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Machine learning algorithm for early-stage prediction of severe morbidity in COVID-19 pneumonia patients based on bio-signals

Author(s)
Baik, Seung MinKim, Kyung TaeLee, HaneolLee, Jung Hwa
Issued Date
2023-04
DOI
10.1186/s12890-023-02421-8
URI
https://scholarworks.unist.ac.kr/handle/201301/64306
Citation
BMC PULMONARY MEDICINE, v.23, no.1, pp.121
Abstract
BackgroundParalysis of medical systems has emerged as a major problem not only in Korea but also globally because of the COVID-19 pandemic. Therefore, early identification and treatment of COVID-19 are crucial. This study aims to develop a machine-learning algorithm based on bio-signals that predicts the infection three days in advance before it progresses from mild to severe, which may necessitate high-flow oxygen therapy or mechanical ventilation.MethodsThe study included 2758 hospitalized patients with mild severity COVID-19 between July 2020 and October 2021. Bio-signals, clinical information, and laboratory findings were retrospectively collected from the electronic medical records of patients. Machine learning methods included random forest, random forest ranger, gradient boosting machine, and support vector machine (SVM).ResultsSVM showed the best performance in terms of accuracy, kappa, sensitivity, detection rate, balanced accuracy, and run-time; the area under the receiver operating characteristic curve was also quite high at 0.96. Body temperature and SpO(2) three and four days before discharge or exacerbation were ranked high among SVM features.ConclusionsThe proposed algorithm can predict the exacerbation of severity three days in advance in patients with mild COVID-19. This prediction can help effectively manage the reallocation of appropriate medical resources in clinical settings. Therefore, this algorithm can facilitate adequate oxygen therapy and mechanical ventilator preparation, thereby improving patient prognosis, increasing the efficiency of medical systems, and mitigating the damage caused by a global pandemic.
Publisher
BMC
ISSN
1471-2466
Keyword (Author)
COVID-19Machine learningBio-signalMorbidityPrediction

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