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Predicting Health Risks of Adult Asthmatics Susceptible to Indoor Air Quality Using Improved Logistic and Quantile Regression Modelsopen access

Authors
Bae, Wan D.Alkobaisi, ShaymaHorak, MatthewPark, Choon-SikKim, SungroulDavidson, Joel
Issue Date
Oct-2022
Publisher
Multidisciplinary Digital Publishing Institute (MDPI)
Keywords
personalized asthma care; asthma risk prediction; exposome; indoor air quality; logistic regression; quantile regression; transfer learning; sliding window regression
Citation
Life, v.12, no.10
Journal Title
Life
Volume
12
Number
10
URI
https://scholarworks.bwise.kr/sch/handle/2021.sw.sch/21882
DOI
10.3390/life12101631
ISSN
0024-3019
2075-1729
Abstract
The increasing global patterns for asthma disease and its associated fiscal burden to healthcare systems demand a change to healthcare processes and the way asthma risks are managed. Patient-centered health care systems equipped with advanced sensing technologies can empower patients to participate actively in their health risk control, which results in improving health outcomes. Despite having data analytics gradually emerging in health care, the path to well established and successful data driven health care services exhibit some limitations. Low accuracy of existing predictive models causes misclassification and needs improvement. In addition, lack of guidance and explanation of the reasons of a prediction leads to unsuccessful interventions. This paper proposes a modeling framework for an asthma risk management system in which the contributions are three fold: First, the framework uses a deep learning technique to improve the performance of logistic regression classification models. Second, it implements a variable sliding window method considering spatio-temporal properties of the data, which improves the quality of quantile regression models. Lastly, it provides a guidance on how to use the outcomes of the two predictive models in practice. To promote the application of predictive modeling, we present a use case that illustrates the life cycle of the proposed framework. The performance of our proposed framework was extensively evaluated using real datasets in which results showed improvement in the model classification accuracy, approximately 11.5-18.4% in the improved logistic regression classification model and confirmed low relative errors ranging from 0.018 to 0.160 in quantile regression model.
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College of Natural Sciences > Department of Environmental Health Science > 1. Journal Articles
College of Medicine > Department of Internal Medicine > 1. Journal Articles

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