Journal of Clinical Investigation · 2020 · 88 citations · 62 references
Life SciencesImmunologyMolecular BiologyEpigeneticsGene ExpressionTranscriptional RegulationCell Identity MaintenanceChromatinDevelopmental EpigeneticsEpigenetic Control Of DifferentiationRegulatory T CellsTranscriptional SilencingCell Identity StabilizationDna Methylation MaintenanceDna Methylation PatternsEpigenetic MaintenanceEpigenetic Regulation Of Cell IdentityGlobal Dna HypomethylationRing Finger DomainsSelf-renewal
Tregs require Foxp3 expression and induction of a specific DNA hypomethylation signature during development, after which Tregs persist as a self-renewing population that regulates immune system activation. Whether maintenance DNA methylation is required for Treg lineage development and stability and how methylation patterns are maintained during lineage self-renewal remain unclear. Here, we demonstrate that the epigenetic regulator ubiquitin-like with plant homeodomain and RING finger domains 1 (Uhrf1) is essential for maintenance of methyl-DNA marks that stabilize Treg cellular identity by repressing effector T cell transcriptional programs. Constitutive and induced deficiency of Uhrf1 within Foxp3+ cells resulted in global yet nonuniform loss of DNA methylation, derepression of inflammatory transcriptional programs, destabilization of the Treg lineage, and spontaneous inflammation. These findings support a paradigm in which maintenance DNA methylation is required in distinct regions of the Treg genome for both lineage establishment and stability of identity and suppressive function.
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GREAT improves functional interpretation of cis-regulatory regions
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