SC443 - Optical Amplifiers: From Fundamental Principles to Technology Trends
Monday, 12 March
08:30 - 12:30
Short Course Level: Beginner and Advanced Beginner
Instructor: Michael Vasilyev1 ,Shu Namiki2 ;1University of Texas at Arlington,USA ; 2National Institute of Advanced Industrial Science and Technology (AIST), Japan
Short Course Description:
Optical amplification is a key enabler of modern optical communication systems. Not only do optical amplifiers eliminate the need for electronic repeaters between the fiber spans, but they also do it in a cost-effective way by simultaneously processing a large number of optical channels. The steady progress in optical amplifiers has broadened their gain windows, enabled distributed amplification, reached beyond the 3-dB quantum limit of noise figure, and led to novel signal-processing schemes.
This course aims at providing a comprehensive and consistent understanding of various optical amplification technologies from a physical point of view. It will first describe stimulated emission processes as the operating principle of optical amplification, then review optical amplifier technologies used for optical communication systems and networks. It will identify the basic roles and key parameters of the optical amplifiers in communication systems, as well as classify the amplifiers into lump or distributed, phase-insensitive or phase-sensitive, etc. The course will then describe several optical amplifier platforms, discuss the main properties and practical considerations of each, and introduce future trends in amplification technology.
Short Course Benefits:
This course will enable you to:
Define the roles of optical amplifiers in optical communication networks.
List the key parameters of optical amplifiers important for system design.
Identify the stimulated emission phenomenon as the common physical process for optical amplification.
Explain the difference between phase-insensitive amplifiers (PIAs) and phase-sensitive amplifiers (PSAs).
List several material platforms of optical amplification and key differences in their performances and characteristics.
Discuss optical amplification technologies such as erbium-doped fiber amplifier (EDFA), fiber Raman amplifier (FRA), semiconductor optical amplifier (SOA), and fiber-optical parametric amplifier (FOPA).
Describe the practical issues of each of the optical amplification technologies listed above.
Grasp an insight into future trends in research and development of optical communication enabled by advances in optical amplification technologies.
Short Course Audience:
This course is intended for a diverse audience including newcomers to the field of optical fiber communication, and especially for lightwave system engineers and opto-electronic sub-system designers. Some basic knowledge of optical fiber communication technologies will help in better understanding the course but is not a prerequisite.
Michael Vasilyev is a Professor of Electrical Engineering at the University of Texas at Arlington. He received Ph.D. from Northwestern University. Prior to joining the academia, he was a senior research scientist at Corning, Inc., where he investigated noise and nonlinearities in EDFAs and Raman amplifiers to optimize ultra-long-haul transmission systems. Prof. Vasilyev’s research interests include novel optical amplifiers, nonlinear-optical signal processing, quantum communications, and nanophotonics. He is a Fellow of the OSA and has over 180 publications and holds 10 patents.
Shu Namiki is the Director of Data Photonics Project Unit of the National Institute of Advanced Industrial Science and Technology (AIST), Tsukuba, Japan. He is also serving as Chair of the Executive Committee of a national project called “Vertically Integrated Center for Technologies of Optical Routing toward Ideal Energy Savings (VICTORIES)” in collaboration with ten telecom-related companies. He was previously a Principal Research Scientist at Furukawa Electric Co. Ltd., where he developed award-winning high-power pump lasers, and patented multi-wavelength-pumped fiber Raman amplifiers. From 1994 to 1997, he was a Visiting Scientist at the Massachusetts Institute of Technology, where he studied mode-locked fiber lasers and ultra-short pulses in fiber. His current research interests include software defined dynamic optical path networking and their enabling devices such as nonlinear fiber-optics and silicon photonics. Dr. Namiki is a Fellow of OSA, and has co-authored more than 450 conference presentations, papers, book chapters, articles, and patents.