通过选择性Si外延,为0.35微米mosfet设计了高源极/漏极Facet

C. Mazure, J. Fitch, C. Gunderson
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引用次数: 10

摘要

提出了一种新型的面工程高架源/泄地层设计。研究发现,选择性硅外延生长(SEG)前的非原位清洁决定了SEG源/漏表面的结果。我们发现,低角度刻面对于最小化寄生米勒电容非常有利,同时对栅极边缘附近的源极/漏极结进行分级,并从衬底的其他地方提取源极/漏极结,从而降低结电容。此外,我们表明,通过面工程磷掺杂seg源/漏,可以实现强电流驱动(I/sub DS/)的增加和寄生结电容的降低,而不会对短通道器件的行为产生不利影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Facet engineered elevated source/drain by selective Si epitaxy for 0.35 micron MOSFETS
A novel facet-engineered elevated source/drain formation design is presented. It is found that the ex situ clean prior to selective Si epitaxial growth (SEG) determines the resulting facets on the SEG-source/drain. We show that low angle facets are very advantageous for minimizing parasitic Miller capacitances, while simultaneously grading the source/drain junction near the gate edge and retrieving the source/drain junction from the substrate elsewhere, thus reducing the junction capacitance. Further, we show that both a strong current drive (I/sub DS/) increase and a reduction in parasitic junction capacitance can be realized with facet-engineered phosphorus doped SEG-source/drain with no detrimental effects to short channel device behavior.<>
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