Homo sapiens
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ABSTRACT:
PROVIDER: PRJNA108241 | ENA |
REPOSITORIES: ENA
Similar Datasets
Project description:Transcript profiling of oestrogen treatment of primary human neuronal cell cultures
| PRJNA118591 | ENA
Project description:The purpose of this experiment was to identify oestrogen regulated genes in human primary cell cultures of neuronal and glial cells modelling the developing human nervous system. We were especially interested in genes involved in proliferation, differentiation and migration of neuronal cells and genes involved in or linked to neurodegenerative diseases. We have therefore assessed gene expression changes, using Affymetrix GeneChips (HG-U133A), of oestrogen treated human neuronal/ glial cell cultures. We continued with 14 selected genes and confirmed the gene expression changes, by relative quantitative real time PCR, of 6 genes (p< 0.05) important in neuronal development, three of which also are suggested to have links to neurodegenerative diseases. Experiment Overall Design: Primary mixed neuronal/glial cell cultures were established from human brain tissue, which was obtained from 8-12 weeks old fetuses at legal abortion after informed consent from the patients. Procedures were approved by the local Ethics committee at the Karolinska University Hospital, Stockholm. A total of 23 tissue samples yielding 9 cell cultures were used in this experiment. Half of the cell cultures were treated with 2µM β-oestradiol the day after seeding. The duration of the oestrogen treatment was 7 days and the cells were harvested after 8 days of culturing for RNA extraction. Extracted RNA from untreated respectively oestrogen treated cell cultures were pooled yileding two samples, which were each hybridised to Affymetrix microarrys. In this study oestrogen treatment of human neuronal/glial cell cultures was found to regulate 6 genes important in the development of the nervous system.
2008-06-18 | E-GEOD-10097 | biostudies-arrayexpress
Project description:The purpose of this experiment was to identify oestrogen regulated genes in human primary cell cultures of neuronal and glial cells modelling the developing human nervous system. We were especially interested in genes involved in proliferation, differentiation and migration of neuronal cells and genes involved in or linked to neurodegenerative diseases. We have therefore assessed gene expression changes, using Affymetrix GeneChips (HG-U133A), of oestrogen treated human neuronal/ glial cell cultures. We continued with 14 selected genes and confirmed the gene expression changes, by relative quantitative real time PCR, of 6 genes (p< 0.05) important in neuronal development, three of which also are suggested to have links to neurodegenerative diseases. Keywords: Treatment vs Control
2008-05-28 | GSE10097 | GEO
Project description:The purpose of this experiment was to identify oestrogen regulated genes in human primary cell cultures of neuronal cells modelling the developing human nervous system. We were especially interested in genes involved in proliferation, differentiation and migration of neuronal cells and genes involved in or linked to neurodegenerative diseases. We have therefore assessed gene expression changes, using Affymetrix GeneChips (HG-U133A), of oestrogen treated human neuronal cell cultures. Experiment Overall Design: Primary neuronal cell cultures were established from human brain tissue, which was obtained from 8-12 weeks old fetuses at legal abortion after informed consent from the patients. Procedures were approved by the local Ethics committee at the Karolinska University Hospital, Stockholm. A total of 28 tissue samples yielding 10 cell cultures were used in this experiment. Half of the cell cultures were treated with 2µM β-oestradiol the day after seeding. The duration of the oestrogen treatment was 7 days and the cells were harvested after 8 days of culturing for RNA extraction. Extracted RNA from untreated respectively oestrogen treated cell cultures were pooled yielding two samples, which were each hybridised to Affymetrix microarrys.
2009-12-05 | E-GEOD-17645 | biostudies-arrayexpress
Project description:The purpose of this experiment was to identify oestrogen regulated genes in human primary cell cultures of neuronal cells modelling the developing human nervous system. We were especially interested in genes involved in proliferation, differentiation and migration of neuronal cells and genes involved in or linked to neurodegenerative diseases. We have therefore assessed gene expression changes, using Affymetrix GeneChips (HG-U133A), of oestrogen treated human neuronal cell cultures.
2009-12-01 | GSE17645 | GEO
Project description:ASCL1 mediates neuronal differentiation of GBM stem cell (GSC) cultures. We sought to identify targets of ASCL1 in primary human GSC cultures. In this dataset, we include RNA-seq data obtained from GSC cultures harbouring a CRISPR-deletion of ASCL1. We assessed differential gene expression between control and GSC cultures induced to overexpress ASCL1 after 7 days of doxycycline treatment.
2017-07-13 | GSE87617 | GEO
Project description:ASCL1 mediates neuronal differentiation of GBM stem cell (GSC) cultures. We sought to identify genomic targets of ASCL1 in primary human GSC cultures. In this dataset, we include ChIP-seq data obtained from GSC cultures harbouring a CRISPR-deletion of ASCL1. We assessed differential ASCL1 binding between control and GSC cultures induced to overexpress ASCL1 after 18 hours of doxycycline treatment.
2017-07-13 | GSE87618 | GEO
Project description:ASCL1 mediates neuronal differentiation of GBM stem cell (GSC) cultures. We sought to identify chromatin changes upon induced ASCL1 expression in primary human GSC cultures. In this dataset, we include ATAC-seq data obtained from GSC cultures harbouring a CRISPR-deletion of ASCL1. We assessed differential ASCL1 binding between control and GSC cultures induced to overexpress ASCL1 after 14 days of doxycycline treatment.
2017-07-13 | GSE90547 | GEO
Project description:This study was undertaken to define the molecular subtypes of myenteric plexus glial cells in mice, and to understand the molecular basis for glial cells’ capacity to become neurons. Methods: We performed single-cell RNA sequencing and single-nucleus ATAC sequencing of enteric neurons from small intestine at the adolescent mice (on or near postnatal day of life 14). We also performed both single-cell RNA sequencing and single-nucleus ATAC sequencing on 3-dimensional neurosphere cultures. Results: We identify numerous distinct transcriptional subgroups of myenteric plexus glial cells, including cells expressing genes associated with neuronal differentiation. Epigenetic analysis shows distinct chromatin accessibility profiles that correlate with gene expression patterns. Glial cells maintain open chromatin at gene loci associated with neuronal fate. 3-dimensional cultures provide a niche for active neurogenesis. Chromatin closes at glial-associate loci during neurogenesis. Conclusion: Utilizing single-cell RNA sequencing and single-nucleus ATAC sequencing, we identify myenteric glial cell subtypes and uncover a molecular basis for a glial-to-neuronal fate transition.
2023-03-02 | GSE184981 | GEO
Project description:Glial cells have been proposed as an endogenous source of progenitors for the treatment of neural deficits. However, the cellular and molecular mechanisms underpinning the neurogenic potential of certain populations of adult glial cells, are not known. Using single cell transcriptomic profiling, we show here that enteric glial cells represent a cell state attained by autonomic neural crest cells as they transition during development along a linear default differentiation trajectory that allows them to retain neurogenic potential while acquiring a gene expression profile associated with their role in neuronal support and immunomodulation. Key neurogenic loci in early enteric nervous system progenitors remain in open chromatin configuration in mature enteric glia, thus facilitating neuronal differentiation under appropriate conditions. Molecular profiling and gene targeting of enteric glial cells in a novel cell culture system of enteric neurogenesis and a gut injury model, demonstrated that neuronal differentiation of glia is driven by transcriptional programs employed in vivo by early progenitors. Our work provides mechanistic insight into the dynamic regulatory landscape underpinning the development of intestinal neural circuits and generates a platform for advancing glial cells as therapeutic agents for the treatment of neural deficits.
2023-07-26 | GSE237970 | GEO