纳米技术的容错蜂窝阵列设计

D. Hoe
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引用次数: 0

摘要

本文描述了一种适用于在纳米级结构上实现容错逻辑的蜂窝阵列结构。一个简单的逻辑单元,是优化的算术逻辑功能,允许有效地实现信号处理功能。与fpga中使用的典型查找表(LUT)方法相比,所提出的逻辑块在可重构性方面的灵活性降低了。然而,更简单的结构和更少的配置位可以提高容错能力。这种设计折衷适用于纳米技术的实现,其中存在大量的器件,但也增加了对瞬态和永久故障的敏感性。集群单元的分层方法提供了分布在整个阵列中的最佳备用单元数量,从而允许有效的自修复能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Fault tolerant cellular array design for nanoscale technologies
A cellular array architecture suitable for implementing fault-tolerant logic on nanoscale fabrics is described in this paper. A simple logic cell that is optimized for arithmetic logic functions allows efficient implementation of signal processing functions. Compared to the typical Look-up Table (LUT) approach used in FPGAs, the proposed logic block has decreased flexibility in terms of reconfigurability. However, the simpler structure and reduced number of configuration bits results in improved fault tolerant capability. Such a design tradeoff is suitable for nanotechnology implementations where there are a massive number of devices but also increased susceptibility to transient and permanent faults. A hierarchical approach to clustering the cells provides for an optimum number of spare cells to be distributed throughout the array, allowing for efficient self-healing capability.
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