A Weibull Generated Exponentiated Exponential Model: Properties and Bayes Interval Prediction

Motivated by the fact that the so-called Weibull generated exponentiated exponential distribution (WGEED) accommodates for non-monotone as well as monotone hazard rate functions (HRFs), we give some properties of this WGEED and explore its use in life testing by obtaining Bayes prediction intervals...

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Main Authors: Essam K. AL-Hussaini, Alaa H. Abdel-Hamid
Format: Article
Language:English
Published: Atlantis Press 2015-11-01
Series:Journal of Statistical Theory and Applications (JSTA)
Subjects:
Online Access:https://www.atlantis-press.com/article/25845142.pdf
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spelling doaj-757b60ad2f2a445e9453fe03b6d6b9252020-11-25T00:19:15ZengAtlantis PressJournal of Statistical Theory and Applications (JSTA)1538-78872015-11-0114410.2991/jsta.2015.14.4.3A Weibull Generated Exponentiated Exponential Model: Properties and Bayes Interval PredictionEssam K. AL-HussainiAlaa H. Abdel-HamidMotivated by the fact that the so-called Weibull generated exponentiated exponential distribution (WGEED) accommodates for non-monotone as well as monotone hazard rate functions (HRFs), we give some properties of this WGEED and explore its use in life testing by obtaining Bayes prediction intervals of future observables. The survival function (SF) of the WGEED is constructed by composing a Weibull cumulative distribution function (CDF) with –ln [exponentiated exponential] CDF. Some properties of the WGEED are given and prediction intervals of future observables, using the one- and two-sample schemes, are obtained. A comparison between the WGEE and the Weibull distributions, based on Kolmogorov-Smirnov goodness of fit test, shows that the former fits better than the latter. Real life data shows the possibility of using the WGEED in analyzing lifetime data. Numerical examples of one- and two- sample Bayes interval prediction are given to illustrate the procedure and a simulation study is made to compute the coverage probabilities and the average lengths of intervals.https://www.atlantis-press.com/article/25845142.pdfComposed distributions; Weibull and exponentiated exponential distributions; one- and two-sample Bayes interval prediction; simulation.
collection DOAJ
language English
format Article
sources DOAJ
author Essam K. AL-Hussaini
Alaa H. Abdel-Hamid
spellingShingle Essam K. AL-Hussaini
Alaa H. Abdel-Hamid
A Weibull Generated Exponentiated Exponential Model: Properties and Bayes Interval Prediction
Journal of Statistical Theory and Applications (JSTA)
Composed distributions; Weibull and exponentiated exponential distributions; one- and two-sample Bayes interval prediction; simulation.
author_facet Essam K. AL-Hussaini
Alaa H. Abdel-Hamid
author_sort Essam K. AL-Hussaini
title A Weibull Generated Exponentiated Exponential Model: Properties and Bayes Interval Prediction
title_short A Weibull Generated Exponentiated Exponential Model: Properties and Bayes Interval Prediction
title_full A Weibull Generated Exponentiated Exponential Model: Properties and Bayes Interval Prediction
title_fullStr A Weibull Generated Exponentiated Exponential Model: Properties and Bayes Interval Prediction
title_full_unstemmed A Weibull Generated Exponentiated Exponential Model: Properties and Bayes Interval Prediction
title_sort weibull generated exponentiated exponential model: properties and bayes interval prediction
publisher Atlantis Press
series Journal of Statistical Theory and Applications (JSTA)
issn 1538-7887
publishDate 2015-11-01
description Motivated by the fact that the so-called Weibull generated exponentiated exponential distribution (WGEED) accommodates for non-monotone as well as monotone hazard rate functions (HRFs), we give some properties of this WGEED and explore its use in life testing by obtaining Bayes prediction intervals of future observables. The survival function (SF) of the WGEED is constructed by composing a Weibull cumulative distribution function (CDF) with –ln [exponentiated exponential] CDF. Some properties of the WGEED are given and prediction intervals of future observables, using the one- and two-sample schemes, are obtained. A comparison between the WGEE and the Weibull distributions, based on Kolmogorov-Smirnov goodness of fit test, shows that the former fits better than the latter. Real life data shows the possibility of using the WGEED in analyzing lifetime data. Numerical examples of one- and two- sample Bayes interval prediction are given to illustrate the procedure and a simulation study is made to compute the coverage probabilities and the average lengths of intervals.
topic Composed distributions; Weibull and exponentiated exponential distributions; one- and two-sample Bayes interval prediction; simulation.
url https://www.atlantis-press.com/article/25845142.pdf
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