AtlantiCare
en Español
 
AboutHealth ServicesHealth ConditionsLocationsEvents & CoursesCommunityWays of Giving
  Search  
 
Health News
Today's Headlines
Health Alerts
Health News Feature
Future of Medicine
Health Observances
Product Recalls
Health Library
Illnesses & Conditions
Drug Guide
FDA Drug Approvals
Medical Tests
Self-Help Resources
Complementary Medicine
Medline Search
Health Topics
Allergies
Asthma
Back Pain
Cancer
Caregiver
Depression
Diabetes
GERD
Heart
Kidney
Men's Health
Orthopedic
Parenting
Patient Safety
Pregnancy
Senior
Stress
Stroke
Weight Mgmt
Women's Health
Healthy Living
Fitness
Nutrition
Mind & Body
Family & Home
Today's Headlines

Health News
Daily articles from HealthDay News: breaking news on health issues, drug approvals and recent discoveries.

Spinal Cord Stem Cells May Act as Nerve Repair System


Grown in lab, then returned to body, they could lead to nonsurgical treatments

TUESDAY, July 22 (HealthDay News) -- Adult stem cells that may prove valuable in efforts to develop nonsurgical treatments for spinal cord injuries have been identified by researchers in the United States and Sweden.

They say it may be possible to develop drugs that boost the ability of these stem cells to repair damaged nerve cells.

An adult's spinal cord contains only a small number of stem cells, which proliferate slowly or rarely and don't promote regeneration on their own. But some research has shown that spinal cord stem cells grown in the lab and returned to the injury site can restore some physical function in paralyzed rodents and primates.

In this new study, scientists at MIT's Picower Institute for Learning and Memory in Cambridge, Mass., and at the Karolinska Institute in Stockholm found that neural stem cells in the adult spinal cord are limited to a layer of cells called ependymal cells, which make up the thin membrane lining the inner-brain ventricles and the connecting central column of the spinal cord.

"We have been able to genetically mark this neural stem cell population and then follow their behavior. We find that these cells proliferate upon spinal cord injury, migrate toward the injury site and differentiate over several months," study author Konstantinos Meletis said in an MIT news release.

"The ependymal cells' ability to turn into several different cell types upon injury makes them very interesting from an intervention aspect. Imagine if we could regulate the behavior of this stem cell population to repair damaged nerve cells," Meletis said.

The research was published in the July issue of PLoS Medicine.

More information

The U.S. National Institute of Neurological Disorders and Stroke has more about spinal cord injury.

SOURCE; Massachusetts Institute of Technology, news release, July 21, 2008
Copyright © 2008 ScoutNews, LLC. All rights reserved.
Health News Provided By:
HealthDay
 
 
Notice of Privacy Practices | | Disclaimer    © 2006 AtlantiCare AtlantiCare Access
 

  Powered by HEALTHvision