DocumentCode :
2522163
Title :
Evolvable hardware for fault-tolerant applications
Author :
Ortega, Cesar ; Tyrrell, Andy
Author_Institution :
Dept. of Electron., York Univ., UK
fYear :
1998
fDate :
35857
Firstpage :
42461
Lastpage :
42465
Abstract :
Evolution is perceived by the change of state in a dynamic complex system. In this broader sense, we can apply the attribute “evolvable” to numerous man-made systems whose configuration or response is influenced by the environment. Genetic algorithms, neural networks, artificial intelligence projects and embryonics can all be classified as evolvable systems. By adopting the mechanisms underlying the developmental process of embryos, embryonic systems present interesting characteristics that make them an attractive alternative for the design of fault-tolerant systems. The embryonics approach is coherent with a recent rise in the interest shown by the scientific community for applying biological concepts to the solution of engineering problems. We demonstrate with an example that embryonic systems posses the attribute of fault tolerance in the same way as biological systems do. In multicellular organisms, the failure (death) of one cell does not impact on the overall functionality of the tissue/organ/limb affected because of the tremendous amount of redundant elements available. If a cell or small group of cells die, their function is replaced by their healthy neighbours. Embryonic arrays seem to successfully mimic this mechanism. We still are in the early stages of the embryonics project, but the results obtained so far are encouraging to keep investigating on the application of biological concepts to the design of engineering systems
Keywords :
fault tolerant computing; biological systems; embryonic systems; embryonics; fault-tolerant; fault-tolerant systems;
fLanguage :
English
Publisher :
iet
Conference_Titel :
Evolvable Hardware Systems (Digest No. 1998/233), IEE Half-day Colloquium on
Conference_Location :
London
Type :
conf
DOI :
10.1049/ic:19980208
Filename :
668669
Link To Document :
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