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Maximum Likelihood Estimation for the New Kumaraswamy Pareto Distribution under Progressive Type II Censoring: Accepted March 2026

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Detalhes bibliográficos
Resumo:Various distributions in current literature have been employed widely in modeling lifetime and reliability data such as the New Kumaraswamy Pareto (NKP) distribution, which belongs to the New Generalised Family of distributions. Although the NKP has been studied under complete and bootstrap sampling schemes, little is known of its behaviour with censored observations, specifically progressive Type-II censoring. In this paper, we obtain the Maximum Likelihood Estimates (MLEs) of parameters of NKP under progressive Type-II censoring. A Monte Carlo simulation evaluates estimator performance across varying sample sizes (n), number of observed failures (m), and three censoring schemes. Bias and mean squared error (MSE) are used to assess accuracy and precision.
Autores principais:Musyoka, Moreen
Outros Autores:Odongo, Leo; Musyoka, Moreen
Assunto:new Kumaraswamy Pareto new generalized family maximum likelihood estimate mean square error observed data
Ano:2026
País:Portugal
Tipo de documento:artigo
Tipo de acesso:unknown
Instituição associada:Instituto Nacional de Estatística
Idioma:inglês
Origem:REVSTAT-Statistical Journal
Descrição
Resumo:Various distributions in current literature have been employed widely in modeling lifetime and reliability data such as the New Kumaraswamy Pareto (NKP) distribution, which belongs to the New Generalised Family of distributions. Although the NKP has been studied under complete and bootstrap sampling schemes, little is known of its behaviour with censored observations, specifically progressive Type-II censoring. In this paper, we obtain the Maximum Likelihood Estimates (MLEs) of parameters of NKP under progressive Type-II censoring. A Monte Carlo simulation evaluates estimator performance across varying sample sizes (n), number of observed failures (m), and three censoring schemes. Bias and mean squared error (MSE) are used to assess accuracy and precision.