一种可穿戴心电图中PVC和SPB定位算法

Yibo Yin, Sitao Zhang, Kainan Ma, Tao Li, Ming Liu, Yijun Wang
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引用次数: 2

摘要

由于可穿戴式心电图设备可用于长期监测用户的健康状况,因此正在迅速发展。它们的发展依赖于自动处理算法的进步。鉴于其预期用途需要可穿戴设备收集大量数据,并且考虑到其硬件受成本和功耗限制的背景,本文提出了一种算法框架,该框架可以通过使用24小时动态单导联心电图记录以低计算成本自动识别位置室性早搏(PVC)和室上早搏(SPB)。我们首先使用需要少量计算的卷积神经网络来找到信号中的问题片段,然后使用双向长短期记忆网络来准确定位PVC和SPB。该算法除了采用二级结构,将任务所需的总计算量降低到1/3.78之外,还采用了焦点损失,保证了疾病样本分类的准确性。该算法在2020年第三届中国生理信号挑战赛(CPSC)中获得第10名,验证了其有效性。我们使用CPSC 2020提供的数据再次训练模型,得到PVC和SPB的F1分数分别为0.6698和0.6111。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An Algorithm for Locating PVC and SPB in Wearable ECGs
Wearable electrocardiogram devices are being developed rapidly as they can be used to monitor the user’s health in the long term. Their development is dependent on advances in automatic processing algorithms. Given that its intended use requires the wearable device to collect a large amount of data, and in light of the context where its hardware is limited by cost and power consumption, this paper proposes an algorithmic framework that can automatically identify position premature ventricular contraction (PVC) and supraventricular premature beat (SPB) at low computational cost by using 24-hour dynamic single-lead ECG recordings. We first use convolutional neural networks that require a small number of calculations to find problematic segments in the signal, and then use bidirectional long short-term memory networks to accurately locate the PVC and SPB. In addition to using the second-level structure that reduces the total amount of computation required by the task to 1/3.78, the algorithm has adopted focal loss to ensure the accuracy of classification of the disease samples. The algorithm was used in the Third China Physiological Signal Challenge (CPSC) 2020 and came in 10th place, which verified its effectiveness. We trained the model once again by using the data provided at CPSC 2020, and obtained the F1 scores of PVC and SPB were 0.6698 and 0.6111.
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