高速45nm栅长cmosfet集成到90nm体技术结合应变工程

V. Chan, R. Rengarajan, N. Rovedo, W. Jin, T. Hook, P. Nguyen, Jia Chen, E. Nowak, Xiang-Dong Chen, D. Lea, A. Chakravarti, V. Ku, S. Yang, A. Steegen, C. Baiocco, P. Shafer, H. Ng, Shih-Fen Huang, C. Wann
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引用次数: 83

摘要

本文介绍了一种采用45纳米栅极长度器件的90纳米逻辑批量铸造技术,并结合应变工程。栅极长度和介电尺度,以及优化的应变工程,实现了高性能器件,这是迄今为止报道的最好的器件之一。演示了35 nm以下的短通道效应控制。通过仔细优化沟槽隔离和接触蚀刻停止氮化膜的应力效应,NMOS和PMOS的性能都得到了改善。此外,对通道迁移率和电流增强的分析用于了解应力机制,因此布局设计实践应优化性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
High speed 45nm gate length CMOSFETs integrated into a 90nm bulk technology incorporating strain engineering
A leading edge 90 nm logic bulk foundry technology with 45 nm gate length devices, incorporating strain engineering, is described in this paper. Gate length and dielectric scaling, along with optimized strain engineering, enable high performance devices, which are amongst the best reported to date. Short channel effect control down to 35 nm is demonstrated. Both NMOS and PMOS performance are improved through careful optimization of stress effects from both trench isolation and contact etch stop nitride film. Furthermore, analysis of the channel mobility and current enhancement is used to gain understanding of the stress mechanisms, and hence layout design practice should be optimized for performance.
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