Novel SOI wafer engineering using low stress and high mobility CMOSFET with <100>-channel for embedded RF/analog applications

T. Matsumoto, S. Maeda, H. Dang, T. Uchida, K. Ota, Y. Hirano, H. Sayama, T. Iwamatsu, T. Ipposhi, H. Oda, S. Maegawa, Y. Inoue, T. Nishimura
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引用次数: 25

Abstract

For high performance RF/analog and logic device technology, novel SOI wafer engineering featuring <100>-channel SOI CMOSFET with high-resistivity substrate is proposed. Mobility of PMOSFET is improved about 16% by changing a channel direction from <110> to <100>. Moreover, the reduction of the drive current in narrow channel PMOSFET is suppressed. The maximum oscillation frequency (f/sub max/) for NMOSFET is improved around 7% by changing the buried oxide (BOX) thickness from 400 nm to 150 nm because the self-heating effect is suppressed, and is improved around 5% by changing the substrate resistivity from 10 /spl Omega/cm to 1000 /spl Omega/cm because the power loss is reduced. In this work, the wafer engineering which consists of 1) <100>-channel, 2) optimization of BOX, and 3) high resistivity substrate, is proposed to improve the RF performance of the CMOSFET.
新颖的SOI晶圆工程,采用低应力和高迁移率CMOSFET与-通道,用于嵌入式射频/模拟应用
为了实现高性能射频/模拟和逻辑器件技术,提出了采用高电阻率衬底的单通道SOI CMOSFET的新型SOI晶圆工程。通过改变通道方向,PMOSFET的迁移率提高了约16%。此外,窄通道PMOSFET驱动电流的减小受到抑制。由于抑制了自热效应,将埋地氧化物(BOX)厚度从400 nm改为150 nm, NMOSFET的最大振荡频率(f/sub max/)提高了约7%;由于降低了功率损耗,将衬底电阻率从10 /spl ω /cm改为1000 /spl ω /cm, NMOSFET的最大振荡频率(f/sub max/)提高了约5%。为了提高CMOSFET的射频性能,本文提出了1)通道、2)BOX优化和3)高电阻率衬底的晶圆工程。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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4.50
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