利用TMR的并行性来提高可靠ASIC设计的功率效率

Hagen Samrow, C. Cornelius, J. Salzmann, Andreas Tockhorn, D. Timmermann
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引用次数: 1

摘要

由于集成电路的规模化,可靠性问题越来越影响集成电路的设计过程。解决这些问题的一个众所周知的技术是三重模块冗余(TMR)。它以至少三倍的面积和功耗为代价,极大地提高了设计的可靠性。在这篇文章中,我们提出了一种增强的TMR方法,该方法显着降低了传统TMR设计的功率开销。因此,对控制逻辑进行了修改,以便在TMR模式和并行模式之间切换。这种并行模式允许电路以较低的频率运行,而不会损失性能,利用三倍设计提供的并行性。对ISCAS基准电路的研究结果表明,与传统的TMR方法相比,对于永久性故障,功耗节省高达50%,可靠性损失很小。我们还提出了如何利用这两种工作模式的策略,以平衡运行时可靠性和功耗要求的设计。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Utilizing parallelism of TMR to enhance power efficiency of reliable ASIC designs
Due to aggressive scaling, reliability issues influence the design process of integrated circuits more and more. A well known technique to tackle these issues represents Triple Modular Redundancy (TMR). It strongly improves reliability of a design at the expense of at least tripled area and power consumption. In this contribution, we propose an enhanced TMR approach that significantly decreases the power overhead of conventional TMR designs. Therefore, the control logic was modified so as to switch between a TMR mode and a parallel mode. This parallel mode allows the circuit to operate with decreased frequency without losing performance by taking advantage of the parallelism offered by the tripled design. Achieved results of investigations on the ISCAS benchmark circuits show power savings of up to 50 % with a small reliability penalty compared to a conventional TMR approach for permanent failures. We also propose strategies how to utilize both operating modes in order to balance the design concerning reliability and power consumption requirements at runtime.
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