Expression data from distinct populations of iMC from the small intestine of Ackr4(+/gfp) mice
Ontology highlight
ABSTRACT:
PROVIDER: PRJNA453561 | ENA |
REPOSITORIES: ENA
Similar Datasets
Project description:Mesenchymal cells play key roles in modulating tissue homeostasis in various organs, including the intestine. Here we show that the murine intestinal mesenchymal cells are heterogenous, comprising at least three distinct populations. In this dataset, we include the expression data obtained from sorted subsets of CD45-Ter119-EPCAM-GP38+CD31- murine intestinal mesenchymal cell (iMC) populations. The iMC populations were separated into: CD146+ cells, which expressed CD9 and CD29, but not Ackr4, SCA1, ICAM1 or PDGFRa; GFP+ fibroblasts, which expressed Ackr4, SCA1, ICAM1 and PDGFRa; and GFP- fibroblasts, which also expressed SCA1, ICAM1 and PDGFRa, but were negative for Ackr4 expression.
2018-04-26 | GSE113665 | GEO
Project description:The intestine is composed of an epithelial layer, containing rapidly proliferating cells that mature into two distinct anatomic regions, the small and the large intestine. Although previous studies have identified stem cells as the cell-of-origin for the whole intestine, no studies have compared stem cells derived from the small and large intestine. Here, we report intrinsic differences between these two populations of cells. Primary epithelial cells isolated from human fetal small and large intestine and expanded with Wnt agonist, R-spondin 2, displayed differential expression of stem cell markers and separate hierarchical clustering of gene expression involved in differentiation, proliferation and disease pathways. Using a three-dimensional in vitro differentiation assay, single cells derived from small and large intestine formed distinct organoid architecture with cellular hierarchy similar to that found in primary tissue. Our characterization of human fetal intestinal stem cells defies the classical definition proposed by most where small and large intestine are repopulated by an identical epithelial stem cell and raises the question of the importance of intrinsic and extrinsic cues in the development of intestinal diseases. 12 samples were analyzed. They consisted of human fetal small and large intestine (SI; n=6 and LI; n=6) stem cells, expanded with Wnt agonist and R-spondin 2. Differential expression of genes in epithelial cells from both the large and small intestine were observed.
2015-01-15 | E-GEOD-56525 | biostudies-arrayexpress
Project description:The intestine is composed of an epithelial layer, containing rapidly proliferating cells that mature into two distinct anatomic regions, the small and the large intestine. Although previous studies have identified stem cells as the cell-of-origin for the whole intestine, no studies have compared stem cells derived from the small and large intestine. Here, we report intrinsic differences between these two populations of cells. Primary epithelial cells isolated from human fetal small and large intestine and expanded with Wnt agonist, R-spondin 2, displayed differential expression of stem cell markers and separate hierarchical clustering of gene expression involved in differentiation, proliferation and disease pathways. Using a three-dimensional in vitro differentiation assay, single cells derived from small and large intestine formed distinct organoid architecture with cellular hierarchy similar to that found in primary tissue. Our characterization of human fetal intestinal stem cells defies the classical definition proposed by most where small and large intestine are repopulated by an identical epithelial stem cell and raises the question of the importance of intrinsic and extrinsic cues in the development of intestinal diseases.
2015-01-15 | GSE56525 | GEO
Project description:We have identified the dendritic cell (DC) populations that are sufficient for the induction of T helper 2 (Th2) cell responses in the intestine against both live Trichuris muris worms, and inert Schistosoma mansoni eggs. Antigen-specific Th2 responses did not develop after deletion of IRF4 in DCs, yet IRF4-deficient DCs were not functionally affected. Instead, IRF4flox/flox CD11c-cre mice had fewer CD11b+ migrating DCs, and fewer DCs carrying parasite antigen from the intestine. Adoptive transfer of purified DCs from infected animals directly into intestinal afferent lymphatics enabled us to identify that CD11b+CD103+ DCs were central to the induction of Th2 responses in the small intestine, whereas CD11b+CD103- DCs were more important in the colon. Similarly, after pulsing with Schistosome egg antigen (SEA) in vitro, adoptively-transferred small intestinal or colonic DCs acquired the ability to induce SEA-specific Th2 responses. These data demonstrate a functional specialisation among intestinal DC populations in inducing Th2 responses, and elucidate the roles of IRF4 in this process.
2016-12-10 | GSE91381 | GEO
Project description:Enteroendocrine L-cells release hormones that control metabolism and appetite and are targets under investigation for the treatment of diabetes and obesity. Understanding L-cell diversity and expression profiles is critical for identifying target receptors that will translate into altered hormone secretion. We performed single cell RNA sequencing of mouse L-cells from the upper small intestine to distinguish cellular populations, revealing that L-cells form 3 major clusters: a group with typical characteristics of classical L-cells, including high expression of Gcg and Pyy; a cell type overlapping with Gip-expressing K-cells; and a unique cluster expressing Tph1 and Pzp that was predominantly located in duodenal villi and co-produced 5HT. Expression of G-protein coupled receptors differed between clusters, suggesting the cell types are differentially regulated, and would be differentially targetable. Our findings support the emerging concept that many enteroendocrine cell populations are highly overlapping, with individual cells producing a range of peptides previously assigned to distinct cell types.
2017-12-15 | GSE108108 | GEO
Project description:Investigation of whole genome gene expression level changes in GFP+ and GFP- populations of B.subtilis strain DS901
2010-11-29 | GSE16345 | GEO
Project description:The aim of this project was to explore the role of gut microbiota in the development of small intestine. The gut microbiota from different groups was used to treat the mice for 1 or 2 weeks. Then the small intestine samples were collected. The RNA was used for the RNA-seq analysis to search the role of gut microbiota in the development of small intestine. Groups: IMA100 mean gut microbiota from Alginate oligosaccharide 100mg/kg treated mice; IMA10 mean gut microbiota from Alginate oligosaccharide 10mg/kg treated mice; IMC mean gut microbiota from control group mice (dosed with water); Sa mean dosed with saline (no gut microbiota). "1" mean dosed for 1 week, "2" means dosed for 2 weeks.
2020-07-29 | GSE137999 | GEO
Project description:The aim of the experiment was to compare a newly defined population VE-Cadherin+GFP+ to control populations, VE-Cadherin- GFP+ and VE-Cadherin+GFP-.
2019-04-20 | GSE113403 | GEO
Project description:Small intestine crypts dissociated to single cells and sorted from Lgr5-EGFP mice into GFP low, mid and high populations.
2017-07-06 | GSE100831 | GEO
Project description:The intestine is composed of an epithelial layer containing rapidly proliferating cells that mature into two regions, the small and the large intestine. Although previous studies have identified stem cells as the cell-of-origin for intestinal epithelial cells, no studies have directly compared stem cells derived from these anatomically distinct regions. Here, we examine intrinsic differences between primary epithelial cells isolated from human fetal small and large intestine, after in vitro expansion, using the Wnt agonist R-spondin 2. We utilized flow cytometry, fluorescence-activated cell sorting, gene expression analysis and a three-dimensional in vitro differentiation assay to characterize their stem cell properties. We identified stem cell markers that separate subpopulations of colony-forming cells in the small and large intestine and revealed important differences in differentiation, proliferation and disease pathways using gene expression analysis. Single cells from small and large intestine cultures formed organoids that reflect the distinct cellular hierarchy found in vivo and respond differently to identical exogenous cues. Our characterization identified numerous differences between small and large intestine epithelial stem cells suggesting possible connections to intestinal disease.
| S-EPMC4353627 | biostudies-literature