ECG-CCNet: Cardiovascular(Cardiac) and COVID‑19 Disease Classification Using Deep Convolutional Neural Network Learning Pipeline Approaches From Electrocardiography(ECG)- A Study

Yogesh H. Bhosale, K. Sridhar Patnaik
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引用次数: 4

Abstract

Experimental studies demonstrate that COVID-19 illness affects the cardiovascular as well as the pulmonary / lung tract. The limits of existing COVID-19 diagnostic procedures have been revealed. In contrast, to present diagnoses, such as low-sensitivity conventional RT-PCR testing and costly healthcare scanning equipment, implementing additional approaches for COVID-19 illness assessment would be advantageous for COVID-19 epidemic management. Furthermore, problems generated by COVID-19 on the cardiovascular tract must be detected rapidly and precisely using ECG. Considering the numerous advantages of electrocardiogram (ECG) functionalities, the proposed study offers a novel pipeline termed ECG-CCNet for examining the feasibility of employing ECG pulses to diagnose COVID-19. This study is a two-phase transfer learning (TL) approach is suggested for the prognosis of COVID-19 disorder, which includes feature mining utilizing DCNNs models and ensemble pipelining using ECG tracing imageries generated from ECG signals of COVID-19 diseased sufferers relying on the anomalies induced by COVID-19 pathogen on cardiovascular structures. A complete classification performance of 93.5% accuracy, 87% recall, 87.03% F1-score, 95.66% specificity, 87.16% precision, and 95.33% AUC attained by abnormal heartbeats, COVID-19, myocardial, and normal/healthy classification. This experiment is considered a high possibility for speeding up the diagnostic and treatments of COVID-19 individuals, reducing practitioners' efforts, and improving epidemic containment by utilizing ECG data.
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ECG- ccnet:使用心电图(ECG)的深度卷积神经网络学习管道方法进行心血管(心脏)和COVID - 19疾病分类-一项研究
实验研究表明,COVID-19疾病不仅会影响肺/肺部,还会影响心血管。现有COVID-19诊断程序的局限性已经暴露出来。相比之下,对于现有的诊断,如低灵敏度的传统RT-PCR检测和昂贵的医疗扫描设备,实施额外的COVID-19疾病评估方法将有利于COVID-19流行病管理。此外,必须使用ECG快速准确地检测COVID-19对心血管道产生的问题。考虑到心电图(ECG)功能的众多优势,本研究提出了一种称为ECG- ccnet的新管道,用于检查使用ECG脉冲诊断COVID-19的可行性。本研究提出了一种两阶段迁移学习(TL)方法用于COVID-19疾病的预后,包括利用DCNNs模型进行特征挖掘,以及利用COVID-19病原体对心血管结构的异常,利用COVID-19患者心电信号生成的心电追踪图像进行集成流水线。异常心跳、COVID-19、心肌和正常/健康分类的完整分类准确率为93.5%,召回率为87%,f1评分为87.03%,特异性为95.66%,精确度为87.16%,AUC为95.33%。本实验有望利用心电图数据,加快新冠肺炎个体诊疗速度,减少医护人员工作量,提高疫情防控水平。
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