Components for WDM lightwave networks

被引:108
作者
Borella, MS
Jue, JP
Banerjee, D
Ramamurthy, B
Mukherjee, B
机构
[1] UNIV CALIF DAVIS, DEPT ELECT & COMP ENGN, DAVIS, CA 95616 USA
[2] HEWLETT PACKARD CORP, ROSEVILLE, CA 95747 USA
[3] UNIV CALIF DAVIS, DEPT COMP SCI, DAVIS, CA 95616 USA
基金
美国国家科学基金会;
关键词
device issues; experimental systems; lightwave network; tunable transmitter; wavelength converter; wavelength-division multiplexing;
D O I
10.1109/5.622506
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
Recently, there has been growing interest in developing optical fiber networks to support the increasing bandwidth demands of multimedia applications, such as video conferencing and World Wide Web browsing. One technique for accessing the huge bandwidth available in an optical fiber is wavelength-division multiplexing (WDM). Under WDM, the optical fiber bandwidth is divided into a number of nonoverlapping wavelength bands, each of which may be accessed at peak electronic rates by an end user. By utilizing WDM in optical networks, we can achieve link capacities on the order of 50 THz. The success of WDM networks depends heavily on the available optical device technology. This paper is intended as a tutorial on some of the optical device issues in WDM networks. It discusses the basic principles of optical transmission in fiber and reviews the current state of the art in optical device technology. It introduces some of the basic components in WDM networks, discusses various implementations of these components, and provides insights into their capabilities and limitations. Then, this paper demonstrates how various optical components can be incorporated into WDM optical networks for both local and wide-area applications. Last, the paper provides a brief review of experimental WDM networks that have been implemented.
引用
收藏
页码:1274 / 1307
页数:34
相关论文
共 97 条
[1]  
Agrawal G, 1989, Nonlinear Fiber Optics
[2]   A PRECOMPETITIVE CONSORTIUM ON WIDE-BAND ALL-OPTICAL NETWORKS [J].
ALEXANDER, SB ;
BONDURANT, RS ;
BYRNE, D ;
CHAN, VWS ;
FINN, SG ;
GALLAGER, R ;
GLANCE, BS ;
HAUS, HA ;
HUMBLET, P ;
JAIN, R ;
KAMINOW, IP ;
KAROL, M ;
KENNEDY, RS ;
KIRBY, A ;
LE, HQ ;
SALEH, AAM ;
SCHOFIELD, BA ;
SHAPIRO, JH ;
SHANKARANARAYANAN, NK ;
THOMAS, RE ;
WILLIAMSON, RC ;
WILSON, RW .
JOURNAL OF LIGHTWAVE TECHNOLOGY, 1993, 11 (5-6) :714-735
[3]  
ALFERNESS RC, 1988, GUIDED WAVE OPTOELEC, pCH4
[4]  
ANDERSON D, 1995, OFC 95 TECH DIG SAN, V8, P185
[5]   Temperature compensation scheme for refractive index grating-based optical fiber devices [J].
Arya, V ;
Sherrer, DW ;
Wang, AB ;
Claus, RO .
SELF-CALIBRATED INTELLIGENT OPTICAL SENSORS AND SYSTEMS, 1996, 2594 :52-59
[6]   A practical approach for routing and wavelength assignment in large wavelength-routed optical networks [J].
Banerjee, D ;
Mukherjee, B .
IEEE JOURNAL ON SELECTED AREAS IN COMMUNICATIONS, 1996, 14 (05) :903-908
[7]   All-optical network consortium - Ultrafast TDM networks [J].
Barry, RA ;
Chan, VWS ;
Hall, KL ;
Kintzer, ES ;
Moores, JD ;
Rauschenbach, KA ;
Swanson, EA ;
Adams, LE ;
Doerr, CR ;
Finn, SG ;
Haus, HA ;
Ippen, EP ;
Wong, WS ;
Haner, M .
IEEE JOURNAL ON SELECTED AREAS IN COMMUNICATIONS, 1996, 14 (05) :999-1013
[8]   PHOTONIC PACKET SWITCHES - ARCHITECTURES AND EXPERIMENTAL IMPLEMENTATIONS [J].
BLUMENTHAL, DJ ;
PRUCNAL, PR ;
SAUER, JR .
PROCEEDINGS OF THE IEEE, 1994, 82 (11) :1650-1667
[9]   DENSE WAVELENGTH DIVISION MULTIPLEXING NETWORKS - PRINCIPLES AND APPLICATIONS [J].
BRACKETT, CA .
IEEE JOURNAL ON SELECTED AREAS IN COMMUNICATIONS, 1990, 8 (06) :948-964
[10]  
BRADLEY E, 1994, P IEEE LEOS 94 SUMM, P57