CLEVELAND — A groundbreaking clinical trial is starting in Cleveland soon, and researchers are currently looking for participants.
Monica A. Perez, P.T., Ph.D., Associate Professor, Department of Neurological Surgery and The Miami Project, and colleagues, recently published A novel cortical target to enhance hand motor output in humans with spinal cord injury in the June issue of Brain that provides the first evidence that cortical targets could represent a novel therapeutic site for improving motor function in humans paralyzed by spinal cord injury (SCI).
A main goal of rehabilitation strategies in humans with SCI is to strengthen transmission in spared neural networks. Although neuromodulatory strategies have targeted different sites within the central nervous system to restore motor function following SCI, the role of cortical targets remains poorly understood.
REACT’s Neuro-Restorative program is for those seeking a comprehensive recovery through customized, one-on-one neuromuscular training.
In a Stanford-led research report, three participants with movement impairment controlled an onscreen cursor simply by imagining their own hand movements.
A clinical research publication led by Stanford University investigators has demonstrated that a brain-to-computer hookup can enable people with paralysis to type via direct brain control at the highest speeds and accuracy levels reported to date.
Newly developed “glassy carbon” electrodes transmit more robust signals to restore motion in people with damaged spinal cords.
When people suffer spinal cord injuries and lose mobility in their limbs, it’s a neural signal processing problem. The brain can still send clear electrical impulses and the limbs can still receive them, but the signal gets lost in the damaged spinal cord.
A UCLA professor is helping paralyzed individuals regain use of their limbs through electric stimulation of the spinal cord.
In 2015, Reggie Edgerton, the director of the Neuromuscular Research Laboratory at UCLA, developed a robotic exoskeleton that helped a paralyzed man walk. Though the man is still paralyzed and cannot control the exoskeleton’s movement, Edgerton’s lab plans to do more research to make that happen.
Cumming School study first in Canada to examine whether using robotic device immediately following injuries promotes recovery
Researchers from the University of Calgary’s Cumming School of Medicine are the first in Canada to examine the benefits of using an exoskeleton robotic device to rehabilitate patients with spinal cord injuries (SCI) in the days and weeks following their injury.
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“Functional electrical stimulation (FES) is an accepted treatment method for paresis or paralysis after spinal cord and head injury as well as stroke and other neurological motor neuron disorders.”
Injuries to the spinal cord partially or completely disrupt the neural pathways between the brain and the limbs. The consequences for the representation of the affected limbs in the brain can be drastic. Researchers have now measured how severely this representation is affected.
A strange sensation, but familiar to anyone who has ever been given local anaesthesia and watched while a doctor operated on their leg or arm: in that moment, your own body part seems foreign, as if it doesn’t belong to your body. One reason for this is that the brain still knows which position the limb occupied before the local anaesthetic took effect. As soon as it wears off, the spooky sensation disappears.
Bioelectronic devices that record and stimulate the brain, spinal cord or peripheral nerves have potential to dramatically improve function after injury or disease.