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1 cell cycle coupling via Cyclin D in a single radial glial cell.
2 l phenotype, activates the erbB2 promoter in radial glial cells.
3 erts a critical role in the establishment of radial glial cells.
4 neocortex are generated by stem cells called radial glial cells.
5 begin to upregulate genes that characterise radial glial cells.
6 retinaldehyde dehydrogenase, is expressed by radial glial cells.
7 llary acidic protein (GFAP) in telencephalic radial glial cells.
8 ed with an abrupt termination of many of the radial glial cells.
9 ocytes by stimulating somal translocation of radial glial cells.
10 ut apparent surface-mediated guidance of the radial glial cells.
12 that this organization is conserved in basal radial glial cells, a related progenitor cell population
14 and that the basal fibre, inherited by outer radial glial cells after ventricular radial glial divisi
17 oliferation and premature differentiation of radial glial cells and aberrant positioning of newborn n
18 of VZ intermediate progenitors derived from radial glial cells and are distinct from the multipolar
20 tion between the two major progenitor types, radial glial cells and basal progenitors, was impaired.
21 monstrated by inactivating the Fgfr1 gene in radial glial cells and by RNAi knockdown of Fgfr1 in viv
22 eactivity is detected simultaneously in both radial glial cells and cells that have the positional an
23 receptor, Cxcr4, is expressed in cerebellar radial glial cells and conditional Cxcr4 ablation with N
24 lar to mammalian astrocytes that derive from radial glial cells and elaborate processes to establish
25 s of cortical neural progenitor cells (NPCs)-radial glial cells and intermediate progenitor cells-was
26 ity is detected in the transitional forms of radial glial cells and mature astrocytes, but not in neu
27 croscopy, we performed time-lapse imaging of radial glial cells and measured filopodial motility in t
29 sent study examined the relationship between radial glial cells and newborn neurons in the adult dent
30 ent, nascent pyramidal neurons migrate along radial glial cells and overtake earlier-born neurons to
31 ventricular radial glial cells produce outer radial glial cells and seed formation of the outer subve
32 ted that both cycling and noncycling Sox2(+) radial glial cells and Tbr2(+) intermediate progenitors
33 expression to the nestin(+)/Pax6(+)/GLAST(+) radial glial cells and Tbr2(+) intermediate progenitors
34 suggesting that defective connection between radial glial cells and the pial surface mediated by LAMB
35 diate interactions of migrating neurons with radial glial cells and to function as a receptor for the
37 cerebral cortex contains migrating neurons, radial glial cells, and a large population of cycling pr
40 However, the mechanisms that determine how radial glial cells are established, maintained, and tran
41 provide evidence that mouse Fezf2-expressing radial glial cells are multipotent progenitors that sequ
43 al and precursor cells by demonstrating that radial glial cells are themselves neuronal progenitor ce
45 LA8 altered the fate specification of apical radial glial cells, as reflected by the enrichment of ge
46 ry receptor AXL is highly expressed by human radial glial cells, astrocytes, endothelial cells, and m
49 During cortical development, human basal radial glial cells (bRGCs) are highly capable of sustain
50 post-conception revealed high expression in radial glial cells, compatible with a role in neurogenes
51 ence for the cooperative role of neuron- and radial glial-cell-derived ECM molecules in cortical deve
57 a two-step process in which Pax6-expressing radial glial cells divide in the VZ to produce Tbr2-expr
58 Numb expression suppress mPar3 regulation of radial glial cell division and daughter cell fate specif
59 investigation of spindle orientation during radial glial cell division, revealed that NFIX promotes
60 the beating of numerous cilia from ependymal radial glial cells (ERGs) generating flow in the central
63 developing cerebral cortex, neurons regulate radial glial cell function and radial glial cells, in tu
65 hin the first few days after labeling, these radial glial cells gave rise to neurons, oligodendrocyte
70 sociated with specific tumor types including radial glial cells in ependymomas and oligodendrocyte pr
75 f interactions between migrating neurons and radial glial cells in the developing cerebral cortex.
76 of the switch from neuroepithelial cells to radial glial cells in the developing mammalian cerebral
77 cells, and it causes cell-cycle deficits of radial glial cells in the embryonic mouse cortex and hum
78 tributed to protracted neurogenesis by outer radial glial cells in the outer subventricular zone, a r
79 te here that calcium waves propagate through radial glial cells in the proliferative cortical ventric
80 aled that IH(30) increased the proportion of radial glial cells in the subgranular zone, yet decrease
81 oon cells and dysplastic neurons derive from radial glial cells in the telencephalic ventricular zone
84 rons regulate radial glial cell function and radial glial cells, in turn, support neuronal cell migra
86 types crucial during embryonic development: radial glial cells, intermediate progenitor cells, outer
90 CYFIP1 and WAVE signaling similarly affects radial glial cells, leading to their ectopic localizatio
92 lar component of the postnatal SVZ, promotes radial glial cell maintenance and proliferation in an au
96 proposed to involve division of ventricular radial glial cells; neural stem cells present in all dev
100 mitotic spindle orientation increased outer radial glial cell number, and ultimately neuronal number
101 Radial migration, apparently supported by radial glial cells, occurred within the proliferative zo
104 cortex, neurons are generated directly from radial glial cells or indirectly via basal progenitors.
105 ressing "Pre-OPCs" that originate from outer radial glial cells (oRGs) and undergo mitotic somal tran
109 pathway but becomes minimal or absent where radial glial cell processes enter the marginal zone regi
110 reas the protein is exclusively expressed in radial glial cell processes that occupy the rhombomere b
113 s and contains Pax6(+)/Hopx(+) outer (basal) radial glial cells producing astrocytes and oligodendroc
114 larly, ZIKA-NS2A, but not DENV-NS2A, reduces radial glial cell proliferation and causes AJ deficits i
115 active in the cerebellar VZ and essential to radial glial cell proliferation and expansion of GABAerg
117 in the developing brain, it led to a halt in radial glial cell proliferation, disorganized radial fib
118 photoreceptor cells, associated neurons, and radial glial cells, rapamycin prevented nuclear and cell
119 nd adhesion interactions between neurons and radial glial cells regulate neuronal migration as well a
123 11.5 (E11.5), the majority of Pax6-positive radial glial cells (RGCs) and Tbr2-positive intermediate
127 ne (VZ) challenges the widely held view that radial glial cells (RGCs) are the sole occupants of this
128 e generated in a temporal sequence, with all radial glial cells (RGCs) contributing to both lower and
129 mapping to demonstrate that Fezf2-expressing radial glial cells (RGCs) exist throughout cortical deve
130 evelopment of the mammalian cerebral cortex, radial glial cells (RGCs) generate layer-specific subtyp
135 During vertebrate cortical neurogenesis, radial glial cells (RGCs) serve as neural stem cells tha
136 ing, regularly spaced, tiled organization of radial glial cells (RGCs) serves as a framework to gener
137 t two types of dividing cells in the VZ: (1) radial glial cells (RGCs) that span the entire neocortic
138 e neocortical ventricular zone (VZ) contains radial glial cells (RGCs) with restricted fate potential
139 go transitions from neuroepithelial cells to radial glial cells (RGCs), and later, a subpopulation of
140 cells in the cerebral cortex, also known as radial glial cells (RGCs), generate excitatory neurons,
141 noid modeling shows reduced proliferation of radial glial cells (RGCs), leading to smaller organoids
142 n response to DNA damage resulted in loss of radial glial cells (RGCs), underpinning microcephaly.
143 s seen to colabel subsets of Pax6-expressing radial glial cells (RGCs), whereas only cD2 colabeled wi
144 These features are especially prominent in radial glial cells (RGCs), which are neural and glial pr
150 t antiadhesive signaling via SPARC-like 1 on radial glial cell surfaces may enable neurons to recogni
151 two types of macroglial cells, Muller cells, radial glial cells that are the principal macroglial cel
152 developing rodent cortex are generated from radial glial cells that function as neural stem cells.
155 sufficient to induce somal translocation of radial glial cells throughout the cortex; furthermore, t
156 iking: Zac1 delayed the transition of apical radial glial cells to basal intermediate neuronal progen
157 le exit, with a premature differentiation of radial glial cells to intermediate progenitors and neuro
158 uring embryonic brain development arise from radial glial cells which communicate, in part, via ATP m
159 o promotes the maintenance and elongation of radial glial cells, which are essential for guiding neur
160 t in part by suppressing Notch activation in radial glial cells, which leads to the increased express
161 ere more severely affected, especially outer radial glial cells, which mouse embryonic cortex lacks.