Modeling engineering data using extended power-Lindley distribution: Properties and estimation methods
In this paper, we introduce a new flexible distribution called the Weibull Marshall-Olkin power-Lindley (WMOPL) distribution to extend and increase the flexibility of the power-Lindley distribution to model engineering related data. The WMOPL has the ability to model lifetime data with decreasing, i...
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2021
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oai:doaj.org-article:02e69447c9244108b53aaa56a0b2e3442021-11-18T04:43:50ZModeling engineering data using extended power-Lindley distribution: Properties and estimation methods1018-364710.1016/j.jksus.2021.101582https://doaj.org/article/02e69447c9244108b53aaa56a0b2e3442021-12-01T00:00:00Zhttp://www.sciencedirect.com/science/article/pii/S1018364721002445https://doaj.org/toc/1018-3647In this paper, we introduce a new flexible distribution called the Weibull Marshall-Olkin power-Lindley (WMOPL) distribution to extend and increase the flexibility of the power-Lindley distribution to model engineering related data. The WMOPL has the ability to model lifetime data with decreasing, increasing, J-shaped, reversed-J shaped, unimodal, bathtub, and modified bathtub shaped hazard rates. Various properties of the WMOPL distribution are derived. Seven frequentist estimation methods are considered to estimate the WMOPL parameters. To evaluate the performance of the proposed methods and provide a guideline for engineers and practitioners to choose the best estimation method, a detailed simulation study is carried out. The performance of the estimators have been ranked based on partial and overall ranks. The performance and flexibility of the introduced distribution are studied using one real data set from the field of engineering. The data show that the WMOPL model performs better than some well-known extensions of the power-Lindley and Lindley distributions.Abdulhakim A. Al-BabtainDevendra KumarAhmed M. GemeaySanku DeyAhmed Z. AfifyElsevierarticleAnderson–Darling estimationMaximum likelihood estimationMaximum product of spacingMomentsPower-Lindley distributionScience (General)Q1-390ENJournal of King Saud University: Science, Vol 33, Iss 8, Pp 101582- (2021) |
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Anderson–Darling estimation Maximum likelihood estimation Maximum product of spacing Moments Power-Lindley distribution Science (General) Q1-390 |
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Anderson–Darling estimation Maximum likelihood estimation Maximum product of spacing Moments Power-Lindley distribution Science (General) Q1-390 Abdulhakim A. Al-Babtain Devendra Kumar Ahmed M. Gemeay Sanku Dey Ahmed Z. Afify Modeling engineering data using extended power-Lindley distribution: Properties and estimation methods |
description |
In this paper, we introduce a new flexible distribution called the Weibull Marshall-Olkin power-Lindley (WMOPL) distribution to extend and increase the flexibility of the power-Lindley distribution to model engineering related data. The WMOPL has the ability to model lifetime data with decreasing, increasing, J-shaped, reversed-J shaped, unimodal, bathtub, and modified bathtub shaped hazard rates. Various properties of the WMOPL distribution are derived. Seven frequentist estimation methods are considered to estimate the WMOPL parameters. To evaluate the performance of the proposed methods and provide a guideline for engineers and practitioners to choose the best estimation method, a detailed simulation study is carried out. The performance of the estimators have been ranked based on partial and overall ranks. The performance and flexibility of the introduced distribution are studied using one real data set from the field of engineering. The data show that the WMOPL model performs better than some well-known extensions of the power-Lindley and Lindley distributions. |
format |
article |
author |
Abdulhakim A. Al-Babtain Devendra Kumar Ahmed M. Gemeay Sanku Dey Ahmed Z. Afify |
author_facet |
Abdulhakim A. Al-Babtain Devendra Kumar Ahmed M. Gemeay Sanku Dey Ahmed Z. Afify |
author_sort |
Abdulhakim A. Al-Babtain |
title |
Modeling engineering data using extended power-Lindley distribution: Properties and estimation methods |
title_short |
Modeling engineering data using extended power-Lindley distribution: Properties and estimation methods |
title_full |
Modeling engineering data using extended power-Lindley distribution: Properties and estimation methods |
title_fullStr |
Modeling engineering data using extended power-Lindley distribution: Properties and estimation methods |
title_full_unstemmed |
Modeling engineering data using extended power-Lindley distribution: Properties and estimation methods |
title_sort |
modeling engineering data using extended power-lindley distribution: properties and estimation methods |
publisher |
Elsevier |
publishDate |
2021 |
url |
https://doaj.org/article/02e69447c9244108b53aaa56a0b2e344 |
work_keys_str_mv |
AT abdulhakimaalbabtain modelingengineeringdatausingextendedpowerlindleydistributionpropertiesandestimationmethods AT devendrakumar modelingengineeringdatausingextendedpowerlindleydistributionpropertiesandestimationmethods AT ahmedmgemeay modelingengineeringdatausingextendedpowerlindleydistributionpropertiesandestimationmethods AT sankudey modelingengineeringdatausingextendedpowerlindleydistributionpropertiesandestimationmethods AT ahmedzafify modelingengineeringdatausingextendedpowerlindleydistributionpropertiesandestimationmethods |
_version_ |
1718425079267721216 |