Gene expression analysis of subpopulations of mouse embryonic stem cells sorted based on Id1 and Nanog expression
Ontology highlight
ABSTRACT:
PROVIDER: PRJNA422880 | ENA |
REPOSITORIES: ENA
Similar Datasets
Project description:Analysis of gene expression in sorted subpopulations of mouse embryonic stem cells. We set out to investigate whether expression of Id1 in Nanog-low cells affected the expression of pluripotency factors and signalling molecules.
2018-12-15 | GSE108226 | GEO
Project description:Understanding the mechanism by which embryonic stem (ES) cells self-renew is critical for the realization of their therapeutic potential. Previously it had been shown that in combination with LIF, Id proteins were sufficient to maintain mouse ES cells in a self-renewing state. Here we investigate the requirement for Id1 in maintaing ES cell self-renewal and blocking differentiation. We find that Id1-/- ES cells have a propensity to differentiate and a decreased capacity to self-renew. Chronic or acute loss of Id1 leads to a down-regulation of Nanog, a critical regulator of self-renewal. In addition, in the absence of Id1, ES cells express elevated levels of Brachyury, a marker of mesendoderm differentiation. We find that loss of both Nanog and Id1 is required for the up-regulation of Brachyury, and Id1 maintains Nanog expression by blocking the expression of Zeb1, a repressor of Nanog transcription. These results identify Id1 as an important factor in the maintenance of ES cell self-renewal and suggest a plausible mechanism for its control of lineage commitment.
2011-11-01 | GSE19144 | GEO
Project description:Understanding the mechanism by which embryonic stem (ES) cells self-renew is critical for the realization of their therapeutic potential. Previously it had been shown that in combination with LIF, Id proteins were sufficient to maintain mouse ES cells in a self-renewing state. Here we investigate the requirement for Id1 in maintaing ES cell self-renewal and blocking differentiation. We find that Id1-/- ES cells have a propensity to differentiate and a decreased capacity to self-renew. Chronic or acute loss of Id1 leads to a down-regulation of Nanog, a critical regulator of self-renewal. In addition, in the absence of Id1, ES cells express elevated levels of Brachyury, a marker of mesendoderm differentiation. We find that loss of both Nanog and Id1 is required for the up-regulation of Brachyury, and Id1 maintains Nanog expression by blocking the expression of Zeb1, a repressor of Nanog transcription. These results identify Id1 as an important factor in the maintenance of ES cell self-renewal and suggest a plausible mechanism for its control of lineage commitment. Wild type and Id1-/- ES cells were grown on gelatin under normal self-renewing conditions (in the presence of serum and LIF).
2011-11-01 | E-GEOD-19144 | biostudies-arrayexpress
Project description:To delineate epithelial subpopulations in mouse mammary tissue, hematopoietic and endothelial cells were depleted from freshly isolated cell suspensions derived from mammary glands using fluorescence-activated cell sorting. The resultant Lin- population was fractionated into four distinct subpopulations using antibodies against CD29, CD24 and CD61. Based on the immunohistochemical phenotype, and in vivo and in vitro functional assays, these subpopulations were identified as fibroblast-containing stromal (CD29loCD24-), mammary stem cell (MaSC)-enriched (CD29hiCD24+CD61+), luminal progenitor (CD29loCD24+CD61+), and mature luminal (CD29loCD24+CD61-) cell subpopulations. Microarray profiling was used to derive gene expression signatures of these 4 subpopulations. The four mammary cell subpopulations were found to have distinct gene expression profiles. Four mammary cell subpopulations from 3-5 pooled mouse tissues were analysed. MS is for the MaSC-enriched cell subpopulation. LP is for the Luminal Progenitor subpopulation. ML is for the Mature Luminal subpopulation.
2010-03-20 | E-GEOD-19446 | biostudies-arrayexpress
Project description:To delineate epithelial subpopulations in mouse mammary tissue, hematopoietic and endothelial cells were depleted from freshly isolated cell suspensions derived from mammary glands using fluorescence-activated cell sorting. The resultant Lin- population was fractionated into four distinct subpopulations using antibodies against CD29, CD24 and CD61. Based on the immunohistochemical phenotype, and in vivo and in vitro functional assays, these subpopulations were identified as fibroblast-containing stromal (CD29loCD24-), mammary stem cell (MaSC)-enriched (CD29hiCD24+CD61+), luminal progenitor (CD29loCD24+CD61+), and mature luminal (CD29loCD24+CD61-) cell subpopulations. Microarray profiling was used to derive gene expression signatures of these 4 subpopulations. The four mammary cell subpopulations were found to have distinct gene expression profiles.
2010-03-21 | GSE19446 | GEO
Project description:To explore the molecular basis by which Id1 loss promotes HSC quiescence under stress we compared the transcriptome of Id1-/- and Id1+/+ HSCs isolated from primary BMT recipient mice by RNA-seq. We found 179 upregulated and 1476 downregulated genes in Id1-/- HSCs compared to Id1+/+ HSCs using a fold-change cut-off of 2 . Collectively, the IPA analysis shows that Id1-/- HSCs have gene expression profiles consistent with reduced response to stress, reduced cycling and proliferation, and reduced ribosomal biogenesis and protein synthesis, which is consistent with our hypothesis that Id1-/- HSCs have molecular signature of quiescent HSCs compared to Id1+/+ HSCs.
2018-08-09 | GSE114533 | GEO
Project description:To delineate epithelial subpopulations in human mammary tissue, hematopoietic and endothelial cells were depleted from freshly isolated cell suspensions derived from reduction mammoplasties by fluorescence-activated cell sorting. The resultant Lin- population was fractionated into four distinct subpopulations using CD49f (α6-integrin) and epithelial cell adhesion molecule (EpCAM; also referred to as CD326 and ESA). Based on the immunohistochemical phenotype, and in vivo and in vitro functional assays, these subpopulations were identified as fibroblast-enriched stromal (CD49f -EpCAM-), mammary stem cell (MaSC)-enriched (CD49f hiEpCAM-), luminal progenitor (CD49f +EpCAM+), and mature luminal (CD49f âEpCAM+) cell subpopulations. Microarray profiling was used to derive gene expression signatures representative of these subpopulations using freshly sorted cells (>90% purity) from normal breast tissue. The four mammary cell subpopulations were found to have distinct gene expression profiles. Four mammary cell subpopulations from three individual patient samples were analyzed.
2010-08-19 | E-GEOD-16997 | biostudies-arrayexpress
Project description:To delineate epithelial subpopulations in human mammary tissue, hematopoietic and endothelial cells were depleted from freshly isolated cell suspensions derived from reduction mammoplasties by fluorescence-activated cell sorting. The resultant Lin- population was fractionated into four distinct subpopulations using CD49f (α6-integrin) and epithelial cell adhesion molecule (EpCAM; also referred to as CD326 and ESA). Based on the immunohistochemical phenotype, and in vivo and in vitro functional assays, these subpopulations were identified as fibroblast-enriched stromal (CD49f -EpCAM-), mammary stem cell (MaSC)-enriched (CD49f hiEpCAM-), luminal progenitor (CD49f +EpCAM+), and mature luminal (CD49f –EpCAM+) cell subpopulations. Microarray profiling was used to derive gene expression signatures representative of these subpopulations using freshly sorted cells (>90% purity) from normal breast tissue. The four mammary cell subpopulations were found to have distinct gene expression profiles.
2009-07-09 | GSE16997 | GEO
Project description:Trascriptional profiling by array of bone marrow derived murine cells trasduced with control and Id1-overexpressing vectors to identify genes changes induced by increased expression of the transcriptional regulator Id1
2015-03-31 | E-MTAB-2280 | biostudies-arrayexpress
Project description:Id proteins are dominant negative regulators within the HLH family of proteins. In embryonic stem cells (ESCs), Id1 and Id3 maintain the pluripotent state by preventing neural differentiation. The Id1-interacting protein Zrf1 plays a crucial role as a chromatin-bound factor in specification of the neural fate from ESCs. Here, we show that Id1 blocks Zrf1 recruitment to chromatin, thus preventing the activation of neural genes during ESC differentiation. Moreover, genetic deletion of Id1 in ESCs caused misexpression of more than 6000 genes. Interestingly, the expression of almost half of those genes was restored upon further depletion of Zrf1. We therefore identified Zrf1 as a transcriptional regulator downstream of Id1 in ESCs.
2014-11-05 | GSE58627 | GEO