AbstractDuring vertebrate retinogenesis, seven classes of cells are specified from multipotent progenitors. To date, the mechanisms underlying multipotent cell fate determination by retinal progenitors remain poorly understood. Here, we show that the Foxn4 winged helix/forkhead transcription factor is expressed in a subset of mitotic progenitors during mouse retinogenesis. Targeted disruption of Foxn4 largely eliminates amacrine neurons and completely abolishes horizontal cells, while overexpression of Foxn4 strongly promotes an amacrine cell fate. These results indicate that Foxn4 is both necessary and sufficient for commitment to the amacrine cell fate and is nonredundantly required for the genesis of horizontal cells. Furthermore, we pro...
The diverse neuronal cell types in the vertebrate retina all originate from multipotent retinal prog...
Abstractrx1 and pax6 are necessary for the establishment of the vertebrate eye field and for the mai...
Gene regulatory networks (GRNs), consisting of transcription factors and their target sites, control...
AbstractDuring vertebrate retinogenesis, seven classes of cells are specified from multipotent proge...
AbstractProgenitor cells in the mammalian retina generate at least 55 distinct kinds of neurons. Two...
AbstractThe molecular mechanisms mediating the retinogenic potential of multipotent retinal progenit...
AbstractCalcium can regulate and induce both attractive and repulsive turnings by growth cones. In t...
International audienceFoxn4, a member of the N-family forkhead transcription factors, controls fate ...
AbstractThe Pax6 gene plays several roles in retinal development, including control of cell prolifer...
The complex process of eye development involves the formation of the neural retina, pigmented epithe...
We have used the chicken retina as a model for investigating cell cycle regulation and cell fate com...
AbstractIn mice, all of the six retinal neuron types are generated from common multipotent retinal p...
Progenitor cells in the mammalian retina generate at least 55 distinct kinds of neurons. Two reports...
AbstractGenetic studies of the last decades strongly indicated that generation of particular retinal...
Tfap2a and 2b act downstream of Ptf1a to promote amacrine cell differentiation during retinogenesis ...
The diverse neuronal cell types in the vertebrate retina all originate from multipotent retinal prog...
Abstractrx1 and pax6 are necessary for the establishment of the vertebrate eye field and for the mai...
Gene regulatory networks (GRNs), consisting of transcription factors and their target sites, control...
AbstractDuring vertebrate retinogenesis, seven classes of cells are specified from multipotent proge...
AbstractProgenitor cells in the mammalian retina generate at least 55 distinct kinds of neurons. Two...
AbstractThe molecular mechanisms mediating the retinogenic potential of multipotent retinal progenit...
AbstractCalcium can regulate and induce both attractive and repulsive turnings by growth cones. In t...
International audienceFoxn4, a member of the N-family forkhead transcription factors, controls fate ...
AbstractThe Pax6 gene plays several roles in retinal development, including control of cell prolifer...
The complex process of eye development involves the formation of the neural retina, pigmented epithe...
We have used the chicken retina as a model for investigating cell cycle regulation and cell fate com...
AbstractIn mice, all of the six retinal neuron types are generated from common multipotent retinal p...
Progenitor cells in the mammalian retina generate at least 55 distinct kinds of neurons. Two reports...
AbstractGenetic studies of the last decades strongly indicated that generation of particular retinal...
Tfap2a and 2b act downstream of Ptf1a to promote amacrine cell differentiation during retinogenesis ...
The diverse neuronal cell types in the vertebrate retina all originate from multipotent retinal prog...
Abstractrx1 and pax6 are necessary for the establishment of the vertebrate eye field and for the mai...
Gene regulatory networks (GRNs), consisting of transcription factors and their target sites, control...