Krivonosov Mikhail I, Pazukhina Ekaterina, Zaikin Alexey, Viozzi Francesca, Lazzareschi Ilaria, Manca Lavinia, Caci Annamaria, Santangelo Rosaria, Sanguinetti Maurizio, Raffaelli Francesca, Fiori Barbara, Zampino Giuseppe, Valentini Piero, Munblit Daniel, Blyuss Oleg, Buonsenso Danilo
Research Center in Artificial Intelligence, Lobachevsky State University, 603022 Nizhny Novgorod, Russia.
Wolfson Institute of Population Health, Queen Mary University of London, London EC1M 6BQ, UK.
J Clin Med. 2024 Dec 9;13(23):7474. doi: 10.3390/jcm13237474.
: Respiratory viral infections (RVIs) exhibit seasonal patterns influenced by biological, ecological, and climatic factors. Weather variables such as temperature, humidity, and wind impact the transmission of droplet-borne viruses, potentially affecting disease severity. However, the role of climate in predicting complications in pediatric RVIs remains unclear, particularly in the context of climate-change-driven extreme weather events. : This retrospective cohort study analyzed 1610 hospitalization records of children (0-18 years) with lower respiratory tract infections in Rome, Italy, between 2018 and 2023. Viral pathogens were identified using nasopharyngeal molecular testing, and weather data from the week preceding hospitalization were collected. Several machine learning models were tested, including logistic regression and random forest, comparing the baseline (demographic and clinical) models with those including climate variables. : Logistic regression showed a slight improvement in predicting severe RVIs with the inclusion of weather variables, with accuracy increasing from 0.785 to 0.793. Average temperature, dew point, and humidity emerged as significant contributors. Other algorithms did not demonstrate similar improvements. : Climate variables can enhance logistic regression models' ability to predict RVI severity, but their inconsistent impact across algorithms highlights challenges in integrating environmental data into clinical predictions. Further research is needed to refine these models for use in reliable healthcare applications.
呼吸道病毒感染(RVIs)呈现出受生物、生态和气候因素影响的季节性模式。温度、湿度和风速等天气变量会影响飞沫传播病毒的传播,可能影响疾病的严重程度。然而,气候在预测儿科RVIs并发症方面的作用仍不明确,尤其是在气候变化引发极端天气事件的背景下。
这项回顾性队列研究分析了2018年至2023年期间意大利罗马1610例0至18岁下呼吸道感染儿童的住院记录。通过鼻咽部分子检测确定病毒病原体,并收集住院前一周的天气数据。测试了几种机器学习模型,包括逻辑回归和随机森林,将基线(人口统计学和临床)模型与包含气候变量的模型进行比较。
逻辑回归显示,纳入天气变量后,在预测严重RVIs方面略有改善,准确率从0.785提高到0.793。平均温度、露点和湿度是显著的影响因素。其他算法没有表现出类似的改善。
气候变量可以增强逻辑回归模型预测RVI严重程度的能力,但其在不同算法中的影响不一致,凸显了将环境数据整合到临床预测中的挑战。需要进一步研究以完善这些模型,使其能够用于可靠的医疗保健应用。