Prediction of disease severity in COPD: a deep learning approach for anomaly-based quantitative assessment of chest CT.
Silvia D AlmeidaTobias NorajitraCarsten T LüthTassilo WaldVivienn WeruMarco NoldenPaul F JägerOyunbileg von StackelbergClaus Peter HeußelOliver WeinheimerJürgen BiedererHans-Ulrich KauczorKlaus Maier-HeinPublished in: European radiology (2023)
• A self-supervised DL anomaly detection method discriminated low-risk individuals and COPD subjects, outperforming classic DL methods on two datasets (COPDGene AUC = 84.3%, COSYCONET AUC = 76.3%). • Our contrastive task exhibits robust performance even without the inclusion of expiratory images, while voxel-based methods demonstrate significant performance enhancement when incorporating expiratory images, in the COPDGene dataset. • Anomaly scores improved the fitting of linear mixed effects models in predicting clinical parameters and imaging alterations (p < 0.001) and were directly associated with clinical outcomes (p < 0.001).
Keyphrases
- deep learning
- convolutional neural network
- chronic obstructive pulmonary disease
- machine learning
- lung function
- artificial intelligence
- mechanical ventilation
- high resolution
- computed tomography
- optical coherence tomography
- image quality
- contrast enhanced
- loop mediated isothermal amplification
- dual energy
- magnetic resonance imaging
- intensive care unit
- acute respiratory distress syndrome
- magnetic resonance
- real time pcr
- air pollution
- extracorporeal membrane oxygenation