Prototyping neural networks to evaluate the risk of adverse cardiovascular outcomes in the population

L. Bogdanov, E. Komossky, V. V. Voronkova, D. E. Tolstosheev, G. V. Martsenyuk, A. S. Agienko, E. Indukaeva, A. Kutikhin, D. Tsygankova
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Abstract

Aim. To develop a neural network basis for the design of artificial intelligence software to predict adverse cardiovascular outcomes in the population.Materials and Methods. Neural networks were designed using the database of 1,525 participants of PURE (Prospective Urban Rural Epidemiology Study), an international, multi-center, prospective study investigating disease risk factors in the urban and rural areas. As this study is still ongoing, we analysed only baseline data, therefore switching prognosis and diagnosis task. Because of its leading prevalence among other cardiovascular diseases, arterial hypertension was selected as an adverse outcome. Neural networks were designed employing STATISTICA Automated Neural Networks (SANN) software, manually selected, cross-validated, and transferred to the original graphical user interface software.Results. Input risk factors were gender, age, place of residence, concomitant diseases (i.e., coronary artery disease, chronic heart failure, diabetes mellitus, chronic obstructive pulmonary disease, and asthma), active or passive smoking, regular use of medications, family history of arterial hypertension, coronary artery disease or stroke, heart rate, body mass index, fasting blood glucose and cholesterol, high- and low-density lipoprotein cholesterol, and serum creatinine levels. Our neural networks showed a moderate efficacy in the virtual diagnostics of arterial hypertension (84.5%, or 1,289 successfully predicted outcomes out of 1,525, area under the ROC curve = 0.88), with almost equal sensitivity (83.6%) and specificity (85.3%), and were successfully integrated into graphical user interface that is necessary for the development of the commercial prognostication software. Cross-validation of this neural network on bootstrapped samples of virtual patients demonstrated sensitivity of 82.7 – 84.7%, specificity of 84.5 – 87.3%, and area under the ROC curve of 0.88 – 0.89.Conclusion. The artificial intelligence prognostication software to predict adverse cardiovascular outcomes in the population can be developed by a combination of automated neural network generation and analysis followed by manual selection, cross-validation, and integration into graphical user interface.
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原型神经网络评估人群心血管不良结局的风险
的目标。开发基于神经网络的人工智能软件设计,以预测人群心血管不良结局。材料与方法。神经网络设计使用了PURE(前瞻性城乡流行病学研究)的1525名参与者的数据库,PURE是一项国际性、多中心、前瞻性研究,旨在调查城乡地区的疾病危险因素。由于这项研究仍在进行中,我们仅分析了基线数据,因此切换了预后和诊断任务。由于其在其他心血管疾病中的主要患病率,动脉高血压被选为不良结局。神经网络设计采用STATISTICA自动神经网络(SANN)软件,人工选择,交叉验证,并转移到原始的图形用户界面软件。输入的危险因素是性别、年龄、居住地、伴随疾病(即冠状动脉疾病、慢性心力衰竭、糖尿病、慢性阻塞性肺病和哮喘)、主动或被动吸烟、经常使用药物、动脉高血压家族史、冠状动脉疾病或中风、心率、体重指数、空腹血糖和胆固醇、高密度和低密度脂蛋白胆固醇、血清肌酐水平。我们的神经网络在动脉高血压的虚拟诊断中显示出中等疗效(84.5%,或1,525个结果中有1,289个成功预测结果,ROC曲线下面积= 0.88),几乎具有相同的灵敏度(83.6%)和特异性(85.3%),并且成功地集成到图形用户界面中,这是开发商业预测软件所必需的。该神经网络在虚拟患者自举样本上进行交叉验证,灵敏度为82.7 ~ 84.7%,特异度为84.5 ~ 87.3%,ROC曲线下面积为0.88 ~ 0.89。人工智能预测软件可以通过自动神经网络生成和分析,然后进行手动选择、交叉验证和集成到图形用户界面中来开发,以预测人群中的心血管不良后果。
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