Rehabilitation Medicine, Vice Chair for Innovation & Equity, Ilse Melamid Endowed A/Prof of Rehab Medicine, Associate Professor of Neurology, Mechanical & Aerospace Engineering, and Biomedical Engineering
- Director, Visuomotor Integration Laboratory
- Director, Rehabilitation Engineering Alliance and Center Transforming Low Vision
Advances in miniaturized sensors and actuators, as well as artificial intelligence (AI), have broadened horizons for assistive and rehabilitative technologies. The team of Professor JohnRoss Rizzo, MD, is leveraging these innovations to help patients with conditions such as blindness and stroke, enhancing their ability to interact physically with their environment.
His research is supported in part by NYU WIRELESS.
Research Interests: Stroke, Traumatic Brain Injury, Acquired Brain Injury, Eye-Hand Coordination, Eye Movements, Ocular Motor Control, Manual Motor Control, Concussion, Biomechanics, Gait, Assistive Technology, Wearable Technology, Blindness and Visual Impairment (BVI), Sensory Augmentation, Electronic Travel Aids (ETAs) for BVI, Mobility in Low Vision, Health
New York Medical College
NYU Langone Medical Center, Rusk Rehabilitation, Clinical Research Fellowship
NYU Langone Medical Center, Rusk Rehabilitation (with Chief Year)
New York University
Assistant Professor, Department of Rehabilitation Medicine
Assistant Professor, Department of Neurology
Director, Visuomotor Integration Laboratory
This project is led by S. Farokh Atashzar, assistant professor of electrical and computer engineering at NYU Tandon; and John-Ross Rizzo, assistant professor in the Departments of Rehabilitation Medicine and Neurology at NYU Langone Health, and of mechanical and aerospace and biomedical engineering at NYU Tandon.
Stroke, the leading cause of motor disabilities, is putting tremendous pressure on healthcare infrastructures because of an imbalance between an aging society and available neurorehabilitation resources. Thus, there has been a surge in the production of novel rehabilitative technologies for accelerating recovery. Despite the successful development of such devices, lack of objective standards besides clinical investigations using subjective measures have led to controversial recommendations regarding several devices, including robots.
This NSF/FDA Scholar-in-Residence project, designed to address the need for effective rehabilitative technologies, is focused on the design, implementation, and evaluation of a novel, objective, and robust algorithmic biomarker of recovery. Called Delta CorticoMuscular Information-based Connectivity (D-CMiC), the proposed algorithm-based protocol quantifies the connectivity between the central nervous system (CNS) and the peripheral nervous system (PNS) by simultaneously measuring electrical activity from the brain and an ankle muscle on the affected side of recovering post-stroke patients. The system will quantify both spectrotemporal neurophysiological connectivity between the CNS (using electroencephalography (EEG) and PNS (using high-density surface electromyography (HD-sEMG).
The goal of the collaborative project, beyond clarifying the neurophysiology of recovery, is to expedite availability of more effective rehabilitation devices to patients for a range of neurological disorders beyond stroke (such as Parkinson's disease, Essential Tremor and Ataxia). For educational impact, the project will generate a unique transdisciplinary educational environment by conducting workshops about emerging Brain-Computer Interface (BCI) technologies in medicine, and undergraduate team projects for human-machine interfacing, with a focus on promoting STEM activities within underrepresented groups.
The predictive capability, precision, and efficiency of the developed D-CMiC metric will be analyzed by collecting data from recovering stroke patients and healthy subjects alike. Unique D-CMiC features include: (1) accurately and objectively tracking corticomuscular functional connectivity in the Delta/low frequency band; (2) computationally modeling of corticomuscular connectivity; (3) building the basis for the first medical device development tool for the systematic, objective, and transparent evaluation of pre-market rehabilitation devices, aligned with the FDA's mission.
- S. Farokh Atashzar,
- John-Ross Rizzo