良好的处理器识别在二维网格

F. Meyer, F. Lombardi, Jun Zhao
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引用次数: 1

摘要

我们研究了在自测二维网格系统中识别好的处理器的问题。网格有边界(不是环绕)和度8。我们的诊断目标是确定至少一个无故障的处理器。由此,至少可以识别出一个故障处理器,并可以通过重复修复对系统进行顺序诊断。我们建立了最坏情况下最大故障数的上界,同时仍能以理想的诊断算法满足诊断目标。一个简单的理想诊断算法将具有指数级的复杂性,并且将涉及16轮并行处理器测试。我们给出了最多6个平行测试的测试时间表。这个测试计划容忍的错误与理想算法一样多(通过一个常数因子)。新的测试时间表也将适用于诊断潜力较差的4级网格。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Good processor identification in two-dimensional grids
We examine the problem of identifying good processors in self-testing two-dimensional grid systems. The grids have boundaries (not wrap-around) and degree 8. Our diagnostic objective is to identify at least one fault-free processor. From this, at feast one faulty processor could be identified and it would be possible to sequentially diagnose the system by repeated repair. We establish an upper bound on the worst case maximum number of faults while still being able to meet the diagnostic goal with an ideal diagnosis algorithm. A straightforward ideal diagnosis algorithm would have exponential complexity and would involve 16 parallel rounds of processor testing. We give a test schedule with at most 6 parallel rounds of testing. This test schedule tolerates asymptotically as many faults as an ideal algorithm (by a constant factor). The new test schedule will also work for grids with degree 4, which have inferior diagnostic potential.
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