Literature DB >> 11792824

Relationship between the function and the location of G1 cyclins in S. cerevisiae.

N P Edgington1, B Futcher.   

Abstract

The Saccharomyces cerevisiae cyclin-dependent kinase Cdc28 forms complexes with nine different cyclins to promote cell division. These nine cyclin-Cdc28 complexes have different roles, but share the same catalytic subunit; thus, it is not clear how substrate specificity is achieved. One possible mechanism is specific sub-cellular localization of specific complexes. We investigated the location of two G1 cyclins using fractionation and microscopy. In addition, we developed 'forced localization' cassettes, which direct proteins to particular locations, to test the importance of localization. Cln2 was found in both nucleus and cytoplasm. A substrate of Cln2, Sic1, was also in both compartments. Cytoplasmic Cln2 was concentrated at sites of polarized growth. Forced localization showed that some functions of Cln2 required a cytoplasmic location, while other functions required a nuclear location. In addition, one function apparently required shuttling between the two compartments. The G1 cyclin Cln3 required nuclear localization. An autonomous, nuclear localization sequence was found near the C-terminus of Cln3. Our data supports the hypothesis that Cln2 and Cln3 have distinct functions and locations, and the specificity of cyclin-dependent kinases is mediated in part by subcellular location.

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Year:  2001        PMID: 11792824     DOI: 10.1242/jcs.114.24.4599

Source DB:  PubMed          Journal:  J Cell Sci        ISSN: 0021-9533            Impact factor:   5.285


  47 in total

1.  Antagonistic gene transcripts regulate adaptation to new growth environments.

Authors:  Bridget L Baumgartner; Matthew R Bennett; Michael Ferry; Tracy L Johnson; Lev S Tsimring; Jeff Hasty
Journal:  Proc Natl Acad Sci U S A       Date:  2011-12-12       Impact factor: 11.205

2.  Recruitment of Cdc28 by Whi3 restricts nuclear accumulation of the G1 cyclin-Cdk complex to late G1.

Authors:  Hongyin Wang; Eloi Garí; Emili Vergés; Carme Gallego; Martí Aldea
Journal:  EMBO J       Date:  2003-12-18       Impact factor: 11.598

3.  Integrative analysis of cell cycle control in budding yeast.

Authors:  Katherine C Chen; Laurence Calzone; Attila Csikasz-Nagy; Frederick R Cross; Bela Novak; John J Tyson
Journal:  Mol Biol Cell       Date:  2004-05-28       Impact factor: 4.138

Review 4.  Topology and control of the cell-cycle-regulated transcriptional circuitry.

Authors:  Steven B Haase; Curt Wittenberg
Journal:  Genetics       Date:  2014-01       Impact factor: 4.562

5.  Nuclear export of Ho endonuclease of yeast via Msn5.

Authors:  Anya Bakhrat; Keren Baranes-Bachar; Dan Reshef; Olga Voloshin; Oleg Krichevsky; Dina Raveh
Journal:  Curr Genet       Date:  2008-09-20       Impact factor: 3.886

6.  Intrinsic and cyclin-dependent kinase-dependent control of spindle pole body duplication in budding yeast.

Authors:  Laura A Simmons Kovacs; Christine L Nelson; Steven B Haase
Journal:  Mol Biol Cell       Date:  2008-05-14       Impact factor: 4.138

7.  Analysis of the yeast kinome reveals a network of regulated protein localization during filamentous growth.

Authors:  Nikë Bharucha; Jun Ma; Craig J Dobry; Sarah K Lawson; Zhifen Yang; Anuj Kumar
Journal:  Mol Biol Cell       Date:  2008-04-16       Impact factor: 4.138

8.  Nucleocytoplasmic trafficking of G2/M regulators in yeast.

Authors:  Mignon A Keaton; Lee Szkotnicki; Aron R Marquitz; Jake Harrison; Trevin R Zyla; Daniel J Lew
Journal:  Mol Biol Cell       Date:  2008-06-18       Impact factor: 4.138

9.  Hsp90 nuclear accumulation in quiescence is linked to chaperone function and spore development in yeast.

Authors:  Hugo Tapia; Kevin A Morano
Journal:  Mol Biol Cell       Date:  2009-11-04       Impact factor: 4.138

10.  Yeast karyopherin Kap95 is required for cell cycle progression at Start.

Authors:  Francisco José Taberner; Juan Carlos Igual
Journal:  BMC Cell Biol       Date:  2010-06-29       Impact factor: 4.241

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