实现逻辑与射频协整的UTBB应变SOI平台:植入诱导应变松弛和梳状器件架构

Chen Sun, Jie Liang, Haiwen Xu, E. Kong, B. Nguyen, A. Vandooren, W. Schwarzenbach, C. Maleville, V. Barral, R. Berthelon, O. Weber, F. Arnaud, A. Thean, X. Gong
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引用次数: 4

摘要

首次利用离子注入使全耗尽(FD)应变SOI (SSOl)的拉伸应变部分松弛一半,从而实现了在固定Ge成分下具有较高压缩应变的SiGe pfet。这使得高拉伸应变Si非场效应管和压缩应变SiGe非场效应管在同一衬底上的协整成为可能,通过实验和仿真结果验证,与未拉伸的对应物相比,电气性能得到了显著改善。我们还提出了一种类似梳状的应变SOI架构,以进一步提高射频性能,表明峰值$G_{\ mathm}}$比未应变的n型FinFET SOI提高了47%,$f_{\ mathm {T}}$和$f_{\max}$分别比n型FinFET SSOI提高了22%和36%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Enabling UTBB Strained SOI Platform for Co-integration of Logic and RF: Implant-Induced Strain Relaxation and Comb-like Device Architecture
For the first time, ion implant was used to partially relax the tensile strain by half in the fully-depleted (FD) strained SOI (SSOl) so that SiGe pFETs with a higher compressive strain can be realized at a fixed Ge composition. This enables the co-integration of highly tensile-strained Si nFETs and compressive-strained SiGe pFETs on the same substrate, achieving significant improvement in electrical performance over the unstrained counterpart verified by both experiment and simulation results. We also propose a Comb-like strained SOI architecture to further boost RF performance, demonstrating peak $G_{\mathrm{m}}$ improved by 47% over unstrained n-type FinFET SOI, as well as an improvement of 22% and 36% for $f_{\mathrm{T}}$ and $f_{\max}$, respectively, over n-type FinFETs SSOI.
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