基于特征选择的系统近似电路设计方法

Ling Qiu, Yingjie Lao
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引用次数: 4

摘要

随着技术的尺寸达到深度纳米领域,由于缩放的发展而导致的面积、功率和时间方面的改进已经开始减少。近年来,探索设计空间以实现节能数字系统的替代方法引起了人们的极大兴趣。在硬件设计中,近似计算已经成为一种很有前途的范例,它寻求在降低功耗和硬件成本的同时权衡精度的要求。本文提出了一种系统的、可扩展的近似电路设计方法,该方法采用数据驱动的特征选择技术,而不是使用统计或理论分析,非常适合于更大规模的应用。以近似乘法器为例,说明了所提出的设计流程。实验结果表明,该方法可以实现与现有人工近似乘法器设计相比更好的面积/功耗节约和相当的误差性能,同时大大降低了设计工作量和复杂度。
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A Systematic Method for Approximate Circuit Design Using Feature Selection
As the size of technology reaches deep nanometer realm, the improvements in area, power, and timing resulting from developments in scaling have started to see a decrease. Alternative approaches to explore design space to achieve energy-efficient digital systems are of great interest in recent years. Approximate computing in hardware design has emerged as a promising paradigm which seeks to trade off the requirement of accuracy for reduction in power consumption and hardware cost. This paper presents a systematic and scalable method for approximate circuit design by employing data-driven feature selection techniques rather than using statistical or theoretical analysis, which is extremely suitable for applications at a larger scale. A case study on approximate multiplier is presented to demonstrate the proposed design flow. Our experimental results show that the proposed approach could achieve better area/power saving and comparable error performance with other existing manual approximate multiplier designs, while greatly reducing the design workload and complexity.
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