Human embryonic stem cells are poised between a proliferative state with the potential to become any cell in the body and a differentiated state with a more limited ability to proliferate.

At left are images taken from two different embryonic stem cell (ESC) cultures—see red arrows—one from mouse (left) and the other from human (right). Both mouse and human ESCs form compact ...

Development of red blood cells (erythrocytes) from multipotent hematocytoblast stem cells (Image: A ... and research use in place of human embryonic stem cells. A colony of induced pluripotent ...

Biologists have identified the specific region in vertebrates where adult blood stem cells arise during embryonic development. The researchers say their time-lapse imaging of the process ...

Projected on a huge screen was a slightly intimidating black-and-white image of cells seen through ... By this account, capturing the embryonic stem cell was the easy part. It’s coaxing them ...

Bioprinted epiblast-like structures mimic early human embryonic development, offering a scalable, ethical platform to study ...

Cell staining, image acquisition and FACS can be done ... CDy1 selectively stains mouse embryonic stem cells (mESCs) as well as human embryonic stem cells (hESCs) and iPSCs. Usually, the ...

While embryonic stem cells have been made from cloned embryos ... The Oosight uses liquid-crystal polarized light technology to image the spindle noninvasively, with high contrast and quality.

They did this by culturing human embryonic stem cells in a series of steps with just two chemical signals over 48 hours, after which the cells organized themselves into the inner and outer layers ...

Two mouse embryonic stem cells in which two Polycomb regions from different chromosomes (HoxC, green; HoxD, red) appear next to each other (arrows). Cohesin-SA2 promotes this type of contacts ...