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research article

Augmented Cooper test: Biomechanical contributions to endurance performance

Apte, Salil  
•
Troxler, Simone
•
Besson, Cyril
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September 14, 2022
Frontiers In Sports And Active Living

Running mechanics are modifiable with training and adopting an economical running technique can improve running economy and hence performance. While field measurement of running economy is cumbersome, running mechanics can be assessed accurately and conveniently using wearable inertial measurement units (IMUs). In this work, we extended this wearables-based approach to the Cooper test, by assessing the relative contribution of running biomechanics to the endurance performance. Furthermore, we explored different methods of estimating the distance covered in the Cooper test using a wearable global navigation satellite system (GNSS) receiver. Thirty-three runners (18 highly trained and 15 recreational) performed an incremental laboratory treadmill test to measure their maximum aerobic speed (MAS) and speed at the second ventilatory threshold (sVT2). They completed a 12-minute Cooper running test with foot-worm IMUs and a chest-worn GNSS-IMU on a running track 1-2 weeks later. Using the GNSS receiver, an accurate estimation of the 12-minute distance was obtained (accuracy of 16.5 m and precision of 1.1%). Using this distance, we showed a reliable estimation [R-2 > 0.9, RMSE epsilon (0.07, 0.25) km/h] of the MAS and sVT2. Biomechanical metrics were extracted using validated algorithm and their association with endurance performance was estimated. Additionally, the high-/low-performance runners were compared using pairwise statistical testing. All performance variables, MAS, sVT2, and average speed during Cooper test, were predicted with an acceptable error (R-2 >= 0.65, RMSE <= 1.80 kmh(-1)) using only the biomechanical metrics. The most relevant metrics were used to develop a biomechanical profile representing the running technique and its temporal evolution with acute fatigue, identifying different profiles for runners with highest and lowest endurance performance. This profile could potentially be used in standardized functional capacity measurements to improve personalization of training and rehabilitation programs.

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Type
research article
DOI
10.3389/fspor.2022.935272
Web of Science ID

WOS:000861980200001

Author(s)
Apte, Salil  
Troxler, Simone
Besson, Cyril
Gremeaux, Vincent
Aminian, Kamiar  
Date Issued

2022-09-14

Publisher

FRONTIERS MEDIA SA

Published in
Frontiers In Sports And Active Living
Volume

4

Article Number

935272

Subjects

Sport Sciences

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wearable sensors

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biomechanical profile

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acute fatigue

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continuous assessment

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running distance

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foot-strike patterns

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maximum oxygen-uptake

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running economy

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energy-cost

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mechanics

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treadmill

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runners

•

speed

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gait

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run

Editorial or Peer reviewed

REVIEWED

Written at

EPFL

EPFL units
LMAM  
Available on Infoscience
October 10, 2022
Use this identifier to reference this record
https://infoscience.epfl.ch/handle/20.500.14299/191362
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