Epitaxial SiGe seed layer thickness for PFET performance tuning

Dali Shao, K. Briggs, C. Kenney, A. Chadwick, C. Gaire, J. Holt, H. Peng, A. Hovhannisyan, James Chen, W. Tong
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Abstract

SiGe alloys have been widely used as stressors in source/drain (S/D) regions for advanced complementary metal-oxide-semiconductor (CMOS) technologies to enhance channel mobility and boost device performance. Many previous studies were mainly focused on investigation of the main epitaxial SiGe layer’s growth mechanism, and its impact on the downstream process and device performance. In this work, instead of focusing on the main epitaxial SiGe layer, we present a method for tuning the device performance through adjustment of the epitaxial SiGe seed layer growth time/thickness. Experiments on patterned wafers show that the SiGe seed layer thickness has a strong impact on device performance while not affecting the subsequent epitaxial growth of SiGe S/D. This demonstrates that SiGe seed layer thickness can be a promising knob for tuning the device performance.
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用于pet性能调谐的外延SiGe种子层厚度
SiGe合金已广泛用作源/漏(S/D)区域的应力源,用于先进的互补金属氧化物半导体(CMOS)技术,以增强通道迁移率和提高器件性能。以往的许多研究主要集中在研究主外延SiGe层的生长机理及其对下游工艺和器件性能的影响。在这项工作中,我们提出了一种通过调整外延SiGe种子层生长时间/厚度来调整器件性能的方法,而不是关注主外延SiGe层。在图画化晶圆上的实验表明,SiGe种子层厚度对器件性能有很强的影响,而对后续的SiGe S/D外延生长没有影响。这表明SiGe种子层厚度可以是一个有前途的旋钮,以调整器件性能。
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