Comprehensive extensibility of 20nm low power/high performance technology platform featuring scalable high-k/metal gate planar transistors with reduced design corner

H. Fukutome, K. Cheon, J. P. Kim, J. Kim, J. Lee, S. Cha, U. Roh, S. Kwon, D. Sohn, S. Maeda
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引用次数: 14

Abstract

Extensibility of the high-k/metal gate (HK/MG) planar devices beyond 20nm node with high performance, low power consumption, less layout dependence and suppressed local variability were comprehensively studied among gate first (GF) and gate-last (GL) schemes for the first time. We demonstrated the N-/PFET drive current (Idsat) of 1.45/1.3 mA/μm with the off-leakage current (Ioff) of 100 nA/μm for the Vdd of 0.9V by scaling down the gate width (Wg) of GL-HK/MG devices to 60nm. Key layout dependence of the PFET with embedded SiGe source/drain (eSiGe) was improved by eSiGe interface engineering and scaling down the Wg with keeping the multiple threshold voltage (Vt) and improving the body-bias effect (BE). Moreover, we demonstrated reduction in the capacitance by conventional method even for such a scaled planar device. Finally, we achieved the sufficiently low Vt mismatch, which is required to reduce the design corner, by eSiGe interface engineering and reduction of interface states in the gate stack (Dit).
全面可扩展性的20nm低功耗/高性能技术平台,具有可扩展的高k/金属栅极平面晶体管,减小了设计角
首次全面研究了高k/金属栅极(HK/MG)平面器件在20nm节点以上具有高性能、低功耗、较少布局依赖和抑制局部变异性的可扩展性,研究了栅极先(GF)和栅极后(GL)方案。我们通过将GL-HK/MG器件的栅极宽度(Wg)缩小到60nm,证明了在Vdd为0.9V时,N-/PFET驱动电流(Idsat)为1.45/1.3 mA/μm,关漏电流(Ioff)为100 nA/μm。采用eSiGe接口工程技术,通过保持多阈值电压(Vt)和改善体偏效应(BE)来减小Wg,改善了嵌入式SiGe源/漏极(eSiGe) fet的键布局依赖性。此外,我们证明了即使对于这样的缩放平面器件,用传统方法也可以减小电容。最后,我们通过eSiGe界面工程和减少栅极堆叠(Dit)中的界面状态,实现了足够低的Vt失配,这是减少设计角所需要的。
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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