栅极氧化物厚度缩放对深亚微米nmosfet热载子降解的影响

K. Anil, T. Pompl, I. Eisele
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引用次数: 2

摘要

在漏极电压低于0.85V时,研究了氧化层厚度对热载流子检测判据的影响。我们特别研究了(a)栅极偏置条件对衬底峰值电流的依赖性(b)允许继续使用幸运电子模型进行寿命预测的偏置条件和(c)最坏情况下降解条件对栅极氧化物厚度的依赖性。当氧化层厚度从5nm减小到3nm时,最坏的降解条件从V =V /2变化到衬底电流峰值,并且3nm氧化层的降解率更高。这种变化归因于横向电场的增强以及由此引起的热载子类型的变化,从而导致从电子到空穴的界面损伤。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Impact of Gate Oxide Thickness Scaling on Hot-Carrier Degradation in Deep-sub-micron nMOSFETs
Infiuence of oxide thickness on hotcarrier investigation criterion are investigated for drain voltages down to 0.85V. In particular we have investigated the dependence of (a) gate bias condition for peak substrate current (b) bias conditions that permit the continued use of lucky electron model for life time prediction and (c) the worst case degradation condition, on the gate oxide thickness. The worst case degradation condition was found to change from V =V /2 to peak substrate current as the oxide thickness was reduced from 5nm to 3nm and also the 3nm oxide showed higher degradation. This change is attributed to the enhanced transverse electric field and the consequent change in the type of the hot-carrier that cause the interface damage from electron to hole.
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