Design of Optical WDM Networks [electronic resource] : LAN, MAN and WAN Architectures /

Lo, soul! seest thou not God's purpose from the first? The earth to be spann'd, connected by net-work From Passage to India! Walt Whitman, "Leaves of Grass", 1900. The Internet is growing at a tremendous rate today. New services, such as telephony and multimedia, are being added to the pure data-delivery framework of yesterday. Such high demands on capacity could lead to a "bandwidth-crunch" at the core wide-area network resulting in degra­ dation of service quality. Fortunately, technological innovations have emerged which can provide relief to the end-user to overcome the In­ ternet's well-known delay and bandwidth limitations. At the physical layer, a major overhaul of existing networks has been envisaged from electronic media (such as twisted-pair and cable) to optical fibers - in the wide area, in the metropolitan area, and even in the local area set­ tings. In order to exploit the immense bandwidth potential of the optical fiber, interesting multiplexing techniques have been developed over the years. Wavelength division multiplexing (WDM) is such a promising tech­ nique in which multiple channels are operated along a single fiber si­ multaneously, each on a different wavelength. These channels can be independently modulated to accommodate dissimilar bit rates and data formats, if so desired. Thus, WDM carves up the huge bandwidth of an optical fiber into channels whose bandwidths (1-10 Gbps) are compati­ ble with peak electronic processing speed.

Saved in:
Bibliographic Details
Main Authors: Ramamurthy, Byrav. author., SpringerLink (Online service)
Format: Texto biblioteca
Language:eng
Published: Boston, MA : Springer US : Imprint: Springer, 2001
Subjects:Computer science., Computer communication systems., Mechanical engineering., Electrical engineering., Materials science., Computer Science., Computer Communication Networks., Electrical Engineering., Characterization and Evaluation of Materials., Mechanical Engineering.,
Online Access:http://dx.doi.org/10.1007/978-1-4615-1675-0
Tags: Add Tag
No Tags, Be the first to tag this record!
id KOHA-OAI-TEST:181278
record_format koha
institution COLPOS
collection Koha
country México
countrycode MX
component Bibliográfico
access En linea
En linea
databasecode cat-colpos
tag biblioteca
region America del Norte
libraryname Departamento de documentación y biblioteca de COLPOS
language eng
topic Computer science.
Computer communication systems.
Mechanical engineering.
Electrical engineering.
Materials science.
Computer Science.
Computer Communication Networks.
Electrical Engineering.
Characterization and Evaluation of Materials.
Mechanical Engineering.
Computer science.
Computer communication systems.
Mechanical engineering.
Electrical engineering.
Materials science.
Computer Science.
Computer Communication Networks.
Electrical Engineering.
Characterization and Evaluation of Materials.
Mechanical Engineering.
spellingShingle Computer science.
Computer communication systems.
Mechanical engineering.
Electrical engineering.
Materials science.
Computer Science.
Computer Communication Networks.
Electrical Engineering.
Characterization and Evaluation of Materials.
Mechanical Engineering.
Computer science.
Computer communication systems.
Mechanical engineering.
Electrical engineering.
Materials science.
Computer Science.
Computer Communication Networks.
Electrical Engineering.
Characterization and Evaluation of Materials.
Mechanical Engineering.
Ramamurthy, Byrav. author.
SpringerLink (Online service)
Design of Optical WDM Networks [electronic resource] : LAN, MAN and WAN Architectures /
description Lo, soul! seest thou not God's purpose from the first? The earth to be spann'd, connected by net-work From Passage to India! Walt Whitman, "Leaves of Grass", 1900. The Internet is growing at a tremendous rate today. New services, such as telephony and multimedia, are being added to the pure data-delivery framework of yesterday. Such high demands on capacity could lead to a "bandwidth-crunch" at the core wide-area network resulting in degra­ dation of service quality. Fortunately, technological innovations have emerged which can provide relief to the end-user to overcome the In­ ternet's well-known delay and bandwidth limitations. At the physical layer, a major overhaul of existing networks has been envisaged from electronic media (such as twisted-pair and cable) to optical fibers - in the wide area, in the metropolitan area, and even in the local area set­ tings. In order to exploit the immense bandwidth potential of the optical fiber, interesting multiplexing techniques have been developed over the years. Wavelength division multiplexing (WDM) is such a promising tech­ nique in which multiple channels are operated along a single fiber si­ multaneously, each on a different wavelength. These channels can be independently modulated to accommodate dissimilar bit rates and data formats, if so desired. Thus, WDM carves up the huge bandwidth of an optical fiber into channels whose bandwidths (1-10 Gbps) are compati­ ble with peak electronic processing speed.
format Texto
topic_facet Computer science.
Computer communication systems.
Mechanical engineering.
Electrical engineering.
Materials science.
Computer Science.
Computer Communication Networks.
Electrical Engineering.
Characterization and Evaluation of Materials.
Mechanical Engineering.
author Ramamurthy, Byrav. author.
SpringerLink (Online service)
author_facet Ramamurthy, Byrav. author.
SpringerLink (Online service)
author_sort Ramamurthy, Byrav. author.
title Design of Optical WDM Networks [electronic resource] : LAN, MAN and WAN Architectures /
title_short Design of Optical WDM Networks [electronic resource] : LAN, MAN and WAN Architectures /
title_full Design of Optical WDM Networks [electronic resource] : LAN, MAN and WAN Architectures /
title_fullStr Design of Optical WDM Networks [electronic resource] : LAN, MAN and WAN Architectures /
title_full_unstemmed Design of Optical WDM Networks [electronic resource] : LAN, MAN and WAN Architectures /
title_sort design of optical wdm networks [electronic resource] : lan, man and wan architectures /
publisher Boston, MA : Springer US : Imprint: Springer,
publishDate 2001
url http://dx.doi.org/10.1007/978-1-4615-1675-0
work_keys_str_mv AT ramamurthybyravauthor designofopticalwdmnetworkselectronicresourcelanmanandwanarchitectures
AT springerlinkonlineservice designofopticalwdmnetworkselectronicresourcelanmanandwanarchitectures
_version_ 1756264801606041600
spelling KOHA-OAI-TEST:1812782018-07-30T23:01:48ZDesign of Optical WDM Networks [electronic resource] : LAN, MAN and WAN Architectures / Ramamurthy, Byrav. author. SpringerLink (Online service) textBoston, MA : Springer US : Imprint: Springer,2001.engLo, soul! seest thou not God's purpose from the first? The earth to be spann'd, connected by net-work From Passage to India! Walt Whitman, "Leaves of Grass", 1900. The Internet is growing at a tremendous rate today. New services, such as telephony and multimedia, are being added to the pure data-delivery framework of yesterday. Such high demands on capacity could lead to a "bandwidth-crunch" at the core wide-area network resulting in degra­ dation of service quality. Fortunately, technological innovations have emerged which can provide relief to the end-user to overcome the In­ ternet's well-known delay and bandwidth limitations. At the physical layer, a major overhaul of existing networks has been envisaged from electronic media (such as twisted-pair and cable) to optical fibers - in the wide area, in the metropolitan area, and even in the local area set­ tings. In order to exploit the immense bandwidth potential of the optical fiber, interesting multiplexing techniques have been developed over the years. Wavelength division multiplexing (WDM) is such a promising tech­ nique in which multiple channels are operated along a single fiber si­ multaneously, each on a different wavelength. These channels can be independently modulated to accommodate dissimilar bit rates and data formats, if so desired. Thus, WDM carves up the huge bandwidth of an optical fiber into channels whose bandwidths (1-10 Gbps) are compati­ ble with peak electronic processing speed.1. Introduction -- 1.1 Optical Networks and WDM -- 1.2 Focus of This Book -- 1.3 Book Outline -- 2. Optical Network Devices -- 2.1 Introduction -- 2.2 Optical Fiber -- 2.3 Optical Amplifiers -- 2.4 Switching Elements -- 2.5 Physical Layer Issues and Limitations -- 2.6 Conclusion -- I LAN/MAN Architectures -- 3. Optimizing Amplifier Placements: The Equally-Powered Wavelengths Case -- 4. Optimizing Amplifier Placements: The Unequally-Powered Wavelengths Case -- II WAN Architectures -- 5. Wavelength Conversion -- 6. Impact of Transmission Impairments -- 7. Conclusions -- Appendices -- Switch Model -- EDFA Model -- References.Lo, soul! seest thou not God's purpose from the first? The earth to be spann'd, connected by net-work From Passage to India! Walt Whitman, "Leaves of Grass", 1900. The Internet is growing at a tremendous rate today. New services, such as telephony and multimedia, are being added to the pure data-delivery framework of yesterday. Such high demands on capacity could lead to a "bandwidth-crunch" at the core wide-area network resulting in degra­ dation of service quality. Fortunately, technological innovations have emerged which can provide relief to the end-user to overcome the In­ ternet's well-known delay and bandwidth limitations. At the physical layer, a major overhaul of existing networks has been envisaged from electronic media (such as twisted-pair and cable) to optical fibers - in the wide area, in the metropolitan area, and even in the local area set­ tings. In order to exploit the immense bandwidth potential of the optical fiber, interesting multiplexing techniques have been developed over the years. Wavelength division multiplexing (WDM) is such a promising tech­ nique in which multiple channels are operated along a single fiber si­ multaneously, each on a different wavelength. These channels can be independently modulated to accommodate dissimilar bit rates and data formats, if so desired. Thus, WDM carves up the huge bandwidth of an optical fiber into channels whose bandwidths (1-10 Gbps) are compati­ ble with peak electronic processing speed.Computer science.Computer communication systems.Mechanical engineering.Electrical engineering.Materials science.Computer Science.Computer Communication Networks.Electrical Engineering.Characterization and Evaluation of Materials.Mechanical Engineering.Springer eBookshttp://dx.doi.org/10.1007/978-1-4615-1675-0URN:ISBN:9781461516750