Researchers from the two institutions are working together on the next generation of robotic exoskeletons to improve mobility and to enable safer, more independent functioning for people with spinal cord injuries (SCI), Duchenne Muscular Dystrophy and stroke.
The team will also evaluate the efficacy of existing robots for restoring and expanding mobility to upper and lower extremities.
The two institutions will consult on each other’s projects, with NJIT contributing engineering expertise and upper extremity robotic research to Kessler Foundation and Kessler Foundation providing NJIT with its deep knowledge of existing commercial devices and experience working with diverse populations with disabilities.
“This grant allows us to pursue a comprehensive effort that includes advanced robotic engineering from NJIT and outstanding biomechanics and neuromuscular physiology research from Kessler Foundation, with critical feedback throughout the development process from the people who use these devices. The benefits of working with the Foundation’s researchers are enormous and offer the promise of improving the technology and services to individuals with disabilities,” said Richard Foulds, Ph.D., associate professor of Biomedical Engineering at NJIT and principal investigator (PI) for the grant. “The interaction of investigators from Kessler Foundation and NJIT and with users with disabilities across projects is genuinely distinctive.”
“This exciting collaboration advances our shared mission to improve mobility, independence and quality of life for individuals with spinal cord injury and stroke,” said Guang Yue, Ph.D., director of Human Performance and Engineering Research at Kessler Foundation and a co-PI for the grant. “Robotic exoskeletons are rapidly changing our traditional approach to rehabilitation. Now, we are optimizing ways to use the robots so that people with diverse mobility deficits including limited upper body strength, can benefit. Results from these RERC studies will support expanded use of robotic exoskeletons at home and in the community.”
At Kessler Foundation, Gail Forrest, Ph.D., associate director of Human Performance and Engineering Research, is combining exoskeletal-assisted walking with external electrical stimulation of the spinal cord toward potentially promoting voluntary muscle firing and independent walking. Neuroimaging of the spinal cord will be used to assess how the combination therapy can strengthen connectivity of the pathway between the brain and injured spinal cord and how the improved connectivity explains gains in walking and balance function. Participants will be scanned at the Rocco Ortenzio Neuroimaging Center at Kessler Foundation to analyze changes in spinal cord connectivity after the treatment.
Karen Nolan, Ph.D., senior research scientist at Kessler Foundation, is extending her preliminary research on the use of the Ekso GT, a robotic exoskeleton, in inpatients with motor deficits caused by acute stroke. The study focuses on the acute phase of rehabilitation of inpatients and outpatients whose deficits hinder their ability to participate in conventional physical therapy for standing and walking. Dr. Nolan is examining the impact of walking in the exoskeleton on gait function, balance, and neuromuscular responses, as well as community participation and overall quality of life.
Sergei Adamovich, Ph.D., associate professor of Biomedical Engineering at NJIT and a co-PI for the grant, leads a project involving Kessler Foundation researchers, faculty from the Rutgers Department of Rehabilitation and Movement Sciences and NJIT graduate students to extend their earlier work linking robotic exoskeletons with virtual reality platforms to improve neurorehabilitation therapy for people with limited arm movement due to a stroke. This work will examine the benefits of simultaneous arm and hand therapy in accelerating improvement in function. Additionally, a new upper extremity exoskeleton combined with virtual reality will be developed that can be used in the home setting.
Professor Foulds will lead the development of two new exoskeletons. One of these seeks to enhance real-world, robot-assisted walking for people with SCI. Key to this work is a new approach that allows the user to voluntarily control the exoskeleton movements to yield more natural, intuitive and flexible ambulation by basing stride – the length and height of steps – on movement intention signaled by hands and fingers. The second project will employ the same novel user-control strategy to support arm function in individuals with Duchenne Muscular Dystrophy who have experienced a dramatic loss of range in movement. This new exoskeleton will provide anti-gravity support and counter friction to allow arm movements to be made with low levels of remaining muscle strength.
This collaborative research will also be supported by education and training activities for therapists, physicians and doctoral researchers – the designers of future therapeutic devices – as well as by dissemination of the broader rehabilitation benefits of commercial and experimental wearable robots.
About Kessler Foundation
Kessler Foundation, a major nonprofit organization in the field of disability, is a global leader in rehabilitation research that seeks to improve cognition, mobility and long-term outcomes, including employment, for people with neurological disabilities caused by diseases and injuries of the brain and spinal cord. Kessler Foundation leads the nation in funding innovative programs that expand opportunities for employment for people with disabilities. For more information, visit KesslerFoundation.org. Follow Kessler Foundation on Facebook (www.facebook.com/KesslerFoundation), Twitter (@KesslerFdn) and YouTube (www.youtube.com/user/KesslerFoundation).
One of the nation’s leading public technological universities, New Jersey Institute of Technology (NJIT) is a top-tier research university that prepares students to become leaders in the technology-dependent economy of the 21st century. NJIT’s multidisciplinary curriculum and computing-intensive approach to education provide technological proficiency, business acumen and leadership skills. NJIT is a global leader in such fields as solar research, nanotechnology, resilient design, tissue engineering and cyber-security, in addition to others. The NJIT Biomedical Engineering Department has the largest combined enrollment of BS, MS and Ph.D. students in the mid-Atlantic region, and its Ph.D. program is ranked 26th in the nation by the National Research Council. Visit http://www.njit.edu/ for additional information.
About Robotics Research at Kessler Foundation
Robotics research is a collaborative effort of Human Performance & Engineering Research, Spinal Cord Injury Research, the Neuroimaging Center, and Stroke Rehabilitation Research. Collaborators include Kessler Institute for Rehabilitation, the James J. Peters VA Medical Center, NJIT and Children’s Specialized Hospital. Scientists study the application of exoskeletal devices (Ekso GT, Indego, ReWalk) and the Lokomat v6 robotic treadmill device in individuals with paralysis and weakness caused by spinal cord injury and stroke. Studies extend beyond measures of gait and walking ability to include the impact of exoskeletal-assisted standing and walking on secondary complications, such as chronic pain, impaired bowel and bladder function, cardiovascular risks, pressure ulcers, and muscle and bone loss. Funders include the Department of Defense, NJ Commission on SCI Research, NJ Commission on Brain Injury Research, Craig H. Neilsen Foundation, National Institute on Disability, Independent Living and Rehabilitation Research, Veterans Administration and Kessler Foundation. Foundation scientists have faculty appointments at Rutgers-New Jersey Medical School and in Biomedical Engineering at NJIT.
About Robotics Research at NJIT
Robotics research at NJIT has addressed the needs of people with neuromuscular disabilities for the past decade. Funding from the National Institutes of Health (NIH) has supported the development of the NJIT Robotics/Robot-Assisted Virtual Rehabilitation (RAVR) system that combines a robot with a virtual reality platform to assist in stroke neurorehabilitation. The RAVR system has been extended to people with cerebral palsy through a five-year Rehabilitation Engineering Research Center grant on technology for children with disabilities. NJIT also explores the use of wheelchair-mounted robotic manipulators to assist people with cerebral palsy, SCI, Duchenne Muscular Dystrophy, and spinal muscular atrophy. Additional funding from the New Jersey-based Gustavus and Louisa Pfeiffer Foundation has been instrumental in advancing NJIT’s work on both lower and upper extremity exoskeletons.