Survivable Optical WDM Networks

This book investigates different approaches for designing and operating an optical network with the objectives that (1) more connections can be carried by a given network, leading to more revenue, and (2) connections can recover faster in case of failures, leading to better services. The book covers different networks and proposes different approaches to explore every aspect of a protection scheme. Tradeoffs between different objectives, e.g., resource efficiency vs. recovery time, are explored and practical approaches are proposed and analyzed.

Survivable Optical WDM Networks investigates different approaches for designing and operating an optical network with the objectives that (1) more connections can be carried by a given network, leading to more revenue, and (2) connections can recover faster in case of failures, leading to better services. Different networks wavelength-routed WDM networks, wavelength-routed WDM networks with sub-wavelength granularity grooming, and data over next-generation SONET/SDH over WDM networks are covered. Different approaches are proposed to explore every aspect of a protection scheme such as:

(1) Protection granularity: a. At wavelength granularity. b. At sub-wavelength granularity

(2) Protection entity: a. Path protection. b. Sub-path protection. c. Segment protection.

(3) Routing: a. Single-path routing. b. Multi-path routing.

Tradeoffs between different objectives, e.g., resource efficiency vs. recovery time, are explored and practical approaches are proposed and analyzed.

Shared-mesh protection for optical WDM networks Survivable traffic grooming for hierarchical optical WDM networks Survivable data over next-generation SONET/SDH with inverse multiplexing

Auteur

Canhui (Sam) Ou received a Ph.D. degree from the University of California, Davis, in 2004. His technical interests include WDM networks, MPLS, optical Ethernet, and FTTx. He is a Principal Member of Technical Staff at SBC Communications, Inc. He worked at Sprint Advanced Technology Laboratories and Fujitsu Laboratories of America as an intern.

Biswanath Mukherjee received a Ph.D. degree from University of Washington, Seattle, in 1987. In 1987, he joined the University of California, Davis, where he has been Professor of computer science since 1995, and served as Chairman of computer science during 1997-2000. He is author of Optical Communication Networks book. He is a Member of the Board of Directors of IPLocks, a Silicon Valley startup company. He has consulted for and served on the Technical Advisory Board of a number of startup companies in optical networking. His research interests include lightwave networks, network security, and wireless networks. Dr. Mukherjee is winner of the 2004 Distinguished Graduate Mentoring Award from UC Davis. He serves or has served on the Editorial Boards of the IEEE/ACM Transactions on Networking, IEEE Network, ACM/Baltzer Wireless Networks (WINET), Photonic Network Communications, and others. He also served as Editor-at-Large for optical networking and communications for the IEEE Communications Society. He served as the Technical Program Chair of the IEEE INFOCOM'96 Conference.

Texte du rabat

Survivable Optical WDM Networks investigates different approaches for designing and operating an optical network with the objectives that (1) more connections can be carried by a given network, leading to more revenue, and (2) connections can recover faster in case of failures, leading to better services. Different networks -- wavelength-routed WDM networks, wavelength-routed WDM networks with sub-wavelength granularity grooming, and data over next-generation SONET/SDH over WDM networks -- are covered. Different approaches are proposed to explore every aspect of a protection scheme such as:

(1) Protection granularity

a. At wavelength granularity

b. At sub-wavelength granularity

(2) Protection entity

a. Path protection

b. Sub-path protection

c. Segment protection

(3) Routing

a. Single-path routing

b. Multi-path routing

Tradeoffs between different objectives, e.g., resource efficiency vs. recovery time, are explored and practical approaches are proposed and analyzed.

Canhui (Sam) Ou received a Ph.D. degree from the University of California, Davis, in 2004. His technical interests include WDM networks, MPLS, optical Ethernet, and FTTx. He is a Principal Member of Technical Staff at SBC Communications, Inc. He worked at Sprint Advanced Technology Laboratories and Fujitsu Laboratories of America as an intern.

Biswanath Mukherjee received a Ph.D. degree from University of Washington, Seattle, in 1987. In 1987, he joined the University of California, Davis, where he has been Professor of computer science since 1995, and served as Chairman of computer science during 1997-2000. He is author of Optical Communication Networks book. He is a Member of the Board of Directors of IPLocks, a Silicon Valley startupcompany. He has consulted for and served on the Technical Advisory Board of a number of startup companies in optical networking. His research interests include lightwave networks, network security, and wireless networks. Dr. Mukherjee is winner of the 2004 Distinguished Graduate Mentoring Award from UC Davis. He serves or has served on the Editorial Boards of the IEEE/ACM Transactions on Networking, IEEE Network, ACM/Baltzer Wireless Networks (WINET), Photonic Network Communications, and others. He also served as Editor-at-Large for optical networking and communications for the IEEE Communications Society. He served as the Technical Program Chair of the IEEE INFOCOM'96 Conference.

Résumé

Survivable Optical WDM Networks investigates different approaches for designing and operating an optical network with the objectives that (1) more connections can be carried by a given network, leading to more revenue, and (2) connections can recover faster in case of failures, leading to better services. Different networks wavelength-routed WDM networks, wavelength-routed WDM networks with sub-wavelength granularity grooming, and data over next-generation SONET/SDH over WDM networks are covered. Different approaches are proposed to explore every aspect of a protection scheme such as:

(1) Protection granularity: a. At wavelength granularity. b. At sub-wavelength granularity

(2) Protection entity: a. Path protection. b. Sub-path protection. c. Segment protection.

(3) Routing: a. Single-path routing. b. Multi-path routing.

Tradeoffs between different objectives, e.g., resource efficiency vs. recovery time, are explored and practical approaches are proposed and analyzed.

Contenu
Shared-Path Protection for Resource Efficiency.- Sub-Path Protection for Scalability and Fast Recovery.- Segment Protection for Bandwidth Efficiency and Differentiated Quality of Protection.- Survivable Traffic Grooming-Dedicated Protection.- Survivable Traffic Grooming-Shared Protection.- Survivable Virtual Concatenation for Data Over Sonet/Sdh.