Key result
AttBiLFNet model outperforms existing methods with ~100% accuracy for ECG arrhythmia detection.
Why the study?
Conventional methods for arrhythmia detection encounter challenges such as subjective analysis and limited monitoring duration, and class imbalance in ECG signals impairs detection.
Does the AttBiLFNet hybrid model improve the accuracy and efficiency of arrhythmia detection in imbalanced ECG signals compared to existing methods?
Does the AttBiLFNet hybrid model improve the accuracy and efficiency of arrhythmia detection in imbalanced ECG signals compared to existing methods?
The AttBiLFNet model demonstrates high accuracy and precision for automated arrhythmia detection in ECG signals, potentially offering a reliable tool for timely identification.
May aid automated ECG arrhythmia detection; leaves open prospective clinical validation before practice change.
Within the domain of cardiovascular diseases, arrhythmia is one of the leading anomalies causing sudden deaths. These anomalies, including arrhythmia, are detectable through the electrocardiogram, a pivotal component in the analysis of heart diseases. However, conventional methods like electrocardiography encounter challenges such as subjective analysis and limited monitoring duration. In this work, a novel hybrid model, AttBiLFNet, was proposed for precise arrhythmia detection in ECG signals, including imbalanced class distributions. AttBiLFNet integrates a Bidirectional Long Short-Term Memory (BiLSTM) network with a convolutional neural network (CNN) and incorporates an attention mechanism using the focal loss function. This architecture is capable of autonomously extracting features by harnessing BiLSTM's bidirectional information flow, which proves advantageous in capturing long-range dependencies. The attention mechanism enhances the model's focus on pertinent segments of the input sequence, which is particularly beneficial in class imbalance classification scenarios where minority class samples tend to be overshadowed. The focal loss function effectively addresses the impact of class imbalance, thereby improving overall classification performance. The proposed AttBiLFNet model achieved 99.55% accuracy and 98.52% precision. Moreover, performance metrics such as MF1, K score, and sensitivity were calculated, and the model was compared with various methods in the literature. Empirical evidence showed that AttBiLFNet outperformed other methods in terms of both accuracy and computational efficiency. The introduced model serves as a reliable tool for the timely identification of arrhythmias.
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Efe et al. (2024) studied Arrhythmia. AttBiLFNet vs. Other methods in the literature was evaluated on Arrhythmia detection accuracy. The proposed AttBiLFNet model achieved 99.55% accuracy and 98.52% precision for arrhythmia detection in ECG signals, outperforming other methods in the literature.
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