近似加法器的比较调查

Sunil Dutt, Sukumar Nandi, G. Trivedi
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引用次数: 22

摘要

CMOS技术扩展能力与未来应用程序工作负载需求之间的差距正在迅速扩大。有几种有前途的设计方法可以联合起来显著减少这一差距。近似计算就是其中之一,近年来引起了科学界的强烈关注。近似计算利用应用程序固有的错误恢复能力,并通过权衡计算质量(例如,准确性)来实现高性能节能软件和硬件实现(例如,性能和能源)。在过去的十年中,一些研究工作已经在计算堆栈的所有层中探索了近似计算,然而,大多数硬件抽象级别的工作都是在加法器上提出的。在本文中,我们首先简要解释-为什么近似加法器吸引了最强烈的关注?然后,我们提供了最先进的近似加法器的比较调查。我们提供了基于传统设计指标和近似计算设计指标的比较。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A comparative survey of approximate adders
The gap between capabilities of CMOS technology scaling and requirements of future application workloads is increasing rapidly. There are several promising design approaches that jointly can reduce this gap significantly. Approximate computing is one of them and in recent years, has attracted the strongest attention of the scientific community. Approximate computing exploits inherent error-resilience of applications and features high-performance energy-efficient software and hardware implementations by trading-off computational quality (e.g., accuracy) for computational efforts (e.g., performance and energy). Over the decade, several research efforts have explored approximate computing throughout all the layers of computing stack, however, most of the work at hardware level of abstraction has been proposed on adders. In this paper, we first explain briefly - why approximate adders have attracted the strongest attention? We then provide a comparative survey of state-of-the-art approximate adders. We provide comparison based on both conventional design metrics as well as approximate computing design metrics.
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