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Genetic Interactions With CLF1 Identify Additional Pre-mRNA Splicing Factors and a Link Between Activators of Yeast Vesicular Transport and Splicing
Kevin Vincenta, Qiang Wanga, Steven Jaya, Kathryn Hobbsa, and Brian C. Rymondaa Department of Biology, University of Kentucky, Lexington, Kentucky 40506-0225
Corresponding author: Brian C. Rymond, University of Kentucky, 800 Rose St., Lexington, KY 40606-0225., rymond{at}uky.edu (E-mail)
Communicating editor: M. JOHNSTON
2). The identified genes encode the Mud2, Ntc20, Prp16, Prp17, Prp19, Prp22, and Syf2 splicing factors and four proteins without established contribution to splicing (Bud13, Cet1, Cwc2, and Rds3). Each synthetic lethal with clf1
2 (slc) mutant is splicing defective in a wild-type CLF1 background. In addition to the splicing factors, SSD1, BTS1, and BET4 were identified as dosage suppressors of clf1
2 or selected slc mutants. These results support Clf1 function through multiple stages of the spliceosome cycle, identify additional genes that promote cellular mRNA maturation, and reveal a link between Rab/Ras GTPase activation and the process of pre-mRNA splicing.
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