Local likelihood smoothing of sample extremes
By A. C. Davison, N. Ramesh. 2000
183 citations recorded by the source corpus.
Subfields: Global and Planetary Change, Ocean Engineering
View Paper: https://www.semanticscholar.org/paper/70d9832431f55b25b9bbd6f3a3937f29c5ba556f
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Global and Planetary Change
- A. C. Davison
- Raphaël Huser
- Thomas Opitz
- Laurent Gardes
- Stéphane Girard
- Emeric Thibaud
- Mathieu Ribatet
- Raphaël Mutzner
In Ocean Engineering
- Laurent Gardes
- Peter Hall
- Stuart Coles
- Gilles Stupfler
- Francesco Pauli
- N. Tajvidi
- Stéphane Girard
- R. Katz
Citations in the corpus
- Nonparametric Analysis of Temporal Trend When Fitting Parametric Models to ExtremeValue Data (2000, methodology): “Independently of the work in the present paper, Davison and Ramesh (2000) have developed local likelihood-based methods for smoothing sample extremes.”
- Generalized additive modelling of sample extremes (2005, background): “Davison and Ramesh (2000), Hall and Tajvidi (2000) and Ramesh and Davison (2002) have developed local likelihood models for smoothing sample extremes.”
- On kernel smoothing for extremal quantile regression (2012, unknown): “A semi-parametric approach to modeling trends in sample extremes, based on local polynomial fitting of the Generalized extreme-value distribution, has been introduced in [8].”
- Comparison of methods for non-stationary hydrologic frequency analysis: Case study using annual maximum daily precipitation in Taiwan (2017, background): “Although many researches have employed linear trends in parameter values to model non-stationarity, doubts remain as to whether these trends can be simplified into linear or simple functions (Hall and Tajvidi, 2000; Davison and Ramesh, 2000; Ramesh and Davison, 2002).”
- Penalized likelihood inference in extreme value analyses (2001, methodology): “A similar study was made by Davison & Ramesh (2000) using the local likelihood methodology they propose.”
- Statistics of extremes in hydrology (2002, methodology): “New samples could be generated through a multi-stage procedure: (i) convert the original data to residuals using Eq. (6) (with estimates for the model fit to the original data being substituted in place of the unknown parameters); (ii) produce new samples of residuals by the conventional bootstrap; ”
- Geostatistics of extremes (2012, background): “Davison & Ramesh (2000), Hall & Tajvidi (2000), Proc.”
- Threshold modeling of extreme spatial rainfall (2013, methodology): “Davison et al. [2012] found that max-stable models indeed provided better estimates of extreme spatial rainfall than did Bayesian and standard copula approaches. The copula approach of Salvadori and Michele [2010] is intended for a given network of gauge stations rather than for a truly spatial anal”
- Bootstrap confidence bands for regression curves and their derivatives (2003, background): “value and Pareto distributions, see, respectively, Davison and Ramesh (2000) and Beirlant”
- Conditional extremes from heavy-tailed distributions: an application to the estimation of extreme rainfall return levels (2010, background): “Fully non-parametric estimators have been first introduced in (Davison and Ramesh 2000), where a local polynomial modeling of the extreme observations is used.”
- Statistical Modeling of Spatial Extremes (2012, methodology): “Other approaches to spatial smoothing might also be adopted, as in Butler et al. (2007), who use local likelihood estimation for extreme-value models (Davison and Ramesh (2000); Hall and Tajvidi (2000)), but they do not seem necessary here.”
- Functional kernel estimators of large conditional quantiles (2011, unknown): “Fully nonparametric estimators have been first introduced in [9, 6] through local polynomial and spline models.”