Tag: Functional Electrical Stimulation
It’s 7:30 a.m. at Magee Riverfront’s Wellness Center and Delano Turnipseed has already broken a sweat on a very unique type of exercise equipment: a seated elliptical machine designed specifically for individuals with leg paralysis. To look at his trim but muscular frame, you would never guess that he once considered himself 60 pounds overweight. A large weight-loss goal like this is typically an uphill battle for a wheelchair user with paraplegia but was no match for Turnipseed’s discipline.
Promising results in rats address major health problem for paralyzed individuals
Newswise — When individuals suffer a spinal cord injury, paralysis is only a part of the major impact on quality of life. Often they also lose bladder control, which frequently causes infections that can lead to kidney damage. To address this problem, scientists used their groundbreaking spinal stimulation technology to enable spinal cord- injured rats to empty their bladders more fully and in a timelier manner. The promising results achieved in rats represent a significant step towards deployment of this novel approach in humans with paraplegia.
Life-Changing Therapy Now Available For Stroke and Spinal Cord Injury Patients As MyndTec Launches...
MISSISSAUGA, ON, Oct. 3, 2014 /CNW/ – MyndTec, an award-winning, Canadian medical technology company announced today the launch of its first commercial product, a revolutionary, new therapy for the treatment of arm and hand paralysis caused by stroke or spinal cord injury. MyndMove™ therapy is based on advanced non-invasive functional electrical stimulation and uses electrical stimulation to create new neural pathways for the recovery of voluntary function following injury to the brain or spinal cord.
For the first time ever, a paralyzed man can move his fingers and hand with his own thoughts thanks to an innovative partnership between The Ohio State Univ. Wexner Medical Center and Battelle.
Ian Burkhart, a 23-year-old quadriplegic from Dublin, Ohio, is the first patient to use Neurobridge, an electronic neural bypass for spinal cord injuries that reconnects the brain directly to muscles, allowing voluntary and functional control of a paralyzed limb. Burkhart is the first of a potential five participants in a clinical study.
(CNN) — At her research lab at the University of Louisville, neuroscientist Susan Harkema turned her back to her study subject to check a reading on a computer screen.
“Hey Susie, look at this,” the patient called out to her. “I can move my toe!”
Startled, Harkema spun around. The purpose of her study, which involves sending electrical stimulation to broken spinal cords, was to learn more about nerve pathways, not to actually make patients move.
That must be an involuntary spasm, she thought. She asked the patient, Rob Summers, to lie down and close his eyes and follow her commands.
“Move your left toe,” she said to him — and he did. “Move your right toe,” she asked — and he did.
Holy s***!” she yelled out loud.
A monkey controlling the hand of its unconscious cage-mate with its thoughts may sound like animal voodoo, but it is a step towards returning movement to people with spinal cord injuries.
The hope is that people who are paralysed could have electrodes implanted in their brains that pick up their intended movements. These electrical signals could then be sent to a prosthetic limb, or directly to the person’s paralysed muscles, bypassing the injury in their spinal cord.
People who have lost their limbs may no longer fear the prospect of paralysis, if researchers manage to perfect a wireless brain implant.
Research by BrainGate, a program that pools research from several universities, is drawing closer to allowing paralyzed patients use of their limbs through the implant.
A paralyzed man will receive experimental surgery connecting a brain chip to systems that activate muscles in his arm.
Doctors will attempt to reanimate a patient’s paralyzed arm with a pioneering surgery that involves capturing signals from his brain and restoring movement through a fine network of electronics linked to arm muscles.
The new effort, being planned by researchers at Case Western Reserve University, will use a brain computer interface, or BCI, developed by researchers at Brown University and Massachusetts General Hospital.
A new study by Kennedy Krieger Institute’s International Center for Spinal Cord Injury (Epub ahead of print) finds that long-term lower extremity functional electrical stimulation (FES) cycling, as part of a rehabilitation regimen, is associated with substantial improvements in individuals with chronic spinal cord injury (SCI).
Improvements include neurological and functional gains, as well as enhanced physical health demonstrated by decreased fat, increased muscle mass and improved lipid profile. Prior to this study’s publication today in the Journal of Spinal Cord Medicine, the benefits of activity-based restorative therapy (ABRT) programs, such as FES cycling, were largely anecdotal despite publicity in conjunction with the recovery of actor and activist Christopher Reeve.
A new treatment approach which uses tiny bursts of electricity to reawaken paralyzed muscles “significantly” reduced disability and improved grasping in people with incomplete spinal cord injuries, beyond the effects of standard therapy, newly published research shows.
In a study published online in the journal Neurorehabilitation and Neural Repair, Toronto researchers report that functional electrical stimulation (FES) therapy worked better than conventional occupational therapy alone to increase patients’ ability to pick up and hold objects.