ScRNA-sequencing reveals new enteric nervous system roles for GDNF, NRTN, and TBX3
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ABSTRACT:
PROVIDER: PRJNA659493 | ENA |
REPOSITORIES: ENA
Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| SRR12520100.fastq.gz | Fastqsanger.gz | |||
| SRR12520101.fastq.gz | Fastqsanger.gz | |||
| SRR12520102.fastq.gz | Fastqsanger.gz | |||
| SRR12520103.fastq.gz | Fastqsanger.gz | |||
| SRR12520104.fastq.gz | Fastqsanger.gz |
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2021-01-01 | GSE156905 | GEO
Project description:Background and aimsBowel function requires coordinated activity of diverse enteric neuron subtypes. Our aim was to define gene expression in these neuron subtypes to facilitate development of novel therapeutic approaches to treat devastating enteric neuropathies, and to learn more about enteric nervous system function.MethodsTo identify subtype-specific genes, we performed single-nucleus RNA-seq on adult mouse and human colon myenteric plexus, and single-cell RNA-seq on E17.5 mouse ENS cells from whole bowel. We used immunohistochemistry, select mutant mice, and calcium imaging to validate and extend results.ResultsRNA-seq on 635 adult mouse colon myenteric neurons and 707 E17.5 neurons from whole bowel defined seven adult neuron subtypes, eight E17.5 neuron subtypes and hundreds of differentially expressed genes. Manually dissected human colon myenteric plexus yielded RNA-seq data from 48 neurons, 3798 glia, 5568 smooth muscle, 377 interstitial cells of Cajal, and 2153 macrophages. Immunohistochemistry demonstrated differential expression for BNC2, PBX3, SATB1, RBFOX1, TBX2, and TBX3 in enteric neuron subtypes. Conditional Tbx3 loss reduced NOS1-expressing myenteric neurons. Differential Gfra1 and Gfra2 expression coupled with calcium imaging revealed that GDNF and neurturin acutely and differentially regulate activity of ∼50% of myenteric neurons with distinct effects on smooth muscle contractions.ConclusionSingle cell analyses defined genes differentially expressed in myenteric neuron subtypes and new roles for TBX3, GDNF and NRTN. These data facilitate molecular diagnostic studies and novel therapeutics for bowel motility disorders.
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Project description:The enteric nervous system (ENS) can control most essential gut functions owing to its organization into complete neural circuits consisting of a multitude of different neuronal subtypes. We used microarrays to identify transcription factor networks and signaling pathways involved in diversification and differentiation of enteric neurons during development of the enteric nervous system.
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Project description:To identify the gene expression profile of enteric glia and assess the transcriptional similarity between enteric and extraenteric glia, we performed RNA sequencing analysis on PLP1-expressing cells in the mouse intestine. This analysis shows that enteric glia are transcriptionally unique and distinct from other cell types in the nervous system. Enteric glia express many genes characteristic of the myelinating glia, Schwann cells and oli- godendrocytes, although there is no evidence of myelination in the murine ENS. Total RNA expression profiles of PLP1 expressing enteric glial cells (GFP+) and non-glial cells (GFP-negative) were obtained from the ileum and colon of juvenile PLP1-eGFP transgenic mice.
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Project description:Enteric glia are the predominant cell type in the enteric nervous system yet their identities and roles in gastrointestinal function are not well classified. Using our optimized single nucleus RNA-sequencing method, we identified distinct molecular classes of enteric glia and defined their morphological and spatial diversity. Our findings revealed a functionally specialized biosensor subtype of enteric glia that we call “hub cells.” Deletion of the mechanosensory ion channel PIEZO2 from adult enteric glial hub cells, but not other subtypes of enteric glia, led to defects in intestinal motility and gastric emptying in mice. These results provide insight into the multifaceted functions of different enteric glial cell subtypes in gut health and emphasize that therapies targeting enteric glia could advance the treatment of gastrointestinal diseases.
2023-09-08 | GSE232703 | GEO
Project description:Purpose: Determine how blocking retinoic acid receptor (RAR) signaling within enteric neural crest-derived cells (ENCDC) from E11.5 stomach or E13.5 colon alters mRNA abundance. These ENCDC become the enteric nervous system. Methods: Enteric nervous system precursors were isolated from mouse E11.5 stomach or E13.5 colon using fluorescence activated cell sorting to purify TdTomato or EYFP expressing cells respectively from fetal bowel. The RarαDN allele encodes a potent RAR dominant negative protein that is expressed after CRE-mediated DNA recombination. Tamoxifen-activated CRE-ERT2 was expressed from the Ret locus for E13.5 colon studies and mice were tamoxifen treated at E10.5 prior to cell sorting. The Wnt1Cre allele was employed for E11.5 stomach studies. RNA-SEQ was performed in quadruplicate using Illumina HiSeq 4000. Sequence reads that passed quality filters were aligned to remove repeat sequences and ribosomal RNA reads and then processed using RNA-Seq unified mapper (RUM) package. RUM files were visualized in the TessLA browser for subsequent analyses. Results: Transcriptional profiling shows RarαDN differentially impacts gene expression in E11.5 stomach and E13.5 colon enteric neural crest-derived cells (ENCDC) that become the enteric nervous system. Conclusions: Blocking of RAR signaling in ENCDC causes dramatic changes in gene expression during early development in a stage-specific manner.
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