A dual dielectric approach for performance aware gate tunneling reduction in combinational circuits

V. Mukherjee, S. Mohanty, E. Kougianos
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引用次数: 24

Abstract

With continued and aggressive scaling, using ultra-low thickness SiO/sub 2/ for the transistor gates, tunneling current has emerged as the major component of leakage in CMOS circuits. In this paper, we propose a new approach called dual dielectrics of dual thicknesses (DKDT) for the reduction of both ON and OFF state gate tunneling currents. We claim that the simultaneous utilization of SiON and SiO/sub 2/ each with multiple thicknesses is a better approach for gate leakage reduction than the conventional one that uses a single gate dielectric, SiO/sub 2/, of multiple thicknesses. We develop an algorithm for the corresponding assignment of dual dielectric and dual thickness cells that minimizes the overall tunneling current for a circuit without compromising its performance. We performed extensive experiments on ISCAS'85 benchmarks using 45 nm technology which demonstrate that our approach can reduce the tunneling current by as much as 98.7% (on average 94.8%), without performance degradation.
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组合电路中性能敏感栅极隧穿减小的双介质方法
随着持续和积极的缩放,使用超低厚度SiO/sub 2/晶体管栅极,隧道电流已经成为CMOS电路中泄漏的主要组成部分。在本文中,我们提出了一种称为双厚度双介质(DKDT)的新方法,用于减少ON和OFF状态栅隧穿电流。我们声称,同时使用具有多种厚度的SiON和SiO/sub - 2/是减少栅极泄漏的更好方法,而不是使用具有多种厚度的单一栅极介质SiO/sub - 2/的传统方法。我们开发了一种相应的双介质和双厚度单元分配算法,该算法可以在不影响其性能的情况下最小化电路的总体隧道电流。我们使用45纳米技术在ISCAS'85基准上进行了大量实验,结果表明我们的方法可以将隧道电流降低98.7%(平均94.8%),而不会降低性能。
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