2015
DOI: 10.1007/978-3-319-16877-7
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Heavy-Tailed Distributions and Robustness in Economics and Finance

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Cited by 116 publications
(92 citation statements)
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References 132 publications
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“…Remark 4.1 The bounds presented in Theorem 4.1 hold for arbitrary two fixed moments of the returns of order higher than one; the moments fixed do not have to be, e.g., the mean and variance of the returns. In particular, the bounds hold for assets with heavy-tailed distributions typically observed in economic, financial and insurance markets (see, for instance, the reviews and results in Gabaix, 2008, Ibragimov, 2009, Ibragimov, Ibragimov and Walden, 2015and Ibragimov and Prokhorov, 2016 including the infinite fourth moment and even the infinite variance case.…”
Section: The Functionmentioning
confidence: 95%
See 1 more Smart Citation
“…Remark 4.1 The bounds presented in Theorem 4.1 hold for arbitrary two fixed moments of the returns of order higher than one; the moments fixed do not have to be, e.g., the mean and variance of the returns. In particular, the bounds hold for assets with heavy-tailed distributions typically observed in economic, financial and insurance markets (see, for instance, the reviews and results in Gabaix, 2008, Ibragimov, 2009, Ibragimov, Ibragimov and Walden, 2015and Ibragimov and Prokhorov, 2016 including the infinite fourth moment and even the infinite variance case.…”
Section: The Functionmentioning
confidence: 95%
“…The analysis of preferences over payoff distributions and the effects of skewness and other higher moments (e.g., kurtosis) in this framework may also relate to applications of majorization theory (seeMarshall, Olkin and Arnold, 2011) and heavy-tailed distributions (see, among othersEmbrechts, Klüuppelberg and Mikosch, 1997;Gabaix, 2008;Ibragimov, 2009;Ibragimov, Ibragimov and Walden, 2015;Ibragimov and Prokhorov, 2016).…”
mentioning
confidence: 99%
“…The log-likelihood function can be maximized either directly or by solving the nonlinear likelihood equation obtained by differentiating (13). We used the goodness of fit function in R with "L-BFGS-B" algorithm to obtain the MLEs.…”
Section: Maximum Likelihood Estimationmentioning
confidence: 99%
“…Speaking broadly, modeling insurance loss data with a heavy tail is a prominent research topic. Insurance loss data are positive, for detail see , and their distribution is often unimodal shaped, for example see Cooray and Ananda (2005), right-skewed, for detail see Lane (2000), Vernic (2006) Kazemi and Noorizadeh (2015) and Adcock et al (2015), and with heavy tails, see Ibragimov et al (2015). Actuaries are often interested in distributions that offer data modeling with heavy tail and provide a good estimate of the associated business risk level.…”
Section: Introductionmentioning
confidence: 99%
“…Lévy statistics applies to the description of a particular class of random walks obeying a 'heavy-tailed' probability distribution with power law dependence [1]. Lévy statistics has been studied in great details owing to its importance in numerous scientific areas where such random walks can occur, and where the long tail of Lévy distributions is essential for the prediction of rare events, be that in chemistry [2], biology [3], or in economics [4,5]. In physics, Lévy statistics appears often as a result of a complex dynamics, in various transport processes of heat, sound, or light diffusions, in chaotic systems, and in laser cooling where it has broad applications for subrecoil cooling techniques [1,[6][7][8].…”
Section: Introductionmentioning
confidence: 99%