A physical compact MOSFET model, including quantum mechanical effects, for statistical circuit design applications

R. Rios, N. Arora, Chengxiong Huang, N. Khalil, J. Faricelli, L. Gruber
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引用次数: 51

Abstract

We present a physical and continuous compact MOSFET model applicable to deep sub-micron devices with very thin gate oxide thicknesses. We focus on the premise that a good compact model should be based on a physical long-channel model that accurately fits both I-V and C-V data. To meet this requirement, we found that the model must account for the correct bias dependency of the surface potential, and include polysilicon depletion and quantum mechanical effects. The resulting model is predictive within a range of the fundamental process parameters, and is thus suitable for statistical circuit simulations.
一个物理紧凑的MOSFET模型,包括量子力学效应,用于统计电路设计应用
我们提出了一个物理和连续紧凑的MOSFET模型,适用于具有极薄栅极氧化物厚度的深亚微米器件。我们关注的前提是,一个好的紧凑型模型应该基于一个精确拟合I-V和C-V数据的物理长通道模型。为了满足这一要求,我们发现该模型必须考虑到表面电位的正确偏置依赖性,并包括多晶硅耗竭和量子力学效应。所得到的模型在基本工艺参数范围内具有预测性,因此适用于统计电路仿真。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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