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The new system could serve as a drug-screening tool to make pregnancies safer.
Conklin Lab Stem Cells/iPSCs
The discovery of cell reprogramming by Shinya Yamanaka changed the way scientists see cell biology, but the details of how it works are still being defined. In a recent paper, the labs of Yamanaka and Bruce Conklin show how one key factor—NANOG—is involved in the process.
Conklin Lab Yamanaka Lab Stem Cells/iPSCs
Collaborations have been key to Gladstone’s scientific success since its founding, and its community believes that the biggest challenges in science are better met by bringing together researchers with diverse backgrounds.
Bruneau Lab Pollard Lab Srivastava Lab Stem Cells/iPSCs
The new strategy is more sustainable and less risky than the current standard therapies.
McDevitt Lab Stem Cells/iPSCs
Scientists have discovered why some heart tissue turns into bone, and they may have learned how to stop it.
Srivastava Lab Stem Cells/iPSCs
The first study to manipulate CRISPR genome editing using small molecules has important implications for correcting disease-causing genetic mutations
Cardiovascular Disease Roddenberry Stem Cell Center Ding Lab CRISPR/Gene Editing Stem Cells/iPSCs
By helping cells switch their type, we may have discovered a new way to repair damaged hearts, and potentially revolutionize the future of medicine.
Srivastava Lab Stem Cells/iPSCs
Todd McDevitt will use his background in biomedical engineering to improve and accelerate the development of human tissues from stem cells.
McDevitt Lab Stem Cells/iPSCs
With his unique combination of biology and chemistry, Gladstone’s Sheng Ding is quickly becoming a tour-de-force in the field of regenerative medicine.
Ding Lab Stem Cells/iPSCs Diabetes
New gift from long-time supporter William Younger is helping two top scientists repair damaged hearts and prevent damage in developing ones.
Donor Stories Cardiovascular Disease Bruneau Lab Srivastava Lab Stem Cells/iPSCs
SAN FRANCISCO, CA—The power of regenerative medicine now allows scientists to transform skin cells into cells that closely resemble heart cells, pancreas cells, and even neurons.
Ding Lab Stem Cells/iPSCs
SAN FRANCISCO, CA—The power of regenerative medicine appears to have turned science fiction into scientific reality—by allowing scientists to transform skin cells into cells that closely resemble beating heart cells.
Ding Lab Srivastava Lab Stem Cells/iPSCs
Gladstone’s innovative technique in stem cells could boost scientists’ ability to study—and ultimately cure—genetic disease.
Conklin Lab CRISPR/Gene Editing Stem Cells/iPSCs
A cure for type 1 diabetes has long eluded even the top experts. Not because they do not know what must be done—but because the tools did not exist to do it.
Diabetes Ding Lab Stem Cells/iPSCs
SAN FRANCISCO, CA—A cure for type 1 diabetes has long eluded even the top experts. Not because they do not know what must be done—but because the tools did not exist to do it.
Ding Lab Cardiovascular Disease Diabetes Stem Cells/iPSCs
