心电图信号的实时深度压缩感知重构

Weibin Cao, Jun Zhang
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引用次数: 0

摘要

可穿戴设备技术的快速发展为远程心电监测与识别提供了有效的数据采集途径。然而,现有的基于迭代的信号恢复方法具有较高的延迟,而基于深度学习的方法存在一个缺点,即随着信号长度的增加,参数的大量增加使训练变得更加困难。本文将压缩感知与生成对抗网络相结合,提出了一种基于扩展卷积的信号恢复方法。该模型可以在不增加参数的情况下从压缩的长信号中接受更多的先验信息,并通过拟合重构信号和原始信号的分布实现特征域自适应。在MIT-BIH和PTB数据集上的实验结果表明,与现有的一些基于迭代的方法和一些基于深度学习的方法相比,本文方法在重建精度和重建时间上取得了相当或更好的结果。例如,重建一个2s的信号只需要0.013秒,比其他深度学习方法提高了50%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Real-Time Deep Compressed Sensing Reconstruction for Electrocardiogram Signals
The rapid development of wearable device technology provides an efficient way of data acquisition for remote ECG monitoring and identification. However, existing iteration based signal recovery methods have high latency, while the deep learning based method have a shortcoming that large increase in parameters makes training more difficult as the signal length increases. In this paper, we combine compressed sensing and generative adversarial networks to propose a signal recovery method based on dilated convolution. The proposed model can accept more prior information from compressed long signal without increasing parameters and achieve feature domain self-adaptation by fitting the distribution of reconstructed and original signals. Experiments result on MIT-BIH and PTB datasets demonstrate that the proposed method achieves comparable or better results in reconstruction accuracy and reconstruction time when compared to some existing iteration-based methods and some deep learning based methods. For example, reconstructing a 2s signal takes only 0.013s, which is a 50% improvement over other deep learning methods.
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