Induced neural stem cells (iNSCs) created from adult cells hold promise for therapeutic transplantation, but their potential in this capacity has been limited by failed efforts to maintain such cells in the desirable multi-potent NSC state without continuous expression of the transcription factors used initially to reprogram them. 

For answers, researchers turned to mice, stem cells, and the “tooth fairy”

New finding could accelerate research to regenerate damaged tissue.

A new study at Wellesley College demonstrates that the immune system can produce cells with stem cell properties.

Adult organisms ranging from fruit flies to humans harbor adult stem cells, some of which renew themselves through cell division while others differentiate into the specialized cells needed to replace worn-out or damaged organs and tissues.

Salk researchers compared a dozen stem cell lines and discovered a newer method beats out the more established protocol when it comes to creating cells that most resemble those in a human embryo.

About seven days after conception, something remarkable occurs in the clump of cells that will eventually become a new human being. They start to specialize. They take on characteristics that begin to hint at their ultimate fate as part of the skin, brain, muscle or any of the roughly 200 cell types that exist in people, and they start to form distinct layers.

The secret of how salamanders successfully regrow body parts is being unravelled by UCL researchers in a bid to apply it to humans.

The gap between stem cell research and regenerative medicine just became a lot narrower, thanks to a new technique that coaxes stem cells, with potential to become any tissue type, to take the first step to specialization. It is the first time this critical step has been demonstrated in a laboratory.

Harvard Stem Cell Institute, initially just an idea, quickly became a generator of scientific discoveries.