评估和减轻多媒体电路中的退化效应

H. Amrouch, J. Henkel
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引用次数: 1

摘要

纳米cmos时代的每一代新产品都在不断地对可靠性提出挑战。分别由温度和老化引起的短期和长期退化效应会导致电路延迟的显著增加,从而导致由于路径违和而导致的时序误差。为了克服这种退化,设计人员不可避免地需要采用宽时序保护带,这表明效率和性能降低。事实上,缩小保护范围是当前和未来技术节点的关键优化目标之一。在这项工作中,我们调查了设计师是否真的需要在容错(例如,多媒体)电路中使用保护带?这项调查使我们能够用质量来交换戒备。此外,我们还展示了我们提出的退化感知细胞库、退化感知时序分析和退化感知逻辑合成是如何不可或缺的,不仅可以将物理层与系统层联系起来(即量化退化效应对处理图像质量的最终影响),还可以有效地增加电路对退化的弹性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Evaluating and mitigating degradation effects in multimedia circuits
The nano-CMOS era continuously introduces reliability challenges with every new generation. Short-term and long-term degradation effects due to temperature and aging, respectively, can cause a considerable increase in the delay of a circuit and hence timing errors due to path violations. To overcome such degradations, designers inevitably need to employ wide timing guardbands manifest as reduced efficiency and performance. In fact, narrowing guardbands is one of the key optimization goals in current and upcoming technology nodes. In this work, we investigate whether do designers really need to employ guardbands even in error-tolerant (e.g., multimedia) circuits? This investigation enables us to trade off guardbands with quality. In addition, we demonstrate how our proposed degradation-aware cell libraries, degradation-aware timing analysis and degradation-aware logic synthesis are indispensable, not only to link the physical level with the system level (i.e. quantifying the final impact of degradation effects on the quality of processed images) but also to increase effectively the resiliency of circuits against degradations.
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