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Table 2 Methodological considerations and study settings of the included studies

From: From data to action: a scoping review of wearable technologies and biomechanical assessments informing injury prevention strategies in sport

Study

Duration of the study

Training phase

Type of device(s)

Validity and reliability of device reported

Methodological considerations

Augustsson & Andersson, 2023

One day

Transition (off-season)

Linear encoder, load cell and force plate

Not reported

Sample rate was 200 Hz and no filter was used.

Schmidt et al., 2023

12 weeks

Competitive (in-season)

Force plate and a three-dimensional motion capture system consisting of 12 infrared cameras

Not reported

Sample rate was 1000 Hz and 120 Hz for the force plate and the three-dimensional motion capture system, respectively. Data were filtered with a fourth-order digital Butterworth filter with a cutoff frequency of 20 Hz.

Taylor et al., 2022

One competitive season

Competitive (in-season)

Triaxial accelerometer unit

Authors reported the validation and reliability of the variables measured according to MacDonald et al., 2016.

Each player wore the unit in an elastic waistband just inferior and lateral to their umbilicus. Each device transmitted data through Bluetooth technology to a portable tablet.

Kupperman et al., 2021

Three months

Preparatory (pre-season)

GPS and triaxial accelerometer unit

Good accuracy and reliability were reported according to Boyd et al., 2011 and Johnston et al., 2012

Sampling rates of 10 and 100 Hz for GPS and accelerometer, respectively.

Kupperman et al., 2021

18 weeks

Preparatory (pre-season) and competitive (in-season)

Triaxial accelerometer unit

Excellent intradevice reliability with ICCs ranged from very large to nearly perfect according to Nicolella et al., 2018.

The units were sampled at a rate of 100 Hz.

Li et al., 2020

Two seasons. Each with 14 weeks pre-season + 17 weeks in-season

Preparatory (pre-season) and competitive (in-season)

GPS and triaxial accelerometer unit

Authors reported the validation of the variable measured according to Nicolella et al., 2018.

Sampling rates of 15 and 100 Hz for GPS and accelerometer, respectively.

Sinsurin et al., 2020

One day

Not reported

Force plate and a motion capture system consisting of 10 infrared cameras

Not reported

Sample rate was 1000 Hz for the force plate. Data were filtered using a fourth-order zero-lag Butterworth digital filter at cut-off frequencies of 6 and 40 Hz, for the motion capture system and force plate, respectively.

Sanders et al., 2020

One competitive season

Competitive (in-season)

Wearable microsensor that included a GPS, gyroscope, magnetometer and triaxial accelerometer with an inertial movement sensor

Validity and reliability were reported according to Cummins et al., 2013 and Luteberget et al., 2017

The wearable microsensor device worn included a 10 Hz GPS, 100 Hz gyroscope, 100 Hz magnetometer, and 100 Hz triaxial accelerometer with inertial movement analysis technology.

Greig et al., 2019

One day

Not reported

GPS and triaxial accelerometer unit

Not reported

Triaxial acceleration data was collected at 100 Hz.

Murray et al., 2019

One full competitive season

Competitive (in-season)

Inertial measurement units containing GPS and a triaxial accelerometer unit

Not reported

Triaxial acceleration data was collected at 100 Hz.

Rossi et al., 2018

23 weeks

Competitive (in-season)

GPS and triaxial accelerometer, gyroscope, and digital compass

Not reported

Sampling rates of 10 and 100 Hz for GPS and triaxial units, respectively.

Stiles et al., 2018

6 months

Preparatory (pre-season) and competitive (in-season)

Triaxial accelerometer

Not reported

Triaxial acceleration data was collected at 100 Hz.

Rostami et al., 2018

6 weeks

Not reported

Force plate

Not reported

The data was recorded at a sampling rate of 250 Hz and within 8 s. Then, using the Butterworth 4th grade low-pass filter, the force plate data were filtered.

Garrett et al., 2018

1 week

Competitive (in-season)

Optical encoder, GPS and triaxial accelerometer unit

Authors reported the reliability of GPS-embedded triaxial accelerometers according to Aughey., 2011 and Cormack et al., 2013

Triaxial acceleration data was collected at 100 Hz.

Carey et al., 2017

3 seasons

Competitive (in-season)

GPS and triaxial accelerometer unit

Validity was reported according to Luke et al., 2011 and Rampinini et al., 2015

Sampling rates of 10 and 100 Hz for GPS and accelerometer, respectively.

Liu et al., 2016

Not reported

Not reported

Force plate

Not reported

Force plate data were collected at a sampling rate of 100 Hz.

Wilkerson et al., 2016

15 weeks

Competitive (in-season)

Inertial measurement units containing GPS and a triaxial accelerometer unit

Validity was reported according to Boyd et al., 2011 and Gabbett et al., 2013

Acceleration data was collected at 100 Hz.

Ritchie et al., 2016

One season

Preparatory (pre-season) and competitive (in-season)

GPS and triaxial accelerometer unit

Validity was reported according to Rampinini et al., 2015

Sampling rates of 10 and 100 Hz for GPS and accelerometer, respectively.

Colby et al., 2014

One season

Preparatory (pre-season) and competitive (in-season)

GPS and triaxial accelerometer unit

Validity was reported according to Jennings et al., 2010 and Johnston et al., 2012

Sampling rates of 15 and 100 Hz for GPS and accelerometer, respectively.

McLellan et al., 2011

One game

Competitive (in-season)

Force plate

Not reported

Sample rate was 1000 Hz for the force plate. The vertical force–time data were filtered using a fourth-order Butterworth low-pass filter with a cutoff frequency of 17 Hz.

Chappell & Limpisvasti, 2008

6 weeks

Preparatory (pre-season) and competitive (in-season)

Force plate

Not reported

Sample rate was 2400 Hz for the force plate.