2017
DOI: 10.2298/aadm1702434p
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Extension of generalized integro-exponential function and its application in study of Chen distribution

Abstract: In 2000 Chen introduced a two-parameter lifetime model and has reported only a few mathematical properties moments, quantile and generating functions, among others. In this article, we derive a power series expansion for newly introduced real upper parameter generalized integro-exponential function E p s (z) extending certain Milgram's findings. By our novel results we derive closed-form expressions for the moments, generating function, Rényi entropy and power series for the quantile function of the Chen distr… Show more

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Cited by 3 publications
(3 citation statements)
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“…Pogany et al [23] provided a power series expansion for newly introduced real upper parameter generalized integro‐exponential function Eps(z) extending certain Milgram's findings. By the novel results, Pogány et al [23] derived closed‐form expressions for the moments, generating function, Rényi entropy and power series for the quantile function of the Chen distribution.…”
Section: Introductionmentioning
confidence: 72%
“…Pogany et al [23] provided a power series expansion for newly introduced real upper parameter generalized integro‐exponential function Eps(z) extending certain Milgram's findings. By the novel results, Pogány et al [23] derived closed‐form expressions for the moments, generating function, Rényi entropy and power series for the quantile function of the Chen distribution.…”
Section: Introductionmentioning
confidence: 72%
“…, is an extension of generalized integroexponential function introduced by Pogany et al [20]. The function E j s (z) can be presented as…”
Section: DXmentioning
confidence: 99%
“…Numerous authors have linked to listed models considering special cases of Gamma generalized, exponentiated distribution classes, among others we refer to Gamma-exponentiated Weibull [9,10], exponentiated Weibull, exponentiated Pareto, exponentiated Gamma [11], Kumaraswamy generalized Gamma and Gumbel [12,13] distributions with exhaustive references lists and links to further sub-models and special cases, consult e.g., ( [13], pp. 415-416); also see the recent article [14] where an extension is obtained for the generalized integro-exponential function by which the moment expression of the above listed distribution classes can be expressed in a closed or more compact form. Finally, we mention the related recent article [15] as well.…”
Section: Introductionmentioning
confidence: 99%