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TET activity propagates transcriptional memory through embryonic dormancy [RNA-seq]

ABSTRACT: TET activity propagates transcriptional memory through embryonic dormancy [RNA-seq]

PROVIDER: PRJNA1027433 | ENA |

REPOSITORIES: ENA

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			Action	DRS
	SRR26370701_1.fastq.gz	Fastqsanger.gz
	SRR26370701_2.fastq.gz	Fastqsanger.gz
	SRR26370702_1.fastq.gz	Fastqsanger.gz
	SRR26370702_2.fastq.gz	Fastqsanger.gz
	SRR26370703_1.fastq.gz	Fastqsanger.gz

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TET activity propagates transcriptional memory through embryonic dormancy

Project description:TET activity propagates transcriptional memory through embryonic dormancy

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TET activity propagates transcriptional memory through embryonic dormancy [WGBS]

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TET activity propagates transcriptional memory through embryonic dormancy

Project description:Dormancy is an essential biological process for the propagation of many life forms through generations and stressful conditions. Early embryos of many mammals are preservable for weeks to months within the uterus under dormancy, which can be induced in vitro through mTOR inhibition. Dormancy features silencing of the genome and abundant heterochromatin formation, which conflicts with the permissive and uncommitted genomic profile of pluripotent cells. Cellular strategies to maintain pluripotency in the fate of this conflict are not known. Here we probed chromatin regulation during embryonic stem cells’ (ESC) entry into dormancy to identify mechanisms that ensure faithful propagation of cellular identity through dormancy. We show a global increase in DNA methylation and loss of chromatin accessibility in dormant ESCs and find that TET DNA demethylases are essential to counteract this trend at key pluripotency regulatory elements, particularly at young LINE1 repeats and active enhancers. Demethylation of these targets by TETs is essential for transcription factor (TF) recruitment and transient chromatin decondensation before hypercompaction. We propose that key regulatory elements are bookmarked coordinately by TETs and TFs in dormancy for maintenance of cellular identity. Perturbation of TET activity compromises embryo survival through dormancy; whereas its enhancement improves survival rates. Our results reveal the first essential chromatin regulator in establishing mammalian embryonic dormancy and pave the way to building its temporal regulatory code in embryonic and adult tissues.

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TET activity propagates transcriptional memory through embryonic dormancy [ATAC-Seq]

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TET activity propagates transcriptional memory through embryonic dormancy [RNA-Seq]

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TET activity propagates transcriptional memory through embryonic dormancy [CUT&TAG]

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TET activity propagates transcriptional memory through embryonic dormancy [CUT&Tag]

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TET activity propagates transcriptional memory through embryonic dormancy [FLASH - RNA-Seq]

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TET activity propagates transcriptional memory through embryonic dormancy [WGBS]

Project description:Dormancy is an essential biological process for the propagation of many life forms through generations and stressful conditions. Early embryos of many mammals are preservable for weeks to months within the uterus under dormancy, which can be induced in vitro through mTOR inhibition. Dormancy features silencing of the genome and abundant heterochromatin formation, which conflicts with the permissive and uncommitted genomic profile of pluripotent cells. Cellular strategies to maintain pluripotency in the fate of this conflict are not known. Here we probed chromatin regulation during embryonic stem cells’ (ESC) entry into dormancy to identify mechanisms that ensure nsure faithful propagation of cellular identity through dormancy. We show a global increase in DNA methylation and loss of chromatin accessibility in dormant ESCs and find that TET DNA demethylases are essential to counteract this trend at key pluripotency regulatory elements. Perturbation of TET activity compromises transcriptional programs and embryo survival through dormancy; whereas its enhancement improves survival rates. We propose that key regulatory elements are bookmarked coordinately by TETs and transcription factors in dormancy for maintenance of cellular identity. Our results reveal the first essential chromatin regulator in establishing mammalian dormancy and paves the way to building its temporal regulatory code in embryonic and adult tissues.

2024-03-19 | GSE221469 | GEO

TET activity propagates transcriptional memory through embryonic dormancy [CUT&TAG]

Project description:Dormancy is an essential biological process for the propagation of many life forms through generations and stressful conditions. Early embryos of many mammals are preservable for weeks to months within the uterus under dormancy, which can be induced in vitro through mTOR inhibition. Dormancy features silencing of the genome and abundant heterochromatin formation, which conflicts with the permissive and uncommitted genomic profile of pluripotent cells. Cellular strategies to maintain pluripotency in the fate of this conflict are not known. Here we probed chromatin regulation during embryonic stem cells’ (ESC) entry into dormancy to identify mechanisms that ensure nsure faithful propagation of cellular identity through dormancy. We show a global increase in DNA methylation and loss of chromatin accessibility in dormant ESCs and find that TET DNA demethylases are essential to counteract this trend at key pluripotency regulatory elements. Perturbation of TET activity compromises transcriptional programs and embryo survival through dormancy; whereas its enhancement improves survival rates. We propose that key regulatory elements are bookmarked coordinately by TETs and transcription factors in dormancy for maintenance of cellular identity. Our results reveal the first essential chromatin regulator in establishing mammalian dormancy and paves the way to building its temporal regulatory code in embryonic and adult tissues.

2024-03-19 | GSE245230 | GEO

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