A parametric bootstrap control chart for Lindley Geometric percentiles

Control charts are vital for quality control and process monitoring, helping businesses identify variations in production. Traditional control charts, like Shewhart charts, may not work well for skewed distributions, such as the Lindley geometric distribution (LG). This study introduces a new control chart that uses parametric bootstrap techniques to monitor percentiles of the LG distribution, providing a more effective quality control method. The LG distribution is useful for modeling material strength and failures, especially in structural design, where lower percentiles indicate reduced tensile strength. We conducted extensive simulations to assess the proposed control chart's effectiveness, considering various distribution parameters, percentile values, Type I error rates, and sample sizes. Our findings highlight how subgroup size, percentiles, and significance levels affect control limits, stressing the need for careful parameter selection in monitoring processes. The results show that the new control chart is highly sensitive to changes in LG distribution parameters and performs consistently across different percentiles. This suggests its practical relevance and robustness for industrial applications in quality control. Future research should explore its performance in real-world production settings to confirm its efficiency and reliability.

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Publication Details

Journal
PLoS ONE
Published
2025-02-06
DOI
https://doi.org/10.1371/journal.pone.0316449
Primary Topic
Advanced Statistical Process Monitoring
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article
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article

A parametric bootstrap control chart for Lindley Geometric percentiles

Ali Akbar Heydari, Hossein Jabbari Khamnei, Muthanna Ali Hussein Al-Lami
PLoS ONE
Advanced Statistical Process Monitoring
article

A parametric bootstrap control chart for Lindley Geometric percentiles

Ali Akbar Heydari, Hossein Jabbari Khamnei, Muthanna Ali Hussein Al-Lami
article en

Abstract

Control charts are vital for quality control and process monitoring, helping businesses identify variations in production. Traditional control charts, like Shewhart charts, may not work well for skewed distributions, such as the Lindley geometric distribution (LG). This study introduces a new control chart that uses parametric bootstrap techniques to monitor percentiles of the LG distribution, providing a more effective quality control method. The LG distribution is useful for modeling material strength and failures, especially in structural design, where lower percentiles indicate reduced tensile strength. We conducted extensive simulations to assess the proposed control chart's effectiveness, considering various distribution parameters, percentile values, Type I error rates, and sample sizes. Our findings highlight how subgroup size, percentiles, and significance levels affect control limits, stressing the need for careful parameter selection in monitoring processes. The results show that the new control chart is highly sensitive to changes in LG distribution parameters and performs consistently across different percentiles. This suggests its practical relevance and robustness for industrial applications in quality control. Future research should explore its performance in real-world production settings to confirm its efficiency and reliability.

PLoS ONEVol. 20(2)
University of Tabriz (IR), Ministry of Higher Education and Scientific Research (IQ)
Industry, innovation and infrastructure
Openalex Percentile: Top 98%
Advanced Statistical Process Monitoring
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A parametric bootstrap control chart for Lindley Geometric percentiles — Ali Akbar Heydari, Hossein Jabbari Khamnei, et al. · PLoS ONE (2025) | TGRS Research Map | TGRS