We introduce an extended three-parameter Rayleigh distribution using the genesis of a truncated discrete Bell distribution. The expressions for the $ r $th moment, Réyni entropy, and quantile function are presented. Moreover, a group acceptance sampling plan for a truncated life test using the median as a quality parameter is presented. Two estimation methods (classical and Bayesian) are used to estimate parameters. The practical relevance of the proposed model is demonstrated using two real-life datasets related to engineering materials. Bias and efficiency of the estimators are assessed through simulation. Additionally, we present a censored data application using data centered on the survival rates of kidney patients ($ n = 76 $, censored $ = 23.7\% $, event $ = 76.3\% $). However, the Kaplan–Meier survival curve supports the proposed exponentiated Bell Rayleigh distribution.
Citation: Laila A. Al-Essa, Muhammad Imran, Farrukh Jamal. Applications of the novel extended Rayleigh distribution in statistical quality, censored data with application for engineering materials[J]. AIMS Mathematics, 2026, 11(5): 14025-17074. doi: 10.3934/math.2026577
We introduce an extended three-parameter Rayleigh distribution using the genesis of a truncated discrete Bell distribution. The expressions for the $ r $th moment, Réyni entropy, and quantile function are presented. Moreover, a group acceptance sampling plan for a truncated life test using the median as a quality parameter is presented. Two estimation methods (classical and Bayesian) are used to estimate parameters. The practical relevance of the proposed model is demonstrated using two real-life datasets related to engineering materials. Bias and efficiency of the estimators are assessed through simulation. Additionally, we present a censored data application using data centered on the survival rates of kidney patients ($ n = 76 $, censored $ = 23.7\% $, event $ = 76.3\% $). However, the Kaplan–Meier survival curve supports the proposed exponentiated Bell Rayleigh distribution.
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