TY - JOUR
T1 - One-year employment outcome prediction after traumatic brain injury
T2 - A CENTER-TBI study
AU - Van Deynse, Helena
AU - Cools, Wilfried
AU - De Deken, Viktor Jan
AU - Depreitere, Bart
AU - Hubloue, Ives
AU - Tisseghem, Ellen
AU - Putman, Koen
AU - Åkerlund, Cecilia
AU - Amrein, Krisztina
AU - Andelic, Nada
AU - Andreassen, Lasse
AU - Anke, Audny
AU - Antoni, Anna
AU - Audibert, Gérard
AU - Azouvi, Philippe
AU - Azzolini, Maria Luisa
AU - Bartels, Ronald
AU - Barzó, Pál
AU - Beauvais, Romuald
AU - Beer, Ronny
AU - Bellander, Bo Michael
AU - Belli, Antonio
AU - Benali, Habib
AU - Berardino, Maurizio
AU - Beretta, Luigi
AU - Blaabjerg, Morten
AU - Bragge, Peter
AU - Brazinova, Alexandra
AU - Brinck, Vibeke
AU - Brooker, Joanne
AU - Brorsson, Camilla
AU - Buki, Andras
AU - Bullinger, Monika
AU - Cabeleira, Manuel
AU - Caccioppola, Alessio
AU - Calappi, Emiliana
AU - Calvi, Maria Rosa
AU - Cameron, Peter
AU - Lozano, Guillermo Carbayo
AU - Carbonara, Marco
AU - Cavallo, Simona
AU - Chevallard, Giorgio
AU - Chieregato, Arturo
AU - Citerio, Giuseppe
AU - Clusmann, Hans
AU - Coburn, Mark
AU - Coles, Jonathan
AU - Cooper, Jamie D.
AU - Correia, Marta
AU - Ylén, Peter
PY - 2024
Y1 - 2024
N2 - Background: Traumatic brain injury (TBI) can come with long term consequences for functional outcome that can complicate return to work. Objectives: This study aims to make accurate patient-specific predictions on one-year return to work after TBI using machine learning algorithms. Within this process, specific research questions were defined: 1 How can we make accurate predictions on employment outcome, and does this require follow-up data beyond hospitalization? 2 Which predictors are required to make accurate predictions? 3 Are predictions accurate enough for use in clinical practice? Methods: This study used the core CENTER-TBI observational cohort dataset, collected across 18 European countries between 2014 and 2017. Hospitalized patients with sufficient follow-up data were selected for the current analysis (N = 586). Data regarding hospital stay and follow-up until three months post-injury were used to predict return to work after one year. Three distinct algorithms were used to predict employment outcomes: elastic net logistic regression, random forest and gradient boosting. Finally, a reduced model and corresponding ROC-curve was created. Results: Full models without follow-up achieved an area under the curve (AUC) of about 81 %, which increased up to 88 % with follow-up data. A reduced model with five predictors achieved similar results with an AUC of 90 %. Conclusion: The addition of three-month follow-up data causes a notable increase in model performance. The reduced model - containing Glasgow Outcome Scale Extended, pre-injury job class, pre-injury employment status, length of stay and age - matched the predictive performance of the full models. Accurate predictions on post-TBI vocational outcomes contribute to realistic prognosis and goal setting, targeting the right interventions to the right patients.
AB - Background: Traumatic brain injury (TBI) can come with long term consequences for functional outcome that can complicate return to work. Objectives: This study aims to make accurate patient-specific predictions on one-year return to work after TBI using machine learning algorithms. Within this process, specific research questions were defined: 1 How can we make accurate predictions on employment outcome, and does this require follow-up data beyond hospitalization? 2 Which predictors are required to make accurate predictions? 3 Are predictions accurate enough for use in clinical practice? Methods: This study used the core CENTER-TBI observational cohort dataset, collected across 18 European countries between 2014 and 2017. Hospitalized patients with sufficient follow-up data were selected for the current analysis (N = 586). Data regarding hospital stay and follow-up until three months post-injury were used to predict return to work after one year. Three distinct algorithms were used to predict employment outcomes: elastic net logistic regression, random forest and gradient boosting. Finally, a reduced model and corresponding ROC-curve was created. Results: Full models without follow-up achieved an area under the curve (AUC) of about 81 %, which increased up to 88 % with follow-up data. A reduced model with five predictors achieved similar results with an AUC of 90 %. Conclusion: The addition of three-month follow-up data causes a notable increase in model performance. The reduced model - containing Glasgow Outcome Scale Extended, pre-injury job class, pre-injury employment status, length of stay and age - matched the predictive performance of the full models. Accurate predictions on post-TBI vocational outcomes contribute to realistic prognosis and goal setting, targeting the right interventions to the right patients.
UR - http://www.scopus.com/inward/record.url?scp=85208059067&partnerID=8YFLogxK
U2 - 10.1016/j.dhjo.2024.101716
DO - 10.1016/j.dhjo.2024.101716
M3 - Article
AN - SCOPUS:85208059067
SN - 1936-6574
JO - Disability and Health Journal
JF - Disability and Health Journal
M1 - 101716
ER -