Home /Research /Mechanisms for improving walking speed after longitudinal powered robotic exoskeleton training for individuals with spinal cord injury
LOCOMOTION

Mechanisms for improving walking speed after longitudinal powered robotic exoskeleton training for individuals with spinal cord injury

Arvind Ramanujam, Kamyar Momeni, Syed R. Husain, Jonathan Augustine, Erica Garbarini, Peter J. Barrance, Ann M. Spungen, Pierre Asselin, Steven Knezevic, Gail Forrest

Year
2018
Citations
9

Abstract

The goal of this study was to establish strideparameter gait models correlated to speed on individuals with chronic SCI and able-bodied controls walking with a powered robotic exoskeleton (EksoGT $^{\mathrm{ TM}}$). Longitudinal exoskeleton training $( >100$ hours) across eight individuals with SCI resulted in a 30% increase in walking speed. A simple linear regression between step length, stride length for given speed were very tightly correlated along a line of best fit $( \mathrm {p}<$.001). The temporal parameters of stride time, stance time and double support time depicted a non-linear exponentially decaying relationship for given walking speed. The research findings indicate that although longitudinal exoskeleton training reduces the temporal parameters, increases in spatial parameters are only marginal.

Keywords

ExoskeletonSTRIDEPhysical medicine and rehabilitationSpinal cord injuryPowered exoskeletonPreferred walking speedGait trainingGaitSimulationComputer science

Related papers

Browse all LOCOMOTION papers