A New Lifetime Distribution: Exponentiated Exponential-Pareto-HalfNormal Mixture Model for Biomedical Applications

Fuente: arXiv
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Autores principales: Hassan, Oriyomi Ahmad, Maradesa, Aisha Tunrayo, Alabi, Abdulazeez Toyosi, Salam, Oyejide Surajudeen, Busari, Ajani, Famotire, Akinwale Victor, Afolabi, Habeeb Abiodun, Adeleke, Solomon, Akomolafe, Abayomi Ayodele
Formato: Preprint
Publicado: 2025
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author Hassan, Oriyomi Ahmad
Maradesa, Aisha Tunrayo
Alabi, Abdulazeez Toyosi
Salam, Oyejide Surajudeen
Busari, Ajani
Famotire, Akinwale Victor
Afolabi, Habeeb Abiodun
Adeleke, Solomon
Akomolafe, Abayomi Ayodele
author_facet Hassan, Oriyomi Ahmad
Maradesa, Aisha Tunrayo
Alabi, Abdulazeez Toyosi
Salam, Oyejide Surajudeen
Busari, Ajani
Famotire, Akinwale Victor
Afolabi, Habeeb Abiodun
Adeleke, Solomon
Akomolafe, Abayomi Ayodele
contents This study introduces the Exponentiated-Exponential-Pareto-Half Normal Mixture Distribution (EEPHND), a novel hybrid model developed to overcome the limitations of classical distributions in modeling complex real-world data. By compounding the Exponentiated-Exponential-Pareto (EEP) and Half-Normal distributions through a mixture mechanism, EEPHND effectively captures both early-time symmetry and long-tail behavior, features which are commonly observed in survival and reliability data. The model offers closed-form expressions for its probability density, cumulative distribution, survival and hazard functions, moments, and reliability metrics, ensuring analytical traceability and interpretability in the presence of censoring and heterogeneous risk dynamics. When applied to a real-world lung cancer dataset, EEPHND outperformed competing models in both goodness-of-fit and predictive accuracy, achieving a Concordance Index (CI) of 0.9997. These results highlight its potential as a flexible and powerful tool for survival analysis and biomedical engineering.
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id arxiv_https___arxiv_org_abs_2506_08313
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle A New Lifetime Distribution: Exponentiated Exponential-Pareto-HalfNormal Mixture Model for Biomedical Applications
Hassan, Oriyomi Ahmad
Maradesa, Aisha Tunrayo
Alabi, Abdulazeez Toyosi
Salam, Oyejide Surajudeen
Busari, Ajani
Famotire, Akinwale Victor
Afolabi, Habeeb Abiodun
Adeleke, Solomon
Akomolafe, Abayomi Ayodele
Applications
Methodology
This study introduces the Exponentiated-Exponential-Pareto-Half Normal Mixture Distribution (EEPHND), a novel hybrid model developed to overcome the limitations of classical distributions in modeling complex real-world data. By compounding the Exponentiated-Exponential-Pareto (EEP) and Half-Normal distributions through a mixture mechanism, EEPHND effectively captures both early-time symmetry and long-tail behavior, features which are commonly observed in survival and reliability data. The model offers closed-form expressions for its probability density, cumulative distribution, survival and hazard functions, moments, and reliability metrics, ensuring analytical traceability and interpretability in the presence of censoring and heterogeneous risk dynamics. When applied to a real-world lung cancer dataset, EEPHND outperformed competing models in both goodness-of-fit and predictive accuracy, achieving a Concordance Index (CI) of 0.9997. These results highlight its potential as a flexible and powerful tool for survival analysis and biomedical engineering.
title A New Lifetime Distribution: Exponentiated Exponential-Pareto-HalfNormal Mixture Model for Biomedical Applications
topic Applications
Methodology
url https://arxiv.org/abs/2506.08313