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Myelin Sheaths

All articles tagged with #myelin sheaths

health2 years ago

"Omega-3 Fatty Acid Lipid Unveils Key Role in Brain Aging and Development"

Researchers have discovered that the transporter protein Mfsd2a is critical for regulating brain cells that maintain myelin sheaths, which protect nerves. This discovery could help reduce the effects of aging on the brain and lead to therapies for neurological disorders stemming from reduced myelination. The study indicates that LPC omega-3 lipids act as factors within the brain to direct oligodendrocyte development, a process that is critical for brain myelination.

neuroscience2 years ago

Revolutionary Omega-3 Lipid Sheds New Light on Brain Development and Aging

Researchers have identified a special transporter protein, Mfsd2a, that plays a critical role in regulating the brain cells responsible for protecting nerves with myelin sheaths. Loss of myelin sheaths can occur during the normal aging process and in neurological diseases such as multiple sclerosis and Alzheimer’s disease. LPC omega-3 lipids can direct oligodendrocyte development, a process that is critical for brain myelination. The findings could pave the way for developing therapies and dietary supplements based on LPC omega-3 lipids that might help retain myelin in the aging brain and treat patients with neurological disorders stemming from reduced myelination.

health2 years ago

Revolutionary Omega-3 Lipid Sheds New Light on Brain Development and Aging.

Researchers from Singapore have discovered the critical role played by a special transporter protein in regulating the brain cells that ensure nerves are protected by coverings called myelin sheaths. The findings could help to reduce the damaging impacts of ageing on the brain. The researchers sought to understand the role of Mfsd2a, a protein that transports lysophosphatidylcholine (LPC)—a lipid that contains an omega-3 fatty acid—into the brain as part of the myelination process. The study indicates that LPC omega-3 lipids act as factors within the brain to direct oligodendrocyte development, a process that is critical for brain myelination.