DocumentCode :
759585
Title :
ATM in B-ISDN communication systems and VLSI realization
Author :
Koinuma, Takeo ; Miyaho, Noriharu
Author_Institution :
NTT Commun. Switching Labs., Tokyo, Japan
Volume :
30
Issue :
4
fYear :
1995
fDate :
4/1/1995 12:00:00 AM
Firstpage :
341
Lastpage :
347
Abstract :
The Asynchronous Transfer Mode (ATM) is considered to be a key technology for B-ISDN. This paper discusses VLSI trends and how VLSI´s can be applied to realize ATM switching node systems for B-ISDN. Implementing a practical ATM node system will require the development of technologies such as high-throughput ATM switch LSI´s with up to 10 Gb/s capacity and SDH termination technology based on optical fiber transmission. An ATM traffic-handling mechanism with Quality of Service (QoS) controls such as ATM layer performance monitoring, virtual channel handling, usage parameter control, and VP shaping requires several hundred thousand logic gates and several megabytes of high-speed static RAM; VLSI´s must be introduced if such mechanisms are to be implemented. ATM node system architecture is based on design principles of a building-block-type structure and hierarchical multiplexing. The basic ATM call handling module, the AHM, is composed mainly of a line termination block and a self-routing switch block; we analyzed this module from the viewpoint of the amount of hardware it requires. Finally, future ATM node systems are discussed on the basis of 0.2-μm VLSI development trends and hardware requirements such as the need for ultrahigh integration of logic gate with memory, multichip modules, and low power dissipation technology
Keywords :
B-ISDN; VLSI; asynchronous transfer mode; multiplexing; optical fibre communication; synchronous digital hierarchy; 0.2 micron; 10 Gbit/s; ATM; B-ISDN communication systems; SDH termination technology; VLSI realization; VLSI trends; asynchronous transfer mode; hardware requirements; hierarchical multiplexing; layer performance monitoring; line termination block; low power dissipation technology; multichip modules; optical fiber transmission; quality of service controls; self-routing switch block; switching node systems; traffic-handling mechanism; ultrahigh integration; usage parameter control; virtual channel handling; Asynchronous transfer mode; B-ISDN; Communication switching; Hardware; Logic gates; Optical switches; Quality of service; Shape control; Synchronous digital hierarchy; Very large scale integration;
fLanguage :
English
Journal_Title :
Solid-State Circuits, IEEE Journal of
Publisher :
ieee
ISSN :
0018-9200
Type :
jour
DOI :
10.1109/4.375951
Filename :
375951
Link To Document :
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