Outcome
| Type |
Measure |
Description |
Time frame |
Safety issue |
| Primary |
Pain sensation |
Measured with a Visual Analogue Scale, scored from 0 to 100, where higher scores indicate higher pain sensation. |
Change from baseline pain sensation at 15minutes postintervention |
|
| Primary |
Pain sensation |
Measured with the Knee Osteoarthritis Outcome Score- subscale pain, scored on a scale from 0 to 36, transferred from 0 to 100. Higher scores indicate a higher pain sensation. |
Change from baseline pain sensation at 15minutes postintervention |
|
| Primary |
Pain sensation |
Measured with a Visual Analogue Scale, scored from 0 to 100, where higher scores indicate higher pain sensation. |
Change from baseline pain sensation at 3days postintervention |
|
| Primary |
Pain sensation |
Measured with the Knee Osteoarthritis Outcome Score- subscale pain, scored on a scale from 0 to 36, transferred from 0 to 100. Higher scores indicate a higher pain sensation. |
Change from baseline pain sensation at 3days postintervention |
|
| Primary |
Pain sensation |
Measured with a Visual Analogue Scale, scored from 0 to 100, where higher scores indicate higher pain sensation. |
Change from 15minutes postintervention pain sensation at 3days postintervention |
|
| Primary |
Pain sensation |
Measured with the Knee Osteoarthritis Outcome Score- subscale pain, scored on a scale from 0 to 36, transferred from 0 to 100. Higher scores indicate a higher pain sensation. |
Change from 15minutes postintervention pain sensation at 3days postintervention |
|
| Primary |
Pain pressure thresholds |
Measured with an digital algometer (kilogram force/ square cm) |
Change from baseline central pain processing at 15minutes postintervention |
|
| Primary |
Temporal summation |
Measured with an digital algometer (kilogram force/ square cm) |
Change from baseline central pain processing at 15minutes postintervention |
|
| Primary |
Conditioned pain modulation |
Measured with an digital algometer (test stimulus) and an inflatable cuff (conditioning stimulus). (kilogram force/ square cm) |
Change from baseline central pain processing at 15minutes postintervention |
|
| Secondary |
Muscle coactivation of musculus Vastus medialis and musculus Semitendinosus |
Measured with wireless surface electromyography. Muscle activation patterns will be gathered through surface electrodes. Hereafter, the co-contraction index was calculated. Higher percentages indicate higher coactivation. |
Change from baseline muscle coactivation at 15minutes postintervention |
|
| Secondary |
Muscle coactivation of musculus Vastus medialis and musculus Biceps femoris |
Measured with wireless surface electromyography. Muscle activation patterns will be gathered through surface electrodes. Hereafter, the co-contraction index was calculated. Higher percentages indicate higher coactivation. |
Change from baseline muscle coactivation at 15minutes postintervention |
|
| Secondary |
Muscle coactivation of musculus Vastus lateralis and musculus Semitendinosus |
Measured with wireless surface electromyography. Muscle activation patterns will be gathered through surface electrodes. Hereafter, the co-contraction index was calculated. Higher percentages indicate higher coactivation. |
Change from baseline muscle coactivation at 15minutes postintervention |
|
| Secondary |
Muscle coactivation of musculus Vastus lateralis and musculus Biceps femoris |
Measured with wireless surface electromyography. Muscle activation patterns will be gathered through surface electrodes. Hereafter, the co-contraction index was calculated. Higher percentages indicate higher coactivation. |
Change from baseline muscle coactivation at 15minutes postintervention |
|
| Secondary |
Muscle coactivation of musculus Tibialis anterior and musculus Gastrocnemius medialis |
Measured with wireless surface electromyography. Muscle activation patterns will be gathered through surface electrodes. Hereafter, the co-contraction index was calculated. Higher percentages indicate higher coactivation. |
Change from baseline muscle coactivation at 15minutes postintervention |
|
| Secondary |
Muscle coactivation of musculus Tibialis anterior and musculus Gastrocnemius lateralis |
Measured with wireless surface electromyography. Muscle activation patterns will be gathered through surface electrodes. Hereafter, the co-contraction index was calculated. Higher percentages indicate higher coactivation. |
Change from baseline muscle coactivation at 15minutes postintervention |
|
| Secondary |
Stride time (seconds) |
measured with force plates and markers to measure toe off and heel strike during a 3D motion analysis. |
Change from baseline muscle coactivation at 15minutes postintervention |
|
| Secondary |
Stride length (meters) |
measured with force plates and markers to measure toe off and heel strike during a 3D motion analysis. |
Change from baseline muscle coactivation at 15minutes postintervention |
|
| Secondary |
Step time (meters/second) |
measured with force plates and markers to measure toe off and heel strike during a 3D motion analysis. |
Change from baseline muscle coactivation at 15minutes postintervention |
|
| Secondary |
Stance phase (%) |
measured with force plates and markers to measure toe off and heel strike during a 3D motion analysis. |
Change from baseline muscle coactivation at 15minutes postintervention |
|
| Secondary |
Step length (meters) |
measured with force plates and markers to measure toe off and heel strike during a 3D motion analysis. |
Change from baseline muscle coactivation at 15minutes postintervention |
|
| Secondary |
Step width (meters) |
measured with force plates and markers to measure toe off and heel strike during a 3D motion analysis. |
Change from baseline muscle coactivation at 15minutes postintervention |
|