A Simple and Fast Solution for Fault Simulation Using Approximate Parallel Critical Path Tracing

Ahmad Ehteram, Hossein Sabaghian-Bidgoli, H. Ghasvari, S. Hessabi
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引用次数: 1

Abstract

Due to the growing complexity of today’s digital circuits, the speed of fault simulation has become increasingly important. Although critical path tracing (CPT) is faster than conventional methods, it is not fast enough for fault simulation of complex circuits with a large number of faults and tests. Exact stem analysis is the most important obstacle in accelerating the CPT method. The simplification of stem analysis eliminates time-consuming computations and makes the CPT method more parallelizable. An approximate and bit-parallel CPT algorithm is proposed for ultrafast fault simulation for both stuck-at-fault (SAF) and transition delay fault (TDF) models. Time linearity, speedup, and accuracy of the proposed algorithm are examined and evaluated using ISCAS85, ISCAS89, and ITC99 benchmark circuits. In order to assess the accuracy, the false-positive and false-negative detection of faults are counted for each benchmark circuit. The experimental results reveal considerable speedup as well as acceptable accuracy of the proposed approach in comparison with the traditional methods and commercial fault simulators.
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一种基于近似并行关键路径跟踪的简单快速故障仿真方法
由于当今数字电路的日益复杂,故障仿真的速度变得越来越重要。关键路径跟踪(CPT)虽然比传统方法更快,但对于故障和测试数量较多的复杂电路的故障仿真,CPT的速度还不够快。精确的茎干分析是加速CPT方法发展的最大障碍。干分析的简化消除了耗时的计算,使CPT方法更具并行性。针对卡在故障(SAF)和过渡延迟故障(TDF)模型,提出了一种近似位并行CPT算法。采用ISCAS85、ISCAS89和ITC99基准电路对该算法的时间线性、加速和精度进行了测试和评估。为了评估准确率,对每个基准电路的故障检测假阳性和假阴性进行计数。实验结果表明,与传统方法和商用故障模拟器相比,该方法具有较高的速度和精度。
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期刊介绍: The Canadian Journal of Electrical and Computer Engineering (ISSN-0840-8688), issued quarterly, has been publishing high-quality refereed scientific papers in all areas of electrical and computer engineering since 1976
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