Development of ECG Arrhythmia Recognition from Category of Statistical Space and Discrete Wavelet Feature Extraction via Classifiers

Introduction: An important medical diagnostic technique to monitor and detect abnormalities in ECG signal is heart arrhythmias recognition. The physicians workload increases because of the high numbers of heart patients. As a result, a robust automated detection system is mandatory. On the other hand, consistent or periodical heart rhythms disorders with important information, which reflect cardiac activity, lead to cardiac arrhythmias, therefore arrhythmias recognition with acceptable accuracy is required. Aims: In this study, a discrete wavelet-based algorithm for delineation of events in ECG signal is utilized and next a new fusion of MLP-BP and PNN neural networks for heart arrhythmia classification was defined. Methods: Multi resolution analysis can be extracted from any changes in the morphology of an ECG signal into time and frequency analysis. Firstly, artifact and noise are excluded by a discrete wavelet transform (DWT). Secondly, multi lead ECG signal together with QRS complexes of signal is excluded. Finally, the ECG signal is decomposed, and consequently corresponding DWT scales are segmented. Next statistical features from reconstructed ECG segments are attained. Afterwards, curve length and high order moment order-based feature extraction is computed from ECG excerpted segment. Finally, elements of feature vector for modifiable the parameters of classifiers are utilized. Next, Multi-Layer Perceptron-Back Propagation (MLP-BP) neural networks, Probabilistic Neural Network (PNN) and support vector machine (SVM) were designed and adjusted and their results were compared. Results: The proposed algorithm was verified to all 48 records of the MIT-BIH arrhythmia database. Also, the proposed topology of classifiers and their associated parameters is optimized by searching of the best value of parameters. The average value of accuracy of each classifier over all records of MIT-BIH for arrhythmias recognition is Acc=98.19, Acc=99.51 and Acc=97.53 for SVM, MLP and PNN classifiers correspondingly and obtained results were compared with similar peer-reviewed studies in this subject

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Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-12-31
DOI
https://doi.org/10.5281/zenodo.18397360
Primary Topic
ECG Monitoring and Analysis
Type
article
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article

Development of ECG Arrhythmia Recognition from Category of Statistical Space and Discrete Wavelet Feature Extraction via Classifiers

Farhad Asadi, S. Hossein Sadati
Zenodo (CERN European Organization for Nuclear Research)
ECG Monitoring and Analysis
article

Development of ECG Arrhythmia Recognition from Category of Statistical Space and Discrete Wavelet Feature Extraction via Classifiers

Farhad Asadi, S. Hossein Sadati
article en

Abstract

Introduction: An important medical diagnostic technique to monitor and detect abnormalities in ECG signal is heart arrhythmias recognition. The physicians workload increases because of the high numbers of heart patients. As a result, a robust automated detection system is mandatory. On the other hand, consistent or periodical heart rhythms disorders with important information, which reflect cardiac activity, lead to cardiac arrhythmias, therefore arrhythmias recognition with acceptable accuracy is required. Aims: In this study, a discrete wavelet-based algorithm for delineation of events in ECG signal is utilized and next a new fusion of MLP-BP and PNN neural networks for heart arrhythmia classification was defined. Methods: Multi resolution analysis can be extracted from any changes in the morphology of an ECG signal into time and frequency analysis. Firstly, artifact and noise are excluded by a discrete wavelet transform (DWT). Secondly, multi lead ECG signal together with QRS complexes of signal is excluded. Finally, the ECG signal is decomposed, and consequently corresponding DWT scales are segmented. Next statistical features from reconstructed ECG segments are attained. Afterwards, curve length and high order moment order-based feature extraction is computed from ECG excerpted segment. Finally, elements of feature vector for modifiable the parameters of classifiers are utilized. Next, Multi-Layer Perceptron-Back Propagation (MLP-BP) neural networks, Probabilistic Neural Network (PNN) and support vector machine (SVM) were designed and adjusted and their results were compared. Results: The proposed algorithm was verified to all 48 records of the MIT-BIH arrhythmia database. Also, the proposed topology of classifiers and their associated parameters is optimized by searching of the best value of parameters. The average value of accuracy of each classifier over all records of MIT-BIH for arrhythmias recognition is Acc=98.19, Acc=99.51 and Acc=97.53 for SVM, MLP and PNN classifiers correspondingly and obtained results were compared with similar peer-reviewed studies in this subject

Zenodo (CERN European Organization for Nuclear Research)
K. N. Toosi University of Technology (IR)
Openalex Percentile: Top 28%
ECG Monitoring and Analysis
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