DocumentCode :
2631527
Title :
Adaptive locomotor training on an end-effector gait robot: Evaluation of the ground reaction forces in different training conditions
Author :
Tomelleri, Christopher ; Waldner, Andreas ; Werner, Cordula ; Hesse, Stefan
Author_Institution :
Neurologic Rehabilitation Dept., Privatklinik Villa Melitta, Bozen, Italy
fYear :
2011
fDate :
June 29 2011-July 1 2011
Firstpage :
1
Lastpage :
5
Abstract :
The main goal of robotic gait rehabilitation is the restoration of independent gait. To achieve this goal different and specific patterns have to be practiced intensively in order to stimulate the learning process of the central nervous system. The gait robot G-EO Systems was designed to allow the repetitive practice of floor walking, stair climbing and stair descending. A novel control strategy allows training in adaptive mode. The force interactions between the foot and the ground were analyzed on 8 healthy volunteers in three different conditions: real floor walking on a treadmill, floor walking on the gait robot in passive mode, floor walking on the gait robot in adaptive mode. The ground reaction forces were measured by a Computer Dyno Graphy (CDG) analysis system. The results show different intensities of the ground reaction force across all of the three conditions. The intensities of force interactions during the adaptive training mode are comparable to the real walking on the treadmill. Slight deviations still occur in regard to the timing pattern of the forces. The adaptive control strategy comes closer to the physiological swing phase than the passive mode and seems to be a promising option for the treatment of gait disorders. Clinical trials will validate the efficacy of this new option in locomotor therapy on the patients.
Keywords :
adaptive control; biomedical measurement; force control; force measurement; gait analysis; kinematics; medical robotics; neurophysiology; patient rehabilitation; patient treatment; adaptive control strategy; adaptive locomotor training; central nervous system; computer dyno graphy analysis; end-effector gait robot; floor walking; force interactions; force measurement; gait robot G-EO systems; ground reaction forces; learning process; locomotor therapy; robotic gait rehabilitation; stair climbing; stair descending; treadmill walking; Floors; Foot; Force; Legged locomotion; Training; Trajectory; adaptive control; computer dyno graphy; gait rehabilitation; robotics; Adult; Biomechanics; Exercise Therapy; Female; Gait; Humans; Male; Robotics; Walking; Young Adult;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Rehabilitation Robotics (ICORR), 2011 IEEE International Conference on
Conference_Location :
Zurich
ISSN :
1945-7898
Print_ISBN :
978-1-4244-9863-5
Electronic_ISBN :
1945-7898
Type :
conf
DOI :
10.1109/ICORR.2011.5975492
Filename :
5975492
Link To Document :
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