Literature DB >> 10970863

Cotranslational dimerization of the Rel homology domain of NF-kappaB1 generates p50-p105 heterodimers and is required for effective p50 production.

L Lin1, G N DeMartino, W C Greene.   

Abstract

Generation of the NF-kappaB p50 transcription factor is mediated by the proteasome. We found previously that p50 is generated during translation of the NFKB1 gene and that this cotranslational processing allows the production of both p50 and p105 from a single mRNA. We now demonstrate that the Rel homology domain in p50 undergoes cotranslational dimerization and that this interaction is required for efficient production of p50. We further show that this coupling of dimerization and proteasome processing during translation uniquely generates p50-p105 heterodimers. Accordingly, after the primary cotranslational event, additional posttranslational steps regulate p50 homodimer formation and the intracellular ratio of p50 and p105. This cellular strategy places p50 under the control of the p105 inhibitor early in its biogenesis, thereby regulating the pool of p50 homodimers within the cell.

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Year:  2000        PMID: 10970863      PMCID: PMC302078          DOI: 10.1093/emboj/19.17.4712

Source DB:  PubMed          Journal:  EMBO J        ISSN: 0261-4189            Impact factor:   11.598


  49 in total

1.  Evidence of changes in protease sensitivity and subunit exchange rate on DNA binding by C/EBP.

Authors:  J D Shuman; C R Vinson; S L McKnight
Journal:  Science       Date:  1990-08-17       Impact factor: 47.728

2.  Cloning of the p50 DNA binding subunit of NF-kappa B: homology to rel and dorsal.

Authors:  S Ghosh; A M Gifford; L R Riviere; P Tempst; G P Nolan; D Baltimore
Journal:  Cell       Date:  1990-09-07       Impact factor: 41.582

3.  The DNA binding subunit of NF-kappa B is identical to factor KBF1 and homologous to the rel oncogene product.

Authors:  M Kieran; V Blank; F Logeat; J Vandekerckhove; F Lottspeich; O Le Bail; M B Urban; P Kourilsky; P A Baeuerle; A Israël
Journal:  Cell       Date:  1990-09-07       Impact factor: 41.582

4.  The generation of nfkb2 p52: mechanism and efficiency.

Authors:  M Heusch; L Lin; R Geleziunas; W C Greene
Journal:  Oncogene       Date:  1999-11-04       Impact factor: 9.867

Review 5.  Diversity and specificity in transcriptional regulation: the benefits of heterotypic dimerization.

Authors:  P Lamb; S L McKnight
Journal:  Trends Biochem Sci       Date:  1991-11       Impact factor: 13.807

6.  Structure of NF-kappa B p50 homodimer bound to a kappa B site.

Authors:  G Ghosh; G van Duyne; S Ghosh; P B Sigler
Journal:  Nature       Date:  1995-01-26       Impact factor: 49.962

7.  The 65-kD subunit of NF-kappa B is a receptor for I kappa B and a modulator of DNA-binding specificity.

Authors:  M B Urban; P A Baeuerle
Journal:  Genes Dev       Date:  1990-11       Impact factor: 11.361

8.  Generation of p50 subunit of NF-kappa B by processing of p105 through an ATP-dependent pathway.

Authors:  C M Fan; T Maniatis
Journal:  Nature       Date:  1991-12-05       Impact factor: 49.962

9.  I kappa B: a specific inhibitor of the NF-kappa B transcription factor.

Authors:  P A Baeuerle; D Baltimore
Journal:  Science       Date:  1988-10-28       Impact factor: 47.728

10.  A 65-kappaD subunit of active NF-kappaB is required for inhibition of NF-kappaB by I kappaB.

Authors:  P A Baeuerle; D Baltimore
Journal:  Genes Dev       Date:  1989-11       Impact factor: 11.361

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  28 in total

1.  Retroviral oncoprotein Tax induces processing of NF-kappaB2/p100 in T cells: evidence for the involvement of IKKalpha.

Authors:  G Xiao; M E Cvijic; A Fong; E W Harhaj; M T Uhlik; M Waterfield; S C Sun
Journal:  EMBO J       Date:  2001-12-03       Impact factor: 11.598

Review 2.  The ubiquitin-proteasome pathway and proteasome inhibitors.

Authors:  J Myung; K B Kim; C M Crews
Journal:  Med Res Rev       Date:  2001-07       Impact factor: 12.944

3.  Lymphotoxin and lipopolysaccharide induce NF-kappaB-p52 generation by a co-translational mechanism.

Authors:  Benjamin Mordmüller; Daniel Krappmann; Meral Esen; Elmar Wegener; Claus Scheidereit
Journal:  EMBO Rep       Date:  2003-01       Impact factor: 8.807

4.  Multisite protein kinase A and glycogen synthase kinase 3beta phosphorylation leads to Gli3 ubiquitination by SCFbetaTrCP.

Authors:  Denis Tempé; Mariana Casas; Sonia Karaz; Marie-Françoise Blanchet-Tournier; Jean-Paul Concordet
Journal:  Mol Cell Biol       Date:  2006-06       Impact factor: 4.272

5.  Proteasomal degradation from internal sites favors partial proteolysis via remote domain stabilization.

Authors:  Daniel A Kraut; Andreas Matouschek
Journal:  ACS Chem Biol       Date:  2011-08-12       Impact factor: 5.100

6.  Shared pathways of IkappaB kinase-induced SCF(betaTrCP)-mediated ubiquitination and degradation for the NF-kappaB precursor p105 and IkappaBalpha.

Authors:  V Heissmeyer; D Krappmann; E N Hatada; C Scheidereit
Journal:  Mol Cell Biol       Date:  2001-02       Impact factor: 4.272

7.  Per-Arnt-Sim domain-dependent association of cAMP-phosphodiesterase 8A1 with IkappaB proteins.

Authors:  Ping Wu; Peng Wang
Journal:  Proc Natl Acad Sci U S A       Date:  2004-12-13       Impact factor: 11.205

8.  A three-part signal governs differential processing of Gli1 and Gli3 proteins by the proteasome.

Authors:  Erin K Schrader; Kristine G Harstad; Robert A Holmgren; Andreas Matouschek
Journal:  J Biol Chem       Date:  2011-09-15       Impact factor: 5.157

9.  Molecular mechanisms of interleukin-10-mediated inhibition of NF-kappaB activity: a role for p50.

Authors:  F Driessler; K Venstrom; R Sabat; K Asadullah; A J Schottelius
Journal:  Clin Exp Immunol       Date:  2004-01       Impact factor: 4.330

10.  A unique protection signal in Cubitus interruptus prevents its complete proteasomal degradation.

Authors:  Yifei Wang; Mary Ann Price
Journal:  Mol Cell Biol       Date:  2008-07-14       Impact factor: 4.272

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