超低能植入物的能量污染对0.1- μ m以下CMOS器件性能的影响

D. Lenoble, P. Prod'homme, D. Beutier, C. Julien
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引用次数: 2

摘要

确定了0.1 μm以下CMOS器件性能的临界注入能量污染量。PMOS和NMOS晶体管的源极/漏极扩展部分,物理栅极长度低至65nm,在1 keV下无能量污染(漂移模式)注入BF2+和As+。随后,有意地增加了几个能量污染量:源/漏扩展以与标准加速/减速模式中使用的提取电压相对应的能量植入,剂量与目标能量污染的比例相对应(从漂移模式中植入剂量的0到4%)。分析了从0.18μm到65nm的短通道效应、离子/Ioff权衡和亚阈值性能,并与使用标准注入模式获得的结果进行了比较。确定每个技术节点的临界能量污染量,并将其与植入器的能力进行比较。讨论了当前植入器在70nm技术节点下的可扩展性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Impact of energy contamination of ultra-low energy implants on sub-0.1-μm CMOS device performance
The critical amount of implantation energy contamination is determined at which sub-0.1-μm CMOS device performance is modified. Source/drain extensions of PMOS and NMOS transistors, with physical gate lengths down to 65nm, were implanted without energy contamination (drift mode) with BF2+ and As+ at 1 keV. Subsequently several energy contamination amounts were added intentionally: source/drain extensions were implanted at the energy corresponding to the extraction voltage used in the standard acceleration / deceleration mode with a dose corresponding to the ratio of targeted energy contamination (from 0 up to 4% of the dose implanted in drift mode). Short-channel effect, Ion/Ioff tradeoff, and sub-threshold performance are analyzed for technologies from 0.18μm down to 65nm and compared to results obtained using the standard mode of implantation. The critical amount of energy contamination for each technology node is determined and compared to implanter capabilities. The scalability of current implanters down to 70nm technology node is discussed.
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