多变量控制图的理论分析与实际应用
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摘要
随着超大规模集成电路的发展,集成电路的集成度已达到10 9的量级,而失效率则已经降到10FET,从而对微电路生产的工艺质量和可靠性评价技术提出了新的要求。采用先进的质量保证和评价技术应用在我国的微电路生产方面显得尤为紧迫。本文针对微电路生产的实际特点,在微电路生产工艺质量控制的SPC系统中引入了多变量控制图技术,解决了微电路生产中的多变量受控分析问题,实现了微电路制造中具有多元特性工艺的控制。针对多变量控制图的失控因素的诊断问题,通过同时绘制Hotelling T~2控制图以及控制椭圆,从数据变化以及图形直观等两个方面来判断过程是否受控。另外采用分解多变量统计量方法,确定和解释多变量控制图中出现失控时的失控原因,并结合微电路工艺控制实例分析了单变量和多变量失控之间的关系。结合控制椭圆的扁平程度与变量的相关性,判断过程失控时,是单变量单独作用对统计值T~2的贡献大还是由于变量之间的相关性的作用对统计值T~2的贡献大。
With the development of the VLSI(VLSI: Very Large-scale Integration), a ICs chip could hold more than 10 9transistors, and the failure rate has been reduced to 10 FET level. The requirement has emerged for the new process quality and reliability evaluative technique in the microcircuit manufacture. A multivariate control module is introduced in this paper. Frequently the pattern of points on the multivariate control charts will contain information, about whether the process is under control. It is shown in this paper that with drawing the Hotelling T~2 control charts and the control ellipse at the same time, we can judge whether the process is under control in these two different ways: variable data and the intuitive graphic way. It is also shown in this paper that the interpretation of an out-of-control signal from a T~2 statistic is greatly aided if the corresponding value is partitioned into independent parts.The result from this decomposition could give the information for further analyzing the out-of-control signal. Using the method of decomposition of statistic T~2, with the data analysis of the out-of-control signals, we can finally find out which made the process out of control, univariate variable or the correlation between variables.
引文
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