5nm工艺节点finfet的低温表征及模型提取

S. S. Parihar, G. Pahwa, Jun Z. Huang, Weike Wang, K. Imura, Chenming Hu, Y. Chauhan
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引用次数: 1

摘要

我们提出了商业制造的5nm技术finfet的低温表征和紧凑模型提取。改进的工业标准BSIM-CMG模型用于精确模拟高达10K的带尾、迁移率和速度饱和效应。在10K时,n-FinFET和p-FinFET的阈值电压位移分别为87mV和92mV,亚阈值斜率分别为12.7和16.7mV/ 10年(提高了83%和78%)。仿真结果表明,当VDD = 0.75V时,逆变器和环形振荡器在10K时的时延分别提高了38%和36.53%。在VDD = 0.35V时,逆变器的延迟和功率延迟积提高了∽70%。静态泄漏和功耗是finfet的主要挑战;上述性能增强突出了表征技术在量子计算机中的潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Cryogenic Characterization and Model Extraction of 5nm Technology Node FinFETs
We present cryogenic characterization and compact model extraction of commercially fabricated 5nm technology FinFETs. A modified industry-standard BSIM-CMG model is used to accurately model band-tail, mobility, and velocity saturation effects up to 10K. At 10K, n-FinFET and p-FinFET show 87mV and 92mV threshold voltage shift and sub-threshold slopes of 12.7 and 16.7mV/decade (83% and 78% improvement), respectively. The simulated inverter and ring oscillator at 10K in iso IOFF condition show 38% and 36.53% delay improvement for VDD = 0.75V, respectively. At VDD = 0.35V, inverter simulations show ∽ 70% improvement in delay and Power-Delay-Product. Static leakage and power dissipation are major challenges in FinFETs; the above-mentioned performance enhancements highlight the potential of characterized technology in quantum computers.
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