Heart function monitoring, prediction and prevention of Heart Attacks: Using Artificial Neural Networks

D. K. Ravish, Nayana R. Shenoy, K. Shanthi, S. Nisargh
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引用次数: 35

Abstract

Heart Attacks are the major cause of death in the world today, particularly in India. The need to predict this is a major necessity for improving the country's healthcare sector. Accurate and precise prediction of the heart disease mainly depends on Electrocardiogram (ECG) data and clinical data. These data's must be fed to a non linear disease prediction model. This non linear heart function monitoring module must be able to detect arrhythmias such as tachycardia, bradycardia, myocardial infarction, atrial, ventricular fibrillation, atrial ventricular flutters and PVC's. In this paper we have developed an efficient method to acquire the clinical and ECG data, so as to train the Artificial Neural Network to accurately diagnose the heart and predict abnormalities if any. The overall process can be categorized into three steps. Firstly, we acquire the ECG of the patient by standard 3 lead pre jelled electrodes. The acquired ECG is then processed, amplified and filtered to remove any noise captured during the acquisition stage. This analog data is now converted into digital format by A/D converter, mainly because of its uncertainty. Secondly we acquire 4-5 relevant clinical data's like mean arterial pressure (MAP), fasting blood sugar (FBS), heart rate (HR), cholesterol (CH), and age/gender. Finally we use these two data's i.e. ECG and clinical data to train the neural network for classifying the heart disease and to predict abnormalities in the heart or it's functioning.
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心功能监测、预测和预防心脏病发作:使用人工神经网络
心脏病是当今世界的主要死亡原因,特别是在印度。预测这一点是改善该国医疗保健部门的主要必要条件。准确准确的预测心脏病主要依赖于心电图(ECG)数据和临床资料。这些数据必须输入到非线性疾病预测模型中。这种非线性心功能监测模块必须能够检测心律失常,如心动过速、心动过缓、心肌梗死、心房、心室颤动、心房心室扑动和PVC。本文开发了一种有效的方法来获取临床和心电数据,从而训练人工神经网络来准确诊断和预测心脏异常。整个过程可以分为三个步骤。首先,我们通过标准的3导联预凝胶电极获取患者的心电图。然后对采集到的ECG进行处理、放大和滤波,以去除在采集阶段捕获的任何噪声。这种模拟数据现在通过A/D转换器转换成数字格式,主要是因为它的不确定性。其次获取4-5项相关临床数据,如平均动脉压(MAP)、空腹血糖(FBS)、心率(HR)、胆固醇(CH)、年龄/性别等。最后,我们利用这两个数据,即心电图和临床数据来训练神经网络,用于心脏病的分类和预测心脏或其功能的异常。
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