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Regulation of the mouse heart transcriptome by Celf1

ABSTRACT: The CUG-BP and ETR-3-like factor 1 (Celf1) RNA binding protein plays an important role in heart and muscle development, and is over-expressed in the disease myotonic dystrophy. Celf1 has known roles in regulation of RNA splicing, RNA stability, and protein translation. To identify transcriptome-wide targets of the Celf1 protein in heart, we performed RNA-Seq of polyA+ RNA from mice inducibly expressing Celf1 in the heart.

ORGANISM(S): Mus musculus

PROVIDER: GSE56185 | GEO | 2014/04/01

SECONDARY ACCESSION(S): PRJNA242654

REPOSITORIES: GEO

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Regulation of the mouse heart transcriptome by Celf1

Project description:The CUG-BP and ETR-3-like factor 1 (Celf1) RNA binding protein plays an important role in heart and muscle development, and is over-expressed in the disease myotonic dystrophy. Celf1 has known roles in regulation of RNA splicing, RNA stability, and protein translation. To identify transcriptome-wide targets of the Celf1 protein in heart, we performed RNA-Seq of polyA+ RNA from mice inducibly expressing Celf1 in the heart. Mice were engineered to express the reverse tetracycline trans-activator (rtTA) from a heart-specific alpha myosin heavy chain promoter, and an N-terminal Flag-tagged version of the LYLQ isoform of human Celf1 from a tet-inducible promoter. Mice were fed doxycycline to induce Celf1 expression in heart, and hearts were harvested from 3 mice each at 12 hour, 24 hour, 72 hour, and 7 day time points. To account for potential doxycycline-dependent effects, control mice were fed doxycycline for 72 hours but these mice did not contain the tet-inducible Celf1 cassette. In total, 15 hearts were analyzed by RNA-Seq.

2014-04-01 | E-GEOD-56185 | biostudies-arrayexpress

Functional Antagonism Between CELF and Mbnl Proteins in Cytoplasm and Nucleus [hearts]

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Functional Antagonism Between CELF and Mbnl Proteins in Cytoplasm and Nucleus [muscle]

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Functional Antagonism Between CELF and Mbnl Proteins in Cytoplasm and Nucleus [RNA Bind-N-Seq]

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Myotonic dystrophy type 1 (DM1) leads to altered mRNA expression in heart tissue

Project description:Myotonic dystrophy type 1 (DM1) is a dominantly inherited disease that affects multiple organ systems. Cardiac dysfunction is the second leading cause of death in DM1. We quantified gene expression in heart tissue from a heart-specific DM1 mouse model (EpA960/MCM) which inducibly expresses human DMPK exon 15 containing 960 CUG expanded repeats and that reproduced Celf1 up regulation. To assess if, in addition to splicing and miRNA defects, CUGexp RNA also perturbed the steady state mRNA levels of genes, we carried out a microarray study on wildtype E14, adult, MCM controls and DM1 mouse hearts. As anticipated we noted a large number of genes to be developmentally regulated in wildtype hearts, however, within 72h of induction of CUGexp RNA there appeared to be a coordinate adult-to-embryonic shift in steady state levels of many genes. We identified transcripts over-expressed or under-expressed in hearts of wildtype adult mice, wildtype embryonic day 14 (E14), and DM1 mice induced to express CUGexp RNA for 72h and 1wk, when compared to MCM controls. Multiple group comparison.

2014-01-24 | E-GEOD-48991 | biostudies-arrayexpress

Myotonic dystrophy type 1 (DM1) leads to altered mRNA expression in heart tissue

2014-01-24 | GSE48991 | GEO

Global analysis of the molecular targets of MBNL1 and CELF1 proteins and their potential role in DM1

Project description:Myotonic dystrophy type 1 (DM1) is caused by the nuclear accumulation of mutant DMPK mRNA containing CUG-repeat expansions, resulting in a trans-dominant effect on RNA processing by sequestration of MBNL1 and activation of CELF1 splicing regulators. Here, we present a comprehensive study of the MBNL1 and CELF1-regulated splicing in the HeLa cell line that may participate in the complex phenotype of the DM1 disease. We have performed human GeneChip Exon array experiments with RNAs extracted from HeLa cells in which MBNL1 or CELF1 were silenced or over-expressed. MBNL1 or CELF1-silenced HeLa cells showed changes in the expression of 170 probe sets (150 genes) and 893 probe sets (613 genes), whereas MBNL1 or CELF1 over-expression on these cells had 812 probe sets (589 genes) and 684 probe sets (531 genes) altered, respectively. In MBNL1-silenced cells we have found and validated by RT-qPCR the exclusion of RASIP1 exon 4 and of KIF13A exon 26 and the inclusion of MBNL2 exon 5. Furthermore, we have found exclusion of LCOR exon 6 and PIP4K2C exon 1, and inclusion TCF12 exon 16, with dependence on the silencing degree of MBNL1, In MBNL1 over-expressed HeLa cells we have found and validated by RT-qPCR a potent inclusion of CD44 exon 8, CD44 exon 11 and the 3´UTR of TRAF2. We have then mimicked the misregulation of MBNL1 and CELF1 protein levels of DM1 in HeLa cells, finding new altered splicing events. These alterations were found in genes that encode proteins involved in myoblast differentiation and migration (CD44, RASIP1) and muscle development (TCF12 transcription factor), estrogen and thyroid receptor interactor (LCOR), as well as proteins involved in transduction signaling pathways (PIP4K2C, TRAF2) and intracellular trafficking (KIF13A). These results provide potential contributing genes that could help to explain the complex phenotype of the DM1 disease.

2016-12-21 | GSE41987 | GEO

Bruno 1 regulates cytoskeleton dynamics and a temporal splicing transition to promote myofibril assembly, growth and maturation in Drosophila flight muscle

Project description:Muscles undergo developmental transitions in gene expression and alternative splicing that are necessary to refine sarcomere structure and contractility. CUG-BP and ETR-3-like (CELF) family RNA binding proteins are important regulators of RNA processing during myogenesis that are misregulated in diseases such as myotonic dystrophy (DM1). In this work we report a function for Bruno 1 (Bru1, Arrest), a CELF1/2 family homolog in Drosophila, during early muscle myogenesis as well as during later stages of sarcomere assembly and myofiber maturation. We identify an imbalance in growth in sarcomere length and width during later stages of development as the mechanism driving abnormal radial growth, myofibril fusion and the formation of hollow myofibrils in bru1 mutant muscle. Molecularly, we characterize a genome-wide transition from immature to mature sarcomere gene isoform expression in flight muscle development that is blocked in bru1 mutants. We performed whole proteome mass spectrometry in control and bru1 mutant muscle to identify changes to the proteome, and correlated these changes to gene expression and exon use gleaned from mRNA-Seq. Our results reveal the conserved nature of CELF function in regulating cytoskeletal dynamics in muscle development, and demonstrate that defective RNA processing due to misexpression of CELF proteins causes wide-reaching structural defects and progressive malfunction of affected muscles that cannot be rescued by late-stage gene replacement.

2024-03-08 | PXD043308 | Pride

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