A semiparametric method for risk prediction using integrated electronic health record data

When using electronic health records (EHRs) for clinical and translational research, additional data is often available from external sources to enrich the information extracted from EHRs. For example, academic biobanks have more granular data available, and patient reported data is often collected through small-scale surveys. It is common that the external data is available only for a small subset of patients who have EHR information. We propose efficient and robust methods for building and evaluating models for predicting the risk of binary outcomes using such integrated EHR data. Our method is built upon an idea derived from the two-phase design literature that modeling the availability of a patient's external data as a function of an EHR-based preliminary predictive score leads to effective utilization of the EHR data. Through both theoretical and simulation studies, we show that our method has high efficiency for estimating log-odds ratio parameters, the area under the ROC curve, as well as other measures for quantifying predictive accuracy. We apply our method to develop a model for predicting the short-term mortality risk of oncology patients, where the data was extracted from the University of Pennsylvania hospital system EHR and combined with survey-based patient reported outcome data.

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Publication Details

Journal
The Annals of Applied Statistics
Published
2024-10-31
DOI
https://doi.org/10.1214/24-aoas1938
Primary Topic
Machine Learning in Healthcare
Type
article
Field-Weighted Citation Impact
0.00

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article

A semiparametric method for risk prediction using integrated electronic health record data

Ravi B. Parikh, Jill Hasler, Yanyuan Ma, Jinbo Chen et al.
The Annals of Applied Statistics
Machine Learning in Healthcare
article

A semiparametric method for risk prediction using integrated electronic health record data

Ravi B. Parikh, Jill Hasler, Yanyuan Ma, Jinbo Chen, Yizheng Wei
article en

Abstract

When using electronic health records (EHRs) for clinical and translational research, additional data is often available from external sources to enrich the information extracted from EHRs. For example, academic biobanks have more granular data available, and patient reported data is often collected through small-scale surveys. It is common that the external data is available only for a small subset of patients who have EHR information. We propose efficient and robust methods for building and evaluating models for predicting the risk of binary outcomes using such integrated EHR data. Our method is built upon an idea derived from the two-phase design literature that modeling the availability of a patient's external data as a function of an EHR-based preliminary predictive score leads to effective utilization of the EHR data. Through both theoretical and simulation studies, we show that our method has high efficiency for estimating log-odds ratio parameters, the area under the ROC curve, as well as other measures for quantifying predictive accuracy. We apply our method to develop a model for predicting the short-term mortality risk of oncology patients, where the data was extracted from the University of Pennsylvania hospital system EHR and combined with survey-based patient reported outcome data.

The Annals of Applied StatisticsVol. 18(4)
Fox Chase Cancer Center (US), Pennsylvania State University (US), University of South Carolina (US), University of Pennsylvania (US)
National Institutes of Health, National Cancer Institute
Openalex Percentile: Top 83%
Machine Learning in Healthcare
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