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Nonlinear Optical Processes for Spectral Broadening and Short Pulse Generation Hongyu Hu University of Connecticut, [email protected]
University of Connecticut OpenCommons@UConn Doctoral Dissertations University of Connecticut Graduate School 1-13-2017 Nonlinear Optical Processes for Spectral Broadening and Short Pulse Generation Hongyu Hu University of Connecticut, [email protected] Follow this and additional works at: https://opencommons.uconn.edu/dissertations Recommended Citation Hu, Hongyu, "Nonlinear Optical Processes for Spectral Broadening and Short Pulse Generation" (2017). Doctoral Dissertations. 1353. https://opencommons.uconn.edu/dissertations/1353 Nonlinear Optical Processes for Spectral Broadening and Short Pulse Generation Hongyu Hu, PhD University of Connecticut, 2017 The dramatic progress in optical communication is attributed to the development of wavelength- division multiplexing and time-division multiplexing technologies, which employ broadband light source and ultrashort optical pulses respectively to carry signals in optical fibers. Supercontinuum generation is the spectral broadening of narrow-band incident pulses by the propagation through optical waveguides made of nonlinear materials. In this PhD dissertation, I show the design of a tapered lead-silicate optical fiber for supercontinuum generation. The physical mechanisms of optical pulse evolution are explained, which involve various nonlinear optical effects including self-phase and cross-phase modulation, stimulated Raman scattering, four-wave mixing, modulation instability and optical soliton dynamics. I have also proposed planar waveguides with longitudinally varying structure to manage chromatic dispersion, and numerically simulated the generation of (1) broadband and (2) flat octave-spanning supercontinuum output. The coherence property and noise sensitivity of supercontinuum are also investigated in this dissertation, which depend strongly on pumping conditions. A hybrid mode- locked erbium-doped fiber ring laser, which combines rational harmonic active mode-locking technique and graphene saturable absorber, has been designed and experimentally demonstrated to produce optical pulse train. -
Stronger Together – How Silicon Saxony Drives Cooperation & Innovation Silicon Saxony the Big Picture
STRONGER TOGETHER – HOW SILICON SAXONY DRIVES COOPERATION & INNOVATION SILICON SAXONY THE BIG PICTURE Leipzig Commission Dresden 2019, EU 2019, Chemnitz Microelectronics/ICT Scoreboard 64,000 employees 2,400 companies ▪ one of the most innovative regions in the EU* Every third chip Innovation*Regional ▪ Key areas: Mobility, Life Sciences, Mechanical produced in Europe Engineering, Microelectronics/ICT, Environmental and is “Made in Saxony” Energy Technology SAXONY IS THE #1 REGION FOR MICROELECTRONICS IN EUROPE SILICON SAXONY SAXONY – ONE OF THE MOST INNOVATIVE REGIONS IN EUROPE Saxony keeps top positions in innovation fields e.g.: ▪ Intelligent sensors / MEMS ▪ Automation technologies ▪ Mobile communication of the latest generation (5G) Saxony has highest concentration of Fraunhofer institutes all over Germany. Education & Research Institutes: 6 Universities, 14 Universities of Applied Sciences, 16 Fraunhofer Institutes (10 in Dresden), 6 Max Planck Institutes, 3 Helmholtz institutes, 6 Leibniz institutes 6000 scientists and engineers educated per year in Saxony ▪ around 50,000 students of Mathematics, Engineering and Natural Science courses (STEM) ▪ since 2012, TU Dresden is one of Germany‘s 11 Elite Universities SAXONY IS THE #1 REGION FOR RESEARCH IN GERMANY SILICON SAXONY WHAT WE CAN DO FOR YOU ✓ Silicon Saxony is the biggest network for Micro- and nano electronics, ICT and Software in Europe. ✓ We successfully supported international organizations with their partner search (projects, cooperation, business, ..) in Saxony and beyond. -
20 Jahre Silicon Saxony Ev Mehr Als „Nur“ Ein Netzwerk!
2020/2021 SACHSENS MIKROELEKTRONIK Neue Gesichter, neue Fabs, neue Herausforderungen AB SEITE 18 ZWEI STARKE REKTORINNEN Frischer Wind für HTW und TU Dresden AB SEITE 34 © istock.com / solarseven + ismagilov TOPTHEMA: 20 JAHRE SILICON SAXONY E. V. MEHR ALS „NUR“ EIN NETZWERK! AB SEITE 47 DRESDENS ERSTE ADRESSE FÜR BUSINESS-AUFENTHALTE! The whole spectrum ÜBERNACHTUNGEN & FIRMENEVENTS for semiconductor test IM BILDERBERG BELLEVUE HOTEL MEMS Test Cell Power Module Test Cell 2020 ABGESCHLOSSEN TAGEN IM GROSSEN STIL AUSSERGEWÖHNLICHE LOCATIONS RENOVIERUNG ALLER RENOVIERTER, MODERNER EMPFÄNGE & FIRMEN- ZIMMER BANKETTBEREICH MIT FEIERN MIT EINZIG- SAAL & FOYER ARTIGEM CHARAKTER SPEA Semiconductor Equipment stands for Neue Zimmer: gemütlicher Komfort und Saal Bellevue mit mobilen Trennwänden Exklusive In- & Outdoorlocations · vielfäl- highest precision, flexibility and productivity. state of the art · High Speed WLAN für und moderner Technik · großzügige Aus- tige Räume für Galas, Dinner und Emp- Our turnkey solution combines the elements bis zu 5 Devices · Individuelle Kommuni- stellungs- und Cateringfläche · direkter Zu- fänge · z.B. Atrium, Vinothek, Bierclub, of handling, contacting and complete testing kation und Infos über Betterspace-Tablets gang zu Terrasse und Garten · Veranstal- Canaletto Restaurant & Biergärten of the devices. tungen für bis zu 850 Personen · Meeting ON TOP Concierge Zentrale Lage und A single equipment gute Anbindung Mems & Sensors Safe Meetings und to test of your Buy Outs ICs, MEMS 640 qm Power ID Wellnessbereich or IGBTs Green Certified SOCs Converters PMICs Automotive Ihre Anfrage richten Sie an +49 351 805 1717 Bilderberg Bellevue Hotel Dresden · Große Meißner Straße 15 · 01097 Dresden oder [email protected] www.bilderberg-bellevue-dresden.de INHALT © TRUMPF © Globalfoundries © HZDR Liebe Leserinnen und Leser, HARDWARE SOFTWARE SILICON SAXONY NEUE KOMPETENZEN 6 Vision für Europa 16 Digitalisierung 12 Corona Neue Mitglieder herzlich willkommen im Interview mit Dr. -
A High Tech Location in Germany
COMPANIES FROM SAXONY – A HIGH TECH LOCATION IN GERMANY NANO TECH TOKYO FEBRUARY 14 – 16, 2018 EAST HALL 5, BOOTH 5J-13 2 Supported by Saxon State Ministry for Economic Saxony Economic Development Affairs, Labour and Transport Corporation Wilhelm-Buck-Str. 2 Bertolt-Brecht-Allee 22 01097 Dresden 01309 Dresden Tel.: +49 351 5640 Tel.: +49 351 2138 0 Fax: +49 351 5648 068 Fax: +49 351 2138 399 [email protected] [email protected] www.smwa.saxony.de www.business-saxony.com European Union European regional development fund Europe funds Saxony! 3 NANOTECHNOLOGY Saxony Economic Development Corporation Bertolt-Brecht-Allee 22 IN SAXONY 01309 Dresden Tel.: +49 351 2138 0 Fax: +49 351 2138 399 With 200 companies specialized in nanotechnology Saxony belongs to [email protected] Germany’s top 5 locations. Saxony is characterized by a tight network www.business-saxony.com of producing industries and suppliers that give impetus to the develop- ment and economic use of nanotechnologies and open up new chan- nels. Thus, nanotechnology experts benefit from close exchange with the microelectronics / ICT (»Silicon Saxony«), mechanical engineering and automobile industries, which are particularly strong in Saxony. When it comes to nanoanalysis, nanoelectronics, functional nano- layers, ultra-thin layers and materials in particular, Saxony’s com- panies and research institutes are at the top of the European field. Some of Europe’s leading research institutions for nanoelectronics can be found in Saxony – e.g. the Nanoelectronic Materials Laboratory gGmbH (NaMLab) and the Dresden Center for Nanoanalysis (DCN) at Dresden University of Technology or the Center Nanoelectronic Tech- nologies CNT at the Fraunhofer Institute IPMS Dresden. -
20 Annual 20 Report Your Specialty
20 ANNUAL 20 REPORT We empower YOUR SPECIALTY FOUNDRY FOR THE ANALOG WORLD the future. Annual Report 2020 | Contents CONTENTS 1. Letter to our stakeholders . 04 4.11 Financial instruments . 45 4.12 Derivative financial instruments . 48 4.13 Inventories . 48 2. X-FAB at a glance . 06 4.14 Cash and cash equivalents . 48 4.15 Equity . 48 4.16 Provisions . 48 3. Our culture. .08 4.17 Leases. 49 4.18 Subsidies . 50 4.19 Income taxes . 50 4. Our business . 12 4.20 Changes to accounting policies . .51 5 Business combinations . 52 5. X-FAB consolidated financial statements . 26 6 Notes to the consolidated statement 5.1 Summary of important developments . 26 of profit or loss. .52 6.1 Revenue . 52 5.2 Statement of the Board of Directors . 27 6.2 Cost of sales. 53 6.3 Research and development expenses. 53 5.3 Statutory auditor’s report to the general 6.4 Selling expenses . 53 meeting of X-Fab Silicon Foundries SE on the 6.5 General and administrative expenses . .53 consolidated financial statements as of and 6.6 Expenses by nature . .53 for the year ended December 31, 2020 . 27 6.7 Rental income from investment properties . 54 5.4 Consolidated financial statements . 32 6.8 Rental expenses related to investment properties . 54 Notes to the consolidated financial statements 6.9 Other income . 54 6.10 Other expenses . 54 1 Basic information and description of the X-FAB 6.11 Finance income. 55 Silicon Foundries SE Group’s business . 39 6.12 Finance costs . -
FABRICATION of SU-8 MICROSTRUCTURES for ANALYTICAL MICROFLUIDIC APPLICATIONS Doctoral Dissertation
TKK Dissertations 58 Espoo 2007 FABRICATION OF SU-8 MICROSTRUCTURES FOR ANALYTICAL MICROFLUIDIC APPLICATIONS Doctoral Dissertation Santeri Tuomikoski Helsinki University of Technology Department of Electrical and Communications Engineering Micro and Nanosciences Laboratory TKK Dissertations 58 Espoo 2007 FABRICATION OF SU-8 MICROSTRUCTURES FOR ANALYTICAL MICROFLUIDIC APPLICATIONS Doctoral Dissertation Santeri Tuomikoski Dissertation for the degree of Doctor of Science in Technology to be presented with due permission of the Department of Electrical and Communications Engineering for public examination and debate in Large Seminar Hall of Micronova at Helsinki University of Technology (Espoo, Finland) on the 2nd of February, 2007, at 12 noon. Helsinki University of Technology Department of Electrical and Communications Engineering Micro and Nanosciences Laboratory Teknillinen korkeakoulu Sähkö- ja tietoliikennetekniikan osasto Mikro- ja nanotekniikan laboratorio Distribution: Helsinki University of Technology Department of Electrical and Communications Engineering Micro and Nanosciences Laboratory P.O. Box 3500 FI - 02015 TKK FINLAND URL: http://www.micronova.fi/units/mfg/ Tel. +358-9-4511 Fax +358-9-451 6080 E-mail: [email protected] © 2007 Santeri Tuomikoski ISBN 978-951-22-8606-5 ISBN 978-951-22-8607-2 (PDF) ISSN 1795-2239 ISSN 1795-4584 (PDF) URL: http://lib.tkk.fi/Diss/2007/isbn9789512286072/ TKK-DISS-2260 Picaset Oy Helsinki 2007 AB HELSINKI UNIVERSITY OF TECHNOLOGY ABSTRACT OF DOCTORAL DISSERTATION P. O. BOX 1000, FI-02015 -
Energy Saxony
ing·Working·Learning·RESEARCHING·PRODUCING·INVENTING·TRANSPORTING· THIN SAxony! INVENTING·LiVING·THINKINGA Place·Li in MotionVing·RESEARCHING·DeVeLoPING·LiVING·Learning LiVING·TRANSPORTING·LiVing·Working·Learning·reSearching·PRODUCING ·DeVeLoPING·Learning·THINKING·INVENTING·TransporTing·LiVing· a·PRODUCING·RESEARCHING·Working·LiVing·DeVeLoPING·Learning ·Learning·RESEARCHING·TransporTing·INVENTING·PRODUCING·THINKING·DeVeLoPING· ing·RESEARCHING·DeVeLoPING·LiVING·Learning·RESEARCHING·Working· Mobile DynaMic Flexible active vivacious Passionate 28 Infrastructure & Economy & Education, Training Research & Culture, Nature Location 6 Industry Sectors 9 & Qualification 14 Cooperation 18 & Recreation 23 Infrastructure – »Autoland Saxony« 10 Universities with Vibrant Research 19 Where Classic Meets Facts and Figures 8 Tradition 16 Cult 24 The Cradle of Science – Facts and Exceptional Studies 16 Custom-made Logistics 8 German Mechanical Figures 19 Vibrant Cities 25 Engineering 11 Practice-oriented (Cultural) Landscapes Vocational Training 16 Excellent University Economy – Facts and Research 20 26 Figures 12 Research as an Incen- From Water to »Silicon Saxony« 12 tive for Investments 20 Winter Sports 27 Environmental Focusing on the Technology and Future 22 Life Sciences 13 Source: Saxony Economic Development Corporation (WFS – Wirtschaftsförderung Sachsen GmbH) Company/Institution URL Company/Institution URL Infrastructure & Location Research & Cooperation DHL Leipzig Hub www.dp-dhl.de/leipzig AZZURRo Semiconductors AG www.azzurro-semiconductors.com -
ECE 493-Lasers
Lasers L.A.S.E.R. LIGHT AMPLIFICATION by STIMULATED EMISSION of RADIATION History of Lasers and Related Discoveries 1917 Stimulated emission proposed by Einstein 1947 Holography (Gabor, Physics Nobel Prize 1971) 1954 MASER (Townes, Basov, Prokhorov, Physics Nobel Prize 1964) but 1 st maser constructed by Maiman in 1960 1958 LASER: optical maser (Laser spectroscopy by Schawlow, Bloembergen, Physics Nobel Prize 1981) 1960 Ruby Laser: 1 st laser 1963 Semiconductor heterostructures (Alferov, Kroemer, Physics Nobel Prize 2000) 1970 Corning glass (optical fiber) 1980 Laser cooling of atoms (Chu, Cohen-Tannoudki, Phillips, Physics Nobel Prize 1997) Applications of Lasers CD Countermeasures DVD Dazzler Blu-Ray Surgery Bar code Laser welding Internet Engraving Laser pointer Curing (dentistry) Laser sight (targeting) Optical tweezer Speed measurement Laser printing Laser distance meter Alignment LIDAR (light detection and Holography ranging) Laser bonding Projection display Free space communications Spectroscopy (Raman, PL…) Microscopy WHAT ELSE, WHAT CAN YOU Laser cooling ADD TO THE LIST? … Nuclear fusion Spectral Range of Existing Lasers Types of Lasers Gas Lasers (1 m) Solid State Lasers (1 cm) Semiconductor (Diode) Lasers (1 µm) Types of Lasers Continuous Wave Operation Pulse Mode Operation Pout Pout Pulse width Ppeak 0t 0 t Period • Higher peak powers • Duty cycle (%) • Average powers Green Laser Pointer • Green light is from frequency doubling (2 photons combine energy into 1) • More generally: non linear optical effects i.e. add or subtract frequencies How a CD/DVD Laser Works http://micro.magnet.fsu.edu/primer/java/lasers/compactdisk/index.html Fundamentals of Lasers Consider a two-level system (excited level state and ground level state). -
Über Den Rasanten Aufstieg Der Elektronikindus
A4-REPORT Vom Problemfall zum Selbstläufer Über den rasanten Aufstieg der Elektronikindus Dresden, die sächsische Metropole am östlichen Ende der Autobahn A4 bezeichnet sich als das größte Halbleiterzen- trum in Europa und fünfwichtigster Standort auf der Welt. Im Großraum Dresden, auch Silicon Saxony genannt, sind in der Mikroelektronik und Informationstechnologie 43 000 Mitarbeiter in 1500 Unternehmen beschäftigt. Ebenso wich- tig ist der Thüringer Teil der A4, hier sind rund 9000 Mitarbeiter in 160 Unternehmen tätig. elektronik industrie hat sich beide Wirtschaftsräume und wesentliche Elektronikfirmen einmal näher betrachtet. Der Report findet seine Fort- setzung in weiteren Ausgaben ab Mai 2007. [Worbis] .)%$%23!#(3%. +ASSEL "ERLIN ./2$(!53%. ! "!$ &2!.+%. (!53%. [Hermsdorf] (%33%. -e(,(!53%. ! -AINZ 3/--%2$! 3!#(3%. !.(!,4 "ERLIN %)3%.!#( ! %2&524 7%)-!2 "!$ 3!,:5.'%. *%.! ! !,4%."52' '%2! ! $RESDEN ! '2%): 3!#(3%. ! %)3&%,$ 3/..%"%2' !54/"!(. [Meiningen]7~RZBURG !54/"!(. )- "!5 (Karte: LEG Thüringen) )#% ). "!50,!.5.' "!9%2. [Lehesten] [Wutha-Farnroda] [Suhl] [Ilmenau] [Mellenbach-Glasbach] [Posterstein] 78 elektronik industrie 4 - 2007 Entdecken Sie weitere interessante Artikel und News zum Thema auf all-electronics.de! Hier klicken & informieren! A4-REPORT trie entlang der Autobahn A4 [Ottendorf-Okrilla] [Radeberg] [Radeberg-Rossendorf] [Bad Schandau] [Bannewitz] [Reinhardtgrimma] [Freiberg] [Gornsdorf] (Karte: Wirtschaftsförderung Sachsen GmbH) [Grünhain-Beierfeld] Weitere Firmen in Dresden: elektronik industrie 4 - 2007 79 A4-REPORT Es ist gerade drei Monate her, da ver- Rückblick buchte Sachsen einen wichtigen An- Die Geschichte der Halblei- siedlungserfolg: Am 3. Januar teilte das terindustrie Sachsens und Thü- britische Unternehmen Plastic Logic in ringens beginnt 1959, als Pro- London mit, dass es 2008 in Dresden die fessor Werner Hartmann in weltweit erste Fabrik für elektronisches Dresden von der Entwicklung Papier errichten werde. -
Note Silicon Saxony Day 2010
AMBASSADE DE FRANCE EN ALLEMAGNE SERVICE POUR LA SCIENCE ET LA TECHNOLOGIE Berlin, le 20 mai 2010 Rapprochement entre Dresde et Grenoble lors du salon Silicon Saxony Day 2010: 1. La région de la Saxe La Saxe (Sachsen), est le Länder le plus peuplé de l'Allemagne de l'Est et le 6 ème au niveau fédéral. Il a une frontière commune avec la Pologne et la République tchèque. Les villes les plus importantes sont Dresde et Leipzig avec environ 515.000 habitants. En 2007, son PIB de 93 milliards d’euros représente 3,8% de celui du pays, tandis que son PIB/habitants de 22,1 k€ le place en dessous de la moyenne nationale (29 k€) et de l’ensemble des régions françaises, bien que ce soit la meilleure performance pour les Länder de l’Est (hors Berlin). L'économie saxonne s’appuie sur les secteurs traditionnels comme les mines, le bâtiment, l’automobile, mais aussi sur des technologies de pointe comme la microélectronique, l'énergie et les biotechnologies . Le tissu industriel se compose d’environ 150.000 entreprises en majorité des PME. 0,1% des entreprises ont plus de 500 employés et réalisent plus de 50 millions d’euros de chiffre d’affaires. En 2008, le secteur des hautes technologies emploie 55 % des salariés de la Saxe. Dans la branche des nanotechnologies, 80 entreprises (sur 500 pour l’ensemble de l’Allemagne) sont implantées à Dresde et sa région, ainsi que 40 centres de recherche spécialisés dans ce domaine. En plus de ses quatre Universités Techniques (Dresde, Chemnitz, Freiberg et Leipzig) comptant plus de 75.000 étudiants, la Saxe comporte plus de 50 instituts de recherche extra-universitaires. -
Smart Polymer Parts. Industrialized
Smart Polymer Parts. Industrialized. biosciences.sonydadc.com Sony DADC BioSciences Meeting the challenges of today’s life science Our unique range of services & and IVD markets competencies The life sciences and IVD markets continue to grow rapidly · Design for manufacturing driven by both scientific and technological innovation, as · Mastering of micro-features such as channels, well as patient demand. Sony DADC helps companies glob- microwells, micropillars ally respond to the continuing challenges this growth brings · Plating by offering OEM development, mass manufacture and sup- · High precision optical injection molding ply of polymer-based smart consumables. · Automated bonding and lamination of Our services range from design for manufacturing to prototyping, microfluidic chips up-scaling and mass manufacturing, content filling and packaging · Electrode printing on polymers to global logistics. · Surface coating techniques Manufacturing is centered in Salzburg, Austria at our ISO 13485, · Reagent / content loading ISO 14001 and ISO 27001 certified facility. · Automated assembly Already we have delivered solutions to a number of life science · Application QC and IVD innovators, including a consumable chip for Caliper’s · Packaging LabChip®XT platform, RainDance Technologies’ Sequences Enrich- · Logistics including global warehousing, end-user ment Chip and MALDI-MS slides for Shimadzu Corporation. distribution and cash-collection The advantages of working with Sony DADC for your business We aim to help life science, diagnostics and pharmaceutical companies significantly increase their business by: · Establishing long term partnerships for the seamless supply world wide of smart consumables · Providing high quality devices to maximize the number of satisfied consumers who use your products and services · Helping you to capitalize on new and innovative technolo- gies and business models FSBIOS0114E01 ≥ DESIGN ≥ PROTOTYPING ≥ MASTERING ≥ MOLDING ≥ COATING ≥ BONDING ≥ CONTENT LOADING ≥ ASSEMBLY ≥ PACKAGING ≥ LOGISTICS Smart Polymer Parts. -
A European Roadmap for Photonics and Nanotechnologies Contents
A European roadmap for photonics and nanotechnologies Contents Contents ................................................................................................................................................2 1. Executive summary ....................................................................................................................6 2. Introduction and acknowledgements....................................................................................9 3. Roadmapping methodology..................................................................................................10 4. Applications and devices .......................................................................................................14 4.1. Applications........................................................................................................................................................14 4.2. Devices ................................................................................................................................................................16 4.3. Nanophotonics benefits for each application ..............................................................................................17 4.3.1. Flat Panel Displays...............................................................................................................17 4.3.2. Photovoltaics .......................................................................................................................17 4.3.3. Imaging...............................................................................................................................17