Arginine methylation controls cell proliferation by integrating E2F activity with the splicing machinery (RNA-seq data set)
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ABSTRACT:
PROVIDER: PRJNA438683 | ENA |
REPOSITORIES: ENA
Dataset's files
| Action | DRS | |||
|---|---|---|---|---|
| SRR6847880_1.fastq.gz | Fastqsanger.gz | |||
| SRR6847880_2.fastq.gz | Fastqsanger.gz | |||
| SRR6847881_1.fastq.gz | Fastqsanger.gz | |||
| SRR6847881_2.fastq.gz | Fastqsanger.gz | |||
| SRR6847882_1.fastq.gz | Fastqsanger.gz |
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Similar Datasets
Project description:Arginine methylation controls cell proliferation by integrating E2F activity with the splicing machinery
| PRJNA438681 | ENA
Project description:Arginine methylation controls cell proliferation by integrating E2F activity with the splicing machinery (RIP-seq data set)
| PRJNA438684 | ENA
Project description:Residue-specific arginine methylation (meR) on the E2F1 subunit plays an essential role in determining whether cell cycle progression or apoptosis ensues, although the molecular pathways underpinning the effects of methylation remain obscure. We report here that the methylation events on E2F1 have a direct impact on the mechanisms which underpin gene expression control. Specifically, the PRMT5-mediated symR mark not only influences the transcription repertoire of genes targeted by E2F1, but also endows E2F1 with the ability to regulate RNA splicing. This occurs through tudor domain protein p100/TSN which reads the symR mark on E2F1, and thereby enables a distinct set of RNA to be alternatively spliced. The p100/TSN-E2F1 complex binds alternatively spliced RNAs, with many RNAs derived from E2F target genes connected with proliferation and cancer.
2019-07-02 | GSE111960 | GEO
Project description:Residue-specific arginine methylation (meR) on the E2F1 subunit plays an essential role in determining whether cell cycle progression or apoptosis ensues, although the molecular pathways underpinning the effects of methylation remain obscure. We report here that the methylation events on E2F1 have a direct impact on the mechanisms which underpin gene expression control. Specifically, the PRMT5-mediated symR mark not only influences the transcription repertoire of genes targeted by E2F1, but also endows E2F1 with the ability to regulate RNA splicing. This occurs through tudor domain protein p100/TSN which reads the symR mark on E2F1, and thereby enables a distinct set of RNA to be alternatively spliced. The p100/TSN-E2F1 complex binds alternatively spliced RNAs, with many RNAs derived from E2F target genes connected with proliferation and cancer.
2019-07-02 | GSE111959 | GEO
Project description:This SuperSeries is composed of the SubSeries listed below.
2019-07-02 | GSE111961 | GEO
Project description:Recent genome-scale ChIP-chip studies of transcription factors have shown that a low percentage of experimentally determined binding sites contain the consensus motif for the immunoprecipitated factor. In most cases, differences between in vivo target sites that contain or lack a consensus motif have not been explored. We have previously shown that most sites to which E2F family members are bound in vivo do not contain E2F consensus motifs. The main purpose of this study was to develop an understanding of how E2F binding specificity is achieved in vivo. In particular, we have addressed how E2F family members are recruited to core promoter regions that lack a consensus motif and are excluded from other regions that contain a consensus motif. Using promoter and ENCODE arrays, we have shown that the predominant factors specifying whether E2F is recruited to an in vivo binding site are a) the site must be in a core promoter and b) the promoter region must be utilized as a promoter by the transcriptional machinery in that particular cell type. We have tested three models for recruitment of E2F to core promoters lacking a consensus site, including a) indirect recruitment, b) looping to the core promoter mediated by an E2F bound to a distal consensus motif, and c) assisted binding of E2F to a site that weakly resembles an E2F consensus motif within the core promoter. To test these models, we developed a new in vivo assay, termed eChIP, which allows analysis of transcription factor binding to isolated promoter fragments. Our findings suggest that in vivo a) the presence of a consensus motif is not sufficient to recruit E2Fs, b) E2Fs can bind to isolated regions that lack a consensus motif, and c) binding can require regions other than the best match to the E2F PWM in the core promoter. Keywords: E2F, ChIP-chip, transcription factor binding, consensus motifs 37 ChIP-chip arrays (of these, 14 array sets are biological duplicates). 22 samples are included in this series, the rest can be found in supplementary info to the following papers: Xu 2007, Jin 2006, Komashko 2008
2008-10-01 | E-GEOD-12126 | biostudies-arrayexpress
Project description:The retinoblastoma protein (pRB) is best known for regulating cell proliferation through E2F transcription factors. In this report we investigate the properties of a targeted mutation that disrupts pRB interactions with the transactivation domain of E2Fs. Mice that carry this mutation endogenously (Rb1DeltaG) are defective in regulating E2F target genes. Surprisingly, cell cycle regulation in Rb1DeltaG/DeltaG MEFs strongly resembles that of wild type. In a serum deprivation induced cell cycle exit, Rb1DeltaG/DeltaG MEFs display a similar magnitude of E2F target gene derepression as Rb1-/-, even though Rb1DeltaG/DeltaG cells exit the cell cycle normally. Interestingly, cell cycle arrest in Rb1DeltaG/DeltaG MEFs is responsive to p16 expression, indicating that the DeltaG-pRB protein can be activated in G1 to arrest proliferation through non-E2F mechanisms. Some Rb1DeltaG/DeltaG mice die neonatally with a muscle degeneration phenotype, while the others live a normal lifespan with no evidence of spontaneous tumor formation. Histological analysis reveals discrete examples of hyperplasia in the mammary epithelium, but most tissues appear normal while being accompanied by derepression of pRB regulated E2F targets. This suggests that non-E2F, pRB dependent pathways may have a more relevant role in proliferative control than previously identified. Total RNA was extracted from littermate paired WT, DeltaG and null MEFs induced to enter quiencense by Serum deprivation. Expresssion levels were analyzed by Affymetrix GeneChip Mouse Gene 1.0ST Array. Relative expression was determined by BRB-Array Tools software to generate RMA values.
2014-04-14 | E-GEOD-54924 | biostudies-arrayexpress
Project description:E2F activity impacts on an extensive gene network mediated in part by PRMT5-dependent arginine methylation which widens its functional role in gene expression control. We show here that the PRMT5-E2F1 axis has an additional and unexpected level of control through facilitating expression of the non-coding genome where long non-coding (lnc) genes are direct targets for PRMT5 and E2F1. The expression of some lncRNAs results in their translation into small proteins, which then give rise to peptides which populate the MHC class I antigen presentation machinery. Pharmacological inhibition of PRMT5 alters the expression of lncRNA genes and thereby the repertoire lncRNA-derived peptides presented as MHC bound peptides. Delayed tumor growth upon PRMT5 inhibition reflects an influx of lncRNA peptide-specific cytotoxic CD8 T cells. When presented to the immune system as a stand-alone therapeutic vaccine, lncRNA-derived MHC-bound peptides are immunogenic and drive a potent anti-tumor T cell response with a significant delay in tumor growth. Our results show that the PRMT5 through its control of the E2F pathway influences expression of the non-coding genome and derived peptides presented to the immune system, which can subsequently be harnessed to deliver an effective stand-alone cancer vaccine. These results have important implications for deploying pharmacological intervention to manipulate gene expression and antigen presentation to the immune system and deploying new types of cancer vaccine. They also indicate that cell cycle control through the E2F pathway is intimately connected with immune recognition.
2023-01-26 | GSE181401 | GEO
Project description:Recent genome-scale ChIP-chip studies of transcription factors have shown that a low percentage of experimentally determined binding sites contain the consensus motif for the immunoprecipitated factor. In most cases, differences between in vivo target sites that contain or lack a consensus motif have not been explored. We have previously shown that most sites to which E2F family members are bound in vivo do not contain E2F consensus motifs. The main purpose of this study was to develop an understanding of how E2F binding specificity is achieved in vivo. In particular, we have addressed how E2F family members are recruited to core promoter regions that lack a consensus motif and are excluded from other regions that contain a consensus motif. Using promoter and ENCODE arrays, we have shown that the predominant factors specifying whether E2F is recruited to an in vivo binding site are a) the site must be in a core promoter and b) the promoter region must be utilized as a promoter by the transcriptional machinery in that particular cell type. We have tested three models for recruitment of E2F to core promoters lacking a consensus site, including a) indirect recruitment, b) looping to the core promoter mediated by an E2F bound to a distal consensus motif, and c) assisted binding of E2F to a site that weakly resembles an E2F consensus motif within the core promoter. To test these models, we developed a new in vivo assay, termed eChIP, which allows analysis of transcription factor binding to isolated promoter fragments. Our findings suggest that in vivo a) the presence of a consensus motif is not sufficient to recruit E2Fs, b) E2Fs can bind to isolated regions that lack a consensus motif, and c) binding can require regions other than the best match to the E2F PWM in the core promoter. Keywords: E2F, ChIP-chip, transcription factor binding, consensus motifs
2008-10-01 | GSE12126 | GEO
Project description:The retinoblastoma protein (pRB) is best known for regulating cell proliferation through E2F transcription factors. In this report we investigate the properties of a targeted mutation that disrupts pRB interactions with the transactivation domain of E2Fs. Mice that carry this mutation endogenously (Rb1∆G) are defective in regulating E2F target genes. Surprisingly, cell cycle regulation in Rb1∆G/∆G MEFs strongly resembles that of wild type. In a serum deprivation induced cell cycle exit, Rb1∆G/∆G MEFs display a similar magnitude of E2F target gene derepression as Rb1-/-, even though Rb1∆G/∆G cells exit the cell cycle normally. Interestingly, cell cycle arrest in Rb1∆G/∆G MEFs is responsive to p16 expression, indicating that the ΔG-pRB protein can be activated in G1 to arrest proliferation through non-E2F mechanisms. Some Rb1∆G/∆G mice die neonatally with a muscle degeneration phenotype, while the others live a normal lifespan with no evidence of spontaneous tumor formation. Histological analysis reveals discrete examples of hyperplasia in the mammary epithelium, but most tissues appear normal while being accompanied by derepression of pRB regulated E2F targets. This suggests that non-E2F, pRB dependent pathways may have a more relevant role in proliferative control than previously identified.
2014-04-14 | GSE54924 | GEO