在28nm低功耗平台上优化嵌入式SiGe工艺以提高pet性能

Wei Liu, Haibo Lei, Xuejiao Wang
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引用次数: 0

摘要

本文提出了一种新的28nm CMOS技术的SiGe结构,采用传统的多栅极和SiON栅极电介质(poly /SiON)和同类最佳的27nm pet晶体管。在Vd = -1.05V时,fet驱动电流为431 μA/μm 7.5×l0−10A/μm,性能比标准SiGe结构提高12%。TCAD仿真结果表明,改性SiGe的压应力强度比标准SiGe高3%左右。利用分裂CV法得到了有效迁移率曲线,改性SiGe的迁移率峰值也更高。这表明,改性SiGe结构在通道中引起的压应力和SD区寄生电阻的降低是观察到的性能增强的主要来源。该研究为在28nm平台上实现量产提供了优化方向。
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Optimization of embedded SiGe process to enhance PFET performance on 28nm low power platform
This paper presents a new SiGe profile of 28nm CMOS technology using conventional poly gate and SiON gate dielectric (Poly/SiON) with best-in-the-class 27nm pFET transistor. PFET Drive current of 431 μA/μm at off current 7.5×l0−10A/μm were achieved at Vd = -1.05V, which performance is 12% higher than standard SiGe structure. TCAD simulation reveals that compressive stress intensity of modified SiGe is ~3% higher than that of standard SiGe. The effective mobility curves are obtained by split CV method, the mobility peak value of modified SiGe is also higher. This reveals compressive stress induced in the channel and decreasing parasitic resistance in SD region by modified SiGe structure are shown to be the major source of the observed performance enhancement. This research about pFET performance boosting through SiGe profile modification has given an optimized direction for mass production in 28nm platform.
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