Optical Fiber Telecommunications Volume VIA
Components and Subsystems
- 6th Edition - May 13, 2013
- Latest edition
- Editors: Ivan Kaminow, Tingye Li, Alan E Willner
- Language: English
Optical Fiber Telecommunications VI (A&B) is the sixth in a series that has chronicled the progress in the R&D of lightwave communications since the early 1970s. Written b… Read more
Optical Fiber Telecommunications VI (A&B) is the sixth in a series that has chronicled the progress in the R&D of lightwave communications since the early 1970s. Written by active authorities from academia and industry, this edition brings a fresh look to many essential topics, including devices, subsystems, systems and networks. A central theme is the enabling of high-bandwidth communications in a cost-effective manner for the development of customer applications. These volumes are an ideal reference for R&D engineers and managers, optical systems implementers, university researchers and students, network operators, and investors.
Volume A is devoted to components and subsystems, including photonic integrated circuits, multicore and few-mode fibers, photonic crystals, silicon photonics, signal processing, and optical interconnections.
R&D engineers working on developing next generation optical components; fiber optic systems and network engineers; graduates and academic researchers
Dedication
Dedication 2
Preface—Overview of OFT VI A & B
Six Editions
OFT VI Volume A: Components and Subsystems
OFT VI Volume B: Systems and Networks
Chapter 1. Advances in Fiber Distributed-Feedback Lasers
1.1 Introduction
1.2 Fiber DFB Lasers
1.3 Summary and concluding remarks—outlook
References
Chapter 2. Semiconductor Photonic Integrated Circuit Transmitters and Receivers
2.1 Introduction
2.2 Technology
2.3 Devices based on on-off keying (OOK)
2.4 PICs based on advanced modulation formats
2.5 Future trends
References
Chapter 3. Advances in Photodetectors and Optical Receivers
3.1 Introduction
3.2 High-speed waveguide photodiodes
3.3 High-power photodiodes
3.4 Long-wavelength photodiodes on silicon
3.5 APDs
3.6 Conclusion
References
Chapter 4. Fundamentals of Photonic Crystals for Telecom Applications—Photonic Crystal Lasers
4.1 Introduction
4.2 Ultimate Nanolasers
4.3 Broad-Area Coherent Lasers
4.4 Conclusion
References
Chapter 5. High-Speed Polymer Optical Modulators
5.1 Introduction
5.2 Material design
5.3 EO Material characterization
5.4 Fundamental EO Performance Characterization
5.5 Device Design
5.6 Wafer Fabrication
5.7 Conclusion
References
Chapter 6. Nanophotonics for Low-Power Switches
6.1 Introduction
6.2 Existing and Emerging Materials
6.3 Switches
6.4 Summary and Conclusions
References
Chapter 7. Fibers for Short-Distance Applications
7.1 Introduction
7.2 Theory of Light Propagation in Multimode Fibers
7.3 Characterization of MM Fiber and Sources for High Data Rate Applications
7.4 System Models and Measurements for 1Gb and 10Gb Ethernet
7.5 Bend-Insensitive MM Fiber
7.6 Current and Future Directions for Optical Fibers for Short-Reach Applications
Appendix A
References
Chapter 8. Few-Mode Fiber Technology for Spatial Multiplexing
8.1 Motivation
8.2 Modal Structure of Fiber Designs
8.3 Fiber Designs Optimized for Few-Mode Transmission
8.4 Measurement of Few-Mode Fiber
8.5 Future perspective
References
Chapter 9. Multi-Core Optical Fibers
9.1 Introduction
9.2 Inter-Core Crosstalk
9.3 Cutoff Wavelength Variation Due to Effects of Surrounding Cores
9.4 Efficient Utilization of Fiber Cross-Sectional Area
9.5 Conclusion
References
Chapter 10. Plastic Optical Fibers and Gb/s Data Links
10.1 Introduction
10.2 Structure and Fabrication of Plastic Optical Fiber
10.3 Attenuation of Plastic Optical Fiber
10.4 Bandwidth of Plastic Optical Fiber
10.5 Application and Future Prospect of Plastic Optical Fiber
References
Chapter 11. Integrated and Hybrid Photonics for High-Performance Interconnects
11.1 Introduction
11.2 Components
11.3 Architectures
11.4 Outlook
References
Chapter 12. CMOS Photonics for High Performance Interconnects
12.1 On-Chip Interconnects and Power—A System Architect’s View
12.2 Photonic Network Architecture
12.3 Future Core-to-DRAM Photonic Networks
References
Chapter 13. Hybrid Silicon Lasers
13.1 Introduction to Hybrid Silicon Lasers
13.2 Design of Hybrid Silicon Lasers
13.3 Wafer Bonding Techniques and Fabrication
13.4 Experimental Results
13.5 Reliability
13.6 Specialized Hybrid Lasers and System Demonstrations
13.7 Conclusions
References
Chapter 14. VCSEL-Based Data Links
14.1 Introduction
14.2 850nm VCSELs
14.3 Long Wavelength VCSELs (1.3–1.6μM)
14.4 Data Rates >28Gb/s
14.5 Optical Interconnect Technology
14.6 Comparison of VCSELs and Silicon Photonics
14.7 Conclusions
References
Chapter 15. Implementation Aspects of Coherent Transmit and Receive Functions in Application-Specific Integrated Circuits
15.1 Introduction
15.2 ASIC Design Options and Limitations
15.3 High-Speed Data Converters
15.4 Implementation of Signal Processing Algorithms at High Speed
15.5 Soft-FEC Implementation at Data Rates of 100G or Higher
15.6 Performance Evaluation of Different Coding Concepts
15.7 Conclusion
References
Chapter 16. All-Optical Regeneration of Phase Encoded Signals: Phase Sensitive Optical Regeneration
16.1 Introduction
16.2 Approaches to Regeneration of Phase Encoded Signals
16.3 PSA-Based Phase Regeneration
16.4 Black-Box PSA-Based BPSK Regeneration
16.5 MPSK Phase Regeneration
16.6 Choice of Nonlinear Materials and Designs for All-Optical Signal Processing
16.7 Future Trends and Research Directions
16.8 Conclusions
References
Chapter 17. Ultra-High-Speed Optical Time Division Multiplexing
17.1 Background
17.2 The Basic OTDM System and its Constituent Parts
17.3 Silicon Photonics and Ultra-Fast Optical Signal Processing
17.4 Energy Perspectives and Potential Applications
17.5 Summary
References
Chapter 18. Technology and Applications of Liquid Crystal on Silicon (LCoS) in Telecommunications
18.1 Introduction
18.2 ROADMs and Reconfigurable Optical Networks
18.3 Background and Technology of LCoS
18.4 LCoS-based Wavelength-Selective Switching
18.5 Future Networks
18.6 Emerging Applications of LCoS
References
Index
- Edition: 6
- Latest edition
- Published: May 13, 2013
- Language: English
IK
Ivan Kaminow
Ivan Kaminow retired from Bell Labs in 1996 after a 42-year career. He conducted seminal studies on electrooptic modulators and materials, Raman scattering in ferroelectrics, integrated optics, semiconductor lasers (DBR, ridge-waveguide InGaAsP and multi-frequency), birefringent optical fibers, and WDM networks. Later, he led research on WDM components (EDFAs, AWGs and fiber Fabry-Perot Filters), and on WDM local and wide area networks. He is a member of the National Academy of Engineering and a recipient of the IEEE Edison Medal, OSA Ives Medal, and IEEE Photonics Award. Since 2004, he has been Adjunct Professor of Electrical Engineering at the University of California, Berkeley.
Ivan Kaminow retired from Bell Labs in 1996 after a 42-year career. He conducted seminal studies on electrooptic modulators and materials, Raman scattering in ferroelectrics, integrated optics, semiconductor lasers (DBR , ridge-waveguide InGaAsP and multi-frequency), birefringent optical fibers, and WDM networks. Later, he led research on WDM components (EDFAs, AWGs and fiber Fabry-Perot Filters), and on WDM local and wide area networks. He is a member of the National Academy of Engineering and a recipient of the IEEE/OSA John Tyndall, OSA Charles Townes and IEEE/LEOS Quantum Electronics Awards. Since 2004, he has been Adjunct Professor of Electrical Engineering at the University of California, Berkeley.
Affiliations and expertise
Formerly AT&T Bell Laboratories, Inc., now at University of California, Berkeley, USATL
Tingye Li
Tingye Li (July 1931- Dec. 2012) retired from AT&T in 1998 after a 41-year career at Bell Labs and AT&T Labs. His seminal work on laser resonator modes is considered a classic. Since the late 1960s, he and his groups had conducted pioneering studies on lightwave technologies and systems. He led the work on amplified WDM transmission systems and championed their deployment for upgrading network capacity. He was a member of the National Academy of Engineering and a foreign member of the Chinese Academy of Engineering. He was a recipient of the IEEE Edison Medal, OSA Ives Medal, IEEE Photonics Award, and IEEE David Sarnoff Award. He had served as President of the OSA.
AW
Alan E Willner
Alan Willner has worked at AT&T Bell Labs and Bellcore, and he is the Steven & Kathryn Sample Chair in Engineering at the University of Southern California. He received the Int'l Fellow of the U.K. Royal Academy of Engineering, NSF Presidential Faculty Fellows Award from the White House, Packard Foundation Fellowship, Guggenheim Fellowship, OSA Engineering Excellence Award, and IEEE Photonics Society Engineering Achievement Award. He has served as Co-Chair of the U.S. National Academies Study on Optics and Photonics, President of the IEEE Photonics Society, Editor-in-Chief of Optics Letters and IEEE/OSA Journal of Lightwave Technology, and Co-Chair of OSA Science & Engineering Council.
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