Literature DB >> 21895576

CTCF function is modulated by neighboring DNA binding factors.

Oliver Weth1, Rainer Renkawitz.   

Abstract

The zinc-finger protein CTCF was originally identified in the context of gene silencing and gene repression (Baniahmad et al. 1990; Lobanenkov et al. 1990). CTCF was later shown to be involved in several transcriptional mechanisms such as gene activation (Vostrov et al. 2002) and enhancer blocking (Filippova et al. 2001; Hark et al. 2000; Kanduri et al. 2000; Lutz et al. 2003; Szabó et al. 2000; Tanimoto et al. 2003; Phillips and Corces 2009; Bell et al. 1999; Zlatanova and Caiafa 2009a, 2009b). Insulators block the action of enhancers when positioned between enhancer and promoter. CTCF was found to be required in almost all cases of enhancer blocking tested in vertebrates. This CTCF-mediated enhancer blocking is in many instances conferred by constitutive CTCF action. For some examples however, a modulation of the enhancer blocking activity was documented (Lutz et al. 2003; Weth et al. 2010). One mechanism is achieved by regulation of binding to DNA. It was shown that CTCF is not able to bind to those binding-sites containing methylated CpG sequences. At the imprinting control region (ICR) of the Igf2/H19 locus the binding-site for CTCF on the paternal allele is methylated. This prevents DNA-binding of CTCF, resulting in the loss of enhancer blocking (Bell and Felsenfeld 2000; Chao et al. 2002; Filippova et al. 2001; Hark et al. 2000; Kanduri et al. 2000, 2002; Szabó et al. 2000; Takai et al. 2001). Not only can DNA methylation interfere with CTCF binding to DNA, it was also shown in one report that RNA transcription through the CTCF binding site results in CTCF eviction (Lefevre et al. 2008). In contrast to these cases most of the DNA sites are not differentially bound by CTCF. Even CTCF interaction with its cofactor cohesin does not seem to differ in different cell types (Schmidt et al. 2010). These results indicate that regulation of CTCF activity might be achieved by neighboring factors bound to DNA. In fact, whole genome analyses of CTCF binding sites identified several classes of neighboring sequences (Dickson et al. 2010; Boyle et al. 2010; Essien et al. 2009). Therefore, in this review we will summarize those results for which a combined action of CTCF with factors bound adjacently was found. These neighboring factors include the RNA polymerases I, II and III, another zinc finger factor VEZF1 and the factors YY1, SMAD, TR and Oct4. Each of these seems to influence, modulate or determine the function of CTCF. Thereby, at least some of the pleiotropic effects of CTCF can be explained.

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Year:  2011        PMID: 21895576     DOI: 10.1139/o11-033

Source DB:  PubMed          Journal:  Biochem Cell Biol        ISSN: 0829-8211            Impact factor:   3.626


  29 in total

1.  The extent of DNA methylation anticipation due to a genetic defect in ICR1 in Beckwith-Wiedemann syndrome.

Authors:  Feifei Sun; Ken Higashimoto; Atsuko Awaji; Kenji Ohishi; Naoto Nishizaki; Yuka Tanoue; Saori Aoki; Hidetaka Watanabe; Hitomi Yatsuki; Hidenobu Soejima
Journal:  J Hum Genet       Date:  2019-06-24       Impact factor: 3.172

2.  Genome-wide targeting of the epigenetic regulatory protein CTCF to gene promoters by the transcription factor TFII-I.

Authors:  Rodrigo Peña-Hernández; Maud Marques; Khalid Hilmi; Teijun Zhao; Amine Saad; Moulay A Alaoui-Jamali; Sonia V del Rincon; Todd Ashworth; Ananda L Roy; Beverly M Emerson; Michael Witcher
Journal:  Proc Natl Acad Sci U S A       Date:  2015-02-02       Impact factor: 11.205

3.  Epigenetic regulation of differential HLA-A allelic expression levels.

Authors:  Veron Ramsuran; Smita Kulkarni; Colm O'huigin; Yuko Yuki; Danillo G Augusto; Xiaojiang Gao; Mary Carrington
Journal:  Hum Mol Genet       Date:  2015-05-01       Impact factor: 6.150

Review 4.  The ubiquitous transcription factor CTCF promotes lineage-specific epigenomic remodeling and establishment of transcriptional networks driving cell differentiation.

Authors:  Julie Dubois-Chevalier; Bart Staels; Philippe Lefebvre; Jérôme Eeckhoute
Journal:  Nucleus       Date:  2015       Impact factor: 4.197

5.  Functional interactions between NURF and Ctcf regulate gene expression.

Authors:  Zhijun Qiu; Carolyn Song; Navid Malakouti; Daniel Murray; Aymen Hariz; Mark Zimmerman; Derek Gygax; Aiman Alhazmi; Joseph W Landry
Journal:  Mol Cell Biol       Date:  2014-10-27       Impact factor: 4.272

6.  Epigenetic deregulation of the LMP1/LMP2 locus of Epstein-Barr virus by mutation of a single CTCF-cohesin binding site.

Authors:  Horng-Shen Chen; Kayla A Martin; Fang Lu; Lena N Lupey; Joshua M Mueller; Paul M Lieberman; Italo Tempera
Journal:  J Virol       Date:  2013-11-20       Impact factor: 5.103

Review 7.  Nuclear organization and genome function.

Authors:  Kevin Van Bortle; Victor G Corces
Journal:  Annu Rev Cell Dev Biol       Date:  2012-08-17       Impact factor: 13.827

8.  A genome-wide map of CTCF multivalency redefines the CTCF code.

Authors:  Hirotaka Nakahashi; Kyong-Rim Kieffer Kwon; Wolfgang Resch; Laura Vian; Marei Dose; Diana Stavreva; Ofir Hakim; Nathanael Pruett; Steevenson Nelson; Arito Yamane; Jason Qian; Wendy Dubois; Scott Welsh; Robert D Phair; B Franklin Pugh; Victor Lobanenkov; Gordon L Hager; Rafael Casellas
Journal:  Cell Rep       Date:  2013-05-23       Impact factor: 9.423

Review 9.  Keeping it quiet: chromatin control of gammaherpesvirus latency.

Authors:  Paul M Lieberman
Journal:  Nat Rev Microbiol       Date:  2013-11-06       Impact factor: 60.633

10.  Alterations in expression of imprinted genes from the H19/IGF2 loci in a multigenerational model of intrauterine growth restriction (IUGR).

Authors:  Pablo Gonzalez-Rodriguez; Jessica Cantu; Derek O'Neil; Maxim D Seferovic; Danielle M Goodspeed; Melissa A Suter; Kjersti M Aagaard
Journal:  Am J Obstet Gynecol       Date:  2016-02-12       Impact factor: 8.661

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