AI analysis of medical images at scale as a health disparities probe: a feasibility demonstration using chest radiographs

• URL: http://arxiv.org/abs/2504.05990v1
• Date: Tue, 08 Apr 2025 12:53:14 GMT
• Title: AI analysis of medical images at scale as a health disparities probe: a feasibility demonstration using chest radiographs
• Authors: Heather M. Whitney, Hui Li, Karen Drukker, Elbert Huang, Maryellen L. Giger,
• Abstract summary: Social determinants of health (SDOH) are domains frequently studied for potential association with health disparities.<n>We developed a pipeline for using quantitative measures automatically extracted from medical images as inputs into health disparities index calculations.<n>Large-scale AI analysis of medical images can serve as a probe for a novel data source for health disparities research.
• Score: 1.8351424954311537
• License: http://creativecommons.org/licenses/by-nc-nd/4.0/
• Abstract: Health disparities (differences in non-genetic conditions that influence health) can be associated with differences in burden of disease by groups within a population. Social determinants of health (SDOH) are domains such as health care access, dietary access, and economics frequently studied for potential association with health disparities. Evaluating SDOH-related phenotypes using routine medical images as data sources may enhance health disparities research. We developed a pipeline for using quantitative measures automatically extracted from medical images as inputs into health disparities index calculations. Our study focused on the use case of two SDOH demographic correlates (sex and race) and data extracted from chest radiographs of 1,571 unique patients. The likelihood of severe disease within the lung parenchyma from each image type, measured using an established deep learning model, was merged into a single numerical image-based phenotype for each patient. Patients were then separated into phenogroups by unsupervised clustering of the image-based phenotypes. The health rate for each phenogroup was defined as the median image-based phenotype for each SDOH used as inputs to four imaging-derived health disparities indices (iHDIs): one absolute measure (between-group variance) and three relative measures (index of disparity, Theil index, and mean log deviation). The iHDI measures demonstrated feasible values for each SDOH demographic correlate, showing potential for medical images to serve as a novel probe for health disparities. Large-scale AI analysis of medical images can serve as a probe for a novel data source for health disparities research.

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