Advisor(s)

Constantinos Mavroidis

Contributor(s)

Paolo Bonato, Rifat Sipahi

Date of Award

2012

Date Accepted

4-2012

Degree Grantor

Northeastern University

Degree Level

Ph.D.

Degree Name

Doctor of Philosophy

Department or Academic Unit

College of Engineering, Department of Mechanical and Industrial Engineering

Keywords

mechanical engineering, robotics, physical therapy, gait, physical, rehabilitation, robotic, stroke, theraphy

Disciplines

Mechanical Engineering

Abstract

Current methods of robotic neurorehabilitation of gait often do not address secondary gait deviations, focusing instead on only the primary gait deviations. Therefore, a robotic system was developed, which guides the pelvis in the frontal plane (pelvic obliquity), in order to address hip-hiking - the most common secondary gait deviation. A prototype of the device was built with a single actuator and impedance control system to generate force field and transfer it to the patient's pelvis via a lower body exoskeleton. The RGR Trainer's ability to alter gait pattern via force fields applied to pelvic obliquity was tested on several healthy subjects. It was found that the RGR Trainer can coax healthy subjects to walk with an altered gait pattern, and signs of retention of this newly learned gait pattern have been observed.

Document Type

Dissertation

Rights Information

copyright 2012

Rights Holder

Maciej Dariusz Pietrusinski



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