Improved Vt and Ioff characteristics of NMOS transistors featuring ultra-shallow junctions obtained by plasma doping (PLAD)

A. Pouydebasque, M. Muller, F. Boeuf, D. Lenoble, F. Lallement, A. Grouillet, A. Halimaoui, R. El Farhane, D. Delille, T. Skotnicki
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引用次数: 4

Abstract

We present in this paper a detailed analysis of the electrical behaviour of NMOS transistors with gate lengths down to Lg = 30 nm where the source/drain extensions (SDE) were developed using ultra low energy implantation (As 1 keV) or plasma doping (PLAD) at low bias (1.5 kV). PLAD splits show excellent threshold characteristics in comparison with As 1 keV: delayed Vt roll-down, reduced short channel effect (SCE) and drain induced barrier lowering (DIBL). The Ion/Ioff trade-off analysis reveals a much lower Ioff for comparable gate lengths when using PLAD instead of ULE. These behaviours are explained by a reduced junction depth Xj, which is confirmed by a parameter extraction on transistor characteristics and by analytical modelling.
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等离子体掺杂(PLAD)改善超浅结NMOS晶体管的Vt和off特性
本文详细分析了栅极长度低至Lg = 30 nm的NMOS晶体管的电学行为,其中源极/漏极扩展(SDE)是使用超低能量注入(As 1 keV)或低偏置(1.5 kV)等离子体掺杂(PLAD)开发的。与as1 keV相比,PLAD分裂显示出优异的阈值特性:延迟Vt滚降,减少短通道效应(SCE)和漏极诱导势垒降低(DIBL)。离子/关断权衡分析显示,当使用PLAD而不是ULE时,相对栅极长度的关断要低得多。这些行为可以通过减小结深Xj来解释,这是由晶体管特性的参数提取和分析建模所证实的。
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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