SummaryDrosophila neuronal stem cell neuroblasts (NB) constantly change character upon division, to produce a different type of progeny at the next division. Transcription factors Hunchback (HB), Krüppel (KR), Pdm (PDM), etc. are expressed sequentially in each NB and act as determinants of birth-order identity. How a NB switches its expression profile from one transcription factor to the next is poorly understood. We show that the HB-to-KR switch is directed by the nuclear receptor Seven-up (SVP). SVP expression is confined to a temporally restricted subsection within the NB’s lineage. Loss of SVP function causes an increase in the number of HB-positive cells within several NB lineages, whereas misexpression of svp leads to the loss of thes...
During neural lineage progression, differences in daughter cell proliferation can generate different...
SummaryThe timing mechanisms responsible for terminating cell proliferation toward the end of develo...
xiii, 104 p. : ill. (some col.) A print copy of this thesis is available through the UO Libraries....
SummaryDrosophila neuronal stem cell neuroblasts (NB) constantly change character upon division, to ...
Drosophila embryonic neuroblasts generate different cell types at different time points. This is con...
AbstractNeural precursors often generate distinct cell types in a specific order, but the intrinsic ...
SummaryTemporal patterning is an important aspect of embryonic development, but the underlying molec...
Background: Drosophila and mammalian neural progenitors typically generat...
International audienceThe mechanisms underlying the temporal specification of neural stem cells (NSC...
A central theme in developmental neurobiology pertains to how the diversity of different cell types...
SummaryThe timing mechanisms responsible for terminating cell proliferation toward the end of develo...
Great progress has been made in identifying transcriptional programs that establish stem cell identi...
Neural stem cells produce specific cell types in a time-dependent manner passing through different c...
AbstractNeural precursors often generate distinct cell types in a specific order, but the intrinsic ...
SummaryStem and/or progenitor cells often generate distinct cell types in a stereotyped birth order ...
During neural lineage progression, differences in daughter cell proliferation can generate different...
SummaryThe timing mechanisms responsible for terminating cell proliferation toward the end of develo...
xiii, 104 p. : ill. (some col.) A print copy of this thesis is available through the UO Libraries....
SummaryDrosophila neuronal stem cell neuroblasts (NB) constantly change character upon division, to ...
Drosophila embryonic neuroblasts generate different cell types at different time points. This is con...
AbstractNeural precursors often generate distinct cell types in a specific order, but the intrinsic ...
SummaryTemporal patterning is an important aspect of embryonic development, but the underlying molec...
Background: Drosophila and mammalian neural progenitors typically generat...
International audienceThe mechanisms underlying the temporal specification of neural stem cells (NSC...
A central theme in developmental neurobiology pertains to how the diversity of different cell types...
SummaryThe timing mechanisms responsible for terminating cell proliferation toward the end of develo...
Great progress has been made in identifying transcriptional programs that establish stem cell identi...
Neural stem cells produce specific cell types in a time-dependent manner passing through different c...
AbstractNeural precursors often generate distinct cell types in a specific order, but the intrinsic ...
SummaryStem and/or progenitor cells often generate distinct cell types in a stereotyped birth order ...
During neural lineage progression, differences in daughter cell proliferation can generate different...
SummaryThe timing mechanisms responsible for terminating cell proliferation toward the end of develo...
xiii, 104 p. : ill. (some col.) A print copy of this thesis is available through the UO Libraries....