanoplasmonic few-cycle Energy-resolved THU EH-4.3 .Gidn,AR ahd n H. and Rashed, A.R. Ghindani, D. ⋅ hrdy2 ue2021 June 24 Thursday 2 n .Dombi P. and , ; 1 1 ; 2 .Rácz P. , , apr nvriy Tam- University, Tampere OM10 ROOM ntttf Institut ∙ .Lovász B. ä 1 ,Ga,Austria Graz, t, ü .Prietl C. , hsk Karl- Physik, r 1 1 ; .Pápa Z. , 1 inrRe- Wigner 2 J.R. , 1 B. , .Cano I. Valiente Kobelke J. method co-extrusion a using developed PSU thermoplastic high-performance and poly- Zeonex cyclo-olen mer the of grades ent dier- two to of consisting degrees up 180 temperatures withstanding ber optical polymer multimaterial Bang Woyessa E84TU9:15 ∙ lasers bre in transitions laser new towards – doping powder glass using bres Nanocrystal-doped THU CE-8.4 3490 A/S, Solutions Kvistg Sensing Denmark 4400 Science, Denmark Kalundborg, and Lyngby, Engineering for Kgs. 3 Denmark, 2800 of Engineering, University Mechanical Technical Lyngby, of ment Kgs. 2800 Denmark Denmark, University of Technical Photonics Engineering, of Department Fotonik, 9:00 ∙ bers multimaterial polymer High-temperature THU CE-8.3 fNsi refr oeis core free-form imaging. a photoluminescence with in conrmed NDs presence and of compared depo- are Two nanolm sition ND tubes. of and techniques canes sil- glass from icate drawn bers optical core nanodiamond-embedded report We .J M. Akrami P. nvriyCleeAsln Centre Absalon, College University arcto faheat-resistant a of fabrication e 1,4 ä å ger d Denmark rd, n .Markos C. and , 2 2 1 .Diego-Rucabado A. , .Aguado F. , ; ..Rasmussen H.K. , 1 .Lorenz M. , 1 OM11 ROOM 2 .Wondraczek K. , T eai,Depart- Mekanik, DTU 1 ..Adamu A.I. , 1 2 .M R. , .Gluch J. , ; 1 4 ; SHUTE 2,3 1 ü 1 1 G. , DTU ller O. , R. , 3 2 1 , , , ; ttsial analysed. statistically the are congurations of cluster observed stability and compactness, waveguide. silicon nanorods photonic gold a of a on using chain trapped periodic self-assembled are clusters and bead beads Single France Palaiseau, 5 Paris-Saclay, Japan poro, France Grenoble, 3 Alpes, Grenoble Dijon, France Franche-Comté, Bourgogne ete eateto Physics, of Department Centre, Baumberg Nijs J. de B. 9:15 Huang ∙ Binding Molecule-Metal Single in Barriers Energy of Suppression Optical THU EG-5.3 and Yam Ecarnot Pin 9:00 C. nanotweezers plasmonic on-chip using clusters particle of self-assembly and trapping Optical THU EG-5.2 .Lin Q. E,Pltciod ai ai Italy Bari, Bari, di Politecnico DEI, Sap- University, Hokkaido RIES, rpigecec,orientation, eciency, trapping e 4 ∙ .d Fornel de F. , .Cluzel B. ; 1 .Wright D. , 4 1 1,2,3 2 .Picard E. , .Hu S. , E rnbe Université Grenoble, CEA OM12 ROOM 1 .Magno G. , .Rosta E. , ; 2,3 1 ; ; 1 4 .F T. , 2,Université C2N, 1 2 1 C,Université ICB, 1 1 .Hadji E. , Nanophotonics .Griths J. , .Dagens B. , 2,3 ö ldes n J. and , 4,5 2,3 A. , 2 V. , J. , 4 1 , , ; ;
Thursday Orals Thursday Orals rea Ko- South Gwangju, Technology, and Song Son S-. H 9:45 ∙ layer lossless additional with emission selective high and Ultra-thin THU JSI-3.6 amplication. non-Hermitian directional and propagation chiral to lead and dynamics the that symmetry show time-reversal of breaking We controlled optomechanical transport interactions. modulating nanomechanical by for amplication magnetic parametric and synthetic elds establish We Netherlands dam, Verhagen E. and 9:30 ∙ System Nano-Optomechanical a in Phonons for Dynamics Non-Hermitian and Fields Magnetic Synthetic THU JSI-3.5 wells. quantum of series a through processes emission tunneling thermionic resonant and successive cascade based on is concept Its “quantum (QCC). device, cooler” as cooling identied heterostructure semiconductor novel a propose We ..Kim D.H. Mathew, J.P. Pino, del J. Slim, J.J. ; 2 2 1 ..Kang K.M. , oe nvriy eu,South Seoul, University, Korea ; 1 wnj nttt fScience of Institute Gwangju 1 OM1 ROOM ..Lee G.J. , 1 ; .Lee H. , ML,Amster- AMOLF, 1 .Y Heo S.-Y. , 2 n Y.M. and , 1 S. , Pug R R. France Orsay, F-91898, 200, Bâtiment Ampère, Rue CNRS, UMR Paris-Saclay, Université Joliot-Curie, Korolev simulations. advanced with comple- observations experimental we the ment Furthermore, spectral range. extreme-ultraviolet 100 the as high in as charges topological with vortices optical of acterization char- content modal wavefront, sity, inten- and generation, the report We France Orsay, Gaulle, de Charles Salamanca, Spain , E-37008 de Universidad DepartamentoSalamanca, Aplicada, Física Fotónica, de y Láser del Aplicaciones en Investigación de García Guilbaud G55TU9:45 Herrmann P. ZnO in pulses laser mid-IR intense from generation harmonic high and excitation dependent Ellipticity THU CG-5.5 Pittman M. 9:30 Plaja Heras las ∙ Charge Topological high very of Vortices Extreme-Ultraviolet THU CG-5.4 nvial nitnelgtelds. light intense in unavoidable both alignment, molecular ioniza- and the tion by molecular triggered of is It combination air. in pulses laser femtosecond intense of propa- gation during naturally arises inver- sion without lasing that show We France Palaiseau, Paris, de Polytechnique Institut Paris, ENSTA Polytechnique, École CNRS, pliquée, Ottawa, Canada Canada, of Council search Canada Ottawa, .KmrPandey Kumar A. ž lys 2 ; ö .Baynard E. , 1 der 4 1 ; ; .Baltu A. , 3 .Zapf M. , 4 1 mgn pi,1,rue 18, Optic, Imagine aoaor ’piu Ap- d’Optique Laboratoire 2 n .Hernández- C. and , 3 .SnRomán San J. , .Uschmann I. , OM2 ROOM 1 1 .Kazamias S. , 1 , aoaor Irène Laboratoire ∙ .Hollinger R. 3 ; .Shumakova V. , 1 .Dovillaire G. , 3 ainlRe- National 1 š .de A. , ka ; 4 M. , 2 1 1,2 Grupo 1 A. , 2 O. , L. , V. , 4 3 CLEO , , elpsto fdtce vnsin events dimensions. detected three the of position reconstruct real and plasmonic eect the mirage circumvent demonstrate to We how plasmonic nanostructure. a Local-Density-of-States to close measurement microscopy single-molecule enables lifetime that localization show We Paris, Italy Paris, Milano, ESPCI France - Langevin Wilde Gulinatti A. Castro H85TU9:45 Plum Lan G. Nanomechanics Metamaterial on based Sensing Field Magnetic Optical THU CH-8.5 9:30 ∙ Nanostructures Dielectric and of Plasmonic States of Density Local the of Imaging Lifetime Single-molecule THU CH-8.4 applications. tection Raman de- molecular using trace for spectroscopy defects these in and utilise probe induced generate, we be Here, MOS. can vacancies face sur- irradiation, UVC Using (MOS). semiconductors metal-oxide of proper- ties aect strongly can Defects Germany Ludwig- Maximilians-Universit Munich, Nanoinstitute Kingdom College United 3 University London, London, Chemistry, of Kingdom London, United London, College Imperial China Kingdom United 2 Southampton, .Krachmalnico V. hi nHbi Nanosystems, Hybrid in Chair elnjagUiest,Harbin, University, Heilongjiang ® 1 1 ; 1 ; n .Izeddin I. and , Erp-QC2021 /Europe-EQEC .vnDam van B. , 1 1,2 nvriyo Southampton, of University 2 .Y Ou J.-Y. , oienc iMilano, di Politecnico OM3 ROOM 2 .Acconcia G. , ; 1 ..Cordova- R.M. , 1 .Blanquer G. , ä 2 1 ,Muchen, t, Department and , 1 ; 2 1 .De Y. , Institut ∙ E. 1 , ; ; 114 tion. optimisa- for potential leakage further carrier with by limited is mance perfor- device that show techniques pressure hydrostatic high and ature Grillot Bowers J. ∙ 9:45 circuits integrated photonics isolator-free for back-reection chip-scale to subject silicon on laser dot quantum epitaxial of Dynamics THU CB-6.5 1.55 at plications ap- telecoms on-silicon for potential great show lasers QW based GaInSb Montpellier,France CNRS, Montpellier, Guildford, de Surrey, Kingdom United of University Physics, of Department and Institute Sweeney Rodriguez B. Marko 9:30 ∙ applications photonics silicon for lasers well quantum GaInSb of temperature-dependence and recombination Carrier THU CB-6.4 lasers. grated inte- monolithic than lower is demon- which is III/V section strated. generic gain a extended platform to SiN coupled a cavity using made mode-locked laser integrated hybrid A Belgium Ghent, University, Ghent (NB-Photonics), Biophotonics Belgium .Dong B. Fitch C.R. ⋅ hrdy2 ue2021 June 24 Thursday 1,4 1 ..Duy D.A. , ; 1 ; 1 ; .D Chen J.-D. , 1 3 2 ééo ai,Palaiseau, Paris, Télécom Flnwdhi 1Hz, 31 is linewidth RF e .Y Lin F.-Y. , OM4 ROOM etrfrNn-and Nano- for Center 1 1 2 ..Read G.W. , dacdTechnology Advanced .Tournié E. , ; μ .Lwtemper- Low m. 2 1 E,Université IES, .Cerutti L. , 2 .Norman J. , 2 n F. and , 2 n S.J. and , 1 I.P. , 2 J.- , 3 , Dhollande Spindler Schellhorn M. 9:45 ∙ OPO ZGP high-power a in eects guiding gain and lensing thermal of studies numerical and Experimental THU CA-8.6 were mode. outputs vortex vector Stokes as 1st, ganarated 3rd the and vector setup, Ba(NO3)2 2nd by our light.In pumped solid-state vortex laser beams a Raman Stokes from polarized of generation radially the demonstrate we Japan Chiba, Center, 2 9:30 1 Miyamoto ∙ laser Raman solid-state polarized Radially THU CA-8.5 o-axis conguration. an cavity degenerate with laser Nd:GdVO4 pumped beam annular geometrical an in eration op- laser rst modes of Laguerre-Gaussian the demonstrated demonstration have We Japan Chiba, Center, tralia Aus- Sydney, University, Macquarie .Piotrowski M. Nishigata Y. oeua hrlt Research Chirality Japan Chiba, Molecular University, Chiba ; 3 oeua hrlt Research Chirality Molecular 3 n .Hildenbrand- A. and , 1,2 1 ; OM5 ROOM n .Omatsu T. and , 1 1 1 .Sasaki S. , .Mueller C. , ..Medina M.A. , 1 French-German 1 1 K. , G. , 1,2 1,2 , ; ; motn information. important of encryption of eect the achieve as to so transformed, be can hologram rGO the in information the writing, (rGO) introduced. oxide is graphene reduced method in encryption holographic A China Shanghai, nology, Tech- and Science for Shanghai of sity Univer- Engineering, Computer and niern,CiaUniversity, Japan Chiba Chiba, Engineering, 1 9:45 Miyamoto Tomita A. beams Hermite-Gaussian rotating with formation relief surface spiral Azo-polymer THU CM-4.5 its ablation. laser predicting on in eects useful be can ef- fects optical non-linear to beam due laser prole the of modulation gaussian calcu- lated the demonstrated a We of beam. propagation linear non- the calculated numerically We Japan 1130033, Tokyo, Bunkyo-ku, Hongo, J. Mio, Kuwata-Gonokami N. M. Konishi, and Yumoto, K. Sakurai, H. ∙ Ablation Laser 9:30 on Eects Its and Air with Interaction Optical Non-linear to due Pulse Laser the of Distribution Intensity the in Changes THU CM-4.4 .Ymd,W Komatsubara, W. Yamada, R. rdaeSho fSineand Science of School Graduate nvriyo oy,7-3-1 Tokyo, of University e 1,2 OM6 ROOM 1 n .Omatsu T. and , , ; 2 oeua Chirality Molecular ∙ .Vallés A. og ae direct laser rough 1,2 K. , 1,2 ; ; SN ltomuigmicro- using ( silicon-nitride platform transfer-printing a (SiN) heterogeneously on are integrated PDs) (UTC photodiodes Uni-travelling-carrier Lille, Lille, NanotechnologyFrance de Université (IEMN), and electronics Belgium Ghent Ghent, 2 imec, — (INTEC), University Technology tion ihsedoeainit h THz domain. the promise into a and operation high-speed footprint for small responsivity very high a photodiodes feature waveguide-coupled Kuyken eeprmnal eosrt op- demonstrate experimentally We Belgium ven, Belgium Ghent, imec, 9:45 Van ∙ Silicon on transmission light nonreciprocal assisted modulator Cavity THU CK-4.5 rather lost absorbed. be than non-negligible may a fraction power that expo- and be nential within not may devices prole material con- assumptions, phase-change absorption waveguide-integrated common that, the to demonstrate trary We Canada Montréal, sity, France Écully, 1 O’Connor I. 9:30 ∙ platforms photonics silicon in integrated materials phase-change of behavior optical the of Exploration THU CK-4.4 Lemey S. .Pandey A. Zrounba C. nttt fEetois Micro- Electronics, of Institute ynIsiueo Nanotechnologies, of Institute Lyon ourhout 1 ; 1 1 .Peytavit E. , eateto Informa- of Department OM7 ROOM 1 1 1 .Dwivedi S. , .Cue S. , n .Pavanello F. and , ; 1 2 ; ocri Univer- Concordia 1 hn University- Ghent μ 1 ; TP). .L Beux Le S. , 2 2 mc Leu- imec, 2 n B. and , n D. and , ese 2 1 , ; ; eerhCucl(N) Florence, (CNR), National Council (INO), Research Optics of Institute C and Nano-Optics of Laboratory Siegen, of in space. momentum structure two-dimensional moment tran- dipole the sition reconstructing suc- in we ceeded reso- condition, the excitation orien- nant with crystal dependence measuring tation By phospho- black rus. layer thin in ation gener- harmonic high observed We Technol- Japan Okinawa, University, and Graduate Science ogy of Institute Japan Kyoto, University, E25TU9:45 Farrag ∙ Gates Kerr Optical on based Detection Single-Photon Ultrafast THU EE-2.5 Dani K. ∙ 9:30 phosphorus black layer thin in spectroscopy generation harmonic high by revealed structure moment dipole Transition THU EE-2.4 ..Flatae A.M. Uchida K. μ 1 ign Germany Siegen, , n .Agio M. and , 2 n .Tanaka K. and , 1 OM8 ROOM .Pareek V. , 1 .H Fattah A.-H. , 1,2 2 ; .Nagai K. , ; 1 ; University 2 2 1 Okinawa National ; 1 Kyoto 1 A. , 1 CLEO , hsclsystem. physical two-component any in dissipa- solitons for tive dynamics these of tion observa- rst the represent Our ndings solitons. cavity temporal of ing break- symmetry polarization ex- neous and sponta- of investigations theoretical perimental on report We France Dijon, Bourgogne, de Carnot Kingdom United Glasgow, 4 clyde, France Zealand 2 New Auckland, Auckland, Erkintalo Murdoch S. Hill L. F55TU9:45 Microresonator a in Generation Soliton Self-Stabilized THU EF-5.5 9:30 ∙ resonators Kerr passive in solitons cavity dissipative of breaking symmetry spontaneous of Features THU EF-5.4 e dacdIsiueo cec and Science of Institute Advanced rea Ko- Technology, and Nanoscience of Lee H. and Suk ∙ Lasing Brillouin Mode-Pulled .Xu G. ..Do I.H. aoaor Interdisciplinaire Laboratoire Palaiseau, Paris-Saclay, Université 1 ® .Kwon D. , 3 ; Erp-QC2021 /Europe-EQEC 1 .L Oppo G.-L. , .Nielsen A. , 1 1 .Kim D. , ; 3 OM9 ROOM nvriyo Strath- of University 1,2 1 .Coen S. , 1 ; 3 .Kim J. , 1 rdae School Graduated nvriyof University e 2 1 .Jeong D. , 3 .Garbin B. , .Fatome J. , 3 rough 1 ..Lee J.H. , n M. and , 1 D. , 1,4 1,2 4 , , , ; ; 115 ertn ihMMnanocavity MIM with tegrating in- by dye uorescent of lifetime able tun- with photolumines- along enhancement cence of 260-folds strate demon- We applications. photonic emerging for importance damental aDamdIsiuefrAdvanced for Institute MacDiarmid yrdmdso obeMIMs. double on modes hybrid various of excitation thermal simulta- neous the observe single we and on MIMs, wavelengths dierent excited be at can mode spatial mental measured. is antennas nano- metal-insulator-metal double France Palaiseau, Paris-Saclay, Grand ∙ 9:45 Ratio Extinction-to-Absorption the using Nanoparticles Plasmonic of Function Dielectric and Size the of Determination Sensitive THU EH-4.6 France Paris, Langevin, Institut CNRS, PSL, Wilde Haidar Hamdan Hamdan Abou 9:30 L. nano-antennas plasmonic infrared sized sub-wavelength double and single of studies far-eld and Near-eld THU EH-4.5 .Djorovi A. ⋅ hra aito rmsnl or single from radiation thermal e hrdy2 ue2021 June 24 Thursday 1 1,3 ; ; 2 2 .Bouchon P. , 2 n ..L Ru Le E.C. and , OA NR,Université ONERA, DOTA, 1 .Krachmalnico V. , SC ai,Université Paris, ESPCI OM10 ROOM ć 1 ..Oldenburg S.J. , 1 2 .Abou L. , and , funda- e 1 ; ∙ .De Y. 1 1 2 R. , J. , e omdb ursec and uorescence analysis. is nanostructure by drawing bre conrmed during material powder glass into doping. using bres Pr:yttria) introduc- optical nanocrystals and laser-active (Ti:sapphire the of tion investigate We Poland Bialystok, Technology, Krakow,Poland Technology, and Science of Germany Herms- dorf, Systems, and Technologies Germany Dresden, Technologies4 Systems, Ceramic and of SpainInstitute Jena, Santander, Technology, Germany Photonic of Kochanowicz Kinski I. aig mgn,snigadmode concepts. propagation and sensing imaging, new lasing, demonstrate to bers these ing us- on research recent our waveg- and uides and heavy bers glass of oxide fabrication metal the in vances Australia Adelaide, (CNBP), BioPhotonics Nanoscale for Australia Sensing, Advanced and Photonics for ∙ glasses oxide metal heavy high-index using bers of 9:30 applications and fabrication for concepts Novel (Invited) THU CE-8.5 .Ebendor-Heidepriem H. ruhfrIsiueo Ceramic of Institute Fraunhofer nvriyo dlie Adelaide, Adelaide, of University e stl ilrve u eetad- recent our review will talk is ; ; ; 4 6 .Dorosz D. , R eteo Excellence of Centre ARC OM11 ROOM 2 ilso nvriyof University Bialystok nvriyo Cantabria, of University uvvlo crystalline of survival e 6 ; ; 1 5 ebi Institute Leibniz G University AGH ; 3 5 Fraunhofer n M. and , ; Institute ; ea bindings. metal molecule- for barriers energy duces re- polarization local shows light-induced spectra >800,000 Our of analysis scattering. Raman single- surface- enhanced for utilising probes scales molecule atomic conne to we Here light catalysis. derpin un- bonds transient Molecule-metal WC1E London, Kingdom United 6BT, London, University College Astronomy, and Physics 1DB, Kingdom SE1 United London, Street, Trinity London, 7 College King’s Chemistry, Kingdom 0HE, United CB3 Cambridge, Cambridge, of University Laboratory, Cavendish es aonttt Fakult Nanoinstitut, tems, Cortés Maier 9:45 Sousa-Castillo ∙ Nanostructures Metal on Reactions Light-Driven of Mapping Super-Resolution THU EG-5.5 heating. of result the cor- are likely reactions faster be the that to and rect unlikely extremely are photocatalysis plasmon-assisted of topic the on papers of famous some most in the claims the that show We Israel Sheva, Beer Negev, the Engineering, of University Computer Ben-Gurion and trical Israel Sheva, University, Beer Gurion Ben Sivan Chemistry, Y. 9:30 and Dubi Y. photocatalysis plasmon-assisted for mechanism THU EG-5.4 .Ezendam S. ra cs-a alternative an - eects ermal 1 1 ..Maier S.A. , ; 1 ..Baraban J.H. , 1 hi nHbi Nanosys- Hybrid in Chair OM12 ROOM 1 1,2 .Gargiulo J. , 2 ; .Nan L. , ; ; ; 1 3 2 2 eatetof Department eatetof Department of Department colo Elec- of School 1,3 1 , n E. and , ∙ ..Un I.W. 1 ä M. , 1 f t A. , ü 2 r ,
Thursday Orals Thursday Orals e fEclec,DlíB Dolní Republic Excellence, Czech of ter A91TU11:00 Yb:(Sc,Y) of OFZ-growth THU CA-9.1 Chair: Materials Laser CA-9: 12:30 – 11:00 simple in process. aordable fabricated and be can which region, infrared wave long emit- within ter selective near-unity and thin Korea ntttf Kr Institut C. and guschev, ∙ ra pcr n eaieyhigh conductivity. relatively thermal a and spectra broad of exhibit crystals single thick growth few-mm the method. zone on Yb:(Sc,Y) report We Germany Berlin, μ .Uaoa .Klsik .Gu- C. Kalusniak, S. Uvarova, A. lasers m satceitoue nultra- an introduces article is ü msMck iAECen- HiLASE Mocek, omas 2 Kristallz r O OM1 ROOM 3 yteotcloating optical the by pt mlong, cm 8 to up e ä ü nkel hug(IKZ), chtung ; 2 O Leibniz- ř 3 e ž o 1 for any, fAGNbsdde UV-LED deep AlGaN-based development in of advances Recent Germany Leibniz-Institut f gGmbH, Institut tt hsc,T eln Berlin, Berlin, TU Germany Physics, State .Weyers M. Winterwerber Netzel .Hagedorn S. ..Cho H.K. Sulmoni Mehnke F. Enslin ∙ technologies diode emitting light deep-UV towards Advances 11:00 (Keynote) THU CB-7.1 Arabia Saudi Djeddah, KAUST, Ooi, Boon Chair: Applications and Sources Wavelength Short CB-7: 12:30 – 11:00 Z many Austria5 Vienna, Vienna, GermanyUniversity Jena, Friedrich-Schiller- 4 Jena, University Physics, State GermanyGermany Friedrich-Schiller- Jena, 2 Jena, University Electronics, 1 Spielmann eaiu fteblwadabove orders. and gap below band the of behaviour wave- driving the of length. function ZnO a in as (HHG) generation har- monic high of dependence ellipticity the Jena, investigated experimentally We Jena, Germany University, Schiller USA Berkeley, Materials 8 Division, Sciences Laboratory, National Berkeley, USA California Berkeley, of University ü .Kneissl M. rt ae nttt,Bri,Ger- Berlin, Institute, Haber Fritz Technical Photonics, for Institute Jena, Jena, Institute Helmholtz Quantum and Optics of Institute beCne fPoois Friedrich Photonics, of Center Abbe ü H r rch ; 1,5,6,7 1 2 ö .Guttmann M. , .Rass J. , htrqezehi,Berlin, chstfrequenztechnik, 6 1 eateto Chemistry, of Department .Susilo N. , ; ; 2 eut eeladierent a reveal results e 1,2,8 .Glaab J. , .Ronning C. , OM2 ROOM 2 1 1,2 2 ; .Schilling M. , 3 2 .Lobo-Ploch N. , n .Kartashov D. and , ; nttt o Solid for Institute .Einfeldt S. , .Cardinali G. , 1 7 2 2 nttt fSolid of Institute arneBerkeley Lawrence Ferdinand-Braun- .Walde S. , 1 .Wernicke T. , 2 .Ruschel J. , 1 .Kuhn C. , 3,8 2 and , 1 C. , 2 2 L. , 1 U. , C. , J. , 1,8 2 1 1 CLEO , , , ; ; ; ; ; o design. tor modula- spatial and approaches sens- ing compressed my to relating by group explain recently will made advances I the Here rate video imaging. to THz close We very getting faster! are getting is imaging THz Kingdom United Coventry, China Hong Kong, Kong, Hong of university nese Pickwell-MacPherson Stantchev R. detector single-pixel a with 11:00 imaging terahertz Real-time (Invited) THU CC-5.1 Imaging THz CC-5: 12:30 – 11:00 edresolution. magnetic eld microtesla and temporal sub-millisecond promise spatial, sensors microscale the Such by its reectivity. controls a microcavity force Lorentz the magnetic on of Actu- based ation sensor metamaterial-microcavity. mag- eld optical netic an demonstrate We ® Erp-QC2021 /Europe-EQEC OM3 ROOM ; 1 2 .Li K. , awc University, Warwick 1,2 1 ; and , 1 Chi- e ∙ E. 116 aito et,ti okvalidates work this tests, radiation ir- in- gamma with Together been vestigated. have mission Earth-orbit Low- 5-year to ir- equivalent proton radiation to subjected PPKTP of Rb: properties nonlinear and Linear France Toulouse, Toulouse, France Palaiseau, 3 Stockholm,Paris-Saclay, KTH, Institute Sweden Technology, Royal of Physics, Applied Pasiskevicius V. Zukauskas ∙ D71TU11:00 2 at OPA high-energy for KTiOPO4 Rb: poled periodically of hardness radiation Proton THU CD-7.1 of M University Denz, Cornelia Chair: Sources Light Tunable CD-7: 12:30 – 11:00 h usto yaiso 1.3 a of dynamics pulsation the USA Albuquerque, New-Mexico, aaon o htnc integra- applications. tion photonics for paramount op- feedback. chip-scale tical strong under laser fClfri,SnaBarbara, Santa USA Barbara, Santa California, of Taiwan Hsinchu, sity, France μm ..Mølster K.M. NR/PY nvriéde Université ONERA/DPHY, ⋅ ü spprrprso td on study a on reports paper is se,M nster, hrdy2 ue2021 June 24 Thursday ibsdeiailqatmdot quantum epitaxial Si-based ; ; 2 2 ainlTigHaUniver- Hua Tsing National PY NR,Université ONERA, DPHY, 1 ü OM4 ROOM .Raybaut M. , se,Germany nster, 1 .Duzellier S. , 1 ; 1 s eut are results ese ; eatetof Department 4 ; nvriyof University 3 University μ 3 m and , 2 A. , ; nttt fteRsinAaeyof Academy Russian the of Institute United Aston Kingdom Birmingham, Technologies, Erlan- University, Photonic Light, of Germany of Science gen, the for and Russia Moscow, Moscow University, Photonics Technical State Bauman for IR-Technology, Center tion Lazarev Tarabrin .Vlasov D. F71TU11:00 ∙ MOPA All-bre Tm-doped by As in Generated Supercontinuum Octave-Spanning THU CF-7.1 Palaiseau, France Appliquée, Laboratoired’Optique Haessler, Stefan Chair: Broadening Spectral Nonlinear CF-7: 12:30 – 11:00 oeta 0Wo uptpwrin power output 3-5 of W 30 than more yields setup Our crystals. optical nonlin- ear ZnGeP2 with OPOs high- power in quality beam on eects mal ther- of inuence the investigate We Marseille, Germany Waldshut-Tiengen, University, France France Marseille Saint-Louis Saint-Louis, of (ISL), Institute Research .VoropaevV. 2 S μ 3 einwt M2>2. with region m Slc aeudsPumped Waveguides -Silica ; ; 1 1,4 ; ; 3 neeGais Untere 2 4 .Troles J. , a lnkInstitute Planck Max OM5 ROOM 1 .N eee Physical Lebedev N. P. 1 1 .Batov D. , cec n Educa- and Science .Xie S. , ; 3 so Institute Aston 2 .Donodin A. , ä 5 krt,10, ckerstr, n V. and , ; 1 M. , 2 Aix- 3 , H;- B n 16B/zat 10 -126dBc/Hz at and carrier 20GHz. dBm the -5 from GHz; kHz 10 at noise output phase dBm -135dBc/Hz and 15 power exhibits It GHz 20 signals. and 10 generates Institut oscillator optoelectronic CNRS, direct-modulation A France , Rennes, Rennes 6082, UMR FOTON Vallet Univ. M. and Alouini, M. Bouhier, 11:00 ∙ (DM-OEO) oscillator optoelectronic direct-modulation a from generation microwave noise phase Low THU CI-3.1 France Limoges, Limoges, de Univer-sité Tonello, Alessandro Chair: Photonics Microwave CI-3: 12:30 – 11:00 ria nua momentum. angular orbital zero with Hermite- beam two-petal rotating Gaussian a of irradiation the by azo-polymers spiral of relief of surface formation the present We Japan University, Chiba, Chiba Center, Research .Snun .Rmnli S. Romanelli, M. Sinquin, B. OM6 ROOM ; c ltomadso ih eect. light slow and platform photon- ics Si a on LiDAR based system FMCW sensor and optical scanner nonmechanical beam a to cation appli- an demonstrates presentation use. practical are to devices approaching crystal photonic Some Japan Yokohama, versity, ∙ — Applications LiDAR on Focusing — Sensing for Devices Crystal Photonic 11:00 (Tutorial) THU CK-5.1 ETH, Frimmer, Martin Switzerland Zurich, Chair: Manipulation Beam CK-5: 12:30 – 11:00 is reported. power also drive of function a as ation Vari- waves. propagating and backward ex- forward between 16dB ratio tinction a microcavity achieving cascaded modulator, compact a in transmission non-reciprocal tical .Baba T. ; ooaaNtoa Uni- National Yokohama OM7 ROOM is ore fetnldpoo pairs. photon entangled of ecient sources enables and microcavities optical electric with compatible is three approach 50 ne- via applied potentials epitaxial dot exciton an quantum of the splitting structure control We France Boulevard 10 CNRS, Paris-Saclay, Université (C2N), Nanotechnologies Senel- P. lart and Lanzillotti-Kimura, N.D. Lemaitre, A. Sagnes, I. 11:00 Harouri, ∙ potentials electric remote via dot quantum a of symmetry the Controlling THU EA-5.1 Austria Innsbruck, Innsbruck, of University Bykov, S. Dmitry Chair: Sources Light Quantum EA-5: 12:30 – 11:00 85%. around at eciency gate a keeping while resolution, time sub-picosecond provides technique demonstrated. illumination theoretically focused is under gates Kerr optical on based rates gigahertz at detection single-photon Ultrafast Italy .Emn,P ry,H liir A. Ollivier, H. Priya, P. Esmann, M. msGbr,910Palaiseau, 91120 Gobert, omas ; eted aocecse de et Nanosciences de Centre OM8 ROOM μ away. m is CLEO e clsraecode. surface topolog- ical the on correction and detec- tion qubit-loss of cycle full a ment imple- and control ion-qubit for box tool- experimental We an demonstrate fault- computers. and quantum tolerant large-scale obsta- towards fundamental cle a is loss Qubit Austria Innsbruck, ∙ loss qubit of correction 11:00 deterministic Experimental (Invited) THU EB-8.1 Austria Innsbruck, of University Ringbauer, Martin Chair: Correction Error and Computation Quantum EB-8: 12:30 – 11:00 Korea South Daejeon, (KAIST), Technology t10H ihu n feedback any without systems. –137dBc/Hz days 100kHz of at noise several phase a over with sustained are is illustrated. assisted stability long-term its Brillouin and soliton of mechanism self-stabilizing and generating Here Korea South jeon, Dae- (KRISS), Science and Standards Korea South Daejeon, (KAIST), Technology and Science of Institute Advanced Ko- rea Engineering, Aerospace and cal Korea Daejeon,South Science (KAIST), Technology of and Institute Advanced rea .Stricker R. ® ; ; Erp-QC2021 /Europe-EQEC 2 4 eateto hsc,Ko- Physics, of Department oe eerhIsiueof Institute Research Korea ; OM9 ROOM nvriyo Innsbruck, of University ; igesltnpulses single-soliton e 3 colo Mechani- of School 117 elntn elntn New USA Diego, Wellington, of Zealand University Physical Wellington, Victoria and Nanotechnology, Chemical Sciences, of and School Materials tnadadwdsra UV-Vis method. extinction widespread the and to standard compared absorption-to- ratio the extinction measuring characterization by size plasmonic routine nanoparticle improve of accuracy a signicantly the demonstrate to and method propose We France Paris, mretHl lta compatible plateau An Harper- Hall the emergent of model. state Hofstadter-Hubbard in ground prepared hard- the initially of bosons, ensemble small core a of dri Hall center-of-mass the analyze We USA Belgium Brussels, Cambridge, France 3 University, Grenoble, Greno- France, 38000 2 ble, LPMMC, CNRS, Repellin 11:00 C. proles density and dris center-of-mass from plateaus Hall photons: few of insulators Chern Fractional THU EC-5.1 Rome, CNR, Italy Pilozzi, Laura Chair: Topology in Trends Emerging EC-5: 12:15 – 11:00 Goldman nvriéLbed Bruxelles, de Libre Université Harvard Physics, of Department ⋅ hrdy2 ue2021 June 24 Thursday ; 3 ; OM10 ROOM 1 1 .Leonard J. , ; 2 aoopsx San nanoComposix, nv Grenoble-Alpes, Univ. 3 nvriéd Paris, de Université 2 and , ∙ N. ; ; hmt eeaerno numbers. random generate use to we them parameters, cavity same for the exist phase, opposite of solitons, dierent two As solitons. of cavity Kerr driving parametric time, rst the for demonstrate, experimentally We Kingdom United Southampton, Southampton, Belgium Bruxelles, Leo Sazio 11:00 P.-J. Parra-Rivas P. ∙ resonator optical in solitons Parametric THU EF-6.1 Kalashnikov, Vladimir Italy Rome, of University Sapienza Chair: I Solitons Dissipative EF-6: 12:30 – 11:00 .Englebert N. 1 ; 1 nvriélbed Bruxelles, de libre Université 2 OM11 ROOM .P Gorza S.-P. , 1 1 .D Lucia De F. , .MsArabí Mas C. , ; 2 nvriyof University 1 n F. and , 1,2 1 , , xedn h rvosyachieved previously the exceeding 10^(-11)/W, about of eciency sion conver- harmonic second resonant a with converter frequency material meta- silicon a yields grooves chevron amorphous with of Patterning Singapore Singapore, University, Technological TPI, Nanyang SPMS, Technologies, Photonic Kingdom United of Southampton, Southampton, University Metamaterials, tonic Pho- for Centre and Centre Research Zheludev N.I. ∙ Tip Fibre a on Metamaterial Silicon 11:00 by Generation Harmonic Second (Invited) THU CE-9.1 Royal Stockholm,Sweden – Technology, KTH of Institute Gallo, Katia Chair: Meta-materials and Nonlinear CE-9: 12:30 – 11:00 iiulnanoantennas. in- dividual on sites reaction the catalysis mapping by of for selection mechanisms the dierent allow light polariza- of how and tion investigate wavelength we the both work, this In College Kingdom Imperial United London, London, Physics, of Depart- Group, ment Physics State Solid Spain Vigo, Vigo, de Maximilians- Germany Ludwig Universit Physik, .Xu J. 1 .Plum E. , ä ; ; M t OM12 ROOM 2 2 IBO Universidade CINBIO, etefrDisruptive for Centre 1,2 ü 1 ce,M nchen, ; .Savinov V. , 1 ; Optoelectronics 3 Experimental ü nchen, 1 and ,
Thursday Orals Thursday Orals opc diode-side-pumped Normandie, Compact Caen CEA-CNRS-ENSICAEN, France Caen, de Université UMR (CIMAP), 6252 Photonique la et Matériaux les Ions, Institute, les sur Recherche Optical Russia Petersburg, Saint State Russia Vavilov Petersburg, Loiko Zapalova to of rate MHz. repetition at ~70 medium, a fs with 43 nm gain as 1036.5 short as a pulses Yb:GdYCOB generate as mixed crystal using sub-50-fs laser solid-state rst mode-locked the Kerr-lens on report We Germany Berlin, Spectroscopy, Pulse Short and Optics Chinese Matter, 2 China Fuzhou, Sciences, of of Academy Structure the 1 Dymshits Zavirukha Petrov Zhang A93TU11:30 Vitkin V. Power Peak kW 190 with Lasers Erbium Eye-Safe Compact Nanosecond THU CA-9.3 11:15 Zeng H. laser Yb:GdYCOB mode-locked Kerr-lens Sub-50-fs THU CA-9.2 a onIsiuefrNonlinear for Institute Born Max on Research of Institute Fujian 3 2 1 ; .Wang L. , .Lin Z. , 1 2 2 1 .Lin Z. , 1 .Zhilin A. , .Alekseeva I. , TOUiest,Saint University, ITMO 1 .Polishchuk A. , .Kurikova V. , OM1 ROOM 1 2 .Zhang G. , and , 1 .Lin H. , ; 2 ; and , ∙ 3 .Chen W. 2 etede Centre NITIOM 2 1 1 S. , O. , 1 1 D. , V. , L. , ∙ P. 1 ; ; mtesi h 6 mad20nm 230 bands. and wavelength nm 265 the the in UV emitters including of applications characteristics discussed performance be and will technologies OM2 ROOM CLEO ies.W mlyametallic pat- a perforated directly employ with We ring pixels). 1200 high x (1200 images resolution producing pixel region, terahertz high-frequency entire imaging the for single-pixel system a present We Japan Sendai, University, Tohoku Chiba, University, Japan Chiba Japan Center, Chiba, University, 2 Engineering, and Chiba Science of Miyamoto School K. 11:30 and ∙ analysis spectral 2D for imaging single-pixel terahertz High-resolution THU CC-5.2 .Vallés A. oeua hrlt Research Chirality Molecular ® ; Erp-QC2021 /Europe-EQEC 3 rdaeSho fScience, of School Graduate 1,2 OM3 ROOM .Ohno S. , 1,2 3 .Omatsu T. , ; 1 Graduate 1,2 , ; 118 Zadeh 11:30 Samanta ∙ oscillator parametric optical multi-structured-beam Tunable THU CD-7.3 ∙ mid-infrared the in ns-pulses 11:15 high-energy narrowband of generation for oscillator parametric optical backward-wave amplied Parametrically THU CD-7.2 egLusCmay 3 08010, 23, Companys Spain Pas- Barcelona, Lluis (ICREA), seig Avancats Spain Estudis Barcelona, 08860 , 4 Technology, Castelldefels and Science of toniques, India 3 Ahmedabad, Gandhinagar, Laboratory, India 2 Ahmedabad, Research Navarangpura, Physical enables scalability. energy with output generation wave pulse nanosecond signal transform-limited seeding precision-tuned the amplier with and oscillator pumping mode longitudinal using Single PPRKTP. amplier parametric power parametric backward-wave optical e a demonstrate We di Industriale Italy Pavia, Università Pavia, Ingegneria dell’Informazione, di Sweden Stockholm, KTH, Technology, of Institute Royal 1 Laurell Zukauskas A. for material platforms. this space-borne of suitability the .Sharma V. Mølster K.M. nttcoCtln eRcrai Recerca de Catalana Institucio Fo- Ciencies de Technology-ICFO-Institut of Institute Indian Physics, Applied of Department ⋅ hrdy2 ue2021 June 24 Thursday 3,4 1 n .Pasiskevicius V. and , ; 1 n .Ebrahim- M. and , 1 OM4 ROOM 1,2 htncSine Lab., Sciences Photonic acln Institute Barcelona e ..Kumar S.C. , 1 1 .Canalias C. , .NgiRubens Negri J. , ; 2 Dipartimento 3 G.K. , 1 F. , 2 1 , ; ; ; ; o mlr tece ussat ampli- compactly pulses were nm Stretched 855-865 amplier. semiconduc- tor frequency tapered a Ti:Sapphire using comb GHz of 1.6 amplication a demonstrate We Tokyo, JST, Japan PRESTO, and Tokyo, Japan Engineering, of Tokyo, Tokyo, of 2 Engineering, versity of School 1 11:30 ∙ Amplier Semiconductor Tapered a Using Comb Frequency Ti:Sapphire GHz 1.6 of Amplication Pulse Chirped THU CF-7.3 eciency. overall com- 92% with pressor cell multipass Herriott-type power peak dispersion-optimized single, GW rate a using >1 repetition power 27fs, to kHz peak down 400 MW at 150 pulses 310-fs, of compression pulse demonstrate We Germany Bochum, Bochum, Saraceno C. 11:15 and ∙ 400-kHz at Compressor Pulse Single-Stage Ecient from Pulses sub-30-fs Power, Peak GW THU CF-7.2 uainad20k ekpower. peak kW 200 and duration 1.9 at centred MOPA all-ber thulium-doped a by pumped waveguides nanospike dual As in generation continua super- spanning octave demonstrate Rennes, numerically and experimentally We 1, Rennes France Rennes, de de université chimiques sciences des Russia Moscow, Sciences, .Sakamoto T. Homann, M. Ahmed, S. Omar, A. htnSineCne,School Center, Science Photon Physics, Applied of Department OM5 ROOM 1 μ n .Yoshioka K. and ih7 spulse fs 78 with m ; nvriyof University e Ruhr-University ; 2 S 5 Uni- e Institut 3 -silica 1,2 ; ; ue ietmoa eeto and reection mapping. nonlinear temporal like fea- original tures with in domain, time spectrum the input optical to the experimentally map shown is con- Talbot dition, the in operated ampli- cation, and modulation phase compris- ing loop ber recirculating A France China Beijing, 3 Technology, Beijing, Space Technology, China of Institute Zhang H. Anandarajah Anandarajah Barry P.M. Lakshmijayasimha ∙ 11:30 signals UF-OFDM 64-QAM Modulated Directly using Transmission ARoF mmW GHz 60 Demultiplexer-enabled Active and Comb Frequency Optical THU CI-3.3 11:15 ∙ loop. frequency-shiing phase-modulated a using mapping Frequency-to-time THU CI-3.2 ulnCt nvriy Dublin, University, Ireland Engineering, City Electronic Dublin of School Lab., Communications Optical City and Ireland Dublin Dublin, Elec- University, of Engineering, School tronic Lab., Sensing and .Tjmu Ahmad Tajammul S. Yang H. nvRne,CR,Rennes, CNRS, Rennes, Univ 2 ; n .Kaszubowska- A. and , ; 2 inXee aoaoyof Laboratory Xuesen Qian 1,2 1 n .Zhao C. and , .Brunel M. , OM6 ROOM 3 ONC Research CONNECT 3,1 ; 1 htnc Systems Photonics 1 .Browning C. , 3 1,3 .Vallet M. , L.P. , 1 ; 1 ; P.D. , 1 2 Beijing Radio 3 2 , , ; OM7 ROOM lms. nanotube carbon ultra-thin in ation gener- pair photon towards progress present and tomography, stimulated emission by states biphoton band relaxes. broad- resulting mixing the characterize We four-wave of condi- tion phase-matching ma- the nonlinear terials, thin suciently In Austria Vi- enna, Vienna, of University Physics, of Austria Vienna, Vienna, of University Tech- Physics, of and Faculty nology, Science Quantum for ter de photon. idler up-shied the and photon signal Quantum the between preserved are pair. correlations photon biphoton idler a from the up-shi fre- eciently quency to used are PCF core hollow- single-ring in hydrogen-lled created waves coherence Raman Er- Germany Light, langen, of Science the for Institute Russell P. and Novoa, Joly, N. Hammer, J. Tyumenev, 11:30 R. Fibres Hollow-Core Gas-lled in Modulation Molecular by Conversion Single-Photon Quantum-Correlation-Preserving THU EA-5.3 Walther P. and 11:15 Trenti ∙ phase-matching without lms nanotube carbon ultra-thin in generation pair Photon THU EA-5.2 .Jenke P. 1 .Mustonen K. , 1 .Aos Calafell Alonso I. , OM8 ROOM 1 ; 1 C-inaCen- VCQ-Vienna 2 ; .Rozema L. , Max-Planck ; 2 Faculty 1 A. , ∙ D. 1 CLEO , il mlmnaino non- a of implementation fea- sible experimentally an propose We Republic 1192/12, Czech Olomouc, listopadu 77146 17. University, Hongo, 7-3-1 Japan 2 Tokyo, 113-8656, Tokyo Bunkyo-ku, of Engineering, versity of School 1 Yoshikawa J.-i. Hanamura .Fukui K. 11:30 ∙ feedforward nonlinear with qubits optical encoded Gottesman-Kitaev-Preskill on gate Non-Cliord THU EB-8.2 .Konno S. eateto pis Palacký Optics, of Department Physics, Applied of Department ® Erp-QC2021 /Europe-EQEC 1 1 .Sakaguchi A. , OM9 ROOM .Marek P. , 1 .Asavanant W. , 1 n .Furusawa A. and , 2 .Filip R. , Uni- e 1 F. , 2 1 1 , , ; ; 119 htnclattices. photonic insulator states topological in propagating edge two-photon con- entangled highly of vulnerability that the to the tribute mechanisms theoretically physical investigate We Germany Berlin, Berlin, of versity Germany Berlin, ut-alyadloe dispersion novel looped and with multi-valley bands to phases logical topo- known from structures, photonic band of characterize properties to topological used may mology ho- persistent of data technique topological analysis the how show We Crete, Greece of Chania, University Technical Engineer- ing, Computer and Electrical Singapore Singapore, of Singapore, University National 1 Perez-Leija C53TU11:30 ∙ Analysis Data Topological Using Structures Band Photonic Characterizing THU EC-5.3 11:15 Tschernig K. states edge two-photon of entanglement of degree versus protection Topological THU EC-5.2 is insulator identied. Chern fractional a with .Leykam D. etefrQatmTechnologies, Quantum for Centre ⋅ hrdy2 ue2021 June 24 Thursday OM10 ROOM 1 1 ; 1 n ..Angelakis D.G. and .Busch K. , 1 a-onInstitute, Max-Born ; 2 ubltUni- Humboldt ; 2 2 and , colof School ∙ 1,2 A. ; 3 H,a 8Gzline-spacing, GHz 28 spans at THz, comb 135 frequency coherent vanishing dispersion. group-velocity with zero- microresonators localised nitride the silicon in soliton, novel dispersion structure, a dissipative generate We Lausanne,Switzerland (EPFL), Technol- Lausanne in of ogy Institute Federal Swiss stability. and existence solitons’ the im- on dispersion third-order the of pact study experimentally We also driving. of near-zero-dispersion conditions Kerr under breathing solitons cavity by emission wave dispersive polychromatic obser- of vations experimental on report We New Zealand Auckland, Technologies, tum Quan- and Photonic Zealand for Centre Walls New , land 1 ahv .Lu n ..Kippen- T.J. and Liu, berg J. hachev, 11:30 ∙ formation wave dispersive octave-spanning with microresonators optical in solitons Kerr Zero-dispersion THU EF-6.3 Murdoch 11:15 ∙ Resonator Kerr Dispersion Near-Zero a in Radiation Dispersive Polychromatic and Solitons Cavity Breathing THU EF-6.2 ..Adro,W eg .Li- G. Weng, W. Anderson, M.H. Li Z. nvriyo ukad,Auck- , Auckland of University ; 1,2 nttt fPyis(IPHYS), Physics of Institute .Xu Y. , 1,2 OM11 ROOM n .Erkintalo M. and , 1,2 .Coen S. , ; 2 Dodd- e 1,2 S.G. , 1,2 e ; ujc osatrn n subsequent and are scattering to subject commonly media inho- mogeneous through passing waves Light Greece Heraklion, FORTH, Laser, Greece Heraklion, Crete, 4 of versity Vienna, Wien), Austria (TU Technology University of Vienna Physics, oretical Universit Germany Rostock, Szameit Physics, A. and Makris Weidemann E92TU11:30 ∙ non-Hermiticity tailored by induced scattering of Suppression THU CE-9.2 by magnitude. metamaterial of orders two silicon for value .Steinfurth A. nttt fEetoi tutr and Structure Electronic of Institute 3,4 ; 3 .Heinrich M. , hsc eatet Uni- Department, Physics OM12 ROOM 1 .Kremer M. , 1 .Kre I. , ; 1 2 ; nttt of Institute ä 1 Rostock, t 1 nttt of Institute .Rotter S. , š i ć 1 2 K. , S. , e- 2 , ;
Thursday Orals Thursday Orals aeil n eie,Xuzhou, Devices, China and Laser Advanced Materials of Laboratory Caen Key France de Caen, Normandie, Université Germany ENSICAEN, Berlin, Pulse 5 Short Spectroscopy, and Optics Mianyang,Nonlinear China Materials, Chemical eeae .8Wa ~2.0 at W laser 1.08 generates Tm:CLTGG A studied. diode-pumped are properties Czochralski laser and the spectroscopic by gar- structure, Its method. grown is disordered net (Tm:CLTGG) Ca3Ta1.5Ga3.5O12-type Tm3+,Li+-codoped Spain Tarragona, Physics, China and Fujian, Chemistry Materials Belarus Vitebsk, 8 University, ical (AMS), Spain Man- Unit Tarragona, Advanced Systems ufacturing Catalunya, de lp inyo 23.8%. of eciency slope Tarragona, (URV), Spain Virgili Mateos i Rovira X. and ..Solé R.M. Wang L. Kornienko Wang Loiko P. A94TU11:45 ∙ Crystal Garnet Disordered Ca3Ta1.5Ga3.5O12-Type Li+-Codoped Tm3+, of Operation Laser and Spectroscopy Growth, THU CA-9.4 and containing is glass-ceramics Co:Mg(Al,Ga)2O4 laser transpar- ent by Q-switched Er,Yb:glass passively eye-safe mi h udmna transverse fundamental mode. the 1535 in at nm (energy/duration) nanophases. pulses spinel Co:Ga2O3 .Alles A. e aoaoyo Optoelectronic of Laboratory Key IA,UR65 CEA-CNRS- 6252 UMR CIMAP, ae eeae .9m/. ns mJ/7.2 1.39 generates laser e ; 4 ; ; .Zhao Y. , 2 5 4 1,2 uea,Cnr Tecnològic Centre Eurecat, .Tang K. , 7 4 .Griebner U. , ies tt Technolog- State Vitebsk a onIsiuefor Institute Born Max 1 7 .Pan Z. , .Aguiló M. , .Camy P. , OM1 ROOM ; 9 er útrFellow, Húnter Serra 4,6 3 1,9 3,4 .Yingming S. , .Dunina E. , ; ; ..Serres J.M. , 5 .Chen W. , 3 4 1 nttt of Institute .Petrov V. , 1 .Díaz F. , Universitat μ ; iha with m 6 Jiangsu 7 3 A. , Y. , 4,8 1,2 γ 1 4 - , , , , ; ; n oreimages. source reconstructed and between good opti- agreement very showing into trains, spike rate-coded cal colour of are channels images Pixels RGB the from neuron. photonic spiking VCSEL-based a with encoding data image high-speed demonstrate We Kingdom United Glasgow, Strathclyde, of University Physics, of Department SUPA Photonics, Hurtado of tute A. and Alanis, 11:45 J.A. ∙ data image digital of representation spike-rate for VCSEL-neuron Photonic THU CB-7.2 .Hja .Rbrsn .Bueno, J. Robertson, J. Hejda, M. OM2 ROOM ; Insti- CLEO fteTzpleb cigo the on acting by degrees-of-freedom. spatial pulse THz the properties of spatial and temporal the controlling allows methodology me- ing shap- wavefront random nonlinear Our in dia. waves broad- THz of band spa- refocusing investigate tiotemporal M. theoretically We and Kingdom United Sussex, Brighton, Gongora, Peccianti Totero J.S. 11:45 ∙ focusing spatiotemporal for media random in waves terahertz of control nonlinear Time-resolved, THU CC-5.3 en n upxldigitization subpixel a technique. and terns .Ccoi .Kmr .Pasquazi, A. Kumar, V. Cecconi, V. ® Erp-QC2021 /Europe-EQEC ; OM3 ROOM nvriyo Sussex, of University 120 aisi studied. is namics dy- domain and ion-exchange tween exchange. ion via grating coercive-eld a 430 by forming crystals to RKTP 1mm-thick down in nm periods with periodic poling reliable demonstrate We Sweden Stockholm, den, Swe- Stockholm, Technology, of tute Canalias C. and vicius, ∙ 11:45 engineering eld coercive via KTiOPO4 Rb-doped Poled Periodically sub- in dynamics Domain THU CD-7.4 60nm. 1680 1457- across tunable beams Airy tex vor- and Airy, vortex, Gaussian, gener- ates source the oscillator, metric para- optical picosecond a structures. on Based spatial various of beam tunable source producing light coherent simultaneously a report We .Mte,A uasa .Pasiske- V. , Zukauskas A. Mutter, P. ⋅ hrdy2 ue2021 June 24 Thursday OM4 ROOM nepa be- interplay e ; oa Insti- Royal μ m pcrm n nrysaiiyis energy-stability reported. and timing-, spectrum- Excellent pulse-contrast to improvement. signicant to Nonlinear-ellipse-rotation Yb-ampliers leads 900-fs from 60-fs. of pulses compression enables the presented. broadening at spectral is Multi-pass-cell laser facility burst-mode FLASH-FEL new A Germany Germany Universit Darmstadt, 5 f GmbH, trum Germany Germany Jena, many Hamburg, 2 DESY, 1 Manschwetus Wind .Vidoli C. Tavakol Schulz S. Puncken Li Heyl Wortmann Darvill Akcaalan 11:45 ∙ facility FEL FLASH the at experiments pump-probe for laser burst-mode 60 Compact THU CF-7.4 obnn hre rg grating. Bragg chirped by a compressed combining and mW 215 to ed .Seidel M. ntttf Institut Ger- Hannover, GmbH, neoLASE Elektronen-Synchrotron Deutsches 1 .Mohr C. , 1,3,4 1,5 ; 1 1 .Winkelmann L. , .Frede M. , .Kutnyakhov D. , 2 ü .T H. , 3 ä 1 .Redlin H. , emot-nttt Jena, Helmholtz-Institute Schwerionenforschung r abr,Hamburg, Hamburg, t .Binhammer T. , 1 1 1 ü OM5 ROOM .Wenthaus L. , .Swiderski A. , .Heber M. , 1 Experimentalphysik, r .Pressaco F. , 1 μ n .Hartl I. and , ,6 s MHz-rate fs, 60 J, ; 1 4 .M J. , S Helmholtzzen- GSI 1 2 .Schirmel N. , .Grosse- U. , ü nnermann ü ller 1 C.M. , 1 1 1 1 1 1 2 C. , H. , O. , B. , N. , O. , J. , 1 1 1 , , ; ; ; inoe 0 S wireless-link. FSO m 500 transmis- a over 5G sion the validate then laser and ber dual-wavelength GHz a 110 mmW using to GHz tunable 12.5 from ranging the the demonstrate of we generation work, this In University, Kingdom United Birmingham, Aston Technologies, 11:45 ics Sergeyev ∙ Laser Fiber Dual-Wavelength Tunable using 5G of Transmission THU CI-3.4 iso f6 H 4QMUF- achieved. is 64-QAM signal GHz RoF OFDM 60 of trans- ber mission km 40 for HD-FEC 3.8e-3 of the limit below BER A demon- strated. experimentally is transmission scheme A-RoF mmW based Dublin, comb demultiplexer-enabled Active College Ireland Dublin, Trinity Center, .Kah,S ihl n S. and Vishal, S. Kbashi, H. ; AtnIsiueo Photon- of Institute 1Aston OM6 ROOM OM7 ROOM u htnccircuits. photonic quan- tum integrated for novel way developing the paves which detectors, superconducting with integrable is 4.7 K. to down waveguides nonlinear in (SPDC) down-conversion metric University, para- spontaneous demonstrate We Paderborn Germany Paderborn, Optics, Paderborn, Germany University, Paderborn 1 Silberhorn C. Ricken A54TU11:45 ∙ Waveguides Niobate Lithium In-Diused Titanium in Down-Conversion Parametric Cryogenic THU EA-5.4 ..Lange N.A. eocpcQatmOptics, Quantum Mesoscopic s u oksosta SPDC that shows work our us, 2 .Quiring V. , ; OM8 ROOM 2 1 2 nertdQuantum Integrated ..H J.P. , n ..Bartley T.J. and , 2 .Eigner C. , ö pker 1 R. , 2 1 CLEO , ; etlregime. experi- mental this in sensitivity improved to leading ensemble, large a we for ment control, improve- delity optimal pulse demonstrate With sensi- high tivity. with signals biophysical magnetic measure can diamond in centers (NV) Nitrogen-Vacancy Denmark, Denmark Lyngby, Kgs. of University Technical Denmark Lyngby, 2 of Kgs. University Denmark, Technical Physics, of Department (bigQ), States Quantum Andersen Sørensen ..Webb J.L. 11:45 ∙ Magnetometry Pulsed for Diamond in Centers Nitrogen-Vacancy of Ensemble Large a of Control Optimal THU EB-8.3 eslqatmcomputation. quantum uni- versal optical fault-tolerant a in feedfor- ward nonlinear of shows versatility result the Our feedforward. Gottesman- ear nonlin- the using qubits on Kitaev-Preskill gate Cliord ..Clement J.D. eateto elhTechnology, Health of Department ® Erp-QC2021 /Europe-EQEC 2 1 1 .Huck A. , ; ..Jensen R.H. , OM9 ROOM 1 etrfrMacroscopic for Center 1 ...Poulsen A.F.L. , 1 n U.L. and , 1 .Berg- K. , 1 , ; 121 light. of super- speed the at of propagating skyrmion-like topology family with pulses a toroidal on report We Singapore Singapore, Kingdom United 2 Southampton, 1 Papasimakis ealdb ihrodrdispersive higher-order by enabled relations. C54TU11:45 ∙ Pulses Light Skyrmionic Supertoroidal THU EC-5.4 .Shen Y. nvriyo Southampton, University, Technological Nanyang of University ⋅ hrdy2 ue2021 June 24 Thursday 1 .Hou Y. , OM10 ROOM 1 n .Zheludev N. and , 1 .Zdagkas A. , 1 N. , 1,2 ; ; ftegi auaino oio dy- namics soliton on saturation gain the of impact the study we analysis, bifur- cation of means By intra- amplier. Kerr cavity an driven incorporating coherently resonator a soli- in of formation tions the analyze We Brus- Belgium sels, Bruxelles, de libre Leo Université F. and Gorza, S.P. 11:45 Parra-Rivas, ∙ Cavity Ring Fiber Active Driven Coherently a in Solitons Dissipative THU EF-6.4 aeformation. wave .MsAai .Egeet P. Englebert, N. Arabi, Mas C. OM11 ROOM ; esul eciigsvrlinde- datasets. experimental several pendent describing suc- heuristic model cessfully simple, a in a set rule/parameter to reduced is complex- length/timescales disparate Multiphysical tran- over ity phase light-induced sitions. of ics photon- studying automata for cellular methodology a introduce We Singapore Singapore, University, Technological China Anqing, Southampton, verstiy, Kingdom United Southampton, Zheludev of N.I. 11:45 and Zhang L. Automaton Cellular a as Nonlinearity Optical Phase-change THU CE-9.3 rse o ttoaya ela for distributions. as eld time-dependent well sup- as is stationary for scattering pressed which in media non-Hermitian tailored plemented im- optically have We interference. 1,2 OM12 ROOM , ∙ ..MacDonald K.F. ; 1,3 2 nigUni- Anqing ; ; 1 University 3 Nanyang 1 ,
Thursday Orals Thursday Orals nttt fApidPyisof Sciences, Russia of Physics Novgorod, Nizhny Academy Applied Russian the of Institute Chkhalo Palashov - t30K respectively. K, 300 at K-1 6 6.95 and 7.95,7.18, 7.52, estimated 7.26, to were Lu2O3 and Y2O3, Sc2O3, Lu3Al5O12, Y3Al5O12, for by which of crystals calculation, principles host rst laser for ecients co- expansion thermal evaluated We Japan Okazaki, ence, Japan Sayo-gun, RIKEN, Center, SPring-8 700W; power 2kW. of over operating be to power estimated maximum laser the at isolation ratio 34dB the provided structures by method. produced SADB were Faraday isolators gar- for elements gallium net/sapphire terbium Composite Sciences, of Russia of Novgorod, Nizhny Academy Microstructures Russian of the Physics for 12:00 ∙ Elements Magnetooptical Composite with Isolator Faraday THU CA-9.5 A96TU12:15 ∙ Calculation Principles First by Evaluated Crystals Laser Bixbyite and Garnet THU CA-9.6 .Starobor A. .Sato Y. ra xaso oin of Coecient Expansion ermal ; 2 1,2 2 nttt o oeua Sci- Molecular for Institute 1 ; .Pestov A. , 1 n .Taira T. and OM1 ROOM eea eerhCenter Research Federal 1 .Kuznetsov I. , 2 1,2 resulting e n N. and , ; ; 2 Institute 1 RIKEN 1 O. , × 10- ntttPsa,Clermont-Ferrand,France Pascal, Institut Clermont, SIGMA CNRS, Auvergne, Montpellier, de France CNRS, Université Montpellier, (L2C), Coulomb Bouchoule Zuniga-Perez nosre uptpwro above mW. 480 of SiC-MECSEL power output observed an nm 680 with temperature room at operating present rst We the in mode. spreaders transmission heat transparent between gain two sandwiched laser-active membranes are MECSELS land Fin- Tampere, Sciences, University, Tampere Natural and of Faculty Engineering Photonics, / Unit Physics (ORC), Centre Research toelectronics Guina M. S. and Kahle, Rajala, H. P. Ranta, Tukiainen, A. Rogers, ∙ (MECSELs) 12:15 lasers surface-emitting external-cavity membrane red-emitting AlGaInP-based, and SiC-cooled of operation temperature Room THU toCB-7.4 up operated ridge 200K. GaN lasers of lasers. polariton case the interband discuss We in ridge as condi- standard inversion) governed (population Bernard-Durrafourg tion not is waveguide by laser ridge a polariton how show We France Palaiseau, Paris-Saclay, Université CNRS, Nanotechnologies, France4 Valbonne, Gregory, Bernard Rennesson Solnyshkov S. Leymarie D. J. Reveret Doyennette L. 12:00 Gromovyi ∙ laser ridge standard a from dierent is laser polariton ridge a How THU CB-7.3 .TtrMte,H-.Pug A. Phung, H.-M. Tatar-Mathes, P. Guillet T. eted aocecse de et Nanosciences de Centre ; ; 2 3 .Disseix P. , C,CHACR,Rue CRHEA-CNRS, UCA, 4 4 .Gueye T. , ; OM2 ROOM 1 2 .Souissi H. , 3 nvriéClermont Université 2 .Cambril E. , 1 3 .Malpuech G. , 1 aoaor Charles Laboratoire .Semond F. , .Kreyder G. , 2 .Alloing B. , 2 1 .Medard F. , .Brimont C. , 4 n S. and , 1 M. , 3 2 ; J. , F. , Op- 3 2 2 1 CLEO , , , , ; h eutn hs ouainto modulation simulations. phase resulting compare the to surface hologram backpropagated onto are patterns eld computationally Measured 220-330 GHz. at applications of beamforming imaging in capable hologram dielec- frequency-diverse phase dispersive, a tric present We University, Finland Espoo, Aalto Millilab, Nanoengi- and neering, Electronics of Taylorment Z. and Laurinaho, C55TU12:15 ∙ applications imaging submillimeter-wave and millimeter frequency-diverse for hologram phase Dielectric THU CC-5.5 12:00 Wenclawiak M. ∙ Learning Machine Optical Terahertz THU CC-5.4 ytmi cuaeadnieresis- noise tant. and accurate is system the that pre- show We the optically. as dictions well as training perform the we both where ter- domain, the ahertz in learning machine of tion implementa- optical an present We Austria Vienna, Wien, TU Electronics, State Austria Vi- enna, Wien, TU Nanostructures, and Austria enna, 1 Darmo Andrews A.M. .V P S.-V. Limbacher B. htnc nttt,T in Vi- Wien, TU Institute, Photonics ® Erp-QC2021 /Europe-EQEC 1,2 ä l,A amnn .Ala- J. Tamminen, A. lli, n .Unterrainer K. and , OM3 ROOM ; ; 1,2 2,3 3 1,2 2 .Sch S. , nttt o Solid- for Institute .Strasser G. , etrfrMicro- for Center ..Kainz M.A. , ö nhuber ; Depart- 2,3 J. , 1,2 1,2 1,2 , , ; 122 ∙ 12:00 Fiber Optical Microstructured D2O-Filled in Instability Modulation Polarization Tunable Widely THU CD-7.5 hrceiaino olna bers. nonlinear high-speed of characterization for analyzed imentally exper- and calculated is ber photonic crystal chalcogenide a in four-wave mixing of dier- eciency the of conversion on eect schemes depolarization the ent work, this In Switzerland Lausanne, Lausanne, Brès ∙ 12:15 bers crystal photonic chalcogenide in mixing four-wave depolarized of analysis and Design THU CD-7.6 pump. nm attained 1064 with experimentally was cm-1 2782 to cm-1 fre- 1084 from PMI shi quency the of Tuning reported. ber is optical D2O- microstructured in lled (PMI) instability mod- polarization ulation of tuning Wide de Universidad Spain Burjassot, Valencia, ICMUV, - Óptica Spain Burjassot, Valencia, de Universidad ICMUV, - Electromagnetismo y Aplicada Física Valencia, Spain Burjassot, de Universidad ICMUV, 1 Silvestre E. .Loredo-Trejo A. .Aa,S hrtnv n C.-S. and Kharitonov, S. Ayan, A. aoaoyo ie pis- Optics Fiber of Laboratory ⋅ hrdy2 ue2021 June 24 Thursday ; cl oyehiu ééaede Fédérale Polytechnique École 1,3 OM4 ROOM n .Andrés M. and , ; ; 3 2 1,2 eatmnode Departamento de Departamento .Díez A. , 1,2 1,2 , ; nuht hp igeccepulses. single-cycle shape to enough (450 spanning 2500nm to bandwidth 540nm from over spectral shaping a phase addressed spectral uous contin- enables device thermo-optically crystal liquid A France Antibes, abne France Nice, Valbonne, de Physique de Institut CNRS, toeodlight-spring. attosecond polarized azimuthally an as emitted beams. vector and vortex in- of polarization and homogeneous phase which helical the vector-vortex— combines —a EUV structured beam novel a introduce experimentally and theoretically We Golden, USA 80401, Mines, Colorado of School Colorado France Orsay, 91400, Orsay Gaulle, de Charles rue F-91898, France Cedex, 200, Ampère, Rue Bâtiment CNRS, UMR Saclay, Paris- Université Joliot-Curie, Irène Spain Salamanca, Aplicada, E-37008, Salamanca, de Universidad Física Fotónica, de y Departamento Láser del Aplicaciones García Guilbaud Durfee DovillaireC.G. 12:15 G. Román San ∙ beams Vector-Vortex Ultraviolet Extreme- Coherent of Generation THU CF-7.6 Jullien Cheriaux Pietro 12:00 Ramousse Di V. sources light multi-octave for phase-shaper based liquid-crystal A THU CF-7.5 .d a Heras las de A. ouaindnmci large is dynamic modulation e 1 ; 1 ; ; 1 1 1 4 1,2 rp eIvsiainen Investigación de Grupo 1 .Forget N. , n .Hernández- C. and , eateto Physics, of Department nvriéCt d’Azur, Côte Université 1 OM5 ROOM .Claudet C. , .Plaja L. , 4 .Kazamias S. , ; 3 1,2 3 .Pittman M. , 1 mgn pi,18, Optic, Imagine ..Pandey A.K. , .Bux S. , ; ; 1 s em are beams ese .Baynard E. , 2 2 2 and , Laboratoire FASTLITE, 1 2 G. , 2 L. , O. , 2 ∙ J. , z). A. 2 2 , , neto loss. insertion and noise phase lower combination with structure optical component the achieve key to a re- as (MCR) mode-coupling ceiver a propose We France Lannion, Chanclou P. and mon, 12:15 ∙ Receiver Mode-Coupling Using Systems Summation Photonic Microwave in Decorrelation Phase Optical Robust Highly THU CI-3.6 limit. diraction the to up mesa size UTC-PD the decreasing with increases re- gain conversion experimentally the vealed We convergentnetworks. optical-wireless the future for so-called down-converter frequency carrier- an the optical-to-millimeter-wave as HEMT developed UTC-PD-integrated We Japan Sendai, University, Tohoku Communication, Electrical Japan Sendai, University, Tohoku Systems, Electronic Integrated Innovative for Japan Sendai, University, Tohoku Communication, Electrical Satou Iwatsuki K. Nakajima D. Nishimura K. Size 12:00 Mesa UTC-PD on Gain Conversion of Dependence HEMT: UTC-PD-Integrated by Down-Conversion Frequency Carrier Optical-to-Wireless THU CI-3.5 .Hla la,F aiu .Si- G. Saliou, F. Elwan, Hallak H. 1,3 ; ; 3 eerhOgnzto of Organization Research OM6 ROOM 3 1 .Otsuji T. , eerhIsiueof Institute Research 1,3 1,3 .Suemitsu T. , .Hosotani T. , ; rneLabs, Orange 1,3 ; and , 2 Center ∙ 1,3 2,3 A. , , G Spain (Barcelona), Castelldefels Technology, and Science MIP) G Chemistry (MPIBPC), Biophysical for Institute G toniques, 1 a region. rst opti- cal at the laser tunable demonstrate phase-change we metasurface design, all-dielectric and fabrica- tion nanoimprint scalable lms perovskite with transi- hybrid the phase of tions structural temperature- induced and gain optical high Drive, index, high-refractive combining By Nanyang Technological Singapore Singapore, , Singapore 50 Nanyang University, Techno Plaza, Research (ERI@N), NTU @ Sin- gapore Singapore, , Singapore Science Innovis, (A*STAR), for Research and Technology Agency Engineering, Link, Singapore Nanyang Singapore, 2 21 Singapore, University, Technological Nanyang SPMS, TPI, Technologies, Photonic Disruptive for Kuznetsov 12:15 Domínguez Deng Lakshmi ∙ Laser Tunable Phase-Change THU CK-5.3 the signal. of cathodoluminescence suppression strong a electron to modulated leads PINEM a that nd pre- We a electron. modulated and viously laser dimmed a of action inter- synchronized the by produced emission far-eld the investigate We Spain Avan Estudis i cerca 4 12:00 Ropers ∙ Light External with Interference by Emission scence Cathodolumine- of Modulation THU CK-5.2 .Tian J. Giulio Di V. COIsiu eCece Fo- Ciencies de ICFO-Institut nttt fMtrasRsac and Research Materials of Institute Re- de Catalana ICREA-Institució ö ö tne,I.Pyia Institute, Physical IV. ttingen, tne,Germany ttingen, 2 ...Ang N.S.S. , ; 2,3 2 3 n ...d Abajo de F.J.G. and , .Wu M. , 1 nryRsac Institute Research Energy 2 .Adamo G. , n .Soci C. and , 2 OM7 ROOM .Liu H. , acln nttt of Institute Barcelona e ö 1 tne,Germany ttingen, .Kr O. , 2 ; 2 .Klein M. , ç .Paniagua- R. , ; t,Barcelona, ats, 2 nvriyof University 3 a Planck Max 1,3 2 1 ; A.I. , B.K. , 2,3 1 Centre 1,3 C. , 1,4 J. , ; ; ; n rcs ncl Rubidium-87 cold atoms. in process ing mix- four-wave a through generated photons single nm 795 narrowband heralded on performed phase modulator, and cavity asymmetric an on based scheme compression a spectral demonstrate experimentally We Singapore, Singapore of Singapore, University National lcr-pi ouao o length control. for modulator electro-optic an re- incorporating towards work and cent resonators from waveguide a results our Here, squeezing in present applications. we states of range squeezed wide of use- the fulness proven have Experiments Germany Paderborn, Sys- University, Photonic Paderborn (PhoQS), tems for Institute Group, Singapore, Singapore Singapore, National of University Technologies, Kurtsiefer Quantum C. and n,H eran n .Silber- C. and horn Herrmann, H. 12:15 Quir- ing, V. Ricken, R. Eigner, C. Bruch, ∙ sources light squeezed as resonators Waveguide THU EA-5.6 12:00 Seidler M.A. cavity resonant a with photons single narrowband of compression Spectral THU EA-5.5 .Sesk,M atnra .vom F. Santandrea, M. Stefszky, M. ; nertdQatmOptics Quantum Integrated ; 2 OM8 ROOM eateto Physics, of Department 1 , ∙ ..Yeo X.J. 1,2 ; 1 2 etefor Centre .Cerè A. , 1 CLEO , hrceitcrs fo-diagonal terms. of rise characteristic observe a we point, Beyond PT-breaking the quantum preserved. is phase, interference unbroken the In couplers. waveguide quasi- PT-symmetric in correlations on breaking two-photon PT-symmetry of inu- ence the study experimentally We Germany Rostock, Rostock, of 12:00 meit ∙ Correlations Quantum in Breaking PT-Symmetry of Observation THU EB-8.4 1 Heinrich 12:15 Maczewsky ∙ pairs photon of walks quantum 3D using graphs complex Exploring THU EB-8.5 Universit Austria bruck, 2 f oi aeud iciswt tai- with birefringence. lored circuits waveguide pho- tonic in photons single of for the freedom degrees of polarization action and hybrid spatial the from aris- ing graphs complex on walks tum quan- three-dimensional study We Albert-Ludwigs-Universit Germany Comput- Freiburg, Freiburg, Quantum Germany ing, and Science Freiburg, 4 Institut, ü .Kac,M enih n .Sza- A. and Heinrich, M. Klauck, F. .Ehrhardt M. Universit Universit UO etefrQuantum for Centre EUCOR hsk otc,Germany Rostock, Physik, r ® ; nttt fPyis University Physics, of Institute Erp-QC2021 /Europe-EQEC 1 ä n .Szameit A. and , ä ä riug Physikalisches Freiburg, t 1 otc,Institut Rostock, t nsrc,Inns- Innsbruck, t OM9 ROOM .Dittel C. , 1 ; .Keil R. , 3 Albert-Ludwigs- 3,4 2 M. , L. , ä 1 t ; ; ; 123 rpgto eairi dspace. singularity 3d in behavior shaping propagation enable nally self- namely, elds. vectorial and imaging analogon, non-diracting discrete vectorial introduce 3d its to elds scalar light established structured modu- with polarization lation combine We Germany Muenster, Physics, Applied of stitute C55TU12:00 ∙ dimensions three in light of networks singularity structured Topologically THU EC-5.5 .Dop .Ot,adC Denz C. and Otte, E. Droop, R. ⋅ hrdy2 ue2021 June 24 Thursday OM10 ROOM rb we ereby ; In- ln rates. pling cou- optomechanical pre- control to cisely route promising a shows ics optomechan- cavity and Kerr-eect onators. res- microtoroid silica in optomechanical sidebands suppress en- or actively to hance utilized be can tings split- resonance induced Kerr-eect Germany Erlangen, Erlangen-Nuremberg, sity dom King- United Middlesex, (NPL), tory King- dom United Er- London, Light, London, lege of Germany Science langen, the for tute Del’Haye P. Zhang F66TU12:15 ∙ Microresonators in Optomechanics of Enhancement Kerr THU EF-6.6 ( ings detun- dissimilar pho- with dimers of tonic dynamics self-pulsing and the diagram bifurcation the study experimentally and theoretically We Belgium 12:00 Leo, Bruxelles, F. Gorza S.-P. Mas-Arabí, and C. Englebert, ∙ Dimers Photonic in Self-Pulsing THU EF-6.5 ihtedie isptv Bose- dissipative model. dimer Hubbard driven the agree with measurements Our onators. ..Ghalanos G.N. N. Parra-Rivas, P. Yelo-Sarrión, J. ; ; Δ 4 1 3 1 rerc lxne Univer- Alexander Friedrich .DlBino Del L. , ainlPyia Labora- Physical National Δ , OM11 ROOM 2 1,4 ,md fe igres- ring ber of made ), ; nepa between interplay e ; 1,2 1 a lnkInsti- Planck Max OPERA-Photonics, ; ..Silver J.M. , 1 2 .Bi T. , meilCol- Imperial 1,4 and , 3 S. , enr itr material. mixture ternary the of susceptibility third nonlinear the order derive to us enables which Hf material dielectric mixture amorphous ternary third the of the layers of gradient from study generation harmonic a present We Germany Hannover, 30419 Germany Germany Hamburg, 4 22607 DESY, Hannover, Disciplines), 3 Across 30167 Innovation Engineering- and Optics, (Photonics, Germany Han- Hannover, 2 30167 Universitat nover, Leibniz Optics, Morgner Jensen L. Tajalli ∙ E95TU12:15 Hf From Generation of Study THU CE-9.5 calculations. with compared and analyzed are feedback the characteris- of tics emission spectral and inves- experimentally. is tigated conversion frequency nonlin- ear for quasi crystals of matched phase structure pe- poling the riodical at arising feedback Optical Germany Berlin, frequenztechnik, f Leibniz-Institut gGmbH, Paschke 12:00 ∙ conversion frequency nonlinear for crystals poled periodically from feedback optical of investigation Experimental THU CE-9.4 .Zuber D. .Wre,S H S. Werner, N. ae etu anvre.V., Hannover Zentrum Laser Elektronen-Synchrotron Deutsches PhoenixD Excellence of Cluster x Al 3 y .Steinecke M. , O ; 1,2,4 2,4 z OM12 ROOM Ferdinand-Braun-Institut Layers 1,2 .Ristau D. , r Harmonic ird ; .Kleinert S. , 1 nttt fQuantum of Institute ä sr n K. and user, nGradient in 4 .Jupé M. , 1,2,4 ü H r n U. and , spatial e x 1,2 Al ö A. , chst- y O 2,4 z , , ; ; ;
Thursday Orals Thursday Orals est,Inbuk Austria Innsbruck, versity, Uni- Medical Physics, Biomedical of Division Jesacher, Alexander Chair: Imaging Tissue Deep in Advances JS: ECBO + CL 15:45 – 14:30 o ouercadcrncimaging. chronic and volumetric for systems such of capability how en- the hance further demonstrate can we shaping wavefront Here, imag- ing. deep-brain endo- for invasive can microscopes minimally bre as optical serve shap- multimode wavefront ing, with Combined USA York, New Medicine, ∙ Fibre Optical Multimode Using Endo-microscopy 14:30 Brain (Invited) Deep THU JS.1 ECBO + CL .Turcotte R. OM1 ROOM ; Y colof School NYU nvriéd olue Toulouse, France Toulouse, de Université n eosrcstecompressed near-instantaneously. the datacube reconstructs assumption, and separability spectral a masks. programmable with acquisitions number of small a utilizing image, hyperspec- tral a of reconstruction fast the experimentally demonstrate We France Toulouse, Toulouse, Monmayrant Lacroix H92TU14:45 ∙ HyperspectralImager. Disperser Dual a with Reconstruction Image Frugal Fast, THU CH-9.2 of lms oligomers. polygo- at crystal liquid in cholesteric the formed of texture those nal scarab a with of beetle microcells the of prop- erties spectral and structural tex- tural, the compares study to- pographic a microscopy, hyperspectral By France Toulouse, Toulouse, de France Val-bonne, CNRS, d’Azur, Cote Université 1 Scarangella A. 14:30 ∙ biomimicry of context the in cuticle insect an of patterns cholesteric twisted, the of topography Hyperspectral THU CH-9.1 Mar- CNRS, France seille, Fresnel, Institute of the Director Brasselet, Sophie Chair: Imaging Hyperspectral CH-9: 16:00 – 14:30 .Hemsley E. Jullien A. ntttd hsqed Nice, de Physique de Institut ; 1 .Carfantan H. , 2 OM2 ROOM 1 RP nvriéde Université IRAP, loih eison relies algorithm e 1 .Neradovskyi M. , ; 1 ; 2 .Ardi I. , 2 n .Mitov M. and , EE,Université CEMES, 1 LAAS-CNRS, 2 n A. and , 1,2 S. , 1 2 CLEO , ; yl,lweeg lrsotpulses. ultrashort the low-energy cycle, enabling few- broadband, of presented, characterization is gener- ation third-harmonic surface on based technique dispersion-scan A Portugal Porto, Porto, of sity Univer- Sciences, of Faculty tronomy, spo ∙ 14:45 dispersion-scan generation third-harmonic surface using pulses few-cycle low-energy broadband, of characterization Temporal THU CF-8.2 of parameters. range broad a at robustness its ied stud- have We presented. pulse is delayed replicas, two of ampli- variation the tude on based pulse measurement ultrafast for concept versatile Spain manca, 14:30 Sola ∙ swing amplitude of means by characterization pulse laser Ultrashort THU CF-8.1 Germany Berlin, Institute, G Chair: Characterization Pulse Ultrashort CF-8: 16:00 – 14:30 .Gms .Cnoa n .Cre- H. and Canhota, M. Gomes, T. Í.J. and Holgado, W. Alonso, B. mltd wn,anwand new a swing, amplitude e ; ® ; eateto hsc n As- and Physics of Department nvriyo aaac,Sala- Salamanca, of University Erp-QC2021 /Europe-EQEC ü trSenee,MxBorn Max Steinmeyer, nter OM3 ROOM 124 tils te olwn proper Inter- Laser following Direct on of combinations steel topographies stainless laser-induced unprecedented of formation mechanisms the for fundamental unex- plored previously the presented investigate is to and approach experimental theoretical an work, this In Greece Heraklion, Crete, of 2 Greece Heraklion, (FORTH), Tech- nology and (IESL), Research for Laser Foundation and Structure tronic Stratakis E. Kingdom United Edinburgh, University, Watt Robert Chair: II Processing Laser for Shaping Beam Spatial and Temporal CM-5: 16:00 – 14:30 ∙ 14:45 Patterning Interference Laser Direct Pulsed Ultrashort via Structures Surface Periodic Sub-micrometer Tailored THU CM-5.2 at speed. backwards high rocket- particles particle the the propels of side output the at ume plasma An ablation-related pulses. fs guided by photonic bre, crystal hollow-core levi- inside optically tated microparticles, sil- of ica micromachining report of We Science Germany the Erlanden, Light, Russell for P.S.J. Institute and Planck Tani, F. ∙ bre crystal photonic 14:30 hollow-core in trapped optically micro-particles of propulsion rocket and micromachining laser Femtosecond THU CM-5.1 .Fraggelakis F. Sharma, A. Xie, S. Romodina, M.N. eateto hsc,University Physics, of Department ⋅ hrdy2 ue2021 June 24 Thursday OM4 ROOM 1,2 ; 1 .Tsibidis G. , 1 nttt fElec- of Institute mo,Heriot- omson, ; 1 and , Max ; pia wthn n eodhar- all- generation. second monic and enhanced switching strongly optical show resonances, anapole-like we ex- at By citing substrates. low index on refractive thin-lms Phosphide Gal- lium nanostructured of properties optical outstanding demonstrate We United London, ImperialKingdom London, Physics, College of Department Singapore, Singapore A*STAR, Engineering, 5 Australia of Renewable Sydney, Wales, South University New and Engineering, Energy Photovoltaic of and China Shenzen, Technology, Science of University for Southern Communications, Circuits Generation Integrated Next of Center Research , Engineering MOE Aires tronics, Buenos Aires, UniversidadArgentinia Buenos de IFIBA-CONICET, M 2 M Nanoinstitut Ludwig-Maximilians-Universit tems, Maier .Ri saé ..Rctr D. and Grange Timpu, Richter, F. R. F.U. Karvounis, A. Escalé, 14:45 Pohl, Reig M. ∙ visible the in metasurfaces niobate lithium Electro-optic THU EG-6.2 Cortes Li 14:30 ∙ Nanophotonics Ultrafast and Nonlinear for Substrates Transparent on Nanostructures Phopshide Gallium THU EG-6.1 Universit Germany Bielefeld, Pfeier, Bielefeld, Walter Chair: Nanostructures Dielectric Resonant EG-6: 16:00 – 14:30 ..Vge-eln,H Weigand, H. Vogler-Neuling, V.V. Tilmann B. nttt fMtrasRsac and Research Materials of Institute FCEN, Física, de Departamento 3 ü ..Berte R.B. , ce,M nchen, 1,6 1 ..Kuznetsov A.I. , ; 1 ; ; hi nHbi Nanosys- Hybrid in Chair 6 ; OM5 ROOM 3 1 T uih Zurich, Zurich, ETH colo Microelec- of School lcetLaboratory, Blackett e .Grinblat G. , ü 1 ..Nielson M.P. , ce,Germany nchen, 5 n S.A. and , ; ü 4 nchen, School 2 ä 4 Y. , t E. , ä t ; ; rmasgas3 rne pre- printed 3D glass form. so a from drawn ber optical microstructured rst the of fabrication the report We 13013, France Fresnel, Marseille, Institut Marseille, France Rennes, 3 35042, Leclerc, Gal Rennes, 35000, France 6226, ISCR-UMR Renversez Brilland L. Adam Lebullenger R. Carcre J. 14:45 ber core hollow mid-IR a of example preforms: glass so printed 3D from bers optical Microstructured THU CE-10.2 thulium- a laser. ber of doped mode-locking and saturation nonlinear mid-infrared. include Results the to band nication telecommu- of the range from broad wavelengths, a glass over chalcogenide compatible of made sorber ab- saturable all-ber an present We 14:30 Canada Montreal, University, ∙ Absorber Saturable Chalcogenide All-Fiber THU CE-10.1 Italy Trento, FBK Unit, Photonics and Laboratory IFN- CSMFO Chiasera, CNR Alessandro Chair: Ceramics and Glasses Crystals, CE-10: 16:00 – 14:30 .AjmadM Rochette M. and Anjum A. i asil nv NS Centrale CNRS, Univ, Marseille Aix 1 ; .L Coq Le D. , 2 bandngtv curva- negative obtained e 3 1 eeOtc,23Avenue 263 SelenOptics, ; .Cheviré F. , OM6 ROOM 2 .Troles J. , 1 nvRne,CNRS, Rennes, Univ 1 .Gautier A. , 1 .Chahal R. , 1 1 .Galdo E. , and , ; 1 McGill J.-L. , ∙ G. 1 1 , , ; 08n ih5 mwdhad54 and duration. width of nm fs 50 with nm at 1068 pulses nJ 24 provides ber, doped regime. nonlinear in gain-managed amplication and for measured data simulated a demonstrate We Sweden Stockholm, nology, Tech- of Institute Royal Physics, plied fSineadTcnlg,Wro- Technology, Poland and claw, Science University of Wroclaw Group, tronics .Sobo G. .Pasiskevicius V. France Lannion, tagne, J52TU14:45 ∙ simulations and measurements – regime nonlinear gain-managed the in comb frequency 1.03 a of Amplication THU CJ-5.2 the scaling beyond energy its further discuss for and potential operation, its alyze an- numerically (FOPCPO), cillator os- pulse chirped parametric ber optical broadly-tunable a high-energy demonstrate experimentally We France Caen, Normandie, Caen ENSICAEN-CNRS-CEA-Université France Rouen, INSA Rouen, - Normandie Rouen Godin 1 T. Barviau B. 14:30 Idlahcen ∙ oscillator chirped-pulse parametric optical ber High-energy THU CJ-5.1 Ger- Hannover, many Hannover, trum J Chair: Laser Fiber Pulsed CJ-5: 16:00 – 14:30 .Tomaszewska D. Becheker R. OI NS-Uiest de Université - CNRS - CORIA eu,bituigYtterbium- using built setup, e 1 ń ö .Tang M. , 1 gNuan ae Zen- Laser Neumann, rg 1 ; 1 OM7 ROOM n .Hideur A. and , μ .Grisch F. , ; level. J 1 ae ie Elec- Fiber & Laser 1 2 .Touil M. , ; 2 eateto Ap- of Department .Laurell F. , 1 1 2 .Lindberg R. , .Haboucha A. , htnc Bre- Photonics 1 .Camy P. , ; μ optical m 3 CIMAP, 2 1 and , S. , 2 3 2 1 , , , ; u eut aetewyt the number. symmetry photon low to at of breaking way study the experimental pave results nanocavities. driven- Our coupled coherently dissipative in symmetry mirror breaking of experimental observation rst the on 92019, report We Bag Zealand New 1142, Private Auckland Auckland, of Department, Physics a 21,Acln 12 New 1142, Private Auckland Zealand 92019, Auckland, Bag of Department,University de Mathematics et France Nanosciences Palaiseau, 91120 Nanotechnologies, de Centre 1 Levenson Broderick ∙ nanocavities coupled driven-dissipative coherently in 14:30 breaking symmetry Spontaneous (Invited) THU EF-7.1 Kingdom United Brighton, Sussex, Universityof Pasquazi, Alessia Chair: Eects Topological and Geometrical Breaking, Symmetry EF-7: 16:00 – 14:30 .Garbin B. nvriéPrsSca,CNRS, Paris-Saclay, Université ; ; 1 3 n ..Yacomotti A.M. and , .Krauskopf B. , 1 OM8 ROOM 2 .Giraldo A. , 3 odWlsCentre, Dodd-Walls odWlsCentre, Dodd-Walls University e 2 N.G.R. , 2 A. , 1 CLEO e ; ulcm pcrmtrwt fully with mid-infrared spectrometer comb a dual Zurich, demonstrate We CH-8093 Switzerland Zurich, ETH 4 Technology, D Environmental CH-8600 / tion St CH-8712 3 44, Switzerland de Neuchâtel, 2 Neuchâtel, CH-2000 de Institut Université Physique, Temps-Fréquence, Hugi Spain Santander, Cantabria, of University CSIC, Valle, Angel Chair: Combs Frequency Semiconductor-based CB-8: 16:00 – 14:30 .Emmenegger L. Beck M. Kapsalidis Matthey Terrasanta G. 14:45 ∙ Lasers Cascade Quantum Follower and Master 7.7 at Spectrometer Dual-Comb Coherently-Averaged THU CB-8.2 obtained pulses. the of measure prole intensity to the employed is grating optical sampling Femtosecond external an compressor. using pulses of laser cascade quantum formation mid-infrared the demonstrate We Z Faist Electronics, Switzerland J. Quantum and of Beck, 14:30 M. ∙ combs frequency laser cascade quantum mid-infrared of sampling Upconversion THU CB-8.1 .Komagata K. Wang, R. Singleton, M. Taeschler, P. nttt o unu Electronics, Quantum for Institute Pollu- Air for Laboratory Laubisr Empa, AG, IRsweep ® 2 n .Shilt S. and , Erp-QC2021 /Europe-EQEC 1 4 .Gianella M. , ..Wittwer V.J. , 4 .Shahmohammadi M. , OM9 ROOM ü edr,Switzerland bendorf, 2 3 .Brochard P. , 1 .S T. , .Shehzad A. , ä a Switzerland fa, 1 μ ; with m ü 3 1 .Jouy P. , dmeyer 1 Laboratoire ; .Faist J. , ü Institute tistrasse ü 1 1 R. , rich, 2 A. , F. , 4 4 1 , , , ; ; ; 125 h ihtnspectrum. biphoton of the shaping allow and lm biphoton thin tured unstruc- ecient an to compared generation more enable our resonances In Mie-type metasurfaces, metasurfaces. resonant in sponta- down-conversion by parametric neous demonstrate generation biphoton experimentally Precision We and Germany Optics Jena, Engineering, Jena, Applied of Jena, Friedrich Germany University Physics, State Schiller Solid of Germany Jena, Photonics, Germany Erlangen-N Light, of of Germany Science Erlangen, the for Institute ea Germany Jena, University Jena, Photonics, Schiller of Friedrich Center Abbe Physics, Chekhova Pertsch Younesi M. .Sultanov V. Alberucci, Alessandro Friedrich-Schiller-Universit Chair: Technologies Quantum CD-8: 16:00 – 14:30 ∙ Metasurfaces Nonlinear in Down-Conversion 14:30 Parametric Spontaneous (Invited) THU CD-8.1 Germany .Fedotova A. ⋅ hrdy2 ue2021 June 24 Thursday 1,6 ; ; .Setzpfandt F. , 2,3 OM10 ROOM 4 ; a lnkSho of School Planck Max 1 2,3 1 6 .Staude I. , .Santiago-Cruz T. , ruhfrInstitute Fraunhofer 1 .Weissog M. , ü nttt fApplied of Institute neg Erlangen, rnberg, ; 2 ; a Planck Max 1 3 n M.V. and , ; University 5 ä Institute Jena, t 1,5 T. , 1,4 2,3 , , ulations. time- sim- spin-glass to to predictions, learning series classication machine from of tasks, variety a exploited be for can media complex propagation in light how discuss will I France Paris, ∙ Learning Machine Scale Large for Photonics Complex 14:30 (Invited) THU JSIV-1.1 Lau- Switzerland sanne, EPFL, Psaltis, Demetri Chair: I Computing Optical JSIV-1: 16:00 – 14:30 .Gigan S. OM11 ROOM ; obneUniversity, Sorbonne ula yaisi a n liquid and phase. gas in dynamics nuclear and electronic photo-initiated study to application their and, properties, coherence temporal, spectral, their including lasers, free-electron generated using are pulses x-ray trashort USA Lemont, Laboratory, tional Na- Argonne Division, Engineering ∙ dynamics molecular angstr - attosecond the lasers: free-electron 14:30 X-ray (Tutorial) THU EE-3.1 - ICFO Spain Castelldefels, Vamos, Lenard Chair: Dynamics Molecular Ultrafast EE-3: 16:00 – 14:30 .Young L. nttt fPooi Sciences, Photonic of Institute e sttra ildsrb o ul- how describe will tutorial is ; OM12 ROOM hmclSine and Sciences Chemical ö rnirfor frontier m
Thursday Orals Thursday Orals ipcma isedw o530 to down tissue hippocampal mouse in imaging two-photon en- ables and work previous than eration it- mode one aer enhancement nal sig- higher >10x achieves that sation compen- scattering non-invasive for algorithm phase- interferometry holographic stepping a develop We Austria Innsbruck, Innsbruck, of University Medical Physiology, of fImaging of 15:15 Limits and Analysis THU Information JS.3 ECBO + CL Austria Innsbruck, Inns-bruck, of University Medical Physics, Jesacher Kress ∙ imaging biological tissue deep for compensation 15:00 scattering holographic THU Fast JS.2 ECBO + CL enfe ah)uigspatially- using detectors. time-of-ight resolved paths) transport free 100 mean scattering (beyond thick materials very through imag- ing for information of existence the show theoretical numerically we information approach, an Using King- United dom Glasgow, Glasgow, of ∙ Media ..May M.A. .RdodadD Faccio D. and Radford J. 2 .Ritsch-Marte M. , 1 ; 1 OM1 ROOM 1 nttt fBiomedical of Institute ..Kummer K.K. , og Complex rough ; 1 ; University n A. and , 2 Institute 2 M. , μ m oect noeosmresfor delivery. drug markers of power tacking endogenous peak excite sucient to and spectral range visible full the across lifetime tation exci- ecient showing uorescence microscopy few-cycle for pulses using advanced laser on ultra-broadband report We Portugal Portugal Porto, 3 Photonics, trafast Portugal Braga, oratory, Lab- Nanotechnology Iberian tional Nieder J.B. and Silvestre ptychography. using conrmed experimentally are erties multispectral source. generation high-harmonic focus can a from to radiation that extreme-ultraviolet used elements dirac- be optical designing tive to computational approach a demonstrate We Netherlands Netherlands Nanolithog- Amsterdam, 2 for raphy, Center Research Eikema Beurs H94TU15:15 ∙ microscopy FLIM multi-color advanced for pulses laser few-cycle Ultra-broadband THU CH-9.4 15:00 ∙ ptychography multispectral for beams focused ultraviolet extreme in entropy spatial Tailoring THU CH-9.3 .Maibohm C. Liu X. FMP nvriyo ot,Porto, Porto, of University IFIMUP, Amsterdam, Universiteit, Vrije oyhoai ouigprop- focusing polychromatic e 1 .Du M. , 2 1 1 n .Witte S. and , .Romero R. , .Loetgering L. , OM2 ROOM 1 .Ferreira R. , 1 1 ; .Konold P. , 1 N Interna- - INL 2,3 1 .Crespo H. , ; ; 2 1 peeUl- Sphere 1 Advanced .de A. , 1,2 O.F. , 1 K. , 3 CLEO , ; ; h aelaser. same all- the by twisted pumped PCF chirally normal-dispersion in cir- supercontinuum generated a polarised with mea- it cularly be interfering can by sured pulse ultrashort gle Germany Erlangen, Films, Nanostructured for Germany Alexander-Universit 2 Germany Erlangen, Light, of Science 1 Russell P.S.J. F84TU15:15 H ∙ amplitude and phase spectral of retrieval interferometric single-shot Broadband THU CF-8.4 simula- with tions. compared and and time space on evolving applied polarization exhibiting is beams It vector ultrafast polar- to and presented. is time ization pulsed space, on ultrashort beams of char- complete acterization the for technique A Portugal Kingdom United 3 Spain Southampton, Salamanca, 2 Alonso Salamanca, B. and Kazansky 15:00 Holgado ∙ beams ultrafast complex of characterization full polarization and Spatiotemporal THU CF-8.3 .Lippl M. Sola Í.J. a lnkIsiuefrthe Friedrich- Physics, of for Department Institute Planck Max peeUtaatPoois Porto, Southampton, Photonics, Ultrafast Sphere of University ä hs n mltd fasin- a of amplitude and phase e upl ® 1,2 Erp-QC2021 /Europe-EQEC 1 .Roth P. , ; .Drevinskas R. , 1 2 .López-Quintás I. , 1,2 .Henández-García C. , 3 OM3 ROOM nedsilnr Centre Interdisciplinary 1,2 ..Frosz M.H. , n ..Joly N.Y. and , 1,3 1,2 ; ...Wong G.K.L. , ä ,Erlangen, t, 1 nvriyof University 2 1 P.G. , D.R. , 1 W. , 2,1,3 1 1 , , ; ; ; ; 126 in Greece lion, Herak- (FORTH), andTechnology-Hellas Research for Foundation Laser, 15:15 1 Mansour D. Waves Tornado of observation Experimental THU CM-5.4 devices and va- substrates large of riety a of top on user-selectable arrangements, and ll-factor high with array, geometry- microlenses of controllable fabrication rapid for the method direct-write and ad- ditive laser novel a is catapulting Laser Spain Barcelona, Italy ova, 15:00 1 ∙ catapulting laser with arrays microlens geometry-controllable ll-factor 100% of writing Direct THU CM-5.3 igepaemdlto device. modulation phase single using a on techniques generated multiplexing spatial eciently handedness, be can opposite of mo- mentum angular orbital carry superimposing that elds complex by com- prised Waves, recently Tornado the introduced that demonstrate We Greece Heraklion, Crete, of versity Greece Heraklion, Crete, 3 of Uni- versity Technology, and Science terial Makris Ultrashort Pulses. with Patterning ference .Surdo S. nttt fEetoi tutr and Structure Electronic of Institute Gen- Tecnologia, di Italiano Istituto TP eateto hsc,Uni- Physics, of Department ITCP, ⋅ hrdy2 ue2021 June 24 Thursday 1,3 ; and , 1 2 OM4 ROOM nvriyo Barcelona, of University n .Duocastella M. and ; 1,2 2 .Brimis A. , ∙ eateto Ma- of Department ..Papazoglou D.G. 1,3 K.G. , 1,2 1,2 ; ; ; ing. shap- wavefront optical using by gap a photonic the inside within crystal photonic light focussing of stration demon- experimental the Copenhagen, show We of Denmark Copenhagen, University Insti- Bohr tute, Niels (Hy-Q), Systems Netherlands Enschede, 2 of University Twente, Nanotechnology, Institute for MESA+ (COPS), Systems Vos W.L. 15:15 Vreman ∙ crystal photonic reecting highly a of inside access to waves shaping Spatially THU EG-6.4 dielectrics. of bulk the inside single pulse Bessel a femtosecond by created nanoplasma cal cylindri- from second generation harmonic of results simulation Cell in Particle and experimental report We France Besancon, Montboucons, des avenue Courvoisier 15B 6174, CNRS F. UMR Bour- Franche-Comte, gogne and Univ. Institute, FEMTO-ST Giust, R. 15:00 ∙ dielectrics of bulk the in nanoplasmas on absorption resonance by generation Second-harmonic THU EG-6.3 nneaon 7 nm. 774 around onance res- transmission electro-optic the show at modulation the and voltage of ac enhancement V 1.5 plying ap- by MHz-range electro- the in the eect optic on based metasurface LiNbO3 a of tuning active report We Switzerland .Adhikary M. Meyer, R. Hassan, M. Ardaneh, K. etrfrHbi Quantum Hybrid for Center 1 ...Harteveld C.A.M. , 1 ; OM5 ROOM 1 1 .Uppu R. , ope Photonic Complex 1,2 1 and , T. , ; ; euae,Israel Israel, Jerusalem, 91904, Jerusalem of Jerusalem, University Hebrew Department, China Tianjin, 300387, China, Tianjin, Normal University, Tianjin Italy, Science, Materials Rome, ”La Italy Rome, 00161 Rome of Sapienza”, University Italy Section, Rome, Sapienza”, Italy, ”La 2 Rome, Rome 00185 of versity Agranat 1 A.J. Mei ∙ 15:15 Super-Crystal a Ferroelectric of Dynamics Cluster 3D the in Percolation Fractal-Dimensional of Imaging Direct THU CE-10.4 balances Y/Sc ablation laser various by synthesized nanoparti- with sesquioxide cles the sintering mixed vacuum for of using time fabricated lasing rst were with Tm-doped quality ceramics transparent (Y,Sc)2O3 Highly Italy Fiorentino, Ricerche, Sesto delle Nazionale Consiglio Ekaterinburg, of Russia Yeltsin, President B.N. rst Russia the aer named Ekaterinburg, Russia RAS, Sesto UrB trophysics Ricerche, Italy Fiorentino, delle Consiglio Nazionale Carrara“, “N. Applicata Vannini M. and Tikhonov 15:00 Shitov V.A. ∙ Applications Laser for Ceramics Transparent Tm:(Y,Sc)2O3 Novel THU CE-10.3 ag htaerpoue numeri- cally. reproduced are that 2-12 range the in bands transmission several shows ber core hollow ture .Falsi L. Pirri A. ....Dprmn,Physics Department, S.B.A.I. Uni- Physics, of Department 1 .Pierangeli D. , ; ; 4 siuoNzoaed Ottica, di Nazionale Istituto 2 1,2 3 .Toci G. , rlFdrlUniversity Federal Ural 1 ; OM6 ROOM ..Maksimov R.N. , .Aversa M. , 2 3 ..Osipov V.V. , 4 olg fPyisand Physics of College n .DelRe E. and , ; 4 ; ; 2 4 1 nttt fElec- of Institute ple Physics Applied siuod Fisica di Istituto 4 .Patrizi B. , 1 .Xin F. , 1 .Di F. , 2 E.V. , μ 1,3 2,3 m 4 1 , , , ; ; frpaal performance. repeatable of aim the toward materials these from devices ber-integrated evolution of pathways manufacturing the present laboratory-scale will of genera- I pulse saturable tion. for as (SA) exploited absorbers been long have crystals (2D) Two-dimensional Kingdom United bridge, 9 JJ Cambridge, of University Centre, ∙ Printing to Composites From Absorbers: Saturable 15:00 Based Material 2D Manufacturing (Invited) THU CJ-5.3 .Hasan T. mo vne B F,Cam- 0FA, CB3 Avenue, omson ; OM7 ROOM abig Graphene Cambridge lyo h w contributions. two the of inter- play the light on the depends how self-trapping show in crystals experiments liquid Our geo- phase. and metric dynamic of inuence ous simultane- the under samples thick in propagation light investigate Precision We and Germany Jena, Optics Engineering, Applied for Belgium Gent, observed. a is coupling to four-mode three-mode a from transition a to corresponding non-collinear local enhancement gain with two Hot-spots modes. by pump driven tal, crys- bulk nonlinear down- a in conversion parametric investigate We Nanotecnologie, Italy Italy Como, dell’Insubria, e Como, CNR, Fotonica di Brambilla ea Germany Jena, 1 F73TU15:15 Nolte ∙ crystals liquid in phase dynamic and geometric between Interplay THU EF-7.3 15:00 ∙ enhancement gain and hot-spots down-conversion: parametric pumped doubly in coupling multimode a Engineering THU EF-7.2 ..Jisha C.P. Jedrkiewicz O. rerc-cilrUiest Jena, University Friedrich-Schiller 1,3 n .Alberucci A. and , 2 n .Gatti A. and , OM8 ROOM 1 .Beeckman J. , ; 3 ; 1 ruhfrInstitute Fraunhofer .Invernizzi E. , 2 hn University, Ghent ; 2 1 Università ; 1 Istituto 2 S. , 2 E. , 1,3 CLEO ; ltosjiigasohsi iha model. oscillator with coupled stochastic a joining ulations sim- by conrmed and perimentally ex- demonstrated is locking jection in- all-electrical by coher- frequency- comb modulated dash quantum phase a of complete ence stabiliza- and tuning, tion frequency Beat France Palaiseau, 91120 Austria Nanotechnologies, Vienna, 1040 5 Wien, TU ETH Z 4 Electronics, 8093 Zurich, Quantum for hsc,T amtd,64289 Germany Darmstadt, Darmstadt, TU Physics, USA 02138, MA Cambridge, University, Harvard Sciences, Applied and Engineering of Schwarz no wthn eairresem- modelocking. active bling behavior show switching we on-o powers injection high At combs. frequency QCL temporal of properties and spectral the tuning of means a as RF-injection present We land J. and Faist Beck, M. 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Schneider, B. eted aocecse de et Nanosciences de Centre Electronics, State Solid of Institute ® ; T Z ETH Erp-QC2021 /Europe-EQEC 1,4 1 5 3,4 .Piccardo M. , .Capasso F. , n .Breuer S. and , OM9 ROOM .Gaimard Q. , ; ü ih Z rich, 2 1 nttt fApplied of Institute , ü ih Switzerland rich, ∙ .Auth D. ü ih Switzer- rich, ; 1,2 3 ; Institute 1 1 1 5 B. , A. , School 2 D. , J. , is ; ; 127 1,2 ihsrn orlto inlat signal time. delay correlation zero strong generation with two-photon We obtained wavelength. of telecom at nm thickness 200 subwavelength quartz in on with lm thin process niobate lithium down-conversion ric paramet- spontaneous perform We R. and Switzerland Kaufmann, Grange F. Saerens, 15:15 ∙ lms thin niobate lithium from down-conversion parametric spontaneous Non-phase-matched THU CD-8.3 lines. correlation quantum spectral joint multiple with comb high-dimensional integrated frequency an initi- bi-photon from is which ated transport, asymmetric energy an directional with walk all-optical a quantum of the coherent-control demonstrate We 17, Germany Hannover, Straße D-30167, University Nienburger Hannover, Leibniz Germany Technologies, Hannover, 2 17, University Straße D-30167, Nienburger Leibniz Hannover, Photonics, of ∙ 15:00 Combs Frequency Quantum Bi-photon High-dimensional of Control Coherent through Walks Quantum of Steering THU CD-8.2 ...Dog .Mee,G. Maeder, A. Duong, N.M.H. Haldar R. anvrCnr o Optical for Centre Hannover ⋅ n .Kues M. and , hrdy2 ue2021 June 24 Thursday ; OM10 ROOM 1,2 T uih Zurich, Zurich, ETH .Koaa Kashi Khodadad A. , 1,2 ; 1 Institute ; fatnmu operation. autonomous capable of is system the and hardware in realized a are connections photonic All of laser. semiconductor modes large-area distributed the on spatially based network neural pho- tonic parallel fully a implement We Ger- Berlin, many 10623, 36, bergstraße Universit nische 2 Besan 6174, UMR Franche-Comté, CNRS Bourgogne versité Brunner Reitzenstein S. seprmnal realized. experimentally is engine computation brain-inspired a modes, ber nonlinear spatial and of interactions linear pre- With is sented. learning machine multimode for of bers eects spatiotempo- nonlinear ral harnessing by frame- computing work optical novel A Switzerland Lausanne, Lausanne, de federale polytechnique Switzer- Lausanne, land Lausanne, de federale polytechnique Ecole Devices, 1 Oguz 15:15 ∙ nonlinearities ber spatiotemporal with computing Optical THU JSIV-1.3 15:00 ∙ laser surface-emitting vertical-cavity large-area a using computing network Neural THU JSIV-1.2 .Tegin U. Porte X. ntttf Institut aoaoyo ple Photonics Applied of Laboratory ; 1,2 .Moser C. , 2 1 pisLbrtr,Ecole Laboratory, Optics 1 ; ü .Skalli A. , 1 OM11 ROOM 1,2 Festk r ntttFMOS,Uni- FEMTO-ST, Institut .Yildirim M. , 2 ..Lott J.A. , ä eln Harden- Berlin, t ö 1 prhsk Tech- rperphysik, n .Psaltis D. and , 1 .Haghighi N. , ç n France on, 2 n D. and , 1 I. , 2 2 , ; ; OM12 ROOM
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Crystals Zeolite of Study Imaging Label-Free Multimodal A THU CH-9.6 cm 4 a with 15:30 Altmann ∙ Imaging Infrared Long-Wave Spectroscopic Compressive THU CH-9.5 iesosre n reconstructed simultaneously. and observed pixels Nyquist 640 with presented the are plastics of of measurements Compressed 25% rate. at sampled ..Charsley J.M. oienc iMln,Milano, Milano, di Politecnico 4 ..Greenaway A.G. , ; ; 4 ron ainlLaboratory, National Argonne 2 nvriyCleeLondon, College University 1 2 .Smith M. , 2 ..Robinson I.K. , .Mosca S. , OM2 ROOM 2 and , − 1 ; 1 .Rutkauskas M. , 1 ; ; 5 pia resolution, optical 2 ono Matthey Johnson colo Culture of School 1 colo En- of School 2 ∙ 2 3 .Candeo A. .Young C. , .Collier P. , .Lezcano- I. , ; 3 Central 2 L. , × 1 512 μ Y. , m 5 2 1 CLEO , , ; ut ihataiinlmeasure- traditional a with sults re- crosschecked near- and have lasers for infrared We technique this expanded rate. repetition bitrary ~3 of mea- surement dri CEP single-shot of pable France Paris, France Hungary Talence, 4 Nanosciences, Szeged, et Szeged, 3 of Hungary Szeged, Ltd, Kiss 1 B. 15:45 ∙ method TOUCAN modied a with lasers near-infrared for detection dri CEP single-shot Every THU CF-8.6 temporal demonstrated. are high contrast and duration spec- pulse burst phase, and Flat amplitude including tral/temporal rate. characteristics 100 repetition at kHz laser post-compressed Yb:YAG fs high-power 55 a of ization character- intra-burst on report We Germany Darmstadt, f SwedenGermany Lund, University, 3 Hamburg, Lund DESY, Germany Synchrotron Heyl Seidel Manschwetus M. T H. 15:30 ∙ Rate Repetition kHz 100 at Laser Yb:YAG Post-Compressed High-Power a of Characterization Pulse Intra-Burst THU CF-8.5 ü .Kurucz M. Viotti A.-L. ntttUiestied France, de Universitaire Institut Numérique Photonique Laboratoire Non-Prot ELI-HU ELI-ALPS, Jena, Jena, Helmholtz-Institute cwroefrcugGmbH, Schwerionenforschung r rgnlTUA eiei ca- is device TOUCAN original e ® 1,3,4 ü Erp-QC2021 /Europe-EQEC nnermann ; 1 ; ; n .Cormier E. and , 2 4 1 OM3 ROOM 1,2 1 eateto Physics, of Department S Helmholtzzentrum GSI .Dudde K. , etce Elektronen- Deutsches 1 1,2 .Toth S. , .Hartl I. , .Alisauskas S. , 1 μ .Escoto E. , aesa ar- at lasers m 1 ; .Csontos J. , 1 n C.M. and , 2 University 1 B. , 3,4 1 1 1 , , , ; ; ; ; 128 ∙ 15:45 axicons displaced spatially with generated beams Bessel modied by material transparent of Micro-processing THU CM-5.6 movement. phase-mask and ing defocus- by achieved is wavelength tube-ability the where uniform phase-mask a and nm pulses 800 femtosecond with inscribed are gratings phase-mask. uniform a inscribed with are ber-Bragg-gratings of arrays and Phase-shied-gratings Israel Sheva, Beer- Negev, the of University Gurion ∙ movement 15:30 phase-mask and defocusing using arrays gratings Bragg ber and phase-shied-gratings written Femtosecond THU CM-5.5 Gotovski n .Jukna V. and lmns rcia applications Practical optical phase elements. geometric as manufac- tured novel axicons by phase present displaced generated we beams work, Bessel-Gauss this In Lithuania Vilnius, versity, Lithuania Vilnius, 4 University, Techni- cal Gediminas Vilnius tronics, Lithuania Vilnius, Vilnius, , Lithuania laboratory Co- Optics Technology, herent and Sciences ical .Nacius E. Ishaaya A. and Halstuch A. ae eerhCne,VlisUni- Vilnius Center, Research Laser ⋅ hrdy2 ue2021 June 24 Thursday 1,3 ; .Ul O. , 2 1,2 OM4 ROOM okhpo Photonics, of Workshop 1,4 .Stanionis B. , ; č 1 ; inas etrfrPhys- for Center 3 aut fElec- of Faculty 1,2 .Orlov S. , 1,2 ; Ben- P. , ese 1 , ; o ht-rgeigapplications. photo-triggering for demonstrated is response nonlinear excitation. fem- two-color upon tosecond oxides metal nanoparticles various dielectric of in- of short-wave frared, to ultraviolet order deep from multiple spanning the response, nonlinear on Annecy, report We SYMME, France Blanc, Genève, Mont de Switzerland Université Genève, Physics, Bonacina Mugnier Gaulier 15:45 G. ∙ Applications Bio-Oriented for Nanoparticles Dielectric in Mixing Nonlinear Multi-order THU EG-6.6 tunability. spectral large with this eect particles of amplication coupled strong of enables manifold a arrangement of the Engineering mate-rial. underlying the in absorption and connement eld elec- tromagnetic enhance nanoresonators tric dielec- single in excitations Anapole United London, Kingdom College, Imperial Germany Maximilians-Unversit 15:30 Maier ∙ Nanodisks GaP Amorphous Coupled of Arrays in Engineering Absorption Anapole-Assisted THU EG-6.5 .L Volpe La L. H L. ü 1,2 ttenhofer ; 2 ; 1 .P Wolf J.-P. , ; 2 OM5 ROOM 1 1 1 eateto Physics of Department .L Dantec Le R. , eateto Applied of Department aontttLudwig- Nanoinstitut 1 1 .Campargue G. , .Tittl A. , ; ä 2 ,M t, nv Savoie Univ. 1 n L. and , 1 n S.A. and , ü nchen, 2 Y. , 1 e , Crozier Javey A. Ramanathan R. Azar Sedmooye N. Stepien R. nvriyo aionaa Berkeley, at California of University Sciences, Computer and AustraliaEngineering Parkville, Engineer- ing, Electronic and Electrical Mel- Australia University, bourne, RMIT Science, of School (NBRL), Laboratory Research Parkville, Australia Melbourne, of University ∙ (CuTCNQF4) 15:45 tetraouroquinodimethane 7,7,8,8-tetracyano-2,3,5,6- Copper in Photoresponse Infrared Longwave THU CE-10.6 replica- DOE tion. em- for hot process the bossing and electro- nickel method the the forming using use produced We shim the range. in midIR operating optical (DOE) diractive elements glass of fab- rication cost-eective the on report We Warsaw, Photonics, , Poland 01-919 of 133, and Wolczynska Institute - Microelectronic Network 02-093, Research Poland 5, Pasteura Warsaw, Warsaw, of 1 15:30 ∙ technology embossing hot the using optics mid-IR for elements diractive Fabricating THU CE-10.5 refraction. giant on based high- tions projec- using 3D orthographic achieved resolution Cluster is nanodisordered imaging perovskite. biased KTN:Li a bulk in ages im- transmission crossed-polarizer of analysis percolation perform We .Balendhran S. Kasztelanic R. aut fPyis University Physics, of Faculty 1,3,6 nvriyo Melbourne, of University e 4,5 ; 2 ; OM6 ROOM .Bansal V. , n .Buczynski R. and , 1 colo Physics, of School 1 2 .Ingle A. , 1,2 NanoBiotechnology 2 ; ; .Bullock J. , .Kujawa I. , 3 eatetof Department 3 ; .Kim H. , 2 Lukasiewicz 2 2 n K. and , 4 .Yan W. , Electrical 4,5 1,2 3 3 2 e , , , , ; 1340nm. at achieved 7.5ns were of 56.8nJ energy width with pulse and 92.5mW of power output average cong- an MOPA uration, from a In operating 1300-1370nm. laser bre tun- doped Bismuth- all-berized mode-locked actively able an present We Kingdom United Southampton, ton, Sahu J. and Richardson, D.J. Pidishety, S. Wang, rate. repetition lower nJ at 340 pulses and pulses, comb nJ frequency 110 generate We gratings. sim- Bragg a ber with by method shaping phase energy ple pulse laser ber Er femtosecond increase greatly We USA Michi- Arbor, Ann of gan, University Science, Com- puter and Engineering Electrical of USA Arbor, Ann Michigan, USA 1 Winful H.G. J55TU15:45 ∙ Laser Fibre O-band Bi-doped Mode-locked Actively Tunable THU CJ-5.5 15:30 ∙ Fiber Telecom Mode Single Standard from Pulses fs 63 nJ, 340 with Laser Fiber Erbium THU CJ-5.4 N.k. Lee K.F. MAAeia n. n Arbor, Ann Inc., America, IMRA ; 2 et fPyis nvriyof University Physics, of Dept. paau .u lm Y. Alam, S.-u. ipparapu, 1 .Zhou G. , ; OM7 ROOM nvriyo Southamp- of University 3 n ..Fermann M.E. and , 2 .Jiang J. , ; 3 Dept. 1 1 , ; fSine,Mso,Russia Moscow, Academy Sciences, of Russian Spectroscopy, of China Xi’an, University, Jiaotong Xi’an Engineering, and ence Germany Heinrich Universit Physik, M. and Hopf–bifucartion through introduced. optome- coupling the rate the single–photon for chanical procedure of novel determination presented, a is and cavity Fabry–Pérot two– high–nesse a in a ethalon membrane of system optomechanical Italy Italy Perugia, os eect olna topo- nonlinear excite We higher- insula- tors. topological in photonic dynamics order Kerr linear non- investigate experimentally We and Spain Science Castelldefels, Technology, of Institute Barcelona Torner Italy Camerino, Camerino, Division, of University Physics Technology, and Giuseppe Di Malossi N. Ivanov F75TU15:45 Kremer ∙ insulators topological photonic higher-order Kagome in observed states corner Nonlinear THU EF-7.5 15:30 ∙ Of Measurement And Dynamics Non–linear Optomechanics: Cavity Two–membrane THU EF-7.4 ..Kirsch M.S. Piergentili P. o–ierdnmc fan of dynamics non–linear e poehnclCoupling Optomechanical e ; 4 3 2 1 .Bauer D. , ..Kartashov Y.V. , NN ein iPerugia, di Sezione INFN, ..Maczewsky L.J. , ; 1,2 2 OM8 ROOM colo lcrncSci- Electronic of School 1,2 1,2 .Vitali D. , ; 1 .Zhang Y. , ; 3 .Li W. , ä N-N,Firenze, CNR-INO, 1 otc,Rostock, Rostock, t colo Science of School 1 1 ; .Szameit A. , 1 1 .Natali R. , 1,2,3 ntttf Institut ; 3 n G. and , Institute 1 3,4 ; 2 S.K. , 4 M. , L. , CFO, 1,2 ü 1 CLEO r , , Austria Vienna, 1040 Wien, TU Electronics, USA 02138, MA Sciences, Cambridge, University, Harvard Applied 64289 and Engineering Darmstadt, Germany Darmstadt, TU Physics, Breuer to OFCs dense solitons. from dynamic scenarios various cavities. demonstrate Laser We Cascade dierent Quantum in (OFCs) study Fre- Combs Optical quency to of self-generation simulator the Wave Trav- Domain elling Time a present We Bari, Italy Bari, di Studi degli ed Università Politecnico Fisica, di Interateneo di Italy Torino, Torino, Politecnico Telecomunicazioni, 1 Brambilla 46,USA 24061, Engi- Computer Virginia Blacksburg, VTech, neering, and Electrical of Z Z ETH Electronics, Schwarz Hillbrand Kazakov 15:45 D. ∙ combs amplitude-modulated and frequency-modulated width line RF Low THU CB-8.6 15:30 ∙ Lasers Cascade Quantum Fabry-Perot and Ring in Combs Frequency Optical of Dynamics THU CB-8.5 .Wegert L. Silvestri C. iatmnod ltrnc e Elettronica di Dipartimento ü ih Switzerland rich, ® 1,2 Erp-QC2021 /Europe-EQEC ; 2,3 ; 3,4 2 4 .Capasso F. , n .Gioannini M. and , 1 OM9 ROOM nttt o Quantum for Institute ; .Auth D. , ..Lester L.F. , 1 1 2 3 ..Columbo L.L. , nttt fApplied of Institute .Piccardo M. , nttt fSldState Solid of Institute ; ; 2 1 ; Dipartimento ü 5 .Weber C. , ih 8093 rich, Department 2 2 n S. and , colof School 5 B. , 1 2 M. , J. , 1 1 , ; 129 inlpoosi h visible. the to in photons correlated signal generated are 6 length above mid-infrared range the spectral AgGaS in sulde photons Idler gallium silver in conversion down parametric neous sponta- by non-degenerate generation photon-pair demonstrate We Germany Jena, , 07745 15, Albert-Einstein-Str. Jena, Photonics, of Friedrich-Schiller-University Center Abbe Physics, Setzpfandt 15:45 ∙ Crystals AgGaS using Mid-Infrared in Generation Photon-Pair THU CD-8.5 Devaux F. ∙ 15:30 function wave biphoton the of simulations with comparison and experiments media: scattering thick through photons Entangled THU CD-8.4 omo w-htnspeckle-like two-photon patterns. in of no but form detected that still twin are demonstrated between photon correlations We random spatial thick media. through and imaging correlations experimentally quantum numerically report We Besan Dueux, M. P. d’Optique partement .Kmr .Prsh n F. and Pertsch, T. Kumar, M. and Mosset, A. Lantz, E. Soro, G. ⋅ hrdy2 ue2021 June 24 Thursday ç n France on, ; ; OM10 ROOM ntttFMOS,Dé- FEMTO-ST, Institut nttt fApplied of Institute μm 2 wave- 2 . oswsdemonstrated. was tors neuromodula- control as acting parameters temperature and position com- gas temporal additional LTM characteristics, and STM dierent parameters, of set wide a with tallites on nanocrys- WO3 TiO2, based In2O3, ZnO, synapses MoscowPhotoelectric Russia Moscow, , University, Lomonosov State Chemistry, Russia Moscow, Univer- sity, State Moscow Lomonosov Fedyanin Chizhov SV15TU15:45 ∙ nanocrystallites oxides metal on based elements photoelectric Neuromorphic THU JSIV-1.5 delay the shorten line. similar drastically to us enables than also dynamics polarization faster systems. speeds state-of-the-art times spin-controlled processing 20 with a VCSEL, using performant computing system reservoir a delay-based demonstrate We Belgium Universiteit Brussel, Brussel, Vrije Group, Research Sande der Van G. 15:30 ∙ VCSELs Spin-Controlled Using Computing Neuromorphic High-Speed THU JSIV-1.4 .Chezhegov A. and Verschaelt, G. Harkhoe, K. 2 1 .Grunin A. , ; OM11 ROOM 1 aut fPhysics, of Faculty 1 .Balashov I. , ; ple Physics Applied ; 1 2 n A. and , aut of Faculty fast e 1 A. , Morgner Yulin A. eut r upre yadetailed a analysis. by theoretical by supported measured are apparatus.results and COLTRIMS the ultrashort pulses laser time-delayed are of pair polarization-twisted a molecules unidirec- by induced rotating in tionally echoes Alignment China Shanghai, 3 University, mal Israel hovot, 1 Prior Lin 15:45 K. ∙ molecules rotating unidirectionally in echoes Alignment THU EE-3.3 in manipulated ways. be various can and bation by Schr determined a are states trapped in- well. solitary-wave potential duced radiation attractive, an of by trapping discuss We Russia Petersburg, St. University, ITMO Metamaterials, Germany 4 Hannover, Technologies, Germany Across Hannover, 3 Innovation Disciplines), - and Engineering Optics, (Photonics, PhoenixD Germany Hannover, Hannover, University niz 1 15:30 ∙ Well Solitary-Wave a of States Trapped Order Higher THU EE-3.2 .Xu L. Melchert O. hniUiest,Tiun China Taiyuan, University, Shanxi Re- Science, of Institute Weizmann Optical and Nanophotonics of Department for Centre Hannover Leib- Optics, Quantum of Institute yapa outaantpertur- against robust appear ey 1 ..Averbukh I.S. , 1 ö 2 .Tutunnikov I. , .Qiang J. , igrtp eigenproblem. dinger-type 1,2,3 ; 4 OM12 ROOM .Babushkin I. , 2 n .Demircan A. and , lse fExcellence of Cluster ; 1,2,3 2 atCiaNor- China East .Willms S. , 2 1 .Lu P. , n .Wu J. and , 1 supported e .Zhou L. , 1,2 2 U. , Y. , 1,2,3 1,2 2,3 2 e , , ; ; ; ; ;
Thursday Orals Thursday Orals nrydpsto tteinterface the copper. with at lamentation deposition the the energy optimizing for silicon in in regime nonlinear shi rst focal the and determining ultrafast precompensating the by welding laser demonstrate semiconductor-metal We Germany Jena, IOF, Engineering Preci- sion and Optics Applied for stitute rm ea & nvriyat University Qatar A&M Doha, Qatar, Texas gram, Germany Jena, Jena, Pho- Friedrich-Schiller-University of Center tonics, Abbe Physics, plied n .Nolte S. and Fedorov M61TU16:30 ∙ welding laser ultrafast semiconductor–metal for micro-lamentation Mastering THU CM-6.1 Laboratory, USA National CA, Berkeley, Lawrence Zorba, Berkeley Vassilia Chair: LiM with CM Session Joint CM-6: 18:00 – 16:30 .Chambonneau M. 2 .Blothe M. , OM1 ROOM 1,3 ; 1 ; nttt fAp- of Institute 1 1 3 .Tzortzakis S. , .Li Q. , ; ruhfrIn- Fraunhofer 2 cec Pro- Science 1 V.Y. , 2 , epae.Afnotgrating 3.9–12 covering pulses fan-out broadband tunable A wavelength- continuously provides OPGaAs on hydridetemplates. epitaxy by grown vapor-phase layers nonlinear oscillation—in OPGaP parametric rst optical the conversion—specically frequency report United We Edinburgh, Kingdom University, hnd,China China, of Chengdu, Technology and Science Barcelona, Spain Fotoniques, Ciencies de Kingdom United USA ∙ Charsley Farrell Schunemann P. GaAs On Grown GaP Orientation-Patterned 16:30 On Based Oscillator Parametric Optical 1040-nm-Pumped 3.9–12.0 Across Tuning Wavelength Continuous THU CD-9.1 Spain Barcelona, - ICFO Ebrahim-Zadeh, Majid Chair: Wavelengths Extreme at Applications Nonlinear CD-9: 18:00 – 16:30 rcs nctltczoiecrystals. zeolite catalytic in process detemplation the during generated ..Reid D.T. nttt fPooi Sciences, Photonic of Institute e ; ; 2 2 hoaiyLd Edinburgh, Ltd, Chromacity μ .Maidment L. , 5 m. 4 .Rutkauskas M. , nvriyo Electronic of University 5 ; OM2 ROOM 1 A ytm,Nashua, Systems, BAE 1 ; .Johnson K. , μ rma From m ; 3 CO–Institut – ICFO 5 3 Heriot–Watt .Shi Y. , 5 and , 2 C. , 4 J. , CLEO rso/otato nsmall-core pro- bers. core in of trusion/contraction observation discuss rst and the report also We to 32.4%. up by transmission increased ing achiev- large-core bers, optical and chalcogenide small-core both of nanoimprinting thermal present We Denmark Not- Birkerød, Photonics, Kingdom United Nottingham, tingham, of University 4 Denmark Lyngby, of 3 Kgs. University Denmark, Denmark Technical Lyngby, Nanolab, Denmark, Kgs. of University Technical Bang O. Seddon A.B. Markos ∙ 16:30 Fibers Chalcogenide Mid-IR Small-core onto Structures Anti-Reective Nanoimprinting when Mismatch of Inuence THU CJ-6.1 Ger- Hannover, many Hannover, trum J Chair: Components Laser Fiber CJ-6: 18:00 – 16:30 micro- laser in beams such of method. ment ..Petersen C.R. i-nrrdPooisGroup, Denmark Photonics Virum, Mid-Infrared NORBLIS, ® Erp-QC2021 /Europe-EQEC 1,3 ö .Woyessa G. , gNuan ae Zen- Laser Neumann, rg 1,3,5 OM3 ROOM 4 ..Taboryski R.J. , ; ermo-Mechanical 1,3 ..Lotz M.B. , 1 T Fotonik, DTU 1 .Furniss D. , ; ; 2 2 5 and , 2 DTU NKT C. , 4 , ; ; 130 pitr ae naibtccou- adiabatic on pling. based beam splitters single-mode 1-to-4 as ecient well as transitions graded-index core-cladding and step-index waveguides with 3D-printed We nects. intercon- photonic single-mode for waveguides photonic of ufacturing man- additive single-step report We Besan 6174, CNRS UMR Franche-Comté, Bourgogne Brun- D. ner and Kadic, M. Jacquot, 16:30 M. ∙ circuits photonic integrated for splitters adiabatic and waveguides core-cladding 3D-printed THU CK-6.1 Gauthier-Lafaye, Olivier France Toulouse, LAAS-CNRS, Chair: Components and Techniques Fabrication 3D CK-6: 18:00 – 16:30 demonstrated. material are transparent of machining .Pre .Muhms .Larger, L. Moughames, J. Porte, X. ⋅ ; hrdy2 ue2021 June 24 Thursday ntttFMOS,Université FEMTO-ST, Institut OM4 ROOM ç n France on, n oeeitn tasnl wave- single length. a at emitting mode ent coher- extended an displaying vertical-emitter array 30 a implement we model, insulator crys- topological the talline Using array. VCSEL lator experimental insu- topological a rst of demonstration the present We Germany Jena, Schiller-Universit Friedrich- Photonics, of Center Abbe 77 W 97074 ec tqa,Universit ct.qmat, lence o ope aeilSses and W Systems, Material Complex for Conrad-R atet ehin 20 Haifa, Israel 32000 Technion, partment, and Schneider Wolf A. Lustig Dikopoltsev A. Array Laser Surface-Emitting 16:30 Insulator Topological (Invited) THU EC-6.1 Lille, CNRS, Amo, France Alberto Chair: Systems Driven-dissipative in Topology EC-6: 18:00 – 16:30 ü zugDednCutro Excel- of Cluster rzburg-Dresden ; ∙ 1 2 .Klembt S. ..Egorov O.A. , ehicePyi,Wilhelm- Physik, Technische ü 2 2 ö .Emmerling M. , zug Germany rzburg, .H S. , te-eerhCenter ntgen-Research OM5 ROOM 1 ..Harder T.H. , ö ä 2 ing ea 07743 Jena, t ; 3 .Beierlein J. , 1 2 ä hsc De- Physics .Segev M. , W t ; ü rzburg, 3 2 ITFO, C. , 2 E. , 1 2 , , n ilcrpoei alignment cast processes. dielectrophoretic drop by chemical and followed wet simple reactions via are realized photoconductors CuTC- based organic NQF4 complex. metal transfer a charge CuTCNQF4, in photoresponse infrared long-wave room-temperature demonstrate We Parkville, Australia Melbourne, of University Systems, Meta-Optical formative USA Berkley, Na- 6 Laboratory, Berkeley tional Lawrence Division, USA Berkley, emaue iha cuayof accuracy an ~ with can measured sub- object be a nanoscale of dimension wavelength linear demonstrate a that experimentally We Research Kingdom United Southampton, Southampton, of Optoelectronics University Centre, and Singapore Mathematical Singapore, Technological2 University, Nanyang and Sciences, Physical of Technologies, Photonic Disruptive Zheludev N.I. and Yuan G. 16:30 ∙ Objects Sub-Wavelength of Metrology Optical Non-Contact Sub-Wavelength Deeply THU CH-10.1 Spain Barcelona, Catalonia, of PolytechnicUniversity Cojocaru, Crina Chair: Metrology Optical CH-10: 18:00 – 16:30 xmnto fisdiraction its pattern. of examination .Rendón-Barraza C. R eteo xelnefrTrans- for Excellence of Centre ARC etefrPooi Metamaterials Photonic for Centre λ htnc nttt,School Institute, Photonics e 20b deep-learning-enabled a by /260 1 .Adamo G. , OM6 ROOM ; 5 aeil Sciences Materials 1,2 1 ..Chan E.A. , ; 1 1 .Pu T. , etefor Centre 2 1 e , , ; ; systems. equilibrium and dissi- condensates pative driven such between ference dif- fundamental the 1D highlight sults a of condensate. coherence polariton order rst of decay the spatio-temporal the in ing scal- universal KPZ demonstrate We France Palaiseau, University, Saclay CNRS-Paris Nanotechnology, ∙ condensate polariton 1D a of coherence the 16:30 in scaling KPZ Universal (Invited) THU EA-6.1 Poland Warsaw, Warsaw, Uni- of versity Stobinska, Magdalena Chair: Light of Fluids Quantum and Polaritons EA-6: 18:00 – 16:30 .Bloch J. ; etrfrNnsineand Nanoscience for Center OM7 ROOM s re- ese wthn.Lv elvolumetric cell demonstrated. Live is imaging interference switching. photo- new reversible to a applied pattern with liv- whole cells in ing resolution 3D nm mi- sub- 80 RESOLFT delivering of new capable croscope a present we Sweden holm, ∙ imaging cell live volumetric for 16:30 RESOLFT parallelized and 3D (Invited) THU CL-3.1 Palaiseau,France Polytechnique, Labora- Ecole Biosciences, and Optics Stringari, for tory Chiara Chair: Microscopy Biological Advanced CL-3: 18:00 – 16:30 in- is power input creased. the as havior be- nonmonotonic nontrivial strates perturba- structural tions. ro- against are bust that corner-modes logical .Testa I. ; i oaiaindemon- localization eir OM8 ROOM T-cLfLb Stock- KTH-SciLifeLab, CLEO M M of University ory, Ger- many Konstanz, D-78457 of Konstanz, University Photonics, Applied for 1 rsnl-lcrnectto are reported. excitation single-electron aer dynamics processes quantum few-fermion Interesting and of phase polarization over amplitude. Pump-probe control absorp- provides biexcitonic states tion. via be- trion excited probed beats highly tween quantum reveals long-lived microscopy Femtosecond H3T Canada 1J4, Québec Montréal, Montréal, Polytechnique Physics, Engineering Seletskiy Traum E41TU16:30 ∙ Dot Quantum CdSe/ZnSe Single a in Coherence Trion Persistent a of Manipulation and Detection Ultrafast THU EE-4.1 many Ger- Institute Hannover, Optics, Quantum Demircan, for Ayhan Chair: Nanoscale at Manipulation and Characterisation Ultrafast EE-4: 18:00 – 16:30 os obgeneration. comb low-phase noise indicate Hz line 200 of width comb and Hz 950 amplitude-modulated of widths line note beat comb dot Frequency-modulated amplitude- quantum laser. generated semiconductor a are by and combs modulated Frequency- .Henzler P. eateto hsc n Center and Physics of Department ü se,Germany nster, ® ; 1 Erp-QC2021 /Europe-EQEC 2 ..Reiter D.E. , nttt fSldState Solid of Institute 1,3 n .Leitenstorfer A. and , OM9 ROOM 1 .Holtkemper M. , ; 2 ü 3 .Kuhn T. , se,D-48149 nster, eatetof Department 2 D.V. , 2 C. , e- 1 ; 131 ncmuaint vroeill- overcome noise. and posedness to rely computation for heavily on that priors systems machine physics of imaging use with the learning discuss will I Cambridge, USA Technology, Massachusetts, of stitute ∙ imaging computational for learning machine of use the On 16:30 (Invited) THU JSIV-2.1 EPFL, Moser, Switzerland Lausanne, Christophe Chair: I Metrology and Imaging in Learning JSIV-2: 18:00 – 16:30 .Barbastathis G. ⋅ hrdy2 ue2021 June 24 Thursday OM10 ROOM ; ascuet In- Massachusetts a eot ntefaeoko the of Equation. Master framework Haus the in reports experimen- tal disputed those for tion explana- rst theoretical a the oer we For time, reception. troversial con- met mode-locking self re- of numerous ports decade, recent the In the Germany Hannover, University, and Leibniz Optics, Quantum PhoenixD of Institute Excellence Germany of Germany Berlin, Hamburg, DESY, Universit Berlin,, 3 Humboldt zu 16:30 Physik, Germany Berlin, Demircan A. ∙ mode-locking Pseudo THU CB-9.1 of University France Tournié, Montpellier, Eric Chair: Lasers Semiconductor in Concepts Novel and Dynamics CB-9: 18:00 – 16:30 .Steinmeyer G. etce Elektronen-Synchrotron Deutsches OM11 ROOM 4 ; 1,2 1 Max-Born-Institut, .Escoto E. , ; 2 ntttf Institut ; 4 1,3 Cluster and , ü ä r t ; NOTES
Thursday Orals Thursday Orals oye lsfrsrn grating strong for eects. lms and glasses polymer in crystals photonic high-speed 3D enable resolution, to high of splitting nano-structuring SLM and an shaping by beam combination open-cavity with in applied were voids of Nano-explosion Canada Toronto, Toronto, of versity Uni- Engineering, Computer and cal eutn nawl endconvex dened etching. aer well edge a in single resulting 500 for a of these cutting pass used and tra- jectory parabolic fol- adjustable an glass lowing borosilicate in ications mod- laser permanent produced We Lyon,many CNRS, - France UCBL - UMR5306 Skupin Herman P.R. 16:45 ∙ Materials Transparent of Inside Gratings Volume of Writing High-Speed THU CM-6.2 M63TU17:00 ∙ glass borosilicate of cutting and modications in-volume curved pass single enables beam Airy THU CM-6.3 .H,E lmhmain and Alimohammadian, E. Ho, S. .Sohr D. ; 1 ; 2 1,2 COTA,Miz Ger- Mainz, AG, SCHOTT 1 ntttLmèeMatière, Lumière Institut J.U. , OM1 ROOM ; eateto Electri- of Department omas μ ls sheet glass m 2 n S. and , ohge htneege and photons. ultraviolet extreme energies of eciency photon conversion cut-o the improving higher the harmonic to high pushing bres drive generation, to hollow-core process used are Raman gas-lled the in states by brought solitary Multidimensional Vienna, Austria Technology, of University France Gif-sur-Yvette, Germany 3 2 1 iy abra Australia Canberra, sity, Univer- National France Australian Centre, Lyon Ecully, de , Nanotechnologies des tut Baltu Jal recrirabsorption. to free-carrier limit extension the wavelength germa- attribute long We pure a waveguide. in nium level) dB -30 the 5.83 to 3.53 (from generation experimental supercontinuum rst of demonstration the report We France Grenoble, EA-Leti,, Aus-tralia Melbourne, University, RMIT Hawthorn, Technology, Australia Uni- of Swinburne versity Centre, Sciences Grillet Fedeli M. Ibrahim H. .M Hartmann J.-M. Madden S. Barette Armand 17:00 ∙ Waveguides Germanium in Generation Supercontinuum Mid-Infrared THU CD-9.3 ∙ 16:45 Cut-o Generation Harmonic High the Scaling for Approach Simple A Compressor: Red-shi Raman THU CD-9.2 .DlaTorre Della A. Légaré K. emot-etu eln Berlin, Berlin, Helmholtz-Zentrum France Canada Paris, Université, Sorbonne Varennes, INRS-EMT, 2 .L J. , ; š ka 1 5 1 ; nvriéGeol Alpes,C Grenoble Université .Arias L. , 1 5 1 ; ; .Luther-Davies B. , .Légaré F. , nvriéd yn Insti- Lyon, de Université ü 5 2 .Monat C. , 4 OM2 ROOM ning .Moss D. , 1 1 4 colo Engineering, of School .Vodungbo B. , .Safaei R. , ycrto SOLEIL, Synchrotron 3 1 5 .Jaouen N. , .Sinobad M. , ; .Reboud V. , 1 .Lassonde P. , 1 2 3 n .Fan G. and , ae Physics Laser .Mitchell A. , ; 1 n C. and , ; 2 3 5 .Ma P. , 1 Optical Vienna G. , 2 μ 4 5 1 E. , A. , at m J.- , R. , 1 4 2 1 CLEO , , , ; ; ; peto i-Rr aesand lasers technologies. devel- sensing bre the Mid-IR to of opment contribute sensitivity will thermal that high and bility sta- thermal reectivity, in- high sented bres. in uoride gratings dium inscribed Bragg to rst-order used was Vis-fs-laser Germany Jena, University, Schiller Friedrich Research, Materials of tute UTFPR/DAELT, Brazil - Curitiba, Parana - nology ooy ebi-PT ea Ger- Jena, many Leibniz-IPHT, nology, 1 Wondraczek Reupert 0Vi obtained. V is 702V and 0.086pm/V, of co- electrooptic ecient An poling. optical enhance to conguration dierent a bers. sil- pole icate to electrical used is by discharge corona created eld Electric Sweden Stockholm, Technology, of Sweden Kista, 1 17:00 Tarasenko Claesson ∙ Discharge Corona Electrical with Fibers Optical Poling THU CJ-6.3 16:45 ∙ Fibre Fluoride Indium in Gratings Bragg Fibre First-order of Characterisation THU CJ-6.2 ..BroaPereira Barbosa J.M. Chiamenti I. ebi nttt fPooi Tech- Photonic of Institute Leibniz IERsac ntttso Sweden, of Institutes Research RISE ra Response ermal ® ; Erp-QC2021 /Europe-EQEC 2 3 eea nvriyo Tech- of University Federal 1 .Kara O. , .Laurell F. , 1 n .Margulis W. and , OM3 ROOM 3 n .Chernysheva M. and , ; 1,2 2 ; T oa Institute Royal KTH ehdexplores method e .Elsmann T. , 3 toSht Insti- Schott Otto 1 .Becker M. , 1,2 2 ypre- ey O. , Å. , 1 1 π A. , L. , 1,2 of 1 ; ; 132 rlbehaviour. tral spec- their of simulations experi- and out ments carry and crystals pho- THz tonic versatile of fabrication and the for rapid, tool low-cost, a as components 3D-printed exploit We Italy Rome, Sapienza, Italy Rome, Research 2 (ISC-CNR), National Council Systems, 16:45 plex Conti C. ∙ crystals photonic printed 3D in transmission waves Terahertz THU CK-6.2 taea25iptad59otu in- terconnect. output 529 demon- and input we 225 a Finally, strate topology. ing branch- I/O 1x9 characterize we and 1.2 with waveguide cal laser opti- comprise 3D Splitters lithography. using photonic fabricated 3D splitters scalable present We Besan Comté, Brun- D. 17:00 ner and Kadic, M. Jacquot, M. ∙ lithography laser 3D on based splitters photonic Scalable THU CK-6.3 .Missori M. .Muhms .Pre .Larger, L. Porte, X. Moughames, J. eateto hsc,University Physics, of Department ⋅ ; hrdy2 ue2021 June 24 Thursday et-t nvriyo Franche- of University Femto-st, 1,2 OM4 ROOM ; 1 ç .Pilozzi L. , n France on, 1 nttt o Com- for Institute μ diameter, m 1 and , ; ihptnilapiain o ro- resonators. optomechanical for bust applications cross-section potential Brillouin with resilient a in manifests robustness topological a heterostructure. in GaAs/AlAs inversion by band modes simultaneous interface optical phononic colocalized and construct We France Palaiseau, 91120 Boulevard 10 CNRS, Paris-Saclay, Université Nanotechnolo- (C2N), gies de and et Nanosciences Lemaitre, Lanzillotti-Kimura A. N.D. Rodriguez, 17:00 A. ∙ inversion band simultaneous by modes interface phononic and optical Topological THU EC-6.2 .Emn,O ri,P Priya, P. Ortiz, O. Esmann, M. OM5 ROOM msGobert, omas ; etede Centre e .Giaccari P. .Billault V. 17:00 loop shiing frequency a using compression pulse coherent all-optical analog with ranging Laser THU CH-10.3 S ∙ Precision Nanometer-Scale 16:45 with Measurement Distance Absolute for Lasers Cascade Quantum on based Mid-Infrared the in Interferometry Two-Color THU CH-10.2 ihsihl ieetperiods. dierent slightly with waveforms optical chirped generates of using trains that system ranging dual-comb laser a perform We Spain Elche, Research (I3E), Center Engineering Hernández, la Spain de , Plana Castellón INIT, GROC-UJI, Palaiseau, France Technology, & Chatellus France Research Grenoble, de LIPhy, Guillet H. 1 and Fernández-Pousa D GmbH, Switzerland 1 iut range. biguity am- the expanding of possibility the and electronics low-frequency with compression pulse analog provides wavelength synthetic 4 and wavelength optical the fractional at 10^-3 at by measurements phase achieved nm-scale with precision, measure distances to absolute interferometry two- color for used quantum is source laser cascade frequency-stabilized A Switzerland 3 .Matthey R. nvriyGeol le,CNRS, Alpes, Grenoble University Neuchâtel, Neuchâtel, of University le aesS,Saint-Blaise, SA, Lasers Alpes ü dmeyer ; 1 n .Schilt S. and , 3 1,2 ü OM6 ROOM ; nvria am I, Jaume Universitat 2 edr,Switzerland bendorf, .Maulini R. , , ; 1 2 .Shehzad A. , 4 io Engineering Micos ∙ nvria Miguel Universitat 4 .Durán V. .Crozatier V. , ⋅ 0- ta at 10^-4 ; 3 2 C.R. , 3 T. , ales 1 2 1 1 is , , ; ; ; d eects. block- ade polariton of pursuit imental exper- the for relevance of are results Our freedom. of the degree polarization for accounting pump coherent intensity low a by driven cavity pillar polariton a of problem the revisit We Australia Clayton, University, Monash Technologies, ics Electron- Low-Energy Future in lence Australia ton, Clay- University,, Monash tronomy, Parish A62TU17:00 ∙ cavity pillar polariton driven coherently a in correlations quantum and polarization between Interplay THU EA-6.2 .Bleu O. 1,2 1,2 ; 1 .Levinsen J. , colo hsc n As- and Physics of School OM7 ROOM ; 2 R eteo Excel- of Centre ARC 1,2 n M.M. and , reSE-S imaging. background- STED-ISM free dual-color detector, platform array enabling SPAD time- the on microscopy based versatile a resolved introduce We Italy 6 Australia Wollongong, Wollongong, Istituto Italy 5 Genoa, NIC@IIT, Tecnologia, di Italiano & Italy Genoa, Nanoscopy Genoa, of siuoIain iTecnologia, Italy Genoa, Spectroscopy, di Italy Genoa, Italiano and Istituto Vicidomini Microscopy G. and Slenders Sheppard Bucci L32TU17:00 ∙ Synergy Perfect a Array: Detector Single-Photon with Microscopy STED Time-Resolved THU CL-3.2 .Tortarolo G. II nvriyo eo,Genoa, Genoa, of University DIFI, of University Chemistry, of School 1,3 .Bianchini P. , 1 4,5 .Koho S. , OM8 ROOM .Diaspro A. , ; ; 1 2 3 .Piazza S. , eo Instruments, Genoa IRS University DIBRIS, 1 .Castello M. , 1 ; 1 ; 4 Molecular C.J.R. , 4 4,6 1,2 Optical E. , A. , 1,2 CLEO , ; ; Ludwig-Maximilians-Universit o tde fhg-edpyisin physics nanostructures. high-eld of studies for perspectives show and results search Germany Garching, Optics, Quantum of Institute Planck Germany Garching, Munich, ∙ nanostructures in physics 16:45 High-eld (Keynote) THU EE-4.2 .Kling M. akwl ihih eetre- recent highlight will talk e ® Erp-QC2021 /Europe-EQEC ; OM9 ROOM hsc Department, Physics ; ä Max t 133 ilintelligence. arti- cial and light structured logically exceeding of resolution at imaging objects far-eld subwavelength on report We Singapore Singapore, University, Technological Nanyang SPMS, TPI, & Technologies USA , Massachusetts 5 Hole, Woods Kingdom United 4 Southampton, Southampton, of Sci- University Environmental ences, and Natural Kingdom United 3 Southampton, Southampton, of University Southampton, Sciences, Kingdom for United Southampton, Centre of University & Metamaterials, Photonic Centre Research ∙ Papasimakis SV22TU17:00 Pu T. Microscopy Topological Subwavelength Deeply THU JSIV-2.2 ..Zheludev N.I. etefrDsutv Photonic Disruptive for Laboratory, Centre Biological Marine of Faculty Sciences, Biological ⋅ hrdy2 ue2021 June 24 Thursday 1 .Y Ou J.-Y. , OM10 ROOM λ 2 yepoigtopo- employing by /20 1 ..Smith P.J. , 1,5 ; 1 ; .Rogers E. , 2 nttt o Life for Institute 1 Optoelectronics 2,3,4 1,2 and , N. , ; ; ; pta hnes oa i aeof rate reached. is bit Tbit/s total 250 a channels, 127 spatial With generation. number de- ran- dom parallel specially for cavity stable a signed in sponta- emission and neous modes lasing many of interference spatio-temporal use We College Ireland Dublin, Trinity Dublin, Institute, Singapore,CRANN Singapore University, Tech- Nanyang nological Biophotonics, and Metz, Lorraine, France de Université and USA CentraleSupélec LMOPS, Photonics, University, Haven, Yale New Physics, Applied a,a oprdt conventional to feedback. compared as sig- nal, random more a generates back feed- backscattering stimu- Brillouin from lated light the output. that show laser We diode ran- the the of domness quantify and gurations con- feedback optical two study We Spain France Villetaneuse, Terrassa, Catalunya, 4 de Mexico Kingdom Puebla, Óptica Electrónica, 2 Astrofísica, y de Nacional Cao H. and Masoller Zaldívar-Huerta ∙ 17:00 feedback optical scattering Brillouin stimulated under diode laser a of dynamics the of randomness the of study Experimental THU CB-9.3 Guazzotti Kim 16:45 K. laser semiconductor broad-area stable-cavity a from generation number random ultra-fast parallel Highly THU CB-9.2 ..Quintero-Rodríguez L.J. nvriéSron ai Nord, Paris Sorbonne Université United , Bangor University, Bangor ; 1 3 , 3 ; etrfrOptoElectronics for Center n ..Lee M.W. and , ; 4 ∙ .Bittner S. OM11 ROOM .Hess O. , 3 4 nvria Politècnica Universitat colo hsc and Physics of School 1 ; 1 .Hong Y. , 1 eatetof Department 1,2 4 ; ..Wang Q.J. , .Zeng Y. , 2 4 hiein Chaire ; 1 1 Instituto I.E. , 2 C. , 3 S. , 3 , ; ; NOTES
Thursday Orals Thursday Orals Lithuania nia 1 Sirutkaitis Stan shape spline and S-bends. tapers shape low-loss demonstrate parabolic waveguides, ber-coupled to used which we components, special waveguiding 3D-printed of a optimization mental experi- developed and numerical for approach have We Belgium Brussels, Make, Flanders and Brussel versiteit .Baravykas T. Erps Van J. and naert, H. Berghmans, ∙ 17:15 Writing Laser Direct Two-Photon with S-Bends and Tapers Waveguides, Straight of Fabrication and Design THU CM-6.4 ∙ Solutions 17:30 Etching Selective and Ablation Burst-Mode Microdevices: Glass Functional Free-Form 3D of Fabrication Femtosecond THU CM-6.5 .Bgdsra,K aml F. Vanmol, K. Baghdasaryan, T. .Andriukaitis D. etk t. inu,Lithua- Vilnius, Ltd., Femtika ; č ikas 2 aut fPyis Vilnius, Physics, of Faculty 1,2 2 n .Jonu L. and , OM1 ROOM .Ti T. , 1 .Vargalis R. , 1,2 epn,T Geer- T. ienpont, .Butkut A. , č k ; unas ¯ š rj Uni- Vrije auskas 1 V. , 1 J. , e ˙ 1,2 1,2 , ; notevisible. the into spectral photons mid-infrared ecient of translation by addressed 6-9 be range the in expected plasmonic-mediated is reported. enhancement nonlinear graphene-metal are Moreover, in non- heterostructures optical linearities Avancats, huge Estudis Gate-tunable i Spain Barcelona, Recerca de Montpellier, de France CNRS, Université Montpellier, (L2C), Coulomb ehooy abig,MA, Cambridge, of USA Institute Technology, Massachusetts RLE, Odense, Denmark, University Denmark Southern Study, of Advanced for Denmark, Denmark Southern Odense, Castelldefels, of University Technology, Spain Fotoniques, and Ciencies de of Institut Austria University Vienna, Physics, Vienna, of Faculty (VCQ), Technology and Science tum Walther Abajo ..Englund D.R. Efetov D.K. edmntaeta h self- the that demonstrate We Germany Berlin, stitute, Germany Hannover, Germany Hannover, 2 Optics, tum Quan- of Institute Hannover, versity Bieliaiev n .Morgner U. Andrade and de Demircan Cardoso A. Ricardo J. Jenke D95TU17:30 ∙ Applications THz for OPO Resonant Doubly Stabilized A THU CD-9.5 Rozema 17:15 ∙ metal-heterostructures graphene in nonlinearities optical plasmonic-enhanced Towards THU CD-9.4 .Rao H. Trenti A. lse fEclec PhoenixD, Excellence of Cluster acln nttt fScience of Institute Barcelona e ; 1 ; 2,7 ..Cox J.D. , ; 7 6 1 1 CE-nttcoCatalana ICREA-Institucio ...Koppens F.H.L. , 3 1 1,2 unu htnc Group, Photonics Quantum .AcrzIranzo Alcaraz D. , ; ; etrfrNn Optics, Nano for Center .Nanot S. , 1 1 .Mru Dietrich Markus C. , .Aos Calafell Alonso I. , inaCne o Quan- for Center Vienna 2 OM2 ROOM .Y Hong J.-Y. , 1,2 5 aoaor Charles Laboratoire 6 .Babushkin I. , ..Grí de García F.J. , 3,4 1,2 ; .Kumar A. , 4 μ ; aihInstitute Danish ; 2,5 ,wihcan which m, 3 1 a onIn- Born Max ebi Uni- Leibniz .Peng C. , 6 2,7 .Kong J. , ; n P. and , 2 2 1 ICFO- P.K. , L.A. , 2 1,2,3 H. , 1,2 6 6 3 CLEO , , , , , ; oeisaiiisi ihpower high lasers. ber transversal in instabilities and as mode such shrinking eects mode to thermal coecient mitigate adjust to thermo-optical ber how the discuss athermal We simula- an design. numerical towards tions present We Germany Jena, 15, Albert-Einstein-Str. Jena, University Friedrich-Schiller- Physics, Germany Applied Jena, , Pre- 7 Str. and Albert-Einstein- Optics Engineering, Applied cision for tute Schreiber T. Walbaum aa upeso nak ber kW a for in suppression analyzed Raman are direction con- of trolled of tilt chirp a a and angle with controlled gratings Bragg Fiber Canada Montreal, Canada Sevigny 1 17:30 B. ∙ Suppression Emission Raman for gratings Bragg Fiber of Tilt and Chirp of Optimization THU CJ-6.5 17:15 ∙ applications laser power high for designs ber athermal Simplied, THU CJ-6.4 .Lin W. Palma-Vega G. cilUiest,Montreal, University, McGill ® Erp-QC2021 /Europe-EQEC 1,2 ; 1 .Desjardins-Carriere M. , .Haarlammert N. , 2 OM3 ROOM n .Rochette M. and , 1 ; 2 T Technologies, ITF 1,2 1 ruhfrInsti- Fraunhofer .Kuhn S. , ; 2 nttt of Institute 1 and , 1 T. , 2 1 , ; 134 ..Schmidt M.A. Wieduwilt iern,Uiest tBl,NY Bualo, at University gineering, Jena, Ludwig-Maximilians-Universit Technology, Germany Photonic of B 17:15 J. ∙ Detection Gas for Cage Light Hollow-core Printed 3D Fiber-connected THU CK-6.4 bia Technology, Arabia, and Saudi Science Uni- Abdullah of King versity Division, Engineer- ing and Science vironmental Liberale C. 17:30 ∙ ber optical single-mode a from beams Bessel high-order and zeroth- to generation for structure photonic printed 3D THU CK-6.5 M bedoelsrasrto spec- absorption troscopy. laser diode tun- able using demon- sensing ammonia and strate cage light connected ber- the present we Here platform. interaction light-matter a as can used be which waveguide hollow-core Germany Jena, Physics, of Faculty Germany Jena, Jena, 5 of University Schiller Friedrich (OSIM), Research Kingdom College United 4 Imperial London, London, Physics, of ment 3 .Jang B. .Reddy I. beCne fPooisand Photonics of Center Abbe Materials of Institute Schott Otto ⋅ ü ih aei Dnanoprinted 3D a is cage light e ; ce,M nchen, lcetLbrtr,Depart- Laboratory, Blackett e hrdy2 ue2021 June 24 Thursday 2 ü eateto lcrclEn- Electrical of Department rger 1 ; .Gargiulo J. , 1,2 1 2 1,3 ..Maier S.A. , .Lehmann H. , OM4 ROOM .Bertoncini A. , 2 ; 1,4,5 aut fPhysics, of Faculty ü 1 ce,Germany nchen, ilgcladEn- and Biological ; wl ad Ara- Saudi uwal, 1 ebi Institute Leibniz 2 .Kim J. , 2,3 1 and , 1 and , ä T. , t 1 , ; ; ; nttt fSineadTechnology, and Science of Troitsk,Institute Fotoniques, Ciencies Sciences, Russia Moscow, of Russia Academy region, Dolgo- Moscow 2 Technology, prudny, and Physics 17:30 Konotop Szameit A. ∙ media in solitons edge Topological THU EC-6.4 oscillations. and Fabry-Pérot its asymmetry waveguide bus of role the the discussed we nonreciprocal and system a as behaves regime nonlinear the in microresonator ric asymmet- an how demonstrated We Italy Trento, Kessler, Bruno Italy Trento, Trento, 3 of Physics, University of Department and Center Italy Trento, Trento, of University Physics, of ment Carusotto 1 I. 17:15 Heras ∙ microresonator Taiji a in breaking reciprocity the nonlinear in waveguide bus the of Role THU EC-6.3 .Ivanov S. Franchi R. nttt fSetocp,Russian Spectroscopy, of Institute Fondazione Devices, and Sensors Depart- Laboratory, Nanoscience 2 .Biasi S. , 5 ; OM5 ROOM 4 1,2 1 .Torner L. , 1 .Mu A. , 2 ocwIsiueof Institute Moscow ; .Kartashov Y. , n .Pavesi L. and , ; 1 .Ghulinyan M. , 3 2 COIsiu de ICFO-Institut N-N BEC INO-CNR ñ Barcelona e zd las de oz 3 n V. and , χ 2 2,3 3 1 , , ; ; ; Sweden Foltynowicz A. and G edmntaeanwrobust new a demonstrate We Electronics, WrocTechnology, of Faculty Wroc Group, Ume Physics, of 17:30 ∙ Spectrometer Vernier Cavity-Enhanced High-Speed and Robust THU CH-10.5 a for utilized space in ying be formation precision would satellites which between distance angle the which and two-dimensional using deectors measures by satel- system acousto-optic novel positioning developed lite Electro- have We of Japan University Tokyo, communications, Science, Takeuchi 17:15 ∙ deector acousto-optic using by system positioning laser Long-distance THU CH-10.4 .Lu C. Y. and Tajiri, M. Musha, M. ł uszek ł wUiest fSineand Science of University aw ; 1 2 2 .SnaVieira Senna F. , .Silander I. , ; ae n ie Electronics Fiber and Laser OM6 ROOM nttt o Laser for Institute å ł w Poland aw, nvriy Ume University, 1 ; 1 .Sobo G. , 1 Department 1 A. , ń å 2 , , intrsoda min condi- ambient tions. at threshold tion condensa- to Bose-Einstein the down above gas study polariton of experimental cooling stimulated Our demonstrates inter- action. light-matter strong bearing microcavities exciton- organic in Frenkel polaritons of Economics, modynamics ther- non-equilibrium of explored We Russia School Moscow, Higher University Mathe- Research National matics, and Electronics Russia of Institute Moscow, RAS, Russia Moscow, Technology, and Physics of (VNIIA), Russia Automatics Moscow, of Southampton, Institute Kingdom United Southampton, University of Astronomy, and Physics Russia Technology,Moscow, and Science of Institute n ..Lagoudakis P.G. and nased tt n tro tem- room at and state emerges steady a state in superuid the ably, of Remark- photons. observation cavity rst superuid the report We Belgium Antwerp, Netherlands Rodriguez 17:30 Peters ∙ temperature room at cavity tunable a in light of superuidity Steady-state THU EA-6.4 Baranikov A.V. Andrianov 17:15 ∙ condensate Bose-Einstein non-equilibrium a in gas exciton-polariton Frenkel of cooling Stimulated THU EA-6.3 .Keijsers G. Zasedatelev A.V. 1 ; .Wouters M. , 5 nttt o Spectroscopy for Institute 1 3,4 ; OM7 ROOM ; 1 2 ..Shishkov V.Y. , 1 .Geng Z. , nvriyo Antwerp, of University ML,Amsterdam, AMOLF, ; 1 ; ; ..Lozovik Y.E. , 3 4 uhvResearch Dukhov ocwInstitute Moscow 2 eatetof Department 2 1,2 1,2 n S.R.K. and , ; ; E.S. , 1 1 ∼ 6 K.J.H. , Skolkovo Moscow 40 5,6 3,4 K , , iu ePrs aasa,France Palaiseau, Paris, 2 de Polytech- nique Institut polytechnique, INSERM, CNRS, Ecole Biosciences, Klein Latour Alnawaiseh M. M Hospital Uni-versity Medicine, Musculoskeletal for Canada Varenne, cations, Télécommuni- et Matériaux Centre Energie Scientique, Recherche la Paris, de Inserm, de France Palaiseau, Polytechnique Ecole CNRS, Institut Biosciences, polytechnique, et d’Optique Schanne-Klein Légaré F. L34TU17:30 ∙ microscopy Generation Harmonic Second polarization-resolved using corneas human keratoconic of imaging Structural THU CL-3.4 CIC1423, GRC32, France Vision, InstitutParis, la INSERM, de Vingt, Quinze 5 M M Center, Medical of University thalmology, Germany Borderie Alnawaiseh Pinsard M. 17:15 ∙ assemblies bril collagen out-of-plane of distribution polarity the probes microscopy SHG Circular-dichroism THU CL-3.3 distribution. probes polarity and scale sub-micrometer their brils collagen out-of- of plane assemblies reveals ically specif- microscopy circular- SHG that dichroism show chiral magnetic contributions including the response of SHG analysis theoretical and corneas human on Experiments Paris France Saint-Aubin, de Paris-Saclay, Condensée France Paris, (LCMCP), de Matière Chimie la de Laboratoire CNRS, .Raoux C. Schmeltz M. eateto Ophthalmology, of Department obneUiest,CN des CHNO Université, Sorbonne 1 ; 1,4 1 5 2 n .C Schanne- M.-C. and , aoaoyfrOtc and Optics for Laboratory ; .Mosser G. , .Latour G. , 1 .Schmeltz M. , 4 OM8 ROOM 4 .Ghoubay D. , 2 ; eateto Oph- of Department .Hansen U. , 1 6 ; obneUniversité, Sorbonne 2 1 .Hansen U. , .Teulon C. , ; 2 ü ü ntttNational Institut se,Germany nster, se,M nster, 1,7 6 .Aimé C. , 1 ; n M.-C. and , 1 Laboratoire 7 .Bied M. , ; Université 3 Institute 3 ü 5 ü M. , 3 V. , nster, nster G. , 1 6 1 CLEO , , , ; ; oienc iMln,Mln Italy Milan, 2 Milano, di Politecnico Valle Rossi Laporta P. Polito Rossetti Mazzanti 17:30 A. Gel Agarose Loaded Nanoparticles Gold in Dynamics Conversion Light-Heat Dependent Aggregation THU EE-4.3 iatmnod hmc,Mate- Chimica, di Dipartimento ® 1,5 2 4 .Maiuri M. , .Pizzetti F. , Erp-QC2021 /Europe-EQEC ; 2 , 1 iatmnod Fisica, di Dipartimento OM9 ROOM 1,5 ∙ 1 .Schirato A. .Cerullo G. , .Moretti L. , 2 1 .Sacchetti A. , n .Della G. and , 1,3 1,5 1 L. , A. , F. , 2 , ; 135 rjc riaeabtaypatterns. arbitrary image or project to used subsequently be can sys- that tem the of mappings backward and forward the learning involves zation intensity- measurements. only from system optical com- plex a characterize to networks ral neu- on based method a propose We Switzerland Lausanne, Switzer- land Lausanne, EPFL, devices, 1 17:15 ∙ networks neural with systems measured partially of characterization Full THU JSIV-2.3 ue eplann o mg en- image for deep-learning duced intro- and parameters experimental optimised We limitation. main its time-eciency as with technique ing imag- promising a is imaging Ghost Africa the of South Johannesburg, University Witwatersrand, Physics, of Forbes School A. and Sephton, 17:30 B. Pinnell, J. ∙ imaging ghost quantum in recognition object Time-ecient THU JSIV-2.4 2 Kakkava .Rahmani B. .RdíuzFjro .Moodley, C. Rodríguez-Fajardo, V. aoaoyo ple photonics applied of Laboratory .Psaltis D. , ⋅ hrdy2 ue2021 June 24 Thursday ; 2 aoaoyo pis EPFL, optics, of Laboratory 2 .Borhani N. , OM10 ROOM 1 2 .Loterie D. , n .Moser C. and , characteri- e 2 .Tegin U. , 1 E. , 1 ; ; abetrpi n Funktionelle Grenz und Stuttgart, Halbleiteroptik Germany of Stuttgart, University (IFSW), 1 and ranges. X-band microwave K-band the in are repetition frequencies whose microcombs ton gain- soli- low-power-threshold we by generate lasers, produced semiconductor switched pulses coherent laser phase-engineered Using IrelandIreland Dublin, Dublin, 3 College Switzerland Lausanne, Lausanne, in Technology of Institute Kippenberg T. .Graf T. Brauch Liu J. Lakshmijayasimha Anandarajah B95TU17:30 W ∙ 8.5 of Power Average an W and 29.6 of Power Peak a Emitting VECSEL nm 750 Diode-Pumped Quasi-CW High-Power THU CB-9.5 17:15 ∙ Microcombs Soliton Driven Laser Semiconductor Gain-Switched THU CB-9.4 ..Weinert P.J. Weng W. ntttf Institut Dublin, University, City Dublin 1 1 ä 1 .Anandarajah P. , .Jetter M. , hn(HG,Cne for Center (IHFG), chen n .AduAhmed Abdou M. and , OM11 ROOM 1 1 .Kaszubowska- A. , 2 ü .Grossmann M. , .He J. , Strahlwerkzeuge r 1 ; 3 .Lucas E. , 2 1 ; .Michler P. , ws Federal Swiss 2 ntttf Institut ; 1 3 2 P. , and , Trinity 2 U. , ü 2 1 1 r , , ; ; NOTES
Thursday Orals Thursday Orals n tthn riat ta indus- rate. an processing trial at artifacts stitching any without coatings high-quality duce demon- pro- can patterning and raster that strate pulses UV fem- tosecond sepa- utilizing coating sapphire from GaN ration thin for nique tech- li-o laser rapid a present We nia Lithua- Vilnius, University, Vilnius 17:45 Sirutkaitis ∙ coatings GaN for technique li-o laser UV Femtosecond THU CM-6.6 mi- microoptics. and cromechanics microuidics, potential in for applications etching) se- glass and lective fabrication mode burst ing us- ablation (direct methods laser writing direct two femtosecond of the advanced drawbacks compare and advantages and investigate We .Piua,S uks n V. and Butkus, S. Paipulas, D. ; OM1 ROOM ae eerhCenter, Research Laser cutcmdsa eprtrsup to temperatures two at modes We on acoustic the pressure of and temperature inuence CS the ber. demonstrate sealed, optical fully liquid-core a inside measurements Brillouin integrated dependent temperature present We Sydney, Technology Australia Sydney, of University Research Sciences, Physical and Mathematical Materials Germany Jena, (OSIM), of Institute Germany Jena, nology, 6 Germany Optical 5 Advanced Erlangen, in Technologies, School uate Light, of Germany Physics Erlangen, - School Research Germany Erlangen, 3 Erlangen- of Nuremberg, University Light, Physics, of of Germany Science Erlangen, the for Institute n .Stiller B. and Marquardt .Junaid S. .Walter D. 17:45 ∙ ber CS hot in interaction optoacoustic Strong THU CD-9.6 n eso osblt fits of scheme. sum-frequency generation-based possibility using a stabilization show we cavity and into dispersion order higher introducing sig- by be increased nicantly can resonant oscillators doubly parametric of region locking .Geilen A. NSET qbc Canada Tech- Photonic of Institute Qqébec, Leibniz INRS-EMT, Planck Max International IMPRS, 136 ∘ 2 C. ldlqi-oeoptical liquid-core -lled 6,7 1,2,4 OM2 ROOM 1,2 ..Poulton C.G. , 1,2,3 .Chemnitz M. , ..Schmidt M.A. , 1,2 .Popp A. , ; ; ; 1 4 ; a Planck Max AT Grad- SAOT, 2 7 Department ; toSchott Otto 8 colof School 2 8 -lled C. , 1,2,4 6,7 5 CLEO , , , ; ; ; cdm fSine,Moscow, Sciences, Russia of Russian Academy Institute, Physics Prokhorov General Center, Research Optics Russia Sciences, of Moscow, Academy Russian tute, 3 RAS, Russia Novosibirsk, University, State SB Russia the Novosibirsk, of Electrometry and Babin Semjonov S. Wolf o tutrsi niiulcores presented. are individual in ran- structures and dom regular 2.5 fs-inscribed ber passive to with 7-core the up on power based ~1090 W output of with wavelength nm the at ating Italy Rome, Rome, 17:45 ∙ structures random and regular fs-inscribed with ber 7-core a on based laser ber Raman THU CJ-6.6 e- ciency. conversion power output and laser spectra include Results laser. .Dostovalov A. rkoo eea hsc Insti- Physics General Prokhorov eut fRmnlsrgener- laser Raman of results e ® 1 .Labuntsov V. , 1,2 ; Erp-QC2021 /Europe-EQEC ; 5 1 ainaUiest of University Sapienza nttt fAutomation of Institute OM3 ROOM 4 .Wabnitz S. , 1 .Skvortsov M. , ; 1,2 4 ; invFiber Dianov .Egorova O. , 2 Novosibirsk 2,5 n S. and , 1 A. , 3 , ; 136 K66TU17:45 ∙ M THU CK-6.6 beams. higher-order Bessel and single-mode zeroth- the into a ber transform from output to beam design crys- ber micro-printed photonic tal on 3D based a structure present We Arabia, Saudi Technology, and Science of University Abdullah King Division, Engineering and Science Mathematical and trical USA Bualo, USA, ens el Cruz la de Reynoso Monceaux r oaie nproi geodesics. periodic on localized are con- 1 a modes in lasing ned the that dicate in- calculations tracing ray and tions calcula- mode FDTD writing. Experiments, laser direct by microlasers Lebental Grigis A. Decanini D. efbiaeogncM 13, organic fabricate Paris We Université France Villetaneuse, Cité, Sorbonne Université Paris Applica- CNRS, et tions, Géométrie d’Analyse, France Palaiseau, Paris-Saclay, Université Nanotechnolo- CNRS, gies, de Guana- et Mexico Nanosciences of Léon, juato, University Lanzhou, Division, University, China Technology, and Lanzhou Science CentraleSupélec, Physical France ENS Gif-sur-Yvette, CNRS, Paris-Saclay, (LuMIn), Interfaces France Metz, Uni- Lorraine, 2 de CentraleSupélec, versité LMOPS, .Bittner S. aoaor uir,Mtéeet Matiére Lumière, Laboratoire ⋅ ö issrpmicrolasers strip bius hrdy2 ue2021 June 24 Thursday ; 2 4 6 ; cec n Engineering and Science 2 .Checoury X. , .Chao K. , OM4 ROOM 5 1 μ 1 .Dietz B. , .Song Y. , hi nPhotonics, in Chair -hc M m-thick wl ad Arabia Saudi uwal, ; 2,4 3 ; optr Elec- Computer, .Lafargue C. , ; ; 6 3 5 Laboratoire ö ö 5 3 .Zyss J. , etede Centre 2 isstrip bius n M. and , colof School isstrip bius H.M. , 2,3 Y. , 2 2 , , ; oaiainpaetransition. and phase PT localization simultaneous a measuring localization a studied, Furthermore, is extension non-Hermitian the transition. phase and Floquet Buttery Harper-Hofstadter the measure novel we where model, a Aubry-André-Harper experimentally and demonstrate propose We Germany Jena, Jena, University Italy Mi- lano, Ricerche, delle Nazionale Con- siglio di del Nanotecnologie Istituto e and Fotonica Milano di litecnico many Universit Szameit A. and Longhi Kremer M. 17:45 model Aubry-André-Harper Floquet a on based quasicrystals in transition phase non-Hermitian a of Implementation THU EC-6.5 helical of waveguides. arrays inscribed with me- dia nonlinear quadratic in inter- actions parametric soli- by of supported edge example ton topological rst Floquet the the present We Portugal Lisboa, Lisboa, de Universidade Ciências, Computacional, de Faculdade e Germany Teórica Física de Rostock, Rostock, 5 of Spain (Barcelona), 4 Castelldefels eatmnod íiaadCentro and Física de UniversityDepartamento Physics, for Institute oyadOtc,FidihSchiller Friedrich Optics, and eory ; 2 2 .Wimmer M. , iatmnod iia Po- Fisica, di Dipartimento ä otc,Rsok Ger- Rostock, Rostock, t ; 1 OM5 ROOM 3 , nttt fSldState Solid of Institute 1 ∙ .Weidemann S. ; 1 ntttf Institut 3 .Peschel U. , ü Physik, r 1 S. , 3 , ; ; custo ae pt 0 Hz. 100 to up rates acquisition CH and CO nm of 1570 Er:ber detection allows It femtosecond on laser. compact based continuous-ltering a spectrometer a Vernier of design rni rmetiscQi oddQ measurements. loaded in Q extrinsic in- from trinsic disentangle and can spec- it microresonators laser demonstrate to of technique troscopy the ply ap- swept- We in interferometry. axis cali- wavelength to frequency comb the brate frequency a use We Torres- Sweden V. Gothenburg, Technology, and , Company Karlsson 17:45 M. son, ∙ Interferometry Swept-Wavelength Frequency-Comb-Assisted THU CH-10.6 .TAAA .Y,ÓB Helga- Ó.B. Ye, Z. TWAYANA, K. ; OM6 ROOM hlesUiest of University Chalmers 4 t15 mwith nm 1650 at 2 at o ope aeilSystems, Material Universit Complex for R Conrad Wilhelm and Institut Physikalisches India technology, Kanpur, of institute Indian ulty, Israel Haifa, Technology, of – Institute Israel Technion Engineering, Hayat Electrical A. and htngnrto n Bell-state and analyzers. generation photon entangled- two-photon electrically-driven gain, enhanced applications multiple including for be can utilized structures Such in structures. Cooper-pairs of superconductor-semiconductor injected resulting evidence from correlations, pair photon demonstrate We Germany Kumar Balasubramanian A65TU17:45 ∙ Sources Light Semiconductor-Superconductor in Correlations Pair Photon THU EA-6.5 cavity. oil-lled our of nonlinearity thermo- optical strong the to due perature, .Bouscher S. ; 1 2 .Schneider C. , lcrclEgneigFac- Engineering Electrical ä W t ö OM7 ROOM te eerhCenter Research ntgen 1 ; ü .Panna D. , 1 zug Wurzburg, rzburg, 3 ; ehicePhysik, Technische 1,2 1 .Jacovi R. , eatetof Department 3 .Hoeing S. , 1 K. , 1 A. , 3 , ierotclsystems. classical optical linear using obtained be can precision that measurement achiev- phase the able derive on bounds we discuss Here and applications. ical clin- in and biology, physics, in used widely a is imaging Interferometric Austria Vienna, Biology, Computational and Structural of oratories,Department Austria VCQ, Vienna, Physics, of Faculty Vienna, de of France Collège Paris, France, Université, Normale PSL,CNRS, Sorbonne Ecole Université Supérieure, Brossel, LIPhy, Kastler France CNRS, Grenobles, Alpes, Grenoble Netherlands Science, Nanomaterials Utrecht, for stitute and Maestre .Bouchet 17:45 D. Techniques Imaging Interferometric Classical of Precision the on Bounds Fundamental THU CL-3.5 behaviour. mechanical deteriorated their agreement with in corneas, in keratoconic distribution ordered less evi- a We dence cornea. human in lamellae collagen of distribution orientation the polarization- characterize to microscopy genera- tion harmonic implement second resolved We France Saint-Aubin, University M Medicine, Hospital of loskeletal Fulda, Fulda, University Germany Campus Marburg, Fulda, Hospital many ∙ ; .Jumann T. 4,5 ; 4 .Conrad-Billroth C. , nvriéParis-Saclay, Université OM8 ROOM ü 3 1,2 se,M nster, nttt o Muscu- for Institute .Dong J. , ; 5 a euzLab- Perutz Max 4,5 ; ; ; ; ü 3 se,Ger- nster, 1 Laboratoire 4 2 ey In- Debye University Université 3 D. , 4,5 CLEO , 0f eprlad4mV( THz) (1 meV resolution. 4 spectral and sub- temporal with fs 10 selenide gallium bulk in dynamics exciton the track to precisely method unique pump a provides phase-locked pulses of sequence employing a spectroscopy Ultrafast Germany Konstanz, Konstanz, Luxembourg bourg, Spitzner 1 L. ∙ 17:45 Spectroscopy Electronic Two-Dimensional with Semiconductor Bulk a in Dynamics Exciton and Carrier Free Probing THU EE-4.4 grgtswt epc ocoated to nanoparticles. respect with aggregates in eciency release increased strate demon- experiments delivery Drug hydrogels. loaded of nanoparticles properties Au phototermal the ing, model- pump-probe numerical com- and ultrafast spectroscopy a of through bination investigate, We Italy Milan, Ricerche, delle CNR-SCITEC, Nazionale Consiglio Nanotecnologie, Italy Ricerche, Milan, delle Italy Genoa, Italy ”Giulio Milan, Milano, Chimica di Politecnico Natta”, Ingegneria e riali .Allerbeck J. nvriéd uebug Luxem- Luxembourg, du Université ® ; 3 siuoIain iTecnologia, di Italiano Istituto Erp-QC2021 /Europe-EQEC OM9 ROOM ; 2 ; n .Brida D. and , 5 1,2 4 siuod ooiae Fotonica di Istituto osgi Nazionale Consiglio .Deckert T. , ; 2 nvriyof University 1,2 1,2 , ; 137 mg eosrcintime. reconstruction image the in improvement 80% an recognition oering object and hancement vni hyaetosmall( too are size, they by if even them classifying and of them counting allows sizes dierent of particles of groups on scattered light the of analysis intelligence Articial Research Kingdom United , Southampton Southampton, of Optoelectronics University Centre, and 2 Singapore Singapore, University, cal Technologi- Nanyang Technologies, 1 eovdb h microscope. the by resolved Papasimakis Yuan 17:45 G. ∙ See to Small Too Particles of Counting Optical THU JSIV-2.5 ..Chan E.A. etefrPooi Metamaterials Photonic for Centre Photonic Disruptive for Centre ⋅ hrdy2 ue2021 June 24 Thursday 1 .Pu T. , OM10 ROOM 1 2 .Rendón-Barraza C. , n .I Zheludev I. N. and , 2 .Y Ou J.-Y. , λ 7 obe to /7) 2 N. , 1,2 1 , ; ; it auso 3 GHz. ~35 of values width band- chaos state-of-the-art with ics dynam- complex andspatiotemporally nonlinear, consis- su- novel, exhibit and timescale tently system three to a perharmonic shown as is operate feedback conjugate phase- with system delay optical An Metz, 57070 , France Belin Edouard Rue 2 Rue France Metz, 2 57070 , Belin CentraleSupélec,2 Edouard LMOPS, Wolfersberger 17:45 Sciamanna D. ∙ laser semiconductor in breathing chaotic Ultrawide-band THU CB-9.6 ohpm raadpm duty pump scaling and cycle. area by pump achieved Power both was power nm. 750 average scaling around an W 8.52 and of power W 29.6 peak of maximum VECSEL diode- a emitting quasi-CW AlGaAs-based a pumped present We of Germany University Stuttgart, En- Stuttgart, (SCoPE), Photonic of gineering Stuttgart Center Research and and (IQST), Science Technology Quantum Integrated .Malica T. nvriéd orie LMOPS, Lorraine, de Université . OM11 ROOM 1,2 1,2 ; .Bouchez G. , 1 hiePhotonique, Chaire 1,2 n M. and , 1,2 , ; NOTES
Thursday Orals Thursday Orals hnclsses eeprmnal eiyti hier- this verify experimentally me- We for suitable criteria systems. QNG chanical of hierarchy a derive We Republic Czech Brno, Sciences, of Academy Czech the of Instruments Scientic of aak nvriy lmu,CehRepublic Czech Olomouc, University, Palacky Č spin-VCSELs. established and better power to compared increased exibility with schemes laser vertical- cavity in temperature applications external spintronic room for basis at a structures providing dot-in-a-well InAs of photoluminescence the in memory spin demonstrate We United Kingdom Sheeld, Sheeld, of University Facility, Epitaxy Kingdom United Glasgow, Ltd, Lasers Kingdom United Glasgow, Strathclyde, of sity Ackemann Poland Warsaw, Telecom-munications, of Institute National Marciniak, Marian Chair: Session Postdeadline CLEO/Europe PD-1: 20:00 – 18:30 D21TU18:30 Podhora L. atom single a of states multi-phonon of non-Gaussianity Quantum THU PD-2.1 Universit Technische Holleitner, Alexander Chair: Session Postdeadline EQEC PD-2: 20:00 – 18:30 18:40 zero- a operation. continue microresonator. from Fabry-Pérot achieved ber 10-GHz been high-Q and has lines dispersion spacing comb line 8000 comb over with Microcomb Chen J. ∙ microresonator Fabry-Pérot ber zero-dispersion a from generation microcomb Broadband THU PD-1.2 18:30 Doogan J. structure gain dot quantum vertical-cavity temperature of room photoluminescence in memory spin for Evidence THU PD-1.1 M .Xa,T i .Ci .Zag .Hag .W,and Wu, K. Huang, Y. Zhang, H. Cai, M. Li, T. Xiao, Z. íp ü ircm ssaiie o oeta 5husof hours 15 than more for stabilized is microcomb e ce,Grhn,Germany Garching, nchen, 2 , ∙ .Slodi L. ; hnhiJa ogUiest,Saga,China Shanghai, University, Tong Jiao Shanghai 1,2 1 1 ; .Lachman L. , .Phutthaprasartporn S. , 1 UAadDprmn fPyis Univer- Physics, of Department and SUPA č ka 2 n .Filip R. and , 1 .Pham T. , 1 ; 1 eateto Optics, of Department 1 1 .Clarke E. , ; .Le A. , 3 PR National EPSRC ; š 2 undák ; Squared M 3 2 and , Institute 2 O. , ∙ ä T. t rh o pt 0poo ttsfrasnl motional single a oscillator. trapped-ion for a states of 10-phonon mode to up for archy rg oe f38 opesbet .f us dura- pulse 6.9fs to tion. compressible 388W of power erage reectivity- av- allow- unprecedented an broadening at on substrates Homogeneity=97.5%) spectral (M2<1.2, nonlinear silicon based degradation-free on for cell ing mirrors multipass silver enhanced a present We Ger- Jena, Engineering, many Precision and Optics Applied for Germany Jena, Physics, Applied of Limpert experiments. tum quan- Generation intensity, Photons Triple ob- generated further prepares and which are phase-matching experiments the Strong for and tained theory waveguide. ridge between micrometric agreements KTiOPO4 a in Besan Franche-Comté, de Université stitute, France Grenoble, Néel-CNRS, 2 Institut Grenoble-Alpes, Bassignot D15TU19:10 Kingdom United inburgh, ∙ Ultraviolet Deep the in Pulses Few-Femtosecond of Source Compact and Tuneable Bright, THU PD-1.5 19:00 ∙ duration pulse few-cycle supporting broadening cell multipass W 388 THU PD-1.4 18:50 Vernay A. waveguides THU PD-1.3 D22TU18:40 % >95 achieved. of a are yields Positioning using method. hBN emitters assembly of capillary single-photon thousands hosting of nanoplatelets arrays rectangular fabricate We Germany ster, M of University Nanotechnology, for Center Vasconcellos de Michaelis S. and ∙ emitters hBN single-photon of arrays large of assembly Capillary THU PD-2.2 .Bam n ..Travers J.C. and Brahms C. M M. ..Peß .Rd,J en .Shit .Bratschitsch, R. Schmidt, R. Kern, J. Rudi, E. Preuß, J.A. et-niern,Besan Femto-Engineering, r-amncGnrto t19 mwsperformed was nm 1594 at Generation ird-Harmonic r-re olna pisi T ridge KTP in optics nonlinear ird-order ; ü 3 emot-nttt ea ea Germany Jena, Jena, Helmholtz-Institute 1,2,3 ller 2 .Chauvet M. , 1 1 ; .Boutou V. , .Buldt J. , 1 rerc cilrUiest ea Institute Jena, University Schiller Friedrich CLEO 1 .Stark H. , 3 and , ® 1 .Felix C. , ç Erp-QC2021 /Europe-EQEC ; n France on, eitWt nvriy Ed- University, Heriot-Watt ∙ .Boulanger B. ; 1 nttt fPyisand Physics of Institute .Grebing C. , ; 2 ruhfrInstitute Fraunhofer 1 .Jegouso D. , ; 3 ET-TIn- FEMTO-ST 1 ç ü ; n France on, se,M nster, 1 University 1,2 n J. and , 1 F. , OM1 ROOM OM2 ROOM ü n- ; 138 ihgi atro . n h pcrmcvrn 2-2.6 tion. covering spectrum the and power 4.2 output of average factor of gain with 1.5W providing by diodes, pumped directly laser amplier Cr:ZnS rst the report We Germany Garching, Optics, Quantum M K Kutató Ujjlenyomat uaet Hungary Budapest, Krausz edmntaeabih n opc oreof bre. capillary hollow source emission gas-lled wave in dispersive resonant compact on based and pulses laser ultraviolet bright deep few-femtosecond a wavelength-tuneable demonstrate We D16TU19:20 ∙ amplier Cr:ZnS femtosecond diode-pumped 1.5-W THU PD-1.6 D23TU18:50 Roberts C. ∙ Circuits Photonic Programmable Nonvolatile for Materials Change Phase Low-loss of Switching Electrothermal On-chip THU PD-2.3 19:30 Hallman K. Volckaert ∙ dioxide vanadium in transition phase light-induced the of imaging holographic X-ray Time-resolved THU PD-1.7 lcrclydie hs hrbsdo h low-loss and the on ultra-compact, based shier nonvolatile, phase a electrically-driven demonstrate We USA FL, Orlando, , Science Florida, Materials Central of University of Engineering, Department and Photonics, & Optics of USA MA, Lexington, Technology, of stitute USA MA, bridge, Cam- Technology, of Institute Massachusetts Engineering, Vitale .HnPark Han S. Germany Universit Technische Physik, Atomare Korea South Seoul, University, Denmark Aarhus, sity, Spain (Barcelona), 2 Castelldefels Sciences, Photonic of tute eeao aoaoy oag ot Korea South Pohang, Laboratory, Spain celerator Vallès, del Cerdanyola Source, Light USA Nashville, University, derbilt μ .Qu S. .Ríos C. Johnson A.S. eateto hsc n srnm,Aru Univer- Aarhus Astronomy, and Physics of Department ⋅ hc uprsa4f rnfr-iie us dura- pulse transform-limited 40fs a supports which m ü hrdy2 ue2021 June 24 Thursday ce,Grhn,Germany Garching, nchen, 2 1,2,3 n .Hu J. and , 1,2,3 1 .Du Q. , ; 2 .P M. , .Majchrzak P. , 5 2 .Weigel A. , eateto hsc n srnm,Van- Astronomy, and Physics of Department 5 7 .Kang M. , .Haglund R. , .Kim H. , 1 .PrzSalinas Perez D. , ö 1 ; tzlberger .Zhang Y. , 1 2 ; icl aoaoy ascuet In- Massachusetts Laboratory, Lincoln 1 ; eateto aeil cec & Science Materials of Department 3 1,2,3 n .Wall S. and , 2 ; 3 ö Ludwig-Maximilians-Universit ..Richardson K.A. , 2 3 hsn opotK (CMF), K Nonprot zhasznú .Kim S. , eateto hsc,Sogang Physics, of Department n ..Mak K.F. and , 5 3 .Valvidares M. , .Sebesta A. , 1 .Shalaginov M. , ; ; 3 3 4 a lnkIsiueof Institute Planck Max .Choi S. , ntttf Institut ; 1,2 1 6 .Siddiqui K. , LASynchrotron ALBA ; 1,2,3 1 ä CO- ICFO eln Berlin, Berlin, t 3 ; 3 .Pervak V. , 6 ; ; 3 ü 1 .Gunther C. , .Ulstrup S. , .Gu T. , 7 Molekuláris- 3 pi und Optik r 1 oagAc- Pohang .Miller P. , College e Insti- e 2 1 K. , 2 S. , F. , ä 4 2 2 t , , , ; D24TU19:00 Denmark Lyngby, Portugal Denmark Odense, mark, USA Cambridge, nology, Spain Barcelona, ences, Mortensen N.A. ∙ Plasmons Graphene by Probed Metals of Surface-Response Quantum THU PD-2.4 pair a of state resonators. joint nanomechanical the of 19:50 onto polarization- state we input a optical Here encoded of teleportation quantum protocols. demonstrate communication dis- long quantum in component tance key a is teleportation Quantum Hangzhou, Device, China and Technology Quantum of oratory Brazil Campinas, Center, Netherlands Del, Nanoscience, of Li ∙ teleportation quantum Optomechanical THU PD-1.9 signals. XUV the interference as two spectra of We photoelectron delay angularly-resolved delay. utilized the 0-attosecond the scanning from by pulses atom high-harmonic He 19:40 a in 1s2p state the of interference Ramsey-type demonstrated We Japan 8656, Japan 113-0033, Tokyo Science, Japan Saitama Wako-shi, 351-0198, Hirosawa, 2-1 Photonics, Advanced Yamanouchi ∙ interference Ramsey-type and optical Attosecond THU PD-1.8 Pekka-Jauho iuu hs ouaino pt 0.09 to switches. up 2 and of micro-rings, MZIs, recongurable demonstrate modulation phase con- achieve We tinuous SOI. on Sb2Se3 material phase-change nXryfe lcrnlsrt efr h rst the perform transition. light-induced a phase to in growth domain of laser resolu- measurements tion nanometer-spatial electron at and free holography femtosecond-temporal X-ray X-ray resonant an time-resolved use We ...Gon P.A.D. Fiaschi N. Matsubara T. 1,3 nvriyo oy,731Hno uko oy 113- Tokyo Bunkyo, Hongo, 7-3-1 Tokyo, of University e ...Alegre T.P.M. , ; 5 1 nvriyo oy,731Hno Bunkyo, Hongo, 7-3-1 Tokyo, of University e ehia nvriyo emr,Kongens Denmark, of University Technical .Hensen B. , 2 5 ç n .Midorikawa K. and , .Epstein I. , alves 1,2 3 ; ; .Nabekawa Y. , ; 1 2 1,2,3 6 2 CO— ICFO eateto hmsr,Sho of School Chemistry, of Department e vvUiest,TlAi,Israel Aviv, Tel University, Aviv Tel n .Groblacher S. and , .Christensen T. , ; 1 ; 3 .Wallucks A. , 2 6 rdaeSho fEngineering, of School Graduate ascuet nttt fTech- of Institute Massachusetts ; .Koppens F. , ; ; 3 4 3 nvriyo otenDen- Southern of University nvriyo ih,Braga, Minho, of University hjagPoic e Lab- Key Province Zhejiang nttt fPooi Sci- Photonic of Institute e 1 ..Ishikawa K.L. , ; 1 ; 2 1 1 htnc Research Photonics .Benevides R. , 1 .Soljacic M. , IE etrfor center RIKEN 1 2 ; .Peres N. , 1 al Institute Kavli π / μ and m 2 3 4 and , 1,2 K. , A. , × J. , 2 1 Austria Vienna, Sciences, 5 of Academy Austrian IQOQI, – China Beijing, University, Normal 4 Capital Sciences, cal China Beijing, Sciences, mation Lewenstein experiments. innovative for way geometry the double-foci paves sequential a in charac- pulses simultaneous of the terization and line delay IR-XUV stabilized solids. attosecond tively in for spectroscopy beamline reection pump-probe novel a present We Milano, Tecnologia, Italy di Italiano Istituto nology@PoliMi, Italy Padova, CNR, Milano, Italy IFN-CNR, Nanotechnologies, and Photonics for Italy Milano, Milano, di Politecnico Physics, of Univer- China Peking Beijing, Physics, sity, of School Physics, Mesoscopic for Gong Poletto Marcus M. ..Ansari I.N. elds polarized circularly counter-rotating bichromatic plasmonic-enhanced with pulses attosecond of polarization Controlling THU CG-P.2 Moscardi ∙ Spectroscopy Reection Transient Attosecond for Beamline Double-Foci THU CG-P.1 Session Poster CG CG-P: 11:00 – 10:00 19:10 Bao ∙ Chip Nanophotonic Quantum a on Duality Wave-particle Multi-path Generalized of Demonstration THU PD-2.5 in data. experimental from ex- it be infer supported metals and can of surface-response this quantum the how probe show to ploited we plasmons record-high Here, of connement. capable light are graphene structures graphene–metal Acoustic .Inzani G. Chen X. ninIsiueo ehooyBma,Mma,In- Mumbay, Bombay, Technology of Institute Indian Technology, and Science Quantum for Center Vienna Information Quantum and Optics Quantum for Institute 1 ; .Zhai C. , 1,2,7,8,9 3 nttt o htnc n aoehoois IFN- Nanotechnologies, and Photonics for Institute 3 .Nisoli M. , 1 4 .Deng Y. , ..Dolso G.L. , 1 4,5 4,5 ..Lucarelli G.D. , 1 n .Wang J. and , , .Tang B. , ..Ciappina M.F. , 1 .Dai T. , ∙ .Hofmann C. ; 1,2 1 ; 2 .Liu S. , 4 ejn cdm fQatmInfor- Quantum of Academy Beijing n .Lucchini M. and , etrfrNn cec n Tech- and Science Nano for Center 6 .Yang Y. , 1 1 .D Palo Di N. , .Yuan H. , 1,2,7,8,9 1,2 1 .Pramanik T. , .Moio B. , 2,3 6 4,6,7,8 .Medi L. , ; .Li Z. , ; 3 1 1 colo Mathemati- of School .Guo J. , tt e Laboratory Key State n .Dixit G. and , 1 6 .Frassetto F. , 1,2 .He Q. , 1,2 .Fabris N. , ; 1,2 š 1 1 auskas .M Fei S.-M. , Department .Mao J. , ; 1,2,7,8,9 2 Institute 2 M. , ac- e 3 3 1 L. , Q. , L. , J. , 3 1 , ; ; ; n h tegho h lsoi edehneor enhance pulses. attosecond of eld ellipticity the plasmonic thus modifying trajectories, the electron recombining of certain suppress strength the and enhancement. inhomogeneous with spatially eld laser counter-rotating bichromatic a apply We Israel Haifa, Technology, of Institute China Shantou, Technology, of stitute Republic Czech Prague, 6 Spain Barcelona, Technology, Germany Dresden, Systems, dia demonstrated. du- is multi-path relation Bohr’s ality of generalization experimentally the and are the veried framework in particle-nature multi-path and generalized Wave- nanopho- silicon chip. integrated quantum tonic large-scale a ex- on delayed-choice multi-path periment generalized a report We Nan- Optoelectronics, China of tong, Institute Delta Yangtze versity China Taiyuan, University, Shanxi Optics, Bei- University, Peking China Matter, jing, Quantum of Center tion Innova- Collaborative & Nano-optoelectronics for China Center Beijing, Sciences, of Academy Austria Vienna, g oe f1. Wi igehroi iea 26.5 at line harmonic single presented. a is in eV mW aver- 12.9 record of a fs power in 18.6 age resulting power, nm, average W 515 50 a at pulses by driven generation harmonic Germany High Jena, 07745 Engeneering, Precission and Optics Fotoniques, cies Kingdom United London, don, 74 ea Germany Jena, 07745 Germany Jena, 07743 Jena, Germany Jena, 07745 Jena, Uni- Schiller versity Friedrich Photonics, of Center Abbe Physics, Rothhardt J. nbe yasb2 svsbelaser ∙ visible fs sub-20 a eV by 26.5 enabled at generation harmonic high mW 12.9 THU CG-P.3 19:20 Kingdom United Edinburgh, University, Watt Watanabe ∙ superlattice MoSe moiré a in states electronic correlated Strongly THU PD-2.6 .Klas R. Campbell A. nttt fPyiso h SR L emie Project, Beamlines ELI ASCR, the of Physics of Institute ; 2 a lnkIsiuefrtePyiso Complex of Physics the for Institute Planck Max 1,2 2 .Kirsche A. , ; .Taniguchi T. , 1,2,4 8 olbrtv noainCne fExtreme of Center Innovation Collaborative 1 CLEO .Brotons-i-Gisbert M. , n .Limpert J. and , ; 6 nttt fMcolcrnc,Chinese Microelectronics, of Institute acln nttt fSineand Science of Institute Barcelona e 1,2 ; ; 4 .Buldt J. , 7 ® 2 ruhfrIsiueo Applied of Institute Fraunhofer undn Technion–Israel In- Guangdong n ..Gerardot B.D. and , ; Erp-QC2021 /Europe-EQEC 3 cieFbrSsesGmbH, Systems Fiber Active ; ; 5 ; CE,Breoa Spain Barcelona, ICREA, 3 1,2,4 4 1 nvriyCleeLon- College University CO-Isiu eCien- de Institut - ICFO .Stark H. , ; ; 2 1 ; emot Institute Helmholtz nttt fApplied of Institute ; 7 1 rnir Science Frontiers 8 .Baek H. , Technion–Israel ; 1 .H S. , 9 eigUni- Peking direction e ; 1 2 ; National 1 ä 2 Heriot- drich /WSe 1 K. , OM2 ROOM OM1 ROOM 3 2 , ; 139 versit many 7 detuning. frequency the a func- of incorporating a tion as resonator dynamics bre the investigate and a modulator phase use We lattice. tonic pho- synthetic one-dimensional a in tem- solitons cavity of poral generation the demonstrate experimentally We France Dijon, Bourgogne, de Carnot Zealand New Auckland, doping. hole are for g-factors observed landé H- exciton extraordinary gate-tunable dependent tor a in MoSe states stacked excitons electronic intralayer correlated moiré of and formation the observe We Japan Tsukuba, Science, Materials of Institute Maximilians-Universit Germany Garching, Canada (Qc), 4 Germany Hamburg, ence, 19:30 Physics, of Department tre, Belgium Bruxelles, Bruxelles, de Fatome J. and ∙ synthetic lattice a photonic in solitons cavity temporal of Observation THU PD-2.7 fCeityadApidBocecs aoaoyof Laboratory Z Biosciences, ETH Applied Chemistry, Physical and Chemistry Germany of Hamburg, Hamburg, of versity Calegari F. Légaré F. Seiert L. Saraswathula K. Comb ∙ XUV an by ionized Clusters Water large of Spectroscopy Photoelectron Angle-resolved THU CG-P.5 around delay minimum. group Cooper electron the the of techniques situ variation situ a in in measure that attosecond show and two-color argon in collinear measurement a simulate We Canada Ottawa, Ottawa, of sity ∙ in Minimum Argon Cooper the of Measurement Situ In THU CG-P.4 .Englebert N. .Colaizzi L. Corkum P.B. and Ko, D.H. Zhang, C. Brown, G. nttt fPyis nvriyo otc,Rsok Ger- Rostock, Rostock, of University Physics, of Institute ntttNtoa el ehrh cetu,Varennes Scientique, Recherche la de National Institut ⋅ hrdy2 ue2021 June 24 Thursday ä ; abr,,Hmug Germany Hamburg, , Hamburg, t 8 4 7 ..Kling M.F. , abr etefrUtaatIaig Uni- Imaging, Ultrafast for Centre Hamburg e ..Herzig E.A. , 1,2,8,9 1,2 ; 2 1 2,3 5 .Ban L. , /WSe .P Gorza S.-P. , a lnkIsiueo unu Optics, Quantum of Institute Planck Max 1 ; ; ..M E.P. , 1 1 PR-htnqe nvriélibre Université OPERA-Photonique, etrfrFe-lcrnLsrSci- Laser Free-Electron for Center ; 2 or eeotutr.Fligfac- Filling heterostructure. moiré 6 5,6 ä eateto hsc,Ludwig- Physics, of Department M t 3 ; .Trabattoni A. , .Fennel T. , 7 å .Cartella A. , 3 ; nsson aoaor Interdisciplinaire Laboratoire ü ü ce,Grhn,Germany Garching, nchen, 2 1 hsc eatet Uni- Department, Physics .Leo F. , ih Z rich, nvriyo Auckland, of University e ; 1 2 .Rupp P. , 7 .Signorell R. , ü odWlsCen- Dodd-Walls e ih Switzerland rich, 1 .Erkintalo M. , 1,8 1 ; ; .Wanie V. , ..Yoder B.L. , 5,6 3 9 Department nttt for Institute .Liu Q. , ; Univer- 3 and , 5,6 1,4 2 3 , , , , ; ; otiuin ob sdfrtm-eovdattosecond time-resolved monomer for water used the spectroscopy. from be signature extreme- isolated to clean an was contribution, A clusters by the train. ionized of pulse spec- clusters attosecond water ultraviolet photoelectron of angle-resolved troscopy performed We Italy Milano, , CNR-IFN, Nanotechnologies and Photonics Jojart .Buldt J. Simon P. propaga- radiation harmonic tion. and dynamics, wave- function electron propagation, pulse pump including tions simula- numerical full-scale by generation capillaries argon-lled radiation laser in high-energy pump coherent dierent for of systems performance the compare We Kingdom Southampton, United Southampton, of University Centre, Research electronics ∙ system laser ELI-ALPS HR2 the of Status pulses: few-cycle CEP-stable high-pulse-energy and High-average-power THU CG-P.7 ∙ Systems Laser Dierent by Driven Generation High-Harmonic Capillary-Based THU CG-P.6 19:50 op- crossed two to cavities. coupled tical atom single a with detector such a implemented We transmission. qubit the track detectorsthat qubit photonic nondestructive by mitigated be Spain Castelldefels, Germany ing, Rempe Niemietz D. 19:40 qubits photonic of detection Nondestructive THU PD-2.9 techniques 0.65. of Our population phonon a reaches feedback. state ground measurement-based motional using the cool to and motion nanoparticle center-of-mass dielectric its a levitate optically We Z Novotny Rossi, L. and M. mer, Mattana, M.L. Tebbenjohanns, F. nanoparticle levitated a of cooling Ground-state THU PD-2.8 .H S. Horak P. and Brocklesby, W.S. Senior, S.M. ü ui ospolmi unu omncto can communication quantum in problem loss qubit e ih Switzerland rich, 6 ä .Seres I. , 1 drich ; 2 1 .Stark H. , 4 a-lnkIsiu f Max-Planck-Institut .Blumenstein A. , 1 1 .Shestaev E. , , ; ∙ 2 .Farrera P. 6 COIsiu eCece Fotoniques, Ciencies de ICFO-Institut .Varallyay Z. , 2 ; .Gebhardt M. , htnc aoaoy T Z ETH Laboratory, Photonics 1,2 2 4 .Walther N. , .Klenke A. , .Langenfeld S. , ü uneotk Garch- Quantenoptik, r 6 .B A. , 2 .Breitkopf S. , 2,5 ö 1 .Klas R. , rzs .Nagy T. , 1 ∙ ö n G. and , .Frim- M. nyi ; ü Opto- 6 1 rich, T. , P. , 2,5 3 , ,
Thursday Posters Thursday Posters us opeso i trcino ucceSIT-like subcycle pulse. of incident of attraction components via compression single-cycle of pulse way robust novel a theoretically study We Excel- of Germany Hannover, Cluster PhoenixD, and lence Hannover University Leibniz tics, Russia Petersburg, St. Russia tute, Petersburg, St. University, State burg a,Netherlands dam, Netherlands dam, 1 Demircan Friedrich-Schiller-Universit Photonics, of Center Abbe Germany Jena, GmbH, Eidam EP EPse Session Poster EE EE-P: 11:00 – 10:00 ∙ Plasmas Produced Laser in Generation Harmonic High-Order Towards THU CG-P.10 in pulses. from THz control intense reaction the of studies facilitates approach experi- pump ments. XUV/attosecond or explosion Coulomb from processes photodissociation neutral the vestigating in- allows spectroscopy emission FT-VIS -resolved Time Hungary Szeged, ∙ spectroscopy resolved FT-VIS time via processes Explosion Coulomb from dynamics photodissociation Chemistry: Exploring Driven Field Electric Terahertz for Vision THU CG-P.9 ∙ Attraction Soliton Transparency on Self-Induced Based Pulses Optical Single-Cycle of Compression THU CG-P.8 Ger- Berlin, Spectroscopy, Pulse Short many and Optics ear Germany Jena, Jena, many .%RSoe hours. of 9 stability over >1 power RMS excellent delivers 0.3% with It pulses fs 300 system. mJ, HR2 10 kW, ELI-ALPS the sta- of CEP bilization and compression pulse on progress present We Germany Jena, Engineering, Precision and Optics Hungary Szeged, ALPS, .Mathijssen J. Sarosi K. and Mogyorosi, K. Chikan, V. Arkhipov R. dacdRsac etrfrNanolithography, Amster- for Center Research Advanced ; ; 1 5 4 n .Limpert J. and , emot-nttt ea ea Germany Jena, Jena, Helmholtz-Institute ae-aoaoimG Laser-Laboratorium 3 .Morgner U. , ihrslto TVSdtcinscheme detection FT-VIS high-resolution e 1,2 1 .Witte S. , .Arkhipov M. , ; 2 aeLb rj nvriet Amster- Universiteit, Vrije LaserLab, ; 3 ; 3 ; a onIsiuefrNonlin- for Institute Born Max 7 n .Rosanov N. and , ruhfrIsiuefrApplied for Institute Fraunhofer 1,2,5,7 2 nttt fApidPhysics, Applied of Institute 1,2 ; 3 n ...Eikema K.S.E. and , nttt fQatmOp- Quantum of Institute ö ; tne,G ttingen, 1 1 .Babushkin I. , cieFbrSystems Fiber Active ö 2 tne,Ger- ttingen, ; ; ; 1 2 ELI-ALPS, t Peters- St. oeInsti- Ioe ; 3 6 A. , ELI- 1,2 ä t ; aoaaeg oe r ieetfo ukmodes. bulk from dierent are modes edge Majorana transition. sen- phase is HHG to phase. sitive topological its in Ma- modes hosts edge that jorana model Kitaev 1D from HHG simulate We India Mumbai, Bombay, Technology of two of combination the elds. polarized using circularly counter-rotating by graphene valley- in eration light-induced gen- high-harmonic and demon- achieving excitation valley-selective we strate Here impossible. that is graphene in assumed polarisation is It Germany India Mumbai, Bombay, in produced plasmas. spectra those analysing generation of harmonic means by high-order plasmas laser-produced of character- temporal istics and al- spatial that the investigate experiment to us pump-probe lows a developed have We ∙ harmonic spetroscopy high in fermions Majorana of Fingerprints THU CG-P.13 Galan ∙ graphene pristine in valleytronics Light-induced THU CG-P.12 free-electron. a in by explore laser-photons of to theory emission plots Hartemann-Kerman intensity laser the employed versus with is shied-frequency paper particles, this new in identify to Physics Energy Peru Lima, ∙ Interactions of Light-Matter Electrodynamics Classical in Plots Dalitz THU CG-P.11 elTm td fCeitn ttsi ae Cavity Laser Solitons in States Coexisting of Study Real-Time THU EE-P.1 a using and conditions trapping Optimal population minimising molecules. en- require strong-eld in of ionisation analysis hanced phase-space a perform We dom Faria ∙ ionisation enhanced and in Interference non-classicality – space phase in bridges Quantum THU CG-P.14 .Ptaaa,S uai n .Dixit G. and Pujari, S. Pattanayak, A. Shylaja Muraleedharan M. Nieto-Chaupis H. .Coe,D akr n .Fger eMorisson de Figueira C. and Sarkar, D. Chomet, H. aizstcnqecmol ple tHigh- at applied commonly technique Dalitz’s e ; 2 nvriyCleeLno,Lno,Uie King- United London, London, College University n .Ivanov M. and , CLEO ; nvria uóoadlPerú, del Autónoma Universidad 2 ® ; ; 1 ninIsiueo Technology of Institute Indian 2 Erp-QC2021 /Europe-EQEC a onIsiue,Berlin, , Institute Born Max 1 ouaindnmc of dynamics population e .Dixit G. , ; ninInstitute Indian 1 .Jimenez- A. , OM1 ROOM OM2 ROOM 140 h oeo nebn n nrbn polarizations. intraband and interband of role elucidate to the calculations TDDFT with compared stud- and been ied has orientation crystal on harmonics of dence .SbsinTtr Gongora Totero Sebastian J. observed. been have geometry silicon reection in in 8.1eV to up harmonics high Non-perturbative Republic Prague Czech 12116, 2, 3, Karlovu Ke University, Charles Physics, ∙ silicon in harmonics VUV non-perturbative of dependence Angular THU CG-P.15 .Little B. and axis polarisation the to conned longer no is rescatter- revealing ing states, Ap- excited probe Strong-Field to Orbit proximation Quantum Coulomb the use We dom Faria ∙ THU CG-P.18 foils. ultra-thin of case the in unusual observed some eects revealing regime simulations this kinetic discuss We present frequency. and plasma the to close is frequency collision the because eects, collisional highly California, USA Ranch, Hungary Foothill Szeged, 19631, Pauling 3., Technologies, Str. Sandner Wolfgang Ltd., Hungary Szeged, Szeged, of University Laboratory, Transmutation Laser-Initiated ∙ Laser-Foil Interactions High-Contrast in Pesdetal Pulse of Eects THU angle- CG-P.17 and energy- setup. pump-probe via in streaking pulses attosecond resolved attosecond twisted of modes Laguerre-Gaussian in encoded momentum gular India Mumbai, Bombay, Technology ∙ Pulses Attosecond Twisted of Streaking Attosecond Angle-Resolved THU CG-P.16 gradient. eld the along pathways ionisation into to feed mechanism bridging induced quantum-interference ∙ .Sta n .Kozák M. and Suthar P. ..Ba,A awl,adC iuiaD Morisson De Figueira C. and Maxwell, A. Bray, A.C. Lécz Z. Dixit G. and Jadoun, D. Ansari, I. .H Hanzard P.-H. ⋅ ae-oi neato tlwitniisinvolves intensities low at interaction laser-solid e an- orbital of amount the investigates work present e newees-Byn onTp Methods Born-Type Beyond - Inbetweeners e hrdy2 ue2021 June 24 Thursday ; nvriyCleeLno odn ntdKing- United London, , London College University 1,2 3 .Morandotti R. , .Necas A. , 1 .Rowley M. , 3 n .Ter-Avetisyan S. and , ; 2 ; L-LS L-UNon-Prot ELI-HU ELI-ALPS, 4,5 aut fMteaisand Mathematics of Faculty 1 .Moss D. , 1 .Peccianti M. , .Cutrona A. , ; ninIsiueof Institute Indian 6 .Wetzel B. , 1 1 ; .Chu S. , 1 1 n A. and , depen- e National ; 3 TAE 7 2 , , Lei hntetikeso inn l s21 nm. strongest 2-15 the is is lm nano HHG Si the of that thickness on the show from when We transmission based lms. and nano reection Si calculations in HHG rst-principles for TDDFT present We Japan Tsukuba, ∙ lms nano of laser-irradiated eciency HHG maximize to thickness the determining for calculations First-principles THU CG-P.21 resonator. mea- the is in one sured than smaller refraction plasma Optical light interaction. enhanced resonantly [CW] micro- con- time containing in a tinuous demonstrate plasma experimentally a then and fabricate resonator, and design We Israel Jerusalem, Japan Okinawa, ence, Israel Haife, Technology, of Gad R. Bathish B. microcavity optical Plasma-lled THU CG-P.20 ∙ Beams Bessel-X Pulsed Polarized Radially Chirped using Acceleration Electron of Investigation THU CG-P.19 3 dom Pasquazi by eect Doppler chirp. counteract temporal beam to using laser possible is pulsed it a that in shows dynamics electron acceler- Single electron for ation. velocities beams Bessel-X group non-diracting superluminal of and subluminal use We Lithuania Vilnius, , Technol- and ogy Sciences Physical for Center institute search pho- non-vanishing signal. a toelectron for responsible orbits the identify .Ymd n .Yabana K. and Yamada S. Laurinavi K. ia nttt fOtc n rcso ehnc,Xi’an, Mechanics, Precision and Optics of Institute Xi’an 2 .Ward J. , ; 2 3 nvriyo ogKn,Hn og China Kong, Hong Kong, Hong of University n .Carmon T. and , 1 ; 1 .Hyams I. , 1 nvriyo usx amr ntdKing- United Falmer, Sussex, of University 2 č .Kasumie S. , u,S ro,adG Bra G. and Orlov, S. ius, ; 4 e vvUiest,TlAi,Israel Aviv, Tel University, Aviv Tel ; 1 3 .Kreps S. , erwUiest fJerusalem, of University Hebrew 2 4 ..Chormaic S.N. , ; ; 2 1 ; knw nttt fSci- of Institute Okinawa ehin salInstitute Israel Technion, nvriyo Tsukuba, of University 1 , ∙ .Douvidzon M. ž d ž i unas ¯ 2 .Cohen O. , ; tt re- State 1 F. , 1 , ; dom France New-Zealand high- signicantly. and dier dis- trubutions low-frequency angular the for are radiation THz that eld of components shown frequency electric is external It in generated studied. lament radiation single-color THz a the in of distributions Angular Russia Russia Moscow, University, Moscow, State Moscow RAS, of Institute Russia Region, Moscow prudny, 1 io,France Dijon, Coen Oppo L. Nikolaeva Mokrousova D. iu,w hwtesmlaeu rsneo ohLCS both modulation. background of a presence and simultaneous the Micro- show we (LCS) tech- Transform nique, Fourier Solitons Dispersive the Cavity using By Laser combs. in states co- two existing of presence the demonstrate experimentally We ∙ resonators Kerr passive driven coherently in structures localized two-component of self-symmetrization of observation Experimental THU EF-P.1 Session Poster EF EF-P: 11:00 – 10:00 Field ∙ Electric Static in Filament Laser Femtosecond from Radiation THz of Components Spectral Dierent of Distribution Angular THU EE-P.3 pulse. polar THz short long-lasting asymmetric-top single a the and by molecules of symmetric- phenomenon of novel orientation a present We Averbukh ∙ Pulse THz Single a by Induced Orientation Molecular Long-lasting THU EE-P.2 China tralia Chengdu, Technology, and 6 Science Electronic China .Fatome J. Rizaev G. I.S. and Prior, Y. Gershnabel, E. Tutunnikov, I. Xu, L. ocwIsiueo hsc n ehooy Dolgo- Technology, and Physics of Institute Moscow wnun nvriyo ehooy aton Aus- Hawthorn, Technology, of University Swinburne 2 ; ; ; 7 ; nvriéd ioe,Lmgs France Limoges, Limoges, de Université 4 4 nvriyo tahld,Gagw ntdKing- United Glasgow, Strathclyde, of University NSET aens Canada Varennes, INRS-EMT, 4 1 ; 2,3 ..Murdoch S.G. , NSUiest Bourgogne-Franche-Comté, CNRS-Université 1,2 ezanIsiueo cec,Rhvt Israel Rehovot, Science, of Institute Weizmann 1,2 .Seleznev L. , .Koribut A. , ; .Xu G. , ; 3 2 nvriéPrsSca 2,Palaiseau, C2N, Paris-Saclay Université 2 .Shipilo D. , nvriyo ukad Auckland, Auckland, of University e 2 .Garbin B. , 2 2 .Kosareva O. , .Grudtsyn Y. , 2 .Erkintalo M. , ; 2,3 2 ..LbdvPhysical Lebedev P.N. .Panov N. , ; 3 3 .Berti N. , 2,3 ..Lomonosov M.V. 2 .Pushkarev D. , ; n .Ionin A. and , 5 nvriyof University 2 n S. and , 2,3 1 G.- , I. , 2 2 , ; ; ue ihupeeetdrobustness. unprecedented with tures struc- vectorial of dynam- localized emergence symmetry-broken spontaneous ip-opping the enabling to self-symmetrization, and leads ics resonator Kerr driven coherently passive two-component a within introduced a how demonstrate We ierdnmc nary fculdmlioeop- multimode coupled of arrays in dynamics non- linear and formation pattern investigate theoretically We Lausanne,Switzerland (EPFL), Lausanne Technology of Institute eral ∙ microresonators multimode coupled of array in dynamics nonlinear Spatio-temporal THU EF-P.2 domain. frequency optical in broadcasting radio eect of the being indicating continuum, demonstrated entire is the to and transferred introduced fre- is radio comb a quency where waveguides, nonlinear in generation supercontinuum dual-comb investigate experimently we China hai, ∙ generation supercontinuum dual-pulse of response Fast THU EE-P.6 50 numerically obtain We Spain Salamanca, Salamanca, of sity ∙ visible the in pulses energetic few-cycle generate to capillaries gas-lled through beams necklace-shaped of propagation Nonlinear THU EE-P.5 acceleration. in- electron including laser-matter teraction strong-eld on are Implications sym- metry. cylindrical with broken and pulses couplings tightly- laser spatio-temporal of radially-polarized properties ultrashort the showing focused model a present We Belgium Brussels, Brussel, Universiteit Vrije Photonics, and Physics ∙ symmetry broken and couplings spatio-temporal having beams laser radially-polarized Ultrafast THU EE-P.4 o-da empolsi discussed. is proles beam non-ideal capillary. gas-lled in pressures a constant dierent for soli- self-compression with together ton modulation self-phase by beams lace .Tsi,A ia,adT Kippenberg T. and Tikan, A. Tusnin, A. Guo H. and Liu, T. Chu, Y. Jarque Conejero E. and Roman, San J. Crego, A. Jolly S. ; rsesPoois(-HT,Dp.O Applied Of Dept. (B-PHOT), Photonics Brussels CLEO π ® paesi iernetdefect birefringent shi -phase outeso h rcs to process the of robustness e ; Erp-QC2021 /Europe-EQEC hnhiUiest,Shang- University, Shanghai μ lrsotvsbeneck- visible ultrashort J ; ws Fed- Swiss ; Univer- OM2 ROOM OM3 ROOM 141 nryapoce h rvn htnenergy. photon ponderomotive driving the the approaches which energy in regime, transition strong-eld few-cycle the the study to by We observed. induced is pulses monolayer midinfrared excitonic WSe2 the in of resonance shi Bloch-Siegert Valley-dependent Prague, Republic University, Czech Charles Physics, and Mathematics of ia irrsntr.W hwteeetv two- eective aris- mechanism. the modelocking the examine spatio-temporal and ing show system the We of nature dimensional microresonators. tical ∙ regime strong-eld the to transition WSe2: monolayer in shi Bloch-Siegert Valley-dependent THU EE-P.7 oedcmoiinmto elzdb hs only phase by realized method decomposition Mode Italy Rome, Russia Novosibirsk, 2 1 Podivilov E.V. ∙ ber a GRIN in multimode propagated beams laser for regime self-cleaning Kerr into transition during dynamics Mode THU EF-P.3 exciton. exci- bound bound indirect direct to of ton transfer the in resulting scattering di- to exciton. due bound originates rect nanocrystals Cs2AgBiBr6 of edge Germany Mu- nich, , University Maximilian Ludwig Nano-Institute, ics, Feldmann J. and ∙ Nanocrystals Perovskite Double Cs2AgBiBr6 in Scattering by Intervalley Excitons Electron Bound Indirect to Direct of Transfer THU EE-P.9 and experimentally investigated was theoretically. air in pulses femtosecond laser focused by generation radiation Terahertz Lithuania Vilnius, center, research laser versity pulses pump ∙ the between delay time adjusting air by in generation radiation terahertz of Optimization THU EE-P.8 upple ssont togydpn ntepulse the on depend strongly to energy. shown is pulses pump .Kzk .Kuesý .Toáe,adP Malý P. and Trojánek, F. Koutenský, P. Kozák, M. ..Gervaziev M.D. Polavarapu, L. Huang, H. Debnath, T. Richter, A. Dey, A. Vaicaitis V. and Tamuliene, V. Buozius, D. nttt fAtmto n lcrmtyS RAS, SB Electrometry Russia and Novosibirsk, Automation of University, Institute State Novosibirsk ⋅ togasrto eoac tteotclband optical the at resonance absorption strong e hrdy2 ue2021 June 24 Thursday 1,2 ; pia iigbtenbichromatic between timing optimal e ..Babin S.A. , 1,2 CarfrPooisadOptoelectron- and Photonics for 1Chair ; .Zhdanov I. , 3 IT ainaUiest fRome, of University Sapienza DIET, lcrn neg intervalley undergo electrons e 1,2 1,2 n .Wabnitz S. and , ..Kharenko D.S. , ; inu uni- Vilnius ; Faculty 1,2 1,3 , ; ; ussi apdi h ag f05sa intermediate at 0-5ps of range the energies. in 20-2500 to mapped quartz is fused pulses of response the optical holography ital dig- multipulse resolved time of Using presented. study is formation damage experimental work this In Lithuania Vilnius, Center, research Laser University edmntae mn te eut,ta uhcorrela- such that results, analysis. other among information demonstrate, We mutual of including optical combination tools ber original statistical an a using in oscillator correlations parametric spectral the explore We Rouen, INSA - France Normandie Rouen, Rouen de Université - CNRS - Touil, M. parametric oscillator optical ber a in correlations Wavelength THU EF-P.4 time- show pulses the charac- experimentally addition, terized. is In which polarization, evolving pulses. of emis- shot-to-shot sion pre- unstable stage of amplication regimes outer dierent senting an with laser erbium ber pulsed doped mode-locked a experimentally study We of University Spain Telecomunicación, Valladolid, Valladolid, de Ingenieros de Spain perior Zaragoza, Zaragoza, de 3 Universidad Ciencias, Salamanca, Salamanca, de of Spain Departamento University (ALF), Aplicada, Fotónica Física y Láser del caciones Remacha ∙ laser ber doped erbium ultrafast in polarization dependent time and Instabilities THU EE-P.11 ∙ holography digital time resolved with damage laser multipulse of Dissection THU EE-P.10 mrigfo h RNmlioee nlna and beams linear in the regimes. ber nonlinear for multimode GRIN applied most the from succesfully the emerging and reveal factors to numerically critical investigated was SLM .López-Ripa M. Melninkaitis A. and Vengris, M. Momgaudis, B. rp eCmnccoe pia,EceaTciaSu- Técnica Escuela Ópticas, Comunicaciones de Grupo ; 2 eatmnod íiaAlcd,Fcla de Facultad Aplicada, Física de Departamento 2 ∙ ..Aguado J.C. , .Bcee,T oi,adA Hideur A. and Godin, T. Becheker, R. 1 .Alonso B. , 3 n ..Sola Í.J. and , 1 .Jarabo S. , 1 ; 1 2 rp eApli- de Grupo ..Salgado- F.J. , ; ; CORIA Vilnius ;
Thursday Posters Thursday Posters amplitudes. dierent with waves counter-propagating ac- po- by centers companied active of of grating inversion population asymmetric and Fabry- highly larization a symmetric shows with cavity laser a Perot superradiant for equations CW Maxwell-Bloch low-Q to solution Numerical USA Station, College University, M A\& Novgorod, Nizhny Russia Science, of Academy Russian Physics, carrier distinct chaos. two bichromatic at as to regime referred chaotic frequencies the to theo- in route electrooptomechanical and the and chaos on experimental synchronization of an investigation coupled retical present we mechanically nanocavities, In France 1 eeaini utmd brlsr oecnrlin net- control informational mode spatial-multiplexing laser, ampliers, ber ber multimode a in soliton generation spatiotemporal a provide could which proposed, Russia birsk, Italy Austria Vienna, Roma, Roma, di Universita 2 Sapienza Telecomu-nicazioni, e Elettronica dell’Informazione, Ingegneria di Kukushkin shaped. be can tions Zervas ∙ Beams Petal-like Laser Fibre of Properties Self-Healing THU CJ-P.1 Session Poster CJ CJ-P: 14:30 – 13:30 ∙ Fibers Multimode in Dissipation Graded by Stabilization Pattern Wave Spatiotemporal THU EF-P.7 ∙ cavity Fabry-Perot symmetric with laser superradiant CW alow-Q in grating self-consistent nonlinear Asymmetric phase: light-matter New THU EF-P.6 Madiot G. nanoresonators electro-optomechanical coupled driven in chaos synchronized Bichromatic THU EF-P.5 .Chan J. Kalashnikov V. Kocharovsky V. eted aocecse aoehoois Palaiseau, Nanotechnologies, et Nanosciences de Centre nttt fPoois inaUiest fTechnology, of University Vienna Photonics, of Institute ispto-nacdmd-laigcnetis concept mode-cleaning dissipation-enhanced e ; ; 1 ; 2 2 nvriéd ai,Prs France Paris, Paris, de Université eateto hsc n srnm,Texas Astronomy, and Physics of Department 1 1 .Vukovic N. , 1 1 .Correia F. , n .Kocharovsky V. and , polcrnc eerhCnr,Univer- Centre, Research Optoelectronics ; 1,2 1 .Mishin A. , 3 ooiis tt nvriy Novosi- University, State Novosibirsk n .Wabnitz S. and 1 .Barbay S. , 1 .Codemard C. , 1 .Kocharovskaya E. , 1,2 ; 1 1 1,3 nttt fApplied of Institute and , ; 1 Dipartimento 2 ∙ n M. and , .Braive R. 1 V. , 2 ; ; oe rvdsa in ahtwr combinatorial toward path optimization. ecient an provides model dynamical nonlinear underlying the of simulation A direct model. para- Potts three-state optical the simulate phase-tristable oscillators metric of networks that show We USA York, New York, New of versity 2 lege, co- the dispersive methods. study transform and Fourier Mach-Zehnder we with Here pulses ns of herence coherent. lasers temporally ber mode-locked be passively must in pulses square (DSR), the resonance soliton dissipative as considered be To Egypt Beni-Suef, 49045, University, Beni-Suef Lavoisier, ence, Bd France 2 Angers, d’Angers, Université d’Angers, Nady systems. quantum weakly-dissipative of modeling metaphorical and works, ∙ Machine Potts Optical the using Optimization Combinatorial THU EF-P.10 structures. coherent replicates of emergence stimulates nonlinear- propagation ity Kerr Numerical linear whereas patterns, of diraction near-eld jumps. study phase analytical mod- temporal wave and abrupt continuous by a ulated of evolution investigate France We Cedex, DIJON Bourgogne, de CARNOT plinaire bers optical ∙ nonlinear and linear in a plate by phase diraction Fresnel the of analogue Temporal THU EF-P.9 ∙ lasers ber passively mode-locked in pulses DSR-like of study Coherence THU EF-P.8 ed ntebokn arrangement. blocking the on pends prole. beam with adjustable bre kW-class delivery self- multimode a a from from of output beams singlemode investigation petal-like experimental of properties the healing on report We Kingdom Kingdom United Southampton, Southampton, 2 of sity .Hnr Latifpour Honari M. FINOT C. and SHEVELEVA A. Kemel M. hsc Program, Physics RMFLsrU,HdeEd otapo,United Southampton, End, Hedge UK, Laser TRUMPF 1,2 n .Sanchez F. and , iyUiest fNwYr,NwYr,USA York, New York, New of University City e 1 .Salhi M. , CLEO ; 2 eateto hsc,Fclyo sci- of Faculty Physics, of Department 1,2 rdaeCne fteCt Uni- City the of Center Graduate e 1 ® n .A Miri M.-A. and .Ciret C. , 1 ; Erp-QC2021 /Europe-EQEC 1 ereo efhaigde- self-healing of degree e aoaor ePhotonique de Laboratoire ; aoaor Interdisci- Laboratoire 1 .Semaan G. , 1,2 ; 1 uesCol- Queens 1 A. , OM3 ROOM OM1 ROOM ; ; 142 Wlsra 6 mi eeae yfeunydou- frequency by generated is nm 461 at laser CW A France 3 TALENCE, Bouyer P ou aehsitrsigapiain nmid-IR in generation. applications supercontinuum interesting has wave rogue it. SPM of analysis statistical a including wave, dispersion rogue normal SPM novel the of dynamics the present We Denmark Birkerød, A/S, Photonics Denmark Lyn-gby, Kgs. Engineering, Photonics of Department Fotonik, ∙ waves rogue SPM of Statistics THU EF-P.11 ∙ nm laser 461 frequency single watt-level ecient Highly THU CJ-P.2 noise resulting and averaging. SPM spectral extreme through suppression to leads chalco- bre nonlinear highly genide a into bre ZBLAN a from supercontin- uum based instability modulational a Coupling Denmark Birkerød, A/S, Photonics Denmark Lyn-gby, Kgs. Engineering, Photonics of Department Fotonik, ∙ generation supercontinuum mid-IR cascaded in modulation self-phase extreme through suppression Noise THU EF-P.13 polarization. synchronization of states the orthogonal between changing scenario by polarization tunable by instabilities driven of dynamics analysis polarization theoretical complex a present we Po- Rotation, Nonlinear by larization mode-locked laser ber Er-doped For Kingdom United Birmingham, Technologies, Photonic ∙ laser ber Er-doped mode-locked in instabilities Polarization THU EF-P.12 ..Hansen R.E. .Vidal S. Hansen R.E. Sharma V. and Kbashi, H. Sergeyev, S. UUN,TLNE France TALENCE, MUQUANS, ⋅ hrdy2 ue2021 June 24 Thursday 2 .Bertoldi A. , 1 .H Feng C.-H. , 1 1 ; ; ..Petersen C.R. , ..Petersen C.R. , 2 2 OBI V,Vrm Denmark Virum, IVS, NORBLIS OBI V,Vrm Denmark Virum, IVS, NORBLIS ; 2 2 n .Boullet J. and , .Desruelle B. , 2 PN AEC,France TALENCE, LP2N, 1,2 1,2 n .Bang O. and , n .Bang O. and , 3 .Santarelli G. , ; 1 so nttt of Institute Aston ; 1 ALPhANOV, 1,2,3 1,2,3 ; ; ; ; 1 1 3 3 DTU DTU NKT NKT 2 P. , e ; oeta t41nm. 461 gives at which W 1 87% than is more achieved eciency conversion cavity. resonant best a with laser diode amplied an bling Babak ∙ Lasers Fibre Nested-Ring of Modelling Analytical THU CJ-P.3 theory. original an of framework the in resonators. micro-ring silicon CW the op- in carrier-induced bistability the tical of observation the on report We Russia Radioelectronics Tomsk, and “TUSUR”, Systems Control Russia of University Petersburg, State St. “LETI”, University nical Zaretskaya ∙ Resonators Micro-Ring Silicon the in Dispersion Carrier Free by Induced Bistability Optical THU EF-P.16 crystals. e- short conversion in coupled-mode ciency increased Our signicantly predicts crystal. theory matched quasi-phase a in conversion wavelength in- nonlinear refractive enhance to superstructure grating a dex of use the investigate We Kingdom United Southampton, Southampton, ∙ Medium Quasi-Phased-Matched a Using Generation Second-Harmonic Enhanced Slow-Light THU EF-P.15 large in parameters. stable the are of and regions exist cavity feedback the peri- in pulses that non-equidistant with to demonstrate corresponding microlaser solutions and pulsing excitable odic feedback, an optical of delayed model a consider We Nanotechnologies, de France et Palaiseau, UMR9001, Nanosciences de Centre CNRS, Australia Auckland, Auckland, Technologies, Quantum and Photonic Broderick ∙ feedback optical delayed with laser micropillar excitable an in patterns pulsing non-equidistant Stable THU EF-P.14 ..Bre,PC hrlw n ..Clarkson W.A. and Shardlow, P.C. Barber, M.J. Nikitin A. Horak P. and Smith, D.H. Maybour, T.E. Terrien S. oiatrl ftefe-are c sconrmed is eect free-carrier the of role dominant e 2 n .Ustinov A. and , π 1 PaeSie or rtn na in Grating Moiré Shied -Phase n .Barbay S. and , 1 1 1 .Ershov A. , .Kondrashov A. , ..Pammi V.A. , 1 1 .Konkin D. , 2 ; ; 1 1 1 2 t eesugElectrotech- Petersburg St. .Vitko V. , .Krauskopf B. , ; 2 odWlsCnr for Centre Dodd-Walls e nvrieParis-Saclay, Universite 2 .Kokolov A. , 1 .Ryabcev I. , nvriyof University e ulium-Doped ; nvriyof University 1 N.G.R. , ; 2 ; Tomsk Opto- 2 1 L. , G. , e Russia band. C the within ps/(nm2 nm, -0.1635 1550 of At mode. -18.248-ps/(nm OAM a for ber conpensating disper- polycyclic sion ring-shaped a design and propose USA We Lafayette, Lafayette, at Louisiana of versity USA Angeles, Los California, 3 Southern of University ing, .Turitsyn S. China Tianjin, sity, Yue Y. Bao C. .Kokhanovskiy A. ltering spectral tunable by 8-gure laser ber in generation multi-soliton of Control THU CJ-P.7 ∙ Mode OAM C-Band for the in Fibre Ring Compensating Dispersion THU CJ-P.6 6- all-solid laser. an ber in multi-core large-mode-area scaling Yb-doped power core its and out-of-phase selection of demonstration mode experimental an as well as design, and analysis numerical detailed the Israel present We Sheva, Beer Singapore Singapore, University, Negev, Technological the of University Laser ∙ Fiber Multicore Area Mode Large an All-Solid in Supermode Out-of-Phase the of Self-Selection THU CJ-P.5 in contained peak. main energy the more shorter/have are con- gurations co-/counter-pumped indicate from pulses results compressed gain- and that Our co- a under congurations. of counter-pumped operated comparison amplier nonlinear experimental managed an present Technology,We of Institute Sweden Royal Stockholm, 10691 Physics, Applied of ment ∙ amplier ber Yb-doped an in amplication nonlinear gain-managed on impact conguration’s pump the of study Experimental THU CJ-P.4 regime. wavelength short the to access greater allow wavelengths and long and short between reduce dierential to gain able are the nested- that proles exploring dopant laser for bre Tm presented ring is model analytical An King- dom United Southampton, Centre, Research electronics .Zhao W. Greenberg Y. Pasiskevicius V. and Lindberg, R. Krook, C. eateto lcrcl&Cmue niern,Uni- Engineering, Computer & Electrical of Department ; 1 2 ; 2 .Wang Z. , so nttt fPooi ehoois Birm- Technologies, Photonic of Institute Aston 1 1 1,2 nttt fMdr pis akiUniver- Nankai Optics, Modern of Institute .Han X. , ; 1 1 .Ishaaya A. , ooiis tt nvriy Novosibirsk, University, State Novosibirsk 1 , ⋅ m eaiedseso ihaslope a with dispersion negative km) 1 ∙ ; .g Liu Y.-g. , ⋅ .Kuprikov E. m o A11md sachieved is mode OAM1,1 for km) 1 2 .Geng W. , eateto lcrclEngineer- Electrical of Department 1 n .Yoo S. and , 1 1 .Ren Y. , 1 .Serebrennikov K. , .Wang Y. , 2 2 .Pan Z. , ; 1 1 ; ; Ben-Gurion .Fang Y. , .Depart- 1. 2 Nanyang 3 1 and , and , 1 , ; oeae omrilsldcr bra 1 at ber core length. solid large commercial a area an- with tapered mode spliced fusion a ber in fundamental hollow-core eciency, tiresonant coupling of 90.8% excitation with mode selective demonstrate We Singa- Singapore pore, University, Technological Nanyang Engineering, soliton of considered. conditions also 18, is num- to generation up molecules tunable a solitons adjustment with bounded provides of laser ber Laser eight of ltration. multi- gure spectral dierent in between regimes solitons switching demonstrate We Kingdom United ingham, htnc nttt,NnagTcnlgclUniversity, Singapore Technological Singapore, Nanyang Institute, Photonics 30 than more reached ber of Ho- parts ∘ in dierent at that ference shown 1.125 at is pumped It lasers ber holmium doped demonstrated. are in lasers measurements ber temperature Distributed sia Rus- Moscow, University, RUDN Russia, of University Russia ship Novosibirsk, RAS, SB the of etry Sciences, of Russia Academy Moscow, Russian the of Institute Physics eral ∙ interference supermode with interferometer Fabry-Perot Extrinsic THU CJ-P.12 an threshold. and eects production nonlinear ber the the of increase of complexity a re- of a duction for allowed Optimization ber stretching. cladding pulses triple ultrashort optimized an demonstrate We Russia Moscow, Center, Research Optics Fiber Dianov Sciences, of Academy Russian the of Institute stretching ∙ pulse for ber cladding triple A THU CJ-P.11 Goel C. Fiber Hollow-Core Antiresonant Fusion Spliced in Mode Fundamental of Excitation Selective THU CJ-P.10 THU CJ-P.9 Kopyeva Kamynin V. lasers ber holmium-doped in measurements temperature Distributed THU CJ-P.8 C. ...Alonso-Murias M.d.C. Likhachev M. and Bobkov K. otiuinhsbe withdrawn. been has contribution e 1 ...Hassan M.R.A. , 1,3 .Tsvetkov V. , 1 .Wolf A. , CLEO ; 2 nttt fAtmto n Electrom- and Automation of Institute ; 2 2 colo lcrcladElectronic and Electrical of School .Skvortsov M. , 1 n .Babin S. and , 1 ® 2 .Monzón-Hernandez D. , .Chang W. , Erp-QC2021 /Europe-EQEC ; rkoo eea Physics General Prokhorov μ 2 ,tmeauedif- temperature m, and , 2 2 , ; ; 3 ∙ 1 epe’Friend- Peoples’ .Filatova S. rkoo Gen- Prokhorov ∙ .Yoo S. μ wave- m 2 ; 1 1 1 E. , M. , OM1 ROOM e 143 nefrneptenwt aiylnt pt 0mm. 20 to up length cavity a with pattern interference ber. coupledmulticore strongly ber a with extrinsic build novel interferometer Perot a Fabry demonstrated and proposed Spain We Bilbao, E-48011, Science, for Foundation Basque Spain Bilbao, 48013, Country, Basque the of USA Florida, 162700, Orlando, Florida, México 3 Central León, of 37150, sity P. C. 115 Bosque del 2 Loma C., A. Villatoro J. and Antonio-Lopez .Tarasov N. Rate Repetition Varying with Laser Fiber Raman Feedback Distributed Random of operation Pulsed THU CJ-P.16 gium Hernandez ∙ amplier ber tapered 125 THU CJ-P.15 systems. laser an ultrafast as of setup testbed demonstrated phase optimization of exible usefulness the and support bias dispersion net adjustable tinuously Con- investigated. experimentally is NALM-based laser ber a Er-doped of management dispersion work, this In Wroc Technology, and ence Wroc Electronics, of Faculty Group, ∙ laser ber femtosecond Er-doped all-PM NALM-based a of Dispersion-tailoring THU CJ-P.14 prospects, control. advantages, electronic its of possibilities show pumping and We of pulses. rates output between and by detuning lasers small pulse Yb-bre controlling variable synchronously-pumped obtaining in for method bunches new a present We Russia sia Kobtsev Ivanenko Laser A. All-PM-Fibre Yb-doped in of Bunch Number per Specic Pulses a of Generation for Method New THU CJ-P.13 bdpdtprde iha uptdaee f56 of diameter output an PM with a ber using tapered architecture Yb-doped amplication pulse chirped A μ μ .Boivinet S. Sobo G. and Łaszczych Z. eateto omnctosEgneig University Engineering, Communications of Department CREOL ⋅ nryad1p duration. ps 1 and energy J reported. is m ; og Self-gain-modulation rough hrdy2 ue2021 June 24 Thursday 2 μ ; ooiis tt ehia nvriy Novosibirsk, University, Technical State Novosibirsk lr-hr ussdlvrdb MYb-doped PM a by delivered pulses ultra-short J 2 uoMlie,Mn,Belgium Mons, Euro-Multitel, 1 ; 1 ooiis tt nvriy ooiis,Rus- Novosibirsk, University, State Novosibirsk 1 1 n .B Lecourt J.-B. and , .Melnikov L. , olg fOtc n htnc,Univer- Photonics, and Optics of College e 1 1 .Gognau A. , .Nyushkov B. , 2 3,4 .Sch A. , ; xrni ar eo a xii an exhibit can Perot Fabry extrinsic e se ae eiesple ih125 with pulses delivers laser ber is 1 etod netgcoe nÓptica en Investigaciones de Centro ü 2 lzgen ł , w Poland aw, ń 1 ∙ ; .Baylón-Fuentes A. , 1,2 .Vatnik I. ae ie Electronics Fiber & Laser 2 1 .Smirnov S. , .Amezcua-Correa R. , ; 1 ł uttl os Bel- Mons, Multitel, wUiest fSci- of University aw 3 .Mazhirina Y. , ; 4 Ikerbasque- 1 and , 2 Y. , ∙ S. 2 2 , , ; ; eghadbigpootoa oa d nee number. integer odd an to proportional being and laser length and power on depening rate repetition self-gain-switching varying via with regime pulsed in operated laser be can ber random that demonstrate experimentally We Russia Kingdom Churkin D. and ftee.Atnain esrduigcut-back using dB/m. measured <0.023 Attenuation, is method ber. the of through m 88% reached 5 mode fundamental the of ciency technique. stripper deposition light vapor cladding chemical fabricate by to scale on nm manner of controlled order a the in samples ber the onto coated been has material polymer [PPX] Turkey (chloro-p-xylene) Ankara, Poly University, Gazi Chem- Science, of of Faculty istry, Department (BIMREL), Laboratory andResearch Science Materials of Turkey Ankara, Nanotechnology, Institute and Center Research 1 THU CJ-P.20 with manufactured was 40 W-ber LMA insensitive Bend Russia region, Moscow Fryazino, Electronics, and neering 3 Finland Tampere, Chamorovskii ∙ with 30 Fiber Mode Single W-type Insensitive Bend THU CJ-P.19 ∙ Material Polymer (Chloro-P-Xylene) Poly On Based Method Stripper Fabrication Light Cladding Novel a of Demonstration THU CJ-P.18 84%. of crystal photonic eciency pump 1) a a on + with time (1 ber rst a the in for conguration fabricated 1 been x has combiner pump side A Nanotechnology, and Turkey Science Ankara, Materials of Institute Center Research and Nanotechnology National UNAM – sity Conguration 1 x ∙ 1) + (1 in Fiber Photonic Crystal a on Fabrication Combiner Pump Side THU CJ-P.17 .Ustimchik V. Midilli Y. B. Midilli, Y. ikn nvriy–UA ainlNanotechnology National UNAM – University Bilkent raiobac fKtlnkvIsiueo ai Engi- Radio of Institute Kotel’nikov of branch Fryazino μ otiuinhsbe withdrawn. been has contribution e μ oeFedDiameter Field Mode m oedaee N=.3 211) rnfref- Transfer M2=1.11). (NA=0.03, diameter core m ; 3 ooiis tt nvriy ooiis,Russia Novosibirsk, University, State Novosibirsk ; 1 2 .Liman G. , aao tt ehia nvriy Saratov, University, Technical State Saratov 3 1 n .Filippov V. and , 3 .Saharovs D. , Ş ; im 1 ; so nvriy imnhm United Birmingham, University, Aston ş 2 k n .Orta B. and ek, ea pe I,Lvn,Latvia Livani, SIA, Optec Ceram 2 .Demirel G. , 2 .Grishchenko A. , ; 2 1 i-nprdMaterials Bio-inspired ; ç 2 1 ; n .Orta B. and , mlcnxLtd, Ampliconyx ikn Univer- Bilkent 2 Y. , ç 1 ; ;
Thursday Posters Thursday Posters re,rvaigcuildsg udlnsfrrbs and applications. robust metasurface for BIC-based guidelines high-performance design crucial revealing tries, geome- resonator continuum of the in quality state resonance bound dierent the on tolerance fabrication im- of the pact investigate experimentally and numerically We Kingdom United London, Laboratory, aonttt uih uih Germany Munich, Munich, Nanoinstitute iso.Ielfracmatsailadfeunylter- frequency and ing. spatial trans- compact a of for modes, Ideal dependences planar mission. wavelength) its (angle, with lms, sharp resonances show thin Fano to nano-modulated due fabricate which, and design We Spain Barcelona, (UPC), Catalunya Spain Barcelona, (ICREA), Turkey Uni- Ankara, Technology, TOBB and Engineering, Economics 4 Electronic of versity and Electrical of Maier e,VlisUiest,Vlis Lithuania Vilnius, University, Vilnius ter, Lithuania Vilnius, Technology, ∙ internal saturated eciency. with detection SNSPDs structuring of also is capable it that show We structures. large- optical developing integrated for scale tool versatile a is lithography Laser USA Boulder, Technology, and Standards of tute Germany Paderborn, University, born Nam Session Poster CK CK-P: 14:30 – 13:30 na umne o ne aeud o ber-to-chip for waveguide index performed low were augmented an proles on taper inverse of of Optimization University Engineering, Computer Canada Toronto, Toronto, and Electrical of ∙ Coupling Light Fiber-to-Chip Insensitive Polarization for Platform Al2O3/Si on Optimization Prole Taper Waveguide Adiabatic THU CK-P.4 Grineviciute L. Nanostructured in Resonances Fano THU CK-P.3 ∙ resonances metasurface BIC on impact tolerance Fabrication THU CK-P.2 ∙ lithography laser with detectors photon single mircowire superconducting based WSi Fabricating THU CK-P.1 .Staliunas K. .Ocn ..Athsn n .Mojahedi M. and Aitchison, J.S. Ozcan, C. K J. Protte M. nttcóCtln eRcraiEtdsAvancats Estudis i Recerca de Catalana Institució 2 ü n ..Bartley T.J. and , 1,2 hne n .Tittl A. and , 1 1 .Weber T. , ..Verma V.B. , 2,4,5 1,2 ; .Babayigit C. , 1 etrfrPyia cecsand Sciences Physical for Center 1 1 ; 1 ; 2 .K L. , 1 ..H J.P. , 1 hi nHbi Nanosystems, Hybrid in Chair eateto hsc,Pader- Physics, of Department ; 5 nvria oiènc de Politècnica Universitat ü ö ; hner 2,3 pker 2 ae eerhCen- Research Laser .Nikitina J. , 1 1 ..Mirin R.P. , .Wang J. , ; 2 ainlInsti- National nFilms in ; ; 2 ; 3 Department Department Blackett e 1,2 1 2 S.A. , and , S.W. , ; o h oie design. performance modied rate the Subse- error for bit better crosstalk. a obtained thermal we for quently, the proposed from is shielding bandwidth eective Mach-Zehnder improved wave with travelling modulator assisted trench deep A Germany schweig, oioseitwt hi pcrmi h a ftehy- the of gap the in spectrum their three-component with nd exist We solitons Lithium nano-waveguides. in Niobate modes harmonic frequency second fundamental hybridised one two and of system a investigate We Sweden Stockholm, Technology, of Institute Royal KTH Germany Braunschweig, Schneider aeil,Dprmn fPyis nvriyo Bath, of University Kingdom United Physics, Bath, of Department Materials, ∙ Modulator Mach-Zehnder of Eect THU CK-P.7 ∙ Filter Active Resonance Mode Guided Graphene/Si Compatible CMOS Insensitive Polarization Tunable THU CK-P.6 E. Toudert, J. Cabello, F. Haro-Poniatowski, García-Pardo, M. Alvarez, M. photonics tunable for based metasurfaces Bismuth random of change phase induced laser Fast THU CK-P.5 dependence. 250 ization at loss dB 0.3 only yielded coupling. light n ..Skryabin D.V. and ∙ nano-waveguides Niobate in Lithium hybridisation mode by supported solitons Gap THU CK-P.8 Israel Haifa, nology, Goykhman I. and for stability its and range cycles. 10-100ns >10.000 the switch- in tunable window a ing demonstrate We excitation. laser ond nanosec- upon visible the in metasurface a bismuth-based of response optical visible dynamic the Spain characterize Madrid, We IO-CSIC, Óptica, de Instituto Group, ing nne f1mada xicinrtoo >0d)for dB) respectively. (>10 tuning of spectral ratio and extinction reection an and 1nm of res- onances narrow oers which wavelengths, insensitive telecom op- at erating lters polarization resonance guided-mode investigate tunable graphene/Si and propose We Greece .De S. Sharma P. ..Rowe W.R. 1,2 1 .Das R. , ; 1 .Lampadariou E. , 1 ra rstl nTravelling-wave on Crosstalk ermal ..Gorbach A.V. , CLEO 1 ehiceUniversit Technische piie oyoiltprproles taper polynomial optimized e 1 1 ∙ ; ; .Sra n .Siegel J. and Serna, R. ; 1 1 1 2 .Kleine-Ostmann T. , etefrPooisadPhotonic and Photonics for Centre ehinIre nttt fTech- of Institute Technion-Israel ; nvriyo onia Ioannina, Ioannina, of University 2 ® ; eateto ple Physics, Applied of Department 2 Erp-QC2021 /Europe-EQEC T rusheg Braun- Braunschweig, PTB 1 2 .Fergestad H. , .Doukas S. , μ eghwt opolar- no with length m ä Braunschweig, t 2 ; .Lidorikis E. , ae Process- Laser 2 .Gallo K. , 2 n T. and , OM2 ROOM 2 2 , , 144 rdsdscn amncmodes. harmonic second bridised ae ihtenmrcladaayia i theory. Mie com- analytical and and numerical measured the are with pared distribution spectral and ture tweezers. optical with position controlled their is that com- spherical-resonators several circuits of optical posed demonstrate experimentally We Israel Aviv, Tel versity, nvriyo e ok e ok USA York, New York, New of University 1 Abudi .Kreps S. position-control. tweezers using circuits optical Toward THU CK-P.9 niern,TcnclUiest fDnak Kongens Denmark Lyngby, Denmark, of University Hu Technical H. Engineering, and Pu, M. Oxenløwe, ∙ platform Sapphire on AlGaAs on Scattering Brillouin Stimulated THU CK-P.12 Core Active ∙ with Fibre Optical an of Surface THU CK-P.11 Russia Novosibirsk, Russia Sci- Novosibirsk, of ences, Academy Russian the of Institute Physical Lebedev Russia Moscow, University, Technical State Moscow Doehler Lazarev Tarabrin M. Ablation Laser Single-pulse Femtosecond by Fiber AgClBr an on Microstructure Antireection an of Fabrication and Modeling THU CK-P.10 n .Vatnik I. and Germany Wildau, anhn ih notee oewt togabsorp- strong with core ber tion. the into light bres. launching optical of surface the on formed microresonators cylindrical thermal of and tuning self-stabilisation thermal for technique a propose We Russia laser um femtosecond 7-14 single-pulse ablation. the by in achieved 91.8% were of range transmittance um average 10.6 an at 92.8% and of transmittance face end ber AgClBr Germany many ..Sho .Zeg .Km .Gll,K vn,L.K. Yvind, K. Galili, M. Kim, C. Zheng, Y. Sahoo, H.K. Kudashkin D. ehinIsiueo ehooy af,Israel Haifa, Technology, of Institute Technion ⋅ ra efsaiiaino ircvt nthe on Microcavity a of Self-stabilisation ermal hrdy2 ue2021 June 24 Thursday ; 1 ; 5 .Shuvayev V. , 2 5 1 ehia nvriyo ple cec Wildau, Science Applied of University Technical 1 eoe htnc,Ic,Rcmn,Canada Richmond, Inc., Photonics, Zecotek .Geissler U. , .Sakharova T. , .Douvidzon M. , 1 1,2,3 ; 1 1 .Krisanov D. , ooiis tt nvriy Novosibirsk, University, State Novosibirsk , ; ∙ 6 ; .Bushunov A. ehiceUniversitTechnische 4 5 2 r htnc mH eln Ger- Berlin, GmbH, Photonics Art n .Artyushenko V. and , .Deych L. , 4 .Hinkel J. , ; 1 3 .Bathish B. , ooiis tt University, State Novosibirsk 1 ; .Khorev S. , eateto Photonics of Department 1,3 2 ehdi ae on based is method e and , .Teslenko A. , 4,5 eoac struc- resonance e .Usenov I. , ä 1 ; 2 eln Berlin, Berlin, t .Lekiewicz T. , 3 .Churkin D. , ∙ e vvUni- Aviv Tel .Carmon T. 4 ; 1 Bauman ; 1,3 ; 4,6 2 2 .N. P. City V. , T. , 1 3 , ; ∙ light of ltering angular for coatings optical multilayer Nanostructured THU CK-P.16 fac- from quality tor the of tuning thermo-optic demonstrate We India Bangalore, Science, of Institute ∙ cavity THU CK-P.15 for region fabrication. spatial grating optical and selective range wavelength only wavelength layers limited dye a TDBC to of over photo-bleaching index local refractive studied the have modulate we work, this In France LYON, UMR5306, Bellessa Matière, J. and Symonds, ∙ applications photonics UV for by lithography obtained photo-bleaching local dye of Study THU CK-P.14 show and crystals. center small the for inhibitions to large surface crystal’s the from the LDOS of decay exponential woodpile nd We 3D crystals. in photonic states nite of density local the investigate We Netherlands Veldhoven, , B.V., Greece Heraklion, Ames, University, USA State Iowa, Iowa Astronomy, and En- Physics of Twente, of Netherlands University schede, Nanotechnology, for stitute Heraklion, Hellas, Technology Greece and Research for dation Heraklion, Crete, Greece of University Technology, and Science Soukoulis crystal ∙ photonic nite a 3D of in gap states band of density local of dependence Position THU CK-P.13 to Koschny T. struc- suspended using without achieved tures. is mode and gain acoustic Brillouin optical longitudinal High conne simultaneously waves. acoustic can plat- sapphire which on AlGaAs form, the on Bril- (SBS) stimulated scattering on-chip louin demonstrate and propose We okoessvrlpsiiiisfrrcngrbepho- recongurable tonics. for possibilities several opens work .Grineviciute L. Naik A.K. and Selvaraja, S.K. Mere, V. Dash, A. C. Benoit, J.-M. Bard, A. Chevrier, K. Gassenq, A. Mavidis C.P. 25 ral eoual osi asv optical passive a in loss recongurable ermally dB ; ; 2 3 nttt fEetoi tutr n ae,Foun- Laser, and Structure Electronic of Institute ope htncSses(OS,MS+In- MESA+ (COPS), Systems Photonic Complex 3000 2,4 napsieslcnmcorn resonator. micro-ring silicon passive a in ; 4 n ..Vos W.L. and , 5 ..Economou E.N. , eateto hsc,Uiest fCrete, of University Physics, of Department to 1,2 1 ..Tasolamprou A.C. , 10000 .Babayigit C. , ; 6 ; urn drs:AM Netherlands ASML address: Current 4 msLbrtr n Department and Laboratory Ames n xicinrtofrom ratio extinction and ; 3 nvLo,Isiu Lumière Institut Lyon, Univ ; 1 2,5 eateto Materials of Department 2 .Kafesaki M. , .Gailevi D. , 2 ..Hasan S.B. , č ius 1,2 ; 3,4 ≈ C.M. , Indian 0 M. , 3,6 dB is , ecmae h baino xvv ise by tissues continuous ex-vivo in modes. pulsed of ultrashort operating and wave lasers ablation ber the holmium-doped compared We Sciences, of Russia Moscow, sia, Academy Russian Russia the Moscow, of Institute Physics domain. near-eld the in ltering of spatial mechanism novel coat- conceptually a multilayer demonstrate and nanostructured ing pho- on 2D based create to crystal possibility tonic a propose we study, this In acln,Spain Barcelona, Lithuania Chekhlova ∙ Tissue on Ex-vivo Exposure Lasers Fiber Holmium-doped Pulsed Ultrashort and Wave Continuous of Comparison THU CL-P.2 imaging. time-resolved dierent via for aberrations compared and cavi- observed the is amplitude Dete- and tation distribution intensity aberrations. laser controlled the of of in rioration presence bubbles the cavitation in induced water laser ultrafast study We France Monnet, Etienne, Jean Saint Université Lyon, de Université CNRS, 5516 France Etienne, Saint Decq D. Aguilar A. aberrations optical of in presence water the in bubbles cavitation induced laser Ultrafast THU CL-P.1 Session Poster CL CL-P: 14:30 – 13:30 Lithuania Vilnius, Technology, and Sciences Physical ∙ beams source vortex complex of theory Lorenz-Mie Generalized THU CK-P.17 Turkey Ankara, Technology, and Economics 3 of versity Kurt Peckus ne n ehooy inu,Lithuania Vilnius, Technology, and ences ..Kopyeva M.S. Ber J. inu nvriy inu,Lithuania Vilnius, University, Vilnius 2 n .Staliunas K. and , š 3,4 y n .Orlov S. and kys 1 .Turduev M. , .Bertail A. , ; 1 1,2 .Bernard A. , 5 E nvriy naa Turkey Ankara, University, TED n ..Tsvetkov V.B. and , 1,2 ; ; 2 ..Filatova S.A. , 7 epe’Finsi nvriyo Rus- of University Friendship Peoples’ P,Dp eFsc,Breoa Spain Barcelona, Fisica, de Dep. UPC, 1 ; and , 2 ; 1 aoaor uetCre,UMR Curien, Hubert Laboratoire 5 tt eerhisiueCne for Center institute research State .D Saint-Jean De A. , .Tolenis T. , 3,6,7 ∙ ; .Mauclair C. 1 etrfrPyia Sci- Physical for Center 1 1 ..Kamynin V.A. , ; 1 1 rkoo General Prokhorov ; .Vengris M. , eainbetween relation e 4 etk,Vilnius, Femtika, 1,2 1 ; .Baubeau E. , ; 2 OBUni- TOBB 1 ; Keranova, 6 ICREA, 1 T.K. , 3 H. , 1 , ; h ae ytm aaeesadalto eut was results ablation and parameters considered. systems laser the VcrbePM sa lentv otemlcuring thermal to alternative an as PDMS UV-curable Spain Cardio- Madrid, Enfermedades (CIBERCV), de vasculares Red en Biomedica vestigacion Spain Compostela, de Santiago Farmacia, Spain Compostela, de Santiago , 2 OPtometría Facultade e e Óptica Física de de Facultade Compostela, de Santiago Flores-Arias Gómez-Varela A.I. fabrication model vessel-like blood semi for polydimethylsiloxane UV-curable and thermal of analysis Biocompatibility THU CL-P.4 mi- stereolithog- raphy. for and ablation technologies laser laser-based applications: two crouidics analyse We photolithogra- of phy. production overcoming waste of and complexity capable the tech- appeared, Laser-based recently to have versatility niques . their devices microuidic proven manufacture have technologies Optical Spain Compostela, de Santiago Compostela, de Flores-Arias ∙ stereolithography vs ablation laser fabrication: devices microuidic for Technologies THU CL-P.3 packed densely waveguides. a of within light array of ow the control to cient su- is parameters propagation the of modulation Weak France Dijon, Franche-Comte, Bourgogne 6303, de CNRS Universite UMR Bourgogne, de Carnot terdisciplinaire ∙ theory non-adiabatic on based switch array microphotonics NxN of control and Design THU CK-P.19 THU CK-P.18 them. out of made cluster investigate a and to nanoparticles with it interaction employ the and beams vortex vector complex of source theory Lorenz-Mie generalized a present We .Creo ..GmzVrl,C a-aea n M.T. and Bao-Varela, C. Gomez-Varela, A.I. Carnero, B. Colman P. and Finot, C. Sheveleva, A. nvriaed ataod opsea autd de Facultade Compostela, de Santiago de Universidade otiuinhsbe withdrawn. been has contribution e 1 ; n ...Bao-Varela M.d.C. and , aut fPyis nvriaed Santiago de Universidade Physics, of Faculty CLEO 1 , ∙ .Carnero B. ® ouainms bystrict obey must modulation e Erp-QC2021 /Europe-EQEC 1 .Álvarez E. , 1 ; 1 ; nvriaede Universidade ; aoaor In- Laboratoire 3 etod In- de Centro 2,3 M.T. , OM2 ROOM OM3 ROOM ; 145 nvriyo ple cecs amea Latvia Valmiera, Latvia Riga, Latvia, Sciences, of Applied of 2 University obtained. are PDMS curing thermal to close Results human (HUVECs). cells seeding endothelial pre- vein analyzed umbilical is is biocompatibility devices Its vessel-like sented. blood fabricating for PDMS technique non-adiabatic this robust. make that rules selection Hagedorn ∙ strategy monitoring optical optimized automatically using fabrication lters interference optical performance High THU CK-P.20 ∙ (D3) Cholecalciferol and D2) (Vitamin Ergocalciferol to Applicable Spectra Raman Functional Density THU CL-P.6 po- input larization. the changing by shape focal the of modication of congurations beams. various vector for plane focal the in dis- tribution transversal 405, the and state Atomistilor polarization the analyze We Bucharest, of Romania 077125, University Magurele Romania Physics, 077125, of Magurele Atomistilor Electronics, 409, Lab- Quantum Physics, Solid-State Radiation of and oratory Plasma Laser, for Institute ∙ uniaxial and crystals pair axicon an with generated beams THU CL-P.5 THU the CK-P.21 illustrate to used are lters method. Various monitoring optical optimized wavelength. on based mon- optical method novel itoring a present We demonstrated. is lters France .Zideluns J. .Balcers O. Craciun A. nttt fAoi hsc n pcrsoy University Spectroscopy, and Physics Atomic of Institute ⋅ oeldsetu fvtmnD n 3using D3 and D2 vitamin of spectrum modelled e arcto fhg efrac pia interference optical performance high of fabrication e oeia n xeietlsuyo h vector the of study experimental and eoretical hrdy2 ue2021 June 24 Thursday ; 2 B 2 ü n .Lumeau J. and , lrLyodOtc,Aznu Germany Alzenau, Optics, Leybold hler 1 1,2 .Miranda U. , 1 .Lemarchand F. , .Grigore O. , e-ppeetdhri losthe allows herein presented set-up e oyMdle bopinand Absorption Modelled eory 2 1 n .Veilande R. and , 1 n .Dascalu T. and , ; 1 ntttFenl Marseille, Fresnel, Institut 1 .Arhilger D. , ; 2 otrlSchool Doctoral 1 2 ; ; 1 1 National Vidzeme 2 H. , ; eto omrilyotie iai 2adD are D3 and D2 done. vitamin obtained commercially of measure- ment with comparison Raman the and and presented are absorption spectra of theory functional density the ainbtenbouiecneadcl concentration. cell and bioluminescence corre- between strong a lation reveal using to technique extracted WMS was 2f that VCSEL-based dioxide carbon fraction metabolic mole the of with simultaneously recorded is nathi leiog- Photobacterium from bioluminescence Microbial India Gandhinagar, gar, Kamburo .AS, A Z. spectroscopy modulation wavelength nm 2f 2004 VCSEL-based a using growth of phases dierent the to bioluminescence microbial Correlating THU CL-P.8 investigated. a be as will system lesions tissue tool. so diagnostic non-invasive oral more detecting be can in spectroscopy advantageous reection attenu- internal THz total of ated utilization the that show Measurements Turkey Ankara, sity, Turkey Ankara, University, Technical East lesions ∙ tissue so oral in radiation terahertz of eectiveness diagnostic the of Assessment THU CL-P.7 THU CK-P.22 rt n eododrsaildrnito fthe of guided-mode resonance. using beam dierentiation optical an spatial of prole transverse second-order and rst- high-quality demonstrate and membranes nitride silicon suspended on large-area patterned of directly gratings prole subwavelength the characterize noninvasively We Denmark Aarhus, University, Aarhus ing, Denmark Aarhus, University, Denmark Aarhus, University, 2 Aarhus Astronomy, and Nygaard ∙ gratings subwavelength suspended with dierentiation spatial Optical .Atalar A. ..Darki A.A. nedsilnr aocec etr(Nn) Aarhus (iNano), Center Nanoscience Interdisciplinary otiuinhsbe withdrawn. been has contribution e ∙ ..Carbry n .Khatua S. and Chakraborty, A.L. 3 ğ n .Dantan A. and , lu 1 .Gelge M. , 1 3 .Parthenopoulos A. , ..Çakmak E.E. , ; 3 naaUiest,Akr,Turkey Ankara, University, Ankara ç 1 .Altan H. , 3 1 n .Eratam N. and , ; ; 3 1 eateto Engineer- of Department eateto Physics of Department 1 cieeso this of eectiveness e ..Jeppesen B.R. , 1 .Barı E. , ; ; I Gandhina- IIT 2 aiUniver- Gazi 3 ; 1 Middle ş 2 2 J.V. , K. , ;
Thursday Posters Friday Orals fTko Japan Tokyo, of hi:Js Ordonez, Jose Chair: Techniques and Characterization Optothermal and Optophononic JSI-4: 10:00 – 8:30 hnn’cnrbto becomes less. contribution lms where phonons’ temperatures, thinner higher at in and larger in becomes carriers nanolms. energy SiN surface thermal dom- inant that the be can polaritons phonon demonstrate We Japan Volz S. and Anufriev, R. Miranda, ∙ nanolms 8:30 SiN in carrier heat 4th the polariton: phonon Surface (Invited) FRI JSI-4.1 .Nmr,Y u .Ordonez- J. Wu, Y. Nomura, M. nvriyo oy,Tokyo, Tokyo, of University e OM1 ROOM i contribution eir University e ; igpr,Singapore Singapore, 1 evl ntrhrzo/o-chip on/ management. wave terahertz on heavily rely will which for sixth-generation communication (6G) of ideal realization loss. are the any interconnects through without Such waves corners terahertz sharp of trans- port the support that topological waveguides Hall Valley present We France Lille, Lille, Japan Osaka, versity, Nagatsuma .Docournou G. Pitchappa Yang Y. photonics 8:30 topological on-chip terahertz with communications 6G Towards (Invited) FRI CC-6.1 Austria Technical Vienna, University Unterrainer, Karl Chair: Communications and Devices THz CC-6: 10:00 – 8:30 ayn ehooia University, Technological Nanyang 1 .Yamagami Y. , 1 .Webber J. , 2 OM2 ROOM and , 3 .Fujita M. , ; ; 3 2 ∙ 2 nvriyof University .Zhang B. , 2 .Singh R. sk Uni- Osaka .Yu X. , 2 T. , 2 P. , 1 1 , ; CLEO many Ger- Hamburg, DESY, Synchrotron Sweden Ume Physics, of .Salh R. G62FI8:45 ∙ Amplication Chirped-pulse Parametric Optical of Optimization FRI CG-6.2 Cormier Leblanc A. 8:30 Jargot ∙ amplication parametric optical domain frequency from pulses laser mid-infrared few-cycle Wavelength-tunable FRI CG-6.1 Ume Ume sity, Veisz, Laszlo Chair: Generation Harmonic High-Order and Lasers CG-6: 10:00 – 8:30 . pia cycles. optical to 1.3 6.4 from ranging durations pulse 5.6 from able tun- pulses few-cycle mid-infrared 20 of characterization and eration gen- both for toolbox a on report We France Paris, France, de sitaire 7639, France UMR Palaiseau, Appliquée, d’Optique France Talence, UMR 5298, Nanosciences, Varennes, et Numérique EMT, Scien- centre Canada Recherche la tique, de National .Fischer P. Dalla-Barba G. 1 ® 1 .Haddad E. , ; ; n .Veisz L. and , 2,4 å 2 Erp-QC2021 /Europe-EQEC .DushsElektronen- Deutsches 2. Sweden , 1 2 n .Légaré F. and , .Muschet A. , OM3 ROOM aoaor Photonique Laboratoire 3 .Ibrahim H. , μ å o13.5 to m 1,2 ; nvriy Umea, University, .Lassonde P. , 4 1 ntttUniver- Institut .Laramée A. , 1 ; ; 1 3 Department 1 Laboratoire .Lang T. , 1 å ; μ 1 Univer- with m Institut 1 E. , 1 G. , μ 2 1 J , , 146 iy-UA,Blet Turkey Bilkent, UNAM, - sity B Chair: Components and Sources Laser Fiber Mid-IR CJ-7: 10:00 – 8:30 mG br hr aeeghse- wavelength W-type where a ber, Tm:Ge using op- 1725nm laser at CW erating all-ber a report We 8:45 gapore Sin- Singapore, University, nological and C.J. Chang, Chen, Y. Chen, S. Sidharthan, R. ber doped Tm:Ge W-type using laser CW SWIR all-ber 1725nm FRI CJ-7.2 8:30 ∙ Laser Fiber Mid-Infrared Er:ZBLAN Tunable Wavelength a from Generation Pulse Picosecond FRI CJ-7.1 si . 2.8 - 2.7 in ps 21 of duration pulse minimum a ited mode- feed- back. shied laser frequency with er- ber locked mid-infrared ZBLAN a bium on report We Macquarie Sci- Australia Sydney, Engineering, University, of and Faculty ence Centre, Research Technology, and Wroc Science of versity Wroc Electronics, of Faculty 1 Majewski .Pawliszewska M. ae ie lcrnc Group, Electronics Fiber & Laser ⋅ ł w Poland aw, rdy2 ue2021 June 25 Friday ü 2 edOrta lend eeae ussexhib- pulses generated e n ..Jackson S.D. and , OM4 ROOM ∙ .Yoo S. μ aeeghrange. wavelength m ; ç ; ikn Univer- Bilkent , 2 ayn Tech- Nanyang QPhotonics MQ 1,2 M.R. , ł wUni- aw 2 ; eeprmnal eosrt for demonstrate experimentally We Kingdom United Southampton, ton, Singapore Singapore, University, Technological n ..Zheludev N.I. and them. between coherence properties quantum and second-order classical rst-order unique elucidating the systems, in- terferometric linear, nonlinear from and results semi-nonlinear on report We Paderborn CeOPP, Germany Paderborn, University, and Physics of Germany Paderborn, University, Paderborn (PhoQS), tems Sys- Quantum Photonic for Institute 1 Herrmann Ferreri A. A72FI8:45 ∙ Beamsplitter Dissipative a with Interference Hong-Ou-Mandel Anti FRI EA-7.2 8:30 Stefszky ∙ interferometers nonlinear to linear From coherence: optical Quantum FRI EA-7.1 Ger- Paderborn, many University, Pader- Lange, born Amelie Nina Chair: Interferences Quantum EA-7: 10:00 – 8:30 ..Vetlugin A.N. Luo K.-H. nertdQatmOtc Group, Optics Quantum Integrated 1 .Sperling J. , ; 1 2 2 1 n .Silberhorn C. and , OM5 ROOM ..Sharapova P.R. , nvriyo Southamp- of University .Santandrea M. , 1 .Guo R. , 1 1,2 .Massaro M. , ; 2 ; Department 1 .Soci C. , 1 Nanyang 2 1 H. , M. , 1 1 1 , , ; nttt o htncQuantum Photonic for Institute 1 Soto Teo 8:45 Y.S. ∙ Frequency and Time in Gate Pulse Quantum a Using Information A-priori No with Tomography State Compressive Randomized FRI EB-9.2 system. states, physical mixed any and and pure qudits, qubits and multiple It on naturally tomography. works standard limita- of overcoming tions precise, ecient, robust, and is that technique a tomography, demonstrate quantum self-guided experimentally We Sydney, Sydney, Australia Technology of Univer- sity Information, and Soware Australia Brisbane, Queensland, of University Australia Brisbane, 2 Systems, Quan- tum Engineered for Excellence of 1 8:30 White Kewming M. ∙ Tomography State Quantum High-Dimensional Ecient and Robust FRI EB-9.1 Sapienza Italy Rome, Roma, Sciarrino, di Università Fabio Chair: Estimation State and Tomography Quantum EB-9: 10:00 – 8:30 .Gil-Lopez J. Rambach M. nertdQatmOtc Group, Optics Quantum Integrated Physics, and Mathematics of School Centre Council Research Australian 3,4 1,2 n .Silberhorn C. and , 2 n .Romero J. and , ; .Jeong H. , OM6 ROOM 3 1 etefrQuantum for Centre 1,2 .De S. , 1,2 .Ferrie C. , .Qaryan M. , 2 ..Sanchez- L.L. , 1 .Brecht B. , 3 A.G. , 1,2 1,2 1 1 , , ; ; ; dceeg xhnebtensoli- between exchange energy odic peri- a experimentally observed We France Dijon, Franche-Comte, Bourgogne- Universite 8:45 Laboratory, Grelu P. and Tchofo-Dinda, P. ∙ laser ber ultrafast in molecules soliton of oscillations dimensional Higher FRI EF-8.2 ramps. phase asym- non-trivial and spectral metry to leads dispersion asymmetric An laser. bre managed dispersion- a from identical velocities, with group dier- but at frequencies, ent centred funda- solitons two mental by formed complexes soliton observe experimentally We Australia Sydney, , Institute Nano Sydney of AustraliaUniversity Sydney, Sydney, Physics,of Science, of Optical School and Sterke Photonics 8:30 de of C.M. and ∙ Lourdesamy J.P. dispersion asymmetric with complex soliton Spectral FRI EF-8.1 M of University Gurevich, Svetlana Chair: II Solitons Dissipative EF-8: 10:00 – 8:30 .Cla,A ole,S Hamdi, S. Coillet, A. Colman, P. Runge A.F.J. ü se,M nster, OM7 ROOM ü 1 se,Germany nster, ..Alexander T.J. , 1 .Widjadja J. , 1,2 University e ; 1 Institute ; ; 2 ICB 1 1 e , , olmto.W hwta pri- that show We self- and collimation. control reectivity bine com- crystals photonic Mesoscopic France 8:45 Toulouse, Gauchard and D. Gauthier-Lafaye, O. mayrant, ∙ Self-Collimation Mesoscopic for strategy design Enhanced FRI CK-7.2 optical at loss frequency. ultra-low of with realization ZIM and of cone properties Dirac-like study a and to platform provides proposed 3D which is Zero-Index- demonstrated, Steiner networks on dielectric tree based (ZIM) 3D Medium A and Science China Shanghai, Technology, for Shanghai of 8:30 versity ∙ Networks Tree Steiner on based Metamaterial Zero-Index a of Realization and Design FRI CK-7.1 Italy Bari, Bari, di Politecnico Calo, Giovanna Chair: Crystals Photonic CK-7: 10:00 – 8:30 ..Foe saz,A Mon- A. Esparza, Flores S.I. Gu M. and Zhang, Q. Yu, H. e-iesoa Dielectric ree-dimensional OM8 ROOM ; ...;LAAS, C.N.R.S; ; Uni- CLEO .Balibar S. optical mode. gallery conned the whispering the and between electrons resonantly coupling strong, enhanced the Si by enabled a high-Q microresonator. at ber-integrated scattering inelastic CW-driven electron-photon observe We G 37077 Chemistry, Biophysical for Institute Lau- Switzerland CH-1015 sanne, (EPFL), Lausanne Technology of Institute Federal Swiss Germany gen, Uni- G of Nanostructures, versity and Solids - Kippenberg Mangeney Tignon Watanabe Kr O. Kappert F.J. Switzerland Re- Zurich, Europe, IBM search Moselund, Kirsten Chair: Interactions Electron-light EG-7: 10:00 – 8:30 G72FI8:45 Massabeau ∙ dot quantum graphene encapsulated hBN in tunneling photon-assisted THz FRI EG-7.2 8:30 Liu J. ∙ microresonators gallery whispering high-Q in interaction electron-light Continuous-wave FRI EG-7.1 .Messelot S. Henke J.-W. 2 ® 1 .Arend G. , 1,3 .Dhillon S. , ö tne,Germany ttingen, Erp-QC2021 /Europe-EQEC 2 .Ropers C. , 1 1 1 .Taniguchi T. , 2 ; OM9 ROOM 1 .Kontos T. , ö .Rosticher M. , ; 1 ..Wang R.N. , tne,307G 37077 ttingen, 1 1 ..Raja A.S. , ; .Riccardi E. , t hsclInstitute Physical 4th 2 nttt fPhysics, of Institute 1 aoaor de Laboratoire ; 1 1 neato is interaction e .Huang G. , .Ferreira R. , 3 1,3 a Planck Max 2 n T.J. and , 1 .Feist A. , 2 n J. and , .Pan J. , 1 2 1 ö K. , J. , S. , ttin- ç N 1 2 2 1 ¥ , , , , 147 Wurstbauer .Tongay S. Klembt S. Harder Klaas M. CNRS Plochocka, France Polina Toulouse, Chair: Dynamics Non-linear and States Body Many EI-4: 10:00 – 8:30 hsc eatet U,Munich, TUM, Department, Physics 1 Watanabe 8:45 K. Sigl L. heterostack MoSe2–WSe2 Waals der van a in excitons interlayer of state many-body degenerate a of signatures Condensation FRI EI-4.2 hybrid thin a micro-cavity. to coupled atomically MoSe2 of an layer in exciton- polaritons of condensation bosonic the and coupling the light-matter strong demonstrate experiments Our United Andrews, Kingdom St. Andrews, St. of Japan Tsukuba, Nanoarchitec-tonics, Materials for Center Materials, Japan Functional Tsukuba, for Center USA Tempe, University, USA Merced, California, Germany Oldenburg, 2 Schneider C. Taniguchi 8:30 ∙ microcavity - monolayer MoSe2 a in Exciton-Polaritons of coherence spatial and Condensation FRI EI-4.1 eesug Russia Petersburg, Russia Vladimir, 7 University, State China China Hangzhou, Study, Hangzhou, 5 University, W .Anton-Solanas C. .Wle cotyIsiu and Institut Schottky Walter 1. University, Ossietzky von Carl t eesugSaeUiest,St. University, State Petersburg St. Advanced for Institute Westlake ü zug W rzburg, ⋅ rdy2 ue2021 June 25 Friday 1 1 .Cai H. , .Sigger F. , 10 1 OM10 ROOM 8 .Suchomel H. , 1 3 .H S. , .Watanabe K. , ..Kavokin A.V. , and , 2 .Taniguchi T. , ü 1,2 zug Germany rzburg, ; ; 1,2 3 ; .Sedov E. , ∙ ö 1 .Waldherr M. , 8 .Holleitner A. 10 ; .Troue M. , ing rzn State Arizona 3 ; International nvriyof University 11 1 ; ; ; Universit 1,11 University 6 4 9 Vladimir Westlake Research 1 T.H. , and , 9 2 T. , U. , 4,5,7 4,5,6 ä 1 1 1 t , , , , ; ; ; ; aeudst c ssice or switches optical as modulators. to act to Microma- coupled waveguides and Laser chining by written Femtosecond are micro-resonators applications. photonic integrated for structures resonating micro-mechanical present we Here Milano, Italy CNR), - Nazionale (IFN Ricerche Consiglio delle - Milano, otecnologie Milano, di Italy Politecnico - Osellame Motta R. Kingdom United P.Southampton, Southampton, of and University Centre, Deng, Wang, Kazansky H. 8:45 C. Lei, Y. Shayeganrad, Chang, X. Glass Silica in Nanostructuring Laser Damage High FRI CM-7.2 8:30 ∙ Signals Optical of Modulation and Switching Integrated for Micro-Resonators Mechanical Written Laser Femtosecond FRI CM-7.1 Austria Linz, University, pler Ke- Johannes Heitz, Johannes Chair: Processing Volume and Surface CM-7: 10:00 – 8:30 .Memeo R. aaethreshold damage e ; 2 siuod ooiaeNan- e Fotonica di Istituto 2,1 ; 1 OM11 ROOM .Crespi A. , polcrnc Research Optoelectronics ; 1 1,2 iatmnod Fisica di Dipartimento .Spagnolo M. , ehl Ultrafast reshold 1,2 n R. and , ∙ ese G. 1 , NOTES
Friday Orals Friday Orals nvriyo rsi,Beca Italy Brescia, 2 Engineering, Brescia, of Information University of ment Glorieux S-. R 9:15 ∙ nanouid gold of signal photoacoustic of dependence wavelength Optical FRI JSI-4.3 Ryu 9:00 Micro-scale and Phonon of Path Free Mean Anisotropic of Study Experimental FRI JSI-4.2 etcreainspectrum. correlation rent cur- phonon the considering dis- cussed, are bulk properties the thermophysical in anisotropy the of origin were determined. polymers experimentally and of crystals diusivity liquid thermal and velocity Tsukuba, Japan Technology, and Science Japan Tokyo, ∙ Polymers and Crystals Liquid of Diusivity .Gandol M. .Morikawa J. etNnOtc ru Université group FemtoNanoOptics nstoiso hnngroup phonon of anisotropies e 2 ; 1 oy nttt fTechnology, of Institute Tokyo 3 ; 1 OM1 ROOM N-N n Depart- and CNR-INO ; 1 1 .Kurose S. , 2 .Ban F. , dacdIndustrial Advanced 2 1 n C. and , n M. and , ermal e ; Kocabas Tasolamprou Sendai, Japan University, Tohoku Communi- cation, Electrical of ganization Japan Sendai, 2 Communication, University, Tohoku Electrical of tute and 1 Daskalaki C. mechanisms. operation plasmonic the to thanks device the of limitation time transit electron the than much higher is range frequency operating technology. plasmonic using by operation band double-mixing 1-THz photonic the demonstrate We Japan Sendai, RIKEN, Photonics, Takida C63FI9:15 ∙ Modulators Based Graphene in Self-actions THz Ultrafast of Observation FRI CC-6.3 9:00 Hosotani T. transistor high-electron-mobility dual-grating-gate a in double-mixing plasmonic 1-THz FRI CC-6.2 ..Koulouklidis A.D. SS oy,Japan Tokyo, JSPS, nttt fEetoi tutr and Structure Electronic of Institute ∙ ; .Otsuji T. 4 4 .Ito H. , IE etrfrAdvanced for Center RIKEN 3,4,5 OM2 ROOM n .Tzortzakis S. and , 1 1,2,3 1 ..Ergoktas M.S. , .Kafesaki M. , 1,3 .Satou A. , 4 ; .Minamide H. , 1 .Kyriakou E. , 1 ; eerhInsti- Research 3 eerhOr- Research 3,4 1,3 1,2 A.C. , Y. , C. , 1,2,6 1,2 4 e , , ; ; CLEO ois UWe,Ven,Austria Vienna, Wien, TU tonics, Baltu A. and Pugzlys A. Coccia G. G64FI9:15 ∙ bers hollow large-core using amplier Yb for route scaling and compression nonlinear 70mJ FRI CG-6.4 kHz 1 hours. >160 stability a over <1.2% with at rate provided repetition are Millijoule-level pulses XAS/ATAS. wavelength eld center 1-2 from a tunability pulse with laser source few-cycle a present We Germany delberg, Pfeifer T. and f Planck-Institut Ott, Hen- F. C. Mollov, rich, N. Amberg, S. 9:00 nia, ∙ XAS/ATAS strong-eld for source infrared short-wavelength millijoule-level few-cycle, wavelength-tunable A FRI CG-6.3 conversion eciency. and op- gain and overall range timize spectral broad saturation a for of experimentally control demonstrate We and numerically com- dierently. saturate spectral performance. ponents various amplication system However, paramet- chirped-pulse enhances optical ric in Saturation .Fan G. Magu- A. Aueger, L. Rupprecht, P. ® 1,2 Erp-QC2021 /Europe-EQEC 1 .Carpeggiani P. , 1 .Safaei R. , .Légaré F. , OM3 ROOM š ka ü 1 ; enhsk Hei- Kernphysik, r 1 nttt fPho- of Institute μ 2 o strong- for m 2 .Schmidt B. , .Kaksis E. , 1 .Tao Z. , ; Max- 4 1 3 , , , ; 148 ∙ gases Raman 9:00 on based lasers ber hollow-core gas-lled Mid-IR (Invited) FRI CJ-7.3 37%. of eciency slope a at tech- >1W of power bending output an by at operating nique, done is lection cpcapplications. scopic spectro- future for reference portant bility. pulse sta- and wavelength, eciency, quantum of energy, terms in ogy technol- laser Raman ber mid-infrared gas-lled emerging the on ities activ- our of overview an present We USA Lakeland, University, nic Polytech- Florida Engineering, puter USA Orlando, Florida, 3 Central University of Photonics, and Optics of Lyn- Denmark Kgs. gby, Denmark, of University Markos Antonio-Lopez J.E. Amezcua-Correa .Wang Y. eateto lcrcladCom- and Electrical of Department ⋅ rdy2 ue2021 June 25 Friday 1 ; 1 1 .Dasa M. , s eut rvd im- provide results ese T ooi,Technical Fotonik, DTU OM4 ROOM ; 2 CREOL, 2 .Bang O. , 2 ..Habib M.S. , 1 .Adamu A. , 1 College e n C. and , 3 R. , 1 , ; orltosi ytmo coupled of waveguides. system a photon-pair in correlations of control the approach this enables how show We photon states. of transformations non- value unitary for singular designed on decomposition, based a method demonstrate experimentally (TMOS), We Australia Transformative Systems Canberra, for Meta-Optical Excellence of Germany Rostock, f Stanford USA of Stanford, University, Engineering, Department Electrical and Australia Laboratory Canberra, Physics, of School Ultimo, Research Centre, Sydney, Australia Technology University Sciences, of Physical and Sukhorukov Solntsev A.A. erpr h xeietlobser- experimental the report 9:15 We CNRS, Besan 6174 UMR Femto-st, Insitut ∙ images twin in interference photons 2 FRI EA-7.4 9:00 ∙ Decomposition Value Singular via Interference Two-Photon and Transformations Linear Lossy of Demonstration FRI EA-7.3 beamsplitter. dissi- pative a on ‘coalesce’ fermions while anti-coalesce bosons dissipation-free beamsplitter, a with performed experiment Hong-Ou-Mandel sical clas- to contrast in that, time rst the ü .Dvu,A ost n .Lantz E. and Mosset, A. Devaux, F. White S. hsk Universit Physik, r utainNtoa University, National Australian e ç n France on, 1 ; ; 1 .Wang K. , 1 OM5 ROOM colo Mathematical of School 2 olna Physics Nonlinear ; 2,5 2,3 5 n A. and , ; .Szameit A. , R Centre ARC ä Rostock, t ; 3 4 Ginzton Institut 4 , ; admhg-iesoa states. high-dimensional random knowledge. reconstructed on priori results present a We no and ments measure- do- few extremely time-frequency using main the in signals near-coherent rank low to reconstruct com- technique tomography randomized pressive a consider We Spain Madrid, Germany Física, de Erlangen, Lichts, 4 des Korea Paderborn, 3 South Seoul, Astronomy, and (PhoQS), Germany Systems Miki Matsuyama optto.W rsn scal- verify a to procedure cross-check present able classical We of limits computation. the pushing 9:15 are computers quantum noisy Today’s Austria Innsbruck, bruck, ∙ devices quantum independent of Cross-verication FRI EB-9.4 ve photons. to up discriminate can the detector conrmed and tomography tor detec- by performance the evaluated we Furthermore, matching. pattern waveform by multiplexing detector without photon nanowire supercon- ducting of re- performance number solving photon improved We Japan Kobe, University, Kobe Engineering, Japan Technology, Kobe, Information Communications of and Japan Institute National Tokyo, Tokyo, of 2 Engineering, versity of School China 1 F. 9:00 ∙ Detector Photon-Number-Resolving Superconducting-Nanowire of Tomography Detector FRI EB-9.3 .Ringbauer M. Sonoyama T. eatmnod pia Facultad Óptica, de Departamento Physik die f¨ur Max-Planck-Institut dacdITRsac Institute, Research ICT Advanced Physics, Applied of Department 2,3 .Terai H. , ; 2 n .Furusawa A. and , 2 OM6 ROOM 1 eateto Physics of Department ; .Okamoto F. , 3 ; 1 rdaeSho of School Graduate .Endo M. , nvriyo Inns- of University 2 .Yabuno M. , Uni- e 1 1 M. , S. , 2 2 , ; ; ; ; n oio atc conguration lattice arrangements. topological including on soliton inuence phenomenon crucial any this its show of and explain dierent origin We the for families. supermode varies drastically dimers photonic driven-dissipative Switzerland Neuchâtel, Switzerland , Lausanne2 Lausanne Technology (EPFL), of Institute Liu 1 J. eaayetebfrainstructure bifurcation the analyze We Belgium Bruxelles, 2 Bruxelles, 9:15 de bre Gelens ∙ oscillators parametric optical resonant doubly in states localized dark and Bright FRI EF-8.4 Komagata K. 9:00 Riemensberger ∙ chains microresonator in generation soliton Kerr dissipative for crossings mode against protection Symmetry FRI EF-8.3 and phases. separations temporal relative pulses’ usual the beyond extra dimensions requires dynamics molecules predic- numerical tions. con- recent molecule, a rming into bound tons .Parra-Rivas P. Tikan A. aoaor Temps-Fréquence, Laboratoire Federal Swiss Physics, of Institute ULue,Lue,Belgium Leuven, Leuven, KU cesblt fsltn in solitons of accessibility e 2 1 n .Leo F. and , n ..Kippenberg T.J. and , lsicto fsoliton of classication e OM7 ROOM 1 1,2 .Tusnin A. , 1 1 .Churaev M. , .Ji X. , .Mas-Arabí C. , 1 ; 1 1 ..Wang R.N. , nvriéLi- Université 1 J. , 1 L. , 1 1 1 , , ; ; ; o aoehooy nvriyof University Nanotechnology, Institute for MESA+ (COPS), Systems Vos W.L. io,Switzerland likon, 1 Lee C.-W. K74FI9:15 Uppu ∙ gap band photonic a in superlattice cavity 3D a by transport Light FRI CK-7.4 center. bandgap the in state located topological the from mode emission single localized silicon, shows on which crystal photonic III-V a on based structure photonic logical topo- one-dimensional embedded an time rst the for demonstrate We Korea South Daejeon, University, National 9:00 ∙ mode topological the in emitting crystal photonic 1D InP-on-Si Embedded FRI CK-7.3 slabs. PhC com- between structures matching plex re- impedance to to having sort without structures, ef- self-collimation mesoscopic parametrize cient and to design easily allows antireectivity oritizing .Adhikary M. Scherrer M. B eerh-Erp,R Europe, - Research IBM 1,3 ...Harteveld C.A.M. , 1 2 ; OM8 ROOM n .Moselund K. and , 1 .Kim S. , 1 1 .Kozon M. , ope Photonic Complex ; 2 ..Choi H.J. , 2 Hanbat 1 1,2 and , ü R. , sch- 2 1 , ; CLEO ehoois P,SM,Nanyang SPMS, TPI, Technologies, 1 Krishnamoorthy Zheludev H.N.S. tunnel emitting light junctions. to for observed date emission narrowest with resonator waveguide. silicon into single-mode coupled a electron directly electrolumi- inelastic tunnelling from demonstrate nescence We Switzerland Zurich, Zurich, ETH USA burg, of Gaithers- Technology, Institute and Standards National Laboratory, Zurich, Zurich, Switzerland ETH Fields, netic Haner Lezec Parzefall M. Fedoryshyn Moor Baumann M. G74FI9:15 Sun X. Metamaterials Insulator Topological in Currents Photogalvanic of Control FRI EG-7.4 9:00 ∙ Photonics Silicon in Junctions Tunnel Metal-Oxide-Semiconductor from Emission Light Infrared Near Broadband, Single-Mode, FRI EG-7.3 n Q lcrnclevels. electronic GQD and radiation light-matter THz illu- between showing interaction THz by mination, induced illumination. photon-assisted tunneling THz demonstrate (GQD) We coherent encapsulated dot quantum to quantum hBN the graphene of investigate response Science, We Materials Japan Tsukuba, for Sorbonne Institute France Paris, Cité, Paris Paris-Diderot, Uni- normale Université, versité PSL, Sorbonne Université l’Ecole CNRS, ENS, de supérieure, Physique .Doderer M. etefrDsutv Photonic Disruptive for Centre erifae msinit a into emission near-infrared e 1 2 ® .Chelladurai D. , .Leuthold J. , 1 1,2 .Adamo G. , 1,2,3 Erp-QC2021 /Europe-EQEC ; ; 1 1 OM9 ROOM ; 1 .Strait J. , nttt fElectromag- of Institute 3 2 and , .Keller K. , 3 htnc Laboratory, Photonics hsclMeasurement Physical 1 .Novotny L. , .Messner A. , Q max 1 .Eginligil M. , 2 = .Agrawal A. , 1 1 ∙ .Winiger J. , n C. and , .Soci C. 47 ; 2 1 National N.I. , achieves 1 Y. , 3 1 H. , D. , 2,4 1,2 2 1 , , , ; 149 o aoehooy University Nanotechnology, for 1 Vasconcellos de Malic Michaelis S. .Perea-Causín R. oeec onigtwrsa K. 10 below towards state quantum many-body coherent pointing photoluminescence temporal coherence and linewidth, to in intensity, with hosted respect heterostacks photogenerated ensembles MoSe2–WSe2 in exciton condensation criticalities several observe We many M of versity Japan Ibaraki, Tsukuba, Science, Materials Germany ihloeiebilayers. metal dichalcogenide transition of in excitons lifetime hybrid and controls energy precisely binding the angle 1s–2p phase-locked twist how trace the we internal pulses, with mid-infrared probing transitions Erlangen-N By Friedrich-Alexander Erlangen-N University Physics, of Sweden 3 Gothenburg, University Technology, Chalmers Physics, Lin K.-Q. I44FI9:15 ∙ Atomically Strained in Diusion Exciton FRI EI-4.4 Germany Regens- burg, Regensburg, of University Huber Lupton J. 9:00 Yong Ovesen ∙ Homobilayers Waals Der Van In Excitons Hybrid Twist-Tailoring FRI EI-4.3 .Schmidt R. Mooshammer F. nttt fPyisadCenter and Physics of Institute Matter Condensed of Institute ⋅ 1 2,3 ; .Gillen R. , 2 rdy2 ue2021 June 25 Friday 2 3 ; n .Bratschitsch R. and , .Brem S. , .Isiueo hsc,Uni- Physics, of Institute 3. ; 1 1 1 2 OM10 ROOM eateto Physics, of Department ü .Malic E. , .Liebich M. , .Ntoa nttt for Institute National 2. 1 neg Germany rnberg, .Rosati R. , ü se,M nster, nSemiconductors in ; 2 3 1 3 .Girnghuber A. , .Maultzsch J. , .Merkl P. , .Niehues I. , 2 eatetof Department ü 2 2 se,Ger- nster, .Brem S. , n R. and , 1 ü C.-K. , rnberg, 1 1 E. , S. , 1 2 1 3 1 , , , , ; ; ue pti cne iial and photo-polymerization. digitally initiates scanned is spot cused of two- polymerization. fabrication photon by the micro-structures for smooth used shap- is wavefront Ma- ing and Transmission method the trix system on printing based 3D ber-based CH-1015, A Optics, Switzerland Lausanne, of Laboratory Lausanne, de Fédérale Polytechnique ak âietCC-05, CH-1015 Switzerland C Lausanne, Bâtiment Park, Devices, Switzerland Photonics Lausanne, 2 Applied CH-1015, Laboratory of Lausanne, de Fédérale tApiain,Tlne France Talence, Applications, Intenses et Lasers Centre CNRS-CEA, Duchateau 9:15 ∙ Pulses Laser Focused Spatio-Temporally Of Burst Using Modications Material Dielectric Induced Laser FRI CM-7.4 Moser C. 9:00 Kakkava E. ∙ ber optical multimode graded-index a through microfabrication High-resolution FRI CM-7.3 pia lmnsfrhigh-power for applications. elements laser- silica optical phase enabling geometric pristine high-performance demonstrated, was to glass femtosecond comparable modication nanoporous induced of .Qioa,B hme,adG. and Chimier, B. Quinoman, P. Konstantinou G. edl3 AEF Innovation EPFL SA Readily3D 1 OM11 ROOM ; ; nvriyo Bordeaux- of University 3 .Psaltis D. , 1 cl Polytechnique École 1 .Loterie D. , ; 3 and , 3 fo- e École 1,2 , ; NOTES
Friday Orals Friday Orals esr h hra rprya a to at scale. nanoscopic property introduced thermal the is measure summarized. radiometry are IR techniques Photother- ordered/disordered mal chiral by nanowires/spheres of materials, characterization optother- the mal for advances 9:30 Recent Italy Rome, Roma, di Università Sapienza ∙ Scale Nanoscopic a at Characterization Photothermal FRI JSI-4.4 results. the expansion aect coecient thermal water pendent light de- temperature the the how and wavelength discuss We water. in immersed nanospheres gold by gener- ated signal photoacoustic the yse opto- anal- to numerical model thermo-mechanical a introduce We Belgium Leuven, KU Leuven, Astronomy, and Physics of ment Depart- Biophysics, and Matter So France Villeurbanne, CNRS, and Matière 1 Lyon Lumière Université (iLM), Institut Lyon, de .L Voti Li R. OM1 ROOM ; iatmnoSBAI, Dipartimento ; 3 aoaoyof Laboratory ftedvc ae s e convo- technique. probing yet the ps, by 2 luted takes device the of 200fs. a in obtained shi with frequency GHz presented 280 is THz resonators 3D LC of modulation Ultra-fast Qatar Doha, Qatar, at University Greece 6 Heraklion, Technology, and Kingdom United Engi- Leeds, 5 Electrical neering, and Electronic normales Franceof l’Ecole Paris, de supérieure, Physique de Greece (FORTH), Heraklion, Hellas – Technology Researchand for Foundation Laser, and France Palaiseau, 2 otechnologies, 1 Tzortzakis 654 to kV/cm. 145 from eld increases THz strength A the when in absorption observed the is THz. dB 50 2.3 of modulation at operating ulator mod- self- absorption terahertz ultrafast induced an demonstrate We Qatar Doha, Qatar, at University A\&M Texas Program, .Freeman J. Paulillo Manceau 9:30 J.-M. ∙ meta-atoms three-dimensional terahertz of modulation frequency broadband Sub-picosecond FRI CC-6.4 Kingdom United Manch- ester, Manchester, Materials, of Advanced University for Institute Kingdom Manchester, United Manchester, of Kingdom versity United Manchester, 4 , Manchester of University Materials, ealo,Greece Heraklion, Crete, of University Technology, and Greece Heraklion, 2 FORTH, Laser, .Goulain P. cec rga,TxsA&M Texas Program, Science Science Materials of Department Structure Electronic of Institute Nan- de et Nanosciences de Centre ainlGahn nttt,Uni- Institute, Graphene National eateto aeil Science Materials of Department 1 .Maussang K. , vrl ouaincycle modulation overall e 2,5,6 4 OM2 ROOM .Li L. , 1 .Koulouklidis A. , n .Colombelli R. and , 1 .Daskalaki C. , ; ; 4 .Lineld E. , ; 3 5 eatetof Department er Royce Henry 3 .Dhillon S. , 3 Laboratoire ; ; 6 4 Science School 2 4 B. , S. , 3 2 1 , , ; ; ; ; ; ; CLEO o2 swt . Wpa power. peak TW 1.3 with fs 25 to down compressed were pulses fs 230 mJ tech- 70 demonstration, Yb a As energy nologies. high for pression com- nonlinear ber hollow-core of rules scaling energy the illustrate We Canada China hai, Shang- University, Fudan Physics, Department of Physics, Surface of tory Canada Mon- treal, Télécommunications, et aux Matéri- Énergie Centre Scientique, 2 h 1horder to 11th 3rd the the from harmonics, odd optical of range generation spectral demonstrate mid-IR we the in faces metasur- res- silicon by asymmetric onant supported continuum in states the bound University, optical utilizing By Paderborn Germany Paderborn, Group, USA Australia Canberra, 5 University, National Australian Centre, Physics Germany Jena, Jena, versity Uni- Friedrich-Schiller Electronics, Russia Petersburg, 3 ITMO St. Engineering, University, and Physics of Australia Canberra, University, National Australian ter, Kivshar Makarov Kartashov Luther-Davies Choi 9:30 KorolevD.-Y. V. ∙ continuum the in states bound by boosted metasurfaces silicon in harmonics high of Generation FRI CG-6.5 .Koshelev K. ntttNtoa el Recherche la de National Institut nvriyo aiona Berkeley, California, of University Quantum and Optics of Institute ; ® 1,2 6 2 lrfs Nanophotonics Ultrafast Erp-QC2021 /Europe-EQEC .Kruk S. , ; 3 ; .Spielmann C. , 4 1 OM3 ROOM 4 e-yl n. Montreal, Inc., few-cycle olna hsc Cen- Physics Nonlinear 3 .Hollinger R. , .Zalogina A. , 4 ; .Z M. , 1,2 3 tt e Labora- Key State .Zograf G. , ; 1,6 2 ü Department n Y. and , rch ; 3,5 4 3 3 Laser S. , B. , D. , 1,2 2 , , ; ; 150 J74FI9:30 and Shardlow, P. Clarkson Burns, M. nm 2025 and nm 1654 Between a of Operation Widely-Tunable FRI CJ-7.4 beoe 7 mtnn range, tuning nm nm. 1654-2025 371 from a over able tun- at continuously was laser and bre 1580nm erbium-doped an re- by is ported. laser thulium-doped bre tunable alumino-silicate widely A Kingdom United Southampton, ton, lu oe ir Laser Fibre Doped ulium ⋅ rdy2 ue2021 June 25 Friday ; nvriyo Southamp- of University ae a core-pumped was laser e OM4 ROOM ∙ W. O interferometer. HOM a through propagating multimode beams SPDC strongly far-eld two the of of images pixels the between measur- by coincidences spatial momentum modes ing spatial 1500 of interference Two-photon of vation ftesaecmae otetrivial the to edge. compared spreading state wider the a of to leads tection pro- and Topological lattices. waveguide topological Su-Schrieer-Heeger of the edge trivial at walk tum quan- two-photon a in correlations quantum study experimentally 9:30 We Germany Rostock, Rostock, of meit ∙ Lattices Su-Schrieer-Heeger in Pairs Photon of Walks Quantum FRI EA-7.5 .Kac,M enih n .Sza- A. and Heinrich, M. Klauck, F. ; nttt fPyis University Physics, of Institute OM5 ROOM otcwyadwtotrligon relying simulation. classical without and way nostic ag- hardware a in performance their u h edo ultomography. full of need the out with- detection, homodyne using double certied experimentally as and such eciently be can states, negativity, Wigner quantum of prop- erties non-Gaussian that show We Japan Tokyo, University Tokyo, of Informatics, of Institute France Paris, France Paris, CNRS, 3 IRIF, Scien- Paris, France de Recherche Paris, la tique, de ENS-PSL National Centre France, de Collège Université, Université, Sorbonne Treps 9:30 Parigi Walschaers ∙ Detection Homodyne Double using States Non-Gaussian of Certication FRI EB-9.5 .Roeland G. obneUiest,LP,CNRS, LIP6, Université, Sorbonne 1 1 ; .Markham D. , 1 aoaor ate Brossel, Kastler Laboratoire 1 OM6 ROOM .Grosshans F. , 1 ; .Chabaud U. , 4 FI NS National CNRS, JFLI, ; 3,4 2 n N. and , Université 2,3 3 V. , M. , ; rcs r highlighted. are the dissociation process to mechanical analogies quantum scheme and ecient presented is An super- coherent continuum. bright a to generate soliton ability their regarding polychromatic molecules of namics dy- propagation the investigate We University, Russia Petersburg, Saint ITMO Metamaterials, Germany 4 Hannover, Technologies, Germany Hannover, 3 Hannover, University Leibniz Optics, Quantum Germany Hannover, 9:30 1 Babushkin Bose ∙ Molecules Soliton Polychromatic by Generation Supercontinuum FRI EF-8.5 snaking. homoclinic ones experience dark while snaking, undergo collapsed states bright that oscillators. show We parametric disper- optical resonant sive doubly states in localized dark arising and bright of .Willms S. anvrCnr o Optical and Nanophotonics of Department for Centre Hannover PhoenixD, Excellence of Cluster 2 .Yulin A. , 1,2 1,2 OM7 ROOM n .Demircan A. and , .Melchert O. , 4 .Morgner U. , ; 2 nttt of Institute 1,2,3 1,2,3 1,2,3 S. , I. , ; ; ; Netherlands Enschede, Twente, of Nanotechnol- University ogy, for Institute MESA+ Vegt 1 der van elsi structures. realistic to it apply and scaling-based method classication direct exist. a methods propose We indirect only but far so defects, for with crucial crystals is photonic states light of conned classication and Identication lands Nether- Enschede, Twente, of Uni- versity Nanotechnology, for Institute MESA+ (MACS), Science putational 9:30 ∙ dimension arbitrary in light of states conned of identication for method Scaling FRI CK-7.5 cavities. onant res- as act that defects super- point of a lattice crystal with photonic functionalized is 3D that a of gap the band within transport light ev- of idence experimental rst the Copenhagen, show We of Denmark Copenhagen, University Insti- Bohr tute, Niels (Hy-Q), Systems Netherlands Enschede, 3 of University Twente, Nanotechnology, Institute for MESA+ (MACS), Science Netherlands Enschede, 2 Twente, .Kozon M. ope htncSses(COPS), Systems Photonic Complex etrfrHbi Quantum Hybrid for Center Computational of Mathematics 1,2 OM8 ROOM ; .Schlottbom M. , 2 ahmtc fCom- of Mathematics 2 n ..Vos W.L. and , 2 J.J.W. , 1 ; ; ; CLEO G75FI9:30 Sch ∙ modulation phase optical three-dimensional by prepared states momentum free-electron High-purity FRI EG-7.5 hsclIsiue nvriyof University G Institute, Physical Singapore Singapore, University, Technological neeg n oetmspace. momentum and energy characterized in momentum state, superposition electron-transparent high-purity electrons three-dimensional thin a prepares 200-keV membrane a mod- of at phase splitter. ulation optical femtosecond-switchable beam Coherent electron laser-based inelastic a and demonstrate We Germany Oldenburg, Oldenburg, 3 G Chemistry, cal 2 the pattern. in conversion polarization be- and interplay locking spin-momentum the the tween to due di- rections opposite photo- with currents yields galvanic design of chiral forms planar mirror-symmetric insulator with topological of Patterning China Nanjing, Tech), (Nanjing Southampton, University Kingdom for United Southampton, Centre of University & Metamaterials, Photonic Centre Research Singa- Singapore Nanyang pore, University, Physics, Technological Applied and .Feist A. nttt fPyis nvriyof University Physics, of Institute Biophysi- for Institute Planck Max ö tne,G ttingen, ä fer ® 3 n .Ropers C. and , Erp-QC2021 /Europe-EQEC ; 1,2 OM9 ROOM ..Yalunin S.V. , 2 iiino Physics of Division ö tne,Germany ttingen, ö ; ; tne,Germany ttingen, 3 4 Optoelectronics ajn Tech Nanjing 1,2 ; 1 S. , 1 4th ; ; 151 hne fteeege fbright relative of excitons. by energies momentum-dark and the governed of thin changes is dichalcogenides, atomically which metal in transition the calculate coecient diusion exciton and strain-dependent measure We Sweden Gothenburg, Technology, of University Chalmers Germany Universit 2 fM of taeta hs aeil r pro- are duced. materials those that sub- strate same the in and pixel-by-pixel real-time, in layers, stacked in twist angle measures and imbalance popula- tion valley im- probes lattice perfections, reveals materials, 2D in microscopy imaging SHG polarization- resolved area large optical, All Greece Heraklion, 13, GR-700 Crete, Greece of University Technology, and Heraklion, Crete, 13, 3 of GR-700 University Greece Department, GR-711 Heraklion, 10, Technology-Hellas, and Research for Laser-Foundation and 1 Kourmoulakis Kioseoglou Demeridou 9:30 G. Mouchliadis ∙ Materials 2D of microscopy Imaging Generation Harmonic Second Polarization-Resolved FRI EI-4.5 .Psilodimitrakopoulos S. eateto aeil Science Materials of Department Structure Electronic of Institute eateto hsc,Philipps- Physics, of Department ⋅ ü rdy2 ue2021 June 25 Friday se,M nster, ä ; abr,Marburg, Marburg, t 1,3 OM10 ROOM 1,2 3 1 eateto Physics, of Department n .Stratakis E. and , ..Maragkakis G.M. , .Lemonis A. , ü se,Germany nster, 1,3 ; I. , 1 2 L. , Physics 1 G. , 1,2 1,2 , ; ; ; ftenwygonbn matrix. bone grown newly the destruction of without the healed when is implants bone these of moval of repellence osteoblasts. in result screws Ti bone anodized at nanostructures and micro- laser-induced Femtosecond Austria Linz, Linz, University Kepler Johannes Mechatronics, Biomedical Austria Linz, Linz, sity Univer- Kepler Inorganic Johannes Materials, of Technology Chemical F Austria Linz, Linz, University Kepler hannes 1 Baumgartner W. Seibert 9:30 ∙ Implants Medical of Functionalization Cell-repellent for Surface-structuring Laser Femtosecond FRI CM-7.5 ueadeeg absorption. energy and ture tempera- lattice in pulse- increase to-pulse the through controlled is try investi- numerically gated. is silica in fused pulses laser femtosecond of train .Muck M. nttt fApidPyis Jo- Physics, Applied of Institute ü sefl,Austria rstenfeld, ptotmoa ouigo a of focusing spatio-temporal e 2 ; .Maier C. , bobn eingeome- region absorbing e 2 oe mH&C KG, Co & GmbH Hofer OM11 ROOM 1 .Wolfsj B. , ssaleal re- enable shall is 4 n .Heitz J. and , 2 ..Hassel A.W. , ; ; 3 4 nttt of Institute nttt of Institute ä ger 1 K. , 3 1 , ; NOTES
Friday Orals Friday Orals ueBilunsatrn n3D in scattering resonators. mea- laser optophononic to Brillouin modes the sure optical the pillar on and of tech- respectiely ltering match/mismatch based de two nique present et We Lanzillotti-Kimura nanosciences France Palaiseau, nanotechnologies, de N.D. Centre Esmann, M. and Senellart, P. Lanco, Gomez- L. Lema C. A. Morassi, Sagnes, M. Carbonell, I. Lamberti, Harouri, F.-R. 9:45 A. Priya, P. Oliveira, ∙ range GHz 18-350 the in micropillars optophononic in spectroscopy Brillouin FRI JSI-4.5 n epoiegieie for guidelines imagers provide ones. quantum next-generation we as and sensors suitable SPAD dierent of cons pros and discuss We coincidences resolution. photon spatial and sub-ns requirements: timing, sensitivity, detector single-photon chal- lenging demands imaging Quantum Italy In- Milano, Bioingegneria, Elettronica, e formazione di Dipartimento - Zappa F. and ∙ arrays SPAD 11:00 Imaging Quantum Enhanced (Invited) FRI CH-11.1 King- United dom Glasgow, Glasgow, of University Turpin, Alejandro Chair: Imaging and Sensing Quantum CH-11: 12:30 – 11:00 .Rdiuz .Croode Cardozo E. Rodriguez, A. .Vla .Svrn,F Madonini, F. Severini, F. Villa, F. OM1 ROOM 1 ROOM ; oienc iMilano di Politecnico î tre, ; l n napicto f1 Bis dB 17 achieved. of amplication an and old thresh- certain a above only Amplication appears demonstrated. is cav- double-metal ity lossy a with struc- ture laser Cascade Quantum a on based amplier optical Terahertz A Austria Wien, Austria 3 Wien, Nanostructures, and Austria Wien, Unterrainer Andrews Giparakis Limbacher cl rcsosta allow quantum authentication. and communication of prac- that implementation and tical supremacy” processors “quantum a scale provides intermediate- complex or small it of a class and novel in circuit, space optical state the whole encode Architecture Multirail Italy ROMA, Rome, of University ∙ Processing and Communication 11:00 Quantum Practical (Keynote) FRI CI-4.1 Kingdom United Southampton, ton, Southamp- ORC Horak, Peter Chair: Telecommunications for Technologies Emerging CI-4: 12:30 – 11:00 9:45 Kainz M.A. Optical with Amplier Terahertz FRI CC-6.5 .Bovino F. nttt fSldSaeElectronics, State Solid of Institute reshold 2,3 2,3 ; 1,2 .Strasser G. , OM2 ROOM 2 ROOM 1,2 et BISAPIENZA SBAI Dept. .Beiser M. , 1,2 D. , ; ; , 1 2 htnc Institute, Photonics etrfrMicro- for Center ∙ .Jaidl M. einer 2,3 2,3 n K. and , 1,2 A.M. , 1,2 M. , B. , ; CLEO olcieeet rmaphase- a process. from generation bymismatched eects limited collective eciency, a maximum of output energy 1025 pulse eciency and conversion generation the investigate We Germany Darmstadt, GmbH, rmf trum Hamburg, Germany Jena, DESY, Germany Synchrotron Heyl Tajalli A. ∙ production light nm 150 coherent for n .S Wittwer, V.J. T. Schilt, and S. Fischer, J. 11:00 ∙ Dual-Comb Free-Running a by Driven Acetylene of Spectroscopy Comb-Line-Resolved FRI CF-9.1 Helmut- Hamburg, Pronin, Germany Oleg Schmidt-University, Chair: Spectroscopy Comb Dual for Sources CF-9: 12:30 – 11:00 9:45 7 FRI CG-6.6 s - n 7Mz hs are these nonlin- 97-MHz, for sources attractive and highly W 6-8 fs, 240- with Operating near-infrared. the in fast spectroscopy for high-resolution suitable dual-comb are lasers that thin-disk demonstrate We Neuchâtel, Switzerland 51, Bellevaux Neuchâtel, de Avenue de Université Physique, de Institut (LTF), Temps-Fréquence .Sch A. .Mdcig .Ds .Brochard, P. Drs, J. Modsching, N. th esrmnsyield measurements e nDs Laser in-Disk amncgnrto ngases in generation harmonic 1,2,3 msuc nrr gases. rare in source nm ® ö nberg ; ü ; Erp-QC2021 /Europe-EQEC Schwerionenforschung r 1 2 .Hartl I. , OM3 ROOM OM3 ROOM 1 ü emot-ntttJena, Helmholtz-Institut etce Elektronen- Deutsches dmeyer 1,2,3 ; 3 S Helmholtzzen- GSI ..Salman H.S. , ; 7 1 th n C.M. and , Laboratoire harmonic 5 × 10 1,2,3 − 6 , 152 n i-Rrange. mid-IR and near-IR gas both in broadening the spectral and nonlinear demonstrate we duration pressure, pump controlling the By investigated. revolver is D2-lled ber a in pulses short w-acd aa conversion (1.03 Raman Optics Two-cascade Fiber Russia Moscow, Dianov Center, Research Academy Sciences, Russian of the I. of and Institute Pritulenko, 9:45 Bufetov I. Kolyadin, ∙ Laser Raman Fiber Gas Deuterium-Filled in Broadening Spectral Near-Infrared and Mid- FRI CJ-7.5 M81FI11:00 ∙ Learning Deep via Machining Laser Fibre of Visualisation Predictive FRI CM-8.1 Spain Madrid, CSIC, Optica, de Instituto Siegel, Jan Chair: Diagnostics In-situ and Modelling CM-8: 12:30 – 11:00 .Mills B. Codemard C. Praeger M. h oeta o oeln light- modelling for potential demonstrating the hence laser speeds, dierent for scan laser bre 2kW a via machined when steel stainless of appearance the for prediction visual a produce to used was learning Deep Kingdom United Kingdom United 2 Southampton, 1 .Gayhv .Ytek,A. Yatsenko, Y. Gladyshev, A. ..Courtier A.F. RMFLsrU,Southampton, UK, Laser TRUMPF Centre, Research Optoelectronics ⋅ → rdy2 ue2021 June 25 Friday ; 1.49 rkoo eea Physics General Prokhorov 1 n .Zervas M. and , OM4 ROOM OM4 ROOM → 1 ..JcbGrant Jacob J.A. , 2.68 1,2 1 .McDonnell M. , .Harrison P. , μ )o ultra- of m) 2 1 1 1 , , , ; ; uigaeprovided. are tuning examples pump- design and temperature Specic employing greenhouse gasses. in lines target- absorption for ing OPOs PPRKTP 2 type-II of advantages har- distinct allow nessing here, veried imentally exper- expansions thermooptic dispersion and index refractive Precise Stockholm,Sweden Technology, of Pasiskevicius Institute V. and Lee, C. 11:00 ∙ PPRKTP Type-II using Oscillator Parametric Optical by 2 in Lines Absorption Molecular Targeting Precisely FRI CD-10.1 dom Heriot-Watt King- United Edinburgh, Reid, University, Derryck Chair: Microscopy and Spectroscopy Nonlinear CD-10: 12:30 – 11:00 communication. quantum and ing comput- quantum practical for a way open would method conventional Our method. the from orders tiple im- opti- Schr of that cal rate generation method the a proves propose We Japan Tokyo, A. Tokyo, of University Engineering, of and School Physics, Endo, 9:45 Furusawa M. Asavanant, ∙ subtraction photon generalized by states Schr of Generation FRI EA-7.6 .Lu ..Mltr .Zukauskas, A. Mølster, K.M. Liu, Y. W. Yoshikawa, J.-i. Takase, K. ö igrctsae ymul- by states cat dinger ; OM5 ROOM 5 ROOM eateto Applied of Department ö igrcat dinger μ Region m ; Royal μ m e se,adCND etrfor Germany Duisburg-Essen, Duisburg, Center – Nanointegration CENIDE and Essen, of Duisburg- of University Faculty Engineering, (NST), NanointegrationNanostructures Ger- for many Duisburg, Center Duisburg-Essen, CENIDE and – (ATE), Duisburg-Essen, University of Engineering, of Engineering Faculty Electrical Erni 11:00 ∙ Resonator Microsphere Dielectric a Coated of Means by Exosome an within Alteration Protein Detecting FRI CL-4.1 Italy Genoa, Tecnologia, di Italiano Is- tituto Technologies, Human Spectroscopy, for Center and Microscopy ular Molec- Vicidomini, Guiseppe Chair: Sensing and Imaging Free Label- Spectroscopy, CL-4: 12:15 – 11:00 beam. single a in N00N-states OAM two-photon with this demonstrate experimentally We sensitivity. increased ro- an estimating with tations in harnessed modes be (OAM) can momentum gular an- orbital in encoded N00N-states Ottawa, Canada Canada, of Council search Finland 9:45 Tampere, Fickler R. ∙ N00N-states twisted using super-resolution angular Photonic FRI EB-9.6 .Jalali M. Hiekkam M. nrae hs estvt of sensitivity phase increased e 1 ; ; 2 1 nttt fTcnlg for Technology of Institute eea and General 1 1 .Benson N. , ; OM6 ROOM 6 ROOM ä 1 ki apr University, Tampere 1 .Bouchard F. , ; 2 ainlRe- National 2 n D. and , eoretical 2 and , ein rpsdt nbeafurther a the enable to present proposed designs ber as and strategies well promising as most TMI of ing understand- current the review We Engineering, Germany Precision Jena, Germany and Optics Jena, Jena, 3 Institute Friedrich-Schiller-Universit Photon- of Center ics, Abbe Physics, Limpert ea ea Germany Jena, Jena, Kholaif S. ∙ Topic” “Hot a Systems: Laser 11:00 Fiber High-Power in Instability Mode Transverse (Invited) FRI CJ-8.1 Center, Research Russia Moscow, Optics Dianov Fiber Likhachev, Mikhail Chair: Lasers Fiber Power High CJ-8: 12:30 – 11:00 transport atomic trollable con- to optical leading momentum, with angular light laser of under action spiral the or rotate can cavity atoms a cold in self- of cloud to a in due structuring solitons spatial Stable Kingdom United 9:45 Scotland, Glasgow, Strathclyde, of University Physics, Oppo of G.-L. and Yao, ∙ Solitons Cavity Optomechanical Spiralling and Rotating FRI EF-8.6 .Jauregui C. A. Ackemann, T. Robb, G. Baio, G. ruhfrIsiuefrApplied for Institute Fraunhofer 1,2,3 1,2 OM7 ROOM 7 ROOM ; .Tu Y. , 1 1 nttt fApplied of Institute .Stihler C. , ; ; 1,2 2 Department Helmholtz- n J. and , 1,3 ä t , ; o eibennierapplications lithium nonlinear reliable for that allows photonics integrated niobate demonstrate We Science, Germany Hamburg, (DESY), Elektronen-Synchrotron Laser Deutsches Free-Electron (CSEM), for Switzerland Microtechnology Neuchatel, and Ghadimi 1 A. .Despont M. Leo J. Voumard multimode using gates devices. optomechanical logic of realization the in perspectives open a nanomembrane. cavity, crystal photonic integrated and an using thermo-optic resonator modulated mechanical a between interaction the explore We France France Paris, Paris, de Malta Malta, Malta, of Nanotech- Palaiseau, de 2 de nologies, et Centre Nanosciences Braive CNRS, Paris-Saclay, R. and K81FI11:00 ∙ Applications Metrological for PICs Insulator on Niobate Lithium of Stability Long-term FRI CK-8.1 Uni- Ghent Belgium / versity, Bruxelles de Libre Univer-sité Clemmen, Stéphane Chair: Photonics Integrated Non-Linear CK-8: 12:30 – 11:00 9:45 ∙ nanoresonator optomechanical crystal photonic in dynamics Floquet FRI CK-7.6 .Obrzud E. Madiot G. ws etrfrElectronics for Center Swiss eateto hsc,University Physics, of Department 1 .Wildi T. , 2 .Choong G. , 1 OM8 ROOM 8 ROOM 1 .Pelka K. , .Lecomte S. , 1 1 .Sattari H. , n .Brasch V. and , 1,3 2 .Dubochet O. , ; 2 .Xuereb A. , 1 ; .Denis S. , s results ese 1 ; 3 1 .Herr T. , Université Université 2 Center 1 T. , 2 1 1 2 1 , , , , ; ; CLEO efnatn1 06 Hannover, 30167 Germany 1, Villeurbanne,Welfengarten Hannover, University Leibniz 69622 Optics, UniversitéFrance Lyon, CNRS, - de 1 Lyon Uni- versité 5306 UMR Lumière-Matière, 91680 France LMCE, Bruyères-le-Châtel, CEA, France Paris-Saclay, Arpajon, Bergé Vai Buo D. 9:45 Melchert O. ∙ interference wavepacket electronic and nanojunctions asymmetric in currents Unidirectional FRI EG-7.6 E51FI11:00 ∙ polarization circular vs. linear with elds laser multi-color by generation pulse Terahertz FRI EE-5.1 King- dom United Heriot-Watt Glasgow, Travers, University, John Chair: Sources Ultrafast Novel EE-5: 12:30 – 11:00 nanogap. wavepackets the in electronic interfer- the of inter-cycle ence the is discuss it in that we rooted show Here and mechanism elds the created. optical be strong can in nano- junctions asymmetric in currents CW Oldenburg, Germany University, 2a, Ossietzky Germany Str. Berlin, Born 12489, Max Institute, China Born Road Hangzhou, Shilongshan 310024, 18 30167, University, Germany Uni- 1, Hannover, Welfengarten Leibniz versity, Optics, Kovacev Quantum M. and Lienau .Babushkin I. .Stathopulos A. č aitis 1,2 ® ; 4 ž .Ivanov M. , ; 4 ius ; Erp-QC2021 /Europe-EQEC .Skupin S. , 1 4 E-A,DF 91297 DIF, CEA-DAM, nttt fQuantum of Institute OM9 ROOM 9 ROOM 4 5 1 .Babushkin I. , 1 lse fExcellence of Cluster .Demircan A. , .Shi L. , 1,2 1 .Tailliez C. , ; ; 3 2 .Morgner U. , .Husakou A. , ; 1 3 nttt of Institute ; n L. and , 2 Université 4 2 ; alvon Carl Westlake 3 ; Institut 4,5 1 3 C. , Max V. , 1,2 3 1 , , , 153 .Tanaka K. hsc,KooUiest,Kyoto, University, Japan Kyoto Physics, pia parameters. optical fundamental of determination accu- rate more for potency has this and spectroscopy generation sum frequency by observed directly were exci- tons 2p Here, environment. sional dimen- low to due properties unique have MoSe2 monolayer in Excitons Japan Kyoto, University, Kyoto Sciences, Material netgtdfrecetthird- ecient for are investigated metasurfaces Astronomy, Graphene-based USA and Ames, , University State Physics Iowa of ment Depart- and DOE Laboratory—U.S. Soukoulis 9:45 ∙ spectroscopy generation frequency sum by revealed MoSe2 monolayer hBN-encapsulated in exciton 2p of Signature FRI EI-4.6 o eerhadTechnology and Greece Heraklion, Research Hellas, Foundation Laser, for and Heraklion, Structure Crete, Greece of Technology, University and Science Materials Kafesaki M. 11:00 ∙ Generation Ecient for Metasurfaces Graphene-Based FRI EH-5.1 Centre Kingdom London United London, Nanotechnology, and for London Col- lege King’s Krasavin, Alexey Chair: Metasurfaces Nonlinear and Tunable Hybrid, EH-5: 12:30 – 11:00 .Takahashi S. A. ⋅ ; rdy2 ue2021 June 25 Friday eodosi ; 2 nttt o nertdCell- Integrated for Institute 2,3 2 OM10 ROOM OM10 ROOM nttt fElectronic of Institute ..Economou E.N. , 1,2 r Harmonic ird 1,2 1,2 1 ; .Tsilipakos O. , .Kusaba S. , ; 1 1 eatetof Department eatetof Department ; 1 2 2 3 and , C.M. , and , Ames htncsltosfrgenerating for solutions Photonic Kingdom United Leeds, Leeds, Colombelli aasa,France Italy Palaiseau, Pisa, Normale , Scuola Superiore and Nanoscienze Palaiseau, , France Nanotechnologies de Dhillon Tignon J. attractive applications. and capacitive for porous highly structures were fabricated of the structure bamboo, to car- naturally-porous Owing the femtosecond-laser bamboo. of bonization the fabricated crystalline were by carbon highly graphitic of structures composed conductive Keio Electrically Engineering, Japan Yokohama, University, Electrical and France Paris, Supérieure, Normale l’Ecole de 11:00 Li L. Vigneron Pistore V. Lasers Semiconductor Terahertz with Photonics Wave Millimeter FRI CC-7.1 Huebers, Germany Heinz-Wilhelm Berlin, DLR, Chair: QCL THz CC-7: 12:30 – 11:00 Japan Yokohama, University, Keio neering, 1 Hayashi 9:45 ∙ bamboo of carbonization direct laser by fabricated structures carbon porous conductive Electrically FRI CM-7.6 .Miyakoshi R. colo nertdDsg Engi- Design Integrated of School 5 ; .Davies G. , ; ; 1 2 1 2 ; eateto Electronics of Department 2 n .Terakawa M. and , eted aocecset Nanosciences de Centre 3 .Garrasi K. , 1 2 OM11 ROOM 11 ROOM 1 ET N Istituto - CNR NEST, aoaor ePhysique de Laboratoire 1 .Vitiello M. , .Mangeney J. , .Nong H. , 1 .Morosawa F. , ; 5 .Lineld E. , 5 3 nvriyof University .Houver S. , ; 3 and , 4 1 ONERA, P.-B. , 1 R. , 1 S. , 1,2 ∙ S. 5 4 , , ; eosrt h motneo bulk of importance the demonstrate We nonlinearity. optical distributed a of exploitation the experimentally, and numerically both investigate, computer to reservoir a used have We Brussels, B-1050 Belgium Bruxelles, de libre Université Quantique, Belgiumd’Information B-1050 Brussels, Brussel, Universiteit Vrije 1 Massar ∙ 11:00 Computer Reservoir Fiber-Based Coherent Photonic a in Nonlinearity Distributed a Exploiting FRI JSIV-3.1 Besan FEMTO-ST, Brunner, Daniel Chair: II Computing Optical JSIV-3: 12:15 – 11:00 .Pauwels J. ple hsc eerhGroup, Research Physics Applied ç n France on, 2 n .VndrSande der Van G. and , OM12 ROOM 1,2 NOTES .Verschaelt G. , ; 2 Laboratoire 1 S. , 1 ;
Friday Orals Friday Orals n fbooia ape troom- at temperature. samples imag- biological wide-eld of ing allow to nology tech- detection silicon-based of rity matu- the harnessing mid-IR, the microscopy in for cost- technique and eective powerful a pho- provides tons entangled with in- terferometry nonlinear that demonstrate We Germany Berlin, Humboldt-Universit Universit 1 Chrzanowski Germany 11:30 ∙ photons undetected with microscopy Mid-infrared FRI CH-11.2 .Kviatkovsky I. ntttf Institut ä ; uBri,Berlin, Berlin, zu t ü OM1 ROOM hsk Humboldt- Physik, r 1 n .Ramelow S. and , 2 RSAdlershof, IRIS ä 1 uBerlin, zu t H.M. , 1,2 ; OM2 ROOM CLEO rtr o i-RSpectroscopy Austria Vienna, Optics, Mid-IR Semiconductor and for Lab- Doppler oratory Christian Structure Nano Research, for Center Faculty Physics, of Faculty Vienna, of versity Sobo Martynkien T. Perner Mayer 11:30 ∙ Source Laser Single-Cavity Modulated Intrinsically an Using Ranging Dual-Comb Free Ambiguity- for Approach Simple FRI CF-9.3 1.15-kHz. to set laser was dierence single-mode a diode. by comb per and pumped power repetition-rate average 115-mW 161-MHz pulses at 100-fs with laser dual-comb free-running, Yb:CaF2 a polarization-multiplexed demonstrate We ETH Switzerland Zurich, Electronics, Zurich, Quantum of tute 11:15 Keller Camenzind, S. Pupeikis, J. Willenberg, B. Koenen, D. Yb:CaF Pumped Diode Laser Single-Mode FRI CF-9.2 applications. mid-infrared comb dual- for frequency-conversion ear epeetasml prahfor ranging. approach dual-comb ambiguity-free simple a present We Poland Wroclaw, Technology, of University Wroclaw Group, Electronics Fiber & Poland Curie-Sk Lublin, University, M. Technology, Poland Wroclaw, 3 Technology, Technology, and of Wroc Problems mental .Fellinger J. .Lbrtr fOtclFiber Optical of Laboratory 3. ń ł ; wUiest fScience of University aw 4 1 ® 1 eateto hsc,Insti- Physics, of Department n ..Heckl O.H. and , .Shumakova V. , ; ...Aldia P.E.C. , 2 ulCm Oscillator Dual-Comb Erp-QC2021 /Europe-EQEC 2 ual repetition-rate tunable e .Fclyo Funda- of Faculty 2. OM3 ROOM 1 .Winkler G. , ∙ 2 ..Pilp,adU. and Phillips, C.R. .Mergo P. , 1 ..Pecile V.F. , 1 ; ; ł 1 4 1 odowska L.W. , .Laser 4. .Uni- 1. 1 A.S. , 3 G. , 1 , ; 154 precision. optical-phase-delay high and lution reso- interferome- spatial high realizes novel which ter, a with system optical holography digital time- resolved coaxial abla- a constructed laser we tion, in materials in changes thermodynamical slight observe To Japan Tokyo, Bunkyo-ku, J. Kuwata-Gonokami Ideguchi, M. and Yumoto, T. Konishi, K. Sakurai, ∙ 11:30 Dynamics Ablation Laser in Observation Detail for Precision Phase High with System Holography Digital Time-Resolved FRI CM-8.3 de- precisely scribed. are distributions sity inten- in-bulk inter- the account, planar into face the and focus- elements the ing by the induced taking aberrations By beams. for laser focused and model fast, vectorial exible, benchmarked a introduce We Germany Jena, Precision 07745, 7, and Albert-Einstein-Str. Optics Engineering, Applied for Blothe 11:15 M. ∙ processing laser in-bulk for soware-tool exible and model vectorial benchmarked A FRI CM-8.2 interactions. matter Germany Jena, 07745, 15, Albert-Einstein-Str. Jena, Photonics, of Friedirich-Schiller-University Center Abbe Physics, Nolte .Kwn,M aais,H. Tamamitsu, M. Kawano, S. Li Q. nvriyo oy,Hongo, Tokyo, of University e ⋅ 1,2 rdy2 ue2021 June 25 Friday ; 1 ; .Chambonneau M. , 1 OM4 ROOM .Gross H. , 1 nttt fApplied of Institute 2 ruhfrInstitute Fraunhofer 1,2 n S. and , 1 , ; ocutcgsanalysis. gas toacoustic narrowing. spectral providing nique tech- injection-seeding with ability tun- wavelength their PPLN combining fan-out by on parametric based oscillators optical pulsed of mid-IR capabilities en- spectroscopic to hance possibility demonstrate We Russia Novosi-birsk, University, Technical State Russia Novosibirsk, 1 Kostyukova Ivanenko Erushin 11:30 E. Analyzer Methane Photoacoustic for Oscillator Parametric Optical Pulsed Injection-Seeded in Tuning Wavelength and Narrowing Spectral FRI CD-10.3 in generation waveguides. nonlinear parametric seeded wave optical continuous on based ef- (63.5%). conversion ciency high and pJ) (30 old thresh- genera- low extremely featuring comb tion frequency mid- infrared for method a demonstrate We Finland Tampere, University, Finland Espoo, versity, Taiwan Hsinchu, Corp., Finland Helsinki, Vainio 11:15 M. ∙ Generation Comb Frequency Mid-Infrared Low- FRI CD-10.2 .Roiz M. ooiis tt University, State Novosibirsk sapoc losavne pho- advanced allows approach is ehl Fully-Stabilized reshold 1 1 .Y Lai J.-Y. , 1,4 .Korel I. , 1,2 1,2 OM5 ROOM ; 1 .Nyushkov B. , and , nvriyo Helsinki, of University ; 2 2 .Karhu J. , .Boyko A. , 2 ; CPhotonics HC ∙ .Kolker D. ehdis method e ; 2 ; 3 Novosibirsk at Uni- Aalto 4 Tampere 1,3 1,2 1 and , A. , N. , 1,2 ; udmna acrstudies. cancer and fundamental diagnosis cancer stage early technique for mi- a coated as a resonator crosphere of means free label by a manner in sensed is exosome an u-0f rnin bopinspec- absorption transient of sub-30-fs combination the via nucleosides epigenetic four all characterized We a DNA. in information of establish layer second nucleosides Modied Germany Munchen, Munchen, Universitat Italy Maximilians Bologna, degli Bologna, 3 Universita di Studi Industriale, Milano, ica Milano, Italy di Politecnico Cerullo Carell Ponkkonen E. 11:30 ∙ Pulses UV Sub-20-fs With Tracked Nucleosides DNA Epigenetic Of Pathways Decay State Excited FRI CL-4.3 solution. aqueous bovine in proteins of milk sensing spectroscopy mid- IR broadband for detectors cade cas- quantum and laser cascade quan- tum of combination a present We Austria Vienna, Universit tures,Technische Nanostruc- and Micro- for Center & Uni- 2 Analytics,Technische versit and 1 Harrer Schwaighofer ∙ 11:15 Detector Cascade Quantum and Laser Cascade Quantum a employing Sensor Protein Integrated Fully Mid-Infrared Broadband Towards FRI CL-4.2 .Kabacinski P. Dabrowska A. eateto hmsr,Ludwig- Chemistry, of Department Electronics State Solid of Institute Technologies Chemical of Institute rcino rti otn in content protein of fraction e ; ä 3 in,Ven,Austria Vienna, Wien,, t 2 .Garavelli M. , 1 .Strasser G. , 2 ; iatmnod Chim- di Dipartimento 1 OM6 ROOM iatmnod Fisica, di Dipartimento 1 .Hinkov B. , 1 3 1 .Romanelli M. , .Conti I. , .David M. , 2 n .Lendl B. and , 2 n G. and , ä Wien, t 2 2 2 A. , T. , A. , 2 1 , ; ; ; r ae t8Mz rdcs73fs energy. 7.3 - microjoule-level produces with MHz, pulses Yb 8 low-noise at laser 36 a bre from by pulses pumped fs PCF, single-ring core Kr-lled long hollow cm 20 A Germany langen, Friedrich-Alexander-Universit ro,USA Arbor, Ger- Erlangen, many Light, of Science the Russell Jiang J. J82FI11:30 ∙ rate repetition MHz 8 at energy microjoule-level with pulses single-cycle CEP-stable Towards FRI CJ-8.2 systems. laser ber power of average output the of scaling .Tani F. ; 1,3 2 2 1 ..Fermann M.E. , MAAeia n. Ann Inc., America, IMRA .Lampen J. , ; 1 ; OM7 ROOM a lnkIsiuefor Institute Planck Max 3 eateto Physics, of Department 2 .Schade D. , 2 n P.S.J. and , ä ,Er- t, 1,3 , IPYI,Nc France Nice , Nice de (INPHYNI), Physique de Institut CNRS, Palaiseau, France C2N, Nanotechnologies 1 Belabas N. h eosrto fon-chip of entanglement. for supermode-based demonstration way the nonlinear the fully- paving pump a and bered with linear couplers directional of interferometer made nonlinear integrated LiNbO3 through specically-designed a SHG demonstrate supermode-based experimentally We Romania Iasi, Iasi, of University Cuza Ioan Alexandru and Technologies, Materials Advanced on Center Rambu Lunghi T. rrsntr ihma quality mean with mi- fabri- photonic croresonators CMOS for technique a cation present we required. Here, are throughput rication fab- high and losses optical ultralow circuits, integrated photonic linear non- of applications widespread For Switzerland Lausanne, (EPFL), Lausanne nology Kippen- berg T. and Engelsen, N. Li- hachev, G. Riemensberger, J. Raja, A. He, 11:30 ∙ circuits photonic nitride silicon dispersion-engineered ultralow-loss, of fabrication wafer-scale High-yield, FRI CK-8.3 11:15 ∙ interferometer nonlinear a in generation harmonic second Supermode-based FRI CK-8.2 direct frequency a for comb. of allows self-referencing super- generation second-harmonic plus octave-spanning continuum stable hours, a femtosecond >400 Over irradiation. laser continuous under .Lu .Hag ..Wn,J. Wang, R.N. Huang, G. Liu, J. Barral D. eted aocecse de et Nanosciences de Centre ; ws eea nttt fTech- of Institute Federal Swiss ; 3 .Tascu S. , 2 1 nvriéCt d’Azur, Côte Université 2 .D’Auria V. , 1 OM8 ROOM .Tanzilli S. , n .Bencheikh K. and , 3 ..Levenson J.A. , 2 .Doutre F. , ; 3 Research 2 A.P. , 1 2 1 , , ; CLEO fafmoeodifae lament. infrared femtosecond con- a O- of the to spectrum angle-wavelength X- for shaped from used transition is tinuous vapor) wa- a and ter (nitrogen where gases of mixture experiment, an we propose simulations, numerical 3D+t In Russia of MOSCOW, Academy Sciences, Russian the of Institute Russia MOSCOW, University, State Moscow 1 Shipilo D. 2Waeaepwr etn new milestone. a at setting power, energy average >20W >20mJ comprise pulses ber. hollow-core stretched a in at emitting laser 2.05 holmium 1kHz of a pulses 2.4ps 45mJ, compress We Germany Berlin, Spectroscopy, Pulse Optics Short and Nonlinear 11:30 for Griebner Institute Born U. and berschaer, ∙ Infrared Mid-Wave the in Compression Pulse High-Energy FRI EE-5.3 11:15 ∙ Gases Dense in Filamentation Mid-Infrared of Management Dispersion FRI EE-5.2 ae harmonics. laser of number the with e- increases ciency conversion terahertz to frared in- linear the pulses, laser both multi-color femtosec- ond polarized for circularly that, and Hannover, report We 30167 AcrossGermany Disciplines), and Engineering-Innovation Optics, (Photonics, PhoenixD .Ng,L o rfnti,D Ue- D. Grafenstein, von L. Nagy, T. Kosareva O. aut fPyis .V Lomonosov V. M. Physics, of Faculty μ aeeght 0sduration 90fs to wavelength m ® ; 2 Erp-QC2021 /Europe-EQEC 1,2 .N eee Physical Lebedev N. P. OM9 ROOM n .Nikolaeva I. and , 1,2 .Panov N. , ; Max 1,2 1,2 e , ; 155 hs–noe images. phase–encoded high–resolution retrieving preci- and meta–unit sion single distribu- with phase tions light spatial ming program- is optically by metasurfaces demonstrated these mode. of con- versatility transmission phase in optical trol change for phase materials incorporated metasurfaces with tunable present University,We Aachen Germany Aachen, RWTH (IA), metasurface -19dB. to up conversioneciencies achieve we with resonances, third-harmonic frequencies and the fundamental aligning and patches graphene THz 2D-patterned exploiting the By regime. in generation harmonic t ehnclrsnnefrequency. resonance mechanical acrossits actuator piezo a by driven is it when bistability and hysteresis ex- hibit metamaterial this of properties device. opti- bistable as cally with acts resonators decorated plasmonic array nanowire A Singapore Singapore, University, Technological TPI, Nanyang SPMS, Technologies, Photonic Kingdom United of Southampton, Southampton, University Metamaterials, tonic Pho- for 11:30 Centre and Centre Research Zheludev N.I. ∙ Metamaterial Photonic in Bistability Nanomechanical FRI EH-5.3 Altug H. 11:15 Wuttig ∙ control phase optical active for metasurfaces Huygens’ Programmable FRI EH-5.2 eLuan EF) Lausanne, (EPFL), Switzerland Lausanne Fédérale Polytechnique de École ing, .Papas D. Leitis A. ⋅ rdy2 ue2021 June 25 Friday 2 .Taubner T. , 1 ; 1 ; 1 .Heßler A. , OM10 ROOM .Y Ou J.-Y. , 1 ; 2 nttt fBioengineer- of Institute etefrDisruptive for Centre 2 1,2 nttt fPhysics of Institute ; 1 1 2 .Plum E. , Optoelectronics 2 .Tittl A. , .Wahl S. , optical e 1 1 and , 2 and , M. , e c o vroigpeiu LO- previous as limitations phonon-energy-based overcoming for ics optoelectron- THz-intersubband in material new a is m-ZnO Non-polar Spain Spain Madrid, ISOM, Madrid, Inorganica, 5 Ouim- de ica Departamento France Madrid, Valbonne, d’Azur, 4 Cote Switzerland Zurich, 3 Electronics, Z Austria Vienna, Electronics, 1 Chauveau Bajo Pardo Biavan Stark Le N. C73FI11:30 ∙ structures cascade quantum ZnO non-polar from electroluminescence THz FRI CC-7.3 K. 100 to work- up and temperature ing V/W 17 then higher detectors responsivi- ties tunable with demonstrated Fast de- are to exploited light. be tect can laser cade cas- quantum terahertz in transport Scalari Z G. 11:15 and Beck, ∙ Detector Cascade Quantum Terahertz Amplied Resonantly a of Demonstration FRI CC-7.2 ilmtrwv eeaini a in device. generation single wave millimeter based and present emission laser we THz for quantum-cascade-laser solution Here that and a eld domains. optoelectronics developing RF fast radiation combines a millimeter is space free .Hinkov B. M. Olariu, T. Faist, J. Micheletti, P. nvria oienc eMadrid, de Politecnica Universidad de Complutense Universite Universidad and CNRS-CRHEA State Solid of Institute Wien, TU ü ü htndie aueo the of nature photon-driven e ih nttt o Quantum for Institute rich, ih Switzerland rich, 5 2 .Hierro A. , 4 .Franckié M. , .Tamayo-Arriola J. , 3 1 OM11 ROOM n .Strasser G. and , .Meng B. , 3 .Lefebvre D. , 5 .Faist J. , 2 ; 2 ..Hoang H.T. , .Torres- A. , T Zurich, ETH 5 2 M.M. , ; J.-M. , 2 3 ETH D. , 1 1 , ; ; ; ; opttoa tasks. complex computational for in use and basis networks larger the provide simulations and experiments Proposed cavities. compound from signatures unique is spectral detecting coupling by mutual demonstrated net- where in studied works are lasers Random Spain Madrid, (CSIC), Su- Cientícas Investigaciones Consejo de perior (ICMM), Madrid de Spain Madrid, 3 Madrid, de Com- plutense Universidad Física, Química Spain Madrid, Carlos, Juan Rey Universidad cación, 11:30 López C. ∙ networks photonic complex in lasers random coupled Mutually FRI JSIV-3.3 training stage. the during the injection by such noise enchanced of be can robustness networks how show Here we noise. environment and tion fabrica- inevitable the to are susceptible networks ana- neural articial of logue implementations Optical King- dom United Birmingham, versity, Turitsyn S. and Kopae, 11:15 ∙ Networks Neural Analogue of Implementation Optical Noise-Resistant FRI JSIV-3.2 prto flre eevi com- reservoir puters. larger of operation all-optical future for nonlinearities .Consoli A. Kamalian- M. Ron, Arguello D. nttt eCecad Materiales de Ciencia de Instituto 3 ; OM12 ROOM 1,3 1 TId Telecomuni- de ETSI .Caselli N. , ; 2 eatmnode Departamento ; so Uni- Aston 1,2 and , ;
Friday Orals Friday Orals terization. charac- states quantum dimensional high- and imaging biological for tial poten- with holography, classical to vital is need that coherence rst-order the for ap- circumvents that holography proach quantum a strate demon- we photons, between ment entangle- polarization exploiting By Kingdom Glasgow, United Glasgow, of University 12:00 Astronomy, Faccio D. and ∙ holography quantum enabled entanglement- Polarization FRI CH-11.4 presented. and analyzed are detection on-chip coincidence with SPAD-arrays fecting af- errors Measurement signal-to- ratio. noise maximized with lations corre- temporal revealing to detectors coupled twin-beams in relations cor- quantum exploiting surpassed be can boundaries imaging Classical Italy Po- Milano, Milano, di litecnico Biongegneria, e 11:45 Informazione Villa ∙ detection SPAD on based system imaging quantum a of Analysis FRI CH-11.3 .Dne .Naao .Lyons, A. Ndagano, B. Deenne, H. F. and Madonini, F. Severini, F. ; iatmnod Elettronica, di Dipartimento OM1 ROOM ; colo hsc and Physics of School u el eeoe ieoere- sidelobe lter. duction developed with newly together our gratings, larization po- on based technique beam duplication of use re- by improved was markably vortices optical of position decom- (OAM) momentum angular Japan Japan Japan Hirosaki, University, Nagaoka, ogy, Sapporo, 2 University, Toda ioe,XI,URCR 7252, France Limoges, CNRS UMR XLIM, of Limoges, University Italy Brescia, Brescia, (DII), Engineering Italy Rome, Rome, of (DIET), University Sapienza Electronics Telecommunications and Engineering, mation Wabnitz Couderc V. 12:00 Zitelli ∙ self-imaging spatial bimodal-propagation-induced of visualization Direct FRI CI-4.3 Sakamoto 11:45 ∙ gratings polarization using by vortices optical of sorting mode momentum angular orbital in Improvement FRI CI-4.2 .Ferraro M. Yamane K. aak nvriyo Technol- of University Nagaoka eeto cuayi orbital in accuracy detection e ; 1 1 n .Morita R. and , 2 .Niang A. , eateto Information of Department 1 ; 2 .Ono H. , OM2 ROOM 3 1 .Frezza F. , 1 eateto Infor- of Department 1 .Mangini F. , .Iitsuka K. , 2 .Tonello A. , 2 ; .Oka K. , 3 1 nvriéde Université ; ; 1 1 n S. and , Hokkaido 3 Hirosaki 1 2 M. , M. , 3 Y. , 3 , ; CLEO oeuái-UjeymtKutató Ujjlenyomat (CMF), Molekuláris- Fingerprinting Molecular Germany Munich, Garching, University Germany Maximilians Garching, Optics, Quantum of Institute Planck Krausz Schweinberger Sulzer Hofer Jacob 12:00 ∙ Tracking Delay Electro-Optic Employing Spectroscopy Field-Resolved Infrared Oscillator Dual- Attosecond-Precision FRI CF-9.5 UV deep regions. and UV in Spectroscopy Dual-Comb rst performing wards per- its formance. preserving green ex- in was wavelength tended nm operat- 1030 at oscillator ing thin-disk frequency comb dual power high Passive Germany Munich, Optics, Germany Hamburg, 11:45 2 University, Pronin O. and ∙ Spectroscopy. Dual-Comb UV deep passive fully Towards FRI CF-9.4 limitations. ambiguity to overcome us enabling dis- measurements tance dual-comb and simultaneous time-of-ight for dual-comb dual- color single-cavity Intensity a intrinsic of modulation the exploit We .Weigel A. Hofer T. a-lnkIsiueo Quantum of Max-Planck-Institute 1,2 1,2,3 1,2,4,5 ® 1,2 .Amotchkina T. , 1 n .Pupeza I. and , .Trubetskov M. , Erp-QC2021 /Europe-EQEC .Fritsch K. , ..Hussain S.A. , OM3 ROOM 1,2,3 1,2 shlspoieto- promise holds is 1 .Buberl T. , ; .Pervak V. , 1 emtSchmidt Helmut ; 1 ; .Picqué N. , 3 etrfor Center 1,2 2 1,2 ; 2,3 Ludwig 1,2 1,2 1 1 C. , W. , P. , Max- P. , F. , 2 , ; 156 madsbp us durations. pulse sub-ps and nm 1056 of wavelength near- central a infrared with with pulses irradiated laser ultrashort ablation oxide indium of tin mi- reectivity observe dynamic pump-probe to the order in a setup croscopy utilize We Germany Aachen, University, Germany Mu- nich, Sciences, Applied of University Huber 11:45 ∙ Fields Laser Intense Under Solids in Dynamics Electron of Simulation Vlasov FRI CM-8.4 M85FI12:00 ∙ Oxide Tin Indium of Dynamics Ablation Time-Resolved FRI CM-8.5 and theory time-dependent results. experimental functional the density excel- with agree lently particle results systems. computation pseudo periodic to the method extend solids. We in dynamics laser- electron driven for approach Vlasov-LDA-based semi-classical a propose We Japan Tokyo, Tokyo, Technology, of University Laser and Science Japan Tokyo, Tokyo, 4 of University Engineering, Kyoto, of School Graduate Technology, Radiological Japan and and Science Quantum for Institutes National Institute, Science Japan Tokyo, Shinohara n aaeet colo Engi- of neering, School Management, and 1 .Tani M. ..Hallum G.E. eerhIsiuefrPhoton for Institute Research eateto ula Engineering Nuclear of Department ⋅ ; 1 rdy2 ue2021 June 25 Friday n .Schulz W. and , 3 1,3 htnSineCenter, Science Photon 1,2 OM4 ROOM nvriyo Tokyo, of University e n ..Ishikawa K.L. and , 1 .Otobe T. , .K D. , ; ; 2 2 asiPhoton Kansai WHAachen RWTH ü rschner 2 ; 1 Munich 2 2 Y. , H.P. , 1,3,4 e e e ; ; nhg emquality. beam high hours, in power 1.5 over excellent 0.5%rms of with stability nm, power output 2262 MgO:PPLN, and of at W in ~4 Yb generating lasers dierence- of Tm-ber frequency-mixing single-pass continuous-wave high-power report We Spain Barcelona, Avan Estudis i Recerca Spain fels, Ebrahim-Zadeh Castellde- Technology, and Science of Fotòniques, M. 1 and ihteptnilt estu as up set be to potential the with nar- imaging, for Raman source coherent rowband light a present We M M of ster, University Centre, faculty Netherlands Enschede, Twente, of University ogy, 2 M of sity 1 Boller 12:00 J. ∙ imaging Raman coherent for amplication parametric optical Waveguide-based FRI CD-10.5 11:45 ∙ 2.26 at Dierence-Frequency-Generation Continuous-Wave Fiber-Pumped High-Power FRI CD-10.4 ..L N.M. Sukeert . COIsiu eCiències de ICFO—Institut EA nttt o Nanotechnol- for Institute MESA+ Univer- Physics, Applied of Institute ü μ se,Germany nster, ü 2,1 m ü pken se,M nster, ; n .Fallnich C. and , OM5 ROOM ; 2 nttcóCtln de Catalana Institució 3 1 1 el nMto Inter- Motion in Cells ..Suddapalli C.K. , acln Institute Barcelona e .W T. , ü se,Germany nster, ü ç rthwein t (ICREA), ats 1 1,2,3 K.- , ü 1,2 n- 1 , ; ; ; tutr calculations. electronic structure molecular and troscopy Garavelli Conti Faria I. de iera Borrego-Varillas R. a oeec tomography. coherence opti- cal and tweezers method optical elastography on based cell of development single the a on report We Russia Moscow, Sciences, of Academy Russian and Electrochemistry, Chemistry Physical Russia of Institute Moscow, Univer- sity, State Moscow Lomonosov Fedyanin 12:00 Lyubin ∙ Tomography Coherence Optical and Tweezers Optical using Elastography Cell Single FRI CL-4.5 tions. intersec- conical its reveal to tations compu- QM/MM and absorption spectroscopy transient sub-30-fs us- ing tryptophan in processes duced dy- photoin- primary local protein track We UV-excited namics. a of as probe serve can Minas Tryptophan Brazil de Horizonte-MG, Belo Gerais, Federal Bologna, Universidade Bologna, di Italy Universita Studi degli Industriale, Milano, di Chimica Italy Politecnio Milano, Fisica, di Cerullo 11:45 ∙ Pulses UV Sub-20-fs With Tryptophan Of Dynamics Intersection Conical Tracking FRI CL-4.4 .Sirotin M. Kabacinski P. ; 1 1 3 .Soboleva I. , ; eatmnod Fisica, de Departamento 2 2 1 .D Silvestri De S. , ..D Paula De A.M. , ; 1 F-N,Dipartimento IFN-CNR, OM6 ROOM 1 .Romodina M. , 1 ; aut fPhysics, of Faculty 3 1 ..Gentile M.G. , ..Jaiswal V.K. , 2 iatmnodi Dipartimento 1 ..Nogu- B.E. , 1,2 ; n A. and , 2 3 Frumkin n G. and , 1 M. , 1 sall- is E. , 2 2 , , oe cln nmlitg MCF discussed. be multistage will ampliers in scaling power further for prospects and formance, pulse mJ energy. 3.1 Q-switched achieving in used operation, is Yb- bre multicore doped rod-type custom Precision A and Germany Jena, Optics Engineering, Applied for GermanyGermany Jena, 2 Jena, University Friedrich-Schiller- Physics, Limpert Applied J. and Haarlammert N. Jauregui J84FI12:00 drawn. FRI CJ-8.4 Karst 11:45 M. ∙ Pulses mJ 3.1 Delivering Laser Fibre Multicore Rod-Type Q-Switched FRI CJ-8.3 .Aleshire C. emot-nttt ea Jena, Jena, Helmholtz-Institute otiuinhsbe with- been has contribution e 1 ; .Kuhn S. , 1,2 bedsg,lsrper- laser design, bre e OM7 ROOM .Klenke A. , 3 1 ruhfrInstitute Fraunhofer .Steinkop A. , 1,2,3 3 .Schreiber T. , ; 3 .Nold J. , 1 nttt of Institute 1,2 C. , 3 3 1 , , , ; rxle,Buels Belgium de Bruxelles, libre Bruxelles, Université Belgium Photonique, (NB-Photonics), Ghent, Biophotonics and University-IMEC, Belgium Ghent, Ghent Group, Kuyken Léger .Roelkens G. Sagnes Beeck de 12:00 Op C. ∙ photonics nonlinear integrated for printing transfer phosphide Gallium FRI CK-8.5 integrated in structures. achieved 0.096 highest the of eciency × generation a with four-wave wavelengths telecom in at mixing spontaneous pairs waveguides through photon generationAlGaAs-on-insulator correlated the of demonstrate We Italy Pisa, ies, Stud- Advanced of School Sant’Anna (TeCIP), Perception and Information Communication, for Technologies of Glasgow, Kingdom of United Glasgow, University gineering, Germany Hannover, Hannover, University Leibniz plines), Disci- Across Innovation – gineering En- and Optics, (Photonic, PhoenixD Germany Leib- Hannover, Hannover, Technologies, University niz Optical for tre Germany nover, Han- Hannover, University Leibniz Kues 11:45 Angulo ∙ Generation Pair Photon Ecient Highly for Waveguides AlGaAs-on-insulator FRI CK-8.4 and millions yield. wafer-level 30 exceeding factors .Billet M. Mahmudlu H. 01 pairs/(s 10^12 1,2,3 4 .Cornet C. , 5 1,2,3 1,2 .Pantzas K. , ; ; ; 1,2,3 .Sorel M. , 1 OM8 ROOM 3 nttt fPhotonics, of Institute 1,2 lse fExcellence of Cluster .Poulvellarie N. , 1 .Leo F. , htnc Research Photonics ; 1,2,3 1,2 ; 2 4 × etrfrNano for Center 2 .Reis L. , .Raineri F. , 5 ; .May S. , anvrCen- Hannover ^) n of one W^2), ; .Beaudoin G. , 4 colo En- of School 4,5 3 n M. and , ; n B. and , 3 5 OPERA- Institute 1,2,3 4 A. , 1,2,3 5 Y. , I. , 5 , , ; CLEO a epoue thg compres- high ratios. sion at produced be contrast can temporal high ultrashort with pulses that data, by experimental supported simulations, merical nu- by show We disper- post-compression. pulse of on ratio compression eects and sion the explore We Germany Darmstadt, f SwedenGermany Lund, University, 3 Hamburg, Lund DESY, Germany Synchrotron Heyl Seidel Manschwetus M. Alisauskas E54FI11:45 ∙ pulses post-compressed SPM-broadened of contrast temporal the on ratio pression com- and dispersion of Role FRI EE-5.4 rse ngast 75fs. to glass in pressed 300nm degradation. without obtained to were eciencies 69% cascaded-SFG, conversion a in Yb-pump the Utilizing up- OPCPAs. SH-pumped broadband ecient for schemes highly conversion present DESY,We Germany Hamburg, Hartl I. Elektronen-Synchrotron 12:00 and Tajalli, A. ∙ fs-OPCPA pumped green a from generation pulse UV tunable Ecient FRI EE-5.5 ü .Escoto E. .Ln,S lsuks .Kazemi, M. Alisauskas, S. Lang, T. emot-nttt ea Jena, Jena, Helmholtz-Institute cwroefrcugGmbH, Schwerionenforschung r ual Vple r com- are pulses UV tunable e 1,3,4 ® ; ; ; Erp-QC2021 /Europe-EQEC 1 2 4 1 .T H. , 1 OM9 ROOM 1 eateto Physics, of Department S Helmholtzzentrum GSI .L Viotti A.-L. , .Dudde K. , etce Elektronen- Deutsches 1 .Hartl I. , ü 1 nnermann ; n C.M. and , Deutsches 1,2 1 B. , S. , 1 , ; 157 lrti iN are layers. barrier Si3N4 ultrathin incorporating a via issue such fundamental address based to way a validate and levels, material unacceptable to metasurfaces tunable phase-change thermally of optical performance the degrade diusion irreversibly can activated demonstrate thermally how experimentally We United Exeter, Kingdom Sciences, Physical and Mathematics Engineering of lege o xii h aefeunytun- frequency same the exhibit may not metamaterials of patterns tary complemen- Babinet that show We Kingdom United of Southampton, Southampton, University Pho- Metamaterials, for tonic Centre & Centre Research Kingdom United Southampton, Southampton, of sity 1 Wright C.D. and Bertolotti, 11:45 ∙ metasurfaces phase-change tunable thermally in issues diusion and performance optical Overcoming FRI EH-5.4 H55FI12:00 Kaczmarek M. ∙ Metamaterials Crystal-Loaded Liquid in Shi Frequency Resonance Anomalous FRI EH-5.5 .Sils .Ri eGlrea J. Galarreta, de Ruiz C. Shields, J. .Perivolari E. hsc n srnm,Univer- Astronomy, and Physics ⋅ rdy2 ue2021 June 25 Friday OM10 ROOM 1 1 .Apostolopoulos V. , n ..Fedotov V.A. and , ; 2 Optoelectronics ; Col- 1 2 , ; nsilicon. on laser cascade in- quantum an THz tegrated towards step important an is frequencies. THz cascade at structures quantum Ge/SiGe n-type from electroluminescence inter- subband of observation the report We Germany (Oder), Frankfurt f Italy Rome, Physics, of Department Rome, of sity iFsc E em, nvriadi Italy Universita Pisa, Fermi,” Pisa, ”E. Fisica di Tre,M Italy Roma Universita Roma, Scienze, Glasgow, di Kingdom Glasgow, United of University 2 T Z Physics, ETH of Department Electronics, Scalari Seta Capellini .Ortolani M. na Austria enna, Austria Vienna, TU Wien, Nanostructures, Micro-and for Austria Vienna, Wien, TU Birner S. Unterrainer Darmo J. Andrews Bachelard N. Markmann Persichetti C75FI12:00 ∙ Learning Deep by Enhanced Lasers Random Cascade Quantum of Control All-Optical FRI CC-7.5 11:45 ∙ wells quantum germanium n-type from electroluminescence intersubband Terahertz FRI CC-7.4 nZnO. in THz-electroluminescence obser- of vation rst the yielding structures, ZnO/Zn We for fabrication-scheme novel a THz-QCLs. present GaAs-based in ü .Limbacher B. Stark D. ae atSho fEngineering, of School Watt James noaieMikroelektronik, innovative r ü oeia hsc,T in Vi- Wien, TU Physics, eoretical ce,Germany nchen, 3 ..Paul D.J. , 1 ü ; 2,4 ih Z rich, 3,7 4 .Virgilio M. , 1,2 3 OM11 ROOM 1 .Detz H. , 1 .Montanari M. , .D Gaspare Di L. , 1 ; 1,2 nttt o Quantum for Institute .Beck M. , .Mirza M. , .Rotter S. , 0.88 3 7 ; 6 ..Kainz M.A. , ; H Leibniz-Institut - IHP ; 1,2 .Corley C. , 1 Mg ; 4 2 ü 4 htnc Institute, Photonics .Sch S. , nttt o Solid- for Institute .Faist J. , etaoGmbH, nextnano 6 ih Switzerland rich, ; ainaUniver- Sapienza 0.12 ; 5 .Strasser G. , 5 3 1 ; Dipartimento Dipartimento THz-QCL O 5 .Grange T. , 3 .Ciano C. , nttt for Institute 3 ö n K. and , nhuber 1 ; 3 1,2 n G. and , .De M. , 2 2 7 Center A.M. , L. , 3 G. , S. , 2,4 1,2 3 4 is , , , , ; rnmsinvlefrT n TM and polarizations. 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R Ivtd 14:30 valves light crystal liquid with modulation phase sub-millisecond and interferometry for Applications (Invited) FRI CD-11.1 Universit Leibniz Germany Morgner, Hannover, Hannover, Uwe Chair: Conversion Wavelength and Control All-optical CD-11: 16:00 – 14:30 12:15 ∙ light undetected with holography photon Single FRI CH-11.5 .GlbreBasset Gilaberte M. ruhfrIsiuefrApplied for Institute Fraunhofer OM1 ROOM 2 1 .Fuenzalida J. , n .Gr M. and , OM1 ROOM ; 2 1 ICFO-Institut .T S. , sallows is ö 1 pfer F. , ä fe 1 1 , ; inya oprdt GPUs. to compared e- as ciency time in sig- improvement a nicant provides architecture pro- posed the and propagation, bandwidth light lossless the exploiting By proposed. is implementation sition decompo- Cholesky for architecture computing photonic a paper, this In Markham, Canada 12:15 Canada, Eshaghi Technologies A. and Semnani, ∙ Decomposition Cholesky Photonics-Based FRI CI-4.4 ioa pia ber. optical bimodal a of modes LP11 and LP01 of ference inter- the from arising self-imaging the visualizing directly for nescence photolumi- defects silica exploit We emn h brcut-o. ber the termine de- to method length-independent a .Slai .La,S aa B. Saha, S. Luan, E. Salmani, M. ä t L51FI14:30 engineering PSF multiplexed by tracking particle multicolor simultaneous three-dimensional Photon-ecient FRI CL-5.1 Stock- Sweden holm, KTH-SciLifeLab, Testa, Ilaria Chair: Shaping Light Advanced and Dynamic CL-5: 15:45 – 14:30 OM2 ROOM OM2 ROOM sprovides is ; Huawei CLEO ieit n are envelope carrier its slip. phase in and in-sights linewidth novel gives FDML lasers independent two of methods. Beating conventional mea- with be cannot sured but locking domain mode Fourier crucial of applications are for properties Coherence Germany Munich, Munich, of sity Univer- Technical Engineering, puter 2 L of versity 1 Kolb Schmidt M. F96FI12:15 ∙ lasers FDML independent two of Superposition FRI CF-9.6 fa7p iewindow. time 7-ps a of measurement electric-eld-resolved mid-infrared enables kHz attosecond-precision >1 at repeti- frequencies tion detuned their mode- Modulating processes. nonlinear two via monitored second-order is by oscillators locked emitted pulses Canada Vancouver, Columbia, British of sity Canada Vancouver, 5 Columbia, British of University Astronomy, and Hungary K .Grill C. eateto lcrcladCom- and Electrical of Department Uni- Optics, Biomedical of Institute unu atrIsiue Univer- Institute, Matter Quantum ö ea ewe lrsotlight ultrashort between delay e hsn opotK. Budapest, K., Nonprot zhasznú 1 .Jirauschek C. , ® ; 1 Erp-QC2021 /Europe-EQEC .Lotz S. , ü 4 OM3 ROOM eateto Physics of Department 2 ek L beck, .Draxinger W. , H61FI14:30 ∙ Detectors Metasurface Infrared for Springs Optomechanical Molecular FRI EH-6.1 Athens, Greece Athens, of and University National Kapodistrian Tsakmakidis, Kosmas Chair: Metasurfaces and materials Meta- of Applications EH-6: 16:00 – 14:30 .Xomalis A. ü 2 1 n .Huber R. and , ek Germany beck, .Bl T. , ö 1 mker .Zheng X. , 1 J.P. , OM3 ROOM 1 1 , ; ; ; 158 2 M86FI12:15 Shalaby B. spectroscopy LIBS by monitored system cleaning endoscopic smart multimode All FRI CM-8.6 .Pagnoux D. Fabert ytmmntrdb ISspec- LIBS troscopy. by endoscopic monitored smart system multimode us- composition ing de- sample and clean a can termine Q-switched We a diode. by laser Nd:YAG pumped Q- a dual crystal on based new laser switched a demonstrate We Tanta, University, Egypt Tanta Science, France Limoges, 2 7252, CNRS UMR 1 .Chikkaraddy R. , hsc eatet aut of Faculty Department, XLIM, Physics Limoges, de Université ⋅ rdy2 ue2021 June 25 Friday 1 .Manduryan T. , 1,2 OM4 ROOM 1 , n .Couderc V. and , ∙ .Leventoux Y. 1 , 1 .Février S. , J91FI14:30 ∙ Laser Fiber Brillouin All-Chalcogenide Single-Mode FRI CJ-9.1 Turkey Bilkent, UNAM, B Chair: Lasers Fiber Speciality CJ-9: 16:00 – 14:30 .Rze n .Rochette M. and Rezaei M. 1 M. , ü 1 1 edOrta lend , ; ; OM4 ROOM n fbooia pcmn thigh at speed. specimens biological imag- of resolution ing super scattering Raman stimulated enabling nation, us- illumi- structured speckle-based computa- technique, ing far-eld microscopy a tional present We France Marseille, Fresnel, Institut Marseille, Centrale Boulder, Colorado, USA of University Engineering, Energy and Computer, France Paris, Sorbonne Aguiar France, de CNRS, Collège Université, de PSL, Université Barbosa H. 1 and Labouesse D1. R 12:15 ∙ microscopy scattering Raman stimulated illumination structured Speckle-assited FRI CD-10.6 orwv iigi iio nitride waveguides. silicon on in mixing based four-wave device, all-integrated an .Guilbert J. aoaor ate rse,ENS- Brossel, Kastler Laboratoire ; ç ikn nvriy- University Bilkent , 3 ; i asil nv CNRS, Univ, Marseille Aix 2 eateto Electrical, of Department 2 .Gigan S. , OM5 ROOM ; cilUniver- McGill 1 .Negash A. , 1 .Sentenac A. , 1 S. , K91FI14:30 Environment Space for Waveguides Written Laser- Femtosecond of Qualication FRI CK-9.1 Ger- many Aachen, Leader GmbH, Group AMO Giesecke, Nanophotonics, Lena Anna Chair: Micro-photonics for Materials and Technologies Novel CK-9: 16:00 – 14:30 3 1 , ; iswtotapyn n probes. any applying without ties proper- mechanical to cellular evaluate possible it makes method optical OM5 ROOM OM6 ROOM C81FI14:30 Lasers: Cascade Quantum THz in Combs Harmonic Self-starting and Pure FRI CC-8.1 LPENS/CNRS, Dhillon, France Paris, Sukhdeep Chair: Imaging and QCL-combs THz CC-8: 16:00 – 14:30 at dB 17.72 by output. the reduced light was cladding with it and launched tested W was Perfor- 171.3 device ber of mance presented. over was index cladding polymer high of engineered deposition Vapor Center, Turkey Ankara, Orta Research B. Nanotechnology and Midilli, 12:15 Ba A. ∙ Polyethersulfone of Deposition Vapor with Stripper Light Cladding High-Power FRI CJ-8.5 n Experiments and B. Ş im ş rn .YprYlıı,Y. Yıldırım, Yapar E. aran, ş k .Akta O. ek, OM7 ROOM OM6 ROOM ş .Karatutlu, A. , ç ; National eory h oecm lattice. honeycomb of the symmetry chiral res- the polariton and onators our dissi- of driven nature the pative on based photonic lattices, in en- modes to localised way gineer new a demonstrate We France Palaiseau, de Nanotechnologies, et Nanosciences de Centre CNRS, nvriyo asw Warsaw, Physics, Warsaw, of Poland of Faculty University Physics, des tal Lille, Physique Molécules, France – et Atomes PhLAM Lasers, – 8523 1 Ravets .L Gratiet Le L. 12:15 Pernet N. Jamadi O. lattices photonic driven-dissipative in light of localisation Extreme FRI CK-8.6 generation building harmonic (SHG). resonators second allowing and decent technique for integration GaP versatile novel show a as we printing transfer Here nonlinear order applications. third and second been for platform phosphide- ecient an has as proposed (GaP-OI) gallium on-insulator Recently, France Palaiseau, Saclay, Paris Sud. Paris Université. CNRS, (C2N), Nanotechnologies UMR de et Nanosciences France – Rennes, FOTON 6082, Institut CNRS, 4 nvriéd il,CR,UMR CNRS, Lille, de Université nvriéRne,IS Rennes, INSA Rennes, Université 3 ; ; .Bloch J. , SV41FI(nie)14:30 ∙ echoes multipath time-resolved their from scenes spatial Inferring (Invited) FRI JSIV-4.1 France Paris, Sorbonne, of University Gigan, Sylvain Chair: II Metrology and Imaging in Learning JSIV-4: 16:00 – 14:30 .Kapitany V. 3 2 3 .Sagnes I. , 1 nttt fExperimen- of Institute nvriéParis-Saclay, Université .Real B. , OM8 ROOM 3 .Harouri A. , 3 and , 3 1 1 .Lema A. , .Sawicki K. , .Turpin A. , ; OM7 ROOM 5 ∙ etede Centre .Amo A. 3 î S. , tre 2 3 2 1 .Radford J. , , , ; CLEO bopinspectrum. complex absorption a in lines individual of cess under- pro- decay temporal deeper the of standing and insight a direct provides eld- measurements of resolved analysis Frequency-time Spain Spain Barcelona, Fotoniques, 2 Ciencies de Castelldefels, Institut - 12:15 Enders Maidment ∙ waves dark among interference Field-resolved FRI EE-5.6 .Vamos L. CE,Cselees Barcelona, Castelldefels, ICREA, ® 1 1 D. , n .Biegert J. and , Erp-QC2021 /Europe-EQEC 1 .Hensel C. , OM9 ROOM 1 .Tyulnev I. , H1. R 14:30 Spectroscopy Multi-Species Remote for Light Mid-Infrared Broadband of Delivery Hollow-Core-Fiber FRI CH-12.1 Spain Málaga, Biotecnología, y ina Nanomedic- Málaga, de Andaluz of Centro - University BIONAND Halir, Robert Chair: I Sensors Fiber-based CH-12: 16:00 – 14:30 1 .Elu U. , 1,2 ; 1 1 L. , ICFO 1 M. , OM8 ROOM ; 159 eaaeildevices. tunable metamaterial actively towards pathways interesting opens method Our ture. tempera- ambient the controlling by resonances of lattice surface properties plasmonic spectral the post-fabrication of tuning demonstrate We Finland Joensuu, Finland, Finland 1 ..Hakala T.K. Vanyukov H56FI12:15 ∙ Metasurfaces Plasmonic in Resonances Lattice Surface Temperature-tunable FRI EH-5.6 crys- tals. liquid of orientational nonlinearity strong optical and elds lo- of cal anisotropy to due crystals liq- uid with integrated when range ing .Stolt T. apr nvriy Tampere, University, Tampere ⋅ rdy2 ue2021 June 25 Friday ; 2 1 OM10 ROOM .Rekola H. , .Kelavuori J. , 2 nvriyo Eastern of University 2 n ..Huttunen M.J. and , 2 .Reuna J. , G71FI14:30 ∙ spectroscopy coincidence for source pulse attosecond rate high-repetition A FRI CG-7.1 Germany K Matthias Chair: Sources X-ray and XUV High-Repetition CG-7: 16:00 – 14:30 ..Anl,S ialsn .Vglag C. Vogelsang, J. Mikaelsson, S. Arnold, C.L. 1 V. , 1 1 , ; OM9 ROOM etv ercieindex. refractive fective ef- the therefore and geometry local the changing by post-process tuned frequency and frequency, designed the performed against measured is the tracking by THz 4.745 at erating op- QCL THz of search systematic A Zurich, Zurich, Switzerland ETH Electronics, 12:15 Faist J. and ∙ tuning frequency post-process and 4.7THz at QCL mode single for search Systematic FRI CC-7.6 eeaedsrdsetaams in- stantaneously. to almost spectra us desired allows generate learning machine the of art State pairs. electron-hole excit- ing optically by controlled be lasers can random cascade spectra quantum emission of the that show We Republic Czech Brno, Technology, of Austria Vienna, Wien, TU Electronics, State .Oai,M ek .Scalari, G. Beck, M. Olariu, T. ü e,Uiest fJena, of University bel, ; 5 eta uoenInstitute European Central OM11 ROOM ; nttt o Quantum for Institute NOTES OM12 ROOM
Friday Orals Friday Orals oigo eodhroi eeainin generation second-harmonic of coding en- polarization and spatial for metasurfaces niobate lithium monolithic demonstrate We Australia berra, Can- University, National Australian of Physics, School Meta- Research Transformative (TMOS), Systems for Optical Excellence of tre Italy Genova, Tecnologia, di iano iod iao iao Italy Milano, Milano, di nico Brescia, Italy of Brescia, University Engineering, mation n .Celebrano M. and Finazzi M. ia applications. lidar and imaging regimes, holography, dynamic modulation for useful index small in tained ob- are times mate- response photosensitive Sub-millisecond rial. a with crystals combiningliquid modulators ad- light optically spatial are dressed valves light crystal Liquid 2 Huignard ∙ D1. R 15:00 ∙ Visible the in Generation Second-Harmonic of Polarization-Encoding and Steering LiNbO Monolithic FRI CD-11.2 .Residori S. .Carletti L. pot,Prs France Paris, Jphopto, 2 ; 1 2 .Zilli A. , .D Angelis De C. , 1 ; 1 .Bortolozzo U. , OSS abne France Valbonne, HOASYS, 2 hsc eatet Politec- Department, Physics OM1 ROOM 2 3 ; 2 eaufc for Metasurface 1 .Moia F. , eateto Infor- of Department 1 ; .Neshev D. , 1 3 3 n J.-P. and , ; siuoItal- Istituto .Toma A. , 4 R Cen- ARC 4 3 , , ; oal ihrslto (2 resolution high ally to enabling correction, wavefront for eye the front as- of in positioned OCT lens adaptive full-eld an by compact sisted a propose We France France Paris, University, 2 PSL CNRS, Paris, single a on sensor. camera all resolution, high with spatiotemporal large microscopy multicolor, localization 3D obtain FOV spectrally- we multiplexing PSFs, By dened PSF spectrally-dependent engineering. using PSF, shape the into of encoded is information Spectral Israel Israel - Haifa, Technology, of Technion Institute engineering, biomedical .Grieve K. of Israel Institute Israel Haifa, Technology, - Technion Institute, ogy Shechtman Weiss ∙ eia imaging. retinal (5 eld-of-view wide a with eetn,adrfatn ir-pia ele- micro-optical waveguiding, refracting and contains reecting, It tweezers. optical micro-printed single-ber customizable create 3D to on-ber structure an present We Arabia, Technology,Saudi and Science of Ab- University King dullah Division, Engineering and Science USA Bualo, 3 USA, NY Bualo, at University Arabia, King2 Saudi Technol-ogy, Division, and Science of Engineering University Abdullah and Science Liberale L53FI15:00 ∙ Tweezers Optical single-ber for structure photonic hybrid micro-printed 3D FRI CL-5.3 14:45 FOV ∙ wide a over imaging retinal vivo in high-resolution for OCT Full-Field sensorless wavefront glasses Adaptive FRI CL-5.2 .Opatovski N. .Reddy I. Cai Y. optr lcrcladMathematical and Electrical Engineering, Computer, Electrical of Department uneVnt ainlEeHsia,Paris, Hospital, Eye National Quinze-Vingts ouvenin 2 .Ferdman B. , 1,3 1,2 ; 1 .Scholler J. , 2 1,2 1,2 .Boccara C. , ; 1 .Bertoncini A. , ; ilgcladEnvironmental and Biological 1 1 1 OM2 ROOM ntttLnei,ESPCI Langevin, Institut uslBri Nanotechnol- Berrie Russel .Shalev-Ezra Y. , wl ad Arabia Saudi uwal, 1 .Orange R. , wl ad Arabia Saudi uwal, 1 .Groux K. , 1 ; .Mecê P. , μ ∘ 2 × m eatetof Department CLEO 5 × ∘ 1 o nvivo in for ) 2 n C. and , μ 1 m n Y. and , 2 L.E. , 1 × and , 1 8 ® O. , μ m) Erp-QC2021 /Europe-EQEC ; ; ; noigpoost iil htn via photons metasurfaces. doubly-resonant visible in SERS to frequency 9-10 photons achieve incoming of we Here upconversion photon optomechanical mid-infrared sensitivity. single extreme and metallic coupling allow nanometre-scale self- cavities in springs assembled optomechanical Molecular Belgium (ESAT-TELEMIC), Leuven, Leuven, KU Engineering Electrical hsc,Uiest fCmrde Cam- Kingdom of Cambridge, United of bridge, Department University Physics, Laboratory, Cavendish n ..Baumberg J.J. and ulplrzto n hs control with phase and pulses the polarization THz full in broadband result of THz generation which plasmonic emitters develop metagrating to symmetry C3 with meta-atoms nanostructured utilize We China Shenzen, Shenzen, nology Israel Aviv, els. lev- power microwatt at 60% reaching metry asym- transmission intensity-dependent provid- ing metamaterial optome- an nonlinear present chanically We propa- backward directions. and gation forward that in identical is dictates absorbers (conventional) reciprocity of transmission optics, linear In University, Singapore Technological Singapore, Nanyang TPI, Technologies, SPMS, Photonic Disruptive for n .Ellenbogen T. and Southampton, Meta- Kingdom of United Photonic University Southampton, for Centre materials, and Centre Zheludev H63FI15:00 ∙ meta-atoms C3 utilizing emitters metagrating and metasurface THz Nonlinear FRI EH-6.3 14:45 ∙ at Metamaterials Nano-opto-mechanical in Transmission Asymmetric FRI EH-6.2 μ .McDonnell C. Li J. oe Levels Power W 1 ..MacDonald K.F. , 1,2 ; ; 2 nvriyo cec n Tech- and Science of University 1 OM3 ROOM .Deng J. , 1 polcrnc Research Optoelectronics 1 1 ; ; 160 1 1 e vvUiest,Tel University, Aviv Tel aohtnc Centre, NanoPhotonics 2 .Sideris S. , μ ; mid-infrared m 2 ⋅ eatetof Department 1 n N.I. and , rdy2 ue2021 June 25 Friday ; 1 .Li G. , 2 Centre 2 , oi brlsr swl stes all- rst the as cavity. well ring as chalcogenide laser, Bril- ber all-chalcogenide louin rst the propose We Canada Montreal, sity, egho h upb atro >7. of factor a by pump coherence the of the length increases laser single-mode nu upa 7 mwsdemonstrated was to ber. nm developed relative pump-to-signal 976 using at 65% pump with of input eciency studied. 1030-nm- amplier convention length) been in signal cm has (3.7 aluminophos- Ultra-short bers phorosilicate Ultra-highly-Yb-doped Center, Research Russia Moscow, Optics Fiber Dianov Sciences, E.M. of Academy Russian the of Institute aito at~15kK. radiation body black the to corresponds plasma charge were radiation laser measured. pulsed un- of action ber discharge the hollow-core der optical a an along propagating of 15:00 spectra Emission Moscow, Russia Center, Research Di- Optics Sciences, Fiber of anov Academy Russian the of tute Kosolapov ∙ Fibers Optical Hollow-Core in Discharge Optical of Properties Spectral FRI CJ-9.3 14:45 Nov- Russia Nizhny gorod, Sciences, of the Academy of Russian Substances High-Purity of Chemistry ∙ Bobkov Lipatov D. concentration Yb2O3 ultra-high an with doped bers Al2O3-P2O5-SiO2 FRI CJ-9.2 .Bftv .Klai,Y asno n A. and Yatsenko, Y. Kolyadin, A. Bufetov, I. Likhachev M. 2 .Zaushitsyna T. , ; 1 .Abramov A. , rkoo eea hsc Insti- Physics General Prokhorov vrgdsetu ftedis- the of spectrum averaged e ; 2 ; OM4 ROOM 2 1 rkoo eea Physics General Prokhorov ..DvayhIsiueof Institute Devyatykh G.G. 2 1 .Bubnov M. , .Guryanov A. , resulting e 2 and , 1 K. , ∙ Corrielli pc optbeadcnb mlydin employed be experiments satellite-based can are and compatible glass space in circuits photonic Or- laser-written femtosecond that Earth show Low we environment, a bit and in protons of expected doses gamma-rays the to exposure Aer Australia ACT, Acton University, Engineering, and Physics of School Research Science, Quantum of Department Technology, Communication Kingdom United 5 Cambridge, Cambridge, of Jena, Germany Jena, Photonics, of Friedrich-Schiller-Universitat Center Nazionale Abbe Physics, Italy Applied Milano, Consiglio Ricerche, delle Nanotecnologie, e Italy Milano, Milano, 1 ufcsbsdo h xrodnr trans- extraordinary eect. mission the on based meta- surfaces optical plasmonic e- of energy fabrication cient and free lithography area, large us- throughput, technique high towards lasers writing ultrafast ing direct a present We Exeter, Kingdom of United Exeter, University Sciences, Physical and Spain Madrid, IO-CSIC, 15:00 Optica, de Instituto Group, Wright Humphreys Casquero N. Lasers Ultrafast Employing Areas Large Over Metasurfaces Plasmonic Transmission Extraordinary of Fabrication Lithography-Free FRI CK-9.3 negative. even and, linear, nonlinear positive cut- be WGM can which the wavelength, of o evolution spectral 14:45 the by characterised is water- microcapillaries at silica microresonators lled of cooking tical Kingdom United Birmingham, sity, ∙ cooking optical slow by microresonators photonic of formation Nonlinear FRI CK-9.2 .Piacentini S. .GroiadM Sumetsky M. and Gardosi G. etefrQatmCmuainand Computation Quantum for Centre di Politecnico Fisica, di Dipartimento eetydsoee ehdfrso op- slow for method discovered recently e ; 2 2 n .Siegel J. and , olg fEgneigMathematics Engineering of College 2,1 ; 4 ..Lam P.K. , 2 aeds aoaoy University Laboratory, Cavendish .Bertolotti J. , 1 , ∙ OM5 ROOM 1,2 .Ri eGalarreta de Ruiz C. .Vogl T. , utainNational Australian e 5 ; n .Osellame R. and , 1 2 ; siuod Fotonica di Istituto 1 2 ae Processing Laser .Solis J. , ; ; so univer- Aston 3 nttt of Institute 3,4,5 1 G. , C.D. , 1,2 E. , 2,1 ; ; adit f62GHz. 622 of bandwidth a covering modes equidistant ex- 30 regime over hibiting comb dense state a harmonic into a transitioning are in Devices operating self-starting lasers. cascade quantum ring-shaped THz in formation comb present We Austria Vienna, Electronics, State Solid of Austria Vienna, Nanostructures, Austria Vienna, Unterrainer Schwarz ..Andrews A.M. Limbacher .Sch S. ..Shinde S.M. C83FI15:00 Scamarcio Davies ∙ modulator graphene on-chip an through comb frequency laser cascade quantum THz a of emission the Reshaping FRI CC-8.3 14:45 ∙ Lasers Ring Cascade Quantum Terahertz In Operation Comb FRI CC-8.2 experiments. the explains theoretical model our and veried is modes optical sub-kHz single, Quan- beatnote. a linewidth THz with Lasers in self- Cascade tum combs of harmonic results starting experimental present We USA Station, College University, Z Belyanin ∙ ihaTzqatmcsaelsrfrequency laser modulator cascade quantum THz the a coupling with By opti- bandwidth. tunable-by-design cal a with THz modulator graphene-on-polyimide a present Italy We Bari, Bari, di Studi degli versità Uni- Fisica, di Interateneo Dipartimento and Kingdom United Leeds, Leeds, of University Engineering, Electrical and Kingdom tronic United , bridge Pisa, Italy Superiore, Normale Scuola and NANO .D Gaspare Di A. Jaidl M. Forrer A. ü ih Z rich, ; 2 3 abig rpeeCnr,Cam- Centre, Graphene Cambridge .Lineld E. , ö 2,3 2 nhuber ü 1,2 .Faist J. , 4 1,2 .Darmo J. , ih Switzerland rich, n ..Vitiello M.S. and , 1 1,2 .Opacak N. , 2 .Wang Y. , .Beiser M. , .Li L. , ; 1 OM6 ROOM 1,2 2,3 ...Pogna E.A.A. , ; 1 D. , .Strasser G. , 2 n .Scalari G. and , etrfrMco and Micro- for Center 1 3 3 htnc Institute, Photonics .d Franco di C. , ..Ferrari A.C. , oeec between coherence e 2,3 2 3 .Beck M. , ; .Giparakis M. , ..Kainz M.A. , 1,2 ; 3 1 colo Elec- of School 2 ; n K. and , ea M & A Texas einer 1 1 ET CNR- NEST, ; .Balci O. , ; 4 CNR-IFN 3 1,2 2,3 1 Institute ; 4 A.G. , 1 B. , B. , 2 1 A. , G. , ETH 2,3 1,2 2 , , , hsc n srnm,Gagw United Glasgow, Astronomy, Kingdom and Physics Faccio Rovelli sn ai-rqec n cutcdata. acoustic and radio-frequency using experimentally this demonstrate We tector. de- single-pixel a with scenes the reconstruct to information sucient provides re- direct ections, just of instead scenes, 3D of echoes temporal multipath measuring that show We King- United dom Glasgow, Science, Computing lcmn fatre rmasl-iigin- signal. self-mixing a terferometric from target a dis- of complex placement neu- the reconstruct convolutional to a network ral train and design We France Palaiseau, Saclay, France bonne, Val- Nice, de Physique de d’Azur, Institut Côte tups. se- experimental across con- even alignment and gurations noise, against robust is tion 15:00 ∙ Interferometry Mixing Self for Network Neural Convolutional FRI JSIV-4.2 .Barland S. 1 1 ; .Lyons A. , ; 1 nvriyo lso,Sho of School Glasgow, of University 2 nvriyo lso,Sho of School Glasgow, of University 1 n .Gustave F. and ; OM7 ROOM 2 NR nvriéParis Université - ONERA 1 .Starshynov I. , ewr’ predic- network’s e CLEO 2 ; 1 Université 1 n D. and , ® Erp-QC2021 /Europe-EQEC andb ut-aaee twt pt 5- to precision. up ppb with t multi-parameter a by tained ob- CH4, simultaneously are H2O, Con- C3H8O and H35Cl, C3H6O H37Cl, ber. of silica centrations hollow-core a light through mid-infrared delivering by achieved is spectroscopy multi-species High-resolution Kingdom United Southampton, Kingdom United dom 1 ter Jasion H1. R 15:00 ∙ scattering Brillouin stimulated using ber CS2-lled inside measurements pressure and temperature Localized FRI CH-12.3 at- bre the tenuation. reducing and index, the refractive raising core, the into gas 80% loading by through the sensor gas microstruc- Raman in core bre optical hollow improvement tured a an of performance report we Here King- United dom Tonbridge, Kingdom Ltd., United Instruments Southampton, ton, 14:45 Wheeler N. and ∙ Fibres Hollow-Core using Spectroscopy Raman in Index Refractive Dierential Pressure-Induced of Impact FRI CH-12.2 nvriyo ehooySde,Sydney, Sciences, Sydney, Australia Technology Physical of and University Mathematical Germany of Jena, Jena, (OSIM), Technology, Research Photonic Germany of Institute Germany Erlangen, Light, 5 of Physics - School Germany Erlangen, 4 Technologies, Optical Germany 3 Erlangen, Germany Erlangen-Nuremberg, Erlangen, Light, of 2 Science the Stiller B. Chemnitz M. .Marquardt C. Johnson K. Poletti Davidson I. .Popp A. Kelly T. NSET ue,Canada Qubec, INRS-EMT, Advanced Research Planck Max International in IMPRS, School of Graduate University SAOT, Physics, of Department hoaiyLd dnug,Uie King- United Edinburgh, Ltd, Chromacity 2 ; .Poletti F. , 1 3 2 .Partridge M. , .Richardson D. , eitWt nvriy Edinburgh, University, Heriot–Watt ; 1 1,2,3 1,2 .Davidson I. , 7 1 toSht nttt fMaterials of Institute Schott Otto .Castro-Marin P. , 3 ; .Jasion G. , .Geilen A. , 5 .Junaid S. , 1,2,3 1 1 OM8 ROOM .Richardson D. , 1 a lnkIsiuefor Institute Planck Max ; ; ..Schmidt M.A. , 1 3 161 nvriyo Southamp- of University nv fSouthampton, of Univ. 1 .Brooks W. , 3 3 and , 1,2,4 1 6,7 .Wheeler N. , .Rikimi S. , ..Poulton C.G. , ⋅ .Walter D. , 2 rdy2 ue2021 June 25 Friday .Farrell C. , 1 ∙ ; .Horak P. , ..Reid D.T. 2 ; .Fos- M. , 6,7 6 8 Leibniz School and , ; 1 3 G. , F. , 2 1,2 Is- 1 1 8 2 , , , , ; ; ; ; ; Klas mH ea Germany Jena, GmbH, Germany Engineering, Precision Jena, and Optics Florida, Applied Central USA FL, of Orlando, University Photonics, Germany Germany Photonics,Friedrich-Schiller-Universit of Center Abbe Physics, Applied of Rothhardt Sch 15:00 A. Wang Z. ∙ ber hollow-core antiresonant an in self-compression pulse through generation harmonic high-order X-ray so window water kHz 100 FRI CG-7.3 2.2 at tion genera- high-harmonic com- with and results rate, the pare repetition win- kHz 100 water at 0.8- driver a of with eV) 14:45 (283-543 generation harmonics dow the report We U. and Keller Gallmann, L. Phillips, C.R. Pupeikis, ∙ Window Water the in Generation High-Harmonic Driven Mid-IR and Near-IR 100-kHz of Comparison FRI CG-7.2 ncicdnewt ulaglrresolution. angular full with coincidence in He one- detecting by study He We of double-ionization photon pulses. attosecond short of controlled trains emitting source, light atttosec- ond rate, high-repetition a present We Sweden Lund, University, and Weis- L’Huillier, R. Gisselbrecht A. M. Olofsson, Mauritsson, A. J. Nandi, senbilder, S. Y.- Cheng, Langer, F. C. Viotti, A.-L. Sytcevich, I. Guo, .Gebhardt M. J. Brunner, F. Hrisafov, S. Chevreuil, P.-A. 2 + 1,2 ; n h w orltdphotoelectrons correlated two the and .Liu C. , T Z ETH ü 1 lzgen ; ; .Gaida C. , 1,2,4 μ 3 2 m. RO,Cleeo pisand Optics of College CREOL, emot-nttt ea Jena, Jena, Helmholtz-Institute ü n .Limpert J. and , 3 1,2 ; ih Z rich, 1,2 .Amezcua-Correa R. , OM9 ROOM eateto hsc,Lund Physics, of Department ; .Kirsche A. , .Heuermann T. , ; 4 1,5 5 ruhfrIsiuefor Institute Fraunhofer cieFbrSystems Fiber Active ü ..Antonio-Lopez J.E. , ih Switzerland rich, ä ea Jena, Jena, t 1,2 1,2,4 .Lenski M. , ; 1 Institute 1,2 3 R. , J. , μ m 3 1 , , NOTES
Friday Orals Friday Orals pia oto emo oeaepwrin range. power visible moderate the an of of beam means control har- by optical steered second be can generated signal monic the where meta- surface nonlinear all-dielectric an design We France Russia tersburg, Italy Brescia, INO, Italy cia, uswt ieseta cetne an no selectivity. acceptance, with polarization and spectral acceptance angular wide ultra-wide a with curs refraction. gi- broadband of conditions ant in KTN:Li in second-harmonic-generationexperiments perform We Israel Jerusalem, Israel, Jerusalem, 91904, of Jerusalem University Hebrew partment, China Tianjin, China, 300387, Tianjin, University, Normal Tianjin 7 lands Nether- Rotterdam, Netherlands, Rotterdam, Rotterdam, University Erasmus Innovation, Italy Milano, Milano, I-20125 Italy, Milano-Bicocca, di versità 4 Angelis De C. Makarov Pashina O. iPva -70 ai,Iay ai,Italy Pavia, Italy, Pavia, I-27100 Pavia, di Italy Pavia, Italy, Pavia, I-27100 di Università Pavia, dell’Informazione, Italy, e dustriale Rome, 00161 Italy Rome, Sapienza”, of ”La University Rome Italy Section, Physics Rome, Department, Italy, Sapienza”, Rome, ”La 00185 Rome of University Physics, Agranat Parravicini G. Flammini as low e- conversion of a ciency with spectrum visible the D1. R 15:30 ∙ Super-Crystal 3D perovskite a in refraction giant by supported conversion wavelength Constraint-free FRI CD-11.4 15:15 ∙ metasurfaces all-dielectric nonlinear in steering beam controlled Opto-thermally FRI CD-11.3 .Falsi L. Rocco D. olg fPyisadMtrasScience, Materials and Physics of College Uni- Materiali, dei Scienza di Dipartimento ; 0.5 6 8 iatmnod iia Università Fisica, di Dipartimento ; 3 1,2 n .DelRe E. and , 2 1,2 1 .Gigli C. , 2.4 GW/cm ainlIsiueo pisCR– CNR Optics of Institute National .Parravicini J. , ; .Tartara L. , 3 .Gandol M. , 3 .Frizyuk K. , 1,2 iatmnod nenraIn- Ingegneria di Dipartimento × 6 .D Porto Di P. , OM1 ROOM ; ; 10 1 4 nvriyo rsi,Bres- Brescia, of University ; 4 nvriéd ai,Paris, Paris, de Université − 2 .Leo G. , 3 8 . ; TOUiest,S Pe- St University, ITMO tapm nest as intensity pump a at 5 ; rsu etefor Centre Erasmus 8 3 ple hsc De- Physics Applied 1 .D Mei Di F. , 2,1 4,5 3 ; 4 .Zograf G. , .Petrov M. , 1 .Tognazzi A. , .Pierangeli D. , 1 .Xin F. , eatetof Department rcs oc- process e ; 2 1,7 S.B.A.I. 1 3 A.J. , 3 M. , and , S. , 1,2 1 , , ; ; fteoohr ihntehtspot. hot the within uorophore position the optimum of the demonstrating from 7 factor to amplication 2 signal a size- with fac- NWs tors enhancement Si uorescence the dependent support el- nite method the ement using simulations Bonn Numerical of Germany University Bonn, Center, Center, Medical Brain and Life Research, Cognition and Epileptology mental Turkey Sivas, gineering, En- Mechatronics of Department University, ra oe msa Turkey Amasya, Zone, trial Turkey Sci- Ankara, Materials Nanotechnology, 2 of and Institute ence - UNAM versity et tce ognrt ihN focal high-NA a spot. generate to stacked ments .G K. naserbefclln.W further We line. in microchannels. routing continuous-ow particle focal of resulting application their steerable show beams, a light in in control changes to input respond two that 15:30 proles with phase metalenses dielectric demonstrate We Southampton, Kingdom United Southampton, of Science, University Computer and Electronics of School ∙ Microchannels Continuous-ow in Routing Particle Metalens-based FRI CL-5.5 15:15 ∙ Fluorophores of Fluorescence Improved Size-Dependent for Nanowhiskers Si Au-Capped FRI CL-5.4 .Yn .H,NG re n .Fang X. and , Green N.G. He, F. Yin, S. Karatutlu A. ls ul-nApine,OgnzdIndus- Organized Appliances, Built-in Alyse ö lc ü k 4 n .Orta B. and , 1 , OM2 ROOM İ . Ş eker ; 4 nttt fExperi- of Institute ç 2 1 .Karakız M. , ; ; CLEO 1 3 ikn Uni- Bilkent Cumhuriyet ® Erp-QC2021 /Europe-EQEC 3 , ; ; n uk pcrsoyrqieet for requirements applications. point-of-care spectroscopy platform bulky imaging and sophisticated an eliminate to solutions with oering integrated is Sswt lnrtplgclsraebut metasurface. surface optical topological an planar a with OSRs meta- based Al:ZnO novel present we nique, control. thermal spacecra the cru- in a role play cial (OSRs) reectors solar Optical Se- Spain San bastian, CSIC-UPV/EHU, Mixto Centro Cen- ter, Physics Materials - Materiales de Física Denmark Lyngby, Kongens ogy, 3 King- dom United Southampton, Southampton, Groot .Aizpurua J. Mengali Simeoni data-processing. novel bound-states-in-the-continuum and on based resonances high-quality-factor biosensor label-free supporting in-ow an present We Lausanne Switzerland lausanne, de (EPFL), Fédérale Polytechnique École Pe- Russia St Petersburg, tersburg, St University, ITMO ing, tralia Aus- , Canberra University, National tralian 15:15 Koshelev ∙ Biosensing Real-time Imaging-based Enabling Metasurfaces All-dielectric FRI EH-6.4 H65FI15:30 ∙ Reectors Solar Optical Metasurface-based Oxide Metal Novel FRI EH-6.5 USA son, Madi- Wisconsin–Madison, Switzer- of University ing, lausanne, (EPFL), land Lausanne de Fédérale Polytechnique École Bioengineering, Kivshar Y. .jahani y. .Sun K. ardSrl,Prga Italy Perugia, S.r.l., Maprad og oe lsaptenn tech- patterning plasma novel a rough ; ; ; 1 2 2 4 n ..Muskens O.L. and , eateto imdclEngineer- Biomedical of Department osri .... ’qia Italy L’Aquila, C.R.E.O., Consorzio eateto hsc n Engineer- and Physics of Department 2 2 3,4 1 .Urbani A. , .Indiveri I. , .Xiao W. , ; 3 1 .Cianciaruso C. , 3 n .Altug H. and , ..Arvelo E.R. , olna hsc etr Aus- Center, Physics Nonlinear 5 .Hawak D. , OM3 ROOM ; 5 162 3 colo ieSciences, Life of School .Alpat B. , 1 .Zeimpekis I. , 2 .Gaspari M. , 1 .Yesilkoy F. , 5 1 .D Palma De M. , 1 ⋅ ...de C.H.(. , ; 1 ; 3 4 ; rdy2 ue2021 June 25 Friday .Kildebro L. , I Technol- NIL ; 1 biosensor e nttt of Institute 1 5 University etode Centro 1 2 M. , 2 S. , K. , 4 5 , , ; M 1.1). quality < beam (M2 excellent an with 2.09 output at regime W uous an 195 to providing up of laser power ber e- codoped high Ho3+- Tm3+, monolithic single-oscillator (45%) ciency a demonstrate France We Talence, France F-33405 3 UMR5107, France Saint-Louis, 2 F-68300 Saint-Louis, 1 Dhollande Cadier J95FI15:30 ∙ laser ber single-oscillator codoped Ho3+ Tm3+, continuous-wave power high for cavities imposed-wavelength and Free-running FRI CJ-9.5 centers. color these with perfor- decreasing bers’ mance the in Yb-doped resulting the bers, optical in radiation gamma the with occur elements Si and P, Al, to related color centers the that indicate ndings research Our 15:15 Turkey Ankara, Nanotechnology, and Science terials Ma- of Orta UNAM—Institute University B. Bilkent and Yıldırım, Yapar E. Karatutlu, ∙ Centers Color of Investigation Fibers: Optical Ytterbium-Doped on Eect Radiation Gamma FRI CJ-9.4 .Motard A. Çami H.C. Midilli, Y. Kendir, E. XLEPOOIS -20 Lannion, F-22300 PHOTONICS, IXBLUE CELIA CEA, of CNRS Bordeaux, Institute Université research French-German 3 .Dalloz N. , 1 n .Manek-H I. and , 1,2 .Louot C. , OM4 ROOM 1 .Hildenbrand- A. , 1 .Robin T. , μ ncontin- in m ö nninger ç 3 ,A. i, B. , 2 ç ; ; ; ; K95FI15:30 ∙ MoS2 Monolayer and Nano-Bipyramids Gold using Splitting Rabi FRI CK-9.5 investigated. were polari- boundaries microstructure plasmon dielectric at surface tons of eects mission on-chip the manipulation. for light realized structures and plasmonic designed Special were work, this In Enigineering- Germany Hannover, and Germany Disciplines), Across 15:15 Optics, Innovation (Photonics, ∙ boundaries microstructure dielectric at polaritons plasmon surface of eects transmission and Reection FRI CK-9.4 Peters Germany 1 xios otatn oohrnanostruc- other tures. to coupled contrasting of excitons, number the increasing without with larger even strongly, that more couple coupling shown could bipyramids was It strong MoS2. achieve monolayer to nanores- onator a as investigated were Bipyramids Ireland Cork, Institute, tional College Trinity Ireland Dublin, AMBER, Dublin, and Ireland Chemistry Dublin, of Dublin, College 1 .Lawless J. Zheng L. ebi nvriyHnoe,Hannover, Hannover, University Leibniz colo hsc n ME,Trinity AMBER, and Physics of School 2 .McEvoy N. , ; ; 1,2 1 2 3 .Hrelescu C. , lse fEclec PhoenixD Excellence of Cluster ohcueBee,Hannover, Bremen, Hochschule .Reinhardt C. , OM5 ROOM 2 n .Bradley L. and , eeto n trans- and reection e ; 3 1 PC ydl Na- Tyndall IPIC, 3 .Elliott C. , n .Roth B. and , ; 2 School 1,3 L. , 1,2 1,3 ; ; nttt,T in ina Austria Vienna, Wien, TU Institute, ilyaalbee nertdotclcom- ponents. optical integrated commer- ber on available based cially 10 is that below presented linewidths is MHz exhibiting THz 3.6 to up frequencies center with source frequency (FC) comb Terahertz tunable synthesized A Wien, TU Nanostructures, Austria Vienna, and Micro- for Unterrainer C85FI15:30 Scalari G. and Faist, J. ∙ Waveguide Planarized Y-coupled a on based Comb Frequency Laser Cascade Quantum THz FRI CC-8.5 15:15 ∙ Combs Frequency Terahertz Synthetized FRI CC-8.4 the compensate fully dispersion. can cavity it show we comb, laser. the of range operating patterns whole the interference throughout far-eld is locking by phase indicated Broadband GHz. 500 over spanning emission THz a with fre- THz comb a quency as planarized operating Laser, Y-coupled Cascade Quantum a present We Switzerland .Snc,T lru .Mceet,M Beck, M. Micheletti, P. Olariu, T. Senica, U. D. einer 1,2 1,2 n .Darmo J. and , OM6 ROOM .Limbacher B. , ; T uih Zurich, Zurich, ETH 1 ; 1 Photonics ; 1,2 2 Center K. , etlpaelcigo 0 em iha re- with error. beams residual error lambda/30 100 an experi- of the phase-locking in demonstrate mental We network neural loop. duction a large of of learn- ing control quasi-reinforcement phase with array fast laser on report We France Limoges, Institute, search France Orléans, Group, Ariane Berthelemot .Kermene V. en- ambient vironment. the in variations the of dictions pre- accurate highly for learning supplemented machine by and two- polymerization with photon fabricated boosting self-sensing with the of sensor realization imaging on microresonator-based report we work this In 2 nvriyBcu,Bcu,Germany Bochum, Bochum, University SV44FI15:30 ∙ loop network a in neural phase-locked array beam laser 100 FRI JSIV-4.4 15:15 Saetchnikov ∙ boosting self-sensing with microcavities polymerized two-photon of out sensor imaging Intelligent FRI JSIV-4.3 .Boju A. Saetchnikov A. eauinSaeUiest,Mnk Belarus Minsk, University, State Belarusian 1,2 .Shpakovych M. , 2 2 2 n .Ostendorf A. and , n .Barthelemy A. and , .Armand P. , OM7 ROOM 1 .Tcherniavskaia E. , 2 .Desfarges- A. , 2 CLEO .Maulion G. , ; 2 2 LMRe- XLIM 1 ; ; 1 CILAS 1 2 ® Ruhr V. , Erp-QC2021 /Europe-EQEC 2 , ; iei h braddlsrabsorption laser ber-aided sensors. exchange gas the spectroscopy-based gas in the time predicting Fiber for of Core allowing Hollow long modelling Antiresonant meter 15 of nodeless a in results ow gas pressure-driven the present We Technology, and Wroc Science of University claw Wro- , Photonics and Electronics of crosystem China Shanghai, chanics, Wroc3 Technology, and Science of University Wroclaw Engineering, Power and lwUiest fSineadTechnology, and Wroc Science of University claw Abramski Wu D. Kozio H1. R 15:15 ∙ spectroscopy absorption laser for Fiber Core Hollow Anti-Resonant a nodeless in ow gas pressure-driven of Modelling FRI CH-12.4 oi cteigeect. scattering Bril- louin forward-stimulated the de- on hundred based one grees of temperatures over of ber range optical a an of ratio Poisson’s the measurement of high-accuracy the report We Spain Burjassot, Valencia, de Universidad Electromagnetismo, 15:30 Spain Burjassot, Valencia, de Universidad ICMUV, Andrés M.V. ∙ scattering Brillouin forward-stimulated on based bers optical in ratio Poisson of measurement Accurate FRI CH-12.5 4cm. of resolution a Bril- with Analysis Domain using Correlation discriminated Optical pressure louin be and temperature can Local changes opti- ber. liquid-core measure- cal CS2-lled a Brillouin inside ments localized present We .Boje¸P. ..Sánchez L.A. hnhiIsiueo pisadFn Me- Fine and Optics of Institute Shanghai ł ł ; ł w Poland aw, w Poland aw, 1 3 2 .Malecha Z. , ś .Malecha K. , eatmnod íiaAlcd y Aplicada Física de Departamento 1 1 .Krzempek K. , ; 1,2 1 1 aut fEetois Wro- Electronics, of Faculty ; .Díez A. , OM8 ROOM 1 aoaoyo ie Optics, Fiber of Laboratory ; 163 2 2 aut fMechanical of Faculty .Dudzik G. , 4 .Liao M. , 1,2 1 ; ..Cruz J.L. , .Jaworski P. , 4 ⋅ aut fMi- of Faculty rdy2 ue2021 June 25 Friday ł w Poland aw, 3 1 n K. and , .Yu F. , 1,2 and , 1 P. , 3 , ; .Gilicze B. Jójárt hn1 kHz. 10 than higher rate repetition of until systems one among highest now the is annu- which beam, an laser using attosec- lar 100-kHz pJ at trains 50 pulse of ond generation 9, the tér report We Dóm Hungary Szeged, Hungary, Szeged, 6720, Szeged of University tronics, tér Hungary Szeged, Dóm Hungary, Szeged, 6720, 3 Szeged of 9, University Physics, of Hungary H- Szeged, Szeged, Hungary, 3., 6728, utca Sandner 15:15 Wolfgang Ltd., ∙ Filus Z. Ye P. Rate Repetition kHz 100 at Source Attosecond High-ux FRI CG-7.4 G75FI15:30 Osellame R. Crippa ∙ chip a in High-order Generation Harmonic in Beam IR and XUV between Separation the for Filter Integrated FRI CG-7.5 rate. repetition kHz 98 at ber-laser doped eV. Photons/s/eV 300 at >10^6 ux a in resulting ber hollow-core gas-lled single a in HHG so X-ray and self-compression pulse present We is ainlRsac oni,Milano, Council, Research Italy National gies, 1 oeodLsrMicromachining. Laser tosecond Fem- through sys- realized microchannels integrated of tem an by generation high-order harmonic in the beam from driving IR XUV fundamental the of a of portion separation considerable spatial the demonstrate We and Italy Science Milano, Technology, Aerospace of Department lano, Romania Cluj-Napoca, Technologies, Molecular and Isotopic of R&D Italy Milano, Fisica, .Major B. ..Ciriolo A.G. eateto pisadQatmElec- Quantum and Optics of Department nttt o htnc n Nanotechnolo- and Photonics for Institute ; 1 1 2 .Glá Oldal Gulyás L. , .Seres I. , oienc iMln,Dpriet di Dipartimento Milano, di Politecnico 2 .Tosa V. , 1 .Grósz T. , 1 1 .Kahaly S. , ; 1,2 1 orei rvnb thulium- a by driven is source e L-LS L-UNon-Prot ELI-HU ELI-ALPS, 1 .Vozzi C. , .Mríe Vázquez Martínez R. , 1 OM9 ROOM 3 .Bengery Z. , .Frezzotti A. , ; 1 3 .D Marco De M. , 1,2 ainlIsiuefor Institute National ; 1 1,2 4 .Varjú K. , n .Stagira S. and , oienc iMi- di Politecnico .Csizmadia T. , 1 .Várallyay Z. , 4 .Devetta M. , ; 2 Institute 1,3 and , 1 1 G. , P. , 2,1 1 1 1 , , , ; ; NOTES
Friday Orals Friday Orals fthe of reversibility the demonstrate measurements a substrates. glass report We on grown lms thin PZT in nonlinearity optical strong demonstrate We Belgium Ghent, University, Ghent (NB-Photonics), Biophotonics and Nano- for Belgium Ghent, University-imec, Ghent, University, Belgium Ghent Group, Photonics Beeckman J. and George ∙ nonlinearities second-order on-chip D1. R 15:45 Reversible and Tunable Induced Electric-Field Large, FRI CD-11.5 niSoe eeainwt Wtrsod a been has thresholds mW demonstrated. with generation and anti-Stokes 16:30 lasing Raman cascaded threshold res- integrated ultra-low onators, silica with nonlinearities exception- optical with high molecules ally small organic combining USA By Angeles, Los California, Southern of University ∙ molecular monolayers single with lasing Raman Cascaded (Keynote) FRI CD-12.1 Israel Aviv, Tel University, Aviv Tel Ellenbogen, Tal Chair: Media Nonlinear and Amplication Raman CD-12: 18:00 – 16:30 ..Feutmba G.F. .Amn,A oah .Gleo,J e n .Choi H. and He, J. Gallegos, A. Kovach, A. Armani, A. χ 1,3 2 ihD eld. DC with (2) ; .Ansari I. , 2 htnc eerhGop Ghent Group, Research Photonics χ 2 nPZT in (2) χ 2 f18pV1 Hysteresis pmV-1. 128 of (2) 1,2,3 OM1 ROOM 2,3 .Hermans A. , 1,2,3 ; OM1 ROOM 1 iudCytl and Crystals Liquid D.V. , nFlsfor Films in ourhout ; 2,3 3 Center J.P. , 1,3 , ; .Stepanenko Y. Bath, Bath, of University Kingdom United Wadsworth, William Chair: Applications and Techniques Optical Fiber CJ-10: 18:00 – 16:30 J1. R 16:30 Poland Warsaw, , 02-093 1 ∙ highly ber a tellurite in core nm suspended 2400 nonlinear to nm 1560 from a shi to wavelength corresponding THz 68.5 of detuning Soliton FRI CJ-10.1 50n ae ussi ut5c oge sample. ber long cm fs, 5 90 just in injecting pulses upon laser observed nm is 1560 THz detun- 68 nonlinearity, high exceeding to ing Owing bers. suspended tellurite in core shi self-frequency soliton investigate We Warsaw, , Poland 01-224 44/52, Kasprzaka , Sciences, of 3012 Academy 5, Sidlerstrasse Switzerland Bern, Bern, of University Physics, plied Wól- Technology, Materials czy Electronic of Institute - work .Karpate T. aut fPyis nvriyo asw atua7, Pasteura Warsaw, of University Physics, of Faculty ń OM2 ROOM k 3,0-1 asw Poland Warsaw, , 01-919 133, ska 1,2 .Stepniewski G. , 4 .Buczynski R. , CLEO ; 4 nttt fPyia hmsr,Polish Chemistry, Physical of Institute OM2 ROOM ; ® 2 uaiwc eerhNet- Research Łukasiewicz 1,2 Erp-QC2021 /Europe-EQEC 1,2 .Pysz D. , n .Klimczak M. and , ineiso n oa absorption. solar and emission radia- tion thermal both enhancing remarkably nano-micro-grating a in max- approach the the apply and derive requirements temperature-drop We imum ef- evaluation. and approach ciency temperature cooling cells’ photovoltaic radiative for a present We Qatar Qatar, Doha, 23874, at Box P.O. University A&M Texas Program, Heraklion, Greece Heraklion, Crete, GR-71003, Crete of Greece Univ. Heraklion, Technology, Heraklion, Technology-Hellas Greece 70013 and Research (FORTH), Founda- for Laser, tion and Structure Electronic of Tzortzakis Kenanakis G. H66FI15:45 ∙ control eciency and temperature cells’ solar for cooler radiative Passive FRI EH-6.6 .Perrakis G. ; 3 nttt fAp- of Institute 2 .Rampur A. , ; ; 2 3 et fMtrasSineand Science Materials of Dept. et fPyis nvriyof University Physics, of Dept. 1,2,4 n .Kafesaki M. and , 1,2 1 OM3 ROOM ..Economou E.N. , 1,2 ..Tasolamprou A.C. , 3 , ; 164 K1. R 16:30 Kivshar ∙ broken rings symmetry resonator in continuum the in states Bound FRI CK-10.1 Sesto Carrara”, ”Nello CNR-IFAC Italy Fiorentino, Pelli, Stefano Chair: Resonators Nano and Micro CK-10: 18:00 – 16:30 adtnblt i h smer fteconstituent the of asymmetry the straightfor-blocks. via keeping tunability while ward sub- footprint with continuum smaller the in stantially states bound on based form plat- nanophotonic ring-shaped novel a Russia demonstrate We Petersburg, St. , University ITMO rials, Australia Canberra, , University National Australian Kingdom Center, Physics United London, College, Imperial Germany Munich, , University Ger- Munich, many , Ludwig-Maximilians-University tems, .K L. ⋅ ü ; rdy2 ue2021 June 25 Friday hner 1,2 4,5 2 etrfrNnSine Ludwig-Maximilians- NanoScience, for Center ; ; n .Tittl A. and , ; 5 1 1,2 eateto aohtnc n Metamate- and Nanophotonics of Department 4 Institute 1,3 Science .Ren H. , S. , 1 , 1,2 OM3 ROOM .Berté R. , 1,2 .Motokoshi S. l WU generator. CW-UV sim- and ple unique suggest very and a produces technique system SHG this glass a by uoride laser ber waterproof Pr-doped tured struc- double-clad single-mode a using mW 500 over output CW-UV a demonstrated We Japan Suita, Engineering, Laser Japan City, Saitama Inc., JapanGlass, Nishi-ku, nology, Japan Itabashi-ku, Japan Narashino, 15:45 Fukagawa Yamazaki ∙ laser ber glass uoro-aluminate waterproof Pr-doped double-clad with technique SHG by generator CW-UV Simple FRI CJ-9.6 .Fujimoto Y. ; 1 hi nHbi Nanosys- Hybrid in Chair ; 3 1,2 4 2 lcetLaboratory, Blackett e .Shinozaki T. , ; ..Maier S.A. , 1,5 1 3 hb nttt fTechnology, of Institute Chiba .Ishii O. , .Nakahara M. , OM4 ROOM ; ; 2 ; 3 imnKh o,Ltd., Co., Koha Kimmon nttt o ae Tech- Laser for Institute 4 Nonlinear 4 1,2,3 .Watanabe M. , 2 ; .Sato T. , Y.S. , 4 uiaOptical Sumita 2 ; .Binun P. , 5 nttt of Institute 2 n M. and , hc ok elee fsrn u-ffcsuores- thick. out-of-focus is strong sample a if or exists even cence well works illumination, 16:30 structured which fo- utilizing temporal by wide-eld microscopy of cusing optics adaptive presernt We Japan Kyoto, University, Kyoto Biostudies, of School Japan Yokohama, Japan Kohoku-ku, Saitama, Hiyoshi, 3-14-1 University, Wako, Keio Hirosawa, 2-1 2 Photonics, Midorikawa K. and ∙ illumination structured by utilizing microscopy focusing temporal of optics Adaptive FRI CH-13.1 Bari, of University Polytechnic Italy Bari, Grande, Marco Chair: Microscopy and Beams Structured Spatially and Temporally CH-13: 18:00 – 16:30 .Ishikawa T. eateto lcrnc n lcrclEngineering, Electrical and Electronics of Department 4 M. , ; 2 , 3 eateto dacdIaig Graduate Imaging, Advanced of Department K96FI15:45 ∙ graphene polaritonic in localization and transport Semi-Dirac FRI CK-9.6 Montambaux Pernet N. a symmetry. chi- highly ral with to states vacancy the and directional polaritons observe evidence of transport to anisotropic lattices Here hon- polariton eycomb compressed graphene. implement we of lo- properties and calization transport the aects strongly Strain des France Orsay, Physique 91405, Solides, de Laboratoire University, CNRS, Saclay, Japan Tohoku 980-8577, Sendai Research, Materials France Palaiseau, 91120, Nanotechnologies, de et Nanosciences France Lille, F-59000 2 Molécules, et Lasers Atomes des 8523—PhLAM—Physique UMR Bloch Gratiet Le L. 1,2 .Real B. nvriéPrsSca,CR,Cnr de Centre CNRS, Paris-Saclay, Université .Isobe K. , 2 n .Amo A. and , 2 1 OM4 ROOM ; .Jamadi O. , 2 .St-Jean P. , 1,3 1 4 2 IE etrfrAdvanced for Center RIKEN .Sagnes I. , .Harouri A. , .Inazawa K. , OM5 ROOM ; 3 2 dacdIsiuefor Institute Advanced ; 1 2 ; nv il,CNRS, Lille, Univ. 1 .Ozawa T. , .Mili M. , 4 2 nvriéParis- Université .Lama A. , 2 1,2 .Ravets S. , .Kannari F. , ć 3 evi î G. , tre 2 J. , ć 2 2 2 , ; , , ; ence coher- temporal and dif- spatial of with degrees ferent endowed resonators cascade quan-tum THz with interferometry self-mixing on based systems nanoscopy innovative near-eld of THz performances the discuss We Bari, di Italy Politecnico Bari, e Studi degli Università King- dom United Cambridge, Cambridge, of sity Torino, ItalyTorino, di Politecnico Telecomunicazioni, e Superi- Italy Normale Pisa, ore, Scuola and Nanoscienze n ..Vitiello M.S. and rmgei ils(E) Z (IEF), Fields tromagnetic Columbo rn s< Bad07sm,respectively. foot- sqmm, and 0.7 and losses dB Insertion <5 is print wavelength. 72 carrier steering their of by determined outputs capable multiple to freely switch signals NRZ spatial GBd/s 2x4 a present We R AG, Technologies Burla Leo Biasco S. I51FI16:30 Steering ∙ Beam On-Chip Exploiting Switch Spatial 2x4 FRI CI-5.1 France Limoges, de Université Institute, Research XLIM - CNRS Wetzel, Benjamin Chair: Devices Transmission CI-5: 18:00 – 16:30 15:45 ∙ Resonators Cascade Quantum with Interferometry Self-mixing on Based Nanoscopy Near-eld Terahertz FRI CC-8.6 .Blatter T. Pogna E.A.A. 2 ; ..Bitachon B.I. , 1 4 .Bonjour R. , iatmnoItrtnod Fisica, di Interateneo Dipartimento 2 1 .Brambilla M. , 1 .Viti L. , .Finck A. , ; 3 aeds aoaoy Univer- Laboratory, Cavendish ; 1 2 OM6 ROOM .Reichel K. , iatmnod Elettronica di Dipartimento 1 1 ü 1 1 .Heni W. , ; n .Leuthold J. and , clkn Switzerland schlikon, .d Gaspare di A. , 1 OM5 ROOM .Horst Y. , 1 ET CNR-Istituto NEST, 3 ü .Scamarcio G. , ih Switzerland rich, 1 2 .Silvestri C. , .Koch U. , 1 .Fedoryshyn Y. , 2 1 ; L.L. , 1 .Messner A. , 1 ntteo Elec- of Institue 4 2 , , ; 2 Polariton 1 cigo h rsa oiinado the on beam. driving and the of position aperture numerical and crystal power system the the on of acting continuum knowledge a-priori generate without Reinforcement- white-light to used long-term-stable Deep is architecture actor-critic Learning An Italy Roma, Sapienza”, ”La Rome Italy di Milano, Politecnico Milano, Fisica, di Dipartimento CNR, Giuseppi SV45FI15:45 ∙ Generation Continuum White-Light of Control Learning Reinforcement Deep FRI JSIV-4.5 .De E. , ..Valensise C.M. 1 M. , 2 .Cerullo G. , hi:Gog absahs ascuet nttt of Institute Massachusetts USA Cambridge, Technology, Barbastathis, George Chair: Spectroscopy - Nanostructures - Metasurfaces Learning JSIV-5: 18:00 – 16:30 lxbooeua processes. biomolecular plex 16:30 com- unravelling for opportunities unprecedented oers all classes. from major biomolecules of monitoring label-free the forallow to intelligence metasurfaces articial with augmented mid-IR are spectroscopy broadband sensitive, Highly Switzerland Lausanne, Bioengineering, of stitute tug ∙ Biomolecules of Classes Major All between Dynamics Monitoring for Intelligence Articial by Augmented Metasurfaces Infrared FRI JSIV-5.1 .Jh-epn .Kvna,L o M von L. Kavungal, D. John-Herpin, A. ; OM7 ROOM cl oyehiu ééaed asne(PL,In- (EPFL), Lausanne de Fédérale Polytechnique École 1 .Vernuccio F. , 1 ; n .Polli D. and , 2 IG nvriyof University DIAG, CLEO spoern iaayia technology bioanalytical pioneering is OM6 ROOM 1 ; 1 A. , 1 ® IFN- Erp-QC2021 /Europe-EQEC aern hpn hog multimode a ber. through time-domain shaping two- on wavefront towards based endoscopy method photon a demonstrate We Netherlands sterdam, Am- Amsterdam, Universiteit Vrije tronomy, 15:45 Netherlands Enschede, Twente, of University otechnology, Pinkse P.W.H. ∙ Endoscopy Two-photon Multimode-ber-based Towards FRI CH-12.6 hr us vrteotu ae fteber input. perturbation-insensitive the a of with facet output the over pulse short Netherlands Amsterdam, (ARCNL), Nanolithography for ..Velsink M.C. ü k,adH Al- H. and cke, salw rdsann fa ultra- an of scanning grid allows is ; ; 3 1 eateto hsc n As- and Physics of Department 1,2 2 ; OM8 ROOM dacdRsac Center Research Advanced 1 ..Amitonova L.V. , EA nttt o Nan- for Institute MESA+ 165 etr ie odvlpa3 aoihgah protocol. nanolithography 3D controlled a develop well to sizes suciently feature 16:30 with di- lattices pulse produce nanophotonic can femtosecond etching wet with how combined writing on laser rect details present will We Italy Milan, (IFN), Spain Laguna, 1 ∙ crystals of nanolithography laser 3D St- (Invited) FRI Monnet, CM-9.1 Jean Université Stoian, France Etienne, Razvan Chair: TransparentMaterials of Structuring Laser 3D CM-9: 18:00 – 16:30 .Ródenas A. nvria eL aua(L) a rsoa eLa de Cristobal San (ULL), Laguna La de Universidad ⋅ rdy2 ue2021 June 25 Friday 2,3 1,2 and , .Paie P. , ; 2 siuod ooiaeNanotecnologie e Fotonica di Istituto OM7 ROOM 2 .Corrielli G. , Germany 15:45 Eisenbach L. ∙ eV 50-70 at source harmonic high ux photon high tunable Continuously FRI CG-7.6 ihpoo u teege f5-0eV 50-70 presented. is of capillary a energies in blueshi on at based ux photon high record- with source harmonic high traviolet ul- extreme table-top tunable fully and fast A Ger- many Jena, Engineering, Precision and Optics Germany Friedrich-Schiller-University, Jena, Photonics, of 1 Stark .Kirsche A. nttt fApidPyis beCenter Abbe Physics, Applied of Institute 1 .Rothhardt J. , ; 3 1,2 2 ruhfrIsiuefrApplied for Institute Fraunhofer n .Osellame R. and , 1 .Klas R. , .Eschen W. , ; OM9 ROOM 2 emot-nttt,Jena, Helmholtz-Institute, 1,2,3 1,2 n .Limpert J. and , .Gebhardt M. , 1 .Buldt J. , 2 ; ihwv T losfrtes etscn atomic molecules. femtosecond of mapping. rst control force the for band-structure allows STM superresolution Lightwave and cur- Dirac rents, topological from high-harmonics switching, pseudospin and spin including dynamics, quantum cycle sub- novel drive waves multi-terahertz strong Atomically USA MI, Michigan, Arbor, Ann of University Science, Computer and gineering Germany Marburg, 35032 many Ger- Regensburg, 93040 Regensburg, of University Physics, ..Koch S.W. .Lange C. F1. R Ivtd 16:30 Schmid C.P. forces and elds lightwave with matter condensed Controlling (Invited) FRI CF-10.1 Luxem- bourg Luxembourg, of University Brida, Daniele Phenomena Chair: Ultrafast and Field Strong CF-10: 18:00 – 16:30 1 H. , 1,2,3 1,2 ; , ; 2 eateto hsc,Uiest fMarburg, of University Physics, of Department 1 .Repp J. , 2 .Kira M. , 1 ..Kastner L.Z. , 1 .Reimann J. , 3 OM8 ROOM and , ; 1 3 .Roelcke C. , ∙ eateto lcrclEn- Electrical of Department NOTES .Huber R. 2 .G J. , 1 1 ü ; .Schlauderer S. , dde 1 eatetof Department 2 .H U. , ö fer 2 1 , ,
Friday Orals Friday Orals 5f rcompression. of aer pulsewidth 17:15 ~50fs transform-limited for sucient posi- chirp a tive with bandwidth pulses supercontinuum Tran- tailored amplied of a ~38nm two-stage provides Amplication crystals on KGd(WO4)2 Chirped-Pulse in Raman based Stimulated synthesizer sient spectrum A Science Lithuania Physicsal Vilnius, Technology, for and Center laboratory, Laser State Solid ∙ crystal KGW in Amplication Chirped-Pulse Raman Stimulated Transient Two-Stage on Based Synthesizer Spectrum FRI CD-12.2 .Petrul A. ns .Mcoi,A oi,adV Girdauskas V. and Rodin, A. Mackonis, P. enas, ˙ OM1 ROOM ; h rttm rpryicuigtrineects. for torsion including derived, properly are time modes rst Bloch the helical the of polarisation cores. chiral birefringent a coupled of N of case ring the to generalised is theory Frenet-Serret Erlangen, Germany , Erlangen-Nuremberg Germany of University Erlangen, Physics, Light, of of Science the this. symmetric threefold conrm a core with PCF a on the Experiments of charge elds. topological total de- the critically preserving is on pendent PCF chiral birefringent circularly in gain Alexander-Universit Germany Erlangen, Wong taqiiinrt f1 MHz. 15 of 5.78 rate acquisition is at measurements velocity angular the of Transformation.tion Fourier Dispersive interferometer the Mach-Zehnder rota-via all-bre passive detect a to in method tion phase-based a demonstrate We Germany Jena, Technology, Photonic of Institute 17:00 ∙ waveguides optical spiralling coupled of rings symmetric rotationally in N-fold modes Bloch helical of analysis Frenet-Serret FRI CJ-10.3 16:45 ∙ Chiral in Instability Modulational Vectorial in Preservation Charge Topological of Importance FRI CJ-10.2 J1. R 17:15 Kingdom United 1 ∙ technique time-stretch via interferometer Mach-Zehnder passive in measurements gyroscopic Ultrafast FRI CJ-10.4 .Chen Y. Roth P. .Kudelin I. so nttt fPooi ehoois Birmingham, Technologies, Photonic of Institute Aston rsneo oaiainmdltoa instability modulational polarisation of presence e e-oePCF ree-Core 1 ; 1 1,2 1 a lnkIsiuefrteSineo Light, of Science the for Institute Planck Max ..Frosz M.H. , n .Russell P. and 1 .Sugavanam S. , ; CLEO 2 I ad,Kmn,India Kamand, Mandi, IIT ; ä ,Elne,Germany Erlangen, t, 2 OM2 ROOM eateto hsc,Friedrich- Physics, of Department 1 1,2 ...Russell P.S.J. , ® ; 2 Erp-QC2021 /Europe-EQEC 1 n .Chernysheva M. and , a lnkIsiuefor Institute Planck Max iprinand dispersion e 1,2 ; n G.K.L. and , 2 Department ; resolu- e 3 Leibniz μ rad/s 3 ; 166 K1. R 16:45 ∙ Modications Index Refractive Photolytic Localized via Removal Split Resonance Microring Optical FRI CK-10.2 K1. R 17:15 King-dom United Manchester, Manchester, of University tute, T Ankara, University, Bilkent Center, Research Nanotechnology National nology, Dana A. ∙ Microresonators Silica Coated Ge2Sb2Te5 of Tuning Mode Resonant FRI CK-10.4 17:00 with length ber accuracy. the of 7% microns uniform 100 than is more optical amplitude the along which diameter eigenmode 125-micron an having the microres- ber at optical fabricated an onator demonstrate experimentally We Kingdom United Birmingham, Triangle, Aston University, Aston Technology, Photonics of Institute ∙ microresonator bat a of demonstration Experimental FRI CK-10.3 splits sidewalls. resonance at waves of backreected by removal caused in-situ for sil- resonators for icon technique correction novel a photonic present We integrated systems. degrading splitting, can modal microrings in result in phenomena backscattering Random Hamburg, Technology, of Germany University Hamburg nology, etdvain rmdsge parameters. designed cor- from tune deviations to to rect demonstrated method was a permanently coating, modes resonant chalcogenide using By rors. er- fabrication from originated obstacles by hindered was USA ifornia, .LpaadHK Trieu H.K. and Lipka T. .Huseyinoglu E. Sumetsky M. and Crespo-Ballesteros, M. Yang, Y. ag cl tlzto fteotclmicroresonators optical the of utilization scale large e ⋅ ; 3 rdy2 ue2021 June 25 Friday ..GntnLbrtr,Safr nvriy Cal- University, Stanford Laboratory, Ginzton E.L. 3 ; 1 nttt fMtrasSineadNanotech- and Science Materials of Institute 1 .Özg E. , OM3 ROOM ü rkiye ; ü nttt fMcoytm Tech- Microsystems of Institute r 1 ; .Bakan G. , 2 ainlGahn Insti- Graphene National 2 .Orta B. , ç ; 1 Aston and , H1. R 17:15 ∙ beams spiralling using measurement position longitudinal high-accuracy Single-beam FRI CH-13.4 patterns. ring well-matched the on the based 3rd-order beam of the Bessel using lobes beam side Bessel 0th-order the fundamental cancelling two- by microscopy volumetric photon contrast-enhanced a demonstrate 17:00 We Kong, Hong Territories, China New Shatin, Park, Science China Kong Kong, Hong Road, Pokfulam Kong, 3 Hong of sity China Kong, 1 Fok beam ∙ Bessel of orders multiple using microscopy two-photon volumetric in enhancement Contrast FRI CH-13.3 16:45 ∙ Illumination and Encoded Flexible with Microscopy Light-sheet Parallelized FRI CH-13.2 ih,w civdamaueetacrc nlongitu- 2~ in about of accuracy position measurement dinal a self-accelerating achieved radially we of light, property the harnessing By Finland Tampere, University, Tampere Italy Genoa, Tecnologia, di Italiano Bianchini hn2m sn igeba n udatdetector. quadrant a and beam single a using 2~mm than multiple detection. depth-of-eld of extended with sequences acquired planes illumination encode/decode to ratios. signal-to-noise signal- and high at to-background imaging volumetric high-speed for micro- scope light-sheet parallelized innovative an present We Spain Barcelona, Barcelona, of 4 Italy Genoa, Genoa, .Pahkr .Paha .Ongti n .Fickler R. and Ornigotti, M. Plachta, S. Prabhakar, S. He H. Zunino A. dacdBoeia ntuetto ete Hong Centre, Instrumentation Biomedical Advanced Engineering, Electronic and Electrical of Department alrCleeo eiie oso,USA Houston, Medicine, of College Baylor nvriyo ogKn,Pkua od Hong Road, Pokfulam Kong, Hong of University e 2 ...Lai C.S.W. , 1 .X Ren Y.-X. , 1 .Diaspro A. , 1,2 ; .Garzella F. , 2 colo imdclScience, Biomedical of School 2,3 ..Tsia K.K. , ; 1 3 OM4 ROOM ...Chan R.K.Y. , 1,2 nvriyo am,Pra Italy Parma, Parma, of University n .Duocastella M. and , 1,3 $ .Trianni A. , \mu 1,3 $ vrarneo more of range a over m n ...Wong K.K.Y. and , 1 ..So W.L. , 1,2 ; .Saggau P. , 2 nvriyof University ; 1,5 5 University Univer- e ; dais idea e 1 2 Istituto H.K. , 1,4 1,3 P. , ; ; ; ; n h ouao ici hw odeetia match- GHz. 39 electrical around good ing shows circuit modulator the and scheme layer planarization. epitaxial HSQ identical and the on based modu- laser electroabsorption lated travelling-wave a present We dom Marsh bandwidth. GHz 18 with nm 1572 of wavelength a at oper- ates It technology. line HSQ transmission design, and layer planarization, epitaxial identical an on based fab- ricated been has laser DFB modulated electroabsorption An dom Kingdom Eddie Marsh J.H. I54FI17:15 ∙ HSQ and Planarization Scheme Layer Epitaxial Identical on Based Laser Modulated Electroabsorption Traveling-Wave FRI CI-5.4 17:00 Al-Taai Q.R.A. ∙ Technology Line Transmission and Layer Epitaxial Identical on Based Laser Modulated Electroabsorption FRI CI-5.3 16:45 Universit Sukhorukov ∙ Arrays Waveguide Converging From Emission Radiated Directional FRI CI-5.2 msin ihnteltieplane. lattice directed the to judi- within rise emissions give how may show arrays tapered and designed single-mode ciously spacing optical variable of with dynamics arrays waveguides mode coupled leaky evanescently the in explore experimentally We Aus- oftralia Canberra, University, School National Research Australian Physics, Centre, Systems Physics Meta-Optical Nonlinear Transformative (TMOS), for Excellence of .Al-Moathin A. Al-Moathin A. Knefeli P.D. ; 2 2 1 iesPooisLd,Gagw ntdKingdom United Glasgow, Ltd., Photonics Sivers .Ye S. , ; 1 ä ; nvriyo lso lso,Uie King- United Glasgow, , Glasgow of University otc,Rsok Germany Rostock, Rostock, t 2 1 iesPooisLd,Gagw ntdKing- United Glasgow, Ltd., Photonics Sivers 2 ; n .Szameit A. and , 1 1 1 .Hou L. , .Heinrich M. , 1 nvriyo lso lso,United Glasgow, , Glasgow of University 1 .Eddie I. , 1 .Li C. , .Ye S. , OM5 ROOM 1 1 S. , 1 2 .Wang J. , .Watson S. , .Li C. , xicinrtows2 dB 22 was ratio extinction e 1 ..Maczewsky L.J. , oms 1 1 .Hou L. , ; 1 1 1 ...Al-Taai Q.R.A. , .Kelly A. , nttt fphysics, of Institute 1 ..Gaetano E.D. , 1 ; .Kelly A. , 2 R Centre ARC 1 n J.H. and , 1 A.A. , 1 and , 1 I. , 1 , Cadena SV53FI17:00 on spectra. based erence ref- of time measurement the real requiring without in learning, deep anti- spectra coherent scattering Raman broadband Stokes from background non-resonant spurious the remove to approach novel a present We Italy Roma, Sapienza”, ”La Rome Italy Milano, Milano, di Politecnico Valensise C. Learning Deep via spectra CARS from Background Non-Resonant Removing FRI JSIV-5.3 16:45 devices. optical common ecient highly of series producing a by platform eciency approach’s design this demonstrate universal We structures. a engineering wavefront propose of development the we for work, this In Technology, Fratalocchi ∙ engineering wavefront ecient highly for platform design Metasurface FRI JSIV-5.2 SV54FI17:15 training. model bur- of the den reduce to be datasets training can creating for techniques exploited clustering unsupervised that nd We India Gandhinagar, , Technology of and Tandan, H. Panda, S.S. photonicnanostructures of design inverse based Learning Deep for generation dataset Sample-ecient FRI JSIV-5.4 ue eurn egh computations. lengthy struc- requiring complicated tures to Deep-learning of applicability ing .Mkrno .Brut-oe,F emn n A. and Getman, F. Burguete-Lopez, A. Makarenko, M. 1 .Cerullo G. , ; 1 igAdla nvriyo cec And Science of University Abdullah King .Giuseppi A. , wl ad Arabia Saudi uwal, CLEO 1 n .Polli D. and , OM6 ROOM shsipiain o broaden- for implications has is ® 2 ∙ , ..Hegde R.S. Erp-QC2021 /Europe-EQEC ∙ .Vernuccio F. 1 ; ; 1 2 hsc Department, Physics IG nvriyof University DIAG, ; ninInstitute Indian 1 .D la De A. , 167 esn ftasaetmaterials. transparent of cessing pulse. eciency. second drilling a 17:15 absorbs eciently that Matter, WarmDense las semi-metallic create de pulses Bessel Plaza laser Ultrashort Spain Físicas, Madrid, , Ciencias 28040 1, de Ciencias, Complutense Facultad Universidad Madrid, de Department, Optics Group, ∙ pulses Gauss-Bessel double by ultrashort glass in deposition energy Nanoscale FRI CM-9.3 17:00 glass silica in turing is nanostruc- laser data ultrafast multilayer ultralow-loss of by demonstrated accuracy kB/s readout 8 100% of nearly speed writing and high with storage data optical 5D Kingdom United ton, Kazansky P. and ∙ Writing High Speed with Storage Data Optical 5D Towards FRI CM-9.2 rnh-ot,CR,1BAeu e Montboucons, des Besan Avenue 25030, 15B CNRS, Franche-Comté, Courvoisier .dlHoyo del J. Shayeganrad, G. Deng, C. Chang, X. Lei, Y. Wang, H. sicesseeg oeet n hschannel thus and connement, energy increases is ⋅ rdy2 ue2021 June 25 Friday 1 ; ç 1,2 n France on, 1 ET-TIsiue nv Bourgogne Univ. Institute, FEMTO-ST ; .Meyer R. , nvriyo otapo,Southamp- Southampton, of University OM7 ROOM soesnwrue o ae pro- laser for routes new opens is ; 2 ple pisComplutense Optics Applied 1 .Furfaro L. , 1 n F. and , adGzrptto rate. repetition GHz ward GaN. ductor (SiO dielectrics rep- in MHz rate 80 etition at pulses 300-pJ with control lightwave- current and driven metallization transient demonstrate and We Physics Technical Hungary Budapest, of Science, Institute Materials Research, Energy Germany for Garching, Optics, Quantum of stitute Universit Jena, Engineering, Precision and Germany Optics Applied for Germany tute Jena, Photonics, of Center Hungary Szeged, tute, Hungary Budapest, Physics, Volk .Wang Z. Márton F1. R 17:15 ∙ waveguide nitride silicon uncladded in generation supercontinuum infrared dependent polarization Extreme FRI CF-10.3 17:00 Rate Hanus Repetition MHz 80 V. at Pulses Laser pJ-Level with Dielectrics in Control Current Light-Field-Driven FRI CF-10.2 aesann oioi regime. solitonic spanning oc- tave to regime dispersion all-normal SPM-dominated from at switch can we engineering Lever- dispersion TM/TE sensitivity. aging polarization extreme exhibiting uide waveg- Si3N4 uncladded an su- in generation infrared percontinuum short-wave ber-pumped demonstrate We land an Switzerland , sanne 1 .Tagkoudi E. cl oyehiu ééaed asne–EF,Lau- EPFL, – Lausanne de fédérale polytechnique École 7 n .Dombi P. and , 2 .Kiss G. , ä 5 ; 1 .Bergues B. , uih acig Germany Garching, Munich, t , 5 hsc eatet Ludwig-Maximilians- Department, Physics 1 ∙ ..Amiot C.G. , .Csajbók V. swl emtt oecretcnrlto- control current move to permit will is 1 .Sándor P. , ; 2 ; OM8 ROOM apr nvriy apr,Fin- Tampere, University, Tampere 1,2 3 5,6 nttt fApidPyis Abbe Physics, Applied of Institute ; .Kling M. , 1 2 1 .Pápa Z. , .Genty G. , inrRsac etefor Centre Research Wigner ; 1 2 .Paul P. , 2 n HfO and L-LsRsac Insti- Research ELI-ALPs ; 5,6 1,2 2 3 4 n .S Brès C.-S. and , .Szeghalmi A. , .Molnár G. , ruhfrInsti- Fraunhofer ; 2 .Budai J. , 6 ,adsemicon- and ), a lnkIn- Planck Max ; 7 Centre 2 7 Z. , J. , 3,4 1 , ;
Friday Orals Friday Posters bopincl o estv eeto fnti oxide nitric of detection 5.26 at sensitive molecules side-drilled for cm-long cell 25 absorption a an forming Fiber utilizing Hollow-Core Antiresonant borosilicate sensor Spectroscopy- Photothermal gas a present based we work this In et Atomes France Lille, Lasers, Molécules, des 8523—PhLAM—Physique UMR fEetois rca nvriyo cec n Tech- Poland and Wroclaw, Science nology, of University Wroclaw Electronics, of is bers poled independently of shown. segments splicing eciency by generation harmonic second signicant of a and enhancement studied been has poling optical by ber a France A. Av. Limoges, 123 87060 7252, CNRS UMR XLIM, Limoges, de Ethiopia Branze Ababa, Addis via Institute, Italy Technology Brescia, Brescia, 25123 di 38, Università dell’Informazione, Tonello media. nonlinear in plications agation. prop- during intensity low of regions controllable pre- investigated, dicting numerically are medium Kerr local a in Finland Tampere, .Belardi W. 17:30 ∙ Media Nonlinear in Beams Ring-Airy Interacting FRI CD-12.3 hra pcrsoyo ircOiea 5.26 ∙ at Oxide Nitric of Spectroscopy thermal Photo- Fiber-assisted Core Hollow Antiresonant FRI CH-P.1 Session Poster CH CH-P: 11:00 – 10:00 17:45 Fibers ∙ Poled Spliced in Generation Harmonic Second FRI CD-12.4 ..Rbo n .Ornigotti M. and Robson C.W. .Krzempek K. Gemechu W.A. auainlnt ftennierrgo nue in induced region nonlinear the of length saturation e beams ring-Airy overlapping between interactions e 3 n .Couderc V. and , 2 ; smypoeueu o pia weigap- tweezing optical for useful prove may is 1 1 ae ie lcrnc ru,Faculty Group, Electronics Fiber & Laser .Kozio P. , 1,2 μ aeeghrange. wavelength m .Minoni U. , OM1 ROOM ł ; 1 3 .Jaworski P. , ; 2 ; tipa pc cec and Science Space Ethiopian 2 1 nvriéd il,CNRS, Lille, de Université iatmnod Ingegneria di Dipartimento 1 ; .Modotto D. , apr University, Tampere 1 .Dudzik G. , ; 3 Université μ m 1 1 omas, and , A. , eeiinrt n eaieyhg nryb digitally- media. two with active by laser ber energy hybrid a of high dumping cavity controlled relatively and rate repetition freely-tunable with of synthesis waveforms laser optical direct nanosecond-scale the for method new a present We Russia sia Kobtsev J1. R 17:45 Media Active ∙ Two with Laser Fibre Hybrid of Dumping Cavity by Generation Waveform Arbitrary FRI CJ-10.6 17:30 ring. the in manage- ment loss through inuenced are power pump quired threshold. ring lasing ber all unidirectional laser. free isolator an present We f ∙ Fiber Laser Reciprocal Ring a in Management Loss by Direction Unidirectionality Inuencing FRI CJ-10.5 Kurikova .Chubchenko I. Sensitivity Level ppm with 50 Isotopologues Carbon of Analyzer Gas Raman FRI CH-P.3 thin VO2 a sensor layer. in lm transition metasurface phase a the utilizes analyzed that structure and designed we enhancement eect gap non-linear the utilizing by work this In Turkey mersin, 2 Sabah C. Sensor ∙ Enhanced Metasurface a for Frequencies Tera- hertz at Enhancement Field In-Gap of Investigation FRI CH-P.2 ü .Nyushkov B. J M. and Hartung, A. Arshad, M.A. .Tugay H. zeh zi,Turkey izmir, iztech, htnsh ehooine ,Jn,Germany Jena, V, e. Technologien Photonische r ; 2 ooiis tt ehia nvriy Novosibirsk, University, Technical State Novosibirsk 1 ; 3 1 ndrcinlt stigrdfraoethe above far triggered is unidirectionality e 1 ; 1 .Konopelko L. , ooiis tt nvriy ooiis,Rus- Novosibirsk, University, State Novosibirsk 1 .Altan H. , aateto hsc,mt,akr,Turkey ankara, metu, physics, of dapartment 1,2 1 .Ivanenko A. , , CLEO ∙ ietoa rfrneadtere- the and preference directional e .Popov E. 1 OM2 ROOM ; .Demirhan Y. , 3 otencpu aps metu, campus, cyprus northern 1 ® .Loiko P. , Erp-QC2021 /Europe-EQEC 1 1 .Grigorenko K. , .Smirnov S. , ehl n Final and reshold ä 2 ger 2 .Ozyuzer L. , n .Vitkin V. and , ; Leibniz-Institut 1 n S. and , 2 1 and , V. , OM1 ROOM 1 ; ; 168 aimfravne aohtnc meta-systems. nanophotonics advanced for- for malism Hamiltonian tight-binding non-Hermitian an- alytical an assessing and between proposing coupling at the aimed nanoresonators, of study systematic a on report We France Paris, Paris, de Université K1. R 17:30 Leo G. and Ciuti, ∙ design meta-optics for nanoresonators non-Hermitian Coupled FRI CK-10.5 K1. R 17:45 Carmon T. ∙ Microcavities Coupled Continuum- FRI CK-10.6 aoatce oteotclmd,rmv hm and them, remove ones mode, new optical bring the the control bring to frequency, We resonance nanoparticles tune disk. to dialectic position continuous- membrane a a to of nearby made membrane hybrid-resonator a present We Israel Haifa, stplge 2H n 13CH4. methane and two 12CH4 for - detection isotopologues of limit the as determine measurements, as fraction well volume gas of terms an- gas in Raman alyzer a of calibration Photonique on results la the describe We et Matériaux France les Caen, (CIMAP), Ions, les sur Recherche 1 rn tapln)i ihes pia aiydown cavity optical mem- nesse tethered high a SiN in a (trampoline) of brane cooling feedback achieved We Denmark Lyngby, Technical Denmark, Physics, of University of Department bigQ, Andersen States Quantum U.L. and Ho, U.B. ∙ temperature room high-nesse from a cavity in trampoline a of cooling Feedback FRI CH-P.4 .Vnl .L,C il,A esmon .Bre C. Borne, A. Bensemhoun, A. Gigli, C. Li, Z. Vinel, V. .Lniwc Abudi Lenkiewicz T. .Mnta ..Hgih,D ø,J a e Heijden, der van J. Høj, D. Haghighi, I.M. Manetta, A. TOUiest,S.Ptrbr,Russia Petersburg, St. University, ITMO ⋅ rdy2 ue2021 June 25 Friday 2 ; ; 2 e-vvUiest,Tel-Aviv, Israel University, Tel-Aviv 1 ehinIre nttt fTechnology, of Institute Technion-Israel ; aéiu tPéoèe Quantiques, Phénomènes et Matériaux 1 OM3 ROOM .Douvidzon M. , ; etrfrMacroscopic for Center 1 .Bathish B. , ; 2 etede Centre 1 and , H1. R 17:45 character- ized. are Polarization of State local the and structure struc- space. free polarization decelera- in and tion global acceleration a periodic with time rotates that rst ture the for show We Africa South Johannesburg, Witwatersrand, the of ∙ and deceleration acceleration with light of structures Vectorial FRI CH-13.6 medium. the behind delivery energy tem- the cer- redistribute to porally a vectors singular at its matrix use and transmission delay tain the measure measurement to a coherence-gating us through enables A passing elongated gets medium. light 17:30 scattering of pulse short A Australia Brisbane, Engineering, Electrical and nology Austria Vienna, Wien), (TU France for Paris, France, Normale Uni- de Research Collège École (PSL) CNRS, versity, Lettres et Université, Sciences Paris Sorbonne Supérieure, Brossel, Kastler K M. ∙ matrix transmission time-gated the with control light Temporal FRI CH-13.5 taeboesn ntena-nrrdregion. near-infrared the in demon- biosensing with strate to engineered decorated are nanomaterials devices Graphene/2D Highly-sensitive plasmonic plasmons. in- Aluminum-based surface refractive using minute changes detect dex to conguration, ection India Pilani, Pilani, Science, and Shukla S. region near-infrared the in applications biosensing enhanced for nanomaterials graphene/2D with decorated devices plasmonic aluminum-based engineered of Analysis FRI CH-P.5 n rmro eprtr sn oeetlgta tele- at wavelength. light com coherent using temperature start- room 4000 from of ing number occupation phonon average an to .Boo .Snh .Dde,adA Forbes A. and Dudley, A. Singh, K. Buono, W. Devaud L. okuiie h oie teutdTtlRe- Total Attenuated modied the utilizes work e ü oeia hsc,Ven nvriyo Technology of University Vienna Physics, eoretical hmayer 1 .Rauer B. , 2 ∙ .Rotter S. , .Arora P. vltoso h rnvrevector transverse the of evolutions e OM4 ROOM ; 1 il nttt fTcnlg and Technology of Institute Birla .Melchard J. , 2 n .Gigan S. and , ; 3 colo nomto Tech- Information of School 2 .Mounaix M. , 1 ; 1 Laboratoire ; ; University 2 Institute 3 , h auainpwrad3-dB-bandwidth. and power increases saturation bias the reverse a while decay, double-exponential OPO. with femtosecond laser cascade a interband an and of photo-response behaviour saturation bias-dependent the measured We Austria Vienna, Wien, TU Nanostructures, and Germany Micro- Gerbrunn, GmbH, Technologies in ina Austria Vienna, Wien, ttt o unu lcrnc,EHZrc,Z Zurich, ETH Electronics, Switzerland Quantum for stitute Strasser .Weih R. ∙ Interferometer Common-Path Ultrastable Birefringent a on based Microscope Hyperspectral high-throughput A FRI CH-P.7 performance. compro- optical without mising DOE. method the fabrication low-cost of a to dimensions enables the method near- up a a scale demonstrate controllably in element we optical solution diractive index-matched a immersing By Israel Haifa, technology, of institute Shechtman Y. and Opatovski, N. Alalouf, ∙ elements optical diractive printable 3D enables immersion Liquid FRI CH-P.6 17:45 ∙ Oscillator Femtosecond a by Saturation Photo-Response Detectors: Cascade Interband Mid-Infrared Gigahertz FRI CI-5.6 17:30 GHz. 20 intensity at mode modulates it platform, determine IMOS in Built to bits. magnetic the eect read therefore magneto-optic direction, magnetization Uses the cladding. its Netherlands hoven, Tol der van J. ∙ memory magnetic of reading all-optical for device on-chip Magneto-photonic FRI CI-5.5 .Mnoi .Crlo .Vlnii .Cne,R. Candeo, A. Valentini, G. Cerullo, G. Manzoni, C. O. Ferdman, B. Weiss, L.E. Nehme, E. Orange-Kedem, R. Kr L.M. and Koopmans, B. Lavrijsen, R. Reniers, S. Demirer, F.E. eieipeet antcrctakmmr as racetrack-memory magnetic implements device e 2,4 3 ü .Koeth J. , n .Keller U. and , ger ; ; 1 2 .Hillbrand J. , idoe nvriyo ehooy eind- Technology, of University Eindhoven nttt fSldSaeEetois TU Electronics, State Solid of Institute 3 ..Phillips C.R. , OM5 ROOM ; 1 yai epnesosa shows response dynamic e ; 3 aolsNnssesand Nanosystems Nanoplus 1 2 eateto hsc,In- Physics, of Department .Heidrich J. , 1 .Schwarz B. , ; ehinIsrael Technion 1 ; .Beiser M. , 4 etrfor Center ü 2 rich, G. , is 2 , fteparticle. core) the the of (or shell a to corresponding independently (with each ANNs, multiple trained particles stack we core-shell where pre- shells), from multiple to spectra approach scattering networks dict neural stacked present We Ger- Karlsruhe, Technology, many of Institute Karlsruhe ogy, Germany Karlsruhe, nology, nrdc h s fcnouinlnua networks. neural convolutional of use hyper- the a and introduce constraint add regularization We and segmentation squares. spectral 17:45 resolu- least non-negative curve with multivariate tion on based spectra, CARS processing congested for approach original an introduce We France France Limoges, Limoges, Limoges, de France Poitiers, Limoges, Poitiers, de Université de Université Magnaudeix ∙ scattering Raman anti-Stokes coherent to applied resolution curve multivariate in integration Segmentation FRI JSIV-5.6 17:30 Kuhn L. particles core–(multi)shell of spectra scattering predicting for networks neural Stacked FRI JSIV-5.5 cme,L meegr n .Tuzson B. and Emmenegger, L. schmied, ∙ Molecules Organic Volatile of Detection Rapid for QCLs Tuneable Electrically Widely FRI CH-P.9 FRI CH-P.8 Raman and uorescence provide We imaging. for applications sensitivity. of high examples resolution, spectral able tun- coverage, spectral enables broad It with acquisition interferometer. wide-eld ultrastable an on based scope micro- hyperspectral Fourier-transform a introduce We Italy Milan, Milano, di Bassilitecnico A. and Comelli, D. Ardini, B. Vanna, .Boildieu D. .Brechb R. oeia oi tt hsc,KrsueIsiueo Tech- of Institute Karlsruhe Physics, State Solid eoretical otiuinhsbe withdrawn. been has contribution e 1 , ∙ ü .Rep T. lr .Shiegr .Loe,A Kupfer- A. Looser, H. Scheidegger, P. hler, 3 .Leproux P. , 1,2 .Helbert D. , CLEO ä n 2 n .Rockstuhl C. and , OM6 ROOM ® 1 n .Carré P. and , ; Erp-QC2021 /Europe-EQEC 2 2 nttt fNanotechnol- of Institute .Champion E. , ; 3 IRCER-Université ; 1,2 ; aoaoyfor Laboratory F-N Po- IFN-CNR ; 1 2 ; nttt of Institute ; 2 1 XLIM- XLIM- 3 A. , OM1 ROOM 169 inldgeso reo o htncapplications. addi- photonic for provides freedom of which degrees polarization, tional light by controlled 17:30 Universit niz ∙ pulses femtosecond by made polymers in components Photonic FRI CM-9.4 bO i2gassealsfs rsalzto of crystallization fast enables 17:45 nanocrystals. glasses LiNbO3 SiO2 – Nb2O5 – Li2O B2O3-containing of irradiation laser Femtosecond di Politecnico Italy Torino, (DISAT), Torino, Technology and Science Applied France Orsay, Paris-Saclay, (ICMMO), Université d’Orsay Matériaux des et Moléculaire Chimie Sapaly ∙ irradiation laser – femtosecond SiO2 by – glasses Nb2O5 B2O3 – Li2O in induced nanocrystals LiNbO3 of orientation controlled Polarization FRI CM-9.5 Germany Hannover, 3 AcrossDisciplines), Innovation - Engineer- ing and Optics, (Photonics, PhoenixD Excellence of Morgner U. and a rpgto ossa ela eosrt Dad3D and 2D Y-splitters. demonstrate as well as in losses propagation mal writing mini- concepts with optimal waveguides writing single-mode the create to investigate waveguide parameters and new found We a PMMA. on report We Germany Hannover, e.V., Hannover n atsann ihnidvda laser-emission- individual within clusters. scanning frequency between custom fast switching rapid Our and for allows molecules. electronics organic spectroscopic driving the volatile for of applied are detection eect Vernier us- the lasers ing quantum-cascade tunable electrically Widely i olto niomna ehooy ma CH- Empa, D Technology, 8600 Environmental / Pollution Air ndetra odtos utemr,tesm model de- same in the Furthermore, behaviour conditions. their external ned predict to useful systems, SPAD Italy milano, milano, ∙ correction. pile-up photons and systems Time-of-Flight SPAD-based for Model Statistical FRI CH-P.10 .Perevoznik D. .Muzi E. ueIsiueBri,Bri,Germany Berlin, Berlin, Institute Zuse .Icrnt,M oael,adF Zappa F. and Locatelli, M. Incoronato, A. swr rpssadsrt-iesaitclmdlof model statistical discrete-time a proposes work is ⋅ rdy2 ue2021 June 25 Friday 1 ü .Janner D. , edr,Switzerland bendorf, 1,2 .Cavillon M. , ä anvr anvr Germany Hannover, Hannover, t 1,2 1,2,4 .Bose S. , 2 ; n .Poumellec B. and , 1 OM7 ROOM nttt fQatmOtc,Leib- Optics, Quantum of Institute 1 1 i pta retto a be can orientation spatial eir .Lancry M. , .Burger S. , 3 ; .Demircan A. , ; 1 .Brisset F. , 4 2 1 ae Zentrum Laser eatetof Department ; ; oienc di politecnico 1 ntttde Institut ; 2 Cluster 1 B. , 1,2 , ; ue us hpso e-yl aesadAD ber spectra. ultrabroad 17:45 ANDi lasers with mode-locked and understanding in lasers void a few-cycle lling lasers, of shapes pulse sured mea- with agreement excellent showing discussed, convex- are ity spectral of degree varying with solutions Soliton Germany Hannover, Optics, Quantum of Institute the Germany and PhoenixD Hamburg, DESY, Germany Berlin, Germany Berlin, Born-Institut, Equation ∙ Master Haus the of solitons Cage FRI CF-10.5 Kerr- a grating. using mi- transient issues NA based these solve high We aer objectives. croscope characterize to dicult 17:30 ventionally France Besancon, Franche-Comte, Bourgogne Billet Meyer R. samples inside removal front tilt pulse and pulses ultrafast of Synchronization FRI CF-10.4 h apeadfe rmplefottilt. front pulse from free in and compressed sample pulses the probe requires imaging Ultrafast China Engineering,Tianjin, Opto-electronics and Instruments of School Precision Education, of Ministry In- of Opto-electronic Technology formation of Laboratory Key Laboratory, Laser etutv npcino atce n defects. and particles of inspection non- destructive for and thickness, mid-infrared lm wet ap- measuring its high-resolution for demonstrating plicability coatings, and marine of fast imaging OCT on report We Denmark Birkerød, 3460 ics, ehia nvriyo emr,40 okle Den- Roskilde, 4000 mark Denmark, of Denmark University Lyngby, Technical Kgs 2800 Denmark, n .Bang O. and Woyessa G. ∙ Tomography Coherence Optical Mid-Infrared High-Resolution using Coatings Marine of Imaging and Testing Non-Destructive FRI CH-P.11 a eue ocrettedsoto nrdcdb the by introduced distortion the correct detector. to used be can .Steinmeyer G. .Petersen C. 1 ; and , 3 OBI,23 iu,Denmark Virum, 2830 NORBLIS, 1 .Xie C. , ∙ 1 1,3 .Courvoisier F. 1,3,4 .Tidemand-Lichtenberg P. , 1,2 .Markos C. , 1,2 ; .Escoto E. , ; 1 T ooi,TcnclUiest of University Technical Fotonik, DTU .Froehly L. , 3 etce Elektronen-Synchrotron Deutsches OM8 ROOM 1,3 1 1,3 ; .Israelsen N. , 1 ; ET-TIsiue Univ. Institute, FEMTO-ST n .Demircan A. and , 1 .Giust R. , ; 4 2 lse fExcellence of Cluster Humboldt-Universit ; 2 1 ; .Pedersen C. , 1,3 .Furfaro L. , 2 4 T Fotonik, DTU K Photon- NKT .Rodrigo P. , ; 2 si con- is is Ultrafast 4 ; 1 Max- 1 C. , ä 2 2 t, , ,
Friday Posters Friday Posters 1 Shanghai, Technology, and Science China for Shanghai of sity Univer- Engineering, Computer and Optical-Electrical of 1 hog netrl ieetsto diusers. of set predictions dierent object entirely an correla- sparsity through high-quality speckle make scalable and extract tion to able network is neural convolutional (COECNN) trained the that show We Technol- China and Shanghai, Science ogy, for Shanghai of University neering, ∙ extraction speckle correlation based learning deep exible Highly FRI CH-P.12 ∙ detection CO and SO2 for spectroscopy photothermal cavity-assisted interferometric balanced-detection Fiber-coupled FRI CH-P.16 hundred few a of sensitivity tion detec- and resolution spectral 1GHz demonstrating spectrom- eter, transform Fourier home-built compact a a cell, and on multi-pass based a sensor source, supercontinuum gas mid-infrared trace multi-species a present We Netherlands Nijmegen, , Radboud Laser AJ Materials, 6525 University, and and Molecules Molecular for Institute of Physics, Department Harren Group, F.J.M. and Research Abbas, M.A. Krebbers, R. ∙ Sensing Gas Trace for Source Supercontinuum Mid-Infrared a with Combined Spectrometer Transform Fourier FRI CH-P.15 FRI CH-P.14 BaF2, investigated. ZrF4, been have materials – core NaF) (ZBLAN ALF3, LaF3, uoride-based and PMMA) Methacrylate - (Polymethyl plastic study, here. proposed presented the is In diagnosis (CRC) cancer colorectal for sensor resonance plasmon surface ber-based optical An Brazil Pessoa, Joao Paraiba, Educa de Federal Alpino, Instituto J. Xavier, R. Diagnosis Colorectal Cancer for Sensor SPR Fiber-based Optical An FRI CH-P.13 .WangY. ..Waclawek J.P. Jahromi, Eslami K. Khodabakhsh, A. Nematollahi, M. ehiceUniversit Technische School Nanophotonics, Articial-Intelligence for Centre otiuinhsbe withdrawn. been has contribution e ; 2 colo pia-lcrcladCmue Engi- Computer and Optical-Electrical of School 1 .Lin Z. , 1,2 2 .Li Y. , .Moser H. , ∙ .Mria n .Cruz R. and Moreira, C. ä 2 in ina Austria Vienna, Wien, t .Hu C. , ç o ini enlgada Tecnologia e Ciencia ão, 2 .Yang H. , 1,2 ppb n .Lendl B. and , Ǐ . Hz 2 − n .Gu M. and , 1 / ; 2 . rc Gas Trace ; IFPB 1 1 ; ; ; lyn noeale-ope rb ae congura- reported. laser is probe tion ber-coupled overall em- ICAPS an and balanced-detection ploying by SO2 sensing compact gas as trace well CO as selective, sensitive, Highly 2 ietasuto.W oprdtelmto eeto to QTF. detection commercial of limit the compared We transduction. tive capaci- photoacoustic with micro-resonator on silicon based using sensor spectroscopy gas of concept us- QCL) ethylene ing on 1s in (11ppmv sensitive new a present We France Montpellier, ainadsensing. illumi- and quantum nation of applications stimulation, in classical practical the it rendering of top on properties quantum regime. high-loss interferome- the SU(1,1) in seeded ter a of analysis an present We ∙ Interferometer SU(1,1) Seeded FRI CH-P.19 Bahriz M. and ∙ detection. gas photoacoustic enhanced for resonator micro-electromechanical Silicon FRI CH-P.18 mea- surements. fast strength. for perturbation increases the precision the of Counterintuitively, function square-root a as resonator. hysteretic on a based scheme sensing optical novel a demonstrate We Netherlands Amsterdam, AMOLF, tonics, ∙ Precision and Speed Sensing Enhances Resonator Optical Nonlinear a of Bifurcation Pitchfork FRI CH-P.17 atJa eDu slge eLorgt090 Spain 08950, Llobregat de Esplugues Déu, de Joan HospitalSant Diagnosis, Laboratory of Spain Service Hematology, 08950, of Llobregat de de Joan Esplugues Sant Hospital Déu, Anatomy, Pathological of Service Catalonia, Spain of 08222, University Terrassa Technical Development, tems Vilaseca Gassiot S. ∙ Diseases Cell Blood Red to Diagnose Tool a as Microscopy Confocal Evaluating FRI CH-P.20 .Jonas I. Vicet, A. Ayache, D. Rousseau, R. Maurin, N. Trzpil, W. Rodriguez S.R.K. and Peters K.J.H. .Rey-Barroso L. optneCne HS mH ina Austria Vienna, GmbH, CHASE Center Competence c fItra oso h iiiiyo a of Visibility the on Loss Internal of Eect e 1 ; ; a lnuiest aa a,Israel Gan, Ramat , university Ilan Bar 3,5 1 etefrSnos ntuet n Sys- and Instruments Sensors, for Centre .Ruiz-Llobet A. , ; 1 E,Ui.Mnplir NS -40 , F-34000 CNRS, Montpellier, Univ. IES, CLEO .Roldán M. , ; estvt forsno scales sensor our of sensitivity e 2 nto ofclMicroscopy, Confocal of Unit ® 2,5 Erp-QC2021 /Europe-EQEC scngrto ean its retains conguration is 4 ..Burgos-Fernández F.J. , .Isola I. , ; etrfrNanopho- for Center ; 3,5 3 Laboratory n M. and , OM1 ROOM 1 , ; 170 Lohm ∙ Beams Light Helical With Interferometry High-Precision FRI CH-P.23 Andrews Schrenk W. ∙ 2.7 at Detector Cascade Quantum InAs/AlAsSb-Based FRI CH-P.22 for sensor angles. data airow local air and optical speed air potential true a measuring as presented. tested is is aircra LDA research an for (LDA) into anemometer integration Doppler laser rack-mounted A Germany Stuttgart, Physics, Damm Kliebisch, O. vector sensor wind optical real-time as integration airborne for anemometer Doppler laser Multi-channel FRI CH-P.21 cellular work. a this at in aected applied was be microscopy could confocal what level, observe since to diagnose order to In unspecic. dicult somehow are that are characteristics present diseases they cell blood Red Spain 08950, Llobregat Esplugues de Déu, de Joan Sant Hospital Research, Pediatric em sn prlpaepae naMcesninterfer- discussed. Michelson be a will in ometer plates phase spiral vortex using optical beams generating on Details samples. uidic and transparent of measurements precision for pro- benets beams vides light helical of interferometry that report We Germany Munich, Photonics, Germany Munich, Physics, of Department nich, Mu- LMU Nano-Institute Optoelectronics, and Photonics Austria , Vienna Wien, Spain 08950, Llobregat de Esplugues Déu, 4 unu acd eetrbsdo the on wave- 2.7 bandgap of above length based the at response by peak temperature detector grown epitaxy. beam was molecular cascade system material quantum InAs/AlAs0.16Sb0.84 Austria A , Vienna Wien, TU E057-12, tructures .Kerschbaumer N. Giparakis M. evc fPdarcHmtlg,Hsia atJa de Joan Sant Hospital Hematology, Pediatric of Service ⋅ μ m ü rdy2 ue2021 June 25 Friday ; ller emnArsaeCne,Isiueo Technical of Institute Center, Aerospace German 1 ; 1 1 .Fedoruk M. , 2 nttt fSldSaeEetoisE6,TU E362, Electronics STate Solid of Institute ∙ .Schwarz B. , μ .Mhk,R-.Lrer .Mle,adM. and Miller, N. Lorbeer, R.-A. Mahnke, P. ,C2asrto line. absorption CO2 m, 1 .Kn H. , 1 .Fochler L. , ; 2 2 ö n .Feldmann J. and , etrfrMco n Nanos- and Micro- for Center tig 1 .Strasser G. , 1 .Beiser M. , eiesoe room a showed device e 1 .Reichenspurner M. , 1,2 1 ; 1 .Detz H. , n A.M. and , 5 ; nttt of Institute 1 hi for Chair ; 2 Vortex 1 T. , 2 e , h eie hmclparameters. chemical desired the infer to learning combing machine multi- analysis, and simulation colorimetric measurements, of in channels number, used spectral sensors as spectral of such bandwidth factors and inuence spacing the investigate IPM, We Techniques Measurement Germany Freiburg, Physical for Institute Germany Erlangen, IIS, Circuits Integrated .Bauerfeld L. eld. magnetic harmonic a by polariza- induced and declination tion modulation eigenfrequency record an the observed possessing Q=1.45 WGMR factor Ter-quality Garnet the in Gallium eect bium magneto-optical the investigated We Russia Moscow, University, State Moscow Lomonosov Russia Moscow, Center, Quantum Tschekalinskij ∙ analysis colorimetric in of channels number spectral the of inuence the of Investigation FRI CH-P.26 Russia Moscow, University, State 3 Physics, Moscow of Lomonosov UniversityFaculty State Moscow RussiaLomonosov Moscow, University, State ∙ Eect. Faraday strong with material of resonator whispering-gallery-mode High-Q FRI CH-P.25 side- angle of demonstrated function is segments, a of number as orders and factor, walls 2 Q of the improvement in an magnitude which in photonic cavity factor high-Q crystal slotted of design the present We Ireland Cork, Ireland Institute, Cork, University, nological Tech- Munster Analysis, Italy Process and Austria Photonics Advanced Vienna, Bari, Technology, of University Bari, di Politecnico 2 dell’Informazione, Grande ∙ sensing index refractive for nano-sticks slotted trapezoidal on cavities based crystal photonic in enhancement factor Q- FRI CH-P.24 n .Bilenko I. and .Stefani A. Danilin A. Mendoza-Castro J.H. usa unu etr ocw Russia Moscow, Center, Quantum Russian Vienna Analytics, and Technologies Chemical of Institute 1 ; 1 1 .G T. , 1 2 iatmnod nenraEetiae Elettrica Ingegneria di Dipartimento .Slinkov G. , n .Junger S. and , 1 5 .Holzer N. , ; 1 aut fPyis oooo Moscow Lomonosov Physics, of Faculty ö tz 1 × .Vieregge J. , 08frsc aeil ehave We material. such for 10^8 1,2 2 .O’Faolain L. , 1 .Lobanov V. , .Peters V. , 2 ; 1 ruhfrIsiuefor Institute Fraunhofer 1 ; ; .Wiedmann M. , ; 2 5 aut fPhysics, of Faculty aut fPhysics, of Faculty 4 1 ydl National Tyndall .Dold M. , 3 .Min’kov K. , 3,4 ; ; 2 n M. and , 3 Fraunhofer ; etefor Centre 4 Russian 2 M.- , 1 W. , 4 , ; ; uvtr n h e-hi h ufc lso (SP) plasmon surface band. the coupling in red-shi the wall’s and to the or curvature investigated radius dimer is the nanodimers between relation gold the realize in gap air an within Univer- Duisburg-Essen, Nanointegration sit for Center – CENIDE and Duisburg-Essen, of University Chemistry, of Germany of Duisburg, University Duisburg-Essen, Nanointegra- for tion Center Engineering, – CENIDE of and Duisburg-Essen, Faculty (ATE), neering (Au). metals and (GaAs), (ITO) oxides semiconductors conductive strategic nanophotonics: dierent for from materials nanoscale har- at the of generation understanding monic numeri- the to and conduct that experimental results of cal comparison a report USA We Huntsville, Arsenal, Redstone CCDC, Army US .Erni D. Spain Terrassa, Catalunya, Trull correlations. l- speckle’s Fourier the control its can and we matrix tering transmission medium the decomposition value of singular media. the scattering through that a show We behind obtained speckles study We Austria Vi- Wien), enna, (TU Technology of University France Vienna Col- Physics, Paris, CNRS, France, University, de Research lège (PSL) Sci- Lettres Paris et Supérieure, ences Normale École Université, bonne Pápa ∙ Near-Fields Few-Cycle By Induced Photoelectrons Of Tunneling Nonadiabatic FRI EG-P.4 ∙ gaps subnanometer within tunneling FRI EG-P.3 ∙ versus theory experiment nanoscale: the at optics Nonlinear FRI EG-P.2 Rotter ∙ matrix transmission the of decomposition value singular through engineering Speckle FRI EG-P.1 Session Poster EG EG-P: 11:00 – 10:00 .Lovász B. Jalali M. Rodríguez L. Devaud L. ä c fwl’ uvtr nteqatmtunneling quantum the on curvature wall’s of eect e oeo alscraueo h quantum the on curvature wall’s of role e st.5 se,Germany Essen, 5, tsstr. 1 1,2 ; 2 n .Gigan S. and , 1 .Budai J. , 1 eateto hsc,Uiest oiènc de Politècnica University physics, of Department ; 1 1 ..Svejda J.T. , 1 1 .Sándor P. , .Rauer B. , eea and General 1 .Cojocaru C. , 2 .Prietl C. , 1 ; 1 .Melchard J. , 1 1 1 aoaor ate rse,Sor- Brossel, Kastler Laboratoire ..Kiss Z.G. , .Jose J. , ; 2 vainadMsieCenter, Missile and Aviation ; oeia lcrclEngi- Electrical eoretical 1 3 2 .Scalora M. , ..Krenn J.R. , nttt for Institute 2 .Schl S. , 1 2 .Bánhegyi B. , .K M. , ; 2 ü ü Department hmayer cker 3 2 n P. and , n J. and , eoretical 2 and , 1 2 Z. , S. , opt hmadpooeavreyo ae o their for cases of applications. plasmonic variety in a use propose to and model them mechanical quantum compute rigorous orienta- a crystallographic use We dierent tions. and metals variety noble a of for characterized are d-parameters DenmarkFeibelman Odense, Denmark, 55, M, Campusvej Odense DK-5230 Denmark, Southern of University Study, Avan es ae.Orrslsso hti evsaunique a leaves it that show results Our in- an laser. to solid tense low-dimensional a the y of in response nonlinear eect Láser matter-Talbot ultrafast del an demonstrate We Aplicaciones Spain Salamanca, Salamanca, en de Universidad Investigación Fotónica, de Grupo ∙ Interferometry Talbot-Lau Matter through Spectroscopy High-Harmonic FRI EG-P.8 dependence. eld electric and emis- shape the of spectral nature its basic sion, the about resolve arguments We of series metals. a photonic Drude from and luminescence electronic of complete theory rst the provide We Israel Sheva, ∙ metals FRI EG-P.7 FRI EG-P.6 Spain Barcelona, Spain, Den- Odense, Cam- Denmark, mark M, Denmark, Odense Southern DK-5230 55, of pusvej University Castellde- Optics, Spain Castelldefels, Nano 08860 Spain, Technology, Barcelona, and fels, Science of Institute 1 Abajo de García F.J. ∙ applications plasmonic in metals noble of d-parameters functions surface Crystal-oriented FRI EG-P.5 gary Hungary Dombi inaebt rsn nanro ag fintensities, of range region. narrow interaction a transition the in signifying present both emis- are strong-eld sion and multi-photon of Charac- features tunneling. teristic electron nonadiabatic of regime forthe spectra photoemission nanoplasmonic recorded We Austria Graz, .Grí-arr,C enne-aca n .Plaja L. and Hernández-García, C. García-Cabrera, A. Dubi Y. and Sivan Y. Echarri Rodríguez Á. CO–Isiu eCèce Fotòniques, Ciències de Institut – ICFO otiuinhsbe withdrawn. been has contribution e oyo ht ht-uiecnefo Drude from photo-luminescence “hot” of eory ; ç ; t,PsegLusCmay 3 81 Barcelona, 08010 23, Companys Lluís Passeig ats, 3 3 1,2 ntttf Institut CE nttcóCtln eRcraiEstudis i Recerca de Catalana Institució – ICREA ; ; 1 2 inrRsac etefrPyis Budapest, Physics, for Centre Research Wigner L-LSRsac nttt,See,Hun- Szeged, Institute, Research ELI-ALPS ü CLEO hsk Karl-Franzens-Universitaet, Physik, r 1,3 1 ..Mortensen N.A. , ...Gon P.A.D. , ; ; 4 e-uinUiest,Beer- University, Ben-Gurion aihIsiuefrAdvanced for Institute Danish ® Erp-QC2021 /Europe-EQEC ç alves 2,4 2 n .Cox J. and , .Tserkezis C. , ; Barcelona e 2 etrfor Center OM2 ROOM 2,4 2 , ; ; 171 C ai,Uiest S,CR,Prs France Paris, CNRS, PSL, Université Paris, PCI nonlin- gaps. the sub-nm that the through tunneling currents claried quantum overbarrier by and/or been enhanced strongly has are eects It ear with gaps. metasurfaces sub-nm plasmonic by induced eects optical nonlinear third-order investigated computationally We Japan Tsukuba, Tsukuba, of University Sciences, spectroscopy. high-harmonic Talbot-Lau for way the opening trace, spectroscopic n togyculdt ufc plasmon. surface a to coupled sec- the strongly and ond plasmon emitters, surface a uorescent to coupled weakly of rst be- the ensembles interaction dierent mediated two plasmon tween the 1, investigate Lyon We Bernard France Villeurbanne, Claude CNRS, Université Matière, Lumière Bellessa Wilde De interaction. the during forces and torques ∙ Gaps Sub-nm with Metasurface Plasmonic by Large FRI EG-P.9 mtesi ekadsrn opigregime. ∙ coupling strong and weak in emitters uorescent between interactions mediated Plasmon FRI EG-P.12 the and size beam the conductivity. thermal to host strongly-sensitive is but sity, den- and size, shape, particle duration, pulse illumination wavelength, the plasmon-assisted on weakly-dependent in is rise photocatalysis temperature the that show We Beer Negev, the Israel Sheva, of University Ben-Gurion Engineering, ∙ study parametric FRI EG-P.11 nanoparticles clusters. with and interaction its direction to momentum propagation angular beam orientated optical type transversely novel with of investigation an present We Lithuania Vilnius, Technology, and Sciences Physical ∙ of nanoparticles cluster with wheel photonic of Interaction FRI EG-P.10 .Tkuh n .Yabana K. and Takeuchi T. .Chevrier K. Sivan Y. and Un I.W. Ber J. ra c npamnasse htctlss a photocatalysis: assisted plasmon in eect ermal ⋅ rdy2 ue2021 June 25 Friday š y n .Orlov S. and kys 2 n .Krachmalnico V. and , r-re olna pia c Induced Eect Optical Nonlinear ird-Order 1 .M Benoit J.-M. , 1 .Pérez C. , ou so nua momentum, angular on is focus e ; colo lcrcladComputer and Electrical of School ; 1 tt eerhisiueCne for Center institute research State .Bouchet D. , 2 .Gassenq A. , ; etrfrComputational for Center 1 ; 1 ntttLnei,ES- Langevin, Institut 1 .Carminati R. , 2 .Symonds C. , ; 2 Institut 1 2 Y. , J. , ieeet nidvda nen signals. antenna collec- individual of on tip- eects inuence strong tive the and revealing weak and for coupling antenna regimes eld- distinct and near- nding orientation in size, on nanoantennas depends of measurements response eld the how study We Kingdom United 2AZ, SW7 London London, College Imperial Physics, of Department oratory, nm. 50 of resolution a with dots quantum posi- the the of obtain em- tion We with nanocrystals. silicon 3D dot from quantum a made bedded of crystal gap tomography band uorescence photonic X-ray perform We France Grenoble, lands Vos W.L. hp ftesraeo ya npl oei silicon in mode anapole an substrate. by glass on or disks surface the of shape ef- generation ciency. high-harmonic of enhancement for tures nanostruc- silicon optimize numerically and propose We Republic Czech Prague, University, Charles Physics, ∙ generation high-harmonic ecient for nanostructures Silicon FRI EG-P.16 M Ludwig-Maximilians-Universit Physics, of Faculty nich, 1 ∙ size eld and orientation measurements: near-eld in optical nanoantennas gold of response the Tailoring FRI EG-P.15 Pacureanu ∙ tomography uorescence synchrotronX-ray by observed crystals photonic 3D silicon inside dots quantum of positioning Targeted FRI EG-P.14 absorp- new the allow to tion. mixing spin induce that atoms reveals Au a theory functional activates transition. density forbidden nanocavity Time-dependent a plasmonic from peak a absorption molecular that observe We Kingdom United Cambridge, JJ Physics, ∙ Nanocavities Plasmonic in Absorption Molecular Spin-Forbidden of Rules Selection the Breaking FRI EG-P.13 .PtraadM Kozák M. and Peterka P. B R. Schulz A.S. Ojambati O. hi nHbi aoytm,NnisiueMu- Nanoinstitute Nanosystems, Hybrid in Chair ü ce,859M 80539 nchen, ; ü 2 chner uoenSnhornRdainFclt (ESRF), Facility Radiation Synchrotron European 1 ; 2 .Huskens J. , 1 1 edehneeti ece yconical by reached is enhancement eld e 1 .Weber T. , ..Grishina D.A. , msnAeu,Uiest fCambridge, of University Avenue, ompson nvriyo wne ncee Nether- Enschede, Twente, of University ; aeds aoaoy eatetof Department Laboratory, Cavendish ü ce,Germany nchen, 1 1 ..Vancso G.J. , ..Maier S.A. , ; aut fMteaisand Mathematics of Faculty 1 ...Harteveld C.A.M. , ; 1 2 1,2 .Cloetens P. , n .Tittl A. and , lcetLab- Blackett e 2 1 and , A. , ä 1 t ;
Friday Posters Friday Posters rt,Hrkin Greece Heraklion, Crete, Greece Greece Heraklion, Re- (FORTH), for Technology Foundation 2 and (IESL), search Laser and Structure tronic .Pantazis Y. mechanism. modication eval- glass waveguides, the optical uating infrared fabricate to and silicate glass designed in- compositionally refractive ad-hoc to in positive contrast dex applied high with is microstructures redistribution write element induced Fs-laser Spain Madrid, Madrid, of Complutense sity Madrid, Madrid, of Spain Complutense University Physics, of ard Spain Madrid, Spain Madrid, (IO-CSIC), Óptica de Instituto Group, Processing re- transmission com- predicted while and 10-4 sponse. simulated of of order parison in the resulted of algorithm design mean-square-error Predicted inverse the by grating. design geometries nanophotonic inverse silicon based integrated of learning deep demonstrated We session Poster JSIV JSIV-P: 11:00 – 10:00 .C Velli M.-C. approaches learning of machine use the through surfaces patterned laser-based of features morphological the of Prediction FRI CM-P.2 Ariza R. Macias-Montero M. Redistribution Element Laser Induced Femtosecond by Glass Silicate in Index Control Refractive Local and Migration Element FRI CM-P.1 Session Poster CM CM-P: 14:30 – 13:30 Asim ∙ Gratings Nanophotonic Integrated of Silicon Design Inverse based Learning Deep FRI JSIV-P.1 .Umn .AiAbr .Rha,Z ai,adS.H. and Karim, Z. Rahman, A. Akbar, Ali H. Usman, A. eateto hsc,Uiest fCee Heraklion, Crete, of University Physics, of Department ; ; ; ai nvriy aah,Pakistan Karachi, University, Habib ; 4 eateto pis aut fPyis Univer- Physics, of Faculty Optics, of Department 2 3 1 nttt eCrmc iro(ICV-CSIC), Vidrio y Cerámica de Instituto eateto aeilSine nvriyof University Science, Material of Department .Fernandez P. , 1,2 4 n .Stratakis E. and , , ; ∙ 3 .Tsibidis G. eateto aeil hsc,Faculty Physics, Materials of Department 1 .Mu F. , 3 ; .Siegel J. , 4 1 nttt fApidadCom- and Applied of Institute .Mimidis A. , ñ oz 2 .Sotillo B. , 1,2 1 and , ; 1 nttt fElec- of Institute 1,3 ∙ .Solis J. .Skoulas E. , 3 .dlHoyo del J. , 1 ; 1 Laser 1,3 4 , , ; ntesraeo rica materials. articial of surface the on features morphological based application produce parame- to laser ters the forecasting towards Machine-Learning tool fabrication predictive that laser-based a in as work used be this can approaches in based shown have We and Research Greece Heraklion, Technology—Hellas, for Foundation Mathematics, putational .Sukhorukov A. olanalgclXRfnto ihats cuayof accuracy test a with function XOR 80%. logical a learn SOA to an using non-linearity. a modelled as prole saturation elements memory with puter com- reservoir opto-electronic discrete an introduce We many f trum eadto lmnsebde nfmoeodlsrdi- switchable laser femtosecond as in crystals embedded elements liquid retardation of use the demonstrate We Germany Jena, Engineering, cision c,FidihShle nvriyJn,Jn,Germany many Jena, Jena, University Schiller 2 Friedrich ics, 1 absorption. resonance collisionless is nism nanochannels. ratio aspect over- which high nm, open dielectrics 200 below in diameter with create nanoplasmas dense beams Bessel that femtosecond simulations and experiments with UMR demonstrate We Franche-Comte, France Bourgogne Besancon, 6174, CNRS Univ. Institute, ST Courvoisier F. and Giust, R. Froehly, L. Furfaro, ∙ absorption resonance of via bulk dielectrics the inside deposition density energy High FRI CM-P.3 Pankov A. Lattices Photonic Synthetic Time-Domain with Networks Neural Deep FRI JSIV-P.3 Gallego G. ∙ with Memory Atomic Computers Reservoir Optical for Scheme A FRI JSIV-P.2 ∙ waveguides written direct laser in femtosecond waveplates tuneable as crystals liquid Using FRI CM-P.4 .Hsa,K rae,R ee,C i,C ilt L. Billet, C. Xie, C. Meyer, R. Ardaneh, K. Hassan, M. Robertson E. .Lammers K. nttt fApidPyis beSho fPhoton- of f Institut School Abbe Physics, Applied of Institute ; ; 2 3 ü ehiceUniversit Technische ruhfrIsiuefrApidOtc n Pre- and Optics Applied for Institute Fraunhofer u-udRufhteV DR,Bri Ger- , Berlin (DLR), e.V. Raumfahrt und Lu- r ü 1 2 .Sidelnikov O. , .L K. , hsk Universit Physik, r 1 .Alberucci A. , 1,2 2 ; ü .Jaurigue L. , CLEO dge 1 ooiis tt nvriy Novosi- University, State Novosibirsk 2 n .Wolters J. and , 1 , ® 1 ∙ ä .Vatnik I. .Szameit A. , 2 eln eln Germany Berlin, Berlin, t .Esguerra-Rodriguez L. , Erp-QC2021 /Europe-EQEC ä otc,Rsok Ger- Rostock, Rostock, t 1,2 1 .Churkin D. , eevi sused is reservoir e ; 1 2 anmecha- main e etce Zen- Deutsches n .Nolte S. and , ; FEMTO- 1 and , OM3 ROOM OM1 ROOM 1,2 3 , ; ; 172 ignlt ignlotu polarization. output diagonal to anti- from diagonal e.g. switch a allowing waveguides, written rect and compensation transformations. distortion nonlinear signal for ef- in training capabilities cient the demonstrate forop- and networks trains, neural pulse deep tical realise cou- can on rings based ber lattice pled photonic synthetic that reveal We Australia berra, Russia birsk, many sit Germany Berlin, D-12489, 2, straße acn thn ae,adpoiiganwmasfor means prole. new channel a cross-sectional the providing shaping and rates, en- etching aberration, hancing surface for modi- compensating enable laser tracks, to femtosecond cation shown of control is etching shaping chemical beam front phase Conical Uni- Canada Toronto, Toronto, Engineering, of Computer versity and Electrical of partment ∙ Tracks Modication Laser Femtosecond along Etching Deeply-Focussed Chemical Directing for Beams Conical FRI CM-P.6 parameters. post-processing laser respect femtosecond with the grating to Bragg ber inscribed an of dis- persion) the consequence by (and index refractive average the Germany Jena, 07745, 7, Albert-Einstein-Straße IOF, Engineering Precision 07745, and Friedrich 15, Germany Photonics, Jena, Albert-Einstein-Straße of University, Center Schiller Abbe Physics, Applied Matzdorf gratings ∙ Bragg ber of tailoring dispersion for regimes post-processing laser femtosecond of Study FRI CM-P.5 f Germany trum Berlin, , D-12489 tonstr.15, Wolters J. and ∙ Non-linearity Atomic with Network Neural Convolutional Optical FRI JSIV-P.4 .Aioamda,E roe,adPR Herman P.R. and Ertorer, E. Alimohammadian, E. Imogore T.O. Yang M. ä ssuyivsiae o h rttm,teeouinof evolution the time, rst the for investigates study is eln taeds1.Jn 3,D163 eln Ger- Berlin, D-10623, 135, Juni 17. des Straße Berlin, t ⋅ rdy2 ue2021 June 25 Friday ü u-udRufhteV DR,Rutherford- (DLR), e.V. Raumfahrt und Lu- r 1 1,2 .Richter D. , .Robertson E. , ; 2,3 2 ; 1 ..Kr R.G. , ; 2 1 ruhfrIsiuefrApidOptics Applied for Institute Fraunhofer utainNtoa nvriy Can- University, National Australian e Humboldt-Universit 1 n .Nolte S. and , 2,3 ä .Eger Rodriguez Esguerra L. , mer 1 ..Goebel T.A. , ; 3 ehiceUniver- Technische ; ä 1,2 uBri,New- Berlin, zu t 2 etce Zen- Deutsches ; 1 nttt of Institute 1 C. , ; De- 2,3 , ipaeetsensing. displacement resolved enabled azimuthally osets for responses positional bending photoelastic and Overlaid rotational resonances. with Bragg gratings narrow to with arrays applied l- ament uniform were and long forming pulses ber, telecommunication laser femtosecond CanadaAberrated Toronto, 3G4, M5S Rd., 10 College Toronto, King’s of University Engineering, Computer and cal Canada Toronto, College M5S3G8., King’s Rd., 5 Toronto, of University Engineering, trial ..Herman P.R. sn emtia hs lmnsadapiain of processing. applications glass for and beams elements such phase frequencies, geometrical spatial dierent using and order higher of Bessel beams inten- several transverse superimposing by complex beams, distribution of sity generation on report We Lithuania nius, Vil- University, Technical Gediminas Vilnius Electronics, Lithuania Vilnius, laboratory, 2 Optics Coherent nology, ∙ glasses laser of for processing beams Bessel order higher of superpositions in structures high-contrast of Creation FRI CM-P.8 Mahlooji H. Sensing Displacement Resolved for Azimuthally Gratings Bragg Fiber Based Filament O-Axis FRI CM-P.7 to tasks. able complicated are perform that architectures, within learning of deep (accessible target the nal realizing model the with XY systems) matter condensed the many the of on based blocks structures complex nonlinear build to how show We Russia Kingdom United Cambridge, Moscow, Cambridge, Technology, and ence ∙ Networks Neural XY FRI JSIV-P.5 a as cell vapor cesium absorber. a saturable by realized is op- non-linearity an while tical by (SLMs), modulators implemented demon- light are spatial is and operations lenses linear network which neural in strated convolutional optical An .Ul O. .Šlevas P. 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Pulses Laser Ultrashort Using Recording Hologram FRI CM-P.11 envi- pollution. withstanding and for degradation ronmental potential great showing tained, Ariza R. Enhancement Hydrophobicity Marble through of Protection Surface for Processing Laser FRI CM-P.10 simulations. nite-elements and imaging time-resolved ejection, using near- tigated yer to in fragmentation. due and spallation resulting fracture micro-explosion short dynamic by interface undergo irradiated substrate pulses Si laser on lms SiO2 PECVD Israel Gan, Ramat University, Ilan Israel Yavne, Ltd., Orbotech Israel Group, Manufacturing Sheva, Beer Negev, the of University rion ∙ interface Si/SiO2 at micro-explosion conned laser-induced to due fracture lms dynamic SiO2 of simulations and imaging Time-resolved FRI CM-P.9 .Maragkaki S. Sakaev I. eateto hsc,Uiest fCee Heraklion, Crete, of University Physics, Hungary of Szeged, Department Ltd., Non-Prot ELI-HU ELI-ALPS, ∙ .Siegel J. 2 1 .Márton Z. , .Alvarez M. , 1 1,2 .Linden J. , bandrslswl etebssfranew a for basis the be will results obtained e 1 .Hevko I. , ; 1 1 ..Tsibidis G.D. , ae rcsigGop nttt eÓp- de Instituto Group, Processing Laser ; 2 apnoPyioMcaia Insti- Physico-Mechanical Karpenko 2 1 n .Stratakis E. and , .Solis J. , 1 2,3 and , n .Ishaaya A. and , ; ∙ 1 1 .Gnilitskyi I. 2 .Flender R. , .Costas G. , eatn scao de asociados y Levantina hnmn r inves- are phenomena e 1,3 2 1,3 ; .Tribaldo L. , ; 2 3 1 .Haizer L. , ; Department 1 ; 1 nttt of Institute o ; NoviNano 1 2 eeob- were e Gu- Ben Additive ; 3 Bar 2 2 , , ; ; ideEs ehia nvriy naa Turkey Ankara, University, Technical East Middle .Turan R. Borra Ka V. Vargalis foil. tungsten pat- in interfer- hole terns sub-micrometer X-ray and for imaging, gratings medical tungsten ometry obtain system, to laser order 10-picosecond UV in an using beams Bessel and Gaussian with results micromachining compare We Osijek, University, Strossmayer Croatia Juraj Josip Medicine, Northwestern of Switzerland Arts Windisch, and (FHNW), Sciences Switzerland Applied of University 1 ∙ eciency 16% than more with Solar Cell c-Si Structured Surface Periodic Induced Laser FRI CM-P.16 outcome. processing the improve to used are laser-independent to methods and bursts, femtosecond lter- resolution, multi-level limited passive, Sub-diraction separator. a macromolecule fabricate laser based to direct used additive-subtractive is hybrid writing a work, this In Lithuania Kaunas, versity, nia Lithua- Vilnius, University, Vilnius Physics, of Faculty ter, 1 ∙ Writing Laser Direct Femtosecond by Separator Macromolecule Microuidic of Fabrication FRI CM-P.15 Carreto shapes R. beam dierents with patterns hole and sub-micron gratings x-ray of micromachining laser Ultrafast FRI CM-P.14 ab- the predict depth. also lation can that model theoretical value our roughness using surface minimal a for optimized are parame- ters Laser laser materials. transparent UV of femtosecond ablation direct surface a of results the present We University, Vilnius Physics, Lithuania Vilnius, of Faculty Center, Research ∙ Pulses Laser UV Femtosecond with Dielectrics of Transparent Micropatterning and Ablation Surface Area Large FRI CM-P.13 calculations. theoretical comple- with solids mented on investigation parametric a present we .Goodarzi A. 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Jukna, V. e, ˙ 1 .L B. , 1 n .Pavlov I. and , e ˙ .Candemir O. , 3 .Stankevi M. , 1,2 CLEO ü 2 .Andriukaitis D. , .HneCipinar Hande E. , scher š ova 3 1 .Butkut A. , .Holtz R. , ® 1 1,2 .Nasser H. , Erp-QC2021 /Europe-EQEC č ; ius 1 eateto Physics, of Department ; 3 2 n .Maru A. and , 1 1,2 ae eerhCen- Research Laser e ˙ and , 1,2 .Andrijec D. , 1,2 .Dervinskas T. , 1,3 .Zolfaghari M. , .Bek A. , ∙ .Resan B. ; 2 Faculty ; ; Laser š 1 2 1,2,3 ka OM1 ROOM R. , 1,2 3 3 e , , ; ; 173 cltxuigo h surface. the of chem- texturing any without en- ical achieved is are Structuring. eciency Surface 16% surface than Periodic More cell Induced Laser solar by c-Si hanced of properties Photonic Turkey Ankara, University, Technical Applications East Middle and Ankara, Research University,, Turkey Technical Energy East Middle Solar (GÜNAM), for Center ueuiomt npleeeg n cnigrt was rate scanning and observed. energy pulse on femtosecond uniformity near-IR ture using nm pulses. 50-170 laser of thickness a with lms zirconium Russia on formed were Novosibirsk, structures Periodic RAS, SB the of 2 Electrometry and Korolkov ∙ beam laser focused femtosecond by lms zirconium on structures surface periodic laser-induced thermochemical of Formation FRI CM-P.19 the optimized. surfaces, is solution damage-free etching the with of chemistry along holes etching. obtain chemical To selective by followed focused Si-subsurface laser in ber drilling nanosecond-pulsed micro-hole using ratio technique aspect high a Ankara, demonstrate We University, Technical East Turkey Middle Physics, of Turkey Ankara, University, Technical East (GÜ- Applications and Research 2 Turkey Ankara, University, Technical Energy East Middle NAM), Solar for ter Turan ∙ Etching Chemical Selective and Processing Laser Silicon Subsurface Using in Drilling Micro-Hole Ratio Aspect High FRI CM-P.18 for need the avoid which materials. and support size print on single limitations propose overcome to we manufacturing Here, additive volumetric scale. photon micrometer the of at manufacturing tools high-precision demonstrated has als materi- ceramic of Switzerland manufacturing additive Two-photon Lausanne, Polytech- Lausanne, Ecole de Engineering, 2 Fédérale of nique School Devices, tonics Delrot ∙ ceramics conductive of printing 3D Volumetric FRI CM-P.17 .Bronnikov K. Borra Zolfaghari M. Madrid-Wol J. ooiis tt nvriy ooiis,Russia Novosibirsk, University, State Novosibirsk Middle Program, Graduate Nanotechnology and Micro Switzerland Lausanne, , Readily3D ⋅ rdy2 ue2021 June 25 Friday 1,2,3 2 ; n .Moser C. and , 3 1,2 ir n aoehooyGaut Program, Graduate Nanotechnology and Micro .Pavlov I. , n .Babin S. and , 1,2 eednyo h eidadstruc- and period the of dependency e .Dostovalov A. , 1 .Konstantinou G. , 1,3 1,2 1 n .Bek A. and , ; .Radfar B. , 1 1,2 aoaoyo ple Pho- Applied of Laboratory ; 1 nttt fAutomation of Institute 1,2 1,2 .Okotrub K. , 1 1,2,3 .Nasser H. , .Loterie D. , ; ; 3 Department 1 Cen- e 1 1 2 V. , R. , P. , ; ; ; we bobdlsreeg est n nue stress induced and be- elds. relation density the energy in laser insight absorbed provide transparenttween to is in goal shockwaves Our laser-generated media. fs setup study microscopy to transmission time-resolved a use France We Rennes, CNRS, Rennes, France de Marseille, Physique 7341, de UMR LP3 CNRS, sity, Loison .Gotovski P. elements phase using Pancharatnam–Berry needle optical of creation on impurities beam and misalignments various of Eects FRI CM-P.24 Gaussian cross-section. as elliptical eld slightly near with the in evaluated was prole mode glass. 47,5BaO-5Al2O3-47,5B2O3 of laser femtosecond of direct writing demonstrate we study, this In Russia Moscow, Technology, Chemical Sigaev V.N. and Fedotov, S.S. ∙ glass borate in waveguides crystal-in-glass of inscription Ultrafast-laser FRI CM-P.23 the for range. near-IR used the in be light optical of generation could supercontinuum nonlinear waveguides fabricated of that writing show We silver. containing laser glass phosphate zinc the in waveguides on report We Russia Moscow, Technology, Chemical Sigaev V. and Lotarev, S. nikov, ∙ Glass Phosphate Zinc in Nanoparticles Silver with Precipitated Waveguides Optical of Writing Laser Direct FRI CM-P.22 ∙ Simulation and Experiments media: transparent in shockwaves laser-generated Femtosecond FRI CM-P.21 work- the of piece. surface to perpendicular is jet oxygen power cutting lasers steel diode mild ber-coupled demonstrated. W mm 400 20-40 total of using cutting oxygen assisted Laser Israel Sheva, Beer Negev, ∙ diode ber-coupled lasers W 400 of with delivery steel beam mild o-axis thick of cutting oxygen assisted Laser FRI CM-P.20 ..Ltrv ..Lpte,AS amv ..Lipateva, T.O. Naumov, A.S. Lipatiev, A.S. Lotarev, S.V. Vetchin- M. Fedotov, S. Lipatiev, A. Shakhgildyan, G. Koritsoglou O. Ishaaya A. and Sakaev I. 2 n .Mouskearas A. and , 1,2 β BBO rsa aeudsi h inside the in waveguides crystal -BaB2O4 .Slevas P. , 1 .Utéza O. , ae emi eiee ai othe to o-axis delivered is beam laser e 1,3 , ; ∙ 1 e uinUiest fthe of University Gurion Ben .Orlov S. .Grojo D. , ; .MneevUiest of University Mendeleev D. 1 β ; ; -BaB2O4 edle nvriyof University Mendeleev 1 i asil Univer- Marseille Aix 1 .Ul O. , 1 .Sanner N. , propagating e č inas ; 2 1,3 Institut and , 1 D. ,
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Bánhegyi B. edl3,Luan,Switzerland Lausanne, Readily3D, Hun- Budapest, Physics, for Centre Research Wigner μ etscn ae usso indium-tin-oxide on pulses laser femtosecond m ; 2 L-LSRsac nttt,EIH Nonprot ELI-HU Institute, Research ELI-ALPS 1,3 2 ; n .Moser C. and , 1 etrfrPyia n ehooySciences, Technology and Physical for Center 1 .Péter L. , 1 ; .Boniface A. , 2 inu eiia ehia Univer- Technical Gediminas Vilnius 1 .Pápa Z. , 1 ; 1 1 .Jonin M. , aoaoyo Applied of Laboratory 1,2 n .Dombi P. and , 1 μ .Delrot P. , ; m 3 Workshop gener- e 1,2 2 , ; ; n baino sapphire. of ablation ond femtosec- the in pre- features explore intra-crater two- qualitatively unexplored viously to the method beam this correlate incident use We the prole. directly to prole to crater ablated method dimensional a develop We Japan their performance. enhance photocatalytic eciently to order in on microstructures, synthesised nanorods, 3D TiO2 of area surface active the Her- Crete, Greece of aklion, University Technology, and Science terials Technology- Greece and Heraklion, (FORTH), Research Hellas for Foundation (IESL), Laser Farsari M. and .Kuwata-Gonokami M. ∙ Laser Pulse Femtosecond Single a by Created Ablation to Morphology Fluence Local of Correlation Direct FRI CM-P.29 pro- sapphire crystalline cessing. for we Here optimisation studied. SLE widely present not is crystals. crystals and of glasses SLE However, in formation high structures in 3D technology quality perspective is etching laser Selective Lithuania Vilnius, University, Vilnius Sirutkaitis V. ∙ 3D Fabrication for Structure Sapphire Crystalline of Etching Laser Selective FRI CM-P.28 ∙ applications for photocatalytic microstructures 3D of writing laser Direct FRI CM-P.27 .Skri .Knsi .Tmr,J uoo and Yumoto, J. Tamaru, H. Konishi, K. Sakurai, H. and Sirutkaitis, R. Paipulas, D. Siauryte, B. Butkute, A. Syngelakis I. rsn okivsiae h oeta nraeof increase potential the investigates work present e ; 1,2 ae eerhCne,Fclyo Physics, of Faculty Center, Research Laser .Kabouraki E. , 1 ; CLEO 1 nttt fEetoi tutr and Structure Electronic of Institute ; ® nvriyo oy,Tokyo, Tokyo, of University e 1 Erp-QC2021 /Europe-EQEC .Kenanakis G. , ; 2 eateto Ma- of Department 1 .Klini A. , OM1 ROOM 1 , 174 Bessonov nvriy ocw Russia Moscow, University, Chubich D. Kulagin opsto.W aeaaye hikg,elemental shrinkage, analyzed have chemical We and composition. resolution microstructures’ both hances en- pyrolysis Post-processing microstructures. 3D to make technology powerful a is polymerization Two-photon Russia Moscow, University), Research (National Technology and regime. sub-micrometer and the ratios in aspect sizes high feature with prints they 3D quality formulations, Multiphoton good ecient show for their photoinitiators Besides as Lithography. used be aldehydes can triphenylamine-based which three of Presentation Greece France HERAKLIO,CRETE, Crete, of 3 University ogy, are silicon of impact the on texture presented. DLIP of tests industry. rst textile for polymers and parame- PET uoralkyl-free on PA66 laser properties optimal repellent liquid the reproduce to investigate ters we work, this In France Etienne, Saint Curien, Hubert tory Labora- CNRS, 5516 University,UMR Monnet Jean Lyon, ∙ polymers of made textiles Laser for Patterning Ultrafast via engineering Surface inspired Bio FRI CM-P.30 ∙ study comparative polymerization: two-photon by made microstructures Pyrolyzed FRI CM-P.32 for Foundation Laser, HERAKLIO,CRETE, Greece Technology-Hellas, and and Structure Research Electronic of Mourka A. ∙ polymerization multiphoton for photoinitiators as aldehydes Triphenylamine-based FRI CM-P.31 .K osi .Muli,adX Sedao X. and Mauclair, C. Koussi, E.-K. ..Sharipova M.I. 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D. production scale industrial in applications surfaces: of texturing laser Femtosecond FRI CM-P.35 FRI CM-P.34 cases. all in results silicon remarkable and producing sapphire (SiC), carbide (PEEK), applied ketone been ether has Polyether It to developed. been has engraving femtosecondlaser industrial for protocol optimization new A France Étienne, Saint , F-42000 Éti- Saint France F-42000, enne, CNRS, 5516 UMR University, versity Uni- Monnet Jean Lyon, of University Laboratory, Curien ∙ Applications Engraving Industrial for Materials Various of micromachining Laser Femtosecond FRI CM-P.33 DXaayi omtermvlo h C layer TCO absorber. the underlying of the and damaging removal image without the SEM conrm analysis cell performed. solar EDAX Sb2Se3 been in has scribing manufacturing laser of test preliminary Italy A Parma, Magnetism, and Electronics for rials Italy Parma, chitecture, 1 Gilioli E. .Pallarés-Aldeiturriaga D. nvriyo am,Dprmn fEgneigadAr- and Engineering of Department Parma, of University otiuinhsbe withdrawn. been has contribution e Č ere š ka 2 .Trevisi G. , 1 .Kontenis G. , ; 1 2 , I auehUD 0reBni Lauras, Benoit rue 20 Manutech-USD, GIE ∙ e ˙ .Khozeymeh F. 1,3 ; 2 and , ae eerhCne,VlisUni- Vilnius Center, Research Laser 2 ; .Mazzer M. , 2 1,2 MMCR nttt fMate- of Institute IMEM-CNR, ∙ 1 ; .Nemickas G. .Žemaitis A. , 3 n .Sedao X. and eateto Chemistry, of Department 1 .Bissoli F. , 2 n .Selleri S. and , 1 1,2 ; 2 .Rampino S. , 1 .Vargalis R. , etk Ltd, Femtika 1,2 ; 1 Hubert 1 2 1 , , ; he,Ael...... 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Ibrahim Abdulhalim, (p84), (p108) WED WED JSI-P.3 CF-4.4 . . . . . Marwan . . . Ahmed, . Abdou L. Nicolas Abdala, (p36) . MON . Ali. CH-1.2 . Muhammad . . Abbas, A. Muhammad Abbas, ,Zrn...... C-. H (p145) THU CL-P.8 ...... Sevag ...... Abadian, . . . Zarin . . S, . A Krishna Lal A.S., data: A following the of consist entries index The A55WD(8) A94TU(p120) THU CA-9.4 (p86), WED CA-5.5 (p162) FRI CD-11.4 (p115) THU EE-2.5 ∙ K53TU(13,C-01TU(p130), (p149) THU FRI CH-10.1 EG-7.4 (p123), THU CK-5.3 ∙ ∙ MP3 R (p175) FRI CM-P.32 H45TU(p115) THU EH-4.5 A72WD(9) A82TU(p110), (p135) THU THU CA-8.2 CB-9.5 (p93), (p97), WED WED CA-6.4 CA-7.2 (p91), WED CA-6.2 (p170) FRI CH-P.15 K74FI(p149) FRI CK-7.4 D11TU(18,E-. R (p153) FRI EF-8.6 (p138), THU PD-1.1 (p107), WED EC-P.19 ∙ ∙ FP1 E (p104) WED CF-P.18 ∙ ∙ G64TU(p126), THU EG-6.4 ∙ ∙ H72WD(p96), WED CH-7.2 M15MN(p41) MON CM-1.5 ∙ ∙ D15MN(p40) MON CD-1.5 ∙ AP8MN(p48) MON CA-P.8 H35TE(p69), TUE EH-3.5 D34TE(p66), TUE ED-3.4 K35TE(p60) TUE CK-3.5 < eso key session la bd B12MN(p31) MON (p98), (p29) WED MON EB-1.2 . . ED-1.1 . . EhsanCM-3.4 ...... Alimohammadian, . (p173) . Soroosh . FRI . . JSIV-P.1 . (p147) Alighanbari, . . . . FRI . . Obada . EF-8.1 . Alia, . . Hussaina . . Akbar, . (p47), Ali J. MON Tristram JSIII-2.4 . Alexander, . . . . . (p38), Oliver MON Alexander, (p97) .CJ-1.4 . WED . . EI-3.3 . . Christopher. . (p104), . . WED Aleshire, . V. CE-P.5 . Thonimar . . Alencar, (p104) . . WED . . CE-P.3 . . (p154) . . Irina (p138) FRI . . THU CF-9.3 . Alekseeva, . . . PD-1.9 . . Prokhor . . Mayer . Alekseev, P. . (p134) . . Thiago THU (p68) Alegre, CD-9.4 Collin TUE . E. . CA-4.1 P. . . . Aldia, David . . Iranzo, . . Alcaraz Alexander Albrecht, Beh (p34), Alaydin, MON CE-2.1 . . . (p83) . . WED . . CD-6.2 (p120) . (p112) . Ozgur THU . THU . B. . CB-7.2 CH-8.2 . . . Alaydin, . . . . . Namig ...... Alasgarzade, . Arturo . . Juan . . . Alanis, . . Rose Alani, let,Sbsin...... C-. E (p90) WED CH-6.3 ...... Alessandro . . . Alberucci, Sebastián Alberti, (p45), MON (p129) CD-2.3 . THU . . . CJ-5.5 (p170) . . . . FRI . . . . .CH-P.6 ...... (p85) . Imtiaz . . WED . . Alamgir, . . . . EC-4.4 . . . Shaif-ul . . . . Alam, . . (p39) . . Onit. MON . . EH-1.4 Alalouf, . . . Hadiseh . . Alaeian, Alessandro (p102), Alabastri, WED CC-P.11 . . . Juha (p167), FRI Ala-Laurinaho, CI-5.3 . Ali Raghib Qusay Al-Taai, lMahn l ...... Ali (p74) TUE Al-Moathin, (p46) CG-4.5 . MON . . . CL-1.2 . . Mouhamad ...... Al-Mahmoud, . Andre . . . Haddad, Al Samy (p31), MON Bourgol, Al EB-1.2 . . . (p30) . Akta . MON . (p92) . CK-1.2 WED . . . . . CH-6.5 ...... Djeylan . . . . . Aktas, . . Vladimir . . . Aksyuk, . Astrid Aksnes, kai aia...... (p75) . . TUE . (p60) CH-5.4 Parisah. . TUE (p110) . . V. Akrami, THU CL-2.5 . Daniil CH-8.1 . . . . . K. Akhremenkov, . . . (p61), Christopher . . TUE . Akhgar, . CF-2.5 Samet . . . (p81) Akcimen, . . TUE . (p162) . ED-P.6 . FRI . . . . .EH-6.5 Oender ...... Akcaalan, . . (p144) (p135) . . THU Daisuke THU . CK-P.4 . Akamatsu, CL-3.3 ...... (p80) Javier. . . . . TUE . Aizpurua, . ED-P.2 Stewart . . . J. . . . . (p118) . . Aitchison, (p97) . . THU . . WED . Carole CF-7.2 . . . EI-3.2 . Aimé, ...... Takuma . . . . . Aihara, . . . . . Shahwar . . Ahmed, . . Faisal Ahmed, M62TU(p132), THU CM-6.2 ∙ (p40), MON CJ-1.6 (p118) THU CA-9.3 (p173) FRI CM-P.4 (p127), THU EF-7.3 (p98), WED CM-3.4 (p96), (p98) WED WED CB-5.2 CB-5.4 (p82), WED CA-5.1 ∙ (p122) THU CC-5.5 (p102), WED CC-P.16 (p167) FRI CI-5.4 ∙ ∙ ∙ F74TU(p120) THU CF-7.4 (p111) THU EG-5.1 G45TE(7) E23TU(p113) THU EE-2.3 (p74), TUE CG-4.5 D25MN(p47), MON CD-2.5 (p167) FRI CI-5.4 DP2 U (p79) TUE CD-P.29 (p53) MON EB-P.1 ş zn C-. R (p159) FRI .CJ-8.5 ...... Ozan. , > . < ae ntesession the in paper ç tÖzg et ü A24MN(p38) MON CA-2.4 . . . r ∙ J83FI(p157) FRI CJ-8.3 ∙ ∙ ∙ J36WD(p101), WED EJ-3.6 J25TE(p74) TUE CJ-2.5 MP6FI(p173) FRI CM-P.6 ∙ ∙ D62WD(p83), WED CD-6.2 E83TU(p113) THU CE-8.3 ∙ I53FI(p167), FRI CI-5.3 < > day > (p < page > .Peetn uhr r akdby marked are authors Presenting ). mthia ain . . . . Tatiana Amotchkina, (p31), MON EC-1.3 ...... Alberto . . Amo, . (p67), Nicolas TUE Amiune, (p96) CH-4.4 WED . . (p167) . CH-7.2 V. FRI . . Lyubov. . CF-10.3 . . . . Amitonova, . . . Lyubov . . . Amitonova, G. Caroline Amiot, (p148) FRI CG-6.3 . . . . (p34) (p108) . Rodrigo . MON WED . . CK-2.1 . Amezcua-Correa, .JSI-P.2 ...... Stefano ...... Amberg, . . . (p33), . Mohamed. . MON . Amara, . EB-1.3 . . . . Farah . . Amar, . . . . (p144), . THU I. CK-P.5 Maria . (p145) . Amanti, . THU . CL-P.4 ...... (p110) . Miguel . THU . Alvarez, (p38), JSI-3.2 MON . Ezequiel . CD-1.3 Jose Álvarez, . . Juan . . . . Alvarado-Gil, (p155), . . FRI . . EH-5.2 ...... Andrea . (p128) . Alú, . THU . . . CH-9.5 (p83) . . . . WED . . . EC-4.2 . Hatice . . . Altug, . . . . (p145), . Yoann . THU . . Altmann, CL-P.7 . . Alexander . . (p85) . Altland, . WED . . CI-2.2 . (p50) . . . . MON . . . Hakan .CB-P.12 . . . . Altan, . Antonio . . . . (p170) Jose . . . . FRI . . Altabas, . CH-P.13 . . Saleh...... (p162) . . Alshebeili, . (p106) FRI . . . Rim WED EH-6.5 . . EC-P.7 . . Alrifai, ...... Jessica ...... Alpino, . . Filippo (p32), . . MON . Alpeggiani, . CB-1.5 . Behcet . . Alpat, ...... Mehdi (p34), MON Alouini, CK-2.1 . . . Carlos Alonso-Ramos, C. del (p99), WED Monserrat EB-7.5 . Alonso-Murias, . . . . Irati Calafell, Alonso (p103), WED CF-P.6 ...... (p135), Benjamín THU (p122) Alonso, (p75) CL-3.3 THU . TUE . CB-7.3 . . . CE-4.4 ...... Maged ...... Alnawaiseh, ...... Blandine . . . . . Alloing, . . . . . Mathieu . . . Allix, Adrian Alles, nesn li BP1 O (p54), MON EB-P.14 . . . . (p118) . . THU . . (p104) . CI-3.3 (p135) Ulrik WED . THU . CF-P.18 M. Andersen, . CB-9.4 . . Prince ...... Anandarajah, . . . Prince . . . Anandarajah, . . . Toshu An, (p58), TUE CC-2.2 (p46) . . MON . . ED-2.5 ...... Jonas ...... Allerbeck, . . . . . Richard . . Allen, . . E. (p128), Allaria, THU CF-8.5 . . Skirmantas Alisauskas, K96FI(p164) FRI CK-9.6 (p85), (p106), WED WED EC-4.3 EC-P.5 (p66), TUE EC-2.4 (p165) FRI CH-12.6 (p148), (p161) FRI FRI CJ-7.3 CG-7.3 (p143), THU CJ-P.12 (p101) WED EB-7.6 (p174) FRI CM-P.10 (p61) TUE (p165) EH-2.3 FRI JSIV-5.1 (p162), FRI EH-6.4 (p168) FRI CH-P.2 (p116) THU CI-3.1 (p85) WED CD-6.3 ∙ (p134) THU CD-9.4 (p119), THU EA-5.2 (p141) THU EE-P.11 ∙ (p135) THU CL-3.4 B41TE(p63) TUE EB-4.1 (p156) FRI CF-9.5 (p98), WED CF-6.4 (p157) FRI EE-5.5 (p157), FRI EE-5.4 JP1 H (p143) THU CJ-P.12 (p126), THU CF-8.3 (p124), THU CF-8.1 uhr'Index Authors' 175 ∙ E44TU(p137) THU EE-4.4 ∙ K86FI(p159), FRI CK-8.6 ∙ ∙ ∙ ∙ A94TU(p120) THU CA-9.4 DP1 U (p78) TUE CD-P.10 E62WD(p91), WED CE-6.2 G23MN(p39) MON CG-2.3 ∙ IP8MN(p52) MON CI-P.8 ∙ . nio,Oe ...... (p53), . Oleg . MON . EB-P.2 . Antipov, . . . (p139) Matthieu . . THU . Ansquer, . CG-P.2 ...... (p164) . . . FRI . Vahid . . . . CD-11.5 Ansari, . . N. . . . . Irfana ...... Ansari, . . Irfana . . . Ansari, . . Irfan (p157) FRI Ansari, CK-8.4 ...... Shambhavee ...... Annurakshita, . (p108) . . . WED . Arslan . JSI-P.3 . . Anjum, . . . (p119) . . Ali THU . . Angulo, EC-5.3 C. . (p123) . Paula . THU G. Angelomé, (p85) CK-5.3 (p102) . WED Dimitris WED . Seng CI-2.3 CC-P.7 Angelakis, . . Soo . . . . Norman . . . . Ang, . . . . Vladimir . . . Anfertev, Luiz Neto, Anet . Deividas Andriukaitis, rigr elf...... C-.0TU(p145) THU CK-P.20 . . . . . Lo . . Arias, . . . . Detlef . . . Arhilger, . . . Apostolos. (p103) . WED Argyris, Diego CF-P.13 . Ron, . (p147) . . FRI Arguello . Bérangère .EG-7.1 . (p170) . Argence, . FRI (p124) . CH-P.7 . THU . . . . . Arensk . CH-9.2 ...... Germaine. . . . . Arend, . . . . Benedetto (p103) . . WED Ardini, . CF-P.5 . Ibrahim . . . . Ardi, ...... Kazem (p91) . . WED . Ardaneh, . EA-3.3 . . Ko . . . . Arai, . . Amirali ...... Arabmoheghi, . . . . (p157) Thibault. . . FRI . Apretna, . EH-5.5 . Félicien . (p102) . Appas, WED Vasilis (p54), .CC-P.7 MON . Apostolopoulos, EB-P.11 . Apostolos . . . . Apostolakis, ...... (p146) Takao . FRI . Aoki, . . JSI-4.1 ...... Roozbeh . . . Anvari, . Roman Anufriev, (p148) FRI Enrique Jose .CJ-7.3 Antonio-Lopez, Enrique (p143) J. THU CJ-P.12 . Antonio-Lopez, (p66), Enrique TUE Antonio-Lopez, EI-2.5 . . . . . Carlos Anton-Solanas, (p135) THU EA-6.3 . . Dovil . . Andrijec, S. Evgeny Andrianov, (p122), THU CC-5.4 . . . (p163) . . FRI M. CH-12.5 Aaron . (p63), . TUE Andrews, Vicente CH-4.1 Miguel (p122) . . THU Andrés, . . CD-7.5 ...... V. . (p50) . . MON Miguel . . CB-P.13 Andrés, . . (p98) . . . WED Miguel (p30) . . MON . CB-5.3 Andrés, . . CF-1.3 . Stefanos (p31) . . . . MON . . Andreou, . . EB-1.2 Alexander . . . . . Andrejew, R.C. . . José . . . . Andrade, . . (p168) . Erika . FRI . CH-P.4 Andersson, H.. . . . Miles . (p95), . Anderson, WED Lund EA-3.6 Ulrik . . Andersen, . . . . . L. Ulrik Andersen, B72WD(p97) WED EB-7.2 ∙ (p174) FRI CM-P.15 ∙ (p108) WED JSI-P.5 (p99) WED EI-3.5 (p161) FRI CG-7.3 ∙ ∙ (p170) FRI CH-P.22 (p157), (p161), FRI FRI CC-7.5 CC-8.2 (p152), FRI CC-6.5 (p83) WED CD-6.1 (p121) THU EB-8.3 HP4WD(p107) WED EH-P.4 G63TU(16,C-. R (p173) FRI CM-P.3 (p126), THU EG-6.3 (p147) FRI EI-4.1 (p49) MON CA-P.17 ö tr a B61WD(p89) WED EB-6.1 ...... Jan tter, ï D92TU(p132) THU CD-9.2 ...... c MP1 R (p174) FRI CM-P.15 ...... e ˙ ∙ ∙ ∙ ∙ GP1 H (p140) THU CG-P.16 ∙ ∙ FP1 E (p103) WED CF-P.13 (p134), THU CM-6.5 E1. H (p124) THU CE-10.1 ∙ ∙ ∙ BP2 O (p51) MON CB-P.20 M32WD(p96), WED CM-3.2 ∙ ∙ SV32FI(p155) FRI JSIV-3.2 AP9MN(p48), MON CA-P.9 ∙ F63TU(p119) THU EF-6.3 C43WD(p84) WED CC-4.3 B13MN(p33) MON EB-1.3 JP5MN(p55), MON EJ-P.5 xe,Oe...... E-. U (p62) TUE ED-3.1 ...... (p113) . . THU . . EE-2.3 (p53) . . . . MON . . (p126) . Ove EB-P.4 . . THU . . Axner, . . Hercules .CE-10.4 . . . (p54) . . Avramopoulos, . . MON . . (p74) . . EB-P.25 . Timur . TUE . . . Avni, . . CG-4.5 . . . Marco . . . Aversa, . S. . . . Nikita . . Averkiev, . Vitali (p44), Averbukh, MON JSII-2.3 . . (p63) . . TUE . . CH-4.1 Sh. . . Ilya . . . Averbukh, Miquel . . Avellà-Oliver, ...... Dominik Auth, . . . (p46) . MON . . . CC-1.4 . . . (p93) . . . . WED . . . . . EB-6.4 . Pankaj ...... Arora, ...... Laurent . . . . . Arnoldi, . L. . . Cord . . . . . Arnold, . . Jens . (p80), . . Arnbak, TUE . (p163) .CD-P.42 Andrea . FRI . Armani, . JSIV-4.4 ...... Rémi. . . . Armand, (p72), . . TUE Paul CD-5.4 Armand, . (p140) . . THU . . CG-P.8 . (p173), . . . FRI . Rostislav . CM-P.1 . . . Arkhipov, . . . . Mikhail . . Arkhipov, ...... Rocío Ariza, uut,Ja-oi DP1 U (p79) (p148) TUE FRI CD-P.15 . . CG-6.3 J . . . . . (p34) . Aus-der-Au, . . MON . . . . Jean-Louis . . CK-2.1 . . . Auguste, ...... Lennart ...... Aufleger, . . . . (p55), . Michael MON . (p41) . Auer, EJ-P.1 . MON . . . . CM-1.5 Guy . . . Aubin, ...... (p37) . . MON ...... EH-1.2 . . . . Simone (p157) . . . FRI . Atzeni, . . . . JSIV-3.5 . . Nina . . . . Attik, . . . (p74) . . . TUE Taran ...... Attavar, EA-2.2 . . Anil . . . . Ipek . . . . Atalay, . . . . . Ataberk . . (p79), Atalar, . . TUE Osman (p99) CD-P.19 . WED Atabek, . . EI-3.4 . . . . . (p173) . . . . FRI . . Ignas JSIV-P.1 . . . . (p103) . Astrauskas, . . . WED Inge . CF-P.5 . (p94) . . . . Asselberghs, WED . Hasan . CM-2.6 . Syed . . . . Asim, . . . (p91) . Satoshi . . WED . . . Ashihara, . EB-6.2 Rana . . . Sabet, . . (p104) . . . . Asgari WED . . . CE-P.7 . Mahdi . . . . Asgari, ...... Beate ...... Asenbeck, . . . . Vladimir . . (p119), Aseev, . . THU Eric EB-8.2 . Asché, ...... (p52) . . . . MON . Warit (p162) . EA-P.10 . FRI . . Asavanant, . . EH-6.4 . . . . Rui . . . . Asaoka, . . . . Francesco . (p106) Arzani, WED R. (p144) EC-P.18 Eduardo . . THU . . . Arvelo, . . . . ViacheslavCK-P.10 ...... Artyushenko, ...... David . . . . . Artigas, . . . . Pablo. . . . Artal, . Seval Arslan, (p58) TUE (p87) .CL-2.3 Assad WED . . . Muhammad EC-4.6 (p74) . . TUE Arshad, . Paloma . CG-4.5 . Huidobro, . . . . . Arroyo . . (p106) . . WED Jaime. . . EC-P.12 . Arroyo, . . . Christopher (p87), . WED Arrel, EC-4.5 Guillermo . . . Arregui, ...... Sonakshi Arora, AP1MN(5) E33TU(p129), (p141) THU THU EE-3.3 EE-P.2 (p52), MON EA-P.1 (p129) THU CB-8.6 (p132) THU CD-9.3 ∙ (p174) FRI CM-P.10 K33TE(p58) TUE CK-3.3 (p102) WED CC-P.5 (p152) FRI EA-7.6 ∙ (p106), WED EC-P.7 GP8TU(p140) THU CG-P.8 J1. R (p168) FRI CJ-10.5 ü g...... C-. E (p84) WED CF-4.4 ...... rg ∙ ∙ CP1 E (p106) WED EC-P.10 ∙ CP2 E (p107) WED EC-P.20 ∙ ∙ ∙ ∙ B83TU(p127), THU CB-8.3 CP2WD(p102) WED CC-P.2 BP1 O (p54) MON EB-P.11 D1. R (p164) FRI CD-12.1 ∙ LP7TU(p145) THU CL-P.7 ∙ ∙ ∙ ∙ BP3MN(p53) MON EB-P.3 G71FI(p159) FRI CG-7.1 HP5FI(p168) FRI CH-P.5 B24TE(p67) TUE CB-2.4 L24TE(p60) TUE CL-2.4
Authors' Index Authors' Index ao iulM C73FI(p155) FRI CC-7.3 ...... G . . . Bakan, M. Miguel Bajo, aedt eata . . Sivacarendran . . . Balendhran, Sebastian Balendat, (p94) WED EG-3.6 (p161) . . FRI Fran . . . . CC-8.3 . . Balembois, . . . . Leonetta ...... Baldassarre, . . . . . Tadas ...... Balciunas, . . . . . Osman . . . Balci, . Ojars (p129) THU Balcers, JSIV-1.5 . . . . Krishna . . . . Balasubramanian, . . (p48), (p47) Igor MON MON CA-P.9 Balashov, . JSIII-2.4 ...... Stanislav . . . Balabanov, . Artem Bakulin, . (p97) . (p67) . WED . TUE . . EI-3.2 . . EH-3.3 ...... Giuseppe . . . . Baio, . . . . Christopher . . . Bailey, . . Xueyin (p62) Bai, (p83) TUE WED CA-3.1 . . EC-4.2 . . . Micha ...... Bahriz, . (p46) . . MON . Seung-Whan . . . Bahk, .JSII-2.4 . . Dmitry . . . Bagrets, Salvatore. Bagiante, ahaayn irn.. . Tigran (p102), (p51) WED (p90) MON Baghdasaryan, WED CC-P.11 . CB-P.18 CH-6.2 ...... (p44) . . Mariangela . . MON . . . . Baggio, . . JSII-2.2 . . . (p139) . . Timur . . THU . . Bagaev, . . . . PD-2.6 . . Roel . . . . . Baets, . . Hyung . . (p88) . In . . WED . . Baek, . . CF-5.1 . . . Hyeonjun (p88) . . . . WED Baek, . . . CF-5.1 . Moritz ...... (p29) Badtke, . . . MON . Valeriy . (p157) JSI-1.1 . . . Badikov, FRI . . . CC-7.5 . Dmitrii . . . . Badikov, . . . . Jonathan . . . Backman, Nicolas Bachelard, auhi,Ia SI14MN(p33) . MON . . JSII-1.4 ...... Ihar . (p33), . . MON Babushkin, . . EB-1.3 Igar (p141) . . THU . Babushkin, . EF-P.3 ...... (p136), . . . THU Florent . . . CJ-6.6 Baboux, A. . . . Sergey . . Babin, . . . . . (p50), . . MON Sergey CB-P.8 . Babin, . . . . . (p144), . . THU CK-P.3 Andrey (p142) . . THU Babichev, . . EF-P.16 ...... Ceren . . . . Babayigit, . . . . . Leonid . . . Babak, . Toshihiko (p173) Baba, FRI .CM-P.7 . . (p91) . WED . B . . EF-3.2 ...... Fae . . . Azhari, . . Pierre Azam, yu,Aa...... C14MN(p46) MON . . . .CC-1.4 . (p112) . . . . THU . . . . . JSI-3.3 ...... David . . . . Ayuso, . . . . . Anas. . . Ayoub, . . . Koray Aydin, yce ia...... C-.8FI(p170) . FRI . . CH-P.18 ...... Arman . . Ayan, . . Diba Ayache, ∙ ∙ (p79) TUE CD-P.30 (p137) THU EA-6.5 (p77) TUE CE-4.5 (p49), MON CA-P.17 (p170) FRI CH-P.18 ∙ (p151), FRI EF-8.5 (p134), ∙ (p140), THU THU CD-9.5 CG-P.8 (p129), THU EE-3.2 (p72), TUE CD-5.4 ∙ (p174) FRI CM-P.19 (p143), THU CJ-P.8 (p92) WED CB-4.5 (p144) THU CK-P.16 (p41) MON JSIII-1.5 F86FI(p153) FRI EF-8.6 E1. H (p128) THU CE-10.6 CP1 E (p102) WED CC-P.16 (p153) FRI EE-5.1 (p153), FRI EG-7.6 B76WD(p101) WED EB-7.6 ö hn...... C-04FI(p166) FRI CK-10.4 ...... khan ë B55WD(p100), WED CB-5.5 ...... l ç i A43TE(p72), TUE CA-4.3 ...... ois ∙ CP4WD(p102), WED CC-P.4 ∙ ∙ ∙ SI-. O (p39), MON JSIII-1.4 ∙ ∙ AP1 O (p52), MON EA-P.11 M64TU(p134) THU CM-6.4 ∙ ∙ ∙ ∙ D76TU(p122) THU CD-7.6 K51TU(p117) THU CK-5.1 DP3 U (p80) TUE CD-P.33 LP6TU(p145) THU CL-P.6 A42WD(p97), WED EA-4.2 ∙ A14MN(p32) MON CA-1.4 G46TE(p76) TUE CG-4.6 ans ila G22WD(p83) WED EG-2.2 . . . . (p113) . . THU . . . .EE-2.3 . . . . William . . (p35), Barnes, . MON Jonathan. (p83) EF-1.1 . WED (p92) Barnard, . . WED EC-4.2 . . . CF-5.4 ...... (p53) . . Stephane . MON . . . . EA-P.14 Barland, . . . . Sonja ...... Barkhofen, . . . (p74) . Jacob . TUE . Barker, . CG-4.5 . Julien . . . Barjon, . . . . . Barı . Thomas Barillot, ah jna...... Ajanta Barh, aea etrJ...... (p132) . . THU . . CD-9.2 . . . Jr. . . Nestor (p144) . (p79) . THU . TUE Bareza, CK-P.14 .CD-P.24 Guillaume ...... Barette, . . (p87), . Yves-Vincent. WED . . . Bardin, EC-4.5 . . . . Antoine (p62) . . Bard, TUE . . EI-2.1 ...... René . . . Barczyk, David Ruiz, Barcons Manoel (p158) João FRI Pereira, HiltonCD-10.6 . Barbosa . . Aguiar, . de . . . Barbosa J. Matthew Barber, aby yvi ...... (p134) . THU Sylvain . (p94) . CM-6.5 Barbay, WED . . George . CB-5.1 . (p50) . . . MON . Barbastathis, . . . CB-P.8 . Tomas ...... Baravykas, N. (p135) . . THU . Alexei . (p66) (p115) . EA-6.3 Baranov, . TUE THU . . . EC-2.4 . Alexei EG-5.4 . . . . Baranov, . . V. . . . . Anton . . . . . Baranikov, H. . . . Joshua . . Baraban, . . Teo (p46) Baptiste, MON (p145) ED-2.5 Carmen THU . . del (p139) . .CL-P.3 . . María THU . . . . PD-2.5 . . Bao-Varela, . . . . Carmen...... Bao-Varela, . . (p57), . . . TUE Yiliang . . CI-1.2 Bao, . . . (p128) . . Jueming THU . . Bao, . (p111) CE-10.6 . . THU . . . . . EG-5.1 ...... Changjing . . . . Bao, . . . . . Vipul . (p113), . . Bansal, THU . Karla EH-4.3 . . Banjac, ...... Balázs Bánhegyi, (p68), TUE CD-5.1 ...... (p139) . . THU Ole . .CG-P.5 . Bang, ...... (p175) . . . FRI . . . CM-P.32 . Francesco . . . . . Banfi, . . . . . Loren. . . Ban, . Tigran Baluyan, Baltu (p78), Coimbatore TUE (p111) CD-P.6 THU Krishna . . CE-8.1 Balram, ...... (p53) . . C. MON . . EB-P.3 (p147) Krishna . . . . FRI . . Balram, . . . . EG-7.2 (p50) . John . . . MON . . Ballato, . . CB-P.11 . . . . Adomas ...... Baliuka, . . . Sébastien . . . Balibar, . Laurent Balet, ∙ (p98) WED CB-5.4 ∙ ∙ ∙ (p142), (p142) THU THU EF-P.5 EF-P.14 (p58), TUE CK-3.2 LP4TU(p145) THU CL-P.4 (p143) THU CJ-P.6 (p172), FRI EG-P.4 (p148), (p170) FRI FRI CJ-7.3 CH-P.11 (p142), (p142), THU THU EF-P.11 EF-P.13 (p130), THU CJ-6.1 ∙ (p148) FRI JSI-4.3 (p148) FRI CG-6.4 (p114), (p132), THU THU CG-5.5 CD-9.2 (p92), (p102), WED WED CF-5.4 CC-P.5 (p79), (p84), TUE WED CD-P.19 CC-4.4 (p60), TUE CC-2.4 (p38) MON CK-2.4 (p85) WED EG-2.4 F32WD(p91), WED EF-3.2 (p96), WED CB-5.2 (p82), WED CA-5.1 CP7WD(16,E-.0WD(p106) WED EC-P.10 (p106), WED EC-P.7 (p132) THU CJ-6.3 H51TE(6) E83TU(p113), THU CE-8.3 (p69), TUE CH-5.1 ş me...... C-. H (p145) THU CL-P.7 ...... Emre , š a nru G15MN(p32), MON CG-1.5 ...... Andrius ka, ∙ MP2 R (p175) FRI CM-P.25 ∙ ∙ SV42FI(p161) FRI JSIV-4.2 SV21TU(p131) THU JSIV-2.1 ∙ ∙ ∙ ∙ H82TU(p112) THU CH-8.2 ∙ E21MN(p34), MON CE-2.1 S-. O (p33), MON JSI-1.4 F15MN(p41), MON EF-1.5 JP3TU(p142) THU CJ-P.3 arl ai . (p91) . . WED . . (p32) EF-3.3 . . . MON . . . . CE-1.3 ...... David . . . . . Barral, . . . . Fabio . . . Baronio, Mauro Barni, atl,A ...... (p47), . MON . . . .EB-2.5 . (p64) . . . A. TUE . . . Bartolo, EI-2.3 ...... (p163) (p118) . J.. . FRI THU . Tim . JSIV-4.4 . CI-3.3 . . Bartley, . . . . . Katja ...... Barthelmi, ...... Alain ...... Barthelemy, . . P. . . Liam . . Barry, . . Miguel Barrio, ae,Sehne...... (p91), . . WED . CA-6.2 . Stephanie . . Bauer, (p64), . . TUE . . . .EC-2.2 . . . (p99) . . Dominik WED . . Bauer, . CA-7.4 ...... (p103) . Dieter. WED . . Bauer, CF-P.12 ...... Carolin . . . . . Bauer, . (p116) . (p145) Matthias . THU THU . . CF-7.1 Baudisch, CL-P.1 ...... Kilian . . . . Baudin, . . . . Emmanuel . . (p140), . Baubeau, . THU . CG-P.20 Daniil . . Batov, ...... Baheej . . . Bathish, . . . . . (p138) . . . . THU . . Liza PD-1.3 . . . . Basyrova, . (p93), . H.M.J. . WED . . CE-6.4 . Bastiaens, (p59) . . Florent TUE . . CD-3.4 . Bassignot, ...... Andrea . . Bassi, (p112) (p125) Michael THU THU Basler, CB-6.2 CJ-5.1 . . . . . (p51) . . Ba . MON . Marina . CB-P.14 (p50) . . . . MON . . Baryshnikova, . . CB-P.4 . . Benoit ...... Barviau, . . . . . Adrien . . Bartolo, . . Adrián Bartolo, ae,Tba ...... Tobias . . Bauer, ...... Thomas Bauer, ek ata D15MN(p33), MON ED-1.5 ...... (p65), . . TUE . EB-4.2 Mattias . . Beck, . (p70), . . TUE . . . CJ-2.2 . . . Christoph . . . Becher, ...... Rezki Becheker, (p37) (p41), MON MON EF-1.2 . .EF-1.5 ...... (p74) . . . . TUE . . Grégoire. . (p128) .CG-4.5 . . . THU Beaudoin, . . . . . CH-9.6 G...... Beaudoin, . . (p114), Michael. . . THU . Bearpark, M. CG-5.4 . Andrew . . . Beale, ...... (p143) (p107) Elsa THU WED CJ-P.15 Baynard, EH-P.4 . Antonio . (p151) . . FRI (p158) . Baylón-Fuentes, FRI CM-7.5 . Godofredo . (p35) . .EH-6.1 MON . Bautista, . . . Werner . CM-1.1 . . . . Baumgartner, J.. . . . Jeremy . . (p45), Baumberg, MON Robert EI-1.3 . Baumann, . . . . . (p171) . FRI . Michael .CH-P.26 . Baumann, Marie-Luise. Bauerfeld, A54TU(11,C-. H (p144) THU CK-P.1 (p121), THU EA-5.4 ∙ A63WD(p93) WED CA-6.3 (p129) THU EF-7.5 (p168) FRI CK-10.6 (p144), THU CK-P.9 ∙ (p170) FRI CH-P.7 CP7WD(16,E-.0WD(p106) WED EC-P.10 (p106), WED EC-P.7 (p67) TUE EB-4.4 B84TU(17,C-. R (p155), FRI CC-7.2 (p125), (p127), THU THU CB-8.2 CB-8.4 (p102), (p125), WED THU CC-P.3 CB-8.1 (p94), (p88), WED WED CB-4.6 EG-3.1 (p90), (p92), WED WED CB-4.2 CB-4.4 (p76), (p81), TUE TUE ED-4.5 ED-P.3 (p42), MON ED-2.1 (p89) WED EB-6.1 (p71), TUE EB-5.2 ∙ (p157) (p51), FRI MON CB-P.14 CK-8.5 (p50), MON CB-P.4 (p122) THU CF-7.6 (p149) FRI EG-7.3 ş K82FI(p155) FRI CK-8.2 A55WD(p86), WED CA-5.5 J51TU(p125), THU CJ-5.1 rn he J85FI(p159) FRI CJ-8.5 ...... Ahmet aran, uhr'Index Authors' 176 ∙ ∙ EP5WD(p104) WED CE-P.5 ∙ FP4TU(p141) THU EF-P.4 BP1 O (p54), MON EB-P.13 ∙ ∙ ∙ ∙ ∙ C45WD(p87), WED EC-4.5 ∙ ∙ ∙ B35WD(p86) WED CB-3.5 F12MN(p37) MON EF-1.2 B61WD(p89) WED EB-6.1 E45TE(p77), TUE CE-4.5 F45WD(p99) WED EF-4.5 B34TE(p60), TUE EB-3.4 I22WD(p85) WED CI-2.2 eai,Fth...... C-. E (p104) WED CE-P.2 . (p70) . . . . TUE . Salim . CG-4.3 . . Ivars, ...... Benadouda . . . Fetah . (p47), . . MON Benabid, . Nadia EF-2.5 . Amor, (p77) . . Ben TUE . . . CE-4.5 ...... (p66) . Alexey . TUE . . CA-3.4 Belyanin, ...... Alexander . . . . . (p57), Belyaev, . . TUE Ramatou . . CF-2.1 . Bello-Doua, . . . . . Leon . . . Bello, . . . (p144), . THU . . CK-P.14 . . Federico . (p38) . Belli, . MON . (p38) . . CJ-1.5 MON ...... CJ-1.5 . Joel ...... Bellessa, . . . Séverine (p50), . . MON . Bellanger, . CB-P.9 (p38) . Cindy . MON . . Bellanger, . CD-1.3 . . . . A. . . Mikhail . . . . Belkin, . (p63), (p168) Mikhail TUE FRI CE-3.1 Belkin, CH-P.1 ...... (p60), . . Alessandro TUE . . EB-3.4 . Belardini, . . . . . Walter . . Belardi, . (p174), . . FRI . . CM-P.16 . . . . . Nadia . . . Belabas, ...... Alpan (p47), Bek, MON EF-2.5 ...... (p130) . . (p28) . THU . MON Maximilian . EC-6.1 . CF-1.2 . Beiser, . (p62) . . . . . TUE . . Frieder . . CA-3.1 . . Beirow, . . . . Johannes ...... Beierlein, . . Luise . . (p127), . Beichert, . THU (p132) Ildar THU EF-7.3 . . Begishev, CJ-6.2 (p87) . . . . WED ...... CD-6.5 . . . . Jeroen ...... Beeckman, . . . Martin . . . Becker, . David Becker, elf,Ntla...... JI-. R (p173) FRI JSIV-P.5 . . . . (p167) . . FRI . (p108) . . WED CF-10.2 . . EI-P.3 . . . Natalia . . . C. . Berloff, . (p134) . (p37) Timothy . THU MON . . Berkelbach, CM-6.4 CG-2.2 . . . . Boris . . (p31), . . Bergues, . . MON . . Francis JSII-1.2 . . . . Berghmans, ...... Emma . . Berger, ...... Luc (p47), Bergé, MON CH-2.4 . (p85), Kirstine . WED . . J. Berg-Sørensen, EC-4.4 . Mohammad . . . Bereyhi, . (p86) . . WED ...... CB-3.5 . . . . . Dario (p53) . . . . MON . . Bercioux, (p152) . . EA-P.12 . FRI . . Erwin . . . . .CL-4.1 . Bente, ...... E.A.J.M. . . . . Bente, . . . (p168) . Oliver . FRI . . Benson, . CK-10.5 . Niels. . . . Benson, Adrien (p144), (p61) THU TUE Bensemhoun, (p163) CK-P.14 FRI CF-2.4 . . . . CG-7.4 ...... Jean-Michel ...... Benoit, (p138) . . . THU . Wiebke . . PD-1.9 . Bennecke, . . . Zsolt . . . Bengery, . Rodrigo . . . . Benevides, Daniel Benedikovic, (p58), TUE Ileana-Cristina .EA-1.4 . Benea-Chelmus, . . . (p69) . TUE . . EC-3.1 . Kamel. . (p36) . A. Bencheikh, MON Wladimir CE-2.2 . . Benalcazar, . Bhavana Benakaprasad, C81FI(p159) FRI CC-8.1 (p59) TUE CF-2.3 (p172) FRI EG-P.12 (p90) WED CB-4.3 (p107) WED EH-P.3 (p155) FRI CK-8.2 (p174) FRI CM-P.18 (p170) FRI CH-P.22 (p161), (p169), FRI FRI CC-8.2 CI-5.6 (p152), FRI CC-6.5 (p164) FRI CD-11.5 (p163) FRI CC-8.5 (p159), (p159), FRI FRI CC-7.6 CC-8.1 (p157), FRI CC-7.4 E51FI(p153) FRI EE-5.1 (p121) THU EB-8.3 (p54), MON EB-P.14 (p87) WED EC-4.6 (p172) FRI EG-P.12 (p101) WED EA-4.5 (p60), TUE CC-2.3 (p155) FRI CK-8.2 (p60), TUE EB-3.4 ∙ ∙ BP1 O (p50) MON CB-P.13 ∙ BP1 O (p54) MON EB-P.19 ∙ ∙ ∙ K21MN(p34) MON CK-2.1 A72WD(p97) WED CA-7.2 A33WD(p91) WED EA-3.3 F22MN(p43) MON EF-2.2 iu,Pu J96FI(p164) FRI CJ-9.6 . . . (p111) . . THU . . EE-2.2 ...... (p28) . . . . MON . Paul . . CF-1.2 . Binun, . . . . . Iona . . . Binnie, . (p28), Yuliya MON Binhammer, CF-1.1 . . . . (p113), THU Thomas CK-4.3 . Binhammer, . . (p60), . . TUE . . EE-1.4 Maximilien . . . Billet, . . . . (p132) . . THU (p90) . . WED . CH-10.3 . . CJ-4.2 ...... Cyril . . . . Billet, . . . Vincent (p51), . . MON . Billault, . CB-P.16 . . Franck . . . Billard, ...... Igor . . . Bilenko, . . . . Giulia. . . Biffi, . (p134) Tobias . THU . . Biesenthal, . .CD-9.4 ...... (p88), . . WED . Florian . . .CF-5.1 Bienert, . . . . Hlib . . Bieliaiev, . . (p135) . THU . . . CL-3.4 . (p134) . . THU . Jens. . . EC-6.3 Biegert, . (p165) . . . . FRI . . . . CC-8.6 . . Biega ...... Marion . . . . . Bied, . . . . Stefano . (p133), . Biasi, THU (p41) (p123) Simone CL-3.2 . MON THU . Biasco, . EH-1.5 EF-6.6 ...... (p38) . . Paolo . . MON . . . (p82) . . CK-2.3 Bianchini, . . . WED . (p39) . . Paolo . . MON CB-3.2 . . . . . Biagioni, . . CG-2.3 ...... Toby ...... Bi, . . A. . . . . Sunil . . . . . Bhave, ...... Sunil . . . . (p103) . Bhave, . . . WED . . M. . .CF-P.12 . . Beye, . . Pinar . . (p98) (p76) . WED . TUE Beyazkilic, . ED-4.5 .CH-7.4 Marcus...... Beutler, . (p75) . . TUE Jean-Charles. . . CH-5.4 . Beugnot, . . (p175) . Mathieu . FRI . Betrand, O. CM-P.32 . . Vladimir . . . Bessonov, . (p157) Vladimir FRI Bessonov, JSIV-3.4 (p50) . . MON . . CB-P.9 . . . . . B . . . . . Bessire, . . . . (p31), . Florent . MON . . Bessin, JSI-1.2 . . Mina . . . Beshara, . . . . . (p42), . . MON Marc ED-2.1 . Bescond, . . . . (p82), . . WED Mathieu CE-5.1 . Bertrand, . . . . (p157), . . FRI andrea EH-5.4 . (p142) . bertoncini, . THU . . .CJ-P.2 ...... (p99), . Jacopo . WED . . EF-4.5 . Bertolotti, . . . Andréa. . (p70) . . TUE Bertoldi, . . CJ-2.2 . . . . (p124) . . . . THU . (p164) . . Nicolas EG-6.1 FRI . . . Berti, . . CK-10.1 . . . Thibaud . (p145) . . THU Berthelot, . Berte . CL-P.1 . Rodrigo ...... Berte, . . . . Rodrigo . . Berté, . Aurélien Bertail, eru non AP1 O (p49) MON CA-P.14 . . (p54) . . MON . . EB-P.13 . . . Ber . . . . Antoine . . (p74) . Berrou, . TUE . Manfred . CG-4.5 . . Berroth, . . (p98) . . . . WED . . . . . EG-4.4 ...... Jérémy . . . . (p145) Berroir, . . . . THU . Nora . CL-P.1 . . . Berrah, . . . . Simon . . . Bernet, . Aurélien Bernard, F12MN(2) F74TU(p120) THU CF-7.4 (p28), MON CF-1.2 ∙ (p169), (p173) FRI FRI CF-10.4 CM-P.3 (p88), WED CJ-4.1 (p171) FRI CH-P.25 (p74), TUE ED-4.4 (p91) WED CA-6.2 (p159) FRI EE-5.6 (p103), WED CF-P.4 (p166) FRI CH-13.2 (p53) MON EB-P.9 ∙ (p160) ∙ FRI CL-5.3 (p134), THU CK-6.5 (p160) FRI CK-9.3 (p141) THU EF-P.1 ∙ A14TE(p58) TUE EA-1.4 K85FI(p157) FRI CK-8.5 (p112) THU JSI-3.4 (p127) THU CB-8.4 (p94), WED CB-4.6 (p172) FRI EG-P.10 š y,Jsa ...... Justas kys, ń k,D¸rwa.....E-. O (p33) MON EC-1.4 . . . . . Da¸brówka ska, ä z...... E-. O (p53), MON EB-P.8 ...... nz ∙ KP1 H (p145), THU CK-P.17 ∙ ∙ ∙ CP1WD(p106) WED EC-P.1 ∙ F44WD(p84), WED CF-4.4 IP3WD(p108) WED EI-P.3 ∙ A12TE(p56), TUE EA-1.2 L25TE(p60) TUE CL-2.5 oi nszaa B21TE(p63), TUE CB-2.1 ...... (p128) Anisuzzaman THU (p47), Boni, MON EG-6.6 . . CD-2.6 . . . . Domenico (p43), . . MON . (p86) . Bongiovanni, WED . CD-2.1 Luigi . CB-3.5 . . . . . Bonacina, . . . . (p41) . . . . MON . . . . . EH-1.5 . . Klaus-J...... Boller, ...... K.-J. . . . . Boller, . . . Monica . . . Bollani, . . Alexandre Boju, Boje¸ ote,Fbe B13MN(p33) MON . . EB-1.3 ...... (p83) . . . . WED . Simon . EG-2.1 . . . . Boivinet, . . . . . Fabien . . . Boitier, . . . . . Sebastien . . . . Boissier, . . . . Damien . . (p94) . Boildieu, . WED Dmitri CH-6.6 . Boiko, . . (p111) . . THU . . B . CE-8.2 . Antonella . . (p86) . . Bogoni, . WED . Robert . (p34) . JSI-2.4 . MON . . Bogdanowicz, . . . CK-2.1 . . (p60) Stepan . . . TUE . . . Bogdanov, . . CC-2.4 . . . Andrey (p90) . . . . WED . Bogdanov, . . . CB-4.3 . Frederic . . . . . Boeuf, . C. (p71), . . Simon TUE . . (p94) . EB-5.2 Boehme, . . WED . Gerhard . CF-5.5 . . . Boehm, . . . . (p160) . . . FRI . . . . . CL-5.2 ...... Matthias . . . . Bock, . . . . . Martin . . Bock, . Claude Boccara, oze,Lrc...... Laric . . . Bobzien, . Valeriia Bobkova, lmnhl ail...... C-. E (p90) WED . . CH-6.2 ...... Konstantin (p139) . . THU Bobkov, . CG-P.7 Daniel . . . Blumenthal, Andreas Blumenstein, lm,Gna ...... (p83), Gunnar WED Blume, CD-6.2 ...... (p98) . . WED . . EG-4.5 Markus . . . Blothe, . . . . . Bl . Alexander (p31), MON Block, (p70) TUE EC-1.3 . CG-4.3 . . (p33) . . . MON ...... JSV-1.5 ...... (p102) . . Jacqueline . . WED . . Bloch, . . CC-P.12 . . . . Etienne . . . . . Bloch, ...... Esther . . . . . Bloch, . . . (p38), Daniel . MON . . Bloch, . CK-2.3 . Olivier . . Bleu, ...... Terence Blésin, lt,Rie A32WD(p91) . WED . . EA-3.2 ...... Tobias . . Blatter, . . (p39), Rainer MON Blatt, EG-1.4 . . . . . Guillaume Blanquer, lnht aéi G43TE(p70) TUE . (p86) . CG-4.3 . . WED . . . María CE-5.6 . . . Paz, . . . de . . . . . Blanco . . . . Valérie . . Blanchet, . . Annika Bitzer, ite,Sea . . . . . (p165) . . FRI . (p107) . . WED CI-5.1 . Stefan EH-P.4 . . . . Bittner, . . . . Mohammad . (p40) . I. Bitarafan, MON . . Bertold . CD-1.5 . . . . (p175) (p84) Bitachon, . . FRI . WED . Shubhadeep CM-P.36 . CE-5.3 . . . . Biswas, . . . . (p80) . . Rabindra . . TUE . . . . (p157) Biswas, CD-P.35 . . . FRI . . Francesco . . CC-7.4 . . . . . Bissoli, ...... Samuel . . . . Bisig, . . . . Sébastien . . . Bise, . Stefan Birner, ö ö J24TE(p59) TUE EJ-2.4 (p156) FRI CD-10.5 (p87), WED CD-6.5 B61WD(p89) WED EB-6.1 J92FI(p160) FRI CJ-9.2 M82FI(p154) FRI CM-8.2 ∙ (p164) FRI CK-9.6 (p159), FRI CK-8.6 (p66), TUE EC-2.4 (p66) TUE CD-4.3 H84TU(p114) THU CH-8.4 (p106) WED EC-P.11 (p87), WED EC-4.6 ∙ m ehr D13MN(p38) MON CD-1.3 ...... Gerhard hm, M23WD(9) M61TU(p130), THU CM-6.1 (p90), WED CM-2.3 B92TU(p133) THU CB-9.2 kr obn...... C-. R (p158) FRI CF-9.6 ...... Torben mker, ś it ...... Piotr , ∙ A61TU(p131), THU EA-6.1 ∙ ∙ ∙ ∙ JP1 H (p143), THU CJ-P.11 ∙ ∙ ∙ ∙ K66TU(p136), THU CK-6.6 ∙ JP1 H (p143) THU CJ-P.15 BP1 O (p50) MON CB-P.11 H1. R (p163) FRI CH-12.4 ∙ ∙ SV44FI(p163) FRI JSIV-4.4 SV56FI(p169) FRI JSIV-5.6 A62TU(p133) THU EA-6.2 C44WD(p85), WED EC-4.4 ∙ ∙ ∙ BP3MN(p50) MON CB-P.3 E53WD(p84) WED CE-5.3 ∙ F36WD(p95) WED EF-3.6 IP7MN(p52) MON CI-P.7 G44TE(p72) TUE CG-4.4 I51FI(p165) FRI CI-5.1 rhs hi C-. U (p74) TUE . . .CG-4.5 ...... (p93) . . . . WED . . Christian . CE-6.4 . . . . Brahms, . . (p85), . . Chris . WED . Brahms, EC-4.4 . (p162) . Francesca . FRI (p74) . . Bragheri, TUE . .CK-9.5 . . CG-4.5 ...... Barry (p154) . . . . FRI . . Bradlyn, . . CD-10.3 . . . Louise. . . . . Bradley, . . . . . John . (p45) . MON . Bozek, . . EF-2.4 . Andrey . . Boyko, . . (p107), . WED ...... RobertoEC-P.21 ...... Boyero-García, . . (p40) . . M. . . MON . J. . . . CA-2.5 . Boyer, . (p114) ...... THU . . Alexie . . . CB-6.5 . . Boyer, . . . (p68) . . . . . TUE Robert . . . . Boyd, CD-5.1 ...... Keiron . . . . . Boyd, . . . . John . . Bowers, . . Patrick Bowen, oio ai . . . . (p142) . . THU . . CJ-P.2 ...... (p138) . . . Fabio THU . (p80) . Bovino, . PD-1.3 TUE . . . CD-P.35 . Philippe . . . (p32) . . Bouyer, . MON . . . Veronique . . .CK-1.5 . . Boutou, . . . . Aurélien . . . Boutin, . . (p47) . . Adel. . . MON . . . . Bousseksou, EI-1.4 . . . . . (p36) . Shlomi . . MON . . . Bouscher, . . CJ-1.3 . . Adrien ...... Bouscal, A. . (p142) . . (p76) Sean THU . TUE . CJ-P.2 . Bourelle, . . EA-2.3 . . . Pierre . . . . . Bourdon, . . Nadia . . . . Bouloufa-Maafa, . Johan Boullet, olj,Ncr ...... Nacera Bouldja, ohe,See...... C-. H (p116) THU CI-3.1 ...... (p41) Benoit . MON . . Boulanger, . EH-1.5 . . (p94) . Steve . WED . (p46) Bouhier, . EG-4.1 MON . Alexandre . . .CC-1.4 . (p122) Bouhelier, . . THU . Dominique . CB-7.3 (p115) . . . Bougeard, THU . . . Matthias . EH-4.5 . . . . Boudant, . (p137) . . Sophie THU . . . CB-9.6 Bouchoule, . . . . Patrick . . (p137), Bouchon, THU Guillaume CL-3.5 . . Bouchez, ...... (p47), . (p35) MON Dorian MON CH-2.5 Bouchet, (p57) . CM-1.1 . . TUE . . . . . CI-1.1 ...... Frédéric ...... Bouchard, . (p43), . Felix . MON H. Bouchard, R. .EF-2.2 . Kyle (p74) . . TUE . Bottrill, . . CG-4.5 . . . . (p151), . . . FRI . . . . EF-8.5 Muriel...... Botey, . . Cristoph . . . Bostedt, ...... (p103), Surajit WED Bose, .CF-P.14 (p158) . . FRI . . . . CD-11.1 . . . Adam...... Borzsonyi, . . Umberto . . . Bortolozzo, (p39) . . MON Paola CM-1.3 (p30), . Borri, . MON . . CG-1.3 ...... Rocío . (p100), . WED . . Borrego-Varillas, . EG-4.6 . (p40) . Ana . MON . Borrás, . CK-2.5 . . . (p135) . . . . THU . . . . . JSIV-2.3 . Adrien . . . . (p135) . . Borne, . . THU . . Jerome CL-3.3 . . . Borme, . . . Navid . . . Borhani, . Vincent Borderie, olke ois...... (p165) . FRI . . Tobias .CI-5.1 . . (p175) Boolakee, . . FRI . J . CM-P.26 . . . Bonse, . . . . Romain. . . Bonjour, . Antoine Boniface, F21TE(5) F23TE(p59), TUE CF-2.3 ∙ (p57), TUE CF-2.1 C46WD(8) CP1 E (p106) WED EC-P.11 (p87), WED EC-4.6 ∙ GP1 R (p172) FRI EG-P.12 (p152) FRI EB-9.6 (p51) MON CB-P.19 (p169) FRI CM-9.4 (p139) THU CG-P.7 (p156) FRI CL-4.4 (p110), THU CG-5.1 (p168) FRI CK-10.5 B24TE(p67) TUE CB-2.4 D15TU(p138) THU PD-1.5 IP4WD(p108) WED EI-P.4 ö n...... C-. O (p37) MON CM-1.2 ...... rn ∙ ∙ ∙ ∙ ∙ D13TU(p138) THU PD-1.3 A65TU(p137) THU EA-6.5 ∙ H21MN(p43) MON CH-2.1 DP1 U (p78) TUE CD-P.12 G14MN(p32) MON CG-1.4 ∙ ∙ ∙ L21MN(p41) MON PL-2.1 ∙ E11TE(p56), TUE EE-1.1 G41TE(p68) TUE CG-4.1 A14TE(p58) TUE EA-1.4 I41FI(p152) FRI CI-4.1 ri,Lk B14MN(p33) MON EB-1.4 ...... Brechb ...... Luka . . Brcic, . Denis (p71), Brazhnikov, TUE . CE-4.2 . Bra . (p135) . Charlotte . THU . Abbie . CB-9.5 . Bray, ...... Alain . . . Braud, . . (p138), Uwe THU Brauch, (p64), PD-2.2 . TUE . . . ED-3.3 . . . Rudolf . . . Bratschitsch, . . . . . (p104) (p48) . . MON WED CA-P.7 CE-P.4 Victor . . . Brasch, . . . Catalina-Alice . . Brandus, . (p47), MON Catalina (p127) EF-2.5 Brandus, THU . . EF-7.2 ...... Massimo . . . . Brambilla, (p36), Enrico MON CK-2.2 Brambilla, ...... Rémy . Braive, Chiara Maria Braidotti, ros ila H1. R (p161) FRI CH-12.2 (p111) . . THU . . EE-2.2 ...... William . . . Brooks, J...... Nathan . . . . . Brooks, . (p102) . . WED . Kirill . CC-P.5 . . Bronnikov, . . . . . Jake . (p125), . Bromage, . THU . (p41) Corinne EF-7.1 MON . Brodeur, . EF-1.5 . . . . R. . . G. (p93) . . WED Neil . . .EF-3.4 Broderick, G. . . Neil . (p139) . . THU Broderick, CG-P.6 . Sebastian. . (p125), . THU Brodbeck, S. (p48) MON CB-8.2 William CA-P.7 . . . Brocklesby, ...... (p70) . . . . TUE . . . . .CG-4.2 Pierre ...... Brochard, . . Alin . . . Broasca, . Mathew. Britton, Fran . . Brisset, Maximilian (p122) Brinkmann, THU (p126) CB-7.3 . Guillermo THU . . Vazquez, CM-5.4 . . . (p124) . Brinatti . THU . . Christelle . CE-10.2 . . . Brimont, . . . Apostolos . . Brimis, (p58), TUE Laurent CC-2.2 Brilland, ...... (p57), . . TUE . . . CD-3.2 . . . . Daniele . . Brida, . . . (p127), . THU . . . CB-8.3 . . Ingo . . . Breunig, . . (p103) . . WED . . CF-P.13 . . . Stefan . . . Breuer, . Fabien Bretenaker, (p99) . . . WED . . . . EI-3.4 . . . . . (p65) . . . TUE . . . Camille-Sophie . . CH-4.3 . . . Brès, ...... Igal. . . . . (p149), . Brener, . . FRI . . Steven . EI-4.3 . . . Brems, . . . . . Kort . . Bremer, . . (p104) . . WED . . CE-P.6 . . (p36), . Samuel MON . . Brem, CJ-1.2 (p68) Maria . TUE . . . CG-4.1 Brekhovskikh, ...... Sven . . . Breitkopf, . . Richard Brédy, (p53), MON EB-P.2 ...... Benjamin Brecht, A53WD(8) A54WD(p84) WED CA-5.4 (p84), WED CA-5.3 (p149) FRI EI-4.4 (p153) FRI CK-8.1 (p64), TUE CD-4.2 (p165) FRI CC-8.6 (p129), THU CB-8.5 (p58), TUE CK-3.2 ∙ (p41), MON EF-1.5 FP1 H (p142) THU EF-P.14 (p152) FRI CF-9.1 ∙ (p98), (p137) WED THU CF-6.4 EE-4.4 (p67), TUE EH-3.4 (p78) TUE CD-P.10 (p59), TUE CD-3.4 (p129) THU CB-8.6 (p122), (p167) THU FRI CD-7.6 CF-10.3 (p87), WED CD-6.6 (p149) FRI EI-4.4 (p139) THU CG-P.7 (p97), (p146) WED FRI EB-7.2 EB-9.2 (p83), (p54), MON WED EB-P.24 EC-4.2 (p54), MON EB-P.20 FP5TU(12,C-. R (p153) FRI CK-7.6 (p142), THU EF-P.5 H32TE(p57) TUE CH-3.2 ž d ž i ü ns yi...... GP1 H (p140) THU .CG-P.19 . . . . Gytis. unas, ¯ lr ahe . . . . Raphael hler, uhr'Index Authors' ç i M95FI(p169) FRI CM-9.5 ...... ois 177 ∙ GP1 H (p140) THU CG-P.18 ∙ ∙ MP1 R (p174) FRI CM-P.19 ∙ D11MN(p34) MON CD-1.1 ∙ ∙ ∙ ∙ ∙ HP9FI(p170) FRI CH-P.9 F31WD(p89) WED EF-3.1 H35TE(p61) TUE CH-3.5 E13TE(p58), TUE EE-1.3 A31TE(p62) TUE CA-3.1 DP7TE(p81) TUE ED-P.7 ud,Jahm...... (p74) . . TUE . . CG-4.5 . (p86) . . . . WED . . . . CC-4.5 . . . Joachim . . . . Buldt, . . . . Philip . . (p53), . Buksbaum, (p79) . MON TUE Vladimir .EA-P.14 CD-P.19 . . Bukin, ...... (p152), . . . FRI . . Stéphanie. CJ-7.5 . . . Buil, . . (p120) . . . THU Ignác . . CB-7.2 . Bugár, (p98) . . . . WED . . . . CF-6.4 ...... Igor . . . . Bufetov, . . . . . Julián . . . Bueno, Arne Budweg, (p62) TUE CA-3.1 ...... (p67) . . . TUE . . Ivan . . EH-3.3 . . Buchvarov, . . (p78) . . . Sara TUE . . CD-P.8 Bucht, . . . . Oleksandr . . Buchnev, . (p59), . . TUE . . . CH-3.3 B . . . (p160) . Tobias FRI . . Bucher, . CJ-9.2 ...... Andrea . . Bucci, . . Mikhail . . Bubnov, ...... Theresa Buberl, . (p39) Rayssa . . MON . Andrade, . (p47) . de .EH-1.3 . . MON . . . Bruzaca . EI-1.5 . . Martin...... Brunzell, . . . . Vincenzo . (p46), . . Bruno, MON . Annalisa JSII-2.4 . . Bruno, ...... (p46), Fabian MON Brunner, (p118) EJ-1.3 THU . . . CI-3.2 ...... (p113) . THU . Daniel . . CK-4.2 Brunner, . (p36) . (p108) . . MON Marc WED . . CE-2.2 JSI-P.3 . Brunel, . . . . Enrico . . . . (p118) . . . . THU Brugnolotto, . . . Axel CI-3.3 . . (p68) . . . TUE . Bruchhausen, . . . . CG-3.3 . Angus . . . . . Bruce, . . . . Colm . (p102) . . . WED Browning, . G. . CC-P.16 . . . Graham . . . . Brown, . . . . . Graham . (p83) . . Brown, WED (p139) . THU EC-4.1 Elliott . . PD-2.6 Brown, . Mauro . . . . Brotons-i-Gisbert, . . Valentina Brosco, ulc,Jms...... C-06TU(p128) THU (p36) MON CE-10.6 . . CE-2.2 . (p33) . . MON . . . . Teut . . JSV-1.4 . . . Bunjaku, ...... James ...... Bullock, . . . (p47), . Gerald . MON . Buller, . CD-2.6 . . . Daniel . . Bull, ...... Hrvoje . . Buljan, Vladislava Bulgakova, (p167), FRI CF-10.2 ...... Budri ...... Judit Budai, (p32), (p100) MON WED CK-1.4 . CF-6.6 . . (p54) . . . . MON . . . . EB-P.16 . . Ryszard ...... Buczynski, . . . . . Tiago . . Buckup, . . Thomas Buck, uzu,Dns...... Danas . . . Buozius, . . Wagner Buono, ugr lra BP1 O (p54) MON EB-P.15 ...... B . . . . Florian . . Burger, . . Paul Burdekin, ü ü HP9WD(p108) WED EH-P.9 ∙ (p133) THU CL-3.2 (p156) FRI CF-9.5 ∙ (p161) FRI CG-7.2 (p130), (p132) THU THU CK-6.1 CK-6.3 (p127), THU JSIV-1.2 J24TE(5) C25TE(p68) TUE EC-2.5 (p59), TUE EJ-2.4 (p165) (p139), FRI THU CG-P.7 CG-7.6 (p138), (p139), THU THU PD-1.4 CG-P.3 (p103), WED CF-P.15 (p172) FRI (p164) EG-P.4 FRI CJ-10.1 (p111), (p128), THU THU CE-8.2 CE-10.5 (p79), (p85), TUE WED CD-P.19 CJ-3.3 (p73), TUE CF-3.4 ∙ E51FI(p153) FRI EE-5.1 he,Rbca...... Rebecca chner, gr oans...... C-. H (p134) THU CK-6.4 ...... Johannes rger, J93FI(p160) FRI CJ-9.3 (p47) MON CH-2.4 A45TE(p76) TUE CA-4.5 ns iats...... Rimantas unas, ¯ ë S-. O (p29) MON JSI-1.1 ...... ∙ ∙ AP1 O (p49), MON CA-P.18 ∙ ∙ ∙ ∙ ∙ H22MN(p45), MON CH-2.2 ∙ EP8TU(p141), THU EE-P.8 GP4TU(p139) THU CG-P.4 H1. R (p168) FRI CH-13.6 A61WD(p89), WED CA-6.1 ∙ GP1 R (p172) FRI EG-P.15 ∙ C45WD(p86) WED CC-4.5 ∙ F63WD(p96) WED CF-6.3 A44TE(p74) TUE CA-4.4 A16TE(p60) TUE EA-1.6 apel en ...... (p128) . . Jenna THU . . EG-6.6 . Campbell, . . . Aidan . . . Campbell, Gabriel Campargue, aè lsbta...... E-. O (p31) MON ED-1.2 ...... Elisabetta . (p174) Canè, . . FRI . . CM-P.16 ...... Alessia . (p79), . Candeo, . TUE . Ozun CD-P.26 . . Candemir, ...... Carlota Canalias, (p70), TUE .CJ-2.2 ...... Patrice. Camy, (p154) FRI CF-9.2 . (p122) . . THU . . . CB-7.3 (p40) . . Çami . MON . Sandro . . CK-2.5 . . Camenzind, . . . . . Edmond . (p38) . Cambril, . MON . Filipe . CE-2.4 . . (p108) . A. . Camarneiro, WED V. . EI-P.6 . Franco . . . (p93) . . . Camargo, . WED . . Victor . CE-6.4 . . . . Calzadilla, . . . . Stéphane . (p44) . . Calvez, MON . Matteo .CC-1.3 (p72) . (p70), Calvarese, TUE TUE Anne-Laure CG-4.4 . CG-4.3 . . . Calendron, . . . . (p145) . . . . THU . . . CL-P.7 . . . Francesca ...... Calegari, . . (p66), . . F. . TUE . . CD-4.3 Calegari, E. . . . Esra ...... Çakmak, (p138) . (p147) . . . THU . FRI . . . . PD-1.2 . . . .EI-4.1 ...... Daniele ...... Caimi, ...... Yao . . . . Cai, ...... Minglu . . Cai, . . (p92) Hui. WED (p162) Cai, FRI CH-6.4 . . . . CJ-9.5 ...... Humeyra (p144) . . . . THU . . (p62) Caglayan, . . CK-P.5 . TUE . . Jasper . . EI-2.1 . . . . Cadusch, ...... Benoit . . . . . Cadier, . . . Fatima . . Cabello, Niels Hesp, C.H. (p46) C MON . . . CL-1.3 (p122) . . . . THU . . . . CF-7.5 . . . . . S. . . (p85) . . . . Dmitry WED . . . . Bykov, . . EG-2.3 . . . . . Patrick (p98) . . . . WED Byers, . . . . CF-6.5 . . . Simone . . . . Bux, . . . . Benjamin . . Butz, . P. Thomas Butler, (p136), THU (p87) WED CM-6.6 . EG-2.6 . . . . Butkut ...... Simas . . . Butkus, (p57), . TUE Joris . . CD-3.2 Busink, . . . . . Andrey . . . Bushunov, . (p53), . . MON . . EA-P.12 . . (p44) . . . MON Karsten (p150) . . JSV-2.2 FRI Buse, . . . . . CJ-7.4 ...... (p165) . . . . FRI . Kurt . . . (p67) . . CI-5.1 Busch, . TUE ...... Oreste CB-2.5 ...... Bursi, ...... Mark ...... Burns, . . . . Maurizio (p167) . . Burla, FRI . . JSIV-5.2 Elliot . Burke, Arturo Burguete-Lopez, (p169) FRI J. CM-9.4 . . . Francisco ...... Burgos-Fernández, . . . Dominik . . . Burghart, . . Sven Burger, HP7FI(p170) FRI CH-P.7 (p120) THU CD-7.4 (p118), THU CD-7.2 (p120), (p125) THU THU CA-9.4 CJ-5.1 (p84), (p86), WED WED CA-5.4 CA-5.5 (p77), (p84), TUE WED CE-4.5 CA-5.3 (p71), TUE CE-4.2 (p67) TUE CB-2.5 (p139) THU CG-P.5 (p113) THU CK-4.2 (p113) THU EH-4.4 (p174), FRI CM-P.15 (p174) FRI CM-P.13 (p78) TUE CD-P.10 (p59), TUE CD-3.4 (p119) THU EC-5.2 (p170) FRI CH-P.20 ç ,H i, ,Agn e, ˙ ü ei a J94FI(p162) FRI CJ-9.4 ...... Can seyin M65TU(p134), THU CM-6.5 ...... e ˙ ∙ ∙ ∙ MP2 R (p175) FRI CM-P.28 KP1 H (p144) THU CK-P.10 ∙ H96TU(p128), THU CH-9.6 ∙ H11MN(p35), MON EH-1.1 D26TU(p139) THU PD-2.6 ∙ ∙ ∙ ∙ ∙ B43WD(p90) WED CB-4.3 A32WD(p91) WED EA-3.2 B22TE(p65), TUE CB-2.2 I14MN(p47) MON EI-1.4 L52FI(p160) FRI CL-5.2
Authors' Index Authors' Index eern,Mcee...... E-. O (p41), (p48) MON MON EH-1.5 CA-P.6 ...... Michele . . (p33), . Celebrano, . MON Miroslav JSII-1.5 . Cech, ...... (p55), (p62) Vittorio MON TUE EJ-P.1 Cecconi, EI-2.1 ...... Francesco . . (p111), . Ceccarelli, . THU (p91) Matteo CE-8.1 WED . Ceccanti, . EB-6.2 ...... Maxime . (p61) . . Cavillon, TUE (p159) Adrien (p62) CI-1.5 . FRI TUE . Cavaillès, Traian CH-12.1 EI-2.1 . . Mircea ...... Catuneanu, . . . Pablo . (p133) . . THU . Castro-Marin, CL-3.2 Sebastian ...... Castilla, . . David (p68) . . TUE . . Castelló-Lurbe, CG-4.1 . . Marco . . Pablo Castello, (p75) Nash, TUE Castellanos CE-4.4 . . . . (p34), . Elena . MON . . . CK-2.1 . . Castellano-Hernández, . . . Victor . . . Castaing, . . . . . (p90), . . WED (p155) Eric CM-2.2 FRI . Cassan, . . JSIV-3.3 ...... (p105) . . . . WED . Noemi . JSII-P.1 . . . Casquero, . . . . Niccoló . . . Caselli, Michele Cascella, Lucas (p99), WED Rodrigues, Veloso EF-4.5 . (p139) . Carvalho . THU . . CG-P.5 . . . . (p174) . . . FRI (p169) . Iacopo . CM-P.14 FRI . . . . Carusotto, . JSIV-5.6 . . . Andrea ...... Cartella, . . . (p83) . . Romain WED . . (p148) Carreto, . .CD-6.1 FRI . . Philippe CG-6.4 . . . . Carré, . . Antonio. . . . Carrascosa, . Paolo Carpeggiani, anr,Bsin...... Bastian Carnero, (p59), TUE CH-3.4 . . . (p40) . . MON . . . .CA-2.5 . . . (p172) . . . . FRI . . . . EG-P.12 . Tal ...... Carmon, . . (p66) . . Neil. TUE . . Carmody, . EC-2.4 . (p38), Rémi . MON . . Carminati, CD-1.4 Nicola . . Zambon, . . (p124) . Carlon . (p154) THU . . FRI CH-9.2 . . . CL-4.3 ...... Luca ...... Carletti, . . . Hervé . . . . Carfantan, . Thomas Carell, Rafael Edson Oliveira, de Cardozo R. Edson (p152) FRI Oliveira, de EdsonJSI-4.5 Cardozo Oliveira, de (p116) Cardozo THU Ricardo (p124) CB-7.1 . José . THU . . Andrade, . .CE-10.2 de . . . . (p157) . . Cardoso . . FRI . Giulia . CC-7.4 . . . Cardinali, . . . . Julie. . . . Carcreff, Giovanni (p47), (p69) Capellini, MON TUE (p133) EF-2.5 EB-5.1 . . THU . . . . . CB-9.2 ...... (p73) . . . . . TUE . Federico . . . . EB-5.3 . . Capasso, (p113) . . . . . THU . . . Mingtao . . CE-8.4 . . . Cao, ...... (p44) Hui . . . . MON Cao, . . . . CC-1.3 (p124) Marco . . . THU . . Canteri, . . CF-8.2 . . . . . Israel . . . Cano, . . . Huseyin . . Cankaya, Miguel Canhota, CP1WD(p102), WED CC-P.1 ∙ (p169) FRI CM-9.5 (p30) MON CA-1.2 (p85) WED CD-6.3 (p78), TUE CD-P.11 (p160) FRI CK-9.3 (p104) WED CE-P.8 (p134) THU EC-6.3 ∙ ∙ (p89), (p140), WED THU CE-6.1 CG-P.20 (p92), WED EG-3.4 ∙ ∙ (p86) WED JSI-2.3 (p28) MON CF-1.2 (p127), (p129) THU THU CB-8.3 CB-8.6 (p88), WED CB-4.1 K33TE(5) E64WD(p93) WED CE-6.4 (p58), TUE CK-3.3 (p145) THU CL-P.4 KP9TU(14,C-06FI(p168) FRI CK-10.6 (p144), THU CK-P.9 (p160) FRI CD-11.2 (p96), WED CE-7.3 ∙ ∙ S-. E (p108) WED JSI-P.3 C53TU(p120) THU CC-5.3 ∙ ∙ LP3TU(p145), THU CL-P.3 D61WD(p83) WED CD-6.1 hn i...... S-. E (p108) WED .JSI-P.1 . . . . . (p138) . . THU . . PD-1.2 . . (p28) . . . MON . . . . . CA-1.1 . . . . . Jie. . . . . Chen, . . . . . Jianping . . Chen, . . Hegnjun Chen, hn oHn...... (p136), . THU Bo-Han (p62) .CD-9.6 Chen, TUE . . EC-2.1 . . . (p149) . . . . FRI . . Mario. . EG-7.3 . . . Chemnitz, . . . K. . Yanne . . . (p46), Chembo, MON Daniel EJ-1.4 . Chelladurai, ...... (p52), . Igor MON EA-P.3 Chekhovskoy, . . . . (p145) . (p136) THU . V. THU CL-P.2 . Maria . CK-6.6 . . . (p138) Chekhova, . K. . THU . Tamara . . PD-1.3 . . Chekhlova, . . . . Xavier (p155) . . FRI . Checoury, . CC-7.3 . Mathieu . . Chauvet, . Jean-Michel Chauveau, htiyl,Eiae . . . . (p92) . . WED EG-3.4 Elisavet . . . Chatzizyrli, . Udvas Chattopadhyay, hrly ae...... C-. H (p130) THU . . CD-9.1 ...... M. . . Jake . . . Charsley, . Jake Charsley, ho ihn K66TU(p136) THU . . . CK-6.6 ...... Dominik . . . Charczun, . . (p76) Kimhong TUE Chao, CG-4.6 . . . (p147), . . FRI . . Jean-Christophe CM-7.2 . . . . . Chanteloup, . . . . . Yi-Ping . . Chang, . (p143) (p146) . . THU FRI . . CJ-P.10 . . CJ-7.2 ...... Xin . . . . (p122) . Chang, . . . THU . (p166) . Wonkeun . CI-3.6 FRI . . Chang, . Jian . .CH-13.3 . Chen . . . . . Chang, ...... Philippe . . . . Y.. Chanclou, . . K. . . (p130), Ryan . . THU Chan, . . CH-10.1 . Jaclyn (p169) . . FRI Chan, . . JSIV-5.6 ...... Aik (p110) . . Eng THU . . Chan, . JSI-3.2 . . Eric (p143) . . THU . Champion, .CJ-P.19 Corinne . . . Champeaux, . Yuri. Chamorovskii, (p72) TUE (p83), CG-4.4 WED . . . CD-6.2 . . . . . Maxime . . . Chambonneau, . . H...... Chakraborty, Lal . . . . Arup . . . . (p124) . . Chakraborty, . . THU . . (p150) Mykhailo . CE-10.2 . FRI . . Chaika, . . . EB-9.5 . . . . . Yue . . . . Chai, . . . . Radwan . . Chahal, . . Ulysse Chabaud, etr urza . . . . (p63), . . TUE . . CE-3.1 . . . . . Lucrezia. . . . Cester, . . . (p94), . . WED . CB-5.1 . Tiziana . . Cesca, ...... Laurent Cerutti, (p39), MON EH-1.4 . . (p69) . TUE . . . EC-3.1 ...... Giulio . . (p85) (p123) . Cerullo, WED . THU CI-2.2 Alexander EA-5.5 . . . . Cerjan, ...... Č . (p91) . . . WED . Alessandro . EA-3.2 . . Cerè, . . . . Josep . . Cerda, . Giovanni Cerchiari, etn,Mro...... JI33TU(p112) THU . . . JSI-3.3 ...... Federico . . . Centrone, . . Marco Centini, ere H1. R (p161) FRI CH-12.3 (p87) WED CI-2.5 (p51), MON CI-P.2 (p125) THU CD-8.1 (p52), MON EA-P.5 J15MN(p38) MON CJ-1.5 (p167) FRI CM-9.2 ∙ (p154) FRI CM-8.2 (p90), WED CM-2.3 HP3WD(p107) WED (p114) EH-P.3 THU CB-6.4 (p100), WED CB-5.5 (p167), FRI (p170) FRI JSIV-5.3 (p156), CH-P.7 (p165), FRI FRI CL-4.4 JSIV-4.5 (p135), (p154), THU FRI EE-4.3 CL-4.3 (p100), (p97), WED WED CF-6.6 EI-3.3 (p47), (p64), MON TUE EI-1.4 ED-3.2 (p45), MON EI-1.2 D1. R (p160) FRI CD-11.2 SV25TU(p137) THU JSIV-2.5 š a evds...... C-.5FI(p175) FRI CM-P.35 ...... Deividas ka, ∙ M61TU(p130), THU CM-6.1 ∙ ∙ ∙ ∙ H95TU(p128) THU CH-9.5 ∙ ∙ DP3 U (p80) TUE CD-P.39 (p80) TUE CD-P.36 LP8TU(p145) THU CL-P.8 ∙ ∙ JP1TU(p142) THU CJ-P.1 F16MN(p32) MON CF-1.6 ∙ ∙ D33TE(p64) TUE ED-3.3 JP6MN(p55) MON EJ-P.6 L22TE(p58) TUE CL-2.2 B32TE(p58) TUE EB-3.2 hrthno veia . (p70), TUE Evgeniia. CJ-2.3 . Cherotchenko, . . . . . (p103), . WED Maria CF-P.1 . . Chernysheva, . . . (p159) . . . FRI . . . . (p60) . CG-7.1 . Gilles TUE . . . . (p47) . CK-3.4 . Cheriaux, . . MON . . Shan . . Yuk . . EI-1.5 . . . . Cheng, ...... Yu-Chen . . . . Cheng, . . . . . Xiulan . . . Cheng, . (p47), Bryan MON Cheng, (p29) .CD-2.6 MON . . (p146) JSV-1.1 . . . FRI . . . . CJ-7.2 ...... Zhigang . . . . . Chen, ...... Zequn . . . . . Chen, . . . (p50) . . (p112) Yuhao . MON . . THU . CB-P.7 . Chen, . . . . CM-4.3 . . . . Yang ...... Chen, ...... Xiaojiong . . (p90), . . Chen, . . WED . . EG-3.2 . Xiangfei . . . . Chen, . . . . . Xi . . Chen, ...... Wen (p38), MON Chen, (p146) CA-2.3 . FRI . . . CJ-7.2 (p110) . . . . THU (p44) . . . . MON CM-4.1 . . . . . CC-1.2 . . . Weidong . (p32) . . . . . MON . Chen, ...... CF-1.6 . Shaoxiang ...... Chen, . . . . . (p114) . . . Qi-Dai . THU . . . . Chen, CB-6.5 ...... Min . . . . . Chen, . . . . . Kai. . . Chen, . . Jun-Da Chen, hkn itr...... (p84) . WED . . . CE-5.3 ...... Viktor . . N. Chikan, Dmitry . . . . Chigrin, . . . . Alessandro (p99) . . WED Chiasera, EA-4.4 . Ismael . . . Chiamenti, . . . . Aleksandr . . (p144), Chezhegov, . . THU Frederic CK-P.14 . Chevy, ...... Kevin . (p32) Chevrier, MON Pierre-Alexis. CB-1.5 . . Chevreuil, . . Fran . . . Cheviré, . Nicolas Chevalier, hw hn on AP6MN(p52), (p88) MON WED EA-P.6 . . CH-6.1 ...... (p140) . Hoong . THU (p153) . Chang . CG-P.20 FRI . Chow, . . . . CK-8.1 (p92) . . . Chun-Ho WED . . . Chou, Nic EG-3.4 . . . Sile ...... Chormaic, . . . . Gregory . (p138) . . Choong, THU . . . (p32) PD-1.7 . Yidong . MON . . . Chong, . . . . .CE-1.4 . . Heloise . . (p36) . . . . Chomet, MON . . . . Sungwook .CD-1.2 . . (p164) . . Choi, . Ho. FRI . . Seung . .CD-12.1 . . Choi, . . . (p107), . Jae-Hyuck. . WED . Choi, . EC-P.23 . . Hyungwoo. . . Choi, . . . . (p36), . MON . Jin CH-1.3 (p108) Hee . WED . Choi, . . .EI-P.3 ...... (p116) . . . THU . . Duk-Yong CB-7.1 . . . . Choi, ...... Yeongsu. . . . (p122) . Cho, . . . THU Kyong . (p86) . Hyun CA-9.5 WED . . . Cho, . . CC-4.5 . Loon . . . Tat . . . . Chng, . . . . Nikolay . . . Chkhalo, (p129), (p97) . . THU WED Pavel JSIV-1.5 EI-3.3 . Chizhov, ...... (p92) . . . WED (p148) Artem . . FRI CB-4.5 . Chizhov, . . . . .EB-9.3 . . Po-Wen . . . . Chiu, . . . Dmitriy . . . (p158) Chistyakov, . FRI Fumihiro. EH-6.1 . China, . . . Beno . . Chimier, . Rohit Chikkaraddy, J62TU(12,C-04FI(p166) FRI CJ-10.4 (p132), THU CJ-6.2 (p122) THU CF-7.5 (p106) WED EC-P.8 (p68), (p75), TUE TUE EC-2.5 EC-3.4 (p59), TUE EJ-2.4 (p111) THU EG-5.1 (p120) THU CA-9.4 (p40), MON CH-1.6 ∙ ∙ (p149) FRI CK-7.3 (p150) FRI CG-6.5 (p68), TUE CD-4.5 (p175) FRI CM-P.32 GP1 R (p172) FRI EG-P.12 BP2 O (p55) MON EB-P.28 uhr'Index Authors' ç î i E1. H (p124) THU CE-10.2 ...... ois M74FI(p149) FRI CM-7.4 ...... t 178 ∙ ∙ ∙ A92TU(p118), THU CA-9.2 SV15TU(p129) THU JSIV-1.5 GP1 H (p140) THU CG-P.14 ∙ ∙ ∙ ∙ ∙ ∙ GP9TU(p140) THU CG-P.9 ∙ D25TU(p139) THU PD-2.5 ∙ S-. O (p44) MON JSV-2.2 DP2 U (p79) TUE CD-P.20 ∙ D22MN(p42) MON ED-2.2 J62TU(p132) THU CJ-6.2 BP8MN(p50) MON CB-P.8 J1. R (p166) FRI CJ-10.3 G72FI(p161) FRI CG-7.2 ofe yn...... C-. U (p74) TUE CG-4.5 (p59) . . TUE . . CF-2.2 ...... Ryan . (p115), . . THU Coffee, . . EF-5.4 Wim . . . Coene, ...... Stéphane (p142), Coen, THU (p52), CJ-P.1 . MON . (p148) . CI-P.8 . FRI . Christophe . CG-6.4 . . Codemard, ...... (p41), . . . MON Virginie . . EH-1.5 Coda, . . . Giulio . . . Coccia, . (p55), . . MON . . EJ-P.2 (p64) . . TUE . Benoit . CA-3.2 . . . Cluzel, (p39) . . . . MON . . . . . EH-1.3 . . . (p157) . . . . Peter FRI . . . . . JSIV-3.4 Cloetens, ...... Frédéric . . . . Cleva, . . . Matteo . . . Clerici, . . . . Marcel . . . Clerc, D. Joshua Clement, (p103), WED Hauke CF-P.1 (p41) . . MON . Clausen-Schaumann, . CM-1.5 ...... Cyrille . . Claudet, . . Pierre Claudel, . (p142) . . THU . . CJ-P.3 . . . William . (p31), (p60) . MON . Clarkson, TUE Andrew EC-1.2 W. EA-1.6 . . . . Clarkson, . . (p31) . . . . MON . . . . EB-1.2 ...... Edmund . . (p41), . . Clarke, . . MON . . (p74) . Alex EG-1.5 TUE . . . . . Clarke, CG-4.5 ...... Marcus . . . . Clark, (p132) . . . . THU . . . . . CJ-6.3 . . . S. . . . . Alex . . . . Clark, . . . . . (p94), . A . . WED . Clark, . EG-4.1 . Åsa . . . Claesson, . (p142) . . THU . EF-P.8 ...... (p58) . Cristiano . . TUE . Ciuti, . Gabriella . .CL-2.3 . Anna ...... Ciriolo, . (p54) . . Charles MON . . EB-P.16 Ciret, . . . . Bernard. . . (p86) Ciraulo, . WED Riccardo CE-5.6 . (p81) . Cipolletti, . TUE (p92) . . ED-P.3 WED . . . . Č . . EG-3.5 . . . . . Moritz . . . . (p45) . Cimander, . MON Raluca . . . EI-1.2 . . Ciceo-Lucacel, (p157) . . . . FRI (p139) Sara . . THU CC-7.4 . Cibella, . CG-P.2 . . . . Alessandro . . (p162) . . . . Ciattoni, F. FRI . . . Marcelo EH-6.4 . . . . Ciappina, . . . . . Chiara . Ciano, (p143), Chiara THU .CJ-P.16 Cianciaruso, . . . (p49) . . MON . CA-P.16 . Dmitry. . . . Churkin, . Mikhail . Churbanov, . . . (p105) . WED . (p175) . . FRI .CE-P.12 . CM-P.32 Mikhail . . . (p168) . Churaev, S.. FRI . . CH-P.3 . Dmitry (p43) . . . . MON . Chunaev, . . . CD-2.2 . Dmitry (p140) . . . . THU . . . Chubich, . . . EE-P.1 . . . . Ian ...... Chubchenko, ...... Yongyuan . . . . Chu, . . T. . (p154) . Sai . FRI . Chu, . CH-11.2 . . . . Sai M Chu, Helen (p52), MON Chrzanowski, EA-P.8 ...... Helen (p138) . . THU . (p61) Chrzanowski, . PD-2.4 TUE . Heike. . CD-3.5 . . . (p60) Christopher, . . Thomas TUE . . . CL-2.4 (p98) . . Christensen, WED . Simon . . .CH-7.4 . . . Christensen, . . Dimitrios . . . . Christaras, Jacques. Chrétien, p Ond íp, F62TU(19,E-. H (p141) THU EF-P.1 (p119), THU EF-6.2 (p152) FRI CM-8.1 (p79) TUE CD-P.29 ∙ (p172) FRI EG-P.14 (p46) MON CL-1.3 (p122) THU CF-7.5 ∙ (p138) THU PD-1.1 (p40), MON CE-2.5 (p83) WED EG-2.1 (p168) FRI CK-10.5 (p173) FRI JSIV-P.3 (p144), THU CK-P.11 (p149) FRI EF-8.3 (p67) TUE CE-3.4 G52TU(p113) THU EG-5.2 (p150) FRI CJ-7.4 ř j...... P-. H (p138) THU PD-2.1 ...... ej ∙ A83TU(p112), THU CA-8.3 ∙ ∙ ∙ ∙ B83TU(p121) THU EB-8.3 ∙ EP6TU(p141) THU EE-P.6 D43TE(p66), TUE CD-4.3 B31WD(p82) WED CB-3.1 G75FI(p163) FRI CG-7.5 ori,Fac ...... (p157) Franck FRI Correia, CK-8.5 . . . A. . . . Miguel . . . . Correa-Duarte, . (p66), TUE Charles CA-3.4 Cornet, (p157) . . FRI . . . CC-7.4 ...... (p139) . . Eric THU . . CG-P.4 . Cormier, . . . (p68), . Cedric . TUE . Corley, (p70) CG-3.3 Bruce . TUE . Paul . CG-4.2 . Corkum, ...... B. . . Paul . . Corkum, . . Paul Corkum, . . . Margoth . . R. . . . . Córdova-Castro, . . Martin Cordier, J. Lars (p102) WED Willenswaard, CC-P.2 . van . . Corbijn Dominique (p74) TUE Coquillat, CG-4.5 . (p67) . . TUE . . EH-3.3 . Fran . . . . (p154), . Copie, . . FRI . . Bridgette . .CL-4.3 . . Cooper, . . . . Tamsin . . . Cookson, . . (p46), . . MON . . EJ-1.3 . . . Irene. . . . Conti, ...... Claudio Conti, (p66), TUE Lucian CG-3.2 . . Florin . . . Constantin, . . (p63) . . TUE . . . . EB-4.1 . . . . Eric ...... Constant, . . . Antonio. . (p137) (p80) . . THU TUE Consoli, . . ED-P.2 CL-3.5 . Hauke ...... Conradi, . Clara . . . (p79), . Conrad-Billroth, . TUE . CD-P.21 Guangwei . . Cong, . . . (p68), . . TUE . EI-2.6 Matteo . . . Conforti, . (p58) . . TUE . (p141) . CL-2.3 . THU . . Sonia EE-P.5 . . . Conesa-Boj, . Enrique . . Jarque, . . . Conejero . Ivan (p170) FRI Company, CH-P.7 . . (p36) . . MON . . CK-2.2 . . . . . Comesa . . . . Daniela . (p129) . . Comelli, THU (p165) . FRI CB-8.5 Sylvain . CC-8.6 (p47) . Combrié, Luigi . MON . Lorenzo . EF-2.5 . . . Columbo, . L. . . Lorenzo . . . . . Columbo, . . . . Lorenzo . . . Columbo, . Davide Colucci, (p32), MON CK-1.5 . . . . . (p145), (p128) THU Raffaele THU .CK-P.19 CH-9.6 . Colombelli, ...... (p65) . Pierre. . TUE . . Colman, EB-4.2 . . . . Paul . (p108) . . Collier, WED EH-P.9 (p70), Pierre-Olivier Gérard TUE Collard, Francs, CG-4.3 (p172) . des . FRI . Colas . EG-P.2 ...... Lorenzo (p90), . . WED . Colaizzi, . CJ-4.2 (p140) Crina . . THU . Cojocaru, . CG-P.20 . . . (p54) . . . MON . . . . EB-P.19 . . . . Aurélien ...... Coillet, . . . . Oren . . . Cohen, . Eliahu Cohen, orel,Gaoo...... C-. R (p158), FRI (p47) CK-9.1 . MON . . CD-2.5 ...... Giacomo . . . Corrielli, . . Wagner Correr, HP8WD(p107) WED EH-P.8 (p146) FRI CG-6.1 (p101), (p128), WED THU CA-7.6 CF-8.6 (p97), WED CA-7.3 (p78) TUE CD-P.1 ∙ ∙ (p106) WED EC-P.5 (p97), WED EF-4.3 (p156) FRI CL-4.4 (p132) THU CK-6.2 (p83), WED EC-4.1 ∙ (p68) TUE CG-4.1 (p97) WED EF-4.3 (p95), WED EF-4.1 (p84) WED CE-5.4 (p107) WED EH-P.8 (p150), (p153) FRI FRI CC-6.4 CC-7.1 (p94), WED EG-3.6 ∙ ∙ (p147) FRI EF-8.2 FP5TU(p142) THU EF-P.5 G14MN(3) H84TU(p114) THU CH-8.4 (p39), MON EG-1.4 (p55) MON EJ-P.3 (p55), MON EJ-P.2 (p29), MON ED-1.1 (p147) FRI EF-8.2 (p139) THU CG-P.5 ñ -em,Miguel a-Hermo, ç i ...... ois ∙ BP2 O (p54) MON EB-P.21 ∙ ∙ ∙ ∙ B62TU(p112) THU CB-6.2 SV33FI(p155) FRI JSIV-3.3 F42WD(p97), WED EF-4.2 ∙ K32TE(p58), TUE CK-3.2 A11TE(p56) TUE EA-1.1 arwk,Aij HP5WD(p107), (p46) WED MON EH-P.5 . CC-1.4 ...... Alicja . . . Dabrowska, Gerald Costa, (p64) Da TUE ED-3.3 . . . D ...... Agata Cygan, url,Ncl I12MN(p45) MON (p97) EI-1.2 . . . WED ...... EI-3.2 ...... (p115) Antonio . . . . THU . Cutrona, . . . CK-4.4 . Nicola ...... Curreli, . . (p91) . (p128) . WED Xiaoqui. . THU . CE-6.3 Cui, . CF-8.6 . . . . Sébastien . . . Cueff, . . Annamaria . . . (p41), . Cucinotta, . MON Janos CG-2.5 Csontos, ...... Tamás Csizmadia, ra,Jms...... C-. U (p74) TUE CG-4.5 ...... (p170) . . . . FRI . . . CH-P.13 (p163) . . . FRI . Viktória . . . . . CH-12.5 Csajbók, ...... James ...... Cryan, . . (p50), . . MON Rossana . . CB-P.2 Cruz, . Luis . . José . . (p92) . Cruz, . WED . . CH-6.4 . . (p128) . . . THU . . . Paul . CE-10.6 . . Crump, B. (p132) . . THU . Kenneth . . CH-10.3 Crozier, . . . . Kenneth . . Crozier, (p48), MON (p163) Vincent CA-P.7 FRI . Crozatier, . CG-7.5 ...... Gabriela . . . Croitoru, . Gabriele Crippa, (p126), THU Manuel CH-9.4 . . . Crespo-Ballesteros, ...... Helder Crespo, rsi nra...... (p93) . . WED . . . CE-6.5 ...... Andrea . . . . . Crespi, . . . . . Aurora . . . Crego, . Chris Craig, oi,Sln J22TE(p70) TUE (p49), CJ-2.2 MON (p134) . . CA-P.15 THU . . . . . CD-9.4 ...... (p59), Alexandru . . . . TUE . . Craciun, . . . .EH-2.2 . . Solenn . . . . Cozic, . . D. . . Joel . (p47) . Cox, MON . . . .EB-2.4 ...... (p102) . Joel. WED . Cox, CC-P.15 Pablo. . . Farina, . . Cova . Jean-Louis Coutaz, (p96), WED CM-3.2 . . (p91) . . WED Francois . EF-3.3 . . . . (p64) F. Courvoisier, . . TUE . Alexander . CA-3.2 . . . Courtier, . . . Vincent . (p97), . . WED Courderc, Jean-Pierre .EF-4.3 . . Coulon, ...... Saliya. Coulibaly, (p68), TUE CJ-2.1 . (p108) . WED . . EH-P.9 . (p174) . . . (p95) . FRI . . WED . . CM-P.10 . . . . EB-6.6 . Vincent ...... (p56) . . Couderc, . . . TUE . . . . Antoine . EA-1.2 . . . . . Coste, . . (p88) . . . . . WED Gloria . . . . EG-3.1 . . Costas, ...... Ana . . . . Costa, . . . V. . . Neil . . Corzo, . Erika (p92), Cortese, WED EG-3.5 ...... Emiliano Cortes, H81TU(p110), THU CH-8.1 (p140) THU EE-P.1 (p43), MON CD-2.2 G74FI(p163) FRI CG-7.4 ∙ (p104) WED CE-P.4 (p166) FRI CK-10.3 (p124) THU CF-8.2 (p147) FRI CM-7.1 (p58), TUE CK-3.3 ∙ (p172) FRI EG-P.5 (p101), WED EI-3.6 (p167), FRI CM-9.3 ∙ (p126), THU EG-6.3 ∙ (p158), (p168) FRI FRI CM-8.6 CD-12.4 (p85), (p156), WED FRI CJ-3.2 CI-4.3 (p80), (p83), TUE WED CD-P.40 CJ-3.1 (p79), TUE CD-P.15 (p124) THU EG-6.1 (p112), (p115), THU THU CH-8.3 EG-5.5 (p107), WED EH-P.8 (p165) FRI CM-9.1 B21TE(6) B24TE(p67) TUE CB-2.4 (p63), TUE CB-2.1 JP4MN(p55), MON EJ-P.4 (p173) FRI CM-P.3 (p169), FRI CF-10.4 (p157) FRI JSIV-3.4 ∙ LP5TU(p145) THU CL-P.5 ∙ L42FI(p154) FRI CL-4.2 ∙ ∙ ∙ ∙ ∙ EP5TU(p141) THU EE-P.5 F1. R (p167) FRI CF-10.2 F13MN(p39), MON EF-1.3 M81FI(p152) FRI CM-8.1 JP1MN(p55), MON EJ-P.1 eAgls rnec H34TE(p67) TUE EH-3.4 . . . . . Francesco Angelis, De (p38), MON CD-1.4 . . . . Costantino . (p123) Angelis, O. THU De Jessica CK-5.2 García Almeida, de Javier F. Abajo, de e ymudr...... Syamsundar De, e ovrj...... (p33) . . MON . . JSI-1.5 . (p31) . . . . MON . . (p39) . .JSII-1.2 . Souvaraj MON . . . De, (p52) D. . EG-1.3 . . MON . Martin . . EA-P.10 . (p153) . . . Dawson, . . . FRI . . . . Xavier. . CC-7.1 . . . . (p161) Davoine, . . . . FRI . . . . . Miranda . CC-8.3 . . . . . Davis, ...... Alex . . . . Davis, . . . . . (p159), Giles . FRI Davies, Giles CH-12.1 . A. . . . Davies, ...... Ian Davidson, ai,Muo...... (p155) . . FRI . . CK-8.2 ...... (p31) . . MON Mauro . . EC-1.3 . David, . . . . . Virginia . . . . D’Auria, . . . Alexandre . . . Dauphin, . . Anurup (p102), Datta, WED CC-P.10 . . . Christina Daskalaki, ah neh...... (p148) . . (p49), FRI . . MON .CJ-7.3 Aneesh CA-P.15 . . . . Dash, . . . (p96) . . . WED ...... EG-4.3 . (p144) . . . . Traian THU ...... CK-P.7 Dascalu, ...... Manoj . . . . (p88), Dasa, . . . . WED . Susobhan . CM-2.1 . . Das, . (p120) . . . THU . Ranjan. . CF-7.4 . Das, ...... Amlan . . Das, . . John Darvill, ars o . . . . (p102) . . WED . . CC-P.12 ...... Tom . . Darras, (p122), Benoit THU Darquié, CC-5.4 ...... (p79) . . . . TUE . Juraj . CD-P.30 . . . Darmo, . (p145) . Akbar . THU Ali . . CK-P.21 . Darki, . . . . Stephane . . . Darbon, . (p93), Aurelien WED Dantan, CA-6.3 . . . Benjamin Dannecker, ai,Lrno...... E-. E (p91) WED . . EA-3.2 . (p115) . . . . THU . . . . EE-2.4 . . . . (p166) . . Andrey . . FRI . . . . Danilin, . . CK-10.4 . . . Lorenzo ...... Dania, . . . . . Keshav . . (p32), Dani, . . MON Aykutlu CA-1.5 . Dana, (p33) . . MON . . JSI-1.5 . (p170) (p162) . J. . FRI FRI . Michael . CH-P.21 . CJ-9.5 . . . Damzen, . A...... Djamshid . . . . Damry, . . . . . Matthias . . . Damm, . . . . (p96) (p45) Nicolas . . MON WED . Dalloz, (p99) EI-1.2 CE-7.3 Gilles . . WED . . . Dalla-Barba, EB-7.5 . Marcio . . . . Teodoro, . . . . . Daldin . Stefano . . Conte, . . Dal . Borivoje Dakic, a,Ynu . . (p139) . . THU . . PD-2.5 ...... Yunyun . . . . Dai, ...... Tianxiang . . Dai, . Daoxin. Dai, ae,Nu . (p56) . . TUE . . . EE-1.2 ...... (p60), Nour . TUE . Daher, CK-3.5 . Raphael . . Dahan, ...... Béatrice . . . Dagens, . Armin Dadgar, J34WD(9) D1. R (p160), (p162) FRI FRI CD-11.2 CD-11.3 (p99), WED EJ-3.4 (p146) FRI EB-9.2 ∙ H1. R (p161) FRI CH-12.2 (p154) FRI CL-4.2 C63FI(18,C-. R (p150) FRI CC-6.4 (p148), FRI CC-6.3 JP4MN(5) LP5TU(p145) THU CL-P.5 (p55), MON EJ-P.4 ∙ C75FI(17,C-. R (p161), (p163) FRI FRI CC-8.2 CC-8.4 (p157), FRI CC-7.5 (p97) WED CA-7.2 A81TU(p110) THU CA-8.1 (p97) WED EI-3.2 G52TU(p113) THU EG-5.2 C42WD(8) FP1 E (p103), WED CF-P.13 (p83), WED EC-4.2 M24WD(p92) WED CM-2.4 ∙ ∙ ∙ ∙ KP1 H (p144) THU CK-P.15 KP2 H (p145) THU CK-P.21 ∙ HP5WD(p107), WED EH-P.5 ∙ ∙ BP2 O (p54), MON EB-P.24 ∙ ∙ ∙ K41TU(p111) THU CK-4.1 KP7TU(p144) THU CK-P.7 HP2 R (p171) FRI CH-P.25 ∙ G43WD(p96), WED EG-4.3 ∙ ∙ H63WD(p90) WED CH-6.3 E23MN(p36) MON CE-2.3 ∙ B62WD(p91) WED EB-6.2 G61FI(p146) FRI CG-6.1 H31TE(p57) TUE CH-3.1 F33TE(p71) TUE CF-3.3 eos,Toa A63WD(p93) . . WED . . CA-6.3 . . . . . Leonardo . (p44) . Bino, . MON . Del . CC-1.2 . . (p99), Thomas . WED Dekorsy, EB-7.4 Jan-Christoph . (p145) . . THU Deinert, . . .CL-P.1 (p41) . . . . MON ...... JSIII-1.5 . Hugo ...... Defienne, . . . . Damien. . . Decq, . Piero . . Decleva, . . . (p136) . (p141) . THU . THU CK-6.6 EE-P.9 Thomas . . . . . Deckert, . . . (p50) . Dominique . MON (p31) . . CB-P.9 Decanini, MON . . . Tushar . JSII-1.2 . . . . Debnath, . . Pierluigi . . . Debernardi, . . Arnaud (p39), Debayle, MON EG-1.4 . . . (p45) . . MON . . CH-2.2 Yannick . . Wilde, De Regina (p147) Vivie-Riedle, FRI de . .EF-8.1 (p156) . . J. . FRI . Germán . (p157) CL-4.4 . . FRI Valcárcel, . Martijn. . de . .CC-7.4 C...... Sterke, . . de . Sandro . (p145) . . Silvestri, THU . De CL-P.1 . Monica. . (p36) . (p107) Seta, MON . WED De Amélie CK-2.2 EH-P.8 . . Saint-Jean, . Leonardo De . . Menezes, . . S. . de Alfredo (p45), Rossi, MON De (p97), .EB-2.2 WED . Hugues. .EI-3.3 . (p162) . . Riedmatten, FRI (p113) . de . THU EH-6.4 . . . EG-5.3 . . . . M...... Ana . . . . Paula, . . de . . Michele . . Palma, . . De (p41), Bart MON Nijs, CG-2.5 (p117) de . . THU (p165) . . EF-6.1 FRI . . (p88) . CI-5.1 . Massimo WED . . . . Marco, . EG-3.1 . . . De . . Francesco ...... Lucia, . . De . Simone . . . (p114), Liberato, . . THU De . Eva CG-5.4 . Leo, . . De ...... Alba . (p167) . Heras, . FRI . las JSIV-5.3 de Pablo (p112) Hoz, THU la (p162) Alejandro CB-6.2 de FRI . (p60) Cadena, . EH-6.5 TUE . la . . . De EB-3.5 . Yannick . . . . . Koninck, . (Kees) De . . C.H. . . Groot, (p110) . de THU Michiel (p113) (p126) CG-5.1 THU THU Goede, de EG-5.2 Umberto CH-9.3 ...... Giovannini, . . De . . Frédérique . . Fornel, . . de Anne Beurs, de Carlos Joao Carvalho, Aquino de el us,Seao.....C-. O (p38) MON CH-1.5 . . . . . Stefano (p39), Russo, MON Dello EH-1.4 . . . . (p80), Giuseppe TUE Valle, CD-P.42 Della . . . . . Alberto Torre, (p59), TUE Della CD-3.3 ...... Pascal . (p71) . Del’Haye, TUE Martina . CF-3.3 . . . Delgado-Pinar, . . (p68) . . . . TUE . . . . . CJ-2.1 . . . . (p114) . . . Teresa . THU . . . . Delgado, . JSI-3.5 ...... Xavier . . . . . Délen, . . . . . Hugo . . Delahaye, . Javier . . Pino, . . del ...... Jesus Hoyo, del ∙ (p137) THU EE-4.4 (p172) FRI EG-P.12 (p114), THU CH-8.4 (p100) WED CH-7.5 (p75) TUE EB-5.4 (p156) FRI CL-4.4 (p163) FRI CG-7.4 ∙ (p102) WED CC-P.12 E43TU(p135) THU EE-4.3 ∙ (p123) THU EF-6.6 (p72), (p111), TUE THU ED-4.3 EF-5.2 (p64), TUE CD-4.2 (p104) WED CE-P.8 (p173) FRI CM-P.1 (p123) THU EF-6.6 (p72), (p111), TUE THU ED-4.3 EF-5.2 (p64), TUE CD-4.2 H1. R (p156) FRI CH-11.4 (p122) THU CF-7.6 D93TU(p132) THU CD-9.3 uhr'Index Authors' 179 ∙ H45TU(p115), THU EH-4.5 ∙ ∙ ∙ ∙ ∙ M93FI(p167), FRI CM-9.3 ∙ ∙ F11MN(p35), MON EF-1.1 D33TE(p59), TUE CD-3.3 AP9MN(p52) MON EA-P.9 C22TE(p58), TUE CC-2.2 E44TE(p75), TUE CE-4.4 H41TE(p63) TUE CH-4.1 eihl lve H15MN(p41) MON . EH-1.5 ...... (p55) . MON . Vladimir . (p151) EJ-P.7 . . Demidov, . FRI . . . Olivier EI-4.5 . . . . (p53) . . Demichel, . . MON . . EA-P.14 Guillaume . . . . Demésy, . . (p174), Ioanna . . FRI . . CM-P.17 Demeridou, . . . Aymeric . . . Delteil, . . . . (p126), . . THU . . (p85) CE-10.4 Paul WED . . Delrot, . . .EC-4.3 ...... Eugenio . . . DelRe, Pierre. Delplace, iFac,Cni C83FI(p161) FRI CC-8.3 ...... Alessandra . . . Gaspare, . . Di Cinzia Franco, (p82), di WED (p37) CC-4.1 MON . . . CM-1.2 . . . (p89), . . . . WED . . Sukhdeep . CE-6.1 . . . . Dhillon, . . . . Jean-Luc . . Déziel, ...... (p163) . . . Lev . FRI . . . . Deych, . CG-7.5 ...... Amrita . . . . Dey, . . . Adrien . . (p87), Devolder, WED Michele EC-4.6 . . Devetta, . . . . (p129), . . THU Chiara CD-8.4 . . Devescovi, ...... Fabrice Devaux, . . . . (p107), . WED EH-P.5 Louisiane (p142) . . THU Devaud, (p68) . . CJ-P.2 TUE . . . . . CG-4.1 ...... (p153) . . Hermann . . FRI . . . Detz, . CK-8.1 . Bruno ...... Desruelle, . . . . Victor . . Despré, . (p74) Michel TUE Despont, MicheleEA-2.2 Desouter-Lecomte, Maxime (p47) MON EI-1.4 Desjardins-Carriere, . . . . . Agnès . (p174) . (p112) . FRI . THU . CM-P.15 . Desfarges-Berthelemot, . . JSI-3.3 . . Felix . . . . (p47) . . Deschler, . . MON . Tomas . CH-2.5 . . . Dervinskas, A. . . . Sina . . Dereshgi, . Juan (p95), Ruano, WED Deop EF-3.6 . (p49) . . MON . . CA-P.16 ...... (p50) . . . MON . (p153) . CB-P.8 . FRI . Cornelia . . . . CK-8.1 . Denz, . . . . . (p139) . Boris . . . THU . . Denker, . . . PD-2.5 . . (p102) . Dmitry . . . WED . . Denisov, . (p160) . CC-P.16 . . FRI (p123) . . Séverine . . THU . EH-6.3 . Denis, . . . . . CK-5.3 . . . . . Yaohao ...... Deng, ...... Sophie . . . . . Deng, (p147), . . FRI . Junhong . CM-7.2 . . Deng, . . . . . Jie . . Deng, ...... (p168) . . FRI . Chun . CH-P.2 . Deng, . . Pierre...... Demongodin, . . . . Yasemin . . Demirhan, Ece. Figen Demirer, G Demirel, (p52), MON EA-P.11 . . (p66), . . TUE . . . CA-3.3 . Ayhan . . . Demircan, ...... Umit Demirbas, MP2 R (p175) FRI CM-P.26 (p162) FRI CD-11.4 C86FI(p165) FRI CC-8.6 (p150), (p147), FRI FRI CC-6.4 EG-7.2 (p84), WED CC-4.3 (p144) THU CK-P.9 ∙ ∙ ∙ (p170) FRI CH-P.22 (p157), FRI CC-7.5 (p134) THU CJ-6.5 (p163) FRI JSIV-4.4 (p123) THU EC-5.5 (p107), WED EC-P.22 (p107), WED EC-P.20 (p167) FRI CM-9.2 (p169) FRI CF-10.5 (p153), (p169), FRI FRI EG-7.6 CM-9.4 (p140), (p151), THU FRI CG-P.8 (p134), EF-8.5 (p131), THU THU CD-9.5 CB-9.1 (p102), (p129), WED THU CC-P.4 EE-3.2 (p72), TUE CD-5.4 ∙ CP1 E (p106) WED EC-P.11 (p148) FRI EA-7.4 (p172) FRI EG-P.1 (p95) WED CA-6.5 (p86), WED CF-4.5 ö hn...... C-.8TU(p143) THU CJ-P.18 ...... khan ∙ C71FI(p153) FRI CC-7.1 ∙ ∙ H1. R (p168), FRI CH-13.5 ∙ ∙ ∙ EP7WD(p104) WED CE-P.7 DP4 U (p80) TUE CD-P.42 EP9TU(p141) THU EE-P.9 C83FI(p161), FRI CC-8.3 ∙ ∙ A22TE(p74) TUE EA-2.2 I55FI(p169) FRI CI-5.5 og uzu B62WD(p91) WED EB-6.2 ...... Huazhuo . . Dong, . . . . . Bozhang . . Dong, . . Johanna . . . Dominik, Renato (p113), THU Domeneguetti, EH-4.3 ...... (p30), . . MON . . . CG-1.3 Péter . . (p82) . Dombi, . WED . (p86) . CC-4.1 WED . . . . (p171) CC-4.5 . Luca . . FRI . . Gian . . CH-P.26 . . Dolso, ...... Timophey . . . . . Dolmatov, . . . (p107) Daniel . . WED . Dolfi, EH-P.5 . (p144) . THU . Martin . CK-P.10 Dold, . Cem . . Ismail . . (p39), . Doganlar, . MON . Torsten EG-1.3 . Doehler, . . . (p146) . (p46) . FRI . MON . CC-6.1 . CL-1.3 Michael . . . . Doderer, . . . . Guillaume . . (p48), . Docournou, . MON Denitsa CA-P.9 . . Docheva, . . (p70) . . TUE . . . . CD-5.2 . Anton ...... Dobrynin, . . Dominik ...... Dobrakowski, . (p67) . (p82) . Hwan TUE . WED . In . EH-3.4 CC-4.1 Do, . . Nikita ...... Dmitriev, . . . Alexandre . . . Dmitriev, . (p92), Bruno WED CM-2.5 Dlubak, . . . . . Djorovi ...... Gligor Djogo, ...... (p139), Clément. THU Dixneuf, .CG-P.2 . . . (p123) . . THU . (p122) . EB-8.5 . THU . . . . . CB-7.3 . (p60) . . . . TUE Gopal...... CC-2.4 Dixit, . . (p70) . . . . TUE Christoph ...... CG-4.2 Dittel, ...... Pierre . . . . . Disseix, N. . . . Dmitry . (p66) (p130) . Dirin, . TUE THU . Xiaoyan ED-3.4 EC-6.1 . . . . Ding, . . . . Evangelos ...... Dimopoulos, . . . . Alex . (p55), . . Dikopoltsev, MON van EJ-P.5 . Luuk . . Dijk, . (p83), . . WED . . . CD-6.1 M. . (p136) . Marc . THU . Dignam, . CK-6.6 ...... Antonio . . . Díez, . Barbara Dietz, Markus (p113) (p60) THU Christian TUE CE-8.4 EA-1.5 Dietrich, . (p73), . Andrea . TUE . . CE-4.3 B. Diego-Rucabado, . . Karsten . . . Dideriksen, . . . . (p133), . . THU . CL-3.2 Francesc . . Díaz, . . (p33), . . MON . . EB-1.3 . Alberto . . Diaspro, . . (p162) . (p67) . FRI . TUE . CD-11.4 . . .CH-4.5 Eleni . . (p122) . . THU Diamanti, . Zacharias. . CF-7.5 , ...... Diamantakis . . (p30), Paolo . MON . Porto, . Di CG-1.3 Vittorio . . . Pietro, . . Di . . . . (p126), . THU Nicola Palo, .CE-10.4 . Di ...... Fabrizio. (p129) . . Mei, THU . Di EF-7.4 Marco . . Liberto, . . (p157) Di . Giovanni FRI . . . CC-7.4 Giuseppe, . . . . Di . Valerio . . Giulio, . . Di Luciana Gaspare, Di F1. R p6) GP4FI(p172), (p175) FRI FRI EG-P.4 CM-P.25 (p167), FRI CF-10.2 (p139) THU CG-P.1 ∙ (p49) MON CA-P.17 (p173) FRI CM-P.7 (p98), WED CM-3.4 (p101) WED CA-7.6 (p140) THU CG-P.16 (p140), THU CG-P.13 (p140), THU CG-P.12 (p99) WED (p163) EI-3.5 FRI CH-12.5 (p122), THU CD-7.5 (p28) MON CF-1.2 (p120) THU CA-9.4 (p86), WED CA-5.5 (p166) FRI CH-13.2 (p58) TUE EB-3.2 (p54), MON EB-P.20 (p139) THU CG-P.1 (p162) FRI CD-11.4 G73FI(p149) FRI EG-7.3 ć lka...... Aleksa , ∙ ∙ ∙ ∙ ∙ DP2 U (p79), TUE CD-P.24 ∙ K52TU(p123) THU CK-5.2 H46TU(p115) THU EH-4.6 ∙ B65TU(p114) THU CB-6.5 F55TU(p115) THU EF-5.5 B12MN(p30) MON CB-1.2 ∙ A63WD(p93) WED CA-6.3 ∙ ∙ D44TE(p74) TUE ED-4.4 C33TE(p73) TUE EC-3.3 B41TE(p63) TUE EB-4.1
Authors' Index Authors' Index uly onM...... E-. O (p44), MON (p88) EJ-1.2 . WED . . CJ-4.1 ...... (p168) . . . . FRI . . . . M CH-13.6 . . . John . . . . Dudley, . . . . . John . . . Dudley, (p50), . MON Angela CB-P.8 . Dudley, . . . . . (p128), . THU Vladislav CF-8.5 . Dudelev, . . (p149) . . FRI . (p33), . MON CM-7.4 . Katharina . .EB-1.3 . . . Dudde, . . Guillaume . . . Duchateau, ...... (p104) . . Sara. WED (p153) . . CF-P.17 Ducci, FRI . . . Romain CK-8.1 ...... Dubroeucq, . . . Giedrius . . (p78), . Dubosas, . TUE Olivier CD-P.2 . . Dubochet, . . . (p31), . . MON . . .JSI-1.3 Audrius . . . (p81) Dubietis, . (p138) TUE . . THU (p97) ED-P.5 . . . WED . PD-2.3 ...... EI-3.2 . . Yonatan...... Dubi, ...... Frédéric ...... Du-Burck, . . . Qingyang . . Du, . . Mingde Du, u egi...... (p85) . . WED . . EG-2.3 ...... Mengqi . I. Du, Sergey Druzhinin, rzii,Pt ...... (p72), . . TUE . . CA-4.3 Petr . . . . Druzhinin, . . (p75), . . TUE . . CC-3.5 . Frédéric . . . Druon, ...... (p108) . . WED . JSI-P.2 . . Jakub . . (p107), Drs, . (p74) WED TUE Emmanuel EC-P.20 . CG-4.5 Drouard, ...... Ramon . . Droop, . . (p103), (p50) . Taran WED MON CF-P.6 Driver, CB-P.3 ...... (p158) . . . Rokas FRI . . . CF-9.6 Drevinskas, (p37) . . . . MON . Morten . EH-1.2 . (p51) Drees, . . . MON . Wolfgang . CB-P.17 . . . Draxinger, . (p122) . Jakub THU . . . CB-7.3 Dranczewski, . . . Anna . . . Dragunova, Laetitia (p114), THU Doyennette, CG-5.4 . . . Guillaume Dovillaire, ovdo,Mr H34TE(p59), TUE (p155) FRI CH-3.4 . . CK-8.2 . (p74) . . . . TUE . . . . CG-4.5 ...... Mark ...... Douvidzon, . . . . Florent . . . Doutre, . . Gilles Doumy, omi,Yy . (p144) . . THU . CK-P.6 ...... Yaya . . . Doumbia, . Spyros Doukas, (p71), TUE CE-4.2 ...... Jean-Louis Doualan, ot ee...... E-. O (p31) MON EC-1.2 ...... Alexander . . . (p62) Dostovalov, . . . TUE . . Rene CA-3.1 . (p113) . . . Dost, THU . . . CE-8.4 . Jean-Baptiste . . . . Dory, . . . . (p48) Christophe . . MON Dorrer, . CA-P.5 . (p48) Dominik (p138) . . MON THU Dorosz, E. CA-P.6 . PD-1.1 Maxim ...... Doroshenko, . . (p116) . . Maxim THU . . . CF-7.1 Doroshenko, ...... James (p137) . . . . THU . . Doogan, . . CL-3.5 . Aleksandr . . . . . Donodin, ...... Yibo . . . Dong, . Jonathan Dong, E14TE(6) E15TE(p60), TUE EE-1.5 (p60), TUE EE-1.4 (p92) WED CB-4.5 (p157) FRI EE-5.4 (p101) WED EB-7.6 (p78) TUE CD-P.14 (p172) FRI EG-P.7 (p115), THU EG-5.4 (p126) THU CH-9.3 DP3 U (p79) TUE CD-P.30 (p152) FRI CF-9.1 (p84), WED CF-4.3 ∙ (p126) THU CF-8.3 (p122) THU CF-7.6 (p168) FRI CK-10.6 (p144), THU CK-P.9 ∙ ∙ E45TE(7) A53WD(p84), (p84) WED WED CA-5.3 CA-5.4 (p77), TUE CE-4.5 (p174) FRI CM-P.19 C55TU(p123) THU EC-5.5 (p140), THU CG-P.20 G34WD(p92), WED EG-3.4 ∙ A71WD(p95), WED CA-7.1 ∙ E61WD(p89), WED CE-6.1 ∙ ∙ M43TU(p112) THU CM-4.3 ∙ ∙ ∙ J66TU(p136), THU CJ-6.6 IP6WD(p108) WED EI-P.6 ∙ H52TE(p71), TUE CH-5.2 BP5MN(p50) MON CB-P.5 ∙ DP5TE(p78) TUE CD-P.5 DP1TE(p80) TUE ED-P.1 iea jl DP2 U (p79), TUE CD-P.28 ...... (p47), . . MON . . EB-2.5 . Kjeld . . (p36), Eikema, . . MON . . CJ-1.2 ...... Christof . . Eigner, . (p58), . . TUE . . EB-3.3 . . . (p136) . . . THU Tino . . CJ-6.6 Eidam, . . . . (p130) . . . (p66) THU . . . . TUE . . EC-6.1 . . EI-2.5 . Max ...... Ehrhardt, ...... Olga . . . . . Egorova, . . A. . (p50), . Oleg . MON . Egorov, . CB-P.8 . . (p149) . Oleg . FRI . Egorov, . EG-7.4 . . . (p134) . . . . (p56) THU . . . TUE . . .CD-9.4 . Anton . EE-1.2 . . . . Egorov, . . . . Mustafa . . (p167), . . . FRI . Eginligil, . K. . CI-5.3 . . (p94) . Dmitri . . . WED Efetov, . . H. CE-7.1 . . . James . . . . Edgar, ...... Iain . . Eddie, . . . Goki Eda, (p53) N. (p106) MON WED EB-P.8 Eleftherios (p113) . EC-P.13 . . THU . Economou, . . EG-5.2 Eleftherios ...... Economou, . . . . Bruno . . (p156) . Eckmann, FRI . (p118) THU Aurore CD-10.4 . . CD-7.3 Ecarnot, . . Majid . . . . Ebrahim-Zadeh, (p98) M. WED CB-5.3 Ebrahim-Zadeh, . . . . . Heike . . . . . Ebendorff-Heidepriem, . Timothy Eales, E (p104), WED CE-P.5 . . . (p115) . . THU . . CK-4.5 (p116) . (p66) . . THU . TUE . Olga . CD-7.1 EI-2.5 ...... Dymshits, ...... Sarvagya . . . . . Dwivedi, . . (p40) . . MON Sophie . (p122) . CH-1.6 . Duzellier, THU . . (p36) . . MON . CF-7.6 Marco . . . . CJ-1.3 Dusel, ...... Sébastien . . . . . Dusanter, G. . . Charles . . . . Durfee, . . . . . Anne . . Durécu, . . Vicente Durán, un,No yHn . Hanh My Ngoc Duong, u,Lmet H15MN(p41) MON . EH-1.5 ...... (p86), . Marti . WED . . CA-5.5 Duocastella, . . . . . Lamberto . (p40) . Duo, . MON . . . CH-1.6 . . . . . (p105) . Elena . WED (p175) . . Dunina, FRI CE-P.12 . . Marius CM-P.31 . . . E. Duncianu, . . . Elizaveta . . . Dunaeva, . . . Frédéric . . Dumur, . Jérémy (p41) Dumoulin, MON (p36) CM-1.5 MON . F. . CE-2.2 . . . Frédéric ...... Dumas-Bouchiat, . . . . (p33) Virginie . MON . Dumas, . . JSV-1.4 (p74), . Derek . TUE . . Dumas, EA-2.2 . Janice . . . . Dulieu-Barton, . . . (p104) . (p108) . WED WED . . CE-P.7 EH-P.9 . . Olivier . . . (p114) . . Dulieu, THU . . Konstantin . CB-6.4 . . . . Dukelskii, . . . . . Erik . . . Dujardin, A Dominic Duffy, uzk reoz...... Grzegorz . . . Dudzik, . Nirit Dudovich, H93TU(p126) THU CH-9.3 (p123) THU EA-5.6 (p121), THU EA-5.4 (p139) THU CG-P.7 (p59), TUE CF-2.2 (p64), TUE EC-2.2 (p92) WED CB-4.5 (p167) FRI CI-5.4 (p153), (p164) FRI FRI EH-5.1 EH-6.6 (p144), THU CK-P.13 (p78), TUE CD-P.8 (p118) THU CA-9.3 M53TU(16,C-32FI(p166) FRI CH-13.2 (p126), THU CM-5.3 A94TU(p120) THU CA-9.4 (p110) THU JSI-3.2 (p76) TUE EA-2.3 (p168) FRI CH-P.1 (p163), FRI CH-12.4 D51TE(p68) TUE CD-5.1 ∙ ∙ B85TU(p123) THU EB-8.5 E85TU(p115) THU CE-8.5 ∙ H1. H (p132) THU CH-10.3 ∙ ∙ ∙ ∙ M31WD(p94), WED CM-3.1 D83TU(p127) THU CD-8.3 S-. E (p108) WED JSI-P.2 AP2MN(p48), MON CA-P.2 ∙ L31TE(p56) TUE PL-3.1 rtm eln...... C-. H (p145) THU CL-P.7 . (p68) . . TUE . (p138) . . .CA-4.1 THU . G ...... PD-2.4 Erbert, ...... Nejlan . . . . Eratam, . . . (p71) . Richard. . TUE . . Epstein, EB-5.2 . . Itai. . (p116) . . Epstein, THU . . . CB-7.1 (p134) J . . . . THU . Epping, . . . .CD-9.4 Sebastian ...... Eppelt, ...... Johannes . . . Enslin, . R. . . Dirk . . . Englund, . Dirk Englund, . (p91) . (p68) . WED TUE . . EA-3.3 . CD-5.1 (p155) . . . Nicolas FRI . . . . CK-8.3 . D. Englebert, . . . . Rasmus . . (p111) . . . . THU . Engelsholm, (p103) J. . . EE-2.1 WED Nils . . . CF-P.7 . . . . Engelsen, ...... Nils ...... Engelsen, . . . . (p152), . . Takahiko FRI . . Endo, EA-7.6 . . . . Shun . . Endo, . . . . . (p103), . . WED CF-P.4 Mamoru . . Endo, . . (p130) . . THU . . . .EC-6.1 . Michael . . . Enders, Monika. Emmerling, (p33), MON (p88), ED-1.5 WED . . CF-5.1 ...... Lukas . . . Emmenegger, . . . (p111), . . THU . . CE-8.1 . . Ugaitz . . Elu, ...... Tino . . . Elsmann, . . Omar (p92), Elshehy, (p162) WED FRI CF-5.3 . CK-9.5 Els . . . (p160) . . . FRI . . . . . EH-6.3 . . . (p60) . . Thomas . TUE . . . . . CL-2.5 Elsaesser, ...... Carolyn (p165) . . . . FRI . . Elliott, (p116) . . Tal CG-7.6 THU . . . . CB-7.1 . . Ellenbogen, ...... Caglar ...... Elbuken, . . . Lucas (p66), . . TUE . Eisenbach, .EI-2.5 Sven . . . Einfeldt, . . . (p71), . . TUE . CH-5.2 Falk. . . . Eilenberger, . . . . . S.E. Kjeld Eikema, sah,Amga ...... Armaghan Eshaghi, Luisa . . . Esguerra-Rodriguez, ...... Luisa Esguerra, (p94), WED CF-5.5 ...... Esmerando (p165) FRI Escoto, CG-7.6 . (p154) . . FRI . . (p173) CD-10.3 . J . FRI . . . CM-P.6 . Eschner, ...... Wilhelm . . . . . Eschen, . (p142) . . THU . Evgeniy (p104) . EF-P.16 . WED . Erushin, . . . CE-P.5 . . . Erden . (p152), . . . . Ertorer, FRI . . CL-4.1 . Alexander . . . . Ershov, . . . Sergey . . Eron’ko, ...... Daniel (p115), THU Erni, (p148) EF-5.4 . FRI . . . CC-6.3 ...... Miro . . Erkintalo, Said M. Ergoktas, sai ar ...... Zahra Eslami, F65TU(p123), THU EF-6.5 ∙ (p148) FRI EB-9.3 (p159) FRI EE-5.6 (p125), (p170) THU FRI CB-8.2 CH-P.9 (p34), MON CH-1.1 (p159) FRI EE-5.6 (p103), WED CF-P.4 (p132) THU CJ-6.2 (p94) WED CF-5.5 (p98) WED EG-4.4 (p78), TUE CD-P.8 (p140) THU CG-P.10 SVP2FI(13,JI-. R (p173) FRI JSIV-P.4 (p173), FRI JSIV-P.2 (p55) MON EB-P.29 (p131), THU CB-9.1 ∙ (p128), THU CF-8.5 (p89) WED EB-6.1 (p172) FRI EG-P.3 (p139), THU (p141) THU PD-2.7 EF-P.1 (p119), THU EF-6.2 (p67) TUE CB-2.4 IP4MN(5) I44FI(p158) FRI CI-4.4 (p51), MON CI-P.4 ä F61TU(17,E-. H (p121), THU EF-6.4 (p117), THU EF-6.1 E54FI(17,C-05FI(p169) FRI CF-10.5 (p157), FRI EE-5.4 e,Wlgn J35WD(p99) WED EJ-3.5 ...... Wolfgang ßer, ö ö ü n...... rn uhr'Index Authors' z...... C-. O (p50), MON CB-P.2 ...... tz gn...... B55TE(p77), TUE .EB-5.5 ...... rgen 180 ∙ D27TU(p139) THU PD-2.7 ∙ ∙ D24MN(p45), MON CD-2.4 ∙ ∙ B23MN(p45), MON EB-2.3 ∙ IP1MN(p51), MON CI-P.1 B21MN(p43) MON EB-2.1 ∙ ∙ F34TE(p73), TUE CF-3.4 B35TE(p60) TUE EB-3.5 (p77) TUE EB-5.5 arl,Cr D91TU(p130), THU CD-9.1 (p115) . . THU . . . EE-2.5 ...... (p31) . . . . MON ...... ED-1.2 (p66) . . Carl . . TUE (p98) . . . Farrell, . EI-2.4 WED . . . . . Amr . . CH-7.4 ...... Farrag, ...... Aamir. (p57), . . . . TUE Farooq, . Paulo . CI-1.2 . . Junior, . . . . . Faria . . . Gil . . . Fanjoux, (p102), . . WED . . CC-P.14 ...... (p112) . . (p70) Yuxi . THU TUE . Fang, . . CM-4.3 ED-4.2 ...... Xu . . . . Fang, . . (p86) . . WED Xinyuan . . . . CB-3.5 . Fang, ...... Bess . . . . Fang, . . . . (p79) . . . . TUE . . . . CD-P.22 ...... Zhiwei . . . . Fan, ...... Y. . . . Fan, ...... Weichen . . Fan, ...... Jintao Fan, ...... Ludovica (p43), Falsi, MON (p44) CD-2.1 MON . . CC-1.3 ...... Carsten . . . Fallnich, Moein Fakhari, (p33), MON .ED-1.5 ...... Jérôme. Faist, (p39), MON .EH-1.3 (p139) . . THU . . . .CG-P.1 (p101) . . . WED . . . . . EB-7.6 . . . . . Daniele . . . . Faccio, . . . . Nicola. . . . Fabris, . (p79), Nicolas TUE Fabre, .CD-P.15 ...... Marc. Fabert, F (p104) . . WED . . CE-P.7 ...... Simone . (p85), . WED . Ezendam, . EC-4.3 . Sergey . . . Evstropiev, ...... Clement . . . Evain, . . . . Eliezer . . . Estrecho, (p50) . Adolfo . MON . CA-P.19 . . . Esteban-Martín, ...... Stefan . . Esser, . M.J.Daniel Esser, (p108), WED JSI-P.3 (p50) . . MON . . CB-P.12 ...... Martin . Esmann, (p36), A. MON Maged CH-1.2 Esmail, . Khalil , Jahromi Eslami a,Gagu...... Guangyu Fan, H1. R (p159) FRI CH-12.1 (p143) THU CJ-P.6 (p162) FRI CL-5.5 (p66) TUE CD-4.4 (p28) MON CF-1.2 (p87), (p156) WED FRI CD-6.5 CD-10.5 (p61), TUE CH-3.5 (p159), (p163) FRI FRI CC-8.1 (p157), CC-8.5 (p159), FRI FRI CC-7.4 (p155), CC-7.6 (p155), FRI FRI CC-7.2 (p125), CC-7.3 (p127), THU THU CB-8.2 CB-8.4 (p102), (p125), WED THU CC-P.13 CB-8.1 (p101), (p102), WED WED EA-4.5 CC-P.3 (p94), (p88), WED WED CB-4.6 EG-3.1 (p81), (p90), TUE WED ED-P.3 CB-4.2 (p60), (p76), TUE TUE CC-2.3 ED-4.5 (p42), MON (p159) ED-2.1 FRI JSIV-4.1 (p156), (p126), FRI THU CH-11.4 JS.3 ECBO + CL (p89), (p99), WED WED EF-3.1 EB-7.4 (p58), TUE CL-2.2 (p158) FRI CM-8.6 (p83), (p85), WED WED CJ-3.1 CJ-3.2 (p80), TUE CD-P.40 (p106) WED EC-P.5 (p152) FRI JSI-4.5 (p110), THU JSI-3.1 ∙ (p108), WED JSI-P.4 (p170) FRI CH-P.15 (p85) WED CJ-3.3 D92TU(p132), THU CD-9.2 ∙ A51TU(p117), THU EA-5.1 D1. R (p162) FRI CD-11.4 ∙ ∙ ∙ E1. H (p126), THU CE-10.4 ∙ G64FI(p148) FRI CG-6.4 C62TU(p132), THU EC-6.2 ∙ H75WD(p100) WED CH-7.5 ∙ ∙ ∙ G55TU(p115) THU EG-5.5 F11MN(p28), MON CF-1.1 ∙ C14MN(p33) MON EC-1.4 A64WD(p93) WED CA-6.4 ∙ F32TE(p71), TUE CF-3.2 J25TE(p61), TUE EJ-2.5 er-ln ore E22MN(p36) MON CE-2.2 ...... Lourdes . . (p44) . . Ferre-Llin, MON . . (p161) JSV-2.2 . FRI ...... CC-8.3 . . . . Mario . . . . . Ferraro, . . . Maurizio . . Ferrari, C. Andrea Ferrari, R. (p173) Carlos FRI CM-P.1 (p97) . Fernández-Pousa, . WED Ivan . . EI-3.2 . . . (p63) . Fernandez-Corbaton, . . TUE . Paloma . . .CH-4.1 . Fernandez, A. . . Henry . . . Fernandez, . Estrella Fernández, Mauro (p129), THU Pereira, CJ-5.4 . Fernandes (p144) . . THU . . CK-P.8 . . . E. . (p158), . Martin . FRI . . Fermann, CL-5.1 . . Halvor . . . Fergestad, . (p113) . THU . . (p139) . EE-2.3 . THU (p92) . . . CG-P.5 WED . Boris . . . CJ-4.4 . . . . Ferdman, . . . . . Clement . . (p62) . . . . TUE Ferchaud, . . . CA-3.1 . Thomas . . (p69) (p142) . . . . Fennel, TUE THU . . . . CJ-P.2 . EH-3.5 . Yutong ...... Feng, ...... Chengyong . . . . Feng, . . . . (p138) . . . Chen-Hao THU . . . . . Feng, . PD-1.3 ...... Elena . . . . Feltri, . . . Jakob . . . Fellinger, (p141), (p93) . THU WED Corinne EE-P.9 EF-3.4 . Felix, ...... (p96), . . . WED . Jochen . EG-4.2 . . (p50) . Feldmann, . . MON . Sarit . CB-P.3 . . . Feldman, ...... (p74) . . . . TUE . . . . CG-4.5 . . (p139) . Armin . . . THU . . Feist, . . . PD-2.5 . . . David . . . . (p75) Feise, . . . TUE . . Raymund . CH-5.4 . . . Feifel, . . . . . Shao-Ming . Fei, A. (p129), Andrey THU Fedyanin, JSIV-1.5 ...... Andrey . (p157) . . . FRI . Fedyanin, . . . (p67) . EH-5.5 Olga . TUE . . . . . Fedotova, EH-3.3 . . . . . Anna . . . . (p174) . . Fedotova, . FRI A. . . CM-P.23 Vassili . . (p174) . . . Fedotov, . FRI . . . CM-P.22 Vassili . . . . . Fedotov, (p33) S. . . MON . Sergey . . JSII-1.4 Fedotov, . . . . . Sergey . (p45), . Fedotov, . MON Alexander EI-1.3 . Fedotov, . . . . . (p51), . . MON Yuriy CI-P.2 . . (p170) Fedoryshyn, . . FRI . . CH-P.23 ...... Mikhail . . . Fedoruk, . Michael (p102), Fedoruk, WED (p104) CC-P.10 WED Yu. CE-P.3 . . Vladimir . , . . (p34), . Fedorov (p83) . MON WED Vladimir CK-2.1 . EC-4.1 Fedorov, . . (p46) . . . . MON . . . . . CL-1.2 ...... Jean-Marc . . . . . Fedeli, . . . (p115) . Rosario . THU . . Fazio, EE-2.5 . . . . Marc . . Faucon, (p101), Abdul-Hamid WED Fattah, EF-4.6 ...... (p61) . . TUE . . CI-1.5 . Julien . . Fatome, Taghi (p65), . TUE Mohammad . CH-4.2 Fathi, . . Anastasios . . (p40) . Fasoulakis, MON . . . . . CE-2.5 ...... Maria ...... Farsari, . . . . Pau . . Farrera, . . . Ian Farrer, ∙ (p132) THU CH-10.3 ∙ (p155) FRI CJ-8.2 (p170) FRI CH-P.6 (p170) FRI CH-P.23 (p147), FRI EG-7.1 (p175) FRI CM-P.32 (p156), FRI CL-4.5 (p165) FRI CI-5.1 (p149), FRI EG-7.3 (p87) WED CI-2.5 (p51), MON CI-P.6 (p130) THU CM-6.1 (p132) THU CD-9.3 (p80), TUE CD-P.42 (p139), THU PD-2.7 ∙ (p115), THU EF-5.4 (p175) FRI CM-P.31 (p175), FRI CM-P.27 I43FI(p156) FRI CI-4.3 (p102) WED CC-P.7 (p141) THU EF-P.1 ∙ G75FI(p151) FRI EG-7.5 ∙ ∙ ∙ D81TU(p125) THU CD-8.1 ∙ ∙ D29TU(p139) THU PD-2.9 SI14MN(p33) MON JSII-1.4 G15MN(p41) MON EG-1.5 ∙ F44WD(p99), WED EF-4.4 ∙ K31TE(p56) TUE CK-3.1 F93FI(p154) FRI CF-9.3 lrs oe...... (p31) . . MON . . EB-1.2 ...... Jose . . . Flores, (p103), . WED Alasdair CF-P.14 . Fletcher, ...... Roland Flender, lte sei ...... (p39) . . (p162) MON M. FRI .CG-2.3 Assegid . CD-11.4 Flatae, . the. . . team, . . FLASH2020+ Mariano Flammini, jdrw ee ...... (p87), . . WED Peter .EG-2.5 Fjodorow, . . . . M.. Jamie Fitzgerald, ice,Ptr...... R . . . Christopher (p54), . . MON . Fitch, . EB-P.13 . Peter . . . Fischer, ...... (p75), . TUE Julius CC-3.5 Fischer, . (p51) . . MON . . CB-P.20 . . . . (p113) . . . (p29) THU . . . . MON . . CK-4.2 . . JSI-1.1 . . Julian ...... Fischer, ...... Ingo . . . . . Fischer, . . . (p38), . . Anna MON . . . Fischer, CE-2.4 . . . . Sara . . . Fiore, ...... (p60), Andrea TUE Fiore, (p64) EE-1.4 . TUE . . EI-2.3 (p165) . . . . FRI . . . . . CI-5.1 ...... Christophe . . . . . Finot, . . . . . (p41), Jonathan . MON . Finley, . . EH-1.5 . Antoine . . . Finck, (p41), . . MON . . . CG-2.5 . . . . . Marco . . . . . Finazzi, ...... (p143) . . . . THU . . . CJ-P.19 Zoltán . . . (p93) . . Filus, . . WED . . . Ernst . .CE-6.5 . . . Fill, . . . . Valery . . . Filippov, (p32), George. MON CK-1.4 Filippidis, . (p119), . . THU . . EB-8.2 . . . . Adam . . . . Filipkowski, ...... Radim . Filip, . . . . . A. . . . Serafima . . (p102), . Filatova, WED Serafima .CC-P.8 . Filatova, ...... Jose. Figueiredo, Carla (p44) Faria, MON Morisson JSII-2.3 de . . . Figueira . . . Gon . . . Figueira, W. (p47), Robert MON Field, CH-2.5 . (p111) . THU . . . CE-8.2 ...... Robert . . Fickler, . . Mateusz Ficek, ish,Ncoo ...... Niccolo. (p68), TUE Fiaschi, .CJ-2.1 ...... Sébastien. . . . Février, F. Gilles (p44), (p71) MON Feutmba, TUE JSII-2.2 . EB-5.2 . . (p70) . . . . TUE . . . . ED-4.2 ...... Thomas . . (p146) . . Feurer, . FRI . . . Florian EB-9.1 . (p146) . . . FRI . Fertig, . . . EA-7.1 . Alban . (p126) . . . THU . Ferrier, . . . CH-9.4 Christopher . . . . Ferrie, . . . Alessandro . (p82), . Ferreri, WED Rodrigo CC-4.1 . . Ferreira, ...... Robson Ferreira, MP1 R (p174) FRI CM-P.12 A34WD(p93) WED EA-3.4 B43TE(6) B44TE(p67) TUE EB-4.4 (p65), TUE EB-4.3 (p152) FRI CF-9.1 ∙ (p61) TUE CH-3.6 (p145) THU CK-P.19 (p88), (p142), WED THU CJ-4.1 EF-P.9 (p79), TUE CD-P.18 (p160) FRI CD-11.2 (p163) FRI CG-7.4 (p73), TUE CF-3.4 (p138) THU PD-2.1 (p145) THU CL-P.2 (p109) WED JSI-P.6 (p140) THU CG-P.18 (p140), THU CG-P.14 (p166) FRI CH-13.4 ∙ J31WD(8) J32WD(p85), (p158) WED FRI CJ-3.2 CM-8.6 (p83), WED CJ-3.1 (p105) WED JSII-P.1 (p45), (p70), MON TUE CH-2.3 CD-5.2 (p46), MON JSII-2.4 (p147) FRI EG-7.2 (p84), WED CC-4.3 F43WD(8) A71WD(p95), WED CA-7.1 (p84), WED CF-4.3 (p152), FRI EB-9.6 (p95), WED EB-7.1 ç l FP8WD(p103) WED CF-P.8 ...... alo ∙ E82TU(p111) THU CE-8.2 ∙ ∙ ∙ ∙ ∙ ∙ ∙ D19TU(p138) THU PD-1.9 D1. R (p164) FRI CD-11.5 FP2WD(p103) WED CF-P.2 B64TU(p114) THU CB-6.4 E25TU(p115) THU EE-2.5 ∙ ∙ A56WD(p86) WED CA-5.6 JP8TU(p143) THU CJ-P.8 ∙ G62FI(p146) FRI CG-6.2 H46TE(p69) TUE CH-4.6 J26TE(p76), TUE CJ-2.6 rel,Lc...... C-04FI(p169), FRI CF-10.4 ...... (p33), . . MON . JSV-1.5 Luc . . Froehly, ...... Kristina Frizyuk, rtc,Kla F41WD(p82), . WED . . . CF-4.1 . . (p103) Alexander . WED . . Fritzsche, . .CF-P.8 ...... Kilian . . . Fritsch, Kilian Fristch, red ihr ...... E-. O (p47) MON . . EI-1.4 ...... Martin . . Frimmer, (p163) H. FRI Richard CG-7.5 Friend, . . (p156) . . FRI . . CI-4.3 ...... J . . . . Fricke, . . Aldo . (p66), . . TUE . Frezzotti, . .CA-3.4 Fabrizio . (p66), . . Frezza, TUE . . CA-3.4 ...... (p53) Valerian. . . MON . Freysz, EB-P.3 . . . . . (p110) . . . . THU . . . . (p150) . CH-8.1 Eric . . FRI . . . Freysz, . . . CC-6.4 . . Peter . . . (p61), . . Freiwang, . TUE . . . Stephan CF-2.5 . . . . . Freitag, . . . (p112) . Joshua . THU . Freeman, . . .JSI-3.3 ...... Maik . . . Frede, (p82), Ilaria. WED CC-4.2 Fratoddi, . . . . (p110), . . THU Andrea CG-5.1 . (p74) . Fratalocchi, . TUE . . CG-4.5 ...... Fabio ...... Frassetto, . . . Leszek . . . Fransinski, . Milan Frank, rn,Agln...... (p94), . . WED . CB-4.6 Angelina. . . Frank, ...... Martin Franckié, rnh,Rcad...... (p101) . . WED . . EB-7.6 . . Riccardo. . . Franchi, . Saverio Francesconi, (p64) TUE EI-2.3 . . . (p39) . . . MON Fl . Camilo . CM-1.3 . . Baron, . . . . . Florian . . . . Matthias . . . Florian, . Camilo Florian, Iván Sergio Esparza, Flores Teresa Maria Flores-Arias, rgeai,Fts ...... Fotis. Fraggelakis, F (p100) (p166) WED FRI CE-7.6 CH-13.3 ...... (p170) . . . . FRI . . F . . CH-P.23 . . . . Michael . . . . Fokine, . . . Ka . . Hiu . . Fok, . Lucas Fochler, otr,Mcal...... C-22FI(p161) FRI . CH-12.2 ...... Clarisse . . . . . Fournier, . . Michael . , . . . . Foster . . . . . Andrew . . Foster, . . Vincent Fortin, . . (p78) . . TUE . . CD-P.9 . (p122) . . THU ...... CF-7.5 . . . . Andres . . . . Forrer, . . . . Siamak (p110) . . THU Forouhar, . . .JSI-3.2 Nicolas (p65) . . TUE (p135), Forget, Ivan. THU CB-2.2 . . JSIV-2.4 . . Forero-Sandoval, ...... (p78) . . . . TUE . . . . CD-P.5 . Andrew ...... Forbes, . . . . . Fatt . . Foong, . . Yana Fomicheva, (p31), MON ED-1.3 . Aleksandra Foltynowicz, ö ö ö MP3FI(p173) FRI (p162) CM-P.3 FRI CD-11.3 (p36), MON CD-1.2 FP3WD(13,C-. R (p156) FRI CF-9.4 (p103), WED CF-P.3 B24TE(6) B26TE(p69) TUE CB-2.6 (p67), TUE CB-2.4 ∙ (p68) TUE CA-3.5 (p120) THU CF-7.4 (p167) FRI JSIV-5.2 (p105), WED CE-P.14 (p139) THU CG-P.1 CP1 E p0) C73FI(p155) FRI CC-7.3 (p102), WED CC-P.13 ∙ ∙ (p145) THU CL-P.4 (p145), THU CL-P.3 B46WD(p94), WED CB-4.6 H1. R (p168) FRI CH-13.6 (p62), (p134) TUE THU ED-3.1 CH-10.5 (p33), MON ED-1.4 se,Rny...... JV12MN(p31) MON JSV-1.2 ...... Ronny rster, ds aá...... G53TU(p113) THU .EG-5.3 ...... Tamás. ldes, A35TE(p68) TUE CA-3.5 C63TU(p134) THU EC-6.3 K72FI(p147) FRI CK-7.2 y ois...... C-. E (p84) WED CC-4.4 ...... Tobias ry, ö g...... C-. O (p50), MON CB-P.2 ...... rg ∙ C81FI(p159) FRI CC-8.1 ∙ ∙ ∙ ∙ ∙ ∙ ∙ ∙ M52TU(p124) THU CM-5.2 AP1 O (p49) MON CA-P.11 AP1 O (p49) MON CA-P.12 AP1 O (p53) MON EA-P.14 DP2 U (p79), TUE CD-P.25 CP6WD(p106) WED EC-P.6 ∙ D28TU(p139) THU PD-2.8 M12MN(p37) MON CM-1.2 ∙ ∙ C12MN(p31) MON EC-1.2 E71WD(p94) WED CE-7.1 DP3TE(p81), TUE ED-P.3 aln,Ncls...... E-. U (p70) . TUE . . ED-4.2 ...... Francesca . . . . Gallazzi, (p90), (p69) . WED TUE Nicolas EG-3.2 CE-3.6 Galland, ...... (p144) . . THU . . . Christophe .CK-P.12 . . . . Galland, . . . . Laurent . (p37), . Gallais, . MON (p124) Michael. EH-1.2 THU . . Galili, . CE-10.2 . . (p49) . . . . MON . . . . CA-P.16 . . Emanuele . . . . . (p127) . Galiffi, . . . THU . . Elodie CB-8.3 . . . Galdo, . . . Boris . . . Galagan, . Quentin Gaimard, (p34), MON Gailevi CJ-1.1 . (p78) . . TUE . . CD-P.5 . . . . . (p167) . . . . FRI . (p140) . Christian CI-5.3 . THU . . . Gaida, . CG-P.20 . . . . . Sergey . . . . . Gagarskiy, Di . . . Eugenio (p104) . . WED Gaetano, . CF-P.16 . Raanan Gad, Johann Meyer, Gabriel (p103) (p67) WED TUE .CF-P.12 . EH-3.4 . . . . . (p85) . . . . G WED . . . EC-4.4 . Thomas. . . . . Gabler, . . . Alessio . . . Gabbani, Maia Vergniory, G. (p99) WED EF-4.5 . . G ...... (p119), . . THU . EB-8.2 Adrien . . Fusaro, . . (p130) . . THU . . CJ-6.1 . . . Akira . . . Furusawa, (p167), . . FRI . . . CM-9.3 F . . . . David (p80) . . TUE . Furniss, . CD-P.35 . . (p119) . . . THU ...... EB-8.2 . . Luca . . . . Furfaro, . . . . . (p164) . Ludovic . . FRI . . Fulop, . . CJ-9.6 . (p146) . . Kosuke. FRI . . . . Fukui, . . CC-6.1 . . . . . Yutaka . . . . (p28) Fukuchi, . . . MON . Masaki . . CB-1.1 . . . Fukagawa, . . . . . (p61), . Masayuki . . TUE . . . Fujita, . . CI-1.4 . . . . Yasushi . . . . Fujimoto, ...... Takuro (p87), . . WED Fujii, . . CJ-3.5 ...... (p39) . Shun . MON . Fujii, . . EH-1.4 ...... (p108) Takao . . . . WED Fuji, . . . JSI-P.3 . Silvio . . . (p158) . . . Fugattini, FRI . . (p33) (p54) . Pia . MON MON CH-11.5 . . . EB-P.16 JSI-1.5 . . Fuertjes, C...... Maria ...... (p38) . . Fuertes, . . . MON . . Jorge . . . . CJ-1.5 . . . . Fuenzalida, ...... Tino . . . . Fuchs, ...... Lan . . Fu, . Ihsan Fsaifes, adli ac S-. O (p33), MON JSI-1.4 . . (p78), . . TUE . . CD-P.8 ...... (p144) . . Marco THU . CK-P.8 . . . Gandolfi, . (p72) . . . TUE . . (p161) . . . . FRI CG-4.4 . . . . . CG-7.2 . . . . Ziyang ...... Gan, ...... (p164) Katia . . . . FRI . . Gallo, . . CD-12.1 . Lukas ...... Gallmann, . . (p173) . . . M. FRI . . JSIV-P.2 Galli, . . . . Arynn . . . Gallegos, . Guillermo Gallego, (p85), Fr WED CD-6.4 . (p86) . . WED . . CA-5.6 ...... H. . . . Michael . . Frosz, . P. Mikhail Frolov, ü ä ü A31WD(p89), WED EA-3.1 ∙ (p144) THU CK-P.16 (p161) FRI CG-7.3 ∙ ∙ (p148) FRI EB-9.3 (p152), FRI EA-7.6 (p173) FRI CM-P.3 (p169), FRI CF-10.4 (p86) WED CF-4.6 ∙ G44WD(p98) WED EG-4.4 (p126), (p166) THU FRI CF-8.4 CJ-10.2 (p88), WED CF-5.1 s,Lks...... C-. E (p103) WED CF-P.2 ...... Lukas rst, lr oisBernd Tobias bler, H23TE(p61) TUE EH-2.3 (p98), WED CF-6.5 (p36), MON CJ-1.2 (p128) THU JS.4 ECBO + CL (p90) WED CF-5.2 ,Jhne BP1 O (p54) MON EB-P.15 ...... Johannes h, č u,Dru M36WD(p100), WED CM-3.6 . . . . . Darius ius, uhr'Index Authors' 181 ∙ G51TU(p111) THU EG-5.1 ∙ ∙ DP3 U (p80) TUE CD-P.38 F53WD(p92) WED CF-5.3 ∙ ∙ E15TE(p60) TUE EE-1.5 J96FI(p164) FRI CJ-9.6 ars,Kta...... C-. R (p153) FRI CC-7.1 . . . . (p86) . . . . WED . . . . . CC-4.5 . . (p99) . Douglas . . . WED . . . Garratt, . (p87) . EF-4.5 . . WED . Katia . . . . EG-2.6 . . Garrasi, ...... Sergey . . . . Garnov, . . . . Josselin . . Garnier, (p50), (p37) C. MON MON Erik CB-P.4 . .EF-1.2 Garnett, ...... Arnaud . (p115), . . THU Garnache, . EG-5.5 A.. (p95) . . WED Garnache, . . . CE-6.6 . . . (p102) . . . . WED . . Julian CC-P.15 . . . . . Gargiulo, . . . . Roopanshu . . . . Garg, . . . . (p90) . Frederic . WED . Garet, . CB-4.3 . Gabriella . . . Gardosi, . (p87), Alexander WED Gardanow, EC-4.6 . . Maia Vergniory, (p107), Garcia WED EH-P.6 . . . Marina . . (p100) . . Garcia-Pardo, WED Maria CH-7.5 (p90) . . Garcia-Parajo, WED Javier CM-2.2 . . García-Monreal, . Mario (p85), WED Garcia-Lechuga, (p106) EC-4.4 . WED . . EC-P.11 . . . . Aitzol . . García-Etxarri, Mikel Díez, García (p59), TUE .EH-2.2 . . Javier. Abajo, de García Javier F. Abajo, de García asn,Abn...... (p53) . (p162) . MON . FRI EB-P.8 . . . EH-6.5 . . . Alban ...... Gassenq, . (p166) . (p71) Leonardo FRI . . TUE . CH-13.2 . Gasparini, . EB-5.2 . . . . . Matteo . . . . Gaspari, . . . . Francesco . . . . . Garzella, . . . . Robert . . . Garthoff, . Matthew Garrett, (p50) MON . . CB-P.11 Ana (p85) . . . . WED . . . García-Cabrera, CI-2.2 David . . . . . Pedro . . . . . García, . . . (p115), . Michel . THU . Garcia, . EF-5.4 . . Ignacio . . . Garces, . . . (p154), . . (p96) FRI . . WED CL-4.3 . Bruno CE-7.2 . . . Garbin, ...... Marco ...... Garavelli, ...... Weibo . . Gao, . Miftar Ganija, aaa io H45TE(p67) TUE CH-4.5 . . (p37) . . MON . . . CG-2.2 ...... (p124) . . Nikos THU . , . . CE-10.2 . . Gavalas . . . . Julien . . Gautier, . . Antoine (p108), Gautier, WED EI-P.6 . Olivier (p34), MON Gauthier-Lafaye, CE-2.1 . . (p128) . . THU . . . EG-6.6 (p147) . . . FRI . . . . . CK-7.2 . . Marco . . . . Gaulke, . . (p31), . . MON Geoffrey . . ED-1.2 . Gaulier, . . . David . . . Gauchard, . . . . (p47), . . MON . (p30) EF-2.5 Davide MON . . Gatti, . CK-1.3 ...... (p170) . . . . FRI . . . CH-P.20 . . Alessandra . . . . Gatti, . . C. . . James . . Gates, Susanna Gassiot, BP1 O (p51) MON CB-P.14 (p134) THU CK-6.4 (p106) WED EC-P.11 (p144) THU CK-P.5 ∙ (p101), (p107) WED WED EI-3.6 EH-P.1 (p90), WED EG-3.3 (p172) FRI EG-P.5 (p134), THU CD-9.4 G45TE(p74) TUE CG-4.5 (p108), WED EI-P.4 ∙ (p156) FRI CL-4.4 ∙ ∙ K72FI(p147) FRI CK-7.2 ∙ (p82), WED CA-5.1 (p64) TUE ED-3.2 (p127) THU EF-7.2 (p172) FRI EG-P.12 C46WD(8) CP1 E (p106) WED EC-P.11 (p87), WED EC-4.6 F71TU(15,E-. H (p141) THU EF-P.1 (p125), THU EF-7.1 (p162) FRI CD-11.3 (p99), (p148), WED FRI EJ-3.4 JSI-4.3 (p38), MON CD-1.4 B54WD(p98) WED CB-5.4 ∙ ∙ ∙ ∙ B52WD(p96), WED CB-5.2 GP8FI(p172) FRI EG-P.8 ∙ ∙ CP2 E (p107), WED EC-P.21 KP1 H (p144), THU CK-P.14 SI-. O (p47), MON JSIII-2.4 CP1 E (p106) WED EC-P.12 ∙ ∙ ∙ H71WD(p94) WED CH-7.1 ∙ A25MN(p40) MON CA-2.5 K92FI(p160) FRI CK-9.2 D45TE(p68) TUE CD-4.5 alk oceh...... C-. H (p111) THU . . . CE-8.2 (p51) T. . . W MON . . Jan . .CB-P.18 . . . . Geberbauer, . . . . Wojciech . . Gawlik, . Polina. Gavrina, hre,Iè ...... Inès . . . Ghorbel, (p48), . MON Dipa CA-P.7 . Ghindani, ...... (p48), . MON Lucian CA-P.7 Gheorghe, . . (p153) . . FRI . . CK-8.1 . . . . Cristina . . . . . Gheorghe, N. . . George . . . Ghalanos, . . Amir (p167) (p86) (p48), FRI Ghadimi, WED MON CA-P.9 JSIV-5.2 . . CB-3.5 ...... Yuriy . . . . (p98), . . Getmanovskiy, . . WED . . . Fedor . CF-6.5 . . . Getman, . . . . . D. . . Geskus, . . . . . (p141) . . THU . EE-P.2 . Daniel . . . D. Gerz, . . . Mikhail . . . Gervaziev, . (p31), Erez MON (p139) ED-1.3 THU Gershnabel, . . PD-2.6 . (p50) . . . . MON . . . CB-P.11 . . Matthias . . . . Germann, D. . . Brian . . . Gerardot, . . (p49), Bruno MON CA-P.18 Gerard, . . (p72), . . TUE . . CA-4.3 (p164) . Kaloyan . FRI . . Georgiev, CD-11.5 ...... (p78), . Patrick . TUE . Georges, . CD-P.8 P. . . John . . George, ...... Antony . . George, . Reinhard Genzel, (p156) (p64) FRI TUE CA-3.2 .CL-4.4 ...... Go . . . Genty, . G.. . . . Marzio ...... Gentile, . . . . . Eric . (p43), . . Genin, . . MON . . Etienne EF-2.1 . . . Genier, . . . Zhoumuyan . . . Geng, (p57), . . TUE . . . CI-1.2 . . . . . Zhou . . . (p174) Geng, . . . . FRI . . . . CM-P.16 ...... (p85) . . . Wenpu . . WED . . Geng, . . CI-2.3 . . . . Luca ...... Genchi, ...... Ezgi . . . . Genc, ...... Naveena . . Genay, . Laura Gemini, (p149) FRI Asefa .EF-8.4 . (p144) Wasyhun . . THU . Gemechu, . CK-P.10 ...... Gelge . . . Lendert. . . . Gelens, . . Ute (p46) MON . Geissler, . (p46) . CL-1.3 . MON . . . . JSV-2.4 ...... Andreas . . . . . Geilen, . . . . . Yasemin . (p47), . MON . Geiger, (p96) . WED CH-2.4 Sarah . EG-4.2 . Geiger, ...... (p134) . Tobias . THU . . Gehring, . .CM-6.4 . . Andre . . . Geese, Thomas. Geernaert, (p34), MON CJ-1.1 ...... Martin Gebhardt, EP4WD(p104) WED CE-P.4 (p104) WED CE-P.4 (p49) MON CA-P.17 (p103) WED CF-P.2 ∙ (p76) TUE CA-4.5 (p79) TUE CD-P.30 (p71), TUE CF-3.3 (p98) WED EG-4.4 (p88), (p167) WED FRI CJ-4.1 CF-10.3 (p73), (p85), TUE WED CF-3.4 CJ-3.3 (p60), (p60), TUE TUE EE-1.4 EE-1.5 (p44), MON EJ-1.2 (p135) THU EA-6.4 (p143) THU CJ-P.6 ∙ (p161) FRI CH-12.3 (p93) WED EB-6.4 (p63), TUE EB-4.1 (p165) FRI CG-7.6 (p98), (p139), WED THU CF-6.5 CG-P.7 (p59), (p90), TUE WED CF-2.2 CM-2.3 (p36), MON CJ-1.2 D14MN(p33) MON ED-1.4 (p168) FRI CD-12.4 ç ei...... LP7TU(p145) THU .CL-P.7 ...... Melis. , ë y...... C-. O (p38), MON CH-1.4 ...... ry ∙ ∙ G73FI(p161), FRI CG-7.3 ∙ ∙ D96TU(p136), THU CD-9.6 ∙ ∙ ∙ H44TU(p113) THU EH-4.4 A81TU(p110) THU CA-8.1 ∙ ∙ ∙ ∙ F66TU(p123) THU EF-6.6 K22MN(p36) MON CK-2.2 ∙ FP3TU(p141) THU EF-P.3 G26WD(p87) WED EG-2.6 L12MN(p46) MON CL-1.2 L11MN(p34) MON PL-1.1 H33TE(p59) TUE CH-3.3 D51TE(p68) TUE CD-5.1
Authors' Index Authors' Index lrex hit...... JI43FI(p148) FRI JSI-4.3 ...... Christ . . . Glorieux, . (p50), MON Daniel CB-P.8 Glass, . . (p76) . . TUE . . . . . CJ-2.6 . . . . Andrey . . . (p103) . . Gladyshev, . . WED . CF-P.9 . Alexey. . . . (p116) . . . Gladyshev, . THU G. . . Yuriy . .CB-7.1 . . . . Gladush, . . . . Yuriy . . . Gladush, . (p96), WED Johannes. CM-3.2 Glaab, ...... (p165), Remo FRI Giust, JSIV-4.5 . . . . Alessandro (p45), Giuseppi, MON EF-2.3 . (p37), . . MON . . EF-1.2 ...... Massimo . . . Giudici, . . (p159) . . FRI (p149) (p29) . . FRI MON CG-7.1 . . . . M. ED-1.1 .EI-4.3 ...... Giudici, . . . . . Mathieu ...... Gisselbrecht, . . (p166) . Anna. . FRI . . Girnghuber, . CD-12.2 . . . Gouri . (p125) . . . . THU Giri, . . . Vytenis EF-7.1 ...... Girdauskas, . . . . Jérémie . . Girardot, . . Andrus Giraldo, iaai,Mra C65FI(p152), FRI (p72) CC-6.5 TUE . . . CG-4.4 ...... Miriam . . . Giparakis, D. (p104), U. WED CE-P.2 (p104) Giovannini, . . WED . CE-P.8 ...... Fabio . . . Giovanardi, . Luidgi Giordano, ii,Hrlo L24TE(p60) TUE (p35) CL-2.4 MON . . . EG-1.1 ...... Mariangela ...... Gioannini, . . . . Harilaos (p103) . (p149) . (p94) WED Ginis, . FRI . WED .CF-P.14 Laia . EI-4.3 EG-3.6 . . . . Ginés, . . . . Ugnius...... (p175) . . Gimzevskis, . FRI . Raymond (p163) . CM-P.36 . FRI . . Gillibert, . . . CG-7.4 . . (p94) Roland . . . . WED . . Gillen, . . EG-3.6 . . Edmondo . . . . . Gilioli, . . . Barnabás . (p39) . . Gilicze, MON Valeria CM-1.3 . . . Marta Giliberti, . . . Basset, . . . Gilaberte . Jorge (p53), MON Gil-Rostra, EB-P.2 (p175) . . FRI . . CM-P.31 ...... (p100), . . Jano WED . . . EG-4.6 (p45) Gil-Lopez, . . MON . Didier . . EI-1.3 . . Gigmes, ...... Carlo . . . Gigli, . . Sascha Giger, is,Vlra S-. H (p110) THU . (p85) . . WED JSI-3.1 . . . . EC-4.4 ...... Sylvain . . . . . Gigan, (p53) . . . . MON . Valerian . EB-P.4 . . Giesz, . . (p84) . Geza . WED . (p33) . Giedke, CE-5.3 . MON . Giannis . JSI-1.4 . . . . Giannoulis, . . Iason . . . . Giannopoulos, . Claudio Giannetti, inla ihl . . . . (p59) . TUE . . (p132) CH-3.3 THU Michele . . CH-10.2 . Gianella, . . . Alessandro . . (p79), Giammona, . TUE Philippe (p135) CD-P.25 . THU Giaccari, . . (p47) CL-3.3 . . . MON . . . . EI-1.4 . . . . Mher ...... (p79) Ghulinyan, . . . . TUE . Djida . CD-P.15 . . . Ghoubay, . . . . Soumen . . . Ghosh, Nath Amar Ghosh, B45WD(p92) WED CB-4.5 (p169), FRI (p173) FRI CF-10.4 CM-P.3 (p126), THU EG-6.3 (p167) FRI JSIV-5.3 (p86) (p51), WED MON CB-P.14 CB-3.4 (p50), MON CB-P.4 ∙ C82FI(p161), FRI CC-8.2 (p175) FRI CM-P.36 (p129) THU CB-8.5 (p47), MON EF-2.5 ∙ (p54), MON EB-P.24 (p168) FRI CK-10.5 (p162), FRI CD-11.3 (p168), FRI (p172) FRI CH-13.5 EG-P.1 (p158), FRI CD-10.6 B82TU(p125) THU CB-8.2 C63TU(p134) THU EC-6.3 F24MN(p45) MON EF-2.4 B92FI(p146) FRI EB-9.2 ∙ HP2 R (p170) FRI CH-P.22 ∙ ∙ SV11TU(p125), THU JSIV-1.1 B72WD(p97), WED EB-7.2 ∙ ∙ ∙ ∙ H83TU(p112) THU CH-8.3 H1. R (p158) FRI CH-11.5 D15MN(p33), MON ED-1.5 B13MN(p30), MON CB-1.3 ∙ ∙ J42WD(p90) WED CJ-4.2 J75FI(p152) FRI CJ-7.5 okmn la...... C-. H (p144) THU (p45) CK-P.6 MON . . EF-2.3 ...... Ilya . . . Goykhman, . . Uday Gowda, oli,Pu . . (p84) . . WED (p40) . . MON CC-4.3 ...... CH-1.6 ...... Paul ...... Goulain, . . . Nicolas . . . Goubet, . . Qian. Gou, G ot,Rcad ...... (p128), . . THU CM-5.6 Riccardo . . Gotti, ...... Pavel Gotovski, (p45), MON (p104) CD-2.4 WED (p46) . . CE-P.5 MON ...... ED-2.5 . . . . Simon-Pierre . . . . Gorza, . . . . . Elena . . . Gorohova, . Jason Gorman, ojn atn...... C-. E (p84) WED CF-4.4 (p51) . . MON . . CB-P.16 ...... G . . . . Martin . . Gorjan, . . Ilya Gorelov, oek,Jn...... (p144) . . THU . (p112) . CK-P.8 . . THU . . . Jon . CH-8.2 . . Gorecki, . V. . . . Andrey . . . . . Gorbach, . . . Kavitha . . . Gopalan, . Arian Goodarzi, (p102) (p35) R. MON WED Agustín CC-P.1 . (p139) . R..EG-1.1 . THU González-Elipe, . Junior . PD-2.5 . Ureta, ...... Gonzales . . . . . Juan . . (p81) . Gongora, . TUE . . Qihuang ED-P.7 . . . Gong, . . . . . Semyon . . . Goncharov, . Andrei Goncharov, Gon Gon (p106), WED Gon EC-P.12 . . . Jordi Gomis-Bresco, Isabel Ana Gomez-Varela, Carmen Gomez-Carbonell, oe,A...... F24MN(p45) MON . .EF-2.4 ...... Tiago . . Gomes, . . A.. Gomel, G oz ose...... Torsten. . . Golz, ...... Claudia (p34), Gollner, MON CE-2.1 (p70) . . TUE . . . ED-4.2 ...... Matthias . . . Golling, . Phillippe Goldner, J Gluch, oi ua...... E-. U (p81) . TUE . ED-P.6 ...... Nathan . . . Goldman, . . (p143) . . THU . . G CJ-P.15 (p79) . . . . TUE . Yuma . CD-P.24 . Goji, . (p95) . (p143) . WED . THU Alexandre . . CJ-P.10 EF-3.6 Gognau, ...... Mathieu . . . . (p173) . . Goeppner, . . FRI . . Alexander . .CM-P.5 . . Goenner, . . . . (p70), . Charu . TUE Goel, A. CJ-2.2 . (p33) . Thorsten . MON . . Goebel, JSV-1.4 ...... (p37) . . . MON Thomas . . . CG-2.2 Godin, . . . Mike . . Godfrey, Philippe . . Jean . . . Goddet, Iaroslav Gnilitskyi, . . . G Anastasiia Glushkova, ł ł ö ö ö D32TE(p64) TUE ED-3.2 MP8FI(13,C-.4FI(p174) FRI CM-P.24 (p173), FRI CM-P.8 (p139) THU PD-2.7 (p121), (p123), THU THU EF-6.4 EF-6.5 (p117), THU EF-6.1 M13MN(p39) MON CM-1.3 CP1 E (p106) WED EC-P.18 (p145) THU CL-P.4 (p145), THU CL-P.3 (p110), (p152) THU FRI JSI-3.1 JSI-4.5 (p108), WED JSI-P.4 F54WD(9) CP5WD(p102) WED CC-P.5 (p92), WED CF-5.4 (p98) WED CB-5.4 (p82), (p96), WED WED CA-5.1 CB-5.2 (p38), MON CA-2.4 J51TU(15,E-. H (p141) THU EF-P.4 (p125), THU CJ-5.1 (p134) THU CH-10.5 (p80), TUE ED-P.1 wci aij...... C-. H (p111) THU CE-8.2 ...... Maciej owacki, se,Aesne D14MN(p33), MON ED-1.4 . . . . . Aleksander uszek, lt,Jhne ...... Johannes rlitz, z hrs HP2 R (p171) FRI CH-P.26 ...... Theresa tz, lc ç ç ç ü le,P .D GP5FI(p172) FRI EG-P.5 ...... D. (p46) . . André MON . P. JSV-2.4 alves, D. . . A. . P. . . alves, . Claudia alves, ,Kurtulu k, ü gn...... C-. H (p113) THU CE-8.4 ...... rgen ş L54FI(p162) FRI CL-5.4 ...... ∙ ∙ ∙ ∙ ∙ ∙ ∙ MP1 R (p174) FRI CM-P.16 MP1 R (p174) FRI CM-P.11 D24TU(p138) THU PD-2.4 D12MN(p31), MON ED-1.2 ∙ ∙ C51TU(p117) THU EC-5.1 ∙ F82TU(p124) THU CF-8.2 DP1 U (p79) TUE CD-P.17 ∙ ∙ C24TE(p60), TUE CC-2.4 A34WD(p93) WED EA-3.4 ∙ F41WD(p82) WED CF-4.1 C64FI(p150) FRI CC-6.4 H33TE(p67) TUE EH-3.3 B42TE(p65) TUE EB-4.2 rs,Hret C-. R (p154) FRI .CM-8.2 . . . . . (p122) . . THU . . CB-7.3 . . . Herbert. . . . Gross, . (p88), Maksym WED CM-2.1 Gromovyi, . . . . (p138) . . THU . . . PD-1.9 ...... David . (p172) . . Grojo, . FRI . . Simon EG-P.14 . . . . Groblacher, . . . . (p125) Andreas. . (p143) THU . Gritsch, THU A. CJ-5.1 CJ-P.19 . Diana ...... Grishina, . . . Andrey . . . Grishchenko, . (p144), THU Frédéric CK-P.3 (p124) . Grisch, . THU . (p114) . . EG-6.1 THU . . . . . CB-6.5 Lina ...... Grineviciute, . . . . Gustavo . (p80), . . Grinblat, TUE Frédéric CD-P.42 . . Grillot, ...... Christian . . . . Grillet, . . . . Christin . . Grill, . (p57), Robertas TUE CF-2.1 Grigutis, . . . . (p168) . F. FRI CH-P.3 Teodora (p145) . . THU . Grigorova, CL-P.5 (p136) . Konstantin . THU . . . CK-6.6 Grigorenko, . . . . . (p113) . . Oana-Valeria (p160) . . THU . . FRI . . Grigore, . . .EG-5.3 . CL-5.2 . . Oana ...... Grigore, . . . . (p94) . . . . Alain WED . . . . Grigis, . . CE-7.1 . . . Jack...... Griffiths, . . . Kate . . . Grieve, A. James Grieve, (p38), MON CA-2.3 . . . (p31) . . MON . . . JSII-1.2 . . . . (p90), . . . Uwe WED . . (p68) Griebner, CJ-4.2 . . TUE Laurent . . CD-5.1 . . Gremillet, ...... (p58) . . . TUE . Philippe . EA-1.4 . . . Grelu, . . . Sachat . . . Grelet, Jean-Jacques Greffet, Zo Greener, Gr (p84), WED CF-4.4 . (p34) . (p102) . MON . WED . CH-1.1 . CC-P.9 ...... Thomas . . . . Graf, ...... Manuel . . (p78) Graf, . . TUE Jil CD-P.12 . Graf, . . Bartlomiej . . . Graczykowski, . Alexander Grabar, rebr,Ykv...... (p128) . (p162) . THU . FRI . . CH-9.6 . . .CL-5.5 . . . Yakov ...... Greenberg, . G. . (p78) . Alex . TUE G. Greenaway, CD-P.5 . . Nicolas . . , . . (p84) . . . Green . WED . . Madalin . .CC-4.3 . . . Greculeasa, . . . . Sergey . (p34), . . Grechin, (p175) MON FRI Charlie. CJ-1.1 CM-P.31 . . Gréboval, ...... (p82) . . . . WED . . . CF-4.2 . Christian ...... Grebing, . . . . (p68), David . . TUE Gray, J. (p157) CJ-2.1 Ivan . FRI . Graumann, . . CC-7.4 ...... Geoffroy . (p33), . MON . Granger, . JSV-1.5 . Thomas . . Grange, . . . (p45), . . MON . . EB-2.2 (p171) Rachel . FRI . . Grange, CH-P.24 . (p115) . . . . THU . . . . EH-4.6 ...... Samuele ...... Grandi, . . . Marco . . Grande, . . Johan Grand, M35WD(9) MP2 R (p174) FRI CM-P.21 (p92), (p98), WED WED CM-2.4 CM-3.5 (p90), WED CM-2.2 ∙ (p132) THU CD-9.3 (p59) TUE CF-2.3 (p120), (p155) THU FRI CA-9.4 EE-5.3 (p92), (p94), WED WED CF-5.3 CF-5.5 (p86), WED CA-5.5 (p147) FRI EF-8.2 (p110), (p135) THU THU CA-8.2 CB-9.5 (p93), (p97), WED WED CA-6.4 CA-7.2 (p91), WED CA-6.2 ∙ (p85) WED CJ-3.2 (p83), WED CJ-3.1 (p127) THU CD-8.3 (p124), THU EG-6.2 (p75) TUE EB-5.4 (p60), TUE EA-1.6 (p158) FRI CH-11.5 ä KP1 H (p144) THU CK-P.16 FP1 E p0) D14TU(p138) THU PD-1.4 (p103), WED CF-P.15 e aks.C COJ. H (p128), THU JS.4 ECBO + CL . Markus fe, uhr'Index Authors' ë E22MN(p36) MON CE-2.2 ...... 182 ∙ ∙ ∙ AP1 O (p49) MON CA-P.15 ∙ BP1 O (p54) MON EB-P.15 ∙ ∙ DP1 U (p78) TUE CD-P.14 AP7MN(p48) MON CA-P.7 JP5TU(p143) THU CJ-P.5 ∙ S-. E (p84) WED JSI-2.2 F96FI(p158) FRI CF-9.6 u in...... JV23MN(p46), MON JSV-2.3 ...... Massimiliano . . Guasoni, . . . (p51), . MON . . CI-P.3 . . . . . Tian . Gu, . . . . . (p129) . . THU . . JSIV-1.5 . (p141) . . . . THU . . . . EE-P.3 (p160) . Min . . . FRI . Gu, . . . CL-5.2 . Andrey ...... Grunin, . . (p41), . Yakov . MON . . Grudtsyn, CG-2.5 . . . Kassandra . . . Groux, . (p135) . . THU . (p150) . CB-9.5 . FRI . . . . Tímea EB-9.5 . . . Grósz, . . . . Marius . . . Grossmann, (p120) THU Frédéric (p61) TUE .CF-7.4 Grosshans, CF-2.5 Uwe. . . . Grosse-Wortmann, . Uwe Gross-Wortmann, uynv lxy...... C-. R (p160) FRI CJ-9.2 . . . . . (p50) . Fran MON . . CB-P.4 . Gustave, . . . . Alexey . . V. Guryanov, Svetlana (p37) (p39), Gurevich, MON MON EF-1.2 EF-1.4 . . . (p95) . . . . WED . . . . EA-4.1 ...... Svetlana ...... Gurevich, . . . S. . . . (p93) Gurevich, . . WED . . . Yudan . .EB-6.4 . Guo, ...... (p53), . Yangyu . (p139) MON . Guo, THU . EB-P.6 . . . PD-2.5 Xueshi. . . . . Guo, . . . (p32) . . . MON . . . . . CF-1.6 . (p141) ...... THU . . (p159) Ruixiang . EE-P.6 . . . FRI Guo, ...... CG-7.1 . . . . . Jiajie ...... Guo, ...... Jhan-Yu . . . . Guo, . . (p138) . . . THU . Hairun . . Guo, .PD-1.7 . . . . . Chen . . Guo, Christian. Gunther, G (p80) TUE CD-P.32 . . . G . Alexander (p114) Gulyashko, THU (p66) . . TUE CH-8.4 . . . EI-2.4 Lénárd . . . . Oldal, . . . . (p79) . Gulyás . . . TUE . Angelo . CD-P.24 . . . Gulinatti, . . Dmitry . . . Gulevich, . (p32), Germain MON Guiraud, CB-1.4 ...... Mircea Guina, Hugues (p107), Chatellus, WED de EC-P.19 . . Guillet ...... Thierry (p33) Guillet, . MON . . . JSI-1.5 ...... Lauren ...... Guillemot, . . . Benoit . . . (p114), Guilhabert, . THU Julien CG-5.4 . Guilbert, (p41) . . MON (p71) . . TUE CM-1.5 . . . CF-3.3 . . . Olivier . . . . . Guilbaud, . . (p116) (p122) . Alain . THU THU . . Guignandon, CA-9.1 CB-7.3 . . . Florent ...... Guichard, . . . . Christo . . . Guguschev, (p91) . WED Thiaka (p49) EB-6.2 Gueye, . MON . . CA-P.11 . . . . (p133) . . G . . THU . Giovanni . CB-9.2 . . . Guccione, . . . . . Ksenia . . Gubina, . Stefano Guazzotti, ye,Sme I23TE(p64), TUE EI-2.3 ...... (p116) . THU . . . CB-7.1 ...... Samuel . . Gyger, . Martin Guttmann, ü ü ü D23TU(p138) THU PD-2.3 (p170) FRI CH-P.12 (p112), (p147), THU FRI CM-4.3 CK-7.1 (p77), TUE CH-5.5 (p163) FRI CG-7.4 (p103), WED CF-P.14 J21TE(5) J23TE(p59) TUE EJ-2.3 (p57), (p51), MON TUE CB-P.14 EJ-2.1 (p50), MON CB-P.10 (p108) WED JSI-P.1 ∙ (p55) MON EB-P.29 (p163) FRI CG-7.4 (p122) THU CB-7.4 (p38), MON CA-2.3 (p32), MON CB-1.5 (p132) THU CH-10.3 ∙ (p84) WED CA-5.4 (p122) THU CF-7.6 ∙ te,Ae ...... Axel nther, ndo (p165) FRI CF-10.1 ...... Jens dde, BP2 O p4,E-. R (p146) FRI EA-7.2 (p54), MON EB-P.23 (p122) THU CB-7.3 (p99) WED EJ-3.4 ğ n utf B23MN(p45), MON EB-2.3 ...... Mustafa an, ç i SV42FI(p161) FRI JSIV-4.2 ...... ois ∙ A21MN(p34), MON CA-2.1 ∙ ∙ ∙ ∙ ∙ F46WD(p101), WED EF-4.6 G25MN(p41), MON CG-2.5 D1. R (p158) FRI CD-10.6 ∙ A53WD(p84), WED CA-5.3 S-. O (p31), MON JSI-1.2 E66WD(p95) WED CE-6.6 aj,Emne G52TU(p113) THU EG-5.2 ...... H . . . . (p32), . Emmanuel . MON . Hadji, . (p102) . .CG-1.5 Yosri . WED . CC-P.9 . Haddad, ...... (p125) . . . . THU . . . (p148) . .CJ-5.1 Elissa. FRI . . . . . Haddad, . .CJ-7.3 ...... Erwin ...... Hack, ...... Adil...... Haboucha, . . Selim . . Md. . . Habib, . (p62) (p40), Elad TUE (p62) MON Haber, EI-2.1 TUE CJ-1.6 . . . EI-2.1 ...... Nicoletta ...... Haarlammert, . Frank . . . Koppens, . . H. James Edgar, H. H asn w L33TU(p135), THU CL-3.3 ...... Uwe (p69), (p71) Hansen, TUE TUE CH-5.1 CF-3.3 ...... E. . . . Rasmus . (p174) . Hansen, . FRI . CM-P.16 Marc . Hanna, Emine Ciftpinar, . Hande ...... W. . (p119) . Scott . THU . . Hancock, . (p107) .EB-8.2 . (p138) . WED . (p110) Jonte THU . EC-P.22 . THU . Hance, . PD-1.7 . . . CB-6.1 (p143) . . Fumiya. . . . . THU . . . Hanamura, . . . CJ-P.6 ...... Haissam . . . (p111) . . . . . Hanafi, THU . . . . Sang . . EH-4.1 . . . Park, . . . . Han ...... Yu . . . . Han, ...... Xu . . Han, . . . Min . . Han, . (p58) . . TUE . . EA-1.3 . Marin . (p76), . , . (p147) TUE . . Hamrouni FRI . CD-5.6 . EF-8.2 Klemens . . . . . Hammerer, ...... Jonas . . . Hammer, . . . . . Said . . Hamdi, . . . . (p138) Mustafa . . THU . Hamdan, . . . PD-1.7 . . Aviran . (p40) . . . MON . Halstuch, Erik. . . CE-2.5 . Goran . . . . Hallum, . . . . . Kent . . Hallman, J. . . Dominic . . (p94) . . . Hallett, WED Hamza . . (p61) . EG-4.1 Elwan, . TUE . . . Hallak . CH-3.6 . . . Raktim . (p159) . . . . Haldar, FRI . . . EH-5.6 Maike ...... Halbhuber, D. . . . Kaylee . (p174) . Hakkel, . FRI K. . CM-P.12 . Tommi . . . . . Hakala, Mehdi . . . Ebrahim, . . Haji . (p115) . THU Ludovit . EH-4.5 Haizer, . . . (p91) . . . WED ...... CE-6.2 ...... Michael . . . . Haider, . . . . . Riad . . . (p138) . Haidar, . . . THU . . Daniel PD-1.7 . . . Hahner, . . . (p127) . Matthias . THU . . Hagner, JSIV-1.2 . . . Richard . . (p168) (p116) . Haglund, . FRI THU Nasibeh CH-P.4 . .CB-7.1 . . Haghighi, (p145) Moaddel . . THU Iman . . CK-P.20 . Haghighi, . . . . Sylvia. . . (p39), . Hagedorn, . MON Harro EG-1.3 . Hagedorn, (p62) . . TUE . (p112) . EC-2.1 . THU . . . CG-5.3 . . . Christian . . . . Haffner, . . . . . Mohammad . . . Hafezi, Stefan Haessler, ä G61FI(p146) FRI CG-6.1 (p157) FRI CJ-8.3 (p134), THU CJ-6.4 (p78) TUE CD-P.11 L34TU(p135) THU CL-3.4 ∙ ∙ ∙ (p97) WED CA-7.3 (p92), WED CB-4.4 (p119) THU EA-5.3 (p102) WED CC-P.13 (p54), MON EB-P.22 (p149) FRI EG-7.3 (p139), THU CG-P.3 rc,Sefn...... Steffen drich, FP1 H (p142) THU EF-P.13 (p142), THU EF-P.11 (p106) WED EC-P.14 ∙ GP7TU(p139) THU CG-P.7 ∙ ∙ ∙ BP1 O (p54), MON EB-P.12 M55TU(p128) THU CM-5.5 ∙ ∙ ∙ D82TU(p127) THU CD-8.2 ∙ ∙ ∙ ∙ ∙ ∙ ∙ ∙ H74WD(p98) WED CH-7.4 H13MN(p39) MON EH-1.3 A22MN(p36) MON CA-2.2 I36TU(p122) THU CI-3.6 D55TE(p74), TUE CD-5.5 M85FI(p156) FRI CM-8.5 C35TE(p75), TUE CC-3.5 E56WD(p86) WED CE-5.6 B73WD(p97) WED EB-7.3 F22TE(p59), TUE CF-2.2 H34TE(p59) TUE CH-3.4 e e CP1 E (p102), WED CC-P.14 ...... (p44) . . MON . . . . .JSII-2.2 (p93), . . . . WED . . . EF-3.4 Fei . . . . He, . . . . Mozhgan. . (p153) . Hayati, . FRI . . CM-7.6 . . . (p162) . . (p86) . FRI . . . WED Alex . EH-6.5 . . CC-4.6 . Hayat, ...... Shuichiro . . . . . Hayashi, . . . . Masamitsu . . Hayashi, . . . Dan Hawak, aeih atn ...... Martina Havenith, H asn a ...... (p94) . . WED . . . CF-5.5 . . Jan . . . Hausen, . (p48), . . MON . . CA-P.7 H . . . (p65) . Christoph . TUE . Hauf, . . EB-4.2 (p53) . . . . MON . . . . EB-P.1 ...... Stefania . . . . Hau, . . (p151) . . Mutsuko FRI . . . Hatano, CM-7.5 . . Elliott . . . Hastings, Walter Achim Hassel, Abu (p126), Rosdi THU Muhammad (p87) .EG-6.3 . Hassan, WED . . CI-2.4 . (p104) . . . . WED . . . . CF-P.18 . Mostafa . . . . Hassan, . . . . Hiroshi . . . Hasegawa, . Muneaki Hase, aa,Twiu . . (p144) . . THU (p99) . . CK-P.13 WED . . . . (p44) . .EA-4.4 . . . MON Tawfique . . . . Hasan, EJ-1.2 . B. . . . . Shakeeb ...... Hasan, (p100) . . . WED . Mehedi. . CE-7.6 . . Hasan, . . . . . Mathilde . . (p70), Hary, M. TUE Clarissa CD-5.3 Harvey, ...... Alexander (p34), (p96) Hartung, MON WED CK-2.1 CE-7.3 . . . . . Jean-Michel . . . Hartmann, . Fabian Hartmann, (p61), (p39) TUE MON CF-2.5 . CG-2.3 ...... Ingmar . . . Hartl, . . I. Hartl, (p152) FRI CM-8.1 . (p154) . . M. FRI . A. . . CL-4.2 . . Cornelis ...... Harteveld, . . . . Paul . . . Harrison, . . (p36), Andreas MON Harrer, CH-1.2 . . . . . M. J. Frans , Harren (p31), MON EC-1.3 . Abdelmounaim Harouri, Emmanuel Haro-Poniatowski, ako,Kihn...... (p103), . (p56) WED . TUE CF-P.3 Krishan . CL-2.1 . . . Harkhoe, ...... Victor . . . (p130), Hariton, . THU Achar EC-6.1 . Harish, ...... H. Tristan Harder, au,Vca F1. R (p167) FRI (p39), CF-10.2 MON H . . EF-1.3 ...... Pierre-Henry . (p52), . Hanzard, . MON JSV-P.2 . Václav . . Hanus, ...... Taras . . Hanulia, Niklas Kai Hansmann, ä ä ä A65TU(p137) THU EA-6.5 J21TE(p57) TUE EJ-2.1 EP4WD(p104) WED CE-P.4 (p143) THU CJ-P.10 ∙ J1. R (p168) FRI CJ-10.5 (p132) THU CD-9.3 (p80), TUE CD-P.42 (p157), (p157) FRI FRI EE-5.4 EE-5.5 (p128), (p152), THU FRI CF-8.5 CG-6.6 (p120), THU CF-7.4 (p149), (p172) FRI FRI CK-7.4 EG-P.14 (p126), THU EG-6.4 (p69), (p170) TUE FRI CH-5.1 CH-P.15 (p66), TUE (p164) ED-3.4 FRI CK-9.6 (p152), (p159), FRI FRI JSI-4.5 (p110), CK-8.6 (p117), THU THU JSI-3.1 EA-5.1 (p66), TUE EC-2.4 (p144) THU CK-P.5 ∙ (p147) FRI EI-4.1 D22MN(p43), MON CD-2.2 (p80) TUE CD-P.39 sr eia...... C-. H (p123) THU CE-9.4 ...... Selina user, p,Dne ...... C-. H (p126) THU CF-8.4 ...... R. Daniel upl, z,Psa D53TE(p70) TUE CD-5.3 ...... Pascal nzi, MP3FI(p173) FRI CM-P.3 FP8WD(p103) WED CF-P.8 ∙ ∙ EP1TU(p140) THU EE-P.1 ∙ SV14TU(p129) THU JSIV-1.4 BP1 O (p50), MON CB-P.10 ∙ ∙ J53TU(p127) THU CJ-5.3 ∙ C21TE(p56) TUE CC-2.1 J35WD(p99) WED EJ-3.5 enne,Ye JP1 H (p143) THU CJ-P.15 . . Carlos . . . . . Hernández-García, . . Yves . . . Hernandez, . Romain (p164) (p53), Hernandez, FRI MON EA-P.14 . .CD-11.5 ...... Jean-Pierre . . Hermier, . Artur. (p110) Hermans, THU J CH-8.1 . Hermann, Daniel-Ralph (p98), Hermann, WED (p92) CM-3.4 . WED . . CM-2.5 (p94) . . . WED ...... CH-7.1 . R. . . . . Peter . . . . (p102) . Herman, . (p114) . . WED . THU Peter . CC-P.15 . . . . JSI-3.6 Herman, ...... Ediz...... Herkert, . . . . Emilie . . . Herault, . . Se-Yeon Heo, esn a D19TU(p138) THU PD-1.9 ...... Philipp . . (p103), (p148) Henzler, . . WED FRI Bas CF-P.4 CG-6.3 . Hensen, ...... Christian . . Hensel, . Felix Henrich, ei ofag...... C-. R (p165) FRI . . CI-5.1 ...... (p128) . . Jan-Wilke THU . . Henke, JS.4 . . ECBO Wolfgang + (p126) CL Heni, THU Patrick CF-8.3 Hendra, (p99) Carlos . . (p40) WED . . MON (p61) Henández-García, . EI-3.5 . TUE .CA-2.5 . . Elizabeth . CH-3.5 . . . . . Hemsley, ...... Alexander. . . . . Hemming, ...... Manfred . . Helm, . . Tim Hellwig, ek ois...... Tobias Helk, ebr,Dvd...... JI-. R (p169) FRI . JSIV-5.6 ...... B. . . . Óskar . . Helgason, . . (p151) David (p70) FRI TUE Helbert, CM-7.5 . .CG-4.3 Mat . . . . . Hejda, . . . Marie-Catherine. . . . . Heitz, ...... Johannes . . Heitz, . Tobias. Heinrich, (p58), TUE EB-3.3 ...... (p45), . . MON Matthias CH-2.3 . . Heinrich, ...... Alexander Heidt, (p34), MON CE-2.1 . . . . . (p91) . (p32) . WED . MON . EA-3.2 . . CG-1.4 (p68) . Jonas . . TUE . . . . Heidrich, . CA-4.1 . . . Katharina . . . . . Heidegger, . . . . (p40) . . Christian . . MON . . (p154) . . Heide, . . .CE-2.5 FRI . . . Markus . . CF-9.3 . . . Hehlen, . . . S. (p71) . . . TUE . Ravi . . . . Hegde, . . .CC-3.2 . . . Jon. . (p120) . . . (p85) THU Heffernan, . H. . WED CF-7.4 . . . Oliver . CD-6.4 . . . (p139) . Heckl, . . . . THU . . János. . . . PD-2.5 . . . (p164) Hebling, . . (p92) . . . . FRI . . WED . . Michael . . CD-12.1 CJ-4.4 . . . Heber, ...... Wenbin . . . . He, ...... (p82), . . . Qiongyi . WED . . . He, . . CB-3.2 ...... Jinghan . . . He, ...... Jing . . He, ...... Jijun . . He, . . Hongsen He, CP2 E p0) IP4WD(p108), WED EI-P.4 (p107), WED EC-P.21 (p39), MON JSIII-1.3 ∙ (p173), (p173) FRI FRI CM-P.6 CM-P.7 (p132), THU CM-6.2 E56FI(p159) FRI EE-5.6 H1. H (p136) THU CH-10.6 F75TU(19,E-. R (p150), (p167) FRI FRI EA-7.5 (p119), CI-5.2 (p129), THU THU CE-9.2 EF-7.5 (p123), (p123), THU THU EB-8.4 EB-8.5 (p106), (p106), WED WED EC-P.1 EC-P.6 (p64), TUE EC-2.2 (p70) TUE CD-5.3 (p70), TUE CD-5.2 (p98), (p169) WED FRI CB-5.4 CI-5.6 (p82), (p96), WED WED CA-5.1 CB-5.2 (p38), MON CA-2.4 (p155) FRI CK-8.3 (p135), THU CB-9.4 (p162) FRI CL-5.5 HP9WD(p108) WED EH-P.9 ě ö ...... j g...... C-. E (p88) WED CM-2.1 ...... rg ∙ ∙ ∙ ∙ ∙ ∙ ∙ ∙ H92TU(p124) THU CH-9.2 F51TU(p111), THU EF-5.1 H1. R (p166) FRI CH-13.3 B72TU(p120) THU CB-7.2 SV54FI(p167) FRI JSIV-5.4 E41TU(p131) THU EE-4.1 G22MN(p37) MON CG-2.2 H15MN(p41) MON EH-1.5 ∙ ∙ G71FI(p147) FRI EG-7.1 DP1TE(p78) TUE CD-P.1 iny ao A13TE(p58) (p112) TUE THU EA-1.3 JSI-3.4 ...... Kazuhiko . . . Hirakawa, . . Jakob Hinney, (p46), Hiekkam MON CC-1.4 ...... Ammar Hideur, ikv oilv...... E-. E (p107), WED EH-P.5 ...... (p55), Borislav MON EJ-P.6 Hinkov, (p107) . (p144) . WED . THU . EH-P.5 . . CK-P.10 . (p60) . . . Moritz TUE . . (p83) . . . EA-1.6 . WED Hinkelmann, . . . . . EG-2.1 . Erik ...... Hinkelmann, ...... Jonas ...... Hinkel, . . . . Edward . . Hinds, A. E. Hinds, (p33), MON (p64), ED-1.5 TUE . . CD-4.2 ...... Johannes . . . Hillbrand, ...... Lewis Hill, (p38) MON CH-1.4 (p155) . FRI . . . CC-7.3 Anne ...... Hildenbrand-Dhollande, . . . . . Tuomas . . Hieta, . . Adrian Hierro, . . . . Hanan Sheinfux, Hezig (p120), (p79) THU TUE CF-7.4 CD-P.17 ...... (p93) . . . M. WED (p174) . . FRI . Christoph .CE-6.5 . CM-P.11 . . Heyl, . . . . Jan . . . . Buss, . . . . Heye W.. . . . Daniel . . Hewak, . . Ihor Hevko, (p155) FRI EH-5.2 ...... Tobias . . . Heuermann, (p133) . THU . . Andreas . CB-9.2 . Heßler, ...... (p56) . . . TUE Denis . . EE-1.2 . Hessel, (p139) (p33) . . THU . MON . Ortwin CG-P.5 . JSI-1.5 . Hess, Hanan ...... Shenfux, . . . A. . Herzig (p66), . . TUE Elisabeth . . . CG-3.2 Herzig, . M. (p90) . . Laura WED . . Herz, . CJ-4.2 ...... Marius . . Hervé, . . . . . Edouard . . Hertz, . . . (p32), . . MON . . CG-1.5 Alexa . . Herter, ...... Paul (p47), Herrmann, MON EB-2.5 (p65) . TUE . . . EB-4.2 ...... (p102) . Harald . WED . CC-P.4 . Herrmann, . . . . Dennis . (p43), . Herrmann, . MON . EF-2.2 Joachim . . (p64), . Herrman, . TUE . . . ED-3.3 ...... Ramon . . Herrero, ...... Tobias Herr, Javier Hernandez-Rueda, C. Alexander Oendra, Hernandez J51TU(15,E-. H (p141) THU EF-P.4 (p84), (p125), WED THU CA-5.4 CJ-5.1 (p70), TUE CJ-2.2 L42FI(p154), FRI CL-4.2 (p72) TUE CJ-2.4 (p129), (p169) THU FRI CB-8.6 CI-5.6 (p127), THU CB-8.3 (p76), TUE ED-4.5 ∙ (p115) THU EF-5.4 (p111), THU EF-5.2 (p114), (p162) THU FRI CA-8.6 CJ-9.5 (p49), MON CA-P.14 ∙ (p152), (p157) FRI FRI CG-6.6 EE-5.4 (p128), THU CF-8.5 (p161) FRI CG-7.3 (p90), (p98), WED WED CM-2.3 CF-6.5 (p36), MON CJ-1.2 ∙ (p68) TUE CG-4.1 (p101) WED EA-4.5 (p86), WED CE-5.6 (p114) THU CG-5.5 (p123), (p146) THU FRI EA-5.6 EA-7.1 (p63), TUE EB-4.1 (p51) MON CB-P.19 (p153) FRI CK-8.1 (p64), TUE CD-4.2 (p103) WED CF-P.11 (p84) WED CE-5.3 (p172) FRI EG-P.8 (p122), THU CF-7.6 (p114), THU CG-5.4 D21MN(4) F25MN(p47), MON EF-2.5 (p42), MON ED-2.1 (p152) FRI EB-9.6 (p59) TUE EJ-2.3 ä i aks.....B71WD(p95), WED .EB-7.1 . . . . Markus ki, uhr'Index Authors' 183 ∙ ∙ C73FI(p155) FRI CC-7.3 B41WD(p88), WED CB-4.1 ∙ E22TU(p111), THU EE-2.2 ∙ ∙ ∙ F14MN(p39), MON EF-1.4 J11MN(p34), MON CJ-1.1 C23TE(p60), TUE CC-2.3 ∙ I21TE(p62) TUE EI-2.1 o,Lapn BP7MN(p50), MON CB-P.7 ...... Lianping Hou, (p122), (p52) THU MON H EA-P.2 CI-3.5 ...... (p36) . . . . MON . . (p59) Tomotaka . CK-2.2 . . TUE . . Hosotani, . . (p45) CF-2.2 . . . . MON . Aruto . . . EI-1.3 . . Hosaka, . . . (p165) . . . Robert . FRI . . . . . Horvarth, . CI-5.1 . . . . . (p83) . Roland . . WED . . . Horsten, . . EG-2.2 . . . . . Yannik . . . . . Horst, . . . . . Yannick . . Horst, . (p30), . MON Simon CK-1.3 Horsley, . . (p54) . . MON . . EB-P.13 ...... Peter . . Horak, . . (p60) Niklas TUE Hoppe, EB-3.5 ...... H . Peter Hooischuur, og aha...... C-. H (p133) THU CB-9.3 ...... (p134) . . . THU . . H . . . CD-9.4 (p81) . . . Yanhua . TUE . (p45) . . Hong, ED-P.6 . . . MON . . . . . Yang . EI-1.2 . . . . Hong, ...... Jin-Yong . . . . Hong, . . . . . Feng-Lei . . Hong, . . . James Hone, (p32) (p171) MON FRI CG-1.4 CH-P.26 Mostafa . . . (p174) . . . Latifpour, . FRI . . . . Honari CM-P.14 . . . . Peter ...... Hommelhoff, . . . . . (p131) . Nina . THU . Holzer, . EE-4.1 . Ronald . . Holtz, . Matthias . . . Holtkemper, . Christopher (p80) Holmes, TUE . . CD-P.35 ...... Richard . . . Hollinger, . David Holleville, . . . . (p168) . (p103), FRI WED Alexander CH-P.4 CF-P.6 . . . Holleitner, ...... Warein . . . Holgado, . . Dennis (p41) Høj, MON EG-1.5 (p60) . TUE . . . EA-1.6 . . . . H A. . . Rowan . . . Hoggarth, . . . Rowan . . . Hoggarth, . Cornelia Hofmann, . . . . H (p38), . MON Matthias (p37) CA-2.4 MON Hoffmann, . . CG-2.2 . . . . . (p62) . . . . TUE . . Martin CA-3.1 ...... Hoffmann, ...... Lars (p168) . . . . FRI . . Hoffmann, . . CH-P.4 . . . Brittany . . . (p103) . . Hoffman, . . WED . . . CF-P.14 Felix . . . . . Hoffet, Busk . . . Ulrich . . Hoff, . . Dominik Hoff, (p86) WED . . CB-3.5 . . . . (p137) . . . . THU . . . . EA-6.5 . . (p155) . . . . FRI Christina . . . . Hofer, CC-7.3 ...... M...... Hoekman, . . . . Sven ...... Hoefling, . . T. . . Hahn . . . Hoang, . . (p80) Stephen TUE Ho, ED-P.2 ...... Hj . Kenichi Hitachi, oe,Tba ...... H . . Tobias Hofer, ö ö ö ö ö ö C62FI(p148) FRI CC-6.2 (p161) (p142), FRI THU EF-P.15 CH-12.2 (p139), THU CG-P.6 (p144) THU CK-P.1 ∙ ∙ ∙ (p126) THU CF-8.3 (p124), THU CF-8.1 (p103) WED CF-P.2 (p130), (p147) THU FRI EC-6.1 EI-4.1 (p93), (p96), WED WED EF-3.4 CE-7.3 (p66), TUE EI-2.5 (p118) THU CF-7.2 (p69), TUE CC-3.1 (p33) MON ED-1.4 F95FI(p156) FRI CF-9.5 ä l io D43TE(p66) TUE CD-4.3 ...... Simon nl, (p35), MON EG-1.1 ...... Sven fling, e,Urc F1. R (p165) FRI CF-10.1 ...... Ulrich fer, gr lxne I23TE(p64) TUE EI-2.3 ...... Alexander tger, (p121), THU EA-5.4 . . . . . Philipp Jan pker, nr aiiin....C-. O (p45), MON CH-2.2 . . . . Maximilian gner, FP1 H (p142) THU EF-P.10 (p150) FRI CG-6.5 (p114), THU CG-5.5 (p147) FRI EI-4.2 tn din...... Adrian ltén, ∙ ∙ ∙ ∙ ∙ M62TU(p132) THU CM-6.2 ∙ ∙ G15MN(p32), MON CG-1.5 GP2TU(p139) THU CG-P.2 D13MN(p31), MON ED-1.3 S-. O (p33) MON JSV-1.4 F65WD(p98), WED CF-6.5 C11MN(p42) MON CC-1.1 ∙ ∙ ∙ ∙ F94FI(p156) FRI CF-9.4 I23TE(p64), TUE EI-2.3 B51TE(p69) TUE EB-5.1 I11TE(p57) TUE CI-1.1 u uta G51TU(p111) . . THU . . (p144) . EG-5.1 . . THU . . . . CK-P.12 ...... Juejun. . . . . Hu, . (p77), . . . TUE . Huatian . . CH-5.5 (p69) Hu, . . . TUE . . . . Hao EC-3.1 . . Hu, . . . . . (p161) . . . . FRI . . . . (p162) . CG-7.2 . . . FRI . . Chuanfei . . . . CK-9.5 Hu, . . . Wei . . . . Chia . . . . Hsu, . . . . . Stefan . . Hrisafov, . (p153) Calin FRI (p49) CC-7.1 Hrelescu, . (p82) MON . . WED Zden CA-P.13 . . . . CF-4.2 Hradil, . . . . Karine . . . . . (p46) . . Hovhannesyan, . MON . . (p121) . . . CC-1.4 Sarah THU . . . Houver, . EC-5.4 ...... James . . . . . Hough, . . . . Jonathan . . Houard, . . . Yaonan Hou, usi,Se l E62WD(p91), WED CE-6.2 . (p79) . . TUE . . CD-P.15 . . . . . (p172) . Ali . FRI . Syed . EG-P.14 . . . Hussain, . . . . . Guillaume . . Huss, . . . Jurriaan . . . Huskens, Ersin. (p33), Huseyinoglu, MON JSII-1.4 ...... (p33), . . MON . Anton JSI-1.5 . Husakou, . . . . (p160) . . . FRI . . . . Antonio CK-9.3 . . . . (p47) Hurtado, . . E. MON . . Diana . .EB-2.5 . Hunter, . . . . . (p158) Euan . . FRI . Humphreys, . CD-11.1 . Thomas. . . Hummel, (p61), TUE Jean-Pierre EH-2.3 Huignard, . (p31) . . MON . . EB-1.2 A. . (p33), . Paloma . MON . . Huidobro, ED-1.5 Emilio . . . . Hugues-Salas, . (p110) . . THU . . CG-5.1 . . . . . Andreas . (p33) . (p36) Hugi, . MON . MON ED-1.4 Hannes . CE-2.2 . Huebener, . . Arkadiusz . . . . Hudzikowski, (p54), . MON Laura EB-P.14 . Huddleston, ...... (p94), Alexander WED Huck, (p158) .EG-4.1 FRI . . CF-9.6 . H ...... (p156) . . . . FRI . . (p46) . CM-8.5 . MON Rupert. . . . . (p31) CL-1.3 Huber, . . . . . MON . . . . Robert EB-1.2 . . . . Huber, . . . Paul . (p33) . . . Heinz MON . . (p138) . . Huber, . EC-1.4 P THU . . . . Heinz. . .PD-1.2 . . . . Huber, ...... Zixin . . (p90) . . Huang, . . WED . . (p82) . . Yuqing CF-5.2 WED (p92) . . . WED Huang, . CC-4.1 . . . . CJ-4.5 . . Yi...... Huang, ...... Wei-Hong . . (p113) . . . Huang, . THU . (p67) Hui . EG-5.3 Pan . TUE . . . . Huang, . EB-4.4 . . . . . (p85) . . Lin . . WED . . Huang, . . . CD-6.4 . . . . Junyang . (p88) . . . (p86) . Huang, WED . . WED . . CH-6.1 Jiasheng . CA-5.5 . (p141) . . . Huang, . . . THU . . . . . EE-P.9 . Jiapeng ...... Huang, ...... (p48) Jian-Jang . . . . MON Huang, . . CA-P.9 ...... Hui . . . . Huang, . . (p66) . . . TUE (p147), . He . FRI CA-3.3 . Huang, . . . . EG-7.1 . Haitao . . . . . Huang, ...... Guanhao . . . Huang, . . . . (p113) . . Yi . THU . Hua, . . EG-5.3 (p59) . . . . TUE . . . . . EJ-2.4 . . (p47), Zhichan . . MON Hu, . . CD-2.6 . . . Yi . . Hu, . . . Shu Hu, ü HP1 R (p170) FRI CH-P.12 (p167) FRI CI-5.4 (p167), FRI CI-5.3 F95FI(p156) FRI CF-9.5 ∙ (p102), WED CC-P.4 (p120) THU CB-7.2 ∙ (p125) THU CB-8.2 (p92), WED CB-4.4 (p121) THU EB-8.3 (p149), FRI EI-4.3 (p155) FRI CK-8.3 ∙ (p138) THU PD-2.3 (p46), MON JSV-2.4 es en-ihl C12MN(p44) MON CC-1.2 . . Heinz-Wilhelm bers, FP1 E p0) G76FI(p153) FRI EG-7.6 (p104), WED CF-P.19 (p106) WED EC-P.15 (p59) TUE EJ-2.4 ě E-.4MN(p54) MON .EB-P.24 ...... k ∙ F1. R (p165) FRI CF-10.1 ∙ ∙ FP1 E (p103) WED CF-P.10 ∙ ∙ S-. O (p46), MON JSV-2.3 D26MN(p47), MON CD-2.6 K1. R (p166) FRI CK-10.4
Authors' Index Authors' Index vnv ih SI-. O (p39), MON (p69) JSIII-1.4 . TUE . . CF-3.1 ...... Misha . . Ivanov, (p148) . (p143), . FRI THU Maksym CC-6.2 CJ-P.13 Ivanov, . . (p41) . . . . MON . . . . (p45) CM-1.5 . . . . MON . . . Aleksey . . . JSIII-2.3 . . Ivanenko, ...... (p69) . . . Hiromasa . TUE . . Ito, . . CH-5.1 . . (p170) . . Tatiana . . FRI . . Itina, . . CH-P.11 . . (p170) . . Jiro FRI . . . . . Itatani, .CH-P.20 M. . . . (p164) . Niels . . FRI . . . (p94) . Israelsen, . . CH-13.1 WED . . Niels . . . . CM-2.6 . . . Israelsen, ...... Ignacio . . . . . Isola, . . . . Keisuke . . . . . Isobe, . . . . Aqiq . . . Ishraq, . Atsushi . . . Ishizawa, . . (p138), (p45) Tomohiro THU (p164) MON Ishikawa, FRI .PD-1.8 JSIII-2.3 . . . CJ-9.6 ...... L...... Kenichi . (p86) . . . WED . . Ishikawa, . . . CF-4.6 . . Yorihisa . . . . . Ishii, . . . . . Osamu . . Ishii, . Rammaru (p128), Ishida, THU (p41) CM-5.5 . MON . . EH-1.5 ...... Amiel . . Ishaaya, . Giovanni Isella, oi,Ade EP3TU(p141) THU EE-P.3 ...... Waqar . . . Muhammad . (p30), . Iqbal, . MON . (p127) CG-1.3 Andrey . THU . Ionin, . (p128) EF-7.2 . . THU ...... CE-10.6 . . . (p79) . . Giacomo . . TUE . . . Inzani, . CD-P.17 (p162) . . . Erica FRI ...... EH-6.5 Invernizzi, ...... Aviraj . . . . . Ingle, . . . . Gregor . . . Indorf, . Ivano Indiveri, nzw,Kna...... C-31FI(p164) FRI CH-13.1 ...... Alfonso . . . Incoronato, . Kenta Inazawa, lao,Io C12MN(p44) MON . . . . . CC-1.2 . . . . . O. . . . . Timothy ...... Imogore, ...... Riku . . . . Imamura, . (p52) . . (p156) . MON . Igor FRI JSV-P.1 . . . Ilyakov, . CI-4.2 ...... Kohei . . . . . Ikeda, L...... Wilber . . . . (p81) . . IJzerman, . . TUE . . Kensuke ED-P.7 . . . . . Iitsuka, . (p45) . . . . MON . Yuto . . Iida, .JSIII-2.2 . . Stepan . . . . Ignatovich, Hironori. (p154) FRI Igarashi, CM-8.3 . . . . . Sa . . . Idlahcen, . (p65), Takuro TUE CE-3.3 Ideguchi, . . . . . (p67) . . TUE . . EH-3.4 ...... Heide . . . . (p91) (p44) Ibrahim, . . . WED MON . meryem . CE-6.3 JSV-2.2 . . . . Ibnoussina, ...... Marzia ...... Iarossi, . . . Salvatore . . . Iannotta, . . (p54), Erica MON Iacob, .EB-P.23 . . . Nikolay. Zheludev, I. (p140) THU CG-P.20 . . I ...... Itai Hyams, ugear,Cdi I34WD(p99) . . WED . . EI-3.4 ...... (p37) . Joonhyuk . (p45), MON . Hwang, MON EF-1.2 Cedric . EF-2.3 . . . . . Huyghebaert, ...... Guillaume . . . Huyet, (p47), . . MON G. CH-2.5 Huyet, ...... J. Mikko Huttunen, H ü D1. R p5) J1. R (p168) FRI CJ-10.6 (p154), FRI CD-10.3 (p156) FRI CM-8.4 (p174), (p174) FRI FRI CM-P.9 CM-P.20 (p143), THU CJ-P.5 G51TU(p110), THU CG-5.1 J51TU(p125) THU CJ-5.1 (p132), (p146) THU FRI CD-9.2 CG-6.1 (p71), TUE CF-3.2 (p137) THU JSIV-2.5 B34WD(p86) WED CB-3.4 (p159) FRI EH-5.6 tnoe,Ldi . . . . Ludwig ttenhofer, ï J22TE(p70), TUE CJ-2.2 ...... d ∙ GP1TU(p139) THU CG-P.1 ∙ ∙ ∙ ∙ M42TU(p112) THU CM-4.2 ∙ H1. R (p164) FRI CH-13.1 G65TU(p128) THU EG-6.5 HP1 R (p170) FRI CH-P.10 ∙ ∙ H13MN(p36) MON CH-1.3 ∙ ∙ ∙ ∙ MP5FI(p173) FRI CM-P.5 F46WD(p86) WED CF-4.6 J32WD(p97) WED EJ-3.2 DP2TE(p80) TUE ED-P.2 DP6TE(p81) TUE ED-P.6 E32TE(p65) TUE CE-3.2 aoc,Sbsin...... JII24MN(p47), MON JSIII-2.4 ...... Sebastian Jarosch, aun vs C-. E (p85) (p141) WED THU EE-P.11 . .CI-2.3 . . (p62) . . . . TUE Ga . . (p132) . . . THU . EI-2.1 Jargot, . . . . CD-9.2 . . . Sebastián ...... Jarabo, ...... (p33) . . Yves. . MON . . . Jaouen, . . JSV-1.4 . . . . . Nicolas . . . . . Jaouen, . . . . . Eli . . Janzen, . . Senta Jantzen, anr aie...... C-. R (p169) FRI . . . CM-9.5 (p44) . . . MON . . . Matthijs JSII-2.2 . . S. . . . G...... Jansen, . . . . (p61) . Davide . . TUE . . . Janner, . . CI-1.5 . . . . . Kyu-Ha . . . . Jang, ...... Bumjoon . . Jang, Kambiz Jamshidi, (p31), Venkatesan MON Jambunathan, EC-1.3 ...... (p31) . MON Omar Jamadi, MahmoudEC-1.2 Jalalimehrabad, aai adn . . (p132) . . THU . (p156) . CD-9.2 . FRI . . . . . CL-4.4 (p101) . . . . WED . Mandana . . . . EF-4.6 . . Jalali, ...... Emmanuelle (p128) . . . . THU Jal, . K. . JS.4 . Vishal . ECBO . . Jaiswal, + . CL . Saurabh . . Jain, . . Nitish Jain, ad,Mcal...... (p64) . (p66) TUE . . TUE . EI-2.3 . ED-3.4 ...... Michael . . . Jaidl, Eslami . . . Khalil . . Jahromi, . . Frank Jahnke, áesá aa...... C-. E (p90) WED . . . CH-6.3 ...... yasaman . . . jahani, . Jana Jágerská, aaih hnuai.....JI15MN(p33) MON JSI-1.5 . (p28) (p140) . MON . THU . . J CE-1.1 CG-P.16 . . . Chennupati . . . . . Jagadish, . . . . Deependra . . (p130), . Jadoun, . THU Gianni CK-6.1 . (p36) Jacucci, . . MON . . CJ-1.3 . . . . . (p93), . . Maxime WED . . Jacquot, . .EF-3.4 . . Hermance . . Jacqmin, . (p152) . FRI . . . (p91), . .CM-8.1 . . WED . . Ronen. CE-6.2 A.. . Jacovi, (p40) . James . MON . Grant, . CK-2.5 . Jacob . . . . (p146) . . . . FRI . . . . CJ-7.1 ...... Philip . . (p68) . . Jacob, . . TUE . . . . Bejoys .CD-4.5 . . (p68) . Jacob, . D. . TUE . Stuart . CD-4.5 . . Jackson, . Stephen. . . . Madden, J. Benjamin Eggleton, J. .C is dad . . (p113) . . THU . . EG-5.3 Eduardo . . Dias, . . C. . J. Jeremy Baumberg, J. J zm,Suo...... (p85) . . WED . . CI-2.2 ...... (p39), . Shuro . MON . Izumi, . EG-1.4 David . . . Izquierdo, . . . . (p122) . . THU Ignacio CI-3.5 (p65) . . Izeddin, TUE . (p64) . EB-4.2 . . TUE . . . . İ EC-2.2 . . . . . Katsumi . . . . . Iwatsuki, . . . . . Takayuki . . . Iwasaki, K. Sergey Ivanov, vnv .K F75TU(p129) THU . EF-7.5 ...... Sergey . . Ivanov, . K. S. Ivanov, ä iaa,Fdl...... E-. U (p59) TUE EH-2.2 ...... Fadil yikanat, e,Mtha ...... Matthias ger, G45TE(7) E23TU(p113) THU EE-2.3 (p74), TUE CG-4.5 AP3MN(p48), MON CA-P.3 (p159), (p164) FRI FRI CK-8.6 CK-9.6 (p66), TUE EC-2.4 ∙ ∙ J1. R (p168) FRI CJ-10.5 K63TU(p132) THU CK-6.3 (p137) THU EA-6.5 (p156) FRI CF-9.5 ∙ H84TU(p114) THU CH-8.4 GP1 H p4) G76FI(p153) FRI EG-7.6 (p112), THU (p140), THU CG-5.3 CG-P.12 (p41), MON JSIII-1.5 GP3FI(p172) FRI EG-P.3 C82FI(p161) FRI CC-8.2 HP1WD(p107) WED EH-P.1 ë a G61FI(p146) FRI CG-6.1 ...... tan ∙ AP1 O (p49) MON CA-P.10 ∙ ∙ ∙ ∙ E84TU(p113), THU CE-8.4 ∙ K64TU(p134) THU CK-6.4 ∙ C64TU(p134) THU EC-6.4 ∙ G33WD(p90), WED EG-3.3 ∙ C65FI(p152), FRI CC-6.5 A36WD(p95) WED EA-3.6 ∙ L41FI(p152), FRI CL-4.1 H64FI(p162) FRI EH-6.4 F24TE(p61) TUE CF-2.4 ain rgr H1. R (p161) FRI (p159) FRI CH-12.2 . . CH-12.1 ...... Rapha ...... Jauberteau, . . . . Gregory . . Jasion, . . Greg Jasion, eni,Mtiu...... C-. O (p32) MON . . CK-1.5 ...... Ottavia . (p163), . (p128) . FRI . Jedrkiewicz, THU . CH-12.4 Mathieu . CE-10.6 . . . . Jeannin, ...... (p51) . . . . MON . . . CB-P.14 Piotr . . . . . Jaworski, ...... Ali . . Javey, . Julien Javayoles, (p39), (p37) MON MON EF-1.4 . EF-1.2 ...... (p173) . . . . FRI . . . . JSIV-P.2 . . . . . Julien ...... Javaloyes, . . . . J. . . . Javaloyes, . . (p38), Lina MON Jaurigue, CJ-1.4 ...... Cesar Jauregui, oaso,AeadaC D31TE(p62) TUE (p106) ED-3.1 WED . EC-P.6 . (p56) . C. . TUE . . CL-2.1 Alexandra ...... Johansson, . . . . . Yogesh . . (p83), Joglekar, . . WED Haakan CD-6.2 . Joensson, ...... P (p86) Chandroth WED Jisha, (p83) CA-5.5 WED . (p54), . . EG-2.1 MON . . . . EB-P.12 ...... Christian ...... Jirauschek, ...... Wei . . . . Jing, . . . (p50) . . . MON . Lin . (p140) CB-P.13 . Jin, . . THU . . . CG-P.12 Cuihong . (p78), . . Jin, . TUE . Alvaro CD-P.6 ...... Jimenez-Galan, . . . . . (p129), Yuqing . THU . Jiao, . . CJ-5.4 ...... (p29) . . . MON . . . . Pisu JSV-1.1 . . . (p46) Jiang, . . . MON . . . . (p65) . JSV-2.4 . . . . TUE . . (p149) . . . . . EH-3.2 . FRI . . Jie . . . . . EF-8.3 . . Jiang, ...... (p97) . . Jialing . . . WED . . . Jian, . . . . . EI-3.3 . . . . . Xinqiao . . (p101) . . . . Jia, . . WED ...... EF-4.6 . . Baohua ...... Jia, ...... (p33) . . . Xinru . MON . . Ji, . . . . JSI-1.5 . . . . Minbiao . . . Ji, ...... Kunhao . . Ji, . Dimitars (p54), MON Jevtics, EB-P.13 ...... Michael (p31) Jetter, MON JSII-1.3 . . . (p145) . . THU Alexander . (p44) . CK-P.21 . MON Jesacher, . Uhd . . JSII-2.2 Peter . . . . (p69) . Jepsen, R. . TUE . (p146) Bjarke . FRI . CF-3.1 . . Jeppesen, . . EB-9.2 Uk . (p115) . . Young . . THU . . . Jeong, . (p62) EF-5.5 . . . . TUE . . Young-Gyun . . CA-3.1 . . . Jeong, ...... Hyunseok . (p121) . . . Jeong, . THU . . . . EB-8.3 . Dongin . . . . Jeong, (p80), . . . TUE . Cheonha . CD-P.33 . . Jeon, H. . . (p134) Rasmus . . THU . Jensen, . CD-9.4 ...... Lars . . . . Jensen, K. . . . Philipp . . Jenke, . . Philipp (p48), Jenke, MON CA-P.1 . . . . . (p48), . . MON . CA-P.6 . Helena (p138) . . THU . Jelinkova, . . PD-1.3 ...... Michal . . . (p112) Jelinek, . . THU David CA-8.3 . Jegouso, Thomas Jefferson-Brain, HP1FI(p168) FRI CH-P.1 (p109) WED JSI-P.6 (p102), WED CC-P.8 (p50), MON CB-P.10 ∙ (p50), MON CB-P.4 (p157) FRI CJ-8.3 (p40), MON CJ-1.6 J36WD(p101), WED EJ-3.6 (p102), (p158) WED FRI CC-P.13 CF-9.6 (p54), MON EB-P.22 (p108) WED JSI-P.5 (p155) FRI CJ-8.2 (p67), (p135) TUE THU EB-4.4 CB-9.5 (p65), TUE EB-4.3 (p126) THU JS.2 ECBO + CL (p123) THU CE-9.5 (p48), (p48) MON MON CA-P.5 CA-P.6 (p48), MON CA-P.4 (p49) MON CA-P.11 J21TE(5) J23TE(p59), TUE EJ-2.3 (p57), TUE EJ-2.1 uhr'Index Authors' ë ...... l 184 ∙ ∙ J81FI(p153), FRI CJ-8.1 F73TU(p127) THU EF-7.3 ∙ EP1 E (p105) WED CE-P.13 ∙ ∙ A52TU(p119) THU EA-5.2 ∙ F72TU(p127) THU EF-7.2 F33WD(p91) WED EF-3.3 okr,Dr G14MN(p39) MON EG-1.4 . . . . (p58) . . TUE (p175) . . FRI CL-2.2 ...... CM-P.26 ...... J . . Dirk . . . . , . . . . Jonker ...... Matthieu...... Jonin, . . . (p52), . Yola . MON . Jones, . EA-P.3 . . . Isaac . . . Jonas, (p52), . . MON . EA-P.5 . . . . . Y. . . . Nicolas . . Joly, ...... (p139), . . THU . Nicolas . CG-P.7 . Joly, ...... Spencer . . Jolly, (p33) . . MON . . JSI-1.5 ...... (p130), . Peter . THU . Jojart, B. CD-9.1 . Michael . . . Johnston, (p74) . . TUE . . . . . CG-4.5 ...... Kerr . . . . . Johnson, . S. . . Allan . . . Johnson, . Allan . . Johnson, Aurelian John-Herpin, J J J Jonu ué ac DP3 U (p80), TUE CD-P.33 . . . . (p171) . (p62) . J FRI . TUE . CH-P.26 . . EI-2.1 ...... Marco . . . . . Jupé, . . (p136), . . . THU Stephan . . Junger, CD-9.6 . . . . Minwoo . . Jung, ...... Saher . . Junaid, . . . . . (p41) . . MON Aurelie EH-1.5 . . Jullien, Renato (p78), TUE Juliano-Martins, CD-P.2 ...... Vytautas Jukna, (p64) TUE ED-3.2 ...... (p33), Juki . . . MON . Thomas . ED-1.5 . . . Juffmann, . . . (p172) Hubert . . FRI . Jozwiak, . EG-P.3 ...... Pierre . . Jouy, Koduru . . . Siddarth . . . Joshi, . . Jesil Jose, aeai ai H42TE(p65), TUE (p66) CH-4.2 . TUE . . . CA-3.3 ...... Maria (p130), . . THU . Kafesaki, CK-6.1 Franz . . Kaertner, ...... (p67), Muamer TUE Kadic, EH-3.3 (p175) . FRI . . CM-P.27 . . . . . Malgosia . . . Kaczmarek, Elmina . . Kabouraki, . (p37) . . MON . . CG-2.2 . . . Piotr . . . (p54), Kabacinski, . MON Adeline EB-P.20 . . Kabacinski, ...... Srinivasan Kaali, (p60), TUE K CC-2.4 ...... (p63) . . (p96) TUE . WED . . CH-4.1 . . CF-6.3 ...... (p35) Rokas . . . MON . Jutas, . . . EG-1.1 Augusto ...... Juste-Dolz, . . . . . Karolis . . Jurkus, . . Jonathan Jurkat, ü ö ö ö ö s lu I23TE(p64) TUE EI-2.3 ...... Klaus ns, s lu ...... C-.1TE(p78) TUE CD-P.11 ...... D. Klaus ns, g hitn ...... Christina rg, lne,Fidrk BP1MN(p53) MON EB-P.1 ...... Friederike hlinger, gne,Mru ...... Marius rgensen, D56TE(7) F84TU(p126) THU CF-8.4 (p76), TUE CD-5.6 (p119) THU EA-5.3 (p163) FRI CG-7.4 (p159) FRI CH-12.1 ∙ E95TU(p123) THU CE-9.5 (p161) FRI CH-12.3 ∙ (p128), (p174) THU FRI CM-5.6 CM-P.13 (p78), TUE CD-P.14 (p59) TUE EJ-2.4 (p125) THU CB-8.2 (p92), WED CB-4.4 (p106) WED EC-P.17 CP1 E (p106), WED EC-P.13 (p132) THU CK-6.3 (p157) FRI EH-5.5 ∙ ∙ ∙ MP1 R (p174) FRI CM-P.15 F75TU(p122), THU CF-7.5 L44FI(p156) FRI CL-4.4 (p80) TUE CD-P.37 (p102) WED CC-P.5 ć š ai D26MN(p47), MON CD-2.6 ...... Dario , uks ia M65TU(p134), THU CM-6.5 ...... Linas auskas, ∙ ∙ H91TU(p124) THU CH-9.1 ∙ ∙ ∙ ∙ FP1WD(p103), WED CF-P.1 ∙ D17TU(p138) THU PD-1.7 HP1 R (p170) FRI CH-P.19 ∙ SV51FI(p165) FRI JSIV-5.1 ∙ L35TU(p137) THU CL-3.5 ∙ EP4TU(p141) THU EE-P.4 ∙ B12MN(p31) MON EB-1.2 L43FI(p154), FRI CL-4.3 C31TE(p69), TUE EC-3.1 C23TE(p66) TUE EC-2.3 aay uhnu...... C-. R (p163) . FRI . . . CG-7.4 ...... Hermann . . Kahle, Subhendu Kahaly, atso,Dni G15MN(p32), MON (p157) CG-1.5 . FRI . . . .CJ-8.3 ...... (p66), . Daniil TUE . . . Kartashov, CG-3.2 (p44) . . MON Maximilian. . . ED-2.3 Karst, ...... (p85), . Gabriel . WED Karras, CJ-3.3 . Maxim . , . (p63) . Karpov . TUE . . . CB-2.1 ...... (p136) . . THU . Tanvi . (p173) . FRI Karpate, . .CH-10.6 (p154) M. . JSIV-P.1 . FRI . . Matthias . . . Karow, .CD-10.2 . . Magnus. . . . , . . (p31) . . . . MON Karlsson . . . JSV-1.3 . Zeeshan . . . . . Karim, . . . . . Juho. . . Karhu, . . Osman Karayel, (p162) FRI . . CL-5.4 ...... Ali . . Karatutlu, (p132) (p50), Mehmet THU MON Karakız, CB-P.8 CJ-6.2 ...... (p111) . . . THU . . . Leonid EE-2.2 . . . . . Karachinsky, . . . . Oguzhan . . Kara, C. Henry Kapteyn, (p33), MON (p147) ED-1.5 . FRI . . EG-7.1 ...... Filippos . . . Kapsalidis, (p53) Jasmin . MON . Fee . EB-P.4 . . . Kappert, . . . . Valentin . . Kapitany, . (p52), Konstantina MON (p138) EA-P.2 Kanta, . THU . . PD-2.3 . . (p114) . . . THU . . . Fumihiko . JSI-3.6 . . . . Kannari, . . . . Myungkoo . Kang, Muk (p31) . Kyeong . MON . Kang, . EB-1.2 . . . . . (p54) . . MON . Joo. . (p45) EB-P.11 . Bong . . MON . . Kang, . . . JSIII-2.3 . George ...... Kanellos, . . . . Rina . . . Kanamoto, (p76), . . TUE Teruto (p56) CJ-2.6 Kanai, . TUE (p143) . . THU EE-1.2 . . CJ-P.8 . A...... Vladimir ...... Kamynin, . . . . Vladimir . . Kamynin, . . Ido Kaminer, (p76) TUE CA-4.5 Kamburo ...... Morteza . (p51) . . MON . Kamalian-Kopae, . CB-P.17 . Khosro . . . Kamali, Nikolay Kalyuzhnyy, (p68) (p31) TUE . MON . EC-2.5 . . JSV-1.3 ...... Sascha ...... Kalusniak, . . . Dimitrios . . Kaltsas, . (p84), . WED Heinz . . CC-4.4 Kalt, . . . Vladimir . . . Kalashnikov, . . (p87), . . WED . (p91) . CJ-3.4 . WED . . Edgar . EF-3.2 . . Kaksis, ...... Eirini . . . Kakkava, . Robin (p122), THU Kaiser, CC-5.4 . . (p104) . . WED . . CF-P.18 . . . . . A. . . Martin . . Kainz, . . . Yuta Kainuma, H51FI(13,E-. R (p164) FRI EH-6.6 (p148), (p153), FRI FRI CC-6.3 EH-5.1 (p144), THU CK-P.13 G55TU(14,C-. R (p150) FRI CG-6.5 (p114), THU CG-5.5 (p68) TUE CG-4.1 (p111), THU CE-8.2 (p162) FRI CJ-9.4 (p159), FRI CJ-8.5 (p92) WED CB-4.5 (p127) THU CB-8.4 (p94), (p125), WED THU CB-4.6 CB-8.2 (p90), (p92), WED WED CB-4.2 CB-4.4 (p42), MON ED-2.1 (p164) FRI CH-13.1 ∙ (p145) THU CL-P.2 (p155) FRI JSIV-3.2 (p70), (p116) TUE THU CA-4.2 CA-9.1 (p32), MON CA-1.4 (p148) FRI (p149) CG-6.4 FRI CM-7.3 (p135), THU JSIV-2.3 (p157), (p161) FRI FRI CC-7.5 CC-8.2 (p152), FRI CC-6.5 (p122) THU CB-7.4 (p32), MON CB-1.5 SIP1WD(p105) WED JSII-P.1 ğ u Kıvan lu, ç LP7TU(p145) THU CL-P.7 . . . . . ∙ L54FI(p162), FRI CL-5.4 ∙ ∙ J1. R (p164) FRI CJ-10.1 EP1 E (p104), WED CE-P.11 ∙ ∙ ∙ ∙ SI24MN(p46), MON JSII-2.4 ∙ A12MN(p30), MON CA-1.2 SV41FI(p159) FRI JSIV-4.1 B14MN(p32), MON CB-1.4 FP7TU(p142) THU EF-P.7 edr sa...... C-.1WD(p104), WED CE-P.11 ...... (p164), . . FRI . (p86) EH-6.6 Esra WED . Kendir, . CE-5.6 (p58) . . . TUE . . . . . EA-1.4 . . . . . George ...... Kenanakis, ...... Hannes . . . . Kempf, . . . . . Malik ...... Kemich, . (p167), . . FRI Meriem . . Kemel, CI-5.3 . . . . . Thomas . . Kelly, (p66), . . TUE . . . CA-3.3 ...... Anthony . . Kelly, . . . . . Martin Kellert, (p34), MON CE-2.1 ...... Ursula Keller, elr ila ...... (p159) . . . . FRI . . . . (p123) EH-5.6 . . . . . THU . . . Killian . EB-8.5 . . . . . Keller, ...... Kilian...... Keller, . . . . . Jussi ...... Kelavuori, . . . . . Robert . . Keil, . . Giel Keijsers, ééin ain...... (p95) . . WED . . EA-4.1 ...... Fabien . . . Kéfélian, . Jonathan Keeling, aei ed E55FI(p157) . . FRI . . (p39) EE-5.5 . . . MON ...... CG-2.3 ...... Hani ...... Kbashi, . . . . Mehdi . . Kazemi, . (p103), . WED M.. CF-P.6 . Kazemi, . . . . (p112), . THU G. CA-8.3 Peter . . Kazansky, . . . . . (p114), . . THU Peter CG-5.4 . Kazansky, . . . (p47), . . MON . EF-2.5 Sophie . (p80) . Kazamias, TUE . . ED-P.2 ...... (p61) Dmitry . TUE . . . . Kazakov, . . CI-1.4 . Kota ...... Kawashima, . . . (p80) . Shotaro. . TUE . Kawano, . (p86) CD-P.38 . Satoki WED . . CC-4.6 . Kawanishi, (p165) . . FRI Kazumasa . (p147) . . FRI JSIV-5.1 Kawanaka, . . (p63) . EI-4.1 . Masashi TUE . . . . . CB-2.1 . Kawaguchi, ...... Deepthy ...... Kavungal, V. . (p81) . Alexey . . TUE . . . ED-P.6 Kavokin, . . (p127) . . . . . THU . . Thorben . . CD-8.3 . . Kaul, ...... Paul ...... Kaufmann, . . . . Fabian . . . Kaufmann, . . Rei Kato, (p140) Aleksandra THU . . CG-P.20 . . (p165) . . . . FRI Kaszubowska-Anandarajah, . . . Rafal . CF-10.1 ...... Kasztelanic, . . . (p64), . . Sho TUE . . . Kasumie, EI-2.3 Z. . (p60) . Lukas . TUE . . Kastner, EB-3.5 ...... Christoph . . Kastl, . Ben (p124) (p53) THU MON Kassenberg, EG-6.2 . EB-P.9 ...... Ka . . . Artemios . . . Karvounis, . Ilya Karuseichyk, (p64) TUE EC-2.2 (p134) . . THU . . . K EC-6.4 V. . (p77) (p129) . Yaroslav . TUE THU . . Kartashov, EC-3.5 . EF-7.5 . . . Yaroslav ...... Kartashov, V. . . Yaroslaf . . . Kartashov, . . V. Y. Kartashov, ä MP2 R (p175) FRI CM-P.27 (p167) FRI CI-5.4 (p86), WED CF-4.5 (p161), (p169) FRI FRI CG-7.2 CI-5.6 (p99), (p154), WED FRI CA-7.4 CF-9.2 (p96), (p98), WED WED CB-5.2 CB-5.4 (p82), (p82), WED WED CA-5.1 CF-4.2 (p38), MON CA-2.4 (p149) FRI EG-7.3 (p45), MON EI-1.3 FP1 H (p142) THU EF-P.12 F83TU(p126) THU (p167) CF-8.3 FRI CM-9.2 (p147), FRI CM-7.2 (p122) THU (p129) CF-7.6 THU CB-8.6 (p127), THU CB-8.3 (p135) THU CB-9.4 (p118), THU CI-3.3 ∙ (p86), (p95) WED WED CF-4.5 CA-6.5 (p71), TUE CC-3.2 te,FazX C13MN(p44), MON CC-1.3 ...... X. Franz rtner, š I31WD(p95) WED EI-3.1 konien ,Vla...... C-.5FI(p174) FRI CM-P.15 ...... Vilma e, ˙ ∙ A65WD(p95) WED CA-6.5 ∙ E1. H (p128) THU CE-10.5 ∙ ∙ ∙ ∙ ∙ H1. R (p161) FRI CH-12.2 ∙ ∙ G13MN(p39), MON EG-1.3 I34TU(p120), THU CI-3.4 A64TU(p135) THU EA-6.4 ∙ FP8TU(p142) THU EF-P.8 ∙ M83FI(p154) FRI CM-8.3 AP8MN(p52) MON EA-P.8 F64WD(p98) WED CF-6.4 A32TE(p64) TUE CA-3.2 ipneg oisJ K23MN(p38), MON CK-2.3 . . . . J. Tobias Kippenberg, (p82), WED (p151) CB-3.2 FRI . (p113) . THU . .EI-4.5 . . . CE-8.4 . . . (p32) . . . Tobias MON ...... CE-1.4 Kippenberg, . . . . George . . . . . (p44) . . Kioseoglou, . MON . . . (p138) Isabel . JSII-2.2 . . THU . . Kinski, . . PD-1.7 L. . . . . Young . . . . Kim, . . Chan . . Young . . Kim, . . Sungwon Kim, i,Snsk...... C-. O (p30) MON CK-1.2 ...... (p44) . . . . MON . . . . Seonyeong. . . JSII-2.2 . . . Kim, ...... Sangsik (p133) . . . . (p83) Kim, THU . . Seok WED . CB-9.2 . Min . . EC-4.2 . . . Kim, . . . . . Hye . (p115) . . Mi . THU . . . Kim, . . EF-5.5 ...... Kyungduk . . . (p31), . Kim, . . . MON . W. . . Kun JSV-1.2 . . . . Kim, . . . . . (p138) Jungwon . . THU Kim, . . PD-1.7 . . . (p128) . . . . THU . . . . (p44) . Jisoo .CE-10.6 . MON . . Kim, . . . . JSII-2.2 . (p30) . . Hyunjung . . MON . . Kim, . . . .CG-1.2 (p115) . . Hyungjin. . . THU . . Kim, . . . EF-5.5 Woo . . . Hyun . . . . Kim, . . . . . (p144) . Doyeong. . . THU . . Kim, . . CK-P.12 . . . . . Dohyeong . . . . Kim, . . Hyeon . (p91), . Do . WED . Kim, . CA-6.2 . . Chanju . . Kim, . . (p162) . . . . FRI . . . . . EH-6.5 (p84) . . . . . WED . . Alexander . . CA-5.4 . . . . . Killi, ...... Robert (p63) . . . . TUE . Killey, . . . . Lars .EB-4.1 . . . . . Kildebro, ...... Esrom ...... Kifle, . . . Christian. . (p104) . Kießler, WED CE-P.5 Ankur . (p144) . (p153) Khurana, THU FRI CK-P.11 Aleksander CJ-8.1 . . . . . Khubetsov, ...... Foroogh ...... Khozeymeh, . . . . Sergey . . Khorev, Sobhy Kholaif, Anahita Kashi, Khodadad hgi lkad FP9WD(p103) WED . . CF-P.9 . . . . . Amir . (p33) (p145) . . MON THU Khodabakhsh, . CL-P.8 JSII-1.4 . Aleksandr ...... Khegai, . . . . Saumyakanti (p122) . . (p141) Khatua, THU . . THU CD-7.6 Oleg EF-P.3 . . . . Khasanov, . . Svyatoslav . . . Kharitonov, S. Denis Kharenko, M. Zahed Mohammed Khan, hld lae .M CP1 E (p102) WED Mohsen CC-P.11 . . Kelaki, (p104) M. (p76) WED Khalili E. TUE CE-P.6 . Elsayed CJ-2.6 . (p78), . . . TUE . Khaled, . . CD-P.1 . . . Nicholas . . . . Khaidukov, . M. . . Eldar . . (p146) . Khabushev, . FRI . . (p61) . .EB-9.1 . TUE . . . . . CF-2.4 . . . Ofer . . . . Kfir, . . . . Michael. . . Kewming, . Marius Keunecke, ei,Dnza ...... K. Denizhan Kesim, eshamr ioa . . Nicola. (p138) THU Kerschbaumer, PD-2.2 . . R . . (p163) . William FRI . . . . .JSIV-4.4 Kerridge-Johns, . . . . Johannes (p58) . . Kern, TUE . . . EB-3.2 Vincent...... Kermene, . . . . Romaine . . . Kerjouan, Iordanis Kerenidis, B94TU(15,E-. H (p141), (p155) THU FRI EF-P.2 CK-8.3 (p135), THU CB-9.4 (p149) FRI CK-7.3 K64TU(p134) THU CK-6.4 (p93) WED CA-6.3 ∙ (p69), (p170) TUE FRI CH-5.1 CH-P.15 (p66), TUE ED-3.4 BP1 O (p50) MON CB-P.12 K52TU(13,E-. R (p147) FRI EG-7.1 (p123), THU CK-5.2 A81TU(p110) THU CA-8.1 ∙ B65WD(9) D82TU(p127) THU CD-8.2 (p93), WED EB-6.5 J94FI(p162) FRI CJ-9.4 ∙ ∙ CP2 E (p107), WED EC-P.23 FP1 E (p104) WED CF-P.16 ∙ ∙ ∙ ∙ H12MN(p36), MON CH-1.2 MP3 R (p175) FRI CM-P.36 ∙ ∙ HP2 R (p170) FRI CH-P.23 S-. H (p114) THU JSI-3.6 ∙ ∙ ∙ C41WD(p82) WED CC-4.1 E14MN(p32) MON CE-1.4 I21WD(p83) WED CI-2.1 DP6TE(p78) TUE CD-P.6 C36TE(p77) TUE CC-3.6 ish ac ...... (p37) . S.. MON . . Marco . CM-1.2 . . (p36) . . Kirsch, . . MON (p165) . . Dennis FRI . .CE-2.2 . . Kirsch, . CF-10.1 V...... (p33) Sabrina . . . . MON . Kirner, . . . EB-1.4 . Jaroslaw...... Kirdoda, . . . . . Mackillo . . Kira, . Bettina Kipperer, li,Jla...... I23TE(p64) TUE . . . .EI-2.3 ...... (p82) . . . . WED . . . . . CB-3.1 ...... Maciej . . . . . Klein, . . . . Julian. . (p58), . . TUE Klein, . EB-3.3 Andreas . . Klehr, . . . . (p59), . . TUE CF-2.2 Friederike . (p147) . Klauck, FRI . . . EI-4.1 ...... (p74) . . . . TUE . . . . (p164) CG-4.5 . Robert . . FRI . . . . Klas, CK-10.1 ...... Martin . . . . Klaas, . . . . Ludwig . . . Kjellsson, (p36), S. Yuri MON Kivshar, CD-1.2 . (p48) . . MON . (p172) . CA-P.8 FRI . . . . EG-P.4 . . . (p167) . . . . . FRI ...... CF-10.2 . Yuri ...... Kivshar, ...... Ondrej . . . . . Kitzler, . . (p103), G. . WED . Zsolt . CF-P.14 . Kiss, . (p49) . . MON Gellért . . CA-P.13 Kiss, ...... Balint . . . Kiss, . (p139), Viktor THU Kisel, CG-P.3 ...... Alexander Kirsche, ln,M ...... C-. U (p72) TUE CG-4.4 ...... (p31) . . . . MON . . . . . EB-1.2 ...... Matthias . . . . Kling, . . F. . . M. . . . Kling, . Laurent Kling, (p170) . FRI . . CH-P.21 ...... Mariusz . . . Klimczak, . Oliver Kliebisch, (p34), MON CJ-1.1 ...... Arno Klenke, (p63) . TUE . . . EB-4.1 ...... Sven . . . Kleinert, . (p144) Moritz THU Kleinert, ThomasCK-P.7 Kleine-Ostmann, np,Hio...... E-. U (p66), TUE EI-2.5 . . (p53) . . MON . EB-P.3 ...... Heiko (p50), . MON . Knopf, . CB-P.2 . . Lukas . . Knips, ...... (p40) . . . . MON . Andrea . . . . CD-1.5 . Knigge, . . . . (p41) . . Michael . MON . . . . Kneissl, D. CM-1.5 . . . . . Pascal ...... Knefeli, (p94) . . . WED (p29) . Jyothsna MON . CH-6.6 . KM, . . JSI-1.1 . . (p61) . . . . Antoine TUE . . . . Klos, . CH-3.6 . (p175) . . Charalambos . FRI . . (p46) . . Klitis, CM-P.27 . MON . . . . Cedric . . CL-1.2 . . . Klinkert, . . van . . . . Anne . . . . (p139) . Klinken, . . . THU . . Argyro CG-P.5 . . . . Klini, . . . Rainer . . . Kling, F. Matthias Kling, ...... Sebastian Klembt, F83FI(19,E-. R (p147) FRI EG-7.1 (p119), (p149), THU FRI EF-6.3 EF-8.3 (p66), (p91), TUE WED CD-4.3 EA-3.3 (p44), MON ED-2.3 G73FI(11,C-. R (p165) ∙ FRI CG-7.6 (p161), FRI CG-7.3 ∙ (p150), (p162) FRI FRI CG-6.5 EH-6.4 (p65), TUE EH-3.2 (p128) THU CF-8.6 (p161), FRI CG-7.3 J33WD(8) E82TU(p111), (p164) THU FRI CE-8.2 CJ-10.1 (p73), (p85), TUE WED CF-3.4 CJ-3.3 (p70), TUE CD-5.3 (p139), (p157) THU FRI CG-P.7 CJ-8.3 (p89), WED CA-6.1 (p38), MON CJ-1.4 (p147) FRI EI-4.1 (p123) THU CK-5.3 (p69), TUE EH-3.5 DP8TE(p78), TUE CD-P.8 (p82) WED CB-3.1 (p167) FRI CF-10.2 (p123) THU CE-9.5 B84TU(p123), THU EB-8.4 (p139), THU CG-P.7 (p139), THU CG-P.3 uhr'Index Authors' 185 ∙ ∙ ∙ G44WD(p98) WED EG-4.4 J16MN(p40), MON CJ-1.6 G76FI(p165) FRI CG-7.6 ∙ ∙ A75FI(p150) FRI EA-7.5 ∙ ∙ ∙ C61TU(p130), THU EC-6.1 ∙ E42TU(p133), THU EE-4.2 ∙ ∙ B71TU(p116) THU CB-7.1 F13MN(p30), MON CF-1.3 F75TU(p129) THU EF-7.5 D52TE(p70), TUE CD-5.2 I15MN(p47), MON EI-1.5 ∙ ∙ I52FI(p167) FRI CI-5.2 J23TE(p70) TUE CJ-2.3 Kn oek,Jn E84TU(p113) THU . CE-8.4 Ko ...... (p36) . . . . MON . . . Sergey CH-1.3 . . . . . Kobtsev, . . . Jens . . . . . Kobelke, ...... Kwang-hoon . . Ko, . . . . . Dong-Woo . Ko, . . . . . Hyuk Dong Ko, oasbr,Wtr . . . Wataru . . . Komatsubara, . Ksenia. Komarova, (p33), MON .ED-1.5 (p175) . . FRI . . CM-P.32 . . . (p152), . Kenichi. . FRI . . Komagata, . CJ-7.5 Daniil . . . . Kolymagin, . . . . (p74) . . . TUE . . Anton . .CG-4.5 . . . Kolyadin, . . . . Vasily (p54) . . . . MON Koltashev, . . (p158) . EB-P.12 . . Premsyl. FRI . . . . . Kolorenc, . .CF-9.6 ...... Dmitry...... Kolker, . . . . Mirella . . . . Koleva, (p142) . Philip. . THU . Jan EF-P.16 . . . Kolb, . . . Sascha . . . (p133) Kolatschek, . THU . (p90), Andrey CL-3.2 WED . (p61) Kokolov, . CJ-4.3 . TUE . . . . . CI-1.4 ...... Alexey ...... Kokhanovskiy, . . (p169) . . (p50) . FRI Sami . MON . Koho, CI-5.6 . CB-P.8 . . . . . Soma . . . . Kogure, . . (p82) . Elena . WED . . CB-3.1 . Kognovitskaya, . . . (p154) . . Johannes FRI . . . . . Koeth, CF-9.2 . . . . . Jan-Philipp . . . . . Koester, M. . . . Stefan . (p68) . Koepfli, . (p30), TUE . MON Daniel CA-4.1 . CF-1.4 Koenen, . . . . (p56) . . . . TUE . . . R. EE-1.2 . . . . . Johannes . . . . Koehler, . . . . Jackson . . Kock, . Mathieu Kociak, . Vladimir (p51), MON Kocharovsky, CB-P.21 . . . . . (p165) Vitaly FRI Kocharovsky, CI-5.1 . (p113) . . THU . . . Ekaterina CE-8.4 . . (p165) . . . . FRI Kocharovskaya, . . . Marian . CF-10.1 . (p148) . . . . FRI Kochanowicz, . . . . CC-6.3 . . . Ueli . . . . Koch, . W. . . Stephan . . . Koch, . Coskun Kocabas, osatnu eri . . . . (p64) . Georgia . TUE . . EC-2.2 Konstantinou, . (p134) . Maria . THU . . EC-6.4 . Konstantaki, V. (p168) . . FRI . Vladimir . (p126) CH-P.3 . . . Konotop, . THU . . . Vladimir . .CH-9.3 . . . . Konotop, . . . Leonid . . . (p142) . . Konopelko, . . THU . . EF-P.16 Patrick...... Konold, . . . . . Shunya . . . Konno, . Dmitry (p134) (p112), THU Konkin, THU CD-9.4 . CG-5.2 ...... (p51) . . Kuniaki MON . . CB-P.16 Konishi, . . . . Jing . (p108) (p142) . Kong, . WED (p68) THU . EI-P.5 TUE Nikita EF-P.16 . . . . . EC-2.5 Kondratiev, . . . . . Alexandr ...... Kondrashov, ...... Takashi . . Kondo, . . . . . Ioannis . . Komis, ...... Irina Komen, J1. R (p168) FRI CJ-10.6 (p139) THU CG-P.4 ∙ (p75), TUE CC-3.5 (p160) FRI CJ-9.3 (p143) THU CJ-P.7 (p32) MON CF-1.5 ∙ (p142) THU EF-P.6 (p142) THU EF-P.6 (p51), MON CB-P.21 M44TU(14,C-. R (p154), (p175) FRI FRI CM-8.3 CM-P.29 (p114), THU CM-4.4 ∙ (p114) THU CM-4.4 ç ö B82TU(15,E-. R (p149) FRI EF-8.3 (p125), THU CB-8.2 (p142) THU EF-P.6 E54WD(p84) WED CE-5.4 zz F55WD(p94) WED CF-5.5 ...... Azize , i,Hdi HP2 R (p170) FRI CH-P.22 ...... Hedwig tig, ∙ B44WD(p92), WED CB-4.4 ∙ ∙ ∙ ∙ ∙ JP1 H (p143), THU CJ-P.13 BP2 O (p51), MON CB-P.21 ∙ SI-. O (p37) MON JSIII-1.2 G52TU(p112), THU CG-5.2 ∙ ∙ AP1 O (p49) MON CA-P.16 ∙ ∙ D1. R (p154) FRI CD-10.3 M73FI(p149), FRI CM-7.3 B82TU(p119) THU EB-8.2 ∙ K13MN(p30) MON CK-1.3 ∙ G33TE(p68), TUE CG-3.3 ∙ ∙ H45TE(p67) TUE CH-4.5 I13MN(p45) MON EI-1.3 I26TE(p68), TUE EI-2.6 B44TE(p67) TUE EB-4.4 olvks ria MP8FI(p173) FRI CM-P.8 ...... Erminas Kozlovskis, . . . Gabrielius Kontenis, oá,Mri GP1 H (p140), THU CG-P.15 . . Kozio . . . . . (p64) . . . . TUE . . . ED-3.3 . Martin . . . . Kozák, . . (p95) . . . WED Fumio . . CE-6.6 . Koyama, . . (p44) . Grzegorz . MON . . Kowzan, . . CC-1.2 . . (p45) . . Wolfgang . MON . . . . Kowalsky, . EF-2.3 . . . . Maciej ...... Kowalczyk, (p48) . . MON . Sergey . .CA-P.6 . . Kovalev, . . . (p60) . . (p164) Anton TUE . FRI . Kovalev, . CC-2.4 . CD-12.1 Nazar. . . (p153) . . . . FRI Kovalenko, V. . . EG-7.6 . Maksym . . (p141) . . . . THU Kovalenko, . . . . EE-P.7 . . Andre . . . . Kovach, ...... Milutin . . . . Kovacev, . . . . . Petr . . (p151) Koutenský, . FRI Alexandre EI-4.5 . Kouta, . . . Erieta-Katerina . (p53) Koussi, MON George EB-P.4 . . Kourmoulakis, Christos Kouloumentas, (p80) TUE ED-P.2 . . . (p150) . D. . FRI . . Anastasios . CC-6.4 . . . . . Koulouklidis, . Anastasios . . (p174) . . FRI Koulouklidis, . . CM-P.11 . . . Rai . . Kou, . . . (p160) . (p154) FRI . K . FRI . CJ-9.3 Yuri CD-10.3 . . . . . Kotsiuba, . . . Nadezhda . . . Kostyukova, . Alexey . . . Kosolapov, ...... (p106), Kirill WED Koshelev, EC-P.13 ...... (p141), Thomas THU Koschny, EE-P.3 . . . (p86) Ko . . WED . . CA-5.6 . . . . . (p52) . . MON Olga . . EA-P.9 . . Kosareva, . . (p174) V. . . Yuri FRI . . .CM-P.19 . Korostelin, . . . . Natalia . . . Korolkova, . (p114), Viktor. THU (p29) Korolkov, CG-5.5 MON . . ED-1.1 ...... Viacheslav . . Korolev, . Vladimir Korobov, (p86), WED CA-5.5 . Korny . . . . (p141) (p154) . . . THU FRI . . Alexey . .EE-P.3 CD-10.3 . . . . . Kornienko, ...... Olga ...... Koritsoglou, . . . . Andrey. . . Koribut, . . . Igor Korel, . . . . . (p143) . . . . THU . (p74) Nikolaos . .CJ-P.8 . TUE . . . Korakas, S. . ED-4.4 . . Mariya . . . . . Kopyeva, . . . . Mariya. . (p56), . . Kopyeva, TUE . EE-1.2 Sergey . (p138) . . Koptyaev, THU . . PD-2.4 . (p34) . L. . MON H. . . . Frank CK-2.1 ...... Koppens, ...... (p51) . Frank . . . MON . . . Koppens, . . (p169) .CB-P.18 . . FRI . . Christophe . . . . CI-5.5 Kopp, ...... Lea . . . (p147) . Kopf, . . . FRI . . . (p48) . EG-7.2 Petr. MON . Kop’ev, . . CA-P.5 . . . . Bert . . . (p51) . . Koopmans, A. MON . . CI-P.5 Vasilii ...... Konyushkin, . . . . . Takis . . Kontos, . . Sergey Kontorov, ö HP1FI(p168) FRI CH-P.1 (p174) FRI CM-P.17 ∙ ∙ ∙ (p162) FRI EH-6.4 (p144) THU CK-P.13 ∙ (p150) FRI CG-6.5 (p120) THU CA-9.4 ∙ (p134) THU CD-9.4 (p83), WED EG-2.1 (p175) FRI CM-P.35 tg ei F14MN(p30) MON CF-1.4 ...... Felix ttig, š EP7TU(11,E-.6FI(p172) FRI EG-P.16 (p141), THU EE-P.7 (p102), (p148) WED FRI CC-P.10 CC-6.3 (p46), MON CC-1.5 (p155) FRI EE-5.2 (p93) WED CE-6.5 t,Jn...... Jan ata, ł š Pawe , v,Og MP1 R (p174) FRI CM-P.15 ...... Olga ova, ł H1. R (p163), FRI CH-12.4 ...... ∙ M36WD(p100), WED CM-3.6 ∙ ∙ ∙ ∙ ∙ MP3 R (p175) FRI CM-P.30 (p174) FRI CM-P.21 ∙ ∙ ∙ H25MN(p47) MON CH-2.5 LP2TU(p145) THU CL-P.2 E63WD(p91), WED CE-6.3 G65FI(p150), FRI CG-6.5 A75WD(p99) WED CA-7.5 ∙ B33WD(p84) WED CB-3.3 ∙ C32TE(p71) TUE EC-3.2 J22TE(p70) TUE CJ-2.2
Authors' Index Authors' Index Kube repk ao D14MN(p33), MON (p44) ED-1.4 MON . . . .JSV-2.2 ...... Karol . . . Krzempek, . Justyna Krzak, Natalia Kryzhanovskaya, rtasi,Vco ...... Victor . . . . Krutyanskiy, Ekaterina (p150) Krutova, (p80), FRI TUE CG-6.5 CD-P.40 ...... Katarzyna . . Krupa, . . Sergey Kruk, Kr ro,Crsofr...... (p32) . . MON . Kr . (p44), CK-1.4 MON . Christoffer . . CC-1.3 . (p53) Krook, . . MON Wieslaw . . EA-P.12 . . . Krolikowski, ...... Tobias . . Kroh, . . . Tim Kroh, Gerg . . . Krizsán, Dmitry Krizhanovskii, (p144) THU S. (p61) CK-P.11 N. . TUE . Harish . EJ-2.6 . . . (p122) . Krishnamoorthy, . . . THU . Dmitry . CB-7.3 . E. Krisanov, . (p39) . . MON Emmanouil . . . Kriezis, .CG-2.4 . . (p126) . Geoffrey . THU . . JS.2 Kreyder, ECBO Martin + CL Kretschmar, Michaela Kress, rsc vr...... (p140), . . THU Ivor CG-P.20 . Kresic, . . . . (p113), . . THU . Stanislav EH-4.3 . Kreps, . . . . . R. Joachim Krenn, (p58), TUE EB-3.3 (p77) . . TUE . . EB-5.5 ...... Mark . . (p36), Kremer, . MON Matthias CH-1.2 . (p73) Kreis, . TUE . . . EB-5.3 . . . . (p105) . Roderik . WED . . CE-P.12 Krebbers, . . . . . Vojtech . . Krcmarsky, (p102) B. WED Sergey CC-P.16 . P. Kravtsov, (p94), Natalya WED Kravchenko, CF-6.1 ...... (p41), . . MON . (p48) EF-1.5 Ferenc MON . . Krausz, CA-P.1 ...... (p76) . . . TUE . Bernd . . .CJ-2.6 . Krauskopf, . . . Jan . . . Kratochvil, V.. Dmitry Krasnikov, Kr rkwk,Mce BP1 O (p50) MON CB-P.11 ...... Kr Michel Krakowski, rhe oa IP3WD(p108) WED . . EI-P.3 ...... Jonas (p55), . . MON . Krakofsky, . EJ-P.6 . . Roman . . Krahne, ...... Dietmar Kracht, Valentina Krachmalnicoff, oo,Mrk...... (p86) . . WED . . CA-5.6 . . . . Marek . . Kozon, I. Vladimir Kozlovsky, H1. R (p163), FRI CH-12.4 F33WD(9) F45WD(p99) WED EF-4.5 (p91), WED EF-3.3 ∙ C32TE(p71) TUE CC-3.2 (p149) FRI EG-7.4 (p69), TUE EH-3.5 (p119) THU CE-9.2 KP9TU(p144) THU CK-P.9 (p172) FRI EG-P.4 (p136) THU EC-6.5 (p119), (p129), THU THU CE-9.2 EF-7.5 (p106), (p106), WED WED EC-P.1 EC-P.6 (p64), TUE EC-2.2 (p170) FRI CH-P.15 (p66), TUE ED-3.4 (p138), (p156) THU FRI PD-1.6 CF-9.5 (p98), WED CF-6.5 (p142) THU EF-P.14 (p125), THU EF-7.1 (p116) THU CA-9.1 (p70), (p82), TUE WED CA-4.2 CA-5.2 (p32), MON CA-1.4 B43WD(p90) WED CB-4.3 J24TE(p72) TUE CJ-2.4 (p172) FRI EG-P.12 (p115), THU EH-4.5 (p39), MON EG-1.4 (p149), FRI CK-7.4 ä ä ü ü J31WD(8) J32WD(p85), WED CJ-3.2 (p83), WED CJ-3.1 kl hita A12MN(p30), MON CA-1.2 ...... Christian nkel, e,RaG MP5FI(p173) FRI CM-P.5 ...... G. Ria mer, e,LoadMatthieu. Léonard ger, lr tfn...... E-. E (p107) WED EH-P.8 ...... Stefan hler, č k álv...... C-.1MN(p49) MON CA-P.11 ...... Václav ek, ő ...... ∙ ∙ K75FI(p151) FRI CK-7.5 ∙ H84TU(p114), THU CH-8.4 HP1FI(p168) FRI CH-P.1 ∙ ∙ BP1 O (p51) MON CB-P.17 D13MN(p38), MON CD-1.3 ∙ ∙ ∙ ∙ ∙ ∙ C15MN(p33) MON EC-1.5 JP4TU(p143) THU CJ-P.4 JP3MN(p55), MON EJ-P.3 ∙ J33WD(p97), WED EJ-3.3 ∙ J33WD(p85) WED CJ-3.3 C32TE(p71) TUE CC-3.2 B53TE(p73) TUE EB-5.3 I56FI(p169) FRI CI-5.6 ut az KP1 H (p144), THU CK-P.16 . . . . (p148) . . FRI . . JSI-4.2 ...... Hamza . . Kurt, ...... K . Shuhei Kurose, umn ai . . (p82) . . WED . . CE-5.2 . . . . (p52) . . . . MON . . EA-P.2 . Yaniv . . . . Kurman, . (p45) . . MON . Luke . . JSIII-2.3 . (p168) Kurlandski, . . . FRI Sunao . . .CH-P.3 . . (p118) Kurimura, . . . THU . . Yutaro . CA-9.3 . . (p58) Kurimoto, . . . TUE . Valeriia. . CC-2.2 . . (p103) . Kurikova, . . . WED . Valeria . CF-P.7 . . . . Kurikova, . . . (p56) Takayuki . . TUE . Kurihara, . EA-1.2 . . Taishu . . . Kurihara, V. Dmitriy Kupriyanov, urkv vey...... (p170) Evgeny FRI Kuprikov, (p87) CH-P.9 (p34) . WED . MON . CI-2.4 K . CH-1.1 . André ...... Kupferschmied, . . (p112) . André . THU . . Kupferschmid, . .CB-6.2 . (p126) . . (p61) THU Takuma . TUE . Kuno, JS.2 CI-1.4 ECBO Bernardette. . + . CL . Kunert, . K. . . Kai . . Kummer, . . Hajime . . . Kumazaki, Alok Pandey, Kumar ua,Vvk...... (p54), . . MON Vivek EB-P.26 . Kumar, (p118) . . THU . . . CD-7.3 . (p58) . . . TUE . . . . Vimlesh . .EB-3.2 . Kumar, . . . . Chaitanya . . . S. . . . . Kumar, ...... Pawan . . Kumar, . . Niraj. Kumar, ua,Myn E33TE(p65) . TUE . . CE-3.3 ...... (p134) . . . THU . . . . (p137) . CD-9.4 . Mohit THU . . . Kumar, . . EA-6.5 ...... Mayank . . (p74) . . Kumar, . . TUE . . . CG-4.5 Avinash . . . Kumar, . . . (p49) . . (p68) . MON Ankit . TUE CA-P.13 . Kumar, . . . CG-4.1 . Yoshiaki . . . . . Kumagai, . (p51) . . . MON . Nikolay . CB-P.17 (p175) . . Kuleshov, . . FRI . . CM-P.32 Alexander . . . . . Kuleff, . . . (p142) . Marina . THU . (p128) Kulagina, . EF-P.6 THU . . Grigory (p68), . CE-10.5 . TUE . Kulagin, . . EI-2.6 . . Vladimir . . . . . Kukushkin, . . . . . Ireneusz . . Kujawa, ...... L. (p84), WED Kuipers, CE-5.4 ...... Kobus Kuipers, K un imn E41TU(p131) THU EE-4.1 . . . (p40), . . MON . . CJ-1.6 . . (p169) K . . . FRI . . . Tilmann . .JSIV-5.5 . Kuhn, ...... (p116) . . . . THU . . . . CB-7.1 . . . Stefan . . . . Kuhn, . . . . . Lina. . . Kuhn, . Christian Kuhn, . . . . . (p93), . . WED . . K EB-6.5 . . . . . Tobias . . Kugel, ...... (p79), Michael TUE Kues, . CD-P.21 ...... Alexandre . . . Kudlinski, . (p46) . (p50) MON . Igor MON . . CB-P.8 JSII-2.5 Kudelin, . . . . . Dmitry ...... Kudashkin, . (p77), . Vladimir . TUE . . Kuchinskii, . EB-5.5 . . . Jiri . . Kucharik, ...... Stephan Kucera, ü ü ü ü ü ∙ C53TU(p120) THU CC-5.3 ∙ CP1 E (p106) WED EC-P.10 (p103), (p106) WED WED CF-P.11 EC-P.7 (p87), WED EC-4.5 ∙ J64TU(14,C-. R (p157) FRI CJ-8.3 (p134), THU CJ-6.4 (p172) FRI EG-P.1 (p157) FRI CK-8.4 (p127), THU CD-8.2 (p97) WED EF-4.3 (p95), WED EF-4.1 (p89) WED EB-6.1 pr,Fak IP5MN(p51) MON CI-P.5 ...... Franko ppers, she,Dra M85FI(p156) FRI CM-8.5 ...... Dorian rschner, nr uc KP2TU(p144), THU CK-P.2 ...... Lucca hner, n,Jlu ...... Julius hne, (p168), FRI CH-13.5 . . . . . Matthias hmayer, JP7TU(p143) THU CJ-P.7 BP2 O (p55) MON EB-P.27 K1. R (p164) FRI CK-10.1 ∙ ∙ KP1 H (p144) THU CK-P.11 ∙ ∙ CP1WD(p102), WED CC-P.1 ∙ ∙ ∙ D85TU(p129) THU CD-8.5 G54TU(p114) THU CG-5.4 KP2TU(p144) THU CK-P.2 FP5WD(p103) WED CF-P.5 ∙ ∙ DP1 U (p78) TUE CD-P.13 J1. R (p166) FRI CJ-10.4 J43WD(p90), WED CJ-4.3 ∙ E12TE(p56) TUE EE-1.2 asmjysma rja D. Prajwal (p154) Lakshmijayasimha, FRI (p123) THU CD-10.2 . . (p166) .CK-5.3 Prajwal . . . FRI . . . . . CH-13.3 Lakshmijayasimha, Kanta. . . . . (p40) . . Bera . . MON . . . Lakshmi, . CH-1.6 ...... Jui-Yu . . . . W. Lai, . . S. . . Cora . . Lai, . . (p103), Ahmad (p67) WED Lahib, TUE CF-P.9 . . EH-3.3 . . . G. . . Pavlos . . . Lagoudakis, . (p45), Pavlos MON EB-2.2 . Lagoudakis, . . (p52), . . MON . . JSV-P.1 . Dario . . . Lago-Rivera, . (p78) . . TUE . . CD-P.11 . (p136) . . . THU . Ad . . CK-6.6 (p51) . Lagendijk, . MON . Christian . CB-P.18 . . . . Lafforgue, . . (p67) . Clément . TUE . . . . Lafargue, . CH-4.5 ...... Maxim (p124) . . . . THU . Ladugin, . . . CH-9.2 . Dimitra ...... Ladika, . . . Vasilis . . , ...... Laderos (p55) . . . MON . Simon . EJ-P.6 . . . Lacroix, . . . . Lukas . . . Lackner, . (p57) Roland TUE (p82) WED CH-3.2 Lachmayer, . . CF-4.2 . Luká . . (p136) . . . Lachman, M. THU . . Axel . CJ-6.6 . . . . Lacapmesure, . . . Gregoire . . (p65), . Lacaille, . TUE Victor CB-2.2 (p158) . Labuntsov, . FRI . . . CD-10.6 . . . . . Michelle . . . Labrecque, . Simon Labouesse, . . . . . Fran . . , . . Labaye . Luca Volpe, La (p148) FRI L CC-6.3 . (p99) . (p71) . WED . TUE . . EA-4.4 CF-3.2 ...... Eudokia . . (p115) . . THU Kyriakou, . . . Chi (p69) . EF-5.5 . TUE Chang . . . . Kwong, . CH-5.1 ...... Ojoon . . . . Kwon, ...... Dohyeon . Kwon, . . . Kyei Kwarkye, vakvk,In . . (p77), . . TUE . . . CE-4.5 . Inna . . Kviatkovsky, ...... (p123), Ivan THU Kuznetsov, CK-5.3 (p104) . . WED . CE-P.7 I. . (p36) . . Arseniy MON . . Kuznetsov, CE-2.2 . . . Natalia . . (p86), Kuzmenko, . WED Kateryna CB-3.4 . Kuzmenko, ...... Bart Kuyken, . . . . . (p33) . . MON Makoto . . EB-1.4 . . . . Kuwata-Gonokami, . . . (p90) . Joel . (p120) WED . THU . Kuttruff, CF-5.2 . . CF-7.4 . Florian ...... Kutschera, . . . . Dmytro . . . Kutnyakhov, . . Shota . . Kusama, ...... Satoshi . . Kusaba, ...... Mate. Kurucz, (p52), MON EA-P.6 . . . . . Christian Kurtsiefer, B94TU(p135) THU CB-9.4 (p135) THU EA-6.3 ∙ (p73) TUE CH-5.3 (p67) TUE CB-2.5 (p95), WED CA-7.1 ∙ (p84), WED CF-4.3 A95TU(p122) THU CA-9.5 (p124) THU EG-6.1 (p113), (p157) THU FRI CK-4.3 CK-8.5 (p112), THU CB-6.3 (p175) FRI CM-P.29 (p114), (p154), THU FRI CM-4.4 CM-8.3 (p112), THU CG-5.2 (p153) FRI EI-4.6 (p111), THU EE-2.1 ∙ (p123) (p55), MON THU EB-P.28 EA-5.5 (p53), MON EB-P.5 (p157) FRI JSIV-3.5 B54TE(p75) TUE EB-5.4 (p97) WED CA-7.3 F86TU(p128) THU CF-8.6 uhr'Index Authors' ç i C35TE(p75), TUE CC-3.5 ...... ois š D21TU(p138) THU PD-2.1 ...... 186 ∙ FP1 E (p103), WED CF-P.14 ∙ ∙ ∙ ∙ MP3 R (p175) FRI CM-P.31 H1. R (p154) FRI CH-11.2 G66TU(p128) THU EG-6.6 IP1WD(p108), WED EI-P.1 ∙ H34TE(p67) TUE EH-3.4 ∙ I25TE(p66) TUE EI-2.5 a,Pn o K91FI(p158) FRI CK-9.1 ...... Lama Koy . Ping . . Lam, Athanasios Laliotis, art uin...... E-. U (p56), TUE EA-1.2 ...... Julien . . Laurat, . May Key Lau, . Ga . . Latour, . Zbigniew (p65), Łaszczych, TUE (p84) CE-3.3 . WED . . CE-5.3 ...... (p113) . Philippe . THU . . (p74) Lassonde, EE-2.3 . . TUE . Nolan . . . CG-4.5 . . Lassaline, Fabián . . . . Andrés ...... Lasagni, . . (p50) . . MON . Esben . CB-P.11 . . . Larson, . . . (p49) . . Esben . . MON . . Larsen, CA-P.17 ...... Alexandre ...... Larrue, . . . . (p46), . Igor . MON . Larionov, . EJ-1.3 . . . Sergey . . Larin, ...... Laurent Larger, (p65), Cristina TUE Maria CE-3.3 (p59) . . TUE Larciprete, . . . CH-3.3 ...... Antoine . . Laramee, P. . Sergey . . . Laptenok, . . (p31), . . MON . . ED-1.2 . . Coraline. . . Lapre, ...... Paolo Laporta, Daniel (p73) TUE Norberto EB-5.3 . . Lanzillotti-Kimura, . . . . . (p129), . Daniel . THU . . . CD-8.4 . . Lanzillotti-Kimura, . . (p159) . . . Ben FRI . . Lanyon, . CG-7.1 ...... (p139) . . . THU . . Eric . PD-2.9 . . Lantz, . . . . . Fabian . . Langer, . . . Stefan . (p94), . . WED Langenfeld, Amelie EG-4.1 Nina . (p28), . Lange, . MON . (p39) . CF-1.1 . MON . . . . . CG-2.3 . . . . Christoph . . . . Lange, ...... Tino . . . . Lang, . . . . (p107) . . . T. WED . . Lang, EC-P.22 . . . . . Lukas . . . . . Lang, . . . Jean-Philippe . . (p111), Lang, . . THU Nadav CE-8.1 . Landau, ...... (p114) Matthieu THU Lancry, CH-8.5 . . . Lo . . . . . Lanco, . . (p56) . Christina. TUE . . . CK-3.1 Lanara, . . . . Guoqiang (p31), Lan, (p155) MON Aristidis FRI ED-1.2 . CJ-8.2 . Lamprianidis, ...... Marco . . . (p144) Lamperti, . . THU . Jacob CK-P.6 . . . Lampen, . . Eleftheria . . . . Lampadariou, . Simone . . Lamon, . . . (p102) . (p152) . WED . FRI . .CC-P.11 Kim. JSI-4.5 . . . . Lammers, . . Fabrice-Roland . . . Lamberti, . Joel Lamberg, I33TU(p118) THU CI-3.3 A14TE(5) B51TE(p69), TUE EB-5.1 (p58), TUE EA-1.4 (p135) THU CL-3.4 (p132), (p146) THU FRI CD-9.2 CG-6.1 (p71), TUE CF-3.2 (p132) THU CK-6.3 (p130), THU CK-6.1 ∙ (p146) FRI CG-6.1 ∙ (p135) THU EE-4.3 (p39), MON (p152) EH-1.4 FRI JSI-4.5 (p117), (p132), THU THU EA-5.1 EC-6.2 (p108), (p108), WED WED JSI-P.3 JSI-P.4 (p86), WED JSI-2.3 ∙ (p148) FRI EA-7.4 (p165) FRI CF-10.1 (p146), FRI CG-6.2 (p169) FRI CM-9.5 ∙ ∙ S-. H (p112) THU JSI-3.3 (p88) WED CJ-4.1 (p110) THU JSI-3.1 (p64) TUE ED-3.2 (p173) FRI CM-P.4 î r,Aitd...... K96FI(p164) FRI .CK-9.6 ...... Aristide. tre, ï S-. R (p152) FRI JSI-4.5 ...... c ë L33TU(p135), THU CL-3.3 ...... l ∙ E55FI(p157) FRI EE-5.5 ∙ ∙ CP1 E (p102) WED CC-P.12 CP1 E (p102) WED CC-P.10 ∙ ∙ ∙ ∙ ∙ ∙ JP1 H (p143) THU CJ-P.14 M34WD(p98), WED CM-3.4 M11MN(p35) MON CM-1.1 B61TU(p110) THU CB-6.1 A54TU(p121) THU EA-5.4 ∙ DP3 U (p80) TUE CD-P.32 ∙ ∙ ∙ F42WD(p82) WED CF-4.2 F34WD(p93) WED EF-3.4 E14TE(p60), TUE EE-1.4 IP3MN(p51) MON CI-P.3 eBaa,Nlen...... C-. R (p155) FRI CC-7.3 (p115) . . (p78) THU . Rapha . TUE . CK-4.4 Bidan, CD-P.7 . . . . . Le . . Nolwenn ...... Biavan, . . (p85) . Le . WED Sébastien . . CI-2.2 Beux, . . (p116) . Le . . . THU . . Yannis . CF-7.1 . . (p33) Lazis, . Antonio . MON (p144) . Jose . THU EB-1.4 . . . Lazaro, CK-P.10 ...... Vladimir . . . . . Lazarev, ...... Valdimir . . . . . Lazarev, . . F. (p107) . . WED Sigurd (p169) . . EH-P.7 Lax, FRI . . . . CI-5.5 Julia...... Lawless, . . Andrei . . . Lavrinenko, . Reinoud Lavrijsen, Laurinavi (p56), TUE CL-2.1 ...... Fredrik Laurell, éaé rnos...... C-. O (p32), MON CG-1.5 . . . (p155) . . . FRI ...... CC-7.3 ...... Francois (p44) . . . . MON . Légaré, . . (p32) . JSII-2.2 Lennart . MON . . . . Leffers, (p88) CE-1.4 . . . . WED . . Denis . . . CH-6.1 . . . Lefebvre, . P. . . (p92) . . Wim . . WED . . . Leemans, . EG-3.5 Woo . (p133) . . . Jung THU . . . . Leem, . . . .CB-9.3 . . . . . Ya-Chu . . . . (p115) . Lee, . . . . THU . . . Seunghoon . (p114) . EF-5.5 . . . Lee, . THU . . . Won. . . JSI-3.6 . Min ...... Lee, . . . F...... Kevin . . . . . Lee, . . (p36), Hoon . Jae MON . . Lee, . CH-1.3 . . . (p32), . Heon . MON . . Lee, . CE-1.4 ...... Hansuek . (p152) . Lee, . FRI . . . . . CD-10.1 ...... Ju . . (p45) . . Gil MON . . . . Lee, . S.J. EI-1.2 . . . . . Cherrie . . . . Lee, . . . . Cherrie . . Lee, (p112) . (p107), THU Changhwan WED CA-8.4 EC-P.23 Lee, ...... Chang-Won . . . . Lee, . J (p153) . . FRI . Andrew (p143) . . CK-8.1 Lee, THU . . . CJ-P.15 . Zsolt...... Lécz, . . . Jean-Bernard . . . Lecourt, . (p124) Steve (p46) . THU . MON . Lecomte, CE-10.2 ED-2.5 . Corentin (p146) . . . FRI . . . Lechevalier, . . CG-6.1 . . Ronan ...... (p136) Lebullenger, . . . THU . Thomas . CK-6.6 . . . LeBrun, . . (p33) . . Adrien MON . . . JSV-1.5 Leblanc, . . (p63), . Mélanie . TUE . . Lebental, CE-3.1 . Elizaveta . . . (p90) . Lebedkina, . WED . . CH-6.2 . (p70) . . (p115) . . TUE . . THU . Grigore . ED-4.2 . .EH-4.6 . Leahu, . . . Nicolas . (p34) . . . MON . Thomas, . . . Le CK-2.1 . . . Roldolphe . (p91) . . . Targat, WED . C.. . Le . EB-6.2 . Eric . . Ru, . . . . Le . . Xavier . . Roux, . Le Hanna (p31), MON Jeannic, EC-1.3 Le . . . . (p128) (p70) . . THU TUE . . EG-6.6 . ED-4.2 ...... Luc . (p124) . . . . THU . Gratiet, . . . Le . CE-10.2 Ronan ...... Dantec, . . . Le . . . Yann . . Coq, . . Le David Coq, Le ∙ (p125), (p132) THU THU CJ-5.2 CJ-6.3 (p80), (p118), TUE THU CD-P.34 CD-7.2 (p74), TUE CA-4.4 (p91) WED EB-6.2 GP5TU(19,C-. R (p146), (p148) FRI FRI CG-6.1 (p135), CG-6.4 (p139), THU THU CL-3.3 CG-P.5 (p71), (p132), TUE THU CF-3.2 CD-9.2 (p70), (p69), TUE TUE CG-4.3 CF-3.1 (p65), TUE CE-3.3 (p115) THU EF-5.5 (p114) THU JSI-3.6 (p149) FRI CK-7.3 (p107) WED EH-P.3 (p159), (p164) FRI FRI CK-8.6 CK-9.6 (p66), TUE EC-2.4 GP1 H (p140) THU CG-P.19 č u,Klemensas ius, ë I23WD(p85) WED CI-2.3 ...... l ∙ GP1 H (p140) THU CG-P.17 ∙ ∙ ∙ CP5WD(p106) WED EC-P.5 DP2 U (p79) TUE CD-P.26 ∙ ∙ J54TU(p129) THU CJ-5.4 K95FI(p162) FRI CK-9.5 H43TE(p65) TUE CH-4.3 eesn re A14TE(p58), TUE EA-1.4 . . . . (p82) . . WED . . CE-5.2 ...... (p32) . Ariel . MON . . Levenson, CB-1.5 . . . Maximilian . . . Leven, Christophe Levallois, e,Bnai ...... (p39), Benjamin MON Lev, EG-1.3 ...... (p129) Juerg THU CB-8.6 Leuthold, . . . . . Leszczy . . . . . (p79), Le . F. TUE Luke CD-P.15 . Lester, . (p66), . . TUE . . CG-3.2 . . . (p76) Philippe . . TUE . Leproux, . EA-2.3 . . (p80) . . . . TUE . . . . CD-P.35 . . . (p92) Franck . . . WED . . Lépine, . . . . EG-3.5 . Maxence . . . . . (p86) . Lepers, . . . WED . Karine . CA-5.6 . . Lepage, . . . Nicolae . . . Leopold, O. Stanislav Leonov, enr,Jla C51TU(p117) THU . . . EC-5.1 ...... Stephen. . (p106) . Leone, . WED Julian EC-P.16 (p153) . . FRI Leonard, . . CK-8.1 . . . Ricardo ...... Josue . . . . Torres, . . . . León . . . . (p100), . Karl . WED . Leo, . EG-4.6 . . Jacopo . . Leo, ...... Giuseppe Leo, (p34), MON CJ-1.1 . . Fran . . Leo, ...... Mathias Lenski, ekeizAui o . Tom Abudi, (p38), Lenkiewicz MON (p151) CH-1.5 . FRI . . (p113) EI-4.5 . . . THU . . . . . CK-4.3 ...... Bernhard . . . . . Lendl, . . Andreas . (p145) . . THU Lemonis, . . CK-P.20 . . Sam . . Lemey, . Fabien Lemarchand, eoits taais....C-. U (p57), TUE Lema CF-2.1 . . (p144) . . THU CK-P.9 Athanasios . . . Lekosiotis, Tom Abudi, Lekiewicz ets lkads...... (p86), WED Aleksandrs CE-5.6 (p65), Leitis, . TUE . . . CB-2.2 . . . . Alfred . . . . Leitenstorfer, ...... Paul Leisher, ebad,Dvd...... (p112), . . THU . . CA-8.3 ...... David . . . (p61), Leibrandt, . . TUE . . CD-3.5 ...... Yuhao (p62) . . Lei, TUE . . . ED-3.1 ...... (p134) . . THU . Fuchuan . (p157) . CK-6.4 Lei, K. FRI . (p50) . Kevin CK-8.5 . MON . . . . CB-P.11 Lehmann, . . . . . Hartmut ...... Lehmann, . . . . Jean-Pierre (p71), . . TUE . Legoec, . . CF-3.2 . Yoan . . Léger, ...... Katherine Légaré, F71TU(p125) THU EF-7.1 I13MN(4) G73FI(p149), (p165) FRI FRI EG-7.3 CI-5.1 (p45), MON EI-1.3 (p169) FRI JSIV-5.6 (p68) TUE CG-4.1 L+EB S4TU(p128) THU JS.4 ECBO + CL (p168) FRI CK-10.5 (p162), FRI CD-11.3 (p149), (p157) FRI FRI EF-8.4 CK-8.5 (p123), (p139), THU THU EF-6.5 PD-2.7 (p117), (p121), THU THU EF-6.1 EF-6.4 (p57), TUE EJ-2.2 (p161) FRI CG-7.3 L42FI(14,C-.6FI(p170) FRI CH-P.16 (p154), FRI CL-4.2 (p107), WED EH-P.5 (p152), (p159) FRI FRI JSI-4.5 (p117), CK-8.6 (p132), THU THU EA-5.1 EC-6.2 (p108), (p110), WED THU JSI-P.4 JSI-3.1 (p66), (p101), TUE WED EC-2.4 EB-7.6 (p31), MON EC-1.3 ∙ E41TU(p131) THU EE-4.1 ∙ M72FI(17,C-. R (p167) FRI CM-9.2 (p147), FRI CM-7.2 (p140) THU CG-P.20 ∙ š F23TE(p59) TUE CF-2.3 B25TE(p67) TUE CB-2.5 D92TU(p132) THU CD-9.2 ná,Aa D21TU(p138) THU PD-2.1 ...... Adam undák, î r,Aitd B13MN(p33), MON EB-1.3 ...... Aristide tre, ń k,Aa B63WD(p91) WED EB-6.3 ...... Adam ski, ç i D24MN(p45), MON CD-2.4 ...... ois ∙ ∙ H81TU(p110), THU CH-8.1 SI-. O (p43) MON JSIII-2.1 ∙ ∙ K1. R (p168) FRI CK-10.6 ∙ ∙ A41WD(p95) WED EA-4.1 H52FI(p155) FRI EH-5.2 D35TE(p66) TUE ED-3.5 ihnr ai ...... C-. E (p84) WED . . CE-5.3 ...... (p33) . . . MON . Grigory . (p153) .EC-1.4 Lihachev, FRI . R. (p86) . . EG-7.6 Carin WED . . . . CE-5.6 Lightner, . . . C.H.. (p149) . . . . Timothy FRI . . . . Liew, . EI-4.3 . . . . . Christoph . . . . . Lienau, . (p144) . . . THU Andreas . CK-P.6 . . . Liehl, . . . . Marlene . Liebich, (p59), Elefterios TUE CH-3.3 Lidorikis, ...... (p163) . . (p104) FRI . . WED . CH-12.4 CF-P.17 . . Carlo ...... Liberale, . . . Gustas . . . . Liaugminas, . Meisong Liao, in,Yo...... (p63), . . TUE . . . .CE-3.1 . . . Yao . . . Liang, . . . . . Roberto. Voti, Li i h G35WD(p92) WED EG-3.5 ...... (p139) . . . . THU . . . . PD-2.5 ...... (p110) ...... THU . . (p168) . . Zongda . FRI CM-4.1 . . Li, . . . . . CK-10.5 ...... Zhu ...... Li, ...... Zhihua . (p77), . . (p124) . Li, TUE . . . THU . CH-5.5 . . Zhen-Ze EG-6.1 . . . . . Li, ...... (p60) . . Zejian . . TUE (p77) . . Li, . . TUE . CK-3.4 ...... EC-3.5 ...... Yiming . . . (p129) . . . Li, . . THU ...... EF-7.4 . Yi . . . (p138) . (p74) . Li, . . . THU . TUE . . . . . PD-1.2 . . Yaqian CG-4.5 ...... Li, ...... D. . . . Y. . . (p96) . . . . Li, . . WED ...... EG-4.3 . Wenlin ...... Li, ...... Tieying . . . . Li, . (p30) . . (p130), . MON . THU . Siqi . CK-1.2 Li, . CM-6.1 ...... Shisheng . . . . Li, ...... Qingfeng . . Li, . Qing Li, i ui...... C-. H (p128) . THU . . CH-9.6 ...... (p150), . . . FRI . . . . . CC-6.4 . . . . Ning . . . . Li, ...... Luxi . . Li, ...... Lianhe Li, i a . (p116) . . THU . . CC-5.1 ...... (p29) . . . MON . . . . . JSV-1.1 ...... Lan . . . . Li, ...... Kaidi . . Li, . . Junying Li, i i D19TU(p138) THU PD-1.9 . . . (p56) . . . . TUE . . . . (p47) . EE-1.2 . . . MON ...... EI-1.5 ...... (p160) . . . Jinxiang . . . FRI . . (p97) . Li, . . . EH-6.3 . WED . . . . . Jie . . EI-3.2 . . . . Li, ...... Jiahan ...... Li, . . . . . (p167), . . . . Jia . FRI . . . Li, . CI-5.3 ...... Guixin . . . . Li, ...... Diao . Li, ...... Chong Li, i hn...... (p84) . . (p159) WED . FRI . (p149) CC-4.3 . . FRI . CG-7.1 . . . Chen . EG-7.3 . . . . Li, ...... Emmanuel ...... Lhuillier, . . (p122) . . . THU Anne . (p128) . L’Huillier, CB-7.3 . THU . . . CH-9.6 Henry . . . . Lezec, Ines . . . . . Lezcano-Gonzalez, . Joel Leymarie, ekm ail...... (p57), . . TUE (p133) Daniel CH-3.1 THU . Leykam, . EA-6.2 . . . . . (p37) . . . MON . . . Maciej . JSIII-1.2 . . . . Lewenstein, . . . Jesper . . . Levinsen, . (p68), Raphael TUE Levine, CJ-2.1 ...... (p60), . TUE Yann EB-3.4 . Leventoux, . . . . . Ariel Juan Levenson, L53FI(p160) FRI CL-5.3 ∙ ∙ HP1 R (p170) FRI CH-P.12 ∙ C71FI(13,C-. R (p161) FRI CC-8.3 (p153), FRI CC-7.1 (p46) MON JSV-2.4 ∙ I54FI(p167) FRI CI-5.4 (p120) THU CF-7.4 GP2TU(p139) THU CG-P.2 ∙ (p83), WED CJ-3.1 (p155) FRI CK-8.2 E51WD(8) K65TU(p134), THU CK-6.5 (p82), WED CE-5.1 S-. R (p150) FRI JSI-4.4 M82FI(p154) FRI CM-8.2 H62FI(p160) FRI EH-6.2 M86FI(p158) FRI CM-8.6 ∙ J32WD(p85), WED CJ-3.2 ∙ EP1 E (p105) WED CE-P.14 ∙ ∙ ∙ S-. O (p29), MON JSV-1.1 ∙ ∙ C53TU(p119) THU EC-5.3 B32WD(p82), WED CB-3.2 ∙ F62TU(p119) THU EF-6.2 ∙ H24TE(p61), TUE EH-2.4 F25TE(p61), TUE CF-2.5 H32TE(p65) TUE EH-3.2 i,Jni K23MN(p38), MON CK-2.3 (p123) . THU . . (p45) . CK-5.3 . MON ...... EI-1.2 ...... Junqiu (p161) . . . . (p77) FRI Liu, . . . TUE . . CG-7.3 . . . Hong . EC-3.5 ...... (p31) Liu, ...... MON ...... Fang . . . EB-1.2 . . . Liu, ...... Changxu ...... Liu, ...... (p48) . . Chang . . MON . . (p43) Liu, . . .CA-P.8 . MON L. . . . . C. . CD-2.2 . . . (p140) Liu, ...... THU . . . Bo EE-P.1 . . (p64) . . . Liu, . . . TUE . . . . Douglas. . ED-3.3 ...... Little, . (p97) E. . . . WED . . Brent . . . . EI-3.2 Little, ...... Brent ...... Little, . . . . Daniel . . Lisak, . (p91) . Harri WED . . . Lipsanen, EF-3.2 ...... Markus . . . . Lippl, . Luca . . Gian . . (p160) . Lippi, . FRI . Timo CJ-9.2 . Lipka, . . . . (p174) . . FRI . . Micha CM-P.23 . (p174) . . . FRI . Lipka, . . . CM-P.22 . Denis . . . . . Lipatov, S. (p174) . . FRI Alexey . . CM-P.23 . Lipatiev, . . . (p94) (p111) . Alexey . WED THU . Lipatiev, O. CE-7.1 EG-5.1 . . Tatiana ...... Lipateva, . . . Magali . . (p150), . Lingenfelder, . FRI (p174) FRI Alexander .CC-6.4 . .CM-P.9 Ling, . . . . (p101) . . . . WED . . . . EA-4.5 . . . Edmund...... Linfield, . . . John. . . (p80), . Linden, (p118) TUE THU Frieder CD-P.34 . CA-9.2 . Lindel, (p170) . . . . FRI . . . . CH-P.12 ...... Robert (p118) . . . THU . . . Lindberg, . . CA-9.2 . . . . Zhoubin . . . . Lin, ...... Zhaosu . . . . Lin, . . . . . Zhanglang . . Lin, . . Weixuan Lin, i,Lyn B61TU(p110) . THU . . (p129) . CB-6.1 . . THU ...... EE-3.3 ...... (p149) . . . . FRI . . . Qianqi . . EI-4.3 . . . Lin, ...... Liying . . . . Lin, . (p29), . . . MON . Kang . . JSV-1.1 Lin, . (p118) . . . THU . Kai-Qiang . (p114) . CA-9.2 Lin, . . THU ...... CB-6.5 ...... Hongtao . . . (p112) . . . Lin, . . . THU . . . . . Haifeng CM-4.3 . . . . . Lin, ...... Fan-Yi . . . . Lin, . . . . . Di . . Lin, . . Dajun Lin, (p34), MON CJ-1.1 . . . . (p36) . . MON . . CJ-1.3 ...... Jens . . Limpert, . Anasthase Liméry, . . . Benedikt (p96), Limbacher, WED G CM-3.3 . Liman, ...... (p143), Vladislav THU CJ-P.11 Likhov, . . . . . Mikhail Likhachev, B94TU(15,E-. R (p149), FRI EF-8.3 (p119), (p135), THU THU EF-6.3 CB-9.4 (p66), (p82), TUE WED CD-4.3 CB-3.2 (p44), MON ED-2.3 (p52), MON EA-P.5 ∙ (p161) FRI CC-8.3 (p153), FRI CC-7.1 (p143) THU CJ-P.4 (p125), THU CJ-5.2 S-. O (p46) MON JSV-2.4 (p161), (p165) FRI FRI CG-7.3 CG-7.6 (p153), (p157), FRI FRI CJ-8.1 CJ-8.3 (p139), (p139), THU THU CG-P.3 CG-P.7 (p103), (p138), WED THU CF-P.15 PD-1.4 (p89), (p98), WED WED CA-6.1 CF-6.5 (p59), (p90), TUE WED CF-2.2 CM-2.3 (p38), (p40), MON MON CJ-1.4 CJ-1.6 (p36), MON CJ-1.2 (p163) FRI CC-8.4 (p161), FRI CC-8.2 (p152), FRI CC-6.5 (p107) WED EC-P.24 ∙ (p155) FRI CK-8.3 (p119), THU EF-6.3 B63WD(p91) WED EB-6.3 J92FI(p160) FRI CJ-9.2 ö uhr'Index Authors' km...... C-.8TU(p143) THU CJ-P.18 ...... rkem ł ...... 187 ∙ ∙ C75FI(p157), FRI CC-7.5 F84TU(p126) THU CF-8.4 ∙ ∙ ∙ ∙ C54TU(p122), THU CC-5.4 ∙ ∙ ∙ H41TU(p111) THU EH-4.1 G53TU(p113) THU EG-5.3 K1. R (p166) FRI CK-10.2 AP3MN(p52), MON EA-P.3 A35WD(p93), WED EA-3.5 ∙ J65TU(p134) THU CJ-6.5 J44WD(p92) WED CJ-4.4 oe-ihr,Vco E73WD(p96) . . WED . . CE-7.3 Miguel . . . . López-Ripa, Victor Lopez-Richard, Ignacio (p155) Lopez-Quintas, FRI (p39) MON JSIV-3.3 . . CM-1.3 . . Santiago ...... Lopez-Huidobro, . . Víctor . . (p34), . MON . López-Flores, . . CH-1.1 Cefe . . . López, . . . (p136) . . THU (p65) . EC-6.5 . TUE . . Herbert . . CE-3.3 . . Looser, . . . (p69) . . . . Mattia TUE . . . . . EH-3.5 . Longobucco, ...... Stefano . . . . . Longhi, ...... Adrien ...... Longa, . . . . Guankui . . Long, . . David Long, oae,Sre MP2 R (p174) FRI CM-P.22 . . . . (p50), . . MON . . CB-P.8 (p64) . . . TUE . . Sergey . EI-2.3 . . Lotarev, ...... Sergey . . . Losev, . . (p113) Michael . . THU Lorke, . . . .CE-8.4 ...... Vincent . . . Loriot, . Martin. Lorenz, (p170) . FRI Abraham (p39) CH-P.21 Loredo-Trejo, MON CM-1.3 Raoul-Amadeus . . . Lorbeer, Carmen Lopez-Santos, (p174) . FRI . Lon . CM-P.21 ...... Lon . . . Laurent . . Lombard, . . Didier Loison, (p38), MON CA-2.3 ...... (p94) . . WED . Pavel .CB-5.1 . Loiko, . . . (p71), . . TUE . Lohm CH-5.2 . Zeineb. . . . Loghmari, . . . (p84), . . WED . (p41) Lars CF-4.4 MON . . EH-1.5 . Loetgering, (p65) . . . . TUE ...... CH-4.3 ...... André . . (p170) . . . Loescher, . FRI . . . CH-P.10 Mario ...... Lodari, . (p116) . . Julia THU . . . CB-7.1 Locmelis, . . . Mauro . . . (p51), Locatelli, MON Neysha CB-P.16 . Lobo-Ploch, ...... (p57) . . Valery . TUE . . . Lobanov, . . . CI-1.2 ...... (p68) . . . Zuyang . . . TUE . . . Liu, . . . . CD-4.5 ...... Zihao . . . . . (p143) . Liu, . . . . . THU . . . . . CJ-P.6 Yaqun ...... Liu, ...... Yange . . . . Liu, . . . . (p98) . . Yang . WED . Liu, . . CM-3.5 ...... Yan-ge . . . . Liu, ...... (p51) . . . MON . (p141) . Xueming . CI-P.3 . . THU . . Liu, . . . . EE-P.6 ...... Xin ...... Liu, ...... Xiaomeng . . . . . Liu, . . . . . Xiaogang . . Liu, . . . Tuo Liu, i,Sueg...... P-. H (p139) . . THU . . PD-2.5 . . . (p105) . . . . WED . . . . (p72) JSII-P.1 . . . . TUE . . (p139) . . . . Tongjun . THU CG-4.4 . . . . Liu, . . .CG-P.5 . . . . (p92) . . . . Shuheng . . WED . . . . Liu, . . . EG-3.5 ...... Shi-Xia ...... Liu, ...... Qingcao. . . . . Liu, ...... Q. . . Liu, . . . Min Liu, F83TU(p126) THU CF-8.3 ∙ (p170) FRI CH-P.9 B45WD(p92) WED CB-4.5 (p68) TUE CG-4.1 (p168) FRI CH-P.3 (p104), WED CE-P.5 ∙ (p86), WED CA-5.5 (p77), (p84), TUE WED CE-4.5 CA-5.3 (p73), TUE CE-4.3 (p126) THU CH-9.3 (p91), WED CA-6.2 (p171) FRI CH-P.25 ∙ G71FI(p147), FRI EG-7.1 AP5MN(p52) MON EA-P.5 A93TU(18,C-. H (p120), THU CA-9.4 (p118), THU CA-9.3 (p105) WED CE-P.13 (p92), WED CJ-4.5 č č r ak C23TE(p60) TUE CC-2.3 ...... ari . . Marko ar, ü lr hoad....C-.3FI(p170) FRI CH-P.23 . . . . Theobald ller, ć atn...... E-. O (p31) MON EB-1.2 ...... Martin , ∙ ∙ ∙ K83FI(p155) FRI CK-8.3 A54WD(p84), WED CA-5.4 (p110) THU CA-8.2 ∙ ∙ ∙ ∙ ∙ EP1 H (p141) THU EE-P.11 FP6WD(p103), WED CF-P.6 ∙ ∙ H93TU(p126) THU CH-9.3 ∙ ∙ D75TU(p122) THU CD-7.5 ∙ ∙ D1. R (p152) FRI CD-10.1 ∙ DP1 U (p79) TUE CD-P.19 ∙ H62WD(p90) WED CH-6.2 D25MN(p46) MON ED-2.5 IP5WD(p108) WED EI-P.5 E12MN(p30) MON CE-1.2 G32TE(p66), TUE CG-3.2 DP4TE(p78), TUE CD-P.4 J13MN(p36) MON CJ-1.3 oáz éa...... (p80) . TUE . . CD-P.35 ...... Béla . . Lovász, . . (p147) (p162) FRI Michel (p158) FRI EF-8.1 FRI Lours, . CJ-9.5 . CF-9.6 ...... Louren . P. . (p130) . . . . THU Joshua . . . . CJ-6.1 . . Lourdesamy, . . (p127) . . . . Christophe THU . . . . Louot, . . .JSIV-1.2 ...... Simon . . . . Lotz, . B. . . Mikkel . . Lotz, A. James (p135), Lott, THU JSIV-2.3 ...... Damien . . . Loterie, V.. Sergey Lotarev, utn on...... E-. R (p149) FRI EI-4.3 . . (p31) . . MON . . EB-1.2 ...... L . . . . . John . . Lupton, . . (p29) MON Cosmo Lupo, JSV-1.1 (p91) . . WED . . . CA-6.2 ...... L . . (p90) . . Dominique . . WED . . . . Lupinski, . . CF-5.2 ...... Ye . . . . Luo, . . . . . Kai-Hong . . Luo, . . Chih-Wei Luo, L (p30), L MON (p135) THU CG-1.3 . CB-9.4 . Lu ...... Matteo . . . Lucchini, . (p110), Erwan THU (p74) Lucas, TUE CG-5.1 . EA-2.2 . . . . D. . (p51), . MON Giacinto . . (p129) CI-P.1 . THU Lucarelli, . . . . Eliane EE-3.3 ...... Luc-Koenig, ...... (p31), . . . . MON . Enxiao . ED-1.3 . . . Luan, . . . . (p32) . . Peifen MON . Lu, . CF-1.6 . . . (p135) . . . . THU . . . . EA-6.3 . . . . . Chuang . . . Lu, . . . . . Chih-Hsuan . . Lu, E. Yurii Lozovik, yn,Ahe . . . (p53) . . MON . (p74) . EB-P.9 . . TUE . . . . . CG-4.5 . . . . . Ashley . . . . Lyons, . . . . . Dmitry . . Lyakhov, . Alberto (p132), THU (p50) Lutman, (p130) MON THU .CD-9.3 CB-P.8 . . . . .EC-6.1 . . . . Barry...... Luther-Davies, . . . . . Andrey . . . Lutetskiy, . Eran. Lustig, (p155) FRI CK-8.2 ...... Luni . . (p47), Tommaso MON (p145) Lunghi, THU .CH-2.4 . CK-P.20 . . . . Ulrik . . . (p44) Andersen, . (p102) . MON Lund . WED JSV-2.2 Julien CC-P.12 . . Lumeau, . Junior . (p44) . MON . Mudiayi, . . Lukusa .ED-2.3 . . . Anna . . . . Lukowiak, . . . . Anton. . . . Lukashchuk, . (p47) MON Mathieu EF-2.5 Luisier, . . . . Ma . . Luis . . . . . L . . Luigi Lugiato, yttky nry...... C-. E (p92) WED CB-4.5 . . . . (p51) (p75) . MON . TUE . CI-P.5 . (p156) . CH-5.4 Andrey . . FRI . . . . Lyutetskiy, . CL-4.5 . . . . Vladimir ...... Lyubopytov, . . V. . . . . Evgeny . . . . Lyubin, . . . . . Evgeny . (p70), . . Lyubin, TUE . CG-4.2 Zhouping . . Lyu, ...... Marianna Lytova, ü ü ü ü ü M73FI(19,C-.7FI(p174), (p175) FRI FRI CM-P.17 CM-P.26 (p149), FRI CM-7.3 ∙ ∙ (p139) THU CG-P.1 (p158) FRI CI-4.4 (p51), MON CI-P.4 ∙ ∙ G65FI(p150) FRI CG-6.5 (p93) WED EB-6.4 (p173) FRI JSIV-P.2 (p57), TUE EJ-2.1 G53TU(p112) THU (p159) CG-5.3 FRI JSIV-4.1 (p156), FRI CH-11.4 kn ilsM D21MN(p43), MON CD-2.1 ...... M. Niklas pken, ce,Ba MP1 R (p174) FRI CM-P.14 ...... Beat scher, ig a D92TU(p132) THU CD-9.2 ...... Jan ning, (p50), MON CB-P.10 ...... Kathy dge, č dr imn...... C-. U (p78) TUE CD-P.8 ...... Tilman hder, D65WD(p87), WED CD-6.5 (p139) THU CG-P.1 (p110), THU CG-5.1 (p134) THU CH-10.5 (p172) FRI EG-P.4 i ć ć eaj D42TE(p70) TUE ED-4.2 ...... Nemanja , rn D26MN(p47) MON CD-2.6 ...... Frane , ç ñ -atn,Hugo o-Martins, s un...... E-.1WD(p106) WED EC-P.11 ...... Juan es, ∙ ∙ D1. R (p156) FRI CD-10.5 ∙ H43TU(p113), THU EH-4.3 ∙ MP2 R (p174) FRI CM-P.23 ∙ ∙ ∙ B74WD(p99), WED EB-7.4 ∙ G42WD(p96) WED EG-4.2 S-. O (p29) MON JSI-1.1 H44TE(p67) TUE CH-4.4 A71FI(p146) FRI EA-7.1
Authors' Index Authors' Index acra,Puia...... P-. H (p138) (p69) THU TUE PD-1.7 . CB-2.6 ...... Paulina . . . Majchrzak, . (p39), (p70) MON TUE Martin EH-1.4 CG-4.3 Maiwald, ...... Margherita . . . Maiuri, Yann Mairesse, (p31), MON JSV-1.2 . . . . (p37), . . MON . . EH-1.2 . . A. (p54) . . Stefan MON . . EB-P.12 Maier, ...... (p115) . . . THU . (p151) Stefan . EG-5.5 FRI . Maier, . . . . CM-7.5 . . . Oliver . . . . Maier, . . . . . Maximilian . . . Maier, . . . . Christian . . Maier, . . Pierre (p88), Maidment, WED CF-5.1 ...... Luke . . Maidment, . Christian Maibohm, ane ee ...... (p58) . . Peter TUE . (p173) . EA-1.3 . FRI Mahnke, . . CM-P.7 . Hatam ...... Mahmudlu, (p58) . . TUE Sahand . . EA-1.4 (p148) . Mahmoodian, . FRI . Hossein . (p72) . CG-6.3 . TUE Mahlooji, . . . . CG-4.4 Sukanya . . . . . Mahapatra, . . . Alexander . (p60), . . Magunia, TUE M. CK-3.5 . . Magrakvelidze, . . . (p137) . . THU (p169) . . FRI CL-3.5 . Giovanni . JSIV-5.6 . . . Magno, . . . . Amandine . . . . (p127) . . Magnaudeix, . . THU . . . Dante CD-8.3 . . . Maestre, . . . . . (p46) . Dennis MON . . Maes, . ED-2.5 . . Andreas . . Maeder, . Ramgopal Madugani, ardWlf,Jre.. . Jorge , (p152), FRI Madrid-Wolff CH-11.1 . (p58), . . TUE . CK-3.2 Francesca . . . (p132) Madonini, . . THU . (p99) . CD-9.3 . WED . . . EA-4.4 . . . Guilhem . . . . . Madiot, . . . . Stephen . . . Madden, . Chetan Madasu, ...... J. (p106), Lukas WED (p166) Maczewsky, EC-P.1 . FRI . . CD-12.2 ...... Lukas . . . Maczewsky, . Paulius Mackonis, (p46) (p39), MON MON CL-1.2 CM-1.3 . Manuel . . . . (p61), Macias-Montero, TUE Guillaume EH-2.4 (p30) Machinet, . MON . . CE-1.2 . (p67) . . . TUE F. . (p88) . Kevin EH-3.4 . WED . . . . MacDonald, CJ-4.1 . . (p89) . . . Kevin . WED . . . . . MacDonald, . .CE-6.1 . . Nicolò ...... Maccaferri, . . . . . Mehdi . . . Mabed, . Shai. (p50), Maayani, MON CB-P.2 . . . . (p132) . (p112) . . THU . . THU . . . CD-9.3 . CM-4.3 . Andre (p29) ...... MON . . Maaßdorf, . . . . . JSV-1.1 ...... Yuanyuan ...... Ma, ...... Xiaoguang . . . Ma, ...... Pan . . Ma, . . . Hui Ma, M E43TU(p135) THU EE-4.3 (p164), (p172) FRI FRI CK-10.1 (p134), EG-P.15 THU (p144), THU CK-6.4 (p124), CK-P.2 (p128), THU THU EG-6.1 EG-6.5 (p112), (p115), THU THU CH-8.3 EG-5.5 (p107), WED EH-P.8 (p111) THU EH-4.1 (p64), TUE EI-2.2 (p130), (p159) THU FRI CD-9.1 EE-5.6 (p103), WED CF-P.4 G52TU(p113) THU EG-5.2 ∙ H1. R (p156) FRI CH-11.3 (p142), THU EF-P.5 (p167) FRI CI-5.2 (p129), THU EF-7.5 (p123) THU EB-8.5 (p106), WED EC-P.6 (p173) FRI CM-P.1 ∙ (p67), (p69) TUE TUE CB-2.4 CB-2.6 (p63), TUE CB-2.1 MP2 R (p175) FRI CM-P.26 E93TU(11,E-. R (p160) FRI EH-6.2 (p121), THU CE-9.3 ∙ K76FI(p153) FRI CK-7.6 ∙ ∙ ∙ ∙ ∙ MP1 R (p174), FRI CM-P.17 ∙ H94TU(p126) THU CH-9.4 K43TU(p113) THU CK-4.3 A84TU(p112) THU CA-8.4 HP2 R (p170) FRI CH-P.21 ∙ ∙ H66WD(p94) WED CH-6.6 C22TE(p64), TUE EC-2.2 K84FI(p157) FRI CK-8.4 asra,Tga DP4 U (p80), TUE CD-P.40 . . . . . (p72) Tigran TUE Mansuryan, .CG-4.4 ...... M . P.. (p69), E. TUE Mansson, CC-3.1 . . (p46), . MON Samira CC-1.5 . Mansourzadeh, . . . . . (p38) Dimitris MON (p120), THU Mansour, CD-1.3 . CF-7.4 ...... Bastian ...... Manschwetus, . . . . . Sander . . Mann, . . (p72) Felix. TUE Mann, (p52) .CG-4.4 . MON . . Kini EA-P.10 . . . . Sushanth . . . . . (p33) . Manjeshwar, . MON . Sabrina . . .ED-1.5 . . Maniscalco, . . . (p99), . . . V.. WED . . Manie, . EF-4.4 . Markus. . . . Mangold, ...... Fabio (p82), Mangini, WED CC-4.1 ...... Juliette . . . Mangeney, . Angelo Manetta, adra,Tga M86FI(p158) FRI CM-8.6 ...... Manek-H . Tigran Manduryan, aaan,Krm...... E-. U (p81) TUE (p69) . ED-P.5 . . TUE . . EB-5.1 . Jean-Michel . . . . (p141) . . Manceau, . THU . . Karim . EE-P.7 . . . . Manamanni, ...... Hadriel ...... Mamann, . . Ekaterina . . . . Malysheva, ...... Petr . Malý, (p66), Radu (p129) TUE THU Malureanu, EC-2.4 . EF-7.4 . . (p39) . . . . MON . . . (p43) EF-1.3 . . Guillaume . MON . . . . . EF-2.1 Malpuech, ...... Nicola . . . . . Malossi, . . . . (p94) . Boris . WED . Malomed, . CH-6.6 . . . Kiana . . . (p149), . . Malmir, N. . FRI . . Muhammad EI-4.3 . . . Malik, . . . . . Tushar . . . Malica, . . . (p32), . . MON . . CK-1.5 . Ermin . . Malic, (p163) . . FRI (p163) . . FRI . CH-12.4 . . . CH-12.4 . . . Mario . . . . Malerba, . . . . Ziemowit . (p126) . THU . Malecha, (p86) . WED CE-10.3 Karol . . .JSI-2.4 . Malecha, . N. . . Roman . . Maksimov, . (p97), Dmitrii. WED Maksimov, EJ-3.3 . . G. (p68), Konstantinos TUE (p78) TUE EC-2.5 Makris, . CD-P.5 ...... (p104) . . WED Konstantinos . . CE-P.6 . Makris, . . . . Nina . (p150), . . Maklakova, FRI . CG-6.5 Vladimir . . . Makhov, . . . (p94), . . WED . (p86) . CF-6.1 WED . Sergey . . . . Makarov, . .CB-3.5 . . . . . Maksim ...... Makarenko, ...... (p41), . Fai . MON . Ka (p60) . . EG-1.5 Mak, TUE . . . . . EA-1.6 J...... Mak, ...... (p41), . D. . MON Kyle . . Major, . CG-2.5 . . . . . Kyle . (p146) . Major, . FRI . . CJ-7.1 ...... Balázs . Major, R. Matthew Majewski, å J31WD(8) J32WD(p85), WED CJ-3.2 (p83), WED CJ-3.1 (p139) THU CG-P.5 ∙ (p126) THU CM-5.4 (p157) FRI EE-5.4 (p128), THU CF-8.5 (p93) WED EA-3.4 (p87), WED EG-2.5 (p156) FRI CI-4.3 (p147), (p153) FRI FRI EG-7.2 CC-7.1 (p84), WED CC-4.3 C64FI(p150) FRI CC-6.4 B73TU(p122) THU CB-7.3 (p149) FRI EI-4.4 ∙ (p126) THU CM-5.4 (p119) THU CE-9.2 (p162) FRI CD-11.3 (p138) THU PD-1.6 (p83) WED EG-2.1 ∙ C34TE(7) C36TE(p77) TUE CC-3.6 (p73), TUE CC-3.4 G36WD(p94) WED EG-3.6 (p163) FRI CG-7.4 so,Ei ...... C-. U (p70), TUE CG-4.3 ...... P. Erik nsson, ö nne,Ik J95FI(p162) FRI CJ-9.5 . . . Inka nninger, ∙ ∙ ∙ ∙ HP7WD(p107) WED EH-P.7 ∙ K15MN(p32), MON CK-1.5 B96TU(p137) THU CB-9.6 SV52FI(p167) FRI JSIV-5.2 ∙ E24MN(p38) MON CE-2.4 ∙ HP4FI(p168) FRI CH-P.4 E34TE(p67) TUE CE-3.4 ak,Io . . . . (p157) . . FRI . . CC-7.4 . . . . . (p65) . . . . TUE . . Igor . (p150) EB-4.2 . . Marko, . FRI . . . Sergej EB-9.5 . . . . . Markmann, . . . Matthew . . . Markham, . Damian (p100) Markham, WED EG-4.6 . Marke . . . (p39), . MON . Mari . EH-1.3 . Giuseppe . (p74) . Marino, . TUE . . CG-4.5 ...... Andrea . (p107) . . WED Marini, .EH-P.7 Agostino . . (p74) Marinelli, TUE Elisabeth (p56), CG-4.5 . TUE Mariegaard, Paloma CL-2.1 . . (p119) . Maria-Hernando, (p98) . THU . WED . . EB-8.2 . CH-7.4 ...... Walter . . . (p139) . . . Margulis, THU . . Samuel . .PD-2.5 . . . Margueron, ...... Petr . . Marek, . Marcus. (p45), Marcus, MON EF-2.3 . . (p37), . . MON . . EF-1.2 ...... Mathias . . Marconi, ...... (p66) . TUE M. CG-3.2 Marconi, . (p30) . . MON . . Mar (p74) CB-1.2 . TUE . Alexandre . . CG-4.5 . Marciniak, . . . . Andrey . (p47), . . MON Marchevsky, . Jonathan JSIII-2.4 . . Marangos, ...... (p31), . . MON Jon ED-1.2 Marangos, . . . (p151) . . FRI . . EI-4.5 Marco (p63) (p111) Miltos . Marangoni, TUE . THU . George . .CH-4.1 EH-4.1 (p139) . . . . . Maragkakis, . THU . . . . . Stella PD-2.5 ...... Maragkaki, . . . . . Ángel...... Maquieira, ...... Peng . . Mao, . . . Jun (p45), Mao, MON EI-1.2 . . . (p102) . . WED . . CC-P.11 . . . . Cristian . . . Manzoni, Juan Rius, Manuel átn szan C-02FI(p167), FRI .CF-10.2 . . . (p163) . (p57) . FRI TUE (p57) CG-7.5 Zsuzsanna CH-3.2 . TUE . Márton, Rebeca . . CH-3.2 . Vázquez, . (p64) . . . . TUE Martínez R. . . EC-2.2 . Sandra . . . . Martínez, . E. . . Oscar . (p66) (p82) . TUE . WED Martínez, CG-3.2 CC-4.1 Franklin . . . . . Martinez, . . . Marie-Blandine (p63), . . Martin, TUE . (p36) Fernando MON .CB-2.1 . . Martin, CK-2.2 ...... (p50), Dominik. . . MON . Martin, . .CB-P.7 . . Aude . . . Martin, . . . (p80), . . TUE H.. CD-P.36 . John . . Marsh, . . . . . (p34) . . MON Nicolas CK-2.1 (p96) . Marsal, WED Delphine CE-7.3 . Marris-Morini, Eugenio Gilmar (p136), Marques, THU CD-9.6 . (p51) . . MON Christoph CB-P.18 . . Marquardt, Alexander Marmalyuk, Christian Dietrich, (p69), TUE Markus (p114) CH-5.1 THU . . CB-6.4 ...... Christos . . . Markos, . P Igor Marko, I12MN(p45) MON EI-1.2 (p132) THU CJ-6.3 (p86) (p51), WED MON CB-P.14 CB-3.4 (p50), MON CB-P.4 (p45) MON EF-2.4 (p113) THU EE-2.3 (p64) TUE ED-3.2 (p97), WED EI-3.3 ∙ (p100), WED CF-6.6 (p91) WED EF-3.3 MP1 R (p174) FRI CM-P.12 (p67) TUE CB-2.4 (p167) FRI CI-5.4 (p167), FRI CI-5.3 (p97) WED EJ-3.2 (p161) FRI CH-12.3 (p134) THU CD-9.5 (p170) FRI CH-P.11 (p130), (p148), THU FRI CJ-6.1 CJ-7.3 (p113), THU CE-8.3 HP7FI(p170) FRI CH-P.7 č ñ iulionyt -óe,Ade HP8WD(p107) WED EH-P.8 . . . Andrea o-lópez, š evi ć uhr'Index Authors' eaj G23WD(p85) WED EG-2.3 . . . . . Nemanja , ,Via...... Vaida e, ˙ 188 ∙ MP1 R (p174) FRI CM-P.12 ∙ ∙ B53WD(p98) WED CB-5.3 DP2TE(p78) TUE CD-P.2 ae,AieS F93FI(p154) (p91) FRI WED CF-9.3 EB-6.3 ...... (p157) . . . . FRI . Mateusz . . .CK-8.4 . . . Mazelanik, . S...... Aline . . . . Mayer, E . . . Thomas . (p74) . Maybour, . TUE . CG-4.5 Stuart. . . May, . (p140) . . A. THU . . Molly CG-P.18 . . . May, . . (p51) . Timothy . MON . . CB-P.17 Maxwell, . . . Andrew . . . . Maxwell, . . . . . Mikhail . . Maximov, . . (p113) Elena THU Mavrona, CK-4.2 . . . P. (p150) . FRI . . Charalampos . (p159) CC-6.4 . . . Mavidis, FRI . . . CG-7.1 . Svenja (p170) . . . . FRI Mauthe, . . . CH-P.18 . Kenneth . . . (p102) . . Maussang, . . WED . (p71) Johan . CC-P.12 TUE . . . . Mauritsson, . . CE-4.2 . . . (p149) . Nicolas . . FRI . . Maurin, . . EI-4.3 . . Isabelle . . . . (p163) . Maurin, . . . FRI . . Cedric . .JSIV-4.4 . . (p132) Maunier, . . THU . Janina . . CH-10.2 . Maultzsch, . . . Geoffrey . . . Maulion, . Richard . . Maulini, (p173) . . FRI . . CM-P.5 ...... Cyril . . . . . Mauclair, . . Christian . . . Matzdorf, . Hedi. Mattoussi, ate,Rnu B44WD(p92), WED CB-4.4 . . . . . (p47), . . MON . . JSIII-2.4 Renaud . . Matthey, . . . . (p53) . MON EA-P.13 Mary (p63), F. TUE Matthews, C. CE-3.1 Jonathan . . . Matthews, . (p139) . . THU . . PD-2.8 . . (p148) . . FRI Giovanni . . EB-9.3 Mattei, Luisa . . . Maria (p108) . . Mattana, WED . EI-P.5 . Mikihisa ...... Matsuyama, . . . Tomonori . . . Matsushita, . . . . Shinji . (p104) . Matsuo, . WED . Takuya CE-P.7 . (p44), . Matsubara, MON Aleksandra (p79) .CC-1.3 . TUE Matrosova, . . .CD-P.28 . . . . . H. . . . Nicholas . . . Matlis, . . . Jan. . . . (p61) . Mathjissen, . TUE Jan CF-2.4 . Mathijssen, . . . (p114) . Skaftved . THU . . JSI-3.5 Kristoffer ...... Mathiesen, . . . Stefan . . . Mathias, . P. (p48), John MON Mathew, CA-P.3 (p38) . . MON . . CA-2.3 ...... (p31) . . . . MON . . . EC-1.3 Xavier . . (p146) . . Mateos, . . FRI . (p153) . . EA-7.1 FRI Xavier . . . . Mateo, JSIV-3.1 ...... Pietro ...... Massignan, . . . . Marcello . . (p84), Massaro, . . WED Serge (p45) (p133) CC-4.3 Massar, MON THU . . . EF-2.4 CB-9.3 ...... Sylvain . . . . . Massabeau, . . . Cristina (p64), . . TUE Masoller, . ED-3.2 C. . . . Masoller, . (p65) . . TUE . . CB-2.2 . . . . Piotr . . . Maslowski, . Milan Mashanovitch, (p45), MON CD-2.4 ...... Carlos Arabí, Mas (p70), TUE Maru CD-5.2 . . . . . Tadeusz Martynkien, ∙ (p175) FRI CM-P.30 B82TU(p125), THU CB-8.2 ∙ (p107) WED EH-P.3 (p71) TUE CC-3.2 (p30) MON CB-1.2 (p120) THU CA-9.4 (p73), (p86), TUE WED CE-4.3 CA-5.5 (p49), MON CA-P.10 (p147) FRI EG-7.2 (p64) TUE ED-3.3 (p149) FRI EF-8.4 (p117), THU EF-6.1 ∙ (p57), TUE EJ-2.2 (p154) FRI CF-9.3 (p70), TUE CD-5.3 KP1 H (p144) THU CK-P.13 E23TU(p113) THU EE-2.3 (p123), THU EF-6.5 (p121), THU EF-6.4 š a uru MP1 R (p174) FRI CM-P.15 ...... Audrius ka, ∙ L+EB S2TU(p126) THU JS.2 ECBO + CL ∙ ∙ H1. H (p132) THU CH-10.2 ∙ GP1 H (p140) THU CG-P.10 ∙ ∙ ∙ FP1 H (p142) THU EF-P.15 CP9WD(p102) WED CC-P.9 LP1TU(p145), THU CL-P.1 ∙ D18TU(p138) THU PD-1.8 B11MN(p28) MON CB-1.1 ∙ E41TE(p69) TUE CE-4.1 ekl ejmn...... E-. O (p47) MON EB-2.4 ...... Merkininkait . . Benjamin Merkel, (p104), (p73) WED Pawe TUE CE-P.10 Mergo, . (p40) EB-5.3 . . . MON . . . . . CD-1.5 . (p43) . . . . . MON . . Viphretuo . . . EI-1.1 . Mere, ...... (p33) . . Martin . . MON . . Meraner, . . . JSV-1.4 . (p162) . . . Sruti . FRI . . . . Menon, EH-6.5 . . . . . Lukas . . . . . Mennel, ...... Paolo . . . . Mennea, . . . (p60), . Sandro . TUE . . Mengali, EE-1.4 . . . . Fanqi . . Meng, ...... Fanchao . . Meng, ...... Bo Meng, (p86) Angel WED Luis CB-3.5 Velasco, . . Mendoza . . . . . Hernan . . Jesus ...... Mendoza-Castro, . . . . . A. . (p141) . Memon, . THU (p143) . THU EE-P.10 Roberto . . CJ-P.16 . . Memeo, . . Andrius ...... Melninkaitis, . . . . (p103) . Leonid . WED . (p65) Melnikov, CF-P.9 . TUE . Federico . CH-4.2 . . Melli, . . . . Mikhail . . . Melkumov, Vasileia Melissinaki, Elizaveta Melik-Gaykazyan, ...... (p168), . . (p65) FRI Oliver TUE CH-13.5 . CB-2.3 . Melchert, ...... (p38) . . . . MON . . . . CD-1.3 Jakob . (p106) . . . . Melchard, WED . . . . EC-P.16 . Petri . . . . Melanen, . . (p54) . . MON . (p63) (p92) . Ahmed EB-P.14 . TUE WED . . Mekawy, . . CB-2.1 . CF-5.3 . . . Stefan ...... Meister, . . Arne . . (p116) . . . . THU . . . Meissner-Schenk, . . CB-7.1 ...... Jan . . . . Meijer, ...... Chao . . Mei, Frank . Mehnke, ...... Mehlst (p51), . MON Alexis .CI-P.2 . Mehlman, ...... Sergey. Medvedev, Medi . . . . (p160) . (p122) . . A. FRI THU . . Manuel . CL-5.2 CB-7.3 . . . . . Medina, ...... Judith . . . . . Medina, . . (p46) (p82) . . MON WED Francois . . . CE-5.2 Medard, .ED-2.4 . (p162) . . . . . FRI Pedro . . . . CK-9.5 . . Mecê, . . . . David...... McKendrick, . J. (p152) . . FRI David . . . CM-8.1 McGee, . . . . . Niall . . McEvoy, . (p53) . . Michael MON . . EB-P.10 . McDonnell, . . . Cormac. (p53) . . MON . McDonnell, . EB-P.10 . Will S. McCutcheon, P. (p67) Dara (p42), TUE MON McCutcheon, CB-2.5 ED-2.2 ...... A. . . . Richard . . . McCracken, . Kevin McClune, azta ed . . . (p45) . . MON . . . EB-2.2 (p175) . . . FRI Zeudi . . CM-P.36 (p135) . . Mazzotta, . . THU . . Margherita EE-4.3 . (p143) . . Mazzera, . . THU . . . CJ-P.16 . Massimo . . . . Mazzer, . . . Andrea . . . Mazzanti, . Yulia Mazhirina, D53TE(7) F93FI(p154) FRI CF-9.3 (p70), TUE CD-5.3 (p144) THU CK-P.15 (p88) WED CJ-4.1 (p155) FRI CC-7.3 (p61) TUE CI-1.5 ∙ ∙ (p153) FRI EG-7.6 ∙ (p172) FRI EG-P.1 (p87) WED CI-2.5 (p114) THU CA-8.6 (p103) WED CF-P.10 HP2 R (p171) FRI CH-P.24 (p36) MON CD-1.2 (p151), FRI EF-8.5 (p129), THU EE-3.2 š uks ua GP2TU(p139) THU CG-P.2 ...... Lukas auskas, ä be,Tna ...... Tanja. ubler, ł ,Gea....C-.5FI(p175) FRI CM-P.35 . . . . Greta e, ˙ D52TE(p70), TUE CD-5.2 ...... ∙ ∙ AP1 O (p49), MON CA-P.14 ∙ ∙ ∙ BP1 O (p51) MON CB-P.19 ∙ EP2WD(p104) WED CE-P.2 ∙ ∙ ∙ DP3 U (p80) TUE CD-P.35 DP2 U (p79) TUE CD-P.28 ∙ C12MN(p44) MON CC-1.2 ∙ D54TE(p72), TUE CD-5.4 M71FI(p147) FRI CM-7.1 D45TE(p76), TUE ED-4.5 H63FI(p160) FRI EH-6.3 D41TE(p68) TUE ED-4.1 il,Bn...... C-. R (p152) FRI CM-8.1 ...... (p83), . . WED . . . CJ-3.1 . . (p77) . . . . TUE . . . Ben CC-3.6 . . . . . Mills, . . . . (p35) . . . . MON ...... CM-1.1 . . Guy . . . . (p138) . Millot, . . . THU . Celia . PD-2.3 . . . . . Millon, . . (p170) . . . FRI Stephan . . . CH-P.21 Dwayne . Milles, . . . J. . . . R...... Miller, ...... Paul . . . . . Miller, . . . . . Nico . . . Miller, (p31), . (p62) MON Ross. TUE EC-1.3 Millar, . CA-3.1 ...... (p48) . . MON . . Marijana CA-P.8 . . . . . Milicevic, . . . . . Chad . . . Mileham, . (p74), Richard TUE Mildren, .CD-5.5 . . M.. Howard Milchberg, ii hght B93FI(p148) FRI EB-9.3 ...... Tommi . . . Mikkonen, . Shigehito Miki, (p50) (p52), MON MON CB-P.8 .EA-P.9 . (p92) . . WED Alexander. . (p159) . CB-4.5 . FRI . . Mikhalychev, . . CG-7.1 . . Dmitry . . . . . Mikhailov, . . . . Dmitriy . . . Mikhailov, . Sara (p138), THU Mikaelsson, PD-1.8 . . . Katsumi Midorikawa, (p60), TUE CL-2.5 . . (p83) . . WED . . . EC-4.2 ...... Yakup . . . . . Midilli, . . . Tobias . . . Micklitz, . . Jérôme (p54), MON Michon, EB-P.13 . . . (p53) . . MON . . .EB-P.9 ...... Peter . . . Michler, Dominik. Michels, ihlti al . . (p52) . (p99) . MON . WED . .EA-P.10 . EF-4.5 ...... Paolo ...... Micheletti, . . . (p84) . Thibault. WED . . Michel, . CE-5.3 . . . Claire . . U. Michel, (p54) (p64) Ann-Katrin MON TUE Michel, EB-P.19 EI-2.3 . . . Steffen ...... Vasconcellos, . . . . de (p97) . . . . WED (p70) . . Michaelis . . TUE EI-3.3 . . Yoad . . CG-4.2 . . . . Michael, . . . . . Ana . . (p84) . . . . WED Micevic, . . . . CE-5.3 . . Xianchong . . . . Miao, ...... Yonghao . Mi, . (p126), . THU Sebastian EG-6.3 Meyer, ...... Remi . (p28), . MON . Meyer, Gabriel .CF-1.1 . Johann . (p45) (p93) . Meyer, . MON WED . . EF-2.4 CA-6.3 ...... Robin. . . . . Mevert, . . . . (p45), . . Thomas MON . . Metzger, EB-2.3 . . . . C. . . Métayer, . . . . . (p149), . . FRI . Leon EG-7.3 . . Meßner, ...... (p47) . . (p81) Andreas MON . . TUE Messner, . .CD-2.5 . ED-P.7 . . Simon ...... Messelot, (p64) . . TUE . Younès. . . CA-3.2 . . Messaddeq, . . . . Irina . . . . (p60) . . (p38) Mesenzova, . . TUE MON . . Mourad EE-1.4 . CA-2.3 . . (p149) . . . Merzougui, . . . FRI . . . . Cesare . EI-4.3 . . . . Meroni, ...... Jean-Marc . . . . . Merolla, ...... Mark . . Mero, . Philipp Merkl, F45WD(p99) WED EF-4.5 (p164) FRI CK-9.6 (p106) WED EC-P.14 ∙ (p164) FRI CH-13.1 (p162) FRI CJ-9.4 ∙ ∙ (p67), (p135) TUE THU EB-4.4 CB-9.5 (p65), TUE EB-4.3 (p163) FRI CC-8.5 D22TU(18,E-. R (p149) FRI EI-4.4 (p138), THU PD-2.2 (p169), FRI (p173) FRI CF-10.4 CM-P.3 (p167), FRI CM-9.3 ∙ ∙ (p165) FRI CI-5.1 BP9MN(p53) MON EB-P.9 (p159), FRI CJ-8.5 (p143), THU CJ-P.18 (p143), THU CJ-P.17 F12MN(p28) MON CF-1.2 (p55) MON EB-P.29 ∙ ∙ ∙ ∙ ∙ S-. O (p46) MON JSV-2.4 ∙ H14MN(p38) MON CH-1.4 ∙ C72FI(p155), FRI CC-7.2 E22MN(p36) MON CE-2.2 L11MN(p42) MON CL-1.1 ∙ F62WD(p96) WED CF-6.2 G72FI(p147) FRI EG-7.2 E42TE(p71) TUE CE-4.2 opa,Ja L24TE(p60) TUE CL-2.4 ...... Juan Mompean, ogui,Bls...... Balys Momgaudis, os vs...... C-. H (p112) THU CB-6.2 ...... Martin (p148) . . Kjell FRI . . Mølster, . CG-6.3 . . . . Yves . . . Mols, . . . Gy . . Molnár, . . (p43) Nikola MON Mollov, (p141) EI-1.1 (p144) . THU . THU EE-P.3 . M . . Aday .CK-P.4 ...... Molina-Mendoza, (p51) . . . MON Daria . . CB-P.17 . . . Mokrousova, . . . . Mo. . . . Mojahedi, . . Eduard Moiseev, ole rgr C21TE(p62) . TUE . . . EC-2.1 (p160) . . . FRI ...... CD-11.2 ...... Bruno . . . . Moio, . . . . (p61), Gregory . TUE . . Moille, . CF-2.5 . . . Fabio . . Moia, ...... Christian Mohr, M (p140) THU CG-P.9 . Sabry . . Mohamed . . . Mohamed, . (p52), Karoly MON EA-P.9 Mogyorosi, ...... Dmitri (p75), Mogilevtsev, TUE (p168) CC-3.5 . FRI . . . CD-12.4 . . . . Norbert . . , . . Modsching Daniele Modotto, (p48), MON Magdalena CA-P.3 . . (p108) . . WED Moczala-Dusanowska, . EI-P.6 ...... Tomas . . (p111) Mocek, . . THU . . Adnen . EE-2.1 . . Mlayah, A. . . Aram . . . Mkrtchyan, . Yasumitsu Miyata, (p112), THU (p112) CA-8.4 THU . . . . CM-4.2 . . . (p64) . Katsuhiko . . . TUE . . Miyamoto, . . EI-2.3 . . Rikuto ...... Miyakoshi, . . . . . (p124) . . Godai . . THU . . . Miyaji, . CH-9.1 . . Elmar . . . . (p50) . . (p90) Mitterreiter, . . MON . . WED . CB-P.11 Sunil . . CH-6.2 . . . Mittal, ...... (p132) . Michel . . . THU . Mitov, . . . . CD-9.3 . . . Valentin . . . . Mitev, . . . Bill (p47) . . . MON . . Mitchell, . . . JSIII-2.4 . Arnan ...... Mitchell, . . . . Mauro . . (p51), . Missori, MON Lukas .CB-P.21 . . Misiekis, (p157) . . FRI . . CC-7.4 ...... Alexey. . (p144) (p76) . Mishin, . THU TUE . CK-P.1 Muhammad CA-4.5 . . . . . Mirza, . Andrey . . (p145) (p142) . . THU Miroshnichenko, THU P. CL-P.6 EF-P.10 . Richard . . (p114) . . . Mirin, THU . . . CM-4.4 . Mohammad-Ali . . . . . Miri, . (p51) . . MON Ulises . (p168) . . .CB-P.17 Miranda, FRI . . . . CD-12.4 . (p171) Norikatsu . . . FRI . Mio, . . CH-P.25 . . . Sergey...... Mintairov, . (p99) . WED . Umberto . . EA-4.4 Minoni, . . (p32) . . . . MON Kirill . . . . CA-1.5 . Min’kov, . . . . . Christian ...... (p148) Miniatura, . . FRI . . . Yannick . CC-6.2 . . Minet, . . (p173) . Ara (p101) FRI . . WED CM-P.2 . Minassian, . . EB-7.6 . Hiroaki ...... Minamide, . . . Alexandros . . . Mimidis, . Pérola Milman, ö ö ∙ ∙ G51TU(10,C-. H (p139) THU CG-P.1 (p110), THU CG-5.1 F74TU(p120) THU CF-7.4 ∙ (p53) MON EB-P.9 (p95), (p97), WED WED CA-7.1 CA-7.3 (p84), WED CF-4.3 (p35) MON EG-1.1 (p78) TUE CD-P.3 (p49), MON CA-P.10 (p114), (p118) THU THU CM-4.5 CC-5.2 (p114), THU CA-8.5 (p142) THU EF-P.6 D72TU(18,C-01FI(p152) FRI CD-10.1 (p118), THU CD-7.2 (p116), THU CD-7.1 DP9TE(p78) TUE CD-P.9 lr hitn F24TE(p61) TUE CF-2.4 ...... Christina ller, l hre D43TE(p66) TUE CD-4.3 ...... Charles hl, ö g F1. R (p167) FRI CF-10.2 ...... rgy ∙ F91FI(p152) FRI CF-9.1 ∙ ∙ ∙ ∙ ∙ EP1 H (p141) THU EE-P.10 DP3 U (p80), TUE CD-P.34 G13MN(p30), MON CG-1.3 K62TU(p132) THU CK-6.2 ∙ FP9WD(p103) WED CF-P.9 ∙ M76FI(p153) FRI CM-7.6 ∙ D34TE(p59) TUE CD-3.4 C21TE(p62) TUE EC-2.1 os ai D93TU(p132), THU CD-9.3 . . (p86) . . WED . . . CB-3.5 (p73) . . . TUE ...... CH-5.3 . . . . . (p76) David . . . . TUE Moss, . . . . CG-4.6 . V...... Moskalenko, . P.. . (p38), . Allard . MON . Mosk, . . CH-1.5 . . Jacques-E . . Moser, ...... Harald Moser, (p87), WED (p68) CJ-3.4 . TUE . . . CD-5.1 ...... Christophe . . (p113) Moser, M. THU Peter Moselund, EmilieCK-4.2 (p107), Kirsten WED (p139) (p128) Moselund, EC-P.23 THU THU . . CG-P.1 . CH-9.6 ...... Kirsten ...... Moselund, . . . . Liliana . . Moscardi, . . (p138), (p65) THU TUE Sara PD-2.4 Mosca, EB-4.2 . . . . (p50) . . . . MON . . Asger CA-P.19 . N...... (p153) . Mortensen, . . . FRI . . Robert CM-7.6 . . . Morsch, . . (p59), . . Daniel TUE . . Morris, . CD-3.3 . Fumiya . . . Morosawa, . (p30) . MON . . (p156) . .CB-1.2 . FRI . . . . CI-4.2 . . Niall ...... Moroney, . . . . . Joshua . . . . . (p87) . . Mornhinweg, . . WED . . Jesper. . . CI-2.4 . . . . Mørk, ...... Ryuji ...... Morita, . . . Junko . . . Morikawa, . . . Yojiro Mori, (p28), MON CF-1.1 (p135) . THU . . . EE-4.3 ...... Uwe . . . Morgner, . . (p108) . . Luca WED . . EH-P.9 . Moretti, . . . . Cleumar . (p66), . . Moreira, TUE . Laureen .EC-2.4 . . Moreaud, ...... Martina. Morassi, (p43), MON .CD-2.2 . . (p104), . WED Roberto. CF-P.19 . (p149) . Morandotti, FRI . . . EG-7.3 . . . (p93) . . . WED . . Felipe . . . CE-6.5 . . . Morales, ...... Fabian ...... (p135) Mooshammer, . . . . THU . . David JSIV-2.4 . . Moor, . . . . . Bruno . . Moog, . . Chané Moodley, David . . . . Monzón-Hernandez, Francesco (p157) Monticone, (p52), FRI MON CC-7.4 CI-P.8 (p164) . . . FRI . Germano . . CK-9.6 . . Montemezzani, . . . . Michele . . . Montanari, . . Gilles . . . . Montambaux, Jorge Ruz, (p124), Monroy THU CH-9.2 . . Antoine (p94), (p136) Monmayrant, WED THU CB-5.1 CK-6.6 . . . Laura . . . Bartolome, . . (p80), Monge . . TUE Yann CD-P.42 . Monceaux, ...... Christelle Monat, EP1TU(p140) THU EE-P.1 (p170) FRI CH-P.16 (p175) FRI CM-P.26 (p149), (p174), FRI FRI CM-7.3 CM-P.17 (p135), THU JSIV-2.3 (p127), THU JSIV-1.3 (p149) FRI CK-7.3 (p172) FRI EG-P.5 ∙ (p153), (p169) FRI FRI EG-7.6 CM-9.4 (p140), (p151), THU FRI CG-P.8 (p129), EF-8.5 (p134), THU THU EE-3.2 CD-9.5 (p123), (p102), THU WED CC-P.4 CE-9.5 (p72), (p80), TUE TUE CD-5.4 CD-P.33 (p30), (p52), MON MON CF-1.3 EA-P.11 (p28), MON CF-1.2 (p152) FRI JSI-4.5 (p140) THU EE-P.1 (p59), (p69), TUE TUE EJ-2.4 CF-3.1 (p47), MON CD-2.6 (p112) THU CG-5.3 (p143) THU CJ-P.12 (p97) WED EJ-3.2 (p79), TUE CD-P.29 (p147) FRI CK-7.2 ∙ (p132) THU CD-9.3 D42TE(p64) TUE CD-4.2 (p100) WED CB-5.5 uhr'Index Authors' 189 ∙ ∙ ∙ HP1 R (p170) FRI CH-P.13 ∙ ∙ G41WD(p94) WED EG-4.1 (p85) WED EG-2.4 ∙ H31TE(p63) TUE EH-3.1 S-. R (p148) FRI JSI-4.2 I43FI(p149) FRI EI-4.3 ui,Jr DP3TE(p78) TUE (p92) CD-P.3 WED . . CB-4.5 ...... Valentin . . . . Mylnikov, . . . . . Jiri . . . . Muzik, . . (p119) . . . THU Elisa . . EA-5.2 . Muzi, . . . . Patrick . . . Mutter, . Kimmo (p79), Mustonen, TUE (p162) CD-P.21 . FRI . . EH-6.5 ...... Arnaud . . (p103), . Mussot, L. WED Otto CF-P.7 . . Muskens, (p146) . . FRI . . . CG-6.2 . . . . . (p111) . Mitsuru . THU . Musha, . EE-2.2 . Alexander . . (p119), Muschet, M. THU Margaret (p115) EF-6.2 . Murnane, THU . . . .EF-5.4 . . . . G. . . Stuart . . . Murdoch, . (p86) Stuart. WED Murdoch, JSI-2.4 . . . . Mrudul . . . Shylaja, ...... Muraleedharan ...... Pavel . . Muraev, . William. Munro, Mu uc,Jse A25MN(p40) MON (p112), Mu THU CA-2.5 . . CB-6.2 ...... Muhammad . . Muneeb, . . Jesper Munch, M M M M M M M (p77), TUE CE-4.5 M ...... M . (p66) . . TUE . . . .EC-2.3 . . . Ivan . . Mukhin, Sebabrata. Mukherjee, (p128) THU Samyobrata EG-6.6 Mukherjee, ...... M . . . . . Yannick . . . Mugnier, . (p49), Thomas MON CA-P.14 Mueller, ...... (p111) . . . . THU . . Christian . CE-8.2 . . . . Mueller, . . . . (p97) . Martina WED . . Muck, . EI-3.3 . . . Mariusz . O. Mrózek, V. Marcus Moutinho, Alexandros (p175) FRI Mouskeftaras, CM-P.31 . Saleh . . . Seyed . . . Khaleghi, . . Mousavi . . Areti Mourka, (p130), Micka THU Mounaix, (p151) CK-6.1 . (p147) FRI . . FRI . .EI-4.5 CM-7.1 . . Johnny . (p164) . . . . FRI . Moughames, . CJ-9.6 . Leonidas ...... Mouchliadis, . . . . . Riccardo . . . . . Motta, . . . . (p129), Shinji . . THU . Motokoshi, . CD-8.4 . Arnaud. . (p135) . (p43) Motard, . THU . MON . . CL-3.3 . . CD-2.2 ...... Alexis . . . . . Mosset, . . . . . Gervaise . Mosser, J. David Moss, ü ü ü ü ü ü ü ü ü ü F41WD(9) F43WD(p97), (p157) WED FRI EF-4.3 JSIV-3.4 (p95), WED EF-4.1 ∙ (p141) THU EF-P.1 ∙ (p134) THU EC-6.3 K43TU(p113) THU CK-4.3 (p103), WED CF-P.15 ∙ (p89), WED CA-6.1 (p64) TUE EI-2.3 (p104) WED CE-P.3 (p114) THU CA-8.6 (p174) FRI CM-P.21 ∙ ∙ (p148) FRI EA-7.4 H1. H (p134) THU CH-10.4 (p140) THU CG-P.12 D14TU(p138) THU PD-1.4 (p92) WED CH-6.4 (p132) THU CK-6.3 ñ ñ lr oet...... C-. H (p113) THU CE-8.4 (p100) . . WED . . . CF-6.6 ...... Robert . . ller, . . (p34), Niklas MON ller, CJ-1.1 . . . . . (p54), . MON . . EB-P.12 . . . (p85) . . WED . Michael . (p120) . ller, EG-2.3 . . THU . . . . CF-7.4 ...... (p33) . . . . Kai . MON . . . ller, . EB-1.4 . . . . . (p53) . . Julian . . MON . . ller, (p69) . EA-P.12 . . . . TUE . . . Jost . . . CB-2.6 . ller, ...... Heimo . . . . ller, . . . . . Chris . . ller, . . André ller, . Korbinian hlberger, zd a ea,Alberto Heras, las de oz z rnic MP1FI(p173) FRI CM-P.1 ...... Francisco oz, ë H1. R (p168) FRI CH-13.5 ...... l ∙ CP1 E (p106) WED EC-P.18 ∙ ∙ D74TU(p120) THU CD-7.4 E76WD(p100) WED CE-7.6 ∙ ∙ ∙ ∙ M95FI(p169) FRI CM-9.5 M75FI(p151) FRI CM-7.5 B11MN(p29) MON EB-1.1 ∙ I11MN(p43) MON EI-1.1 J95FI(p162) FRI CJ-9.5 ynkv aetnY.. Yu. Valentin Mylnikov, eaai ea...... E-. O (p31) (p86) MON WED EB-1.2 . CB-3.5 ...... (p170) . . . . FRI . . . CH-P.6 ...... Reza ...... Nejabati, ...... G...... Neijts, . . . . . Elias . . . Nehme, (p107) . (p118) WED (p158) Stefano THU EH-P.8 FRI . Negrini, CD-7.2 Yoel . CD-10.6 . . . . . (p102) . Negrín-Montecelo, . Jacopo WED . . Rubens, CC-P.16 . (p45) . . Negri MON . . . . . CH-2.3 Awoke . . . . . Negash, I. . . Irina . . . Nefedova, . Pieter Neethling, S. Jonas . (p63), . . Neergaard-Nielsen, TUE . (p140) . . EB-4.1 THU . . . CG-P.17 . . Jonas ...... Neergaard-Nielsen, ...... Vera . . Neef, . (p99), . WED Ales EB-7.4 Necas, ...... (p54), Bienvenu MON (p78) Ndagano, EB-P.13 TUE . . CD-P.14 ...... (p174) . . FRI Cornelius (p70) . . CM-P.23 TUE Nawrath, . . . . . Marius .CG-4.2 . . . (p55) . . Navickas, . S. MON . . (p33) EJ-P.7 Andrey . . MON . . Naumov, . . . . ED-1.5 . . (p129) . Andrei. . . . THU . Naumov, . . . EF-7.4 . Aswani ...... Natarajan, . . . . Akshay . . (p174), . Nataraj, . FRI CM-P.16 Riccardo . . Natali, . . . . (p76), . TUE . . CJ-2.6 Hisham . . Nasser, . . . . . G. . . Albert . (p96) . . WED Nasibulin, . . CE-7.3 . . . (p134) . . . THU N . . . . Ed CD-9.4 ...... Narevicius, . (p66), . . (p115) . TUE . Andrea THU . CG-3.2 . Naranjo, . EG-5.5 . . . . . Sébastien . . . . Nanot, ...... (p144) . . Saikat . . THU . . Nandi, . CK-P.1 . . . . . Lin . . . . Nan, . . . . (p48) . . MON Peter . CA-P.5 . Namdar, . . (p107) . Woo . WED . Sae . (p86) EH-P.2 Nam, N. . WED (p122) . . Andrey THU . CF-4.6 . . . Nakladov, . CI-3.5 . . . . . Yohsei . . . . (p164) . . Nakatsuka, . . FRI . . Ayata . CJ-9.6 . . . Nakashima, . . . . . Dai . . Nakajima, Masamori (p78), (p144) TUE Nakahara, THU CD-P.8 CK-P.15 ...... Emad (p39), . . MON . . Najafidehaghani, CG-2.4 K. . . Akshay . . . Naik, ...... (p146) . . . . FRI . . . . CC-6.1 . Tamás . . (p86) . . Nagy, (p89) . . WED . WED . Nathalie . .CF-4.6 CE-6.1 . . . . Nagl, . . . . Tadao ...... Nagatsuma, . . . . Keigo. (p90) . . WED . Nagashima, . . . CJ-4.2 . Harel . . . . Nagar, ...... (p142) . . . . THU . . . . .EF-P.8 . . . . Kohei . . . . . Nagai, . . (p51) . . MON . Malik . CB-P.17 . Nafa, ...... Ahmed. . . Nady, . (p49) Alexey MON CA-P.12 (p138) . Nadtochiy, . THU . . Marie-Christine . PD-1.8 . . (p54) Nadeau, . . . MON . Ernestas. . EB-P.23 . . Nacius, . . . . . Yasuo . . Nabekawa, Anton Vetlugin, N. N ä A36WD(p95) WED EA-3.6 (p93) WED EB-6.4 (p156) FRI CH-11.4 ∙ (p174) FRI CM-P.18 (p103) WED CF-P.9 (p159) FRI CG-7.1 (p98) WED EG-4.4 (p139), THU CG-P.7 (p115) THU EE-2.4 ∙ h,Mko...... E-. U (p60) TUE EE-1.5 ...... Mikko rhi, B43TE(6) B44TE(p67) TUE EB-4.4 (p65), TUE EB-4.3 (p95) WED EJ-3.1 ∙ E53FI(p155) FRI EE-5.3 ∙ ∙ ∙ BP2 O (p54), MON EB-P.25 M56TU(p128) THU CM-5.6 E21TU(p111), THU EE-2.1 ∙ ∙ ∙ ∙ ∙ F61WD(p94) WED CF-6.1 B75WD(p99) WED EB-7.5 F43WD(p97) WED EF-4.3 A21TE(p68) TUE EA-2.1 B33TE(p58) TUE EB-3.3
Authors' Index Authors' Index od oans...... C-. O (p40), MON CJ-1.6 ...... (p52) . MON . . . .EA-P.10 . . (p175) . Johannes . FRI . . Nold, CM-P.31 . . Johannes. . . Nokkala, Guillaume Noirbent, E. Barbara Faria, de Noguiera . A. . . Flávio . . . . Sampaio, ...... Nogueira . . . . Sara . . . Nocentini, . Hiroaki Niwa, i,Ai...... (p111) . . THU . . EH-4.1 . . . (p45) . . . MON ...... JSIII-2.2 . . . (p87) . . . . WED . . . . Avi . . CD-6.6 . . Niv, ...... Yubiao . . . Niu, . . . . (p72) . . (p30), . Yuki TUE . MON . Nitta, . CG-4.4 .CG-1.3 . . Edgars . . . . . Nitiss, ...... (p64) . . . . TUE . . . . . ED-3.3 Mauro. . . . . (p122) . . Nisoli, . . THU . . . M. CI-3.5 . . . Nisoli, (p80) . . . TUE Akiko . . ED-P.2 . . Nishiyama, . . . . Kazuki (p28) . . MON . Nishimura, . .CB-1.1 Tadashi ...... Nishikawa, . . . Yoshihiro (p104) . . WED . Nishigata, . CE-P.7 . . Hidetaka. . (p141), . Nishi, THU . . EE-P.3 Nikolay . . . Nikonorov, ...... Irina Nikolaeva, iknn ai...... (p144) . THU . . CK-P.3 ...... Jari . . . Nikkinen, . Julianija Nikitina, iii,Ade . . (p107) . . WED . . EH-P.6 . . . . . Andrey . . . Nikitin, . (p139) Eva THU PD-2.9 (p124) . Nieto-Pinero, . THU . Huber . (p149) . EG-6.1 . . FRI (p115) Nieto-Chaupis, . . . THU EI-4.4 Dominik . . . EF-5.4 . . . Niemietz, . P. . . (p126) . . . Michael . THU . . . . Nielson, (p40) CH-9.4 . . . . MON . . Alexander . . CK-2.5 . . . Nielsen, ...... (p69) . Iris . . . TUE . . Niehues, . EB-5.1 . B. . . . Jana . . . . . Nieder, . . . . . Jana . . Nieder, . . Thomas Nieddu, ioa,Foin...... (p83), . . WED . . CJ-3.1 . . . Florian . . Nicolai, . (p111) . . THU . . . .EE-2.2 . . . . Alioune D.. Niang, L. Quynh Nguyen, gyn u h . . . (p55) . MON . . EB-P.28 . . . . Thi . . Hue . . . Nguyen, Huan Chi Nguyen, g,GaQyt...... Quyet Gia Ngo, (p55) MON EJ-P.6 . (p116) . THU . . . CB-7.1 . . . J . . . . . Neumann, . . . . Joerg . . (p76), . Neumann, . TUE CA-4.5 Carsten . . Netzel, . (p124) . . THU . . . CH-9.1 . Dragomir . . (p103) . Neshev, WED Maxim CF-P.1 . . Neradovskyi, Elizaveta . . (p48), . Neradovskaia, . MON CA-P.1 . Gedvinas . . Nemickas, ...... Michal Nemec, ebl,Rel A16TE(p60) . . TUE . . EA-1.6 ...... (p47) . . . . MON . . Long . EI-1.4 . . . . Boon . . Ng, . . (p31) . . Rielly MON . . . EB-1.2 Newbold, . . . . . Timo . . Neumann, . Sebastian Neumann, ...... Hynek Nemec, Mohammadreza Nematollahi, esn et ...... A.. Keith Nelson, J83FI(p157) FRI CJ-8.3 (p156) FRI CL-4.4 ∙ ∙ G51TU(10,C-. H (p139) THU CG-P.1 (p110), THU CG-5.1 (p155) FRI EE-5.2 I43FI(p156) FRI CI-4.3 G44WD(p98) WED EG-4.4 D1. R (p160) FRI CD-11.2 (p48) MON CA-P.6 (p48), MON CA-P.4 H12MN(3) D34TE(p66), TUE ED-3.4 ∙ (p36), MON CH-1.2 (p44) MON JSII-2.3 I23WD(p85) WED CI-2.3 (p98) WED CE-7.5 HP1 R (p170) FRI CH-P.15 ö g...... C-. U (p72) TUE CJ-2.4 ...... rg ∙ ∙ ∙ GP1 H (p140) THU CG-P.11 ∙ ∙ ∙ ∙ ∙ FP1 H (p142) THU EF-P.16 SI21MN(p42), MON JSII-2.1 ∙ DP2 U (p79), TUE CD-P.27 MP3 R (p175) FRI CM-P.35 ∙ ∙ F66WD(p100) WED CF-6.6 A85TU(p114) THU CA-8.5 SI25MN(p46) MON JSII-2.5 ∙ ∙ K14MN(p32) MON CK-1.4 C46WD(p86) WED CC-4.6 E13MN(p32) MON CE-1.3 ∙ AP6MN(p52) MON EA-P.6 DP8TE(p78), TUE CD-P.8 B23TE(p65) TUE CB-2.3 lo ldmr...... C-.9WD(p104) WED (p159) CF-P.19 FRI . . . CG-7.1 ...... (p44) . . . MON . . . . JSII-2.2 . (p117) Vladimir . . . THU . Olvo, . . . EA-5.1 . Anna . . (p32) . . . . Olofsson, MON . . . CA-1.4 . Zoltan ...... Ollmann, . . . . (p33), Hélène . MON . (p62) Ollivier, . . TUE JSII-1.5 Lenn . . CA-3.1 . . Ollenburg, ...... Luana . . . Olivieri, . . James Oliver, lu,Hll...... Halil Olgun, lsk,Mtuz . (p115) . . THU . . . EH-4.6 . . (p155), . . Mateusz. FRI . . J. Oleszko, .CC-7.2 . Steven . . . Oldenburg, . . (p174) . . FRI . . CM-P.19 . . Tudor. . . . Olariu, Konstantin Okotrub, kzk,Dii...... C-. E (p103) WED CF-P.5 . . (p148) . . . . FRI . (p156) . . Andrey EB-9.3 FRI . . . . . CI-4.2 Okhrimchuk, ...... Daiki ...... Okazaki, . . . . Fumiya . . Okamoto, . . Kazuhiko Oka, hsk,Tmk I14TE(p61) TUE (p118) CI-1.4 THU . . . . . CC-5.2 ...... (p107) . Oluwafemi . . WED . . . . Ojambati, (p127) EH-P.2 . . . . THU . Tamiki . . . . JSIV-1.3 . Ohtsuka, . . . (p80) . . . . . TUE Seigo . . . . ED-P.2 . Ohno, ...... (p87) . Shunnma . . WED . . Oh, . . . . CJ-3.5 . . . Ilker (p171) . . FRI . . Oguz, . . CH-P.24 . (p115) . . Katsuya . . THU . . Oguri, . . . CK-4.4 . . Kazuhiko . . . . . Ogawa, . . . Liam (p64), . . TUE . O’Faolain, . . ED-3.3 . Ian . . O’Connor, . . . . (p90) (p44) . WED MON . . CB-4.3 JSII-2.2 Ewelina . . . . . Obrzud, . . . Wolfhard . . . . Oberhausen, Young Key Oang, O (p143), THU (p91) CJ-P.13 WED . . . .EF-3.2 ...... (p145) . . . . THU . (p83) . Boris CK-P.21 . . WED . . Nyushkov, . . EG-2.1 . (p53) . . Robert. . MON . . . Nyman, EB-P.4 . . V. . . . . Jens . . . . Nygaard, ...... (p139), Salahuddin . . THU Nur, . PD-2.8 Argiris . . Ntanos, . (p88), . WED . . . CF-5.1 . . . . . Lukas . . Novotny, . . (p50) . . MON . . CB-P.8 . . (p92) . . WED David . . Novoa, CB-4.5 . . . . . Innokenty (p49), . . MON Novikov, . CA-P.10 . Innokentiy . . Novikov, . . . . (p91) . (p79) . WED (p84) TUE WED Ondrej .EA-3.2 CD-P.30 . . . CE-5.3 Novak, . . Maxime ...... Nourry-Martin, (p46) . E.. . MON . (p114) Tracy . . CC-1.4 THU . Northup, . J. . CB-6.5 . . David . . . (p39) . . Norris, . . MON . . Antoine . EH-1.4 . . . Normand, . . . . Justin . . . Norman, . Peter Nordlander, og aod...... C-. R (p153) FRI CC-7.1 ...... Marc . . . Noordam, (p31), . . MON Hanond JSI-1.2 Nong, ...... Masahiro Nomura, (p83), WED CD-6.2 ...... Stefan Nolte, C42WD(p82) WED CC-4.2 ∙ (p107) WED EC-P.24 ∙ ∙ (p154), FRI CD-10.3 (p149) FRI EG-7.3 ∙ (p78) TUE CD-P.3 S-. E (p108), WED JSI-P.1 (p173), (p173) FRI FRI CM-P.4 CM-P.5 (p130), (p154), THU FRI CM-6.1 CM-8.2 (p103), (p127), WED THU CF-P.12 EF-7.3 (p98), (p101), WED WED CM-3.4 EJ-3.6 (p90), WED CM-2.3 C76FI(19,C-. R (p163) FRI CC-8.5 (p159), FRI CC-7.6 H42TU(p111), THU EH-4.2 (p153) FRI CK-8.1 (p119) THU EA-5.3 ∙ ∙ ∙ S-. R (p146) FRI JSI-4.1 J1. R (p168) FRI CJ-10.6 ∙ ∙ FP1 E (p103) WED CF-P.11 ∙ GP1 R (p172) FRI EG-P.13 ∙ M33WD(p96), WED CM-3.3 G12MN(p37), MON EG-1.2 S-. O (p52) MON JSV-P.2 ∙ C33TE(p71) TUE CC-3.3 vree,Lde...... H43TE(p65) TUE .CH-4.3 ...... Ludger. Overmeyer, . (p39), Jose MON JSIII-1.4 Ordonez-Miranda, . . . . . (p158) . . FRI Andres CL-5.1 . Ordonez, ...... Reut . . . Orange-Kedem, . . Reut Orange, (p39), MON EF-1.3 ...... Gian-Luca . Oppo, . . . (p47), . . MON . . .EF-2.5 Nadav . . . Opatovski, . . . . (p156) . (p113), FRI . THU CI-4.2 Nikola. . CK-4.3 . Opacak, ...... (p128) . . Camiel THU . . CH-9.6 Beeck, . . . . de . . . Op . . . . . Hiroshi . . Ono, . . Naomi Omori, (p112), THU (p77), CA-8.4 TUE . . . CC-3.6 ...... Takashige . . . Omatsu, ...... Alan Omar, u i DP2 U (p79) TUE CD-P.22 ...... Charlotte . . (p30), Ovenden, . MON . . CE-1.2 Xin . (p79) . Ou, . TUE . . CD-P.22 ...... Jun-Yu . . . . Ou, . . . . (p107), . Haiyan . WED . Ou, . (p148) EC-P.20 . . FRI . . . Fang . CG-6.3 . Ou, ...... (p122), . . . THU Eileen . . Otte, . CI-3.5 . . . Christian . (p156) . Ott, FRI . . . CM-8.4 . . . (p33) . . . . MON . . Taiichi . EC-1.4 . . . Otsuji, . (p163) . . . FRI Tomohito . . JSIV-4.3 . Otobe, (p127) . . THU Elena . . CB-8.3 . Ostrovskaya, . . . . Andreas . . (p80) . Ostendorf, TUE . (p74) (p126) CD-P.33 Marcus TUE . THU Ossiander, Khabbazi CE-10.3 .CG-4.5 . . Amir ...... Oskouei, . V. . . . Vladimir . . Osipov, . . Timur. Osipov, (p55), MON EJ-P.1 ...... (p94), . . WED Roberto EG-3.6 . . Osellame, . (p108), . . WED . . JSI-P.3 . . . Michele . . . Ortolani, ...... Omar Ortiz, Ignacio Ortega-Piwonka, (p60), TUE CL-2.5 . (p62) . TUE . . . EI-2.1 ...... Bulend . (p168), . Ortac, . FRI Lorenzo CD-12.3 . Orsini, ...... Marco Ornigotti, (p128), THU CM-5.6 ...... Sergej Orlov, ...... Andrea Orban, ∙ (p153) FRI EF-8.6 (p115), (p141), THU THU EF-5.4 EF-P.1 (p97), (p111), WED THU EA-4.2 EF-5.2 (p64), TUE CD-4.2 (p170) FRI CH-P.6 (p161) FRI CC-8.2 (p88), WED CB-4.1 (p157) FRI CK-8.5 (p114), (p118) THU THU CM-4.5 CC-5.2 (p114), THU CA-8.5 ∙ SV25TU(17,E-. R (p155) FRI EH-5.3 (p133), (p137), THU THU JSIV-2.2 JSIV-2.5 (p114), THU CH-8.5 (p123) THU EC-5.5 ∙ (p165) FRI CM-9.1 (p158), (p163), FRI FRI CK-9.1 CG-7.5 (p93), (p147), WED FRI CE-6.4 CM-7.1 (p58), TUE CK-3.3 (p157) FRI (p132) CC-7.4 THU EC-6.2 (p110), THU JSI-3.1 ∙ (p162), (p166) FRI FRI CJ-9.4 CK-10.4 (p159), (p162), FRI FRI CJ-8.5 CL-5.4 (p143), (p143), THU THU CJ-P.17 CJ-P.18 (p104), WED CE-P.11 (p166) FRI CH-13.4 (p172), (p173), FRI FRI EG-P.10 CM-P.8 (p145), THU CK-P.17 (p140), THU CG-P.19 (p146) FRI JSI-4.1 SI-. O (p41) MON JSIII-1.5 (p118) THU CF-7.2 C62FI(p148) FRI CC-6.2 (p102), WED CC-P.8 uhr'Index Authors' 190 ∙ MP2 R (p174) FRI CM-P.24 ∙ ∙ S-. E (p109) WED JSI-P.6 S-. H (p110), THU JSI-3.2 ∙ ∙ ∙ ∙ E25MN(p40) MON CE-2.5 ∙ L51FI(p158), FRI CL-5.1 HP6FI(p170) FRI CH-P.6 H36TE(p61) TUE CH-3.6 A23TE(p76) TUE EA-2.3 aaton yi B15MN(p32) MON CB-1.5 (p72) . TUE . . CD-5.4 ...... Cyril . . . Paranthoen, . . (p46), Alexander MON Pape, CC-1.5 . G. Dimitris Papazoglou, (p61), TUE EH-2.4 ...... Nikitas . . . Papasimakis, . Dimitrios (p113), (p41) Papas, THU MON EH-4.3 CM-1.5 ...... (p112) . . . . THU . . . . .JSI-3.3 Zsuzsanna . . . . Pápa, . . . . . Steve . (p37) . Papa, . MON EF-1.2 Stefano. . (p51), . . Paoloni, MON . . CB-P.14 ...... Konstantinos . . . Pantzas, . (p99), . K. WED (p173) FRI Pantzas, EI-3.4 CM-P.2 ...... Marianna . (p141), . . THU Pantouvaki, EE-P.3 Yiannis . . . Pantazis, . . (p93), . . WED . . . .EF-3.4 . (p93) . Nikolay . WED Panov, . . EF-3.5 . . . (p173) . . . . FRI . . . JSIV-P.3 . . . Dmitry. . . . . Panna, . . . . . Vlad . . . Pankratov, . . Artem Pankov, . Ramón (p122) . . THU . . CF-7.6 . Paniagua-Domínguez, . . . . (p167) . Awanish . FRI . Pandey, Kumar (p50) JSIV-5.4 . MON Alok . . CB-P.5 (p57), S. Pandey, . . TUE . Soumyashree . CI-1.2 . . Panda, . . . Krassimir . . Panajotov, ...... (p147) (p36), Zhongqi FRI MON Pan, EG-7.1 CA-2.2 ...... Zhongben . (p41) . Pan, (p142) . MON . THU EF-1.5 (p111) Jiahe EF-P.14 . THU . Pan, . Anirudh . EH-4.1 . . Venkata . . . Pammi, (p108) . A. . WED . Venkata . JSI-P.5 . . . Pammi, . . . Richard . B. Palmer, M. . Quinn . . Palmer, . Gonzalo Palma-Vega, ...... Domas . . . Paipulas, . (p158) . . FRI . (p61) . CM-8.6 TUE . . Petra . CH-3.6 . , . . . Paiè . (p51) . . MON Dominique . . CB-P.18 Pagnoux, . . . Francesco . (p172) . FRI . Pagliano, EG-P.14 Anatoliy . . . Padalitsa, . Alexandra Pacureanu, (p168) FRI CH-P.2 . . P ...... (p164) . Lutfi . FRI . . Ozyuzer, CK-9.6 ...... Özg . . (p83) . . . WED Can . (p144) . EG-2.1 Ozcan, . (p149) THU . . . FRI CK-P.12 . Tomoki . . . EI-4.3 . Ozawa, . Katsuo . . . . . Leif . . . . . Oxenløwe, . . . . . Anna . . Ovvyan, . . Simon Ovesen, P (p122) THU David (p66) CA-9.5 . . TUE . . . . . Pallarés-Aldeiturriaga, CG-3.2 . . . . Alexander...... Palatnik, . . . . . Oleg . . . Palashov, . Alicia Palacios, ä ∙ (p133), (p137) THU THU JSIV-2.2 JSIV-2.5 (p121), THU EC-5.4 (p175) FRI CM-P.25 (p172), (p174), FRI FRI EG-P.4 CM-P.12 (p167), FRI CF-10.2 (p157) FRI CK-8.5 (p112) THU CB-6.2 (p155) FRI EE-5.2 (p137) THU EA-6.5 (p123) THU CK-5.3 (p143) THU CJ-P.6 (p84), (p120) WED THU CA-5.3 CA-9.4 (p38), MON CA-2.3 (p165) FRI CM-9.1 ∙ (p175) FRI CM-P.28 (p174), FRI CM-P.13 l,Sm-il ...... Samu-Ville lli, M54TU(p126) THU CM-5.4 MP3 R (p175) FRI CM-P.33 ü ,Eo K1. R (p166) FRI CK-10.4 ...... Erol r, ∙ ∙ CP1 E (p106) WED EC-P.16 M66TU(p136), THU CM-6.6 ∙ ∙ ∙ ∙ ∙ K45TU(p115) THU CK-4.5 C55TU(p122) THU CC-5.5 KP4TU(p144) THU CK-P.4 E64WD(p93), WED CE-6.4 ∙ J64TU(p134) THU CJ-6.4 H53FI(p155) FRI EH-5.3 ecat,Mro...... JI-. O (p33), MON JSII-1.5 ...... Marco Peccianti, (p112) THU CH-8.3 ...... Micha . . . (p36) . . . Parniak, . MON . P. . . Ivan . .CD-1.2 (p133) . . . Parkin, THU . . . .EA-6.2 . Helen . . . . (p50) Parker, . . . MON . Hong-Gyu. . CB-P.11 . . . Park, M.. . . . Meera . . Parish, . Olivier Parillaud, (p52), (p115) MON THU EA-P.10 . EE-2.4 . . . . . (p79) . . . . TUE . . . . CD-P.16 . . . Valentina . . . . . Parigi, . . . (p106) . . Vivek WED . . EC-P.7 Pareek, . . . . Bruna . . . Paredes, Nikhil Parappurath, alu,Aaoy...... C-. U (p73) TUE . CE-4.3 . (p44) . . . . MON . . . . Pa CC-1.2 . Maria ...... Pawliszewska, . . . (p174), . Anatoly . FRI Pavlyuk, CM-P.16 G. . . . Sergey . . Pavlov, . . . . (p79), . . TUE . . CD-P.25 (p49) . Ihor . MON . Pavlov, . CA-P.15 . . . . (p115) . . . THU . . . . . CK-4.4 Lorenzo . . . . . Pavesi, . . . (p43) . MON Nicolaie . . . Pavel, . .EI-1.1 . Fabio . . . Pavanello, . . . (p112), Ja . . THU . Pauwels, . CH-8.2 . Matthias. . . Paur, . . . . (p167) . . (p48), FRI MON Bruno CF-10.2 .CA-P.3 . . . Paulillo, (p157) . . . . FRI . . . . CC-7.4 . . . Samuel (p36) . . . . MON . . David, . . . . Paul .CE-2.2 . . . . . Pallabi . . . . Paul, . J. . . . Douglas . . Paul, . . . Douglas. (p104), . . Paul, WED . (p87) CE-P.6 Adhip WED . . . Pattanayak, EG-2.6 ...... (p38) . . . . MON (p40) . MON . Barbara CH-1.5 . . . . CE-2.5 (p31) . Patrizi, . . K. . MON . . . Biplab . . EC-1.2 . . . . . Patra, ...... Pietro ...... Patimisco, (p108) (p63) K. . . WED TUE . Pallavi . . .JSI-P.3 CH-4.1 Patil, ...... (p110) Pallavi . . . . THU . . Patil, . . .JSI-3.1 Hernan...... Pastoriza, . . . . . Daniel . . Pastor, . Florian. Pastier, (p33), MON (p112) THU JSII-1.5 . CA-8.4 ...... Alessia . . Pasquazi, . M Helen Pask, (p74), (p162) TUE FRI .CA-4.4 . CD-11.3 ...... Valdas. . . (p50), . . MON Pasiskevicius, . CB-P.3 . Olesiya (p149) . . FRI Pashina, . . . .EG-7.3 . . . . . (p161) . . . FRI . Katrin . . CH-12.2 Paschke, . . . Markus. . . . (p162) Parzefall, . (p145) FRI Matthew THU CD-11.4 Partridge, . . AlexiosCK-P.21 . . . (p162) . Parthenopoulos, (p67) FRI Jacopo TUE CD-11.4 . EH-3.4 Parravicini, . . Gianbattista . . . Parravicini, Antonietta Parracino, (p45), MON .CD-2.4 . . . . . Pedro. Parra-Rivas, DP3 U p0,E-. R (p150) FRI EB-9.5 (p60), (p80), TUE TUE EB-3.4 CD-P.37 (p54), MON EB-P.20 MP1 R (p174) FRI CM-P.18 (p134) THU EC-6.3 (p150) FRI CC-6.4 (p49) MON CA-P.10 (p126) THU CE-10.3 (p120), (p140) THU THU CC-5.3 EE-P.1 (p98), (p102), WED WED CH-7.3 CC-P.1 (p43), (p82), MON WED CD-2.2 CC-4.2 (p39), MON EF-1.3 (p152) FRI CD-10.1 (p125), THU (p143), THU CJ-5.2 (p118), CJ-P.4 (p120), THU THU CD-7.2 CD-7.4 (p116), THU CD-7.1 (p123) THU CE-9.4 (p123), THU EF-6.5 ∙ (p121), THU EF-6.4 ∙ (p91) WED EB-6.3 ź F84FI(p149) FRI EF-8.4 (p117), THU EF-6.1 (p57), TUE EJ-2.2 zo,Aa D52TE(p70) TUE CD-5.2 ...... Adam dzior, ë ...... l ł A35WD(p93), WED EA-3.5 ...... ∙ GP1 H (p140) THU CG-P.13 ∙ SV31FI(p153) FRI JSIV-3.1 ∙ ∙ L21TE(p56) TUE CL-2.1 J71FI(p146) FRI CJ-7.1 ees okr...... C-.6FI(p171) FRI CH-P.26 ...... (p162) . . . Volker FRI . . . Peters, CK-9.5 ...... Luke . . Peters, . . Lisanne Peters, ees ei ...... (p175) . . . . FRI . . . CM-P.25 . . J.H...... (p122) Kevin . . . . THU (p136) Peters, . . . . THU CA-9.5 . Pavel . . . EC-6.5 . . . . Peterka, ...... (p45) . . . . László MON . . . . Péter, . . CH-2.2 . . . Aleksey . . . . . Pestov, . . . . Ulf . . . Peschel, . Martin (p91), Peschel, WED CE-6.2 ...... Vladimir (p53), Pervak, MON (p157) EB-P.7 . FRI . . CC-7.4 . . . . . (p108) . . . . WED . . . JSI-P.3 Thomas ...... Pertsch, . . . Luca . . . . Persichetti, . Bernard Perrin, erks ere...... (p83) . . WED . . EG-2.1 . . . George . P. Perrakis, H. Wolfram Pernice, enr ua ...... C-. R (p154) . . FRI . . CF-9.3 ...... Nicolas . . Pernet, . W. Lukas Perner, eioai ln ...... Eleni Perivolari, egmn,Mkal...... (p138) . THU . . . . .PD-1.7 . . Mikhail . Pergament, Daniel. (p172) Salinas, FRI (p53), Perez EG-P.12 . MON . EA-P.12 . . . . . (p138) . . . THU Armando . . PD-2.4 . Pèrez-Leija, ...... Camilo . . . (p53) . . Pérez, . MON (p35) . Dmitrii. . EB-P.8 MON . . . . Perevoznik, . EF-1.1 ...... Nuno . . . . Peres, . . . . Matteo ...... Perenzoni, . M. . . Auro . . Perego, . Vasili (p55), Perebeinos, MON Ra EJ-P.1 (p71) . TUE . . Perea-Causín, . CE-4.2 ...... Ciro . . . Pentangelo, Denis Penninckx, eg eg...... Peng Peng, eg u . . . (p134) . . THU . . CD-9.4 . . . . (p47) . . . MON . . . . . (p37) . JSIII-2.4 . . (p61) MON . . . Kun . TUE . . EH-1.2 . Peng, . . . EH-2.3 ...... Cheng ...... Peng, ...... Tom . . . . . Penfold, . . . . . (p52), John . . MON Pendry, CI-P.8 B. . (p58) J. . TUE . . Pendry, . CL-2.2 . . . (p153) . . (p38) . . FRI . MON . CK-7.6 . . Jonathan . CE-2.4 . . . Peltier, . . . . . Pierpaolo ...... Pellicori, . . . Daniele . . . Pellegrino, . . Karl Pelka, ee,Yan...... E-. O (p31) MON EB-1.2 ...... (p54) . . . MON . (p138) . . EB-P.19 Vincent THU . . . . . Pelgrin, .PD-2.4 ...... Yoann . . . . Pelet, . . . . Antti. . . . Pekka-Jauho, . . . Avi Pe’er, (p69), Esteban TUE (p154) .CH-5.1 Pedrueza-Villalmanzo, . (p144) FRI . . THU . .CF-9.3 . CK-P.16 ...... Christian...... Pedersen, . . . . Martynas . . . Peckus, F.. Vito Pecile, C42WD(8) H73WD(p98) WED CH-7.3 (p82), WED CC-4.2 (p135), THU EA-6.4 F61WD(9) D16TU(p138), (p156) THU FRI PD-1.6 CF-9.5 (p94), WED (p129) CF-6.1 THU CD-8.5 (p100), (p125), WED THU EG-4.6 CD-8.1 (p78), TUE CD-P.13 K86FI(19,C-. R (p164) FRI CK-9.6 (p159), FRI CK-8.6 F45WD(8) A65WD(p95) WED CA-6.5 (p86), WED CF-4.5 ∙ (p58) TUE CK-3.3 D63WD(p85) WED CD-6.3 ∙ H34TE(p67) TUE EH-3.4 (p170) FRI CH-P.11 (p120), (p140) THU THU CC-5.3 EE-P.1 (p98), (p102), WED WED CH-7.3 CC-P.1 (p43), (p82), MON WED CD-2.2 CC-4.2 (p39), MON EF-1.3 C52TU(p119) THU EC-5.2 D63WD(p85) WED CD-6.3 ü I44FI(p149) FRI EI-4.4 ...... l ∙ HP1 R (p170) FRI CH-P.17 ∙ ∙ SI15MN(p33), MON JSII-1.5 ∙ ∙ DP1 U (p78), TUE CD-P.11 ∙ ∙ ∙ ∙ GP1 R (p172) FRI EG-P.16 ∙ ∙ F21MN(p43), MON EF-2.1 ∙ M94FI(p169) FRI CM-9.4 S-. O (p33) MON JSI-1.5 A33TE(p66), TUE CA-3.3 C24TE(p66), TUE EC-2.4 H66FI(p164) FRI EH-6.6 H55FI(p157) FRI EH-5.5 G42TE(p70) TUE CG-4.2 ∙ I24TE(p66) TUE EI-2.4 ieo,Aeadr...... E-. O (p45) MON EF-2.3 ...... Alexander Pimenov, iln,Gbil...... C-. U (p64) . . TUE . . CA-3.2 ...... Laura (p50), . . MON . Pilozzi, (p52) . CB-P.8 . MON Gabriel . EA-P.10 . . . . Pillant, . . . . (p82) . . . . WED . . . . CC-4.1 . . . . Nikita ...... Pikhtin, . (p48) . . . . MON Jyrki . CA-P.5 . . . Piilo, . . . . Aurélie . A. Pierret, Kseniia Pierpoint, iretl,Poo...... (p126), Paolo THU (p33) Piergentili, MON .CE-10.4 . EC-1.4 . . . . . (p129) . . THU . (p156) Davide. . FRI . CJ-5.5 . . Pierangeli, . . CF-9.4 . . Maciej . (p99) . . . WED . . . Pieczarka, . . EF-4.5 . . . Shankar ...... Pidishety, . . . Nathalie . . . Picqué, . Antonio Picozzi, (p72), TUE CA-4.3 Emma . . (p69) . . TUE . Pickwell-MacPherson, . . .CF-3.1 ...... Pierre . . . Pichon, Riccardo. Piccoli, icro ac . . (p113) . . THU . . EG-5.2 . (p133) . . . . THU . Marco . . CL-3.2 . . Piccardo, . . . . Emmanuel . . . . Picard, . . . . Simonluca . . Piazza, . Simone Piacentini, i aln ...... Hailong Pi, (p32), MON Supakorn CB-1.4 . . Phutthaprasartporn, ...... Hoy-My Phung, Richard Christopher (p82), WED Phillips, CA-5.1 . . R. Christopher Phillips, hm un...... P-. H (p138) THU PD-2.1 ...... (p96) . . WED . Christopher . CE-7.3 . . . . Phillips, ...... Tuan . . Pham, . Andreas Pfenning, fie,Toa G63FI(p148) . FRI . . . CG-6.3 . . . . (p113) . . . . THU . . . . CK-4.3 Adrian. . . . . (p68) Pfeiffer, . . . . TUE . Thomas . CA-4.1 . . Pfeifer, . . . . Emilien . (p61) . Peytavit, . TUE Mostafa .CH-3.6 . Peysokhan, Maurangelo. Petruzzella, erci aa...... E-. U (p67) TUE EH-3.4 ...... Petrul . Gaia Petrucci, (p38), MON (p162) .CA-2.3 FRI . . . CD-11.3 ...... (p33), Valentin. . MON . . Petrov, . JSV-1.5 . . Mikhail (p49) . . Petrov, MON . . CA-P.18 . . . . . (p175) . . . . FRI . . Mihail CM-P.32 . . . (p49) Petrov, . S MON . . Lyuben CA-P.13 . . . (p57) Petrov, . . . TUE . . Alexander CI-1.1 . . . Petrov, . . . . Ashot . . . Petrosyan, Periklis Petropoulos, ei,Séhn AP1 O (p49) MON . (p41) CA-P.12 . . . MON . . . . EH-1.5 . . . (p79) Emilija . . . TUE . . . . CD-P.17 . Petronijevic, ...... Stéphane . . . . Petit, ...... Marlene . . Petit, . . Mihail Petev, (p69), TUE CH-5.1 . . . . R. Christian Petersen, eesn hita . . . . . Christian Petersen, K62TU(p132) THU CK-6.2 BP1 O p1,C-. E (p92) WED CB-4.5 (p51), MON CB-P.18 D1. R (p162) FRI CD-11.4 ∙ ∙ (p127), (p129) THU THU CB-8.3 CB-8.6 (p88), WED CB-4.1 D11TU(p138) THU PD-1.1 (p169) ∙ FRI CI-5.6 (p161), FRI CG-7.2 (p82), WED CF-4.2 A75WD(9) A92TU(p118), (p120) THU THU CA-9.2 CA-9.4 (p88), (p99), WED WED CF-5.1 CA-7.5 (p86), WED CA-5.5 (p36) MON CD-1.2 ∙ FP1 H (p142) THU EF-P.13 ∙ C51TU(p116) THU CC-5.1 (p79) TUE CD-P.30 B15MN(3) B74TU(p122) THU CB-7.4 (p32), MON CB-1.5 HP3WD(p107) WED EH-P.3 J61TU(10,E-.1TU(p142), THU EF-P.11 (p130), THU CJ-6.1 ns uutns.. . Augustinas enas, ˙ ∙ F92FI(p154) FRI CF-9.2 ∙ CP1 E (p102) WED CC-P.14 ∙ ∙ ∙ ∙ ∙ ∙ ∙ D1. R (p166) FRI CD-12.2 HP1 R (p170) FRI CH-P.11 ∙ C41WD(p83), WED EC-4.1 G12MN(p30) MON CG-1.2 ∙ F74TU(p129) THU EF-7.4 F25MN(p47), MON EF-2.5 A74WD(p99) WED CA-7.4 E31TE(p63), TUE CE-3.1 K91FI(p158) FRI CK-9.1 ir,Agl ...... (p102), . . WED . . CC-P.8 . . . . Angela . (p31) . Pirri, . MON . . EB-1.2 ...... Oreste . . Piro, . (p49), Stefano MON (p58) Pirandola, CA-P.14 TUE . . . . . EB-3.3 ...... Marcin . . . . (p135) . . . Piotrowski, THU . . . . CL-3.3 Davide . . . . Pinto, . (p135) . . . THU . Julien . . JSIV-2.4 Pinske, . . . . . Maxime . . (p67), (p60) . Pinsard, . TUE TUE Jonathan CH-4.4 EB-3.5 . . Pinnell, ...... (p67) . . . W.H. TUE . . Pepijn (p85) EH-3.4 . . . WED . Pinkse, . . . CI-2.3 . . Pepijn . (p113) . . . THU . Pinkse, . . EG-5.2 . Francesco ...... Pineider, . . . . Erwan . . . Pincemin, . Christophe Pin, icap,Paah...... C-. R (p146) . . FRI . . . CC-6.1 (p153) . . . FRI . . Alexandros CC-7.1 . . . . . Pitilakis, . . . . Prakash . . . Pitchappa, . Valentino Pistore, ...... Stavros Pissadakis, otgir ii A34TE(p66), TUE (p70) CA-3.4 TUE . . . CG-4.3 ...... (p44) . Lilia . MON . . CC-1.2 Pontagnier, . (p154) . (p60) . . FRI . TUE Bernard . . EA-1.5 Pons, .CL-4.3 . . . . Alexey . . . . (p43) . . Ponomaryov, . MON . Eveliina. . EI-1.1 . . . Ponkkonen, . (p71) S. . TUE . . Eugene . . . . CC-3.2 . Polzik, . . . . . Dmitry . . . (p64), . . . Polyushkin, TUE . . . . Pavel ED-3.2 . . . . . Polynkin, . (p135) . . THU . Gyula . . EE-4.3 . Polónyi, ...... (p118) . . . THU . Dario . . CA-9.3 Polli, . . . . (p110), . Laura . THU . . Polito, . CG-5.1 . Anton . . . Polishchuk, . . . . . (p159), . . FRI . Luca CH-12.1 . Poletto, ...... Francesco (p50) MON (p124) Poletti, .CB-P.3 THU . . EG-6.2 ...... Lakshminarayan ...... Polavarapu, . . . . . Johannes. . . Pohl, . . . . . David . . Pohl, . . (p112), . THU . A. CB-6.3 A. . Eva . . (p86) . Pogna, . WED . . CC-4.5 ...... Stijn . . Poelman, . (p141) Sergey . THU . . Podzyvalov, EF-P.3 . . Alexander . . . Podoskin, V. Evgeniy Podivilov, . . . Luká . . . Podhora, . . . (p49) . . MON . (p66) CA-P.16 . TUE . Eric . . . CG-3.2 . Plum, . . . Victor ...... (p53) Plotnichenko, . . (p33) . MON Malte . MON EA-P.14 . . . EB-1.4 Plidschun, ...... Etienne ...... Plésiat, . . . . Alexandre . . Plaud, . . Markus (p39), Plass, MON JSIII-1.3 . . . . (p166) . . FRI . . (p135) . CH-13.4 . THU . . . . . EE-4.3 ...... Luis ...... Plaja, . . . . Stephen . . (p114), Plachta, . THU . Fabio CG-5.4 . . Pizzetti, ...... Moana Pittman, S-. E (p109) WED JSI-P.6 ∙ (p165) FRI CH-12.6 H45TE(6) E63WD(p91), (p93) WED WED CE-6.3 CE-6.5 (p67), TUE CH-4.5 ∙ SV45FI(15,JI-. R (p167) FRI JSIV-5.3 (p165), FRI JSIV-4.5 (p139) THU CG-P.1 (p161) FRI CH-12.2 (p141) THU EE-P.9 (p161), FRI CC-8.3 (p113) THU CK-4.3 (p155) FRI EH-5.3 (p117), THU CE-9.1 (p172) FRI EG-P.8 (p111), (p122), THU THU EE-2.2 CF-7.6 (p108), (p114), WED THU EI-P.4 CG-5.4 (p107), WED EC-P.21 (p122) THU CF-7.6 A86TU(p114) THU CA-8.6 E1. H (p126) THU CE-10.3 uhr'Index Authors' š D21TU(p138) THU PD-2.1 ...... 191 ∙ C86FI(p165) FRI CC-8.6 ∙ ∙ ∙ H85TU(p114), THU CH-8.5 ∙ EP6WD(p104), WED CE-P.6 ∙ BP1 O (p51) MON CB-P.18 ∙ S-. O (p31) MON JSV-1.2 ∙ ∙ H15MN(p38) MON CH-1.5 H42TE(p65), TUE CH-4.2 F54WD(p92) WED CF-5.4 I33WD(p97), WED EI-3.3 ∙ J26TE(p61) TUE EJ-2.6 op oans...... (p136), . THU Johannes CD-9.6 . Popp, . (p66) . . TUE . . . . . CD-4.3 ...... Alexandra . . . . Popp, ...... Evgeniy . Popov, . . . Youri Popoff, u aca H1. H (p130), THU CH-10.1 (p144) . THU . . CK-P.12 ...... Tanchao . . Pu, . . Minhao Pu, Sotiris (p87), WED Psilodimitrakopoulos, CJ-3.4 ...... (p96), Demetri WED Psaltis, CM-3.3 (p62), . . TUE . . . EI-2.1 . . . Andrey . . . Pryamikov, ...... Valerio . . . Pruneri, . Maximilian (p82), Protte, WED CF-4.1 ...... (p87) . . (p39) WED . . MON . .EC-4.6 . (p89) . EH-1.4 . . . WED . Oleg . . EF-3.1 . Remo Pronin, ...... Zaccaria, . . . . . Proietti . . . . Matt . . Proctor, Radivoje Prizia, . . (p152) . FRI . . . CJ-7.5 ...... (p44), . Priya . MON . . Priya, JSII-2.3 (p38) Ivan . . MON . Pritulenko, . CJ-1.5 ...... (p46) . . . . MON . . . . EJ-1.4 . Yehiam . . . . Prior, . . . . . Jérôme . (p113), . Primot, . THU Jaroslaw EH-4.3 . . . Prilepsky, . . . . . (p120) . . . . THU . . Christine CF-7.4 . . . . Prietl, . A. . . Johann (p102) . . WED Preuß, CC-P.16 Federico . . . Pressaco, (p35), MON Semyon EF-1.1 Presnyakov, . . (p58) . . TUE . . Predojevi EA-1.3 ...... (p152) . . (p139) . FRI . Franco THU . CM-8.1 . Prati, . . PD-2.5 . . . Adarsh . . . . . Prassad, . . . . Tanumoy . . (p95), . Pramanik, . WED . Matt EB-7.1 . . Praeger, (p67) . . TUE . . CH-4.5 . . . . . Shashi . . Prabhakar, Nikos (p111), , THU (p157) Poumpouridis CE-8.1 FRI . . . CK-8.5 . . . . Bertrand . . . Poumellec, Nicolas (p136), Poulvellarie, (p121) THU THU G..CD-9.6 EB-8.3 . (p70) . Christopher TUE . . . Poulton, F.L. CJ-2.2 . . . . Andreas ...... Poulsen, . . . . Andreas . (p54) . Poulsen, . MON . Samuel EB-P.25 . . Poulain, . . . (p46), P O. MON Sergey EJ-1.3 . Potashin, ...... (p65), TUE Xavier EB-4.3 Porte, (p54) . . MON . EB-P.13 Luca . . Simone ...... Portalupi, L. . . Simone . . . Portalupi, . . Andreas Poppe, ö ∙ (p101) WED CA-7.6 SV22TU(13,JI-. H (p137) THU JSIV-2.5 (p133), THU JSIV-2.2 (p149) ∙ FRI CM-7.3 (p135), THU JSIV-2.3 (p127), THU JSIV-1.3 ∙ (p112) THU CH-8.2 (p156) (p104), FRI WED CF-P.16 CF-9.4 (p103), (p103), WED WED CF-P.3 CF-P.8 (p96), WED CF-6.2 (p132), (p152) THU FRI EC-6.2 JSI-4.5 (p110), (p117), THU THU JSI-3.1 EA-5.1 (p108), WED JSI-P.4 (p141) THU EE-P.2 (p129), THU EE-3.3 (p172) FRI EG-P.4 (p47) MON EF-2.5 ∙ (p169) FRI CM-9.5 (p161) FRI CH-12.3 ∙ ∙ (p67) TUE EB-4.4 zbre,Mru D16TU(p138) THU PD-1.6 . . . . . Markus tzlberger, H1. R (p161) FRI CH-12.3 I45FI(p151) FRI EI-4.5 (p107) WED EC-P.24 (p166) FRI CH-13.4 (p132) THU CK-6.3 (p130), THU CK-6.1 (p127), THU JSIV-1.2 ć n ...... Ana , ∙ CP1 E (p102) WED CC-P.13 ∙ ∙ ∙ ∙ ∙ BP1 O (p54) MON EB-P.14 D22TU(p138) THU PD-2.2 KP1TU(p144) THU CK-P.1 ∙ ∙ S-. E (p86), WED JSI-2.3 G11MN(p35) MON EG-1.1 B14MN(p33) MON EB-1.4 HP3FI(p168) FRI CH-P.3 anr,Fbie...... E-. U (p58), TUE EA-1.4 ...... (p76) . . . TUE . . . Fabrice CA-4.5 . . . . Raineri, . . . (p87), Abdullah . . WED . Rahnama, . CJ-3.4 . Mohsen . (p173) . Rahmani, . FRI . . JSIV-P.1 ...... Babak . . . Rahmani, . . (p40) . Anusha . MON (p50) . Rahman, . MON CD-1.5 (p95) . Amir CB-P.12 WED ...... EJ-3.1 Rahimnouri, . . . . . Varun (p99) . . . . WED . . Raghunathan, . . M. . EB-7.5 . . Amr . . . . . Ragheb, . U. . . Edik . . Rafailov, . . Milan (p174) (p113) FRI Radonjic, THU CM-P.18 . EH-4.3 ...... Jack ...... Radford, . . . . Behrad . . (p85) Radfar, . (p103) . WED WED Péter CF-P.2 Rácz, Elham.EG-2.3 . . . Esfahany, . . . Rabbany Ann-Kathrin Raab, R (p121), THU EA-5.4 (p47) . MON . . EB-2.5 ...... Viktor . . . Quiring, . Victor Quiring, (p31) Johana (p45) MON MON Leidy EB-1.2 EF-2.4 . . . O. . . Quintero-Rodríguez, . . . . Armanda . . (p58) . . . TUE . . Quintavalle, . . . CL-2.3 . Paul ...... Quinoman, . . . . . T. . . (p112) . Quiniou, THU . Romain CH-8.3 (p53), . . MON Quidant, Raul EA-P.14 . (p69) . . TUE Quesada-Cabrera, . . . . EB-5.1 . (p31) . . . . MON ...... EB-1.2 . . . . Xavier ...... (p111) Quélin, . . . . THU . . . Shizhen . . EH-4.1 . . Qu, . . . (p129) . . . . . THU . . Shuwei . . EE-3.3 . . Qiu, . . . (p50) . . . . . MON . Alex . . CB-P.7 . . Qiu, . . (p146) . . . . FRI . Yuyuan . . . . EB-9.1 Qin, ...... Junjie . . . . Qiang, ...... Wenxuan . . Qi, . Mahdi Qaryan, Q (p32), MON CK-1.4 . . . . . (p59) . . TUE . . CF-2.2 ...... Dariusz . . Pysz, . Sergey . . . Pyatchenkov, . . . . (p31) . . (p141) MON . THU Danila EB-1.2 EE-P.3 . Puzyrev, Vergheese . . . Ittoop . . Puthoor, . Dmitrii Pushkarev, (p45), P MON CH-2.2 ...... (p99), . . WED . Ioachim CA-7.4 . . Pupeza, . . (p61), . . TUE . . CF-2.5 . Justinas . . (p140) . Pupeikis, . THU . . CG-P.13 ...... Oliver . . . Puncken, . Sumiran Pujari, (p39) MON CM-1.3 ...... Pug . Daniel Puerto, ü K85FI(p157) FRI CK-8.5 ∙ (p159) FRI JSIV-4.1 (p123) THU EA-5.6 ∙ (p108) WED EH-P.9 (p79), (p164) TUE FRI CD-P.19 CJ-10.1 (p73), TUE CF-3.4 (p93) WED EF-3.5 (p156) FRI CF-9.5 (p98), (p103), WED WED CF-6.5 CF-P.2 (p91), WED (p161) CE-6.2 FRI CG-7.2 (p154), FRI CF-9.2 (p120) THU CF-7.4 (p114), (p148) THU FRI CG-5.5 CG-6.4 (p92), (p102), WED WED CF-5.4 CC-P.5 (p79), (p84), TUE WED CD-P.19 CC-4.4 (p60), TUE CC-2.4 ce,Sea ...... Stefan schel, SV23TU(p135) THU JSIV-2.3 (p133) THU CB-9.3 ž y,Adis...... C-. O (p32), MON CG-1.5 ...... Audrius lys, ∙ L+EB S3TU(p126), THU JS.3 ECBO + CL ∙ ∙ ∙ ∙ D16TU(p138) THU PD-1.6 ∙ M25WD(p92) WED CM-2.5 ∙ D44TE(p66), TUE CD-4.4 M74FI(p149) FRI CM-7.4 MP7FI(p173) FRI CM-P.7 A42TE(p70) TUE CA-4.2
Authors' Index Authors' Index ehsa,Mke ...... E-. U (p69) TUE EC-3.1 (p66) . TUE . . . EC-2.3 . . . C. . . Mikael . . . (p80), Rechtsman, . (p78) TUE Mikael TUE .CD-P.42 CD-P.7 . Rechtsman, ...... Vincent. . . Reboud, . . Elena Rebollo, el ata C13MN(p31), Israel. MON EC-1.3 Rebolledo-Salgado, . . . (p114) . . (p69) THU . . TUE . CB-6.4 . . CF-3.1 ...... Bastian . . . . Real, (p101) . W . WED . Graham . (p78) . EB-7.6 (p116) . Read, . TUE . . THU . CD-P.7 Luca . CD-7.1 . . . . . Razzari, ...... Arnault . . . . (p56), . . Raymond, TUE . . . Myriam . EA-1.2 . . . . Raybaut, . . . . . Angel . . . Raya, ...... Tridib Ray, aa,Pai ...... (p31), Pravin MON Rawat, EC-1.3 ...... (p56), Sylvain TUE Ravets, .EA-1.1 . . (p168), . FRI (p99) Arno. WED CH-13.5 . EA-4.4 . Rauschenbeutel, ...... Bernhard . . . Rauer, . Ketan Rathod, as es...... C-. H (p116) THU CB-7.1 ...... (p79) . . . TUE . Alfredo . CD-P.16 . . . Rates, . . (p31) . . . MON Jens . . . Rass, JSII-1.3 . . (p113) (p56) . Mahmoud . THU TUE . . Rasras, EA-1.2 CE-8.3 . . . . Mattias . . . . . K. Rasmussen, . . Henrik . (p113) . . THU Rasmussen, . . EH-4.4 . Jérémy (p53), . MON Raskop, Rahimi EA-P.13 . Alireza . . . (p31), Rashed, . MON . . . EB-1.2 . . . . G. . . John (p53) . . MON Rarity, . . EB-P.4 ...... John . . Rarity, . . Adam Raptakis, au,Cohle...... Clothilde Raoux, a,Hn...... (p122) . . THU . . . CB-7.4 ...... Han . (p52), . Rao, . MON . CI-P.8 Sanna . . Ranta, ...... (p85), . WED Andon EC-4.3 Rangelov, ...... (p70), . (p93) TUE Stephane WED CD-5.2 Randoux, CA-6.3 ...... (p175) . . (p122) FRI . Anupamaa . THU . .CM-P.36 Rampur, . CF-7.5 . . . Michael . . . . Rampp, . . (p65), . . Stefano. TUE . . . CE-3.3 Rampino, . . (p110) . Loic . THU . . Ramousse, CH-8.1 ...... Alicia . (p52), . MON . Ramirez, . EA-P.8 . Georg . . Ramer, . . . . (p127) . . THU . . (p155) CB-8.3 Sven . FRI . Ramelow, . CK-8.2 . Abderrahim . . . Ramdane, Petronela . . (p128) . Alicia . THU . Rambu, . CE-10.6 . Markus . . Rambach, . Rajesh Ramanathan, aojc eeaV . (p32), . . MON . . CB-1.4 . V. . . Jelena . . . Rakonjac, . . (p147) . . . FRI . . (p155) . . . EG-7.1 . FRI . . . . Patrik . CK-8.3 ...... Rajala, ...... Shima . . . . . Rajabali, . Sajid . . . Arslan . . Raja, . . Arslan Raja, D93TU(p132) THU CD-9.3 C24TE(6) K86FI(p159), FRI CK-8.6 ∙ (p66), TUE EC-2.4 (p58) TUE EA-1.4 C24TE(6) K86FI(p159), (p164) FRI FRI CK-8.6 CK-9.6 (p66), TUE EC-2.4 (p58) TUE EA-1.3 (p172) FRI EG-P.1 ∙ BP1MN(5) S-. E (p108) WED JSI-P.5 (p53), MON EB-P.1 (p97) WED EB-7.3 (p85), WED EG-2.4 DP2 U (p79) TUE CD-P.29 (p106) WED EC-P.5 (p97), WED (p164) EF-4.2 FRI CJ-10.1 (p70), TUE CD-5.3 (p69) TUE CF-3.1 (p154) FRI CH-11.2 (p67), TUE CE-3.4 (p75) TUE EB-5.4 B74TU(p122) THU CB-7.4 K96FI(p164) FRI CK-9.6 H53TE(p73) TUE CH-5.3 ∙ EP1 E (p104) WED CE-P.10 ∙ ∙ ∙ ∙ S-. O (p52), MON JSV-P.1 D95TU(p134) THU CD-9.5 ∙ L34TU(p135) THU CL-3.4 B22MN(p45), MON EB-2.2 ∙ G31WD(p88) WED EG-3.1 ∙ D35TE(p61) TUE CD-3.5 B91FI(p146) FRI EB-9.1 ete,Mre F24TE(p61) TUE CF-2.4 ...... (p86), . . WED . . CF-4.5 . . (p132) . Marcel . THU . (p159) . Reutzel, . CJ-6.2 FRI . . . . EH-5.6 . . (p69) . . . . . TUE ...... CB-2.6 Simon ...... Reuter, ...... Aaron . . . . . (p50) . Reupert, . . . MON . . Jarno . .CB-P.11 . . Reuna, . . . . . Peter . . Ressel, . Patrick. Resneau, eioi tfna...... Stefania Residori, (p46) MON (p165) Pablo . ED-2.5 FRI . . . . (p72) . . .CF-10.1 Resendiz-Vasquez, . . TUE . . . . Benjamin CJ-2.4 ...... Reschovsky, ...... (p117) . Bojan . . THU . . . Resan, . . . EC-5.1 . . . . Jascha. . . . . Repp, . . . . . Paul . . Repgen, . Cecile Repellin, Rep Reisl evre,Gle . . . . . (p122) . . THU . . CB-7.3 (p65), Gilles . . TUE . Renversez, . CB-2.2 (p169) . Stephanie . FRI . . CI-5.5 . Rennesson, ...... (p50) . . . . (p60) MON . Daniel . TUE CB-P.11 . . . Renner, EB-3.5 . . . . . Sander ...... Reniers, . . . . Philippe . . Renevey, . . Jelmer Renema, . (p55) . . (p92) MON . . WED EJ-P.2 Carolina . . . . CJ-4.4 ...... Rendón-Barraza, ...... (p166) Paul . . . FRI . . Renault, . . . . .CH-13.3 Nicolas ...... Renaud, . . . . (p57), . Zhenqi . TUE . Ren, . . .CI-1.2 . Yu-Xuan. . . Ren, . . (p31), . . MON . . . .JSV-1.2 . . Yongxiong. (p139) . . Ren, THU . . . PD-2.9 ...... Haoran. . . Ren, . Gerhard Rempe, (p157) FRI Reisl CK-8.5 . . . . (p56) . . . . TUE . . . . EE-1.2 ...... Andreas . . . . (p162) . . Reiserer, . . FRI . . Luis CK-9.4 . . . . Reis, (p165) . . Ori FRI . (p124) . . CF-10.1 THU Reinhardt, . . . . EG-6.2 Carsten ...... Reinhardt, . . . Johannes . . . Reimann, Marc Escalé, Reig (p42), . . MON Telford (p46) ED-2.2 MON . Derryck . . ED-2.4 Reid, ...... T. . . . Derryck (p165) . . FRI Reid, . (p170) CC-8.6 FRI Derryck . . . .CH-P.23 Reid, . Michael . . . . Reichenspurner, . Kimberly Reichel, Ř eoa eki...... E-. R (p159) FRI EH-5.6 ...... (p131) . Francoise (p127) . THU . THU . Remacle, . .EE-4.1 JSIV-1.2 . . Heikki . . . . Rekola, . . Stephan . . . Reitzenstein, E.. Doris Reiter, ...... Laura Rego, eyk lxy...... C-. O (p51) MON CI-P.6 . . . . (p79) . . . TUE . . . (p120) . . Ke¸stutis .CD-P.23 . THU . . . . Regelskis, . . CF-7.4 . . . . Alexey . . . . Redyuk, . A.. . . Alexey . . . Reduk, . Harald Redlin, ed,Inm...... Innem Reddy, ehá A65WD(p95) WED CA-6.5 CP1 E (p102) WED CC-P.12 ∙ BP1 O (p54) MON EB-P.15 B25TE(p67) TUE CB-2.5 (p137) THU JSIV-2.5 ∙ (p143) THU CJ-P.6 (p164) FRI CK-10.1 (p37) MON JSIII-1.2 ∙ (p128) THU CH-9.5 (p111) THU EE-2.2 ∙ E1. H (p124) THU CE-10.2 H1. H (p130), THU CH-10.1 (p159) FRI CH-12.1 L53FI(p160) FRI CL-5.3 ä ö ö ,Tai...... Taavi n, č k aolv...... E-.4MN(p54) MON EB-P.24 ...... Jaroslav ek, nr a G12MN(p30) MON CG-1.2 ...... Jan hner, nr d G15MN(p32) MON CG-1.5 ...... Udo hner, ∙ ∙ ∙ ∙ ∙ SI-. O (p35), MON JSIII-1.1 (p39), MON JSIII-1.3 FP1 E (p104) WED CF-P.17 ∙ ∙ ∙ D91TU(p130), THU CD-9.1 ∙ K65TU(p134), THU CK-6.5 ∙ AP1 O (p52) MON EA-P.10 MP1 R (p174) FRI CM-P.14 D1. R (p158) FRI CD-11.1 SV55FI(p169) FRI JSIV-5.5 ∙ B24MN(p47), MON EB-2.4 JP7MN(p55), MON EJ-P.7 id aul...... E-. U (p58) TUE EA-1.3 ...... (p161) . . . . FRI . Martin . . CH-12.2 . . Ringbauer, ...... Samuel . . (p44) . . (p31) Rind, . . MON . MON . Shuichiro . JSV-2.2 JSV-1.3 . . . Rikimi, ...... Adam . . . . . Riha, . . . Giancarlo . . . Righini, . Pascal Rietz, . (p66) (p79) TUE Johann TUE CD-4.3 CD-P.17 . Riemensberger, . . Janine . . . (p53) . . . MON . . Riedrich-Moeller, . . EB-P.2 . . Annina ...... Riedhauser, . . . . Robert . (p47), . Riedel, (p99) . MON . WED Werner .EB-2.5 EI-3.5 . . Ridder, ...... Raimund. . (p104), . . Ricken, WED . . CF-P.19 Peter . . Richter, (p124) . . (p173) THU . . FRI . EG-6.2 . CM-P.5 ...... Maria . . . . Richter, (p141) . Ulrich . THU . Felix . EE-P.9 . . . Richter, . . . Daniel . (p138) . Richter, THU . (p46) PD-2.3 Alexander . MON A. Richter, JSV-2.4 Kathleen . . . . Richardson, Kathleen (p57), Richardson, TUE CI-1.1 ...... J. (p159), FRI David CH-12.1 Richardson, . (p82), . . WED . . (p99) CC-4.1 . WED . David . . EF-4.5 . . . . Richardson, ...... Elisa . . Riccardi, . . (p32) Sergio MON Ricca, CE-1.3 José . (p70) . Andrade, . TUE . de . CG-4.3 . . Cardoso . . . . Ricardo . . . Francesco ...... Riboli, . . . . Sergey ...... Riabchuk, . Ali . . Seyed . . . Rezvani, . Mohsen Rezaei, M. Hector Cruz, la de (p122) Reynoso THU . . Fran CB-7.3 . . . . . Reynaud, . . Laura . . . Rey-Barroso, . Francois Reveret, ís als ...... (p94), . . WED . . CB-5.1 . Carlos. . (p54) . Ríos, MON . . EB-P.15 ...... Marta . . Calvo, . . Rio . Stephan Rinner, oc,Dvd D14MN(p38), MON CD-1.4 ...... (p128) . Davide (p106) . THU . Rocco, WED W. (p162) CH-9.6 FRI EC-P.11 Charles . . . . CJ-9.5 . . Robson, . Inigo . . . . . Magro, . . (p120) . . Robredo . K. THU . . Ian . CB-7.2 . . . Robinson, . . . . Thierry . . . Robin, (p45), Joshua MON Robertson, EB-2.3 . (p138) . . THU . (p50) . PD-2.3 MON . (p74) . Elizabeth CB-P.11 TUE . . . . Robertson, CG-4.5 . . . . . Christopher . . . (p97) . . (p153) Roberts, . WED . . . FRI . EA-4.2 Yannick . . . EF-8.6 . . . Robert, ...... Michael . M. . Robb, . R. . . . (p44) Gordon . . . . MON Robb, . . . . CC-1.3 . . . Gordon . . . . Robb, . . . . Georgy . . Rizaev, Felix Ritzkowsky, (p80), TUE CD-P.33 . Monika . . . Ritsch-Marte, ...... Detlev Ristau, B32WD(8) F83FI(p149), (p155) FRI FRI EF-8.3 CK-8.3 (p82), WED CB-3.2 (p123) THU EA-5.6 (p121), THU EA-5.4 ∙ (p101), (p129) WED THU EF-4.6 CJ-5.5 (p92), WED CJ-4.4 (p161) FRI CH-12.2 (p147) FRI EG-7.2 (p134) THU CD-9.5 (p136) THU CK-6.6 B55WD(p100) WED CB-5.5 ∙ ∙ (p126) THU JS.2 ECBO + CL (p123) THU CE-9.5 G53TU(p112) THU CG-5.3 D1. R (p162) FRI CD-11.3 (p173) FRI JSIV-P.4 (p173), FRI JSIV-P.2 uhr'Index Authors' ç i DP1 U (p79) TUE CD-P.15 ...... ois 192 ∙ ∙ ∙ ∙ ∙ ∙ ∙ BP1 O (p54) MON EB-P.16 D23TU(p138) THU PD-2.3 D1. R (p168) FRI CD-12.3 D23MN(p44), MON ED-2.3 HP2 R (p170) FRI CH-P.20 EP3TU(p141) THU EE-P.3 ∙ AP6MN(p48) MON CA-P.6 ∙ ∙ J35WD(p87) WED CJ-3.5 B94FI(p148) FRI EB-9.4 J91FI(p158) FRI CJ-9.1 oh,Ay...... Amy Roche, R (p45), MON CD-2.3 ...... Martin Rochette, óea,Arn...... (p56), . . R TUE . Airán CK-3.1 . Ródenas, ...... Carsten Rockstuhl, oer,Buo...... (p116), . . THU Bruno CI-3.1 . Romeira, ...... Marco (p99) Romanelli, WED (p170) EI-3.4 . FRI . . Victor CH-P.20 ...... Roman-Rodriguez, . . . . (p62) . . Marco . . TUE . . . . CA-3.1 Romagnoli, . . . . . (p89) Mónica . . . . WED . . Roldán, . . CE-6.1 . (p44) . . Mikhail . . MON . . . Roiz, . . CC-1.3 . . (p45) . Richard . . MON . . . Roides, . . CH-2.3 . . . . Yael ...... Roichman, . (p105) . . . WED . Timm . JSII-P.1 . Rohwer, ...... Erich . . Rohwer, J. Egmont (p133) . Rohwer, . THU (p122) . . THU . .JSIV-2.2 . . CB-7.4 . . . . David (p54) . . . . MON . . Rohrbach, . . EB-P.16 . . . (p111) Edward. . . THU . . . . Rogers, . . EG-5.1 . . . Aaron . . . . . Rogers, . . . Robert . . Roelver, . (p113), THU Philippe (p165) CK-4.3 Roelli, FRI . . CF-10.1 ...... Gunther . . (p52), . Roelkens, . MON Carmen EA-P.10 . . Roelcke, ...... Ganael Roeland, Valeria Rodríguez-Fajardo, Alvaro Echarri, Rodriguez Kalaleh (p43), Rahimzadeh MON Said EF-2.1 . Rodriguez, ...... R.K. . . Said . . . Rodriguez, . Laura (p94), Rodríguez, WED CB-5.1 . Jean-Baptiste (p86), WED Rodriguez, JSI-2.3 ...... (p69), . Anne . TUE . . Rodriguez, CH-5.1 . . (p166) Alvaro . . FRI . . Rodríguez, . CD-12.2 ...... Peter . . . Rodrigo, . Aleksej Rodin, oes lu DP1TE(p78), TUE CD-P.1 ...... (p32), . . MON Claus CG-1.5 . Ropers, . . . . (p64) . . . . TUE . . . . ED-3.2 . Carsten . . . . . Ronning, . . . . Vincent . . . Roncin, (p75), TUE Daniele (p156) CH-5.4 . FRI Ronchetti, . . CL-4.5 ...... N. . . (p126) (p102) Maria . THU . WED . Romodina, . CH-9.4 CC-P.11 . . . . Maria . . . (p146) . Romodina, FRI . Jordi . . EB-9.1 Robert, . . . . Romeu . . . . . Rosa . . Romero, . Jacquiline Romero, ö ö E1. H p2) J65TU(p134), (p158) THU FRI CJ-6.5 CJ-9.1 (p74), (p124), TUE THU CJ-2.5 CE-10.1 (p47), MON CD-2.5 ∙ ∙ L43FI(p154) FRI CL-4.3 ∙ (p46) MON JSII-2.4 (p157) FRI CK-8.5 (p80), TUE CD-P.37 ∙ ∙ (p87) WED EG-2.6 (p170) FRI CH-P.17 (p135), THU EA-6.4 (p114) THU CB-6.4 (p100), WED CB-5.5 (p132), THU EC-6.2 ∙ (p170) FRI CH-P.11 (p114) THU CG-5.5 G55TU(p114) THU CG-5.5 ∙ (p109) WED JSI-P.6 (p102), WED CC-P.8 kr hitp F44WD(p84), WED CF-4.4 ...... Christoph cker, e,Rbr G15MN(p32), MON CG-1.5 ...... Robert der, H21TE(5) SV55FI(p169) FRI JSIV-5.5 (p57), TUE EH-2.1 (p110) THU CA-8.2 (p91), WED CA-6.2 BP2 O p4,C-.7TE(p80) TUE CD-P.37 (p54), MON EB-P.20 (p135) THU JSIV-2.4 (p59), TUE EH-2.2 (p110), THU JSI-3.1 (p108), WED JSI-P.4 M51TU(p124) THU CM-5.1 ∙ ∙ ∙ GP5FI(p172) FRI EG-P.5 B95FI(p150) FRI EB-9.5 S-. R (p152) FRI JSI-4.5 ∙ ∙ ∙ SI22MN(p44), MON JSII-2.2 ∙ K25MN(p40), MON CK-2.5 ∙ D1. R (p154) FRI CD-10.2 ∙ I36WD(p101) WED EI-3.6 ∙ M91FI(p165) FRI CM-9.1 ∙ F23MN(p45) MON EF-2.3 GP2FI(p172) FRI EG-P.2 DP5TE(p81) TUE ED-P.5 oefl,Lwec BP1MN(p53) MON M. EB-P.1 (p149) . (p54) . FRI Lawrence . MON . EI-4.4 . EB-P.19 . Rosenfeld, . . . . . Lawrence ...... Rosenfeld, (p140) . . THU (p104) Michael . . CG-P.8 WED . . Rosenbluh, . . .CE-P.2 . . . Roberto ...... Rosati, . . . . Nikolay . (p86) . Rosanov, . WED JSI-2.4 Lorenzo . . Rosa, Charles Roques-Carmes, uce,Jn...... C-. H (p116) THU CB-7.1 . . . . (p58) . . TUE . . CL-2.3 ...... (p72) . . (p139) Jan TUE . THU . . Ruschel, . CG-4.4 . CG-P.5 ...... Verena ...... Ruprecht, ...... Patrick ...... Rupprecht, ...... Philipp . . . Rupp, . (p170) . . . FRI . . . . P. CH-P.20 . J. . Rupp, . F. . . Antoine . . Runge, . Anna Ruiz-Llobet, (p32) MON CE-1.3 . Carlota . . (p138) . Galarreta, (p80) . THU . de TUE . PD-2.2 Ruiz .CD-P.33 . . . Ulrich ...... Ruehrmair, . . . . Wolfgang. . . Rudolph, . . (p72) Eduard TUE . . Rudi, . . CG-4.4 . . . Alexander . . . . . Rudenkov, . . (p74) . . . . TUE ...... CG-4.5 ...... Angel. . . . (p74) . Rubio, . . . TUE . (p134) . . A. . THU CG-4.5 . Rubio, . . CD-9.4 . . . . Marco . . . . (p99), . . Ruberti, . WED . . Jan-Erik . EB-7.5 . . . Rubensson, . A. . . Lee . (p30) . Rozema, . MON . . CK-1.2 ...... Lee . Rozema, J. Brian (p39), MON Roxworthy, EF-1.3 . . . (p82) . . WED . . . . . CF-4.2 . . . (p69) . . . . TUE Maxwell . . . . Rowley, . CF-3.1 R. . . (p159) . . . . William FRI . . . . Rowe, . . JSIV-4.1 . . . . Sheila . . . . . Rowan, . . . . (p36), . Andrea MON . . Rovere, . .CJ-1.3 . Davide . (p53) . . MON Rovelli, . EA-P.14 . . . . . (p170) . . . . FRI . . CH-P.18 Bastien. . . . (p79) . Rouzé, . . TUE . . CD-P.22 Sébastien . . . . Roux, . . . Roman . . . Rousseau, (p97), . WED Karsten .EJ-3.3 Rottwitt, ...... (p33) . MON . . . JSI-1.5 (p111) . . Stefan THU . . Rotter, U. .CE-8.1 . Mathias . . . Rothmann, (p36), Manfred. MON Rothhardt, CJ-1.2 . . . (p85), . . WED . . CD-6.4 ...... Jan . . . Rothhardt, . . . (p65), . . TUE . . CH-4.3 . . . Paul . . Roth, . (p36) . . MON . . . .CH-1.3 . . . Bernhard . . (p82), Roth, . (p68) WED TUE Fabian. CC-4.1 CA-4.1 . Rotermund, (p113) . . . . THU . . . . . EG-5.3 ...... Michael ...... Rosticher, . (p139) (p135) . . THU THU Saeid . . . PD-2.8 EE-4.3 Rostami, ...... Edina (p135) . . . . THU Rosta, . . EE-4.3 . Massimiliano . . . . (p44) . Rossi, . . MON . . Filippo . . .CC-1.2 . . Rossi, . . Arianna . . Rossetti, G. Hartmut Roskos, G71FI(17,E-. R (p151) FRI EG-7.5 (p123), (p147), THU FRI CK-5.2 EG-7.1 (p96), WED EG-4.2 ∙ ∙ (p110) THU CG-5.1 (p119) THU EA-5.2 (p140) THU EE-P.1 ∙ ∙ (p172) FRI EG-P.1 (p157), (p168), FRI FRI CC-7.5 CH-13.5 (p119), THU CE-9.2 (p165) FRI CG-7.6 (p139), (p161), THU FRI CG-P.3 CG-7.3 (p59), TUE CF-2.2 (p126), THU CF-8.4 (p162) FRI CK-9.4 (p95), WED CE-6.6 (p147) FRI EG-7.2 (p108) WED JSI-P.5 (p61), TUE CD-3.6 HP6WD(17,E-. R (p157), (p160) FRI FRI EH-5.4 CK-9.3 (p107), WED EH-P.6 (p98), WED CH-7.3 (p43), MON CD-2.2 (p38) MON CJ-1.5 ∙ J1. R (p166) FRI CJ-10.2 ∙ ∙ AP1 O (p53), MON EA-P.13 ∙ AP1 O (p49) MON CA-P.13 ∙ KP8TU(p144) THU CK-P.8 ∙ G31TE(p62), TUE CG-3.1 ∙ G63FI(p148) FRI CG-6.3 F81FI(p147) FRI EF-8.1 aoih no AP9MN(p52) MON EA-P.9 . . . . . (p144) . . THU . (p30) . CK-P.10 . MON . Anton . . .CB-1.2 . . Sakovich, . . . Tatiana . . . Sakharova, . Aurimas. Sakanas, aaoo oisg I42FI(p156) . . FRI . . CI-4.2 . (p119) . . . THU . Takashi . EB-8.2 . . Sakamoto, . . . Moritsugu . . . Sakamoto, . Atsushi Sakaguchi, aav gr...... (p103) . . WED . CF-P.7 ...... (p45) . . . MON ...... JSIII-2.3 Igor ...... Sakaev, . . . . . Ryota . (p45), . Saito, . MON . (p101) Nariyuki JSIII-2.2 WED . Saito, . (p57) . EF-4.6 . . TUE . . . . CI-1.1 . . . . (p129) . . . . THU . . Kenichiro . . . CJ-5.5 . Saita, ...... Jayantha . . . . . Sahu, . . K. . . Jayanta . . Sahu, . . Jayanta Sahu, am lxne BP3MN(p50) (p87) MON WED CB-P.3 CD-6.6 ...... Kumar . . . . Hitesh . . . . . Sahoo, . . (p143) . . THU Alexander . . Sahm, .CJ-P.19 . (p51), . . . MON Ezgi . . .CI-P.1 . Sahin, . . . Dmitrijs. . . . Saharovs, ...... Sreenil. Saha, (p31), MON (p164) EC-1.3 FRI (p37) . . MON CK-9.6 . . . EF-1.2 ...... (p166) . . . . FRI Isabelle . . . . . CH-13.2 . Sagnes, . . . . . (p75) . Isabel . . . TUE . . Sagnes, . . . CH-5.4 . . . I. . . (p71), . . . Sagnes, TUE . . . . CF-3.2 . Peter (p148) . . . . FRI Saggau, . R. . . CG-6.4 Kirill . . . . . Safronov, ...... (p163) Reza . FRI . Safaei, . . JSIV-4.3 . Resa . . Safaei, . Vladimir . . . Saetchnikov, . Anton Saetchnikov, arn,Géor . . (p31) . . . . MON . . . . . ED-1.3 . . . Grégoire ...... Saerens, . (p135) . Zarina . THU . . Sadrieva, EE-4.3 . (p168) . . Ibrahim FRI . . . . CH-P.2 . Sadiek, . . . . Alessandro ...... Sacchetti, . . . . Shahryar . . . Sabouri, . Cumali (p148) Sabah, FRI JSI-4.2 . . . . S . (p75), . . TUE . . CE-4.4 ...... (p142) . . . THU Meguya . . EF-P.16 Ryu, ...... Daniel (p62), . . Rytz, TUE ED-3.1 Ilya . . Ryabcev, ...... (p56) . (p128), Lucile TUE THU CL-2.1 Rutkowski, CH-9.5 . . . (p54) . . . MON ...... EB-P.22 . . Marius ...... Rutkauskas, (p54) . . . . MON . Aman . .EB-P.22 . . Russom, . . . . . Peter. . . Russer, . Johannes. Russer, (p30), MON CF-1.4 . . . . . (p119), . . THU St.J. EA-5.3 . Philip . (p78) . . TUE Russell, . CD-P.5 ...... (p33) . . . . MON . Philip . . JSII-1.4 . . Russell, ...... Vladimir . . Rusov, . Grigory Rusetsky, ∙ SI-. O (p45) MON JSIII-2.3 IP4MN(5) I44FI(p158) FRI CI-4.4 (p51), MON CI-P.4 (p157), (p159) FRI FRI CK-8.5 (p117), CK-8.6 (p152), THU FRI EA-5.1 JSI-4.5 (p66), (p110), TUE THU EC-2.4 JSI-3.1 (p50), (p51), MON MON CB-P.4 CB-P.14 (p41), MON EF-1.5 (p132) THU CD-9.2 (p127) THU CD-8.3 A72WD(p97) WED CA-7.2 (p80) TUE ED-P.1 (p64), TUE ED-3.2 (p130) THU CD-9.1 (p166) FRI CJ-10.2 (p124), (p155), THU FRI CM-5.1 CJ-8.2 (p88), (p126), WED THU CF-5.1 CF-8.4 (p76), (p85), TUE WED CD-5.6 CD-6.4 (p32), MON CF-1.5 (p166) FRI CJ-10.3 MP2 R (p174) FRI CM-P.20 ∙ ∙ KP1 H (p144) THU CK-P.12 ∙ ∙ ∙ S-. O (p33), MON JSV-1.5 SV43FI(p163) FRI JSIV-4.3 ∙ F73TU(p118) THU CF-7.3 MP9FI(p174), FRI CM-P.9 S-. E (p86) WED JSI-2.4 ∙ I15TE(p61) TUE CI-1.5 ao hnueA G51TU(p110) (p74) THU TUE CG-5.1 . CG-4.5 . . (p114) . . . . THU ...... CA-8.5 . . A...... Shunsuke (p140) . . . . Sato, THU . . . . CG-P.9 . Conny . . . (p85) . . Sathe, . . WED . . (p31) Shun . . .CI-2.2 MON . . Sasaki, . . . JSI-1.3 . . Krisztina . . (p140) . . . Sarosi, . THU . . Samael. CG-P.14 . . . . . Sarmiento, . . . . . Subhajit . . (p53), . Sarkar, . MON EB-P.7 Dhruva . . Sarkar, ...... (p70), Sina TUE Saravi, CG-4.3 . . . . Krishna (p36), MON Saraswathula, CA-2.2 . . . . . (p69), . TUE . . J. CC-3.1 . Clara . . . Saraceno, ...... (p37), . (p83) MON Clara WED Saraceno, .EH-1.2 . CJ-3.1 . . . . (p169) . . . . FRI . . CM-9.5 Riccardo. . (p33) . . . . MON Sapienza, . . . . . JSII-1.4 Maria . . (p94) . . . WED . Sapantan, . . . CH-7.1 . . Benjamin . . . . Sapaly, ...... Usman . . . . . Sapaev, . . . Maria . . . Sanz-Paz, . . Jake Sanwell, ats li ...... (p125) . . THU A. CD-8.1 Elkin . . Santos, . Tomás (p66), Santiago-Cruz, TUE CA-3.4 ...... (p53), Giorgio MON Santarelli, .EB-P.2 . . . . . Matteo. Santandrea, asn,Guep ...... Giuseppe Sansone, anr ioa . (p89) . . WED . . EA-3.1 ...... (p113), . Nicolas . THU . Sanner, .EH-4.3 Nicolas . . . (p146) Sangouard, . FRI . . . EB-9.2 ...... (p54) Péter. . MON . (p74) L. Sándor, EB-P.24 . TUE Luis . . CG-4.5 . . . Sanchez-Soto, . Alvaro . . . Sanchez-Gonzales, L. . Luis (p103) . . WED Sánchez, Alberto CF-P.4 . Luis . . . Sánchez, . . Fran . . . Sanchez, Daniel (p39), Sanchez, MON (p31) MON JSIII-1.3 . . .EB-1.2 ...... Julio . . Román, (p54), . . San MON . .EB-P.26 Željko. . . Samec, . . (p103) . . WED . . .CF-P.14 (p82) . . WED . G.K.. . . .CF-4.2 . Samanta, . . Arturas. . . . Samalius, Francesco. Saltarelli, aml,Lui...... Lauri Salmela, amn,Mha...... C-. O (p51), MON CI-P.1 . . . . . (p152) . . (p122) FRI . . THU . CG-6.6 . . CI-3.6 . Mahsa (p142) . . . . THU . Salmani, . Sarper (p146) EF-P.8 . . . FRI Haydar . . . . CG-6.2 . . Salman, ...... Fabienne . . . . . Saliou, . . . Mohamed . . Salhi, . (p30) Roushdey MON Salh, CB-1.3 . . Javier (p45) . . (p93) MON . Francisco WED . . EI-1.3 . . CE-6.4 . . . . Salgado-Remacha, ...... Marco ...... Saldutti, . . . . Yannick . . . Salamin, (p114), THU Federico CM-4.4 Sala, ...... Haruyuki Sakurai, G46WD(p100) (p78), WED TUE CD-P.13 EG-4.6 (p78), TUE CD-P.8 (p139) THU CG-P.5 (p73), (p77) TUE TUE CC-3.4 CC-3.6 (p38), MON CA-2.4 (p118) THU CF-7.2 (p64) TUE EI-2.2 DP2 U p9,C-. E (p101), (p142) WED THU CA-7.6 CJ-P.2 (p79), TUE CD-P.24 (p146) FRI EA-7.1 (p123), THU EA-5.6 MP2 R (p174) FRI CM-P.21 F1. R p6) GP4FI(p172) FRI EG-P.4 (p167), FRI CF-10.2 (p141) THU EE-P.5 (p111), (p122), THU THU EE-2.2 CF-7.6 (p114), THU CG-5.4 (p118) THU CD-7.3 (p55), MON EB-P.27 (p88) WED CJ-4.1 ∙ (p141) THU EE-P.11 (p154), FRI CM-8.3 IP4MN(p51), MON CI-P.4 ç i FP8TU(p142) THU EF-P.8 ...... ois ∙ ∙ MP2 R (p175) FRI CM-P.29 I44FI(p158) FRI CI-4.4 ∙ ∙ ∙ AP1 O (p50) MON CA-P.19 ∙ M35WD(p98), WED CM-3.5 H1. R (p163) FRI CH-12.5 ∙ ∙ G21MN(p35) MON CG-2.1 J12MN(p44), MON EJ-1.2 BP7MN(p53) MON EB-P.7 ciao nra...... (p92), . . WED . . CB-4.4 Andrea . . (p116) . Schirato, . THU . . (p29) CB-7.1 . . . MON . . . . . (p28) ED-1.1 . Stephane . . MON . . . . Schilt, CE-1.1 . . . . Marcel ...... Schilling, . . . Stephan . . . Schiller, . (p107), Lukas WED EC-P.23 Schertel, . . . (p56), . . TUE . (p59) EA-1.1 . Markus TUE . . Scherrer, . EJ-2.3 ...... Max . . . Schemmer, (p49), Christian (p31) MON MON CA-P.14 Schelte, . EB-1.2 ...... Martin . . . . Schellhorn, . (p34), Thomas MON (p58) Scheidl, CH-1.1 TUE . (p43) . . EB-3.3 MON . . . . CD-2.1 . . Philipp ...... Scheidegger, . . . Ramona . (p53) . (p93) . (p39) MON Scheibinger, . WED MON . EB-P.3 CA-6.3 Stefan . . CG-2.3 . . . . Scheel, ...... Maximilian ...... Schattauer, . . . Michael . . . Scharun, . . L. Scharper, (p45) MON JSIII-2.2 . . . . . Marie-Claire . . . . Schanne-Klein, . . Oliver Schalk, cmlz agu . . . . . Margaux Schmeltz, (p55), MON Schl EJ-P.2 . . . . . (p165) FRI Matthias (p120) . . CF-10.1 THU . Schlottbom, Peter . CF-7.4 . . Wolfgang ...... Schleich, . . . Stefan . . . Schlauderer, . . Nora Schirmel, . (p65) . TUE . Sch . . EB-4.3 ...... (p43) . . . MON . Daniel . . CD-2.1 Schade, . . . (p124) . . Richard THU . . Schaber, . CH-9.1 Kay . . . . (p161), Schaarschmidt, FRI Adriana (p172) CC-8.3 FRI Scarangella, . . .EG-P.2 ...... Gaetano . . . Scamarcio, Michael. Scalora, (p81), TUE ED-P.3 . (p117) . . THU . . EF-6.1 . . . . . (p44) . . . MON . . . Giacomo JSV-2.2 . . . . . Scalari, . . . . (p159) Pier-John . . FRI Sazio, . . . . CK-8.6 . (p117) Osman . . . THU . Sayginer, . D.J. . CE-9.1 . Benjamin ...... Sayers, . . . Krzysztof . . Sawicki, . . Vassili Savinov, . . . . . (p164) . . . FRI . . . . CJ-9.6 ...... Akira . . . . Satou, ...... Yoichi . . Sato, . . Tsuyoshi Sato, cmd,Buo...... C-. U (p65), TUE CE-3.3 . . (p54) . MON . . . .EB-P.16 . (p113) . . . . THU . . . . . CK-4.2 . . Bruno ...... Schmidt, . . (p165) . Marc. . FRI . . CF-10.1 Schmid, . . . . Heinz . . . P. Schmid, Christoph Schmid, . . (p58) . . (p153) TUE . . FRI EA-1.4 . . . . CK-8.1 . Cem . . . . . Firat . . . . Savas, . . . . Christophe . . Sauvan, . . Hamed Sattari, H1. H p3) F91FI(p152) FRI CF-9.1 (p132), THU CH-10.2 ∙ (p58) TUE EA-1.3 (p114) THU CA-8.6 (p170) FRI CH-P.9 (p135), (p135) THU THU CL-3.3 CL-3.4 (p79), TUE CD-P.20 JP3MN(5) K75FI(p151) FRI CK-7.5 (p55), MON EJ-P.3 ∙ (p155) FRI CJ-8.2 (p32), MON CF-1.5 (p165) FRI CC-8.6 (p159), (p163) FRI FRI CC-8.1 (p157), CC-8.5 (p159), FRI FRI CC-7.4 CC-7.6 (p102), (p155), WED FRI CC-P.3 CC-7.2 (p88), (p101), WED WED EG-3.1 EA-4.5 (p90), WED CB-4.2 F32TE(7) G64FI(p148) FRI CG-6.4 (p71), TUE CF-3.2 (p135) THU CL-3.4 (p148) FRI CC-6.2 K73FI(p149) FRI CK-7.3 E43TU(p135) THU EE-4.3 ä ü e,Ssh G75FI(p151) FRI EG-7.5 ...... Sascha fer, kr eata GP3FI(p172) FRI EG-P.3 ...... Sebastian cker, uhr'Index Authors' 193 ∙ ∙ ∙ ∙ ∙ ∙ L33TU(p135), THU CL-3.3 A96TU(p122) THU CA-9.6 H14MN(p39), MON EH-1.4 I35TU(p122), THU CI-3.5 SV35FI(p157) FRI JSIV-3.5 F14MN(p30), MON CF-1.4 ∙ D36TE(p61) TUE CD-3.6 ∙ P11TE(p62) TUE SP-1.1 crn,Wre HP2 R (p170) FRI CH-P.22 ...... Schr (p40), (p39) . . MON MON Werner CJ-1.6 CG-2.3 . . Schrenk, ...... (p96) . . . . WED . . . . EG-4.2 . Thomas ...... Schreiber, . . . . S. . . . Schreiber, . Jonah Schrauder, Sch (p160) FRI CL-5.2 . Sch . . . . . Sch ...... Sch . (p144) . . THU Jules . . CK-P.7 Scholler, C.. . . Ross . . . (p88), Schofield, . WED Thomas CB-4.1 . Schneider, ...... Harald Schneider, (p35), MON EG-1.1 ...... Christian . . . (p61) Schneider, . (p56), TUE Barbara TUE CF-2.4 EA-1.1 Schneider, ...... Philipp ...... Schneeweiss, . . . . David . . (p138), . Schmitt, . THU Rebecca .PD-2.2 . Schmieg, ...... Robert. Schmidt, (p31), MON (p78) TUE JSV-1.2 (p158) . CD-P.8 . . FRI . . . . . CF-9.6 . A. . . . . (p76) . . Markus . . TUE . . Schmidt, . CG-4.6 . . . Markus ...... Schmidt, . . . . Mark ...... Schmidt, . . . . Cédric . . Schmidt, E. Bruno Schmidt, Schr ca,Cro...... C-. U (p63), TUE CE-3.1 ...... (p50), . . MON Carlo (p51) .CB-P.5 . Scian, MON . . CB-P.20 ...... Marc. . . . (p156) Sciamanna, . . FRI Janek CF-9.5 . Schwind, . Wolfgang Schweinberger, (p47), MON EF-2.5 ...... Benedikt (p73) (p110), Schwarz, TUE THU EB-5.3 CH-8.1 ...... Andreas . . . Schwaighofer, . . . . . Sch . (p31), . MON Josef ED-1.2 Schupp, . (p80) . . TUE . . CD-P.41 . . . Peter . . . . Schunemann, . (p156) Thorsten FRI Schumm, (p98) CM-8.5 WED . . EG-4.4 ...... (p120) . . Sch . THU . . Wolfgang (p79) . .CF-7.4 . . TUE . Schulz, . . . CD-P.17 . . Ulrike . . . . . Schulz, . . . Sebastian...... Schulz, . . . (p85) . Michael . WED . . Schulz, . . . EG-2.3 . . . Julian . . . . . Schulz, S.. . . (p45) . Andreas . MON . Schulz, . EI-1.2 . . . . . Gregor (p44) . . . . MON . Schulte, . . . JSII-2.2 Benedikt . . . . . Schuhbauer, . . . James . P. . . Schuck, B. Carl Schroeder, J64TU(14,C-. R (p157) FRI CJ-8.3 (p134), THU CJ-6.4 (p161) FRI CC-8.2 (p157), FRI CC-7.5 (p99) WED EI-3.5 (p137), (p147) THU FRI EA-6.5 EI-4.1 (p93), (p130), WED THU EF-3.4 EC-6.1 (p66), TUE EI-2.5 (p58) TUE EA-1.3 (p161) ∙ FRI CH-12.3 (p136), (p134), THU THU CD-9.6 CK-6.4 (p43), MON CD-2.1 F51TU(p111) THU EF-5.1 DP1 U p8,C-. H (p137) THU CB-9.6 (p78), TUE CD-P.12 (p169), (p170) FRI FRI CI-5.6 (p129), CH-P.22 (p161), THU FRI CB-8.6 CC-8.2 (p107), (p127), WED THU EH-P.5 CB-8.3 (p88), WED CB-4.1 (p154) FRI CL-4.2 (p130) THU CD-9.1 (p161) FRI CG-7.3 (p98) WED EG-4.4 I44FI(p149) FRI EI-4.4 ü ü ö ö ö ö ö ö hbr eata C54TU(p122), (p85) THU WED CC-5.4 EG-2.3 ...... Sebastian . . nhuber, . . . . . Holger . . . nherr, . Arthur nberg, z ...... C-. U (p72) TUE CG-4.4 ...... J. tz, t,Brd...... Bernd tte, ze,Ae JP1 H (p143), THU CJ-P.12 ...... Axel lzgen, e,Jce D35TE(p61), TUE CD-3.5 ...... Jochen der, e,Se I25TE(p66), TUE EI-2.5 ...... Sven der, ∙ CP1 E (p106) WED EC-P.17 ∙ ∙ ∙ ∙ B84TU(p127) THU CB-8.4 ∙ GP1 R (p172) FRI EG-P.14 G24MN(p39) MON CG-2.4 G21WD(p83) WED EG-2.1 ∙ ∙ G66FI(p152) FRI CG-6.6 ∙ A15TE(p60) TUE EA-1.5 F31TE(p69) TUE CF-3.1 J24TE(p72) TUE CJ-2.4 eo,Eo . . . . (p130) . . THU . . CJ-6.1 . . . . . (p41), . . . . MON . . . Egor . CM-1.5 . . Sedov, B. . . . Angela . . Seddon, . . (p138) . . THU (p37) . . MON . .PD-1.6 . . CG-2.2 . Xxx . . . . Sedao, . . . Aleksandar. . . Sebesta, . (p84) Stephane WED Sebban, CE-5.3 . . . Juan . . Gongora, . . (p68) Totero . TUE . . Sebastian . CG-4.1 . . . Abu ...... Sebastian, . . . Audrey . . . . Scognamiglio, . Fabio Sciarrino, ege,Ade DP5TE(p78) TUE (p86) CD-P.5 . WED . . . JSI-2.4 ...... Andrey ...... Sergeev, (p139), . . . Olga THU . . CG-P.7 . . Sergaeva, . (p80) . . . TUE . Jozsef . CD-P.41 . Seres, ...... Imre . (p102) . Seres, . WED CC-P.2 Enikoe . . Seres, (p90), Miriam WED Vitiello, CJ-4.3 Serena . . (p135) . (p158) . THU . FRI JSIV-2.4 . CD-10.6 Kirill ...... Serebrennikov, . . . . Bereneice . . . Sephton, . Anne (p31), MON Sentenac, ED-1.3 . . . . Francisco . . Vieira, . . Senna M. Samuel . . . Senior, (p82) . (p56) . WED . TUE . . CC-4.1 . CL-2.1 . . . . Urban ...... Senica, . . . Sanghamitra . . . Sengupta, . Pierre (p108), Seneor, WED JSI-P.4 . (p122) . . THU . . CB-7.3 ...... Pascale . . . (p51), . Senellart, . MON Fabrice CI-P.1 . (p136) . Semond, . THU . . CJ-6.6 ...... Behrooz . . Semnani, . (p30), . MON Sergey CB-1.2 Semjonov, . . . . (p142) . . THU . . EF-P.8 Elizaveta . . . . . Semenova, . . . . Vladimir . . . Semenov, . Georges Semaan, (p144) THU Kumar CK-P.15 (p91), . Shankar . WED . K. Selvaraja, CE-6.3 . Shankar . . (p141) . . Selvaraja, THU . EE-P.3 . . . . . (p51) . . . . MON . Stefano . CB-P.21 . . (p131) . . Selleri, . . THU . . Leonid . EE-4.1 . . . . Seleznev, . . . . Alexey . . Seleznev, . V. Denis . Seletskiy, . . . . (p139) . (p66) . THU . TUE CG-P.5 Taro . . .CD-4.3 . . Sekikawa, ...... (p123) Ş . . THU . . Lennart . EA-5.5 . . (p70) . . Seiffert, . . . TUE . . . Paul. . . ED-4.2 . . . Seidler, . A...... Mathias . . . . . Seidler, . . . . . Angelika . . . . Seidl, . . . . Signe . . . Seidelin, . (p151) Thomas . . FRI . Seidel, . CM-7.5 ...... Marcus . . . Seidel, (p106), WED Karoline EC-P.1 Seibert, . (p147) . . FRI . . EI-4.1 (p128) . . . . THU . . Mordechai CE-10.6 . . . Segev, Nima . . Azar, . . . . Sefidmooye . . Evgeny Sedov, eker, MP3 R p7) MP3 R (p175) FRI CM-P.33 (p175), FRI CM-P.30 (p140) THU EE-P.1 (p107) WED EH-P.3 G74FI(p163) FRI CG-7.4 (p143) THU CJ-P.7 (p134) THU CH-10.5 ∙ (p117), (p152) THU FRI EA-5.1 JSI-4.5 (p110), THU JSI-3.1 (p158) FRI CI-4.4 (p51), MON CI-P.4 (p33) MON JSV-1.5 (p104) WED CE-P.10 (p175) FRI CM-P.36 ∙ (p157) FRI EE-5.4 (p128), THU CF-8.5 (p130) THU EC-6.1 ∙ C85FI(p163) FRI CC-8.5 (p45) MON JSIII-2.3 (p51) MON CI-P.2 İ a...... C-. R (p162) FRI CL-5.4 ...... sa ∙ ∙ SI-. O (p45), MON JSIII-2.2 ∙ ∙ CP3WD(p102), WED CC-P.3 ∙ F74TU(p120), THU CF-7.4 GP6TU(p139) THU CG-P.6 ∙ ∙ DP4 U (p80) TUE CD-P.41 ∙ ∙ BP4MN(p50) MON CB-P.4 J14MN(p46), MON EJ-1.4 ∙ J13MN(p46) MON EJ-1.3 I35WD(p99) WED EI-3.5 B31TE(p56) TUE EB-3.1
Authors' Index Authors' Index h,Yln...... JV11MN(p29) MON JSV-1.1 ...... Yilin Shi, h,Pii H62WD(p90) WED CH-6.2 . (p153) . . . FRI . . . . . EG-7.6 ...... (p50) ...... MON . . . CB-P.7 . Xiaodong ...... Shi, ...... Peixin . . . . Shi, ...... Liping . . Shi, . . Jianqin Shi, hvhno uia...... C-. E (p102) . WED . . CC-P.7 (p49) . MON . Anastasiia . CA-P.17 . . . Sheveleva, . . . . Yuliia . . (p49) . (p139) Shevchenko, MON . THU Irina CA-P.17 . CG-P.7 . . . . Shestakova, . (p69) . . TUE Alexander . . EB-5.1 . (p133) Shestakov, . . . THU . . Evgeny . CL-3.2 . S. . Shestaev, . . (p48) . . . Alexandra . MON . . . CA-P.9 . Sheremet, J.R. . . . . Colin ...... Sheppard, ...... Yijie . . Shen, . (p92), . WED Deyuan . . Shen, . .CB-4.4 . Mansoor . . . Sheik-Bahae, . . . . . (p158), . . FRI Atif. .CL-5.1 . Shehzad, ...... Yoav. Shechtman, (p175) FRI CM-P.32 . . Gholamreza . . (p142) . Shayeganrad, . . THU . . . EF-P.12 Tatyana ...... Shatalova, . . . . Vladislav . (p54), . Sharov, . MON . EB-P.26 Vishal . . Sharma, ...... Varun Sharma, hra bia M51TU(p124) . THU . . CM-5.1 ...... Prateeksha . (p142) . Sharma, . THU (p150) . CJ-P.3 Abhinav FRI . . . I. CJ-7.4 Sharma, . . . . . Margarita . . . . (p146) . . Sharipova, FRI . C. . . EA-7.1 Peter . . . . Shardlow, . . . . . Peter . Shardlow, R. (p60) Polina TUE CC-2.3 Sharapova, Amirhassan (p158) FRI Shams-Ansari, CL-5.1 . . Mobarok . . (p138) . Hosne THU . Md . . PD-2.3 . Shamim, . . . Yael . . (p73), . TUE Shalev-Ezra, (p158) CC-3.4 Mikhail FRI . . CM-8.6 . Shalaginov, ...... Mostafa . . Shalaby, . . Badr . . Shalaby, Georgiy Shakhgildyan, Khaled Mohammad Shakfa, (p99) WED EI-3.5 . Mehran (p134) . . . . THU . . Shahmohammadi, Fathima . CJ-6.5 . . M.A, ...... Shabana . . . . (p152), Thomas . FRI . Seyller, . . CH-11.1 . Benoit . . Sevigny, ...... Fabio (p53), Severini, MON EB-P.7 ...... (p33) . MON . Frank EB-1.4 . . Setzpfandt, . . (p120) . THU . Fabiana . . CA-9.4 (p80) . . Francesca . TUE . . . . CD-P.41 . . Settembrini, ...... Lisa . . . . . Setaffy, M. . . (p107), Josep . . WED . Serres, . EH-P.6 . Carles . . . Serrat, ...... Rosalía Serna, eio ar ...... (p45), . . MON . EB-2.2 . Laura . . Serino, . . . (p120), . . THU . . CI-3.4 Alessandro . . . Seri, ...... Sergey Sergeyev, ∙ B82TU(15,C-02TU(p132) THU CH-10.2 (p125), THU CB-8.2 (p170) FRI CH-P.6 ∙ (p55), MON EB-P.27 ∙ (p102) WED CC-P.5 (p31) MON ED-1.2 (p125) THU CB-8.2 (p129) ∙ THU CD-8.5 (p100), (p125), WED THU EG-4.6 CD-8.1 (p78), TUE CD-P.13 (p60), TUE CC-2.3 ∙ B54TE(p75) TUE EB-5.4 ∙ FP9TU(p142), THU EF-P.9 M72FI(17,C-. R (p167) FRI CM-9.2 (p147), FRI CM-7.2 D23MN(4) D25MN(p47) MON CD-2.5 (p45), MON CD-2.3 (p156) FRI CH-11.3 (p144) THU CK-P.5 FP1 H (p142) THU EF-P.12 ∙ A45WD(p101) WED EA-4.5 ∙ ∙ D73TU(p118) THU CD-7.3 KP1 H (p145) THU CK-P.19 ∙ ∙ ∙ ∙ ∙ ∙ ∙ ∙ DP1 U (p79), TUE CD-P.18 MP3 R (p175) FRI CM-P.32 (p174) FRI CM-P.22 EP3WD(p104) WED CE-P.3 KP6TU(p144) THU CK-P.6 C54TU(p121) THU EC-5.4 ∙ DP2 U (p79) TUE CD-P.22 DP1 U (p79) TUE CD-P.15 ∙ BP2MN(p53) MON EB-P.2 A41TE(p68) TUE CA-4.1 ivrtn,Jsu .....C-. U (p61), TUE CD-3.6 . . (p72), . . TUE W. Joshua ED-4.3 . . Silverstone, . . . (p100) . . WED M. CH-7.5 Jonathan . Vinicius . . Silver, . Oliveira, . . de . . Silva . Fernando Silva, Sillanp (p47), MON (p62), .EB-2.5 TUE . . ED-3.1 . . . . Christine. . (p40) . . Silberhorn, MON . . . (p139) CH-1.6 . . THU . . . . CG-P.5 . . (p64), . . Isak . TUE . . . . Silander, EI-2.3 W. . . . . Markus ...... Sigrist, . . . Ruth . . . Signorell, (p64), . . TUE . . (p46) . EI-2.3 . . MON . . JSII-2.4 . Lukas . . . . Sigl, ...... (p174) . . . FRI . Florian . CM-P.23 (p174) . . Sigger, . . FRI . . . CM-P.22 Hans . . . . Sigg, N. . . . Vladimir . . Sigaev, . . Vladimir Sigaev, Beno Sierro, igl a M12MN(p37), MON CM-1.2 ...... (p86) . . WED . . . JSI-2.4 . (p160) . . . . FRI . . . (p146) Jan . EH-6.3 . . FRI . Siegel, . . CJ-7.2 . Mikhail . . . . . Sidorenko, . . Raghuraman . . . Sidharthan, Simos Sideris, idqi hld...... P-. H (p138) . . THU . . PD-1.7 ...... Oleg . . . Sidelnikov, . Khalid Siddiqui, idat,Aa . . . (p63), . TUE . . . CE-3.1 . . . . Anat . . . (p175) Siddharth, . (p62) . FRI . TUE . CM-P.28 . . EI-2.1 ...... Concita ...... Sibilia, . . . Beatrice . . . Siauryte, (p89), . WED Gennady CE-6.1 Shvets, ...... Vladimir Shuvayev, (p32), MON (p49) CG-1.5 MON . (p168) . CA-P.11 . FRI . . CH-P.5 Valentina . . . . . Shumakova, . (p62) . . Vladislav TUE (p163) . . FRI CA-3.1 . Shukshin, . . . JSIV-4.4 . . Sambhavi . . . . . Shukla, . . . Maksym . . . Shpakovych, . . Milton Shoup, hj,Ihr ...... (p47) . . MON . (p126) . THU EI-1.4 Ichiro . . CE-10.3 . Shoji, . . Ravichandran . . . . Shivanna, . A. . . (p135) . Vladislav (p51) . THU . MON Shitov, . EA-6.3 CI-P.5 . Artem. . . . . Shitikov, Yu. . . . (p141), Vladislav . . THU . Shishkov, . EE-P.3 . Arkady . . . (p164) Shipulin, . . FRI . . CJ-9.6 . . (p156) . . . FRI . (p161) . Daniil FRI . CM-8.4 . . . Shipilo, CC-8.3 . . (p86) . . Tsutomu . . WED . . . . Shinozaki, . . .CC-4.6 . . . Yasushi (p125) . . . THU . Shinohara, M. . CB-8.2 . . . Sachin . . . . . Shinde, . . . . . Ryo. . . Shimano, . . Stephane Shilt, hed,Je . (p112) . . THU . . . CB-6.2 . . (p130) . . . . THU . . . . CD-9.1 ...... Joe...... Shields, ...... Yuting . . Shi, . . . Yiwen Shi, S-. E (p108) WED JSI-P.5 (p123) THU EF-6.6 (p146) FRI EB-9.2 (p123), (p146), THU FRI EA-5.6 EA-7.1 (p97), (p121), WED THU EB-7.2 EA-5.4 (p63), (p83), TUE WED EB-4.1 EC-4.2 (p54), (p54), MON MON EB-P.20 EB-P.24 (p53), MON EB-P.2 (p134) THU CH-10.5 (p147) FRI EI-4.2 (p147) FRI EI-4.2 (p160), (p173), FRI FRI CK-9.3 CM-P.1 (p144), THU CK-P.5 M13MN(p39), MON CM-1.3 (p173) FRI JSIV-P.3 (p52), MON CI-P.7 B32WD(p82) WED CB-3.2 HP3WD(p107) WED EH-P.3 (p144) THU CK-P.9 (p114), (p154) THU FRI CG-5.5 CF-9.3 (p92), WED CF-5.4 E52FI(p155) FRI EE-5.2 ää ai...... C-. U (p65) TUE CB-2.3 ...... Jari , î D53TE(p70) TUE CD-5.3 ...... t ∙ MP1 R (p174) FRI CM-P.10 ∙ M22WD(p90), WED CM-2.2 ∙ ∙ ∙ BP1 O (p51) MON CB-P.16 K23MN(p38), MON CK-2.3 ∙ DP3 U (p80) TUE CD-P.31 ∙ ∙ IP6MN(p51), MON CI-P.6 H54FI(p157) FRI EH-5.4 D31TE(p62) TUE ED-3.1 mroa la JII14MN(p39), MON .JSIII-1.4 . . . . . (p143), . . THU Olga. CJ-P.13 . (p49) Smirnova, . . MON . CA-P.11 ...... Sergey . . Smirnov, . Sergei Smetanin, (p50), MON (p73) CB-P.8 (p171) TUE . Slodi . FRI . CE-4.3 . CH-P.25 ...... Sergey ...... Slipchenko, ...... Grigorii . . . . . Slinkov, . . . . . Sami . . Slimi, J. . Jesse . (p45) . (p133) . Slim, MON . THU . EF-2.3 . CL-3.2 ...... Paulius . . . . . Šlevas, . . (p54) . Svetlana . MON . . EB-P.12 Slepneva, . . . Eli . . . Slenders, . (p136), THU Gabriela CJ-6.6 Slavcheva, . . . . (p132), . THU . . CM-6.3 Mikhail . . . Skvortsov, . . . (p61), . . TUE . . EJ-2.5 Stefan . . Skupin, . . . . (p66), . V. TUE Dmitry CD-4.4 . . . Skryabin, (p173) . . FRI . . CM-P.2 . . (p57) . . . TUE . Dmitry . . CH-3.1 . Skryabin, . (p85) . . . WED Evangelos . . EG-2.4 . (p40) . Skoulas, . MON Michail . . . (p31) CE-2.5 . Skoteiniotis, Cecile MON . . . Kline, EC-1.2 . (p86) . . . WED Skoryna S. (p127) . . THU CA-5.6 Maurice . . . . JSIV-1.2 . . . Skolnick, . . . . . Maurice ...... Skolnick, (p78), . . K. . TUE . Yan . .CD-P.1 . . Skasyrsky, . . . Anas . . . Skalli, ...... (p31), Murat. (p67) MON Sivis, TUE JSI-1.3 . EB-4.4 . . . . . (p103) . . . . WED . . . CF-P.9 ...... (p107) . . Yonatan . . WED . . Sivan, . . EH-P.5 . . . Robert ...... Sittig, . . . . Kirill . . Sitnik, . (p134), THU Masiar CM-6.5 Sistani, . . . . (p175) . . FRI Valdas . .CM-P.28 . . . . Sirutkaitis, . . . Romualdas ...... Sirutkaitis, . A. . . . Maxim ...... Sirotin, . . . . Maxim (p80), . . TUE Sirotin, . . CD-P.42 Brian . . . Sinquin, ...... (p125), . THU Milan CB-8.1 Sinobad, . . . . . Matthew . . Singleton, . . . . . (p168) . . . . FRI . . . . . CH-13.6 . . . Sandeep . . . . Singh, . . . Ranjan . . . Singh, . (p139) Keshaan THU (p122) CG-P.7 Singh, . THU . . CI-3.6 ...... Ş . . (p31) (p162) . . MON . Peter FRI . . EB-1.2 Simon, EH-6.5 ...... Gael . . . . . Simon, . . . . Dimitra (p40) . . . . MON . . Simeonidou, . . CA-2.5 . . Mirko . . . . . Simeoni, . . . (p47), . . Andrea MON . . . EF-2.5 Simaz, . . . Nikita . (p126) . . THU Simakov, . . CH-9.4 ...... Carlo . . . (p83), Silvestri, F. WED Oscar CD-6.1 . . Silvestre, ...... Enrique Silvestre, im SI-. O p1,C-. H (p112) THU CG-5.3 (p41), MON JSIII-1.5 (p168) FRI CJ-10.6 (p92) WED CB-4.5 (p51), MON CB-P.18 (p174) FRI CM-P.24 (p143) THU CJ-P.8 (p153) FRI EE-5.1 (p144) THU CK-P.8 (p72), TUE CD-5.4 (p96) WED EG-4.2 ∙ ∙ (p175) FRI CM-P.28 (p136), THU CM-6.6 (p132) THU CD-9.3 (p127) THU CB-8.4 (p55) MON EB-P.27 ∙ ∙ (p122) THU CD-7.5 GP7FI(12,E-.1FI(p172) FRI EG-P.11 (p115), (p172), THU FRI EG-5.4 EG-P.7 (p98), WED EG-4.5 (p159) FRI CJ-8.5 (p165) FRI CC-8.6 (p129), THU CB-8.5 ş k at JP1 H (p143), THU CJ-P.17 ...... Bartu ek, č a Luká ka, uhr'Index Authors' š ...... 194 ∙ F35WD(p93) WED EF-3.5 ∙ ∙ BP2 O (p54), MON EB-P.26 ∙ ∙ ∙ ∙ D21TU(p138) THU PD-2.1 S-. H (p114) THU JSI-3.5 MP8FI(p173), FRI CM-P.8 ∙ ∙ I31TU(p116) THU CI-3.1 ∙ BP9MN(p50) MON CB-P.9 H54TE(p75) TUE CH-5.4 C61FI(p146) FRI CC-6.1 L45FI(p156) FRI CL-4.5 oi,Jve ...... (p108) . (p73) . WED TUE . . JSI-P.3 . (p120) CE-4.3 . . . . . THU A. . Javier . A. CA-9.4 . J. . Solis, . . . . Galo . (p35) . . . . MON . . Soler-Illia, . Maria . CM-1.1 . . Rosa ...... Solé, . M. . . Rosa . . Solé, Marcos Soldera, oa Í Sola, (p54), Í MON Sola, EB-P.25 . S. Grigorii (p50), MON Sokolovskii, CB-P.8 ...... Grigorii . . . Sokolovskii, . . David Sohr, (p47), MON EI-1.5 ...... Cesare Soci, (p75) TUE (p156) CH-5.4 FRI . . . CL-4.5 (p56) . . . TUE . . (p166) . . . CL-2.1 . FRI . . . . Sobo . V. . . CH-13.3 . . . Irina ...... Soboleva, . . . . . Irina ...... Soboleva, . . . (p60) . . . TUE . Ruben . . . . EB-3.5 . . Soares, ...... L. . . W. . . . . So, . . . . . Jin-Kyu . . So, (p66), . . TUE Henk CD-4.3 Snijders, . (p48), . . MON . . CA-P.3 . . . . (p53) Viacheslav . . MON . Snigirev, . EA-P.12 . . (p133) . . . . THU . . . . JSIV-2.2 . . . (p85) . . Martin . (p128) . WED . . Smrz, THU . . . EG-2.4 . . CH-9.5 . Malte ...... Smoor, . . J. (p43) . . . . Peter MON ...... Smith, EF-2.1 . . . . . (p142) . . Margaret . . THU . . Smith, . . EF-P.15 . . . . Joe ...... Smith, (p33) . M. . MON . Jason . JSII-1.4 . Smith, . H . . Devin . . Smith, . Tatsiana Smirnova, oil,Bln...... C-. R (p173) FRI CM-P.1 . . (p94) . . WED . . Marfa . EG-3.6 . . Clivia ...... Sotomayor-Torres, ...... Belén ...... Sotillo, . . (p99) . . Simone WED . . Sotgiu, . . EI-3.4 . . . . . Luca (p58) . . . . TUE . . Sortino, . . . EA-1.3 . . Gnatiessoro . . . . (p94), Soro, . . . . WED Vito . . CH-6.6 . . . Sorianello, (p102) . . . WED . Anders . CC-P.2 . . . Sørensen, ...... Marc . . . Sorel, . . . Lucia (p32), . (p136) . MON Sorba, . THU CE-1.4 Tatsuki. CK-6.6 . . . Sonoyama, . (p111) . . . THU ...... EH-4.1 . . . . . Min . . . . Young . . . . Song, . . . . . Yalei . . Song, . (p47), Fengqi (p114) MON Song, THU CD-2.6 . JSI-3.6 ...... Daohong . . (p31) . . Song, . MON . . . EB-1.2 Soomin . . . . Son, . . . . Navid . . Soltani, . (p66), . TUE Naomi EC-2.4 (p148) Solomons, . . FRI (p138) . . EA-7.3 THU . . . . . PD-2.4 . . . Dmitry ...... Solnyshkov, . . . Alexander . . Solntsev, . Marin Soljacic, K93FI(p160), FRI CK-9.3 (p124), THU CF-8.1 (p95) WED EJ-3.1 ∙ (p146), FRI EA-7.2 ∙ (p96), (p123), WED THU CE-7.2 CK-5.3 (p69), (p54), TUE MON EB-P.23 EH-3.5 (p53), MON EB-P.6 (p154) FRI CF-9.3 (p134), THU (p143), THU CH-10.5 CJ-P.14 (p80), (p125), TUE THU ED-P.1 CJ-5.2 (p62), TUE ED-3.1 (p82) WED CB-3.2 (p78) TUE CD-P.3 (p49), MON CA-P.10 K84FI(p157) FRI CK-8.4 (p114) THU JSI-3.6 (p106) WED EC-P.8 (p68), (p75), TUE TUE EC-2.5 EC-3.4 (p59), TUE EJ-2.4 (p122) THU CB-7.3 (p174) FRI CM-P.10 B45WD(p92) WED CB-4.5 (p149) FRI EG-7.4 ń ñ ñ reoz...... E-. O (p33), MON ED-1.4 ...... Grzegorz , g un...... E-.1TU(p141) THU EE-P.11 . . . . (p103), . WED . . CF-P.6 . . . . . Juan . igo ...... J. igo ∙ MP1FI(p173), FRI CM-P.1 ∙ F83TU(p126) THU CF-8.3 ∙ ∙ ∙ M63TU(p132) THU CM-6.3 M13MN(p39), MON CM-1.3 D84TU(p129) THU CD-8.4 ∙ ∙ G23WD(p85) WED EG-2.3 ∙ E72WD(p96) WED CE-7.2 ∙ B93FI(p148) FRI EB-9.3 I22TE(p64) TUE EI-2.2 trbr lke ...... Aleksey Starobor, (p89), WED CA-6.1 . . . (p155), . . FRI . . CC-7.3 ...... Henning . . . Stark, . . . (p84) (p79) . . WED TUE . . CA-5.4 CD-P.20 . . David . . (p116) . . Stark, . THU . Svetlana . CC-5.1 . (p105) . . . . Starikovskaia, WED . . . JSII-P.1 Florent . . . . . Starecki, . . . . Rayko . . Stantchev, J. Robert Stanley, (p113) THU CK-4.2 ...... Ana. . . . . Sousa-castillo, Marilyne (p144), THU Sousa, (p106) CK-P.13 (p122) . WED . THU . M. .EC-P.13 CB-7.3 . . Costas ...... Soukoulis, . . Costas. . (p108) . . WED Soukoulis, . EI-P.5 Hassen . . . Souissi, . . . . Jaros . . Sotor, . Masato Sotome, tfn,Aeso...... (p78) . . TUE . . . . CD-P.1 ...... Alessio ...... Stefani, . . . . Andrei . . . Stefancu, . André . . . Staudte, . . (p44) . . MON . . JSV-2.2 . . . Isabelle . . . . Staude, . . Alexandre (p58), . . TUE . . Stathopulos, CL-2.2 . Kamila . . . Startek, . (p79) . . TUE . . CD-P.17 . . . . Ilya . . Starshynov, Sebastian Starosielec, (p128) THU .CM-5.6 . . . . . (p31) . . Stankevi MON Benas. EB-1.2 . (p48), Stanionis, MON Rodrigo CA-P.7 . Tessinari, . . Stange ...... George Stanciu, Stan (p43), MON (p163) EF-2.2 FRI . . . CG-7.5 . . . (p54) . . . . MON . . . EB-P.14 . Kestutis ...... Staliunas, . . . Salvatore . . . Stagira, . Robert . . Staacke, ...... Philippe (p30), St-Jean, MON (p74) CK-1.2 TUE . . . CG-4.5 ...... Kartik . . (p58), . TUE . Srinivasan, . CC-2.2 Richard . . Squibb, ...... (p49), (p62) Laurens MON TUE Spitzner, .CA-P.14 CA-3.1 ...... Gerhard. . . . Spindler, . Michael Spilatro, (p32), MON (p83), CG-1.5 WED . . EC-4.2 . . . . (p48) . Christian . MON . . CA-P.8 Spielmann, ...... (p112) . . . . THU . Jan . . CG-5.3 . . . Sperling, . . . . David . . . Spence, . Michael (p45) Spanner, MON CH-2.3 . . (p38) . Dirk-Mathys . MON . (p147) . CH-1.5 Spangenberg, . FRI . . Dirk . CM-7.1 . . . . Spangenberg, . . . Vincenzo . . . Spagnolo, . Michele Spagnolo, G76FI(p165) (p139), FRI THU CG-P.7 CG-7.6 (p138), (p139), THU THU PD-1.4 CG-P.3 (p103), WED CF-P.15 ∙ (p153) FRI EH-5.1 (p106) WED EC-P.12 D81TU(p125) THU CD-8.1 (p159) FRI JSIV-4.1 ∙ (p144) THU CK-P.16 (p78), (p100), TUE WED CD-P.14 CM-3.6 (p51), MON CB-P.19 (p164) FRI CK-9.6 (p66), TUE EC-2.4 (p62) TUE EC-2.1 (p39), MON EG-1.3 (p137) THU EE-4.4 (p114) THU CA-8.6 (p114), (p150) THU FRI CG-5.5 CG-6.5 (p37), MON CG-2.2 (p146) FRI EA-7.1 (p70), TUE CD-5.2 (p115) THU EG-5.5 C74FI(p157) FRI CC-7.4 EP4WD(p104) WED CE-P.4 č ks Jok ikas, č u,Mna MP1 R (p174) FRI CM-P.15 . . . . Mantas ius, ł w...... C-. E (p99) WED CA-7.5 ...... aw bs...... C-. H (p134) THU CM-6.5 ...... ubas ¯ ∙ ∙ D53TE(p70) TUE CD-5.3 D41TE(p62), TUE CD-4.1 ∙ ∙ HP8WD(p107), WED EH-P.8 ∙ ∙ ∙ KP3TU(p144), THU CK-P.3 ∙ A95TU(p122) THU CA-9.5 K11MN(p28), MON CK-1.1 ∙ HP2 R (p171) FRI CH-P.26 C13MN(p31), MON EC-1.3 G35WD(p92) WED EG-3.5 ∙ E51FI(p153) FRI EE-5.1 uhr iihk...... E-. E (p89) WED EA-3.1 ...... (p147) Vivishek FRI Sudhir, EI-4.1 . . . Kumar . . Chaitanya . . . . Suddapalli, . . . . Holger . . . Suchomel, V. Sergey Suchkov, u u C14MN(p33) MON EC-1.4 ...... (p32) . . . . MON . . . . CF-1.6 ...... (p36) . . . . . MON Isaac . . . . CJ-1.2 Suárez, ...... Rui . . . . Su, . . . . (p31) . . Jia-Xuan MON . . Su, . . ED-1.3 . . . . Fabian . . . . Stutzki, (p63) . . . . TUE . Vinzenz . . CB-2.1 . . Stummer, . . . . . Michael . . Stuhr, . Stephan Strohmaier, (p85), WED CD-6.4 . . . (p153) . . FRI . Stip . (p40) . CJ-8.1 . . MON ...... CH-1.6 . . . . . Birgit . . . . . Stiller, . . (p33) . (p81) . MON Christoph . TUE ED-P.5 JSI-1.5 Stihler, S...... Philip . . . . Stevens, . . . Tatiana . . . . Steshchenko, . Sabrina (p70), (p128) Sterzl, TUE THU CD-5.2 CE-10.5 . . (p78) . . . TUE . . . CD-P.3 . Grzegorz (p164) . . . Ste¸pniewski, . FRI . . . Ryszard . CJ-10.1 . . . Stepien, . . . Denisa . . . Stepankova, . Yuriy Stepanenko, tov iia...... Nikita . . . . . Stroev, . . . Jonas . . (p52), . Strobelt, . MON . .JSV-P.2 Roman . . Stricker, ...... Wieslaw. Strek, (p33) (p124), MON THU EB-1.4 CM-5.2 ...... Emmanuel . . . Stratakis, . . Werner Strasser, (p88), WED (p67) (p149) .CB-4.1 TUE FRI . . EH-3.4 . EG-7.3 ...... (p33) . . Gottfried. . . MON . . . . Strasser, . JSI-1.5 . . . Giuseppe . . . (p107) . . Strangi, . . WED . . . EH-P.7 Jared . . . . (p82) . Strait, J. . WED . . Michael . CE-5.2 . Strain, . Skøt . . Ida . . (p47), . Støvring, . MON . . CH-2.5 . . . Stonyt . . . . . Daniel . . (p33) . Stolz, MON . . . .EB-1.4 ...... Timo . . . Stolt, Bernd. Stockinger, (p158) FRI CH-11.5 . G . . . Steinmeyer, . Fabian Steinlechner, tikpf lrct...... Albrecht Steinkopff, tie atn...... E-. U (p77) TUE EB-5.5 ...... Andrea . (p61) . TUE Steinfurth, (p80), Martin CF-2.4 TUE , (p61) . CD-P.33 . TUE . . Steinel . . . . CF-2.4 ...... Morten ...... Steinecke, . . . . Sabine . . . Steil, . Daniel Steil, thí,Mrk...... (p63), . . TUE . . EB-4.1 Marek . . . Stehlík, ...... Michael Stefszky, Stefa tfnv nr ...... André Stefanov, D1. R (p156) FRI CD-10.4 D96TU(16,C-23FI(p161) FRI CH-12.3 (p136), THU CD-9.6 (p164) FRI CJ-10.1 (p111), THU CE-8.2 ∙ DP3 U (p80) TUE CD-P.39 (p173), (p174) FRI FRI CM-P.2 CM-P.12 (p151), FRI EI-4.5 (p169), (p170) FRI FRI CI-5.6 (p157), CH-P.22 (p161), FRI FRI CC-7.5 (p154), CC-8.2 (p155), FRI FRI CL-4.2 CC-7.3 (p122), (p152), THU FRI CC-5.4 CC-6.5 (p107), WED EH-P.5 ∙ ∙ (p157) FRI CJ-8.3 (p40), MON CJ-1.6 E95TU(p123) THU CE-9.5 ∙ (p53) MON EB-P.9 F1. R (p169) FRI CF-10.5 H56FI(p159) FRI EH-5.6 (p81), TUE ED-P.4 A56TU(13,E-. R (p146) FRI EA-7.1 (p123), THU EA-5.6 č ń evi k,Krln D52TE(p70) TUE CD-5.2 ...... Karolina ska, ,Dmnk . . . . . Dominyka e, ˙ ć ai B12MN(p31) MON EB-1.2 ...... Mario , ü tr...... C-. U (p72), TUE CD-5.4 ...... nter ∙ B91TU(p131), THU CB-9.1 ∙ ∙ ∙ ∙ ∙ ∙ MP1 R (p174) FRI CM-P.13 ∙ ∙ ∙ ∙ E92TU(p119) THU CE-9.2 SVP5FI(p173) FRI JSIV-P.5 B81TU(p117) THU EB-8.1 DP2 U (p79) TUE CD-P.23 BP8MN(p53), MON EB-P.8 J14MN(p38), MON CJ-1.4 C44WD(p84) WED CC-4.4 ∙ E74WD(p98) WED CE-7.4 E52WD(p82) WED CE-5.2 E36TE(p69) TUE CE-3.6 zb,Ao S-. O (p29) MON JSI-1.1 ...... Aron Szabo, zbds a...... (p159) . . FRI . . . CG-7.1 ...... Jan. . . . Szabados, . (p43) . . MON Ivan . . . EI-1.1 . Sytcevich, . . Ioannis . . . . Syngelakis, Joanna (p144), Symonowicz, THU (p60), CK-P.14 . TUE . EE-1.4 Clémentine . (p51) . . Symonds, MON . . CI-P.6 ...... (p32) Thibaut . (p120) . MON . Sylvestre, THU CK-1.4 . Stylianos CF-7.4 . . . . . (p114) Sygletos, . . THU Krzysztof . . CB-6.4 (p98) . . Switkowski, . . WED . . Angad CB-5.3 . . . . . Swiderski, . J (p49) . . MON Stephen . CA-P.16 . Sweeney, . . . . . Stephen . . . Sweeney, . Sergey Sverchkov, vl,AdesØ ...... Ø. Andreas Svela, vja a ...... E-. R (p172) FRI EG-P.3 ...... Richard . . . Švejkar, . T. Jan Svejda, Prugger L. S. Tomoki Suzuki, uui na...... (p116) . . . THU . . . . CB-7.1 . . Anna . . . . . Suzuki, . . . . . (p39) Pawan . MON . (p85), . Suthar, . WED EG-1.4 . Norman . EC-4.3 . . . Susilo, . . Arturo . . . Susarrey-Arce, ...... Pierre Suret, ueh alk rn . . . . (p94), . Irene WED CM-3.1 Mallika . . Suresh, ...... (p78), . TUE Salvatore CD-P.11 (p149) . Surdo, . FRI . . EG-7.4 ...... Zhipei . . Sun, . . Xinxing Sun, u,Ki...... (p46) . MON . . . ED-2.4 ...... (p29) . . . . MON . . Kai . . JSV-1.1 . . Sun, ...... Jinghua . . . . Sun, ...... Hong-Bo . . Sun, . . Chunlei Sun, up,Brd...... (p160), . FRI . . Bernd .CK-9.2 . Sumpf, . . (p86), . . WED . . CE-5.6 . . . Misha. . . Sumetsky, . . . . . (p125) . . THU . (p116) . . Philipp CD-8.1 THU . . . . Sulzer, CB-7.1 . A. . . . . Dominic . . . . Sulway, . . . . . Vitaliy . . . Sultanov, . Luca Sulmoni, uemn yd...... Iyad Suleiman, uc a ...... Jan Sulc, uhrkv nry.....JI-. R (p173) FRI A. JSIV-P.3 (p49) . Andrey . MON . . . CA-P.16 . Sukhorukov, . . . (p115) . . . THU . Andrey . . . . EF-5.5 . Sukhorukov, ...... Maxim . . . . . Sukhanov, ...... Sukeert, . (p166) . . . FRI . Daewon . (p122) . CJ-10.4 Suk, . THU . . Atsushi . CI-3.5 . . . Sugita, (p106) . . WED . Srikanth . EC-P.16 . . . Sugavanam, . . . . Tetsuya . . . Suemitsu, . Markas Sudzius, (p46) MON CL-1.3 ...... S . . Stefanie Sudhop, ü GP1 R (p172) FRI EG-P.12 (p79) TUE CD-P.15 (p68), TUE CD-5.1 F46WD(p86) WED CF-4.6 F42WD(9) CP5WD(p106) WED EC-P.5 (p97), WED EF-4.2 ∙ (p96), (p97) WED WED EG-4.3 EI-3.2 (p85), WED CD-6.3 K1. R (p166) FRI CK-10.3 (p156) FRI CF-9.5 (p103), WED CF-P.2 AP3MN(4) AP4MN(p48), (p48) MON MON CA-P.4 CA-P.5 (p48), MON CA-P.3 A73FI(18,C-. R (p167) FRI CI-5.2 (p148), FRI EA-7.3 B82TU(15,C-02TU(p132), (p152) THU FRI CH-10.2 CF-9.1 (p97), (p125), WED THU CA-7.3 CB-8.2 (p92), (p95), WED WED CB-4.4 CA-7.1 (p75), (p84), TUE WED CC-3.5 CF-4.3 (p64), TUE CD-4.2 myr hms...... E-. O (p33), MON ED-1.5 ...... Thomas dmeyer, M53TU(p126) THU CM-5.3 ∙ ∙ ∙ GP1 H (p140) THU CG-P.15 ∙ ∙ ∙ ∙ ∙ BP1 O (p54), MON EB-P.18 M41TU(p110) THU CM-4.1 HP2WD(p107) WED EH-P.2 MP2 R (p175) FRI CM-P.27 ∙ ∙ D1. R (p156) FRI CD-10.4 S-. E (p108) WED JSI-P.5 AP1MN(p48), MON CA-P.1 ∙ ∙ ∙ ∙ AP4MN(p48) MON CA-P.4 ∙ A52WD(p82) WED CA-5.2 ∙ B64WD(p93) WED EB-6.4 H65FI(p162) FRI EH-6.5 D32TE(p57) TUE CD-3.2 D56TE(p76) TUE CD-5.6 D43TE(p72) TUE ED-4.3 B26TE(p69) TUE CB-2.6 aamlAmd yd. Syed (p30), Ahmad, MON Tajammul CF-1.3 . . . (p122) . . THU . . CA-9.6 ...... Ayhan . . Tajalli, . . Takunori (p111) Taira, THU . . . .EG-5.1 ...... Colomban . . . . Tailliez, . . . . Giulia. . (p130) . Tagliabue, . . THU . . . Eirini CJ-6.1 . . . (p60) . . Tagkoudi, . . TUE . . Philipp . EB-3.5 . . Taeschler, J. . . . Rafael . . . Taboryski, Caterina Taballione, T (p79), TUE CD-P.21 (p34) . . MON . . CK-2.1 ...... (p167) . . FRI Pascal . (p44) . CF-10.2 . MON . . Szriftgiser, . . JSV-2.2 . . . Bertrand . . . . Szelag, . . . Adriana . . . Szeghalmi, . Anna Szczurek, (p77) TUE EC-3.5 ...... Alexander . . . Szameit, . . A. Szameit, aii ia...... C-04TU(p134) THU . . CH-10.4 ...... Shinya . . . Takahashi, . . Mika Tajiri, ag ayn A94TU(p120) (p139) THU THU CA-9.4 . PD-2.5 ...... (p167) . . . . FRI . . . JSIV-5.4 Kaiyang . . . . Tang, ...... Bo . . . . Tang, . . . . . Harshul . . . Tandan, . . Shuya Tanaka, . . . (p30), . . MON . . .CA-1.2 Koichiro . . Tanaka, . . . . (p61), . . TUE . CI-1.4 Hiroki. . (p33) . Tanaka, MON . . . . . (p74) JSI-1.5 . . . . . TUE ...... CG-4.5 . . . Takasumi ...... Tanabe, . . . . Kian. . . . . Peng . . Tan, . . . H. (p141) . . Hark THU . . Tan, EE-P.8 . . . . . Aorui . Tan, . Viktorija Tamuliene, (p102), WED CC-P.11 Tamo . (p155) . . FRI . (p31) CC-7.3 MON . Aleksi . ED-1.2 . . . . Tamminen, . (p175) . Julen . FRI (p154) . . CM-P.29 (p65) FRI Tamayo-Arriola, . . . . TUE CM-8.3 . Filippo . . CB-2.3 . . . . . Tamassia, ...... Hiroharu . . . . . Tamaru, . (p148) . . . . FRI . Miu . . . . CC-6.2 . Tamamitsu, ...... Soile . . . . . Talmila, ...... Hussein . . Taleb, . . Yuma Takida, ...... (p28) . . . (p45) MON . Yuichi . MON . CB-1.1 . . Takeuchi, . . JSIII-2.3 . . . Takashi . . . . . Takeuchi, . . . . (p45) . Tetsuya . MON . . . Taketsugu, . . JSIII-2.2 . . . . . Koji . . (p80) . . . Takeda, TUE . . . . CD-P.31 Tetsuya ...... Takatsugu, . . . . . Kan . . Takase, . . Yuki Takahashi, G66FI(12,E-. R (p157) FRI EE-5.5 (p123), (p152), THU FRI CE-9.5 CG-6.6 (p72), TUE CD-5.4 (p153) FRI EE-5.1 (p95) WED EF-4.1 (p167), (p173) FRI FRI CI-5.2 CM-P.4 (p148), (p150), FRI FRI EA-7.3 EA-7.5 (p134), (p136), THU THU EC-6.4 (p119), EC-6.5 (p129), THU THU CE-9.2 EF-7.5 (p123), (p123), THU THU EB-8.4 EB-8.5 (p106), (p106), WED WED EC-P.1 EC-P.6 (p64), (p68), TUE TUE EC-2.2 EC-2.5 (p58), TUE EB-3.3 E24TU(15,E-. R (p153) FRI EI-4.6 (p111), (p115), THU THU EE-2.1 EE-2.4 (p108), WED EI-P.1 (p70) TUE CA-4.2 (p32), MON CA-1.4 (p86) WED CF-4.6 (p78) TUE CD-P.14 (p122) THU CC-5.5 (p102), WED CC-P.16 (p134) THU CH-10.4 š uks itrs C-. U (p78), TUE .CD-P.2 . . Gintaras. auskas, uhr'Index Authors' 195 ∙ ∙ ∙ ∙ ∙ SI12MN(p31), MON JSII-1.2 SI11MN(p29), MON JSII-1.1 FP7WD(p103), WED CF-P.7 ∙ ∙ B81TU(p125) THU CB-8.1 ∙ C11MN(p29), MON EC-1.1 F1. R (p167) FRI CF-10.3 I33TU(p118) THU CI-3.3 ∙ ∙ ∙ BP5MN(p53) MON EB-P.5 ∙ ∙ GP9FI(p172) FRI EG-P.9 A43TE(p72) TUE CA-4.3 A76FI(p152) FRI EA-7.6 I14TE(p61) TUE CI-1.4 I46FI(p153) FRI EI-4.6 et,Iai . . . (p50) . . MON . . CB-P.8 ...... (p144) . (p48) . . THU MON . Ilaria . CK-P.10 . .CA-P.6 Testa, ...... Roland . . . . Tessier, . . . (p41), . Andrei . MON . Teslenko, . . .EF-1.5 . Igor. . . (p125) . Terzin, THU . (p76) . . CB-8.2 TUE . . . . . CG-4.6 . . . . Soizic. . . . . Terrien, . . (p148) . (p153) . Giulio FRI . FRI . EB-9.3 Terrasanta, . CM-7.6 . . . . . Aaron ...... Terpstra, . (p146) . . . FRI Mitsuhiro . (p140) . EB-9.2 Terakawa, . . THU . . (p69) . CG-P.17 . Hirotaka . TUE . . . Terai, . . CF-3.1 . . Sargis . . (p94) . . . WED . Ter-Avetisyan, . . . . CB-5.1 . Siah . . . Yong . . Teo, ...... Gabriel . . Tempea, . . Roland Teissier, ...... (p139) . . THU . . PD-2.8 . (p147) . . FRI Ugur . . Tegin, . EF-8.2 . (p163) Felix . . FRI . . Tebbenjohanns, (p102) .JSIV-4.3 Patrice . WED . . CC-P.16 Tchofo-Dinda, . . Elina . . . (p102), Tcherniavskaia, D. WED CC-P.11 Zachary . Taylor, ...... (p120) . . . THU . (p78) . CF-7.4 Zachary . TUE . . . Taylor, CD-P.1 ...... Goronwy . . (p155) . . Tawy, . . FRI . (p112) . . Hamed . THU .EH-5.2 . . Tavakol, . . CM-4.2 ...... Marco . . . Taucer, ...... Thomas. . . Taubner, . . Mika (p32), MON Tateda, CB-1.4 . . . . Philipp . . Tatar-Mathes, ...... Philippe (p144), (p155) Tassin, THU FRI CK-P.13 .CK-8.2 . (p61) . C. . TUE . Anna . CI-1.4 ...... Tasolamprou, . . (p162) . . . . FRI . Anna . . . . . CD-11.4 Tasolamprou, ...... Sorin. . . . . Tascu, . . . . (p64) . Shun . TUE . Tasaka, . EI-2.2 . . Luca . . Tartara, Alexander . (p70), . Tartakovskii, TUE Santiago CD-5.2 Velez, . . Tarrago ...... (p143) . . . . THU . . . CJ-P.16 . Karol . . . . . Tarnowski, . . . (p132) . . . Qazi THU . . Tareq, . CJ-6.3 . . . Nikita . (p116), . Tarasov, THU (p148) Oleksandr CF-7.1 FRI . Tarasenko, . CG-6.4 . . . . . (p155) . . . . FRI . . CK-8.2 . Mikhail (p52) . . . . MON Tarabrin, . . . EA-P.2 . . . (p80) . . Zhensheng . TUE . . Tao, . . CD-P.31 . . . Sébastien . . . . . Tanzilli, . . . . . Kazufumi . . Tanji, . Rika Tanimoto, (p64), TUE .EI-2.3 ...... Takashi. . . . Taniguchi, . . Mizuki Tani, (p30), MON (p29) CF-1.4 MON . . JSV-1.1 ...... (p75) Francesco . . TUE Tani, . . EC-3.4 . Renjie . . . Tang, . . (p112) . . . THU ...... JSI-3.3 ...... Mincheng . . . Tang, ...... Liqin . . Tang, . Kechao Tang, ∙ (p135) THU JSIV-2.3 ∙ (p122) THU CC-5.5 (p32), MON CB-1.5 (p93) WED (p164) EA-3.4 FRI EH-6.6 (p148), FRI CC-6.3 (p70) TUE CD-5.3 (p144) THU CK-P.10 (p147), (p147) FRI FRI EI-4.1 EI-4.2 (p139), (p147), THU FRI PD-2.6 EG-7.2 (p82), (p108), WED WED CC-4.1 EI-P.1 (p65), TUE EB-4.2 (p124), THU CM-5.1 ∙ (p88), WED CF-5.1 ∙ (p125) THU CJ-5.1 FP1 H (p142) THU EF-P.14 (p127), THU JSIV-1.3 (p155) FRI CJ-8.2 (p76), TUE CD-5.6 (p32), MON CF-1.5 ∙ B74TU(p122) THU CB-7.4 ∙ CP1 E (p106) WED EC-P.13 ∙ ∙ ∙ ∙ BP1 O (p50) MON CB-P.12 ∙ C14MN(p46), MON CC-1.4 ∙ ∙ ∙ L31TU(p131) THU CL-3.1 G25WD(p87), WED EG-2.5 A15MN(p32) MON CA-1.5 M84FI(p156) FRI CM-8.4 J34WD(p87), WED CJ-3.4 A31WD(p89) WED EA-3.1 oe,Ou ...... (p53) . . MON . . EB-P.4 ...... (p38), Onur . . MON Tokel, . CH-1.4 . Konstantinos . . Tokas, . . . . . (p38), . (p60) . MON TUE Juha CD-1.4 EE-1.5 (p60) . Toivonen, . . TUE ...... EB-3.5 ...... (p156) . . Andrea . . FRI . . . . Tognazzi, CI-4.2 ...... Shanti . . . . Toenger, . . (p104), . . . Chris WED (p56) . . CE-P.6 TUE Toebes, . . . . . EE-1.2 . . Yasunori . . . . Toda, ...... G. Guido . . H. Toci, . . Luiz . . . . Tizei, . (p128), Preksha THU Tiwari, EG-6.5 . . (p74) . . (p37) TUE . . MON . CG-4.5 . . CG-2.2 ...... Andreas . . . . . Tittl, . . . (p124) . Fabien . . THU . . . . Tissandier, . EG-6.2 ...... John . . . . (p33) . Tisch, . . . MON . Romain . JSV-1.5 . . . Tirole, ...... Flavia . . Timpu, . Maria Timofeeva, . . . Maximilian ...... (p126) Timmerkamp, . . . THU . Benjamin . . CE-10.3 . Tilmann, . . . Idris (p141), . . THU . . Tiliouine, EF-P.2 V. . . Egor . . . Tikhonov, . . (p104) . . WED . . CE-P.4 . . (p82), Alexey . . WED Tikan, CC-4.1 . Elena-Cristina (p68) . . Tihon, TUE . . . CG-4.1 ...... Jerome . . . Tignon, Alexander (p71) Tielens, TUE CC-3.2 . . Peter . . . . (p69), . Tidemand-Lichtenberg, . TUE . . EH-3.5 . . . . Ti . . . . . Zoltán . (p38), . . Tibai, MON . . . CK-2.3 ...... Jingyi . (p160) . . Tian, FRI . . CL-5.2 ...... (p164) . . . Hao FRI . . Tian, CD-11.5 . (p52) . Oliver . MON (p36) . EA-P.9 Thouvenin, MON Van . . . Dries CE-2.2 . . (p44) . . . MON . Thourhout, . . . (p167) CC-1.2 . Matthew . . FRI . . Thornton, . . . . .CI-5.4 . . Fiona . . . Thorburn, . D. . . Mark . . . . Thomson, (p132) . . . THU . Stephen. . . CM-6.3 (p106) Thoms, . F. . WED . . Oliver EC-P.6 . . . Thomas, . Ulrich . . Jens . . Thomas, . . Ronny Thomale, (p57) TUE CI-1.1 (p134) kumar . . THU Naresh . . . CM-6.4 . Thipparapu, K. . . Naresh . . (p103) . . . . WED Thipparapu, . . . . (p64) CF-P.13 . Hugo . . TUE . . . Thienpont, . ED-3.2 . . . Frederik. . . . . (p44) . . Thiele, . . MON . . Valérian JSV-2.2 . . (p69) . . Thiel, . . TUE . Franck . CB-2.6 . Lam Thibault, . . Tran, (p66), . . TUE Ngoc . Thi CA-3.3 Sophie . . Lara . . . Theurer, ...... Jelto . (p152), . . Thesinga, FRI . Anna CC-6.5 . . Theodosi, (p87) . . (p135) WED . . THU . EG-2.6 (p58) . . CL-3.3 . . TUE . . Dominik . . EB-3.3 . . . Theiner, ...... Johanna ...... Theenhaus, . . . . . Claire . . . Teulon, . . Lucas Teuber, č HP4WD(p107) WED EH-P.4 (p162) FRI CD-11.3 (p126) THU CE-10.3 (p172) FRI EG-P.15 (p155), (p164), FRI FRI EH-5.2 CK-10.1 (p144), THU CK-P.2 ∙ ∙ (p153) FRI CC-7.1 (p147), FRI EG-7.2 (p170) FRI CH-P.11 (p69), TUE CH-5.1 ∙ (p82) WED CB-3.2 ∙ (p95) WED CA-6.5 (p86), WED CF-4.5 (p161), FRI CC-8.2 D21MN(p43) MON CD-2.1 (p149) FRI EF-8.3 (p123) THU CK-5.3 (p129) THU CJ-5.5 k ns ia M65TU(p134) THU CM-6.5 ...... Titas unas, ¯ ∙ C84FI(p163) FRI CC-8.4 ∙ ∙ ∙ ∙ ∙ BP1 O (p53) MON EB-P.10 K42TU(p113) THU CK-4.2 G61TU(p124) THU EG-6.1 ∙ M26WD(p94) WED CM-2.6 ∙ H12MN(p37) MON EH-1.2 B25MN(p47) MON EB-2.5 H51FI(p153) FRI EH-5.1 ∙ J21TE(p68) TUE CJ-2.1
Authors' Index Authors' Index rp,Ncls...... E-.0MN(p52), MON EA-P.10 (p78) . TUE . . CD-P.7 ...... Nicolas . . (p45) Treps, (p99), . MON . WED Xavier EF-2.4 EB-7.5 . . Trepat, ...... (p79) . . . TUE . . Alessandro CD-P.24 . . . Trenti, . . . . J.R. . . Tredicce, . . (p56), TUE Nicholas Traynor, EE-1.1 . . . . (p131) . . THU . . EE-4.1 . . . . . (p40) . C. . MON . John . . CE-2.5 . Travers, . . . . . Christian . . Traum, . Aristotelis Trapalis, rbtoi nra...... C-. U (p70), (p72) TUE TUE CG-4.3 CG-4.4 . Tr ...... Andrea . . . Trabattoni, . . . . A. . . Trabattoni, . . (p53) . . MON . . EB-P.4 . . . . Eric . (p125), . . Tournié, THU CJ-5.1 Panagiotis . . Toumasis, . . . . . (p107), . . (p128) WED THU EH-P.6 Mohamed . Touil, CF-8.6 ...... Johann . . . Toudert, . Szabolcs Toth, Gy Tóth, Sebastian Juan (p98), (p57) Gongora, WED (p163) TUE Totero FRI CH-7.3 CH-3.2 . . CG-7.5 . . . S . . . . Juan ...... Gongora, . . . Totero . . . . . Micaela . . Toscani, . . . Valer Tosa, oroi ud DP3TE(p81) TUE ED-P.3 ...... Giorgio. . (p155) . Tortarolo, . FRI . Guido CC-7.3 . Torrioli, . (p158) Almudena FRI (p62) (p61), Torres-Pardo, CH-11.5 TUE . TUE . . EI-2.1 CD-3.5 ...... Victor ...... (p64), Torres-Company, . . .P . TUE . Juan (p129) . EC-2.2 . THU . Torres, . . . . . EF-7.5 . . Iacopo . . . Torre, ...... (p50) . Lluis . MON Torner, . . CB-P.11 . . L. . (p83) . Torner, . WED Nicolas (p147) EG-2.1 . FRI Torcheboeuf, . . EI-4.1 ...... T . . Costanza . . . Toninelli, . . Sefaattin Tongay, (p79), (p114) TUE THU CD-P.15 CM-4.5 ...... Alessandro (p36), . . MON Tonello, . . CA-2.2 . Arata . . Tomita, . . (p79) . . TUE . . CD-P.15 . . . Sergei . . Tomilov, . Vincent (p33), (p40) Tombelaine, MON MON ED-1.4 . CH-1.6 ...... Dorota . . (p52), . Tomaszewska, . MON . JSV-P.2 . Alexandre . . Tomas, . . (p39), . . MON . . EH-1.4 . . Robert . . (p144) . Tomala, THU . . CK-P.16 ...... (p82) . Andrea WED . . Toma, . CA-5.2 (p54) . . . MON Tomas . . .EB-P.11 . Tolenis, . . . . Masaki . . Tokurakawa, . . Yuuki. Tokunaga, ö DP3 U p0,C-.3WD(p103), WED CF-P.13 (p60), (p80), TUE TUE EB-3.4 CD-P.37 (p54), MON EB-P.20 (p119), THU EA-5.2 (p138) THU PD-1.5 ∙ (p69) TUE CB-2.6 GP5TU(p139) THU CG-P.5 (p114) THU CB-6.4 (p100), WED CB-5.5 (p141) THU EF-P.4 (p144) THU CK-P.5 (p82) WED CC-4.2 (p39), (p43), MON MON EF-1.3 CD-2.2 (p33), MON JSII-1.5 (p120) THU CC-5.3 F51TU(11,C-06TU(p136) THU CH-10.6 (p111), THU EF-5.1 (p134) THU EC-6.4 (p106), WED EC-P.18 (p168) FRI CD-12.4 (p91), (p156), WED FRI EF-3.3 CI-4.3 (p83), (p85), WED WED CJ-3.1 CJ-3.2 (p80), TUE CD-P.40 ∙ ∙ (p80) TUE CD-P.39 (p160) FRI CD-11.2 ä fr eata H1. R (p158) FRI CH-11.5 ...... Sebastian pfer, F21TE(5) F23TE(p59), TUE CF-2.3 (p57), TUE CF-2.1 A24MN(p38) MON CA-2.4 (p125) THU CJ-5.2 ke G nkle, ö g C32TE(p71) TUE CC-3.2 ...... rgy ü te B21TE(p63), TUE CB-2.1 ...... nther ∙ D94TU(p134) THU CD-9.4 ∙ ∙ L32TU(p133) THU CL-3.2 B51WD(p94), WED CB-5.1 uunkv la...... Ilia Tutunnikov, upn lx...... JI-. R (p159) FRI JSIV-4.1 ...... (p50) . . . MON . . Aleksandr CA-P.19 . . . Tusnin, . . . . . (p90), . Alex . WED . Turpin, . CJ-4.3 . . . Hannah (p79) . Turner, . TUE . . CD-P.23 ...... (p46), Sergey . MON . Turitsyn, K. EJ-1.4 . Sergei . . . Turitsyn, . (p144) . . THU . . CK-P.16 . . . . . Sergei . . . Turitsyn, . . Mirbek Turduev, (p64) TUE CA-3.2 . . . Raphael ...... Turcotte, . . . . Margherita . . Turconi, (p78), . . TUE Hana CD-P.8 . Turcicova, . . . (p174), . FRI . . .CM-P.16 . Andrey . . . Turchanin, ...... Rasit. Turan, (p78) TUE CD-P.8 . . . T . (p33), . . MON . . JSII-1.5 T . . . Alessandro . . Tuniz, . . . . (p122) . . THU CB-7.4 Jacob . . Tunesi, ...... (p153) . . . . T FRI . . . Antti . . .CJ-8.1 ...... Tukiainen, ...... Halime . . Tugay, ...... Robyn . . Tucker, (p76), . . TUE Yiming. CJ-2.6 Tu, . (p143) . . THU . CJ-P.8 . . . (p45) B. . MON . (p80) . Vladimir . TUE JSIII-2.2 . Tsvetkov, ED-P.2 ...... Vladimir . . . . Tsvetkov, . . . . . Takuro . . Tsutsumi, . . Tai Tsuchizawa, scia ak ...... (p65), . . TUE Naoki CH-4.2 Tsuchida, . (p174) . FRI . . CM-P.12 . . . . Odysseas . . (p124), . Tsilipakos, D. (p166) THU FRI George CM-5.2 (p172) . Tsibidis, . .CH-13.3 FRI . . . . EG-P.5 ...... George . . . . . Tsibidis, . (p59) . K.. . TUE . Kevin . CF-2.2 . Tsia, . . . . C. . . Tserkezis, . . Maxim Tschernjaew, shri,Kna . . . . . (p171) (p93) . Konrad . FRI WED . . Tschernig, . CE-6.5 . . Waldimir.CH-P.26 ...... Tschekalinskij, ...... Keng-Yi . . Tsai, . . Vassilis Tsafas, rl,Js GP2FI(p172) . . FRI . (p33) . EG-P.2 . MON . . . . . EC-1.4 ...... Wioletta . . . . Trzpil, . G. . . Andrew . . . Truscott, . . (p91), Jose WED Trull, CE-6.2 ...... Michael Trubetskov, ru,Mro...... E-. R (p147) FRI EI-4.2 ...... Chiara (p116), . . THU . Trovatello, . CF-7.1 . . Mirco . . Troue, . (p95) . . WED . . . EF-4.1 . . . . . Johann . . (p49) Troles, . . MON . Franti . CA-P.18 . (p166) . . Trojánek, . . FRI . . (p174) . . Stefano CK-10.2 FRI . . . . Trillo, CM-P.10 ...... (p166) Anton . . . . FRI . Trifonov, . . Khiem . CH-13.2 . . Hoc . . . . Trieu, . (p175) . . . FRI . Leo . CM-P.36 . . Tribaldo, . . . . Alberta . . Trianni, . . Giovanna Trevisi, ü ü ü F83FI(p149) FRI EF-8.3 JP7TU(p143) THU CJ-P.7 (p155) FRI JSIV-3.2 (p51), MON CI-P.6 ∙ (p98) WED EG-4.4 (p174) FRI CM-P.18 (p157) FRI EE-5.4 (p128), THU CF-8.5 ∙ (p145) THU CL-P.2 E63WD(9) H51FI(p153) FRI EH-5.1 (p91), WED CE-6.3 ∙ (p119) THU EC-5.2 F95FI(p156) FRI CF-9.5 E1. H (p124) THU CE-10.2 (p150) FRI EB-9.5 nran erk....C-. H (p120), THU CF-7.4 (p40) . . MON . . CJ-1.6 Henrik . . . nnermann, . Andreas nnermann, (p39) MON .CG-2.4 . . . . . Johannes. mmler, L+EB S1TU(p124) THU JS.1 ECBO + CL (p98) WED CH-7.3 (p82), WED CC-4.2 MP2FI(p173) FRI CM-P.2 š k E-. H (p141) THU .EE-P.7 . . . . . ek. ∙ ∙ AP1 O (p53), MON EA-P.12 ∙ ∙ SI23MN(p44), MON JSII-2.3 ∙ ∙ FP2TU(p141), THU EF-P.2 HP1 R (p170) FRI CH-P.18 ∙ H73WD(p98) WED CH-7.3 H61WD(p88) WED CH-6.1 ∙ ∙ ∙ HP2FI(p168) FRI CH-P.2 I24WD(p87) WED CI-2.4 I12MN(p45) MON EI-1.2 DP3TE(p78) TUE CD-P.3 uia,Ptei...... C-. U (p65) TUE . CB-2.3 . . . . (p54) . . . . MON . . EB-P.11 . . Anastasia . . . . Uvarova, . . . . (p92), . Petteri . WED . . Uusimaa, CM-2.4 . . . . Takeru . . Utsugi, . . . . . (p142) (p55) . THU . MON EF-P.16 EB-P.28 Olivier . . . Utéza, . Nugraha . . Adrian . . . Utama, . . . . Alexey . . . . . Ustinov, . (p86) . . WED Vasilii . . CC-4.5 . Ustimchik, . (p144) . . THU . Ahmad . . .CK-P.10 Usman, . . . . Aleksandr . (p32), . Ushakov, . MON CG-1.5 Iskander . . Usenov, . (p56), . . TUE . . .EA-1.2 . (p31) . . . MON Ingo . . EB-1.2 . Uschmann, ...... (p174) . . . . FRI . . . . CM-P.24 . . Alban. . . (p162) . . Urvoy, . . FRI . . . EH-6.5 Rupert . . . Ursin, . . . . . Antanas . . . . Urbas, . . (p126), . Alessandro THU . (p95) . Urbani, WED EG-6.4 Kumar . . EB-6.6 Lavi . . . . Upreti, ...... Ravitej . . Uppu, . Roope Uola, (p122), THU CC-5.4 ...... Karl Unterrainer, . . (p138) . . THU . Untern . PD-1.7 ...... Wai . . Ieng . Un, . . Soren Ulstrup, (p47) (p44) MON MON EB-2.4 CC-1.2 ...... Ul . . (p28) Alexander . MON . . Ulanowski, (p74) CA-1.1 . TUE Qamar . . CG-4.5 . ul-Islam, ...... Franti ...... Uherek, (p155) . . . FRI . Hiyori . . EE-5.3 Uehara, . . . . (p111), . . THU Kiyoshi . . Ueda, EE-2.1 . . Dennis . . . Ueberschaer, ...... Kento Uchida, U (p46), MON CC-1.5 . (p119) . THU . . . EA-5.3 ...... Stelios . (p103), . . WED Tzortzakis, . CF-P.4 . . . Rinat . . Tyumenev, . . . (p80) . . TUE . . CD-P.32 . . . Igor (p61), . . Tyulnev, TUE . Valentin CD-3.5 . . Tyrtyshnyy, (p33), . . MON . . . ED-1.5 . . . . Krishna . . Twayana, ...... Béla Tuzson, as ldmr...... C-. E (p102) WED CC-P.7 . (p154) . . FRI . (p69) . CD-10.2 . TUE . . . . EC-3.1 ...... Vladimir . . . . Vaks, ...... Markku . . (p66) Vainio, . (p141), TUE . THU Sachin EI-2.4 EE-P.8 . Vaidya, ...... (p74) . . . TUE . . . . CG-4.5 Virgilijus . . . . . Vaicaitis, ...... Alexei . . Vagov, . . Morgane Vacher, V M35WD(9) MP2 R (p174) FRI CM-P.21 (p98), WED CM-3.5 (p114) THU CG-5.5 (p58) TUE EA-1.4 (p149) FRI CK-7.4 (p163) FRI CC-8.4 (p157), (p161), FRI FRI CC-7.5 CC-8.2 (p152), FRI CC-6.5 ∙ (p174) FRI CM-P.24 (p173), FRI CM-P.8 ∙ (p164) FRI EH-6.6 (p148), (p150), FRI FRI CC-6.3 CC-6.4 (p130), THU CM-6.1 (p102), WED CC-P.10 (p159) FRI EE-5.6 ∙ ∙ (p141) THU EE-P.2 ∙ E51FI(p153) FRI EE-5.1 č G54TU(p115), THU EG-5.4 (p115) THU EE-2.4 (p136) THU CH-10.6 (p170) FRI CH-P.9 (p34), MON CH-1.1 (p129), THU EE-3.3 (p52), MON EA-P.1 ns rsa M56TU(p128), THU CM-5.6 ...... Orestas inas, ä rr aul.....E-. O (p53) MON EB-P.8 . . . . . Manuel hrer, uhr'Index Authors' š k...... C-.9TE(p79) TUE CD-P.19 ...... ek 196 ∙ ∙ ∙ GP1 R (p172) FRI EG-P.11 ∙ ∙ JP1 H (p143) THU CJ-P.19 A91TU(p116) THU CA-9.1 ∙ SVP1FI(p173) FRI JSIV-P.1 S-. O (p31), MON JSI-1.3 C43WD(p85) WED EC-4.3 eth ee A25MN(p40) MON (p61) TUE CA-2.5 (p146) . CH-3.6 . FRI . . . . CG-6.2 . . van . . . P.J. . . . . Rene . . . . (p38) . Veldhoven, . . . MON . (p145) . Peter . CJ-1.5 THU . . Veitch, . CL-P.6 (p53) . . . . . MON . . Laszlo . EB-P.7 . . . Veisz, ...... (p79) . Matthieu . . TUE . . . Veinhard, . CD-P.25 . . . . . Rita . . . . . Veilande, ...... Andres . Vega, . . . . Chiara . . Vecchi, . . . (p96), . . WED . . . .CM-3.3 . Ilya . . Vatnik, (p51), . . MON . . CI-P.2 . (p163) . . . FRI . . Sergei . CG-7.4 . . Vasiliev, ...... Irina . (p134), . . Vaseva, THU (p44) CM-6.5 Katalin . MON . Varjú, . . .JSV-2.2 ...... Rokas . . . Vargalis, . Stefano. Varas, ...... (p113) . . THU ...... CE-8.4 . . Adam . . . . (p170) . Vallés, . . . FRI . . CH-P.7 Stefano. . . . Valle, . . . . (p167) Rafael . . FRI Valiente, . . . JSIV-5.3 . . Gianluca . . . . Valentini, . M. . . Carlo . . . Valensise, Carlo Valensise, aala,Zla GP7TU(p139), THU CG-P.7 . Varanavi . . (p159) . . (p52) FRI . . MON . EH-5.6 EA-P.8 . . Zoltan . . . . Varallyay, . . . . Viatcheslav . . Vanyukov, . (p104), . . WED Aron (p72) CE-P.6 . Vanselow, TUE . . . ED-4.3 . (p64) . . . TUE . . . . (p170) . . CD-4.2 . Matteo . FRI . . . CH-P.7 . Vannini, . . R...... (p134) . Michael . . THU . Vanner, . . . . . CM-6.4 . . Michael . . . . Vanner, . . . . . Renzo . . Vanna, . . . Koen (p172) FRI Vanmol, EG-P.14 . . . . . Guillaume . . . . Vanderhaegen, (p99), Julius G. WED Vancso, . .EI-3.4 ...... Dries. . (p68), . . Thourhout, TUE . Van Tim. EI-2.6 . . Leent, . . van . . . (p86), . . WED Sabrya CB-3.4 . Heijst, . . Van . . . . Kasper Gasse, Van (p169) FRI (p55), J MON CI-5.5 . Erps, EJ-P.2 . . Van ...... J.W. . . Jaap . . Vegt, . . der . van Jos (p129), Tol, THU der (p60) van JSIV-1.4 TUE . . EB-3.5 . . . . Guy . . Sande, . . der Reinier Van Meer, der (p168) van FRI Theodora CH-P.4 . Gea (p60) . . Kerhof, TUE . der EB-3.5 Joost . van (p39), . Heijden, . MON . der Hans EG-1.4 van . . Vlekkert, . den . . van ...... Bart (p99), Dam, WED van EI-3.4 . . . Joris . Campenhout, . . Van (p138) . . THU . . . PD-1.7 (p116), . . . THU . . Lenard . CI-3.1 . Vamos, . . . . Manuel . . . Valvidares, ...... Marc Vallet, KP1 H (p144), THU CK-P.11 (p107) WED EC-P.24 ∙ (p175) FRI CM-P.35 (p174), FRI CM-P.15 G74FI(p163) FRI CG-7.4 (p126) THU CE-10.3 ∙ (p115) THU CK-4.5 (p112), THU CB-6.2 (p84) WED CE-5.4 (p112) THU CB-6.3 (p134) THU CM-6.4 (p151) FRI CK-7.5 (p55), MON EJ-P.3 (p153) FRI JSIV-3.1 (p28) MON CE-1.1 (p114) THU CH-8.4 (p112) THU CB-6.2 ∙ (p118) THU CI-3.2 ∙ I25WD(p87) WED CI-2.5 DP2 U (p79), TUE CD-P.21 (p103), WED CF-P.4 (p118) THU CC-5.2 č u,Ar ius, ü gn...... C-. E (p83), WED CD-6.1 ...... rgen ns.....C-. E (p96) WED CF-6.3 . . . . . unas ¯ ∙ ∙ ∙ ∙ ∙ F41WD(p95) WED EF-4.1 M45TU(p114), THU CM-4.5 JP1 H (p143), THU CJ-P.16 E56FI(p159) FRI EE-5.6 ∙ SVP3FI(p173) FRI JSIV-P.3 ∙ ∙ SV45FI(p165) FRI JSIV-4.5 F51WD(p88), WED CF-5.1 K24MN(p38) MON CK-2.4 ∙ B52TE(p71) TUE EB-5.2 elkr ahn...... Sachin (p87), Verlekar, WED EC-4.5 . . . (p80) . . TUE . . .CD-P.40 . . . . . Ewold . . Verhagen, (p31) MON Sébastien (p141), EB-1.2 Vergnole, THU Natarajan EE-P.10 (p97) . . WED Venkatachalam, . . EI-3.3 . . (p104) . . . . WED . . . CE-P.5 . . . Mikas (p60) . . . . TUE Vengris, . . . . . EB-3.5 Pedro . . . . . Venezuela, . . . Ivan . . . (p67), Venevtsev, . TUE Pim CH-4.4 . Venderbosch, . . . . . (p49) C. (p46) MON (p173) MON Matthias FRI .CA-P.16 CC-1.4 Velsink, . CM-P.2 . . . . . Alexander. . . . . Velmushov, . . . . Maria-Christina . . Velli, . . Angela Vella, ie,Vnl...... (p104) . WED . . CE-P.2 . . . (p65) . . . . TUE . . . . . CB-2.3 . . . . . Vinel . . . . . Vinel, . . (p66), . Luca . TUE . . Vincetti, . CD-4.4 . Ville . (p91) . . WED Vilokkinen, . . CA-6.2 . . . (p70) . . . TUE . . . . CG-4.2 . Alberto . . . . . Villois, . . . Philippe . . . Villeval, . (p69), . David TUE . . Villeneuve, .CH-4.6 Esteban . . Juan . . Villegas, ...... joel. . . . Villatoro, ...... (p170) . . FRI . Federica . CH-P.20 (p45) . . Villa, . . MON . . . Ruan EF-2.3 . . . . Viljoen, . . . . Meritxell ...... Vilaseca, . . . . . Evgeny . (p153) . Viktorov, . FRI (p37) (p50), Silvia CC-7.1 MON MON . Vignolini, CB-P.4 EF-1.2 . . Pierre-Baptiste ...... Vigneron, ...... (p171) . . . (p75) FRI . Nathan TUE . CH-P.26 . Vigne, . . CH-5.4 . . . . . N. . . . . V. Vigne, . . (p61), Vitalina . . TUE . . Vigdorchik, . CF-2.5 . Jan . . . Vieregge, ...... Caterina . . Vidoli, (p170) (p133) Sébastien FRI THU Vidal, CH-P.18 . CL-3.2 . . . . Trivi . . (p94) . Vico . . WED . Giuseppe . CE-7.1 . . (p75), . Vicidomini, . . TUE . . . Aurore . CE-4.4 . . Vicet, . . . José (p37) . . MON . Viana-Gomez, . . EH-1.2 ...... Bruno . . . Viana, . Stefano . Vezzoli, . . . . (p174) . FRI N. CM-P.22 Anton . (p48), . Vetlugin, . MON . CA-P.1 Maxim . (p50) . . MON Vetchinnikov, . . CB-P.8 ...... (p94) . . . . WED . . Karel . (p79) . .CE-7.1 . Veselsky, TUE . . . CD-P.28 . . Dmitry . . . . Veselov, . . . . Ivan. . . . . Verzhbitskiy, . . . . Oscar . . Versolato, . (p129), THU Alexis (p75) JSIV-1.4 Verschelde, TUE . . CE-4.4 ...... Guy . . . . Verschaffelt, . (p165), Emmanuel FRI (p138) Véron, JSIV-4.5 THU . . PD-1.3 . . . . . (p83) . . WED Federico . (p144) . CD-6.1 Vernuccio, . THU . . . CK-P.1 . . Augustin . . . . Vernay, . . Nathalie . . . Vermeulen, . B. Varun Verma, S-. H (p114) (p106), THU WED EC-P.10 JSI-3.5 (p106), WED EC-P.7 (p144) THU CK-P.16 ∙ F35WD(p93) WED EF-3.5 (p143) THU CJ-P.12 (p156) FRI CH-11.3 ∙ (p120) THU CF-7.4 (p86), WED CA-5.5 ∙ ∙ (p153) FRI JSIV-3.1 ∙ (p111) THU EG-5.1 H1. R (p165) FRI CH-12.6 BP1 O (p51) MON CB-P.14 (p146) FRI EA-7.2 (p48) MON CA-P.5 (p167) FRI JSIV-5.3 ñ ,Nei K42TU(p113) THU CK-4.2 . . . . Noelia o, ∙ EP8WD(p104) WED CE-P.8 ∙ ∙ H1. R (p152), FRI CH-11.1 ∙ ∙ ∙ ∙ ∙ ∙ ∙ K1. R (p168) FRI CK-10.5 G32WD(p90), WED EG-3.2 H23MN(p45) MON CH-2.3 DP1 U (p79) TUE CD-P.16 BP6MN(p53), MON EB-P.6 E11MN(p28) MON CE-1.1 JP2TU(p142) THU CJ-P.2 B34WD(p86) WED CB-3.4 o,Wle ...... JVP1MN(p52), MON JSV-P.1 ...... L. Willem Vos, o,Wle ...... Willem Vos, ooia rn ...... C-.2WD(p105) . . WED . . CE-P.12 ...... Vasilii . . (p51) Voropaev, S. MON CI-P.5 Irina . . Voronina, . . . . M . von . Tuomo (p92), Lerber, WED von CF-5.3 . . Lorenz (p69), TUE (p97) Grafenstein, WED EC-3.1 von . . EI-3.3 ...... Georg . . (p47), . Freymann, . MON von Driele EB-2.5 . . Dreifus, . von . . . (p31), . . MON . Felix JSI-1.2 . . Bruch, . . vom ...... (p68) TUE Sebastian Volz, .CA-4.1 . . . (p74) . TUE . . . . .ED-4.4 J . . . . Volz, . . . . (p167) . Azzurra. . . . FRI Volpi, . . . . . CF-10.2 Andrey...... Voloshin, ...... Anna . (p138) . . . . THU . Volokitina, . . . . PD-1.7 (p35) . Elena . . MON . . Volkova, . . . CM-1.1 . . . . János . . . Volk, . . . . Klara . (p48), . . MON Volckaert, .CA-P.7 . Bogdan . . Voisiat, ...... Flavius. Voicu, (p33) Valentina MON (p98), Viola JSV-1.5 WED . . . Vogler-Neuling, .EG-4.4 . (p159) . Viola . FRI . . CG-7.1 Vogler-Neuling, ...... (p69), . . . . TUE . . . Tobias. . .CC-3.1 . . Vogl, . . (p33) . . . Jan MON . . ED-1.5 Vogelsang, ...... (p132) (p90) . . . THU . WED . . . CD-9.2 CH-6.3 . Tim...... Vogel, ...... (p116) . . Simon . . THU . . Vogel, . . CF-7.1 . . . Boris . . . . . Vodungbo, (p53) . . . . MON . . Marek EB-P.9 . . . (p45) Vlk, . . . MON . . Dmitrii . EF-2.3 . . Vlasov, . . (p98) . Svetlana . WED . . Vlasenko, . .CB-5.3 . Andrei . (p34), . . MON Vladimirov, CK-2.1 Kristijonas. . . . Vizbaras, . (p142) . . THU (p175) . . EF-P.16 FRI . . . . CM-P.32 . Laurent . . . . . Vivien, . . . Alexey . . (p118), . Vitukhnovsky, THU CA-9.3 Vitalii . . Vitko, . . . (p161), . . FRI . (p153) CC-8.3 Vladimir . FRI . . Vitkin, . CC-7.1 ...... S. . . . Miriam . (p102), . (p129) WED Vitiello, . . THU CC-P.2 Miriam . . EF-7.4 . . Vitiello, . . (p138) . . . . THU . . . . . PD-2.3 ...... Leonardo . . . . Viti, . . . . David . (p52) . Vitali, . MON . EA-P.1 Steven . . . Vitale, Rajitha Viswambharan, isr,Eod...... (p120) . (p81) . THU TUE . . ED-P.7 . CI-3.4 (p34) . . . . Ewoud . MON . . . . CK-2.1 Vissers, ...... (p157) Vladislav . . . FRI . . Vishnyakov, . . . CC-7.4 . . . Sharma . . . . Vishal, . . . . . Leopold . . Virot, . Michele Virgilio, ie,Ei BP1 O (p50) MON CB-P.11 (p36) . . . MON ...... CE-2.2 ...... Anne-Lise . . . . . Viotti, . . . . . Eric . . Vinet, . . Peter Vines, H53TE(7) G64TU(p126), THU EG-6.4 (p73), (p55), TUE MON EJ-P.3 CH-5.3 (p55), MON EJ-P.2 ∙ (p106) WED EC-P.17 (p123) THU EA-5.6 (p146) FRI JSI-4.1 (p108), WED JSI-P.1 ∙ (p104) WED CE-P.4 ∙ (p158) FRI CK-9.1 (p77) TUE CC-3.6 (p73), TUE CC-3.4 (p85) WED CD-6.3 (p168) FRI CH-P.3 (p165) FRI CC-8.6 (p165) FRI CC-8.6 E54FI(17,C-. R (p159) FRI CG-7.1 (p157), FRI EE-5.4 F55WD(9) E53FI(p155) FRI EE-5.3 (p94), WED CF-5.5 (p58) TUE EA-1.3 (p124) THU EG-6.2 ü ü k,La...... JI-. R (p165) FRI JSIV-5.1 ...... Lea cke, gn E-. U (p56), TUE .EA-1.1 ...... rgen. ∙ ∙ ∙ F85TU(p128), THU CF-8.5 ∙ B63TU(p112) THU CB-6.3 F71TU(p116) THU CF-7.1 ∙ G22WD(p83) WED EG-2.2 ∙ IP5MN(p51) MON CI-P.5 E43TE(p73) TUE CE-4.3 ag ie...... E-. E (p106) WED EC-P.8 (p133) . . THU . . CB-9.2 ...... (p29) . . . . MON . . . . JSV-1.1 ...... Ride . . . . Wang, . . . Jie . . Qi . . Wang, . . Lichun Wang, ag i...... (p110) . . THU . . CM-4.1 ...... (p56) . . . (p148) TUE . . . FRI . . . EE-1.2 . . EA-7.3 ...... Li (p48) . . . . . Wang, MON ...... CA-P.9 . . . (p167) . . . Lei . . FRI . . . Wang, . . . CI-5.4 ...... Kangpeng . . . . . Wang, . . (p144) . . . . . THU . . . Kai . . CK-P.2 . . Wang, ...... Jun . . . . Wang, ...... (p139) . . . . . Jue THU . . . Wang, . . PD-2.5 ...... Juan . . . Wang, . . . . (p147), . Jiayi . FRI . Wang, . CM-7.2 . . . Jianwei . . Wang, ...... Huijun Wang, ag oge...... E-.3MN(p54) . MON . . EB-P.13 ...... Gaoxuan . . Wang, . . Dongze Wang, ag nog...... (p99), . . WED . . EB-7.5 . . (p139) . Andong . THU (p74) . Wang, . CG-P.7 TUE . . . . . CG-4.5 ...... Philip . . . . Walther, ...... (p136), . Nico . THU . Walther, . CD-9.6 . (p99) . Peter . WED . Walter, . EJ-3.5 ...... (p60), Daniel . . Walter, TUE . EB-3.4 Reinhold . (p138) . Walser, . THU . . . PD-1.9 (p61) . . TUE . . Mattia . CH-3.5 . . . . Walschaers, . (p102) (p44) . WED . Andreas MON . CC-P.16 . Wallucks, (p138) . CC-1.2 . . . THU . . Kristin . . PD-1.7 . . Wallmeier, . . . (p74) . . . . TUE . Vincent . . . . CG-4.5 . . Wallace, ...... Frederik . . . . . Walla, . . . (p147) . . FRI Simon . (p116) . Wall, EI-4.1 . THU . . (p134) . . CB-7.1 THU Daniel . . (p155) . . Walke, CJ-6.4 . . FRI . . . . Maximilian . EH-5.2 . . . . . Waldherr, ...... Sebastian . . . . Walde, . . . . . Till . . Walbaum, . . . . Sophia . (p49), . Wahl, (p45) Bin MON MON CA-P.14 Ammar . . JSIII-2.2 Wahid, (p61) . . . . TUE . . . . . CI-1.4 ...... Frank . . Wagner, ...... Satoi . . Wada, . . Koshiro (p38), Wada, MON CH-1.5 . . . P. Johannes Waclawek, (p80), TUE CD-P.40 ...... Stefan Wabnitz, (p49) MON (p91) CA-P.11 W WED . . . CE-6.3 ...... David . . (p142) Vyhlídal, . . THU CJ-P.1 Davide . . Vurro, . . . . H . (p126) . . . Vural, . THU . . . . EG-6.4 Natasha (p39) . . . . MON Vukovic, . . (p163) . . . CG-2.4 Jelena FRI . . . . . Vuckovic, CG-7.5 ...... Timon . . . J. Vreman, . J. . . Marc . . (p64), . Vrakking, . TUE Caterina ED-3.3 . Vozzi, ...... Thibault Voumard, A92TU(18,C-. H (p120) THU CA-9.4 (p118), THU CA-9.2 ∙ M22WD(9) M24WD(p92) WED CM-2.4 (p90), WED CM-2.2 A52TU(19,C-. H (p134) THU CD-9.4 (p119), THU EA-5.2 (p161) FRI CH-12.3 (p150) FRI EB-9.5 (p80), TUE CD-P.37 (p69) TUE CE-3.6 ∙ (p156) (p142), FRI THU EF-P.7 CI-4.3 (p136), THU (p141), THU CJ-6.6 EF-P.3 (p99), (p101), WED WED EF-4.4 EF-4.6 (p85), (p91), WED WED CJ-3.2 EF-3.3 (p83), WED CJ-3.1 (p153) FRI CK-8.1 (p172) FRI EG-P.14 (p149), (p151), FRI FRI CK-7.4 CK-7.5 (p144), THU CK-P.13 M92FI(p167) FRI CM-9.2 HP1 R (p170) FRI CH-P.16 ü ei B43TE(p65) TUE EB-4.3 ...... seyin ∙ ∙ ∙ ∙ ∙ M21WD(p88), WED CM-2.1 CP8WD(p106) WED EC-P.8 A23MN(p38), MON CA-2.3 FP3WD(p103) WED CF-P.3 H16MN(p40) MON CH-1.6 ∙ J11MN(p42) MON EJ-1.1 ag aog...... E-. E (p96) WED EG-4.3 (p93) . . . . WED . . . . EA-3.4 ...... Yangyundou . . . Wang, . . . (p90), . . . WED Yadong . . Wang, CB-4.2 . . Min . . Shu . Wang, ...... (p38), Ruijun (p82) MON Wang, WED CK-2.3 . (p31) CB-3.2 . . . MON . . . . . EB-1.2 ...... Ning . . . . Rui . . . . Wang, . . . N. . . Rui . Wang, . . . Rui Wang, ag ia ...... Yitao . . Wang, ...... Yingning (p36), Wang, MON .CA-2.2 ...... Yicheng. . . Wang, . Yazhou Wang, eb,Shr...... (p59) . . . . TUE . . . . Sahar CF-2.2 . . . Wehbi, . . . (p41) . Leonard . MON . . Wegert, EH-1.5 . . Sven . . (p107) . Weerdenburg, WED . EH-P.5 Jean-Claude . (p144), . Weeber, THU Michael CK-P.2 (p32) Walter . MON . Weber, . CG-1.4 ...... (p129) . . . (p146) . THU . FRI . Thomas CB-8.6 . . . Weber, CC-6.1 . . . B. . (p121) . . . . Heiko THU . . . Weber, . . EB-8.3 . . . (p54) . . Christoph . . MON . . Weber, . . EB-P.14 . . . . . (p62) . . Julian . . (p64) TUE . . Webber, . . TUE L. . CA-3.1 . . ED-3.2 . James . . . . Webb, ...... James . . . . Webb, . . (p36), . . . MON . Benjamin . Webb, . CE-2.2 . . . Piotr . . Wcislo, . (p164) . . FRI . . CJ-9.6 ...... Scott . . Watson, . Muneyuki Watanabe, (p64), TUE EI-2.3 ...... (p91) . . WED . . EB-6.3 . . . Kenji (p78) . . TUE Watanabe, (p140) . CD-P.8 THU . Wojciech . CG-P.20 . . Wasilewski, . . Stephen . . . . Warren-Smith, ...... Jonathan . Ward, . Richard. . . . Warburton, (p34), . . MON . . CJ-1.1 . . (p167) . . . . FRI . Vincent . CF-10.2 . Wanie, ...... (p143) . . . THU . . . . . CJ-P.6 . . . . Ziyao . . . . Wang, ...... Zilong . . . . (p99) Wang, . . . WED . . . Zhixin CA-7.5 . . Wang, ...... (p78), . Zhi . TUE . Wang, . CD-P.11 . . (p57), . Zhengping . TUE . Wang, . CI-1.1 ...... Yuchen . . Wang, . . . (p47), . . MON . . EF-2.5 . . . Yu . . Wang, ...... Yongrui Wang, egl lxne E62WD(p91), WED CE-6.2 . (p124) . THU . . . . .EG-6.2 ...... Alexander . . Weigel, . (p97) Helena. (p119), WED Weigand, THU CA-7.2 (p29) . CE-9.2 . (p64) MON . . . . TUE . JSV-1.1 . . CA-3.2 Sebastian ...... Weidemann, . (p55) . . . . . MON . . Birgit . . EJ-P.2 . . . Weichelt, ...... Maoliang . . . Wei, . . . . Wei . . Li . . Wei, . . Jens Wehner, B81TU(p125) THU (p155) CB-8.1 FRI CK-8.3 (p149), (p147), FRI FRI EF-8.3 EG-7.1 (p66), TUE CD-4.3 JP6TU(p143) THU CJ-P.6 (p86), (p120) WED THU CA-5.5 CA-9.4 (p38), MON CA-2.4 ∙ GP1 R (p172) FRI EG-P.15 (p167) FRI CI-5.3 (p147) FRI EI-4.2 (p147), (p147), FRI FRI EG-7.2 EI-4.1 (p108), (p139), WED THU EI-P.1 PD-2.6 (p82), WED CC-4.1 (p139) THU CG-P.5 (p161) FRI CG-7.3 (p85) WED CD-6.3 (p129) THU CJ-5.5 (p159) FRI CC-8.1 ∙ (p91) WED EF-3.3 HP1 R (p170) FRI CH-P.12 C65TU(p136) THU EC-6.5 uhr'Index Authors' 197 ∙ ∙ ∙ DP4 U (p80), TUE CD-P.40 ∙ ∙ ∙ B86TU(p129) THU CB-8.6 E81TU(p111) THU CE-8.1 H55TE(p77), TUE CH-5.5 G43TE(p70), TUE CG-4.3 ∙ B42WD(p90) WED CB-4.2 ∙ ∙ I12TE(p57), TUE CI-1.2 B45TE(p67) TUE EB-4.5 J73FI(p148) FRI CJ-7.3 enr is...... (p50), . . MON . . CB-P.2 . . . . Nils . . (p120) Werner, . THU . . . CF-7.4 ...... Hans . . Wenzel, . . Lukas Wenthaus, (p38), S MON Wengerowsky, CK-2.3 . . . . . (p92) (p122) . . WED THU . . CH-6.4 . CC-5.4 ...... Wenle . . . . Weng, . . . Moritz . . . Wenclawiak, . . Dandan Wen, A. Maximilian (p98), WED Weissflog, EG-4.4 (p159) . FRI . . (p158), .CG-7.1 . Maximilian FRI . . Weissflog, . CL-5.1 . (p54) Robin. . . MON . Weissenbilder, . EB-P.15 ...... E. . . Lucien . . Weiss, . (p53), MON Lorenz (p169) EB-P.3 Weiss, . FRI . . CI-5.6 ...... Harald . . . . . Weinfurter, . J. . . Pascal . . Weinert, . . Robert Weih, ike,Gog...... C-. R (p154) FRI CF-9.3 ...... (p61), . (p149) . TUE . FRI Georg CF-2.5 EG-7.3 . . . Winkler, ...... (p129) . (p120) . . . THU . THU . . Lutz CJ-5.4 . CF-7.4 ...... Winkelmann, ...... Joel . . . . (p136) Winiger, G. . (p31) THU . MON . Herbert . EC-6.5 . . EC-1.2 . Winful, ...... Nils . . . . Wind, . . . . . Martin . . Wimmer, . . . Luke . . . Wilson, . . . . (p72), . . TUE Derrek CD-5.4 . . Wilson, . . . (p38), . . MON . CE-2.4 Stephanie . . . Willms, . . . (p39) . . MON . . CG-2.4 Kevin (p99), . . WED . Williams, . CA-7.4 ...... Benjamin . . . . . Willenberg, ...... Ingo . . . . Will, . . . (p64), . David . TUE . . Wilkowski, ED-3.3 . . . Martin . . Wilkens, ...... (p52) . . MON . . Thibault JSV-P.2 . (p32) . . Wildi, . MON . Przemyslaw . (p72) . CE-1.3 TUE . . . Wiewiorski, . . CJ-2.4 . . . . Stefan . . S. Wieser, . (p134) . . THU Diederik . . CK-6.4 Wiersma, . . . (p171) . Andreas FRI . . CH-P.26 . Wienke, . . . Torsten . . . (p87), Wieduwilt, . . (p147) WED Marco FRI EG-2.5 . EF-8.1 Wiedmann, . . . . . (p74) . . . . TUE . . . . CA-4.4 . . Witlef ...... Wieczorek, . . . Justin . . . Widjadja, . . Max . Widarsson, . . Jasper . . . (p146) Jan . . . . FRI . . Wichmann, . . EB-9.1 . . . David ...... Whittaker, . . . . Simon. . (p159), . White, FRI G. Andrew CH-12.1 (p116) . White, . THU . . . CB-7.1 ...... Natalie . (p83), . . Wheeler, WED . (p46) . CJ-3.1 MON Markus . . Weyers, ED-2.4 . . . (p30) . . . . MON . . . . . CK-1.2 . . . . (p116) Benjamin . . . . THU . Wetzel, . . . CB-7.1 . . . . Nick . . . Weston, . . A. . . Daron . . Westly, . . Tim Wernicke, B31WD(p82) WED CB-3.1 (p119), THU EF-6.3 ∙ (p82), WED CB-3.2 ∙ (p125) THU CD-8.1 (p170) FRI CH-P.6 (p71) TUE EB-5.2 (p138), THU PD-1.6 F74TU(p120) THU CF-7.4 (p69) TUE CF-3.1 (p129), THU EE-3.2 (p50) MON CB-P.13 (p154) FRI CF-9.2 (p153) FRI CK-8.1 (p64), TUE CD-4.2 (p93) WED EA-3.4 (p161) FRI CH-12.2 (p140) THU EE-P.1 (p91), WED EF-3.3 B94TU(p135) THU CB-9.4 (p100) WED EG-4.6 ö e B12MN(p31) MON EB-1.2 ...... ren ∙ ∙ ∙ F85FI(p151) FRI EF-8.5 F95FI(p156) FRI CF-9.5 CP2 E (p107) WED EC-P.22 ∙ ∙ ∙ CP9WD(p106) WED EC-P.9 ∙ B95TU(p135) THU CB-9.5 ∙ E94TU(p123) THU CE-9.4 ∙ ∙ BP2MN(p50) MON CB-P.2 A44WD(p99) WED EA-4.4 ∙ E33TE(p65), TUE CE-3.3 A73FI(p148) FRI EA-7.3 L23TE(p58) TUE CL-2.3 u uhi...... JI41FI(p146) . FRI . . JSI-4.1 . . . . (p51) . . . . MON . . . CI-P.3 ...... (p106) ...... WED . . . Frank EC-P.8 . . . . Wulf, ...... (p123) . . . (p138) . THU . Yunhui . . THU . Wu, . CK-5.3 . . . . PD-1.2 ...... Yiming . . . . . (p112) Wu, . . . . . THU ...... Qiang JSI-3.3 . . . Wu, ...... (p129) . . . (p29) . . THU Mengfei . MON . . Wu, . . EE-3.3 . JSV-1.1 ...... Kan . . . (p163) . Wu, . . . . . FRI . . . . Junqiao . . CH-12.4 . . Wu, ...... Jianghong . . Wu, ...... Jian . . Wu, ...... Dakun . . . Wu, ...... (p89) . . ChengHan WED . . . Wu, . . . EF-3.1 . . . . Oliver . . (p113) . . Wright, . . THU . . . Hollie . EG-5.3 . . . Wright, . . M. . . Ewan . . (p107), Wright, . . WED Demelza .EH-P.6 . Wright, . . . . . David. C. (p69), Wright, TUE CH-5.1 . . (p135) . . THU . . . .EA-6.4 ...... Getinet . . (p96) . . Woyessa, WED . . . . CE-7.3 Michiel. . . . Wouters, ...... Simon . . Woska, . Lukas Worschech, (p64), TUE W (p72) .CD-4.2 TUE . M.. ED-4.3 T. . (p56) . (p47), Michael . TUE MON T. Woodley, M. EE-1.2 JSIII-2.4 . . . Michael . . . . Woodley, ...... (p166) . . FRI . David . . Wood, . .CH-13.3 . . . Steffi (p85), Y.. Woo, WED K. CD-6.4 Kenneth . . Wong, . (p132) . . THU L. CJ-6.2 . K. (p113) . . Gordon THU . . Wong, . .CE-8.4 . Lothar . . Wondraczek, . (p45), Katrin. MON Wondraczek, EB-2.3 ...... (p53), . MON Janik EA-P.13 Wolters, ...... Sabine Wollmann, Wolfsj (p74) TUE CG-4.5 (p50), . . MON . CB-P.5 ...... Delphine . (p76), . . Wolfersberger, TUE . . CG-4.6 Thomas . . Wolf, . (p136), . . THU . . . CJ-6.6 . . . (p130) . Jean-Pierre . THU . Wolf, . . EC-6.1 ...... (p64) . . . . TUE . . Alexey ED-3.2 . . Wolf, . . . . . (p72) . (p111) . Adriana TUE . (p94) THU Wolf, . WED CG-4.4 . CE-8.2 . Szymon . CF-5.5 ...... Wojtewicz, . . . . . Adam ...... Wojciechowski, . . . . . Michael . . . Woerner, . . . P. Wnuk, (p64), TUE CD-4.2 . . . . (p47) . . MON . J. JSIII-2.4 Valentin . . (p71), Wittwer, TUE Esben CH-5.2 . Witting-Larsen, ...... (p116) . . THU (p99) . . WED . CB-7.1 . . EI-3.5 . . Stefan . (p94) . . Witte, WED . . Ulrike CH-7.1 . . . . . Winterwerber, . . . . . Stephan . . . Winnerl, . Pamina Winkler, ö H54FI(17,C-. R (p160) FRI CK-9.3 (p157), FRI EH-5.4 (p130), (p170) THU FRI CJ-6.1 CH-P.11 (p113), THU CE-8.3 ∙ (p74) TUE CG-4.5 (p166) FRI CJ-10.2 (p126), THU CF-8.4 (p173) FRI JSIV-P.4 (p55), (p173), MON FRI EB-P.29 JSIV-P.2 (p53), MON EA-P.12 ∙ DP1 U p8,C-.6TE(p80), (p137) TUE THU CD-P.36 CB-9.6 (p78), TUE CD-P.12 ∙ (p143) THU CJ-P.8 (p125), (p152) THU FRI CB-8.2 CF-9.1 (p95), (p97), WED WED CA-7.1 CA-7.3 (p84), (p92), WED WED CF-4.3 CB-4.4 (p75), TUE CC-3.5 (p126), (p140) THU THU CH-9.3 CG-P.10 (p79), TUE CD-P.28 F52TU(p111) THU EF-5.2 (p95) WED EB-6.6 F35TE(7) G66TU(p128) THU EG-6.6 (p75), TUE CF-3.5 nr asJkb...... C-. U (p76) TUE CG-4.6 ...... Jakob Hans rner, ä e,Bndk M75FI(p151) FRI CM-7.5 ...... Benedikt ger, ∙ ∙ ∙ S-. O (p31) MON JSV-1.3 ∙ D24MN(p46) MON ED-2.4 ∙ C31TE(p69), TUE CC-3.1 S-. E (p82) WED JSI-2.1 I34WD(p99) WED EI-3.4
Authors' Index Authors' Index aaoo oisg DP2TE(p80) TUE ED-P.2 ...... (p146) . . FRI Noritsugu . . Yamamoto, . CC-6.1 . . . . Yuta . . . Yamagishi, . . . Yuichiro . . Yamagami, . . Shunsuke Yamada, aaa oi...... E-. U (p80) TUE ED-P.2 ...... (p60), . . . . TUE . . . . CK-3.5 . . . Ryohei . . . . Yamada, ...... Koji (p151) . (p87) FRI . Yamada, . WED . EG-7.5 . . . CD-6.6 ...... Vy . . . YAM, . . V. . . Sergey . . . . Yalunin, ...... (p125) (p148) Ozan . . Yakar, THU FRI . . EF-7.1 EB-9.3 . . Mukesh . Yadav, M. . . . Alejandro . . Yacomotti, . . Masahiro Yabuno, aaooiz sa E75WD(p98) . WED . . . CE-7.5 ...... Kazuhiro . . Yabana, . Assaf Ya’akobovitz, (p153) FRI (p110) CK-7.6 THU . . Y CB-6.1 (p96) . . . WED . . . . . EG-4.3 ...... (p119) . . . . . THU ...... EF-6.2 . . André . . (p80) . . . . Xuereb, . . TUE . . . . ED-P.2 . . (p45) . . . . Ying MON ...... Xue, . . . EI-1.2 ...... Hui ...... Xue, . . . . . (p93) . . . WED . . Yiqing . . . . Xu, CA-6.4 ...... Xuejun . . . Xu, ...... Xinyi . . Xu, . . Xiaodong Xu, u og...... JI-. O (p44), (p76) MON TUE JSII-2.3 . CA-4.5 ...... (p68), . . . TUE . . . . . EC-2.5 . (p60) . . . Long TUE . . Xu, . . . . CK-3.4 . . . . . Lei . . . . Xu, ...... Jingjun . . Xu, . . Jinbin Xu, u i ...... Jie Xu, u ag...... (p92) . . WED . . . CJ-4.4 ...... Gang . . Xu, . . Duanyang Xu, in,Qha...... E-. O (p33) MON . EC-1.4 . (p30) . . . MON . . . . . CB-1.2 ...... Angelos...... Xomalis, (p126), . . (p76) . . THU . Qihua TUE . . CE-10.4 EA-2.3 Xiong, ...... Meng ...... Xiong, ...... (p116), . . FeiFei THU . . Xin, CF-7.1 . . . . (p169), Ting . FRI . Xie, . . CF-10.4 ...... Shangran . . Xie, ...... Chen Xie, io e H65FI(p162) FRI . . EH-6.5 ...... (p42) . . . MON ...... ED-2.2 ...... Zeyu . . . . Xiao, ...... Wei . . . Xiao, . . Dong Xiao, i,Sii...... (p170) . FRI . . CH-P.13 ...... Shiqi . . Xia, . . Renata Xavier, (p155) FRI EH-5.2 X ...... Matthias Wuttig, (p64), TUE EI-2.3 . (p33) W . . MON . . EC-1.4 ...... Ursula . . . Wurstbauer, . Matthias Wurdack, ü G52TU(p113) THU EG-5.2 (p172) FRI EG-P.9 (p140), THU CG-P.21 ∙ (p106) WED EC-P.8 (p75), TUE EC-3.4 FP1TU(p141) THU EF-P.1 D1. R (p162) FRI CD-11.4 (p124) THU CM-5.1 (p173) FRI CM-P.3 C34TE(p75) TUE EC-3.4 D65WD(8) D1. R (p156) FRI CD-10.5 (p87), WED CD-6.5 (p147) FRI EI-4.2 (p77) TUE CC-3.6 (p73), TUE CC-3.4 E33TU(p129), THU EE-3.3 twi,Toa H35TE(p61), TUE CH-3.5 ...... Thomas rthwein, ∙ ∙ ∙ GP2 H (p140) THU CG-P.21 EP2TU(p141) THU EE-P.2 ∙ ∙ ∙ ∙ M44TU(p114) THU CM-4.4 ∙ G11MN(p28), MON CG-1.1 F54TU(p115), THU EF-5.4 D12TU(p138) THU PD-1.2 ∙ E91TU(p117) THU CE-9.1 ∙ ∙ H65WD(p92) WED CH-6.5 AP2MN(p52) MON EA-P.2 C25TE(p68), TUE EC-2.5 H61FI(p158) FRI EH-6.1 ohoa oue...... C-. H (p118) THU (p78), CF-7.3 TUE . CD-P.13 . (p86) . . WED Mohammadreza . . CC-4.6 . Younesi, . . . Kosuke . . . Yoshioka, (p80) . (p119), TUE Naotaka THU ED-P.2 Yoshikawa, . EB-8.2 ...... Jun-ichi . . . . Yoshikawa, . . . . . Koki . (p143), . Yoshida, . THU Hahn .CJ-P.5 Hoon . . (p149) Yoon, . FRI . (p108) . . EI-4.3 WED . . . . JSI-P.5 . . . . (p139) . . . Seongwoo. . THU . . Yoo, . . CG-P.5 ...... (p76) Chaw-Keong . . . Yong, . TUE (p120) . . . . THU . CG-4.6 Yuya . . . CA-9.4 . . Yonezu, . . . . L. . . . . Bruce . . . . . Yoder, . . . . . Shawuti . . . . . Yingming, . (p36) . . . MON . . (p157) . Zhong . CE-2.2 FRI . Yin, (p127) . . . JSIV-3.5 . THU . (p79) . Shengqi . JSIV-1.3 TUE . Yin, . . Abdulaziz . CD-P.22 . . . . Yusuf ...... Yilmaz, . . (p162) . . . . FRI . Mustafa . . . . EH-6.4 . . Yildirim, ...... Xin . . . . . Yi, ...... Ailun . . . . Yi, . . . . . Filiz . . Yesilkoy, . . Jie Xi Yeo, e hca D35TE(p61), . TUE . . . CD-3.5 . . (p29) . . . MON Jesús . . JSV-1.1 . . . Yelo-Sarrión, ...... (p167), . . . FRI . . . . CI-5.3 Zhichao . . Ye, ...... (p41), . Yuting . MON Ye, . . CG-2.5 ...... Shengwei . Ye, ...... Peng Ye, e ay...... (p152), . . FRI . . . CJ-7.5 . . . . . Hanyu. . Ye, . . . (p49) . MON . . CA-P.13 . . . . . Yury . . . . . Yatsenko, . . . . Anatol . . (p45) . Yasukevich, . MON . (p104), Ryo EI-1.2 WED . Yasuhara, . CE-P.11 (p97) . . . WED . . (p153) . . . EA-4.2 . FRI . . Elif . . EF-8.6 . . . . . Yıldırım, . . . . Yapar . . . . (p56) . . . . TUE . . Kaiyuan . . Yao, EE-1.2 . . . . M. (p106) . . . . WED . Alison . . . Yao, EC-P.1 ...... Alison . . Yao, . . . . . Michael . . Yannai, . . Zhaoju Yang, ag ia C61FI(p146) FRI . . (p78) . CC-6.1 TUE . . . . CD-P.4 ...... (p139) ...... THU ...... PD-2.5 Yong . . . . Yang, ...... Yihao . . . . Yang, ...... Yi . Yang, . . . . Yan Yang, ag ia . . . . . (p32) . . MON . . .CF-1.6 ...... Sipan . . Yang, . Shang-Da. Yang, ag a E61WD(p89) WED CE-6.1 ...... (p77), . . . . TUE . . . . . CH-5.5 . . . Mingwei . . . . Yang, ...... Lan . . Yang, ...... (p110) (p108) . . . . THU WED . . . EI-P.1 CB-6.1 . Hui . . . . . Yang, ...... Hongzhi . . Yang, ...... Kazuhiro . . Yanagi, . . . Zhao Yan, a,Wi...... C-06TU(p128) THU . . . CE-10.6 . . (p68) . . . . TUE ...... CD-4.5 . . (p102) . . . . . WED . . . . . Wenchao .CC-P.14 . . . Yan, ...... Wei . (p164) . . Yan, . . FRI . . . . CJ-9.6 Kunlun. . . . Yan, . . . . . (p138) . . Jize. THU . Yan, . PD-1.8 . . . Masaaki . . Yamazaki, . . Kaoru Yamanouchi, aae esk ...... Keisaku Yamane, A76FI(p152) FRI EA-7.6 ∙ F51TU(11,C-06TU(p136) THU CH-10.6 (p111), THU EF-5.1 (p167) FRI (p163) CI-5.4 FRI CG-7.4 (p47), MON JSIII-2.4 (p79), TUE CD-P.24 J93FI(p160) FRI CJ-9.3 (p162) FRI CJ-9.4 (p159), FRI CJ-8.5 HP1 R (p170) FRI CH-P.12 JP1 H (p143), THU CJ-P.10 ∙ A76WD(p101) WED CA-7.6 ∙ ∙ ∙ ∙ J72FI(p146) FRI CJ-7.2 ∙ ∙ ∙ ∙ K1. R (p166) FRI CK-10.3 A55TU(p123) THU EA-5.5 SVP4FI(p173) FRI JSIV-P.4 F65TU(p123) THU EF-6.5 A11MN(p28) MON CA-1.1 I32TU(p118) THU CI-3.2 ∙ ∙ ∙ ∙ A34TE(p66), TUE CA-3.4 ∙ K34TE(p60) TUE CK-3.4 L55FI(p162) FRI CL-5.5 I32WD(p97) WED EI-3.2 C34TE(p75) TUE EC-3.4 I42FI(p156) FRI CI-4.2 u egi . . (p163) . FRI ...... CH-12.4 ...... Mengjie . . Yu, ...... Haoyi (p128) . . Yu, . . THU . . . . . CH-9.5 . Fei . . Yu, ...... Linda . . Young, . Christina Young, emei,Ians...... E-. R (p162) FRI (p82) WED EH-6.5 . . CB-3.1 ...... (p121) . . . . THU . Ioannis . . EC-5.4 . . Zeimpekis, . . . Anissa . . (p118) Zeghuzi, THU . . CA-9.3 Apostolos . . . . . (p160) Zdagkas, . . FRI Dimitris . . (p33) CJ-9.2 . . . Zavitsanos, MON . (p33) . Daria . EB-1.4 MON . . . . Zavirukha, . EB-1.4 . . . Tatiana . . . . . Zaushitsyna, . . . Bernhard . . . Zatoukal, . Kurt . . (p59) . Zatloukal, V. TUE (p142) Anton . THU CD-3.4 . . . EF-P.16 . . Zasedatelev, . . . . Faezeh ...... Zarrinkhat, . (p152), . Galina . FRI . . Zaretskaya, . CH-11.1 . Hans . . Zappe, . . . . . (p32), . . MON Franco CG-1.5 . Zappa, . (p69) (p118) . . TUE THU . . CF-3.1 CA-9.3 ...... Maximilian . . . . Zapf, . . . (p102) . Svetlana . WED . . Zapalova, . .CC-P.2 (p52) . . . Luca MON . . Zanotto, .EA-P.10 . . . Valentina. . . . Zannier, (p56) TUE Roberta. . (p150) . Zambrini, . FRI Xavier.CK-3.1 . . CG-6.5 . . . Zambrana-Puyalto, . . . Dobryna . . . Zalvidea, Anastasia Zalogina, Enrique (p113) THU Ignacio CK-4.3 . Zaldívar-Huerta, . (p74) Mohammed TUE Zaknoune, CD-5.5 . . . Sina . . . . Anaraki, ...... Zahedpour . . . Sina . . . Zahedpour, . Boris Zabelich, Z (p30), MON CB-1.2 . . . (p78) . . TUE . . CD-P.5 ...... Kresten . . Yvind, . . (p112), Alexander THU Yurkin, CG-5.2 . . . . . (p129), . . THU . . EE-3.2 . . . . . Junji . . Yumoto, . . . (p57), . . . TUE ...... CI-1.2 Alexey . . . . Yulin, . . . . . Alexander . . Yulaev, ...... (p86) . . . WED Yang. . . Yue, . CC-4.5 ...... Fangxin . Yue, . . Nikolay Yudin, (p30) MON CB-1.2 ...... (p146) . . . . FRI ...... CC-6.1 ...... (p46) . . . . MON Bocheng. . . . . Yuan, JSV-2.3 . . (p107) ...... WED . . Yi . . EH-P.1 . Yu, ...... Xiongbin . . Yu, ...... Shaoliang . . Yu, . . Renwen Yu, un uhn D25TU(p139) . . THU . . PD-2.5 ...... Yongjie . Yuan, (p130), . . THU Huihong CH-10.1 Yuan, ...... Guanghui Yuan, D81TU(p125) THU CD-8.1 HP1 R (p170) FRI CH-P.10 (p114) THU CG-5.5 (p133) THU CB-9.3 (p106) WED EC-P.14 (p144) THU CK-P.12 (p154), (p175) FRI FRI CM-8.3 CM-P.29 (p114), THU CM-4.4 (p151) FRI EF-8.5 (p143) THU CJ-P.6 (p49) MON CA-P.10 SV25TU(p137) THU JSIV-2.5 uhr'Index Authors' 198 ∙ CP1 E (p102) WED CC-P.11 ∙ ∙ ∙ ∙ ∙ ∙ ∙ BP2 O (p54) MON EB-P.22 ∙ AP3MN(p48), MON CA-P.3 A63TU(p135) THU EA-6.3 ∙ E31TU(p125) THU EE-3.1 ∙ F53TU(p113) THU EF-5.3 K12MN(p30) MON CK-1.2 D66WD(p87) WED CD-6.6 ∙ BP7MN(p50) MON CB-P.7 BP4MN(p53) MON EB-P.4 K71FI(p147) FRI CK-7.1 DP7TE(p78) TUE CD-P.7 hldv ioa ...... E-. O (p53), MON EB-P.6 ...... I. (p30), MON Nikolay .CE-1.2 Zheludev, . . (p141) . (p90) . THU . (p74) WED . EF-P.3 TUE . CF-5.2 . Nikolay. . . . CG-4.5 . . . Zheludev, ...... Innokentiy . . . . Zhdanov, . . . Vitali . . . (p67) . (p38), Zhaunerchyk, . TUE . MON . Yue EH-3.4 CA-2.3 . . Zhao, ...... Yongguang . . . Zhao, . . . (p57), . . TUE Yingqi . . Zhao, CI-1.2 . . . Xiaodong . (p90) . Zhao, . WED . (p90) . CH-6.2 . WED . . . . CH-6.2 ...... Wenqian . . (p118) . . . Zhao, . THU . . . CI-3.2 Qiancheng . . . . Zhao, ...... Haolan (p31), . . Zhao, MON . JSI-1.2 Changming (p50) . (p129) . Zhao, MON . THU . CB-P.7 . . EF-7.5 . . . . . (p138) . . . . . THU . . Zhongwei . . PD-2.3 . . . Zhang, ...... Yunshan ...... Zhang, ...... (p99) . . Yiqi . . WED . . Zhang, . . CA-7.5 . . . . . Yifei . . . . (p106) . . Zhang, . . WED . Q. (p57) . EC-P.8 Y. (p71) . TUE . . TUE . Zhang, . . CI-1.2 . . EB-5.2 . . Xuzhao ...... Zhang, ...... Xinzheng ...... Zhang, ...... Weigang . . . . . Zhang, . . . . . Wei . (p64), . . Zhang, TUE . . CD-4.2 Shuo (p111) . THU . Zhang, . . . .EH-4.1 ...... (p51), Shuangyou . . MON . Zhang, CI-P.3 . . (p118) . Shuang. THU . . Zhang, . CA-9.2 (p121) . . . THU . . . . . CE-9.3 . (p90) . . . . . WED . . Qiming . . . CB-4.3 . . Zhang, ...... Lizhen ...... Zhang, . . . . . (p54) . . . Liwei . (p93) MON . . . . WED Zhang, EB-P.18 ...... CA-6.4 . . Kevin ...... Zhang, ...... Jun. (p138) . . . . THU . Zhang, . . . . (p118) . .PD-1.2 Jihua . . (p118) THU . . . Zhang, . THU . CI-3.2 . . CA-9.2 . Jian ...... (p33) Zhang, . . . . . MON . . Hongyi. . . . JSI-1.5 . . Zhang, ...... Haiyang . . . . . Zhang, . . . . . Ge . . . Zhang, . . . . . Fanlu . (p68), (p146) . . Zhang, TUE FRI . CC-6.1 Dongfang .CG-3.3 . . . . Zhang, ...... (p139) Chunmei. . . . THU Zhang, . . . PD-2.5 . . Baile . (p93) . . . . Zhang, WED . . . CE-6.5 . Dongwei . . . . Zhai, . . . . . Chonghao (p142), . N. THU Zhai, CJ-P.1 Michalis . (p133) . . Zervas, THU . . . CB-9.2 ...... Michalis . . (p118) . . . Zervas, THU . . . . CA-9.2 . Yongquan (p175) . . . . FRI Zeng, . . . CM-P.35 . Xinglin ...... Zeng, . . . . Huangjun . . Zeng, . Arnas Žemaitis, elr il G41WD(p94) WED EG-4.1 . (p61) . . TUE . . CD-3.5 ...... Želudevi . . . . . Viola . . . Zeller, . Martin Zelan, G74FI(19,E-. R (p155), FRI EH-5.3 (p149), FRI EG-7.4 (p121), ∙ (p130), THU THU CE-9.3 CH-10.1 (p96), (p117), WED THU CE-7.2 CE-9.1 (p61), TUE EH-2.4 (p121) THU EC-5.4 (p120) THU CA-9.4 ∙ ∙ (p123) THU EF-6.6 (p72), TUE ED-4.3 (p147) FRI CK-7.1 (p139) THU CG-P.4 (p152) FRI CM-8.1 SV22TU(13,E-. R (p146), FRI EA-7.2 (p133), THU JSIV-2.2 (p143) THU CJ-P.6 (p108) WED JSI-P.1 č u,Jljns..C-.7WD(p104) WED CF-P.17 . . Julijanas ius, ∙ ∙ CP1 E (p102) WED CC-P.15 FP1 E (p103) WED CF-P.12 ∙ ∙ ∙ C13MN(p44) MON CC-1.3 D64WD(p85) WED CD-6.4 ∙ L13MN(p46) MON CL-1.3 ∙ D42TE(p70) TUE ED-4.2 C35TE(p77) TUE EC-3.5 ys oeh...... C-. H (p136) THU CK-6.6 . . . . (p64), . . TUE . . EI-2.3 ...... Joseph . . Zyss, . (p49) . . MON . . . . CA-P.11 ...... Val . . . . . Zwiller, . . G.. . . Petr . . Zverev, . . Petr Zverev, Óscar (p46) Zurrón-Cifuentes, MON .JSV-2.3 ...... Z . (p94), . WED Haijie. CM-3.1 Zuo, (p122) . . THU . . CB-7.3 . . . . Alessandro . . Zunino, . Jesus Zuniga-Perez, (p79), TUE CD-P.26 . (p60) . (p62) TUE . . TUE . EA-1.5 . CA-3.1 . (p51) Andrius . . . . MON . (p69) . . Zukauskas, . CB-P.17 . TUE . . Michael . . CH-4.6 . . . . . Zugenmaier, ...... Jonathan . . . . . Zuegel, ...... Fedor . . Zubov, . (p28), MON Joseba CF-1.1 Zubia, . . . . (p64) . . TUE . . EI-2.2 ...... (p44) . . David . . MON . . Zuber, . . JSV-2.2 . . . Clément (p102) . . . . WED . . Zrounba, . CC-P.9 . . . . Panaiot . . . . . Zotev, . . . . Daniele . . Zonta, . . Peter (p174), Zolliker, FRI (p150), CM-P.16 FRI . Mona CG-6.5 . Borra, . . . Zolfaghari (p99), . . WED . . . EF-4.4 . . . . . George . (p86) . . (p160) WED Zograf, . . FRI CC-4.5 ...... CD-11.2 (p98) ...... WED . . Mario . . . EG-4.4 . . . . Zitelli, . . . . . (p71) . . Mikhail . . TUE . . Zinovev, . . EC-3.2 . . . Attilio...... Zilli, . . . . Mathias . . . . . Zilk, . . . . . Oded ...... Zilberberg, . . . (p66) . Janis . TUE . (p51) . Zideluns, . (p45) EI-2.4 MON . . MON . CB-P.17 Darko . (p57) . . EI-1.2 . TUE . Zibar, ...... Yaroslav . .CI-1.2 . (p71) . . . . . TUE . Zhumagulov, ...... EB-5.2 . Alexey ...... Zhukov, ...... Xiaoyang . . . . Zhu, . . . . (p129) . Kunbi. . . THU (p94) . . Zhu, . . WED . EE-3.3 . . . Yiru. CE-7.1 . . . . . Zhou, . (p129) . . . . . THU . . . . Weidong . . CJ-5.4 (p46) . . Zhou, . . . MON . . . . . Lianrong ED-2.5 ...... Zhou, ...... (p77) . . Justin . TUE . . . Zhou, . . EC-3.5 ...... Gengji ...... Zhou, . . . . . (p29) . . . Feng . MON . . . . Zhou, . JSV-1.1 ...... Binbin . . (p104) . . Zhou, . . WED . . . CE-P.5 H...... Zhong, (p144) . (p118) . . THU . THU Chuyu . CK-P.12 . CA-9.3 . . Zhong, . (p158) . . . FRI . . Aleksandr . . . EH-6.1 . . Zhilin, ...... Aleksander (p95), . . . . WED Zhilin, . . . . . CE-6.6 . Yi . . . . . Zheng, . . . . (p87) Xuezhi . . WED . Zheng, . EG-2.6 ...... Lei . . Zheng, . Jian-Yao Zheng, ü DP1 U (p78) TUE CD-P.11 (p108) WED EI-P.4 (p107), WED EC-P.21 (p114), (p150) THU FRI CG-5.5 CG-6.5 (p37), MON CG-2.2 ∙ (p152) FRI CD-10.1 (p118), (p120), THU THU CD-7.2 CD-7.4 (p116), THU CD-7.1 (p80), TUE CD-P.33 ∙ (p30), MON CF-1.3 ∙ (p162) FRI CD-11.3 (p156) FRI CI-4.3 ∙ (p160) FRI EH-6.2 c,Mcal...... C-. O (p32), MON CG-1.5 ...... Michael rch, H1. R (p166) FRI CH-13.2 (p123) THU CE-9.5 (p174) FRI CM-P.18 (p162) FRI CK-9.4 ∙ ∙ EP1 E (p105) WED CE-P.12 KP2 H (p145) THU CK-P.20 ∙ ∙ ∙ K44TU(p115) THU CK-4.4 SI13MN(p31) MON JSII-1.3 S-. O (p42) MON JSV-2.1 ∙ I13TE(p59) TUE CI-1.3
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