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Journal of molecular biology. https://doi.org/10.1016/j.jmb.2005.12.034", "YEAR_KIN": 2006.0, "PMID_KIN": "16406408", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "E3BD (F166W)", "SOURCE": "Geobacillus stearothermophilus (Bacillus stearothermophilus)", "LENGTH": 45.0, "UniProt": "P11961", "PDB_wild": "1w4e", "MUTATED_CHAIN": "A", "PFAM": [ "PF02817" ], "CATH": [ "1w4eA00 (4.10.320.10)" ], "EC_NUMBER": "2.3.1.12", "MUTATION_UNIPROT": "A165G", "MUTATION_PDB": "A165G", "SEC_STR": "Helix", "RSA": "48.1", "T": 25.0, "pH": 5.5, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "T-jump or stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 8.9, "dln(kf)_H2O": -1.33, "ln(ku)_H2O": 4.09, "dln(ku)_H2O": 1.09, "mf": -2.43, "mu": 1.09, "BACKGROUND_MUT_UNIPROT": [ "F166W" ], "AUTHOR_KIN": "Ferguson, N., Sharpe, T.D., Johnson, C.M., Fersht, A.R.", "REFERENCE_KIN": "The transition state for folding of a peripheral subunit-binding domain contains robust and ionic-strength dependent characteristics [WWW Document]. Journal of molecular biology. https://doi.org/10.1016/j.jmb.2005.12.035", "YEAR_KIN": 2006.0, "PMID_KIN": "16406408", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "E3BD (F166W)", "SOURCE": "Geobacillus stearothermophilus (Bacillus stearothermophilus)", "LENGTH": 45.0, "UniProt": "P11961", "PDB_wild": "1w4e", "MUTATED_CHAIN": "A", "PFAM": [ "PF02817" ], "CATH": [ "1w4eA00 (4.10.320.10)" ], "EC_NUMBER": "2.3.1.12", "MUTATION_UNIPROT": "A165G", "MUTATION_PDB": "A165G", "SEC_STR": "Helix", "RSA": "48.1", "T": 25.0, "pH": 5.5, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "T-jump or stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 8.9, "dln(kf)_H2O": -1.33, "ln(ku)_H2O": 4.09, "dln(ku)_H2O": 1.09, "mf": -2.43, "mu": 1.09, "BACKGROUND_MUT_UNIPROT": [ "F166W" ], "AUTHOR_KIN": "Ferguson, N., Sharpe, T.D., Johnson, C.M., Fersht, A.R.", "REFERENCE_KIN": "The transition state for folding of a peripheral subunit-binding domain contains robust and ionic-strength dependent characteristics [WWW Document]. 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Biochemistry. 41(25):7998-8003. doi: 10.1021/bi025872n", "YEAR_KIN": 2002.0, "PMID_KIN": "12069590", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Rd-apocyt b562 (de novo)", "SOURCE": "Escherichia coli", "LENGTH": 106.0, "UniProt": "P0ABE7", "PDB_wild": "1yyj", "MUTATED_CHAIN": "A", "MUTATION_UNIPROT": "A20G", "MUTATION_PDB": "A20G", "SEC_STR": "Coil", "RSA": "0.0", "T": 25.0, "pH": 5.0, "BUFFER_NAME": "NaAcetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.75, "dln(kf)_H2O": -0.27, "ln(ku)_H2O": -0.84, "dln(ku)_H2O": 3.07, "dGKIN_H2O": 13.86, "ddGKIN_H2O": -8.26, "mf": -2.8, "mu": 3.18, "PhiF_H2O": 0.08, "BACKGROUND_MUT_UNIPROT": [ "M7W", "R98I", "N99R", "H102N", "R106G" ], "AUTHOR_KIN": "Chu R, Pei W, Takei J, Bai Y.", "REFERENCE_KIN": "Relationship between the native-state hydrogen exchange and folding pathways of a four-helix bundle protein. Biochemistry. 41(25):7998-8003. doi: 10.1021/bi025872n", "YEAR_KIN": 2002.0, "PMID_KIN": "12069590", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Rd-apocyt b562 (de novo)", "SOURCE": "Escherichia coli", "LENGTH": 106.0, "UniProt": "P0ABE7", "PDB_wild": "1yyj", "MUTATED_CHAIN": "A", "MUTATION_UNIPROT": "A23G", "MUTATION_PDB": "A23G", "SEC_STR": "Helix", "RSA": "26.4", "T": 25.0, "pH": 5.0, "BUFFER_NAME": "NaAcetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.99, "dln(kf)_H2O": -0.03, "ln(ku)_H2O": -2.12, "dln(ku)_H2O": 1.79, "dGKIN_H2O": 17.62, "ddGKIN_H2O": -4.5, "mf": -3.68, "mu": 3.43, "PhiF_H2O": 0.01, "BACKGROUND_MUT_UNIPROT": [ "M7W", "R98I", "N99R", "H102N", "R106G" ], "AUTHOR_KIN": "Chu R, Pei W, Takei J, Bai Y.", "REFERENCE_KIN": "Relationship between the native-state hydrogen exchange and folding pathways of a four-helix bundle protein. Biochemistry. 41(25):7998-8003. doi: 10.1021/bi025872n", "YEAR_KIN": 2002.0, "PMID_KIN": "12069590", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Rd-apocyt b562 (de novo)", "SOURCE": "Escherichia coli", "LENGTH": 106.0, "UniProt": "P0ABE7", "PDB_wild": "1yyj", "MUTATED_CHAIN": "A", "MUTATION_UNIPROT": "A23G", "MUTATION_PDB": "A23G", "SEC_STR": "Helix", "RSA": "26.4", "T": 25.0, "pH": 5.0, "BUFFER_NAME": "NaAcetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.99, "dln(kf)_H2O": -0.03, "ln(ku)_H2O": -2.12, "dln(ku)_H2O": 1.79, "dGKIN_H2O": 17.62, "ddGKIN_H2O": -4.5, "mf": -3.68, "mu": 3.43, "PhiF_H2O": 0.01, "BACKGROUND_MUT_UNIPROT": [ "M7W", "R98I", "N99R", "H102N", "R106G" ], "AUTHOR_KIN": "Chu R, Pei W, Takei J, Bai Y.", "REFERENCE_KIN": "Relationship between the native-state hydrogen exchange and folding pathways of a four-helix bundle protein. Biochemistry. 41(25):7998-8003. doi: 10.1021/bi025872n", "YEAR_KIN": 2002.0, "PMID_KIN": "12069590", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Rd-apocyt b562 (de novo)", "SOURCE": "Escherichia coli", "LENGTH": 106.0, "UniProt": "P0ABE7", "PDB_wild": "1yyj", "MUTATED_CHAIN": "A", "MUTATION_UNIPROT": "K27A", "MUTATION_PDB": "K27A", "SEC_STR": "Helix", "RSA": "48.8", "T": 25.0, "pH": 5.0, "BUFFER_NAME": "NaAcetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 5.2, "dln(kf)_H2O": 0.18, "ln(ku)_H2O": -3.51, "dln(ku)_H2O": 0.4, "dGKIN_H2O": 21.56, "ddGKIN_H2O": -0.55, "mf": -3.14, "mu": 3.14, "BACKGROUND_MUT_UNIPROT": [ "M7W", "R98I", "N99R", "H102N", "R106G" ], "AUTHOR_KIN": "Chu R, Pei W, Takei J, Bai Y.", "REFERENCE_KIN": "Relationship between the native-state hydrogen exchange and folding pathways of a four-helix bundle protein. Biochemistry. 41(25):7998-8003. doi: 10.1021/bi025872n", "YEAR_KIN": 2002.0, "PMID_KIN": "12069590", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Rd-apocyt b562 (de novo)", "SOURCE": "Escherichia coli", "LENGTH": 106.0, "UniProt": "P0ABE7", "PDB_wild": "1yyj", "MUTATED_CHAIN": "A", "MUTATION_UNIPROT": "K27A", "MUTATION_PDB": "K27A", "SEC_STR": "Helix", "RSA": "48.8", "T": 25.0, "pH": 5.0, "BUFFER_NAME": "NaAcetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 5.2, "dln(kf)_H2O": 0.18, "ln(ku)_H2O": -3.51, "dln(ku)_H2O": 0.4, "dGKIN_H2O": 21.56, "ddGKIN_H2O": -0.55, "mf": -3.14, "mu": 3.14, "BACKGROUND_MUT_UNIPROT": [ "M7W", "R98I", "N99R", "H102N", "R106G" ], "AUTHOR_KIN": "Chu R, Pei W, Takei J, Bai Y.", "REFERENCE_KIN": "Relationship between the native-state hydrogen exchange and folding pathways of a four-helix bundle protein. Biochemistry. 41(25):7998-8003. doi: 10.1021/bi025872n", "YEAR_KIN": 2002.0, "PMID_KIN": "12069590", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Rd-apocyt b562 (de novo)", "SOURCE": "Escherichia coli", "LENGTH": 106.0, "UniProt": "P0ABE7", "PDB_wild": "1yyj", "MUTATED_CHAIN": "A", "MUTATION_UNIPROT": "K27G", "MUTATION_PDB": "K27G", "SEC_STR": "Helix", "RSA": "48.8", "T": 25.0, "pH": 5.0, "BUFFER_NAME": "NaAcetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.45, "dln(kf)_H2O": -0.57, "ln(ku)_H2O": -2.81, "dln(ku)_H2O": 1.1, "dGKIN_H2O": 18.01, "ddGKIN_H2O": -4.11, "mf": -3.14, "mu": 3.51, "PhiF_H2O": 0.33, "BACKGROUND_MUT_UNIPROT": [ "M7W", "R98I", "N99R", "H102N", "R106G" ], "AUTHOR_KIN": "Chu R, Pei W, Takei J, Bai Y.", "REFERENCE_KIN": "Relationship between the native-state hydrogen exchange and folding pathways of a four-helix bundle protein. Biochemistry. 41(25):7998-8003. doi: 10.1021/bi025872n", "YEAR_KIN": 2002.0, "PMID_KIN": "12069590", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Rd-apocyt b562 (de novo)", "SOURCE": "Escherichia coli", "LENGTH": 106.0, "UniProt": "P0ABE7", "PDB_wild": "1yyj", "MUTATED_CHAIN": "A", "MUTATION_UNIPROT": "K27G", "MUTATION_PDB": "K27G", "SEC_STR": "Helix", "RSA": "48.8", "T": 25.0, "pH": 5.0, "BUFFER_NAME": "NaAcetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.45, "dln(kf)_H2O": -0.57, "ln(ku)_H2O": -2.81, "dln(ku)_H2O": 1.1, "dGKIN_H2O": 18.01, "ddGKIN_H2O": -4.11, "mf": -3.14, "mu": 3.51, "PhiF_H2O": 0.33, "BACKGROUND_MUT_UNIPROT": [ "M7W", "R98I", "N99R", "H102N", "R106G" ], "AUTHOR_KIN": "Chu R, Pei W, Takei J, Bai Y.", "REFERENCE_KIN": "Relationship between the native-state hydrogen exchange and folding pathways of a four-helix bundle protein. Biochemistry. 41(25):7998-8003. doi: 10.1021/bi025872n", "YEAR_KIN": 2002.0, "PMID_KIN": "12069590", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Rd-apocyt b562 (de novo)", "SOURCE": "Escherichia coli", "LENGTH": 106.0, "UniProt": "P0ABE7", "PDB_wild": "1yyj", "MUTATED_CHAIN": "A", "MUTATION_UNIPROT": "L30A", "MUTATION_PDB": "L30A", "SEC_STR": "Helix", "RSA": "1.8", "T": 25.0, "pH": 5.0, "BUFFER_NAME": "NaAcetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.22, "dln(kf)_H2O": -0.8, "ln(ku)_H2O": 0.18, "dln(ku)_H2O": 4.09, "dGKIN_H2O": 10.0, "ddGKIN_H2O": -12.12, "mf": -5.1, "mu": 2.22, "PhiF_H2O": 0.17, "BACKGROUND_MUT_UNIPROT": [ "M7W", "R98I", "N99R", "H102N", "R106G" ], "AUTHOR_KIN": "Chu R, Pei W, Takei J, Bai Y.", "REFERENCE_KIN": "Relationship between the native-state hydrogen exchange and folding pathways of a four-helix bundle protein. Biochemistry. 41(25):7998-8003. doi: 10.1021/bi025872n", "YEAR_KIN": 2002.0, "PMID_KIN": "12069590", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Rd-apocyt b562 (de novo)", "SOURCE": "Escherichia coli", "LENGTH": 106.0, "UniProt": "P0ABE7", "PDB_wild": "1yyj", "MUTATED_CHAIN": "A", "MUTATION_UNIPROT": "L30A", "MUTATION_PDB": "L30A", "SEC_STR": "Helix", "RSA": "1.8", "T": 25.0, "pH": 5.0, "BUFFER_NAME": "NaAcetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.22, "dln(kf)_H2O": -0.8, "ln(ku)_H2O": 0.18, "dln(ku)_H2O": 4.09, "dGKIN_H2O": 10.0, "ddGKIN_H2O": -12.12, "mf": -5.1, "mu": 2.22, "PhiF_H2O": 0.17, "BACKGROUND_MUT_UNIPROT": [ "M7W", "R98I", "N99R", "H102N", "R106G" ], "AUTHOR_KIN": "Chu R, Pei W, Takei J, Bai Y.", "REFERENCE_KIN": "Relationship between the native-state hydrogen exchange and folding pathways of a four-helix bundle protein. Biochemistry. 41(25):7998-8003. doi: 10.1021/bi025872n", "YEAR_KIN": 2002.0, "PMID_KIN": "12069590", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Rd-apocyt b562 (de novo)", "SOURCE": "Escherichia coli", "LENGTH": 106.0, "UniProt": "P0ABE7", "PDB_wild": "1yyj", "MUTATED_CHAIN": "A", "MUTATION_UNIPROT": "M33A", "MUTATION_PDB": "M33A", "SEC_STR": "Helix", "RSA": "4.8", "T": 25.0, "pH": 5.0, "BUFFER_NAME": "NaAcetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.2, "dln(kf)_H2O": -0.82, "ln(ku)_H2O": 0.29, "dln(ku)_H2O": 4.2, "dGKIN_H2O": 9.68, "ddGKIN_H2O": -12.43, "mf": -2.97, "mu": 3.18, "PhiF_H2O": 0.16, "BACKGROUND_MUT_UNIPROT": [ "M7W", "R98I", "N99R", "H102N", "R106G" ], "AUTHOR_KIN": "Chu R, Pei W, Takei J, Bai Y.", "REFERENCE_KIN": "Relationship between the native-state hydrogen exchange and folding pathways of a four-helix bundle protein. Biochemistry. 41(25):7998-8003. doi: 10.1021/bi025872n", "YEAR_KIN": 2002.0, "PMID_KIN": "12069590", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Rd-apocyt b562 (de novo)", "SOURCE": "Escherichia coli", "LENGTH": 106.0, "UniProt": "P0ABE7", "PDB_wild": "1yyj", "MUTATED_CHAIN": "A", "MUTATION_UNIPROT": "M33A", "MUTATION_PDB": "M33A", "SEC_STR": "Helix", "RSA": "4.8", "T": 25.0, "pH": 5.0, "BUFFER_NAME": "NaAcetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.2, "dln(kf)_H2O": -0.82, "ln(ku)_H2O": 0.29, "dln(ku)_H2O": 4.2, "dGKIN_H2O": 9.68, "ddGKIN_H2O": -12.43, "mf": -2.97, "mu": 3.18, "PhiF_H2O": 0.16, "BACKGROUND_MUT_UNIPROT": [ "M7W", "R98I", "N99R", "H102N", "R106G" ], "AUTHOR_KIN": "Chu R, Pei W, Takei J, Bai Y.", "REFERENCE_KIN": "Relationship between the native-state hydrogen exchange and folding pathways of a four-helix bundle protein. Biochemistry. 41(25):7998-8003. doi: 10.1021/bi025872n", "YEAR_KIN": 2002.0, "PMID_KIN": "12069590", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Cold shock protein CspB", "SOURCE": "Bacillus caldolyticus", "LENGTH": 66.0, "UniProt": "P41016", "PDB_wild": "1c9o", "MUTATED_CHAIN": "A", "PFAM": [ "PF00313" ], "CATH": [ "1c9oA00 (2.40.50.140)" ], "MUTATION_PDB": "WT", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Na cacodylate-HCI", "BUFFER_CONC": "0.1", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GdmCl", "ln(kf)_H2O": 7.22, "ln(ku)_H2O": -0.45, "dGKIN_H2O": 19.0, "AUTHOR_KIN": "Perl D, Welker C, Schindler T, Schr\u00f6der K, Marahiel MA, Jaenicke R, Schmid FX", "REFERENCE_KIN": "Conservation of rapid two-state folding in mesophilic, thermophilic and hyperthermophilic cold shock proteins. Nat Struct Biol. 229-35. https://doi.org/10.1038/nsb0398-229", "YEAR_KIN": 1998.0, "PMID_KIN": "9501917", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "Cold shock protein CspB", "SOURCE": "Bacillus caldolyticus", "LENGTH": 66.0, "UniProt": "P41016", "PDB_wild": "1c9o", "MUTATED_CHAIN": "A", "PFAM": [ "PF00313" ], "CATH": [ "1c9oA00 (2.40.50.140)" ], "MUTATION_PDB": "WT", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Na cacodylate-HCI", "BUFFER_CONC": "0.1", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GdmCl", "ln(kf)_H2O": 7.22, "ln(ku)_H2O": -0.45, "dGKIN_H2O": 19.0, "AUTHOR_KIN": "Perl D, Welker C, Schindler T, Schr\u00f6der K, Marahiel MA, Jaenicke R, Schmid FX", "REFERENCE_KIN": "Conservation of rapid two-state folding in mesophilic, thermophilic and hyperthermophilic cold shock proteins. Nat Struct Biol. 229-35. https://doi.org/10.1038/nsb0398-229", "YEAR_KIN": 1998.0, "PMID_KIN": "9501917", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "LysM domain of Membrane-bound lytic murein transglycosylase D", "SOURCE": "Escherichia coli", "LENGTH": 48.0, "UniProt": "P0AEZ7", "PDB_wild": "1e0g", "MUTATED_CHAIN": "A", "PFAM": [ "PF01476" ], "CATH": [ "1e0gA00 (3.10.350.10)" ], "EC_NUMBER": "4.2.2.n1", "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 11.0, "pH": 7.0, "BUFFER_NAME": "MOPS", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GdmCl", "dGKIN_H2O": 12.13, "mu": 5.02, "AUTHOR_KIN": "Nickson AA, Stoll KE, Clarke J", "REFERENCE_KIN": "Folding of a LysM domain: entropy-enthalpy compensation in the transition state of an ideal two-state folder. J Mol Bio 380(3):557-69. https://doi.org/10.1016/j.jmb.2008.05.020", "YEAR_KIN": 2008.0, "PMID_KIN": "18538343", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-11T01:00:00" }, { "PROTEIN": "LysM domain of Membrane-bound lytic murein transglycosylase D", "SOURCE": "Escherichia coli", "LENGTH": 48.0, "UniProt": "P0AEZ7", "PDB_wild": "1e0g", "MUTATED_CHAIN": "A", "PFAM": [ "PF01476" ], "CATH": [ "1e0gA00 (3.10.350.10)" ], "EC_NUMBER": "4.2.2.n1", "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 11.0, "pH": 7.0, "BUFFER_NAME": "MOPS", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GdmCl", "dGKIN_H2O": 12.13, "mu": 5.02, "AUTHOR_KIN": "Nickson AA, Stoll KE, Clarke J", "REFERENCE_KIN": "Folding of a LysM domain: entropy-enthalpy compensation in the transition state of an ideal two-state folder. 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"Homo sapiens", "LENGTH": 100.0, "UniProt": "Q13158", "PDB_wild": "1e41", "MUTATED_CHAIN": "A", "PFAM": [ "PF00531" ], "CATH": [ "1e41A00 (1.10.533.10)" ], "MUTATION_UNIPROT": "S128A", "MUTATION_PDB": "S128A", "SEC_STR": "Helix", "RSA": "32.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "5 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "Urea", "mu": 4.6, "AUTHOR_KIN": "Steward A, McDowell GS ,Clarke J", "REFERENCE_KIN": "Topology is the Principal Determinant in the Folding of a Complex All-alpha Greek Key Death Domain from Human FADD, J Mol Biol. 389(2-3): 425\u2013437. https://doi.org/10.1016/j.jmb.2009.04.004", "YEAR_KIN": 2009.0, "PMID_KIN": "19362094", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-11T01:00:00" }, { "PROTEIN": "FADD-DD Fas-associated death domain protein", "SOURCE": "Homo sapiens", "LENGTH": 100.0, "UniProt": "Q13158", "PDB_wild": "1e41", "MUTATED_CHAIN": "A", "PFAM": [ "PF00531" ], "CATH": [ "1e41A00 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5.86, "AUTHOR_KIN": "Steward A, McDowell GS ,Clarke J", "REFERENCE_KIN": "Topology is the Principal Determinant in the Folding of a Complex All-alpha Greek Key Death Domain from Human FADD, J Mol Biol. 389(2-3): 425\u2013437. https://doi.org/10.1016/j.jmb.2009.04.004", "YEAR_KIN": 2009.0, "PMID_KIN": "19362094", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-11T01:00:00" }, { "PROTEIN": "FADD-DD Fas-associated death domain protein", "SOURCE": "Homo sapiens", "LENGTH": 100.0, "UniProt": "Q13158", "PDB_wild": "1e41", "MUTATED_CHAIN": "A", "PFAM": [ "PF00531" ], "CATH": [ "1e41A00 (1.10.533.10)" ], "MUTATION_UNIPROT": "I129A", "MUTATION_PDB": "I129A", "SEC_STR": "Helix", "RSA": "2.4", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "5 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "Urea", "mu": 6.28, "AUTHOR_KIN": "Steward A, McDowell GS ,Clarke J", "REFERENCE_KIN": "Topology is the Principal Determinant in the Folding of a 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"YEAR_KIN": 2009.0, "PMID_KIN": "19362094", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-11T01:00:00" }, { "PROTEIN": "FADD-DD Fas-associated death domain protein", "SOURCE": "Homo sapiens", "LENGTH": 100.0, "UniProt": "Q13158", "PDB_wild": "1e41", "MUTATED_CHAIN": "A", "PFAM": [ "PF00531" ], "CATH": [ "1e41A00 (1.10.533.10)" ], "MUTATION_UNIPROT": "D131A", "MUTATION_PDB": "D131A", "SEC_STR": "Helix", "RSA": "78.5", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "5 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "Urea", "mu": 5.86, "AUTHOR_KIN": "Steward A, McDowell GS ,Clarke J", "REFERENCE_KIN": "Topology is the Principal Determinant in the Folding of a Complex All-alpha Greek Key Death Domain from Human FADD, J Mol Biol. 389(2-3): 425\u2013437. https://doi.org/10.1016/j.jmb.2009.04.004", "YEAR_KIN": 2009.0, "PMID_KIN": "19362094", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-11T01:00:00" }, { "PROTEIN": 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Biol. 6, 1016\u20131024. https://doi.org/10.1038/14930", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "V114A", "MUTATION_PDB": "V111A", "SEC_STR": "Coil", "RSA": "66.2", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.31, "mu": 2.47, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. 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Biol. 6, 1016\u20131024. https://doi.org/10.1038/14932", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "G119A", "MUTATION_PDB": "G116A", "SEC_STR": "Coil", "RSA": "41.7", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -3.85, "mu": 2.3, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14933", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "G119A", "MUTATION_PDB": "G116A", "SEC_STR": "Coil", "RSA": "41.7", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -3.85, "mu": 2.3, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14933", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "W121A", "MUTATION_PDB": "W118A", "SEC_STR": "Beta", "RSA": "10.6", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.78, "mu": 1.88, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14934", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "W121A", "MUTATION_PDB": "W118A", "SEC_STR": "Beta", "RSA": "10.6", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.78, "mu": 1.88, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14934", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "W122A", "MUTATION_PDB": "W119A", "SEC_STR": "Beta", "RSA": "13.2", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.85, "mu": 1.46, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14935", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "W122A", "MUTATION_PDB": "W119A", "SEC_STR": "Beta", "RSA": "13.2", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.85, "mu": 1.46, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14935", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "W122I", "MUTATION_PDB": "W119I", "SEC_STR": "Beta", "RSA": "13.2", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.6, "mu": 2.59, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14936", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "W122I", "MUTATION_PDB": "W119I", "SEC_STR": "Beta", "RSA": "13.2", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.6, "mu": 2.59, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14936", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "L123A", "MUTATION_PDB": "L120A", "SEC_STR": "Beta", "RSA": "65.9", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.87, "mu": 1.72, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14937", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "L123A", "MUTATION_PDB": "L120A", "SEC_STR": "Beta", "RSA": "65.9", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.87, "mu": 1.72, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14937", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "A124G", "MUTATION_PDB": "A121G", "SEC_STR": "Beta", "RSA": "3.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.11, "mu": 1.63, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14938", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "A124G", "MUTATION_PDB": "A121G", "SEC_STR": "Beta", "RSA": "3.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.11, "mu": 1.63, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14938", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "H125A", "MUTATION_PDB": "H122A", "SEC_STR": "Beta", "RSA": "42.4", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.14, "mu": 2.43, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14939", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "H125A", "MUTATION_PDB": "H122A", "SEC_STR": "Beta", "RSA": "42.4", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.14, "mu": 2.43, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14939", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "S126A", "MUTATION_PDB": "S123A", "SEC_STR": "Beta", "RSA": "0.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.28, "mu": 1.84, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14940", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "S126A", "MUTATION_PDB": "S123A", "SEC_STR": "Beta", "RSA": "0.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.28, "mu": 1.84, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14940", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "L127A", "MUTATION_PDB": "L124A", "SEC_STR": "Coil", "RSA": "67.7", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.02, "mu": 2.13, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14941", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "L127A", "MUTATION_PDB": "L124A", "SEC_STR": "Coil", "RSA": "67.7", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.02, "mu": 2.13, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14941", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "S128A", "MUTATION_PDB": "S125A", "SEC_STR": "Coil", "RSA": "58.5", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.02, "mu": 2.55, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. 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Biol. 6, 1016\u20131024. https://doi.org/10.1038/14942", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "T129A", "MUTATION_PDB": "T126A", "SEC_STR": "Coil", "RSA": "52.1", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.7, "mu": 1.97, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. 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Biol. 6, 1016\u20131024. https://doi.org/10.1038/14943", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "G130A", "MUTATION_PDB": "G127A", "SEC_STR": "Coil", "RSA": "48.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.32, "mu": 1.72, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14944", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "G130A", "MUTATION_PDB": "G127A", "SEC_STR": "Coil", "RSA": "48.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.32, "mu": 1.72, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14944", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "Q131A", "MUTATION_PDB": "Q128A", "SEC_STR": "Coil", "RSA": "63.1", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.31, "mu": 2.05, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14945", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "Q131A", "MUTATION_PDB": "Q128A", "SEC_STR": "Coil", "RSA": "63.1", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.31, "mu": 2.05, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14945", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "T132A", "MUTATION_PDB": "T129A", "SEC_STR": "Beta", "RSA": "68.3", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.77, "mu": 2.34, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14946", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "T132A", "MUTATION_PDB": "T129A", "SEC_STR": "Beta", "RSA": "68.3", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.77, "mu": 2.34, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14946", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "G133A", "MUTATION_PDB": "G130A", "SEC_STR": "Beta", "RSA": "7.1", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.69, "mu": 1.51, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14947", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "G133A", "MUTATION_PDB": "G130A", "SEC_STR": "Beta", "RSA": "7.1", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.69, "mu": 1.51, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14947", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "Y134A", "MUTATION_PDB": "Y131A", "SEC_STR": "Beta", "RSA": "29.3", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.86, "mu": 1.63, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14948", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "Y134A", "MUTATION_PDB": "Y131A", "SEC_STR": "Beta", "RSA": "29.3", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.86, "mu": 1.63, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14948", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "I135A", "MUTATION_PDB": "I132A", "SEC_STR": "Beta", "RSA": "0.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.86, "mu": 1.92, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14949", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "I135A", "MUTATION_PDB": "I132A", "SEC_STR": "Beta", "RSA": "0.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.86, "mu": 1.92, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14949", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "P136A", "MUTATION_PDB": "P133A", "SEC_STR": "Beta", "RSA": "0.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.69, "mu": 1.88, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14950", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "P136A", "MUTATION_PDB": "P133A", "SEC_STR": "Beta", "RSA": "0.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.69, "mu": 1.88, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14950", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "S137A", "MUTATION_PDB": "S134A", "SEC_STR": "Helix", "RSA": "16.2", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.14, "mu": 2.43, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14951", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "S137A", "MUTATION_PDB": "S134A", "SEC_STR": "Helix", "RSA": "16.2", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.14, "mu": 2.43, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14951", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "N138A", "MUTATION_PDB": "N135A", "SEC_STR": "Helix", "RSA": "38.9", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -3.64, "mu": 2.43, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14952", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "N138A", "MUTATION_PDB": "N135A", "SEC_STR": "Helix", "RSA": "38.9", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -3.64, "mu": 2.43, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14952", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "Y139A", "MUTATION_PDB": "Y136A", "SEC_STR": "Helix", "RSA": "3.2", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.44, "mu": 1.97, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. 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Biol. 6, 1016\u20131024. https://doi.org/10.1038/14953", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "V140A", "MUTATION_PDB": "V137A", "SEC_STR": "Beta", "RSA": "8.5", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.81, "mu": 1.84, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14954", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "V140A", "MUTATION_PDB": "V137A", "SEC_STR": "Beta", "RSA": "8.5", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.81, "mu": 1.84, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14954", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "A141G", "MUTATION_PDB": "A138G", "SEC_STR": "Beta", "RSA": "2.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.69, "mu": 2.3, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14955", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "A141G", "MUTATION_PDB": "A138G", "SEC_STR": "Beta", "RSA": "2.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.69, "mu": 2.3, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14955", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "P142A", "MUTATION_PDB": "P139A", "SEC_STR": "Beta", "RSA": "38.2", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.35, "mu": 2.01, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14956", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "P142A", "MUTATION_PDB": "P139A", "SEC_STR": "Beta", "RSA": "38.2", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.35, "mu": 2.01, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. 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Biol. 6, 1016\u20131024. https://doi.org/10.1038/14957", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "S143A", "MUTATION_PDB": "S140A", "SEC_STR": "Coil", "RSA": "23.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -3.97, "mu": 2.47, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. 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Biol. 6, 1016\u20131024. https://doi.org/10.1038/14923", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "R110A", "MUTATION_PDB": "R107A", "SEC_STR": "Beta", "RSA": "62.5", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.18, "mu": 2.38, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. 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Biol. 6, 1016\u20131024. https://doi.org/10.1038/14924", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "L111A", "MUTATION_PDB": "L108A", "SEC_STR": "Beta", "RSA": "0.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. 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Biol. 6, 1016\u20131024. https://doi.org/10.1038/14925", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "L111V", "MUTATION_PDB": "L108V", "SEC_STR": "Beta", "RSA": "0.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.31, "mu": 2.34, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. 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Biol. 6, 1016\u20131024. https://doi.org/10.1038/14926", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "Q112A", "MUTATION_PDB": "Q109A", "SEC_STR": "Beta", "RSA": "19.7", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -4.64, "mu": 2.3, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. 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Biol. 6, 1016\u20131024. https://doi.org/10.1038/14927", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "I113A", "MUTATION_PDB": "I110A", "SEC_STR": "Beta", "RSA": "0.6", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.82, "mu": 2.13, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14928", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "src SHR", "SOURCE": "Homo sapiens", "LENGTH": 64.0, "UniProt": "P12931", "PDB_wild": "1fmk", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018", "PF07714", "PF00017" ], "CATH": [ "1fmkA01 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "I113A", "MUTATION_PDB": "I110A", "SEC_STR": "Beta", "RSA": "0.6", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.82, "mu": 2.13, "AUTHOR_KIN": "Riddle, D.S., Grantcharova, V.P., Santiago, J.V., Alm, E., Ruczinski, I., Baker, D.", "REFERENCE_KIN": "Experiment and theory highlight role of native state topology in SH3 folding. Nat. Struct. Biol. 6, 1016\u20131024. https://doi.org/10.1038/14928", "YEAR_KIN": 1999.0, "PMID_KIN": "10542092", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Tyrosine-protein kinase transforming protein Src", "SOURCE": "Rous sarcoma virus subgroup A", "LENGTH": 104.0, "UniProt": "P00524", "PDB_wild": "1sha", "MUTATED_CHAIN": "A", "PFAM": [ "PF00017" ], "CATH": [ "1shaA00 (3.30.505.10)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_PDB": "WT", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "imidizole", "BUFFER_CONC": "0.02", "ADDITIVES": "0.1 mM TCEP", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 8.74, "ln(ku)_H2O": -3.48, "dGKIN_H2O": 29.53, "AUTHOR_KIN": "Maxwell, K.L., Wildes, D., Zarrine-Afsar, A., De Los Rios, M.A., Brown, A.G., Friel, C.T., Hedberg, L., Horng, J.-C., Bona, D., Miller, E.J., Vall\u00e9e-B\u00e9lisle, A., Main, E.R.G., Bemporad, F., Qiu, L., Teilum, K., Vu, N.-D., Edwards, A.M., Ruczinski, I., Poulsen, F.M., Kragelund, B.B., Michnick, S.W., Chiti, F., Bai, Y., Hagen, S.J., Serrano, L., Oliveberg, M., Raleigh, D.P., Wittung-Stafshede, P., Radford, S.E., Jackson, S.E., Sosnick, T.R., Marqusee, S., Davidson, A.R., Plaxco, K.W.", "REFERENCE_KIN": "Protein folding: defining a \u201cstandard\u201d set of experimental conditions and a preliminary kinetic data set of two-state proteins. 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Biol. 298, 971\u2013984. https://doi.org/10.1006/jmbi.2000.3724", "YEAR_KIN": 2000.0, "PMID_KIN": "10801362", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein LG", "SOURCE": "Finegoldia magna (Peptostreptococcus magnus)", "LENGTH": 78.0, "UniProt": "Q53291", "PDB_wild": "2ptl", "MUTATED_CHAIN": "A", "PFAM": [ "PF02246" ], "CATH": [ "2ptlA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "N51A,G52A", "MUTATION_PDB": "N28A,G29A", "SEC_STR": "Coil,Coil", "RSA": "73.9,70.2", "T": 22.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 1.05, "dln(kf)_H2O": -3.05, "mf": -7.95, "mu": 2.18, "PhiF_H2O": 0.65, "AUTHOR_KIN": "Kim, D.E., Fisher, C., Baker, D.", "REFERENCE_KIN": "A breakdown of symmetry in the folding transition state of protein L. J. Mol. 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Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb748", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.41, "ln(ku)_H2O": -0.67, "mf": -8.83, "mu": 3.43, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. 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Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb749", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "F87S", "MUTATION_PDB": "F87S", "SEC_STR": "Beta", "RSA": "17.8", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 2.7, "dln(kf)_H2O": -0.71, "ln(ku)_H2O": 1.95, "dln(ku)_H2O": 2.62, "ddGKIN_H2O": -8.2, "mf": -7.49, "mu": 1.88, "PhiF_H2O": 0.21, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb749", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "F87A", "MUTATION_PDB": "F87A", "SEC_STR": "Beta", "RSA": "17.8", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 2.78, "dln(kf)_H2O": -0.63, "ln(ku)_H2O": 0.96, "dln(ku)_H2O": 1.63, "ddGKIN_H2O": -5.61, "mf": -7.95, "mu": 4.06, "PhiF_H2O": 0.28, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb750", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "F87A", "MUTATION_PDB": "F87A", "SEC_STR": "Beta", "RSA": "17.8", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 2.78, "dln(kf)_H2O": -0.63, "ln(ku)_H2O": 0.96, "dln(ku)_H2O": 1.63, "ddGKIN_H2O": -5.61, "mf": -7.95, "mu": 4.06, "PhiF_H2O": 0.28, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb750", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "F87V", "MUTATION_PDB": "F87V", "SEC_STR": "Beta", "RSA": "17.8", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.17, "dln(kf)_H2O": -0.24, "ln(ku)_H2O": -0.13, "dln(ku)_H2O": 0.54, "ddGKIN_H2O": -1.97, "mf": -8.58, "mu": 3.18, "PhiF_H2O": 0.3, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb751", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "F87V", "MUTATION_PDB": "F87V", "SEC_STR": "Beta", "RSA": "17.8", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.17, "dln(kf)_H2O": -0.24, "ln(ku)_H2O": -0.13, "dln(ku)_H2O": 0.54, "ddGKIN_H2O": -1.97, "mf": -8.58, "mu": 3.18, "PhiF_H2O": 0.3, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb751", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "F87L", "MUTATION_PDB": "F87L", "SEC_STR": "Beta", "RSA": "17.8", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 2.97, "dln(kf)_H2O": -0.44, "ln(ku)_H2O": 2.25, "dln(ku)_H2O": 2.92, "ddGKIN_H2O": -8.33, "mf": -8.37, "mu": 3.64, "PhiF_H2O": 0.13, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb752", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "F87L", "MUTATION_PDB": "F87L", "SEC_STR": "Beta", "RSA": "17.8", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 2.97, "dln(kf)_H2O": -0.44, "ln(ku)_H2O": 2.25, "dln(ku)_H2O": 2.92, "ddGKIN_H2O": -8.33, "mf": -8.37, "mu": 3.64, "PhiF_H2O": 0.13, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb752", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "A89S", "MUTATION_PDB": "A89S", "SEC_STR": "Beta", "RSA": "2.8", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.1, "dln(kf)_H2O": -0.31, "ln(ku)_H2O": 1.16, "dln(ku)_H2O": 1.83, "ddGKIN_H2O": -5.27, "mf": -7.91, "mu": 4.31, "PhiF_H2O": 0.14, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. 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Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb756", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "L101I", "MUTATION_PDB": "L101I", "SEC_STR": "Coil", "RSA": "4.9", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.49, "dln(kf)_H2O": 0.08, "ln(ku)_H2O": 0.59, "dln(ku)_H2O": 1.26, "ddGKIN_H2O": -2.89, "mf": -8.66, "mu": 4.14, "PhiF_H2O": -0.07, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. 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Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb758", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "F103S", "MUTATION_PDB": "F103S", "SEC_STR": "Beta", "RSA": "2.0", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 2.73, "dln(kf)_H2O": -0.68, "ln(ku)_H2O": 3.77, "dln(ku)_H2O": 4.44, "ddGKIN_H2O": -12.68, "mf": -6.95, "mu": 2.01, "PhiF_H2O": 0.13, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. 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Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb772", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "A122V", "MUTATION_PDB": "A122V", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.49, "dln(kf)_H2O": 2.08, "ln(ku)_H2O": 1.1, "dln(ku)_H2O": 1.77, "ddGKIN_H2O": 0.75, "mf": -8.41, "mu": 4.56, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. 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Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb776", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "I133V", "MUTATION_PDB": "I133V", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.17, "dln(kf)_H2O": -0.24, "ln(ku)_H2O": -0.87, "dln(ku)_H2O": -0.2, "ddGKIN_H2O": -0.17, "mf": -8.91, "mu": 2.76, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. 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Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb779", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "I133F", "MUTATION_PDB": "I133F", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.28, "dln(kf)_H2O": -0.13, "ln(ku)_H2O": 5.08, "dln(ku)_H2O": 5.75, "ddGKIN_H2O": -14.52, "mf": -7.45, "mu": 3.39, "PhiF_H2O": 0.02, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb779", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "V138A", "MUTATION_PDB": "V138A", "SEC_STR": "Beta", "RSA": "9.2", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.37, "dln(kf)_H2O": -0.04, "ln(ku)_H2O": 2.89, "dln(ku)_H2O": 3.56, "ddGKIN_H2O": -8.91, "mf": -8.16, "mu": 4.02, "PhiF_H2O": 0.01, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb780", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "V138A", "MUTATION_PDB": "V138A", "SEC_STR": "Beta", "RSA": "9.2", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.37, "dln(kf)_H2O": -0.04, "ln(ku)_H2O": 2.89, "dln(ku)_H2O": 3.56, "ddGKIN_H2O": -8.91, "mf": -8.16, "mu": 4.02, "PhiF_H2O": 0.01, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb780", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "V138I", "MUTATION_PDB": "V138I", "SEC_STR": "Beta", "RSA": "9.2", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.96, "dln(kf)_H2O": 0.55, "ln(ku)_H2O": -0.42, "dln(ku)_H2O": 0.25, "ddGKIN_H2O": 0.71, "mf": -9.08, "mu": 4.14, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb781", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "V138I", "MUTATION_PDB": "V138I", "SEC_STR": "Beta", "RSA": "9.2", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.96, "dln(kf)_H2O": 0.55, "ln(ku)_H2O": -0.42, "dln(ku)_H2O": 0.25, "ddGKIN_H2O": 0.71, "mf": -9.08, "mu": 4.14, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb781", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "V138L", "MUTATION_PDB": "V138L", "SEC_STR": "Beta", "RSA": "9.2", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.99, "dln(kf)_H2O": 0.58, "ln(ku)_H2O": 0.11, "dln(ku)_H2O": 0.78, "ddGKIN_H2O": -0.5, "mf": -8.7, "mu": 4.31, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb782", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "V138L", "MUTATION_PDB": "V138L", "SEC_STR": "Beta", "RSA": "9.2", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.99, "dln(kf)_H2O": 0.58, "ln(ku)_H2O": 0.11, "dln(ku)_H2O": 0.78, "ddGKIN_H2O": -0.5, "mf": -8.7, "mu": 4.31, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb782", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "V138F", "MUTATION_PDB": "V138F", "SEC_STR": "Beta", "RSA": "9.2", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.43, "dln(kf)_H2O": 1.02, "ln(ku)_H2O": 1.59, "dln(ku)_H2O": 2.26, "ddGKIN_H2O": -3.05, "mf": -8.45, "mu": 4.27, "PhiF_H2O": -0.82, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb783", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "V138F", "MUTATION_PDB": "V138F", "SEC_STR": "Beta", "RSA": "9.2", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.43, "dln(kf)_H2O": 1.02, "ln(ku)_H2O": 1.59, "dln(ku)_H2O": 2.26, "ddGKIN_H2O": -3.05, "mf": -8.45, "mu": 4.27, "PhiF_H2O": -0.82, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb783", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "A122G,V138I", "MUTATION_PDB": "A122G,V138I", "SEC_STR": "Beta,Beta", "RSA": "0.0,9.2", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 1.63, "dln(kf)_H2O": -1.78, "ln(ku)_H2O": -0.4, "dln(ku)_H2O": 0.27, "ddGKIN_H2O": -5.06, "mf": -8.95, "mu": 3.43, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb784", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "A122G,V138I", "MUTATION_PDB": "A122G,V138I", "SEC_STR": "Beta,Beta", "RSA": "0.0,9.2", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 1.63, "dln(kf)_H2O": -1.78, "ln(ku)_H2O": -0.4, "dln(ku)_H2O": 0.27, "ddGKIN_H2O": -5.06, "mf": -8.95, "mu": 3.43, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb784", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "A122V,V138I", "MUTATION_PDB": "A122V,V138I", "SEC_STR": "Beta,Beta", "RSA": "0.0,9.2", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.06, "dln(kf)_H2O": 2.65, "ln(ku)_H2O": 0.99, "dln(ku)_H2O": 1.66, "ddGKIN_H2O": 2.26, "mf": -8.49, "mu": 4.77, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb785", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "A122V,V138I", "MUTATION_PDB": "A122V,V138I", "SEC_STR": "Beta,Beta", "RSA": "0.0,9.2", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.06, "dln(kf)_H2O": 2.65, "ln(ku)_H2O": 0.99, "dln(ku)_H2O": 1.66, "ddGKIN_H2O": 2.26, "mf": -8.49, "mu": 4.77, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. Biol. 9, 126\u2013130. https://doi.org/10.1038/nsb785", "YEAR_KIN": 2002.0, "PMID_KIN": "11786916", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "A122G,V138L", "MUTATION_PDB": "A122G,V138L", "SEC_STR": "Beta,Beta", "RSA": "0.0,9.2", "T": 25.0, "pH": 8.0, "BUFFER_NAME": "Tris", "BUFFER_CONC": "0.01", "ADDITIVES": "0.2 mM EDTA", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 1.72, "dln(kf)_H2O": -1.69, "ln(ku)_H2O": -0.78, "dln(ku)_H2O": -0.11, "ddGKIN_H2O": -3.93, "mf": -9.12, "mu": 3.1, "AUTHOR_KIN": "Northey, J.G.B., Di Nardo, A.A., Davidson, A.R.", "REFERENCE_KIN": "Hydrophobic core packing in the SH3 domain folding transition state. Nat. Struct. 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Protein Sci 18(3):526-36. https://doi.org/10.1002/pro.52", "YEAR_KIN": 2009.0, "PMID_KIN": "19241379", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-11T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "T130A", "MUTATION_PDB": "T130A", "SEC_STR": "Beta", "RSA": "45.8", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.01", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.57, "mu": 2.01, "beta-T": 0.73, "AUTHOR_KIN": "Lin SL, Zarrine-Afsar A, Davidson AR", "REFERENCE_KIN": "The osmolyte trimethylamine-N-oxide stabilizes the Fyn SH3 domain without altering the structure of its folding transition state. Protein Sci 18(3):526-36. https://doi.org/10.1002/pro.52", "YEAR_KIN": 2009.0, "PMID_KIN": "19241379", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-11T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "T130A", "MUTATION_PDB": "T130A", "SEC_STR": "Beta", "RSA": "45.8", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.01", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.57, "mu": 2.01, "beta-T": 0.73, "AUTHOR_KIN": "Lin SL, Zarrine-Afsar A, Davidson AR", "REFERENCE_KIN": "The osmolyte trimethylamine-N-oxide stabilizes the Fyn SH3 domain without altering the structure of its folding transition state. Protein Sci 18(3):526-36. https://doi.org/10.1002/pro.52", "YEAR_KIN": 2009.0, "PMID_KIN": "19241379", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-11T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "N136V", "MUTATION_PDB": "N136V", "SEC_STR": "Helix", "RSA": "78.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.01", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.2, "mu": 2.4, "beta-T": 0.68, "AUTHOR_KIN": "Lin SL, Zarrine-Afsar A, Davidson AR", "REFERENCE_KIN": "The osmolyte trimethylamine-N-oxide stabilizes the Fyn SH3 domain without altering the structure of its folding transition state. Protein Sci 18(3):526-36. https://doi.org/10.1002/pro.52", "YEAR_KIN": 2009.0, "PMID_KIN": "19241379", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-11T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "N136V", "MUTATION_PDB": "N136V", "SEC_STR": "Helix", "RSA": "78.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.01", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.2, "mu": 2.4, "beta-T": 0.68, "AUTHOR_KIN": "Lin SL, Zarrine-Afsar A, Davidson AR", "REFERENCE_KIN": "The osmolyte trimethylamine-N-oxide stabilizes the Fyn SH3 domain without altering the structure of its folding transition state. Protein Sci 18(3):526-36. https://doi.org/10.1002/pro.52", "YEAR_KIN": 2009.0, "PMID_KIN": "19241379", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-11T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "V138L", "MUTATION_PDB": "V138L", "SEC_STR": "Beta", "RSA": "9.2", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.01", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.03, "mu": 2.43, "beta-T": 0.67, "AUTHOR_KIN": "Lin SL, Zarrine-Afsar A, Davidson AR", "REFERENCE_KIN": "The osmolyte trimethylamine-N-oxide stabilizes the Fyn SH3 domain without altering the structure of its folding transition state. Protein Sci 18(3):526-36. https://doi.org/10.1002/pro.52", "YEAR_KIN": 2009.0, "PMID_KIN": "19241379", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-11T01:00:00" }, { "PROTEIN": "Fyn SH3", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "P06241", "PDB_wild": "1shf", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shfA00 (2.30.30.40)" ], "EC_NUMBER": "2.7.10.2", "MUTATION_UNIPROT": "V138L", "MUTATION_PDB": "V138L", "SEC_STR": "Beta", "RSA": "9.2", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.01", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -5.03, "mu": 2.43, "beta-T": 0.67, "AUTHOR_KIN": "Lin SL, Zarrine-Afsar A, Davidson AR", "REFERENCE_KIN": "The osmolyte trimethylamine-N-oxide stabilizes the Fyn SH3 domain without altering the structure of its folding transition state. Protein Sci 18(3):526-36. https://doi.org/10.1002/pro.52", "YEAR_KIN": 2009.0, "PMID_KIN": "19241379", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-11T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.4, "dln(kf)_H2O": 5.4, "ln(ku)_H2O": -9.16, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9384", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.4, "dln(kf)_H2O": 5.4, "ln(ku)_H2O": -9.16, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9384", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "F6A", "MUTATION_PDB": "F5A", "SEC_STR": "Helix", "RSA": "0.0", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.15, "dln(kf)_H2O": -1.25, "ln(ku)_H2O": -5.68, "dln(ku)_H2O": 3.48, "ddGKIN_H2O": -10.93, "PhiF_H2O": 0.74, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9385", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "F6A", "MUTATION_PDB": "F5A", "SEC_STR": "Helix", "RSA": "0.0", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.15, "dln(kf)_H2O": -1.25, "ln(ku)_H2O": -5.68, "dln(ku)_H2O": 3.48, "ddGKIN_H2O": -10.93, "PhiF_H2O": 0.74, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9385", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "A10G", "MUTATION_PDB": "A9G", "SEC_STR": "Helix", "RSA": "6.6", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.2, "dln(kf)_H2O": -1.2, "ln(ku)_H2O": -6.76, "dln(ku)_H2O": 2.4, "ddGKIN_H2O": -8.32, "PhiF_H2O": 0.67, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9386", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "A10G", "MUTATION_PDB": "A9G", "SEC_STR": "Helix", "RSA": "6.6", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.2, "dln(kf)_H2O": -1.2, "ln(ku)_H2O": -6.76, "dln(ku)_H2O": 2.4, "ddGKIN_H2O": -8.32, "PhiF_H2O": 0.67, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9386", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "V13A", "MUTATION_PDB": "V12A", "SEC_STR": "Helix", "RSA": "7.7", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.29, "dln(kf)_H2O": -1.11, "ln(ku)_H2O": -7.58, "dln(ku)_H2O": 1.58, "ddGKIN_H2O": -6.21, "PhiF_H2O": 0.59, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9387", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "V13A", "MUTATION_PDB": "V12A", "SEC_STR": "Helix", "RSA": "7.7", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.29, "dln(kf)_H2O": -1.11, "ln(ku)_H2O": -7.58, "dln(ku)_H2O": 1.58, "ddGKIN_H2O": -6.21, "PhiF_H2O": 0.59, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9387", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "L16A", "MUTATION_PDB": "L15A", "SEC_STR": "Coil", "RSA": "0.6", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.24, "dln(kf)_H2O": -2.16, "ln(ku)_H2O": -4.89, "dln(ku)_H2O": 4.27, "ddGKIN_H2O": -14.86, "PhiF_H2O": 0.66, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9388", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "L16A", "MUTATION_PDB": "L15A", "SEC_STR": "Coil", "RSA": "0.6", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.24, "dln(kf)_H2O": -2.16, "ln(ku)_H2O": -4.89, "dln(ku)_H2O": 4.27, "ddGKIN_H2O": -14.86, "PhiF_H2O": 0.66, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9388", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "P20A", "MUTATION_PDB": "P19A", "SEC_STR": "Coil", "RSA": "5.9", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.76, "dln(kf)_H2O": 0.36, "ln(ku)_H2O": -7.17, "dln(ku)_H2O": 1.99, "ddGKIN_H2O": -3.76, "PhiF_H2O": 1.22, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9389", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "P20A", "MUTATION_PDB": "P19A", "SEC_STR": "Coil", "RSA": "5.9", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.76, "dln(kf)_H2O": 0.36, "ln(ku)_H2O": -7.17, "dln(ku)_H2O": 1.99, "ddGKIN_H2O": -3.76, "PhiF_H2O": 1.22, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9389", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "D22A", "MUTATION_PDB": "D21A", "SEC_STR": "Helix", "RSA": "20.2", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.76, "dln(kf)_H2O": 0.36, "ln(ku)_H2O": -8.09, "dln(ku)_H2O": 1.07, "ddGKIN_H2O": -1.64, "PhiF_H2O": 1.49, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9390", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "D22A", "MUTATION_PDB": "D21A", "SEC_STR": "Helix", "RSA": "20.2", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.76, "dln(kf)_H2O": 0.36, "ln(ku)_H2O": -8.09, "dln(ku)_H2O": 1.07, "ddGKIN_H2O": -1.64, "PhiF_H2O": 1.49, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9390", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "L26A", "MUTATION_PDB": "L25A", "SEC_STR": "Helix", "RSA": "9.8", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.59, "dln(kf)_H2O": 0.19, "ln(ku)_H2O": -5.33, "dln(ku)_H2O": 3.83, "ddGKIN_H2O": -8.41, "PhiF_H2O": 1.05, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9391", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "L26A", "MUTATION_PDB": "L25A", "SEC_STR": "Helix", "RSA": "9.8", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.59, "dln(kf)_H2O": 0.19, "ln(ku)_H2O": -5.33, "dln(ku)_H2O": 3.83, "ddGKIN_H2O": -8.41, "PhiF_H2O": 1.05, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9391", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "F27A", "MUTATION_PDB": "F26A", "SEC_STR": "Helix", "RSA": "25.9", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.34, "dln(kf)_H2O": -0.06, "ln(ku)_H2O": -6.27, "dln(ku)_H2O": 2.89, "ddGKIN_H2O": -6.82, "PhiF_H2O": 0.98, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9392", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "F27A", "MUTATION_PDB": "F26A", "SEC_STR": "Helix", "RSA": "25.9", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.34, "dln(kf)_H2O": -0.06, "ln(ku)_H2O": -6.27, "dln(ku)_H2O": 2.89, "ddGKIN_H2O": -6.82, "PhiF_H2O": 0.98, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9392", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "Y29A", "MUTATION_PDB": "Y28A", "SEC_STR": "Helix", "RSA": "27.0", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.64, "dln(kf)_H2O": 1.24, "ln(ku)_H2O": -3.38, "dln(ku)_H2O": 5.78, "ddGKIN_H2O": -10.49, "PhiF_H2O": 1.27, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9393", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "Y29A", "MUTATION_PDB": "Y28A", "SEC_STR": "Helix", "RSA": "27.0", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.64, "dln(kf)_H2O": 1.24, "ln(ku)_H2O": -3.38, "dln(ku)_H2O": 5.78, "ddGKIN_H2O": -10.49, "PhiF_H2O": 1.27, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9393", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "Y29N", "MUTATION_PDB": "Y28N", "SEC_STR": "Helix", "RSA": "27.0", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.9, "dln(kf)_H2O": 0.5, "ln(ku)_H2O": -4.23, "dln(ku)_H2O": 4.93, "ddGKIN_H2O": -10.24, "PhiF_H2O": 1.11, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9394", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "Y29N", "MUTATION_PDB": "Y28N", "SEC_STR": "Helix", "RSA": "27.0", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.9, "dln(kf)_H2O": 0.5, "ln(ku)_H2O": -4.23, "dln(ku)_H2O": 4.93, "ddGKIN_H2O": -10.24, "PhiF_H2O": 1.11, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9394", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "Y29F", "MUTATION_PDB": "Y28F", "SEC_STR": "Helix", "RSA": "27.0", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.93, "dln(kf)_H2O": 0.53, "ln(ku)_H2O": -6.36, "dln(ku)_H2O": 2.8, "ddGKIN_H2O": -5.24, "PhiF_H2O": 1.23, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9395", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "Y29F", "MUTATION_PDB": "Y28F", "SEC_STR": "Helix", "RSA": "27.0", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.93, "dln(kf)_H2O": 0.53, "ln(ku)_H2O": -6.36, "dln(ku)_H2O": 2.8, "ddGKIN_H2O": -5.24, "PhiF_H2O": 1.23, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9395", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "Y32N", "MUTATION_PDB": "Y31N", "SEC_STR": "Helix", "RSA": "28.8", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.42, "dln(kf)_H2O": 0.02, "ln(ku)_H2O": -7.39, "dln(ku)_H2O": 1.77, "ddGKIN_H2O": -4.04, "PhiF_H2O": 1.01, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9396", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "Y32N", "MUTATION_PDB": "Y31N", "SEC_STR": "Helix", "RSA": "28.8", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.42, "dln(kf)_H2O": 0.02, "ln(ku)_H2O": -7.39, "dln(ku)_H2O": 1.77, "ddGKIN_H2O": -4.04, "PhiF_H2O": 1.01, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9396", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "K33A", "MUTATION_PDB": "K32A", "SEC_STR": "Helix", "RSA": "28.3", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.24, "dln(kf)_H2O": 0.84, "ln(ku)_H2O": -5.44, "dln(ku)_H2O": 3.72, "ddGKIN_H2O": -6.65, "PhiF_H2O": 1.29, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9397", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "K33A", "MUTATION_PDB": "K32A", "SEC_STR": "Helix", "RSA": "28.3", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.24, "dln(kf)_H2O": 0.84, "ln(ku)_H2O": -5.44, "dln(ku)_H2O": 3.72, "ddGKIN_H2O": -6.65, "PhiF_H2O": 1.29, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9397", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "K33E", "MUTATION_PDB": "K32E", "SEC_STR": "Helix", "RSA": "28.3", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.29, "dln(kf)_H2O": -0.11, "ln(ku)_H2O": -6.63, "dln(ku)_H2O": 2.53, "ddGKIN_H2O": -6.1, "PhiF_H2O": 0.96, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9398", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "K33E", "MUTATION_PDB": "K32E", "SEC_STR": "Helix", "RSA": "28.3", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.29, "dln(kf)_H2O": -0.11, "ln(ku)_H2O": -6.63, "dln(ku)_H2O": 2.53, "ddGKIN_H2O": -6.1, "PhiF_H2O": 0.96, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9398", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "K33R", "MUTATION_PDB": "K32R", "SEC_STR": "Helix", "RSA": "28.3", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.85, "dln(kf)_H2O": -0.55, "ln(ku)_H2O": -5.72, "dln(ku)_H2O": 3.44, "ddGKIN_H2O": -9.22, "PhiF_H2O": 0.86, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9399", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "K33R", "MUTATION_PDB": "K32R", "SEC_STR": "Helix", "RSA": "28.3", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.85, "dln(kf)_H2O": -0.55, "ln(ku)_H2O": -5.72, "dln(ku)_H2O": 3.44, "ddGKIN_H2O": -9.22, "PhiF_H2O": 0.86, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9399", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "Q34A", "MUTATION_PDB": "Q33A", "SEC_STR": "Helix", "RSA": "1.0", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 7.44, "dln(kf)_H2O": 2.04, "ln(ku)_H2O": -1.67, "dln(ku)_H2O": 7.49, "ddGKIN_H2O": -12.59, "PhiF_H2O": 1.37, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9400", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "Q34A", "MUTATION_PDB": "Q33A", "SEC_STR": "Helix", "RSA": "1.0", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 7.44, "dln(kf)_H2O": 2.04, "ln(ku)_H2O": -1.67, "dln(ku)_H2O": 7.49, "ddGKIN_H2O": -12.59, "PhiF_H2O": 1.37, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9400", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "A35G", "MUTATION_PDB": "A34G", "SEC_STR": "Helix", "RSA": "8.5", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.78, "dln(kf)_H2O": 0.38, "ln(ku)_H2O": -6.84, "dln(ku)_H2O": 2.32, "ddGKIN_H2O": -4.48, "PhiF_H2O": 1.19, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9401", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "A35G", "MUTATION_PDB": "A34G", "SEC_STR": "Helix", "RSA": "8.5", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.78, "dln(kf)_H2O": 0.38, "ln(ku)_H2O": -6.84, "dln(ku)_H2O": 2.32, "ddGKIN_H2O": -4.48, "PhiF_H2O": 1.19, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9401", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "T36A", "MUTATION_PDB": "T35A", "SEC_STR": "Helix", "RSA": "34.5", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.23, "dln(kf)_H2O": 0.83, "ln(ku)_H2O": -6.03, "dln(ku)_H2O": 3.13, "ddGKIN_H2O": -5.31, "PhiF_H2O": 1.36, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9402", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "T36A", "MUTATION_PDB": "T35A", "SEC_STR": "Helix", "RSA": "34.5", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.23, "dln(kf)_H2O": 0.83, "ln(ku)_H2O": -6.03, "dln(ku)_H2O": 3.13, "ddGKIN_H2O": -5.31, "PhiF_H2O": 1.36, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9402", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "I40A", "MUTATION_PDB": "I39A", "SEC_STR": "Coil", "RSA": "4.1", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.51, "dln(kf)_H2O": 0.11, "ln(ku)_H2O": -7.15, "dln(ku)_H2O": 2.01, "ddGKIN_H2O": -4.39, "PhiF_H2O": 1.05, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9403", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "I40A", "MUTATION_PDB": "I39A", "SEC_STR": "Coil", "RSA": "4.1", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.51, "dln(kf)_H2O": 0.11, "ln(ku)_H2O": -7.15, "dln(ku)_H2O": 2.01, "ddGKIN_H2O": -4.39, "PhiF_H2O": 1.05, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9403", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "P45A", "MUTATION_PDB": "P44A", "SEC_STR": "Coil", "RSA": "35.3", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.38, "dln(kf)_H2O": -0.02, "ln(ku)_H2O": -6.98, "dln(ku)_H2O": 2.18, "ddGKIN_H2O": -5.08, "PhiF_H2O": 0.99, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9404", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "P45A", "MUTATION_PDB": "P44A", "SEC_STR": "Coil", "RSA": "35.3", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.38, "dln(kf)_H2O": -0.02, "ln(ku)_H2O": -6.98, "dln(ku)_H2O": 2.18, "ddGKIN_H2O": -5.08, "PhiF_H2O": 0.99, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9404", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "K53M", "MUTATION_PDB": "K52M", "SEC_STR": "Helix", "RSA": "35.1", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.93, "dln(kf)_H2O": 0.53, "ln(ku)_H2O": -9.5, "dln(ku)_H2O": -0.34, "ddGKIN_H2O": 2.01, "PhiF_H2O": 0.39, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9405", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "K53M", "MUTATION_PDB": "K52M", "SEC_STR": "Helix", "RSA": "35.1", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.93, "dln(kf)_H2O": 0.53, "ln(ku)_H2O": -9.5, "dln(ku)_H2O": -0.34, "ddGKIN_H2O": 2.01, "PhiF_H2O": 0.39, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9405", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "K55A", "MUTATION_PDB": "K54A", "SEC_STR": "Helix", "RSA": "22.4", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.93, "dln(kf)_H2O": -0.47, "ln(ku)_H2O": -7.1, "dln(ku)_H2O": 2.06, "ddGKIN_H2O": -5.85, "PhiF_H2O": 0.81, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9406", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "K55A", "MUTATION_PDB": "K54A", "SEC_STR": "Helix", "RSA": "22.4", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.93, "dln(kf)_H2O": -0.47, "ln(ku)_H2O": -7.1, "dln(ku)_H2O": 2.06, "ddGKIN_H2O": -5.85, "PhiF_H2O": 0.81, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9406", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "K55M", "MUTATION_PDB": "K54M", "SEC_STR": "Helix", "RSA": "22.4", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.07, "dln(kf)_H2O": -0.33, "ln(ku)_H2O": -9.11, "dln(ku)_H2O": 0.05, "ddGKIN_H2O": -0.88, "PhiF_H2O": 0.15, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9407", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "K55M", "MUTATION_PDB": "K54M", "SEC_STR": "Helix", "RSA": "22.4", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.07, "dln(kf)_H2O": -0.33, "ln(ku)_H2O": -9.11, "dln(ku)_H2O": 0.05, "ddGKIN_H2O": -0.88, "PhiF_H2O": 0.15, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9407", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "E68A", "MUTATION_PDB": "E67A", "SEC_STR": "Helix", "RSA": "56.7", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.34, "dln(kf)_H2O": 0.94, "ln(ku)_H2O": -6.79, "dln(ku)_H2O": 2.37, "ddGKIN_H2O": -3.3, "PhiF_H2O": 1.65, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9408", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "E68A", "MUTATION_PDB": "E67A", "SEC_STR": "Helix", "RSA": "56.7", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.34, "dln(kf)_H2O": 0.94, "ln(ku)_H2O": -6.79, "dln(ku)_H2O": 2.37, "ddGKIN_H2O": -3.3, "PhiF_H2O": 1.65, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9408", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "A70G", "MUTATION_PDB": "A69G", "SEC_STR": "Helix", "RSA": "0.0", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.3, "dln(kf)_H2O": -0.1, "ln(ku)_H2O": -6.3, "dln(ku)_H2O": 2.86, "ddGKIN_H2O": -6.84, "PhiF_H2O": 0.96, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9409", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "A70G", "MUTATION_PDB": "A69G", "SEC_STR": "Helix", "RSA": "0.0", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.3, "dln(kf)_H2O": -0.1, "ln(ku)_H2O": -6.3, "dln(ku)_H2O": 2.86, "ddGKIN_H2O": -6.84, "PhiF_H2O": 0.96, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9409", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "Y74A", "MUTATION_PDB": "Y73A", "SEC_STR": "Helix", "RSA": "3.2", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 2.97, "dln(kf)_H2O": -2.43, "ln(ku)_H2O": -3.47, "dln(ku)_H2O": 5.69, "ddGKIN_H2O": -18.77, "PhiF_H2O": 0.7, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9410", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "Y74A", "MUTATION_PDB": "Y73A", "SEC_STR": "Helix", "RSA": "3.2", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 2.97, "dln(kf)_H2O": -2.43, "ln(ku)_H2O": -3.47, "dln(ku)_H2O": 5.69, "ddGKIN_H2O": -18.77, "PhiF_H2O": 0.7, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9410", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "Y74F", "MUTATION_PDB": "Y73F", "SEC_STR": "Helix", "RSA": "3.2", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.11, "dln(kf)_H2O": 0.71, "ln(ku)_H2O": -8.52, "dln(ku)_H2O": 0.64, "ddGKIN_H2O": 0.16, "PhiF_H2O": -10.9, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9411", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "Y74F", "MUTATION_PDB": "Y73F", "SEC_STR": "Helix", "RSA": "3.2", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.11, "dln(kf)_H2O": 0.71, "ln(ku)_H2O": -8.52, "dln(ku)_H2O": 0.64, "ddGKIN_H2O": 0.16, "PhiF_H2O": -10.9, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9411", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "I75A", "MUTATION_PDB": "I74A", "SEC_STR": "Helix", "RSA": "10.7", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.2, "dln(kf)_H2O": -1.2, "ln(ku)_H2O": -7.95, "dln(ku)_H2O": 1.21, "ddGKIN_H2O": -5.57, "PhiF_H2O": 0.5, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9412", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "I75A", "MUTATION_PDB": "I74A", "SEC_STR": "Helix", "RSA": "10.7", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.2, "dln(kf)_H2O": -1.2, "ln(ku)_H2O": -7.95, "dln(ku)_H2O": 1.21, "ddGKIN_H2O": -5.57, "PhiF_H2O": 0.5, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9412", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "V78A", "MUTATION_PDB": "V77A", "SEC_STR": "Helix", "RSA": "4.9", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.4, "dln(kf)_H2O": -2.0, "ln(ku)_H2O": -8.38, "dln(ku)_H2O": 0.78, "ddGKIN_H2O": -6.42, "PhiF_H2O": 0.28, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9413", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "V78A", "MUTATION_PDB": "V77A", "SEC_STR": "Helix", "RSA": "4.9", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.4, "dln(kf)_H2O": -2.0, "ln(ku)_H2O": -8.38, "dln(ku)_H2O": 0.78, "ddGKIN_H2O": -6.42, "PhiF_H2O": 0.28, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9413", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "L81A", "MUTATION_PDB": "L80A", "SEC_STR": "Helix", "RSA": "2.4", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 2.46, "dln(kf)_H2O": -2.94, "ln(ku)_H2O": -3.87, "dln(ku)_H2O": 5.29, "ddGKIN_H2O": -19.02, "PhiF_H2O": 0.64, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9414", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ACBP", "SOURCE": "Bos taurus", "LENGTH": 86.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (1.20.80.10)" ], "MUTATION_UNIPROT": "L81A", "MUTATION_PDB": "L80A", "SEC_STR": "Helix", "RSA": "2.4", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Sodium Acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 2.46, "dln(kf)_H2O": -2.94, "ln(ku)_H2O": -3.87, "dln(ku)_H2O": 5.29, "ddGKIN_H2O": -19.02, "PhiF_H2O": 0.64, "AUTHOR_KIN": "Kragelund, B.B., Osmark, P., Neergaard, T.B., Schi\u00f8dt, J., Kristiansen, K., Knudsen, J., Poulsen, F.M.", "REFERENCE_KIN": "The formation of a native-like structure containing eight conserved hydrophobic residues is rate limiting in two-state protein folding of ACBP. Nat. Struct. Biol. 6, 594\u2013601. https://doi.org/10.1038/9414", "YEAR_KIN": 1999.0, "PMID_KIN": "10360367", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "bACBP", "SOURCE": "Bos taurus", "LENGTH": 79.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "I28A", "MUTATION_PDB": "I27A", "SEC_STR": "Helix", "RSA": "9.5", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Na-acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.74, "dln(kf)_H2O": -1.66, "ln(ku)_H2O": -5.89, "dln(ku)_H2O": 3.27, "dGKIN_H2O": 22.2, "ddGKIN_H2O": -11.6, "mf": -9.0, "mu": 6.36, "PhiF_H2O": 0.33, "AUTHOR_KIN": "Teilum, K., Thormann, T., Caterer, N.R., Poulsen, H.I., Jensen, P.H., Knudsen, J., Kragelund, B.B., Poulsen, F.M.", "REFERENCE_KIN": "Different secondary structure elements as scaffolds for protein folding transition states of two homologous four-helix bundles. Proteins 59, 80\u201390. https://doi.org/10.1002/prot.20358", "YEAR_KIN": 2005.0, "PMID_KIN": "15690348", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "bACBP", "SOURCE": "Bos taurus", "LENGTH": 79.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "I28A", "MUTATION_PDB": "I27A", "SEC_STR": "Helix", "RSA": "9.5", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Na-acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.74, "dln(kf)_H2O": -1.66, "ln(ku)_H2O": -5.89, "dln(ku)_H2O": 3.27, "dGKIN_H2O": 22.2, "ddGKIN_H2O": -11.6, "mf": -9.0, "mu": 6.36, "PhiF_H2O": 0.33, "AUTHOR_KIN": "Teilum, K., Thormann, T., Caterer, N.R., Poulsen, H.I., Jensen, P.H., Knudsen, J., Kragelund, B.B., Poulsen, F.M.", "REFERENCE_KIN": "Different secondary structure elements as scaffolds for protein folding transition states of two homologous four-helix bundles. Proteins 59, 80\u201390. https://doi.org/10.1002/prot.20358", "YEAR_KIN": 2005.0, "PMID_KIN": "15690348", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "bACBP", "SOURCE": "Bos taurus", "LENGTH": 79.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "H31A", "MUTATION_PDB": "H30A", "SEC_STR": "Helix", "RSA": "18.5", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Na-acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.45, "dln(kf)_H2O": 1.05, "ln(ku)_H2O": -3.93, "dln(ku)_H2O": 5.23, "dGKIN_H2O": 24.0, "ddGKIN_H2O": -9.83, "mf": -8.96, "mu": 4.16, "PhiF_H2O": -0.25, "AUTHOR_KIN": "Teilum, K., Thormann, T., Caterer, N.R., Poulsen, H.I., Jensen, P.H., Knudsen, J., Kragelund, B.B., Poulsen, F.M.", "REFERENCE_KIN": "Different secondary structure elements as scaffolds for protein folding transition states of two homologous four-helix bundles. Proteins 59, 80\u201390. https://doi.org/10.1002/prot.20359", "YEAR_KIN": 2005.0, "PMID_KIN": "15690348", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "bACBP", "SOURCE": "Bos taurus", "LENGTH": 79.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "H31A", "MUTATION_PDB": "H30A", "SEC_STR": "Helix", "RSA": "18.5", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Na-acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.45, "dln(kf)_H2O": 1.05, "ln(ku)_H2O": -3.93, "dln(ku)_H2O": 5.23, "dGKIN_H2O": 24.0, "ddGKIN_H2O": -9.83, "mf": -8.96, "mu": 4.16, "PhiF_H2O": -0.25, "AUTHOR_KIN": "Teilum, K., Thormann, T., Caterer, N.R., Poulsen, H.I., Jensen, P.H., Knudsen, J., Kragelund, B.B., Poulsen, F.M.", "REFERENCE_KIN": "Different secondary structure elements as scaffolds for protein folding transition states of two homologous four-helix bundles. Proteins 59, 80\u201390. https://doi.org/10.1002/prot.20359", "YEAR_KIN": 2005.0, "PMID_KIN": "15690348", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "bACBP", "SOURCE": "Bos taurus", "LENGTH": 79.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "Y32A", "MUTATION_PDB": "Y31A", "SEC_STR": "Helix", "RSA": "28.8", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Na-acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.51, "dln(kf)_H2O": 0.11, "ln(ku)_H2O": -6.1, "dln(ku)_H2O": 3.06, "dGKIN_H2O": 26.8, "ddGKIN_H2O": -7.0, "mf": -10.7, "mu": 5.52, "PhiF_H2O": -0.04, "AUTHOR_KIN": "Teilum, K., Thormann, T., Caterer, N.R., Poulsen, H.I., Jensen, P.H., Knudsen, J., Kragelund, B.B., Poulsen, F.M.", "REFERENCE_KIN": "Different secondary structure elements as scaffolds for protein folding transition states of two homologous four-helix bundles. Proteins 59, 80\u201390. https://doi.org/10.1002/prot.20360", "YEAR_KIN": 2005.0, "PMID_KIN": "15690348", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "bACBP", "SOURCE": "Bos taurus", "LENGTH": 79.0, "UniProt": "P07107", "PDB_wild": "2abd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "2abdA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "Y32A", "MUTATION_PDB": "Y31A", "SEC_STR": "Helix", "RSA": "28.8", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Na-acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.51, "dln(kf)_H2O": 0.11, "ln(ku)_H2O": -6.1, "dln(ku)_H2O": 3.06, "dGKIN_H2O": 26.8, "ddGKIN_H2O": -7.0, "mf": -10.7, "mu": 5.52, "PhiF_H2O": -0.04, "AUTHOR_KIN": "Teilum, K., Thormann, T., Caterer, N.R., Poulsen, H.I., Jensen, P.H., Knudsen, J., Kragelund, B.B., Poulsen, F.M.", "REFERENCE_KIN": "Different secondary structure elements as scaffolds for protein folding transition states of two homologous four-helix bundles. Proteins 59, 80\u201390. https://doi.org/10.1002/prot.20360", "YEAR_KIN": 2005.0, "PMID_KIN": "15690348", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "WT(F653W)", "MUTATION_PDB": "WT(F45W)", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.85, "ln(ku)_H2O": -6.43, "dGKIN_H2O": 30.42, "mf": -6.57, "mu": 3.37, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi025", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "WT(F653W)", "MUTATION_PDB": "WT(F45W)", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.85, "ln(ku)_H2O": -6.43, "dGKIN_H2O": 30.42, "mf": -6.57, "mu": 3.37, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi025", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I611V", "MUTATION_PDB": "I3V", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.06, "dln(kf)_H2O": -0.34, "ln(ku)_H2O": -4.57, "dln(ku)_H2O": 4.59, "dGKIN_H2O": 23.86, "ddGKIN_H2O": -6.56, "mf": -6.37, "mu": 3.17, "PhiF_H2O": 0.4, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi026", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I611V", "MUTATION_PDB": "I3V", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.06, "dln(kf)_H2O": -0.34, "ln(ku)_H2O": -4.57, "dln(ku)_H2O": 4.59, "dGKIN_H2O": 23.86, "ddGKIN_H2O": -6.56, "mf": -6.37, "mu": 3.17, "PhiF_H2O": 0.4, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi026", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I611A", "MUTATION_PDB": "I3A", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.78, "dln(kf)_H2O": -2.07, "ln(ku)_H2O": -2.85, "dln(ku)_H2O": 6.31, "dGKIN_H2O": 16.43, "ddGKIN_H2O": -13.99, "mf": -7.18, "mu": 3.37, "PhiF_H2O": 0.4, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi027", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I611A", "MUTATION_PDB": "I3A", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.78, "dln(kf)_H2O": -2.07, "ln(ku)_H2O": -2.85, "dln(ku)_H2O": 6.31, "dGKIN_H2O": 16.43, "ddGKIN_H2O": -13.99, "mf": -7.18, "mu": 3.37, "PhiF_H2O": 0.4, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi027", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "V613A", "MUTATION_PDB": "V5A", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.51, "dln(kf)_H2O": -2.34, "ln(ku)_H2O": -3.65, "dln(ku)_H2O": 5.51, "dGKIN_H2O": 17.74, "ddGKIN_H2O": -12.68, "mf": -6.27, "mu": 2.87, "PhiF_H2O": 0.6, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi028", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "V613A", "MUTATION_PDB": "V5A", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.51, "dln(kf)_H2O": -2.34, "ln(ku)_H2O": -3.65, "dln(ku)_H2O": 5.51, "dGKIN_H2O": 17.74, "ddGKIN_H2O": -12.68, "mf": -6.27, "mu": 2.87, "PhiF_H2O": 0.6, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi028", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "T615A", "MUTATION_PDB": "T7A", "SEC_STR": "Beta", "RSA": "14.8", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.39, "dln(kf)_H2O": -1.46, "ln(ku)_H2O": -5.66, "dln(ku)_H2O": 3.5, "dGKIN_H2O": 24.9, "ddGKIN_H2O": -5.52, "mf": -7.16, "mu": 3.2, "PhiF_H2O": 0.6, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi029", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "T615A", "MUTATION_PDB": "T7A", "SEC_STR": "Beta", "RSA": "14.8", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.39, "dln(kf)_H2O": -1.46, "ln(ku)_H2O": -5.66, "dln(ku)_H2O": 3.5, "dGKIN_H2O": 24.9, "ddGKIN_H2O": -5.52, "mf": -7.16, "mu": 3.2, "PhiF_H2O": 0.6, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi029", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "T617A", "MUTATION_PDB": "T9A", "SEC_STR": "Coil", "RSA": "87.3", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.69, "dln(kf)_H2O": -0.16, "ln(ku)_H2O": -4.3, "dln(ku)_H2O": 4.86, "dGKIN_H2O": 24.75, "ddGKIN_H2O": -5.67, "mf": -6.89, "mu": 3.0, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi030", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "T617A", "MUTATION_PDB": "T9A", "SEC_STR": "Coil", "RSA": "87.3", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.69, "dln(kf)_H2O": -0.16, "ln(ku)_H2O": -4.3, "dln(ku)_H2O": 4.86, "dGKIN_H2O": 24.75, "ddGKIN_H2O": -5.67, "mf": -6.89, "mu": 3.0, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi030", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I621V", "MUTATION_PDB": "I13V", "SEC_STR": "Beta", "RSA": "3.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.03, "dln(kf)_H2O": -0.82, "ln(ku)_H2O": -4.28, "dln(ku)_H2O": 4.88, "dGKIN_H2O": 23.07, "ddGKIN_H2O": -7.35, "mf": -6.59, "mu": 2.87, "PhiF_H2O": 0.4, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi031", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I621V", "MUTATION_PDB": "I13V", "SEC_STR": "Beta", "RSA": "3.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.03, "dln(kf)_H2O": -0.82, "ln(ku)_H2O": -4.28, "dln(ku)_H2O": 4.88, "dGKIN_H2O": 23.07, "ddGKIN_H2O": -7.35, "mf": -6.59, "mu": 2.87, "PhiF_H2O": 0.4, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi031", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I621A", "MUTATION_PDB": "I13A", "SEC_STR": "Beta", "RSA": "3.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.4, "dln(kf)_H2O": -2.45, "ln(ku)_H2O": -2.03, "dln(ku)_H2O": 7.13, "dGKIN_H2O": 13.45, "ddGKIN_H2O": -16.97, "mf": -7.18, "mu": 2.45, "PhiF_H2O": 0.4, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi032", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I621A", "MUTATION_PDB": "I13A", "SEC_STR": "Beta", "RSA": "3.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.4, "dln(kf)_H2O": -2.45, "ln(ku)_H2O": -2.03, "dln(ku)_H2O": 7.13, "dGKIN_H2O": 13.45, "ddGKIN_H2O": -16.97, "mf": -7.18, "mu": 2.45, "PhiF_H2O": 0.4, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi032", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "L623A", "MUTATION_PDB": "L15A", "SEC_STR": "Beta", "RSA": "4.3", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.2, "dln(kf)_H2O": -2.65, "ln(ku)_H2O": -2.16, "dln(ku)_H2O": 7.0, "dGKIN_H2O": 13.28, "ddGKIN_H2O": -17.14, "mf": -6.94, "mu": 2.73, "PhiF_H2O": 0.4, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi033", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "L623A", "MUTATION_PDB": "L15A", "SEC_STR": "Beta", "RSA": "4.3", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.2, "dln(kf)_H2O": -2.65, "ln(ku)_H2O": -2.16, "dln(ku)_H2O": 7.0, "dGKIN_H2O": 13.28, "ddGKIN_H2O": -17.14, "mf": -6.94, "mu": 2.73, "PhiF_H2O": 0.4, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi033", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "V625A", "MUTATION_PDB": "V17A", "SEC_STR": "Coil", "RSA": "2.8", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.26, "dln(kf)_H2O": -1.59, "ln(ku)_H2O": -4.55, "dln(ku)_H2O": 4.61, "dGKIN_H2O": 21.83, "ddGKIN_H2O": -8.59, "mf": -6.84, "mu": 3.02, "PhiF_H2O": 0.6, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi034", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "V625A", "MUTATION_PDB": "V17A", "SEC_STR": "Coil", "RSA": "2.8", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.26, "dln(kf)_H2O": -1.59, "ln(ku)_H2O": -4.55, "dln(ku)_H2O": 4.61, "dGKIN_H2O": 21.83, "ddGKIN_H2O": -8.59, "mf": -6.84, "mu": 3.02, "PhiF_H2O": 0.6, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi034", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "D629N", "MUTATION_PDB": "D21N", "SEC_STR": "Coil", "RSA": "22.7", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.17, "dln(kf)_H2O": -1.68, "ln(ku)_H2O": -6.01, "dln(ku)_H2O": 3.15, "dGKIN_H2O": 25.22, "ddGKIN_H2O": -5.2, "mf": -6.42, "mu": 3.0, "PhiF_H2O": 1.2, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi035", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "D629N", "MUTATION_PDB": "D21N", "SEC_STR": "Coil", "RSA": "22.7", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.17, "dln(kf)_H2O": -1.68, "ln(ku)_H2O": -6.01, "dln(ku)_H2O": 3.15, "dGKIN_H2O": 25.22, "ddGKIN_H2O": -5.2, "mf": -6.42, "mu": 3.0, "PhiF_H2O": 1.2, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi035", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "T630A", "MUTATION_PDB": "T22A", "SEC_STR": "Beta", "RSA": "33.1", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.22, "dln(kf)_H2O": -1.63, "ln(ku)_H2O": -4.46, "dln(ku)_H2O": 4.7, "dGKIN_H2O": 21.51, "ddGKIN_H2O": -8.91, "mf": -6.79, "mu": 3.07, "PhiF_H2O": 0.6, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi036", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "T630A", "MUTATION_PDB": "T22A", "SEC_STR": "Beta", "RSA": "33.1", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.22, "dln(kf)_H2O": -1.63, "ln(ku)_H2O": -4.46, "dln(ku)_H2O": 4.7, "dGKIN_H2O": 21.51, "ddGKIN_H2O": -8.91, "mf": -6.79, "mu": 3.07, "PhiF_H2O": 0.6, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi036", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I631V", "MUTATION_PDB": "I23V", "SEC_STR": "Helix", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.18, "dln(kf)_H2O": -0.67, "ln(ku)_H2O": -5.54, "dln(ku)_H2O": 3.62, "dGKIN_H2O": 26.56, "ddGKIN_H2O": -3.86, "mf": -6.79, "mu": 3.07, "PhiF_H2O": 0.9, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi037", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I631V", "MUTATION_PDB": "I23V", "SEC_STR": "Helix", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.18, "dln(kf)_H2O": -0.67, "ln(ku)_H2O": -5.54, "dln(ku)_H2O": 3.62, "dGKIN_H2O": 26.56, "ddGKIN_H2O": -3.86, "mf": -6.79, "mu": 3.07, "PhiF_H2O": 0.9, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi037", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I631A", "MUTATION_PDB": "I23A", "SEC_STR": "Helix", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.6, "dln(kf)_H2O": -1.25, "ln(ku)_H2O": -2.62, "dln(ku)_H2O": 6.54, "dGKIN_H2O": 17.89, "ddGKIN_H2O": -12.53, "mf": -7.85, "mu": 2.77, "PhiF_H2O": 0.3, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi038", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I631A", "MUTATION_PDB": "I23A", "SEC_STR": "Helix", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.6, "dln(kf)_H2O": -1.25, "ln(ku)_H2O": -2.62, "dln(ku)_H2O": 6.54, "dGKIN_H2O": 17.89, "ddGKIN_H2O": -12.53, "mf": -7.85, "mu": 2.77, "PhiF_H2O": 0.3, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi038", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I631G", "MUTATION_PDB": "I23G", "SEC_STR": "Helix", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.06, "dln(kf)_H2O": -2.79, "ln(ku)_H2O": -2.41, "dln(ku)_H2O": 6.75, "dGKIN_H2O": 13.55, "ddGKIN_H2O": -16.87, "mf": -5.8, "mu": 2.82, "PhiF_H2O": 0.5, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi039", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I631G", "MUTATION_PDB": "I23G", "SEC_STR": "Helix", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.06, "dln(kf)_H2O": -2.79, "ln(ku)_H2O": -2.41, "dln(ku)_H2O": 6.75, "dGKIN_H2O": 13.55, "ddGKIN_H2O": -16.87, "mf": -5.8, "mu": 2.82, "PhiF_H2O": 0.5, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi039", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "V634A", "MUTATION_PDB": "V26A", "SEC_STR": "Helix", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.61, "dln(kf)_H2O": -2.24, "ln(ku)_H2O": -2.44, "dln(ku)_H2O": 6.72, "dGKIN_H2O": 14.99, "ddGKIN_H2O": -15.43, "mf": -7.33, "mu": 3.47, "PhiF_H2O": 0.4, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi040", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "V634A", "MUTATION_PDB": "V26A", "SEC_STR": "Helix", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.61, "dln(kf)_H2O": -2.24, "ln(ku)_H2O": -2.44, "dln(ku)_H2O": 6.72, "dGKIN_H2O": 14.99, "ddGKIN_H2O": -15.43, "mf": -7.33, "mu": 3.47, "PhiF_H2O": 0.4, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi040", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "K635A", "MUTATION_PDB": "K27A", "SEC_STR": "Helix", "RSA": "6.3", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.15, "dln(kf)_H2O": 0.3, "ln(ku)_H2O": -1.14, "dln(ku)_H2O": 8.02, "dGKIN_H2O": 18.06, "ddGKIN_H2O": -12.36, "mf": -8.6, "mu": 2.55, "PhiF_H2O": -0.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi041", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "K635A", "MUTATION_PDB": "K27A", "SEC_STR": "Helix", "RSA": "6.3", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.15, "dln(kf)_H2O": 0.3, "ln(ku)_H2O": -1.14, "dln(ku)_H2O": 8.02, "dGKIN_H2O": 18.06, "ddGKIN_H2O": -12.36, "mf": -8.6, "mu": 2.55, "PhiF_H2O": -0.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi041", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "A636G", "MUTATION_PDB": "A28G", "SEC_STR": "Helix", "RSA": "41.5", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.91, "dln(kf)_H2O": -0.94, "ln(ku)_H2O": -6.58, "dln(ku)_H2O": 2.58, "dGKIN_H2O": 28.47, "ddGKIN_H2O": -1.95, "mf": -6.89, "mu": 3.42, "PhiF_H2O": 1.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi042", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "A636G", "MUTATION_PDB": "A28G", "SEC_STR": "Helix", "RSA": "41.5", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.91, "dln(kf)_H2O": -0.94, "ln(ku)_H2O": -6.58, "dln(ku)_H2O": 2.58, "dGKIN_H2O": 28.47, "ddGKIN_H2O": -1.95, "mf": -6.89, "mu": 3.42, "PhiF_H2O": 1.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi042", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I638V", "MUTATION_PDB": "I30V", "SEC_STR": "Helix", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.78, "dln(kf)_H2O": -1.07, "ln(ku)_H2O": -4.71, "dln(ku)_H2O": 4.45, "dGKIN_H2O": 23.51, "ddGKIN_H2O": -6.91, "mf": -6.71, "mu": 2.97, "PhiF_H2O": 0.5, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi043", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I638V", "MUTATION_PDB": "I30V", "SEC_STR": "Helix", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.78, "dln(kf)_H2O": -1.07, "ln(ku)_H2O": -4.71, "dln(ku)_H2O": 4.45, "dGKIN_H2O": 23.51, "ddGKIN_H2O": -6.91, "mf": -6.71, "mu": 2.97, "PhiF_H2O": 0.5, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi043", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I638A", "MUTATION_PDB": "I30A", "SEC_STR": "Helix", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.31, "dln(kf)_H2O": -1.54, "ln(ku)_H2O": -2.36, "dln(ku)_H2O": 6.8, "dGKIN_H2O": 16.53, "ddGKIN_H2O": -13.89, "mf": -8.35, "mu": 2.45, "PhiF_H2O": 0.3, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi044", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I638A", "MUTATION_PDB": "I30A", "SEC_STR": "Helix", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.31, "dln(kf)_H2O": -1.54, "ln(ku)_H2O": -2.36, "dln(ku)_H2O": 6.8, "dGKIN_H2O": 16.53, "ddGKIN_H2O": -13.89, "mf": -8.35, "mu": 2.45, "PhiF_H2O": 0.3, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi044", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "Q649A", "MUTATION_PDB": "Q41A", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.56, "dln(kf)_H2O": -0.29, "ln(ku)_H2O": -3.12, "dln(ku)_H2O": 6.04, "dGKIN_H2O": 21.51, "ddGKIN_H2O": -8.91, "mf": -5.97, "mu": 2.85, "PhiF_H2O": 0.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi045", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "Q649A", "MUTATION_PDB": "Q41A", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.56, "dln(kf)_H2O": -0.29, "ln(ku)_H2O": -3.12, "dln(ku)_H2O": 6.04, "dGKIN_H2O": 21.51, "ddGKIN_H2O": -8.91, "mf": -5.97, "mu": 2.85, "PhiF_H2O": 0.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi045", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "L651A", "MUTATION_PDB": "L43A", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.11, "dln(kf)_H2O": 0.26, "ln(ku)_H2O": 1.62, "dln(ku)_H2O": 10.78, "dGKIN_H2O": 11.12, "ddGKIN_H2O": -19.3, "mf": -9.24, "mu": 1.68, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi046", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "L651A", "MUTATION_PDB": "L43A", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 6.11, "dln(kf)_H2O": 0.26, "ln(ku)_H2O": 1.62, "dln(ku)_H2O": 10.78, "dGKIN_H2O": 11.12, "ddGKIN_H2O": -19.3, "mf": -9.24, "mu": 1.68, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi046", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "L658A", "MUTATION_PDB": "L50A", "SEC_STR": "Coil", "RSA": "2.4", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.85, "ln(ku)_H2O": -1.1, "dln(ku)_H2O": 8.06, "dGKIN_H2O": 17.22, "ddGKIN_H2O": -13.2, "mf": -7.68, "mu": 2.82, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi047", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "L658A", "MUTATION_PDB": "L50A", "SEC_STR": "Coil", "RSA": "2.4", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.85, "ln(ku)_H2O": -1.1, "dln(ku)_H2O": 8.06, "dGKIN_H2O": 17.22, "ddGKIN_H2O": -13.2, "mf": -7.68, "mu": 2.82, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi047", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "L664A", "MUTATION_PDB": "L56A", "SEC_STR": "Coil", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.6, "dln(kf)_H2O": -0.25, "ln(ku)_H2O": -0.16, "dln(ku)_H2O": 9.0, "dGKIN_H2O": 14.27, "ddGKIN_H2O": -16.15, "mf": -8.87, "mu": 3.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi048", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "L664A", "MUTATION_PDB": "L56A", "SEC_STR": "Coil", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.6, "dln(kf)_H2O": -0.25, "ln(ku)_H2O": -0.16, "dln(ku)_H2O": 9.0, "dGKIN_H2O": 14.27, "ddGKIN_H2O": -16.15, "mf": -8.87, "mu": 3.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi048", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I669V", "MUTATION_PDB": "I61V", "SEC_STR": "Coil", "RSA": "3.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.73, "dln(kf)_H2O": -0.12, "ln(ku)_H2O": -4.38, "dln(ku)_H2O": 4.78, "dGKIN_H2O": 25.05, "ddGKIN_H2O": -5.37, "mf": -6.59, "mu": 3.12, "PhiF_H2O": 0.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi049", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I669V", "MUTATION_PDB": "I61V", "SEC_STR": "Coil", "RSA": "3.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.73, "dln(kf)_H2O": -0.12, "ln(ku)_H2O": -4.38, "dln(ku)_H2O": 4.78, "dGKIN_H2O": 25.05, "ddGKIN_H2O": -5.37, "mf": -6.59, "mu": 3.12, "PhiF_H2O": 0.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi049", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I669A", "MUTATION_PDB": "I61A", "SEC_STR": "Coil", "RSA": "3.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.23, "dln(kf)_H2O": -0.62, "ln(ku)_H2O": -0.6, "dln(ku)_H2O": 8.56, "dGKIN_H2O": 14.44, "ddGKIN_H2O": -15.98, "mf": -5.48, "mu": 3.25, "PhiF_H2O": 0.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi050", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "I669A", "MUTATION_PDB": "I61A", "SEC_STR": "Coil", "RSA": "3.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.23, "dln(kf)_H2O": -0.62, "ln(ku)_H2O": -0.6, "dln(ku)_H2O": 8.56, "dGKIN_H2O": 14.44, "ddGKIN_H2O": -15.98, "mf": -5.48, "mu": 3.25, "PhiF_H2O": 0.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi050", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "L675A", "MUTATION_PDB": "L67A", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.45, "dln(kf)_H2O": -0.4, "ln(ku)_H2O": -1.74, "dln(ku)_H2O": 7.42, "dGKIN_H2O": 17.81, "ddGKIN_H2O": -12.61, "mf": -7.09, "mu": 3.27, "PhiF_H2O": 0.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi051", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "L675A", "MUTATION_PDB": "L67A", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.45, "dln(kf)_H2O": -0.4, "ln(ku)_H2O": -1.74, "dln(ku)_H2O": 7.42, "dGKIN_H2O": 17.81, "ddGKIN_H2O": -12.61, "mf": -7.09, "mu": 3.27, "PhiF_H2O": 0.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi051", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "L677A", "MUTATION_PDB": "L69A", "SEC_STR": "Beta", "RSA": "3.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.32, "dln(kf)_H2O": -0.53, "ln(ku)_H2O": -1.3, "dln(ku)_H2O": 7.86, "dGKIN_H2O": 16.4, "ddGKIN_H2O": -14.02, "mf": -7.38, "mu": 2.35, "PhiF_H2O": 0.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi052", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Ubiquitin", "SOURCE": "Homo sapiens", "LENGTH": 76.0, "UniProt": "P0CG48", "PDB_wild": "1ubq", "MUTATED_CHAIN": "A", "PFAM": [ "PF00240" ], "CATH": [ "1ubqA00 (3.10.20.90)" ], "MUTATION_UNIPROT": "L677A", "MUTATION_PDB": "L69A", "SEC_STR": "Beta", "RSA": "3.0", "T": 25.0, "pH": 7.4, "BUFFER_NAME": "Tris-HCl", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 5.32, "dln(kf)_H2O": -0.53, "ln(ku)_H2O": -1.3, "dln(ku)_H2O": 7.86, "dGKIN_H2O": 16.4, "ddGKIN_H2O": -14.02, "mf": -7.38, "mu": 2.35, "PhiF_H2O": 0.1, "BACKGROUND_MUT_UNIPROT": [ "F653W" ], "BACKGROUND_MUT_PDB": [ "F45W" ], "AUTHOR_KIN": "Went, H.M., Jackson, S.E.", "REFERENCE_KIN": "Ubiquitin folds through a highly polarized transition state. Protein Eng. Des. Sel. 18, 229\u2013237. https://doi.org/10.1093/protein/gzi052", "YEAR_KIN": 2005.0, "PMID_KIN": "15857839", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 2.52, "ln(ku)_H2O": -2.53, "dGKIN_H2O": 12.5, "mf": -3.69, "mu": 1.29, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14932", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 2.52, "ln(ku)_H2O": -2.53, "dGKIN_H2O": 12.5, "mf": -3.69, "mu": 1.29, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14932", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "D1011G", "MUTATION_PDB": "D48G", "SEC_STR": "Coil", "RSA": "69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.34, "dln(kf)_H2O": 3.03, "ln(ku)_H2O": -4.51, "dln(ku)_H2O": 0.79, "dGKIN_H2O": 21.94, "ddGKIN_H2O": 5.57, "mf": -2.08, "mu": 1.06, "PhiF_H2O": 1.1, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14897", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "D1011G", "MUTATION_PDB": "D48G", "SEC_STR": "Coil", "RSA": "69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.34, "dln(kf)_H2O": 3.03, "ln(ku)_H2O": -4.51, "dln(ku)_H2O": 0.79, "dGKIN_H2O": 21.94, "ddGKIN_H2O": 5.57, "mf": -2.08, "mu": 1.06, "PhiF_H2O": 1.1, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14897", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "L971S,D1011G", "MUTATION_PDB": "L8S,D48G", "SEC_STR": "Beta,Coil", "RSA": "42.1,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.08, "dln(kf)_H2O": 2.77, "ln(ku)_H2O": -3.24, "dln(ku)_H2O": 2.06, "dGKIN_H2O": 18.14, "ddGKIN_H2O": -3.8, "mf": -2.06, "mu": 1.06, "PhiF_H2O": 0.16, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14898", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "L971S,D1011G", "MUTATION_PDB": "L8S,D48G", "SEC_STR": "Beta,Coil", "RSA": "42.1,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.08, "dln(kf)_H2O": 2.77, "ln(ku)_H2O": -3.24, "dln(ku)_H2O": 2.06, "dGKIN_H2O": 18.14, "ddGKIN_H2O": -3.8, "mf": -2.06, "mu": 1.06, "PhiF_H2O": 0.16, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14898", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "A974G,D1011G", "MUTATION_PDB": "A11G,D48G", "SEC_STR": "Beta,Coil", "RSA": "1.9,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.26, "dln(kf)_H2O": 2.95, "ln(ku)_H2O": -0.63, "dln(ku)_H2O": 4.67, "dGKIN_H2O": 12.13, "ddGKIN_H2O": -9.81, "mf": -2.3, "mu": 0.97, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14899", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "A974G,D1011G", "MUTATION_PDB": "A11G,D48G", "SEC_STR": "Beta,Coil", "RSA": "1.9,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.26, "dln(kf)_H2O": 2.95, "ln(ku)_H2O": -0.63, "dln(ku)_H2O": 4.67, "dGKIN_H2O": 12.13, "ddGKIN_H2O": -9.81, "mf": -2.3, "mu": 0.97, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14899", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "D977S", "MUTATION_PDB": "D14S", "SEC_STR": "Coil", "RSA": "49.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 1.06, "dln(kf)_H2O": -0.25, "ln(ku)_H2O": -3.96, "dln(ku)_H2O": 1.34, "dGKIN_H2O": 12.46, "ddGKIN_H2O": -3.91, "mf": -2.21, "mu": 1.04, "PhiF_H2O": 0.16, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14900", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "D977S", "MUTATION_PDB": "D14S", "SEC_STR": "Coil", "RSA": "49.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 1.06, "dln(kf)_H2O": -0.25, "ln(ku)_H2O": -3.96, "dln(ku)_H2O": 1.34, "dGKIN_H2O": 12.46, "ddGKIN_H2O": -3.91, "mf": -2.21, "mu": 1.04, "PhiF_H2O": 0.16, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14900", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V986A,D1011G", "MUTATION_PDB": "V23A,D48G", "SEC_STR": "Coil,Coil", "RSA": "1.4,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.18, "dln(kf)_H2O": 1.87, "ln(ku)_H2O": -2.3, "dln(ku)_H2O": 3.0, "dGKIN_H2O": 13.58, "ddGKIN_H2O": -8.36, "mf": -1.88, "mu": 1.29, "PhiF_H2O": 0.32, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14901", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V986A,D1011G", "MUTATION_PDB": "V23A,D48G", "SEC_STR": "Coil,Coil", "RSA": "1.4,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.18, "dln(kf)_H2O": 1.87, "ln(ku)_H2O": -2.3, "dln(ku)_H2O": 3.0, "dGKIN_H2O": 13.58, "ddGKIN_H2O": -8.36, "mf": -1.88, "mu": 1.29, "PhiF_H2O": 0.32, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14901", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "T987A,D1011G", "MUTATION_PDB": "T24A,D48G", "SEC_STR": "Coil,Coil", "RSA": "39.4,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.81, "dln(kf)_H2O": 2.5, "ln(ku)_H2O": -3.22, "dln(ku)_H2O": 2.08, "dGKIN_H2O": 17.41, "ddGKIN_H2O": -4.53, "mf": -2.06, "mu": 1.06, "PhiF_H2O": 0.29, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14902", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "T987A,D1011G", "MUTATION_PDB": "T24A,D48G", "SEC_STR": "Coil,Coil", "RSA": "39.4,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.81, "dln(kf)_H2O": 2.5, "ln(ku)_H2O": -3.22, "dln(ku)_H2O": 2.08, "dGKIN_H2O": 17.41, "ddGKIN_H2O": -4.53, "mf": -2.06, "mu": 1.06, "PhiF_H2O": 0.29, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14902", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "D992A,D1011G", "MUTATION_PDB": "D29A,D48G", "SEC_STR": "Coil,Coil", "RSA": "33.1,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.89, "dln(kf)_H2O": 2.58, "ln(ku)_H2O": -3.0, "dln(ku)_H2O": 2.3, "dGKIN_H2O": 17.06, "ddGKIN_H2O": -4.88, "mf": -2.28, "mu": 1.14, "PhiF_H2O": 0.22, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14903", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "D992A,D1011G", "MUTATION_PDB": "D29A,D48G", "SEC_STR": "Coil,Coil", "RSA": "33.1,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.89, "dln(kf)_H2O": 2.58, "ln(ku)_H2O": -3.0, "dln(ku)_H2O": 2.3, "dGKIN_H2O": 17.06, "ddGKIN_H2O": -4.88, "mf": -2.28, "mu": 1.14, "PhiF_H2O": 0.22, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14903", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "L996V,D1011G", "MUTATION_PDB": "L33V,D48G", "SEC_STR": "Beta,Coil", "RSA": "6.1,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.85, "dln(kf)_H2O": 3.54, "ln(ku)_H2O": -2.21, "dln(ku)_H2O": 3.09, "dGKIN_H2O": 17.49, "ddGKIN_H2O": -4.45, "mf": -1.93, "mu": 1.16, "PhiF_H2O": -0.2, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14904", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "L996V,D1011G", "MUTATION_PDB": "L33V,D48G", "SEC_STR": "Beta,Coil", "RSA": "6.1,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.85, "dln(kf)_H2O": 3.54, "ln(ku)_H2O": -2.21, "dln(ku)_H2O": 3.09, "dGKIN_H2O": 17.49, "ddGKIN_H2O": -4.45, "mf": -1.93, "mu": 1.16, "PhiF_H2O": -0.2, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14904", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "S999N,D1011G", "MUTATION_PDB": "S36N,D48G", "SEC_STR": "Coil,Coil", "RSA": "34.6,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.87, "dln(kf)_H2O": 2.56, "ln(ku)_H2O": -3.22, "dln(ku)_H2O": 2.08, "dGKIN_H2O": 17.57, "ddGKIN_H2O": -4.37, "mf": -2.28, "mu": 0.89, "PhiF_H2O": 0.25, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14905", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "S999N,D1011G", "MUTATION_PDB": "S36N,D48G", "SEC_STR": "Coil,Coil", "RSA": "34.6,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.87, "dln(kf)_H2O": 2.56, "ln(ku)_H2O": -3.22, "dln(ku)_H2O": 2.08, "dGKIN_H2O": 17.57, "ddGKIN_H2O": -4.37, "mf": -2.28, "mu": 0.89, "PhiF_H2O": 0.25, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14905", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "K1006A,D1011G", "MUTATION_PDB": "K43A,D48G", "SEC_STR": "Beta,Coil", "RSA": "31.2,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.91, "dln(kf)_H2O": 2.6, "ln(ku)_H2O": -3.32, "dln(ku)_H2O": 1.98, "dGKIN_H2O": 17.93, "ddGKIN_H2O": -4.01, "mf": -2.13, "mu": 1.06, "PhiF_H2O": 0.26, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14906", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "K1006A,D1011G", "MUTATION_PDB": "K43A,D48G", "SEC_STR": "Beta,Coil", "RSA": "31.2,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.91, "dln(kf)_H2O": 2.6, "ln(ku)_H2O": -3.32, "dln(ku)_H2O": 1.98, "dGKIN_H2O": 17.93, "ddGKIN_H2O": -4.01, "mf": -2.13, "mu": 1.06, "PhiF_H2O": 0.26, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14906", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1007A,D1011G", "MUTATION_PDB": "V44A,D48G", "SEC_STR": "Beta,Coil", "RSA": "0.0,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 1.61, "dln(kf)_H2O": 0.3, "ln(ku)_H2O": -1.51, "dln(ku)_H2O": 3.79, "dGKIN_H2O": 7.74, "ddGKIN_H2O": -14.2, "mf": -2.63, "mu": 1.04, "PhiF_H2O": 0.48, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14907", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1007A,D1011G", "MUTATION_PDB": "V44A,D48G", "SEC_STR": "Beta,Coil", "RSA": "0.0,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 1.61, "dln(kf)_H2O": 0.3, "ln(ku)_H2O": -1.51, "dln(ku)_H2O": 3.79, "dGKIN_H2O": 7.74, "ddGKIN_H2O": -14.2, "mf": -2.63, "mu": 1.04, "PhiF_H2O": 0.48, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14907", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1009A,D1011G", "MUTATION_PDB": "V46A,D48G", "SEC_STR": "Beta,Coil", "RSA": "12.0,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 2.42, "dln(kf)_H2O": 1.11, "ln(ku)_H2O": -4.96, "dln(ku)_H2O": 0.34, "dGKIN_H2O": 18.3, "ddGKIN_H2O": -3.64, "mf": -2.21, "mu": 1.06, "PhiF_H2O": 1.25, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14908", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1009A,D1011G", "MUTATION_PDB": "V46A,D48G", "SEC_STR": "Beta,Coil", "RSA": "12.0,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 2.42, "dln(kf)_H2O": 1.11, "ln(ku)_H2O": -4.96, "dln(ku)_H2O": 0.34, "dGKIN_H2O": 18.3, "ddGKIN_H2O": -3.64, "mf": -2.21, "mu": 1.06, "PhiF_H2O": 1.25, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14908", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "N1010G", "MUTATION_PDB": "N47G", "SEC_STR": "Coil", "RSA": "93.6", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 1.69, "dln(kf)_H2O": 0.38, "ln(ku)_H2O": -5.52, "dln(ku)_H2O": -0.22, "dGKIN_H2O": 17.86, "ddGKIN_H2O": 1.49, "mf": -2.21, "mu": 1.06, "PhiF_H2O": 0.63, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14909", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "N1010G", "MUTATION_PDB": "N47G", "SEC_STR": "Coil", "RSA": "93.6", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 1.69, "dln(kf)_H2O": 0.38, "ln(ku)_H2O": -5.52, "dln(ku)_H2O": -0.22, "dGKIN_H2O": 17.86, "ddGKIN_H2O": 1.49, "mf": -2.21, "mu": 1.06, "PhiF_H2O": 0.63, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14909", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "F1015A,D1011G", "MUTATION_PDB": "F52A,D48G", "SEC_STR": "Beta,Coil", "RSA": "28.4,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 1.7, "dln(kf)_H2O": 0.39, "ln(ku)_H2O": -2.66, "dln(ku)_H2O": 2.64, "dGKIN_H2O": 10.81, "ddGKIN_H2O": -11.13, "mf": -2.48, "mu": 0.84, "PhiF_H2O": 0.58, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14910", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "F1015A,D1011G", "MUTATION_PDB": "F52A,D48G", "SEC_STR": "Beta,Coil", "RSA": "28.4,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 1.7, "dln(kf)_H2O": 0.39, "ln(ku)_H2O": -2.66, "dln(ku)_H2O": 2.64, "dGKIN_H2O": 10.81, "ddGKIN_H2O": -11.13, "mf": -2.48, "mu": 0.84, "PhiF_H2O": 0.58, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14910", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1016A,D1011G", "MUTATION_PDB": "V53A,D48G", "SEC_STR": "Beta,Coil", "RSA": "0.0,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 2.08, "dln(kf)_H2O": 0.77, "ln(ku)_H2O": -3.22, "dln(ku)_H2O": 2.08, "dGKIN_H2O": 13.13, "ddGKIN_H2O": -8.81, "mf": -2.3, "mu": 1.19, "PhiF_H2O": 0.61, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14911", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1016A,D1011G", "MUTATION_PDB": "V53A,D48G", "SEC_STR": "Beta,Coil", "RSA": "0.0,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 2.08, "dln(kf)_H2O": 0.77, "ln(ku)_H2O": -3.22, "dln(ku)_H2O": 2.08, "dGKIN_H2O": 13.13, "ddGKIN_H2O": -8.81, "mf": -2.3, "mu": 1.19, "PhiF_H2O": 0.61, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14911", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "A1018G,D1011G", "MUTATION_PDB": "A55G,D48G", "SEC_STR": "Helix,Coil", "RSA": "13.2,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 2.56, "dln(kf)_H2O": 1.25, "ln(ku)_H2O": -3.0, "dln(ku)_H2O": 2.3, "dGKIN_H2O": 13.76, "ddGKIN_H2O": -8.18, "mf": -2.38, "mu": 1.04, "PhiF_H2O": 0.53, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14912", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "A1018G,D1011G", "MUTATION_PDB": "A55G,D48G", "SEC_STR": "Helix,Coil", "RSA": "13.2,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 2.56, "dln(kf)_H2O": 1.25, "ln(ku)_H2O": -3.0, "dln(ku)_H2O": 2.3, "dGKIN_H2O": 13.76, "ddGKIN_H2O": -8.18, "mf": -2.38, "mu": 1.04, "PhiF_H2O": 0.53, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14912", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1021A,D1011G", "MUTATION_PDB": "V58A,D48G", "SEC_STR": "Beta,Coil", "RSA": "8.5,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.71, "dln(kf)_H2O": 2.4, "ln(ku)_H2O": -1.14, "dln(ku)_H2O": 4.16, "dGKIN_H2O": 12.02, "ddGKIN_H2O": -9.92, "mf": -2.38, "mu": 1.11, "PhiF_H2O": 0.16, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14913", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1021A,D1011G", "MUTATION_PDB": "V58A,D48G", "SEC_STR": "Beta,Coil", "RSA": "8.5,69.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.71, "dln(kf)_H2O": 2.4, "ln(ku)_H2O": -1.14, "dln(ku)_H2O": 4.16, "dGKIN_H2O": 12.02, "ddGKIN_H2O": -9.92, "mf": -2.38, "mu": 1.11, "PhiF_H2O": 0.16, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14913", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "D1011G", "MUTATION_PDB": "D48G", "SEC_STR": "Coil", "RSA": "69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.91, "dln(kf)_H2O": 1.39, "ln(ku)_H2O": -2.53, "dGKIN_H2O": 15.95, "ddGKIN_H2O": 3.45, "mf": -2.97, "mu": 1.24, "PhiF_H2O": 1.0, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14933", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "D1011G", "MUTATION_PDB": "D48G", "SEC_STR": "Coil", "RSA": "69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.91, "dln(kf)_H2O": 1.39, "ln(ku)_H2O": -2.53, "dGKIN_H2O": 15.95, "ddGKIN_H2O": 3.45, "mf": -2.97, "mu": 1.24, "PhiF_H2O": 1.0, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14933", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "L971S,D1011G", "MUTATION_PDB": "L8S,D48G", "SEC_STR": "Beta,Coil", "RSA": "42.1,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.81, "dln(kf)_H2O": 1.29, "ln(ku)_H2O": -1.27, "dln(ku)_H2O": 1.26, "dGKIN_H2O": 12.59, "ddGKIN_H2O": -3.36, "mf": -3.39, "mu": 1.19, "PhiF_H2O": 0.07, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14934", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "L971S,D1011G", "MUTATION_PDB": "L8S,D48G", "SEC_STR": "Beta,Coil", "RSA": "42.1,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.81, "dln(kf)_H2O": 1.29, "ln(ku)_H2O": -1.27, "dln(ku)_H2O": 1.26, "dGKIN_H2O": 12.59, "ddGKIN_H2O": -3.36, "mf": -3.39, "mu": 1.19, "PhiF_H2O": 0.07, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14934", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "A974G,D1011G", "MUTATION_PDB": "A11G,D48G", "SEC_STR": "Beta,Coil", "RSA": "1.9,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.76, "dln(kf)_H2O": 1.24, "ln(ku)_H2O": 0.34, "dln(ku)_H2O": 2.87, "dGKIN_H2O": 8.47, "ddGKIN_H2O": -7.48, "mf": -3.12, "mu": 1.26, "PhiF_H2O": 0.05, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14935", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "A974G,D1011G", "MUTATION_PDB": "A11G,D48G", "SEC_STR": "Beta,Coil", "RSA": "1.9,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.76, "dln(kf)_H2O": 1.24, "ln(ku)_H2O": 0.34, "dln(ku)_H2O": 2.87, "dGKIN_H2O": 8.47, "ddGKIN_H2O": -7.48, "mf": -3.12, "mu": 1.26, "PhiF_H2O": 0.05, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14935", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "D977S", "MUTATION_PDB": "D14S", "SEC_STR": "Coil", "RSA": "49.1", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 2.44, "dln(kf)_H2O": -0.08, "ln(ku)_H2O": -2.66, "dln(ku)_H2O": -0.13, "dGKIN_H2O": 12.64, "ddGKIN_H2O": 0.14, "mf": -2.97, "mu": 1.39, "PhiF_H2O": 0.16, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14936", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "D977S", "MUTATION_PDB": "D14S", "SEC_STR": "Coil", "RSA": "49.1", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 2.44, "dln(kf)_H2O": -0.08, "ln(ku)_H2O": -2.66, "dln(ku)_H2O": -0.13, "dGKIN_H2O": 12.64, "ddGKIN_H2O": 0.14, "mf": -2.97, "mu": 1.39, "PhiF_H2O": 0.16, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14936", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V986A,D1011G", "MUTATION_PDB": "V23A,D48G", "SEC_STR": "Coil,Coil", "RSA": "1.4,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.18, "dln(kf)_H2O": 0.66, "ln(ku)_H2O": -0.51, "dln(ku)_H2O": 2.02, "dGKIN_H2O": 9.14, "ddGKIN_H2O": -6.81, "mf": -3.42, "mu": 1.36, "PhiF_H2O": 0.27, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14937", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V986A,D1011G", "MUTATION_PDB": "V23A,D48G", "SEC_STR": "Coil,Coil", "RSA": "1.4,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.18, "dln(kf)_H2O": 0.66, "ln(ku)_H2O": -0.51, "dln(ku)_H2O": 2.02, "dGKIN_H2O": 9.14, "ddGKIN_H2O": -6.81, "mf": -3.42, "mu": 1.36, "PhiF_H2O": 0.27, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14937", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "T987A,D1011G", "MUTATION_PDB": "T24A,D48G", "SEC_STR": "Coil,Coil", "RSA": "39.4,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.5, "dln(kf)_H2O": 0.98, "ln(ku)_H2O": -1.24, "dln(ku)_H2O": 1.29, "dGKIN_H2O": 11.73, "ddGKIN_H2O": -4.22, "mf": -2.82, "mu": 1.24, "PhiF_H2O": 0.24, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14938", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "T987A,D1011G", "MUTATION_PDB": "T24A,D48G", "SEC_STR": "Coil,Coil", "RSA": "39.4,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.5, "dln(kf)_H2O": 0.98, "ln(ku)_H2O": -1.24, "dln(ku)_H2O": 1.29, "dGKIN_H2O": 11.73, "ddGKIN_H2O": -4.22, "mf": -2.82, "mu": 1.24, "PhiF_H2O": 0.24, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14938", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "D992A,D1011G", "MUTATION_PDB": "D29A,D48G", "SEC_STR": "Coil,Coil", "RSA": "33.1,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.61, "dln(kf)_H2O": 1.09, "ln(ku)_H2O": -1.66, "dln(ku)_H2O": 0.87, "dGKIN_H2O": 13.06, "ddGKIN_H2O": -2.89, "mf": -3.12, "mu": 1.54, "PhiF_H2O": 0.25, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14939", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "D992A,D1011G", "MUTATION_PDB": "D29A,D48G", "SEC_STR": "Coil,Coil", "RSA": "33.1,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.61, "dln(kf)_H2O": 1.09, "ln(ku)_H2O": -1.66, "dln(ku)_H2O": 0.87, "dGKIN_H2O": 13.06, "ddGKIN_H2O": -2.89, "mf": -3.12, "mu": 1.54, "PhiF_H2O": 0.25, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14939", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "L996V,D1011G", "MUTATION_PDB": "L33V,D48G", "SEC_STR": "Beta,Coil", "RSA": "6.1,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.44, "dln(kf)_H2O": 1.92, "ln(ku)_H2O": -0.45, "dln(ku)_H2O": 2.08, "dGKIN_H2O": 12.11, "ddGKIN_H2O": -3.84, "mf": -3.1, "mu": 1.21, "PhiF_H2O": -0.3, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14940", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "L996V,D1011G", "MUTATION_PDB": "L33V,D48G", "SEC_STR": "Beta,Coil", "RSA": "6.1,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.44, "dln(kf)_H2O": 1.92, "ln(ku)_H2O": -0.45, "dln(ku)_H2O": 2.08, "dGKIN_H2O": 12.11, "ddGKIN_H2O": -3.84, "mf": -3.1, "mu": 1.21, "PhiF_H2O": -0.3, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14940", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "S999N,D1011G", "MUTATION_PDB": "S36N,D48G", "SEC_STR": "Coil,Coil", "RSA": "34.6,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.78, "dln(kf)_H2O": 1.26, "ln(ku)_H2O": -1.61, "dln(ku)_H2O": 0.92, "dGKIN_H2O": 13.36, "ddGKIN_H2O": -2.59, "mf": -2.92, "mu": 1.24, "PhiF_H2O": 0.12, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14941", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "S999N,D1011G", "MUTATION_PDB": "S36N,D48G", "SEC_STR": "Coil,Coil", "RSA": "34.6,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.78, "dln(kf)_H2O": 1.26, "ln(ku)_H2O": -1.61, "dln(ku)_H2O": 0.92, "dGKIN_H2O": 13.36, "ddGKIN_H2O": -2.59, "mf": -2.92, "mu": 1.24, "PhiF_H2O": 0.12, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14941", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "K1006A,D1011G", "MUTATION_PDB": "K43A,D48G", "SEC_STR": "Beta,Coil", "RSA": "31.2,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.64, "dln(kf)_H2O": 1.12, "ln(ku)_H2O": -1.71, "dln(ku)_H2O": 0.82, "dGKIN_H2O": 13.26, "ddGKIN_H2O": -2.69, "mf": -2.8, "mu": 1.31, "PhiF_H2O": 0.25, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14942", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "K1006A,D1011G", "MUTATION_PDB": "K43A,D48G", "SEC_STR": "Beta,Coil", "RSA": "31.2,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.64, "dln(kf)_H2O": 1.12, "ln(ku)_H2O": -1.71, "dln(ku)_H2O": 0.82, "dGKIN_H2O": 13.26, "ddGKIN_H2O": -2.69, "mf": -2.8, "mu": 1.31, "PhiF_H2O": 0.25, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14942", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1007A,D1011G", "MUTATION_PDB": "V44A,D48G", "SEC_STR": "Beta,Coil", "RSA": "0.0,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 1.1, "dln(kf)_H2O": -1.42, "ln(ku)_H2O": 0.12, "dln(ku)_H2O": 2.65, "dGKIN_H2O": 2.42, "ddGKIN_H2O": -13.53, "mf": -2.97, "mu": 1.24, "PhiF_H2O": 0.52, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14943", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1007A,D1011G", "MUTATION_PDB": "V44A,D48G", "SEC_STR": "Beta,Coil", "RSA": "0.0,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 1.1, "dln(kf)_H2O": -1.42, "ln(ku)_H2O": 0.12, "dln(ku)_H2O": 2.65, "dGKIN_H2O": 2.42, "ddGKIN_H2O": -13.53, "mf": -2.97, "mu": 1.24, "PhiF_H2O": 0.52, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14943", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1009A,D1011G", "MUTATION_PDB": "V46A,D48G", "SEC_STR": "Beta,Coil", "RSA": "12.0,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 2.17, "dln(kf)_H2O": -0.35, "ln(ku)_H2O": -2.66, "dln(ku)_H2O": -0.13, "dGKIN_H2O": 11.98, "ddGKIN_H2O": -3.97, "mf": -3.0, "mu": 1.07, "PhiF_H2O": 1.1, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14944", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1009A,D1011G", "MUTATION_PDB": "V46A,D48G", "SEC_STR": "Beta,Coil", "RSA": "12.0,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 2.17, "dln(kf)_H2O": -0.35, "ln(ku)_H2O": -2.66, "dln(ku)_H2O": -0.13, "dGKIN_H2O": 11.98, "ddGKIN_H2O": -3.97, "mf": -3.0, "mu": 1.07, "PhiF_H2O": 1.1, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14944", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "N1010G", "MUTATION_PDB": "N47G", "SEC_STR": "Coil", "RSA": "93.6", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 2.89, "dln(kf)_H2O": 0.37, "ln(ku)_H2O": -3.22, "dln(ku)_H2O": -0.69, "dGKIN_H2O": 15.14, "ddGKIN_H2O": 2.64, "mf": -3.15, "mu": 1.39, "PhiF_H2O": 0.69, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14945", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "N1010G", "MUTATION_PDB": "N47G", "SEC_STR": "Coil", "RSA": "93.6", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 2.89, "dln(kf)_H2O": 0.37, "ln(ku)_H2O": -3.22, "dln(ku)_H2O": -0.69, "dGKIN_H2O": 15.14, "ddGKIN_H2O": 2.64, "mf": -3.15, "mu": 1.39, "PhiF_H2O": 0.69, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14945", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "F1015A,D1011G", "MUTATION_PDB": "F52A,D48G", "SEC_STR": "Beta,Coil", "RSA": "28.4,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 1.16, "dln(kf)_H2O": -1.36, "ln(ku)_H2O": -0.97, "dln(ku)_H2O": 1.56, "dGKIN_H2O": 5.28, "ddGKIN_H2O": -10.67, "mf": -2.97, "mu": 1.14, "PhiF_H2O": 0.64, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14946", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "F1015A,D1011G", "MUTATION_PDB": "F52A,D48G", "SEC_STR": "Beta,Coil", "RSA": "28.4,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 1.16, "dln(kf)_H2O": -1.36, "ln(ku)_H2O": -0.97, "dln(ku)_H2O": 1.56, "dGKIN_H2O": 5.28, "ddGKIN_H2O": -10.67, "mf": -2.97, "mu": 1.14, "PhiF_H2O": 0.64, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14946", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1016A,D1011G", "MUTATION_PDB": "V53A,D48G", "SEC_STR": "Beta,Coil", "RSA": "0.0,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 0.96, "dln(kf)_H2O": -1.56, "ln(ku)_H2O": -0.73, "dln(ku)_H2O": 1.8, "dGKIN_H2O": 4.19, "ddGKIN_H2O": -11.76, "mf": -2.97, "mu": 1.26, "PhiF_H2O": 0.62, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14947", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1016A,D1011G", "MUTATION_PDB": "V53A,D48G", "SEC_STR": "Beta,Coil", "RSA": "0.0,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 0.96, "dln(kf)_H2O": -1.56, "ln(ku)_H2O": -0.73, "dln(ku)_H2O": 1.8, "dGKIN_H2O": 4.19, "ddGKIN_H2O": -11.76, "mf": -2.97, "mu": 1.26, "PhiF_H2O": 0.62, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. 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Biol. 6, 1010\u20131016. https://doi.org/10.1038/14948", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "A1018G,D1011G", "MUTATION_PDB": "A55G,D48G", "SEC_STR": "Helix,Coil", "RSA": "13.2,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 1.59, "dln(kf)_H2O": -0.93, "ln(ku)_H2O": -1.43, "dln(ku)_H2O": 1.1, "dGKIN_H2O": 7.47, "ddGKIN_H2O": -8.48, "mf": -2.6, "mu": 1.31, "PhiF_H2O": 0.68, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14948", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1021A,D1011G", "MUTATION_PDB": "V58A,D48G", "SEC_STR": "Beta,Coil", "RSA": "8.5,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.14, "dln(kf)_H2O": 0.62, "ln(ku)_H2O": 0.22, "dln(ku)_H2O": 2.75, "dGKIN_H2O": 7.24, "ddGKIN_H2O": -8.71, "mf": -3.07, "mu": 1.46, "PhiF_H2O": 0.22, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14949", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "V1021A,D1011G", "MUTATION_PDB": "V58A,D48G", "SEC_STR": "Beta,Coil", "RSA": "8.5,69.3", "T": 25.0, "pH": 3.5, "BUFFER_NAME": "Glycine", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 3.14, "dln(kf)_H2O": 0.62, "ln(ku)_H2O": 0.22, "dln(ku)_H2O": 2.75, "dGKIN_H2O": 7.24, "ddGKIN_H2O": -8.71, "mf": -3.07, "mu": 1.46, "PhiF_H2O": 0.22, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14949", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 1.31, "ln(ku)_H2O": -5.3, "dGKIN_H2O": 16.37, "mf": -2.18, "mu": 1.07, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14896", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Spectrin SH3", "SOURCE": "Gallus gallus", "LENGTH": 62.0, "UniProt": "P07751", "PDB_wild": "1shg", "MUTATED_CHAIN": "A", "PFAM": [ "PF00018" ], "CATH": [ "1shgA00 (2.30.30.40)" ], "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 1.31, "ln(ku)_H2O": -5.3, "dGKIN_H2O": 16.37, "mf": -2.18, "mu": 1.07, "AUTHOR_KIN": "Mart\u00ednez, J.C., Serrano, L.", "REFERENCE_KIN": "The folding transition state between SH3 domains is conformationally restricted and evolutionarily conserved. Nat. Struct. Biol. 6, 1010\u20131016. https://doi.org/10.1038/14896", "YEAR_KIN": 1999.0, "PMID_KIN": "10542091", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "mAcP", "SOURCE": "Homo sapiens", "LENGTH": 98.0, "UniProt": "P14621", "PDB_wild": "AF-P14621", "MUTATED_CHAIN": "A", "PFAM": [ "PF00708" ], "EC_NUMBER": "3.6.1.7", "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 28.0, "pH": 5.5, "BUFFER_NAME": "Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": -1.42, "ln(ku)_H2O": -9.64, "dGKIN_H2O": 20.6, "mf": -4.2, "mu": 1.25, "CM_KIN": 3.77, "AUTHOR_KIN": "Chiti, F., Taddei, N., White, P.M., Bucciantini, M., Magherini, F., Stefani, M., Dobson, C.M.", "REFERENCE_KIN": "Mutational analysis of acylphosphatase suggests the importance of topology and contact order in protein folding. Nat. Struct. Biol. 6, 1005\u20131009. https://doi.org/10.1038/14890", "YEAR_KIN": 1999.0, "PMID_KIN": "10542090", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "mAcP", "SOURCE": "Homo sapiens", "LENGTH": 98.0, "UniProt": "P14621", "PDB_wild": "AF-P14621", "MUTATED_CHAIN": "A", "PFAM": [ "PF00708" ], "EC_NUMBER": "3.6.1.7", "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 28.0, "pH": 5.5, "BUFFER_NAME": "Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": -1.42, "ln(ku)_H2O": -9.64, "dGKIN_H2O": 20.6, "mf": -4.2, "mu": 1.25, "CM_KIN": 3.77, "AUTHOR_KIN": "Chiti, F., Taddei, N., White, P.M., Bucciantini, M., Magherini, F., Stefani, M., Dobson, C.M.", "REFERENCE_KIN": "Mutational analysis of acylphosphatase suggests the importance of topology and contact order in protein folding. Nat. Struct. 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Biol. 6, 1005\u20131009. https://doi.org/10.1038/14910", "YEAR_KIN": 1999.0, "PMID_KIN": "10542090", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "mAcP", "SOURCE": "Homo sapiens", "LENGTH": 98.0, "UniProt": "P14621", "PDB_wild": "AF-P14621", "MUTATED_CHAIN": "A", "PFAM": [ "PF00708" ], "EC_NUMBER": "3.6.1.7", "MUTATION_UNIPROT": "P72A", "MUTATION_PDB": "P72A", "SEC_STR": "Coil", "RSA": "76.5", "T": 28.0, "pH": 5.5, "BUFFER_NAME": "Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": -1.62, "dln(kf)_H2O": -0.2, "ln(ku)_H2O": -7.61, "dln(ku)_H2O": 2.03, "ddGKIN_H2O": -5.6, "mf": -4.23, "mu": 1.33, "CM_KIN": 2.69, "PhiF_H2O": 0.09, "AUTHOR_KIN": "Chiti, F., Taddei, N., White, P.M., Bucciantini, M., Magherini, F., Stefani, M., Dobson, C.M.", "REFERENCE_KIN": "Mutational analysis of acylphosphatase suggests the importance of topology and contact order in protein folding. Nat. Struct. 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Biol. 6, 1005\u20131009. https://doi.org/10.1038/14911", "YEAR_KIN": 1999.0, "PMID_KIN": "10542090", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "mAcP", "SOURCE": "Homo sapiens", "LENGTH": 98.0, "UniProt": "P14621", "PDB_wild": "AF-P14621", "MUTATED_CHAIN": "A", "PFAM": [ "PF00708" ], "EC_NUMBER": "3.6.1.7", "MUTATION_UNIPROT": "I76V", "MUTATION_PDB": "I76V", "SEC_STR": "Beta", "RSA": "20.1", "T": 28.0, "pH": 5.5, "BUFFER_NAME": "Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": -1.45, "dln(kf)_H2O": -0.03, "ln(ku)_H2O": -8.41, "dln(ku)_H2O": 1.23, "ddGKIN_H2O": -3.2, "mf": -4.2, "mu": 1.38, "CM_KIN": 3.12, "PhiF_H2O": 0.02, "AUTHOR_KIN": "Chiti, F., Taddei, N., White, P.M., Bucciantini, M., Magherini, F., Stefani, M., Dobson, C.M.", "REFERENCE_KIN": "Mutational analysis of acylphosphatase suggests the importance of topology and contact order in protein folding. Nat. Struct. 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Biol. 6, 1005\u20131009. https://doi.org/10.1038/14912", "YEAR_KIN": 1999.0, "PMID_KIN": "10542090", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "mAcP", "SOURCE": "Homo sapiens", "LENGTH": 98.0, "UniProt": "P14621", "PDB_wild": "AF-P14621", "MUTATED_CHAIN": "A", "PFAM": [ "PF00708" ], "EC_NUMBER": "3.6.1.7", "MUTATION_UNIPROT": "T79S", "MUTATION_PDB": "T79S", "SEC_STR": "Beta", "RSA": "14.8", "T": 28.0, "pH": 5.5, "BUFFER_NAME": "Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": -1.47, "dln(kf)_H2O": -0.05, "ln(ku)_H2O": -7.45, "dln(ku)_H2O": 2.19, "ddGKIN_H2O": -5.6, "mf": -4.35, "mu": 1.1, "CM_KIN": 2.74, "PhiF_H2O": 0.02, "AUTHOR_KIN": "Chiti, F., Taddei, N., White, P.M., Bucciantini, M., Magherini, F., Stefani, M., Dobson, C.M.", "REFERENCE_KIN": "Mutational analysis of acylphosphatase suggests the importance of topology and contact order in protein folding. Nat. Struct. Biol. 6, 1005\u20131009. https://doi.org/10.1038/14913", "YEAR_KIN": 1999.0, "PMID_KIN": "10542090", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "mAcP", "SOURCE": "Homo sapiens", "LENGTH": 98.0, "UniProt": "P14621", "PDB_wild": "AF-P14621", "MUTATED_CHAIN": "A", "PFAM": [ "PF00708" ], "EC_NUMBER": "3.6.1.7", "MUTATION_UNIPROT": "T79S", "MUTATION_PDB": "T79S", "SEC_STR": "Beta", "RSA": "14.8", "T": 28.0, "pH": 5.5, "BUFFER_NAME": "Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": -1.47, "dln(kf)_H2O": -0.05, "ln(ku)_H2O": -7.45, "dln(ku)_H2O": 2.19, "ddGKIN_H2O": -5.6, "mf": -4.35, "mu": 1.1, "CM_KIN": 2.74, "PhiF_H2O": 0.02, "AUTHOR_KIN": "Chiti, F., Taddei, N., White, P.M., Bucciantini, M., Magherini, F., Stefani, M., Dobson, C.M.", "REFERENCE_KIN": "Mutational analysis of acylphosphatase suggests the importance of topology and contact order in protein folding. Nat. Struct. Biol. 6, 1005\u20131009. https://doi.org/10.1038/14913", "YEAR_KIN": 1999.0, "PMID_KIN": "10542090", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "mAcP", "SOURCE": "Homo sapiens", "LENGTH": 98.0, "UniProt": "P14621", "PDB_wild": "AF-P14621", "MUTATED_CHAIN": "A", "PFAM": [ "PF00708" ], "EC_NUMBER": "3.6.1.7", "MUTATION_UNIPROT": "E84D", "MUTATION_PDB": "E84D", "SEC_STR": "Beta", "RSA": "44.3", "T": 28.0, "pH": 5.5, "BUFFER_NAME": "Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": -1.52, "dln(kf)_H2O": -0.1, "ln(ku)_H2O": -7.35, "dln(ku)_H2O": 2.29, "ddGKIN_H2O": -6.0, "mf": -4.2, "mu": 1.15, "CM_KIN": 2.71, "PhiF_H2O": 0.04, "AUTHOR_KIN": "Chiti, F., Taddei, N., White, P.M., Bucciantini, M., Magherini, F., Stefani, M., Dobson, C.M.", "REFERENCE_KIN": "Mutational analysis of acylphosphatase suggests the importance of topology and contact order in protein folding. Nat. Struct. 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Biol. 6, 1005\u20131009. https://doi.org/10.1038/14914", "YEAR_KIN": 1999.0, "PMID_KIN": "10542090", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "mAcP", "SOURCE": "Homo sapiens", "LENGTH": 98.0, "UniProt": "P14621", "PDB_wild": "AF-P14621", "MUTATED_CHAIN": "A", "PFAM": [ "PF00708" ], "EC_NUMBER": "3.6.1.7", "MUTATION_UNIPROT": "I87V", "MUTATION_PDB": "I87V", "SEC_STR": "Beta", "RSA": "11.8", "T": 28.0, "pH": 5.5, "BUFFER_NAME": "Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": -1.98, "dln(kf)_H2O": -0.56, "ln(ku)_H2O": -6.95, "dln(ku)_H2O": 2.69, "ddGKIN_H2O": -8.15, "mf": -3.68, "mu": 0.85, "CM_KIN": 2.75, "AUTHOR_KIN": "Chiti, F., Taddei, N., White, P.M., Bucciantini, M., Magherini, F., Stefani, M., Dobson, C.M.", "REFERENCE_KIN": "Mutational analysis of acylphosphatase suggests the importance of topology and contact order in protein folding. Nat. Struct. 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Biol. 6, 1005\u20131009. https://doi.org/10.1038/14915", "YEAR_KIN": 1999.0, "PMID_KIN": "10542090", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "mAcP", "SOURCE": "Homo sapiens", "LENGTH": 98.0, "UniProt": "P14621", "PDB_wild": "AF-P14621", "MUTATED_CHAIN": "A", "PFAM": [ "PF00708" ], "EC_NUMBER": "3.6.1.7", "MUTATION_UNIPROT": "L90A", "MUTATION_PDB": "L90A", "SEC_STR": "Coil", "RSA": "45.1", "T": 28.0, "pH": 5.5, "BUFFER_NAME": "Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": -1.67, "dln(kf)_H2O": -0.25, "ln(ku)_H2O": -6.44, "dln(ku)_H2O": 3.2, "ddGKIN_H2O": -8.65, "mf": -4.15, "mu": 1.03, "CM_KIN": 2.31, "PhiF_H2O": 0.07, "AUTHOR_KIN": "Chiti, F., Taddei, N., White, P.M., Bucciantini, M., Magherini, F., Stefani, M., Dobson, C.M.", "REFERENCE_KIN": "Mutational analysis of acylphosphatase suggests the importance of topology and contact order in protein folding. Nat. Struct. 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Biol. 6, 1005\u20131009. https://doi.org/10.1038/14916", "YEAR_KIN": 1999.0, "PMID_KIN": "10542090", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "mAcP", "SOURCE": "Homo sapiens", "LENGTH": 98.0, "UniProt": "P14621", "PDB_wild": "AF-P14621", "MUTATED_CHAIN": "A", "PFAM": [ "PF00708" ], "EC_NUMBER": "3.6.1.7", "MUTATION_UNIPROT": "F95L", "MUTATION_PDB": "F95L", "SEC_STR": "Beta", "RSA": "7.1", "T": 28.0, "pH": 5.5, "BUFFER_NAME": "Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(ku)_H2O": -7.91, "dln(ku)_H2O": 1.73, "mu": -1.13, "PhiF_H2O": 0.76, "AUTHOR_KIN": "Chiti, F., Taddei, N., White, P.M., Bucciantini, M., Magherini, F., Stefani, M., Dobson, C.M.", "REFERENCE_KIN": "Mutational analysis of acylphosphatase suggests the importance of topology and contact order in protein folding. Nat. Struct. Biol. 6, 1005\u20131009. https://doi.org/10.1038/14917", "YEAR_KIN": 1999.0, "PMID_KIN": "10542090", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "mAcP", "SOURCE": "Homo sapiens", "LENGTH": 98.0, "UniProt": "P14621", "PDB_wild": "AF-P14621", "MUTATED_CHAIN": "A", "PFAM": [ "PF00708" ], "EC_NUMBER": "3.6.1.7", "MUTATION_UNIPROT": "F95L", "MUTATION_PDB": "F95L", "SEC_STR": "Beta", "RSA": "7.1", "T": 28.0, "pH": 5.5, "BUFFER_NAME": "Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(ku)_H2O": -7.91, "dln(ku)_H2O": 1.73, "mu": -1.13, "PhiF_H2O": 0.76, "AUTHOR_KIN": "Chiti, F., Taddei, N., White, P.M., Bucciantini, M., Magherini, F., Stefani, M., Dobson, C.M.", "REFERENCE_KIN": "Mutational analysis of acylphosphatase suggests the importance of topology and contact order in protein folding. Nat. Struct. Biol. 6, 1005\u20131009. https://doi.org/10.1038/14917", "YEAR_KIN": 1999.0, "PMID_KIN": "10542090", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "CI2", "SOURCE": "Hordeum vulgare", "LENGTH": 83.0, "UniProt": "P01053", "PDB_wild": "1coa", "MUTATED_CHAIN": "I", "PFAM": [ "PF00280" ], "CATH": [ "1coaI00 (3.30.10.10)" ], "MUTATION_UNIPROT": "L52A,V58A,F70L", "MUTATION_PDB": "L51A,V57A,F69L", "SEC_STR": "Beta,Coil,Beta", "RSA": "23.8,40.8,16.2", "T": 25.0, "pH": 6.25, "BUFFER_NAME": "MES", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 2.47, "dln(kf)_H2O": -1.56, "ln(ku)_H2O": -5.06, "dln(ku)_H2O": 3.98, "dGKIN_H2O": 18.66, "mf": -5.95, "mu": 2.73, "AUTHOR_KIN": "Itzhaki LS, Otzen DE, Fersht AR", "REFERENCE_KIN": "The structure of the transition state for folding of chymotrypsin inhibitor 2 analysed by protein engineering methods: evidence for a nucleation-condensation mechanism for protein folding, J 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254(2):260-288. doi: 10.1006/jmbi.1995.0616.", "YEAR_KIN": 1995.0, "PMID_KIN": "7490748", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "CI2", "SOURCE": "Hordeum vulgare", "LENGTH": 83.0, "UniProt": "P01053", "PDB_wild": "1coa", "MUTATED_CHAIN": "I", "PFAM": [ "PF00280" ], "CATH": [ "1coaI00 (3.30.10.10)" ], "MUTATION_UNIPROT": "L52V,V58A,F70L", "MUTATION_PDB": "L51V,V57A,F69L", "SEC_STR": "Beta,Coil,Beta", "RSA": "23.8,40.8,16.2", "T": 25.0, "pH": 6.25, "BUFFER_NAME": "MES", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.01, "dln(kf)_H2O": -1.02, "ln(ku)_H2O": -5.81, "dln(ku)_H2O": 3.23, "dGKIN_H2O": 21.85, "mf": -5.57, "mu": 2.95, "AUTHOR_KIN": "Itzhaki LS, Otzen DE, Fersht AR", "REFERENCE_KIN": "The structure of the transition state for folding of chymotrypsin inhibitor 2 analysed by protein engineering methods: evidence for a nucleation-condensation mechanism for protein folding, J Mol Biol. 254(2):260-288. doi: 10.1006/jmbi.1995.0616.", "YEAR_KIN": 1995.0, "PMID_KIN": "7490748", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "CI2", "SOURCE": "Hordeum vulgare", "LENGTH": 83.0, "UniProt": "P01053", "PDB_wild": "1coa", "MUTATED_CHAIN": "I", "PFAM": [ "PF00280" ], "CATH": [ "1coaI00 (3.30.10.10)" ], "MUTATION_UNIPROT": "L52V,V58A,F70L", "MUTATION_PDB": "L51V,V57A,F69L", "SEC_STR": "Beta,Coil,Beta", "RSA": "23.8,40.8,16.2", "T": 25.0, "pH": 6.25, "BUFFER_NAME": "MES", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.01, "dln(kf)_H2O": -1.02, "ln(ku)_H2O": -5.81, "dln(ku)_H2O": 3.23, "dGKIN_H2O": 21.85, "mf": -5.57, "mu": 2.95, "AUTHOR_KIN": "Itzhaki LS, Otzen DE, Fersht AR", "REFERENCE_KIN": "The structure of the transition state for folding of chymotrypsin inhibitor 2 analysed by protein engineering methods: evidence for a nucleation-condensation mechanism for protein folding, J Mol Biol. 254(2):260-288. doi: 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10.1006/jmbi.1995.0616.", "YEAR_KIN": 1995.0, "PMID_KIN": "7490748", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "CI2", "SOURCE": "Hordeum vulgare", "LENGTH": 83.0, "UniProt": "P01053", "PDB_wild": "1coa", "MUTATED_CHAIN": "I", "PFAM": [ "PF00280" ], "CATH": [ "1coaI00 (3.30.10.10)" ], "MUTATION_UNIPROT": "T23V", "MUTATION_PDB": "T22V", "SEC_STR": "Coil", "RSA": "48.6", "T": 25.0, "pH": 6.25, "BUFFER_NAME": "MES", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.75, "dln(kf)_H2O": -0.28, "ln(ku)_H2O": -8.58, "dln(ku)_H2O": 0.46, "dGKIN_H2O": 30.55, "mf": -4.19, "mu": 3.2, "AUTHOR_KIN": "Itzhaki LS, Otzen DE, Fersht AR", "REFERENCE_KIN": "The structure of the transition state for folding of chymotrypsin inhibitor 2 analysed by protein engineering methods: evidence for a nucleation-condensation mechanism for protein folding, J Mol Biol. 254(2):260-288. doi: 10.1006/jmbi.1995.0616.", "YEAR_KIN": 1995.0, "PMID_KIN": "7490748", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "CI2", "SOURCE": "Hordeum vulgare", "LENGTH": 83.0, "UniProt": "P01053", "PDB_wild": "1coa", "MUTATED_CHAIN": "I", "PFAM": [ "PF00280" ], "CATH": [ "1coaI00 (3.30.10.10)" ], "MUTATION_UNIPROT": "T23G", "MUTATION_PDB": "T22G", "SEC_STR": "Coil", "RSA": "48.6", "T": 25.0, "pH": 6.25, "BUFFER_NAME": "MES", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.94, "dln(kf)_H2O": -0.09, "ln(ku)_H2O": -7.68, "dln(ku)_H2O": 1.36, "dGKIN_H2O": 28.79, "mf": -5.35, "mu": 3.2, "AUTHOR_KIN": "Itzhaki LS, Otzen DE, Fersht AR", "REFERENCE_KIN": "The structure of the transition state for folding of chymotrypsin inhibitor 2 analysed by protein engineering methods: evidence for a nucleation-condensation mechanism for protein folding, J Mol Biol. 254(2):260-288. doi: 10.1006/jmbi.1995.0616.", "YEAR_KIN": 1995.0, "PMID_KIN": "7490748", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "CI2", "SOURCE": "Hordeum vulgare", "LENGTH": 83.0, "UniProt": "P01053", "PDB_wild": "1coa", "MUTATED_CHAIN": "I", "PFAM": [ "PF00280" ], "CATH": [ "1coaI00 (3.30.10.10)" ], "MUTATION_UNIPROT": "T23G", "MUTATION_PDB": "T22G", "SEC_STR": "Coil", "RSA": "48.6", "T": 25.0, "pH": 6.25, "BUFFER_NAME": "MES", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.94, "dln(kf)_H2O": -0.09, "ln(ku)_H2O": -7.68, "dln(ku)_H2O": 1.36, "dGKIN_H2O": 28.79, "mf": -5.35, "mu": 3.2, "AUTHOR_KIN": "Itzhaki LS, Otzen DE, Fersht AR", "REFERENCE_KIN": "The structure of the transition state for folding of chymotrypsin inhibitor 2 analysed by protein engineering methods: evidence for a nucleation-condensation mechanism for protein folding, J Mol Biol. 254(2):260-288. doi: 10.1006/jmbi.1995.0616.", "YEAR_KIN": 1995.0, "PMID_KIN": "7490748", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "CI2", "SOURCE": "Hordeum vulgare", "LENGTH": 83.0, 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10.1006/jmbi.1995.0616.", "YEAR_KIN": 1995.0, "PMID_KIN": "7490748", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "CI2", "SOURCE": "Hordeum vulgare", "LENGTH": 83.0, "UniProt": "P01053", "PDB_wild": "1coa", "MUTATED_CHAIN": "I", "PFAM": [ "PF00280" ], "CATH": [ "1coaI00 (3.30.10.10)" ], "MUTATION_UNIPROT": "E34Q", "MUTATION_PDB": "E33Q", "SEC_STR": "Helix", "RSA": "71.6", "T": 25.0, "pH": 6.25, "BUFFER_NAME": "MES", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.43, "dln(kf)_H2O": -0.6, "ln(ku)_H2O": -8.97, "dln(ku)_H2O": 0.07, "dGKIN_H2O": 30.72, "mf": -5.1, "mu": 3.27, "AUTHOR_KIN": "Itzhaki LS, Otzen DE, Fersht AR", "REFERENCE_KIN": "The structure of the transition state for folding of chymotrypsin inhibitor 2 analysed by protein engineering methods: evidence for a nucleation-condensation mechanism for protein folding, J Mol Biol. 254(2):260-288. doi: 10.1006/jmbi.1995.0616.", "YEAR_KIN": 1995.0, "PMID_KIN": "7490748", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "CI2", "SOURCE": "Hordeum vulgare", "LENGTH": 83.0, "UniProt": "P01053", "PDB_wild": "1coa", "MUTATED_CHAIN": "I", "PFAM": [ "PF00280" ], "CATH": [ "1coaI00 (3.30.10.10)" ], "MUTATION_UNIPROT": "E34Q", "MUTATION_PDB": "E33Q", "SEC_STR": "Helix", "RSA": "71.6", "T": 25.0, "pH": 6.25, "BUFFER_NAME": "MES", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.43, "dln(kf)_H2O": -0.6, "ln(ku)_H2O": -8.97, "dln(ku)_H2O": 0.07, "dGKIN_H2O": 30.72, "mf": -5.1, "mu": 3.27, "AUTHOR_KIN": "Itzhaki LS, Otzen DE, Fersht AR", "REFERENCE_KIN": "The structure of the transition state for folding of chymotrypsin inhibitor 2 analysed by protein engineering methods: evidence for a nucleation-condensation mechanism for protein folding, J Mol Biol. 254(2):260-288. doi: 10.1006/jmbi.1995.0616.", "YEAR_KIN": 1995.0, "PMID_KIN": "7490748", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "CI2", "SOURCE": "Hordeum vulgare", "LENGTH": 83.0, "UniProt": "P01053", "PDB_wild": "1coa", "MUTATED_CHAIN": "I", "PFAM": [ "PF00280" ], "CATH": [ "1coaI00 (3.30.10.10)" ], "MUTATION_UNIPROT": "E34D", "MUTATION_PDB": "E33D", "SEC_STR": "Helix", "RSA": "71.6", "T": 25.0, "pH": 6.25, "BUFFER_NAME": "MES", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.86, "dln(kf)_H2O": -0.17, "ln(ku)_H2O": -8.76, "dln(ku)_H2O": 0.28, "dGKIN_H2O": 31.27, "mf": -6.0, "mu": 3.3, "AUTHOR_KIN": "Itzhaki LS, Otzen DE, Fersht AR", "REFERENCE_KIN": "The structure of the transition state for folding of chymotrypsin inhibitor 2 analysed by protein engineering methods: evidence for a nucleation-condensation mechanism for protein folding, J Mol Biol. 254(2):260-288. doi: 10.1006/jmbi.1995.0616.", "YEAR_KIN": 1995.0, "PMID_KIN": "7490748", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "CI2", "SOURCE": "Hordeum vulgare", "LENGTH": 83.0, 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inhibitor 2 analysed by protein engineering methods: evidence for a nucleation-condensation mechanism for protein folding, J Mol Biol. 254(2):260-288. doi: 10.1006/jmbi.1995.0616.", "YEAR_KIN": 1995.0, "PMID_KIN": "7490748", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "CI2", "SOURCE": "Hordeum vulgare", "LENGTH": 83.0, "UniProt": "P01053", "PDB_wild": "1coa", "MUTATED_CHAIN": "I", "PFAM": [ "PF00280" ], "CATH": [ "1coaI00 (3.30.10.10)" ], "MUTATION_UNIPROT": "S32G,E34A,E35A", "MUTATION_PDB": "S31G,E33A,E34A", "SEC_STR": "Beta,Helix,Helix", "RSA": "33.8,71.6,62.9", "T": 25.0, "pH": 6.25, "BUFFER_NAME": "MES", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 2.73, "dln(kf)_H2O": -1.3, "ln(ku)_H2O": -6.66, "dln(ku)_H2O": 2.38, "dGKIN_H2O": 23.26, "mf": -4.56, "mu": 2.92, "AUTHOR_KIN": "Itzhaki LS, Otzen DE, Fersht AR", "REFERENCE_KIN": "The structure of the transition state for folding of chymotrypsin inhibitor 2 analysed by 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"PFAM": [ "PF00280" ], "CATH": [ "1coaI00 (3.30.10.10)" ], "MUTATION_UNIPROT": "I50A", "MUTATION_PDB": "I49A", "SEC_STR": "Beta", "RSA": "42.6", "T": 25.0, "pH": 6.25, "BUFFER_NAME": "MES", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 2.94, "dln(kf)_H2O": -1.09, "ln(ku)_H2O": -7.5, "dln(ku)_H2O": 1.54, "dGKIN_H2O": 25.87, "mf": -7.18, "mu": 3.1, "AUTHOR_KIN": "Itzhaki LS, Otzen DE, Fersht AR", "REFERENCE_KIN": "The structure of the transition state for folding of chymotrypsin inhibitor 2 analysed by protein engineering methods: evidence for a nucleation-condensation mechanism for protein folding, J Mol Biol. 254(2):260-288. doi: 10.1006/jmbi.1995.0616.", "YEAR_KIN": 1995.0, "PMID_KIN": "7490748", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "CI2", "SOURCE": "Hordeum vulgare", "LENGTH": 83.0, "UniProt": "P01053", "PDB_wild": "1coa", "MUTATED_CHAIN": "I", "PFAM": [ "PF00280" ], "CATH": [ "1coaI00 (3.30.10.10)" ], 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GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "I232A", "MUTATION_PDB": "I6A", "SEC_STR": "Beta", "RSA": "37.9", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.85, "mu": 1.38, "PhiF_H2O": 0.38, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77973", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "L233A", "MUTATION_PDB": "L7A", "SEC_STR": "Beta", "RSA": "4.3", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -8.62, "mu": 1.59, "PhiF_H2O": 0.32, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77974", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "L233A", "MUTATION_PDB": "L7A", "SEC_STR": "Beta", "RSA": "4.3", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -8.62, "mu": 1.59, "PhiF_H2O": 0.32, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77974", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "T237A", "MUTATION_PDB": "T11A", "SEC_STR": "Coil", "RSA": "90.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.26, "mu": 2.18, "PhiF_H2O": 0.02, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77975", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "T237A", "MUTATION_PDB": "T11A", "SEC_STR": "Coil", "RSA": "90.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.26, "mu": 2.18, "PhiF_H2O": 0.02, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77975", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "E241A", "MUTATION_PDB": "E15A", "SEC_STR": "Beta", "RSA": "60.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.55, "mu": 1.92, "PhiF_H2O": -0.19, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77976", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "E241A", "MUTATION_PDB": "E15A", "SEC_STR": "Beta", "RSA": "60.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.55, "mu": 1.92, "PhiF_H2O": -0.19, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77976", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "T242A", "MUTATION_PDB": "T16A", "SEC_STR": "Beta", "RSA": "33.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.98, "mu": 1.51, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77977", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "T242A", "MUTATION_PDB": "T16A", "SEC_STR": "Beta", "RSA": "33.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.98, "mu": 1.51, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77977", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "T244A", "MUTATION_PDB": "T18A", "SEC_STR": "Beta", "RSA": "26.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.22, "mu": 1.63, "PhiF_H2O": -0.45, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77978", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "T244A", "MUTATION_PDB": "T18A", "SEC_STR": "Beta", "RSA": "26.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.22, "mu": 1.63, "PhiF_H2O": -0.45, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77978", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "A246G", "MUTATION_PDB": "A20G", "SEC_STR": "Coil", "RSA": "13.2", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.84, "mu": 2.01, "PhiF_H2O": 0.02, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77979", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "A246G", "MUTATION_PDB": "A20G", "SEC_STR": "Coil", "RSA": "13.2", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.84, "mu": 2.01, "PhiF_H2O": 0.02, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77979", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "D248A", "MUTATION_PDB": "D22A", "SEC_STR": "Coil", "RSA": "42.9", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.74, "mu": 2.05, "PhiF_H2O": 0.23, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77980", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "D248A", "MUTATION_PDB": "D22A", "SEC_STR": "Coil", "RSA": "42.9", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.74, "mu": 2.05, "PhiF_H2O": 0.23, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77980", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "T251A", "MUTATION_PDB": "T25A", "SEC_STR": "Helix", "RSA": "30.3", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.74, "mu": 1.55, "PhiF_H2O": -0.81, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77981", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "T251A", "MUTATION_PDB": "T25A", "SEC_STR": "Helix", "RSA": "30.3", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.74, "mu": 1.55, "PhiF_H2O": -0.81, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77981", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "A252G", "MUTATION_PDB": "A26G", "SEC_STR": "Helix", "RSA": "0.9", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -10.3, "mu": 1.34, "PhiF_H2O": 0.31, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77982", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "A252G", "MUTATION_PDB": "A26G", "SEC_STR": "Helix", "RSA": "0.9", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -10.3, "mu": 1.34, "PhiF_H2O": 0.31, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77982", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "K254G", "MUTATION_PDB": "K28G", "SEC_STR": "Helix", "RSA": "59.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.22, "mu": 1.88, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77983", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "K254G", "MUTATION_PDB": "K28G", "SEC_STR": "Helix", "RSA": "59.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.22, "mu": 1.88, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77983", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "V255A", "MUTATION_PDB": "V29A", "SEC_STR": "Helix", "RSA": "50.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.69, "mu": 1.84, "PhiF_H2O": 0.26, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77984", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "V255A", "MUTATION_PDB": "V29A", "SEC_STR": "Helix", "RSA": "50.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.69, "mu": 1.84, "PhiF_H2O": 0.26, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77984", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "F256L", "MUTATION_PDB": "F30L", "SEC_STR": "Helix", "RSA": "2.5", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.74, "mu": 1.8, "PhiF_H2O": 0.05, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77985", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "F256L", "MUTATION_PDB": "F30L", "SEC_STR": "Helix", "RSA": "2.5", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.74, "mu": 1.8, "PhiF_H2O": 0.05, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77985", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "K257G", "MUTATION_PDB": "K31G", "SEC_STR": "Helix", "RSA": "41.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.98, "mu": 1.55, "PhiF_H2O": 0.23, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77986", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "K257G", "MUTATION_PDB": "K31G", "SEC_STR": "Helix", "RSA": "41.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.98, "mu": 1.55, "PhiF_H2O": 0.23, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77986", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "Q258G", "MUTATION_PDB": "Q32G", "SEC_STR": "Helix", "RSA": "66.7", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.69, "mu": 1.59, "PhiF_H2O": 0.55, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77987", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "Q258G", "MUTATION_PDB": "Q32G", "SEC_STR": "Helix", "RSA": "66.7", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.69, "mu": 1.59, "PhiF_H2O": 0.55, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77987", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "Y259A", "MUTATION_PDB": "Y33A", "SEC_STR": "Helix", "RSA": "34.7", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.21, "mu": 2.26, "PhiF_H2O": 0.2, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77988", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "Y259A", "MUTATION_PDB": "Y33A", "SEC_STR": "Helix", "RSA": "34.7", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.21, "mu": 2.26, "PhiF_H2O": 0.2, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77988", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "A260G", "MUTATION_PDB": "A34G", "SEC_STR": "Helix", "RSA": "1.9", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.46, "mu": 1.76, "PhiF_H2O": 0.21, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77989", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "A260G", "MUTATION_PDB": "A34G", "SEC_STR": "Helix", "RSA": "1.9", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.46, "mu": 1.76, "PhiF_H2O": 0.21, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77989", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "N261G", "MUTATION_PDB": "N35G", "SEC_STR": "Helix", "RSA": "77.1", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.41, "mu": 1.67, "PhiF_H2O": 0.19, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77990", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "N261G", "MUTATION_PDB": "N35G", "SEC_STR": "Helix", "RSA": "77.1", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.41, "mu": 1.67, "PhiF_H2O": 0.19, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77990", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "N263A", "MUTATION_PDB": "N37A", "SEC_STR": "Coil", "RSA": "54.1", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.98, "mu": 1.55, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77991", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "N263A", "MUTATION_PDB": "N37A", "SEC_STR": "Coil", "RSA": "54.1", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.98, "mu": 1.55, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77991", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "V265A", "MUTATION_PDB": "V39A", "SEC_STR": "Coil", "RSA": "7.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.03, "mu": 1.42, "PhiF_H2O": 0.16, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77992", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. 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GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "G267A", "MUTATION_PDB": "G41A", "SEC_STR": "Coil", "RSA": "22.6", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -8.23, "mu": 1.84, "PhiF_H2O": -0.02, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77993", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "G267A", "MUTATION_PDB": "G41A", "SEC_STR": "Coil", "RSA": "22.6", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -8.23, "mu": 1.84, "PhiF_H2O": -0.02, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77993", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "Y271L", "MUTATION_PDB": "Y45L", "SEC_STR": "Beta", "RSA": "36.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.89, "mu": 2.22, "PhiF_H2O": 0.3, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77994", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "Y271L", "MUTATION_PDB": "Y45L", "SEC_STR": "Beta", "RSA": "36.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.89, "mu": 2.22, "PhiF_H2O": 0.3, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77994", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "D272A", "MUTATION_PDB": "D46A", "SEC_STR": "Beta", "RSA": "49.7", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.88, "mu": 1.46, "PhiF_H2O": 0.96, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77995", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "D272A", "MUTATION_PDB": "D46A", "SEC_STR": "Beta", "RSA": "49.7", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.88, "mu": 1.46, "PhiF_H2O": 0.96, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77995", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "D273A", "MUTATION_PDB": "D47A", "SEC_STR": "Coil", "RSA": "55.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.26, "mu": 1.26, "PhiF_H2O": 0.67, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77996", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "D273A", "MUTATION_PDB": "D47A", "SEC_STR": "Coil", "RSA": "55.8", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -6.26, "mu": 1.26, "PhiF_H2O": 0.67, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77996", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "T275A", "MUTATION_PDB": "T49A", "SEC_STR": "Coil", "RSA": "58.5", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.32, "mu": 1.59, "PhiF_H2O": 0.84, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77997", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "T275A", "MUTATION_PDB": "T49A", "SEC_STR": "Coil", "RSA": "58.5", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.32, "mu": 1.59, "PhiF_H2O": 0.84, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77997", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "T277A", "MUTATION_PDB": "T51A", "SEC_STR": "Beta", "RSA": "15.5", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.99, "mu": 1.55, "PhiF_H2O": 0.44, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77998", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "T277A", "MUTATION_PDB": "T51A", "SEC_STR": "Beta", "RSA": "15.5", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.99, "mu": 1.55, "PhiF_H2O": 0.44, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77998", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "F278L", "MUTATION_PDB": "F52L", "SEC_STR": "Beta", "RSA": "2.5", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": 1.73, "mu": -9.67, "PhiF_H2O": 0.19, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77999", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "F278L", "MUTATION_PDB": "F52L", "SEC_STR": "Beta", "RSA": "2.5", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": 1.73, "mu": -9.67, "PhiF_H2O": 0.19, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/77999", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "T279A", "MUTATION_PDB": "T53A", "SEC_STR": "Beta", "RSA": "23.2", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -8.18, "mu": 2.01, "PhiF_H2O": 0.27, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/78000", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "T279A", "MUTATION_PDB": "T53A", "SEC_STR": "Beta", "RSA": "23.2", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -8.18, "mu": 2.01, "PhiF_H2O": 0.27, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/78000", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "V280A", "MUTATION_PDB": "V54A", "SEC_STR": "Beta", "RSA": "0.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.94, "mu": 2.8, "PhiF_H2O": 0.16, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/78001", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Protein G", "SOURCE": "Streptococcus sp. GX7805", "LENGTH": 56.0, "UniProt": "P06654", "PDB_wild": "1pgb", "MUTATED_CHAIN": "A", "PFAM": [ "PF01378" ], "CATH": [ "1pgbA00 (3.10.20.10)" ], "MUTATION_UNIPROT": "V280A", "MUTATION_PDB": "V54A", "SEC_STR": "Beta", "RSA": "0.0", "T": 22.0, "pH": 6.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "mf": -7.94, "mu": 2.8, "PhiF_H2O": 0.16, "AUTHOR_KIN": "McCallister, E.L., Alm, E., Baker, D.", "REFERENCE_KIN": "Critical role of beta-hairpin formation in protein G folding. Nat. Struct. Biol. 7, 669\u2013673. https://doi.org/10.1038/78001", "YEAR_KIN": 2000.0, "PMID_KIN": "10932252", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "ADAh2", "SOURCE": "Homo sapiens", "LENGTH": 81.0, "UniProt": "P48052", "PDB_wild": "1o6x", "MUTATED_CHAIN": "A", "PFAM": [ "PF02244" ], "CATH": [ "1o6xA00 (3.30.70.340)" ], "EC_NUMBER": "3.4.17.15", "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Sodium Phosphate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 6.63, "ln(ku)_H2O": -0.73, "dGKIN_H2O": 18.41, "mf": -2.93, "mu": 1.21, "AUTHOR_KIN": "Villegas, V., Mart\u00ednez, J.C., Avil\u00e9s, F.X., Serrano, L.", "REFERENCE_KIN": "Structure of the transition state in the folding process of human procarboxypeptidase A2 activation domain. J. Mol. 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Mol. 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Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. Biol. 326, 293\u2013305. https://doi.org/10.1016/s0022-2836(02)01249-4", "YEAR_KIN": 2003.0, "PMID_KIN": "12547210", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.72, "ln(ku)_H2O": -3.0, "dGKIN_H2O": 26.56, "mf": -3.02, "mu": 1.02, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.079", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.72, "ln(ku)_H2O": -3.0, "dGKIN_H2O": 26.56, "mf": -3.02, "mu": 1.02, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.079", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "N56M", "MUTATION_PDB": "N56M", "SEC_STR": "Coil", "RSA": "43.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 9.3, "dln(kf)_H2O": 1.58, "ln(ku)_H2O": -1.97, "dln(ku)_H2O": 1.03, "dGKIN_H2O": 27.9, "ddGKIN_H2O": 1.34, "mf": -3.47, "mu": 0.94, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.080", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "N56M", "MUTATION_PDB": "N56M", "SEC_STR": "Coil", "RSA": "43.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 9.3, "dln(kf)_H2O": 1.58, "ln(ku)_H2O": -1.97, "dln(ku)_H2O": 1.03, "dGKIN_H2O": 27.9, "ddGKIN_H2O": 1.34, "mf": -3.47, "mu": 0.94, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.080", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "I58A", "MUTATION_PDB": "I58A", "SEC_STR": "Beta", "RSA": "2.4", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.72, "dln(kf)_H2O": -3.0, "ln(ku)_H2O": -0.31, "dln(ku)_H2O": 2.69, "dGKIN_H2O": 12.47, "ddGKIN_H2O": -14.09, "mf": -2.87, "mu": 0.94, "PhiF_H2O": 0.6, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. 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Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.081", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "I58L", "MUTATION_PDB": "I58L", "SEC_STR": "Beta", "RSA": "2.4", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.17, "dln(kf)_H2O": -0.55, "ln(ku)_H2O": -2.53, "dln(ku)_H2O": 0.47, "dGKIN_H2O": 24.02, "ddGKIN_H2O": -2.54, "mf": -3.07, "mu": 1.07, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.082", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "I58L", "MUTATION_PDB": "I58L", "SEC_STR": "Beta", "RSA": "2.4", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.17, "dln(kf)_H2O": -0.55, "ln(ku)_H2O": -2.53, "dln(ku)_H2O": 0.47, "dGKIN_H2O": 24.02, "ddGKIN_H2O": -2.54, "mf": -3.07, "mu": 1.07, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.082", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "I58F", "MUTATION_PDB": "I58F", "SEC_STR": "Beta", "RSA": "2.4", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.67, "dln(kf)_H2O": -0.05, "ln(ku)_H2O": -0.87, "dln(ku)_H2O": 2.13, "dGKIN_H2O": 21.16, "ddGKIN_H2O": -5.4, "mf": -3.47, "mu": 0.87, "PhiF_H2O": 0.03, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.083", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "I58F", "MUTATION_PDB": "I58F", "SEC_STR": "Beta", "RSA": "2.4", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.67, "dln(kf)_H2O": -0.05, "ln(ku)_H2O": -0.87, "dln(ku)_H2O": 2.13, "dGKIN_H2O": 21.16, "ddGKIN_H2O": -5.4, "mf": -3.47, "mu": 0.87, "PhiF_H2O": 0.03, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.083", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "R59A", "MUTATION_PDB": "R59A", "SEC_STR": "Beta", "RSA": "34.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 8.69, "dln(kf)_H2O": 0.97, "ln(ku)_H2O": -2.41, "dln(ku)_H2O": 0.59, "dGKIN_H2O": 27.5, "ddGKIN_H2O": 0.94, "mf": -3.05, "mu": 0.97, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.084", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "R59A", "MUTATION_PDB": "R59A", "SEC_STR": "Beta", "RSA": "34.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 8.69, "dln(kf)_H2O": 0.97, "ln(ku)_H2O": -2.41, "dln(ku)_H2O": 0.59, "dGKIN_H2O": 27.5, "ddGKIN_H2O": 0.94, "mf": -3.05, "mu": 0.97, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.084", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "V60A", "MUTATION_PDB": "V60A", "SEC_STR": "Beta", "RSA": "1.4", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 4.96, "dln(kf)_H2O": -2.76, "ln(ku)_H2O": -2.04, "dln(ku)_H2O": 0.96, "dGKIN_H2O": 17.33, "ddGKIN_H2O": -9.23, "mf": -3.2, "mu": 0.92, "PhiF_H2O": 0.63, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.090", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "V69A", "MUTATION_PDB": "V69A", "SEC_STR": "Beta", "RSA": "59.9", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 6.52, "dln(kf)_H2O": -1.2, "ln(ku)_H2O": -2.41, "dln(ku)_H2O": 0.59, "dGKIN_H2O": 22.12, "ddGKIN_H2O": -4.44, "mf": -3.05, "mu": 1.02, "PhiF_H2O": 0.72, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.093", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "V72A", "MUTATION_PDB": "V72A", "SEC_STR": "Coil", "RSA": "2.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 6.52, "dln(kf)_H2O": -1.2, "ln(ku)_H2O": -2.81, "dln(ku)_H2O": 0.19, "dGKIN_H2O": 23.12, "ddGKIN_H2O": -3.44, "mf": -3.3, "mu": 0.99, "PhiF_H2O": 1.01, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. 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J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.094", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "V72I", "MUTATION_PDB": "V72I", "SEC_STR": "Coil", "RSA": "2.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 8.82, "dln(kf)_H2O": 1.1, "ln(ku)_H2O": -0.58, "dln(ku)_H2O": 2.42, "dGKIN_H2O": 23.3, "ddGKIN_H2O": -3.26, "mf": -3.74, "mu": 0.87, "PhiF_H2O": -0.84, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.094", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "M76A", "MUTATION_PDB": "M76A", "SEC_STR": "Coil", "RSA": "23.4", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 6.97, "dln(kf)_H2O": -0.75, "ln(ku)_H2O": -2.21, "dln(ku)_H2O": 0.79, "dGKIN_H2O": 22.73, "ddGKIN_H2O": -3.83, "mf": -3.22, "mu": 1.04, "PhiF_H2O": 0.25, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.099", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "C81A", "MUTATION_PDB": "C81A", "SEC_STR": "Helix", "RSA": "2.2", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.81, "dln(kf)_H2O": 0.09, "ln(ku)_H2O": -3.22, "dln(ku)_H2O": -0.22, "dGKIN_H2O": 27.33, "ddGKIN_H2O": 0.77, "mf": -2.9, "mu": 1.04, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. 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J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.100", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "C81I", "MUTATION_PDB": "C81I", "SEC_STR": "Helix", "RSA": "2.2", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 10.12, "dln(kf)_H2O": 2.4, "ln(ku)_H2O": -0.78, "dln(ku)_H2O": 2.22, "dGKIN_H2O": 27.0, "ddGKIN_H2O": 0.44, "mf": -3.77, "mu": 0.94, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.101", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "C81I", "MUTATION_PDB": "C81I", "SEC_STR": "Helix", "RSA": "2.2", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 10.12, "dln(kf)_H2O": 2.4, "ln(ku)_H2O": -0.78, "dln(ku)_H2O": 2.22, "dGKIN_H2O": 27.0, "ddGKIN_H2O": 0.44, "mf": -3.77, "mu": 0.94, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.101", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "L82A", "MUTATION_PDB": "L82A", "SEC_STR": "Helix", "RSA": "3.7", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 6.12, "dln(kf)_H2O": -1.6, "ln(ku)_H2O": -0.16, "dln(ku)_H2O": 2.84, "dGKIN_H2O": 15.56, "ddGKIN_H2O": -11.0, "mf": -4.61, "mu": 1.14, "PhiF_H2O": 0.39, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.106", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "P93A", "MUTATION_PDB": "P93A", "SEC_STR": "Coil", "RSA": "2.2", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 8.22, "dln(kf)_H2O": 0.5, "ln(ku)_H2O": -2.3, "dln(ku)_H2O": 0.7, "dGKIN_H2O": 26.06, "ddGKIN_H2O": -0.5, "mf": -3.32, "mu": 0.92, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. 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J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.107", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "C95A", "MUTATION_PDB": "C95A", "SEC_STR": "Coil", "RSA": "51.9", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.05, "dln(kf)_H2O": -0.67, "ln(ku)_H2O": -3.0, "dGKIN_H2O": 24.88, "ddGKIN_H2O": -1.68, "mf": -2.75, "mu": 1.07, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.108", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "C95A", "MUTATION_PDB": "C95A", "SEC_STR": "Coil", "RSA": "51.9", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.05, "dln(kf)_H2O": -0.67, "ln(ku)_H2O": -3.0, "dGKIN_H2O": 24.88, "ddGKIN_H2O": -1.68, "mf": -2.75, "mu": 1.07, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.108", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "C96A", "MUTATION_PDB": "C96A", "SEC_STR": "Beta", "RSA": "14.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 8.15, "dln(kf)_H2O": 0.43, "ln(ku)_H2O": -0.11, "dln(ku)_H2O": 2.89, "dGKIN_H2O": 20.44, "ddGKIN_H2O": -6.12, "mf": -3.22, "mu": 0.89, "PhiF_H2O": -0.1, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.109", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "C96A", "MUTATION_PDB": "C96A", "SEC_STR": "Beta", "RSA": "14.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 8.15, "dln(kf)_H2O": 0.43, "ln(ku)_H2O": -0.11, "dln(ku)_H2O": 2.89, "dGKIN_H2O": 20.44, "ddGKIN_H2O": -6.12, "mf": -3.22, "mu": 0.89, "PhiF_H2O": -0.1, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.109", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "C96L", "MUTATION_PDB": "C96L", "SEC_STR": "Beta", "RSA": "14.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.36, "dln(kf)_H2O": -0.36, "ln(ku)_H2O": -3.22, "dln(ku)_H2O": -0.22, "dGKIN_H2O": 26.22, "ddGKIN_H2O": -0.34, "mf": -2.73, "mu": 1.21, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.110", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "C96L", "MUTATION_PDB": "C96L", "SEC_STR": "Beta", "RSA": "14.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.36, "dln(kf)_H2O": -0.36, "ln(ku)_H2O": -3.22, "dln(ku)_H2O": -0.22, "dGKIN_H2O": 26.22, "ddGKIN_H2O": -0.34, "mf": -2.73, "mu": 1.21, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.110", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "C96M", "MUTATION_PDB": "C96M", "SEC_STR": "Beta", "RSA": "14.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.9, "dln(kf)_H2O": 0.18, "ln(ku)_H2O": -3.51, "dln(ku)_H2O": -0.51, "dGKIN_H2O": 28.26, "ddGKIN_H2O": 1.7, "mf": -3.1, "mu": 1.16, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.111", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "C96M", "MUTATION_PDB": "C96M", "SEC_STR": "Beta", "RSA": "14.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.9, "dln(kf)_H2O": 0.18, "ln(ku)_H2O": -3.51, "dln(ku)_H2O": -0.51, "dGKIN_H2O": 28.26, "ddGKIN_H2O": 1.7, "mf": -3.1, "mu": 1.16, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.111", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "A97G", "MUTATION_PDB": "A97G", "SEC_STR": "Beta", "RSA": "0.9", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.05, "dln(kf)_H2O": -0.67, "ln(ku)_H2O": -1.56, "dln(ku)_H2O": 1.44, "dGKIN_H2O": 21.33, "ddGKIN_H2O": -5.23, "mf": -2.9, "mu": 0.92, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.112", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "A97G", "MUTATION_PDB": "A97G", "SEC_STR": "Beta", "RSA": "0.9", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.05, "dln(kf)_H2O": -0.67, "ln(ku)_H2O": -1.56, "dln(ku)_H2O": 1.44, "dGKIN_H2O": 21.33, "ddGKIN_H2O": -5.23, "mf": -2.9, "mu": 0.92, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.112", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "V98A", "MUTATION_PDB": "V98A", "SEC_STR": "Beta", "RSA": "2.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 5.73, "dln(kf)_H2O": -1.99, "ln(ku)_H2O": -1.24, "dln(ku)_H2O": 1.76, "dGKIN_H2O": 17.26, "ddGKIN_H2O": -9.3, "mf": -2.28, "mu": 0.92, "PhiF_H2O": 0.48, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.113", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "V98A", "MUTATION_PDB": "V98A", "SEC_STR": "Beta", "RSA": "2.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 5.73, "dln(kf)_H2O": -1.99, "ln(ku)_H2O": -1.24, "dln(ku)_H2O": 1.76, "dGKIN_H2O": 17.26, "ddGKIN_H2O": -9.3, "mf": -2.28, "mu": 0.92, "PhiF_H2O": 0.48, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.113", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "R100A", "MUTATION_PDB": "R100A", "SEC_STR": "Beta", "RSA": "10.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.5, "dln(kf)_H2O": -0.22, "ln(ku)_H2O": -1.61, "dln(ku)_H2O": 1.39, "dGKIN_H2O": 22.57, "ddGKIN_H2O": -3.99, "mf": -2.95, "mu": 0.97, "PhiF_H2O": 0.21, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.114", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "R100A", "MUTATION_PDB": "R100A", "SEC_STR": "Beta", "RSA": "10.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.5, "dln(kf)_H2O": -0.22, "ln(ku)_H2O": -1.61, "dln(ku)_H2O": 1.39, "dGKIN_H2O": 22.57, "ddGKIN_H2O": -3.99, "mf": -2.95, "mu": 0.97, "PhiF_H2O": 0.21, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.114", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "E104A", "MUTATION_PDB": "E104A", "SEC_STR": "Coil", "RSA": "61.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 8.08, "dln(kf)_H2O": 0.36, "ln(ku)_H2O": -2.53, "dln(ku)_H2O": 0.47, "dGKIN_H2O": 26.28, "ddGKIN_H2O": -0.28, "mf": -3.2, "mu": 0.92, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.115", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "E104A", "MUTATION_PDB": "E104A", "SEC_STR": "Coil", "RSA": "61.3", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 8.08, "dln(kf)_H2O": 0.36, "ln(ku)_H2O": -2.53, "dln(ku)_H2O": 0.47, "dGKIN_H2O": 26.28, "ddGKIN_H2O": -0.28, "mf": -3.2, "mu": 0.92, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.115", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "K109A", "MUTATION_PDB": "K109A", "SEC_STR": "Coil", "RSA": "22.0", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 8.01, "dln(kf)_H2O": 0.29, "ln(ku)_H2O": -1.66, "dln(ku)_H2O": 1.34, "dGKIN_H2O": 23.97, "ddGKIN_H2O": -2.59, "mf": -3.25, "mu": 0.84, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.116", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "K109A", "MUTATION_PDB": "K109A", "SEC_STR": "Coil", "RSA": "22.0", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 8.01, "dln(kf)_H2O": 0.29, "ln(ku)_H2O": -1.66, "dln(ku)_H2O": 1.34, "dGKIN_H2O": 23.97, "ddGKIN_H2O": -2.59, "mf": -3.25, "mu": 0.84, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.116", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "L112A", "MUTATION_PDB": "L112A", "SEC_STR": "Coil", "RSA": "15.2", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 6.07, "dln(kf)_H2O": -1.65, "ln(ku)_H2O": 1.01, "dln(ku)_H2O": 4.01, "dGKIN_H2O": 12.54, "ddGKIN_H2O": -14.02, "mf": -2.48, "mu": 0.89, "PhiF_H2O": 0.41, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.117", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "L112A", "MUTATION_PDB": "L112A", "SEC_STR": "Coil", "RSA": "15.2", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 6.07, "dln(kf)_H2O": -1.65, "ln(ku)_H2O": 1.01, "dln(ku)_H2O": 4.01, "dGKIN_H2O": 12.54, "ddGKIN_H2O": -14.02, "mf": -2.48, "mu": 0.89, "PhiF_H2O": 0.41, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. Biol. 365, 1559\u20131577. https://doi.org/10.1016/j.jmb.2006.10.121", "YEAR_KIN": 2007.0, "PMID_KIN": "17137592", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "raf RBD", "SOURCE": "Homo sapiens", "LENGTH": 79.0, "UniProt": "P04049", "PDB_wild": "1rfa", "MUTATED_CHAIN": "A", "PFAM": [ "PF02196" ], "CATH": [ "1rfaA00 (3.10.20.90)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_UNIPROT": "E124A", "MUTATION_PDB": "E124A", "SEC_STR": "Coil", "RSA": "22.2", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM DTT", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 7.55, "dln(kf)_H2O": -0.17, "ln(ku)_H2O": -2.66, "dln(ku)_H2O": 0.34, "dGKIN_H2O": 25.31, "ddGKIN_H2O": -1.25, "mf": -3.0, "mu": 0.99, "AUTHOR_KIN": "Campbell-Valois, F.-X., Michnick, S.W.", "REFERENCE_KIN": "The transition state of the ras binding domain of Raf is structurally polarized based on Phi-values but is energetically diffuse. J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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J. Mol. 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Proteins 59, 80\u201390. https://doi.org/10.1002/prot.20340", "YEAR_KIN": 2005.0, "PMID_KIN": "15690348", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "yACBP", "SOURCE": "Saccharomyces cerevisiae (strain ATCC 204508 / S288c) (Baker yeast)", "LENGTH": 79.0, "UniProt": "P31787", "PDB_wild": "1st7", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "1st7A00 (1.20.80.10)" ], "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Na-acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 8.52, "ln(ku)_H2O": -6.44, "dGKIN_H2O": 34.5, "mf": -5.38, "mu": 3.63, "AUTHOR_KIN": "Teilum, K., Thormann, T., Caterer, N.R., Poulsen, H.I., Jensen, P.H., Knudsen, J., Kragelund, B.B., Poulsen, F.M.", "REFERENCE_KIN": "Different secondary structure elements as scaffolds for protein folding transition states of two homologous four-helix bundles. 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Proteins 59, 80\u201390. https://doi.org/10.1002/prot.20355", "YEAR_KIN": 2005.0, "PMID_KIN": "15690348", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "yACBP", "SOURCE": "Saccharomyces cerevisiae (strain ATCC 204508 / S288c) (Baker yeast)", "LENGTH": 79.0, "UniProt": "P31787", "PDB_wild": "1st7", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "1st7A00 (1.20.80.10)" ], "MUTATION_UNIPROT": "V78A", "MUTATION_PDB": "V77A", "SEC_STR": "Helix", "RSA": "0.0", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Na-acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 7.64, "dln(kf)_H2O": -0.88, "ln(ku)_H2O": -6.92, "dln(ku)_H2O": -0.48, "dGKIN_H2O": 33.6, "ddGKIN_H2O": -0.91, "mf": -5.69, "mu": 3.69, "PhiF_H2O": 2.24, "AUTHOR_KIN": "Teilum, K., Thormann, T., Caterer, N.R., Poulsen, H.I., Jensen, P.H., Knudsen, J., Kragelund, B.B., Poulsen, F.M.", "REFERENCE_KIN": "Different secondary structure elements as scaffolds for protein folding transition states of two homologous four-helix bundles. Proteins 59, 80\u201390. https://doi.org/10.1002/prot.20356", "YEAR_KIN": 2005.0, "PMID_KIN": "15690348", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "yACBP", "SOURCE": "Saccharomyces cerevisiae (strain ATCC 204508 / S288c) (Baker yeast)", "LENGTH": 79.0, "UniProt": "P31787", "PDB_wild": "1st7", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "1st7A00 (1.20.80.10)" ], "MUTATION_UNIPROT": "V78A", "MUTATION_PDB": "V77A", "SEC_STR": "Helix", "RSA": "0.0", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Na-acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 7.64, "dln(kf)_H2O": -0.88, "ln(ku)_H2O": -6.92, "dln(ku)_H2O": -0.48, "dGKIN_H2O": 33.6, "ddGKIN_H2O": -0.91, "mf": -5.69, "mu": 3.69, "PhiF_H2O": 2.24, "AUTHOR_KIN": "Teilum, K., Thormann, T., Caterer, N.R., Poulsen, H.I., Jensen, P.H., Knudsen, J., Kragelund, B.B., Poulsen, F.M.", "REFERENCE_KIN": "Different secondary structure elements as scaffolds for protein folding transition states of two homologous four-helix bundles. Proteins 59, 80\u201390. https://doi.org/10.1002/prot.20356", "YEAR_KIN": 2005.0, "PMID_KIN": "15690348", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "yACBP", "SOURCE": "Saccharomyces cerevisiae (strain ATCC 204508 / S288c) (Baker yeast)", "LENGTH": 79.0, "UniProt": "P31787", "PDB_wild": "1st7", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "1st7A00 (1.20.80.10)" ], "MUTATION_UNIPROT": "L81A", "MUTATION_PDB": "L80A", "SEC_STR": "Helix", "RSA": "4.3", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Na-acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.61, "dln(kf)_H2O": -3.91, "ln(ku)_H2O": -5.09, "dln(ku)_H2O": 1.35, "dGKIN_H2O": 22.4, "ddGKIN_H2O": -12.1, "mf": -6.23, "mu": 3.84, "PhiF_H2O": 0.74, "AUTHOR_KIN": "Teilum, K., Thormann, T., Caterer, N.R., Poulsen, H.I., Jensen, P.H., Knudsen, J., Kragelund, B.B., Poulsen, F.M.", "REFERENCE_KIN": "Different secondary structure elements as scaffolds for protein folding transition states of two homologous four-helix bundles. Proteins 59, 80\u201390. https://doi.org/10.1002/prot.20357", "YEAR_KIN": 2005.0, "PMID_KIN": "15690348", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "yACBP", "SOURCE": "Saccharomyces cerevisiae (strain ATCC 204508 / S288c) (Baker yeast)", "LENGTH": 79.0, "UniProt": "P31787", "PDB_wild": "1st7", "MUTATED_CHAIN": "A", "PFAM": [ "PF00887" ], "CATH": [ "1st7A00 (1.20.80.10)" ], "MUTATION_UNIPROT": "L81A", "MUTATION_PDB": "L80A", "SEC_STR": "Helix", "RSA": "4.3", "T": 5.0, "pH": 5.3, "BUFFER_NAME": "Na-acetate", "BUFFER_CONC": "0.02", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.61, "dln(kf)_H2O": -3.91, "ln(ku)_H2O": -5.09, "dln(ku)_H2O": 1.35, "dGKIN_H2O": 22.4, "ddGKIN_H2O": -12.1, "mf": -6.23, "mu": 3.84, "PhiF_H2O": 0.74, "AUTHOR_KIN": "Teilum, K., Thormann, T., Caterer, N.R., Poulsen, H.I., Jensen, P.H., Knudsen, J., Kragelund, B.B., Poulsen, F.M.", "REFERENCE_KIN": "Different secondary structure elements as scaffolds for protein folding transition states of two homologous four-helix bundles. Proteins 59, 80\u201390. https://doi.org/10.1002/prot.20357", "YEAR_KIN": 2005.0, "PMID_KIN": "15690348", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Cold shock-like protein", "SOURCE": "Thermotoga maritima", "LENGTH": 66.0, "UniProt": "O54310", "PDB_wild": "1g6p", "MUTATED_CHAIN": "A", "PFAM": [ "PF00313" ], "CATH": [ "1g6pA00 (2.40.50.140)" ], "MUTATION_PDB": "WT", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Na cacodylate-HCI", "BUFFER_CONC": "0.1", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GdmCl", "ln(kf)_H2O": 6.34, "ln(ku)_H2O": -4.02, "dGKIN_H2O": 25.6, "AUTHOR_KIN": "Perl D, Welker C, Schindler T, Schr\u00f6der K, Marahiel MA, Jaenicke R, Schmid FX", "REFERENCE_KIN": "Conservation of rapid two-state folding in mesophilic, thermophilic and hyperthermophilic cold shock proteins. Nat Struct Biol. 229-35. https://doi.org/10.1038/nsb0398-229", "YEAR_KIN": 1998.0, "PMID_KIN": "9501917", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "Cold shock-like protein", "SOURCE": "Thermotoga maritima", "LENGTH": 66.0, "UniProt": "O54310", "PDB_wild": "1g6p", "MUTATED_CHAIN": "A", "PFAM": [ "PF00313" ], "CATH": [ "1g6pA00 (2.40.50.140)" ], "MUTATION_PDB": "WT", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "Na cacodylate-HCI", "BUFFER_CONC": "0.1", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GdmCl", "ln(kf)_H2O": 6.34, "ln(ku)_H2O": -4.02, "dGKIN_H2O": 25.6, "AUTHOR_KIN": "Perl D, Welker C, Schindler T, Schr\u00f6der K, Marahiel MA, Jaenicke R, Schmid FX", "REFERENCE_KIN": "Conservation of rapid two-state folding in mesophilic, thermophilic and hyperthermophilic cold shock proteins. Nat Struct Biol. 229-35. https://doi.org/10.1038/nsb0398-229", "YEAR_KIN": 1998.0, "PMID_KIN": "9501917", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "Cold shock protein CspA", "SOURCE": "Escherichia coli (strain K12)", "LENGTH": 69.0, "UniProt": "P0A9X9", "PDB_wild": "1mjc", "MUTATED_CHAIN": "A", "PFAM": [ "PF00313" ], "CATH": [ "1mjcA00 (2.40.50.140)" ], "MUTATION_PDB": "WT", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "KPi", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 5.29, "ln(ku)_H2O": 1.44, "dGKIN_H2O": 9.54, "AUTHOR_KIN": "Reid KL, Rodriguez HM, Hillier BJ, Gregoret LM", "REFERENCE_KIN": "Stability and folding properties of a model beta-sheet protein, Escherichia coli CspA. Protein Sci. 7(2):470-9", "YEAR_KIN": 1998.0, "PMID_KIN": "9521124", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "Cold shock protein CspA", "SOURCE": "Escherichia coli (strain K12)", "LENGTH": 69.0, "UniProt": "P0A9X9", "PDB_wild": "1mjc", "MUTATED_CHAIN": "A", "PFAM": [ "PF00313" ], "CATH": [ "1mjcA00 (2.40.50.140)" ], "MUTATION_PDB": "WT", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "KPi", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 5.29, "ln(ku)_H2O": 1.44, "dGKIN_H2O": 9.54, "AUTHOR_KIN": "Reid KL, Rodriguez HM, Hillier BJ, Gregoret LM", "REFERENCE_KIN": "Stability and folding properties of a model beta-sheet protein, Escherichia coli CspA. Protein Sci. 7(2):470-9", "YEAR_KIN": 1998.0, "PMID_KIN": "9521124", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "Phosphocarrier protein HPr", "SOURCE": "Escherichia coli (strain K12)", "LENGTH": 85.0, "UniProt": "P0AA04", "PDB_wild": "1opd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00381" ], "CATH": [ "1opdA00 (3.30.1340.10)" ], "MUTATION_PDB": "WT", "T": 20.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.1", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GdnHCl", "ln(kf)_H2O": 2.7, "ln(ku)_H2O": -6.17, "dGKIN_H2O": 21.61, "AUTHOR_KIN": "Van Nuland NA, Meijberg W, Warner J, Forge V, Scheek RM, Robillard GT, Dobson CM", "REFERENCE_KIN": "Slow cooperative folding of a small globular protein HPr. Biochemistry. 37(2):622-37", "YEAR_KIN": 1998.0, "PMID_KIN": "9425085", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "Phosphocarrier protein HPr", "SOURCE": "Escherichia coli (strain K12)", "LENGTH": 85.0, "UniProt": "P0AA04", "PDB_wild": "1opd", "MUTATED_CHAIN": "A", "PFAM": [ "PF00381" ], "CATH": [ "1opdA00 (3.30.1340.10)" ], "MUTATION_PDB": "WT", "T": 20.0, "pH": 7.0, "BUFFER_NAME": "Phosphate", "BUFFER_CONC": "0.1", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GdnHCl", "ln(kf)_H2O": 2.7, "ln(ku)_H2O": -6.17, "dGKIN_H2O": 21.61, "AUTHOR_KIN": "Van Nuland NA, Meijberg W, Warner J, Forge V, Scheek RM, Robillard GT, Dobson CM", "REFERENCE_KIN": "Slow cooperative folding of a small globular protein HPr. Biochemistry. 37(2):622-37", "YEAR_KIN": 1998.0, "PMID_KIN": "9425085", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "TRF1 Myb domain (Telomeric repeat-binding factor 1)", "SOURCE": "Homo sapiens", "LENGTH": 53.0, "UniProt": "P54274", "PDB_wild": "1ba5", "MUTATED_CHAIN": "A", "PFAM": [ "PF00249" ], "CATH": [ "1ba5A00 (1.10.10.60)" ], "MUTATION_PDB": "WT", "T": 25.0, "pH": 5.7, "BUFFER_NAME": "Na Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 5.91, "ln(ku)_H2O": 1.16, "dGKIN_H2O": 11.8, "mf": -3.6, "mu": 0.38, "beta-T": 0.9, "AUTHOR_KIN": "Gianni S, Guydosh NR, Khan F, Caldas TD, Mayor U, White GW, DeMarco ML, Daggett V, Fersht AR", "REFERENCE_KIN": "Unifying features in protein-folding mechanisms. Proc Natl Acad Sci U S A. 100(23):13286-91. https://doi.org/10.1073/pnas.1835776100", "YEAR_KIN": 2003.0, "PMID_KIN": "14595026", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "TRF1 Myb domain (Telomeric repeat-binding factor 1)", "SOURCE": "Homo sapiens", "LENGTH": 53.0, "UniProt": "P54274", "PDB_wild": "1ba5", "MUTATED_CHAIN": "A", "PFAM": [ "PF00249" ], "CATH": [ "1ba5A00 (1.10.10.60)" ], "MUTATION_PDB": "WT", "T": 25.0, "pH": 5.7, "BUFFER_NAME": "Na Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 5.91, "ln(ku)_H2O": 1.16, "dGKIN_H2O": 11.8, "mf": -3.6, "mu": 0.38, "beta-T": 0.9, "AUTHOR_KIN": "Gianni S, Guydosh NR, Khan F, Caldas TD, Mayor U, White GW, DeMarco ML, Daggett V, Fersht AR", "REFERENCE_KIN": "Unifying features in protein-folding mechanisms. Proc Natl Acad Sci U S A. 100(23):13286-91. https://doi.org/10.1073/pnas.1835776100", "YEAR_KIN": 2003.0, "PMID_KIN": "14595026", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "RAP1 Myb domain (Telomeric repeat-binding factor 2-interacting protein 1)", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "Q9NYB0", "PDB_wild": "1fex", "MUTATED_CHAIN": "A", "PFAM": [ "PF08914" ], "CATH": [ "1fexA00 (1.10.10.60)" ], "MUTATION_PDB": "WT", "T": 25.0, "pH": 5.7, "BUFFER_NAME": "Na Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 8.73, "ln(ku)_H2O": 2.89, "dGKIN_H2O": 13.05, "mf": -2.85, "mu": 0.63, "beta-T": 0.82, "AUTHOR_KIN": "Gianni S, Guydosh NR, Khan F, Caldas TD, Mayor U, White GW, DeMarco ML, Daggett V, Fersht AR", "REFERENCE_KIN": "Unifying features in protein-folding mechanisms. Proc Natl Acad Sci U S A. 100(23):13286-91. https://doi.org/10.1073/pnas.1835776100", "YEAR_KIN": 2003.0, "PMID_KIN": "14595026", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "RAP1 Myb domain (Telomeric repeat-binding factor 2-interacting protein 1)", "SOURCE": "Homo sapiens", "LENGTH": 59.0, "UniProt": "Q9NYB0", "PDB_wild": "1fex", "MUTATED_CHAIN": "A", "PFAM": [ "PF08914" ], "CATH": [ "1fexA00 (1.10.10.60)" ], "MUTATION_PDB": "WT", "T": 25.0, "pH": 5.7, "BUFFER_NAME": "Na Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 8.73, "ln(ku)_H2O": 2.89, "dGKIN_H2O": 13.05, "mf": -2.85, "mu": 0.63, "beta-T": 0.82, "AUTHOR_KIN": "Gianni S, Guydosh NR, Khan F, Caldas TD, Mayor U, White GW, DeMarco ML, Daggett V, Fersht AR", "REFERENCE_KIN": "Unifying features in protein-folding mechanisms. Proc Natl Acad Sci U S A. 100(23):13286-91. https://doi.org/10.1073/pnas.1835776100", "YEAR_KIN": 2003.0, "PMID_KIN": "14595026", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "c-Myb-transforming protein (Transcriptional activator Myb)", "SOURCE": "Mus musculus", "LENGTH": 53.0, "UniProt": "P06876", "PDB_wild": "1idy", "MUTATED_CHAIN": "A", "PFAM": [ "PF00249" ], "CATH": [ "1idyA00 (1.10.10.60)" ], "MUTATION_PDB": "WT(I155L)", "T": 25.0, "pH": 5.7, "BUFFER_NAME": "Na Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 8.19, "ln(ku)_H2O": 1.67, "dGKIN_H2O": 17.45, "mf": -2.72, "mu": 0.71, "beta-T": 0.79, "BACKGROUND_MUT_PDB": [ "I155L" ], "AUTHOR_KIN": "Gianni S, Guydosh NR, Khan F, Caldas TD, Mayor U, White GW, DeMarco ML, Daggett V, Fersht AR", "REFERENCE_KIN": "Unifying features in protein-folding mechanisms. Proc Natl Acad Sci U S A. 100(23):13286-91. https://doi.org/10.1073/pnas.1835776100", "YEAR_KIN": 2003.0, "PMID_KIN": "14595026", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "c-Myb-transforming protein (Transcriptional activator Myb)", "SOURCE": "Mus musculus", "LENGTH": 53.0, "UniProt": "P06876", "PDB_wild": "1idy", "MUTATED_CHAIN": "A", "PFAM": [ "PF00249" ], "CATH": [ "1idyA00 (1.10.10.60)" ], "MUTATION_PDB": "WT(I155L)", "T": 25.0, "pH": 5.7, "BUFFER_NAME": "Na Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 8.19, "ln(ku)_H2O": 1.67, "dGKIN_H2O": 17.45, "mf": -2.72, "mu": 0.71, "beta-T": 0.79, "BACKGROUND_MUT_PDB": [ "I155L" ], "AUTHOR_KIN": "Gianni S, Guydosh NR, Khan F, Caldas TD, Mayor U, White GW, DeMarco ML, Daggett V, Fersht AR", "REFERENCE_KIN": "Unifying features in protein-folding mechanisms. Proc Natl Acad Sci U S A. 100(23):13286-91. https://doi.org/10.1073/pnas.1835776100", "YEAR_KIN": 2003.0, "PMID_KIN": "14595026", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "18th module of muscle protein twitchin", "SOURCE": "Caenorhabditis elegans", "LENGTH": 93.0, "UniProt": "Q23551", "PDB_wild": "1wit", "MUTATED_CHAIN": "A", "PFAM": [ "PF07679" ], "CATH": [ "1witA00 (2.60.40.10)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_PDB": "WT", "T": 20.0, "pH": 5.0, "BUFFER_NAME": "Na Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GdmCl", "ln(kf)_H2O": 0.41, "ln(ku)_H2O": -8.18, "dGKIN_H2O": 20.93, "beta-T": 0.7, "AUTHOR_KIN": "Fong S, Hamill SJ, Proctor M, Freund SM, Benian GM, Chothia C, Bycroft M, Clarke J Structure and stability of an immunoglobulin superfamily domain from twitchin, a muscle protein of the nematode Caenorhabditis elegans. J Mol Biol. 264(3):624-39", "REFERENCE_KIN": "Structure and stability of an immunoglobulin superfamily domain from twitchin, a muscle protein of the nematode Caenorhabditis elegans. J Mol Biol. 264(3):624-39. https://doi.org/10.1006/jmbi.1996.0665", "YEAR_KIN": 1996.0, "PMID_KIN": "8969309", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "18th module of muscle protein twitchin", "SOURCE": "Caenorhabditis elegans", "LENGTH": 93.0, "UniProt": "Q23551", "PDB_wild": "1wit", "MUTATED_CHAIN": "A", "PFAM": [ "PF07679" ], "CATH": [ "1witA00 (2.60.40.10)" ], "EC_NUMBER": "2.7.11.1", "MUTATION_PDB": "WT", "T": 20.0, "pH": 5.0, "BUFFER_NAME": "Na Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GdmCl", "ln(kf)_H2O": 0.41, "ln(ku)_H2O": -8.18, "dGKIN_H2O": 20.93, "beta-T": 0.7, "AUTHOR_KIN": "Fong S, Hamill SJ, Proctor M, Freund SM, Benian GM, Chothia C, Bycroft M, Clarke J Structure and stability of an immunoglobulin superfamily domain from twitchin, a muscle protein of the nematode Caenorhabditis elegans. J Mol Biol. 264(3):624-39", "REFERENCE_KIN": "Structure and stability of an immunoglobulin superfamily domain from twitchin, a muscle protein of the nematode Caenorhabditis elegans. J Mol Biol. 264(3):624-39. https://doi.org/10.1006/jmbi.1996.0665", "YEAR_KIN": 1996.0, "PMID_KIN": "8969309", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "Acylphosphatase-1", "SOURCE": "Homo sapiens", "LENGTH": 99.0, "UniProt": "P07311", "PDB_wild": "2vh7", "MUTATED_CHAIN": "A", "PFAM": [ "PF00708" ], "CATH": [ "2vh7A00 (3.30.70.100)" ], "EC_NUMBER": "3.6.1.7", "MUTATION_PDB": "WT", "T": 28.0, "pH": 5.5, "BUFFER_NAME": "Na Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 0.84, "ln(ku)_H2O": -6.5, "dGKIN_H2O": 18.37, "mf": -5.1, "mu": 2.0, "CM_KIN": 2.6, "AUTHOR_KIN": "Taddei N, Chiti F, Paoli P, Fiaschi T, Bucciantini M, Stefani M, Dobson CM, Ramponi G", "REFERENCE_KIN": "Thermodynamics and kinetics of folding of common-type acylphosphatase: comparison to the highly homologous muscle isoenzyme. Biochemistry 38(7):2135-42. https://doi.org/10.1021/bi9822630", "YEAR_KIN": 1999.0, "PMID_KIN": "10026297", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "Acylphosphatase-1", "SOURCE": "Homo sapiens", "LENGTH": 99.0, "UniProt": "P07311", "PDB_wild": "2vh7", "MUTATED_CHAIN": "A", "PFAM": [ "PF00708" ], "CATH": [ "2vh7A00 (3.30.70.100)" ], "EC_NUMBER": "3.6.1.7", "MUTATION_PDB": "WT", "T": 28.0, "pH": 5.5, "BUFFER_NAME": "Na Acetate", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 0.84, "ln(ku)_H2O": -6.5, "dGKIN_H2O": 18.37, "mf": -5.1, "mu": 2.0, "CM_KIN": 2.6, "AUTHOR_KIN": "Taddei N, Chiti F, Paoli P, Fiaschi T, Bucciantini M, Stefani M, Dobson CM, Ramponi G", "REFERENCE_KIN": "Thermodynamics and kinetics of folding of common-type acylphosphatase: comparison to the highly homologous muscle isoenzyme. Biochemistry 38(7):2135-42. https://doi.org/10.1021/bi9822630", "YEAR_KIN": 1999.0, "PMID_KIN": "10026297", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "apocytochrome b5", "SOURCE": "Bos taurus", "LENGTH": 93.0, "UniProt": "P00171", "PDB_wild": "1cyo", "MUTATED_CHAIN": "A", "PFAM": [ "PF00173" ], "CATH": [ "1cyoA00 (3.10.120.10)" ], "MUTATION_PDB": "WT", "T": 10.0, "pH": 7.0, "BUFFER_NAME": "MOPS", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GdmCl", "ln(kf)_H2O": 2.97, "ln(ku)_H2O": -1.43, "dGKIN_H2O": 10.35, "mf": -5.59, "mu": 2.4, "CM_KIN": 1.58, "AUTHOR_KIN": "Manyusa S, Whitford D", "REFERENCE_KIN": "Defining folding and unfolding reactions of apocytochrome b5 using equilibrium and kinetic fluorescence measurements. Biochemistry 38(29):9533-40. https://doi.org/10.1021/bi990550d", "YEAR_KIN": 1999.0, "PMID_KIN": "10413531", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "apocytochrome b5", "SOURCE": "Bos taurus", "LENGTH": 93.0, "UniProt": "P00171", "PDB_wild": "1cyo", "MUTATED_CHAIN": "A", "PFAM": [ "PF00173" ], "CATH": [ "1cyoA00 (3.10.120.10)" ], "MUTATION_PDB": "WT", "T": 10.0, "pH": 7.0, "BUFFER_NAME": "MOPS", "BUFFER_CONC": "0.05", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GdmCl", "ln(kf)_H2O": 2.97, "ln(ku)_H2O": -1.43, "dGKIN_H2O": 10.35, "mf": -5.59, "mu": 2.4, "CM_KIN": 1.58, "AUTHOR_KIN": "Manyusa S, Whitford D", "REFERENCE_KIN": "Defining folding and unfolding reactions of apocytochrome b5 using equilibrium and kinetic fluorescence measurements. Biochemistry 38(29):9533-40. https://doi.org/10.1021/bi990550d", "YEAR_KIN": 1999.0, "PMID_KIN": "10413531", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "Villin-1", "SOURCE": "Gallus gallus", "LENGTH": 126.0, "UniProt": "P02640", "PDB_wild": "2vik", "MUTATED_CHAIN": "A", "PFAM": [ "PF00626" ], "CATH": [ "2vikA00 (3.40.20.10)" ], "MUTATION_PDB": "WT", "T": 37.0, "pH": 4.1, "BUFFER_NAME": "Acetate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM beta-ME", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 6.8, "ln(ku)_H2O": -2.8, "dGKIN_H2O": 24.74, "mf": -4.64, "mu": 1.72, "AUTHOR_KIN": "Choe SE, Matsudaira PT, Osterhout J, Wagner G, Shakhnovich EI", "REFERENCE_KIN": "Folding kinetics of villin 14T, a protein domain with a central beta-sheet and two hydrophobic cores. Biochemistry. 37(41):14508-18. https://doi.org/10.1021/bi980889k", "YEAR_KIN": 1998.0, "PMID_KIN": "9772179", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "Villin-1", "SOURCE": "Gallus gallus", "LENGTH": 126.0, "UniProt": "P02640", "PDB_wild": "2vik", "MUTATED_CHAIN": "A", "PFAM": [ "PF00626" ], "CATH": [ "2vikA00 (3.40.20.10)" ], "MUTATION_PDB": "WT", "T": 37.0, "pH": 4.1, "BUFFER_NAME": "Acetate", "BUFFER_CONC": "0.05", "ADDITIVES": "1 mM beta-ME", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "urea", "ln(kf)_H2O": 6.8, "ln(ku)_H2O": -2.8, "dGKIN_H2O": 24.74, "mf": -4.64, "mu": 1.72, "AUTHOR_KIN": "Choe SE, Matsudaira PT, Osterhout J, Wagner G, Shakhnovich EI", "REFERENCE_KIN": "Folding kinetics of villin 14T, a protein domain with a central beta-sheet and two hydrophobic cores. Biochemistry. 37(41):14508-18. https://doi.org/10.1021/bi980889k", "YEAR_KIN": 1998.0, "PMID_KIN": "9772179", "STATE": "Yes", "REVIEW_DATE": "2023-06-09T01:00:00" }, { "PROTEIN": "Azurin", "SOURCE": "Pseudomonas aeruginosa", "LENGTH": 128.0, "UniProt": "P00282", "PDB_wild": "1azu", "MUTATED_CHAIN": "A", "PFAM": [ "PF00127" ], "CATH": [ "1azuA00 (2.60.40.420)" ], "MUTATION_UNIPROT": "L145A", "MUTATION_PDB": "L125A", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "TRIS", "BUFFER_CONC": "0.1", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.78, "dln(kf)_H2O": -1.06, "ln(ku)_H2O": -15.19, "dln(ku)_H2O": 1.77, "PhiF_H2O": 0.36, "AUTHOR_KIN": "Wilson, C.J., Wittung-Stafshede, P.", "REFERENCE_KIN": "Snapshots of a dynamic folding nucleus in zinc-substituted Pseudomonas aeruginosa azurin. Biochemistry 44, 10054\u201310062. https://doi.org/10.1021/bi050342n", "YEAR_KIN": 2005.0, "PMID_KIN": "16042382", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Azurin", "SOURCE": "Pseudomonas aeruginosa", "LENGTH": 128.0, "UniProt": "P00282", "PDB_wild": "1azu", "MUTATED_CHAIN": "A", "PFAM": [ "PF00127" ], "CATH": [ "1azuA00 (2.60.40.420)" ], "MUTATION_UNIPROT": "L145A", "MUTATION_PDB": "L125A", "SEC_STR": "Beta", "RSA": "0.0", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "TRIS", "BUFFER_CONC": "0.1", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 3.78, "dln(kf)_H2O": -1.06, "ln(ku)_H2O": -15.19, "dln(ku)_H2O": 1.77, "PhiF_H2O": 0.36, "AUTHOR_KIN": "Wilson, C.J., Wittung-Stafshede, P.", "REFERENCE_KIN": "Snapshots of a dynamic folding nucleus in zinc-substituted Pseudomonas aeruginosa azurin. Biochemistry 44, 10054\u201310062. https://doi.org/10.1021/bi050342n", "YEAR_KIN": 2005.0, "PMID_KIN": "16042382", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Azurin", "SOURCE": "Pseudomonas aeruginosa", "LENGTH": 128.0, "UniProt": "P00282", "PDB_wild": "1azu", "MUTATED_CHAIN": "A", "PFAM": [ "PF00127" ], "CATH": [ "1azuA00 (2.60.40.420)" ], "MUTATION_UNIPROT": "I27A", "MUTATION_PDB": "I7A", "SEC_STR": "Beta", "RSA": "1.2", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "TRIS", "BUFFER_CONC": "0.1", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.39, "dln(kf)_H2O": -0.45, "ln(ku)_H2O": -11.75, "dln(ku)_H2O": 5.21, "PhiF_H2O": 0.08, "AUTHOR_KIN": "Wilson, C.J., Wittung-Stafshede, P.", "REFERENCE_KIN": "Snapshots of a dynamic folding nucleus in zinc-substituted Pseudomonas aeruginosa azurin. Biochemistry 44, 10054\u201310062. https://doi.org/10.1021/bi050342n", "YEAR_KIN": 2005.0, "PMID_KIN": "16042382", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Azurin", "SOURCE": "Pseudomonas aeruginosa", "LENGTH": 128.0, "UniProt": "P00282", "PDB_wild": "1azu", "MUTATED_CHAIN": "A", "PFAM": [ "PF00127" ], "CATH": [ "1azuA00 (2.60.40.420)" ], "MUTATION_UNIPROT": "I27A", "MUTATION_PDB": "I7A", "SEC_STR": "Beta", "RSA": "1.2", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "TRIS", "BUFFER_CONC": "0.1", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.39, "dln(kf)_H2O": -0.45, "ln(ku)_H2O": -11.75, "dln(ku)_H2O": 5.21, "PhiF_H2O": 0.08, "AUTHOR_KIN": "Wilson, C.J., Wittung-Stafshede, P.", "REFERENCE_KIN": "Snapshots of a dynamic folding nucleus in zinc-substituted Pseudomonas aeruginosa azurin. Biochemistry 44, 10054\u201310062. https://doi.org/10.1021/bi050342n", "YEAR_KIN": 2005.0, "PMID_KIN": "16042382", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Azurin", "SOURCE": "Pseudomonas aeruginosa", "LENGTH": 128.0, "UniProt": "P00282", "PDB_wild": "1azu", "MUTATED_CHAIN": "A", "PFAM": [ "PF00127" ], "CATH": [ "1azuA00 (2.60.40.420)" ], "MUTATION_UNIPROT": "I40A", "MUTATION_PDB": "I20A", "SEC_STR": "Beta", "RSA": "4.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "TRIS", "BUFFER_CONC": "0.1", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.23, "dln(kf)_H2O": -0.61, "ln(ku)_H2O": -13.53, "dln(ku)_H2O": 3.43, "PhiF_H2O": 0.15, "AUTHOR_KIN": "Wilson, C.J., Wittung-Stafshede, P.", "REFERENCE_KIN": "Snapshots of a dynamic folding nucleus in zinc-substituted Pseudomonas aeruginosa azurin. Biochemistry 44, 10054\u201310062. https://doi.org/10.1021/bi050342n", "YEAR_KIN": 2005.0, "PMID_KIN": "16042382", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Azurin", "SOURCE": "Pseudomonas aeruginosa", "LENGTH": 128.0, "UniProt": "P00282", "PDB_wild": "1azu", "MUTATED_CHAIN": "A", "PFAM": [ "PF00127" ], "CATH": [ "1azuA00 (2.60.40.420)" ], "MUTATION_UNIPROT": "I40A", "MUTATION_PDB": "I20A", "SEC_STR": "Beta", "RSA": "4.1", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "TRIS", "BUFFER_CONC": "0.1", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.23, "dln(kf)_H2O": -0.61, "ln(ku)_H2O": -13.53, "dln(ku)_H2O": 3.43, "PhiF_H2O": 0.15, "AUTHOR_KIN": "Wilson, C.J., Wittung-Stafshede, P.", "REFERENCE_KIN": "Snapshots of a dynamic folding nucleus in zinc-substituted Pseudomonas aeruginosa azurin. Biochemistry 44, 10054\u201310062. https://doi.org/10.1021/bi050342n", "YEAR_KIN": 2005.0, "PMID_KIN": "16042382", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Azurin", "SOURCE": "Pseudomonas aeruginosa", "LENGTH": 128.0, "UniProt": "P00282", "PDB_wild": "1azu", "MUTATED_CHAIN": "A", "PFAM": [ "PF00127" ], "CATH": [ "1azuA00 (2.60.40.420)" ], "MUTATION_UNIPROT": "V42A", "MUTATION_PDB": "V22A", "SEC_STR": "Coil", "RSA": "2.8", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "TRIS", "BUFFER_CONC": "0.1", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.43, "dln(kf)_H2O": -0.41, "ln(ku)_H2O": -14.54, "dln(ku)_H2O": 2.42, "PhiF_H2O": 0.14, "AUTHOR_KIN": "Wilson, C.J., Wittung-Stafshede, P.", "REFERENCE_KIN": "Snapshots of a dynamic folding nucleus in zinc-substituted Pseudomonas aeruginosa azurin. 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Biochemistry 44, 10054\u201310062. https://doi.org/10.1021/bi050342n", "YEAR_KIN": 2005.0, "PMID_KIN": "16042382", "STATE": "2", "REVERSIBILITY": "yes", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Azurin", "SOURCE": "Pseudomonas aeruginosa", "LENGTH": 128.0, "UniProt": "P00282", "PDB_wild": "1azu", "MUTATED_CHAIN": "A", "PFAM": [ "PF00127" ], "CATH": [ "1azuA00 (2.60.40.420)" ], "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "TRIS", "BUFFER_CONC": "0.1", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.84, "ln(ku)_H2O": -16.96, "AUTHOR_KIN": "Wilson, C.J., Wittung-Stafshede, P.", "REFERENCE_KIN": "Snapshots of a dynamic folding nucleus in zinc-substituted Pseudomonas aeruginosa azurin. Biochemistry 44, 10054\u201310062. https://doi.org/10.1021/bi050342n", "YEAR_KIN": 2005.0, "PMID_KIN": "16042382", "STATE": "2", "REVIEW_DATE": "2023-06-04T01:00:00" }, { "PROTEIN": "Azurin", "SOURCE": "Pseudomonas aeruginosa", "LENGTH": 128.0, "UniProt": "P00282", "PDB_wild": "1azu", "MUTATED_CHAIN": "A", "PFAM": [ "PF00127" ], "CATH": [ "1azuA00 (2.60.40.420)" ], "MUTATION_UNIPROT": "WT", "MUTATION_PDB": "WT", "T": 25.0, "pH": 7.0, "BUFFER_NAME": "TRIS", "BUFFER_CONC": "0.1", "MEASURE_KIN": "stopped-flow", "METHOD_KIN": "GuHCl", "ln(kf)_H2O": 4.84, "ln(ku)_H2O": -16.96, "AUTHOR_KIN": "Wilson, C.J., Wittung-Stafshede, P.", "REFERENCE_KIN": "Snapshots of a dynamic folding nucleus in zinc-substituted Pseudomonas aeruginosa azurin. 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