DocumentCode
2397190
Title
A neural algorithm for reconstructing mesh-connected processor arrays using single-track switches
Author
Takanami, Itsuo ; Kurata, Kazushi ; Watanabe, Takahiro
Author_Institution
Dept. of Comput. Sci., Iwate Univ., Morioka, Japan
fYear
1995
fDate
18-20 Jan 1995
Firstpage
101
Lastpage
110
Abstract
To overcome faults in mesh-connected processor arrays, a number of reconfiguration schemes have been studied in the literature. One of them, the mesh-connected processor arrays model based on single-track switches, has been proposed in. The model has the advantage of its inherent simplicity of the routing hardware. So far, some algorithms have been proposed to solve the problem of reconfiguration for this model. For example, a polynomial time algorithm has been presented. However, it needs global information on fault distribution and it seems to be a troublesome job to implement the algorithm even by software while it may be impossible to implement it by hardware. In this paper, using a Hopfield-type neural network model, we present an algorithm for reconstructing the mesh-connected processor arrays using single-track switches and show its effectiveness by computer simulation. Furthermore, we present a hardware implementation of the neural algorithm by which a self-repair system can be realized
Keywords
Hopfield neural nets; fault tolerant computing; parallel architectures; reconfigurable architectures; wafer-scale integration; Hopfield-type neural network model; computer simulation; fault distribution; mesh-connected processor arrays; neural algorithm; reconfiguration; reconstruction; routing hardware; self-repair system; single-track switches; Circuit faults; Computer science; Hardware; Hopfield neural networks; Integrated circuit interconnections; Neural networks; Routing; Switches; Very large scale integration; Wafer scale integration;
fLanguage
English
Publisher
ieee
Conference_Titel
Wafer Scale Integration, 1995. Proceedings., Seventh Annual IEEE International Conference on
Conference_Location
San Francisco, CA
Print_ISBN
0-7803-2467-6
Type
conf
DOI
10.1109/ICWSI.1995.515443
Filename
515443
Link To Document