Data-Driven Abdominal Phenotypes of Type 2 Diabetes in Lean, Overweight, and Obese Cohorts
Lucas W. Remedios, Chloe Cho, Trent M. Schwartz, Dingjie Su, Gaurav Rudravaram, Chenyu Gao, Aravind R. Krishnan, Adam M. Saunders, Michael E. Kim, Shunxing Bao, Alvin C. Powers, Bennett A. Landman, John Virostko

TL;DR
This study uses AI to analyze abdominal CT scans and identify body composition patterns associated with type 2 diabetes across different BMI groups, revealing consistent abdominal features linked to the disease.
Contribution
The paper introduces a novel AI-based framework to extract and analyze detailed abdominal phenotypes from clinical imaging, uncovering BMI-specific and shared signatures of type 2 diabetes.
Findings
Shared abdominal signatures of diabetes across BMI groups
Fatty skeletal muscle and visceral fat linked to diabetes risk
Consistent abdominal features suggest common disease drivers
Abstract
Purpose: Although elevated BMI is a well-known risk factor for type 2 diabetes, the disease's presence in some lean adults and absence in others with obesity suggests that detailed body composition may uncover abdominal phenotypes of type 2 diabetes. With AI, we can now extract detailed measurements of size, shape, and fat content from abdominal structures in 3D clinical imaging at scale. This creates an opportunity to empirically define body composition signatures linked to type 2 diabetes risk and protection using large-scale clinical data. Approach: To uncover BMI-specific diabetic abdominal patterns from clinical CT, we applied our design four times: once on the full cohort (n = 1,728) and once on lean (n = 497), overweight (n = 611), and obese (n = 620) subgroups separately. Briefly, our experimental design transforms abdominal scans into collections of explainable measurements…
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