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SRSF10 regulates proliferation of neural progenitor cells and affects neurogenesis in the developing mouse neocortex

ABSTRACT: SRSF10 regulates proliferation of neural progenitor cells and affects neurogenesis in the developing mouse neocortex

PROVIDER: PRJNA936877 | ENA |

REPOSITORIES: ENA

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			Action	DRS
	SRR23558717_1.fastq.gz	Fastqsanger.gz
	SRR23558717_2.fastq.gz	Fastqsanger.gz
	SRR23558718_1.fastq.gz	Fastqsanger.gz
	SRR23558718_2.fastq.gz	Fastqsanger.gz
	SRR23558719_1.fastq.gz	Fastqsanger.gz

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SRSF10 regulates proliferation of neural progenitor cells and affects neurogenesis in the developing mouse neocortex

Project description:To identify the potential functions of SRSF10 in neural progenitor cells and neocortex development, we constructed SRSF10 flox/flox mice, and conditionally knock out the SRSF10 in the neural progenitor cells by breeding with Nestin-Cre mice.

2023-05-30 | GSE225647 | GEO

SRSF10 regulates proliferation of neural progenitor cells and affects neurogenesis in developing mouse neocortex.

Project description:Alternative pre-mRNA splicing plays critical roles in brain development. SRSF10 is a splicing factor highly expressed in central nervous system and plays important roles in maintaining normal brain functions. However, its role in neural development is unclear. In this study, by conditional depleting SRSF10 in neural progenitor cells (NPCs) in vivo and in vitro, we found that dysfunction of SRSF10 leads to developmental defects of the brain, which manifest as abnormal ventricle enlargement and cortical thinning anatomically, as well as decreased NPCs proliferation and weakened cortical neurogenesis histologically. Furthermore, we proved that the function of SRSF10 on NPCs proliferation involved the regulation of PI3K-AKT-mTOR-CCND2 pathway and the alternative splicing of Nasp, a gene encoding isoforms of cell cycle regulators. These findings highlight the necessity of SRSF10 in the formation of a structurally and functionally normal brain.

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Regulatory elements governing neurogenesis and proliferation in developing human neocortex

Project description:Non-coding regions compose most of the human genome, yet their functionality is poorly defined. In the developing human neocortex, non-coding regulatory elements tightly regulate expression to direct neural progenitor proliferation and neurogenesis. Here, we define thousands of non-coding elements involved in human neurogenesis by contrasting chromatin accessibility via ATAC-seq from the germinal zone and cortical plate.

2018-01-11 | GSE95023 | GEO

Robo1 modulates proliferation and neurogenesis in the developing neocortex.

Project description:The elaborate cytoarchitecture of the mammalian neocortex requires the timely production of its constituent pyramidal neurons and interneurons and their disposition in appropriate layers. Numerous chemotropic factors present in the forebrain throughout cortical development play important roles in the orchestration of these events. The Roundabout (Robo) family of receptors and their ligands, the Slit proteins, are expressed in the developing forebrain, and are known to play important roles in the generation and migration of cortical interneurons. However, few studies have investigated their function(s) in the development of pyramidal cells. Here, we observed expression of Robo1 and Slit genes (Slit1, Slit2) in cells lining the telencephalic ventricles, and found significant increases in progenitor cells (basal and apical) at embryonic day (E)12.5 and E14.5 in the developing cortex of Robo1(-/-), Slit1(-/-), and Slit1(-/-)/Slit2(-/-), but not in mice lacking the other Robo or Slit genes. Using layer-specific markers, we found that both early- and late-born pyramidal neuron populations were significantly increased in the cortices of Robo1(-/-) mice at the end of corticogenesis (E18.5). The excess number of cortical pyramidal neurons generated prenatally appears to die in early postnatal life. The observed increase in pyramidal neurons was due to prolonged proliferative activity of their progenitors and not due to changes in cell cycle events. This finding, confirmed by in utero electroporation with Robo1 short hairpin RNA (shRNA) or control constructs into progenitors along the ventricular zone as well as in dissociated cortical cell cultures, points to a novel role for Robo1 in regulating the proliferation and generation of pyramidal neurons.

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Foxp1 developing neocortex

Project description:Foxp1 developing neocortex

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Primate-expressed EPIREGULIN promotes basal progenitor proliferation in the developing neocortex

Project description:Neocortex expansion during evolution is linked to higher numbers of neurons thought to result from increased proliferative capacity and neurogenic potential of basal progenitors during development. Here, we show that EREG, encoding the growth factor EPIREGULIN, is expressed in the human developing neocortex, but not in the mouse neocortex. Addition of EPIREGULIN to the mouse neocortex increases proliferation of both major basal progenitor types, intermediate basal progenitors and basal radial glia, whereas ablation of EPIREGULIN in human cortical organoids reduces basal progenitor proliferation. Here, we analyzed gene expression changes upon addition of EPIREGULIN to the mouse neocortex for 24 hours using hemisphere rotation culture. We performed fluorescent activated cell sorting to isolate radial glia (RG), intermediate progenitor (IP) cells and neurons (N) based on the nuclear markers Sox2 and Tbr2, and expression of GFP in neurons isolated from a Tubb3::GFP mouse reporter line.

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Extracellular matrix-inducing Sox9 orchestrates basal progenitor proliferation and gliogenesis in developing neocortex

Project description:Neocortex expansion is largely based on the proliferative capacity of basal progenitors (BPs), which is increased by extracellular matrix (ECM) components via integrin signaling. Here we show that Sox9 drives expression of ECM components and that laminin 211 increases BP proliferation in embryonic mouse neocortex. Examination of Sox9 expression reveals that Sox9 is expressed in BPs of developing ferret and human, but not mouse neocortex. Functional studies by conditional Sox9 expression in the mouse BP lineage demonstrate increased BP proliferation, reduced Tbr2 and induction of Olig2 expression, indicative of premature gliogenesis. Conditional Sox9 expression also results in cell non-autonomous stimulation of BP proliferation followed by increased production of upper-layer neurons. Collectively, our findings demonstrate that Sox9 exerts concerted effects on transcription, BP proliferation, neuron production, and neurogenic as well as gliogenic BP cell fate, suggesting that Sox9 acts a master regulator in the subventricular zone to promote neocortical expansion.

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SRSF10 regulates alternative splicing and is required for adipocyte differentiation.

Project description:During adipocyte differentiation, significant alternative splicing changes occur in association with the adipogenic process. However, little is known about roles played by splicing factors in this process. We observed that mice deficient for the splicing factor SRSF10 exhibit severely impaired development of subcutaneous white adipose tissue as a result of defects in adipogenic differentiation. To identify splicing events responsible for this, RNA-seq analysis was performed using embryonic fibroblast cells. Several SRSF10-affected splicing events that are implicated in adipogenesis have been identified. Skipping of lipin1 exon 7 is controlled by SRSF10-regulated cis-element located in the constitutive exon 8. The activity of this element depends on the binding of SRSF10 and correlates with the relative abundance of lipin1a mRNA. A series of experiments demonstrated that SRSF10 controls the production of lipin1a and thus promotes adipocyte differentiation. Indeed, lipin1a expression could rescue SRSF10-mediated adipogenic defects. Taken together, our results identify SRSF10 as an essential regulator for adipocyte differentiation and also provide new insights into splicing control by SRSF10 in lipin1 pre-mRNA splicing. RNA-seq for wide type (WT) and SRSF10-deficient (KO) mouse MEF cells

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Foxp1 developing neocortex (snRNA-Seq)

Project description:Foxp1 developing neocortex (snRNA-Seq)

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Project description:Foxp1 developing neocortex (scATAC-Seq)

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