具有亚5 nm截面和高单轴拉伸应变的累积模式GAA Si NW nFET

M. Najmzadeh, D. Bouvet, W. Grabinski, A. Ionescu
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引用次数: 6

摘要

在这项工作中,我们报道了高掺杂栅极全能硅纳米线积累模式nmos - fet的密集阵列,其横截面为亚5nm。结合局部应力源技术(局部氧化和金属栅应变)实现≥2.5 GPa单轴拉伸应力是首次报道。深度缩放的Si纳米线显示出332 cm2/V的低场电子迁移率。S在室温下,比等效高通道掺杂下的块体迁移率高32%。基于室温至≈400 K的电特性,研究了导电机理和高温性能,观察到VTH漂移为- 1.72 mV/K, VFB漂移为- 3.04 mV/K,离子杂质散射导致迁移率降低。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Accumulation-mode GAA Si NW nFET with sub-5 nm cross-section and high uniaxial tensile strain
In this work we report dense arrays of highly doped gate-all-around Si nanowire accumulation-mode nMOS-FETs with sub-5 nm cross-sections. The integration of local stressor technologies (both local oxidation and metal-gate strain) to achieve ≥ 2.5 GPa uniaxial tensile stress is reported for the first time. The deeply scaled Si nanowire shows low-field electron mobility of 332 cm2/V.s at room temperature, 32% higher than bulk mobility at the equivalent high channel doping. The conduction mechanism as well as high temperature performance was studied based on the electrical characteristics from room temperature up to ≈400 K and a VTH drift of −1.72 mV/K, VFB drift of −3.04 mV/K and an ion impurity scattering-based mobility reduction were observed.
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