Add BrightSurf on Google Email

Designer cytokine makes paralyzed mice walk again

A team of researchers from Ruhr-University Bochum has developed a novel approach to treat spinal cord injuries by stimulating nerve cell regeneration with a designer cytokine. In a groundbreaking study, they successfully restored walking ability in paralyzed mice, paving the way for future human trials.

SourceRuhr-University Bochum·JournalNature Communications·DateJan 15, 2021

New treatment allows some people with spinal cord injury to regain hand and arm function

Researchers at the University of Washington developed a new treatment that uses skin-surface stimulation to help people with spinal cord injuries regain hand and arm mobility. After a five-month training program, six participants showed significant improvements in hand function, which lasted for up to six months after treatment ended.

SourceUniversity of Washington·JournalIEEE Transactions on Neural Systems and Rehabilitation Engineering·DateJan 12, 2021

Mouse study shows spinal cord injury causes bone marrow failure syndrome

Researchers at Ohio State University found that spinal cord injuries in mice cause an acquired bone marrow failure syndrome contributing to chronic immune dysfunction. The study also discovered a potential treatment using the FDA-approved drug Plerixafor to mobilize cells from the bone marrow niche and restore immune function.

SourceOhio State University Wexner Medical Center·JournalNature Communications·DateJul 24, 2020

Researchers discover treatment for spasticity in mice, following spinal cord injuries

A new study by University of Copenhagen researchers shows that administering nimodipine, an already approved drug for high blood pressure, can prevent the development of spasticity after spinal cord injuries. The effect is long-lasting and continues even after treatment has stopped.

New injection technique may boost spinal cord injury repair efforts

A new injection technique has been developed to deliver neural precursor cells to spinal cord injuries, reducing further trauma and promoting reparative cell propagation. This method may have utility for multiple neurodegenerative conditions such as spinal traumatic injury, amyotrophic lateral sclerosis, and multiple sclerosis.

SourceUniversity of California - San Diego·JournalStem Cells Translational Medicine·DateJan 29, 2020

Robotic trunk support assists those with spinal cord injury

A Columbia Engineering team has invented a robotic device called the Trunk-Support Trainer (TruST) that can help people with spinal cord injuries sit more stably. The study found that TruST enabled patients to expand their active sitting workspace by an average of 25%, improving their trunk control and balance limits.

SourceColumbia University School of Engineering and Applied Science·JournalSpinal Cord Series and Cases·DateJan 5, 2020

IU team identifies potential target for restoring movement after spinal cord injury

A novel therapeutic target for promoting neuroprotection has been identified in the lumbar circuit below a spinal cord injury, suggesting potential hope for restoring motor function. The discovery uses animal models to show that neuromodulation of interrupted lumbar motor circuits with neurotrophic therapy improves locomotor performance.

SourceIndiana University School of Medicine·JournalNature Communications·DateDec 20, 2019

Case report: Stem cells a step toward improving motor, sensory function after spinal cord injury

A clinical trial enrolled 10 adults with traumatic spinal cord injuries to receive stem cell injections, with the first patient demonstrating significant improvement in motor and sensory functions. The study's early findings suggest that patient response varies, but the treatment may offer a new option for improving physical function a...

SourceMayo Clinic·JournalMayo Clinic Proceedings·DateNov 27, 2019

New approaches to heal injured nerves

A team from Ruhr-University Bochum has deciphered a new mechanism that enables the regeneration of nerve fibers in the brain and spinal cord. By eliminating the inhibiting protein PTEN, researchers can partially restore regenerative capacity in nerve cells, but direct inhibition is not suitable due to cancer risks.