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Using machine learning to investigate the relationship between domains of functioning and functional mobility in older adults

Previous studies have shown that functional mobility, along with other physical functions, decreases with advanced age. However, it is still unclear which domains of functioning (body structures, body functions, and activities) are most closely related to functional mobility. This study used machine...

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Published in:PloS one 2021-02, Vol.16 (2), p.e0246397-e0246397
Main Authors: Hirata, Keisuke, Suzuki, Makoto, Iso, Naoki, Okabe, Takuhiro, Goto, Hiroshi, Cho, Kilchoon, Shimizu, Junichi
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description Previous studies have shown that functional mobility, along with other physical functions, decreases with advanced age. However, it is still unclear which domains of functioning (body structures, body functions, and activities) are most closely related to functional mobility. This study used machine learning classification to predict the rankings of Timed Up and Go tests based on the results of four assessments (soft lean mass, FEV1/FVC, knee extension torque, and one-leg standing time). We tested whether assessment results for each level could predict functional mobility assessments in older adults. Using support vector machines for machine learning classification, we verified that the four assessments of each level could classify functional mobility. Knee extension torque (from the body function domain) was the most closely related assessment. Naturally, the classification accuracy rate increased with a larger number of assessments as explanatory variables. However, knee extension torque remained the highest of all assessments. This extended to all combinations (of 2-3 assessments) that included knee extension torque. This suggests that resistance training may help protect individuals suffering from age-related declines in functional mobility.
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subjects Accuracy
Adults
Age
Artificial neural networks
Balance
Biology and Life Sciences
Body composition
Body mass
Chronic illnesses
Classification
Computer and Information Sciences
Disability evaluation
Domains
Geriatric assessment
Health sciences
Lean body mass
Learning algorithms
Machine learning
Medicine and Health Sciences
Methods
Mobility
Muscle strength
Neural networks
Older people
People and Places
Physical Sciences
Respiratory function
Support vector machines
Walking
title Using machine learning to investigate the relationship between domains of functioning and functional mobility in older adults
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