AbstractIn the Drosophila CNS, both neurons and glia are derived from neuroblasts. We have identified a gene, glial cells missing (gcm), that encodes a novel nuclear protein expressed transiently in early glial cells. Its mutation causes presumptive glial cells to differentiate into neurons, whereas its ectopic expression forces virtually all CNS cells to become glial cells. Thus, gcm functions as a binary switch that turns on glial fate while inhibiting default neuronal fate of the neuroblasts and their progeny. Similar results are also obtained in the PNS. Analyses of the mutant revealed that “pioneer neurons” can find correct pathways without glial cells and that neurons and glia have a common molecular basis for individual identity
The Glial cells missing transcription factor is necessary and sufficient to induce glial-cell fates ...
The genetic analysis of nervous system development has revealed a· wealth of information about the ...
The Glial cells missing transcription factor is necessary and sufficient to induce glial-cell fates ...
AbstractIn the Drosophila CNS, both neurons and glia are derived from neuroblasts. We have identifie...
AbstractThe glial cells missing (gcm) gene in Drosophila encodes a novel nuclear protein that is tra...
AbstractNeurons and glia are produced in stereotyped patterns after neuroblast cell division during ...
AbstractGlia are the most abundant cell type in the mammalian brain. They regulate neuronal developm...
AbstractDifferentiation of glia (astrocytes and oligodendrocytes) in Drosophila requires the gene gl...
The glial cells missing (gcm) gene in Drosophila encodes a transcription factor that determines the ...
SummaryThe transcription factors Glial cells missing (Gcm) and Gcm2 are known to play a crucial role...
AbstractIn the central nervous system of Drosophila, the induction of the glial cell fate is depende...
The human central nervous system (CNS) contains a daunting number of cells and tremendous cellular d...
The Glial cells missing transcription factor is necessary and sufficient to induce glial-cell fates ...
AbstractNeurons and glia are produced in stereotyped patterns after neuroblast cell division during ...
AbstractIn Drosophila, glial cell differentiation requires the expression of glial cells missing (gc...
The Glial cells missing transcription factor is necessary and sufficient to induce glial-cell fates ...
The genetic analysis of nervous system development has revealed a· wealth of information about the ...
The Glial cells missing transcription factor is necessary and sufficient to induce glial-cell fates ...
AbstractIn the Drosophila CNS, both neurons and glia are derived from neuroblasts. We have identifie...
AbstractThe glial cells missing (gcm) gene in Drosophila encodes a novel nuclear protein that is tra...
AbstractNeurons and glia are produced in stereotyped patterns after neuroblast cell division during ...
AbstractGlia are the most abundant cell type in the mammalian brain. They regulate neuronal developm...
AbstractDifferentiation of glia (astrocytes and oligodendrocytes) in Drosophila requires the gene gl...
The glial cells missing (gcm) gene in Drosophila encodes a transcription factor that determines the ...
SummaryThe transcription factors Glial cells missing (Gcm) and Gcm2 are known to play a crucial role...
AbstractIn the central nervous system of Drosophila, the induction of the glial cell fate is depende...
The human central nervous system (CNS) contains a daunting number of cells and tremendous cellular d...
The Glial cells missing transcription factor is necessary and sufficient to induce glial-cell fates ...
AbstractNeurons and glia are produced in stereotyped patterns after neuroblast cell division during ...
AbstractIn Drosophila, glial cell differentiation requires the expression of glial cells missing (gc...
The Glial cells missing transcription factor is necessary and sufficient to induce glial-cell fates ...
The genetic analysis of nervous system development has revealed a· wealth of information about the ...
The Glial cells missing transcription factor is necessary and sufficient to induce glial-cell fates ...