单轴应变sige通道finfet在7N技术节点的应力分析

Tara Prasanna Dash, S. Das, S. Dey, J. Jena, E. Mohapatra, C. K. Maiti
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摘要

单轴压缩应变已成为p沟道finfet不可缺少的性能提升器。在这项工作中,基于广泛的3D工艺和器件模拟,提出了具有单轴应变SiGe通道(fin)的纳米三栅极finfet的性能评估。为了优化器件性能,本文基于应力调谐参数进行了一项全面的研究,以探讨可能的最大工艺诱导应力转移到SiGe鳍上。工艺诱导应力对7nm技术节点载流子迁移率增强的影响是本研究的另一个重点。在不同的工艺条件和不同的锗含量下,表明了应力传递效率。技术CAD模拟表明,对于p沟道finfet,当SiGe层中Ge含量较高时,翅片中的应变较大。首次通过工艺模拟证明了双轴应变SiGe到单轴应变SiGe的转换,并在三栅极finfet中实现了单轴应变SiGe通道(fin),以获得高性能。
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Stress Analysis in Uniaxially Strained-SiGe Channel FinFETs at 7N Technology Node
The uniaxial compressive strain has been an indispensable performance booster for p-channel FinFETs. In this work, based on extensive 3D process and device simulations, performance assessment of nanoscale tri-gate FinFETs with uniaxially strained SiGe channel (fin) has been presented. A comprehensive study based on stress tuning parameters is carried out to investigate the possible highest amount of process induced stress transfer to SiGe fin for optimization of device performance. The impact of process induced stress on carrier mobility enhancement in 7nm technology node is another major focus of this study. The stress transfer efficiency is shown for different process conditions with various Ge contents. Technology CAD simulations show that strain in the fin is large for higher Ge contents in the SiGe layer for p-channel FinFETs. For the first time, the conversion of biaxially strained SiGe to uniaxially strained SiGe via process simulation has been demonstrated, and implemented as uniaxial strained-SiGe channel (fin) in tri-gate FinFETs for high performance.
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