The adult mammalian brain harbors multipotent stem cells, which reside and participate in specialized niches that support self-renewal and differentiation. The first cellular and molecular elements of the stem cell niche in the adult brain have been identified and include cell-cell interactions and somatic cell signaling, the vasculature, the extracellular matrix and basal lamina. Furthermore, regulation at the epigenetic level via chromatin modification and remodeling is an integral aspect of stem cell biology. Understanding the in vivo stem cell niche will provide a framework for the elucidation of stem cell function in the adult brain
The neural stem cells are primary precursors that can self-renew and generate differentiated neurons...
The complexity and cellular diversity of the adult brain arises from the proliferation and different...
SummaryStem cells remain in specialized niches over the lifespan of the organism in many organs to e...
Neural stem cells (NSCs) derive from the neuroepithelium of the neural tube, develop into radial gli...
The mammalian brain is a paradox of evolution. Although the advance in complexity of the human brain...
Neurogenesis persists in two germinal regions in the adult mammalian brain, the subventricular zone ...
AbstractThe adult mammalian brain retains neural stem cells that continually generate new neurons wi...
The adult mammalian brain contains self-renewable, multipotent neural stem cells (NSCs) that are res...
Adult neural stem cells (NSCs) are involved in regulating mammalian behavior and are controlled by d...
Major developments in the neural stem cell (NSC) field in recent years provide new insights into the...
Adult stem cells are typically dependent on their specific niche environment, here we discuss to whi...
A better understanding of the signals regulating embryonic neural stem cells is clearly an important...
Tissue-specific stem cells have the capacity to self-renew and differentiate into several types of f...
Niches are local tissue microenvironments that maintain and regulate stem cells. Long-predicted from...
The mechanisms that determine why neurogenesis is restricted to few regions of the adult brain in ma...
The neural stem cells are primary precursors that can self-renew and generate differentiated neurons...
The complexity and cellular diversity of the adult brain arises from the proliferation and different...
SummaryStem cells remain in specialized niches over the lifespan of the organism in many organs to e...
Neural stem cells (NSCs) derive from the neuroepithelium of the neural tube, develop into radial gli...
The mammalian brain is a paradox of evolution. Although the advance in complexity of the human brain...
Neurogenesis persists in two germinal regions in the adult mammalian brain, the subventricular zone ...
AbstractThe adult mammalian brain retains neural stem cells that continually generate new neurons wi...
The adult mammalian brain contains self-renewable, multipotent neural stem cells (NSCs) that are res...
Adult neural stem cells (NSCs) are involved in regulating mammalian behavior and are controlled by d...
Major developments in the neural stem cell (NSC) field in recent years provide new insights into the...
Adult stem cells are typically dependent on their specific niche environment, here we discuss to whi...
A better understanding of the signals regulating embryonic neural stem cells is clearly an important...
Tissue-specific stem cells have the capacity to self-renew and differentiate into several types of f...
Niches are local tissue microenvironments that maintain and regulate stem cells. Long-predicted from...
The mechanisms that determine why neurogenesis is restricted to few regions of the adult brain in ma...
The neural stem cells are primary precursors that can self-renew and generate differentiated neurons...
The complexity and cellular diversity of the adult brain arises from the proliferation and different...
SummaryStem cells remain in specialized niches over the lifespan of the organism in many organs to e...