Efficient multiple‐robust estimation for nonresponse data under informative sampling

Abstract Nonresponse in probability sampling presents a long‐standing challenge in survey sampling, often necessitating simultaneous adjustments to address sampling and selection biases. We develop a statistical framework that explicitly models sampling weights as random variables and establish the semiparametric efficiency bound for the parameter of interest under nonresponse. This study investigates strategies for eliminating bias and effectively utilizing available information, extending beyond nonresponse issues to data integration with external summary statistics. The proposed estimators are characterized by their efficiency and double robustness. However, realizing full efficiency hinges on the accurate specification of underlying models. To enhance robustness against potential model misspecification, we expand double robustness to multiple robustness through a novel two‐step empirical likelihood approach. A numerical study evaluates the finite‐sample performance of our methods. Additionally, we apply these methods to a dataset from the National Health and Nutrition Examination Survey, effectively integrating summary statistics from the National Health Interview Survey.

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Publication Details

Journal
Scandinavian Journal of Statistics
Published
2026-01-03
DOI
https://doi.org/10.1111/sjos.70043
Primary Topic
Survey Methodology and Nonresponse
Type
article
Field-Weighted Citation Impact
0.00

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article

Efficient multiple‐robust estimation for nonresponse data under informative sampling

Wataru Aida, Kenji Beppu, Kosuke Morikawa
Scandinavian Journal of Statistics
Survey Methodology and Nonresponse
article

Efficient multiple‐robust estimation for nonresponse data under informative sampling

Wataru Aida, Kenji Beppu, Kosuke Morikawa
article en

Abstract

Abstract Nonresponse in probability sampling presents a long‐standing challenge in survey sampling, often necessitating simultaneous adjustments to address sampling and selection biases. We develop a statistical framework that explicitly models sampling weights as random variables and establish the semiparametric efficiency bound for the parameter of interest under nonresponse. This study investigates strategies for eliminating bias and effectively utilizing available information, extending beyond nonresponse issues to data integration with external summary statistics. The proposed estimators are characterized by their efficiency and double robustness. However, realizing full efficiency hinges on the accurate specification of underlying models. To enhance robustness against potential model misspecification, we expand double robustness to multiple robustness through a novel two‐step empirical likelihood approach. A numerical study evaluates the finite‐sample performance of our methods. Additionally, we apply these methods to a dataset from the National Health and Nutrition Examination Survey, effectively integrating summary statistics from the National Health Interview Survey.

Scandinavian Journal of StatisticsVol. 53(1)
Toyo University (JP), Iowa State University (US), Osaka Prefectural Toyonaka Support School (JP)
Iowa State University, Japan Society for the Promotion of Science
Zero hunger
Openalex Percentile: Top 98%
Survey Methodology and Nonresponse
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Efficient multiple‐robust estimation for nonresponse data under informative sampling — Wataru Aida, Kenji Beppu, et al. · Scandinavian Journal of Statistics (2026) | TGRS Research Map | TGRS