Analog-circuit NBTI degradation and time-dependent NBTI variability: An efficient physics-based compact model

K. Giering, G. Rott, G. Rzepa, Hans Reisinger, A. Puppala, T. Reich, W. Gustin, Tibor Grasser, Roland Jancke
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引用次数: 15

Abstract

We experimentally and theoretically investigate the NBTI degradation of pMOS devices due to analog stress voltages and thus go beyond existing NBTI studies for digital stress. As a result, we propose a physics-based compact model for analog-stress NBTI which builds upon the extensive TCAD analysis of our ultra-short-delay experimental data. The numerical efficiency of the compact model allows its direct coupling to electric circuit simulators and permits to accurately account for NBTI degradation already during circuit design. Our model enables the calculation of the time-dependent NBTI variability of single device and of circuit performance parameters. We demonstrate our NBTI model on an operational amplifier and calculate the mean drift and variability of its offset voltage.
模拟电路NBTI退化和随时间变化的NBTI变异性:一个有效的基于物理的紧凑模型
我们从实验和理论上研究了模拟应力电压对pMOS器件的NBTI退化,从而超越了现有的NBTI数字应力研究。因此,我们提出了一个基于物理的模拟应力NBTI紧凑模型,该模型建立在对超短延迟实验数据进行广泛的TCAD分析的基础上。紧凑模型的数值效率允许其直接耦合到电路模拟器,并允许在电路设计过程中准确地考虑NBTI的退化。我们的模型能够计算单个器件和电路性能参数随时间变化的NBTI可变性。我们在运算放大器上演示了我们的NBTI模型,并计算了其失调电压的平均漂移和变异性。
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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