Spinal Cord Injury News
A collection of posts on news, information and resources for those with spinal cord injuries.
In mouse studies, the specialized grafts integrated with host networks and behaved much like neurons in a healthy, undamaged spinal cord.
Posted in Uncategorized on August 5th, 2020.
Researchers at the Erasmus Medical Center in Rotterdam had a breakthrough that could help paralyzed people be able to stand on their own feet with support. They found that the stimulation of a nerve node in the lower back, the spinal ganglion, elicits muscle responses that allow people with a full spinal cord injury to bear their own weight, the hospital said.
Posted in Therapies and Procedures on July 28th, 2020.
Researchers at EPFL were able to get paralyzed rodents walking again by stimulating the animals’ damaged spinal cords. This promising treatment has already helped paraplegics regain mobility during clinical trials at Lausanne University Hospital (CHUV). Now, using artificial intelligence, the researchers can pinpoint which neurons are involved in the gait reacquisition process. The results, which have been published in Nature Biotechnology, could lead to the development of new approaches, making treatments even more effective, as well as paving the way for advances in other areas of biomedical research.
Posted in Research for a Cure on July 21st, 2020.
Most people with spinal cord injury are paralyzed from the injury site down, even when the cord isn’t completely severed. Why don’t the spared portions of the spinal cord keep working? Researchers at Boston Children’s Hospital now provide insight into why these nerve pathways remain quiet. They also show that a small-molecule compound, given systemically, can revive these circuits in paralyzed mice, restoring their ability to walk.
Posted in Research for a Cure on July 20th, 2020.
Precise control over neuron growth paves the way for repairing injuries, improving brain models.
Harvard University researchers have developed an engineering technique to precisely control the direction that neurons grow their axons, cable-like structures that allow nerve cells to connect with each other. In a zebrafish model, researchers used the approach to correct defective neural connections and restore the neuron’s ability to cause muscle contractions.
Posted in Research for a Cure on June 8th, 2020.