Our world is fundamentally asymmetric: think of the double helix of DNA, the asymmetric division of stem cells or the fact that the human heart is placed on the left.

The asymmetrical splitting of the primary channels is where one part contains more channels than another part.

During asymmetric division, the two daughter cells are different from each other.

During asymmetric division, the two daughter cells are different from each other.

The mechanics of actin/myosin networks therefore make it possible to change from an asymmetric division to a symmetric division, a change in geometry needed for the transition from oocyte to embryo.

The mechanics of actin/myosin networks therefore make it possible to change from an asymmetric division to a symmetric division, a change in geometry needed for the transition from oocyte to embryo.

They noted that the lipid binding and transfer activities are particularly important for asymmetric division.

A special type of cell division is asymmetric division, in which an uneven distribution of cell fate determinants between the two new cells leads to their different identities.

Caulobacter is an important model organism for studying the regulation of the cell cycle, asymmetric cell division, and cellular differentiation.

Caulobacter is an important model organism for studying cell cycle regulation, asymmetric cell division, and cellular differentiation.

Through asymmetric division, a stem cell produces a new stem cell and another cell that undergoes differentiation, producing a mature cell.

Studies on neural stem cells (NSCs) from fruit fly larvae have made huge contribution to our understanding of asymmetric division.

This is called "asymmetric division" and helps stem cells regulate their numbers and retain their capacity to regenerate tissue throughout the life of an organism.

This is called 'asymmetric division' and helps stem cells regulate their numbers and retain their capacity to regenerate tissue throughout the life of an organism.