A deep learning semiparametric regression for adjusting complex confounding structures

Deep Treatment Learning (deepTL), a robust yet efficient deep learning-based semiparametric regression approach, is proposed to adjust the complex confounding structures in comparative effectiveness analysis of observational data, e.g. electronic health record (EHR) data, in which complex confounding structures are often embedded. Specifically, we develop a deep learning neural network with a score-based ensembling scheme for flexible function approximation. An improved semiparametric procedure is further developed to enhance the performance of the proposed method under finite sample settings. Comprehensive numerical studies have demonstrated the superior performance of the proposed methods as compared with existing methods, with a remarkably reduced bias and mean squared error in parameter estimates. The proposed research is motivated by a post-surgery pain study, which is also used to illustrate the practical application of deepTL. Finally, an R package, “deepTL”, is developed to implement the proposed method.

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Publication Details

Journal
UNC Libraries
Published
2025-06-07
DOI
https://doi.org/10.17615/k7bf-2s20
Primary Topic
Statistical Methods and Inference
Type
article
Field-Weighted Citation Impact
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article

A deep learning semiparametric regression for adjusting complex confounding structures

Xinlei Mi, Baiming Zou, Patrick Tighe, Fei Zou
UNC Libraries
Statistical Methods and Inference
article

A deep learning semiparametric regression for adjusting complex confounding structures

Xinlei Mi, Baiming Zou, Patrick Tighe, Fei Zou
article en

Abstract

Deep Treatment Learning (deepTL), a robust yet efficient deep learning-based semiparametric regression approach, is proposed to adjust the complex confounding structures in comparative effectiveness analysis of observational data, e.g. electronic health record (EHR) data, in which complex confounding structures are often embedded. Specifically, we develop a deep learning neural network with a score-based ensembling scheme for flexible function approximation. An improved semiparametric procedure is further developed to enhance the performance of the proposed method under finite sample settings. Comprehensive numerical studies have demonstrated the superior performance of the proposed methods as compared with existing methods, with a remarkably reduced bias and mean squared error in parameter estimates. The proposed research is motivated by a post-surgery pain study, which is also used to illustrate the practical application of deepTL. Finally, an R package, “deepTL”, is developed to implement the proposed method.

UNC Libraries
University of North Carolina at Chapel Hill (US)
Openalex Percentile: Top 73%
Statistical Methods and Inference
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