Next-generation sequencing of RNA samples from the mice heart of Control, ABHD5-KO and ABHD5-KO transduced with AAV9 expressing HDAC4-NT (AAV9-NT)
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ABSTRACT:
ORGANISM(S): Mus musculus
PROVIDER: GSE135662 | GEO | 2019/08/10
REPOSITORIES: GEO
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Project description:Next-generation sequencing of RNA samples from the mice heart of Control, ABHD5-KO and ABHD5-KO transduced with AAV9 expressing HDAC4-NT (AAV9-NT)
| PRJNA559559 | ENA
Project description:C57BL/6N animals received at the age of 6 weeks either adeno associated virus from serotype 9 (AAV9) leading to cardiac overexpression of luciferase (Luc, as control) or amino acids 1-201 of histone deacetyase 4 (HDAC4-NT) under the control of the cardiac myocyte-specific CMV-enhanced short (260bp) myosin light chain promoter (CMVenh/MLC260). Transaortic constriction (TAC) and sham operation was conducted 6 weeks later in 12 week old mice to induce pathological pressure overload. Organs were harvested 4 weeks after TAC at the age of 16 weeks and total RNA was used for microarray analysis. Three groups were compared: 1) sham-operated mice that were pretreated with AAV9 (CMVenh/MLC260)-Luc, 2) TAC-operated mice that were pretreated with AAV9 (CMVenh/MLC260)-Luc, 3) TAC-operated mice that were pre-treated with AAV9 (CMVenh/MLC260)-HDAC4-NT.
2016-07-27 | GSE72904 | GEO
Project description:RAW cells or ABHD5-KD RAW cells were subjected to microarray assays. Each group contain 3 samples. To explore the regulatory role of ABHD5 in metabolic pathways, RAW cells or ABHD5-KD RAW cells were subjected to microarray assays.
2016-05-12 | E-GEOD-80066 | biostudies-arrayexpress
Project description:ABHD5 is a crucial metabolic regulator of cancer cells. The goal of this study is to identify the regulation of gene expression by ABHD5 in prostate cancer cells using RNA-seq.
2020-11-19 | GSE151957 | GEO
Project description:Reversible protein acetylation provides a central mechanism for controlling gene expression and cellular signaling events. It is governed by the antagonistic commitment of two enzymes families: the histone acetyltransferases (HATs) and the histone deacetylases (HDACs). HDAC4, like its class IIa counterparts, is a potent transcriptional repressor through interactions with tissue-specific transcription factors via its N-terminal domain. Whilst the lysine deacetylase activity of the class IIa HDACs is much less potent than that of the class I enzymes, HDAC4 has been reported to influence protein deacetylation through its interaction with HDAC3. To investigate the influence of HDAC4 on protein acetylation, we employed the unbiased AcetylScan proteomic screen. We identified many proteins known to be modified by acetylation, but found that the absence of HDAC4 had no effect on the acetylation profile of the murine neonate brain. This is consistent with the biochemical data suggesting that HDAC4 may not function as a lysine deacetylase, but these in vivo data do not support the previous report showing that the enzymatic activity of HDAC3 might be modified by its interaction with HDAC4. To complement this work, we used Affymetrix arrays to investigate the effect of HDAC4 knock-out on the transcriptional profile of the postnatal murine brain. There was no effect on global transcription, consistent with the absence of a differential histone acetylation profile. Validation of the array data by Taq-man qPCR indicated that only protamine 1 and Igfbp6 mRNA levels were increased by more than one-fold and only CamK4 was decreased. The lack of a major effect on the transcriptional profile is consistent with the cytoplasmic location of HDAC4 in the P3 murine brain. mRNA expression analysis was performed by microarray in 3-day-old HDAC4 KO pups and WT littermates. Ten samples were analysed for each genotype. Microarray quality control was performed using the software package provided on RACE (http://race.unil.ch).
2014-07-30 | E-GEOD-49383 | biostudies-arrayexpress
Project description:Inherited retinal disorders (IRD) have become a primary focus of gene therapy research since the success of AAV-based therapeutics (voretigene neparvovec-rzyl) for Leber congenital amaurosis type 2 (LCA2). Dozens of monogenic IRDs could be potentially treated with a similar approach using adeno-associated virus (AAV) to transfer a functional gene into the retina. Here, we present the results of design, production and in vitro testing of the AAV serotype 9 (AAV9) vector carrying the codon-optimized (co) copy of aryl hydrocarbon receptor interacting protein like-1 (AIPL1) as a possible treatment for LCA4. The pAAV-AIPL1co was able to successfully transduce retinal pigment epithelium cells (ARPE-19) and initiate expression of human AIPL1. Intriguingly, cells transduced with AAV9-AIPL1co showed much less antiviral response than AAV9-AIPL1wt (wild type AIPL1 ) transduced. RNA-sequencing (RNA-seq) analysis of trans-differentiated ARPE-19 cells transduced with AAV9-AIPL1co demonstrated the significant differences in expression of genes involved in innate immune response. In contrast, AAV9-AIPL1wt induced prominent activation of multiple interferon-stimulated genes. The key part of possible regulatory molecular mechanism is activation of dsRNA-responsive antiviral oligoadenylate synthetases, and significant increase in level of histone coding genes’ transcripts overrepresented in RNA-seq data (i.e. H1, H2A, H2B, H3 and H4). The RNA-seq data suggests that AAV9-AIPL1co exhibiting less immunogenicity than AAV9-AIPL1wt can be used for potency testing using relevant animal models to develop future therapeutics for LCA4.
2024-01-01 | GSE252276 | GEO
Project description:Reversible protein acetylation provides a central mechanism for controlling gene expression and cellular signaling events. It is governed by the antagonistic commitment of two enzymes families: the histone acetyltransferases (HATs) and the histone deacetylases (HDACs). HDAC4, like its class IIa counterparts, is a potent transcriptional repressor through interactions with tissue-specific transcription factors via its N-terminal domain. Whilst the lysine deacetylase activity of the class IIa HDACs is much less potent than that of the class I enzymes, HDAC4 has been reported to influence protein deacetylation through its interaction with HDAC3. To investigate the influence of HDAC4 on protein acetylation, we employed the unbiased AcetylScan proteomic screen. We identified many proteins known to be modified by acetylation, but found that the absence of HDAC4 had no effect on the acetylation profile of the murine neonate brain. This is consistent with the biochemical data suggesting that HDAC4 may not function as a lysine deacetylase, but these in vivo data do not support the previous report showing that the enzymatic activity of HDAC3 might be modified by its interaction with HDAC4. To complement this work, we used Affymetrix arrays to investigate the effect of HDAC4 knock-out on the transcriptional profile of the postnatal murine brain. There was no effect on global transcription, consistent with the absence of a differential histone acetylation profile. Validation of the array data by Taq-man qPCR indicated that only protamine 1 and Igfbp6 mRNA levels were increased by more than one-fold and only CamK4 was decreased. The lack of a major effect on the transcriptional profile is consistent with the cytoplasmic location of HDAC4 in the P3 murine brain.
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Project description:RAW cells or ABHD5-KD RAW cells were subjected to microarray assays. Each group contain 3 samples.
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Project description:Access to DNA is the first level of control in regulating gene transcription, a control that is also critical for maintaining DNA integrity. Cellular senescence is characterized by profound transcriptional rearrangements and accumulation of DNA lesions. Here, we discovered an epigenetic complex between HDAC4 and HDAC1/HDAC2 that is involved in the erase of H2BK120 acetylation. The HDAC4/HDAC1/HDAC2 complex modulates the efficiency of DNA repair by homologous recombination, through dynamic deacetylation of H2BK120. Deficiency of HDAC4 leads to accumulation of H2BK120ac, impaired recruitment of BRCA1 and CtIP to the site of lesions, accumulation of damaged DNA and senescence. In senescent cells this complex is disassembled because of increased proteasomal degradation of HDAC4. Forced expression of HDAC4 during RAS-induced senescence reduces the genomic spread of γH2AX and affects H2BK120ac levels, which are increased in DNA-damaged regions accumulated during RAS-induced senescence. In summary, degradation of HDAC4 during senescence causes the accumulation of damaged DNA and contributes to the activation of the transcriptional program controlled by super-enhancers that maintains senescence.
2024-10-17 | PXD051316 | Pride
Project description:Hdac4 has been found to modulate symptoms in Huntington's Disease (HD) mouse models through an uknown mechanism unrelated to any enzymatic activity. We investigated the protein-protein interactions to gain insight into the role of Hdac4 in HD.
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