Literature DB >> 24869919

N-terminus of the protein kinase CLK1 induces SR protein hyperphosphorylation.

Brandon E Aubol1, Ryan M Plocinik1, Malik M Keshwani1, Maria L McGlone1, Jonathan C Hagopian1, Gourisankar Ghosh2, Xiang-Dong Fu3, Joseph A Adams1.   

Abstract

SR proteins are essential splicing factors that are regulated through multisite phosphorylation of their RS (arginine/serine-rich) domains by two major families of protein kinases. The SRPKs (SR-specific protein kinases) efficiently phosphorylate the arginine/serine dipeptides in the RS domain using a conserved docking groove in the kinase domain. In contrast, CLKs (Cdc2-like kinases) lack a docking groove and phosphorylate both arginine/serine and serine-proline dipeptides, modifications that generate a hyperphosphorylated state important for unique SR protein-dependent splicing activities. All CLKs contain long flexible N-terminal extensions (140-300 residues) that resemble the RS domains present in their substrate SR proteins. We showed that the N-terminus in CLK1 contacts both the kinase domain and the RS domain of the SR protein SRSF1 (SR protein splicing factor 1). This interaction not only is essential for facilitating hyperphosphorylation, but also induces co-operative binding of SRSF1 to RNA. The N-terminus of CLK1 enhances the total phosphoryl contents of a panel of physiological substrates including SRSF1, SRSF2, SRSF5 and Tra2β1 (transformer 2β1) by 2-3-fold. These findings suggest that CLK1-dependent hyperphosphorylation is the result of a general mechanism in which the N-terminus acts as a bridge connecting the kinase domain and the RS domain of the SR protein.

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Year:  2014        PMID: 24869919      PMCID: PMC5056641          DOI: 10.1042/BJ20140494

Source DB:  PubMed          Journal:  Biochem J        ISSN: 0264-6021            Impact factor:   3.857


  29 in total

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  19 in total

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10.  Nuclear protein kinase CLK1 uses a non-traditional docking mechanism to select physiological substrates.

Authors:  Malik M Keshwani; Kendra L Hailey; Brandon E Aubol; Laurent Fattet; Maria L McGlone; Patricia A Jennings; Joseph A Adams
Journal:  Biochem J       Date:  2015-10-06       Impact factor: 3.857

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