Key result
Angiography-based deep learning outperforms traditional models in predicting optimal revascularization with ~0.83 AUC.
Why the study?
Treatment selection between PCI and CABG for multi-vessel coronary artery disease remains challenging, requiring careful consideration of both anatomical and clinical factors.
Does a deep learning-based framework integrating coronary angiography and clinical data improve treatment classification (PCI vs CABG) in patients with multi-vessel coronary artery disease?
Observational (n=5,647)
No
Does a deep learning-based framework integrating coronary angiography and clinical data improve treatment classification (PCI vs CABG) in patients with multi-vessel coronary artery disease?
Absolute Event Rate: 0.8275% vs 0.66%
p-value: p=<0.001
A multimodal deep learning framework integrating coronary angiography videos and clinical data significantly improves the prediction of optimal revascularization strategies (PCI vs CABG) in multi-vessel coronary artery disease compared to traditional machine learning.
May aid multivessel revascularization decisions; leaves open prospective validation before clinical use.
Treatment selection between percutaneous coronary intervention (PCI) and coronary artery bypass grafting (CABG) for multi-vessel coronary artery disease remains challenging, requiring careful consideration of both anatomical and clinical factors. We developed a deep learning framework that automatically analyzes coronary angiography videos and integrates clinical data to support revascularization decisions. The framework consists of three key modules: (1) a video filtering module for quality screening, (2) a representative frame selection module based on curriculum learning, and (3) a treatment classification module combining imaging features with clinical characteristics. The framework was evaluated using 5,647 patients’ data from a single center, with cross-validation. Our framework demonstrated superior performance with a mean AUC of 0.8275 \(±\) 0.0167 in 5-fold cross-validation, significantly outperforming traditional machine learning approaches (baseline AUC: 0.66 \(±\) 0.007, \(p < 0.001\) ). Ablation studies showed sequential improvements: representative frame selection improved performance over baseline by 3.69% (AUC: 0.6657 to 0.7026), video quality filtering provided additional 0.56% improvement (AUC: 0.7026 to 0.7082), and clinical information integration achieved final enhancement of 1.35% (AUC: 0.7082 to 0.7217). For frame selection specifically, curriculum learning outperformed supervised learning by 6.3% (AUC: 0.9067 to 0.9637). This study provides a promising approach for objective, data-driven decision support in complex coronary revascularization cases. The framework’s multi-modal integration strategy and automated analysis capabilities demonstrate potential for improving the consistency and efficiency of treatment selection while maintaining high standards of clinical care. Not applicable.
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Kim et al. (2026) conducted an observational in Multi-vessel coronary artery disease (n=5,647). Deep learning-based treatment decision support framework vs. Traditional machine learning approaches was evaluated on Area Under the Curve (AUC) for treatment classification (PCI vs CABG) (p=<0.001). A deep learning framework integrating coronary angiography videos and clinical data achieved a mean AUC of 0.8275 for predicting optimal revascularization, outperforming baseline approaches.
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