Optimization of a support vector regression model predicts maximal weight lifted during a manual material handling assessment within a military setting

Manual materiel handling (MMH) is an important task within the military and routine physical assessments ensure personnel are proficient in MMH tasks. Research demonstrates that predictive models can accurately estimate MMH performance. Optimization of these models may enhance military workflows by providing insights into maximal military performance of MMH tasks. This study recruited a mixed population of 51 general and military participants to assess physical characteristics and MMH lift-to-place performance. Previously developed models (support vector regressions (SVR) and ridge) were retrained and optimized through hyperparameter and feature selection tuning based on physical characteristic metrics. Root mean square errors (RMSE) evaluated the model's prediction performance. The best retrained SVR models had lower prediction error than the best retrained ridge models (RMSEs of 3.04 and 3.62 kgs vs 3.32 and 4.24 kgs, respectively). SVR models require minimal implementation effort and provide robust predictive capabilities, making them a valuable tool for military organizations.

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Publication Details

Journal
Applied Ergonomics
Published
2026-04-25
DOI
https://doi.org/10.1016/j.apergo.2026.104794
Primary Topic
Occupational Health and Performance
Type
article
Field-Weighted Citation Impact
0.00

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article

Optimization of a support vector regression model predicts maximal weight lifted during a manual material handling assessment within a military setting

Ayden McCarthy, Steve Cassidy, Tim L. A. Doyle, Jodie A. Wills et al.
Applied Ergonomics
Occupational Health and Performance
article

Optimization of a support vector regression model predicts maximal weight lifted during a manual material handling assessment within a military setting

Ayden McCarthy, Steve Cassidy, Tim L. A. Doyle, Jodie A. Wills, Joel T. Fuller, B. C. Nindl, Evan D. Feigel, Lily J. Rosenblum, B.J. Martin, B. Rawls
article en

Abstract

Manual materiel handling (MMH) is an important task within the military and routine physical assessments ensure personnel are proficient in MMH tasks. Research demonstrates that predictive models can accurately estimate MMH performance. Optimization of these models may enhance military workflows by providing insights into maximal military performance of MMH tasks. This study recruited a mixed population of 51 general and military participants to assess physical characteristics and MMH lift-to-place performance. Previously developed models (support vector regressions (SVR) and ridge) were retrained and optimized through hyperparameter and feature selection tuning based on physical characteristic metrics. Root mean square errors (RMSE) evaluated the model's prediction performance. The best retrained SVR models had lower prediction error than the best retrained ridge models (RMSEs of 3.04 and 3.62 kgs vs 3.32 and 4.24 kgs, respectively). SVR models require minimal implementation effort and provide robust predictive capabilities, making them a valuable tool for military organizations.

Applied ErgonomicsVol. 136
Department of Health (ZA), Macquarie University (AU)
Macquarie University, Office of Naval Research
Climate action
Openalex Percentile: Top 4%
Occupational Health and Performance
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Optimization of a support vector regression model predicts maximal weight lifted during a manual material handling assessment within a military setting — Ayden McCarthy, Steve Cassidy, et al. · Applied Ergonomics (2026) | TGRS Research Map | TGRS