Stroke Projects
A stroke occurs when a rupture or blood clot reduces blood flow to an area
of the brain, killing brain cells and disrupting the abilities or functions
they control. Many survivors experience weakness and poor coordination, which
impairs their ability to walk and use their hands. We employ a variety of
experimental and computer modeling techniques to study coordination in healthy
individuals and impaired coordination in individuals who have suffered stroke.
We use the results to develop more effective rehabilitation therapies for
restoring lost function after stroke.
Several of these projects involve the use of human subjects. To check on
current opportunities to participate in a research project and receive
rehabilitation therapy, visit the Research Subjects page.
Assisted Upper Limb Movement for Assessment and
Therapy
Automatic Decomposition of the
Electromyogram
Bilateral Coordination of Hemiparetic
Locomotion
Computer Simulation Analysis of Coordination
Deficits in Post-stroke Hemiparesis
Control of Functional Movement in Hemiplegia
Coordination of Hemiparetic Movement after
Post-stroke Rehabilitation
Differential Pressure Walking Assistance
Driver's SEAT, A Simulated Environment for Arm
Therapy
Effect of Strength Training on Upper-Limb
Function in Post-Stroke Patients
Graded Weight-bearing Exercise for Improved
Ambulation after Stroke
Improving Stepping-Over Responses in the Elderly
Using Simulated Objects
Intermuscular Coordination of Mammalian
Movement
International Conference on Rehabilitation
Robotics: Conference Support
Mechanically Assisted Upper Limb Movement for
Assessment and Therapy
Motor Unit Firing Patterns in Hemiplegia
Muscle Coordination of the Lower Limbs During
Locomotion
Robot-Assisted Upper Limb
Neuro-Rehabilitation
Tiltcycle III: Tilting Cycle Ergometer for
Stroke Rehabilitation Research
Video-Based Functional Assessment and Training
Following Stroke
Projects with a secondary relationship to Stroke.
Pressure / Motion Feedback to Protect Skin of
Sensorimotor Impaired Elders
The Stanford Biomechanical Engineering
Division
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