Wireless Tri-Axial Trunk Accelerometry Detects Deviations in Dynamic Center of Mass Motion Due to Running-Induced Fatigue.

Small wireless trunk accelerometers have become a popular approach to unobtrusively quantify human locomotion and provide insights into both gait rehabilitation and sports performance. However, limited evidence exists as to which trunk accelerometry measures are suitable for the purpose of detecting...

Full description

Bibliographic Details
Main Authors: Kurt H Schütte, Ellen A Maas, Vasileios Exadaktylos, Daniel Berckmans, Rachel E Venter, Benedicte Vanwanseele
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2015-01-01
Series:PLoS ONE
Online Access:https://doi.org/10.1371/journal.pone.0141957
id doaj-242a05f997db4f72b0da6cdbc65fbac0
record_format Article
spelling doaj-242a05f997db4f72b0da6cdbc65fbac02021-03-03T19:58:05ZengPublic Library of Science (PLoS)PLoS ONE1932-62032015-01-011010e014195710.1371/journal.pone.0141957Wireless Tri-Axial Trunk Accelerometry Detects Deviations in Dynamic Center of Mass Motion Due to Running-Induced Fatigue.Kurt H SchütteEllen A MaasVasileios ExadaktylosDaniel BerckmansRachel E VenterBenedicte VanwanseeleSmall wireless trunk accelerometers have become a popular approach to unobtrusively quantify human locomotion and provide insights into both gait rehabilitation and sports performance. However, limited evidence exists as to which trunk accelerometry measures are suitable for the purpose of detecting movement compensations while running, and specifically in response to fatigue. The aim of this study was therefore to detect deviations in the dynamic center of mass (CoM) motion due to running-induced fatigue using tri-axial trunk accelerometry. Twenty runners aged 18-25 years completed an indoor treadmill running protocol to volitional exhaustion at speeds equivalent to their 3.2 km time trial performance. The following dependent measures were extracted from tri-axial trunk accelerations of 20 running steps before and after the treadmill fatigue protocol: the tri-axial ratio of acceleration root mean square (RMS) to the resultant vector RMS, step and stride regularity (autocorrelation procedure), and sample entropy. Running-induced fatigue increased mediolateral and anteroposterior ratios of acceleration RMS (p < .05), decreased the anteroposterior step regularity (p < .05), and increased the anteroposterior sample entropy (p < .05) of trunk accelerometry patterns. Our findings indicate that treadmill running-induced fatigue might reveal itself in a greater contribution of variability in horizontal plane trunk accelerations, with anteroposterior trunk accelerations that are less regular from step-to-step and are less predictable. It appears that trunk accelerometry parameters can be used to detect deviations in dynamic CoM motion induced by treadmill running fatigue, yet it is unknown how robust or generalizable these parameters are to outdoor running environments.https://doi.org/10.1371/journal.pone.0141957
collection DOAJ
language English
format Article
sources DOAJ
author Kurt H Schütte
Ellen A Maas
Vasileios Exadaktylos
Daniel Berckmans
Rachel E Venter
Benedicte Vanwanseele
spellingShingle Kurt H Schütte
Ellen A Maas
Vasileios Exadaktylos
Daniel Berckmans
Rachel E Venter
Benedicte Vanwanseele
Wireless Tri-Axial Trunk Accelerometry Detects Deviations in Dynamic Center of Mass Motion Due to Running-Induced Fatigue.
PLoS ONE
author_facet Kurt H Schütte
Ellen A Maas
Vasileios Exadaktylos
Daniel Berckmans
Rachel E Venter
Benedicte Vanwanseele
author_sort Kurt H Schütte
title Wireless Tri-Axial Trunk Accelerometry Detects Deviations in Dynamic Center of Mass Motion Due to Running-Induced Fatigue.
title_short Wireless Tri-Axial Trunk Accelerometry Detects Deviations in Dynamic Center of Mass Motion Due to Running-Induced Fatigue.
title_full Wireless Tri-Axial Trunk Accelerometry Detects Deviations in Dynamic Center of Mass Motion Due to Running-Induced Fatigue.
title_fullStr Wireless Tri-Axial Trunk Accelerometry Detects Deviations in Dynamic Center of Mass Motion Due to Running-Induced Fatigue.
title_full_unstemmed Wireless Tri-Axial Trunk Accelerometry Detects Deviations in Dynamic Center of Mass Motion Due to Running-Induced Fatigue.
title_sort wireless tri-axial trunk accelerometry detects deviations in dynamic center of mass motion due to running-induced fatigue.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2015-01-01
description Small wireless trunk accelerometers have become a popular approach to unobtrusively quantify human locomotion and provide insights into both gait rehabilitation and sports performance. However, limited evidence exists as to which trunk accelerometry measures are suitable for the purpose of detecting movement compensations while running, and specifically in response to fatigue. The aim of this study was therefore to detect deviations in the dynamic center of mass (CoM) motion due to running-induced fatigue using tri-axial trunk accelerometry. Twenty runners aged 18-25 years completed an indoor treadmill running protocol to volitional exhaustion at speeds equivalent to their 3.2 km time trial performance. The following dependent measures were extracted from tri-axial trunk accelerations of 20 running steps before and after the treadmill fatigue protocol: the tri-axial ratio of acceleration root mean square (RMS) to the resultant vector RMS, step and stride regularity (autocorrelation procedure), and sample entropy. Running-induced fatigue increased mediolateral and anteroposterior ratios of acceleration RMS (p < .05), decreased the anteroposterior step regularity (p < .05), and increased the anteroposterior sample entropy (p < .05) of trunk accelerometry patterns. Our findings indicate that treadmill running-induced fatigue might reveal itself in a greater contribution of variability in horizontal plane trunk accelerations, with anteroposterior trunk accelerations that are less regular from step-to-step and are less predictable. It appears that trunk accelerometry parameters can be used to detect deviations in dynamic CoM motion induced by treadmill running fatigue, yet it is unknown how robust or generalizable these parameters are to outdoor running environments.
url https://doi.org/10.1371/journal.pone.0141957
work_keys_str_mv AT kurthschutte wirelesstriaxialtrunkaccelerometrydetectsdeviationsindynamiccenterofmassmotionduetorunninginducedfatigue
AT ellenamaas wirelesstriaxialtrunkaccelerometrydetectsdeviationsindynamiccenterofmassmotionduetorunninginducedfatigue
AT vasileiosexadaktylos wirelesstriaxialtrunkaccelerometrydetectsdeviationsindynamiccenterofmassmotionduetorunninginducedfatigue
AT danielberckmans wirelesstriaxialtrunkaccelerometrydetectsdeviationsindynamiccenterofmassmotionduetorunninginducedfatigue
AT racheleventer wirelesstriaxialtrunkaccelerometrydetectsdeviationsindynamiccenterofmassmotionduetorunninginducedfatigue
AT benedictevanwanseele wirelesstriaxialtrunkaccelerometrydetectsdeviationsindynamiccenterofmassmotionduetorunninginducedfatigue
_version_ 1714824782925529088