Empirical Likelihood Home Page
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Empirical likelihood allows the statistician
to employ likelihood methods, without having
to pick a parametric family for the data.
It is described in a
monograph
published by Chapman and Hall/CRC Press (ISBN 1584880716).
The table of contents is given here in
PostScript
and in
PDF .
There is a large and growing literature extending
empirical likelihood methods to many statistical
problems. A partial bibliography (as of May 2000) is given below.
The book can be ordered online from the usual places.
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Reviews
"In this beautifully written book Owen lucidly illustrates the wide applicability of empirical likelihood and provides masterful accounts of its latest theoretical developments. Numerous empirical examples should fascinate practitioners in various fields of science. I recommend this book extremely highly." -Yuichi Kitamura, Department of Economics, University of Pennsylvania
"The statistical model discovery and information recovery process is shrouded in a great deal of uncertainty. Owen's empirical likelihood procedure provides an attractive basis for how best to represent the sampling process and to carry through the estimation and inference objectives" - George Judge, University of California, Berkeley
"A great amount of thought and care has gone into preparing this fascinating monograph. Empirical likelihood is somehow at the junction between two of the main streams of contemporary statistics, parametric and nonparametric methods. Through EL, some of the key results of the former (such as Wilks' Theorem and Bartlett correctibility) carry over to the latter in a way which seems almost to deny the infinite-parameter character of nonparametric statistics. Even if the purpose of empirical likelihood was no more than this didactic one, it would be significant. Yet as Owen shows so engagingly, EL also has a colourful life of its own. It is a unique practical tool, and it enjoys important, and growing, connections to many areas of statistics, from the Kaplan-Meier estimator to the bootstrap and beyond. If we look at statistics from the vantage point of EL we can see a long way; Owen shows us how, and how far." -Professor Peter Hall, Australian National University.
"This impressive monograph is the definitive source for researchers
who wish to learn how to utilize empirical likelihood methods. The
author addresses a range of topics, including univariate confidence
intervals, regression models, kernel smoothing, and mean function
smoothing. Although the book covers considerable ground and is
rigorous, the book is well written and a reader with a solid
background in mathematical statistics can readily tackle this
volume." -Journal of Mathematical Psychology
This book will make accessible to a wider audience the new and
important area of nonparameteric likelihood and hypothesis
testing. Masterfully written by a pioneer in this area, this book
lucidly discusses the statistical theory and -- perhaps more
importantly for applied econometricians -- computational details and
practical aspects of putting the ideas to work with real data. This
book will have a major impact on the way hypothesis testing is done in
econometrics, where one is very often unsure about what the correct
model specification is. -Anand V. Bodapati, UCLA Anderson School of
Management, USA
"The book will make an ideal text for a course in empirical likelihood for advanced statistics students, while it provides theoretically-minded practitioners a quick access to the growing empirical likelihood literature... The writing style is extremely clear throughout, even when discussing the fine points of the theory. Important results are well motivated, discussed and illustrated by real data examples." -Biometrics, vol. 57, no. 4, December 2001
scel.R
Posted Mar 2015
R function to compute empirical likelihood
using a self-concordant convex criterion.
Thanks to Leo Belzile for spotting an error in
the hpp function, which is fixed in the linked code.
That did not affect computation
in the region of the solution, but might have
affected progress towards the solution.
scelcount.R Posted Feb 2017
PDF of documentation
This is a rewrite of the R function above to handle
data with lots of ties. The input is a matrix of values and a vector of count where the i'th count is the number of times the i'th row of the matrix appears as data. It is meant to handle cases such as zero inflated counts so the user does not have to store all those zeros.
Justin Grana's python code for
descriptive statistics by empirical likelihood
Justin Grana's python code for
regression
by empirical likelihood
Justin Grana's python code for
regression confidence intervals
el.S
Splus functions to calculate empirical likelihood for a (vector) mean.
(Free with no gaurantees.) Also outdated vs scel.R.
John Zedlewski's Matlab code
with an emphasis on econometric applications
el.R
Mai Zhou's R code for empirical likelihood, with an emphasis on
survival analysis.
elm.m
plog.m
Matlab functions to calculate empirical likelihood for a (vector) mean.
Hansen's Gauss
Bruce Hansen's Gauss language code for EL and GMM
Links
Empirical likelihood is of interest
to econometricians, because it offers some advantages
over GMM (generalized method of moments).
Readers seeking to follow up with applications
of empirical likelihood
to econometrics, should turn to
Econometric Foundations
Gianfranco Adimari
University of Padua
Murray Aitkin
University of Newcastle
Keith Baggerly
Rice University
Francesco Bartolucci
University of Perugia
Jiahua Chen
University of Waterloo
Song-Xi Chen
National University of Singapore
Chin-Shan Chuang
University of Wisconsin
Nidhan Choudhuri
Case Western Reserve University
Tom DiCiccio
Cornell University
Kim-Ahn Do
M.D. Anderson Cancer Center
Hammou El Barmi
Kansas State University
Jianqing Fan
University of California, Los Angeles
Kostas Fokianos
University of Cyprus
Nancy Glenn
Rice University
Peter Hall
Australian National University
Bruce Hansen
University of Wisconsin
Tim Hesterberg
Google Inc.
Myles Hollander
Florida State University
Guido Imbens
University of California, Los Angeles
George Judge
University of California, Berkeley
Yuichi Kitamura
University of Wisconsin
Eric Kolaczyk
Boston University
Jerry Lawless
University of Waterloo
Wei-Liem Loh
National University of Singapore
Susan Murphy
University of Michigan
Nicole Lazar
Carnegie-Mellon University
Ian McKeague
Florida State University
Per Mykland
University of Chicago
Whitney Newey
M.I.T.
Yudi Pawitan
University College, Cork, Ireland
Liang Peng
Georgia Tech
Brett Presnell
University of Florida
Jing Qin
Memorial Sloan-Kettering Institute
Jon Rao
Carleton University
Jian-Jian Ren
Tulane University
Joe Romano
Stanford University
Xiaotong Shen
Ohio State University
Richard Smith
University of Bristol
Randy Sitter
Simon Fraser University
Richard Spady
Oxford University
Min Tsao
University of Victoria
Ingrid van Keilegom
Universite Catholiue de Louvain
Aad van der Vaart
The Vrije Universiteit, Amsterdam
Qihua Wang
AMSS, China
Brian Yandell
University of Wisconsin
Biao Zhang
University of Toledo
Fei Zou
University of Wisconsin
Yichuan Zhao
Georgia State University
Some Illustrations of Empirical Likelihood
Example from Biology
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Example from Physics
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Example from Econometrics
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