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Dr. Feng Lin, Director of Research at Bio-Matrix Scientific Group Inc. (OTCBulletinBoard: BMSN) and Entest BioMedical Inc., today stated that he believes that an effective new therapy for “traumatic brain injury” (TBI) using autologous “adipose-derived” stem cells represents a potential cure for TBI. According to Dr. Lin, both Bio-Matrix and Entest BioMedical are now studying the “therapeutic effect of fat stem cells on traumatic brain injury-associated brain ischemia and inflammation and replacement of damaged neurons with neuron cells differentiated from fat cells.” Bio-Matrix Scientific Group Inc. and Entest BioMedical Inc. recently submitted a research summary
Scientists in the US have made a major breakthrough that has the potential for people with brain damage, caused by epilepsy or Parkinson’s for example, to use their own brain stem cells as a treatment.
Steven Roper of the University of Florida discovered that stem cells from the human brain that were transplanted into the brains of newborn rats matured and were able to function just like native rat cells.
The researchers found that the adult stem cells had the ability to turn into all types of brain tissue in the rats, including the neocortex, which deals with higher processing, and
A novel pathway of stem cell activity in human brain that represents potential targets of brain injuries affecting newborns has been identified by researchers at Barrow Neurological Institute at St. Joseph’s Hospital and Medical Center. The recent study, which raises new questions of how the brain evolves, is published in the current issue of Nature, one of the world’s most cited scientific journals.
Nader Sanai, MD, director of Barrow’s Brain Tumor Research Center, led this study, which is the first developmental study of human neural stem cells in a region of the brain called the subventricular zone, the tissue structure
Investigators at the Stanford University School of Medicine have devised a way to monitor neural stem cells after they’ve been transplanted into the brain.
The scientists were able to determine not only whether the stem cells transplanted into living animals survived but whether they matured into nerve cells, integrated into targeted brain circuits and, most important, were firing on cue and igniting activity in downstream nerve circuits.
Research led by Charles Cox at the University of Texas Health Science Center has shown that stem cell therapy given during the critical time window after traumatic brain injury promotes lasting cognitive improvement.
These experiments, which were published in the latest issue of the journal Stem Cells Translational Medicine, provide a pre-clinical model for experiments with larger animals.
After the brain has suffered a traumatic injury, there are few treatment options. Damage to the brain can be severe, and can also cause ongoing neurological impairment. Approximately half of all patients with severe head injuries need surgery to remove or repair ruptured