Wireless Healthcare Monitoring System for Heart Diseases Classification using Efficient ECG-Based Wave Modeling and Machine Learning Techniques

Alaa Daher, M. Ayache, Heba El-Halabi, Manal K. Fattoum, Ongel Hajj
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Abstract

This paper presents a new methodology for developing a low-cost wireless ECG transmission and monitoring system based on IoT technology, designed for real-time detection and classification of heart diseases. The study focuses on using ECG data for heart disease classification, which is an area of growing interest in recent years. The study collected data from 1000 subjects using our designed system to collect the normal data (300 patients) and a Biopac MP160 data acquisition system for the collection of 10 diseases abnormal data, where all the data are acquired from lead 1. The aim of this study is to develop an accurate and reliable classification model for heart diseases using ECG data. Pre-processing steps were taken to prepare the data for feature extraction, including the use of Empirical Mode Decomposition (EMD) and digital filters such as low pass, high pass, and derivative pass filters. A new feature extraction steps based on a new ECG peak detection, segmentation, and wave modeling for each segment is also presented. Two classification methods were used: Multi-Layer Perceptron (MLP) and Radial Basis Function (RBF). The results showed that MLP had a much higher accuracy of 99.1% compared to RBF, which had an accuracy of 97.4%. The study emphasizes the potential of using ECG data for accurate classification of heart diseases. The results demonstrate that proper pre-processing and feature extraction techniques are crucial for improving accuracy. This study is significant for remote patient monitoring and telemedicine applications, as it provides a low-cost, non-invasive method for detecting and classifying heart diseases using ECG data.
基于高效心电波建模和机器学习技术的心脏疾病分类无线健康监测系统
本文提出了一种基于物联网技术开发低成本无线心电传输和监测系统的新方法,旨在实时检测和分类心脏病。这项研究的重点是利用心电图数据进行心脏病分类,这是近年来人们越来越感兴趣的一个领域。本研究使用我们设计的系统收集1000名受试者的正常数据(300名患者),使用Biopac MP160数据采集系统收集10种疾病的异常数据,其中所有数据均来自铅1。本研究的目的是利用心电数据建立一个准确可靠的心脏病分类模型。采用预处理步骤为特征提取准备数据,包括使用经验模式分解(EMD)和数字滤波器,如低通、高通和导数通滤波器。提出了一种新的特征提取步骤,该步骤基于新的心电峰值检测、分割和每个片段的波形建模。使用了两种分类方法:多层感知器(MLP)和径向基函数(RBF)。结果表明,MLP的准确率为99.1%,而RBF的准确率为97.4%。该研究强调了使用心电图数据对心脏病进行准确分类的潜力。结果表明,适当的预处理和特征提取技术对于提高精度至关重要。本研究为远程患者监护和远程医疗应用提供了一种低成本、无创的方法,利用心电数据检测和分类心脏病。
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