A failure triage engine based on error trace signature extraction

Zissis Poulos, Yu-Shen Yang, A. Veneris
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引用次数: 3

Abstract

The ever growing demand for functionally robust and error-free industrial electronics necessitates the development of techniques that will prohibit the propagation of functional errors to the final tape-out stage. This paramount requirement in the semiconductor world is imposed by the equivocal observation that functional errors slipping to silicon production introduce immense amounts of cost and jeopardize chip release dates. Functional verification and debugging are burdened with the tedious task of guaranteeing logic functionality early in the design cycle. In this paper, we present an automated method for the very first stage of functional debugging, called failure triage. Failure triage is the task of analyzing large sets of failures, grouping together those that are likely to be caused by the same design error, and then allocating those groups to the appropriate engineers for fixing. The introduced framework instruments techniques from the machine learning domain combined with the root cause analysis power of modern SAT-based debugging tools, in order to exploit information from error traces and bin the corresponding failures using clustering algorithms. Preliminary experimental results indicate an average accuracy of 93 % for the proposed failure triage engine, which corresponds to a 43 % improvement over conventional automated methods.
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基于错误跟踪签名提取的故障分类引擎
对功能强大和无错误的工业电子产品不断增长的需求要求开发能够禁止功能错误传播到最后带出阶段的技术。在半导体领域,这一最重要的要求是由一种模棱两可的观察所强加的,即功能错误溜到硅生产中会带来巨大的成本,并危及芯片的发布日期。功能验证和调试承担着在设计周期早期保证逻辑功能的繁琐任务。在本文中,我们提出了一种自动化的方法,用于功能调试的第一阶段,称为故障分类。故障分类的任务是分析大量故障,将可能由相同设计错误引起的故障分组在一起,然后将这些组分配给适当的工程师进行修复。引入了机器学习领域的框架工具技术,结合了现代基于sat的调试工具的根本原因分析能力,以便从错误跟踪中挖掘信息,并使用聚类算法对相应的故障进行分类。初步实验结果表明,所提出的故障分类引擎的平均准确率为93%,比传统的自动化方法提高了43%。
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