A Novel Clock-Fault Detection and Self-Recovery Circuit for Reliable Nanoelectronics System

Changhong Yu
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引用次数: 3

Abstract

Due to discrepancies in manufacturing process and the probabilistic nature of quantum mechanical phenomenon, faulttolerant architectures are a prerequisite to build reliable nanoelectronic systems from unreliable nanoelectronic devices. Various defects and interference such as doping discrepancies, supply noise and cross-talks could lead to clock irregularity and malformed clock signals in nanoelectronic systems, thus resulting in faulty operations of sequential circuits. As a result, fault tolerance clock distribution is more and more important in nanoelectronic systems. In this paper, a novel architecture for clock recovery is delivered. Very simple circuit is designed for time-to-voltage converter with transforming the error of time to the error of voltage. In order to illustrate the fault-tolerance capability by the detection and recovery circuitry, a prototype CMOS design of this proposed circuit is presented. Simulation shows that the proposed architecture is very suite for integration to nanoelectronic circuit design to realize clock recovery. Keywordstime-to-voltage convertion; self-recovery; faulttolerance; clock
一种用于可靠纳米电子系统的时钟故障检测与自恢复电路
由于制造工艺的差异和量子力学现象的概率性质,容错架构是用不可靠的纳米电子器件构建可靠的纳米电子系统的先决条件。掺杂差异、电源噪声和串扰等各种缺陷和干扰会导致纳米电子系统中的时钟不规则和时钟信号畸形,从而导致顺序电路的错误运行。因此,容错时钟分布在纳米电子系统中变得越来越重要。本文提出了一种新的时钟恢复体系结构。设计了一种简单的时间-电压变换器电路,将时间误差转化为电压误差。为了说明检测和恢复电路的容错能力,给出了该电路的CMOS原型设计。仿真结果表明,该结构非常适合集成到纳米电子电路设计中,实现时钟恢复。Keywordstime-to-voltage转换;自动复位;faulttolerance;时钟
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