The proposed Automated Cardiovascular Disease Detection framework (ACVD-RDODL) combining deep learning with the Red Deer Optimiser improved classification accuracy and computational efficiency for cardiovascular disease identification on MRI.
Does the ACVD-RDODL framework improve classification accuracy and computational efficiency in cardiovascular disease identification on MRI compared to existing approaches?
A novel deep learning framework combining ACGRU and Red Deer Optimiser improves the automated detection of cardiovascular diseases on MRI.
Abstract Magnetic Resonance Imaging (MRI) is a non-invasive imaging method that can give detailed visualization of the cardiac structures and blood flow, which is effective in diagnosis of cardiovascular diseases (CVDs). It has been proposed that the combination of deep learning (DL) with MRI has an improved ability to automatically identify cardiovascular anomalies by identifying intricate patterns in large-scale imaging data. In this study, an Automated Cardiovascular Disease Detection framework (ACVD-RDODL) is proposed, which combines deep learning with the Red Deer Optimiser (RDO). After image enhancement methods like Wiener Filtering (WF) and Dynamic Histogram Equalization (DHE), features are extracted using radiomics. An Attention-Based Convolutional Gated Recurrent Unit (ACGRU) network is considered to ensure proper classification and RDO is used to optimize the hyperparameters and improve the performance of the progress model. As experimental testing of a benchmark cardiac MRI dataset shows, the proposed method is greater to the existing approaches in terms of classification accuracy and computational efficiency.
Singh et al. (Sat,) conducted a other in Cardiovascular disease. Automated Cardiovascular Disease Detection framework (ACVD-RDODL) vs. Existing machine learning approaches was evaluated on Classification accuracy. The proposed Automated Cardiovascular Disease Detection framework (ACVD-RDODL) combining deep learning with the Red Deer Optimiser improved classification accuracy and computational efficiency for cardiovascular disease identification on MRI.