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Adiponectin regulated by IAA in Paneth cells controls renewal and differentiation of gut stem cells to maintain homeostasis of epithelial cells

ABSTRACT: Adiponectin regulated by IAA in Paneth cells controls renewal and differentiation of gut stem cells to maintain homeostasis of epithelial cells

PROVIDER: PRJNA1123244 | ENA |

REPOSITORIES: ENA

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			Action	DRS
	SRR29380903_1.fastq.gz	Fastqsanger.gz
	SRR29380903_2.fastq.gz	Fastqsanger.gz
	SRR29380904_1.fastq.gz	Fastqsanger.gz
	SRR29380904_2.fastq.gz	Fastqsanger.gz

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Similar Datasets

Adiponectin regulated by IAA in Paneth cells controls renewal and differentiation of gut stem cells to maintain homeostasis of epithelial cells

Project description:We here demonstrate that adiponectin in Paneth cells can suppress renewal and differentiation of gut stem cells through adiponectin receptor 1 (AdipR1). Crypt cells (mainly stem and transit amplifying (TA) cells) in Adipfl/flpVilli-CreT (gut epithelial cell adiponectin conditioned knockout) mice exhibited stronger ability of renewal and differentiation. ScRNA-seq found that there had much more enrichment intestinal stem and TA cells in Adipfl/flpVilli-CreT mice. The renewal and development of gut epithelial cells in irradiated or DSS (dextran sulfate sodium) treated Adipfl/flpVilli-CreT mice was faster than control Adipfl/flp mice. In vitro culture gut organoid of Adipfl/flpVilli-CreT mice exhibited faster growth than those from Adipfl/flp mice. The gut epithelial cells in AdipR1 knockout (KO) mice had much longer crypts than control mice. Interestingly, indole-3-acetic acid (IAA) from gut microbiota could control the expression of adiponectin to promote the renewal and proliferation of gut stem cells. In vitro culture organoid also showed faster development after exposing to IAA. Thus, adiponectin, which is regulated by gut microbiota derived IAA controls the renewal and differentiation of gut stem cells to maintain the homeostasis of epithelial cells.

2024-06-14 | GSE269692 | GEO

Adiponectin regulated by IAA in Paneth cells controls renewal and differentiation of gut stem cells to maintain homeostasis of epithelial cells (small intestinal epithelium)

Project description:Adiponectin regulated by IAA in Paneth cells controls renewal and differentiation of gut stem cells to maintain homeostasis of epithelial cells (small intestinal epithelium)

| PRJNA1124989 | ENA

Adiponectin regulated by IAA in Paneth cells controls renewal and differentiation of gut stem cells to maintain homeostasis of epithelial cells (small intestinal epithelium)

Project description:Crypt cells (mainly stem and transit amplifying (TA) cells) in Adipfl/flpVilli-CreT (gut epithelial cell adiponectin conditioned knockout) mice exhibited stronger ability of renewal and differentiation. ScRNA-seq found that there had much more enrichment intestinal stem and TA cells in Adipfl/flpVilli-CreT mice. The renewal and development of gut epithelial cells in irradiated or DSS (dextran sulfate sodium) treated Adipfl/flpVilli-CreT mice was faster than control Adipfl/flp mice. In vitro culture gut organoid of Adipfl/flpVilli-CreT mice exhibited faster growth than those from Adipfl/flp mice.

2024-06-21 | GSE270099 | GEO

Paneth cells

Project description:Paneth cells

| PRJNA994579 | ENA

RNA-seq of Paneth cells

Project description:RNA-seq of Paneth cells

| PRJNA736960 | ENA

RNA-seq of Paneth cells

Project description:The impact of removal of Mll1 in intestinal Paneth cells expressing an constitutively active form of beta-catenin (beta-cateninGOF) was analysed in 4 pairs of sorted Paneth cells of Lgr5-CreERT2; beta-cateninGOF;Mll1+/- (control) and Lgr5-CreERT2; beta-cateninGOF;Mll1-/- (knockout) mice at 10 days after tamoxifen-induced mutagenesis. Using 75-base-pair reads, around 30 million reads per sample with comparable unique mapped reads (52-93%) were obtained. To analyze differentially expressed genes, we applied DESeq2 analysis to the RNA-seq dataset. Differentially expressed genes in beta-cateninGOF; Mll1-/- versus beta-cateninGOF; Mll1+/- Paneth cells showed both up- and downregulation of genes at a false discovery rate (FDR) of 10%. This included a global increase in the expression of goblet cell-specific genes. Downregulated genes included specific markers of Paneth cells, indicating that ablation of Mll1 in Paneth cells shifted their identity towards a mixed Paneth-goblet cell fate.

2022-01-08 | GSE177047 | GEO

Single cell RNA sequencing analysis of germ free (GF) mouse Paneth cells and microbiome-transferred exGF mouse Paneth cells.

Project description:The single cell level Paneth cell transcriptome under gnotobiotic condition has not been resolved. How gut microbiome modulates Paneth cell transcriptome at single cell level in germ-free mice was not known. We used a flow cytometry method to isolate highly pure ileal Paneth cells from germ free (GF) Paneth cell reporter mice (Lyz1-3'UTR-IRES-CreER) and from exGF Paneth cell reporter mice that were transplanted with wild type C57B/l6 mouse gut microbiota (exGF+B6M). These isolated Paneth cells were subjected to single cell RNA sequencing by 10xGenomics.

2023-09-01 | GSE237328 | GEO

Proteomic profiling of mouse Paneth cells microdissected from small intestinal tissue

Project description:Paneth cells are antimicrobial peptide-secreting cells located at the base of the crypts of the small intestine. The proteome of Paneth cells is not well defined because of their co-existence with stem cells making it difficult to culture Panth cells alone in vitro. Using a simplied toluidine blue O method for staining mouse intestinal tissue, laser capture microdissection (LCM) to isolate cells from the crypt region and surfactant assisted one pot protein digestion, we identified more than 1,300 proteins from crypts equivalent to 18,000 cells. Compared with the proteomes of villi and smooth muscle regions, the crypt proteome is highly enriched in defensins, lysozymes and other antimicrobial peptides that are characteristic of Paneth cells. The sensitivity of the LCM-based proteomics approach was also assessed using a smaller number of cell equivalent tissues, a comparable proteomic coverage can be achieved with 3,600 cells. This work is the first proteomics study of intestinal tissue enriched with Paneth cells. The simplied workflow enables profiling of Paneth cell associated pathological changes at the proteome level directly from frozen intestinal tissue. It may also be useful for proteomics studies of other spatially resolved cell types from other tissues.

2022-10-12 | PXD034143 | Pride

Shotgun proteomics on murine paneth cells after TNF-alpha treatment

Project description:Mouse were injected with TNF-alpha prior isolation of paneth cells with flow cytometry.

2024-07-18 | PXD053044 | Pride

RNA-seq of sorted intestinal stem and Paneth cells

Project description:The impact of Mll1 removal on the intestinal stem cells and its direct effect on neighbouring Paneth cells was evaluated in sorted intestinal stem and Paneth cells from Mll1FC/+; Lgr5-eGFP-CreERT2/+ (control) and Mll1FC/FC; Lgr5-eGFP-CreERT2/+ (knockout) mice, 4 and 10 days after tamoxifen-induced mutagenesis. Using 75-base-pair reads, 30 million reads per sample with comparable unique mapped reads for stem (70-77%) and Paneth (60-76%) cells were obtained. To analyze differentially expressed genes, we applied DESeq2 analysis to the RNA-seq dataset. Analysis by DAVID and GSEA at a false discovery rate (FDR) of 5% was conducted.The stem cell transcriptome revealed that Mll1 knockout stem cells exhibited a decreased expression of several transcription factors and stem cell genes. Additionally, Mll1 ablation in stem cells had an impact on Paneth cells. Downregulation of Paneth cell specific markers indicated a loss of Paneth cell identity.

2021-11-10 | GSE157285 | GEO

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