Predicting cumulative load during running using field-based measures

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DOI

  • Anne Backes, Population Health Department, Luxembourg Institute of Health, Strassen, Luxembourg.
  • ,
  • Sebastian Deisting Skejø
  • ,
  • Paul Gette, Population Health Department, Luxembourg Institute of Health, Strassen, Luxembourg.
  • ,
  • Rasmus Østergaard Nielsen
  • Henrik Sørensen
  • Cédric Morio, Decathlon SportsLab Research and Development
  • ,
  • Laurent Malisoux, Population Health Department, Luxembourg Institute of Health, Strassen, Luxembourg.

The main objective was to investigate whether the cumulative load of the lower limbs, defined as the product of external load and step rate, could be predicted using spatiotemporal variables gathered with a commercially available wearable device in running. Therefore, thirty-nine runners performed two running tests at 10 and 12 km/h, respectively. Spatiotemporal variables (step rate, ground contact time, and vertical oscillation) were collected using a commercially available wearable device. Kinetic variables, measured with gold standard equipment (motion capture system and instrumented treadmill) and used for the calculation of a set of variables representing cumulative load, were peak vertical ground reaction force (peak vGRF), vertical instantaneous loading rate (VILR), vertical impulse, braking impulse, as well as peak extension moments and angular impulses of the ankle, knee and hip joints. Separate linear mixed-effects models were built to investigate the prediction performance of the spatiotemporal variables for each measure of cumulative load. BMI, speed, and sex were included as covariates. Predictive precision of the models ranged from .11 to .66 (R2m) and .22 to .98 (R2c), respectively. Greatest predictive performance was obtained for the cumulative peak vGRF (R2m = .66, R2c = .97), VILR (R2m = .43, R2c = .97), braking impulse (R2m = .52, R2c = .98), and peak hip extension moment (R2m = .54, R2c = .90). In conclusion, certain variables representing cumulative load of the lower limbs in running can be predicted using spatiotemporal variables gathered with a commercially available wearable device.

Original languageEnglish
JournalScandinavian Journal of Medicine & Science in Sports
Volume30
Issue12
Pages (from-to)2399-2407
Number of pages9
ISSN0905-7188
DOIs
Publication statusPublished - Dec 2020

Bibliographical note

© 2020 John Wiley & Sons A/S. Published by John Wiley & Sons Ltd.

    Research areas

  • biomechanics, injury prevention, running, sports injury, wearables

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