2001
DOI: 10.1002/jae.606
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A flexible parametric GARCH model with an application to exchange rates

Abstract: SUMMARYMany asset prices, including exchange rates, exhibit periods of stability punctuated by infrequent, substantial, often one-sided adjustments. Statistically, this generates empirical distributions of exchange rate changes that exhibit high peaks, long tails, and skewness. This paper introduces a GARCH model, with a flexible parametric error distribution based on the exponential generalized beta (EGB) family of distributions. Applied to daily US dollar exchange rate data for six major currencies, evidence… Show more

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Cited by 63 publications
(35 citation statements)
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“…However, GARCH models with conditionally normal errors generally fail to sufficiently capture the leptokurtosis evident in asset returns. The increasing attention focused on distributional properties (particularly tail heavyness), when estimating exchange rates models, has led to the widespread adoption of non-Gaussian conditional error distributions, most commonly the Student-t [38,39,40]. The Student-t distribution models more extended tails than the normal distribution and is asymptotically a power law with an exponent κ equal to the number of its degrees of freedom.…”
Section: Numerical Resultsmentioning
confidence: 99%
“…However, GARCH models with conditionally normal errors generally fail to sufficiently capture the leptokurtosis evident in asset returns. The increasing attention focused on distributional properties (particularly tail heavyness), when estimating exchange rates models, has led to the widespread adoption of non-Gaussian conditional error distributions, most commonly the Student-t [38,39,40]. The Student-t distribution models more extended tails than the normal distribution and is asymptotically a power law with an exponent κ equal to the number of its degrees of freedom.…”
Section: Numerical Resultsmentioning
confidence: 99%
“…Along with the Student's t (Bollerslev, 1987), two asymmetric generalizations are used, namely the non-central t distribution (Harvey and Siddique, 1999) and the so-called t 3 distribution used in . Further candidates include the hyperbolic (Eberlein and Keller, 1995;Küchler et al, 1999;Paolella, 1999), the generalized logistic (or EGB2) distribution (Paolella, 1997, Wang et al, 2001) and the asymmetric two-sided Weibull (Mittnik et al, 1998), abbreviated ADW. Table 1 reports the likelihood-based goodness-of-fit measures for the fitted models and the rankings of the models with respect to each of the criteria.…”
Section: Competing Modelsmentioning
confidence: 99%
“…By comparing the sample moments by the moments predicted by the assumed distributions, we see that the models overestimate the skewness and underestimate the kurtosis. The implication is that more ßexible distributions may be needed, like the exponential generalized beta family in Wang et al (2001). …”
Section: Estimation Of the Auxiliary Modelmentioning
confidence: 99%