Literature DB >> 9077453

NAP-I is a functional homologue of TAF-I that is required for replication and transcription of the adenovirus genome in a chromatin-like structure.

H Kawase1, M Okuwaki, M Miyaji, R Ohba, H Handa, Y Ishimi, T Fujii-Nakata, A Kikuchi, K Nagata.   

Abstract

BACKGROUND: For the activation of replication and transcription from DNA in a chromatin structure, a variety of factors are thought to be needed that alter the chromatin structure. Template activating factor-I (TAF-I) has been identified as such a host factor required for replication of the adenovirus (Ad) genome complexed with viral basic core proteins (Ad core). TAF-I also stimulates transcription from the Ad core DNA.
RESULTS: Using mutant TAF-I proteins, we have demonstrated that the acidic stretch present in the carboxyl terminal region is essential for the stimulation of transcription from the Ad core. A genomic footprinting experiment with restriction endonuclease has revealed that TAF-I causes a structural change in the Ad core. TAF-I has been shown to have significant amino acid similarity to nucleosome assembly protein-I (NAP-I), which is involved in the formation of the chromatin structure. We have shown that TAF-I can be substituted by NAP-I in the activation of the cell-free Ad core transcription system. Two of the tripartite acidic regions and the region homologous to TAF-I in NAP-I are required for the maximal TAF-I activity of NAP-I. Furthermore, TAF-I has been shown to have NAP-I activity, and the acidic region of TAF-I is required for this activity.
CONCLUSIONS: Since TAF-I causes the structural change of the Ad core and thereby activates transcription, TAF-I is thought to be one of the proteins which is involved in chromatin remodeling. NAP-I is structurally related to TAF-I and functionally substitutes for TAF-I. Furthermore, TAF-I has NAP-I activity. These observations suggest that this type of molecule has dual functions, possibly by participating in facilitating the assembly of the chromatin structure as well as perturbing the chromatin structure to allow transcription to proceed.

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Year:  1996        PMID: 9077453     DOI: 10.1046/j.1365-2443.1996.d01-223.x

Source DB:  PubMed          Journal:  Genes Cells        ISSN: 1356-9597            Impact factor:   1.891


  37 in total

1.  spr-2, a suppressor of the egg-laying defect caused by loss of sel-12 presenilin in Caenorhabditis elegans, is a member of the SET protein subfamily.

Authors:  C Wen; D Levitan; X Li; I Greenwald
Journal:  Proc Natl Acad Sci U S A       Date:  2000-12-19       Impact factor: 11.205

2.  Positive and negative regulation of the cardiovascular transcription factor KLF5 by p300 and the oncogenic regulator SET through interaction and acetylation on the DNA-binding domain.

Authors:  Saku Miyamoto; Toru Suzuki; Shinsuke Muto; Kenichi Aizawa; Akatsuki Kimura; Yoshiko Mizuno; Tomoko Nagino; Yasushi Imai; Naruhiko Adachi; Masami Horikoshi; Ryozo Nagai
Journal:  Mol Cell Biol       Date:  2003-12       Impact factor: 4.272

3.  Cloning, purification, crystallization and preliminary X-ray crystallographic analysis of SET/TAF-Iß δN from Homo sapiens.

Authors:  Zhen Xu; Weili Yang; Nuo Shi; Yongxiang Gao; Maikun Teng; Liwen Niu
Journal:  Acta Crystallogr Sect F Struct Biol Cryst Commun       Date:  2010-07-29

Review 4.  Viral and cellular interactions during adenovirus DNA replication.

Authors:  Matthew Charman; Christin Herrmann; Matthew D Weitzman
Journal:  FEBS Lett       Date:  2019-12-17       Impact factor: 4.124

5.  Adenovirus protein VII functions throughout early phase and interacts with cellular proteins SET and pp32.

Authors:  Yuming Xue; Jeffrey S Johnson; David A Ornelles; Judy Lieberman; Daniel A Engel
Journal:  J Virol       Date:  2005-02       Impact factor: 5.103

6.  Involvement of template-activating factor I/SET in transcription of adenovirus early genes as a positive-acting factor.

Authors:  Hirohito Haruki; Mitsuru Okuwaki; Makoto Miyagishi; Kazunari Taira; Kyosuke Nagata
Journal:  J Virol       Date:  2006-01       Impact factor: 5.103

7.  The structure of nucleosome assembly protein 1.

Authors:  Young-Jun Park; Karolin Luger
Journal:  Proc Natl Acad Sci U S A       Date:  2006-01-23       Impact factor: 11.205

8.  Relationship between the structure of SET/TAF-Ibeta/INHAT and its histone chaperone activity.

Authors:  Shinsuke Muto; Miki Senda; Yusuke Akai; Lui Sato; Toru Suzuki; Ryozo Nagai; Toshiya Senda; Masami Horikoshi
Journal:  Proc Natl Acad Sci U S A       Date:  2007-03-06       Impact factor: 11.205

9.  Assembly of helper-dependent adenovirus DNA into chromatin promotes efficient gene expression.

Authors:  P Joel Ross; Michael A Kennedy; Carin Christou; Milagros Risco Quiroz; Kathy L Poulin; Robin J Parks
Journal:  J Virol       Date:  2011-02-09       Impact factor: 5.103

10.  Mechanisms Underlying Acrolein-Mediated Inhibition of Chromatin Assembly.

Authors:  Lei Fang; Danqi Chen; Clinton Yu; Hongjie Li; Jason Brocato; Lan Huang; Chunyuan Jin
Journal:  Mol Cell Biol       Date:  2016-11-14       Impact factor: 4.272

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