Why the study?
Developing efficient automatic heartbeat monitoring for arrhythmia detection faces challenges such as data quality, heart rate segmentation, data imbalance, patient variations, and distinguishing supraventricular irregular heartbeats.
Does the Reseek-Arrhythmia deep learning model accurately detect and classify heart arrhythmia diseases in ECG datasets?
Does the Reseek-Arrhythmia deep learning model accurately detect and classify heart arrhythmia diseases in ECG datasets?
The Reseek-Arrhythmia deep learning model demonstrates high accuracy in detecting and classifying arrhythmias using standard ECG datasets.
Offers hypothesis-generating support for deep learning ECG arrhythmia detection; leaves open clinical utility without prospective validation.
Arrhythmia is a cardiac condition characterized by an irregular heart rhythm that hinders the proper circulation of blood, posing a severe risk to individuals’ lives. Globally, arrhythmias are recognized as a significant health concern, accounting for nearly 12 percent of all deaths. As a result, there has been a growing focus on utilizing artificial intelligence for the detection and classification of abnormal heartbeats. In recent years, self-operated heartbeat detection research has gained popularity due to its cost-effectiveness and potential for expediting therapy for individuals at risk of arrhythmias. However, building an efficient automatic heartbeat monitoring approach for arrhythmia identification and classification comes with several significant challenges. These challenges include addressing issues related to data quality, determining the range for heart rate segmentation, managing data imbalance difficulties, handling intra- and inter-patient variations, distinguishing supraventricular irregular heartbeats from regular heartbeats, and ensuring model interpretability. In this study, we propose the Reseek-Arrhythmia model, which leverages deep learning techniques to automatically detect and classify heart arrhythmia diseases. The model combines different convolutional blocks and identity blocks, along with essential components such as convolution layers, batch normalization layers, and activation layers. To train and evaluate the model, we utilized the MIT-BIH and PTB datasets. Remarkably, the proposed model achieves outstanding performance with an accuracy of 99.35% and 93.50% and an acceptable loss of 0.688 and 0.2564, respectively.
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Por et al. (2023) studied this question.
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