Swiss researchers travel to China to conduct pioneering experiment.
For more than a decade, neuroscientist Grégoire Courtine has been flying every few months from his lab at the Swiss Federal Institute of Technology in Lausanne to another lab in Beijing, China, where he conducts research on monkeys with the aim of treating spinal-cord injuries. Continue Reading »
Chronic pain and loss of bladder control are among the most devastating consequences of spinal cord injury, rated by many patients as a higher priority for treatment than paralysis or numbness. Now a UC San Francisco team has transplanted immature human neurons into mice with spinal cord injuries, and shown that the cells successfully wire up with the damaged spinal cord to improve bladder control and reduce pain. This is a key step towards developing cell therapies for spinal cord injury in humans, say the researchers, who are currently working to develop the technique for future clinical trials. Continue Reading »
Researchers from King’s College London and the University of Oxford have identified a molecular signal, known as ‘neuregulin-1’, which drives and enables the spinal cord’s natural capacity for repair after injury.
The findings, published today in Brain, could one day lead to new treatments which enhance this spontaneous repair mechanism by manipulating the neuregulin-1 signal.
Every year more than 130,000 people suffer traumatic spinal cord injury (usually from a road traffic accident, fall or sporting injury) and related healthcare costs are among the highest of any medical condition – yet there is still no cure or adequate treatment. Continue Reading »
Findings by UCLA-led collaboration are an early step toward potential treatments for injuries to the central nervous system
Newswise — Whether or not nerve cells are able to regrow after injury depends on their location in the body. Injured nerve cells in the peripheral nervous system, such as those in the arms and legs, can recover and regrow, at least to some extent. But nerve cells in the central nervous system — the brain and spinal cord — can’t recover at all. Continue Reading »
There are many challenges facing people with spinal cord injury – and walking again is often the least of their problems. Cambridge research could help patients take control of their lives once more.
Spinal cord injury is, in many respects, a testosterone disease, says Professor James Fawcett.
What he means by this is that four out of five spinal cord injuries happen to men, and the most common age group is early adulthood. “Men are not good at assessing risk at that age,” he says. “Females are much more sensible.” Continue Reading »
When a spinal cord is damaged, location is destiny: the higher the injury, the more severe the effects. The spine has thirty-three vertebrae, which are divided into five regions—the coccygeal, the sacral, the lumbar, the thoracic, and the cervical. The nerve-rich cord traverses nearly the entire length of the spine. The nerves at the bottom of the cord are well buried, and sometimes you can walk away from damage to these areas. In between are insults to the long middle region of the spine, which begins at the shoulders and ends at the midriff. Continue Reading »
Helps detect the earliest signs of ulcer formation
Pressure ulcers (commonly known as bed sores) are one of the most troublesome and painful complications for patients during a long hospital stay, but a joint project between the Department of Veterans Affairs (VA) Center for Innovation and General Electric (GE) Global Research may one day make pressure ulcers a thing of the past.
A multi-disciplinary team of scientists have combined an array of sensing and analytical tools, including motion analysis, thermal profiling, image classification/segmentation, 3-D object reconstruction and vapor detection into a single medical sensing handheld probe to assess and monitor the progression of bed sores or pressure ulcers. Continue Reading »
Neuroscientists at the Massachusetts Institute of Technology (MIT; Cambridge, MA) have shown that they can control muscle movement by applying optogenetics—a technique that enables control of neurons’ electrical impulses with light—to the spinal cords of animals that are awake and alert.
Led by MIT Institute Professor Emilio Bizzi, the researchers studied mice in which a light-sensitive protein that promotes neural activity was inserted into a subset of spinal neurons. When the researchers shone blue light on the animals’ spinal cords, their hind legs were completely but reversibly immobilized. The work offers a new approach to studying the complex spinal circuits that coordinate movement and sensory processing, the researchers say. Continue Reading »
Daniel Lu, MD, and Reggie Edgerton, MD, recently received a five-year grant to explore new therapies for patients with spinal cord injuries from the National Institute of Biomedical Imaging and Bioengineering. Dr. Lu and Dr. Edgerton are researchers at the University of California, Los Angeles and clinicians at the UCLA Spine Center.
“A majority of spinal cord patients have compromised hand function [which] is often cited as [having] the highest impact of all lost functions after injury by those living with spinal cord injury,” says Dr. Lu. “Thus, the NIH grant is funded to study hand function after severe cervical spinal cord injury.” Continue Reading »