DocumentCode
2035467
Title
Modeling and simulation of a fault tolerant ATM switching architecture
Author
Anan, Muhammad ; Guizani, Mohsen
fYear
2000
fDate
2000
Firstpage
42
Lastpage
47
Abstract
Multistage interconnection networks (MINs) have been proposed as the switching fabrics for B-ISDN. With the throughput requirement of the packet switches exceeding several gigabits/sec, it becomes important to make them fault tolerant. To provide fault tolerance and improve network performance, a new fault-tolerant, self-routing, and high performance switching architecture for ATM networks based on MINs is proposed. It consists of two closely linked Banyan networks. Links are provided at every stage to allow cells to transfer to and from each plane. The performance and the reliability of the proposed architecture is compared to the other networks. The proposed network has low cell loss rate probabilities than other networks for both fault-free and faulty environments. Routing is kept simple as in basic MINs. Furthermore, the proposed switch architecture is modular in its design making it ideal for VLSI implementation
Keywords
B-ISDN; asynchronous transfer mode; computer network reliability; digital simulation; multistage interconnection networks; packet switching; performance evaluation; telecommunication computing; ATM networks; B-ISDN; Banyan networks; VLSI; cell loss rate probabilities; fault tolerant ATM switching; modeling; multistage interconnection networks; network performance; network routing; packet switches; performance; reliability; self-routing switching architecture; simulation; throughput requirement; Asynchronous transfer mode; B-ISDN; Fabrics; Fault tolerance; Multiprocessor interconnection networks; Packet switching; Routing; Switches; Throughput; Very large scale integration;
fLanguage
English
Publisher
ieee
Conference_Titel
Simulation Symposium, 2000. (SS 2000) Proceedings. 33rd Annual
Conference_Location
Washington, DC
ISSN
1080-241X
Print_ISBN
0-7695-0598-8
Type
conf
DOI
10.1109/SIMSYM.2000.844899
Filename
844899
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