Optimization of Smoking Classification by Applying Neural Network with Variable Importance Using Cytokine Biomarkers.

Seema Singh Saharan, Pankaj Nagar, Kate Townsend Creasy, Eveline O Stock, James Feng, Mary J Malloy, John P Kane
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引用次数: 0

Abstract

Cigarette smoking is a preventable epidemic that is a leading cause of death. It increases the risk of coronary heart disease, stroke, lung cancer, chronic obstructive lung diseases etc., multifold. Smoking tobacco is not only injurious to oneself but also to those who are exposed second hand. Smoking induces endothelial dysfunction via inflammatory cytokines that can be quantified precisely. Cytokines can be leveraged as powerful predictive biomarkers for identifying risk of potential diseases. Current advances in biomarker research are providing substantive evidence of the roles of cytokines in disease. This is driving precision-based diagnosis and translational therapeutic interventions. Innovative machine algorithms (ML) are pioneering transformative changes in the field of medical research. This research implements the Neural Networks (NN) algorithm to classify smokers versus non-smokers using 63 cytokines as predictor features. In addition to the fact that NN is a generative algorithm, which makes it a very powerful tool to achieve the objective of this differentiation, techniques like cross validation and hyperparameter tuning improve the efficacy of the algorithm. The study identified the 10 most impactful predictor features that contributed to the classification and then used these to characterize smokers versus non-smokers. Primarily, the study constructed and investigated two classifiers, of which the first implemented NN using the entire set of 63 cytokines and the second using 10 most informative cytokines. The performance of the first classifier, implemented using 63 cytokines, evaluated by area under receiver operating characteristic (AUROC), was extremely good with an AUROC score of .949 and 95% Confidence Interval (CI) (.923,.974). The second classifier that used the 10 most impactful cytokines with regard to the classification, demonstrated an exemplary performance, with an AUROC score of .995 and a 95% CI (.991,1). The 10 most impactful cytokines from the aspect of smoker versus non-smoker differentiation, listed in order of importance, include: I-TAC, IL-22, IL-2R, IL-3, HGF, IL-18, G-CSF-CSF-3, MIF, SDF-1alpha, MMP-1. To gain a deeper understanding of the effect of smoking on cytokine levels, a 2-sample independent t test was performed, ascertaining the statistical significance of the 63 cytokine levels in smokers versus non-smokers. Machine Learning using biomarkers such as cytokines will enhance the ability to predict the advent of a disease and its outcome, and lead to novel treatment strategies.

利用细胞因子生物标记物,通过应用具有可变重要性的神经网络优化吸烟分类。
吸烟是一种可预防的流行病,是导致死亡的主要原因。吸烟会成倍增加患冠心病、中风、肺癌、慢性阻塞性肺病等疾病的风险。吸烟不仅会伤害自己,还会伤害二手烟接触者。吸烟会通过可精确量化的炎症细胞因子诱发内皮功能障碍。细胞因子可作为强大的预测性生物标志物,用于识别潜在疾病的风险。目前,生物标记物研究的进展为细胞因子在疾病中的作用提供了实质性证据。这推动了精准诊断和转化治疗干预。创新的机器算法(ML)正在医学研究领域引领变革。这项研究采用神经网络(NN)算法,利用 63 种细胞因子作为预测特征,对吸烟者和非吸烟者进行分类。神经网络是一种生成算法,这使其成为实现这种区分目标的一个非常强大的工具,此外,交叉验证和超参数调整等技术也提高了该算法的功效。研究确定了对分类最有影响的 10 个预测特征,然后利用这些特征来描述吸烟者与非吸烟者的特征。该研究主要构建并研究了两个分类器,其中第一个分类器使用整套 63 种细胞因子实现了 NN,第二个分类器使用 10 种信息量最大的细胞因子实现了 NN。第一个分类器使用了 63 种细胞因子,根据接收者操作特征下面积(AUROC)进行评估,其性能非常好,AUROC 得分为 0.949,95% 置信区间(CI)为 0.923,0.974。第二个分类器使用了对分类影响最大的 10 种细胞因子,表现堪称典范,其 AUROC 得分为 0.995,95% 置信区间为(0.991,1)。从吸烟者与非吸烟者的区分角度来看,影响最大的 10 种细胞因子按重要性顺序排列如下:I-TAC、IL-22、IL-2R、IL-3、HGF、IL-18、G-CSF-CSF-3、MIF、SDF-1alpha、MMP-1。为了更深入地了解吸烟对细胞因子水平的影响,进行了双样本独立 t 检验,以确定吸烟者与非吸烟者 63 种细胞因子水平的统计学意义。利用细胞因子等生物标志物进行机器学习将提高预测疾病的发生及其结果的能力,并能带来新的治疗策略。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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