<p>Sensitivity functions (averaged over participants) of the ankle torque (<sup>SS</sup>S<sub>Ta</sub>), hip torque (<sup>SS</sup>S<sub>Th</sub>), leg angle (<sup>SS</sup>S<sub>θl</sub>) and hip angle (<sup>SS</sup>S<sub>θh</sub>) to the rotation of the support surfaces per day per trial are presented by mean and standard error, only magnitude is shown.</p
Top row: mean (± standard deviation) hip, knee and ankle sagittal plane angles during the gait cycle...
Top row: mean (± standard deviation) hip, knee and ankle sagittal plane angles during the gait cycle...
[Purpose] To determine the ankle evertor/invertor maximal torque ratios (E/I) in the normal populati...
a<p>One outlier is excluded.</p>b<p>Significant main effects and interactions for age (A), gender (G...
Dataset used for study 2 (dorsiflexion). <br><br>pXX_normal / dorsi = trials recorded with perturba...
Human movement control is frequently studied by in vivo quantification of NeuroMuscular System (NMS)...
<p>Effects of active ankle torque and passive tendon stretch on ankle angle (footplate minus shin an...
As industry advances, one must predict human capability for industrial design and injury prevention....
Top row: mean (± standard deviation) hip, knee and ankle sagittal plane angles at 2.5 (cyan), 4 (blu...
<p><b>Copyright information:</b></p><p>Taken from "Locomotor adaptation to a powered ankle-foot orth...
Changes in human balance control can objectively be assessed using system identification techniques ...
<p><b>Copyright information:</b></p><p>Taken from "Locomotor adaptation to a powered ankle-foot orth...
<p>(A) Anterior-posterior ankle torque traces to FAST, MEDIUM and SLOW perturbations on the most aff...
Top row: mean (± standard deviation) hip, knee and ankle sagittal plane angles during the gait cycle...
<p>Non-amputee ankle torque plotted against ankle angle for the under arm dance step. The color of t...
Top row: mean (± standard deviation) hip, knee and ankle sagittal plane angles during the gait cycle...
Top row: mean (± standard deviation) hip, knee and ankle sagittal plane angles during the gait cycle...
[Purpose] To determine the ankle evertor/invertor maximal torque ratios (E/I) in the normal populati...
a<p>One outlier is excluded.</p>b<p>Significant main effects and interactions for age (A), gender (G...
Dataset used for study 2 (dorsiflexion). <br><br>pXX_normal / dorsi = trials recorded with perturba...
Human movement control is frequently studied by in vivo quantification of NeuroMuscular System (NMS)...
<p>Effects of active ankle torque and passive tendon stretch on ankle angle (footplate minus shin an...
As industry advances, one must predict human capability for industrial design and injury prevention....
Top row: mean (± standard deviation) hip, knee and ankle sagittal plane angles at 2.5 (cyan), 4 (blu...
<p><b>Copyright information:</b></p><p>Taken from "Locomotor adaptation to a powered ankle-foot orth...
Changes in human balance control can objectively be assessed using system identification techniques ...
<p><b>Copyright information:</b></p><p>Taken from "Locomotor adaptation to a powered ankle-foot orth...
<p>(A) Anterior-posterior ankle torque traces to FAST, MEDIUM and SLOW perturbations on the most aff...
Top row: mean (± standard deviation) hip, knee and ankle sagittal plane angles during the gait cycle...
<p>Non-amputee ankle torque plotted against ankle angle for the under arm dance step. The color of t...
Top row: mean (± standard deviation) hip, knee and ankle sagittal plane angles during the gait cycle...
Top row: mean (± standard deviation) hip, knee and ankle sagittal plane angles during the gait cycle...
[Purpose] To determine the ankle evertor/invertor maximal torque ratios (E/I) in the normal populati...