Optimization of dual-threshold independent-gate FinFETs for compact low power logic circuits

Xuqiang Zhang, Jianping Hu, Xiaoyan Luo
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引用次数: 13

Abstract

This paper proposes the realization of dual-threshold independent-gate FinFETs by optimizing the FinFET process parameters including the electrode work function, silicon body thickness, and oxide thickness. The optimum values of the FinFET process parameters are derived using BSIM-IMG SPICE model for independent-gate FinFET devices. In optimum dual-threshold independent-gate (IG) FinFETs, a high-threshold IG FinFET is logically equivalent to two short-gate (SG) FinFETs in series, while a low-threshold one is logically equivalent to two SG FinFETs in parallel. The complementary static logic circuits and differential cascode voltage switch logic circuits based on the proposed IG FinFET devices have been verified. The results show that basic gates using the proposed dual-threshold independent-gate FinFETs obtain lower energy delay products than those implementations based on SG FinFETs.
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用于紧凑低功耗逻辑电路的双阈值独立门finfet的优化
本文提出通过优化FinFET的工艺参数,包括电极功函数、硅体厚度和氧化物厚度,实现双阈值独立栅极FinFET。利用独立栅极FinFET器件的BSIM-IMG SPICE模型推导出FinFET工艺参数的最佳值。在最佳双阈值独立门(IG) FinFET中,高阈值IG FinFET在逻辑上相当于两个串联的短门(SG) FinFET,而低阈值IG FinFET在逻辑上相当于两个并联的SG FinFET。验证了基于所提出的IG FinFET器件的互补静态逻辑电路和差分级联电压开关逻辑电路。结果表明,使用双阈值独立栅极finfet的基本栅极比基于SG finfet的栅极栅极获得更低的能量延迟产品。
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