Samad et al. 20
|
Supervised learning |
Echocardiography |
Utilizing clinical and echocardiographic variables to predict complications |
Khamis et al. 21
|
Supervised learning |
Echocardiography |
To automatically detect correct views on echocardiography |
Knackstedt et al. 22
|
Machine learning |
Echocardiography |
To automatically calculate ejection fraction and longitudinal strain |
Casaclang-Verzosa et al. 28
|
Unsupervised learning |
Echocardiography |
To detect unique phenotypes of aortic stenosis |
Todoki et al. 29
|
Unsupervised learning |
Echocardiography |
Utilizing echocardiographic variables to predict MACE complications |
Motwani et al. 31
|
Multiple machine learning algorithms |
Computed Tomography |
To estimate 5 year mortality in patients with CAD |
Santini et al. 32
|
Deep learning algorithm |
Computed Tomography |
To classify and segment lesions on CTA |
Baskaran et al. 34
|
Machine learning algorithm |
Computed Tomography |
To perform automatic segmentation of structures on CTA |
Baskaran et al. 33
|
Deep learning algorithm |
Computed Tomography |
To identify CTA cardiovascular structures |
Arasajani et al. |
Supervised learning algorithm |
Nuclear Cardiology |
Integrated echocardiographic and clinical characteristics to predict CAD. |
Betancur et al. 38
|
Deep learning |
Nuclear Cardiology |
To predict CAD and compare to TPD |
Betancur et al. 37
|
Supervised learning |
Nuclear Cardiology |
To estimate the occurrence of MACE events |
Winter et al. 41
|
Deep learning |
Magnetic Resonance Imaging |
To automatically calculate right and left ventricular mass and volumes |
Leng et al. 43
|
Deep learning |
Magnetic Resonance Imaging |
To identify ventricular contours and compare with manual tracing |