高压应力下FDSOI环形振荡器失态退化的影响

J. Trommer, V. Havel, T. Chohan, F. Mehmood, S. Slesazeck, G. Krause, G. Bossu, W. Arfaoui, Armin Muhlhoff, T. Mikolajick
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引用次数: 5

摘要

传统的直流可靠性预测方法,如偏置温度不稳定性(BTI)和热载流子注入(HCI),可能无法充分转化为与电路水平相关的交流条件。因此,在不久的将来,直接分析电路级可靠性是硬件鉴定的一项重要任务。环形振荡器(RO)提供了一个很好的模型系统,其中BTI和HCI都有助于退化。在这项工作中,定性地表明,额外的非状态应力在非常高的应力电压下起着至关重要的作用,超出了使用上限。为了获得准确的RO寿命预测,使用了高分辨率的频率测量装置,该装置可以在应力接近操作条件时解决频率的微小变化。建立了一种基于直流输入数据的ACDC转换模型,预测了结果的频率变化。从外推到10年的电路寿命,该模型预测在标称运行条件下,频率衰减非常低,低于0.2%,其中关闭状态的影响很小。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Off-state Impact on FDSOI Ring Oscillator Degradation under High Voltage Stress
The degradation predicted by classical DC reliability methods, such as bias temperature instability (BTI) and hot carrier injection (HCI), might not translate sufficiently to the AC conditions, which are relevant on the circuit level. The direct analysis of circuit level reliability is therefore an essential task for hardware qualification in the near future. Ring oscillators (RO) offer a good model system, where both BTI and HCI contribute to the degradation. In this work, it is qualitatively shown that the additional off-state stress plays a crucial role at very high stress voltages, beyond upper usage boundaries. To yield an accurate RO lifetime prediction a frequency measurement setup with high resolution is used, which can resolve small changes in frequency during stress near operation conditions. An ACDC conversion model is developed predicting the resulting frequency change based on DC input data. From the extrapolation to 10 years of circuit lifetime the model predicts a very low frequency degradation below 0.2% under nominal operation conditions, where the off-state has a minor influence.
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