基于心跳分类的心律失常检测与分析

Yesudasu Paila, Ravi Raja A, N. S. P. Revathi Nuvvula, R. L. Durga Prasad Pandi, Pujitha Kodali, Sivarama Krishna Reddy Vanga
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引用次数: 0

摘要

心电图(Electrocardiogram, ECG)是一种生物信号,可用于识别心律失常。检测单次不规则心跳,可以单独发生或重复发生,有助于发现心律失常。早期发现心律失常并采取必要的预防措施有助于治疗或预防危及生命的心律失常。根据ECG的形状和特征,将其分类为多种心律失常,并根据其威胁程度进行分类,如未知心跳(Q)、室上异位心跳(SVEB)、融合心跳(F)、室异位心跳(VEB)和非异位心跳(N)。本文考虑了开放访问的麻省理工学院-贝斯以色列医院(MIT-BIH)数据库。建议分三个阶段进行检测。第一阶段是预处理,采用一维小波离散变换(1D-DWT)方法进行预处理。第二阶段是特征提取,通过经验模态分解(EMD)方法进行。然后将现在提取的特征馈送给分类器。深度神经网络(Deep Neural Network, DNN)能够自动提取特征和分析数据模式,消除了对复杂信号处理的需要。对于分类阶段,考虑的数据集有20%的测试数据和80%的训练数据。将源自深度学习(DL)的卷积神经网络(CNN)与源自机器学习(ML)的k -最近邻(KNN)算法进行二次验证。KNN分类器的最大准确率(MAAC)为90.87%,最大灵敏度(MASE)为90.56%,最大特异性(MASP)为91.18%,CNN分类器的MAAC为93.8%,MASE为92.52%,MASP为95.08%。
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Detection and Analysis of Cardiac Arrhythmias from Heartbeat Classification
The Electrocardiogram (ECG), one of the biological signals, can be utilized to identify heart arrhythmias. Detecting a single irregular heartbeat that can occur alone or in repetition helps in discovering an arrhythmia. Early detection of arrhythmias and taking necessary precautions can help cure or prevent life-threatening arrhythmias. Depending on the shape and features of ECG, they are categorized into multiple arrhythmias and grouped as classes based on their threat level, such as Unknown Beats (Q), Supraventricular Ectopic Beat (SVEB), Fusion Beat (F), Ventricular Ectopic Beat (VEB) and Non-ectopic Beat (N). The openly accessible Massachusetts Institute of Technology-Beth Israel Hospital(MIT-BIH) database is considered in this paper. Three stages are suggested for detection. The first stage is pre-processing, which is done by the 1-Dimensional Wavelet Discrete Transform (1D-DWT) method. The second stage is feature extraction, carried out by the Empirical Mode Decomposition (EMD) method. Features now extracted are then fed for the classifiers. Deep Neural Network (DNN) is capable of automatically extracting features and analyzing data patterns, eliminating the need for complex signal processing. For the classification stage, the dataset considered has 20% test data and 80% trained data. The Deep Learning (DL) originated Convolutional Neural Network (CNN) is compared with K-Nearest Neighbor (KNN) algorithm, which is originated from Machine Learning (ML) for secondary confirmation. These classifiers achieved a Maximum Accuracy (MAAC) of 90.87%, Maximum Sensitivity (MASE) of 90.56%, and Maximum Specificity (MASP) of 91.18% with KNN, and a MAAC of 93.8%, MASE of 92.52%, and MASP of 95.08% with the CNN classifier.
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