Assessing device reliability through atomic-level modeling of material characteristics

G. Bersuker
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Abstract

Electrical characteristics of the advanced logic and memory devices, which incorporate nano-thin layers of dielectric materials in their gate dielectric stacks, are sensitive to even extremely small concentrations of electrically active defects. Conventional empirical reliability models, which heavily rely on statistical data sets, demonstrate limited capability to predict the parameters drift in these highly scaled devices ultimately leading to larger performance margins and, correspondingly, lower manufacturing yield. An alternative approach we employ is to link the structural and electrical characteristics of these multicomponent stacks to identify critical characteristics of the electrically active defects and, then, use the developed defect library to predictively model the gate stack electrical properties and their evolution under device operation conditions. This modeling scheme is implemented in the software package simulating a variety of electrical measurements.
通过材料特性的原子级建模评估器件可靠性
先进的逻辑和存储器件的电学特性,在其栅极电介质堆栈中包含纳米薄层的介电材料,即使是极小浓度的电活性缺陷也很敏感。传统的经验可靠性模型严重依赖于统计数据集,在这些高度规模化的设备中,预测参数漂移的能力有限,最终导致更大的性能边际,相应地降低了制造成品率。我们采用的另一种方法是将这些多组件堆栈的结构和电气特性联系起来,以识别电活性缺陷的关键特征,然后使用开发的缺陷库来预测栅极堆栈的电气特性及其在设备操作条件下的演变。该建模方案在模拟各种电气测量的软件包中实现。
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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