SummaryTight regulation of the balance between self-renewal and differentiation of neural stem cells is crucial to assure proper neural development. In this context, Notch signaling is a well-known promoter of stemness. In contrast, the bifunctional brain-enriched microRNA miR-9/9∗ has been implicated in promoting neuronal differentiation. Therefore, we set out to explore the role of both regulators in human neural stem cells. We found that miR-9/9∗ decreases Notch activity by targeting NOTCH2 and HES1, resulting in an enhanced differentiation. Vice versa, expression levels of miR-9/9∗ depend on the activation status of Notch signaling. While Notch inhibits differentiation of neural stem cells, it also induces miR-9/9∗ via recruitment of th...
In the developing nervous system, differentiating neurons express Delta and activate Notch signaling...
Notch (N) signaling is central to the self-renewal of neural stem cells (NSCs) and other tissue stem...
SummaryIt is clear that neural differentiation from human pluripotent stem cells generates cells tha...
Tight regulation of the balance between self-renewal and differentiation of neural stem cells is cru...
Summary: Notch signaling is critically involved in neural development, but the downstream effectors ...
MicroRNA (miRNA) function is required for normal animal development, in particular in differentiatio...
MicroRNAs are key regulators of biological processes. In this thesis we identify mir-9 as a critical...
<div><p>MicroRNA (miRNA) function is required for normal animal development, in particular in differ...
International audienceA central challenge in embryonic stem (ES) cell biology is to understand how t...
Hair follicle stem cells (HFSCs) are able to differentiate into neurons and glial cells. Distinct mi...
Neural stem cells (NSCs) have been defined as neural cells with the potential to self-renew and even...
Molecular mechanisms that inform heterochronic adaptations of neurogenesis in Homo sapiens remain la...
SummaryHuman pluripotent stem cells offer promise for use in cell-based therapies for brain injury a...
During embryonic and adult neurogenesis, neural stem cells (NSCs) generate the correct number and t...
SummaryNeural progenitors self-renew and generate neurons throughout the central nervous system. Her...
In the developing nervous system, differentiating neurons express Delta and activate Notch signaling...
Notch (N) signaling is central to the self-renewal of neural stem cells (NSCs) and other tissue stem...
SummaryIt is clear that neural differentiation from human pluripotent stem cells generates cells tha...
Tight regulation of the balance between self-renewal and differentiation of neural stem cells is cru...
Summary: Notch signaling is critically involved in neural development, but the downstream effectors ...
MicroRNA (miRNA) function is required for normal animal development, in particular in differentiatio...
MicroRNAs are key regulators of biological processes. In this thesis we identify mir-9 as a critical...
<div><p>MicroRNA (miRNA) function is required for normal animal development, in particular in differ...
International audienceA central challenge in embryonic stem (ES) cell biology is to understand how t...
Hair follicle stem cells (HFSCs) are able to differentiate into neurons and glial cells. Distinct mi...
Neural stem cells (NSCs) have been defined as neural cells with the potential to self-renew and even...
Molecular mechanisms that inform heterochronic adaptations of neurogenesis in Homo sapiens remain la...
SummaryHuman pluripotent stem cells offer promise for use in cell-based therapies for brain injury a...
During embryonic and adult neurogenesis, neural stem cells (NSCs) generate the correct number and t...
SummaryNeural progenitors self-renew and generate neurons throughout the central nervous system. Her...
In the developing nervous system, differentiating neurons express Delta and activate Notch signaling...
Notch (N) signaling is central to the self-renewal of neural stem cells (NSCs) and other tissue stem...
SummaryIt is clear that neural differentiation from human pluripotent stem cells generates cells tha...