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引用次数: 0
摘要
在许多制造业中,寿命性能指标 CL 被用来评估遵循某些寿命分布的产品的制造过程性能,并对其进行渐进式 I 型区间删减。本文旨在探讨对于寿命服从幂级数弗莱赫等分布的产品,为达到特定显著性水平和测试功率所需的抽样设计。由于寿命分布是一种非对称概率分布,因此本研究与非对称概率分布的主题及在各个领域的应用相关。当终止时间固定而间隔次数可变时,确定并列表说明了产生最小总实验成本的最佳检查间隔次数和样本大小。当终止时间变化时,可确定并列表显示检查间隔的最佳次数、样本大小和等间隔长度,从而使实验总成本最小。最佳参数值以表格形式显示,供用户进行可行的应用。此外,还提供了一个实际例子,说明如何利用最佳参数设置来收集数据,然后通过测试程序来评估生产过程的能力。
The Optimal Experimental Design for Exponentiated Frech’et Lifetime Products
In many manufacturing industries, the lifetime performance index CL is utilized to assess the manufacturing process performance for products following some lifetime distributions and subjecting them to progressive type I interval censoring. This paper aims to explore the sampling design required to achieve a specified level of significance and test power for products with lifetimes following the Exponentiated Frech’et distribution. Since lifetime distribution is an asymmetrical probability distribution, this investigation is related to the topic of asymmetrical probability distributions and applications in various fields. When the termination time is fixed but the number of intervals is variable, the optimal number of inspection intervals and sample sizes yielding the minimized total experimental costs are determined and tabulated. When the termination time is varying, the optimal number of inspection intervals, sample sizes, and equal interval lengths achieving the minimum total experimental costs are determined and tabulated. Optimal parameter values are displayed in tabular form for feasible applications for users. Additionally, a practical example is provided to illustrate how this sampling design can be used to collect data by using the optimal setup of parameters, followed by a testing procedure to assess the capability of the production process.