Cell fate diversity can be achieved through the asymmetric segregation of cell fate determinants. In the Drosophila embryo, neuroblasts divide asymmetrically and in a stem cell fashion. The determinants Prospero and Numb localize in a basal crescent and are partitioned from neuroblasts to their daughters (GMCs). Here we show that nonmuscle myosin II regulates asymmetric cell division by an unexpected mechanism, excluding determinants from the apical cortex. Myosin II is activated by Rho kinase and restricted to the apical cortex by the tumor suppressor Lethal (2) giant larvae. During prophase and metaphase, myosin II prevents determinants from localizing apically. At anaphase and telophase, myosin II moves to the cleavage furrow and appears...
Summary: Metazoan cells can generate unequal-sized sibling cells during cell division. This form of ...
Epithelial-mesenchymal transitions play key roles in development and cancer and entail the loss of e...
Remodeling epithelia is a primary driver of morphogenesis. Here, we report a central role of myosin ...
AbstractCell fate diversity can be achieved through the asymmetric segregation of cell fate determin...
AbstractCell fate diversity can be achieved through the asymmetric segregation of cell fate determin...
Cell and tissue morphogenesis depends on the correct regulation of non-muscle Myosin II, but how thi...
SummaryMyosin II is an essential component of the contractile ring that divides the cell during cyto...
Myosin II is an essential component of the contractile ring that divides the cell during cytokinesis...
Asymmetric cell division, creating sibling cells with distinct developmental potentials, can be mani...
Myosin II is an essential component of the contractile ring that divides the cell during cytokinesis...
AbstractNonmuscle myosin-II is a key motor protein that drives cell shape change and cell movement. ...
Asymmetric cell division, creating sibling cells with distinct developmental potentials, can be mani...
Asymmetric cell division—where two dissimilar daughter cells are produced—relies on asymmetric posit...
Epithelial-mesenchymal transitions play key roles in development and cancer and entail the loss of e...
Nonmuscle myosin-II is a key motor protein that drives cell shape change and cell movement. Here, we...
Summary: Metazoan cells can generate unequal-sized sibling cells during cell division. This form of ...
Epithelial-mesenchymal transitions play key roles in development and cancer and entail the loss of e...
Remodeling epithelia is a primary driver of morphogenesis. Here, we report a central role of myosin ...
AbstractCell fate diversity can be achieved through the asymmetric segregation of cell fate determin...
AbstractCell fate diversity can be achieved through the asymmetric segregation of cell fate determin...
Cell and tissue morphogenesis depends on the correct regulation of non-muscle Myosin II, but how thi...
SummaryMyosin II is an essential component of the contractile ring that divides the cell during cyto...
Myosin II is an essential component of the contractile ring that divides the cell during cytokinesis...
Asymmetric cell division, creating sibling cells with distinct developmental potentials, can be mani...
Myosin II is an essential component of the contractile ring that divides the cell during cytokinesis...
AbstractNonmuscle myosin-II is a key motor protein that drives cell shape change and cell movement. ...
Asymmetric cell division, creating sibling cells with distinct developmental potentials, can be mani...
Asymmetric cell division—where two dissimilar daughter cells are produced—relies on asymmetric posit...
Epithelial-mesenchymal transitions play key roles in development and cancer and entail the loss of e...
Nonmuscle myosin-II is a key motor protein that drives cell shape change and cell movement. Here, we...
Summary: Metazoan cells can generate unequal-sized sibling cells during cell division. This form of ...
Epithelial-mesenchymal transitions play key roles in development and cancer and entail the loss of e...
Remodeling epithelia is a primary driver of morphogenesis. Here, we report a central role of myosin ...