Publication

Strategies of Managing Repeated Measures: Using Synthetic Random Forest to Predict HIV Viral Suppression Status Among Hospitalized Persons with HIV

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Last modified
  • 07/07/2026
Type of Material
Authors
    Jingxin Liu, University of MiamiYue Pan, University of MiamiMindy C. Nelson, University of MiamiLauren K. Gooden, Columbia UniversityLisa R. Metsch, Columbia UniversityAllan E. Rodriguez, University of MiamiSusan Tross, Columbia UniversityCarlos del rio, Emory UniversityRaul N. Mandler, National Institutes of HealthDaniel J. Feaster, University of Miami
Language
  • English
Date
  • 2023-02-05
Publisher
  • Springer Nature
Publication Version
Copyright Statement
  • © 2023, The Author(s), under exclusive licence to Springer Science Business Media, LLC, part of Springer Nature
Final Published Version (URL)
Title of Journal or Parent Work
Volume
  • 27
Issue
  • 9
Start Page
  • 2915
End Page
  • 2931
Grant/Funding Agency
  • Center for AIDS Research
  • National Institute on Drug Abuse
  • University of Miami
Grant/Funding Information
  • Funding for this study and by the National Institute on Drug Abuse under the following awards: UG1DA013720, UG1DA013035, UG1DA013034, UG1DA013727, UG1DA020024, UG1DA013732, UG1DA015831, UG1DA015815, and U10DA020036. Support from the University of Miami Center for HIV and Research on Mental Health (CHARM) (P30MH116867) and Center for AIDS Research (CFAR) (P30AI07396) is also acknowledged.
Supplemental Material (URL)
Abstract
  • The HIV/AIDS epidemic remains a major public health concern since the 1980s; untreated HIV infection has numerous consequences on quality of life. To optimize patients’ health outcomes and to reduce HIV transmission, this study focused on vulnerable populations of people living with HIV (PLWH) and compared different predictive strategies for viral suppression using longitudinal or repeated measures. The four methods of predicting viral suppression are (1) including the repeated measures of each feature as predictors, (2) utilizing only the initial (baseline) value of the feature as predictor, (3) using the last observed value as the predictors and (4) using a growth curve estimated from the features to create individual-specific prediction of growth curves as features. This study suggested the individual-specific prediction of the growth curve performed the best in terms of lowest error rate on an independent set of test data.
Author Notes
  • Correspondence: Jingxin Liu, Department of Public Health, Miller School of Medicine, University of Miami, Coral Gables, USA, JXL1830@miami.edu
  • Competing interests: Not applicable
Keywords
Subject - Topics
  • HIV infections
  • Machine learning
  • Public health

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