Overview of the body-machine interface for promoting motor recovery while controlling assistive devices project.

Develop a robotic, power-assist lever drive for a manual wheelchair that people with severe upper extremity impairment can use to both exercise and ambulate.

The Language of the Heart: Stories, Creativity and Resilience in the Presence of Aphasia. Keynote address by Melanie Drane, MA, MFA, LMFT,

Determining if patient induced pluripotent stem cell-derived neurons treated with in vitro neurotrauma can be used to predict clinical outcomes.

The Collaborative Machines Enhancing Therapies center brings together four research and development projects aimed at improving how patients move.

Development of a therapy-ready collaborative balance trainer.

We have developed machine-assisted therapy techniques that focus on self-directed movement and error augmentation approaches to promote user engagement.

This project evaluates the benefits a soft exoskeleton can have on a stroke survivor with lower extremity impairments.

We will fabricate an innovative split-belt treadmill system that allows backward-directed, real-time-adaptive, resistive forces applied to the pelvis.

We will develop and evaluate a collaborative technology that combine biofeedback of two neural signals — EEG and EMG to promote movement therapy.

A wearable airbag developed to prevent hip fractures and reduce fear of falling for people recovering from stroke.

Cerebral palsy (CP) is the most common cause of permanent physical disability in childhood, causing problems in the development of movement and posture, often accompanied by disturbances of sensation, perception, cognition, communication, and behavior. CP, which occurs as a result of brain injury before, during, or shortly after birth, affects 3-4 out of every 1000 school-aged children in the US.