Automated deep learning–radiomics pipeline for non-calcified coronary plaque detection using non-contrast calcium score CT - Report - MDSpire

Automated deep learning–radiomics pipeline for non-calcified coronary plaque detection using non-contrast calcium score CT

  • By

  • Wen Chen

  • Qing Tao

  • Can Chen

  • Su Hu

  • Feirong Yao

  • Jie Chen

  • Jinggang Zhang

  • Kejun Gu

  • Li Su

  • Wei Xing

  • Chunhong Hu

  • June 1, 2026

  • 0 min

Share

Clinical Report: Automated Deep Learning for Non-Calcified Coronary Plaques

Overview

This study presents an automated pipeline combining deep learning and radiomics to detect non-calcified coronary plaques using non-contrast calcium score CT. The approach demonstrated moderate to good diagnostic performance, indicating its potential for enhancing coronary artery disease screening.

Background

Coronary artery disease (CAD) is a leading cause of mortality worldwide, often progressing silently until acute events occur. Current imaging techniques, such as coronary artery calcium scoring (CACS), primarily assess calcification but may overlook non-calcified plaques, which are critical for risk stratification. This study addresses the need for improved detection methods for non-calcified plaques, which are associated with higher risks of adverse cardiovascular events.

Data Highlights

Model TypeAUC Range
Coronary Artery Model0.700 - 0.855
PCAT ModelComparable AUCs

Key Findings

  • The SegResNet models achieved optimal performance in coronary segmentation.
  • Radiomics models showed moderate to good vessel-level diagnostic performance for non-calcified plaques.
  • AUCs for the models ranged from 0.700 to 0.855 across datasets.
  • Combined-region models generally outperformed or matched the PCAT model.
  • The automated pipeline facilitates efficient detection of non-calcified plaques in CACS.

Clinical Implications

The automated detection of non-calcified plaques using deep learning and radiomics may enhance early identification of at-risk patients for coronary artery disease. This approach could support the clinical translation of non-contrast CT for large-scale CAD screening, potentially improving patient outcomes.

Conclusion

The study validates an innovative automated pipeline for detecting non-calcified coronary plaques, highlighting its promise for future clinical applications in CAD screening. Further research is warranted to explore its integration into routine practice.

Related Resources & Content

  1. Thilo et al., European Radiology, 2026 -- Detection of calcified plaques: comparison between coronary CT angiography and thin-slice non-contrast CT with deep learning-aided image registration
  2. Kruk et al., European Radiology, 2025 -- Evaluation of Fully Automated Deep Learning Techniques for Coronary Artery Calcium Scoring Using ECG-Gated and Non-Gated Low-Dose Chest CT Imaging
  3. European Radiology, 2026 -- High scan-rescan repeatability of AI-enabled coronary plaque quantification from coronary CT angiography
  4. JACC: Cardiovascular Imaging, 2025 -- Quantitative Coronary Plaque Analysis in Clinical Practice: 2025 ACC Scientific Statement
  5. European Radiology — Super-resolution deep learning reconstruction for ultra-low-dose coronary CT angiography: effects on image quality, plaque characterization, and stenosis evaluation
  6. ACC Scientific Statement Addresses Use of QCPA in Clinical Practice
  7. Quantitative Coronary Plaque Analysis in Clinical Practice: 2025 ACC Scientific Statement: A Report of the American College of Cardiology | JACC: Cardiovascular Imaging

Original Source(s)

Related Content