Dayin Shi, Zhiyong Wu, Longbo Zhang, Benjia Hu, Ke Meng
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引用次数: 2
摘要
提出了一种新型的多尺度深度残差收缩网络(MS-DRSN),用于房颤信号去噪和识别。信号去噪由多尺度阈值去噪模块(MS-TDM)完成,该模块由阈值采集和阈值去噪两部分组成。通过神经网络构建的全局注意力模块自动获取阈值。阈值去噪选择Garrote作为阈值函数,结合了软阈值和硬阈值的优点。多尺度特征由全局注意模块和局部注意模块组成,然后利用获取的阈值和阈值函数对多尺度特征进行去噪,将多个ms - tdm叠加后在Softmax层完成AF识别任务。采用自适应合成采样(ADASYN)算法对数据集进行过采样,通过生成新样本实现数据类别平衡,提高了AF识别的准确率,缓解了神经网络的过拟合问题。该方法在PhysioNet2017数据集上进行了实验和验证。实验结果表明,该方法的准确率为0.894,[Formula: see text]得分为0.881,优于当前的机器学习和深度学习模型。
Multi-Scale Deep Residual Shrinkage Network for Atrial Fibrillation Recognition
In this paper, a novel multi-scale deep residual shrinkage network (MS-DRSN) is proposed for signal denoising and atrial fibrillation (AF) recognition. Signal denoising is done by multi-scale threshold denoising module (MS-TDM), which consists of two parts: threshold acquisition and threshold denoising. The thresholds are automatically obtained through the global attention module constructed by the neural network. Threshold denoising chooses Garrote as the threshold function, which combines the advantages of soft and hard thresholding. The multi-scale features consist of global attention module and local attention module, and then the multi-scale features are denoised using the acquired thresholds and threshold functions, and the AF recognition task is finally completed in the Softmax layer after the superposition of multiple MS-TDMs. An adaptive synthetic sampling (ADASYN) algorithm is also used to oversample the dataset and achieve data category balancing by generating new samples, which improves the accuracy of AF recognition and alleviates the overfitting of the neural network. This method was experimented and validated on the PhysioNet2017 dataset. The experimental results show that the approach achieves an accuracy of 0.894 and an [Formula: see text] score of 0.881, which is better than current machine learning and deep learning models.