LIN28, a molecule that regulates cell growth could help in the treatment of spinal cord injury and optic nerve damage. When expressed above normal levels, the molecule fuels axon growth in mice with injury, enabling the body to repair damaged nerves. Read More
Enhancing mitochondrial transportation and cellular energetics could help promote regeneration and function following spinal cord injury. Read More
Dentate gyrus neurogenesis acts to replace lost neurons and restore function following massive neuron loss. Read More
Skin-related stem cells may be key to helping restore the myelin sheath in patients with multiple sclerosis. Using mouse models, researchers discovered melanocyte stem cells can, under the right conditions, function as cells that create myelin. Read More
Researchers have successfully rejuvenated stem cells in the brains of aging mice. The study reports the rejuvenated stem cells help improve regeneration of injured or diseased brain areas. Read More
A new study reveals reverting neurons to an early growth state can help reconnect severed spinal cord nerves in rodent models of SCI. Read More
Researchers have successfully restored the ability to walk in mice paralyzed as a result of spinal cord injuries with the help of a small molecular compound. Read More
Researchers have successfully used stem cell therapy to regenerate neurons in damaged areas of zebra fish spinal cords. The treatment helped to restore movement following SCI. The findings raise the possibility of developing new treatments for humans suffering paralysis as a result of spinal cord injury. Read More
A new study reveals neutrophils can help the nervous system clear nerve debris and assist with neuroregeneration. Read More
Study reveals the brain plays an active role in muscle and nerve development than previously thought. Read More
Studying axolotl, the Mexican Salamander, researchers discover the key to regeneration lies within the immune system. Read More
Researchers at Boston Children's Hospital have developed a therapeutic cocktail of molecules that restored fine motor skills in mice with spinal cord injuries. When applied to mice who had experienced stroke symptoms, researchers observed increased axon sprouting in subcortical areas. Read More