University of Utah
The purpose of this study is to improve control of myoelectrically-controlled advanced orthotic devices (an exoskeleton device that use the body's muscle signals to drive movements of a robotic brace) by using advanced predictive decode algorithms, and the use of high count (\> 8) surface electromyographic (sEMG) electrodes.
This study looks to improve control of myoelectrically-controlled advanced powered orthoses (orthoses that use the body's muscle signals to drive movements of a robotic exoskeleton) by using advanced predictive decode algorithms, and the use of high count (\> 8) surface electromyographic (sEMG) electrodes.
Inclusion Criteria: * First-ever ischemic or hemorrhagic stroke * Chronic Stroke (at least 6 months since onset) * Chronic hemiparesis * Functional range of motion for contralateral arm Exclusion Criteria: * Individuals who are currently Incarcerated
Control of the prosthesis/orthosis is based on clinical standard of care using commercially available control algorithms.
Control of the orthosis is based on residual muscle activity mapped to intended movement using high density electromyography and artificial intelligence control algorithms.
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