Investigations on contact punch-through in 28 nm FDSOI through virtual fabrication

B. Vianne, P. Morin, C. Beylier, J. Giraudin, S. Desmoulins, R. Gonella, A. Juncker, D. Fried
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引用次数: 1

Abstract

The ultra-thin body-bias (UTBB) and fully- depleted silicon on insulator (FDSOI) 28nm technology offers the capability of extreme low power performance, in part because of the use of ultra-thin buried oxide. This unique capability could be jeopardized by the probability of over etching the buried oxide layer during the formation of contacts, with potential generation of electrical short with the substrate. We used SEMulator3D virtual fabrication platform from Coventor to model the contact punch-through mechanism. We then run a design of experiment with the model to quantify the sensitivity of each process variable. Finally we used the virtual fabrication methodology to improve the robustness of the process.
基于虚拟制造的28纳米FDSOI接触穿孔研究
超薄体偏置(UTBB)和完全耗尽绝缘体上硅(FDSOI) 28nm技术提供了极低功耗性能的能力,部分原因是使用了超薄埋藏氧化物。这种独特的能力可能会因触点形成过程中过度蚀刻埋藏的氧化层的可能性而受到损害,并可能与衬底产生电短路。采用美国科文特公司的simulator3d虚拟制造平台对接触式穿孔机构进行建模。然后,我们用该模型进行了实验设计,以量化每个过程变量的灵敏度。最后,我们采用虚拟制造方法来提高工艺的鲁棒性。
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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