General Information ...... 5 Symposium on Photoreceptor Analysis and Single-cone-mediated Vision ...... 16 Conference Services ...... 5 Laser Science Symposium on Undergraduate Research . . . . 16 First Aid and Emergency Information ...... 6 Symposium on Optics for Global Health and Low Resource Sponsoring Society Booths ...... 6 Settings ...... 17 Stay Connected Symposium Honoring Adolf Lohmann ...... 17 Conference Materials ...... 7 Symposium on Optical Remote Sensing for the Climate . . . . 17 FiO/LS Mobile App ...... 8 Symposium on Applications of Low Noise Frequency Combs . . 18

Conference Plenary Session and Awards Ceremony Special Events ...... 19 Plenary Presentations ...... 9 APS Arthur L. Schawlow Prize and Lecture ...... 10 Exhibition Information ...... 23 Frederic Ives Medal /Jarus W. Quinn Prize Presentation FiO/LS Committees ...... 24 and Lecture ...... 10 OSA Awards and Honors ...... 11 Explanation of Session Codes ...... 25

Awards and Special Recognitions FiO/LS Agenda of Sessions ...... 26 OSA Foundation Boris P. Stoicheff Memorial Scholarship . . . . 13 OSA Foundation Emil Wolf Outstanding Student Paper FiO/LS Abstracts ...... 34 Competition ...... 13 FiO/LS Subject Index ...... 116 OSA Foundation Incubic/Milton Chang Travel Grant ...... 13 OSA Foundation Jean Bennett Memorial Student Travel Grant . . 13 Key to Authors and Presiders ...... 125 OSA FoundationStudent Travel Grants ...... 13 OSA Foundation Robert S. Hilbert Memorial Student Travel Grant 14 Carl E. Anderson Award for Outstanding Doctoral Dissertation . 14

Program updates and changes may be found on the Conference Program Update Sheet distributed in the registration bags.

FiO/LS 2015 • 18–22 October 2015 1 Conference Schedule-at-a-Glance Sunday Monday Tuesday Wednesday Thursday 18 October 19 October 20 October 21 October 22 October General & Exhibits Registration 12:00–18:30 07:00 –18:00 07:00–18:00 07:00–18:00 07:30–17:30 Speaker Ready Room 12:00–18:00 07:00–18:00 07:00–18:00 07:00–18:00 07:30–15:30 Coffee Breaks 10:00–10:30 09:30–10:00 09:30–10:00 10:00–10:30 15:30–16:00 14:30–15:00 15:30–16:00 15:00–15:30 Exhibition 09:30–16:00 09:30–14:00 Unopposed Exhibition-only Times 09:30–10:30 09:30–11:00 12:00–13:00 12:30–13:30 14:30–16:00 Programming Townes Memorial Symposium: Reminiscences – Scientific and Personal 16:30–18:30 FiO/LS Technical Sessions 08:00–15:30 10:30–18:00 11:00–18:00 08:00–17:30 Symposium on Photoreceptor Analysis and Single-cone-mediated Vision 08:00–10:00 Laser Science Symposium on Undergraduate Research 10:00 - 16:00 Symposium on Optics for Global Health and Low Resource Settings 13:30–15:30 IYL – Science to Solutions 16:00–18:00 Joint FiO/LS Plenary & Awards Sessions 08:00–09:30 08:00–09:30 Joint FiO/LS Poster Sessions 14:30–16:00 09:30–11:00 Symposium Honoring Adolf Lohmann 11:00–18:15 Symposium on Optical Remote Sensing for the Climate 13:30–15:00 FiO Postdeadline Paper Sessions 20:00–22:00 Symposium on Applications of Low Noise Frequency Combs 13:00–17:30 Special Events OSA Student Chapter Leadership Meeting (Invitation only) 07:00–17:00 Townes Memorial Reception (sponsored by Thorlabs) 18:30–20:00 OSA Student Member Reception 19:00–22:00 Frontiers in Photonic Detection Panel Discussion 12:00–13:30 Nonlinear Optics Technical Group Workshop 12:00–13:30 OSA Fellow Members Lunch (invitation only) 12:00–13:30 Meet OSA’s Journal Editors 18:00–19:00 OSA Microscopy and Optical Coherence Tomography Technical Group Poster Session 18:00–19:00 International Year of Light/OSA President’s Reception 18:30–20:30 Optical Material Studies Technical Group 12:00–13:30 Better than Fakin’ it Good: Multifunctional Bioreplication 12:00–13:30 OSA Student Chapter Competition 14:30–16:00 Minorities and Women in OSA (MWOSA) Networking Reception 16:00–17:00 Exhibitor Appreciation Reception (Sponsored by OSA Industry Development Association) 16:00–17:00 OSA Annual Business Meeting 17:00–17:45 DLS Annual Business Meeting 17:00–18:00 OSA Member Reception 18:30–20:30 Laser Science Banquet 19:00–22:00 VIP Industry Leaders Networking Event 12:30–14:00 Meet the Editors of the APS Journals 13:00–14:30 OSA Science Educators’ Day 17:00–20:00 Optical Fabrication and Testing Technical Group Networking Event 18:00–20:00 OIDA Town Hall Forum on Biophotonics Challenges and Opportunities 18:00–20:00 Note: Dates and Times are subject to change. All times reflect Pacific time zone.

2 FiO/LS 2015 • 18–22 October 2015 Welcome to Frontiers in Optics 2015

Welcome to San Jose, California—one of the premier centers of optics and photonics research • FiO is pleased to announce the 7th annual Emil Wolf Outstanding Student Paper in the USA. We are pleased that you have chosen to join us for the 2015 Frontiers in Optics Competition. One award winner will be selected from each of the seven FiO sub- (FiO) conference, the 99th Annual Meeting of The Optical Society. committees. Selections will be made based on the quality of the submitted technical This year’s conference encompasses the breadth of optical science and engineering and summary and presentation. Winners will be announced at the end of the conference provides an atmosphere that fosters the exchange of information between those work- and in the next issue of Optics & Photonics News (OPN). ing on fundamental research and those looking for solutions to engineering problems. On • Tuesday and Wednesday, while you are enjoying the poster sessions and the coffee behalf of the FiO Subcommittee Chairs, we would like to thank our colleagues from the breaks in the Exhibit Hall and/or taking breaks from the presentations, please see Division of Laser Science (DLS) of the American Physical Society (APS) for assisting in cultivat- the latest in scientific and optical instrumentation and information that our exhibitors ing joint topics and sessions that will greatly enhance the experience of the attendees at have on display! FiO 2015. • Science Educators’ Day will be held on Wednesday, 22 October, from 17:00–20:00, The technical program features over 700 invited, contributed oral and poster presentations in the Regency Ballroom I. Hosted by The Optical Society, Science Educator’s Day by celebrated members of the community describing some of the most exciting advances (EDAY) provides middle and high school science teachers with a wide variety of in their fields. Special symposia and other major events further highlight major advances in optics-focused lesson plans and classroom demonstration guides. EDAY attendees many selected areas. receive materials that can be used in middle and high school classrooms. Joss Bland-Hawthorne, University of Sydney, Australia, the FiO plenary speaker, will We welcome you to FiO 2015 and encourage you to take full advantage of the benefits of speak on Astrophotonics: Future Developments in Astrophysics and Instrumentation at this year’s social and networking opportunities, technical sessions, corporate programming, the Wednesday Plenary Session. James G. Fujimoto, MIT, USA, winner of the OSA 2015 poster sessions and exhibition! Frederic Ives Medal/Jarus W. Quinn Prize, will also give an address at the Tuesday Plenary session. They will be joined by the LS plenary speaker David Reitze and the recipient of the APS 2015 Arthur L. Schawlow Prize in Laser Science, Christopher Monroe. FiO is pleased to feature several special symposia – The Townes Symposium: Reminiscences – Scientific and Personal (Sunday, 18 October, 16:30–18:30); the Symposium on Photore- ceptor Analysis and Single-cone-mediated Vision (Monday, 19 October, 08:00–10:00); the Symposium on Optics for Global Health and Low Resource Settings (Monday, 19 October, 13:30–15:00); the Symposium on Optical Remote Sensing for the Climate (Wednesday, 21 October, 13;30–15:30); and the Symposium Honoring Adolf Lohmann (Wednesday, 21 October, 11:00–18:15); the Symposium on Applications of Low Noise Frequency Combs (Thursday, 22 October, 13:00–17:30). Details about all the symposia are David Hagan Nikola Alic listed on the Symposia pages of this program. General Chair General Chair Univ. of Central Florida, CREOL, USA This year’s meeting is filled with many informational and networking events. Some of the Univ. of California at San Diego, USA highlights of FiO 2015 include the following: • The Townes Memorial Symposium will be immediately followed by a reception on Sunday, 19 October, from 18:30–20:00. • OSA Students will be welcomed at the OSA Student Member reception on Sunday, 19 October from 19:00–22:00. • The International Year of Light – Science to Solutions Special Session will be held on Monday, 19 October, 16:00–18:00 followed by the International Year of Light/OSA Presidents Reception from 18:30–20:30. • If you are an OSA member, be sure to join us at the OSA Member Reception on Tuesday, 20 October, from 18:30–20:30. Nozomi Nishimura Ronald Reano Program Chair Program Chair • Late-breaking advances in optics will be presented on Wednesday, 21 October, in Cornell Univ., USA Ohio State Univ., USA the FiO Postdeadline Paper Sessions, running from 20:00–22:00.

FiO/LS 2015 • 18–22 October 2015 3 Welcome to Laser Science 2015

The leadership of the Division of Laser Science (DLS) of the American Physical The technical sessions for the Laser Science meeting are organized around several Society (APS) is pleased to welcome you to our 31st annual meeting, Laser Science broad themes: Accelerating Beams in Optics and Beyond; Innovative Metallic- (LS) 2015, in San Jose, California, 18–22 October 2015. We are grateful for the help Emitter Coupled Systems; Semiconductor Nanooptics; Novel Fiber Lasers; Com- of our colleagues and technical program committee members, Ido Kaminer, Josh putational Optical Imaging; Advances in Nonlinear Laser Spectroscopy; and Light Hendrickson, Sangam Chatterjee, Nasser Peyghambarian, Lei Tian, Jesse Wilson, Propagation in Scattering Media. Also of special note is an International Year of Dylan Yost, and Jeff Field, in organizing a broad range of topics in physics, biology Light – Science to Solutions Special Session (Monday, 19 October, 16:00–18:00). and chemistry. Our DLS business meeting will be held Tuesday, 20 October from 17:00 to 18:00 in This year’s program includes many of the areas at the forefront of laser science the Belvedere Room. The Laser Science banquet will be Tuesday evening, follow- that are customarily found at the annual DLS meeting, as well as a tutorial by ing the business meeting at the Gordon Biersch restaurant from 19:00–22:00. Eli Yablonovitch on “Can Opto-Electronics Provide the Motive Power for Future We welcome you to the Laser Science 2015 Meeting and encourage you to take Vehicles?” We have collaborated with our colleagues in The Optical Society to full advantage of this year’s technical and poster sessions, symposia, and plenary coordinate schedules to encourage your intellectual wanderings between DLS and lectures, as well as an exhibit hall showcasing leading suppliers to the laser science OSA sessions. community. In addition to an outstanding technical program, there are many exciting special Enjoy! symposia and events scheduled for the meeting this year. Special attention is appropriate for the Symposium on Undergraduate Research on Monday, which showcases the work of some of our youngest scientists. The Symposium will feature a special poster session to present the work of selected undergraduate researchers. David Reitze, California Inst. of Technology, USA, the LS plenary speaker, will speak on LIGO and the Coming Dawn of Gravitational Wave Physics and Astronomy at the Plenary Session and Awards Ceremony, Tuesday, 20 October from 08:00–09:30. Christopher Monroe, University of Maryland, USA, winner of the APS 2015 Arthur L. Schawlow Prize in Laser Science, will give his address on Wednesday, 21 October. They will be joined by the FiO plenary speaker and the recipient of the OSA 2015 Frederic Ives Medal/Jarus W. Quinn Prize. Galina Khitrova Randy Bartels Conference General Chair Conference Program Chair Univ. of Arizona, USA Univ. of California Davis, USA

4 FiO/LS 2015 • 18–22 October 2015 General Information General Information

Conference Services Media Room Hours Lost and Found Sunday, 18 October 12:00–16:00 For Lost and Found please check first at the confer- Registration Monday, 19 October 07:30–18:00 ence registration counter in the Market Street Foyer. Market Street Foyer Please put your name on all conference materials Tuesday, 20 October 07:30–18:00 Registration Hours (including your Conference Program), as they will Wednesday, 21 October 07:30–18:00 only be replaced for a fee. Sunday, 18 October 12:00–18:30 Thursday, 22 October 07:30–12:00 Monday, 19 October 07:00–18:00 Special Needs Tuesday, 20 October 07:00–18:00 E-Center If you have a disability and require special accommo- Wednesday, 21 October 07:00–18:00 Market Street Foyer dations in order to fully participate in this conference, please contact Conference Management at the regis- Thursday, 22 October 07:30–17:30 The E-Center, offering free internet connectivity, will tration desk. Your specific needs will be addressed. be open Sunday through Thursday during registration Speaker Preparation Room hours. WiFi Access Instructions Paseo Exhibition To access the complimentary wifi services during the Speakers and presenters are encouraged to stop by Tuesday, 20 October, 09:30–16:00 and FiO/LS Conference, use the following information the Speaker Preparation Room to test their computers Wednesday, 21 October, 09:30–14:00 to log in. If you require more detailed instructions, and presentations prior to their session. The room will Imperial Ballroom a step-by-step access guide is available at the FiO be equipped with LCD projectors and screens. Com- registration desk. puters will be available to test presentations. The FiO Exhibit is open to all registered attendees. Visit a diverse group of companies representing every SSID: FIO2015 Speaker Preparation Hours facet of the optics and photonics industries. For more Password: IYL2015 Sunday, 18 October 12:00–18:00 information, see page 23. Women in Optics Monday, 19 October 07:00–18:00 FedEx Office (Business Center) Women have made great contributions to science, Tuesday, 20 October 07:00–18:00 +1 408.299.0424 but there have very often been major barriers and Wednesday, 21 October 07:00–18:00 Access your office when you’re away from the office obstacles placed in their path. Despite accounting for Thursday, 22 October 07:30–15:30 at the FedEx Office Print and Ship Center. With pre- nearly half of the college-educated workforce, women mium printing, copying and binding right on site, you in 2010 accounted for less than one-third of S&E employment. Although the number of women in S&E Media Room can have all of your materials printed to handle any last-minute surprises. Business Center is available 24 jobs has risen significantly in the past two decades, Redwood hours a day with guest room key accessibility. the disparity has narrowed only modestly. In recogni- A staffed media room is available for credentialed tion of the women in optics, we have placed a FedEx Office Hours members of the media. Badges for pre-registered symbol by the abstracts of the many women present- reporters and reporter registration are in the media Monday–Friday 08:00–17:30 ers who are contributing to this year’s program. room along with press kits, internet connectivity and Saturday–Sunday Closed printer, quiet work space and conference information.

FiO/LS 2015 • 18–22 October 2015 5 First Aid and Emergency Information APS Booth International Year of Light Booth In the event of an emergency at the Fairmont San Founded in 1899, the American Physical Society (APS) How are you celebrating the International Year of Jose hotel, go to the nearest house phone and dial is a non-profit membership organization working Light? Visit the International Year of Light Booth near “50”, advise the operator of your identity and loca- to advance and diffuse the knowledge of physics. Registration to join the global movement to celebrate tion so they can better assist you. Please only use 911 APS publishes the world’s most widely read physics light. The International Year of Light and Light-Based in the event of a serious situation. research and review journals: Physical Review Letters, Technologies (IYL 2015) is a global initiative to raise Physical Review X, Reviews of Modern Physics, Physi- awareness of how optical technologies promote If you have a Security concerns for yourself or others cal Review A-E, Physical Review Applied, Physical sustainable development and provide solutions to in your group please contact the operator at “0” Review Special Topics, and Physics. Please stop by worldwide challenges in energy, education, communi- and you will be put in touch with the Loss Prevention

General Information our table near Registration to learn more about the cations, and health. IYL programs promote public and Department. prestigious Physical Review collection. political understanding of the central role of light in Medical Facilities the modern world while also celebrating noteworthy anniversaries in 2015. Be part of IYL 2015! O’Connor Hospital 2105 Forest Avenue, San Jose, California http://www.light2015.org +1 408.947.2500 www.oconnorhospital.com Good Samaritan Hospital OSA Booth 2425 Samaritan Drive, San Jose, California All FiO attendees are invited to stop by the OSA +1 408.559.2011 Booth. CAM Lounge www.Goodsamsanjose.com Not a Member? Join on-site and take advantage of a OSA is turning 100 in 2016! We’re asking all OSA Sponsoring Society Membership Booths 50 percent dues discount on the Individual Member members to be a part of the celebration by partici- category. Sign up at the OSA Booth, which is located pating in short videos. CAM (Centennial Authentic Market Street Foyer near Registration. Moments) is an ongoing program of collecting scientific selfies where members will talk about what it APS and OSA Society Booths and means to be an OSA Member, how has OSA helped IYL Booth Hours in their careers, what inspired them to get into the Sunday, 18 October 12:00–17:00 field of optics and what excites them about their current work in three minutes or less. The collection of Monday, 19 October 08:00–17:00 these short videos will be featured on OSA’s centen- Tuesday, 20 October 08:00–17:00 nial website. Wednesday, 21 October 08:00–17:00 CAM Lounge Hours Thursday, 22 October 08:00–14:00 Sunday, 18 October 12:00–16:00 (IYL Booth Only) Monday, 19 October 09:00–16:00 Tuesday, 20 October 09:00–16:00 Wednesday, 21 October 09:00–16:00

6 FiO/LS 2015 • 18–22 October 2015 Stay Connected

Conference Materials Program Playback: Recorded Content Exhibit Buyers’ Guide We are delighted to announce we are continuing to The Exhibit Buyers’ Guide is composed of descrip- Technical Digest and Postdeadline Papers offer this valuable enhancement free to FiO/LS full tions and contact information for exhibiting com- Technical attendees have EARLY (at least one week technical registrants. More than 40% of the sessions panies at this year’s conference, and exhibit hall prior to the conference) and FREE continuous online at this year’s conference is being digitally captured activities. Guides will be provided to every FiO/LS access to the FiO/LS 2015 technical digest and for on-demand viewing. The pre-selected content attendee as part of registration. All exhibitor infor- Postdeadline papers. These 1-2-page summaries of includes the plenary presentations and selected mation changes will be communicated in the FiO/ tutorial, invited, and accepted contributed papers can hot topics representing the full breadth of the FiO LS mobile application. We encourage you to review be downloaded individually or by downloading daily program. Session content will be available for on the mobile application carefully to stay informed of

.zip files. (.zip files are available for 60 days.) demand viewing until 23 December 2015. All cap- changes to the program. Stay Connected tured session content will be live for viewing within 1. Visit the conference website at forty-eight hours of being recorded. Just look for the Program Updates Board http://www.frontiersinoptics.com symbol in the Agenda of Sessions to easily identify the presentations being captured. Onsite Program changes will be posted on an up- 2. Select the “Access Digest Papers” link on the date board located at the registration desk. Check right side of the web page 1. Visit the conference website at daily for new information and/or refernce the FiO/LS 3. Log in using your email address and password www.frontiersinoptics.com mobile app. used for registration. You will be directed to the 2. Select the purple “View Presentations” link on the conference page where you will see the .zip file right side of the web page Join the Social Conversation at FiO/LS 2015! links at the top of the page. [Please note: if you We will be providing the latest updates throughout are logged in successfully, you will see your name 3. Log in using your email address and password the conference using Twitter. Do you have a Twitter in the upper right-hand corner.] used for registration. You will be directed to the conference page where you will see the .zip file handle?! Follow @Opticalsociety on Twitter. Tweet Access is limited to Full Technical Attendees only. links at the top of the page. [Please note: if you about your conference experience using #FiO15 in If you need assistance with your login information, are logged in successfully, you will see your name your tweets. Stop by the OSA booth for more details. please use the “forgot password” utility or “Contact in the upper right-hand corner.] Help” link. Access to the recorded sessions is limited to full tech- Join the conversation. Follow @Opticalsociety on Twitter. Conference Program Update Sheet nical attendees only. Use hashtag #FiO15 Technical program changes received just prior to the meeting will be communicated in the onsite Confer- Poster Presentation PDFs Young Professional Bloggers ence Program Update Sheet distributed with your Authors presenting posters have the option to submit onsite registration materials. In addition, all updates Watch for OSA’s own Young Professional and Student the PDF of their poster, which will be attached to their will be made in the FiO/LS mobile app. We encour- Bloggers reporting on conference events and their papers in OSA Publishing’s Digital Library, formally age you to review them carefully to stay informed on unique experiences at FiO! The Luminous Insights known as Optics InfoBase. If submitted, poster PDFs changes to the program. Blog posts will be shared via the Conference Twitter will be available about three weeks after the confer- stream #FiO15 ence end date. While accessing the papers in OSA Publishing’s Digital Library, look for the multimedia symbol (above).

FiO/LS 2015 • 18–22 October 2015 7 FiO/LS Mobile Application Submit your 2016 OSA Optics and Photonics Topical Meetings and Congresses abstract by: Frontiers in Optics/Laser Science 2015 (FiO/LS 2015) has gone mobile again this year using CrowdCom- High-Intensity Lasers and High-Field Phenomena (HILAS) OSA High-Brightness Sources and Light-Driven 18 November 2015 pass! We strongly encourage you to download our Mid-Infrared Coherence Sources (MICS) Interactions Congress Compact (EUV & X-ray) Light Sources 20–22 March mobile guide to enhance your experience at FiO/LS Long Beach, California, USA 2015. You’ll be able to plan your day with a person- osa.org/HighBrightnessOPC alized schedule and browse exhibitors, maps and Cancer Imaging and Therapy OSA Biomedical Optics Congress 16 December 2015 general show info. Clinical and Translational Biophotonics 25–28 April Optics and the Brain Fort Lauderdale, Florida, USA Schedule Optical Tomography and Spectroscopy osa.org/biomed OSA Optical Interference Coatings (OIC) 19–24 June 25 February 2016 Search for conference presentations by day, topic, Tucson, Arizona, USA speaker or program type. Plan your schedule by set- osa.org/oic ting bookmarks on programs of interest. Technical OSA Propagation through and Characterization of Atmospheric 27-29 June February 2016 attendees can access technical papers within session and Oceanic Phenomena Topical Meeting Washington, DC, USA descriptions. osa.org/pcDVT OSA International Conference on Ultrafast Phenomena (UP) 17–22 July 26 January 2016 Exhibit Hall Santa Fe, New Mexico, USA osa.org/up Search for exhibitors in alphabetical order, and set a Integrated Photonics Research, Silicon, and Nano-Photonics OSA Advanced Photonics Congress 15 March 2016 bookmark reminder to stop by their booth. Tap on Stay Connected Novel Optical Materials and Applications 17–21 July the map icon within a description, and you’ll find their Optical Sensors Vancouver, Canada location on an expo floor map. View a daily schedule Photonic Networks and Devices osa.org/PhotonicsOPC of all activities occurring on the show floor. Signal Processing in Photonic Communications Specialty Optical Fibers Attendees 3D Image Collection and Display OSA Imaging and Applied Optics Congress 22 March 2016 Adaptive Optics: Analysis, Methods & Systems (AO) 25–28 July All FiO/LS registered attendees are listed in the app. Applied Industrial Optics (AIO) Heidelberg, Germany Computational Optical Sensing and Imaging (COSI) osa.org/ImagingOPC Send a contact request to an attendee, and initiate Digital Holography & 3-D Imaging (DH) another valuable networking opportunity. Imaging Systems and Applications (IS) Laser Applications to Chemical, Security and Environmental Download the App Analysis (LACSEA) Mathematics in Imaging The app is compatible with iPhone, iPad, iPod Touch OSA Latin America Optics & Photonics Conference (LAOP) 08–11 August 05 April 2016 and Android devices. Medellin, Colombia osa.org/laop To get the guide, choose one of the methods below: Australian Conference on Optical Fibre Technology (ACOFT) OSA Photonics and Fiber Technology Congress 03 May 2016 1. Visit www.frontiersinoptics.com/app to down- Bragg Gratings, Photosensitivity and Poling in Glass 05–08 September load the application. Waveguides (BGPP) Sydney, Australia Nonlinear Photonics (NP) osa.org/FiberandPhotonicsOPC 2. Scan the following image with your mobile phone OSA Advanced Solid State Lasers Conference and Exhibition 30 Oct–04 Nov June 2016 (QR-Code reader required, e.g. ‘Red Laser’, ‘Bar- (ASSL) Boston, Massachusetts code Scanner’) OSA Application of Lasers for Sensing & Free Space osa.org/assl; osa.org/lsc Communication (LS&C) Optical Nanostructures and Advanced Materials for OSA Light, Energy and the Environment August 2016 Photovoltaics (PV) Congress Optics and Photonics for Energy & the Environment (E2) November/December Optics for Solar Energy (SOLAR) Leipzig, Germany Solid-State and Organic Lighting (SOLED) osa.org/EnergyOPC

8 FiO/LS 2015 • 18–22 October 2015 Conference Plenary Sessions and Awards Ceremony

Tuesday, 20 October, 08:00–09:30 and Plenary Presentations Gwilt Medal in 2012 (UK). In 2010, Joss was the Wednesday, 21 October, 08:00–09:30 Merton College Fellow and the Leverhulme Professor Regency Ballroom Astrophotonics: Future Develop- at Oxford. In 2012, Joss was elected to the Australian ments in Astrophysics and Instru- Academy of Science, an august body of Australia’s Join your colleagues to recognize recent OSA and mentation, Joss Bland-Hawthorn, 400 leading scientists, and The Optical Society. He APS/Division of Laser Science award and honor recipi- University of Sydney, Australia has published 400 refereed papers with 30,000 cita- ents. The sessions include the Ives Medal Address, tions and an h-index of 80. the Schawlow Prize Lecture and two plenary presenta- Over the past 15 years, astropho- tions. tonics – the interface between LIGO and the Coming Dawn of photonics and astronomical/ Gravitational Wave Physics and The order of events: space instrumentation – has led Astronomy, David Reitze, Caltech, to important advances in adaptive USA Tuesday, 20 October optics, laser communications, interferometry, vortex coronography, precision spectroscopy through fibre For the past 50 years, researchers Welcome etalons, filtering through photonic lanterns and multi- have searched in vain for gravita- LIGO and the Coming Dawn of Gravitational core fibre gratings, and so on. There is an important tional waves, miniscule ripples in Wave Physics and Astronomy, David Reitze, role here for nanophotonics if nano-patterning can be space-time emitted from the most Caltech, USA achieved over large surfaces (~100mm OD). violent events in the cosmos. To move gravitational-wave detection beyond the realm OSA Award and Honor Presentations These advances will be exploited by a new genera- of impossibility, we have just finished construction tion of astronomical instruments, as we describe. The Ives Medal Lecture – Optical Coherence on Advanced LIGO, a pair of 4 km arm length laser case for photonics becomes even more compelling in interferometers capable of measuring displacements

Tomography – Translating Technology to Clini- Plenary and Awards an era of extremely large telescopes (25-42m aper- -19 cal Practice, James G. Fujimoto, MIT, USA approaching 10 m at their most sensitive frequen- ture) now under construction. cies, redefining the meaning of ‘extreme precision Closing Remarks Joss is one of Australia’s leading astronomers. He measurement’. LIGO brings together high energy was born in Kent, England, educated in Oxford and astrophysics and many aspects of optical science and Wednesday, 21 October Birmingham, before coming to Australia in 1982 to engineering in a unique way with the ambitious goal undertake a PhD. In the period 1985-1993, Joss was of detecting gravitational waves and opening a new Welcome an astrophysicist at the Institute for Astronomy in window onto the universe. Astrophotonics: Future Developments in Hawaii, a Fellow at the Institute for Advanced Study David Reitze holds positions as both the Executive Astrophysics and Instrumentation, Joss Bland- Princeton, and a professor of physics at Rice Univer- Director of the Laser Interferometer Gravitational- Hawthorn, University of Sydney, Australia sity Texas. In 1993, he returned to work at the Anglo- wave Observatory (LIGO) Laboratory at the California Australian Observatory, Sydney, eventually to become OSA Fellow Member and Honorary Member Institute of Technology and a Professor of Physics at Head of the research and development team. Presentations the University of Florida. Based at Caltech, he heads In 2007, he moved to the University of Sydney to take a laboratory of 180 scientists and engineers respon- Schawlow Prize Lecture – Using Light to Build up an Australian Federation Fellowship. In 2014, he sible for the construction and operation of the LIGO Quantum Networks of Atoms, Christopher was awarded an Australian Laureate Fellowship to interferometers at Hanford WA and Livingston LA. Monroe, University of Maryland, USA continue his work in astrophysics and astrophoton- Upon completing a B.A. in Physics from Northwestern Closing Remarks ics. Today he is the Director of the Sydney Institute of University in 1983, he obtained a Ph.D. in Physics Astronomy and Principal Investigator for the Sydney from the University of Texas at Austin in 1990 where Astrophotonic Instrumentation Labs. his research on ultrafast solid-liquid phase transitions He has been the recipient of many prizes including solved a hundred year old problem on the nature of the Muhlmann Prize in 2009 (USA) and the Jackson- liquid carbon. Since then, he has worked extensively

FiO/LS 2015 • 18–22 October 2015 9 in the fields of ultrafast laser spectroscopy and experi- state-dependent optical dipole forces are applied to 2009 his group has investigated the use of ultrafast mental gravitation-wave detection. From 2007-2011, a collection of trapped ions, their Coulomb interac- laser pulses for fast quantum entanglement opera- he served as the Spokesperson of the LIGO Scientific tion is modulated in a way that allows the entangle- tions and also pioneered the use of trapped ions for Collaboration, a group of almost 1000 scientists who ment of the qubits through quantum gates that form quantum simulations of many-body models related to carry out the science program of LIGO. the basis of a quantum computer. Similar optical quantum magnetism. forces allow the simulation of quantum many-body His current research interests focus on development physics, where recent experiments are approaching a of precision interferometric methods approaching the Frederic Ives Medal /Jarus W. Quinn Prize level of complexity that cannot be modelled with con- zeptometer level and on the search for gravitational ventional computers. Scaling to much larger numbers Recognizing overall distinction in optics, the Frederic waves from astrophysical sources. A Fellow of the of qubits can be accomplished by coupling trapped Ives Medal is the highest award of the Society. It was American Physical Society and The Optical Society, ion qubits through optical photons, where entangle- endowed in 1928 by Herbert E. Ives, a distinguished he has authored nearly 250 refereed publications. ment over remote distances can be used for quantum charter member and 1924-1925 OSA President, to Since 2012, one of his main efforts has been directed communication and large-scale distributed quantum honor his father, who was noted as the inventor of toward establishing a third LIGO interferometer in computers. Laser sources and quantum optical tech- modern photoengraving and who made pioneering India. niques are the workhorse for such quantum networks, contributions to color photography, three-color pro- and will continue to lead the way as future quantum cess printing, and other branches of applied optics. Awards Ceremony hardware is developed. The medalist is asked to present a plenary address at OSA’s Annual Meeting. The prize is funded by the APS Arthur L. Schawlow Prize and Lecture Christopher Monroe is an experimental atomic Jarus W. Quinn Ives Medal Endowment, raised by physicist who specializes in the isolation of individual members at the time of Quinn’s retirement in recogni- Awarded by the Division of Laser Science of the atoms for studies in quantum physics and application of his 25 years of service as OSA’s first Executive American Physical Society, the 2015 Arthur L. Schaw- tions in quantum information science. After getting Director. This year’s Frederic Ives Medal/Jarus W. low Prize in Laser Science recognizes outstanding his undergraduate degree from MIT, Monroe studied Quinn Prize will be presented to James G. Fujimoto contributions to basic research that uses lasers to with Carl Wieman at the University of Colorado, earn- for pioneering the field of optical coherence tomog- advance our knowledge of the fundamental physical ing his PhD in Physics in 1992. raphy (OCT) and for leading the field to widespread properties of materials and their interaction with light. From 1992-2000 he was a postdoc then staff physicist medical application and major commercial impact. 2015 Arthur L. Schawlow Prize in Laser Science at the National Institute of Standards and Technology, Optical Coherence Tomography Recipient in the group of David Wineland. With Wineland, Mon- – Translating Technology to roe led the research team that demonstrated the first Using Light to Build Quantum Clinical Practice quantum logic gate in 1995, and exploited the use of Networks of Atoms, Christopher James G. Fujimoto, Massachusetts trapped atoms for applications in quantum informa- Monroe, Joint Quantum Institute Institute of Technology, USA tion science. In 2000, Monroe became Professor of and University of Maryland, USA Physics and Electrical Engineering at the University of Optical coherence tomography

Plenary and Awards For pioneering research in the use Michigan, where he pioneered the use of single pho- (OCT) is based on photonics and of lasers to realize the elements of tons to couple quantum information between atoms has had a powerful impact in quantum information processing and also demonstrated the first electromagnetic atom medicine and research. This pre- with trapped atomic ions, includ- trap integrated on a semiconductor chip. sentation describes the history, recent advances and ing demonstrations of remote process of translating OCT technology from labora- From 2006-2007 he was the Director of the National entanglement for quantum communication protocols tory to clinic. Science Foundation Ultrafast Optics Center at the and use of frequency combs for high-speed qubit University of Michigan. In 2007 he became the Bice James G. Fujimoto obtained his bachelors, masters, manipulation and entanglement. Zorn Professor of Physics at the University of Maryland and doctorate from the Massachusetts Institute of Laser-cooled atomic ions are standards for quantum and a Fellow of the Joint Quantum Institute. In 2008, Technology. He performed his doctoral studies under information science, acting as qubit memories with Monroe’s group succeeded in producing quantum the supervision of Prof. Erich Ippen in ultrafast optics. unsurpassed levels of quantum coherence while also entanglement between two widely separated atoms Since 1985 Dr. Fujimoto has been in the Department allowing near-perfect measurement. When qubit and for the first time teleported quantum information of Electrical Engineering and Computer Science and between matter separated by a large distance. Since Research Laboratory of Electronics at MIT where he is

10 FiO/LS 2015 • 18–22 October 2015 currently Elihu Thomson Professor of Electrical Engi- APS/Division of Laser Science Award Max Born Award neering. Dr Fujimoto’s group and collaborators were John D. Joannopoulos, Massachusetts Institute of Arthur L. Schawlow Prize responsible for the invention and development opti- Technology, USA cal coherence tomography (OCT). His group’s paper, Christopher Monroe, University of Maryland, USA For numerous contributions to nanophotonics, “Optical Coherence Tomography,” which appeared including pioneering the “numerical experiments” in Science in 1991 has remained one of the highest OSA Awards and Honors approach for nanophotonics. cited papers in the field of biophotonics. OCT is now OSA Fellowships Michael S. Feld Biophotonics Award standard clinical imaging modality in ophthalmology Bruce Jason Tromberg, Beckman Laser Institute and for the detection and treatment monitoring of macu- Peter E. Andersen, Danmarks Tekniske Universitet, Medical Clinic, University of California, Irvine, USA lar degeneration, diabetic retinopathy and glaucoma. Denmark For serving as an advocate for and a leader of the There are an estimated 20-30 million ophthalmic Adela Ben-Yakar, University of Texas at Austin, USA biophotonics community as well as for pioneering the imaging procedures performed worldwide every year. Robert P. Breault, Breault Research Organization Inc., development and clinical application of spatially and There are hundreds of researchers internationally USA temporally modulated light imaging. working on OCT in such diverse fields as cardiology, endoscopy and cancer surgery. Last year, the global P. Scott Carney, University of Illinois at Urbana- Paul F. Forman Team Engineering Excellence Award sales of OCT systems exceeded 400 million US dollars Champaign, USA Logic Analysis Tool Team (or LAT Team), Fremont, and there are ~40 OCT systems companies. Dean R. Evans, U.S. Air Force Research Laboratory, California, USA USA For the development and characterization of the Dr. Fujimoto has been influential as an educator and Logic Analysis Tool that detects photon emissions is also active in scientific service, having served as John Charles Howell, University of Rochester, USA from integrated circuits fabricated in advanced pro- co-chair of international meetings such as the Confer- Yunjiang Rao, University of Electronic Science and cess technologies with operating voltages down to ence on Lasers and Electro Optics, the European Technology of China, China 0.5 V. Conferences on Biomedical Optics, and Ultrafast David Howard Reitze, California Institute of Phenomena. Since 2003 Dr. Fujimoto has served as Technology, USA Joseph Fraunhofer Award/Robert M. Burley Prize

co-chair of the SPIE Biomedical Optics symposium, Russell A. Chipman, University of Arizona, USA Plenary and Awards the largest international meeting on biophotonics. He OSA Honorary Member For outstanding contributions in the development served as a Director of the OSA from 2000 to 2003 Robert W. Hellwarth of metrology facilities for imaging polarimetry and and is currently serving as a Director of the SPIE. spectro-polarimetry. 2015 Frederic Ives Medal/Jarus W. Quinn Prize Working with Mr. Eric Swanson, Dr. Fujimoto was James G. Fujimoto, Massachusetts Institute of Tech- Nick Holonyak, Jr. Award a co-founder of the startup company Advanced nology, USA Qing Hu, Massachusetts Institute of Technology, USA Ophthalmic Devices, which developed OCT for For pioneering the field of optical coherence tomog- For pioneering contribution to high-performance ophthalmic imaging and was acquired by Carl Zeiss. raphy (OCT) and for leading the field to widespread THz quantum-cascade lasers and their applications in The team also co-founded LightLab Imaging, which medical application and major commercial impact. imaging and sensing. developed cardiovascular OCT and was acquired by Esther Hoffman Beller Medal Goodman, Ltd and St. Jude Medical. Edwin Land Medal (co-sponsored with IS&T) Govind P. Agrawal, University of Rochester, USA Joseph Mangano, DARPA, USA, Mordechai Dr. Fujimoto received the Discover Magazine Award For inspiring and educating a generation of scientists Rothschild, MIT Lincoln Laboratory, USA, and David for Technological Innovation in 1999, was co-recipient and engineers involved with fiber optic communica- Shaver, DARPA, USA of the Rank Prize in Optoelectronics in 2002, received tions and other photonics technologies through his For contributions to the excimer laser ArF and mod- the Zeiss Research Award in 2011, was co-recipient of seminal textbooks and high-impact scientific articles. ern deep-UV photolithography for the semiconductor the Champalimaud Vision Prize in 2012 and received industry. the IEEE Photonics Award in 2014. He is in the National Academy of Engineering, American Acad- Emmett Leith Medal emy of Arts and Sciences, and National Academy of Yeshaiahu Fainman, University of California, San Sciences. Dr. Fujimoto is also a Fellow of the OSA, Diego, USA SPIE, APS and IEEE. For extension of Fourier optics methods to the femtosecond and nanometer regimes.

FiO/LS 2015 • 18–22 October 2015 11 Ellis R. Lippincott Award R. W. Wood Prize Dana D. Dlott, University of Illinois at Urbana- Naomi Halas and Peter Nordlander, Rice University, OSA’s awards and medals are endowed through Champaign, USA USA the OSA Foundation. The OSA Foundation is For the development of methods to measure vibra- For introducing nanoparticles with tunable optical proud to support this prestigious program and tional energy flow in molecules with ultrafast time and resonances and the concept of plasmon hybridiza- recognize outstanding contributions in optics and atomic length scale resolution tion to explain their properties and revolutionizing photonics. For more information about the OSA the understanding of optical properties of metallic Foundation, please visit www.osa.org/foundation Adolph Lomb Medal nanostructures or contact staff at [email protected]. Jeremy Nathan Munday, University of Maryland, USA For pioneering contributions to plasmonic and photonic light-trapping in solar cells. C. E. K. Mees Medal Warren Sloan Warren, Duke University, USA For the development of controlled laser pulses and nonlinear imaging techniques to enable applications ranging from clinical diagnosis to scientific analysis of Renaissance artwork. William F. Meggers Award Paul S. Julienne, National Institute of Standards and Technology (NIST), USA For seminal contributions to precision photoassocia- tion and magnetic-Feshbach spectroscopy of ultracold atoms, and the application of these techniques to the formation of cold polar molecules David Richardson Medal Daniel R. Neal, Abbott Medical Optics Inc., USA For innovative technical leadership in the design, fabrication, and commercialization of wavefront sensing devices. Plenary and Awards

12 FiO/LS 2015 • 18–22 October 2015 Awards and Special Recognitions

OSA Foundation Boris P. Stoicheff FiO 4: Fiber Optics and Optical Communications OSA Foundation Jean Bennett Memorial Memorial Scholarship Hui Chen, Stevens Inst. of Tech., USA Student Travel Grant Haomin Yao, The Inst. of Optics, Univ. of Rochester, Established in 2011 by the OSAF and the Canadian USA Established in 2008, in memory of Jean M. Bennett, a Association of Physicists Educational Trust Fund (CAP- Eduardo Temprana, UCSD, USA highly decorated research physicist who was recog- ETF), this program pays tribute to Boris P. Stoicheff, nized for her contributions to the studies of optical an internationally renowned laser spectroscopist FiO 5: Integrated Photonics surfaces and served as OSA’s first female president, who also served as President of OSA (1976) and CAP Yannick Salamin, ETH Zurich, Switzerland this $1,000 USD grant is awarded to a student (1983-84).This $3,000 scholarship is awarded annually Kenneth M. Goodfellow, Univ. of Rochester, USA presenting their work at FiO. This competition is to a graduate student who has demonstrated both Michael G. Wood, Ohio State Univ., USA administered by the OSA Foundation and is made research excellence and significant service to the FiO 6: Quantum Electronics possible through the generous support of Nanoptek optics or physics community. Claire Autebert, Laboratory MPQ, France Corporation, the Pennsylvania State Univ. Department of Physics and individual contributors. Congratulations to our 2015 award recipient: Jianwei Wang, Centre for Quantum Photonics, H.H. W., UK Congratulations to our 2015 grant recipient: Itai Epstein, Tel-Aviv Univ., Israel FiO 7: Vision and Color Zi Jing Wong, Univ. of California, Berkeley, USA Rebecca Holmes, Univ. of Illinois at Urbana- OSA Foundation Emil Wolf Outstanding Champaign, USA Student Paper Competition OSA Foundation Student Travel Grants This competition recognizes the innovation, research OSA Foundation Incubic/Milton Chang The OSA Foundation is pleased to provide travel sup- excellence and presentation abilities of students pre- Travel Grant port to help students from developing nations attend senting their work during FiO and honors Emil Wolf FiO. Each grant recipient receives $1,500 USD to off- for his many contributions to science and The Optical Funded by an endowment from Milton and Rosalind set costs associated with traveling to the conference. Chang, this program provides 10 grants of $500 USD Society. One winner is selected from each of the Congratulations to our 2015 grant recipients: seven FiO subcommittees. Winners receive a compli- each to enable students who present papers to travel mentary OSA student membership, an award stipend to the Frontiers in Optics. Grants are awarded to the Aadhi A., Physical Research Laboratory, India of $300 USD and an award certificate. presenter and usually the first author of the paper. Anirban Sarkar, IIT Kharagpur, India Congratulations to the 2015 Incubic/Milton Chang Catalina Hurtado Castaño, Universidad Nacional de Congratulations to our finalists competing at FiO: Travel Grant Recipients: Colombia, Colombia FiO 1: Optical Design and Instrumentation Aadhi A., Physical Research Laboratory, India Franciele Renata Henrique, Univ, of Sao Paolo, Brazil Zachary De Santis, Univ. of Rochester, USA Alem Gebru, Univ. of Stellenbosch, South Africa Inga Saknite, Univ. of Latvia, Latvia Dennis Floyd Gardner, Univ. of Colorado at Boulder, Haomin Yao, Univ. of Rochester, USA Luis Joel Mávita Granillo, CICESE, Mexico

USA H. Esat Kondakci, Univ. of Central Florida, USA Nithyanandan K., Pondicherry Univ., India Special Recognitions Praveen Phinehas M, Vellore Inst. of Technology (VIT), FiO 2: Optical Sciences Itai Epstein,Tel-Aviv Univ., Israel Litty V. Thekkekara, Swinburne Univ. of Technology, Chennai, India Omar Santiago Magana Loaiza, Univ. of Rochester, Australia Sonika Obheroi, Vellore Inst. of Technology (VIT), USA Milad I. Akhlaghi, Univ. of Central Florida, USA Chennai, India Scott Wandel, Pennsylvania State Univ., USA Moshe G. Harats, The Hebrew Univ. of Jerusalem, Tsung-Han Tsai, National Taiwan Univ., Taiwan Daniel Maser, National Inst. of Standards & Tech, USA Israel FiO 3: Optics in Biology and Medicine Omar Calderon-Losada, Universidad de los Andes, Dan MacDougall, Dalhousie Univ., Canada Colombia Colin Constant, Univ. of Central Florida, CREOL, USA Vishwatosh Mishra, IIT Kharagpur, India

FiO/LS 2015 • 18–22 October 2015 13 OSA Foundation Robert S. Hilbert Memorial Student Travel Grant OSA Foundation Grant Recipients Established in 2009 by Optical Research Associates (ORA), now the Optical Solutions Group at Synopsys, as a memorial to ORA’s former President and Chief The OSA Foundation benefitted more than 9,400 people in 2014. We inspire future Executive Officer Robert S. Hilbert, this $1,100 USD optics innovators, support career development for optics students, recent graduates grant recognizes the research excellence of students in the areas of optical engineering, lens design and and young professionals, and recognize distinguished achievement in the field through illumination design. the presentation of awards and honors. Congratulations to our 2015 grant recipients: Haoran Ren, Swinburne Univ. of Technology, Australia Nithyanandan K., Pondicherry Univ., India We would like to congratulate our 2015 grant recipients. Through the following programs we have been able to provide over 30 grants to help students attending FiO. Carl E. Anderson Award for Outstanding Doctoral Dissertation For more information on who we are and what we do, visit www.osa.org/Foundation. The Carl E. Anderson Award for Outstanding Doctoral Dissertation in Laser Science was established in 2013 You can help to inspire and support the next generation of science and engineering by the American Physical Society (APS) Division of Laser Science (DLS). Its purpose is to recognize innovators by making a donation to the OSA Foundation. For a limited time, all dona- doctoral research in the Laser Science area and to encourage effective written and oral presentation tions are matched 100% by the Optical Society—so your gift has twice the impact. To of research results. The award consists of $1,000 learn more and to make a donation online, visitwww.osa.org/foundation, or stop by the USD and a certificate citing the contribution made by the recipient. The finalists will present their work OSA booth. at a special session of the Laser Science conference on Monday, 19 October from 08:00–10:00 in the Hillsborough Room. The winner will be announced during the Laser Science Banquet on Tuesday, 20 October from 19:00–22:00 (Gordon Biersch, 33 East San Fernando St., San Jose, CA). Special Recognitions

14 FiO/LS 2015 • 18–22 October 2015 Special Symposia Special Symposia

Townes Symposium: Reminiscences — to research and teaching. Townes passed away in Invited Speakers January 2015 at the age of 99. Scientific and Personal Nonlinear Optics: The Good, Sunday, 18 October, 16:30–18:30 Invited Speaker: Bad, Ugly, Beautiful, Elsa Regency Ballroom Garmire, Dartmouth College, Paul Goldsmith, NASA Jet Propulsion Laboratories, USA Organizer: Elsa Garmire, Dartmouth College, USA USA Abstract: Nonlinear Optics can be In 1958, at Bell Laboratories, Panelist: Charles Hard Townes, one of the many things: good when creat- foremost pioneers of quantum Robert Boyd, Univ. of Rochester, USA; Univ. of ing new frequencies, improving electronics, and Arthur Schawlow Ottawa, Canada lasers, manufacturing, offering new science; bad when damaging invented the laser, explaining its Raymond Chiao, Univ. of California Merced, USA geometry, operating principles optics; ugly in telecommunications by limiting signals and presenting its foundational Joseph Giordmaine, AT&T and NEC Labs (retired), through fibers; beautiful when creating solitons. theory. The laser, operating at USA Space Based Measurements of optical frequencies, was based on Kenneth Gustafson, Univ. of California Berkeley, USA Atmospheric Carbon Dioxide: A Townes’s invention at Columbia New Tool for Monitoring Our University of the maser (microwave analog of the Paul Kelley, The Optical Society; Tufts Univ. (retired), Environment, David Crisp, Jet laser) which he demonstrated experimentally in 1954. USA Propulsion Laboratory, NASA, USA Townes received the Nobel Prize in 1964, along with Martin Richardson, Townes Laser Institute, Univ. of Soviet scientists Nikolai Basov and Alexander Abstract: Precise, global mea- Central Florida, USA Prokhorov. surements of atmospheric carbon dioxide and other greenhouse This symposium brings together participants from International Year of Light – Science to gases by the NASA Orbiting Car- every step of his professional career, including Joseph Solutions Special Session bon Observatory-2 (OCO-2) and other satellites pro- Giordmaine, who was his student at Columbia. In Monday, 19 October, 16:00–18:00 vide new tools to monitor and manage the processes 1961 Townes moved to MIT as Provost while he ran Regency Ballroom that control their atmospheric concentrations. a research group in nonlinear optics, contributing pioneering ideas to stimulated Raman and Brillouin Moderator: Eric Mazur, Harvard University, USA Biophotonics and the Future of scattering, self-trapping and self-phase modulation. Personal Health Monitoring, The International Year of Light Special Session, open Raymond Chiao and Elsa Garmire were his students Bruce Tromberg, University of to the public, will showcase examples of how optics at MIT and Paul Kelley was a colleague from Lincoln California at Irvine, USA has made, and will make, a difference in society. Laboratory. In 1967, Townes moved to University of Speakers will highlight the connection between fun- Abstract: Medical Optics provide California at Berkeley; Robert Boyd was his student damental scientific research to solutions to problems unique, dynamic information there in nonlinear optics, and Kenneth Gustafson with societal impact. The topical coverage will span about tissue structure and was a colleague. Townes spent the last half of his life issues such as energy, climate, health care, and tele- biochemical composition. investigating Quantum Electronics in astronomy. For- communications. The talks are intended to be short Matching technologies with mer Berkeley astronomy student Paul Goldsmith, now (10-20 min), in TED-talk style, designed to engage clinical needs will reduce health care costs and drive at JPL, will describe the new ideas Townes brought and inspire. Registered technical attendees are also the development of wearable, bedside technologies to astronomy. Finally, Martin Richardson, director encouraged to attend the International Year of Light/ for personalized medicine. of the Townes Laser Institute at University of Central OSA Presidents Reception - “Light up the Night” Florida, will describe Townes’ dynamism during the from 18:30–20:30 at the City Hall Rotunda. last ten years of his life. These panelists will provide an overview of this extraordinary scientist’s approach

FiO/LS 2015 • 18–22 October 2015 15 Computing at the Speed of interstitial delivery (IPDT) with the light transmitted disorders. The same technologies allow vision to be Light, Michal Lipson, Columbia to the tumors via optical fibers has been developed. explored at the fundamental limit set by the size and Univ., USA Interactive feed-back dosimetry is of importance spacing of single photoreceptors and ganglion cells. for optimizing this modality and such a concept has This symposium will highlight milestones that have Abstract: By 2020, data centers been developed. Another technique is based on gas made these advances feasible with state-of-the-art will consume in the US alone more in scattering media absorption spectroscopy (GAS- technologies and address outstanding challenges for than 250 megawatts of electric- MAS). It can be used to detect free gas (oxygen and the implementation of improved diagnostic capabili- ity. As Data-centers are expected water vapor) in hollow organs in the human body ties that not only will increase our understanding of to carry a large portion if not the and has been applied to the detection of the human the last optical steps of the visual process but also majority of all kinds of computa- Special Symposia sinus cavities. It might guide in the therapy choice for help combat vision loss. tions in the future, driving this power consumption infections whether to prescribe antibiotics or not. The down is a major engineering, industrial as well as Invited Speakers: technique may also be a valuable tool for surveillance political concern. Light as a means for propagat- of prematurely born infants. Human Photoreceptor Topography - 25 Years and ing high amounts of computing data, is recognized Looking Ahead, Christine Curcio, Univ. of Alabama at today as the most promising direction for solving How Light Shaped Science: From Birmingham, USA this paradigm. Light, in contrast to electronics, does Fleas to Qubits, Ian Walmsley, not dissipate power as it propagates. The challenge University of Oxford, UK Single Cell Imaging In Photoreceptor Degenera- with this approach is that until recently silicon- the tive Disease, Christopher Langlo, Medical College of Abstract: Optics is among the basic material used in microelectronics and comput- Wisconsin, USA oldest branches of science, and ing today- has been considered a low quality optical yet remains among the most material. We have shown the ability to control the Waveguide Properties of Cone Photoreceptors, fruitful. It has provided either new flow of light. at GHz frequencies using a nano-struc- Don Miller, Indiana Univ., USA phenomena or new technology ture that enhance the natural electro-optic properties that underpin many of the major Probing Human Spatial and Color Vision on a Cellu- of silicon. This ability to create active optical devices discoveries in physics over the past 400 years. Yet it is lar Scale, Austin Roorda, Univ. of California Berkeley, on silicon is the basis for the burgeoning field of only in the past century that its disparate properties USA silicon photonics, or light on a silicon chip. have been understood in a unified way, and even now Applications of Laser there are new insights into the structure of the natural Laser Science Symposium on Spectroscopy to Meet world emerging from this understanding. And, as is Undergraduate Research Challenges in Medicine, Katarina so often the case, new technologies are also emerg- Monday, 19 October, 10:00–16:00 Svanberg, Lund Laser Centre, ing, which promise once again to open new vistas in Glen Ellen Switzerland science and new applications that will change society. Organizer: Harold Metcalf, Stony Brook Univ., USA Abstract: Laser spectroscopy is a valuable tool both in the detec- Symposium on Photoreceptor Analysis This special DLS annual symposium started in 2001 tion and the therapy of human and Single-cone-mediated Vision and has rapidly become one of the most successful malignancies. The most important Monday, 19 October, 08:00–10:00 DLS traditions. During the past several years the num- prognostic factor for cancer patients is early tumor Crystal ber of undergraduates presenting papers has grown discovery. If malignant tumors are detected during from only 10 to more than 40, and the talks have Organizer: Brian Vohnsen, Univ. College Dublin, the non-invasive stage, most tumors show a high cure been of outstanding quality, some absolutely stellar. Ireland rate of more than 90 %. Laser-induced fluorescence Last year’s posters were outstanding and generated (LIF) can be used for monitoring the biomolecular Twenty-five years ago detailed post-mortem ocular a great deal of lively interest and on-the-spot discus- changes in tissue under transformation from normal histology gave spectacular insight into the organi- sion. to dysplastic tissue and further to cancer before zation of cone and rod photoreceptor cells in the This year’s symposium will consist of morning poster structural morphological changes are seen at a later human retina. Subsequent progress with implementa- sessions, along with afternoon oral sessions. The stage. Photodynamic therapy is a selective therapy tion of adaptive optics for aberration correction has event provides an opportunity for student members modality for human malignancies. To overcome the made in-vivo analysis of single retinal cells feasible for the community, who are already among the finest limited light penetration in superficial illumination in both the healthy eye and in eyes affected by

16 FiO/LS 2015 • 18–22 October 2015 young scientists to be found anywhere, to present Symposium Honoring Adolf Lohmann Symposium on Optical Remote Sensing their work before an audience of their peers, as well Wednesday, 21 October, 11:00–18:15 for the Climate Special Symposia as the larger optics community. All are invited and Sacramento Wednesday, 21 October, 13:30–15:00 encouraged to attend the session. Organizer: Joseph Mait, US Army Research Crystal Laboratory, USA Symposium on Optics for Global Health Organizer: Melissa Skala, Vanderbilt Univ., USA and Low Resource Settings Contributed papers are encouraged in honor of Adolf 2015 is the “International Year of Light,” and this sym- Monday, 19 October, 13:30–15:30 W. Lohmann (1925-2013), an OSA Fellow Emeritus posium accordingly highlights the tremendous impact Crystal known for his contributions to the fields of optical that optical technologies can have on global health. information processing and holography. Topics of Portable, accurate, and low cost light-based technolo- Organizer: Laszlo Veisz, Max-Planck-Institute fur particular interest include fractional transformations, gies have already demonstrated successes in screen- Quantenoptik, Germany phase-space optics, super resolution, temporal opti- ing and treatment for an array of pathologies in low Optical sensing allows measurements of important cal processing, optical processing with partially coher- resource settings. The potential of these technologies climate-related parameters, such as greenhouse gas ent light, and flatland optics. To be considered for this continues to grow with increased interest in engineer- and aerosol densities, from both land and space- symposium submit to the topic category, 1.8 Adolf W. ing world health. Lohmann Symposium. based platforms. The measurements are often made Invited Speakers: at wavelengths where technology is not as mature Invited Speakers: as in the visible and near-infrared region. Efforts to Mobile Technologies for Personalized Diagnostics measure these parameters place stringent demands Phase-Space Optics, One Photon at a Time, Harry and Global Health, David Erickson, Cornell Univ., on light sources (which often must be high power and Barrett, Univ. of Arizona, USA USA single frequency), detectors (which must detect the Optical Processing Inside a Degenerate Cavity Democratization of Next-Generation Imaging, faintest light levels at non-traditional wavelengths), Laser, Asher Friesem, Weizmann Inst. of Science, Sensing and Diagnostics Tools Through Computa- and understanding of long-range propagation Israel tional Photonics, Aydogan Ozcan, Univ. of California effects. Contributions are sought which explore novel Los Angles, USA approaches to satisfying the demands of optical Adolf Lohmann and his Contributions to Optics, climate-related measurements. Joe Goodman, Stanford Univ., USA Manu Prakash, Stanford Univ., USA Invited Speakers: Optical Interconnection - Early Concepts and Low-Cost Optical Diagnostic Systems for Point of Novel Approaches, Juergen Jahns, Univ. of Hagen, Care Applications, Tomasz Tkaczyk, Rice Univ., USA Measuring Greenhouse Gases from Aircraft and Germany Spacecraft using Lidar, Jim Abshire, NASA Goddard Space Flight Ctr., USA Fractional Fourier and Linear Canonical Transforms in Optics, Uriel Levy, The Hebrew Univ. of Jerusalem, New Airborne and Ground-based Techniques for Israel Remotely Mapping Multiple Gas Sources and Quantifying Individual Mass Emission Rates, Bill Adolf Lohmann’s Approach to Phase-Space Optics, Hirst, BP Shell, USA Jorge Ojeda-Castaneda, Univ. of Guanajuato, Mexico Applications of Cavity Ring Down Spectroscopy in When the Difference Between Coherent and Inco- the Earth Sciences, Chris Rella, Picarro, USA herent Imaging Begins to Blur, Bill Rhodes, Florida Atlantic Univ., USA Precision Atmospheric Trace Gas Monitoring with Frequency Comb Lasers, Greg Rieker, Univ. of Colo- Having Fun with Lohmann Optics, Stefan Sinzinger, rado, USA Technische Univsitat Ilmenau, Netherlands

FiO/LS 2015 • 18–22 October 2015 17 Symposium on Applications of Low Noise Frequency Combs Thursday, 22 October, 13:00–17:30 Crystal Organizer: Bill Kuo, Univ. of California San Diego, USA Frequency combs have become a hot topic of research over the last decade. Recent methods for generating low-noise frequency combs have spawned a host of new applications, including optical communications, spectroscopy, biomedical applications, signal processing, and numerous sensing applications. This symposium will cover the applications enabled by low-noise, highly coherent frequency combs, and include a panel discussion with the invited speakers. Invited Speakers: Perspective of New Infrastructure of Fiber Commu- nication: The Role of Coherent Light in SDM Era, Special Events Yoshinori Awaji, NICT, Japan Signal Processing using Optical Frequency Combs, Ronald Esman, MITRE, USA Optical-to-RF Frequency Synthesis: Application Priorities for Ultra-low Phase Noise, David Howe, NIST, USA Exabit Optical Network based on Optical Comb Distribution for High-performance Datacenters: Challenges and Strategies, Takashi Inoue, AIST, Japan Digital Coherence W-band Radio-over-fiber System, Ken-ichi Kitayama, Univ. of Osaka, Japan Frequency Combs as Sources for Tbit/s Communi- cations Systems, Juerg Leuthold, ETH, Switzerland Comb-locked Arbitrary Signal Synthesis, Radan Slavik, Southampton Univ., UK Microwave Generation using Optical Frequency Combs, Steven Wilkinson, Raytheon, USA

18 FiO/LS 2015 • 18–22 October 2015 Special Events

Annual OSA Student Chapter Leadership Frontiers in Photonic Detection Panel Meet OSA’s Journal Editors Conference Discussion Monday, 19 October, 18:00–19:00 Sunday, 18 October, 07:00–17:00 Monday, 19 October, 12:00–13:30 Club Regent, Lobby Level Grand Hall Hyatt Place San Jose Downtown, 282 Belvedere OSA’s journal Editors invite you to join them for Almaden Boulevard, San Jose, CA The OSA Photonic Detection Technical Group will conversation and refreshments. The Editors welcome The invitation-only Student Leadership Conference hosting an interactive panel discussion providing an your questions, concerns and ideas for the journals, brings together over 200 OSA Student Chapter opportunity for professionals and students to learn such as: leaders from around the globe to network, present about and discuss the latest advances in the field of • What are best practices when submitting your posters and learn about successful chapter manage- photonic detection. Includes a boxed lunch. RSVP manuscript?

ment and the popular International OSA Network of required. Contact [email protected] to register, Special Events Students (IONS). The program also features profes- pending availability. • What constitutes a useful manuscript review? sional development presentations from esteemed • What criteria do journal editors look for in leaders in the field. Sponsored by submitted manuscripts? Townes Memorial Reception Nonlinear Optics Technical Group • How do you propose a Feature Issue topic for Sunday, 19 October, 18:30–20:00 Workshop publication in an OSA Journal? Club Regent, Lobby Level Monday, 19 October, 12:00–13:30 • Other topics of interest to you Complimentary for FiO/LS Technical Attendees* Atherton Refreshments will be provided. All are welcome. Sponsored by Join the OSA Nonlinear Optics Technical Group for a special workshop including a discussion on future directions in the field of nonlinear optics. Includes a OSA Microscopy and Optical Coherence Get the FiO/LS 2015 conference off to a great start boxed lunch. RSVP required. Contact TGactivities@ TomographyTechnical Group Poster by attending the Townes Reception. Meet with col- osa.org to register, pending availability. Session leagues from around the world and enjoy light hors Monday 19 October, 18:00–19:00 d’oeuvres. Sponsored by Atherton *This event is complimentary for FiO/LS Technical OSA Fellow Members Lunch Join the Microscopy and Optical Coherence Tomog- attendees only. Please bring your conference regis- raphy Technical Group for a focused poster ses- Monday, 19 October, 12:00–13:30 tration badge. Non-technical attendees and guest sion. This session will bring together students and Ballroom, The Westin San Jose, 302 S. Market Street, tickets are available for $75 USD each. colleagues for an opportunity to share their latest San Jose, CA research findings, exchange ideas, and facilitate col- OSA Student Member Reception Advance reservation for the event was required. laborations in relevant areas. Sunday, 18 October, 19:00–22:00 Check at the OSA booth to see if there is still space Sponsored by Da Kine Island Grill, 23 N. Market St., San Jose, CA available. This reception is a fun event that encourages Student Members of OSA to meet, enjoy refreshments and have a good time! Note that membership status will be checked. No charge to all OSA Student Members. Must be 21 or over to consume alcohol.

FiO/LS 2015 • 18–22 October 2015 19 International Year of Light/OSA Optical Material Studies Technical Group Joint FiO/LS Poster Sessions President’s Reception - “Light up the Workshop Tuesday, 20 October, 14:30–16:00 Night” Tuesday, 20 October, 12:00–13:30 Wednesday, 21 October, 09:30–11:00 Monday, 19 October, 18:30–20:30 Cupertino Imperial Ballroom City Hall Rotunda, 200 E. Santa Clara Street, San Join the OSA Optical Material Studies Technical Poster presentations offer an effective way to com- Jose, CA Group for a special workshop discussing recent municate new research findings and provide a venue Complimentary for FiO/LS Technical Attendees* advances in optical materials. Dr. Debashis Chanda for lively and detailed discussion between presenters of the University of Central Florida will present his and interested viewers. Don’t miss this opportunity to OSA President Philip Russell invites you to celebrate talk ‘Printed Large Area Flexible Hybrid Photonic- discuss current research one-on-one with the pre- the International Year of Light by reaching new Electronic Systems’ as part of this technical group senters. The Optical Society will be offering a prize heights! Enjoy delicious bites and beverages in City workshop. Includes a boxed lunch. RSVP required. for Best Poster Presentations. Presentations will be Hall’s 110-foot tall Rotunda. Mix and mingle with Contact [email protected] to register, pending judged onsite and the winner will be announced at friends old and new as we light up the night in down- availability. the conclusion of the conference. town San Jose. Sponsored by *This event is complimentary for FiO/LS Technical Exhibitor Appreciation Reception attendees only. Please bring your conference regis- Tuesday, 20 October, 16:00–17:00 tration badge. Non-technical attendees and guest OSA Student Chapter Competition: Imperial Ballroom tickets are available for $75 USD each. IYL-To-Go Tuesday, 20 October, 14:30–16:00; Winners The City Hall Rotunda is a short 10 minute walk from Sponsored by Industry Special Events announced at 16:00. The Fairmont Hotel Development Imperial Ballroom Associates OSA challenges you to showcase your chapter’s best Exhibitors, finish up your first day and come relax ideas for youth education outreach during its annual and mingle with your fellow exhibitors. Join us in the meeting Frontiers in Optics/Laser Science. This year’s exhibit hall immediately following the close of the competition is IYL-To-Go. For a chance to win up to show for some food and beverages sponsored by $500 USD for your chapter, we’re asking you to cre- OSA Industry Development Associates. Join OSA and ate optical demonstrations for children and science discover the benefits of Industry Membership. OSA teachers that connect with the mission of the Inter- can help corporations optimize product develop- Better than Fakin’ it Good: national Year of Light to improve public understand- ment resources and reduce time to market by giving Multifunctional Bioreplication ing of how light affects our daily lives. These youth professionals access to quality information, quality Tuesday, 20 October, 12:00–13:30 education demos should be completely portable and interactions and premium opportunities for collabora- Fairfield Room, The Fairmont San Jose easy to recreate all over the world. Volunteer judges tion. Join today! Contact [email protected] or (202) will rate chapters on effectiveness, creativity, presen- 416-1482 for more information. Organized by the Environmental Sensing Technical tation and supplies. Group, this event will feature a talk by Dr. Akhlesh Minorities and Women in OSA (MWOSA) Lakhtakia of Pennsylvania State University on bioreplication and its use in the eradication of emerald Networking Reception ash borer. Includes a boxed lunch. RSVP required. Tuesday, 20 October, 16:00–17:00 Contact [email protected] to register, pending Free of Charge – RSVP Required availability. Atherton Please join the MWOSA community for a networking Sponsored by reception where we will celebrate the OSA Founda- tion grant award recipients. If you have any questions regarding the event please Email [email protected].

20 FiO/LS 2015 • 18–22 October 2015 OSA Annual Business Meeting If you join OSA on-site, please bring your receipt. VIP Industry Leaders Networking Event: Tuesday, 20 October, 17:00–17:45 *This event is complimentary and is for OSA Mem- Connecting Corporate Executives, Recent Fairfield bers. If you would like to bring a guest, tickets are Graduates and Students Learn more about OSA and join the OSA Board of available for $75 USD each. Wednesday, 21 October, 12:30–14:00 Club Regent, Lobby Level Directors for the Society’s annual business meeting. Not a member yet? Join today to attend this compli- The 2014 activity reports will be presented and the mentary OSA Member event. Includes a boxed lunch. RSVP Required. results of the 2015 Board of Directors election will be announced. Laser Science Banquet Presented by Tuesday, 20 October, 19:00–21:00 Industry APS Division of Laser Science Annual Development Gordon Biersch Restaurant, 33 East San Fernando St, Associates Business Meeting San Jose, CA This session brings together Industry Executives to Tuesday, 20 October, 17:00–18:00 Join your colleagues for the annual LS Banquet. Tick- share their business experience – from how they

Belvedere Special Events ets are required for this event and can be purchased started their careers, lessons learned along the way, All members and interested parties are invited to at registration for US $65. There is a limited quantity to using their degree in an executive position – with attend the annual business meeting of the Division of tickets and tickets must be purchased by 12:00 on Young Professionals and Students. The program of Laser Science (DLS). The DLS officers will report Monday, 19 October. starts with informal networking during lunch and then on the activities of the past year and on plans for the transitions into “speed meetings” – small, brief visits future. Questions will be taken from the floor. This is OSA Members, Family and Friends Tour with 6-8 executives to discuss careers, industry trends your opportunity to help define the operations of the or other career topics. Wednesday, 21 October, 10:00–12:15 DLS and the LS Conference. Rosicrucian Egyptian Museum and Planetarium, 1660 Space is limited. Members of OSA’s Young Profes- Park Ave., San Jose, CA sionals program will be given registration priority, but OSA Member Reception: Trip the Light students and recent graduates are also welcome and Bus will depart from the Fairmont San Jose’s main Fantastic encouraged to register. entrance at 10:15. An International Year of Light-apalooza On-site registration will be accepted pending avail- Tuesday, 20 October, 18:30–20:30 No charge to OSA members and their families. Chil- ability. Please contact [email protected] if you would Grande Ballroom, The Westin San Jose, 302 S. Market dren are welcome. Street, San Jose, CA like to register. Sponsored by Complimentary and for OSA Members Only* To join the Young Professionals program, email [email protected] . The Optical Society cordially invites OSA Members Architecturally inspired by the Temple of Amon at to a celebratory night for the International Year of Karnak, the Rosicrucian Egyptian Museum and Plan- Meet the Editors of the APS Journals etarium houses the largest collection of Egyptian arti- Light. Wednesday, 21 October, 13:00–14:30 facts on exhibit in western North America, including Imperial Ballroom The poet John Milton wrote, “Com, and trip it as ye objects from pre-dynastic times through Egypt’s early go, / On the light fantastick toe.” As we start to wind Islamic era. Voted by Trip Advisor as one of the top The Editors of the APS journals invite you to join them down on this glorious year that focused the world’s sites to visit in San Jose, enjoy a 90-minute guided for conversation and light refreshments. The Editors attention on light, let’s take Milton’s advice and let tour of the museum’s exhibits, which focus on gods will be available to answer questions, hear your ideas, loose. For one special evening, OSA Members will and religion, kings and pharaohs, and burial practices. and discuss any comments about the journals. All are enjoy the company of friends and colleagues. We’ll welcome. We hope you will be able to join us. provide the beverages, appetizers, and music. You just need to bring your dancing shoes (oh, and your conference registration badge or OSA Membership card).

FiO/LS 2015 • 18–22 October 2015 21 OSA Science Educators’ Day (EDAY) Dr. Mazur has received numerous awards, including OIDA Town Hall Forum on Biophotonics Wednesday, 21 October, 17:00–20:00 the Esther Hoffman Beller award from the Optical Challenges & Opportunities Regency 1 Society (OSA) and the Millikan Medal from the Ameri- Wednesday, 21 October, 18:00–20:00 can Association of Physics Teachers (AAPT). In 2014 Club Regent, Lobby Level This annual event focuses on effective and innovative Mazur became the inaugural recipient of the Minerva approaches to science education, with an emphasis Prize for Advancements in Higher Education. He is on hands-on, interactive classroom lessons. Fellow of the Optical Society (OSA) and Fellow of the Industry Interactive Teaching and Peer Instruction, Eric American Physical Society (APS). He is a Member of Development Mazur; Harvard University, USA the Royal Academy of Sciences of the Netherlands Associates and a Member of the Royal Holland Society of Sci- Eric Mazur is the Balkanski Professor of Physics and ences and Humanities. New! You’re Invited to OSA’s Free Town Hall Forum Applied Physics at Harvard University and Area Dean on Biophotonics of Applied Physics. An internationally recognized Dr. Mazur is author or co-author of 298 scientific Please join us for an open town-hall meeting, where scientist and researcher, he leads a vigorous research publications, 36 patents, and several books, includ- thought leaders debate and share perspectives that program in optical physics and supervises one of the ing the Principles and Practice of Physics (Pearson, are critical to understanding the rapidly expanding largest research groups in the Physics Department at 2014), a book that presents a groundbreaking new biophotonics market. Questions to be discussed Harvard University. Mazur founded several companies approach to teaching introductory calculus-based include: and plays an active role in industry. physics. Mazur is a sought-after speaker on optics and on education. • What is the enabling technology that has the In addition to his work in optical physics, Mazur has most market traction? been very active in education. In 1990 he began

Special Events Optical Fabrication and Testing Technical developing Peer Instruction, a method for teaching • What are the challenges and opportunities large lecture classes interactively. He is the author Group Networking Event among photonics technologies today? of Peer Instruction: A User’s Manual (Prentice Hall, Wednesday, 21 October, 18:00–20:00 • Where is the best potential for funding? 1997), a book that explains how to teach large lecture Fairfield Room, The Fairmont San Jose classes interactively. In 2006 he helped produce the Join members of the Optical Fabrication and Testing This event’s new, interactive format will prioritize key award-winning DVD Interactive Teaching. Dr. Mazur’s Technical Group for a chance to learn more about this findings for future use by the community. Happy hour teaching method has developed a large following, group and connect with fellow attendees who share drinks and snacks are complimentary. both nationally and internationally, and has been an interest in optical fabrication and testing. adopted across many disciplines. FiO Postdeadline Paper Presentations Sponsored by Wednesday, 21 October, 20:00–22:00 See the Update Sheet in your registration bag for exact times and locations The FiO 2015 Technical Program Committee accepted a limited number of postdeadline papers for presentation. The purpose of postdeadline sessions is to give participants the opportunity to hear new and significant material in rapidly advancing areas. Only those papers judged to be truly excellent and compelling in their timeliness were accepted.

22 FiO/LS 2015 • 18–22 October 2015 Exhibition Information

Visit the Frontiers in Optics 2015 Exhibit in the Exhibitor Appreciation Reception FiO 2015 Participating Companies: Imperial Ballroom and get a glimpse of the latest Tuesday, 20 October, 16:00–17:00 (as of 09/22/2015) optical innovations! The FiO 2015 exhibit floor will Imperial Ballroom feature companies representing a broad range of AIP Publishing the best products and applications in the optics and American Association of Physics Teachers Sponsored by photonics industry. Don’t miss this opportunity to Industry American Elements learn about new products, find technical and busi- Development Associates American Institute of Physics ness solutions and gain the most up-to-date market perspective of your industry. Exhibitors, finish up your first day and come relax Cambridge University Press and mingle with your fellow exhibitors. Join us in the Chroma Technology Corp. There is no charge to attend the exhibit—it’s open to exhibit hall immediately following the close of the Energetiq Technology, Inc. all registered attendees! show for some food and beverages sponsored by Fianium, Inc. Exhibit Hours OSA Industry Development Associates. Join OSA and discover the benefits of Industry Membership. OSA IDEX Optics & Photonics Tuesday, 20 October 09:30–16:00 can help corporations optimize product develop- Inrad Optics Wednesday, 21 October 09:30–14:00 ment resources and reduce time to market by giving Jasper Display Corp. professionals access to quality information, quality KMLabs Exhibit Hall Unopposed Exhibit-Only Times interactions and premium opportunities for collabo- LEUKOS ration. Join today! Contact [email protected] or Light Brigade, Inc., The Tuesday, 20 October 09:30–10:30 (202) 416-1482 for more information. 12:00–13:00 Liquid Instruments

14:30–16:00 Mahr-ESDI Exhibit Information Wednesday, 21 October 09:30–11:00 Newport Corporation 12:30–13:30 NKT Photonics Inc. Ophir-Spiricon, LLC Joint FiO/LS Poster Sessions Optimax Systems, Inc. Imperial Ballroom Optromix, Inc. Poster presentations offer an effective way to commu- OSA Industry Development Associates nicate new research findings and provide an oppor- PHASICS Corp. tunity for lively and detailed discussion between Pure Photonics presenters and interested viewers. Make sure to visit Santec USA Corporation the poster sessions in the Exhibit Hall to see the more SPIE than 80 posters scheduled for presentation. Steinmeyer, Inc. Tuesday, 20 October 14:30–16:00 Syntec Optics Wednesday, 21 October 09:30–11:00 Thorlabs Toptica Photonics, Inc. TRIOPTICS USA University of Arizona, College of Optical Sciences

FiO/LS 2015 • 18–22 October 2015 23 FiO/LS Committee Thanks to the technical program committee members! Your time and efforts are appreciated! Frontiers in Optics 2015 FiO 3: Optics in Biology and Medicine FiO 6: Quantum Electronics Technical Program Committee Melissa Skala, Vanderbilt Univ., USA, Subcommittee Alexander V. Sergienko, Boston Univ., USA, David Hagan, Univ. of Central Florida, CREOL, USA, Chair Subcommittee Chair General Chair Steven Adie, Cornell Univ., USA Ryan Camacho, Sandia Natl. Lab, USA Nikola Alic, Univ. of California at San Diego, USA, J. Quincy Brown, Tulane Univ., USA Hui Cao, Yale Univ., USA General Chair Alvara Casas-Bedoya, Univ. of Sydney, Australia Luca Dal Negro, Boston Univ., USA Nozomi Nishimura, Cornell Univ., USA, Program Bernard Choi, Univ. of California at Irvine, USA Sara Ducci, Univ. of Paris VII, France Chair Conor Evans, Massachusetts General Hospital, USA Jim Franson, Univ. of Maryland Baltimore County, Ronald Reano, Ohio State Univ., USA, Program Chair Martin Leahy, Natl. Univ. of Ireland Galway, Ireland USA Aydogan Ozcan, Univ. of California at Los Angeles, Yuri Kivshar, Australian Natl. Univ., Australia FiO 1: Optical Design and Instrumentation USA John Rarity, Univ. of Bristol, UK Ronguang Liang, Univ. of Arizona, USA, Alvin Yeh, Texas A&M Univ., USA Fabio Sciarrino, Univ. of Rome La Sapienza, Italy Subcommittee Chair Duncan Steel, Univ. of Calgary, USA FiO 4: Fiber Optics and Optical Communications Michael Gehm, Duke Univ., USA Rupert Ursin, Univ. of Vienna, Austria John Koshel, Univ. of Arizona, USA John Marciante, Univ. of Rochester, USA, FiO 7: Vision and Color Stephen Kuebler, Univ. of Central Florida, CREOL, Subcommittee Chair USA John Ballato, Clemson Univ., USA Brian Vohnsen, Univ. College Dublin, Ireland, Byoungho Lee, Seoul Natl. Univ., Korea Mikhail Brodsky, ATT Research, USA Subcommittee Chair Yi-Hsin Lin, Natl. Chiao Tung Univ., Taiwan Iyad Dajani, Air Force Research Lab., USA Stacey Choi, Ohio State Univ., USA Jannick Rolland, Univ. of Rochester, USA Fabrizio Di Pasquale, Scuola Superiore Sant’Anna, Enrique-Josua Fernandez, Univ. de Murcia, Spain Kevin Rolland-Thompson, Synopsys Inc, USA Pisa, Italy Ravi Jonnal, Univ. of California at Davis, USA Qiwen Zhan, Univ. of Dayton, USA Goëry Genty, Univ. of Tempere, Finland Andrew Metha, Univ. of Melbourne, Australia Morten Ibsen, Univ. of Southampton, UK Ramkumar Sabesan, Univ. of California at Berkeley, FiO 2: Optical Sciences Bill Kuo, Univ. of California at San Diego, USA USA Laszlo Veisz, Max Planck Inst. for Quantum Optics, Thomas Murphy, Univ. of Maryland, USA Yuhua Zhang, Univ. of Alabama at Birmingham, USA Germany, Subcommittee Chair Chongjin Xie, Alcatel-Lucent Labs, USA Selçuk Aktürk, Istanbul Technical Univ., Turkey FiO 5: Integrated Photonics Ian Coddington, Natl. Inst. of Standards and Technology, USA Joyce Poon, Univ. of Toronto, Canada, Subcommittee Cameron Geddes, LBL, USA Chair Igor Jovanovic, Penn State Univ., USA Paul Barclay, Univ. of Calgary, Canada Carlos Lopez Mariscal, Naval Research Lab, USA Badhise Ben Bakir, CEA-Leti, France Rodrigo Lopez-Martens, École Natl. Supérieure de Ivan Biaggio, Lehigh Univ., USA Techniques Avancées, France Nicolas Fang, Massachusetts Inst. of Technology, USA Stephen Maxwell, Natl. Inst. of Standards and William Green, IBM T. J. Watson Research Ctr., USA Technology, USA Wataru Nakagawa, Montana State Univ., USA Jie Qiao, Rochester Inst. of Technology, USA Nicolae-Coriolan Panoiu, Univ. College London, UK Koichi Yamakawa, Japan Atomic Energy Agency, Mahmoud Rasras, Masdar Inst., United Arab Emirates Japan Lin Zhu, Clemson Univ., USA FiO/LS Committees

24 FiO/LS 2015 • 18–22 October 2015 Laser Science Program Committee Explanation of Session Codes Galina Khitrova, College of Optical Sciences, Univ. of Arizona, USA, General Chair Randy A. Bartels, Colorado State Univ., USA, Program FTu1A.4 Chair Session Laser Science Session Organizers Designation Accelerating Beams in Optics and Beyond (alphabetically) Ido Kaminer, Technion Isreal Inst. of Technology, Israel Number Innovative Metallic-Emitter Coupled Systems Meeting Name (presentation Josh Hendrickson, Wright-Patterson Air Force Base, F = Frontier in Optics (FiO) Series Number order within USA L = Laser Science (LS) 1 = First Series of Sessions J = Joint 2 = Second Series of Sessions the session) Semiconductor Nanooptics Sangam Chatterjee, Philipps Univ. Marburg, Germany Day of the Week Novel Fiber Lasers M = Monday Nasser Peyghambarian, Univ. of Arizona, USA Tu = Tuesday Computational Optical Imaging W = Wednesday Lei Tian, Univ. of California at Berkeley, USA Th = Thursday Advances in Nonlinear Laser Spectroscopy Jesse Wilson, Duke Univ., USA

Precision Laser Spectroscopy The first letter of the code designates the meeting (For instance, F = Frontiers in Optics, L = Laser Dylan Yost, Univ. of Colorado at Boulder, JILA, USA Science, J=Joint). The second element denotes the day of the week (Monday = M, Tuesday = Tu, Light Propagation in Scattering Media Wednesday = W, Thursday = Th). The third element indicates the session series in that day (for instance, Jeff Field, Colorado State Univ., USA 1 would denote the first parallel sessions in that day). Each day begins with the letter A in the fourth element and continues alphabetically through a series of parallel sessions. The lettering then restarts with each new series. The number on the end of the code (separated from the session code with a period) signals the position of the talk within the session (first, second, third, etc.). For example, a presentation coded FW1A.4 indicates that this paper is part of the Frontiers in Optics Meeting and is being presented on Wednesday (W) in the first series of sessions (1), and is the first parallel session (A) in that series and the fourth paper (4) presented in that session. FiO/LS Committees

FiO/LS 2015 • 18–22 October 2015 25 Agenda of Sessions — Sunday, 18 October

07:00–17:00 OSA Annual Student Chapter Leadership Conference (Invitation Only), Hyatt Place San Jose, Grand Hall 12:00-16:00 CAM Lounge, Market Street Foyer 12:00–18:30 Registration, Market Street Foyer 16:30–18:30 FS1A • Townes Memorial Symposium, Regency Ballroom 18:30–20:00 Townes Memorial Reception, Club Regent, Lobby Level (Sponsored by Thorlabs) 19:00–22:00 OSA Student Member Reception, Da Kine Island Grill, 23 N. Market St., San Jose, CA

Monday, 19 October

California Valley Crystal Gold Empire Fairfield Sacramento Hillsborough Piedmont Glen Ellen 07:00–18:00 Registration, Market Street Foyer Registration, Market Street Foyer 08:00–10:00 FM1A • Laser-plasma-based FM1B • Integrated FM1C • Symposium on FM1D • Nonlinear Optics FM1E • Emerging FM1F • Novel Concepts in FM1G • Optical Fabrication LM1H • Carl E. Anderson Award LM1I • Nonlinear and Secondary Sources I Plasmonics Photoreceptor Analysis in Micro or Nano-Optical Technologies for High Speed Waveguide Optics and Testing for Outstanding Doctoral Spectroscopic Imaging I and Single-cone- Structures I Optical Communications I (ends at 09:30) Dissertation in Laser Science mediated Vision 09:00-16:00 CAM Lounge, Market Street Foyer CAM Lounge, Market Street Foyer 10:00–10:30 Coffee Break, Market Street & South Tower Foyers Coffee Break, Market Street & South Tower Foyers Laser Science Symposium on 10:30–12:00 FM2A • Laser-plasma-based FM2B • Biophotonics for FM2C • Novel Methods FM2D • Nonlinear Optics FM2E • Emerging FM2F • Advances in Ocular FM2G • Optical Metrology LM2H • Computational LM2I • Accelerating Wavepackets Undergraduate Research Secondary Sources II Point-of-Care and Global for Tissue Imaging in Micro or Nano-Optical Technologies for High Speed Biometry and Studies (begins at 11:00) Optical Imaging I in Optics and Beyond I (See program distributed Health Applications and Therapy Structures II Optical Communications II of the Anterior Eye with registration materials for complete information) 12:00–13:30 Lunch (on your own) Lunch (on your own) 10:00-12:30 LM2J • Laser Science 12:00–13:30 Frontiers in Photonic Detection Panel Discussion, Belvedere Frontiers in Photonic Detection Panel Discussion, Belvedere Symposium on Undergraduate 12:00–13:30 Nonlinear Optics Technical Group Workshop, Atherton Nonlinear Optics Technical Group Workshop, Atherton Research Poster Session 12:00–13:30 OSA Fellow Members Lunch (Advance registration required), Ballroom, The Westin San Jose, 302 S. Market Street, San Jose, CA OSA Fellow Members Lunch (Advance registration required), Ballroom, The Westin San Jose, 302 S. Market Street, San Jose, CA 12:30–14:00 LM3J • Laser 13:30–15:30 FM3A • Laser-plasma-based FM3B • Plasmonics and FM3C • Symposium on Optics FM3D • Nonlinear Optics FM3E • Optical Design FM3F • Retinal Imaging, FM3G • Novel Materials and LM3H • Semiconductor LM3I • Accelerating Wavepackets Science Symposium on Secondary Sources III Nanophotonics for Global Health and Low in Micro or Nano-Optical (ends at 15:15) Vasculature, and Photoreceptor Design for Optical Fibers NanoOptics I in Optics and Beyond II Undergraduate Research I

Agenda of Sessions Resource Settings Structures III Modelling in Healthy (ends at 15:45) 14:00–16:00 LM4J • Laser and Diseased Eyes Science Symposium on Undergraduate Research II 15:30–16:00 Coffee Break, Market Street & South Tower Foyers Coffee Break, Market Street & South Tower Foyers 16:00–18:00 FM4A • International Year of Light – Science to Solutions Special Session, Regency Ballroom FM4A • International Year of Light – Science to Solutions Special Session, Regency Ballroom 18:00–19:00 OSA Microscopy and Optical Coherence Tomography Technical Group Poster Session, Atherton OSA Microscopy and Optical Coherence Tomography Technical Group Poster Session, Atherton 18:00–19:00 Meet OSA’s Journal Editors, Club Regent, Lobby Level Meet OSA’s Journal Editors, Club Regent, Lobby Level 18:30–20:30 International Year of Light/OSA President’s Reception, City Hall Rotunda, 200 E. Santa Clara Street, San Jose, CA International Year of Light/OSA President’s Reception, City Hall Rotunda, 200 E. Santa Clara Street, San Jose, CA All sessions/events to be held at The Fairmont San Jose unless otherwise noted.

Key to Shading

Frontiers in Optics Laser Science Joint Recorded Session

26 FiO/LS 2015 • 18–22 October 2015 California Valley Crystal Gold Empire Fairfield Sacramento Hillsborough Piedmont Glen Ellen 07:00–18:00 Registration, Market Street Foyer Registration, Market Street Foyer 08:00–10:00 FM1A • Laser-plasma-based FM1B • Integrated FM1C • Symposium on FM1D • Nonlinear Optics FM1E • Emerging FM1F • Novel Concepts in FM1G • Optical Fabrication LM1H • Carl E. Anderson Award LM1I • Nonlinear and Secondary Sources I Plasmonics Photoreceptor Analysis in Micro or Nano-Optical Technologies for High Speed Waveguide Optics and Testing for Outstanding Doctoral Spectroscopic Imaging I and Single-cone- Structures I Optical Communications I (ends at 09:30) Dissertation in Laser Science mediated Vision 09:00-16:00 CAM Lounge, Market Street Foyer CAM Lounge, Market Street Foyer 10:00–10:30 Coffee Break, Market Street & South Tower Foyers Coffee Break, Market Street & South Tower Foyers Laser Science Symposium on 10:30–12:00 FM2A • Laser-plasma-based FM2B • Biophotonics for FM2C • Novel Methods FM2D • Nonlinear Optics FM2E • Emerging FM2F • Advances in Ocular FM2G • Optical Metrology LM2H • Computational LM2I • Accelerating Wavepackets Undergraduate Research (See program distributed

Secondary Sources II Point-of-Care and Global for Tissue Imaging in Micro or Nano-Optical Technologies for High Speed Biometry and Studies (begins at 11:00) Optical Imaging I in Optics and Beyond I Agenda of Sessions Health Applications and Therapy Structures II Optical Communications II of the Anterior Eye with registration materials for complete information) 12:00–13:30 Lunch (on your own) Lunch (on your own) 10:00-12:30 LM2J • Laser Science 12:00–13:30 Frontiers in Photonic Detection Panel Discussion, Belvedere Frontiers in Photonic Detection Panel Discussion, Belvedere Symposium on Undergraduate 12:00–13:30 Nonlinear Optics Technical Group Workshop, Atherton Nonlinear Optics Technical Group Workshop, Atherton Research Poster Session 12:00–13:30 OSA Fellow Members Lunch (Advance registration required), Ballroom, The Westin San Jose, 302 S. Market Street, San Jose, CA OSA Fellow Members Lunch (Advance registration required), Ballroom, The Westin San Jose, 302 S. Market Street, San Jose, CA 12:30–14:00 LM3J • Laser 13:30–15:30 FM3A • Laser-plasma-based FM3B • Plasmonics and FM3C • Symposium on Optics FM3D • Nonlinear Optics FM3E • Optical Design FM3F • Retinal Imaging, FM3G • Novel Materials and LM3H • Semiconductor LM3I • Accelerating Wavepackets Science Symposium on Secondary Sources III Nanophotonics for Global Health and Low in Micro or Nano-Optical (ends at 15:15) Vasculature, and Photoreceptor Design for Optical Fibers NanoOptics I in Optics and Beyond II Undergraduate Research I Resource Settings Structures III Modelling in Healthy (ends at 15:45) 14:00–16:00 LM4J • Laser and Diseased Eyes Science Symposium on Undergraduate Research II 15:30–16:00 Coffee Break, Market Street & South Tower Foyers Coffee Break, Market Street & South Tower Foyers 16:00–18:00 FM4A • International Year of Light – Science to Solutions Special Session, Regency Ballroom FM4A • International Year of Light – Science to Solutions Special Session, Regency Ballroom 18:00–19:00 OSA Microscopy and Optical Coherence Tomography Technical Group Poster Session, Atherton OSA Microscopy and Optical Coherence Tomography Technical Group Poster Session, Atherton 18:00–19:00 Meet OSA’s Journal Editors, Club Regent, Lobby Level Meet OSA’s Journal Editors, Club Regent, Lobby Level 18:30–20:30 International Year of Light/OSA President’s Reception, City Hall Rotunda, 200 E. Santa Clara Street, San Jose, CA International Year of Light/OSA President’s Reception, City Hall Rotunda, 200 E. Santa Clara Street, San Jose, CA

FiO/LS 2015 • 18–22 October 2015 27 Agenda of Sessions — Tuesday, 20 October

California Valley Crystal Gold Empire Glen Ellen Sacramento Hillsborough Piedmont 07:00–18:00 Registration, Market Street Foyer Registration, Market Street Foyer 08:00–09:30 JTu1A • Joint FiO/LS Plenary and Awards Session I, Regency Ballroom JTu1A • Joint FiO/LS Plenary and Awards Session I, Regency Ballroom 09:00–16:00 CAM Lounge, Market Street Foyer CAM Lounge, Market Street Foyer 09:30–16:00 Exhibit Hall Open, Imperial Ballroom Exhibit Hall Open, Imperial Ballroom Ribbon Cutting Ceremony at 09:30 Ribbon Cutting Ceremony at 09:30 09:30–10:30 Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Coffee Break (09:30-10:00) Coffee Break (09:30-10:00) 10:30–12:00 FTu2A • Integrated Quantum Optics I FTu2B • Photonic Crystals FTu2C • Wearable Imaging Optics FTu2D • Microscopy I FTu2E • Engineered FTu2F • General Quantum LTu2G • Precision Laser LTu2H • Novel Fiber Lasers I Frequency Combs in Passive Electronics I Spectroscopy I and Active Systems I 12:00–13:00 Lunch Break (on your own) and Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Lunch Break (on your own) and Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom 12:00–13:30 Optical Material Studies Technical Group Workshop, Cupertino Optical Material Studies Technical Group Workshop, Cupertino 12:00–13:30 Better than Fakin’ it Good: Multifunctional Bioreplication, Fairfield Better than Fakin’ it Good: Multifunctional Bioreplication, Fairfield 14:30–16:00 OSA Student Chapter Competition, Exhibit Hall, Imperial Ballroom OSA Student Chapter Competition, Exhibit Hall, Imperial Ballroom 13:00–14:30 FTu3A • Nonlinear Optics in Micro FTu3B • Novel Communications FTu3C • Photonic Structures FTu3D • Microscopy II FTu3E • Engineered FTu3F • Lasers and Electro-optics FTu3G • General Quantum LTu3H • Nonlinear and LTu3I • Novel Fiber Lasers II or Nano-Optical Structures IV Technologies for Energy Frequency Combs in Passive Electronics II Spectroscopic Imaging II and Active Systems II 14:30–16:00 JTu4A • Joint FiO/LS Poster Session I, Exhibit Hall, Imperial Ballroom JTu4A • Joint FiO/LS Poster Session I, Exhibit Hall, Imperial Ballroom 14:30–16:00 Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Coffee Break (14:30-15:00) Coffee Break (14:30-15:00) 16:00–18:00 FTu5A • Nonlinear Optics in Micro FTu5B • Studying Human Vision FTu5C • Optomechanics and FTu5D • Wavefront Sensing FTu5E • Laser-matter FTu5F • Optical Trapping LTu5G • Precision Laser LTu5H • Novel Fiber Lasers III or Nano-Optical Structures V with Animal Eyes and Exploring Photonic Nanostructures and Adaptive Optics Interaction and Manipulation Spectroscopy II the Limits of Human Vision Agenda of Sessions 16:00–17:00 Exhibitor Appreciation Reception (exhibitors only Sponsored by OSA Industry Development Associates, Exhibit Hall, Imperial Ballroom Exhibitor Appreciation Reception (exhibitors only) Sponsored by OSA Industry Development Associates, Exhibit Hall, Imperial Ballroom 16:00–17:00 Minorities and Women in OSA (MWOSA) Networking Reception, Atherton Minorities and Women in OSA (MWOSA) Networking Reception, Atherton 17:00–17:45 OSA Annual Business Meeting, Fairfield OSA Annual Business Meeting, Fairfield 17:00–18:00 APS Division of Laser Science Annual Business Meeting, Belvedere APS Division of Laser Science Annual Business Meeting, Belvedere 18:30–20:30 OSA Member Reception, Grande Ballroom, The Westin San Jose, 302 S. Market Street, San Jose, CA OSA Member Reception, Grande Ballroom, The Westin San Jose, 302 S. Market Street, San Jose, CA 19:00–22:00 Laser Science Banquet, Gordon Biersch, 33 East San Fernando St, San Jose, CA Laser Science Banquet, Gordon Biersch, 33 East San Fernando St, San Jose, CA All sessions/events to be held at The Fairmont San Jose unless otherwise noted. Key to Shading

Frontiers in Optics Laser Science Joint Recorded Session

28 FiO/LS 2015 • 18–22 October 2015 California Valley Crystal Gold Empire Glen Ellen Sacramento Hillsborough Piedmont 07:00–18:00 Registration, Market Street Foyer Registration, Market Street Foyer 08:00–09:30 JTu1A • Joint FiO/LS Plenary and Awards Session I, Regency Ballroom JTu1A • Joint FiO/LS Plenary and Awards Session I, Regency Ballroom 09:00–16:00 CAM Lounge, Market Street Foyer CAM Lounge, Market Street Foyer 09:30–16:00 Exhibit Hall Open, Imperial Ballroom Exhibit Hall Open, Imperial Ballroom Ribbon Cutting Ceremony at 09:30 Ribbon Cutting Ceremony at 09:30 09:30–10:30 Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Coffee Break (09:30-10:00) Coffee Break (09:30-10:00) 10:30–12:00 FTu2A • Integrated Quantum Optics I FTu2B • Photonic Crystals FTu2C • Wearable Imaging Optics FTu2D • Microscopy I FTu2E • Engineered FTu2F • General Quantum LTu2G • Precision Laser LTu2H • Novel Fiber Lasers I Frequency Combs in Passive Electronics I Spectroscopy I and Active Systems I 12:00–13:00 Lunch Break (on your own) and Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Lunch Break (on your own) and Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom 12:00–13:30 Optical Material Studies Technical Group Workshop, Cupertino Optical Material Studies Technical Group Workshop, Cupertino 12:00–13:30 Better than Fakin’ it Good: Multifunctional Bioreplication, Fairfield Better than Fakin’ it Good: Multifunctional Bioreplication, Fairfield 14:30–16:00 OSA Student Chapter Competition, Exhibit Hall, Imperial Ballroom OSA Student Chapter Competition, Exhibit Hall, Imperial Ballroom 13:00–14:30 FTu3A • Nonlinear Optics in Micro FTu3B • Novel Communications FTu3C • Photonic Structures FTu3D • Microscopy II FTu3E • Engineered FTu3F • Lasers and Electro-optics FTu3G • General Quantum LTu3H • Nonlinear and LTu3I • Novel Fiber Lasers II or Nano-Optical Structures IV Technologies for Energy Frequency Combs in Passive Electronics II Spectroscopic Imaging II and Active Systems II Agenda of Sessions 14:30–16:00 JTu4A • Joint FiO/LS Poster Session I, Exhibit Hall, Imperial Ballroom JTu4A • Joint FiO/LS Poster Session I, Exhibit Hall, Imperial Ballroom 14:30–16:00 Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Coffee Break (14:30-15:00) Coffee Break (14:30-15:00) 16:00–18:00 FTu5A • Nonlinear Optics in Micro FTu5B • Studying Human Vision FTu5C • Optomechanics and FTu5D • Wavefront Sensing FTu5E • Laser-matter FTu5F • Optical Trapping LTu5G • Precision Laser LTu5H • Novel Fiber Lasers III or Nano-Optical Structures V with Animal Eyes and Exploring Photonic Nanostructures and Adaptive Optics Interaction and Manipulation Spectroscopy II the Limits of Human Vision 16:00–17:00 Exhibitor Appreciation Reception (exhibitors only Sponsored by OSA Industry Development Associates, Exhibit Hall, Imperial Ballroom Exhibitor Appreciation Reception (exhibitors only) Sponsored by OSA Industry Development Associates, Exhibit Hall, Imperial Ballroom 16:00–17:00 Minorities and Women in OSA (MWOSA) Networking Reception, Atherton Minorities and Women in OSA (MWOSA) Networking Reception, Atherton 17:00–17:45 OSA Annual Business Meeting, Fairfield OSA Annual Business Meeting, Fairfield 17:00–18:00 APS Division of Laser Science Annual Business Meeting, Belvedere APS Division of Laser Science Annual Business Meeting, Belvedere 18:30–20:30 OSA Member Reception, Grande Ballroom, The Westin San Jose, 302 S. Market Street, San Jose, CA OSA Member Reception, Grande Ballroom, The Westin San Jose, 302 S. Market Street, San Jose, CA 19:00–22:00 Laser Science Banquet, Gordon Biersch, 33 East San Fernando St, San Jose, CA Laser Science Banquet, Gordon Biersch, 33 East San Fernando St, San Jose, CA

FiO/LS 2015 • 18–22 October 2015 29 Agenda of Sessions — Wednesday, 21 October

California Valley Crystal Gold Empire Glen Ellen Sacramento Hillsborough Piedmont 07:00–18:00 Registration, Market Street Foyer Registration, Market Street Foyer 08:00–09:30 JW1A • Joint FiO/LS Plenary and Awards Session II, Regency Ballroom JW1A • Joint FiO/LS Plenary and Awards Session II, Regency Ballroom 09:00–16:00 CAM Lounge, Market Street Foyer CAM Lounge, Market Street Foyer 09:30–14:00 Exhibit Hall Open, Exhibit Hall, Imperial Ballroom Exhibit Hall Open, Exhibit Hall, Imperial Ballroom 09:30–11:00 JW2A • Joint FiO/LS Poster Session II, Exhibit Hall, Imperial Ballroom JW2A • Joint FiO/LS Poster Session II, Exhibit Hall, Imperial Ballroom 09:30–11:00 Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Coffee Break (09:30–10:00) Sponsored by IDEX Optics & Photonics Coffee Break (09:30–10:00) Sponsored by IDEX Optics & Photonics 10:00-12:15 OSA Friends and Family Tour of Rosicrucian Egyptian Museum and Planetarium (Bus departs from Fairmont San Jose’s main entrace at 10:15) OSA Friends and Family Tour of Rosicrucian Egyptian Museum and Planetarium (Bus departs from Fairmont San Jose’s main entrace at 10:15) 11:00–12:30 FW3A • General Optical Sciences I FW3B • Integrated Photonics for FW3C • Frequency Comb FW3D • Quantum Optical FW3E • Novel Integrated FW3F • Novel Light FW3G • Symposium Honoring LW3H • Novel Photonics LW3I • Computational Communications: Datacenters Generation and Applications Measurement and Technologies I Optical Structures Generation and Manipulation Adolf Lohmann I (ends at 12:45) Optical Imaging II and Networks I in Fiber Devices I 12:30–13:30 Lunch Break (on your own) and Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Lunch Break (on your own) and Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom 12:30–14:00 VIP Industry Leaders Networking Event, Club Regent, Lobby Level VIP Industry Leaders Networking Event, Club Regent, Lobby Level 13:00–14:30 Meet the Editors of the APS Journals, Exhibit Hall, Imperial Ballroom Meet the Editors of the APS Journals, Exhibit Hall, Imperial Ballroom 13:30–15:30 FW4A • General Optical Sciences II FW4B • Integrated Photonics for FW4C • Symposium on Optical Remote FW4D • Quantum Optical FW4E • Optical Coherence FW4F • Novel Light FW4G • Symposium Honoring LW4H • Semiconductor LW4I • Advanced Imaging Communications: Datacenters Sensing for the Climate Measurement and Technologies II Tomography Generation and Manipulation Adolf Lohmann II NanoOptics II and Networks II (ends at 15:00) in Fiber Devices II 15:30–16:00 Coffee Break, Market Street & South Tower Foyers Coffee Break, Market Street & South Tower Foyers 16:00–18:00 FW5A • Quantum Optical FW5B • Integrated Photonics for FW5C • Novel Concepts FW5D • Polarization Imaging FW5E • General Optics in FW5F • Novel Light FW5G • Symposium Honoring LW5H • Semiconductor LW5I • Precision Laser Measurement and Technologies III Communications: InP Platforms and in Plasmonics Biology and Medicine Generation and Manipulation Adolf Lohmann III NanoOptics III Spectroscopy III Lasers in Fiber Devices III (ends at 18:15) (starts at 16:30) (ends at 17:30) Agenda of Sessions 17:00–20:00 OSA Science Educators’ Day, Regency Ballroom I OSA Science Educators’ Day, Regency Ballroom I 18:00–20:00 Optical Fabrication and Testing Technical Group Networking Event, Fairfield Optical Fabrication and Testing Technical Group Networking Event, Fairfield 18:00–20:00 OIDA Town Hall Forum on Biophotonics Challenges & Opportunities, Club Regent, Lobby Level OIDA Town Hall Forum on Biophotonics Challenges & Opportunities, Club Regent, Lobby Level 20:00–22:00 FiO Postdeadline Paper Session FiO Postdeadline Paper Session The complete schedule can be found in the PDP program and the FiO Mobile App. The complete schedule can be found in the PDP program and the FiO Mobile App.

All sessions/events to be held at The Fairmont San Jose unless otherwise noted. Key to Shading

Frontiers in Optics Laser Science Joint Recorded Session

30 FiO/LS 2015 • 18–22 October 2015 California Valley Crystal Gold Empire Glen Ellen Sacramento Hillsborough Piedmont 07:00–18:00 Registration, Market Street Foyer Registration, Market Street Foyer 08:00–09:30 JW1A • Joint FiO/LS Plenary and Awards Session II, Regency Ballroom JW1A • Joint FiO/LS Plenary and Awards Session II, Regency Ballroom 09:00–16:00 CAM Lounge, Market Street Foyer CAM Lounge, Market Street Foyer 09:30–14:00 Exhibit Hall Open, Exhibit Hall, Imperial Ballroom Exhibit Hall Open, Exhibit Hall, Imperial Ballroom 09:30–11:00 JW2A • Joint FiO/LS Poster Session II, Exhibit Hall, Imperial Ballroom JW2A • Joint FiO/LS Poster Session II, Exhibit Hall, Imperial Ballroom 09:30–11:00 Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Coffee Break (09:30–10:00) Sponsored by IDEX Optics & Photonics Coffee Break (09:30–10:00) Sponsored by IDEX Optics & Photonics 10:00-12:15 OSA Friends and Family Tour of Rosicrucian Egyptian Museum and Planetarium (Bus departs from Fairmont San Jose’s main entrace at 10:15) OSA Friends and Family Tour of Rosicrucian Egyptian Museum and Planetarium (Bus departs from Fairmont San Jose’s main entrace at 10:15) 11:00–12:30 FW3A • General Optical Sciences I FW3B • Integrated Photonics for FW3C • Frequency Comb FW3D • Quantum Optical FW3E • Novel Integrated FW3F • Novel Light FW3G • Symposium Honoring LW3H • Novel Photonics LW3I • Computational Communications: Datacenters Generation and Applications Measurement and Technologies I Optical Structures Generation and Manipulation Adolf Lohmann I (ends at 12:45) Optical Imaging II and Networks I in Fiber Devices I 12:30–13:30 Lunch Break (on your own) and Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Lunch Break (on your own) and Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom 12:30–14:00 VIP Industry Leaders Networking Event, Club Regent, Lobby Level VIP Industry Leaders Networking Event, Club Regent, Lobby Level 13:00–14:30 Meet the Editors of the APS Journals, Exhibit Hall, Imperial Ballroom Meet the Editors of the APS Journals, Exhibit Hall, Imperial Ballroom

13:30–15:30 FW4A • General Optical Sciences II FW4B • Integrated Photonics for FW4C • Symposium on Optical Remote FW4D • Quantum Optical FW4E • Optical Coherence FW4F • Novel Light FW4G • Symposium Honoring LW4H • Semiconductor LW4I • Advanced Imaging Agenda of Sessions Communications: Datacenters Sensing for the Climate Measurement and Technologies II Tomography Generation and Manipulation Adolf Lohmann II NanoOptics II and Networks II (ends at 15:00) in Fiber Devices II 15:30–16:00 Coffee Break, Market Street & South Tower Foyers Coffee Break, Market Street & South Tower Foyers 16:00–18:00 FW5A • Quantum Optical FW5B • Integrated Photonics for FW5C • Novel Concepts FW5D • Polarization Imaging FW5E • General Optics in FW5F • Novel Light FW5G • Symposium Honoring LW5H • Semiconductor LW5I • Precision Laser Measurement and Technologies III Communications: InP Platforms and in Plasmonics Biology and Medicine Generation and Manipulation Adolf Lohmann III NanoOptics III Spectroscopy III Lasers in Fiber Devices III (ends at 18:15) (starts at 16:30) (ends at 17:30) 17:00–20:00 OSA Science Educators’ Day, Regency Ballroom I OSA Science Educators’ Day, Regency Ballroom I 18:00–20:00 Optical Fabrication and Testing Technical Group Networking Event, Fairfield Optical Fabrication and Testing Technical Group Networking Event, Fairfield 18:00–20:00 OIDA Town Hall Forum on Biophotonics Challenges & Opportunities, Club Regent, Lobby Level OIDA Town Hall Forum on Biophotonics Challenges & Opportunities, Club Regent, Lobby Level 20:00–22:00 FiO Postdeadline Paper Session FiO Postdeadline Paper Session The complete schedule can be found in the PDP program and the FiO Mobile App. The complete schedule can be found in the PDP program and the FiO Mobile App.

FiO/LS 2015 • 18–22 October 2015 31 Agenda of Sessions — Thursday, 22 October

California Valley Crystal Gold Empire Glen Ellen Sacramento Hillsborough Piedmont

07:30–17:30 Registration, Market Street Foyer Registration, Market Street Foyer

08:00–10:00 FTh1A • General Optical Sciences III FTh1B • Light Manipulation in FTh1C • Coherence, Interference FTh1D • Integrated FTh1E • Optical Fiber FTh1F • Computational Optical FTh1G • Optics and Photonics LTh1H • Complex Wave LTh1I • Innovative Metallic- Plasmonic Structures and General Optics I Quantum Optics II Sensors I: Applications Sensing and Imaging of Disordered Systems I Propagation Emitter Coupled Systems I

10:00–10:30 Coffee Break, Market Street & South Tower Foyers Coffee Break, Market Street & South Tower Foyers

10:30–12:00 FTh2A • General Optical Sciences IV FTh2B • Photonics on Silicon FTh2C • Coherence, Interference, and FTh2D • Quantum FTh2E • Optical Fiber FTh2F • High Power FTh2G • Optics and Photonics LTh2H • Light Propagation LTh2I • Innovative Metallic- General Optics - II Communications I Sensors II: Biosensors Raman Fiber Lasers of Disordered Systems II in Scattering Media Emitter Coupled Systems II (begins at 10:45)

12:00–13:00 Lunch (on your own) Lunch (on your own)

13:00–15:00 FTh3A • Ultrafast Laser Applications I FTh3B • Integrated Photonics FTh3C • Symposium on Applications FTh3D • Quantum FTh3E • Optical Fiber FTh3F • Three-Dimensional FTh3G • Computational Optical FTh3H • Fiber Lasers LTh3I • Innovative Metallic- for Communications: Hybrid of Low Noise Frequency Combs I Communications II Sensors III: Devices Optical Structure Design, Sensing and Imaging II and Amplifiers Emitter Coupled Systems III Integration on Silicon I Fabrication and Nanopatterning I

15:00–15:30 Coffee Break, Market Street & South Tower Foyers Coffee Break, Market Street & South Tower Foyers

15:30–17:30 FTh4A • Ultrafast Laser Applications II FTh4B • Integrated Photonics FTh4C • Symposium on Applications LTh4D • Complex Dynamics FTh4E • Optical Fiber FTh4F • Three-Dimensional FTh4G • Computational Optical LTh4H • Stable Laser Systems LTh4I • Novel Laser Systems for Communications: Hybrid of Low Noise Frequency Combs II (ends at 17:15) Sensors IV: Methods Optical Structure Design, Sensing and Imaging III Integration on Silicon II Fabrication and Nanopatterning II Agenda of Sessions

All sessions/events to be held at The Fairmont San Jose unless otherwise noted. Key to Shading

Frontiers in Optics Laser Science Joint Recorded Session

32 FiO/LS 2015 • 18–22 October 2015 California Valley Crystal Gold Empire Glen Ellen Sacramento Hillsborough Piedmont

07:30–17:30 Registration, Market Street Foyer Registration, Market Street Foyer

10:00–10:30 Coffee Break, Market Street & South Tower Foyers Coffee Break, Market Street & South Tower Foyers

12:00–13:00 Lunch (on your own) Lunch (on your own)

15:00–15:30 Coffee Break, Market Street & South Tower Foyers Coffee Break, Market Street & South Tower Foyers

FiO/LS 2015 • 18–22 October 2015 33 Monday, 19 October Toth Mao precise plasmacontrol forstableacceleration. requiring dependent, parameter strongly are processes These periods. plasma multiple in trapping caused Self-focusing waveguides. acceleration were achieved in cm-scale plasma laser-plasma nonlinear from beams electron 34 3 2 1 Lab Laser Accelerator, Berkeley the at Beams Electron Multi-GeV FM1A.1 •08:00 Institut furQuantenoptik,Germany Presider: LaszloVeisz; Max-Planck- . Geddes G. tpn Bulanov Stepan e Nakamura Kei Secondary Sources I FM1A •Laser-plasma-based 08:00–10:00 Univ. ofTechnology Eindhoven,Netherlands; ATAP, Lawrence BerkeleyNationalLab,USA; Univ. Multi-GeV Berkeley, ofCalifornia USA. 1 1 , Jeroen Van Tilborg , Carlo Benedetti 1 Ei Esarey Eric , California 1 Jot Daniels Joost , 1,3 Ja-u Vay Jean-Luc , Invited 1 , Carl Schroeder Anthony J. Gonsalves 1 1 , Daniel Mittelberger Wm P. Leemans Wim , 1,2 Hann-Shin , 1 Cameron , 1 , Csaba 1,3 1 1 ; , , Paniagua-Domínguez ebn . Bakker M. Reuben Waveguiding, for Nanoparticles Silicon FM1B.2 •08:15 1 Xu Huizhong Arrays, Waveguide Nanowire ZnO of erties Prop- Transmission Optical and Fabrication FM1B.1 •08:00 Univ., USA Presider: IvanBiaggio;Lehigh Plasmonics FM1B •Integrated 08:00–09:45 be achieved. can film silver a in arrays nanowaveguide ZnO through light visible of transmission resonant strong that show and spacing and diameter fabrication of ZnO nanowire arrays of controlled rei Kuznetsov Arseniy Orlando Lopez as 2.5dB/100micrometers. low as losses with nanoparticles silicon using light visible guiding on results experimental present We community. nanophotonics the of goal a been long has scale subwavelength the on energy photon of Guiding Singapore. e eosrt the demonstrate St. John’s We Univ., USA. 1 , Thomas Lamson Thomas , 1 , Shadab Hassan Valley 1 1 Y Fn Yu Feng Ye , ; 1 1 Brs Luk’yanchuk Boris , Data StorageInst., 1 1 , Sahar Khan Sahar , , Charles Kim 1 Ramón , 07:00–18:00 Registration, FiO/LS 2015 1 1 1 , ; , Single-cone-mediated Vision Single-cone-mediated Vision Photoreceptor Analysisand FM1C •Symposiumon 08:00–10:00 and Looking Ahead, Human Photoreceptor Topography - 25 years FM1C.1 •08:00 USA Presider: AnnElsner;Indiana Univ., retinal pathology. to approaches mechanistic and resolution sub-cellular with techniques imaging vivo in vision’s initial sampling array, today’s informing of quantification and visualization enabled retinas human in photoreceptors of map sive USA. of AlabamaatBirmingham, A comprehen- • Crystal FiO Invited Christine A. Curcio 18–22 October 2015 Market Street Foyer

1 ; 1 Univ. Trento, Italy; or Nano-OpticalStructures I FM1D •NonlinearOpticsinMicro 08:00–10:00 FM1D.1 •08:00 Queensland, Australia Presider: Andrew White;Univ. of Nonlinear Silicon Photonics, oez Pavesi Lorenzo Fernando Ramiro Manzano asm Borghi Massimo have beenstudied. ordersecond and arenonlinearities evidenced based optical microresonators where third order as well as silicon nitride and silicon nanocrystals Silicon presented. here are resonators gallery whispering based silicon of properties optical Bruno KesslerFoundation,Italy.nonlinear The Manna 1 Mti Mancinelli Mattia , 2 Centro MaterialieMicrosistemi, 1 1 ; Me Ghulinyan Mher , Gold 1 Universita degliStudidi Invited 1 , Alessandro Trenti 1 Gog Pucker Georg , Martino Bernard

2 Santanu , 2 2 1 , , , yamoto Capacity, 100-Tb/s beyond Transmissionrepeatered Multicore SpaceDivisionMultiplexedUn- FM1E.1 •08:00 SubCom, USA Presider: AlexeiPilipetskii;TE Communications I for HighSpeedOptical FM1E •Emerging Technologies 08:00–10:00 reviewed. also is space-division-multiplexing multicore on based technologies transmission on ment develop- Recent amplifier. optically-pumped transmission using multicore-fiber-based remote The paper describes high capacity unrepeatered 1 ; 1 Hidehiko Takara NTT NetworkInnovationLabs,Japan. Empire Invited 1 , T. Mizuno

1 , Yoko Mi-

Fairfield Sacramento Hillsborough Piedmont Monday, 19 October FiO LS

07:00–18:00 Registration, Market Street Foyer

08:00–09:30 08:00–09:45 08:00–10:00 08:00–10:00 FM1F • Novel Concepts in Waveguide FM1G • Optical Fabrication and Testing LM1H • Carl E. Anderson Award for LM1I • Nonlinear and Spectroscopic Optics Presider: Rongguang Liang; Univ. of Arizona, Outstanding Doctoral Dissertation in Laser Imaging I Presider: Tsung-Han Tsai, National Taiwan USA Science Presider: Marcus Cicerone; NIST, USA Univ., Taiwan Presider: Kristan Corwin; Kansas State Univ., USA

FM1F.1 • 08:00 FM1G.1 • 08:00 Invited LM1H.1 • 08:00 LM1I.1 • 08:00 Invited Coupling Length Phase Matching in Parallel Waveguides, Manufacturing of Low Cost Precision 3D Micro Optics, Spawning Rings of Exceptional Points out of Dirac Cones, Enhancing Pigmented or Transparent Tissue Imaging with 1 2 2 1 1,2 3,1 4 1 Ivan Biaggio , Virginie Coda , Germano Montemezzani ; Le- Hui Li1, Neil Naples1, Allen Y. Yi1; 1Ohio State Univ., USA. Bo Zhen , Chia Wei Hsu , Yuichi Igarashi , Ling Lu , Ido Laser Pulse Shaping, Warren S. Warren1, Martin C. Fischer1, 2 1,2 5 6 high Univ., USA; Lab LMOPS, Univ. of Lorraine and Supelec, Conventional lithography based micromachining methods Kaminer , Adi Pick , Song-Liang Chua , John Joannopou- Francisco E. Robles1, Jesse Wilson1, Sanghamitra Deb1; 1Duke 1 1 1 2 3 France. We show that phase-matching for frequency conver- often involves in complex facilities, templates and repeated los , Marin Soljacic ; MIT, USA; Technion, Israel; Yale Univ., Univ., USA. Enhanced control over femtosecond lasers (pulse 4 5 6 sion is possible in a system consisting of two parallel wave- mechanical alignments. In a departure from cleanroom based USA; NEC, Japan; Harvard Univ., USA; DSO National Labs, shaping or pulse train modulation) improves contrast in tissue guides without any spatial modulation of linear or nonlinear process, we aimed to establish a cost-effective, high preci- Singapore. We demonstrate that an accidental Dirac cone can imaging. Pump-probe applications to melanoma diagnosis optical properties, both for second and for third-order effects. sion, true 3D micromachining method with high flexibility. evolve into a ring of exceptional points in a photonic crystal and cross phase modulation measurement in transparent slab. Radiation fundamentally changes the band structure tissues will be presented. even though there is no material loss or gain.

FM1F.2 • 08:15 Coupling Length Phase Matching for Third-Order Fre- quency Downconversion in Dual Core Fibers, Ivan Biaggio1, Virginie Coda2, Germano Montemezzani2; 1Lehigh Univ., USA; 2Lab LMOPS, Univ. of Lorraine and Supelec, France. The coupling between parallel waveguides leads to a quasi-phase matching effect that allows to obtain phase matching for third-order down conversion and other third-order processes in silica fibers. Several phase matching conditions are found.

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FiO/LS 2015 • 18–22 October 2015 35 Monday, 19 October thew Streeter thew relativistic electron sheet. laser-driven signle a from pulses attosecond experimental results on generation of sub-cycle recent report we Here science. attosecond for attractive very are pulses attosecond isolated bright produce that TechniquesGermany. Germany; Germany; China; Nuclear PhysicsandTechnology, PekingUniv., Wang Queen’s Univ. Belfast,UK; 36 1 fromTungsten Nanotips, THz-Induced, High-Energy Electron Emission FM1A.3 •09:00 4 3 1 Sheet, from a Single Laser-driven Relativistic Electron Pulses Attosecond Sub-cycle of Generation FM1A.2 •08:30 Secondary Sources I—Continued FM1A •Laser-plasma-based mechanism and local electron-field interaction. emission the into insight provides angle cone and radius tip of function a as energyelectron maximum the of Comparison wires. tungsten nano-tipped from emission electron keV) eral (sev- energy high induce to used been have ton Lab,UK; Meyer-ter-Vehn rna Dromey Brendan Univ. ofVirginia, USA. Single-cycle THz pulses Central Laser Facility, STFC Rutherford Apple- Blackett Lab,ImperialCollegeLondon,UK; Faculty of Physics, Ludwig-Maximilians U, 2 , Mark Yeung Mark , 7 ejn Ma Wenjun Max-Planck-Inst. ofQuantumOptics, 2 Helmholtz Inst.Jena,Germany; 5 3 Dept. ofPhysicsandAstronomy, , Peta Foster Peta , California 7 , Matt Zepf 5 Xeig Yan Xueqing , 1 2 Jahi Bin Jianhui , , Christian Kreuzer Christian , Invited Sha Li Sha 2,5 4 , Steven Cousens Steven , 6 , Jörg Schreiber State KeyLabof 1 1 , R.R. Jones R.R. , Hongyong , 6 Juergen , 1 , Mat- , 1,7 5 1 ; , ; H. Reid USA; energy conversion. and storage, data optics, on-chip in plications ap- for devices of generation new a enables oxides, conducting transparent and nitrides compatible materials including transition metal CMOS- especially materials, plasmonic in Owen Miller Response, Plasmonic to Limits Fundamental FM1B.4 •09:00 Boltasseva Oxides, Conducting Transparent and Nitrides Metal Plasmonic Refractory with Nanophotonics for Platform Practical FM1B.3 •08:30 Russia; Steven Johnson Steven may offer significantenhancements. to the near field, where we present designs that our limits generalize the concept of a black body ic) response. Applied to radiative heat transfer, present fundamental limits to metallic (plasmon Electrical Engineering, Princeton Univ., USA. Plasmonics—Continued FM1B •Integrated 2 Skolkovo Inst.ofScienceandTechnology, 1 3 , Marin Soljacic Dept. ofPhysics,MIT, USA; 1 ; 1 , Athanasios G. Polimeridis 1 Advances Purdue Univ., USA. 1 ; Valley 1 Dept. ofMathematics,MIT, Invited 3 , Alejandro Rodriguez

Alexandra 4 Dept. of 2 , M. T. 09:00-16:00 We We FiO/LS 2015 4 - , tracking oftherapeuticresponse. imaging as it applies to disease monitoring and emerging. Here I discuss cause of blindness, for which new therapies are major a represents disease photoreceptor Degenerative USA. cal CollegeofWisconsin, College of Wisconsin, USA; College ofWisconsin, FM1C.2 •08:30 hitpe Langlo generative Disease,Christopher Single CellImagingInPhotoreceptor De- FM1C.3 •09:00 tors, Photorecep- Cone of Properties Waveguide that originate in the inner and outer segments. reflections isolate to AO-OCT using process this of complexity the into insight providenew We controversial. remains do they which to Photoreceptors waveguide light, but the extent Alfredo Dubra of Wisconsin, USA; of Wisconsin, Neurobiology andAnatomy, MedicalCollege Continued Single-cone-mediated Vision— Photoreceptor Analysisand FM1C •Symposiumon oad . Miller T. Donald CAM Lounge,MarketStreet Foyer 3,2 , Joseph Carroll • Crystal FiO 2 Invited Invited 18–22 October 2015 Ophthalmology, Medical 1 ; in vivo photoreceptor 1 Indiana Univ., USA. 3 Biophysics, Medi-

1,2 ; 1 Cell Biology, 1 ,

spectrography. astrophysical and generation, waveform trary arbi- optical communication, optical coherent spectroscopy, Raman coherent for platform compact promising a is system instability.The mHz 220 at comb frequency Kerr on-chip We report the first stabilized CMOS-compatible Liang r Rodriguez dro USA; Conti Univ. “LaSapienza”ofRome,Italy; negative contributiontotheopticalpressure. and ultra-fast nonlinear polarization may give a effects mechanical induced light the enhances ness and nonlinearity on optical forces. Disorder theoretically investigate the effects of random- FM1D.2 •08:30 dia, Optomechanics of Random and Nonlinear Me- FM1D.4 •09:00 via topologyoptimization,Zin Lin Cavity-enhanced second harmonic generation FM1D.3 •08:45 Huang Shu-Wei comb, frequency optical on-chip Stabilized high-efficiency generation. second-harmonic achieving for structures photonic of discovery automatic enables that approach optimization Princeton Univ., USA. We describe a large-scale i-e Kwong Dim-Lee matics Dept.,MIT, USA; Italy; Continued or Nano-OpticalStructures I— FM1D •NonlinearOpticsinMicro Silvia Gentilini Silvia 3,2 2 2 4 , Marko Loncar The Inst. of Microelectronics, Singapore. We We Physics, Univ. ofOttawa,Canada. ; 1 ISC-CNR, UOS Sapienza, Italy; 3 ; 1 , Jinghui Yang Jinghui , 1 2 Harvard Univ., USA; Ce Wi Wong Wei Chee , Gold 1 , Robert W.Robert , Boyd 1 , Steven Johnson 3 Electrical Engineering, Electrical Engineering, 1 , Mingbin Yu Mingbin , 1 , Xiangdong 3 4 1 ISC-CNR, , Claudio , ; 2 2 , Alejan- 2 Physics, Physics, 1 Mathe- UCLA, 2 , and easeofusetospatialmultiplexers. robustness reliability, stability, adding angles that utilizes multiple hollow core tubes at fixed tical fiber communications system is presented multiplexer for use with spatially multiplexed op- 1 Systems, Spatial DomainMultiplexedCommunication with Use for Multiplexer Portable of Design FM1E.4 •09:00 Coupled Three-Core Fibers, Strongly- of Analysis Response Impulse FM1E.3 •08:45 High SpatialMultiplicity, YukiTobita for Fibers Multicore 2LP-mode geneous Comparison ofHomogeneousandHetero- FM1E.2 •08:30 Chowdhury Japan; spatial multiplicity. high in resulting wavelength, cutoff short and crosstalk inter-core low between relationship tradeoff a improve can MCF heterogeneous the that find and (MCFs) fibers multicore 2LP-mode heterogeneous and mogeneous uiaa Saitoh Kunimasa Takenaga Katsuhiro Fujisawa agreement, showingthevalidityofdiscussion. good in are responses impulse calculated and Measured equation. Schrödinger nonlinear generalized multimode on based regime fibers is analyzed from weak to strong coupling 3-core strongly-coupled of response Impulse Communications I—Continued for HighSpeedOptical FM1E •Emerging Technologies portable Florida Inst.ofTechnology, A USA. 2 We compare ho- compare We Fujikura Ltd.,Japan. 1 , Kunimasa Saitoh Syed H. Murshid 1 Geoy Lovell Gregory , Empire 1 ; 1 2 Hokkaido Univ., Japan. ; 1 Hokkaido Univetsity, 1 1 , Saud Alanzi , Shoichiro Matsuo Takeshi Fujisawa 1 Ryn Enaya Rayan , 1 , Takeshi, 1 , Bilas 1 1 2 ; , ,

Fairfield Sacramento Hillsborough Piedmont Monday, 19 October FiO LS

FM1F • Novel Concepts in Waveguide FM1G • Optical Fabrication and Testing— LM1H • Carl E. Anderson Award for LM1I • Nonlinear and Spectroscopic Optics—Continued Continued Outstanding Doctoral Dissertation in Laser Imaging I—Continued Science—Continued

FM1F.3 • 08:30 FM1G.2 • 08:30 LM1H.2 • 08:30 LM1I.2 • 08:30 Invited Phase-matched Second harmonic generation in 1D pho- Shape Adaptive Grinding of Silicon Carbide Aspheric Helicity and Duality Symmetry in Light Matter Interac- Mid-Infrared Photothermal Imaging, Michelle Y. Sander1; tonic crystal in the Laue geometry, 1 Optic, 1 2 tions: Theory and Applications, 1,2 Vladimir B. Novikov , Anthony Beaucamp , Yoshiharu Namba , Phillip Ivan Fernandez-Corbaton ; 1Electrical and Computer Engineering, Photonics Center, 1 1 1 1 3 3 1 2 1 2 B. I. Mantsyzov , A. I. Maydykovskiy , T. V. Murzina ; M. V. Charlton , Samyak Jain ; Kyoto Univ., Japan; Chubu Univ., Macquarie Univ., Germany; Inst. of Nanotechnology, Karsl- Division of Materials Science and Engineering, Boston Univ., 3 Lomonosov Moscow State Univ., Russia. Phase-matched Japan; Zeeko LTD, UK. Shape Adaptive Grinding (SAG) is a ruhe Inst. of Technology, Germany. Treating polarization by USA. In photothermal imaging label-free characterization second harmonic generation is observed experimentally novel finishing process capable of achieving optical surface means of the electromagnetic helicity leads to new insights of molecular vibrational bonds is combined with spatial in the Laue diffraction scheme in 1D porous quartz based finish on silicon carbide. In this paper, we report on the ap- in different problems: Optical activity, zero backscattering, information. A mid-infrared photothermal system with high photonic crystals infiltrated by a ferroelectric salt. plication of SAG to grinding of aspheric optics. metamaterials for transformation optics and nanophotonics specificity and sensitivity using a near-infrared fiber and a phenomena involving angular momentum. tunable quantum cascade laser is presented.

FM1F.4 • 08:45 FM1G.3 • 08:45 A high-performance polarization splitter-rotator designed A surface profilometer based on laser confocal feedback, by wavefront matching method, Shuntaro Makino1, Takeshi weiping wang1, Shulian Zhang1; 1Dept. of Precision and Instru- Fujisawa1, Kunimasa Saitoh1; 1Hokkaido Univ., Japan. A ments, Tsinghua Univ., China. An optical surface profilometry high-performance polarization splitter-rotator based on a method is developed based on microchip Nd:YVO4 laser mode-conversion taper and a mode-sorting asymmetric feedback and confocal technologies.The signal is detected Y-branch waveguides is designed by wavefront matching using heterodyne approach to ensure environmental robust- method. A high transmission in a wide wavelength range ness and invulnerability to the laser instability. is demonstrated.

FM1F.5 • 09:00 FM1G.4 • 09:00 LM1H.3 • 09:00 LM1I.3 • 09:00 Invited Broadband LP /LP PLC-based mode multi/demultiplexer An experimental study for characterizing surface rough- Coherent Diffractive Imaging Using Randomly Coded Spectroscopic Photoacoustic Imaging for the Detection 01 11 ness by speckle pattern analysis, 1 1 Masks, 1,2 1 designed by wavefront matching method, Yoko Yamashita1, Abdiel O. Pino ; Techno- Matthew Seaberg , Joshua Turner , Alexandre of Lymph Node Metastases, Geoffrey Luke2,1, Konstantin 2,3 1 2 Shuntaro Makino1, Takeshi Fujisawa1, Kunimasa Saitoh1, No- logical Univ. of Panama, Panama. We presented a method of d’Aspremont ; SLAC National Accelerator Lab, USA; CNRS, Sokolov3, Stanislav Emelianov4,1; 1Biomedical Engineering, 3 butomo Hanzawa2, Taiji Sakamoto2, Takashi Matsui2, Kyozo measure of the rugosity based in the analysis of the texture France; DI, ENS, France. We report the first experimental Univ. of Texas at Austin, USA; 2Thayer School of Engineering, Tsujikawa2, Fumihiko Yamamoto2; 1Hokkaido Univ., Japan; of the speckle’s pattern. We used GLCM to extract the demonstration of encoded coherent diffractive imaging using Dartmouth College, USA; 3Imaging Physics, MD Anderson 2NTT Corporation, Japan. A broadband, large fabrication rugosity. Our experimental results correlates appropriately a series of randomly coded masks. This technique enables Cancer Center, USA; 4Electrical and Computer Engineering, with autocorrelation function. high quality coherent imaging without the use of typical tolerance LP01/LP11 PLC-based mode multi/demultiplexer Georgia Inst. of Technology, USA. We demonstrate the abil- design is presented by using wavefront mathing method. object constraints. ity for spectroscopic photoacoustic imaging to detect the The low-loss bandwidth of the optimized structure is 4-times presence of metastases in murine lymph nodes based on wider than that of conventional structure. functional and, with the introduction of targeted nanoparticle contrast agents, molecular expressions.

09:00-16:00 CAM Lounge, Market Street Foyer

FiO/LS 2015 • 18–22 October 2015 37 Monday, 19 October P. Leemans Schroeder J. Gonsalves Manufacturing Tech, Singapore; 38 vents, Sol- Organic at Generation Third-Harmonic on Nonlinearity Orientational of Influence FM1A.6 •09:45 celerators, Ac- Plasma Laser of Transport and Staging FM1A.5 •09:30 Wong Jie Liang Acceleration, Electron High-Gradient for Pulses Autofocusing Non-Paraxial Ultrafast FM1A.4 •09:15 Secondary Sources I—Continued FM1A •Laser-plasma-based stages isinvestigated. The critical role of magnetic transport between electron energy while preserving compactness. the increasing at aimed mirror, plasma a by of two closely-spaced Laser Plasma Accelerators WeUSA. present coupling the on experiments Sérgio C. Zilio C. Sérgio Cameron G. Geddes with effective gradients exceeding 300 GeV/m. electrons on-axis accelerate linearly to ability their demonstrate We time. and space both in beams that exhibit abrupt, ultra-intense focusing We present ultrafast non-paraxial autofocusing distinctly dependingofpulseduration. affected are nonlinearities orientational and solvents by means of pulse organicduration. Electronic with filled cuvette a of interfaces at THG on influence nonlinearities orientational of studies report We de SaoPaulo,Brazil. mro C Barbano C. Emerson 1 , Joost Daniels Joost , 1 Jeroen Van Tilborg ; 1 1 , Brian Shaw Lawrence Berkeley National Lab, California 1 , Lino Misoguti Lino , 2,1 Io Kaminer Ido , 1 , Nicholas Matlis 1 , Kei Nakamura 1 , Julius Huijts Julius , 1 Mra Miguez Maria , 1 1 , Sven Steinke ; 2 1 ; Universidade 1 2 Sg Inst.of MIT, USA. 1 , Anthony 1 , Wim Wim , 1 , Carl 1 1 , ,

spatial coregistration errors. without and crosstalk spectral negligible with components spectral its into light decompose tremely efficient, ex- subwavelength-size device to an design to film metallic a in apertures resonant deep-subwavelength of properties ing, Stanford Univ., USA. We exploit the unique Ginzton LabandDept.ofElectricalEngineer surface-plasmons. of length propagation limited the extend can beams these that show and media, gain ing us- without plasmons of losses inherent the compensate which beams, surface-plasmon strate experimentally the generation of unique in an Efficient Way,Efficient an in Light Decompose Spectrally to Device size Spectral Light Separator: The Subwavelength- FM1B.6 •09:30 Epstein front Manipulation,Itai Wave- by Losses Plasmonic Compensating FM1B.5 •09:15 Catrysse d Arie Ady Plasmonics—Continued FM1B •Integrated 1 1 , Wonseok Shin Wonseok , ; 1 e demon- Tel We Aviv Univ., Israel. Valley YasinBuyukalp 1 , Shanhui Fan Shanhui , 10:00–10:30 1 , Yuval TsurYuval , 1 , Peter B. Peter , 1 ; 1 E. L. FiO/LS 2015 1 - , utn . Roorda J. a CellularScale,Austin Probing on HumanSpatialandColorVision FM1C.4 •09:30 can facilitatefinespatialandcolorvision. talk will be to demonstrate how eye movements vision testing on a cellular scale. The aim of the enables tracking eye and imaging resolution Berkeley,California USA. A combination of high Continued Single-cone-mediated Vision— Photoreceptor Analysisand FM1C •Symposiumon Coffee Break, MarketStreet &SouthTower Foyers • Crystal FiO Invited 18–22 October 2015

1 ; 1 Univ. of d’Angers, France; laye solitons in CS vortex two-dimensional of propagation stable nonlinear loss. significant no showing while dB -13.6 reaches applications. The obtained conversion efficiency nonlinear for silicon to alternative promising a are which waveguides nitride silicon-rich in conversion wavelength mixing four-wave demonstrate We Univ. ofDenmark,Denmark. dade Federal de Pernambuco, Brazil; dade Federal de Pernambuco, 2 FM1D.5 •09:15 in CS Stable Optical Vortices Solitons Propagation FM1D.7 •09:45 1 Waveguides, Nitride Silicon-Rich in Mixing Four-Wave FM1D.6 •09:30 Investigation, Experimental and Numerical Excitation: Coherent under Response Cavity Nonlinear arrest theazimuthalsymmetry breaking. to mechanisms key the are absorption photon dence of the nonlinear refractive index and three linearities are showntobeincreased. non- the of enhancement the and efficiency ate shaping of the incident signal, the coupling under a coherent excitation. Through appropri- study on the transient operation of a microcavity a present We Université Paris-Sud11,France. Boris A. Malomed Oden Jeremy Hua Ji Hua Continued or Nano-OpticalStructures I— FM1D •NonlinearOpticsinMicro Laboratoire CharlesFabry, Institutd’Optique, Dept. ofPhotonicsEngineering,Technical 2 , Eric Cassan 2 , 1 , Leif K. Oxenløwe K. Leif , Albert Reyna Ocas 2 Miranda Mitrovic 2 is reported. The intensity depen- , Xavier Le Roux Le Xavier , aul . en Otálvaro Serna F. Samuel 1,3 1 , Nicolas Dubreuil Gold , Cid B. de Araujo 3 Tel The Aviv Univ., Israel.

1 1 , Lars H. Frandsen H. Lars , , George Boudebs 1 , Xiaowei Guan 1 , Philippe De- Philippe , 1 2 2 ; ; Université Université 1 1 Universi France; 1,2 2 1 1 - , , ; , in thisfield. progress recent discuss will I channels. fibre of properties nonlinear the of use positive makes that technique processing signal and as eigenvalue commnications, is a transmission UK. The nonlinear Fourier transform, also known munications, Nonlinear Fourier Transform for Optical Com- FM1E.6 •09:30 rikandi Signaling, RZ-DQPSK Systems Transmission OFDM All-optical FM1E.5 •09:15 pared to that of traditional NRZ-DQPSK scheme. proposedthe of com- and eveluated is system performance The system. transmission plexing all-optical orthogonal frequency-division multi- RZ-DQPSK modulation technique is propsed for Communications I—Continued for HighSpeedOptical FM1E •Emerging Technologies 1 ; 1 Florida Inst. of Technology, USA. Sergei K. TuritsynK. Sergei Empire Invited - Mirniaha Seyededriss

1 ; 1 Aston Univ., A Fairfield Sacramento Hillsborough Piedmont Monday, 19 October FiO LS

FM1F.6 • 09:15 FM1G.5 • 09:15 Invited High-Density Low-Crosstalk Waveguide Superlattice, Billion Droplets Harnessed to Form 3d Printed Optics, 1 1 1 2 Weiwei Song , Robert Gatdula , Siamak Abbaslou , Ming Lu , Jyrki Saarinen1; 1Univ. of Eastern Finland, Finland. 3D print- 2 1,3 4 4 Aaron Stein , Warren Y. Lai , John Provine , Fabian Pease , ing for optics utilizes inkjet printing of UV curable materials. 5 1,6 1 Demetrios N. Christodoulides , Wei Jiang ; Dept. of Electri- Even billion tiny droplets build up macroscopic optical 2 cal and Computer Engineering, Rutgers Univ., USA; Center components with nanoscale surface roughness without any for Functional Nanomaterials, Brookhaven National Lab, USA; need for postprocessing. 3Inst. for Advanced Materials, Devices, and Nanotechnology, Rutgers Univ., USA; 4Dept. of Electrical Engineering, Stan- ford Univ., USA; 5School of Optics/CREOL, Univ. of Central Florida, USA; 6National Lab of Solid State Microstructures,, Nanjing Univ., China. Waveguides are ubiquitous in silicon photonics. The density of waveguides is crucial to the integration density. We propose and demonstrate a waveguide superlattice that enables high-density waveguide integration at a half-wavelength pitch with low crosstalk. LM1H.4 • 09:30 LM1I.4 • 09:30 Invited Direct Mapping of Optical Near Field Forces from Plas- Nanoscale Spectroscopic Imaging with Photo-induced monic Nano-tweezers, Yang Zhao1, Amr Saleh1, Marie Anne force Microscopy, Junghoon Jahng1, Eric O. Potma1; 1Univ. van de Haar2, Albert Polman2, Jennifer Dionne1; 1Stanford of California Irvine, USA. Photo-induced force microscopy Univ., USA; 2FOM Inst. AMOLF, Netherlands. Near field produces images with spectroscopic contrast at nanometer optical forces from a plasmonic nano-aperture shows great scale resolution. In this presentation, the basic principles of promise to directly trap biological specimens in nano-meter the photo-induced force microscope are described and ap- Reminder: dimensions. Here we directly map optical forces through a plication examples of this technique are highlighted. nano coaxial tweezer using atomic force microscopy. FiO/LS 2015 Program now available in mobile formats!  Visit www.frontiersinoptics.com for more information.

10:00–10:30 Coffee Break, Market Street & South Tower Foyers

FiO/LS 2015 • 18–22 October 2015 39 Monday, 19 October via non-phase-matchedincoherent emission. dynamics interaction into insights additional provide measurements Such electrons. free individual with interacting focus, laser intense third harmonic light scattered out the side of an analyze single-photon fundamental, second and Peatross 40 Laser, Observed PerpendiculartoaRelativistic Scattering Thomson Nonlinear and Linear FM2A.2 •11:15 school oftheHelmholtzInstituteJena. Center of Photonics and speaker of the graduate Abbe the of Director of Board the of member a is he activities research his Besides science. where he works on strong field optics and x-ray Electronics department at the University of Jena, professor. Since 2008 he is chair at the Quantum Würzburgof as University the to went he 2001 the TU Vienna he habilitated 1999 in Vienna. In at the University of California in San Diego and stays post-doc After Vienna. TU the at 1992 in PhD his did and studied Spielmann Christian Spielmann Light, and Particles Accelerating Sources: Secondary Laser-Plasma-Based FM2A.1 •10:30 Pennsylvania StateUniv., USA Presider: IgorJovanovic; Secondary Sources II FM2A •Laser-plasma-based 10:30–12:00 pulsed hard x-raysources. realizebrilliant and particles accelerate to how regime. We have now a detailed understanding laser-based processes in the relativistic intensity progress has been made in the understanding of Extraordinary holtz InstitutJena,Germany. als Smith Dallas 1 ; 1,2 1 We We Brigham Young Univ., USA. ; 1 California Univ. ofJena,Germany; 1 Tutorial Mcal Ware Michael , Christian 1 Justin , 2 Helm- . Goddard L. Yu California, LosAngeles,USA; California, medical diagnostics. as such fields many in expansive are methods fabrication conventional to efficientalternative cost- this of Applications fabrication. device photochemical etching to facilitate microfluidic perform to masks virtual using demonstrate enhance theopticalcoupling. to used been has Plasmonics applications. Lab-on-Chip for particulates manipulating and sorting for flows electrothermal drive to used 1 Edwards tual Masks and Photochemical Etching, Microfluidic DeviceFabrication UtilizingVir FM2B.3 •11:15 Feng Steve Tests, Diagnostic Immuno-chromatographic of Analysis Rapid Glass-based Google FM2B.2 •11:00 Wereley late andFluidManipulation,Steve Particu- Electrokinetic Modulated Optically FM2B.1 •10:30 LosAngeles,USA California Presider: Aydogan Ozcan;Univ. of Applications of-Care andGlobalHealth FM2B •BiophotonicsforPoint- 10:30–12:00 Ozcan . emt Turan Mehmet flow immuno-chromatographic diagnostic tests. lateral- of analysis quantitative and qualitative perform to Glass Google the of ability the demonstrate we diagnostics, real-timedisease Univ. Los Angeles of California, , USA. luiain atrs are patterns Illumination Purdue Univ., USA. 1 , Shailendra Srivastava 1,2 1 , Kaiyuan WangKaiyuan , ; 1 1 1 , Romain Caire Romain , ; Electrical Engineering,Univ. of 1 We We Univ. ofIllinois -UC,USA. 1 Ade Wong Andrew , Valley Invited

1 1 , Gang L. Liu , Chris Edwards Chris , 1 , Bingen Cortazar Bingen , 2

Bioengineering, 1 Aydogan , For rapid, 1 , Lynford Lonna Lonna 1 , Xin , FiO/LS 2015 1 1 - ; , tumor margins. positive of detection for pathology surgical in analysis section frozen to alternative practical recapitulatehistology,H&E and accurate an as with fast-acting topical fluorescent stains which combined microscopy, illumination structured Univ., USA Presider: StevenAdie;Cornell Imaging andTherapy FM2C •NovelMethodsforTissue 10:30–11:45 1 patient Surgical Pathology, J. Quincy Brown High-speed Fluorescence Histology For Near- FM2C.2 •11:00 Research Applications,David Cuccia Domain Imaging(SFDI)SystemforBiomedical Design andValidation ofaSpatialFrequency FM2C.1 •10:30 clinical models. validation in-silico, on phantoms, and with pre- system cover will We (SFDI). imaging domain frequency spatial enabling on focus a with light imaging platform for biomedical research, structured- multispectral LED-based turn-key a developed Wehave lated ImagingInc,USA. e ecie high-speed describe Tulane We Univ., USA. • Crystal FiO Invited Invited 18–22 October 2015

1 ; 1 Modu- 1 ; single particlesandcells. flowing rapidly on measurements mechanical throughput high perform to resonators lery gal- whispering silica hollow-core on sensing opto-mechanical use We Champaign, USA. Kim Purdue Univ., USA; E. Leaird Trento, Italy Universita degliStudidi Presider: MattiaMancinelli, or Nano-OpticalStructures II FM2D •NonlinearOpticsinMicro 10:30–12:00 1 Shift, Thermal Generation inMicroresonators: Overcoming Comb Deterministic Automated Towards FM2D.3 •11:15 Cytometry, Flow Opto-Mechanical TowardsHigh-Throughput FM2D.2 •11:00 FM2D.1 •10:30 Structures, Low Power Nonlinear Optics in Nanophotonic bia; Universidad Tecnológica dePereira, Colom- ag Liu Yang color centers. and dots quantum as such emitters, quantum embedded with GaP,SiC) GaAs, in (e.g., ties nanocavi- optical employing by achieved is photons few of level the at nolinearity optical and interaction light-matter strong Very USA. equilibrium points. taking advantage of thermal red shift at thermal detuning frequency in changes fine in teristics in microring resonators and measure its charac- combs frequency optical generate to method Univ., USA. We present a computer automated School of Electrical and Computer Engineering, School of Electrical and Computer Engineering, 1 , Gaurav Bahl Gaurav , 3 Birck NanotechnologyCenter, Purdue 1 1 , Minghao Qi PiHu Wang Pei-Hsun , eea Vuckovic Jelena oe . Jaramillo-Villegas A. Jose 1 Gold ; 1 2 ee Han Kewen Invited Univ. ofIllinoisatUrbana Facultad deIngenierías, 1,3 , Andrew M. Weiner 1 Y Xuan Yi , 1 ;

1 Stanford Univ., 1 JunHwan ,

1,3 Daniel , 1,2 1,3 , ; OM3 fiberat850/940nm. 100m over 2e-4 at dBm -15.0 was sensitivity OMA- PAM4 measured The 850/940nm. at fibers OM4 wideband of 300m and OM3 of 200m over transmission VCSEL 45Gb/s demonstrating data experimental present communication systems. overcome fiber nonlinearity in long-haul optical appropriate DSP algorithms as an alternative to transmissions using few-mode fibers (FMF) with (QSM) quasi-single-mode in developments Polytechnic Univ., HongKong. We review recent Engineering,TheHongKong and information Piu Kuo Piu Digital BackPropagation. of 50 GBaud 16-QAM over 2125 km relying on Frequency Comb. We demonstrate transmission Optical reference a to laser Fabry-Perot cost low- a locking injection on based transmitter ea Motaghian Reza sion overOM3andOM4MultimodeFibers, Transmis- 850/940nm VCSEL PAM4 45Gb/s FM2E.3 •11:15 PerotCarrier,Laser Fabry- Injection-Locked an on Based km 2125 TransmissionOver 16-QAM GBaud 50 FM2E.2 •11:00 4 1 Lau Tao Pak Fiber, Few-mode Using Transmission Quasi-singlemode Long-haul, High-speed, FM2E.1 •10:30 Univ., UK Presider: Sergei Turitsyn, Aston Communications II for HighSpeedOptical FM2E •Emerging Technologies 10:30–12:00 Daghighian Hong Kong; Engineering, HongKongPolytechnicUniv., Mishra Jinan Univ., China; USA; im Wood A liam Photonics Research Center, Dept.ofElectronic Photonics Research Center, Dept.ofElectrical 2 3 e rps a propose We Qualcomm Inst.,USA. , Chao Lu Chao , 1 , Nikola Alic Nikola , 1 Crs Kocot Chris , 1 Q Sui Qi , 2 Inst. ofPhotonicsTechnology, 3 Jsn Hurley Jason , Empire 4 1 , Hwa-yaw TamHwa-yaw , Iy Lyubomirsky Ilya , 3 Corning Incorporated, USA; Incorporated,USA; Corning Invited EduardoTemprana 2 2 , Stojan Radic Stojan , Jh D Downie D. John , 1 ; 1 We We Finisar, USA.

3 1 Snigdharaj , , P.K.A., Wai 1,2 ; 1 Henry , 1 UCSD, 1 3 , Ping , - Wil , Alan 4 ; Fairfield Sacramento Hillsborough Piedmont Monday, 19 October FiO LS

10:30–12:00 11:00–12:00 10:30–12:00 10:30–12:00 FM2F • Advances in Ocular Biometry and FM2G • Optical Metrology LM2H • Computational Optical Imaging I LM2I • Accelerating Wavepackets in Optics Studies of the Anterior Eye Presider: Simon Thibault; Universite Laval, Presider: Rafael Piestun; Univ. of Colorado at and Beyond I Presider: Brian Vohnsen, Univ. College Canada Boulder, USA Presider: Jeffrey Field, Colorado State Univ., Dublin, Ireland USA

FM2F.1 • 10:30 Invited FM2G.1 • 10:30 LM2H.1 • 10:30 Invited LM2I.1 • 10:30 Invited Advances in Anterior Segment OCT: Crystalline and Withdrawn. Extreme Imaging and Beyond, Keisuke Goda1; 1Univ. of Physics and Applications of Airy Beams and Optical Ac- Intraocular Lens Applications, Susana Marcos1, Pablo Tokyo, Japan. I introduce a unique ultrafast optical imaging celerating Waves, Demetrios N. Christodoulides1; 1Univ. Perez-Merino1, Eduardo Martinez-Enriquez1, Mengchan Sun1, method known as sequentially timed all-optical mapping of Central Florida, USA. We provide an overview of recent Miriam Velasco1; 1Consejo Sup Investigaciones Cientificas, photography (STAMP) which enables motion-picture femto- developments in the area of Airy beams and optical ac- Spain. We quantified anterior-segment geometry in young photography at an unprecedented frame rate of more than celerating waves. Applications of these wavefronts will be eyes and eyes implanted with IOLs using quantitative custom- a trillion frames per second. discussed along with prospects of using similar concepts in developed sOCT. Crystalline lens curvature and high-order other technical disciplines. surface-elevation terms changed with accommodation. OCT- based computer eye-models predicted optical aberrations in pseudophakic eyes.

FM2G.2 • 10:45 Withdrawn.

FM2F.2 • 11:00 Invited FM2G.3 • 11:00 LM2H.2 • 11:00 LM2I.2 • 11:00 Invited Brillouin Microscopy for Tissue and Cell Biomechanics, Simple and Accurate Optical Height Sensor for Wafer Active Illumination Low-light Computational Correlation Physics and Applications of Accelerating Beams in Optics, 1 1 1 Giuliano Scarcelli 1; 1Univ. of Maryland , USA. We have Inspection Systems, Kei Shimura , Naoya Nakai , Koichi Microscopy, Milad Akhlaghi Bouzan , Thomas Kohlgraf- John M. Dudley1, Francois Courvoisier2; 1Institut FEMTO-ST, 1 1 1 1 1 developed an all-optical approach to measure material me- Taniguchi ; Hitachi High-Technologies Corporation, Japan. Owens , Aristide Dogariu ; CREOL, College of Optics Universite de Franche-Comte, France; 2Institut FEMTO-ST, chanical properties using Brillouin light scattering. Brillouin We have developed a height sensor in which eight slits are and Photonics, Univ. of Central Florida, USA. We present Université de Franche-Comté, France. We review the state imaging uses the elastic modulus as contrast mechanism. projected on a surface obliquely and their image is detected a low-light, reflection mode correlation imaging technique of the art of accelerating beams, discussing their properties We demonstrate its application in vivo for tissue and cellular by an area sensor. Accuracy of 0.3 um is achieved on pat- based on sequential random patterns illumination and from perspectives of geometrical optics, Maxwell’s equations biomechanics. terned wafer. integrated backscattered light intensity. Live cell and low and catastrophe theory, and surveying results from femtosec- contrast target imaging at very low-light levels are demon- ond material processing to random rogue wave generation. strated experimentally.

FM2G.4 • 11:15 LM2H.3 • 11:15 Space based measurements of Atmospheric Carbon Diox- Star Test Polarimetry at Low Light Levels, Thomas G. ide: A New Tool for Monitoring our Environment, David Brown1, Miguel Alonso1; 1The Inst. of Optics, USA. Star Test Crisp1; 1Jet Propulsion Lab, USA. Precise, global measure- Polarimetry is a method of deducing the complete Stokes ments of atmospheric carbon dioxide and other greenhouse vector by applying statistical inference to a polarization- gases by the NASA Orbiting Carbon Observatory-2 (OCO-2) dependent point spread function. We present an analysis and other satellites provide new tools to monitor and manage and experimental test of this measurement when applied to the processes that control their atmospheric concentrations. very low light levels.

FiO/LS 2015 • 18–22 October 2015 41 Monday, 19 October wave-packet size. electron of independent is radiation emitted measurement The confirms the focus. QED prediction laser that intense an of side the out emitted electrons free from emitted radiation of measurement absolute an report We USA. 42 Peatross FreeStrongElectronsField, a Laser in Diffuse from Scattering Thomson Measured FM2A.4 •11:45 Geddes G. Energy Physics, Cameron High Towardsand Sources Photon Thomson Accelerators Laser-Plasma Guided Staged, FM2A.3 •11:30 Secondary Sources II—Continued FM2A •Laser-plasma-based Steinke Schroeder Nakamura Berkeley NationalLab,USA; U.C. Berkeley, USA; physics colliders. particle future energy high to and sources ton pho- energy high compact for deceleration to ered by a separate laser pulse, with application pow- each series, in accelerators laser-plasma high-gradient two characterize Experiments i P. Leemans Wim Bonatto Alexadre Daniels Joost Matlis Nicholas 1 1 Jre vn Tilborg van Jeroen , , Michael Ware 1 1 , Julius Huijts Cro Benedetti Carlo , California 1 Caa Toth Csaba , 1 Atoy . Gonsalves J. Anthony , 1,2 1 Sre Rykovanov Sergey , ; 3 1 Helmholtz Inst.,Germany. BELLA Center, Lawrence 1 1 ; , Daniel Mittelberger 1 Brigham Young Univ., 1 2 Ja-u Vay Jean-Luc , Dept. ofPhysics, 1 1 Bin Shaw Brian , Ei Esarey Eric , 12:00–13:30 1,3 1 Sven , Justin Carl , 1 Kei , 1,2 1 1 1 , , , , ogy, Japan; rial ofknownopticalproperties. the object and secondarily scattered by a mate- by disturbed initially light backscattered OCT microfluidicin objects biological using devices differentiating of technique cytometry flow cal opti- microfluidic novel a propose We Poland. Hydrogel, Device with Glucose-Responsive Fluorescent CMOS-Based Implantable Glucose Monitoring FM2B.5 •11:45 Ossowski Chip., Microfluidic and Tomography the HumanBloodUsingOpticalCoherence Differentiation ofMorphoticElementsin FM2B.4 •11:30 Tokuda performance wasimproved.performance the and optimized was device the of structure The hydrogel. fluorescent glucose-responsive a with sensor line CMOS a combining device monitoring glucose implantable an designed Hirai ToshihikoNoda Wojtkowski Maciej Ohta Copernicus Univ.Copernicus , Poland; of Physics,AstronomyNicolaus andInformatics, Applications—Continued of-Care andGlobalHealth FM2B •BiophotonicsforPoint- OSA FellowMembersLunch(Advance registration required), Ballroom, TheWestin San Jose,302S.MarketSt.,SanCA 1 1 Hrnr Takehara Hironari , ; 1 1 Tr Okitsu Teru , Nara Inst.ofScienceandTechnol - 1,2 , Anna Raiter Anna , ohkz Kawamura Toshikazu 2 The Univ. We ofTokyo, Japan. 1 , Kiyotaka Sasagawa Kiyotaka , Valley 1,2 ; 1 2 Inst. ofPhysics,Faculty Soi Takeuchi Shoji , 12:00–13:30 2 , Anna Szkulmowska Anna , 1 Hrai Takehara Hiroaki , 12:00–13:30 2 AM2M LLC-LP, 1 Tomohiro, 1 , Takashi, 2 Pawel Jun , Frontiers inPhotonicsDetectionPanelDiscussion,Belvedere FiO/LS 2015 1 2 , , Nonlinear OpticsTechnical Group Workshop, Atherton FM2C.3 •11:30 1 Okoro Chukwuemeka Generation Microscopy ofPorcine Samples, Two-Photon Mueller Matrix-Second-Harmonic type andthickness. parameter is evaluated as a function of sample depolarization A images. (SHG) generation second-harmonic of analysis matrix Mueller porcine samples is performed using two-photon collagen-based of assessment Quantitative Imaging andTherapy—Continued FM2C •NovelMethodsforTissue 12:00–13:30 Univ. ofIllinoisUrbana-Champaign,USA. • Crystal FiO Lunch (onyourown) 18–22 October 2015 1 Kmn C Toussaint C. Kimani , 1 ;

in AdvancedOpticalTechnologies, Germany; USA; FM2D.4 •11:30 in a Silicon chip, created bystimulatedBrillouinscattering filter microwave tunable Ultra-narrowband FM2D.5 •11:45 4 mer in time-domain photonic lattices, Observation of PT-symmetric optical solitons Nürnberg, Germany; Nürnberg, Germany; Friedrich-Alexander-Universität Erlangen- stable overlongdistances. remain states self-trapped such effects, linear non- and loss gain, between balance judicious a utilizing By lattices. temporal PT-symmetric in solitons optical of observation experimental Schiller Univ. Jena,Germany. We report the first Morrison Miri Benjamin Eggleton doulides suppression and98MHzlinewidth. on-chip SBS gain to create a notch with 48dB of scattering in a silicon nanowire. We use the low Brillouin stimulated on based filter photonic microwave tunable first the demonstrate We Continued or Nano-OpticalStructures II— FM2D •NonlinearOpticsinMicro Inst. of Solid State Theory and Optics, Friedrich Inst. ofSolidStateTheoryandOptics,Friedrich 1 2,3 , Christoph Bersch 2 Aos Regensburger Alois , Inst. of Optics,and Photonics, Information 1 1 , Ulf Peschel Mti Pagani Mattia , Alvaro Casas-Bedoya Alvaro Gold 1 ; 3 1 4 Erlangen Graduate School Univ. ofSydney, Australia. ; 2 1 , Demetrios N. Christo- Univ. of Central Florida, 1 Dvd Marpaung David , 2 Mohammad-Ali , Martin - Wim 1 , Blair , 1 ,

capacity growth willbereviewed. transmission long-term further challenging issues fundamental The limitations. their and technologies enabling modern transmission, undersea of specifics examine will ity.talk The systems carry tens of Tb/s of transmission capac- SubCom, USA. Today’s submarine transmission lxi . Pilipetskii N. mission Systems,Alexei TransSubmarine Optic - Fiber Capacity High FM2E.4 •11:30 Communications II—Continued for HighSpeedOptical FM2E •Emerging Technologies Empire Invited

1 ; 1 TE TE Fairfield Sacramento Hillsborough Piedmont Monday, 19 October FiO LS

FM2F • Advances in Ocular Biometry and FM2G • Optical Metrology—Continued LM2H • Computational Optical Imaging I— LM2I • Accelerating Wavepackets in Optics Studies of the Anterior Eye—Continued Continued and Beyond I—Continued

FM2F.3 • 11:30 Invited FM2G.5 • 11:30 LM2H.4 • 11:30 Invited LM2I.3 • 11:30 Invited Advances in Presbyopia Correction and Cataract Surgery, A Novel Precise Laser Beam Pointing Method with Wide-field Adaptive Optics Without Guide Stars, Jerome Diffractionless Waves of Constant Intensity, Konstantinos 1 1 Geun-Young Yoon1; 1Univ. of Rochester, USA. The talk will fo- Dielectric Elastomer, Tomohiko Hayakawa , Lihui Wang , C. Mertz1, Jiang Li1, Devin R. Beaulieu1, Hari Paudel1, Roman Makris1, Ziad Musslimani2, Demetrios N. Christodoulides3, 1 1 cus on recent advances in optimizing outcomes of presbyopia Masatoshi Ishikawa ; Univ. of Tokyo, Japan. We proposed Barankov1, Thomas Bifano1; 1Boston Univ., USA. We describe Stefan Rotter1; 1Inst. for Theoretical Physics, Vienna Univ. correction and cataract surgery by using new ophthalmic lens to manipulate the exit direction of laser beam precisely by a wave-sensor implementation of conjugate adaptive optics of Technology, Austria; 2Mathematics, Florida State Univ., designs, in vivo imaging modality and binocular combination controlling a thickness of a dielectric elastomer actuator. applicable to widefield (i.e. non-scanning) microscopy, which USA; 3College of Optics-CREOL, Univ. of Central Florida, of unequal optical blur. There is no mechanical movement in the system, the direc- can provide aberration corrections over large fields of view USA. We introduce a new class of diffraction-free waves in tion is determined based on position instead of angle, so without the use of guide stars. inhomogeneous photonic environments. Such waves have this application is valid for long distance. constant intensity in all space and exist only in complex potentials with gain and loss.

FM2G.6 • 11:45 Reconstruction of High-Resolution Spectra from a Inter- ferometric/Dispersive Spectrometer, Phyllis Ko1, Jill Scott2, Igor Jovanovic1; 1Pennsylvania State Univ., USA; 2Idaho National Lab, USA. A hybrid interferometric/dispersive instrument is used to measure laser-induced plasma spectra. An analysis method that rapidly reconstructs the high-resolution source spectra was developed for this instrument.

12:00–13:30 Lunch (on your own)

12:00–13:30 Frontiers in Photonics Detection Panel Discussion, Belvedere

12:00–13:30 Nonlinear Optics Technical Group Workshop, Atherton

12:00–13:30 OSA Fellow Members Lunch (Advance registration required), Ballroom, The Westin San Jose, 302 S. Market St., San Jose, CA

FiO/LS 2015 • 18–22 October 2015 43 Monday, 19 October Fotonica eNanotecnologie,CNR,Italy; Vozzi 44 5 1 copy, SpectrosMultidimensional HighHarmonic - Resolving UltrafastMolecularDynamicsvia FM3A.2 •14:00 celeration, Ac- Ion on Fields Relativistic Driven Laser in Scales Spatial and Temporal of Impact The FM3A.1 •13:30 USA Lawrence LivermoreNational Lab, Presider: Cameron Geddes; Secondary Sources III FM3A •Laser-plasma-based 13:30–15:30 National AcceleratorLab,USA; Inst. forMaterialsandEnergy Sciences,SLAC multiple ionizationchannels. of contributions the resolve and spectra, HHG molecular in features dynamical and structural identify We dynamics. attosecond complex revealing for essential is measurements (HHG) generation harmonic high of dimensionality the Pulse Spectroscopy, Extending Germany. Negro Valeria Serbinenko Valeria Andreev ui Braenzel Julia and withproton beamdeflectometry. assessed with specific ion spectral investigation are scales spatial and Temporal acceleration. driven laser transient highly in scales spatial and temporal on depend ion-energies kinetic of values Absolute Petersburg Univ., Russia. timento diFisica,PolitecnicoMilano,Italy; Max Born Inst.for NonlinearOpticsandShort Max Born Weizmann Inst.ofScience, Israel; 3 Barry D. Bruner D. Barry Slaoe Stagira Salvatore , 3 Mcee Devetta Michele , 1,2 ; Matthias Schnürer 1 B1, Max Born Inst., Germany; Inst.,Germany; B1, MaxBorn California 1 Lt Ehrentraut Lutz , 5 , Olga Smirnova Olga , Invited Invited 1 , Hadas Soifer Hadas , 3 4 Dvd Faccialà Davide , Nrt Dudovich Nirit , 1 , Florian Abicht 1 Alexander , 3 Instituto di 5 2,1 , Caterina , 2 Stanford , Matteo , 4 Dipar 2 St. 1 4 1 - ; , , Procek SiO crossed Ag gratings as the top layer in the Ag/ subwavelength the with device light-emitting dots quantum silicon amorphous the of ment tally the plasmon-enhanced emission enhance- wan Univ., Taiwan. We investigated experimen - Lin Silesian Univ. ofTechnology, Poland; (NO 3-hexylothiophene (rr-P3HT) is applied as a gas Poly regioregular of combcopolimer novel a Silesian Univ. of Technology, Poland. In this work Physical Chemistry and Technology of Polymers, mon Resonance Based NO Hexylothiophene AppliedinSurfacePlas- Combcopolimers ofRegioregular Poly3 FM3B.3 •14:00 TsaiTsung-Han Modes, Plasmons Surface Localized and ity cav- Pérot – Fabry between coupling the of Amorphous Silicon Quantum Dots through emission Amplified and bandwidth Narrow FM3B.2 •13:45 TsaiMetallic Crossed Gratings,Tsung-Han tum Dots through Plasmonic Subwavelength Emitters based on Amorphous Silicon Quan- Light Plasmon-Enhanced Surface Localized FM3B.1 •13:30 Purdue Univ., USA Presider: AlexandraBoltasseva; Nanophotonics FM3B •Plasmonicsand 13:30–15:30 nanostructures. mon resonance technique at room temperature. of this material is examined using surface plas- aes Pustelny Tadeusz Choi Wing-Kit LEDs with the Ag/SiO the with LEDs QDs a-Si the of photoluminescence enhanced localized surface plasmons modes on plasmon- coupling between the Fabry – Pérot cavity and the of influence the experimentally vestigated 1 x ; 2 :a-Si QDs/Agsandwichcavity. ) sensing material. Gas sensing properties 1 National Taiwan Univ., Taiwan. 1 , Erwin Maciak Erwin , 1 , Hoang YanLin Hoang , 1 Wn-i Choi Wing-Kit , 1 Valley ; 1 Dept. ofOptoelectronics, 1 x , Agnieszka Stolarczyk Agnieszka , :a-Si QDs/Au sandwich QDs/Au :a-Si 2 Sensor, 1 ; 1 1 Hag Yan Hoang , National Tai- 2 Marcin T. Dept. of e in We FiO/LS 2015 1 2 - , , testing inKenya. projection microscope for diagnostics with portable, field low-cost, ultra new a present We strain. eye cause and portability, lack costly, are microscopes Conventional diseases. many diagnosing for standard gold is Microscopy Univ., USA Presider: J.QuincyBrown; Tulane Settings Global HealthandLowResource FM3C •SymposiumonOpticsfor 13:30–15:30 1 Erickson nostics andGlobalHealth,David Diag- Personalized Technologiesfor Mobile FM3C.2 •14:00 nostics, Diag- Medical for Microscopy Projection FM3C.1 •13:30 now ubiquitous installed base of smartphones. the of advantage taking by altered damentally fun- be can they how and market consumer the to diagnostics molecular deployment the to roadblocks technical and commercial wl rve te existing the review will I Univ.,Cornell USA. Manu Prakash Manu • Crystal FiO Invited Invited 18–22 October 2015 1 ; 1 Stanford Univ., USA.

1 ; Belli UK; Oregon, USA Presider: MichaelRaymer;Univ. of or Nano-OpticalStructures III FM3D •NonlinearOpticsinMicro 13:30–15:30 Photonic CrystalFibers,Mohammed F. Saleh Raman-gas in Interactions Soliton Non-local FM3D.2 •14:00 FM3D.1 •13:30 ties, Proper Designed to Lead Geometry trolled Well-Con- with Nanostructures Plasmonic nanoparticles. of geometry the control precisely by realized be nanostructurescan plasmonic propertiesof Novel scale. length nanometer at interaction ticles opens a route for controlling light-matter Near field coupling between metallic nanopar Germany; Germany; delay betweenthesolitons. refractive index can be obtained by varying time medium the of modulation spatiotemporal Different solitons. ultrashort successive two between interactions non-local enables fibers crystal photonic gas-filled in response Raman Slow Institut deCienciesFotoniques,Spain. Andrea Armaroli Andrea 2 2 Xiaoqin Li Fbo Biancalana Fabio , Max PlanckInst.fortheScienceofLight, 3 Laboratoire FOTON,France; 1 ; 2,3 1 Univ. of Texas at Austin, USA. , Andrea Marini Andrea , Gold Invited 1,2 ; 1 Heriot Watt Univ.,

2,4

, Federico , 4 ICFO- 1,2 - - , ment, Tsinghua Univ., China; understand the challenges for the lens designer. the miniaturisation limit? Together, we will try to fit within a cell phone enveloppe! Are we facing must lens the and smaller areand they smaller pixels, more have Sensors lives. our in integral becoming are phone camera Small Canada. by asimultaneouspoint-by-pointprocedure. constructed surfaces freeform two using beam trol both the irradiance and wavefront of a light viewpoint, we will discuss how to effectively con- a ray map obtained from the optimal transport USA; Optimal Transport Map, Freeform Optical Beam Shaping Following An FM3E.2 •14:00 1 Design, Lens Perfect the for Quest The Optics: Electronic Consumer FM3E.1 •13:30 USA Presider: AllenYi; OhioStateUniv., FM3E •OpticalDesign 13:30–15:15 Rongguang Liang Rongguang Froese Universite Laval,Canada; 3 Univ. ofTexasFollowing atAustin,USA. 3 , Lei Huang Lei , Empire 2 ; 1 , Mali Gong Mali , 1 Invited Invited Dept. ofPrecision Instru- Zexin Feng io Thibault Simon 2 Univ. ofArizona,

2 1 Immervision, , Guofan Jin Guofan , 2,1 , Brittany 1,2 1 , ; Fairfield Sacramento Hillsborough Piedmont Monday, 19 October FiO LS

13:30–15:30 13:30–15:30 13:30–15:45 13:30–15:30 FM3F • Retinal Imaging, Vasculature, and FM3G • Novel Materials and Design for LM3H • Semiconductor NanoOptics I LM3I • Accelerating Wavepackets in Optics Photoreceptor Modelling in Healthy and Optical Fibers Presider: Tony Heinz; Stanford Univ., USA and Beyond II Diseased Eyes Presider: Liang Dong, Clemson Univ., USA Presider: Francois Courvoisier; Universite de Presider: Donald Miller; Indiana Univ., USA Franche-Comte, France

FM3F.1 • 13:30 Invited FM3G.1 • 13:30 Invited LM3H.1 • 13:30 Tutorial LM3I.1 • 13:30 Invited Imaging of Human Retinal Microvasculature Using Adap- Large-Mode-Area All-Solid Photonic Bandgap Fibers for Can Opto-Electronics Provide the Motive Power for Accelerating Wavepackets, Mordechai Segev1, Ido Ka- 1 1 tive Optics Scanning Light Ophthalmoscope, Toco Yuen High Power Fiber Lasers, Liang Dong1, Fanting Kong1, Future Vehicles?, Eli Yablonovitch ; Electrical Engineering miner2, Elad Greenfield1, Yaakov Lumer1, Rivka Bekenstein1, Ping Chui1,2, Nikhil Menon1,2, Nadim Choudhury1,2, Alexan- Guancheng Gu1, Thomas Hawkins1, Maxwell Jones1, Joshua and Computer Sciences Dept., Univ. of California Berkeley, Jonathan Nemirovsky1, Uri Bar-Ziv1; 1Technion Israel Inst. of der Pinhas1,2, Yusufu N. Sulai3, Alfredo Dubra3,4, Richard B. Parsons1, Monica Kalichevsky-Dong1, Kunimasa Saitoh2, USA. A rear mirror to reflect band-edge luminescence helped Technology, Israel; 2Physics, MIT, USA. We review the recent Rosen1,2; 1Ophthalmology, New York Eye and Ear Infirmary Benjamin Pulford3, Iyad Dajani3; 1Clemson Univ., USA; 2Hok- break the world record for solar cell efficiency, 28.8%. It progress on accelerating wavepackets, highlighting ideas of Mount Sinai, USA; 2Ophthalmology, School of Medicine kaido Univ., Japan; 3AFRL, USA. All-solid photonic bandgap serendipitously reflects all infrared wavelengths, which can common to many wave systems ranging from self-bending at Mount Sinai, USA; 3Ophthalmology, Medical College of fibers have unsurpassed higher-order-mode suppression in revolutionize thermo-photovoltaics. This enables conversion beams of Maxwell’s equations and self-accelerating Dirac Wisconsin, USA; 4Biophysics, Medical College of Wisconsin, large-mode-area designs, making them well suited for further from heat to electricity with >50% efficiency. fermions to deep underwater ultrasonic beams propagating USA. In vivo microvascular imaging on healthy and diseased power scaling of fiber lasers. We will review of some of the on curved trajectories. retinas using an adaptive optics scanning light ophthalmo- recent progress in this invited talk. scope (AOSLO) employed with fluorescein angiography and non-confocal imaging techniques will be discussed.

Eli Yablonovitch is Director of the NSF Center for Energy Efficient Electronics Science (E3S), a multi-University Center based at Berkeley. After a career in industry and Universities, he is now Professor of Electrical Engineering & Computer Sci- ences at UC Berkeley, where he holds the James & Katherine Lau Chair in Engineering. Based on his mantra “that a great FM3G.2 • 14:00 solar cell also needs to be a great LED”, his startup company FM3F.2 • 14:00 Invited Alta Devices has held the world record for solar cell efficiency LM3I.2 • 14:00 Invited Investigation of beam self-cleanup process at the mul- Title to be Determined, Scott Fraser1; 1Univ. of Southern since 2011, now 28.8%. Yablonovitch is regarded as a Father Bessel-like self-accelerating beams along predesigned timode fiber edge created by photopolymerization, trajectories, Juanying Zhao1, Ioannis Chremmos2, Nikolaos California, USA. Abstract not available. 1,3 1 1 1 of the Photonic BandGap concept, and he coined the term Haoyu Li , Yue Qi , Changliang Guo , John T. Sheridan , Efremidis3, Zhigang Chen1; 1San Francisco State Univ., USA; 2 2 3 1 “Photonic Crystal”. Pengbai Xu , Yongkang Dong , Shu Jia ; School of Electrical, 2Max Planck Inst. for the Science of Light, Germany; 3Univ. of Electronic and Communications Engineering, UCD Commu- Crete, Greece. We design and demonstrate self-accelerating nications and Optoelectronic Research Centre, SFI-Strategic Bessel-like beams that can travel along predesigned arbitrary Research Cluster in Solar Energy Conversion, College of trajectories, including self-breathing, self-spiraling, and self- Engineering and Architecture, Univ. College Dublin, Ireland; propelling Bessel-like beams, along with examples of particle 2 National Key Lab of Science and Technology on Tunable manipulation with such fine-shaped beams. Laser, Harbin Inst. of Technology, China; 3Dept. of Biomedical Engineering, Stony Brook Univ. , USA. A method for beam self-cleanup is introduced by use of self-written waveguides in a photopolymer, acrylamide/polyvinyl alcohol. This work opens the door to study self-developing light cleanup and its further applications.

FiO/LS 2015 • 18–22 October 2015 45 Monday, 19 October Heinrich 46 You Two-Color Laser-Produced Plasma, in Emission Terahertz Cherenkov Conical FM3A.4 •14:45 Guggenmos Experiments, Pump-Probe ond Attosec- VUV-XUV for Mirrors Multilayer FM3A.3 •14:30 Secondary Sources III—Continued FM3A •Laser-plasma-based München, Germany; München, Germany; USA; Kleineberg YongKim from gassource. asingleHighHarmonic pulse appropriated the filters half each where system mirror split multilayer a of means by pulses attosecond VUV/XUV independent two Germany. Here, we report on the generation of ence, Ludwig-Maximilians-UniversitätMünchen, THz radiation. moving slow and fronts ionization moving fast between phase-matching Cherenkov-like from range of densities. This conical emission results broad a at plasma laser-produced two-color from radiation THz conical observe We USA. Quantenoptik, Germany; Quantenoptik, Germany; 1,2 2 , Luke Johnson Luke , Stanford Univ., USA; 1,2 1 Br Nickel Bert , ; 1,2 1 Univ. ofMarylandatCollegePark, ; 1,2 California 1 Ludwig-Maximilians-Universität Jre Schmidt Jürgen , 1,3 2 , Thomas Antonsen Thomas , Max-Planck-Institut für 3 Frn Krausz Ferenc , 3 3 Center forNanoSci- Naval Research Lab, 1 Stephan , Alexander Yong Sing 1,2 1 Ulf , , Ki- , of subwavelengthopticsonachip. tion, enriching the fundamental understanding simula- through validated and interferometer slit-groove a using experimentally extracted was process coupling wave plasmon surface the during dispersion change phase The USA. Univ. of New York at Buffalo, USA; monic nano-objects, monic Revealing dispersivephasechangeinplas- FM3B.5 •14:45 Photonics, Nano- in Applications its and Jet Photonic FM3B.4 •14:15 Haomin Song ogag Gao Yongkang ern Univ.,ern China; promise forselectiveemittersandflatoptics. single exposure. Our experimental results show terns with 70 nm resolution on a large area in a pat local arbitrary produce to jets photonic Univ.,using results latest our presentWe USA. Nanophotonics—Continued FM3B •Plasmonicsand Hooman Mohseni Hooman 1 , Kai Liu 3 Dnxn Ji Dengxin , Valley 3 Bell Labs,Alcatel-Lucent, Invited 1 Xie Zeng Xie , Qiaoqiang Gan 1

1 ; Nn Zhang Nan , 1 1 , Haifeng Hu Haifeng , Northwestern Northwestern 2 Northeast- 1 ; 1 State State FiO/LS 2015 1 2 - , , computational photonics. imaging, sensing and diagnostics tools through devices for the development of next-generation mobile-phones and other consumer electronics of use the by created opportunities future and applications emerging the of some review 1 Ozcan Computational Photonics,Aydogan ToolsThrough Diagnostics and Sensing ing, Imag- Next-Generation of Democratization FM3C.3 •14:30 Settings—Continued Global HealthandLowResource FM3C •SymposiumonOpticsfor will I Univ. LosAngeles, USA. ofCalifornia • Crystal FiO Invited 18–22 October 2015

1 ; Rakich Sensing, Univ. ofAdelaide,Australia; interwaveguide processes. additional by obscured be otherwise would responsewhich phonon transient revealthe to systems nano-optomechanical guided-wave a USA. We employ time-domain measurement of Reintjes wavelengths suchaswithinthemid-IR. explores dispersion compensation at interesting It resonators. microsphere mode gallery ing silica for frequency comb generation in whisper the opportunities for using materials other than South Australia,Australia. This paper evaluates ing Submicron Poled KTP, Us- Idler Back-Propagating With Conversion Higher-Order Spontaneous Parametric Down- FM3D.3 •14:15 quency CombGeneration,Nicolas N. Riesen Materials AnalysisofMicrospheres forFre- FM3D.5 •14:45 Siddiqui M. Spectroscopy,Domain Time Ultrafast with Devices Optomechanical eling-Wave Trav- of Characterization Background-Free FM3D.4 •14:30 higher-order quasi-phase-matching interactions. and poling sub-micron using by accomplished ter-propagatingis This beams. idler and signal coun - with waveguide PPKTP one-dimensional in Down-Conversion Parametric Spontaneous demonstrate We Defense Solutions,USA. M. Monro M. Shahraam Afshar V. Jarecki Robert Continued or Nano-OpticalStructures III— FM3D •NonlinearOpticsinMicro 2 ; 2 1 ; Sandia NationalLabs,USA; 1 2 US Naval Research Lab, USA; ; 1 1 , Charles Reinke Charles , Inst. forPhotonicsandAdvanced 1 Ade Starbuck Andrew , 2 Gold , Alexandre Francois Mark Bashkansky 1 , Heedeuk Shin Heedeuk , 1 2 Ptr T. Peter , Yale Univ., 2 Univ. of 1 2 , Tanya Aleem Sotera Sotera 1 , J. 1 2 - , , Martin Coherent Technologies, USA; ans . Courtial K. hannes 2 Architecture, in Cloaking FM3E.4 •14:45 Thurman System DesignforaSPIDERImager, Samuel T. FM3E.3 •14:30 integrated circuits. putational imaging systems based on photonic SPIDER is a concept for making ultra-thin com- Electro-optical Reconnaissance (SPIDER) imager. for Detector Imaging Planar Segmented a for USA. heed MartinAdvancedTechnology Center, range from purely aesthetictoenergy-saving. which architecturalapplications, potential cuss dis- We imaging. integral perform that sheets micro-structured with achieved be principle, in can, cloaking invisibility Ray-optical Art, UK. Research Unit(MEARU), Glasgow Schoolof Danielle Wuchenich Continued FM3E •OpticalDesign— The MackintoshEnvironmental Architecture e ecie ytm ein principles design system describe We 1 , Richard L. Kendrick L. Richard , Empire 2 1 , Chad Ogden ; 1 Univ. ofGlasgow, UK; i Sharpe Tim 2 , Alan Duncan Alan , 2 ; 1 Lockheed Lockheed 2 2 Lock- Jo- , 2 , Fairfield Sacramento Hillsborough Piedmont Monday, 19 October FiO LS

FM3F • Retinal Imaging, Vasculature, and FM3G • Novel Materials and Design for LM3H • Semiconductor NanoOptics I— LM3I • Accelerating Wavepackets in Optics Photoreceptor Modelling in Healthy and Optical Fibers—Continued Continued and Beyond II—Continued Diseased Eyes—Continued

FM3G.3 • 14:15 LM3H.2 • 14:15 Invited Fabrication and Side-Coupling Characterization of Strong Terahertz-Field Effect on Electron-Hole System Hexagonal Lattice Single-Ring Hollow-Core PCFs, Nitin in Quantum Wells, Koichiro Tanaka1,2; 1Dept. of Physics, 1 1 1 Edavalath , Michael H. Frosz , Jean-Michel Ménard , Philip S. Kyoto Univ., Japan; 2Inst. for Integrated Cell-Material Sci- 1 1 Russell ; Max-Planck Inst. for the Science of Light, Germany. ences (WPI-iCeMS), Kyoto Univ., Japan. We present strong A simple method for fabricating single-ring PCFs with precise terahertz light can modulate electron-hole pair creations azimuthal positioning of the cladding capillaries is presented. in 2D-semiconductors. By means of THz pump and optical The fundamental and higher-order modes in two different probe spectroscopy, we observed a strong spectral modula- structures are characterized using prism side-coupling. tion of the 1s heavy-hole exciton peak of GaAs quantum wells due to Rabi splitting below 10 kV/cm. We also confirmed Franz-Keldysh type spectral modulation and its novel time- dependence in the higher field as high as 50 kV/cm. FM3F.3 • 14:30 Invited FM3G.4 • 14:30 LM3I.3 • 14:30 Invited OCT Angiography Methods in Imaging of the Human High Optical Transmission of Polymer Waveguides Fabri- Guiding Discharges along Curved Paths, Matteo Clerici3,1, 1,2 cated Between Two Optical Fibers, 1,4 1 5 5 Choroid, Iwona M. Gorczynska1, Justin V. Migacz1, Robert Pshko Mohammed , Yi Hu , Philippe Lassonde , Carles Milián , Arnaud Couairon , 2 1 2 J. Zawadzki1, John S. Werner1; 1Dept. of Ophthalmology William J. Wadsworth ; Univ. of Bath, UK; Physics Dept., Demetrios N. Christodoulides6, Zhigang Chen7, Luca Raz- & Vision Science, Univ. of California Davis, Davis, CA, USA. Univ. of Sulaimani, Iraq. Polymer waveguide bridges 40µm zari1, François Vidal1, François Légaré1, Daniele Faccio3, Ro- OCT angiography methods: speckle variance, amplitude to 600µm long have been fabricated between two optical berto Morandotti1,2; 1INRS-Energie Mat & Tele Site Varennes, decorrelation and phase variance will be compared in imag- fibers with transmission loss 0.5dB to 1.26 dB over a broad Canada; 2Inst. of Fundamental and Frontier Sciences, Univ. of ing of the human choroid. Application of split spectrum and wavelength range. The waveguides were written without Electronic Science and Technology of China, China; 3School volume averaging techniques will be demonstrated with using a laser. of Engineering and Physical Sciences, Heriot-Watt Univ., swept source OCT data. UK; 4The MOE Key Lab of Weak Light Nonlinear Photonics, School of Physics and TEDA Applied Physics School, Nankai Univ., China; 5Centre de Physique Theorique, CNRS, Ecole Polytechnique, France; 6College of Optics - CREOL, Univ. of Central Florida, USA; 7Dept. of Physics and Astronomy, San Francisco State Univ., USA. We show that the intriguing FM3G.5 • 14:45 LM3H.3 • 14:45 Invited properties of certain shaped laser beams, such as the ability Q-switched pulse generation in Yb- and Er-doped fiber Structural, Electronic, and Optical Properties of Organic to propagate on curved trajectories and to regenerate after laser with WS saturable absorber, 1 2 Guoqing Hu , Meng Electronic Materials from Density Functional Theory, Leeor 1 3 1 4 obstacles, allow a novel control of an electric discharge in air. Zhang , Lingling Chen , Xuekun Zhu , Guohua Hu , Richard Kronik1; 1Weizmann Inst. of Science, Israel. I will present novel 4 1 1,2 4 C. T. Howe , Xin Zhao , Zheng Zheng , Tawfique Hasan ; approaches within density functional theory that allow for 1 School of Electronic and Information Engineering, Beihang quantitative predictions of structural, electronic, and optical 2 Univ., China; Collaborative Innovation Center of Geospatial properties, based on the concept of an optimally-tuned 3 Technology, China; Dept. of Optoelectronics Engineering, range-separated hybrid functional. Shenzhen Univ., China; 4Cambridge Graphene Centre, Univ. of Cambridge, UK. We demonstrate Q-switched pulses with 13.6 and 179.6 nJ pulse energy in Yb- and Er-doped fiber

lasers using a few-layer WS2-PVA saturable absorber. We attribute the saturable absorption to edge-induced sub-

bandgap states in WS2.

FiO/LS 2015 • 18–22 October 2015 47 Monday, 19 October carrier densities. efficiency droop in (AlGaIn)N based LEDs at high that Auger recombination plays a key role in the toluminescence spectroscopy. The results show pho- temperature low using characterized are structures well multi-quantum (AlGaIn)N lored Tai Opto SemiconductorsGmbH,Germany. National Lab,USA; repetition rates. and lengths (macropulse) burst arbitrary with ond UV laser pulses operating at a burst mode can realize the power enhancement of picosec- optical cavity scheme and locking method that novel a demonstrate We Laser Systems,USA. 48 1 Mazraehno III-Nitride Quantum Wells, Its ContributiontotheEfficiency Droop in Characterization ofAugerRecombinationand FM3A.6 •15:15 Laser Pulses, Burst-Mode for Cavity Enhancement Power FM3A.5 •15:00 Secondary Sources III—Continued FM3A •Laser-plasma-based Astronomy, Univ. ofTennessee, USA; ihe Baude Michael Inst. of Applied Physics, Germany; Inst. ofAppliedPhysics,Germany; 1,2 , Bastian Galler Bastian , Yun Liu California 1,2 Mr Notcutt Mark , 1 , Abdurahim Rakhman 2 Dept. ofPhysicsand Mohammad Tollabi 2 , Michael Binder Michael , 3 ; 1 Oak Ridge 2 OSRAM 3 Stable 18:30–20:30 1,2 2 - ; , 1 Long Reproducible SERS,Jing cal Reactions Enabled by Ultra-Sensitive and Chemi- of Monitoring Real-Time and In-Situ FM3B.7 •15:15 Ren Achiral Metasurface,Haoran An Through Dichroism Circular Broadband FM3B.6 •15:00 angular momentumbeam. orbital an with metasurface achiral an through spectrum broad a over achieved is dichroism circular Giant nano-aperture. single a through distinguishing feature of circularly polarized light direct a demonstrate Univ Tech,We Australia. ence, EngineeringandTechnology, Swinburne were observedrepeatedly. spectral lines of possible intermediate products Raman junctions. nanosphere-plane gold in in-situ by ultra-sensitive and reproducible SERS monitored and plasmons surface localized by driven was DMAB to 4NBT of process ization Li Nanophotonics—Continued FM3B •Plasmonicsand 18:00–19:00 The dimer Shanghai JiaoTongThe Univ., China. 1 Qmn Zhang Qiming , 16:00–18:00 International YearInternational ofLight/OSAPresidents Reception, CityHallRotunda,200E.SantaClara St.,SanJose,CA Valley 1 Mn Gu Min , OSA Microscopy andOpticalCoherence Tomography Technical Group PosterSession,Atherton

International YearInternational ofLight–SciencetoSolutions Special Session,RegencyBallroom 18:00–19:00 1 ; 1 15:30–16:00 Faculty ofSci- 1 Ta Yang Tian , 1 , Xiangping , FiO/LS 2015 1 - ; Meet OSA’s Editors,ClubRegent,LobbyLevel Journal plications willbealsoprovided. ap- POC of Examples control). and electronics elements, optical (opto-mechanics, presented POC. A number of technological choices will be and costs of integrated optical systems used for manufacturing methods, imaging performance FM3C.4 •15:00 1 Point of Care Applications, for Systems Diagnostic Optical Low-Cost Settings—Continued Global HealthandLowResource FM3C •SymposiumonOpticsfor Coffee Break, MarketStreet &SouthTower Foyers wl dsus h designs, the discuss will I Rice Univ. ,USA. • Crystal FiO Invited 18–22 October 2015 TomaszTkaczyk

1 ; function. the nonlinear coefficient with a super-oscillation much narrower width is reached by modulating the crystal length. We experimentally show that to proportional inversely is crystal nonlinear standard a of bandwidth acceptance spectral FM3D.6 •15:00 2 thin film, terahertz bandwidth using epsilon-near-zero with switching all-optical towards index: linear than larger index refractive Nonlinear FM3D.7 •15:15 Remez Crystal, Nonlinear Oscillating Super modulation with500fs. amplitude 10dB than greater for allows This part. linear the than larger much be can film nonlinear real index of an indium tin oxide thin the regime epsilon-near-zero in that show oet . Boyd W. Robert Continued or Nano-OpticalStructures III— FM3D •NonlinearOpticsinMicro We Inst. ofOptics,Univ. We ofRochester, USA. 1 , Ady Arie Ady , Mohammad Z. Alam 1,2 1 ; ; Gold 1 1 Univ. ofOttawa,Canada; TelThe Aviv Univ., Israel. 1 , Israel De Leon Roei 1 , Courtial omto-pis devices, formation-optics trans- pixelated building towards Progress FM3E.5 •15:00 transformation-optics devices. transformation-optics pixellated design to enough general is tion refrac generalised pixellated Such rays. light surfaces that change the direction of transmitted the design and manufacture of micro-structured in progress report We ics, DurhamUniv., UK. Cyril Bourgenot Continued FM3E •OpticalDesign— 1 ; 1 Univ. of Glasgow, UK; 2 , David Robertson Empire un Cowie Euan 2 Dept. of Phys 2 , Johannes K. 1 - - , Fairfield Sacramento Hillsborough Piedmont Monday, 19 October FiO LS

FM3F.4 • 15:00 FM3G.6 • 15:00 LM3I.4 • 15:00 Invited Modelling Total Cones in the Macula from AOSLO Data, Sub-wavelength confinement in dual capillary assisted Linear and nonlinear exotic light wave packets physics chalcogenide core optical fiber for Mid-IR Applications, 1,2 1 Ann E. Elsner1, Stephen A. Burns1; 1Indiana Univ., USA. We and applications, Stelios Tzortzakis ; IESL-FORTH & Univ. 1 1 1 modelled the total cones within a central circle of 7 deg of Viswatosh Mishra , Satya P. Singh , Raktim Haldar , Shailendra of Crete, Greece; 2Texas A&M Univ. at Qatar, Qatar. Exotic 1 1 retina, using from Adaptive Optics Scanning Laser Oph- K. Varshney ; Indian Inst. of Technology Kharagpur, India. linear and nonlinear wave packets propagating in isotropic thalmoscope, finding an average of 221,000 cones. The The sub-wavelength confinement of electromagnetic field and periodically modulated media present exciting propaga- coeficient variation was only .0767. is exploited to attain unconventional, almost-flattened and tion properties, like the support of robust intense light bullets tunable spectral behaviour of effective mode-area and mul- and the remote deposition of very high laser intensities. tiple zero dispersion points in nano-sized dual air-capillary assisted chalcogenide optical fiber for mid-IR applications.

FM3F.5 • 15:15 FM3G.7 • 15:15 LM3H.4 • 15:15 Invited Modeling High-Resolution SLO and OCT Retinal Imaging Cascaded Photonic Crystal Fibers for Three-stage Third- Visualization of Charge Carrier Dynamics in Semiconductor 1 1 1 using Backscattering of Light from Elementary Sources, order Soliton Compression, Zihao Cheng , Qian Li ; Peking Nanowires Using Pump-Probe Microscopy, John Papaniko- 1 2 2 Brian Vohnsen , Stacey S. Choi , Nathan Doble , Elaine Wells- Univ. Shenzhen Graduate School, China. A detailed fiber las1; 1Univ of North Carolina at Chapel Hill, USA. Spatially 2 3 3 1 Gray , Heping Xu , Alan Stitt ; Univ. College Dublin , Ireland; design was presented for the first time for three-stage third- resolved pump-probe microscopy is used to image carrier 2 3 Ohio State Univ. , USA; Queen’s Univ., UK. Photoreceptor order soliton compression at the wavelength of 1.06 μm. A transport in individual nanowires. Diffusion of charge carriers imaging is feasible due to refractive-index discontinuities compression factor of 173 was realized, and the remained in Si nanowires and charge separation in a nanowire encoded across the retinal layers. These can alter the light distribution pedestal is only 58.25%. with an axial p-i-n junction will be discussed. at the visual pigments and impact vision. Here, we analyze a light-scattering model for improved retinal analysis.

15:30–16:00 Coffee Break, Market Street & South Tower Foyers

16:00–18:00 International Year of Light – Science to Solutions Special Session, Regency Ballroom

18:00–19:00 OSA Microscopy and Optical Coherence Tomography Technical Group Poster Session, Atherton

18:00–19:00 Meet OSA’s Journal Editors, Club Regent, Lobby Level

18:30–20:30 International Year of Light/OSA Presidents Reception, City Hall Rotunda, 200 E. Santa Clara St., San Jose, CA

FiO/LS 2015 • 18–22 October 2015 49 Tuesday, 20 October 50 1 Computing, Quantum FTu2A.1 •10:30 Germany Paderborn, Presider: LindaSansoni;Universität grated photonicquantumcomputer. the opportunities and challenges of a fully inte- components is being achieved. We will discuss these of integration sophisticated increasingly and chip, on implemented been lines—have delay switches, filters, detectors, sources, components—inc. the of All manufacturability: with this architecture is the promise of ultimate excitement real the However, non-linearities. photons can be met via measurement induced between interactions entangling of challenge manipulation at the single qubit level; while the of ease and properties low-noise their for ing appeal- are photons computing, quantum to Optics I FTu2A •Integrated Quantum 10:30–12:00 Univ. ofBristol,UK. Of the various approaches California Invited eey . O’Brien L. Jeremy 1 ; of Texas atElPaso,USA; 1 turning turning radii as small as be used to direct light through tight turns, with da, USA. Spatially-variant photonic crystals can Sharma Rashi Cells, Unit Spatially-Variant with Crystals Photonic in Beams Light of Control Tight FTu2B.2 •10:45 Wood G. Degenerate BandEdgeResonances,Michael Periodic Silicon Ridge Waveguides Exhibiting FTu2B.1 •10:30 Univ. -imec,Belgium Presider: RaphaëlVan Laer;Ghent FTu2B •Photonic Crystals 10:30–12:00 fifth-power ofthenumberperiods. the to scale resonances edge band first the of factors Quality devices. electro-optical active in Si ridge waveguides that are compatible with demonstrate degenerate band edge resonances waveguides having similar Digaum e experimentally We Ohio StateUniv., USA. 2 , Raymond Rumpf 1 , Justin R. Burr R. Justin , 2 , Stephen M. Kuebler M. Stephen , 08:00–09:30 Valley 09:30–10:30 R 2 bend 1 Univ. ofCentralFlori- R 1 , Ronald M. Reano M. Ronald , , Javier Pazos bend ~ 20 µm, whereas exhibit high loss. 2 , Jennefir , JTu1A •Joint FiO/LSPlenaryandAwards SessionI,RegencyBallroom 1 ; 09:30–16:00 1 Univ. 09:00–16:00 07:00–18:00 Registration, Unopposed ExhibitOnlyTime,Hall,ImperialBallroom FiO/LS 2015 1 ; Ribbon CuttingCeremony at 09:30 1 Review, A Displays: able Wear through TechnologiesSee Optical for FTu2C.1 •10:30 of Arizona,USA Presider: RongguangLiang; Univ. Optics FTu2C •Wearable Imaging 10:30–12:00 classifying suchtechnologies. and reviewing at aiming are We functionality. a wide variety of optical combining and sensing implemening technologies optical novel velop de- to industry pushed Glasses Smart and AR Google, USA. The recent hype in wearable VR, Coffee Break (09:30-10:00) Exhibit HallOpen,ImperialBallroom CAM Lounge,MarketStreet Foyer • Crystal FiO Invited 18–22 October 2015 Market Street Foyer enr Kress Bernard

1 - ; linear Microscopy,Schaffer B. Chris Non- using Disease Neurological of Models ImagingofCellDynamicsinAnimal In Vivo FTu2D.1 •10:30 Beckman LaserInst.,USA Presider: ElliotBotvinick;UC Irvine FTu2D •Microscopy I 10:30–12:00 reduced inAlzheimer’s disease. is flow blood brain why and function cell brain impact hemorrhages microvascular how of studies on focusing system, nervous central the in behavior cell manipulate and observe to microscopy nonlinear use We Univ., USA. Gold Invited

1 ; 1 Cornell Cornell Yang FTu2E.1 •10:30 USA Presider: IanCoddington;NIST, Systems I Combs inPassiveandActive FTu2E •Engineered Frequency 10:30–12:00 he-hn Lee Chien-Chung Combs, Frequency Noise Phase Ultra-low these mostchallengingapplicationstodate. enable to continue bandwidth and gain loop noise oscillator design combined with improved ultra-low how review We combs. frequency of increasing stability demandsonthe short-term put applications Emerging at Boulder, USA. 1 , Thomas R. Schibli R. Thomas , Empire 1 Dn Hou Dong , Invited 1 ; 1 Univ. ofColorado

1 Zhengyin , Tuesday, 20 October , 1 51 , Sergei V. Firstov 1 Fiber Optics Research Center RAS, RAS, Center Research Optics Fiber 1 Invited Piedmont ; 1 Mikhail Mikhail Melkumov Russia. Bismuth-doped fibers are promising active media for the creation of lasers in the near IR region. This paper reviews recent results on the development of new efficient wavelengths at operating lasers fiber bismuth-doped – lasers 1150 – 1775 nm. LTu2H.1 • 10:30 LTu2H.1 Region Spectral the Covering Lasers Fiber Bismuth-Doped 1150 – 1775 nm, Evgeny M. Dianov 10:30–12:00 • Novel Fiber Lasers I LTu2H of Nasser Peyghambarian; Univ. Presider: Arizona, USA LS Paolo Invited Hillsborough ETH Zurich, Switzerland. We report the status of 1 ; 1 Market Street Foyer Market Street 10:30–12:00 I Laser Spectroscopy • Precision LTu2G USA Esther Baumann, NIST, Presider: • 10:30 LTu2G.1 Precision Laser Spectroscopy of Leptonic Atoms, Crivelli our experiments aiming to improve the uncertainty of the current measurements of the 1S-2S transition frequency of and Muonium. Positronium 18–22 October 2015 • We use We , Omar S. Omar , 1 Minchuan Minchuan Market Street Foyer CAM Lounge, Market Street Exhibit Hall Open, Imperial Ballroom Coffee Break (09:30-10:00) Break Coffee Ribbon Cutting Ceremony at 09:30 Ribbon Cutting Ceremony Univ. of Rochester, USA; of Rochester, Univ. 1 ; 1,2 FiO/LS 2015 Time, Exhibit Hall, Imperial Ballroom Unopposed Exhibit Only Registration, Registration, 07:00–18:00 09:00–16:00 09:30–16:00 Northwestern Univ., USA. Northwestern Univ., 1 ; ; JTu1A • Joint FiO/LS Plenary and Awards Session I, Regency Ballroom Plenary and Awards • Joint FiO/LS JTu1A , Mohammad Mirhosseini Mohammad , 1 1 Sacramento , Robert W. Boyd W. Robert , 1 09:30–10:30 , Selim M. Shahriar M. Selim , 1 08:00–09:30 - proto a demonstrate We of Ottawa, Canada. Physics, Univ. 10:30–11:45 I • General Quantum Electronics FTu2F Magana-Loaiza col that utilizes nonseparability between different degrees and a of of a freedom beam of light to transfer an arbitrary, the onto modes OAM different two of state unknown, priori polarization, in a fashion that is analogous to teleportation using quantum entanglement. FTu2F.2 • 10:45 FTu2F.2 Atomic in Noise Quantum for Approach Equation Master Systems for Gravitational-Wave Detection, Zhou Presider: Rafael Piestun; Univ. of Colorado at Rafael Piestun; Univ. Presider: USA Boulder, • 10:30 FTu2F.1 of the Transfer orbital angular momentum of light to its Seyed Moham- polarization via classical nonseparability, Rafsanjani Hashemi mad 2 the master equation approach to compute the quantum noise quantum the compute to approach equation master the compare then and systems atomic of types different three in amplifier/ phase-insensitive for model Caves the to results the detection. with application to Gravitational-Wave absorber, FiO Glen Ellen Glen Tuesday, 20 October Dept., UK; Varnava on a quantum dots within a light-emitting-diode. semiconductor source of entangled light, based practical a using teleportation quantum tonic pho- reportWe networks. communication tum teed information security to multi-partite quan- UK. Quantum teleportation can provide guaran- manska Caltech, USA; 52 1 Muniz Crystals Slabs,Juan Trapped Atoms in Two Dimensional Photonic with Interactions Light-Matter Designing FTu2A.3 •11:30 diodes, Light-emitting- Teleportationwith Quantum FTu2A.2 •11:00 Optics I—Continued FTu2A •IntegratedQuantum tons, as well as ongoing experimental progress. pho- and atoms between interactions tailoring radiative coupling to guided strong modes. We as explore well as trapping atom support that We describe two-dimensional photonic crystals Andrew J Shields J Andrew Penty V Richard Mingwu Lu Limited, UK; S. Peng S. rw . McClung C. drew Inst. for Quantum Information andMatter,Inst. forQuantumInformation 1 1 1,2 , Branislav Dzurnak , Jonathan D. Hood D. Jonathan , ihr M Stevenson M. Richard Jns Nilsson Jonas , 1 3 , Chen-Lung Hung Cavendish Lab, Univ. of Cambridge, 2 2 California Physics Dept.,Purdue Univ., USA. Cambridge Univ. Engineering 2 , Ian Farrer Ian , 1 1 ; Mcal . Martin J. Michael , 1 Toshiba Research Europe Invited 1 1 Jan Skiba-Szy- Joanna , , Marco Lucamarini 1 3 , Su-Peng YuSu-Peng , , David A Ritchie A David , 1 1,2 , Akhisa Goban Akhisa , , H. Jeff Kimble 1 Christiana , 1 Lucas , 1 , An- 3 1 1 1 ; , , ,

Quan eg Liang beam CavitySensors,Feng Nano- Crystal Photonic Compatible CMOS FTu2B.4 •11:15 1 crystal cavities,Ranojoy Bose Fast, low-energy switching in GaAs photonic FTu2B.3 •11:00 cavities tosizesinglenanoparticles. nanobeam crystal photonic compatible CMOS the develop We concentration. sample lower of requirement and sensitivity improved with healthcare demand new metrology techniques and energy in nanoparticles of applications 45% transmissioncontrast. for achieved be can femtojoules 3 of energy switching estimated low that show We edge. cavities with resonances near the material band crystal photonic (GaAs) arsenide gallium in ics hre M Santori M. Charles Continued FTu2B •PhotonicCrystals— We study free carrier dynam- carrier free study We HP Labs,USA. 1 ; 1 h growing The Harvard Univ., USA. Valley 1 Ryod . Beausoleil G. Raymond , Invited 1

, Jason S. Pelc 1 Qimin , FiO/LS 2015 1 1 ; , FTu2C.2 •11:00 Prostheses, Retinal for Camera Extraocular Eye-Tracked FTu2C.3 •11:30 Sarayeddine Khaled through Smart Glasses & Smart Headphones, See- for Optics Guide Light Monolithic foveation forthosewithretinal prostheses. restoring of capable is system integrated This with intraocular retinal prostheses is described. angle extraocular camera for use in conjunction and system integration of an eye-tracked wide- design optical The USA. California, Southern and discussed. presented be will technology this integrating headphones Smart New glasses. Smart factor form Thin and AR enabling guide light plastic monolithic thin on based technology display Optinvent has developed a unique see-through Patrick J. Nasiatka J. Patrick . Humayun S. Optics—Continued FTu2C •Wearable Imaging Furkan E. Sahin 1 Amn R Tanguay R. Armand , • Crystal 1 FiO , James D. Weiland D. James , 1 ; Invited 18–22 October 2015 1 Optinvent Inc.,France. 1 , Ben P. McIntosh

1 ; 1 Univ. of 1 , Mark , 1 , photodisruption inmice. laser femtosecond vivo in with cells ablating investigate how lost stem cells are replaced by Weself-renewal. cell stem regulate to thought is cells different between contact niche, cell Weill MedicalCollege,USA. Cornell In the stem ogy, Depts.ofMedicineandGeneticMedicine, Cornell Univ.,Cornell USA; view (FOV)of~500µm. of field and µm ~2 of resolution at imaging of capable is which source, (SC) supercontinuum broadband using µm 1.9 at system (SECM) strate a spectrally encoded confocal microscopy China Univ. ofTechnology,demon- We China. of LuminescentMaterialsandDevices,South Communication MaterialsandStateKeyLab of HongKong,Kong; FTu2D.2 •11:00 Hsu on Optical Sectioning Microscopy, Hyperspectral Imaging of Thick Tissues based FTu2D.4 •11:30 window, wavelength 1.9-µm the Spectrally encodedconfocalmicroscopy at FTu2D.3 •11:15 Photodisruption, Laser Niche in the Small Intestine with Femtosecond Understanding the Dynamics of the Stem Cell Cornell Univ.,Cornell USA; was successfullydemonstrated. specimens such as an intact leaf, such turbid technique thick Within applications. tissues thick in resolution axial the improve to microscopy hyperspectral wide-field for introduced was system microscopic sectioning optical An Szu-YuChen Li Bowen Wei Xiaoming Nishimura Nozomi Pengcheng Bu Joe FTu2D •Microscopy I—Continued 2 1 , Poornima , Gadamsetty Poornima , Chien-Hsiang Huang 1 Kneh . . Wong Y. K. Kenneth , 1 ; 1 1,2 1 , Shanhui Xu Shanhui , National Central Univ., Taiwan. , Steven Lipkin Gold 1 ; 3 Division of Gastroenterol - 1 2 Biomedical Engineering, Electrical Engineering,

Jiahn Choi Jiahn 1 , Liang-Jhih Wang 2 1 , Zhongmin YangZhongmin , , Nikolai Rakhilin 2 3 Inst. ofOptical , Xiling Shen 1 ; 1 1 , Daniel J. Daniel , The Univ. ii Tan Sisi u John Yu 2,1 1 1 2 2 , , , , , Long Cruz Diddams Universidade Estadual de Campinas, Brazil; Klose ail Maser quency Combs,Daniel Fre - Mid-Infrared Frequency-Generated Difference- with Spectroscopy Dual-Comb FTu2E.3 •11:30 FTu2E.2 •11:00 4 Trace Gas Sensing, Optical Frequency CombGeneratorsfor acetylene C in Absorption generation. frequence ference dif- via produced were W 0.5 to up of powers average with combs frequency mid-infrared der, USA; dual-comb spectroscopy. a Coddington Ian Maxwell Stephen user-defined linespacing. perform sensitive dual-comb spectroscopy with devices compact These sources. microwave rapid-scanning and modulators electro-optic eosrtd sn hg-adit low-V high-bandwidth using demonstrated are sensing gas trace re-configurable rapidly for generators comb frequency Optical USA. USA; Systems I—Continued Combs inPassiveandActive FTu2E •Engineered Frequency Dept. ofPhysics,SaintJohnsUniv.,Two USA. 1,3 1 1 2 , Joseph T. Hodges Fbii Giorgetta Fabrizio , Dept. ofPhysics,Univ. ofColoradoBoul- , Gabriel Ycas 1 ; 3 1 2 Instituto deFisicaGlebWataghin, National Inst.ofStandards &Tech, H 2 was measured using mid-infrared 1 Empire Nta R Newbury R. Nathan , 1 , David F.David , Plusquellic Adam J. Fleisher 1 , Todd Johnson Invited 1 , Kevin O. Douglass 1 Lua . Sinclair C. Laura ,

1,2 Fai C. Flavio , 1,4 1 , David A. , Andrew 1 1 ; Scott , 1 NIST, 1 1 π , ,

Tuesday, 20 October , , - 1 2 US 1 53 ; 1 , Lynda Busse Lynda , Leibniz Inst. of of Inst. Leibniz , Kay Schuster 3 , James Ander 2 1 1 , Jasbinder Sanghera 1 Sotera Defense Solutions, USA; Axel Schulzgen 2 , Frederic H. kung H. Frederic , 2 , Amy Van Newkirk , Amy Van 1 Invited Invited Piedmont CREOL, the College of Optics and and CREOL, the College of Optics 1 ; 2 , L. Brandon shaw 1 , Rajesh Thapa Rajesh , 1 , Clemence Jollivet 1 We review the physical and physical the review We Foundation, USA. Research Univ. son Naval Research Lab, USA; Naval Research Jesse Frantz Stephan Grimm LTu2H.3 • 11:30 LTu2H.3 and Components, Rafael Fiber Materials, Sources Infrared Gattass R. 3 LTu2H.2 • 11:00 LTu2H.2 Multi-Core Fiber Lasers, Photonics, Univ. of Central Florida, USA; USA; Florida, Central of Univ. Photonics, optical properties of chalcognide fibers, recent advances in of chalcognide fibers, recent optical properties chalcogenide fiber technology, sources and devices fabri- these fibers. cated from The operation of multi- of operation The Germany. e.V., Photonic Technology core fiber lasers with and without supermode selection will be discussed. Supermode specific gain measurements and multi-core of behavior dynamic the as well as losses, roundtrip fiber lasers will be presented. LTu2H • Novel Fiber Lasers I—Continued • Novel Fiber LTu2H LS , ; 1 1 , , Saida =2 Fine =2 1 , Francois Nez 1 Sandrine Galtier Sandrine York Univ., Canada. Univ., York 1 ; , , Pierre Clade 1 1 can be extracted from our from extracted be can p ) puzzle has disrupted the test p =2 hydrogen and helium will lead will helium and hydrogen =2 n , Francois Biraben 1 Invited Invited , , Simon Thomas 1 Hillsborough , Lucile Julien 1 Laboratoire Kastler Brossel, UPMC-Sorbonne Universités, UPMC-Sorbonne Universités, Kastler Brossel, Laboratoire Guellati hydrogen experiment. hydrogen CNRS, ENS-PSL Research Univ., Collège de France, France. Univ., CNRS, ENS-PSL Research The proton charge radius (r Helene Helene Fleurbaey of quantum electrodynamics calculations from hydrogen distribu- velocity the on depending Currently, spectroscopy. r of values contradictory two tion, Structure Structure for Determining the Proton Size and the Fine- Constant, Eric Structure A. Hessels Precision Measurements of Hydrogen and Helium n of Hydrogen Measurements Precision • 11:30 LTu2G.3 Spectroscopy, Laser CW Hydrogen 1S-3S 1 LTu2G.2 • 11:00 LTu2G.2 Precision measurements of measurements Precision proton the of radius charge the of determinations precise to and the fine-structure constant. A new frequency-offset due Shifts employed. is technique separated-oscillatory-field discussed. be will effects interference quantum-mechanical to LTu2G • Precision Laser Spectroscopy I— Laser Spectroscopy • Precision LTu2G Continued 18–22 October 2015

, 1 Univ. Univ. • 1 , Nick 1 ; 1 , Peter Andersen Peter , 1 , James Maslek 1 , Joseph Eberly 1 Univ. of Rochester, USA. of Rochester, Univ. 1 FiO/LS 2015 ; 1 , Ole Jensen Ole , 1 Dept. of Photonics Engineering, Dept. of Photonics Engineering, 1 ; 1 Sacramento , Tanya Malhotra , Miguel Alonso 1 1 , Joseph Eberly 1 Anders K. Hansen K. Anders The concept of generalized ``polarization” of transverse spatial modes for a classical light beam is introduced and is experimentally observed systematically through a novel tomographic measurement. of Rochester, USA. We observe of Rochester, a novel type of multi-party pure N-qubit arbitrary for relations constraint entanglement representation geometric multi-dimensional A systems. state is presented. of such relations Paul Michael Petersen Technical Univ. of Denmark, Denmark. Univ. Diode-based Technical high e.g., tita- for, power perfect visible pump lasers sources are nium-sapphire lasers. The combination of favorable scaling laws in both SFG and cascading of nonlinear crystals allows powers in diode-based systems. access to unprecedented Vamivakas FTu2F.5 • 11:30 FTu2F.5 Entanglement Constraints in Multi-Qubit Systems, Xiao-Feng Qian FTu2F.4 • 11:15 FTu2F.4 Transverse Mode “Polarization” in Optical Beams, Xiao-Feng Qian FTu2F • General Quantum Electronics I— Quantum Electronics • General FTu2F Continued • 11:00 FTu2F.3 5.5 W of Diffraction-Limited Green Light Generated by SFG Diode of Lasers Tapered in a Cascade of Nonlinear Crystals, FiO Glen Ellen Glen Tuesday, 20 October Mechanics ofCAS,,China; Caspani Canada; Univ., UK; Engineering andPhysicalSciences,Heriot-Watt Engineering, RMITUniv., Australia; . Little E. demonstrated. is background-corrected) (93.8% 82.6% above tanglement on five channel pairs with visibilities En- resonator. microring CMOS-compatible integrated single a from pairs photon tangled en- time-bin multiple-frequency of generation Astronomy, Univ.the reportWe ofSussex,UK. 54 Reimer Entangled PhotonPairs,Christian Time-Bin of Comb Frequency Integrated FTu2A.4 •11:45 Optics I—Continued FTu2A •IntegratedQuantum Technology of China, China; Sciences, Univ. ofElectronic Scienceand zel Physics, Yale Univ., USA; China; and Material Science, City Univ. of Hong Kong, Michael Kues Michael 1,8 , Fabio Grazioso Fabio , 4 2 1,5 School of Electrical and Computer Si . Chu T. Sai , 2 Rbro Morandotti Roberto , Xi’an Inst.ofOpticsandPrecision 6 Inst. of Fundamental and Frontier 1 , Piotr Roztocki Piotr , California 3 1 Dvd . Moss J. David , , Yaron, Bromberg 8 Dept. of Physics and 7 3 1 Dept. of Applied Dept. ofPhysics , Benjamin Wet- Benjamin , 1,6 ; 1 INRS-EMT, 5 School of 1,4 7 Lucia , , Brent, 1 , Rani photonic crystal;designandsimulation,Preeti silicon-on-insulator in splitter Polarization FTu2B.5 •11:45 Sinha as polarizationmodesplitter. results show that the proposed design behaves simulation The slab. crystal photonic eycomb hon- dimensional two a in length coupling on paper, we report the polarization splitter based Continued FTu2B •PhotonicCrystals— 12:00–13:00 1 , Reena Dalal Reena , 1 ; 1 Delhi Technological Univ., India. In this Valley 1 , YogitaKalra , 12:00–13:30 12:00–13:30 Lunch Break (onyourown)and UnopposedExhibitOnlyTime,Hall,ImperialBallroom 1 , Ravindra K. Ravindra , Better thanFakin’itGood:MultifunctionalBioreplication, Fairfield Optical MaterialStudiesTechnical Group Workshop, Cupertino FiO/LS 2015 wink-controlled hands-free switching. used with liquid crystal shutter glasses providing retro-reflector,diffusing a and paths, 2.8x and 1x the over polarizers orthogonal embedded with lenses contact scleral telescopic of ization USA. We describe the fabrication and character E. Ford E. son FTu2C.4 •11:45 2 Contact Lens, TelescopicSwitching Hands-Free for gration Polarizer andDiffusing Retroreflector Inte- Optics—Continued FTu2C •Wearable Imaging Innovega Inc, USA; Follow @OpticalsocietyonTwitter. 2 , Arthur Zhang Arthur , 1 ; 1 Univ. SanDiego, USA; ofCalifornia, Glenn M. Schuster Join theconversation. Use hashtag#FiO15 • Crystal FiO 2 , William Meyers William , 3 18–22 October 2015 Paragon Vision Sciences, Paragon Vision 1 , Scott Cook- 3 , Joseph , - USA; cortex, invivo. mouse in fluorophores overlapping spectrally scattering. We demonstrate imaging of multiple optical to insensitive remaining while pixel, per data spectral excitation/emission of nels chan- records48 that microscope multiphoton hyperspectral a constructed We Univ., USA. FTu2D.5 •11:45 , Vivo Imaging 48-channel of Demonstration Hyperspectral MultiphotonMicroscopy: Doerschuk FTu2D •Microscopy I—Continued 2 Amanda Bares Amanda Biomedical Engineering,JohnsHopkins 1 , Chris B. Schaffer B. Chris , Gold

1 , Steven Tilley Steven ,

1 ; 1 Cornell Univ.,Cornell 2 , Peter S. Peter , In In Chen ity, frequency combinasilicatoroidal microcav- Kerr on scattering Raman of Influence FTu2E.4 •11:45 comb formation. comb formation. states occur between a transition of stable Kerr dominant Raman-effect algorithm. split-step a with microcavity silica high-Q a in scattering Raman and mixing four-wave between tion interac- the that investigate We Univ., Japan. Systems I—Continued Combs inPassiveandActive FTu2E •Engineered Frequency aui Kato Takumi 1 Ro Suzuki Ryo , Empire 1 Tmy Kobatake Tomoya , 1 Tksm Tanabe Takasumi , 1 Zhelun , 1 ; 1 Keio Tuesday, 20 October 55 Piedmont LTu2H • Novel Fiber Lasers I—Continued • Novel Fiber LTu2H LS Hillsborough LTu2G • Precision Laser Spectroscopy I— Laser Spectroscopy • Precision LTu2G Continued 18–22 October 2015 • FiO/LS 2015 Optical Material Studies Technical Group Workshop, Cupertino Workshop, Group Optical Material Studies Technical Fairfield Better than Fakin’ it Good: Multifunctional Bioreplication,

Sacramento (on your own) and Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Lunch Break 12:00–13:30 12:00–13:30

FTu2F • General Quantum Electronics I— Quantum Electronics • General FTu2F Continued FiO

12:00–13:00

Visit Visit  Glen Ellen Glen Reminder: Reminder: mobile formats! now available in available now for more information. more for Program 2015 Program FiO/LS www.frontiersinoptics.com Tuesday, 20 October device intheclassicalregime. the on done experiments optical nonlinear by characterized be can regime, quantum the in operated it were device, optical nonlinear that pairs photon quantum-correlated The Studi diPavia,Italy. 56 Optics, Nonlinear sical Clas- with Measurements Optical Quantum FTu3A.2 •13:30 pov Kar Superconducting Resonators,Alexandre Quantum Metamaterials Based on Nonlinear FTu3A.1 •13:00 Toshiba Corp,UK Presider: Richard Stevenson; or Nano-OpticalStructures IV FTu3A •Nonlinear OpticsinMicro 13:00–14:30 Canada; microwave resonator arraysanditstunability. SQUID-based the of response coherent a firm con- to insight an gives technique Microscope Scanning Laser cryogenic The metamaterials. superconductive quantum based array SQUID of study experimental present will We Russia. Liscidini 1 ; 1 National Un.ofScienceandTechn (MISIS), 2 2 ; Dipartimento di Fisica, Universita degli 1 Dept. ofPhysics,Univ. ofToronto, California would Invited Invited John E. Sipe E. John e eeae b a by generated be 1 , Marco , - Mexico; Hernandez-Nava cio Zaldivar-Huerta cio 1 Alyssa Jenkins Multi-mode QKD over a Marine FSO Channel, FTu3B.3 •13:30 Distribution, Signal Microwave for System Antenna Fiber-To-The- Bi-directional a of Proposal FTu3B.2 •13:15 1 Uehara Photonics, Microwave for plates Geometric Phase Shifter using Optical Wave- FTu3B.1 •13:00 Inst. ofTechnology, USA Presider: SyedMurshid;Florida Technologies FTu3B •Novel Communications 13:00–14:30 degrees. 360 to 0 from shifted was lights polarized from generated phase RF The signal. microwave generated photonically for using optical wave plates and We demonstrate an RF geometric phase shifter to multi-modeencodings. secret key rate and extend on single channel turbulence results and scattering, loss, of effects technique in a marine environment. We distribution quantify key quantum BB84 the of mance used forthisgoal. was source optical an only that is work this of microwave signals distribution. The uniqueness fiber-to-the-antenna communication system for bi-directional a describe experimentally We Armando Rojas-Hernández Armando National DefenseAcademyofJapan,Japan. e td te perfor the study We Univ. ofArizona,USA. 1 Kncio Tsuji Kenichiro , 2 Universidad deSonora,Mexico. 1 , Ivan Djordjevic n G Correa-Mena G. Ana 1 , Abigail López-Rojas Abigail , Valley 1 , Alejandro García-Juárez Alejandro ,

1 Nrai Onodera Noriaki , 2 ; 1 INAOE,- Puebla, 1 optical polarizer , Mark Neifeld orthogonally Tomoyuki 1 Pablo , 1 , Igna- , FiO/LS 2015 1 2 1 - ; , ;

USA Presider: PeterRakich;Yale Univ., Energy FTu3C •Photonic Structures for 13:00–14:30 OSA, SPIE,andIEEE. from the Optical Society. He is a Fellow of APS, Medal Lomb Adolph the and Research, in tive National Academy of Sciences Award for theInitia- , Fellowship Packard Lucile and David a patents. Prof. Fan received a NSF Career Award, US 53 granted was and talks, invited 270 over over 350 refereed journal articles and has given interests are in nanophotonics. He has published research MIT.His from physics matter densed He received his Ph. D in 1997 in theoretical con- University.Stanford the Laboratory, at Ginzton L. Edward the of Director the and neering, Engi- Electrical of Professor a is Fan Shanhui Applications, Information and Energy for Nanophotonics FTu3C.1 •13:00 the demonstration of passive radiative cooling. thermal radiation control, leading in particular to for structures photonic of use the discuss also will We photons. for field gauge effective an as well as response non-reciprocal creating of the use of dynamic modulation for the purpose discuss we examples, As applications. energy and information for nanophotonics of ments develop- recent the of some discuss We USA. hnu Fan Shanhui • Crystal FiO Tutorial 18–22 October 2015 1 ; 1

Stanford Univ., OCT images. achieving near-optimal ISAM reconstruction on requirement for operating ISAM machines, while background the lowers significantly It (ISAM). microscopy aperture synthetic interferometric for parameters optimal the determining for framework algorithm automated an present of Illinois at Urbana-Champaign, USA. localized near-fields in the range of 100-150 nm. were visualized on nanoislands and resolved by plasmon localization. Intracellular actin filaments surface on based nanoislands blocked using imaging cellular sub-diffraction-limit plored Engineering, Yonsei Univ.,ex- have We Korea. Univ., USA Presider: ChrisSchaffer, Cornell FTu3D •Microscopy II 13:00–14:30 Aperture Microscopy, Yang Xu Automation ofInterferometric Synthetic FTu3D.3 •13:30 Beams, Laser Scanning Stereomicroscopy with Bessel FTu3D.2 •13:15 Son for sub-diffraction-limited imaging, microscopy cell nanoisland-based Plasmonic FTu3D.1 •13:00 without postimageprocessing. glasses shutter NVIDIA with directly second per volumes several to 1 about of speed a at allow us to view the whole volume of specimen which ability, stereoscopic and field of depth microscopy is designed with both the extended fluorescencescanning laser A Sciences, China. and Precision Mechanics,ChineseAcademyof tpe A Boppart A. Stephen Kim 1 1 Yugi Oh Youngjin , ; 1 School ofElectricalandElectronic Yan Long YangYanLong Gold 1 Wnu Lee Wonju , 1 Pu S Carney S. Paul ,

1 ; 1 Xi’an Inst.ofOptics 1 , Yuan-Zhi Liu 1 Donghyun , Taehwang 1 ; 1 Univ We We 1 , FTu3E.1 •13:00 USA Presider: IanCoddington,NIST, Systems II Combs inPassiveandActive FTu3E •Engineered Frequency 13:00–14:30 presence ofstrong magneticfields. of coherence in intersubband transitions in the lasers in the Mid and Far-infrared and the physics QC performance high of development the are National Latsis Prize (2003). His present interests Swiss the and (1999), award” “Youngscientist (1998), the Michael Lunn award (1999), the award ISCS Streifer William IEEE/LEOS the (1995), ser in 1994 was recognised by the IEE premium demonstration of the quantum cascade (QC) la- Zurich. His central role in the invention and first the institute for quantum electronics of the ETH professorbecame in he 2007, In Neuchâtel. of professor in the physics institute of the University was he 2007, to 1997 TechnicalFrom Staff.of worked first as a he post-doc and where then as 1991 a Member in Laboratories Bell in group IBM Rueschlikon (89-91), he joined F. Capasso’s in post-doc respectively.a 1989 After 1985, in Lausanne Technologyin of Institute Swiss the Physics, in the group of Prof. F.-K Reinhart from Jérôme Faist obtained his Bachelor and Ph.D. in Combs, Frequency Laser Cascade Quantum THz and Mid-Infrared experiments willalsobediscussed. spectroscopy principle of proof as well as tion Octave-spanning frequency, dispersion correc- explained. be will combs frequency cascade Quantum THz and mid-infrared broadband of mechanism locking The Zurich, Switzerland. Empire Tutorial Jérôme Faist Jérôme

1 ; 1 ETH Tuesday, 20 October , - 2 57 NASA 1 ; 1 Tianjin Univ., China. Univ., Tianjin 1 ; , , Diego F. Pierrottet 1 1 , Bruce W. Barnes W. Bruce , 1 Coherent Applications, Inc., Coherent 2 Piedmont Invited Invited Farzin Farzin Amzajerdian , Larry B. Petway B. Larry , 1 A coherent Doppler lidar capable of providing accurate providing of capable lidar Doppler coherent A USA. demon- and developed been has data altitude and velocity bodies system solar the to missions NASA future for strated soft landing. navigation and controlled precision requiring Langley Research Center, USA; Center, Langley Research Glenn D. Hines D. Glenn LTu3I.2 • 13:30 LTu3I.2 Altitude and Velocity Vector for Lidar Doppler Fiber-based Measurements, 13:00–14:30 Lasers II • Novel Fiber LTu3I US Naval Research Jason Auxier; Presider: Lab, USA • 13:00 LTu3I.1 Q-switched Fiber Laser Based on the Kerr of Effect Mul- Shi Wei Effect, timode Interference We We demonstrated an all-fiber passively Q-switched Er-Yb codoped fiber laser using a single mode-multimode-single ef- interference multimode the on based structure fiber mode demonstra first the is this knowledge, our of best the To fect. structure. SMS a on based laser fiber Q-switched the of tion LS , Wil- 1 Duke Univ., Univ., Duke 1 ; 1 National Gallery 3 , Tana , Villafana Tana 1 Purdue Univ., USA. Univ., Purdue We 1 ; 1 , Warren S. Warren S. Warren , 3 Invited Invited , Pu Wang 1 Hillsborough , John Delaney John , 2 North Carolina Museum of Art, USA; North Carolina 2 , Ji-Xin Cheng 1 Pump-probe microscopy can extract microscopy molecular of Art, USA. Pump-probe and structural contrast with high spatial resolution even in thick, scattering samples. We will discuss the and paintings historic technique’s imaging for applications and principle other cultural heritage objects. liam Brown liam demonstrate microsecond vibrational spectroscopic imaging spectroscopic vibrational microsecond demonstrate by spatial frequency-multiplexing and single photodiode detection of stimulated Raman signals. Compared to the spectrometer setting, we improved the photon-collection by 200 times for scattering systems. efficiency LTu3H.1 • 13:00 LTu3H.1 Nonlinear Optical Imaging in Art Conservation and Heritage Science, Martin C. Fischer • 13:30 LTu3H.2 Imaging by Retrieving Stimulated In Vivo Spectroscopic Photons, Chien-Sheng Highly Scattered Raman Signal from Liao 13:00–14:30 Spectroscopic • Nonlinear and LTu3H Imaging II USA Boston Univ., Michelle Sander; Presider: USA; 18–22 October 2015 Ra- • , Dashi- , 1 , Dileep V. Reddy V. Dileep , 1 Univ. of Oregon, USA. We of Oregon, Univ. 1 ; 1 FiO/LS 2015 Invited Sacramento Univ. of Colorado at Boulder, USA. at Boulder, of Colorado Optical Univ. 1 ; , Michael G. Raymer G. Michael , 1 1 ell L. Vitullo L. ell propose an experimental method for measuring two-photon measuring for method experimental an propose Fock states using a gang of detectors and demonstrate the of heralded, two-photon Fock states of light. creation Verification of a Heralded, Two-Photon Fock State with a with State Fock Two-Photon Heralded, a of Verification Smith A. Gang of Detectors, Roger FTu3G.2 • 13:30 FTu3G.2 13:00–14:30 II Quantum Electronics • General FTu3G USA NIST, Karpov, Alexandre Presider: • 13:00 FTu3G.1 Computational Optical Imaging For Super-resolution Microscopy And Sensing Through Complex Media, fael Piestun computational imaging seeks enhanced performance and new functionality by the joint design of illumination, optics, detectors, and reconstruction algorithms. Two remarkable diffraction the overcoming enable here discussed examples complex media. limit and imaging through ; , - 1 1 J. FiO 1 ; ; 1 , Vinod , Physics CREOL 1 5 4 , Derrek Dept. of , Christo , Industrial 8 6 4,1 6 , Kelvin Kuo Kelvin , - Crunch Tech 1 2 Dept. of Physics, Dept. of Physics, 9 , Kevin Carnes Kevin , , Shuting Lei Shuting , Adam M. Summers 8 5,1 , Xiaoming Ren 3 , Nishita Deka Nishita , , Carlos Trallero-Herrero Carlos , 1 1

, Ce Shi Ce , 1 , Erwin Poliakoff Erwin , 9 , Jon Garlick Invited , Matthias Kling Matthias , Glen Ellen Glen 1 2,3 Kapteyn-Murnane Inc, USA; Labs 3 , Itzhak Ben-Itzhak Itzhak , 1 , Eric Wells Eric , 7 , Stefan Zigo Stefan , 1 Dept. of Chemistry, Univ. of Kansas, USA; Univ. Dept. of Chemistry, 7 Andrea M. Armani M. Andrea Univ. of Southern California, USA. By Univ. integrating new gain pher Elles pher and Manufacturing Systems Engineering, Kansas State Univ., and Manufacturing Systems Engineering, Kansas State Univ., USA; Dept., Ludwig-Maximilians-Universitat, Germany;Ludwig-Maximilians-Universitat, Dept., and Dept. of Physics,, Univ. of Central Florida, USA; of Central Florida, and Dept. of Physics,, Univ. Benjamin Langdon into hybrid ultra-high-Q cavities, two types of low-threshold low-threshold of types two cavities, ultra-high-Q hybrid into Ti-enhanced The demonstrated. are lasers optically-pumped have both laser plasmonic nanorod gold the and laser Raman sub-mW thresholds. nologies, USA; Augustana College, USA. Augustana College, We demonstrate a terawatt class pulse femtosecond 26 energy, pulse mJ 20 laser, Ti:Sapphire duration, 1kHz repetition rate, with Carrier-envelope-phase shot single measured RMS, mrad 300 within stabilized (CEP) over 9 hours. FTu3F.2 • 13:30 FTu3F.2 Long term carrier-envelope-phase stabilization of a terawatt-class Ti:Sapphire laser, Integrated Hybrid Microcavities for Low Threshhold La- sers, 1 FTu3F.1 • 13:00 FTu3F.1 13:00–14:30 and Electro-optics • Lasers FTu3F USA of Rochester, Univ. Zhimin Shi, Presider: Chemistry, Louisiana State Univ., USA; Louisiana State Univ., Chemistry, R. Macdonald Lab, Kansas State Univ., USA; R. Macdonald Lab, Kansas State Univ., Wilson Kumarappan Tuesday, 20 October Universität Jena, Germany; Universität Jena,Germany; Abbe CenterofPhotonics,Friedrich-Schiller- eeotutr, t t zero-v its at heterostructure, gain medium with a planar deep-UV plasmonic a of interaction the how show We lightwaves. localize to method new a introduce We USA. 58 Integrated Platform, Divide andConquer:CountingPhotonsonan FTu3A.4 •14:15 erostructures, Localization of Light in Active Plasmonic Het- Deep-UV Assisted Quantum-Coherently FTu3A.3 •14:00 Continued or Nano-OpticalStructures IV— FTu3A •NonlinearOpticsinMicro on-off detectors. standard with combination in optics linear ing us- technique divide-and-conquer a on based strate a fully integrated photon-counting device Rostock, Germany. We experimentally demon- Quantenoptik, Inst.fürPhysik,Universität sität Jena, Germany; sität Jena,Germany; Heilmann thias Heinrich thias lxne Szameit Alexander Jha dramatically improve thedynamics. and localization the control to means a vides pro- drive quantum-coherent A light. localizes 1 , Yuan Wang 1 , Jan Sperling Jan , 1 California , Stefan Nolte Stefan , Kosmas Tsakmakidis 1 , Xiang Zhang 1 ; 1 2 Friedrich-Schiller-Univer Inst. ofAppliedPhysics, Armando P. Armando Leija 3 , Markus Gräfe Markus , 1 g , Werner Vogel Werner , 3 point, 1 Arbeitsgruppe ; 1 UC Berkeley, 1 , Pankaj K. strongly 2 1 , René , , Mat- , 3 - ,

plification between1530and1585nm. around 1550 nm and over 20-dB potential am- bandwidth ASE 70-nm to up offered Samples tellurite fibers pumped at 980-nm is presented. characterization of erbium and ytterbium doped Vinckier coherently drivenpassive cavities,Quentin on based computer reservoir all-photonic processing Information usinganautonomous FTu3B.6 •14:15 Li Optimized FBGs,Song-Sui lay Signatures Suppressed by Feedback from Chaotic Semiconductor Lasers with Time-de- FTu3B.5 •14:00 band Amplification,Thisien G. Montes Doped with Erbium and Ytterbium for Broad - Samples Fiber Tellurite of Characterization FTu3B.4 •13:45 power consumption. low with processing signal high-speed for tial cavities in order to demonstrate its high poten- optical coherent two on based network neural all-optical autonomous an of model numerical de Bruxelles), Belgium. Quantique,ULB(UniversitéLibred’Information D. Marconi lai C Bordonalli C. Aldario SergeMassar Zhuang Jun-Ping Brazil; versité Libre deBruxelles),Belgium; China; Electronic Engineering,CityUniv. ofHongKong, over 10timesisobservedexperimentally. by suppression signature laser,time-delay the from frequency detuning and bandwidth FBG Bragg grating (FBG) feedback. By optimizing the investigated in a semiconductor laser with fiber Univ. ofHongKong,China. Chaotic dynamics is Technologies—Continued FTu3B •NovelCommunications 2 2 Federal Univ.spectral A ofABC,Brazil. State KeyLabofMillimeterWaves, City 1 , Francois Duport 2 , Enver F. Chillcce 2 ; 1 OPERA-Photonique, ULB(Uni- 1 , Sze-Chun Chan Sze-Chun , Valley 14:30–16:00 14:30–16:00 1 ; 14:30–16:00 e td a realistic a study We 1 1 Univ. ofCampinas, , Marc Haelterman 1 , Luiz C. Barbosa 1 , Xiao-Zhou Li Xiao-Zhou , 1,2 2 Laboratoire ; 1 Dept. of JTu4A •JointFiO/LSPosterSessionI,ExhibitHall,ImperialBallroom 1 , Jorge OSA StudentChapter Competition,ExhibitHall,Imperial Ballroom Unopposed ExhibitOnlyTime,Hall,ImperialBallroom FiO/LS 2015 1 1 1 , , , effective bandgapmodification. an through converters energy solar in ficiency ef- conversion power higher yield can crystals photonic how show we Here rates. emission and absorption photon modify to used be can Maryland at College Park, USA. Photonic crystals to theefficiency enhancement ofthinnercells. more contributes structure trapping light that shows and cell solar film thin GaAs based ing improvement of photonic crystal diffraction grat- performance demonstrates paper The Japan. tions, Photonic CrystalDevicesforEnergy Applica- FTu3C.2 •13:45 2 1 Diffraction Grating,Nikhil Deep Gupta Film SolarCellsusingPhotonicCrystalsas ficient Light Trapping Structure for Ef- GaAs Thin Highly Loss Low of Analysis and Design FTu3C.4 •14:15 2 Thekkekara Graphene Oxidefilm,Litty percapcitors Integrated with a Laser Scribed Fabrication andCharacterizationofSolarSu- FTu3C.3 •14:00 in the solar cell performance. in thesolarcellperformance. non-degradation efficiencywith columbic 62% a showed supercapacitor solar The onstrated. dem- was oxide graphene thin-film using cells solar with integrated storage energy electrical Australia. Janyani Gu hua Jia hua Energy—Continued FTu3C •PhotonicStructures for Dept. ofMaterialsEngineering,MonashUniv., Malaviya NationalInst.ofTechnolog, India; Electrical andElectronics Dept., KeioUniv., 1 ; 1 Coffee Break (14:30-15:00) Swinburne Univ.Swinburne ofTechnology, Australia; Jeremy N. Munday JeremyN. 1 1 , Yinan Zhang Yinan , , Ghanshyam Singh Ghanshyam , An on-chip concept of supercapacitor • Crystal FiO 18–22 October 2015 1 , Ling Qiu Ling , 1 , Yunlu, Xu 1 , Hiroyuki TsudaHiroyuki , 2 , Dan Li Dan , 1 ; 1 Univ. of 1 1 , Bao- , , Vijay , Vijay 2 , Min 2 ; Univ., Japan; Univ., China; cal Engineering, College of Engineering,Peking structures inlivingcells. gests unique potential for imaging birefringent sug- ratios, extinction resolutionand high with combined feature This section. optically to ity Microscopy presents strong evidence of the abil- characterising Interferometric Cross-Polarisation theoreticallyand Experimentally of Bristol,UK. Gong measured atthesamedepth. 275nm of resolution imaging STED standard a to comparison with 150nm, as observed was eral resolution of deep-imaging at 84μm-depth microscope by using Bessel beam. Improved lat- STED a report of QuantumMatter,We China. Physics, PekingUniv., China; 1 FTu3D.4 •13:45 eto Yu Wentao STED Imaging by Using Hollow Bessel Beam, FTu3D.6 •14:15 aging, Polarised Microscopy Towards Biological Im- Cross- Interferometric in Sectioning Optical FTu3D.5 •14:00 ferometer, characterization usingsingleelementinter imagingfornanoparticlePhotothermal eso Iwata Tetsuo the phase of photothermal signals. the phaseofphotothermal nanoparticles were discriminated by measuring gold the of diameters different report, this In developed. been has interferometer element scope for single metal nanoparticles using single micro- imaging photothermal A Univ., Japan. FTu3D •Microscopy II—Continued State Key Lab for Mesoscopic Physics, School of State KeyLabforMesoscopicPhysics,Schoolof 1 , YunfengXiao , Benjamin Miles 1 ui Nagata Yuki Zhn Ji Ziheng , 2 3 1 Osaka Univ., Japan; Collaborative InnovationCenter Yktsi Otani Yukitoshi , Gold 1,3 1 , Henkjan Gersen , Peng Xi Peng , 1 1 Xsn Yang Xusan , Yshr Mizutani Yasuhiro , 2 Dept. ofBiomedi- 3 2 ; , Kebin Shi Kebin , 3 1 Utsunomiya Tokushima 1 2 ; Zibo , 1 Univ. 1,3 2 - ; , oamd ahm Rafsanjani Hashemi Mohammad hammad Mirhosseini parametric amplification. of short mid-infrared pulses produced by optical ficient method to control the spectral bandwidth ef- and versatile a demonstrate experimentally 1 Amplification, Parametric Optical Double-Chirped by tion Genera Pulse 5-μm in Control Bandwidth FTu3E.4 •14:15 TwistedLight, Hanbury Brown and Twiss Interferometry with FTu3E.3 •14:00 generation, Quantum cascade laser Kerr frequency comb FTu3E.2 •13:45 orbital-angular-momentum basis. the in interferenceHanbury-Brown-and-Twiss light. These correlations are manifested through thermal of positions angular and components orbital-angular-momentum the in correlations of formation the to rise give intensity of tions fluctua - chaotic that demonstrate We Canada. Boyd Javerzac-Galy acu Yin Yanchun Kippenberg J. Tobias Kerr combgeneration. mid-IR allowing fiber chalcogenide tapered a microresonatorvia a into coupled is light QCL time first the microresonator.For crystalline a pumping laser cascade quantum a on based generation comb Kerr mid-infrared report We Systems II—Continued Combs inPassiveandActive FTu3E •Engineered Frequency Pennsylvania StateUniv., USA. We simulate and 1,2 ; 1 UofR, USA; 1 Mn-e Lin Ming-wei , 1 aoie Lecaplain Caroline Ewn Lucas Erwan , Omar S. Magana Loaiza Magana S. Omar ct Wandel Scott Empire 1 2 , Robert M. Cross Physics, Univ. of Ottawa,

1 ; 1 EPFL, Switzerland. 1 Io Jovanovic Igor , 1 Jh D Jost D. John , 1 Gia Xu Guibao , 1 Rbr W. Robert , 1 Clément , 1 , Seyed 1 , Mo- , 1 1 1 - ; , ,

Tuesday, 20 October , 1 59 Univ. Univ. 2 Tariq Tariq Manzur , Arturo Chavez- 2 Piedmont Invited , Nasser Peyghambarian 2 NAVSEA Naval Undersea Warfare Ctr, USA; Ctr, Naval Undersea Warfare NAVSEA 1 ; 2 Pirson of Arizona, USA. Abstract not available. Joshua Olson LTu3I.3 • 14:00 LTu3I.3 Boundary Layer Atmospheric Challenges of Near-Marine and Turbulence Testing and Modeling, LTu3I • Novel Fiber Lasers II—Continued • Novel Fiber LTu3I LS , Young J. Young , 1 , Charles Camp Charles , 1,2 Invited Hillsborough Marcus T. Cicerone T. Marcus I will I Park, USA. of Maryland - College Univ. IPST, 2 - and Technol Biomaterials, National Inst. of Standards 1 ; 1 ogy, USA; ogy, LTu3H.3 • 14:00 LTu3H.3 Broadband CARS - Instrumentation, Quantitation, and Application, discuss capabilities and applications of broadband coherent coherent broadband of applications and capabilities discuss anti-Stokes Raman scattering (BCARS) microscopy, focusing on optimized excitation paradigms, quantitative signal extraction, and applications in investigations of tissues and small organisms. Lee LTu3H • Nonlinear and Spectroscopic and Spectroscopic • Nonlinear LTu3H Imaging II—Continued 18–22 October 2015 ; - 1 Yuan Yuan • , Marin 1 , , Sergei 1 , Chia Wei Wei Chia , Yale Univ., Univ., Yale 1 3 , Eric Johnson Eric , Coffee Break (14:30-15:00) Break Coffee 1 laser beat-wave in 2 Jeremy Jeremy Pigeon FiO/LS 2015 Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom , John Joannopoulos 2 , Jerome Miller Jerome , 1 OSA Student Chapter Competition, Exhibit Hall, Imperial Ballroom JTu4A • Joint FiO/LS Poster Session I, Exhibit Hall, Imperial Ballroom JTu4A We produce a train of train a produce We USA. UCLA, 1 ; Univ. of Zagreb, Croatia; Croatia; of Zagreb, Univ. 1 2 Sacramento , Wenzhe Li Wenzhe , 1 , Hrvoje Buljan 1 14:30–16:00 MIT, USA; MIT, , Chan Joshi Chan , 1 1 ; 14:30–16:00 1 14:30–16:00 , Bo Zhen 3 , Zeyu Zhang Zeyu , 1 The Holcombe Dept. of Electrical and Computer Engineer and Computer Electrical of Dept. Holcombe The GaAs. The possibility of generating high-power, 300 fs, mid-IR fs, 300 high-power, generating of possibility The GaAs. pulses is discussed. ing, Clemson Univ., USA. ing, Clemson Univ., The amplification of Laguerre- Gaussian (LG) modes also with are Simulations orbital angular amplifier. rod momentum Ho:YAG is a in demonstrated predicting and data experimental the verifying for out carried the potential for high gain. FTu3G.4 • 14:00 FTu3G.4 Separable Through Radiation of Directionality Controlling Rivera Nicholas Bound States in the Continuum, • 14:15 FTu3G.5 picosecond, High-power, 10 µm pulses via compression of a laser beat-wave in GaAs, FTu3G.3 • 13:45 FTu3G.3 Modes, Vortex Order High For Amplifier Rod Ho:YAG Li 1 Soljacic Hsu Tochitsky We demonstrate a general class of bound states in the in states bound of class general a demonstrate We USA. show and realizable are that systems separable in continuum that tailored perturbations of these BICs allow control over radiation. and dimensionality of resonant the directionality high-power, 2 ps, 10 um laser pulses by multiple-four-wave- by pulses laser um 10 ps, 2 high-power, mixing compression of a 106 GHz CO FTu3G • General Quantum Electronics II— Quantum Electronics • General FTu3G Continued ; 1 FiO China Academy 1 ; 1 , David R. Smith 1 Daniel L. Marks Glen Ellen Glen Duke Univ., USA. Duke Univ., Many phase spatial modulators exist at of Engineering Physics, Research Center of Laser Fusion , of Engineering Physics, Research China. The samples polished by cerium oxide, ferric oxide or processed by magnetorheological finishing show that not only Ce but also Fe element has a serious influence on native damage. laser-induced optical frequencies such as liquid crystal cells. We present an alternative for millimeter-waves based on metamaterial resonators that produces strong phase modulation from a small tuning range. FTu3F.5 • 14:15 FTu3F.5 Millimeter- Spatial Dynamic for Resonators Metamaterial Wave Modulators, 1 FTu3F.4 • 14:00 FTu3F.4 Fe impurity on fused silica surface damage in- of Effect Liu Hongjie duced by 355nm laser pulse, FTu3F.3 • 13:45 FTu3F.3 Withdrawn. FTu3F • Lasers and Electro-optics— • Lasers FTu3F Continued Tuesday, 20 October CaF ioi Xue Upconversion Proces, Xiaojie by merely modulatingthelightintensity. within a wide dynamic range of 0.1 μm to 1 μm, based sorting of single bacteria like bio-particles strate that plasmonic metasurfaces enables size Univ. Santa Cruz, USA. of California, We demon- sions. The emissions of Tb of emissions The sions. emis- upconversion ultraviolet intense show process. are generated by a three-photon upconversion and 368 nm are observed for the first time. They 60 Ultraviolet Emissions of Tb JTu4A.4 1 Parameters ofCaF Measurements oftheOpticalAnisotropy JTu4A.3 Plasma, in FusedSilicaandRecombinationbyOxygen Generation of UV Laser Induced Point Defects JTu4A.2 Bio-Particles, Like Bacteria Plasmonic NanoLenses: Size Based Sorting of JTu4A.1 rial constant – optical anisotropy parameter was obtained. depolarization induced thermally the of value minimum to corresponding axes tallographic three wavelengths. The orientation of the crys- Japan. Tb Alexey Yakovlev Cheng auae Ohishi Yasutake Ahmet A. Yanik in high-powerlasersystem. a new way to prolong the lifetime of fused silica provides which plasma, oxygen with react can sphere or vacuum were studied. These defects atmo- in silica fused on parameters different Physics, China. Laser induced point defects with Inst. of Applied Physics RAS, Russia. The - mate 2 , BaF , 1 Dnha Deng Dinghuan , ioa Zhou Xiaoyan 3+ 2 and SrF and /Yb 3+ 1 ; 1 1 co-doped NaYF , Ilya Snetkov 1 ; Baskin School of Engineering, Baskin SchoolofEngineering, 1 Toyota Technological Inst., 2 2 crystals was measured at measured was crystals , BaF 1 ; 1 2 Tknb Suzuki Takenobu , 1 3+ andSrF China AcadEngin 3+ at 323, 338, 352, 338, 323, at by Three-photon 1 inca Zhu Xiangchao , Oleg Palashov 4 microcrystals 2 1 Crystals, Tonglei , ξ

of 1 1 1 , ; , Talipov Sypek taneous frequency measuring. optoelectronic systems for radio signals instan- of principles design develop to how describes was performed. Kinoforms of 1 of Kinoforms performed. was , of retardation phase with structures (phase kinoforms order higher of properties chromatic of evaluation The of Physics,PekingUniv., China; approaches. non-paraxial and paraxial in examined were nanometers, canbeintuitivelyobserved. in even light, of effect Hall spin in separation spin the that demonstrate theoretically We Innovation CenterofQuantumMatter, China. mov TrofiAbsorption andRefraction,Vyacheslav - Beam Propagation in Medium with Nonlinear Laser Self-similar of Distance Long Super JTu4A.8 Carrier, Optical of Modulation Amplitude-Phase an Instantaneous Frequency of Radiosignals With Optoelectronic SystemsforMeasuringof JTu4A.7 1 Separate, Truly Light of Effect Hall Spin In Spins Make To How JTu4A.6 Wegrzynska Karolina Radiation, THz for Lenses Kinoform Order Research onChromatic Properties ofHigher JTu4A.5 tion lengths. diffrac8 - to up mode this propagatesin beam such conditions, certain Under consideration. analytical and simulation computer both by demonstrated is refraction and absorption gation in media with various types of nonlinear State Univ., Russia. 2D self-similar beam propa - atn Racho Martyna Gennady Morozov Gennady State KeyLabforMesoscopicPhysics,Dept. 1 Iia Zakharova Irina , 1 ; 1 1 ; lkad Vasiletc Aleksandr Warsaw Univ. of Technology, Poland. 1 hs article This Russia. KNRTU-KAI, ń 1 Jrsa Suszek Jaroslaw , 1 , Marat Nurgazizov Marat , 1 1 ; Aneza Siemion Agnieszka , p o Wang Bo 1 1 i Tz radiation THz in >1) Lomonosov Moscow 1 Oe Morozov Oleg , st 2 and 2 and Collaborative 1,2 Yn Li Yan , 1 Maciej , 1 nd , Anvar , order FiO/LS 2015 1,2 1 1 Exhibit Hall,ImperialBallroom , , ; JTu4A •Joint FiO/LSPosterSessionI Universidad AutonomadeSinaloa,Mexico; cells through the remote control of smartphone. detector. Therefore, we can as observe in smartphone real time a uses microscope This cells. the of observation real-time for microscope designed we study, this In (the Republicof). Trofimov Absorption, Energy Pulse THz due toCascadeMechanismofBroadband Molecules of Excitation Level Energy High JTu4A.9 Microscope, Observation Real-Time Based Smartphone JTu4A.13 2 Teran OpticalProperties,Uniform Emiliano Non- with Media Turbid in Flights Random JTu4A.12 Withdrawn. JTu4A.11 tion, microresonators via Two-photon polymeriza- Mode Gallery Whispering of Fabrication JTu4A.10 1 generation ofWGMresonators. new a of development the for possibility the microstructures with different properties opens fabricating in technique this of versality The Gallery Modes via Two-photon polymerization. Whispering support which microresonators of fabrication the propose We of Physics,Brazil. Monte Carlosimulationstostudythemedia. using systems uniforms non and uniform with calculations numerical perform Weproperties. of light in turbid media with non-uniform optical present a theoretical study on the propagation is proposed. spectrum pulse incident the with comparison in broadening spectrum response medium of mechanism Physical investigated. is medium a in propagation pulse THz broadband intense ayug Kang Taeyoung Mendez Eugenio We Applied PhysicsDivision,CICESE,Mexico.We Low Lomonosov MoscowStateUniv., Russia. ahla . Tomazio B. Nathalia JOINT FiO/LS 1 Dir Zagursky Dmitry , Yoon Tae Lim 14:30–16:00 • 1 ; 2 1 ; Nanobiophotonics, Korea 1 18–22 October 2015 Deparment ofPhysics,Deparment 1 1 , Seonhee Hwang 1 ; Iia Zakharova Irina , 1 São CarlosInst. Vyacheslav 1 1 1 , , ; Lee Latvia; tions ofdilutedcholesterol. concentra- diverse measure sensitively to SPs out an optimum nanostructure which generates nary optical transmission (EOT) sensor. We find viscosity of blood vessel, we applied extraordi- concentration of LDL cholesterol which elevates ia . Rumala S. Phase Plate, Yisa Matrix for wave propagation through a Spiral JTu4A.17 sensor, terol using extraordinary optical transmission choles- LDL of measurement Concentration JTu4A.14 Inga Saknite Device: aClinicalStudy, Inga Skin Erythema Assessment by an RGB Imaging JTu4A.16 performance, output pc-WLED packaged dome-phosphor half- on self-heating phosphor of Influence JTu4A.15 ment showshighcorrelation. Comparison with dermatologist’s visual assess- validated. clinically and proposed is algorithm assessment index erythema new A device. ing was estimated by a simple, low-cost RGB imag- patients rosacea 90 of assessment erythema skin study, this In Riga StradinsUniv., Latvia. is calculated. device SPP the of planes output and input the on characteristics wave the describing tions equa- analytic matrix, the From presented. is propagation through a spiral phase plate (SPP) wave for formalism matrix A New York, USA. sejs Zavorins sejs Yu-Hua Hsieh Korea; ed and showed the influence is non-negligible. higher than the LED chip. An experiment validat- pc-WLED. The phosphor temperature is always half-dome-phosphor a in distribution perature tem- the estimating on done are FEA and tral Univ., Taiwan. Simulations using ray-tracing 2 Kuug Kim Kyujung , 2 Dept. ofInfectologyandDermatology, 2 yrn Song Hyerin o measuring Yonsei For Univ., Korea. 2 1 , Janis Spigulis Janis , , Te-Yuan Chung Bao-Jen Shih 1 ; 1 Heag Ahn Heesang , 1 Pusan NationalUniv., 1 , Shih-Chen Chiou 1 ; 1 1 1 ; ; Univ. ofLatvia, 1 1 National Cen- City Univ. of 1 Wonju , 1 , Alek- , 1 , need tobetakenintoconsideration. both optical absorption and electrical response demonstrate results Optimized studied. are solar cells with front and back gratings structure and electrical numerical simulation of Si thin film Poland; the methodofmanufacturing. efficiency depending on the structure type and kinoform phase structures. We verify the overall can be manufactured as binary, multiple-step prototyping) or fast for (ideal elements optical Univ.diffractive ofTechnology,Paper Poland. Ramirez Ochoa Ramirez Fernanda of aconstantmagneticfield,Luisa influence the under system dot-microcavity quantum biexcitonic a of model Theoretical JTu4A.18 2 Field, of Depth Large a with Optimal Design of Chip-on-the-Tip Endoscope JTu4A.21 Qiao thin filmsolarcells,Junfeng simulation fordualinterfacelinegratingSi Coupled opticalandelectricalnumerical JTu4A.20 Techniques., ing Manufactur and Type their on Depending Elements Optical Paper THz of Efficiency JTu4A.19 and 3mmlength. diameter mm 1 a into packaged compactly be to allowing while FOV, degree 140 with design provides 8mm DOF at a close distance, The configuration. (COT) Chip-on-the-Tip a in diameter small extremely of endoscope an for design lens objective novel a presents paper This Intelligent SystemsResearch Inst.,Korea. Zhang Siemion e Sukhan Lee Sobczyk Artur ment properties. experimental reports and we study the the entangle- way theoretical a in reproduce We field. magnetic external an of influence the under system microcavity - dot quantum a study We versidad NacionaldeColombia,Colombia. Wegrzynska Information and Communication Engineering, Information 1 ; 1 1 2 ; Coupled optical Coupled Peking Univ., China. Geodesy and Cartography, Warsaw 1 Physics, Warsaw Univ. ofTechnology, 1 1,2 , Maciej Sypek ; 1,2 1 1 Jrsa Suszek Jaroslaw , , Herbert Vinck Posada Vinck Herbert , Sungkyunkwan Univ., Korea; atn Racho Martyna 1 , Jaroslaw Bomba Wang Qiang Wang 1 ń Agnieszka , 1 Karolina , 1 Zhaoyu , 1 ; 1 Uni- 1,2 1 - , ,

Tuesday, 20 October , 2 61 Aliza Peng North- 1 ; , Yanqing Yanqing , 1 1 Molecular Molecular 1 , Manmohan ; 2 2,1 State Key Lab of , Zhaolong Han 1 2 ; 1 , Jianlin Zhao Jianlin , 1 Bates College, USA. Po- (ReCOB) were found to 1 , Young Du 3 Dept. of Biomedical En- 2 ) ; 2 3 1 Zhengping Wang Zhengping , Kirill Larin , Chen Wu 2 2 O(BO , Xinguang Xu Xinguang , 4 1 , Sheng Liu Sheng , 1 , Hong Lin 1 Chih Hao Liu , Jiasong Li 2 , Xun Sun Xun , 1 , Yi Zhang Yi , 1 larization resolved time-delay signatures are VCSEL multimode a for studied experimentally subject to double-cavity, polarization-rotated optical feedback. Concealment of time-delay signatures is observed in certain parameter regimes. We develop We China. western Univ., Polytechnical a theoretical model to reveal the intriguing spin-dependent split for freely propagating cylindrical vector beams which modulated by fan-shaped obstacles in the perspective of angular diffraction. Chandra Mohan Singh Crystal Materials and Inst. of Crystal Materials, Crystal Materials and Inst. of (NLO) optical Nonlinear China. Shandong Univ., crystals ReCa JTu4A.39 JTu4A.39 Masking Time-Delay Features in Multimode Lasers, Surface-Emitting Vertical-Cavity Khurram JTu4A.40 Manipulating the photonic spin Hall effect beams, vector cylindrical fan-shaped of Li JTu4A.38 JTu4A.38 in the Detection of Glomerulonephritis Elastog- Coherence Optical by Kidney Murine raphy, JTu4A.37 JTu4A.37 ultrafast doubling frequency Efficient Ti:Sapphire laser through the type-I NCPM crystals, ReCOB of be excellent materials for frequency doubling ultrafast Ti:Sapphire laser through type-I non- 357 get to style (NCPM) matching phase critical ~ 464 nm spectrum region. Liu gineering, Univ. of Houston, USA. gineering, Univ. This work demonstrates the feasibility of using OCE for early detection of pathological changes in the mechanical properties of the kidney, which would complement information provided by structural images. Physiology and Biophysics, Baylor College Physiology and Biophysics, Baylor College of Medicine, USA;

, , - 1 1 Juan Juan using 2 INAOE, 1 ; , Ireneusz Faculty of Faculty of 3 1 1 , , Rigoberto ; 1 1 , Jose J. San- 2 Ewa Maczynska - theoreti studied was , Ponciano Rodriguez- Ponciano , 2 1 The Inst. of Optics, Univ. The Inst. of Optics, Univ. 3 CCADET, UNAM, Mexico. CCADET, 1 , Govind Agrawal , , Neil C. Bruce , Karol Karnowski 1 1 1 ; 1 , Maciej Wojtkowski 1 , Daniel A. May-Arrioja Vidya Jyothi Inst. of Technology, India. Vidya Jyothi Inst. of Technology, CIO, Mexico; 1 1 2 ; 1 We We present the mechanical design and polar ization optics of a goniometric scatterometer for studying the polarized light scattering from instrumentation optical The surfaces. rough 2D liquid- on based polarimeter Mueller a includes crystal retarders. First Principle calculations, Raju First Principle calculations, M Esakki Muthu Nava-Sandoval Mexico; Julio C. Garcia-Melgarejo C. Julio Hong Chou Lyu of Rochester, USA. We of Rochester, study the effect of the (SPM) modulation self-phase on coupling linear in a nonlinear directional fiber coupler (NLDC) when a single-input excitation is considered. The optical absorption spectrum and dielectric and spectrum absorption optical The TiO doped Cu of constant Montero JTu4A.34 JTu4A.34 Optical properties of Cu doped TiO JTu4A.35 for Scanning Polarimetric Scatterometer Two-Dimensional Rough Surfaces, M. López-Téllez JTu4A.36 Compensation of self-phase modulation - linear coupling in nonlinear direction through al fiber couplers, Nestor Lozano-Crisostomo JTu4A.33 JTu4A.33 Impact Possible of Evaluation Based SS-OCT Wear Long-Term by Caused Quality Vision on of Soft Contact Lenses., chez Mondragon Grulkowski cally using Time-Dependent Density-Functional Density-Functional Time-Dependent using cally Perturbation Theory to enhance the optical of the material in visible region. response Physics, Astronomy and Informatics, Nicolaus Informatics, and Nicolaus Astronomy Physics, , Poland. Swept-source Copernicus Univ. optical coherence tomography is a new approach in metrology of contact lenses. We developed evalu- study preliminary to used and method this ation of possible long-term effects of contact lenses wear on vision quality.

Univ. Univ. 1 ; 1 , Takenobu Takenobu , 1 , Hoang Tuan 1 ofmlab, Japan. 1 ; 1 18–22 October 2015 - Center for High Technol 2 , Dinghuan Deng Dinghuan , 1 , Monish R. Chatterjee • 1 Dept. of Physics & Astronomy, Univ. of Univ. Dept. of Physics & Astronomy, , Yasutake Ohishi 1 1 JOINT FiO/LS JOINT ; , Xiaojie Xue Xiaojie , 1 1,2 of Dayton, USA. A transfer function formalism is applied to track propagation of modulated chaos waves through modified von Karman phase turbulence; the demodulated signal is examined vis-à-vis performance relative to turbulence strength in comparison with non- chaotic propagation. ogy Materials, Univ. of New Mexico, USA. It ogy Materials, Univ. is gratings, Bragg random partially for that shown transmit- intensity average the of logarithm the a is space wavevector reciprocal the over tance amount the of independent quantity, conserved of disorder. New Mexico, USA; Multiple dispersive waves emitted by multiple tellurite birefringence a in solitons mid-infrared demonstrated. are fiber optical microstructured are shifts self-frequency soliton multiple Obvious region. observed in the mid-infrared JTu4A.30 JTu4A.30 Withdrawn. JTu4A.31 and PerformanceSpectral for Analysis and Retrieval of Signals the Propagation from Modulated Chaos Waves Transmitted through Modified von Karman Turbulence, Fathi Mohamed JTu4A.32 Novel features of Anderson localization in a partially random Bragg grating, Arash Mafi JTu4A.29 JTu4A.29 Dis- Multiple of Observation Experimental persive Waves and Mid-infrared Solitons in a Birefringence Tellurite Microstructured Tonglei Cheng Optical Fiber, Suzuki Tong Exhibit Hall, Imperial Ballroom Imperial Hall, Exhibit ; , ,

1 1 1 FiO/LS 2015 , Bi- , 1 JTu4A • Joint FiO/LS Poster Session I—Continued Poster Session • Joint FiO/LS JTu4A , Citlali , Toyota Toyota 1 1 CICESE, 1 ; 1 ; 1 Hoang Tuan , Saud Alanzi 1 , Gregory Lovell Gregory , 1 , Harutaka Kawamura 1 , Yasutake Ohishi Florida Inst. of Technology, Florida Inst. of Technology, , Roger S. Cudney S. Roger , 1 1 1 ; , Rayan Enaya Rayan , 1 1 Syed H. Murshid , Luis . Rios . Luis , 1 , Kouki Takenaka 1 Experimental USA. Florida Inst. of Technology, Gregory Gregory Lovell Takenobu Suzuki analysis of a multi lens de-multiplexer for spatial for de-multiplexer lens multi a of analysis 635 for Data presented. is multiplexing division nm as well as 1550 nm laser sources including tabulated is errors estimated and power coupled and presented. las Chowdhury las Experimental large scale testing of all opti- all of testing scale large Experimental USA. applica- for de-multiplexer fiber core hollow cal tions in spatially multiplexed communication systems. Includes power coupling analysis and confirmto results simulated prior to compared validity of the design. JTu4A.28 JTu4A.28 Dispersion Properties Invariant Chromatic of Tellurite Hybrid Microstructured Opti- cal Fibers With Buffer Layer, Tong 1 JTu4A.27 of All Optical Experimental Verification Hollow Core Fiber Spatial Domain De- multiplexer, JTu4A.25 JTu4A.25 Electrically switchable zone plates for wave- Granillo Mávita Joel Luis sensing, front JTu4A.26 De- Lens Optical All of Analysis Experimental Multiplexed Domain Spatial for multiplexer Murshid H. Communication Systems, Syed Eliosa Technological Inst., Japan. Technological Tellurite hybrid microstructured optical fibers with a buffer provide to developed are core the around layer invariant chromatic dispersion to the fluctua- tion of core diameter and maintain the broad gain bandwidth of fiber-optical parametric amplification. - experimen and theoretical present We Mexico. tal results of wavefront sensing using arrays of high of Arrays plates. zone Fresnel ferroelectric quality zone plates smaller than 270 µm x 270 made. µm were , ; , 1 2 1 , Sharath , Virginie 1 , Eike Zel- ) ratio. The ratio. ) 1 ) nanoscale ) 3 1 Joint Lab of Lab Joint 2 5 Te Université de de Université thin films with films thin 2 –Gratings In –Gratings In 2 3 2 , Petr Nemec , R. - Navamatha 5 1 , Alain Moreac Te 3 2 RMIT, Australia. A RMIT, 1 ; 1 Marek Marek Bouska Institut de Chimie de la Institut de Chimie de la 3 , Shruti Nirantar 1 diffraction angle mea- angle In situ diffraction O thin films in optoelectronic optoelectronic in films thin O 2 , Ludvik Benes 4 , Sonika Obheroi , Sonika Obheroi 1 , Stanislav Pechev 2,1 , Madhu Bhaskaran Madhu , Thin Films, Vellore Inst. of Technology, Chennai, Chennai, Inst. of Technology, Vellore 1 1 3 ; 1 Te , Sumeet Walia 2 1 Dept. of General and Inorganic Chemistry, Chemistry, Dept. of General and Inorganic Dept. of Graphic Arts and Photophysics, Univ. Dept. of Graphic Arts and Photophysics, Univ. dot gratings into soft, elastomeric polydimeth- elastomeric soft, into gratings dot (PDMS). ylsiloxane surements of strain-induced grating response backed by finite element modelling. are Univ. of Pardubice, Czech Republic; Republic; Czech Pardubice, of Univ. Jan Gutwirth Rishabh Raj 6:1, 8:1, 10:1, and 12:1 (GeTe):(Sb 12:1 and 10:1, 8:1, 6:1, of Pardubice, Czech Republic; Republic; Czech Pardubice, of India. Our study delineates the optimal usage Cu high-quality of Nazabal 4 1 JTu4A.24 JTu4A.24 Pulsed Laser Deposited GeTe-rich GeTe- Sb JTu4A.23 JTu4A.23 Mechanically Tunable Thin Film High Re- fractive Index Contrast TiO The Effect of Oxygen Partial Pressures on the Formation of Cuprous Oxide Thin Films Vignesh Applications, V. for Optoelectronic JTu4A.22 JTu4A.22 characterization of as-deposited (amorphous) was films (annealed) crystallized as well as films performed. Rennes 1, France; Elastomeric Matrix, Philipp Gutruf applications by analyzing film deposition and crystallographic structure when contolled by sputtering parameters such as temperature, time. oxygen flow rate and deposition Sriram Matière Condensée de Bordeaux, France; France; Condensée de Bordeaux, Matière mechanically tunable grating is demonstrated (TiO dioxide titanium introducing by van Solid State Chemistry, Univ. of Pardubice, Czech of Pardubice, Univ. Solid State Chemistry, employed was deposition laser Pulsed Republic. GeTe-Sb of fabrication the for lar Tuesday, 20 October transfer matrix method (RTMM). transfer matrixmethod(RTMM). recursive a by analytically derived is structure multilayer nonlinear a in waves (FF) frequency fundamental incident obliquely by generated (THG) generation harmonic third assumption, Univ. ofDayton,USA. Under nondepleted pump Foundation, Korea; Korea; mechatronics Engineering,PusanNationalUniv., 62 Kobayashi Misako pH Sensing Using a Silica Toroid Microcavity, JTu4A.44 2 Modulator, Acousto-Optic of Function Transmission of Linearization JTu4A.43 1 Lee ing oflivecells,Wonju Extraordinary transmission-based axial imag- JTu4A.42 Structures: ObliqueIncidence,Han Li Multilayer in Generation Harmonic Third JTu4A.41 Tanabe channel. liquid a in microcavity a and fiber tapered a of packaging the demonstrated and multilayers PAA/PAH with deposited microcavities toroid silica using by liquid of sensing pH sensitive Univ. ofAerospace Instrumentation,Russia; ing, Yonsei Univ., Korea (; P. Banerjee mty Moskaletz Dmitry Jong-ryul Choi depth investigation. differentfor observed was protein intracellular nanoaperturethe of distribution axial and size, varying by controlled was light transmitted of Penetration cells. of imaging axial based sion - transmis extraordinary explored We Korea. functional analysismethodsbaseisdescribed. (AOM) form on theoretical optics and nonlinear modulator acousto-optic in linearization ency transpar function transmission nonlinear of School ofElectricalandElectronic Engineer h possibility The Electrotechnical Univ., Russia. 3 1 Daegu-Gyeongbuk Medical Innovation ; 1 e elzd high realized We Keio Univ., USA. 1 Jsp Haus Joseph , 3 , Youngjin Oh 1 , Jiro Nishimura Jiro , 2 Oe Moskaletz Oleg , 4 Samsung Electronics, 1 2 4 ; Dept. ofCogno- , Donghyun Kim 1 1 Kuug Kim Kyujung , ery Korol Georgy Electro-Optics, 1 , Takasumi , 1 , Partha 1 ; 1 St St 1 2 1 - - ; , , Guo can becorrected. region this in aberration wave-front the and selected, be can lens objective the of plane focal the from exactly signal fluorescence the adaptive optics into a two-photon microscope, the and sensor wave-front coherence-gated a soliton canbegeneratedwithoutalaserscan. Jakab Based Nanoparticle Spectral Imaging, Source Light Supercontinuum Speed High JTu4A.48 Kim Daesuk interferometric polarizationmodulation, on based spectro-ellipsometry Snapshot JTu4A.47 2 Kim Wonkyu Metamaterial OpticalAntireflection Coating, JTu4A.46 1 Yong Hu Using Coherence-gated Wave-front Sensing, MicroscopyTwo-photon in Optics Adaptive JTu4A.49 coefficient, TO negative with microcavity crystalline a in scan laser without generation soliton cavity Temporal JTu4A.45 ity resolution ofbelow0.001. than 10 seconds with a refractive index sensitiv- allowing to measure over 1000 particles in less setup microscopy field dark imaging spectral speed high based source light percontinuum su- a present Gutenberg Univ.,We Germany. polarization. TM for realized be can antireflection Optical polarization. TE for property metallic and tion polariza- TM for property designer’sdielectric has metamaterial The coating. antireflection is investigated for polarization-selective optical wavelength metal/air-gap grating metamaterial CaF as such coefficient TO negative with microcavity line gate the generation of a Kerr comb in a crystal- a thinfilmobjectinmsec. of vector Stokes spectral accurate an obtain to modulation. The proposed method enables us polarization interferometric on based sometry spectro-ellip- snapshot a describes paper This TakumiKato A sub- Wright-PattersonA AirForce Base,USA. Keio Univesity,investi- numerically We Japan. 1 ; 1 1 Crtn Soennichsen Carsten , Univ. ofAlabamainHuntsville,USA; 1 ; 1 Univ. ofKent, UK. By implementing 1 2 1 ; , where we found that a temporal a that found we where , 1 , HirokiItobe , , Joshua Hendrickson Joshua , 1 Chonbuk National Univ., Korea. 1 , Takasumi, Tanabe Tomoya Kobatake Tomoya 1 ; 1 2 Johannes , Junpeng , Arpad JTu4A •JointFiO/LSPosterSessionI—Continued FiO/LS 2015 1 1 Exhibit Hall,ImperialBallroom ; , tapers wasdeveloped. system of excitation and collection through fiber a properties, optical Totures.their investigate microstruc- doped B Rhodamine produce to two-photon polymerization technique was used Inst. of Physics, Univ.The of São Paulo, Brazil. Gong ea Marquina Vera tion ofthemodeateachlocation. coordinates depending on the circular polarization of the calcite changes at different transverse with a polarization singularity. The rotation direc- mode laser a in calcite birefringent of rotation 1 Herne Singularity, Polarization a with Manipulation ofCalciteCrystalsinaBeam JTu4A.50 two-color fields, orthogonal in dynamics electron Sub-cycle JTu4A.53 2 Gómez-Colín Rocío del María Multichannel Information, Transmit to Systems Optoelectronic in Applications with Gratings Holographic JTu4A.52 Henrique crostructures Through Fiber Tapers,Mi- Polymeric of out and in Light Coupling JTu4A.51 Zaldivar-Huerta potential playveryimportantroles. both the nonadiabatic effects and the Coulomb that find We methods. semi-classical two with combined TDSE. 3D the to solution exact by fields laser two-color polarized orthogonally in dynamics electron sub-cycle the investigate inR Xiao XiangRu Leal-Cruz Lilia Ana transmit audiosignals. to system multichannel as configured scheme gelatin and its integration to an optoelectronic dichromated of gratings holographic obtain describe an optical and chemical procedure to Universidad AutónomadePuebla,Mexico.We Universidad deSonora,Mexico; e eosrt the demonstrate We SUNY NewPaltz,USA. 1 1 ; JOINT FiO/LS , Alexander MacDonald Alexander , 1 We theoretically We Peking Univ., China. 1 , Cleber R. Mendonça R. Cleber , 2 , Alejandro García-Juárez 2 1 1 Li Atr García-Delgado Arturo Luis , Lago Peng LiangYou , • Snr Toxqui-López Sandra , JiWei Geng 2 ; 1 18–22 October 2015 INAOE,- Puebla,Mexico; 1 , WeiHao Xiong 1 , Ann O’Brien Ann , 1 ; 3 1 1 Benemérita Qihuang , São Carlos Catherine Franciele 2 , Ignacio 3 Alicia , 2 1 1 ; , , lm . Gebru K. and RelativeSize,Alem ofInsectFlightDirectionDetermination for Sensing Remote Optical kHz Applied JTu4A.54 dez Transform with Incoherent Light, Real-time Optical Realization of Circle Hough JTu4A.57 of DesignParameters,Robert Francis Optical Monitoring of TBI: Survey and Study JTu4A.56 G for DataStorageApplications,Aswathy Material Photopolymer Doped Ion Nickel Study ontheEnvironmental Stabilityof JTu4A.55 1 using near- and shortwave infrared light size relative its and direction, wind to respect with insect an directionof flight the determine to implemented is system sensing remote optical kHz applied An Lund Univ. , Sweden. Florence at Dallas, USA; experimental results are provided. is suitable for real-time applications. Validation The system works under incoherent light and it lens with variable focal length and annular pupil. of the circle Hough with transform an electrical Uruguay. We present an optical implementation for three years. The material shows stable diffraction efficiencies incorporating nickel ions into it as a cross linker. by material photopolymer the of life shelf and storage improve to was study this of aim The Brydegaard Sudha C. Kartha C. Sudha of designparametersforimagingTBI. cent TBI studies and presents optical modeling resurveys - paper This instruments. monitoring and diagnostic by detected be not may that going head trauma present intracranial maladies Univ. ofStellenbosch,SouthAfrica; 1 , José Ferrari 1 , Duncan MacFarlane 2,1 , Erich Rohwer 2 Raytheon, USA. Patients under 1 1 ; , Rajesh C S C Rajesh , 1 Universidad de la Republica, Universidad delaRepublica, 1 , Pieter Neethling 1 1 ; ; 1 1 CUSAT, India. Univ. ofTexas Ariel - Fernán 2,1 1,2 2 Mikkel , Physics, , James in situ. 1 1 - , ; video feedbackwitha3DcameraandTV. Courtial light irradiation. nm 400 at μm 1.7 of jet photonic ultra-long an ration are designed and optimized to generate configu- hemispherical in engineered particles proven its success in the past years. The micro- has nano-imaging assisted Micro-particle Univ. ofTechnology andDesign,Singapore. bioanalytical applications. femtosecond molecular dynamics research and unique structural and dynamical information for gives fragments the of analysis spectrometric Mass dissociation. molecular non-ergodic and near-infrared pulses, initiating tunnel ionisation femtosecond by irradiated are Peptides UK. Micro-particles, Hemispherical by Jet Photonic Ultra-long JTu4A.61 3D Video Feedback, JTu4A.60 2 Pumped Rubidium Vapor Laser, Buffer GasesPressures Effect onDiode JTu4A.59 Driver Mass Spectroscopy forProteomics, Taran Ionisation/Dissociation Laser-Induced ond Femtosec- Trap Ion Linear Dual-Polarity JTu4A.58 P. Marangos Edelson-Averbukh innon 10% approximately. decreases, optical-to-optical efficiency increases from 100torr to 760torr, fluorescence efficiency increasing pressure methane the With laser. performance of diode pumped rubidium vapor the on effects gases buffer within pressure Michael ForretMichael Ming Ding Beihang Univ., China. 1 1 Gvn MacAuley Gavin , , Thomas R. Barillot R. Thomas , 1 ; 1 Univ. of Glasgow, UK. We investigate 1 , Yulong Liu 1 Lse J Frasinski J. Leszek , 1 , Graham Gibson Graham , acu Chen Zaichun 1 ; 1 Imperial CollegeLondon, Ross Hunter We discuss the methane 1 ; 1 1 Beihang Univ., China; Gbil Battcock Gabriel , 1 , Amelle Zair Amelle , 1 1 , Johannes K. Johannes , 1 Lingling Dai ; , Neel MacK- 1 Singapore 1 Marina , 1 , Jon , 1 2 , ,

Tuesday, 20 October , , - - - - 2 1 63 , Mar , 1 , Goëry 1 , Marcelo Marcelo , 2 Utah State Utah State Caroline Caroline G. 1 ; , Marcela M. Beatriz A. Mar A. Beatriz 1 1 Optica, Instituto 2 Benemérita Univ Benemérita Univ 1 ; 2 , Ruben Ramos Garcia Ramos Ruben , 1 , Juha Toivonen Optica, Instituto Nacional 1 2 Benemérita Univ Autonoma Beatriz A. Martínez Irivas 1 Matt Kalinski ; 2 , Ruben Ramos Garcia Ramos Ruben , 1 , Maximino L. Arroyo Carrasco Arroyo L. Maximino , 1 Tampere Univ. of Technology, Finland; of Technology, Univ. Tampere 1 , Antti Aalto ; 1,2 1 Institut FEMTO-ST, France. We developed Institut FEMTO-ST, an Marcelo Marcelo D. Iturbe Castillo Maximino L. Arroyo Carrasco Autonoma de Puebla, Mexico; Autonoma de Puebla, Mexico; all-fiber based supercontinuum source spanning source supercontinuum based all-fiber from 1300 to 3700 nm. We used it to perform highly sensitive gas detection using incoher ent broadband cavity enhanced absorption spectroscopy. JTu4A.80 JTu4A.80 Enhanced Cavity Broadband Incoherent Using a Super Absorption Spectroscopy continuum Source in the Mid-IR, Amiot 2 JTu4A.81 Two-electron Wavepackets Langmuir-Trojan on Regular Polygon Orbits in Atoms and Quantum Dots, JTu4A.79 JTu4A.79 Influence of the Nonlinear Absorption in the Far-field Diffraction Patterns by a Thin Nonlocal Media, JTu4A.78 JTu4A.78 Z-scan for a Nonlocal Thin Media with More Response, Nonlinear One than Irivas tínez Far , Mexico. Optica y Electronica de Astrofisica, media nonlocal thin a of patterns diffraction field analyzed are absorption nonlinear presents that nonlocality of degrees different for numerically in order to show the modifications induced by the nonlinear absorption. de Puebla, Mexico; cela M. Mendez Otero Mendez M. cela Mendez Otero Mendez Nacional de Astrofisica, Optica y Electronica, Optica y Electronica, Nacional de Astrofisica, Mexico. In this work we propose a model that allows to calculate the z-scan curves by a thin non- one than more exhibit that media nonlocal absorptive, and refractive both response, linear nonlocality. with same or different Genty Univ., USA. We Univ., show that our recently - discov ered regular polygon orbits originated from the free fall of the electron onto the nucleus in strong magnetic field can be configurations extended to Trojan Langmuir-like two-electron in such fields. D. Iturbe Castillo Iturbe D. ; , - - 1 1 , Sakae - Suren , , Kento 1 1 1 , Keisuke 1 Dept. of Phys- 1 ; 1,2 , Akiyuki Maruko 1 , Reeta Vyas Reeta , 1 , Kyousuke Shimabayas- Kyousuke , 1 , Hiroki Kadoya , Shun Takashima 1 1 , Keisuke Kyomoto 1 , Arash Mafi 1,2 Diffraction USA. of Arkansas, Diffraction Univ. 1 Anindya Ambuj Anindya Univ. of Fukui, Japan. Univ. We analyzed ; Shinichi Inayoshi 1 1 , Toru Sato ; 1 1 , Hiroaki Okunishi Hiroaki , 1 , Motoki Morioka 1 Center for High Technology Materials, Univ. Univ. Materials, Center for High Technology ISEN-Brest, France. ISEN-Brest, A recognition technique based on correlation has been developed. To improve the correlator performances we have emphasiz- in consists that correction a proposed ing the contour of the object based on phase contrast method. Takeshi Takeshi Yoshida Kawato Kato JTu4A.75 JTu4A.75 Assessing the performances of an object technique based on correlation recognition Ayman and edge enhancement, Alfalou 1 JTu4A.76 Anderson transverse of analysis Modal localization near the boundary of a one- optical lattice, dimensional disordered Behnam Abaie 2 JTu4A.77 for ultrashort dispersion effects Higher order mode-locked a from directly generation pulse laser with an intra-cavity highly nonlinear medium, JTu4A.74 JTu4A.74 of Diffraction on Misalignment of Effects Laguerre-Gauss Vortex Beams by a Circular Aperture, third- third- and fourth-order dispersion effects on mode-locked a in propagation pulse ultrashort Yb:YAG laser with an intra-cavity highly non linear medium. ics & Astronomy, Univ. of New Mexico, USA; of New Mexico, USA; Univ. ics & Astronomy, of New Mexico, USA. Mexico, New of Using modal analysis, it is shown that Anderson localized modes near the have lattice disordered a of boundaries the any as side lattice the on exponent decay same other mode in the bulk. dra Singh hi of Laguerre-Gauss vortex beams by a dif circular axes aperture and beam the when aperture, for experimentally and theoretically studied is fer relative and indices momentum angular different axes. aperture displacements of beam and Hayashi

; 1 , Alan D. Alan , 1 , Partha P. P. Partha , Alexandra Rochester Rochester 1 1 Benjamin R. ; 1 , Valentina Po- 1 , Hergen Eilers 1 Taras Shevchenko Taras 1 ; , Yun Zhao Yun , 1 Univ. of Dayton, USA. Univ. 1 1 ; 1 18–22 October 2015 , Michelle Chabot Michelle , 1 Danylo Babich • , Ray Gunawidjaja , Grover Swartzlander 1 , Andy Chong Andy , 1 1 , Yakunov , Andrey Yakunov 1 JOINT FiO/LS JOINT Washington State Univ., USA. State Univ., Washington We test the Finite element results results element Finite USA. Inst. of Technology, are reported for a micromechanical oscillator used to measure the piconewton force and micron- a to imparted torque attonewton-meter scale optical wing when illuminated with a 300 mW uniform laser beam. Banerjee Moiré Moiré patterns during digital recording and been have holograms Fresnel of reconstruction analyzed for 1-D and 2-D objects. Elimination of patternsthese Moiré can be achieved using illumination. pulsed, instead of CW, biedina Raisanen JTu4A.71 JTu4A.71 Temperature-Dependent Fluorescent Dyes the Millimeter Application for Measuring Wave Absorption in Liquids Simulating Bio- logical Tissue, JTu4A.72 on Opti- Fine Detection of Radiation Pressure cal Wings Using Oscillators, Micro Artusio-Glimpse B. JTu4A.73 Tamper proof? Tampering tests of optical functions, unclonable physically Anderson 1 JTu4A.70 JTu4A.70 during Suppression their and Patterns Moiré - Reconstruction of Fres and Digital Recording Li Peiyun nel Holograms, Ukraine. National Univ., Fluorescent organic dyes solutions are used for non-contact mea- liquids in absorption microwave the of surement simulating biological tissue. There was the equivalent temperature absorption microwaves and glycerol, (water, liquids three for measured ethylene glycol). tamper indicating ability of optical physically un- physically optical of ability indicating tamper scattering on based (O-PUFs) functions clonable signatures optical unique and nanocomposites found are O-PUFs The reflection. optimized for to be highly sensitive to tampering. Exhibit Hall, Imperial Ballroom Imperial Hall, Exhibit ; , ; -

1 1 1,2 FiO/LS 2015 Dept. Dept. JTu4A • Joint FiO/LS Poster Session I—Continued Poster Session • Joint FiO/LS JTu4A 1 Lehigh 1 ; 2 ; 1 , Ashish Bisht - Venia Andrey , 1 1 , Alexandr Anger Alexandr , 1 Demian Biasetti , Alexandr Ryskin 1 , Marten Beels 1 InterNetWorks Research Lab, Research InterNetWorks 2 , Angela Amphawan Santosh Kumar 1 Ivan Biaggio , Ekaterina Barausova Ekaterina , 1 , Alexandr Shcheulin 1 Russia. ITMO Univ., Real-time holographic Argentina. We CONICET, report waveguides Centro de Investigaciones Opticas, Argentina; de Investigaciones Opticas, Argentina; Centro vaks of Electronics & Communication Engineering, of Electronics India; DIT Univ., Univ., USA. Univ., We use degenerate four-wave mixing with wavelength-tunable picosecond of hyperpolarizability second the study to pulses both of dispersion full The solution. in molecules can polarizability the of parts imaginary and real be obtained using a semi-automated method. Gurdeep Gurdeep Singh fabricated in Cr:LiSAF by using femtosecond laser micromachining. We characterized the lumi- the and performance guiding wave optical comparison a including waveguides of niscence with bulk emission, in order to investigate the aside the focal volume. induced stress grating recording in an additively colored fluorite crystal at 180-200°C was monitored. After exposure, the diffraction efficiency was measured as a function of temperature, and significant departure of maximum diffraction was discovered. 2 JTu4A.69 - Tran Two-Photon Lowest the of Spectroscopy sition for Molecules in Solution by Automated DFWM, Implementation of Sequence Generator us- Implementation of Sequence ing Electro-Optic Effect of Mach-Zehnder Interferomete, JTu4A.68 Performance Optical of Exploration Thorough of Waveguides Made on Cr: LiSAF by Fem- tosecond Laser Writing., 1 JTu4A.66 JTu4A.66 impact temperature dynamics and Recording with crystals fluorite in holograms volume on Borisov Vladimr color centers, 1 JTu4A.67 minov School of Computing, Universiti Utara Malay- sia, Malaysia. In this paper, a novel scheme for an optical sequence generation based on Mach- in niobate lithium of effect electro-optic Zehnder interferometer structure is presented. and patterngeneration for significant be can It encryption.

, ; - 2 2 1,2 , Jose , Chris , 1 1 Adrian Adrian , Ali A. 1 , Gabriel , Xudong 1 2 , Ying Zhang 2 Translume Inc., Translume 2 STFC Rutherford STFC Rutherford Hao Chenglong Hao 1 ; , Yunxin Tang Yunxin , 1 , Cristina Hernandez- Cristina , 1 1 , Xia Yu . , Qiushu Chen 2 2 1 , Jorge Bernal Coord. de optica, Instituto Coord. 1 2 , Philippe Bado 2 , Ibis Ricardez-Vargas 2 Universidad Juárez Autonoma Juárez Universidad 1 ; ; , Hao Li 1 1 Oleg Chekhlov Oleg , Steve Hawkes Steve , 1 , Rajeev Pattathil 1 Univ. of Michigan, USA; Michigan, of Univ. 1 , Mark Dugan ; 2 1 National Univ. of Singapore, Singapore; Singapore; Singapore, of National Univ. Singapore Inst. of Manufacturing Technology, Inst. of Manufacturing Technology, Singapore de Tabasco, Mexico; de Tabasco, Changyuan Yu crystal. We demonstrate 65 uJ output of XPW fil- XPW of output uJ 65 demonstrate We crystal. quality. temporal and spectral improved with ter Nacional de Astrofisica, optica y electronica, optica y electronica, Nacional de Astrofisica, Mexico. In this work we show that solutions to spectrum angular the in equation wave Paraxial of plane waves representation lead to new beams. Bessel order half-integer beams: optical We proposed the nonlinear (second nonlinear the proposed We Singapore. harmonic generation) 4Pi type C microscope region. mid-infrared in objective reflective using of solution practical and potential a provided It tomography penetration deep resolution, high in bio-medical application. JTu4A.65 JTu4A.65 Angular spectrum solutions for the PWE: Half-integer order Bessel beams, Carbajal-Dominguez JTu4A.64 JTu4A.64 by Fabricated Lasers Cavity Ring Optofluidic 3-D Femtosecond Laser Writing Technology, Hengky Chandrahalim JTu4A.63 JTu4A.63 Gener Wave Cross-Polarized of Investigation ated at Simultaneous Spatial and Temporal Focusing, 1 2 JTu4A.62 JTu4A.62 PSF Analysis of Reflective Objectives based Tomography, 4Pi Nonlinear USA. We fabricated a 3-D monolithically integrated optofluidic laser in a fused-silica chip using femtosecond laser pulses. Rhodamine gain the as used was quinoline in dissolved 6G medium and lasing was achieved at a pump of 15 μJ/mm threshold Said Martinez-Niconoff Fan Segovia-Lopez Gomez J. Hooker J. Appleton Lab, UK. Space-time focusing of generate to used is pulses laser spatially-chirped a cross-polarized wave (XPW) in a single BaF Tuesday, 20 October power of22W. (~35pm) laser emission with a maximum output linewidth narrow a showed we VBG, reflective a reported.Using is 872nm as short as lengths able operation of Nd-doped fiber lasers at wave- 64 from 872 to 936nm, tunable lasers fiber Nd-doped High-power JTu4A.82 Cadier Robin France; 2 , Mathieu Laroche 2 , Hervé GIlles Hervé , 2 IXFIBER, France. High-power and tun- 1 Baptiste Leconte , Sylvain Girard Sylvain , 1 ; 1 CIMAP-ENSICAEN, 1 1 , Thierry , , Benoit 1 Optical Microscopy, Bryce Schroeder Frequency Analysis for 3D Localization-based JTu4A.83 for 3Dlocalization-basedopticalmicroscopy. and astigmatic PSFs, quantifying its advantages function (SB-PSF) and compared it with Gaussian spread point self-bending recently-reported a a comprehensive frequency-domain analysis of Stony Brook Univ., SUNY, USA. We conducted 1 , Shu Jia JTu4A •JointFiO/LSPosterSessionI—Continued FiO/LS 2015 1 Exhibit Hall,ImperialBallroom ; absorption (FCA)insilicon. carrier charge free using explained is signal transmitted the of behavior nonlinear The nm. when irradiated with a femtosecond laser at 800 membranes show unexpected nonlinear effects silicon from Transmissionsignals South Africa. in Silicon Membranes., Investigation ofFree Charge CarrierEffects JTu4A.84 kamp Herbert Stafast 1 , Pieter Neethling JOINT FiO/LS 1 , Erich Rohwer • 18–22 October 2015 1 ; 1 Univ. ofStellenbosch, ifi I Ndebeka I. Wilfrid 1 , Christine Steen- 1 , Poyu Su Poyu Image of Mesophyll Cells inside Intact Leaves, Hyperspectral Two-photonFluorescence 4D JTu4A.85 x 4D obtain to applied is recording parallel on based microscopy hyperspectral fluorescence two-photon tional CentralUniv., The Taiwan. cell canberevealed. mesophyll each within photonsystems of tion Through principal component analysis, - informa - y - z - λ images of mesophyll cells in intact leaves. 1 , Ting-Ying Lee Ting-Ying , 1 , Szu-Yu Chen Szu-Yu , 1 ; 1 Na- Adelaide, Australia; for PhotonicsandAdvancedSensing,Univ. of oe, ioa N Riesen N. Nicolas Modes, Gallery MicrosphereWhispering Active of tion On the Fundamental Limits of Far-Field Detec- JTu4A.86 typically lowQ-factors. the for accounts asphericity slight from arising ‘mode-splitting’ non-resolvable that shown is It microspheres. active of modes gallery whispering the of collection far-field for limits Q-factor the investigates paper This Australia. lxnr Francois Alexandre 1 Tna . Monro M. Tanya , 2 Univ. ofSouthAustralia, 1 Ts Reynolds Tess , 2 ; 1 Inst. 1 , Tuesday, 20 October 65 18–22 October 2015 NOTES • FiO/LS 2015 ______Tuesday, 20 October nanoscale inW1photoniccrystalwaveguides. the at forces pressure radiation optimize to engineering dispersion employ to able are we dispersion, waveguide to forces optical of dia; of Physics,IndianInst.Technology, Delhi,In- of 770 of photons single rate high of guiding nanoscale one-dimensional theoreticallydemonstrate we nanofibres, low-loss into extraction efficient with plasmons gap of rate emission photon 66 Optic Effect in Waveguide, Mode EntangledStateUsingtheElectro On ChipVerification ofCHSHInequalityin FTu5A.3 •16:30 2 neering, Engi- Dispersion via Waveguides Photonic Nanoscale Forcesin Optical of Optimization FTu5A.2 •16:15 1 Plasmons, lection Based on Excitation of Gap Surface Efficient SinglePhotonEmissionandCol- FTu5A.1 •16:00 Toronto, Canada Presider: JohnSipe;Univ. of or Nano-OpticalStructures V FTu5A •Nonlinear OpticsinMicro 16:00–18:00 Krishna Thyagarajan Rakich T. Peter Zhang Fan nanorod-coupled nanofilmstructures. electro optic effect in a KTP channel waveguide. state using dynamic mode converters using the CHSH inequalities of a spatial mode entangled In this paper we propose a method to check for Yale Univ., USA. By relating the response theory obnn ultrahigh Combining Peking Univ., China. 2 Faculty ofPhysics,Univ. ofWarsaw, Poland. γ 0 into designed nanofibres in metallic in nanofibres designed into Aleem M. Siddiqui M. Aleem Hang Lian 1 Loi Wang Luojia , California 2 ; 1 Sandia NationalLabs,USA; 1 , Konrad Banaszek 1 , Ying Gu 1 Qhag Gong Qihuang , 1 Divya Bharadwaj , Charles Reinke Charles , 1 , Juanjuan Ren 2 ; 1 Dept. Dept. 1 1 1 1 , , ; ,

chick eyewillbepresented. ment of the individual cone pointing in the living measure- and results imaging resolution High emmetropization. and growth ocular of study the in used commonly is eye chick The USA. France; 1 sorless Adaptive Optics, WavefrontSen- with Imaging Retinal Mouse FTu5B.2 •16:30 3 2 ments in the Living Chick Eye, Retinal ImagingandConePointingMeasure- FTu5B.1 •16:00 Spain Sup InvestigacionesCientificas, Presider: SusanaMarcos; Consejo the LimitsofHumanVision with AnimalEyesandExploring FTu5B •Studying HumanVision 16:00–18:00 Kivlin ai Walker Maria and anoveladaptivelens. retina in-vivo using a MEMS mirrordeformable structural and functional imaging of the mouse for Ophthalmoscopy Laser Scanning confocal fluorescence and Tomography Coherence Optical with combined Optics Adaptive less Simon FraserUniv., Canada. Wavefront Sensor Univ. ofHoustonCollegeOptometry, USA; Ecole polytechnique,UniversitéParis-Saclay, 4 , Stacey S. Choi 4 New England College of Optometry, 2 Load Blanco Leonardo , Valley Invited Invited 1 ; 1 Ohio StateUniv., USA; aik Sarunic Marinko

Nathan Doble 3 Rebecca , FiO/LS 2015 1 1 - ; , optomechanical cavities. metry between Brillouin-active waveguides and sym- spatiotemporal a on report we addition, on recent observations in silicon waveguides. In integrated optical circuits, with a particular focus in scattering Brillouin stimulated of of-the-art state- the present We Univ. -imec,Belgium. a Thourhout Van CEA-LETI, France Presider: CarradoSciancalepore, Photonic Nanostructures FTu5C •Optomechanics and 16:00–18:00 Sensor, A Hybrid Opto-Mechanical Micro-Disk Inertia FTu5C.2 •16:30 Laer Van Integrated OpticalCircuits, Raphaël in Coupling Photon-phonon Harnessing FTu5C.1 •16:00 amu S Rasras S. Mahmoud of 1g-10g. range dynamic a and displacement 12dB/µm an optical waveguide. It exhibits a sensitivity of proofdisk-shaped a of top on integrated mass enabled micro-disk inertia sensor. It consists of Arab Emirates. We numerically present optically 1 Br Kuyken Bart , hd Dushaq Ghada • 1 Crystal Re G F Baets F. G. Roel , FiO 1 Aeade Bazin Alexandre , Invited 18–22 October 2015 1 ;

1 1 Masdar Inst.,United Tdse Mulugeta Tadesse ,

1 ; 1 1 Dries , Ghent 1 , astronomical telescopes. star-imagefor improvementamateur quality in results demonstrate potentials of the technique The conditions. turbulence deep in tested was telescope astronomical amateur a into installed be to designed system AO low-cost improvement overexistingmethods. speed 4.6x a yielding data, function spread point from parameters prescription optical automated differentiation is applied to retrieve Florida, USA Presider: ZhiminShi;Univ. ofSouth Adaptive Optics FTu5D •Wavefront Sensingand 16:00–18:00 tarios Koukourakis Shaping, Wavefront Using Boundaries Phase- Through Measurements Flow-Field FTu5D.3 •16:30 1 Data, Efficient Prescription Retrievalfrom PSF FTu5D.2 •16:15 1 E. Polnau SPGD BasedAdaptiveOpticsSystem,Ernst with Effects Turbulence Deep of Mitigation FTu5D.1 •16:00 Czarske Jürgen Czarske boundaries are usedforvalidation. phase rough and fluctuating through relation cor image on measurementsbased Flow-field reflex. Fresnel the analysing by compensated be can boundaries phase single introducedby Dresden, Germany. We propose that aberrations Univ. ofRochester, USA. Reverse-accumulation Univ. ofDayton,USA; utn . Moore B. Dustin 1 , Mikhail Vorontsov 1 ; 1 TU Dresden, Germany; 1 Gold , König Jörg 2 New York Univ., USA.A 1 Jms . Fienup R. James , 1 , Rodolfo Llinás 2 , Büttner Lars Nek- 2 IFW 1 1 2 - , ; ; FTu5E.2 •16:30 FTu5E.1 •16:00 USA Presider: IanCoddington,NIST, Interaction FTu5E •Laser-matter 16:00–18:00 Beresna Nanostructuring, Assisted Laser Engineering Anisotropy in Glass with Ultrafast Materials, Cell Solar Film Thin for Processing Laser surface sciencestudiessupporttheseclaims. Defect spectroscopy, device measurements, and improved material quality and device operation. tions. Processes have been developed that show niques of CdTe and Si for photovoltaic applica- researchdescribe will processinglaser of tech- Standards andTechnology,I work, this In USA. Mindaugas Gecevicius discussed. and demonstrated be will life-time unlimited practically with storage data optical mensional polarization sensitive optical elements and 5-di nanostructures will be overviewed. Specifically, self-assembled assisted laser femtosecond of applications Recent of Southampton,UK. 1 Rks Drevinskas Rokas , Brian J. Simonds J. Brian Empire Invited Invited 1 , Peter Kazansky 1 ; 1 Jny Zhang Jingyu , 1 National Inst.of

Martynas 1 ; 1 Univ. 1 - , Tuesday, 20 October - , A 4 67 Jason , Evgeny M. 2 - , Temy Valery 1 , M Salganskii 3 Fiber Optic Research Center, Center, Research Optic Fiber James Nagel , Jeremy Dobler , Jeremy 3 1 , M bubnov 3 Univ of Arizona, Coll of Opt Sciences, 1 ; Invited Invited 4 Piedmont This presentation presentation This Lab, USA. US Naval Research 1 ; , D Lipatov D , 1 4 Inst. of High Purity Substances, Russian Academy Inst. of High Purity Substances, , Mikhael Likhachev 4 3 Harris Corporation, USA; USA; Corporation, Harris , Nasser Peyghambarian 2 1 We report of Sciences, Russia. on report We advancements in silicate- efficiency and power improving for fibers gain Raman based suppression SBS amplifiers. linewidth narrow of performance techniques are discussed specifically in the context of ger manosilicate fibers and Raman amplification. anko will provide an overview of novel fiber laser sources in the visible, short-wave infrared (SWIR), and mid-wave infrared recent work in (MWIR). the Additionally, long-wave infrared will be presented. (LWIR) USA; USA; Guryanov LTu5H.2 • 16:30 LTu5H.2 MWIR, and SWIR, Visible, the in Lasers Fiber Novel Auxier M. 16:00–18:00 Lasers III • Novel Fiber LTu5H Naval Manzur; NAVSEA Tariq Presider: USA Ctr, Undersea Warfare • 16:00 LTu5H.1 Narrow Linewidth CW Fiber Raman Amplifiers Based on Fibers, Gain Suppressed SBS Russia; Dianov LS , 1 Laser Randolf , Thomas , 1 Arthur Matveev , Theodor W. Hänsch W. Theodor , 1 Invited Invited Hillsborough , Alexey Grinin Alexey , 2 Max-Planck-Institut fur Quantenoptik, Germany;Max-Planck-Institut fur Quantenoptik, 1 ; Max-Planck-Institut fur Quantenoptik, Germany. Quantenoptik, fur Max-Planck-Institut 1 1 ; ; 1 Univ. of Colorado, USA. of Colorado, Univ. We report on the results of two- Dylan C. Yost C. Dylan spectroscopy spectroscopy of muonic atoms, where a nucleus is orbited by one negative muon, is a novel tool for tests of quantum electrodynamics and the Standard Model, determination of fundamental physical constants, and for nuclear physics. photon spectroscopy of 1S-3S transition in atomic hydrogen hydrogen atomic in transition 1S-3S of spectroscopy photon The chirp of using the picosecond laser mode-locked laser. pulses leads to frequency shift proportional to the velocity of the atoms. 2 Pohl LTu5G.1 • 16:00 LTu5G.1 Two-photon Frequency Comb Spectroscopy of Atomic Hydrogen with Chirped Laser Pulses, • 16:30 LTu5G.2 Laser Spectroscopy of Muonic Atoms and Ions, 16:00–18:00 II Laser Spectroscopy • Precision LTu5G of Arizona, Univ. R. Jason Jones; Presider: USA Udem 18–22 October 2015 ; ; - 1 1 • , Elliot Botvinick Kishan . Dholakia . Kishan 1 FiO/LS 2015 , Abhishek Kurup 1 Invited Invited Sacramento Mark Keating Univ. of St Andrews, UK. of St Andrews, Univ. This talk describes combining UC Irvine Beckman Laser Inst., USA. UC Irvine Beckman Laser Inst., While there is strong beam shaping with the material properties of particles for enhanced manipulation. Additional work using imaging and new trapping combining fibre as well as approaches optic will be described. evidence for roles of bulk tissue stiffness in cell regulation, roles for the pericellular mechanical microenvironment are roles these study to microrheology optical use We clear. less in 3D tissue culture. 1 FTu5F.2 • 16:30 FTu5F.2 Manipulation, Optical in Directions New 16:00–18:00 and Manipulation Trapping • Optical FTu5F of Univ. Casas-Bedoya; Alvaro Presider: Australia Sydney, • 16:00 FTu5F.1 Hetero Mechanical Pericellular of Characterization Optical 1 geneity, geneity, FiO Glen Ellen Glen Tuesday, 20 October Zhang Gu of Quantum Matter, China; cavity hybridsystem. nano- multimode emitter-plasmonic quantum and antibunched fields can be obtained from a bunched both openness, cavity high the by introduced interference field scattered Using Inst. ofOpto-Electronics, Shanxi Univ., China. Quantum OpticsandDevices, 68 Zhao Induced Interferences, Dongxing Cavity-Openness- Nanocavity: Plasmonic Multimode with Control Statistics Quantum FTu5A.6 •17:15 1 Buffer Gas,Mohamed Fouda Nano-Waveguide Embedded in High Pressure Using Modulator All-Optical Ultra-Fast FTu5A.5 •17:00 Networks, Multiplexed Division Wavelength Dense in Distribution Key Quantum High-Speed for Ultra Broadband EntanglementAnalysis FTu5A.4 •16:45 Continued or Nano-OpticalStructures V— FTu5A •NonlinearOpticsinMicro vapor underhighpressure buffer gas. a silicon nitride nano waveguide with Rubidium aroundfield light evanescent of interaction via wavelength telecommunication at modulator mentation of an ultra-fast, low power all-optical Univ., China; Mesoscopic Physics,Dept.ofPeking rent Labonté rent wavelength demultiplexednetworks. in rates bit increase to allows scheme Our interferometers. the unbalancing properly by it counteract and interferometers fiber our in dispersion measure we wavelength telecom a France. Using broadband entangled photons at UMR 7336,UniversitéNiceSophiaAntipolis, de PhysiquelaMatière Condensée,CNRS We propose imple - Univ.,proposeNorthwestern We USA. 1,2 Hny Chen Hongyi , 3 Qhag Gong Qihuang , Florian Kaiser 1 2 , Sébastien TanzilliSébastien , Collaborative InnovationCenter California 1 Jaja Ren Juanjuan , 1,2 1 , Djeylan Aktas ; 1 State KeyLabfor 3 1 State Key Lab of , Selim Shahriar 1 ; 1 Laboratoire 1 Tiancai , 1 1 , Ying , , Lau- 1 ; the retina inlivingmacaques. fluorescence from these molecules throughout two-photon excitation was employed to record morphology.and ogy assisted optics Adaptive and others) that are natural markers for physiol- endogenous fluorophores (eg. NADH, retinoids Western ReserveUniv., USA. The retina contains for MembraneandStructuralBiology, Case czewska 3 Sharma ing PrimateEye,Robin Liv- the in Function and Structure Retinal of Imaging Autofluorescence Two-photon FTu5B.3 •17:00 Hunter Western ReserveUniv., USA; Schwarz genix, Inc,USA; for Visual Science, Univ. of Rochester, USA; Continued the LimitsofHumanVision— with AnimalEyesandExploring FTu5B •StudyingHumanVision Flaum EyeInst.,Univ. ofRochester, USA; 2,3 2 4 ; Kzstf Palczewski Krzysztof , Dvd . Williams R. David , 1 The Inst. of Optics, USA; 5 Dept. ofPharmacology, Case Valley Invited 6 Cleveland Center Cleveland Center 1,2

Gaya Pal- Grazyna , 5,6 Jnie J. Jennifer , 6,2 Christina , 2 Center 4 Pol- FiO/LS 2015 O. Luiz could achieve a ultra-high we rules design foundry limited the Despite demonstrated. are foundry CMOS-compatible commercial a on fabricated cavities chanical de Campinas,Brazil. Photonics crystal optome- hecker large couplingrate(g crystals and optomechanical crystal cavities with FTu5C.3 •16:45 Rakich Light and Sound in Photonic Circuits, Control of Coherent by Mixing Information FTu5C.4 •17:00 CMOS Foundry, Optomechanical CrystalsFabricatedbya Jarecki National Labs,USA; control ofinformation. emit-receive functionalities to achieve coherent realize we couplnig, photon-phonon of nature nonlocal the Exploiting silicon. in manipulated and created be can nonlinearities Brillouin artificial that show we structures waveguide Through a new class hybrid-photonic phononic Computer Science,Univ. ofTexas atAustin,USA. Continued Photonic Nanostructures— FTu5C •Optomechanicsand 1 1 2 1 , Heedeuk Shin , Thiago Alegre , Zheng Wang , Felipe G. Santos • Crystal Rodrigo Benevides FiO 3 Electrical Engineering and Electrical Engineeringand 3 Invited 18–22 October 2015 0 ; 1 1 =60 KHz). 1 , Cox Jonathan ; Yale Univ., USA; 1 Universidade Estadual Universidade Estadual 1 Q , Gustavo S. Wieder (9.1×10

5 1 ) photonic , Gustavo 2 , Robert Peter T. 2 Sandia Sandia -

Valente proposed technique. mental results demonstrate the feasibility of the theory.Experi- CS using sampled randomly is based transform DRPE system. Encrypted data canonical linear the with systems (CS) sensing compressive of mechanism sparse-sensing the of Pernambuco, Univ.of Pernambuco, Brazil; of Pernambuco, wavefront maybereconstructed. be used to determine gradients from which the can polaritons surface-plasmon of excitation near-resonant in reflection attenuated that demonstrate we Here, aberrations. of sensing curvature in used commonly are variations sity 1 FTu5D.4 •16:45 Muniraj systems basedcryptography, Inbarasan phase quadratic with sensing Compressive FTu5D.6 •17:15 2 Wavefront Sensors, Waveguide-Based for Arrangements New FTu5D.5 •17:00 Vohnsen Polariton Excitation,Brian Surface-Plasmon Near-Resonant using tion Reflec Attenuated via Sensing Wavefront ego Rativa advantages and limitations of each are analyzed. guides are proposed for wavefront sensing. The wave - circular and rectangular of combination a and waveguides rectangular thin parallel of Physics, Univ. CollegeDublin,Ireland. An array Adaptive Optics—Continued FTu5D •Wavefront Sensingand Advanced OpticalImagingGroup, Schoolof e examine We Univ. CollegeDublin,Ireland. 1 1 ; , Changliang Guo Changliang , 1 Univ. CollegeDublin,Ireland. Inten- 1 , Brian Vohnsen Gold Denise V. dos Santos

2 1 ; , John T.John Sheridan , 1 Polytechnic School Polytechnic School 1 Denise , 2 , Di- 1 - ; 1 Karimi zanin Films, Alcohol Polyvinyl in Nanoclusters Silver Fluorescent of Writing Laser Direct FTu5E.4 •17:15 mer, ible Photodegradation of a Dye-Doped Poly- Revers- on Field Electric an of Influence The FTu5E.3 •17:00 1 widely usedpolymermaterial. the in photostability good very show clusters nano- The diode. laser cost-effective a using films alcohol polyvinyl in nanoclusters silver of writing laser direct by microstructures cent fluores- of fabrication successful demonstrate effect ofanappliedelectricfield. the including observations all predicts it that find and field electric an of effects the include to polymers dye-doped healing self of model domain mechanical statistical the generalize Sciences Lab, Washington StateUniv., USA.We Interaction—Continued FTu5E •Laser-matter Physics, Washington StateUniv., USA; Tampereen We Teknillinen Yliopisto,Finland. Benjamin R. Anderson R. Benjamin 1 , Puskal Kunwar Puskal , Empire

2 1 , Mark G. Kuzyk G. Mark , , Juha ToivonenJuha , 2 Applied Applied Na- 1 1 ; ; Tuesday, 20 October 69 We discuss discuss We Univ. of Arizona, USA. Arizona, of Univ. 1 ; ; 1 Invited Piedmont Khanh Q. Kieu Q. Khanh LTu5H.3 • 17:00 LTu5H.3 Mi- Optical Nonlinear for Lasers Fiber Ultrafast Compact croscopy, the development of compact, affordable femtosecond fiber femtosecond affordable compact, of development the Application in brain lasers for nonlinear optical microscopy. cancer imaging will be presented. imaging and Barrett’s LTu5H • Novel Fiber Lasers III—Continued • Novel Fiber LTu5H LS , David , 1 Benjamin , Oliver Heckl Oliver , 1 Univ. of Colorado at Boul- Univ. 1 ; 1 , Bryce Bjork Bryce , 1 , Jun Ye Jun , 2 Invited Hillsborough We demonstrate We USA. Univ., Harvard Physics, 2 , John Doyle John , 2 , Bryan Changala Bryan , 1 Patterson Spaun LTu5G.3 • 17:00 LTu5G.3 Probing Buffer-Gas Cooled Molecules with Direct - Fre Mid-Infrared, the in Spectroscopy Comb quency cavity-enhanced direct frequency comb spectroscopy on buffer-gas cooled molecules. By coupling a mid-infrared frequency comb to a high-finesse cavity surrounding a 4 K absorp- resolved rotationally obtain we chamber, buffer-gas tion spectra of multiple vibrational bands of nitromethane. der JILA, USA; USA; JILA, der LTu5G • Precision Laser Spectroscopy II— Laser Spectroscopy • Precision LTu5G Continued 18–22 October 2015 , - 1 • , Qun 1 , Dengxin Ji 1 , Yuan Gong , Yuan 1 , Xie Zeng 1 UESTC, China. Optofluidic 1 FiO/LS 2015 ; 1 Chenlin Zhang

Sacramento State Univ. of New York at Buffalo, USA. at Buffalo, of New York State Univ. 1 , Haomin Song ; 1 1 , Yunjiang Rao 1

, Kai Liu 1 , Yu Wu 1 F. Liu F. We developed an ultra-broadband super-absorbing metasur super-absorbing ultra-broadband an developed We face substrate for SERS sensing. In contrast to conventional substrates working for limited excitation wavelengths, this structure can work for almost “all” laser lines from 450-nm to 1000-nm. Qiaoqiang Gan manipulation of microsphere is achieved by a graded-index a by achieved is microsphere of manipulation fiber (GIF) with a μm. 1000 flat to up endface. tuned be The can and manipulation GIF length on strain is by controlled FTu5F.3 • 17:00 FTu5F.3 plasmonic super absorbers for mul- Ultrabroadband Nan tiplexed surface enhanced Raman spectroscopy, Zhang • 17:15 FTu5F.4 graded-index by microsphere of manipulation Optofluidic fiber with flat endface, FTu5F • Optical Trapping and Trapping • Optical FTu5F Manipulation—Continued

FiO

Visit Visit  Glen Ellen Glen Reminder: Reminder: mobile formats! now available in available now for more information. more for Program 2015 Program FiO/LS www.frontiersinoptics.com Tuesday, 20 October for Coherence andQuantumOptics,USA; cooled tothequantumground state. describe how the center of mass motion can be nanoparticle is presented. Using this model, we cooled and trapped optically an describing equation master quantum a of Development 70 States Engineering,Yin-Chung Chen Raman Cooling of Solids through Density of FTu5A.8 •17:45 3 V.Rodenburg Ground State,Brandon cally Trapped Nanoparticle into Opti the Quantum an of Cooling Feedback of Theory FTu5A.7 •17:30 Continued or Nano-OpticalStructures V— FTu5A •NonlinearOpticsinMicro Neukirch tering canbeachieved. in silicon, laser cooling using pure Raman scat- crystal photonic diamond-structure a through implemented When scattering. Stokes over scattering Raman anti-Stokes of enhancement of states of highly transparent solids can permit We show that engineering the 3D optical density Bahl USA; Mishkat Bhattacharya Mishkat my, RochesterInst.ofTechnology, USA; Physics and Astronomy, Univ. of Rochester, 1 ; 4 1 Inst. ofOptics,Univ. ofRochester, USA. Univ. ofIllinoisUrbana-Champaign,USA. 3,2 Mnc Rizzo Monica , California 1,2 ; 1 Physics andAstrono- 1 Nc Vamivakas Nick , 1 , Gaurav 2 1,2 Center Center , Levi , 4,2 - ,

1 Single Photons, with Vision Human of Limits the Testing FTu5B.5 •17:45 3 1 Campbell C. crimination ofAmyloidDeposits,Melanie Model ofAlzheimer’s Disease Enables Dis- Polarization Imaging in the Retina ofa Dog FTu5B.4 •17:30 USA; diseased dogs. fromsurroundingretinain deposits amyloid of 95% classifies correctly imaging polarization that show We disease. Alzheimer’s to similar syndrome, with symptoms and brain pathology from a naturally occurring cognitive dysfunction of temporal integration at the few-photon level. measurement a including results, preliminary some report and vision, human of limit lower the study to source single-photon heralded a Champaign, USA. We discuss techniques using son Laura Emptage Christensen Continued the LimitsofHumanVision— with AnimalEyesandExploring FTu5B •StudyingHumanVision Physics, Univ. ofIllinoisatUrbana-Champaign, Beagle dogs suffer dogs Beagle Univ. ofGuelph,Canada. Univ. ofWaterloo, Canada; 18:30–20:30 2,3 , Christopher Cookson Christopher , 2 Psychology, Univ. ofIllinoisatUrbana- 1 16:00–17:00 Dvd Devries David , 1 19:00–22:00 , Ranxiao F. Wang 16:00–17:00 1 , Namrata Shah Rebecca Holmes Rebecca Valley 17:00–18:00 OSA MemberReception,GrandeBallroom, TheWestin SanJose,302S.MarketSt.,CA

1 Tedr Chow Theodore , 1 , Marsha Kisilak Marsha , Exhibitor Appreciation Reception(exhibitorsonly),ExhibitHall,ImperialBallroom 2 2 , Paul G. Kwiat 1 inviCRO, USA; , Howard Dob- Laser ScienceBanquet,Gordon St,SanJose,CA Biersch,33EastSanFernando 1 Minorities andWomen inOSA(MWOSA)NetworkingReception,Atherton , Bradley G. Bradley , 17:00–17:45 APS DivisionofLaserScienceAnnual BusinessMeeting,Belvedere FiO/LS 2015 1 1 1 ; , ; FTu5C.5 •17:30 1 waveguide, localized resonance inaphotoniccrystal Efficient electro-optic modulation of a weakly FTu5C.6 •17:45 nanoscale, the at Backaction Plasmons: with Optomechanics Molecular eosrt ultrahigh demonstrate ent amplificationofvibrationalmotion. on the molecular vibration could lead to coher plasmon the of force backaction new The ties. shown to be quivalent to optomechanical cavi- used in surface-enhanced Raman scattering are systems plasmonic The Lausanne, Switzerland. ooio TetsumotoTomohiro Galland Christophe Kippenberg the widthofwaveguidelocally. controlledis mode the of position reducingby resonance in a fluctuated waveguide, where the modulation of weakly localized photonic crystal Continued Photonic Nanostructures— FTu5C •Optomechanicsand Tanabe We photonicstructure group, Japan. OSA AnnualBusinessMeeting,Fairfield 1 Yuta Ooka ; 1 Ecole Polytechnique Federale de Ecole PolytechniqueFederalede • Crystal FiO 1 Ncls Piro Nicolas , 18–22 October 2015 1 , Nurul Ashikin B. Daud 1 Tksm Tanabe Takasumi , Q n electro-optic and Philippe Roelli Philippe 1 Tba J. Tobias , 1 1 1 - ; , , the watercontentofseveralliquids. know could we power, output the measuring By optic. fiber the of power output on effects it and liquid a into submerged when index refraction its change can Gelatin Indonesia. Physics, InstitutTeknologi SepuluhNopember, and SLMbinsize. is found to depend on sample type, beam size, translation and rotation. The signature’s sample stability under signatures optical based (SLM) modulator light spatial unique of stability the FTu5D.7 •17:30 lin . Sosilo K. Gelatin astheCladding,Alvien Kinds of Fuel Using Fiber Optic Coated with Several of Sensor Content Water Designing FTu5D.8 •17:45 1 Anderson R. der translationandrotation, Benjamin Stability ofuniqueopticalsignatures un- ha N Fauzy N. Ahmad Adaptive Optics—Continued FTu5D •Wavefront Sensingand e measure We Washington StateUniv., USA. 1 Ry Gunawidjaja Ray , 1 Nk Etruly Niki , Gold 1 Hre Eilers Hergen , 1 ; 1 Engineering 1 1 ; , Thomas Lanier Thomas Annular Space-Time Focusing in Fused Silica, FTu5E.6 •17:45 1 Singhal Lens Study of Highly Absorbing Liquids, Importance of Hydrogen Bonding in Thermal FTu5E.5 •17:30 addition toconduction. in motion molecular through convection by liquids bonded hydrogen lesser in facilitated better is transfer heat find We explored. are liquids bonded hydrogen absorbing highly on load thermal of Effect ogy Kanpur, India. enhanced materialmodificationlocalization. and blue-shift, plasma pronounced to leads μJ pulses traversing a pair of concentric gratings of chirp the Adjusting silica. in beams annular femtosecond of focusing space-time nonlinear of simulations describe WeState Univ. ,USA. Interaction—Continued FTu5E •Laser-matter Dept. ofChemistry, IndianInst.ofTechnol- 1 , Partha P.Partha , Roy 1 , Jeremy R. Gulley JeremyR. , Empire 1 , Debabrata Goswami Debabrata , 1 ; 1 Kennesaw Sumit Sumit 1 ; Tuesday, 20 October 71 Dept. of Micro- and Nanosciences, Dept. of Micro- 1 ; 1 Invited Piedmont Zhipei Sun Finland. Aalto Univ., I will review the current state-of-the- art of ultrafast lasers mode-locked by graphene and other two-dimensional layered materials (including molybdenum disulfide, and black phosphorus). LTu5H.4 • 17:30 LTu5H.4 Ultrafast Lasers Enabled by Graphene and Other 2D Materials, LTu5H • Novel Fiber Lasers III—Continued • Novel Fiber LTu5H LS Nathalie Nathalie

Invited Hillsborough Max-Planck-Institut fur Quantenoptik, Germany;Max-Planck-Institut fur Quantenoptik, 1 ; 1,2 Fakultät für Physik, Ludwig-Maximilians-Universität München, Ludwig-Maximilians-Universität Physik, für Fakultät - ap for tools enabling become systems Dual-comb Germany. in given be will Illustrations interferometry. involving plications linear where spectroscopy, molecular broadband of field the harnessed. are and nonlinear effects Picque Molecular Spectroscopy with Two Laser Frequency Combs: Frequency Laser Two with Spectroscopy Molecular From Vibrational to Doppler-Free Resolution, LTu5G.4 • 17:30 LTu5G.4 2 LTu5G • Precision Laser Spectroscopy II— Laser Spectroscopy • Precision LTu5G Continued 18–22 October 2015

• , , Sergey 1 , Roxana Rez- OSA Annual Business Meeting, Fairfield 1 Univ. of Central Florida, Univ. 1 ; 1 FiO/LS 2015 Univ. of Central Florida, CREOL, of Central Florida, Univ. 1 APS Division of Laser Science Annual Business Meeting, Belvedere APS Division of Laser Science Annual Business ; 1 17:00–17:45 Minorities and Women in OSA (MWOSA) Networking Reception, Atherton Minorities and Women Gordon Biersch, 33 East San FernandoLaser Science Banquet, Gordon St, San Jose, CA Sacramento Exhibitor Appreciation Reception (exhibitors only), Exhibit Hall, Imperial Ballroom Exhibitor Appreciation , Veerachart Kajorndejnukul 1 , Aristide Dogariu Dept. of Physics, Univ. of Central Florida, USA. Central of Dept. of Physics, Univ. 2 1,2 , Aristide Dogariu Aristide , Grande Ballroom, The Westin San Jose, 302 S. Market St., San Jose, CA San Jose, 302 S. Market St., San The Westin OSA Member Reception, Grande Ballroom, 1 17:00–18:00 16:00–17:00 vani Naraghi CREOL, USA; Sukhov FTu5F.6 • 17:45 FTu5F.6 Mechanical Action of Optical Spin-Orbit Interaction, Sergey Sukhov FTu5F • Optical Trapping and Trapping • Optical FTu5F Manipulation—Continued • 17:30 FTu5F.5 Optical Advection, Veerachart Kajorndejnukul The transformation of spin angular momentum into an orbital an into momentum angular spin of transformation The one breaks the mirror symmetry of scattering. An adjacent an induces and symmetry central the distorts further interface on the scattering object. anomalous lateral force USA. We demonstrate that under the external driving of interac- a hydrodynamic range long the force, optical bias small enhance to harnessed be can particles colloidal between tion transport. the collective and directional 19:00–22:00 16:00–17:00 FiO 18:30–20:30 Glen Ellen Glen 07:00–18:00 Registration, Market Street Foyer

08:00–09:30 JW1A • Joint FiO/LS Plenary and Awards Session II, Regency Ballroom

09:00–16:00 CAM Lounge, Market Street Foyer

09:30–14:00 Exhibit Hall Open, Exhibit Hall, Imperial Ballroom

09:30–11:00 Coffee Break (09:30-10:00) and Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom

10:00–12:00 OSA Friends and Family Tour of Rosicrucian Egyptian Museum and Planetarium (Bus departs from Fairmont San Jose’s main entrace at 10:15)

Exhibit Hall, Imperial Ballroom

JOINT FiO/LS

09:30–11:00 JW2A • Joint FiO/LS Poster Session II

JW2A.1 JW2A.3 JW2A.5 JW2A.7 JW2A.10 Graphene plasmonics for light trapping and Chip-integrated nearly perfect graphene Influence of a Weak Continuous Wave Trigger Design and Implementation of a Fiber Optic Moving Soliton and Localized Soliton at PC absorption engineering in optoelectronic de- absorber, Wei Xu1, Zhihong Zhu1, Ken Liu1, on Continuous Wave Pumped Supercon- Corrosion Sensor based on Macrobend Losses Boundary, Vyacheslav Trofimov1, Tatiana Lysak1; vices, Jianfa Zhang1, Wei Xu1, Zhihong Zhu1, Wei Jianfa Zhang1, Xiaodong Yuan1, Qisheng Lu1, tinuum Generation, Cai Wen1, Hui Huang1, using OTDR, Shailendra K. Varshney1, Gagan S. 1Lomonosov Moscow State Univ., Russia. We Liu1, Xiaodong Yuan1, Shiqiao Qin1; 1National Shiqiao Qin1; 1National Univ. of Defense Tech- Zihao Cheng1, Qian Li1; 1Peking Univ. Shenzhen Dhingra1; 1Indian Inst. of Technology Kharagpur, demonstrate two new types of solitons in a Univ. of Defense Technology, China. We investi- nolog, USA. We exploit the concept of critical Graduate School, China. We demonstrate a India. We report fabrication and proof-of- nonlinear PC: the moving soliton, which moves gate the usage of graphene plasmonics for light coupling to graphene based chip-integrated simple continuous wave trigger scheme that can concept of a simple corrosion sensor utilizing across the PC layers and many times reflects trapping in optoelectronic devices which can applications and numerically demonstrate greatly enhance the stability of the continuous the intensity modulation due to macrobending from the PC boundaries, and the oscillating enhance the absorption in surrounding materials that chip-integrated nearly perfect absorber wave pumped supercontinuum generation. losses. The sensor head consists of SMF bent surface soliton that is localized near the PC by tens of times along with electrical tunability. at near-infrared can be obtained by graphene into particular radius, held by “corrosion fuses” boundary. nearly critical coupling with a nanobeam cavity. JW2A.6 of different thicknesses. JW2A.2 Hydrogel Coated Fiber Bragg Grating Based JW2A.11 High Sensitivity Hybrid Plasmonic Rectangu- JW2A.4 pH Sensor, Pabbisetti Vayu Nandana Kishore1, JW2A.8 Chracterization and fabrication of silica-gold lar Resonator for Gas Sensing Applications, Second Quantization of Gaussian Modes and Sai Shankar Madhuvarasu1; 1Physics, National Metasurface Circular Polarization Splitter, composite toroidal optical microcavity, Sho

Wednesday, 21 October Wednesday, Aya Zaki1,2, Khaled Kirah1, Mohamed Swillam2; Mode Interaction in Limited Space, Zhihao Inst. of Technology, India. Fiber Bragg grating Wei-Yi Tsai1; 1Dept. of physics, NTU, Taiwan. Tamaki1, Wataru Yoshiki1, Takasumi Tanabe1; 1Faculty of Engineering, Ain Shams Univ., Egypt; Xiao1, R. Nicholas Lanning1, Mi Zhang2, Irina based pH sensor is proposed. A pH responsive Here, we present a meta-device which can 1Keio Univ., Japan. We fabricate silica-gold 2School of Science and Engineering, American Novikova2, Eugeniy E. Mikhailov2, Jonathan hydrogel which swells in presence of pH media resolve the handed of circular polarization and composite toroidal microcavity and investigate Univ. in Cairo, Egypt. A compact plasmonic P. Dowling1; 1Dept. of Physics & Astronomy, is utilized for the study. The sensor head is wavelength of incident light through diffrac- the nonlinear property both theoretically and rectangular sensor of effective fabrication cost Louisiana State Univ., USA; 2Dept. of Physics, subjected to different pH solutions ranging from tion angles. experimentally. An efficient thermo-optic is proposed. A hybrid coupling mechanism is uti- College of William & Mary, USA. We second pH 1 to pH 7. A linear increase of wavelength switching is demonstrated due to the enhanced lized. The structure is optimized using numerical quantize multiple orders of Gaussian modes. shift is observed. JW2A.9 absorption coefficient of the material. simulations. A high sensitivity of 1385 nm/RIU is We analytically examine the interaction be- Superluminality Effect due to Femtosecond reached at wavelength of 1.55 μm. tween modes when space is limited and the Laser Pulse Self-Trapping by the Nanorods orthogonality between modes is destroyed. We Melting Front, Vyacheslav Trofimov1, Tatiana numerically simulate the effect of interaction on Lysak1; 1Lomonosov Moscow State Univ., Rus- squeezed vacuum states and show it matches sia. We show a possibility for superluminality experimental data. effect at a femtosecond pulse propagation in a medium with gold nanorods under the nanorods melting and a positive phase-amplitude grating, induced by laser radiation.

72 FiO/LS 2015 • 18–22 October 2015 Exhibit Hall, Imperial Ballroom

JOINT FiO/LS

JW2A • Joint FiO/LS Poster Session II—Continued

JW2A.12 JW2A.16 JW2A.20 JW2A.24 JW2A.28 Anatomy of Phase Locking in Parametric Realization of Parity-Time-Symmetry Break- Angular Distribution of the Emission of Frequency Conversion of Short Optical Pulses Tellurite Microstructured Optical Fiber Based Frequency Combs, Hossein Taheri1, Ali A. ing in Delay Coupled Semiconductor Lasers, a 2-D Optofluidic Random Laser, Anirban in Negatively Spatially Dispersive Metamate- Raman Soliton and Dispersive Wave Genera- Eftekhar1, Kurt Wiesenfeld1, Ali Adibi1; 1Georgia Joseph Suelzer1, Yogesh Joglekar1, Gautam Ve- Sarkar1, Shivakiran Bhaktha B. N.1; 1Indian Inst. rials, Alexander K. Popov1, Sergey A. Mysliv- tion, Lei Zhang1, Hoang Tuan Tong1, Weiqing Inst. of Technology , USA. We investigate the muri1; 1Indiana Univ.-Purdue Univ. Indianapolis, of Technology Kharagpur, India. We observe ets2,3; 1Birck Nanotechnology Center, Purdue Gao1, Harutaka Kawamura1, Takenobu Suzuki1, dynamical origin of phase locking of optical USA. We present an experimental realization the regular diffraction pattern and angularly Univ., USA; 2L.V. Kirensky Inst. of Physics SB RAS, Yasutake Ohishi1; 1Toyato Technological Inst., Ja- frequency combs in Kerr-nonlinear media us- of PT-symmetry breaking in time-delay coupled resolved random lasing spikes within a single Russia; 3Siberian Federal Univ., Russia. We show pan. Tunable soliton and dispersive wave (DW) ing few-mode approximations of the Lugiato- semiconductor lasers and investigate the prop- diffraction line from a 2-D structured optofluidic that particular spatial distributions of nanoscopic are generated by pumping a tellurite micro- Lefever equation. We find analytical expressions erties of the PT-threshold. A theoretical model random laser due to the randomness in the size plasmonic building blocks in metamaterials structured optical fiber near the zero dispersion which reveal the essence of phase locking. is developed to explain the observations and distribution of the scatterers. may enable extraordinary nonlinear-optical wavelength. The soliton is redshifted to 1828.7 agrees well with the data. frequency-shifted reflectivity and pulse shaping. nm, and the DW is blueshifted to 1315.5 nm. JW2A.13 JW2A.21 Analysis of electric field distribution in SPR JW2A.17 Integrated Microring Resonator as a Perfect JW2A.25 JW2A.29 refractive index sensor using different con- Effect of a sinusoidal type modulation in the Absorber, Enrique Sanchez Cristobal1, Jose J. Diagrammatic Representation of Multimode Highly Efficient Dispersive Wave Emission ducting metal oxides, Rana Tabassum1; 1Indian refraction index of a 1D photonic crystal, Sanchez Mondragon1, Mercedeh Khajavikhan2; Raman Scattering with Stokes and Anti-Stokes in a Tellurite Microstructured Optical Fiber, Inst. of Technology, Delhi, India. We report com- Daniel G. Suarez Forero1, Alvaro Montaña 1Inst Nat Astrofisica Optica Electronica, Mexico; Sidebands, Michal Parniak1, Daniel Pecak2, Tonglei Cheng1, Xiaojie Xue1, Dinghuan Deng1, parative study of electric field distribution inside Guerrero1, Herbert Vinck Posada1; 1Universidad 2CREOL, College of Optics and Photonics, Wojciech Wasilewski1; 1Univ. of Warsaw, Poland; Takenobu Suzuki1, Yasutake Ohishi1; 1ofmlab, the probe coated with Ag and conducting metal Nacional de Colombia, Colombia. The effects Univ. of Central Florida, USA. Coherent perfect 2Inst. of Physics, Polish Academy of Sciences, Japan. We demonstrate a highly efficient, oxides. For refractive index sensing, field inside of a periodic modulation on the refractive index absorption is demonstrated in an integrated Poland. We analyze the Raman interaction of stable and tunable dispersive wave emitted by

TiO2, SiO2, SnO2 and ZnO has been studied. of the intercavity zone of a 1D photonic crystal microring resonator laterally coupled to two Stokes and anti-Stokes sidebands with atomic the soliton in a tellurite microstuctured optical with two cavities are studied. It is found that this optical waveguides. Two counterpropagating coherence. The interaction is decomposed fiber. The conversion efficiency is over ~65%. JW2A.14 mechanism allows to manipulate the coupling waves of equal phase and intensity are launched into a set of three-mode quantum operations. Secret Key Rates of QKD Systems Over between cavities. into the microring resonator and eventually they We represent these operations as two-mode JW2A.30 Time-Varying Free-Space Optical Channel, get absorbed. squeezing and beamsplitters. Measuring M2 values for On-Wafer Vertical

Xiaole Sun1, Ivan Djordjevic1, Mark Neifeld1; JW2A.18 Cavity Surface Emitting Lasers, William North1, Wednesday, 21 October 1Univ. of Arizona, USA. We study SKRs of QKD Optical Bistability with Two Serially Integrated JW2A.22 JW2A.26 David Chacko1, Peter Zeidler1, Janice Blane1, systems over time-varying FSO channels under InP-SOAs on a Single Chip, Michael Plascak1, Fiber Optic Gyroscope Based on the Regis- Effect of Hole Transport Organic Layer Kirk Ingold1, Brian Souhan1, James J. Raftery1; strong turbulence. A channel predictive method Jukka Viheriälä2, Mircea Guina2, Azad Siahma- tration of the Spatial Interference Pattern, on Characteristics of Hybrid Photovoltaic 1USA Military Academy, USA. We report on is proposed to improve corresponding SKRs. koun1; 1Rose-Hulman Inst. of Technology, USA; Andrii Sakhno1, Stanislav Tuzhanskyi1; 1Vinnytsia Structure, Antonio Olivares Vargas1; 1Inst Nat M2 measurements taken for on-wafer vertical The results show that the higher SKR can be 2Optoelectronics Research Centre, Tampere National Technical Univ., Ukraine. Design of a Astrofisica Optica Electronica, Mexico. Here we cavity surface emitting lasers (VCSELs). We obtained for better prediction accuracy. Univ. of Technology, Finland. Optical bistability fiber optic gyroscope (FOG) using a photosensi- report on the effect of PEDOT:PSS based p-type measured M2 for oxide-confined VCSELs and has been achieved with two serially integrated tive line to scan interferograms is proposed. The organic layer on characteristics of hybrid solar photonic crystal (PhC) VCSELs of similar lasing JW2A.15 MQW-InP SOAs in reverse-bias on a single suggested FOG design significantly reduces the cells in p-i-n configuration. We demonstrated aperture sizes. Theoretical Study of the Effect of Quantum chip. We demonstrate that switching speed in impact of the following optical noise factors: that isopropanol treatment of the PEDOT:PSS Noise on the Nonlinear Dynamics of a Semi- GHz range is possible and discuss performance zero drift, Rayleigh scattering, etc. is effective for improving the performance JW2A.31 conductor Laser Subject to Two Filter Opti- limitations of the bistable device. characteristics of the device. Study of Two-Dimensional Photonic Crystals cal Feedbacks, Joseph Suelzer1, Rupamanjari JW2A.23 and Photonic Crystals Slabs with Triangular Ghosh2, Awadhesh Prasad3, Gautam Vemuri1; JW2A.19 Vibrational Spectroscopic (FTIR and FT- JW2A.27 Geometry, Erik P. Navarro Baron1, Juan Vasco- 1Indiana Univ.-Purdue Univ. Indianapolis, USA; Molecularly Imprinted Fiber Optic SPR Sen- RAMAN) Studies, HOMO LUMO Analysis, Singular Phonons in a Helically Confined Cano2,3, Herbert Vinck-Posada1; 1Universidad 2Shiv Nadar Univ., India; 3Univ. of Delhi, India. sor for Parathion Methyl Detection, Anand NMR Chemical Shifts and Electrostatic Degenerate Quantum Gas., Alex Okulov1; Nacional de Colombia, Grupo de Óptica e In- We demonstrate that the role of quantum noise M. Shrivastav1, Banshi D. Gupta1; 1Indian Inst. Potential Surface of 2,3-DIBROMOFURAN, 1Russian Academy of Sciences, Russia. The formación Cuántica, Colombia; 2Departamento in a semiconductor laser subject to two filtered of Technology, Delhi, India. Fabrication and Sruti S1, Rasheed M.P.2; 1ECE, St.Joseph’s elementary excitations in ultracold quantum de Física, Universidade Federal de Minas Gerais, feedbacks is to stabilize the laser dynamics such characterization of surface plasmon resonance College of Engineering, India; 2Physics, UD gas within helical optical potential produced Brazil; 3DISSE - INCT de Nanodispositivos Semi- that stronger feedback levels are necessary for based fiber optic sensor for parathion methyl College, India. The FTIR and FT Raman spectra by vortices with high angular momenta are con- condutores, Brazil. In this work, we have done onset of chaos. detection using molecular imprinting have been of 2,3-dibromofuran have been recorded in sidered via linearized Gross-Pitaevskii equation. a study of band structures and eigenmodes of reported. The operating range of the sensor is the region 4000-400 cm-1 and 4000-100 cm-1 The dispersion law is obtained. bidimensional photonic crystal and photonic 10-13M to 10-8 M. respectively. The optimized frequency, the crystals slabs of triangular air holes embedded observed geometry and intensity of vibrational in dielectric media in a hexagonal lattice. bands of the sample were obtained using DFT using 6-311++G(d,p) basis set.

FiO/LS 2015 • 18–22 October 2015 73 Exhibit Hall, Imperial Ballroom

JOINT FiO/LS

JW2A • Joint FiO/LS Poster Session II—Continued

JW2A.32 JW2A.36 JW2A.40 JW2A.44 JW2A.48 Dispersion tailoring of a crystalline whispering Gate in a Nonlinear Subwavelength Dielectric An analytical approach for calculating the Supercontinuum Generation in Fluoride Changing the Degree of Polarization of a gallery mode microcavity for octave-spanning Waveguide Array, Gregorio Mendoza Gon- FWM idler and signal wavelengths in a graded Fibers Pumped By a 2 μm Q-switched Laser, Light Beam by Interferometric Path Infor- Kerr frequency comb, Yosuke Nakagawa1, zalez1, Erwin A. Marti-Panameno1; 1Facultad index multimode optical fiber, Elham Naze- Lai Liu1, Kenshiro Nagasaka1, Yasutake Ohishi1, mation, Mayukh Lahiri1, Armin Hochrainer1, Takumi Kato1, Wataru Yoshiki1, Yuta Mizumoto1, de Ciencias Físico Matemáticas, Benemérita mosadat2, Hamed Pourbeyram1,3, Arash Mafi1,3; Takenobu Suzuki1; 1Toyota Technological Inst., Gabriela Lemos1,2, Radek Lapkiewicz1, Anton Yasuhoro Kakinuma1, Takasumi Tanabe1; 1Keio Univ Autonoma de Puebla, Mexico. In this 1Dept. of Physics & Astronomy, Univ. of New Japan. We experimentally realized mid-infrared Zeilinger1,2; 1VCQ, Faculty of Physics, Univ. of Univ., Japan. We demonstrate the octave span- work we present numerical results regarding Mexico, USA; 2Dept. of Electrical Engineering supercontinuum generation in 8-m-long single Vienna, Austria; 2IQOQI, Austrian Academy of ning optical Kerr frequency comb generation in the possibility to control the output position of and Computer Science, Univ. of Wisconsin- mode fluoride fiber pumped by a 2 μm nano- Sciences, Austria. We present the results of an the dispersion-tailored crystalline whispering the light in nonlinear arrays of subwavelength Milwaukee, USA; 3Center for High Technology second Q-switched fiber laser with bandwidth experiment in which the degree of polarization gallery mode microcavity with a numerical dielectric parallel waveguides. The main result Materials, Univ. of New Mexico, USA. We pres- about 2000 nm. The spectra broadening mecha- of a photon beam emerging from the output of a simulation. We tailor the dispersion by shaping is an AND logic gate due the interaction of two ent a simple yet powerful analytical approach nism is modulation instability. two-path interferometer is controlled by modu- the microcavity into ‘a goblet form.’ input beams. for calculating the four-wave mixing signal and lating the interferometric path information. idler wavelengths in a graded-index multimode JW2A.45 JW2A.33 JW2A.37 optical fiber using the core radius, core-cladding Dual-Beam Optical Injection in Multimode JW2A.49 Wavelength Independency of Orbital Angu- Technical Advantages for Weak-Value Amplifi- index step, and mode group numbers. Vertical-Cavity Surface-Emitting Lasers, Design of Highly Nonlinear Planar Waveguide lar Momentum (OAM) Channels in Spatially cation, Julian Martinez1, Gerardo Viza1, Gabriel Andrew Briggs1, Aashu Jha1, Hong Lin1; 1Bates for Supercontinuum Generation, Ajeet Kumar1, Multiplexed Systems, Syed H. Murshid1, Saud Alves2, Andrew Jordan1, John Howell2; 1Univ. of JW2A.41 College, USA. We have experimentally ex- Than Singh Saini1, Ravindra K. Sinha1; 1Delhi Alanzi1, Bilas Chowdhury1; 1Florida Inst. of Rochester, USA; 2Universidade Federal do Rio Measurement of Polarisability of Liquid using plored dynamics of a multimode vertical-cavity Technological Univ., India. We have designed Technology, USA. The wavelength indepen- de Janeiro, Brazil. We measure beam deflec- Fiber Optic Refractive Index Sensor, Raju M surface-emitting laser subject to two-frequency a rib waveguide structure in highly nonlinear 1 1 dency of OAM is presented showing that the tions of an optical beam by monitoring the dark Esakki Muthu , Ashwin Kumar Kuchibhotla , orthogonal optical injection. Microwave signals As2Se3 glass for mid-IR broadband supercontin- location of spatially multiplexed (SDM) optical port in a Sagnac interferometer (weak-value Kumar Ravi1, Badrinath Vadakkapattu Cantha- are obtained in the double polarization switch- uum generation. Proposed structure possesses channels carrying OAM is independent of the technique) or by focusing the entire beam onto dai1, Vengalrao Pachava2; 1Dept. of Physics, ing and frequency locking regime. nonlinear coefficient as high as 14190 W-1Km-1 wavelength of light. a split detector (standard technique). The weak- Vidya Jyothi Inst. of Technology, India; 2Dept. of with -5.82 ps/nm.km dispersion at 2900 nm. value technique performs favourable in preci- Physics, National Inst. of Technology - Warangal, JW2A.46 JW2A.34 sion when external modulations are present. India. This work demonstrates the measure- Virtual Photon Subtraction with Noisy Source JW2A.50 Dual mode and wavelength-division multi- ment of polarisability of liquid using a simple in Continuous-Variable Quantum Key Distribu- Near-Field Imaging and Spectroscopy of Gold plexing, Tadesse S. Mulugeta1, Mahmoud S. JW2A.38 intensity modulated optical fiber sensor based tion, Zhengyu Li1, Xiang Peng1, Hong Guo1; 1Pe- Nanoantenna, Deirdre Kilbane1, Anna-Kather- Rasras1; 1Masdar Inst. Of Science and Tech- Enhancement of Cross Phase Modulation Via on change in refractive index of the medium king Univ., China. We propose a non-Gaussian ina Mahro1, Pascal Melchior1, Stefan Mathias1, nology, United Arab Emirates. Simultaneous a Resonating Cavity: Semiclassical Descrip- surrounding the fiber. postselection method to emulate the photon Martin Aeschlimann1; 1Physics, Univ. of Kai- mode and wavelength division multiplexing tion, Julian Martinez1, John Howell1; 1Univ. subtraction in continuous-variable quantum serslautern, Germany. Near-field imaging and is proposed using integrated asymmetric di- of Rochester, USA. A classical description of JW2A.42 key distribution which extends the transmis- spectroscopy of ring resonators is performed rectional coupler and multimode interference cavity-based cross phase modulation in a ladder Controlling Second Harmonic Generation sion distance. A method to further improve the with photoemission electron microscopy and a waveguide. Using numerical simulations, the atomic system shows that large single-photon with Counterpropagating Light, Amy L. Lytle1, performance for noisy source is also presented. tuneable femtosecond laser source. Phase- and device exhibits low insertion loss of 1.2dB and detuning offers enhancement proportional Etienne Gagnon1; 1Franklin & Marshall College, time-resolved near-field imaging is achieved a cross-talk of -18dB. to the finesse of the resonator. The approach USA. Experimental and numerical results verify JW2A.47 with an actively stabilized interferometer. has a self-defined far-off-resonance effective the microscopic influence of coun- terpropagat- A Wide-band Slow Light Regime Realized by JW2A.35 cooperativity of unity. ing light on the phase of the nonlinear polariza- Genetic Photonic Crystal Coupled Resonator JW2A.51 Band structure of honeycomb annular pho- tion wave, providing detailed understanding of Waveguides, Yiming Lai1, Momchil Minkov2, A Unique Observation of Power Play in the In- 1 2 3 Wednesday, 21 October Wednesday, tonic crystal slabs, Cristian J. Mora Montano , JW2A.39 an all-optical method for quasi-phase matching. Vincenzo Savona , Romuald Houdré , Antonio stability Induced Supercontinuum Generation Herbert Vinck-Posada1, Juan Vasco-Cano2; Quantum States in the Multipole Approach to Badolato1; 1Dept. of Physics and Astronomy, in Saturable Nonlinear Media, Nithyanandan 1Universidad Nacional de Colombia, Colombia; Maxwell Theory of Light, Michele Marrocco1; JW2A.43 Univ. of Rochester, USA; 2Lab of Theoretical K1; 1Pondicherry Univ., India. The supercon- 2Universidade Federal de Minas Gerais, Brazil. 1ENEA, Italy. Fundamental aspects of quantum Withdrawn. Physics of Nanosystems, Ecole Polytechnique tinuum generation is observed to behave in a We investigated the behavior of the band optics are reproduced within the multipole ap- Federale de Lausanne EPFL, Switzerland; 3Insti- unique in saturable nonlinearity, such that the structure for a honeycomb annular lattice in a proach to Maxwell theory of light. Results are tut de Physique de la Matiere Condensee, Ecole broadband is observed at shortest distance for photonic crystal slab. Through GME structural given for Fock states, vacuum field and photon Polytechnique Federale de Lausanne EPFL, pumping at saturation power, in comparison to parameters that maximize the band gap are statistics of chaotic and coherent light. Switzerland. We present experimental results on all other pump power configurations. characterized. the transmission and the bandstructure of novel coupled resonator optical waveguides (CROWs) in 2D photonic crystals. The CROWs were optimized by genetic algorithm and feature high group index-bandwidth product.

74 FiO/LS 2015 • 18–22 October 2015 Exhibit Hall, Imperial Ballroom

JOINT FiO/LS

JW2A • Joint FiO/LS Poster Session II—Continued

JW2A.52 JW2A.56 JW2A.60 JW2A.65 JW2A.69 Towards Quantum Frequency Conversion, Phase Shift Signal Analysis for Bitapered Five mode groups EDFA for Mode Division The Dual-Tapered Fiber Sensors coated with Pulse Recycling and Weak Value Metrology, 1 2 Fiber Sensors, 1 Nanoparticles, 1 Oscar Jimenez , Yiming Lai , Julio Cesar Garcia Joseph W. Haus , Daniel Jau- Multiplexing, Ankita Gaur1, Vipul Rastogi1; Sean Sung-Yen Juang , Ming- Courtney Byard1, Trent Graham1, Andrew Jor- 1 1 2 1 1 1 2 Melgarejo , Jose J. Sanchez Mondragon , Kartik regui Vazquez , Amit W. Ben Harush Negari , 1Dept. of Physics, Indian Inst. of Technology Hui Chen , Wei-Jie Chen , Nan-Kuang Chen , dan2,3, Paul G. Kwiat1; 1Univ. of Illinois at UC, 3 2 1 2 1 1 Srinivasan , Antonio Badolato ; INAOE, Mexi- Juan M. Sierra Hernandez , Diego W. Garcia Roorkee, India. We propose a few-mode EDFA Hsiang-Chen Chui ; National Cheng Kung USA; 2Physics and Astronomy, Univ. of Roches- 2 3 1 1 1 1 2 co; Univ. of Rochester, USA; CNST, NIST, USA. Mina , Branden King , Karolyn Hansen ; Univ. for amplification of 5 mode groups with less than Univ., Taiwan; National United Univ., Taiwan. ter, USA; 3Center for Coherence and Quantum 2 We developed a high efficiency, low-loss and of Dayton, USA; Electronics, Univ. of Gua- 2.2 dB DMG over C-band using fundamental We reported the design of the dual-tapered Optics, Univ. of Rochester, USA. Recycling high fidelity quantum frequency conversion. The najuato, Mexico. Experimental transmission mode pumping. The annulus core EDF is studied fibers. After depositing the nanoparticles on the undetected photons in a weak measurement can objective was to transduce photons emitted by spectrums from bitapered optical fiber sensor using annulus and extra annulus doping. tapered regions, the localized surface-plasmon substantially improve the signal-to-noise ratio. quantum dots from NIR wavelengths (λ>1.1μm) system provide signal data over a range of resonance may induce the absoprtion spectra. We demonstrate a preliminary improvement by to visible wavelengths (λ<0.70μm), where single- wavelengths. The signals are analyzed using a JW2A.61 This compact sensor can perform real-time a factor of 1.36 over a system with no recycling, photon silicon detectors perform best. Fourier decomposition method to extract the A Two-Level Atom as a Coupler of Cross refractive index sensing. potentially reaching a factor of 4. phase of the complex signal, which shows high Cavities, Julio Cesar Garcia Melgarejo1, Nestor JW2A.53 sensitivity measurements. Lozano-Crisostomo1, Dayana H. Peñalver Vidal2, JW2A.66 JW2A.70 1 Highly Birefringent PCF Based Micro-dis- Ponciano Rodriguez-Montero , Jose J. Sanchez Localized defect modes in a nonresonantly Dimensional Effect on Poling in Lithium placement Sensor Using Tapered Fiber, 1 1 pumped exciton-polariton condensate, JW2A.57 Mondragon ; Inst Nac Astrofisica Optica Niobate, Peter Bullen1, Hsu-Cheng Huang1, 1 1 1 1 Tripartite Mechanical Entanglement in Quan- 2 1 2 Jitendra Dash , Sumit Dass , Rajan Jha ; I.I.T. Electronica, Mexico; Universidad Politécnica Ting-Wei Chen , Wen-Feng Hsieh , Szu-Cheng Richard Osgood1; 1Columbia Univ., USA. We tum Optomechanical Systems, 1 1 1 Bhubaneswar, India. We report a highly bire- Monirul Hasan , de Amozoc, Mexico. We analyze the short and Cheng ; Dept. of Optoelectric Physics, Chinese investigated the dimensional effect on poling 1 1 2 fringent (HiBi) PCF based modal interferometer Matthew J. Woolley ; School of Engineering long-term behavior of the coupling between Culture Univ., Taiwan; Dept. of Photonics and in lithium niobate. By poling samples of varying assisted with a tapered single mode fiber for and Information Technology, Univ. of New two cross cavities due to their interaction with Inst. of Electro-Optical Engineering, National thickness (25–500 µm), we found that thickness micro displacement sensing. The displacement South Wales, Australia. Electromagnetic cavity a two-level atom. Chiao Tung Univ., Taiwan. The localized defect affected both domain broadening and coercive sensitivity of the low cost sensor is found to be modes are useful for the control of macroscopic modes in a nonresonantly pumped polariton field significantly. 0.01 dBm/µm. mechanical oscillators in the quantum regime. In JW2A.62 condensate are investigated. Under an attrac- a system of three mechanical modes coupled to Photonic waveform generator by linear shap- tive defect, a hyperbolic cotangent solution is 1 JW2A.71

ing of four spectral sidebands, Julien Fatome , Wednesday, 21 October JW2A.54 three cavity modes, one can prepare and detect remarkably stable, which doesn’t exist in atomic Withdrawn. Numerical Investigation of Optical Sampling entangled states. Christophe Finot1; 1Universite de Bourgogne, systems and has never been reported before. France. Changing the optical phase difference with CMOS Compatible Waveguides in C- JW2A.72 1 between four spectral sidebands is sufficient to Band Wavelengths, Mahmoud Jazayerifar ; JW2A.58 JW2A.67 Implementation of 3-bit Synchronous Up 1 synthesize various pulse shapes. Experiments Technische Universität Berlin, USA. Optical Enhancement of Wavelength Selectivity of High Performance Binary Blazed Polysilicon Counter using Mach-Zehnder Interferom- Color Holograms Based on Surface Plasmons, at 40 GHz confirm that high quality parabolic, Grating Coupler with a Silicon Nitride Filling sampling based on four wave mixing in silicon eter for Optical Signal Processing, Santosh 1 1 triangular or flat-top temporal intensity profiles Layer, 1 1 and silicon nitride nano-waveguides is numeri- Pavel Hartman , Zuzana Chlebounová , Marek Huai Yi Chen ; Huafan Univ., Taiwan. A Kumar1, Ashish Bisht1, Divya Sharma2, Angela 1 1 can be achieved. cally studied. It is shown that optical sampling Škeren ; Czech Technical Univ. in Prague, Czech binary blazed poly-silicon grating coupler with Amphawan3; 1Dept. of Electronics & Commu- at high rates (~ 100 GHz) with typical straight Republic. Setup for enhancement of wave- a silicon nitride filling layer was proposed. Com- nication Engineering, DIT Univ., India; 2Dept. silicon and silicon nitride waveguides is feasible. length selectivity of transmission holographic JW2A.63 pared with typical binary blazed silicon grating Characterization of Metallic and Dielectric of Electronics & Communication Engineering, filters based on surface plasmon is presented. coupler, it can reduce the coupling angle and 3 Thin Films Using Surface Plasmon Resonance Shoolini Univ., India; InterNetWorks Research JW2A.55 Volume grating is used on the input side of the retain a high fiber coupling efficiency. Lab, School of Computing, Universiti Utara Ma- Two-Photon Amplification In Semiconductor- device for modifying the dispersive properties and the Abelès - Brewster Technique, Yuliana 1 1 laysia, Malaysia. An optical 3-bit synchronous up Superconductor Structures, 1 M. Espinosa-Sánchez ; Centro de Investigacio- Raja Marjieh , Evy- of the element. JW2A.68 counter is demonstrated by using optical T flip 1 1 1 nes en Optica AC, Mexico. We presented the Architectural Improvements of a Novel Em- atar Sabag , Alex Hayat ; Technion, Israel. We flops and logic gates based on electro-optic ef- design and implementation of θ-2θ system which bedded MSM Photodetector, study a new effect of Cooper-pair-based two- JW2A.59 Guillermo Fer- fect of Mach Zehnder Interferometers, which can Second-Harmonic Generation in Highly Dis- can be used in its surface plasmon resonance 1 1 photon gain in semiconductor-superconductor nando Camacho Gonzalez ; INAOE, Mexico. be cascaded for higher bit counting operation. structures, showing broadband enhancement of persive Media: Consequences of Dispersion mode or can be adapted to Abeles-Brewster We introduce a realistic improvement on a re- singly- and fully-stimulated ultrafast two-photon on the Maker Fringes Method, Serge Gauvin1; technique. Using this system it is possible to cent proposed embedded MSM photodetector gain. These effects can have important implica- 1Université de Moncton, Canada. The standard characterize metallic and dielectric thin films. that reduces the back reflected light to 11.04%. tions in optoelectronics and in coherent-control formalism of second-harmonic generation ap- JW2A.64 Therefore carriers creation efficiency increases, applications. pears inadequate in the case of highly dispersive Performance Enhancement of Evanescent- enhancing the sensitivity. This is useful for com- nonlinear materials. The inaccuracy can be as field Based Optical Waveguide Bio-sensors munication optoelectronic systems. high as 30 %. A more general but still simple Using Metal Under-cladding, Ranjeet Dwivedi1, formalism is described and appears preferable Manoj Kumar1, Arun Kumar1; 1Indian Inst. of when the Maker fringes method is used. Technology, Delhi, India. A thin metal under- cladding is shown to significantly enhance the evanescent-field in the cover region of an optical waveguide. Using this, a multimode interference based compact bio-sensor, having very high sensitivity (2500 nm/RIU) is proposed.

FiO/LS 2015 • 18–22 October 2015 75 Exhibit Hall, Imperial Ballroom

JOINT FiO/LS

JW2A • Joint FiO/LS Poster Session II—Continued

JW2A.73 JW2A.76 JW2A.79 JW2A.82 JW2A.84 Implementation of an Optical Binary Cell of Effect of Illumination Length pn the Optical Electronic spectra and lateral photocurrent Optogalvanic spectroscopy measurements Detection of Trace Materials Concomitant Random Access Memory based on Electro- Absorption of Armchair Graphene Nano- in Si/Ge heterostructures with quantum dots of the electric field strength in a hydrogen with Fingerprints Using a Multispectral UV Optic Effect in Mach-Zehnder Interferomete, ribbons, 1,2 1,2 1 , 1 1 Mahbub Alam , Paul Voss ; Georgia Yurii Hyrka ; OSA Student chapter, Ukraine. glow discharge, Verónica González Fernán- Camera, Wenli Huang1, Barry Shoop1, Augus- 1 1 2 Santosh Kumar , Ashish Bisht , Sanddep Inst. of Technology , France; UMI 2958 Georgia The work generalizes the results of studies of dez1, Luis María Fuentes1, Klaus Grützmacher1, tus Fountain III2; 1Electrical Engineering and 1 3 Sharma , Sanjeev Kumar Raghuwanshi , Angela Tech-CNRS, France. We study nanoscale opti- morphological, structural, optical and electrical M.Concepción Pérez1, M. Inmaculada de la Computer Science, US Military Academy, USA; 2 1 Amphawan ; Dept. of Electronics & Communi- cal illumination of semiconducting armchair properties of SiGe/Si nanoheterostructures. It Rosa1; 1Universidad de Valladolid, Spain. A 2Edgewood Chemical Biological Center, Aber- 2 cation Engineering, DIT Univ., India; InterNet- graphene nanoribbons. The optical absorption is shown that the photoconductivity of nano- high-resolution spectroscopy method is used in deen Proving Ground, USA. This paper presents Works Research Lab, School of Computing, undergoes a sharp transition to the long-ribbon heterostructures SiGe/Si in the infrared range order to measure the electric field distribution in the algorithms in detecting trace materials on 3 Universiti Utara Malaysia, Malaysia; Dept. of limit at approximately the de Broglie wavelength depending on the component composition. a hollow cathode glow discharge in hydrogen. fingerprints using a multi-wavelength UV cam- Electronics Engineering, Indian School of Mines, of the valence band electrons. era. We evaluate two competitive approaches: India. An optical binary storage cell of a random JW2A.80 JW2A.83 The error diffusion neural network (EDN) and Development of a Thermal Lens Microscope access memory is demonstrated for Read/Write JW2A.77 Intra-cavity Generation of Laguerre-Gauss orthogonal space projection (OSP). 1 operation based on the electro-optic effect of Zero backscattering by ellipsoidal single for Asphaltene Analysis., David Hernandez , Laser Beams Via a High-loss Circular Mask, nanoparticle, 1 1 1 1 Mach Zehnder Interferometer which can be ar- Reena Dalal , Preeti Rani , Yogita Gustavo Martínez , Marco Ferreira , Vincent Katelyn Hinman 1, Jessica P. Young1; 1Arkansas JW2A.85 1 1 1 1 2 1 rayed to form optical memory units. Kalra , Ravindra K. Sinha ; Delhi Technological Piscitelli , Lorenzo Echevarria ; Universidad Tech Univ. , USA. Generation of Laguerre-Gauss All optical mode controllable Er-doped fiber Univ., India. We report zero backscattering by Central de Venezuela, Venezuela, Bolivarian laser beams via a null within the laser cavity is random laser with distributed Bragg gratings, 2 JW2A.74 ellipsoidal nanoparticles. Using generalized Republic of; Universidad Simon Bolivar, Venezu- demonstrated. The null is created by a high-loss Wei Li Zhang1, Rui Ma1, Chenghao Tang1, Yun- Protein Hydrogel Immobilization via Mul- Kerker’s (GK) condition, we have analyzed light ela, Bolivarian Republic of. This paper shows the mask. The relationship between mode order jiang Rao1, Xiaopei Zeng1, Zinan Wang1, Yuan tiphoton Plasmonic Lithography (MPPL), is scattered in the forward direction for the development of a thermal lens microscope to and mask to beam diameter ratio is discussed. Gong1; 1Univ. of Electronic Science and Technol- 1 1 Bharath Bangalore Rajeeva , Mingsong Wang , particular wavelength of 908nm in our design, measure the response of thermal lens in different ogy of China, China. An all-optical method to 1 1 1 Linhan Lin , Yuebing Zheng ; The Univ. of Texas suppressing the backscattering completely. Venezuelan asphaltene solutions. control lasing modes of Er-doped-fiber random at Austin, USA. We regioselectively localize lasers is proposed. Local gain distribution in the protein hydrogels over the hot spots of single JW2A.78 JW2A.81 laser is perturbed by lateral injecting control A Digital-like On-Chip Photonics Sensor, Dual-wavelength tunable Er/Yb double-clad gold nanotriangle using MPPL, and track the light, and active coherent random modes selec- 1 1 1 doped Q-switched fiber laser, immobilization using dark-field scattering Osama AL Mrayat , Mahmoud S. Rasras ; Mas- Manuel Duran- tion is realized. spectroscopy. This technique can be exploited dar Inst. of Science and Technolo, United Arab Sanchez1, Ricardo . Álvarez-Tamayo1, Olivier to study biological interactions in the nanoscale. Emirates. We propose compact photonics sen- Pottiez2, Baldemar Ibarra-Escamilla1, Georgina sor with low limit of detection (LOD) and large Beltrán-Pérez3, Yazmin E. Bracamontes-Ro- JW2A.75 dynamic range. It integrates cascaded-coupled dríguez3, Evgeny A. Kuzin1; 1Optics, INAOE, Simplified Bond-Hyperpolarizability Model micro ring resonators with Echelle Grating. Em- Mexico; 2Optics, CIO, Mexico; 3FCFM, BUAP, Explanation of the Electric-Field-Induced ploying a thermo-optic tuning, LOD of 26x10-6 Mexico. A tunable dual-wavelength Q-switched Second-Harmonic Generation for Different RIU can be achieved. ring cavity fiber laser with Er/Yb double-clad Facets in Si, Adalberto Alejo-Molina1, Jesús fiber is presented. Laser simultaneous wave- Escobedo-Alatorre1, Kurt Hingerl2, Edvaart lengths tuning is performed by fiber Bragg Sethaziz Jatirian-Foltides 1; 1CIICAp, UAEM, gratings compression/strain. Maximal laser lines Mexico; 2Center for Surface and Nanoanalyt- separation is ~4 nm. ics, Johannes Kepler Univ., Austria. In this work

Wednesday, 21 October Wednesday, we discuss the respond from different facets of the Si crystal for the nonlinear phenomenon Electric-Field-Induced Second-Harmonic (EFISH) Generation. The technique to describe it is Simplified Bond-Hyperpolarizability Model.

76 FiO/LS 2015 • 18–22 October 2015 NOTES ______

______Wednesday, 21 October ______

FiO/LS 2015 • 18–22 October 2015 77 Wednesday, 21 October of singularity. sults may be useful in understanding evolution re- Presentinterferometer. crystal birefringent using singularity polarization into singularity phase of transformation study to performed are studies simulation and Experimental pan. 78 Media, by InhomogeneousAbsorptioninRandom TransmissionLight Channels of Modification FW3A.3 •11:30 spacers, dielectric tunable with ers Lithography-free visible metasurface absorb- FW3A.2 •11:15 1 Interferometer, ization SingularitiesUsingBirefringent Crystal Experimental and Simulation Study of Polar FW3A.1 •11:00 Pennsylvania StateUniv., USA Presider: IgorJovanovic; FW3A • General Optical Sciences I 11:00–12:30 by low-costlithography-free fabrications. respectively, which was experimentally validated mechanism, interference and resonance netic mag- on based metasurfaces absorbing super dependent peak shift in coupled and decoupled York at Buffalo, USA. attenuation comparedabsorption. touniform less experience and regions absorbing vent media. The high transmission channels circum- random in light of eigenchannels transmission fects of spatially inhomogeneous absorption on Physics, Yale Univ., USA. We investigate the ef- a Zhang Nan Zeng The Univ. of Electro-Communications, Ja- 1 Qaqag Gan Qiaoqiang , eg at Liew Fatt Seng 1 Dnxn Ji Dengxin , California Sunil Vyas Sunil We differentiate the spacer- 1 1 ; 1 Hi Cao Hui , Hoi Song Haomin , 1 State Univ. ofNew 1 , Yoko Miyamoto Yoko , 1 ; 1 Kai Liu Kai Applied 1 Xie , 1 1 - , ; Switches, Photonic Silicon Scalable MEMS-Enabled FW3B.2 •11:30 Transport Network, Photonics IntegratedCircuits forAccessand FW3B.1 •11:00 Columbia Univ., USA Presider: Keren Bergman; Networks I Communications: Datacentersand FW3B •IntegratedPhotonicsfor 11:00–12:30 able thanotherswitches. architecture, which is fundamentally more scal- crossbar passive on based are switches These mechanisms. switching MEMS efficient with photonics silicon combining by realized been have 64x64) and (50x50 switches photonic integrated Large-scale Berkeley,fornia USA. and transportnetwork. access enable to platform, silicon compatible semiconductor as well as the emerging CMOS- compound the utilizing technologies, circuit integrated photonic the in advances recent Lucent BellLabs,USA. In this talk, we will review agon Han Sangyoon ig . Wu C. Ming 1 Nes Quack Niels , Valley Young-Kai Chen Invited Invited 1 Te on Seok Joon Tae , 1

; 1 Univ. ofCali- 1 ; 1 Alcatel- FiO/LS 2015 1 , Sazonkin laser has low repetition rate deviation at 1 - 10 with 11.2 mW average output power. nm 1560 Similariton at obtained were pulses self-similar dechirped fs 92.6 Stable of Sciences,Russia. Lebedev PhysicalInst.oftheRussianAcademy Zurich, Switzerland Presider: Juerg Leuthold;ETH Generation andApplications FW3C •Frequency Comb 11:00–12:30 2 1 for Frequency Metrology, Vladimir A. Lazarev brid Mode-locked ultra-short pulse Ring laser Comb characterization of Erbium All-fiber Hy- FW3C.2 •11:30 tion, Chip Using Soliton Induced Cherenkov Radia- Broadband Frequency Combs on a Photonic FW3C.1 •11:00 Alexander Krylov development ofthestabilizedcomb. further for promising it reliability,makes which s, a single comb linewidth of 110 kHz and high Valery Karasik 2/3 ofanoctavefrom asingleCWlaser. noise, numerically predictable combs that span phase deterministically,low create to used be can radiation Cherenkov induced soliton with along process, This microresonator. SiN a in recent progress in generating temporal review solitons will I integration. chipscale and line comb per power large rates, repetition (GHz) large to access allow that combs, frequency optical based microresonator review will talk This nique FederaledeLausanne,Switzerland. Bauman MoscowStateTechnical Univ., Russia; Fiber Optics Research Centre, Russia; ois . Kippenberg J. Tobias 1 Aee Pnev Alexey , 1 , Alexey Kireev • 2 Crystal , Dmitriy Dvoretskiy FiO Invited 18–22 October 2015 1 Diry Shelestov Dmitriy , 1 ; 3 1 , Mikhail Gubin

Ecole Polytech- 1 , Stanislav 3 P.N. 1 3 1 3 , ; ,

Australia; e.g. intheBosonSamplingproblem. implementations, large-scale for implications the and interactions, nonlinear and detectors, technology,photon in sources,vances notably simulation and emulation. We discuss recent ad- examine the state-of-play in photonic quantum Communication Technology, Australia. Here we Systems &Centre forQuantumComputingand Oxford, UK Presider: IanWalmsley; Univ. of Technologies I Measurement and FW3D •QuantumOptical 11:00–12:30 2 G. Raymer Framework for Quantum Information, Complete a as Modes Temporal Photon FW3D.2 •11:30 White G. Andrew Emulation, & Simulation Quantum Photonic FW3D.1 •11:00 technology. current with fulfilled be characterization–can and detection their and TMs, of manipulation efficient and targeted the states, resource of requirements–generation three The modes. temporal single-photon of field-orthogonality employs that framework information quantum hitn Silberhorn Christine We propose a propose Univ.We Germany. ofPaderborn, 1 2 , Benjamin Brecht Centre forEngineered Quantum Gold 1,2 2 ; ; Invited 1 1 Univ. ofOregon, USA; Univ. of Queensland, 2 , Dileep V. Reddy

Michael Michael 1 , USA; filter arrays with spatially varying characteristics. other wavelengths in the infrared and to create terized. The design approach can be adapted to µm have been designed, fabricated and charac- polarization filters for wavelengths around 1.55 sen FW3E.3 •11:30 FW3E.2 •11:15 Wavelengths, Infrared for Array Polarizer Nanostructured FW3E.1 •11:00 Central Florida,CREOL,USA Presider: EdrisSarailou,Univ. of Structures FW3E •NovelIntegratedOptical 11:00–12:30 1 Resonator, Coherent PerfectAbsorption inaSiliconRing Integrated Circuits, Rami A. Wahsheh monic Air-Slot Coupler Toward Dense Optical Nanoplas- a of Investigation Experimental 1 son Ackert extinction of8.12dB. an with ring-resonator photonic silicon a in achieved is CPA,modulation phase-controlled effectsof the leveraging By device. integrated an in (CPA) absorption perfect coherent of demonstration experimental first the present We Engineering, Univ. ofPennsylvania,USA. ai L Dickensheets L. David Chen Univ. for Technology, Jordan; Univ., Canada; Lu and 40%,respectively. experimental results at 1550 nm are about 85% and theoretical The coupler. air-slot an using waveguide plasmonic a into waveguide silicon a from coupled be can light that demonstrate Inst. ofTechnology, we Experimentally, USA. Dept. ofElectricalEngineering,ColumbiaUniv., Montana State Univ., USA. 2 Msaa Abushagur Mustafa , 1 , Benjamin Moon Benjamin , 1 2 , Keren BergmanKeren , Dept. ofEngineeringPhysics,McMaster 2 , Andrew Knights ao M Rothenberg M. Jacob Carol Baumbauer 3 : Dept. of Electrical and Systems : Dept.ofElectricalandSystems Empire 1 , Marquette Stevenson Marquette , 1 1 , Richard Osgood Richard , Wtr Nakagawa Wataru , 2 ; 1 2 Princess Sumaya , Richard Grote Nanostructured 1 , Sean Nicolay- 2 1 Rochester Christine , 1 , Zhaolin 1 , Ja- , 1,3 1 1 ; ; , Wednesday, 21 October - 79 Demetri Demetri Piedmont Invited Invited Dept. of Electrical and Systems Engineer 1 ; 1 Ecole Polytechnique Federale de Lausanne, Swit- Federale de Lausanne, Polytechnique Ecole 1 ; 1 in St. Louis, USA. Univ. Engineered ing, Washington point opti- enable processing image modern and functions spread orientation and position 3D the measure to microscopes cal of single molecules with nanoscale precision and accuracy. Recent developments in methodologies and applications discussed. are Psaltis • 11:30 LW3I.2 Accurate 3D Nanoscale Imaging of Dipole-like Emitters, Lew D. Matthew 11:00–12:30 II Optical Imaging • Computational LW3I WilliamPresider: Atlantic Rhodes; Florida USA Univ., • 11:00 LW3I.1 A Learning Approach to Optical Tomography, zerland. We form the 3D image of an object by minimizing simulating network a of prediction the between difference the the object and the of experi- light through the propagation mental measurement. LS Max 1 , Amir ; 1 1 Univ. of California Univ. 1 ; 1 , John Travers 1 Xiang Zhang , Nicolas Joly 1 Invited Invited Hillsborough , Xin Jiang 1 Germany. Light, of Science the for Inst. Planck PCFs have been revolutionizing VUV and DUV light sources. He-filled light broad-band and narrow produced has PCF hollow-core in the VUV (down to 113 nm), and solid-core ZBLAN PCF a down to 200 nm. supercontinuum LW3H.1 • 11:00 • LW3H.1 Bright Tunable Photonic-Crystal-Fibre Light Sources in Ultraviolet, Philip S. the Deep and Vacuum Russell • 11:30 LW3H.2 Title to be Determined, 11:00–12:45 • Novel Photonics LW3H USA Jesse Wilson,Presider: Univ., Duke Berkeley, USA. Abstract not available. Berkeley, Abdolvand 18–22 October 2015 - • Joseph Univ. of Colorado at Boulder, Boulder, at Colorado of Univ. FiO/LS 2015 1 ; 1 Invited Sacramento Stanford Univ., USA. Univ., Stanford J.W. Goddman’s first 1 , Hayan Wang Hayan , 1 ; 1 tiplexing designs are implemented using scattering theory space. Fourier three-dimensional in algorithms projection and USA. Volumetric computer-generated holograms enable phase and amplitude the of control multiplexed independent mul phase-shift and wavelength Angular, field. optical the of meeting with Adolf will be reviewed and he will discuss a few a discuss will he and reviewed be will Adolf with meeting him. to important especially were that papers many Adolf’s of FW3G.2 • 11:30 Multiplexing Computer-Generated Volume Holograms, Piestun . Rafael 11:00–12:30 Honoring Adolf FW3G • Symposium Lohmann I US Army Joseph Mait; Research Presider: Lab, USA FW3G.1 • 11:00 Adolf Lohmann and his Contributions to Optics, W. W. Goodman , , 1 1 FiO Univ Lille 1 , Berenice 2 ; 2 , Flavie Braud 1 , Jesus G Escalera- G Jesus , 2 , Alexandre Kudlinski 1 , Stefano Trillo 1 Dipartimento di Ingegneria, 2 Fisica, Universidad Autonoma de 2 Arnaud Mussot Invited , Sergio Mendoza-Vazquez Glen Ellen Glen 2,1 , Abdelkrim Bendahmane , Orlando Diaz-Hernadez Orlando , 1 , Shaofei Wang 2 1 INAOE, Mexico; 1 ; 2 Santos We investigate the polarization of solitons of polarization the investigate We Chiapas, Mexico. ns-long by pumping at process breakup pulse the by formed introduced birefringence circular with fiber standard in pulses by fiber twist, the fiber twist mitigates the random birefringence. linear Italy. di Ferrara,, Università We investigate theoretically and experimentally basic nonlinear effects such as soliton propagation or modulation instability in what we called topographic optical fibers, i.e. fibers which parameters are longitudinally modulated. Matteo Conforti Francois Copie Posada-Ramirez 1 Laboratoire PhLAM, France; 1 Laboratoire FW3F.2 • 11:30 FW3F.2 - of the solitons in the supercon Polarization properties pulses, ns by pumped fiber twisted in generation tinuum Ariel Flores-Rosas Topographic Optical Fibers : New Perspectives in Nonlin- in Perspectives New : Fibers Optical Topographic Optics, Guided ear FW3F.1 • 11:00 • 11:00 FW3F.1 11:00–12:30 and Light Generation FW3F • Novel in Fiber Devices I Manipulation Universite de Julien Fatome; Presider: France Bourgogne, Wednesday, 21 October or horizontally. vertically scanned is plane Fourier biphoton’s the if changes correlation spatial of type the how shows that down-conversion parametric spontaneous type-II non-collinear on based experiment an report We Andes, Colombia. in theopticalresponse. resolved measurements reveal a high anisotropy terized by multiple relaxation times. Polarization charac- absorption pump-induced subsequent data exhibits fast transient photobleaching and The phosphorus. black multi-layer for spectra Maryland, USA. We report transient transmission of Electrical&ComputerEngineering,Univ. of metacrystals. photonic staggered by achieved is insulator topological photonic dispersion-immune tion, edge states in metacrystal waveguide. In addi- the spin-filtered feature and robust transport of demonstrate experimentally We Univ., China. mad M. Jadidi M. mad 80 Calderon Omar Correlations intheBiphoton’s FourierPlane, Spatial of Types Different of Observation FW3A.6 •12:15 of Black Phosphorus, Layers Thin on Spectroscopy Resolved Time FW3A.5 •12:00 2 logical Insulators,Xiao-Dong Chen TopoPhotonic in Light of Flow the Molding - FW3A.4 •11:45 Sciences I—Continued FW3A •GeneralOptical Applied Physics,Univ. ofMaryland,USA; bona Dong Mittendorff School ofPhysicsandEngineering,SunYat-Sen 12:30–13:30 1 , Alejandra Valencia 1,2 ; 1 Univ. Berkeley, ofCalifornia USA; 1 ; 1 Inst. forResearch inElectronics & California 1,2 1 , Jefferson Florez Jefferson , , Thomas E. Murphy E. Thomas , 13:00–14:30 12:30–14:00 Ryan Ryan J. Suess Lunch Break (onyourown)andUnopposedExhibitOnlyTime, Exhibit Hall,ImperialBallroom 1 ; 1 Universidad delos 1 - Villa Juan , 1,2 2 , Jian-Wen 1,2 , Moham- Meet the Editors of the APS Journals, ExhibitHall,Imperial BallroomMeet theEditors oftheAPSJournals, , Martin , VIP IndustryLeadersNetworking Event,ClubRegent,LobbyLevel 2 Dept. Dept. consumption. power and reach, transmission structure, cost technologies based on their application space, two the comparing by question this answer to attempt We center? data the in VCSELs MM replace photonics Si Will Corporation, USA. Daniel Mahgerefteh Comparison, Techno-economical A Center: Multimode VCSELs vs Si Photonics in the Data FW3B.3 •12:00 Networks I—Continued Communications: Datacentersand FW3B •IntegratedPhotonicsfor Valley 1 , Craig Thompson Invited

1 ; 1 Finisar Finisar FiO/LS 2015 Univ., China; tronic Engineering,Beihang andInformation can begenerated. polarization orthogonal nearly and rates tion repeti- different slightly of trains pulse soliton dual with emissions dual-comb coherent that relatively large birefringence, it is demonstrated with cavity fiber mode-locked passively a on of GeospatialTechnology, Based China. FW3C.3 •11:45 ai Ataie cal Frequency Comb,Vahid Fast RandomEventDetectionUsingOpti- FW3C.4 •12:00 Zhao Xin Cavity, Ring Birefringent a on based Laser Fiber Mode-locked Dual-Comb Coherent introduced receiver architecture. in detection sensitivity is reported for the newly improvement significant A discussed. is signal SNR low and high-speed non-repetitive the of detection and decomposition spectral in combs frequency parametric optical tunable of Application SanDiego,USA. California, Guoqing Hu Guoqing Continued Generation andApplications— FW3C •Frequency Comb 1 Zeg Gong Zheng , 1 , Zheng Zheng Zheng , 2 Collaborative InnovationCenter • Crystal FiO Invited 18–22 October 2015 1 Y Liu Ya , 1,2 ;

1 School ofElec- 1 Yl Yang Yuli , 1 ; 1 Univ. of 1 , resolution. subwavelength with nanowire the of response the resolve to dependence polarization the exploit We nanowires. NbN superconducting in mechanism detection photon the as entry vortex assisted photon identify to tomography detector quantum use We Zurich, Switzerland. Avancats, Spain; Physics, Univ. of Freiburg, Germany; Theoretical Physics,Univ. ofCologne,Germany; Markiewicz 1 FW3D.3 •11:45 tum Metrology despite Noise, Beating the Standard Quantum Limit in Quan- FW3D.5 •12:15 S.R Atoms and an Optical Nanofiber, Rydberg Cold on based Networks Quantum FW3D.4 •12:00 Detectors, Photon Single Nanowire NbN of Response the in Variations Subwavelength Resolving 6 5 Univ. ofTechnology, Netherlands; Jonatan Bohr Brask Bohr Jonatan Gaudio Rosalinda Rafal Demkowicz-Dobrzanski Rydberg atomsnexttothedielectricsurface. Rydberg of formation the demonstrate to designed are trapped around an optical nanofiber. Initial tests atoms Rydberg on based network quantum a recent experimental progress towards realizing Inst of Science & technology, Japan. Physics, Univ. of Geneva, Switzerland; van Exter of PhotonicSciences,Spain; ilig n improved an yielding consequently precision,measurement of ment model allowing for limitless quantum enhance- uncorrelated-noise first the to led has which ofnoiseinquantummetrology, impact the theory quantum information program analysing ences, Univ. ofNottingham,UK. We review the experimental proposal. Technologies I—Continued Measurement and FW3D •QuantumOptical ICREA -InstitucioCatalanadeRecerca i Estudis Universiteit Leiden,Netherlands; Faculty ofPhysics,Univ. ofWarsaw, Poland; 1 , Tridib, Ray 1 , Andrea Fiore 5 Jelmer J. Renema J. Jelmer Atno Acin Antonio , 1 , Sile Nic Chormaic Nic Sile , 7 School ofMathematicalSci- 2 Gold Ades Engel Andreas , 2 , Rafael Chaves Rafael ,

atomic magnetometry 2 , Michiel J. de Dood 2 1,6 Inst. forTheoretical 5 Mdln Guta Madalin , ; 1 1 Jan Kolodynski , Qiang Wang Qiang , ICFO - The Inst. ICFO -TheInst. Krishnapriya Krishnapriya 1 2 We discuss 3 ; Eindhoven Mri P Martin , 3,4 1 3 Okinawa 4 , Marcin , Univ. of Inst. for 3 Inst. of 7 1 1 1 , ; , ,

T. Wade FW3E.6 •12:15 FW3E.5 •12:00 FW3E.4 •11:45 ebn . Bakker M. Field Hotspots,Reuben Silicon NanoDimers for Magnetic and Electric Resonators, Micro-ring Nonlinear Magnetic Scattering from Polymer ficiency, Ef- Enhanced for Junction Interdigitatedp-n Matched a Waveon Standing Operation tial Par and Standing-wave in Modulators Ring geometries are proposed. designs.Full-standing-wave and grating assisted traveling-wave than speed and efficiency tion field nodes/antinodes, allowing higher modula- interdigitated p-n junctions matched to optical with operation (quasi)standing-wave in lators at Boulder, USA. We propose microring - modu Luk’yanchuk Inst., Singapore; zaga Permyakov aó Paniagua-Domínguez Ramón Zhang Cheng . DreyerF. Rand hotspots nearsiliconnanodimers. field magnetic and electric of existence the numerically, and experimentally demonstrate, We near-field. the in light of control ultimate for interest of are index refractive high a with nanostructures Dielectric ics Centre, Australia. nonlinearity. magneto-electric order second a to due tions interac- magnetic intense of evidence shows ing from a high-Q polymer micro-ring resonator Structures—Continued FW3E •NovelIntegratedOptical 1 1 Atn Samusev Anton , ; 1 Univ. of Michigan,USA. Optical scatter 1 , Milos A. Popovic Fabio Pavanello 1 Qacu Li Qiaochu , 2 Y Fn Yu Feng Ye , 1 , Arseniy Kuznetsov 1 , Alexander A. Fisher A. Alexander , 2 Empire ITMO, Russia; 1 2 LJy Guo L.Jay , Yr Kivshar Yuri , 1 1 , Xiaoge Zeng Dir Markovich Dmitry , yn Chakrabarty Ayan 1 ; 1 Univ. ofColorado 1 Load Gon- Leonard , 3 1 Nonlinear Phys- ; 1 Data Storage Data Storage 1 1 , Elizabeth , Stephen , 1 2,3 Dmitry , 1 Boris , , Mark 1 2 - - , , Wednesday, 21 October - 81 Andrew Andrew Piedmont Univ. of Sheffield, UK. of Sheffield, Ptychography Univ. is Invited 1 ; 1 , Peng Li 1 an experimentally simple form of phase with retrieval a sur prisingly flexible dataset. Here I describe how 3D imaging, be can errors positioning and data missing coherence, partial accommodated within the ptychographic scheme. LW3I.3 • 12:00 LW3I.3 Set, Data Ptychographic Flexible Remarkably The Maiden LW3I • Computational Optical Imaging II— Optical Imaging • Computational LW3I Continued LS , 2 Gregory Gregory V. Hart- , Zhanghai Chen 2 Dept. of Chemistry 1 ; 1 Shanghai Inst. of Technical Physics Shanghai Inst. of Technical 1 , Hongxing Dong ; 1 1 Invited , Mary S. Devadas Hillsborough 1 , Wei , Lu Wei 1 Liaoxin Sun Fudan Univ., China. Fudan Univ., A tunable polariton lasing is 2 , Paul Johns 1 , China; Surface Plasmon Surface Dame, USA. of Notre Univ. and Biochemistry, at propagate that waves electromagnetic are (SPPs) Polaritons absorption transient paper this In interfaces. metal-dielectric microscopy is used to image SPPs in gold nanowires, and study how they couple between nanostructures. Xuechu Shen realized realized in a single ZnO tapered whispering gallery (WG) microcavity at room temperature. A tunable range of 100 meV and a minimum lasing threshold appeared at positive observed. detuning of 42 meV are LW3H.3 • 12:00 LW3H.3 Imaging Surface Plasmon Polaritons in Nanostructures with Transient Absorption Microscopy, • 12:30 LW3H.4 Polariton Tunable Lasing in ZnO Whispering Gallery Mi- crocavity, land LW3H • Novel Photonics—Continued LW3H 18–22 October 2015 • Tel-Aviv Tel-Aviv 1 , Shlomo 1 ; 1 SUSS MicroOptics SUSS MicroOptics 1 ; , Ady Arie 1 1 FiO/LS 2015 , Michael A. Golub 1 VIP Industry Leaders Networking Event, Club Regent, Lobby Level Meet the Editors of the APS Journals, Exhibit Hall, Imperial Ballroom , Anat Leshem 1 Sacramento Shoam Shwartz Roy Shiloh Physical Electronics, Tel Aviv Univ., Israel. Univ., Aviv We Tel Physical Electronics, 1 Lunch Break (on your own) and Unopposed Exhibit Only Time, Exhibit Hall, Imperial Ballroom Lunch Break ; 1 12:30–14:00 13:00–14:30 SA, Switzerland. Photolithography enabled semiconductor below microchips on features minimum the shrink to industry 20 Planar nanometers micro-optical today. elements play a high-end within metrology and shaping light for role decisive lithography systems. projection Computer-generated holograms can shape the shape can holograms Computer-generated Israel. Univ., spatial domain, but also the spectral domain. We and theory in optics, shape nonlinear quadratic using spectra light wave-related other to extended readily are These experiment. fields, such as plasmonics. FW3G.5 • 12:15 Planar Micro-Optics: Key for Enabling Semi- Technology Reinhard Voelkel conductor Industry, FW3G.4 • 12:00 Spectral shaping using nonlinear computer-generated holograms, FW3G.3 • 11:45 in Spatial Division Computer Generated Hologram Multiplexing, report report here on generic space-division multiplexing and demultiplexing units for high-throughput transmission in multimode fibers, with the aid of computer generated hologram spatial filters. Ruschin FW3G • Symposium Honoring Adolf Honoring Adolf FW3G • Symposium Lohmann I—Continued FiO 12:30–13:30 Boston , Minas 1 1 , Ruben ; , Armine 1 1 1,2 , Garegin Yesayan Newport Technology & Ap- Newport Technology 1 3 Yerevan State Univ., Armenia; State Univ., Yerevan , Aram Zeytunyan 1 Levon K. Mouradian 1 ; 4 Dept. Photonique, XLIM Institut de Dept. Photonique, XLIM Institut 4 Invited Glen Ellen Glen , Hrach Toneyan , Aghavni Kutuzyuan 1 1 , Alain Barthelemy Alain , 3 Univ. of California,of Irvine, USA; Univ. Grigoryan Zadoyan The nonlinear process of the pulse spec- pulse the of process nonlinear France. The Recherche, dispersion, anomalous with medium a in self-compression tral the spectral analogue of the soliton effect compression, is and observation experimental our of basis the on introduced detailed numerical analysis. FW3F.4 • 12:00 FW3F.4 Ramachandran Siddharth in Fiber, Optical Vortices 2 FW3F.3 • 11:45 FW3F.3 Compression: Soliton Effect Spectral Analogue of the Spectral Self-Compression, FW3F • Novel Light Generation and Light Generation FW3F • Novel in Fiber Devices I—Continued Manipulation plications Center, USA; plications Center, Univ., USA. Univ., Long lived orbital class angular a by momentum enabled been (OAM) recently have fibers in light of states of so-called ring-fiber designs. We review their potential applications in areas ranging from telecommunications to nanoscale microscopy. Sukiasyan Wednesday, 21 October and infrared light. capability of modifying the polarization the of visible possess to shown is near-infrared, the in used in many filtering and imaging applications Moncton, Canada. 82 2 tive Materials, Partha P. Banerjee Holographic SurfaceGratingsinPhotorefrac- FW4A.3 •14:00 Molecules, in Small Donor-Acceptor Substituted Organic Absorption Two-Photon Efficient Extremely FW4A.2 •13:45 Dioxide, Vanadium with trol Con- Polarization Infrared Near and Visible FW4A.1 •13:30 Germany Planck-Institute furQuantenoptik, Presider: LaszloVeisz, Max- Sciences II FW4A •GeneralOptical 13:30–15:30 Fabry-Perot effect from diffracted orders. the eliminate numerically to used is technique novel A beam. reading incident an of orders diffractionreflected analyzing by proved is rial mate- photorefractive a on gratings surface of Thibodeau Ujitha Abeywickrema Ujitha Alexandre Doucet Alexandre fundamental quantumlimit comparedwhen the also to and molecules the of size the to compared when large tremely ex- become can molecules small substituted donor-acceptor optimized of section cross absorption two-photon The high Univ., USA. WPAFB, MaterialsDirectorate, USA. Existence 1 Ivan Biaggio Ivan Ta Vn Son Vinh Tran , California Vanadium dioxide, a material 1 , Patrick Cormier Patrick , 1 ; 1 Univ. ofDayton,USA; 1 , Marten Beels Marten , 1 ; 1 1 Universite de li Hache Alain , Dean Evans 1 , Jacques , 1 ; 1 Le- 1 2 , , for quantumphotonics. structures nano-photonic and scaling system for integration electro-optic photonics, silicon addressing group, photonics the of manager components. Since 2004, Bert Jan Offrein is the optical integrated adaptive art the of state ing realis - group technology device photonic the lead to Zurich – Research IBM to returned he engineer for 980 nm pump yield lasers. One and year later marketing technical a as Uniphase JDS to changed he 1998, In networks. DWDM for devices optical integrated establishing Zurich - Research IBM joined then He 1994. in integrated optics from the University of Twente Bert Jan Offrein received his Ph.D. in nonlinear 1 and the Need for Integration, Optical Interconnects forComputingSystems FW4B.1 •13:30 Lucent BellLabs,USA Presider: Young-Kai Chen;Alcatel- Networks II Communications: Datacentersand FW4B •IntegratedPhotonicsfor 13:30–15:30 width whilereducing cost. band- increase that required are approaches integration electro-optical new performance, system scale to continue To systems. puting role in the intra-system communication in com- important increasingly an play interconnects Folkert Horst Folkert Jonas Weiss Optical IBM Research GmbH,Switzerland. 1 , Antonio La Porta 1 , Norbert Meier Norbert , Valley Tutorial 1 1

, Roger Dangel , Daneil Jubin Daneil , Bert J. Offrein FiO/LS 2015 1 1 1 ; , , Sinclair of Standards and Technology, USA; key requirements. tions for which high accuracy and precision are applica- on focusing cycles, hyrdrological and Spectroscopy for the study of carbon, nitrogen, Down Ring Cavity of applications emerging Colorado atBoulder, USA; USA Presider: IanCoddington;NIST, Climate Remote Sensingforthe FW4C •SymposiumonOptical 13:30–15:00 Rella W. troscopy intheEarthSciences, Chris Spec- Down Ring Cavity of Applications FW4C.2 •14:00 Rieker Lasers, Comb Frequency with Precision Atmospheric Trace Gas Monitoring FW4C.1 •13:30 calibration. absorption-model-based and stability, high uncertainty,systematic low its to owing gases, trace of monitoring kilometer-scaleopen-path comb spectroscopy is a promising technique for sensitivity, drift-free instruments. Dual frequency high requires gases trace of monitoring rate Accu- and AtmosphericAdministration,USA. Sweeney Colm Schroeder Paul dington 1 ; 2,1 1 1 Picarro, Inc.,USA. We present new and 1 Ete Baumann Esther , Fbii Giorgetta Fabrizio , , Nathan R. Newbury R. Nathan , 3 • 2 Ptr P. Tans Peter , Jnta Kofler Jonathan , Crystal FiO Invited Invited 18–22 October 2015 1 Gbile Petron Gabrielle , 1 3 Wlim Swann William , National Oceanic 1

; 3 1 In . Cod- R. Ian , National Inst. rgr B. Gregory 3 Lua C. Laura , 2 Univ. of 3 1 , , USA; Smith Olson Nazionale diOttica-CNR,Italy Presider: Marco Bellini;Istituto Technologies II Measurement and FW4D •QuantumOptical 13:30–15:30 Single Photons,Keith Motes with Metrology Quantum Optical Linear FW4D.2 •14:00 2 Technologies, Quantum for Systems Photonic Integrated FW4D.1 •13:30 quantum metrology. practical to forward pathway potential a ing providlimit, - shotnoise the beating of capable is photodetection) single-mode utilizing and inputs single-photon only with (fed ferometer inter linear-optical passive, a that show We Technology, Univ. ofTechnology, Australia. vn Rabeaux Evan ee Humphreys Peter Australia; of Physics and Astronomy, Macquarie Univ., to quantumsimulationandmeasurement. to engineer such systems, with direct application tegrated photonics provides as effective means cannot be studied using classical simulation. In- that phenomena new reveal systems quantum Astronomy, LouisianaStateUniv., USA; Complex ORC, Univ. ofSouthampton,UK. 2 4 3 Jms Gates James , Faculty ofEngineering&Information Ptr Rohde Peter , 3 Dept. of Physics, BoiseStateUniv., 1 Ian A. WalmsleyA. Ian Jnta Dowling Jonathan , 1 See Kolthammer Steve , Gold Invited 2 ; 4 ; 1 Univ. ofOxford, UK; 1 Dept. ofPhysics& 2 , Jonathan Olson

1 , Ben Metcalf Ben , 1 Stephan , 1 Peter , 2 Dept. 1 1 - , ,

Univ. ofNorthCarolina ChapelHill,NC,USA; USA; Health, Univ. of North Carolina Chapel Hill, Epidemiology, GillingsSchoolofGlobalPublic FW4E.2 •14:00 Physiology, Ciliary of TowardsQuantification All-Optical FW4E.1 •13:30 Univ. ofSydney, Australia Presider: Alvaro Casas-Bedoya, Tomography FW4E •OpticalCoherence 13:30–15:30 2 oids, a DrugontheMotilityofMammaryOrgan - of Effect the of Quantification OCT-Based Casbas-Hernandez cilia flowphysiology. optical imaging-based approach for quantifying remain immature. I will present a comprehensive diagnostic flow Quantitative tubes. Fallopian and system, nervous central lungs, the in flows microfluidic generate that organelles are Cilia North Carolina ChapelHill, NC,USA; Oldenburg after exposure todoxorubicin. motility decreased in a time-dependent fashion Coherence Tomography. The measured cellular Optical by cultures 3D in cells epithelial mary the effect of doxorubicin on the motility of mam- quantified We Carolina ChapelHill,NC, USA. Biomedical Research Imaging Center, Univ. of 4 Lineberger CancerCenter, Univ. ofNorth io Yu Xiao 1,2 Michael Choma ; 1 1,2 Dept. ofPhysicsandAstronomy, Rcad Blackmon Richard , Empire 3 , Melissa A. Troester Invited 1 ; 1 Yale Univ., USA. 1 Patricia , 3 Dept. of 3,4 , Amy Wednesday, 21 October 83 Bruce J. , 1 Washington Univ. in St Louis,St in Univ. Washington Robert H. Wilson 1 ; 1 Piedmont Invited Invited , Lihong V. Wang V. Lihong , Univ. of California Irvine, USA. Univ. Intrinsic signal 1 1,2 ; 1 Interdisciplinary Division of Biomedical Engineering, Interdisciplinary 2 USA; optical imaging of rat spatial cortex Broadband reveals time. unique real in information function neurovascular about frequency domain imaging (SFDI) provides a platform for quantitative assessment and localization of intrinsic signals and cortical metabolism. Hong Kong Polytechnic Univ., Hong Kong. Hong Kong Polytechnic Univ., In this talk, we propose to use ultrasound, in the form of either ultrasonic localized noninvasive as sensing, photoacoustic or encoding guide stars to achieve optical focusing in deep tissue and tissue-like scattering media. LW4I.2 • 14:00 LW4I.2 Guidestars, Ultrasound with Tissue in Deep Light Focusing Lai Puxiang 13:30–15:30 Imaging • Advanced LW4I Modulated Imaging David Cuccia; Presider: Inc, USA • 13:30 LW4I.1 Domain Optical Imaging of Brain Spatial Frequency Blood Flow and Metabolism, Tromberg LS Tony Tony Friedrich-Alexander- 1 ; 1 Invited Invited , Takuya , Higuchi Takuya 1 Hillsborough Monolayers of van-der-Waals van-der-Waals of Monolayers USA. Univ., Stanford 1 ; 1 A Universität Erlangen, Germany. subcycle of intense laser lengths- nanometer over travel to electron an force can light electron attosecond of control ultrafast this employ We cales. potentially devices nanoscale of ingredient key as dynamics operating at optical bandwidth. LW4H.1 • 13:30 • LW4H.1 Heterostructures, Waals der van of Properties Optical • 14:00 LW4H.2 Attosecond Electron Response in Nanoscale Interfaces, Peter Hommelhoff 13:30–15:30 NanoOptics II • Semiconductor LW4H Philipps Sangam Chatterjee; Presider: Germany Marburg, Universitat Heinz F. materials can be combined to form a wide variety tailored opti- resulting the discuss we paper, this In heterostructures. cal and optoelectronic properties of such heterostructures layers. isolated the of properties the to relate they how and 18–22 October 2015 • Dept. 2 Joseph N. , Shouyuan , 3 Florida Atlantic 1 ; 1

FiO/LS 2015 , Richard D. Martin D. Richard , 2 US Army Lab, USA; Research 1 ; 2 Invited Sacramento Phase Sensitive Innovations, USA. We present a 3 , Christopher A. Schuetz A. Christopher , 1 , Dennis W. Prather W. Dennis , 2 Univ., USA. Univ., We generally think that distinctions between coherent and incoherent imaging are clear, but they are not always so. I give examples of blurring of Lohmann and I worked on. beginning with two that Adolf distinctions, procedure procedure for designing two point spread functions in produces difference whose a system imaging wave millimeter signal- maximum and bias minimum with response desired a to-noise ratio. FW4G.2 • 14:00 Minimizing Bias in a Millimeter Wave Imager, Mait 13:30–15:30 Honoring Adolf FW4G • Symposium Lohmann II at of Colorado Univ. Rafael Piestun; Presider: USA Boulder, FW4G.1 • 13:30 When the Difference Between Coherent and Incoherent Rhodes T. William Imaging Begins to Blur, of Electrical and Computer Engineering, Univ. of Delaware, of Delaware, of Electrical and Computer Engineering, Univ. USA; Shi ; , 1 FiO 1,2 , Stefan 1 Use hashtag #FiO15 Join the conversation. , Marin Gilles 1 , Guy Millot 1 Follow @Opticalsociety on Twitter. @Opticalsociety on Twitter. Follow CNRS - Université Bourgogne CNRS - Université Bourgogne 1 Juan Carlos Alvaradp Zacarias ; We describe We Italy. of Brescia, Univ. 1 2 Invited Glen Ellen Glen , Massimiliano Guasoni 1 , Stéphane Pitois 1 Óptica, Instituto Nacional de Astrofísica, Óptica Astrofísica, Óptica, Instituto Nacional de 2 , Julien Fatome 2 CREOL, USA; Antonio Picozzi Franche-Comté, France; y Electrónica, Mexico. Low-loss all-fiber photonic lantern (PL) capable of selectively exciting the first six fiber modes of a multimode fiber (4 LP) using both step and graded index demonstrated. are 1 FW4F.2 • 14:00 FW4F.2 Six Mode Selective Photonic Lanterns Using Either Step Fibers, Index Graded or Nonlinear Polarization Manipulation in Optical Fibers, Pierre-Yves Bony FW4F.1 • 13:30 • 13:30 FW4F.1 13:30–15:30 and Light Generation FW4F • Novel in Fiber Devices II Manipulation Boston Siddharth Ramachandran; Presider: USA Univ., Wabnitz the self-organization of light state-of-polarization in optical fiber based on a nonlinear cross-polarization interaction between an input signal and its backward replica. Several reported. for telecom applications are proof-of-principles Wednesday, 21 October interactions andgeneratingdepolarization. magneto-electric second-order enhancing in rotationsmolecular of importance the to point electronicof range structuresa with dielectrics liquid and solid in experiments scattering light Rand 84 Electric Scattering,Alexander A. Fisher Depolarizing Molecular Rotations in Magneto- FW4A.5 •14:30 Feedback Devices, Modulation and Masking using Acousto-Optic Chaotic Combining Scheme Multi-Security FW4A.4 •14:15 Sciences II—Continued FW4A •GeneralOptical Chakrabarty security. vis-à-vis performance system in enhancement cryption keys. Simulations indicate considerable en- independent with mask chaotic generated separately a to added and cell Bragg hybrid a in carrier chaotic a onto encrypted is signal S. Almehmadi 1 ; 1 Nonlinear Univ. ofMichigan,USA. 1 Eiaeh . Dreyer F. Elizabeth , 1 California ; 1 Univ. ofDayton,USA. An input Monish R. Chatterjee 1 Stephen , 1 1 , Fares , Ayan 1 Optics for Large Scale Datacenters, FW4B.2 •14:15 increasing bandwidth. ever of requirements efficiency and formance per the meet to technologies optical various of of challenges scaling the present then We datacenters. scale large for requirements nect Networks II—Continued Communications: Datacentersand FW4B •IntegratedPhotonicsfor Google, USA. We give an overview of intercon Valley Invited

Hong Liu FiO/LS 2015 1 - - ; plans forfuture spacemissions. and work ongoing campaigns, recentairborne discuss will It space. from gases greenhouse atmospheric other and CO2 of abundance column the measure remotely to approaches presentation will discuss the application of lidar 1 and Spacecraft using Lidar, Measuring Greenhouse Gasesfrom Aircraft FW4C.3 •14:30 Climate—Continued Remote Sensingforthe FW4C •SymposiumonOptical NASA Goddard Space Flight Center, USA. This • Crystal FiO Invited 18–22 October 2015 James B. Abshire

1 ; China, China; Univ. ofElectronic ScienceandTechnology of Wetzel frequency band. wide a over detectors gravitational-wave of sensitivity the improving for suitable is which band, audio the in frequency of function as quadrature light squeezed rotate to cavity cal Evans Univ., USA; Computer Engineering,RMITUniv., Australia; Tse 7 FW4D.3 •14:15 2 Kues Michael Comb, Frequency Quantum Integrated an within States Two-Photon Multi-Correlated FW4D.4 •14:30 moki Isogai Squeezing intheAudioFrequency Band,To Demonstration ofFrequency Dependent Heriot-Watt Univ., UK; Research Labs,NTTCorporation,Japan; and measure two-photonentanglement. of four-mode two-photon multi-correlated states generation the report resonator,we mircoring inside a bi-modally pumped CMOS-compatible ferent spontaneous four-wave mixing processes Univ. ofSussex,UK. By superimposing two dif- Grazioso Precision MechanicsofCAS,China; oet Morandotti Roberto William J. Munro Hong Kong,China; of PhysicsandMaterialScience,CityUniv. of Technologies II—Continued Measurement and FW4D •QuantumOptical School ofEngineeringandPhysicalSciences, Inst. ofFundamentalandFrontier Sciences, 1 , Lisa Barsotti 1 ; 1,9 1 , Piotr Roztocki We use a high finesse opti- MIT,finesse high a use We USA. 1 Yrn Bromberg Yaron , 1 , Eric Oelker 9 Dept. of Physics andAstronomy, 1 8 Crsin Reimer Christian , Dept. ofAppliedPhysics,Yale 4 1 , Sai T. Chu , Nergis Mavalvala Gold 6 1,7 School ofElectricaland 3 1 Xi’an Inst.ofOpticsand ; , Lucia Caspani 1 , John Miller 1 INRS-EMT, Canada; 8 5 Bet . Little E. Brent , , David J. Moss 1 Benjamin , 4 1 NTT Basic , Matthew 1 , Maggie 1,2 , Fabio 5 Dept. Dept. 1,6 3 - , , son noninvasive imaging. large-depth rapid, for solution cost-effective by cavity tuning. Our scheme provides a simple, profilometry system based on optical sampling of an optical coherence tomography and surface in Huntsville, USA. FW4E.4 •14:30 nostics, coherence tomographyformiddleeardiag- optical Doppler swept-source Real-time FW4E.3 •14:15 ing, etry based on Optical Sampling by Cavity Tun- Optical Coherence Tomography and Profilom imaging inlivepatients. with Doppler vibrography for in-clinic functional system imaging OCT swept-sourcereal-time a of development the on progress present We (OCT). tomography coherence optical of tion middle ear imaging is a very promising applica- Manohar Bance Tomography—Continued FW4E •OpticalCoherence 1 ; Lin Yang 1 Dalhousie Univ.,Transtympanic Canada. a MacDougall Dan 1 , Lingze Duan 1 , Jeremy Brown Empire We report the demonstration 1 1 Toa Landry Thomas , ; 1 Univ. ofAlabama 1 , Robert Adam- 1 - , Wednesday, 21 October 85 Kishan Dhola- Piedmont Invited Light sheet microscopy using microscopy sheet Light UK. of St Andrews, Univ. 1 ; 1 LW4I.3 • 14:30 • 14:30 LW4I.3 New in Directions Light Sheet Microscopy, kia propagation invariant light beams is described. In particular I particular In described. is beams light invariant propagation fields large offer which beams Airy using studies describe will and low phototoxicity. of view with high resolution LW4I • Advanced Imaging—Continued • Advanced LW4I LS , 1 , Alfred Alfred , 1 Denis Seletskiy , Benjamin Bauer Benjamin , 1 Invited Hillsborough , Christian Traum Christian , 1 Dept. of Physics and Center for Applied Dept. of Physics and Center for Applied 1 ; 1 Leitenstorfer Christopher Hinz Christopher LW4H.3 • 14:30 • LW4H.3 Induced Biexciton ResponseUltrafast Hole Relaxation and in Single CdSe/ZnSe Quantum Dots, of Konstanz, Germany. Two-color Photonics, Univ. pump- probe studies reveal ultrafast dynamics of few-fermions in biexciton Induced dots. quantum CdSe/ZnSe epitaxial single deterministic and relaxation hole sub-picosecond absorption, single photon gain are observed under appropriate pumping conditions. LW4H • Semiconductor NanoOptics II— • Semiconductor LW4H Continued 18–22 October 2015 ; 2 • The Hebrew Univ. Univ. Hebrew The 3 , Haldun M. Ozaktas 1 FiO/LS 2015 Invited Bilkent Univ., Turkey; Turkey; Univ., Bilkent 2 , David Mendlovic Sacramento 3 Uriel Levy Tel Aviv Univ., Israel; Israel; Univ., Aviv Tel FW4G.3 • 14:15 Fractional Fourier and Linear Canonical Transforms in Optics, 1 of Jerusalem, Israel. Fractional Fourier and linear canonical widespread find that transforms integral linear are transforms use in many areas of science and engineering. We review basic properties, including those in phase space, and their applications to optics. FW4G • Symposium Honoring Adolf Honoring Adolf FW4G • Symposium Lohmann II—Continued ; - 1 FiO , Lizhu Institut 2 2 , Andrey Andrey , , Marcelo Marcelo , 2 1 Wen Wen Xiong , Kenny Hey Tow Hey Kenny , , Thibaut Sylvestre 3 2 Inst. of Electrical Engineering, Ecole 1 ; 1 Glen Ellen Glen , Joël Cabrel Tchahame Nougnihi Tchahame Cabrel Joël , 1 , Martin Rochette Martin , 3 Dept. of Electrical and Computer Engineering, Engineering, Computer and Electrical of Dept. , Jean-Charles Beugnot 3 1 , Luc Thévenaz Luc , 1 , Raja Ahmad Raja , 3 Yale Univ., USA. Univ., We Yale experimentally realized the principal Denisov FEMTO-ST, Université de Franche-Comté, CNRS UMR 6174, CNRS Franche-Comté, de Université FEMTO-ST, France; modes in a multimode fiber with strong mode mixing. We further studied the spectral bandwidths of these principal modes and their dependence on the delay time and mode dependent loss. Mapping the Uniformity of Optical Microwires Using Phase-Correlation Brillouin Distributed Measurements, Chow Desmond FW4F.4 • 14:30 • 14:30 FW4F.4 FW4F.3 • 14:15 • 14:15 FW4F.3 Mul a in Modes Principal of Realization Experimental timode Fiber with Strong Mode Mixing, 1 FW4F • Novel Light Generation and Light Generation FW4F • Novel in Fiber Devices II— Manipulation Continued Li Polytechnique Fédérale de Lausanne, Switzerland; A. Soto A. McGill Univ., Canada. The McGill Univ., distributed Brillouin gain profile chalcogenide-glass of made microwire optical ultrathin an of correlation-domain phase-modulated a using characterized is uni- of variations resolves Method technique. measurement formity a 13 cm-long microwire. below 5% along Wednesday, 21 October the interaction with a gyro-magnetic substrate. degeneracy,and point exceptional existing of with Parity-Time symmetry due to the interplay resonators coupled of pair a fromtheoretically demonstrated is transmission non-reciprocal 86 tion at a Temporal Boundary, Refrac- and Reflection of Analog Temporal FW4A.8 •15:15 Thomas Symmetric Microstrip DimerSystem,Roeny Giant Nonreciprocity in a Parity-Time reversal FW4A.7 •15:00 Gagnon at thesurfaceofInA,Etienne Saturation effects on terahertz generation FW4A.6 •14:45 Sciences II—Continued FW4A •GeneralOptical dielectric interface. a at refraction and reflection spatial the of a dispersive medium acts as a temporal analog pulse that crosses over a temporal boundary in show numerically and analytically that an optical Laser Energetics, Univ. ofRochester,We USA. . Lytle L. Inst. ofOptics,Univ. ofRochester, USA; William R. Donaldson mental results. experi- and numerical compare and present We InAs. of surface the at pulses ultrafast of train a from terahertz of generation the model to equation drift-diffusion 1D the modify We Kuttos 1 ; 1 1 ; 1 Haa Li Huanan , Physics, Wesleyan Univ., USA. A giant 1 Franklin &MarshallCollege,USA. California 1 2 , Govind Agrawal Fe Ellis Fred , Brent Plansinis 1 Tsampikos , 2 1,2 Lab for 1 , Amy , ; 1 The 1 ,

architectures are presented. Mach-Zehnder-based quasi-athermal while as well as uniformity lot-level and wafer- high featuring SOI on gratings Echelle O-band. the in (de-)multiplexers wavelength of testing and Germany. We report about design, fabrication, calepore Scian - fabrication insensitiveness,Corrado and behavior quasi-athermal featuring SOI on (de-)multiplexers wavelength O-band FW4B.4 •15:15 Systems, Computing Interconnected Silicon-Photonic Optimized Performance-Energy Designing FW4B.3 •14:45 ueller nications-intensive applications. commu- for architectures photonic optimized energy-performance of co-design multi-level the describe We computing. future scaling for bandwidths communications energy-efficient offer can networks photonic Silicon USA. Design Ltd,UK; ahs Bn Bakir Ben Badhise Harduin Julie Jacques-Alexandre Dallery Networks II—Continued Communications: Datacentersand FW4B •IntegratedPhotonicsfor 3 Dmnc Gallagher Dominic , 1 Krm Hassan Karim , ee Bergman Keren 1 , Hélène Duprez Hélène , 3 Valley Vistec ElectroBeamVistec GmbH, 1 ; Invited 1 CEA-Leti, USA; 1 Rcad . Lycett J. Richard , 3 1 , Sebastien Pauliac ; 2 Sli Menezo Sylvie , 1 Columbia Univ., 1

, Ulf Weidenm- Ulf ,

2 Photon FiO/LS 2015 1 2 1 , , , Climate—Continued Remote Sensingforthe FW4C •SymposiumonOptical Market Street &SouthTower Foyers 15:30–16:00 • Crystal FiO 18–22 October 2015 Coffee Break, suppression offour-wave mixing. memory,Raman cavity-enhanced a of showing wave mixing noise. We present a demonstration promising platform, but are susceptible to four- of photonic operations. Raman memories are a Quantum memories enable the synchronisation Dynamics CDT, Imperial College London, UK. Univ. ofOxford, UK; photons. slow the of component atomic-excitation the detects that light another with accomplished is measurement nondestructive The medium. slow-light a through propagate they as time tively observe individual optical photons in real nondestruc- Lab ofElectronics, MIT,We USA. Qiu wicz FW4D.5 •14:45 oeh Munns Joseph Memories, Raman in Mixing Four-Wave of Bad CavitiesforGoodMemories:Suppression FW4D.7 •15:15 4 2 Shi state, photonic million-dimensional one- an of measurement direct Scan-free FW4D.6 •15:00 Time, Real in Photons cal Travelingof Detection Nondestructive Opti- a million-dimensionalphotonicspatialstate. measuring by method our demonstrate We a single setting of the measurement apparatus. pure quantum state of arbitrary dimensions with a measures directly that technique a describe Vladan Vuletic Ian A. Walmsley Kristin M. Beck Robert W. Boyd tion, AustrianAcademyofSciences,Austria; - for QuantumOpticsandInforma Technologies II—Continued Measurement and FW4D •QuantumOptical Dept. ofPhysics,Univ. ofOttawa,Canada.We Inst. of Optics, Univ. of Rochester, USA; 1 1 , mohammad Mirhosseini mohammad , 1 , Patrick M. Ledingham , Mehul Malik Mehul , 1 ; 1 1,2 2,4 , Yiheng Duan 1 1 , Josh Nunn Tsa . Champion F. Tessa , Dept. ofPhysicsandResearch ; 1 Gold 2,3 Univ. of South Florida, USA; , Freida Rivera Freida , 2 Controlled Quantum 1 , Dylan J. Saunders 1 2 ad Hosseini Mahdi ; 1 , Jessica MargieJessica , - , Wenlan Chen 1 Clarendon Lab, 1 , Ziyi Zhu Ziyi , 1 Cheng , Zhimin 3 Inst. 1 1 1 1 , , , , Engineering, NorthCarolina StateUniv., USA; at ChapelHill,USA; e Allen Coherence Elastography, Wes Optical Compression using Nonlinearity of Effect the and Stiffness Tissue Quantifying FW4E.7 •15:15 OCT, Swept-Source for Laser (VT-DBR) Reflector Bragg Vernier-Tuned Distributed nm 1060 FW4E.6 •15:00 Polarization-Sensitive OCT, Using Mapping Diffusion Nanorod Gold via Nanotopology ECM Spatially-Resolved FW4E.5 •14:45 Univ. of North Carolina at Chapel Hill, USA; 3 1 hu may helpcharacterisesofttissues. the applied load and consider how nonlinearity the nonlinear dependence of tissue stiffness on tissue stiffness on the micro-scale. We highlight advance from relative strain images to quantified to elastography coherence optical of fication Australia, Australia. We demonstrate the modi- Sampson such astumorigenesis. remodeling ECM studying in applications new GNR diffusion. This novel approach will enable resolved spatially mapping by nanotopology ECM cross-sectional sense to PS-OCT using demonstrate We Carolina atChapelHill,USA. medical Research ImagingCenter, Univ. ofNorth Wijesinghe Brian Chapman measured using self-homodyne interferometry. tuning. Optical linewidths less than 10 MHz are nanosecond step response times for wavelength tions. Electrical measurements demonstrate 1-3 1060nm VT-DBR laser for use in wavelength-tunable SS-OCT applica- first the report We USA. Tomography—Continued FW4E •OpticalCoherence Physics andAstronomy, Univ. ofNorthCarolina Lineberger Comprehensive CancerCenter, 3 Mlsa . Troester A. Melissa , Greg Bergdoll 1 , Brendan Kennedy 1 , Kelsey Kennedy 2 , Joseph Tracy Empire 1 ; 1 CalPoly StateUniv. (SLO), 2 Materials Scienceand 3 Ay Oldenburg Amy , Richard Blackmon 1 1 , Lixin Chin ; 2 1 , Rupinder Sand- Univ. ofWestern 1 1 Philip , , David 4 Bio- 1,4 1 ; , Wednesday, 21 October ; 1 87 Shu Jia Piedmont Invited We demonstrated a self-bending USA. We SUNY Stony Brook, point spread function (SB-PSF) based on self-accelerating Airy beams for three-dimensional (3D) super-resolution fluorescence The microscopy. approach offers several-fold methods. imaging 3D reported previously over improvement 1 LW4I.4 • 15:00 LW4I.4 Super-resolution Imaging with Airy Beams, LW4I • Advanced Imaging—Continued • Advanced LW4I LS Queen’s Queen’s 1 ; 1 , Kaushik Roy-Choudhury Kaushik , 1 Invited Hillsborough Stephen Hughes Stephen We present a polaronic quantum quantum polaronic a present We at Kingston, Canada. Univ. optics approach for modelling electron-phonon scattering quantum containing structures cavity-QED semiconductor in and theory the of applications several demonstrate We dots. experiments. connect to a number of recent LW4H.4 • 15:00 LW4H.4 Sys- Cavity dot Quantum in Scattering Phonon-mediated tems, LW4H • Semiconductor NanoOptics II— • Semiconductor LW4H Continued 18–22 October 2015 • , James R. James , 2 Physics and 1 ; 2 Market Street & South Tower Foyers & South Tower Market Street Break, Coffee Inst. of Optics, Univ. of Inst. of Optics, Univ. 2 Weizmann Inst. of Science, Weizmann 1 , Wesley E. Farriss E. Wesley , ; FiO/LS 2015 1 1 , Nick Vamivakas Nick , 3 Invited 15:30–16:00 Sacramento Univ. of Central Florida, CREOL, The Col- of Central Florida, Univ. , Nir Davidson Nir , 3 1 Tanya Malhotra Tanya , Ayman Abouraddy Ayman , 2 Israel. Optical processing inside a degenerate cavity laser is exploited for efficient control of the spatial coherence, unique phase locking of many coupled lasers, calculated and and experimental Supporting shaping. rapid wavefront presented. are results FW4G.5 • 15:00 Optical Processing Inside a Degenerate Cavity Laser, Friesem A. Asher FW4G.4 • 14:45 Optical Beam Modal Analysis Via Generalized Two-Path Interferometry, A one dimensional optical dimensional one A lege of Optics & Photonics, USA. using (fFT) Transform Fourier fractional the of implementation programmable lenses is presented. This set-up is used to implement a proof-of-principle experiment demonstrating a spatial mode-sorting Michelson interferometer based on a fFT generalized delay line. Astronomy, Univ. of Rochester, USA; of Rochester, Univ. Astronomy, Fienup Rochester, USA; Rochester, FW4G • Symposium Honoring Adolf Honoring Adolf FW4G • Symposium Lohmann II—Continued - FiO ISC- 1 ; Univer 1 1 Catalina Catalina ; 1 Claudio Conti , Pedro Torres 1 Invited Glen Ellen Glen , Rodrigo Acuna 1 We study the influ- the study We Colombia. sidad Nacional de Colombia, propagation pulse nonlinear in effect acousto-optic of ence in tapered with two different diameters. A set of equations used are in to order compute analytically the acousto-optic coupling coefficient between the fundamental core mode in the structure. and lower LP cladding modes Sapienza, Italy. Two CNR Dep. Physics Univ. dimensional interact may that modes localized sustain systems disordered consider We response. optical nonlinear a of presence the in the effect of nonlinearity and nonlocality on the degree of induced disorder of interaction mutual the on and localization localized states. FW4F.6 • 15:00 FW4F.6 Nonlinear and Nonlocal Effects on Anderson Transverse Localizations in Disordered Fibers, FW4F.5 • 14:45 • 14:45 FW4F.5 Influence of Acousto-Optic Coupling in Nonlinear Pulse Propagation Through Tapered Fiber Optics, Hurtado Castano FW4F • Novel Light Generation and Light Generation FW4F • Novel in Fiber Devices II— Manipulation Continued Wednesday, 21 October ho nale diOttica-CNR,Italy; Physics, Univ. ofFlorence, Italy; quantum technology. photonic new currentof the status discuss and quantum simulation of two XY-interacting spins the present also will I speed-ups. putational com- significant enabling gates quantum of superposition the for results experimental ent 88 4 Bellini Photons, Single Ultrashort Zero-Area FW5A.2 •16:30 Simulation, Quantum and Computing Quantum Photonic Novel FW5A.1 •16:00 National Univ., Korea Presider: HyunseokJeong;Seoul Technologies III Measurement and FW5A •QuantumOptical 16:00–18:00 Walther ui Acioli Lucio single-photon pulses. zero-area generates effectively and character, non-classical their degrading without mode wavepacket their of shape temporal the fies modi- deeply resonantsample dense atomic a the interaction of ultrashort single photons with that demonstrate We Brazil. de Pernambuco, Felinto de Engenharia,InstitutoCamilloFilho,Brazil; Departamento de Fisica, Universidade Federal Departamento deFisica,UniversidadeFederal 3 Dnee Pellegrino Daniele , 1,2 4 , Alessandro Zavatta Alessandro , 1 , Luca S. Costanzo S. Luca , ; 1 I will preswill I - Austria. Universitat Wien, 4 Ktuca Cassemiro Katiuscia , California Invited Invited 2 Mlin . Mendes S. Milrian , e Rozema Lee 1,2 2 LENS andDept.of 1,2 , Antonio S. Coel- S. Antonio , ;

3 1 Departamento Istituto Nazio- 4 Daniel , 1 ,

Marco Philip 4 , applications. cloud metro and regional fast-growing the for recent progress in on adapting the report PIC technology we paper this In systems. DWDM tonic Integrated Circuit technology Pho- for large-scalelong-haul in pioneer a is Infinera USA. Networks, ers, and Transceivers for Regional and Metro Receiv- Transmitters, IC-based Photonic InP FW5B.2 •16:15 Digital Conversion, Analog-to- Oversampled Optical for Laser Injection-Locked Three-Section Monolithic FW5B.1 •16:00 Berkeley,California USA Presider: MingWu; Univ. of and Lasers Communications: InPPlatforms FW5B •IntegratedPhotonicsfor 16:00–17:30 Delfyett the injection-lockedmode-lockedlaser. of section passive the modulating by achieved of 1.1 mV and a SFDR of 75 dB.Hz 75 of SFDR a and mV 1.1 of Vπ low extremely an with demonstrated is tor A novel linear interferometric intensity modula- 1 ; 1 Univ. ofCentralFlorida,CREOL,USA. Vikrant Lal Vikrant Valley Invited 1 ; di Sarailou Edris 1 Infinera Corporation,

2/3 1 . This is This . Peter , FiO/LS 2015

of Dayton,USA Presider: MonishChatterjee; Univ. Plasmonics FW5C •NovelConceptsin 16:00–18:00 2 Geometric PhaseElements,Asad Tahir Optimal DesignofPlasmonicAntennasfor FW5C.3 •16:30 sponse andlocalfieldenhancement. re- spectral of optimization for configuration metal-insulator-metal with arrays nanoantenna nated effects of multiple coupling in plasmonic coordi- the exploit to developed is strategy Arrays, Nanoantenna Manipulating MultipleCouplinginPlasmonic FW5C.2 •16:15 Chen waveguides, plasmonic hybrid in splitters polarization on-chip Ultra-small FW5C.1 •16:00 Optical Elements. Phase Pancharatnam-Berry plasmonic optimal of realization the to allows turn in which ality, function- plate half-wave optimal for antennas plasmonic V-shaped of design the discuss Gong Zheng oet . Boyd W. Robert demonstrated. experimentally are splitters polarization chip on- ultra-small waveguide, air-dielectric-metal hybrid the in modes transverse-magnetic and transverse-electric the of confinements field different the and birefringence modal large De Leon De We Inst. ofOptics,Univ. We ofRochester, USA. 1 1 , Chengwei Sun Chengwei , 1 ; ; 1 1 1 Peking Univ., China. general A Univerisity ofTexas, USA. , Sebastian Schulz Sebastian , • 1,2 Crystal ; FiO 1 Univ. ofOttawa,Canada; 18–22 October 2015 1 , Hongyun Li Hongyun , ihn Lin Linhan 1 , Jeremy Upham Jeremy , ae o the on Based 1 1 Yuebing , , Qihuang , Jianjun 1 , Israel 1 , ogy Corporation,USA; wick, Canada; Ibn-Elhaj Ren several polarimeterswillbepresented. of performance and calibration construction, division-of-focal-plane imaging polarimeter. The Stokes full of class new a of development the enabled has polarizer and retarder polymer crystal liquid in Research Ltd., Switzerland. of Arizona,USA Presider: RongguangLiang, Univ. FW5D •PolarizationImaging 16:00–18:00 Zhang Novel Imaging Spectro-polarimeter, FW5D.2 •16:30 Pau Polarimeter, Imaging Stokes Full FW5D.1 •16:00 of Sciences,Xi’anJiaotongUniv., China; are presented. results preliminary some and discussed, are a target. The principle, scheme, and technique image, spectrum, and full Stokes parameters of acquire simultaneously to proposed is scope polari- Savart on based instrument innovative of Sciences,NorthwestA&FUniv., China.An Tu 1 Na Brock Neal , 1 2,3 , Wei-Liang Hsu Wei-Liang , , Chenlin Jia 2 Dny Wang Dingyi , 3 ; 1 Univ. ofArizona,USA; 2 Inst. of Space Optics and School Inst. ofSpaceOpticsandSchool 2 Soa Kroto Shona , 2 ; Gold 1 Physics, Univ. ofNewBruns- 1 , JeffreyDavis , Invited 2,1 Tnki Mu Tingkui , 3 Rolic Technologies

2 Mohammed , 2 4D Technol- 1 , Xingzhou , Chunmin Chunmin 2 Wenyi , Stanley 3 School School power mapoftheperceived refractive values. a real-time in portraits Netrometer AXIS), and addition to low-order measurements (SPH, CYL Netrometer.the applications: optometry for In low-cost, accurate, wavefront sensing lensmeter FW5E.2 •16:30 Excitation, kov Cerenwith Imaging Resolution - High Tissue: of Centimeters Through Imaging Molecular FW5E.1 •16:00 Univ., USA Presider: MichaelChoma;Yale and Medicine FW5E •GeneralOpticsinBiology 16:00–18:00 1 Matsumoto Add-on, Smartphone a using meter Low-orderLens- and Map High-orderPower mann thickness ofmiceandrats. body full through imaging by demonstrated is This imaging. molecular for tissue within gions re- excitation resolution high create to used be can source light internal this and beams, radiotherapy from easily produced be can sue tis- in emission light Cerenkov College, USA. Eyenetra, Inc.,USA. We developed a portable, 1 , Guilherme Uzejka Guilherme , 1 , Vitor F. Pamplona Empire Brian W. Pogue W. Brian Invited

1 , Nathaniel Sharpe Nathaniel ,

1 , Matthias Hoff- 1 ; 1 Dartmouth Monica 1 ; Wednesday, 21 October 89 NIST, NIST, 1 ; , , Esther 1 1 , Jean-Daniel 1 , , William Swann 1

, Nathan R. Newbury Laura C. Sinclair 1 Piedmont Invited Invited Univ. of Arizona, USA. of Arizona, Univ. Intracavity high- 1 ; 1 , , Fabrizio Giorgetta 2 , Ian Coddington 1 We have demonstrated syn- demonstrated have We Canada. Laval, Université 2 Deschênes Baumann LW5I.2 • 16:30 LW5I.2 Femtosecond-Level Synchronization Over Kilometer- Scale Turbulent Air Paths, 16:00–17:30 III Laser Spectroscopy • Precision LW5I State Univ. Colorado Dylan Yost, Presider: USA • 16:00 LW5I.1 An XUV Dual-comb Source for Precision Spectroscopy, R. Jason Jones USA; chronization of two optical oscillators over a turbulent 4-km turbulent a over oscillators optical two of chronization air path with sub-femtosecond short timescale time offset. Over a 50-hour the measurement long timescale wander in is <±20 fs. the time offset harmonic generation has extended the frequency comb into comb frequency the extended has generation harmonic sys- dual-comb a demonstrate We region. spectral XUV the more a for teeth comb individual of detection enabling tem VUV/XUV. the in spectroscopy precision to approach robust LS A singlet A USA. Columbia Univ., 1 ; 1 Invited Hillsborough Xiaoyang Zhu Xiaoyang exciton can split into two triplets and with spin energy conservation in a called process singlet fission. This will lecture correlated the through proceeds fission singlet how discuss also called the multiexciton (ME) state. triplet pair, LW5H.2 • 16:30 LW5H.2 How Does One Exciton Split into in Two Organic Semi- conductors?, 16:30–17:30 NanoOptics III • Semiconductor LW5H Vincenzo Savona; Ecole Presider: Federale de Lausanne, Polytechnique Switzerland 18–22 October 2015 • - Tech 1 ; 1 Stefan . Sinzinger . Stefan Fernuniversität in Hagen, FernuniversitätHagen, in 1 FiO/LS 2015 ; 1 Invited Invited Sacramento Jürgen Jürgen Jahns Having fun with optics with fun Having nische Universität Ilmenau, Germany. for forces driving important most the of one been always has Adolf We Lohmanns present some ingenuity and creativity. results of recent research projects and trace them back to typical Lohmann approaches. FW5G.2 • 16:30 Optical Interconnection - Early Concepts and Novel Approaches, 16:00–18:15 Honoring Adolf FW5G • Symposium Lohmann III of Naval US Office Ravi Athale; Presider: Research FW5G.1 • 16:00 Optics, Lohmann with Fun Having Optical Germany. interconnection is finally coming of age. Optics offers high spatial and temporal bandwidth and the the Here, dissipation. power and latency reduce to capability reviewed. technology are early concepts and recent , ; - 1 2 FiO Télé Fiber -core -core 2 2 2 Margaux Margaux , Markus A. 2,3 , Philippe Delaye Philippe , 2 , Martin Gebhardt 1 , Jens Limpert 2 -core -core optical fiber and a 430 fs 2 , Isabelle Zaquine Isabelle , 1 Invited Glen Ellen Glen Mario Chemnitz , Fabian Stutzki 2 Inst. for Photonic Technology, Germany; Inst. for Photonic Technology, 1 ; 1 , Thibault Harlé Thibault , 1 Laboratoire Charles Fabry, Institut d’Optique, France; France; d’Optique, Institut Fabry, Charles Laboratoire - supercon MIR Soliton-based Helmholtz-Inst. Jena, Germany. step-index fiber, & Waveguide Lasers, Inst. for Applied Physics, Germany; Physics, Applied for Inst. Lasers, Waveguide & Christian Gaida 3 FW5F.2 • 16:30 FW5F.2 Soliton-based MIR generation until 2.4 μm in a CS Towards Raman-free Generation of Towards Photons Pairs in Liq- uid Filled Hollow Core Photonic Crystal Fibres, 1 FW5F.1 • 16:00 • 16:00 FW5F.1 Barbier 16:00–18:00 and Light Generation FW5F • Novel in Fiber Devices III Manipulation Arnaud 1 Mussot; Univ Lille Presider: France PhLAM, Laboratoire com Paristech, Laboratoire Traitement et Communication de Communication et Traitement Laboratoire com Paristech, architecture fibered new a present We l’Information, France. - delete the which in pairs, photon correlated of generation for rious influence of Raman photons has been highly reduced fiber with a liquid. of a microstructured by filling the core tinuum generation between 1.2 μm and 2.4 μm is presented presented is μm 2.4 and μm 1.2 between generation tinuum using a highly nonlinear CS Schmidt Tm-based pump source. Tm-based pump source. Wednesday, 21 October & Technology, USA; Parazzoli Seshadreesan 90 nentially Rising Wave Packet, Expo- an in State Single-Photon Pure Highly a of Measurement Quadrature Real-Time FW5A.4 •17:15 1 Gard T.egies inMetrology, Bryan Photon Addition and Subtraction: New Strat- FW5A.3 •17:00 Technologies III—Continued Measurement and FW5A •QuantumOptical tella Taguchi oscillator. generated by an asymmetric optical parametric packet mode is in an exponentially rising shape pure single-photon state whose temporal wave- highly a of measurement quadrature real-time Australia. iek Ohdan Hideaki Jun-ichi Yoshikawa addition/subtraction attheoutput. photon using limits metrology standard the below sensitivity and resolution provides that Univ. of New York, USA. We propose a strategy of Tokyo, Japan; Louisiana StateUniv., USA; 3 , Christopher Gerry Christopher , 1 , Kenzo Makino Kenzo , 2 Braa Capron Barbara , e xeietly demonstrate experimentally We 1 California , Benjamin Koltenbah Benjamin , 1 2 Kznr Miyata Kazunori , The Univ. ofNewSouthWales, 1 , Akira Furusawa 3 Lehman College, The City LehmanCollege,TheCity 1 3 , Hidehiro YonezawaHidehiro , , Jonathan Dowling Jonathan , 2 2 Boeing Research Rcad Birrit- Richard , Hisashi Ogawa 1 1 Masahiro , ; 1 2 1 Kaushik , , Claudio , The Univ. 1 2 1 , ; , suppressed byasaturableabsorber. further are sidemodes remaining the where Zhao is emerging. electronics silicon with circuits photonic based performance and wafer-scale integration of InP- matureto cess processesintegration high with InP-based foundry processes offer low-cost ac- progress.rapid making is Integration Photonic versiteit Eindhoven, Netherlands. Meint Smit Meint Integration, Photonic InP-based in Progress FW5B.4 •17:00 Chen microring resonator, Guangnan on-chip an from feedback on based cavity fiber a from lasing Single-longitudinal-mode FW5B.3 •16:45 hang Univ., China; Electronic Engineering,Bei- andInformation high-Q (>10 enabled by narrow bandwidth feedback from a cavity laser fiber Fabry-Perot a from lasing (SLM) single-longitudinal-mode demonstrated Center ofGeospatialTechnology, We China. and Lasers—Continued Communications: InPPlatforms FW5B •IntegratedPhotonicsfor 1 Zjn Yao Zijun , 1 , Kevin Williams Kevin , 6 ) on-chip SiN microring resonator, 1 Zeg Zheng Zheng , Valley 2 Invited Collaborative Innovation 1 ; 1 Technische Uni- 1,2 ; InP-based 1 School of 1 Xin , FiO/LS 2015 photoemission devices. efficiency high introduced and approach, up bottom- a developed We low. extremely are efficiencies recorded However,experimentally semiconductors. of limitations bandgap the overcome to route alternative an offer devices plasmonic in Hot-electrons Santa Cruz,USA. School ofEngineering,Univ. ofCalifornia, with FWHMoflessthan3.5degrees. single photon emission with a directional beam show We temperature. room at dots quantum nanocrystal from emission light of collimation for nanoantenna plasmonic-dielectric hybrid a design WeHebrew Univ. ofJerusalem,Israel. traordinary absorption and emission properties. need to be included in order to explain their ex management rate transition and management core-shell nanowires explaining how both light of properties optoelectronic analyze We USA. FW5C.4 •16:45 Zhihuan WangZhihuan Nanowires, in Management Rate and Light FW5C.6 •17:15 Hossain G. Imran Limitations, Quantum and Photoemission Hot Electrons inPlasmonicDevices:Internal FW5C.5 •17:00 Harats G. Nanoantenna, Plasmonic-Dielectric Hybrid a Using Dots Quantum Nanocrystal Directional EmissionofSinglePhotonsFrom Jerusalem, Israel; of AppliedPhysics,TheHebrew Univ. of os Paltiel Yossi Plasmonics—Continued FW5C •NovelConceptsin 2 Nta Livneh Nitzan , 1 Rnn Rapaport Ronen , 1 , Bahram Nabet Bahram , • Crystal 1 2 Amt . Yanik A. Ahmet , FiO Racah Inst.ofPhysics,The 18–22 October 2015 1 Sia Yochelis Shira , 1 2,1 ; 1 ; Drexel Univ., 1 The Dept. 1 ; 1 Moshe Baskin 1 - , 1 1 FW5D.3 •16:45 Brandon G. Zimmerman G. Brandon polarizations, space-variant with periment Signal recovery inaMie scatteringex- FW5D.5 •17:15 Withdrawn. FW5D.4 •17:00 Polarization Converter,Lei Zeyu Ultra Compact Metasurface Radial/Azimuthal orientation angles. distinct with resonators plasmon gap of array an of composed is metasurface The surface. meta- compact ultra an using beams polarized azimuthally or radially of generation the strate and background correction. procedures calibration the on emphasis with aerosols, and suspensions to applied ments experi- scattering Mie in polarization variant space- (1d) a of use the of test experimental Continued FW5D •PolarizationImaging— Shanghai JiaoTong Univ.,demon- We China. e ecie an describe We The Inst.ofOptics,USA. Gold

1 , Thomas G. Brown G. Thomas , 1 , Tian YangTian , 1 1 ; ; Marcassa FW5E.5 •17:15 FW5E.4 •17:00 FW5E.3 •16:45 1 Ortiz-Rascón ardo Equation, Transport the to Solution Imaging UsingtheDiffusion Approximation Non-linearity in Simulations of Time Resolved 2 Network, Neural and putational Methods:SupportVector Machine copy (FIS) Technique and Two Different Com- bing UsingFluorescence ImagingSpectros- Huanglong- and Canker Citrus of Detection 1 Interfaces, Liquid Measurement of Diffusive Transport at Liquid- linearities intheimagingprocess are shown. non- and photons discriminate to used time on dependence The approximation. diffusion the with performed is extrapolation temporal The imaging. transillumination time-resolved regarding simulations of results present We these twocomputationalmethods. using symptoms similar have that diseases the fiers. Results show that is possible differentiate classi- into input as used and extracted were Texturediseases. features citrus investigate to Rodríguez-Rosales tion ofspatiallylocalizeddynamics. is non-invasive and continuous permits evalua- boundaries in miscible mixtures. The technique phase liquid-liquid at transport mass diffusive fiber-based optical technique for measuring the Ruan F.Ruan Neves Diego E. Hurtado-Gimenez and Medicine—Continued FW5E •GeneralOpticsinBiology Univ. ofCentralFlorida,USA. We demonstrate a Univ NacionalAutonomadeMexico,Mexico. FIS used have We Univ. ofSaoPaulo,Brazil. 2 ; 1 Esalq - Univ. of Sao Paulo, Brazil; 2 , José Belasque Junior Belasque José , Empire 1 , Neil C. Bruce C. Neil , 1 oe Guzman-Sepulveda Jose Jss Garduño-Mejía Jesús , Caio Bruno Wetterich Bruno Caio 1 , Aristide Dogariu 1 , Antonio A. Antonio , 1 , Luis G. Luis , Edu- 1 1 2 1 ; , ; , Wednesday, 21 October 91 Johannes 2 Piedmont Invited Univ. of California Berkeley, USA; of California Berkeley, Univ. 1 ; 2,1 I will dis- will I Helmholtz Inst. Mainz, Germany. Univ., Gutenberg and group our involving areas these in work recent some cuss collaborators. Please see https://budker.uni-mainz.de and for the latest updates. http://budker.berkeley.edu LW5I.3 • 17:00 • 17:00 LW5I.3 Spectroscopy, and Sector Dark Symmetries, Fundamental Budker Dmitry LW5I • Precision Laser Spectroscopy III— Laser Spectroscopy • Precision LW5I Continued LS - Robin , Tobias , Gregor 1 1 Faculty of of Faculty 1 ; 1 , Tobias Breuer , Tobias 1 Philipps Universitat Marburg, Philipps Universitat Marburg, , Nils W. Rosemann 1 1 ; 1 , Sangam Chatterjee 1 Kolja Kolata Hillsborough , Andrea Karthäuser , Gregor Witte 1 1 , Sangam Chatterjee 1 Physics and Materials Sciences Center, Philipps Universitat Physics and Materials Sciences Center, The Germany. Marburg, dynamics of photoexcited carriers are studied in model pentacene-fullerene heterojunctions revealing signatures associated with charge-transfer states. The long lifetime of the higher-energy signature indicates robustness to non-radiative relaxation or carrier extraction mechanisms. LW5H.3 • 17:00 • LW5H.3 Singlet-Exciton Fission Dynamics in Single-Crystalline Perfluoropentacene, • 17:15 LW5H.4 Carrier Dynamics at Pentacene/Fullerene Interfaces In- vestigated by Time-Resolved Photoluminescence, Döring Witte ization-resolved fs-pump white-light-probe spectroscopy. Our spectroscopy. white-light-probe fs-pump ization-resolved and fission singlet-exciton between correlation a reveal results the slip-stacked arrangements of the individual molecules. The dynamics of photoexcited carriers are studied are carriers photoexcited of dynamics The Germany. polar and spectrally by perfluoropentace single-crystalline in Breuer LW5H • Semiconductor NanoOptics III— • Semiconductor LW5H Continued 18–22 October 2015 Alan • Jorge Jorge FiO/LS 2015 Invited Univ. of Guanajuato, Mexico. Lohmann Univ. 1 Sacramento ; 1 The Internet packet net- packet Internet The Corporation, USA. Terabit 1 ; 1 favored the use of phase space representations for describing for representations space phase of use the favored optical systems. We discuss the advantages and limitations signals periodic describing when approach, his to associated and imaging systems with extended depth of field. FW5G.4 • 17:15 Optics, Phase-Space to Approach Lohmann’s Adolf Ojeda-Castaneda FW5G.3 • 17:00 Optics, and Shuffle, Perfect “Flatland,” Internet, The Huang work should minimize the number of “hops” instead of total of instead “hops” of number the minimize should work cost. and power, latency, traffic, the reduces This length. path This can be accomplished by using WDM and topologies based on higher dimensional spaces or Groups. FW5G • Symposium Honoring Adolf Honoring Adolf FW5G • Symposium Lohmann III—Continued , , ; - 2 1 1 FiO - Naze Elham , 1,2 , Simon Duval Jean-Christophe 1 CNRS-Université CNRS-Université 2 , Arnaud Mussot 1 , Kenneth K. Wong Y. 1 , Sisi Tan 1 Dept. of Electrical Engineering Dept. of Electrical Engineering 3 , Vincent Fortin 1 Dept. of Physics & Astronomy, Univ. Univ. Dept. of Physics & Astronomy, 1 ; Center for High Technology Materials, Center for High Technology 2 1,2 , Kevin K. Tsia Glen Ellen Glen 2 Xiaoming Wei Universite Laval, Canada. Supercontinuum 1 ; 1 , Martin Bernier , Arash Mafi Arash , 1 3 The Univ. of Hong Kong, Hong Kong; Kong; Hong Kong, Hong of Univ. The Lille 1, France. We demonstrate gain-spectrum flattening in a 40-dB ultra-wideband fiber parametric amplifier at 1.0 μm by incorporating the achieved. birefringence is of dB 8 gain than medium. less ripple A with nm ~100 of bandwidth Réal Vallée Alexandre Alexandre Kudlinski 1 FW5F.5 • 17:15 FW5F.5 ampli- parametric wideband a in flattening Gain-spectrum fier at 1.0 μm, FW5F.4 • 17:00 • 17:00 FW5F.4 In-Amplifier Mid-IR Generation Supercontinuum in a - Sin Fiber, Glass Fluoride Er-doped gle-mode Gauthier FW5F.3 • 16:45 FW5F.3 mix four-wave spontaneous amplified of analysis Detailed Pourbeyram Hamed ing in a multimode fiber, FW5F • Novel Light Generation and Light Generation FW5F • Novel in Fiber Devices III— Manipulation Continued mosadat Univ. of New Mexico, USA; of New Mexico, Univ. of New Mexico, USA; and Computer Science, Univ. of Wisconsin-Milwaukee, USA. and Computer Science, Univ. ampli- the of analyses experimental and theoretical Detailed fied spontaneous FWM in a multimode optical fiber hint at tensor nonlinear Kerr order third the of non-universality strong components. as a function of its frequency generation from 2.6 to 3.5µm is demonstrated in a single- mode fluoride EDFA seeded by an OPG source emitting 400ps pulses at 2.7μm. This approach is promising for the 3-5μm. emitting around development of sources Wednesday, 21 October Withdrawn. FW5A.5 •17:30 Yang 92 Praxmeyer Ludmila Domain, Time-Frequency in States Compass from Structure sub-Planck of Realization FW5A.6 •17:45 Technologies III—Continued Measurement and FW5A •QuantumOptical smaller than that of a transform-limited pulse. smaller thanthatofatransform-limited product time-bandwidth a with measurement, (FROG) gating optical frequency-resolved and function distribution Wigner between correspondence the through experimentally reported is states Compass from structure tional Tsing sub-Planck HuaUniv., A Taiwan. 1 , Shang-Da YangShang-Da , California 1 , Chih-Cheng Chen Chih-Cheng , 1 , Ray-Kuang Lee Ray-Kuang , 1 , Popo , 1 ; 1 Na- 18:00–20:00 18:00–20:00 OpticalFabricationandTesting Technical Group NetworkingEvent,Fairfield Valley OIDA Town HallForumonBiophotonicsChallenges &Opportunities,ClubRegent,LobbyLevel The completeschedulecanbefound inthePDPprogram and theFiOMobileApp. 17:00–20:00 20:00–22:00 FiO/LS 2015 Plasmonics—Continued FW5C •NovelConceptsin FW5C.7 •17:30 1 tric-coated Mirror, Dielec- Broadband in Tamm-plasmonStates FW5C.8 •17:45 Wong Parity-Time Symmetry Breaking Laser, incidence. magnetic polarized TPP modes for non-normal surements on transverse-electric and transverse- mea- spectral the discuss also We metal. and distributed-Bragg-reflector of interface the at exciting Tamm-plasmon-polariton (TPP) modes for route experimental simple a present We thresholdless parity-timesymmetrybreaking. on based capability manipulation mode cavity unique with laser single-mode a demonstrate we Here functionalities. device novel to lead can metamaterials optical in loss and gain between interplay the of Exploration USA. in Zhang Xiang National InstofScienceEd&Research, India. OSA ScienceEducators’Day, RegencyBallroom I 1 , Liang Feng FiO PostdeadlinePaperSession 1 ; 1 • Univ. Berkeley, ofCalifornia, Crystal 1 FiO , Ren-Min Ma Samir Kumar 18–22 October 2015 1 1 , Ritwick Das , Yuan Wang Zi Jing 1 1 ; , FW5D.6 •17:30 usl A Chipman A. Russell Berry Phase and Polarization Aberration, OTF are presented. and PSF the on aberration polarization this of Examples paths. different along accumulation phase Berry different to leads system optical the through state polarization the Carrying refraction. each at folds state the systems, optical through propagates light polarized As array orinsitubiologicalsystems. the of control quality non-destructive for used thermal radiation. Self-emitted radiation may be with Talbot-Lauself-imaging the to analogous self-image, a to lead and quasi-coherent be can which array, an from emitted radiation blackbody the examine We State Univ., USA. 1 Peter Lerner Rectennas, Nanoscale with Imaging and tion andApplicationtoEnergy Harvesting Radia- Blackbody of Properties Coherence FW5D.7 •17:45 Continued FW5D •PolarizationImaging— SciTech Associates,LLC,USA; 1 , Paul Cutler Gold 1 ; 1 Univ. ofArizona,USA. 1,2 , N M. Miskovsky 2 Pennsylvania 1,2 ;

in thecalibrationoflivemouseimagingdata. used be can and methods, imaging optical of development the in aids versatile, is approach This printing. 3D using constructed phantoms USA. We show reconstructed images of realistic Florida, CREOL,USA; Sugaya oi Constant Colin Optically Controlled Subcellular Diffusion, FW5E.7 •17:45 FW5E.6 •17:30 Imaging, Mouse Whole for Phantoms Optical Printed phototoxicity. inducing without polarization of direction the movement can be preferentially enhanced along cellular motility. We show that intracellular actin protein that forms microfilaments and globular is vital a for actin, affect can radiation Optical medical Sciences,Univ. ofCentralFlorida,USA. egn Lin Dergan and Medicine—Continued FW5E •GeneralOpticsinBiology 2 Aitd Dogariu Aristide , ra B Bentz B. Brian 1 Kvn . Webb J. Kevin , 1 Empire Jcb Kimmel Jacob , 2 Burnett SchoolofBio- Burnett 1 Aml . Chavan V. Anmol , 1 ; 1 1 Univ. ofCentral ; 1 Purdue Univ., 2 Kiminobu , 1 ,

Wednesday, 21 October 93 Piedmont LS Hillsborough 18–22 October 2015 • FiO Postdeadline Paper Session Harrison H. Regency Ballroom I Regency Ballroom OSA Science Educators’ Day, Univ. of Arizona, USA; of Arizona, USA; Univ. 1 ; 2 FiO/LS 2015 20:00–22:00 Invited , Kyle J. Myers J. Kyle , 1 17:00–20:00 Sacramento The complete schedule can be found in the PDP program and the FiO Mobile App. PDP program The complete schedule can be found in the OIDA Town Hall Forum on Biophotonics Challenges & Opportunities, Club Regent, Lobby Level OIDA Town , Luca Caucci Luca , 1 Fairfield Networking Event, Group Technical 18:00–20:00 Optical Fabrication and Testing Center for Devices and Radiological Health, Food and Drug Drug and Food Health, Radiological and Devices for Center Barrett FW5G.5 • 17:45 Phase-Space Optics, One Photon at a Time, 2 Administration, USA. Administration, The relationship between the Wigner Distribution Function and the spectral photon radiance is discussed for both physical optics and quantum and surveyed, optics. are applications and methods Computational introduced. photon-by-photon phase-space imagers are FW5G • Symposium Honoring Adolf Honoring Adolf FW5G • Symposium Lohmann III—Continued - - FiO 18:00–20:00 Dmitry V. V. Dmitry Glen Ellen Glen Invited We discuss several phenomena several discuss We of Bath, UK. Univ. 1 ; 1 FW5F • Novel Light Generation and Light Generation FW5F • Novel in Fiber Devices III— Manipulation Continued sive Waves, Cherenkov Combs and Raman Effect, Effect, Raman and Combs Cherenkov Waves, sive Skryabin FW5F.6 • 17:30 • 17:30 FW5F.6 Resonantors: Amplification of Disper Solitons in Microring associated with the dispersive wave interaction with solitons with interaction wave dispersive the with associated in microring resonators, which lead to the combs of Cher enkov radiation, soliton based parametric amplification and amplification parametric based soliton radiation, enkov solitons. microring Raman the by induced broadening comb Thursday, 22 October and conversiontoelectrons. interference of light enhances optical absorption Destructive beam. laser incident of wavefront the shaping by cell(DSSC) solar dye-sensitized a in generation photocurrent of control ent France. We demonstrate experimentally coher ParisTech, PSLResearch Univ., InstitutLangevin, Akademi Univ., Finland; Lab, FacultyofScienceandEngineering,Åbo oga Stone Douglas France; and Astronomy, Univ. ofRochester, USA; 94 Liew Fatt ordered Media,Seng Coherent Control ofPhotocurrent inDis- FTh1A.3 •08:30 Hamidreza Ramezani Unidirectional lasing in PT-symmetric cavities, FTh1A.2 •08:15 Neukirch Levi form With Vacuum Levitated Nanodiamonds, Progress Toward a Spin-Optomechanics Plat- FTh1A.1 •08:00 USA Lawrence LivermoreNational Lab, Presider: Cameron Geddes; Rosenholm . Popoff M. and spinstateare presented. manipulation of nitrogen vacancy fluorescence optomechanical including results, Current nanodiamonds. levitated optically using form to construct a hybrid spin-optomechanics plat- Rochester, USA. We discuss experimental efforts Goetschy Xiang Zhang of Rochester, USA; ter forCoherence andQuantumOptics,Univ. Yale Univ., USA; Sciences III FTh1A •GeneralOptical 08:00–10:00 in quasi1Dcavities. mode reflection zero and lasing unidirectional simultaneous with singularities spectral unique nances we propose a new mechanism to realize Using parity-time (PT) symmetry and Fano reso- 3 Chemistry, Yale Univerisity, USA; 1,4 3 1,2 , Nick Vamivakas Cals . Schmuttenmaer A. Charles , 1 Safr W Sheehan W. Stafford , ; 1 1,2 California Univ. Berkeley, of California USA. 1 2 Ea o Haartman von Eva , Hi Cao Hui , CNRS LTCI, Telecom ParisTech, 1 3 , Hao-Kun Li Pharmaceutical Sciences Pharmaceutical 4 Inst. ofOptics,Univ. of 1 ; 4,2 1 ; Applied Physics, 1 Dept. of Physics Dept. of Physics 1 , Yuan Wang 1 Sebastien , 3 3 Jessica , Arthur , 4 ESPCI ESPCI 2 Cen- 3 A. , 1 - ,

Goldberg geneh 1 oe Adato Ronen Circuits, Semiconductor of Testing Security Rapid for Labels Nanoantenna Integrated FTh1B.2 •08:30 On Chip Light-vapor Interactions, FTh1B.1 •08:00 Colorado atBoulder, USA Presider: FabioPavanello;Univ. of Plasmonic Structures FTh1B •LightManipulationin 08:00–10:00 resonances. atomic-plasmonic coupled demonstate we vapor.with modes guided of integration Next, Two systems are described. First, we discuss the strate light vapor interactions at the nanoscale. thereby detecthardware tampering. of every logical gate in an integrated circuit, and enable rapid mapping of the type and location to labels nanoantenna integrated utilizes that demonstrate a multi-spectral imaging technique Hebrew Univ. ofJerusalem,Israel. We demon- 1 Byu Zhou Boyou , 1 , Selim Unlu 1 Adn Uyar Aydan , Valley Invited 1 1 ; Aa Joshi Ajay , 1 We Boston Univ., USA.We 1 Mhod Zan- Mahmoud ,

Uriel Levy 1 Bennett , 07:30–17:30 Registration, FiO/LS 2015 1 ; Padgett Falcao-Filho and GeneralOpticsI FTh1C •Coherence, Interference 08:00–10:00 Beams, Vortex in Circulation Local and Momentum Probability Distributionsfor OrbitalAngular FTh1C.2 •08:30 Mometum, Optical Metrology with Lights Orbital Angular FTh1C.1 •08:00 Glasgow, UK Presider: MartinLavery;Univ. of the detectionofrotational motion. tum. In addition, discuss the use of such light in measurement of lights orbital angular momen- efficientthe for systems optical piece single of development and design the present We UK. in Speirits Fiona of arbitraryshape. momentum and local circulation in vortex beams angular orbital for distributions probability the and experimentally demonstrate how to obtain discuss We Brazil. Federal dePernambuco, 1 ; nesn . Amaral M. Anderson 1 Univ. ofGlasgow, UK; Martin P. Lavery 1 , Cid B. de Araujo 1 Sehn Barnett Stephen , • Crystal FiO 18–22 October 2015 Invited 1 , David Robertson Market Street Foyer 1

; 2 Durham Univ., 1 1 Universidade Eisn L. Edilson , 1 Mls J. Miles , 2 , gina Kruse size quantumstates. large and multipartite specific generate to us approaches to source engineering which enable novel present we Here development. of stage early an at is fabrication source quantum for technology waveguide present The Germany. Sansoni Nonlinear Integrated Quantum Optics, Lodahl with Quantum Dots in Photonic Crystals, Processing Quantum-information Photonic Optics II FTh1D •IntegratedQuantum 08:00–10:00 FTh1D.2 •08:30 FTh1D.1 •08:00 of Bristol,UK Presider: Jeremy L.O’Brien,Univ. plications in quantum-information processing.plications inquantum-information ap- various for waveguides photonic-crystal to coupled deterministically dots quantum single of use the on progress experimental discuss hitn Silberhorn Christine 1 ; 1 , Georg Harder 1 We We Univ. ofCopenhagen,Denmark. 1 , Harald Herrmann Gold 1 ; Invited Invited 1 1 Universität Paderborn, Universität Paderborn, , Stephan Krapick 1 , Tim J. Bartley

Linda Peter Peter 1 , Re- 1 , integrity monitoring,respectively. and monitoring structural global enable which sensors, distributed truly and sensors gauge (SHM) of civil structures and infrastructure: long- Monitoring Health Structural for tools sensing ber Optic Sensors (FOS) offer two unique strain ronmental Engineering,PrincetonUniv., USA.Fi- rno Gliši Branko Glisic Optic Sensors,Branko Based on Long-Gauge and Distributed Fiber Methods for Structural Health Monitoring FTh1E.1 •08:00 Univ., USA Presider: OlavSolgaard, Standford Applications FTh1E •OpticalFiberSensorsI: 08:00–10:00 Structural HealthMonitoring. courses, and the book “Fibre Optic Methods for author and co-author of numerous papers, short structures.is structures,heritage He smart and polymers, SHM data management and analysis, conductive and electronics large-area optics, fiber- on based sensors advanced (SHM), ing Monitor Health Structural areinterest of areas main His EnvironmentalEngineering. and Civil of Department the at Professor Associate of to Princeton University, where he holds position moved he Switzerland, SA, SMARTEC at ence EPFL, Switzerland. After eight-year long experi- University of Belgrade, Serbia, and Ph.D. at the at Mathematics Theoretical and Engineering ć eevd i dges n Civil in degrees his received Empire Tutorial 1 ;

1 Civil andEnvi- - Thursday, 22 October ; 1 95 , Zacharee Zacharee , Maiken H. 1 , Benjamin Shapiro Benjamin , 1 , Roland Probst Roland , 1

, John Fourkas John , 1 , Chad Ropp Chad , Piedmont 1 Invited Invited . We demonstrate 30,000-fold fluorescence fluorescence 30,000-fold demonstrate We . 2 Duke Univ., USA. A colloidally synthesized and Duke Univ., 1 ; , Sanghee Nah Sanghee , 1 1 Univ. of Maryland at College Park, USA. of Maryland Univ. We demonstrate tunable plasmonic platform is utilized for control of radiative of control for utilized is platform plasmonic tunable properties of dye molecules, CdSe/ZnS quantum dots, and MoS monolayer - sponta ultrafast and 1,000, of factors Purcell enhancement, neous emission. a a method to probe the local density of states plasmon of polaritons surface using single quantum dots. We attain better than 10 nm spatial precision, and directly observe image dipole interference. LTh1I.2 • 08:30 LTh1I.2 Strongly Enhanced Light-Matter Interactions using Col- loidally Synthesized Plasmonic Nanocavities, Mikkelsen 08:00–10:00 Coupled • Innovative Metallic-Emitter LTh1I Systems I US Air Force Joshua Hendrickson; Presider: Lab, USA Research • 08:00 LTh1I.1 Quan- Single with Plasmons Surface of Probing Nanoscale Waks tum Dots, Edo 1 Cummins LS ; , - 1 1 Shenhe Shenhe , Ady Arie 1 , Lev Shemer 2 , Agnieszka Popiolek-Masajada Agnieszka , 1 Sun Yat-sen Univ., China. Univ., We Sun Yat-sen study 2 Invited Hillsborough , Jianying Zhou 1 Dept. of Optics and Photonics, Wroclaw Univ. Univ. Dept. of Optics and Photonics, Wroclaw 1 ; 1 Mateusz Szatkowski Mateusz , Yuval Tsur Market Street Foyer Market Street 1,2 Tel-Aviv Univ., Israel; Univ., Tel-Aviv the propagation dynamics of surface gravity water wave Airy wave water gravity surface of dynamics propagation the pulses in the linear and nonlinear regimes. The low carrier phase position-dependent the observing enables frequency time. of the Airy pulse for the first Jan Masajada Jan 1 bance, Presider: Shu Jia; SUNY Stony Brook, USA Shu Jia; SUNY Stony Brook, Presider: • 08:00 LTh1H.1 Surface Gravity Water Wave Airy Wavepacket, • 08:30 LTh1H.2 Phase Distur Behavior due to Introduced Optical Vortex 08:00–10:00 Propagation • Complex Wave LTh1H Fu Presented work is the next step into step next the is work Presented Poland. of Technology, creating effective procedure for surface topography - recon struction from Optical Scanning Vortex Microscope data. It introduced object to due behavior vortex optical on focuses by Spatial Light Modulator. 18–22 October 2015 , 1 • Hasan Hasan E. Kondakci CREOL, Univ. of Central Univ. CREOL, 1 ; 1 FiO/LS 2015 Registration, Registration, 07:30–17:30 Stanford Univ., USA. Univ., Stanford Complex 1 ; 1 Invited , Bahaa Saleh Bahaa , 1 Sacramento Mark Brongersma Ayman Abouraddy Ayman aperiodic devices can outperform periodic ones and offer new functionalities. In this presentation, I will describe the aperiodic ultra-compact, of properties optical and realization in a metal film. groove-arrays FTh1G.2 • 08:30 Lattice Topology Dictates Photon Statistics in One- Dimensional Disordered Lattices, 08:00–10:00 of FTh1G • Optics and Photonics Systems I Disordered degli Massimo Gurioli; Universita Presider: Italy Studi di Firenze, FTh1G.1 • 08:00 Using Disorder to Create New Nanophotonic - Function ality, Florida, USA. We examine propagation of coherent light in non-trivial with lattices photonic disordered one-dimensional topological structures. We show that the field statistics be- even-sited-ring in only plane phase the in noncircular comes disorder. and linear lattices with off-diagonal

, 1 FiO Univ. of of Univ. 1 ; 1

Univ. of California Berkeley, USA. of California Berkeley, Univ. 1 , Timothy D. Wilkinson 1 ; 1 Invited Glen Ellen Glen Laura Waller 08:00–10:00 and Sensing Optical Computational • FTh1F Imaging I We propose and demonstrate a new imple- new a demonstrate and propose We Cambridge, UK. optical diffractive a using imaging compressive of mentation produces to hologram static a utilises method This element. recovered. be can image original the which from array spot a Stephen Stephen J. Kindness We We describe new methods for high-resolution 3D imaging with illumination and detection-side coding of angle (Fourier) space with fast acquisition times. The result is high-resolution a gigapixel image in multiple depth planes times. with fast capture FTh1F.2 • 08:30 FTh1F.2 An Implementation of One-Shot Compressive Imaging Macfaden Optical Element, Alexander Using a Diffractive High Resolution 3D Computational Imaging in Scattering High Resolution 3D Computational Media, FTh1F.1 • 08:00 • 08:00 FTh1F.1 Presider: Michael Gehm; Duke Univ., USA Univ., Michael Gehm; Duke Presider: Thursday, 22 October of CentralFlorida,CREOL,USA; 96 Zeldovich Y. Boris Anisotropic Dielectric and Magnetic Tensors, with Medium a in Propagation Wave EM FTh1A.6 •09:15 1 version, Arbitrary designableopticalfrequency con- FTh1A.5 •09:00 2 quillare An- Range,Emma Extinction intheVisible Tunable-Bandwidth and Broad- Efficient for Nanoplates Silver Aspect-Ratio-Tailored FTh1A.4 •08:45 Sciences III—Continued FTh1A •GeneralOptical of mu/epsilon. root square tensor: impedance of anisotropy on depends it polarizations; two differencefor propagation is latter The birefringence. from propagation direction is shown to be decoupled on velocity phase of Dependence Inc., USA. range extinction. extinction Normalized ( nanoplates excel at volume-minimized, visible- silver aspect-ratio-tailored that demonstrate experimentally and predict computationally Chemical BiologicalCenter, USArmy, USA.We tvn Johnson Steven DeLacy G. Brendan previous experiments. over increase six-fold a is and windows three in limits theory meets or approaches closely mid-infrared inanumericalexperiment. broad spectral region from vacuum-ultraviolet ultra- to an covers that laser tunable frequency single the demonstrate we example, typical a As conversions. frequency optical designable arbitrarily- discuss We ERATO-IOS, Japan. Univ. ofElectro-Communications, Japan; Physics, Harvard Univ., USA; 1 Oe D Miller D. Owen , Jian Zheng California 1 Mrn Soljacic Marin , 1 1 Nda Baranova Nadia , , Masayuki Katsuragawa 3 Jh Joannopoulos John , 1 Ci Wi Hsu Wei Chia , 1 ; 3 Edgewood 1 MIT, USA; 2 Q-Peak, 2 ; σ 1 Univ. ext 2 JST /V) 1,2 1,2 1 , , ; higher rate. with provoked be might transitions multipole molecules, of function wave the with coincide distributions field such If ring. the of inside nanoring that supports quadrupole electric field We theoretically propose plasmonic crystal with stein Leuthold Yannick Salamin Yannick Antenna CoupledPlasmonicModulator, FTh1B.5 •09:15 Sakai Kyosuke Crystal, Plasmonic in Field Quadrupole FTh1B.4 •09:00 Broadband Excitations, Arbitrary SpectralShapingofPlasmonic FTh1B.3 •08:45 nor electronic amplificationisneeded. down-conversion electronic neither Therefore, antenna. receiving RF the in embedded lessly optical signal. The plasmonic modulator is seam- an onto carrier RF GHz 60 a of up-conversion of Washington, USA. Omura pulse shaping. plications are broadband sensors and ultrashort ap- potential the Among shape. temporal the unprecedentedallowing controlgratings, over band spectrum are launched using holographic broad- arbitrary an having polaritons plasmon Elder Heni ui Fedoryshyn Yuriy Plasmonic Structures—Continued FTh1B •LightManipulationin 1 1 2 , Christian Haffner , Ady Arie Ady , , Larry Dalton Larry , 1 , Keiji Sasaki Keiji , 1 ; 1 ETH Zurich, Switzerland; 1 1 Tkai Yamamoto Takeaki , 1 ; , Romain Bonjour Romain , 1 Valley Tel Aviv Univ.,Surface Israel. 1 Mro Zahner Marco , 2 1 , Christian Hafner Christian , ; e eosrt direct demonstrate We 1 1 Hokkaido Univ., Japan. , Claudia Hoessbacher ua TsurYuval 1 , Wolfgang , 1 1 1 Ia Ep- Itai , Tatsuya , Delwin , 1 , Juerg , 2 Univ. FiO/LS 2015 1 , Shahriar Velasquez and experiments. and 2D distributions of TC are analyzed in theory Coulomb-like potential for OV. Pure multipoles a to rise gives plane transverse beam the over It is shown in this work that a distribution of TC characterized by their Topological Charge (TC). Brazil. Pernambuco, Optical Vortices (OV) can be Anderson M. Amaral M. Anderson A Coulomb-like Potential for Optical Vortices, FTh1C.3 •08:45 Jefferson Florez Variables: the SpatialAlford andGoldEffect, Light Interference in Position and Momentum FTh1C.5 •09:15 Correlation, Clip Video Spatio-Temporal Optical All for Inhomogeneously Broadened AtomicMedium an Transfer-function of Three-dimensional FTh1C.4 •09:00 los Andes,Colombia; oe Salazar-Serrano Jose Gold effect. and Alford temporal the to analogous is This position. in interfere not do they that such is separation beams’ the when plane Fourier the in observed is beams parallel-propagating Fotoniques, Spain. Intensity modulation of two three-dimensional transferfunction. invariant manner can be modeled as a one-term, in a video file in a temporally and spatially shift contained clip video a rapidly recognizes that that an opto-atomic spatio-temporal correlator i B d Araujo de B. Cid and GeneralOpticsI—Continued FTh1C •Coherence, Interference 1 ; 1 1 , Alejandra Valencia We show Univ.,Northwestern We USA. Mehjabin Sultana Monjur Sultana Mehjabin 1 • , Omar Calderon-Losada Crystal 1 ; FiO 1 1 Universidade Federalde 18–22 October 2015 2 , Edilson L. Falcao-Filho L. Edilson , 1,2 ICFO-Institut de Ciencies ICFO-Institut deCiencies

Ja-aal Alvarez- Juan-Rafael , 1 ; 1 Universidad de Universidad de 1 , Selim , 1 , Luis- 1 , of 89+/-3%and95.6+/-3.7%,respectively. interferometry experiments displaying visibilities tetized through Hong-Ou-Mandel and a Franson charac- is device The pairs. photon entangled energy-time and indistinguishable highly of LPN, France. We demonstrate an AlGaAs source Ducci is discussed. quantum optical arbitrary waveform generation and qdits temporal using encoding mensional di- higher for devices such of potential The guide, wave- Niobate Lithium diffused Titanium- in Conversion Frequency Quantum Low-noise FTh1D.4 •09:15 Photons, Entangled Energy-Time and tinguishable Integrated AlGaAsSource ofHighlyIndis- FTh1D.3 •09:00 2 Gomez Andrew Fraine Martin Anthony us-hs mthd Ti:LiNbO matched quasi-phase using Conversion Frequency Quantum level ton Univ., USA. We demonstrate single-photon Optics II—Continued FTh1D •IntegratedQuantum Group ofAppliedPhysics,Switzerland; 1 Hg Zbinden Hugo , Abu Thomas 3 Ia Favero Ivan , lie Autebert Claire 1 , Alexander V. Sergienko 2 Aitd Lemaitre Aristide , Gold 1 , Mackenzie A. VanCamp 1

Giep Leo Guiseppe , 2 ; 1 Lab MPQ,France; 1 Ntla Bruno Natalia , 3 waveguides. 3 , Carmen Carmen , 1 1 ; Sara , 1 Bos- 3 Lab 2 1 , , Wang Vohnsen n Chen an Approach, Optic Gyroscope: anOptical Compensation Fiber Interferometric Dual-Polarization The FTh1E.4 •09:15 2 Optical Fiber Array, Quadrant a on Based Sensor Tracker Solar FTh1E.3 •09:00 Mine Safety, Amiya R. Behera Fiber OpticGasMonitoringSystemforCoal FTh1E.2 •08:45 detection from 0.01%to50%concentration. Methane for evaluated is system sensor The mines. coal inside monitoring atmospheric for spectroscopy has been designed and fabricated toring system based on wavelength modulation ization maintainingsensingcoilisproposed. polar in configuration A ports. nonreciprocal and reciprocal both in compensation optical realizes gyroscope optic fiber interferometric izer as a polarization filter, the dual-polarization Peking Univ., China. By utilizing a Lyot depolar Systems andNetworks,Dept.ofElectronics, Key LabofAdvancedOpticalCommunication Denise Valente ing systems. Fibers is proposed and analyzed for solar track- Ytterbium-Doped of quadrant a waveguide, a Exploring the directionality of light coupling to Applications—Continued FTh1E •OpticalFiberSensorsI: School ofPhysics,Univ. CollegeDublin,Ireland. 1 ; 1 Virginia Tech, USA. A multiple gas moni- 2 1 ; Ca Peng Chao , 1 Universidade de Pernambuco, Brazil; Brazil; Universidade dePernambuco, Rongya Luo 2 , Luis Arturo G. Malagón Empire ig J Rtv Millán Rátiva J. Diego 1 1 , Zinan Wang Zegi Li Zhengbin , 1 , Bo Dong 1 , Fangyu- 1 ; 1 1 , Anbo , Brian 1 State 1 - - ,

Thursday, 22 October 97 Sean Sean , - Wen 1 , Lei Kang 1 , Shoufeng Lan 1 Piedmont Invited Georgia Inst. of Technology, USA. We present a Technology, Inst. of Georgia , Yonghao Cui , Yonghao 1 1 ; 1 chiral metamaterial that exhibits both distinguishable linear metamaterial the of center chiral The features. nonlinear and is opened for direct access, where emitters occupying the enhancement chiral-selective produce regions light-confining of two-photon luminescence. LTh1I.3 • 09:00 LTh1I.3 Quantum from Luminescence Two-Photon of Enhancement Emitters: Metamaterial-Enabled Chiral Selectivity, Rodrigues shan Cai LTh1I • Innovative Metallic-Emitter Coupled Metallic-Emitter Coupled • Innovative LTh1I Systems I—Continued LS , , , 1 1 1,2 Indian Inst. Aadhi A 2 , R. P. Singh , R. P. 1 , Gilad Barach Gilad , 1 Technische Universität Technische 1 ; 1 Weizmann Inst. of Science, Weizmann 1 , Pravin Vaity 1 ; 1 , Chene Tradonsky Chene , 1 Invited , Jabir M V Physical Research Lab, India; Physical Research 1,2 1 ; Hillsborough , Nir Davidson Nir , 1 1 , Vishwa Pal Vishwa , 1 Benjamin Stadtmüller Asher A. Friesem A. Asher Apurv Chaitanya N Samanta Goutam Talbot diffraction coupling is exploited for controlling controlling for exploited is coupling diffraction Talbot Israel. effects charge topological demonstrating and locking phase in laser arrays formed in a Experimental degenerate cavity. and calculated results for different array geometries are demonstrated. In Kaiserslautern, Germany. this presentation, we will dem- momentum and lifetimes electron quasi-elastic how onstrate hybrid metal-organic at electrons excited of dynamics space two-photon of combination the by studied be can interfaces photoemission and momentum microscopy. LTh1H.4 • 09:00 LTh1H.4 Talbot coupling of laser arrays in a degenerate cavity, Chriki Ronen • 09:15 LTh1H.5 at Hybrid Electrons Dynamics of Space Momentum Interfaces, LTh1H.3 • 08:45 LTh1H.3 High-Power, Continuous-wave, Source Of Coherent Radiation In 2-D Airy Intensity Distribution, of Technology Gandhinagar, India. We Gandhinagar, demonstrate a of Technology new producing OPO, on based source beam Airy tunable of class high-power, continuous-wave, single-frequency Airy beam and 460nm of tunability total provides source The radiation. beam structure. maximum of 8.1W in 2D-Airy LTh1H • Complex Wave Propagation— Wave • Complex LTh1H Continued 18–22 October 2015 • , - Toshi 1 , Alexey , Takeshi Takeshi , 1 1 Tata Inst. of of Inst. Tata 1 Gumma Univ., Gumma Univ., ; ; 2 1 Missouri Univ. of Sci- Missouri Univ. 2 Raktim Sarma , Hideki Fujiwara , Naoto Koshizaki Naoto , 1 3 FiO/LS 2015 Japan. Shimane Univ., We observed , , Sushil A. Mujumdar 4 1 Yale Univ., USA; Univ., Yale Hokkaido Univ., Japan; Japan; Hokkaido Univ., 1 1 ; Sacramento ; 1 1 , Yoshie Ishikawa Yoshie , 2 , Hui Cao AIST, Japan; Japan; AIST, Ravitej Ravitej Uppu 2 3 , Keiji Sasaki 4 Japan; Yamilov We report a first study on the on study first a report We India. Fundamental Research, extreme value statistics of intensity in random lasers. The estimated extreme value index identified a forward transition to from near-Gumbel Frechet distribution, followed by the return. double threshold behavior with the lasing peak blue-shift in a resonance-controlled ZnO random laser. The present coupling strong realizing for possibility the suggested study structures. random in modes localized single and excitons of FTh1G.5 • 09:15 value statistics of intensity fluctuations in random Extreme lasers, FTh1G.4 • 09:00 Control of Transmission Eigenchannels by Modifying the Geometry of Turbid Media, FTh1G.3 • 08:45 FTh1G.3 • 08:45 Double threshold behavior in a resonance-controlled Ryo ZnO random laser, Niyuki hiro Nakamura hiro We manipulate light transport in a in transport light manipulate We USA. ence & Technology, The shape. boundary the tailoring by waveguide disordered deterministically is channels transmission of structure spatial and significantly modified, enabling an efficient control of deposition inside the turbid medium. energy Tsuji FTh1G • Optics and Photonics of and Photonics of FTh1G • Optics Systems I—Continued Disordered , ; 1 1 FiO , Patrick J. Patrick , 1 , John T. Sheridan T. John , 1 Furkan E. Sahin E. Furkan Univ. of Southern California, Univ. 1 ; 1 Univ. of Central Florida, CREOL, USA; CREOL, Florida, Central of Univ. , Changliang Guo Changliang , 1 1 ; ; 2 Glen Ellen Glen , Xin Yuan Xin , 1 , Armand R. Tanguay R. Armand , 1 Ireland. College Dublin, We Univ. propose a simplest way We present a compressive video microscope microscope video compressive a present We Labs, USA. Bell USA. An imaging system design procedure for miniature wide-field-of-view computational cameras is presented. Improved performance can be achieved by allowing lateral chromatic aberration in the optical design, with correction in computational post-processing. provided based on structured illumination with incoherent light source. source. light incoherent with illumination structured on based The setup can be easily adapted in a conventional illumination epi- microscope. We demonstrate a reconstructed video with frame rate of 200 frames per second. Nasiatka Sudharsan Rajasekaran Sudharsan of capturing multispectral 2D elemental images (EIs) in the computational integral imaging using compressive sensing (CS). Simulations show that the performance of 3D systems remains superior even when EIs are recovered from the sparse samples. 2 FTh1F.5 • 09:15 FTh1F.5 Microscopy, Compressive Temporal Illumination Structured Pang Shuo FTh1F.4 • 09:00 • 09:00 FTh1F.4 Wide-Field- in Optimization Aberration Chromatic Lateral Cameras, Computational of-View Multispectral single-channel 3D computational integral sensing, Inbarasan imaging using compressive Muniraj 1 FTh1F • Computational Optical Sensing and Sensing Optical Computational • FTh1F Imaging I—Continued • 08:45 FTh1F.3 Thursday, 22 October minimum reflection withincreasing gain. the in reduction a cause may modes resonant excited the of interference destructive hanced En- medium. random a in channel reflection the effect of light amplification on the minimum plied Physics,Yaleinvestigate We Univ., USA. 98 plifying Media,Seng Fatt Liew Am- Random in Light of Reflection Reduced FTh1A.8 •09:45 Sciences III—Continued FTh1A •GeneralOptical Univ. ofMaryland,USA; on amicrocantilever inambientconditions. to quantitatively measure the radiation pressure experiment is presented to separate them and An effects. photothermal by obscured often is measurement its However, object. an on sure presreflectionradiation Light generates USA. - land, USA; Electronics andAppliedPhysics,Univ. of Mary- 1 kang Ma ent ConditionsUsingaMicrocantilever, Da- Radiation Pressure Measurement underAmbi- FTh1A.7 •09:30 Dept. of Electrical and Computer Engineering, Dept. ofElectricalandComputerEngineering, 1,2 , Joseph Garrett 3 Dept. ofPhysics,Univ. ofMaryland, California 2 2,3 Inst. forResearch in , Jeremy Munday 1 , Hui Cao 1 ; 1 Ap- 1,2 Follow @Opticalsocietyon Twitter. ; ming Centres, Electron Spin Resonance of Nitrogen Vacancy Surface PlasmonPropagation Controlled by FTh1B.7 •09:45 spin statesofnitrogen-vacancy centres. electron the of pumping frequencymicrowave coupled surface plasma propagation under the We report on the observation of nanodiamond Plasmonic Structures—Continued FTh1B •LightManipulationin tive interference. destruc- and constructive between oscillate to cavity the in waves the causes layer dielectric ing structures. Varying the thickness of the thin nanograt- on layer dielectric a of effect cavity Huang aortn Structures, Nanograting on Layer Dielectric a of Effect Cavity FTh1B.6 •09:30 Jonathan Hu China; 1 Mn Gu Min , Join theconversation. 1 Use hashtag#FiO15 , Xin Zhang 3 e td the study We Nanjing Univ., China. ara Al-Baiaty Zahraa 1 ; 1 Baylor Univ. , USA; 1 ; Valley 1 2 Swinburne Univ.,Swinburne Australia. , Haitao Liu

ho Niu Chao 1 Bnai Cum- Benjamin , 2 , Weihua Zhang 10:00–10:30 2 Nankai Univ., 1 Tiffany , FiO/LS 2015 3 ,

phase onlyspatiallightmodulator. a by tailored field optical an to photopolymer a exposing by achieved is This trapping. atom ity holographic optical elements(HOEs) for cold present a simple method of creating high qual- Withdrawn. FTh1C.6 •09:30 eate Tempone-Wiltshire cold atoms,Sebastien High efficiency holographicopticaltrapsfor FTh1C.7 •09:45 P. Helmerson Shaun P. Johnstone and GeneralOpticsI—Continued FTh1C •Coherence, Interference Coffee Break, MarketStreet &SouthTower Foyers

1 ; • 1 Crystal We We Monash Univ., Australia. FiO 1 , Phillip T. Starkey 18–22 October 2015 1 , Kristian 1 , guides, ing Inhomogeneously Poled Nonlinear Wave- Bell StateGenerationandPumpFilteringUs- FTh1D.5 •09:30 Andrey Sukhorukov and the reconfigurable generation of Bell states. by down-conversion. This allows pump filtering produced wavefunction pair photon the of ing shap- allow can waveguides nonlinear coupled that special domain in poling arrays patterns of distributed betweenchips. coherently and on-chip, measured and ated gener are states Entanglement 2.638±0.039. observing a violation of a Bell-type inequality of across two integrated silicon photonic chips, by strate high-fidelity distribution of entanglement Engineering, Univ. ofGlasgow, UK. We demon- . O’Brien L. cations Technology (NICT),Japan; Communications Technology (NICT), Japan; Milano, Italy; Nanotecnologie, DipartdiFisica-Politecnico 4 ing, Univ. ofBristol,UK; & Dept.ofElectricalandElectronic Engineer Quantum PhysicsPhotonics, Lab H. H. Wills grated siliconphotonicchips,Jianwei Wang inte- between distribution Entanglement FTh1D.6 •09:45 Yamashita ioaa Terai Hirotaka Damien Bonneau . Natarajan M. stone Optics II—Continued FTh1D •IntegratedQuantum National Inst. of Information andCommuni- National Inst.ofInformation 1 , Raffaele Santagati James Titchener 3 1 , Mikio Fujiwara Mr G Thompson G. Mark , 3 5 National Inst. of Information and National Inst.ofInformation 4 Rbr H Hadfield H. Robert , Mcal . Tanner G. Michael , 1 , Matteo Villa Gold 1 ; 1 ANU, Australia. We show 1 2 1 , Alexander Solntsev , Shigehito Miki Istituto di Fotonica e 4 , Masahide Sasaki 1,2 , Joshua Silver 1 ; 1 5 Centre for 5 Chandra , 5 School of Jeremy , 3 , Taro 4 1 1 - - - , , , travelling-electric fieldswithinthewaveguide. guided fully of detection endoscopic realizes heterodyne scheme in the V-band. This system electric field measurements based on a photonic and power for system sensing electro-optic an present We dards andScience(KRISS),Korea. uR Song Du-Ri Electro-optic V-band Power Sensing System, FTh1E.6 •09:45 Dong-Joon Lee Applications—Continued FTh1E •OpticalFiberSensorsI: Mishra is observed. gas chlorine of concentration increasing with nm 14 of shift peak A nanoparticles. ZnO and (LMR) resonance mode lossy using sensor gas chlorine optic fiber a of characterization and nology,fabrication the reportWe Delhi,India. Nanoparticles, Chlorine GasSensorUsingZincOxide Optic Fiber Based Resonance Mode Lossy FTh1E.5 •09:30 1 , Banshi D. Gupta 1 So Kim Seok , 1 ; Empire rti P. Usha Sruthi 1 Korea Research Inst.ofStan-

1 1 JeYug Kwon Jae-Young , ; 1 Indian Inst. of Tech 1 Steda K. Satyendra , 1 - , Thursday, 22 October 99 Univ. Univ. 1 ; 1 Mikhail A. Belkin A. Mikhail Piedmont Invited pm/V and conversion efficiency ~0.1% were measured measured were ~0.1% efficiency conversion and pm/V 6 for second-harmonic generation. LTh1I.4 • 09:30 LTh1I.4 Flat Nonlinear Optics: Efficient Frequency Conversion in Metasurfaces, Nonlinear Ultrathin We report highly-nonlinear ultrathin highly-nonlinear report We USA. at Austin, of Texas metasurfaces based on coupling of modes phase- in with nonlinearities plasmonic intersubband with nanoresonators susceptibility Nonlinear response. optical nonlinear of control >10 LTh1I • Innovative Metallic-Emitter Coupled Metallic-Emitter Coupled • Innovative LTh1I Systems I—Continued LS , 1 Dept. of Physics,, , Sergey Sukhov 2 1,2 1CREOL, The College of Optics and 1CREOL, The College of Optics and 1 ; Hillsborough 1 Roxana Rezvani Naraghi Photonics, Univ. of Central Florida, USA; Photonics, Univ. Near-field of Central Florida, USA. measurements on Near-field Univ. mesoscopic, strongly scattering media and systematic numerical calculations are used to establish the dependence homogene- statistical the and distributions intensity between disorder. with controlled ity of random structures LTh1H.6 • 09:45 LTh1H.6 Near-Field Intensity Fluctuations: the Role of Disorder Correlations, Aristide Dogariu LTh1H • Complex Wave Propagation— Wave • Complex LTh1H Continued 18–22 October 2015 - • , Hang , 1,2 , Krishna 1 , Qihuang , 3 W state in an , Ying Gu Ying , 1 Market Street & South Tower Foyers & South Tower Market Street Break, Coffee Surajit Paul , Tiancai Zhang Tiancai , 1 FiO/LS 2015 State Key Lab of Quantum Op- Collaborative Innovation Center 3 2 Juanjuan Ren Juanjuan 10:00–10:30 Sacramento , Dongxing Zhao Dongxing , 1 India. Delhi, We Technology, of Inst. Indian 1 ; 1 State Key Lab for Mesoscopic Physics, Dept. of State Key Lab for Mesoscopic Physics, Dept. of 1 ; 1,2 , Fan Zhang Fan , 1 Thyagarajan FTh1G.6 • 09:30 FTh1G.6 • 09:30 Single Photon Quantum in Walk Arrays Waveguide with Next-nearest Neighbor Interaction, show how the next nearest neighbor interaction modifies the modifies interaction neighbor nearest next the how show arrays waveguide 1-D in characteristics propagation photon and how this enables us to realize a 5 partite array of 5 equally spaced waveguides. of Quantum Matter,, China; of Quantum Matter,, Gong FTh1G.7 • 09:45 Evanescent-Vacuum-Induced Coupling Coefficient En Nanocavity, in hancement Physics, Peking Univ., China; Physics, Peking Univ., Lian tics and Quantum Optics Devices, Inst. of Opto-Electronics, tics and Quantum Optics Devices, Inst. of Opto-Electronics, China. Shanxi Univ., We theoretically demonstrate the of guiding nanoscale and enhancement coefficient coupling system electrodynamics quantum cavity in photons emitted evanescent in nanorod Ag a and emitter single a of consisting by a single-mode nanofiber. vacuum provided FTh1G • Optics and Photonics of and Photonics of FTh1G • Optics Systems I—Continued Disordered , 1 FiO , Carina Toxqui- 1 , Praveen Phinehas 1 Universidad Politecnica Politecnica Universidad 1 Vellore Inst. of Technology, Inst. of Technology, Vellore ; ; 1 1 ; 1 Glen Ellen Glen , Anith Nelleri 1 Prakash Ramachandran , , Alfonso Padilla-Vivanco 1 Compressive sensing is applied for Digital in-line Ho- in-line Digital for applied is sensing Compressive India. in sparse is wave object the assuming Microscopy lographic of free is image complex reconstructed The domain. spatial numerical of method conventional to compared when noise reconstruction. Compressive Compressive Sensing For Digital In-line Holographic Microscopy, FTh1F.6 • 09:30 FTh1F.6 Zachariah Alex In optical microscopy, the depth of Mexico. In optical microscopy, De Tulancingo, field (DOF) is limited by the physical characteristics of the image forming systems. In order to extend the DOF of microscopic system, a this paper a method of image fusion and multi-pronged approach based module gradient color planes is proposed. Quitl FTh1F.7 • 09:45 • 09:45 FTh1F.7 Images for Extended Image Fusion of Color Microscopic the Depth of Field, Roman Hurtado Perez FTh1F • Computational Optical Sensing and Sensing Optical Computational • FTh1F Imaging I—Continued Thursday, 22 October Selvaraj 100 surement withalowresolution spectrometer. mea- allow and gases other from interference avoid to used is etalon freespace A biogas. in for MeasuringCH Superluminescent Diode Coupled with Etalon FTh2A.3 •11:00 Invisible Scatterers and Cloaks, Localized Parity-Time Symmetric Directionally FTh2A.2 •10:45 2 Refraction, Generalised Upon Transformations Phase FTh2A.1 •10:30 Germany Planck-Institute furQuantenoptik, Presider: LaszloVeisz, Max- Sciences IV FTh2A •GeneralOptical 10:30–12:00 iutnos esrmn o CH of measurement simultaneous for demonstrated is spectroscopy absorption based diode Superluminescent Madras, India. can be transformed. can betransformed. of those light-ray fields the that transformation wave-optically forbidden fields. We investigate into fields light-ray incident transform would refraction of laws generalised Many eter, UK. the methodare discussed. simulations. Implications and generalizations of introduced and verified by numerical scattering ric directionally invisible scatterers and cloaks is for designing localized parity-time (PT) symmet aeda M S Nagendra Greg Gbur Courtial K. Johannes Dept. ofPhysicsandAstronomy, Univ. ofEx- 1 , Sulochana K Sulochana , 1 ; io Horsley Simon 1 UNC Charlotte, USA. A technique California 1 ; 1 4 Indian Inst.ofTechnology andCO 1 ; 1 , Nilesh J. Vasa J. Nilesh , 1 Univ. ofGlasgow, UK; 2 2 Toa Philbin Thomas , inBiogas,Ramya Elisa Hurwitz 4 n CO and 1 , Shiva , 2 1 - 2 , , all-silicon waveguidesare reviewed. as well as nitride, silicon and glass cogenide with lithium niobate, tantalum pentoxide, chal- Heterogeneous platforms that integrate silicon photonics. integrated mid-infrared and near- insulator platform has several shortcomings for silicon-on- The Central Florida,CREOL,USA. Sasan Fathpour Sasan Insulator Platform, Silicon-on- the Beyond Photonics Silicon FTh2B.2 •10:45 guides, WaveSilicon in - Absorption CrossNonlinear FTh2B.1 •10:30 Illinois atUrbana-Champaign,USA Presider: JohnDallesasse;Univ of FTh2B •PhotonicsonSilicon 10:30–12:00 a simplemethod. extracted the effect of each loss on powers using experimentally We XTPA. including derived is probe the of solution analytic An scheme. probe-pump the using waveguides silicon in absorption nonlinear cross investigated We Materials, Argonne National Lab, USA; Jochen Schroeder of Sydney, Australia; Lefrancois Australia; of ElectricalandComputerEngineering,RMIT, Young Zhang Young 4 1 Dept. ofPhysics,Univ. ofYork, UK. , Isabella H. Rey,H. Isabella , Valley 3 , Benjamin Eggleton Invited 1 , Chad Husko Chad , 2 Center forNanoscale 4 , Thomas Krauss Thomas ,

1 ; 2,1 1 , Simon , Univ. of 3 1 School ; 1 Univ. FiO/LS 2015 4 , Glebov Central Florida,USA Presider: StephenKuebler, Univ. of and GeneralOpticsII FTh2C •Coherence, Interference, 10:45–12:00 1 VolumeMokhov Bragg Grating,Sergiy Chirped Transversely by Reflection Beam FTh2C.3 •11:00 ich Filtering, MoiréSpectral and Chirped BraggGratingforBeamCombining FTh2C.2 •10:45 Withdrawn. FTh2C.1 •10:30 Divliansky culated, togetherwithspectralcharacteristics. reflectedbeam Gaussian of areTCVBG by cal- reflectivity suppression and quality deterioration Resonant cavities. laser of designs different in wavelength resonant of tunability provides versely chirped volume Bragg grating (TCVBG) spectral combfilter. producing shown is incidence normal at CBG patterned Moiré combining. beam spectral beam stretching allowing for spectroscopy and transverse wavelength-dependent producing shown is incidence tilted at (CBG) Grating USA; TransUniv.- ofCentralFlorida,CREOL,USA. 1 Sri Kaim Sergiy , 2 hre Bragg Chirped OptiGrate Corp,USA. 1,2 ; 1 , Leonid Glebov 1 Univ. ofCentralFlorida,CREOL, • Crystal 1 Vdm Smirnov Vadim , FiO 18–22 October 2015 1 , Boris Y. Zeldovich Boris Y.Boris Zeldov- 2 Leonid , 1 , Ivan , 1 ; QKD experiments. satellite basic the conduct to plan future the and micro-satellites onboard communications the world first in-orbit verification of space laser nications in Japan are presented which include Japan. Recent activities on space laser commu- andCommunicationTechnology,Information Communication SystemsLab,NationalInst.of for Micro-Satellites, VerificationIn-Orbit First and Japan in tions Recent Activities on Space Laser Communica- 1 Diamanti Continuous Variables, Eleni Quantum using Keys Secret Distributing Calgary, Canada Presider: Wolfgang Tittel; Univ. of Communications I FTh2D •Quantum 10:30–12:00 FTh2D.2 •11:00 FTh2D.1 •10:30 perspectives inthefield. exciting discuss also We implementations. such of security practical the of analysis the and experiments long-distance including tion, distribu- key quantum continuous-variable in state-of-the-art the of overview Weprovidean Telecom-Paristech, France; Gold Morio Toyoshima Invited Invited 2 CNRS, France.

1 ; 1 Space Space 2,1 ;

immunotherapy process. photo- a during temperature and pressure of capability monitoring real-time its strated demon- and cavities Fabry–Pérot dual with Health, USA. We designed a fiber optic sensor Tombelli hja Zhang Using aFiberOpticSensor, Zhijian Photo-Immunotherapy Infrared Near during In Vivo Pressure and Temperature Monitoring FTh2E.2 •11:00 Gratings, Period Long by Biosensing Label-free High-performance FTh2E.1 •10:30 UK Presider: DavidHill;OptaSense, Biosensors FTh2E •OpticalFiberSensorsII: 10:30–12:00 label-free opticalplatforms. other to respect with changes index refractive expanding and alternative option for measuring emergent, an are LPGs years. few a since sors (LPGs) have been proposed as label-free biosen- gratings fiber Nello Carrara,Italy.period Long Univ. ofMaryland,USA; io Yu Miao Hyungdae Bae Hyungdae Chiavaioli Francesco kamura 2 , Peter Choyke Peter , 1 1 , Cosimo Trono ; 1 Dept. ofMechanicalEngineering, 1 , Tadanobu, Nagaya Empire 1 Invited , Ambra Giannetti Ambra , 2 1 , Hisataka Kobayashi Hisataka , ; 1 rnec Baldini Francesco Ist di Fisica Applicata Ist diFisicaApplicata 2 National Inst.sof

2 , Yuko, Na- 1 , Sara , 1 1 2 , , , Thursday, 22 October , 1 Ioffe Ioffe 1 , Alex 1 101 ; Evyatar 1,2 , Shlomi Bouscher , Leonid Rybak 1 1 Alexander N. Poddubny , Roni Winik 1 Piedmont Invited Invited , Vicky Perepelook 1 Russia. ITMO Univ., We will present latest 2 Technion, Israel. Technion, We showed superconducting 1 , Raja Marjieh ; 1 1 Inst., Russia; Nimrod Ginzberg Ginzberg Nimrod Hayat proximity in semiconductor proximity light-emitting diodes proposed by us for enhanced two-photon gain and electrically-driven - supercon high-Tc produced We sources. entangled-photon high-Tc demonstrated and insulators topological in ductivity tunnel diodes. superconductor-semiconductor LTh2I.2 • 11:00 LTh2I.2 Semiconductor-Superconductor Hybrid Devices, Sabag 10:30–12:00 Metallic-Emitter Coupled • Innovative LTh2I Systems II at of Maryland Univ. Edo Waks; Presider: USA College Park, • 10:30 LTh2I.1 Photon and Plasmons Photons, of States Edge Topological Pairs in Nanostructures, experimental experimental results for classical edge states of photons and all-dielectric resonant of chains zigzag in plasmons and plasmonic particles and discuss the quantum edge states of photon pairs. LS , 1 Université 2 , Yaron Bromberg Yaron , 2 Yale Univ., USA. We Univ., Yale 1 ; 1 Yale Univ., USA; Univ., Yale

1 ; 1 , Arthur Goetschy Arthur , 1 Invited , Hui Cao 1 Hillsborough Chia Wei Hsu Wei Chia We extend the concept of transmission of concept the extend We France. Paris-Diderot, eigenchannels to describe polychromatic light with a common wavefront. Due to the long-range spectral correlation of the media, significant enhancement of total transmission light. is possible even for broadband A. Douglas Stone LTh2H.1 • 10:30 LTh2H.1 in Absorption and Transmission Light of Control Coherent Hui Random Scattering Media, Cao • 11:00 LTh2H.2 Polychromatic Eigenchannels Transmission of Scattering Media, 10:30–11:30 in Scattering • Light propagation LTh2H Media Univ., Colorado State Field, Jeffrey Presider: USA used wavefront shaping to enhance/suppress the transmis- media. scattering highly open through light coherent of sion We further controlled the beam. short-circuit laser a current of wavefront of the shaping a by cell dye- solar sensitized 18–22 October 2015

• Inst. of 1 ; 2 Hasan E. Kon- E. Hasan , Ayman Abou- Ayman , 1 , Bahaa Saleh Bahaa , 2 FiO/LS 2015 , Alexander Szameit Alexander , 1 Invited Universita degli Studi di Firenze, Italy. Universita degli Studi di Firenze, 1 Sacramento ; 1 , Demetrios N. Christodoulides N. Demetrios , , Armando P. Leija P. Armando , 2 2 CREOL, Univ. of Central Florida, USA. CREOL, Univ. We experimentally We We demonstrate experimentally the ability to fully control and maps the spectral properties of an individual photonic mode in a photonic two-dimensional GaAs disordered slab air holes. distributions of circular with disordered Applied Physics, Friedrich-Schiller-Universität Jena, Germany; Applied Physics, Friedrich-Schiller-Universität demonstrate deterministic tuning of photon statistics from lat- disordered off-diagonal in super-thermal to sub-thermal chiral-mode exciting symmetrically by this achieve We tices. field distributions. light of different pairs with coherent dakci FTh2G.2 • 11:00 Deterministic of Photon Statistics by Activation Control Lattices, Disordered in Symmetry Chiral of 2 10:30–12:00 and Photonics of FTh2G • Optics Systems II Disordered Univ., Stanford Mark Brongersma; Presider: USA FTh2G.1 • 10:30 Random Photonic Modes, Engeeniering and Imaging Massimo Gurioli raddy , 2 FiO Yan , Christopher L. Vergien L. Christopher , 1 Iyad Dajani Iyad Physics and Astronomy, Univ. of New Univ. Physics and Astronomy, Directed Energy Directorate, Air Force Air Force Directorate, Energy Directed Invited 2 1 Glen Ellen Glen ; 2 Acoustically tailored fiber was developed Shanghai Inst of Optics & Fine Mechanics, China. Mechanics, Fine & Optics of Inst Shanghai 1 ; 1 Research Lab, USA; Research Jean-Claude Diels Jean-Claude FTh2F.2 • 11:00 FTh2F.2 Raman enhanced acoustically tailored single-frequency amplifiers, fiber Raman High Power Raman Fiber Lasers: Recent Progress, FTh2F.1 • 10:30 • 10:30 FTh2F.1 Feng 10:30–12:00 Lasers Power Raman Fiber FTh2F • High USA Clemson Univ., Roger Stolen; Presider: Mexico, USA. Mexico, to mitigate stimulated Brillouin scattering (SBS) in single- 1178 frequency nm fiber based amplifiers, while enhancing two-stage and single demonstrate We 30%. by gain Raman amplifiers with 11.2 W and 22.2 W of output power. Raman fiber lasers are known for wavelength agility. Recently, Recently, agility. wavelength for known are lasers fiber Raman both spectral coverage and output power have progressed quickly, which expands the field of application of Raman fiber laser significantly. Thursday, 22 October more than95%. absorbance with to1.8μm, 0.6μm from tion absorp- perfect broadband in result tungsten of absorption bandgap intrinsic and SPPs LSPR, of excitations The numerically. studied is absorber perfect nanoring Tungsten China. sources andnon-homogeneousterms. ize it to three dimensions for general boundary from the radiative transfer equation and general - parallel slab of a scattering medium. We derive it approximates the flow of power through a plane Merced,California, USA. Kubelka-Munk theory ral Sciences,AppliedMathematics,Univ. of application invortex-basedcommunications. possible with aperture, triangular a through diffracting beam vortex a for propagation axis off and on to solution analytical rigorous a out lays paper This Carolina atCharlotte,USA. 102 Stahl Charlotte Aperture, Triangular a Through Diffraction Complete AnalyticSolutiontoVortex Beam FTh2A.6 •11:45 System, Thermophotovoltaic Tungsten Nanoring Perfect Absorber for Solar FTh2A.5 •11:30 theory, Kubelka-Munk extending and Generalizing FTh2A.4 •11:15 Sciences IV—Continued FTh2A •GeneralOptical Junfeng Qiao Junfeng hi Sandoval Chris 1 California , Zhaoyu Zhang Zhaoyu , 1 Ge Gbur Greg , 1 Anl Kim Arnold , 1 ; 1 Fengyun Zhao ; 1 Univ ofNorth 1 Peking Univ., 1 ; 1 Natu- 1 , rangan in silicon waveguides, silicon in scattering Bragg four-wave-mixing pumped Frequency conversionvia asymmetrically FTh2B.5 •11:45 Withdrawn. FTh2B.4 •11:30 1 eration, Op- High-Speed for Silicon on Modulator Graphene Two-Layer the of Optimization FTh2B.3 •11:15 power consumption. reducesand increasesspeed further the which ditionally,structuredevice proposenovel we a Ad- operation. speed high for modulator the of dimensions waveguide silicon the optimize to method numerical self-developed a ment Technology, Univ.imple- ofTokyo,We Japan. performance. performance. aremethods Numerical predictto used device waveguide. silicon-on-insulator chip-scale a in scattering Bragg Four-wave-mixing pumped asymmetrically- via C-band telecom the within conversion frequency low-power demonstrate experimentally We ics, Univ. ofDayton,USA. Program, Univ. ofDayton,USA; Continued FTh2B •PhotonicsonSilicon— Research CenterforAdvancedScienceand 1 , Imad Agha oa Kovacevic Goran Valley 1,2 ; 1 Electro-Optics Graduate YunZhao 1 Sij Yamashita Shinji , 2 Dept. ofPhys- 1 , Andrew Sa- Andrew , FiO/LS 2015 1 ; array withnon-unityfillfactorisconsidered. contiguous a of example particular A phasing. ciated with optical phased arrays with imperfect the expected modulation transfer function asso- partial coherence theory formalism to describe FTh2C.4 •11:15 Arrays, Phased Optical of Theory Coherence Partial USA; 12:00–13:00 the highercharge. of plane the to diffracted Fresnel are charges smaller charge, on depend beams the of radii the Because charges. topological different with beams vortex using effects interference experimentally create azimuthal multiple beam We Spain. Universidad MiguelHernandez, Demkowicz-Dobrzanski shot-noise limit. the attain even cannot otherwise that regime in sensitivity phase sub-shot-noise recover to position-resolved coincidence detection, allows structure of interfered photons, combined with perimentally that a careful design of the spatial ex - demonstrate We teura 5,02-093,Poland. Michal Jachura Interferometry, Two-photon Realistic a In Sensitivity Phase Sub-shot-noise Restoring FTh2C.6 •11:45 2 Davis with Combinations of Vortex Beams, Azimuthal MultipleBeamInterference Effects FTh2C.5 •11:30 ord Banaszek Konrad Cottrell Don and GeneralOpticsII—Continued FTh2C •Coherence, Interference, Departamento deCienciaMaterialesw, 2 1 Vista AppliedOptics,LLC,USA. Vista We apply , Ignacio Moreno Edward A. WatsonEdwardA. 1 ; 1 1 , Radoslaw Chrapkiewicz • San DiegoStateUniv., USA; Crystal 1 ; FiO 1 Lunch (onyourown) Univ. ofWarsaw, ul.Pas- 18–22 October 2015 2 1 , Taylor Womble-Dahl , Wojciech Wasilewski 1,2 ; 1 Univ. ofDayton, Jeffrey A. 1 , Rafal 1 1 , , lides Kwiat P.Leija crete Fractional Fourier Transforms, Implementation of Quantum and Classical Dis- FTh2D.4 •11:45 2 portation, TowardsTeleSuperDense Space-to-Ground - FTh2D.3 •11:30 integrated and free of bulk fully optical components. is approach Our lattices. photonic using transforms Fourier fractional discrete classical on the experimental realization of quantum and Universität Jena, Germany; Universität Jena,Germany; Hector Moya-Cessa Markus Gräfe Bernstein J. Herbert INAOE, Mexico; on Earth. Space International Station (ISS) and a receiver the between SDT implementing possibility the investigating are We parties. remote between states of transmission the for protocol a (SDT), mode to implement SuperDense Teleportation photons entangled in polarization and temporal use We ary Studies,Hampshire College,USA. ence &ISISInst.forScienceandInterdisciplin- Communications I—Continued FTh2D •Quantum Jet Propulsion Lab,USA; 3 Aeadr Szameit Alexander , 1 ; 1 1 , Steffen Weimann Steffen , Dept. ofPhysics,Univ. ofIllinois,USA; rn M Graham M. Trent 1 , RenéHeilmann 3 CREOL, UCF, USA. We report Gold 2 , Demetrios N. Christodou- 3 , Hamid Javadi Hamid , 3 School ofNaturalSci- 1 1 ; , Maxime Lebugle Maxime , 1 Friedrich-Schiller- 1 1 Crs Zeitler Chris , 2 , StefanNolte Optics Dept., 2 Armando Armando , Paul G. Paul , 1 1 1 , , , individual cardiomyocytes. from signals acoustic of recording enable and combine a small form factor with high sensitivity based on Photonic Crystal mirrors. The sensors present fiber optic Fabry-Perot acoustic sensors Yu ies, Fiber Optic Acoustic Sensors for In-vivo Stud- FTh2E.4 •11:30 2 Yao Baicheng for highlysensitiveerythrocyte detection, FBG polymer D-shaped Graphene-based FTh2E.3 •11:15 sensitivity ofsubppm. high and acceptability clinic with erythrocytes, human detect to proposed is grating Bragg FBG, a graphene based D-shaped polymer fiber doped graphene on a D-shaped microstructured Zhou Biosensors—Continued FTh2E •OpticalFiberSensorsII: Aston Univ., UK. By covering a monolayer of p- 1 , Yuan Gong Olav Solgaard Olav 1 , Yunjiang, Rao 1 , Yu Wu Yu , 1 , Yuanfu Chen Empire 1 ; 1 , AndrewPospori , 1 Invited We We Stanford Univ., USA. 1 , David Webb David , 1 ;

1 UESTC, China; 2 2 , Jinhao , , Caibin , Thursday, 22 October , , 2 1 Univ. Univ. 1 LAAS- 103 4 ; 1 , , Joshua 1 Drexel Univ., Univ., Drexel 1 ; , Marc Currie 1 1 - Innova of Dept. 4 , Sander Zandbergen Sander , 1 , Galina Khitrova 4,5 , , Patrick Keiffer 2,3 Zhihuan Wang , Bahram Nabet Bahram , 4 , Ricky Gibson Ricky , 1 Piedmont Sensors Directorate, Air Force Research Research Air Force Sensors Directorate, 2 Université de Toulouse, France. Molecular Université de Toulouse, , , Nima Nader 5 1 , Alexandre Arnoult 2 , Nico Lovergine Nico , Solid State Scientific Corporation, USA; 3 3 Optical Sciences Division, Naval Research Lab, USA; Lab, Research Naval Division, Sciences Optical 2 Michael R. Gehl R. Michael IMM-CNR,, Research Unit of Lecce, Italy; Lecce, Unit of Research IMM-CNR,, USA; Lab, USA; CNRS, France; We discuss of Salento, Italy. why as tion Engineering, Univ. grown GaAs/AlGaAs core-shell nanowires can emit almost same the to compared light more magnitude of orders three material in thin-film and can lase without vertical structure temperature. at room of Arizona, USA; Paola Prete Paola Jasmine Jasmine Sears LTh2I.4 • 11:45 LTh2I.4 Nanowires Core-Shell GaAs-AlGaAs Grown As from Lasing up to Room Temperature, 3 LTh2I.3 • 11:30 LTh2I.3 Observation of Superconductivity in Semiconduc- Self-Assembled III-V of top on Grown Epitaxially Island Indium tors, Hendrickson beam epitaxy (MBE) is used to grow indium islands on top of semiconductor structures. Electrical contacts to a single indium island fabricated. is are Superconductivity observed at 3.33K. in the resistance by a drop LTh2I • Innovative Metallic-Emitter Coupled Metallic-Emitter Coupled • Innovative LTh2I Systems II—Continued

LS CRE- 1 ; Roxana 1 , Aristide Dogariu Aristide , 1 , Sergey Sukhov Sergey , Hillsborough 1,2 Dept. of Physics, Univ. of Central Florida, USA. Dept. of Physics, Univ. 2 OL, The College of Optics and Photonics, Univ. of Central Photonics, Univ. OL, The College of Optics and Florida, USA; Near-field Near-field Corrections in Mesoscopic Transport, LTh2H.3 • 11:15 LTh2H.3 Naraghi Rezvani In dense composites, light transport evolves through both propagation novel A channels. evanescent and propagating near-field and far- measurable of terms in developed is model scattering. Its accuracy is verified by systematic enhanced backscattering experiments. LTh2H • Light propagation in Scattering • Light propagation LTh2H Media—Continued 18–22 October 2015 , , ; Lunch (on your own) 1 1 2,3 • Univ. of Univ. 1 ; 1 Cheng Wang Cheng , Jianbo Gao Jianbo , 1 , Frederic Grillot Frederic , PMB Intelligence 2 3 12:00–13:00 , Aristide Dogariu Aristide , 1 FiO/LS 2015 National Research Council of National Research , Philip Poole Philip , 2 3 , Jun-Ping Zhuang Jun-Ping , 1 Inst. of Complexity Science and Big 2 Univ. of New-Mexico, USA. Univ. A novel ex- Dept. of Electronic Engineering, City Univ. Univ. City Engineering, of Electronic Dept. Sacramento 3 1 ; , Sergey Sukhov Sergey , 1,4 1 , Marek Osinski Marek , , Song-Sui Li Song-Sui , 1 1 State Key Lab of Millimeter Waves, City Univ. of City Univ. State Key Lab of Millimeter Waves, . The exponent is directly obtained through phase through obtained directly is exponent The . 4 Λ Telecom-Paristech, France; Telecom-Paristech, LLC, USA; Feedback delay time of a chaotic laser is laser chaotic a of time delay Feedback Hong Kong, China. time-dependent the calculating by extracted experimentally exponent Sze-Chun Chan Sze-Chun Schires Kevin Canada, Canada; A Novel Method for Extracting the Linewidth - Broaden Lasers, Diode Semiconductor of Factor ing FTh2G.4 • 11:30 Feedback Delay Identification by Time-Dependent Ex- ponent Evaluation for a Chaotic Semiconductor Laser, Li Xiao-Zhou FTh2G.5 • 11:45 FTh2G.3 • 11:15 Potentials, Random Time-varying in Diffusion Controllable Constant Colin 1 perimental technique for extracting the linewidth broadening broadening linewidth the extracting for technique perimental factor of semiconductor lasers is proposed. This approach is applicable to any types of diode lasers, both below- and and is insensitive to thermal above-threshold, effects. Data Technology, Guangxi Univ., China; Guangxi Univ., Data Technology, Particles subjected to complex to subjected Particles USA. CREOL, Florida, Central potentials that vary in both space and time can be sub- or We demonstrate that super-diffusive. their behavior can be controlled by adjusting the parameters of random optical potentials. of Hong Kong, China; FTh2G • Optics and Photonics of and Photonics of FTh2G • Optics Systems II—Continued Disordered space reconstruction and contains the information of the exponent. Lyapunov largest ; 1 FiO , Timothy Mad- Timothy , Johan Nilsson Johan 1 Ball Aerospace & Ball Aerospace 2 , Jacob Grosek Jacob , 1 Invited Glen Ellen Glen , Iyad Dajani Iyad , 2 US Air Force Research Lab, USA; Research US Air Force 1 ; 1 Univ. of Southampton, UK. of Southampton, Univ. We review selected progress Technologies Corp., USA. Technologies It is well-known that the modal instability is a limiting factor in achieving high power in Yb- doped fiber amplifiers. We investigate this phenomenon Raman core-pumped and cladding-pumped in theoretically fiber amplifiers. FTh2F.4 • 11:30 • 11:30 FTh2F.4 Lasers, Fibre Raman Power High in Trends 1 FTh2F.3 • 11:15 • 11:15 FTh2F.3 in Raman Fiber Amplifiers, Analysis of Modal Instability Naderi A. Shadi FTh2F • High Power Raman Fiber Lasers— Power Raman Fiber FTh2F • High Continued and properties of high-power fiber Raman lasers. These can These lasers. Raman fiber high-power of properties and also are and tandem-pumped when kW 1 > power produce Issues diode-pumped. when potential their realize to starting also appearing. such as mode instabilities are den Thursday, 22 October 104 Angeles (UCLA). in Physics from Los the University of California, Ph.D. and M.S. his Denver,and College State Metropolitan from Mathematics Applied and Physics in B.S. his received He Research. sion Fu- & Plasma of Institute UCLA the at Scientist Senior a as worked previously and 2004 since Program Element Leader of LLNL’s AX Division as served also has He (“AX”). division design fusion confinement inertial and thermonuclear the in (LLNL) Laboratory National Livermore Lawrence at Physicist a is Hurricane Omar 1 Facility, Ignition National Inertially ConfinedFusionImplosionsonthe and ProgressOverview of Performance with FTh3A.1 •13:00 USA Lawrence LivermoreNational Lab, Presider: Cameron Geddes, Applications I FTh3A •UltrafastLaser 13:00–15:00 strategy forthefuture willalsobediscussed. research The made. been have that advances National Ignition Facility (NIF), but also cover the tered during the progress of the research encoun- at the setbacks the of some cover NIF.We discuss progress towards fusion ignition on the We We Lawrence LivermoreNationalLab,USA. California Tutorial mr Hurricane Omar 1 ; laser transition. the of nature atomic the and laser the of tion configura- electromagnetic the on dependent the quantum nature of light. This limit is largely by specifically mechanics quantum by limited fundamentally is lasers all of coherence, poral The spectral linewidth, or equivalently, the tem- Inst.ofTechnology,Science, California USA. the semiconduc demonstrating and proposing in and optics; ogy; in pioneer semiconductor-based integrated optics technol demonstrating proposingand toelectronics;in op- GaAs lasers, ultrashort-pulse mode-locked explaining and proposing in optics; quantum nonlinear of theory the of formulation original number of early sol a of discovery the in co-workers) various (with sci and technical the On engineering. electrical of Professor and ics phys- applied of Professor Summerfield Eileen and Martin the became he 1996, In physics. Professor of electrical engineering and applied 1966. In 1980, he became the Thomas G. Myers electrical engineering, becom (Caltech), Pasadena, as an Associate Professor of he joined the California Institute of Technology 1964, In NJ. Hill, Murray Laboratories, phone 1958, respectively. In 1959, he joined Bell Tele- versity of California, Berkeley, in 1954, 1956, and degrees in electrical engineering from the Uni- Amnon Yariv received the B.S., M.S., and Ph.D. Yariv Amnon Oscillation, Coherent Ultra for Laser ductor Semicon- the Redesigning and Rethinking FTh3B.1 •13:00 College London,UK Presider: AlwynSeeds;Univ. Integration onSiliconI for Communications:Hybrid FTh3B •IntegratedPhotonics 13:00–15:00 1 ; ing the field of phase conjugate 1 Applied PhysicsandMaterials tor distributedfeedbacklaser. Valley id-state laser systems, in the entific sides, he took part took he sides, entific Tutorial ing a Professor in

FiO/LS 2015 -

California, SanDiego,USA California, Presider: PingPiuKuo;Univ. of Frequency CombsI Applications ofLowNoise FTh3C •Symposiumon 13:00–15:00 ur Leuthold Communications Systems,Juerg Tbit/s for Sources as Combs Frequency FTh3C.2 •13:30 in SDMEr, Awaji Yoshinari Light Coherent of Role The Communication: Fiber of Infrastructure New of Perspective FTh3C.1 •13:00 Mishra Kumagai & CommTech, Japan; infrastructure which will sustain enormous traffic. applications are quite useful for next generation Both transmission. coherent for distribution ergies such as switching or frequency-standard large spectralrange. acrossquality hundredshighest of a carriers of to up offer schemes of variety a Meanwhile sources. traditional outperform to about are subcarrier sources for Tbit/s superchannels that nol. Ltd.,India. Frequency combs are attractive munications technologies are realizing new com- syn and comb optical in progresses Recent Christian Hafner Christian Tetsuya Kawanishi Takahide Sakamoto 2 ; 1 1 ETH Zurich,Switzerland; , Ying Li • 1 Crystal , David Hillerkuss David , 1 2 , Tetsuya Ido ; FiO 1 1 National Inst of Information National InstofInformation , Atsushi Kanno 18–22 October 2015 Invited Invited 2 Waseda Univ., Japan. 1 Jn Sakaguchi Jun , 1

, Naoya Wada 2 Sterlite Tech- 1 1 , Arvind K. Arvind , , Motohiro 1 1 1 - , , , Jeong Qubits, Single-Photon Beyond Processing Information Quantum Photonic tiplexing, A Quantum Repeater based on Spectral Mul- Paristech, France Presider: EleniDiamanti;Telecom- Communications II FTh3D •Quantum 13:00–15:00 FTh3D.2 •13:30 FTh3D.1 •13:00 implementation. its towards results key experimental recent detail system performance, and describe some multiplexing, spectral on based architecture repeater quantum a present will I photons. entangled distribute to repeaters quantum requirewill networks quantum Future Canada. Science andTechnology, Univ. ofCalgary, qubits andcontinuous-variablestates. single-photon on based approaches known to overcome formidable limitations of the well- developed been have that processing mation infor quantum all-optical for schemes several discuss will I talk, National Univ.,this In Korea. 1 ; 1 Dept. ofPhysicsandAstronomy, Seoul WolfgangTittel Gold Invited Invited 1 ; 1 Inst. forQuantum

Hyunseok - Troles Nazabal Tian for evanescent-fieldSERSmeasurements. benefit and utility its demonstrate numerically and experimentally We (NSOF). fiber optical sapphrie nanostructured all-alumina an to fiber optical sapphire unclad commercial a ing - transform of strategy scalable and innovative an report here We Republic, CzechRepublic. Electronics, AcademyofSciencestheCzech cine, CO used for mid-infrared sensing in biology, medi- various types of optical fibers which have been mid-infrared region. They could be shaped into the in transmission excellent exhibit glasses vnsetFed Sensing, Evanescent-Field for Fiber Optical Sapphire Nanostructured FTh3E.2 •13:30 Bureau red Spectroscopies, Bruno Chalcogenide GlassOpticalFibersforInfra- FTh3E.1 •13:00 Fisica ApplicataNelloCarrara,Italy Presider: FrancescoBaldini, Inst. di Devices FTh3E •OpticalFiberSensorsIII: 13:00–15:00 of Technology, USA; 1 Jr Kanka Jiri , 1 ; 1 1 Univ. ofRennes,France. Chalcogenide 2 , Catherine Boussard-Plèdel Catherine , monitoringorexo-planetdetection. Empire 2 Hny Du Henry , Invited 2 Inst. ofPhotonicsand 1 u Chen Hui ;

1 Stevens Inst. 1 1 Virginie , , Johann , 1 Fei , Thursday, 22 October 105 , Michiel , 1 Vincenzo Vincenzo Quantum Matter & Op- Vasco T. Tenner T. Vasco 1 ; 1 Ecole Polytechnique Federale Ecole Polytechnique Federale 1 LS ; 1 Piedmont Invited , Martin P van Exter van P Martin , 1 , Momchil Minkov 1 Switzerland. Lausanne, de Using an automated - optimiza tion procedure, we design ultra-high-Q photonic crystal cavities and slow-light waveguides, improving dramatically on previous best figures of merit. These structures, partly nano- for promise great hold demonstrated, experimentally hybrid devices. structured 13:00–15:00 Metallic-Emitter Coupled • Innovative LTh3I Systems III Inst., Poddubny; Ioffe Alexander Presider: Russia • 13:00 LTh3I.1 - Broad for Crystals Photonic of Optimization Automated band Slow Light and Ultra-High-Q Cavities, • 13:30 LTh3I.2 Plasmon Surface Dimensional Two of Characteristics Lasing Meta-Material, Active an in Lasers Savona tics, Huygens-Kamerlingh Onnes Laboratorium, Universiteit tics, Huygens-Kamerlingh Onnes Laboratorium, Universiteit on surface-plasmons studied have We Leiden, Netherlands. metal hole arrays combined with gain and observe surface plasmon laser action. We will discuss the feedback mechanism, angular beam profile, and spatial emission profile of this surface plasmon laser. J A de Dood de A J ; 1 Roger H. Stolen Tutorial Hillsborough COMSET, Clemson Univ., USA. Univ., Clemson Raman COMSET, gain is optically- FTh3H.1 • 13:00 Raman Fiber Lasers and Amplifiers, 1 13:00–15:00 Lasers and Amplifiers FTh3H • Fiber of Univ. Johan Nilsson; Presider: UK Southampton, Roger Stolen is a distinguished visiting professor at the Center the at professor visiting distinguished a is Stolen Roger Technologies Engineering and Science Materials Optical for and Labs Bell with was He University. Clemson at (COMSET) Electrical of Dept the and 1998 to 1966 from Research AT&T Engineering of until Virginia Tech 2004. Since 1971 he has In research. optics fiber of aspects most with involved been of recognition in prize R.W.Wood the awarded was he 1990 the and fibers in nonlinearities optical of studies pioneering 2005 in and fibers preserving polarization of demonstration contribu- for Award Tyndall John IEEE/OSA the received he tions to the fundamentals of the nonlinear properties Russian the of member of foreign a as inducted was He fibers. Academy of Science in 2009 and became a member of the National Academy of Engineering in 2012. pumped optical amplification. We discuss the discovery of the Raman effect and Raman different amplification. of Relevant overview an fiber with along introduced are properties approaches to Raman amplification. Applications as lasers shown. are and lightwave system amplifiers 18–22 October 2015 • Guoan Guoan FiO/LS 2015 FiO Invited Invited Sacramento Univ. of Arizona, USA. of Arizona, Univ. I will describe some 1 ; 1 We will discuss the recent recent the discuss will We USA. Connecticut, of Univ. 1 ; 1 progresses of the Fourier ptychographic imaging approach. approach. imaging ptychographic Fourier the of progresses microscopy, gigapixel in applications its demonstrate will We holo- 3D multiplexing, spectrum imaging, phase quantitative microscopy, fluorescence super-resolution imaging, graphic and photographic imaging. FTh3G.2 • 13:30 Imaging, Multimodal for Ptychography Fourier Zheng 13:00–15:00 Sensing Optical FTh3G • Computational II and Imaging USA of Arizona, Univ. Amit Ashok; Presider: FTh3G.1 • 13:00 Compressive Imaging at Extreme Limits of Coherence, Amit Ashok recent recent results in compressive imaging at extreme limits of coherence. In the coherent limit, I will discuss compressive incoherent the in and apertures sparse with holography digital compressive using detection threat X-ray about talk will I limit, multiplexed measurements. , , 3 1 , Clara 1 Lockheed 2 , Casey Schwarz Casey , 1 , Alexej Pogrebnyakov Alexej , 1 Univ. of Central Florida, USA. of Central Florida, Univ. , Gerald Richardson 1 1 ; 1 Stephen M. Kuebler M. Stephen Invited Glen Ellen Glen Univ. of Central Florida, USA; Univ. 1 ; 3 , Kathleen Richardson Kathleen , Pennsylvania State Univ., USA. Pennsylvania State Univ., Multi-photon , Shreya Labh 2 3 1 Debashis Chanda Debashis A flexible reflective plasmonic display has been developed in developed been has display plasmonic reflective flexible A the visible actively tune across which each pixel is shown to cost low of development the for significant is This spectrum. displays on flexible substrates. reflective Martin, USA; Chris Grabill Theresa Mayer FTh3F.2 • 13:30 FTh3F.2 of Writing Laser Direct for Processing Glass Chalcogenide Nano-Structures, 3D Imprinted Plasmonic Surfaces as Flexible Reflective Color Color Reflective Flexible as Surfaces Plasmonic Imprinted Displays, Presider: Stephen Kuebler; Univ. of Central of Central Stephen Kuebler; Univ. Presider: Florida, USA • 13:00 FTh3F.1 13:00–15:00 Optical FTh3F • Three-Dimensional and Design, Fabrication Structure Nanopatterning I Rivero-Baleine direct laser writing was used to photo-pattern nano-structures nano-structures photo-pattern to used was writing laser direct in thermally deposited glassy films of chalcogenide (ChG) clusters. Chemical index, composition, and refractive nano- ChG to related and characterized were morphology structure laser and etch processing. Thursday, 22 October applying adelayedinfrared pulse. by done is control The Harmonics. High-order by excited regime ultraviolet extreme the in (FID) Decay Induction Freecontrolled of study experimental an present We versitet, Sweden. baum 106 NWs, ZnS single in SHG the of polarization The FTh3A.4 •14:15 of Nitrogen, Bloch Oscillations within Molecular Alignment and Localization Dynamical of Observation FTh3A.3 •14:00 violet, Free InductionDecayintheExtreme Ultra- FTh3A.2 •13:45 Applications I—Continued FTh3A •UltrafastLaser pumping laser. of directions polarization the and orientations measured SHG signal the varies with of the ZnS polarization crystal The NWs. ZnS single in approximation to study the polarization of SHG Technology, China. We use the electrical-dipole Doug Broege Rippe Lars Peixiang Lu Peixiang kroon David of dynamical localization and Bloch oscillations. analogy to the famous condensed matter effects evolution exhibits two phenomena explained by alignment population resulting The kicks. sive is rotationally excited by a train of eight impul- Weizmann Inst.ofScience,Israel. Nitrogen gas 1 ; u Hongbo Hu Samuel Bengtsson Samuel 1 SLAC NationalLab,USA; 1 1 Jhn Mauritsson Johan , ; 1 andrei kamalov Cr Arnold Cord , 1 1 , Ilya Averbukh California Huazhong Univ. ofScienceand 1 Ki Wang Kai , 1 , Esben W. Larsen W. Esben , 1 1 An L’Huillier Anne , , Johannes Floss 2 , Philip H. Bucks- 1 Bn Wang Bing , 1 ; 1 Lunds Uni- 2 Chemistry, 1 1 1 2 , , , , coupling. waveguide in-plane provide can grating The presented. is modulation direct Gb/s 5 and output >1 mW, resistance, 1.46 K/mW thermal CW with metastructurereflectorSOI (HCM) on III-V-silicon hybrid VCSEL using a high-contrast electrically-pumped An Berkeley,fornia USA. geneous IntegrationonSilicon,Gregory Fish Hetero - Using Transceivers Bandwidth High FTh3B.3 •14:15 Chang-Hasnain J. Contrast Metastructure onSOI,Connie High using VCSEL Long-wavelength Hybrid FTh3B.2 •13:45 Dan and packaging. silicon foundry infrastructure for both fabrication established using fabricated be to transceivers bandwidth high enables flow wafer tonics pho- silicon a into material InP of integration Jon Roth Robert Guzzon Continued Integration onSiliconI— for Communications:Hybrid FTh3B •IntegratedPhotonics 1 ; 1 The heterogeneous The Aurrion, Inc.,USA. 1 , Anand Ramaswamy 1 , Jae Shin 1 , James Ferrara Valley Invited Invited 1 , Brian Koch 1

, Erik Norberg 1 ; 1 Univ. ofCali-

1 , Sparacin FiO/LS 2015 1 1 , , aah Inoue Takashi Datacenters: ChallengesandStrategies, High-Performance for Distribution Comb Optical on Based Network Optical Exabit FTh3C.3 •14:00 energy-efficient WDMtransmission. an important role in realizing high-capacity and where distributed optical frequency comb plays discussed, is datacenters high-performance interconnect between 100,000 nodes for future Exabit/s enabling network optical of concept design of AdvIndustrialSci&Tech,A Japan. Kuwatsuka Haruhiko Frequency CombsI—Continued Applications ofLowNoise FTh3C •Symposiumon 1 Tkyk Kurosu Takayuki , • Crystal FiO 1 18–22 October 2015 Invited Su Namiki Shu ,

1 Ky Ishii Kiyo , 1 ; 1 Natl Inst 1 , Inst. ofPhotonicScience,Spain; 1 Graham Coding, Hyperdense Quantum FTh3D.4 •14:15 Daniel Rieländer photons inasolidstatequantummemory, Towards the spin-wave storage of entangled FTh3D.3 •14:00 Mazzera photon received. 2-qubit every for information classical of bits munication protocol that can transmit up to 2.81 hyperdense coding, a quantum-enhanced com- implement to mode temporal and polarization in entangled simultaneously photons use We state ofasolidquantummemory. spin the in photons single heralded entangled Spain. We will show our progress on storage of tució CatalanadeRecerca iEstudisAvançats, Communications II—Continued FTh3D •Quantum Univ ofIllinoisatUrbana-Champaign,USA. 1 1 , Christopher Zeitler Christopher , , Hugues de Riedmatten 1 , Alessandro Seri Gold 1 , Paul G. Kwiat G. Paul , 1,2 2 ICREA -Insti 1 ; , Margherita 1 ICFO – The ICFO –The rn M.Trent 1 ;

to magneticfield. proportional in chirp frequency into strain tive magnetostric- converting distribution size ticle a magnetostrictive composite with graded par It consists of a fiber Bragg grating embedded in optical current sensor with wide dynamic range. magnetostriction-based a presents paper This El-Hajjar . Gupta K. Sumit Dass Sumit Sensing, Curvature for Cavity Micro with InterferometerMach-Zehnder Inline SMF All FTh3E.5 •14:15 Zhang Zhijian Interferometer, Plasmonic on-Fiber with Achieved Sensor Multi-Parameter Ultra-Thin FTh3E.4 •14:00 Lasassmeh Composite, Terfenol-D Graded on Chirped FiberOpticalCurrent Sensor Based FTh3E.3 •13:45 Engineering, Univ. ofMaryland,USA; ynde Bae Hyungdae sensitivity ofthesystemcanbetailored. tapering parameters of second taper, curvature Experimental results show that by changing the micro cavity as highly sensitive curvature sensor. taper based Mach-Zehnder interferometer with cascaded propose We Bhubaneswar, India. are achieved. sensitivities temperature and index refractive interferometer fabricated on a fiber facet. High plasmonic ultra-thin an of capability sensing multi-parameter the demonstrate We USA. of MechanicalEngineering,Temple Univ., Inst. of Standards andTechnology, USA; Devices—Continued FTh3E •OpticalFiberSensorsIII: 1 ; 1 1 Ma Yu Miao , 1 Univ. Milwaukee,USA. ofWisconsin 1 , EdwardLynch, , Jitendra Dash Jitendra , 1 Ynyo Chen Yongyao , 1 Duls . Olson A. Douglas , Empire 1 ;

1 Dept. ofMechanical 1 , Chiu T.Chiu , Law 1 , Rajan Jha Rajan , 1 Hiu Liu Haijun , 2 Ashwani , 2 National 1 3 1 ; Dept. , Rani , Suha 1 I.I.T. 3 - , Thursday, 22 October 107 , Richard 1 Columbia Univ., Columbia Univ., 1 Dept. of Electrical ; 2 1 LS Dept. of Mechanical and Industrial 1 ; 1,2 , Richard Osgood 1 Piedmont , Yongmin Liu Yongmin , 2 , Jerry Dadap 1 Grote LTh3I.4 • 14:15 LTh3I.4 Controlling Electric and Magnetic Resonances for Ultra- Compact Nanoantennas with Switchable Directionality, Yao Kan LTh3I.3 • 14:00 LTh3I.3 Nanolaser Semiconductor Monolayer in Analysis Threshold by Surface Plasmon Enhancement, Xiang Meng USA. We have examined the lasing threshold requirements with nanolasers based plasmon surface pumped optically for research excellent an is which medium, active as materials 2D tool as an on-chip nanoscale light source. and Computer Engineering, Northeastern Univ., USA. and Computer Engineering, Northeastern Univ., We design and demonstrate an ultra-compact nanoantenna composed of an asymmetric The trimer. structure can sup- the to addition in resonance magnetic tunable highly a port and directionality switchable in resulting resonance, electric enhanced radiative emission. Engineering, Northeastern Univ., USA; Engineering, Northeastern Univ., LTh3I • Innovative Metallic-Emitter Coupled Metallic-Emitter Coupled • Innovative LTh3I Systems III—Continued

- The 1 ; , - Yun 1 1 , Meng , 1 , Zijun Yao Zijun , 1 Jet Propulsion Lab, Jet Propulsion 2 Collaborative Innova Collaborative , Mengqiu Fan 2 1 , John R. Marciante R. John , 2 , Xin Zhao Xin , 1 . o School of Electronic and Information and of Electronic School 1 , Zinan Wang ; 1 1,2 Hillsborough Han Wu , Malcolm W. Wright W. Malcolm , Univ. Electronic Sci. & Tech. of China, China. Sci. & Tech. Electronic Univ. 1 1 ; 1 , Zheng Zheng Zheng , 1 Engineering, Beihang Univ., China; China; Univ., Beihang Engineering, Zhang Inst. of Optics, Univ. of Rochester, USA; of Rochester, Inst. of Optics, Univ. California Inst. of Technology, USA. Self-phase modulation California Inst. of Technology, analyzed and and limit stimulated the Raman scattering are and variation energy pulse Output space. data-format usable respectively, 21% and 28% as large as distortion, square-pulse duration. primarily depend on symbol tion Center of Geospatial Technology, China. The Technology, Geospatial Center of tion output of a soliton fiber laser is observed to remain mode-locked and continuously evolve between orthogonal scalar states and vector soliton states, even as an intracavity polarizer is over a range of 90 rotated We We make a numerical study on the power performance of backward-pumped random fiber laser (RFL) based on short graded-index multimode fiber (MMF). Comparing with its SMF-based counterpart, the MMF-based RFL has the lower and comparable slope efficiency. threshold Analysis of Nonlinear Optical and Dynamic Gain Effects of Moderate-Power, Pulse-Position-Modulated, Erbium- Doped Fiber Amplifiers for Deep-Space Applications, Yao Haomin FTh3H.3 • 14:00 evolution of the output state Observation of continuous mode-locked polarization–rotated, a from polarization of Hu Guoqing soliton fiber laser, FTh3H.4 • 14:15 Numerical Study on Multimode-fiber-based Random Fiber Laser, FTh3H.2 • 13:45 jiang Rao FTh3H • Fiber Lasers and Amplifiers— FTh3H • Fiber Continued 18–22 October 2015 , , 1 1 • Univ of 1 , Daniel 1 ; , Michael 1 1 , Bosheng Zhang 1 , Fredrick A. South 1 , Robert Karl 1 , Paul S. Carney S. Paul , 1 , Henry Kapteyn 1 FiO/LS 2015 Yang Xu Yang FiO , Elisabeth Shanblatt , Christina Porter Sacramento 1 1 , Stephen A. Boppart A. Stephen , , Margaret Murnane 1 1 Univ. of Colorado at Boulder, USA. of Colorado at Boulder, We Univ. achieve 1 ; 1 Tanksalvala Matthew Seaberg Yuan-Zhi Liu Yuan-Zhi FTh3G.4 • 14:15 Opti- Modified Using Tensor Susceptibility Full Extracting cal Coherence Tomography, FTh3G.3 • 14:00 High-Contrast 3D Surface Topographic Imaging With Ptychography, Using Resolution Wavelength-Limited Near Dennis Gardner F. We present a method of method a present We Illinois at Urbana-Champaign, USA. using samples of map tensor susceptibility full the measuring a modified high numerical aperture (NA) optical coherence tomography (OCT) system. This method promises extended significantly high with results invariant angle resolution, depth of field (DoF). high-contrast, 3D surface topographic imaging with a lateral a with imaging topographic surface 3D high-contrast, of resolution 1.3λ and with 6Å axial using precision ptychographic coherent diffraction imaging and a high-harmonic at 30nm. source Adams FTh3G • Computational Optical Sensing Optical FTh3G • Computational II—Continued and Imaging , , - - - 2 1 tarig , Qiaoq , 1 , Borui Chen 1 , Zachary J. Cop- 1 , Nan Zhang Nan , 1 , Alexander O. Govorov O. Alexander , 3 State Univ. of New York at York of New State Univ. 1 Using of Dayton, USA. Univ. ; 1 2 ; 1 , Haomin Song Haomin , 1 , Wenyi Wang Wenyi , 2 Glen Ellen Glen Mechanical Engineering, Vanderbilt Univ., Univ., Vanderbilt Mechanical Engineering, 1 ; 1 We developed developed We USA. York, of New State Univ. 2 , Alexander Cartwright Alexander , , Tania Moein Tania , 1 1 , Monish R. Chatterjee R. Monish , 1 Dept. of Physics and Astronomy, Ohio Univ., USA; USA; Ohio Univ., Dept. of Physics and Astronomy, 2 , Lucas Vázquez Lucas , 1 We report on report We USA. Univ., Electrical Engineering, Vanderbilt pens iang Gan iang Xie Zeng Xie Jason Valentine Jason Buffalo, USA; USA; Buffalo, a circularly polarized light detector based on chiral plasmonic chiral on based detector light polarized circularly a metamaterials and hot electron injection. The detector has polarized circularly hand right and left distinguish to ability the light without additional optical elements. the Drude model for complex conductivity,phase and group group and conductivity,phase complex for model Drude the disper first-order under calculated are indices and velocities, - nega for derived are Conditions metamaterials. chiral in sion analyses. parametric with compared results the and index, tive 3 FTh3F.5 • 14:15 FTh3F.5 in Electrons Hot with Detection Light Polarized Circularly Metamaterials, Wei Plasmonic Chiral Li algadey FTh3F.4 • 14:00 • 14:00 FTh3F.4 Negative Index in a Lossy Model, Chiral Drude a Metamaterial using Dispersion under Material First-Order FTh3F.3 • 13:45 • 13:45 FTh3F.3 Atomic-layer lithography of sub-10-nm plasmonic na Dengxin nogaps on flat metallic surface, Ji FTh3F • Three-Dimensional Optical FTh3F • Three-Dimensional and Design, Fabrication Structure Nanopatterning I—Continued USA; a novel atomic layer lithography procedure to fabricate large large fabricate to procedure lithography layer atomic novel a area flat metallic surfaces with sub-10-nm features, which is particularly useful for fabrication of nanostructures with field enhancement. localized strongly Thursday, 22 October and Precision Engineering, Germany; David Andereck Univ. Jena,Germany; ander Guggenmos rate exceeding0.3Hz. reproducibility better than 2 μm and repetition Variation from 10 nm to 10 μm with a critical. positional is manipulation thickness where tion, accelera- ion laser as such experiments in use presented with on-demand thickness control for State Univ. ,USA. Liquid crystal film targets are 108 6 Source, Harmonic High Power Average High pact Ultraviolet: UltrafastImagingUsingaCom- Extreme the in Limit Abbe the Approaching FTh3A.6 •14:45 Poole Systems, Laser Intense Ultra for gets TarRate Repetition High as Crystals Liquid FTh3A.5 •14:30 Applications I—Continued FTh3A •UltrafastLaser Germany; Germany; many; Electronics, FriedrichSchillerUniv. Jena,Ger Spielmann Jens Limpert Jens real-time imaging. at 33nm wavelength provides sufficient flux for Our high-average power high harmonic source imaging. diffractive aperture numerical high one wavelength in the extreme ultraviolet using We demonstrate high-resolution imaging below ate McMahon Matthew Hädrich Maximilians-Universität München, Germany; Max-Planck-Institut fürQuantenoptik,Germany. 1 2 , Christopher Willis Christopher , Inst. of Applied Physics, Friedrich Schiller Inst. ofAppliedPhysics,FriedrichSchiller 2,3 Michael Zürch Sea Demmler Stefan , 4 1,3 Fraunhofer Inst. for Applied Optics ; 2,3 California 1 , Andreas Tünnermann Andreas , Inst. ofOpticsandQuantum 1 , Douglass Schumacher 5,6 , Ulf Kleineberg 1 Ea Chowdhury Enam , 1 , Jan Rothhardt 3 Helmholtz Inst.Jena, 1 , Ginevra Cochran Ginevra , 2 Mne Krebs Manuel , 5,6 2,3 , Christian 5 2,4 Ludwig- , Steffen 1 ; Patrick , Alex- , 1 Ohio Ohio 1 C. , 2 1 - - , ,

Reano nators, Hybrid Silicon and Lithium Niobate Ring Reso- Low Power Compensation of Thermal Drift in FTh3B.4 •14:45 using tuningpoweratthesub-nanowattlevel. compensation temperature °C 17 in results ity sensitiv- thermal low and geometry capacitive A resonances. ring niobate lithium and silicon hybrid of drift thermal of compensation active Continued Integration onSiliconI— for Communications:Hybrid FTh3B •IntegratedPhotonics 1 ; Li Chen 1 e present We Ohio StateUniv. ,USA. 1 , Michael G. Wood Valley 15:00–15:30 1 , Ronald M. FiO/LS 2015 mantopoulos FTh3C.4 •14:30 2 System, Radio-over-fiber W-band Coherence Digital fiber link. a low differential mode group delay two-mode in transmission MDM on focusing particularly presented, is free-space and fiber optical in DSP for compensating signal impairments both RoF transmission system with converged MIMO Communications Technology, W-band Japan. Univ., Japan; esy Kawanishi Tetsuya Frequency CombsI—Continued Applications ofLowNoise FTh3C •Symposiumon Coffee Break, MarketStreet &SouthTower Foyers Electronic andPhysicalSystems,Waseda e-ci Kitayama Ken-ichi 1 3 Yk Yoshida Yuki , National Inst. of Information and National Inst.ofInformation • Crystal FiO 2,3 18–22 October 2015 Invited ; 1 Osaka Univ., Japan; 1 1 Nklo P. Dia- Nikolaos , Assi Kanno Atsushi ,

2 , ern Unitersity,ern USA; Communication andComputing,Northwest- Kwiat mixture usingrandomunitaries. of bound entanglement that does not simulate demonstration optical first the knowledge our to downconversion, parametric spontaneous from pairs photon hyperentangled using state Smolin the of realization experimental an present We atSanDiego,USA. of California FTh3D.5 •14:30 Hyperentangled Photons,Aditya N. Sharma Using Space Hilbert Four-Qubit a Exploring Urbana-Champaign, USA; ei McCusker Kevin Communications II—Continued FTh3D •Quantum decoupling. dynamical using by minimized be can cally that for lower values of l the decoherence numeri- show also order.We mode azimuthal the is $l$ where $l^2$, to proportional is decoherence of rate that show and fiber optical multimode a in photon a of states OAM for model decoherence a derive We coupling, dephasing correction viadynamicalde- to Limits - fiber in states momentum lar angu- orbital single-photon Multiplexing 2 FTh3D.6 •14:45 P. Dowling Hearne Inst.forTheoreticalHearne Physics,USA. 1 ; 1 Dept. ofPhysics,Univ. ofIllinoisat aih ua Gupta Kumar Manish 2,1 ; 1 Louisiana StateUniv., USA; 2 Gold Jlo Barreiro Julio , 3 Dept. ofPhysics,Univ. 2 Center forPhotonic 2,1 Jonathan , 3 Pu G. Paul , 1 ,

Univ., INTEC,Belgium; USA; on a50nmoperationalbandwidth. 10pm is resolution interrogator measured The cated in the Silicon-on-Insulator (SOI) platform. Arrayed-Waveguide-Gratingfabri- filter (AWG) Grating sensor interrogator, based on a tailored demonstrated a novel miniaturized Fiber-Bragg- Vermeiren 5 Trita Andreain SOIplatform, tor based on an Arrayed Waveguide Grating Miniaturized FiberBraggGratingInterroga- FTh3E.6 •14:30 Shibnath Pathak Devices—Continued FTh3E •OpticalFiberSensorsIII: Luceda Photonics,Belgium. We experimentally 3 Com&Sens, Belgium; 4 , Danae Delbeke Danae , 1 , Dries Van Thourhout Empire Invited 2 Rockley PhotonicsInc., 4 Xenics nv, Belgium; 1 , Pieter Dumon Pieter , 2

, Eli Voet Eli , 1 ; 1 Ghent Ghent 3 , Jan , 1,5 , Thursday, 22 October Mo- 1 109 ; 2,1 Jeffrey Jeffrey Neaton LS Piedmont Invited Dept. of Physics, Univ. of California, Berkeley, USA. of California, Berkeley, I Dept. of Physics, Univ. will discuss the use of density functional theory and many-body and theory functional density of use the discuss BSE and approximation GW the within – theory perturbation of excited-states and structure understanding for – approach perovskites. halide and crystals acene e.g. materials, organic LTh3I.5 • 14:30 LTh3I.5 and Excited States of Ab Initio Studies of Structure Organic-Based Semiconductors, 2 lecular Foundry, Lawrence Berkeley National Lab, USA; National Lab, USA; Berkeley Lawrence lecular Foundry, LTh3I • Innovative Metallic-Emitter Coupled Metallic-Emitter Coupled • Innovative LTh3I Systems III—Continued , ; 1 2 , Sean Moore Sean , 1 , , John Marciante 1 We describe We USA. U. Rochester, 2 , Friedrich Strohkendl Friedrich , 1 Invited , , Fabio Di Teodoro 1 Hillsborough David A. Rockwell A. David Raytheon Company, USA; Raytheon Company, an Er:SHARC fiber amplifier generating 1-nsec pulses hav- repetition kHz 30 a at kW 100 approaching powers peak ing rate. Pulse energies of 0.9 mJ were achieved with a longer pulse length of 15 nsec. Vladimir Vladimir Shkunov Er-Doped Semi-Guiding High-Aspect-Ratio Core (SHARC) Core High-Aspect-Ratio Semi-Guiding Er-Doped Fiber Amplifier Generating 100 μJ, 1-nsec Pulses at 30 kHz, 1 FTh3H.5 • 14:30 FTh3H • Fiber Lasers and Amplifiers— FTh3H • Fiber Continued 18–22 October 2015

• - Yang Market Street & South Tower Foyers & South Tower Market Street Break, Coffee Universidad de la Republica, FiO/LS 2015 1 ; 1 FiO CREOL, Univ. of Central Florida, USA. CREOL, Univ. 1 ; 1 15:00–15:30 Sacramento , José Ferrari José , 1 , Shuo Pang Shuo , 1 Julia Alonso Julia FTh3G.5 • 14:30 Slic- Focus to Fusion Multi-Focus Domain Frequency From ing, Uruguay. For optical systems under severe defocus, we a propose method to estimate the focus slices (i.e. in-focus Fourier from stack) a of images acquired the of each of region results Experimental image. reconstructed all-in-focus based provided. are FTh3G • Computational Optical Sensing Optical FTh3G • Computational II—Continued and Imaging We We demonstrate a long imaging depth, multi-perspective fluorescence scanning microscopy based on Talbot effect generated from a microlens array. An object with two layers that are 155μm apart was reconstructed from different perspectives. FTh3G.6 • 14:45 Microscopy, Talbot Multi-perspective Fluorescence Sun yang , 1 , Kokou B. Dos- B. Kokou , 3 Centre for Ultrahigh Ultrahigh for Centre 3 , Björn C. P. Sturmberg Björn, P. C. 1 Centre for Ultrahigh Bandwidth Centre 1 ; 1 Shanghai Jiao Tong Univ., China. We Univ., Jiao Tong Shanghai 1 National Computational Infrastructure, National Computational Infrastructure, ; 2 Glen Ellen Glen 1 , Christopher G. Poulton G. Christopher , 2,3 , Tian Yang Tian , 1 , Ross C. McPhedran 3 Australian National Univ., Australia; Australian National Univ., Lindsay C. Botten C. Lindsay sou Aperiodic Gap Plasmon Resonators for Unidirectional Unidirectional for Resonators Plasmon Gap Aperiodic Launching and Shaping of Surface Plasmon Polaritons, Lei Zeyu FTh3F.7 • 14:45 FTh3F.7 FTh3F.6 • 14:30 • 14:30 FTh3F.6 Perfect Absorption in Ultra-thin Uniform and Nanostruc- Sterke de Martijn C. Media, tured FTh3F • Three-Dimensional Optical FTh3F • Three-Dimensional and Design, Fabrication Structure Nanopatterning I—Continued Bandwidth Devices for Optical Systems (CUDOS), School Systems (CUDOS), School Bandwidth Devices for Optical of Technology Sciences, Univ. of Mathematical and Physical Australia. We show Sydney, that perfect absorption can be absorbing weakly of composed gratings ultra-thin in achieved dielectric materials combined with a The mirror. structures techniques. processing can be fabricated using standard Devices for Optical Systems (CUDOS), School of Physics, Univ. School of Physics, Univ. Devices for Optical Systems (CUDOS), Australia; of Sydney, report a compact device for the efficient launching of unidi- of launching efficient the for device compact a report rectional surface plasmon polaritons (SPPs). Unidirectional SPPs with focused, Bessel and Airy profiles have also been by adjusting the wavefront. experimentally realized Thursday, 22 October mers a clear path to achieving GW level peak power. pulse energies of 31 mJ. Additionally, we show and fs 120 < of duration pulse with m) \mu (7 Univ., USA. We demonstrate a far infrared source 110 Wilson far infrared., Derrek length asapathtostrong fieldscienceinthe wave- m \mu 7 with source light MW 260 A FTh4A.2 •16:00 1 Albert High Energy DensityScience,Félicie High Intensity Laser-driven X-ray Sources for FTh4A.1 •15:30 Institut furQuantenoptik,Germany Presider: LaszloVeisz; Max-Planck- Applications II FTh4A •UltrafastLaser 15:30–17:30 high energy densityscience. for applications have will source The pulses. laser scale regimes) acceleration laser direct and modulated (self picosecond and regime) (blowout femtosecond using accelerators field discuss betatron x-ray radiation from laser wake- We We Lawrence LivermoreNationalLab,USA. 1 Cro Trallero-Herrero Carlos , California Invited 1 , Adam M. Sum- M. Adam , 1

; 1 Kansas State 1 ; of Rochester, USA; Beams Hybrid PhotonicIntegration,John Dallesasse FTh4B.2 •15:45 Goodfellow Semiconductor, Atomically-Thin Detection ofOpticalPlasmonsUsingan FTh4B.1 •15:30 Central Florida,CREOL,USA Presider: SasanFathpour;Univ. of Integration onSiliconII for Communications:Hybrid FTh4B •IntegratedPhotonics 15:30–17:30 better than250mA/W. reponsivities plasmon and 0.5 of efficiencies conversion plasmon-to-charge exhibits device thin semiconductor molybdenum disulfide. Our atomically- the with plasmons nanowire silver of detection electrical near-field demonstrate B Kesler of III-Nmaterialsisalsodiscussed. environmenting thermal modeled. Integration photonic materials are examined, and the result- increasing functionality. Methods for integrating provides a path for improving performance and tion of compound semiconductors with CMOS Integra- of IllinoisatUrbana-Champaign,USA. of ElectricalandComputerEngineering,Univ. 1 , Nick Vamivakas 1 , T O’Brien 1 Cirlea Chakraborty Chitraleema , Valley 2 1 FiO We ETH Zurich,Switzerland.We , G.L. Su Invited 1 , Lukas Novotny 1 , J Carlson

ent M. Kenneth 1 ; 2 1 ; , Ryan Ryan , 1 Dept. Dept. 1 Univ. FiO/LS 2015 1 , California SanDiego,USA California Presider: BillKuo,Univ. of Frequency CombsII Applications ofLowNoise FTh4C •Symposiumon 15:30–17:30 Withdrawn. FTh4C.2 •16:00 1 Howe tion Priorities for Ultra-low Phase Noise, Applica- Synthesis: Frequency Optical-to-RF FTh4C.1 •15:30 Allan deviation. low broadly (3) and operation, continuous (2) Our priorities include: (1) ultra-low phase-noise, domain. optical the from signals RF synthesize that (OFDs) dividers frequency-comb optical of progress and challenges operational scribe de- Weof Standards andTechnology ,USA. Time andFrequency Division,NationalInst. 1 Acia Hati Archita , • Crystal 1 Lr Nugent-Glandorf Lora , 18–22 October 2015 Invited Invited

David David 1 ; E. Galica systematically. were directly observed and further investigated modes resonant optical technique, troscopic fabricated. By using the spatially resolved spec - optical cavities with different morphologies were chanics, China. Central Florida,CREOL,USA Presider: AristideDogariu,Univ. of LTh4D •Complex Dynamics 15:30–17:15 in MultilevelSystems,Leland Aldridge Simulations oftheOpticalBichromatic Force LTh4D.3 •16:00 Stabilization, Three-Point with Oscillator Opto-Electronic Coupled LTh4D.2 •15:45 tors, Semiconductor microstructure opticalresona- LTh4D.1 •15:30 hnhi Chen Zhanghai rsia Bagnell Kristina tests ontheCaFmolecule. experimental with conjunction in simulations, dynamics in multilevel systems using numerical cooling of molecules. We are investigating BCF and slowing improvedlaser promisefor shows (BCF) force bichromatic optical The cut, USA. China; unique error signals. of generation for regions three into spectrum two parameters is accomplished by filtering the the Decoupling spacing. mode and frequency optical of stabilization independent with ture architec- oscillator opto-electronic coupled a present We Central Florida,CREOL,USA. Hongxing Dong 2 Shanghai Inst.ofOpticsandFineMe- 1 , Edward E. Eyler High quality ZnO microstructure 1 Ln Zhang Long , 1 Ptr Delfyett Peter , Gold LS 2 , Liaoxin Sun 1 ; 1 Univ. ofConnecti- nhn Klee Anthony 2 ; 1 Fudan Univ., 1 1 , Yang Liu ; 1 Univ. of 1 , Scott 1 2 , , Georg M. Müller M. Georg length Drifts for Fiber-Optic Current Sensors, Wave- Source of Compensation Athermal FTh4E.2 •16:00 and Applications,David Hill Theory (DAS): Sensing Acoustic Distributed FTh4E.1 •15:30 de RennesI,France Presider: BrunoBureau; Universite Methods FTh4E •OpticalFiberSensorsIV: 15:30–17:30 Lin Yang of usesacross awideassortmentofindustries. adopted sensing technology with a broad range rapidly and powerful a as emerged has (DAS) Sensing Acoustic Distributed fibers, optical in backscatter Rayleigh of effect the Exploiting wavelength dependence of the Faraday effect. optic current sensor and thus compensates the fiber- a of states polarization orthogonal two length dependent cross-coupling between the fiber-optic retarder introduces controlled wave- athermal An Corporate Research, Switzerland. 1 , Andreas Frank Empire 1 , Wei Quan Wei , FiO Invited 1 , Klaus Bohnert 1 ; 1 , Miklós Lenner Miklós , 1 OptaSense, UK. 1 ; 1 ABB ABB 1 , Thursday, 22 October

, , , , ; 2 1 1 1 2 Aus- 2 111 , A. Aadhi A. , 1 , Yossi Lereah Yossi , 1 , Surendra Singh Surendra , 1 , Cyril Hnatovsky ELI-ALPS, Hungary. ELI-ALPS, 2 1 Vladimir V. Chvykov Vladimir V. ; ; 1 Tel-Aviv Univ., Israel; Univ., Tel-Aviv 1 ; , Roei Remez Roei , 1 1 , Reeta Vyas Reeta , 2 Theoretical Physics Division, Physi- Theoretical 2 , , Károly Osvay , Ady Arie Ady , Piedmont 1 2 , Vladlen Shvedov , Yuval Tsur Yuval , 1 1 , R. P. Singh P. R. , 2 Roy Shiloh Roy Univ. of Arkansas, USA; Univ. Evolution of the polarization profile profile polarization the of Evolution Lab, India. cal Research was propagation with beams Maxwell-Airy aperture finite of of polarization cross the of Existence experimentally. studied the Airy beam is demonstrated. tralian National Univ., Australia. tralian National Univ., The Astigmatic Airy beam is introduced, and accurate, closed-form expressions are derived using ray-tracing methods. These expressions are system: optical extraordinary an in experiment confirmedin microscope. the transmission electron Boris A. Malomed Krolikowski Wieslaw Mikhail Mikhail Kalashnikov Prahbakar Shashi LTh4I.3 • 16:00 LTh4I.3 Airy and Vortex of Acceleration and OAM the Unveiling Beams, 15:30–17:30 Systems • Novel Laser LTh4I Osaka Univ., Ken-ichi Kitayama; Presider: Japan • 15:30 LTh4I.1 Final EDP Ti: Sapphire Amplifiers for New Generation of Ultra-High Power Laser Systems, • 15:45 LTh4I.2 Nomoto M. Sean Beam, Airy the of Polarization 1 We studied the concept of EDP amplification for the 10-100 the for amplification EDP of concept the studied We of design The systems. laser ELI-pillars three the of level PW parameters these achieve to required amplifiers duty – EDP was done and will be reported. LS ; - 1 , May 1 , Li-Bang 2 Northwestern 1 ; 1 , John R. Marciante R. John , 1 Renpeng Fang , Pei-Ling Luo 2 National Cheng Kung Univ., National Cheng Kung Univ., 1 ; 1 , Selim Shahriar 1 Jordan P. Leidner P. Jordan Hillsborough , Jow-Tsong Shy 1 Taiwan. We Hua Univ., Physics, National Tsing 2 , Resham Sarkar 1 , Hsiang-Chen Chui 2 The Inst. of Optics, USA. Self-heterodyne measurements Wang Taiwan; Taiwan; reported the frequency of an external cavity diode laser was laser diode cavity external an of frequency the reported RF-discharged a in transitions hyperfine 2S-3P He-4 on locked helium The cell S/N using ratio a and 10-mW 389-nm laser. performance investigated. were of beat frequencies between broad-area laser lateral and longitudinal modes are spatially resolved to generate spatio-spectral mappings of mode beat frequencies. Evo- lution with power is used as evidence to indicate collapse. coherence spatial LTh4H.1 • 15:30 LTh4H.1 Laser Diode Cavity External an of Stabilization Frequency using Helium 2S-3P Saturated Absorption Transitions, Chia-Wei Chen • 15:45 LTh4H.2 Investigation Experimental Clock: Atomic State Collective and Application to Spin-Squeezing, • 16:00 LTh4H.3 High- in Evolution Mode of Measurement Self-heterodyne Lasers, Diode Power 1 15:30–17:15 Laser Systems • Stable LTh4H National Lab, USA Jill Scott, Idaho Presider: E. Kim Univ., USA. Univ., We describe our effort towards experimental demonstration of an N-atom collective state atomic clock which produces a root-N narrowing of Ramsey fringes, and detec efficient and generation the to thereof application the tion of spin squeezing. 18–22 October 2015 ; , 3 1 Univ. Univ. • 1 ; 1 , Zhimin Zhi 1 , Yair , Rivenson Yair 2 Dept. of Electrical & 2 , James R. Fienup R. James , Dept. of Electro-Optics Dept. of Electro-Optics 1 1 ; FiO/LS 2015 2 Yuval Kashter Yuval Sacramento Zachary DeSantis Zachary , Joseph Rosen 1 We present an present We Israel. Univ., Faculty of Engineering, Bar-Ilan of South Florida, USA. We Dept. of Physics, Univ. present of Rochester, USA. Imaging interferometry has of Rochester, a significant challenge balancing cost and measurement time. We - pro by time, measurement total the reducing for method a pose adaptively measuring the Fourier domain, with a favorable impact on the image quality. Adrian Stern advanced configuration of an incoherent holographic imaging holographic incoherent an of configuration advanced system with a partial synthetic aperture. The image - resolu tion of the physical aperture-limited system is significantly is sparse. enhanced although the synthetic aperture a self-interference digital polarization holography method The shot. single a in scene incoherent an of imaging 3-D for 3-D imaging capability is quantitatively demonstrated with scenes. time-multiplexed incoherent controllable 3 Enhanced-resolution Enhanced-resolution by Sparse Synthetic Aperture with Fresnel Elements (S-SAFE), FTh4D.2 • 15:45 three- for holography polarization digital Self-interference imaging, Ziyi dimensional incoherent Zhu 1 FTh4D.3 • 16:00 15:30–17:30 Sensing Optical FTh4G • Computational III and Imaging of Connecticut, Univ. Guoan Zheng; Presider: USA FTh4D.1 • 15:30 Adaptive Allocation of Measurement Time for Imaging Interferometry, Engineering, Ben gurion Univ., Israel; Engineering, Ben gurion Univ., Computer Engineering, Ben-Gurion Univ. of the Negev, Israel; Negev, of the Computer Engineering, Ben-Gurion Univ. FiO , Thomas 1 Univ. of Michigan, USA. of Michigan, Univ. 1 ; 1

Matthieu C. Leibovici Invited Glen Ellen Glen Georgia Inst. of Technology , USA. We report Inst. of Technology Georgia 1 , Rebecca L. Peterson L. Rebecca , ; 1 1 FTh4F.2 • 16:00 FTh4F.2 2D Photonic-Crystal Waveguide Structures and 3D Peri- Pattern-Integrated by Microstructures odic-Lattice-Based Interference Lithography, FTh4F.1 • 15:30 • 15:30 FTh4F.1 Ink Deposition of Quaternary Amorphous Oxide Semi- Devices, and Optoelectronic conductors for Electronic Lo Chun-Li Presider: Debashis Chanda, Univ. of Central of Central Debashis Chanda, Univ. Presider: Florida, USA 15:30–17:30 Optical FTh4F • Three-Dimensional and Design, Fabrication Structure Nanopatterning II High-quality amorphous oxide thin films with band-edge absorption in the ultraviolet are deposited using a sol-gel ink process. We control optical and electrical properties of semiconducting zinc tin oxide by incorporating quaternary alloy elements. the fabrication of photonic-crystal waveguide structures by pattern-integrated interference lithography. Experiments are in excellent agreement with simulations. Preliminary results for three-dimensional microstructure fabrication are as well. presented K. Gaylord Thursday, 22 October J. Zipp Sprangle ionization regimes. multi-photon and ionization tunneling both for spectrum of argon. 2D Phase maps are obtained ionization threshold above two-color field strong in pathways ionization interfering from USA. We observed angle resolved phase shifts Dekel Univ., Israel; 112 Papeer (Jenya) ous PlasmaChannelsinAir., Evgeny Continu- and Long of Generation Towards FTh4A.5 •16:45 Above Threshold Ionization, Angle ResolvedPhotoelectron PhaseShiftsin FTh4A.4 •16:30 Laser, for Picosecond Mode-locked Yb-doped Fiber Improved Method of Pulse Width Stabilization FTh4A.3 •16:15 Applications II—Continued FTh4A •UltrafastLaser Technical Univ., Russia; channels inair. generate long, continuous high density plasma an nanoseconds external laser thus allowing to using extended is filaments plasma of Lifetime left in the wake of powerful femtosecond laser. demonstrate concatenation of several filaments error lessthan200fs. picosecond Yb-doped fiber laser with absolute of stabilization width pulse for technique SHG on based method improved an developed Accelerator Lab,USA; ntl Grudinin Anatoly Koshelev Kirill 1 1,2 Vladimir A. Lazarev Ai Zigler Arie , 1 , Moti Botton , Philip H. Bucksbaum 2 Yi Ferber Yair , 2 1 California e experimentally We NRL, USA. , Alexey Pnev Alexey , 2 ; 1 Zhr Henis Zohar , 1 Bauman MoscowState 1 , Daniel Gordon 2 1 Physics, Stanford Univ., Ea Schleifer Elad , 2 We We Fianium Ltd,UK. 1 , Dmitriy Shelestov 1,2 1 Adi Natan , Valery Karasik Valery , ; 1 SLAC National SLAC National 1 ; 1 Hebrew 2 1 , Phillip 1 , Lucas Elior , 1 1 , , to thisproblem. solution a offer Si on lasers dot quantum III-V performance high of growth direct in ments achieve - Recent silicon. of bandgap indirect light sources have not been realised due to the on-chip pumped electrically efficient, strated, demon- been have devices photonic silicon IEEE PhotonicsSociety(USA). as the Vice-President for Technical Affairs of the served has He (USA). Fellow IEEE an and (UK) Engineering of Academy Royal the of Fellow a applications. Professor Seeds has been elected systems their and devices photonic and wave 400 papers and filed some 20 patents on micro of the Photonics Group. He has published over Head and Opto-electronics of Professor is he where London, College University to moved he Laboratory Lincoln MIT at Member Staff a as working After London. of University the of Alwyn Seeds holds the Ph.D. and D.Sc. degrees Epitaxial Growth, Direct by Silicon on Lasers Dot Quantum FTh4B.3 •16:15 Siming Chen Liu Continued Integration onSiliconII— for Communications:Hybrid FTh4B •IntegratedPhotonics 1 ; 1 Univ. College London, UK. Although many 1 , Mingchu Tang Valley Alwyn J. Seeds FiO Tutorial 1 , Qi Jiang

1 , Jiang Wu 1 , Huiyun FiO/LS 2015 1 - , 1 Combs, Signal Processing using Optical Frequency FTh4C.3 •16:30 to required combcharacteristics. them relate and metrics performance system sub- the discuss We systems. microwave on have will this impact the processingand signal wideband for combs frequency optical of tion Frequency CombsII—Continued Applications ofLowNoise FTh4C •Symposiumon We will review the utiliza- the review will We MITRE Corp,USA. Ronald D. Esman D. Ronald • Crystal 18–22 October 2015 Invited 1 , Anthony Lenihan Anthony ,

1 ; magnetic fieldateachatomcloud. the determining performed, is spectroscopy Raman launched. are atoms the half and MOT using atom clouds. Atoms are collected in a 3D gradients magnetic of measurements present We Nanosystems, MITLincolnLabs,USA. will bediscussed. sensor dual a for Prospects pulses. light optic atom the form beams Raman continuous tiple mul- through times transit atoms’ The source. atom MOT tilted 2D a using measurements interferometry atom present We Univ., USA. Braje 1 LTh4D.4 •16:15 aa DeSavage Sara Clouds, Atom Cold Two on Measurements Magnetic GradiometerUsingSimultaneous LTh4D.6 •16:45 State, Steady the in Dissipation with Cavity Driven a in Dots Quantum Three of Discord Global LTh4D.5 •16:30 to-Optical Trap, An Atom Gyroscope Using a 2D Tilted Magne- College ofMaryland,USA; Air SystemsCommand,USA; explored. is behavior field output with correlations and state steady the in field driving and detuning, quantized cavity field in presence of dissipation, three identical quantum dots interacting with a Arkansas, USA. Global Discord is calculated for George Welch St. Mary’s College of Maryland, USA; Continued LTh4D •ComplexDynamics— Naval Air Systems Command, USA; 3 Jn Davis Jon , Willa Rawlinson Willa 3 , Francesco A. Narducci 1 Avn Srinivasan Arvind , Raghav Simha 1 Gold Facso . Narducci A. Francesco , LS 1 , Reeta Vyas Reeta , 3 Physics, Texas A&M 2 Physics, St.Mary’s 1 , Erin Knutson 3 2 1 Integrated Integrated Danielle , ; 2 1 1 Physics, Univ. of ; 1 Naval Naval 1 2 ; , Malaysia; Wee Lit Ng Lit Wee Holes around theCore forChemicalSensing, Air Triangular with Fiber Crystal Photonic a Enhancement ofExposedEvanescentFieldin FTh4E.5 •16:45 Domain Polarimetry, High ResolutionAllFiberOpticalCoherence FTh4E.4 •16:30 Fibers atInfrasonicFrequencies, Lingze Duan Probing the Intrinsic Thermal Noise of Optical FTh4E.3 •16:15 1 function detailsatanypointintheDUT. a μs scanning to determine the cross coherence mirrors. The measuring technique incorporates space free replacing mirror loop fiber a with constructed is OCDP fiber all Univ.,An Egypt. nications Eng.Dept.,FacultyofEng.,Ainshams significant confinementloss. without 16.85% to 12.35% from up boosted is (air-filling ratio of 0.8), the sensitivity at 1500nm By adding the sunny structure to a PCF normal proposedis PCF investigated. numerically and tal realization isdiscussed. feasibility analysis is presented and experimen- noise of optical fiber in the infrasonic region. A proposed for probing the fundamental thermal Zehnder-Fabry-Perot-hybridis scheme sensing Faisal Rafiq Mahamd Adikan Mahdiraji Amouzad Ghafour Mahmoud H. Ahmed Methods—Continued FTh4E •OpticalFiberSensorsIV: A Mach- Univ.A ofAlabamainHuntsville,USA. 2 National Taiwan Univ., Taiwan. Sunny 1 , Din Chai TeeChai Din , Empire FiO 1 ; 1 Electronics and Commu berha Afifi Abdelrahman 1 , Kwok Shien YeoShien Kwok , 1 ; 1 1 Gn-u Lin Gong-Ru , Univ. ofMalaya, 1 2 1 1 - , , , ; Thursday, 22 October

, , 6 2 2 O 3 113 Kansas Optics, 1 2 ; 1 at 1 second. 1 at -1/2 , Chris Erickson Chris , τ 1 , Kushan - Weeras Air Force Research Research Air Force -13 1 2 , Frederic , Gerome Frederic 2 , Kristan Corwin 1 , Nathan Lemke Nathan , 1 , Benoit Debord 1 Lab for Laser Energetics, USA; Lab for Laser Energetics, 1 Neda Dadashzadeh Piedmont ; 1 Univ. of Limoges, XLIM Research Inst., Inst., XLIM Research of Limoges, Univ. 2 , Brian Washburn 2 Space Dynamics Lab, USA; 1 ; 2 Gretchen Phelps Gretchen of 1.71±0.19. 2 , Andrew , Jones Andrew 1 , Jake Bromage Jake , 2,1 France. Beam profile measurements of an acetylene-filled hollow-core fiber laser have been performed for the beam a produces laser first The combining. beam towards time, with M State Univ., USA; USA; State Univ., Travis Peters- Travis Femtosecond Optical Parametric Oscillator, en Fetah Benabid Burke John LTh4I.6 • 16:45 LTh4I.6 BiB 2.06-µm High-Average-Power, Pumped, Thin-Disk LTh4I.4 • 16:15 LTh4I.4 Photonic Hollow-Core Gas-filled Mid-IR a of Profile Mode Crystal Fiber Laser, • 16:30 LTh4I.5 Frequency Optical an for Rb in Spectroscopy Two-Photon Standard, We report on the development of an atomic clock atomic an of development the on report We Lab, USA. two- the upon based applications, space and ground both for photon transition in Rb. components Off-the-shelf allow for 10 x 7 supports that architecture simple a inghe A sync-pumped optical parametric optical sync-pumped A USA. of Rochester, Univ. oscillator using 1.1-ps, a thin-disk–based 48-W, pump laser MHz 7.08 at pulses sub-500-fs 0.5-µJ, produce to designed under construction. at 2060 nm is currently centered LTh4I • Novel Laser Systems—Continued • Novel Laser LTh4I LS ; ; 1 1 ATA 2 , Nathan 2 , Peter Delfyett Peter , 1 , Te-Yuan Chung Te-Yuan , 1 laser was constructed using , Jordan Armstrong 4 1 , Anthony Klee Anthony , 1 , Ching-Nien Chen Ching-Nien , 1 laser operation using two VBGs for gain for VBGs two using operation laser Alkaline-earth Space Dynamics Lab, USA. Hillsborough 4 3 Kristina Bagnell Kristina Space Vehicles, Air Force Research Lab, USA; Research Air Force Space Vehicles, Yu-Hua Hsieh Yu-Hua 1 ; 3 Christopher J. Erickson Dual wavelength operation Taiwan. Univ., National Central We present present We CREOL - College of Optics and Photonics, USA. an investigation of the white noise plateau in residual phase residual in plateau noise white the of investigation an noise measurement of an optical frequency comb for short and long external cavity lengths. laser Aerospace, USA; Aerospace, two volume Bragg gratings (VBGs) as the output couplers. By couplers. output the as (VBGs) gratings Bragg volume two stabilization achieved VBGs both of temperature the tuning dual wavelength laser output. of a diode pumped Nd:GdVO Simultaneous CW 1063.7 nm and 1070.8 nm dual wave- Nd:GdVO length 1 • 16:30 LTh4H.5 Study of White Noise Corner Frequency Location in Re- Cav- Long and Short with Measurement Noise Phase sidual Lengths, ity 1 • 16:45 LTh4H.6 Robust Optical Clocks Based on Alkaline-Earth Vapor Cells, LTh4H.4 • 16:15 LTh4H.4 control, control, Lemke atoms offer narrow linewidth clock transitions that have been have that transitions clock linewidth narrow offer atoms mate- to due geometries beam and MOT, lattice, to limited compact vapor cell solutions for present We rial properties. clocks with these atoms. realizing LTh4H • Stable Laser Systems—Continued • Stable LTh4H 18–22 October 2015 - • Jorge Jorge Optics Institut 1 3 CREOL, ; 1 1 ; We report report We 1 , Margaux Bar 1 Dept. of Physics 2 , Goëry Genty Goëry , 3 FiO/LS 2015 , Aristide Dogariu 1 Piotr Ryczkowski We discuss We of Guanajuato, Mexico. Univ. 1 , John M. Dudley M. John , Sacramento 2 ; 1 Milad Akhlaghi Bouzan , Ari T. Friberg T. Ari , 1 the concept of a vortex-pair and depth its the use extend which for apodizers, implementing tunable and masks phase of field. We apply these devices for designing nonconven- Petzval sum. tional systems, with zero FEMTO-ST, Université de Franche-Comté, France. Franche-Comté, de Université FEMTO-ST, on the first experimental demonstration of time-domain ghost imaging using a temporally incoherent classical light source. Our results open novel perspectives for dynamic imaging of ultrafast signals with high resolution even in the of noise. presence College of Optics and Photonics, Univ. of Central Florida, of Central College of Optics and Photonics, Univ. USA. Enhanced fluctuations of integrated scattered intensity are used to measure characteristic scales of scattering statistical only controlling on relies approach The potentials. against inherent of the illumination and is robust properties perturbations. and Mathematics, Univ. of Eastern Finland; Finland, and Mathematics, Univ. FTh4D.5 • 16:30 of Optical Scattering Poten- Stochastic Characterization tials, FTh4D.6 • 16:45 Field, of Depth extended for Masks Optical Tunable Ojeda-Castaneda FTh4D.4 • 16:15 Ghost Imaging, Temporal bier Lab, Tampere Univ. of Technology, Finland; of Technology, Univ. Lab, Tampere FTh4G • Computational Optical Sensing Optical FTh4G • Computational III—Continued and Imaging , , , 1 1 1 FiO , Yaoyu Cao Univ of Illinois 1 1 Swinburne Univ. Swinburne Univ. ; , Abdul Bhuiya 1 1 1 ; 1 , Lonna Edwards 1 , Min Gu Min , , Xin Yu 1 Sahar Tabrizi 1 , Hao Chen 1 Univ of Illinois at Urbana-Champaign, at Illinois of Univ , Lynford L. Goddard , Lynford 1 1 , Baohua Jia Baohua , ; Glen Ellen Glen 1 1 , Chris Edwards 1 We demonstrate single-step direct direct single-step demonstrate We Australia. of technology, two- sensitive highly via arrays c-shape silver of writing laser nanostructures periodic process.The photoreduction photon region. near-infrared the in resonances optical strong present functional of fabrication cost-effective provides method This metamaterial device. Shailendra Srivastava Cumming Benjamin Kimani C. Toussaint C. Kimani We combine conventional planar conventional combine We USA. at Urbana-Champaign, semiconductor processing with gray-scale topography - cre fabricate to etching photochemical projection digital by ated include Applications converters. mode waveguide adiabatic efficient coupling to fiber or between planes of multi-layer photonic integrated circuits. Optically Resonant Silver C-shape Arrays Fabricated via Two Photon Photoreduction, FTh4F.5 • 16:45 FTh4F.5 FTh4F.4 • 16:30 • 16:30 FTh4F.4 Converters Mode Waveguide Adiabatic Tapered Vertically Etching, Photochemical Projection Digital with Fabricated Kaiyuan Wang FTh4F.3 • 16:15 • 16:15 FTh4F.3 Plasmon-assisted Etching for Fabrication of Planar Opti- cal Components, Qing Ding FTh4F • Three-Dimensional Optical FTh4F • Three-Dimensional and Design, Fabrication Structure Nanopatterning II—Continued USA. Plasmon-assisted etching of (PAE) arrays of Au pillar- proof-of- As demonstrated. is nanoantenna bowtie supported of fabrication table-top demonstrate to PAE use we concept, plate. zone grating and a Fresnel a planar diffraction Thursday, 22 October Technol, Singapore; constrained parameterspace. then show how to sweep out curves through this of extrematheoretical the derive to how relate to the absorption 114 Thick Materials, Optically- by Light Laser Power High of tion Development of Predictive Models of Absorp FTh4A.7• 17:15 Wong Jie tron PulseCompression, Liang Temporal Lenses for Three-Dimensional Elec- FTh4A.6 •17:00 Applications II—Continued FTh4A •UltrafastLaser ing tocoherent terahertzsources. Applications range from ultrafast electron imag- pulses. optical ultrafast using dimensions eter pulses to attosecond durations and sub-microm- electron compressing of method all-optical an (10 Accelerator Lab,USA. Key metrics for petawatt Peter Norreys Max Tabak Johnson Steven Freelon Byron Livermore NationalLab,USA; 15 ) ae apiain, uh ae fusion, laser such applications, laser W) 2 , Stephen Libby 1 California ; 2 Tm Rohwer Timm , 1 Univ. ofOxford, UK; Matthew Levy 2 ; 1 Sg Inst.ofManufacturing 2 e propose We MIT, USA. f . In this paper, we show 2 , Siegfried Glenzer 1 , Scott C. Wilks 3 2 SLAC National Nh Gedik Nuh , 2 Lawrence . We f. 1,2 2 3 2 - , , , , Huang temperature. deposition selectivity is not sensitive to growth the that show results Experimental observed. are pillars GaAs of tilt the and fronts growth Faceted studied. is substrates GaAs/Si terned nanopat round-hole on GaAs of epitaxy USA; Electronics & Applied Physics, Univ. of Maryland, Wang Modulator, THz Graphene-Based Silicon-Integrated FTh4B.5 •17:15 SiO nanopatterned round-hole a using substrates (001) Si on GaAs of coalescence and growth Selective FTh4B.4 •17:00 Li a backgate. via modulated is graphene, the in absorption intraband the therefore and energy, Fermi The top. on sheet graphene a with waveguide silicon a on based modulator THz broadband a present We ing, Univ. ofMaryland,USA. Continued Integration onSiliconII— for Communications:Hybrid FTh4B •IntegratedPhotonics 2 , Thomas E. Murphy E. Thomas , 2 Dept. ofElectrical&ComputerEngineer 1 Hiag Hu Haiyang , 1 Xamn Ren Xiaomin , atn Mittendorff Martin Valley FiO 2 1 mask, Q Wang Qi ,

1,2 1 ; ; 1 1 Inst. forResearch in TheBUPT, China. uri He Yunrui 1 1 Yongqing , Shanshan , 1 Jun , FiO/LS 2015 - - post-conference survey know yourthoughts via emailandletus son associated withthisapproach are addressed. wavelengths is investigated. Various challenges different at operating lasers semiconductor coherent combination of multiple comb-locked the upon based generation waveform optical Inst., MaxPlanck,Germany.routetowardNew FTh4C.4 •17:00 Radan Slavik Radan Synthesis, Signal Arbitrary Comb-locked Frequency CombsII—Continued Applications ofLowNoise FTh4C •Symposiumon attending FiO/LS. on theprogram. 1 ; Thank youfor Look foryour 1 Univ. ofSouthampton,UK;  1 , David S. Wu S. David , • Crystal 18–22 October 2015 Invited 2 , David J. Richard- J. David ,

2 Albert Einstein Albert Einstein K. Datta India; LTh4D.7 •17:00 o Sal Modelocking, Stable for Process Second-Order Cascaded by tion Realization ofInverseSaturableAbsorp- order cw-mode-locked Nd:YVO second- cascaded a from pulses picosecond Pittsburgh, USA. Experimentally realized stable Shouvik Mukherjee Shouvik and inversesaturationlossbehavior. aperturing which accounts the stable pulsewidth gain varying radially with method propagation self-consistent-complex-beam a by verified Continued LTh4D •ComplexDynamcis— 2 Dept. ofPhysicsandAstronomy, Univ. of 1 ; 1 Indian Inst. of Technology Kharagpur, Gold 2,1 LS , Satya P.Satya , Singh haa Mondal Shyamal 4 laser has been 1 , Prasanta , 1 , different effects inducedinopticalfibers. via radiation detect to options and constraints principles, present will presentation This cade. tool especially at acceleratorsoverthelastde- valuable a become has fibers optical with tion nische Trendanalysen, Germany. Sensing radia- 1 Kuhnhenn Particle Accelerators,Jochen Fibre OpticRadiationSensorSystemsfor FTh4E.6 •17:00 Methods—Continued FTh4E •OpticalFiberSensorsIV: Fraunhofer-Institut NaturwissenschaftlichTech- Empire FiO Invited 1 ; Thursday, 22 October , 1 Na- 1 Hyub ; 115 1 , Kyung- , 1 Laser Utilizing Laser 4 , Deying Chen Deying , 1 , Xudong Li 1 , Daewon Kang Daewon , 1 Xinrui Xu Xinrui Korea Advanced Inst. of Science of Inst. Advanced Korea 1 , Renpeng Yan 1 ; 1 laser is proposed. Single frequency Piedmont 4 , Jin Hwan Kim Hwan Jin , 1 , Yufei Ma 1 , Soohyun kim 1 , Won Sik Kwon Sik Won , 1 tuning operation with a tuning range of 6.9 GHz at 1064 nm 1064 at GHz 6.9 of range tuning a with operation tuning applied voltage modulating and etalon tilting by achieved is on RTP simultaneously. , Korea. and Technology A graphene/polymer composite coated on a chemically etched fiber is used as a saturable absorber based on evanescent wave interaction for passive mode-locking of ultrafast fiber lasers. RTP as Electro-Optical Element, Electro-Optical as RTP tional Key Lab of Science and Technology on Tunable Laser, Laser, on Tunable Technology tional Key Lab of Science and China. A linearly tunable single Harbin Inst. of Technology, frequency Nd: YVO Rongwei Fan Lee LTh4I.7 • 17:00 LTh4I.7 YVO Nd: Frequency Single Tunable Linearly • 17:15 LTh4I.8 Based Absorbers Saturable Composite Graphene/Polymer Fiber, Etched Using Interaction Wave Evanescent On soo Kim LTh4I • Novel Laser Systems—Continued • Novel Laser LTh4I LS ; 1 , Myeongsoo Kang 1 , Kee Hwan Nam 1 Hillsborough Ki Sang Lee Dynamics of a coupled-cavity a of Dynamics Korea. Dept. of Physics, KAIST, mode-locked soliton fiber laser is experimentally investigated experimentally is laser fiber soliton mode-locked at both the single-pulsing and multi-pulsing regimes. In multi-pulsing particular, dynamics can be widely controlled and intra-cavity loss. strength by tuning the cavity coupling Multi-Pulsing Dynamics in Coupled-Cavity Soliton Fiber Laser, 1 LTh4H.7 • 17:00 LTh4H.7 LTh4H • Stable Laser Systems—Continued • Stable LTh4H 18–22 October 2015

, , , 1 1 3 • , Nathan , 1 Heriot-Watt Heriot-Watt 3 , John J. Healy J. John , , Lena Mertens Lena , 1 2 , Alessandro Rug- 1 , Gerald S. Buller Univ. of Glasgow, UK; Glasgow, of Univ. 5,6 1 ; ; 1 Univ. of Ottawa, Canada. Univ. Reuben Aspden Reuben 6 FiO/LS 2015 , Daniel S. Tasca S. Daniel , 1 , Inbarasan Muniraj Inbarasan , 1 , Robert W. Boyd The linear The Ireland. College Dublin, Univ. , Robert A. Kirkwood , Miles J. Padgett J. Miles , 4 1 Sacramento 3 1 ; 1 , Peter Morris Peter , Liang Zhao Liang 1 Informazione- di Mila Politecnico e Bioingegneria Univ. of Rochester, USA; of Rochester, Univ. 4 5 , Alberto Tosi 4 Universidade Federal do Rio de Janeiro, Brazil; Universidade Federal do Rio de Janeiro, - opti paraxial of variety wide a model can transform canonical cal systems. The continuous transform is additive & unitary, sampling rate chosen to ensure these two important group summarized. are during discretization properties Univ., UK; UK; Univ., John T. Sheridan T. John Michael G. Tanner Hadfield H. Robert no,, Italy; R. Gemmell R. FTh4D.8 • 17:15 Microscopy, Ghost Trans-spectral 2 FTh4D.7 • 17:00 Unitary and Additive Ensure Sampling Rate Chosen to Properties for the 2D Non-separable Linear Canonical Transform, Low-light infrared imaging techniques suffer from high noise high from suffer techniques imaging infrared Low-light system microscopy ghost a demonstrate We cost. and levels the whilst photons infrared using probed is object the where visible photons. image is developed with correlated geri FTh4G • Computational Optical Sensing Optical FTh4G • Computational III—Continued and Imaging , , 1 FiO 1,2 Yale Univ., Univ., Yale 1 ; 2 Chia Wei Hsu , Sergey Sukhov 1,2 Dept. of Physics, Univ. Dept. of Physics, Univ. 2 , Marin Soljacic Marin , 2 Glen Ellen Glen CREOL, The College of Optics and Pho- CREOL, The College of Optics 1 ; 1 , Steven Johnson Steven , 2 Roxana Rezvani Naraghi We design dielectric stacked-ring structures structures stacked-ring dielectric design We USA. MIT, 2 USA; Owen D. Miller D. Owen Aristide Dogariu Aristide that are transparent under omnidirectional broadband - illu mination but scatter with strongly a narrowband directional light source. Such structures can be used as transparent screens. projection FTh4F.7 • 17:15 • 17:15 FTh4F.7 Designing Structural Transparent Color, FTh4F.6 • 17:00 • 17:00 FTh4F.6 Directional Efficient for Structures All-Dielectric Designing Scattering, FTh4F • Three-Dimensional Optical FTh4F • Three-Dimensional and Design, Fabrication Structure Nanopatterning II—Continued tonics, Univ. of Central Florida, USA; of Central tonics, Univ. By structural design of wavelength- of design structural By of Central Florida, USA. size all-dielectric spherical particles, one could control the can procedure Mie inverse an Besides, directivity. scattering be implemented for core-shells particle in order to find the indices and particle size. refractive