Physical insights on design and modeling of nanoscale FinFETs

J. Fossum, M. Chowdhury, V. Trivedi, T. King, Y. Choi, J. An, B. Yu
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引用次数: 107

Abstract

An array of measured device data, a numerical device simulator, and a process/physics-based compact model are used to gain new and important physical insights on nanoscale FinFETs with undoped thin-fin bodies. The insights, which include unavoidable/needed gate underlap, bias-dependent effective channel length, and non-ohmic fin-extension voltage drops, reveal the significance of gate positioning on, and source/drain doping profile in, the thin fin, and imply novel compact modeling that will be needed for optimal design of nonclassical CMOS circuits.
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纳米级finfet设计和建模的物理见解
采用一系列测量器件数据、数值器件模拟器和基于过程/物理的紧凑模型,对具有未掺杂薄鳍体的纳米级finfet获得新的重要物理见解。这些见解包括不可避免的/必需的栅极underlap,偏置相关的有效沟道长度和非欧姆的鳍延伸电压降,揭示了薄鳍上的栅极定位和源/漏极掺杂分布的重要性,并暗示了非经典CMOS电路优化设计所需的新颖紧凑建模。
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