Lung mesenchymal cells with lung-mesenchyme specific deletion of Sin3a
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ABSTRACT:
PROVIDER: PRJNA1031999 | ENA |
REPOSITORIES: ENA
Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| SRR26512609_1.fastq.gz | Fastqsanger.gz | |||
| SRR26512609_2.fastq.gz | Fastqsanger.gz | |||
| SRR26512610_1.fastq.gz | Fastqsanger.gz | |||
| SRR26512610_2.fastq.gz | Fastqsanger.gz | |||
| SRR26512611_1.fastq.gz | Fastqsanger.gz |
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Project description:Congenital diaphragmatic hernia (CDH) is a common and severe congential malformation characterized by defects in diaphragm, lung, and pulmonary vascular developent. Despite the frequency and severity of CDH, the underlying developmental mechanisms are not understood. We identified SIN3A loss of function sequence variants in two patients with CDH. To understand the genetic and developmental mechanisms of CDH, we generated Sin3a conditional knockout mice that lack Sin3a expression in the lung mesenchyme. SIN3A has been shown to play a critcal role during development, directing cell lineage specification and cell cycling. We found mesenchymal progenitor cells in Sin3a CKO mice have altered expression of cell cycle progression genes from bulk lung transcriptomic analysis. To investigate changes in gene expression that occur specifically in lung mesenchymal cells, we performed fluorescent activated cell sorting (FACS) to isolate cells that underwent recombination of Sin3a. We then performed transcriptomic analysis on sorted mesenchymal cells from embryonic day 16 (E16) Sin3a CKO and control lungs. In this dataset are expression data from FACS-isolated recombined lung mesenchymal cells of Sin3a CKO and control mice. Sin3a CKO mice have conditional deletion of Sin3a in the lung mesenchyme directed by Tbx4rtta; tetocre (Tbx4rtta; tetocre; Sin3a flox/flox CKO). Control mice are heterozygous for Sin3a in the lung mesenchyme (Tbx4rtta; tetocre; Sin3a flox/WT). These data were used to identify transcriptional changes due to loss of Sin3a in the lung mesenchyme.
2023-12-31 | GSE246184 | GEO
Project description:Congenital diaphragmatic hernia (CDH) is a common and severe congential malformation characterized by defects in diaphragm, lung, and pulmonary vascular developent. Despite the frequency and severity of CDH, the underlying developmental mechanisms are not understood. We identified SIN3A loss of function sequence variants in two patients with CDH. To understand the genetic and developmental mechanisms of CDH, we generated Sin3a conditional knockout mice that lack Sin3a expression in the lung mesenchyme. SIN3A has been shown to play a critcal role during development, directing cell lineage specification and cell cycling. We found that loss of SIN3A resulted in impaired mesenchymal cell differentiation from bulk lung transcriptomic analysis in Sin3a CKO mice. To investigate the impact of loss of SIN3A in mesenchymal cell differentation, we performed fluorescent activated cell sorting (FACS) to isolate cells that underwent recombination of Sin3a. We then performed single-cell transcriptomic analysis on sorted mesenchymal cells from embryonic day 16 (E16) Sin3a CKO and control lungs. In this dataset are expression data from FACS-isolated recombined lung mesenchymal cells of Sin3a CKO and control mice. Sin3a CKO mice have conditional deletion of Sin3a in the lung mesenchyme directed by Tbx4rtta; tetocre (Tbx4rtta; tetocre; Sin3a flox/flox CKO). Control mice are heterozygous for Sin3a in the lung mesenchyme (Tbx4rtta; tetocre; Sin3a flox/WT). These data were used to identify transcriptional changes due to loss of Sin3a in the lung mesenchyme.
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Project description:Transcriptomic analysis of lung mesenchymal cells with lung-mesenchyme specific deletion of Sin3a
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Project description:Single-cell transcriptomic analysis of lung mesenchymal cells with mesenchyme-specific deletion of transcriptional regulator Sin3a
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Project description:Congenital diaphragmatic hernia (CDH) is a common and severe congential malformation characterized by defects in diaphragm, lung, and pulmonary vascular developent. Despite the frequency and severity of CDH, the underlying developmental mechanisms are not understood. We identified SIN3A loss of function sequence variants in two patients with CDH. To understand the genetic and developmental mechanisms of CDH, we generated Sin3a conditional knockout mice that lack Sin3a expression in the lung mesenchyme. SIN3A plays a critcal role during development, directing cell lineage specification and cell cycling. Despite this role, SIN3A sequence variants have not been reported in patients with CDH or other congential malformations. We found that Sin3a CKO mice have abnormal lung stucture at birth into adulthood. To determine the role of Sin3a in lung mesenchymal development, we performed transcriptomic analysis of Sin3a CKO and control lungs at embryonic day 16 (E16) when cell cycling defects were first evident, postnatal day 0 (P0) when lung defects were first evident, and P3 when lung phenotyopes worsened. In this dataset are expression data from dissected embryonic and postnatal lungs of Sin3a CKO and control mice. Sin3a CKO mice have conditional deletion of Sin3a in the lung mesenchyme directed by Tbx4rtta; tetocre (Tbx4rtta; tetocre; Sin3a flox/flox CKO). Control mice are heterozygous for Sin3a in the lung mesenchyme (Tbx4rtta; tetocre; Sin3a flox/WT). These data were used to identify transcriptional changes due to loss of Sin3a in the lung mesenchyme.
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Project description:Comparison of global transcription profiles in mouse E12.5 embryonic lung from Shh-Cre;Sin3a flox/+ control with Shh-Cre;Sin3a flox/flox revealed a large change genes due to loss of Sin3a in early lung development.
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Project description:The lung mesenchyme plays important roles in lung development and is affected in many respiratory diseases, yet relatively little is known about the biology of lung mesenchymal progenitors. We sought to establish an induced pluripotent stem cell (iPSC)-based model to study lung mesenchyme development and epithelial-mesenchymal interactions. We generated a mouse iPSC line carrying a lung mesenchyme-specific reporter/tracer to establish a protocol for differentiation into lung mesenchymal progenitors. We derived lung mesenchyme from iPSCs both by directed differentiation via a lateral plate mesodermal progenitor state (induced lung mesenchyme, iLM), and by co-development during lung epithelial differentiation (co-developed lung mesenchyme, cLM). We found that directed differentiation via a lateral plate mesoderm progenitor was not only more efficient, but also yielded engineered lung mesenchymal cells that were more similar to primary lung mesenchyme from day 12.5 mouse embryos, as determined by single cell RNAseq. Our iPSC-derived population will provide an inexhaustible source of cells for studying lung development, modeling diseases, and developing therapeutics.
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Project description:Co-cultures of lung epithelium and mesenchyme are useful tools to study epithelial-mesenchymal crosstalk in lung development and disease. However, many previous attempts to generate such co-cultures have yielded poor juxtaposition between the epithelial and the mesenchymal lineage. In addition, induced pluripotent stem cell (iPSC)-derived co-cultures often contain generic mesenchyme that is not necessarily lung-specific. We sought to establish co-cultures of purified mouse iPSC-derived lung-specific mesenchyme and iPSC-derived lung epithelial progenitors. We used a mouse iPSC line carrying a lung mesenchyme-specific reporter/tracer (Tbx4-LERGFP) to generate lung mesenchymal progenitors by directed differentiation via a lateral plate mesodermal progenitor state (induced lung mesenchyme, iLM). In parallel we differentiated a mouse embryonic stem (ES) cell line carrying a Nkx2-1mCherry reporter into lung epithelial progenitor cells using our established directed differentiation protocol. We then combined the purified lung epithelial and mesenchymal progenitor cells and co-cultured them in distal or proximal differentiation media for 1 week on Matrigel. We find that cells self-organize into complex 3-dimensional organoids with closely juxtaposed epithelial and mesenchymal cells. Furthermore, co-culture affects the molecular phenotype of both lineages. Our iPSC-derived co-culture model can provide an inexhaustible source of cells for studying lung development, modeling diseases, and developing therapeutics.
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Project description:Foxp3 (forkhead box protein 3) functions as the master transcriptional regulator of Treg phenotype. Histone deacetylases 1 and 2 (HDAC1/2) contribute to the regulation of FoxP3 expression via interactions with a myriad of co-regulatory factors. While the nuclear scaffolding protein, Sin3a, has been well established as a co-factor of HDAC1/2, its role within FoxP3+ Tregs has not been. We analyzed the effects of conditional deletion of Sin3a in Foxp3+ Treg cells using three orthogonal approaches. Deletion of Sin3a from FoxP3+ Tregs resulted in the rapid onset of severe and fatal autoimmunity mirroring the phenotype of Scurfy mice. Numbers of Tregs were greatly reduced, residual Tregs had virtually complete loss of suppressive function, and inducible Treg production was blocked. Mice also showed activation of effector T cells, autoantibody production and widespread tissue injury. Mechanistically, Sin3a deletion resulted in decreased transcription of Foxp3 and other Treg signature genes. The reduction of Foxp3 expression was accompanied by the reduction of TET1 and 3 expression and a complete lack of CpG demethylation of the Foxp3 enhancer region CNS2. In addition, Foxp3 protein stability was impaired and fate mapping studies showed conversion of Tregs to ex-Tregs and increased rates of programmed cell death. Thus, Sin3a plays a critical role in the maintenance of Treg identity and function and is essential for the expression and stability of Foxp3.
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