SPLGApr 4, 2023

Arrhythmia Classifier Based on Ultra-Lightweight Binary Neural Network

arXiv:2304.01568v218 citationsh-index: 6Has Code
AI Analysis

This work addresses the challenge of implementing accurate arrhythmia monitoring on resource-constrained wearable AIoT devices, representing an incremental improvement in lightweight deep learning for healthcare.

The authors tackled the problem of high storage and power consumption in ECG arrhythmia classification by proposing an ultra-lightweight binary neural network, achieving 96.90% accuracy for 5-class and 97.50% for 17-class classification with state-of-the-art storage usage as low as 3.76 KB.

Reasonably and effectively monitoring arrhythmias through ECG signals has significant implications for human health. With the development of deep learning, numerous ECG classification algorithms based on deep learning have emerged. However, most existing algorithms trade off high accuracy for complex models, resulting in high storage usage and power consumption. This also inevitably increases the difficulty of implementation on wearable Artificial Intelligence-of-Things (AIoT) devices with limited resources. In this study, we proposed a universally applicable ultra-lightweight binary neural network(BNN) that is capable of 5-class and 17-class arrhythmia classification based on ECG signals. Our BNN achieves 96.90% (full precision 97.09%) and 97.50% (full precision 98.00%) accuracy for 5-class and 17-class classification, respectively, with state-of-the-art storage usage (3.76 KB and 4.45 KB). Compared to other binarization works, our approach excels in supporting two multi-classification modes while achieving the smallest known storage space. Moreover, our model achieves optimal accuracy in 17-class classification and boasts an elegantly simple network architecture. The algorithm we use is optimized specifically for hardware implementation. Our research showcases the potential of lightweight deep learning models in the healthcare industry, specifically in wearable medical devices, which hold great promise for improving patient outcomes and quality of life. Code is available on: https://github.com/xpww/ECG_BNN_Net

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