Conference Schedule ...... 2 OFC Rise and Shine Morning Run/Walk ...... 19 Corporate Sponsors ...... 3 Special Chairs’ Session: Vision 2030: Taking Optical Communications through the Next Decade ...... 19 Chairs’ Welcome Letter ...... 5 Photonic Society of Chinese-Americans Workshop and General Information Social Networking Event ...... 19 Customer Service and Conference Information ...... 6 Postdeadline Paper Presentations ...... 19 First Aid Station ...... 6 Plenary Session ...... 21 Media Center ...... 6 OFC and Co-Sponsor Awards and Honors ...... 23 OFC Conference App ...... 6 Short Course Schedule Registration ...... 7 ...... 25 Social Media Information ...... 7 Activities on the Show Floor Speaker Ready Room ...... 7 Exhibition ...... 28 Wireless Internet Access ...... 7 Interoperability Demonstrations ...... 28 Conference Materials ...... 7 OFC Career Zone Live ...... 29 Poster Presentations ...... 29 Celebrating 50 Years of Light-speed Connections ...... 10 Sponsoring Society Booths ...... 29 Special Events and Programming The Optical Society (OSA) Member Lounge ...... 29 OIDA Workshop on Embedded Photonic Manufacturing for Market Watch ...... 29 Data Centers ...... 11 Network Operator Summit ...... 30 OFC Workshops ...... 11 Data Center Summit ...... 30 Lab Automation Hackathon ...... 15 Suzanne R. Nagel Lounge ...... 30 OIDA Executive Forum ...... 16 Expo Theater II Programming ...... 31 OFC Symposia ...... 16 Expo Theather III Programming ...... 31 OSA Roundtable with Seasoned Entrepreneurs in Optical Product Showcases ...... 32 Fiber Communications ...... 16 Technical Program and Steering Committees OFC Panels ...... 16 ...... 34 OFC Demo Zone ...... 17 Explanation of Session Codes ...... 38 Open Networking Summit ...... 17 Agenda of Sessions ...... 39 OIDA/OSAF Professional Development & Networking Technical Program Lunch and Learn ...... 17 The Art of Writing the Perfect OFC Paper ...... 18 Abstracts ...... 48 OIDA Roadmap on Quantum Photonics ...... 18 Key to Authors and Presiders ...... 140 Rump Session: When Will Co-packaged Optics Replace Pluggable Modules in the Datacenter? ...... 18

This program contains the latest information up to 21 January 2020.

While program updates and changes until the week prior to the conference may be found on the Update Sheet, Exhibit Buyers’ Guide and Addendum distributed in the registration bags, consult the OFC Conference App for the latest changes and access individual papers.

Technical Registrants: Access Digest Papers by visiting ofcconference.org and clicking on the “Download Digest Papers” on the home page. Recorded presentations are available from the same page by clicking “View Presentations.”

OFC® and Optical Fiber Communication Conference® are registered trademarks of The Optical Society (OSA).

OFC 2020 • 8–12 March 2020 1 Conference Schedule Sunday Monday Tuesday Wednesday Thursday All times reflect Pacific Time Zone 8 March 9 March 10 March 11 March 12 March Registration 07:30–19:00 07:30–18:00 07:00–18:00 07:30–17:00 07:30–16:00 Programming Short Courses 09:00–20:00 08:30–17:30 OFC Workshops 13:00–18:30 Lab Automation Hackathon 20:00–22:00 Technical Sessions 08:00–18:30 14:00–18:00 08:00–18:30 08:00–16:00 Symposium: Quantum Information Science and Technology (QIST) in the 08:00–12:30 Context of Optical Communications OFC Demo Zone 14:00–16:15 Symposium: The Role of Machine Learning for the Next-generation of Optical 14:00–18:30 Communication Systems and Networks Symposium: Emerging Network Architectures for 5G Edge Cloud 14:00–18:00 Symposium: Future Photonics Devices fJ/bit Optical Networks Enabled by 08:00–10:00 08:00–10:00 Emerging Optical Technologies Poster Sessions 10:30–12:30 10:30–12:30 Special Chairs’ Sessions: Vision 2030: Taking Optical Communications 14:00–18:30 through the Next Decade Open Networking Summit: Optical Metro/Aggregation Networks to Support 16:30–19:00 Future Services over 5G Rump Session: When Will Co-packaged Optics Replace Pluggable Modules 19:30–21:30 in the Datacenter? Postdeadline Papers 16:30–18:30 Exhibition and Show Floor Activities Exhibition and Show Floor 10:00–17:00 10:00–17:00 10:00–16:00 (Exhibit-Only Time) (10:00–14:00) (10:00–14:00) (10:00–14:00) Market Watch - Expo Theater I 10:30–16:00 15:30–17:00 10:30–16:00 Network Operator Summit - Expo Theater I 10:30–15:00 Data Center Summit – Expo Theater II 11:30–13:45 Expo Theater II and III Programs 10:15–17:00 10:15–17:00 10:15–16:00 Suzanne R. Nagel Lounge 10:00–17:00 10:00–17:00 10:00–16:00 OFC Career Zone Live 10:00–17:00 10:00–17:00 10:00–16:00 Special Events OFC Rise and Shine Morning Run/Walk 06:00–07:00 OFC Plenary Session 08:00–10:00 Awards Ceremony and Luncheon 12:00–14:00 Exhibitor Happy Hour 17:15–18:15 Special Keynote – Celebrating 50 Years of Light-speed Connections 18:15–19:00 Conference Reception - Celebrating 50 Years of Light-speed Connections 19:00–20:30

2 OFC 2020 • 8–12 March 2020 OFC thanks the following OFC thanks corporate sponsors for their generous support: the following media partners:

*Corporate sponsors include COBO.

OFC 2020 • 8–12 March 2020 3

Welcome to the 2020 Optical Fiber Communication Conference and Exhibition

On behalf of the many individuals, including countless volunteers that have organized OFC 2020, Hot topics this year include 5G, IoT; 100G; 400G; data center networks; photonic, electronic it is our sincere pleasure to welcome you to San Diego, California. OFC is the foremost meeting integration; digital signal processing, advanced modulation; disaggregation, open platforms, SDN, in optical communications and networking, and this year’s conference continues the tradition of NFV; ethernet; network automation, artificial intelligence, machine learning; optical interconnects; providing an excellent program that captures advances in research, development and engineering. quantum technologies; sensor devices and systems; silicon, integrated photonics; and wireless, visible light communications. In the plenary session on Tuesday morning, three visionary speakers will present new insights into current innovations and future challenges in optical communications and networking as well as The OFC Exhibit hosts more than 700 exhibitors from all over the world representing every facet of frontier scientific research. Qi Bi, president of China Telecom Technology Innovation Center and the optical communications market: communication and network equipment, data center intercon- CTO of China Telecom Beijing Research Institute will talk about the development and future of nects, electronic components and subsystems, fiber cables and assemblies, integrated photonics, 5G; Karsten Danzmann, director of the Max Planck Institute for Gravitational Physics, Germany, test equipment, lasers, optical components, optical fibers, transmitters and receivers, sensors and will explore the recent merging of traditional astrophysics with the detection of gravitational much more. In addition to meeting with vendors and seeing new products, the Market Watch waves; and, Sir David Payne, director of the Optoelectronics Research Centre, Zepler Institute for program and the Network Operator Summit form the core of the business-related programming of Photonics and Nanoelectronics at the University of Southampton, U.K., will share his views on the the meeting. Market Watch is a three-day series of panel discussions that engages the latest appli- future of silica as an optical material. cation topics and business issues in the field of optical communications. Presentations and panel sessions feature esteemed speakers from top carriers, system vendors, market analyst firms and The 2020 conference provides an exceptionally strong technical program consisting of a portfolio component companies. The Network Operator Summit includes a keynote address by Chih-Lin I, of 59 short courses, 515 contributed and 100+ invited papers, 24 tutorial presentations, 9 work- China Mobile and the Data Center Summit includes a keynote address by Jeffrey Cox, Microsoft shops, and 8 panels. The range of topics that will be addressed includes advances in deployable Corporation, USA. Be sure to check out the other programs on the show floor addressing busi- optical components, fibers and field installation equipment; passive optical devices and circuits for ness solutions and emerging technologies. This year many industry groups will present, including switching and filtering; active optical devices and photonic integrated circuits; fibers and propaga- Huawei USA, OIF, Telecom Infra Project (TIP), AIM Photonics, POFTO and others. tion physics; fiber-optic and waveguide devices and sensors; advances in deployable subsystems and systems; optical, photonic and microwave photonic subsystems; radio-over-fiber, free-space Organizing a successful OFC conference each year is an enormous task that is undertaken by and non-telecom fiber-optic systems; digital and electronic subsystems, digital transmission many dedicated volunteers. We are indebted to the OFC Technical Program Chairs, Shinji Matsuo, systems; advances in deployable networks and their applications; control and management of David Plant and Jun Shan Wey, for their expertise and dedication in coordinating the technical multilayer optical networks; network architectures and techno-economics; optical access networks content through OFC’s technical program committee. The high quality of the OFC program is for fixed and mobile services; and optical devices, subsystems, and networks for Datacom and a direct result of the efforts of the technical program chairs, subcommittee chairs, and technical Computercom. program committee members, all of whom have dedicated an enormous amount of their valuable time to ensure the quality of the conference, and maintain the highest standards by reviewing and The OFC Short Course program taught on Sunday and Monday provides attendees with an excel- selecting papers, nominating invited speakers and organizing workshops and panels. It is also our lent opportunity to learn about the latest advances in optical communications from some of the pleasure to thank the staff of The Optical Society, whose ceaseless hard work and professional- leading academic and industrial professionals in the field. The program covers a broad range of ism make it possible for OFC to continue as the foremost optical communications and networking topical areas including devices and components, sub-systems, systems and networks at a variety of conference in the world. educational levels ranging from beginner to expert. The main emphasis of the OFC program is research and development that addresses longer- term issues in optical communications and networking. Monday’s technical sessions includes 19 live demonstrations and prototypes of collaborative research projects, pre-commercial products and proof-of-concept implementations presented in the OFC Demo Zone. The technical offer- ings include four symposia. On Monday the symposia presented includes Quantum Information Science and Technology (QIST) in the context of Optical Communications and ends with The Role of Machine Learning for the Next-generation of Optical Communication Systems and Networks. Tuesday’s symposia includes Emerging Network Architectures for 5G Edge Cloud. Wednesday’s symposia starts with the first session of Future Photonics Devices fJ/bit Optical Networks Enabled by Emerging Optical Technologies which concludes on Thursday. On Tuesday evening organizers Chris Cole, Luminous Computing, USA; Dan Kuchta, IBM Research, USA facilitate the Rump Robert Doverspike Dan Kuchta William Shieh Session, When Will Co-packaged Optics Replace Pluggable Modules in the Datacenter? Poster Network Evolution IBM TJ Watson Research University of Melbourne, sessions will be held on Wednesday and Thursday, providing the opportunity for in-depth discus- Strategies, LLC, USA Center, USA Australia sion with presenters. OFC 2020 • 8–12 March 2020 5 General Information

Customer Service and Conference Media Center Access Technical Digest Papers Information Rooms 4, 5A and 5B Full technical registrants can navigate directly to the The OFC 2020 Media Center consists of a Media technical papers right from the OFC Conference App. Please visit the Customer Service and Conference Locate the session or talk in “Event Schedule” and Information desk to get information on: Room and semi-private interview space for one- on-one interviews and/or briefings with media and click on the “Download PDF” link that appears in the • Parking analysts. The media room is restricted to registered description.

General Information media/analysts holding a Media badge. • Coat and Baggage Check Important - Log in with your registration email and Media Center Hours password to access the technical papers. Access is • Restaurant information limited to Full Conference Attendees. Sunday, 8 March 12:00–16:00 • Show your Badge promotions Download the OFC Conference App! Monday, 9 March 07:30–18:00 • General conference information Plan your day with a personalized schedule and Tuesday, 10 March 07:30–18:00 • Lost and Found (for after-hours Lost and Found, browse exhibitors, maps and general show informa- please go to the OFC Security Office located in Wednesday, 11 March 07:30–18:00 tion while engaging with your fellow attendees. iPhone/iPod, iPad, Android, and Kindle Fire compati- Show Office D (look for security sign). Thursday, 12 March 07:30–16:00 ble. Download the conference app one of three ways: 1. Search for ‘OFC Conference’ in the app store. First Aid Station OFC Conference App Box Office E 2. Go to ofcconference.org/app OFC offers more than 100 sessions featuring 120+ A first aid station will be operated according to the invited speakers and 20+ tutorial presentations in 3. Scan the QR code schedule below. In addition, information regarding the technical conference along with 700+ exhibitors. local medical facilities will be available. Manage your conference experience by download- First Aid Station Hours ing the OFC Conference App to your smartphone or tablet. (See steps below). Sunday, 8 March 08:00–17:00 Schedule Monday, 9 March 08:00–17:00 Search for conference presentations by day, topic, The OFC 2020 Guide will be listed under the “down- Tuesday, 10 March 08:00–17:00 speaker or program type. Plan your schedule by set- load guides” section of the application. Wednesday, 11 March 08:00–17:00 ting bookmarks on programs of interest. Technical OFC Conference App Help Desk Thursday, 12 March 08:00–17:00 attendees can access technical papers within session descriptions. Need assistance? Find an App Coach at the OFC Solution Desk near registration or contact our OFC Emergencies - Contact Security Command Center on Exhibit Hall house phone at ext. 5911 or call +1.619.525.5911. Conference App support team, available 24 hours a Search for exhibitors in alphabetical order and set day Monday through Friday, and from 09:00 to 21:00 bookmark reminders to stop by booths. Tap on the EDT on weekends, at +1 888.889.3069, option 1. map icon within a description, and you’ll find locations on the Exhibit Hall map. View a daily schedule of all activities occurring on the show floor.

6 OFC 2020 • 8–12 March 2020 Registration Wireless Internet Access Access is limited to Full Technical Attendees only. General Information Lobby D If you need assistance with your login information, OFC is pleased to provide free wireless Internet please use the “forgot password” utility or “Contact Hours: service throughout San Diego Convention Center for Help” link. all attendees and exhibitors. The wireless internet Sunday, 8 March 07:30–19:00 can be used for checking email, downloading the Postdeadline Paper Digest Monday, 9 March 07:30–18:00 OFC Conference App, and downloading the OFC Technical Papers, etc. The Postdeadline Paper Digest includes the 3-page Tuesday, 10 March 07:00–18:00 summaries of accepted Postdeadline Papers. Papers Wednesday, 11 March 07:30–17:00 SSID: OFC will also be available to download online on Tuesday, Password: OFC2020 Thursday, 12 March 07:30–16:00 10 March. The digests will be available to all technical conference registrants beginning Thursday, 12 March, starting at 10:00 at Registration in Lobby D or outside Sponsored by Conference Materials Ballroom 6A. The papers will be presented Thursday, OFC Technical Digest on a USB Slap Band 12 March, 16:30–18:30. The OFC 2020 Technical Digest, composed of Join the Conversation! the 3-page summaries of invited and accepted Short Course Notes Get the latest updates from OFC via Twitter at Notes typically include a copy of the presentation @OFCConference. Use the hashtag #OFC20 and any additional materials provided by the instruc- and join in the conversation today! contributed papers, as well as tutorial presentations tor. Each course has a unique set of notes, which are notes will be on the USB Slap Band. The Technical distributed on-site to registered course attendees Digest USB is included with a technical conference Speaker Ready Room only. Notes are not available for purchase separately registration. These summaries will also be published from the course. Room 11 in OSA Publishing’s Digital Library and submitted to the IEEE Xplore Digital Library, providing the author All speakers and presiders are required to report to attends and presents their paper at the OFC 2020 Buyers’ Guide the Speaker Ready Room at least 1 hour before their conference. sessions begin. Computers will be available to review The Buyers’ Guide is composed of the 50-word uploaded slides. descriptions and contact information for exhibiting Online Access to Technical Digest companies, a cross-referenced product-category Speaker Ready Room Hours* index, general conference services information and Technical attendees have EARLY (at least one week extensive details regarding exhibit floor activities. Sunday, 8 March 13:00–17:00 prior to the meeting) and FREE continuous online Guides will be given to every OFC 2020 attendee as Monday, 9 March 07:00–18:00 access to the OFC 2020 Technical Digest. These part of registration. 3-page summaries of tutorial, invited, and accepted Tuesday, 10 March 10:00–18:00 contributed papers can be downloaded individually Wednesday, 11 March 07:00–18:00 or by downloading daily .zip files. (.zip files are available for 60 days after the conference). Thursday, 12 March 07:00–15:30 1. Visit the conference website at ofcconference.org *All Exhibit Hall speakers (including Market Watch and Network Operator Summit) should go directly to 2. Select the purple “Download Digest Papers” button on the right side of the web page the theater in which they are presenting. All theaters OFC Management advises you to write your name are located in the Exhibit Hall. 3. Log in using your email address and password on all of your conference materials (Conference used for registration. You will be directed to the Program, USB Slapband, Buyers’ Guide, and Short conference page where you will see the .zip file Course Notes). There is a cost for replacements. links at the top of the page. [Please note: if you are logged in successfully, you will see your name in the upper right-hand corner.]

OFC 2020 • 8–12 March 2020 7 Captured Session Content We are delighted to announce that approximately 40 Event Policies and Terms/ percent of the sessions at OFC 2020 are being digi- Code of Conduct tally captured for on-demand viewing and accessible with your technical registration. The pre-selected All OFC 2020 guests, attendees, and exhibitors content represents the full breadth of the OFC 2020 are subject to the Event Policies and Terms, includ- program including symposia, oral presentations, and ing the Code of Conduct. The full text is available the Postdeadline Papers sessions. All captured ses- at ofcconference.org/eventpolicies. sion content will be live for viewing within 24 hours of being recorded. Just look for the symbol in the General Information Agenda of Sessions and abstracts to easily identify the presentations being captured. To access the presentations, select the “View Presentations” button prominently displayed on the right on the conference homepage (ofcconference. org). As access is limited to Full Technical Attendees only, you will be asked to validate your credentials based on your registration record.

8 OFC 2020 • 8–12 March 2020

Celebrating 50 Years of Light-speed Connections

In 1970, two significant technical achievements led to Welch also serves on the Board of Directors at The Timeline of Innovation several start-up companies. He holds over 130 pat- the development of practical fiber optical communi- Exhibit Hall B, Booth 5801 cations: the demonstration of low-loss fibers (16db/ ents, and over 300 technical publications, and has km) and the first CW room-temperature semiconduc- been awarded The Optical Society’s (OSA) Adolph As we look back at the discoveries of years past and tor lasers. Since then, numerous other breakthroughs Lomb Medal, Joseph Fraunhofer Award and John speculate about what is yet to come, OFC unveils have resulted in increasing the bandwidth and reach Tyndall Award, as well as the Institute of Engineering a unique show-floor exhibit that surveys 50 years of of fiber links, enabling the World Wide Web, video Technology’s J J Thompson Medal for Electronics. optical fiber innovations — from the first demonstra- streaming, trans-oceanic high capacity links, high- He is a Fellow of OSA and the Institute of Electrical tion of low-loss fiber in 1970 to efficient 400GbE capacity wireless communications and many other and Electronics Engineers, and is a member of the transport at any distance today. Browse the timeline data services. National Academy of Engineering. of milestones, and see the progression of invention through artifacts and imagery. At the 2020 OFC Conference and Exhibition, come Welch holds a Bachelor of Science in electrical engi- celebrate the successes of the OFC community that neering from the University of Delaware and a PhD in have facilitated light-speed connections between electrical engineering from Cornell University. John Tyndall Award Exhibit individuals and businesses across geographic and Lobby E oceanic boundaries. Conference Reception Tuesday 10 March, 19:00–20:30 The Tyndall Award, established in 1987 and jointly Special Keynote Upper Level, Sails Pavilion presented by IEEE Photonics Society and The Optical Society (OSA), has been bestowed upon 33 vision- Tuesday, 10 March, 18:15–19:00 The special keynote will be followed by an enhanced, aries who have made outstanding contributions in

Celebrating 50 Years of Celebrating 50 Years Ballroom 20BCD Light-speed Connections “past/present/future” themed conference recep- the areas of optical-fiber technology. The interac- David F. Welch, Founder and tion. Enjoy the fine food and drink and capture the tive exhibit introduces visitors to the recipients, their Chief Innovation Officer, Infinera, moment with a photo op. Who knows? You might inventions and innovations and the impact of their USA get a snapshot with an industry icon from the past. work. (Requires a ticket for Exhibit Pass Plus attendees.) This multi-media presentation from David Welch looks back at 50 Innovator Sponsor years of discovery and its impact on society. The talk will conclude Premier Sponsor with a brief glimpse into the near- term future. Supporter Sponsors COBO LOGO In his role, Welch drives deep business and technology innovation through forward-looking strategies, including breakthrough technologies and technology partnerships, in addition to innovative business and market directions. Welch is currently a member of Infinera’s Board of Directors, where he has served the company since 2010. Prior to co-founding Infinera, he served as CTO, Transmission Division at JDS Uniphase, and in various executive roles, including CTO and Vice President of Corporate Development, at Spectra Diode Labs (SDL).

10 OFC 2020 • 8–12 March 2020 Special Events and Programming

OIDA Workshop on Embedded The year 2020 marks the tenth anniversary of the Chris Cole; Luminous Computing, USA official deployment of coherent interfaces in long-haul Kenneth Jackson; Sumitomo Electric Device Photonic Manufacturing for Data networks. Advances in photonic integration, digital Innovations, USA Centers signal processing and mixed-signal circuitry are driv- Vlad Koslov; Lightcounting, USA Sunday, 8 March, 07:30–18:30 ing continual reductions in coherent interface cost, Ian Dedic; Acacia Communications Inc., UK Hilton San Diego Bayfront. Separate registration power consumption and size. Katharine Schmidtke; Facebook, USA required. Hacene Chaouch; Arista, USA Everyone seems to agree that coherent detection Join your colleagues as leading experts take the will eventually replace direct detection in short-reach stage to discuss new business and technology trends applications – including access networks, data-center S1B: Optical Components for fJ/bit Exascale for manufacturing embedded photonic devices for interconnects and even inside data centers – but Computing: How and When? data centers. Four immersive panel discussions—all there is no widespread consensus on when, why and Room: 6D Special Events led by subject matter experts—will help you gain a how this will occur. This workshop explores the appli- Organizers: Frank Peters, University College Cork, better understanding of the issues that could impact cations and enabling technologies that will drive the Ireland; Yasuhiro Matsui, Finisar, USA; Hideyuki Nasu, your company. Hear from leading decision mak- transition from direct detection to coherent detection Furukawa Electric, Japan ers with responsibility for the development of next in these short-reach systems. generation data centers, who will share their key System power is the primary constraint for the The workshop will be divided into two parts. technology and cost requirements. The workshop will Exascale systems with a target of 20-40 MW for a 1 also have speakers from leading photonic companies In Part I, data center operators, telecom network exaflop machine. This workshop will discuss the dif- and service providers who are developing innovative providers and system vendors will discuss the applica- ferent optical interconnect technologies available and products and advanced manufacturing services to tions and use cases for coherent interfaces and the which are the most energy efficient, including both meet these emerging requirements. This event is co- requirements they pose on reach, receiver sensitivity, hybrid and fully integrated solutions. This workshop located with OFC but requires a separate registration. power consumption and size. will focus on the photonic transceiver components that will be required to drive these Exascale systems. osa.org/oidaworkshop In Part II, system and component vendors, as well as academic and industrial researchers, will present There are currently many photonic device options to Hosted by enabling technologies and novel link architectures achieve a single-lane modulation speed beyond 100 for coherent interfaces that may address future Gbps: Si photonics, InP, LN, organic, graphene, etc. requirements, and will highlight key technological Which modulator technology will prove to be best? Is challenges. silicon photonics the way forward for these applica- OFC Workshops tions, and if so, how should the fJ/bit be calculated Speakers: given that an off-chip laser may be required? Will Xiang Zhou; Google, USA Sunday, 8 March, 13:00–15:30 isolators be required? If so, how will these be made Mark Filer; Microsoft, USA cost effective. Alternatively, will quantum dot lasers Alberto Campos; CableLabs, USA be sufficient as isolator-free laser sources? S1A: Application and Technology Drivers Winston Way; NeoPhotonics, USA for Short-reach Coherent Links at 800G and Maxim Kuschnerov; Huawei Technologies Duesseldorf Speakers: Beyond GmbH, Germany Richard Pitwon; Resolute Photonics, UK Room: 6C Rob Stone; Broadcom Corp., USA Shiyoshi Yokoyama; Kyushu University, Japan Robert Blum; Intel Corp., USA Frank Flens; II-VI, USA Organizers: Fotini Karinou, Microsoft Research Xiang Zhou; Google, USA Shigeru Kanazawa; NTT, Japan Ltd, UK; Clint Schow, University of California Santa Albert Rafel; BT Technology, UK Joris Van Campenhout; IMEC, Belgium Barbara, USA; Joe Kahn, Stanford University, USA; Chongjin Xie; Alibaba, USA Juerg Leuthold; ETH, Switzerland Takahito Tanimura; Fujitsu Laboratories Ltd., Japan; Tomoo Takahara; Fujitsu Laboratories Ltd., Japan Zhensheng Jia; CableLabs, USA; Timo Pfau, Acacia Frank Chang; Source Photonics, USA Communications Inc., USA Matthew Sysak; Ayar Labs, USA

OFC 2020 • 8–12 March 2020 11 S1C: What ROADM/OXC Technologies will Cost‐ This workshop will specifically discuss the following Liangjia Zong; Huawei Technology, China effectively Enable Dynamic and Reconfigurable aspects: Green OXC Technologies for Intelligent Optical Optical Networks in 5G Era? Networks Room: 6E 1. Do we really need contentionless for a ROADM? Antonio D’Errico; Ericcson, Italy Organizers: Gangxiang Shen, Soochow University, 2. Would an MxN WSS eventually replace the What’s Cooking in Silicon Photonics on ROADM/ China; Andrew Lord, BT Labs, UK; Francesca Multicast Switching (MCS) module for contention- OXC for 5G Networks Parmigiani, Microsoft Research Ltd, UK less and when? Lynn Nelson; AT&T, USA As traffic volumes carried by optical networks are 3. How high nodal degree would be for the future Title to be Announced. growing by tens of percent per year, we are rapidly high-degree ROADM? What is the size of the approaching the Shannon limit in the conventional M*N WSS required for the future high-degree Craig Cameron; Finisar, Australia Moving beyond Performance: Does LCoS Have a telecommunication band within a single-mode fiber. ROADM? Place on the Network Edge? Several solutions have been proposed to continuously 4. What is the most promising architecture for a increase the capacity of an optical network, such as mini-ROADM in the 5G access? Should it be Thierry Zami; Nokia, France spectral extension to other bands (e.g., S, L, and U with filter or filterless? At which level should a Impact of the OXC Technologies on the WDM bands), elastic bandwidth optical networking, multi- mini-ROADM permeate an xHaul and a metro Network Performance core fiber transmission, and increasing the number network? of fibers connected between optical nodes. In order Dan Kilper; University of Arizona, USA to be compatible with these new optical network- 5. How will future ROADMs interface with SDM line Optical Amplifiers in the 5G Era systems? ing technologies, reconfigurable optical add/drop Christos Gkantsidis; Microsoft, UK multiplexing (ROADM) nodes should evolve accord- 6. Will ROADMs ever become truly dynamic and Is DCI the Right Space for Optical Switching Special Events ingly. Various features are required to be considered, reconfigurable in optical networks? Is dynamicity such as high nodal degree, flexible switching capabil- useful? Dan Marom, Hebrew University of Jerusalem, Israel ity, low power consumption, and easy operation in Title to be Announced. a backbone network, and low nodal degree, simple 7. Will ROADMs ever have a part to play in datacenter interconnect (DCI) networks? Daping Chu, University of Cambridge, UK architecture, and low cost in a metro/access network. Monolithic Integration of Stacked LCOS WSSs for On the other hand, while ROADMs based on different 8. What will be the optimal technological solutions Cost-effective Dynamic and Reconfigurable Optical technologies have the potential to provide flexible for transponders in order to fully take advantage Networks provisioning and reconfiguration in future optical of the capability of ROADMs? transport networks, their main use is for quasi-static configurations in today’s networks. 9. How open should a ROADM be? S1D: Optics for Neuromorphic Computing and Machine Learning: Status, Prospects and This workshop aims at providing a platform for speak- This workshop is expected to attract a strong industry Challenges ers and the audience to discuss the challenges and audience as currently ROADM deployment is increas- Room: 6F solutions of ROADM/OXC enabling technologies ing rapidly in optical networks around the world. for the next generation dynamic and reconfigurable Which ROADM architecture is the best is still under Organizers: Paraskevas Bakopoulos, Mellanox optical networks in the 5G era. The topics will focus debate as we are seeing different carriers adopting Technologies, Greece; Bhavin Shastri, Queen’s on several aspects: first, we will discuss how to build different architectures. This workshop will also attract University, Canada; Chigo Okonkwo, TU Eindhoven, cost-effective ROADM architectures based on differ- much interest from academia as the workshop will Netherlands ent node or application scenarios. Second, we will cover recent hot topics such as OPEN ROADM and The recent rise in artificial intelligence and neuro- overview recent progress in the module technology ROADMs supporting SDM technology. morphic computing has demonstrated super-human (e.g., wavelength selective switches) and will discuss Speakers: performance in tasks such as image recognition, the option that is the most suitable for each ROADM language translation, cancer detection, healthcare, architecture. Third, we will discuss the technologies Kentaro Nakamura; Fujitsu Network Communications, self-driving cars, etc. This rise can be attributed to related to ROADM-based network operation, such as USA algorithmic innovations, access to big data, and new truly dynamic reconfiguration, node protection, spec- Optimizing Open Networks with Innovations in hardware (GPUs, Google’s tensor processing unit). trum routing, and spectrum defragmentation, etc. Modular Optical Architectures With more computing applications, new demands are being placed on hardware that are faster and energy

12 OFC 2020 • 8–12 March 2020 efficient. Recently, there has been a resurging inter- Antonio Hurtado; University of Strathclyde, UK meshed Ethernet, ptp fibers) as well as across net- est in using light to build processors to meet these Title to be Announced work segments employing different technologies such demands and potentially enable new applications in as fixed-wireless. high-performance computing, solving optimization Harish Bhaskaran; University of Oxford, UK Phase Change Photonics for In-memory Computing Key questions this workshop intends to explore problems, accelerating deep learning, etc. Photonic include: technologies offer high-speed optical communication Kathy Lüdge; Technische Universität Berlin, Germany and massive parallelism with optical signals, coupled Reservoir Computing with Laser Networks - • Where do hard constraints such as 1 ms latency, with the advances in photonic integration technology Modelling Aspects and Optimization 6 nines reliability and 5 or 10 ns timing accuracy and a large-scale silicon industrial ecosystem. come from, and how necessary is it to adhere to Alexander Tait; National Institute of Standards and these constraints? Through a collection of talks and panel discussions, Technology, USA this workshop will cover topics on the current sta- Title to be Announced • What are the new access architecture and pro- tus of the field in using light for machine learning tocol design for strict latency and high reliability and neuromorphic computing. The applications Bruno Romeira; International Iberian Nanotechnology guarantees? domains that may drive the demand for photonic Laboratory, Portugal Special Events and optoelectronic solutions, and the challenges On-chip Nano-light-emitting Sources for Energy- • Do we need new network node architectures in associated with commercializing this technology will efficient Neuromorphic Computing support of edge and fog computing and how be addressed. The topics will range from devices, invasive (i.e. how close to the end user) should Bert Offrein; IBM Zurich, Switzerland these computing resources be? systems, architectures, algorithms, and applications Title to be Announced for: photonic reservoir computing with delay-based • How far can an orchestration layer help timely system; multiwavelength and coherent optical neural S1E: Converged 5G and Heterogeneous coordinate scheduling across segments, and networks with integrated photonics; optical spiking when is hardware coordination needed? neural networks with excitable lasers and phase- Services Access Networks: How to Achieve change materials; free-space diffractive optics; and Ultra-low Latency and High Reliability? • Can/should mission-critical applications co- coherent Ising machines. Room: 7 exist with other less latency-intensive types of applications? Speakers: Organizers: Thomas Pfeiffer, Nokia Bella Labs, Germany; Junichi Kani, NTT Access Service Systems, Speakers: Volker Sorger; George Washington University, USA Japan; Elaine Wong, University of Melbourne, Martin Maier; INRS Montreal, Canada Title to be Announced Australia HwanSeok Chung; ETRI, Korea Marco Ruffini; TCD, Ireland Bahram Jalali; University of California Los Angeles, Ultra-low latency transmission is increasingly gain- Akihiro Nakao; Tokyo University, Japan USA ing importance in access networks, be it for low Pascal Dom; Nokia, Belgium How to Use Physics to Accelerate AI layer split fronthaul in 5G wireless networks, or for Yuanqiu Luo; Futurewei, USA latency-sensitive and mission-critical applications Jonathan Dong; Centre National de la Recherche Philippe Chanclou; Orange Labs, France over wireless or fixed connections. Emerging cMTC, Scientifique, France Nihel Benzaoui; Nokia Bell Labs, France Multiple Light Scattering for Large-scale Optical mMTC, human-to-X services in the industrial and private environment, or public IoT applications such Reservoir Computing and Chaotic Systems Sunday, 8 March, 16:00–18:30 Prediction as V2X communication, are calling for deterministic and reliable low-latency communication. With data Shanhui Fan; Stanford University, USA transmitted over complex networks, passing through S2B: Are Radical Photonic Devices and Title to be Announced multiple nodes and crossing different network seg- Architectures Needed for Future Data ments based on diverse transmission technologies Nikos Pleros; Aristotle University of Thessaloniki, Centers? (fiber, copper, wireless) and architectures (ptmp, ptp Greece Room: 6D Title to be Announced on fiber or via mmWave, etc.), the latency, reliability and timing requirements imposed by the applications Organizers: Maura Raburn, Google, USA; Kenya Patty Stabile; Eindhoven University of Technology, will be hard to meet. The workshop shall provide Suzuki, NTT Device Innovation Center, Japan; Yikai Netherlands insight into the related challenges, and point out how Su, Shanghai Jiao Tong University, China Title to be Announced and to which extent they can be addressed by system What is in store for future datacenters? technologies (TDM-PON, WDM-PON, switched and (When) will optical circuit and packet switching dominate? Or will more traditional architectures and OFC 2020 • 8–12 March 2020 13 devices meet future speed, cost, scale-ability, and based on SDM fibers. This workshop aims to stimu- prompted their use on different areas of science. This latency requirements? late an open discussion on future opportunities for section will showcase three non SDM communications massive parallel transmission systems based either intensive areas of research in which SDM devices are Experts with opposing perspectives will debate our on multiple single-mode fibers or on multi-core and making a significant difference. future. multi-mode fibers between key players in the fiber- S3 Speakers Speakers: optic industry, including fiber manufacturers, systems, Sarah Tedder; NASA Glenn Research Center, USA Architectures sub-systems, and components producers, as well as Photonic Lanterns for Laser Satellite other possible uses of SDM technologies and devices Ken-Ichi Sato; Nagoya University, Japan Communications George Porter; University of California San Diego, for related optical fields. The workshop is organized USA in three sections, two addressing specific aspects and Nemanja Jovanovic, Caltech Optical Observatories, Lena Wosinska; Kungliga Tekniska Hogskolan, challenges in SDM transmission and devices, and the USA Sweden last section highlighting opportunities for SDM tech- Astronomical Applications of Multi-core Fiber nologies in other areas. Technology DC Operator Chongjin Xie; Alibaba Group, USA S1. SDM Deployments Ivana Gasulla; Universidad Politécnica de Valencia, Francesca Parmigiani; Microsoft Research Ltd, UK One of the key questions addressed in this section Spain Multicore and Few-mode Fibres for Microwave Devices is what is preventing the transition from single- Photonics Shifu Yuan; Calient Technologies Inc., USA mode fibers to new fiber types. Is there room for the Salah Ibrahim; NTT Photonics Laboratories, Japan deployment of SDM fibers in the next-decade road Mohan Kalkunte; Broadcom Ltd., USA map of optical communications? How important is it S2D: Network Analytics in the Age of to deploy SDM testbeds to bring SDM transmission Machine Learning: How to Share Data Special Events S2C: Trends and Perspectives in Space- technology out of lab research? and Maximize Synergies Among Transport division Multiplexed Transmission and Related S1 Speakers Systems and Network Operators Devices Pierre Sillard; Prysmian Group, France Room: 6F Room: 6E Tetsuya Hayashi; Sumitomo Electric, Japan Organizers: Antonio Napoli, Infinera Corp., Ruben Soares Luis; NICT, Japan Germany; Takayuki Mizuno, NTT Network Innovation Organizers: Roland Ryf, Nokia Bell Labs, USA; Sergio Sergejs Makovejs; Corning, USA Leon-Saval, University of Sydney, Australia; Cristian Laboratories, Japan; Mark Filer, Microsoft, USA Antonelli, University of L’Aquila, Italy S2. Integration for SDM Artificial Intelligence (AI)-based network planning Almost a decade has passed since the advent of a Independently of the fiber used for transmission, scal- and operation will play an important role in the next capacity crunch in fiber-optic transport networks was ing the capacity of a transmission system will require generation optical fiber communications. In future envisaged, and for as long increasingly encourag- the availability of cost effective devices that can sup- optical networks, every player will produce an enor- ing results on Space-division Multiplexed (SDM) port large number of parallel channels. In this section mous amount of data, and anyone might have access transmission over multi-mode and multi-core fibers we will hear from industry experts about current and to those data. For the entire system to work properly, have been reported from around the globe. These future efforts on transceivers, optical amplifiers and access to data is mandatory, but on the other hand, fibers have the potential of scaling the capacity of optical switches to support massive parallel optical access to some data must be regulated. fiber-optic links while reducing the cost per bit and channels. This opens up important questions to be discussed: constitute a space-effective alternative to the use of S2 Speakers parallel single-mode fibers. Nonetheless, the evolu- • AI does not work with a partial set of data. Guilhem de Valicourt; IPG Photonics, USA tion of SDM is somehow controversial. In fact, on one Hitoshi Takeshita; NEC, Japan • How do we get all the required data hand, a clear case for SDM fibers has not yet been David Neilson; Nokia Bell Labs, USA worldwide? made, for reasons that seem to go well beyond the technological gaps that still have to be filled. On the S3. Applications of SDM Transmission Devices • Who owns the required data? beyond Fiber-optic Communications other hand, a major internet company has recently • Can these data be shared? If yes, how and announced that its latest submarine cable systems The improvement and development of multi- under which conditions / regulations will we implement SDM technologies, while the Italian share the data? University of L’Aquila has deployed the first testbed core fibers and mode multiplexing devices driven by research on SDM transmission systems have • How do we assure trust and anonymity of the data?

14 OFC 2020 • 8–12 March 2020 • Which organization will regulate the “data mar- most promising for an actual increase of efficiency, Shu Namiki; National Institute of Advanced Industrial ket” and which institution will standardize it? cost/power saving, flexibility? What are the underly- Science and Technology (AIST), Japan ing challenges? What are the drawbacks? Could Disaggregation and Automation of Optical Layer In this workshop, we will discuss the above issues, disaggregation be the enabler for converged inter/ Switching for Converged Compute and Network and seek an agreement among global operators, ICPs intra data center optical networks? and vendors with the help of academia. Georgios Zervas; University College London (UCL), Specifically, the workshop will explore if an appropri- UK Speakers: ate network architecture could be a key enabler of MONet: Memory over Optical Network at Operator DC disaggregation. How is the inevitable additional Cluster Scale - From Physical Layer to Application Juan Pedro Palacios-Fernandez Gimenez; Telefonica, latency of the disaggregated network compensated/ Performance Spain mitigated/ alleviated? How is the bandwidth require- John Shalf; Lawrence Berkeley National Laboratory, Jack Pugaczewski; Century Link, USA ment addressed? USA Giuseppe Rizzelli; Facebook Inc., USA What are the architectural, control and management Diverse Accelerators Are Coming: What Are Kaname Nishizuka; NTT Communications Corp., ramifications of disaggregation? How can these be the Alternatives for Integrating them into the

Japan Special Events addressed? Is there resistance from the user (data Datacenter? Yawei Yin; Microsoft, USA center, telecom operators) community? Which is/ Nicola Calabretta; Eindhoven University of Vendor are the best architectural choice(s) in support of DC disaggregation? Technology (TUE), Netherlands Joao Pedro; Infinera, Portugal Title to be Announced Patricia Layec; Nokia Bell Labs, France How can scalability be efficiently addressed? Where Shoichiro Oda; Fujitsu Limited, Japan is the bottleneck? Are the solutions being proposed Lab Automation Hackathon Academia scalable or a temporary stop gap? What are the Sunday, 8 March, 20:00–22:00 Akira Hirano; TDU, Japan ramifications of disaggregation with respect to energy Room: 17 Manya Ghobadi; MIT CSAIL, USA efficiency? Is it an energy cost or an energy saver? Is disaggregation viable now and if not, what is the Organizers: Nicolas Fontaine, Nokia Bell Labs, S2E: Does Disaggregation Support Data block? Is it just not yet? USA; Binbin Guan, Acacia Communications, USA; Center Evolution? The technology implications at the system, subsystem Roland Ryf, Nokia Bell Labs, USA; Jochen Schroeder, Room: 7 and infrastructure level represent another key point Chalmers University of Technology, Sweden towards the data center evolution in the framework Organizers: Michela Svaluto Moreolo, Centre Lab work is most efficient when data can be acquired of disaggregation paradigm. What is the role of the Tecnològic De Telecomunicacions De Catalunya, in an automated way. Especially when taking mea- switching infrastructure? How should it be designed Spain; Madeleine Glick, Columbia University, USA; surements over long durations automated acquisition to support and ease disaggregation and what are the Ken-ichi Kitayama, The Graduate School For The avoids introducing human error and allows research- challenges? Are new hardware and specialized com- Creation Of New Photonics Industies, Japan ers to concentrate on the fun part of experimental ponents needed? What is the role of photonics? What work. Open source software in easy to learn lan- The concept of disaggregation is increasingly popular is the vendor perspective? Are there alternative non guages such as Python provides just as much, or in both Datacom and Telecom, driven by the ever disaggregated solutions that meet cost/performance more features/interoperability for lab automation than increasing capacity demand at reduced cost, as targets? Are there critical applications that would suf- alternative commercial software. The hackathon for- a promising candidate towards a more efficient fer performance degradation with disaggregation? mat will consist of interactive demos and challenges resource utilization, improved flexibility, scalability Speakers: in addition to a short introduction. Researchers with and programmability. This workshop aims at explor- 10+ years’ experience of lab automation will show ing opportunities and enablers answering questions Victor Lopez; Telefonica, Spain you the power of using Python to quickly get a lab related to the disaggregation paradigm for support- Enabling an Open Network Ecosystem: SDN and experiment running and display the measurements in ing data center (DC) evolution from different perspec- Whiteboxes a web browser or GUI. We will learn from companies tives, involving its impact on architectural, networking work in photonics how they take advantage of Python Hitesh Ballani; Microsoft, USA and management aspects as well as technological to create easy interfaces to their software and hard- Title to be Announced ones. Could this new paradigm achieve/provide the ware. Bring a laptop to participate in the exercises. promised opportunities? Which are the enabling tech- Ling Liao; Intel Corporation, USA Students will show how they are developing new nologies? Are they mature enough? Which are the SiPh Based Co-package Optics for Data Center tools to complete their PhD. There will also be plenty Disaggregation

OFC 2020 • 8–12 March 2020 15 of time for mingling and discussion. Light food and The Role of Machine Learning for the Next- this highly specialized market. The OSA Fiber Optics drinks will be served. generation of Optical Communication Systems and Technology and Applications Technical Group, the Networks OSA Optical Communications Technical Group and OIDA Executive Forum Monday, 9 March, 14:00–18:30 the OSA Optics in Digital Systems Technical Group Room: 6C are jointly hosting this event; please RSVP at bit.ly/ Monday, 9 March, 07:30–19:00 Organizers: Alan Pak Tao Lau, Hong Kong Polytechnic TGatOFC2020 to let us know you will be attending. Hilton San Diego Bayfront. Separate registration University, Hong Kong; Darko Zibar, Danmarks required. Tekniske Universitet, Denmark; Jelena Pesic, Nokia Hosted by Join leaders from top companies on 9 March at OIDA Bell Labs, France Executive Forum as they discuss critical technol- Emerging Network Architectures for 5G Edge OFC Panels ogy advancements and business opportunities that Cloud will shape the network and your company. In just Tuesday, 10 March, 14:00–18:00 Eight panels are scheduled for OFC 2020. Please one day you can connect with all the key industry Room: 6C refer to the abstract section for full descriptions. experts in one place. Learn about future trends key Organizers: Marco Ruffini, Trinity College Dublin, to your business, your competitors and your industry. Ireland; Michael Freiberger, Verizon Communications Is It Time to Shift the Research Paradigm in Access There will be four panel presentations this year and Inc., USA; Stefan Dahlfort, Ericsson Inc., USA Networks from a Focus on More Capacity? a Keynote Presentation by Elizabeth Rivera Hartling, Monday, 9 March, 14:00–16:00 Subsea Optical Network Architect, Facebook. A Future Photonics Devices fJ/bit Optical Networks Room: 2 special Fireside Chat will feature a panel of executives Enabled by Emerging Optical Technologies Organizers: Derek Nesset, Huawei Technologies R&D, from across the optical network supply chain provid- Wednesday, 11 March, 08:00–10:00 Germany; Liang Du, Google, USA; Junwen Zhang, ing their unique perspectives on a broad range of Room: 6F Cablelabs, USA

Special Events industry issues. Keep current on the service provider Thursday, 12 March, 08:00–10:00 landscape, network automation, how 5G and other Room: 6C Automotive Communications and Technologies for trends will drive fiber optic expansion and edge com- Organizers: Andreas Matiss, Corning Research & 10G and Beyond puting, the next big things like AI, cloud gaming and Development Corp., USA; Michael Tan, Hewlett Monday, 9 March, 16:30–18:30 AR/VR—and more! This event is co-located with OFC. Packard Enterprise, USA; Mitsuru Takenaka, University Room: 1B of Tokyo, Japan Organizers: Dan Sadot, Ben Gurion Univ. of the osa.org/executiveforum Negev, Israel; Yuqing Jiao, Technische Universiteit Eindhoven, Netherlands; Yi Cai, ZTE Optics Lab, USA Hosted by OSA Roundtable with Seasoned As We Approach Shannon Limit, How do We Entrepreneurs in Optical Fiber Precisely Assess the Performance of Coherent Communications Transponders for Field Deployment? OFC Symposia Monday, 9 March, 12:30–14:00 Tuesday, 10 March, 14:00–16:00 Room: 14A&B Room 6E Four symposiums are scheduled for OFC 2020. Please Organizers: Steve Grubb, Facebook Inc., USA; Georg refer to the abstract section for full descriptions. The advent of 5G, IoT and autonomous vehicles Mohs, TE SubCom, USA; Priyanth Mehta, Ciena, provides significant opportunities for new busi- Canada Quantum Information Science and Technology nesses in optical fiber communications to solve the (QIST) in the Context of Optical Communications challenges posed by these operations. In this OSA How Can Machine Learning or, More Broadly, Monday, 9 March, 08:00–12:30 Technical Group event, seasoned entrepreneurs will Artificial Intelligence Help Improve Optical Room: 6C share their insights and experiences in the optical Networks? Organizers: Shayan Mookherjea, University of communications market – from how they conceived Tuesday, 10 March, 14:00-16:00 California San Diego, USA; Paul Kwiat, University of the initial idea and curated it into a feasible busi- Room 6D Illinois, USA; Alexander Gaeta, Columbia University, ness case to securing investment. Professionals who Organizer: Rene Schmogrow, Google, USA USA want to learn about the highly specialized market of optical communications as well as those looking to gauge the feasibility of their business ideas will have the opportunity to hear from our invited speakers and then interact with them directly to learn about

16 OFC 2020 • 8–12 March 2020 Pros and Cons of Low-margin Optical Networks[ interactive format with real time exchanges between Furthermore, the expected widespread use of Edge Wednesday, 11 March, 08:00–10:00 attendees and demo presenters. Demonstrations are Computing and Cell Site Gate-Way Nodes will blur Room: 7 typically executed on demand, and may involve a the traditional strong separation between mobile, Organizers: Yvan Pointurier, Nokia Corp., France; combination of on-site and remote equipment. access, and metro/aggregation networks, which Sorin Tibuleac, ADVA Optical Networking AG, USA; opens the possibility for beneficial technology coop- The 2020 OFC Demo Zone includes SDN/NFV as well Martin Birk, AT&T Labs, USA eration. However, how these technological advance- as software tools/functions to cover both software ments in all network layers of the access/metro/ Will SDM Truly Revolutionize the Submarine and hardware aspects on all conference topics. aggregation domains, as well as in the control plane, Communication Industry? can be pieced together to give a clear and unified Wednesday, 11 March, 14:00–16;00 Live demonstrations are an opportunity to pres- vision of the 5G ecosystem, is still largely a subject of Room 2 ent technical achievements in greater detail and debate. This session will address the issue of whether Organizers: Pascal Pecci, ASN, France; Valey Kamalov, should facilitate vivid discussions with attendees. and how the massive deployment of vertical services Google, USA; Mei Du, Tata Communications, USA Authors must remain in the vicinity of the demo stand / table for the duration of the session to answer over 5G will change the traditional approach to build- Devices and Systems at 130 Gbaud and Above: questions and to perform the demo upon request. ing optical network infrastructures.

What is the Outlook? Demonstrations may need to be carried out multiple Special Events In particular, the session will open a discussion on the Thursday, 12 March, 08:00–10:00 times during the session. following questions: Room: 8 Organizers: Kenneth Jackson, Sumitomo Electric Open Networking Summit: Optical 1. What are the network requirements emerging Device Innovations, USA; Argishti Nelikyan, Nokia Bell from 5G services? Labs, USA; Hongbin Zhang, Acacia Communications, Metro/Aggregation Networks to USA 2. What does a future-proof access/metro/aggrega- Support Future Services over 5G tion network architecture look like? Pluggable Coherent Optics for Short-Haul/Edge Monday, 9 March, 16:30–19:00 Applications and Beyond Room: 6E 3. How can such architecture be implemented? Thursday, 12 March, 14:00–16:00 Organizers: Albert Rafel, BT Technology, UK; Joerg- The session will be divided into two parts. In the first Room: 6E Peter Elbers, ADVA Optical Networking, Germany; part, invited speakers will present their views on net- Organizers: Xiaoxia Wu, SpaceX, USA; Rene Marcel Emilio Riccardi, Telecom Italia Mobile, Italy work (r)evolution. In the second part, different strate- Schmogrow, Google, USA; Xi (Vivian) Chen, Nokia gies leading to more efficient, more cost-effective, Bell Labs, USA 5G promises to revolutionize society and industry and more sustainable networks will be debated in a by enabling a wide range of services, like enhanced panel discussion. Mobile Broad-Band (eMBB), Ultra-Reliable Low OFC Demo Zone Latency Communications (URLLC) and massive Speakers Monday, 9 March, 14:00–16:15 Machine-Type Communications (mMTC), with very dif- Glenn Wellbrock; Verizon Transport Networks, USA Room: Room 6A ferent and stringent requirements. 5G Transport will Jun Terada; NTT Access Networks Labs, Japan Andrew Lord; BT Labs, UK Organizers: Filippo Cugini, CNIT, Italy; Josue Kuri, require large amounts of fiber deployments, but while Jan Söderström; Ericsson, USA Google, USA; Hideaki Furukawa, NICT, Japan a lot of focus is being given to fiber access networks, the optical metro/aggregation network has not yet Attilio Zani; Telecom Infra Project, UK Reviewers: The three organizers and Chongjin Xie, received much attention. Alibaba Group, China; Nick Fontaine, Nokia Bell OIDA/OSAF Professional Labs, USA; Noboru Yoshikane, KDDI Research Inc., Transport optical networks are traditionally considered Japan; Emilio Riccardi, Telecom Italia Mobile, Thomas a collection of big pipes, seen as an existing com- Development & Networking Lunch Pfeiffer, Nokia Bell Labs, Germany modity, on top of which to add higher layer network and Learn resources and intelligence supporting the services. Tuesday, 10 March, 12:00–13:30 The “OFC Demo Zone” features live demonstrations Considerable effort is devoted by both the research Room: 15 of research projects and proof-of-concept imple- community and industry to the design and deploy- Invite-Only Event mentations in the space of optical communication ment of more efficient, more cost-effective, greener devices, systems, networks. and more sustainable, and autonomic metro/aggre- This event will allow industry executives to share their Such demonstrations take place in a dedicated gation networks, which are expected to complement business experience with early career professionals, booth, and are shown to small groups favoring a very 5G mobile networks supporting vertical services. recent graduates and students. Past discussion topics

OFC 2020 • 8–12 March 2020 17 have included how you started your career, using your Rump Session: When Will Co- • Does an interposer between co-packaged degree in an executive position, etc. Additionally, we optics and MCM preserve some of the tradi- may pair experts from academia at each table, with packaged Optics Replace Pluggable tional pluggable advantages? the goal of diversifying the representation of both Modules in the Datacenter? • What is the optimum modulation format for co- academia and industry career paths. Students will Tuesday, 10 March, 19:30–21:30 packaged optics? Is it the same or different than rotate to most tables as time allows with an informal Room: 6F networking lunch to follow the networking portion. for pluggable? Organizers: Chris Cole, Luminous Computing, USA; • Is optical link interoperability between co- Sponsored by Dan Kuchta, IBM Research, USA packaged and pluggable optics a requirement? Provocateurs: What if this limits co-packaged approaches? Joris Van Campenhout; IMEC, Belgium • It is generally assumed that co-packaging The Art of Writing the Perfect OFC Peter De Dobbelaere; Cisco/Luxtera, USA enables replacing VSR with XSR SerDes. This Jane Gu; University of California Davis, USA Paper may result in at most 50% SerDes power sav- Shu Namiki; AIST, Japan Tuesday, 10 March, 16:00–18:00 ings, which translates to 20-30% host card Zuowei Shen; Google, USA Room 14B power savings. Does this justify an entirely new James Stewart; Facebook, USA paradigm? Or is at least 50% power savings Join OFC committee members, journal editors, and Rob Stone; Broadcom, USA required? distinguished researchers for an interactive workshop Greg Walz; Molex, USA on how to write a highly scored OFC paper. We will Zhiping Yao; Alibaba, China • Does co-packaging enable new network para- discuss the qualities of great OFC submissions and digms, like higher radix? the common reasons why papers are rejected from Description:

Special Events • Do advanced copper I/O techniques like fly- OFC. The workshop will kick off with a few short talks A major limitation of today’s switch cards is the PCB over cables and high-density connectors extend followed by smaller breakout/brainstorming sessions electrical connection between the ASIC and front the pluggable paradigm? and end with some time for networking. panel pluggable optics. As Baud rate increases the PCB link SerDes power increases to overcome • An intermediate step is on-board optics. A OIDA Roadmap on Quantum frequency dependent copper trace and connector shared limitation is that the PCB routing of losses. Further, ASIC bandwidth is constrained by on-board modules requires VSR SerDes and Photonics physical limitations of the MCM ball grid array and therefore does not reduce power. Are there Tuesday, 10 March, 16:15–17:00 pluggable module electrical connector I/O count. on-board optics approaches that would remove Exhibit Hall, Theater I Co-packing the ASIC and optics on a common MCM this limitation and postpone the need for OSA Industry Development Associates (OIDA) will promises to remove this limitation. Over the past co-packaging? discuss findings from its roadmap on quantum pho- decade, industry has been working to make this approach real, with the pluggable paradigm hold- • Are there security advantages associated with tonics. The roadmap identifies challenges and oppor- co-packaging? tunities for photonic technologies for three groups of ing firm. With each new generation of switch ASICs, applications: quantum communication, quantum com- the demise of pluggable is predicted, only to be • Which is the preferred fiber attach; vertical or puting, and quantum sensing. The session will focus pushed out to a future generation. The Rump Session edge coupled? Should it be pig-tailed or con- in particular on quantum communication. will discuss if, and when, the pluggable paradigm nectorized at the MCM? will run out of steam, and if it’s replacement will be • Is MCF (multi-core fiber) required to overcome co-packaging. Hosted by the spatial density limitations of routing out Questions for Discussion: fibers from an MCM? • At which switch node will pluggable no longer Format: be a viable paradigm: 25.6T, 51.2T, 102.4T, • Short introductory presentations by session 204.8T? organizers. • How important are traditional pluggable advan- • One content slide plus one punch line slide tages of partitioning, testability, field installation each from a panel of industry provocateurs, and replacement, and upgradability? adding up to 50% of session time.

18 OFC 2020 • 8–12 March 2020 • Vigorous audience participation after each pro- Michal Lipson; Columbia University, USA Postdeadline Paper Presentations vocateur presentation, with organizers facilitat- Hong Liu, Google, USA Thursday, 12 March, 16:30–18:30 ing wide ranging discussion, adding up to the Kim Roberts; Ciena, Canada Rooms: 6C, 6D, 6E, 6F other 50% of session time. Alexei Pilipetskii; SubCom, USA Meint Smit and Kevin Williams; Technical University Discover the best and most cutting-edge research in • Attendees come prepared with tough ques- Eindhoven, Netherlands optical communications. The OFC 2020 Technical tions, insightful comments, and different Hiroyuki Takesue; NTT Basic Research Labs, Japan Program Committee has accepted a limited number perspectives to challenge the provocateurs and Peter Vetter; Nokia Bell Labs, USA of Postdeadline Papers for oral presentation. The broaden the discussion. Peter Winzer; Independent Consultant, USA purpose of Postdeadline Papers is to give participants the opportunity to hear new and significant material OFC Rise and Shine Morning Run/ in rapidly advancing areas. Only those papers judged Photonic Society of Chinese- to be truly excellent and compelling in their timeli- Walk Americans Workshop and Social ness were accepted. Wednesday, 11 March, 06:00–07:00 Bottom of San Diego Convention Center Stairs (front Networking Event Lists of accepted papers with their presentation times entrance) Wednesday, March 11, 17:00–19:30 will be posted throughout the convention center on Special Events Room 17B Tuesday, 10 March. Please visit ofcconference.org and Pack your running shoes and meet up for an early click the “Download Digest Papers” button to access morning, 3 mile run or walk with fellow OFC col- Organizers: The Optical Society (OSA), OSA China these papers. leagues. Please see Registration for details on how to Office, China International Optoelectronic Expo sign up. (CIOE) What’s the “Light” at the End of the Tunnel? Special Chairs’ Session: Vision 2030: To serve our mission of bringing together photon- Taking Optical Communications ics professionals, enhancing the communication and collaboration in the optical industry, PSC has been through the Next Decade organizing technical and social events during OFC Wednesday, 11 March, 14:00–18:30 in the past 12 years. In OFC 2020, we’ll get updates Room: 6F from experts, industry leaders once again. The optics Organizers: Shinji Matsuo, NTT Device Technology markets are becoming more turbulent and highly Labs, NTT Corp., Japan; David Plant, McGill competitive than ever. The demands and prices add University, Canada; Jun Shan Wey, ZTE TX, USA more pressure to the whole supply chain. The gross margin retains a similar level year to year but net Reflecting upon the 2010-2019 decade, OFC has led margin continues to decline with less visibility into the optical communications industry and research the orders. On the other hand, 5G deployment, 10G communities to achieve significant and groundbreak- PON, Data Center upgrades offer unprecedented ing milestones. Looking forward to the next decade, opportunities for the optics industry. So what is the we seek to answer a key question: what are the “light” at the end of the tunnel that can help us navi- emerging hot topics and groundbreaking innova- gate the business through today’s turbulent markets? tions to be anticipated? This session gathers together Is it the answer new business model, e.g. more mar- eight visionary speakers who will discuss past suc- ket consolidation with more vertical integration? Or is cesses alongside forthcoming innovations in the next it the new applications like LIDAR, quantum comput- decade. ing? Or is it a new way of manufacturing? ... Speakers The panel of the PSC annual event consists of well- John Bowers; University of California Santa Barbara, respected experts from carriers, service operators, USA and leaders in the optical industry, who will share Philippe Chanclou, Orange Labs, France their views on technology trends, market opportuni- Chris Doerr; Acacia Communications Inc., USA ties and challenges along with the business strategies Chih-Lin I; China Mobile Communications Group, amongst the US, China and the rest of the world. China

OFC 2020 • 8–12 March 2020 19

OFC Plenary Session

Tuesday, 10 March, 08:00–10:00 Bi received his M.S. from Shanghai Jiao Tong University (USA) as a Humboldt fellow. In 2014, Ballroom 20BCD University and Ph.D. from Pennsylvania State he was appointed adjunct professor at the Leibniz University. He holds 47 US patents, 63 European pat- Universität Hannover. 5G Evolution: Challenges and ents and 64 Chinese patents. While in China Telecom, Opportunities one of his 4G innovation project resulted in success- Wilke’s current research interests are lasers for 3rd generation gravitational-wave detectors, novel laser Qi Bi, President, China Telecom fully deployment in 75% of China Telecom’s markets, and won the GTB Innovation Award at London in stabilization methods and the search for new particles Technology Innovation Center, using light-shining-through-wall experiments. China 2014. As large deployments ramp up in many parts of the world, 5G has The Challenge and Impact of Is There a Future for Silica as an been one of the hot topics in the Detecting Ripples in Spacetime Optical Material? media and has stimulated expec- Sir David Payne, Director, tations in many industries. Based on extensive field Benno Willke, Research Group Optoelectronics Research Centre, experience and careful analysis, his talk will break out Leader, Max Planck Institute for Zepler Institute for Photonics and much of the media hype and provide a candid synop- Gravitational Physics, Germany Nanoelectronics, University of sis on what 5G has actually achieved so far, what are In 2015, the twin LIGO instru- Southampton, UK the challenges that 5G still faces and in what direc- ments made the first confirmed tions 5G may further evolve in the future. Through detection of gravitational waves Sir David Payne will discuss how a comprehensive examination of the established by measuring the changes in photonics has changed our lives technology trends of the cellular industry, he will map the distance laser light traveled on the order of a by powering the optical fiber internet, as well as an the current 5G technology into historical and evolu- one ten thousandth the width of a proton. In 2017, entire generation of high-power lasers. Optical fibers tional trajectories and provide technical insights into LIGO and Virgo together used gravitational waves to carry terabits of data per second in a vast informa- many of the 5G features that have been designed for detect colliding neutron stars, allowing for the first tion network that brings untold human connectivity. Plenary Session industrial verticals and IoT industries in addition to multi-wavelength and multi-messenger astrophysi- But capacity demand continues to grow at a startling the consumer broadband communications. His talk cal observations. Scientists and engineers at the Max rate. Will the “wonder material” silica remain a pillar will also touch upon the impact of the 5G ecosystem Planck Institute for Gravitational Physics played a key of telecommunications as demand continues to grow? on the cellular industry. role in these detections and are now working on laser Or will alternative fiber designs be the solution? And what of the fiber laser? Will it too prove infinitely scal- Qi Bi is the President of China Telecom Technology systems for an even more sensitive third generation able? And what of storing all these bytes? Innovation Center and the CTO of China Telecom of gravitational-wave detector, which will be used Beijing Research Institute, managing R&D organiza- in future multi-messenger observations to answer Sir David Neil Payne CBE FRS FREng is a leading tions with responsibilities in wireless communications. outstanding astrophysical questions about the early Professor at the University of Southampton and His current focus is on 5G innovations responsible for formation of the Universe and its ongoing evolution. Director of the Optoelectronics Research Centre. A technologies, standards and trials in China Telecom. Benno Willke received his doctorate in 1992 from world class pioneer of technology, his work has had a great impact on telecommunications and laser tech- Previously, Bi worked at Bell Labs for 20+ years and the University of Hannover (Germany) in the field of nology over the last forty years. The vast transmis- was awarded the prestigious Bell Labs Fellow in 2002. plasma physics. He then worked on the design and sion capacity of today’s internet results directly from Other awards included Bell Labs President’s Gold installation of the GEO600 gravitational-wave detec- the erbium-doped fiber amplifier (EDFA) invented Awards in 2000 & 2002, the Bell Labs Innovation tor and the laser system of the LIGO gravitational- by Payne and his team in the 1980s. His pioneering Team Award in 2003, and Asian American Engineer of wave interferometers. From 1998 to 2009 he chaired work in fiber fabrication in the 70s resulted in almost the Year in 2005. He is an IEEE Fellow, and currently the lasers working group of the LIGO scientific col- all of the special fibers in use today including fiber serves as a member of the IEEE evaluation committee laboration (LSC) and led the development, fabrication lasers which are currently undergoing rapid growth for member for the communication society of IEEE. and installation of the Advanced LIGO laser subsystem. During this time he spent one year at Stanford application in manufacturing and defense.

OFC 2020 • 8–12 March 2020 21 Payne has made numerous leading contributions to many diverse fields of photonics and is widely acknowledged as an inventor of key components. With US funding, he led the team that broke the kilowatt barrier for fiber laser output to international acclaim and now holds many other fiber laser performance records. An original member of the Highly Cited Researchers (USA) he is honored as one of the most referenced, influential researchers in the world. He has published over 650 Conference and Journal papers. As an entrepreneur Payne’s activities have led to a cluster of 11 photonics spin out companies in and around Southampton - helping to boost the local economy. He founded SPI Lasers PLC, which has been purchased by the Trumpf Corporation of Germany for $40M. He is an Emeritus Chairman of the Marconi Society and a foreign member of the Russian Academy of Sciences. Payne is a fellow of the Royal Society, The Optical Society and the Royal Academy of Engineering. In addition he has been awarded the top American, European and Japanese prizes in photonics. Awards include the John Tyndall Award in 1991, the Marconi Prize in 2008 and the 2007 IEE Photonics Award the first to be awarded to a person outside the USA. In 2010, Payne received the AILU (Association of Laser Users) Award for his pioneering work with fiber lasers. In 2018, he was elected as a Foreign Fellow of the Indian National Science Academy. He became a Commander of the British Empire in 2007 and knighted in the 2013 New Years Honors list. Plenary Session

22 OFC 2020 • 8–12 March 2020 OFC and Co-Sponsor Awards and Honors Awards Ceremony and Luncheon The Optical Society 2020 Fellows Corning Outstanding Student Paper Competition Tuesday, 10 March, 12:00–14:00 Recognizes OSA members who have served with Upper Level, Ballroom 20A distinction in the advancement of optics and photon- Endowed through the OSA Foundation by Corning Supported by ics through distinguished contributions to educa- Incorporated, the paper competition recognizes inno- tion, research, engineering, business leadership and vation, research excellence and presentation abilities Join conference co-sponsors IEEE Communications society. in optical communications. All students submitting Society, IEEE Photonics Society, and The Optical their papers during the regular “call for papers” pro- Society (OSA) for a special luncheon to recognize the 2020 IEEE Photonics Award cess for OFC are eligible for the competition. Finalists award and honor recipients from each society. The present their work to the General Chairs in a private event is open to anyone who purchases a ticket, but Established in 2002, this award recognizes outstand- session at the conference. seating is limited. Tickets can be purchased for $45 ing achievements in photonics. It is presented by the USD at registration. IEEE Photonics Society. Corning Women in Optical Communications The following awards and recognitions will be pre- Scholarship sented at the Awards Ceremony and Luncheon: IEEE/OSA Journal of Lightwave Technology Best Paper Award Endowed through the OSA Foundation by Corning 2020 John Tyndall Award Incorporated, these scholarships recognize three Recognizes the top cited original papers published outstanding women graduate students studying opti- First presented in 1987, this award recognizes out- in the Journal in 2017, as determined by a variety of cal communications and networking to support their standing contributions, in any area of optical-fiber citation metrics and databases. It is presented by the participation in OFC. technology, that have met the test of time and been Journal’s Coordinating and Steering Committees. Copies of the winning papers will be available of proven benefit to science, technology, or society. Tingye Li Innovation Prize It is jointly presented by OSA and IEEE Photonics throughout OFC and will be made open access in the Society and is funded by Corning, Incorporated. IEEE Xplore Digital Library. Presented to an early career professional who has demonstrated innovative research, the prize hon- IEEE Communications Society 2020 Fellows IEEE Communications Society Charles Kao ors the global impact Dr. Li made to the field of Award for Best Optical Communications & optics and photonics. It is administered by the OSA Recognizes the extraordinary contributions and Networking Paper Foundation, and endowed by Alliance Fiber Optic accomplishments of IEEE members. Fellows are hon- Products, Inc., AT&T, The Optical Society, IEEE ored for their outstanding technical, educational, and Recognizes published papers that open new lines of Photonics Society, IEEE Communications Society, leadership achievements. research, envision bold approaches to optical com- Thorlabs, Inc, The Li Family and supporters of the munication and networking, formulate new problems Tingye Li Memorial Fund. IEEE Photonics Society 2020 Fellows to solve and essentially enlarge the field of optical communications and networking. Papers published

A distinction reserved for select IEEE members in the prior three calendar years of the Journal of Awards and Honors who have achieved extraordinary accomplishments. Optical Networking are eligible. Fellows have contributed to the advancement or application of engineering, science and technology, bringing the realization of significant value to society.

OFC 2020 • 8–12 March 2020 23

Short Course Schedule Short Courses

Sunday, 8 March, 2020 SC432: Hands on: Silicon Photonics Component SC369: Hands-on: Test and Measurement for Design & Fabrication Signals with Complex Optical Modulation 09:00–12:00 Lukas Chrostowski; University of British Columbia, Bernd Nebendahl; Keysight, Germany Canada Michael Koenigsmann; Keysight, Germany SC177: High-speed Semiconductor Lasers and SC461: High-capacity Data Center Interconnects SC390: Introduction to Forward Error Correction Modulators Dirk van den Borne; Juniper Networks, Germany Frank Kschischang; Univ. of Toronto, Canada John Bowers; Univ. of California at Santa Barbara, Sander L. Jansen; ADVA Optical Networking, USA SC463: Optical Transport SDN: Architectures, Germany Applications, and Actual Implementations SC208: Optical Fiber Design for Mark Filer; Microsoft, USA Achim Autenrieth; ADVA Optical Networking SE, Telecommunications and Specialty Applications SC469: Hands-on: Laboratory Automation and Germany David J. DiGiovanni; OFS Labs, USA Control Using Python (Beginner) Jörg-Peter Elbers; ADVA Optical Networking SE, SC444 : Optical Communication Technologies for Jochen Schröder; Chalmers University of Technology, Germany 5G Wireless Sweden Xiang Liu; Futurewei Technologies, Huawei R&D, USA Binbin Guan; Acacia Communications, USA 13:30–17:30 Roland Ryf; Nokia Bell Labs, USA SC470: Secure Optical Communications SC443 : Optical Amplifiers: From Fundamental Andrew Shields; Toshiba Research Labs, UK 13:00–16:00 Principles to Technology Trends Helmut Grießer; ADVA Optical Networking, Germany Michael Vasilyev; University of Texas at Arlington, USA SC216: An Introduction to Optical Network Design Lu Li; SubCom, USA SC485: Advanced Fiber Access Networks NEW and Planning Cedric F. Lam; Google, USA SC452 : FPGA Programming for Optical Subsystem Jane M. Simmons; Monarch Network Architects, USA Shuang Yin; Google, USA Prototyping SC217: Applications of Radio-over-fiber Noriaki Kaneda, Nokia Bell Labs, USA 09:00–13:00 Technologies Including Future 5G Networks Robert Elschner, Fraunhofer HHI, Germany Dalma Novak; Pharad, LLC., USA SC105: Modulation Formats and Receiver Concepts 17:00–20:00 for Optical Transmission Systems SC433: Introduction to Photodetectors and Optical Peter Winzer; Independent Consultant, USA Receivers SC205: Integrated Electronic Circuits for Fiber Xi (Vivian) Chen; Bell Labs, Alcatel-Lucent, USA Joe C. Campbell; University of Virginia, USA Optics Y. K. Chen; Nokia Bell Labs, USA SC328: New Developments in High-speed Optical SC460: Digital Coherent Optical System Networking: OTN beyond 100G, 100G/200G/400G Performance Basics SC428: Link Design and Modeling for Intra Data Ethernet, Flex Ethernet Maurice O’Sullivan; Ciena, Canada Center Optical Interconnects Stephen Trowbridge; Nokia, USA John Cartledge; Queen’s University, Kingston, Petar Pepeljugoski; IBM Research, USA Ontario, Canada SC384: Background Concepts of Optical SC484: Transport Evolution Due to Cloud Services Communication Systems 13:00 - 17:00 and Network Resiliency NEW Alan Willner; Univ. of Southern California, USA SC203: 400 Gb/s and Beyond Transmission Loukas Paraschis, Infinera, USA SC395: Modeling and Simulation of Optical Systems, Design and Design Trade-offs Transmitter and Receiver Components Martin Birk; AT&T Labs, Res., USA Monday, 9 March, 2020 Harald Rohde; Elenion, Germany Benny Mikkelsen; Acacia Communications, USA Howard Wang; Elenion, Germany 08:30–12:30 SC267: Silicon Microphotonics: Technology Elements and the Roadmap to Implementation SC102: WDM in Long-haul Transmission Systems Lionel Kimerling; MIT, USA Neal S. Bergano; Retired, USA

OFC 2020 • 8–12 March 2020 25 SC160: Microwave Photonics 09:00–12:00 SC462: Introduction to Pluggable Optics Vince Urick; DARPA, USA Robert Blum; Intel Corp., USA SC114: Technologies and Applications for Passive Sharon Hall; Oclaro, USA SC178: Test and Measurement for Data Center/ Optical Networks (PONs) Short Reach Communications Yuanqiu Luo, Futurewei, USA SC464: SDN Inside and in between Data Centers Greg D. Le Cheminant; Keysight Technologies, USA David Maltz; Microsoft, USA SC261: ROADM Technologies and Network SC341: Multi-carrier Modulation and Superchannels Applications 13:30–17:30 for Terabit-class Transceivers Thomas Strasser; Nistica Inc., USA Sander L. Jansen; ADVA Optical Networking, SC325: Highly Integrated Monolithic Photonic Short Courses SC359: Datacenter Networking 101 Germany Integrated Circuits Hong Liu; Google, USA Dirk van den Borne; Juniper Networks, Germany Chris Doerr; Acacia Communications, USA Ryohei Urata; Google, USA SC446: Hands-on: Characterization of Coherent SC327: Modeling and Design of Long-haul Fiber- SC408: Space Division Multiplexing in Optical Opto-electronic Subsystems optic Communication Systems Fibers Harald Rohde; Elenion, Germany Rene-Jean Essiambre; Bell Labs, Alcatel-Lucent, USA Howard Wang; Elenion, Germany Roland Ryf; Nokia Bell Labs, USA SC347: Reliability and Qualification of Fiber-optic SC450: Design, Manufacturing, and Packaging of SC448: Software Defined Networking for Optical Components Opto-electronic Modules Networks: A Practical Introduction David Maack; Corning, USA Ramon Casellas; CTTC, Spain Peter O’Brien; Tyndall National Institute, Ireland Yoichi Taira; IBM, Japan SC357: Circuits and Equalization Methods for SC453A: Hands-on: Fiber Optic Handling, Coherent and Direct Detection Optical Links SC465: Transmission Fiber and Cables Measurements, and Component Testing Alexander Rylyakov; Elenion, USA Steve Baldo; Seikoh Giken, USA Michael Ellwanger; Corning Optical Communications, Chris Heisler; OptoTest Corporation, USA USA SC393: Digital Signal Processing for Coherent Steve Lane; Data-Pixel, France Chris Towery; Corning Optical Communications, USA Optical Transceivers Julien Maille; Data-Pixel, France and Chris Fludger; Infinera, Germany SC468: Advanced FEC Techniques for Optical SC486: Optoelectronic Devices for LIDAR and SC451: Optical Fiber Sensors Communications High-BW or 3D Sensing NEW Alexis Mendez; MCH Engineering, USA Laurent Schmalen; Karlsruhe Institute of Technology Martin Zirngibl; Finisar, USA William Shroyer; SageRider, Inc., USA (KIT), Germany Krzysztof Szczerba; Finisar, USA Anna Tatarczak; Finisar, USA SC453B : Hands-on: Fiber Optic Handling, SC473: Photonic Switching Systems Measurements, and Component Testing Benjamin Lee; IBM, USA 13:30–16:30 Steve Baldo; Seikoh Giken, USA David Neilson; Nokia Bell Labs, USA Chris Heisler; OptoTest Corporation, USA SC429: Advances in Flexible Photonic Networks Steve Lane; Data-Pixel, France SC483: Hands-on: Machine Learning in Optical and Open Architectures Julien Maille; Data-Pixel, France Networks NEW David Boertjes; Ciena, Canada Massimo Tornatore; Politecnico di Milano, Italy SC454 : Hands-on: Introduction to Silicon Photonics Darko Zibar; DTU FOTONIK, Denmark SC431: Photonic Technologies in the Data Center Circuit Design Clint Schow; University of California, USA Wim Boegarts; University of Ghent, Belgium SC487: Hands-On: Laboratory Automation and Control using Python (Advanced) NEW SC447: The Life Cycle of an Optical Network: From SC472: Hands-on: Controlling and Monitoring Nicolas Fontaine, Nokia Bell Labs USA Planning to Decommissioning Optical Network Equipment Binbin Guan, Acacia Communications USA Andrew Lord, BT Labs, UK Ricard Vilalta; CTTC, Spain Noboru Yoshikane; KDDI Research, Japan Jochen Schröder, Chalmers University of Technology SC459: Multimode Photonic Devices, Components, Sweden and Characterization Nicolas Fontaine; Nokia Bell Labs, USA

26 OFC 2020 • 8–12 March 2020

Activities on the Show Floor

The OFC 2020 Exhibition is the perfect place to build Exhibit Hall Regulations Exhibit Hall Coffee Breaks and maintain professional contacts and to broaden • All bags are subject to search. The exhibit floor is the perfect place to build and your knowledge about the companies that lead our maintain professional contacts, and these breaks pro- • Children under 18 are not permitted in the industry in product development and technological vide ideal networking opportunities. Complimentary exhibit hall during set-up and teardown. advances. 700+ exhibits showcase the entire con- coffee will be served in the Exhibit Hall at these times: tinuum of the supply chain – from communications • Children 12 and under must be accompanied Hall D Interactive systems and equipment to network design and by an adult at all times. integration tools and to components and devices. In Coffee Break Sponsored by addition, three exhibit hall theaters feature presenta- • Strollers are not allowed on the show floor at tions by experts from major global brands and key any time. Exhibit Coffee industry organizations. Get high-level perspectives on Hours Breaks • Soliciting in the aisles or in any public spaces is hot topics like Cloud Services, SDN and FTTx. Learn not permitted. Tuesday, 10 March 10:00–17:00 10:00–10:30, about the state of the industry, emerging trends and 16:00–16:30 recommended courses of action for how to tackle • Neither photography nor videotaping is permit- today’s toughest business challenges. ted in the exhibit hall without written consent Wednesday, 11 10:00–17:00 10:00–10:30, of OFC Show Management, and in the event of March 16:00–16:30 video captured of any exhibitor’s booth, prod- Show Floor Exhibition Thursday, 12 March 10:00–16:00 10:00–10:30 ucts or technologies, that company’s written Halls B-H consent as well. Non-compliance may result in Schedule plenty of time to roam the Exhibition, visit the surrendering of film/drive, removal from the Interoperability Demonstrations with the hundreds of companies represented and see hall, forfeiture of badge and/or ineligibility to the latest products and technologies. attend in the future. This year there are five multivendor interoperabil- Exhibition Hours • Distribution of literature is limited to exhibitors ity demonstrations on the show floor. Stop by to and must be done from within the confines of see what is new and talk to representatives about Tuesday, 10 March 10:00–17:00 their booths. specifics. Exhibit Time Only 10:00–14:00 • Smoking is not permitted inside the San Diego 400G Open ZR+ Coherent Transceiver Demos, Booth Wednesday, 11 March 10:00–17:00 Convention Center. You are welcome to step #6049 outside the Convention Center to smoke in Exhibit Time Only 12:30–14:00 Consortium For On-Board Optics (COBO) Demos, designated smoking areas only, but please be Booth #5818 Thursday, 12 March 10:00–16:00 considerate of others when you do. Exhibit Time Only The Ethernet Alliance Live Interoperability Ethernet 12:30–14:00 • Alcohol is not permitted in the exhibit hall Demos, Booth #4943 during set-up and tear-down. OpenROADM MSA SDN Demo, Booth #6149 Optical Internetworking Forum (OIF) Demos, Booth #6221

Please refer to your OFC Buyers’ Guide and Addendum for more details on the exhibition and other activities on the show floor, including participating company information, a map of the exhibit hall and specific presentation schedules for many of the programs. Check the OFC Conference App for regular updates to show floor programming.

28 OFC 2020 • 8–12 March 2020 OFC Career Zone Live Poster Presentations This special rate is available whether you’re joining for Exhibit Hall B2 Tuesday and Wednesday, 10-11 March, 10:30–12:00 the first time or renewing for another year. Exhibit Hall B1 Looking for a job? Or interested in exploring career options? The OFC Career Zone connects employers Poster presentations are an integral part of the and skilled job seekers from all areas of optical com- technical program and offer an opportunity for lively Expo Theater I Programming, munications. Conference attendees are encouraged discussion between the poster presenters and attend- Exhibit Hall B2, #5337 to visit the OFC Career Zone Live and be prepared ees. Beverages and light snacks are served during to discuss your future with representatives from the poster sessions. Refer to the abstract section for a full N5 Market Watch and Network Operator industry’s leading companies. description. Summit Sub-Committee Chair: Karen I. Matthews, Technology and Market Development Manager, Corning Research & Development Corp., USA Job Seekers Sponsoring Society Booths Meet Participating Companies Exhibit Hall F Market Watch Tuesday, 10 March 10:00–17:00 Catch up on the latest product and service offer-

This three-day series of panel discussions engages Show Floor Wednesday, 11 March 10:00–17:00 ings of the OFC sponsoring societies by visiting their booth or member lounge located in the back the latest application topics and business issues in the Thursday, 12 March 10:00–16:00 of Exhibit Hall F. IEEE is the world’s largest technical field of optical communications. Presentations and professional organization dedicated to advancing panel sessions feature esteemed guest speakers from Register Online at ofcconference.org/careerzone technology for the benefit of humanity. The Optical the industry, research and investment community. to: Society (OSA) is the leading professional association The program will be located in Exhibit Hall B2, Booth • Search job postings freely in optics and photonics, home to accomplished sci- #5337. Attendees can easily attend the sessions and ence, engineering and business leaders from all over tour the exhibit hall. Audience members are encour- • Post your résumés online confidentially the world. aged to participate in the question and answer seg- • Network and schedule interviews with ments that follow the presentations. employers/recruiters Sponsored by Employers Didn’t sign up for the on-site OFC Career Zone? It’s Market Watch Schedule-at-a-Glance not too late. The Optical Society (OSA) Member Tuesday, 10 March Participate online at ofcconference.org/careerzone Lounge to: Exhibit Hall F, Booth 2639 10:30–12:00 Panel I: State of the Industry 12:30–14:00 Panel II: 5G and Re-thinking • Post jobs online OSA members are invited to take a brief respite from Access Networks the conference at the OSA Member Lounge. Whether • Review résumés before, during or after the it’s to plan your schedule, meet up with other mem- 14:30–16:00 Panel III: Optical Interconnect conference bers or take a moment for yourself. Attendees can and Computing for Scaling • Create alerts to inform you of newly submitted also participate in a series of informal 30-minute Machine Learning Systems résumés and openings technical sessions at the OSA Member Lounge, along Wednesday, 11 March with light refreshments. In addition, take advantage of For more information, call +1.888.491.8833 or email renewing your membership at 50% discount for one- 15:30–17:00 Panel IV: What Is Next for [email protected]. year, three-year and five-year individual memberships. Data Center Interconnects?

OFC 2020 • 8–12 March 2020 29 Thursday, 12 March Data Center Summit: Keynote and more data tied to time critical applications such as real time maps for autonomous driving, edge and 10:30–12:00 Panel V: Inside the Data Sponsored by co-location data centers are becoming an increasingly Center critical component of the network as well. 12:30–14:00 Panel VI: Advanced Packaging Jeffrey L. Cox, Partner Director Network Architecture, This panel will discuss the latest trends in data centers and Photonic Integration Microsoft Corporation, USA from an infrastructure and networking hardware 14:30–16:00 Panel VII: IP+WDM Reducing Power in Network Infrastructures perspective. What vectors and opportunities exist Architecture Evolution Tuesday, 10 March, 11:30–12:15 to reduce power consumption, size, and cost, what Location: Theater II, Hall E architectures are being considered inside data cen- See Buyer’s Guide and the OFC Conference App for ters, and how are data centers evolving and being program descriptions. Increasingly, the electrical power consumed by linked together at the regional and global scale to network infrastructure is negatively impacting the address the needs of the new decade? Network Operator Summit efficiency of large scale datacenter designs. Over the last decades, network power, as a percentage Suzanne R. Nagel Lounge This dynamic program presents the inside perspec- of overall DC power, has begun to rival the power tive from service providers and network operators– consumption of cooling and other support systems. Named in honor of the first woman chair of OFC, the their issues, drivers and how their requirements may In this presentation we will examine the contributing Suzanne R. Nagel lounge is a dedicated, networking impact the future of the industry. Everyone in the causes of the growing network infrastructure power space offering attendees the opportunity to meet supply chain, from equipment manufacturers to com- trend and investigate some of the proposed solutions colleagues, explore new business opportunities and ponents, will want to hear what’s next in meeting the to address the issue. have expert headshots taken. Attendees can par- Show Floor needs of all network operators. ticipate in small professional development sessions Data Center Summit Panel: Data throughout the week focused on topics ranging from résumé writing to navigating the industry with confi- Network Operator Summit Center 2020 – Less Hyperscale and Schedule-at-a-Glance dence. Visit the OFC website or app to see the latest More Co-location and Compute at the schedule of sessions. Wednesday, 11 March Edge? Suzanne R. Nagel Lounge Hours 10:30–11:15 Network Operator Organizer: Robert Blum, Director of Marketing and Tuesday, 10 March 10:00 - 17:00 Summit: Keynote New Business Silicon Photonics Product Division, Wednesday, 11 March 10:00 - 17:00 Chih-Lin I, Chief Intel, USA Scientist of Wireless Thursday, 12 March 10:00 - 16:00 Technologies, Tuesday, 10 March, 12:15–13:45 China Mobile Location: Theater II, Hall E Research Institute, A lot of focus has been put on the economy and China scale of hyper scale data centers. The last decade 11:15–12:45 Panel I: Next Generation witnessed a massive scale out of data centers, some Access Network of which contain upwards of a hundred thousand severs and require more than a hundred Megawatts 13:30–15:00 Panel II: Transport on a Plug of power. However, security, privacy and data sov- ereignty considerations have also required the use See Buyer’s Guide and the OFC Conference App for of much smaller data centers closer to the end user. program descriptions. And with the roll out of 5G and the need for more

30 OFC 2020 • 8–12 March 2020 Expo Theater II Programming, Expo Theater III Programming, Exhibit Hall E, #3139 13:15–14:45 IEEE Future Directions: Cloud Exhibit Hall G, #2239 Network Evolution Bandwidth Drivers Theater II Sponsored by Theater III Sponsored by 15:00–16:00 Open Eye MSA Group: New Schedule at-a-Glance Optical Module Implementations Make High-bandwidth DCI Schedule at-a-Glance Interfaces Cost Effective and Tuesday, 10 March Tuesday, 10 March Easy to Deploy for Hyperscale 10:15–11:15 Ethernet Alliance: Ethernet Data Center Providers 10:15–10:45 Product Showcase - Bringing the Interoperability and 16:15–17:00 OIF: 112 Gbps Electrical Single Fiber Capacity to the Next Deployments – New and Legacy Interfaces – An OIF Update on Level, Huawei Technologies Solutions Work Together CEI-112G 11:00–12:00 AIM Photonics: AIM Photonics Data Center 11:30–12:15 Thursday, 12 March Member Successes and Updates

Sponsored by Summit Keynote Show Floor 12:15 – 13:15 5G Architectures and Service Jeffrey L. Cox, 10:15–11:15 Design Consideration of Next Considerations Partner Director Generation Ethernet Switches Network With Higher Speed Optics 13:30 – 14:30 OIF: 400ZR Specification Update Architecture, 11:30–12:30 COBO: System Evaluation of 14:45 – 15:45 ITU-T SG15: Standards Update on Microsoft On-board Optics 5G Transport, Higher Speed PON, Corporation, USA 12:45–13:45 Transforming Network Latest OTN Technologies and 12:15–13:45 Data Center Summit Panel: Operations Through Automation Interoperable Optical Coherent Sponsored by Data Center 2020 – Less Hyper- Session sponsored by Juniper Interfaces scale and More Co-location and Networks 16:00 – 17:00 Accelerating ROI on the Road to Compute at the Edge? 14:00–15:00 Introduction to OpenROADM SDN 13:50–14:50 Preparing the Transport Network MSA, Latest Update, and Show Wednesday, 11 March for 5G Floor Demo Overview Session sponsored by Juniper 10:15–10:45 Product Showcase - The Next- Networks 15:05–16:00 The World’s First Intercontinental Generation OTN Technology for Connections… Contrasting Early Enterprise Market 15:00–17:00 Embedded Optics and How Terrestrial-Subsea Networks with Presenter, Huawei Technologies They Should Be Done to the Present TM Support the OEM Eco-system - 11:00–11:30 Product Showcase - Versal ACAPs: for Creators of the Highest Panel Debate See Buyer’s Guide and the OFC Conference App for Bandwidth, Most Secure Networks. program descriptions. Wednesday, 11 March Xilinx, Inc. 10:15–11:15 Revolutionizing the Economics 13:00–13:30 Product Showcase, XR Optics: of Pluggable Optics with Silicon Game-changing Multipoint Photonics Coherent Optical Solutions, Cisco Session sponsored by Juniper Networks 13:30–14:30 Unleashing the Full Potential of Silicon Photonics 11:30–13:00 TIP: The Disaggregated Session Sponsored by Acacia Transport Network Communications

OFC 2020 • 8–12 March 2020 31 Cisco Next Generation Silicon Photonics for Single- 14:30–15:30 Product Showcase - XR Optics: Product Showcases Lambda 100G Pluggable Optics Game-changing Multipoint Exhibit Hall, Expo Theater III, #2239 Coherent Optical Solutions, Wednesday, 11 March, 13:00–13:30 Exhibitors highlight their newest developments, Infinera Patrick Chou, PhD, Product Manager, Cisco Systems products and services in 30-minute presentations on 15:30–17:00 OpenConfig: Open, Multi-vendor the show floor. Refer to the OFC Conference App for Cisco productized 100G silicon photonics in 2013. Networks - Design, Management presentation schedule. The second generation has now come to fruition in and Operations the form of single-lambda 100G pluggable optics in a QSFP28 form factor. Thursday, 12 March Bringing the Single Fiber Capacity to the Next Level 10:15–10:45 Product Showcase - Approaches to XR Optics: Game-changing Multipoint Achieve an Open and Intelligent Tuesday, 10 March, 10:15–10:45 Dr. Maxim Kuschnerov, Senior R&D Manager, Coherent Optical Solutions Optical Network, Huawei Wednesday, 11 March, 14:30–15:30 Technologies Transmission & Access Product Line, Huawei Technologies Dr. David Welch, Founder and Chief Innovation 11:00 – 12:00 Beyond 400ZR….What Comes Officer, Infinera Next? Fiber is the most valuable resource for all users. This session will discuss how intelligent multipoint Session sponsored by Acacia Here we demonstrate the latest development on our coherent optical technology, XR optics, can transform Communication commercial platform aiming to improve single fiber capacity and maximizing the value of fiber by using access and aggregation networks. XR optics provides 12:15 – 13:30 3D-sensing Uses in Consumer and the latest coherent technology and wide-spectrum a dramatically more efficient and economically disrup- Automotive Markets line system. tive network solution ideal for supporting challenging Show Floor 13:45 – 14:45 POFTO: POF Symposium new high-bandwidth services such as 5G, DAA, next- generation PON, and cloud-based business services. 15:00 – 16:00 Fibre Types and Amplifiers: The Next-Generation OTN Technology for Choices and Trade-offs Enterprise Market Approaches to Achieve an Open and Wednesday, 11 March, 10:15–10:45 See Buyer’s Guide and the OFC Conference App for Dr. Yin Wang, Principal Engineer, Transmission & Intelligent Optical Network program descriptions. Access Product Line, Huawei Technologies Thursday, 10 March, 10:15–10:45 Dr. Christopher Janz, Technical Vice President & The next-generation OTN technology provides Director, Optical Systems Competency Centre, smaller and more flexible granularity with better Huawei Technologies multi-service transport capacity, packet friendly. Intelligence, synthesized in software, is the key to improved optical network operational outcomes and VersalTM ACAPs: for Creators of the Highest to process automation. Here we demonstrate the Bandwidth, Most Secure Networks latest development to achieve open and intelligent Wednesday, 11 March, 11:00–11:30 optical networks. Mike Thompson, Sr. Product Line Manager, Xilinx, Inc. For those developing next generation highest speed, secure networks targeting emerging technologies and protocols, we will present an overview of integrated technologies in Versal ACAP devices including 112G PAM4 transceivers, off-the-shelf Ethernet and OTN connectivity, encryption, PCIe Gen5, and large FPGA fabric that together minimize power consumption and time to market.

32 OFC 2020 • 8–12 March 2020 OFC 2020 • 8–12 March 2020 33 Technical Program and Steering Committees

Thank you to the following volunteer Nicolas Riesen, University of South Australia, Australia Hidehisa Tazawa, Sumitomo Electric Industries Ltd, Japan Lucas Soldano, Kaiam Europe Ltd., UK Joel Villatoro, University of the Basque Country, Spain committee members for all of their hard work. Yikai Su, Shanghai Jiaotong University, China Yinying Wang, Beijing University of Technology, China Kenya Suzuki, NTT Device Technology Laboratories, General Chairs Japan Track S: Systems and Subsystems Robert Doverspike, Network Evolution Strategies LLC, USA Ming Wu, University of California Berkeley, USA Dan Kuchta, IBM TJ Watson Research Center, USA Yu Yu, Wuhan National Lab for Optoelectronics, China S1: Digital subsystems and systems for data William Shieh, University of Melbourne, Australia D3: Active optical devices and photonic centers integrated circuits Fotini Karinou, Microsoft Research Ltd., UK, Program Chairs Maura Raburn, Google Inc., USA, Subcommittee Subcommittee Chair Shinji Matsuo, NTT Device Technology Labs, NTT Corp., Chair Fred Buchali, Nokia Bell Labs, USA Japan Gloria Hoefler, Infinera Corp., USA Sai Chen, Alibaba Group, China David Plant, McGill University, Canada Yasuhiro Matsui, Finisar Corp. USA Madeleine Glick, Columbia University, USA Jun Shan Wey, ZTE TX, USA Argishti Melikyan, Nokia Bell Labs, USA Yue-Kai Huang, NEC Laboratories America Inc., USA Geert Morthier, Ghent University - IMEC, Belgium Hoon Kim, Korea Advanced Institute of Science and Technology, Korea Subcommittees Kouji Nakahara, Oclaro Japan, Inc., Japan Don Pan, Sifotonics, USA Reza Motaghian, Amazon Web Services, USA Frank Peters, University College Cork, Ireland Xiaodan Pang, Infinera, Sweden Track D: Components, Devices and Fiber Mitsuru Takenaka, University of Tokyo, Japan Stephen Ralph, Georgia Institute of Technology, USA Michael Tan, HPE, USA Sorin Tibuleac, ADVA Optical Networking AG, USA D1: Advances in prototypes and product Erman Timurdogan, Analog Photonics, USA Hongbin Zhang, Acacia Communications, USA developments of components and subsystems for S2: Optical, photonic and microwave photonic data centers and optical networks D4: Fiber and propagation physics subsystems Dominic Goodwill, Huawei Technologies, Canada, Wladek Forysiak, Aston University, UK, Subcommittee Subcommittee Chair Chair Robert Elschner, Fraunhofer Inst Nachricht Henrich-Hertz, Germany, Subcommittee Chair Patrick Chiang, Fudan University, China Kazuhiko Aikawa, Fujikura, Japan Youichi Akasaka, Fujitsu Laboratories of America Inc., Friedel Gerfers, Technische Universität Berlin, Germany Cristian Antonelli, University of L’Aquila, Italy USA Marika Immonen, TTM Technologies, Finland Xin Chen, Corning, USA Daniel Blumenthal, University of California Santa Barbara, Kenneth Jackson, Sumitomo Electric, USA Louis-Anne De Montmorillon, Prysmian Group, USA USA Di Liang, Hewlett Packard Labs, USA Lara D. Garrett, Subcom, USA Maurizio Burla, ETH Zurich, Switzerland Andreas Matiss, Corning Optical Communications, Tetsuya Hayashi, Sumitomo, Japan

Committees Mable P. Fok, University of Georgia, USA Germany Eric R. Numkam Fokoua, Southampton University, UK Fumio Futami, Tamagawa University, Japan Alan McCurdy, OFS, Fiber Design & Simulation Group, USA Bera Palsdottir, OFS Fitel Denmark I/S, Denmark Hao Hu, DTU Fotonik, Denmark Hideyuki Nasu, Furukawa Electric, Japan Roland Ryf, Nokia Bell Labs, USA Lu Li, SubCom, USA Yusuke Nasu, NTT Photonics Laboratories, Japan Taiji Sakamoto, NTT Labs, Japan Ana Pejkic, University of California San Diego, USA Zuowei Shen, Google, USA D5: Fiber-optic and waveguide devices and Erwan Pincemin, Orange Labs, France Hanxing Shi, Consultant, USA sensors Ben Puttnam, NICT Japan, Japan D2: Passive optical devices for switching and filtering Rodrigo Amezcua-Correa, University of Central Siva Yegnanarayanan, Massachusetts Institute of Haoshuo Chen, Nokia Bell Labs, USA, Subcommittee Chair Florida, USA, Subcommittee Chair Technology, USA Joel Anthony Carpenter, University of Queensland, Hui Cao, Yale University, USA S3: Radio-over-fiber, free-space and sensing Kehayas Efstratios, Gooch & Housego, USA Australia systems Giampiero Contestabile, Scuola Superiore Sant Anna di Clemence Jollivet, Coherent Inc., USA Pisa, Italy Sophie LaRochelle, Universite Lavel, Canada Gee-Kung Chang, Georgia Institute of Technology, USA, Nicolas Dupuis, IBM TJ Watson Research Center, USA Sergio Leon-Saval, Univeristy of Sydney, Australia Subcommittee Chair Richard A. Jensen, Polatis, Inc., USA Chigo Okonkwo, Technische Universiteit Eindhoven, Mohamed-Slim Alouini, KAUST, Saudi Arabia Yuqing Jiao, Eindhoven University of Technology, Netherlands Hongwei Chen, Tsinghua University, China Netherlands Francesca Parmigiani, Microsoft Research, UK Nan Chi, Fudan University, China

34 OFC 2020 • 8–12 March 2020 Ivana Gasulla Mestre, University of Valencia, Spain Praveen Kumar, Bharti Airtel Ltd, India Masamichi Fujiwara, NTT Access Service Systems Mona Hella, RPI, USA Georg Mohs, Subcom, USA Laboratories, Japan Hyundo Jung, ETRI, Korea Pascal Pecci, ASN, France Yong Guo, ZTE, China Atsushi Kanno, NICT, Japan Albert Rafel, British Telecommunications, UK Daniel Kilper, University of Arizona, USA Sang Yeup Kim, NTT Access Network, Japan Sheldon Walkin, Nokia, Canada Xinying Li, Georgia Tech Research, USA Anthony Ngoma, Corning Inc., USA Shuto Yamamoto, NTT, Japan Derek Nesset, Huawei, Germany Juan Jose Vegas Olmos, Mellanox Technologies, Xiang Zhou, Google, USA Marco Ruffini, Trinity College Dublin, Ireland Denmark Elaine Wong, University of Melbourne, Australia N2: Optical networking for data center and Junwen Zhang, CableLabs, USA S4: Digital and electronic subsystems computing applications Yi Cai, ZTE USA, Inc., USA, Subcommittee Chair Ken-ichi Kitayama, Graduate School for the Creation N5: Market Watch, Network Operator Summit & Alex Alvarado, Eindhoven University of Technology, of New Photonics Industries (GPI), Japan, Data Center Summit (Invited Program) Netherlands Subcommittee Chair Karen Matthews, Corning Inc., USA, Subcommittee Hussam Batshon, NEC Laboratories America Inc., USA Paraskevas Bakopoulos, Mellanox, Israel Chair Xi Chen, Nokia Bell Labs, USA Shastri Bhavin, Queen’s University, Canada Robert Blum, Intel, USA Zhensheng Jia, Cable Labs, USA Hideaki Furukawa, National Inst. of Information and Ed Harstead, Nokia, USA Timo Pfau, Acacia Communications, Inc., USA Communications Technology, Japan Hideki Isono, Fujitsu, Japan Dan Sadot, Ben Gurion University of the Negev, Israel Reza Nejabati, University of Bristol, UK Joy Jiang, Google, USA Rene Marcel Schmogrow, Google, USA Yvan Pointurier, Nokia Bell Labs, France Julie Kunstler, Ovum, USA Takahito Tanimura, Fujitsu Laboratories Ltd., Japan Andrea Reale, IBM Research - Ireland, Ireland Junjie Li, China Telecom, China Xiaoxia Wu, SpaceX, USA Michela Svaluto Moreolo, Centre Tecnològic Arlon Martin, Samtec, USA Fan Zhang, Peking University, China Telecomunicacions Catalunya, Spain Loukas Paraschis, Infinera Corp., USA Liang Zhang, Huawei Technologies Duesseldorf GmbH, Lieven Verslegers, Google, USA Takashi Saida, NTT, Japan Germany Yawei Yin, Microsoft Corp., USA Helen Xenos, Ciena, USA Georgios Zervas, University College London, UK Jimmy Yu, Dell ‘Oro, USA S5: Digital transmission systems Takayuki Mizuno, NTT Network Innovation Laboratories, N3: Architectures and software-defined control for Japan, Subcommittee Chair metro and core networks Expo Theater II & III Programming Eleni Diamanti, Universite Pierre et Marie Curie, France Qiong Zhang, Fujitsu Labs America, USA, Subcommittee Steve Plote, Optics Consulting Engineer, Nokia, Inc., USA

Rene-Jean Essiambre, Nokia Bell Labs, USA Chair Committees Johannes Fischer, Fraunhofer Inst Nachricht Henrich- Achim Autenrieth, ADVA Optical Networking SE, Hertz, Germany Germany OFC Steering Committee Werner Klaus, National Inst of Information & Comm Maite Brandt-Pearce, University of Virginia, USA Tech, Japan Ramon Casellas, CTTC, Spain IEEE/Photonics Society Hisao Nakashima, Fujitsu Laboratories Ltd., Japan Angela Chiu, AT&T Labs, USA Seb Savory, University of Cambridge, UK, Chair Antonio Napoli, Infinera, Germany António Eira, Infinera, Portugal Gabriella Bosco, Politecnico di Torino, Italy Andrew Shields, Toshiba Research Europe Ltd., UK Mark Filer, Microsoft Corp., USA Christopher Doerr, Acacia Communications Inc., USA Oleg V. Sinkin, SubCom, USA Josue Kuri, Google, USA Dalma Novak, Pharad LLC, USA Qi Yang, Huazhong University of Science and Paolo Monti, Chalmers University of Technology, Sweden Technology, China Gangxiang Shen, Soochow University, China IEEE/Communications Society Jianjun Yu, Fudan University, China Jane M. Simmons, Monarch Network Architects, USA Stephen B. Alexander, Ciena Corporation, USA Masatoshi Suzuki, KDDI Research, Inc., Japan George Rouskas, North Carolina State University, USA Track N: Networks, Applications and Access Takafumi Tanaka, NTT Network Innovation Laboratories, Jane M. Simmons, Monarch Network Architects, USA Japan Doug Zuckerman, IEEE Communications Society, USA N1: Advances in system, network and service N4: Optical access networks for fixed and mobile The Optical Society (OSA) developments and field trials in commercial data services centers and networks Larry Coldren, University of California Santa Barbara, Thomas Pfeiffer, Nokia Bell Labs, Germany, USA Mei Du, Tata Communications, India, Subcommittee Subcommittee Chair Robert Jopson, Nokia Bell Labs, USA Chair Luiz Anet Neto, Orange, France Steve Plote, Nokia, USA David Boertjes, Ciena Corp., Canada Liang Du, Google Fiber, USA Laurent Schares, IBM TJ Watson Research Center, USA Bruce Cortez, AT&T, USA Michael Freiberger, Verizon, USA Steve Grubb, Facebook, USA

OFC 2020 • 8–12 March 2020 35 Ex-Officio OFC Budget Committee OFC Long Range Planning Committee Ramon Casellas, CTTC, Spain Doug Baney, Keysight Laboratories, USA Stu Elby, MSG Ventures, USA, Chair Chris Cole, Luminous Computing, USA Loudon Blair, Ciena Corporation, USA Tom Giallorenzi, The Optical Society, USA, Vice Chair Po Dong, II-VI Incorporated, USA Harold Tepper, IEEE Communications Society, USA Neal Bergano, Subcom, USA, Past Chair Robert Doverspike, Network Evolution Strategies LLC, Douglas M. Razzano, IEEE Photonics Society, USA Seb Savory, University of Cambridge, UK, Steering Chair USA Elizabeth A. Rogan, The Optical Society, USA Steven Alexander, Ciena Corporation, USA Stu Elby, MSG Ventures, USA Seb Savory, University of Cambridge, UK Martin Birk, AT&T, USA Junichi Kani, NTT Labs, Japan Jörg-Peter Elbers, ADVA Optical Networking SE, Dan Kuchta, IBM TJ Watson Research Center, USA Germany Ming-Jun Li, Corning Research & Development Corp., Loukas Paraschis, Infinera Corporation, USA USA Douglas M. Razzano, IEEE Photonics Society, USA Shinji Matsuo, NTT, Japan Elizabeth A. Rogan, The Optical Society, USA David Plant, McGill Univ., Canada Harold Tepper, IEEE Communications Society, USA William Shieh, University of Melbourne, Australia Vijay Vusirikala, Google, USA Jun Shan Wey, ZTE TX, USA Glenn Wellbrock, Verizon Communications, Inc., USA Chongjin Xie, Alibaba Group, USA Peter Winzer, Independent Consultant, USA Committees

36 OFC 2020 • 8–12 March 2020 OFC 2020 • 8–12 March 2020 37 Explanation of Session Codes

M1C.4

Day Of The Week Number S = Sunday (Presentation order M=Monday within the session) T=Tuesday W=Wednesday Th=Thursday Session Designation Series Number (alphabetically) 1 = First series of sessions in day 2 = Second series of sessions in day

The first letter of the code denotes the day of the week (Sunday=Sunday, Monday=M, Tuesday=T, Wednesday=W, Th=Thursday). The second element indicates the session series in that day (for instance, 1 would denote the first parallel sessions in that day). Each day begins with the letter A in the third 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 M1C.4 indicates that this paper is being presented on Monday (M) in the first series of sessions (1), and is the third parallel session (C) in that series and the fourth paper (4) presented in that session.

Invited Invited Presentation Tutorial Tutorial Presentation Record Presentation « Top-Scored Top Scored Paper

38 OFC 2020 • 8–12 March 2020 Agenda of Sessions — Sunday, 8 March

Room 6C Room 6D Room 6E Room 6F Room 7 09:00–12:00 SC177, SC208, SC444, SC470, SC485 (additional fee required) 09:00–13:00 SC105, SC328, SC384, SC395, SC432, SC461, SC469 (additional fee required) 12:00–13:00 Lunch Break (on own) 13:00–15:30 S1A • Application and S1B • Optical Components S1C • What ROADM/OXC S1D • Optics for S1E • Converged 5G and Technology Drivers for Short- for fJ/bit Exascale Technologies will Cost‐ Neuromorphic Computing Heterogeneous Services reach Coherent Links at Computing: How and When? effectively Enable Dynamic and Machine Learning: Access Networks: How to 800G and Beyond (Session 1) and Reconfigurable Optical Status, Prospects and Achieve Ultra-low Latency Networks in 5G Era? Challenges and High Reliability? 13:00–16:00 SC216, SC217, SC433, SC460 (additional fee required) 13:00–17:00 SC203, SC267, SC369, SC390, SC463 (additional fee required) 13:30–17:30 SC443, SC452 (additional fee required) 15:30–16:00 Coffee Break, Upper Level Corridors 16:00–18:30 S2A • Application and S2B • Are Radical Photonic S2C • Trends and S2D • Network Analytics S2E • Does Disaggregation Technology Drivers for Short- Devices and Architectures Perspectives in Space- in the Age of Machine Support Data Center reach Coherent Links at Needed for Future Data division Multiplexed Learning: How to Share Data Evolution? 800G and Beyond (Session 2) Centers? Transmission and Related and Maximize Synergies Devices Among Transport Systems and Network Operators 17:00–20:00 SC205, SC428, SC484 (additional fee required) 20:00–22:00 Lab Automation Hackathon, Room 17 Agenda of Sessions

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OFC 2020 • 8–12 March 2020 39 Agenda of Sessions — Monday, 9 March

Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D Room 6E Room 6F Room 7 Room 8 Room 9 08:00–10:00 M1A • Edge Computing M1B • Cognitive Optical M1C • Photonic Sensors M1D • Novel Active Devices M1E • Symposium: M1F • Next Generation M1G • Machine Learning M1H • Chip-to-chip M1I • Optical Signal M1J • Positioning Beam- M1K • Dis-aggregated Networks Quantum Information TOSA/ROSA Components and its Applications Optical Interconnects Processing steering for Advanced Access Networks Science and Technology Wireless Communications (QIST) in the Context of Optical Communications (Session 1) 08:30–12:30 SC102, SC160, SC178, SC341, SC446, SC448, SC453A, SC468, SC473, SC483, SC487 (additional fee required) SC102, SC160, SC178, SC341, SC446, SC448, SC453A, SC468, SC473, SC483, SC487 (additional fee required) 09:00–12:00 SC114, SC261, SC359, SC408, SC450, SC465, SC486 (additional fee required) SC114, SC261, SC359, SC408, SC450, SC465, SC486 (additional fee required) 10:00–10:30 Coffee Break, Upper Level Corridors Coffee Break, Upper Level Corridors 10:30–12:30 M2A • Advanced Active M2B • High-speed M2C • SDM Imaging and M2D • Optimizing Network M2E • Symposium: Quantum M2F • Digital Signal M2G • Multiband and M2H • Access Networks M2I • Photonic Integrated M2J • Data Analytic- M2K • Neuromorphic I: Components Integrated Modulators Sensing Capacity and Performance Information Science and Processing and Radio- SDN for Capacity Scaling for Mobile and Multi- Subsystems based Monitoring Device-oriented Technology (QIST) in over-fiber Systems for access Edge Computing the Context of Optical 5G Communications (Session 2) 12:30–14:00 Lunch Break (on own) Lunch Break (on own) 13:30–16:30 SC429, SC431, SC447, SC459, SC462, SC464 (additional fee required) SC429, SC431, SC447, SC459, SC462, SC464 (additional fee required) 13:30–17:30 SC325, SC327, SC347, SC357, SC393, SC451, SC453B, SC454, SC472 (additional fee required) SC325, SC327, SC347, SC357, SC393, SC451, SC453B, SC454, SC472 (additional fee required) 14:00–16:00 M3A • New Photonic M3B • Propagation Effects in M3C • Panel: Is it Time to M3D • VCSELS and Surface M3E • Symposium: The Role M3F • Wavelength M3G • Submarine M3H • Microwave M3I • Optical Wireless: M3J • Short-reach M3K • Open Network Materials SMF and SDM Fibers Shift the Research Paradigm Normal Devices of Machine Learning for the Selective Devices Transmission Photonic Filters Technology and Systems I Control and Orchestration in Access Networks from a Next-generation of Optical Applications Focus on More Capacity? Communication Systems and Networks (Session 1) 14:00–16:15 M3Z • OFC Demo Zone, Room 6A M3Z • OFC Demo Zone, Room 6A 16:00–16:30 Coffee Break, Upper Level Corridors Coffee Break, Upper Level Corridors 16:30–18:30 M4A • Quantum Security M4B • Panel: Automotive M4C • MCF Amplifiers and M4D • Network Design and M4E • Symposium: The Role M4F • High Order Direct M4G • Open Networking M4H • Silicon Photonics M4I • Advanced Radio- M4J • Digital Signal M4K • High-speed Long- Subsystems Communications and Cable Switching Architecture of Machine Learning for the Detect Formats Summit: Optical Metro/ and High Density over-fiber Technology Processing I haul Transmission Technologies for 10G and Next-generation of Optical (Ends at 18:15) Aggregation Networks to Integration (Ends at 18:15) Beyond Communication Systems and Support Future Services Networks (Session 2) over 5G (Ends at 19:00)

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Agenda of Sessions Short Courses Recorded Session

40 OFC 2020 • 8–12 March 2020 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D Room 6E Room 6F Room 7 Room 8 Room 9 08:00–10:00 M1A • Edge Computing M1B • Cognitive Optical M1C • Photonic Sensors M1D • Novel Active Devices M1E • Symposium: M1F • Next Generation M1G • Machine Learning M1H • Chip-to-chip M1I • Optical Signal M1J • Positioning Beam- M1K • Dis-aggregated Networks Quantum Information TOSA/ROSA Components and its Applications Optical Interconnects Processing steering for Advanced Access Networks Science and Technology Wireless Communications (QIST) in the Context of Optical Communications (Session 1) 08:30–12:30 SC102, SC160, SC178, SC341, SC446, SC448, SC453A, SC468, SC473, SC483, SC487 (additional fee required) SC102, SC160, SC178, SC341, SC446, SC448, SC453A, SC468, SC473, SC483, SC487 (additional fee required) 09:00–12:00 SC114, SC261, SC359, SC408, SC450, SC465, SC486 (additional fee required) SC114, SC261, SC359, SC408, SC450, SC465, SC486 (additional fee required) 10:00–10:30 Coffee Break, Upper Level Corridors Coffee Break, Upper Level Corridors 10:30–12:30 M2A • Advanced Active M2B • High-speed M2C • SDM Imaging and M2D • Optimizing Network M2E • Symposium: Quantum M2F • Digital Signal M2G • Multiband and M2H • Access Networks M2I • Photonic Integrated M2J • Data Analytic- M2K • Neuromorphic I: Components Integrated Modulators Sensing Capacity and Performance Information Science and Processing and Radio- SDN for Capacity Scaling for Mobile and Multi- Subsystems based Monitoring Device-oriented Technology (QIST) in over-fiber Systems for access Edge Computing the Context of Optical 5G Communications (Session 2) 12:30–14:00 Lunch Break (on own) Lunch Break (on own) 13:30–16:30 SC429, SC431, SC447, SC459, SC462, SC464 (additional fee required) SC429, SC431, SC447, SC459, SC462, SC464 (additional fee required) 13:30–17:30 SC325, SC327, SC347, SC357, SC393, SC451, SC453B, SC454, SC472 (additional fee required) SC325, SC327, SC347, SC357, SC393, SC451, SC453B, SC454, SC472 (additional fee required) 14:00–16:00 M3A • New Photonic M3B • Propagation Effects in M3C • Panel: Is it Time to M3D • VCSELS and Surface M3E • Symposium: The Role M3F • Wavelength M3G • Submarine M3H • Microwave M3I • Optical Wireless: M3J • Short-reach M3K • Open Network Materials SMF and SDM Fibers Shift the Research Paradigm Normal Devices of Machine Learning for the Selective Devices Transmission Photonic Filters Technology and Systems I Control and Orchestration in Access Networks from a Next-generation of Optical Applications Focus on More Capacity? Communication Systems and Networks (Session 1) 14:00–16:15 M3Z • OFC Demo Zone, Room 6A M3Z • OFC Demo Zone, Room 6A 16:00–16:30 Coffee Break, Upper Level Corridors Coffee Break, Upper Level Corridors 16:30–18:30 M4A • Quantum Security M4B • Panel: Automotive M4C • MCF Amplifiers and M4D • Network Design and M4E • Symposium: The Role M4F • High Order Direct M4G • Open Networking M4H • Silicon Photonics M4I • Advanced Radio- M4J • Digital Signal M4K • High-speed Long- Subsystems Communications and Cable Switching Architecture of Machine Learning for the Detect Formats Summit: Optical Metro/ and High Density over-fiber Technology Processing I haul Transmission Agenda of Sessions Technologies for 10G and Next-generation of Optical (Ends at 18:15) Aggregation Networks to Integration (Ends at 18:15) Beyond Communication Systems and Support Future Services Networks (Session 2) over 5G (Ends at 19:00)

OFC 2020 • 8–12 March 2020 41 Agenda of Sessions — Tuesday, 10 March

Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D Room 6E Room 6F Room 7 Room 8 Room 9

07:30–08:00 Plenary Session Coffee Break, Upper Level, Ballroom 20 Lobby Plenary Session Coffee Break, Upper Level, Ballroom 20 Lobby 08:00- 10:00 Plenary Session, Ballroom 20BCD Plenary Session, Ballroom 20BCD 10:00–14:00 Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30) Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30) 10:00–17:00 Exhibition and Show Floor, Exhibit Hall (concessions available) Exhibition and Show Floor, Exhibit Hall (concessions available) OFC Career Zone Live, Exhibit Hall B2 OFC Career Zone Live, Exhibit Hall B2 12:00–14:00 OFC and Co-Sponsors Awards and Honors Ceremony and Luncheon OFC and Co-Sponsors Awards and Honors Ceremony and Luncheon Upper Level, Ballroom 20A Upper Level, Ballroom 20A 14:00–16:00 T3A • Linear T3B • Novel T3C • Lasers for T3D • Quantum T3E • Symposium: T3F • Panel: How T3G • Panel: As we T3H • Silicon T3I • Short-reach T3J • Orchestration T3K • Intra Data and Nonlinear Materials Communications and Secure Emerging Network Can Machine Approach Shannon Photonics Systems II and Control Center Networks I Space Division and Sensing Communications Architectures for Learning or, More Limit, How do we Applications Multiplexing 5G Edge Cloud Broadly, Artificial Precisely Assess (Session 1) Intelligence Help the Performance Improve Optical of Coherent Networks? Transponders for Field Deployment?

16:00–16:30 Coffee Break, Exhibit Hall Coffee Break, Exhibit Hall 16:30–18:00 T4A • Radio-over- T4B • Machine T4C • T4D • AI Assisted T4E • Symposium: T4F • Quantum T4G • Optical T4H • Quantum T4I • Long-haul T4J • Multi-core fiber Technologies Learning for Fiber Neuromorphic II: Access Networks Emerging Network Networking Transmitter Sub- Dots and Novel III-V Systems and Non- Fibers for 5G Amplifier and Entire Aspect Architectures for and Artifiicial systems Devices linear Mitigation Sensors 5G Edge Cloud Intelligence (Session 2) 17:15–18:15 Exhibitor Happy Hour, Center Terrace Exhibitor Happy Hour, Center Terrace 18:15–19:00 Celebrating 50 Years of Light-speed Connections, Keynote Presentation, Ballroom 20BCD Celebrating 50 Years of Light-speed Connections, Keynote Presentation, Ballroom 20BCD 19:00–20:30 Celebrating 50 Years of Light-speed Connections, Conference Reception, Sails Pavilion Celebrating 50 Years of Light-speed Connections, Conference Reception, Sails Pavilion 19:30–21:30 Rump Session: When Will Co-packaged Optics Replace Pluggable Modules in the Datacenter? Rump Session: When Will Co-packaged Optics Replace Pluggable Modules in the Datacenter? Room 6F Room 6F

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Agenda of Sessions  Market Watch/Data Center Summit Recorded Session

42 OFC 2020 • 8–12 March 2020 Exhibit Hall Exhibit Hall Exhibit Hall Room 1A Room 1B Room 2 Room 3 Room 7 Room 8 Room 9 Room 6C Room 6D Room 6E Room 6F Theater I Theater II Theater III 07:30–08:00 Plenary Session Coffee Break, Upper Level, Ballroom 20 Lobby Plenary Session Coffee Break, Upper Level, Ballroom 20 Lobby Exhibit Hall Opens 10:00 08:00- 10:00 Plenary Session, Ballroom 20BCD Plenary Session, Ballroom 20BCD  MW Panel I: State Ethernet Product Showcase - of the Industry Interoperability and Huawei Technologies 10:00–14:00 Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30) Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30) 10:30–12:00 Deployments – New Canada Co., Ltd. and Legacy Solutions 10:15–10:45 10:00–17:00 Exhibition and Show Floor, Exhibit Hall (concessions available) Exhibition and Show Floor, Exhibit Hall (concessions available)  MW Panel II: 5G Work Together OFC Career Zone Live, Exhibit Hall B2 OFC Career Zone Live, Exhibit Hall B2 and Re–thinking Ethernet Alliance AIM Photonics 12:00–14:00 OFC and Co-Sponsors Awards and Honors Ceremony and Luncheon OFC and Co-Sponsors Awards and Honors Ceremony and Luncheon Access Networks 10:15–11:15 Member Successes Upper Level, Ballroom 20A Upper Level, Ballroom 20A 12:30–14:00 and Updates  Data Center AIM Photonics 14:00–16:00 T3A • Linear T3B • Novel T3C • Lasers for T3D • Quantum T3E • Symposium: T3F • Panel: How T3G • Panel: As we T3H • Silicon T3I • Short-reach T3J • Orchestration T3K • Intra Data  MW Panel III: Summit: Keynote and 11:00–12:00 and Nonlinear Materials Communications and Secure Emerging Network Can Machine Approach Shannon Photonics Systems II and Control Center Networks I Optical Interconnect Panel Space Division and Sensing Communications Architectures for Learning or, More Limit, How do we Applications and Computing for Session sponsored by 5G Architectures Multiplexing 5G Edge Cloud Broadly, Artificial Precisely Assess Scaling Machine InnoLight and Service (Session 1) Intelligence Help the Performance Learning (ML) Systems 11:30–13:45 Considerations Improve Optical of Coherent 14:30–16:00 12:15–13:15 Networks? Transponders for Preparing the Field Deployment? OIDA Roadmap on Transport Network 400ZR Specification Quantum Photonics for 5G Update 16:15–17:00 Session sponsored by OIF 16:00–16:30 Coffee Break, Exhibit Hall Coffee Break, Exhibit Hall Juniper Networks 13:30–14:30 13:50–14:50 16:30–18:00 T4A • Radio-over- T4B • Machine T4C • T4D • AI Assisted T4E • Symposium: T4F • Quantum T4G • Optical T4H • Quantum T4I • Long-haul T4J • Multi-core Standards Update on fiber Technologies Learning for Fiber Neuromorphic II: Access Networks Emerging Network Networking Transmitter Sub- Dots and Novel III-V Systems and Non- Fibers Embedded Optics and 5G Transport for 5G Amplifier and Entire Aspect Architectures for and Artifiicial linear Mitigation systems Devices How They Should Be (and more) Sensors 5G Edge Cloud Intelligence Done to Support the ITU-T SG15 (Session 2) OEM Eco–system – 14:45–15:45 17:15–18:15 Exhibitor Happy Hour, Center Terrace Exhibitor Happy Hour, Center Terrace Panel Debate 15:00–17:00 Accelerating ROI on 18:15–19:00 Celebrating 50 Years of Light-speed Connections, Keynote Presentation, Ballroom 20BCD Celebrating 50 Years of Light-speed Connections, Keynote Presentation, Ballroom 20BCD the Road to SDN SDN Agenda of Sessions 19:00–20:30 Celebrating 50 Years of Light-speed Connections, Conference Reception, Sails Pavilion Celebrating 50 Years of Light-speed Connections, Conference Reception, Sails Pavilion 16:00–17:00 19:30–21:30 Rump Session: When Will Co-packaged Optics Replace Pluggable Modules in the Datacenter? Rump Session: When Will Co-packaged Optics Replace Pluggable Modules in the Datacenter? Room 6F Room 6F Exhibit Hall Closes 17:00

OFC 2020 • 8–12 March 2020 43 Agenda of Sessions — Wednesday, 11 March

Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D Room 6E Room 6F Room 7 Room 8 Room 9

07:30–08:00 Morning Coffee, Upper Level Corridors Morning Coffee, Upper Level Corridors

08:00–10:00 W1A • Optical W1B • Multi-mode W1C • Novel W1D • Short-reach W1E • Advances in W1F • Intra Data W1G • Trends in W1H • Symposium: W1I • Panel: Pros and W1J • Advanced W1K • Machine Input/Output and Fiber Technology Doped Fiber Interconnects Coherent PON Center Networks Free Space Optics Future Photonics Cons of Low-margin Transmission Path Learning for Optical Filters Amplifier II Communications Devices fJ/bit Optical Optical Networks Metrics Communication Networks Enabled Systems by Emerging Optical (Begins at 08:45) Technologies (Session 1)

10:00–14:00 Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30) Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30)

10:00–17:00 Exhibition and Show Floor, Exhibit Hall Exhibition and Show Floor, Exhibit Hall OFC Career Zone Live, Exhibit Hall B2 OFC Career Zone Live, Exhibit Hall B2

10:30–12:30 W2A • Poster Session I, Exhibit Hall B1 W2A • Poster Session I, Exhibit Hall B1

Lunch Break (on own; concessions available in Exhibit Hall) Lunch Break (on own; concessions available in Exhibit Hall)

14:00–16:00 Replay W3A • W3B • Panel: W3C • Open W3D • High-speed W3E • Ultra- W3F • Special Chairs W3G • Datacentre Replay recorded recorded Neuromorphic III: Will SDM Truly Network Transmission wideband Session: Vision Infrastructure and tutorial, tutorial, System-oriented Revolutionize Architecture Transmission 2030: Taking Optical Metrology SDM Power- Machine Learning the Submarine (Ends at 15:45) Communications efficient Ultra-high and its Applications Communication through the Next Capacity Long- in Optical Industry? Decade (Session 1) haul Submarine Communication Transmission Systems

16:00–16:30 Coffee Beak, Upper Level Corridors and Exhibit Hall Coffee Beak, Upper Level Corridors and Exhibit Hall

16:30–18:30 W4A • Digital W4B • Nonlinear W4C • Novel W4D • Speciality W4E • Special Chairs W4F • Reliability and W4G • Signal Processing II Devices and Passive Devices Fibers Session: Vision Test Photodetectors and Amplifiers 2030: Taking Optical Receivers Communications through the Next Decade (Session 2)

Key to Shading

Agenda of Sessions  Market Watch/Network Operator Summit Recorded Session

44 OFC 2020 • 8–12 March 2020 Exhibit Hall Exhibit Hall Exhibit Hall Room 1A Room 1B Room 2 Room 3 Room 7 Room 8 Room 9 Room 6C Room 6D Room 6E Room 6F Theater I Theater II Theater III

07:30–08:00 Morning Coffee, Upper Level Corridors Morning Coffee, Upper Level Corridors Exhibit Hall Opens 10:00 NOS Keynote Revolutionizing Product Showcase 08:00–10:00 W1A • Optical W1B • Multi-mode W1C • Novel W1D • Short-reach W1E • Advances in W1F • Intra Data W1G • Trends in W1H • Symposium: W1I • Panel: Pros and W1J • Advanced W1K • Machine 10:30–11:15 the Economics of Huawei Tech. Co. Input/Output and Fiber Technology Doped Fiber Interconnects Coherent PON Center Networks Free Space Optics Future Photonics Cons of Low-margin Transmission Path Learning for Optical Pluggable Optics with 10:15–10:45 Filters Amplifier II Communications Devices fJ/bit Optical Optical Networks Metrics Communication NOS Panel I: Next Silicon Photonics Product Showcase Networks Enabled Systems Generation Access Session Sponsored by by Emerging Optical (Begins at 08:45) Xilinx Network Juniper Networks 11:00–11:30 Technologies 11:15–12:45 10:15–11:15 (Session 1) Unleashing the Full The Disaggregated Potential of Silicon NOS Panel II: Transport Network 10:00–14:00 Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30) Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30) Transport on a Plug Photonics Telecom Infra Project Session Sponsored 13:30–15:00 (TIP) 10:00–17:00 Exhibition and Show Floor, Exhibit Hall Exhibition and Show Floor, Exhibit Hall by Acacia 11:30–13:00 OFC Career Zone Live, Exhibit Hall B2 OFC Career Zone Live, Exhibit Hall B2  MW Panel IV: What Communications is Next for Data  Data Center 13:30–14:30 10:30–12:30 W2A • Poster Session I, Exhibit Hall B1 W2A • Poster Session I, Exhibit Hall B1 Center Interconnects Summit Open, Multi-vendor (DCIs)? 11:30–13:45 Networks - Design, Lunch Break (on own; concessions available in Exhibit Hall) Lunch Break (on own; concessions available in Exhibit Hall) 15:30–17:00 Cloud Network Management and Evolution Bandwidth Operations 14:00–16:00 Replay W3A • W3B • Panel: W3C • Open W3D • High-speed W3E • Ultra- W3F • Special Chairs W3G • Datacentre Replay recorded Drivers OpenConfig recorded Neuromorphic III: Will SDM Truly Network Transmission wideband Session: Vision Infrastructure and tutorial, IEEE Future Directions 15:30–17:00 tutorial, System-oriented Revolutionize Architecture Transmission 2030: Taking Optical Metrology SDM Power- 13:15–14:45 Check the OFC Machine Learning the Submarine Communications efficient Ultra-high (Ends at 15:45) New Optical Module Conference App for and its Applications Communication through the Next Capacity Long- Implementations (and the latest updates. in Optical Industry? Decade (Session 1) haul Submarine more) Communication Transmission New High-bandwidth, Systems Non-DSP Interface for Data Center and 16:00–16:30 Coffee Beak, Upper Level Corridors and Exhibit Hall Coffee Beak, Upper Level Corridors and Exhibit Hall Campus Interconnects 15:00–16:00 16:30–18:30 W4A • Digital W4B • Nonlinear W4C • Novel W4D • Speciality W4E • Special Chairs W4F • Reliability and W4G • Agenda of Sessions 112 Gbps Electrical Signal Processing II Devices and Passive Devices Fibers Session: Vision Test Photodetectors and Interfaces Amplifiers 2030: Taking Optical Receivers Communications OIF through the Next 16:15–17:00 Decade (Session 2) Exhibit Hall Closes 17:00

OFC 2020 • 8–12 March 2020 45 Agenda of Sessions — Thursday, 12 March

Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D Room 6E Room 6F Room 7 Room 8 Room 9

07:30–08:00 Morning Coffee, Upper Level Corridors Morning Coffee, Upper Level Corridors

08:00–10:00 Th1A • Advanced Th1B • High Speed Th1C • Microwave Th1D • Pushing the Th1E • Symposium: Th1F • AI for Th1G • Modulation Th1H • Th1I • Digital Signal Th1J • Panel: Devices Th1K • Optical Design for Passive PON Photonics Bit-rate in Practical Future Photonics Reliable Networking and Coding Characterization of Processing Techniques and Systems at 130 Wireless Sensing Devices Networks Devices fJ/bit SDM Fibers and Mitigation Gbaud and Above: Systems for 5G Optical Networks What is the Outlook? Enabled by Emerging Optical Technologies (Session 2)

10:00–14:00 Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30) Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30)

10:00–16:00 Exhibition and Show Floor, Exhibit Hall Exhibition and Show Floor, Exhibit Hall OFC Career Zone Live, Exhibit Hall B2 OFC Career Zone Live, Exhibit Hall B2

10:30–12:30 Th2A • Poster Session II, Exhibit Hall B1 Th2A • Poster Session II, Exhibit Hall B1

Lunch Break (on own; concessions available in Exhibit Hall) Lunch Break (on own; concessions available in Exhibit Hall)

14:00–16:00 Th3A • Th3B • Optical Th3C • High- Th3D • Machine Th3E • Optimizing Th3F • Novel Fiber Th3G • Panel: Th3H • SDM Th3I • Optical and Th3J • Direct Th3K • Future and Disaggregation, Switching speed and Multi- Learning for Coherent Optic Sensors Pluggable Transmission Thermal Connectivity Detection Systems Emerging Access Open Platform, wavelength Devices Optical Network Transponders Coherent Optics (Ends at 15:30) and Subsystems Network Technologies SDN, NFV Performance for Short-haul/Edge (Ends at 15:30) Applications and Beyond

16:00–16:30 Coffee Break, Upper Level Corridors Coffee Break, Upper Level Corridors

16:30–18:30 Postdeadline Papers, Room 6C, 6D, 6E, 6F Postdeadline Papers, Room 6C, 6D, 6E, 6F

Key to Shading

Agenda of Sessions  Market Watch/Network Operator Summit Recorded Session

46 OFC 2020 • 8–12 March 2020 Exhibit Hall Exhibit Hall Exhibit Hall Room 1A Room 1B Room 2 Room 3 Room 7 Room 8 Room 9 Room 6C Room 6D Room 6E Room 6F Theater I Theater II Theater III Exhibit Hall Opens 10:00 07:30–08:00 Morning Coffee, Upper Level Corridors Morning Coffee, Upper Level Corridors  Market Watch Panel Design Consideration Product Showcase 08:00–10:00 Th1A • Advanced Th1B • High Speed Th1C • Microwave Th1D • Pushing the Th1E • Symposium: Th1F • AI for Th1G • Modulation Th1H • Th1I • Digital Signal Th1J • Panel: Devices Th1K • Optical V: Inside the Data of Next Generation Huawei Technologies Design for Passive PON Photonics Bit-rate in Practical Future Photonics Reliable Networking and Coding Characterization of Processing Techniques and Systems at 130 Wireless Sensing Center Ethernet Switches USA Devices Networks Devices fJ/bit SDM Fibers and Mitigation Gbaud and Above: Systems for 5G 10:30–12:00 with Higher Speed 10:15–10:45 Optical Networks What is the Outlook? Optics Enabled by  Market Watch 10:15–11:15 Beyond 400ZR…. Emerging Optical Panel VI: Advanced System Evaluation of What Comes Next? Technologies Packaging and On-board Optics Session Sponsored (Session 2) Photonic Integration COBO by Acacia 12:30–14:00 11:30–12:30 Communications 11:00–12:00 10:00–14:00 Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30) Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30)  Market Watch Transforming Network Panel VII: IP+WDM Operations through 3D-sensing Uses Architecture Evolution Automation in Consumer and 10:00–16:00 Exhibition and Show Floor, Exhibit Hall Exhibition and Show Floor, Exhibit Hall 14:30–16:00 Session Sponsored by Automotive Markets OFC Career Zone Live, Exhibit Hall B2 OFC Career Zone Live, Exhibit Hall B2 Juniper Networks Intel 12:45–13:45 12:15–13:30 10:30–12:30 Th2A • Poster Session II, Exhibit Hall B1 Th2A • Poster Session II, Exhibit Hall B1 Introduction to OpenROADM MSA, POF Symposium Latest Update, and POFTO Lunch Break (on own; concessions available in Exhibit Hall) Lunch Break (on own; concessions available in Exhibit Hall) Show Floor Demo 13:45–14:45 Overview 14:00–16:00 Th3A • Th3B • Optical Th3C • High- Th3D • Machine Th3E • Optimizing Th3F • Novel Fiber Th3G • Panel: Th3H • SDM Th3I • Optical and Th3J • Direct Th3K • Future and 14:00–15:00 Fibre Types and Amplifiers: Choices Disaggregation, Switching speed and Multi- Learning for Coherent Optic Sensors Pluggable Transmission Thermal Connectivity Detection Systems Emerging Access The World’s First and Trade-offs Open Platform, wavelength Devices Optical Network Transponders Coherent Optics (Ends at 15:30) and Subsystems Network Technologies Intercontinental 15:00–16:00 SDN, NFV Performance for Short-haul/Edge (Ends at 15:30) Connections… Applications and Contrasting Early Beyond Terrestrial-subsea Networks with the Agenda of Sessions 16:00–16:30 Coffee Break, Upper Level Corridors Coffee Break, Upper Level Corridors Present 15:05–16:00

16:30–18:30 Postdeadline Papers, Room 6C, 6D, 6E, 6F Postdeadline Papers, Room 6C, 6D, 6E, 6F Exhibit Hall Closes 16:00

OFC 2020 • 8–12 March 2020 47 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

08:00–10:00 08:00–10:00 08:00–10:00 08:00–10:00 08:00–10:00 08:00–10:00 M1A • Edge Computing M1B • Cognitive Optical M1C • Photonic Sensors M1D • Novel Active M1E • Symposium: M1F • Next Generation Presider: Yawei Yin; Networks Presider: Joel Villatoro; Univ. Devices Quantum Information TOSA/ROSA Microsoft Corp, USA Presider: Josue Kuri; Google of the Basque Country UPV/ Presider: Mitsuru Takenaka; Science and Technology Components LLC, USA EHU, Spain Univ. of Tokyo, Japan (QIST) in the Context of Presider: Yusuke Nasu; NTT Optical Communications Photonics Laboratories, (Session 1) Japan Monday, 9 March Monday, M1A.1 • 08:00 M1B.1 • 08:00 Tutorial M1C.1 • 08:00 Invited M1D.1 • 08:00 Tutorial M1E.1 • 08:00 Invited M1F.1 • 08:00 Invited Telemetry-driven Optical 5G Machine Learning in Multi-layer Mid-infrared Gas Spectroscopy Graphene and Related Materials The Enabling Role of Optics and Pho- A Single Channel 112 Gb/s PAM4 Serverless Architecture for Latency- Optical Networks: Why and How, Rui Using Fiber Laser Driven Supercon- for Photonics and Optoelectron- tonics in the National Quantum Initia- Optical Transceiver Link Based on sensitive Edge Computing, Istvan M. Morais1; 1Infinera, Portugal. This tinuum, Camille-Sophie Brès1, Davide ics, Andrea C. Ferrari1; 1Univ. of tive, Michael G. Raymer1; 1OMQ, Univ. Silicon Photonics and CMOS Elec- 1 3 Pelle , Francesco Paolucci , Balazs tutorial addresses the questions of why Grassani1, Eirini Tagkoudi1; 1Ecole Cambridge, UK. Graphene is an of Oregon, USA. Optics and photonics tronics, Haisheng Rong1; 1Intel Cor- 1 2 1 Sonkoly , Filippo Cugini ; MTA-BME and how machine learning (ML) can be Polytechnique Federale de Lausanne, ideal material for optoelectronics. play key roles in integrating Univ., poration, USA. Abstract not available. Network Softwarization Research useful in multi-layer optical networks. Switzerland. Middle-infrared (mid-IR) I will show that graphene-based industry and government research to 2 3 Group, Hungary; CNIT, Italy; Scuola Some key concepts are illustrated gas spectroscopy based on turn- integrated photonics could enable move quantum information science Superiore Sant’Anna, Italy. Latency- by realistic use-cases highlighting key fiber lasers offers simplicity and ultrahigh spatial bandwidth density, and technology from theory into sensitive serverless subfunctions are the challenges and requisites of robustness. Here we review recent low power consumption for next practice, including the central areas optimally deployed at edge and cloud adopting ML. work on fiber-laser driven mid-IR generation datacom and telecom. of quantum sensors, communication according to telemetry-retrieved data spectroscopy leveraging efficient Heterostructures based on layers of systems and computers. from the 5G transport infrastructure. dispersive-wave generation in silicon atomic crystals can also be exploited Once deployed, serverless functions nitride waveguide covering 3-5 micron in novel optical devices, such as single provided extremely fast invocation region. photon emitters, and tuneable light time of less than 450ms. emitting diodes.

M1A.2 • 08:15 Flexible Optical Network Enabled Hybrid Recovery for Edge Network with Reinforcement Learning, Meng Lian1, Rentao Gu1, Yongyao Qu1, Zihao Wang1, Yuefeng Ji1; 1Beijing Laborato- ry of Advanced Information Network, Beijing Univ. of Posts and Telecom- Rui Morais received his Master of munications, China. The proposed Science in Mathematics and his PhD hybrid recovery utilizes flexible optical in electrical engineering, both from network with reinforcement learning the University of Aveiro. He joined to recover IP fault for edge network. Infinera (then NSN and after Coriant) in The testbed experiments indicate, 2011. He is now serving as an enabler Andrea C. Ferrari is Professor of Nano- the recovery time is 20% of rerouting- on the adoption of machine learning technology at the University of Cam- based strategy for a heavy-loaded by identifying use-cases that would bridge. He is the founding director network. pave the way to the appearance of of the Cambridge Graphene Centre self-driving networks. and of the EPSRC Centre for Doctoral Training in Graphene Technology. He is the chair of the Management Panel and the Science and Technology Of- ficer of the EU Graphene Flaghip.

48 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

08:00–10:00 08:00–10:00 08:00–10:00 08:00–10:00 08:00–10:00 M1G • Machine Learning and M1H • Chip-to-chip Optical M1I • Optical Signal M1J • Positioning Beam- M1K • Dis-aggregated Access its Applications Interconnects Processing steering for Advanced Wireless Networks Presider: Hussam Batshon; NEC Presider: Madeleine Glick; Presider: Youichi Akasaka; Fujitsu Communications Presider: Michael Freiberger; Laboratories America Inc, USA Columbia Univ., USA Laboratories of America Inc, USA Presider: Nan Chi; Fudan Univ., Verizon Communications Inc, USA China

M1G.1 • 08:00 M1H.1 • 08:00 Invited M1I.1 • 08:00 Invited M1J.1 • 08:00 Invited M1K.1 • 08:00 Tutorial Neural Network Assisted Geometric Shaping Co-packaged TeraPHY Optical I/O Enables Narrowband and Low-noise Brillouin Ampli- Optically Controlled Beam-steering Wire- The Telco Cloudification, from Open- for 800Gbit/s and 1Tbit/s Optical Transmis- Next Generation of Data Center Appli- fication for Coherent Communications, Mark less Systems, Ton Koonen1, Ketema Me- cord to SDN-enabled Broadband Access sion, Maximilian Schaedler1,2, Stefano Cal- cations, Vladimir Stojanovic1; 1Ayar Labs, D. Pelusi1, Takashi Inoue1, Shu Namiki1; 1Na- konnen1, Zizheng Cao1, Frans Huijskens1, (SEBA), Saurav Das1; 1Open Networking Foun- abro1, Fabio Pittalà1, Georg Böcherer3, Maxim USA. Abstract not available. tional Inst. of Advanced Industrial Science Ngoc-Quan Pham1, Eduward Tangdiong- dation, USA. Abstract not available. Kuschnerov1, Christian Bluemm1, Stephan and Technology (AIST), Japan. Advantages ga1; 1Technische Universiteit Eindhoven, Neth- Pachnicke2; 1Huawei Munich Research Center, of Brillouin amplification for phase noise erlands. Wavelength-controlled 2D steering of Germany; 2Chair of Communications, Kiel sensitive 64-QAM coherent communications mm-wave beams and infrared beams provides Univ. (CAU), Germany; 3Huawei Technologies are described. The limits of narrowband gain high communication capacity, privacy and France SASU, France. End-to-end learning enhancing the carrier-to-noise ratio of noisy energy efficiency. Using diffractive elements for amplified and unamplified links including pilot tones for high performance optical signal and accurate user localization, delivery of binary-mapping is proposed to improve the carrier recovery are shown. multiple 10GbE video streams by infrared performance of optical coherent systems. beams is demonstrated. 1.0dB and 1.2dB gains are demonstrated on coherent 92GbaudDP-32QAM 800Gb/s and 82GbaudDP-128QAM 1Tb/s measurements, respectively.

M1G.2 • 08:15 Deep Learning Based Digital Back Propa- gation with Polarization State Rotation & Phase Noise Invariance, Bertold Ian Bitachon1, Amirhossein Ghazisaeidi3, Benedikt Baeuerle1,2, Marco Eppenberger1, Juerg Leuthold1; 1ETH Zurich, Switzerland; 2Polariton AG, Switzer- land; 3Nokia Bell Labs, France. A new deep learning training method for digital back propagation (DBP) is introduced. It is invariant to polarization state rotation and phase noise. Applying the method one gains more than 1 dB over standard DBP.

OFC 2020 • 8–12 March 2020 49 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

M1A • Edge M1B • Cognitive Optical M1C • Photonic M1D • Novel Active M1E • Sympsium: M1F • Next Generation Computing—Continued Networks—Continued Sensors—Continued Devices—Continued Quantum Information TOSA/ROSA Science and Technology Components—Continued (QIST) in the context of Optical Communications (Session 1)—Continued

M1C.2 • 08:30 Top-Scored Monday, 9 March Monday, M1A.3 • 08:30 Invited M1E.2 • 08:30 Invited M1F.2 • 08:30 « Multi-layer Network Slicing for Ac- Proposal of Brillouin Optical Time Scalable Measurement-Device- High Output Power and Compact celerating Business Velocity for Edge Domain Collider for Dynamic Independent Quantum Key Distri- LAN-WDM EADFB Laser TOSA 1 Computing, Akihiro Nakao1; 1Interfac- Strain Measurement, Yin Zhou , bution Networks with Untrusted for 4 × 100-Gbit/s/λ 40-km Fiber- 1 1 ulty Initiative in Information Studies, Lianshan Yan , Xinpu Zhang , Wei Relays, Hoi-Kwong Lo1, Wenyuan Amplifier Less Transmission, Shigeru 1 1 The Univ. of Tokyo, Japan. Abstract Pan ; Southwest Jiaotong Univ., Wang1, Feihu Xu2; 1Physics, Univ. of Kanazawa1, Takahiko Shindo1, Min- not available. China. The dynamic strain sampling Toronto, Canada; 2Univ. of Science gchen Chen1, Naoki Fujiwara1, Ma- rate of Brillouin-based distributed and Technology of China, China. I sahiro Nada1, Toshihide Yoshimatsu1, sensors is limited by fiber length. For review the recent developments of Atsushi Kanda1, Yasuhiko Nakanishi1, breaking this limit, a Brillouin optical quantum key distribution networks Fumito Nakajima2, Kimikazu Sano1, time domain collider is proposed. A with untrusted relays based on the Yozo Ishikawa3, Kazuyo Mizuno3, 10-times enhancement on sampling Measurement-Device-Independent Hideaki Matsuzaki2; 1NTT Device In- rate is experimentally demonstrated. quantum key distribution MDI-QKD novation Center, Japan; 2NTT Device protocol. Technology Labs., Japan; 3Furukawa Electric Co. Ltd, Japan. We achieved the world’s first demonstration of 4 × 100-Gbit/s/λ 4-PAM signals 40- km fiber-amplifier-less transmission featuring a power budget over 18 dB using a 4-channel high output power LAN-WDM EADFB laser TOSA and APD ROSA.

M1C.3 • 08:45 M1F.3 • 08:45 Silicon-based Integrated Broadband A Hybrid-integrated 400G TROSA Wavelength-meter with Low Tem- Module Using Chip-to-chip Opti- 1 perature Sensitivity, Long Chen , cal Butt-coupling, Young-Tak Han1, 1 1 1 Chris Doerr , Shenghua Liu , Li Chen , Seokjun Yun1, Hyun-Do Jung1, Seok- 1 1 Michelle Xu ; Acacia Communica- Tae Kim1, Jang-Uk Shin1, Sang-Ho tions, Inc., USA. We demonstrated an Park1, Seo-Young Lee1, Yongsoon integrated broadband wavelength- Baek1; 1Electronics and Telecom meter with three optical 90-degree Research Inst, Korea (the Republic mixers, differential photodiodes, of). Using an optical butt-coupling and delays of thin TM waveguides, method, we have developed a low- allowing unambiguous wavelength cost hybrid-integrated 4×100G determination over 4 THz with high TROSA module, showing clear Tx op- accuracy and relaxed requirement on tical eye patterns and Rx sensitivities temperature control. within -7.0 ~ -6.4 dBm at 106-Gbps PAM4 signals for all channels.

50 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

M1G • Machine Learning and M1H • Chip-to-chip Optical M1I • Optical Signal M1J • Positioning Beam- M1K • Dis-aggregated Access its Applications—Continued Interconnects—Continued Processing—Continued steering for Advanced Wireless Networks—Continued Communications—Continued

M1G.3 • 08:30 M1H.2 • 08:30 M1I.2 • 08:30 M1J.2 • 08:30 « Top-Scored 16-QAM Probabilistic Constellation Shaping Phase Noise Spectral Properties Across Experimental Demonstration of an Optical High Speed 2D-PDA FSO Receiver for High by Learning the Distribution of Transmitted Individual Comb Lines in Quantum-dot Second-order Volterra Nonlinear Filter us- Optical Alignment Robustness with Space Symbols from the Training Sequence, Ah- Mode-locked Lasers, Mustafa A. Al-Qadi1, ing Wave Mixing and Delays to Equalize a Diversity, Toshimasa Umezawa1, Yuki Yoshida1, 1 mad Fallahpour1, Fatemeh Alishahi1, Amir Maurice O’Sullivan2, Chongjin Xie3, Rongq- 20-Gbaud 4-APSK Channel, Kaiheng Zou , Atsushi Kanno1, Naokatsu Yamamoto1, Tetsuya 1 1 Minoofar1, Kaiheng Zou1, Ahmed Almaiman1, ing Hui1; 1Univ. of Kansas, USA; 2R&D, Ciena Peicheng Liao , Huibin Zhou , Ahmad Fallah- Kawanishi2,1; 1National Inst of Information & 1 1 1,2 Peicheng Liao1, Huibin Zhou1, Moshe Tur2, Corporation, Canada; 3R&D, Alibaba Group, pour , Amir Minoofar , Ahmed Almaiman , Comm Tech, Japan; 2Waseda Univ., Japan. We 1 3 Alan E. Willner1; 1Univ. of Southern California, USA. We study phase-noise spectral properties Fatemeh Alishahi , Moshe Tur , Alan E. Will- present a free space optics receiver with 1 1 2 USA; 2Tel Aviv Univ., Israel. A technique for of comb lines from a QD-MLL, show that their ner ; Univ. of Southern California, USA; King high robustness for optical alignment using 3 probabilistic constellation shaping based large linewidth variability attributes to the low- Saud Univ., Saudi Arabia; Tel Aviv Univ., a large active area, high-speed 2D-PDA, and on distribution learning from a training frequency phase variations, and has minimal Israel. We demonstrate an optical second-order its demonstration of 40-Gbps (PAM4) signal sequence is investigated. In this approach, effect on coherent system performance at Volterra filter using wave mixing and delays. We detection using a space diversity technique the probability distribution is optimized such practical symbol rates. measure the frequency response and perform in DSP. that it can maximize the mutual information. the compensation of a nonlinearly distorted The effectiveness of this approach is verified 20-Gbaud 4-APSK signal with BER reduction -3 -3 by shaping 10 Gbaud 16QAM in simulation from 8.2×10 to 3.2×10 . and experiment.

M1G.4 • 08:45 M1H.3 • 08:45 M1I.3 • 08:45 M1J.3 • 08:45 Assisted Adaptively Partitioned Entropy Experimental Demonstration of PAM-4 Gain Ripple and Passband Narrowing Circumventing LoS Blocking in Beam-Steered Loading for FBMC/OQAM System, Xi Chen1,2, Transmission through Microring Silicon due to Residual Chromatic Dispersion in Optical-wireless Systems with Real-time Shuangyi Yan2, Ming Tang1, Songnian Fu1, Photonic Clos Switch Fabric, Liang Yuan Non-degenerate Phase-Sensitive Ampli- Tracking and Handover, Ketemaw Addis 1 2 1 1 Deming Liu1, Dimitra Simeonidou2; 1Huazhong Dai1, Yu-Han Hung1, Qixiang Cheng1, Keren fiers, Shimpei Shimizu , Takushi Kazama , Mekonnen , Ngoc Quan Pham , Frans Hui- 1 1,2 1 1 2 Univ of Science and Technology, China; 2High Bergman1; 1Lightwave Research Labora- Takayuki Kobayashi , Takeshi Umeki , Koji jskens , Eduward Tangdiongga , Ali Mefleh , 2 2 1 1 Performance Networks Group, Department of tory, USA. We present the first experimental Enbutsu , Ryoichi Kasahara , Yutaka Miya- Ton Koonen ; Eindhoven Univ. of Technology, 1 1 2 Electrical and Electronic Engineering, Univ. of demonstration of a 25 Gbps optical PAM4 moto ; NTT Network Innovation Laboratories, Netherlands; KPN, Netherlands. This paper 2 Bristol, UK. We adopted K-means clustering to signal transmission through a microring- NTT Corporation, Japan; NTT Device Technol- demonstrates a real-time user tracking and efficiently partition the subcarriers to reduce based Clos topology under realistic operating ogy Laboratories, NTT Corporation, Japan. We handover mechanism for indoor ultrahigh- the complexity of PS-QAM on FBMC/OQAM conditions. We observe a 1.1-dBm power theoretically show dispersion dependence of speed beam-steered optical-wireless systems system using KK receiver. The net data rate of penalty at the bit error rate of 1.03×10−7. gain spectrum in non-degenerate PSA under implementing a low-cost camera. This allows 100 Gb/s is achieved after 125 km transmission. phase locking, and experimentally demonstrate us to tackle LoS blocking by switching to a WDM amplification of PS-64QAM signal using secondary beam-steering device automatically. PPLN-based PSA with gain-flattened spectrum by estimation and compensation of chromatic dispersion.

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M1A.4 • 09:00 M1C.4 • 09:00 M1D.2 • 09:00 Invited Monday, 9 March Monday, M1B.2 • 09:00 Top-Scored M1E.3 • 09:00 M1F.4 • 09:00 Invited Deep Reinforced Energy Efficient « Single-shot Detection Time- 128 Gbps NRZ and 224 Gbps PAM-4 Hybrid Learning Assisted Abstrac- Quantum Memory for Light – The Quasi-coherent Technology for Cost Traffic Grooming in Fog-cloud Elastic stretched Interferometer with At- Signals Reception in Graphene Plas- Second Life of Rare-earth Crys- Efficient High Loss Budget Trans- tion for Service Performance As- 1 1 Optical Networks, Ruijie Zhu1, Shihua tosecond Precision, Tianhao Xian , monic PDM Receiver, Yilun Wang , tals, Wolfgang Tittel1; 1TU Delft, mission, Jesper B. Jensen1, Jose A. sessment Over Multi-domain Optical 1 1 2 1 1 1 1 Li Zhan ; Shanghai Jiao Tong Univ., Yong Zhang , Zhibin Jiang , Wentao 1 1 Li , Peisen Wang , Lulu Li , Aretor 1 1,2 Netherlands. Abstract not available. Altabas , Omar Gallardo , Michele Networks, Rui Wang , Xi Chen , 1 2 1 1 2 1 China. A single-shot time-stretched Deng , Xinyu Huang , Qizhi Yan , 1 Samuel , Yongli Zhao ; Zhengzhou 1,3 1 Squartecchia , Guillermo Silva Valde- Zhengguang Gao , Shuangyi Yan , 1 3 2 2 interferometer for femtosecond Liao Chen , Xiang Li , Lei Ye , Xinliang 1 1 Univ., China; Beijing Univ. of Posts 1 casa ; Bifrost Communications, Den- Reza Nejabati , Dimitra Simeoni- 1 1 and Telecommunications, China. We and picosecond time detection is Zhang ; Wuhan National Labora- dou1; 1Univ. of Bristol, UK; 2School of mark. In this paper, we present results propose a novel energy efficient traffic proposed and demonstrated. The tory for Optoelectronics, Huazhong Electronic and Optical Information, achieved with real-time quasi-coherent grooming algorithm based on deep time precision is ~40 attosecond. This Univ. of Science and Technology, receivers in context with challenges for Huazhong Univ. of Science and Tech- 2 reinforcement learning in fog-cloud technique succeeds in charactering China; School of Optical and Elec- nology, China; 3State Key Laboratory next generation access networks. -35 elastic optical networks. Simulation the motion of delay-line and in tronic Information, Huazhong Univ. of dBm receiver sensitivity at 10 Gbps of Information Photonics and Optical 3 results show that it can achieve much fabricating vibrating sensor. Science and Technology, China; State Communications, Beijing Univ. of for NG-PON2 applications and 32.5 lower energy consumption than the Key Laboratory of Optical Communi- Posts and Telecommunications, Chi- km 25 Gbps C-band transmission over state-of-art algorithm. cation Technologies and Networks, na. This paper demonstrates the field- an uncompensated SSMF link for 5G China Information Communication front/mid-haul is presented. trial validation for a novel machine Technologies Group Corporation, Chi- learning-assisted lightpath abstraction na. We report high-data rate reception strategy in multi-domain optical of polarization division multiplexing network scenarios. The proposed signals using graphene-on-plasmonic abstraction framework shows high slot waveguide photodetectors with accuracy for dynamic optical networks bandwidth exceeding 70 GHz. 128 with 0.44 dB estimation error. Gbps NRZ and 224 Gbps PAM-4 signals reception are experimentally demonstrated at 1550 nm with high quality.

M1A.5 • 09:15 M1B.3 • 09:15 M1C.5 • 09:15 M1D.3 • 09:15 Multi-stage Aggregation and Exploiting Multi-task Learning to Phase-shifted Bragg Grating-based High-speed Plasmonic Modulator Lightpath Provisioning of Geo- Achieve Effective Transfer Deep Mach-Zehnder Interferometer Sen- for Simultaneous C- and O-band distributed Data over EON Assisted Reinforcement Learning in Elas- sor using an Intensity Interrogation Modulation with Simplified Fab- by MEC, Zhen Liu1, Jiawei Zhang1, tic Optical Networks, Xiaoliang Scheme, Enxiao Luan1, Han Yun1, rication, Andreas Messner1, Pascal Zizheng Guo1, Yuefeng Ji1; 1Beijing Chen1, Roberto Proietti1, Che-Yu Liu1, Stephen Lin1, Karen Cheung1, Lukas A. Jud1, Joel Winiger1, Wolfgang Univ. of Posts and Telecomm, China. A Zuqing Zhu2, S. J. Ben Yoo1; 1Univ. Chrostowski1, Nicolas Jaeger1; 1Uni- Heni1,2, Benedikt Baeuerle1,2, Marco multi-stage aggregation and lightpath of California, Davis, USA; 2Univ. of versitiy of British Columbia, Cana- Eppenberger1, Koch Ueli1, Christian provisioning algorithm is proposed Science and Technology of China, da. We experimentally demonstrated Haffner1,4, Huajun Xu3, Delwin L. for geo-distributed data in EON China. We propose a multi-task- the suitability of the phase-shifted Elder3, Larry R. Dalton3, Ping Ma1, assisted by MEC. Simulation results learning-aided knowledge transferring Mach-Zehnder interferometric Juerg Leuthold1; 1ETH Zurich, Swit- show the algorithm can reduce the approach for effective and scalable device to support real-time sensing zerland; 2Polariton Technologies AG, job completion time and bandwidth deep reinforcement learning in EONs. monitoring using an intensity Switzerland; 3Department of Chemis- consumption. Case studies with RMSA show that this interrogation scheme. The proposed try, Univ. of Washington, USA; 4Nation- approach can achieve ~4x learning sensor presents a sensitivity of ~810 al Inst. of Standards and Technology, time reduction and ~17.7% lower dB/RIU with a broadband light source. USA. A plasmonic modulator spanning blocking probability. both C- and O-band for dual-band data modulation up to 100 Gbit/s in one single device is presented. Fiber-to-fiber insertion loss can be as low as 11 dB.

52 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

M1G.5 • 09:00 Tutorial M1H.4 • 09:00 Tutorial M1I.4 • 09:00 « Top-Scored M1J.4 • 09:00 M1K.2 • 09:00 Machine Learning and its Applications in Energy-efficient Multi-wavelength, Chip-to- Generation and Coherent Detection of Beyond 100-kbit/s Transmission over Roll- Two-stage Abstraction for Disaggregated Optical Communication Systems, Faisal N. chip, Switched Optical Interconnects, Ashok 2-μm-band WDM-QPSK Signals by On-chip ing Shutter Camera-based VLC Enabled Modular OLT Architecture Supporting 1 Khan1, Qirui Fan1, Jianing Lu2, Gai Zhou1, Chao V. Krishnamoorthy1; 1Axalume, Inc., USA. We Spectral Translation, Deming Kong1, Yong by Color and Spatial Multiplexing, Liqiong OpenFlow Control, Keita Nishimoto , Kota 1 1 2 2 1 1 1 1 Lu2, Alan Pak Tao Lau1; 1Photonics Research discuss optical chip-to-chip electrical and Liu1, Zhengqi Ren2, Yongmin Jung2, Minhao Liu , Rui Deng , Jin Shi , Jing He , Lian-Kuan Asaka , Jun-ichi Kani , Jun Terada ; NTT 1 1 Center, Department of Electrical Engineering, optical interconnects, reviewing optical Pu1, Kresten Yvind1, Michael Galili1, Leif Oxen- Chen ; Department of Information Engi- Access Network Service Systems Laborato- Hong Kong Polytechnic Univ., China; 2Photon- component technologies and their application løwe1, David Richardson2, Hao Hu1; 1Technical neering, The Chinese Univ. of Hong Kong, ries, Japan. We implement our abstraction 2 ics Research Center, Department of Electronic to energy-efficient optically-interconnected Univ. of Denmark, Denmark; 2Optoelectron- Hong Kong; College of Computer Science method for provisioning and controlling, via and Information Engineering, The Hong Kong systems with enhanced performance metrics. ics Research Centre, Univ. of Southampton, and Electornic Engineering, Hunan Univ., OpenFlow, the disaggregated PON-OLT that Polytechnic Univ., China. In this presentation, Examples will be provided to highlight system- UK. We have proposed and demonstrated the China. The camera-based VLC (CVLC) is a features separation of hardware module and we will discuss the fundamentals of basic level successes and to motivate an evolution generation and coherent detection of 2-µm- promising technique for various application softwarized OLT functions, and demonstrate its Machine Learning(ML) techniques. We will then of next generation optically-interconnected band I/Q modulated signals for the first time scenarios. For the first time, we demonstrate a operation by utilizing open source controllers provide an overview of current ML applications platforms from electrically switched, to optical using on-chip spectral translation. 6×32 Gbaud rolling shutter based CVLC system with beyond ONOS / VOLTHA. in optical communications and networks and wavelength-switched and broadband optically- WDM-QPSK signals exhibit BERs below the 7% 100-kbit/s data rate by employing color and highlight upcoming trends and challenges. switched systems. HD-FEC threshold. spatial multiplexing.

M1I.5 • 09:15 M1J.5 • 09:15 M1K.3 • 09:15 Alan Pak Tao Lau received his B.A.Sc., M.A.Sc. Ashok Krishnamoorthy is Chairman and CEO Compensation of SOA Nonlinear Distor- Non-orthogonal Matrix Precoding based Capacity Sharing Approaches in Multi- from University of Toronto and his Ph.D. in of Axalume, an optical interconnect startup. He tions by Mid-stage Optical Phase Conjuga- Faster-than-nyquist Signaling over Opti- tenant, Multi-service PONs for Low-latency Electrical Engineering from Stanford University was formerly an Oracle Architect and its Chief tion, Aneesh Sobhanan1, Mark Pelusi2, Takashi cal Wireless Communications, Zhouyi Hu1, Fronthaul Applications Based on Cooper- in 2008. He joined The Hong Kong Polytechnic Technologist, Photonics. Previously, he was a Inoue2, Deepa Venkitesh1, Shu Namiki2; 1In- Chun-Kit Chan1; 1Chinese Univ. of Hong Kong, ative-DBA, Arsalan Ahmad1,2, Sanwal Zeb1, University and is now a Professor. His research Distinguished Engineer and Director at Sun dian Inst. of Technology Madras, India; 2Na- Hong Kong. We first investigate a novel non- Abdul Wahab2, Rana Azhar Khan2, Marco interests include DSP and Machine Learning Microsystems, and prior to that President and tional Inst. of Advanced Industrial Science orthogonal matrix precoding based faster-than- Ruffini1; 1Univ. of Dublin Trinity College, Ire- applications for various optical communica- CTO of AraLight, a Bell Labs VCSEL intercon- and Technology, Japan. We investigate Nyquist signaling technology in OWC systems. land; 2National Univ. of Sciences and Tech- tion systems. nect spinout. optical phase conjugation for compensating Compared to the conventional schemes, it nology, Pakistan. We propose and compare nonlinear distortions due to carrier dynamics in shows superior performance including PAPR algorithms to allocate upstream PON capacity, semiconductor optical amplifiers. Experiments reduction, improved sensitivity, and improved where multiple virtual operators generate with WDM-3Χ12Gbaud 16-QAM signals show tolerance to narrow-bandwidth filtering. independent frame-level allocation over the ability to outperform a single device by 2dB shared infrastructure. Our fragmentation-based average Q2-factor improvement. approach shows the ability to limit latency increase to a few microseconds

OFC 2020 • 8–12 March 2020 53 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

M1B.4 • 09:30 M1D.4 • 09:30 Monday, 9 March Monday, M1A.6 • 09:30 M1C.6 • 09:30 M1E.4 • 09:30 Invited M1F.5 • 09:30 Remote Human-to-Machine Dis- Dynamically Controlled Flexible-Grid Real-time Structured-light Depth 50 Gbit/s Silicon Modulator Oper- Title to be Announced, Jungsang 25.78-Gbit/s Burst-mode Receiver 1 tance Emulation through AI-En- Networks Based on Semi-Flexible Sensing Based on Ultra-compact, ated at 1950 nm, Wenxiang Li , Kim1; 1Duke Univ., USA. Abstract not for 50G-EPON OLT, Naruto Tanaka1, 2,3 2,3 hanced Servers for Tactile Internet Spectrum Assignment and Network- Non-mechanical VCSEL Beam Scan- Miaofeng Li , Hongguang Zhang , available. Daisuke Umeda2, Yoshiyuki Sugimoto1, 2,3 1 Applications, Sourav Mondal1, Li- state-value Evaluation, Ryuta Shi- ner, Ruixiao Li1, Masashi Takanohashi1, Yuguang Zhang , Hucheng Xie , Xi Tomoyuki Funada2, Keiji Tanaka1, 1 1 1 2,3 1 1 hua Ruan1, Elaine Wong1; 1Univ. of raki , Yojiro Mori , Hiroshi Hasegawa , Shanting Hu1, Xiaodong Gu1, Fumio Xiao , Ke Xu ; Harbin Inst. of Tech- Shoichi Ogita1; 1Transmission De- 2 1 2 Melbourne, Australia. We alleviate Ken-ichi Sato ; Information and Koyama1; 1Tokyo Inst. of Technology, nology, China; National Information vices Laboratory, Sumitomo Electric the master-slave distance limitation Communication Engineering, Na- Japan. We realized real-time scanning Optoelectronics Innovation Center, Industries, LTD, Japan; 2Information 2 3 of human-to-machine applications goya Univ., Japan; The National structured-light depth sensing with China; Wuhan Research Inst. of Posts Network R&D Center, Sumitomo by forecasting and pre-empting Inst. of Advanced Industrial Sci- accuracy of less than 270mm for & Telecommunications, China. We Electric Industries, LTD, Japan. We haptic feedback transmission. Results ence and Technology, Japan. We distance of 35cm using ultra-compact have experimentally demonstrated report the world›s first receiver optical show 99% accuracy in detecting propose a novel RSA algorithm for (<0.5mm2) non-mechanical beam scan- an integrated silicon Mach-Zehnder sub-assembly equipped with 25G touch events and 96% accuracy in dynamically-changing flexible-grid ner. The peak output power can be as modulator which operates at 1950 nm burst-mode TIA which is applicable forecasting feedback from different networks. The proposed scheme can low as 1mW. wavelength range. 50 Gbit/s intensity for 50G-EPON OLT transceiver. We slave materials. suppress spectral fragmentation and modulation is achieved with bit error demonstrate its 25G/10G dual-rate -3 adapt to traffic-distribution change. rate below 3.8×10 . burst-mode receiver characteristics. Extensive simulations show that the M1A.7 • 09:45 fiber-utilization efficiency is increased M1C.7 • 09:45 M1D.5 • 09:45 by 1% to 57%. M1F.6 • 09:45 Demonstration of Geo-distributed A Novel Frequency-modulation (FM) Quantum Random Number Gen- PAM-X™: A 25Gb/s-PAM4 Optical Data Processing and Aggregation Demodulator for Microwave Pho- erator based on Phase Diffusion in Transceiver Chipset for 5G Optical in MEC-empowered Metro Opti- tonic Links based on Polarization- Lasers using an On-chip Tunable SOI Front-Haul, Lei Zhao1, Xin Wang2, Rui 1 cal Networks, Jiawei Zhang , Lu Maintaining Fiber Bragg Grating, Di- Unbalanced Mach-Zehnder Interfer- Bai2, Juncheng Wang2, Tao Xia1, Yi 1 1 1 1 1 1 1 1 Cui , Zhen Liu , Yuefeng Ji ; Beijing penkumar Barot , Lingze Duan ; Univ. ometer (uMZI), Imran Muhammad , Peng2, Yuanxi Zhang2, Lei Wang2, Liujia 2 2 Univ of Posts & Telecom, China. We of Alabama in Huntsville, USA. A Vito Sorianello , Francesco Fresi , Song2, Shenglong Zhuo1, Xuefeng 2 2 1 experimentally demonstrate a geo- novel scheme for demodulating Luca Potì , Marco Romagnoli ; Scuola Chen2, Patrick Y. Chiang1,2; 1Fudan 2 distributed data processing and frequency-modulated optical signals Superiore Sant’Anna, Italy; CNIT, Italy. University, Shanghai, China, 2PhotonIC aggregation (GDPA) scheme in the is proposed. It uses polarization- A 12.5Gb/s QRNG based on phase Technologies, Shanghai, China. A MEC-empowered metro optical maintaining fiber Bragg grating (PM- diffusion in gain switched lasers is complete 25Gb/s PAM4 optical trans- networks. The demonstration results FBG) as a frequency discriminator. demonstrated using a packaged ceiver chipset using commercial 10G- show that the proposed scheme The basic principle and preliminary on-chip SOI tunable unbalanced MZI lasers for 10km single-mode fiber can improve resource utilization and results of linearity and demodulation achieving minimum entropy/bit of is presented. Measurement results reduce average job completion time. are presented. 5.04 for 8 bit sample passing all NIST demonstrate <-12dBm sensitivity randomness tests. across all temperatures and <30pJ/ bit power efficiency.

10:00–10:30 Coffee Break, Upper Level Corridors

54 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

M1I.6 • 09:30 Invited M1J.6 • 09:30 M1K.4 • 09:30 Invited Phase Reconstruction Scheme Using Dis- Ultrahigh-capacity Optical-wireless Com- Softwarized and Open OLT Architecture persive Media in Direct Detection, Masayuki munication Using 2D Gratings for Steering for Flexible Optical Access Network, Keita Matsumoto1; 1Wakayama Univ., Japan. A non- and Decoding of DPSK Signals, Ketemaw Nishimoto1, Takahiro Suzuki1, Kota Asaka1, Jun- 1 1 iterative reconstruction scheme of phase- Addis Mekonnen , Eduward Tangdiongga , ichi Kani1, Jun Terada1; 1NTT Access Network 1 1 modulated signals using dispersive media Ton Koonen ; Eindhoven Univ. of Technol- Service Systems Laboratories, Japan. Recently, in direct detection is described. The phase ogy, Netherlands. We demonstrate the use many telecom carriers are promoting the re- retrieval is performed by solving the temporal of a 2D-gratings beam-steering device also architecture of access networks and COs by transport-of-intensity equation. Required as a demodulator for multiple differentially- utilizing SDN/NFV and OSS. We present our carrier-to-signal power ratio and allowable encoded optical-wireless signals. Using research relevant to the software PON-OLT carrier location in frequency are numerically this novel concept, ~2bits/sec/Hz spectral- architecture that we proposed for further studied. efficiency was achieved without any change in flexibility. the system compared to on-off-keying.

M1J.7 • 09:45 Multi-user Localization and Upstream Signaling for Indoor OWC System using a Camera Technology, Ngoc Quan Pham1, Ketema Mekonnen1, Eduward Tangdiongga1, Ali Mefleh2, Ton Koonen1; 1Eindhoven Univ. of Technology, Netherlands; 2KPN, Nether- lands. We present upstream signaling and localization for an indoor beam-steered OWC system using vision-based technology. We demonstrate a 1.2kbps upstream signaling and localization system which enables to identify a large number of users with <0.05° error.

10:00–10:30 Coffee Break, Upper Level Corridors

OFC 2020 • 8–12 March 2020 55 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

10:30–12:30 10:30–12:30 10:30–12:30 10:30–12:30 10:30–12:30 10:30–12:30 M2A • Advanced Active M2B • High-speed M2C • SDM Imaging and M2D • Optimizing M2E • Symposium: M2F • Digital Signal Components Integrated Modulators Sensing Network Capacity and Quantum Information Processing and Radio- Presider: Hanxing Shi; Finisar Presider: Argishti Melikyan; Presider: Rodrigo Amezcua Performance Science and Technology over-fiber Systems for Corporation, USA Nokia Bell Labs, USA Correa; Univ. of Central Presider: Stephen Grubb; (QIST) in the Context of 5G Florida, CREOL, USA Facebook Inc., USA Optical Communications Presider: Anthony Ng’oma; (Session 2) Corning Inc, USA Monday, 9 March Monday, M2A.1 • 10:30 « Top-Scored M2B.1 • 10:30 M2C.1 • 10:30 Invited M2D.1 • 10:30 Invited M2E.1 • 10:30 Invited M2F.1 • 10:30 Invited Broadband 145GHz Photodetec- O-band Reflective Electroabsorp- Ultra-miniaturized Endoscopes with Record Ultra-high Full-fill Capacity Title to be Announced, Christine Enabling Techniques for Optical tor Module Targeting 200GBaud tion Modulator for 50 Gb/s NRZ Multicore Fibers, Esben R. Andre- Transatlantic Submarine Deployment Silberhorn1; 1Univ. of Paderborn, Ger- Wireless Communication Sys- Applications, Patrick Runge1, Felix and PAM-4 Colorless Transmis- sen1, Siddharth Sivankutty2, Viktor Ushering in the SDM Era, Pierre many. Abstract not available. tems, Chi-Wai Chow1, Chien-Hung 2,1 Ganzer1, Jonas Gläsel1, Sebastian sion, Kebede Tesema Atra , Giancar- Tsvirkun2, Karen Baudelle1, Olivier Mertz1, Stephen Grubb2, Jeffrey Rahn2, Yeh 2, Y. Liu3, Yin-Chieh Lai1, Liang-Yu 2 2 Wünsch1, Sven Mutschall1, Martin lo Cerulo , Jean-Guy Provost , Filipe Vanvincq1, Géraud Bouwmans1, Hervé Warren Sande3, Marc Stephens3, Wei1, Chin-Wei Hsu1, Guan-Hong 2 2 Schell1; 1Fraunhofer Institut, Germa- Jorge , Fabrice Blache , Karim Me- Rigneault2; 1Univ Lille 1 Laboratoire James O’Connor3, Matthew Mitchell2, Chen1, X. L. Liao4, K. H. Lin4; 1Na- 2 2 ny. We demonstrate a photodetector khazni , Alexandre Garreau , Fred- PhLAM, France; 2Aix Marseille Univ., Stefan Voll3; 1Infinera Corporation, tional Chiao Tung Univ., Taiwan; 2Feng 2 2 module with a 0.8mm-RF connector eric Pommereau , Carmen Gomez , CNRS, Centrale Marseille, Institut USA; 2Facebook, USA; 3Infinera Cor- Chia Univ., Taiwan; 3Philips, Hong 2 1 and an estimated 3dB-bandwidth Catherine Fortin , Cedric Ware , Fresnel, France. We take stock of the poration, USA. A record capacity of Kong; 4Industrial Technology Re- 1 2 of 145GHz. The bandwidth of the Didier Erasme , Franck Mallecot , progress made into developing fiber- 24 Tbps on a 6,644 km trans-Atlantic search Inst., Taiwan. We summarized 2 1 module exceeds all other state of Mohand Achouche ; LTCI, Télécom optic ultra-thin endoscopes assisted deployment using 16QAM is enabled the recent progress of enabling the art photodetector modules. The Paris, Institut Polytechnique de Paris, by wave front shaping. We focus by synthesized subcarriers, FEC gain techniques for the optical wireless 2 intended application of the module is France; III-V Lab (a joint laboratory on multi-core fiber-based lensless sharing, multi-carrier wavelocking, communication (OWC) and visible for test and measurement equipment between Nokia Bell Labs, Thales R&T endoscopes intended for multi- and large-area, high dispersion fiber. light communication (VLC). Besides, of next generation optical networks and CEA Leti), France. We present a photon imaging. We put the work Computer assisted optimization and we reported two high data-rate laser- with 200GBaud. 50 Gb/s O-band reflective electroab- into perspective and outline remaining automated protection facilitate full-fill diode (LD) based VLC systems. Several sorption modulator operating in both challenges. deployments becoming prevalent as application scenarios using VLC were non-return-to-zero (NRZ) and PAM-4 submarine cables enter the SDM era. also discussed. modulation formats without equalization. We obtained >9 dB NRZ dynamic extinction ratio for a peak-to-peak voltage of 2.4 V.

M2A.2 • 10:45 M2B.2 • 10:45 Superior Temperature Performance In-Phase/Quadrature Modulation of Si-Ge Waveguide Avalanche by Directly Reflectivity Modulated Photodiodes at 64Gbps PAM4 laser, Po Dong1, Argishti Melikyan1, Operation, Yuan Yuan1,2, Zhihong Kwangwoong Kim1, Noriaki Kaneda2, Huang1, Binhao Wang1, Wayne Sorin1, Brian Stern1, Yves Baeyens2; 1Nokia Di Liang1, Joe C. Campbell2, Ray- Bell Labs, USA; 2Nokia Bell Labs, mond Beausoleil1; 1Hewlett Packard USA. We report a directly reflectivity Labs, Hewlett Packard Enterprise, modulated laser that generates a USA; 2Department of Electrical and 50-Gbaud QPSK signal with a BER of Computer Engineering, Univ. of 2.2x10-5. We believe this is the first Virginia, USA. We demonstrate a low demonstration of a coherent transmit- voltage Si-Ge waveguide avalanche ter made from a directly driven laser. photodiode with extremely high temperature performance. It exhibits high temperature stability from 30 °C to 90 °C, and achieves excellent operation with 64 Gb/s PAM4 modulation.

56 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

10:30–12:30 10:30–12:30 10:30–12:30 10:30–12:30 10:30–12:30 M2G • Multiband and SDN for M2H • Access Networks for M2I • Photonic Integrated M2J • Data Analytic-based M2K • Neuromorphic I: Capacity Scaling Mobile and Multi-access Edge Subsystems Monitoring Device-oriented Presider: Mark Filer; Microsoft Computing Presider: Lu Li; SubCom, USA Presider: Takahito Tanimura; Fujitsu Presider: Ken-ichi Kitayama; Grad Corp., USA Presider: Marco Ruffini; Univ. of Limited, Japan Sch Creation of New Photonics Ind, Dublin Trinity College, Ireland Japan

M2G.1 • 10:30 Invited M2H.1 • 10:30 M2I.1 • 10:30 Tutorial M2J.1 • 10:30 Invited M2K.1 • 10:30 Spatial Channel Network (SCN): Introducing Real-time Assessment of PtP/PtMP Fixed Silicon Photonic Waveguide Bragg Grat- DSP-aided Telemetry in Monitoring Lin- Temporal Resolution Enhancement in Quan- Spatial Bypass Toward the SDM Era, Ma- Access Serving RAN with MEC Capa- ings, Lukas Chrostowski1; 1Univ. of British ear and Nonlinear Optical Transmission tum-dot Laser Neurons due to Ground State 1 sahiko Jinno1, Takahiro Kodama1; 1Kagawa bilities, Anas El Ankouri1,2, Santiago Ruano Columbia, Canada. Abstract not available. Impairments, Qunbi Zhuge1, Xiaomin Liu1, Quenching Effects, George Sarantoglou , 1 2 Univ., Japan. We review the spatial-channel Rincón2, Gaël Simon1, Luiz Anet Neto1, Annie Huazhi Lun1, Mengfan Fu1, Lilin Yi1, Weisheng Menelaos Skontranis , Adonis Bogris , Charis 1 1 2 network technology toward the spatial-division- Gravey2, Philippe Chanclou1; 1Orange Labs, Hu1; 1Shanghai Jiao Tong Univ., China. DSP- Mesaritakis ; Univ. of the Aegean, Greece; In- multiplexing era from the viewpoints of network France; 2IMT Atlantique, France. In this paper aided telemetry within coherent receivers formatics and Computer Engineering, Univ. of and node architectures, physical performance, we propose the introduction of an intelligent provide unprecedented capabilities to monitor West Attica, Greece. We present experimental network-resource utilization efficiency, and access network equipment capable of hosting linear and nonlinear optical transmission results for an all-optical quantum-dot neuron, novel optical switches for modular and low-loss Mobile Edge Computing capabilities in impairments. The recent progress of it is biased to a ground-state quenching regime spatial cross-connects. a convergence scenario of PtP and PtMP reviewed and discussed in the context of alongside emission from the excited state. topologies. advanced network applications. This regime, allows reduction of the temporal width of spikes down to 500 ps and enhanced firing rate.

M2H.2 • 10:45 Invited M2K.2 • 10:45 Cohesion between 5G Mobile Wireless A DFB-LD-based Photonic Neuromorphic and Fixed Optical Based Wireline Net- Network for Spatiotemporal Pattern Recog- 1 1 works, Mark Watts1; 1Verizon Communications nition, Bowen Ma , Jianping Chen , Weiwen 1 1 Inc, USA. Interworking between 5G Mobility Zou ; Shanghai Jiao Tong Univ., China. We and Fixed Optical Access Application is rapidly present a photonic neuromorphic network increasing in importance for users and network using DFB-LDs for spatiotemporal pattern operators. Use cases are converging, with recognition. Complete input patterns are overlapping network features and functionality investigated theoretically and experimentally. and in some cases, duplicative. The output peak powers decrease with the difference between the target pattern and other patterns.

OFC 2020 • 8–12 March 2020 57 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

M2A • Advanced Active M2B • High-speed M2C • SDM Imaging and M2D • Optimizing M2E • Symposium: M2F • Digital Signal Components—Continued Integrated Modulators— Sensing—Continued Network Capacity and Quantum Information Processing and Radio- Continued Performance—Continued Science and Technology over-fiber Systems for 5G (QIST) in the Context of —Continued Optical Communications (Session 2) —Continued

M2B.3 • 11:00 M2D.2 • 11:00 M2F.2 • 11:00 Monday, 9 March Monday, M2A.3 • 11:00 Invited Top-Scored M2E.2 • 11:00 Invited M2C.2 • 11:00 Joint Optimization of Processing Development of VCSELs and VCSEL- Uncooled Operation of 53-Gbaud « Probabilistic-Shaping DP-16QAM Pushing the Count-rate and Ef- PAM4 EA-DFB Lasers in the Wave- Single-pixel Imaging Through Mul- CFP-DCO transceiver for 200G Complexity and Rate Allocation based Links for Data Communi- timode Fiber Using Silicon Opti- ficiency Limits of Single-photon cation beyond 50Gb/s, length Range of 1510-1570 nm for Upgrade of Legacy Metro/Regional through Entropy Tunability for 64- Nikolay cal Phased Array Chip, Taichiro Avalanche Diodes with RF Inter- 1,2 1,2 800-GbE Applications, Yoshihiro WDM Infrastructure, Erwan Pince- /256-QAM Based Radio Fronthaul- Ledentsov Jr. , Lukasz Chorchos , 1 1 1 ferometry, 1 1 1 1 Fukui , Yusuke Kohno , Rui Tang , 1 1 1 Joshua Bienfang ; NIST, 1 Nakai , Shigenori Hayakawa , Syunya min , Yann Loussouarn ; Orange ing with LDPC and PAS-OFDM, Rui Vitaly A. Shchukin , Vladimir P. Kalo- 1 1 1 Yoshiaki Nakano , Takuo Tanemu- USA. Abstract not available. 1 1 1 1 2 Yamauchi , Yoriyoshi Yamaguchi , Tet- Labs, France. We investigate here Zhang , Yon-Wei Chen , Shuyi Shen , sha , Jaroslaw P. Turkiewicz , Nikolay 1 1 1 1 ra ; School of Engineering, The Univ. 1 1 Ledentsov1; 1VI Systems GmbH, suyoshi Takamure , Hideaki Asakura , the capability of a newly developed Qi Zhou , Shuang Yao , Shang-Jen 1 of Tokyo, Japan. We experimentally 1 1 Germany; 2Inst. of Telecommuni- Ryosuke Nakajima , Shigetaka Hama- CFP-DCO interface, operating at both Su , Yahya Alfadhli , Gee-Kung 1 1 1 demonstrate single-pixel imaging 1 1 cations, Warsaw Univ. of Technol- da , Kazuhiko Naoe ; Lumentum 34 Gbaud with uniform DP-16QAM Chang ; Georgia Inst. of Technology, Japan, Inc., Japan. 53-Gbaud EA- using a multimode fiber attached and 39 Gbaud with probabilistic- USA. We experimentally demonstrate ogy, Poland. Recent advances in with optical phased-array chip. By VCSELs and VCSEL-based links are DFB lasers—with four wavelengths shaping DP-16QAM, for 200G LDPC coded PAS-OFDM 64-/256- in the 1500-nm region—for 800-GbE driving 128 integrated phase shifters, upgrade of legacy metro/regional QAM signals in radio fronthauls. reviewed. The impact of the VCSEL speckle patterns are generated from bandwidth extension to 28GHz on the applications were developed. They WDM infrastructure already working Through entropy allocation by demonstrated uncooled 53-Gbaud the fiber to realize clear imaging with at 10G or 100G. adjusting the complexity and signal performance of energy-efficient link 490 resolvable points. capable of operating above 71Gbit/s PAM4 operation with a TDECQ bandwidth, tunable power margins in NRZ modulation is studied. of lower than 2.5 dB over a wide gain up to 3 dB and relaxed process temperature from 20 to 85°C. latency are achieved.

M2B.4 • 11:15 M2C.3 • 11:15 M2D.3 • 11:15 Top-Scored M2F.3 • 11:15 25 Gbit/s Silicon Based Modula- Low Return Loss Multicore Fiber- « Field and Laboratory Demonstration Demonstration of Pattern Divi- tors for the 2 μm Wavelength Fanout Assembly for SDM and sion Multiple Access with Mes- 1 1 1 of 48nm Optical Transport with Real- Band, Wei Cao , Milos Nedeljkovic , Sensing Applications, Victor I. Kopp , sage Passing Algorithm in MMW- 1 1 1 1 Time 32T (80×400G) over G.652 Fi- Shenghao Liu , Callum G. Littlejohns , Jongchul Park , Jon Singer , Dan RoF Systems, Shuyi Shen1, You- 1 1 1 2 1 ber Distances up to 640km, Praveen David Thomson , Frederic Gardes , Neugroschl , Andy Gillooly ; Chiral 1 1 1 1 Wei Chen , Qi Zhou , Gee-Kung 1 1 2 Kumar , Deepak Sanghi , Sumit Chat- Zhengqi Ren , Ke Li , Graham T. Photonics Inc, USA; Fibercore House, 1 1 terjee1, Deng Pan2, Xuefeng Tang2, Chang ; Georgia Inst. of Technology, Reed1, Goran Mashanovich1,2; 1Univ. Fibercore, UK. SDM using uncoupled Zhuhong Zhang2, Chuandong Li2, USA. Implementing PDMA with MPA, of Southampton, UK; 2School of or coupled core multicore fibers Deng Jian2, Dejiang Zhang2; 1Bharti ambiguous symbol recovery and Engineering, Univ. of Belgrade, Ser- promises to increase the bandwidth Airtel Ltd, India; 2huawei technologies, 4-dB sensitivity improvement was bia. We demonstrate high-speed density in optical links. In addition, China. We report first successful field achieved compared to conventional silicon modulators optimized for these fibers form a platform for trial and laboratory demonstration of PD-NOMA-SIC. Experimental results operating at the wavelength of 2 μm. various sensing systems, including 48nm extended C band transport. show that PDMA enhances application The Mach-Zehnder interferometer 3D shape sensing. Both applications Error-free transmission of 32Tb/s flexibility by pattern variants tailored carrier-depletion modulator has a will be advanced by the low return (80×400Gb/s) is achieved over 640km for different scenarios including grant- modulation efficiency Vπ.Lπ of 2.89 loss fanout-multicore fiber assembly G.652 link in laboratory and 42km free uplinks. V.cm at 4 V reverse bias. It operates demonstrated here. G.652 link in field. at a data rate of 25 Gbit/s with an extinction ratio of 6.25 dB.

58 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

M2G • Multiband and SDN for M2H • Access Networks for M2I • Photonic Integrated M2J • Data Analytic-based M2K • Neuromorphic I: Capacity Scaling—Continued Mobile and Multi-access Edge Subsystems—Continued Monitoring—Continued Device-oriented—Continued Computing—Continued

M2G.2 • 11:00 M2J.2 • 11:00 M2K.3 • 11:00 Invited Evaluation of the Flexibility of Switching Experimental Comparisons between Ma- Scalable Photonic Integration of Neural Node Architectures for Spaced Division chine Learning and Analytical Models for Networks, Johnny Moughames2, Javier Porte2, 1 Multiplexed Elastic Optical Network, Si- QoT Estimations in WDM Systems, Qirui Fan , Maxime Jacquot2, Laurent Larger2, Muamer 1 1 1 cong Ding1, Shan Yin1, Zhan Zhang1, Shanguo Jianing Lu , Gai Zhou , Derek Zeng , Changjian Kadic2, Daniel Brunner1; 1CNRS, France; 2FEM- 3,1 1 4 Huang1; 1State Key Laboratory of Information Guo , Linyue Lu , Jianqiang Li , Chongjin TO-ST, Univ. Franche-Comte, France. Photonic 2 1 1 Photonics and Optical Communications, Xie , Chao Lu , Faisal N. Khan , Alan Pak Tao neural networks are promising candidates for 1 1 Beijing Univ. of Posts and Telecommunica- Lau ; The Hong Kong Polytechnic Univ., Hong next generation computing. Using a novel 2 3 tions, China. We present a flexibility model Kong; Alibaba Group, USA; South China integration technology we demonstrate 4 for quantitatively evaluating switching node Normal Univ., China; Alibaba Group, USA. We photonic neural networks for which the number architectures in terms of switching strategies, experimentally compare QoT estimations for of neurons scales linear with the substrate›s function and required components in SDM- WDM systems using Machine Learning(ML) footprint. It is the first time such advantageous EON, revealing designs with the most switching and GN-based analytical models. ML estimates scaling is reported for large scale photonic flexibility. the side channels with better accuracy but is neural network integration. temporally less stable and less generalizable to different link configurations.

M2J.3 • 11:15 M2G.3 • 11:15 Top-Scored M2H.3 • 11:15 « PON Virtualisation with EAST-WEST Com- Fast BER Distribution and Neural Networks Design Strategies Exploiting C+L-band in munications for Low-latency Converged for Joint Monitoring of Linear and Nonlinear Networks with Geographically-dependent 1 Multi-access Edge Computing (MEC), Sandip Noise-to-Signal Ratios, Ali Salehiomran , Fiber Upgrade Expenditures, Daniela A. 1 1 Das1, Marco Ruffini1; 1Computer Science, Trin- Zhiping Jiang ; Optical Systems Competency Moniz2,1, Victor Lopez3, João Pedro2; 1Instituto ity College Dublin , Ireland. We propose a Center, Huawei Technologies Canada, Cana- de Telecomunicações, Portugal; 2Infinera, Por- virtual-PON based Mobile Fronthaul (MFH) da. Experimentally observed long-tail fast BER tugal; 3Telefónica, Spain. This paper proposes architecture that allows direct communications (10ns–1µs) histogram (FBH) in presence of NLIN a framework leveraging next-generation between edge points (enabling EAST-WEST is explained through simulation. Features from interfaces and C+L-band to design transport communication). Dynamic slicing improves FBHs are applied to train an ANN to estimate networks where fiber-based capacity upgrade service multiplexing while supporting ultra- linear and nonlinear NSRs with <5% error. is geographically-dependent. Simulation re- low latency under 100µs between cells and sults highlight the effectiveness of the proposal MEC nodes. and the possible trade-offs between number of interfaces and fibers.

OFC 2020 • 8–12 March 2020 59 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

M2A.4 • 11:30 M2B.5 • 11:30 M2C.4 • 11:30 Invited M2D.4 • 11:30 Invited Monday, 9 March Monday, M2E.3 • 11:30 Invited M2F.4 • 11:30 4×112 Gbps/fiber CWDM VCSEL Mach-Zehnder Modulator using Digital Holographic Endo-micro- Metro-haul Project Vertical Service Superconducting Nanowire Sin- A MMW Coordinate Multi-Point Arrays for Co-packaged Intercon- Membrane InGaAsP Phase Shifters scopes Based on Multimode Fi- Demo: Video Surveillance Real-time gle Photon Detectors for Deep Transmission System for 5G Mobile 1 1,2 1 nects, Binhao Wang , Wayne So- and SOAs inside Interferometer bres, Tomas Cizmar ; Leibniz-Institut Low-latency Object Tracking, An- Space Optical Communication and Fronthaul Networks based on a 1 1 2 1 3 rin , Paul Rosenberg , Lennie Ki- Arms on Si Photonics Platform, Ta- für Photonische Tech, Germany; Mi- nika Dochhan , Johannes Fischer , Quantum Information Science, Mat- Polarization-Tracking-free PDM- 1 1 1 1 2 1 yama , Sagi Mathai , Michael R. kuma Aihara , Tatsurou Hiraki , Takuro crophotonics, Inst. of Scientific Instru- Bodo Lent , Achim Autenrieth , Beh- thew Shaw1; 1JPL, USA. Abstract not RoF Mechanism, Jhih-Heng Yan1,2, 1 1 1 1 3 Tan ; Hewlett Packard Enterprise, Fujii , Koji Takeda , Takaaki Kakit- ments of the CAS, Czechia. Here I nam Shariati , Pablo Wilke Beren- available. Jian-Kai Huang1, Yu-Yang Lin2, Jin- 1 1 3 1 1 USA. We demonstrate a 4×112 suka , Tai Tsuchizawa , Shinji Mat- review the recent progress of endo- guer , Jörg-Peter Elbers ; ADVA Wei Hsu1, Kai-Ming Feng1,2; 1Inst. 1 1 2 Gbps/fiber VCSEL link using a co- suo ; NTT, Japan. A Mach-Zehnder microscopes based on holographic Optical Networking, Germany; Qog- of Communications Engineering, 3 packaged coarse wavelength division modulator having III-V membrane control of light transport through nify GmbH, Germany; Fraunhofer National Tsing Hua Univ., Taiwan; 2Inst. multiplexing (CWDM) optical module. phase shifters and semiconductor multimode fibres. I discuss the fun- Inst. for Telecommunications Heinrich of Photonics Technologies, National A complete co-packaged CWDM optical amplifiers inside interferometer damental and technological bases as Hertz Inst., Germany. We report on Tsing Hua Univ., Taiwan. A PDM-RoF module can achieve a 2.668 Tb/s arms is heterogeneously integrated well as recent applications of the new the EU H2020 project METRO-HAUL mechanism is firstly experimentally aggregated bandwidth by assembling with Si waveguides. The device imaging tool. use-case demonstration, including demonstrated for MMW coordinate four 1×6 VCSEL arrays. exhibits 6-dBm fiber output power flexible allocation of storage and multi-point transmission system and 40-Gbit/s NRZ modulations with computing resources in different with a polarization-track-free RAU clear eye-openings. network locations and deployment design. Without additional latency of a network slice instance through for PDM demultiplexing, we evaluate a programmable multi-layer optical various coordinate multi-point joint network. transmission scenarios.

M2A.5 • 11:45 M2B.6 • 11:45 Electrical and Optical Reliability Taper-less III-V/Si Hybrid MOS Opti- M2F.5 • 11:45 « Top-Scored Analysis of GeSi Electro-absorption cal Phase Shifter using Ultrathin InP Wide FoV Autonomous Beam- Modulators, Artemisia Tsiara1, Sriniva- Membrane, Shuhei Ohno1, Qiang Li1, former Supporting Multiple Beams san Ashwyn Srinivasan1, Sadhishkumar Naoki Sekine1, Junichi Fujikata2, Masa- and Multi-band Operation for 5G 1 1 2 2 Balakrishnan , Marianna Pantouvaki , taka Noguchi , Shigeki Takahashi , Ka- Mobile Fronthaul, Min-Yu Huang1, 1 1 1 Philippe Absil , Joris Van Campen- sidit Toprasertpong , Shinichi Takagi , You-Wei Chen1, Run-Kai Shiu1,2, Hua 1 1 1 1 1 hout , Kristof Croes ; imec, Bel- Mitsuru Takenaka ; the Univ. of Tokyo, Wang1, Gee-Kung Chang1; 1Georgia 2 gium. Reliability analysis on Electro- Japan; Photonics Electronics Technol- Inst. of Technology, USA; 2National Absorption Modulators reveals two ogy Research Association, Japan. We Taipei Univ. of Technology, Taiwan. An degradation parts, trap generation present proof-of-concept taper-less autonomous beamformer covering and filling of pre-existing defects on III-V/Si hybrid MOS optical phase 24-37 GHz for fiber-wireless network Ge/Si and Ge/Ox interface. After shifter. An ultrathin InP membrane demonstrates multi-beam and multi- stress, electro-optical extracted enables low insertion loss despite no band signal transmission with wide- parameters indicate no impact of taper, with keeping high modulation FoV (110o-180o) self-steering beam- temperature, bias or stress time. efficiency owing to strong electron tracking/-forming over a 10-km fiber confinement at the MOS interface. and 56-cm wireless link for future dynamic 5G-NR fronthaul applications.

60 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

M2G.4 • 11:30 M2H.4 • 11:30 M2I.2 • 11:30 M2J.4 • 11:30 M2K.4 • 11:30 Network Performance Assessment of C+L Asynchronous Multi-service Fiber-Wireless A Co-integrated Silicon-based Electronic- Low Complexity Soft Failure Detection and Real-time Operation of Silicon Photonic 1 Upgrades vs. Fiber Doubling SDM Solu- Integrated Network Using UFMC and PS for Photonic Wideband, High-power Signal Identification in Optical Links using Adaptive Neurons, Thomas Ferreira de Lima , Chaoran 1 1 1 1 2 tions, Emanuele E. Virgillito1, Rasoul Sadeghi1, Flexible 5G Applications, You-Wei Chen1, Rui Source, Saeed Zeinolabedinzadeh , Patrick Filter Coefficients, Siddharth Varughese , Huang , Simon Bilodeau , Alexander Tait , 2 2 2 1 2 1 1 1 Alessio Ferrari1, Giacomo Borraccini1, Antonio Zhang1, Shang-Jen Su1, Shuyi Shen1, Qi Zhou1, Goley , Milad Frounchi , Sunil Rao , Christian Daniel Lippiatt , Thomas Richter , Sorin Ti- Hsuan-Tung Peng , Philip Ma , Eric Blow , 2 2 2 1 1 3 1 1 Napoli2, Vittorio Curri1; 1Politecnico di Torino, Shuang Yao1, Gee-Kung Chang1; 1Georgia Bottenfield , Gareeyasee Saha , Stephen buleac , Stephen E. Ralph ; Georgia Inst. of Bhavin J. Shastri , Paul Prucnal ; Princ- 2 3 2 2 3 Italy; 2Infinera, Germany. We investigate on Inst. of Technology, USA. A multi-service fiber- E. Ralph , Mehmet Kaynak , Lars Zimmer- Technology, USA; ADVA Optical Networking, eton Univ., USA; NIST, USA; Queen’s Univ., 3 3 3 the network capacity enabled by C+L line wireless integrated network is experimentally mann , Stefan Lischke , Christian Mai , John USA. We demonstrate an autoencoder scheme Canada. In this paper, we use standard silicon- 2 1 2 systems (OLS) vs. fiber doubling showing that demonstrated using both UFMC and PS. Cressler ; Arizona State Univ., USA; Georgia that utilizes readily available adaptive filter photonic components in order to implement 3 at optimal power, C+L OLS doubles the traffic Asynchronous transmission with suppressed Tech, USA; IHP Microelectronics, Germany. A coefficients to accurately detect and identify a neuromorphic circuit with two neurons. The of C-only with very-low penalty with respect inter-service interference and optimized novel co-integrated electronic-photonic soft-failures in optical links with >99% accuracy. network exhibits reconfigurable weights and to fiber doubling. information rate is verified through a 25-km distributed photo-mixer-amplifier is presented Detected impairments include low OSNR, nonlinear transfer functions, enabling high- fiber and a 5-m 60-GHz wireless link. that improves the bandwidth and gain of the nonlinearity, ROADM filtering and adjacent- bandwidth analog signal processing tasks. system. An RF signal with an output power channel crosstalk. of 10 dBm across the bandwidth of 50 GHz was achieved.

M2G.5 • 11:45 M2H.5 • 11:45 Invited M2I.3 • 11:45 M2J.5 • 11:45 M2K.5 • 11:45 Capacity Limits of C+L Metro Transport Gigabit/s Optical Wireless Access and Indoor Self-adaptive Over-the-air RF Self-interfer- Convolutional Recurrent Machine Learning Flexible Entanglement Distribution Overlay Networks Exploiting Dual -Band Node Networks, Ampalavanapilla T. Nirmalathas1, ence Cancellation Based on Signal-of-interest for OSNR and Launch Power Estimation: for Cloud/Edge DC Interconnect as Seed for 1 1 Architectures, Robert Emmerich1, António tingting Song1, Sampath Edirisinghe1, Tian Driven Regular Triangle Algorithm, Lizhuo A Critical Assessment, Hyung Joon Cho , IT-secure Primitives, Fabian Laudenbach , Ber- 1 1 1 1 1 1 1 1 Eira2, Nelson Costa2, Pablo Wilke Berenguer1, Liang1, Christina Lim1, Elaine Wong1, Ke Wang2, Zheng , Zhiyang Liu , Zhiyi Zhang , Shilin Xiao , Siddharth Varughese , Daniel Lippiatt , Ste- nhard Schrenk , Martin Achleitner , Nemanja 2 2 1 1 1 1 1 1 1 Colja Schubert1, Johannes Fischer1, João Chathurika Ranaweera3, Kamal Alameh4; 1Univ. Mable P. Fok , Qidi Liu ; Shanghai Jiao Tong phen E. Ralph ; Georgia Inst. of Technology, Vokic , Dinka Milovancev , Hannes Hübel ; AIT 2 Pedro2,3; 1Fraunhofer Inst. for Telecommunica- of Melbourne, Australia; 2RMIT Uiversity, Aus- Univ., China; The Univ. of Georgia, USA. A USA. Using waveforms from three distinct Austrian Inst. of Technology, Austria. We tions Heinrich-Hertz-Inst., Germany; 2Infinera tralia; 3Deakin Univ., Australia; 4Edith Cowan signal-of-interest driven self-adaptive RF self- stages of signal demodulation, we assess leverage spectral assets of entanglement Portugal, Portugal; 3Instituto de Telecomunica- Univ., Australia. Optical wireless networks are interference cancellation system has been performance, computational efficiency and and spatial switching to realize a flexible ções, Instituto Superior Técnico, Portugal. We being explored as a wireless alternative for proposed based on regular-triangle algorithm. benefits of using convolutional recurrent neural distribution map for cloud-to-edge and edge- investigate capacity upgrade of metro networks provision of multi gigabits/second wireless A weak 16-QAM OFDM signal-of-interest at networks to simultaneously and independently to-edge quantum pipes that seed IT-secure using differentiated node architectures for C+L- and this paper presents an overview of recent 18.35GHz has been successfully retrieved with estimate OSNR and launch power within a primitives. Dynamic bandwidth allocation bands. The combination of experimental results progress and outstanding challenges. and small converge steps in an in-band full-duplex multi-channel system. and co-existence with classical control are and network simulations highlights scenarios technologies. transmission. demonstrated. where low-cost unamplified L-band extensions can be leveraged for maximum capacity.

OFC 2020 • 8–12 March 2020 61 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

M2A • Advanced Active M2B • High-Speed M2C • SDM Imaging & M2D • Optimizing M2E • Symposium: M2F • Digital Signal Components—Continued Integrated Modulators— Sensing—Continued Network Capacity and Quantum Information Processing and Radio- Continued Performance—Continued Science and Technology over-fiber Systems for 5G (QIST) in the context of —Continued Optical Communications (Session 2) —Continued

M2B.7 • 12:00 Top-Scored M2C.5 • 12:00 Invited Monday, 9 March Monday, M2A.6 • 12:00 « M2D.5 • 12:00 Invited M2E.4 • 12:00 M2F.6 • 12:00 Top-Scored Compact Tunable DBR/Ring Laser 120 Gb s-1 Hybrid Silicon and Characterization of Multi-core Fi- Optimized Quantum Photonics, « Leveraging Photonic Flexibility in Low Power All-digital Radio-over- Module Integrated with Extremely- Lithium Niobate Modulators with ber Group Delay with Correlation Multi-layer Resilient Networks, John Jelena Vuckovic, Stanford University, Fiber Transmission for 28-GHz Band high-Δ PLC Wavelength Locker, Ma- On-chip Termination Resistor, Shi- OTDR and Modulation Phase Shift K. Oltman1; 1Ciena Corporation, USA. Abstract not available. 1,2 Using Parallel Electro-absorption 1 1 1 1 Methods, Florian Azendorf , Annika sayoshi Nishita , Yasutaka Higa , Nori- hao Sun , Mingbo He , Mengyue USA. Planning and operation of 1 1 3 Modulators, Haolin Li , Joris Van 1 1 1 2 2 Dochhan , Patryk Urban , Bernhard taka Matsubara , Junichi Hasegawa , Xu , Xian Zhang , Ziliang Ruan , Liu large-scale deployments of photonic 1 1 2 4 Kerrebrouck , Hannes Ramon , Lau- 1 1 2 1 1 Schmauss , Josep Fabrega , Michael Kazuki Yamaoka , Maiko Ariga , Yusuke Liu , Xinlun Cai ; Sun Yat-Sen Univ., networks and working with a variety 1 1 1 3 rens Bogaert , Joris Lambrecht , 1 1 2 Eiselt , Krzysztof Wilczynski , Lukasz Inaba , Masayoshi Kimura , Masaki China; South China Normal Univ., of constraints to offer a resilient 1 1 3 4 Chia-Yi Wu , Laurens Breyne , Jakob 1 1 Szostkiewicz , Laia Nadal , F. Javier Wakaba , Masahiro Yoshida , Kazuomi China. We demonstrated hybrid photonic layer. 1 1 4 4 1 Declercq , Johan Bauwelinck , Xin 1 1 Vilchez , Michela S. Moreolo ; ADVA Maruyama , Shunsuke Okuyama , silicon and lithium niobate Mach- 1 1 1 2 Yin , Peter Ossieur , Piet Demeester , 1 1 Optical Networking, Germany; LHFT, Toshihito Suzuki , Hiroyuki Ishii , Zehnder modulators with on-chip 1 1 3 4 guy Torfs ; Univ. Ghent-imec, Bel- Vitaly Mikhailov2, Richard Sefel3, Ya- termination resistor. The device shows Germany; InPhoTech, Poland; CTTC, gium. We present a low-power all- sumasa Kawakita1; 1Furukawa Electric high electro-optic bandwidth up to 60 Spain. Using a Correlation-OTDR and digital radio-over-fiber transmitter Co Ltd., Japan; 2OFS Laboratories, GHz, low V of 2.25 V and low insertion a modulation phase shift method we π for beyond 28-GHz using sigma- USA; 3FETI, Hungary. A compact loss of 2 dB. characterized four multi-core fibers. delta modulation, a 140mW NRZ tunable laser module integrating a The results show that the differential driver and parallel electro-absorption newly developed DBR/Ring laser and delay depends on the position of modulators. 5.25Gb/s (2.625Gb/s) 64- an extremely-high-Δ PLC wavelength the core in the fiber and varies with QAM is transported over 10-km SSMF locker is demonstrated with narrow temperature. at 1560nm with 7.6% (5.2%) EVM. spectral linewidth of <100 kHz across the full C-band.

M2A.7 • 12:15 M2B.8 • 12:15 « Top-Scored M2C.6 • 12:15 M2F.7 • 12:15 Bandwidth Enhancement of Directly High-speed-operation of Com- Investigation of Brillouin Dynamic <500ns Latency Overhead Ana- Modulated Lasers Butt-coupled pact All-Silicon Segmented Mach- Grating in 4-LP-mode Fiber with log-to-digital-compression Radio- with Silica-based AWG by External Zehnder Modulator Integrated a Ring-cavity Configuration for over-fiber (ADX-RoF) Transport Optical Feedback Effect, Seokjun with Passive RC Equalizer for Opti- Distributed Temperature and Strain of 16-channel MIMO, 1024QAM 1 1 1 1,2 Yun , Young-Tak Han , Seok-Tae Kim , cal DAC Transmitter, Yohei Sobu1, Sensing Application, Yinping Liu , Signals with 5G NR Bandwidth, Pai- 1 1 1,2 2 1 2 Jang-Uk Shin , Sang-Ho Park , Dong- Shinsuke Tanaka1, Yu Tanaka1, Yuichi Guangyao Yang , Ning Wang , Lin kun Zhu , Yuki Yoshida , Ken-ichi Kita- 1 1 1 2 1,2 1 Hoon Lee , Seo-Young Lee , Yongsoon Akiyama1, Takeshi Hoshida1; 1Fujitsu Ma , Juan Carlos Alvarado Zacarias , yama ; The Graduate School for the 1 1 2 Baek ; ETRI, Korea (the Republic Limited, Japan. We experimentally Jose Enrique Antonio-Lopez , Pierre Creation of New Photonics Industries, 3 3 2 of). By external optical feedback effect demonstrated 70Gbaud PAM4 and Sillard , Adrian Amezcua-Correa , Japan; National Inst. of Information 2 1 on DMLs butt-coupled with a silica- 90Gbaud NRZ operations of all-silicon Rodrigo Amezcua Correa , Xin Yu Fan , and Communications Technology, 1 2 1 based AWG, we present that 3-dB segmented modulator for optical DAC Zuyuan He , Guifang Li ; Shanghai Japan. Real-time analog-to-digital- 2 bandwidths of a DML submodule transmitter. Monolithic integration of Jiao Tong Univ., China; Univ. of compression radio-over-fiber (ADX- 3 can be extended to ~37.5 GHz (@ MIM capacitor enabled broad EO Central Florida , USA; Parc des In- RoF) transport with <500ns processing 90 mA) using commercial 28-Gbaud bandwidth of 43.9GHz and small dustried Artois Flandres, France. We latency overhead is demonstrated by DML chips. footprint of 300×600μm2. investigate temperature and strain using a single-chip programmable dependency of Brillouin dynamic radio platform. 16-channel 61.44MHz grating in 4-LP-mode fiber with a 1024QAM-OFDM signals of 5G ring-cavity configuration. Sensitivities NR-class is delivered with ~4-Gb/s of 3.20 MHz/°C and -0.0384 MHz/ optical OOK interface, maintaining με are achieved. We demonstrate EVM<1.4%. measurement with 300-m range and 1-m resolution.

12:30–14:00 Lunch Break (on own)

62 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

M2G.6 • 12:00 Invited M2I.4 • 12:00 Invited M2J.6 • 12:00 M2K.6 • 12:00 Invited TransLambda: A Multi-band Transmis- Novel Electro-optic Components for Inte- Machine Learning Based Fiber Nonlinear Microresonator-enhanced, Waveguide- sion System and its Realization, Practical grated Photonic Neural Networks, Pascal Noise Monitoring for Subcarrier-multi- coupled Emission from Silicon Defect Cen- 1 1 Applications and Use Cases in Optical Stark1, Jacqueline Geler-Kremer1,2, Felix Eltes1, plexing Systems, Xiaomin Liu , Huazhi Lun , ters for Superconducting Optoelectronic 1 1 1 1 Networks, Muhammad S. Sarwar , Takeshi Daniele Caimi1, Jean Fompeyrine1, Bert J Mengfan Fu , Lilin Yi , Weisheng Hu , Qunbi Networks, Alexander Tait1, Sonia Buckley1, 2 2 1 1 Sakamoto , Takeshi Hoshida , Tomoyuki Offrein1, Stefan Abel1; 1IBM Research GmbH, Zhuge ; Shanghai Jiao Tong Univ., China. We Adam McCaughan1, Jeffrey Chiles1, Sae 2 1 Kato ; Fujitsu Network Communications Switzerland; 2Empa, Swiss Federal Labora- propose a set of correlation features for Woo Nam1, Richard Mirin1, Jeffrey Shain- 2 Inc, USA; Fujitsu Ltd., Japan. We focus tories for Materials Science and Technology, machine learning based fiber nonlinear noise line1; 1National Inst of Standards & Technol- on the introduction and practical use of Switzerland. We demonstrate PIC-based non- monitoring in subcarrier-multiplexing systems. ogy, USA. Superconducting optoelectronic TM TransLambda , a multiband transmission volatile optical synaptic elements, an essential Improved accuracy is demonstrated by adding networks could achieve scales unmatched in system based on all optical wavelength conver- building block in large non-von Neumann correlations between subcarriers and data hardware-based neuromorphic computing. sion in optical transport network architectures, circuits realized in integrated photonics. The fusion processing across subcarriers. After summarizing recent progress in this and detail its system-level considerations, impact of non-idealities on the performance area, we report new results in cryogenic silicon network applications, and use-cases. of a photonic recurrent neural networks is photonic light sources, components central to evaluated. these architectures.

M2H.6 • 12:15 M2J.7 • 12:15 Hybrid W-band/Baseband Transmission for The Real Time Implementation of a Simpli- Fixed-mobile Convergence Supported by fied 2-section Equalizer with Supernal SOP 1 1 Heterodyne Detection with Data-Carrying Tracking Capability, Tao Zeng , Zhixue He , 1 1 1 Local Oscillator, Shuyi Shen1, Qi Zhou1, You- Lingheng Meng , Jie Li , Xiang Li , Shaohua 1 1 Wei Chen1, Shuang Yao1, Rui Zhang1, Yahya M. Yu ; State Key Laboratory of Optical Com- Alfadhli1, Shang-Jen Su1, Jeffrey Finkelstein2, munication Technologies and Networks, China Gee-Kung Chang1; 1Georgia Inst. of Technol- information and communication technology ogy, USA; 2Cox Communications, USA. A novel Group Corporation, China. We propose a architecture with data-carrying local oscillator 2-section equalizer architecture, two adaptive was proposed and demonstrated, supporting multi-tap 1×1 equalizer updated by proposed co-transmission of 35.39-Gbps W-band OFDM joint-CMA, followed by a feedforward 1-tap at 85-GHz and 10.9-Gbps OOK signals. 2×2 MIMO. We implement it in 10G coherent Sensitivity penalty induced by interference as transceiver and achieve 20Mrad/s SOP tracking low as 0.5 dB was experimentally validated. speed.

12:30–14:00 Lunch Break (on own)

OFC 2020 • 8–12 March 2020 63 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

14:00–16:00 14:00–16:00 14:00–16:00 14:00–16:00 14:00–16:00 14:00–16:00 M3A • New Photonic M3B • Propagation M3C • Panel: Is it Time to M3D • VCSELS & Surface M3E • Symposium: M3F • Wavelength Materials Effects in SMF and SDM Shift the Research Normal Devices The Role of Machine Selective Devices Presider: Hideyuki Nasu; Fibers Paradigm in Access Presider: Michael Tan; Learning for the Next- Presider: Kenya Suzuki; NTT Furukawa Electric, Japan Presider: Cristian Antonelli; Networks from a Focus Hewlett Packard Enterprise, generation of Optical Device Innovation Center, Universita degli Studi on More Capacity USA Communication Systems Japan dell’Aquila, Italy and Networks

Monday, 9 March Monday, (Session 1)

M3A.1 • 14:00 Invited M3B.1 • 14:00 Invited Delivering more bandwidth/capacity M3D.1 • 14:00 Invited M3E.1 • 14:00 Invited M3F.1 • 14:00 Invited Indium Phosphide Membrane Nonlinear Impairment Scaling in has been the top research focus in Optical Interconnects Using Singe Deep Learning for Inverse Design of Recent Progress on Wavelength Se- Photonic Integrated Circuits on Multi Mode Fibers for Mode Division optical networks, access or otherwise. Mode and Multi Mode VCSEL Optical Device, Keisuke Kojima1; 1Mit- lective Switch, Yiran Ma1, Ian Clarke1, Silicon, Kevin A. Williams1; 1Tech- Multiplexing, Peter M. Krummrich1, However, new services like 5G mobile and Multi Mode Fiber, Nikolay Le- subishi Electric Research Labs, Luke Stewart1; 1II-VI Incorporated, Aus- nische Universiteit Eindhoven, Neth- Marius Brehler1, Georg Rademacher2, X haul, edge computing, AR/VR, and dentsov1; 1VI Systems GmbH, Ger- USA. We review the recent progress of tralia. WSS application scenarios have erlands. The intimate integration Klaus Petermann3; 1Technische Uni- UHD video distribution, are placing many. Single mode (SM) VCSELs, the design and optimization of optical been illustrated from network core to of photonics and electronics versitaet Dortmund, Germany; 2NICT, additional requirements on access net- produced in industrial 4» technology, devices using machine learning. The edge. WSS in core network is focused in transceivers facilitates energy- Japan; 3Technische Universitaet Berlin, works. Characteristics like low latency, are suitable for 100Gb/s PAM2 and emphasis is on the regression and the on higher port count and outstanding efficiency, bandwidth acceleration Germany. The scaling of nonlinear flexibility, reliability and scalability will >160Gb/s PAM4 data transmission. generative deep learning models for performance, while cost is the key and a route to radical miniaturization. effects in multi mode transmission be increasingly important for future >107Gb/s transmission over 1km of nanophotonic devices. factor for WSS in edge network. We present and implement a wafer- fibers with mode count has been access networks. multimode (MM) fiber at 850nm and to-wafer integration method which investigated. Results indicate that 910nm is realized. combines electronic and photonic transmission reaches comparable As we move to the next-generation of foundry technologies. to standard single mode fibers are access networks, what new features achievable for at least 100 modes. are needed? What are the research priorities beyond more capacity? For instance, ultra-low latency transmission is increasingly gaining importance in access networks for emerging time critical services. More deterministic and reliable access networks architectures, and even new ODNs, are being demanded. Network virtualization, and more intelligent operation and resilience in access networks, also attract more and more interest.

This panel will provide a forum for a wide range of speakers to share their ideas on what is important in next- generation access networks. Speakers will discuss what key innovations are needed, beyond additional capacity, and the drivers behind those needs.

64 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

14:00–16:00 14:00–16:00 14:00–16:00 14:00–16:00 14:00–16:00 M3G • Submarine M3H • Microwave Photonic M3I • Optical Wireless: M3J • Short-reach Systems I M3K • Open Network Control Transmission Filters Technology and Applications Presider: Xi Chen; Nokia Bell Labs, & Orchestration Presider: Oleg Sinkin; TE SubCom, Presider: Daniel Blumenthal, USA Presider: Mona Hella; Rensselaer USA Presider: Achim Autenrieth; ADVA USA Polytechnic Inst., USA Optical Networking SE, Germany

M3H.1 • 14:00 Invited M3I.1 • 14:00 Invited M3J.1 • 14:00 M3K.1 • 14:00 Tutorial M3G.1 • 14:00 « Top-Scored High-resolution Microwave Photonics Using Li-Fi for Industrial Wireless Applications, Volk- Recovery of DC Component in Kramers- Open Optical Transport, Martin Birk1; 1AT&T Record 300 Gb/s per Channel 99 GBd PDM- Strong On-chip Brillouin Scattering, Amol er Jungnickel1, Pablo Wilke Berenguer1, Sreelal Kronig Receiver Utilizing AC-coupled Photo- Labs, USA. This tutorial will cover open 1 1 1 QPSK Full C-Band Transmission over 20570 Choudhary1; 1Department of Electrical Engi- Maravanchery Mana1, Malte Hinrichs1, Sepideh Detector, Tianwai Bo , Hoon Kim ; Korea optical transport for coherent fiber optic km Using CMOS DACs, Aymeric Arnould1, neering, Indian Inst. of Technology (IIT) Delhi, Mohammadi Kouhini1, Kai Lennert Bober1, Advanced Inst of Science & Tech, Korea (the transmission systems, starting with the data Amirhossein Ghazisaeidi1, Dylan Le Gac1, India. Processing of microwave signals with Christoph Kottke1; 1Fraunhofer Inst Nach- Republic of). We propose and demonstrate plane, describing different open projects and Maria Ionescu1, Patrick Brindel1, Jeremie Re- resolution as low as 10 MHz is enabled by richt Henrich-Hertz, Germany. We propose a simple DSP method for recovering the efforts. The second section will address the naudier1; 1Nokia Bell Labs France, France. We integrated Brillouin scattering with gain >50dB. a new system concept for LiFi in industrial DC component in Kramers-Kronig receiver control plane, identifying industry efforts and demonstrate a record 300 Gb/s per-channel We discuss reconfigurable filters, delay lines wireless applications. A distributed MU- implemented by using AC-coupled photo- models used. Following that will be a view of bitrate over 20570 km across the full C-band. and phase shifters and also focus on system MIMO architecture is used, enabling seamless detector, without cumbersome DC sweeping Orchestrator and Controller projects. The last The measured 41 channels are modulated performance. mobility, reliable low-latency communications, nor bit-error-ratio calculation. part will describe life cycle efforts (designing, with 99 GBd PDM-QPSK using CMOS DACs and integration with positioning and 5G. planning, operating) of open optical transport and optical pre-emphasis, avoiding nonlinear networks. compensation. M3G.2 • 14:15 M3J.2 • 14:15 Transmission Performance of Hybrid-shaped Signal-signal Beat Noise Mitigation by Square 56APSK Modulation Formats from 34.7 to Root Processing of the Detected Photocur- 74.7 GBd Over Transoceanic Distance, Jin- rent, Qiulin Zhang1, Chester Shu1; 1Chinese Xing Cai1, Matt Mazurczyk1, William Patterson1, Univ. of Hong Kong, Hong Kong. The signal- Carl Davidson1, Yue Hu1, Oleg V. Sinkin1, Maxim signal beat noise mitigation performances of Bolshtyansky1, Dmitri G. Foursa1, Alexei N. the original received signal, the square root Pilipetskii1; 1SubCom, USA. We experimentally processed signal, and the Kramers-Kronig study the impact of symbol rate on transmission processed signal are experimentally compared performance. From 34.7 to 74.7Gbd SNR in a 110 Gbit/s probabilistically-shaped 64 decreases by ~1.5dB; hardware and nonlinear QAM direct detection system. transmission effects cause 0.7dB and 0.8dB Martin Birk received his master's and doctorate respectively. NLC benefit decreases at higher degrees from Germany’s University of Ulm in rates. 1994 and 1999, respectively. Since 1999, he has been with AT&T Labs in New Jersey, working on high-speed optical transmission at data rates of 40Gbit/s, 100Gb/s and above. In 2016, he received the AT&T Fellow award.

OFC 2020 • 8–12 March 2020 65 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

M3A.2 • 14:30 M3B.2 • 14:30 Topics may include, but will not be M3D.2 • 14:30 M3E.2 • 14:30 Invited M3F.2 • 14:30 Top-Scored limited to: « 1.6Tbps Coherent 2-channel Trans- Experimental Comparison of Fiber 106 Gb/s Normal-incidence Ge/Si Advances in Deep Learning for Digi- 24 1x12 Wavelength-selective ceiver Using a Monolithic Tx/Rx InP Nonlinearity Mitigation: Intra-modal Intelligent Operation and protection Avalanche Photodiode with High tal Signal Processing in Coherent Op- Switches Using a 312-port 3D Wave- 1 1 1 PIC and Single SiGe ASIC, Vikrant FWM versus Inter-modal FWM, Isaac Sensitivity, Bin Shi , Fan Qi , Pengfei tical Modems, Maxim Kuschnerov , guide and a Single 4k LCoS, Peter 1 1 1 2,1 1 Network resilience, or more resilient 1 1 1 1 Lal , Pavel Studenkov , Thomas Frost , Sackey , Carsten Schmidt-Langhorst , Cai , Xueping Chen , Zengwen He , Maximilian Schaedler , Christian Wilkinson2, Brian Robertson2, Sam 1 1 1 1 network in access 1 1 1 1 1 Huan-Shang Tsai , Babak Behnia , Colja Schubert , Johannes Fischer , Yanhui Duan , Guanghui Hou , Tzungi Bluemm , Stefano Calabro ; Huawei, Giltrap2, Oliver Snowdon2, Harry 1 1 1 1 1 1 1 John Osenbach , Stefan Wolf , Rob- Ronald Freund ; Fraunhofer Inst. for Ultra-low latency in access network Su , Su Li , Wang Chen , Chingyin Germany. We analyze the advances Prudden2, Haining Yang2,3, Dap- 1 1 1 1 1 1 ert Going , Stefano Porto , Robert Telecommunication, Heinrinch Hertz Reducing the power consumption: Hong , Rang-Chen Yu , Dong Pan ; Si- of deep learning in optical coherent ing Chu1,2; 1Univ. of Cambridge, 1 1 2 Maher , Hossein Hodaei , Jiaming Inst., Germany; Techische Universität more "Green" access network Fotonics Technologies, USA. 106 Gb/s modems on the physical layer with UK; 2 Roadmap Systems Ltd, 1 1 Zhang , Carlo Di Giovanni , Koichi Berlin, Germany. We experimentally (53GBaud PAM4) normal-incidence respect to modulation design, UK; 3Southeast Univ., China. A switch 1 1 New ODN to improve performance, Hoshino , Thomas Vallaitis , Bryan compare fiber nonlinearity mitigation Ge/Si APDs were demonstrated with equalization and signal detection and module with a 4k LCoS is enabled 1 1 1 efficiency or service Ellis , Jeanne Yan , King Fong , Ehsan by optical phase conjugation based sensitivities of -16.8 dBm. To our give an outlook on a combined control by a 312-port waveguide array to 1 1 Sooudi , Matthias Kuntz , Sanketh on either intra- or inter-modal four- Network Virtualization in Access knowledge, this is the best sensitivity and physical layer optimization using produce 24 independent 1x12 WSSs. 1 1 Buggaveeti , Don Pavinski , Steve wave mixing. When adjusted for same reported for 100G APD. neural networks. The average/best insertion losses were 1 1 New Emerging applications that drive Sanders , Zhenxing Wang , Gloria conversion efficiency, both realizations 8.4/7.2 dB, with crosstalk suppression 1 1 1 the developments of access Höfler , Peter Evans , Scott Corzine , achieve similar performance in 800-km of 26.9/40.5 dB. Tim Butrie1, Mehrdad Ziari1, Fred Kish1, dispersion-managed single-mode Speakers: David Welch1; 1Infinera Corporation, fiber link. USA. We present a 1.6Tbps coherent Larry Wolcott; Comcast, USA transceiver delivering 800Gbps/wave transmission using integrated Tx/Rx Jim Zou; ADVA Optical Networking, functions with 50GHz bandwidth and Germany 50kHz linewidth tunable lasers on a single two channel InP PIC, paired with Jun Terada; NTT Corp., Japan a SiGe Driver and TIA ASIC. Glenn Wellbrock; Verizon, USA M3A.3 • 14:45 M3B.3 • 14:45 M3D.3 • 14:45 M3F.3 • 14:45 Data-mining-assisted Resonance La- All-optical Spectral Magnification Peter Vetter, Nokia Bell Labs, USA Ultra-thin III-V Photodetectors Epi- Five-core 1×6 Core Selective Switch beling in Ring-Based DWDM Trans- of WDM Signals after 50 km of taxially Integrated on Si with Band- and Its Application to Spatial Channel ceivers, Peng Sun1, Jared Hulme1, Dispersion Un-Compensated Trans- width Exceeding 25 GHz, Svenja Networking, Masahiko Jinno1, Takahi- Ashkan Seyedi1, Marco Fiorentino1, mission, Frederik Klejs1, Mads Lil- Mauthe1, Yannick Baumgartner1, ro Kodama1, Tsubasa Ishikawa1; 1Kaga- Raymond Beausoleil1; 1Hewlett Pack- lieholm1, Michael Galili1, Leif Oxen- Saurabh Sant2, Qian Ding2, Marilyne wa Univ., Japan. We design and ard Lab, USA. An algorithm using løwe1; 1DTU, Denmark. We successfully Sousa1, Lukas Czornomaz1, Andreas prototype a 5-core 1×6 core selective hierarchical clustering is proposed to demonstrate an optical time lens Schenk2, Kirsten Moselund1; 1IBM Re- switch (CSS) with an integrated label resonances in ring-based DWDM system operating on data signals that search - Zurich, Switzerland; 2Depart- input and output multi-core-fiber transceivers. By identifying missing are not dispersion compensated after ment of Information Technology and collimator and spatial multiplexer/ resonances and split-peaks due to fiber transmission. We demonstrate Electrical Engineering, ETH Zurich, demultiplexer array. Spatial bypassing reflection, the algorithm enables 4x spectral magnification after 50 Switzerland. We demonstrate the and spectral grooming using a CSS- binning of individual ring resonators km of dispersion un-compensated first local monolithic integration of based hierarchical cross-connect are by passive optical tests. transmission, with BER <1E-9. high-speed III-V p-i-n photodetectors demonstrated. on Si by in-plane epitaxy. Ultra-low capacitance permits data reception at 32Gbps. The approach allows close integration to electronics enabling future receiverless communication.

66 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

M3G • Submarine M3H • Microwave Photonic M3I • Optical Wireless: M3J • Short-reach Systems I— M3K • Open Network Control Transmission—Continued Filters—Continued Technology and Applications— Continued & Orchestration—Continued Continued

M3G.3 • 14:30 M3H.2 • 14:30 « Top-Scored M3I.2 • 14:30 M3J.3 • 14:30 Experimental Demonstration of Widely Tun- Reconfigurable Radiofrequency Photonic Fil- LiFi Experiments in a Hospital, Sreelal Transmission of 36-Gbaud PAM-8 Signal in 1 1 able Rate/Reach Adaptation From 80 km ters Based on Soliton Microcombs, Jianqi Hu1, Maravanchery Mana , Peter Hellwig , Jonas IM/DD System Using Pairwise-distributed 1 1 1 to 12,000 km Using Probabilistic Constel- Jijun He2, Arslan S. Raja2, Junqiu Liu2, Tobias J. Hilt , Kai Lennert Bober , Volker Jungnickel , Probabilistic Amplitude Shaping, Daeho 2 1 1 3 2 1 2 1 1 lation Shaping, Joan M. Gené1,2, Xi Chen2, Kippenberg , Camille-Sophie Brès ; STI-IEL, Klara Hirmanova , Petr Chvojka , Stanislav Kim , Zonglong He , Tianwai Bo , Yukui Yu , 2 2 1 1 1 Junho Cho2, Chandrasekhar Sethumadhavan2, Ecole Polytechnique Federale de Lausanne, Zvánovec , Radek Janca ; Fraunhofer HHI, Hoon Kim ; Korea Advanced Inst of Science & 2 2 2 Peter Winzer2; 1Universitat Politecnica de Switzerland; SB-IPHYS, Ecole Polytechnique Germany; 3Faculty of Electrical Engineering, Tech, Korea (the Republic of); Chalmers Univ. 3 Catalunya, Spain; 2Nokia Bell Labs, USA. We Federale de Lausanne, Switzerland. We Czech Technical Univ., Czechia; Depart- of Technology, Sweden. We experimentally experimentally demonstrate the rate/reach demonstrate soliton based radiofrequency ment of Medical Technology, Motol Univ. demonstrate the transmission of 36-Gbaud Hospital, Czechia. We present LiFi channel probabilistically-shaped PAM-8 signal over adaptability of probabilistically constel-lation- filters using a 104 GHz Si3N4 microresonator. shaped quadrature amplitude modulation The filter passband frequencies are widely measurements in a neurosurgery room of 10-km link. The performance measured after across from 80 km to 12,000 km using the same reconfigured via inherent soliton states Motol Univ. Hospital in Prague. Individual FEC decoding and IDM shows that the receiver 32-GBaud transponder hardware and highlight of perfect soliton crystals and two-soliton channels are combined into a virtual multiuser sensitivity is improved by >1 dB compared to the roles of template and shaping distribution. microcombs, without any external pulse MIMO link. We report achievable data rates for uniform-distributed signal. shaping. different LiFi transmission schemes.

M3G.4 • 14:45 M3H.3 • 14:45 M3I.3 • 14:45 M3J.4 • 14:45 System Performance and Pre-emphasis Strat- A Single-passband Microwave Photonic Filter Miniature R/G/V-LDs+Y-LED Mixed White- FTN SSB 16-QAM Signal Transmission egies for Submarine Links with Imperfect with kHz Bandwidth, Huashun Wen1,2, Ning lighting Module with High-Lux and High-CRI and Direct Detection using a THP-MIMO- 1 1 1,2 1 1 1 Gain Equalization, Yue Hu , Carl Davidson , Hua Zhu1,2; 1State Key Laboratory on Integrated for 20-Gbps Li-Fi, Yi-Chien Wu , Chia-Yu FFE, Shaohua An , Jingchi Li , Hongxin Pang , 1 1 1,2 1,2 1,2 1 1 1 Lee J. Richardson , Maxim Bolshtyansky , Optoelectronics, Inst. of Semiconductors, Chi- Su , Huai-Yung Wang , Chih-Hsien Cheng , Xingfeng Li , Yikai Su ; Shanghai Jiao Tong 1 1 1,2 1 Dmitri G. Foursa , Dmitriy Kovsh , Alexei N. nese Academy of Sciences, China; 2School of Gong-Ru Lin ; Graduate Inst. of Photonics Univ., China. A joint equalization scheme 1 1 Pilipetskii ; Subcom, USA. We studied C-band Electronic, Electrical and Communication Engi- and Optoelectronics, and Department of consisting of Tomlinson-Harashima precoding system performance penalties due to gain tilt. neering, Univ. of Chinese Academy of Sciences, Electrical Engineering, National Taiwan Univ., and MIMO-FFE is proposed to effectively 2 Several transmission pre-emphasis strategies China. A single-passband microwave photonic Taiwan; NTU-Tektronix Joint Research Cen- mitigate the ISI induced by FTN signaling. for penalty compensation were considered. filter with 3 dB bandwidth of 12 ± 2.5 kHz over ter, National Taiwan Univ., Taiwan. Miniature We experimentally demonstrate a 28-GBaud The overall penalties were small and minor spectral range of 2-40 GHz is experimentally white-lighting beam mixed by R/G/V-LDs+Y- 16-QAM signal transmission with a record differences between strategies were observed demonstrated by optical-injection of a single- LED module with high illuminance of 12800 16.67% FTN ratio. for investigated tilt range. frequency Brillouin fiber laser. lux, high color-rendering-index of >60 is demonstrated for vehicle light fidelity or distant optical wireless lighting transmission at data rate beyond 20 Gbps.

OFC 2020 • 8–12 March 2020 67 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

M3A • New Photonic M3B • Propagation M3C • Panel: Is it Time to M3D • VCSELS & Surface M3E •Symposium: M3F • Wavelength Materials—Continued Effects in SMF and SDM Shift the Research Normal Devices— The Role of Machine Selective Devices— Fibers—Continued Paradigm in Access Continued Learning for the Next- Continued Networks from a Focus generation of Optical on More Capacity— Communication Systems Continued and Networks (Session 1) —Continued Monday, 9 March Monday, M3A.4 • 15:00 M3B.4 • 15:00 Invited M3D.4 • 15:00 M3E.3 • 15:00 Invited M3F.4 • 15:00 On-chip Mode-division Multiplexing Large Optical Aperture Top-illumi- Linear and Nonlinear Features Workshop on Machine Learn- Low-loss Silicon 2 × 4λ Multiplex- with Modal Crosstalk Mitigation, Ye- of Few-mode Fibers with Partial nated 50-Gbaud PIN-PD with High ing for Optical Communication ers Composed of On-chip Polar- 1 2 tian Huang , Ruihuan Zhang , Haoshuo Coupling Among Groups of Qua- 3-dB Bandwidth at a low bias of Systems: a summary, Joshua A. ization-splitter-rotator and 2 × 2 3 1 2 1 Chen , Hanzi Huang , Qingming Zhu , si-degenerate Modes, Filipe Fer- 1.5 V, Takashi Toyonaka , Hiroshi Gordon1, Abdella Battou3, Daniel and 2 × 1 Mach-Zehnder Filters 2 1 1 1 Yu He , Yingxiong Song , Nicolas K. reira1,2; 1Aston Univ., UK; 2Univ. College Hamada , Shigehisa Tanaka , Masa- C. Kilper2; 1Communications Tech for 400GbE, Junya Takano1, Takeshi 3 3 2 1 1 Fontaine , Roland Ryf , Yong Zhang , London, UK. We review different toshi Arasawa , Ryu Washino , Yasushi Lab, NIST, USA; 2Optical Sciences, Fujisawa1, Yusuke Sawada1, Kunimasa 2 1 1 1 1 1 Yikai Su , Min Wang ; Shanghai Univ., solution methods for the linear Sakuma , Kazuhiko Naoe ; Device De- Univ. of Arizona, USA; 3Information Saitoh1; 1Hokkaido Univ., Japan. 2×4λ 2 China; Shanghai Jiao Tong Univ., coupling operator in the coupled velopment Center, Lumentum Japan, Tech Lab, NIST, USA. A summary Si-photonics multiplexers for 400GbE 3 China; Nokia Bell Labs, USA. We nonlinear Schrödinger equations for Inc., Japan. High 3-dB bandwidth of of a public workshop on machine composed of Mach-Zehnder filters experimentally demonstrate modal few-mode propagation. Models are 28 GHz at 1.5 V was demonstrated learning for optical Communication and a polarization-splitter-rotator crosstalk mitigation over an on-chip compared for different differential by introducing a capacitance-control systems held on August 2nd 2019, are proposed and experimentally mode-division multiplexing link mode delay and linear coupling layer into a high-responsivity top- by the Communications Technology demonstrated for the first time. employing low-coherence matched regimes. illuminated PIN-PD with large optical- Laboratory in cooperation with the Relative spectral position of two detection. 20-Gbaud QPSK and aperture diameter of 20 µm for Information Technology Laboratory filters is locked by using 2×2 and 2×1 8-PSK mode-multiplexed signals 50-Gbaud PAM4 operation. at NIST in Boulder, CO. configurations. are successfully transmitted with a maximum modal crosstalk of -6.5 dB.

M3A.5 • 15:15 Invited M3D.5 • 15:15 Invited M3F.5 • 15:15 Analysis and Demonstration of Ultra- Development of Next Generation Four-channel, Silicon Photonic, broadband Mach-Zehnder Hybrid Data Communication VCSELs, Laura Wavelength Multiplexer-demulti- Polymer/Sol-Gel Waveguide Modu- Giovane1; 1Optical Systems Division, plexer With High Channel Isola- lators, Yasufumi Enami1,2; 1Head- Broadcom, Inc., USA. This paper tions, Mustafa Hammood1, Ajay quarters for Innovative Society-Aca- reviews the advancement in VCSEL Mistry1, Han Yun1, Minglei Ma1, Lukas demia Cooperation, Univ. of Fukui, technology at Broadcom to support Chrostowski1, Nicolas Jaeger1; 1Univ. Japan; 2Lightwave Logic, USA. A the next generation of 850nm multi- of British Columbia, Canada. We bandwidth of the hybrid modulators is mode data communication links at present a four-channel, silicon calculated numerically and analytically channel bit rates beyond 100Gb/s. photonic, wavelength multiplexer- based on experimentally obtained demultiplexer made using cascaded device parameters, which is >130 GHz. contra-directional couplers with The electro-optic response is reduced adjacent and non-adjacent channel by < 2 dB at 67 GHz. The electrical isolations of at least 37 dB and 45 dB,

transmission S21 is reduced by 5 dB respectively. The device›s maximum at 110 GHz (upper limit) of a vector insertion-loss is 0.72 dB. network analyzer, which also assured the bandwidth.

68 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

M3G.5 • 15:00 Tutorial M3H.4 • 15:00 M3I.4 • 15:00 M3J.5 • 15:00 M3K.2 • 15:00 SDM Power-efficient Ultra-high Capac- Adaptive Microwave Photonic Spectral 20.09-Gbit/s Underwater WDM-VLC Trans- Parallel Implementation of KK Receiver An OLS Controller for Hybrid Fixed / ity Long-haul Submarine Transmission Shaper for RF Response Tailoring, Qidi Liu1, mission Based on a Single Si/GaAs-substrate Enabled by Heading-frame Architecture Flexi Grid Disaggregated Networks with 1 1 Systems, Alexei N. Pilipetskii1, Maxim Bolshty- Mable P. Fok1; 1The Univ. of Georgia, USA. A Multichromatic LED Array Chip, Fangchen and Bandwidth Compensation, Yuyang Liu , Open Interfaces, Ramon Casellas , F. Ja- 1 1 1 2 1 1 1 1 1 1 ansky1, Dmitri G. Foursa1, Oleg V. Sinkin1; 1Sub- photonic-enabled fully-programmable RF Hu , Guoqiang Li , Peng Zou , Jian Hu , Yan Li , Jingwei Song , Honghang Zhou , Lei vier Vilchez , Laura Rodriguez , Ricard Vilalta , 2 3 1 2 2 1 1 1 1 Com, USA. Submarine long-haul systems have spectral shaper capable of point-by-point Shouqing Chen , Qingquan Liu , Jianli Yue , Xiang Li , Ming Luo , Jian Wu ; Beijing Josep M. Fabrega , Ricardo Martínez , Laia 2 2 3 2 1 1 a unique set of challenges to address the precise manipulation of wideband RF spec- Zhang , Fengyi Jiang , Shaowei Wang , Nan Univ of Posts & Telecom, China; Wuhan re- Nadal , Michela Svaluto Moreolo , Raul 1 1 2 1 1 capacity demand. The tutorial will examine trum with 30-MHz resolution is experimentally Chi ; Fudan Univ., China; Nanchang Univ., search Inst. of post and telecommunications, Muñoz ; CTTC, Spain. We report the design 3 the need for power efficiency, SDM solutions demonstrated. Over 10 spectral-control points China; Shanghai Inst. of Technical Physics, China. We propose an improved parallel KK and implementation of an OLS controller in for capacity and greater economy, and ways are achieved with the optimized spectral China. We demonstrated a record-breaking receiver based on heading-frame architecture a hierarchical (partial & full) disaggregation, to move forward. decomposition and reconstruction algorithm. 20.09-Gbit/s WDM-VLC transmission over 1.2 and bandwidth compensation. By adopting the using open standard data models. We detail m underwater link with PS-bitloading-DMT proposed scheme, a 112-Gbit/s 16-QAM signal the constrained path computation in hybrid modulation. A silicon-substrate multichromatic is successfully transmitted over 1440-km SSMF. fixed/flexi networks and its testbed validation. LED array chip and a feasible optical-filter scheme are proposed for future LED-based WDM-VLC system.

M3H.5 • 15:15 M3I.5 • 15:15 M3J.6 • 15:15 M3K.3 • 15:15 Invited Photonic-enabled Real-time Frequency- 2.4-Gbps Ultraviolet-C Solar-blind Com- A Transition Metric in Polar Co-ordinates for Design and Control of Open Disaggregated spectrum Tracking of Broadband Microwave munication Based on Probabilistically MLSE of a Complex Modulated DML, Marti Metro Optical Networks for Mobile-centric 1 1 1 1 Signals at a Nanosecond Scale, Saikrishna Shaped DMT Modulation, Omar Alkhazragi , Sales Llopis , Seb J. Savory ; Univ. of Cam- Services, Takehiro Tsuritani1; 1KDDI R&D Labo- 2 2 2 Alexei Pilipetskii received his PhD in 1990 in R. Konatham1,3, Luis R. Cortés1,3, Junho Fangchen Hu , Peng Zou , Yinaer Ha , Yuan bridge, UK. We propose a metric for MLSE- ratories, Japan. We present open design and 1 1 2 nonlinear fiber optics. Later his interests shifted chang2,3, Leslie Rusch2,3, Sophie LaRochelle2,3, Mao , Tien Khee Ng , Nan Chi , Boon S. Viterbi differential decoding of complex control of disaggregated multi-vendor metro 1 1 to the fiber optic data transmission. Alexei cur- Jose Azana1,3; 1EMT, INRS, Canada; 2Uni- Ooi ; King Abdullah Univ. of Sci. & Technology, modulation of directly modulated lasers ROADM network integrated Layer-2/3 switches 2 rently leads Forward Looking Team at SubCom. versite Laval, Canada; 3Centre for Optics, Saudi Arabia; Fudan Univ., China. We present (CM-DML) that reports SNR gains of 1.8 dB at with 100Gbps WDM CFP2-DCO pluggable He is an author and co-author of more than 200 Photonics and Lasers (COPL), Canada. We a record-breaking 2.4-Gbps/1-m ultraviolet-C BER=$10^{-3}$ on a simulated PAM4 signal optics considering low latency mobile services publications and 25 patent applications. He is demonstrate real-time and gap-free continuous (UVC) line-of-sight (LOS) optical wireless with a typical linewidth enhancement factor based on 5G. an IEEE Photonics Society Fellow. frequency-spectrum analysis of broadband communication link with 2.0 Gbps data rate $\alpha$=4. (GHz-bandwidth) microwave signals with maintained over 5 m. We also demonstrate unprecedented nanosecond resolutions a UVC diffuse-LOS link maintained over ± through an analog time-mapped spectrogram 5.5-degree angle changes. approach, enabling detection of frequency interferences and transients with durations down to ~5ns.

OFC 2020 • 8–12 March 2020 69 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

Monday, 9 March Monday, M3F.6 • 15:30 Ultra-low loss and fabrication tolerant silicon nitride (Si3N4) (de-) muxes for 1-μm CWDM optical interconnects, Stanley Cheung1, Mi- chael R. Tan1; 1Hewlett Packard Labs, USA. Low-loss, fabrication-tolerant Si3N4 CWDM lattice filters and AWGs are demonstrated for 990 – 1065nm bottom-emitting VCSELs. Channel separation of 25 nm, XT < -35 dB and -20 dB are reported with temperature shift of 14.5 pm/°C.

M3D.6 • 15:45 M3A.6 • 15:45 Top-Scored M3F.7 • 15:45 « Scalable Arrays of 107 Gbit/s Fabrication-insensitive CWDM (De) Chip-scale, Optical-frequency-stabi- Surface-normal Electroabsorption multiplexer based on Cascaded lized PLL for DSP-Free, Low-Power 1 Modulators, Stefano Grillanda , Ting- Mach-Zehnder Interferometers, Tzu- Coherent QAM in the DCI, Grant 1 2 Chen Hu , David Neilson , Nagesh Hsiang Yen1, Yung-Jr Hung1; 1Na- M. Brodnik1, Mark W. Harrington1, 1 1 1 Basavanhally , Yee Low , Hugo Safar , tional Sun Yat-Sen Univ., Taiwan. We Debapam Bose1, Andrew M. Neth- 1 1 1 Mark Cappuzzo , Rose Kopf , Al Tate , demonstrate a MZI-based (De)multi- erton1, Wei Zhang2, Liron Stern2, Paul 2 2 Gregory Raybon , Andrew Adamiecki , plexer that greatly reduces the spectral A. Morton3, John E. Bowers1, Scott B. 2 Nicolas K. Fontaine , Mark Earn- shift from 15.6±2.5 nm to 0.67±0.715 Papp2,4, Daniel J. Blumenthal1; 1Univ. of 1 1 2 shaw ; Nokia Bell Labs, USA; Nokia nm by employing narrow and wide California Santa Barbara, USA; 2Time Bell Labs, USA. We demonstrate arrays waveguides in different arms of a MZI. and Frequency Division 688, Na- of surface-normal electroabsorption tional Inst. of Standards and Tech- modulators with ultrawide bandwidth 3 nology, USA; Morton Photonics, (>>65 GHz), polarization insensitive 4 USA; Department of Physics, Univ. response and ultralow total coupling of Colorado, USA. We demonstrate loss to single-mode-fibers (0.7 a DSP-free 16-QAM/50GBd link dB). We show modulation up to based on independent transmit 107 Gbit/s and packaging with and LO frequency-stabilized ultra- arrayed-waveguide-gratings. narrow-linewidth SBS lasers, with ~40Hz integral linewidths and 7x10-14 fractional frequency stability. The low-BW optical-frequency- stabilized-PLL with 3x10-4 rad2 phase error operates within 1% of DSP and self-homodyne.

70 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

M3J.7 • 15:30 Invited M3I.6 • 15:30 M3H.6 • 15:30 Multilevel Coding with Flexible Probabilistic Photonic Integration for RF Beamforming Modulation Classification based on Deep Shaping for Rate-adaptive and Low-power 1 Learning for DMT Subcarriers in VLC Sys- in Phased Array Systems, Paul A. Morton , 1,2 1 1 1 Optical Communications, Tsuyoshi Yoshida , 2 3 3 tem, Wu Liu , Xiang Li , Chao Yang , Ming Jacob B. Khurgin , Chao Xiang , Warren Jin , 3 3 1 1 1 Magnus Karlsson , Erik Agrell ; Mitsubishi Christopher Morton1, John E. Bowers3; 1Morton Luo ; Wuhan Research Inst. of Post & Tele, Electric Corporation, Japan; 2Osaka Univ., Ja- Photonics Inc., USA; 2Johns Hopkins Univ., China. We propose a deep learning(DL) en- pan; 3Chalmers Univ. of Technology, Sweden. A USA; 3UCSB, USA. A novel photonics based abled modulation classification scheme using novel multilevel coded modulation scheme approach to RF Beamforming in a receive- only dozens of received symbols. For each with probabilistic shaping is presented. It can mode electronically scanned array (Rx-ESA) DMT subcarrier in VLC system, experiments reduce the power consumption up to 9 times is described, enabled by heterogeneous achieve 100% classification accuracy rate using compared with uniform signaling in the regime photonic integrated circuits (PICs), with future 75 symbols received at BER threshold. of typical hard-decision FEC thresholds. applications including 5G RF Beamforming (a.k.a. Massive MIMO).

M3I.7 • 15:45 M3J.8 • 15:45 M3K.4 • 15:45 High-speed Visible Light Communication 80-GBd Probabilistic Shaped 256QAM Collaborative Routing in Partially-trusted Re- System Based on a Packaged Single Layer Transmission over 560-km SSMF Enabled lay based Quantum Key Distribution Optical Quantum Dot Blue Micro-LED with 4-Gbps by Dual-virtual-carrier Assisted Kramers- Networks, Xingyu Zou1, Xiaosong Yu1, Yongli QAM-OFDM, Zixian Wei1, Li Zhang2,3, Lei Kronig Detection, An Li1, Wei-Ren Peng1, Yan Zhao1, Avishek Nag2, Jie Zhang1; 1Beijing Univ Wang2, Chien-Ju Chen4, Alberto Pepe1, Xin Cui1, Yusheng Bai1; 1FutureWei Technologies, of Posts & Telecom, China; 2School of Electri- Liu1, Kai-Chia Chen4, Yuhan Dong2,3, Meng-Chyi Inc., USA. We demonstrate transmission of cal and Electronic Engineering Univ. College, Wu4, Lai Wang2, Yi Luo2, H.Y. Fu1; 1Tsinghua- 80-GBd probabilistic shaped 256QAM over Ireland. This paper proposes a collaborative Berkeley Shenzhen Inst., China; 2Department 560-km SSMF, a record reach at 400-Gb/s line routing scheme in partially-trusted relay based of Electronic Engineering, Tsinghua Univ., rate using single laser and direct detection, quantum key distribution optical networks. China; 3Tsinghua Shenzhen International enabled by probabilistic constellation shaping Simulation results show it achieves good Graduate School, Tsinghua Univ., China; 4Inst. and dual-virtual-carrier assisted Kramers-Kronig performance in terms of key distribution of Electronics Engineering, National Tsing detection. success rate. Hua Univ., Taiwan. We demonstrate a 3-meter 4-Gbps QAM-OFDM VLC system with 3.2×10- 3 bit-error-rate (BER) by implementation of our own fabricated and packaged single layer quantum dot (QD) blue micro-LED with a record high 1.06 GHz modulation bandwidth.

OFC 2020 • 8–12 March 2020 71 Room 6A

14:00–16:15 M3Z • OFC Demo Zone

M3Z.1 M3Z.3 M3Z.5 M3Z.7 M3Z.10 M3Z.13 OpenConfig-extension for VLAN- All-optical Cross-connect Switch Demonstration of Extensible Hands-on Demonstration of Open- Remote Control of a Robot Rover OpenROADM-controlled White based End-to-end Network Slicing for Data Center Network Applica- Threshold-based Streaming Te- Source Filterless-aware Offline Plan- Combining 5G, AI, and GPU Im- Box encompassing Silicon Pho- Over Optical Networks, Abubakar tion, Kristif Prifti3, Rui Santos1, Jang-Uk lemetry for Open DWDM Ana- ning and Analysis Tool for WDM Net- age Processing at the Edge, Fed- tonics Integrated Reconfigurable Siddique Muqaddas1, Alessio Gior- Shin2, HongJu Kim4, Netsanet Tes- lytics and Verification, Abhinava works, Pablo Pavon Marino1,2, Miquel erico Civerchia1, Francesco Gian- Switch Matrix, Andrea Sgambelluri1, 2 1 3 3 1 1 1 1 1 1 1 1

Monday, 9 March Monday, getti , Rodrigo Stange Tessinari , sema , Ripalta Stabile , Steven Kleijn , Sadasivarao , Loukas Paraschis ; In- Garrich Alabarce , Francisco Javier none , Koteswararao Kondepu , Philippe Velha , Claudio Jose Oton Thierno Diallo1, Andrea Sgambel- Luc Augustin1, HyunDo Jung2, Sang- finera Corporation, USA. A novel and Moreno Muro1, Marco Quagliotti4, Piero Castoldi1,3, Luca Valcarenghi1, Nieto1, Alessio Giorgetti1, Antonio luri2, Reza Nejabati1, Dimitra Sime- Ho Park2, Yongsoon Baek2, Sungkyu practical threshold-based extension Emilio Riccardi4, Albert Rafel3, An- Andrea Bragagnini2, Fabrizio Gatti2, D’Errico2, Stefano Stracca2, Filippo onidou1; 1Univ. of Bristol, UK; 2Scuo- Hyun4, Nicola Calabretta3; 1SMART of streaming telemetry that advances drew Lord3; 1Universidad Politécnica Antonia Napolitano2, Justine Cris Bor- Cugini3; 1Scuola Superiore Sant Anna la Superiore Sant’Anna, Italy. We Photonics, Netherlands; 2Department open WDM analytics and introduces de Cartagena, Spain; 2E-lighthouse romeo1; 1Scuola Superiore Sant Anna di Pisa, Italy; 2Ericsson, Italy; 3CNIT, demonstrate end-to-end VLAN- of Photonic-Wireless Convergence network verification, is demonstrated Networks Solutions, Spain; 3British di Pisa, Italy; 2TIM, Italy; 3Department Italy. A fully packaged photonic based network slicing over optical Component Research, ETRI, Korea employing an extensible NOS Telecom, UK; 4TIM-Telecom Italia, of Excellence in Robotics and A.I., integrated switch matrix including networks using ONOS, based on (the Republic of); 3IPI Research Insi- application agent combined with Italy. We demonstrate an open-source Scuola Superiore Sant’Anna, Italy.The 1398 circuit elements interconnected extended OpenConfig model for titute, TU/e Eindhoven Univ. of Tech- standard NETCONF/YANG and open- filterless-aware multilayer WDM- demo shows the effectiveness of a in a 3-D stack is controlled through hybrid packet-optical terminal devices. nology, Netherlands; 4R&D Center, source software technologies. network planning tool, that allows low latency remote control based on OpenROADM NETCONF/YANG Validation is performed by end-to-end Coweaver Co, Korea (the Republic hands-on creation of mixed filterless/ 5G and image processing at the edge Agent and experimentally validated interconnected VNFs supporting video of). We demonstrate a C-band optical M3Z.6 ed topologies and the application of exploiting artificial intelligence and in an ONOS-based SDN testbed streaming use case. cross-connect switch based on InP Demonstration of Alarm Correla- built-in or user-developed algorithms GPUs to make a robot rover slalom encompassing OpenConfig-driven integrated photonics, butt-coupled to tion in Partially Disaggregated and analysis tools for line engineering, between posts. 100G pol-mux transponders. M3Z.2 a silica PLC for facile optical alignment. Optical Networks, Quan Pham Van1, spectrum and cost planning. Demonstration of Precise Planning The switch allows the development of Victor López2, Arturo Mayoral López- M3Z.11 M3Z.14 of Broadband Access Network low power, low latency and low-cost de-Lerma2, Konrad Mrówka3, Rafal M3Z.8 Experimental Demonstration of Demonstration of Alarm Knowledge based on Mining Traffic Trends WDM-switches. Mrówka3, Sebastian Auer4, Huu-Trung Packaged Graphene Photodetec- multiple Disaggregated OLTs run- Graph Construction for Fault Local- and Demands from Hybrid Data Thieu5, Quang-Huy Tran5, Dominique tors with 50 GHz RF bandwidth ning Virtualised Multi-tenant DBA, ization on ONOS-based SDON Plat- Sources, Hui Li1, Xianyi Guo1, Tianshun M3Z.4 G. Verchere5, Gary Atkinson1, Achim operating at 1550 nm and 2 µm over a Xeon Processor, Frank Slyne1, form, Zhuotong Li1, Yongli Zhao1, Yajie Zhan1, Wu Jia2, Yudan Su2, Guangsh- Automatic Resource Mapping Us- Autenrieth3, Stephan Neidlinger3, wavelength, Galip Hepgüler1, Ab- Marco Ruffini1, Robin Giller2, Da- Li1, Sabidur Rahman2, Ying Wang3, eng Yang1, Jinglei Sun1, Yan Shao2, ing Functional Block Based Dis- Lubo Tancevski6; 1ENSA Lab, Nokia bas Madani1, Stefan Wagner1, Dan- vid Coyle2, Jasvinder Singh2, Rory Xiaosong Yu1, Lizhong Zhang4, Guoli Yuefeng Ji3, Guangquan Wang2; 1Bei- aggregation Model for ROADM Bell Labs, USA; 2Telefónica I+D/Global iel Schall1,2; 1AMO GmbH, Germa- Sexton2, Brendan Ryan2, Michael Feng4, Jie Zhang1; 1BUPT, China; 2Univ. jing Laboratory of Advanced Informa- Networks, Kiyo Ishii1, Sugang Xu2, CTO, Spain; 3ADVA Optical Network- ny; 2Black Semiconductor, Germany. In O’Hanlon2; 1Trinity College Dublin, of California, USA; 3State Grid In- tion Networks, Beijing Univ. of Posts Noboru Yoshikane5, Atsuko Take- ing, Germany; 4ION BU, NOKIA, this demonstration we show packaged Ireland; 2Intel Corporation, Ireland. We formation & Telecommunication and Telecommunications, China; 2Net- fusa3, Shigeyuki Yanagimachi4, Takeshi Switzerland; 5ENSA Lab, Nokia Bell graphene photodetectors operating demonstrate an Optical Line Terminal Company, China; 4State Grid Ningxia work Technology Research Inst., China Hoshida6, Kohei Shiomoto7, Tomo- Labs, France; 6ION BU, NOKIA, at 1550 nm and 2 µm wavelength with fully softwarised data plane and Electric Power Co., Ltd. Informa- Unicom, China; 3State Key Labora- hiro Kudoh8, Takehiro Tsuritani9, Yo- USA. We present and demonstrate the with a bandwidth of 50 GHz. We are virtual Dynamic Bandwidth Allocation tion and Communication Company, tory of Information Photonics and shinari Awaji2, Shu Namiki1; 1AIST, Ja- alarm correlation capability executed presenting the first graphene photonic in a sliceable, multi-tenant PON China. We demonstrate construction Optical Communications, Beijing Univ. pan; 2NICT, Japan; 3NII, Japan; 4NEC as an SDN application in an open, device prototypes approaching TRL architecture. We evaluate performance of alarm knowledge graphs, which is of Posts and Telecommunications, Corporation, Japan; 5KDDI Research, partially disaggregated multi-vendor 5 level. results for 6 OLTs sharing the same helpful for fault localization in software China. We demonstrate a carrying Japan; 6Fujitsu Limited, Japan; 7To- optical network. This SDN application general purpose processor. defined optical networks (SDON). The capability evaluation system, which kyo City Univ., Japan; 8The Univ. of reconciles device alarms from Open M3Z.9 demonstration shows the method of can evaluate and predict the access Tokyo, Japan. Automated mapping Terminals with service alarms from Demonstration of Software-defined M3Z.12 constructing alarm knowledge graphs network capacity and efficiency by of real hardware composition an Open Line System controller Packet-optical Network Emulation Demonstration of Open and Disag- on ONOS-based platform using extracting detail network status and onto a ROADM-based model is to perform fault isolation, alarm with Mininet-optical and ONOS, Bob gregated ROADM Networks Based knowledge extraction. trends from hybrid data sources based demonstrated. The functional-block- correlation, and optical restoration Lantz1,2, Alan A. Díaz Montiel3, Ji- on Augmented OpenConfig Data on machine learning. based model precisely describing the akai Yu1, Christian D. Rios1, Marco Model and Node Controller, Dou physical layer structures can act as a Ruffini3, Daniel C. Kilper1; 1College Liang1, Lei Wang1, Sai Chen3, Cheng hardware abstraction layer for more of Optical Sciences, Univ. of Arizona, Jingchi3, Zhao Sun1, Ming Xia4, Huan abstracted models like OpenROADM. USA; 2Mininet Project, USA; 3CON- Zhang3, Li Xiao2, Xu Jian2, Kiekui NECT Centre, Trinity College, Ire- Yu2, Chongjin Xie1; 1Alibaba Group, land. We demonstrate practical China; 2Accelink Technologies Co. Ltd, software emulation of a software- China; 3Alibaba Group, China; 4Ali- defined, packet-optical network. Our baba Group, USA. By augmenting emulator, Mininet-Optical, models the OpenConfig data model of optical- physical, data plane and control plane wavelength-router, we demonstrate a behavior, under control of the ONOS ROADM network with disaggregated SDN controller. devices. Node level controller is implemented in our network management system with various operations on both degrees and media channels.

72 OFC 2020 • 8–12 March 2020 Room 6A Monday, 9 March

M3Z • OFC Demo Zone—Continued

M3Z.15 M3Z.16 M3Z.17 M3Z.18 M3Z.19 Disaggregated, Sliceable and Withdrawn Physical-layer Awareness: GNPy Flexible Optical Network Enabled Demonstration of Monitoring and Load-aware Optical Metro Ac- and ONOS for End-to-end Circuits Proactive Cross-layer Restructuring Data Analytics-triggered Recon- cess Network for 5G Applications in Disaggregated Networks, Jan for 5G/B5G Backhaul Network with figuration in Partially Disaggre- and Service Distribution in Edge Kundrát1,2, Andrea Campanella4, Machine Learning Engine, Rentao gated Optical Networks, Lluis Gifre Computing, Bitao Pan1, Xuwei Xue1, Esther Lerouzic3, Alessio Ferrari5, Gu1, Yongyao Qu1, Meng Lian1, Hon- Renom1, Fabien Boitier1, Camille Fu Wang1, Eduardo Magalhães1, Ondrej Havliš1,8, Michal Hazlinsky1, gbiao Li2, Zihao Wang1, Yinan Zhu2, Delezoide1, Marc Ruiz2, Marta Buffa3, Roberto Morro2, Emilio Riccardi2, Gert Grammel6, Gabriele Galim- Qize Guo1, Jianjun Yang3, Dajiang Annalisa Morea3, Ramon Casellas4, Nicola Calabretta1; 1Eindhoven Univ. berti7, Vittorio Curri5; 1CESNET, Wang2, Yuefeng Ji1; 1Beijing Univ. of Luis Velasco2, Patricia Layec1; 1Nokia of Technology, Netherlands; 2TIM, Czechia; 2Telecom Infra Project, Posts and Telecomm, China; 2ZTE Bell Labs, France; 2Universitat Po- Italy. A disaggregated, sliceable USA; 3Orange Labs, France; 4Open Corporation, China; 3China United litecnica de Catalunya, Spain; 3Nokia, metro-access ring with SDN control Networking Foundation, USA; 5Po- Network Communications Co. Ltd., Italy; 4Centre Tecnològic Telecomuni- is demonstrated with the use case litecnico di Torino, Italy; 6Juniper China. It demonstrates a flexible cacions Catalunya (CTTC), Spain. We of service distribution in the edge Networks, Germany; 7Cisco Photonics, optical network enabled “Network demonstrate a novel agent for optical computing nodes. Successful SDN Italy; 8Faculty of Electrical Engineer- Restructuring as Traffic Changes” disaggregated optical networks. When controlled dynamic network slicing ing and Communication, Brno Univ. for 5G/B5G backhaul network, the Monitoring and Data Analytics generation, load-aware bandwidth of Technology, Czechia. This demo which realizes proactive cross-layer detects a degradation, it recommends resources assignment is implemented. shows the automatic end-to-end path network generation and mitigation the SDN controller to trigger a network provisioning over a multi-vendor fully based network recovery, powered by reconfiguration computed by a novel disaggregated Open Line System cognitive enhancement and decision planning tool. by Czech Light using the GNPy QoT deduction. estimator and Cassini transceiver by the Telecom Infra Project integrated with ONOS.

16:00–16:30 Coffee Break, Upper Level Corridors

NOTES ______

OFC 2020 • 8–12 March 2020 73 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

16:30–18:30 16:30–18:30 16:30–18:30 16:30–18:30 16:30–18:30 16:30–18:15 M4A • Quantum Security M4B • Panel: Automotive M4C • MCF Amplifiers M4D • Network M4E • Symposium: M4F • High Order Direct Subsystems Communications and and Cable Design and Switching The Role of Machine Detect Formats Presider: Fumio Futami; Technologies for 10G and Presider: Hidehisa Tazawa; Architecture Learning for the Next- Presider: Sorin Tibuleac; Tamagawa Univ., Japan Beyond Sumitomo Electric Industries Presider: Takafumi Tanaka; generation of Optical ADVA Optical Networking, Ltd, Japan NTT Network Innovation Communication Systems USA Laboratories, Japan and Networks (Session

Monday, 9 March Monday, 2)

M4A.1 • 16:30 Invited A revolution in the automotive industry M4C.1 • 16:30 Tutorial M4D.1 • 16:30 Invited M4E.1 • 16:30 Invited M4F.1 • 16:30 Technology Trends for Mixed QKD/ is upon us, the self-driving cars. The Ultra-low Loss Multicore Fibers, Design and Operation Strategies Active vs Transfer Learning Ap- 280 Gb/s IM/DD PS-PAM-8 Transmis- WDM Transmission up to 80 km, Ro- autonomous car systems require ever- Amplifiers and Components, Takemi for Optical Transport Networks with proaches for QoT Estimation with sion Over 10 km SSMF at O-band For main Alléaume1, Raphael Aymeric1, increasing bandwidth for delivering Hasegawa1; 1Sumitomo Electric In- Reduced Margins Service-provision- Small Training Datasets, Dario Azzi- Optical Interconnects, Jiao Zhang1, Cedric Ware1, Yves Jaouen1; 1Telecom information from the various high reso- dustries Ltd, Japan. Ultra-low loss ing, Daniela A. Moniz1,2, João Pedro1,2, monti2, Cristina Rottondi1, Alessandro Kaihui Wang1, Yiran Wei1, Li Zhao1, Paris, France. We give a survey of lution sensors to the processing units multicore fibers will enable to scale the João Pires2; 1Infinera Corporation, Por- Giusti2, Massimo Tornatore3, Andrea Wen Zhou1, Jiangnan Xiao1, Bo Liu2, some of the recent progress made and have to be extremely reliable. The capacity of middle to long-distance tugal; 2Instituto de Telecomunicações, Bianco1; 1Dept. of Electronics and Xiangjun Xin2, Feng Zhao3, Ze Dong4, in deploying quantum and classical currently and near future developed transmission by overcoming spatial Portugal. This paper overviews the Telecommunications, Politecnico di Jianjun Yu1; 1Fudan Univ., China; 2Bei- communications over a shared fiber, automotive sensors include high- limitation. This tutorial will cover key architectures and network design Torino, Italy; 2Dalle Molle Inst. for Ar- jing Univ. of Posts and Telecommunica- focusing in particular on results ob- resolution cameras, Lidars, SWIRs, and progresses in fibers, amplifiers and and operation solutions to efficiently tificial Intelligence, Switzerland; 3Dept. tions, China; 3Xi’an Univ. of Posts and tained using continuous-variable QKD. radars, each generating Multi-Gigabit/ components, and challenges for exploit low margin provisioning in of Electronics, Information and Bio- Telecommunications, China; 4Huaqiao sec of payload data that should be practical applications. optical transport networks engineering, Politecnico di Milano, Univ., China. We experimentally delivered to the main processing unit Italy. We compare the level of accuracy demonstrated single-lane 200G+ IM/ with very low latency and BER. achieved by active learning and DD PAM-N system at O-band using domain adaptation approaches for SOA and probabilistic shaping (PS) These autonomous vehicles impose quality of transmission estimation of an for high-speed short reach optical paradigm shift in the car communica- unestablished lightpath, in presence of interconnects. 280 Gb/s PS-PAM-8 tion systems, essentially turning it small-sized training datasets. signals can transmit over 10 km SSMF. to a small “data center on wheels”. Consequently, new technologies should be developed and/or adopted M4F.2 • 16:45 for this application, including plastic 30 Gbaud 128 QAM SSB Direct optical fibers (POF), VCSELs, photonic Detection Transmission over 80 km integrated circuits (PICs), or upgraded with Clipped Iterative SSBI Cancel- 1 1 “traditional copper”. Furthermore, lation, Son T. Le , Vahid Aref , Karsten Schuh1, Hung Nguyen Tan2; 1Nokia new network architectures should be Takemi Hasegawa is Group Leader in Bell Labs, USA; 2Da Nang Univ., Viet adopted, including rings, stars, mul- Optical Communications Laboratory, Nam. We demonstrate a novel SSBI tiple point-to-point, resilient networks, Sumitomo Electric Industries, Ltd. (SEI) cancellation technique operable and others. in charge of R&D on transmission and without digital upsampling for a 30 specialty fibers. Since joining SEI in Gbaud 128 QAM SSB transmission with The autonomous driving also demands 1999, he has been engaged in design a record low CSPR of 5 dB, showing for unprecedented coordination and application of fibers. He received 4.6 dB performance improvement among the traffic. This requires ef- his Master of Engineering degree from compared to the Kramers-Kronig ficient inter-vehicle and road-side the University of Tokyo in 1999. He is a scheme. communications, where microwave member of OSA and IEEE/PS. photonics and optical wireless communication become important candidate technologies.

74 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

16:30–18:30 16:30–18:30 16:30–18:30 16:30–18:30 16:30–18:15 M4G • Open Networking M4H • Silicon Photonics and M4I • Advanced Radio Over- M4J • Digital Signal M4K • High-speed Long-haul Summit: Optical Metro/ High Density Integration fiber Technology Processing I Transmission Aggregation Networks to Presider: Erman Timurdogan; Presider: Sangyeup Kim; Presider: Alex Alvarado; Eindhoven Presider: Hisao Nakashima; Fujitsu Support Future Services over Analog Photonics, USA NTT Access Service Systems Univ. of Technology, Netherlands Limited, USA 5G Laboratories, Japan

5G promises to revolutionize society and indus- M4H.1 • 16:30 Invited M4I.1 • 16:30 Invited M4J.1 • 16:30 Tutorial M4K.1 • 16:30 Invited try by enabling a wide range of services, like Si PIC Based on Photonic Crystal for Lidar Radio-over-fiber Technology: Present and Fu- Few-mode Fiber Transmission, Guifang Long-haul WDM Transmission with Over- 1 1 enhanced Mobile Broad-Band (eMBB), Ultra- Application, Toshihiko Baba1, Hiroyuki Ito1, ture, Christina Lim1; 1Univ. of Melbourne, Aus- Li ; Univ. of Central Florida, USA. This tutorial 1-Tb/s Channels Using Electrically-syn- Reliable Low Latency Communications (URLLC) Hiroshi Abe1, Takemasa Tamanuki1, Yosuke tralia. This paper reviews the recent research will describe different types of few-mode thesized High-symbol-rate Signals, Taka- and massive Machine-Type Communications Hinakura1, Ryo Tetsuya1, Jun Maeda1, Mikiya in the area of radio-over-fiber technology fibers and their unique properties, followed yuki Kobayashi1, Masanori Nakamura1, Fu- (mMTC), with very different and stringent Kamata1, Ryo Kurahashi1, Ryo Shiratori1; 1Yo- focusing on physical layer investigations and by fiber-optic transmission systems that they kutaro Hamaoka1, Munehiko Nagatani1,2, requirements. 5G Transport will require large kohama National Univ., Japan. Wide-range demonstrations, and also provides a brief potentially enable, and the prospects of these Hiroshi Yamazaki1,2, Hideyuki Nosaka1,2, Yutaka amounts of fiber deployments, but while a lot nonmechanical beam steering is available discussion on the future outlook. transmission systems making realistic impacts Miyamoto1; 1NTT Network Innovation Labora- of focus is being given to fiber access networks, by an array of Si photonic crystal slow-light in the commercial world. tories, Japan; 2NTT Device Technology Labo- the optical metro/aggregation network has not waveguides and their switching without ratories, Japan. Recent technical progress on yet received much attention. complicated control. FMCW LiDAR action 1-Tb/s/λ-class transmission systems based-on is obtained with this beam steering on a Si high-speed electronics are reviewed. And this Transport optical networks are traditionally photonics chip. paper discusses key technologies and issues considered a collection of big pipes, seen as of the beyond-1-Tb/s/λ WDM transmission an existing commodity, on top of which to add systems with over-100-Gbaud symbol-rate for higher layer network resources and intelligence achieving long-haul transport. supporting the services. Considerable effort is devoted by both the research community and industry to the design and deployment of more efficient, more cost-effective, greener and more sustainable, and autonomic metro/ aggregation networks, which are expected to complement 5G mobile networks supporting Guifang Li is currently Professor of Optics & vertical services. Photonics at the University of Central Florida and Editor-in-Chief of Advances in Optics & Furthermore, the expected widespread use Photonics (OSA). His research interests include of Edge Computing and Cell Site Gate-Way optical communications and networking, RF Nodes will blur the traditional strong separation photonics, optical signal processing. He is a between mobile, access, and metro/aggrega- recipient of the NSF CAREER award, the Office tion networks, which opens the possibility for of Naval Research Young Investigator award. beneficial technology cooperation. However, He is a fellow of IEEE, SPIE, the Optical Society how these technological advancements in all and the National Academy of Inventors. He network layers of the access/metro/aggrega- previously served as a Deputy Editor for Optics tion domains, as well as in the control plane, Express, and an associate editor for Chinese can be pieced together to give a clear and uni- Optics Letters, IEEE Photonics Technology fied vision of the 5G ecosystem, is still largely Letters, IEEE Photonics Journal and Optica. a subject of debate. This session will address the issue of whether and how the massive deployment of vertical services over 5G will change the traditional approach to building optical network infrastructures.

OFC 2020 • 8–12 March 2020 75 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

M4A • Quantum Security M4B • Panel: Automotive M4C • MCF Amplifiers M4D • Network M4E • Symposium: M4F • High Order Subsystems—Continued Communications and and Cable—Continued Design and Switching The Role of Machine Direct Detect Formats— Technologies for 10G and Architecture—Continued Learning for the Next- Continued Beyond—Continued generation of Optical Communication Systems and Networks (Session 2)—Continued Monday, 9 March Monday, This panel will discuss the evolving M4A.2 • 17:00 M4D.2 • 17:00 M4E.2 • 17:00 Invited Top-Scored Two-level Optical Encryption for needs, the technology candidates, Colorless, Partially Directional, and M4F.3 • 17:00 « and the main associated debates in Neural Network Training for OSNR Novel Optical Field Reconstruction Secure Optical Communication, Ye- Contentionless Architecture for Estimation - from Prototype to 1 2 this automotive revolution era. for IM/DD with Receiver Bandwidth tian Huang , Haoshuo Chen , Hanzi High-degree ROADMs, Yongcheng Product, Andrew Shiner1, Moham- 1 1 1 2 1 Well Below Full Optical Signal Band- Huang , Qianwu Zhang , Zhengxuan Li , Liangjia Zong , Mingyi Gao , 1 1 mad E. Mousa-Pasandi , Meng Qiu , 1 1 1 2 Speakers: 1 width, Qian Hu , Robert Borkowski , Li , Nicolas K. Fontaine , Roland Biswanath Mukherjee , Gangxiang 1 1 Michael A. Reimer , Eui Young Park , 1 1 2 1 1 Kasia Balakier; AIRBUS Satellite and 1 1 2 Mathieu Chagnon , Karsten Schuh , Ryf , Min Wang ; Shanghai Univ., Shen ; Soochow Univ., China; Trans- 1 2,1 Michael Hubbard , Qunbi Zhuge , 1 1 1 2 Defense, UK Fred Buchali , Henning Bülow ; Nokia China; Nokia Bell Labs, USA. We mission Technology Research Depart- 3,1 Francisco J. Vaquero Caballero , Bell Labs, Germany. We propose demonstrate 60 Gbit/s transmission ment, Huawei, China. We design a 1 1 Daniel Adler; Valens, Israel Maurice O’Sullivan ; Ciena, Cana- a novel signal reception scheme over 43-km SMF using low-coherence Colorless, partially Directional, and 2 da; Shanghai Jiao Tong Univ., Chi- for IM/DD enabling optical field matched detection combined with Contentionless (CpDC) architecture for na; 3Cambridge Univ., UK. A method spectral phase coding as two- Ton Koonen; Eindhoven University of high-degree ROADMs, in which a fixed reconstruction. We experimentally Technology, Netherlands for in-service OSNR measurement with demonstrate 60-GBd PAM-4 layer optical encryption. Encrypted interconnection pattern is developed a coherent transceiver is presented signal and carrier are multiplexed to connect different nodal degrees transmission over 80-km without active Shilong Pan; Nanjing University of and experimentally verified. A neural and passive optical managements, through polarization diversity and and add/drop modules. Simulation network is employed to identify demultiplexed using polarization Aeronautics and Astronautic, China results show the advantages of the with 33-GHz electrical bandwidth at and remove the nonlinear noise transmitter and receiver. tracking. proposed architecture. contribution to the estimated OSNR.

M4A.3 • 17:15 M4D.3 • 17:15 M4F.4 • 17:15 Photonic Generation of Quantum Reliable Slicing with Isolation in Demonstration of 214Gbps per Noise Assisted Cipher at Microwave Optical Metro-aggregation Net- lane IM/DD PAM-4 Transmission 1 Frequencies for Secure Wireless works, Andrea Marotta , Dajana Cas- using O-band 35GHz-class EML 1 1 2,3 Links, Ken Tanizawa , Fumio Fu- sioli , Massimo Tornatore , Yusuke with Advanced MLSE and KP4- 1 1 4 4 tami ; Tamagawa Univ., Japan. We Hirota , Yoshinari Awaji , Biswanath FEC, Weiyu Wang1, Zhilei Huang1, 3 1 propose novel wireless physical layer Mukherjee ; Univ. of L’Aquila , Ita- Biwei Pan1, Huanlu Li1, Guanpeng 2 3 encryption utilizing signal masking by ly; Politecnico di Milano, Italy; Univ. Li1, Jian Tang1, Yuchun Lu1; 1Huawei 4 truly random quantum noise. 12-Gbit/s of California, USA; National Inst. of Technologies Co. Ltd., China. A single- cipher with sufficient masking is Information and Communications wavelength single-polarization 35GHz- generated in 30-GHz band by optical Technology, Japan. We discuss how class (112Gbps-class) commercial heterodyne, and secure microwave different degrees of slice isolation EML-based IM/DD 214Gbps PAM4 wireless transmission is achieved. influence resource allocation in signal transmission is experimentally protected optical metro-aggregation demonstrated. By using advanced networks. The case of slice reliability MLSE with low complexity and power with dedicated protection at lightpath consumption, the BER is below is modelled and numerically evaluated. standard KP4-FEC requirement of 2×10-4.

76 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

M4G • Open Networking M4H • Silicon Photonics and M4I • Advanced Radio Over- M4J • Digital Signal M4K • High-speed Long-haul Summit: Optical Metro/ High Density Integration— fiber Technology—Continued Processing I—Continued Transmission—Continued Aggregation Networks to Continued Support Future Services over 5G—Continued

In particular, the session will open a discussion M4H.2 • 17:00 M4I.2 • 17:00 M4K.2 • 17:00 on the following questions: Polarization-diverse Silicon Photonics WDM 100 Gb/s Real-Time Transmission over 49.2-Tbit/s WDM Transmission over 2x93- 1 Receiver with a Reduced Number of OADMs a THz Wireless Fiber Extender Using a km Field-Deployed Fiber, Karsten Schuh , 1 1 What are the network requirements emerging and Balanced Group Delays, Jovana Nojic2, Digital-coherent Optical Modem, Carlos Fred Buchali , Roman Dischler , Mathieu Cha- 1 1 2 1 1 1 1 from 5G services? Dominik Schoofs2, Saeed Sharif Azadeh2,1, Castro , Robert Elschner , Thomas Merkle , gnon , Vahid Aref , Henning Bülow , Qian Hu , 1 1 1 2 3 Florian Merget2, Jeremy Witzens2; 1Max Planck Colja Schubert , Ronald Freund ; Fraunhofer Florian Pulka , Massimo Frascolla , Esmaeel What does a future-proof access/metro/aggre- 4 4 5 Inst. of Microstructure Physics, Germany; 2Inst. Inst. for Telecommunications Heinrich Hertz Alhammadi , Adel Samhan , Islam Younis , gation network architecture look like? 2 5 6 1 of Integrated Photonics, RWTH Aachen Univ., Inst., Germany; Fraunhofer-Institut für Ange- Mohamed El-Zonkoli , Peter Winzer ; Nokia How can such architecture be implemented? 2 3 Germany. We experimentally validate a wandte Festkörperphysik IAF, Germany. We Bell Labs, Germany; Nokia, France; IP, Nokia, 4 5 10-channel polarization diverse WDM receiver demonstrate the real-time transmission of a Italy; Etisalat, United Arab Emirates; Nokia The session will be divided into two parts. 34-GBd PDM-QPSK signal over two fiber-optic UAE, United Arab Emirates; 6Nokia Bell Labs, In the first part, invited speakers will present with only one ring based add-drop multiplexer per channel and on-chip optical delay lines links interconnected by a THz wireless fiber USA, USA. We present 40 channel WDM their views on network (r)evolution. In the extender at 300 GHz carrier frequency, with transmission experiments over one and two second part, different strategies leading to balancing the two polarization paths for speeds up to 28 Gb/s. joint impairment compensation by a single- spans of 93-km field-deployed SSMF achieving more efficient, more cost-effective, and more carrier DSP. net capacities of 51.5-Tbit/s and 49.2-Tbit/s sustainable networks will be debated in a for PCS-256-QAM with 7.5 bits entropy and panel discussion. 45.9-Tbit/s and 45.1-Tbit/s for 64-QAM transmission, respectively. Speakers: M4H.3 • 17:15 M4I.3 • 17:15 M4K.3 • 17:15 Glenn Wellbrock; Verizon Transport Networks, A 400 Gb/s O-band WDM (8×50 Gb/s) A Broadly Tunable Noise Radar Trans- Entropy and Symbol-rate Optimized 120 USA Silicon Photonic Ring Modulator-based Trans- ceiver on a Silicon Photonic Chip, Daniel GBaud PS-36QAM Signal Transmission over 1 1 1 ceiver, Stelios Pitris1, Miltiadis Moralis-Pegios1, Onori , José Azaña ; Énergie, Matériaux et 2400 km at Net-rate of 800 Gbps/λ, Masa- 1 1 Jun Terada; NTT Access Networks Labs, Japan Theoni Alexoudi1, Konstantinos Fotiadis1, Télécommunications (EMT), Institut National de nori Nakamura , Takayuki Kobayashi , Hiroshi 1,2 1 Yoojin Ban2, Peter De Heyn2, Joris Van Campen- la Recherche Scientifique (INRS), Canada. We Yamazaki , Fukutaro Hamaoka , Munehiko 1,2 2 Andrew Lord; BT Labs, UK hout2, Nikos Pleros1; 1Department of Infor- experimentally demonstrate the first on-chip Nagatani , Hitoshi Wakita , Hideyuki No- 1,2 1 1 matics, Center for Interdisciplinary Research broadly-tunable noise radar transceiver, using saka , Yutaka Miyamoto ; NTT Network 2 Jan Söderström; Ericsson, USA & Innovation, Aristotle Univ. of Thessaloniki, silicon photonic technology. By exploiting an Innovation Laboratories, Japan; NTT Device Greece; 2imec, Belgium. We present a 400 innovative and simple lasers’ noise referencing Technology Laboratories, Japan. We apply Attilio Zani; Telecom Infra Project, UK (8×50) Gb/s-capable RM-based Si-photonic architecture, the device shows reconfigurable symbol-rate and entropy optimization to over- WDM O-band TxRx with 1.17nm channel operation in the range 0.5-35GHz, with 100-GBaud PS-36QAM signal generation. It spacing for high-speed optical interconnects antennas-remoting capability. enables 800-Gbps/λ signal transmission over and demonstrate successful 50Gb/s-NRZ TxRx 2400 km in 125GHz-spaced WDM system by operation achieving a ~4.5dB Tx extinction maximization of SNR margin from the required ratio under 2.15Vpp drive. SNR at FEC limit.

OFC 2020 • 8–12 March 2020 77 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

M4A • Quantum Security M4B • Panel: Automotive M4C • MCF Amplifiers M4D • Network M4E • Symposium: M4F • High Order Subsystems—Continued Communications and and Cable—Continued Design and Switching The Role of Machine Direct Detect Formats— Technologies for 10G and Architecture—Continued Learning for the Next- Continued Beyond—Continued generation of Optical Communication Systems and Networks (Session 2)—Continued Monday, 9 March Monday, M4D.4 • 17:30 M4A.4 • 17:30 M4C.2 • 17:30 M4E.3 • 17:30 Invited M4F.5 • 17:30 Compact Differential Phase-shift Power Efficient All-fiberized 12-core Is There a Most Appropriate Chan- nel Spacing in WDM Networks Towards Intelligent Optical Net- 160-Gb/s Nyquist PAM-4 Transmis- Quantum Receiver Assisted by a SOI Erbium/ytterbium Doped Optical works: The Role of Intellectual Prop- sion with GeSi-EAM Using Artificial 1 When Individually Routing 67 / BiCMOS Micro-ring Resonator, Ne- Amplifier, Gilles Melin , Romain 1 1 erty, Sebastian Gäde , Céline Borsi- Neural Network Based Nonlinear 1 1 2 3 GBaud Carriers?, Thierry Zami , manja Vokic , Dinka Milovancev , Kerampran , Achille Monteville , Syl- 1 1 1 1 1 1 1 er , Asa Ribbe ; EPO, Germany. An Equalization, Lei Zhang , Fan Yang , 1 2 1 Bruno Lavigne ; Nokia Corporation, Winfried Boxleitner , Hannes Hü- vain Bordais , Thierry Robin , David overview of worldwide patenting Hao Ming1, Yixiao Zhu2, Xiaoke Ruan1, 1 1 1 3 4 France. As elastic optical transponders bel , Bernhard Schrenk ; AIT Aus- Landais , Aurelien Lebreton , Yves activity covering machine learning Yanping Li1, Fan Zhang1; 1Peking Univ., 4 3 1 faster than 60 GBaud emerge in trian Inst. of Technology, Austria. We Jaouen , Thierry Taunay ; iXblue, and artificial intelligence in the field China; 2ZTE, China. We experimentally 2 3 meshed terrestrial WDM networks, we demonstrate a phase-selective and France; Lumibird, France; Photonics of optical communication is presented. demonstrate optical interconnects of 4 investigate whether 75 GHz spectral colorless quantum receiver assisted Bretagne, France; TELECOM Paris, The results emphasize a worldwide PAM-4 signal with a single lane bit rate by a silicon-on-insulator microring, France. 20dB gain in C-band with channel spacing outperforms 87.5 GHz spacing when routing individual growing market offering benefits for of 160Gb/s generated by a compact enabling a low 1.3% QBER at 5.3kb/s only 5.3W of pump is achieved with both providers and customers. silicon based GeSi electro-absorption secure-key rate. No penalty incurs an all-fiberized 12-core Er/Yb doped optical carriers transparently through optical nodes. modulator using artificial neural net- compared to a delay interferometer. fiber amplifier. This result is a first step work based nonlinear equalization. BiCMOS 3D-integration is proven towards SDM transmission including feasible. power efficient amplifiers and ROADM

M4A.5 • 17:45 Invited M4D.5 • 17:45 M4F.6 • 17:45 Invited Progress on Quantum Key Distribu- M4C.3 • 17:45 « Top-Scored Experimental Assessment of a Why Data Science and Machine Learn- tion Using Ultralow Loss Fiber, Alber- Full C-band and Power Efficient Programmable VCSEL-based Pho- ing Need Silicon Photonics, Benjamin to Boaron1, Davide Rusca1, Gianluca Coupled-multi-core Fiber Ampli- tonic System Architecture over a Klenk1, Larry Dennison1; 1NVIDIA Cor- Boso1, Raphael Houlmann1, Cédric fier, Masaki Wada1, Taiji Sakamoto1, Multi-hop Path with 19-Core MCF poration, USA. Training deep neural Vulliez1, Misael Caloz1, Matthieu Per- Shinichi Aozasa1, Ryota Imada1, Ta- for Future Agile Tb/s Metro Net- networks demands vast amounts 1 renoud1, Gaetan Gras1, Claire Aute- kashi Yamamoto1, Kazuhide Na- works, Michela Svaluto Moreolo , of computation, provided by large 1 1 bert1, Félix Bussières1, Ming-Jun Li2, kajima1; 1NTT access network service Josep M. Fabrega , Laia Nadal , distributed systems. The increasing 1 Daniel Nolan2, Anthony Martin1, Hugo systems lab., Japan. A coupled 12- Ricardo Martínez , Ramon Casel- demand for bandwidth will exceed the 1 1 1 Zbinden1; 1Univ. of Geneva, Switzer- core fiber amplifier with the highest las , F. Javier Vilchez , Raul Muñoz , limits of electrical and non-integrated 1 2 land; 2Corning Incorporated, USA. We optical power conversion efficiency of Ricard Vilalta , Alberto Gatto , Paola optical signaling and will require 2 2 use a 2.5 GHz clocked quantum key 10.2% is achieved among the reported Parolari , Pierpaolo Boffi , Chris- integrated 3 4 distribution system to perform long- C-band cladding-pumped amplifiers. tian Neumeyr , David Larrabeiti , 4 distance and high-speed quantum Potential as full C-band inline amplifier Gabriel Otero , Juan P. Fernández- 5 1 key distribution. Taking benefit from is confirmed using full coupled-core Palacios ; Ctr Tecnològic de Telecom 2 superconducting detectors optimized SDM link. de Catalunya, Spain; Politecnico di 3 for each operation regime and low- Milano, Italy; Vertilas GmbH, Ger- 4 loss fiber, we achieve state-of-the-art many; Universidad Carlos III de Ma- 5 performance. drid, Spain; Telefonica Global CTO, Spain. An SDN-enabled photonic system adopting VCSEL technology is experimentally analyzed targeting dynamic 5G-supportive MAN. Direct and coherent detection modules are compared and programmability assessed over up to 6-hop 160km HL4-HL2/1 connection including 25km 19-core MCF .

78 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

M4H.4 • 17:30 Invited M4I.4 • 17:30 M4J.2 • 17:30 M4K.4 • 17:30 Uncovering Reflection Insensitive Semi- Dual-wavelength Integrated K-band Multi- Multi-channel Equalization for Comb-based Spectrally Efficient DP-1024QAM 640 Gb/s conductor Lasers for Silicon Photonic Beamformer Operating over 1-km 7-core Systems, Mikael Mazur1, Jochen Schröder1, Long Haul Transmission using a Frequency Integration, Frederic Grillot1,2; 1Institut Poly- Multicore Fiber, Maria Morant1, Ailee Trinidad2, Magnus Karlsson1, Peter Andrekson1; 1Chalm- Comb, Frederik Klejs1, Edson Porto da Silva2, technique de Paris, France; 2The Univ. of New Eduward Tangdiongga2, Ton Koonen2, Roberto ers Tekniska Hogskola, Sweden. We propose Mads Lillieholm1, Metodi P. Yankov1, Toshio Mo- Mexico, USA. We report on two recent high Llorente1; 1Nanophotonics Technology Center, and demonstrate a frequency comb-enabled rioka1, Leif Oxenløwe1, Michael Galili1; 1DTU, performance semiconductor lasers made Universitat Politècnica de València, Spain; 2Inst. joint DSP. With joint processing, the required Denmark; 2Federal Univ. of Campina Grande, with the silicon photonic platform. Both for Photonic Integration, Eindhoven Univ. of guard-bands decreases and the optimal Brazil. We experimentally investigate the long structures display a quasi complete reflection Technology, Netherlands. A dual-wavelength roll-off factor increases, reducing penalties haul transmission of an 8 GBd DP-1024QAM insensitivity, resulting in a key attribute for broadband photonic integrated beamformer from non-ideal transceiver electronics while over fully Raman amplified fiber spans using an the development of isolator-free integrated over 1-km MCF provides independent angles simultaneously increasing the spectral optical frequency comb. We reach a potential technologies. with up to 350 ps increment to 3-GHz or 260 efficiency. spectral efficiency of 8.7 bit/s/Hz at 3000 ps to 4-GHz BW signals over two different km transmission and a potential data rate of wavelengths and K-band frequencies. 640 Gb/s.

M4I.5 • 17:45 M4J.3 • 17:45 M4K.5 • 17:45 Flexible Data Rate THz-wave Communication Cycle-Slip Rate Analysis of Blind Phase 800ZR+ DWDM Demonstration over 600km Using Nyquist Pulses and Optical-domain Re- Search DSP Circuit Implementations, Erik G.654D Fiber Enabled by Adaptive Non- ception Signal Processing, Koichi Takiguchi1, Börjeson1, Per Larsson-Edefors1; 1Depart- linear TripleX Equalization, Fabio Pittalà1, Nozomu Nishio1; 1Department of Electrical ment of Computer Science and Engineering, Maximilian Schaedler1, Christian Bluemm1, and Electronic Engineering, Ritsumeikan Univ., Chalmers Univ. of Technology, Sweden. Using Gernot Goeger1, Stefano Calabro1, Maxim Kus- Japan. We report variable capacity THz-wave FPGA-accelerated simulations, we study the chnerov1, Changsong Xie1; 1Huawei Technolo- communication using Nyquist pulses, which is cycle-slip rate of 16QAM blind phase search gies, Germany. We demonstrate the feasibility realized by changing the channel number and implementations. While block averaging suffers of 800ZR+ by transmitting 32×96-GBaud optical-domain filtering of received signals. We from degraded BER when compared to sliding- DP-32QAM over 600km of G.654D fiber carried out 10 to 40 Gsymbol/s communication window averaging, it results in lower cycle-slip using a generic interoperability FEC. Superior in the 300 GHz-band. rates and power dissipation. performance is achieved by advanced nonlinear components compensation.

OFC 2020 • 8–12 March 2020 79 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

M4C.4 • 18:00 M4D.6 • 18:00 M4E.4 • 18:00 Invited Real-time Optical Gain Monitoring Network Design Framework Exploit- Machine Learning for Optical Net- for Coupled Core Multi-Core EDFA ing Low-margin Provisioning of work Security Management, Marija with Strong Inter-Core Crosstalk, Hi- Optical Shared Restoration Resourc- Furdek, Chalmers University of Tech- toshi Takeshita1, Keiichi Matsumoto1, es, Daniela A. Moniz1,2, João Pedro1,2, nology, Sweden. We discuss the role Hidemi Noguchi1, Emmanuel Le João Pires2; 1Infinera Corporation, of supervised, unsupervised and Taillandier de Gabory1; 1NEC Corpo- Portugal; 2Instituto de Telecomunica- semi-supervised learning techniques ration, Japan. We have successfully ções, Portugal. This paper proposes in identification of optical network confirmed the feasibility of real-time a network design framework tailored security breaches. The applicability, optical gain spectrum monitoring to support optical restoration with performance and challenges related of CC-MC-EDFA with the standard low-margins by exploiting real-time to practical deployment of these tech- deviation within 0.65 dB even if the performance monitoring. Simula- niques are examined. optical power per core fluctuate due tion results highlight that it enables to the inter-core crosstalk. resource savings without additional risks of traffic disruption. M4C.5 • 18:15 « Top-Scored Spatial Mode Dispersion Control in a Coupled MCF using High Density Cabling Parameters, Yusuke Yamada1, Taiji Sakamoto1, Yuto Sagae1, Masaki Wada1, Saki Nozoe1, Yoko Yamashita1, Hisashi Izumita1, Kazuhide Nakajima1, Hiroaki Tanioka1; 1NTT, Japan. Spatial- mode dispersion (SMD) of a coupled multi-core fiber is controlled with cabling parameters for the first time. An SMD coefficient of 1.5 ps/√km is achieved by optimizing the bundle pitch and tension in the cable.

80 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Monday, 9 March

M4H.5 • 18:00 M4I.6 • 18:00 Invited M4J.4 • 18:00 M4K.6 • 18:00 Grating Coupled Laser (GCL) for Si Photon- Opto-electronic Terahertz Transceivers for Clock Recovery Limitations in Probabilisti- Experimental Study of Closed-Form GN 1 ics, Shiyun Lin1, Ding Wang1, Ferdous Khan1, Wireless 5G Backhaul, Sebastian Randel1, cally Shaped Transmission, Fabio A. Barbosa , Model Using Real-time m-QAM Transceiv- 2 1 1 Jeannie Chen1, Alexander Nickel1, Brian Tobias Harter1, Christoph Füllner1, Sandeep Sandro M. Rossi , Darli A. Mello ; School of ers with Symbol Rate up to 69 GBd, Ser- 1 1 Kim1, Yasuhiro Matsui1, Bruce Young1, Martin Ummethala1, Christian Koos1, Wolfgang Electrical and Computer Engineering, Univ. gey Burtsev , Steven Searcy , Sorin Tibu- 2 1 1 Kwakernaak1, Glen Carey1, Tsurugi Sudo1; 1II-VI Freude1; 1Inst. of Photonics and Quantum of Campinas, Brazil; Division of Optical leac ; ADVA, USA. Real-time transceivers were Incorporated, USA. We report a laser with an Electronics, Karlsruhe Inst. of Technology, Technologies, CPqD, Brazil. We assess the used to evaluate the accuracy of the closed- integrated grating coupler that emits a large Germany. Wireless communication links at performance of the modified Gardner timing form GN model for SSMF and NZDSF C-band ~30 µm mode through its substrate. The GCL terahertz frequencies are a promising option error detector under probabilistic shaping. The terrestrial applications with symbol rates from allows coupling to a corresponding grating in for high-capacity 5G backhaul. In this work, we results indicate severe limitations in specific 34 to 69 GBd and modulation formats from the Si PIC and insertion of an optical isolator review recent progress in the field and discuss combinations of shaping and roll-off factors. QPSK to 64QAM. without lenses. performance-vs.-complexity trade-offs for The results are validated by simulations and different opto-electronic terahertz transceiver experiments. designs. M4J.5 • 18:15 M4H.6 • 18:15 « Top-Scored Baud-rate Timing Phase Detector for InP/Silicon Hybrid External-cavity Lasers Systems with Severe Bandwidth Limita- (ECL) Using Photonic Wirebonds as Coupling tions, Nebojsa Stojanovic1, Talha Rahman1, 1,2 1,2 Elements, Yilin Xu , Pascal Maier , Mat- Stefano Calabro1, Jinlong Wei1, Changsong 1 1,3 thias Blaicher , Philipp-Immanuel Dietrich , Xie1; 1Huawei Technologies Co., Ltd., Ger- 1 1 Pablo Marin-Palomo , Wladislaw Hartmann , many. A novel timing phase detector using one 1,3 4 Muhammad R. Billah , Ute Troppenz , Mar- sample per symbol is developed. The phase 4 1 tin Moehrle , Sebastian Randel , Wolfgang detector is especially suitable for systems 1 1,3 1 Freude , Christian Koos ; Inst. of Photonics suffering from serious bandwidth limitations. and Quantum Electronics (IPQ), Karlsruhe Inst. Its superior performance is demonstrated in 2 of Technology (KIT), Germany; Inst. of Micro- simulations and experiments. structure Technology (IMT), Karlsruhe Inst. of Technology (KIT), Germany; 3Vanguard Auto- mation GmbH, Germany; 4Fraunhofer Heinrich- Hertz-Inst. (HHI), Germany. We demonstrate an InP/Silicon integrated ECL using a photonic wirebond as intra-cavity coupling element. In our proof-of-concept experiments, we demonstrate 50 nm tuning range, SMSR above 40 dB, and linewidths of 750 kHz.

OFC 2020 • 8–12 March 2020 81 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

07:30–08:00 Plenary Session Coffee Break, Upper Level Corridors, Ballroom 20 Lobby

08:00–10:00 Plenary Session, Room Ballroom 20BCD

10:00–14:00 Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30)

10:00–17:00 Exhibition and Show Floor, Exhibit Hall (concessions available in Exhibit Hall) OFC Career Zone Live, Exhibit Hall B2

12:00–14:00 OFC and Co-Sponsors Awards and Honors Ceremony and Luncheon, Upper Level, Room Ballroom 20A

14:00–16:00 14:00–16:00 14:00–16:00 14:00–16:00 14:00–16:00 14:00–16:00 T3A • Linear and T3B • Novel Materials T3C • Lasers for T3D • Quantum and T3E • Symposium: T3F • Panel: How Nonlinear Space Division Presider: Yikai Su; Shanghai Communications and Secure Communications Emerging Network Can Machine Multiplexing Jiao Tong Univ., China Sensing Presider: Andrew Shields; Architectures for 5G Learning or, More

Tuesday, 10 March Tuesday, Presider: Sophie LaRochelle; Presider: Yasuhiro Matsui; Toshiba Research Europe Edge Cloud (Session 1) Broadly, Artificial Universite Laval, Canada Finisar Corporation, USA Ltd, UK Intelligence Help Improve Optical Networks?

T3A.1 • 14:00 Tutorial T3B.1 • 14:00 Invited T3C.1 • 14:00 T3D.1 • 14:00 Invited T3E.1 • 14:00 Invited With the advent of powerful compute SDM Optical Communications, Nico- On-chip Optical Isolators, Tetsuya 50-GHz Gain Switching and Period Entanglement-based Fiber Optic Title to be Announced, An- infrastructure, machine learning has las K. Fontaine1; 1Nokia Bell Labs, Mizumoto1, Yuya Shoji1; 1Tokyo Inst. of Doubling Using an Optical Injec- and Satellite QKD Systems, Rupert drew Wilkinson1; 1Ericsson, Swe- become hugely popular, including but USA. Abstract not available. Technology, Japan. Magneto-optical tion Locked Cavity-enhanced DFB Ursin1; 1Austrian Academy of Sciences, den. Abstract not available. not limited to the field of optical com- 1 2 phase shift is effective to realize on- Laser, Zhixin Liu , Yasuhiro Matsui , Austria. Abstract not available. munication and networking. Machine 3 2 chip optical isolators. Optical isolators Richard Schatz , Ferdous Khan , Martin learning in this context may be applied 2 2 1 are fabricated on SOI platforms with Kwakernaak , Tsurugi Sudo ; Univ. to enhance network monitoring and 2 isolation ratios of 30 and 16 dB for College London, UK; Finisar Cor- troubleshooting as well as optimiza- 3 TM and TE mode input, respectively. poration, USA; Royal Inst. of Tech- tion and anomaly detection. nology, Sweden. We demonstrate gain-switched pulse generation at a In this session we ask network op- record-high repetition rate of 50GHz erators as well as network equipment by injection locking a cavity-enhanced manufacturers about the potential DFB laser. More than 50GHz carrier- and value of ML in optical networking photon resonance is achieved by using and beyond. the detuned-loading and photon- photon resonance effects. Speakers:

Yoshiaki Aono; NEC Corp., Japan

Zahra Bakhtiari; Microsoft, USA

Biondo Biondi, Stanford University, USA

Mattia Cantono; Google, USA

Petar Djukic; Ciena, Canada

82 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show Floor Programming

07:30–08:00 Plenary Session Coffee Break, Upper Level Corridors, Ballroom 20 Lobby Ethernet Interoperability and Deployments – New 08:00–10:00 Plenary Session, Room Ballroom 20BCD and Legacy Solutions Work Together Ethernet Alliance 10:00–14:00 Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30) 10:15–11:15, Theater II Product Showcase - 10:00–17:00 Exhibition and Show Floor, Exhibit Hall (concessions available in Exhibit Hall) Huawei Technologies OFC Career Zone Live, Exhibit Hall B2 Canada Co., Ltd. 10:15–10:45, Theater III Tuesday, 10 March

12:00–14:00 OFC and Co-Sponsors Awards and Honors Ceremony and Luncheon, Upper Level, Room Ballroom 20A  MW Panel I: State of the Industry 10:30–12:00, Theater I 14:00–16:00 14:00–16:00 14:00–16:00 14:00–16:00 14:00–16:00 T3G • Panel: As we T3H • Silicon Photonics T3I • Short-reach T3J • Orchestration and T3K • Intra Data Center AIM Photonics Member Approach Shannon Applications Systems II Control Networks I Limit, How do we Presider: Dominic Goodwill; Presider: Yi Cai; ZTE TX, Inc., Presider: Paolo Monti; Presider: Reza Nejabati; Successes and Updates Precisely Assess Huawei Technologies R&D, USA Chalmers Tekniska Hogskola, Univ. of Bristol, UK AIM Photonics the Performance Canada Sweden 11:00–12:00, Theater III of Coherent Transponders for  Data Center Summit: Keynote and Panel Field Deployment? 11:30–13:45, Theater II How close will we be able to approach T3I.1 • 14:00 T3J.1 • 14:00 T3H.1 • 14:00 Top-Scored T3K.1 • 14:00 Top-Scored 5G Architectures and Shannon limit in the field? 1.6Tbps Silicon Photonics« Integrated 102 Gbaud PAM-4 Transmission Blockchain-anchored Failure Re- Demonstrating« Optically Intercon- Circuit for Co-packaged Optical-IO Over 2 km Using a Pulse Shaping Fil- sponsibility Management in Disag- Service Considerations How do we precisely assess the nected Remote Serial and Parallel Switch Applications, Saeed Fatho- ter with Asymmetric ISI and Thomlin- gregated Optical Networks, Sil- Memory in Disaggregated Data Cen- Nokia performance? 1 1 loloumi1, Kimchau Nguyen1, Hari son Harashima Precoding, Xueyang via Fichera , Andrea Sgambelluri , ters, Vaibhawa Mishra1, Joshua L. Ben- 1 1 1 1 2 12:15–13:15, Theater III Mahalingam1, Meer N. Sakib1, Zhi Li1, Li , Zhenping Xing , Samiul Alam , Alessio Giorgetti , Filippo Cugini , jamin1, Georgios S. Zervas1; 1Univ. Col- Field trial vs. lab testing 1 1 1 1 1 Christopher S. Seibert1, Mohammad Maxime Jacques , David Plant ; Mc- Francesco Paolucci ; Scuola Su- lege London, UK. Remote serial and 2 Accuracy of Simulation vs. experi- Montazeri1, Jian Chen1, Jonathan Gill Univ., Canada. We introduce the periore Sant’Anna, Italy; CNIT, It- parallel memory using memory-over-  MW Panel II: 5G and mental results K. Doylend1, Hasitha Jayatilleka1, asymmetric-ISI pulse shaping filter aly. A novel framework based on network bridge and optical switched Re–thinking Access Catherine Jan1, John Heck1, Ranju with Tomlinson-Harashima precoding blockchain is proposed to provide interconnect is demonstrated. Remote Networks Offline testing vs. real time testing Venables1, Harel Frish1, Reece A. De- to increase the receiver RF swing, trusted SLA accounting. Extensions memory bandwidth of 93% (HMC) and 1 1 and demonstrate 102 Gbaud PAM-4 to SDN ONOS controller successfully 12:30–14:00, Theater I What is an acceptable error between frees , Randal S. Appleton , Summer 66% (DDR4) of the local 3.2 and 3.7 Hollingsworth1, Sean P. Mccargar1, transmission over 2 km with a BER assess controversial SLA degradations GB/s bandwidth is showcased. lab results and field trials? -3 Richard Jones1, Daniel Zhu1, Yuliya below 3.8×10 using linear equalizer responsibilities upon failure events in 400ZR Specification How do we close the gap be- Akulova1, Ling Liao1; 1SPPD, Intel at receiver. a multi-vendor OpenROADM-based Update white box scenario. tween technology design and field Corporation, USA. We demonstrate OIF deployment? 1.6Tbps Silicon Photonic Integrated Circuit (SiPIC) meeting co-packaged 13:30–14:30, Theater III Speakers: optics requirements for network switch applications. It has sixteen 106Gbps Preparing the Transport Colin Meaklim; Ciena, Canada PAM4 optical channels, including Network for 5G Approaching the Shannon Limit of lasers, modulators and V-grooves. Subsea Networks Post-FEC error-free operation over Session sponsored by temperature is demonstrated. Juniper Networks Pierre Mertz; Infinera, USA 13:50–14:50, Theater II Knocking on Shannons' Door

OFC 2020 • 8–12 March 2020 83 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

T3A • Linear and T3B • Novel Materials— T3C • Lasers for T3D • Quantum T3E • Emerging Network T3F • Panel: How Nonlinear Space Division Continued Communications and and Secure Architectures for 5G Can Machine Multiplexing—Continued Sensing—Continued Communications— Edge Cloud (Session 1)— Learning or, More Continued Continued Broadly, Artificial Intelligence Help Improve Optical Networks?—Continued

T3C.2 • 14:15 Analysis of TDECQ Dependence on Skew and Extinction Ratio with 106-Gb/s PAM-4 modulation of Di- rectly Modulated Submicron Ridge Localized Buried Heterostructure Lasers, Kazuki Suga1, Kouji Naka- hara1, Kaoru Okamoto1, Shigenori Hayakawa1, Masatoshi Arasawa1, Tet- suya Nishida1, Ryu Washino1, Takeshi Kitatani1, Masatoshi Mitaki1, Hironori Sakamoto1, Yasushi Sakuma1, Shige- Nicolas Fontaine obtained his PhD hisa Tanaka1; 1Lumentum Japan, in 2010 at the University of California Inc., Japan. The importance of high Tuesday, 10 March Tuesday, Davis in the Next Generation Network relaxation oscillation frequency to Systems Laboratory in Electrical Engi- obtain superior 106-Gb/s PAM-4 neering. In his dissertation he studied waveforms was revealed for SR-LBH how to generate and measure the lasers. In addition, clear 56-Gb/s NRZ amplitude and phase of broadband eye openings were first demonstrated optical waveforms in many narrow- up to 85°C using SR-LBH laser. band spectral slices. Since June 2011, he has been a member of the technical staff at Bell Laboratories at Crawford T3B.2 • 14:30 T3C.3 • 14:30 T3D.2 • 14:30 Top-Scored T3E.2 • 14:30 Invited Hill, NJ in the advanced photonics Integrable Magnetless Thin Film 10-Gbit/s Sky-blue Distributed 10 Tbit/s QAM« Quantum Noise Title to be Announced, Thomas division. At Bell Labs, he develops de- Waveguide Optical Isolator based Feedback Laser Diode-based Vis- Stream Cipher Coherent Transmis- Pfeiffer1; 1Nokia Bell Labs, Germa- vices for space-division multiplexing in on Bismuth Iron Garnet Mate- ible Light Communication, Meiwei sion over 160 km, Masato Yoshida1, ny. Abstract not available. 1 2 1 1 multi-core and few mode fibers, builds rial, Vincent Stenger , Dolendra Karki , Kong , Jorge A. Holguin Lerma , Takashi Kan1, Keisuke Kasai1, Toshihiko 1 2 1 1 1 wavelength crossconnects and filtering Andrea Pollick , Miguel Levy ; SRICO, Omar Alkhazragi , Xiaobin Sun , Tien Hirooka1, Masataka Nakazawa1; 1To- 2 1 1 1 devices, and investigates spectral slice Inc., USA; Michigan Technological Khee Ng , Boon S. Ooi ; Photonics hoku Univ., Japan. We present the coherent receivers for THz bandwidth Univ., USA. A passive magnetless Laboratory, King Abdullah Univ. of Sci- first 10 Tbit/s secure physical layer waveform measurement. In his free integrated optic Faraday isolator has ence and Technology (KAUST), Saudi transmission over 160 km with a time he enjoys learning jazz piano. been demonstrated that features Arabia. A novel sky-blue (~480 nm) spectral efficiency of 6 bit/s/Hz by ~3 dB total insertion loss and 25 dB InGaN-based distributed feedback using digital coherent QAM quantum isolation. The compact 500 μm long laser diode is developed for high- noise stream cipher (QNSC) and ridge waveguide isolator is integrable speed visible light communication. injection-locked WDM techniques. with silicon photonic platforms. With a 3-dB system bandwidth of ~1.5 GHz, 10 Gbit/s is achieved by using orthogonal frequency-division multiplexing technology.

84 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show FloorShow Programming Floor ProgrammingContinued T3G • Panel: As we T3H • Silicon Photonics T3I • Short-reach T3J • Orchestration and T3K • Intra Data Center Approach Shannon Applications—Continued Systems II—Continued Control—Continued Networks I—Continued 400ZR Specification Limit, How do we Update Precisely Assess OIF the Performance of Coherent 13:30–14:30, Theater III Transponders for Field Deployment?— Preparing the Transport Continued Network for 5G Session sponsored by Shaoliang Zhang; Acacia, USA T3H.2 • 14:15 « Top-Scored T3I.2 • 14:15 T3J.2 • 14:15 Invited T3K.2 • 14:15 Juniper Networks Pushing the Limits of Performance 84-GBaud/λ PAM-4 Transmission Network Control and Orchestra- Analysis of Service Blocking 400G Silicon Photonics Integrated Tuesday, 10 March with the Flexibility to Manage Link Circuit Transceiver Chipsets for CPO, over 20-km using 4-λ LAN-WDM tion in SDM and WDM Optical Reduction Strategies in Capac- 13:50–14:50, Theater II Margin in the Field OBO, and Pluggable Modules, Er- TOSA and ROSA with MLSE Based Networks, Raul Muñoz1, Noboru ity-limited Disaggregated Data- 1 man Timurdogan1, Zhan Su1, Ren-Jye on Nonlinear Channel Estimation, Hi- Yoshikane2, Ricard Vilalta1, Ramon centers, Albert Pagès , Fernando 1 1 1 1 1 Andreas Leven; Nokia, Germany Shiue1, Matthew Byrd1, Christopher roki Taniguchi , Shuto Yamamoto , Casellas1, Ricardo Martínez1, Take- Agraz , Salvatore Spadaro ; Uni-  MW Panel III: Optical High-performance Transpon- 1 2 Poulton1, Kenneth Jabon1, Christopher Yoshikaki Kisaka , Shigeru Kanazawa , hiro Tsuritani2, Itsuro Morita2; 1CTTC, versitat Politècnica de Catalunya ders: Data Sheets and Real-world 2 3 Interconnect and DeRose1, Benjamin Moss1, Ehsan toshihide yoshimatsu , yozo ishikawa , Spain; 2KDDI Research, Japan. We (UPC), Spain. Disaggregated DCs Performance 3 1 Hosseini1, Ivan Duzevik1, Michael Whit- Kazuyo Mizuno ; NTT Network In- present the first SDN-enabled multi- offer multiple benefits. However, Computing for Scaling 2 son1, Ronald Millman1, Dogan Atlas1, novation Laboratories, Japan; NTT domain multi-layer (WDM/SDM) transmission capacity limitations at Machine Learning (ML) Elizabeth Rivera Hartling; Facebook 3 Michael Watts1; 1Analog Photonics, Device Innovation Center, Japan; Fu- control architecture for partially blade level can severely degrade Systems Inc., USA USA. 400G-FR4 silicon photonics rukawa electric Co. Ltd., Japan. We disaggregated optical networks with their performance. We analyze several Assessing Capacity: It’s in the Noise transmit-receive chipsets, compatible demonstrate 168-Gbps/λ PAM-4 multiple WDM and SDM OLS domains strategies to enhance their service 14:30–16:00, Theater I with co-packaged-optics, on-board- transmission over 20-km using 4-λ and transponders to provision end- acceptance. optics, and pluggable form factors, LAN-WDM TOSA and ROSA with BER to-end TAPI connectivity services were demonstrated with a combined below the HD-FEC limit under 24-GHz involving spatial and optical channels. bandwidth density of 94Gb/s/mm, bandwidth limitation and -39.7-ps/ energy efficiency of <10pJ/bit, and nm chromatic dispersion by applying -5.4dBm OMA sensitivity at the KP4 MLSE based on nonlinear channel pre-FEC-BER=2.4e-4. estimation.

T3H.3 • 14:30 T3I.3 • 14:30 « Top-Scored T3K.3 • 14:30 Invited 45nm CMOS - Silicon Photonics O-Band 10-km Transmission of Advanced Software Architectures Monolithic Technology (45CLO) 93-Gbaud PAM4 Signal Using Spec- and Technologies in High Per- for Next-generation, Low Power tral Shaping Technique Based on formance Computing and Data 1 and High Speed Optical Intercon- Nonlinear Differential Coding with Centers, Juan Jose Vegas Olmos , 1 1 1 nects, Michal Rakowski , Colleen Mea- 1-Tap Precoding, Shuto Yamamoto1, Liran Liss , Tzahi Oved , Zachi Bin- 2 2 1 1 1 gher , Karen Nummy , Abdelsalam Hiroki Taniguchi1, Masanori Naka- shtock , Dror Goldenberg ; Mel- 3 2 Aboketaf , Javier Ayala , Yusheng mura1, Yoshikaki Kisaka1; 1NTT Net- lanox Technologies, Denmark. This 1 3 3 Bian , Brendan Harris , Kate Mclean , work Innovation Laboratories, NTT paper reviews advanced software 2 2 Kevin McStay , Asli Sahin , Louis Corporation, Japan. We propose a architectures and technologies that 2 1 2 Medina , Bo Peng , Zoey Sowinski , simple and flexible spectral shaping support innetworking computing and 3 2 Andy Stricker , Thomas Houghton , technique based on nonlinear improve the overall performance of 3 2 Crystal Hedges , Ken Giewont , Ajey differential coding for short-reach data centers and high-performance 1 2 2 Jacob , Ted Letavic , Dave Riggs , IM-DD transmission. Experimental computing clusters; the ability to 2 1 1 Anthony Yu , John Pellerin ; Pho- results show the achievement of 7% converge software and hardware tonics Technology Solutions, Glo- HD-FEC threshold in 186-Gb/s 10-km allows for new solutions, such as 2 balFoundries, USA; GlobalFound- transmission with 14-GHz bandwidth artificial intelligence, to be deployed 3 ries, USA; GlobalFoundries, USA. limitation. massively. GlobalFoundries monolithic 45nm CMOS-Silicon Photonics 300mm high-volume manufacturing platform based on 45nm RF technology node, and optimized for high performance and low power short-reach optical interconnects for on-chip and chip- to-chip applications will be discussed.

OFC 2020 • 8–12 March 2020 85 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

T3B.3 • 14:45 T3C.4 • 14:45 T3D.3 • 14:45 Heterogeneous Co-integration of High Performance BH InAs/InP Experimental Demonstration of BTO/Si and III-V technology on a QD and InGaAsP/InP QW Mode- High Key Rate and Low Complexity Silicon Photonics Platform, Pascal locked Lasers as Comb and Pulse CV-QKD System with Local Local Os- Stark1, Felix Eltes1, Yannick Baumgart- Sources, Marlene Zander1, Wolf- cillator, Shengjun Ren1, Shuai Yang1, ner1, Daniele Caimi1, Youri Popoff1,2, gang Rehbein1, Martin Moehrle1, Adrian Wonfor1, Richard Penty1, Ian Norbert Meier1, Lukas Czornomaz1, Kevin Kolpatzeck2, Jan Balzer2, Stef- White1; 1Univ. of Cambridge, UK. We Jean Fompeyrine1, Bert J Offrein1, fen Breuer1, Dieter Franke1, Martin experimentally demonstrate a 250MHz Stefan Abel1; 1IBM Research - Zurich, Schell1; 1Fraunhofer Heinrich-Hertz- repetition rate Gaussian-modulated Switzerland; 2Empa, Swiss Federal Inst., Germany; 2Univ. of Duisburg- coherent-state CVQKD with local Laboratories for Materials Science Essen, Germany. We explore and local oscillator implementation which and Technology, Switzerland. We compare buried heterostructure (BH) is capable of realizing record 14.2 demonstrate for the first time the quantum dot (QD) and quantum well Mbps key generation in the asymptotic heterogeneous co-integration of Si (QW) lasers with more than 33 channels regime over 15km of optical fiber. Tuesday, 10 March Tuesday, photonics, BTO/Si for high-speed in the DWDM 50 GHz grid, thus modulation and III-V materials for enabling > 1 Tb/s optical transmission. photodetection and emission. We In addition, the mode-locked devices show light coupling with losses <0.5 can be applied as pulse sources with dB between the different functional < 500 fs pulses by using a simple SMF. layers.

T3A.2 • 15:00 T3B.4 • 15:00 Tutorial T3C.5 • 15:00 Invited T3D.4 • 15:00 T3E.3 • 15:00 Invited Novel Fuseless Optical Fiber Side- Non-volatile Photonic Applications VCSELs for 3D Sensing Applica- Spectrally-shaped Continuous-Vari- Title to be Announced, Eric He- coupler based on Half-taper for with Phase Change Materials, Mat- tions, Chun Lei1; 1Lumentum, USA. We able QKD Operating at 500 MHz aton1; 1Intel, USA. Abstract not Cladding Pumped EDFAs, Charles thias Wuttig1; 1Rheinish Westfalische present the high-volume design and Over an Optical Pipe Lit by 11 available. 1 1 1 Matte-Breton , Ruohui Wang , Tech Hoch Aachen, Germany. Abstract manufacturing process of 9XXnm high- DWDM Channels, Dinka Milovancev , 1 1 Younès Messaddeq , Sophie LaRo- not available. power vertical-cavity surface-emitting Nemanja Vokic , Fabian Lauden- 1 1 1 1 chelle ; Universite Laval, Canada. We laser (VCSEL) arrays for consumer 3D bach , Christoph Pacher , Hannes 1 1 1 present a novel method for optical sensing applications, such as facial and Hübel , Bernhard Schrenk ; AIT fiber side-coupler fabrication that gesture recognitions. We will focus on Austrian Inst. of Technology, Aus- does not require to heat the fibers. performance and reliability. tria. We demonstrate high-rate More than 94% of average coupling CV-QKD supporting a secure-key efficiency is demonstrated for input rate of 22Mb/s through spectral pump power ranging from 1.4 W to tailoring and optimal use of quantum 20.7 W. receiver bandwidth. Co-existence with 11 adjacent carrier-grade C-band channels spaced by only 20nm is accomplished at >10Mb/s.

86 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show FloorShow Programming Floor ProgrammingContinued T3G • Panel: As we T3H • Silicon Photonics T3I • Short-reach T3J • Orchestration and T3K • Intra Data Center Approach Shannon Applications—Continued Systems II—Continued Control—Continued Networks I—Continued Preparing the Transport Limit, How do we Network for 5G Precisely Assess the Performance 13:50–14:50, Theater II of Coherent Transponders for  MW Panel III: Optical Field Deployment?— Interconnect and Continued Computing for Scaling T3H.4 • 14:45 Invited T3I.4 • 14:45 T3J.3 • 14:45 Machine Learning (ML) Single lane 176Gb/s Single Side- Dual Use SDN Controller for Man-

Silicon Photonics for 100 Gbaud, Ji- Systems Tuesday, 10 March 1 1 band PAM-4 Transmission over agement and Experimentation in anying Zhou , Jian Wang , Qun 14:30–16:00, Theater I Zhang2; 1NEOPhotonics Corp, 400km with a Silicon Photonic a Field Deployed Testbed, Jiakai 1 2 USA; 2Minnesota State Univ., USA. We Dual-drive Mach-Zehnder Modula- Yu , Craig Gutterman , Artur Minakh- 1 1 3 4 reviewed recent breakthroughs on tor, Lei Zhang , Fan Yang , Xiaoke metov , Michael Sherman , Tingjun Standards Update on 5G 1 1 1 1 2 1 2 silicon photonic for 100Gbaud Ruan , Yanping Li , Fan Zhang ; Pe- Chen , Shengxiang Zhu , Gil Zussman , 4 1 1 Transport (and more) operation. We experimentally king Univ., China. We experimentally Ivan Seskar , Daniel C. Kilper ; Col- demonstrated 120Gbaud QPSK and demonstrate ultra-high speed metro- lege of Optical Sciences, Univ. of ITU-T SG15 2 100Gbaud 32QAM operations using scale optical transmission of SSB Arizona, USA; Electrical Engineer- 3 14:45–15:45, Theater III a high performance all-silicon IQ PAM-4 signal with a record single ing, Columbia Univ., USA; LTCI, modulator with extinction ratio of lane bit rate of 176Gb/s over 400km Télécom Paris, Institut Polytechnique 4 >25dB and 6dB-bandwidth of 50GHz. SSMF based on conventional silicon de Paris, France; Electrical and Com- photonic dual-drive modulator with puter Engineering, Rutgers Univ., Embedded Optics and Mach-Zehnder structure. USA. An SDN controller is developed How They Should Be for both testbed management and Done to Support the experimentation for the optical x-haul network in the COSMOS testbed OEM Eco–system – Panel providing a service-on-demand Debate and reconfigurable platform for 5G wireless experiments coupled with 15:00–17:00, Theater II edge cloud services.

T3I.5 • 15:00 T3J.4 • 15:00 T3K.4 • 15:00 Computationally Efficient 120 Gb/s/ uABNO: A Cloud-native Architecture Real-time Node Local Control for PWL Equalized 2D-TCM-PAM8 in for Optical SDN Controllers, Ricard Ultra-dynamic and Deterministic Dispersion Unmanaged DML-DD Vilalta1, Juan Luis de la Cruz1, Arturo All-optical Intra Data Center Net- System, Yan Fu1,2, Deming Kong2, Mayoral López-de-Lerma2, Victor Lo- works, Mijail Szczerban1, José Estarán Haiyun Xin1,2, Meihua Bi1,3, Shi Jia2, pez2, Ricardo Martínez1, Ramon Casel- Tolosa1, Nihel D. Benzaoui1, Haik Kuo Zhang1, Weisheng Hu1, Hao las1, Raul Muñoz1; 1CTTC, Spain; 2Tele- Mardoyan1, Yvan Pointurier1; 1Nokia Hu2; 1Shanghai Jiao Tong Univ., fónica gCTIO/I+D, Spain. We present Bell Labs, France. We enable ultra- China; 2Fotonik, Technical Univ. of a cloud-native architecture for Optical dynamic features in scheduled optical Denmark, Denmark; 3Hangzhou Di- SDN Controllers based on ABNO data centers through a novel control anzi Univ., China. We proposed a PWL architecture and gRPC interfaces, mechanism local to each node. We equalizer in 120 Gb/s 2D-TCM-PAM8 which is demonstrated and evaluated. experimentally show sub-μs resource based DML-DD system to correct eye Autoscaling mechanisms for high allocation, at least halving distributed skew. Computationally efficient 120 request loads and auto-healing computing application completion Gb/s 8-state 2D-TCM-PAM8 over 2 km support are evaluated. time. C-band transmission is demonstrated below HD-FEC(3.8e-3).

OFC 2020 • 8–12 March 2020 87 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

T3A.3 • 15:15 T3D.5 • 15:15 Low-loss Low-MDL Core Multiplexer Digital Self-coherent Continuous for 3-Core Coupled-core Multi-core Variable Quantum Key Distribution Fiber, Sjoerd P. van der Heide2,1, Juan System, Tobias A. Eriksson1,2, Ruben Carlos Alvarado Zacarias2,3, Nicolas S. Luis1, Kadir Gumus3, Georg Radem- K. Fontaine2, Roland Ryf2, Haoshuo acher1, Benjamin J. Puttnam1, Hideaki Chen2, Rodrigo Amezcua Correa3, Ton Furukawa1, Naoya Wada1, Yoshinari Koonen1, Chigo M. Okonkwo1; 1Eind- Awaji1, Alex Alvarado3, Masahide hoven Univ. of Technology, Nether- Sasaki1, Masahiro Takeoka1; 1National lands; 2Nokia Bell Labs, USA; 3CREOL, Inst of Information & Comm Tech Univ. of Central Florida, USA. A fiber- (NICT), Japan; 2Royal Inst. of Tech- based core multiplexer is designed, nology (KTH), Sweden; 3Eindhoven fabricated, and evaluated. Insertion Univ. of Technology, Netherlands. We losses vary between 0.74 dB and 0.91 investigate a continuous variable Tuesday, 10 March Tuesday, dB. Digital holography reveals mode- quantum key distribution system with dependent loss fluctuates between 0.3 digital tracking of both polarization dB and 0.9 dB across C- and L-band. and phase. Stable operation over 25km for 36 hours with secret key rates between 1.9 and 2.8 Mbit/s is demonstrated.

T3A.4 • 15:30 Invited T3C.6 • 15:30 T3D.6 • 15:30 T3E.4 • 15:30 Invited Optical Thermodynamics of Non- 850 nm Single-mode Surface-emit- Variational Quantum Demodulation Evolution to Mesh 5G X-Haul Net- linear Highly Multimoded Sys- ting DFB Lasers with Surface Grating for Coherent Optical Multi-dimen- works, Jiakai Yu1, Shengxiang Zhu1, 1 tems, Demetrios N. Christodou- and Large-area Oxidized-aper- sional QAM, Toshiaki Koike-Akino , Daniel C. Kilper1; 1Univ. of Arizona, 1 1 2 1 lides1; 1Univ. of Central Florida, USA. ture, Can Liu , Qiaoyin Lu , Weihua Toshiki Matsumine , Ye Wang , David USA. Development of optical x-haul 1 1 1 1 1 We present a consistent thermody- Guo , Pengfei Zhang , MinWen Xiang , S. Millar , Keisuke Kojima , Kieran networks is driven by 5G wireless radio 1 1 1 1 1 namical theory capable of describing Xiang Ma , Chun Jiang , Gonghai Liu , Parsons ; Mitsubishi Electric Re- requirements. The potential of a mesh 1 2 1 2 in a universal fashion the complex be- Quanan Chen , Bao Tang ; Huazhong search Labs, USA; Yokohama National optical x-haul architecture merging havior of nonlinear highly multimoded Univ. of Science and Technology, Univerrsity, Japan. We introduce a WDM-PON and DWDM-ROADM 2 optical fibers. New equations of state China; China Information and Com- hybrid quantum-classical variational networks is examined with respect are derived based on the second law munication Technology Group Cor- algorithms to realize quasi-ML decision to 5G requirements in metropolitan of thermodynamics. poration, China. 850 nm single-mode of high-dimensional modulation networks. surface-emitting DFB laser based (HDM) in fiber-optic communications, on surface gratings has achieved a motivated by the recent advancement threshold current of 1.8 mA and a of quantum processors. Our Ising side-mode suppression-ratio of 47 Hamiltonian model for demodulation dB for a large-area oxidized-aperture is demonstrated on a real quantum (2×50 µm2). processor.

88 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show FloorShow Programming Floor ProgrammingContinued T3G • Panel: As we T3H • Silicon Photonics T3I • Short-reach T3J • Orchestration and T3K • Intra Data Center Approach Shannon Applications—Continued Systems II—Continued Control—Continued Networks I—Continued  MW Panel III: Optical Limit, How do we Interconnect and Precisely Assess Computing for Scaling the Performance Machine Learning (ML) of Coherent Systems Transponders for Field Deployment?— 14:30–16:00, Theater I Continued Standards Update on 5G T3H.5 • 15:15 T3I.6 • 15:15 T3J.5 • 15:15 Invited T3K.5 • 15:15 Transport (and more) Up to 30-fold BER Improvement Us- Supporting Low-latency Service Coherently Sub-grouped µDC-Pod Real-time Demonstration of Sil- Tuesday, 10 March icon-photonics-based QSFP-DD ing a Data-dependent FFE Switching Migrations in 5G Transport Net- and -Interconnect with Analogue ITU-T SG15 400GBASE-DR4 Transceivers for Technique for 112Gbit/s PAM-4 VC- works, Jun Li1, Jiajia Chen1; 1Chalm- EML Transceivers Operated in 1 1 14:45–15:45, Theater III Datacenter Application, Chongjin SEL Based Links, Urs Hecht , Nikolay ers Univ. of Technology, USA. This TDMA, Bernhard Schrenk , Nemanja 2 2 1 1 Xie1, Peter Magill2, David Li3, Yinx- Ledentsov Jr. , Lukasz Chorchos , Pat- paper concentrates on low-latency Vokic , Dinka Milovancev , Paraskevas 1 2 2 3 1 ing Zhang1, Long Zheng3, Anbin rick Kurth , Nikolay Ledentsov , Friedel service migration in transport Bakopoulos , Fotini Karinou ; AIT Aus- 1 1 2 2 Embedded Optics and Wang1, Yun Bao1, Chunchun Sui1, Gerfers ; TU Berlin, Germany; VI networks, where edge computing trian Inst. of Technology, Austria; Mel- 3 Matthew Streshinsky2, Jianwei Mu3, Systems, Germany. In this paper, a is employed for ultra-low end-to- lanox Technologies Ltd, Israel; Micro- How They Should Be Sigeng Yang3, Wanju Sun3; 1Alibaba dynamic non-linear data-dependent end latency communications in 5G, soft Research Ltd., UK. We exploit an Done to Support the Group, USA; 2Elenion Technologies, FFE coefficient switching technique, and demonstrates that rapid service IM/DD transmitter as coherent receiver OEM Eco–system – Panel USA; 3Hisense Broadband, China. We achieving an up to 30-fold decrease migration significantly reduces end- for filterless micro-datacenter pods demonstrate a real-time silicon- in BER in comparison to the linear to-end packet delay. and their interconnect. A transistor- Debate photonics-based 400GBASE-DR4 FFE, is presented. Using the structure outline EML performs coherent ho- 15:00–17:00, Theater II transceiver packaged in a QSFP-DD 56Gbaud PAM-4 is demonstrated. modyne reception under a 240kHz form factor. The performance of TDMA frame with 139ns guard interval the transmitter including TDECQ, between free-running transmitters. extinction ratio and OMA and receiver sensitivity are measured, all satisfying IEEE 400GBASE-DR4 specifications.

T3H.6 • 15:30 T3I.7 • 15:30 T3K.6 • 15:30 400Gbps Fully Integrated DR4 Dual-SSB Modified Duobinary PAM4 Data Analytics Practice for Reliability Silicon Photonics Transmitter for Signal Transmission in a Direct Management of Optical Transceivers Data Center Applications, Haijiang Detection System without using in Hyperscale Data Centers, Jianq- 1 1 1 2 Yu1, Pierre Doussiere1, David Patel1, Guard Band, Jingchi Li , Shaohua An , iang Li , Zhicheng Wang , Chunxiao 1 1 1 2,3 2 2 Wenhua Lin1, Kadhair Al-hemyari1, Xingfeng Li , Yikai Su ; Shanghai Jiao Wang , Qin Chen , Peng Wang , 2 3 Jung Park1, Catherine Jan1, Robert Tong Univ., China. We experimentally Rui Lu , Songnian Fu , Chongjin 4 1 2 Herrick1, Isako Hoshino1, Lincoln Bus- demonstrate a single-carrier dual-SSB Xie ; Alibaba Group, USA; Alibaba 3 selle,1, Michael Bresnehan1, Adam signal generation without guard band Group, China; Huazhong Univ. of Sci- 4 Bowles1, George Ghiurcan1, Harel based on a low-cost DDMZM. A 112- ence and Technology, China; Alibaba Frish1, Shane Yerkes1, Ranju Venables1, Gb/s dual-SSB modified duobinary Group, USA. There are limitations Pegah Seddighian1, Xavier Serey1, PAM4 signal is transmitted over 80-km when directly interpreting reliability Kimchau Nguyen1, Animesh Banerjee1, SMF by using a MIMO linear equalizer. information of optical transceivers Siamak Amiralizadeh Asl,1, Qing Zhu1, from manufacturers to end users. Data Sushant Gupta1, Avi Fuerst1, Avsar analytics in a large optical transceivers’ Dahal1, Jian Chen1, Yann Malinge1, population is studied for data center Hari Mahalingam1, Mike Kwon1, Gupta operators with a case study. Sanjeev1, Agrawal Ankur1, Raghuram Narayan1, Daniel Zhu1, Yuliya Aku- lova1; 1Intel Corporation, USA. A 400Gbps PAM-4 fully integrated DR4 silicon photonics transmitter with four heterogeneously integrated DFB lasers has been demonstrated for data center applications over a temperature range of 0~70°C and a reach of up to 2km.

OFC 2020 • 8–12 March 2020 89 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

T3C.7 • 15:45 T3D.7 • 15:45 Micro-transfer-printed III-V-on-silicon Simple and Robust QKD System Distributed Feedback Lasers, Ba- with Qubit4Sync Temporal Syn- hawal Haq1,2, Sulakshna Kumari1,2, chronization and the POGNAC Jing Zhang1,2, Agnieszka Gocalinska3, Polarization Encoder, Costantino Emanuele Pelucchi3, Brian Corbett3, Agnesi1, Luca Calderaro1, Marco Aves- Gunther Roelkens1,2; 1INTEC, Ghent ani1, Andrea Stanco1, Giulio Foletto1, Univ.-imec, Belgium; 2Center of Nano- Mujtaba Zahidy1, Alessia Scriminich1, and Biophotonics, Belgium; 3Tyndall Francesco Vedovato1, Giuseppe Val- National Inst., Ireland. We report on lone1, Paolo Villoresi1; 1Dip. Ingeg- III-V-on-silicon DFB lasers realized by neria dell’Informazione, Università micro-transfer-printing pre-fabricated degli Studi di Padova, Italy. Here III-V semiconductor optical amplifiers we present a simple and robust polarization encoded QKD system that Tuesday, 10 March Tuesday, on a silicon waveguide circuit comprising a first-order quarter wave performs synchronization, polarization shifted grating. Single mode operation compensation and QKD with the same at 1530 nm is demonstrated. optical setup without requiring any changes or any additional hardware.

16:00–16:30 Coffee Break, Upper Level Corridors and Exhibit Hall

90 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show FloorShow Programming Floor ProgrammingContinued T3G • Panel: As we T3H • Silicon Photonics T3I • Short-reach T3J • Orchestration and T3K • Intra Data Center Approach Shannon Applications—Continued Systems II—Continued Control—Continued Networks I—Continued  MW Panel III: Optical Limit, How do we Interconnect and Precisely Assess Computing for Scaling the Performance Machine Learning (ML) of Coherent Systems Transponders for Field Deployment?— 14:30–16:00, Theater I Continued Standards Update on 5G T3H.7 • 15:45 T3J.6 • 15:45 T3K.7 • 15:45 Top-Scored Transport (and more) Intent Defined Optical Network: Scaling HPC Networks« with Co- A Fully Integrated 25 Gb/s Si Ring Tuesday, 10 March 1 ITU-T SG15 Modulator Transmitter with a Tem- Toward Artificial Intelligence-based packaged Optics, Pavlos Maniotis , perature Controller, Minkyu Kim1, Optical Network Automation, Kai- Laurent Schares1, Benjamin Lee1, Marc 14:45–15:45, Theater III Min-Hyeong Kim1, Youngkwan Jo1, xuan Zhan1, Hui Yang1, Qiuyan Yao1, Taubenblatt1, Daniel Kuchta1; 1IBM TJ Hyun-Kyu Kim1, Stefan Lischke2, Chris- Xudong Zhao1, Ao Yu1, Jie Zhang1, Watson Research Center, USA. We tian Mai2, Lars Zimmermann2,3, Woo- Young Lee2; 1State Key Laboratory propose an HPC network architecture Embedded Optics and Young Choi1; 1Department of Electrical of Information Photonics and Opti- with co-packaged optics enabling 128- and Electronics Engineering, Yonsei cal Communications, Beijing Univ. port 51.2-Tb/s switches. Simulations How They Should Be Univ., Korea (the Republic of); 2IHP, of Posts and Telecommunications, for a >34,000-accelerator system show Done to Support the Germany; 3Technische Universitaet China; 2Huawei Technologies Co., up to 11.2x throughput improvement OEM Eco–system – Panel Ltd, China. Toward AI-based optical over the Summit supercomputer, Berlin, Germany. We realized a fully Debate integrated 25Gb/s Si ring modulator network automated operation, we opening the way to direct-network- transmitter containing a tempera- propose an intent defined optical attached GPUs. 15:00–17:00, Theater II ture controller that guarantees the network (IDON) architecture with self- optimal ring modulator temperature adapted generation and optimization against any temperature perturba- (SAGO) policy. The feasibility and Accelerating ROI on the tion. The transmitter is implemented efficiency are verified on the enhanced Road to SDN with a 0.25-μm photonic BiCMOS SDN testbed. SDN technology. 16:00–17:00, Theater III

OIDA Roadmap on 16:00–16:30 Coffee Break, Upper Level Corridors and Exhibit Hall Quantum Photonics 16:15–17:00, Theater I

OFC 2020 • 8–12 March 2020 91 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

16:30–18:00 16:30–18:00 16:30–18:00 16:30–18:30 16:30–18:30 16:30–18:00 T4A • Radio-over-fiber T4B • Machine Learning T4C • Neuromorphic II: T4D • AI Assisted Access T4E • Symposium: T4F • Quantum Technologies for 5G for Fiber Amplifier and Entire Aspect Networks Emerging Network Networking and Presider: HyunDo Jung Sensors Presider: To be Announced Presider: Elaine Wong; Univ. Architectures for 5G Artifiicial Intelligence Presider: Chigo Okonkwo; of Melbourne, Australia Edge Cloud (Session 2) Presider: Bruce Cortez; AT&T Technische Universiteit Labs, USA Eindhoven, Netherlands

T4A.1 • 16:30 Invited T4B.1 • 16:30 T4C.1 • 16:30 T4D.1 • 16:30 T4E.1 • 16:30 Invited T4F.1 • 16:30 Tutorial 5G mmWave Commercial Trial Intelligent Gain Flattening of VCSELs for Fast Neuromorphic Combining Efficient Probabilistic Multi-Access Edge Computing Archi- Toward a Scalable Hybrid Quantum for Vertical Applications, Jongsik FMF Raman Amplification by Photonic Systems Operating at Shaping and Deep Neural Network tecture for Application-specific New Cloud, Maria Spiropulu1; 1California 1 Lee1; 1KT, Korea (the Republic of). This Machine Learning Based Inverse GHz Rates, Matěj Hejda , Joshua to Mitigate Capacity Crunch in 5G Radio Access Networks, Gee-Kung Inst. of Technology, USA. Abstract 1 1 1 1 1 presentation gives you the brief Design, Yufeng Chen , Jiangbing Robertson , Julián Bueno , Antonio Fronthaul, Qi Zhou , Rui Zhang , You- Chang, Georgia Institute of Technol- not available. 1 1 2 1 1 1 1 introduction of 28GHz mmWave 5G Du , Yuting Huang , Ke Xu , Zuyu- Hurtado ; Inst. of Photonics, Dept. of Wei Chen , Shuyi Shen , Shang-Jen ogy, USA. Perspective and challenge 1 1 1 2 trial in South Korea. Especially, the an He ; Shanghai Jiao Tong Univ., Physics, Univ. of Strathclyde, UK. We Su , Jeffrey Finkelstein , Gee-Kung of the MEC implementation, merging 2 1 1 trial network configuration and the China; Harbin Inst. of Technology report experimentally on VCSEL- Chang ; Georgia Inst. of Technology, with the RAN architecture for beyond- 2 test result of 5G use cases such as (Shenzhen), China. We report an based artificial optical spiking neurons USA; Cox Communications, Geor- 5G mobile networks are discussed autonomous vehicle and smart factory/ intelligent gain flattering method for with ultrafast spiking refractory period; gia. We experimentally demonstrate from futuristic use-cases point-of- office is presented. rapid, precise and objective driven hence allowing operation at GHz rates. a capacity-approaching transmission view, including mobile operators and FMF Raman amplifier design, by This feature is used to demonstrate all- in 5G fronthaul utilizing PS-PAM8 and application developers. Featuring using machine learning based inverse optical digital-to-spiking information DNN. An 80-Gb/s over 20-km SSMF demonstrations with AI/ML are also design method to optimize the pump format conversion at 1.0 Gbps. transmission performance is realized highlighted. wavelengths, powers and mode with a beyond 7.3-dB gross gain over contents. uniform PAM modulations with linear Tuesday, 10 March Tuesday, post-equalization.

T4B.2 • 16:45 « Top-Scored T4C.2 • 16:45 T4D.2 • 16:45 Experimental Demonstration of Micro-ring-resonator Based Passive FPGA Implementation of Deep Arbitrary Raman Gain-profile De- Photonic Spike-time-dependent- Neural Network Based Equaliz- signs Using Machine Learning, Ui- Plasticity Scheme for Unsupervised ers for High-Speed PON, Noriaki 1 2 1 ara C. de Moura1, Francesco Da Learning in Optical Neural Net- Kaneda , Ziyi Zhu , Chun-Yen Chuang , 1 1 1 Ros1, Ann Margareth Rosa Brusin2, works, Charis Mesaritakis , Menelaos Amitkumar Mahadevan , Bob Farah , 1 1 2 1 Andrea Carena2, Darko Zibar1; 1DTU Skontranis , George Sarantoglou , Keren Bergman , Dora van Veen , 2 1 1 1 Fotonik, Technical Univ. of Den- Adonis Bogris ; Univ. of the Aegean, Vincent Houtsma ; Nokia Bell Labs, 2 2 mark, Denmark; 2DET, Politecnico Greece; Informatics and Computer USA; Columbia Univ., USA. A fixed- di Torino, Italy. A machine learning Engineering, Univ. of West Attica, point deep neural network-based framework for Raman amplifier design Greece. In this work, a photonic spike- equalizer is implemented in FPGA is experimentally tested. Performance time-dependent-plasticity scheme and is shown to outperform MLSE in in terms of maximum error over the based on high-order passive ring receiver sensitivity for 50 Gb/s PON gain profile is investigated for various resonators is demonstrated. Numerical downstream link. Embedded paral- fiber types and lengths, demonstrating simulations confirmed the validity of lelization is proposed and verified to highly-accurate designs. the approach assuming post and pre- reduce hardware resources. synaptic quantum dot laser neurons.

92 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show FloorShow Programming Floor ProgrammingContinued 16:30–18:00 16:30–18:00 16:30–18:00 16:30–18:30 T4G • Optical Transmitter T4H • Quantum Dots and T4I • Long-haul T4J • Multi-core Fibers Embedded Optics and Sub-systems Novel III-V Devices Systems and Non-linear Presider: Taiji Sakamoto; How They Should Be Presider: Ben Puttnam; Presider: Geert Morthier; Mitigation NTT Access Service Systems Done to Support the Ghent Univ., INTEC, Belgium Laboratories, Japan National Inst Info & Comm Presider: Rene-Jean OEM Eco–system – Panel Tech (NICT), Japan Essiambre; Nokia Debate Corporation, USA 15:00–17:00, Theater II T4G.1 • 16:30 Top-Scored T4H.1 • 16:30 T4I.1 • 16:30 Invited T4J.1 • 16:30 Transmitter Bandwidth« Extension Thermal Impedance and Gain Advanced Nonlinear Perturba- Asymmetrically Arranged 8-core Accelerating ROI on the Fibers with Center Core Suitable for Using Optical Time-interleaving Switching of 1550 nm Room Tem- tion Theory in Coherent WDM Road to SDN Modulator and Digital Spectral perature Continuous-wave Electri- Systems, Amirhossein Ghazi- Side-view Alignment in Datacenter 1 Tuesday, 10 March Weaver, Hiroshi Yamazaki2, Masanori cally Pumped Laser Diode Mono- saeidi1; 1Nokia Bell Labs France, Networks, Yusuke Sasaki , Masaki SDN 1 1 Nakamura2, Takashi Goh3, Toshikazu lithically Grown on Silicon, Bei Shi1, France. We review the theoretical Ozeki , Katsuhiro Takenaga , Kazuhiko 1 1 16:00–17:00, Theater III Hashimoto1, Yutaka Miyamoto2; 1NTT Sergio Pinna1, Hongwei Zhao1, Bowen efforts to develop models to analyze Aikawa ; Optical Technologies R&D Device Technology Laboratories, Song1, Jonathan Klamkin1; 1Univ. of fiber-optic coherent systems using Center, Fujikura Ltd., Japan. Eight- 2 core multicore fiber with the center Japan; NTT Network Innovation California Santa Barbara, USA. A perturbation analysis. We start with OIDA Roadmap Laboratories, Japan; 3NTT Device In- room-temperature continuous-wave models for the nonlinear signal-signal core and a cladding diameter of 125 novation Center, Japan. We generate electrically pumped quantum well laser distortions and continue to address μm is designed and fabricated. Side- 16:15–17:00, Theater I 150-Gbaud QAM signals by using an was realized on on-axis (001) silicon. nonlinear signal-noise interactions and view alignment with core identification optical time-interleaving modulator Measurements demonstrated lasing SOA-induced distortions. is realized owing to asymmetrically driven with 38.1-GHz-bandwidth up to 65°C, a thermal impedance of core arrangement for the first time. sub-signals. A digital spectral weaver 8.1°C/W, and a narrow gain-switched enables generation of arbitrary optical pulse width of 1.5 ns. bandwidth-extended signals with a simple filter-less optical configuration.

T4G.2 • 16:45 T4H.2 • 16:45 T4J.2 • 16:45 Fixed-rate-breaking All-optical High Performance 1.3 μm Aluminum- Distributed Supermode Coupling OFDM System Using Time-domain Free Quantum Dot Lasers Grown by Measurements in Multi-core Opti- 1 Hybrid PAM with Sparse Subcar- MOCVD, Lei Wang1, Hongwei Zhao1, cal Fibers, Riccardo Veronese , Juan 2 rier Multiplexing and Power-loading Bei Shi1, Sergio Pinna1, Simone S. Carlos Alvarado Zacarias , Sjoerd 2 for Optical Short-reach Transmis- Brunelli1, Fengqiao Sang1, Bowen van der Heide , Rodrigo Amezcua 3 2 sion, Takahiro Kodama1,2, Akihiro Song1, Jonathan Klamkin1; 1Electri- Correa , Haoshuo Chen , Roland 2 2 Maruta2, Naoya Wada3, Gabriella cal and Computer Engineering, Ryf , Nicolas K. Fontaine , Marco 1 1 Cincotti4; 1Kagawa Univ., Japan; 2De- Univ. of California, Santa Barbara, Santagiustina , Andrea Galtarossa , 1 1 partment of Electrical, Electronics and USA. MOCVD grown aluminum- Luca Palmieri ; Universita degli Studi 2 Information Engineering, Osaka Univ., free quantum dot lasers have been di Padova, Italy; Nokia Bell Labs, 3 Japan; 3National Inst. of Information demonstrated with a maximum wall- USA; CREOL, The Univ. of Central and Communications Technology plug efficiency of 30%, a lowest Florida, USA. Coupling of supermodes (NICT), Japan; 4Engineering Depart- threshold current of 8 mA, and a in multicore fibers is investigated ment, Univ. Roma Tre, Italy. All-optical maximum single-facet output power exploiting an OFDR to measure each TDHP-OFDM system with four-sparse- of 200 mW. core when injecting light into another subcarrier-multiplexing and power- one. Distributed analysis of cross-core loading has been proposed for data- coupling is reported for the first time rate-adaptive transmission. 40-Gbit/s, in multicore fibers. 60-Gbit/s, and 80-Gbit/s can be selected by changing the ratio of PAM2 and PAM4, and all BERs achieve the FEC limit.

OFC 2020 • 8–12 March 2020 93 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

T4A • Radio-over-fiber T4B • Machine Learning T4C • Neuromorphic T4D • AI Assisted Access T4E • Symposium: T4F • Quantum Technologies for 5G— for Fiber Amplifier and II: Entire Aspect— Networks—Continued Emerging Network Networking and Continued Sensors—Continued Continued Architectures for 5G Artifiicial Intelligence— Edge Cloud Continued (Session 2) —Continued

T4A.2 • 17:00 T4B.3 • 17:00 T4C.3 • 17:00 Tutorial T4D.3 • 17:00 Invited T4E.2 • 17:00 Invited T4F.2 • 17:30 Invited Silicon Photonics to Add 5G RoF Load Aware Raman Gain Profile Neuromorphic Photonics, Paul Neural Network-based Equaliza- Title to be Announced, Rafael Artificial Intelligence in Opti- Services to PONs Employing Carrier Prediction in Dynamic Multi-band R. Prucnal1; 1Princeton Univ., tion in high-speed PONs, Lilin Francis1; 1Ciena, USA. Abstract not cal Networks, Shirshendu Bhat- 1 1 Reuse, Leslie Rusch , Mingyang Lyu , Optical Networks, Ann Margareth USA. Abstract not available. Yi1, Tao Liao1, Lei Xue1, Weisheng available. tacharya1; 1Google Zürich, Switzer- 1 1 1 2 Wei Shi ; ECE Dept. / COPL, Univ. Rosa Brusin , Uiara C. de Moura , An- Hu1; 1Shanghai Jiao Tong Univ., Chi- land. Artificial Intelligence may provide 1 1 Laval, Canada. We experimentally drea D’Amico , Vittorio Curri , Darko na. We introduce neural network solutions to problems previously 2 1 1 validate silicon photonics for passive Zibar , Andrea Carena ; Politecnico (NN)-based equalization in high- not solvable using conventional 2 optical networks enabling radio over di Torino, Italy; Technical Univ. of speed passive optical networks. Data techniques. In this paper, we discuss fiber on wavelength slots. We detect Denmark, Denmark. We introduce a feature engineering is proposed to potential AI applications related to an 8~GHz OFDM signal and five load aware machine learning method improve performance of NN-based challenges in optical networks. 125~MHz RF signals, and remodulate for prediction of Raman gain profiles. equalization. Besides, an unsupervised RoF onto a clean carrier. It enables future network controllers learning scheme for NN-based to manage seamless upgrades toward equalizer is proposed to train the multi-band optical line systems with model without known symbols of dynamic loads. received signal. Tuesday, 10 March Tuesday,

T4A.3 • 17:15 T4B.4 • 17:15 Design of Flexible Fronthaul Fea- Hybrid Machine Learning EDFA turing Per-UE Granularity and RU- Model, Shengxiang Zhu1, Craig Gut- level Puncturing for URLLC Appli- terman2, Alan D. Montiel3, Jiakai Yu1, cations, Yahya M. Alfadhli1, Shuang Marco Ruffini3, Gil Zussman2, Daniel Yao 1, Muhammad Shameer Omar1, C. Kilper1; 1Univ. of Arizona, USA; 2Co- Shang-Jen Su1, Shuyi Shen1, Rui lumbia Univ., USA; 3Trinity College Zhang1, You-Wei Chen1, Peng-Chun Dublin, Ireland. A hybrid machine Peng2, Gee-Kung Chang1; 1Georgia learning (HML) model combining Inst. of Technology, USA; 2Department a-priori and a-posteriori knowledge of Electro-Optical Engineering, Na- is implemented and tested, which is tional Taipei Univ. of Technology, Tai- shown to reduce the prediction error wan. We propose and experimentally and training complexity, compared verify a fine-grained, Per-UE, flexible to an analytical or neural network fronthaul where different applications learning model. are transported over different function splits (i.e., URLLC over A-RoF-based fronthaul, Option-9, and other traffic over Option-7), exploiting two RU- level puncturing methods.

94 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show Floor Programming T4G • Optical Transmitter T4H • Quantum Dots T4I • Long-haul T4J • Multi-core Fibers— Sub-systems—Continued and Novel III-V Devices— Systems and Non-linear Continued Continued Mitigation—Continued

T4G.3 • 17:00 T4H.3 • 17:00 T4I.2 • 17:00 T4J.3 • 17:00 32-Channel WDM Transmitter High Efficiency, High Gain and High Fast Adaptive Digital Back-propa- Experimental and Theoretical Analy- Based on a Single Off-the-shelf Saturation Output Power Quantum gation Algorithm for Unrepeatered ses of GAWBS Phase Noise in Transceiver and a Time Lens, Mads Dot SOAs Grown on Si and Ap- Optical Systems, José Hélio Cruz Multi-core Fiber for Digital Coher- 1,2 1 1 Lillieholm1, Xiaoyu Xu1, Peter D. plications, Songtao Liu1, Yeyu Tong2, Júnior , Tiago Sutili , Sandro M. ent Transmission, Naoya Takefushi , 1 1 1 1 Ekner1, Michael Galili1, Leif Oxenløwe1, Justin Norman1, Mario Dumont1, Rossi , Rafael Carvalho Figueiredo , Masato Yoshida , Keisuke Kasai , 2 1 2 1 Pengyu Guan1; 1Technical Univ. of Arthur Gossard1, Hon K. Tsang2, John Darli A. Mello ; CPQD, Brazil; School Toshihiko Hirooka , Masataka Na- Tuesday, 10 March 1 1 Denmark, Denmark. We demonstrate E. Bowers1; 1Univ. of California, Santa of Electrical and Computer Engineer- kazawa ; Research Inst. of Electri- simultaneous WDM-signal generation Barbara, USA; 2Electronic Engineer- ing, Univ. of Campinas, Brazil. We cal Communication, Tohoku Univ., using an optical time-lens and off-the- ing, The Chinese Univ. of Hong Kong, propose a gradient descent method Japan. We present the phase noise shelf components. 32 WDM-channels China. A high-performance quantum with momentum for the estimation caused by guided acoustic-wave with 50-GHz spacing are generated dot semiconductor optical amplifier of γ in DBP for unrepeatered links. Brillouin scattering (GAWBS) in a from a single SFP+ transceiver source directly grown on a CMOS compatible Fast convergence is achieved in the 125-µm four-core-fiber. Phase noise and received using another SFP+ after Si substrate is demonstrated to experimental transmission of 17x200- induced by higher-order TRn,m modes 50-km unamplified transmission. improve the receiver sensitivity in a Gb/s DP-16QAM over a 350-km was found to be dominant rather than filterless 60-Gbit/s NRZ transmission heterogeneous link. that of the R0,m mode. system over temperatures from 20°C to 60°C.

T4G.4 • 17:15 T4H.4 • 17:15 T4I.3 • 17:15 T4J.4 • 17:15 Full-duplex Coherent Optical System Monolithic Polarization Controller on Analysis of 34 to 101GBaud Subma- Evaluation of Dynamic Skew on Enabled by Comb-Based Injection Regrowth-free InGaAsP/InP Platform rine Transmissions and Performance Spooled and Deployed Multicore Locking Optical Process, Haipeng with Strained MQW Layer, Maiko Prediction Models, Jean-christophe Fibers Using O-band Signals, Ru- 1 1 1 1 Zhang1, Mu Xu1, Junwen Zhang1, Ito1, Kosuke Okawa1, Takahiro Sug- Antona , Alexis C. Carbó Meseguer , ben S. Luis , Benjamin J. Puttnam , 1 1 1 Zhensheng Jia1, Luis Alberto Cam- anuma1, Takuo Tanemura1, Yoshiaki Vincent Letellier , Sébastien Dupont , Georg Rademacher , Andrea Ma- 1 1 2 2 pos1; 1CableLabs, USA. A full-duplex Nakano1; 1School of Engineering, Richard Garuz , Philippe Plantady , rotta , Cristian Antonelli , Antonio 1 1 2 3 coherent optical link based on optical The Univ. of Tokyo, Japan. Carrier- Alain Calsat ; Alcatel Submarine Net- Mecozzi , Tetsuya Hayashi , Tetsuya 3 1 frequency comb and injection-locking injection-based polarization works, France. We analyze more than Nakanishi , Satoshi Shinada , Yoshinari 1 1 optical process is demonstrated. controller with strained MQW layer 100 subsea experiments with various Awaji , Hideaki Furukawa , Naoya 1 1 Simultaneous bi-directional is demonstrated. Based on novel configurations of rates, modulations, Wada ; National Inst of Information 2 transmission of 32-GBd DP-16QAM design concept, both polarization- powers, reach and show a format and & Comm Tech, Japan; Physical and signal over 80-km fiber is achieved rotating and phase-shifting sections rate agnostic, accurate QoT prediction Chemical Sciences, Univ. of L’Aquila, 3 with remote LO delivery. are integrated monolithically on tool. We particularly show the impact Italy; Sumitomo Electric Industries regrowth-free InGaAsP/InP platform of signal droop and the connection Ltd., Japan. We compare fluctuations to achieve efficient conversion over between GAWBS models based on of propagation delay and inter-core the entire Poincare sphere. spectral measurements and system skew on spooled and field-deployed impact. multicore fibers. Our observations show a reduction of propagation delay fluctuations over deployed fibers but similar inter-core skew behavior.

OFC 2020 • 8–12 March 2020 95 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

T4A • Radio-over-fiberr T4B • Machine Learning T4C • Neuromorphic T4D • AI Assisted Access T4E • Symposium: T4F • Quantum Technologies for 5G— for Fiber Amplifier and II: Entire Aspect— Networks—Continued Emerging Network Networking and Continued Sensors—Continued Continued Architectures for 5G Artifiicial Intelligence— Edge Cloud (Session Continued 2) —Continued

T4A.4 • 17:30 T4B.5 • 17:30 T4D.4 • 17:30 T4E.3 • 17:30 Invited Experimental Demonstration of Robust Convolutional Neural Transfer Learning Aided Neural Title to be Announced, Thomas A-RoF SDN for Radio Access Shar- Network Model for Wavelength Networks for Nonlinear Equaliza- Haynes1; 1Verizon Wireless Plan, ing Applications, Luiz Anet Neto1, Detection in Overlapping Fiber tion in Short-reach Direct Detection USA. Abstract not available. Wang Minqi1, Gaël Simon1, Feizheun Bragg Grating Sensor Network, Ba- Systems, Zhaopeng Xu1, Chuanbowen Lehanneur1, Anas El Ankouri1, Guil- ocheng Li1,2, Zhi-Wei Tan1, Perry Sun1, Tonghui Ji1,2, Honglin Ji1, William laume Lopere1, Dylan Chevalier1, Ping Shum1,2, Dora Juan Juan Hu3, Shieh1; 1Univ. of Melbourne, Austra- Philippe Chanclou1; 1Orange Labs, Chenlu Wang1,2, Yu Zheng1,2, Shuhui lia; 2Univ. of Science and Technology France. We experimentally assess a Liu4; 1Nanyang Technological Univ., Beijing, China. Transfer learning-aided radio access A-RoF mobile interface Singapore; 2CINTRA CNRS/NTU/ NNs are proposed for nonlinear with carrier-aggregated data-plane Thales, Singapore; 3Inst. for Info- equalization in a 50-Gb/s 20-km and IF-transposed Ethernet control- comm Research, Agency for Science, PAM4 link. About 90% reduction in plane. We also demonstrate software- Technology and Research, Singa- epochs and 56% in training symbols based management of two classes of pore; 4Hubei Key Laboratory of Optical are achieved with NNs transferred services associated to different PHY Information and Pattern Recognition, from the most similar source system. layer parameters. China. We have designed a CNN model to detect Bragg wavelengths in overlapping spectra. The mean

Tuesday, 10 March Tuesday, RMS error of 0.123pm and mean testing time of 12.4ms are achieved, which outperforms most of the existing techniques.

T4D.5 • 17:45 T4A.5 • 17:45 Top-Scored « Service-oriented DU-CU Placement Flexible 360o 5G mmWave Small Using Reinforcement Learning in Cell Coverage through WDM 4x1 5G/B5G Converged Wireless-optical Gb/s Fiber Wireless Fronthaul and Networks, Yuming Xiao1, Jiawei a Si3N4 OADM-assisted Massive Zhang1, Zhengguang Gao1, Yuefeng MIMO Phased Array Antenna, Eu- Ji1; 1Beijing Univ of Posts & Telecom, genio Ruggeri1, Apostolos Tsakyridis1, China. We propose a reinforcement Christos Vagionas1, George Kalfas1, learning based DU-CU placement Ruud M. Oldenbeuving2, Paul W. scheme to accommodate diversified Dijk2, Chris G. Roeloffzen2, Yigal services in 5G/B5G networks. It Leiba3, Nikos Pleros1, Amalia Mil- outperforms ILP model and widely iou1; 1Aristotle Univ. of Thessaloniki, used heuristics in terms of the service- Greece; 2LIONIX International B.V, scale and resource-saving respectively. Netherlands; 3Siklu Communication Ltd., Israel. Four Wavelength Division Multiplexed 1Gb/s QAM16 streams 17:15–18:15 Exhibitor Happy Hour, Center Terrace are transmitted through 10km fiber, an Optical Add/Drop Multiplexer and a V-band beamsteering antenna with 18:15–19:00 Celebrating 50 Years of Light-speed Connections - Keynote Presentation, Ballroom 20BCD 90° steering, demonstrating the first 5G Fiber-Wireless A-RoF architecture with 360o coverage. 19:00–20:30 Celebrating 50 Years of Light-speed Connections, Conference Reception, Sails Pavilion

19:30–21:30 Rump Session: When Will Copackaged Optics Replace Pluggable Modules in the Datacenter?, Room 6D

96 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show Floor Programming T4G • Optical Transmitter T4H • Quantum Dots T4I • Long-haul T4J • Multi-core Fibers— Sub-systems—Continued and Novel III-V Devices— Systems and Non-linear Continued Continued Mitigation—Continued

T4G.5 • 17:30 T4H.5 • 17:30 Invited T4I.4 • 17:30 Overcoming Low-power Limita- III-V Micro- and Nano-lasers Grown Cost-effective Solution for High- tions on Optical Frequency Combs on Silicon Emitting in the Telecom Capacity Unrepeatered Transmis- 1 1 1 1 2 Using a Micro-ring Resonator, Bill P. Band, Kei May Lau , Yu Han , Si Zhu , sion, Tiago Sutili , Pedro F. Neto , Fábio 1 1 1 1 2 Corcoran1, Chawaphon Prayoonyong1, Wei Luo , Ying Xue ; Hong Kong D. Simões , Gabriel Junco Suzigan , 1 1 Andreas Boes2, Xingyuan Xu3, Mengxi Univ of Science and Technology, Rafael Carvalho Figueiredo ; CPQD, 2 Tan 3, Sai T. Chu4, Brent E. Little5, Ro- Hong Kong. We present our recent Brazil; Padtec S.A., Brazil. A cost- Tuesday, 10 March berto Morandotti6,7, Arnan Mitchell2, effort on the integration of 1.5 µm effective 310-km SSMF unrepeatered David J. Moss3; 1Electical and Com- III-V micro-cavity lasers on (001) Si optical link employing off-the-shelf puter Systems Engineering, Monash wafers, and bufferless nano-lasers on EDFAs, 1st-order DRAs, and a ROPA Univ., Australia; 2School of Engineer- (001) silicon-on-insulators (SOI) via is experimentally demonstrated. An ing, RMIT Univ., Australia; 3Centre for direct hetero-epitaxy by metal organic iterative optimization process enabled Micro-Photonics, Swinburne Univ., chemical vapor deposition. a 12.8-Tbps net transmission (37.5- Australia; 4Dept. Physics and Material GHz spaced 128 channels x 100 Gbps). Science, City Univ. of Hong Kong, China; 5Xi’an Inst. of Optics and Precision Mechanics, Chinese Acad- emy of Sciences, China; 6EMT, INRS, Canada; 7ITMO Univeristy, Russian Federation. We show that filtering of an optical frequency comb with a high quality-factor ring resonator enables the use of amplified low power combs as a multi-wavelength source. This approach improves effective source OSNR by 10 dB. T4G.6 • 17:45 T4I.5 • 17:45 Kerr Soliton Microcomb Pumped by Demonstration of 3,010 km WDM an Integrated SBS Laser for Ultra- Transmission in 3.83 THz Bandwidth 1 Low Linewidth WDM Sources, Mark Using SOAs, Matt Mazurczyk , Jin- 1 1 W. Harrington1, Grant M. Brodnik1, Tra- Xing Cai , Milen Paskov , William Pat- 1 1 1 vis C. Briles2, Jordan R. Stone2, Richelle terson , Oleg V. Sinkin , Yue Hu , Carl 1 1 H. Streater2, Scott B. Papp2,3, Daniel Davidson , Patrick Corbett , Timothy 1 1 J. Blumenthal1; 1Univ. of California at Hammon , Maxim Bolshtyansky , 1 Santa Barbara, USA; 2Time and Fre- Dmitri G. Foursa , Alexei N. Pilip- 1 1 quency Division 688, National Inst. of etskii ; SubCom, USA. We transmit Standards and Technology, USA; 3Univ. 5.53Tb/s over 3,010km using SOAs, 17:15–18:15 Exhibitor Happy Hour, Center Terrace of Colorado, Boulder, USA. An ultra- ultralow-loss fibers (0.145dB/km) and low linewidth WDM comb is realized a new coded modulation format with using an integrated SiN SBS laser to SE=1.5 b/s/Hz. C-band transmission 18:15–19:00 Celebrating 50 Years of Light-speed pump a 128 GHz channel spacing SiN capacity in a ~602km circulating loop Connections - Keynote Presentation, Ballroom 20BCD Kerr soliton microring resonator. We testbed with 3.83THz bandwidth is measure the frequency noise of each confirmed with FEC of 25 C-band individual comb lines 19:00–20:30 Celebrating 50 Years of Light-speed yielding ultra-low ~10Hz fundamental Connections, Conference Reception, Sails Pavilion and ~4.0kHz integral linewidths for high-capacity coherent WDM. 19:30–21:30 Rump Session: When Will Copackaged Optics Replace Pluggable Modules in the Datacenter?, Room 6D

OFC 2020 • 8–12 March 2020 97 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

07:30–08:00 Morning Coffee, Upper Level Corridors

08:00–10:00 08:00–10:00 08:00–10:00 08:00–10:00 08:00–10:00 08:00–10:00 W1A • Optical Input/ W1B • Multi-mode Fiber W1C • Novel Doped W1D • Short-reach W1E • Advances in W1F • Intra Data Center Output and Filters Technology Fiber Amplifier Interconnects Coherent PON Networks II Presider: Giampiero Presider: Xin Chen; Corning Presider: Efstratios Kehayas; Presider: Fred Buchali; Nokia Presider: Derek Nesset; Presider: Yvan Pointurier; Contestabile Inc, USA G&H, UK Bell Labs, Germany Huawei Technologies, Nokia Bell Labs, France Germany

W1A.1 • 08:00 Invited W1B.1 • 08:00 Invited W1C.1 • 08:00 W1D.1 • 08:00 Invited W1E.1 • 08:00 Top-Scored W1F.1 • 08:00 Improved Nd Doped Silica Fiber for « Ultrafast Laser-written Sub-compo- Deep Learning Imaging through Low-power Data Center Transpon- High-performance Preamble De- FOSphere: A Scalable and Modular E-band Amplification, 1 nents for Space Division Multiplex- Specialty Multi-mode Fibers, Jian Leily S. Kiani , ders Enabled by Micrometer-scale sign and Upstream Burst-mode Low Radix Fast Optical Switch 1 1 ing, Simon Gross1, Andrew Ross-Ad- Zhao2,1, Shengli Fan1, Jose Enrique An- Paul Pax , Derrek R. Drachenberg , Plasmonic Modulators, Benedikt Detection in 100 -Gb/s/ TDM Based Data Center Network, Fulong 1 1 λ ams1, Nicolas Riesen2, Sergio G. Leon- tonio-Lopez1, Axel Schülzgen1; 1Univ. Jay Dawson , Charles Boley , Cody Baeuerle2,1, Wolfgang Heni2,1, Claudia Coherent-PON, 1 Yan 1, Elham Kahan1, Xiaotao Guo1, 1 1 1 Junwen Zhang , Saval3, Michael J. Withford1; 1Mac- of Central Florida, USA; 2Photon- Mart , Victor Khitrov , Charles Yu , Hoessbacher2,1, Yuriy Fedoryshyn1, 1 1 Fu Wang1, Bitao Pan1, Xuwei Xue1, 1 1 Zhensheng Jia , Mu Xu , Haipeng quarie Univ., Australia; 2Univ. of ics Center, Boston Univ., USA. We Robert Crist , Matthew Cook , Nick Arne Josten1, Ueli Koch1, Christian 1 1 Shaojuan Zhang1, Nicola Calabret- 1 1 Zhang , Luis Alberto Campos , Curtis South Australia, Australia; 3The Univ. demonstrate a cost-effective, highly Schenkel , Michael Runkel , Michael Haffner1,6, Tatsuhiko Watanabe1, Chris- 1 1 ta1; 1Technology Univ. of Eindhoven, 1 1 Knittle ; CableLabs, USA. We propose Messerly ; Lawrence Livermore Na- 3 4 of Sydney, Australia. The increase in accurate, and fast-speed cell sensing topher Uhl , Horst Hettrich , Delwin robust, high-efficient preamble design Netherlands. We propose a novel tional Lab, USA. Building on previous 5 5 Internet data demand has resulted system enabled by the combination L. Elder , Larry R. Dalton , Michael and signal processing for upstream scalable and modular low-radix fast work, we have designed a Nd doped 3,4 1 1 in the development of novel optical of the disordered optical fiber and the Möller , Juerg Leuthold ; ETH Zurich, burst-mode detection in 100-Gb/s/λ optical switch based DCN with sphere fiber for E-band amplification. Model- 2 fibers. Ultrafast laser inscription is a deep-learning classifier. It is compat- Switzerland; Polariton Technologies TDM Coherent-PON. Using a 71.68-ns topology (FOSphere). Numerical ing results indicate a fiber design that 3 powerful tool to create 3D waveguide ible with both coherent and incoherent Ltd., Switzerland; Chair of Electronics preamble, we achieve 36-dB power analyses on 10880-server indicates is applicable to telecom amplifiers. circuits that can interface with these illumination. and Circuits, Saarland Univ., Germa- budget after50-km SMF and 20-dB that FOSphere achieves 4.1 μs server- new fiber types. ny; 4MICRAM Microelectronic GmbH, dynamic range. to-server latency and 2.6E-3 packet Germany; 5Department of Chemistry, loss at load 0.4. Univ. of Washington, USA; 6Physical Measurement Laboratory, National Inst. of Standards and Technology, W1C.2 • 08:15 USA. Plasmonic modulators allow for W1F.2 • 08:15 An Extended L-band EDFA Using high-speed data modulation beyond High-throughput Optical Circuit C-band Pump Wavelength, Cheng- 200GBd at the micrometer-scale and Switch for Intra-datacenter Net- min Lei1, Hanlin Feng1, Lixian Wang2, low driving voltages below 700mV. works Based on Spatial Super-chan- Younès Messaddeq1, Sophie LaRo- The compact footprint enables dense nels, Eiji Honda1, Yojiro Mori1, Hiroshi chelle1; 1Center for Optics, Photonics integration and makes plasmonic Hasegawa1, Ken-ichi Sato2; 1Nagoya and Lasers, Université Laval, Cana- modulators a promising solution for Univ., Japan; 2The National Inst. of da; 2Huawei Technologies Canada, next-generation optical interconnects. Advanced Industrial Science and Tech- Canada. We investigate an extended nology (AIST), Japan. We propose a Wednesday, 11 March Wednesday, L-band EDFA pumped by C-band novel optical circuit switch architecture wavelengths. A two-stage scheme based on spatial super-channels. with 1480 nm/1545.5 nm pumping We construct part of a 1,536×1,536 is demonstrated with 20-dB gain optical switch and its performance is over 1570-1620 nm and NF lower experimentally confirmed. The total than 5.7 dB. throughput of the switch reaches 2.1 Pbps.

98 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show Floor Programming

07:30–08:00 Morning Coffee, Upper Level Corridors

08:00–10:00 08:00–10:00 08:00–10:00 08:00–10:00 08:45–10:00 W1G • Trends in W1H • Symposium: W1I • Panel: Pros and W1J • Advanced W1K • Machine Free Space Optics Future Photonics Devices Cons of Low-margin Transmission Path Learning for Optical Communications fJ/bit Optical Networks Optical Networks Metrics Communication Systems Presider: Mohamed-Slim Enabled by Emerging Presider: Georg Mohs; TE Presider: Antonio Napoli; Alouini; King Abdullah Univ Optical Technologies SubCom, USA Infinera Corporation, of Sci & Technology, Saudi (Session 1) Germany Arabia

W1G.1 • 08:00 Tutorial W1H.1 • 08:00 Invited Traditional optical networks are over- W1J.1 • 08:00 Recent Trends of Free-space La- Electronic and Photonic Co-optimi- engineered due to conservative Leveraging Long-term QoT Aware- ser Communications for Satellites zation for fJ/bit Optical Links, Clint assumptions used in the planning ness for Capacity Boost of Pan- 1 Communications and Future Pros- Schow1; 1Univ. of California Santa process with regards to module char- European Network, Juraj Slovak , acteristics, system performance, and 1 2 pects, Morio Toyoshima1; 1National Barbara, USA. Abstract not available. Wolfgang Schairer , Donato Sperti , network fiber infrastructure, and due 2 2 Inst of Information & Comm Tech, Ja- Pedro Capela , Silvestre Martins , to the requirement to sustain many 3 4 pan. Space laser communications have Uffe Andersen , Anders Lindgren , years of error/failure-free operation 4 4 1 been verified in orbit recently by micro- Joakim Tjäder , Stefan Melin ; Infinera with limited reconfigurations (if any). 2 satellites, which will revolutionize Germany, Germany; Infinera Portugal, As a result, typical optical networks op- 3 4 space systems architecture. Many Portugal; Telia Carrier, Denmark; Te- erate with high performance margins satellite mega-constellations plan to lia Company, Sweden. Online quality and underutilized capacity. use space laser communications. The of transmission (QoT) monitoring trends and future prospects will be and validation enables conversion of However, modern optical networks unused margins into higher network presented. Wednesday, 11 March with flexible ROADMs, highly-configu- capacities. We quantify the benefit of rable transponders and (typically SDN- long-term performance awareness in based) software control may have a a Pan-European optical network of a shorter circuit life time than traditional Tier-1 operator. fixed optical networks. W1J.2 • 08:15 Furthermore, the ability to pull perfor- Exploring Channel Probing to De- mance data on many parameters in a termine Coherent Optical Transpon- ROADM or transponder every second der Configurations in a Long-haul or even faster enables unprecedented Network, Kaida Kaeval1, Danish visibility into the optical layer behavior. Rafique1, Kamil Blawat1, Klaus Grobe1, Helmut Griesser1, Jörg-Peter Elbers1, As we approach the practical limits Piotr Rydlichowski2, Artur Binczewski2, of spectral efficiency, one avenue to 3 1 Morio Toyoshima received his PhD Marko Tikas ; ADVA Optical, Germa- further increase capacity is to more 2 from the University of Tokyo, Japan, ny; Poznan Supercomputing and Net- accurately determine the actual per- 3 in 2003 in electronics engineering. He working Center, Poland; Tele2 Esto- formance of the optical network and joined NICT, Japan, in 1994 and has nia, Estonia. We use channel probing operate it at higher capacity with conducted several world first space la- to determine the best transponder lower margin. ser communication and basic quantum configurations for spectral services communication missions. He is now in a long-haul production network. This panel will investigate the new the Director of Space Communications An estimation accuracy better than trend for lower margin optical net- Laboratory in NICT since 2011. ±0,7dB in GSNR margin is obtained works. We will start with Network for lightpaths up to 5738km. Operator views and then have experts from Industry and academia discuss their challenges and solution proposals.

Continued on page 99

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W1A • Optical Input/ W1B • Multi-mode Fiber W1C • Novel Doped W1D • Short-reach W1E • Advances in W1F • Intra Data Center Output and Filters— Technology—Continued Fiber Amplifier— Interconnects— Coherent PON— Networks II—Continued Continued Continued Continued Continued

W1A.2 • 08:30 W1B.2 • 08:30 W1C.3 • 08:30 Invited W1D.2 • 08:30 W1E.2 • 08:15 Tutorial W1F.3 • 08:30 Invited Tapered Self-written Waveguide Modeling the Breakdown in De- Recent Advances on Radiation- Distortion-aware 2D Soft Decision Transceiver Technologies for Next- Scaling PULSE Data Center Net- between Silicon Photonics Chip and generacy for High-index-contrast hardened Optical Fiber Technolo- for VCSEL-MMF Optical PAM In- generation PON Networks, Dora work Architecture and Scheduling 1 1,2 Standard Single-mode Fiber, Yohei Ring Core Fiber, Mai Banawan , gies, Sylvain Girard1, Thierry Robin2, terconnection, Lin Sun , Jiangbing van Veen1, Vincent Houtsma1; 1Nokia Optical Circuits in Sub-microsec- 1 1 1 2 1 1 1 3 Saito , Kota Shikama , Tai Tsuchizawa , Lixian Wang , Sophie LaRochelle , Adriana Morana1, Gilles Mélin2, Alex- Du , Wenjia Zhang , Nan Chi , Chao Bell Labs, USA. We will review the onds, Joshua L. Benjamin1, Georgios 1 1 1 1 2 1 1 Hidetaka Nishi , Atsushi Aratake , Leslie Rusch ; Department of Elec- andre Barnini2, Aziz Boukenter1, Benoit Lu , Zuyuan He ; Shanghai Jiao Tong specific requirements for upgrading S. Zervas1; 1Univ. College London, 1 1 2 Norio Sato ; NTT Device Technology trical and Computer Engineering, Cadier2, Emmanuel Marin1, Laurent Univ., China; Hong Kong Polytechnic passive optical networks and present UK. PULSE, an optical circuit switched 2 3 Laboratories, Japan. The first self- COPL, Universite Laval, Canada; Hua- Lablonde1, Arnaud Laurent2, Youcef Univ., Hong Kong; Fudan Univ., recent research on high speed optical data center network, employs custom written waveguide applied to silicon wei Technologies Canada Co., Ltd., Ouerdane1; 1Universite Jean Monnet, China. A distortion-aware 2D soft transmission for Next-Generation ASIC schedulers to reconfigure photonics with a spot-size converter Canada. Our numerical model of France; 2iXblue, France. Optical fibers decision method of PAM signals TDM-, TWDM- and WDM-PONs circuits in 240 ns. The revised PULSE using a SiON waveguide achieves elliptical deformation of ring cores possess key advantages for integration have been proposed for VCSEL-MMF based on low cost optical and DSP architecture scales to 10,000s blades, low coupling loss and high alignment uncovers distinctly different behaviors in radiation-rich environments as parts interconnection system. Improvements technologies. achieves >95% sustained throughput, tolerance between a standard single- of lower and higher order OAM of communication systems, laser and application potential have been with low median 1.23μs and tail 145μs mode fiber and silicon photonics chip. modes. Degeneracy of modes, across sources, optical amplifiers, sensors. experimentally investigated on a 112- latencies, while consuming 115pJ/bit topological charge and polarization We reviewed how the understanding Gbps optical PAM-4/8 system using a and costing $9.04/Gbps. are laid bare in simulations. of the basic mechanisms of radiation multimode VCSEL. effects can be exploited to optimize W1A.3 • 08:45 W1B.3 • 08:45 their tolerance to the most challenging W1D.3 • 08:45 Vertical Optical Fiber Assembly Ultra-low Inter-mode-group Cross- environments 168Gbps PAM-4 Multimode Fi- on Silicon Photonic Chips Using talk Ring-Core Fiber Optimized ber Transmission through 50m 3D-curved Silicon Waveguide Cou- Using Neural Networks and Genetic using 28GHz 850nm Multimode plers, Youichi Sakakibara1, Tomoaki Algorithm, Chumin Shi1, Lei Shen2, VCSELs, Justin Lavrencik1, Siddharth Kiriyama2, Tomoya Yoshida1, Yuki Junwei Zhang1, Junyi Liu1, Lei Zhang2, Varughese1, Nikolay Ledentsov Atsumi1, Emiko Omoda1, Katsuhiro Jie Luo2, Jie Liu1, Siyuan Yu1; 1Sun Yat- Jr. 2,3, Lukasz Chorchos2,3, Nikolay Iwasaki2, Takashi Kato2; 1Natl Inst of Sen Univ., China; 2YOFC, China. We Ledentsov2, Stephen E. Ralph1; 1Geor- Adv Industrial Sci & Tech, Japan; 2Ko- design and fabricate a ring-core gia Inst. of Technology, USA; 2VI hoku Kogyo Co., Ltd., Japan. Using fiber whose refractive-index profile is Systems GmbH, Germany; 3Warsaw Dora van Veen received her PhD in UV adhesive mixed with glass spacer optimized using neural networks and Univ. of Technology, Poland. We electrical engineering from Univer- beads, vertical surface connection of genetic algorithm under fabrication experimentally demonstrate PAM-4 sity of Twente, Enschede. She is a optical fibers to silicon photonic chips constraints. Experimental results data rates beyond 160Gbps over Distinguished Member of Technical via elephant couplers was realized confirm ultra-low inter-mode-group 50m OM5 using unpackaged 850nm Staff at Nokia Bell Labs. Dr. van Veen with wavelength and polarization crosstalk of <-55 dB/km. VCSELs. Power penalties of PAM-4 are has widely published and holds many insensitiveness at temperatures from examined demonstrating maximum patents in the area of optical access, -18.5°C to 90°C. data rates, with and without FEC, over her current research is focused on 50m and 100m of fiber. high-speed PON. Wednesday, 11 March Wednesday,

100 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show Floor Programming W1G • Trends in W1H • Symposium: W1I • Panel: Pros and W1J • Advanced W1K • Machine Free Space Optics Future Photonics Devices Cons of Low-margin Transmission Path Learning for Optical Communications— fJ/bit Optical Networks Optical Networks— Metrics—Continued Communication Continued Enabled by Emerging Continued Systems—Continued Optical Technologies (Session 1)—Continued

W1H.2 • 08:30 Invited Speakers: W1J.3 • 08:30 Invited Femto-farad Nanophotonic Devices Standardizing Performance Met- David Boertjes, Ciena Corp., Canada for fJ/bit Signal Conversion, Kengo rics for Submarine Transmission Nozaki2,1, Shinji Matsuo2,3, Takuro Paths, Priyanth Mehta1; 1Ciena Can- Camille Delezoide, Nokia Bell Labs, Fujii2,3, Koji Takeda2,3, Eiichi Kura- ada, Canada. This paper describes France mochi2,1, Akihiko Shinya2,1, Masaya the progress and obstacles towards Notomi2,1; 1NTT Basic Research Labo- defining a universal performance Esther Le Rouzic, Orange Labs, France ratories, Japan; 2NTT Nanopho- metric for ultralong haul submarine tonics Center, Japan; 3NTT Device transmission paths. Sources of error Daniel Kilper, University of Arizona, Technology Laboratories, Japan. We and quantitative assessment of USA use a photonic-crystal platform to capacity prediction is also addressed. demonstrate opto-electronic devices Juraj Slovak, Infinera, Germany and integrated functions with a femto- farad capacitance. This allows us to Tim Stuch; Facebook Inc., USA realize amplifier-free photo-receiver, electro-optic modulator, and O-E-O signal converter operating in a fJ/bit energy consumption. W1K.1 • 08:45 Invited Advancing Classical and Quan- tum Communication Systems with 1 Machine Learning, Darko Zibar , Wednesday, 11 March Uiara C. de Moura1, Hou Man Chin1, Ann Margareth Rosa Brusin2, Nitin Jain1, Francesco Da Ros1, Sebastian Kleis3, Christian Schaeffer3, Tobias Gehring1, Ulrik L. Andersen1, Andrea Carena2; 1Technical Univ. of Denmark, Denmark; 2Politecnico Di Torino, Italy; 3Helmut Schmidt Univ., Ger- many. A perspective on how machine learning can aid the next--generation of classical and quantum optical communication systems is given. We focus on the design of Raman amplifiers and phase tracking at the quantum limit.

OFC 2020 • 8–12 March 2020 101 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

W1A.4 • 09:00 W1B.4 • 09:00 Tutorial W1C.4 • 09:00 W1D.4 • 09:00 W1F.4 • 09:00 Ultra-high Q Resonators and Sub- Advances in Few-mode Fiber De- O-band Bismuth-doped Fiber Ampli- 4×56-GBaud PAM-4 SDM Transmis- A 25.6 Tbps capacity 1024-port GHz Bandwidth Second Order Filters sign and Manufacturing, Pierre Sil- fier with 67 nm Bandwidth, Alek- sion Over 5.9-km 125-μm-Cladding Hipo aos Optical Packet Switch Ar- 1 1 λ in an SOI Foundry Platform, Deniz lard1; 1Prysmian Group, France. This sandr Khegai , Yan Ososkov , Sergei MCF Using III-V-on-Si DMLs, Niko- chitecture for Disaggregated Data- 1 1 1 1 1 Onural , Hayk Gevorgyan , Bohan tutorial will show how recent advances Firstov , Konstantin Riumkin , Sergey laos Panteleimon Diamantopoulos , centers, Nikolaos Terzenidis1,2, Apos- 1 1 1 1 1 1 Zhang , Anatol Khilo , Miloš A. in design and manufacturing have im- Alyshev , Alexander Kharakhordin , Hidetaka Nishi , Takuro Fujii , Kota tolos Tsakyridis1,2, George Giamou- 1 1 1 2 1 2 Popović ; Boston Univ., USA. We proved the performance of few-mode Elena Firstova , Fedor Afanasiev , Shikama , Takashi Matsui , Koji Take- giannis1,2, Miltiadis Moralis-Pegios1,2, 2 2 1 1,3 demonstrate racetrack resonators with fibers, and what are the challenges Vladimir Khopin , Alexey Guryanov , da , Takaaki Kakitsuka , Kazuhide Konstantinos Vyrsokinos3,2, Nikos 1 1 2 1 1 record-high quality factors reaching to turn them into implementable Mikhail Melkumov ; Fiber Optics Re- Nakajima , Shinji Matsuo ; NTT De- Pleros3,2; 1Informatics, Aristotle Univ. 6.6 million in a standard 220 nm silicon solutions. search Center of the Russian Academy vice Technology Labs, NTT Corpora- of Thessaloniki, Greece; 2Center for In- 2 2 photonics foundry platform, and first/ of Sciences, Russian Federation; G.G. tion, Japan; NTT Access Networks terdisciplinary Research & Innovation, second order filters with passbands Devyatykh Inst. of Chemistry of High- Service Systems Labs, NTT Corpora- Greece; 3Physics, Aristotle Univ. of 3 as narrow as 200 MHz, and 1-5 dB Purity Substances of the Russian tion, Japan; Graduate School of Thessaloniki, Greece. We demonstrate insertion loss. Academy of Sciences, Russian Federa- Information, Production and Systems, experimentally the feasibility of a tion. We present 30 dB Bi-P-doped Waseda Univ., Japan. We demonstrate 25.6Tb/s capacity Hipoλaos optical fiber amplifier from 1287 to 1354 nm. 4×56-GBaud PAM-4 signals over packet switch architecture with 1024 The wider bandwidth was achieved 125-μm-cladding, 4-core fiber by in/out ports operating at 25Gb/s, using inhomogeneous broadening of simultaneous, direct modulation of presenting successful contention bismuth active centers (BAC-P). Blue four 1.3-μm membrane III-V-on-silicon resolution and error-free operation shifted BAC-P were pumped at 1178 lasers, each requiring <25-mWatts with a control plane latency of 97.28ns. nm and generated laser radiation (@12 mA). A reach extension of ~15x is at 1276 nm which serves as a pump achieved compared to previous works. source for red shifted BAC-P Pierre Sillard received the engineering diploma of Telecom ParisTech, in 1994, and the PhD degree in Optics from the University of Paris VI in 1998. He W1A.5 • 09:15 W1C.5 • 09:15 W1D.5 • 09:15 W1E.3 • 09:15 W1F.5 • 09:15 has been working in the field of opti- Design and Characterization of Bismuth-doped Fiber Amplifier 1.12 Tbit/s Fiber Vector Eigenmode Performance Comparison of Coher- Experimental Assessments of a Flex- cal fibers and optical networks since Arbitrary Filters with an Integrated Operating in the Spectrally Adja- Multiplexing Transmission Over ent and Direct Detection Schemes ible Optical Data Center Network 1999, and he is now with Prysmian Spiral Si3N4/SiO2 Waveguide, Yi- cent to EDFA Range of 1425-1500 5-km FMF with Kramers-Kronig for 50G PON, Yixiao Zhu1, Bo Yang1, Based on Integrated Wavelength 1 1 Group in France. He has published 1,2 1 Wen Hu , Shengjie Xie , Jiahao nm, Vladislav Dvoyrin , Valery Mash- Receiver, Jianbo Zhang , Xiong Yiming Zhong1, Zheng Liu1, Yong Guo1, Selective Switch, Xuwei Xue1, Fumi 1 1 1 more than 250 papers and has been 3 1,2 1 1 1 2 Zhan , Yang Zhang , Sylvain Veilleux , insky , Sergei Turitsyn ; Aston Inst. Wu , Linyue Lu , Jianping Li , Jiajing Jun Shan Wey2, Xingang Huang1, Nakamura2, Kristif Prifti1, Bitao Pan1, 1 1 granted more than 100 patents. In 3 4 1 1 Mario Dagenais ; Univ. of Maryland, of Photonic Technologies, Aston Univ., Tu , Zhaohui Li , Chao Lu ; The Zhuang Ma1; 1ZTE Corporation, Chi- Fulong Yan1, Fu Wang1, Xiaotao Guo1, 2004, he received the TR35 innovator 2 USA. We report the optimization UK; Aston-NSU Centre for Photonics, Hong Kong Polytechnic Univ., Hong na; 2ZTE(Tx) Inc., USA. We investigate Hiroyuki Tsuda2, Nicola Calabret-

Wednesday, 11 March Wednesday, award from MIT Technology Review. 2 of reconstruction algorithm and Novosibirsk State Univ., Russian Fed- Kong; Guangdong Univ. of Technol- various coherent and direct detection ta1; 1Eindhoven Univ. of Technology, He is a member of the OSA and IEEE 3 3 4 experiment for an integrated arbitrary eration; Fiber Optics Research Center, ogy, China; Jinan Univ., China; Sun schemes with 50Gb/s/λ NRZ signal Netherlands; 2Keio Univ., Japan. A societies and he serves as a reviewer filter. A 43-notch filter near 1550 nm Russian Federation. We demonstrate Yat-sen Univ., China. We demonstrate through simulation. The receiver novel bandwidth-reconfigurable and committee member of several is implemented with an ultra-low- a Bi-doped fiber amplifier operating a 1.12 Tb/s MIMO-free vector eigen- sensitivity, the influence of frequency optical DCN exploiting photonic- journals and conferences. loss Si3N4/SiO2 spiral waveguide. All in the range of 1425-1500 nm with mode multiplexed signal transmission offset, LO power, laser linewidth, and integrated WSS is experimentally notches have uniform depths/widths the maximum gain of 27.9 dB, the over 5-km 4-mode few-mode-fiber fiber dispersion are studied for each assessed. Results show that optical of about 20 dB/0.2 nm. lowest noise figure of ~5 dB, and the using HE11 and EH11 vector modes, structure. bandwidth can be automatically maximum output power of 505 mW. 5 wavelengths and 28 GBaud 16-QAM reallocated according to the traffic signal with direct-detection Kramers- patterns with 1.75µs end-to-end Kronig receiver. latency and 0.015 packet-loss at 0.6 load.

102 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show Floor Programming W1G • Trends in W1H • Symposium: W1I • Panel: Pros and W1J • Advanced W1K • Machine Free Space Optics Future Photonics Devices Cons of Low-margin Transmission Path Learning for Optical Communications— fJ/bit Optical Networks Optical Networks— Metrics—Continued Communication Continued Enabled by Emerging Continued Systems—Continued Optical Technologies (Session 1)—Continued

W1G.2 • 09:00 W1H.3 • 09:00 Invited W1J.4 • 09:00 Tutorial Simultaneous Orthogonalizing and Plasmonics - Enabling Highest-speed From the Acceptance of Turnkey Shaping of Multiple LG Beams to Communications with fJ/bit Power Systems to Open Networks with Mitigate Crosstalk and Power Loss Consumption, Juerg Leuthold1; 1ETH G-SNR, Elizabeth Rivera Hartling1, by Transmitting Each of Four Data Zurich, Switzerland. Abstract not Stephen Grubb1, Tim Stuch1, Herve Channels on Multiple Modes in a available. Fevrier1; 1Facebook Inc., USA. This 400-Gbit/s Free-space Link, Kai tutorial will discuss collaboratively Pang1, Haoqian Song1, Xinzhou Su1, formed industry recommendations Kaiheng Zou1, Zhe Zhao1, Hao Song1, for characterizing Open Subsea Ahmed Almaiman1, Runzhou Zhang1, Cables, with the intent of assessment, Cong Liu1, Nanzhe Hu1, Shlomo Zach2, maximization and understanding Nadav Cohen2, Brittany Lynn3, Andreas of capacity potential, utilizing F. Molisch1, Robert W. Boyd4, Moshe methodologies to test key parameters Tur 2, Alan E. Willner1; 1Universit of such as G-SNR, among others. Southern California, USA; 2Tel Aviv Univ., Israel; 3Space & Naval Warfare Systems Center, Pacific, USA; 4Univ. of Rochester, USA. We experimentally utilize orthogonal combinations of multiple Laguerre-Gaussian modes

in a 400-Gbit/s free-space link with Wednesday, 11 March limited-size aperture or misalignment. Power loss and crosstalk could be reduced by up to ~15 dB and ~40 dB, respectively.

W1G.3 • 09:1 Top-Scored W1K.2 • 09:15 « Elizabeth Rivera Hartling is a Subsea Simultaneous Turbulence Mitiga- Maximizing Fiber Cable Capacity Un- Optical Network Architect at Face- tion and Mode Demultiplexing der A Supply Power Constraint Using book, focused on optimizing Face- 1 using one MPLC in a Two-Mode Deep Neural Networks, Junho Cho , book's Subsea Open Cable designs, 1 200-Gbit/s Free-space OAM-mul- Chandrasekhar Sethumadhavan , to build a scalable, high capacity, 3 4 tiplexed Link, Hao Song1, Xinzhou Erixhen Sula , Samuel Olsson , Ells- cost-effective subsea network to meet 1 1 Su1, Haoqian Song1, Runzhou Zhang1, worth C. Burrows , Gregory Raybon , Facebook's growing bandwidth de- 1 1 Zhe Zhao1, Kaiheng Zou1, Cong Roland Ryf , Nicolas K. Fontaine , mands. Hartling has been designing 5 Liu1, Kai Pang1, Nanzhe Hu1, Ahmed Jean-christophe Antona , Stephen and executing coherent solutions on 2 1 Almaiman1,3, Moshe Tur2, Alan E. Grubb , Peter Winzer , Andrew Chra- subsea cables since 2008. 1 1 2 Willner1, Shlomo Zach2, Nadav plyvy ; Nokia Bell Labs, USA; Face- 3 4 Cohen2, Andreas F. Molisch1, Rob- book, USA; EPFL, Swaziland; Nokia, 5 ert W. Boyd4,5; 1Univ. of Southern USA; ASN, France. We experimentally California, USA; 2Tel Aviv Univ., Is- achieve a 19% capacity gain per Watt rael; 3King Saudi Univ., Saudi Ara- of electrical supply power in a 12-span bia; 4Univ. of Ottawa, Canada; 5Univ. link by eliminating gain flattening of Rochester, USA. We experimentally filters and optimizing launch powers utilize a multi-plane light convertor using deep neural networks in a (MPLC) for simultaneous orbital- parallel fiber context. angular-momentum (OAM) mode demultiplexing and turbulence- induced crosstalk mitigation. Results show up to 15-dB reduction of crosstalk in a two-mode 200-Gbit/s OAM-multiplexed link.

OFC 2020 • 8–12 March 2020 103 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

W1C.6 • 09:30 W1D.6 • 09:30 W1E.4 • 09:30 W1F.6 • 09:30 Invited Tetrahedral-Cr Enhancement Em- Single λ 500-Gbit/s PAM Signal Real-Time Demonstration of 20-Gb/s Beyond Edge Cloud: Distributed ploying Dielectric Coating for Higher Transmission for Data Center In- QPSK Burst-mode Digital Coherent Edge Computing, Nihel D. Ben- Gain of Broadband Cr-doped Fiber terconnect Utilizing Mode Division Reception for PON Upstream under zaoui1; 1Nokia Bell Labs France, 1 1 Amplifiers, Chia-Ming Liu , Jhuo- Multiplexing, Fan Li , Dongdong Clock Frequency Mismatch of 1.0 France. High bandwidth demands 1 1 1 1 1 Wei Li , Liu Chun-Nien , Wei-Chih Zou ; Sun Yat-Sen Univ., China. Single MHz, Noriko Iiyama , Masamichi combined with low latency applications 1 1 1 1 1 Cheng , Charles Tu , Tien-Tsorng wavelength 502.5-Gbit/s MDM- Fujiwara , Takuya Kanai , Hiro Suzuki , lead the move from centralized cloud 2 3 1 1 1 Shih , Sheng-Lung Huang , Wood-Hi PAM-6 signal transmission over 20-m Jun-ichi Kani , Jun Terada ; NTT Ac- to distributed Edge Computing. 1 1 Cheng ; Graduate Inst. of Optoelec- OM2 fiber with BER below HD-FEC cess Network Service Systems Labo- We discuss how this paradigm shift -3 tronic Engineering, National Chung threshold (3.8×10 ) is demonstrated ratories, NTT Corporation, Japan. We impacts network interconnects design 2 Hsing Univ., Taiwan; Department for 400-G Data Center Interconnect demonstrate real-time burst-mode and the key network features to truly of Electronic Engineering, National without DSP for mode de-multiplex- coherent reception of 10-Gsymbol/s enable 5G and beyond. Kaohsiung Univ. of Applied Sciences, ing. This scheme shows good potential QPSK signals under 1.0-MHz clock Taiwan; 3Graduate Inst. of Photonics for future 800-G/1.6-T DCI. frequency difference between Tx and and Optoelectronics, National Taiwan Rx. Our sampling recovery proposal Univ., Taiwan. We report gross gain enables the dynamic range of 26.5 dB of 8.4-dB for 300-nm broadband at BER of 10E-3. single-mode Cr-doped crystalline core fiber (SMCCDF) employing dielectric coating, thermal annealing, W1E.5 • 09:45 and polarization pumping techniques. Rate-flexible Single-wavelength This gross gain is the highest yet TFDM 100G Coherent PON based demonstrated of the SMCDCCFs. on Digital Subcarrier Multiplex- ing Technology, Junwen Zhang1, Zhensheng Jia1, Haipeng Zhang1, Mu Xu1, Jingjie Zhu1, Luis Alberto Campos1; 1CableLabs, USA. We propose a novel rate-flexible single- wavelength 100G time-and-frequency- division multiplexing coherent PON architecture based on digital subcarrier multiplexing technology. The architecture implementation with four subcarriers is demonstrated, achieving -38-dB sensitivity after 50- Wednesday, 11 March Wednesday, km fiber transmission

10:00–13:00 Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30) Lunch Break (on own)

10:00–17:00 Exhibition and Show Floor, Exhibit Hall (concessions available in Exhibit Hall) OFC Career Zone Live, Exhibit Hall B2

104 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show Floor Programming W1G • Trends in W1H • Symposium: W1I • Panel: Pros and W1J • Advanced W1K • Machine Free Space Optics Future Photonics Devices Cons of Low-margin Transmission Path Learning for Optical Communications— fJ/bit Optical Networks Optical Networks— Metrics—Continued Communication Continued Enabled by Emerging Continued Systems—Continued Optical Technologies (Session 1)—Continued

W1G.4 • 09:30 W1H.4 • 09:30 Invited W1K.3 • 09:30 Beyond Terabit/s WDM Optical Ultra-efficient Optical Switching Experimental Prediction and Design Wireless Transmission using Wave- based on a Large Pockels Effect of Ultra-wideband Raman Amplifiers length-transparent Beam Tracking embedded in Silicon Photonics, Fe- Using Neural Networks, Xiaoyan 1 1 and Steering, Yang Hong1, Feng lix Eltes1, Jean Fompeyrine1, Stefan Ye , Aymeric Arnould , Amirhossein 1 1 Feng2, Kyle Bottrill1, Natsupa Taeng- Abel1; 1IBM Research GmbH, Swit- Ghazisaeidi , Dylan Le Gac , Jeremie 1 1 noi1, Ravinder Singh2, Grahame zerland. We have combined BTO Renaudier ; Nokia Bell Labs France, Faulkner2, Dominic O’Brien2, Periklis with conventional silicon photonic France. A machine learning method Petropoulos1; 1Univ. of Southamp- platforms to enhance the performance for Raman gain prediction and multi- ton, UK; 2Univ. of Oxford, UK. We of silicon photonics by exploiting the pump broadband amplifier design is report up to 1.165-Tb/s optical Pockels effect. We have demonstrated experimentally demonstrated over a wireless WDM transmission using a modulators, switches, and tuning 100 nm-wide optical bandwidth. We wavelength-transparent beam tracking elements with excellent performance show high accuracy and ultra-fast and steering system. Over a 3.5- exceeding that of silicon-based prediction of arbitrary gain profile over m perpendicular distance, beyond devices. a 100 km-long SSMF span. 1-Tb/s capacity was achieved across a lateral coverage up to 1.8 m.

W1G.5 • 09:45 W1K.4 • 09:45 C-band PS 4096QAM OFDM FSO Anomaly Localization in Optical Wednesday, 11 March Transmission with 6.98bit/s/Hz Net Transmissions Based on Receiver SE Based on Kramers-Kronig Detec- DSP and Artificial Neural Net- 1 1 tion, Yiran Wei1, Yingjun Zhou1, Cuiwei work, Huazhi Lun , Xiaomin Liu , Meng 1 1 1 1 Liu1, Feng Wang1, Kaihui Wang1, Junt- Cai , Mengfan Fu , Yiwen Wu , Lilin Yi , 1 1 1 ing Shi1, Nan Chi1, Jianjun Yu1; 1Fudan Weisheng Hu , Qunbi Zhuge ; Shang- Univ., China. We experimentally hai Jiao Tong Univ., China. We propose demonstrate 10Gbaud PS 4096QAM a receiver DSP based scheme to OFDM with KK detection over 25m localize WSS anomaly in an optical FSO transmission. As far as we know, link. Through extensive simulations, this is the highest QAM delivery in a we show that the accuracy reaches up FSO communication system. to 96.4% with a good generalization performance.

10:00–13:00 Unopposed Exhibit-only Time, Exhibit Hall (coffee service 10:00–10:30) Lunch Break (on own)

10:00–17:00 Exhibition and Show Floor, Exhibit Hall (concessions available in Exhibit Hall) OFC Career Zone Live, Exhibit Hall B2

OFC 2020 • 8–12 March 2020 105 Exhibit Hall B

10:30–12:30 W2A • Poster Session I W2A.1 W2A.4 W2A.7 W2A.10 W2A.13 W2A.16 300 Gb/s Net-Rate Intra-datacenter Sub-nanosecond Optical Switching Dual-band Optical Filters Using Performance Evaluation of a Comb- A Simple and Compact Fiber Modal Investigation of Tolerance of OFDR- Interconnects with a Silicon Inte- Using Chip-based Soliton Micro- Integrated Multimode Bragg based Transmission System Em- Adapter for Upgrading 850 nm Based DAS to Vibration-induced grated Optical Frequency Comb combs, Sophie Lange1, Arslan S. Gratings, Jonathan Cauchon1, Wei ploying Multi-functional Active Multimode Fibers for Fundamental Beat Frequency Offset, Tatsuya Modulator, Deming Kong1, Hai- Raja2, Kai Shi1, Maxim Karpov2, Ra- Shi1; 1Universite Laval, Canada. We Demultiplexers, Prajwal Doddaballa- Mode Transmission at 1310 nm, Xin Okamoto1, Daisuke Iida1, Hiroyuki yun Xin1,2, Kwangwoong Kim3, Yong phael Behrendt1, Daniel Cletheroe1, demonstrate a multimode integrated pura Lakshmijayasimh1, Aleksandra Chen1, Kangmei Li1, Aramais Zakhar- Oshida1; 1NTT, Japan. We investigate Liu1, Leif Oxenløwe1, Po Dong3, Hao Istvan Haller1, Fotini Karinou1, Xin Bragg grating allowing dual-band Kaszubowska-Anandarajah2, Pas- ian1, Jason Hurley1, Jeff Stone1, Doug the statistical property of Rayleigh Hu1; 1Technical Univ. of Denmark, Fu2, Junqiu Liu2, Anton Lukashchuk2, filtering in the 1.5-1.6 μm region. cal Landais1, Prince M. Anandara- Coleman1, Jie Liu1, Qi Wu1, Ming-Jun backscattered light to confirm the Denmark; 2State Key Laboratory of Benn C. Thomsen1, Krzysztof Jozwik1, Bandwidths of 4.4 and 7.5 nm and jah1; 1School of Electronics Engineer- Li1; 1Corning Research & Development tolerance to vibration-induced beat Advanced Optical Communication Paolo Costa1, Tobias J. Kippenberg2, a band separation of 42 nm are ing, Dublin City Univ., Ireland; 2CON- Corp, USA. We propose a simple frequency offset, which forces us Systems and Networks, Shanghai Jiao Hitesh Ballani1; 1Microsoft Research, achieved. NECT Research Centre, Trinity College and compact adapter using specially to interrogate an unintentionally- Tong Univ., China; 3Nokia Bell Labs, UK; 2Lab of Photonics& Quantum Dublin, Ireland. A compact OFC- designed modal conditioning single- positioned sensor. A long sensor USA. We propose and demonstrate Measurements, Swiss Federal Inst. W2A.8 based transmitter for short-reach mode fiber for fundamental mode is capable of measuring vibrations intra-datacenter interconnects based of Technology Lausanne (EPFL), Ultra-Compact Silicon TM-pass applications is demonstrated. A single transmission through multimode correctly. on a silicon optical frequency comb Switzerland. We demonstrate sub- Polarizer with a Photonic Crystal device is employed to implement OFC fiber and demonstrate error-free modulator consisting of four cascaded nanosecond wavelength switching, Nanobeam Structure, Yu He1, Yong demultiplexing, amplification and transmission over 1-km multimode W2A.17 microring modulators. The generated using a chip-based soliton microcomb Zhang1, Ruihuan Zhang1, Lu Sun1, Yikai direct modulation. Using this method, fiber using a 100G CWDM4 transceiver. Compensating Model of Nonlocal 4×50 Gbaud WDM-PAM4 signals and a semiconductor optical amplifier- Su1; 1Shanghai Jiao Tong Univ., Chi- error free data transmission over 3km Effects in a Brillouin Optical Time- exhibit BERs below 33% HD-FEC based wavelength selector. 50-Gbps na. An ultra-compact TM-pass polarizer of fiber is achieved. W2A.14 domain Analysis System, Can Liu1, threshold after 2-km transmission. PAM4 transmission is achieved with is experimentally demonstrated by Miniature Optical Connector with Lianshan Yan1; 1Southwest Jiaotong discrete components and 25-Gbps using PhC nanobeam structure. The W2A.11 Magnetic Physical Contact, Kota Univ., China. A novel model for W2A.2 NRZ with a photonic integrated TE mode is reflected with an extinction A Single-loop PT-symmetric Sub-kHz Shikama1, Norio Sato1, Atsushi compensating the nonlocal effects A Passively Mode-locked Quantum wavelength selector. ratio over 20.4 dB, while the TM mode Fiber Laser Based on an Integrat- Aratake1, Satoshi Shigematsu1, Takeshi is proposed in BOTDA. A basic Dot Laser with 10.8 Tbit/s Transmis- propagates through with a 0.7-dB ed Microdisk Resonator, Jianping Sakamoto1; 1Nippon telegraph and experimental configuration is only sion Over 100-km SSMF, Guocheng W2A.5 insertion loss. Yao 1, Zhiqiang Fan1, Zheng Dai1, Qi telephone, Japan. We present a required. Experimental results show Liu1, Zhenguo Lu1, Jiaren Liu1, Youxin Reliability Failure Modes of an Qiu2; 1Univ. of Ottawa, Canada; 2Univ. miniature physical-contact optical that a hotspot at 39.1 km can be Mao1, Martin Vachon1, Chunying Integrated Ge Photodiode for Si W2A.9 of Electronic Science and Technology connector featuring a novel magnetic accurately measured under probe Song1, Philip Poole1; 1National Re- Photonics, Stewart Rauch1, Dong- Metasurface Beam Deflector Array of China, China. A single physical attraction structure. The magnetic power from -14 dBm to +2 dBm, and search Council Canada, Canada. We ho Lee1, Alexey Vert2, Lin Jiang1, on a 12-inch Glass Wafer, Nanxi Li1, loop parity-time symmetric sub-kHz optical connectors we designed and a 13.5 MHz Brillouin frequency shift demonstrate 10.8 Tbit/s (16-QAM Byoung Min1; 1GlobalFoundries, Yuan Hsing Fu1, Yuan Dong1, Ting laser based on a microdisk resonator fabricated yield low insertion and high error is corrected. 48×28 GBaud PDM) coherent data USA; 2Cisco, USA. Major failure modes Hu1, Zhengji Xu1, Qize Zhong1, Dong- is demonstrated. Single-mode lasing return losses comparable to those of a transmission over 100-km of standard of Germanium photodiodes are dong Li1, Yanyan Zhou1, Keng Heng with a wavelength-tunable range conventional connector. W2A.18 single mode fiber using an InAs/InP proposed with a model. These are: Lai1, Vladimir Bliznetsov1, Hou-Jang from 1552.953 to 1554.147 nm and Training-free Feature Extraction of quantum dot mode-locked laser with catastrophic breakdown driven by Lee1, Wei Loong Loh1, Shiyang Zhu1, a linewidth of 640 Hz is achieved W2A.15 BOTDA Based on Sparse Represen- a channel spacing of 34.2 GHz. thermal runaway due to localized Qunying Lin1, Navab Singh1; 1Inst. of experimentally. Inverse Design of Few-mode Fi- tation, Hongxiu Tan1, Yating Xiang1, self-heating and electrical defect Microelectronics, Agency for Science ber by Neural Network for Weak- Hao Wu1, Li Shen1, Kangjie Li1, Maoqi W2A.3 generation/activation driven by Technology and Research, Singa- W2A.12 coupling Optimization, Zhiqin He1, Zhang1, Can Zhao1, Lin Gan1, Songnian 2-dimentional Fiber Array with Re- electric field with photocurrent pore. We have demonstrated a large- Lossless Monolithically Integrated Jiangbing Du1, Weihong Shen1, Yuting Fu1, Ming Tang1; 1Huazhong Univ. of flow Compatibility for High-density localization effect. area metasurface beam deflector array Photonic InP Neuron for All-opti- Huang1, Chang Wang1, Ke Xu1, Zuyu- Science and Technology, China. We Optical Interconnection, cal Computation, 1 1 1

Wednesday, 11 March Wednesday, Tsutaru Ku- patterned directly on a 12-inch glass Bin Shi , Kristif an He ; Shanghai Jiao Tong Univ., propose a method based on sparse magai1, Hajime Arao1, Hong Nguyen1, W2A.6 wafer using immersion lithography. Prifti1, Eduardo Magalhães1, Nicola China. We use a neural network to representation to extract amplitude, Tetsuya Nakanishi1; 1Sumitomo Electric Vertically-curved Si Surface Optical The captured random points at 940 Calabretta1, Ripalta Stabile1; 1Tech- inversely design a four-ring few-mode linewidth, and Brillouin frequency Industries, Ltd., Japan. We developed Coupler for Coupling with Standard nm wavelength show a good match nische Universiteit Eindhoven, fiber for weak-coupling optimization shift (BFS) in BOTDA using dictionary- a 2-dimensional fiber array (2D-FA) Single-mode Optical Fibers, Yuki with the design. Netherlands. We demonstrate a so as to support MIMO-less MDM learning algorithm without feedback as an optical interconnection device Atsumi1, Tomoya Yoshida1, Emiko monolithically integrated SOA- optical communication. This method and off-line training, which enables for co-packaged optics. The 2D-FA Omoda1, Youichi Sakakibara1; 1Natl based photonic neuron, including provides high-accuracy, high-efficiency more accurate BFS measurements was capable of maintaining a low Inst of Adv Industrial Sci & Tech, both the weighted addition and a and low-complexity for complexed in real-time. connection loss of < 1.0 dB after reflow Japan. A vertically-curved-waveguide wavelength converter with tunable fiber design. process at 260°C. surface optical coupler for coupling laser as nonlinear function, allowing with a 10-µm-MFD standard single- for lossless computation of 8 Giga mode optical fiber was developed. operation/s with an 89% accuracy. The fabricated coupler showed 1-dB bandwidths of >160 nm and >120 nm and coupling losses of 3.9 dB and 4.0 dB for TE and TM polarization.

106 OFC 2020 • 8–12 March 2020 Exhibit Hall B Show Floor Programming W2A • Poster Session I—Continued Revolutionizing the W2A.19 W2A.22 W2A.25 W2A.28 W2A.31 Economics of Pluggable Rayleigh Speckles Obtained from On the Workload Deployment, Re- Optimal Upstream Spectrum Re- Low-latency Federated Reinforce- Nonlinear Pre-Distortion Based on Optics with Silicon Single Mode Fiber for Wavelength source Utilization and Operational source Allocation on IP-over-EONs ment Learning-based Resource Indirect Learning Architecture and Photonics 1 1 Measurement, Yangyang Wan , Xin Cost of Fast Optical Switch Based Access Links, Junyi Shao , Weiqiang Allocation in Converged Access Net- Cross-correlation-enabled Behav- 10:15–11:15, Theater II Yu Fan1, Shuai Wang1, Zhaopeng Rack-scale Disaggregated Data Sun1, Weisheng Hu1; 1Shanghai Jiao works, Lihua Ruan1, Sourav Mondal1, ioral Modeling for 120-Gbps Multi- Zhang1, Zuyuan He1; 1Shanghai Jiao Center Network, Xiaotao Guo1, Tong Univ., China. We propose a Imali Dias1, Elaine Wong1; 1The Univ. mode Optical Interconnects, Chenyu Tong Univ., China. We propose a novel Fulong Yan1, George Exarchakos1, resource allocation strategy on IP- of Melbourne, Australia. We propose Liang1, Wenjia Zhang1, Line Ge1, Product Showcase wavemeter using Rayleigh speckle Xuwei Xue1, Bitao Pan1, Nicola Cal- over-EONs access links. It realizes a federated reinforcement learning Jiangbing Du1, Zuyuan He1; 1Shang- Huawei Tech. Co. 1 1 obtained by optical time domain abretta ; Eindhoven Univ. of Tech- the dynamic self-adaptive spectrum (FedRL) solution to innovate resource hai Jiao Tong Univ., China. In this 10:15–10:45, Theater III reflectometry. It is experimentally nology, Netherlands. We investigate resource adjustment applying to allocation in converged access paper, we present a novel nonlinear demonstrated that the system can operational performance of a novel traffic fluctuations and handles the networks. FedRL lowers network pre-distortion scheme enabled by resolve multi-wavelength signal with rack-scale disaggregated network. performance requirements under the latency with reinforcement-learnt indirect learning architecture and NOS Keynote 6 fm wavelength resolution and 25 Results show that the disaggregated circuit/packet hybrid architecture. bandwidth decision and achieves cross-correlation based behavioral 10:30–11:15, Theater I nm bandwidth. network achieves 30.6% higher fast learning with federated learning modeling. 120-Gbps PAM-4 error free workloads acceptance rate, 12.9% W2A.26 efforts. transmission is demonstrated using W2A.20 higher resource utilization, and 33% SDN Controlled Edge Computing 30-GHz class VCSEL. Product Showcase Experimental Demonstration of Us- more power saving compared with Metro Access Network with Network W2A.29 Xilinx ing Wet-mate Connector in Offshore the server-centric. Slicing and Load-aware end-to-end Demonstration of AI-assisted W2A.32 11:00–11:30, Theater III Long-distance Raman Amplified Service Protection for 5G applica- Energy-efficient Traffic Aggrega- Low-complexity Equalizer based on Optical Links, Steinar Bjørnstad2,1, Rolf W2A.23 tions, Bitao Pan1, Xuwei Xue1, Fulong tion in 5G Optical Access Net- Volterra Series and Piecewise Linear Bøe3, Kris Sanapi4, W.R.L Clements4, Towards Zero-crosstalk-margin Oper- Yan 1, Fu Wang1, Eduardo Magalhães1, work, Luyao Guan1, Min Zhang1, Function for DML-based IM/DD NOS Panel I: Next Bernard Shum-tim4, Luigi Carlomusto5, ation of Spectrally-Spatially Flexible Nicola Calabretta1; 1Eindhoven Univ. Danshi Wang1; 1Beijing Univ of Posts System, Yukui Yu1, Tianwai Bo1, Che Generation Access Soren Michaelsen5; 1NTNU, Nor- Optical Networks Using Heteroge- of Technology, Netherlands. We & Telecom, China. We propose an Yi1, Daeho Kim1, Hoon Kim1; 1KAIST, Network way; 2Tampnet, Norway; 4MPB com- neous Multicore Fibers, Anuj Agraw- demonstrate SDN reconfigurable AI-assisted energy-efficient traffic Korea, South Korea. We propose 11:15–12:45, Theater I munications, Canada; 5Ciena, Cana- al1, Vimal Bhatia1, Shashi Prakash2; 1IIT edge-computing metro-access aggregation scheme, which is and demonstrate a low-complexity 2 da. Deploying fibre cables to offshore Indore, India; Photonics Laboratory, network based on low-cost ROADM demonstrated in software-defined equalizer specifically designed for Wednesday, 11 March installations may desire a pluggable Devi Ahilya Univ., India. In spectrally- nodes with edge-computing and optical network testbed. The DML-based IM/DD system using TIP: The Disaggregated construction for sub-sea use. Sub-sea spatially flexible optical network programmable FPGA-based interfaces experimental results show proposed Volterra series and piecewise linear Transport Network connection of fibre cables, carrying (SS-FON), crosstalk (XT)-margin supporting classification and network scheme can efficiently reduce energy function. The proposed equalizer 11:30–13:00, Theater II high power Raman pump power, using overprovisioning is unavoidable due slicing. Dynamic network operation consumption by traffic aggregation performs similarly to the Volterra a wet-mate connector is demonstrated to transmission reach granularity of and QoS protection is validated with according to traffic prediction. equalizer, but reduces the complexity for the first time. modulation schemes. We show that live-streaming use case. by >90%. Product Showcases heterogeneous multicore fibers of W2A.30 11:30–12:30, Theater III W2A.21 specific core designs can achieve zero- W2A.27 Real-Time Demonstration of 2.4Tbps W2A.33 GOSNR Characterization by Opti- XT-margin. We also propose a core- Reconfiguration of VNF Placement (200Gbps/λ) Bidirectional Coherent Towards All Optical DCI Net- cal Spectrum Analysis, Gang He1, type selection method to minimize in an Optical Metro Network by a DWDM-PON Enabled by Coherent works, Ginni Khanna1, Shengx- Product Showcase Steven Searcy2, Daniel Gariepy1, Sorin XT-margin in SS-FONs. Modular Planning Tool, Guido Maier1, Nyquist Subcarriers, Amir Rashidine- iang Zhu1, Mark M. Filer1, Christos 13:00–13:30, Theater III Tibuleac2; 1EXFO Inc, Canada; 2ADVA, Leila Askari1, Sebastian Troia1, Ligia M. jad1, An Nguyen2, Magnus Olson3, Gkantsidis1, Francesca Parmigiani1, USA. We introduce a GOSNR W2A.24 Moreira Zorello1, Francesco Musume- Steven Hand2, David Welch2; 1In- Thomas Karagiannis1; 1Microsoft, Cloud Network Evolution measurement based on optical Recurrent Neural Networks for ci1, Massimo Tornatore1; 1Politecnico finera Canada, Canada; 2Infinera UK. We propose and experimentally spectrum analysis and experimentally Short-term Forecast of Lightpath di Milano, Italy. We demonstrate the Corporation, USA; 3Infinera Swe- demonstrate an all-optical architecture Bandwidth Drivers validate the method using multiple Performance, Sandra Aladin1, Stéph- recurrent reconfiguration of virtual den, Sweden. We demonstrate real- for data center interconnect networks IEEE Future Directions coherent signal types (34 and 69 Gbd, anie Allogba1, Anh Vu Stephan Tran1, network function placement and time 2.4Tbps bidirectional coherent with reconfiguration times of a few 13:15–14:45, Theater II QPSK and 16QAM) over 8 and 12 Christine Tremblay1; 1Ecole de Tech- routing and wavelength assignment DWDM-PON (12λ×200Gbps/λ) over seconds. Filtering and amplification spans LEAF transmission. nologie Supérieure, Canada. We show in optical metro networks supporting 100km SMF, enabled by multiplexing transient effects have minimal impact how the Recurrent Neural Networks 5G services. Reconfiguration solutions Nyquist subcarriers. Further, through on BER performance. Unleashing the Full can be used for performance predic- are provided by a dedicated planning- proof-of-concept experiments, we Potential of Silicon tion of lightpaths using field bit error tool module. show the advantage of coherent Photonics rate data. Moreover, we illustrate how subcarrier aggregation in next- 13:30–14:30, Theater III the forecast horizons and observation generation point-to-multipoint windows affect the forecast accuracy. bidirectional access networks. NOS Panel II 13:30–15:00, Theater I

OFC 2020 • 8–12 March 2020 107 Exhibit Hall B

W2A • Poster Session I—Continued W2A.34 W2A.37 W2A.40 W2A.43 W2A.46 W2A.49 Laser Diode Chirp Requirements in High-speed Radio-on-free-space Hybrid Fiber-optical/THz-wireless Neural-network-enabled Multi- Experimental Demonstration of C- Amplifier Considerations in ROADM– Wideband Analog Photonic Signal Optical Mobile Fronthaul Sys- Link Transmission Using Low-cost variate Symbol Decision in a 100- band 112-Gb/s PAM4 over 20-km free Space–switched Nonlinear Processing, Farzad M. Koushyar1, tem for Ultra-dense Radio Access IM/DD Optics, Francisco M. Ro- Gb/s Complex Direct Modulation SSMF with Joint Pre- and Post- Optical Links, Robert J. Vincent1, McKay B. Bradford2, Monireh Moayedi Network, Pham Tien Dat1, Atsushi drigues1, Ricardo Ferreira1, Carlos System, Di Che1; 1Nokia Bell Labs, equalization, Xizi Tang1,2, Yaojun David J. Ives1, Seb J. Savory1; 1Univ. Pour Fard2, Thien-An Nguyen2, Sri- Kanno1, Keizo Inagaki1, François Castro2, Robert Elschner2, Thomas USA. We reveal a neural network Qiao1, Gee-Kung Chang2; 1School of Cambridge, UK. Power fluctuations ram Vishwanath1,2; 1Univ. of Texas Rottenberg2, Naokatsu Yamamoto1, Merkle3, Colja Schubert2, António can be exploited for multivariate of Information and Communication accumulate in ROADM-free space- at Austin, USA; 2GenXComm Inc., Tetsuya Kawanishi3; 1National Inst. Teixeira4,1; 1PICadvanced S.A., Por- symbol decision simply by feeding Engineering, Beijing Univ. of Posts and switched networks. Thousands of USA. Distortions added to a 150 of Information and Communication tugal; 2Fraunhofer Heinrich Hertz multiple signal features as its inputs. Telecommunications, China; 2School of randomized nonlinear transmissions MHz OFDM signal in a photonic Technology (NICT), Japan; 2ICTEAM Inst., Germany; 3Fraunhofer-Institut The concept is verified in a digital Electrical and Computer Engineering, demonstrate that capacity with an link comprised of a 4-tap filter and a Inst., Universite catholique de Louvain, für Angewandte Festkörperphysik, coherent receiver which detects Georgia Inst. of Technology, USA. We inventory of {5,10,15,20}dB gain am- directly modulated laser is simulated Belgium; 3Waseda Univ., Japan. We Germany; 4Instituto de Telecomuni- dual-polarization 25-GBaud directly- demonstrate C-band 112-Gb/s PAM4 plifiers is within 10% of optimal and to study the laser chirp impact on the present a transmission of radio signals cações, Portugal. Hybrid fiber-optical/ modulated PAM-4 signals. over 20-km transmission with pre- and triple that with {10,20}dB amplifiers link dynamic range. over a seamless fiber–FSO system THz wireless transmission of 16 GBd post-equalization. Pre-filter coarsely over 1,000km. for ultra-dense RAN. We successfully 16-QAM is demonstrated over 20 km W2A.44 pre-compensates system bandwidth at W2A.35 transmitted 80-Gb/s and 40-Gb/s 2×2 of fiber. Transmission of 50 Gb/s net Artificial Neural Network-Based transmitter while FFE-DFE with erasure W2A.50 Switchable Down-, Up- and Dual- MIMO FBMC-OQAM signal in the 90- rate is achieved using low-cost IM/DD Compensation for Transceiver Non- technology jointly post-compensates Real-time Transmission Measure- chirp Linearly Frequency Modu- GHz band over DL and UL direction. optics and wireless front-ends operat- linearity in Probabilistic Shaping Sys- residual bandwidth limitation and ments from 200 Gb/s to 600 Gb/s lated Signal Generation Utilizing ing at 306 GHz. tems, Tu T. Nguyen1, Tingting Zhang1, dispersion-induced power fading at over Links with Long 122 km Fiber a Dual-polarization Dual-parallel W2A.38 Mahmood Abu-Romoh1, Andrew receiver. Spans, John D. Downie1, Jason Mach-Zehnder Modulator, Peng Li1, 81.37-Gbps 2×2 MIMO 60-GHz W2A.41 Ellis1; 1Aston Univ., UK. Artificial neural Hurley1, Xiaojun Liang1, James Him- Lianshan Yan1, Jia Ye1, Xihua Zou1, Bin OFDM-RoF System Employing I/Q Quantum Dash Passively Mode network for transceiver nonlinearity W2A.47 melreich1, Sergejs Makovejs2, Donald Luo1, Wei Pan1; 1Scholl of Information Nonlinear Compensation Filtering Locked Laser for Optical Heterodyne compensation in dual-polarization DSP-based Mode-dependent Loss Govan3, Giacomo Losio4; 1Corning Science and Technology, Southwest Algorithm, Zhen-Xiong Xie1, Bo-Jiun Millimeter-wave Analog Radio- probabilistically shaped 28 GBaud and Gain Estimation in Coupled SDM Research & Development Corp, Jiaotong Univ., China. A photonic Lin1, Pin-Xyuan Ding1, Tsung-Hung over-fiber Fronthaul Systems, Amol systems is experimentally investigated Transmission, Ruby S. Bravo Ospina1,2, USA; 2Corning Incorporated, UK; 3Lu- method to generate switchable down-, Tsai1, Ping-Yao Huang1, Chia-Chien Delmade1, Theo Verolet2,3, Colm with achieved SNR performance gain Chigo M. Okonkwo1, Darli A. Mel- mentum, UK; 4Lumentum, Italy. We up- and dual-chirp linearly frequency- Wei2, Chun-Ting Lin1; 1National Chiao Browning1, Yi Lin1, Guy Aubin2, F up to 1 dB. lo2; 1Eindhoven Univ. of Technology, present results for real-time coherent modulated (LFM) signals is proposed. Tung Univ., Taiwan; 2National Sun Yat- Lelarge3,4, Abderrahim Ramdane2, Netherlands; 2Univ. of Campinas, Bra- transmission with data rates from 200 Such signals with a carrier frequency sen Univ., Taiwan. We demonstrate Liam Barry1; 1Dublin City Univ., Ire- W2A.45 zil. We model analytically the MDG/ Gb/s to 600 Gb/s in 50 Gb/s incre- of 5 GHz and a chirp rate of 1 GHz/4us 2x2 MIMO 60-GHz RoF system land; 2Centre de Nanosciences et Cascade Recurrent Neural Net- MDL estimation process in coupled ments over a re-circulating loop with are experimentally demonstrated. with nonlinear compensation. The de Nanotechnologies, Université work Enabled 100-Gb/s PAM4 SDM transmission using equalizer 122 km spans of ultra-low loss, large proposed I/Q Volterra nonlinear Paris- Sud, Université Paris-Saclay, Short-reach Optical Link Based on coefficients of coherent receivers. We effective area fiber. W2A.36 compensation not only improves data France; 3III-V Lab, France; 4Almae DML, Zhaopeng Xu1, Chuanbowen show that estimation errors can be Scalable and Fast Optical Circuit rate up to 81.37Gbps but also extends Technologies, France. In mm-wave Sun1, Tonghui Ji1,2, Honglin Ji1, Wil- partially compensated in moderate W2A.51 Switch Created with Silicon-photonic wireless distance to 42 meters with systems, carrier phase noise limits the liam Shieh1; 1Univ. of Melbourne, regimes of SNR and MDL/MDG. Long-haul and High-speed Key Tunable-filter-based Local Oscillator data rate of >70Gbps. performance of analog multicarrier Australia; 2Univ. of Science and Tech- Distribution Based on Oneway Bank and Colorless Coherent Detec- signal transmission. Experimental nology Beijing, China. A cascade W2A.48 Non-dual Arbitrary Basis Transfor- tion, Ryosuke Matsumoto1, Takashi W2A.39 results show the successful use of RNN-based equalizer is proposed Efficient Echo-cancellation Algo- mation in Optical Fiber Link, Chao Inoue1, Ryotaro Konoike1, Hiroyuki 52.58-Gbps Fiber-wireless 60-GHz a passively mode-locked laser with which outperforms traditional NN- rithms for Full Duplex Coherent Lei1, Jie Zhang1, Yajie Li1, Yongli Matsuura1, Keijiro Suzuki1, Yojiro Mori2, 2×2 MIMO System Integrating Opti- optical feedback in a 60GHz A-RoF based equalizers for short-reach Optical Systems, Mu Xu1, Zhensheng Zhao1, Bo Wang1, Hang Gao1, Junjia Kazuhiro Ikeda1, Shu Namiki1, Ken-ichi cal Mode Division Multiplexing and heterodyne 25km system. optical links. A cascade RNN-enabled Jia1, Junwen Zhang1, Haipeng Zhang1, Li1, Mingrui Zhang1; 1Beijing Univ. Wednesday, 11 March Wednesday, Sato1; 1AIST, Japan; 2Nagoya Univ. Wireless MIMO, Ping-Yao Huang1, 100-Gb/s PAM4 link is experimentally Luis Alberto Campos1; 1CableLabs, of Posts and Telecommunications, , Japan. We propose a large-scale Wei-Ling Li1, Tsung-Hung Tsai1, Zhen- W2A.42 demonstrated over 15-km fiber using USA. A digital echo-cancellation China. We propose a long-haul and fast optical circuit switch created with Xiong Xie1, Chun-Ting Lin1; 1National Delivery of 138.88Gpbs Signal a 16-GHz DML in C-band. method to identify and mitigate high-speed key distribution based Silicon-photonic tunable-filter-based Chiao Tung Univ., Taiwan. Optical in a RoF Network with Real-time reflection impairments in full duplex on one-way non-dual arbitrary basis

LO bank and colorless coherent LP01 and LP11 mode are utilized to carry Processing Based on Heterodyne coherent optical links is proposed. transformation in optical fiber link. The detection. Experiments verify 475.1- 2×2 MIMO signals for 60-GHz wireless Detection, Can Wang1, Xinying Li1, More-than 6 dB improvements in echo key distribution rate of 277 Kbit/s with Tbps switch bandwidth (1,856 × 1,856 signals. The proposed system can Mingming Zhao1, Kaihui Wang1, Jiao power tolerance are experimentally free key error rate is demonstrated at 256 Gbps) and switching times achieve data rate of 52.58-Gbps for Zhang1, Miao Kong1, Wen Zhou1, verified in a 32-GBd full-duplex DP- over 300km. under 3.52 μs. fiber-wireless system with 5-km FMF Jiangnan Xiao1, Jianjun Yu1; 1Fudan QPSK link. and 3-m air link. Univ., China. We experimentally demonstrate 138.88-Gb/s PDM-QPSK signal delivery in a RoF network based on real-time processing based on heterodyne coherent detection, and error-free delivery can be realized if SD-FEC with 27% overhead is enabled.

108 OFC 2020 • 8–12 March 2020 Exhibit Hall B Show FloorShow Programming Floor ProgrammingContinued W2A • Poster Session I—Continued W2A.52 W2A.53 W2A.54 W2A.55 W2A.56 Revolutionizing the A Method to Separate the Penal- On-chip Continuous-variable Quan- Stochastic EXIT Design for Low-laten- Improved Simulation Accuracy Deployment Opportunities for DPS- Economics of Pluggable ties Caused by Various Nonlinear tum Key Distribution(CV-QKD) cy Short-block LDPC Codes, Toshiaki of the Split-step Fourier Meth- QKD in the Co-existence Regime Optics with Silicon Signal-pump Impairments in Raman and Homodyne Detection, Yuan Koike-Akino1, David S. Millar1, Keisuke od, Shen Li1, Magnus Karlsson1, Erik of Lit GPON / NG-PON2 Access Photonics Amplified System, Jingnan Li1, Yang- Shen1, Lin Cao2,1, Xuyang Wang1, Kojima1, Kieran Parsons1; 1Mitsubishi Agrell1; 1Chalmers Univ. of Technology, Networks, Nemanja Vokic1, Dinka yang Fan1, Zhenning Tao1, Tong Ye1, Jun Zou1, Wei Luo1, Yunxiang Wang1, Electric Research Labs, USA. We Sweden. We investigate a modified Milovancev1, Bernhard Schrenk1, Mi- 10:15–11:15, Theater II Hiroyuki Irie2, Hisao Nakashima2, Kou- Hong Cai3, Bin Dong4, Xianshu Luo4, introduce a stochastic version of split-step Fourier method (SSFM) by chael Hentschel1, Hannes Hübel1; 1AIT suke Komaki2, Takeshi Hoshida2; 1Fu- Weijun Fan1, Leong Chuan Kwek1, extrinsic information transfer (EXIT) including low-pass filters in the linear Austrian Inst. of Technology, Aus- Product Showcase jitsu R&D Center, China; 2Fujitsu Ltd., Aiqun Liu1; 1Nanyang Technologi- chart which accounts for dispersion steps. This method can simultaneously tria. We demonstrate cost-effective Huawei Tech. Co. Japan. We separate various nonlinear cal Univ., Singapore; 2Peking Univ., in finite-length LDPC decoding. The achieve a higher simulation accuracy QKD integration for GPON and impairments caused by pump laser China; 3Institude of Microelectronics, proposed approach can design short and a slightly reduced complexity. NG-PON2. Operation at 5.1×10- 10:15–10:45, Theater III RIN in Raman amplified system. Singapore; 4Advanced Micro Foundry, LDPC codes systematically, achieving 7 secure bits/pulse and a QBER of Experiment shows that nonlinear Singapore. An on-chip continuous- about 1.2dB gain over recently 3.28% is accomplished for a 13.5-km NOS Keynote polarization scattering has more variable quantum key distribution(CV- proposed scattered EXIT design. reach, 2:16-split PON, with 0.52% 10:30–11:15, Theater I impact than phase noise does, and the QKD) system is integrated using silicon co-existence penalty for 19 classical gain fluctuation has the least impact. photonics fabrication process and channels. demonstrates the capability of trans- Product Showcase ceiving Gaussian-modulated coherent Xilinx states and homodyne detection. 11:00–11:30, Theater III

NOS Panel I: Next Generation Access Network 11:15–12:45, Theater I

TIP: The Disaggregated Wednesday, 11 March Transport Network 11:30–13:00, Theater II

Product Showcases 11:30–12:30, Theater III

Product Showcase 13:00–13:30, Theater III

Cloud Network Evolution Bandwidth Drivers IEEE Future Directions 13:15–14:45, Theater II

Unleashing the Full Potential of Silicon Photonics 13:30–14:30, Theater III

NOS Panel II 13:30–15:00, Theater I

OFC 2020 • 8–12 March 2020 109 Room 1B Room 2 Room 6C Room 6D

14:00–16:00 14:00–16:00 14:00–15:45 14:00–16:00 W3A • Neuromorphic III: System- W3B • Panel: Will SDM Truly W3C • Open Network Architecture W3D • High-speed Transmission oriented Revolutionize the Submarine Presider: Ramon Casellas; CTTC, Spain Presider: Timo Pfau; Acacia Communications, Presider: Hideaki Furukawa; National Inst of Communication Industry? Inc., USA Information & Comm Tech, Japan W3A.1 • 14:00 Subsea cable capacity has been growing at a dramatic W3C.1 • 14:00 W3D.1 • 14:00 « Top-Scored Hardware Architecture and Algorithm Co-design for rate over the past years. Until early 2018, the main effort in Experimental Demonstration of Service Deployment Demodulation of Eigenvalue Modulated Signal Based meeting the demand for capacity growth is to increase the Multi-layer Photonic Neuromorphic Network with in Open Packet-optical Networks, Oscar Gonzalez de on Eigenvalue-domain Neural Network, Ken Mishina1, 1,2 1 capacity per fiber pair (FP). The technology has advanced in Excitable VCSELs-SA, Shuiying Xiang , Zhenxing Ren , dios1, Minoru Yamaguchi2, Guillermo Pajares Martin1, Shingo Sato1, Shohei Yamamoto1, Yuki Yoshida2,1, Daisuke 1 1 1 1 each element of submarine cable building blocks: Yahui Zhang , Xingxing Guo , Ziwei Song , Aijun Wen , Masatoshi Saito2, Samier Barguil Giraldo5, Toshihiro Hisano1, Akihiro Maruta1; 1Graduate School of Engineering, 2 1 Yue Hao ; State Key Laboratory of Integrated Service fiber design with large effective area (110, 130 and then 150) Yokoi2, Alfredo Gonzalez3, Andrea Campanella4, Yoshi- Osaka Univ., Japan; 2National Inst. of Information and Com- 2 Networks, Xidian Univ., China; State Key Discipline 2 1 2 1 high power repeater (20+ dBm) nori Koike , Victor Lopez , Hiroata Yoshioka ; Telefonica, munications Technology, Japan. A demodulation scheme for Laboratory of Wide Bandgap Semiconductor Technology, Spain; 2NTT, Japan; 3Wipro, Spain; 4ONF, Italy; 5UAM, an eigenvalue modulated signal based on an eigenvalue- School of Microelectronics, Xidian Univ., China. We design more spectral efficiency (5+ b/s/Hz) transponders Spain. Disaggregation breaks conventional closed systems domain neural network is demonstrated experimentally. a multi-layer photonic spiking neural network with excitable broad transmission bandwidth (40nm, 72nm with C+L) into components connected by open interfaces. This Successful demodulation is demonstrated at 2.5 Gb/s over VCSELs-SA. Numerical results based on the rate-equation paper shows the experimental demonstration of service a transmission distance of up to 3,000 km. models show that the proposed neuromorphic network However, the capacity per FP faces the Shannon limit and provisioning and partial replacement of network OS in a architecture is capable of solving the classical XOR problem the power for submarine network is limited by the power disaggregated open packet and optical converged network by supervised-learning. feeding equipment (PFE). based on open interfaces and open source software.

W3A.2 • 14:15 Recently, the new paradigm- Spatial division multiplexing W3C.2 • 14:15 Top-Scored W3D.2 • 14:15 Wavelength-space Domain High-throughput Artificial (SDM) cable has been introduced, where the number of FPs Experimental Validation« of an Open Source Quality of Neural Network-based Soft-demapping for Nonlinear Neural Networks by Parallel Photoelectric Matrix within one cable has been increased (12 FPs, 16FPs…). The Transmission Estimator for Open Optical Networks, Ales- Channels, Maximilian Schaedler1,2, Stefano Calabro1, 1 1 Multiplier, Mehmet Berkay On , Hongbo Lu , Humphry main effort shifted from maximizing the capacity per FP to sio Ferrari1, Mark M. Filer2, Karthikeyan Balasubramanian2, Fabio Pittalà1, Christian Bluemm1, Maxim Kuschnerov1, 1 1 1 1 Chen , Roberto Proietti , S. J. Ben Yoo ; ECE, Univercity maximizing the capacity per cable. During this workshop, Yawei Yin2, Esther Lerouzic3, Jan Kundrát4, Gert Grammel5, Stephan Pachnicke2; 1Huawei Munich Research Center, of California Davis, USA. We propose a massively parallel experts will discuss the impact on each element of the sub- Gabriele Galimberti6, Vittorio Curri1; 1Politecnico di Torino, Germany; 2Chair of Communications, Kiel Univ. (CAU), neural network architecture with photonic matrix-vector marine cable linked to the new SDM cable paradigm and will Italy; 2Microsoft Corp., USA; 3Orange Labs, France; 4CESNET, Germany. Conventional soft demappers designed for multiplication in the wavelength and space domains with give their insight on the future of submarine communication. Czechia; 5Juniper Networks, Germany; 6Cisco Photonics, AWGN channels suffer from performance loss under realistic balanced photodetectors and nonlinear transfer functions Italy. We test the QoT-E of the GNPy library fed by data from channels. We propose a neural network soft demapper and Topics to cover: in MZI modulators. An experimental proof-of-principle the network controller against experimental measurements show a gain of 0.35dB in an 800Gb/s coherent transmission demonstration is also discussed. Definition and drivers for SDM cable in subsea cable on mixed-fiber, Raman-amplified, multi-vendor scenarios on experiment using DP-32QAM. SDM cable impacts on subsea cable components the full C-band: an excellent accuracy within 1 dB is shown. Cable/fiber design: linear vs. non-linear regime W3A.3 • 14:30 Invited W3C.3 • 14:30 Invited W3D.3 • 14:30 Invited Accelerating Artificial Intelligence with Silicon Photon- Repeater design: very high power (20+dBm per Fiber Pair) Demonstration of Joint Operation across Open ROADM Model-Based Machine Learning for Joint Digital Back- ics, Nicholas Harris1, Ryan Braid1, Darius Bunandar1, Jim to pump farming (16-18dBm per FPs) Metro Network, OpenFlow Packet Domain, and Open- propagation and PMD Compensation, Christian Häger1, Carr1, Brad Dobbie1, Carlos Dorta1, Jonathan Elmhurst1, Branching Unit: ROADM unit equipped with WSS vs. FPs Stack Compute Domain, Andrea Fumagalli1, Behzad Henry D. Pfister2, Rick M. Bütler3, Gabriele Liga3, Alex Al- Martin Forsythe1, Michael Gould1, Shashank Gupta1, Sukesh switched BU Mirkhanzadeh1, Shweta Vachhani2, Balagangadhar G. varado3; 1Chalmers Tekniska Hogskola, Sweden; 2Duke Univ., Kannan1, Tyler Kenney1, Gary Kong1, Tomo Lazovich1, Scott 2 3 3 3 SLTE: Approaching Shannon limit vs. low cost SLTE Bathula , Gilles Thouenon , Christophe Betoule , Ahmed USA; Eindhoven Univ. of Technology, Netherlands. We 1 1 1 1 3 2 3 1 Wednesday, 11 March Wednesday, McKenzie , Carl Ramey , Chithira Ravi , Michael Scott , Triki , Martin Birk , Olivier Renais , Tianliang Zhang , propose a model-based machine-learning approach for John Sweeney1, Ozgur Yildirim1, Katrina Zhang1; 1Light- SDM cable impact to subsea network topology: point to Miguel Razo1, Marco Tacca1; 1Univ. of Texas at Dallas, polarization-multiplexed systems by parameterizing the matter Inc., USA. As Moore’s law and Dennard scaling point vs. mesh subsea network USA; 2AT&T Labs, USA; 3Orange Labs, France. Progress split-step method for the Manakov-PMD equation. This come to an end, new devices and computing architectures Open cable access: managed spectrum vs. managed FP on the recent implementation of OpenROADM MSA approach performs hardware-friendly DBP and distributed are being explored. The development of computing as a granularity functionalities is reported along with a description of the PMD compensation with performance close to the PMD- hardware designed to address the rapidly growing need related TransportPCE SDN controller and PROnet multi- free case. for computational power to accelerate artificial intelligence Speakers: domain resource orchestrator software modules. These applications has prompted investigations into both. functionalities enable the described use cases. Tim Stronge; Telegeography, USA Massimiliano Salsi; Google, USA Priyanth Mehta; Ciena, Canda Eduardo Mateo; NEC Corporation, Japan Olivier Courtois; ASN, France Masaaki Hirano; Sumitomo Electric Industries Ltd., Japan Stephen Grubb; Facebook Inc., USA

110 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Show ShowFloor ProgrammingFloor ProgrammingContinued 14:00–16:00 14:00–16:00 14:00–16:00 W3E • Ultra-wideband Transmission W3F • Special Chairs Session: Vision W3G • Datacentre Infrastructure and Cloud Network Evolution Bandwidth Presider: Johannes Fischer; Fraunhofer 2030: Taking Optical Communications Metrology Drivers Heinrich-Hertz-Institut, Germany through the Next Decade (Session 1) Presider: Yue-Kai Huang; NEC Laboratories IEEE Future Directions America Inc, USA 13:15–14:45, Theater II

W3E.1 • 14:00 Tutorial W3F.1 • 14:00 Invited W3G.1 • 14:00 Invited Unleashing the Full Potential of Silicon Ultra-wideband Transmission and High-symbol Rate Terabit Transmitters Using Heterogeneous III-V/Si Pho- More Than Communications: Environment Monitoring Photonics 1 1 1 1 Signal Handling Technologies, Fukutaro Hamaoka ; NTT tonic Integrated Circuits, John E. Bowers ; Univ. of Califor- Using Existing Optical Fiber Network Infrastructure, Yo- 13:30–14:30, Theater III Network Innovation Laboratories, Japan. This tutorial nia Santa Barbara, USA. Heterogeneous photonic integrated shiaki Aono1, Ezra Ip2, Philip Ji2; 1NEC Corporation, Ja- reviews the recent progress in ultra-wideband transmission circuits are being demonstrated with Tbps capacity and pan; 2Optical Networking and Sensing, NEC Laboratories techniques beyond the C and L bands and 100-200 GBaud- higher performance, with laser linewidths below 1 kHz and America, USA. We propose reusing existing optical cables NOS Panel II class high-symbol rate signal handling technologies with volumes scaled to multimillion per annum production levels. in metropolitan networks for distributed sensing using a 13:30–15:00, Theater I bandwidth multiplexers and ultra-broadband optical bidirectional, dual-band architecture where communications frontends. and sensing signals can coexist with weak interaction on the same optical fiber. Product Showcases 14:30–15:30, Theater III

W3F.2 • 14:20 Invited Title to be Announced, Chris Doerr1; 1Acacia Communica- tions Inc., USA. Abstract not available. Wednesday, 11 March Fukutaro Hamaoka received his PhD in electrical engineering from Keio University, Japan, in 2009. He is currently with NTT Network Innovation Laboratories where he is engaged in the research and development of high capacity optical transport systems with ultra-wideband wavelength division multiplexing and high-symbol rate techniques. W3F.3 • 14:40 Invited W3G.2 • 14:30 Physics Side of Silicon/Nanophotonics, Michal Lip- Automated Thermal Drift Compensation in WDM-based son1; 1Columbia Univ., USA. Abstract not available. Silicon Photonic Multi-Socket Interconnect Systems, Mil- tiadis Moralis-Pegios1, Francesco Zanetto2, Emanuele Guglielmi2, Vittorio Grimaldi2, Konstantinos Fotiadis1, Stelios Pitris1, Theoni Alexoudi1, Peter De Heyn3, Yoojin Ban3, Joris Van Campenhout3, Douglas Aguiar2, Giorgio Ferrari2, Marco Sampietro2, Andrea Melloni2, Nikos Pleros1; 1Aristoteleio Panepistimio Thessalonikis, Greece; 2Dipartimento di Elettronica Informazione e Bioingegneria, Politecnico di Milano, Italy; 3imec, Belgium. We present an on-chip AWGR- based interconnect system with automated thermal drift compensation along cascaded resonant structures in a dual- socket layout. Error-free operation in a 30 Gb/s data-routing scenario within a 12C temperature range is demonstrated.

OFC 2020 • 8–12 March 2020 111 Room 1B Room 2 Room 6C Room 6D

W3A • Neuromorphic III: System- W3B • Panel: Will SDM Truly W3C • Open Network Architecture— W3D • High-speed Transmission— oriented—Continued Revolutionize the Submarine Continued Continued Communication Industry?—Continued

W3A.4 • 15:00 W3C.4 • 15:00 W3D.4 • 15:00 Intelligent Computing with Photonic Memories, Mario Operational Mode and Slicing Adaptation in OpenConfig End-to-end Learning of Geometrical Shaping Maximiz- 1 1 1 Miscuglio , Jiawei Meng , Volker Sorger , Ludmila J. Pro- Disaggregated Optical Networks, Davide Scano1, Alessio ing Generalized Mutual Information, Kadir Gumus1, Alex 2,4 3 2,4 1 kopeva , Yifei Zhang , Omer Yesiliurt , Armin Mehrabian , Giorgetti1, Andrea Sgambelluri1, Filippo Cugini1, Silvia Fich- Alvarado1, Bin Chen2, Christian Häger3, Erik Agrell3; 1Eind- 3 2,4 1 Juejun Hu , Alexander Kildishev ; George Washington era1; 1Scuola Superiore Sant Anna di Pisa, Italy. This paper hoven Univ. of Technology, Netherlands; 2School of Com- 2 3 Univ., USA; Birck Nanotechnology Center, USA; Depart- proposes and experimentally validates a workflow to handle puter Science and Information Engineering, Hefei Univ. of ment of Materials Science & Engineering, Massachusetts network failures implying the change of the operational Technology, China; 3Department of Electrical Engineering, 4 Inst. of Technology, USA; School of ECE, Purdue Univ., mode on optical transponders. An SDN control plane is Chalmers Univ. of Technology, Sweden. GMI-based end- USA. Here we propose and demonstrate photonic neural considered with a real packet-optical data plane. to-end learning is shown to be highly nonconvex. We network whose neuron’s non-volatile weighting functionality apply gradient descent initialized with Gray-labeled APSK is realized through an engineered hybrid Ge2Sb2Se4Te 1- constellations directly to the constellation coordinates. silicon Mach-Zehnder modulator photonic memory with State-of-the-art constellations in 2D and 4D are found thermoelectrical programmability. The network can ef- providing reach increases up to 26% w.r.t. to QAM. fortlessly perform inference with high accuracy at the speed-of-light.

W3A.5 • 15:15 W3C.5 • 15:15 Invited W3D.5 • 15:15 All-optical Recurrent Neural Network with Sigmoid Ac- Architecting Cloud-native Optical Network with Compressed Nonlinear Equalizers for Optical Inter- 1 1 tivation Function, George Mourgias-Alexandris , George Whitebox Equipment, Hideki Nishizawa1; 1NTT Network connects: Efficiency and Stability, Ling Ge , Wenjia 1 1 1 1 1 1 1 Dabos , Nikolaos Passalis , Anastasios Tefas , Angelina Innovation Labs, NTT Corporation, Japan. A flexible and Zhang , Yanci Zhang , Chenyu Liang , Jiangbing Du , 1 1 1 1 1 Totovic , Nikos Pleros ; Aristotle Univ. of Thessaloniki, open means of implementing an optical network by using Zuyuan He ; Shanghai Jiao Tong Univ., China. Efficiency Greece. We demonstrate experimentally, the first all-optical whitebox equipment with the Transponder Abstraction and stability of pruned Volterra-Series and Neural- recurrent-neuron with a sigmoid activation function and four Interface is proposed. Examples of automation and Network Equalizers are compared in the 112-Gbps optical WDM-inputs with 100psec pulses. The proposed neuron monitoring device/performance information using an open interconnects. The results show NNE outperforms VE at geared up a neural-network for financial prediction-tasks transport platform are described. equalization performance and complexity while VE is more exhibiting an accuracy of 42.57% on FI-2010. stable with channel variation. Wednesday, 11 March Wednesday, W3A.6 • 15:30 W3D.6 • 15:30 Top-Scored Interferometer-based Photonic Circuit Classifier Show- « All Silicon IQ Modulator with 1Tb/s Line Rate, Sasan ing >90% Accuracy for Well-known Iris Dataset without Zhalehpour1,2, Mengqi Guo3, Jiachuan Lin4, Zhuhong Utilizing Nonlinear Activation Function, Guangwei Cong1, Zhang4, Yaojun Qiao3, Wei Shi1,2, Leslie Rusch1,2; 1ECE Dept., Noritsugu Yamamoto1, Takashi Inoue1, Yuriko Maegami1, Univ. Laval, Canada; 2COPL, Univ. Laval, Canada; 3School Morifumi Ohno1, Makoto Okano1, Shu Namiki1, Koji Ya- of Information and Communication Engineering, BUPT, mada1; 1AIST (Natl Inst of Adv Indust Sci&Tech), Japan. We China; 4Canada Research Center, Huawei Technologies demonstrate that interferometer-based photonic circuits can Canada, Canada. By significantly improving the accuracy of perform classification by only phase control even without our nonlinear pre-compensation digital signal processing, activation functions, which can classify well-known Iris we achieve 1 Tb/s line rate with an all silicon modulator dataset with >90% accuracy in simulation, showing simple using 32QAM modulation with dual polarization emulation. photonic implementation for machine learning.

112 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Show ShowFloor ProgrammingFloor ProgrammingContinued W3E • Ultra-wideband Transmission— W3F • Special Chairs Session: Vision W3G • Datacentre Infrastructure and Continued 2030: Taking Optical Communications Metrology—Continued Cloud Network Evolution Bandwidth through the Next Decade (Session 1)— Drivers Continued IEEE Future Directions W3G.3 • 14:45 13:15–14:45, Theater II BER and TDECQ Correlation for Different Impairments in 400Gbps PAM4 system, Ying Zhao1, Chris Doerr1, Li Chen1, Ninghui Zhu1, Dinh Ton1, Ricardo Aroca1, Xue Unleashing the Full Potential of Silicon Huang1, Michelle Xu1; 1Acacia Communication Inc., Photonics USA. Closed-form bit-error rate (BER) expression as a 13:30–14:30, Theater III function of transmitter dispersion eye closure quaternary (TDECQ) is derived. Based on a silicon-photonics 400-Gbps PAM4 transceiver, BER and TDECQ correlation is verified NOS Panel II for different impairments. 13:30–15:00, Theater I

W3E.2 • 15:00 Invited W3F.4 • 15:00 Invited Top-Scored Candidate Technologies for Ultra-wideband Nonlinear Indium Phosphide Photonic Integrated Circuits, Meint W3G.4 • 15:00 « Product Showcases Optical Fibre Transmission System, Lidia Galdino1, Daniel Smit1, K. A. Williams; 1Technical Univ. Eindhoven, Nether- A 0.57-mW/Gbps, 2ch x 53-Gbps Low-Power PAM4 14:30–15:30, Theater III Semrau1, Polina Bayvel1; 1Univ. College London, UK. This lands. Photonic integration is essential for high-performance Transmitter Front-end Flip-chip-bonded 1.3-μm LD- paper discusses the limitations, practicalities and possible communications and now becomes directly exploitable in Array-on-Si, Toshiki Kishi1, Munehiko Nagatani1, Shigeru technologies for accomplishing high-capacity broadband sensing, metrology and imaging. InP PICs provide lasers, Kanazawa2, Kota Shikama1, Takuro Fujii1, Hidetaka Nishi1, New Optical Module Implementations transmission systems beyond C+L EDFA bandwidth. It also amplifiers, modulators and detectors in one platform, and Hiroshi Yamazaki1, Norio Sato1, Hideyuki Nosaka1, Shinji Mat- New High-bandwidth, Non-DSP provides a theoretical understanding of the contribution of a roadmap for higher density integration. suo1; 1NTT Device Technology Laboratories, Japan; 2NTT different noise source limiting the overall system throughput. Device Innovation Center, Japan. A low-power 2-channel Interface for Data Center and Campus PAM4 transmitter front-end consisting of 65-nm CMOS Interconnects PAM4 shunt LD drivers and flip-chip-bonded 1.3-μm LD- array-on-Si achieves simultaneous 2ch x 53-Gps PAM4 15:00–16:00, Theater II transmission over 2-km-long SSMF with power efficiency Wednesday, 11 March of 0.57 mW/Gbps. Open, Multi-vendor Networks - Design, Management and Operations W3F.5 • 15:20 Invited W3G.5 • 15:15 Invited 15:30–17:00, Theater III Computation with Optical Oscillator Networks, Hiroki The Role of Optics In Future AI-driven Intra-DC Infra- Takesue1; 1NTT Basic Research Labs, Japan. We discuss structure, Brad Booth1; 1Microsoft Corp, USA. The next future perspective of a new type of computing based on generation of artificial intelligence and machine learning  MW Panel IV: What is Next for Data networks of optical oscillators, which includes coherent Ising requires the ability to connect multiple nodes across an Center Interconnects (DCIs)? machines for combinatorial optimization and coherent XY ever-increasing scale. This growth is driving an increased machine for continuous optimization. role of optics to build these next generation system. 15:30–17:00, Theater I

W3E.3 • 15:30 W3F.6 • 15:40 Invited Comparative Investigations between SSMF and Hollow- Title to be Announced, Peter Winzer1; 1Independent core NANF for Transmission in the S+C+L-bands, Yang Consultant, USA. Abstract not available. Hong1, Thomas Bradley1, Natsupa Taengnoi1, Kyle Bottrill1, John Hayes1, Gregory Jasion1, Hans Mulvad1, Francesco Poletti1, Periklis Petropoulos1, David Richardson1; 1Univ. of Southampton, UK. An experimental study reveals that hollow-core nested anti-resonant-nodeless fibers exhibit a broader bandwidth, lower latency, and offer >20% capacity enhancement in short-reach >100-Gb/s adaptively-loaded DMT transmission, relative to a standard SMF of a similar length.

OFC 2020 • 8–12 March 2020 113 Room 1B Room 2 Room 6C Room 6D

W3A.7 • 15:45 Demonstration of Multi-channel Feedback Control for On-chip Microring Weight Banks, Chaoran Huang1, Simon Bilodeau1, Thomas Ferreira de Lima1, Alexander Tait1, Philip Ma1, Eric Blow1, Aashu Jha1, Hsuan-Tung Peng1, Bhavin J. Shastri1, Paul Prucnal1; 1Princeton Univ., USA. We demonstrate a multi-channel feedback control for microring weight banks and achieve a record-high accuracy and precision. With the simplified procedures, the feedback control becomes more practical for configuring large-scale photonic networks.

16:00–16:30 Coffee Beak, Upper Level Corridors and Exhibit Hall Wednesday, 11 March Wednesday,

114 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Show FloorShow Programming Floor ProgrammingContinued W3E • Ultra-wideband Transmission— W3F • Special Chairs Session: Vision W3G • Datacentre Infrastructure and Continued 2030: Taking Optical Communications Metrology—Continued New Optical Module Implementations through the Next Decade (Session 1)— New High-bandwidth, Non-DSP Continued Interface for Data Center and Campus W3E.4 • 15:45 Interconnects 150nm SCL-band Transmission through 70km SMF using 15:00–16:00, Theater II Ultra-wideband Dual-stage Discrete Raman Amplifier, Md A. Iqbal1, Lukasz Krzczanowicz1, Ian Phillips1, Paul Harper1, Wladek Forysiak1; 1Aston Univ., UK. We experimentally Open, Multi-vendor Networks - Design, demonstrate a dual-stage 150nm discrete Raman amplifier Management and Operations with 15dB gain and maximum ~8dB noise figure enabling SCL-band (1475-1625nm) WDM transmission through a 15:30–17:00, Theater III 70km SMF using 30GBaud PM-QPSK signals with low transmission penalties.  MW Panel IV: What is Next for Data Center Interconnects (DCIs)? 15:30–17:00, Theater I

16:00–16:30 Upper Level Corridors and Exhibit Hall 112 Gbps Electrical Interfaces 16:15–17:00, Theater II Wednesday, 11 March

OFC 2020 • 8–12 March 2020 115 Room 2 Room 6C Room 6D Room 6E

16:30–18:30 16:30–18:30 16:30–18:30 16:30–18:30 W4A • Digital Signal Processing II W4B • Nonlinear Devices & W4C • Novel Passive Devices W4D • Speciality Fibers Presider: Dan Sadot; Ben Gurion Univ. of the Amplifiers Presider: Yuqing Jiao; Technische Universiteit Presider: Eric Numkam Fokoua; University of Negev, Israel Presider: Francesca Parmigiani; Microsoft Eindhoven, Netherlands Southampton, UK Research Ltd, UK

W4A.1 • 16:30 W4B.1 • 16:30 W4C.1 • 16:30 Invited W4D.1 • 16:30 Tutorial Spectrally Slicing Coherent Optical Spectrum Analyzer Time-wavelength-mode Equalization by PSO for Random Topological Photonics in Integrated Waveguide, Xin-Tao Recent Developments in Photonic Crystal Fibre, Philip S. for Measuring Complex Field Waveforms of Optical Fiber Laser Based FMF Raman Amplifier, Yufeng Chen1, He1, Meng-Yu Li1, Hao-Yang Qiu1, Xiao-Dong Chen1, Jian- Russell1; 1Max-Planck-Inst Physik des Lichts, Germany. The 1 1 QAM Signals, Yasuhiro Kawabata , Naoki Urakawa , Kotaro Jiangbing Du1, Jiaxiong Li1, Lei Shen2, Jie Luo2, Zuyuan wen Dong1; 1Sun Yat-sen Univ., China. In this talk, we will tutorial will cover a selection of recent developments, 1 1 1 Kinoshita , Koji Igarashi ; Osaka Univ., Japan. We propose He1; 1Shanghai Jiao Tong Univ., China; 2Yangtze Optical show our recent works about exploration of valley photonic including GHz optoacoustic mode-locking, the properties spectrally slicing scheme without any bandwidth limitation Fibre and Cable Joint Stock Limited Company, China. We crystal waveguides towards the discovery of topological of chiral PCF, and gas-filled hollow core PCF for pulse for measuring complex field waveforms of optical QAM report an FMF Raman amplifier based on random fiber laser integrated photonics, particular for the silicon-on-insulator compression and generation of UV light at multi-MHz signals. With our scheme, complex filed waveforms of with optimized timewavelength-mode equalization by PSO slab in telecommunication wavelength. repetition rates. 12.5-Gbaud 16QAM signals are measured even with 300- method, achieving 1.3-dB spectral gain flatness, 2.3-dB MHz bandwidth. temporal SPV, and 0.03-dB MDG with 15-dB on-off gain.

W4A.2 • 16:45 W4B.2 • 16:45 On the Sample Complexity of Phase-retrieval Receiver Evaluation of Performance Penalty from Pump-signal 1 Based on 2-D Arrayed Photodetectors, Yuki Yoshida , Overlap in S+C+L Band Discrete Raman Amplifiers, Md 1 1 1 Toshimasa Umezawa , Atsushi Kanno , Keizo Inagaki , A. Iqbal1, Lukasz Krzczanowicz1, Ian Phillips1, Paul Harper1, 1 2 1 Naokatsu Yamamoto , Tetsuya Kawanishi ; National Inst Wladek Forysiak1; 1Aston Univ., UK. We experimentally 2 of Information & Comm Tech, Japan; Waseda Univ., investigate the transmission penalty on 30GBaud PM- Japan. Sample complexity, or equivalently the required QPSK signals due to adjacent Raman pumps in a 15dB number of photodetectors, of a carrier-less phase-retrieving gain, 150nm S+C+L-band discrete Raman amplifier. We Philip Russell is based at the MPI for the Science of Light coherent receiver is investigated numerically based on the report 4nm guard-band around the Raman pump ensures and the University of Erlangen-Nuremberg. Among his experimental data; it can achieve comparable complexity negligible Q2-penalty. awards include the 2005 Körber Prize for European Sci- to conventional coherent receivers. ence, the 2013 EPS Light Prize, the 2014 Berthold Leibinger Zukunftspreis, the 2015 IEEE Photonics Award and the 2018 W4A.3 • 17:00 W4B.3 • 17:00 W4C.2 • 17:00 Rank Prize Optoelectronics Prize. Field Recovery at Low CSPR Using Interleaved Carrier Comparison of Erbium, Raman and Parametric Optical Ultra-compact and Broadband Silicon Two-mode 1,2 Assisted Differential Detection, Tonghui Ji , Chuanbowen Fiber Amplifiers for Burst Traffic in Extended PON, Chan- Multiplexer Based on Asymmetric Shallow Etching on 1 1 1 1 1 Sun , Honglin Ji , Zhaopeng Xu , William Shieh ; The Univ. dra Bhanu Gaur1, Filipe Ferreira1, Vladimir Gordeinko1, Md a Multi-mode Interferometer, Zhen Wang1, Chunhui 2 of Melbourne, Australia; Univ. of Science and Technol- A. Iqbal1, Wladek Forysiak1, Nick Doran1; 1Aston Inst. of Yao 1, Yong Zhang1, Yikai Su1; 1Shanghai Jiao Tong Univ., ogy Beijing, China. We propose an interleaved subcarrier Photonic Technologies, UK. Experimental comparison of China. We present a silicon two-mode multiplexer with a loading scheme for double-sideband signals to relax 2 burst traffic amplification by: a polarization independent footprint of 1.5×7.24 μm . The operation principle is based the high CSPR requirement for self-coherent detection fiber optic parametric amplifier, a discrete Raman fiber on simultaneous multi-mode conversion. In the wavelength

Wednesday, 11 March Wednesday, systems. Experimental result demonstrates a successful amplifier and an erbium-doped fiber amplifier. Parametric range of 1521nm~1571nm, the crosstalk is below –15 dB. 100-Gb/s OFDM signal transmission over 160-km SSMF amplification improves required received power by more at 3.5-dB CSPR. than 3dB.

W4A.4 • 17:15 W4B.4 • 17:15 W4C.3 • 17:15 WDM Operation and Multiple Dispersion Elements for Noise Figure Evaluation of Polarization-insensitive Single- A Metalens Array on a 12-inch Glass Wafer for Optical a Direct-detection System using Phase Retrieval, Huibin pump Fiber Optical Parametric Amplifiers, Vladimir Gordi- Dot Projection, Ting Hu1, Qize Zhong1, Nanxi Li1, Yuan 1 1 1 1,2 Zhou , Kaiheng Zou , Peicheng Liao , Ahmed Almaiman , enko1, Filipe Ferreira1, Charles Laperle2, Maurice O’Sullivan2, Dong1, Zhengji Xu1, Dongdong Li1, Yuan Hsing Fu1, Yanyan 1 1 1 Fatemeh Alishahi , Ahmad Falahpour , Amir Minoofar , Chandra Bhanu Gaur1, Kim Roberts2, Nick Doran1; 1Aston Zhou1, Keng Heng Lai1, Vladimir Bliznetsov1, Hou-Jang 3 1 1 Moshe Tur , Alan E. Willner ; Univ. of Southern California, Univ., UK; 2Ciena Corporation, Canada. Several polarization- Lee1, Wei Loong Loh1, Shiyang Zhu1, Qunying Lin1, Navab 2 3 USA; King Saud Univ., Saudi Arabia; School of Electrical insensitive configurations for single-pump phase-insensitive Singh1; 1IME, A*star, Singapore, Singapore. We report the Engineering, Tel Aviv Univ., Israel. We by simulation and fiber optical parametric amplifier are experimentally first demonstration of a metalens array fabricated on a experimentally investigate appropriate dispersion values evaluated using 35GBaud PDM-QPSK signals. An equivalent 12-inch glass wafer for dot projection. Good uniformity in and numbers of the dispersion elements for a phase noise figure of 9.1±1dB is experimentally derived by dot size is achieved, with a maximum deviation of 8% to retrieval based direct-detection system. A 149.5-Gbits/s comparison with a variable noise figure EDFA. the simulated value. QPSK transmission using phase retrieval with two dispersion elements is demonstrated in a WDM system.

116 OFC 2020 • 8–12 March 2020 Room 6F Room 7 Room 8 Show FloorShow Programming Floor ProgrammingContinued 16:30–18:30 16:30–18:30 16:30–18:30 W4E • Special Chairs Session: Vision W4F • Reliability and Test W4G • Photodetectors and Receivers 2030: Taking Optical Communications Presider: Kenneth Jackson; Sumitomo Elec Presider: Dong Pan; Sifotonics, USA Open, Multi-vendor Networks - Design, through the Next Decade (Session 2) Device Innov USA, USA Management and Operations 15:30–17:00, Theater III W4E.1 • 16:30 Invited W4F.1 • 16:30 Tutorial W4G.1 • 16:30 Coherent Communication: Cost per Bit, Kim Rob- Reliability Qualification and Failure Mechanisms for Heterogeneous Photodiodes on Silicon Nitride Wave- 1 erts1; 1WaveLogic Science, Ciena, Canada. Digital coherent Semiconductor Lasers and Fiber Optic Transceivers, Rob- guides with 20 GHz Bandwidth, Qianhuan Yu , Junyi  MW Panel IV: What is Next for Data 1 1 1 1 1 optical transmission enabled a dramatic lowering of the cost ert Herrick1; 1Intel Corporation, USA. In this tutorial, we Gao , Nan Ye , Boheng Chen , Keye Sun , Linli Xie , Kartik 2 3 3 Center Interconnects (DCIs)? per bit in high capacity links. It is time for the next revolution! will cover 3 topics: reliability qualification of fiber-optic Srinivasan , Michael Zervas , Gabriele Navickaite , Michael 3 1 1 2 The (admittedly meager) set of candidates will be examined transceivers, reliability testing of semiconductor lasers, and Geiselmann , Andreas Beling ; Univ. of Virginia, USA; Mi- 15:30–17:00, Theater I to see what might break through the pack of evolutionary failure analysis and failure mechanisms in optoelectronics. crosystems and Nanotechnology Division, National Inst. 3 cost improvements and launch us in a new direction. of Standards and Technology, USA; LIGENTEC, Switzer- land. We demonstrate InGaAs/InP modified uni-traveling 112 Gbps Electrical Interfaces carrier photodiodes on Si3N4 waveguides with 20 GHz bandwidth and record-high external (internal) responsivities 16:15–17:00, Theater II of 0.8 A/W (0.94 A/W) and 0.33 A/W (0.83 A/W) at 1550 nm and 1064 nm, respectively. Balanced photodiodes have 10 GHz bandwidth.

W4E.2 • 16:50 Invited W4G.2 • 16:45 Technology Evolution and Capacity Growth in Undersea Si-waveguide-coupled Membrane InGaAsP-multiple- Cables, Alexei N. Pilipetskii1, Georg Mohs1; SubCom, USA. quantum-well Photodetector with Large Bandwidth 1 We examine the technology evolution that fueled exponen- at High Optical Input Power, Yoshiho Maeda , Tatsurou 1 1 1 1 tial cable capacity growth over the last decades. We are at Hiraki , Takuma Aihara , Takuro Fujii , Koji Takeda , Tai 1 1 1 a critical point when transmission technology is mature and Robert Herrick is responsible for laser reliability at Intel’s Tsuchizawa , Shinji Matsuo ; NTT Device Technology

approaching fundamental limits. What is the path forward? Silicon Photonic Product Division, and has worked for Intel Laboratory, Japan. A Si-waveguide coupled membrane Wednesday, 11 March since 2013. After obtaining an MSEE at the University of photodetector (PD) with an InGaAsP multiple-quantum-well Illinois, his career started at McDonnell Douglas, working absorption layer shows a fiber-to-PD responsivity of 0.4 on early OEIC and high power laser R&D, where he did A/W and bandwidth over 20 GHz at a fiber input power device modelling, mask design, and process development. up to +5 dBm. After gaining an interest in reliability physics from the late Dr. Robert G. Waters, Dr. Herrick went to UCSB, and did the W4G.3 • 17:00 first studies of VCSEL degradation for his PhD dissertation Monolithic Germanium PIN Waveguide Photodetector with Professors Larry Coldren and Pierre Petroff. In the past Operating at 2 μm Wavelengths, Ziqiang Zhao1, Chongpei 20 years, Dr. Herrick has specialized in semiconductor laser Ho1, Qiang Li1, Kasidit Toprasertpong1, Shinichi Takagi1, reliability and failure analysis, and has written many of the Mitsuru Takenaka1; 1Univ. of Tokyo, Japan. We demonstrated most cited papers and invited book review chapters on the Ge PIN waveguide photodetector operating at 2 µm subject. He has previously worked as a laser and fiber-optics wavelengths monolithically integrated on Ge-on-insulator transceiver reliability engineer for many of the large fiber- platform. Despite at sub-bandgap wavelength, 500-µm-long optics companies in Silicon Valley, including HP / Agilent, photodetector exhibited 0.25 A/W responsivity at -5 V, Emcore, Finisar, and JDSU / Lumentum. attributable to the defect-mediated detection mechanism.

W4E.3 • 17:10 Invited W4G.4 • 17:15 5G Optical Transport Network, Chih-Lin I1; 1China Mobile Coherent Homodyne TDMA Receiver Based on TO-can Communications Group, China. Abstract not available. EML for 10 Gb/s OOK with <40 ns Guard Interval, Ber- nhard Schrenk1, Dinka Milovancev1, Nemanja Vokic1, Fotini Karinou2; 1AIT Austrian Inst. of Technology, Austria; 2Mi- crosoft Research Ltd., UK. Graceful migration of an IM/DD transmitter towards a single-polarization, analogue coherent burst-mode receiver is experimentally demonstrated for 10 Gb/s on-off keying in TDMA mode, with 400 kHz frame rate and <40 ns guard interval.

OFC 2020 • 8–12 March 2020 117 Room 2 Room 6C Room 6D Room 6E

W4A • Digital Signal Processing II— W4B • Nonlinear Devices & W4C • Novel Passive Devices— W4D • Speciality Fibers—Continued Continued Amplifiers—Continued Continued

Top-Scored W4A.5 • 17:30 « W4B.5 • 17:30 W4C.4 • 17:30 W4D.2 • 17:30 Mode-Multiplexed Full-Field Reconstruction Using Weakly-coupled Few-mode Gain-flattening Filter Using Demonstration of an Ultra-compact Bend for Four Modes 25 Gb/s Transmission Over 1-km Graded-Index Single- 1 1 Direct and Phase Retrieval Detection, Haoshuo Chen , Long-period Fiber Grating in Double-cladding FMF, Jin- Based on Pixelated Meta-structure, Hucheng Xie2, Yingjie mode Fiber Using 910 nm SM VCSEL, Adrian A. Juarez , 1,2 1,3 1 1 1 1 Juan Carlos Alvarado Zacarias , Hanzi Huang , Nicolas K. glong Zhu1, Yu Yang1, Junchi Jia1, Jin He2, Zhangyuan Liu2, Wenxiang Li2, Jiangbing Du1, Yong Yao2, Qinghai Song2, Xin Chen , Kangmei Li , James Himmelreich , Jason Hurley , 1 1 1 1 4 3 Fontaine , Roland Ryf , David Neilson , Rodrigo Amezcua Chen1,2, Yongqi He1, Juhao Li1,2; 1Peking Univ., China; 2Peking Ke Xu2; 1State Key Laboratory of Advanced Optical Commu- Snigdharaj Mishra , Christian Fiebig , Gunter Larisch , Dieter 2 1 2 3,2 1 1 2 Correa ; Nokia Bell Labs, USA; CREOL, The Univ. of Univ. Shenzhen Institution, China. A weakly-coupled few- nication Systems and Networks, Shanghai Jiao Tong Univ., Bimberg , Ming-Jun Li ; Corning Inc., USA; Institude 3 Central Florida, USA; Key lab of Specialty Fiber Optics mode gain-flattening filter (FM-GFF) based on long-period Shanghai, China; 2Harbin Inst. of Technology (Shenzhen), of Solid State Physics, Technische Universtität Berlin, 3 and Optical Access Networks, Shanghai Univ., China. We fiber gratings (LPFGs) in double-cladding few-mode fiber China. A multimode bend for TE , TE , TE and TE modes Germany; Bimberg Chinese-German Center for Green 0 1 2 3 4 realize mode-multiplexed full-field reconstruction over six- is proposed. Utilizing the FM-GFF, we demonstrate that with a radius of 3.9 μm is demonstrated. The insertion loss is Photonics, China; Advanced Optical Technologies, Corning spatial-and-polarization modes after 30-km multimode fiber the gain spectra of each core mode can be independently measured to be < 1.8 dB, and the crosstalk is below -17 dB. Optical Communications GmbH and Co. KG, Germany. We transmission using intensity-only measurements without any flattened. investigate experimentally the feasibility of single-mode optical carrier. The receiver’s capabilities to cope with modal VCSEL transmission at 910 nm over a graded-index single- dispersion and mode-dependent loss are experimentally mode fiber and achieve a BER < 10-12 for a transmission demonstrated. distance of 1-km at 25 Gb/s.

W4A.6 • 17:45 W4B.6 • 17:45 W4C.5 • 17:45 W4D.3 • 17:45 Mitigation of Inter-subcarrier Linear Crosstalk with Differential Modal Gain Reduction Using a Void Inscribed Ultrabroadband Polarization Insensitive Hybrid Us- Low Loss, Large Bandwidth Antiresonant Hollow-core 1 Groupwise Fixed FDE Assisted MIMO, Masaki Sato , in a Two-mode-erbium Doped Fiber, Yoko Yamashita1, ing Multiplane Light Conversion, Nicolas K. Fontaine2, Fiber Design for Short-Reach Links, William Shere1, 1 2 1 Hidemi Noguchi , Junichiro Matsui , Jun’ichi Abe , Naoto Takashi Matsui1, Masaki Wada1, Shinichi Aozasa1, Taiji Saka- Yuanhang Zhang1,2, Haoshuo Chen2, Roland Ryf2, David Gregory Jasion1, Eric Numkam Fokoua1, Francesco Po- 1 1 1 Ishii , Emmanuel Le Taillandier de Gabory ; System Platform moto1, Kazuhide Nakajima1; 1NTT , Japan. Differential modal Neilson2, Guifang Li1, Mark Cappuzzo3, Rose Kopf3, Al Tate3, letti1; 1Optoelectronics Research Centre, UK. We present 2 Research Laboratories, NEC Corporation, Japan; NEC gain (DMG) reduction technique that uses laser-inscribed Hugo Safar3, Cristian Bolle3, Mark Earnshaw3, Joel Carpen- antiresonant hollow-core optical fibre designs for VCSEL- Corporation, Japan. We experimentally demonstrated void is proposed. We reveal that DMG can be successfully ter4; 1Univ. of Central Florida, CREOL, USA; 2Nokia Bell based short-reach transmission applications in the 850nm inter-subcarrier linear crosstalk mitigation of five-subcarrier controlled by introducing one void into two-mode-EDF Labs, USA; 3Nokia Bell Labs, USA; 4The Univ. of Queensland, band. Our simulations show that lower loss and twice as 10-GBaud RRC-PM-16QAM using Groupwise fixed FDE while keeping the initial gain, NF and flatness. Australia. We designed, fabricated and tested an optical wide bandwidths than solid, multi-mode, graded index assisted MIMO. The proposed method enabled 6.3% hybrid that supports an octave of bandwidth (900-1800 fibres are possible. tighter subcarrier spacing over 120 km SSMF, compared nm) and below 4-dB insertion loss using multiplane light to conventional 2x2 MIMO. conversion. Measured phase errors are below 3° across a measurement bandwidth of 390 nm.

W4A.7 • 18:00 Invited W4B.7 • 18:00 W4C.6 • 18:00 Invited W4D.4 • 18:00 Invited Nonlinear Frequency Division Multiplexing: Immune to Strongly Coupled Few-mode Erbium-doped Fiber Integrated Quantum Photonics on Silicon Platform, Yun- Single-mode VCSEL Transmission Over Graded-index Nonlinearity but Oversensitive to Noise?, Stella Civelli1,2, Amplifiers with Ultralow Differential Modal Gain, Yap- hong Ding1,2, Daniel Llewellyn3, Imad Faruque3, Ste- Single-mode Fiber Around 850 nm, Ming-Jun Li1, Kangmei Enrico Forestieri1,2, Marco Secondini1,2; 1Inst. of Communi- ing Liu1, Xutao Wang1, Zhiqun Yang1, Lin Zhang1, Guifang fano Paesani3, Davide Bacco1,2, Karsten Rottwitt1,2, Li1, Xin Chen1, Snigdharaj Mishra1, Adrian A. Juarez1, Jason cation, Information and Perception Technologies, Scuola Li2; 1Tianjin Univ., China; 2CREOL, USA. We propose new Anthony Laing3, Mark Thompson3, Jianwei Wang4, Leif Hurley1, Jeff Stone1; 1Corning Incorporated, USA. We discuss Superiore Sant’Anna, Italy; 2Photonic Networks & Technolo- few-mode EDFAs based on strong mode coupling, which Oxenløwe1,2; 1Department of Photonics Engineering, Dan- fiber designs of graded-index profile single-mode fiber gies National Laboratory, National, Inter-Univ. Consortium can be realized by distributed long-period gratings. As a marks Tekniske Universitet, Denmark; 2Center for Silicon for both 1310 nm single-mode transmission and 850 nm Wednesday, 11 March Wednesday, for Telecommunications, Italy. Detection strategies and result, an ultralow differential modal gain of 0.5 dB can be Photonics for Optical Communication (SPOC), Technical few-mode transmission and present fiber characterization modulation formats designed for the AWGN channel achieved with layered doping. Univ. of Denmark, Denmark; 3H. H. Wills Physics Laboratory and system transmission performance results using a are not well suited to operate in the nonlinear frequency and Department of Electrical and Electronic Engineering, single-mode VCSEL. domain. We study some improved detection strategies and Univ. of Bristol, UK; 4State Key Laboratory for Mesoscopic investigate the ultimate performance limitations of NFDM Physics and Collaborative Innovation Center of Quantum systems that map conventional linear modulations on the Matter, School of Physics, Peking Univ., China. We present nonlinear spectrum. our recent study on silicon integrated quantum photonics, from single photon sources to applications of quantum communication, generation and manipulation of high- dimensional quantum entanglement states, and sampling of quantum state of light.

118 OFC 2020 • 8–12 March 2020 Room 6F Room 7 Room 8 Show Floor Programming W4E • Special Chairs Session: Vision W4F • Reliability and Test—Continued W4G • Photodetectors and Receivers— 2030: Taking Optical Communications Continued through the Next Decade (Session 2)— Continued W4E.4 • 17:30 W4F.2 • 17:30 Invited W4G.5 • 17:30 The Future of Access and Edge Cloud Integrated Networks, Effects of Reflow Soldering Process Conditions on the Re- Uni-Traveling Carrier Photodiodes with Type-II 1 1 GaAs Sb /In Ga As Hybrid Absorbers Integrated Peter Vetter, Nokia Bell Labs, USA. The past decade was liability of Specialty Optical Fibers, Mei Wen , Ralph Lago , 0.5 0.5 0.53 0.47 Jie Li1; 1OFS, USA. We will review the reliability of specialty with Substrate Lens in 400 Gbit/sec DR-4 System, None defined by the emergence of central cloud and ubiquitous 1 2 1,3 optical fibers for high temperature uses with an emphasis on Naseem , Hsiang-Szu Chang , Rui-Lin Chao , Jack Jia- wireless broadband (via LTE and WiFi). In future, the cloud 2,4 2,4 2 2 fibers through reflow soldering process conditions. Coating Sheng Huang , Yu-Heng Jan , H.-S. Chen , C.-J. Ni , Emin will be distributed to the edge and radio access points move 2 1 1 2 thermal stability, fiber mechanical properties, and induced Chou , Jin-Wei Shi ; National Central Univ., Taiwan; Source closer to the end-devices. The fiber access network will evolve 3 optical loss will be discussed. Photonics, Taiwan; Department of Photonics, National to a high capacity x-haul infrastructure. Chiao Tung Univ., Taiwan; 4Source Photonics, USA. UTC-

PD with type-II GaAs0.5Sb0.5/In0.53Ga0.47As hybrid absorber integrated with substrate lens is demonstrated with high responsivity (0.95A/W) and wide O-E bandwidth (33GHz) at 1310 nm wavelength. High-sensitivity (-10dBm OMA) is realized in 400G lens-free DR-4 platform.

W4E.5 • 17:50 W4G.6 • 17:45 Choice of Optical Access Innovations to Meet Today’s Zero-bias High-Speed Evanescently Coupled Wave- Needs and Support the Challenges of Tomorrow, Philippe guide Type-II UTC Photodiode, Fengxin Yu1, Keye Sun1, Chanclou1, Luiz Anet Neto1, Gaël Simon1, Fabienne Saliou1, Qianhuan Yu1, Andreas Beling1; 1Univ. of Virginia, USA. We 1 1 1 Nicolas Neyret , Erick Thily , Daniel Abgrall , David Mino- demonstrate GaAs0.5Sb0.5/In0.53AlyGa0.47-yAs uni-traveling dier1; Orange Labs, France. The aims of this paper are to carrier (UTC) waveguide photodiodes with high bandwidth illustrate the major trends for optical access innovations of up to 66 GHz at zero bias and over 100 GHz bandwidth capable of meeting present and future requirements. It under low bias condition. Wednesday, 11 March also highlights what are the main technology enablers for identified use cases.

W4F.3 • 18:00 W4G.7 • 18:00 TDECQ Sensitivity to Algorithmic Implementation and Highly Sensitive 56 Gbps NRZ O-band BiCMOS-Silicon Noise Characterization, Varghese A. Thomas1, Alirio Photonics Receiver using a Ge/Si Avalanche Photodi- Melgar1, Siddharth Varughese1, Daniel Garon1, Kan Tan2, ode, Srinivasan Ashwyn Srinivasan1, Joris Lambrecht2, Shane Hazzard2, Maria Agoston2, Pavel Zivny2, Stephen Mathias Berciano1, Sebastien Lardenois1, Philippe Absil1, E. Ralph1; 1Georgia Inst. of Technology, USA; 2Tektronix, Johan Bauwelinck2, Xin Yin2, Marianna Pantouvaki1, Joris USA. We demonstrate that TDECQ is sensitive to algorithmic Van Campenhout1; 1imec, Belgium; 2Ghent Univ., Belgium. A implementation and to receiver noise. It is inherently hybrid BiCMOS-Silicon Photonics receiver with a waveguide- challenging to quantify transmitter performance when coupled Ge/Si avalanche photodiode is demonstrated with receiver equalization is estimated computationally. Methods OMA sensitivities of -14.4dBm for error-free operation at to reduce uncertainty are identified. 50 Gbps and -18.6 dBm under the KP4-FEC limit at 56 Gbps NRZ-OOK. W4E.6 • 18:10 Title to be Announced, Hong Liu, Google, USA. Abstract W4F.4 • 18:15 W4G.8 • 18:15 not available. Accelerating TDECQ Assessments using Convolutional 64Gbps PAM4 Modulation for a Low Energy SiGe Neural Networks, Siddharth Varughese1, Daniel Garon1, Waveguide APD with Distributed Bragg Reflectors, Zhi- Alirio Melgar1, Varghese A. Thomas1, Pavel Zivny2, Shane hong Huang1, Binhao Wang1, Yuan Yuan1,2, Di Liang1, Hazzard2, Stephen E. Ralph1; 1Georgia Inst. of Technology, Marco Fiorentino1, Raymond Beausoleil1; 1Hewlett Packard USA; 2Tektronix Incorporated, USA. We experimentally laboratories, USA; 2Univ. of Virginia, USA. We demonstrate demonstrate the use of convolutional neural networks a low-voltage waveguide Si-Ge APD that integrates a to accelerate TDECQ assessments for 400G direct- distributed Bragg reflector (DBR). Quantum efficiency has detect transmitter qualification. The method estimates been improved from 60\% to 90\% at 1550nm while still TDECQ from static eye-diagrams ~1000 times faster than achieving a 25GHz bandwidth. The device under 64Gbps conventional methods with <0.25dB mean discrepancy. PAM4 modulation showed 30\% increase in OMA, which enables 1.2dB improvement in receiver sensitivity.

OFC 2020 • 8–12 March 2020 119 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

07:30–08:00 Morning Coffee, Upper Level Corridors

08:00–10:00 08:00–10:00 08:00–10:00 08:00–10:00 08:00–10:00 08:00–10:00 Th1A • Advanced Design Th1B • High Speed PON Th1C • Microwave Th1D • Pushing the Th1E • Symposium: Th1F • AI for Reliable for Passive Devices Presider: Xinying Li; Corning Photonics Bit-rate in Practical Future Photonics Devices Networking Presider: Nicolas Dupuis; Inc, USA Presider: Maurizio Burla; ETH Networks fJ/bit Optical Networks Presider: António Eira; IBM TJ Watson Research Zurich, Switzerland Presider: Shuto Yamamoto; Enabled by Emerging Infinera Corporation, Center, USA NTT Electronics Corp, Japan Optical Technologies Portugal (Session 2)

Th1A.1 • 08:00 Th1B.1 • 08:00 Th1C.1 • 08:00 Invited Th1D.1 • 08:00 Invited Th1E.1 • 08:00 Invited Th1F.1 • 08:00 Generative Deep Learning Mod- 100 Gbps PON L-band Down- Low-loss LiNbO3 for MWP, Marko Real-time Demonstration of 500- Saving Energy and Increasing Simultaneous Detection of Anomaly el for a Multi-level Nano-optic stream Transmission Using IQ-MZM Loncar1; 1Harvard Univ., USA. Abstract Gbps/lambda and 600-Gbps/lambda Density in Information Process- Points and Fiber Types in Multi-span Broadband Power Splitter, Yingheng CD Digital Pre-Compensation and not available. WDM Transmission on Field-installed ing Using Photonics, David A. B. Transmission Links Only by Receiver- 1,2 1 Tang , Keisuke Kojima , Toshiaki DD ONU receiver, Pablo Torres- Fibers, Hideki Maeda1, Hiroki Kawaha- Miller1; 1Stanford Univ., USA. We side Digital Signal Processing, Takeo 1 1 1 1 Koike-Akino , Ye Wang , Pengxiang Ferrera , Valter Ferrero , Roberto ra1, Kohei Saito1, Takeshi Seki1, Takeo argue energy and interconnect density Sasai1, Masanori Nakamura1, Seiji 1 1 1 1 Wu , Mohammad H. Tahersima , De- Gaudino ; Politecnico di Torino, Sasai1, Fukutaro Hamaoka1; 1NTT Cor- in information processing can be Okamoto1, Fukutaro Hamaoka1, Shu- 1 1 vesh Jha , Kieran Parsons , Minghao Italy. We propose a downstream poration, Japan. This paper describes improved by orders of magnitude to Yamamoto1, Etsushi Yamazaki1, 2 1 Qi ; Mitsubishi Electric Research direct-detection 100G-PON solution recent technical challenges related using parallel free-space optical Asuka Matsushita1, Yoshikaki Kisa- 2 Laboratories, USA; School of Electri- aided by chromatic dispersion digital to the real-time demonstration 500- channels inside and between racks, ka1; 1NTT , Japan. We experimentally cal and Computer Engineering and pre-compensation using an IQ-MZM, Gbps/lambda and 600-Gbps/lambda enabled by integrated waveguide demonstrate simultaneous localization Birck Nanotechnology Center, Pur- allowing L-band operation and 29 in field experiments conducted photonics, and run synchronously of optical excess loss points and spans due Univ., USA. A novel Conditional dB power budget with low ONU on high-capacity optical transport without time-multiplexing. with different dispersion in multi-span Variational Autoencoder (CVAE) model complexity and without requiring networks. DSP-ASIC integrated real- fiber links using a neural-network with the adversarial censoring is single-sideband modulation. time optical transponders are utilized. based digital backpropagation. presented to help to generate the 550nm broad bandwidth (1250nm to 1800nm) power splitter with arbitrary splitting ratio.

Th1A.2 • 08:15 Th1B.2 • 08:15 Invited Th1F.2 • 08:15 Demonstration of 3+/-0.12dB Power IEEE 50 Gb/s EPON (50G- Soft-failure Localization and De- Splitting over 145nm Optical Band- EPON), Curtis Knittle1; 1CableLabs, vice Working Parameters Estima- width in a 31-um Long 3-dB Rapid USA. This paper discusses the next tion in Disaggregated Scenari- Adiabatic Coupler, Josep Fargas generation of IEEE optical access, os, Sima Barzegar1, Emanuele E. 1 1 Cabanillas , Miloš A. Popović , Bo- the 50 Gb/s Ethernet Passive Optical Virgillito2, Marc Ruiz1, Alessio Ferrari2, 1 1 han Zhang ; Boston Univ., USA. We Network (50G-EPON), capable of Antonio Napoli3, Vittorio Curri2, Luis experimentally validate the rapid symmetric or asymmetric rates up to Velasco1; 1Universitat Politecnica adiabatic coupling (RAC) concept 50 Gb/s while coexisting with legacy de Catalunya, Spain; 2Politecnico di and demonstrate 50+/-1.4% (3+/- PON technologies on the same optical Torino, Italy; 3Infinera, Germany. A soft- 0.12dB) power splitting over a record distribution network. failure localization and key working 145nm bandwidth from either port of parameters estimation system is a 31um-long, 2x2 coupler, the widest proposed for network diagnosis and +/-1.4%-bandwidth by a factor of 4. maintenance. We show that a double analysis of monitoring data and estimated working parameters greatly anticipates degradations. Thursday, 12 March Thursday,

120 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show Floor Programming

07:30–08:00 Morning Coffee, Upper Level Corridors

08:00–10:00 08:00–10:00 08:00–10:00 08:00–10:00 08:00–10:00 Th1G • Modulation and Th1H • Characterization Th1I • Digital Signal Th1J • Panel: Devices Th1K • Optical Wireless Coding of SDM Fibers Processing Techniques and Systems at 130 Sensing Systems for 5G Presider: Zhensheng Jia; Presider: Tetsuya Hayashi; and Mitigation Gbaud and Above: Presider: Gee-Kung Chang; CableLabs, USA Sumitomo Electric Industries Presider: Jianjun Yu; Fudan What is the Outlook? Georgia Inst. of Technology, Ltd, Japan Univ., China USA

Th1G.1 • 08:00 Th1H.1 • 08:00 Invited Th1I.1 • 08:00 Invited Ever increasing demands for network Th1K.1 • 08:00 Invited Joint Optimization of Coding, Shap- Distributed Measurement of Mode Advanced DSP for Monitoring and bandwidth are driving the need for Visible Light Communications for optical interconnects with higher ing and Clipping for Amplifier-less Dispersion of SDM Fibers, Shin- Mitigation in Optical Transport Automotive Intelligence, Takaya 1 data-throughputs. Early on the speed 1 1 Coherent Optical Systems, Abel go Ohno1, Kunihiro Toge1, Daisuke Networks, Takeshi Hoshida , Takahito Yamazato ; Nagoya Univ., Japan. In 1 1 of the optical interconnects were Lorences-Riesgo1, Fernando Guio- Iida1, Tetsuya Manabe1; 1NTT Ac- Tanimura , Shoichiro Oda , Setsuo this talk, the author looks back to the 1 1 much faster than the capabilities of mar1, Beatriz M. Oliveria1,2, Maria C. cess Network Service Systems Lab- Yoshida , Hisao Nakashima , Guoxiu brief history of vehicle automation and 1 2 1 the electronics feeding them. More R. Medeiros1,3, Paulo P. Monteiro1,2; 1In- oratories, Japan. Nondestructive Huang , Zhenning Tao ; Fujitsu Lim- related communication technologies. 2 recently, limitations in these optical stituto De Telecomunicacoes, Portu- methods for measuring the mode ited, Japan; Fujitsu R&D Center, He then introduces visible light interconnects has forced designers gal; 2Univ. of Aveiro, Portugal; 3Univ. of dispersion distribution of SDM fiber China. DSP-based transceivers with communication and its application to be more creative, utilizing higher Coimbra, Portugal. We experimentally that utilize Rayleigh backscattering enhanced monitoring and mitigation for automotive intelligence. symbol rates, higher order modulation demonstrate that performance of observed with coherent optical capabilities enable highly efficient formats, space or wavelength division amplification-less coherent optical frequency-domain reflectometry are transport networking with minimized multiplexing schemes to achieve systems can be significantly improved reviewed. Experiments on few-mode excess margin and open line systems higher optical interconnect through- by a joint optimization of FEC coding and coupled multicore fibers are with enhanced availability. Examples puts. Currently, with the availability overhead, modulation order, and presented. for such advanced DSP algorithms of high-speed CMOS electronics, a signal clipping, enabling power are introduced. more economical path towards higher budget gains of >1dB. interconnect throughputs is to increase the symbol rates. This has driven the need for optical components with Th1G.2 • 08:15 wider bandwidths. Parallel Bisection-based Distribution Today’s commercially deployed com- Matching for Probabilistic Shap- ponents, with speeds of in the range of ing, Mengfan Fu1, Qiaoya Liu1, Xiaobo 60GBaud, are adequate for 400Gb/s Zeng1, Yiwen Wu1, Lilin Yi1, Weisheng networks. But what about for 800Gb/s Hu1, Qunbi Zhuge1; 1Shanghai Jiao systems and beyond? Can the band- Tong Univ., China. We propose a width and the efficiency of optical parallel bisection-based distribution components be further enhanced to matching for constant composition enable such systems? Is the analog probabilistic shaping. The number of electronics capable of supporting such serial operations can be significantly bandwidths? And, what is the impact reduced without performance loss, Thursday, 12 March to the DSP design considering the making it a suitable architecture for limitation of bandwidth and ENOB large block lengths. when the symbol rate reaches 130 GBaud and beyond?

This panel will explore the technologies available to enable such high bandwidth optical interconnects. From transmitters to receivers, this panel will examine today’s technologies and limitations and consider what options designers have for future 800Gb/s and higher network deployments.

OFC 2020 • 8–12 March 2020 121 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

Th1C.2 • 08:30 Th1A.3 • 08:30 Invited Th1D.2 • 08:30 Top-Scored Th1E.2 • 08:30 Invited Th1F.3 • 08:30 Dual-chirp Microwave Waveform « Automated Optical Waveguide De- Single-Carrier 500Gb/s Unrepeat- Integrated Green Photonics For Interpretable Learning Algorithm Generation by a Dual-beam Optically sign Based on Wavefront Matching ered Transmission over a Single Next-gen High-performance Com- Based on XGBoost for Fault Predic- 1 1 injected Semiconductor Laser, Pei puting, Di Liang1, Geza Kurczveil1, tion in Optical Network, Chunyu Method, Toshikazu Hashimoto ; NTT 1 2 1 431km Span with Single Fiber Zhou , Hao Chen , Nianqiang Li , Ren- 1 1 Zhihong Huang1, Binhao Wang1, Zhang1, Danshi Wang1, Chuang Song1, Device Technology Labs., NTT Corp., 1 2 1 Configuration, Xu Jian ; ACCE- heng Zhang , Shilong Pan ; Soochow Antoine Descos1, Sudharsanan Srini- Lingling Wang1, Jianan Song1, Luyao Japan. There are large degrees of 2 LINK, China. We demonstrate record Univ., China; Nanjing Univ. of Aero- 1 1 1 1 1 1 freedom (DOF) in the design of single-carrier 500Gb/s unrepeatered vasan , Yingtao Hu , Xiaoge Zeng , Guan , Min Zhang ; Beijing Univ. nautics and Astronautics, China. We 1 1 micro-fabricated optical circuits. transmission over a single span of Wayne Sorin , Stanley Cheung , of Posts and Telecomm, China. We propose an approach to generating 2 1 This paper introduces the wavefront 431km with single fiber configuration, Songtao Liu , Peng Sun , Thomas Van propose a fault prediction scheme dual-chirp microwave waveforms 1 1 matching method as an automated using optimized high-order Raman Vaerenbergh , Marco Fiorentino , using interpretable XGBoost based based on a dual-beam optically 2 design technique of the DOF, and its pump, forward and backward ROPAs, John E. Bowers , Raymond Beauso- on actual datasets, which not only injected semiconductor laser. Tunable 1 1 applications. and optimal modulation format while leil ; Hewlett Packard Labs, Hewlett achieves high accuracy (99. 72%) dual-chirp microwave waveforms with 2 using the same single ultra low loss Packard Enterprise, USA; Department and low positive rate (0. 18%), but a large time-bandwidth product are with large effective area fiber for both of Electrical and Computer Engineer- also reveals the five most remarkable experimentally generated. signal and pumps. ing, Univ. of California, USA. We features that caused the fault. discuss our strategy to build a dense wavelength division multiplexing optical transceiver to enable high energy efficiency, scalable bandwidth, Th1B.3 • 08:45 Th1C.3 • 08:45 Th1D.3 • 08:45 low latency data communication, Th1F.4 • 08:45 Symmetrical 50-Gb/s/λ PAM-4 TDM- Frequency-tunable Parity-time- High Spectral Efficiency Real-time and low-cost photonic integration Localization of Probabilistic Cor- PON at O-band Supporting 26 dB+ symmetric Optoelectronic Oscillator 500-Gb/s/Carrier Transmission Over simultaneously for high-performance related Failures in Virtual Net- Loss Budget Using Low-bandwidth Using a Polarization-dependent Sa- Field-installed G.654.E Fiber Link computing applications. work Infrastructures Using Bayesian 1 1 Optics and Semiconductor Optical gnac Loop, Jianping Yao , Zheng Dai , Using Forward and Backward Dis- Networks, Riti Gour1, Genya Ish- 1 1 1 1 1 Amplifier, Jiao Zhang , Kaihui Wang , Zhiqiang Fan , Cheng Li ; Univ. of tributed Raman Amplification, Kohei igaki1, Jian Kong2, Jason P. Jue1; 1The 1 1 1 1 1 Yiran Wei , Li Zhao , Wen Zhou , Ji- Ottawa, Canada. A frequency-tunable Saito , Takeo Sasai , Fukutaro Hama- Univ. of Texas at Dallas, USA; 2Ci- 1 2 2 1 1 1 angnan Xiao , Bo Liu , Xiangjun Xin , parity-time-symmetric optoelectronic oka , Hiroki Kawahara , Takeshi Seki , ena, USA. We propose an approach 1 1 2 1 1 Jianjun Yu ; Fudan Univ., China; Bei- oscillator with a single physical loop is Hideki Maeda ; Nippon Telegraph to localize probabilistic correlated jing Univ. of Posts and Telecommu- proposed. Frequency-tunable single- and Telephone, Japan. Transmission failures in a multi-layer network where nications, China. We experimentally mode oscillation from 2 to 12 GHz and distance of 1234.2 km with high service function graphs (SFGs) are demonstrated a symmetrical 50-Gb/ a phase noise of -108 dBc/Hz at an spectral efficiency of 5.71 b/s/Hz deployed over a physical network s/λ PAM-4 TDM-PON in O-band to offset frequency of 10 kHz is achieved. over terrestrial G.654.E fiber links infrastructure. The proposed method support over 26 dB link loss budget, is achieved for 500-Gb/s/carrier utilizes logical link monitoring and with the using of simple DSP and signals using EDFAs with forward and Bayesian networks. SOA. The performances of DSP and backward DRAs compliant with laser dispersion tolerance are studied. power safety requirements. Thursday, 12 March Thursday,

122 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show Floor Programming Th1G • Modulation and Th1H • Characterization Th1I • Digital Signal Th1J • Panel: Devices Th1K • Optical Wireless Coding—Continued of SDM Fibers— Processing Techniques and Systems at 130 Sensing Systems for Continued and Mitigation— Gbaud and Above: 5G—Continued Continued What is the Outlook?— Continued

Th1G.3 • 08:30 Invited Th1H.2 • 08:30 Th1I.2 • 08:30 Speakers: Th1K.2 • 08:30 Peformance and Power of Soft-de- Theoretical Analysis and Experimen- Mitigating Fiber Nonlinearities by Dual-heterodyne Mixing Based cision FEC (SDFEC) for 100G -800G tal Measurement of Intra-LP-mode Short-length Probabilistic Shap- Chris Doerr; Acacia Communications Phase Noise Cancellation for 1 Inc., USA Applications, Zhiyu Xiao1; 1Huawei DMD in Weakly-coupled FMF, Min- ing, Tobias Fehenberger , Helmut Long Distance Dual-wavelength 1 1 1 1 Technologies Co., Ltd., USA. The gqing Zuo1, Dawei Ge1, Lei Shen2, Jin Griesser , Jörg-Peter Elbers ; ADVA, FMCW Lidar, Minglong Pu , Weilin Yoshihiro Ogiso; NTT Device Innova- 1 1 1 proportion of resources (chip area) He3, Yongqi He1, Zhangyuan Chen1,3, Germany. We show that short- Xie , Yi Dong , Yuxiang Feng , Wei tion Center, Japan 1 1 1 required by FEC in DSP chips is higher Juhao Li1,3; 1Peking Univ., China; 2Yang- length probabilistic shaping reduces Wei , Yuanshuo Bai , Yinxia Meng , Challenges and Solutions for 1 1 and higher. At the same time, pre-FEC tze Optical Fibre and Cable Joint Stock nonlinear interference in optical fiber Ling Zhang , Tao Wang , Songhan DSP Aided Coherent Modem at 1 1 performance is an explicit indicator Limited Company, China; 3Peking Univ. transmission. SNR improvements of up Liu ; Beijing Inst. of technology, 138GBaud of commercial competition. The Shenzhen Institution, China. Based on to 0.8 dB are obtained. The shaping China. A coherent dual-wavelength balanced design of FEC performance, the analysis of intra-LP-mode DMD in gain vanishes when interleaving is frequency-modulated continuous- Zhuhong Zhang; Huawei Technologies area, and power consumption weakly-coupled FMF, we propose a employed and not undone before wave (FMCW) lidar utilizing dual- Co Ltd, Canada becomes a key point of the DSP chip modified fixed-analyzer method for transmission. heterodyne mixing which permits Some Implementation Implications of coherent optical communication. its measurement and experimentally efficient phase noise cancellation has of Coherent Transceivers Operating demonstrate that it may be one of the been proposed. Consistent ranging at >=130Gbd major impairments for IM/DD MDM resolution about 1.4 × 10−6 over transmission. distances beyond tens of intrinsic Maurice O'Sullivan; Ciena Corp., coherence length is achieved. Canada High Symbol Rates and Parallelism Th1H.3 • 08:45 Top-Scored Th1I.3 • 08:45 Th1K.3 • 08:45 « True Equalization of PDL in Presence in Co-integrated Designs Secure Free-space Optical Commu- Channel Dynamics in Few-mode of Fast RSOP, Nan Cui1, Xiaoguang nication via Amplified Spontaneous Fiber Transmission under Mechani- Zhang1, Nannan Zhang1, Xianfeng Peter Winzer; Independent Consul- Emission (ASE), Hanzi Huang1,2, cal Vibrations, Georg Rademacher1, Tang1, Lixia Xi1; 1State Key Labora- tant, USA Jian Chen1, Haoshuo Chen2, Yetian Roland Ryf2, Nicolas K. Fontaine2, tory of Information Photonics and Huang1,2, Yingchun Li1, Yingxiong Haoshuo Chen2, Benjamin J. Putt- Optical Communications, Beijing Univ. Jun Cao; Broadcom, USA Song1, Nicolas K. Fontaine2, Roland nam1, Ruben S. Luis1, Yoshinari of Posts and Telecommunications, CMOS Data Converters for Coherent Ryf2, Min Wang1; 1Shanghai Univ., Chi- Awaji1, Hideaki Furukawa1, Naoya China. In presence of fast RSOP, a Optical Links beyond 100Gbaud na; 2Nokia Bell Labs, USA. We propose Wada1; 1National Inst of Information & true PDL equalization including both a secure free-space optical (FSO) Comm Tech, Japan; 2Nokia Bell Labs, signal power and OSNR balances communication scheme employing USA. We experimentally investigate is proposed and verified. With 1dB the internal randomness of amplified the coupling dynamics of a three- OSNR penalty, it can equalize up to spontaneous emission. 60-Gbit/s FSO mode fiber recirculating transmission 7dB PDL under 1Mrad/s fast RSOP. transmission is demonstrated with link under the influence of controlled temporal and spectral encryption. mechanical vibrations. The dynamics are found to be more prominent compared to similar measurements in

single-mode fiber. Thursday, 12 March

OFC 2020 • 8–12 March 2020 123 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

Th1A.4 • 09:00 Th1B.4 • 09:00 Th1C.4 • 09:00 Tutorial Th1D.4 • 09:00 Th1E.3 • 09:00 Invited Th1F.5 • 09:00 Ultra-broadband and Low-loss Po- Demonstration of 50-Gb/s/λ PAM-4 New Opportunities for Integrat- Added Value of 90 GBaud Transpon- Densely Integrated Electronic-pho- Demonstration of Fault Localiza- larization Beam Splitter on Sili- PON with Single-PD Using Polariza- ed Microwave Photonics, David ders for WDM Networks, Thierry tonic Systems for Next-generation tion in Optical Networks Based on 1 1 con, Chenlei Li1, Daoxin Dai1,2, John tion-insensitive and SSBI Suppressed Marpaung1; 1Universiteit Twente, Zami , Bruno Lavigne , Mathieu Lefran- Optical I/O, Mark Wade1; 1Ayer Labs, Knowledge Graph and Graph Neural 1 1 E. Bowers3; 1Zhejiang Univ., Chi- Heterodyne Coherent Detection, Li Netherlands. In this tutorial I will cois ; Nokia Corporation, France. We USA. Abstract not available. Network, Zhuotong Li1, Yongli Zhao1, 1 1 1 na; 2Ningbo Research Inst., Zhejiang Haibo , Ming Luo , Xiang Li , Shaohua discuss recent developments and quantify the benefit of 90 GBaud Yajie Li1, Sabidur Rahman2, Xiaosong 1 1 Univ., China; 3Department of Electrical Yu ; China Information Communica- new perspectives in the field of transponders versus the more mature Yu1, Jie Zhang1; 1Beijing Univ. of and Computer Engineering, Univ. of tion Technologies Group Corpora- integrated microwave photonics, with 67 GBaud ones to possibly improve Posts and Telecommunications, Chi- California, Santa Barbara, USA. We tion, China. A polarization-insensitive the emphasis on optical comb sources, the maximum total throughput in na; 2Univ. of California, Davis,, USA. A realized a polarization beam splitter heterodyne coherent detection with high speed modulators, and photon- WDM networks and the associated fault localization method for optical with low loss of <1 dB and high single-PD for 50-Gb/s/λ PAM-4 PON phonon interactions for advanced amount of deployed equipment per networks using knowledge graph and extinction ratio of >20 dB in an is experimentally demonstrated. signal processing. transmitted Gb/s. graph neural network is proposed. ultra-broad bandwidth from 1400nm Over 40- and 39-dBm power budgets Experimental demonstration shows to 1700nm using a pair of cascaded are achieved after 20-/50-km SSMF that the proposed method is effective dual-core adiabatic tapers. transmission under 7% FEC threshold, in automating the localizing of optical respectively. network faults.

Th1A.5 • 09:15 Th1B.5 • 09:15 Th1D.5 • 09:15 Th1F.6 • 09:15 Wavefront-matching-method-de- The Impact of Transmitter Chirp 100-Gbit/s/λ PAM-4 Signal Trans- Can You Trust AI-assisted Network David Marpaung joined the University signed Six-mode-exchanger Based Parameter on the Power Penalty and mission over 80-km SSMF Based on Automation? A DRL-based Approach of Twente, the Netherlands in 2018 on Grating-like waveguide on Silica- Design of 50 Gbit/s TDM-PON, Rob- an 18-GHz EML at O-band, Kaihui to Mislead the Automation in SD-IP- 1 1 1 as an associate professor leading 1 1 1 PLC platform, Takeshi Fujisawa , ert Borkowski , Harald Schmuck , Wang , Jiao Zhang , Yiran Wei , Li oEONs, Min Wang1, Siqi Liu1, Zuqing 2 2 2 2 the Nonlinear Nanophotonics group. 1 1 1 Taiji Sakamoto , Masashi Miyata , Giancarlo Cerulo , Jean-Guy Provost , Zhao , Wen Zhou , Mingming Zhao , Zhu1; 1Univ of Science and Technol- 2 3 3 From 2012 to 2017 he was leading 1 2 Takashi Matsui , Toshikazu Hashi- Vincent Houtsma , Dora van Veen , Jiangnan Xiao , Xiaolong Pan , Bo ogy of China, China. We study the 2 2 4 2 the integrated microwave photon- 2 2 3 moto , Ryoichi Kasahara , Kazuhide Ed Harstead , Franck Mallecot , Rene Liu , Xiangjun Xin , Liwei Zhang , Yun vulnerability of artificial intelligence 2 1 1 1 1 2 ics research activities at CUDOS 3 1 1 Nakajima , Kunimasa Saitoh ; Hok- Bonk ; Nokia Bell Labs, Germany; III- Zhang , Jianjun Yu ; Fudan Univ., assisted network automation (AIaNA), 2 University of Sydney, Australia. His 2 kaido Univ., Japan; NTT, Japan. A V Lab, joint laboratory between Nokia China; Beijing Univ. of Posts and and design a deep reinforcement research interests include RF photon- 3 first six-mode exchanger based on Bell Labs, Thales Research and Tech- Telecommunications, China; ZTE learning (DRL) model to mislead the 3 ics, optomechanics, nonlinear optics, one sidewall grating-like waveguide nology, and CEA Leti, France; Nokia Corporation, China. For the first AIaNA in software-defined IP over 4 and phononics. is successfully designed with the help Bell Labs, USA; Fixed Networks time, we experimentally demonstrate elastic optical networks (SD-IPoEONs) of strong optimization algorithm. Division, Nokia Corporation, USA. We 100-Gbit/s PAM-4 signal transmission through crafting/injecting adversarial Fabricated device compensates for study the impact of transmitter chirp over 80km at O-band using an 18-GHz traffic samples. mode-dependent-loss caused by parameter (effective α-factor) on the EML. After two spans of SOA-based fiber-waveguide junctions, showing chromatic-dispersion-induced power 40-km SSMF transmission, a receiver the proof-of-concept operation. penalty in 50-Gbit/s TDM-PON. We sensitivity of -17.3dBm is achieved. experimentally show interplay of chirp and dispersion using 50G-class integrated EML-SOA driven in distinct operating points. Thursday, 12 March Thursday,

124 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show Floor Programming Th1G • Modulation and Th1H • Characterization Th1I • Digital Signal Th1J • Panel: Devices Th1K • Optical Wireless Coding—Continued of SDM Fibers— Processing Techniques and Systems at 130 Sensing Systems for Continued and Mitigation— Gbaud and Above: 5G—Continued Continued What is the Outlook?— Continued

Th1G.4 • 09:00 Th1H.4 • 09:00 Th1I.4 • 09:00 Invited Th1K.4 • 09:00 Hierarchical Distribution Matching: Characterization and Optical Com- Extreme Values in Optical Fiber Simultaneous Optical Fiber Sensing and Mobile Front-haul Access over a Versatile Tool for Probabilistic pensation of LP01 and LP11 Intra- Communication Systems, Seb Shaping, Stella Civelli1,2, Marco Secon- modal Nonlinearity in Few-Mode J. Savory1; 1Univ. of Cambridge, a Passive Optical Network, Yue-Kai 1 1 1 dini1,2; 1Scuola Superiore Sant’Anna, Fibers, Francesco Da Ros1, Pawel UK. Extreme value theory provides Huang , Ezra Ip ; NEC Laboratories Italy; 2Photonic Networks & Tech- M. Kaminski1, Georg Rademacher2, a framework to assess rare but America Inc, USA. We demonstrate nologies National Laboratory, CNIT, Benjamin J. Puttnam2, Ruben S. Luis2, extreme events such as network a passive optical network (PON) that Italy. The hierarchical distribution Werner Klaus2, Hideaki Furukawa2, Ryo outages or cycle slips. We present employs reflective semiconductor matching (Hi-DM) approach for Maruyama3, Kazuhiko Aikawa3, Toshio the theory of extreme value statistics optical amplifiers (RSOAs) at optical probabilistic shaping is described. Morioka1, Leif Oxenløwe1, Naoya and its application to optical ﬁber network units (ONUs) to allow The potential of Hi-DM in terms of Wada2, Michael Galili1; 1DTU Fotonik, communication systems. simultaneous data transmission with trade-off between performance, Denmark; 2Photonic Network System distributed fiber-optic sensing (DFOS) complexity, and memory is illustrated Laboratory, National Inst. of Informa- on individual distribution fibers. through three case studies. tion and Communications Technology, Japan; 3Fujikura Ltd, Japan. Intra- modal four-wave mixing (FWM) and all-optical compensation by optical phase conjugation is investigated over 2-spans of 3-mode fiber with the power of the generated FWM products reduced by 5 to 20 dB in different scenarios.

Th1G.5 • 09:15 Th1H.5 • 09:15 Th1K.5 • 09:15 Multi-dimensional Distribution Mode Group Resolved Analysis of Spectrum Sensing Applications Matching for Probabilistically Effects Induced by Macro Bending in of FWM-based Optical Cyclosta- Shaped High Order Modulation For- a 50 µm Graded Index Multi Mode tionary Processor, Jerrod Langs- 1,2 2 mat, Mengfan Fu1, Qiaoya Liu1, Xiao- Fiber, Christian M. Spenner1, Peter ton , Richard DeSalvo , Stephen 1 1 bo Zeng1, Yiwen Wu1, Lilin Yi1, Weish- M. Krummrich1; 1TU Dortmund, Ger- E. Ralph ; Georgia Inst. of Tech- 2 eng Hu1, Qunbi Zhuge1; 1Shanghai many. The influence of macro bending nology, USA; L3Harris, USA. We Jiao Tong Univ., China. We propose a in a 50 μm GIMMF is investigated in demonstrate a large instantaneous multi-dimensional distribution matcher terms of losses and mode coupling. bandwidth optical cyclostationary for probabilistically shaped high order The results indicate that lower order processor that computes the spectral modulation format. Compared to mode groups are weakly influenced correlation function. Post-processing product distribution matching, 0.3 dB by macro bends. of experimentally measured SCFs is and 0.1 dB gains are obtained with applied for waveform characterization, the same complexity and 50% lower specifically baud rate and pulse- Thursday, 12 March complexity, respectively. shaping roll-off estimation of QAM signals.

OFC 2020 • 8–12 March 2020 125 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

Th1A • Advanced Design Th1B • High Speed Th1C • Microwave Th1D • Pushing the Th1E • Symposium: Th1F • AI for Reliable for Passive Devices— PON—Continued Photonics—Continued Bit-rate in Practical Future Photonics Devices Networking—Continued Continued Networks—Continued fJ/bit Optical Networks Enabled by Emerging Optical Technologies (Session 2)—Continued Top-Scored Th1A.6 • 09:30 Invited Th1B.6 • 09:30 « Th1D.6 • 09:30 Invited Th1E.4 • 09:30 Invited Deep Neural Networks for Design- 50G PON FEC Evaluation with Error Coherent Technologies and Require- Integrated Photonics for High Per- ing Integrated Photonics, Keisuke Models for Advanced Equaliza- ments in Next-generation MSO formance Computing, Yichen Shen1; 1 Kojima1,2, Mohammad H. Tahersima1, tion, Amitkumar Mahadevan , Dora Networks, Matthew Schmitt1; 1Cable- 1Lightelligence, USA. I will talk about 1 1 Toshiaki Koike-Akino1, Devesh Jha1, van Veen , Noriaki Kaneda , Alex Labs, USA. Cable MSO networks are new architectures based on Photonic 1 Yingheng Tang1,3, Kieran Parsons1, Duque , Adriaan de Lind van Wijn- undergoing a fundamental shift from Integrated Circuits for carrying out 1 1 1 Fengqiao Sang2, Jonathan Klam- gaarden , Vincent Houtsma ; Nokia centralized to distributed architectures, machine learning and other statistical kin2; 1Mitsubishi Electric Research Bell Labs, USA. Post-equalization and from analog to digital optics. processing tasks. I will discuss our Laboratories, USA; 2Electrical and bit-errors from ISI-impaired 50G PON Interoperable coherent optics based recent progress, the opportunity and Computer Engineering Dept., Univ. of transmission experiments are modeled on CableLabs specifications can serve challenges on how it can enable next California, Santa Barbara, USA; 3Elec- using Fritchman’s Markov chain. LDPC as a key part of that transition. generation computing hardware. trical and Computer Engineering FEC evaluation with this error model Dept., Purdue Univ., USA. We present reveals a 0.3-0.6 dB optical power our two inverse design activites for penalty for equalizing ISI including 83 nanophtonic devices. In the first frame- ps/nm dispersion. work, a trained deep neural network takes device responses as inputs and device parameters for outputs. In the second framework, we use a novel generative network to generate a series of designs nearly meeting the device responses. Th1B.7 • 09:45 Low-bandwidth Sub-nyquist A/D Conversion in Delay-division Mul- tiplexing OFDM PONs Enabled by Optical Shaping, Wei-Lun Chen1, Min Yu1, Lu-Yi Yang1, Chia Chien Wei1, Chun-Ting Lin2; 1National Sun Yat-Sen Univ., Taiwan; 2National Chiao Tung Univ., Taiwan. Optical shaping is proposed to reduce the required analog bandwidth of low-sampling- rate A/D conversion in a DDM- OFDM-PON. It successfully enabled the detection of 7.5-GHz/28-Gb/s downstream using low-bandwidth (1.7 GHz) and sub-Nyquist-sampling (3.75 GS/s) A/D conversion.

10:00–13:00 Unopposed Exhibit-only Time, Exhibit Hall (coffee services 10:00–10:30) Lunch Break (on own)

10:00–16:00 Exhibition and Show Floor, Exhibit Hall (concessions available in Exhibit Hall) Thursday, 12 March Thursday, OFC Career Zone Live, Exhibit Hall B2

126 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 Show Floor Programming Th1G • Modulation and Th1H • Characterization Th1I • Digital Signal Th1J • Panel: Devices Th1K • Optical Wireless Coding—Continued of SDM Fibers— Processing Techniques and Systems at 130 Sensing Systems for Design Consideration of Continued and Mitigation— Gbaud and Above: 5G—Continued Next Generation Ethernet Continued What is the Outlook?— Switches with Higher Continued Speed Optics Cisco Th1G.6 • 09:30 Th1H.6 • 09:30 Top-Scored Th1I.5 • 09:30 Th1K.6 • 09:30 10:15–11:15, Theater II Staircase Construction with Non- Assembly and Characterization« of On the Performance under Hard Alignment Monitor for Free-space systematic Polar Codes, Carlo a Multimode EDFA Using Digital and Soft Bitwise Mismatched-de- Optical Links in the Presence of Condo1, Valerio Bioglio1, Ingmar Holography, Juan Carlos Alvarado coding, Tsuyoshi Yoshida1,2, Mikael Turbulence using the Beating of Product Showcase Land1; 1Huawei Technologies France Zacarias2,1, Nicolas K. Fontaine2, Mazur3, Jochen Schröder3, Magnus Opposite-order Orbital-angular- Huawei Technologies USA SASU, France. We propose staircase Roland Ryf2, Haoshuo Chen2, Sjoerd Karlsson3, Erik Agrell3; 1Mitsubishi Momentum Beams on Two Differ- 2 1 10:15–10:45, Theater III codes based on non-systematic polar van der Heide3, Jose Enrique Antonio- Electric Corporation, Japan; Osaka ent Wavelengths, Runzhou Zhang , codes, describing a general framework Lopez1, Steffen Wittek1, Guifang Li1, Univ., Japan; 3Chalmers Univ. of Nanzhe Hu1, Xinzhou Su1, Ahmed for encoding and decoding, and Chigo M. Okonkwo3, Marianne Bigot- Technology, Sweden. We investigated Almaiman1, Haoqian Song1, Zhe Zhao1,  Market Watch Panel V: 1 1 1 presenting simulation results showing Astruc4, Adrian Amezcua-Correa4, a suitable auxiliary channel setting Hao Song , Kai Pang , Cong Liu , Inside the Data Center the effectiveness of the proposed Pierre Sillard4, Rodrigo Amezcua and the gap between Q-factors Moshe Tur2, Alan E. Willner1; 1Univ. of approach even with short component Correa1; 1CREOL, The College of with hard and soft demapping. The Southern California, USA; 2School of 10:30–12:00, Theater I codes. Optics & Photonics, USA; 2Nokia Bell system margin definition should be Electrical Engineering, Tel Aviv Univ., 3 Labs, USA; Inst. for Photonic Integra- reconsidered for systems employing Israel. We experimentally demonstrate  Market Watch Panel VI: tion, Eindhoven Univ. of Technol- complex coded modulation with soft an approach for monitoring ogy, Netherlands; 4Prysmian Group, forward error correction. misalignment between transmitter Advanced Packaging and France. We present the assembly and and receiver for free space optical Photonic Integration characterization of a multimode EDFA links under turbulence effects using supporting up to 45 modes using the beating of two opposite-order 12:30–14:00, Theater I digital holography to measure the orbital-angular-momentum beams on transfer matrix of the system at each two different wavelengths. Transforming Network step and obtain mode dependent Operations through loss and crosstalk characteristics of Th1I.6 • 09:45 Th1K.7 • 09:45 Th1G.7 • 09:45 « Top-Scored the amplifier. Rate-adaptive Concatenated Polar- Optimized QAM Order with Proba- Automation FPGA Implementation of Prefix-free Staircase Codes for Data Center bilistic Shaping for the Nonlinear 12:45–13:45, Theater II Code Distribution Matching for Interconnects, Tayyab Mehmood1, Underwater VLC Channel, Peng Probabilistic Constellation Shap- Metodi P. Yankov1, Anders Fisker2, Zou1, Fangchen Hu1, Guoqiang Li1, ing, Qinyang Yu1,2, Steve Corte- Kim Gormsen2, Søren Forchham- Nan Chi1; 1Fudan Univ., China. We POFTO Symposium selli2, Junho Cho2; 1Shanghai Univ., mer1; 1Technical Univ. of Denmark, found the optimum QAM order with POFTO China; 2Nokia Bell Labs, USA. We Denmark; 2Zeuxion, Denmark. A PS for the nonlinear UVLC channel is implement rate-adaptable prefix-free rate-adaptive concatenated code, not the adjacent integer of entropy. 13:45–14:45, Theater III code distribution matching in FPGA, consisting of an outer staircase code Higher order QAM can outperform demonstrating its real-time feasibility and an inner polar code is proposed. adjacent order for 80.57% in net with substantially less hardware Short blocklength inner polar codes transmission rate. resources than low-density parity- offers rate-adaptivity and more check coding. than 0.35 dB gain compared to the 400ZR data-center-interconnect error- correcting code. Thursday, 12 March

10:00–13:00 Unopposed Exhibit-only Time, Exhibit Hall (coffee services 10:00–10:30) Lunch Break (on own)

10:00–16:00 Exhibition and Show Floor, Exhibit Hall (concessions available in Exhibit Hall) OFC Career Zone Live, Exhibit Hall B2

OFC 2020 • 8–12 March 2020 127 Exhibit Hall B

10:30–12:30 Th2A • Poster Session II Th2A.1 Th2A.4 Th2A.7 Th2A.10 Th2A.13 Th2A.15 100-Gbps 100-m Hollow-core Fiber High Power External Pluggable High-performance Microring-assist- Multilayer Silicon Nitride-based Timing Jitter from Optical Phase 10-nm-wide Tunable In-series La- Optical Interconnection at 2-mi- Laser Bank with Simultaneous Single ed Space-and-wavelength Selective Coupler Integrated into a Silicon Noise in Quantum Dot Coher- ser Array with High Single-mode cron Waveband by PS-DMT, Wei- Mode Optical and Electrical Con- Switch, Yishen Huang1, Qixiang Photonics Platform with <1 dB ent Comb Laser at C-Band, Youxin Stability, Zhenxing Sun1, Rulei Xiao1, hong Shen1, Jiangbing Du1, Lin nection, Benbo Xu1, Rui Li1, Yanbo Cheng1, Anthony Rizzo1, Keren Berg- Coupling Loss to a Standard SMF Mao1, Zhenguo Lu1, Jiaren Liu1, Guo- Zhirui Su1, Gen Lv1, Zhao Chen2, Jilin Sun1, Chang Wang1, Ke Xu2, Baile Li1, Xiaolu Song1; 1Huawei Co Ltd., man1; 1Columbia Univ., USA. We over O, S, C and L optical bands, Ravi cheng Liu1, Chunying Song1, Philip Zheng1, Yunshan Zhang1, Jun Lu1, Chen3, Zuyuan He1; 1Shanghai Jiao China. We demonstrate a pluggable introduce a novel design of space- Tummidi1, Mark Webster1; 1Cisco Poole1; 1National Research Coun- Yuechun Shi1,4, Yi-jen Chiu3, Xiangfei Tong Univ., China; 2Harbin Inst. of laser bank module with 8-channel and-wavelength selective switch using Systems, USA. We experimentally cil Canada, Canada. Timing jitter Chen1; 1Key Laboratory of Intelligent Technology, China; 3Shanghai Tech single-mode optical output and a microring-assisted Mach-Zehnder demonstrate <1 dB coupling loss over obtained from optical phase noise is Optical Sensing and Manipulation of Univ., China. 2-micron waveband maximum power of 18.5 dBm per interferometers. A 2×2×2λ elementary O,S,C and L optical bands for both investigated in InAs/InP quantum dot the Ministry of Education & National optical interconnection at record- channel. The hot pluggable module switch block is demonstrated with polarizations between an integrated Fabry-Pérot coherent comb lasers Laboratory of Solid State Microstruc- high-speed of 100 Gbps/lane with supports sufficient link-budget for a full spatial and wavelength switching silicon photonics platform and butt- with 11, 25, and 34.5 GHz pulse tures & College of Engineering and 100-m hollow-core photonic bandgap 1.6 Tb/s silicon photonic chip. capabilities, showing 20dB crosstalk coupled standard single mode fiber. repetition rates. These lasers exhibit Applied Sciences & Inst. of Optical fiber transmission is achieved. Mode- suppression and 19dB extinction ratio. ultra-low timing jitter making them Communication Engineering, Nanjing dependent bandwidth restriction is Th2A.5 Th2A.11 excellent sources for tens terabit Univ., China; 2School of Electronic and well optimized by probabilistically Characterization of Modal-chro- Th2A.8 Electro-Optic Frequency Re- optical networks. Electrical Engineering, Wuhan Textile shaped discrete multi-tone (PS-DMT) matic Dispersion Compensation in Large-area Metalens Directly Pat- sponse Shaping in High Speed Univ., China; 3Inst. of Electro-Optical modulation. 400GBASE-SR8 Channels, Bulent terned on a 12-inch Glass Wafer Mach-Zehnder Modulators, Laurens Th2A.14 Engineering and Semiconductor Kose1, Jose Castro1, Rick Pimpinella1, Using Immersion Lithography for Breyne1,2, Joris Lambrecht1, Michiel 10 GHz, 6.2 ps Transform-limited Technology Research Development Th2A.2 Yu Huang1, Fei Jia1, Brett Lane1; 1Pan- Mass Production, Qize Zhong1, Verplaetse1, Xin Yin1, Gunther Ro- Coherent Optical Pulse Generation Center, National Sun Yat-Sen Univ., High Power Integrated Laser for duit, USA. We evaluate impact of Yuan Dong1, Dongdong Li1, Nanxi elkens2, Peter Ossieur1, Johan Bau- from a 1.55 μm, Self-injection Gain- Taiwan; 4Nanjing Univ. (Suzhou) High- Microwave Photonics, Jörn P. Ep- OM4 dispersion compensated fiber Li1, Ting Hu1, Zhengji Xu1, Yanyan welinck1; 1IDLab, Ghent Univ. - imec, switched DFB-LD, Keisuke Kasai1, Tech Inst., China. We report a 10-nm- ping1, Ruud M. Oldenbeuving1, Dimi- on 8x50Gbps transmission for reaches Zhou1, Keng Heng Lai1, Yuan Hsing Belgium; 2Photonics Research Group, Masataka Nakazawa1; 1Tohoku Univ., wide tunable in-series DFB laser tri Geskus1, Ilka Visscher1, Robert up to 500m. Bit error rates, and eye Fu1, Vladimir Bliznetsov1, Hou-Jang Ghent Univ. - imec, Belgium. We Japan. We demonstrate coherent array with high wavelength-spacing Grootjans1, Chris G. Roeloffzen1, diagrams before and after equalization Lee1, Wei Loong Loh1, Shiyang Zhu1, demonstrate a simple technique to optical pulse generation from a 1.55 uniformity and high single-mode René Heideman1; 1LioniX International are evaluated. Qunying Lin1, Navab Singh1; 1Inst. of shape the electro-optic frequency µm, self-injection gain-switched DFB- stability, which is guaranteed by high- BV, Germany. We present a hybrid Microelectronics, Agency for Science response of high-speed TW-MZMs. LD. By using external spectral shaping, precision control of grating phase error integrated laser with two gain sections Th2A.6 Technology and Research, Singa- C-band transmission of 56Gb/s NRZ we generated a transform-limited 10- through reconstruction-equivalent- coupled to one tunable cavity. The A Tunable Mode Divider Based on pore. We developed a technology to over 3km SSMF shows 5dB power- GHz, 6-ps Gaussian-pulse, which had chirp technique. resulting laser has a record on-chip Wavelength Insensitive Coupler directly process 12-inch glass wafers penalty improvement at KP4-FEC neatly repetitive longitudinal modes power of up to 20.7 dBm and an Using Thermo-optic Effect for Gain- using 193 nm immersion lithography between a standard and shaped with a 7 kHz-linewidth. Th2A.16 intrinsic linewidth of 320 Hz. equalization in MDM Network, Kodai for metasurface devices fabrication. MZM design. Low Parasitic Capacitance III-V/Si Hy- Nakamura1, Takeshi Fujisawa1, Taiji An 8-mm-dimeter metalens working brid MOS Optical Modulator toward Th2A.3 Sakamoto2, Takashi Matsui2, Kazuhide at 940 nm wavelength has been Th2A.12 High-speed Modulation, Qiang Li1, Lifetime Prediction of 1550 nm DFB Nakajima2, Kunimasa Saitoh1; 1Gradu- demonstrated as a proof-of-concept A High Linear Silicon Mach-Zehnder Chongpei Ho1, Junichi Fujikata2, Masa- Laser Using Machine Learning Tech- ate School of Information Science functional device. Modulator by the Dual-series Ar- taka Noguchi2, Shigeki Takahashi2, Ka- niques, Khouloud Abdelli1,2, Danish and Technology, Hokkaido Univ., chitecture, Qiang Zhang2, Hui Yu1, sidit Toprasertpong1, Shinichi Takagi1, Rafique1, Helmut Griesser1, Stephan Japan; 2NTT Access Network Service Th2A.9 Zhilei Fu1, Penghui Xia1, Xiaofei Mitsuru Takenaka1; 1Univ. of Tokyo, Pachnicke2; 1ADVA Optical Network- Systems, NTT corporation, Japan. A CWDM Mux/Demux Passive Optical Wang1; 2College of Information Sci- Japan; 2PETRA, Japan. We present 2 1 ing SE, Germany; Christian-Albrechts- tunable TE0-TE1 mode divider based Interconnect, Darrell Childers , Dirk ence and Electronic Engineering, Zhe- advanced design of III-V/Si hybrid Universität zu Kiel,, Germany. A novel on wavelength-insensitive-coupler is Schoellner1, DJ Hastings1, Ke Wang1, jiang Univ., China. We experimentally MOS optical modulator to reduce approach based on an artificial neural experimentally demonstrated for the Paul Rosenberg2, Gregg Combs3, demonstrate a highly linear dual-series parasitic capacitance and resistance network (ANN) for lifetime prediction first time. Arbitrary branching ratios Kent Devenport3; 1US Conec Ltd, silicon modulator by tuning properly toward high-speed modulation. We of 1.55 µm InGaAsP MQW-DFB laser can be realized by using thermo- USA; 2HPE Hewlett Packard Labs, the power splitting ratio of the driving successfully achieved 21 times smaller diode is presented. It outperforms the optic heaters. The proposed device USA; 3Hewlett Packard Enterprise, RF signal on the its two sub-MZMs, RC constant, improving the trade-off conventional lifetime projection using is useful for gain-equalization in MDM USA. A novel concept for integrating with SFDR of 109.5/100.5 dB×Hz2/3 at between modulation efficiency and accelerated aging tests networks. © 2020 The Authors the mux/demux functionality of coarse 1/10 GHz. bandwidth. wavelength division multiplexing (CWDM) into passive fiber optic connectors via expanded beam ferrules is presented, including optical modeling and preliminary empirical results. Thursday, 12 March Thursday,

128 OFC 2020 • 8–12 March 2020 Exhibit Hall B Show Floor Programming Th2A • Poster Session II—Continued Design Consideration of Th2A.17 Th2A.21 Th2A.24 Th2A.26 Th2A.28 Next Generation Ethernet Multicore Fiber Fabricated by Modi- Twining Plant Inspired Pneumatic Enabling the Scalability of Indus- Threshold Plasticity of Hybrid Si- Adaptive DNN Model Partition and Switches with Higher fied Cylinder Method, Masanori Soft Robotic Spiral Gripper with trial Networks by Independent VO2 Microring Resonators, Zhi Deployment in Edge Computing- Speed Optics Takahashi1, Koichi Maeda1, Ryuichi High-birefringence Fiber Optic Sen- Scheduling Domains, Konstanti- Wang1, Qiang Li1, Ziling Fu1, Andrew enabled Metro Optical Intercon- Cisco Sugizaki1, Masayoshi Tsukamoto1; 1Fu- sor, Mei Yang1, Liam Cooper1, Mable P. nos (Kostas) Christodoulopoulos1, Katumba2, Florian Denis-le Coarer3, nection Network, Mingzhe Liu1, rukawa Electric, Japan. MCF made Fok1; 1Univ. of Georgia, USA. Twining Wolfram Lautenschlaeger1, Flori- Damien Rontani3, Marc Sciamanna3, Yajie Li1, Yongli Zhao1, Hui Yang1, Jie 10:15–11:15, Theater II by modified cylinder method (MCM) plant-inspired pneumatic soft-robotic an Frick2, Nihel D. Benzaoui3, Tor- Peter Bienstman2; 1Inst. of Optical Zhang1; 1Beijing Univ. of Posts and is demonstrated. Optimized cylinder spiral gripper embedded with a high- ben Henke2, Ulrich Gebhard1, Lars Information, Key Laboratory of Lu- Telecommunications, China. A DNN Product Showcase with single hole show potentials for birefringence fiber-optic sensor is Dembeck1, Armin Lechler2, Yvan minescence and Optical Information, model partition and deployment Huawei Technologies USA cost reduction and higher productivity. designed and emonstrated. The fiber- Pointurier3, Sebastien Bigo3; 1Nokia Ministry of Education, Beijing Jiaotong algorithm is proposed between edge 10:15–10:45, Theater III Attenuation loss of the MCF made by optic sensor enables the spiral-gripper Bell Labs Germany, Germany; 2Univ. Univ., China; 2Photonic Research nodes and cloud in metro optical MCM is 0.190dB/km at 1550nm. to sense the twining angle and target of Stuttgart, Germany; 3Nokia Bell Group, Ghent Univ. - IMEC, Bel- network. Simulation results show that cylinder radius as small as 1mm. Labs France, France. We propose to gium; 3Univ. of Paris-Saclay, and Univ. the algorithm can deploy more DNN  Market Watch Panel V: Th2A.18 extend the scalability of Time Sensitive of Lorraine, France. We theoretically tasks with the same network resource. Inside the Data Center 1000-nm IR Supercontinuum Due Th2A.22 industrial Networks, by partitioning simulate the threshold plasticity of 10:30–12:00, Theater I to Raman Soliton Supported by Wavelength-tunable PT-symmetric them into time/scheduling domains a high-Q-factor silicon-on-insulator Th2A.29 Four-wave Mixing, Marina Zajnu- Single-longitudinal-mode Fiber and interconnect domain-devices microring resonator integrated with DeepCoop: Leveraging Cooperative 1 1 Beyond 400ZR….What lina ; Aston Inst. of Photonic Tech- Laser with a Single Physical Loop, Ji- through an optical backbone acting VO2. The proposed structure can per- DRL Agents to Achieve Scalable nologies, Aston Univ., UK. Simple, low- anping Yao1, Zheng Dai1, Zhiqiang asynchronously to them. We show form excitatory and inhibitory learning Network Automation for Multi- Comes Next? cost, and robust telecom-fiber-based Fan1; 1Univ. of Ottawa, Canada. A drastic scalability improvements and by tuning the initial working condition. Domain SD-EONs, Baojia Li1, Zuqing 11:00–12:00, Theater III single-pass system is introduced and wavelength-tunable parity-time (PT)- a proof of concept. Zhu1; 1Univ of Science and Technology numerically studied to generate a symmetric single-longitudinal-mode Th2A.27 of China, China. We design DeepCoop System Evaluation of On- supercontinuum ranging from 1500 fiber laser with a single physical loop Th2A.25 Experimental Demonstration of Op- to realize service provisioning in nm to 2500 nm despite the optical is demonstrated. Single-longitudinal- Experiments on Cloud-RAN Wireless tical Multicast Packet Transmissions multi-domain software-defined elastic board Optics loss due to infrared absorption in mode lasing with a tunable range from Handover Using Optical Switching in Optical Packet/Circuit Integrated optical networks (SD-EONs) with 11:30–12:30, Theater II optical fibers. 1549.2 to 1550.3 nm and a linewidth in a Dense Urban Testbed, Artur Networks, Yusuke Hirota1, Sugang cooperative deep reinforcement of 670 Hz is achieved experimentally. Minakhmetov1, Craig Gutterman2, Xu1, Masaki Shiraiwa1, Yoshinari Aw- learning (DRL) agents. 3D-sensing Uses 2 3 1 2,3 Th2A.19 Tingjun Chen , Jiakai Yu , Cedric aji , Massimo Tornatore , Biswanath in Consumer and Refractive Index Grading Opti- Th2A.23 Ware1, Luigi Iannone1, Daniel C. Mukherjee2, Hideaki Furukawa1, Naoya Th2A.30 mization for Rectangular Core Fi- A Frequency Digital Pre-distortion Kilper3, Gil Zussman2; 1LTCI, Telecom Wada1; 1National Inst. of Information Disruption-minimized Re-adap- Automotive Markets ber, Lior Rechtman1, Dan M. Ma- Compensation Method for FMCW Paris, France; 2Electrical Engineering, and Communications Technology, tation of Virtual Links in Elastic Intel rom1; 1Hebrew Univ. of Jerusalem, LiDAR System, Ting-Hui Chen1, Columbia Univ., USA; 3College of Japan; 2Univ. of California, Davis, Optical Networks, Nashid Shahriar1, 12:15–13:30, Theater III Israel. We optimize the refractive index Chien-Ying Huang1, Tim Kuei Shia4, Optical Sciences, Univ. of Arizona, USA; 3Politecnico di Milano, Italy. We Mubeen Zulfiqar1, Shihabur Rahman grading for rectangular core fibers in Sin-Jhu Wun1, Ching-Hsiang Hsu1, USA. We investigate dynamic network develop an SDN-based control for Chowdhury1, Sepehr Taeb1, Massimo support of mode division multiplexing. Kai-Ning Ku1, Chi-Sen Lee1, Chen-Yu resource allocation using software- optical-multicast packet transmission Tornatore2, Raouf Boutaba1, Jeebak  Market Watch Panel VI: Designs maximizing the effective index Lin1, Po-Chih Chang1, Chung-Chih defined networking optical controller and experimentally demonstrate Mitra3, Mahdi Hemmati3; 1Univ. of Advanced Packaging and separations for MIMO-less support Wang1, Shang-Chun Chen1, Chien- with software-defined radios on the multicast functionality by validating Waterloo, Canada; 2Politecnico di Photonic Integration and others minimizing the differential Chung Lin1,3, Chih-I Wu1,2; 1Electronic COSMOS testbed. 10 Gb/s capacity, it using an application-layer network Milano, Italy; 3Huawei Technologies 12:30–14:00, Theater I group delays are identified. and Optoelectronic System Research deterministic low latency are main- service for efficient content duplication Canada Research Center, Cana- Laboratories, Industrial Technology tained through user equipment wire- in Optical Packet/Circuit Integrated da. We present a novel re-adaptation Th2A.20 Research Inst., Taiwan; 2National Tai- less handover via optical switching. (OPCI) network. approach to accommodate bandwidth Transforming Network Ultra-small Optical Fiber Fabry-Pérot wan Univ., Taiwan; 3National Chiao increase of virtual links in elastic Operations through 4 Cavities Fabricated by Laser-Induced Tung Univ., Taiwan; Information and optical networks. Our approach can Automation Thursday, 12 March 1 Photothermal Effect, Jiwon Choi , Communications Research Laborato- incorporate different objectives, as 12:45–13:45, Theater II Gyeongho Son1, Yeonghoon Jin1, Kyo- ries, Industrial Technology Research minimizing disruption, by choosing ungsik Yu1; 1KAIST, South Korea. We Inst., Taiwan. We propose a digital among a comprehensive set of re- proposed the HF etching method pre-distortion (DPD) compensation adaptation actions. POFTO Symposium using laser-induced photothermal method for FMCW LiDAR system POFTO effect and found that curvatures of and demonstrate that the proposed 13:45–14:45, Theater III cavities can affect its Q-factor. We also method can enhance the ranging show the potential for the novel metal accuracy more than three times in our coating process for the cavity surface. FMCW ranging experiment.

OFC 2020 • 8–12 March 2020 129 Exhibit Hall B

Th2A • Poster Session II—Continued

Th2A.31 Th2A.34 Th2A.37 Th2A.40 Th2A.43 Th2A.45 What if AI Fails: Protection against Energy-efficient Coherent PON Comparison of PAM Formats for 80-GHz Band Electro-optic Modula- RF Fading Circumvention Using a Few-subcarrier QPSK-OFDM Wire- Failure of AI-Based QoT Predic- System with Access-span Length 200 Gb/s Short Reach Transmis- tor Using Antenna-coupled Elec- Polarization Modulator for Support- less Ka-band Delivery with Pre- 1 1 1 tion, Ningning Guo , Longfei Li , Lian Difference Between ONUs Using sion Systems, Tom Wettlin , Talha trode and LiNbO3 Film Stacked ing W-Band RoF Transport from 85 coding-assisted Frequency Dou- Xiang1, Sanjay K. Bose2, Gangxiang Marginal IQ Power Loading in Rahman2, Jinlong Wei2, Stefano Cal- on Low-k Substrate for Millimeter- to 95 GHz, Run-Kai Shiu1,2, Shang-Jen bling, Wen Zhou1,2, Jianjun Yu1, Li Shen1; 1Soochow Univ., China; 2IIT, In- Downlink Transmission, Takahiro abro2, Nebojsa Stojanovic2, Stephan Wave Radar System, Hiroshi Mu- Su2, Yon-Wei Chen2, Qi Zhou2, Justin Zhao1,2, Kaihui Wang1, Miao Kong1, dia. We propose a new mechanism to Kodama1, Kouki Arai2; 1Kagawa Univ., Pachnicke1; 1Kiel Univ. , Germany; 2Eu- rata1, Hiroto Yokohashi1; 1Mie Univ., Chiu1, Guan-Ming Shao1, Li Zhao2, Jiao Zhang1, You-Wei Chen2, Shuyi protect against the failure of AI-based Japan; 2Graduate Faculty of Interdis- ropean Research Center, Huawei Japan. Antenna-coupled-electrode P. C. Peng1, Gee-Kung Chang2; 1Na- Shen2, Gee-Kung Chang2; 1Shanghai

QoT prediction. Simulation results ciplinary Research, Univ. of Yamanashi, Technologies, Germany. We compared LiNbO3 optical modulators have tional Taipei Univ. of Technology, Inst. for Advanced Communica- shows the efficiency of the mechanism Japan. 2.7 dB power efficiency the performance of PAM4, PAM6 and been designed, fabricated, and Taiwan; 2Georgia Inst. of Technology, tion and Data Science, Fudan Univ., in guaranteeing reliability of lightpath improvement consistent with theory PAM8 experimentally at 224/225 Gb/s demonstrated experimentally for the Georgia. RF fading in an RoF system China; 2School of Electrical and Com- services, while not increasing network was experimentally obtained by using different DSP schemes includ- calibrations of millimeter-wave radars is circumvented by managing the puter Engineering, Georgia Inst. of spectrum resources used. marginal IQ distorted QPSK signal ing Tomlinson-Harashima precoding and imagers. A over 50-dB signal-to- frequency notch through the control Technology, USA. We experimentally with and DD-CPR in the case of the (THP). PAM6 shows the best overall noise ratio of the re-converted signal of a polarization modulator. W-band demonstrated a Ka-band dual/four- Th2A.32 57 km downlink access span length performance. For PAM4 THP shows was obtained in the 1-GHz IF band. signals centralized at 90 GHz with subcarrier QPSK-OFDM delivery HeCSON: Heuristic for Configura- difference between two ONUs. a large gain. 10GHz operation bandwidth are fully over 25-km SMF and 1-m wireless tion Selection in Optical Network Th2A.41 utilized with stable EVM performance. link. To our knowledge, this is the Planning, Sai Kireet Patri1,2, Achim Th2A.35 Th2A.38 Photonics-enabled 2Tx/2Rx Coher- first time to achieve few-subcarrier Autenrieth1, Danish Rafique1, Jörg- Novel Low Cost PON Protection via ASIC Design Exploration for DSP ent MIMO Radar System Experi- Th2A.44 QPSK-OFDM signal generation and Peter Elbers1, Carmen Mas Machu- Harvested Power, Neil Parkin1, Albert and FEC of 400-Gbit/s Coherent ment with Enhanced Cross Range 500-Gb/s PAM4 FSO-UWLT Inte- wireless transmission using pre-coding ca2; 1ADVA Optical Networking SE, Rafel1; 1BT, UK. PON protection is Data-center Interconnect Receiv- Resolution, Antonella Bogoni2,1, gration Utilizing R/G/B Five-wave- technique. Germany; 2Technical Univ. of Munich, costly due to the necessary redundant ers, Christoffer Fougstedt1, Oscar Paolo Ghelfi1, Salvatore Maresca2, length Polarization-multiplexing Germany. We present a transceiver equipment. We describe a method Gustafsson2, Cheolyong Bae2, Erik Leonardo Lembo2,3, David Ricardo Scenario, Shi-Cheng Tu1, Yong- Th2A.46 configuration selection heuristic utilising harvested optical power and Börjeson1, Per Larsson-Edefors1; 1De- Sanchez Jacome4,2, Filippo Scotti1, Cheng Huang1, Jing-Yan Xie1, Qi-Ping Centralized Digital Self-interference combining Enhanced Gaussian Noise show test results using commercial partment of Computer Science and Giovanni Serafino2, Antonio Malac- Huang1, Song-En Tsai1, Wen-Shing Cancellation Technique to Enable (EGN) models, which shows a 40% equipment, which prove protection Engineering, Chalmers Univ. of Tech- arne2, Carsten Rockstuhl4; 1CNIT, Tsai2, Hai-Han Lu1; 1National Taipei Full-duplex Operation of Next increase in throughput and 87% could be provided at very low cost. nology, Sweden; 2Department of Elec- Italy; 2Sant’Anna School, Italy; 3Na- Univ. of Technology, Taiwan; 2De- Generation Millimeter Wave over decrease in execution time, compared trical Engineering, Linköping Univ., val Experimentation and Support partment of Electrical Engineering, Fiber Systems, Qi Zhou1, Shuyi to only approximate EGN and Full- Th2A.36 Sweden. We perform exploratory Center, Italy; 4Karlsruhe Inst. of Ming Chi Univ. of Technology, Tai- Shen1, Shang-Jen Su1, You-Wei Chen1, Form EGN respectively. Deterministic Layer-2 Ring Network ASIC design of key DSP and FEC Technology, Germany. Photonics wan. A 500-Gb/s PAM4 FSO-UWLT Shuang Yao1, Yahya M. Alfadhli1, with Autonomous Dynamic Gate units for 400-Gbit/s coherent data- enables a multi-target experiment integration utilizing red/green/blue Gee-Kung Chang1; 1Georgia Inst. Th2A.33 Shaping for Multi-service Conver- center interconnect receivers. In of coherent MIMO radar. It confirms polarization-multiplexing scenario is of Technology, USA. We propose Hardware-efficient ROADM De- gence in 5G and Beyond, Nao- 22-nm CMOS, the considered units that coherence introduces almost one constructed. With five-wavelength and experimentally demonstrate a sign with Fiber-core Bypassing for taka Shibata1, Shin Kaneko1, Ka- together dissipate 5 W, suggesting order of magnitude improvement in polarization-multiplexing scenario, centralized digital self-interference WDM/SDM Networks, Lida Liu1,2, zuaki Honda1, Jun Terada1; 1NTT, implementation feasibility in power- the cross-range resolution. Simulations the transmission rate is substantially cancellation scheme in a mm-wave Shuangyi Yan2, Gerald Q. Migure Japan. We propose autonomous constrained form factors. demonstrates the coherent bi-band multiplied. Such demonstrated over fiber system for full-duplex Jr. 1, Yanlong Li3, Dimitra Simeoni- dynamic gate shaping and rerouting operation benefits on the system PAM4 FSO-UWLT integration brings next-generation mobile networks. A dou2; 1KTH, Sweden; 2HPN group, according to real-time traffic-state Th2A.39 performance. imperative enhancement featured by 24.1-dB self-interference cancellation Univ. of Bristol, UK; 3Tsinghua National for enhancing IoT-traffic throughput Coherent Self-superposition Aid- optical wireless communications. over 1-GHz bandwidth is realized with Laboratory for Information Science on deterministic Layer-2 network ed SSB Nyquist 16QAM Synthe- Th2A.42 successful signal-of-interest recovery. and Technology, China. A SDM/WDM that also accommodates latency- sis from Twin-SSB Nyquist QPSK Novel Compressed Digital Radio ROADM is proposed with low port- sensitive mobile front-haul. System- with Reduced DAC Resolution Fronthaul over Photonically-gener- Th2A.47 count WSSs. Fiber-core bypassing level demonstrations show throughput Requirement, Guo-Wei Lu1, Hong- ated THz Wireless Bridge, Tongyun Four-dimensional 8-bit Modulation reduces the number of and port- improvement from 3.9Gbps to Bo Zhang2, Zhe Li3; 1Tokai Univ., Li1, Luis Gonzalez-Guerrero2, Hay- with KP4 Non-binary FEC for Short- count of WSSs in the implementation. 7.9Gbps. Japan; 2Chengdu Univ. of Info. and men Shams2, Cyril Renaud2, Alwyn reach Coherent Optical Transmis- The design requires less hardware Tech., China; 3II-VI Incorporated, J. Seeds2, Martyn Fice2, Ian White1, sions, Liangjun Zhang1, Hung-chang without compromising on network USA. An FWM-based coherent self- Richard Penty1; 1Centre for Pho- Chien1, Yi Cai1, Weiming Wang1, performance with the developed superposition technique is proposed tonic Systems, Electrical Division, Weiqin Zhou1, Zihe Hu1; 1ZTE Corpora- routing core and wavelength and demonstrated to synthesize 12.5- Engineering Department, Univ. of tion, China. C4-256 four-dimensional assignment algorithm. Gb/s SSB Nyquist 16QAM from Twin- Cambridge, UK; 2Department of Elec- 8-bit modulation with non-binary FEC SSB Nyquist QPSK, which effectively tronic and Electrical Engineering, Univ. is firstly proposed and demonstrated relaxes DAC resolution requirement. College London, UK. Compressed for coherent optical transmissions, An equalization algorithm is also DRoF-based fronthaul links enable which outperforms its PM-16QAM proposed for such approach’s cost-effective last-mile wireless counterpart by 0.7-dB for required detection. coverage. This paper demonstrates OSNR at 10-8 post-FEC BER. a novel system which carries 12 LTE Thursday, 12 March Thursday, services over both optical fibre and photonically-generated THz wireless links with over 40 dB dynamic range.

130 OFC 2020 • 8–12 March 2020 Exhibit Hall B ShowShow Floor ProgrammingProgramming Continued Th2A • Poster Session II—Continued Design Consideration of Th2A.48 Th2A.50 Th2A.52 Th2A.54 Th2A.56 Concept and Experimental Dem- Optical Labelling and Performance Nonlinear Tolerance Enhancement 17 GBd Sub-photon Level Het- Secure Optical Communication Next Generation Ethernet onstration of Optical IM/DD End- Monitoring in Coherent Optical Based on Perturbation Theory for erodyne Detection for CV-QKD Based on Common-injection-in- Switches with Higher to-end System Optimization us- Wavelength Division Multiplexing Optical Phase Conjugation Sys- Enabled by Machine Learning, Max duced Synchronization of Wide- Speed Optics ing a Generative Model, Boris P. Networks, Chao Yang1, Xiang Li1, tems, Tu T. Nguyen1, Paul Harper1, Rückmann1, Sebastian Kleis1, Chris- band Complex Signals, Ning Ji- Karanov1,2, Mathieu Chagnon2, Va- Cisco Ming Luo1, Zhixue He1, Haibo Li1, Cai Sunish O.S. Kumar2, Andrew El- tian Schaeffer1; 1Helmut-Schmidt- ang1, Anke Zhao1, Shiqin Liu1, Yiqun hid Aref2, Domaniç Lavery1, Polina Li1, Shaohua Yu1; 1Wuhan Research Inst. lis1; 1Aston Univ., UK; 2Memorial Univ., Germany. We experimentally Zhang1, Kun Qiu1; 1Univ of Elec- 10:15–11:15, Theater II Bayvel1, Laurent Schmalen3; 1Univ. of Post & Tele, China. We propose and Univ. of Newfoundland, Canada. We demonstrate heterodyne detection tronic Science & Tech China, Chi- College London, UK; 2Nokia Bell experimentally demonstrate an optical show more than 1 dB of additional at a SNR of less than -20 dB with na. We propose and experimentally Product Showcase Labs, Germany; 3Karlsruhe Inst. of labelling scheme in coherent optical SNR improvement by deploying machine learning based optimized demonstrate a novel secure optical Technology, Germany. We perform an Huawei Technologies USA WDM network to simultaneously perturbation-based nonlinearity DSP carrier phase estimation. Successful communication scheme that supports experimental end-to-end transceiver 10:15–10:45, Theater III recognize labels in each wavelength at the receiver side for 30 GBaud dual- 17 GBaud BPSK signal demodulation high encryption efficiency and high- optimization via deep learning using and monitor the OSNR using only one polarization 16-QAM transmission is achieved without the use of pilot speed transmissions over Gbit/s a generative adversarial network to photodetector based on subcarrier over a 2560 km link with a mid-link signals. with satisfactory BER performance,  Market Watch Panel V: approximate the test-bed channel. index modulation technology. optical phase conjugation. by achieving common-injection- Inside the Data Center Previously, optimization was only Th2A.55 induced synchronization between two possible through a prior assumption of 10:30–12:00, Theater I Th2A.51 Th2A.53 Recent Progress in the Charac- wideband complex entropy sources. an explicit simplified channel model. Reduction in Complexity of Volterra The Impact of Nonlinear Phase terization of the G-SNR and the Filter by Employing l -Regularization Noise Induced from Low-speed OSNR of Future SDM-based Sub- Beyond 400ZR….What Th2A.49 0 in 112-Gbps PAM-4 VCSEL Optical Optical Supervisory Channel on sea Open Cables, Alexis C. Carbó Comes Next? Joint Linear and Nonlinear Noise Es- Interconnect, Yi-Yu Lin1, Chun-Jui Soft-decision FEC Performance, Hi- Meseguer1, Philippe Plantady1, Alain timation of Optical Links by Exploit- 11:00–12:00, Theater III Chen1, Hong-Minh Nguyen2, Chun- roki Kawahara1, Kohei Saito1, Takeshi Calsat1, Suwimol Dubost1, Vincent ing Carrier Phase Recovery, Dan- Yen Chuang2, Chia Chien Wei1, Jye- Seki1, Takeshi Kawasaki1, Hideki Mae- Letellier1; 1Alcatel Submarine Net- iel Lippiatt1, Siddharth Varughese1, System Evaluation of On- hong Chen2, Jin-Wei Shi3; 1National da1; 1NTT Network Service System works, France. We characterized the Thomas Richter2, Sorin Tibuleac2, Sun Yat-Sen Univ., Taiwan; 2National Labolatories, Japan. We numerically G-SNR and the OSNR of an SDM- board Optics Stephen E. Ralph1; 1Georgia Inst. of Chiao Tung Univ., Taiwan; 3National analyze the statistics of the nonlinear compatible submarine optical cable 11:30–12:30, Theater II Technology, USA; 2ADVA Optical Net- Central Univ., Taiwan. We employ phase noise induced from a low- with different modulation formats and working, USA. We demonstrate joint l -regularization to reduce Volterra speed optical supervisory channel symbol rates up to 101 GBd, observing linear and nonlinear noise estimation 0 3D-sensing Uses filter complexity by up to 90% in 112- wavelength-multiplexed outside the good agreement between all G-SNR by extracting the optical signal-to- Gbps PAM-4 VCSEL transmission. EDFA amplification band and how it measurements. in Consumer and noise ratio (OSNR) and launch power Compared to l -regularization, l - affects the behavior and performance Automotive Markets directly from phase noise metrics 1 0 regularization achieves lower complex- of soft-decision FEC. readily available within existing digital Intel ity and more precise weights without signal processing algorithms. 12:15–13:30, Theater III retraining after sparse identification.  Market Watch Panel VI: Advanced Packaging and Photonic Integration 12:30–14:00, Theater I

Transforming Network Operations through

Automation Thursday, 12 March 12:45–13:45, Theater II

POFTO Symposium POFTO 13:45–14:45, Theater III

OFC 2020 • 8–12 March 2020 131 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

14:00–16:00 14:00–16:00 14:00–16:00 14:00–16:00 14:00–16:00 14:00–16:00 Th3A • Disaggregation, Th3B • Optical Switching Th3C • High-speed Th3D • Machine Learning Th3E • Optimizing Th3F • Novel Fiber Optic Open Platform, SDN, Presider: Richard Jensen; and Multi-wavelength for Optical Network Coherent Sensors NFV Huber Suhner Polatis, Inc., Devices Performance Transponders Presider: Sergio Leon-Saval; Presider: David Boertjes; USA Presider: Kouji Nakahara; Presider: Maite Brandt- Presider: Hongbin Zhang; Univ. of Sydney, Australia Ciena Corporation, Canada Lumentum Japan Inc., Japan Pearce; Univ. of Virginia, Acacia Communications, USA USA

Th3A.1 • 14:00 Th3D.1 • 14:00 Th3B.1 • 14:00 Invited Th3C.1 • 14:00 Top-Scored Th3E.1 • 14:00 Tutorial Th3F.1 • 14:00 Invited Disaggregated Packet Transponder « Evol-TL: Evolutionary Transfer Learn- Large-scale Photonic Integrated Direct Modulation of a 54-GHz Dis- Performance Oriented DSP Design Calibrated Fiber Grating Wave- Field Demonstration Exercising Cross-connects for Optical Com- ing for QoT Estimation in Multi- for Flexible Coherent Transmis- length Combs Enable High Accuracy tributed Bragg Reflector Laser with 1 Multi-format Transmission with munication and Computation, Ri- domain Networks, Che-Yu Liu , sion, Chris R. Fludger1; 1Infinera Biosensing, Jacques Albert1; 1Car- 100-GBaud PAM-4 and 80-GBaud 1 1 Multi-vendor, Open Packet Optical 1 1 Xiaoliang Chen , Roberto Proietti , S. palta Stabile , Nicola Calabretta , 1 2 GmbH, Germany. We review the leton Univ., Canada. Simulation-based PAM-8, Di Che , Yasuhiro Matsui , 1 1 Network Elements, Geraldine Fran- 1 1 J. Ben Yoo ; Univ. of California, Davis, Bin Shi ; Technische Universiteit Richard Schatz3, Roberto Rodes4, impact of DSP in terms of performance calibrations of measured spectra cia2, Ryoji Nagase3, Wataru Ishida3, USA. We propose an evolutionary Eindhoven, Netherlands. An 8×8 InP Ferdous Khan2, Martin Kwaker- and flexibility in the data network. are used to find the exact optical Yoshiaki Sone3, Lalit Kumar4, Srikanth transfer learning approach for QoT cross-connect chip for optical switch- naak2, Tsurugi Sudo2, Chandrasekhar DSP has addressed the optimization properties of multi-resonant fiber Krishnamohan4, Victor López1; 1Tele- estimation in multi-domain optical ing within ROADMs is employed for Sethumadhavan1, Junho Cho1, Xi of capacity against reach and power. gratings, resulting in elimination of fonica R&D, Spain; 2Telefonica Peru, networks. The results demonstrate that demonstrating optical feed-forward Chen1, Peter Winzer1; 1Nokia Bell Future DSP targets cost-reduction cross-sensitivities, lower noise and Peru; 3NEL America, USA; 4IP Infusion, our approach can reduce the amounts neural networks for analog data Labs, USA; 2Finisar Corporation, through flexible point-to-multi-point orders of magnitude improvements in USA. We demonstrate a field trial of required training data by 10x while processing. An all-optical approach USA; 3Applied Physics, Photonics, architectures. biochemical sensor limits of detection. of 100G/200Gbps alien wavelength achieving accuracies of >90%. is also explored for deeper optical KTH Royal Inst. of Technology, Swe- transmission and management onto neuromorphic computing on chip. den; 4Finisar Corporation, USA. We a deployed line system (Telefonica del demonstrate both 100-GBaud PAM-4 Peru nation-wide field network) with and 80-GBaud PAM-8 transmissions disaggregated packet transponder, over 10-km fiber using a 1315-nm 54- adopting multi-vendor CFP2-ACO / GHz distributed Bragg reflector laser CFP2-DCO transceivers[1]. with a transient chirp parameter of 1.0. The 80-GBaud PAM-8 system achieves a net bit rate of 200 Gb/s.

Th3A.2 • 14:15 Th3C.2 • 14:15 Th3D.2 • 14:15 Top-Scored Chris Fludger is head of DSP develop- Demonstration of Low-latency Co- High Linearity and Uniform Charac- « Assessment of Domain Adaptation ment at Infinera in Germany, where herent Optical Connectivity for teristics of InP-based 8-CH Wave- Approaches for QoT Estimation in he specializes in System Design and Consolidated Inter-hub Ring Ar- guide Avalanche Photodiode Array Optical Networks, Riccardo di Ma- Digital Signal Processing for flexible chitecture, Zhensheng Jia1; 1Cable- for 400 GbE, Takuya Okimoto1,2, rino1, Cristina Rottondi1, Alessandro communications. Previously, he has Labs, USA. Based on new design Ken Ashizawa2, Koji Ebihara2, Satoru Giusti2, Andrea Bianco1; 1Politecnico worked on the development of several of consolidated inter-hub CDC Okamoto2, Takumi Endo2, Kazuhiko di Torino, Italy; 2Dalle Molle Inst. for generations of coherent optical trans- architecture, end-to-end video Horino2, Tatsuya Takeuchi2, Toru Artificial Intelligence, Switzerland. We ceivers at Cisco and CoreOptics. He delivery is demonstrated with 2-us Uchida2, Hideki Yagi1,2, Yoshihiro Yone- evaluate the performance of two has received master's and doctorate latency from multicast switch and da2,1; 1Sumitomo Electric Industries, domain adaptation approaches for degrees in electronic engineering from 11us from interoperable coherent Ltd., Japan; 2Sumitomo Electric Device machine learning assisted quality of Cambridge University, UK. At Nortel muxponder, and full-duplex operation Innovations, Inc., Japan. InP-based transmission estimation of an optical Networks his focus was electronic sig- is also presented in such network. 8-channel waveguide APD arrays were lightpath, for a fixed/variable number nal processing, advanced modulation demonstrated towards 400GbE for the of available training samples from the techniques and Raman amplification. first time. They exhibited maximum source/target domain. 3dB-bandwidth of 23GHz under high- optical input of -10dBm and uniformity of avalanche breakdown voltage less than 0.1V between channels. Thursday, 12 March Thursday,

132 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 ShowShow Floor ProgrammingProgramming Continued 14:00–16:00 14:00–15:30 14:00–16:00 14:00–15:30 14:00–16:00 Th3G • Panel: Pluggable Th3H • SDM Transmission Th3I • Optical and Th3J • Direct Detection Th3K • Future and Coherent Optics Thermal Connectivity Systems and Subsystems Emerging Access POFTO Symposium for Short-haul/Edge Presider: Werner Klaus; Presider: Alan McCurdy; Presider: To be Announced Network Technologies POFTO Applications and National Inst of Information OFS, Fiber Design & Presider: Junwen Zhang; 13:45–14:45, Theater III Beyond & Comm Tech, Japan Simulation Group, USA CableLabs, USA Introduction to OpenROADM MSA, The market for coherent pluggable Th3H.1 • 14:00 Top-Scored Th3I.1 • 14:00 Invited Th3J.1 • 14:00 Invited Th3K.1 • 14:00 Latest Update, and Show optics supporting reaches between 10 « 10.66 Peta-Bit/s Transmission over Optical Connectivities for Multicore Modem Module Development for Modeling and Experiments for Floor Demo Overview km and 120 km is emerging for many a 38-core-three-mode Fiber, Georg Fiber, Ryo Nagase1; 1Faculty of Engi- NASA’s Orion Spacecraft: Achieving Reliable Operation of Single-mode applications, such as telco metro- Rademacher1, Benjamin J. Puttnam1, neering, Chiba Inst. of Technology, FSO Communications over Lunar Transceivers Over Multimode Fi- 14:00–15:00, Theater II 1 1 access router-to-router interconnects, Ruben S. Luis1, Jun Sakaguchi1, Werner Japan. Multicore fiber is proposed for Distances, David J. Geisler1; 1Massa- ber, Jose Castro , Fei Jia , Rick Pimpi- 1 1 1 point-to-point data center intercon- Klaus1, Tobias A. Eriksson1,2, Yoshinari use in space-division multiplexing for chusetts Inst of Tech Lincoln Lab, USA. nella , Yu Huang , Bulent Kose , Brett 1 1 The World’s First nect, mobile and cable aggregation 1 3 Lane ; Panduit, USA. We define Awaji , Tetsuya Hayashi , Takuji Na- ultra-wide-band optical transmission NASA’s Orion spacecraft will employ Intercontinental applications. The ongoing 400ZR gashima3, Tetsuya Nakanishi3, Toshiki systems. This paper introduces free-space optical communications metrics to predict the transmission project at the Optical Internetwork- Taru3, Taketoshi Takahata4, Tetsuya recent progress on multicore fiber over 400,000- km from the lunar performance of SMF transceivers over Connections… ing Forum (OIF) defines a digital Kobayashi4, Hideaki Furukawa1, Naoya connection technologies for simplex vicinity to Earth, using an 80-Mb/s MMF links at 40Gbps and 100Gbps Contrasting Early coherent 400ZR interface primarily 1 1 based on simulation and experiments. Wada ; National Inst of Information & and multifiber connectors. downlink and a 20-Mb/s uplink. This Terrestrial-subsea for DCI applications. There have also Comm Tech, Japan; 2AlbaNova Univ. paper discusses an overview of the been other standardization activities Center, Royal Inst. of Technology link and optical modem. Networks with the defining coherent interfaces by other (KTH), Sweden; 3Sumitomo Electric Present industry organizations addressing vari- Industries, Ltd.,, Japan; 4Optoquest Telecom Infra Project (TIP) ous applications. Products compliant Co. Ltd., Japan. We demonstrate to these specifications are coming out transmission of 368-WDM-38-core- 15:05–16:00, Theater II and early commercial deployments are 3-mode x 24.5-GBaud 64- and 256- expected to be in 2020. QAM signals over 13 km. Record data-rate and spectral-efficiency of  Market Watch Panel Panelists from network operators, 1158.7 b/s/Hz were enabled by a low system companies, and module DMD 38-core-3-mode fiber with high VII: IP+WDM Architecture manufacturers will review recent prog- uniformity amongst cores. Evolution ress in terms of network deployment requirements/schedule, interoper- 14:30–16:00, Theater I ability, DSP/module development Th3H.2 • 14:15 Th3K.2 • 14:15 Invited status, and share their views of the Real-time Strongly-coupled 4-core Overturning the Eight Fallacies coherent pluggable optics roadmap Fiber Transmission, Shohei Beppu2, of Distributed Computing with in the next decade. Koji Igarashi1, Hiroshi Mukai3, Ma- the Octopus Edge Network, Se- sahiro Kikuta3, Masahiro Shigihara3, bastien Bigo1; 1Nokia Bell Labs, Speakers: Daiki Soma2, Takehiro Tsuritani2, Itsuro USA. Named after the mollusk nervous Morita2; 1Osaka Univ., Japan; 2KDDI system, the Octopus network is a Christian Rasmussen; Acacia Com- Research, Inc., Japan; 3NEC Platforms, sequel of low-latency ultra-reliable munications Inc., USA Ltd., Japan. We show a real-time edge networks. Its dynamic and Satoshi Ide; Fujitsu Optical Compo- optical coherent MIMO receiver deterministic characteristics open a for 4-mode division multiplexed new era for computing by breaking the nents, Japan Thursday, 12 March transmission. With the receiver, we notorious eight fallacies of distributed Xiang Zhou; Google, USA demonstrate real-time strongly- computing. coupled 4-core fiber transmission of Matthew Schmitt; Cable Labs, USA WDM DP-QPSK signals over 60 km. Eric Maniloff; Ciena, Canada

OFC 2020 • 8–12 March 2020 133 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

Th3A • Disaggregation, Th3B • Optical Th3C • High-speed Th3D • Machine Learning Th3E • Optimizing Th3F • Novel Fiber Optic Open Platform, SDN, Switching—Continued and Multi-wavelength for Optical Network Coherent Transponders— Sensors—Continued NFV—Continued Devices—Continued Performance—Continued Continued

Th3A.3 • 14:30 Invited Th3B.2 • 14:30 Th3C.3 • 14:30 Th3D.3 • 14:30 Th3F.2 • 14:30 Optical Node Disaggregation Man- Polarization-diversity Microring- SOH Mach-Zehnder Modulators for Fast and High-Precision Optical A Novel Demodulation Method of agement and Interoperability, Emilio based Optical Switch Fabric in a 100 GBd PAM4 Signaling With Sub- Performance Evaluation for Cog- Fiber Bragg Grating Sensor Array Riccardi1, Marco Schiano1; 1Network Switch-and-select Architecture, Hao 1 dB Phase-shifter Loss, Clemens nitive Optical Networks, Rui M. Based on Wavelength-to-time Map- 1 1 1 1 1 Research and Innovation, TIM (Tele- Yang , Qixiang Cheng , Rui Chen , Kieninger , Christoph Füllner , Heiner Morais1, Bruno Pereira1, João Pe- ping and Multiloop Optoelectronic 1 1 1 1 com Italia), Italy. This work gives a Keren Bergman ; Columbia Univ., Zwickel , Yasar Kutuvantavida , Juned dro1; 1Infinera, Portugal. We propose Oscillator, Wenxuan Wang1, Yi Liu2, 1 1 high-level overview of the maturity USA. We propose a polarization- Nassir Kemal , Carsten Eschenbaum , a methodology for accurate and Xinwei Du2, Yaxi Yan2, Changyuan 2 2 and open issues of the disaggregation diversity microring-based optical Delwin L. Elder , Larry R. Dalton , fast optical performance estimation Yu2, Xiangfei Chen1; 1Key Labora- 1 approach as applied to WDM transport switch fabric in a switch-and-select Wolfgang Freude , Sebastian Ran- exploiting cognitive awareness. It is tory of Intelligent Optical Sensing 1 1 1 network eco-system. architecture with polarization splitter- del , Christian Koos ; Karlsruhe Inst. composed by low and high precision and Manipulation of the Ministry of 2 rotators. The first primitive 2×2 of Technology, Germany; Depart- estimators and a calibration engine, Education & National Laboratory of silicon device is demonstrated with ment of Chemistry, Univ. of Wash- allowing to control open vs. proprietary Solid State Microstructures & College polarization-dependent loss of <1.6 ington, USA. We demonstrate 280 implementations. of Engineering and Applied Sciences, dB and inter-channel crosstalk of µm-long silicon-organic hybrid (SOH) Nanjing Univ., China; 2The Department <-45 dB. modulators with optical phase-shifter of Electronic and Information Engi- losses of 0.7dB and π-voltages of 1.5V. neering, The Hong Kong Polytechnic We show OOK and PAM4 signaling Univ., Hong Kong. We propose a novel at 100 GBd with a BER below the 7% demodulation method of strong FBG HD-FEC limit. sensor array based on wavelength-to- time mapping and multiloop OEO. The oscillating frequency shift caused by the time shift encodes measurable variation and location information. Th3C.4 • 14:45 Th3B.3 • 14:45 Top-Scored Th3D.4 • 14:45 Th3F.3 • 14:45 « High-speed and 16λ-WDM Op- Modeling Filtering Penalties in Integrated SiPh Flex-LIONS Module Femtosecond Laser Fabricated All- eration of Ge/Si Electro-absorption ROADM-based Networks with Ma- for All-to-all Optical Interconnects multicore-fiber Parallel Fabry-Perot Modulator for C-band Spectral 1 chine Learning for QoT Estima- Interferometers for Dual-parameter with Bandwidth Steering, Xian Xiao , 1 Regime, Junichi Fujikata , Masataka 1 1 1 1 1 tion, Ankush Mahajan , Konstantinos Sensing, Cong Zhang , Songnian Fu , Roberto Proietti , Gengchen Liu , Hon- 1 1 Noguchi , Seok H. Jeong , Yosuke (Kostas) Christodoulopoulos2, Ri- 1 1 1 gbo Lu1, Yi-Chun Ling1, Yu Zhang1, S. Ming Tang , Deming Liu ; School Onawa1,2, Daisuke Shimura1,2, Kazuki cardo Martínez1, Salvatore Spadaro3, J. Ben Yoo1; 1Univ. of California, Davis, of Optical and Electronic Informa- Kawashita3, Riku Katamawari3, Hideaki Raul Muñoz1; 1CTTC, Spain; 2Nokia USA. We experimentally demonstrate tion, Huazhong Univ of Science and Okayama1,2, Shigeki Takahashi1, Hideki Bell Labs, Germany; 3 UPC, the first all-to-all optical interconnects Technology, China. We demonstrate Ono1, Hiroyuki Takahashi1,2, Hiroki Yae- Spain. Monitoring 3dB bandwidth and with bandwidth steering using an all-multicore-fiber parallel Fabry-Perot gashi1,2, Yasuhiko Ishikawa3, Takahiro other spectrum related parameters at integrated 8×8 SiPh Flex-LIONS interferometers (FPIs) with individually Nakamura1; 1PETRA, Japan; 2Oki Elec- ROADMs provides information about module. Experimental results show variable cavity length of 26-61μm by tric Industry Co., Ltd., Japan; 3Toyo- quality of their filters. We propose a a 5-dB worst-case crosstalk penalty femtosecond laser selective micro- hashi Univ. of Technology, Japan. We machine-learning model to estimate and 25 Gb/s to 100 Gb/s bandwidth machining and fiber fusion splicing, present high-speed of 100Gbps end-to-end filtering penalty for more steering. leading to the successful mitigation for PAM-4 signal and 16λ-WDM accurate QoT estimation of future of cross-sensitivity arising in dual- operations of a Ge/Si EAM in C-band. connections. parameter sensing. Operation wavelengths could be controlled by Ge/Si stack width, and 16 λ operation was demonstrated at 50 Gbps. Thursday, 12 March Thursday,

134 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 ShowShow Floor ProgrammingProgramming Continued Th3G • Panel: Pluggable Th3H • SDM Th3I • Optical and Th3J • Direct Th3K • Future and Coherent Optics Transmission—Continued Thermal Connectivity— Detection Systems and Emerging Access for Short-haul/Edge Continued Subsystems—Continued Network Technologies— POFTO Symposium Applications and Continued POFTO Beyond—Continued 13:45–14:45, Theater III Th3H.3 • 14:30 Top-Scored Th3I.2 • 14:30 Th3J.2 • 14:30 Simple-structure LC-type Multi-core 5.2dB Sensitivity Enhancement in Long-Haul DMD-Unmanaged« Introduction to Fiber Connector with Low Insertion 25Gbps APD-based Optical Receiver 6-mode-multiplexed Transmission OpenROADM MSA, Loss, 1 1 Using Dynamic Biasing, Employing Cyclic Mode-group Tetsu Morishima , Ken Manabe , Payman Latest Update, and Show Shuhei Toyokawa1, Tetsuya Nakani- Zarkesh-Ha1,2, Robert Efroymson1, Permutation, Kohki Shibahara1, shi1, Tomomi Sano1, Tetsuya Hayas- Earl Fuller1, Joe Campbell3, Majeed Floor Demo Overview Takayuki Mizuno1, Hirotaka Ono2, hi1; 1Sumitomo Electric Industries, Ltd., Hayat1,4; 1Dynamic Photonics Inc., Kazuhide Nakajima3, Yutaka Miya- 14:00–15:00, Theater II Japan. We demonstrated a single-fiber USA; 2Center for High Technology moto1; 1NTT Network Innovation multi-core fiber (MCF) connector Materials and ECE Dept, Univ. of New Laboratories, Japan; 2NTT Device without additional or high-precision Mexico, USA; 3Department of Elec- The World’s First Technology Laboratories, Japan; 3NTT parts for rotational alignment. trical and Computer Engineering, Access Network Service Systems Intercontinental Fabricated MCF connectors achieved Univ. of Virginia, USA; 4Department Laboratories, Japan. We demonstrate Connections… low insertion loss of 0.07 dB in average of Electrical and Computer Engi- a long-haul 6-mode-multiplexed and passed Telcordia GR-326-CORE neering, Marquette Univ., USA. First Contrasting Early WDM transmission with a record mechanical reliability test. demonstration of dynamically biased Terrestrial-subsea reach of 3250 km. Newly-developed 25Gbps avalanche photodiode-based mode-group permutation technique Networks with the receiver operating at 1.55 mm is mitigated modal-dispersion-impact Present reported. A 5.2dB improvement in by >70%. We also show diversity- receiver sensitivity and 10,000-fold Telecom Infra Project (TIP) enhanced MIMO transmission reduction in bit-error-rate 25-Gbps are extending the achievable reach over 15:05–16:00, Theater II experimentally demonstrated using 9000 km. a commercially available InGaAs-InP APD.  Market Watch Panel Th3H.4 • 14:45 Th3I.3 • 14:45 Th3J.3 • 14:45 Th3K.3 • 14:45 VII: IP+WDM Architecture First Transmission of a 12D Format High Durability Molded Lens Con- Low-cost TI-ADC Timing Calibration Demonstration of SOA-based IM/DD 1 Evolution Across Three Coupled Spatial Modes nector for SMFs, Akihiro Naka- Circuit, Hananel Faig , Shai Co- 1T (280Gbit/s×4) PS-PAM8 Transmis- 1 1 2 2 1 1 of a 3-core Coupled-core Fiber at 4 ma ; Fujikura Ltd., Japan. We have hen , Liron Gantz , Dan Sadot ; Ben- sion over 40km SSMF at O-band, Kai- 14:30–16:00, Theater I 1 1 bits/s/Hz, Rene-Jean Essiambre1, Ro- achieved IL of <0.7dB and RL of Gurion Univ. of the Negev, Isra- hui Wang , Jiao Zhang , Mingming 2 1 1 1 land Ryf1, Sjoerd van der Heide1,2, Juan >50dB in molded lens connector for el; Mellanox Technologies, Israel. An Zhao , Wen Zhou , Li Zhao , Jiangnan 1 2 3 I. Bonetti1,4, Hanzi Huang1,3, Murali single-mode fibers and confirmed its efficient timing skew calibration of Xiao , Feng Zhao , Yun Zhang , Bo 4 4 5 Kodialam1, Francisco Javier Garcia- excellent durability, the maximum IL time-interleaved ADC (TI-ADC) for Liu , Xiangjun Xin , Ze Dong , Jianjun 1 1 2 Gomez1,5, Ellsworth C. Burrows1, Juan change is 0.06dB without cleaning high-speed link is proposed and Yu ; Fudan Univ., China; Xian Univ. Carlos Alvarado Zacarias1,6, Rodrigo during mating 250 times. experimentally validated. The method of Posts and Telecommunications, 3 4 Amezcua Correa6, Xi Chen1, Nicolas is based on the CDR’s existing sub- China; ZTE Corp, China; Beijing Univ. K. Fontaine1, Haoshuo Chen1; 1Nokia blocks, and enables flexible tradeoff of Posts and Telecommunications, 5 Corporation, USA; 2Electrical Engi- of complexity versus performance. China; Huaqiao Univ., China. We neering, Eindhoven Univ. of Technol- experimentally demonstrate a four- ogy, Netherlands; 3Specialty Fiber lane O-band IM/DD system. With the Optics and Optical Access Networks, aid of semiconductor optical amplifiers Thursday, 12 March Shanghai Univ., China; 4Grupo de and probabilistic shaping, a record Comunicaciones Opticas, Instituto bit rate of 1.12Tb/s (280Gbit/s×4) Balseiro, Argentina; 5Inst. for Commun. PS-PAM8 signal can be successfully Engineering, Technical Univ. of Mu- transmitted over 40-km SSMF. nich, Germany; 6CREOL, The Univ. of Central Florida, USA. We demonstrate the first transmission of a space- division multiplexed 12D modulation format over a three-core coupled-core multicore fiber. The format occupies a single time slot spread across all three linearly-coupled spatial modes and shows improvements in MI and GMI after transmission compared to PDM-QPSK.

OFC 2020 • 8–12 March 2020 135 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

Top-Scored Th3A.4 • 15:00 Th3B.4 • 15:00 Th3C.5 • 15:00 Tutorial Th3D.5 • 15:00 Top-Scored Th3E.2 • 15:00 Top-Scored Th3F.4 • 15:00 Demonstration of Containerized « « « O-band Strictly Non-blocking 8 × Data Center Links Beyond 100 How Uncertainty on the Fiber Span 1.1 Tb/s/l at 9.8 bit/s/Hz DWDM Sub-mK and Nano-strain Discrimi- vDU/vCU Migration in WDM Metro 8 Silicon-photonics Switch, Keijiro Gbit/s Per Wavelength, Joseph M. Lengths Influences QoT Estimation Transmission over DCI Distances nation Using Frequency Stabilized Optical Networks, Jiaxin Feng1, 1 1 1 2 Suzuki , Ryotaro Konoike , Guangwei Kahn , Jose Krause Perin , Anujit Using Machine Learning in WDM Supported by CMOS DACs, Fred Lasers and Polarization Maintain- 1 1 3 1 2 Jiawei Zhang , Yuefeng Ji , Yuming Cong1, Koji Yamada1, Shu Nami- Shastri ; Stanford Univ., USA; Aeva, Networks, Jelena Pesic1, Matteo 1 2 ing π-shifted Fibre Bragg Grat- 1 1 Buchali , Vincent Lauinger , Mathieu Xiao ; Beijing Univ. of Posts and 1 1 3 1 2 2 1 ki , Hitoshi Kawashima , Kazuhiro Inc., USA; Aayuna, Inc., USA. We Lonardi , Nicola Rossi , Thierry Zami , Chagnon1, Karsten Schuh1, Vahid ings, Stefanos Andreou , Roel van Telecomm, China. We experiment on 1 1 1 1 1 Ikeda ; National Inst. of Advanced review intra- and inter-data center Emmanuel Seve , Yvan Pointuri- Aref1; 1Nokia Bell Labs, Germany; 2KIT, der Zon , Kevin A. Williams , Erwin a containerized vDU/vCU migration 1 1 2 1 1 Industrial Science and Technology link options, including those based er ; Nokia-Bell-Labs, France; Nokia, Germany. We report on a 16-nm CMOS Bente ; Electrical Engineering, Eind- for load balancing among processing (AIST), Japan. We report a double on direct detection, digital or France. We investigate how a machine DAC based transmitter optimization hoven Univ. of Technology, Neth- pools over WDM metro networks. Mach-Zehnder path-independent analog coherent detection, Stokes learning-based QoT estimator enabling bitrates up to 1.15 Tb/s. erlands. We report on a sensing Two stateful migration strategies to insertion-loss 8 × 8 switch operating in vector detection or Kramers-Kronig performs depending on different We successfully demonstrate DWDM system which discriminates strain and reduce migration time are verified the O-band. The average on-chip loss detection, comparing them in terms features selections, on homogeneity transmission over DCI distances up temperature with 5.5 nanostrain and on a converged edge access network was 5.4-dB, and the crosstalk was less of spectral efficiency, optical power of the learned light paths and on to 118 km at 1.1 Tb/s and spectral 0.39 mK resolutions respectively. The platform. than -30-dB in a wavelength range of efficiency, complexity and power uncertainty of their span lengths using efficiencies of 9.8 bit/s/Hz. system deploys frequency stabilized 1290-1360 nm. consumption. artificial database for the France43 integrated InP-based lasers and a network. heterodyne-based read-out system.

Th3A.5 • 15:15 Th3B.5 • 15:15 Joseph M. Kahn is Professor of Electri- Th3D.6 • 15:15 Th3E.3 • 15:15 Invited Th3F.5 • 15:15 First Proof That Geographic Loca- Fast Switching of 84 μs for Silica- cal Engineering at Stanford University. A Three-stage Training Framework Maximizing Throughput via Verti- Distortion-suppressed Sampling 1 tion on Deployed Fiber Cable Can based PLC Switch, Osamu Moriwaki , Achievements include: first synchro- for Customizing Link Models for cal Optimization of the Coherent Rate Enhancement in Phase-OTDR 1 1 1 Be Determined by Using OTDR Kenya Suzuki ; NTT Device Innovation nous (coherent) detection in fiber Optical Networks, Xiaomin Liu , MODEM, Robert Maher1, Mehdi Tor- Vibration Sensing with Newly De- 1 1 Distance Based on Distributed Fiber Center, NTT Corporation, Japan. We optics (1989); first probabilistic shap- Huazhi Lun , Mengfan Fu , Yun- batian2, An Nguyen1, Zhenxing Wang1, signed FDM Pulse Sequence for 1 1 1 Optical Sensing Technology, Tiejun have reduced the switching time of a ing in optical communications (1999); yun Fan , Lilin Yi , Weisheng Hu , Swen Koenig1, Mark Missey1, Alban Le Correctly Monitoring Various Wave- 1 1 1 1 J. Xia , Glenn Wellbrock , Ming-Fang silica-based thermo-optic switch to founding StrataLight Communications, Qunbi Zhuge ; Shanghai Jiao Tong Liepvre1, Ryan Going1, Stefan Wolf1, forms, Yoshifumi Wakisaka1, Daisuke 2 2 2 Huang , Milad Salemi , Yuheng Chen , 84 μs by utilizing a thin cladding layer leader in first-generation phase- Univ., China. We propose a link Parmijit Samra1, Pat Day1, Stephanie Iida1, Hiroyuki Oshida1; 1NTT corp., 2 3 1 Ting Wang , Yoshiaki Aono ; Verizon and a novel driving techniques. The modulated fiber transmission systems model customization framework to Tremblay2, Mehrdad Ziari1, Fred Kish1, Japan. The FDM-based sampling 2 Communications Inc, USA; NEC resultant high-speed switch should be (2000); first electronic compensation of increase modeling accuracy for each Steve Sanders1, Parthiban Kandap- rate enhancement method proposed 3 Laboratories America, USA; NEC suitable for intra-datacenter networks. fiber Kerr nonlinearity (2002), leading specific link in an optical network. In pan1; 1Infinera Corporation, USA; 2In- herein detects vibration waveforms Corporation, Japan. We demonstrated to digital backpropagation (2008). addition, an active acquisition method finera, Canada. Vertical optimization more accurately than previous for the first time that geographic is employed in this framework to of DSP algorithms, analog electronics, methods while reducing phase locations on deployed fiber cables improve tolerance to link parameter optical components and PCB design unwrapping failures; it can measure can be determined accurately by using uncertainties. is critical to maximize the SNR limit vibrations with larger amplitude and OTDR distances. The method involves of the digital coherent MODEM. higher frequency than heretofore. vibration stimulation near deployed We demonstrate a record net ISD of cables and distributed fiber optical 10.82b/s/Hz for a vertically optimized sensing technology. 256QAM transceiver operating at a symbol rate >50GBd Thursday, 12 March Thursday,

136 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 ShowShow Floor ProgrammingProgramming Continued Th3G • Panel: Pluggable Th3H • SDM Th3I • Optical and Th3J • Direct Th3K • Future and Coherent Optics Transmission—Continued Thermal Connectivity— Detection Systems and Emerging Access for Short-haul/Edge Continued Subsystems—Continued Network Technologies— The World’s First Applications and Continued Intercontinental Beyond—Continued Connections… Contrasting Early Th3H.5 • 15:00 Top-Scored Th3I.4 • 15:00 Th3J.4 • 15:00 Top-Scored Th3K.4 • 15:00 « A CMOS Compatible Monolithic « 112-Gb/s/lambda Downstream Terrestrial-subsea 0.596 Pb/s S, C, L-Band Transmission Beyond 100-Gb/s Direct-detection Networks with the in a 125 µm Diameter 4-core Fiber Fiber Attach Solution with Reliable Transmission Using an Optical Re- Transmission for TDM-PON with Using a Single Wideband Comb Performance and Self-alignment, Bo ceiver Co-integrated with a 28-nm 31-dB Power Budget using 25- Present 1,3 2 Source, 1 Peng , Tymon Barwicz , Asli Sa- CMOS Gain-tunable Fully-differential Gb/s Optics and Simple DSP in Benjamin J. Puttnam , Ruben 3 3 1 1 Telecom Infra Project (TIP) 1 1 hin , Thomas Houghton , Brittany TIA, Yang Hong1, Ke Li1, Cosimo ONU, Siyu Luo , Zhengxuan Li , Yuan- S. Luis , Georg Rademacher , Lidia 3 1 1 1 1 2 2 Hedrick , Yusheng Bian , Michal Ra- Lacava1, Shenghao Liu1, David Thom- zhe Qu , Yingxiong Song , Jian Chen , 15:05–16:00, Theater II Galdino , Domaniç Lavery , Tobias 1 3 3 1 1 1 1 1 kowski , Shuren Hu , Javier Ayala , son1, Fanfan Meng1, Xiaoke Ruan2, Yingchun Li , Min Wang ; Shanghai Eriksson , Yoshinari Awaji , Hideaki 3 3 1 2 Colleen Meagher , Zoey Sowinski , Fan Zhang2, Graham T. Reed1, Periklis Univ., China. We experimentally Furukawa , Polina Bayvel , Naoya 3 3 1 1 Karen Nummy , Andy Stricker , Jorge Petropoulos1; 1Univ. of Southamp- demonstrate 112-Gb/s/lambda PAM-4  Market Watch Panel Wada ; National Inst Info & Comm 3 3 Tech (NICT), Japan; 2Optical Net- Lubguban , Hui Chen , Benjamin ton, UK; 2Peking Univ., China. We transmission based on 25-Gb/s optics. 3 3 3 VII: IP+WDM Architecture Fasano , Ian Melville , Zhuo-jie Wu , demonstrate up to 173.22-Gb/s Over 31-dB power budget is achieved works Group, Univ. Collage London, 3 1 Jae K. Cho , Ajey Jacob , Dave direct-detection transmission using a by using OLT-side pre-equalization, Evolution UK. We demonstrate 596.4 Tb/s over 3 3 3 Riggs , Daniel Berger , Ted Letavic , balanced photodetector wire-bonded amplification and only simple FFE a standard cladding diameter fiber 3 3 14:30–16:00, Theater I Anthony Yu , John Pellerin , Ken to a 28-nm CMOS fully-differential in ONU. with 4 single-mode cores, using a 3 1 Giewont ; Globalfoundries CTO gain-tunable TIA. Both 100-Gb/ single wideband optical comb source 2 to provide 25 GHz spaced carriers over Research, USA; IBM T. J. Watson s PAM4 and capacity-maximized 3 Fibre Types and 120 nm range across S, C and L bands. Research Center, USA; GlobalFound- adaptively-loaded DMT are studied for ries, USA. We report a fiber-attach up to 2-km SSMF transmission. Amplifiers: Choices and solution interfacing self-aligned, Trade-offs standard-cleaved fibers to monolithic photonic integrated circuits, fabricated Fiberstory in Globalfoundries 300-mm CMOS 15:00–16:00, Theater III production facilities. Statistical yield analysis and reliability assessment were performed to demonstrate the robustness of the proposed solution.

Th3H.6 • 15:15 Th3I.5 • 15:15 Invited Th3J.5 • 15:15 Th3K.5 • 15:15 Invited First Experimental Demonstration of Optoelectronic Glass Substrates for Real-Time 28 Gb/s NRZ over 80 Opportunities and Challenges When Cross-SDM/WDM Q-difference Com- Co-packaging Optics and ASICs, Lars km SSMF in C-band using Analog Using Low Bandwidth Optics for pensation at Multicore Fiber Trans- Brusberg1, Aramais Zakharian1, Ekin Electronic Precompensation, Michiel Higher Capacity PON Systems, Ro- 1 1 mission, Hidenori Takahashi1, Daiki Kocabas1, Jason G. Grenier1, Chad Verplaetse , Laurens Breyne , Joris berto Gaudino1, Pablo Torres-Ferrera1, 1 1 1 Soma1, Takehiro Tsuritani1; 1KDDI Re- Terwilliger1, Alan F. Evans1; 1Corn- Lambrecht , Xin Yin , Peter Ossieur , Haoyi Wang1, Maurizio Valvo2, An- 1 1 search, Inc., Japan. The Q-difference ing Research & Development Cor- guy Torfs ; IDLab, Ghent Univ.- nachiara Pagano2, Roberto Merci- compensation scheme among SDM/ poration, USA. A glass packaging imec, Belgium. We demonstrate real- nelli2, Valter Ferrero1; 1Politecnico WDM signals is evaluated at 192-km substrate with integrated waveguides time C-band transmission of direct di Torino, Italy; 2TIM, Telecom Italia, 4-core-path MCF transmission line. and evanescent couplers for silicon detected 28Gb/s NRZ/OOK over Italy. Next generation PON physical

The Q-difference is mitigated within photonic chiplets is introduced for 80km SSMF using a Dual-Drive MZM layer, targeting 50 Gbit/s/lambda, Thursday, 12 March 0.1 dB and the Q-factor of the worst fiber to chip interconnects with and custom-designed SiGe BiCMOS has to deal with optoelectronics quality signal is improved as 0.7 dB. high-channel counts required for co- 5-tap analog FIR filters to compensate bandwidth limitation. In this invited packaging of optics and switch ASICs chromatic dispersion without digital paper, we review the resulting required in next-generation datacenters. signal processing. bandwidths and discuss the trade-off between receivers with or without equalization

OFC 2020 • 8–12 March 2020 137 Room 1A Room 1B Room 2 Room 3 Room 6C Room 6D

Th3A.6 • 15:30 Invited Th3B.6 • 15:30 « Top-Scored Th3D.7 • 15:30 Th3F.6 • 15:30 « Top-Scored Progress in 100G Lambda MSA 5.7-dB Fiber-to-fiber Loss 8 × Efficient Classification of Polariza- Vibration Sensing for Deployed Met- Based on 100G PAM4 Technol- 8 Silicon Photonics Switch with tion Events Based on Field Mea- ropolitan Fiber Infrastructures, Il- 1 ogy, Mark Nowell1, Matt Traverso1, Port-alternated Switch-and-select surements, Kyle Guan , Jesse E. aria Di Luch1, Maddalena Ferrario1, 1 1 Marco Mazzini1, Kumar Lakshmi- Architecture, Ryotaro Konoike1, Simsarian , Fabien Boitier , Dan- Giuseppe Rizzelli Martella2, Roberto 2 1 kumar1, Mark Webster1, Peter De Keijiro Suzuki1, Hitoshi Kawashima1, iel C. Kilper , Jelena Pesic , Mi- Gaudino2, Pierpaolo Boffi1; 1Politec- 3 1 Dobbelaere1; 1Cisco Systems, Inc., Kazuhiro Ikeda1; 1National Inst. of chael Sherman ; Nokia Bell Labs, nico di Milano, Italy; 2Politecnico di 2 Canada. This talk will focus on the Advanced Industrial Science and USA; College of Optical Sciences, Torino, Italy. A counter-propagating 3 progress of the 100G Lambda MSA. Technology (AIST), Japan. We propose Univ. of Arizona, USA; Electrical coherent vibration sensing approach Topics include: motivation in forming and demonstrate a Port-Alternated and Computer Engineering, Rutgers is exploited in a 32km deployed fiber the group; market requirements for Switch-and-Select architecture that has Univ., USA. We present rare-event ring network, proving its feasibility in the technology; key technologies both low insertion loss and low path classification of polarization transients early detection of critical events that and results; and insights into next dependency. Using silicon photonics based on field measurements with may damage and put out of service generation work. platform, we realized an 8 × 8 switch data augmentation combined with the optical infrastructure. with 5.7-dB Fiber-to-Fiber insertion robot-generated fiber-disturbance loss. data. We compare machine learning methods for accuracy and required Th3B.7 • 15:45 number of training sample traces. Th3F.7 • 15:45 Low Loss Optical Switch with Pre- Sensors Based on Dual Supermode cisely Rotationally-aligned Multi- Interferometers, Joel Villatoro1,3, Jose core Fiber Array, Osamu Shimaka- Enrique Antonio-Lopez2, Axel Schülz- 1 1 wa , Ryouichi Kobayashi , Hidehisa gen2, Rodrigo Amezcua Correa2; 1Univ. 1 1 Tazawa ; Sumitomo Electric Indus- of the Basque Country UPV/EHU, tries, Ltd., Japan. We propose a 1×4 Spain; 2CREOL, The College of Optics optical switch with coupled-core & Photonics, Univ. of Central Florida, multi-core fiber (MCF) array. An image USA; 3IKERBASQUE—Basque Foun- processing allows MCF to be precisely dation for Science, Spain. Compact rotationally-aligned. It enables the IL interferometers composed by less than 0.6 dB with the uniformity two slightly different segments of of 0.04 dB. asymmetric multicore fiber fusion spliced and rotated 180deg with respect to each other are proposed for sensing applications. Examples and advantages of such interferometers are discussed.

16:00–16:30 Coffee Break, Upper Level Corridors

16:30–18:30 Postdeadline Papers, Room 6C, 6D, 6E, 6F Thursday, 12 March Thursday,

138 OFC 2020 • 8–12 March 2020 Room 6E Room 6F Room 7 Room 8 Room 9 ShowShow Floor ProgrammingProgramming Continued Th3G • Panel: Pluggable Th3H • SDM Th3I • Optical and Th3J • Direct Th3K • Future and Coherent Optics Transmission—Continued Thermal Connectivity— Detection Systems and Emerging Access The World’s First for Short-haul/Edge Continued Subsystems—Continued Network Technologies— Intercontinental Applications and Continued Connections… Beyond—Continued Contrasting Early Terrestrial-subsea Networks with the Present Telecom Infra Project (TIP) 15:05–16:00, Theater II

 Market Watch Panel VII: IP+WDM Architecture Evolution 14:30–16:00, Theater I

Fibre Types and Th3I.6 • 15:45 Th3K.6 • 15:45 High-durability Coating for Im- Bus-type Optical Access Using DRA Amplifiers: Choices and proved Thermal Management of and Asymmetric Power Splitters for Trade-offs Pluggable Optical Modules, Reid Accommodating Rural Users, Ryo Fiberstory Chesterfield1, Pradyumna Goli1, Sar- Igarashi1, Masamichi Fujiwara1, Takuya rah Querelle-Halverson1, Elizabeth Kanai1, Kazutaka Hara1, Atsuko Kawaki- 15:00–16:00, Theater III Sullivan1, Zachary Hoyt1, Kevin Olson1, ta1, Hiro Suzuki1, Jun-ichi Kani1, Jun Matthew Bren1, Attila Aranyosi2, S Terada1; 1NTT Corporation, Japan. We Doan2, V Le2; 1Henkel Corporation, propose a long-reach bus-type optical USA; 2Juniper Networks, USA. We access system by using distributed introduce a new high-durability Raman amplification and asymmetric thermal interface coating designed to power splitters. The feasibility is improve pluggable optical module to experimentally verified by using heat sink thermal transfer. Performance 10G-EPON and its scale is estimated data and test methods for thermal by bit error rate measurements. resistance, durability, and long-term reliability are presented. Thursday, 12 March

16:00–16:30 Coffee Break, Upper Level Corridors

16:30–18:30 Postdeadline Papers, Room 6C, 6D, 6E, 6F

OFC 2020 • 8–12 March 2020 139 Key to Authors and Presiders

A Alvarado Zacarias, Juan Carlos - Atsumi, Yuki - W1A.3, W2A.6 Barzegar, Sima - Th1F.2 Blaicher, Matthias - M4H.6 Abdelli, Khouloud - Th2A.3 M2C.6, T3A.3, T4J.2, Th1H.6, Aubin, Guy - W2A.41 Basavanhally, Nagesh - M3D.6 Blawat, Kamil - W1J.2 Abe, Hiroshi - M4H.1 Th3H.4, W4A.5 Auer, Sebastian - M3Z.6 Bathula, Balagangadhar G. - W3C.3 Bliznetsov, Vladimir - Th2A.8, W2A.9, Abe, Jun’ichi - W4A.6 Alvarado, Alex - M4J, T3D.5, W3D.3, Augustin, Luc - M3Z.3 Batshon, Hussam - M1G W4C.3 Abel, Stefan - M2I.4, T3B.3, W1H.4 W3D.4 Autebert, Claire - M4A.5 Battou, Abdella - M3E.3 Blow, Eric - M2K.4, W3A.7 Aboketaf, Abdelsalam - T3H.3 Alyshev, Sergey - W1C.4 Autenrieth, Achim - M2D.4, M3K, Baudelle, Karen - M2C.1 Bluemm, Christian - M1G.1, M3E.2, Key to Authors Absil, Philippe - M2A.5, W4G.7 Amezcua Correa, Rodrigo - M2C, M3Z.6, Th2A.32 Baumgartner, Yannick - M3D.3, T3B.3 M4K.5, W3D.2 Abu-Romoh, Mahmood - W2A.44 M2C.6, T3A.3, T4J.2, Th1H.6, Avesani, Marco - T3D.7 Bauwelinck, Johan - M2F.6, Th2A.11, Blumenthal, Daniel J. - M3A.6, M3H, Achleitner, Martin - M2K.5 Th3F.7, Th3H.4, W4A.5 Awaji, Yoshinari - M3Z.4, M4D.3, W4G.7 T4G.6 Achouche, Mohand - M2B.1 Amezcua-Correa, Adrian - M2C.6, T3D.5, T4J.4, Th1H.3, Th2A.27, Bayvel, Polina - Th2A.48, Th3H.5, Bo, Tianwai - M3J.1, M3J.3, W2A.32 Adamiecki, Andrew - M3D.6 Th1H.6 Th3H.1, Th3H.5 W3E.2 Boaron, Alberto - M4A.5 Afanasiev, Fedor - W1C.4 Amiralizadeh Asl, Siamak - T3H.6 Ayala, Javier - T3H.3, Th3I.4 Beausoleil, Raymond - M2A.2, M3A.3, Bober, Kai Lennert - M3I.1, M3I.2 Agnesi, Costantino - T3D.7 An, Shaohua - M3J.4, T3I.7 Aymeric, Raphael - M4A.1 Th1E.2, W4G.8 Böcherer, Georg - M1G.1 Agoston, Maria - W4F.3 Anandarajah, Prince M. - W2A.10 Azaña, José - M3H.5, M4I.3 Behnia, Babak - M3A.2 Bøe, Rolf - W2A.20 Agrawal, Anuj - W2A.23 Andersen, Uffe - W1J.1 Azendorf, Florian - M2C.5 Behrendt, Raphael - W2A.4 Boertjes, David - Th3A Agraz, Fernando - T3K.2 Andersen, Ulrik L. - W1K.1 Azhar Khan, Rana - M1K.3 Beling, Andreas - W4G.1, W4G.6 Boes, Andreas - T4G.5 Agrell, Erik - M3J.7, Th1I.5, W2A.55, Andrekson, Peter - M4J.2 Azzimonti, Dario - M4E.1 Benjamin, Joshua L. - T3K.1, W1F.3 Boffi, Pierpaolo - M4D.5, Th3F.6 W3D.4 Andreou, Stefanos - Th3F.4 Bente, Erwin - Th3F.4 Bogaert, Laurens - M2F.6 Aguiar, Douglas - W3G.2 Andresen, Esben R. - M2C.1 B Benzaoui, Nihel D. - T3K.4, Th2A.24, Bogoni, Antonella - Th2A.41 Ahmad, Arsalan - M1K.3 Anet Neto, Luiz - M2H.1, T4A.4 Baba, Toshihiko - M4H.1 W1F.6 Bogris, Adonis - M2K.1, T4C.2 Aihara, Takuma - M2B.5, W4G.2 Ankur, Agrawal - T3H.6 Bacco, Davide - W4C.6 Beppu, Shohei - Th3H.2 Boitier, Fabien - M3Z.19, Th3D.7 Aikawa, Kazuhiko - T4J.1, Th1H.4 Antona, Jean-christophe - T4I.3, Bae, Cheolyong - Th2A.38 Berciano, Mathias - W4G.7 Boley, Charles - W1C.1 Akasaka, Youichi - M1I W1K.2 Baek, Yongsoon - M1F.3, M2A.7, Berger, Daniel - Th3I.4 Bolle, Cristian - W4C.5 Akiyama, Yuichi - M2B.8 Antonelli, Cristian - M3B, T4J.4 M3Z.3 Bergman, Keren - M1H.3, T4D.2, Bolshtyansky, Maxim - M3G.2, M3G.4, Akulova, Yuliya - T3H.1, T3H.6 Antonio-Lopez, Jose Enrique - M2C.6, Baeuerle, Benedikt - M1D.3, M1G.2, Th2A.7, Th3B.2 M3G.5, T4I.5 Aladin, Sandra - W2A.24 Th1H.6, Th3F.7, W1B.1 W1D.1 Berkay On, Mehmet - W3A.2 Bonetti, Juan I. - Th3H.4 Alam, Samiul - T3I.1 Aono, Yoshiaki - Th3A.5, W3G.1 Baeyens, Yves - M2B.2 Betoule, Christophe - W3C.3 Bonk, Rene - Th1B.5 Alameh, Kamal - M2H.5 Aozasa, Shinichi - M4C.3, W4B.6 Bai, Rui - M1F.6 Bhatia, Vimal - W2A.23 Booth, Brad - W3G.5 Albert, Jacques - Th3F.1 Appleton, Randal S. - T3H.1 Bai, Yuanshuo - Th1K.2 Bhattacharya, Shirshendu - T4F.2 Bordais, Sylvain - M4C.2 Alexoudi, Theoni - M4H.3, W3G.2 Arai, Kouki - Th2A.34 Bai, Yusheng - M3J.8 Bi, Meihua - T3I.5 Börjeson, Erik - M4J.3, Th2A.38 Alfadhli, Yahya - M2F.2 Aranyosi, Attila - Th3I.6 Bakopoulos, Paraskevas - T3K.5 Bian, Yusheng - T3H.3, Th3I.4 Borkowski, Robert - M4F.3, Th1B.5 Alfadhli, Yahya M. - M2H.6, T4A.3, Arao, Hajime - W2A.3 Balakrishnan, Sadhishkumar - M2A.5 Bianco, Andrea - M4E.1, Th3D.2 Borraccini, Giacomo - M2G.4 Th2A.46 Arasawa, Masatoshi - M3D.4, T3C.2 Balasubramanian, Karthikeyan - Bienfang, Joshua - M2E.2 Borromeo, Justine Chris - M3Z.10 Alhammadi, Esmaeel - M4K.2 Aratake, Atsushi - W1A.2, W2A.14 W3C.2 Bienstman, Peter - Th2A.26 Borsier, Céline - M4E.3 Al-hemyari, Kadhair - T3H.6 Aref, Vahid - M4F.2, M4K.2, Th2A.48, Ballani, Hitesh - W2A.4 Bigo, Sebastien - Th2A.24, Th3K.2 Bose, Debapam - M3A.6 Alishahi, Fatemeh - M1G.3, M1I.2, Th3E.2 Balzer, Jan - T3C.4 Bigot-Astruc, Marianne - Th1H.6 Bose, Sanjay K. - Th2A.31 W4A.4 Ariga, Maiko - M2A.6 Ban, Yoojin - M4H.3, W3G.2 Billah, Muhammad R. - M4H.6 Boso, Gianluca - M4A.5 Alkhazragi, Omar - M3I.5, T3C.3 Arnould, Aymeric - M3G.1, W1K.3 Banawan, Mai - W1B.2 Bilodeau, Simon - M2K.4, W3A.7 Bottenfield, Christian - M2I.2 Alléaume, Romain - M4A.1 Aroca, Ricardo - W3G.3 Banerjee, Animesh - T3H.6 Bimberg, Dieter - W4D.2 Bottrill, Kyle - W1G.4, W3E.3 Allogba, Stéphanie - W2A.24 Asaka, Kota - M1K.2, M1K.4 Bao, Yun - T3H.5 Binczewski, Artur - W1J.2 Boukenter, Aziz - W1C.3 Almaiman, Ahmed - M1G.3, M1I.2, Asakura, Hideaki - M2B.3 Barbosa, Fabio A. - M4J.4 Binshtock, Zachi - T3K.3 Boutaba, Raouf - Th2A.30 Th1K.6, W1G.2, W1G.3, W4A.4 Ashizawa, Ken - Th3C.2 Barguil Giraldo, Samier - W3C.1 Bioglio, Valerio - Th1G.6 Bouwmans, Géraud - M2C.1 Alouini, Mohamed-Slim - W1G Askari, Leila - W2A.27 Barnini, Alexandre - W1C.3 Birk, Martin - M3K.1, W3C.3 Bowers, John E. - M3A.6, M3H.6, Al-Qadi, Mustafa A. - M1H.2 Atkinson, Gary - M3Z.6 Barot, Dipenkumar - M1C.7 Bitachon, Bertold Ian - M1G.2 T4H.3, Th1A.4, Th1E.2, W3F.1 Altabas, Jose A. - M1F.4 Atlas, Dogan - T3H.2 Barry, Liam - W2A.41 Bjørnstad, Steinar - W2A.20 Bowles, Adam - T3H.6 Atra, Kebede Tesema - M2B.1 Barwicz, Tymon - Th3I.4 Blache, Fabrice - M2B.1 Boxleitner, Winfried - M4A.4

140 OFC 2020 • 8–12 March 2020 Boyd, Robert W. - W1G.2, W1G.3 Calabro, Stefano - M1G.1, M3E.2, Chen, Boheng - W4G.1 Chen, Zhao - Th2A.15 Cletheroe, Daniel - W2A.4 Bradford, McKay B. - W2A.34 M4J.5, M4K.5, Th2A.37, W3D.2 Chen, Chien-Ju - M3I.7 Cheng, Chih-Hsien - M3I.3 Cohen, Nadav - W1G.2, W1G.3 Bradley, Thomas - W3E.3 Calderaro, Luca - T3D.7 Chen, Chun-Jui - Th2A.51 Cheng, Qixiang - M1H.3, Th2A.7, Cohen, Shai - Th3J.3 Key to Authors Bragagnini, Andrea - M3Z.10 Caloz, Misael - M4A.5 Chen, Guan-Hong - M2F.1 Th3B.2 Coleman, Doug - W2A.13 Braid, Ryan - W3A.3 Calsat, Alain - T4I.3, Th2A.55 Chen, H. S. - W4G.5 Cheng, Wei-Chih - W1C.6 Combs, Gregg - Th2A.9 Brandt-Pearce, Maite - Th3D Campanella, Andrea - M3Z.17, W3C.1 Chen, Hao - Th1C.2 Cheng, Wood-Hi - W1C.6 Condo, Carlo - Th1G.6 Bravo Ospina, Ruby S. - W2A.47 Campbell, Joe C. - M2A.2, Th3J.2 Chen, Haoshuo - M3A.4, M4A.2, Chesterfield, Reid - Th3I.6 Cong, Guangwei - Th3B.4, W3A.6 Brehler, Marius - M3B.1 Campos, Luis Alberto - T4G.4, W1E.1, T3A.3, T4J.2, Th1H.3, Th1H.6, Cheung, Karen - M1C.5 Contestabile, Giampiero - W1A Bren, Matthew - Th3I.6 W1E.5, W2A.48 Th1K.3, Th3H.4, W4A.5, W4C.5 Cheung, Stanley - M3F.6, Th1E.2 Cook, Matthew - W1C.1 Brès, Camille-Sophie - M1C.1, M3H.2 Cao, Lin - W2A.53 Chen, Hui - Th3I.4 Chevalier, Dylan - T4A.4 Cooper, Liam - Th2A.21 Bresnehan, Michael - T3H.6 Cao, Wei - M2B.4 Chen, Humphry - W3A.2 Chi, Nan - M1J, M3I.4, M3I.5, Th1K.7, Corbett, Brian - T3C.7 Breuer, Steffen - T3C.4 Cao, Zizheng - M1J.1 Chen, Jeannie - M4H.5 W1D.2, W1G.5 Corbett, Patrick - T4I.5 Breyne, Laurens - M2F.6, Th2A.11, Capela, Pedro - W1J.1 Chen, Jiajia - T3J.5 Chiang, Patrick Y. - M1F.6 Corcoran, Bill P. - T4G.5 Th3J.5 Cappuzzo, Mark - M3D.6, W4C.5 Chen, Jian - T3H.1, T3H.6, Th1K.3, Chien, Hung-chang - Th2A.47 Cortés, Luis R. - M3H.5 Briles, Travis C. - T4G.6 Carbó Meseguer, Alexis C. - T4I.3, Th3K.4 Childers, Darrell - Th2A.9 Corteselli, Steve - Th1G.7 Brindel, Patrick - M3G.1 Th2A.55 Chen, Jianping - M2K.2 Chiles, Jeffrey - M2K.6 Cortez, Bruce - T4F Brodnik, Grant M. - M3A.6, T4G.6 Carena, Andrea - T4B.2, T4B.3, Chen, Jyehong - Th2A.51 Chin, Hou Man - W1K.1 Corzine, Scott - M3A.2 Browning, Colm - W2A.41 W1K.1 Chen, Kai-Chia - M3I.7 Chiu, Justin - Th2A.43 Costa, Nelson - M2G.5 Brunelli, Simone S. - T4H.2 Carey, Glen - M4H.5 Chen, Li - M1C.3, W3G.3 Chiu, Yi-jen - Th2A.15 Costa, Paolo - W2A.4 Brunner, Daniel - M2K.3 Carlomusto, Luigi - W2A.20 Chen, Lian-Kuan - M1J.4 Cho, Hyung Joon - M2J.5 Coyle, David - M3Z.11 Brusberg, Lars - Th3I.5 Carpenter, Joel - W4C.5 Chen, Liao - M1D.2 Cho, Jae K. - Th3I.4 Cressler, John - M2I.2 Buchali, Fred - M4F.3, M4K.2, Th3E.2, Carr, Jim - W3A.3 Chen, Long - M1C.3 Cho, Junho - M3G.3, Th1G.7, Th3C.1, Crist, Robert - W1C.1 W1D Carvalho Figueiredo, Rafael - T4I.2, Chen, Mingchen - M1F.2 W1K.2 Croes, Kristof - M2A.5 Buckley, Sonia - M2K.6 T4I.4 Chen, Qin - T3K.6 Choi, Jiwon - Th2A.20 Cruz Júnior, José Hélio - T4I.2 Bueno, Julián - T4C.1 Casellas, Ramon - M3K.2, M3Z.19, Chen, Quanan - T3C.6 Choi, Woo-Young - T3H.7 Cugini, Filippo - M1A.1, M3Z.13, Buffa, Marta - M3Z.19 M4D.5, T3J.2, T3J.4, W3C Chen, Rui - Th3B.2 Chorchos, Lukasz - M2A.3, T3I.6, T3J.1, W3C.4 Buggaveeti, Sanketh - M3A.2 Cassioli, Dajana - M4D.3 Chen, Sai - M3Z.12 W1D.3 Cui, Lu - M1A.7 Bülow, Henning - M4F.3, M4K.2 Castoldi, Piero - M3Z.10 Chen, Shang-Chun - Th2A.23 Chou, Emin - W4G.5 Cui, Nan - Th1I.3 Bunandar, Darius - W3A.3 Castro, Carlos - M4I.2, W2A.40 Chen, Shouqing - M3I.4 Choudhary, Amol - M3H.1 Cui, Yan - M3J.8 Burla, Maurizio - Th1C Castro, Jose - Th2A.5, Th3K.1 Chen, Ting-Hui - Th2A.23 Chow, Chi-Wai - M2F.1 Curri, Vittorio - M2G.4, M3Z.17, Burrows, Ellsworth C. - Th3H.4, W1K.2 Cauchon, Jonathan - W2A.7 Chen, Tingjun - T3J.3, Th2A.25 Chowdhury, Shihabur Rahman - T4B.3, Th1F.2, W3C.2 Burtsev, Sergey - M4K.6 Cerulo, Giancarlo - M2B.1, Th1B.5 Chen, Wang - M3D.2 Th2A.30 Czornomaz, Lukas - M3D.3, T3B.3 Busselle, Lincoln - T3H.6 Chagnon, Mathieu - M4F.3, M4K.2, Chen, Wei-Lun - Th1B.7 Chraplyvy, Andrew - W1K.2 Bussières, Félix - M4A.5 Th2A.48, Th3E.2 Chen, Xi - M1B.2, M1G.4, M3G.3, Christodoulides, Demetrios N. - T3A.4 D Bütler, Rick M. - W3D.3 Chan, Chun-Kit - M1J.5 M3J, Th3C.1, Th3H.4 Christodoulopoulos, Konstantinos Da Ros, Francesco - T4B.2, Th1H.4, Butrie, Tim - M3A.2 Chanclou, Philippe - M2H.1, T4A.4, Chen, Xiangfei - Th2A.15, Th3F.2 (Kostas) - Th2A.24, Th3D.4 W1K.1 Byrd, Matthew - T3H.2 W4E.5 Chen, Xiao-Dong - W4C.1 Chrostowski, Lukas - M1C.5, M2I.1, Dabos, George - W3A.5 Chang, Gee-Kung - M2F.2, M2F.3, Chen, Xiaoliang - M1B.3, Th3D.1 M3F.5 Dagenais, Mario - W1A.5 C M2F.5, M2H.4, M2H.6, T4A.3, Chen, Xin - W1B, W2A.13, W4D.2, Chu, Daping - M3F.2 Dahal, Avsar - T3H.6 Cadier, Benoit - W1C.3 T4D.1, T4E.1, Th1K, Th2A.43, W4D.4 Chu, Sai T. - T4G.5 Dai, Daoxin - Th1A.4 Cai, Hong - W2A.53 Th2A.45, Th2A.46, W2A.46 Chen, Xuefeng - M1F.6 Chuang, Chun-Yen - T4D.2, Th2A.51 Dai, Liang Yuan - M1H.3 Cai, Jin-Xing - M3G.2, T4I.5 Chang, Hsiang-Szu - W4G.5 Chen, Xueping - M3D.2 Chun-Nien, Liu - W1C.6 Dai, Zheng - Th1C.3, Th2A.22, Cai, Meng - W1K.4 Chang, Junho - M3H.5 Chen, Yon-Wei - M2F.2, Th2A.43 Chvojka, Petr - M3I.2 W2A.11 Cai, Pengfei - M3D.2 Chang, Po-Chih - Th2A.23 Chen, You-Wei - M2F.3, M2F.5, Cincotti, Gabriella - T4G.2 Dalton, Larry R. - M1D.3, Th3C.3, Cai, Xinlun - M2B.7 Chao, Rui-Lin - W4G.5 M2H.4, M2H.6, T4A.3, T4D.1, Civelli, Stella - Th1G.4, W4A.7 W1D.1 Cai, Yi - T3I, Th2A.47 Chatterjee, Sumit - M2D.3 Th2A.45, Th2A.46 Civerchia, Federico - M3Z.10 D’Amico, Andrea - T4B.3 Caimi, Daniele - M2I.4, T3B.3 Che, Di - Th3C.1, W2A.43 Chen, Yufeng - T4B.1, W4B.1 Cizmar, Tomas - M2C.4 Das, Sandip - M2H.3 Calabretta, Nicola - M3Z.15, M3Z.3, Chen, Baile - Th2A.1 Chen, Yuheng - Th3A.5 Clarke, Ian - M3F.1 Das, Saurav - M1K.1 Th3B.1, W1F.1, W1F.5, W2A.12, Chen, Bin - W3D.4 Chen, Zhangyuan - Th1H.2, W4B.5 Clements, W.R.L - W2A.20 Davidson, Carl - M3G.2, M3G.4, T4I.5 W2A.22, W2A.26 Dawson, Jay - W1C.1

OFC 2020 • 8–12 March 2020 141 Day, Pat - Th3E.3 Dong, Yuhan - M3I.7 Eschenbaum, Carsten - Th3C.3 Fiebig, Christian - W4D.2 Fu, Xin - W2A.4 De Dobbelaere, Peter - Th3A.6 Dong, Ze - M4F.1, Th3K.3 Essiambre, Rene-Jean - T4I, Th3H.4 Filer, Mark M. - M2G, W2A.33, W3C.2 Fu, Yan - T3I.5 De Heyn, Peter - M4H.3, W3G.2 Doran, Nick - W4B.3, W4B.4 Estarán Tolosa, José - T3K.4 Finkelstein, Jeffrey - M2H.6, T4D.1 Fu, Yuan Hsing - Th2A.8, W2A.9, de la Cruz, Juan Luis - T3J.4 Dorta, Carlos - W3A.3 Evans, Alan F. - Th3I.5 Fiorentino, Marco - M3A.3, Th1E.2, W4C.3 de Lind van Wijngaarden, Adriaan - Doussiere, Pierre - T3H.6 Evans, Peter - M3A.2 W4G.8 Fu, Zhilei - Th2A.12 Th1B.6 Downie, John D. - W2A.50 Exarchakos, George - W2A.22 Firstov, Sergei - W1C.4 Fu, Ziling - Th2A.26 de Moura, Uiara C. - T4B.2, T4B.3, Doylend, Jonathan K. - T3H.1 Firstova, Elena - W1C.4 Fuerst, Avi - T3H.6 W1K.1 Drachenberg, Derrek R. - W1C.1 F Fischer, Johannes - M2D.4, M2G.5, Fujii, Takuro - M2B.5, W1D.4, W1H.2, Declercq, Jakob - M2F.6 Du, Jiangbing - T4B.1, Th2A.1, Fabrega, Josep M. - M2C.5, M3K.2, M3B.2, W3E W3G.4, W4G.2 M4D.5

Key to Authors Defrees, Reece A. - T3H.1 W1D.2, W2A.15, W2A.31, W3D.5, Fisker, Anders - Th1I.6 Fujikata, Junichi - M2B.6, Th2A.16, Delezoide, Camille - M3Z.19 W4B.1, W4C.4 Faig, Hananel - Th3J.3 Fludger, Chris R. - Th3E.1 Th3C.4 Delmade, Amol - W2A.41 Du, Xinwei - Th3F.2 Falahpour, Ahmad - W4A.4 Fok, Mable P. - M2I.3, M3H.4, Fujisawa, Takeshi - M3F.4, Th1A.5, Dembeck, Lars - Th2A.24 Duan, Lingze - M1C.7 Fallahpour, Ahmad - M1G.3, M1I.2 Th2A.21 Th2A.6 Demeester, Piet - M2F.6 Duan, Yanhui - M3D.2 Fan, Qirui - M1G.5, M2J.2 Foletto, Giulio - T3D.7 Fujiwara, Masamichi - Th3K.6, W1E.4 Deng, Rui - M1J.4 Dubost, Suwimol - Th2A.55 Fan, Shengli - W1B.1 Fompeyrine, Jean - M2I.4, T3B.3, Fujiwara, Naoki - M1F.2 Deng, Wentao - M1D.2 Dumont, Mario - T4H.3 Fan, Weijun - W2A.53 W1H.4 Fukui, Taichiro - M2C.2 Denis-le Coarer, Florian - Th2A.26 Dupont, Sébastien - T4I.3 Fan, Xin Yu - M2C.6, W2A.19 Fong, King - M3A.2 Fuller, Earl - Th3J.2 Dennison, Larry - M4F.6 Dupuis, Nicolas - Th1A Fan, Yangyang - W2A.52 Fontaine, Nicolas K. - M3A.4, M3D.6, Füllner, Christoph - M4I.6, Th3C.3 DeRose, Christopher - T3H.2 Duque, Alex - Th1B.6 Fan, Yunyun - Th3D.6 M4A.2, T3A.1, T3A.3, T4J.2, Fumagalli, Andrea - W3C.3 D’Errico, Antonio - M3Z.13 Duzevik, Ivan - T3H.2 Fan, Zhiqiang - Th1C.3, Th2A.22, Th1H.3, Th1H.6, Th1K.3, Th3H.4, Funada, Tomoyuki - M1F.5 DeSalvo, Richard - Th1K.5 Dvoyrin, Vladislav - W1C.5 W2A.11 W1K.2, W4A.5, W4C.5 Furdek, Marija - M4E.4 Descos, Antoine - Th1E.2 Farah, Bob - T4D.2 Forchhammer, Søren - Th1I.6 Furukawa, Hideaki - T3D.5, T4J.4, Devenport, Kent - Th2A.9 E Fargas Cabanillas, Josep - Th1A.2 Forestieri, Enrico - W4A.7 Th1H.3, Th1H.4, Th2A.27, Th3H.1, Di Giovanni, Carlo - M3A.2 Earnshaw, Mark - M3D.6, W4C.5 Faruque, Imad - W4C.6 Forsythe, Martin - W3A.3 Th3H.5, W3A Di Luch, Ilaria - Th3F.6 Ebihara, Koji - Th3C.2 Fasano, Benjamin - Th3I.4 Fortin, Catherine - M2B.1 Futami, Fumio - M4A, M4A.3 di Marino, Riccardo - Th3D.2 Edirisinghe, Sampath - M2H.5 Fathololoumi, Saeed - T3H.1 Forysiak, Wladek - W3E.4, W4B.2, Diallo, Thierno - M3Z.1 Efroymson, Robert - Th3J.2 Faulkner, Grahame - W1G.4 W4B.3 G Diamantopoulos, Nikolaos Eira, António - M2G.5, Th1F Fedoryshyn, Yuriy - W1D.1 Fotiadis, Konstantinos - M4H.3, Gäde, Sebastian - M4E.3 Panteleimon - W1D.4 Eiselt, Michael - M2C.5 Fehenberger, Tobias - Th1I.2 W3G.2 Galdino, Lidia - Th3H.5, W3E.2 Dias, Imali - W2A.28 Ekner, Peter D. - T4G.3 Feng, Feng - W1G.4 Fougstedt, Christoffer - Th2A.38 Galili, Michael - M1I.4, M3B.3, M4K.4, Díaz Montiel, Alan A. - M3Z.9 El Ankouri, Anas - M2H.1, T4A.4 Feng, Guoli - M3Z.14 Foursa, Dmitri G. - M3G.2, M3G.4, T4G.3, Th1H.4 Dietrich, Philipp-Immanuel - M4H.6 Elbers, Jörg-Peter - M2D.4, Th1I.2, Feng, Hanlin - W1C.2 M3G.5, T4I.5 Galimberti, Gabriele - M3Z.17, W3C.2 Dijk, Paul W. - T4A.5 Th2A.32, W1J.2 Feng, Jiaxin - Th3A.4 Francia, Geraldine - Th3A.1 Gallardo, Omar - M1F.4 Ding, Pin-Xyuan - W2A.38 Elder, Delwin L. - M1D.3, Th3C.3, Feng, Kai-Ming - M2F.4 Francis, Rafael - T4E.2 Galtarossa, Andrea - T4J.2 Ding, Qian - M3D.3 W1D.1 Feng, Yuxiang - Th1K.2 Franke, Dieter - T3C.4 Gan, Lin - W2A.18 Ding, Sicong - M2G.2 Ellis, Andrew - Th2A.52, W2A.44 Fernández-Palacios, Juan P. - M4D.5 Frascolla, Massimo - M4K.2 Gantz, Liron - Th3J.3 Ding, Yunhong - W4C.6 Ellis, Bryan - M3A.2 Ferrari, Alessio - M2G.4, M3Z.17, Freiberger, Michael - M1K Ganzer, Felix - M2A.1 Dischler, Roman - M4K.2 Elmhurst, Jonathan - W3A.3 Th1F.2, W3C.2 Fresi, Francesco - M1D.5 Gao, Hang - W2A.51 Doan, S - Th3I.6 Elschner, Robert - M4I.2, W2A.40 Ferrari, Andrea C. - M1D.1 Freude, Wolfgang - M4H.6, M4I.6, Gao, Junyi - W4G.1 Dobbie, Brad - W3A.3 Eltes, Felix - M2I.4, T3B.3, W1H.4 Ferrari, Giorgio - W3G.2 Th3C.3 Gao, Mingyi - M4D.2 Dochhan, Annika - M2C.5, M2D.4 El-Zonkoli, Mohamed - M4K.2 Ferrario, Maddalena - Th3F.6 Freund, Ronald - M3B.2, M4I.2 Gao, Zhengguang - M1B.2, T4D.5 Doddaballapura Lakshmijayasimh, Emmerich, Robert - M2G.5 Ferreira de Lima, Thomas - M2K.4, Frick, Florian - Th2A.24 Garcia-Gomez, Francisco Javier - Prajwal - W2A.10 Enami, Yasufumi - M3A.5 W3A.7 Frish, Harel - T3H.1, T3H.6 Th3H.4 Doerr, Chris - M1C.3, W3F.2, W3G.3 Enbutsu, Koji - M1I.3 Ferreira, Filipe - M3B.4, W4B.3, Frost, Thomas - M3A.2 Gardes, Frederic - M2B.4 Dong, Bin - W2A.53 Endo, Takumi - Th3C.2 W4B.4 Frounchi, Milad - M2I.2 Gariepy, Daniel - W2A.21 Dong, Jianwen - W4C.1 Eppenberger, Marco - M1D.3, M1G.2 Ferreira, Ricardo - W2A.40 Fu, H.Y. - M3I.7 Garon, Daniel - W4F.3, W4F.4 Dong, Po - M2B.2, W2A.1 Epping, Jörn P. - Th2A.2 Ferrero, Valter - Th1B.1, Th3K.5 Fu, Mengfan - M2J.1, M2J.6, Th1G.2, Garreau, Alexandre - M2B.1 Dong, Yi - Th1K.2 Erasme, Didier - M2B.1 Fevrier, Herve - W1J.4 Th1G.5, Th3D.6, W1K.4 Garrich Alabarce, Miquel - M3Z.7 Dong, Yuan - Th2A.8, W2A.9, W4C.3 Eriksson, Tobias A. - T3D.5, Th3H.1, Fice, Martyn - Th2A.42 Fu, Songnian - M1G.4, T3K.6, Th3F.3, Garuz, Richard - T4I.3 Th3H.5 Fichera, Silvia - T3J.1, W3C.4 W2A.18 Gatti, Fabrizio - M3Z.10

142 OFC 2020 • 8–12 March 2020 Gatto, Alberto - M4D.5 Gordon, Joshua A. - M3E.3 Haibo, Li - Th1B.4 He, Zuyuan - M2C.6, T4B.1, Th2A.1, Houtsma, Vincent - T4D.2, Th1B.5, Gaudino, Roberto - Th1B.1, Th3F.6, Gormsen, Kim - Th1I.6 Haller, Istvan - W2A.4 W1D.2, W2A.15, W2A.19, Th1B.6, W1E.2 Th3K.5 Gossard, Arthur - T4H.3 Hamada, Hiroshi - M3D.4 W2A.31, W3D.5, W4B.1 Hoyt, Zachary - Th3I.6 Key to Authors Gaur, Chandra Bhanu - W4B.3, W4B.4 Gould, Michael - W3A.3 Hamada, Shigetaka - M2B.3 Heaton, Eric - T3E.3 Hsu, Ching-Hsiang - Th2A.23 Ge, Dawei - Th1H.2 Gour, Riti - Th1F.4 Hamaoka, Fukutaro - M4K.1, M4K.3, Hecht, Urs - T3I.6 Hsu, Chin-Wei - M2F.1 Ge, Line - W2A.31 Govan, Donald - W2A.50 Th1D.1, Th1D.3, Th1F.1, W3E.1 Heck, John - T3H.1 Hsu, Jin-Wei - M2F.4 Ge, Ling - W3D.5 Grammel, Gert - M3Z.17, W3C.2 Hammon, Timothy - T4I.5 Hedges, Crystal - T3H.3 Hu, Dora Juan Juan - T4B.5 Gebhard, Ulrich - Th2A.24 Gras, Gaetan - M4A.5 Hammood, Mustafa - M3F.5 Hedrick, Brittany - Th3I.4 Hu, Fangchen - M3I.4, M3I.5, Th1K.7 Gehring, Tobias - W1K.1 Grassani, Davide - M1C.1 Han, Young-Tak - M1F.3, M2A.7 Heideman, René - Th2A.2 Hu, Hao - M1I.4, T3I.5, W2A.1 Geiselmann, Michael - W4G.1 Gravey, Annie - M2H.1 Han, Yu - T4H.5 Hejda, Matěj - T4C.1 Hu, Jian - M3I.4 Geisler, David J. - Th3J.1 Grenier, Jason G. - Th3I.5 Hand, Steven - W2A.30 Hella, Mona - M3I Hu, Jianqi - M3H.2 Geler-Kremer, Jacqueline - M2I.4 Griesser, Helmut - Th1I.2, Th2A.3, Hao, Yue - W3A.1 Hellwig, Peter - M3I.2 Hu, Juejun - W3A.4 Gené, Joan M. - M3G.3 W1J.2 Haq, Bahawal - T3C.7 Hemmati, Mahdi - Th2A.30 Hu, Nanzhe - Th1K.6, W1G.2, W1G.3 Gerfers, Friedel - T3I.6 Grillanda, Stefano - M3D.6 Hara, Kazutaka - Th3K.6 Heni, Wolfgang - M1D.3, W1D.1 Hu, Qian - M4F.3, M4K.2 Geskus, Dimitri - Th2A.2 Grillot, Frederic - M4H.4 Harper, Paul - Th2A.52, W3E.4, Henke, Torben - Th2A.24 Hu, Shanting - M1C.6 Gevorgyan, Hayk - W1A.4 Grimaldi, Vittorio - W3G.2 W4B.2 Hentschel, Michael - W2A.56 Hu, Shuren - Th3I.4 Ghazisaeidi, Amirhossein - M1G.2, Grobe, Klaus - W1J.2 Harrington, Mark W. - M3A.6, T4G.6 Hepgüler, Galip - M3Z.8 Hu, Ting - Th2A.8, W2A.9, W4C.3 M3G.1, T4I.1, W1K.3 Grootjans, Robert - Th2A.2 Harris, Brendan - T3H.3 Herrick, Robert - T3H.6, W4F.1 Hu, Ting-Chen - M3D.6 Ghelfi, Paolo - Th2A.41 Gross, Simon - W1A.1 Harris, Nicholas - W3A.3 Hettrich, Horst - W1D.1 Hu, Weisheng - M2J.1, M2J.6, T3I.5, Ghiurcan, George - T3H.6 Grubb, Stephen - M2D, M2D.1, Harstead, Ed - Th1B.5 Higa, Yasutaka - M2A.6 T4D.3, Th1G.2, Th1G.5, Th3D.6, Giamougiannis, George - W1F.4 W1J.4, W1K.2 Harter, Tobias - M4I.6 Hilt, Jonas - M3I.2 W1K.4, W2A.25 Giannone, Francesco - M3Z.10 Gu, Rentao - M1A.2, M3Z.18 Hartmann, Wladislaw - M4H.6 Himmelreich, James - W2A.50, Hu, Yingtao - Th1E.2 Giewont, Ken - T3H.3, Th3I.4 Gu, Xiaodong - M1C.6 Hasegawa, Hiroshi - M1B.4, W1F.2 W4D.2 Hu, Yi-Wen - W1A.5 Gifre Renom, Lluis - M3Z.19 Guan, Kyle - Th3D.7 Hasegawa, Junichi - M2A.6 Hinakura, Yosuke - M4H.1 Hu, Yue - M3G.2, M3G.4, T4I.5 Giller, Robin - M3Z.11 Guan, Luyao - Th1F.3, W2A.29 Hasegawa, Takemi - M4C.1 Hinrichs, Malte - M3I.1 Hu, Zhouyi - M1J.5 Gillooly, Andy - M2C.3 Guan, Pengyu - T4G.3 Hashimoto, Toshikazu - T4G.1, Hiraki, Tatsurou - M2B.5, W4G.2 Hu, Zihe - Th2A.47 Giltrap, Sam - M3F.2 Guglielmi, Emanuele - W3G.2 Th1A.3, Th1A.5 Hirmanova, Klara - M3I.2 Huang, Chaoran - M2K.4, W3A.7 Giorgetti, Alessio - M3Z.1, M3Z.13, Guiomar, Fernando - Th1G.1 Hastings, DJ - Th2A.9 Hirooka, Toshihiko - T3D.2, T4J.3 Huang, Chien-Ying - Th2A.23 T3J.1, W3C.4 Gumus, Kadir - T3D.5, W3D.4 Havliš, Ondrej - M3Z.17 Hirota, Yusuke - M4D.3, Th2A.27 Huang, Guoxiu - Th1I.1 Giovane, Laura - M3D.5 Guo, Changjian - M2J.2 Hayakawa, Shigenori - M2B.3, T3C.2 Hisano, Daisuke - W3D.1 Huang, Hanzi - M3A.4, M4A.2, Girard, Sylvain - W1C.3 Guo, Mengqi - W3D.6 Hayashi, Tetsuya - T4J.4, Th1H, Ho, Chongpei - Th2A.16, W4G.3 Th1K.3, Th3H.4, W4A.5 Giusti, Alessandro - M4E.1, Th3D.2 Guo, Ningning - Th2A.31 Th3H.1, Th3I.2 Hodaei, Hossein - M3A.2 Huang, Jack Jia-Sheng - W4G.5 Gkantsidis, Christos - W2A.33 Guo, Qize - M3Z.18 Hayat, Majeed - Th3J.2 Hoessbacher, Claudia - W1D.1 Huang, Jian-Kai - M2F.4 Gläsel, Jonas - M2A.1 Guo, Weihua - T3C.6 Hayes, John - W3E.3 Höfler, Gloria - M3A.2 Huang, Ming-Fang - Th3A.5 Glick, Madeleine - M1H Guo, Xianyi - M3Z.2 Haynes, Thomas - T4E.3 Holguin Lerma, Jorge A. - T3C.3 Huang, Min-Yu - M2F.5 Gocalinska, Agnieszka - T3C.7 Guo, Xiaotao - W1F.1, W1F.5, W2A.22 Hazlinsky, Michal - M3Z.17 Hollingsworth, Summer - T3H.1 Huang, Ping-Yao - W2A.38, W2A.39 Goeger, Gernot - M4K.5 Guo, Xingxing - W3A.1 Hazzard, Shane - W4F.3, W4F.4 Honda, Eiji - W1F.2 Huang, Qi-Ping - Th2A.44 Goh, Takashi - T4G.1 Guo, Yong - W1E.3 He, Gang - W2A.21 Honda, Kazuaki - Th2A.36 Huang, Shanguo - M2G.2 Going, Robert - M3A.2 Guo, Zizheng - M1A.5 He, Jijun - M3H.2 Hong, Chingyin - M3D.2 Huang, Sheng-Lung - W1C.6 Going, Ryan - Th3E.3 Gupta, Shashank - W3A.3 He, Jin - Th1H.2, W4B.5 Hong, Yang - Th3J.4, W1G.4, W3E.3 Huang, Xingang - W1E.3 Goldenberg, Dror - T3K.3 Gupta, Sushant - T3H.6 He, Jing - M1J.4 Horino, Kazuhiko - Th3C.2 Huang, Xinyu - M1D.2 Goley, Patrick - M2I.2 Guryanov, Alexey - W1C.4 He, Mingbo - M2B.7 Hoshida, Takeshi - M2B.8, M2G.6, Huang, Xue - W3G.3 Goli, Pradyumna - Th3I.6 Gustafsson, Oscar - Th2A.38 He, Xin-Tao - W4C.1 M3Z.4, Th1I.1, W2A.52 Huang, Yetian - M3A.4, M4A.2, Gomez, Carmen - M2B.1 Gutterman, Craig - T3J.3, T4B.4, He, Yongqi - Th1H.2, W4B.5 Hoshino, Isako - T3H.6 Th1K.3 Gonzalez de dios, Oscar - W3C.1 Th2A.25 He, Yu - M3A.4, W2A.8 Hoshino, Koichi - M3A.2 Huang, Yishen - Th2A.7 Gonzalez, Alfredo - W3C.1 He, Zengwen - M3D.2 Hosseini, Ehsan - T3H.2 Huang, Yong-Cheng - Th2A.44 Gonzalez-Guerrero, Luis - Th2A.42 H He, Zhiqin - W2A.15 Hou, Guanghui - M3D.2 Huang, Yu - Th2A.5, Th3K.1 Goodwill, Dominic - T3H Ha, Yinaer - M3I.5 He, Zhixue - M2J.7, Th2A.50 Houghton, Thomas - T3H.3, Th3I.4 Huang, Yue-Kai - Th1K.4, W3G Gordeinko, Vladimir - W4B.3, W4B.4 Haffner, Christian - M1D.3, W1D.1 He, Zonglong - M3J.3 Houlmann, Raphael - M4A.5 Huang, Yuting - T4B.1, W2A.15 Häger, Christian - W3D.3, W3D.4

OFC 2020 • 8–12 March 2020 143 Huang, Zhihong - M2A.2, Th1E.2, J Jud, Pascal A. - M1D.3 Kawahara, Hiroki - Th1D.1, Th1D.3, Kish, Fred - M3A.2, Th3E.3 W4G.8 Jabon, Kenneth - T3H.2 Jue, Jason P. - Th1F.4 Th2A.53 Kishi, Toshiki - W3G.4 Huang, Zhilei - M4F.4 Jackson, Kenneth - W4F Junco Suzigan, Gabriel - T4I.4 Kawakita, Atsuko - Th3K.6 Kitatani, Takeshi - T3C.2 Hubbard, Michael - M4E.2 Jacob, Ajey - T3H.3, Th3I.4 Jung, HyunDo - M3Z.3, T4A Kawakita, Yasumasa - M2A.6 Kitayama, Ken-ichi - M2F.7, M2K Hübel, Hannes - M2K.5, M4A.4, Jacques, Maxime - T3I.1 Jung, Hyun-Do - M1F.3 Kawanishi, Tetsuya - M1J.2, W2A.37, Kiyama, Lennie - M2A.4 T3D.4, W2A.56 Jacquot, Maxime - M2K.3 Jung, Yongmin - M1I.4 W4A.2 Klamkin, Jonathan - T4H.1, T4H.2, Hui, Rongqing - M1H.2 Jaeger, Nicolas - M1C.5, M3F.5 Jungnickel, Volker - M3I.1, M3I.2 Kawasaki, Takeshi - Th2A.53 Th1A.6 Huijskens, Frans - M1J.1, M1J.3 Jain, Nitin - W1K.1 Kawashima, Hitoshi - Th3B.4, Th3B.6 Klaus, Werner - Th1H.4, Th3H, Hulme, Jared - M3A.3 Jan, Catherine - T3H.1, T3H.6 K Kawashita, Kazuki - Th3C.4 Th3H.1 Kadic, Muamer - M2K.3

Key to Authors Hung, Yu-Han - M1H.3 Jan, Yu-Heng - W4G.5 Kaynak, Mehmet - M2I.2 Kleijn, Steven - M3Z.3 Hung, Yung Jr - M3F.7 Janca, Radek - M3I.2 Kaeval, Kaida - W1J.2 Kazama, Takushi - M1I.3 Kleis, Sebastian - Th2A.54, W1K.1 Hurley, Jason - W2A.13, W2A.50, Jaouen, Yves - M4A.1, M4C.2 Kahan, Elham - W1F.1 Kehayas, Efstratios - W1C Klejs, Frederik - M3B.3, M4K.4 W4D.2, W4D.4 Jasion, Gregory - W3E.3, W4D.3 Kahn, Joseph M. - Th3C.5 Kemal, Juned Nassir - Th3C.3 Klenk, Benjamin - M4F.6 Hurtado, Antonio - T4C.1 Jayatilleka, Hasitha - T3H.1 Kakitsuka, Takaaki - M2B.5, W1D.4 Kenney, Tyler - W3A.3 Knittle, Curtis - Th1B.2, W1E.1 Hyun, Sungkyu - M3Z.3 Jensen, Jesper B. - M1F.4 Kalfas, George - T4A.5 Kerampran, Romain - M4C.2 Kobayashi, Ryouichi - Th3B.7 Jensen, Richard - Th3B Kalosha, Vladimir P. - M2A.3 Khan, Faisal N. - M1G.5, M2J.2 Kobayashi, Takayuki - M1I.3, M4K.1, I Jeong, Seok H. - Th3C.4 Kamata, Mikiya - M4H.1 Khan, Ferdous - M4H.5, T3C.1, M4K.3 I, Chih-Lin - W4E.3 Jha, Aashu - W3A.7 Kaminski, Pawel M. - Th1H.4 Th3C.1 Kobayashi, Tetsuya - Th3H.1 Iannone, Luigi - Th2A.25 Jha, Devesh - Th1A.1, Th1A.6 Kan, Takashi - T3D.2 Khanna, Ginni - W2A.33 Kocabas, Ekin - Th3I.5 Igarashi, Koji - Th3H.2, W4A.1 Ji, Honglin - T4D.4, W2A.45, W4A.3 Kanai, Takuya - Th3K.6, W1E.4 Kharakhordin, Alexander - W1C.4 Koch, Ueli - W1D.1 Igarashi, Ryo - Th3K.6 Ji, Philip - W3G.1 Kanazawa, Shigeru - M1F.2, T3I.2, Khegai, Aleksandr - W1C.4 Kodama, Takahiro - M2G.1, M3F.3, Iida, Daisuke - Th1H.1, Th3F.5, Ji, Tonghui - T4D.4, W2A.45, W4A.3 W3G.4 Khilo, Anatol - W1A.4 T4G.2, Th2A.34 W2A.16 Ji, Yuefeng - M1A.2, M1A.5, M1A.7, Kanda, Atsushi - M1F.2 Khitrov, Victor - W1C.1 Kodialam, Murali - Th3H.4 Iiyama, Noriko - W1E.4 M3Z.18, M3Z.2, T4D.5, Th3A.4 Kandappan, Parthiban - Th3E.3 Khopin, Vladimir - W1C.4 Koenig, Swen - Th3E.3 Ikeda, Kazuhiro - Th3B.4, Th3B.6, Jia, Fei - Th2A.5, Th3K.1 Kaneda, Noriaki - M2B.2, T4D.2, Khurgin, Jacob B. - M3H.6 Kohno, Yusuke - M2C.2 W2A.36 Jia, Junchi - W4B.5 Th1B.6 Kiani, Leily S. - W1C.1 Koike, Yoshinori - W3C.1 Imada, Ryota - M4C.3 Jia, Shi - T3I.5 Kaneko, Shin - Th2A.36 Kieninger, Clemens - Th3C.3 Koike-Akino, Toshiaki - T3D.6, Inaba, Yusuke - M2A.6 Jia, Wu - M3Z.2 Kani, Jun-ichi - M1K.2, M1K.4, Kikuta, Masahiro - Th3H.2 Th1A.1, Th1A.6, W2A.54 Inagaki, Keizo - W2A.37, W4A.2 Jia, Zhensheng - T4G.4, Th1G, Th3K.6, W1E.4 Kildishev, Alexander - W3A.4 Kojima, Keisuke - M3E.1, T3D.6, Inoue, Takashi - M1I.1, M1I.5, Th3A.2, W1E.1, W1E.5, W2A.48 Kannan, Sukesh - W3A.3 Kilper, Daniel C. - M3E.3, M3Z.9, Th1A.1, Th1A.6, W2A.54 W2A.36, W3A.6 Jian, Deng - M2D.3 Kanno, Atsushi - M1J.2, W2A.37, T3E.4, T3J.3, T4B.4, Th2A.25, Kolpatzeck, Kevin - T3C.4 Ionescu, Maria - M3G.1 Jian, Xu - M3Z.12, Th1D.2 W4A.2 Th3D.7 Komaki, Kousuke - W2A.52 Ip, Ezra - Th1K.4, W3G.1 Jiang, Chun - T3C.6 Karagiannis, Thomas - W2A.33 Kim, Brian - M4H.5 Konatham, Saikrishna R. - M3H.5 Iqbal, Md A. - W3E.4, W4B.2, W4B.3 Jiang, Fengyi - M3I.4 Karanov, Boris P. - Th2A.48 Kim, Daeho - M3J.3, W2A.32 Kondepu, Koteswararao - M3Z.10 Irie, Hiroyuki - W2A.52 Jiang, Lin - W2A.5 Karinou, Fotini - T3K.5, W2A.4, Kim, HongJu - M3Z.3 Kong, Deming - M1I.4, T3I.5, W2A.1 Ishida, Wataru - Th3A.1 Jiang, Ning - Th2A.56 W4G.4 Kim, Hoon - M3J.1, M3J.3, W2A.32 Kong, Gary - W3A.3 Ishigaki, Genya - Th1F.4 Jiang, Zhibin - M1D.2 Karki, Dolendra - T3B.2 Kim, Hyun-Kyu - T3H.7 Kong, Jian - Th1F.4 Ishii, Hiroyuki - M2A.6 Jiang, Zhiping - M2J.3 Karlsson, Magnus - M3J.7, M4J.2, Kim, Jungsang - M1E.4 Kong, Meiwei - T3C.3 Ishii, Kiyo - M3Z.4 Jiao, Yuqing - W4C Th1I.5, W2A.55 Kim, Kwangwoong - M2B.2, W2A.1 Kong, Miao - Th2A.45, W2A.42 Ishii, Naoto - W4A.6 Jin, Warren - M3H.6 Karpov, Maxim - W2A.4 Kim, Min-Hyeong - T3H.7 Konoike, Ryotaro - Th3B.4, Th3B.6, Ishikawa, Tsubasa - M3F.3 Jin, Yeonghoon - Th2A.20 Kasahara, Ryoichi - M1I.3, Th1A.5 Kim, Minkyu - T3H.7 W2A.36 Ishikawa, Yasuhiko - Th3C.4 Jingchi, Cheng - M3Z.12 Kasai, Keisuke - T3D.2, T4J.3, Kim, Sangyeup - M4I Koonen, Ton - M1J.1, M1J.3, M1J.6, Ishikawa, Yozo - M1F.2, T3I.2 Jinno, Masahiko - M2G.1, M3F.3 Th2A.14 Kim, Seok-Tae - M1F.3, M2A.7 M1J.7, M4I.4, T3A.3 Ito, Hiroyuki - M4H.1 Jo, Youngkwan - T3H.7 Kaszubowska-Anandarajah, Kimura, Masayoshi - M2A.6 Koos, Christian - M4H.6, M4I.6, Ito, Maiko - T4H.4 Jones, Richard - T3H.1 Aleksandra - W2A.10 Kinoshita, Kotaro - W4A.1 Th3C.3 Ives, David J. - W2A.49 Jorge, Filipe - M2B.1 Katamawari, Riku - Th3C.4 Kippenberg, Tobias J. - M3H.2, Kopf, Rose - M3D.6, W4C.5 Iwasaki, Katsuhiro - W1A.3 Josten, Arne - W1D.1 Kato, Takashi - W1A.3 W2A.4 Kopp, Victor I. - M2C.3 Izumita, Hisashi - M4C.5 Jozwik, Krzysztof - W2A.4 Kato, Tomoyuki - M2G.6 Kiriyama, Tomoaki - W1A.3 Kose, Bulent - Th2A.5, Th3K.1 Juarez, Adrian A. - W4D.2, W4D.4 Katumba, Andrew - Th2A.26 Kisaka, Yoshikaki - T3I.2, T3I.3, Th1F.1 Kottke, Christoph - M3I.1 Kawabata, Yasuhiro - W4A.1

144 OFC 2020 • 8–12 March 2020 Koushyar, Farzad M. - W2A.34 Laperle, Charles - W4B.4 Leon-Saval, Sergio G. - Th3F, W1A.1 Li, Peng - W2A.35 Lin, Gong-Ru - M3I.3 Kovsh, Dmitriy - M3G.4 Lardenois, Sebastien - W4G.7 Lerouzic, Esther - M3Z.17, W3C.2 Li, Qiang - M2B.6, Th2A.16, Th2A.26, Lin, Jiachuan - W3D.6 Koyama, Fumio - M1C.6 Larger, Laurent - M2K.3 Letavic, Ted - T3H.3, Th3I.4 W4G.3 Lin, K. H. - M2F.1 Key to Authors Krause Perin, Jose - Th3C.5 Larisch, Gunter - W4D.2 Letellier, Vincent - T4I.3, Th2A.55 Li, Rui - Th2A.4 Lin, Qunying - Th2A.8, W2A.9, W4C.3 Krishnamohan, Srikanth - Th3A.1 LaRochelle, Sophie - M3H.5, T3A, Leuthold, Juerg - M1D.3, M1G.2, Li, Ruixiao - M1C.6 Lin, Shiyun - M4H.5 Krishnamoorthy, Ashok V. - M1H.4 T3A.2, W1B.2, W1C.2 W1D.1, W1H.3 Li, Shen - W2A.55 Lin, Stephen - M1C.5 Krummrich, Peter M. - M3B.1, Th1H.5 Larrabeiti, David - M4D.5 Levy, Miguel - T3B.2 Li, Shihua - M1A.4 Lin, Wenhua - T3H.6 Krzczanowicz, Lukasz - W3E.4, W4B.2 Larsson-Edefors, Per - M4J.3, Th2A.38 Li, An - M3J.8 Li, Su - M3D.2 Lin, Yi - W2A.41 Ku, Kai-Ning - Th2A.23 Lau, Alan Pak Tao - M1G.5, M2J.2 Li, Baocheng - T4B.5 Li, Tongyun - Th2A.42 Lin, Yi-Yu - Th2A.51 Kuchta, Daniel - T3K.7 Lau, Kei May - T4H.5 Li, Baojia - Th2A.29 Li, Wei-Ling - W2A.39 Lin, Yu-Yang - M2F.4 Kudoh, Tomohiro - M3Z.4 Laudenbach, Fabian - M2K.5, T3D.4 Li, Cai - Th2A.50 Li, Wenxiang - M1D.4, W4C.4 Lindgren, Anders - W1J.1 Kumagai, Tsutaru - W2A.3 Lauinger, Vincent - Th3E.2 Li, Cheng - Th1C.3 Li, Xiang - M1D.2, M2J.7, M3I.6, Ling, Yi-Chun - Th3B.3 Kumar, Lalit - Th3A.1 Laurent, Arnaud - W1C.3 Li, Chenlei - Th1A.4 M3J.5, Th1B.4, Th2A.50 Lippiatt, Daniel - M2J.4, M2J.5, Kumar, Praveen - M2D.3 Lautenschlaeger, Wolfram - Th2A.24 Li, Chuandong - M2D.3 Li, Xingfeng - M3J.4, T3I.7 Th2A.49 Kumar, Sunish O.S. - Th2A.52 Lavery, Domaniç - Th2A.48, Th3H.5 Li, David - T3H.5 Li, Xinying - Th1B, W2A.42 Lipson, Michal - W3F.3 Kumari, Sulakshna - T3C.7 Lavigne, Bruno - M4D.4, Th1D.4 Li, Dongdong - Th2A.8, W2A.9, Li, Xueyang - T3I.1 Lischke, Stefan - M2I.2, T3H.7 Kundrát, Jan - M3Z.17, W3C.2 Lavrencik, Justin - W1D.3 W4C.3 Li, Yajie - M3Z.14, Th1F.5, Th2A.28, Liss, Liran - T3K.3 Kuntz, Matthias - M3A.2 Layec, Patricia - M3Z.19 Li, Fan - W1D.6 W2A.51 Little, Brent E. - T4G.5 Kurahashi, Ryo - M4H.1 Lazovich, Tomo - W3A.3 Li, Guanpeng - M4F.4 Li, Yan - M3J.5 Littlejohns, Callum G. - M2B.4 Kuramochi, Eiichi - W1H.2 Le Gac, Dylan - M3G.1, W1K.3 Li, Guifang - M2C.6, M4J.1, Th1H.6, Li, Yanbo - Th2A.4 Liu, Aiqun - W2A.53 Kurczveil, Geza - Th1E.2 Le Liepvre, Alban - Th3E.3 W4B.7, W4C.5 Li, Yanlong - Th2A.33 Liu, Bo - M4F.1, Th1B.3, Th1D.5, Kuri, Josue - M1B Le Taillandier de Gabory, Emmanuel - Li, Guoqiang - M3I.4, Th1K.7 Li, Yanping - M4F.5, T3I.4 Th3K.3 Kurth, Patrick - T3I.6 M4C.4, W4A.6 Li, Haibo - Th2A.50 Li, Yingchun - Th1K.3, Th3K.4 Liu, Can - T3C.6, W2A.17 Kuschnerov, Maxim - M1G.1, M3E.2, Le, Son T. - M4F.2 Li, Haolin - M2F.6 Li, Yongcheng - M4D.2 Liu, Che-Yu - M1B.3, Th3D.1 M4K.5, W3D.2 Le, V - Th3I.6 Li, Hongbiao - M3Z.18 Li, Zhaohui - W1D.5 Liu, Chia-Ming - W1C.6 Kutuvantavida, Yasar - Th3C.3 Lebreton, Aurelien - M4C.2 Li, Huanlu - M4F.4 Li, Zhe - Th2A.39 Liu, Cong - Th1K.6, W1G.2, W1G.3 Kwakernaak, Martin - M4H.5, T3C.1, Lechler, Armin - Th2A.24 Li, Hui - M3Z.2 Li, Zhengxuan - M4A.2, Th3K.4 Liu, Cuiwei - W1G.5 Th3C.1 Ledentsov Jr., Nikolay - M2A.3, T3I.6, Li, Jhuo-Wei - W1C.6 Li, Zhi - T3H.1 Liu, Deming - M1G.4, Th3F.3 Kwek, Leong Chuan - W2A.53 W1D.3 Li, Jianping - W1D.5 Li, Zhuotong - M3Z.14, Th1F.5 Liu, Gengchen - Th3B.3 Kwon, Mike - T3H.6 Ledentsov, Nikolay - M2A.3, M3D.1, Li, Jianqiang - M2J.2, T3K.6 Lian, Meng - M1A.2, M3Z.18 Liu, Gonghai - T3C.6 T3I.6, W1D.3 Li, Jiaxiong - W4B.1 Liang, Chenyu - W2A.31, W3D.5 Liu, Guocheng - Th2A.13, W2A.2 L Lee, Benjamin - T3K.7 Li, Jie - M2J.7, W4F.2 Liang, Di - M2A.2, Th1E.2, W4G.8 Liu, Hong - W4E.6 Lablonde, Laurent - W1C.3 Lee, Chi-Sen - Th2A.23 Li, Jingchi - M3J.4, T3I.7 Liang, Dou - M3Z.12 Liu, Jiaren - Th2A.13, W2A.2 Lacava, Cosimo - Th3J.4 Lee, Dongho - W2A.5 Li, Jingnan - W2A.52 Liang, Tian - M2H.5 Liu, Jie - W1B.3, W2A.13 Lago, Ralph - W4F.2 Lee, Dong-Hoon - M2A.7 Li, Juhao - Th1H.2, W4B.5 Liang, Xiaojun - W2A.50 Liu, Junqiu - M3H.2, W2A.4 Lai, Keng Heng - Th2A.8, W2A.9, Lee, Hou-Jang - Th2A.8, W2A.9, Li, Jun - T3J.5 Liao, Ling - T3H.1 Liu, Junyi - W1B.3 W4C.3 W4C.3 Li, Junjia - W2A.51 Liao, Peicheng - M1G.3, M1I.2, Liu, Lida - Th2A.33 Lai, Yin-Chieh - M2F.1 Lee, Jongsik - T4A.1 Li, Kangjie - W2A.18 W4A.4 Liu, Liqiong - M1J.4 Laing, Anthony - W4C.6 Lee, Seo-Young - M1F.3, M2A.7 Li, Kangmei - W2A.13, W4D.2, W4D.4 Liao, Tao - T4D.3 Liu, Liu - M2B.7 Lakshmikumar, Kumar - Th3A.6 Lee, Young - T3J.6 Li, Ke - M2B.4, Th3J.4 Liao, X. L. - M2F.1 Liu, Mingzhe - Th2A.28 Lal, Vikrant - M3A.2 Lefrancois, Mathieu - Th1D.4 Li, Longfei - Th2A.31 Liga, Gabriele - W3D.3 Liu, Qiaoya - Th1G.2, Th1G.5 Lambrecht, Joris - M2F.6, Th2A.11, Lehanneur, Feizheun - T4A.4 Li, Lu - M2I Lillieholm, Mads - M3B.3, M4K.4, Liu, Qidi - M2I.3, M3H.4 Th3J.5, W4G.7 Lei, Chao - W2A.51 Li, Lulu - M1A.4 T4G.3 Liu, Qingquan - M3I.4 Land, Ingmar - Th1G.6 Lei, Chengmin - W1C.2 Li, Meng-Yu - W4C.1 Lim, Christina - M2H.5, M4I.1 Liu, Shenghao - M2B.4, Th3J.4 Landais, David - M4C.2 Lei, Chun - T3C.5 Li, Miaofeng - M1D.4 Lin, Bo-Jiun - W2A.38 Liu, Shenghua - M1C.3 Landais, Pascal - W2A.10 Leiba, Yigal - T4A.5 Li, Ming-Jun - M4A.5, W2A.13, Lin, Chen-Yu - Th2A.23 Liu, Shiqin - Th2A.56 Lane, Brett - Th2A.5, Th3K.1 Lelarge, F - W2A.41 W4D.2, W4D.4 Lin, Chien-Chung - Th2A.23 Liu, Shuhui - T4B.5 Lange, Sophie - W2A.4 Lembo, Leonardo - Th2A.41 Li, Nanxi - Th2A.8, W2A.9, W4C.3 Lin, Chun-Ting - Th1B.7, W2A.38, Liu, Siqi - Th1F.6 Langston, Jerrod - Th1K.5 Lent, Bodo - M2D.4 Li, Nianqiang - Th1C.2 W2A.39 Liu, Songhan - Th1K.2 Lantz, Bob - M3Z.9

OFC 2020 • 8–12 March 2020 145 Liu, Songtao - T4H.3, Th1E.2 Luo, Bin - W2A.35 Mardoyan, Haik - T3K.4 Medeiros, Maria C. R. - Th1G.1 Mishina, Ken - W3D.1 Liu, Wu - M3I.6 Luo, Jie - W1B.3, W4B.1 Maresca, Salvatore - Th2A.41 Medina, Louis - T3H.3 Mishra, Snigdharaj - W4D.2, W4D.4 Liu, Xiaomin - M2J.1, M2J.6, Th3D.6, Luo, Ming - M3I.6, M3J.5, Th1B.4, Marin, Emmanuel - W1C.3 Mefleh, Ali - M1J.3, M1J.7 Mishra, Vaibhawa - T3K.1 W1K.4 Th2A.50 Marin-Palomo, Pablo - M4H.6 Mehmood, Tayyab - Th1I.6 Missey, Mark - Th3E.3 Liu, Xin - M3I.7 Luo, Siyu - Th3K.4 Marom, Dan M. - Th2A.19 Mehrabian, Armin - W3A.4 Mistry, Ajay - M3F.5 Liu, Y. - M2F.1 Luo, Wei - T4H.5, W2A.53 Marotta, Andrea - M4D.3, T4J.4 Mehta, Priyanth - W1J.3 Mitaki, Masatoshi - T3C.2 Liu, Yaping - W4B.7 Luo, Xianshu - W2A.53 Marpaung, David - Th1C.4 Meier, Norbert - T3B.3 Mitchell, Arnan - T4G.5 Liu, Yi - Th3F.2 Luo, Yi - M3I.7 Mart, Cody - W1C.1 Mekhazni, Karim - M2B.1 Mitchell, Matthew - M2D.1 Liu, Yingjie - W4C.4 Lv, Gen - Th2A.15 Martin, Anthony - M4A.5 Mekonnen, Ketema - M1J.1, M1J.7 Mitra, Jeebak - Th2A.30

Key to Authors Liu, Yinping - M2C.6 Lynn, Brittany - W1G.2 Martínez, Ricardo - M3K.2, M4D.5, Mekonnen, Ketemaw Addis - M1J.3, Miyamoto, Yutaka - M1I.3, M4K.1, Liu, Yong - M1I.4, W2A.1 Lyu, Mingyang - T4A.2 T3J.2, T3J.4, Th3D.4 M1J.6 M4K.3, T4G.1, Th3H.3 Liu, Yuyang - M3J.5 Martins, Silvestre - W1J.1 Melgar, Alirio - W4F.3, W4F.4 Miyata, Masashi - Th1A.5 Liu, Zhen - M1A.5, M1A.7 M Maruta, Akihiro - T4G.2, W3D.1 Melikyan, Argishti - M2B, M2B.2 Mizumoto, Tetsuya - T3B.1 Liu, Zheng - W1E.3 Ma, Bowen - M2K.2 Maruyama, Kazuomi - M2A.6 Mélin, Gilles - M4C.2, W1C.3 Mizuno, Kazuyo - M1F.2, T3I.2 Liu, Zhixin - T3C.1 Ma, Lin - M2C.6 Maruyama, Ryo - Th1H.4 Melin, Stefan - W1J.1 Mizuno, Takayuki - Th3H.3 Liu, Zhiyang - M2I.3 Ma, Minglei - M3F.5 Mas Machuca, Carmen - Th2A.32 Melkumov, Mikhail - W1C.4 Moayedi Pour Fard, Monireh - Llewellyn, Daniel - W4C.6 Ma, Philip - M2K.4, W3A.7 Mashanovich, Goran - M2B.4 Mello, Darli A. - M4J.4, T4I.2, W2A.47 W2A.34 Llorente, Roberto - M4I.4 Ma, Ping - M1D.3 Mashinsky, Valery - W1C.5 Melloni, Andrea - W3G.2 Moehrle, Martin - M4H.6, T3C.4 Lo, Hoi-Kwong - M1E.2 Ma, Xiang - T3C.6 Mathai, Sagi - M2A.4 Melville, Ian - Th3I.4 Mohammadi Kouhini, sepideh - M3I.1 Loh, Wei Loong - Th2A.8, W2A.9, Ma, Yiran - M3F.1 Matsubara, Noritaka - M2A.6 Meng, Fanfan - Th3J.4 Mohs, Georg - W1J, W4E.2 W4C.3 Ma, Zhuang - W1E.3 Matsui, Junichiro - W4A.6 Meng, Jiawei - W3A.4 Molisch, Andreas F. - W1G.2, W1G.3 Lonardi, Matteo - Th3D.5 Madani, Abbas - M3Z.8 Matsui, Takashi - Th1A.5, Th2A.6, Meng, Lingheng - M2J.7 Möller, Michael - W1D.1 Loncar, Marko - Th1C.1 Maeda, Hideki - Th1D.1, Th1D.3, W1D.4, W4B.6 Meng, Yinxia - Th1K.2 Mondal, Sourav - M1A.6, W2A.28 Lopere, Guillaume - T4A.4 Th2A.53 Matsui, Yasuhiro - M4H.5, T3C, T3C.1, Mercinelli, Roberto - Th3K.5 Moniz, Daniela A. - M2G.3, M4D.1, Lopez, Victor - M2G.3, T3J.4, W3C.1 Maeda, Jun - M4H.1 Th3C.1 Merget, Florian - M4H.2 M4D.6 López, Victor - M3Z.6, Th3A.1 Maeda, Koichi - Th2A.17 Matsumine, Toshiki - T3D.6 Merkle, Thomas - M4I.2, W2A.40 Montazeri, Mohammad - T3H.1 Lord, Andrew - M3Z.7 Maeda, Yoshiho - W4G.2 Matsumoto, Keiichi - M4C.4 Mertz, Pierre - M2D.1 Monteiro, Paulo P. - Th1G.1 Lorences-Riesgo, Abel - Th1G.1 Maegami, Yuriko - W3A.6 Matsumoto, Masayuki - M1I.6 Mesaritakis, Charis - M2K.1, T4C.2 Monteville, Achille - M4C.2 Losio, Giacomo - W2A.50 Magalhães, Eduardo - M3Z.15, Matsumoto, Ryosuke - W2A.36 Messaddeq, Younès - T3A.2, W1C.2 Monti, Paolo - T3J Loussouarn, Yann - M2D.2 W2A.12, W2A.26 Matsuo, Shinji - M2B.5, W1D.4, Messerly, Michael - W1C.1 Montiel, Alan D. - T4B.4 Low, Yee - M3D.6 Magill, Peter - T3H.5 W1H.2, W3G.4, W4G.2 Messner, Andreas - M1D.3 Morais, Rui M. - M1B.1, Th3D.3 Lu, Chao - M1G.5, M2J.2, W1D.2, Mahadevan, Amitkumar - T4D.2, Matsushita, Asuka - Th1F.1 Michaelsen, Soren - W2A.20 Moralis-Pegios, Miltiadis - M4H.3, W1D.5 Th1B.6 Matsuura, Hiroyuki - W2A.36 Migure Jr., Gerald Q. - Th2A.33 W1F.4, W3G.2 Lu, Guo-Wei - Th2A.39 Mahajan, Ankush - Th3D.4 Matsuzaki, Hideaki - M1F.2 Mikhailov, Vitaly - M2A.6 Morana, Adriana - W1C.3 Lu, Hai-Han - Th2A.44 Mahalingam, Hari - T3H.1, T3H.6 Matte-Breton, Charles - T3A.2 Miliou, Amalia - T4A.5 Morandotti, Roberto - T4G.5 Lu, Hongbo - Th3B.3, W3A.2 Maher, Robert - M3A.2, Th3E.3 Mauthe, Svenja - M3D.3 Millar, David S. - T3D.6, W2A.54 Morant, Maria - M4I.4 Lu, Jianing - M1G.5, M2J.2 Mai, Christian - M2I.2, T3H.7 Mayoral López-de-Lerma, Arturo - Miller, David A. B. - Th1E.1 Morea, Annalisa - M3Z.19 Lu, Jun - Th2A.15 Maier, Guido - W2A.27 M3Z.6, T3J.4 Millman, Ronald - T3H.2 Moreira Zorello, Ligia M. - W2A.27 LU, Linyue - M2J.2, W1D.5 Maier, Pascal - M4H.6 Mazur, Mikael - M4J.2, Th1I.5 Milovancev, Dinka - M2K.5, M4A.4, Moreno Muro, Francisco Javier - Lu, Qiaoyin - T3C.6 Makovejs, Sergejs - W2A.50 Mazurczyk, Matt - M3G.2, T4I.5 T3D.4, T3K.5, W2A.56, W4G.4 M3Z.7 Lu, Rui - T3K.6 Malacarne, Antonio - Th2A.41 Mazzini, Marco - Th3A.6 Min, Byoung - W2A.5 Moreolo, Michela S. - M2C.5 Lu, Yuchun - M4F.4 Malinge, Yann - T3H.6 McCargar, Sean P. - T3H.1 Minakhmetov, Artur - T3J.3, Th2A.25 Mori, Yojiro - M1B.4, W1F.2, W2A.36 Lu, Zhenguo - Th2A.13, W2A.2 Mallecot, Franck - M2B.1, Th1B.5 McCaughan, Adam - M2K.6 Ming, Hao - M4F.5 Morioka, Toshio - M4K.4, Th1H.4 Luan, Enxiao - M1C.5 Manabe, Ken - Th3I.2 McCurdy, Alan - Th3I Minoofar, Amir - M1G.3, M1I.2, Morishima, Tetsu - Th3I.2 Lubguban, Jorge - Th3I.4 Manabe, Tetsuya - Th1H.1 McKenzie, Scott - W3A.3 W4A.4 Morita, Itsuro - T3J.2, Th3H.2 Luis, Ruben S. - T3D.5, T4J.4, Th1H.3, Maniotis, Pavlos - T3K.7 McLean, Kate - T3H.3 Minqi, Wang - T4A.4 Moriwaki, Osamu - Th3B.5 Th1H.4, Th3H.1, Th3H.5 Mao, Youxin - Th2A.13, W2A.2 McStay, Kevin - T3H.3 Mirin, Richard - M2K.6 Morro, Roberto - M3Z.15 Lukashchuk, Anton - W2A.4 Mao, Yuan - M3I.5 Meagher, Colleen - T3H.3, Th3I.4 Mirkhanzadeh, Behzad - W3C.3 Morthier, Geert - T4H Lun, Huazhi - M2J.1, M2J.6, Th3D.6, Maravanchery Mana, Sreelal - M3I.1, Mecozzi, Antonio - T4J.4 Miscuglio, Mario - W3A.4 Morton, Christopher - M3H.6 W1K.4 M3I.2

146 OFC 2020 • 8–12 March 2020 Morton, Paul A. - M3A.6, M3H.6 Nakano, Yoshiaki - M2C.2, T4H.4 Noguchi, Masataka - M2B.6, Th2A.16, Ooi, Boon S. - M3I.5, T3C.3 Paskov, Milen - T4I.5 Moselund, Kirsten - M3D.3 Nakao, Akihiro - M1A.3 Th3C.4 Osenbach, John - M3A.2 Passalis, Nikolaos - W3A.5 Moss, Benjamin - T3H.2 Nakashima, Hisao - M4K, Th1I.1, Nojic, Jovana - M4H.2 Oshida, Hiroyuki - Th3F.5, W2A.16 Patel, David - T3H.6 Key to Authors Moss, David J. - T4G.5 W2A.52 Nolan, Daniel - M4A.5 Ososkov, Yan - W1C.4 Patri, Sai Kireet - Th2A.32 Moughames, Johnny - M2K.3 Nakazawa, Masataka - T3D.2, T4J.3, Norman, Justin - T4H.3 Ossieur, Peter - M2F.6, Th2A.11, Patterson, William - M3G.2, T4I.5 Mourgias-Alexandris, George - W3A.5 Th2A.14 Nosaka, Hideyuki - M4K.1, M4K.3, Th3J.5 Pavinski, Don - M3A.2 Mousa-Pasandi, Mohammad E. - Nam, Sae Woo - M2K.6 W3G.4 O’Sullivan, Maurice - M1H.2, M4E.2, Pavon Marino, Pablo - M3Z.7 M4E.2 Namiki, Shu - M1I.1, M1I.5, M3Z.4, Notomi, Masaya - W1H.2 W4B.4 Pax, Paul - W1C.1 Mrówka, Konrad - M3Z.6 Th3B.4, W2A.36, W3A.6 Nowell, Mark - Th3A.6 Otero, Gabriel - M4D.5 Pedro, João - M2G.3, M2G.5, M4D.1, Mrówka, Rafal - M3Z.6 Naoe, Kazuhiko - M2B.3, M3D.4 Nozaki, Kengo - W1H.2 Oton Nieto, Claudio Jose - M3Z.13 M4D.6, Th3D.3 Mu, Jianwei - T3H.5 Napoli, Antonio - M2G.4, Th1F.2, Nozoe, Saki - M4C.5 Ouerdane, Youcef - W1C.3 Pelle, Istvan - M1A.1 Muhammad, Imran - M1D.5 W1K Numkam Fokoua, Eric - W4D, W4D.3 Oved, Tzahi - T3K.3 Pellerin, John - T3H.3, Th3I.4 Mukai, Hiroshi - Th3H.2 Napolitano, Antonia - M3Z.10 Nummy, Karen - T3H.3, Th3I.4 Oxenløwe, Leif - M1I.4, M3B.3, Pelucchi, Emanuele - T3C.7 Mukherjee, Biswanath - M4D.2, Narayan, Raghuram - T3H.6 M4K.4, T4G.3, Th1H.4, W2A.1, Pelusi, Mark D. - M1I.1, M1I.5 M4D.3, Th2A.27 Naseem, None - W4G.5 O W4C.6 Peng, Bo - T3H.3, Th3I.4 Mulvad, Hans - W3E.3 Nasu, Hideyuki - M3A O’Brien, Dominic - W1G.4 Ozeki, Masaki - T4J.1 Peng, Hsuan-tung - M2K.4, W3A.7 Muñoz, Raul - M3K.2, M4D.5, T3J.2, Nasu, Yusuke - M1F O’Connor, James - M2D.1 Peng, P. C. - Th2A.43 T3J.4, Th3D.4 Navickaite, Gabriele - W4G.1 Oda, Shoichiro - Th1I.1 P Peng, Peng-Chun - T4A.3 Muqaddas, Abubakar Siddique - Nedeljkovic, Milos - M2B.4 Offrein, Bert J - M2I.4, T3B.3 Pacher, Christoph - T3D.4 Peng, Wei-Ren - M3J.8 M3Z.1 Neidlinger, Stephan - M3Z.6 OGITA, Shoichi - M1F.5 Pachnicke, Stephan - M1G.1, Th2A.3, Peng, Yi - M1F.6 Murata, Hiroshi - Th2A.40 Neilson, David - M3D.6, W4A.5, O’Hanlon, Michael - M3Z.11 Th2A.37, W3D.2 Penty, Richard - T3D.3, Th2A.42 Musumeci, Francesco - W2A.27 W4C.5 Ohno, Morifumi - W3A.6 Paesani, Stefano - W4C.6 Pepe, Alberto - M3I.7 Mutschall, Sven - M2A.1 Nejabati, Reza - M1B.2, M3Z.1, T3K Ohno, Shingo - Th1H.1 Pagano, Annachiara - Th3K.5 Pereira, Bruno - Th3D.3 Nesset, Derek - W1E Ohno, Shuhei - M2B.6 Pagès, Albert - T3K.2 Perrenoud, Matthieu - M4A.5 N Netherton, Andrew M. - M3A.6 Okamoto, Kaoru - T3C.2 Pajares Martin, Guillermo - W3C.1 Pesic, Jelena - Th3D.5, Th3D.7 Nada, Masahiro - M1F.2 Neto, Pedro F. - T4I.4 Okamoto, Satoru - Th3C.2 Palmieri, Luca - T4J.2 Petermann, Klaus - M3B.1 Nadal, Laia - M2C.5, M3K.2, M4D.5 Neugroschl, Dan - M2C.3 Okamoto, Seiji - Th1F.1 Pan, Bitao - M3Z.15, W1F.1, W1F.5, Petropoulos, Periklis - Th3J.4, W1G.4, Nag, Avishek - M3K.4 Neumeyr, Christian - M4D.5 Okamoto, Tatsuya - W2A.16 W2A.22, W2A.26 W3E.3 Nagase, Ryo - Th3I.1 Ng, Tien Khee - M3I.5, T3C.3 Okano, Makoto - W3A.6 Pan, Biwei - M4F.4 Pfau, Timo - W3D Nagase, Ryoji - Th3A.1 Ng’oma, Anthony - M2F Okawa, Kosuke - T4H.4 Pan, Deng - M2D.3 Pfeiffer, Thomas - T3E.2 Nagashima, Takuji - Th3H.1 Nguyen Tan, Hung - M4F.2 Okayama, Hideaki - Th3C.4 Pan, Dong - M3D.2, W4G Pfister, Henry D. - W3D.3 Nagatani, Munehiko - M4K.1, M4K.3, Nguyen, An - Th3E.3, W2A.30 Okimoto, Takuya - Th3C.2 Pan, Shilong - Th1C.2 Pham Van, Quan - M3Z.6 W3G.4 Nguyen, Hong - W2A.3 Okonkwo, Chigo M. - T3A.3, T4B, Pan, Wei - M1C.2, W2A.35 Pham, Ngoc Quan - M1J.3, M1J.7 Nakahara, Kouji - T3C.2, Th3C Nguyen, Hong-Minh - Th2A.51 Th1H.6, W2A.47 Pan, Xiaolong - Th1D.5 Pham, Ngoc-Quan - M1J.1 Nakai, Yoshihiro - M2B.3 Nguyen, Kimchau - T3H.1, T3H.6 Okuyama, Shunsuke - M2A.6 Pang, Hongxin - M3J.4 Phillips, Ian - W3E.4, W4B.2 Nakajima, Fumito - M1F.2 Nguyen, Thien-An - W2A.34 Oldenbeuving, Ruud M. - T4A.5, Pang, Kai - Th1K.6, W1G.2, W1G.3 Pilipetskii, Alexei N. - M3G.2, M3G.4, Nakajima, Kazuhide - M4C.3, M4C.5, Nguyen, Tu T. - Th2A.52, W2A.44 Th2A.2 Pantouvaki, Marianna - M2A.5, W4G.7 M3G.5, T4I.5, W4E.2 Th1A.5, Th2A.6, Th3H.3, W1D.4, Ni, C. -J. - W4G.5 Oliveria, Beatriz M. - Th1G.1 Paolucci, Francesco - M1A.1, T3J.1 Pimpinella, Rick - Th2A.5, Th3K.1 W4B.6 Nickel, Alexander - M4H.5 Olson, Kevin - Th3I.6 Papp, Scott B. - M3A.6, T4G.6 Pincemin, Erwan - M2D.2 Nakajima, Ryosuke - M2B.3 Nirmalathas, Ampalavanapilla T. - Olson, Magnus - W2A.30 Paraschis, Loukas - M3Z.5 Pinna, Sergio - T4H.1, T4H.2 Nakama, Akihiro - Th3I.3 M2H.5 Olsson, Samuel - W1K.2 Park, Eui Young - M4E.2 Pires, João - M4D.1, M4D.6 Nakamura, Fumi - W1F.5 Nishi, Hidetaka - W1A.2, W1D.4, Oltman, John K. - M2D.5 Park, Jongchul - M2C.3 Pitris, Stelios - M4H.3, W3G.2 Nakamura, Kodai - Th2A.6 W3G.4 Omar, Muhammad Shameer - T4A.3 Park, Jung - T3H.6 Pittalà, Fabio - M1G.1, M4K.5, W3D.2 Nakamura, Masanori - M4K.1, M4K.3, Nishida, Tetsuya - T3C.2 Omoda, Emiko - W1A.3, W2A.6 Park, Sang-Ho - M1F.3, M2A.7, M3Z.3 Plant, David - T3I.1 T3I.3, T4G.1, Th1F.1 Nishimoto, Keita - M1K.2, M1K.4 Onawa, Yosuke - Th3C.4 Parkin, Neil - Th2A.35 Plantady, Philippe - T4I.3, Th2A.55 Nakamura, Takahiro - Th3C.4 Nishio, Nozomu - M4I.5 Ono, Hideki - Th3C.4 Parmigiani, Francesca - W2A.33, W4B Pleros, Nikos - M4H.3, T4A.5, W1F.4, Nakanishi, Tetsuya - T4J.4, Th3H.1, Nishita, Masayoshi - M2A.6 Ono, Hirotaka - Th3H.3 Parolari, Paola - M4D.5 W3A.5, W3G.2 Th3I.2, W2A.3 Nishizawa, Hideki - W3C.5 Onori, Daniel - M4I.3 Parsons, Kieran - T3D.6, Th1A.1, Pointurier, Yvan - T3K.4, Th2A.24, Nakanishi, Yasuhiko - M1F.2 Noguchi, Hidemi - M4C.4, W4A.6 Onural, Deniz - W1A.4 Th1A.6, W2A.54 Th3D.5, W1F

OFC 2020 • 8–12 March 2020 147 Poletti, Francesco - W3E.3, W4D.3 Rahn, Jeffrey - M2D.1 Rodrigues, Francisco M. - W2A.40 Saito, Yohei - W1A.2 Schall, Daniel - M3Z.8 Pollick, Andrea - T3B.2 Raja, Arslan S. - M3H.2, W2A.4 Rodriguez, Laura - M3K.2 Saitoh, Kunimasa - M3F.4, Th1A.5, Schares, Laurent - T3K.7 Pommereau, Frederic - M2B.1 Rakowski, Michal - T3H.3, Th3I.4 Roelkens, Gunther - T3C.7, Th2A.11 Th2A.6 Schatz, Richard - T3C.1, Th3C.1 Poole, Philip - Th2A.13, W2A.2 Ralph, Stephen E. - M2I.2, M2J.4, Roeloffzen, Chris G. - T4A.5, Th2A.2 Sakaguchi, Jun - Th3H.1 Schell, Martin - M2A.1, T3C.4 Popoff, Youri - T3B.3 M2J.5, Th1K.5, Th2A.49, W1D.3, Romagnoli, Marco - M1D.5 Sakakibara, Youichi - W1A.3, W2A.6 Schenk, Andreas - M3D.3 Popović, Miloš A. - Th1A.2, W1A.4 W4F.3, W4F.4 Rong, Haisheng - M1F.1 Sakamoto, Hironori - T3C.2 Schenkel, Nick - W1C.1 Porte, Javier - M2K.3 Ramdane, Abderrahim - W2A.41 Rontani, Damien - Th2A.26 Sakamoto, Taiji - M4C.3, M4C.5, T4J, Schiano, Marco - Th3A.3 Porto da Silva, Edson - M4K.4 Ramey, Carl - W3A.3 Rosa Brusin, Ann Margareth - T4B.2, Th1A.5, Th2A.6, W4B.6 Schmalen, Laurent - Th2A.48 Porto, Stefano - M3A.2 Ramon, Hannes - M2F.6 T4B.3, W1K.1 Sakamoto, Takeshi - M2G.6, W2A.14 Schmauss, Bernhard - M2C.5

Key to Authors Potì, Luca - M1D.5 Ranaweera, Chathurika - M2H.5 Rosenberg, Paul - M2A.4, Th2A.9 Sakib, Meer N. - T3H.1 Schmidt-Langhorst, Carsten - M3B.2 Poulton, Christopher - T3H.2 Randel, Sebastian - M4H.6, M4I.6, Ross-Adams, Andrew - W1A.1 Sakuma, Yasushi - M3D.4, T3C.2 Schmitt, Matthew - Th1D.6 Prakash, Shashi - W2A.23 Th3C.3 Rossi, Nicola - Th3D.5 Salehiomran, Ali - M2J.3 Schmuck, Harald - Th1B.5 Prayoonyong, Chawaphon - T4G.5 Rao, Sunil - M2I.2 Rossi, Sandro M. - M4J.4, T4I.2 Salemi, Milad - Th3A.5 Schoellner, Dirk - Th2A.9 Prifti, Kristif - M3Z.3, W1F.5, W2A.12 Rashidinejad, Amir - W2A.30 Rottenberg, François - W2A.37 Sales Llopis, Marti - M3J.6 Schoofs, Dominik - M4H.2 Proietti, Roberto - M1B.3, Th3B.3, Rauch, Stewart - W2A.5 Rottondi, Cristina - M4E.1, Th3D.2 Samhan, Adel - M4K.2 Schow, Clint - W1H.1 Th3D.1, W3A.2 Ravi, Chithira - W3A.3 Rottwitt, Karsten - W4C.6 Sampietro, Marco - W3G.2 Schrenk, Bernhard - M2K.5, M4A.4, Prokopeva, Ludmila J. - W3A.4 Raybon, Gregory - M3D.6, W1K.2 Ruan, Lihua - M1A.6, W2A.28 Samra, Parmijit - Th3E.3 T3D.4, T3K.5, W2A.56, W4G.4 Provost, Jean-Guy - M2B.1, Th1B.5 Raymer, Michael G. - M1E.1 Ruan, Xiaoke - M4F.5, T3I.4, Th3J.4 Samuel, Aretor - M1A.4 Schröder, Jochen - M4J.2, Th1I.5 Prucnal, Paul R. - M2K.4, T4C.3, Razo, Miguel - W3C.3 Ruan, Ziliang - M2B.7 Sanapi, Kris - W2A.20 Schubert, Colja - M2G.5, M3B.2, W3A.7 Rechtman, Lior - Th2A.19 Ruano Rincón, Santiago - M2H.1 Sanchez Jacome, David Ricardo - M4I.2, W2A.40 Prudden, Harry - M3F.2 Reed, Graham T. - M2B.4, Th3J.4 Rückmann, Max - Th2A.54 Th2A.41 Schuh, Karsten - M4F.2, M4F.3, Pu, Minglong - Th1K.2 Rehbein, Wolfgang - T3C.4 Ruffini, Marco - M1K.3, M2H, M2H.3, Sande, Warren - M2D.1 M4K.2, Th3E.2 Pu, Minhao - M1I.4 Reimer, Michael A. - M4E.2 M3Z.11, M3Z.9, T4B.4 Sanders, Steve - M3A.2, Th3E.3 Schülzgen, Axel - Th3F.7, W1B.1 Pulka, Florian - M4K.2 Ren, Shengjun - T3D.3 Ruggeri, Eugenio - T4A.5 Sang, Fengqiao - T4H.2, Th1A.6 Sciamanna, Marc - Th2A.26 Puttnam, Ben J. - T3D.5, T4G, T4J.4, Ren, Zhengqi - M1I.4, M2B.4 Ruiz, Marc - M3Z.19, Th1F.2 Sanghi, Deepak - M2D.3 Scott, Michael - W3A.3 Th1H.3, Th1H.4, Th3H.1, Th3H.5 Ren, Zhenxing - W3A.1 Runge, Patrick - M2A.1 Sanjeev, Gupta - T3H.6 Scotti, Filippo - Th2A.41 Renais, Olivier - W3C.3 Runkel, Michael - W1C.1 Sano, Kimikazu - M1F.2 Scriminich, Alessia - T3D.7 Q Renaud, Cyril - Th2A.42 Rusca, Davide - M4A.5 Sano, Tomomi - Th3I.2 Searcy, Steven - M4K.6, W2A.21 Qi, Fan - M3D.2 Renaudier, Jeremie - M3G.1, W1K.3 Rusch, Leslie - M3H.5, T4A.2, W1B.2, Sant, Saurabh - M3D.3 Secondini, Marco - Th1G.4, W4A.7 Qi, Minghao - Th1A.1 Ribbe, Asa - M4E.3 W3D.6 Santagiustina, Marco - T4J.2 Seddighian, Pegah - T3H.6 Qiao, Yaojun - W2A.46, W3D.6 Riccardi, Emilio - M3Z.15, M3Z.7, Russell, Philip S. - W4D.1 Santos, Rui - M3Z.3 Seeds, Alwyn J. - Th2A.42 Qiu, Hao-Yang - W4C.1 Th3A.3 Ryan, Brendan - M3Z.11 Sarantoglou, George - M2K.1, T4C.2 Sefel, Richard - M2A.6 Qiu, Kun - Th2A.56 Richardson, David - M1I.4, W3E.3 Rydlichowski, Piotr - W1J.2 Sarwar, Muhammad S. - M2G.6 Seibert, Christopher S. - T3H.1 Qiu, Meng - M4E.2 Richardson, Lee J. - M3G.4 Ryf, Roland - M3A.4, M4A.2, T3A.3, Sasai, Takeo - Th1D.1, Th1D.3, Th1F.1 Seki, Takeshi - Th1D.1, Th1D.3, Qiu, Qi - W2A.11 Richter, Thomas - M2J.4, Th2A.49 T4J.2, Th1H.3, Th1H.6, Th1K.3, Sasaki, Masahide - T3D.5 Th2A.53 Qu, Yongyao - M1A.2, M3Z.18 Riesen, Nicolas - W1A.1 Th3H.4, W1K.2, W4A.5, W4C.5 Sasaki, Yusuke - T4J.1 Sekine, Naoki - M2B.6 Qu, Yuanzhe - Th3K.4 Riggs, Dave - T3H.3, Th3I.4 Sato, Ken-ichi - M1B.4, W1F.2, Semrau, Daniel - W3E.2 Quagliotti, Marco - M3Z.7 Rigneault, Hervé - M2C.1 S W2A.36 Serafino, Giovanni - Th2A.41 Querelle-Halverson, Sarrah - Th3I.6 Rios, Christian D. - M3Z.9 Sackey, Isaac - M3B.2 Sato, Masaki - W4A.6 Serey, Xavier - T3H.6 Riumkin, Konstantin - W1C.4 Sadasivarao, Abhinava - M3Z.5 Sato, Norio - W1A.2, W2A.14, W3G.4 Seskar, Ivan - T3J.3 R Rivera Hartling, Elizabeth - W1J.4 Sadeghi, Rasoul - M2G.4 Sato, Shingo - W3D.1 Sethumadhavan, Chandrasekhar - Rademacher, Georg - M3B.1, T3D.5, Rizzelli Martella, Giuseppe - Th3F.6 Sadot, Dan - Th3J.3, W4A Savory, Seb J. - M3J.6, Th1I.4, M3G.3, Th3C.1, W1K.2 T4J.4, Th1H.3, Th1H.4, Th3H.1, Rizzo, Anthony - Th2A.7 Safar, Hugo - M3D.6, W4C.5 W2A.49 Seve, Emmanuel - Th3D.5 Th3H.5 Roberts, Kim - W4E.1, W4B.4 Sagae, Yuto - M4C.5 Sawada, Yusuke - M3F.4 Sexton, Rory - M3Z.11 Rafel, Albert - M3Z.7, Th2A.35 Robertson, Brian - M3F.2 Saha, Gareeyasee - M2I.2 Scano, Davide - W3C.4 Seyedi, Ashkan - M3A.3 Rafique, Danish - Th2A.3, Th2A.32, Robertson, Joshua - T4C.1 Sahin, Asli - T3H.3, Th3I.4 Schaedler, Maximilian - M1G.1, Sgambelluri, Andrea - M3Z.1, M3Z.13, W1J.2 Robin, Thierry - M4C.2, W1C.3 Saito, Kohei - Th1D.1, Th1D.3, M3E.2, M4K.5, W3D.2 T3J.1, W3C.4 Rahman, sabidur - M3Z.14, Th1F.5 Rockstuhl, Carsten - Th2A.41 Th2A.53 Schaeffer, Christian - Th2A.54, W1K.1 Shahriar, Nashid - Th2A.30 Rahman, Talha - M4J.5, Th2A.37 Rodes, Roberto - Th3C.1 Saito, Masatoshi - W3C.1 Schairer, Wolfgang - W1J.1 Shainline, Jeffrey - M2K.6

148 OFC 2020 • 8–12 March 2020 Shams, Haymen - Th2A.42 Shinya, Akihiko - W1H.2 Song, Yingxiong - M3A.4, Th1K.3, Sudo, Tsurugi - M4H.5, T3C.1, Th3C.1 Takahata, Taketoshi - Th3H.1 Shao, Guan-Ming - Th2A.43 Shiomoto, Kohei - M3Z.4 Th3K.4 Suga, Kazuki - T3C.2 Takamure, Tetsuyoshi - M2B.3 Shao, Junyi - W2A.25 Shiraiwa, Masaki - Th2A.27 Song, Ziwei - W3A.1 Suganuma, Takahiro - T4H.4 Takano, Junya - M3F.4 Key to Authors Shao, Yan - M3Z.2 Shiraki, Ryuta - M1B.4 Sonkoly, Balazs - M1A.1 Sugimoto, Yoshiyuki - M1F.5 Takanohashi, Masashi - M1C.6 Shariati, Behnam - M2D.4 Shiratori, Ryo - M4H.1 Sooudi, Ehsan - M3A.2 Sugizaki, Ryuichi - Th2A.17 Takeda, Koji - M2B.5, W1D.4, W1H.2, Sharif Azadeh, Saeed - M4H.2 Shiu, Run-Kai - M2F.5, Th2A.43 Sorger, Volker - W3A.4 Sui, Chunchun - T3H.5 W4G.2 Shastri, Anujit - Th3C.5 Shiue, Ren-Jye - T3H.2 Sorianello, Vito - M1D.5 Sula, Erixhen - W1K.2 Takefusa, Atsuko - M3Z.4 Shastri, Bhavin J. - M2K.4, W3A.7 Shoji, Yuya - T3B.1 Sorin, Wayne - M2A.2, M2A.4, Th1E.2 Sullivan, Elizabeth - Th3I.6 Takefushi, Naoya - T4J.3 Shaw, Matthew - M2E.3 Shu, Chester - M3J.2 Sousa, Marilyne - M3D.3 Sun, Chuanbowen - T4D.4, W2A.45, Takenaga, Katsuhiro - T4J.1 Shchukin, Vitaly A. - M2A.3 Shum, Perry Ping - T4B.5 Sowinski, Zoey - T3H.3, Th3I.4 W4A.3 Takenaka, Mitsuru - M1D, M2B.6, Shen, Gangxiang - M4D.2, Th2A.31 Shum-tim, Bernard - W2A.20 Spadaro, Salvatore - T3K.2, Th3D.4 Sun, Jinglei - M3Z.2 Th2A.16, W4G.3 Shen, Lei - Th1H.2, W1B.3, W4B.1 Silberhorn, Christine - M2E.1 Spenner, Christian M. - Th1H.5 Sun, Keye - W4G.1, W4G.6 Takeoka, Masahiro - T3D.5 Shen, Li - W2A.18 Sillard, Pierre - M2C.6, Th1H.6, W1B.4 Sperti, Donato - W1J.1 Sun, Lin - Th2A.1, W1D.2 Takeshita, Hitoshi - M4C.4 Shen, Shuyi - M2F.2, M2F.3, M2H.4, Silva Valdecasa, Guillermo - M1F.4 Spiropulu, Maria - T4F.1 Sun, Lu - W2A.8 Takesue, Hiroki - W3F.5 M2H.6, T4A.3, T4D.1, Th2A.45, Simeonidou, Dimitra - M1B.2, M1G.4, Squartecchia, Michele - M1F.4 Sun, Peng - M3A.3, Th1E.2 Takeuchi, Tatsuya - Th3C.2 Th2A.46 M3Z.1, Th2A.33 Srinivasan, Kartik - W4G.1 Sun, Shihao - M2B.7 Takiguchi, Koichi - M4I.5 Shen, Weihong - Th2A.1, W2A.15 Simões, Fábio D. - T4I.4 Srinivasan, Srinivasan Ashwyn - Sun, Wanju - T3H.5 Tamanuki, Takemasa - M4H.1 Shen, Yichen - Th1E.4 Simon, Gaël - M2H.1, T4A.4 M2A.5, W4G.7 Sun, Weiqiang - W2A.25 Tan, Hongxiu - W2A.18 Shen, Yuan - W2A.53 Simsarian, Jesse E. - Th3D.7 Srinivasan, Sudharsanan - Th1E.2 Sun, Xiaobin - T3C.3 Tan, Kan - W4F.3 Shere, William - W4D.3 Singer, Jon - M2C.3 Stabile, Ripalta - M3Z.3, Th3B.1, Sun, Zhao - M3Z.12 Tan, Mengxi - T4G.5 Sherman, Michael - T3J.3, Th3D.7 Singh, Jasvinder - M3Z.11 W2A.12 Sun, Zhenxing - Th2A.15 Tan, Michael - M3D Shi, Bei - T4H.1, T4H.2 Singh, Navab - Th2A.8, W2A.9, Stanco, Andrea - T3D.7 Sutili, Tiago - T4I.2, T4I.4 Tan, Michael R. - M2A.4, M3F.6 Shi, Bin - M3D.2, Th3B.1, W2A.12 W4C.3 Stark, Pascal - M2I.4, T3B.3 Suzuki, Hiro - Th3K.6, W1E.4 Tan, Zhi-Wei - T4B.5 Shi, Chumin - W1B.3 Singh, Ravinder - W1G.4 Stenger, Vincent - T3B.2 Suzuki, Keijiro - Th3B.4, Th3B.6, Tanaka, Keiji - M1F.5 Shi, Hanxing - M2A Sinkin, Oleg V. - M3G, M3G.2, Stephens, Marc - M2D.1 W2A.36 Tanaka, Naruto - M1F.5 Shi, Jin - M1J.4 M3G.5, T4I.5 Stern, Brian - M2B.2 Suzuki, Kenya - M3F, Th3B.5 Tanaka, Shigehisa - M3D.4, T3C.2 Shi, Jin-Wei - Th2A.51, W4G.5 Sivankutty, Siddharth - M2C.1 Stern, Liron - M3A.6 Suzuki, Takahiro - M1K.4 Tanaka, Shinsuke - M2B.8 Shi, Junting - W1G.5 Skontranis, Menelaos - M2K.1, T4C.2 Stewart, Luke - M3F.1 Suzuki, Toshihito - M2A.6 Tanaka, Yu - M2B.8 Shi, Kai - W2A.4 Slovak, Juraj - W1J.1 Stojanovic, Nebojsa - M4J.5, Th2A.37 Svaluto Moreolo, Michela - M3K.2, Tancevski, Lubo - M3Z.6 Shi, Wei - T4A.2, W2A.7, W3D.6 Slyne, Frank - M3Z.11 Stojanovic, Vladimir - M1H.1 M4D.5 Tanemura, Takuo - M2C.2, T4H.4 Shi, Yuechun - Th2A.15 Smit, Meint - W3F.4 Stone, Jeff - W2A.13, W4D.4 Sweeney, John - W3A.3 Tang, Bao - T3C.6 Shia, Tim Kuei - Th2A.23 Snowdon, Oliver - M3F.2 Stone, Jordan R. - T4G.6 Szczerban, Mijail - T3K.4 Tang, Jian - M4F.4 Shibahara, Kohki - Th3H.3 Sobhanan, Aneesh - M1I.5 Stracca, Stefano - M3Z.13 Szostkiewicz, Lukasz - M2C.5 Tang, Ming - M1G.4, Th3F.3, W2A.18 Shibata, Naotaka - Th2A.36 Sobu, Yohei - M2B.8 Streater, Richelle H. - T4G.6 Tang, Rui - M2C.2 Shieh, William - T4D.4, W2A.45, Soma, Daiki - Th3H.2, Th3H.6 Streshinsky, Matthew - T3H.5 T Tang, Xianfeng - Th1I.3 W4A.3 Son, Gyeongho - Th2A.20 Stricker, Andy - T3H.3, Th3I.4 Tacca, Marco - W3C.3 Tang, Xizi - W2A.46 Shields, Andrew - T3D Sone, Yoshiaki - Th3A.1 Stuch, Tim - W1J.4 Taeb, Sepehr - Th2A.30 Tang, Xuefeng - M2D.3 Shigematsu, Satoshi - W2A.14 Song, Bowen - T4H.1, T4H.2 Studenkov, Pavel - M3A.2 Taengnoi, Natsupa - W1G.4, W3E.3 Tang, Yingheng - Th1A.1, Th1A.6 Shigihara, Masahiro - Th3H.2 Song, Chuang - Th1F.3 Su, Chia-Yu - M3I.3 Tagkoudi, Eirini - M1C.1 Tangdiongga, Eduward - M1J.1, Shih, Tien-Tsorng - W1C.6 Song, Chunying - Th2A.13, W2A.2 Su, Shang-Jen - M2F.2, M2H.4, Tahersima, Mohammad H. - Th1A.1, M1J.3, M1J.6, M1J.7, M4I.4 Shikama, Kota - W1A.2, W1D.4, Song, Hao - Th1K.6, W1G.2, W1G.3 M2H.6, T4A.3, T4D.1, Th2A.43, Th1A.6 Taniguchi, Hiroki - T3I.2, T3I.3 W2A.14, W3G.4 Song, Haoqian - Th1K.6, W1G.2, Th2A.46 Tait, Alexander - M2K.4, M2K.6, Tanimura, Takahito - M2J, Th1I.1 Shimakawa, Osamu - Th3B.7 W1G.3 Su, Tzungi - M3D.2 W3A.7 Tanioka, Hiroaki - M4C.5 Shimizu, Shimpei - M1I.3 Song, Jianan - Th1F.3 Su, Xinzhou - Th1K.6, W1G.2, W1G.3 Takagi, Shinichi - M2B.6, Th2A.16, Tanizawa, Ken - M4A.3 Shimura, Daisuke - Th3C.4 Song, Jingwei - M3J.5 Su, Yikai - M3A.4, M3J.4, T3B, T3I.7, W4G.3 Tao, Zhenning - Th1I.1, W2A.52 Shin, Jang-Uk - M1F.3, M2A.7, M3Z.3 Song, Liujia - M1F.6 W2A.8, W4C.2 Takahashi, Hidenori - Th3H.6 Taru, Toshiki - Th3H.1 Shinada, Satoshi - T4J.4 Song, Qinghai - W4C.4 Su, Yudan - M3Z.2 Takahashi, Hiroyuki - Th3C.4 Tate, Al - M3D.6, W4C.5 Shindo, Takahiko - M1F.2 Song, Tingting - M2H.5 Su, Zhan - T3H.2 Takahashi, Masanori - Th2A.17 Taubenblatt, Marc - T3K.7 Shiner, Andrew - M4E.2 Song, Xiaolu - Th2A.4 Su, Zhirui - Th2A.15 Takahashi, Shigeki - M2B.6, Th2A.16, Taunay, Thierry - M4C.2 Th3C.4

OFC 2020 • 8–12 March 2020 149 Tazawa, Hidehisa - M4C, Th3B.7 Tsai, Wen-Shing - Th2A.44 van Veen, Dora - T4D.2, Th1B.5, Wakita, Hitoshi - M4K.3 Wang, Xin - M1F.6 Tefas, Anastasios - W3A.5 Tsakyridis, Apostolos - T4A.5, W1F.4 Th1B.6, W1E.2 Wan, Yangyang - W2A.19 Wang, Xutao - W4B.7 Teixeira, António - W2A.40 Tsang, Hon K. - T4H.3 Vanvincq, Olivier - M2C.1 Wang, Anbin - T3H.5 Wang, Xuyang - W2A.53 Terada, Jun - M1K.2, M1K.4, Th2A.36, Tsiara, Artemisia - M2A.5 Vaquero Caballero, Francisco J. - Wang, Binhao - M2A.2, M2A.4, Wang, Ye - T3D.6, Th1A.1 Th3K.6, W1E.4 Tsuchizawa, Tai - M2B.5, W1A.2, M4E.2 Th1E.2, W4G.8 Wang, Yilun - M1D.2 Terwilliger, Chad - Th3I.5 W4G.2 Varughese, Siddharth - M2J.4, M2J.5, Wang, Bo - W2A.51 Wang, Ying - M3Z.14 Terzenidis, Nikolaos - W1F.4 Tsuda, Hiroyuki - W1F.5 Th2A.49, W1D.3, W4F.3, W4F.4 Wang, Can - W2A.42 Wang, Yunxiang - W2A.53 Tessema, Netsanet - M3Z.3 Tsukamoto, Masayoshi - Th2A.17 Vedovato, Francesco - T3D.7 Wang, Chang - Th2A.1, W2A.15 Wang, Zhen - W4C.2 Tessinari, Rodrigo Stange - M3Z.1 Tsuritani, Takehiro - M3K.3, M3Z.4, Vegas Olmos, Juan Jose - T3K.3 Wang, Chenlu - T4B.5 Wang, Zhenxing - M3A.2, Th3E.3

Key to Authors Tetsuya, Ryo - M4H.1 T3J.2, Th3H.2, Th3H.6 Veilleux, Sylvain - W1A.5 Wang, Chung-Chih - Th2A.23 Wang, Zhi - Th2A.26 Thieu, Huu-Trung - M3Z.6 Tsvirkun, Viktor - M2C.1 Velasco, Luis - M3Z.19, Th1F.2 Wang, Chunxiao - T3K.6 Wang, Zhicheng - T3K.6 Thomas, Varghese A. - W4F.3, W4F.4 Tu, Charles - W1C.6 Velha, Philippe - M3Z.13 Wang, Dajiang - M3Z.18 Wang, Zihao - M1A.2, M3Z.18 Thompson, Mark - W4C.6 Tu, Jiajing - W1D.5 Venables, Ranju - T3H.1, T3H.6 Wang, Danshi - Th1F.3, W2A.29 Ware, Cedric - M2B.1, M4A.1, Thomsen, Benn C. - W2A.4 Tu, Shi-Cheng - Th2A.44 Venkitesh, Deepa - M1I.5 Wang, Ding - M4H.5 Th2A.25 Thomson, David - M2B.4, Th3J.4 Tummidi, Ravi - Th2A.10 Verchere, Dominique G. - M3Z.6 Wang, Feng - W1G.5 Washino, Ryu - M3D.4, T3C.2 Thouenon, Gilles - W3C.3 Tur, Moshe - M1G.3, M1I.2, Th1K.6, Verolet, Theo - W2A.41 Wang, Fu - M3Z.15, W1F.1, W1F.5, Watanabe, Tatsuhiko - W1D.1 Tibuleac, Sorin - M2J.4, M4F, M4K.6, W1G.2, W1G.3, W4A.4 Veronese, Riccardo - T4J.2 W2A.26 Watts, Mark - M2H.2 Th2A.49, W2A.21 Turitsyn, Sergei - W1C.5 Verplaetse, Michiel - Th2A.11, Th3J.5 Wang, Guangquan - M3Z.2 Watts, Michael - T3H.2 Tien Dat, Pham - W2A.37 Turkiewicz, Jaroslaw P. - M2A.3 Vert, Alexey - W2A.5 Wang, Haoyi - Th3K.5 Webster, Mark - Th2A.10, Th3A.6 Tikas, Marko - W1J.2 Vetter, Peter - W4E.4 Wang, Hua - M2F.5 Wei, Chia Chien - W2A.38, Th1B.7, Timurdogan, Erman - M4H, T3H.2 U Vilalta, Ricard - M3K.2, M4D.5, T3J.2, Wang, Huai-Yung - M3I.3 Th2A.51 Tittel, Wolfgang - M1E.3 Uchida, Toru - Th3C.2 T3J.4 Wang, Jian - T3H.4 Wei, Jinlong - M4J.5, Th2A.37 Tjäder, Joakim - W1J.1 Ueli, Koch - M1D.3 Vilchez, F. Javier - M2C.5, M3K.2, Wang, Jianwei - W4C.6 Wei, Liang-Yu - M2F.1 Toge, Kunihiro - Th1H.1 Uhl, Christopher - W1D.1 M4D.5 Wang, Juncheng - M1F.6 Wei, Wei - Th1K.2 Ton, Dinh - W3G.3 Umeda, Daisuke - M1F.5 Villatoro, Joel - M1C, Th3F.7 Wang, Kaihui - M4F.1, Th1B.3, Wei, Yiran - M4F.1, Th1B.3, Th1D.5, Tong, Yeyu - T4H.3 Umeki, Takeshi - M1I.3 Villoresi, Paolo - T3D.7 Th1D.5, Th2A.45, Th3K.3, W1G.5, W1G.5 Toprasertpong, Kasidit - M2B.6, Umezawa, Toshimasa - M1J.2, W4A.2 Vincent, Robert J. - W2A.49 W2A.42 Wei, Zixian - M3I.7 Th2A.16, W4G.3 Ummethala, Sandeep - M4I.6 Virgillito, Emanuele E. - M2G.4, Wang, Ke - M2H.5, Th2A.9 Welch, David - M3A.2, W2A.30 Torbatian, Mehdi - Th3E.3 Urakawa, Naoki - W4A.1 Th1F.2 Wang, Lai - M3I.7 Wellbrock, Glenn - Th3A.5 Torfs, Guy - M2F.6, Th3J.5 Urban, Patryk - M2C.5 Vishwanath, Sriram - W2A.34 Wang, Lei - M1F.6, M3I.7, M3Z.12, Wen, Aijun - W3A.1 Tornatore, Massimo - M4D.3, M4E.1, Ursin, Rupert - T3D.1 Visscher, Ilka - Th2A.2 T4H.2 Wen, Huashun - M3H.3 Th2A.27, Th2A.30, W2A.27 Vokic, Nemanja - M2K.5, M4A.4, Wang, Lingling - Th1F.3 Wen, Mei - W4F.2 Torres-Ferrera, Pablo - Th1B.1, Th3K.5 V T3D.4, T3K.5, W2A.56, W4G.4 Wang, Lixian - W1B.2, W1C.2 Wettlin, Tom - Th2A.37 Totovic, Angelina - W3A.5 Vachhani, Shweta - W3C.3 Voll, Stefan - M2D.1 Wang, Min - M3A.4, M4A.2, Th1F.6, Wey, Jun Shan - W1E.3 Toyokawa, Shuhei - Th3I.2 Vachon, Martin - W2A.2 Vuckovic, Jelena - M2E.4 Th1K.3, Th3K.4 White, Ian - T3D.3, Th2A.42 Toyonaka, Takashi - M3D.4 Vagionas, Christos - T4A.5 Vulliez, Cédric - M4A.5 Wang, Ning - M2C.6 Whitson, Michael - T3H.2 Toyoshima, Morio - W1G.1 Valcarenghi, Luca - M3Z.10 Vyrsokinos, Konstantinos - W1F.4 Wang, Peisen - M1A.4 Wilczynski, Krzysztof - M2C.5 Tran, Anh Vu Stephan - W2A.24 Vallaitis, Thomas - M3A.2 Wang, Peng - T3K.6 Wilke Berenguer, Pablo - M2D.4, Tran, Quang-Huy - M3Z.6 Vallone, Giuseppe - T3D.7 W Wang, Rui - M1B.2 M2G.5, M3I.1 Traverso, Matt - Th3A.6 Valvo, Maurizio - Th3K.5 Wada, Masaki - M4C.3, M4C.5, Wang, Ruohui - T3A.2 Wilkinson, Andrew - T3E.1 Tremblay, Christine - W2A.24 Van Campenhout, Joris - M2A.5, W4B.6 Wang, Shaowei - M3I.4 Wilkinson, Peter - M3F.2 Tremblay, Stephanie - Th3E.3 M4H.3, W3G.2, W4G.7 Wada, Naoya - T3D.5, T4G.2, T4J.4, Wang, Shuai - W2A.19 Williams, Kevin A. - M3A.1, Th3F.4, Triki, Ahmed - W3C.3 van der Heide, Sjoerd - Th1H.6, Th1H.3, Th1H.4, Th2A.27, Th3H.1, Wang, Tao - Th1K.2 W3F.4 Trinidad, Ailee - M4I.4 Th3H.4 Th3H.5 Wang, Ting - Th3A.5 Willner, Alan E. - M1G.3, M1I.2, Troia, Sebastian - W2A.27 van der Heide, Sjoerd P. - T3A.3, Wade, Mark - Th1E.3 Wang, Weiming - Th2A.47 Th1K.6, W1G.2, W1G.3, W4A.4 Troppenz, Ute - M4H.6 T4J.2 Wagner, Stefan - M3Z.8 Wang, Weiyu - M4F.4 Winiger, Joel - M1D.3 Tsai, Huan-Shang - M3A.2 van der Zon, Roel - Th3F.4 Wahab, Abdul - M1K.3 Wang, Wenxuan - Th3F.2 Winzer, Peter - M3G.3, M4K.2, Tsai, Song-En - Th2A.44 Van Kerrebrouck, Joris - M2F.6 Wakaba, Masaki - M2A.6 Wang, Wenyuan - M1E.2 Th3C.1, W1K.2, W3F.6 Tsai, Tsung-Hung - W2A.38, W2A.39 Van Vaerenbergh, Thomas - Th1E.2 Wakisaka, Yoshifumi - Th3F.5 Wang, Xiaofei - Th2A.12 Withford, Michael J. - W1A.1

150 OFC 2020 • 8–12 March 2020 Wittek, Steffen - Th1H.6 Xie, Weilin - Th1K.2 Yan, Jeanne - M3A.2 Yokohashi, Hiroto - Th2A.40 Zajnulina, Marina - Th2A.18 Witzens, Jeremy - M4H.2 Xie, Zhen-Xiong - W2A.38, W2A.39 Yan, Jhih-Heng - M2F.4 Yokoi, Toshihiro - W3C.1 Zakharian, Aramais - Th3I.5, W2A.13 Wolf, Stefan - M3A.2, Th3E.3 Xin, Haiyun - T3I.5, W2A.1 Yan, Lianshan - M1C.2, W2A.17, Yoneda, Yoshihiro - Th3C.2 Zami, Thierry - M4D.4, Th1D.4, Key to Authors Wonfor, Adrian - T3D.3 Xin, Xiangjun - M4F.1, Th1B.3, W2A.35 Yoo, S. J. Ben - M1B.3, Th3B.3, Th3D.5 Wong, Elaine - M1A.6, M2H.5, T4D, Th1D.5, Th3K.3 Yan, Qizhi - M1D.2 Th3D.1, W3A.2 Zander, Marlene - T3C.4 W2A.28 Xing, Zhenping - T3I.1 Yan, Shuangyi - M1B.2, M1G.4, Yoshida, Masahiro - M2A.6 Zanetto, Francesco - W3G.2 Wu, Chia-Yi - M2F.6 Xu, Benbo - Th2A.4 Th2A.33 Yoshida, Masato - T3D.2, T4J.3 Zarkesh-Ha, Payman - Th3J.2 Wu, Chih-I - Th2A.23 Xu, Feihu - M1E.2 Yan, Yaxi - Th3F.2 Yoshida, Setsuo - Th1I.1 Zbinden, Hugo - M4A.5 Wu, Hao - W2A.18 Xu, Huajun - M1D.3 Yanagimachi, Shigeyuki - M3Z.4 Yoshida, Tomoya - W1A.3, W2A.6 Zeb, Sanwal - M1K.3 Wu, Jian - M3J.5 Xu, Ke - M1D.4, T4B.1, Th2A.1, Yang, Bo - W1E.3 Yoshida, Tsuyoshi - M3J.7, Th1I.5 Zeinolabedinzadeh, Saeed - M2I.2 Wu, Meng-Chyi - M3I.7 W2A.15, W4C.4 Yang, Chao - M3I.6, Th2A.50 Yoshida, Yuki - M1J.2, M2F.7, W3D.1, Zeng, Derek - M2J.2 Wu, Pengxiang - Th1A.1 Xu, Mengyue - M2B.7 Yang, Fan - M4F.5, T3I.4 W4A.2 Zeng, Tao - M2J.7 Wu, Qi - W2A.13 Xu, Michelle - M1C.3, W3G.3 Yang, Guangsheng - M3Z.2 Yoshikane, Noboru - M3Z.4, T3J.2 Zeng, Xiaobo - Th1G.2, Th1G.5 Wu, Xiong - W1D.5 Xu, Mu - T4G.4, W1E.1, W1E.5, Yang, Guangyao - M2C.6 Yoshimatsu, Toshihide - M1F.2, T3I.2 Zeng, Xiaoge - Th1E.2 Wu, Yi-Chien - M3I.3 W2A.48 Yang, Haining - M3F.2 Yoshioka, Hiroata - W3C.1 Zervas, Georgios S. - T3K.1, W1F.3 Wu, Yiwen - Th1G.2, Th1G.5, W1K.4 Xu, Sugang - M3Z.4, Th2A.27 Yang, Hao - Th3B.2 Young, Bruce - M4H.5 Zervas, Michael - W4G.1 Wu, Zhuo-jie - Th3I.4 Xu, Xiaoyu - T4G.3 Yang, Hui - T3J.6, Th2A.28 Younis, Islam - M4K.2 Zhalehpour, Sasan - W3D.6 Wun, Sin-Jhu - Th2A.23 Xu, Xingyuan - T4G.5 Yang, Jianjun - M3Z.18 Yu, Anthony - T3H.3, Th3I.4 Zhan, Jiahao - W1A.5 Wünsch, Sebastian - M2A.1 Xu, Yilin - M4H.6 Yang, Lu-Yi - Th1B.7 Yu, Ao - T3J.6 Zhan, Kaixuan - T3J.6 Wuttig, Matthias - T3B.4 Xu, Zhaopeng - T4D.4, W2A.45, Yang, Mei - Th2A.21 Yu, Changyuan - Th3F.2 Zhan, Li - M1C.4 W4A.3 Yang, Shuai - T3D.3 Yu, Charles - W1C.1 Zhan, Tianshun - M3Z.2 X Xu, Zhengji - Th2A.8, W2A.9, W4C.3 Yang, Sigeng - T3H.5 Yu, Fengxin - W4G.6 Zhang, Bohan - Th1A.2, W1A.4 Xi, Lixia - Th1I.3 Xue, Lei - T4D.3 Yang, Yu - W4B.5 Yu, Haijiang - T3H.6 Zhang, Chunyu - Th1F.3 Xia, Ming - M3Z.12 Xue, Xuwei - M3Z.15, W1F.1, W1F.5, Yang, Zhiqun - W4B.7 Yu, Hui - Th2A.12 Zhang, Cong - Th3F.3 Xia, Penghui - Th2A.12 W2A.22, W2A.26 Yankov, Metodi P. - M4K.4, Th1I.6 Yu, Jiakai - M3Z.9, T3E.4, T3J.3, Zhang, Dejiang - M2D.3 Xia, Tao - M1F.6 Xue, Ying - T4H.5 Yao, Chunhui - W4C.2 T4B.4, Th2A.25 Zhang, Fan - M4F.5, T3I.4, Th3J.4 Xia, Tiejun J. - Th3A.5 Yao, Jianping - Th1C.3, Th2A.22, Yu, Jianjun - M4F.1, Th1B.3, Th1D.5, Zhang, Haipeng - T4G.4, W1E.1, Xian, Tianhao - M1C.4 Y W2A.11 Th1I, Th2A.45, Th3K.3, W1G.5, W1E.5, W2A.48 Xiang, Chao - M3H.6 Yaegashi, Hiroki - Th3C.4 Yao, Qiuyan - T3J.6 W2A.42 Zhang, Hongbin - Th3E Xiang, Lian - Th2A.31 Yagi, Hideki - Th3C.2 Yao, Shuang - M2F.2, M2H.4, M2H.6, Yu, Jiekui - M3Z.12 Zhang, Hong-Bo - Th2A.39 Xiang, MinWen - T3C.6 Yamada, Koji - Th3B.4, W3A.6 T4A.3, Th2A.46 Yu, Kyoungsik - Th2A.20 Zhang, Hongguang - M1D.4 Xiang, Shuiying - W3A.1 Yamada, Yusuke - M4C.5 Yao, Yong - W4C.4 Yu, Min - Th1B.7 Zhang, Huan - M3Z.12 Xiang, Yating - W2A.18 Yamaguchi, Minoru - W3C.1 Ye, Jia - W2A.35 Yu, Qianhuan - W4G.1, W4G.6 Zhang, Jiaming - M3A.2 Xiao, Jiangnan - M4F.1, Th1B.3, Yamaguchi, Yoriyoshi - M2B.3 Ye, Lei - M1D.2 Yu, Qinyang - Th1G.7 Zhang, Jianbo - W1D.5 Th1D.5, Th3K.3, W2A.42 Yamamoto, Naokatsu - M1J.2, Ye, Nan - W4G.1 Yu, Rang-Chen - M3D.2 Zhang, Jianli - M3I.4 Xiao, Li - M3Z.12 W2A.37, W4A.2 Ye, Tong - W2A.52 Yu, Shaohua - M2J.7, Th1B.4, Zhang, Jiao - M4F.1, Th1B.3, Th1D.5, Xiao, Rulei - Th2A.15 Yamamoto, Noritsugu - W3A.6 Ye, Xiaoyan - W1K.3 Th2A.50 Th2A.45, Th3K.3, W2A.42 Xiao, Shilin - M2I.3 Yamamoto, Shohei - W3D.1 Yeh, Chien-Hung - M2F.1 Yu, Siyuan - W1B.3 Zhang, Jiawei - M1A.5, M1A.7, T4D.5, Xiao, Xi - M1D.4 Yamamoto, Shuto - T3I.2, T3I.3, Th1D, Yen, Tzu-Hsiang - M3F.7 Yu, Xiaosong - M3K.4, M3Z.14, Th1F.5 Th3A.4 Xiao, Xian - Th3B.3 Th1F.1 Yerkes, Shane - T3H.6 Yu, Yukui - M3J.3, W2A.32 Zhang, Jie - M3K.4, M3Z.14, T3J.6, Xiao, Yuming - T4D.5, Th3A.4 Yamamoto, Takashi - M4C.3 Yesiliurt, Omer - W3A.4 Yuan, Yuan - M2A.2, W4G.8 Th1F.5, Th2A.28, W2A.51 Xiao, Zhiyu - Th1G.3 Yamaoka, Kazuki - M2A.6 Yi, Che - W2A.32 Yue, Lei - M3J.5 Zhang, Jing - T3C.7 Xie, Changsong - M4J.5, M4K.5 Yamashita, Yoko - M4C.5, W4B.6 Yi, Lilin - M2J.1, M2J.6, T4D.3, Yun, Han - M1C.5, M3F.5 Zhang, Junwei - W1B.3 Xie, Chongjin - M1H.2, M2J.2, Yamauchi, Syunya - M2B.3 Th1G.2, Th1G.5, Th3D.6, W1K.4 Yun, Seokjun - M1F.3, M2A.7 Zhang, Junwen - T4G.4, Th3K, W1E.1, M3Z.12, T3H.5, T3K.6 Yamazaki, Etsushi - Th1F.1 Yildirim, Ozgur - W3A.3 Yvind, Kresten - M1I.4 W1E.5, W2A.48 Xie, Hucheng - M1D.4, W4C.4 Yamazaki, Hiroshi - M4K.1, M4K.3, Yin, Shan - M2G.2 Zhang, Katrina - W3A.3 Xie, Jing-Yan - Th2A.44 T4G.1, W3G.4 Yin, Xin - M2F.6, Th2A.11, Th3J.5, Z Zhang, Kuo - T3I.5 Xie, Linli - W4G.1 Yamazato, Takaya - Th1K.1 W4G.7 Zach, Shlomo - W1G.2, W1G.3 Zhang, Lei - M4F.5, T3I.4, W1B.3 Xie, Shengjie - W1A.5 Yan, Fulong - W1F.1, W1F.5, W2A.22, Yin, Yawei - M1A, W3C.2 Zahidy, Mujtaba - T3D.7 Zhang, Li - M3I.7 W2A.26

OFC 2020 • 8–12 March 2020 151 Zhang, Liangjun - Th2A.47 Zhao, Anke - Th2A.56 Zhu, Yinan - M3Z.18 Zhang, Lin - W4B.7 Zhao, Can - W2A.18 Zhu, Yixiao - M4F.5, W1E.3 Zhang, Ling - Th1K.2 Zhao, Feng - M4F.1, Th3K.3 Zhu, Ziyi - T4D.2 Zhang, Liwei - Th1D.5 Zhao, Hongwei - T4H.1, T4H.2 Zhu, Zuqing - M1B.3, Th1F.6, Th2A.29 Zhang, Lizhong - M3Z.14 Zhao, Jian - W1B.1 Zhuge, Qunbi - M2J.1, M2J.6, M4E.2, Zhang, Maoqi - W2A.18 Zhao, Lei - M1F.6 Th1G.2, Th1G.5, Th3D.6, W1K.4 Zhang, Min - Th1F.3, W2A.29 Zhao, Li - M4F.1, Th1B.3, Th1D.5, Zhuo, Shenglong - M1F.6 Zhang, Mingrui - W2A.51 Th2A.43, Th2A.45, Th3K.3 Ziari, Mehrdad - M3A.2, Th3E.3 Zhang, Nannan - Th1I.3 Zhao, Mingming - Th1D.5, Th3K.3, Zibar, Darko - T4B.2, T4B.3, W1K.1

Key to Authors Zhang, Pengfei - T3C.6 W2A.42 Zimmermann, Lars - M2I.2, T3H.7 Zhang, Qiang - Th2A.12 Zhao, Xudong - T3J.6 Zivny, Pavel - W4F.3, W4F.4 Zhang, Qianwu - M4A.2 Zhao, Ying - W3G.3 Zong, Liangjia - M4D.2 Zhang, Qiong - M4D Zhao, Yongli - M1A.4, M3K.4, M3Z.14, Zou, Dongdong - W1D.6 Zhang, Qiulin - M3J.2 Th1F.5, Th2A.28, W2A.51 Zou, Jun - W2A.53 Zhang, Qun - T3H.4 Zhao, Zhe - Th1K.6, W1G.2, W1G.3 Zou, Kaiheng - M1G.3, M1I.2, W1G.2, Zhang, Renheng - Th1C.2 Zhao, Ziqiang - W4G.3 W1G.3, W4A.4 Zhang, Rui - M2F.2, M2H.4, M2H.6, Zheng, Jilin - Th2A.15 Zou, Peng - M3I.4, M3I.5, Th1K.7 T4A.3, T4D.1 Zheng, Lizhuo - M2I.3 Zou, Weiwen - M2K.2 Zhang, Ruihuan - M3A.4, W2A.8 Zheng, Long - T3H.5 Zou, Xihua - W2A.35 Zhang, Runzhou - Th1K.6, W1G.2, Zheng, Yu - T4B.5 Zou, Xingyu - M3K.4 W1G.3 Zhong, Qize - Th2A.8, W2A.9, W4C.3 Zulfiqar, Mubeen - Th2A.30 Zhang, Shaojuan - W1F.1 Zhong, Yiming - W1E.3 Zuo, Mingqing - Th1H.2 Zhang, Tianliang - W3C.3 Zhou, Gai - M1G.5, M2J.2 Zussman, Gil - T3J.3, T4B.4, Th2A.25 Zhang, Tingting - W2A.44 Zhou, Honghang - M3J.5 Zvánovec, Stanislav - M3I.2 Zhang, Wei - M3A.6 Zhou, Huibin - M1G.3, M1I.2, W4A.4 Zwickel, Heiner - Th3C.3 Zhang, Wenjia - W1D.2, W2A.31, Zhou, Jianying - T3H.4 W3D.5 Zhou, Pei - Th1C.2 Zhang, Xian - M2B.7 Zhou, Qi - M2F.2, M2F.3, M2H.4, Zhang, Xiaoguang - Th1I.3 M2H.6, T4D.1, Th2A.43, Th2A.46 Zhang, Xinliang - M1D.2 Zhou, Weiqin - Th2A.47 Zhang, Xinpu - M1C.2 Zhou, Wen - M4F.1, Th1B.3, Th1D.5, Zhang, Yahui - W3A.1 Th2A.45, Th3K.3, W2A.42 Zhang, Yanci - W3D.5 Zhou, Yanyan - Th2A.8, W2A.9, Zhang, Yang - W1A.5 W4C.3 Zhang, Yifei - W3A.4 Zhou, Yin - M1C.2 Zhang, Yinxing - T3H.5 Zhou, Yingjun - W1G.5 Zhang, Yiqun - Th2A.56 Zhu, Daniel - T3H.1, T3H.6 Zhang, Yong - M1D.2, M3A.4, W2A.8, Zhu, Jingjie - W1E.5 W4C.2 Zhu, Jinglong - W4B.5 Zhang, Yu - Th3B.3 Zhu, Ning Hua - M3H.3 Zhang, Yuanhang - W4C.5 Zhu, Ninghui - W3G.3 Zhang, Yuanxi - M1F.6 Zhu, Paikun - M2F.7 Zhang, Yuguang - M1D.4 Zhu, Qing - T3H.6 Zhang, Yun - Th1D.5, Th3K.3 Zhu, Qingming - M3A.4 Zhang, Yunshan - Th2A.15 Zhu, Ruijie - M1A.4 Zhang, Zhan - M2G.2 Zhu, Shengxiang - T3E.4, T3J.3, Zhang, Zhaopeng - W2A.19 T4B.4, W2A.33 Zhang, Zhiyi - M2I.3 Zhu, Shiyang - Th2A.8, W2A.9, W4C.3 Zhang, Zhuhong - M2D.3, W3D.6 Zhu, Si - T4H.5

152 OFC 2020 • 8–12 March 2020