基于线性非对称口袋型的纳米n-MOSFET管断电压模型

Prof. Dr. Engr. Muhibul Haque Bhuyan, Quazi Deen Mohd Khosru
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引用次数: 0

摘要

本文报道了基于器件栅极下源侧的非对称线性口袋轮廓,开发了一种用于口袋植入纳米n- mosfet的分析掐断电压模型。采用直线近似方程模拟了从源极到漏极沿MOS器件表面栅极长度方向的口袋轮廓。推导出整个栅极长度的有效掺杂浓度,并将其纳入由表面强反转电荷表达式得到的掐断电压模型中。然后,模拟了各种漏极和栅极偏置以及各种器件参数下的引脚关断电压。为了观察模型的有效性,结合有效的沟道掺杂浓度以及所开发的掐断电压模型,绘制了不同栅极偏置下的倒置电荷分布、沟道各点表面电位、漏极电流与漏极电压的曲线。仿真结果表明,所建立的截断电压模型可用于研究、仿真和表征口袋植入ULSI器件。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Linear asymmetric pocket profile based pinch-off voltage model for nano scale n-MOSFET
This work reports on developing an analytical pinch-off voltage model for the pocket implanted nano scale n-MOSFETs based on an asymmetric linear pocket profile at the source side under the gate of the device. Straight line approximated equation is used to simulate the pocket profile from the source towards the drain along the gate length at the surface of the MOS device. The effective doping concentration is derived for the whole gate length and is incorporated in the pinch-off voltage model that is obtained from the strong inversion charge expression at the surface. Then the pinch-off voltage is simulated for various drain and gate biases as well as for various device parameters. To observe the model validity, inversion charge profile, surface potential at various points along the channel, drain current vs. drain voltage curve is plotted for various gate biases by incorporating this effective channel doping concentration as well as the developed pinch-off voltage model. The simulation results show that the developed pinch-off voltage model can be used to study, simulate and characterize the pocket implanted ULSI devices.
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