Optical Fiber Telecommunications IIIThomas L. Koch Updated to include the latest information on light wave technology, Optical Fiber Telecommunication III, Volumes A & B are invaluable for scientists, students, and engineers in the modern telecommunications industry. This two-volume set includes the most current research available in optical fiber telecommunications, light wave technology, and photonics/optoelectronics. The authors cover important background concepts such as SONET, coding device technology, andWOM components as well as projecting the trends in telecommunications for the 21st century. Key Features* One of the hottest subjects of today's technology* Includes the most up-to-date research available in optical fiber telecommunications* Projects the trends in telecommunications for the 21st century |
Contents
13 | |
42 | |
Chapter 4 Advances in Fiber Design and Processing | 63 |
Chapter 5 Advances in Cable Design | 92 |
Chapter 6 Polarization Effects in Lightwave Systems | 114 |
Chapter 7 Dispersion Compensation for Optical Fiber Systems | 162 |
Chapter 8 Fiber Nonlinearities and Their Impact on Transmission Systems | 196 |
Chapter 9 Terrestrial Amplified Lightwave System Design | 265 |
Chapter 10 Undersea Amplified Lightwave Systems Design | 302 |
Chapter 11 Advances in High BitRate Transmission Systems | 336 |
Chapter 12 Solitons in High BitRate LongDistance Transmission | 373 |
Chapter 13 A Survey of Fiber Optics in Local Access Architectures | 461 |
Chapter 14 Lightwave Analog Video Transmission | 523 |
Chapter 15 Advanced Multiaccess Lightwave Networks | 560 |
595 | |
Other editions - View all
Optical Fiber Telecommunications III, Volume 1 Ivan P. Kaminow,Thomas L. Koch No preview available - 1997 |
Common terms and phrases
allow amplifier analog applications architecture average bandwidth become cable caused channels Chapter chromatic circuit communications compensation components connections cost dependence described devices direct discussed dispersion distance distortion distribution EDFA effects Electron energy equal erbium error example experiment factor field Figure filters frequency function gain Gb/s given important increase input integrated laser length less Lett light lightwave lightwave systems Lightwave Tech limit linear loss measured mixing mode modulation multiplexing noise nonlinear Note operation optical amplifier optical fiber output path performance phase polarization pulse receiver reduced result ring shift shown shows signal single soliton spacing span spectral spectrum standard switch techniques term terminal tion transmission transmitter unit wave wavelength