光纤波分复用

S. Gunn
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引用次数: 1

摘要

概述了波分复用(WDM)作为光纤系统中扩展通信容量和实现特殊数据技术的一种手段。该技术是通过在光传输位置添加不同波长的光源,然后混合(多路复用)光信号并将其耦合到光纤中,然后它们传输到另一个位置来实现的。然后将光波长分离(解复用)并由光学接收器检测。基本上,波长在0.7和1.6 μ m之间的宽频带存在于WDM应用中。随着可预见的红外光纤的发展,更宽的带宽将可用。涵盖的主题包括WDM的当前和未来应用,WDM半导体激光器/发射机的当前可用性,光纤抽头和耦合器,波长复用/解复用方法,以及WDM在局域网中的使用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Optical fibre wavelength division multiplexing
An overview is given of wave-length division multiplexing (WDM) as a means of expanding communication capacity and implementing special data techniques in a fiber-optic system. This technology is implemented by adding optical sources of different wavelengths at optical transmitting locations, then mixing (multiplexing) the optical signals and coupling them into an optical fiber where they travel to another location. The optical wavelengths are then separated (demultiplexed) and detected by optical receivers. Fundamentally, a wide band of wavelengths between 0.7 and 1.6 mu m exists for WDM applications. Even wider bandwidths will be available with the foreseeable development of infrared fibers. Topics covered include current and future applications of WDM, the current availability of WDM semiconductor laser/transmitters, optical-fiber taps and couplers, wavelength multiplexing/demultiplexing methods, and the use of WDM in local area networks.<>
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