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Creative Bioarray provides various human and animal cell lines that are invaluable for medical, scientific and pharmaceutical institutions. Creative Bioarray offers Mouse Embryonic Stem Cells for your research.

Creative Bioarray provides various human and animal cell lines that are invaluable for medical, scientific and pharmaceutical institutions. Creative Bioarray offers Rat Embryonic Stem Cells for your research.

Creative Bioarray offers over 1000 stem cell products including adult stem cells, tumor stem cells, embryonic stem cells, iPS cells and other stem cells.

Differentiated human cells have been reprogrammed to an embryonic-like state with the addition of only one gene, rather than the standard four. This should advance techniques for the efficient production of high-quality patient-specific stem cells.

Researchers have regressed human stem cells to an embryonic state using just a single transcription factor, as opposed to the four factors previously needed to induce pluripotency in human cells, according to a study published online today (August 28) in Nature.

In embryos and induced pluripotent stem cells, Nanog sets the ground state of pluripotency Nanog, named after the fountain of eternal youth, is considered the key to pluripotency, but its role is puzzling: it can be deleted from embryonic stem cells without causing them to differentiate, and it is not among the collection of genes that can induce specialized cells to become pluripotent. Nonetheless, it does help human cells reprogram and can be used to separate incompletely reprogrammed cells from fully reprogrammed ones.

Differentiated human cells have been reprogrammed to an embryonic-like state with the addition of only one gene rather than the standard four. This should advance techniques for the efficient production of high-quality patient-specific stem cells.

ScienceDaily (May 9, 2011) - Mayo Clinic researchers have designed a new tool for identifying protein function from genetic code. A team led by Stephen Ekker, Ph.D., succeeded in switching individual genes off and on in zebrafish, then observing embryonic and juvenile development. The study appears in the journal Nature Methods.

ScienceDaily (Apr. 26, 2011) - In a paper published in the April 25 early online edition of the Proceedings of the National Academy of Sciences, researchers at the University of California, San Diego School of Medicine, the Gladstone Institutes in San Francisco and colleagues report a game-changing advance in stem cell science: the creation of long-term, self-renewing, primitive neural precursor cells from human embryonic stem cells (hESCs) that can be directed to become many types of neuron without increased risk of tumor formation.