Contact module progress and challenges in advanced CMOS technologies

N. Breil
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引用次数: 2

Abstract

In this invited paper, we demonstrate that the contact interface resistance is a major bottleneck for advanced FinFET performance scaling (38% of the external resistance at 45nm gate pitch). After analyzing the key components defining the contact interface resistivity (active doping level, Schottky barrier height, contact area), we review the engineering techniques available to improve this critical bottleneck. We propose that the contact area engineering is an essential engineering direction to unlock the benefits of advanced CMOS technology performance and discuss some related processing techniques such as the superconformal Ti deposition.
先进CMOS技术中接触模块的进展和挑战
在这篇特邀论文中,我们证明了接触界面电阻是先进FinFET性能缩放的主要瓶颈(占45nm栅极间距外部电阻的38%)。在分析了定义接触界面电阻率的关键组件(活性掺杂水平,肖特基势垒高度,接触面积)之后,我们回顾了可用于改善这一关键瓶颈的工程技术。我们提出接触面积工程是一个重要的工程方向,以解锁先进的CMOS技术性能的好处,并讨论了一些相关的加工技术,如超共形钛沉积。
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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