位翻转感知控制流错误检测

G. Nazarian, Diego G. Rodrigues, Álvaro Freitas Moreira, L. Carro, G. Gaydadjiev
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引用次数: 5

摘要

最近瞬态故障率的增加使处理器可靠性成为一个主要问题。此外,当今的许多嵌入式系统都需要性能改进。同时,软件实现的故障检测仍然是现成处理器的唯一选择。然而,由于检测所需的额外指令,软件方法引入了显著的性能开销。一个很好的观察是,通常不易受错误影响的代码段是受到保护的。在本文中,我们提出了一种对程序控制流的位翻转效应进行系统分析的技术,以便仅识别易受控制流错误影响的位置,从而最大限度地减少故障检测断言的数量。我们以最小的开销检测代码,同时保持较高的故障覆盖率。我们的实验表明,使用我们的位翻转分析结果并将代码插装限制为仅在易受影响的位置释放28.9%(平均)的内存,而故障覆盖水平与完全插装保持相同。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Bit-Flip Aware Control-Flow Error Detection
Recent increase of transient fault rates has made processor reliability a major concern. Moreover performance improvements are required for many of today's embedded systems. At the same time software implemented fault detection remains the only option for off-the-shelf processors. Software methods, however, introduce significant performance overheads due to the additional instructions required for the detection. A good observation is that often code segments not susceptible to faults are protected. In this paper we propose a technique for systematic analysis of the bit-flip effects on the program control-flow in order to identify only those locations susceptible to control-flow errors and hence minimize the number of fault detection assertions. We instrument the code with minimal overhead, while maintaining high fault coverage level. Our experiments show that using the result of our bit-flip analysis and limiting the code instrumentation to only the susceptible locations releases 28.9% (on average) of the memory while the level of fault coverage remains the same as with full instrumentation.
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