绝缘体上的硅
符号
材料科学
晶体管
硅
电气工程
物理
拓扑(电路)
光电子学
数学
量子力学
工程类
算术
电压
作者
Jie Liang,Chen Sun,Haiwen Xu,Eugene Y.-J. Kong,Bich-Yen Nguyen,W. Schwarzenbach,Christophe Maleville,R. Berthelon,O. Weber,F. Arnaud,Aaron Thean,Xiao Gong
标识
DOI:10.1109/ted.2022.3154311
摘要
In the first part of this two-part article, implant-induced strain relaxation has been successfully demonstrated on a common strained silicon-on-insulator (SSOI) platform. In this second part, based on an SSOI platform that could enable the cointegration of highly tensile-strained Si n-channel field-effect transistors (nFETs) and compressive-strained SiGe p-channel FETs (pFETs) on the same substrate for both logic and 5G RF circuits, we here propose a comb-like device structure within the strained SOI platform for further improvement in the electrostatic, dc, and RF performances over the unstrained SOI FinFETs counterpart. It is demonstrated that the peak ${G}_{\text {m}}$ of strained comb-like Si nFETs can be improved by 35% over unstrained n-type FinFETs SOI. The improvements of ${f}_{\text {T}}$ by 22% and ${f}_{\text {max}}$ by 36% over no-comb devices are also observed. Furthermore, the linearity of ${f}_{\text {T}}$ and ${f}_{\text {max}}$ has been greatly improved by introducing forward body biasing on the comb-like device structure.
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