Search Results
-
Fewer bone stem cells in diabetes impedes healing
Stanford researchers found that activating bone stem cells helps repair fractures in diabetic mice. Applying a protein to the fracture site increased the expression of key signaling proteins and enhanced healing in the animals.
-
Samuel Strober awarded $6.6 million
The California Institute for Regenerative Medicine awarded Samuel Strober, MD, $6.6 million to study a “deceptively simple” way to help kidney transplant recipients tolerate their new organ.
-
Nusse wins $3 million Breakthrough Prize
The developmental biologist was honored for helping to decode how Wnt signaling proteins affect embryonic development, cancer and the activity of tissue-specific adult stem cells that repair damage after injury or disease.
-
Stem cells police themselves to reduce scarring
Stem cells produce a decoy protein to attenuate growth signals. Artificially regulating this pathway might help keep muscles supple in muscular dystrophy or during normal aging, researchers hope.
-
Canine cancer immunotherapy
The work extends research by Stanford scientists who found that blocking CD47 might be useful in treating human cancer.
-
Tracking cancer evolution in the blood
Monitoring cancer DNA in blood can predict recurrence and prognosis and drive treatment decisions. A Stanford study of 92 lymphoma patients suggests similar techniques may work for other tumors.
-
Paving the way for gene therapy
Using the CRISPR gene-editing technique in stem cells, Stanford researchers repaired the gene that causes sickle cell disease, and the mended stem cells were successfully transplanted into mice.
-
What microballoons could reveal about gut
A microballoon that fits inside a fruit fly intestine could help scientists understand the forces or nutrients responsible for signaling the intestine to grow or shrink in response to food.
-
Telomere destruction activates DNA damage response
A new study shows that telomeres shorten without cell division in a mouse model of Duchenne muscular dystrophy. Subsequent DNA damage responses and mitochondrial dysfunction are likely cause of heart failure.
-
Fat cell-maturation hormone found
Mature fat cells produce a hormone that regulates the differentiation of nearby stem cells in response to glucocorticoid hormones and high-fat diets, Stanford researchers have found.