用于模拟和射频应用的14nm FinFET技术

J. Singh, A. Bousquet, J. Ciavatti, K. Sundaram, J. S. Wong, K. Chew, A. Bandyopadhyay, S. Li, A. Bellaouar, S. Pandey, B. Zhu, A. Martin, C. Kyono, J. Goo, H. Yang, A. Mehta, X. Zhang, O. Hu, S. Mahajan, E. Geiss, S. Yamaguchi, S. Mittal, R. Asra, P. M. Balasubramaniam, J. Watts, D. Harame, R. Todi, S. Samavedam, D. K. Sohn
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引用次数: 28

摘要

本文首次提出了一种基于逻辑FinFET平台的14nm模拟和射频技术。优化后的射频器件布局显示,fet和fet的Ft/Fmax分别为(314GHz/180GHz)和(285GHz/140GHz)。与28nm技术相比,更高的pet射频性能是由于源/漏源应力源迁移率的提高。更好的FinFET通道静电性能的好处可以在自增益(Gm/Gds)中看到,它分别显示出NFET和fet的显著增加到40和34。N/ pet的1/f噪声分别为17/35 f(V * μm)2/Hz @ 1KHz。为了进一步扩展低压运行和节能,还开发了超低电压装置。此外,还引入了深n阱(三阱)工艺,以提高对衬底噪声的超低抗扰度,同时提供VNPN和高击穿电压深n阱二极管等有用的器件。卓越的Ft/Fmax、高自增益、低1/f噪声和衬底隔离特性真正扩展了14nm finfet在模拟和RF应用中的能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
14nm FinFET technology for analog and RF applications
This paper highlights a 14nm Analog and RF technology based on a logic FinFET platform for the first time. An optimized RF device layout shows excellent Ft/Fmax of (314GHz/180GHz) and (285GHz/140GHz) for NFET and PFET respectively. A higher PFET RF performance compared to 28nm technology is due to a source/drain stressor mobility improvement. A benefit of better FinFET channel electrostatics can be seen in the self-gain (Gm/Gds), which shows a significant increase to 40 and 34 for NFET and PFET respectively. Superior 1/f noise of 17/35 f(V∗μm)2/Hz @ 1KHz for N/PFET respectively is also achieved. To extend further low voltage operation and power saving, ultra-low Vt devices are also developed. Furthermore, a deep N-well (triple well) process is introduced to improve the ultra-low signal immunity from substrate noise, while offering useful devices like VNPN and high breakdown voltage deep N-well diodes. A superior Ft/Fmax, high self-gain, low 1/f noise and substrate isolation characteristics truly extend the capability of the 14nm FinFETs for analog and RF applications.
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