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New Stem Cell Innovation Could Lead to Therapy for Parkinson’s and Multiple Sclerosis

This new technology uses an injectable fiber substrate to anchor neurons and mend damaged neurological tissue.

Todd JaquithMarch 18th 2016
“A Major Innovation”

Researchers from Rutgers and Stanford university have devised an ingenious new technology that may lead to new treatments for debilitating brain and neurological disorders, such as Parkinson’s disease, multiple sclerosis, Lou Gehrig’s disease (ALS), Alzheimer’s disease, and even traumatic brain and spinal injuries.

Yet, as is true of all medical advancements, FDA approval and clinical trials take time. So though these results are promising, they will take time to be realized.

The research, published in Nature Communications, managed to transform adult, undifferentiated stem cells into human neurons using a 3-dimensional substrate or “scaffold” of fibers. These scaffolds were then implanted in mice brains to see if the technology would hold.

The idea is to insert new, healthy neurons into the brain or neural tissue to replace diseased, damaged, or missing cells.

“If you can transplant cells in a way that mimics how these cells are already configured in the brain, then you’re one step closer to getting the brain to communicate with the cells that you’re now transplanting,” explains Prabhas V. Moghe, a research director with the School of Engineering/Health Sciences Partnerships at Rutgers.

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Image showing transplanted neurons (yellow) growing out from a 3D scaffold (white dashed line) into targeted brain tissue (red).  Credit: Neal K. Bennett, Moghe Laboratory, Rutgers Biomedical Engineering.
Future Directions

The new technology is a significant step toward developing cures for some of the most terrifying and debilitating diseases that plague humanity. The breakthrough consisted of developing a bio-compatible “anchor” wherefrom neurons can spread, connect, and eventually colonize diseased or injured tissues.

The 3D scaffolds developed by the team are composed of minute polymer fibers that are only about 100 micrometers wide—or about the width of a human hair.

The neurons naturally anchor themselves to the fibrous scaffolds and extrude their signal-conducting axons from this base to make connections with healthy tissues. And according to Moghe, the neurons experienced a 100-fold increase in cell survival with the new technology.

The team estimates perhaps another 10 to 20 years before human trials can begin—until then, there’s more research to be done before the technology translates to viable, human treatments. But the early work is remarkably promising.

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