Generalized negative binomial distributions as mixed geometric laws and related limit theorems
V. Yu. Korolev, A. I. Zeifman

TL;DR
This paper introduces and analyzes the generalized negative binomial distributions as mixtures of generalized gamma laws, explores their properties, and establishes limit theorems, with applications in meteorology.
Contribution
It provides a comprehensive study of GNB distributions, including their analytic properties, explicit mixing representations, and new limit theorems for sums involving GNB-distributed counts.
Findings
GNB distributions are shown to be mixed Poisson laws with explicit mixing distributions.
Limit theorems demonstrate convergence of mixed binomial to mixed Poisson laws.
Representations of limit laws involve mixtures of Mittag-Leffler, Linnik, or Laplace distributions.
Abstract
In this paper we study a wide and flexible family of discrete distributions, the so-called generalized negative binomial (GNB) distributions that are mixed Poisson distributions in which the mixing laws belong to the class of generalized gamma (GG) distributions. The latter was introduced by E. W. Stacy as a special family of lifetime distributions containing gamma, exponential power and Weibull distributions. These distributions seem to be very promising in the statistical description of many real phenomena being very convenient and almost universal models for the description of statistical regularities in discrete data. Analytic properties of GNB distributions are studied. A GG distribution is proved to be a mixed exponential distribution if and only if the shape and exponent power parameters are no greater than one. The mixing distribution is written out explicitly as a scale mixture…
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Taxonomy
TopicsStatistical Distribution Estimation and Applications · Statistical Methods and Bayesian Inference · Advanced Statistical Methods and Models
