DOCSLIB.ORG

2020 European Conference on Optical Communications

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text
2020 European Conference on Optical Communications 2020 European Conference on Optical Communications (ECOC 2020) Brussels, Belgium 6 -10 December 2020 Pages 1-556 IEEE Catalog Number: CFP20425-POD ISBN: 978-1-7281-7362-7 1/2 Copyright © 2020 by the Institute of Electrical and Electronics Engineers, Inc. All Rights Reserved Copyright and Reprint Permissions: Abstracting is permitted with credit to the source. Libraries are permitted to photocopy beyond the limit of U.S. copyright law for private use of patrons those articles in this volume that carry a code at the bottom of the first page, provided the per-copy fee indicated in the code is paid through Copyright Clearance Center, 222 Rosewood Drive, Danvers, MA 01923. For other copying, reprint or republication permission, write to IEEE Copyrights Manager, IEEE Service Center, 445 Hoes Lane, Piscataway, NJ 08854. All rights reserved. *** This is a print representation of what appears in the IEEE Digital Library. Some format issues inherent in the e-media version may also appear in this print version. IEEE Catalog Number: CFP20425-POD ISBN (Print-On-Demand): 978-1-7281-7362-7 ISBN (Online): 978-1-7281-7361-0 Additional Copies of This Publication Are Available From: Curran Associates, Inc 57 Morehouse Lane Red Hook, NY 12571 USA Phone: (845) 758-0400 Fax: (845) 758-2633 E-mail: [email protected] Web: www.proceedings.com TABLE OF CONTENTS 1.01 PETA-BIT/S C+L-BAND TRANSMISSION OVER A 15-MODE FIBER ................................................ 1 Georg Rademacher, Benjamin J. Puttnam, Ruben S. Luís, Tobias A. Eriksson, Nicolas K. Fontaine, Mikael Mazur, Haoshuo Chen, Roland Ryf, David T. Neilson, Pierre Sillard, Frank Achten, Yoshinari Awaji, Hideaki Furukawa 200 GBIT/S OPTICAL PAM4 MODULATION BASED ON SILICON MICRORING MODULATOR .................................................................................................................................................... 5 Yuguang Zhang, Hongguang Zhang, Miaofeng Li, Peng Feng, Lei Wang, Xi Xiao, Shaohua Yu 220 GBAUD SIGNAL GENERATION ENABLED BY A TWO-CHANNEL 256 GSA/S ARBITRARY WAVEFORM GENERATOR AND ADVANCED DSP ............................................................. 9 Fabio Pittalà, Maximilian Schaedler, Ginni Khanna, Stefano Calabrò, Maxim Kuschnerov, Changsong Xie, Zhicheng Ye, Qibing Wang, Bofang Zheng AMPLIFIED TRANSMISSION BEYOND C- AND L- BANDS: DOPED FIBRE AMPLIFIERS FOR 1250–1450 NM RANGE ........................................................................................................................... 13 Vitaly Mikhailov, Jiawei Luo, Daryl Inniss, Man Yan, Yingzhi Sun, Gabriel S. Puc, Robert S. Windeler, Paul S. Westbrook, Yuriy Dulashko, David J. Digiovanni DETERMINISTIC LATENCY NETWORKS FOR 5G APPLICATIONS ....................................................... 16 Nihel Benzaoui INTELLIGENT DESIGN OF OPTICAL NETWORKS: WHICH TOPOLOGY FEATURES HELP MAXIMISE THROUGHPUT IN THE NONLINEAR REGIME? .................................................................... 20 Polina Bayvel, Ruijie Luo, Robin Matzner, Daniel Semrau, Georgios Zervas MACHINE LEARNING ASSISTED HYBRID EDFA-RAMAN AMPLIFIER DESIGN FOR C+L BANDS .............................................................................................................................................................. 24 Maria Ionescu, Amirhossein Ghazisaeidi, Jeremie Renaudier VISION FOR NEXT GENERATION UNDERSEA OPTICAL FIBERS AND CABLE DESIGNS ................ 27 Marsha Spalding, Maxim Bolshtyansky, Oleg Sinkin WORLD'S FIRST FIELD TRIAL OF 100 GBIT/S FLEXIBLE PON (FLCS-PON) ........................................ 31 Robert Borkowski, Michael Straub, Kanni Ou, Yannick Lefevre, Željko Jelic, Wouter Lanneer, Noriaki Kaneda, Amitkumar Mahadevan, Volker Hückstädt, Dora Van Veen, Vincent Houtsma, Werner Coomans, René Bonk, Jochen Maes 0.3PA DARK CURRENT AND 0.65A/W RESPONSIVITY 1020NM INGAAS/GAAS NANO- RIDGE WAVEGUIDE PHOTODETECTOR MONOLITHICALLY INTEGRATED ON A 300- MM SI WAFER ................................................................................................................................................. 35 Cenk Ibrahim Ozdemir, Yannick De Koninck, Didit Yudistira, Nadezda Kuznetsova, Marina Baryshnikova, Dries Van Thourhout, Bernardette Kunert, Marianna Pantouvaki, Joris Van Campenhout 1 TBIT/S/ λ TRANSMISSION OVER A 130 KM LINK CONSISTING OF GRADED-INDEX 50 µM CORE MULTI-MODE FIBER AND 6LP FEW-MODE FIBER ................................................................ 39 Menno Van Den Hout, Sjoerd Van Der Heide, John Van Weerdenburg, Marianne Bogot- Astruc, Adrian Amezcua Correa, Jose Enrique Antonio-López, Juan Carlos Alvarado- Zacarias, Pierre Sillard, Rodrigo Amezcua-Correa, Chigo Okonkwo 1.6TB/S TRANSMISSION FEASIBILITY EMPLOYING IM/DD FOR DATACENTRE NETWORKS ...................................................................................................................................................... 43 Talha Rahman, Md. Sabbir Hossain, Nebojsa Stojanovic, Stefano Calabrò, Jinlong Wei, Changsong Xie, Maxim Kuschnerov 100 GBIT/S NRZ DATA MODULATION IN PLASMONIC RACETRACK MODULATORS ON THE SILICON PHOTONIC PLATFORM ........................................................................................................ 47 Andreas Messner, Benedikt Baeuerle, Wolfgang Heni, Eva De Leo, Joel Winiger, Patrick Habegger, Marco Eppenberger, Ueli Koch, Delwin L. Elder, Larry R. Dalton, Juerg Leuthold 100 GSA/S BICMOS ANALOG MULTIPLEXER BASED 100 GBD PAM TRANSMISSION OVER 20 KM SINGLE-MODE FIBER IN THE C-BAND .............................................................................. 50 Karsten Schuh, Qian Hu, Michael Collisi, Roman Dischler, Mathieu Chagnon, Fred Buchali, Horst Hettrich, Rolf Schmid, Michael Möller 120 GBAUD IM/DD PAM-4 TRANSMISSION OVER 1.5 KM SMF USING A SINGLE CMOS DAC WITH <20 GHZ ANALOG BANDWIDTH............................................................................................. 54 Qian Hu, Karsten Schuh, Robert Borkowski, Fred Buchali, Henning Bülow 132 GB/S 3×3 FULL MIMO FIBER-WIRELESS SEAMLESS SYSTEM IN W BAND USING WDM/PDM ROF TRANSMISSION ................................................................................................................. 58 Pham Tien Dat, François Rottenberg, Atsushi Kanno, Keizo Inagaki, Jérôme Louveaux, Naokatsu Yamamoto, Tetsuya Kawanishi 16 TBIT/S REAL-TIME UNREPEATED TRANSMISSION OVER 420 KM G.654E FIBER ....................... 62 Junjie Li, Anxu Zhang, Kai Lv, Yusen Yang, Haiqiang Wang, Fei Yan, Yue Tian, Peng Lu, Zhenzhen Zhang, Lvhui Jiang, Deng Pan, Jie Chen, Yi Yu, Liangchuan Li 20.6 PB/S·KM UNREPEATERED TRANSMISSION WITHOUT ROPA: UWB SOA BOOSTER AND BACKWARD RAMAN AMPLIFICATION ........................................................................................... 65 M. Ionescu, A. Arnould, D. Le Gac, S. Etienne, A. Ghazisaeidi, M. Duval, C. Bastide, H. Bissessur, J. Renaudier 2051 NM NARROW LINEWIDTH ALL-FIBRE DFB LASER FOR HOLMIUM-DOPED FIBRE- AMPLIFIER APPLICATIONS .......................................................................................................................... 69 Daniya Traoré, Wiktor Walasik, Alexandre Amavigan, Robert E. Tench, Jean-Marc Delavaux, Emmanuel Pinsard 255-GBPS PAM-8 O-BAND TRANSMISSION THROUGH 10-KM SMF UNDER 14-GHZ BANDWIDTH LIMITATION USING MLSE BASED ON NONLINEAR CHANNEL ESTIMATION WITH CUTDOWN VOLTERRA KERNELS .......................................................................... 73 Hiroki Taniguchi, Shuto Yamamoto, Masanori Nakamura, Yoshiaki Kisaka 2×800 GBPS/WAVE COHERENT OPTICAL MODULE USING A MONOLITHIC INP TRANSCEIVER PIC ......................................................................................................................................... 76 M. R. Chitgarha, P. Studenkov, J. Zhang, H. Hodaei, T. Frost, H. Tsai, S. Buggaveeti, A. Rashidinejad, A. Yekani, R. Mirzaei Nejad, S. Kerns, J. Diniz, D. Pavinski, R. Brigham, B. Foo, M. Al-Khateeb, S. Koenig, S. Wolf, R. Going, S. Porto, I. Leung, R. Maher, V. Dominic, H. Sun, S. Sanders, J. Osenbach, S. Corzine, P. Evans, V. Lal, M. Ziari 30 GHZ RADIO OVER FSO SYSTEM USING HIGH SPEED 2D-PDA AND ITS OPTICAL PATH SWITCHING PERFORMANCE ............................................................................................................ 79 Toshimasa Umezawa, Pham Tien Dat, Atsushi Kanno, Kunihisa Jitsuno, Naokatsu Yamamoto, Tetsuya Kawanishi 40 μM SPATIAL RESOLUTION OPTICAL FREQUENCY DOMAIN REFLECTOMETRY AT 3 KM BASED ON RELATIVE DISTANCE MEASUREMENT TO LOCAL DELAY FIBRE ......................... 83 Tatsuya Okamoto, Daisuke IIda, Hiroyuki Oshida 50GB/S HYBRID INTEGRATED SI-PHOTONIC OPTICAL LINK IN 16NM FINFET ................................ 87 Mayank Raj, Yohan Frans, Ping-Chuan Chiang, Sai Lalith Chaitanya Ambatipudi, David Mahashin, Peter De Heyn, Sadhishkumar Balakrishnan, Joris Van Campenhout, Jimmy Grayson, Marc Epitaux, Ken Chang 50GB/S TDM PON DIGITAL SIGNAL PROCESSING CHALLENGES: MINING CURRENT G- PON FIELD DATA TO ASSIST HIGHER SPEED PON ................................................................................. 91 Gaël Simon, Fabienne Saliou, Philippe Chanclou, Luiz Anet Neto, Hamza Hallak Elwan 50-GHZ-BANDWIDTH ELECTRO-ABSORPTION MODULATOR WITH MEMBRANE INGAASP LATERAL P-I-N DIODE ON SI PLATFORM ............................................................................... 95 Tatsurou Hiraki, Takuma Aihara, Yoshiho Maeda, Takuro Fujii, Tai Tsuchizawa, Kiyoto Takahata, Takaaki Kakitsuka, Shinji Matsuo 52.1 TB/S C-BAND DCI TRANSMISSION OVER DCI DISTANCES
Load more

Recommended publications
  • Deliverable D2.2 TERRANOVA System Architecture Work Package 2 - System Requirements, Concept and Architecture
    Ref. Ares(2018)1364959 - 13/03/2018 D2.2 – TERRANOVA system architecture This project has received funding from Horizon 2020, European Union’s Framework Programme for Research and Innovation, under grant agreement No. 761794 Deliverable D2.2 TERRANOVA system architecture Work Package 2 - System Requirements, Concept and Architecture TERRANOVA Project Grant Agreement No. 761794 Call: H2020-ICT-2016-2 Topic: ICT-09-2017 - Networking research beyond 5G Start date of the project: 1 July 2017 Duration of the project: 30 months TERRANOVA Project Page 1 of 116 D2.2 – TERRANOVA system architecture Disclaimer This document contains material, which is the copyright of certain TERRANOVA contractors, and may not be reproduced or copied without permission. All TERRANOVA consortium partners have agreed to the full publication of this document. The commercial use of any information contained in this document may require a license from the proprietor of that information. The reproduction of this document or of parts of it requires an agreement with the proprietor of that information. The document must be referenced if used in a publication. The TERRANOVA consortium consists of the following partners. No. Name Short Name Country 1 University of Piraeus Research Center UPRC Greece (Coordinator) 2 Fraunhofer Gesellschaft (FhG-HHI & FhG-IAF) FhG Germany 3 Intracom Telecom ICOM Greece 4 University of Oulu UOULU Finland 5 JCP-Connect JCP-C France 6 Altice Labs ALB Portugal 7 PICAdvanced PIC Portugal TERRANOVA Project Page 2 of 116 D2.2 – TERRANOVA system architecture Document Information Project short name and number TERRANOVA (653355) Work package WP2 Number D2.2 Title TERRANOVA system architecture Version v1.0 Responsible unit FhG Involved units JCP-C, FhG, ICOM, UOULU, UPRC, ALB, PIC Type1 R Dissemination level2 PU Contractual date of delivery 28.02.2018 Last update 12.03.2018 1 Types.
    [Show full text]
  • Release Notes: Junos® OS Release 17.4R3 for the ACX Series, EX Series, MX Series, NFX Series, PTX Series, QFX Series, SRX Series, and Junos Fusion
    1 Release Notes: Junos® OS Release 17.4R3 for the ACX Series, EX Series, MX Series, NFX Series, PTX Series, QFX Series, SRX Series, and Junos Fusion 17 September 2021 Contents Introduction | 13 New Features in 17.4R3 | 13 Junos OS Release Notes for ACX Series | 13 New and Changed Features | 14 Release 17.4R3 New and Changed Features | 14 Release 17.4R2 New and Changed Features | 15 Release 17.4R1 New and Changed Features | 15 Changes in Behavior and Syntax | 16 Management | 17 Network Management and Monitoring | 17 Platform and Infrastructure | 18 Security | 19 Software Licensing | 19 Subscriber Management and Services | 19 Known Behavior | 20 General Routing | 20 Known Issues | 21 General Routing | 22 Interfaces and Chassis | 24 2 Layer 2 Features | 24 MPLS | 24 Routing Protocols | 24 Virtual Chassis | 24 Resolved Issues | 25 Resolved Issues: 17.4R3 | 25 Resolved Issues: 17.4R2 | 27 Resolved Issues: 17.4R1 | 29 Documentation Updates | 29 Migration, Upgrade, and Downgrade Instructions | 30 Upgrade and Downgrade Support Policy for Junos OS Releases | 30 Junos OS Release Notes for EX Series Switches | 31 New and Changed Features | 32 Release 17.4R3 New and Changed Features | 33 Release 17.4R2 New and Changed Features | 33 Release 17.4R1 New and Changed Features | 34 Changes in Behavior and Syntax | 39 EVPNs | 39 Interfaces and Chassis | 40 Management | 40 Multicast | 40 Network Management and Monitoring | 40 Platform and Infrastructure | 41 Routing Protocols | 42 Security | 42 Software Licensing | 42 Subscriber Management and Services |
    [Show full text]
  • Product Guide Transceivers, Transponders, and Active Cables for Datacom and Telecom Applications
    World’s Largest Supplier of Optical Communication Components and Subsystems Product Guide Transceivers, Transponders, and Active Cables for Datacom and Telecom Applications CFP4 QSFP SFP+ XFP BOA Active Cable Transceivers, Transponders, and Active Cables for Datacom and Telecom Applications Finisar’s broad product selection and innovative technology have made us the optical module manufacturer of choice for all major networking equipment vendors worldwide. We have taken a leading role in transforming the datacommunications and telecommunications equipment market from utilizing discrete optical components to leveraging the design and pay-as-you-grow flexibility offered by pluggable modules. Our products are fully compliant with Ethernet, Fibre Channel, Infiniband, SONET/SDH/OTN and PON standards and operate at data rates up to 100 Gb/s. They are capable of distances ranging from very short reach within a datacenter to campus, access, metro, and long-haul reaches. They feature outstanding performance over extended voltage and temperature ranges, while minimizing jitter, electromagnetic interference (EMI) and power dissipation. Finisar Modules are available in a wide variety of form factors: SFP (copper and optical; longwave, shortwave and WDM) – DatacoM applications using Fast Ethernet, Gigabit Ethernet, 1x/2x/4x Fibre Channel – TelecoM applications using OC-3/STM-1, OC-12/STM-4 and OC-48/STM-16 across all reaches Features • 3.3 V operating voltage • Distances from very short links up to 100+ km SFP • Wide operating temperature range • Metal
    [Show full text]
  • Beyond 400G Technical White Paper Beyond 400G Technical White Paper
    Beyond 400G Technical White Paper Beyond 400G Technical White Paper Beyond 400G Technical White Paper Version Date Author Reviewer Remark V1.0 2021/07/13 ZTE ZTE First Released © 2021 ZTE Corporation. All rights reserved. ZTE CONFIDENTIAL: This document contains proprietary information of ZTE and is not to be disclosed or used without the prior written permission of ZTE. Due to update and improvement of ZTE products and technologies, information in this document is subjected to change without notice. All rights reserved. No spreading without permission of ZTE 1 Beyond 400G Technical White Paper Contents 1 Introduction..................................................................................................................................... 3 2 B400G Technologies and Solutions......................................................................................... 4 2.1 B400G Technologies....................................................................................................................4 2.1.1 Forward Error Correction (FEC)..............................................................................................5 2.1.2 Baud Rate and High-Order Modulation Modes.................................................................... 5 2.1.3 Polarization Multiplexing...........................................................................................................6 2.1.4 Special Fibers...........................................................................................................................
    [Show full text]
  • Routed Optical Networking the Road to a Converged Network
    Routed Optical Networking The Road to a Converged Network AN IDC INFOBRIEF | MARCH 2021 AP241223IB Sponsored by Executive summary Service providers (SPs) have started to transform their networks into 5G transport architectures to address the growing traffic requirements on their networks. However, % 890 MBpm this is quite a complex journey as the layered and siloed 35-50 nature of network infrastructure, along with multi-layered Exabytes/month Annual growth of SP resiliency schemes, often results in poor utilization and 300 traffic in Asia Pacific 400 monetization of network resources. The legacy network architecture also leads to complex 300 management and manual intervention at multiple levels, 200 posing challenges in implementing end-to-end closed-loop automation. 200 $ Billions 230 MBpm Complex transformations like these require tightly- 100 integrated networks that can scale with the future demands 100 of high bandwidth including video streaming, low latency, 80 MBpm and coverage densification. The routed optical networking 12 MBpm solution can enable scale by converging mobile and fixed, 0 0 voice and private line traffic onto a single converged internet 2006 2008 2010 2012 2014 2016 2018 2020 2022 protocol (IP) and optical network. CAPEX ($B) Other traffic (EBpm) Video (EBpm) Source: Cisco Visual Networking Index 2020 This IDC InfoBrief takes a closer look at the SP challenges, and the promise and motivations for Converged IP and optical architecture routed optical networking. will enable total cost of ownership (TCO) savings of up to 45% An IDC InfoBrief | Routed Optical Networking: The Road to a Converged Network 2 SPs are transforming their transport networks to address traffic growth SPs understand that they must transform their transport networks to prepare for the 5G era.
    [Show full text]
  • Silicon Photonics Report
    Silicon Photonics Report March 2020 Scope of the Report This report looks at Silicon Photonics from a communication and datacom perspective. It is becoming clear that the attributes that make Silicon Photonics compelling for communication/datacom also apply to the sensor market. We will look at the sensor market in a separate report, but our understanding of the market, verified by our visit to Photonics West, is that the sensor market offers a larger market opportunity than datacom for Silicon Photonics. Examples that steer our opinions: 1. Brolis Semiconductor – showing a very compelling medically focused spectrometer that is based on a silicon integrated circuit which is clearly applicable to not only the professional medical market, but also the consumer medical market 2. Other companies such as Rockley Photonics have used their platform technology to demonstrate numerous sensor applications compatible with markets that would demand hundreds of millions of units per annum. Much like their announcements around the commercialisation of their LightDriver™ products it would surprise us if there were not similar announcements focused on the sensor application products they have been developing Silicon Photonics Report – March 2020 Page | 2 RCL Background Mike Powell is the Managing Director and Partner of Renevo Capital Limited. Mike focuses on the TMT and Advanced Materials sectors. He has 15 years experience advising companies internationally on M&A, financing, and corporate strategy. He is extremely well connected across Europe, the North Americas and China. Mike's speciality is photonics and efficiency technologies, and he brings 30 years of senior level experience in leading, advising, managing and negotiating corporate projects and transactions for both private and public companies.
    [Show full text]
  • NTT Technical Review, Vol. 18, No. 10, Oct 2020
    NTT Technical Review October 2020 Vol. 18 No. 10 View from the Top Masaaki Moribayash, Senior Executive Vice President, NTT Ltd. Front-line Researchers Hirokazu Kameoka, Senior Distinguished Researcher, NTT Communication Science Laboratories Feature Articles: Photonics-electronics Convergence Technology to Achieve All-Photonics Network All-Photonics Network and Photonics-electronics Convergence Technologies as a Vision of the Future Ultracompact Silicon Photonics Coherent Optical Subassembly for Ultrahigh-capacity Optical Communication Device Technology for Short-range Optical Interconnections with High Density and Low Power Consumption Nanophotonic Technologies toward Opto-electronic Integrated Accelerators Regular Articles Ultralow Latency Optical Logic Operations with an Ultrasmall Silicon Wire Ψ Gate Wearable Biological/environmental Sensor and Its Application for Smart Healthcare Services Global Standardization Activities Recent Activities of QoE-related Standardization in ITU-T SG12 Practical Field Information about Telecommunication Technologies Quick and Automatic Solution of Electromagnetic Disturbance by Using the Intelligent Noise Filter External Awards/Papers Published in Technical Journals and Conference Proceedings View from the Top Respect Each Other and Increase Value—Solving Social Problems by Combining World-class Strengths Masaaki Moribayashi Senior Executive Vice President, NTT Ltd. Overview As a world-leading global technology services provider, NTT Ltd., which is headquartered in London, UK, employs approximately
    [Show full text]
  • Digital Coherent Transmission for Next- Generation Cable Operators’ Optical Access Networks
    Digital Coherent Transmission for Next- Generation Cable Operators’ Optical Access Networks A Technical Paper prepared for SCTE/ISBE by Zhensheng (Steve) Jia, Ph.D. Principal Architect CableLabs 858 Coal Creek Circle Louisville, Colorado 80027 303-661-3364 [email protected] L. Alberto Campos, Ph.D. Distinguished Technologist CableLabs 858 Coal Creek Circle Louisville, Colorado 80027 303-661-3377 [email protected] Chris Stengrim, CableLabs Jing Wang, Ph.D., CableLabs Curtis Knittle, Ph.D., CableLabs © 2017 SCTE-ISBE and NCTA. All rights reserved. Table of Contents Title Page Number Introduction ________________________________________________________________________ 5 Content ___________________________________________________________________________ 6 1. Increasing Demand for Higher Bandwidth ____________________________________________ 6 2. Fiber Shortage Challenge in Cable HFC Network ______________________________________ 7 3. Coherent Optics Use Cases in Cable ______________________________________________ 11 3.1. Aggregation Use Case Scenarios ___________________________________________ 11 3.2. Direct Edge-to-Edge Connectivity Use Case Scenarios __________________________ 13 3.3. Economics of Coherent Optics in the Aggregation Use Case Scenario ______________ 13 4. Digital Coherent Optical Transmission Technology ____________________________________ 16 4.1. Optical Transmission Technology Evolution ___________________________________ 16 4.2. Rebirth of Coherent Optics ________________________________________________ 17 4.3.
    [Show full text]
  • 英文 DAC画册0303.Cdr
    Optical Interconnection Design Innovator Direct Attach Cable Shenzhen Gigalight Technology Co.,Ltd. Add: 17F, Zhongtai Nanshan Zhujue Building, 4269 Dongbin Road, Nanshan District, Shenzhen, Guangdong Tel: +86-755-26734300 Fax: +86-755-26738181 Email: [email protected] Web:www.gigalight.com 100G QSFP28 DAC 56G QSFP+ DAC R&D Center and Main Factory Address: 1－3F, 4 Building, Liuxian Third Road,Changfeng Industrial Park, 40G QSFP+ DAC Baoan 68 District,Shenzhen, Guangdong Province, China, Zip Code 518101 25G SFP28 DAC Tel: +86-755-26821500 Fax:+86-755-26687580 10G SFP+DAC Technical Support: [email protected] Customer Service: [email protected] Company Profile CONTENTS Milestones 2006-2009 Gigalight was committed to R&D and production of optical devices under 10Gbps, building the global channel market of 100G QSFP28 DAC optical transceiver modules; 2010-2011 100G QSFP28 ACC Gigalight sold 10G optical transceivers in quantity and launched 10G/40G/120G Active Optical Cables; 100G QSFP28 PCC 2012-2013 100G QSFP28 to 4x 25GE SFP28 Breakout PCC Gigalight invested into Optical Passive Components product line and HD Video Optical Transceiver industry Invested on Optical Passive Components product line and video HD optical modules; 2014 Gigalight accomplished the commercialized process of 10G/40G Active Optical Cables in Data Center; meanwhile launched GIGAC high-density MTP/MPO cloud cabling products; 56G QSFP+ DAC 2015 Gigalight launched 40G optical transceivers and Consumer USB3.0/HDMI1.4 Active Optical Cables; 56G QSFP+ PCC 2016 Gigalight
    [Show full text]
  • System Interconnect Fabrics: Ethernet Versus Rapidio® Technology
    Technology White Paper System Interconnect Fabrics: Ethernet versus RapidIO® Technology By Greg Shippen, System Architect Freescale Semiconductor’s Digital Systems Division, NCSG Member, RapidIO Trade Association Technical Working Group and Steering Committee RapidIO® Trade Association - 3925 W. Braker Lane, Ste. 325 - Austin, Texas 78759 - 512.305.0070 Used by permission. Foreword An important trend in the embedded industry is the move from proprietary solutions toward standard interconnects and mechanicals (e.g. ATCA, Ethernet, RapidIO®). Traditionally, Ethernet is the incumbent interconnect technology for embedded systems, yet the existence of alternatives has been driven by the realization that some high-performance applications exceed the limits of this traditional protocol. The RapidIO standard, with growing switch, DSP and processor endpoint support, has been deployed in many applications and continues to gain widespread support. RapidIO is particularly popular in wireless infrastructure equipment, where DSP connectivity is critical. As Ethernet and RapidIO continue to evolve, a comprehensive review and comparison is needed to help designers evaluate and select the protocol that best suits their next-generation designs. This white paper, System Interconnect Fabrics: Ethernet Versus RapidIO Technology, is a comprehensive compilation of embedded interconnect information. It provides a high- level market perspective and delivers a detailed technical examination of these two technologies. The paper begins with a top-level description of market requirements for the logical, transport, and physical layers, then moves into a thorough discussion of each protocol. The author builds a foundation for comparison and discussion through an historical overview of both RapidIO and Ethernet. Understanding the origin of these two standards helps to clarify their current use in embedded applications.
    [Show full text]
  • Ethernet 95 Link Aggregation 102 Power Over Ethernet 107 Gigabit Ethernet 116 10 Gigabit Ethernet 121 100 Gigabit Ethernet 127
    Computer Networking PDF generated using the open source mwlib toolkit. See http://code.pediapress.com/ for more information. PDF generated at: Sat, 10 Dec 2011 02:24:44 UTC Contents Articles Networking 1 Computer networking 1 Computer network 16 Local area network 31 Campus area network 34 Metropolitan area network 35 Wide area network 36 Wi-Fi Hotspot 38 OSI Model 42 OSI model 42 Physical Layer 50 Media Access Control 52 Logical Link Control 54 Data Link Layer 56 Network Layer 60 Transport Layer 62 Session Layer 65 Presentation Layer 67 Application Layer 69 IEEE 802.1 72 IEEE 802.1D 72 Link Layer Discovery Protocol 73 Spanning tree protocol 75 IEEE 802.1p 85 IEEE 802.1Q 86 IEEE 802.1X 89 IEEE 802.3 95 Ethernet 95 Link aggregation 102 Power over Ethernet 107 Gigabit Ethernet 116 10 Gigabit Ethernet 121 100 Gigabit Ethernet 127 Standards 135 IP address 135 Transmission Control Protocol 141 Internet Protocol 158 IPv4 161 IPv4 address exhaustion 172 IPv6 182 Dynamic Host Configuration Protocol 193 Network address translation 202 Simple Network Management Protocol 212 Internet Protocol Suite 219 Internet Control Message Protocol 225 Internet Group Management Protocol 229 Simple Mail Transfer Protocol 232 Internet Message Access Protocol 241 Lightweight Directory Access Protocol 245 Routing 255 Routing 255 Static routing 260 Link-state routing protocol 261 Open Shortest Path First 265 Routing Information Protocol 278 IEEE 802.11 282 IEEE 802.11 282 IEEE 802.11 (legacy mode) 292 IEEE 802.11a-1999 293 IEEE 802.11b-1999 295 IEEE 802.11g-2003 297
    [Show full text]
  • Installing Template Theme Files
    100Gb/s Single Lambda Optics – Why ? Gary Nicholl, Principal Engineer, TMG Cisco OIDA 100GbE per Lambda for Data Center Workshop – June 12-13 2014 1 . Traffic growth continues at all levels . System implementation requires innovation on many technology fronts: - Optics, ASIC, Power, Thermals, PCB, Serdes, Memory, Packaging, …… . Optical technology is becoming one of the key challenges for many system implementers: - size, power and cost All optical technologies have matured (are maturing) over time to the lowest size, cost, power 100M1G10G40G(100G?) 2 . 100Gb/s Ethernet is in transition. For the past 4 years 100GbE has been primarily deployed as a core networking technology - A first for Ethernet - Port density/cost not the overriding factor - Well served by 100G-LR4 optics . 100Gb/s Ethernet is just starting to move into the data center switching space - Enabled by upcoming availability of high 100Gb/s port count merchant switching silicon - Port density/cost is now everything - Puts increased pressure on size, power, cost of 100Gb/s optics - Recent activities on 100G CWDM a response to this 3 . The cost of an optical module is dominated by cost of optical components and associated packaging. Reducing the optical lane width, reduces nowell_01_0911_NG100GOPTX the number of optical components and hence the cost . A single lambda solution is the solution with the lowest optical component count, and has historically resulted in the lowest cost nicholl_01_0112_NG100GOPTX . The discussion is not if 100Gb/s single lambda is compelling but when: . When is it technically feasible ? . How hard should we push to make it feasible ? . Do we need to do anything else in the interim ? 4 10 Gigabit Ethernet Initial industry focus was on 10GBase-LX4 (4x3.125G CWDM) Starting point Leverage 2.5G optics, 10G was too challenging/costly Industry conclusion packaging complexity kills CWDM vs.
    [Show full text]