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2015
DOI: 10.1007/s00181-015-0989-9
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Robust estimation of the Pareto tail index: a Monte Carlo analysis

Abstract: The Pareto distribution is often used in many areas of economics to model the right tail of heavy-tailed distributions. However, the standard method of estimating the shape parameter (the Pareto tail index) of this distribution-the maximum likelihood estimator (MLE), also known as the Hill estimator-is non-robust, in the sense that it is very sensitive to extreme observations, data contamination or model deviation. In recent years, a number of robust estimators for the Pareto tail index have been proposed, whi… Show more

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Cited by 21 publications
(15 citation statements)
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“…In fact, the resulting estimator ξ k 0 ,k (n), where k 0 is automatically selected, has an excellent finite sample performance and it is adaptively robust. This novel adaptive robustness property is not present in other robust estimators of [20,23,28,13,31,14], which involve hard to select tuning parameters. Also none of these estimators is able to identify outliers in the extremes, a property inherent to the adaptive trimmed Hill estimator.…”
Section: Introductionmentioning
confidence: 94%
“…In fact, the resulting estimator ξ k 0 ,k (n), where k 0 is automatically selected, has an excellent finite sample performance and it is adaptively robust. This novel adaptive robustness property is not present in other robust estimators of [20,23,28,13,31,14], which involve hard to select tuning parameters. Also none of these estimators is able to identify outliers in the extremes, a property inherent to the adaptive trimmed Hill estimator.…”
Section: Introductionmentioning
confidence: 94%
“…Moreover, to overcome the problem of outliers and influential observations, we recalibrate sample weights following the approach proposed by Alfons et al . (2013) and generally adopted by those working with income variables (Alfons and Templ, 2013; Brzesinki, 2016; Jenkins, 2017; Safari et al ., 2018, 2019; Templ et al ., 2019). This procedure consists of detecting outlier observations against a fitted Pareto distribution of the variable of interest, applying Van Kerm’s rule of thumb to determine the threshold (Van Kerm, 2007).…”
Section: Estimation Strategymentioning
confidence: 99%
“…However, those data have been treated in order to circumvent non-robustness problems. The issue of robust estimation of economic indicators based on a semi-parametric Pareto upper tail model is well-established in literature see [Brzezinski(2016)] for a review and [Alfons et al(2013)Alfons, Templ, and Filzmoser] for a specification suitable for survey data. On the contrary, the issue of robust treatment of outlier in the lower tail of income distribution appears less established, see [Van Kerm(2007)], [Masseran et al(2019)Masseran, Safari, and Ibrahim].…”
Section: Design-based Simulation On Bias Correctionmentioning
confidence: 99%
“…On the contrary, the issue of robust treatment of outlier in the lower tail of income distribution appears less established, see [Van Kerm(2007)], [Masseran et al(2019)Masseran, Safari, and Ibrahim]. As regards the upper tail we operated a semiparametric Pareto-tail modeling procedure using the Probability Integral Transform Statistic Estimator (PITSE) proposed by [Finkelstein et al(2006)Finkelstein, Tucker, and Alan Veeh], which blends very good performances in small samples and a fast computational implementation, as suggested by [Brzezinski(2016)]. As regards the lower tail extreme value treatment, we used an inverse Pareto modification of PITSE estimator, suggested by [Masseran et al(2019)Masseran, Safari, and Ibrahim].…”
Section: Design-based Simulation On Bias Correctionmentioning
confidence: 99%