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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 Neurostimulation laboratory is currently pursuing multiple studies using various neurostimulation techniques, including transcranial magnetic stimulation (TMS), transcranial direct current stimulation (tDCS) and high-definition tDCS (HD-tDCS).

The Shirley Ryan Abilitylab Motion Analysis Center (MAC) is conducting a research study to establish a normative database of the oxygen consumed by individuals who are normal that can be used to contrast the performance of patients with walking deficits.

The aim of this study is to evaluate the relationship of the hip power in 3D Gait Analysis to select a set of preoperative gait features that distinguished between good (i.e., no longer stiff) and poor (i.e., remaining stiff) postoperative outcomes after rectus transfer surgery in children with Cerebral Palsy.

To evaluate the Dwyer procedure we will assess the changes in foot pressure distribution and center of force (COF) trajectory of patients who had gait analysis done at the Motion Analysis Center.

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.

We want to understand what factors predictably separate the surgical outcomes of different tendon transfers that restore function after spinal cord injury.

Our project hypothesizes that surgical re-design of the wrist in proximal row carpectomy and scaphoid-excision four-corner fusion limits hand strength post-op.

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.