DocumentCode
1833325
Title
A theoretical network model and the Hamming cube networks
Author
Das, Sajal K. ; Mao, Aisheng
Author_Institution
Dept. of Comput. Sci., North Texas Univ., Denton, TX, USA
fYear
1994
fDate
26-29 Apr 1994
Firstpage
18
Lastpage
22
Abstract
We introduce a network model, called the Hamming group, which can be used to generate several important classes of hypercube-like topologies. The Hamming group is a specific group for which the Hamming-distance relations are used as the generators. This model enhanced with the unit incremental capability provides a framework for generating many possible supergraphs of incomplete hypercubes, having an arbitrary number of nodes. In particular, we derive from our model a new family of succinctly representable and labeled networks, called the Hamming cubes (HC´s). These networks can recursively grow from the existing ones with the increment of one node at a time, have half of logarithmic diameter and are easily decomposable. Simple routing schemes are designed for Hamming cubes, which are optimally fault-tolerant since the node-connectivity is equal to the minimum degree. With respect to several topological and performance parameters, Hamming cubes are strong competitors of binary hypercubes or folded hypercubes
Keywords
fault tolerant computing; graph theory; hypercube networks; network routing; parallel architectures; Hamming cube networks; Hamming cubes; Hamming group; Hamming-distance relations; binary hypercubes; folded hypercubes; hypercube-like topologies; incomplete hypercubes; labeled networks; logarithmic diameter; node-connectivity; optimally fault-tolerant; performance parameters; routing schemes; supergraphs; theoretical network model; Computer science; Costs; Fault tolerance; Hypercubes; Multiprocessor interconnection networks; Network topology; Routing; Terminology;
fLanguage
English
Publisher
ieee
Conference_Titel
Parallel Processing Symposium, 1994. Proceedings., Eighth International
Conference_Location
Cancun
Print_ISBN
0-8186-5602-6
Type
conf
DOI
10.1109/IPPS.1994.288324
Filename
288324
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