基于SiGe应变工程的栅极全能硅纳米线晶体管性能评价

S. Dey, J. Jena, Tara Prasanna Dash, E. Mohapatra, S. Das, C. K. Maiti
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引用次数: 0

摘要

栅极全能纳米线晶体管表现出固有的最佳栅极控制,这使它们在未来的应用中具有优势,可能低于5nm技术节点。我们研究了纳米线晶体管需要解决的几个关键方面,通过在通道中引入工艺诱导应力来超越当前的finfet。利用先进的仿真框架对硅纳米线晶体管进行了分析。本文报道了硅锗源漏扩展结构中应变分量的表征。采用弹性理论进行点阵应变分析。基于自洽薛定谔-泊松的模拟用于阐明迁移率增强的物理机制,并为纳米线晶体管的设计提供指导。最后,我们研究了通道中最有利的应力配置如何转化为性能指标的改进,如应变工程纳米线晶体管的开/关电流比、阈值电压和亚阈值斜率。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Performance Evaluation of Gate-All-Around Si Nanowire Transistors with SiGe Strain engineering
Gate-all-around nanowire transistors show inherently best gate control which gives them an advantage for future applications, possibly below 5nm technology nodes. We investigate several critical aspects that need to be addressed for nanowire transistors to surpass current FinFETs by the introduction of process-induced stress in the channel. Using an advanced simulation framework we analyze Si nanowire transistors. We report on the characterization of strain components in the structures with silicon–germanium source-drain extension. Lattice strain analysis is performed using elasticity theory. Self-consistent Schrodinger-Poisson based simulations are used to clarify the physical mechanisms for mobility enhancement and to provide guidelines for nanowire transistor design. Finally, we investigate how the most favorable stress configurations in the channel can translate into improvements in performance metrics such as on/off current ratio, threshold voltage, and subthreshold slope of strain-engineered nanowire transistors.
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