Erbium-Doped Fiber Amplifiers: Fundamentals and TechnologyErbium Fiber Amplifiers is a comprehensive introduction to the increasingly important topic of optical amplification. Written by three Bell Labs pioneers, the book stresses the importance of the interrelation of materials properties, optical properties, and systems aspects of optical fiber amplifiers. All disc-based content for this title is now available on the Web. Key Features* Explains the theory of noise in optically amplified systems in an intuitive way * The book contains a discussion of components used in amplifier fabrication and of the attendant technologies used in real systems * The book provides basic tools for amplifier design as well as systems engineering, including the latest developments in WDM and soliton systems * The book discusses the fundamentals of rare earth ions for the reader desiring more depth in the topic * The book is for either the novice of experienced reader * The chapter have links between them to allow the reader to understand the relationship between the amplifier characteristics, noise, and systems applications * The book contains extensive references |
Contents
1 | |
13 | |
CHAPTER 3 COMPONENTS AND INTEGRATION | 43 |
CHAPTER 4 RARE EARTH IONS INTRODUCTORY SURVEY | 87 |
CHAPTER 5 ERBIUMDOPED FIBER AMPLIFIERS AMPLIFIER BASICS | 131 |
CHAPTER 6 ERBIUMDOPED FIBER AMPLIFIERS MODELING AND COMPLEX EFFECTS | 153 |
CHAPTER 7 OPTICAL AMPLIFIERS IN FIBER OPTIC COMMUNICATION SYSTEMS THEORY | 201 |
CHAPTER 8 AMPLIFIER CHARACTERIZATION AND DESIGN ISSUES | 251 |
Other editions - View all
Erbium-doped Fiber Amplifiers: Fundamentals and Technology, Volume 1 P. C. Becker,N. A. Olsson,Jay R. Simpson No preview available - 1999 |
Common terms and phrases
absorption Applications bandwidth channels Chapter components Conference on Optical configuration core cross section demonstrated Digest Series Optical discussed dispersion distance distribution doped effect Elect emission energy equal equation erbium erbium-doped fiber amplifier experiment field Figure filter first frequency function gain Gb/s given glass higher host IEEE Phot increase input intensity inversion ions laser length Lett light loop loss measured method mode modulation nm pump noise figure obtained operation Optical Amplifiers Optical Fiber Communication OSA Technical Digest output output power parameters performance photons polarization population pulse pump power rare earth receiver reduced reference result saturation Series Optical Society shown in Figure shows signal silica simulations single Society of America soliton span spectral spectrum Tech Technical Digest Series transition transmission typical values Washington wavelength