Phase I control chart for individual autocorrelated data: application to prescription opioid monitoring

被引:4
|
作者
Yao, Yuhui [1 ]
Chakraborti, Subha [2 ]
Yang, Xin [3 ]
Parton, Jason [2 ,3 ]
Lewis, Dwight [3 ,4 ]
Hudnall, Matthew [2 ,3 ]
机构
[1] Univ Alabama, Dept Community Med & Populat Hlth, Tuscaloosa, AL USA
[2] Univ Alabama, Dept Informat Syst Stat & Management Sci, Tuscaloosa, AL 35487 USA
[3] Univ Alabama, Inst Data & Analyt, Tuscaloosa, AL USA
[4] Univ Alabama, Dept Management, Tuscaloosa, AL USA
关键词
model miss-specification; parameter estimation; phase I monitoring; retrospective control charts; robustness; serial correlation; statistical process monitoring; AVERAGE CONTROL CHARTS; SAMPLE-SIZE; RUN-LENGTH; (X)OVER-BAR; PERFORMANCE; DESIGN; PACKAGE; LIMITS;
D O I
10.1080/00224065.2022.2139783
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Phase I or retrospective process monitoring plays a key part in an overall statistical process monitoring (SPM) regime and is increasingly emphasized in the recent literature. At present, a lot of the data in a variety of settings (public and private sector organizations) are collected individually and sequentially and thus are serially correlated (or autocorrelated). Though a reasonable amount of work is available in the control charting literature for prospective (Phase II) autocorrelated data monitoring, very little work exists for the retrospective phase (Phase I). In this article, we present a Shewhart-type control chart for Phase I monitoring of individual autocorrelated data, assuming normality, with estimated parameters. The methodology, while developed and presented for the first-order autoregressive (AR(1)) model for simplicity, may be adapted to more general time series models. The correct charting constants, adjusted for autocorrelation and parameter estimation, are derived, and tabulated for a nominal in-control (IC) false alarm probability (FAP). Simulation results show that the proposed chart is favorably IC FAP robust and effective for reasonably small sample sizes, moderate autocorrelation, and some model miss-specifications, compared to other approaches. An illustration using some public health data involving prescription fentanyl transactions is provided to show the potential for broader areas of applications of the proposed methodology. Along with a summary and recommendations, some future research areas are indicated. An R package is developed and made available for implementing the proposed methodology on demand.
引用
收藏
页码:302 / 317
页数:16
相关论文
共 50 条
  • [41] Application of Control Chart in Aircraft Intact Rate Monitoring
    Yang, Yan-ming
    Sun, Lu-lu
    Teng, Yue
    [J]. INTERNATIONAL CONFERENCE ON ARTIFICIAL INTELLIGENCE AND COMPUTER SCIENCE (AICS 2016), 2016, : 543 - 547
  • [42] Multivariate Change Point Control Chart Based on Data Depth for Phase I Analysis
    Li, Zhonghua
    Dai, Yi
    Wang, Zhaojun
    [J]. COMMUNICATIONS IN STATISTICS-SIMULATION AND COMPUTATION, 2014, 43 (06) : 1490 - 1507
  • [43] Bootstrap beta control chart for monitoring proportion data
    Chowdhury, Shovan
    Kundu, Amarjit
    Modok, Bidhan
    [J]. INTERNATIONAL JOURNAL OF QUALITY & RELIABILITY MANAGEMENT, 2022, 39 (10) : 2354 - 2377
  • [44] New control chart for monitoring and classification of environmental data
    Paroissin, Christian
    Penalva, Laura
    Petrau, Agnes
    Verdier, Ghislain
    [J]. ENVIRONMETRICS, 2016, 27 (03) : 182 - 193
  • [45] A nonparametric control chart for monitoring count data mean
    Tang, Linli
    Li, Jun
    [J]. QUALITY AND RELIABILITY ENGINEERING INTERNATIONAL, 2024, 40 (01) : 722 - 736
  • [46] Individual T2 Control Chart for Compositional Data
    Vives-Mestres, Marina
    Daunis-I-Estadella, Josep
    Martin-Fernandez, Josep-Antoni
    [J]. JOURNAL OF QUALITY TECHNOLOGY, 2014, 46 (02) : 127 - 139
  • [47] The effect of the individual chart with variable control limits on the river pollution monitoring
    Pei-Hsi Lee
    Yi-Hsien Huang
    Tsen-I Kuo
    Ching-Cheng Wang
    [J]. Quality & Quantity, 2013, 47 : 1803 - 1812
  • [48] A multivariate EWMA control chart for monitoring process variability with individual observations
    Yeh, AB
    Huwang, L
    Wu, CW
    [J]. IIE TRANSACTIONS, 2005, 37 (11) : 1023 - 1035
  • [49] The effect of the individual chart with variable control limits on the river pollution monitoring
    Lee, Pei-Hsi
    Huang, Yi-Hsien
    Kuo, Tsen-I
    Wang, Ching-Cheng
    [J]. QUALITY & QUANTITY, 2013, 47 (04) : 1803 - 1812
  • [50] X-MR control chart for autocorrelated fuzzy data using D p,q -distance
    Gildeh, Bahram Sadeghpour
    Shafiee, Niloufar
    [J]. INTERNATIONAL JOURNAL OF ADVANCED MANUFACTURING TECHNOLOGY, 2015, 81 (5-8): : 1047 - 1054