EDMOS in ultrathin FDSOI: Effect of doping and layout of the drift region

Antoine Litty, S. Ortolland, D. Golanski, C. Dutto, S. Cristoloveanu
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引用次数: 2

Abstract

We have already demonstrated the fabrication of a Dual-Ground Plane Extended Drain MOSFET with 28nm FDSOI technology. The detrimental consequences of ultrathin SOI film were mitigated by back-biasing the ground planes. In this paper, we explore for the first time the device optimization in 28 nm FDSOI node by doping the drift region. This solution requires additional and dedicated process steps but is free from back-biasing schemes. Following TCAD simulations, devices have been designed and fabricated with UTBB-FDSOI technology. DC measurements indicate that even in ultrathin film (7 nm) the doping of drift region is still a lever for achieving high-voltage (5V) MOSFET with promising performance.
超薄FDSOI中的EDMOS:掺杂和漂移区布局的影响
我们已经演示了用28nm FDSOI技术制造双地平面扩展漏极MOSFET。超薄SOI薄膜的不利影响可以通过对地平面进行反向偏置来减轻。在本文中,我们首次探索了28nm FDSOI节点上掺杂漂移区的器件优化。此解决方案需要额外的专用流程步骤,但不存在反向偏置方案。在TCAD仿真之后,采用UTBB-FDSOI技术设计和制造了器件。直流测量表明,即使在超薄膜(7nm)中,漂移区掺杂仍然是实现具有良好性能的高压(5V) MOSFET的杠杆。
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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