2020
DOI: 10.3390/e22030346
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The Truncated Cauchy Power Family of Distributions with Inference and Applications

Abstract: As a matter of fact, the statistical literature lacks of general family of distributions based on the truncated Cauchy distribution. In this paper, such a family is proposed, called the truncated Cauchy power-G family. It stands out for the originality of the involved functions, its overall simplicity and its desirable properties for modelling purposes. In particular, (i) only one parameter is added to the baseline distribution avoiding the over-parametrization phenomenon, (ii) the related probability function… Show more

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Cited by 41 publications
(24 citation statements)
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“…The generated new distributions are more flexible in modelling data in practice. Some famous generators families are, Exponentiated -Weibull -generator (Elgarhy et al [2]), the Marshall-Olkin -G family by Marshal and Olkin [3], beta -G family by Eugene et al [4], the generalized odd log logistic -G by Cordeiro et al [5], the generalized transmuted-G by Nofal et al [6], the odd Lindley-G family by Gomes et al [7], a new extended alpha power transformed (APT)-G by Ahmad et al [8], a new APT-G by Elbatal et al [9], a new power Topp-Leone-G by Bantan et al [10], type II general inverse exponential-G by Jamal et al [11], Truncated Inverted Kumaraswamy-G by Bantan et al [12], the exponentiated truncated inverse Weibull-G by Almarashi et al [13], truncated Cauchy power-G by Aldahlan et al [14] and type II power Topp-Leone-G by Bantan et al [15], among others.…”
Section: Introductionmentioning
confidence: 99%
“…The generated new distributions are more flexible in modelling data in practice. Some famous generators families are, Exponentiated -Weibull -generator (Elgarhy et al [2]), the Marshall-Olkin -G family by Marshal and Olkin [3], beta -G family by Eugene et al [4], the generalized odd log logistic -G by Cordeiro et al [5], the generalized transmuted-G by Nofal et al [6], the odd Lindley-G family by Gomes et al [7], a new extended alpha power transformed (APT)-G by Ahmad et al [8], a new APT-G by Elbatal et al [9], a new power Topp-Leone-G by Bantan et al [10], type II general inverse exponential-G by Jamal et al [11], Truncated Inverted Kumaraswamy-G by Bantan et al [12], the exponentiated truncated inverse Weibull-G by Almarashi et al [13], truncated Cauchy power-G by Aldahlan et al [14] and type II power Topp-Leone-G by Bantan et al [15], among others.…”
Section: Introductionmentioning
confidence: 99%
“…Motivated by the success of the sine-G family, several trigonometric families have seen the light, with different modeling aims. The most cited are the cos-G family by Souza et al [67,71], sec-G family by Souza et al [67,69], tan-G family by Souza et al [67,68] and Ampadu [15], T-X-tan-G family by Al-Mofleh [10], N sine-G family by Mahmood et al [50], cosine-sine-G family by Chesneau et al [22], arcsine exponentiated-X family by Wenjing et al [73], truncated Cauchy power-G family by Aldahlan et al [12], sine Kumaraswamy-G family by Chesneau and Jamal [23] and TransSC-G family by Jamal and Chesneau [39].…”
Section: Introductionmentioning
confidence: 99%
“…The common scenario consists in truncating the cdf a flexible distribution (inverse or not, generally with support on (0, +∞) or R) over the interval (0, 1) and compounding it by a simple baseline cdf. Current developments include the truncated Fréchet-G (TF-G) family by [17], truncated Burr-G (TB-G) family by [18], truncated Cauchy power-G (TCP-G) family by [19], truncated inverted Kumaraswamy-G (TIK-G) family by [20], and truncated inverse Weibull-G (TIW-G) family, also called type II truncated Fréchet-G (TIITF-G) family, by [21].…”
Section: Introductionmentioning
confidence: 99%