Marshall–Olkin Extended Gumbel Type-II Distribution: Properties and Applications

Due to the advance computer technology, the use of probability distributions has been raised up to solve the real life problems. These applications are found in reliability engineering, computer sciences, economics, psychology, survival analysis, and some others. This study offers a new probability...

Full description

Saved in:
Bibliographic Details
Main Authors: Farwa Willayat, Naz Saud, Muhammad Ijaz, Anita Silvianita, Mahmoud El-Morshedy
Format: Article
Language:English
Published: Wiley 2022-01-01
Series:Complexity
Online Access:http://dx.doi.org/10.1155/2022/2219570
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1832547142666813440
author Farwa Willayat
Naz Saud
Muhammad Ijaz
Anita Silvianita
Mahmoud El-Morshedy
author_facet Farwa Willayat
Naz Saud
Muhammad Ijaz
Anita Silvianita
Mahmoud El-Morshedy
author_sort Farwa Willayat
collection DOAJ
description Due to the advance computer technology, the use of probability distributions has been raised up to solve the real life problems. These applications are found in reliability engineering, computer sciences, economics, psychology, survival analysis, and some others. This study offers a new probability model called Marshall–Olkin Extended Gumbel Type-II (MOEGT-II) which can model various shapes of the failure rate function. The proposed distribution is capable to model increasing, decreasing, reverse J-shaped, and upside down bathtub shapes of the failure rate function. Various statistical properties of the proposed distribution are derived such as alternate expressions for the density and distribution function, special cases of MOEGT-II distribution, quantile function, Lorenz curve, and Bonferroni curve. Estimation of the unknown parameters is carried out by the method of maximum likelihood. A simulation study is conducted using three different iterative methods with different samples of sizes n. The usefulness and potentiality of the MOEGT-II distribution have been shown using three real life data sets. The MOEGT-II distribution has been demonstrated as better fit than Exponentiated Gumbel Type-II (EGT-II), Marshall–Olkin Gumbel Type-II (MOGT-II), Gumbel Type-II (GT-II), Marshall–Olkin–Frechet (MOF), Frechet (F), Burr III, Log Logistic (LL), Beta Inverse Weibull (BIW), and Kumaraswamy Inverse Weibull (KIW) distributions.
format Article
id doaj-art-439327577f414562aea3129feced7821
institution Kabale University
issn 1099-0526
language English
publishDate 2022-01-01
publisher Wiley
record_format Article
series Complexity
spelling doaj-art-439327577f414562aea3129feced78212025-02-03T06:45:55ZengWileyComplexity1099-05262022-01-01202210.1155/2022/2219570Marshall–Olkin Extended Gumbel Type-II Distribution: Properties and ApplicationsFarwa Willayat0Naz Saud1Muhammad Ijaz2Anita Silvianita3Mahmoud El-Morshedy4Department of StatisticsDepartment of StatisticsDepartment of Mathematics and StatisticsSchool of communications and businessDepartment of Mathematics, College of Sciences and Humanities in Al-KharjDue to the advance computer technology, the use of probability distributions has been raised up to solve the real life problems. These applications are found in reliability engineering, computer sciences, economics, psychology, survival analysis, and some others. This study offers a new probability model called Marshall–Olkin Extended Gumbel Type-II (MOEGT-II) which can model various shapes of the failure rate function. The proposed distribution is capable to model increasing, decreasing, reverse J-shaped, and upside down bathtub shapes of the failure rate function. Various statistical properties of the proposed distribution are derived such as alternate expressions for the density and distribution function, special cases of MOEGT-II distribution, quantile function, Lorenz curve, and Bonferroni curve. Estimation of the unknown parameters is carried out by the method of maximum likelihood. A simulation study is conducted using three different iterative methods with different samples of sizes n. The usefulness and potentiality of the MOEGT-II distribution have been shown using three real life data sets. The MOEGT-II distribution has been demonstrated as better fit than Exponentiated Gumbel Type-II (EGT-II), Marshall–Olkin Gumbel Type-II (MOGT-II), Gumbel Type-II (GT-II), Marshall–Olkin–Frechet (MOF), Frechet (F), Burr III, Log Logistic (LL), Beta Inverse Weibull (BIW), and Kumaraswamy Inverse Weibull (KIW) distributions.http://dx.doi.org/10.1155/2022/2219570
spellingShingle Farwa Willayat
Naz Saud
Muhammad Ijaz
Anita Silvianita
Mahmoud El-Morshedy
Marshall–Olkin Extended Gumbel Type-II Distribution: Properties and Applications
Complexity
title Marshall–Olkin Extended Gumbel Type-II Distribution: Properties and Applications
title_full Marshall–Olkin Extended Gumbel Type-II Distribution: Properties and Applications
title_fullStr Marshall–Olkin Extended Gumbel Type-II Distribution: Properties and Applications
title_full_unstemmed Marshall–Olkin Extended Gumbel Type-II Distribution: Properties and Applications
title_short Marshall–Olkin Extended Gumbel Type-II Distribution: Properties and Applications
title_sort marshall olkin extended gumbel type ii distribution properties and applications
url http://dx.doi.org/10.1155/2022/2219570
work_keys_str_mv AT farwawillayat marshallolkinextendedgumbeltypeiidistributionpropertiesandapplications
AT nazsaud marshallolkinextendedgumbeltypeiidistributionpropertiesandapplications
AT muhammadijaz marshallolkinextendedgumbeltypeiidistributionpropertiesandapplications
AT anitasilvianita marshallolkinextendedgumbeltypeiidistributionpropertiesandapplications
AT mahmoudelmorshedy marshallolkinextendedgumbeltypeiidistributionpropertiesandapplications