Robust estimation of small-area means and quantiles
Robust estimation of small-area means and quantiles
Small-area estimation techniques have typically relied on plug-in estimation based on models containing random area effects. More recently, regression M-quantiles have been suggested for this purpose, thus avoiding conventional Gaussian assumptions, as well as problems associated with the specification of random effects. However, the plug-in M-quantile estimator for the small-area mean can be shown to be the expected value of this mean with respect to a generally biased estimator of the small-area cumulative distribution function of the characteristic of interest. To correct this problem, we propose a general framework for robust small-area estimation, based on representing a small-area estimator as a functional of a predictor of this small-area cumulative distribution function. Key advantages of this framework are that it naturally leads to integrated estimation of small-area means and quantiles and is not restricted to M-quantile models. We also discuss mean squared error estimation for the resulting estimators, and demonstrate the advantages of our approach through model-based and design-based simulations, with the latter using economic data collected in an Australian farm survey.
australian farm data, chambers–dunstan estimator, finite-population distribution function, m-quantile regression, rao–kovar–mantel estimator, robust regression, small-area estimation, smearing estimator
167-186
Tzavidis, Nikos
431ec55d-c147-466d-9c65-0f377b0c1f6a
Marchetti, Stefano
d47d90a9-90d3-40fa-b290-322caf8ee283
Chambers, Ray
96331700-f45e-4483-a887-fef921888ff2
June 2010
Tzavidis, Nikos
431ec55d-c147-466d-9c65-0f377b0c1f6a
Marchetti, Stefano
d47d90a9-90d3-40fa-b290-322caf8ee283
Chambers, Ray
96331700-f45e-4483-a887-fef921888ff2
Tzavidis, Nikos, Marchetti, Stefano and Chambers, Ray
(2010)
Robust estimation of small-area means and quantiles.
Australian & New Zealand Journal of Statistics, 52 (2), .
(doi:10.1111/j.1467-842X.2010.00572.x).
Abstract
Small-area estimation techniques have typically relied on plug-in estimation based on models containing random area effects. More recently, regression M-quantiles have been suggested for this purpose, thus avoiding conventional Gaussian assumptions, as well as problems associated with the specification of random effects. However, the plug-in M-quantile estimator for the small-area mean can be shown to be the expected value of this mean with respect to a generally biased estimator of the small-area cumulative distribution function of the characteristic of interest. To correct this problem, we propose a general framework for robust small-area estimation, based on representing a small-area estimator as a functional of a predictor of this small-area cumulative distribution function. Key advantages of this framework are that it naturally leads to integrated estimation of small-area means and quantiles and is not restricted to M-quantile models. We also discuss mean squared error estimation for the resulting estimators, and demonstrate the advantages of our approach through model-based and design-based simulations, with the latter using economic data collected in an Australian farm survey.
This record has no associated files available for download.
More information
Published date: June 2010
Keywords:
australian farm data, chambers–dunstan estimator, finite-population distribution function, m-quantile regression, rao–kovar–mantel estimator, robust regression, small-area estimation, smearing estimator
Organisations:
Social Statistics
Identifiers
Local EPrints ID: 181889
URI: http://eprints.soton.ac.uk/id/eprint/181889
ISSN: 1369-1473
PURE UUID: 70258726-0935-4276-9e59-d099cd374e55
Catalogue record
Date deposited: 19 Apr 2011 14:40
Last modified: 15 Mar 2024 03:11
Export record
Altmetrics
Contributors
Author:
Stefano Marchetti
Author:
Ray Chambers
Download statistics
Downloads from ePrints over the past year. Other digital versions may also be available to download e.g. from the publisher's website.
View more statistics