Abstract

We proposed “a new extension of three-parametric distribution” called the inverse power two-parameter weighted Lindley (IPWL) distribution capable of modeling a upside-down bathtub hazard rate function. This distribution is studied to get basic structural properties such as reliability measures, moments, inverse moments and its related measures. Simulation studies are done to present the performance and behavior of maximum likelihood estimates of the IPWL distribution parameters. Finally, we perform goodness of fit measures and test statistics using a real data set to show the performance of the new distribution.

Highlights

  • Lindley distribution is one way to describe the lifetime of a wide variety of fields, including biology, engineering and medicine

  • We proposed a new inverse two-parameter weighted Linley distribution which offers more flexibility with upside-down bathtub or unimodal hazard rate named the inverse power two-parameter weighted Lindley (IPWL) distribution

  • Inverse power two-parameter weighted Lindley distribution obtain a greater approximation between the empirical and the theoretical curves the proposed distribution was the one which best adjusted to the real data set

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Summary

Introduction

Lindley distribution is one way to describe the lifetime of a wide variety of fields, including biology, engineering and medicine. A few inverted statistical distributions such as inverted Rayleigh (IR), inverted Weibull (IW), and inverted Gamma (IG) are available to model such upside-down bathtub data These distributions have been extensively used in the various real-life applications. Alkarni [9] proposed the extended inverse two-parameter Lindley distribution as a statistical inverse model for upside-down bathtub survival data. We proposed a new inverse two-parameter weighted Linley distribution which offers more flexibility with upside-down bathtub or unimodal hazard rate named the inverse power two-parameter weighted Lindley (IPWL) distribution.

The Inverse Power Weighted Lindley Distribution
Reverse Hazard Rate Function
Statistical Properties
Method of Moments Estimates
Least Square Estimates
Maximum Likelihood Estimates
Approximate Confidence Intervals
Simulation
Application
Conclusion
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