一种降低差分级联电压开关逻辑电路漏功率的新方法

P. Lakshmikanthan, A. Nunez
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引用次数: 6

摘要

亚阈值泄漏电流在深亚微米工艺中呈指数增长,因此是缩小设计的关键因素。漏电损耗是深亚微米技术的一个主要问题,因为即使电路完全空闲,它也会耗尽电池。有效的泄漏控制机制是必要的,以最大限度地延长电池寿命。本文提出了一种在DCVSL电路的上拉晶体管(PUT)和下拉网络(PDN)路径中实现漏损抵消的新技术。它涉及到使用睡眠晶体管在这些路径上进行电压平衡。实验结果表明,与标准DCVSL电路相比,采用该睡眠电路的DCVSL电路显着节省泄漏功率(在温度为27℃时平均节省61倍)。在任何给定温度下,使用我们的方法,DCVSL电路的泄漏功率损耗是恒定的。与传统的电源门控技术相比,使用我们的方法可以平均节省4.31倍的泄漏
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Novel Methodology To Reduce Leakage Power In Differential Cascode Voltage Switch Logic Circuits
Subthreshold leakage current increases exponentially in deep-submicron processes and hence is a crucial factor in scaling down designs. Leakage power loss is a major concern in deep-submicron technologies as it drains the battery even when a circuit is completely idle. Efficient leakage control mechanisms are necessary to maximize battery life. In this paper, a novel technique that achieves cancellation of leakage effects in both the pull-up transistor (PUT) as well as the pull-down network (PDN) paths of DCVSL circuits is presented. It involves voltage balancing in these paths using sleep transistors. Experimental results show significant leakage power savings (average of 61X at a temperature of 27deg C) in DCVSL circuits employing this sleep circuitry when compared to standard DCVSL circuits. At any given temperature, using our methodology the leakage power loss for DCVSL circuits is constant. A 4.31X improvement (on an average) in leakage savings using our methodology was observed when compared with the traditional power-gating technique
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