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PRAMEL7 and CUL2 decrease NuRD stability to establish ground-state pluripotency

ABSTRACT: PRAMEL7 and CUL2 decrease NuRD stability to establish ground-state pluripotency

PROVIDER: PRJNA889810 | ENA |

REPOSITORIES: ENA

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			Action	DRS
	SRR21879163.fastq.gz	Fastqsanger.gz
	SRR21879164.fastq.gz	Fastqsanger.gz
	SRR21879165.fastq.gz	Fastqsanger.gz
	SRR21879166.fastq.gz	Fastqsanger.gz
	SRR21879167.fastq.gz	Fastqsanger.gz

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PRAMEL7 and CUL2 decrease NuRD stability to establish ground-state pluripotency

Project description:Pluripotency is established in E4.5 preimplantation epiblast. Embryonic stem cells (ESCs) represent the immortalization of pluripotency, however, they only partially resemble the gene expression signature of developmental ground-state. Induced PRAMEL7 expression, a protein highly expressed in the ICM but lowly expressed in ESCs, reprograms developmentally advanced ESC+serum into ground-state pluripotency by inducing a gene expression signature close to developmental ground-state. However, how PRAMEL7 reprograms gene expression remains elusive. Here we show that PRAMEL7 associates with Cullin2 (CUL2) and this interaction is required to establish ground-state gene expression. PRAMEL7 recruits CUL2 to chromatin and targets for proteasomal degradation regulators of repressive chromatin, including NuRD complex. PRAMEL7 antagonizes NuRD-mediated repression of genes implicated in pluripotency by decreasing NuRD stability and promoter association in a CUL2-dependent manner. Our data link proteasome degradation pathways to ground-state gene expression, offering insights to generate in vitro models to reproduce the in vivo ground-state pluripotency.

2024-01-08 | GSE215339 | GEO

PRAMEL7 and CUL2 decrease NuRD stability to establish ground-state pluripotency.

Project description:Pluripotency is established in E4.5 preimplantation epiblast. Embryonic stem cells (ESCs) represent the immortalization of pluripotency, however, their gene expression signature only partially resembles that of developmental ground-state. Induced PRAMEL7 expression, a protein highly expressed in the ICM but lowly expressed in ESCs, reprograms developmentally advanced ESC+serum into ground-state pluripotency by inducing a gene expression signature close to developmental ground-state. However, how PRAMEL7 reprograms gene expression remains elusive. Here we show that PRAMEL7 associates with Cullin2 (CUL2) and this interaction is required to establish ground-state gene expression. PRAMEL7 recruits CUL2 to chromatin and targets regulators of repressive chromatin, including the NuRD complex, for proteasomal degradation. PRAMEL7 antagonizes NuRD-mediated repression of genes implicated in pluripotency by decreasing NuRD stability and promoter association in a CUL2-dependent manner. Our data link proteasome degradation pathways to ground-state gene expression, offering insights to generate in vitro models to reproduce the in vivo ground-state pluripotency.

| S-EPMC10933316 | biostudies-literature

PRAMEL7 and CUL2 decrease NuRD stability to establish ground-state pluripotency

Project description:Pluripotency is established in E4.5 preimplantation epiblast. Embryonic stem cells (ESCs) represent the immortalization of pluripotency, however, their gene expression signature only partially resembles that of developmental ground-state. Induced PRAMEL7 expression, a protein highly expressed in the ICM but lowly expressed in ESCs, reprograms developmentally advanced ESC+serum into ground-state pluripotency by inducing a gene expression signature close to developmental ground-state. However, how PRAMEL7 reprograms gene expression remains elusive. Here we show that PRAMEL7 associates with Cullin2 (CUL2) and this interaction is required to establish ground-state gene expression. PRAMEL7 recruits CUL2 to chromatin and targets regulators of repressive chromatin, including the NuRD complex, for proteasomal degradation. PRAMEL7 antagonizes NuRD-mediated repression of genes implicated in pluripotency by decreasing NuRD stability and promoter association in a CUL2-dependent manner. Our data link proteasome degradation pathways to ground-state gene expression, offering insights to generate in vitro models to reproduce the in vivo ground-state pluripotency.

| S-SCDT-10_1038-S44319-024-00083-Z | biostudies-other

High-Resolution Dissection of Conducive Somatic Cell Reprogramming to Naïve Ground State Pluripotency in Mbd3/NuRD and Gatad2a/NuRD Depleted Systems

Project description:High-Resolution Dissection of Conducive Somatic Cell Reprogramming to Naïve Ground State Pluripotency in Mbd3/NuRD and Gatad2a/NuRD Depleted Systems

| PRJNA397919 | ENA

High-Resolution Dissection of Conducive Somatic Cell Reprogramming to Naïve Ground State Pluripotency in Mbd3/NuRD and Gatad2a/NuRD Depleted Systems [WGBS]

Project description:High-Resolution Dissection of Conducive Somatic Cell Reprogramming to Naïve Ground State Pluripotency in Mbd3/NuRD and Gatad2a/NuRD Depleted Systems [WGBS]

| PRJNA412228 | ENA

High-Resolution Dissection of Conducive Somatic Cell Reprogramming to Naïve Ground State Pluripotency in Mbd3/NuRD and Gatad2a/NuRD Depleted Systems [RRBS]

Project description:High-Resolution Dissection of Conducive Somatic Cell Reprogramming to Naïve Ground State Pluripotency in Mbd3/NuRD and Gatad2a/NuRD Depleted Systems [RRBS]

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High-Resolution Dissection of Conducive Somatic Cell Reprogramming to Naïve Ground State Pluripotency in Mbd3/NuRD and Gatad2a/NuRD Depleted Systems [smallRNA-Seq]

Project description:High-Resolution Dissection of Conducive Somatic Cell Reprogramming to Naïve Ground State Pluripotency in Mbd3/NuRD and Gatad2a/NuRD Depleted Systems [smallRNA-Seq]

| PRJNA479422 | ENA

Pramel7-Cul2 axis establishes ground-state gene expression in embryonic stem cells

Project description:Pluripotency is established in E4.5 preimplantation epiblast, the founder populations of the adult embryo. The establishment of in vitro models that closely resemble ground-state pluripotency represents an important opportunity to study early embryo development. Pramel7, a protein highly expressed in the inner cell mass (ICM) but expressed at low levels in embryonic stem cells (ESCs), was implicated in the establishment of ground-state pluripotency. Increasing Pramel7 expression in developmentally advanced ESC+serum causes global DNA hypomethylation and induces a gene expression signature close to developmental ground-state. However, how Pramel7 affects gene expression remains elusive. Here we show that Pramel7 associates and recruits to chromatin Cullin2 (Cul2), a component of Cullin2-RING E3 ubiquitin ligase complex that is implicated in proteasomal degradation of target substrates. Pramel7-Cul2 interaction is required for the establishment of ground-state gene expression signature. We show that Pramel7/Cul2 directly target many components of repressive chromatin, including components of the Nucleosome Remodelling and Deacetylase (NuRD) complex, for degradation. We identified a set of Pramel7-regulated genes that depend on Cul2 and associate with the NuRD component Chd4. The majority of these genes are upregulated in ESCs expressing Pramel7 and linked to pluripotency pathways. Finally, we show that Chd4 binding to these genes is impaired by Pramel7 in a Cul2-dependent manner. Our data link proteasome pathway to the establishment of ground-state gene expression, offering insights that could facilitate the establishment of in vitro models to reproduce the in vivo ground-state pluripotency.

2024-01-08 | PXD032184 | Pride

NuRD facilitates lineage decisions in human pluripotent cells

Project description:Differentiation of mammalian pluripotent cells involves large-scale changes in transcription and, among the molecules that orchestrate these changes, chromatin remodellers are essential to initiate, establish and maintain a new gene regulatory network. The NuRD complex is a highly conserved chromatin remodeller which fine-tunes gene expression in embryonic stem cells. While the function of NuRD in mouse pluripotent cells has been well defined, no study yet has defined NuRD function in human pluripotent cells. We investigated the structure and function of NuRD in human induced pluripotent stem cells (hiPSCs). Using immunoprecipitation followed by mass-spectrometry in hiPSCs and in naive or primed mouse pluripotent stem cells, we find that NuRD structure and biochemical interactors are generally conserved. Using RNA sequencing, we find that, whereas in mouse primed stem cells and in mouse naive ES cells, NuRD is required for an appropriate level of transcriptional response to differentiation signals, hiPSCs require NuRD to initiate these responses. This difference indicates that mouse and human cells interpret and respond to induction of differentiation differently.

2020-05-04 | PXD016967 | Pride

Disruption of the MBD2-NuRD complex but not MBD3-NuRD induces high level HbF expression in human adult erythroid cells

Project description:As high fetal hemoglobin (HbF) levels ameliorate the underlying pathophysiologic defects in sickle cell anemia and β-thalassemia, understanding the mechanisms that enforce silencing of HbF postnatally offers the promise of effective molecular therapy. Depletion of Methyl cytosine Binding Domain protein 2 (MBD2) causes a 10-20 fold increase in γ-globin gene expression in adult β-YAC transgenic mice. To determine the effect of MBD2 depletion in human erythroid cells, CRISPR-Cas9 mediated knockout (KO) was carried out in Human Umbilical cord Derived Erythroid Progenitor-2 (HUDEP-2) erythroid cells resulting in γ/γ+β mRNA levels of ~50% and ~40% HbF by HPLC. In contrast, MBD3 KO had no appreciable effect on γ-globin mRNA. Knockdown (Kd) of MBD2 in primary adult erythroid cells consistently increased γ/γ+β mRNA ratios by ~10-fold resulting in ~30-40% γ/γ+β mRNA levels and a corresponding increase in γ-globin protein. MBD2 exerts its repressive effects through recruitment of the CHD4 chromatin remodeling component of NuRD through a coiled-coil (CC) domain, and the histone deacetylase (HDCC) component via an intrinsically disordered region (IDR). Enforced expression of wild-type MBD2 in MBD2KO HUDEP-2 cells caused a 5-fold decrease in γ-globin mRNA while neither the CC mutant nor the IDR mutant MBD2 proteins had an inhibitory effect. Consistently, co-immunoprecipitation assays showed that the CC and IDR domain mutations disrupt NuRD complex formation by dissociating the CHD4 and HDCC domains respectively. These results establish MBD2-NuRD as a major silencer of HbF in human erythroid cells and point to the CC and IDR domains of MBD2-NuRD as potential therapeutic targets.

2020-01-27 | GSE121992 | GEO

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