Arrhythmia Classification from Single Lead ECG by Multi-Scale Convolutional Neural Networks.

Zhenjie Yao, Yixin Chen
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引用次数: 4

Abstract

Arrhythmia refers to any abnormal change from the normal electrical impulses of the heart. Some arrhythmias are manifested as abnormal heartbeat. Effective heartbeat classification is helpful for computer aided diagnosis. Conventional heartbeat classification methods work on information of multiple leads, and need heuristic or hand-crafted feature extraction. In this paper, we propose a new heartbeat classification approach based on a recent deep learning architecture called multi-scale convolutional neural networks (MCNN). A unique feature of our work is that we take single lead ECG as input, rhythm information is not taken into consideration. Such a single-lead setting, although more challenging than multi-lead cases, is often faced in medical practice due to advancements in mobile ECG devices and hence much needed. We exploit the power of convolutional neural networks for find discriminative features in heartbeat time series. The algorithm was tested on public datasets. The overall accuracy is 0.8866, the accuracy on supraventricular ectopic beat is 0.9600, and accuracy on ventricular ectopic beat is 0.9250. The performance is comparable with conventional method using features hand crafted by human experts.
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基于多尺度卷积神经网络的单导联心电心律失常分类。
心律失常是指心脏正常电脉冲的任何异常变化。有些心律失常表现为心跳异常。有效的心跳分类有助于计算机辅助诊断。传统的心跳分类方法需要处理多个导联的信息,并且需要启发式或手工提取特征。在本文中,我们提出了一种新的心跳分类方法,该方法基于一种最新的深度学习架构,称为多尺度卷积神经网络(MCNN)。我们的工作的一个独特之处在于我们采用单导联心电图作为输入,不考虑心律信息。由于移动ECG设备的进步,这种单导联设置虽然比多导联病例更具挑战性,但在医疗实践中经常面临,因此非常需要。我们利用卷积神经网络的力量在心跳时间序列中找到判别特征。该算法在公共数据集上进行了测试。总体准确率为0.8866,室上异搏准确率为0.9600,室性异搏准确率为0.9250。其性能可与使用人类专家手工制作的特征的传统方法相媲美。
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