Reliability analysis in self-repairing embryonic systems

C. Ortega-Sanchez, A. Tyrrell
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引用次数: 54

Abstract

One characteristic of biological organisms that is desirable in engineering systems is the ability to tolerate faults in their components. Fault tolerance in artificial cellular systems is generally achieved by either time-redundancy or hardware-redundancy. In hardware redundancy spare cells are introduced so that when an active cell fails, a spare substitutes it in the embryonic hardware architecture designed at York, this hardware redundancy is achieved in a multi-cellular system inspired by cell embryology. In this paper the k-out-of-m reliability model is used to analyse the reconfiguration strategies used in embryonic arrays. Two schemes are investigated: row (or column) elimination and cell-elimination. The models proposed can be used to analyse the reliability of cellular systems with spares other than embryonic arrays.
自我修复胚胎系统的可靠性分析
生物有机体在工程系统中所需要的一个特性是能够容忍其组成部分的故障。人工细胞系统的容错通常通过时间冗余或硬件冗余来实现。在硬件冗余中,引入了备用细胞,当活跃细胞失效时,在York设计的胚胎硬件架构中,备用细胞替代它,这种硬件冗余是在受细胞胚胎学启发的多细胞系统中实现的。本文采用k-out- m可靠性模型对胚胎阵列的重构策略进行了分析。研究了两种方案:行(或列)消除和细胞消除。所提出的模型可用于分析除胚胎阵列外的备件蜂窝系统的可靠性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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