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    政大機構典藏 > 商學院 > 統計學系 > 學位論文 >  Item 140.119/49600


    请使用永久网址来引用或连结此文件: https://nccur.lib.nccu.edu.tw/handle/140.119/49600


    题名: 適應性累積和損失管制圖之研究
    The Study of Adaptive CUSUM Loss Control Charts
    作者: 林政憲
    贡献者: 楊素芬
    林政憲
    关键词: 累積和管制圖
    適應性管制圖
    VSI管制圖
    VSS管制圖
    VSSI管制圖
    損失函數
    馬可夫鍊
    基因演算法
    CUSUM control chart
    Adaptive control chart
    VSI control chart
    VSS control chart
    VSSI control chart
    Loss function
    Markov chain
    Genetic algorithm
    日期: 2009
    上传时间: 2010-12-08 14:54:06 (UTC+8)
    摘要: The CUSUM control charts have been widely used in detecting small process shifts since it was first introduced by Page (1954). And recent studies have shown that adaptive charts can improve the efficiency and performance of traditional Shewhart charts. To monitor the process mean and variance in a single chart, the loss function is used as a measure statistic in this article. The loss function can measure the process quality loss while the process mean and/or variance has shifted. This study combines the three features: adaption, CUSUM and the loss function, and proposes the optimal VSSI, VSI, and FP CUSUM Loss chart. The performance of the proposed charts is measured by using Average Time to Signal (ATS) and Average Number of Observations to Signal (ANOS). The ATS and ANOS calculations are based on Markov chain approach. The performance comparisons between the proposed charts and some existing charts, such as X-bar+S^2 charts and CUSUM X-bar+S^2 charts, are illustrated by numerical analyses and some examples. From the results of the numerical analyses, it shows that the optimal VSSI CUSUM Loss chart has better performance than the optimal VSI CUSUM Loss chart, optimal FP CUSUM Loss chart, CUSUM X-bar+S^2 charts and X-bar+S^2 charts. Furthermore, using a single chart to monitor a process is not only easier but more efficient than using two charts simultaneously. Hence, the adaptive CUSUM Loss charts are recommended in real process.
    The CUSUM control charts have been widely used in detecting small process shifts since it was first introduced by Page (1954). And recent studies have shown that adaptive charts can improve the efficiency and performance of traditional Shewhart charts. To monitor the process mean and variance in a single chart, the loss function is used as a measure statistic in this article. The loss function can measure the process quality loss while the process mean and/or variance has shifted. This study combines the three features: adaption, CUSUM and the loss function, and proposes the optimal VSSI, VSI, and FP CUSUM Loss chart. The performance of the proposed charts is measured by using Average Time to Signal (ATS) and Average Number of Observations to Signal (ANOS). The ATS and ANOS calculations are based on Markov chain approach. The performance comparisons between the proposed charts and some existing charts, such as X-bar+S^2 charts and CUSUM X-bar+S^2 charts, are illustrated by numerical analyses and some examples. From the results of the numerical analyses, it shows that the optimal VSSI CUSUM Loss chart has better performance than the optimal VSI CUSUM Loss chart, optimal FP CUSUM Loss chart, CUSUM X-bar+S^2 charts and X-bar+S^2 charts. Furthermore, using a single chart to monitor a process is not only easier but more efficient than using two charts simultaneously. Hence, the adaptive CUSUM Loss charts are recommended in real process.
    參考文獻: [1] Albin, S. L., Kang, L and Shea, G. (1997), “An X and EWMA chart for individual observations,” Journal of Quality Technology, 29, 41-48
    [2] Amin, R. W. and Miller, R. W. (1993), “A Robustness Study of Charts with Variable Sampling Intervals,” Journal of Quality Technology, 25, 36-44
    [3] Amin, R. W., Wolff, H., Besenfelder, W. and Baxley R. Jr. (1999), “EWMA control charts for the smallest and largest observations,” Journal of Quality Technology, 31, 189-206
    [4] Annadi, H. P., Keats, J. B., Runger, G. C. and Montgomery, D. C. (1995), “An adaptive sample size CUSUM control chart,” International Journal of Production Research, 33, 1605-1616
    [5] Arnold, J. C. and Reynolds Jr., M. R. (2001), “CUSUM control charts with variable sample sizes and sampling intervals,” Journal of Quality Technology, 33, 66-81
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    [8] Chen, G., Cheng, S. W. and Xie, H. (2001), “Monitoring Process Mean and Variability With One EWMA Chart,” Journal of Quality Technology, 33, 223-233
    [9] Costa, A. F. B. (1994), “ charts with Variable Sample Size,” Journal of Quality Technology, 26, 155-163
    [10] Costa, A. F. B. (1997), “ charts with Variable Sample Size and Sampling Intervals,” Journal of Quality Technology, 29, 197-204
    [11] Costa, A. F. B. (1998), “Joint and R charts with variable parameters,” IIE Transactions, 30, 505-514
    [12] Costa, A. F. B. (1999a), “Joint and R charts with variable sample size and sampling intervals,” Journal of Quality Technology, 31, 387-397
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    [14] Costa, A. F. B. and Magalhaes S. (2006), “An Adaptive Chart for Monitoring the Process Mean and Variance,” Quality and Reliability Engineering International, 23, 821-831
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    [17] Hawkins, D. M. (1992), “A Fast Approximation for Average Run Lengths of CUSUM Control Charts,” Journal of Quality Technology, 24, 37-43
    [18] Hawkins, D. M. (1993), “Cumulative Sum Control Charting: An Underutilized SPC Tool,” Quality Engineering, 5(3), 463-477
    [19] IMSL (1991), Users Manual, Math/Library, Vol. 2, IMSL, Inc., Houstin, Texas
    [20] Luceno, A. and Puig-Pey, J. (2002), “Computing the Run Length Probability Distribution for CUSUM Charts,” Journal of Quality Technology, 34, 209-215
    [21] Luo, Y., Li, Z. and Wang Z. (2009), “Adaptive CUSUM control chart with variable sampling intervals,” Computational Statistics and Data Analysis, 53, 2693-2701
    [22] Montgomery D. C. (2009), “Statistical Quality Control 6th Edition”, Aptara, Inc.
    [23] Patnaik P. B. (1949), “The Non-central Chi-square and F-distributions and Their Applications,” Biometrika, 36, 1/2, 202-232
    [24] Reynolds, M. R., Jr., Amin, R. W., Arnold, J. C. and Nachlas, J. A. (1988), “ Charts With Variable Sampling Intervals,” Technometrics, 30, 181-192
    [25] Reynolds, M. R., Jr., Amin, R. W. and Arnold, J. C. (1990), “CUSUM charts with variable sampling intervals,” Technometrics, 32, 371-384
    [26] Reynolds, M. R., Jr. and Arnold J. C. (1989), “Optimal one-sided Shewhart control charts with variable sampling intervals,” Sequential Analysis, 8, 51-77
    [27] Wu, Z. and Yu, T. (2006), “Weighted-loss-function control charts,” The International Journal of Advanced Manufacturing Technology, 31, 107-115
    [28] Wu, Z., Zhang, S. and Wang, P (2007), “A CUSUM Scheme with Variable Sample Sizes and Sampling Intervals for Monitoring the Process Mean and Variance,” Quality and Reliability Engineering International, 23, 157-170
    [29] Zhang, S. and Wu, Z. (2006), “Monitoring the process mean and variance using a weighted loss function CUSUM scheme with variable sampling intervals,” IIE Transactions, 38, 377-387
    [30] Zhang, S. and Wu, Z. (2007), “A CUSUM scheme with variable sample sizes for monitoring process shifts,” The International Journal of Advanced Manufacturing Technology, 33, 977-987
    描述: 碩士
    國立政治大學
    統計研究所
    97354001
    98
    資料來源: http://thesis.lib.nccu.edu.tw/record/#G0097354001
    数据类型: thesis
    显示于类别:[統計學系] 學位論文

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