2008
DOI: 10.1016/j.csda.2007.09.021
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On the hazard function of Birnbaum–Saunders distribution and associated inference

Abstract: In this paper, we discuss the shape of the hazard function of Birnbaum-Saunders distribution. Specifically, we establish that the hazard function of Birnbaum-Saunders distribution is an upside down function for all values of the shape parameter. In reliability and survival analysis, as it is often of interest to determine the point at which the hazard function reaches its maximum, we propose different estimators of that point and evaluate their performance using Monte Carlo simulations. Next, we analyze a data… Show more

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Cited by 122 publications
(74 citation statements)
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“…The application of the Cox model for analyzing rare and common diseases can also be extended to accommodate situations in which there are forces accelerating or decelerating the time to event of interest. The Birnbaum-Saunders [Birnbaum and Saunders, 1969;Kundu et al, 2008] parametric LTS models [Locatelli et al, 2007, Pitkäniemi et al, 2007 and also a nonparametric LTS model, for instance, might be appropriate alternatives for modeling each one of these situations. Since genetic and environmental factors might be involved in that acceleration or deceleration process, extending these models in genetic analysis would be useful.…”
Section: Discussionmentioning
confidence: 99%
“…The application of the Cox model for analyzing rare and common diseases can also be extended to accommodate situations in which there are forces accelerating or decelerating the time to event of interest. The Birnbaum-Saunders [Birnbaum and Saunders, 1969;Kundu et al, 2008] parametric LTS models [Locatelli et al, 2007, Pitkäniemi et al, 2007 and also a nonparametric LTS model, for instance, might be appropriate alternatives for modeling each one of these situations. Since genetic and environmental factors might be involved in that acceleration or deceleration process, extending these models in genetic analysis would be useful.…”
Section: Discussionmentioning
confidence: 99%
“…The third period (2011 to the present) is characterized by a new inventiveness, breaking the link with lifetime data analysis and hence extended application in new areas such as: biology, crop yield assessment, econometrics, energy production, forestry, industry, informatics, insurance, inventory management, medicine, psychology, neurology, pollution monitoring, quality control, sociology and seismology; see, for example, Bhatti (2010); Kotz et al (2010); Balakrishnan et al (2011); Leiva et al (2010Leiva et al ( , 2011Leiva et al ( , 2012; Vilca et al (2010); Villegas et al (2011); Azevedo et al (2012); Ferreira et al (2012); Paula et al (2012); Santos-Neto et al (2012; Marchant et al (2013; Saulo et al (2013Saulo et al ( , 2018; Barros et al (2014); Rojas et al (2015); Wanke and Leiva (2015); Bourguignon et al (2017); Garcia-Papani et al (2017); ; Lillo et al (2018) and the references therein. In addition, risk and hazard analysis applications, in engineering and medicine, using the BS distribution were performed by Bebbington et al (2008); Kundu et al (2008); Azevedo et al (2012); Athayde (2017); Leão et al (2017Leão et al ( , 2018aLeão et al ( , 2018b; Athayde et al (2018) and Desousa et al (2018). Furthermore, the issue of robust parameter estimation has been considered, for example, by Wang et al (2013Wang et al ( , 2015 and Lemonte (2016).…”
Section: Introduction and Literature Reviewmentioning
confidence: 99%
“…For any k > 0, kW ∼ BS(λ, kβ). Kundu et al (2008) discussed the shape of its hazard function. The probability density function (pdf) corresponding to (1.1) is g λ,β (w) = κ(λ, β)w where κ(λ, β) = exp(λ −2 )/(2λ √ 2πβ) and τ(u) = u + u −1 .…”
Section: Introductionmentioning
confidence: 99%