AI-based detection and classification of anomalous aortic origin of coronary arteries using coronary CT angiography images.
Summary
A fully automated deep learning pipeline achieved near-perfect performance (AUC ≥0.99; sensitivity/specificity 0.95–0.99) for detecting and classifying AAOCA on 3D-CCTA across internal and external datasets. The system supports real-time alerts and scalable cohort analyses, enabling clinical integration and population-level screening studies.
Key Findings
- AI achieved AUC ≥0.99 with sensitivity and specificity 0.95–0.99 across internal and external datasets.
- End-to-end, fully automated pipeline supports real-time alerts for high-risk AAOCA anatomies.
- Tool enables large-scale 3D-CCTA cohort analyses to refine epidemiology and risk stratification.
Clinical Implications
Integration into CCTA reading could enable automated triage and consistent detection of high-risk AAOCA variants, prompting further anatomical assessment and risk counseling, especially in athletic or military screening.
Why It Matters
Provides a robust, externally validated AI tool for a rare but high-risk coronary anomaly, with potential to reduce diagnostic misses and standardize reporting in routine CCTA workflows.
Limitations
- Retrospective datasets; prospective clinical impact studies are needed
- Potential class imbalance and heterogeneity across scanners/sites not fully detailed
Future Directions
Prospective, multicenter trials to test workflow integration, impact on diagnostic accuracy and outcomes; regulatory pathways for clinical deployment; expand to other congenital anomalies.
Study Information
- Study Type
- Cohort
- Research Domain
- Diagnosis
- Evidence Level
- II - Model development with internal and external validation for diagnostic performance
- Study Design
- OTHER