通过体积诊断识别有问题的布局模式

Wu-Tung Cheng
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引用次数: 2

摘要

只提供摘要形式。由于纳米级半导体器件的各种制造困难,某些布局模式不能正常制造,造成重大的良率损失。由于需要进行完整的光刻模拟,因此不可能在硅制造之前识别所有这些问题。因此,需要进行硅后物理失效分析,逐个发现它们,以迭代提高每次重旋的良率。然而,物理故障分析非常耗时,每次重新旋转都需要很长时间。为了加速良率的上升,我们提出通过使用硅制造后故障数据的批量诊断来自动识别尽可能多的布局模式。卷诊断通常使用两个步骤。首先,使用缺陷诊断工具分析故障设备的响应。接下来,使用统计、数据挖掘和机器学习技术对诊断结果进行分析,以有效地确定潜在的有问题的布局模式。在本报告中,我们将讨论分析诊断数据的程序和统计方法,并特别关注缺陷与布局模式之间的联系。
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Identify problematic layout patterns through volume diagnosis
Summary form only given. Due to various manufacture difficulties in nano-scale semiconductor devices, certain layout patterns cannot be manufactured properly and cause significant yield loss. Due to the time to run through complete lithography simulation, it is impossible to identify all of them before silicon manufacture. Therefore, post-silicon physical failure analysis is needed to find them one-by-one to improve yield iteratively with each re-spin. However, physical failure analysis is time-consuming such that each re-spin can take a long time. To speed-up yield ramp-up, we proposed to automatically identify as many layout patterns as possible by using volume diagnosis from post-silicon manufacture failure data. Typically volume diagnosis uses two procedures. First, responses from failing devices are analyzed using defect diagnosis tools. Next the results of diagnoses are analyzed using statistical, data mining and machine learning techniques to effectively determine the underlying problematic layout patterns. In this presentation, we will discuss the procedures and statistics methods for analyzing diagnosis data and put special attention to the link between defects and layout patterns.
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