在未来CMOS器件中实现超浅结的先进技术

J. Barnett, R. Hill, W. Loh, C. Hobbs, P. Majhi, R. Jammy
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引用次数: 9

摘要

CMOS器件的持续缩放到16纳米以下的技术节点可能会通过新架构(如finfet)和新材料(如高迁移率基板(Ge和/或III-V基板))来实现。在这些技术节点上,将需要在低热收支环境下具有高掺杂激活的突变通道掺杂剖面。虽然先进的掺杂剂掺入和激活技术仍在继续发展,但将离子注入III-V材料存在一个根本问题,因为它会引起晶体损伤,从而改变化学计量,难以恢复。残余损伤会导致较高的结漏和较低的掺杂激活。这些挑战需要新型结处理技术的发展,这些技术本质上是无缺陷的,并且可以在纳米尺度上进行控制。本文对其中一种很有前途的技术——单层掺杂技术进行了综述。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Advanced techniques for achieving ultra-shallow junctions in future CMOS devices
The continued scaling of CMOS devices to the sub-16 nm technology node will likely be achieved with new architectures, such as FinFETs, and new materials, such as high mobility substrates (Ge and/or III-V based). At these technology nodes, abrupt channel doping profiles with high dopant activation will be needed under reduced thermal budget environments. While advanced dopant incorporation and activation techniques continue to be developed for Si scaling, implanting ions into III-V materials presents a fundamental problem as it induces crystal damage, which can alter the stoichiometry in a manner that is difficult to recover. The residual damage can lead to higher junction leakage and lower dopant activation. These challenges require the development of novel junction processing techniques that are inherently defect-free and can be controlled at the nm scale. One such promising technique, monolayer doping (MLD), is reviewed in this article.
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