未来逻辑器件技术中BTI可靠性的新型低热预算门栈解决方案:特邀论文

J. Franco, H. Arimura, J. D. Marneffe, A. Vandooren, L. Ragnarsson, Zhicheng Wu, D. Claes, E. Litta, N. Horiguchi, K. Croes, D. Linten, T. Grasser, B. Kaczer
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引用次数: 4

摘要

我们讨论了BTI可靠性的低热预算栅极堆栈解决方案,与新颖的堆叠器件集成方案(例如,Sequential 3D)和架构(例如,纳米片,cfet)兼容。在SiO2 IL和高k介电介质之间的界面上形成的偶极子提高了nMOS PBTI的可靠性,并且可以使用单个栅极金属进行有效的功函数调谐,而不会对栅极堆叠的EOT和物理厚度产生任何大的影响。对于pMOS,在HKMG沉积之前将SiO2 IL低温暴露于原子氢中可以大大提高NBTI的可靠性,优于基于高温“可靠性退火”或高k优先集成的传统RMG解决方案。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Novel low thermal budget gate stack solutions for BTI reliability in future Logic Device technologies : Invited paper
We discuss low thermal budget gate stack solutions for BTI reliability, compatible with novel stacked device integration schemes (e.g., Sequential 3D) and architectures (e.g., nanosheets, CFETs). Dipole formation at the interface between the SiO2 IL and the high-k dielectric improves the nMOS PBTI reliability and enables effective Work Function tuning with a single gate metal, without any sizable impact on the EOT and physical thickness of the gate stack. For pMOS, low temperature exposure of the SiO2 IL to atomic hydrogen before HKMG deposition is shown to largely improve NBTI reliability, outmatching conventional RMG solutions based on high temperature ‘reliability anneals’ or high-k first integration.
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