The American Journal of Human GeneticsGenetic & Genomic MedicinePeer-reviewed journal article
A Scalable Framework to Integrate Social Determinants of Health into Disease Risk Models using Biobank Survey Data
Abhijith BijiiD, Kathleen D.M. Ferar, Vikas Rao PejaveriD, Eimear E. KennyiD, Bian Liu, Samira AsgariiD
Abstract
Complex diseases are a major global health burden, yet our ability to predict who is at risk remains limited. Risk is shaped by both heritable factors and non-genetic environmental, behavioral, and social determinants of health, but these are rarely modeled together. The growing availability of large-scale, multimodal biobanks creates new opportunities to integrate diverse data types into more accurate disease risk models. Here, we apply Multiple Correspondence Analysis (MCA) to over 100 environmental, behavioral, and social variables from the All of Us biobank (N = 171,614) to generate low-dimensional embeddings that quantify non-genetic risk for six common chronic conditions. These embeddings recovered known and novel risk factors and consistently improved prediction beyond demographics and polygenic scores (PGS), with contributions to model performance (ROC-AUC) ranging from 0.03 to 0.05. For five of six diseases, the gains from MCA embeddings surpassed those attributable to PGS. Genetic and non-genetic risks combined largely additively: we observed little evidence of interaction effects ({Delta}AUC 0.98). In summary, we introduce a scalable, interpretable framework that summarizes survey-based environmental, behavioral, and social factors without prior assumptions about disease-specific variables. Our results demonstrate that these non-genetic contexts substantially improve prediction while acting largely additively with genetic risk, clarifying the role of gene-environment interplay in complex disease and supporting more equitable and robust risk modeling across diverse populations.
- assay: electronic health records
- research focus: benchmarking
- research focus: gene regulatory network inference
- research focus: differential expression
- research focus: variant effect prediction
- approach: statistical model
- Citations
- 1
- FWCI
- 3.96
- Field percentile
- top 7%
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Genetics in Context: Social Factors Modify Polygenic Risk Across Multiple Cardiometabolic Diseases
Micah R. Hysong, Sarah C Hsu, … Laura M. Raffield·medRxiv·Oct 29, 2026
- Social Determinants of Health and Lifestyle Risk Factors Modulate Genetic Susceptibility for Women's Health Outcomes
Lindsay A. Guare, Jagyashila Das, … Shefali S. Verma·medRxiv·Jul 29, 2024
- A machine learning model for disease risk prediction by integrating genetic and non-genetic factors
Yu Gong Xu, Chonghao Wang, … Lu Zhang·IEEE International Conference on Bioinformatics and Biomedicine (BIBM)Peer-reviewed·Dec 6, 2022
- Gene-gene and Gene-Environment Interactions Improve Genetic Risk Predictions for Complex Diseases
Keri Multerer, Paul Atkinson, … Andrew B. Munkacsi·medRxiv·Aug 17, 2026
- Exposure accumulation drives age-dependent disease architectures and polygenic risk scores
Xilin Jiang, Alkes L. Price, … Arun Durvasula·medRxiv·Aug 29, 2025
- Joint Modeling of Gene-Environment Correlations and Interactions using Polygenic Risk Scores in Case-Control Studies
Ziqiao Wang, Wen Shi, … Nilanjan Chatterjee·American Journal of EpidemiologyPeer-reviewed·May 25, 2024