A Deep Learning Approach to Classify Fabry Cardiomyopathy from Hypertrophic Cardiomyopathy Using Cine Imaging on Cardiac Magnetic Resonance.
Wei-Wen ChenLing KuoYi-Xun LinWen-Chung YuChien-Chao TsengYenn-Jiang LinChing-Chun HuangShih-Lin ChangJacky Chung-Hao WuChun-Ku ChenChing-Yao WengSiwa ChanWei-Wen LinYu-Cheng HsiehMing-Chih LinYun-Ching FuTsung ChenShih-Ann ChenHenry Horng-Shing LuPublished in: International journal of biomedical imaging (2024)
A challenge in accurately identifying and classifying left ventricular hypertrophy (LVH) is distinguishing it from hypertrophic cardiomyopathy (HCM) and Fabry disease. The reliance on imaging techniques often requires the expertise of multiple specialists, including cardiologists, radiologists, and geneticists. This variability in the interpretation and classification of LVH leads to inconsistent diagnoses. LVH, HCM, and Fabry cardiomyopathy can be differentiated using T1 mapping on cardiac magnetic resonance imaging (MRI). However, differentiation between HCM and Fabry cardiomyopathy using echocardiography or MRI cine images is challenging for cardiologists. Our proposed system named the MRI short-axis view left ventricular hypertrophy classifier (MSLVHC) is a high-accuracy standardized imaging classification model developed using AI and trained on MRI short-axis (SAX) view cine images to distinguish between HCM and Fabry disease. The model achieved impressive performance, with an F 1-score of 0.846, an accuracy of 0.909, and an AUC of 0.914 when tested on the Taipei Veterans General Hospital (TVGH) dataset. Additionally, a single-blinding study and external testing using data from the Taichung Veterans General Hospital (TCVGH) demonstrated the reliability and effectiveness of the model, achieving an F 1-score of 0.727, an accuracy of 0.806, and an AUC of 0.918, demonstrating the model's reliability and usefulness. This AI model holds promise as a valuable tool for assisting specialists in diagnosing LVH diseases.
Keyphrases
- hypertrophic cardiomyopathy
- left ventricular
- deep learning
- magnetic resonance imaging
- heart failure
- contrast enhanced
- cardiac resynchronization therapy
- magnetic resonance
- artificial intelligence
- high resolution
- mitral valve
- aortic stenosis
- left atrial
- acute myocardial infarction
- machine learning
- convolutional neural network
- computed tomography
- healthcare
- randomized controlled trial
- diffusion weighted imaging
- systematic review
- emergency department
- photodynamic therapy
- body composition
- coronary artery disease
- transcatheter aortic valve replacement
- electronic health record
- atrial fibrillation
- adverse drug