Prp45 affects Prp22 partition in spliceosomal complexes and splicing efficiency of non-consensus substrates
Human transcription co‐regulator SNW1/SKIP is implicated in the regulation of both transcription elongation and alternative splicing. Prp45, the SNW/SKIP ortholog in yeast, is assumed to be essential for pre‐mRNA processing. Here, we characterize prp45(1–169), a temperature sensitive allele of PRP45...
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Published in: | Journal of cellular biochemistry Vol. 106; no. 1; pp. 139 - 151 |
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Abstract | Human transcription co‐regulator SNW1/SKIP is implicated in the regulation of both transcription elongation and alternative splicing. Prp45, the SNW/SKIP ortholog in yeast, is assumed to be essential for pre‐mRNA processing. Here, we characterize prp45(1–169), a temperature sensitive allele of PRP45, which at permissive temperature elicits cell division defects and hypersensitivity to microtubule inhibitors. Using a synthetic lethality screen, we found that prp45(1–169) genetically interacts with alleles of NTC members SYF1, CLF1/SYF3, NTC20, and CEF1, and 2nd step splicing factors SLU7, PRP17, PRP18, and PRP22. Cwc2‐associated spliceosomal complexes purified from prp45(1–169) cells showed decreased stoichiometry of Prp22, suggesting its deranged interaction with the spliceosome. In vivo splicing assays in prp45(1–169) cells revealed that branch point mutants accumulated more pre‐mRNA whereas 5′ and 3′ splice site mutants showed elevated levels of lariat‐exon intermediate as compared to wild‐type cells. Splicing of canonical intron was unimpeded. Notably, the expression of Prp45(119–379) in prp45(1–169) cells restored Prp22 partition in the Cwc2‐pulldowns and rescued temperature sensitivity and splicing phenotype of prp45(1–169) strain. Our data suggest that Prp45 contributes, in part through its interaction with the 2nd step‐proofreading helicase Prp22, to splicing efficiency of substrates non‐conforming to the consensus. J. Cell. Biochem. 106: 139–151, 2009. © 2008 Wiley‐Liss, Inc. |
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AbstractList | Human transcription co‐regulator SNW1/SKIP is implicated in the regulation of both transcription elongation and alternative splicing. Prp45, the SNW/SKIP ortholog in yeast, is assumed to be essential for pre‐mRNA processing. Here, we characterize prp45(1–169), a temperature sensitive allele of PRP45, which at permissive temperature elicits cell division defects and hypersensitivity to microtubule inhibitors. Using a synthetic lethality screen, we found that prp45(1–169) genetically interacts with alleles of NTC members SYF1, CLF1/SYF3, NTC20, and CEF1, and 2nd step splicing factors SLU7, PRP17, PRP18, and PRP22. Cwc2‐associated spliceosomal complexes purified from prp45(1–169) cells showed decreased stoichiometry of Prp22, suggesting its deranged interaction with the spliceosome. In vivo splicing assays in prp45(1–169) cells revealed that branch point mutants accumulated more pre‐mRNA whereas 5′ and 3′ splice site mutants showed elevated levels of lariat‐exon intermediate as compared to wild‐type cells. Splicing of canonical intron was unimpeded. Notably, the expression of Prp45(119–379) in prp45(1–169) cells restored Prp22 partition in the Cwc2‐pulldowns and rescued temperature sensitivity and splicing phenotype of prp45(1–169) strain. Our data suggest that Prp45 contributes, in part through its interaction with the 2nd step‐proofreading helicase Prp22, to splicing efficiency of substrates non‐conforming to the consensus. J. Cell. Biochem. 106: 139–151, 2009. © 2008 Wiley‐Liss, Inc. Human transcription co-regulator SNW1/SKIP is implicated in the regulation of both transcription elongation and alternative splicing. Prp45, the SNW/SKIP ortholog in yeast, is assumed to be essential for pre-mRNA processing. Here, we characterize prp45(1-169), a temperature sensitive allele of PRP45, which at permissive temperature elicits cell division defects and hypersensitivity to microtubule inhibitors. Using a synthetic lethality screen, we found that prp45(1-169) genetically interacts with alleles of NTC members SYF1, CLF1/SYF3, NTC20, and CEF1, and 2nd step splicing factors SLU7, PRP17, PRP18, and PRP22. Cwc2-associated spliceosomal complexes purified from prp45(1-169) cells showed decreased stoichiometry of Prp22, suggesting its deranged interaction with the spliceosome. In vivo splicing assays in prp45(1-169) cells revealed that branch point mutants accumulated more pre-mRNA whereas 5' and 3' splice site mutants showed elevated levels of lariat-exon intermediate as compared to wild-type cells. Splicing of canonical intron was unimpeded. Notably, the expression of Prp45(119-379) in prp45(1-169) cells restored Prp22 partition in the Cwc2-pulldowns and rescued temperature sensitivity and splicing phenotype of prp45(1-169) strain. Our data suggest that Prp45 contributes, in part through its interaction with the 2nd step-proofreading helicase Prp22, to splicing efficiency of substrates non-conforming to the consensus. Human transcription co‐regulator SNW1/SKIP is implicated in the regulation of both transcription elongation and alternative splicing. Prp45, the SNW/SKIP ortholog in yeast, is assumed to be essential for pre‐mRNA processing. Here, we characterize prp45 (1–169), a temperature sensitive allele of PRP45 , which at permissive temperature elicits cell division defects and hypersensitivity to microtubule inhibitors. Using a synthetic lethality screen, we found that prp45 (1–169) genetically interacts with alleles of NTC members SYF1 , CLF1/SYF3 , NTC20 , and CEF1 , and 2nd step splicing factors SLU7 , PRP17 , PRP18 , and PRP22 . Cwc2‐associated spliceosomal complexes purified from prp45 (1–169) cells showed decreased stoichiometry of Prp22, suggesting its deranged interaction with the spliceosome. In vivo splicing assays in prp45 (1–169) cells revealed that branch point mutants accumulated more pre‐mRNA whereas 5′ and 3′ splice site mutants showed elevated levels of lariat‐exon intermediate as compared to wild‐type cells. Splicing of canonical intron was unimpeded. Notably, the expression of Prp45(119–379) in prp45 (1–169) cells restored Prp22 partition in the Cwc2‐pulldowns and rescued temperature sensitivity and splicing phenotype of prp45 (1–169) strain. Our data suggest that Prp45 contributes, in part through its interaction with the 2nd step‐proofreading helicase Prp22, to splicing efficiency of substrates non‐conforming to the consensus. J. Cell. Biochem. 106: 139–151, 2009. © 2008 Wiley‐Liss, Inc. |
Author | Valentová, Anna Gahura, Ondřej Folk, Petr Munzarová, Vanda Abrhámová, Kateřina Skružný, Michal Půta, František |
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Notes | istex:8C40192F61B826411A0CF85FA394AFCF4EF5F68D Ondřej Gahura and Kateřina Abrhámová contributed equally to this work. Czech Ministry of Education, Youth and Sports - No. MSM0021620858; No. LC07032 Grant Agency of the Charles University - No. B170/2005 ArticleID:JCB21989 ark:/67375/WNG-9KM5TN20-1 Czech Science Foundation - No. 204/02/1512 ObjectType-Article-1 SourceType-Scholarly Journals-1 ObjectType-Feature-2 content type line 23 |
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Snippet | Human transcription co‐regulator SNW1/SKIP is implicated in the regulation of both transcription elongation and alternative splicing. Prp45, the SNW/SKIP... Human transcription co-regulator SNW1/SKIP is implicated in the regulation of both transcription elongation and alternative splicing. Prp45, the SNW/SKIP... |
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SubjectTerms | Alleles Amino Acid Sequence DEAD-box RNA Helicases - genetics DEAD-box RNA Helicases - metabolism Introns Molecular Sequence Data Mutation Phenotype pre-mRNA processing Prp22 Prp45 RNA Precursors - metabolism RNA Splicing RNA Splicing Factors Saccharomyces cerevisiae Saccharomyces cerevisiae Proteins - genetics Saccharomyces cerevisiae Proteins - metabolism SNW1/SKIP Spliceosomes - metabolism |
Title | Prp45 affects Prp22 partition in spliceosomal complexes and splicing efficiency of non-consensus substrates |
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