The RAS-Effector Interface: Isoform-Specific Differences in the Effector Binding Regions
RAS effectors specifically interact with the GTP-bound form of RAS in response to extracellular signals and link them to downstream signaling pathways. The molecular nature of effector interaction by RAS is well-studied but yet still incompletely understood in a comprehensive and systematic way. Her...
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description | RAS effectors specifically interact with the GTP-bound form of RAS in response to extracellular signals and link them to downstream signaling pathways. The molecular nature of effector interaction by RAS is well-studied but yet still incompletely understood in a comprehensive and systematic way. Here, structure-function relationships in the interaction between different RAS proteins and various effectors were investigated in detail by combining our in vitro data with in silico data. Equilibrium dissociation constants were determined for the binding of HRAS, KRAS, NRAS, RRAS1 and RRAS2 to both the RAS binding (RB) domain of CRAF and PI3Kα, and the RAS association (RA) domain of RASSF5, RALGDS and PLCε, respectively, using fluorescence polarization. An interaction matrix, constructed on the basis of available crystal structures, allowed identification of hotspots as critical determinants for RAS-effector interaction. New insights provided by this study are the dissection of the identified hotspots in five distinct regions (R1 to R5) in spite of high sequence variability not only between, but also within, RB/RA domain-containing effectors proteins. Finally, we propose that intermolecular β-sheet interaction in R1 is a central recognition region while R3 may determine specific contacts of RAS versus RRAS isoforms with effectors. |
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The molecular nature of effector interaction by RAS is well-studied but yet still incompletely understood in a comprehensive and systematic way. Here, structure-function relationships in the interaction between different RAS proteins and various effectors were investigated in detail by combining our in vitro data with in silico data. Equilibrium dissociation constants were determined for the binding of HRAS, KRAS, NRAS, RRAS1 and RRAS2 to both the RAS binding (RB) domain of CRAF and PI3Kα, and the RAS association (RA) domain of RASSF5, RALGDS and PLCε, respectively, using fluorescence polarization. An interaction matrix, constructed on the basis of available crystal structures, allowed identification of hotspots as critical determinants for RAS-effector interaction. New insights provided by this study are the dissection of the identified hotspots in five distinct regions (R1 to R5) in spite of high sequence variability not only between, but also within, RB/RA domain-containing effectors proteins. 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The molecular nature of effector interaction by RAS is well-studied but yet still incompletely understood in a comprehensive and systematic way. Here, structure-function relationships in the interaction between different RAS proteins and various effectors were investigated in detail by combining our in vitro data with in silico data. Equilibrium dissociation constants were determined for the binding of HRAS, KRAS, NRAS, RRAS1 and RRAS2 to both the RAS binding (RB) domain of CRAF and PI3Kα, and the RAS association (RA) domain of RASSF5, RALGDS and PLCε, respectively, using fluorescence polarization. An interaction matrix, constructed on the basis of available crystal structures, allowed identification of hotspots as critical determinants for RAS-effector interaction. New insights provided by this study are the dissection of the identified hotspots in five distinct regions (R1 to R5) in spite of high sequence variability not only between, but also within, RB/RA domain-containing effectors proteins. Finally, we propose that intermolecular β-sheet interaction in R1 is a central recognition region while R3 may determine specific contacts of RAS versus RRAS isoforms with effectors.</abstract><cop>United States</cop><pub>Public Library of Science</pub><pmid>27936046</pmid><doi>10.1371/journal.pone.0167145</doi><tpages>e0167145</tpages><oa>free_for_read</oa></addata></record> |
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subjects | Amino Acid Sequence Amino acids Analysis Binding Binding Sites - genetics Binding, Competitive Biochemistry Biology and Life Sciences Cancer Carrier Proteins - chemistry Carrier Proteins - genetics Carrier Proteins - metabolism Cell cycle Cell growth Class I Phosphatidylinositol 3-Kinases Crystal structure Dissociation Effectors Fluorescence Fluorescence polarization Gene expression GTP GTP Phosphohydrolases - chemistry GTP Phosphohydrolases - genetics GTP Phosphohydrolases - metabolism Guanosine triphosphate Hot spots Humans Isoforms K-Ras protein Kinases Kinetics Membrane Proteins - chemistry Membrane Proteins - genetics Membrane Proteins - metabolism Models, Molecular Molecular biology Monomeric GTP-Binding Proteins - chemistry Monomeric GTP-Binding Proteins - genetics Monomeric GTP-Binding Proteins - metabolism Mutation Next-generation sequencing Phosphatidylinositol 3-Kinases - chemistry Phosphatidylinositol 3-Kinases - genetics Phosphatidylinositol 3-Kinases - metabolism Physical Sciences Protein Binding Protein Domains Protein Structure, Secondary Proteins Proto-Oncogene Proteins p21(ras) - chemistry Proto-Oncogene Proteins p21(ras) - genetics Proto-Oncogene Proteins p21(ras) - metabolism ral Guanine Nucleotide Exchange Factor - chemistry ral Guanine Nucleotide Exchange Factor - genetics ral Guanine Nucleotide Exchange Factor - metabolism Research and Analysis Methods Sequence Homology, Amino Acid Signal Transduction Signaling Structure-function relationships Studies |
title | The RAS-Effector Interface: Isoform-Specific Differences in the Effector Binding Regions |
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