C-Maf regulates the plasticity of group 3 innate lymphoid cells by restraining the type 1 program [CUT&RUN]
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ABSTRACT:
ORGANISM(S): Mus musculus
PROVIDER: GSE137320 | GEO | 2019/09/13
REPOSITORIES: GEO
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Project description:The transcription factor c-Maf is an essential regulator of group 3 ILC homeostasis and effector plasticity. c-Maf limits acquisition of the type 1 program and conversion to the ILC1 fate through restraint of T-bet expression and function.
2019-09-13 | GSE137319 | GEO
Project description:The transcription factor c-Maf is an essential regulator of group 3 ILC homeostasis and effector plasticity. c-Maf limits acquisition of the type 1 program and conversion to the ILC1 fate through restraint of T-bet expression and function.
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Project description:Innate lymphoid cell (ILC) subsets that mirror helper T cells in their effector cytokine profiles have recently emerged as central players in both homeostatic and inflammatory conditions. Like their Th1, Th2 and Th17/Th22 helper T cell counterparts, ILC subsets are categorized based on their expression of specific transcription factors and effector cytokines: group 1 ILC (ILC1) express T-bet and IFN-γ; group 2 ILC (ILC2) express GATA-3 and type 2 effector cytokines such as IL-13 and IL-5; and group 3 ILC (ILC3) express RORgt and the cytokines IL-22 and/or IL-17. Under this nomenclature, natural killer (NK) cells and lymphoid tissue inducers (LTi) are considered ILC1 and ILC3, respectively. ILC1 contain both CD4+ and CD4- populations, but whether this phenotypic characteristic reflects functional differences between these two populations is unknown. These studies examine the gene expression profiles of CD4+ vs CD4- ILC1 in a cohort of healthy control subjects. ILC subsets were isolated from the peripheral blood of healthy control subjects. cDNA was isolated and amplified from sorted populations, and gene expression was analyzed by RNAseq
2015-12-31 | E-GEOD-69596 | biostudies-arrayexpress
Project description:Subtypes of innate lymphoid cells (ILC), defined by effector function and transcription factor expression, have recently been identified. In the adult, ILC derive from common lymphoid progenitors in bone marrow, although transcriptional regulation of the developmental pathways involved remains poorly defined. TOX is required for development of lymphoid tissue inducer cells, a type of ILC3 required for lymph node organogenesis, and NK cells, a type of ILC1. We show here that production of multiple ILC lineages requires TOX, as a result of TOX-dependent development of common ILC progenitors. Comparative transcriptome analysis demonstrated failure to induce various aspects of the ILC gene program in the absence of TOX, implicating this nuclear factor as a key early determinant of ILC lineage specification. TOX KO vs. wild tyype
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Project description:CCR6- group 3 innate lymphoid cells (ILC3s) are mediators of intestinal immunity and barrier function that possess the capacity to acquire type 1 effector features and fully convert into ILC1s. The molecular mechanisms governing such plasticity are undefined. Here, we identified c-Maf as an essential regulator of ILC3 homeostasis and plasticity that limits physiological ILC1 conversion. Phenotypic analysis of effector status in Maf-deficient CCR6- ILC3s, coupled with evaluation of global changes in transcriptome, chromatin accessibility, and transcription factor motif enrichment, revealed that c-Maf enforces ILC3 identity. c-Maf promoted ILC3 accessibility and supported ROR?t activity and expression of type 3 effector genes. Conversely, c-Maf antagonized type 1 programming, largely through restraint of T-bet expression and function. Mapping of the dynamic changes in chromatin landscape accompanying CCR6- ILC3 development and ILC1 conversion solidified c-Maf as a gatekeeper of type 1 regulatory transformation and a controller of ILC3 fate.
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Project description:Innate lymphoid cells (ILCs) comprise a population of immune cells that promote tissue homeostasis, defense against infections, and inflammatory disease. Yet, the transcriptional control of these functions is not well understood. Here, we leverage an experimental-computational approach for transcriptional regulatory network (TRN) inference, recently validated in an in vitro context, to construct genome-scale TRNs for ILCs isolated ex vivo from the intestine of mice. Chromatin accessibility and gene expression are the key data for our TRN inference method. Thus, we generated ATAC-seq and RNA-seq datasets for ILCs of the small and large intestine to integrate with publicly available ILC genomics data. From our ILC TRN, we predict target genes for hundreds of transcription factors (TFs), recovering both known and novel TF regulators of ILC subtype-specific gene expression patterns. The identified TFs include both activators and repressors of lineage-specific genes. Using KO mice, we validated predictions for two such TFs, MAF and BCL6, as previously unknown regulators affecting the balance of ILC3-ILC1. We additionally demonstrate the utility of our ILC TRN to describe gene expression responses to Bcl6 KO in ILC1, NK and ILC3 and predict TF regulators in each subtype. The ILC TRN and “core” ILC subtype networks are publicly available through an interactive Jupyter-notebook web interface. We anticipate that these maps of ILC subtype-specific transcriptional regulation will serve as an important community resource and lead to the development of new strategies for the control of subtype-specific behaviors, especially in the context of disease.
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Project description:Innate lymphoid cells (ILCs) comprise a population of immune cells that promote tissue homeostasis, defense against infections, and inflammatory disease. Yet, the transcriptional control of these functions is not well understood. Here, we leverage an experimental-computational approach for transcriptional regulatory network (TRN) inference, recently validated in an in vitro context, to construct genome-scale TRNs for ILCs isolated ex vivo from the intestine of mice. Chromatin accessibility and gene expression are the key data for our TRN inference method. Thus, we generated ATAC-seq and RNA-seq datasets for ILCs of the small and large intestine to integrate with publicly available ILC genomics data. From our ILC TRN, we predict target genes for hundreds of transcription factors (TFs), recovering both known and novel TF regulators of ILC subtype-specific gene expression patterns. The identified TFs include both activators and repressors of lineage-specific genes. Using KO mice, we validated predictions for two such TFs, MAF and BCL6, as previously unknown regulators affecting the balance of ILC3-ILC1. We additionally demonstrate the utility of our ILC TRN to describe gene expression responses to Bcl6 KO in ILC1, NK and ILC3 and predict TF regulators in each subtype. The ILC TRN and “core” ILC subtype networks are publicly available through an interactive Jupyter-notebook web interface. We anticipate that these maps of ILC subtype-specific transcriptional regulation will serve as an important community resource and lead to the development of new strategies for the control of subtype-specific behaviors, especially in the context of disease.
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Project description:Innate lymphoid cell (ILC) subsets that mirror helper T cells in their effector cytokine profiles have recently emerged as central players in both homeostatic and inflammatory conditions. Like their Th1, Th2 and Th17/Th22 helper T cell counterparts, ILC subsets are categorized based on their expression of specific transcription factors and effector cytokines: group 1 ILC (ILC1) express T-bet and IFN-γ; group 2 ILC (ILC2) express GATA-3 and type 2 effector cytokines such as IL-13 and IL-5; and group 3 ILC (ILC3) express RORgt and the cytokines IL-22 and/or IL-17. Under this nomenclature, natural killer (NK) cells and lymphoid tissue inducers (LTi) are considered ILC1 and ILC3, respectively. ILC1 contain both CD4+ and CD4- populations, but whether this phenotypic characteristic reflects functional differences between these two populations is unknown. These studies examine the gene expression profiles of CD4+ vs CD4- ILC1 in a cohort of healthy control subjects.
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Project description:We aimed to determine the characteristic of 3 different ILC subsets (ILC1, 2 and 3) isolated from human blood.
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Project description:The precise lineage relationships between innate lymphoid cells (ILC) and the lymphoid tissue inducer (LTi) are poorly understood. Using single-cell multiplex transcriptional analysis of 100 lymphoid genes and single-cell cultures of fetal liver precursor cells, we identified the common proximal precursor to these lineages and showed that its bifurcation was precisely marked by the differential induction of the transcription factors PLZF and TCF1. Acquisition of individual ILC1/2/3-specific effector programs was initiated later, at the common ILC precursor (ILCP) stage, by transient expression of mixed ILC1/2/3 transcriptional patterns whereas, in contrast, LTi development did not go through multilineage priming. These findings provide novel insights into divergent mechanisms of ILC and LTi lineage differentiation and establish a high-resolution map of their development.
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