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首页> 外文期刊>International Journal of VLSI Design & Communication Systems >A Novel Approach for Leakage Power Reduction Techniques in 65nm Technologies
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A Novel Approach for Leakage Power Reduction Techniques in 65nm Technologies

机译:65nm技术中降低漏电技术的新方法

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摘要

The rapid progress in semiconductor technology have led the feature sizes of transistor to be shrunk thereby evolution of Deep Sub-Micron (DSM) technology; there by the extremely complex functionality isenabled to be integrated on a single chip. In the growing market of mobile hand-held devices used all overthe world today, the battery-powered electronic system forms the backbone. To maximize the battery life,the tremendous computational capacity of portable devices such as notebook computers, personalcommunication devices (mobile phones, pocket PCs, PDAs), hearing aids and implantable pacemakers hasto be realized with very low power requirements. Leakage power consumption is one of the major technicalproblem in DSM in CMOS circuit design. A comprehensive study and analysis of various leakage powerminimization techniques have been presented in this paper a novel Leakage reduction technique isdeveloped in Cadence virtuoso in 65nm regim with the combination of stack with sleepy keeper approachwith Low Vth & High Vth which reduces the Average Power with respect Basic Nand Gate 29.43%, 39.88%,Force Stack 56.98, 63.01%, sleep transistor with Low Vth & High Vth 13.90, 26.61% & 33.03%, 75.24%with respect to sleepy Keeper 93.70, 56.01% of Average Power is saved.
机译:半导体技术的飞速发展导致晶体管的特征尺寸缩小,从而深亚微米(DSM)技术得到发展。通过极其复杂的功能,可以将其集成在单个芯片上。在当今全世界不断增长的移动手持设备市场中,由电池供电的电子系统构成了骨干。为了最大限度地延长电池寿命,必须在非常低的功率要求下实现便携式设备(如笔记本计算机,个人通信设备(移动电话,掌上PC,PDA),助听器和植入式起搏器)的巨大计算能力。泄漏功率消耗是DSM在CMOS电路设计中的主要技术问题之一。本文对各种泄漏功率最小化技术进行了全面的研究和分析,在Cadence virtuoso中开发了一种新颖的减少泄漏的技术,该技术将电池堆与低电压Vth和高电压Vth的休眠保持器方法结合使用,从而降低了相对于基本功率的平均功率。 Nand Gate 29.43%,39.88%,Force Stack 56.98、63.01%,具有低Vth和High Vth的睡眠晶体管13.90、26.61%和33.03%,75.24%,相对于困倦的Keeper 93.70,平均功率节省了56.01%。

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