Exploration of vertical MOSFET and tunnel FET device architecture for Sub 10nm node applications

H. Liu, D. Mohata, A. Nidhi, V. Saripalli, V. Narayanan, S. Datta
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引用次数: 26

Abstract

A vertical device architecture having -40% density improvement over planar for sub-10nm technology node has been evaluated for Si NMOS and III-V HTFET with Lg=16nm. For LOP applications including the effect of parasitic elements, the HTFET presents superior energy efficiency and desired low-power analog performance for VDD<;0.6V, while MOSFET is superior for VDD>;0.6V. To further improve MOSFET performance, ION needs to be improved with higher injection velocity materials (e.g. III-V). For delay reduction, the parasitic capacitances (Cov and Cg,fringe) and contact resistance need to be further engineered for both MOSFETs and TFETs.
用于Sub 10nm节点应用的垂直MOSFET和隧道FET器件架构的探索
对于Lg=16nm的Si NMOS和III-V HTFET,在10nm以下的技术节点上,垂直器件结构密度比平面提高了-40%。对于包括寄生元件影响的LOP应用,HTFET在VDD;0.6V下具有优越的能效和理想的低功耗模拟性能。为了进一步提高MOSFET的性能,需要使用更高注入速度的材料(例如III-V)来改进ION。为了降低延迟,需要进一步设计mosfet和tfet的寄生电容(Cov和Cg,条纹)和接触电阻。
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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