Literature DB >> 22090140

Epigenetic regulation of the latency-associated region of Marek's disease virus in tumor-derived T-cell lines and primary lymphoma.

Andrew C Brown1, Venugopal Nair, Martin J Allday.   

Abstract

Meq is the major Marek's disease virus (MDV)-encoded oncoprotein and is essential for T-cell lymphomagenesis. Meq and several noncoding RNAs, including three microRNA (MiR) clusters, are expressed from the repeats of the MDV genome during latent infection of T cells. To investigate the state of the chromatin in this and flanking regions, we carried out chromatin immunoprecipitation (ChIP) analysis of covalent histone modifications and associated bound proteins. T-cell lines and a lymphoma were compared. The chromatin around the promoters for Meq and the noncoding RNAs in both cell lines and the lymphoma were associated with H3K9 acetylation and H3K4 trimethylation, which are marks of transcriptionally active chromatin. These correlated with bound Meq-c-Jun heterodimers. The only binding site for Meq homodimers is located at the lytic origin of replication (OriLyt), next to the lytic gene pp38. This region lacked active marks and was associated with repressive histone modifications (H3K27 and H3K9 trimethylation). DNA CpG methylation was investigated using methylated DNA precipitation (MeDP). In cell lines, DNA methylation was abundant across the repeats but noticeably reduced or absent around the active promoters. In primary tumors, CpG methylation occurred less than 2 months after infection, focused within the ICP4 gene. These data suggest that nonrandom de novo DNA methylation occurs early in lymphomagenesis. In addition, the histone data indicate a role for Meq in the epigenetic regulation of the MDV genome repeats in transformed T cells and suggest that the OriLyt region and the Meq/MiR region might be separated by chromatin boundary elements, and preliminary data on CTCF binding are consistent with this.

Entities:  

Mesh:

Substances:

Year:  2011        PMID: 22090140      PMCID: PMC3264385          DOI: 10.1128/JVI.06113-11

Source DB:  PubMed          Journal:  J Virol        ISSN: 0022-538X            Impact factor:   5.103


  57 in total

1.  Physical and functional interactions between the corepressor CtBP and the Epstein-Barr virus nuclear antigen EBNA3C.

Authors:  R Touitou; M Hickabottom; G Parker; T Crook; M J Allday
Journal:  J Virol       Date:  2001-08       Impact factor: 5.103

2.  Cohesins functionally associate with CTCF on mammalian chromosome arms.

Authors:  Vania Parelho; Suzana Hadjur; Mikhail Spivakov; Marion Leleu; Stephan Sauer; Heather C Gregson; Adam Jarmuz; Claudia Canzonetta; Zoe Webster; Tatyana Nesterova; Bradley S Cobb; Kyoko Yokomori; Niall Dillon; Luis Aragon; Amanda G Fisher; Matthias Merkenschlager
Journal:  Cell       Date:  2008-01-31       Impact factor: 41.582

3.  Marek's disease virus EcoRI-Q gene (meq) and a small RNA antisense to ICP4 are abundantly expressed in CD4+ cells and cells carrying a novel lymphoid marker, AV37, in Marek's disease lymphomas.

Authors:  N Ross; G O'Sullivan; C Rothwell; G Smith; S C Burgess; M Rennie; L F Lee; T F Davison
Journal:  J Gen Virol       Date:  1997-09       Impact factor: 3.891

4.  CTCF mediates long-range chromatin looping and local histone modification in the beta-globin locus.

Authors:  Erik Splinter; Helen Heath; Jurgen Kooren; Robert-Jan Palstra; Petra Klous; Frank Grosveld; Niels Galjart; Wouter de Laat
Journal:  Genes Dev       Date:  2006-09-01       Impact factor: 11.361

Review 5.  Does CTCF mediate between nuclear organization and gene expression?

Authors:  Rolf Ohlsson; Victor Lobanenkov; Elena Klenova
Journal:  Bioessays       Date:  2010-01       Impact factor: 4.345

6.  Enhanced expression of the Marek's disease virus-specific phosphoproteins after stable transfection of MSB-1 cells with the Marek's disease virus homologue of ICP4.

Authors:  W D Pratt; J Cantello; R W Morgan; K A Schat
Journal:  Virology       Date:  1994-05-15       Impact factor: 3.616

7.  A nonproducer T lymphoblastoid cell line from Marek's disease transplantable tumor (JMV).

Authors:  K Nazerian; E A Stephens; J M Sharma; L F Lee; M Gailitis; R L Witter
Journal:  Avian Dis       Date:  1977 Jan-Mar       Impact factor: 1.577

8.  Identification of latency-associated transcripts that map antisense to the ICP4 homolog gene of Marek's disease virus.

Authors:  J L Cantello; A S Anderson; R W Morgan
Journal:  J Virol       Date:  1994-10       Impact factor: 5.103

9.  C-Terminal binding protein is a transcriptional repressor that interacts with a specific class of vertebrate Polycomb proteins.

Authors:  R G Sewalt; M J Gunster; J van der Vlag; D P Satijn; A P Otte
Journal:  Mol Cell Biol       Date:  1999-01       Impact factor: 4.272

10.  Epstein-barr virus latency in B cells leads to epigenetic repression and CpG methylation of the tumour suppressor gene Bim.

Authors:  Kostas Paschos; Paul Smith; Emma Anderton; Jaap M Middeldorp; Robert E White; Martin J Allday
Journal:  PLoS Pathog       Date:  2009-06-26       Impact factor: 6.823

View more
  19 in total

1.  Hypoxia and HIF-1 Trigger Marek's Disease Virus Reactivation in Lymphoma-Derived Latently Infected T Lymphocytes.

Authors:  Corentin Mallet; Jade Cochard; Sébastien Leclercq; Laetitia Trapp-Fragnet; Philippe Chouteau; Caroline Denesvre
Journal:  J Virol       Date:  2021-12-22       Impact factor: 6.549

2.  DNMT gene expression and methylome in Marek's disease resistant and susceptible chickens prior to and following infection by MDV.

Authors:  Fei Tian; Fei Zhan; Nathan D VanderKraats; Jeffrey F Hiken; John R Edwards; Huanmin Zhang; Keji Zhao; Jiuzhou Song
Journal:  Epigenetics       Date:  2013-03-28       Impact factor: 4.528

3.  Study of methylation of histone H3 lysine 9 and H3 lysine 27 during X chromosome inactivation in three types of cells.

Authors:  Yan Li; Tan Tan; Le Zong; Dacheng He; Wei Tao; Qianjin Liang
Journal:  Chromosome Res       Date:  2012-09-06       Impact factor: 5.239

Review 4.  Idiosyncrasies of Viral Noncoding RNAs Provide Insights into Host Cell Biology.

Authors:  Johanna B Withers; Vanessa Mondol; Paulina Pawlica; Nicolle A Rosa-Mercado; Kazimierz T Tycowski; Salehe Ghasempur; Seyed F Torabi; Joan A Steitz
Journal:  Annu Rev Virol       Date:  2019-04-30       Impact factor: 10.431

5.  DNA Methylation of Tumor Suppressive miRNAs in Non-Hodgkin's Lymphomas.

Authors:  Rita Lok-Hay Yim; Yok Lam Kwong; Kwan Yeung Wong; Chor Sang Chim
Journal:  Front Genet       Date:  2012-11-08       Impact factor: 4.599

6.  The sulphated polysaccharides extract ulvans from Ulva armoricana limits Marek's disease virus dissemination in vitro and promotes viral reactivation in lymphoid cells.

Authors:  Frédérick Bussy; Sylvie Rémy; Matthieu Le Goff; Pi Nyvall Collén; Laëtitia Trapp-Fragnet
Journal:  BMC Vet Res       Date:  2022-04-27       Impact factor: 2.792

Review 7.  Virus and host genomic, molecular, and cellular interactions during Marek's disease pathogenesis and oncogenesis.

Authors:  M C McPherson; M E Delany
Journal:  Poult Sci       Date:  2016-01-11       Impact factor: 3.352

8.  Differentially expressed genes during spontaneous lytic switch of Marek's disease virus in lymphoblastoid cell lines determined by global gene expression profiling.

Authors:  William N Mwangi; Deepali Vasoya; Lydia B Kgosana; Mick Watson; Venugopal Nair
Journal:  J Gen Virol       Date:  2017-04       Impact factor: 3.891

Review 9.  Role of virus-encoded microRNAs in Avian viral diseases.

Authors:  Yongxiu Yao; Venugopal Nair
Journal:  Viruses       Date:  2014-03-21       Impact factor: 5.048

Review 10.  Telomeres and Telomerase: Role in Marek's Disease Virus Pathogenesis, Integration and Tumorigenesis.

Authors:  Ahmed Kheimar; Renato L Previdelli; Darren J Wight; Benedikt B Kaufer
Journal:  Viruses       Date:  2017-07-04       Impact factor: 5.048

View more

北京卡尤迪生物科技股份有限公司 © 2022-2023.