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We will develop a portable device that is easy to wear and does not interfere with a patient¡¯s gait, unless when necessary to prevent a fall.

This project aims at creating 3D environments where patients experience virtual representations of exercise motion through the use of motion detection sensors.

We envision a future where autonomy options are available when being fit for a wheelchair, just like the variety of seating options are available today.

Creating a robotic "smart" wheelchair that helps the human with driving, similar to emergency braking and parking assistance on cars.

Making assistive robotic arms easier to control, by introducing robotics autonomy.

Research covers decision making, reward process, reasoning, action planning, response inhibition, metacognition, social judgment & pro-social/empathic behavior.

In the Neuroplasticity laboratory, we are interested in examining the changes in neuroplasticity that follow neurocognitive and neurostimulation-based interventions in both healthy individuals and those with brain injuries.

The purpose of this study was to investigate the efficacy of the 3C procedure by using foot pressure distribution parameters to compare changes in pre- and post-operative COF trajectory and PP in the surgical region.

Rather than helping someone move, we rely on the aspects of neuroplasticity in the brain to facilitate learning to move, or re-learning after an injury.

Our project aims to deliver a real-time simulator of complex, multi-degree hand motions, and link it to hardware to control multi-function artificial hands.

The objective of this study is to investigate balance, stability, and mobility while using a Segway device.

This study aims to compare exoskeleton gait training with standard gait training in incomplete spinal cord injury.