On Bouhadjar distribution: mathematical properties, simulation and applications

  • Meriem Bouhadjar Badji Mokhtar-Annaba university
  • Ahlem Djebar Badji Mokhtar-Annaba university
  • Halim Zeghdoudi LaPS laboratory, Badji-Mokhtar University, Box 12, Annaba, 23000,ALGERIA

Abstract

In this study, we introduce the Bouhadjar Distribution (BoD), a novel extension of the recently proposed new X-Lindley distribution. The BoD model is particularly well-suited for modeling lifetime data, as its hazard rate function accommodates both increasing and bathtub-shaped behaviors. We explore the fundamental statistical properties of the distribution, including moments, incomplete moments, the moment-generating function, mean deviations from the mean and median, Rényi entropy, order statistics, Bonferroni and Lorenz curves, and the mean residual life function. Parameter estimation is addressed using both maximum likelihood and bootstrap techniques. A comprehensive Monte Carlo simulation study is conducted to assess the performance of the proposed estimators. Furthermore, the practical applicability of the BoD distribution is demonstrated through two real-world data analyses, including datasets related to the Marburg virus. Comparative results based on various goodness-of-fit criteria indicate that the BoD model provides a superior fit relative to several existing one- and two-parameter distributions.

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References

E.T. Lee and J.W. Wang, Statistical Methods for Survival Data Analysis, 3rd ed., John Wiley & Sons, Hoboken, NJ, 2003.

A. Beghriche, H. Zeghdoudi, V. Raman, and S. Chouia, New polynomial exponential distribution: Properties and applications, Statistics in Transition New Series 23(3), 95–112, 2022.

T. Belhamra, H. Zeghdoudi, and V. Raman, A new compound exponential Lindley distribution: Application and comparison, International Journal of Agricultural and Statistical Sciences 18(2), 755–766, 2022.

S. Chouia and H. Zeghdoudi, The XLindley distribution: Properties and application, Journal of Statistical Theory and Applications 20(2), 318–327, 2021.

A.M. Gemeay, A. Beghriche, L.P. Sapkota, H. Zeghdoudi, N. Makumi, M.E. Bakr, and O.S. Balogun, Modified XLindley distribution: Properties, estimation, and applications, AIP Advances 13(9), 095216, 2023.

A.M. Gemeay, T. Moakofi, O.S. Balogun, E. Ozkan, and M.M. Hossain, Analyzing real data by a new heavy-tailed statistical model, Modern Journal of Statistics 1(1), 1–24, 2025.

M.E. Bakr, A.A. Al-Babtain, Z. Mahmood, R.A. Aldallal, S.K. Khosa, M.M. Abd El-Raouf, E. Hussam, and A.M. Gemeay, Statistical modelling for a new family of generalized distributions with real data applications, [Journal Name], [Volume]([Issue]), [Pages], 2021.

L.P. Sapkota, V. Kumar, G. Tekle, H. Alrweili, M.S. Mustafa, and M. Yusuf, Fitting real data sets by a new version of Gompertz distribution, Modern Journal of Statistics 1(1), 25–48, 2025.

H. Messaadia and H. Zeghdoudi, Zeghdoudi distribution and its applications, International Journal of Computational Science and Mathematics 9(1), 58–65, 2018.

D.V. Lindley, Fiducial distributions and Bayes’ theorem, Journal of the Royal Statistical Society, Series B (Methodological) 20(1), 102–107, 1958.

N. Khodja, A.M. Gemeay, H. Zeghdoudi, K. Karakaya, A.M. Alshangiti, M.E. Bakr, and E. Hussam, Modeling voltage real data set by a new version of Lindley distribution, IEEE Access 11, 67220–67229, 2023.

Council of Economic Advisers. Economic Report of the President. Washington, DC: U.S. Government Printing Office, 2007. Table B–110, p. 356. (Exchange rates for Sweden, 1985–2006).

Diggle, P. J. Analysis of Longitudinal Data. Oxford: Oxford University Press, 1990. Table A.1, Series 3 (Luteinizing hormone in blood samples).

Published
2025-09-17
Section
Research Articles