硅纳米线器件及其建模

H. Iwai, K. Natori, K. Kakushima, P. Ahmet, A. Oshiyama, K. Shiraishi, J. Iwata, K. Yamada, K. Ohmori
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引用次数: 5

摘要

由于硅纳米线场效应管具有有效抑制漏极电流的特性,因此被认为是超小型CMOS器件小型化的最终结构。近年来,一些具有比平面mosfet大得多的导通电流的硅纳米线场效应管的实验数据已经发表。因此,硅纳米线场效应管作为20世纪20年代主流CMOS器件最有前途的候选器件而备受关注。为了将硅纳米线场效应管引入集成电路,电路设计师可以轻松处理的良好紧凑模型是必不可少的。然而,由于Si纳米线场效应管的Id-Vd特性受纳米线能带结构的影响,且能带结构对纳米线直径、横截面形状、晶体取向、机械应力和界面状态非常敏感,因此建立紧凑模型是一项非常具有挑战性的任务。本文介绍了近年来硅纳米线场效应管在实验和理论方面的研究现状。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Si nanowire device and its modeling
Because of its nature of effectively suppressing the off-leakage current with gate around configuration, the Si nanowire FET has been thought be the ultimate structure for for ultra-small CMOS devices towards their downsizing limit. Recently, several experimental data of Si nanowire FETs with very high on-current much larger than that of planar MOSFETs have been published. Thus, Si nanowire FETs are now drawing attention as the most promising candidate for the mainstream CMOS devices in 2020s. In order for the Si nanowire FETs to be introduced into integrated circuits, good compact models which circuit designers can easily handle with are essential. However, it is a really challenging task to establish the compact model, because Id-Vd characteristics of the Si nanowire FETs are affected by the band structure of the nanowire, and the band structure are very sensitive with the nanowire diameter, cross-sectional shape, crystal orientation, mechanical stress, and interface states. In this paper, recent research status of Si nanowire FETs in experimental and theoretical works are described.
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