A note on bootstrap approximations for the empirical copula process
By Axel Bucher, Holger Dette. 2010
82 citations recorded by the source corpus.
Subfields: Finance, Statistics and Probability
View Paper: https://www.semanticscholar.org/paper/c211a94f9314be7f66f9245a9e27540b108eabed
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Finance
- Johan Segers
- Jean-David Fermanian
- Axel Bucher
- Holger Dette
- Stanislav Volgushev
- Andrew J. Patton
- Christian Genest
- Gordon Gudendorf
In Statistics and Probability
- Jean-David Fermanian
- Johan Segers
- Stanislav Volgushev
- Axel Bucher
- Holger Dette
- Andrew J. Patton
- Christian Genest
- Gordon Gudendorf
Citations in the corpus
- An Overview of the Goodness-of-Fit Test Problem for Copulas (2012, methodology): “To avoid this last stage, another bootstrap procedure has been proposed in [14].”
- A dependent multiplier bootstrap for the sequential empirical copula process under strong mixing (2013, unknown): “Their finite-sample properties were compared in Bücher and Dette (2010) who concluded that the multiplier bootstrap of Rémillard and Scaillet (2009) has, overall, the best finite-sample behavior. In the case of strongly mixing observations, Bücher and Ruppert (2013) recently proposed a similar resam”
- Asymptotics of empirical copula processes under non-restrictive smoothness assumptions (2010, methodology): “For instance, the empirical copula is a basic building block when estimating copula densities (Chen and Huang [3], Omelka, Gijbels and Veraverbeke [22]) or dependence measures and functions (Schmid et al. [27], Genest and Segers [14]), for testing for independence (Genest and Rémillard [12], Genest,”
- New estimators of the Pickands dependence function and a test for extreme-value dependence (2011, methodology): “We hence propose to determine the quantiles by the multiplier bootstrap approach as described in Bücher and Dette (2010). To be precise, let ξ1, .”