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Using an Inertial Device (WIMU PRO) to Quantify Neuromuscular Load in Running: Reliability, Convergent Validity, and Influence of Type of Surface and Device Location

ABSTRACTGómez-Carmona, CD, Bastida-Castillo, A, González-Custodio, A, Olcina, G, and Pino-Ortega, J. Using an inertial device (WIMU PRO) to quantify neuromuscular load in runningreliability, convergent validity, and influence of type of surface and device location. J Strength Cond Res 34(2)365–373,...

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Published in:Journal of strength and conditioning research 2020-02, Vol.34 (2), p.365-373
Main Authors: Gómez-Carmona, Carlos D., Bastida-Castillo, Alejandro, González-Custodio, Adrián, Olcina, Guillermo, Pino-Ortega, José
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description ABSTRACTGómez-Carmona, CD, Bastida-Castillo, A, González-Custodio, A, Olcina, G, and Pino-Ortega, J. Using an inertial device (WIMU PRO) to quantify neuromuscular load in runningreliability, convergent validity, and influence of type of surface and device location. J Strength Cond Res 34(2)365–373, 2020—Currently, the use of accelerometers in sport is increasing, and thus, the devices are required to be valid and reliable. This study tested (a) the reliability and validity of WIMU PRO accelerometers to measure PlayerLoad (PL) and (b) the influence of speed, inertial device location, and type of surface where the incremental test is performed. Twenty resistance-trained men (age27.32 ± 6.65 years; height1.74 ± 0.03 m; body mass68.96 ± 4.37 kg; and body mass index22.76 ± 1.11 kg·m) volunteered to participate in the study that lasted 5 weeks. Four progressive incremental tests were performed in treadmill and athletic track conditions. External load variable (PL) and physiological variables (heart rate [HR] and SmO2) were recorded by 4 WIMU PRO inertial devices (scapulae, center of mass, knee, and ankle), a GARMIN HR band, and a MOXY near-infrared spectroscopy device, respectively. High reliability was found on both types of surface, showing the best values at the ankle (treadmillintraclass correlation coefficient [ICC] = 0.99, coefficient of variation [CV] = 4.65%; trackICC = 0.96, CV = 6.54%). A nearly perfect convergent validity was shown with HRAVG (r = 0.99) and a moderate one with SmO2 (r = −0.69). Significant differences in the PL variable between surfaces were reported in all locations except the scapulae (p = 0.173), and the higher values were found on the track. In the analysis per location, the ankle location reported the highest values at all speeds and on the 2 surfaces analyzed. Assessment needs to be individualized, due to the great variability of gait biomechanics among subjects. The accelerometer location should be chosen according to the purpose of the measurement, with the ankle location being recommended for neuromuscular load analysis in running.
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Using an inertial device (WIMU PRO) to quantify neuromuscular load in runningreliability, convergent validity, and influence of type of surface and device location. J Strength Cond Res 34(2)365–373, 2020—Currently, the use of accelerometers in sport is increasing, and thus, the devices are required to be valid and reliable. This study tested (a) the reliability and validity of WIMU PRO accelerometers to measure PlayerLoad (PL) and (b) the influence of speed, inertial device location, and type of surface where the incremental test is performed. Twenty resistance-trained men (age27.32 ± 6.65 years; height1.74 ± 0.03 m; body mass68.96 ± 4.37 kg; and body mass index22.76 ± 1.11 kg·m) volunteered to participate in the study that lasted 5 weeks. Four progressive incremental tests were performed in treadmill and athletic track conditions. External load variable (PL) and physiological variables (heart rate [HR] and SmO2) were recorded by 4 WIMU PRO inertial devices (scapulae, center of mass, knee, and ankle), a GARMIN HR band, and a MOXY near-infrared spectroscopy device, respectively. High reliability was found on both types of surface, showing the best values at the ankle (treadmillintraclass correlation coefficient [ICC] = 0.99, coefficient of variation [CV] = 4.65%; trackICC = 0.96, CV = 6.54%). A nearly perfect convergent validity was shown with HRAVG (r = 0.99) and a moderate one with SmO2 (r = −0.69). Significant differences in the PL variable between surfaces were reported in all locations except the scapulae (p = 0.173), and the higher values were found on the track. In the analysis per location, the ankle location reported the highest values at all speeds and on the 2 surfaces analyzed. Assessment needs to be individualized, due to the great variability of gait biomechanics among subjects. 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Using an inertial device (WIMU PRO) to quantify neuromuscular load in runningreliability, convergent validity, and influence of type of surface and device location. J Strength Cond Res 34(2)365–373, 2020—Currently, the use of accelerometers in sport is increasing, and thus, the devices are required to be valid and reliable. This study tested (a) the reliability and validity of WIMU PRO accelerometers to measure PlayerLoad (PL) and (b) the influence of speed, inertial device location, and type of surface where the incremental test is performed. Twenty resistance-trained men (age27.32 ± 6.65 years; height1.74 ± 0.03 m; body mass68.96 ± 4.37 kg; and body mass index22.76 ± 1.11 kg·m) volunteered to participate in the study that lasted 5 weeks. Four progressive incremental tests were performed in treadmill and athletic track conditions. External load variable (PL) and physiological variables (heart rate [HR] and SmO2) were recorded by 4 WIMU PRO inertial devices (scapulae, center of mass, knee, and ankle), a GARMIN HR band, and a MOXY near-infrared spectroscopy device, respectively. High reliability was found on both types of surface, showing the best values at the ankle (treadmillintraclass correlation coefficient [ICC] = 0.99, coefficient of variation [CV] = 4.65%; trackICC = 0.96, CV = 6.54%). A nearly perfect convergent validity was shown with HRAVG (r = 0.99) and a moderate one with SmO2 (r = −0.69). Significant differences in the PL variable between surfaces were reported in all locations except the scapulae (p = 0.173), and the higher values were found on the track. In the analysis per location, the ankle location reported the highest values at all speeds and on the 2 surfaces analyzed. Assessment needs to be individualized, due to the great variability of gait biomechanics among subjects. The accelerometer location should be chosen according to the purpose of the measurement, with the ankle location being recommended for neuromuscular load analysis in running.</abstract><cop>United States</cop><pub>Journal of Strength and Conditioning Research</pub><pmid>31985715</pmid><doi>10.1519/JSC.0000000000003106</doi><tpages>9</tpages></addata></record>
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source HEAL-Link subscriptions: Lippincott Williams & Wilkins
subjects Accelerometers
Accelerometry - instrumentation
Accelerometry - methods
Adult
Ankle
Biomechanics
Body mass index
Exercise Test
Gait
Heart Rate
Humans
Infrared spectroscopy
Knee
Male
Muscle, Skeletal - metabolism
Oxygen - metabolism
Reliability
Reproducibility of Results
Running - physiology
Scapula
Spectroscopy, Near-Infrared
Strength training
Surface Properties
Young Adult
title Using an Inertial Device (WIMU PRO) to Quantify Neuromuscular Load in Running: Reliability, Convergent Validity, and Influence of Type of Surface and Device Location
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