SynGap Missense Server

Table of SynGAP1 Isoform α2 (UniProt Q96PV0-1) Missense Variants.

c.dna Variant SGM Consensus Domain ClinVar gnomAD ESM1b AlphaMissense REVEL FoldX Rosetta Foldetta PremPS PROVEAN PolyPhen-2 HumDiv PolyPhen-2 HumVar FATHMM SIFT PAM Physical SASA Normalized B-factor backbone Normalized B-factor sidechain SynGAP Structural Annotation DOI
Clinical Status Review Subm. ID Allele count Allele freq. LLR score Prediction Pathogenicity Class Optimized Score Prediction Average ΔΔG Prediction StdDev ΔΔG Prediction ΔΔG Prediction ΔΔG Prediction Score Prediction pph2_prob Prediction pph2_prob Prediction Nervous System Score Prediction Prediction Status Conservation Sequences PAM250 PAM120 Hydropathy Δ MW Δ Average Δ Δ StdDev Δ StdDev Secondary Tertiary bonds Inside out GAP-Ras interface At membrane No effect MD Alert Verdict Description
c.3520G>AE1174KLikely BenignCoiled-coilUncertain 16-33444555-G-A21.24e-6-4.345Likely Benign0.898Likely PathogenicAmbiguous0.442Likely Benign-1.59Neutral0.962Probably Damaging0.367Benign5.52Benign0.03Affected4.32201-0.4-0.94
c.3529G>AE1177KLikely BenignCoiled-coilUncertain 1-3.413Likely Benign0.944Likely PathogenicAmbiguous0.560Likely Pathogenic-1.75Neutral0.905Possibly Damaging0.637Possibly Damaging5.44Benign0.11Tolerated4.32201-0.4-0.94
c.3557C>TS1186LCoiled-coilUncertain 16-33444592-C-T-4.829Likely Benign0.923Likely PathogenicAmbiguous0.177Likely Benign-2.58Deleterious0.998Probably Damaging0.992Probably Damaging2.65Benign0.04Affected3.824-3-24.626.08
c.3567G>CE1189DLikely BenignCoiled-coilLikely Benign 16-33444602-G-C31.86e-6-3.582Likely Benign0.461AmbiguousLikely Benign0.359Likely Benign-1.42Neutral0.992Probably Damaging0.989Probably Damaging5.30Benign0.25Tolerated3.824320.0-14.03
c.3572G>AR1191QLikely BenignCoiled-coilUncertain 26-33444607-G-A95.58e-6-1.069Likely Benign0.943Likely PathogenicAmbiguous0.343Likely Benign-1.41Neutral0.998Probably Damaging0.992Probably Damaging2.68Benign0.08Tolerated3.824111.0-28.06
c.3574C>GL1192VLikely BenignCoiled-coilUncertain 1-4.132Likely Benign0.471AmbiguousLikely Benign0.041Likely Benign-0.89Neutral0.779Possibly Damaging0.527Possibly Damaging2.69Benign0.16Tolerated210.4-14.03
c.3595G>AE1199KCoiled-coilUncertain 16-33446587-G-A16.20e-7-10.853Likely Pathogenic0.954Likely PathogenicAmbiguous0.171Likely Benign-2.26Neutral1.000Probably Damaging0.995Probably Damaging2.52Benign0.00Affected3.77501-0.4-0.94
c.3607C>GH1203DLikely BenignCoiled-coilUncertain 1-6.729Likely Benign0.525AmbiguousLikely Benign0.403Likely Benign-1.89Neutral0.473Possibly Damaging0.265Benign5.51Benign0.24Tolerated3.7751-1-0.3-22.05
c.3607C>TH1203YLikely BenignCoiled-coilUncertain 16-33446599-C-T21.24e-6-6.834Likely Benign0.149Likely BenignLikely Benign0.233Likely Benign-1.52Neutral0.006Benign0.011Benign5.55Benign0.10Tolerated3.775201.926.03
c.3614T>CL1205PLikely PathogenicCoiled-coilUncertain 1-16.878Likely Pathogenic1.000Likely PathogenicLikely Pathogenic0.536Likely Pathogenic-5.91Deleterious1.000Probably Damaging0.999Probably Damaging1.45Pathogenic0.00Affected-3-3-5.4-16.04
c.3631A>GM1211VLikely BenignCoiled-coilBenign 16-33446623-A-G31.86e-6-2.101Likely Benign0.258Likely BenignLikely Benign0.412Likely Benign-0.29Neutral0.932Possibly Damaging0.949Probably Damaging5.43Benign0.72Tolerated3.775122.3-32.06
c.3632T>AM1211KLikely PathogenicCoiled-coilLikely Benign 1-9.013Likely Pathogenic0.662Likely PathogenicLikely Benign0.595Likely Pathogenic-2.95Deleterious0.987Probably Damaging0.979Probably Damaging5.59Benign0.01Affected3.7750-1-5.8-3.02
c.3633G>AM1211ILikely BenignCoiled-coilUncertain 16-33446625-G-A31.86e-6-1.537Likely Benign0.764Likely PathogenicLikely Benign0.298Likely Benign-0.42Neutral0.969Probably Damaging0.968Probably Damaging5.40Benign1.00Tolerated3.775122.6-18.03
c.3635C>TS1212FLikely PathogenicCoiled-coilConflicting 2-14.445Likely Pathogenic0.997Likely PathogenicLikely Pathogenic0.271Likely Benign-4.52Deleterious0.999Probably Damaging0.998Probably Damaging2.03Pathogenic0.00Affected3.775-3-23.660.10
c.3638A>CN1213TLikely BenignCoiled-coilConflicting 26-33446630-A-C462.85e-5-5.428Likely Benign0.266Likely BenignLikely Benign0.097Likely Benign-1.08Neutral0.959Probably Damaging0.721Possibly Damaging2.74Benign1.00Tolerated3.775002.8-13.00
c.3638A>GN1213SLikely BenignCoiled-coilBenign 16-33446630-A-G138.05e-6-4.086Likely Benign0.081Likely BenignLikely Benign0.094Likely Benign-0.56Neutral0.906Possibly Damaging0.551Possibly Damaging2.82Benign0.68Tolerated3.775112.7-27.0310.1016/j.ajhg.2020.11.011
c.3640C>TR1214WLikely PathogenicCoiled-coilUncertain 16-33446632-C-T21.24e-6-8.799Likely Pathogenic0.710Likely PathogenicLikely Benign0.143Likely Benign-4.95Deleterious1.000Probably Damaging0.983Probably Damaging2.45Pathogenic0.00Affected3.7752-33.630.03
c.3653A>TE1218VLikely PathogenicCoiled-coilUncertain 2-5.647Likely Benign0.936Likely PathogenicAmbiguous0.418Likely Benign-5.68Deleterious1.000Probably Damaging0.998Probably Damaging2.21Pathogenic0.00Affected3.775-2-27.7-29.98
c.3655T>CY1219HLikely PathogenicCoiled-coilUncertain 1-9.511Likely Pathogenic0.997Likely PathogenicLikely Pathogenic0.363Likely Benign-3.62Deleterious1.000Probably Damaging0.999Probably Damaging2.15Pathogenic0.00Affected3.77502-1.9-26.03
c.3661C>TR1221WLikely PathogenicCoiled-coilConflicting 36-33446653-C-T16.20e-7-10.938Likely Pathogenic0.651Likely PathogenicLikely Benign0.174Likely Benign-4.57Deleterious1.000Probably Damaging0.987Probably Damaging2.50Benign0.01Affected3.7752-33.630.03
c.3662G>AR1221QLikely BenignCoiled-coilConflicting 26-33446654-G-A42.48e-6-5.491Likely Benign0.115Likely BenignLikely Benign0.078Likely Benign-1.46Neutral0.836Possibly Damaging0.153Benign2.56Benign0.12Tolerated3.775111.0-28.06
c.3686A>CQ1229PLikely PathogenicCoiled-coilUncertain 1-10.397Likely Pathogenic0.980Likely PathogenicLikely Pathogenic0.422Likely Benign-3.69Deleterious0.998Probably Damaging0.995Probably Damaging1.75Pathogenic0.12Tolerated3.7750-11.9-31.01
c.36C>GS12RLikely BenignUncertain 16-33420300-C-G42.59e-6-4.033Likely Benign0.500AmbiguousLikely Benign0.097Likely Benign-0.30Neutral0.000Benign0.000Benign4.09Benign0.00Affected4.3210-1-3.769.11
c.3705G>AM1235ILikely BenignCoiled-coilUncertain 1-4.312Likely Benign0.310Likely BenignLikely Benign0.027Likely Benign-1.44Neutral0.139Benign0.056Benign2.69Benign0.04Affected3.775122.6-18.03
c.371C>TA124VLikely BenignConflicting 26-33432236-C-T95.58e-6-4.259Likely Benign0.138Likely BenignLikely Benign0.073Likely Benign-1.52Neutral0.173Benign0.009Benign4.07Benign0.03Affected3.615002.428.05
c.3721C>AL1241MCoiled-coilUncertain 1-5.881Likely Benign0.782Likely PathogenicLikely Benign0.167Likely Benign-1.43Neutral1.000Probably Damaging0.999Probably Damaging1.65Pathogenic0.00Affected42-1.918.03
c.3731G>AS1244NLikely PathogenicCoiled-coilUncertain 1-9.008Likely Pathogenic0.751Likely PathogenicLikely Benign0.154Likely Benign-1.87Neutral0.997Probably Damaging0.992Probably Damaging2.10Pathogenic0.15Tolerated3.77511-2.727.03
c.373C>TP125SLikely BenignUncertain 1-3.769Likely Benign0.238Likely BenignLikely Benign0.121Likely Benign-3.57Deleterious0.580Possibly Damaging0.140Benign2.86Benign0.02Affected3.6151-10.8-10.04
c.3773A>GQ1258RLikely PathogenicCoiled-coilUncertain 1-10.971Likely Pathogenic0.931Likely PathogenicAmbiguous0.316Likely Benign-3.19Deleterious0.994Probably Damaging0.988Probably Damaging2.00Pathogenic0.00Affected11-1.028.06
c.3788T>CI1263TLikely PathogenicCoiled-coilUncertain 16-33446780-T-C21.24e-6-6.564Likely Benign0.962Likely PathogenicLikely Pathogenic0.529Likely Pathogenic-4.15Deleterious0.946Possibly Damaging0.673Possibly Damaging1.81Pathogenic0.00Affected3.7750-1-5.2-12.05
c.3794G>CR1265TLikely PathogenicCoiled-coilLikely Pathogenic 1-10.129Likely Pathogenic0.997Likely PathogenicLikely Pathogenic0.529Likely Pathogenic-4.97Deleterious0.997Probably Damaging0.994Probably Damaging2.29Pathogenic0.00Affected3.775-1-13.8-55.08
c.379C>TR127WUncertain 1-4.776Likely Benign0.806Likely PathogenicAmbiguous0.118Likely Benign-2.98Deleterious0.989Probably Damaging0.420Benign3.88Benign0.00Affected2-33.630.03
c.37A>GI13VLikely BenignUncertain 1-2.497Likely Benign0.105Likely BenignLikely Benign0.110Likely Benign0.01Neutral0.000Benign0.000Benign4.25Benign0.00Affected43-0.3-14.03
c.3806T>AV1269ELikely PathogenicCoiled-coilUncertain 1-11.418Likely Pathogenic0.989Likely PathogenicLikely Pathogenic0.403Likely Benign-5.05Deleterious0.999Probably Damaging0.995Probably Damaging2.09Pathogenic0.00Affected3.775-2-2-7.729.98
c.380G>AR127QLikely BenignUncertain 16-33432245-G-A63.72e-6-1.711Likely Benign0.320Likely BenignLikely Benign0.037Likely Benign-1.04Neutral0.006Benign0.001Benign4.04Benign0.02Affected3.744111.0-28.06
c.3820C>TR1274CUncertain 16-33447868-C-T-6.467Likely Benign0.439AmbiguousLikely Benign0.170Likely Benign-5.22Deleterious1.000Probably Damaging0.996Probably Damaging2.46Pathogenic0.00Affected3.775-4-37.0-53.05
c.3821G>AR1274HLikely Benign 16-33447869-G-A42.58e-6-5.259Likely Benign0.256Likely BenignLikely Benign0.149Likely Benign-3.20Deleterious1.000Probably Damaging0.995Probably Damaging2.49Pathogenic0.01Affected3.775021.3-19.05
c.3824G>AR1275QLikely BenignUncertain 16-33447872-G-A21.29e-6-4.928Likely Benign0.121Likely BenignLikely Benign0.103Likely Benign-1.72Neutral0.898Possibly Damaging0.147Benign2.59Benign0.03Affected3.775111.0-28.06
c.3824G>TR1275LLikely Benign 16-33447872-G-T16.45e-7-6.052Likely Benign0.446AmbiguousLikely Benign0.117Likely Benign-4.04Deleterious0.800Possibly Damaging0.277Benign2.55Benign0.01Affected3.775-3-28.3-43.03
c.382C>AP128TLikely BenignUncertain 16-33432247-C-A16.20e-7-4.217Likely Benign0.267Likely BenignLikely Benign0.075Likely Benign-0.96Neutral0.952Possibly Damaging0.500Possibly Damaging4.19Benign0.35Tolerated3.744-100.93.99
c.3835G>AA1279TLikely BenignUncertain 26-33447883-G-A21.29e-6-4.871Likely Benign0.071Likely BenignLikely Benign0.178Likely Benign-0.30Neutral0.001Benign0.000Benign2.71Benign0.09Tolerated3.77510-2.530.03
c.3846G>CE1282DLikely BenignUncertain 16-33447894-G-C16.44e-7-3.879Likely Benign0.074Likely BenignLikely Benign0.104Likely Benign-1.26Neutral0.112Benign0.036Benign2.70Benign0.39Tolerated3.775320.0-14.03
c.3848C>TP1283LLikely BenignBenign 16-33447896-C-T322.06e-5-3.740Likely Benign0.093Likely BenignLikely Benign0.047Likely Benign-1.04Neutral0.005Benign0.003Benign2.76Benign0.06Tolerated3.775-3-35.416.04
c.3858A>TE1286DLikely BenignConflicting 46-33447906-A-T1439.22e-5-4.010Likely Benign0.081Likely BenignLikely Benign0.036Likely Benign1.02Neutral0.001Benign0.004Benign2.96Benign1.00Tolerated3.775320.0-14.0310.1016/j.ajhg.2020.11.011
c.3859C>AP1287TLikely BenignUncertain 16-33447907-C-A-3.940Likely Benign0.077Likely BenignLikely Benign0.044Likely Benign-0.22Neutral0.126Benign0.041Benign2.78Benign0.04Affected3.775-100.93.99
c.3860C>TP1287LLikely BenignConflicting 26-33447908-C-T-2.800Likely Benign0.117Likely BenignLikely Benign0.061Likely Benign-1.66Neutral0.021Benign0.017Benign2.76Benign0.02Affected3.775-3-35.416.04
c.3862A>GK1288EUncertain 16-33447910-A-G53.22e-6-2.751Likely Benign0.407AmbiguousLikely Benign0.185Likely Benign-3.27Deleterious0.979Probably Damaging0.973Probably Damaging2.13Pathogenic0.00Affected3.775100.40.94
c.3902C>AP1301HLikely BenignConflicting 26-33451776-C-A53.10e-6-5.756Likely Benign0.104Likely BenignLikely Benign0.232Likely Benign-1.13Neutral0.642Possibly Damaging0.378Benign2.79Benign0.04Affected3.7750-2-1.640.02
c.3902C>GP1301RLikely BenignUncertain 16-33451776-C-G159.30e-6-4.753Likely Benign0.162Likely BenignLikely Benign0.076Likely Benign-1.13Neutral0.077Benign0.059Benign2.81Benign0.10Tolerated3.7750-2-2.959.07
c.3906G>CL1302FUncertain 1-5.674Likely Benign0.148Likely BenignLikely Benign0.211Likely Benign-2.70Deleterious0.960Probably Damaging0.657Possibly Damaging1.53Pathogenic0.00Affected20-1.034.02
c.3907G>AG1303SLikely BenignUncertain 1-2.271Likely Benign0.125Likely BenignLikely Benign0.155Likely Benign-0.19Neutral0.649Possibly Damaging0.433Benign2.84Benign0.18Tolerated10-0.430.03
c.3913A>GT1305ALikely BenignConflicting 46-33451787-A-G301.86e-5-2.692Likely Benign0.055Likely BenignLikely Benign0.069Likely Benign1.74Neutral0.000Benign0.001Benign3.24Benign1.00Tolerated3.775102.5-30.03
c.391G>CG131RUncertain 1-6.564Likely Benign0.983Likely PathogenicLikely Pathogenic0.099Likely Benign-3.82Deleterious0.983Probably Damaging0.656Possibly Damaging3.92Benign0.00Affected3.615-2-3-4.199.14
c.3920C>AP1307QLikely BenignUncertain 16-33451794-C-A-4.227Likely Benign0.114Likely BenignLikely Benign0.192Likely Benign-0.88Neutral0.988Probably Damaging0.765Possibly Damaging2.82Benign0.03Affected3.7750-1-1.931.01
c.3920C>TP1307LLikely BenignBenign 16-33451794-C-T116.82e-6-4.044Likely Benign0.144Likely BenignLikely Benign0.292Likely Benign-1.49Neutral0.779Possibly Damaging0.220Benign2.82Benign0.04Affected3.775-3-35.416.04
c.3922C>TR1308CConflicting 26-33451796-C-T42.48e-6-4.994Likely Benign0.421AmbiguousLikely Benign0.352Likely Benign-4.89Deleterious0.999Probably Damaging0.993Probably Damaging2.31Pathogenic0.00Affected3.775-4-37.0-53.05
c.3923G>AR1308HUncertain 16-33451797-G-A31.86e-6-3.586Likely Benign0.201Likely BenignLikely Benign0.319Likely Benign-3.12Deleterious0.998Probably Damaging0.991Probably Damaging2.33Pathogenic0.00Affected3.775201.3-19.05
c.3929C>TT1310MLikely BenignBenign 16-33451803-C-T171.05e-5-4.822Likely Benign0.117Likely BenignLikely Benign0.069Likely Benign2.19Neutral0.021Benign0.005Benign2.98Benign0.93Tolerated3.775-1-12.630.09
c.3932T>CL1311PLikely BenignLikely Benign 16-33451806-T-C16.21e-7-1.831Likely Benign0.079Likely BenignLikely Benign0.123Likely Benign-0.52Neutral0.579Possibly Damaging0.335Benign2.72Benign0.18Tolerated3.775-3-3-5.4-16.04
c.3941C>TP1314LLikely BenignLikely Benign 16-33451815-C-T21.24e-6-4.040Likely Benign0.118Likely BenignLikely Benign0.049Likely Benign-0.20Neutral0.421Benign0.066Benign4.19Benign0.05Affected3.775-3-35.416.04
c.3943T>CW1315RLikely BenignUncertain 10.205Likely Benign0.660Likely PathogenicLikely Benign0.114Likely Benign1.31Neutral0.000Benign0.001Benign4.37Benign0.91Tolerated3.7752-3-3.6-30.03
c.3949G>AG1317SLikely BenignConflicting 36-33451823-G-A16.26e-7-3.522Likely Benign0.145Likely BenignLikely Benign0.092Likely Benign-2.45Neutral0.127Benign0.045Benign4.08Benign0.00Affected3.77510-0.430.03
c.3956C>GA1319GLikely BenignUncertain 26-33451830-C-G-3.927Likely Benign0.084Likely BenignLikely Benign0.128Likely Benign-0.74Neutral0.819Possibly Damaging0.581Possibly Damaging4.07Benign0.06Tolerated3.77510-2.2-14.03
c.3958C>TP1320SLikely BenignUncertain 16-33451832-C-T21.28e-6-4.928Likely Benign0.073Likely BenignLikely Benign0.097Likely Benign-0.69Neutral0.980Probably Damaging0.968Probably Damaging4.25Benign0.00Affected3.7751-10.8-10.04
c.3961C>TP1321SLikely BenignUncertain 26-33451835-C-T106.46e-6-4.897Likely Benign0.077Likely BenignLikely Benign0.049Likely Benign0.68Neutral0.028Benign0.004Benign4.27Benign0.71Tolerated3.7751-10.8-10.0410.1016/j.ajhg.2020.11.011
c.3962C>AP1321QLikely BenignBenign 16-33451836-C-A16.58e-7-5.594Likely Benign0.079Likely BenignLikely Benign0.055Likely Benign-0.74Neutral0.659Possibly Damaging0.034Benign4.24Benign0.09Tolerated3.7750-1-1.931.01
c.3964G>CA1322PLikely BenignBenign 16-33451838-G-C-1.153Likely Benign0.063Likely BenignLikely Benign0.090Likely Benign0.03Neutral0.000Benign0.000Benign4.15Benign0.23Tolerated3.7751-1-3.426.04
c.3970C>TP1324SLikely BenignLikely Benign 16-33451844-C-T53.26e-6-5.451Likely Benign0.068Likely BenignLikely Benign0.049Likely Benign0.35Neutral0.225Benign0.092Benign4.33Benign0.00Affected4.3211-10.8-10.04
c.3974C>TP1325LLikely BenignUncertain 16-33451848-C-T-5.256Likely Benign0.085Likely BenignLikely Benign0.146Likely Benign-1.05Neutral0.000Benign0.000Benign4.05Benign0.00Affected4.321-3-35.416.04
c.3977C>AP1326QLikely BenignUncertain 16-33451851-C-A16.40e-7-5.422Likely Benign0.128Likely BenignLikely Benign0.138Likely Benign-0.86Neutral0.999Probably Damaging0.994Probably Damaging3.62Benign0.00Affected3.775-10-1.931.01
c.3977C>GP1326RLikely BenignUncertain 1-5.097Likely Benign0.240Likely BenignLikely Benign0.133Likely Benign-0.82Neutral0.999Probably Damaging0.994Probably Damaging3.62Benign0.00Affected3.7750-2-2.959.07
c.3977C>TP1326LLikely BenignUncertain 1-5.541Likely Benign0.115Likely BenignLikely Benign0.117Likely Benign-1.06Neutral0.999Probably Damaging0.994Probably Damaging3.62Benign0.00Affected3.775-3-35.416.04
c.3979C>TP1327SLikely BenignUncertain 16-33451853-C-T-4.744Likely Benign0.131Likely BenignLikely Benign0.092Likely Benign0.28Neutral0.980Probably Damaging0.857Possibly Damaging4.25Benign0.71Tolerated3.7751-10.8-10.04
c.3980C>TP1327LLikely BenignUncertain 16-33451854-C-T21.28e-6-5.264Likely Benign0.242Likely BenignLikely Benign0.142Likely Benign-1.24Neutral0.994Probably Damaging0.908Possibly Damaging4.12Benign0.10Tolerated3.775-3-35.416.04
c.3983G>AR1328QLikely BenignUncertain 36-33451857-G-A351.49e-4-2.921Likely Benign0.273Likely BenignLikely Benign0.043Likely Benign-1.02Neutral0.799Possibly Damaging0.098Benign4.12Benign0.03Affected3.775111.0-28.06
c.3983G>CR1328PLikely BenignBenign 16-33451857-G-C-1.220Likely Benign0.466AmbiguousLikely Benign0.060Likely Benign-2.01Neutral0.927Possibly Damaging0.452Possibly Damaging4.06Benign0.01Affected3.7750-22.9-59.07
c.3995C>TT1332MLikely Benign 16-33451869-C-T201.86e-5-4.107Likely Benign0.948Likely PathogenicAmbiguous0.252Likely Benign-3.63Deleterious1.000Probably Damaging0.991Probably Damaging2.95Benign0.00Affected3.775-1-12.630.09
c.3G>AM1ILikely BenignConflicting 3-5.397Likely Benign0.227Likely Benign-0.17Neutral0.001Benign0.000Benign4.25Benign0.00Affected4.321212.6-18.03
c.4000A>GN1334DUncertain 16-33451874-A-G-4.584Likely Benign0.674Likely PathogenicLikely Benign0.126Likely Benign-3.06Deleterious0.886Possibly Damaging0.522Possibly Damaging3.55Benign0.00Affected3.775120.00.98
c.4003G>AG1335SLikely PathogenicConflicting 26-33451877-G-A32.37e-6-4.495Likely Benign0.986Likely PathogenicLikely Pathogenic0.362Likely Benign-3.79Deleterious1.000Probably Damaging0.997Probably Damaging2.04Pathogenic0.00Affected3.77510-0.430.03
c.4006G>AE1336KLikely BenignBenign 26-33451880-G-A64.20e-6-4.697Likely Benign0.977Likely PathogenicLikely Pathogenic0.272Likely Benign-2.44Neutral0.748Possibly Damaging0.079Benign3.23Benign0.00Affected3.77501-0.4-0.94
c.4008G>CE1336DLikely BenignLikely Benign 1-3.344Likely Benign0.596Likely PathogenicLikely Benign0.062Likely Benign-1.92Neutral0.001Benign0.003Benign3.30Benign0.00Affected3.775230.0-14.03
c.4013G>AR1338QLikely BenignConflicting 36-33451887-G-A128.40e-6-3.494Likely Benign0.317Likely BenignLikely Benign0.076Likely Benign-1.87Neutral0.896Possibly Damaging0.194Benign3.81Benign0.02Affected3.775111.0-28.06
c.401G>AS134NLikely BenignUncertain 1-5.534Likely Benign0.813Likely PathogenicAmbiguous0.075Likely Benign-1.62Neutral0.001Benign0.002Benign3.90Benign0.00Affected3.61511-2.727.03
c.4021G>AA1341TLikely BenignConflicting 36-33451895-G-A453.44e-5-3.224Likely Benign0.081Likely BenignLikely Benign0.099Likely Benign-0.58Neutral0.000Benign0.000Benign4.09Benign0.03Affected3.77510-2.530.03
c.4021G>TA1341SLikely BenignUncertain 16-33451895-G-T-2.867Likely Benign0.078Likely BenignLikely Benign0.099Likely Benign0.80Neutral0.000Benign0.001Benign4.40Benign1.00Tolerated3.77511-2.616.00
c.404G>AR135QUncertain 16-33432701-G-A53.84e-6-8.011Likely Pathogenic0.853Likely PathogenicAmbiguous0.087Likely Benign-1.94Neutral0.327Benign0.100Benign3.76Benign0.02Affected3.615111.0-28.06
c.406C>TR136WLikely PathogenicUncertain 2-10.453Likely Pathogenic0.989Likely PathogenicLikely Pathogenic0.237Likely Benign-4.71Deleterious0.965Probably Damaging0.416Benign3.45Benign0.00Affected3.6152-33.630.03
c.407G>AR136QBenign 16-33432704-G-A139.17e-6-11.146Likely Pathogenic0.950Likely PathogenicAmbiguous0.190Likely Benign-2.26Neutral0.957Probably Damaging0.342Benign3.52Benign0.01Affected3.615111.0-28.06
c.407G>CR136PLikely PathogenicUncertain 1-11.952Likely Pathogenic0.981Likely PathogenicLikely Pathogenic0.277Likely Benign-3.72Deleterious0.910Possibly Damaging0.578Possibly Damaging3.47Benign0.00Affected3.6150-22.9-59.07
c.416G>AS139NLikely BenignUncertain 16-33432713-G-A32.22e-6-4.584Likely Benign0.688Likely PathogenicLikely Benign0.109Likely Benign-0.75Neutral0.149Benign0.047Benign4.14Benign0.24Tolerated3.61511-2.727.03
c.431C>TT144MLikely PathogenicUncertain 26-33432728-C-T21.30e-6-11.228Likely Pathogenic0.922Likely PathogenicAmbiguous0.118Likely Benign-3.16Deleterious0.913Possibly Damaging0.333Benign3.73Benign0.00Affected3.615-1-12.630.09
c.43G>AA15TLikely BenignUncertain 16-33420307-G-A42.60e-6-3.720Likely Benign0.125Likely BenignLikely Benign0.086Likely Benign-0.08Neutral0.602Possibly Damaging0.017Benign4.16Benign0.00Affected4.32110-2.530.03
c.43G>CA15PLikely BenignUncertain 1-3.436Likely Benign0.097Likely BenignLikely Benign0.146Likely Benign-0.23Neutral0.880Possibly Damaging0.123Benign4.09Benign0.00Affected1-1-3.426.04
c.44C>TA15VLikely BenignUncertain 16-33420308-C-T16.49e-7-3.560Likely Benign0.161Likely BenignLikely Benign0.105Likely Benign0.20Neutral0.602Possibly Damaging0.015Benign4.19Benign0.00Affected4.321002.428.05
c.451G>CD151HLikely PathogenicUncertain 16-33432748-G-C21.26e-6-11.747Likely Pathogenic0.994Likely PathogenicLikely Pathogenic0.335Likely Benign-3.90Deleterious0.999Probably Damaging0.995Probably Damaging3.86Benign0.00Affected3.615-110.322.05
c.453C>AD151ELikely BenignUncertain 1-5.662Likely Benign0.886Likely PathogenicAmbiguous0.142Likely Benign-2.02Neutral0.984Probably Damaging0.967Probably Damaging3.99Benign0.11Tolerated3.615320.014.03
c.455G>AR152QUncertain 16-33432752-G-A53.14e-6-10.336Likely Pathogenic0.989Likely PathogenicLikely Pathogenic0.181Likely Benign-2.34Neutral0.997Probably Damaging0.968Probably Damaging3.89Benign0.00Affected3.615111.0-28.06
c.458C>AT153NLikely BenignConflicting 3-0.739Likely Benign0.226Likely BenignLikely Benign0.161Likely Benign0.88Neutral0.888Possibly Damaging0.537Possibly Damaging4.23Benign0.81Tolerated3.61500-2.813.00
c.467T>GF156CLikely PathogenicUncertain 1-13.658Likely Pathogenic0.988Likely PathogenicLikely Pathogenic0.297Likely Benign-3.54Deleterious0.999Probably Damaging0.990Probably Damaging3.92Benign0.00Affected-4-2-0.3-44.04
c.470G>AR157HUncertain 16-33432767-G-A16.20e-7-10.235Likely Pathogenic0.604Likely PathogenicLikely Benign0.254Likely Benign-2.23Neutral0.999Probably Damaging0.987Probably Damaging3.80Benign0.00Affected3.744201.3-19.05
c.484C>GR162GLikely BenignUncertain 1-6.985Likely Benign0.664Likely PathogenicLikely Benign0.190Likely Benign-0.73Neutral0.487Possibly Damaging0.272Benign4.09Benign0.78Tolerated3.744-2-34.1-99.14
c.484C>TR162CPathogenic 2-8.157Likely Pathogenic0.787Likely PathogenicAmbiguous0.150Likely Benign-2.05Neutral0.988Probably Damaging0.513Possibly Damaging4.00Benign0.11Tolerated3.744-4-37.0-53.05
c.485G>AR162HUncertain 16-33432782-G-A21.24e-6-9.730Likely Pathogenic0.480AmbiguousLikely Benign0.167Likely Benign-1.13Neutral0.957Probably Damaging0.513Possibly Damaging4.03Benign0.12Tolerated3.744201.3-19.05
c.48G>AM16ILikely BenignUncertain 16-33420312-G-A16.49e-7-2.198Likely Benign0.722Likely PathogenicLikely Benign0.057Likely Benign-0.15Neutral0.000Benign0.000Benign4.28Benign0.00Affected4.321212.6-18.03
c.491G>AR164QUncertain 16-33432788-G-A21.24e-6-11.208Likely Pathogenic0.600Likely PathogenicLikely Benign0.184Likely Benign-1.86Neutral0.957Probably Damaging0.342Benign3.82Benign0.00Affected3.744111.0-28.06
c.502C>TH168YLikely BenignBenign 1-8.914Likely Pathogenic0.264Likely BenignLikely Benign0.065Likely Benign-1.53Neutral0.192Benign0.062Benign4.18Benign0.01Affected4.323021.926.03
c.505G>AD169NUncertain 1-10.713Likely Pathogenic0.761Likely PathogenicLikely Benign0.110Likely Benign-2.04Neutral0.079Benign0.052Benign4.07Benign0.01Affected3.744210.0-0.98
c.508C>TR170WLikely PathogenicUncertain 2-11.660Likely Pathogenic0.978Likely PathogenicLikely Pathogenic0.241Likely Benign-4.28Deleterious0.999Probably Damaging0.849Possibly Damaging3.84Benign0.00Affected3.7442-33.630.03
c.509G>AR170QPathogenic/Likely path. 6-9.021Likely Pathogenic0.798Likely PathogenicAmbiguous0.221Likely Benign-2.31Neutral0.947Possibly Damaging0.342Benign3.91Benign0.00Affected3.744111.0-28.0610.1016/j.ajhg.2020.11.011
c.50C>TS17FLikely BenignUncertain 16-33420314-C-T106.49e-6-3.888Likely Benign0.637Likely PathogenicLikely Benign0.048Likely Benign-0.99Neutral0.486Possibly Damaging0.032Benign3.99Benign0.00Affected4.321-2-33.660.10
c.514C>TR172WLikely PathogenicUncertain 26-33435156-C-T95.58e-6-10.258Likely Pathogenic0.878Likely PathogenicAmbiguous0.228Likely Benign-3.61Deleterious0.997Probably Damaging0.803Possibly Damaging3.95Benign0.00Affected3.6152-33.630.03
c.515G>AR172QUncertain 16-33435157-G-A31.86e-6-7.245In-Between0.465AmbiguousLikely Benign0.135Likely Benign-1.72Neutral0.804Possibly Damaging0.091Benign4.04Benign0.04Affected3.615111.0-28.06
c.526A>CS176RLikely BenignUncertain 1-6.492Likely Benign0.987Likely PathogenicLikely Pathogenic0.247Likely Benign0.94Neutral0.718Possibly Damaging0.168Benign4.16Benign0.87Tolerated0-1-3.769.11
c.526A>GS176GUncertain 16-33435168-A-G16.20e-7-7.541In-Between0.360AmbiguousLikely Benign0.066Likely Benign-1.08Neutral0.131Benign0.039Benign4.08Benign0.22Tolerated3.546010.4-30.03
c.53A>GY18CLikely BenignUncertain 16-33420317-A-G442.88e-5-2.658Likely Benign0.251Likely BenignLikely Benign0.102Likely Benign-0.56Neutral0.872Possibly Damaging0.206Benign4.04Benign0.00Affected4.3210-23.8-60.04
c.558G>CL186FLikely PathogenicUncertain 1-11.861Likely Pathogenic0.993Likely PathogenicLikely Pathogenic0.132Likely Benign-3.03Deleterious0.009Benign0.012Benign3.50Benign0.00Affected20-1.034.02
c.583G>CA195PLikely PathogenicLikely Pathogenic 1-9.715Likely Pathogenic0.978Likely PathogenicLikely Pathogenic0.152Likely Benign-3.03Deleterious0.997Probably Damaging0.916Probably Damaging4.00Benign0.04Affected3.5461-1-3.426.04
c.59C>GP20RLikely BenignUncertain 1-3.548Likely Benign0.434AmbiguousLikely Benign0.146Likely Benign-0.15Neutral0.972Probably Damaging0.804Possibly Damaging4.33Benign0.00Affected4.3210-2-2.959.07
c.59C>TP20LLikely BenignUncertain 3-3.289Likely Benign0.464AmbiguousLikely Benign0.100Likely Benign-0.44Neutral0.909Possibly Damaging0.713Possibly Damaging4.27Benign0.00Affected4.321-3-35.416.04
c.5G>AS2NLikely BenignUncertain 26-33420269-G-A31.96e-6-4.104Likely Benign0.207Likely BenignLikely Benign0.092Likely Benign-0.36Neutral0.000Benign0.000Benign4.06Benign0.00Affected4.32111-2.727.03
c.662A>GE221G
(3D Viewer)
Likely PathogenicPHUncertain 1-12.221Likely Pathogenic0.992Likely PathogenicLikely Pathogenic0.863Likely Pathogenic1.40Ambiguous0.11.74Ambiguous1.57Ambiguous0.71Ambiguous-5.56Deleterious0.596Possibly Damaging0.201Benign5.79Benign0.00Affected0-23.1-72.06
c.68A>GD23GLikely BenignUncertain 1-2.622Likely Benign0.684Likely PathogenicLikely Benign0.100Likely Benign-2.45Neutral0.805Possibly Damaging0.539Possibly Damaging3.50Benign0.00Affected1-13.1-58.04
c.70G>AV24ILikely BenignUncertain 16-33423479-G-A95.58e-6-3.701Likely Benign0.137Likely BenignLikely Benign0.069Likely Benign-0.25Neutral0.043Benign0.031Benign3.96Benign0.00Affected4.321340.314.03
c.718G>AD240NLikely PathogenicPHUncertain 1-12.942Likely Pathogenic0.755Likely PathogenicLikely Benign0.701Likely Pathogenic0.22Likely Benign0.90.47Likely Benign0.35Likely Benign0.37Likely Benign-4.37Deleterious0.993Probably Damaging0.984Probably Damaging5.88Benign0.01Affected210.0-0.98
c.719A>GD240GLikely PathogenicPHUncertain 1-12.825Likely Pathogenic0.951Likely PathogenicAmbiguous0.912Likely Pathogenic1.85Ambiguous0.12.72Destabilizing2.29Destabilizing0.24Likely Benign-6.19Deleterious0.993Probably Damaging0.984Probably Damaging5.79Benign0.01Affected1-13.1-58.04
c.73C>TR25WLikely BenignUncertain 26-33423482-C-T63.72e-6-5.133Likely Benign0.549AmbiguousLikely Benign0.158Likely Benign-1.60Neutral0.994Probably Damaging0.919Probably Damaging3.92Benign0.00Affected4.321-323.630.03
c.74G>AR25QLikely BenignUncertain 16-33423483-G-A159.29e-6-4.126Likely Benign0.212Likely BenignLikely Benign0.038Likely Benign-0.70Neutral0.829Possibly Damaging0.614Possibly Damaging4.01Benign0.00Affected4.321111.0-28.06
c.767A>GN256S
(3D Viewer)
Likely PathogenicC2Likely Pathogenic 1-10.640Likely Pathogenic0.950Likely PathogenicAmbiguous0.707Likely Pathogenic0.31Likely Benign0.20.36Likely Benign0.34Likely Benign0.48Likely Benign-4.33Deleterious0.997Probably Damaging0.970Probably Damaging5.87Benign0.02Affected3.3915112.7-27.03
c.76G>AG26RLikely BenignBenign 16-33423485-G-A31.86e-6-2.946Likely Benign0.678Likely PathogenicLikely Benign0.189Likely Benign-2.22Neutral0.994Probably Damaging0.990Probably Damaging3.87Benign0.00Affected4.321-3-2-4.199.14
c.772C>TR258C
(3D Viewer)
Likely PathogenicC2Uncertain 16-33437677-C-T16.20e-7-10.285Likely Pathogenic0.790Likely PathogenicAmbiguous0.771Likely Pathogenic1.17Ambiguous0.41.76Ambiguous1.47Ambiguous0.87Ambiguous-6.79Deleterious1.000Probably Damaging0.993Probably Damaging5.77Benign0.00Affected3.3915-3-47.0-53.05
c.791T>CL264P
(3D Viewer)
Likely PathogenicC2Uncertain 1-12.285Likely Pathogenic1.000Likely PathogenicLikely Pathogenic0.767Likely Pathogenic5.73Destabilizing0.36.57Destabilizing6.15Destabilizing2.65Destabilizing-6.43Deleterious1.000Probably Damaging0.999Probably Damaging0.49Pathogenic0.00Affected-3-3-5.4-16.04
c.82T>CS28PLikely BenignUncertain 1-3.309Likely Benign0.051Likely BenignLikely Benign0.047Likely Benign1.37Neutral0.000Benign0.000Benign4.53Benign0.00Affected4.3211-1-0.810.04
c.851T>CL284PLikely PathogenicC2Likely Pathogenic1-15.588Likely Pathogenic1.000Likely PathogenicLikely Pathogenic0.794Likely Pathogenic5.83Destabilizing0.25.81Destabilizing5.82Destabilizing1.89Destabilizing-6.17Deleterious1.000Probably Damaging0.999Probably Damaging1.64Pathogenic0.00Affected-3-3-5.4-16.04
c.860A>CD287A
(3D Viewer)
Likely PathogenicC2Uncertain 1-14.686Likely Pathogenic0.996Likely PathogenicLikely Pathogenic0.484Likely Benign0.30Likely Benign0.1-0.04Likely Benign0.13Likely Benign0.40Likely Benign-7.35Deleterious1.000Probably Damaging0.998Probably Damaging1.58Pathogenic0.01Affected3.3823-205.3-44.01
c.862G>AD288N
(3D Viewer)
Likely PathogenicC2Uncertain 16-33437767-G-A21.24e-6-10.535Likely Pathogenic0.521AmbiguousLikely Benign0.321Likely Benign-0.39Likely Benign0.10.01Likely Benign-0.19Likely Benign-0.03Likely Benign-3.73Deleterious0.999Probably Damaging0.997Probably Damaging1.78Pathogenic0.05Affected3.3823120.0-0.98
c.866T>CM289TLikely BenignC2Uncertain1-4.668Likely Benign0.238Likely BenignLikely Benign0.222Likely Benign0.73Ambiguous0.10.17Likely Benign0.45Likely Benign-0.01Likely Benign-0.47Neutral0.801Possibly Damaging0.315Benign1.83Pathogenic0.57Tolerated-1-1-2.6-30.09
c.86T>CM29TLikely BenignUncertain 1-2.167Likely Benign0.122Likely BenignLikely Benign0.199Likely Benign-0.37Neutral0.018Benign0.184Benign4.33Benign0.00Affected4.321-1-1-2.6-30.09
c.878G>AR293HLikely PathogenicC2Uncertain 1-13.009Likely Pathogenic0.973Likely PathogenicLikely Pathogenic0.438Likely Benign4.45Destabilizing2.32.12Destabilizing3.29Destabilizing0.32Likely Benign-4.60Deleterious1.000Probably Damaging0.998Probably Damaging1.45Pathogenic0.04Affected201.3-19.05
c.88C>TH30YLikely BenignUncertain 1-3.047Likely Benign0.115Likely BenignLikely Benign0.082Likely Benign-1.84Neutral0.273Benign0.478Possibly Damaging3.99Benign0.00Affected4.321021.926.03
c.892C>TP298S
(3D Viewer)
Likely BenignC2Benign 16-33437797-C-T53.10e-6-6.342Likely Benign0.144Likely BenignLikely Benign0.189Likely Benign1.38Ambiguous0.21.41Ambiguous1.40Ambiguous0.58Ambiguous-1.20Neutral0.991Probably Damaging0.898Possibly Damaging2.03Pathogenic0.85Tolerated3.3920-110.8-10.04
c.910G>AD304N
(3D Viewer)
C2Uncertain 1-6.194Likely Benign0.391AmbiguousLikely Benign0.345Likely Benign0.30Likely Benign0.1-0.08Likely Benign0.11Likely Benign0.21Likely Benign-4.18Deleterious0.999Probably Damaging0.997Probably Damaging1.81Pathogenic0.03Affected3.3823120.0-0.98
c.929A>GE310G
(3D Viewer)
Likely PathogenicC2Pathogenic 1-14.132Likely Pathogenic0.995Likely PathogenicLikely Pathogenic0.848Likely Pathogenic2.38Destabilizing0.73.56Destabilizing2.97Destabilizing0.36Likely Benign-6.43Deleterious1.000Probably Damaging0.996Probably Damaging1.12Pathogenic0.00Affected3.3819-203.1-72.06
c.92G>AR31QLikely BenignUncertain 16-33423501-G-A74.34e-6-4.434Likely Benign0.136Likely BenignLikely Benign0.051Likely Benign-0.92Neutral0.829Possibly Damaging0.614Possibly Damaging4.01Benign0.00Affected4.321111.0-28.06
c.937G>AE313K
(3D Viewer)
Likely PathogenicC2Likely Benign 1-12.902Likely Pathogenic0.959Likely PathogenicLikely Pathogenic0.575Likely Pathogenic0.64Ambiguous0.61.40Ambiguous1.02Ambiguous0.75Ambiguous-3.31Deleterious1.000Probably Damaging0.995Probably Damaging1.90Pathogenic0.02Affected01-0.4-0.94
c.958G>AV320I
(3D Viewer)
Likely BenignC2Uncertain 1-5.220Likely Benign0.111Likely BenignLikely Benign0.027Likely Benign-0.27Likely Benign0.20.66Ambiguous0.20Likely Benign0.01Likely Benign-0.21Neutral0.198Benign0.114Benign1.77Pathogenic0.45Tolerated3.3823340.314.03
c.961C>TR321C
(3D Viewer)
Likely PathogenicC2Conflicting 26-33437866-C-T95.58e-6-10.025Likely Pathogenic0.387AmbiguousLikely Benign0.495Likely Benign0.57Ambiguous0.10.56Ambiguous0.57Ambiguous0.18Likely Benign-4.59Deleterious1.000Probably Damaging0.998Probably Damaging1.89Pathogenic0.01Affected3.3823-3-47.0-53.05
c.971G>AR324Q
(3D Viewer)
Likely BenignC2Uncertain 36-33437876-G-A31.86e-6-5.001Likely Benign0.173Likely BenignLikely Benign0.307Likely Benign0.56Ambiguous0.10.63Ambiguous0.60Ambiguous1.02Destabilizing-1.17Neutral0.999Probably Damaging0.994Probably Damaging1.92Pathogenic0.41Tolerated3.3922111.0-28.06
c.1531G>AG511R
(3D Viewer)
Likely PathogenicGAPLikely Pathogenic 1-11.327Likely Pathogenic0.991Likely PathogenicLikely Pathogenic0.416Likely Benign1.94Ambiguous0.31.32Ambiguous1.63Ambiguous0.94Ambiguous-7.72Deleterious1.000Probably Damaging1.000Probably Damaging3.26Benign0.06Tolerated3.3735-3-2-4.199.14279.4-159.90.00.00.70.1XXPotentially PathogenicGly511 is located in an α-helix (res. Gly502-Tyr518), facing hydrophobic residues in an inter-helix space (e.g., Leu610, Ile514) in the WT simulations. In contrast, in the variant simulations, the bulkier and positively charged guanidinium side chain of Arg511 forms a salt bridge with the carboxylate group of Glu217 or hydrogen bonds with the backbone carbonyl group of Leu610. Although the residue swap introduces a third positively charged residue in close vicinity (Arg511, Lys507, Arg515), the protein structure seems to remain stable in the variant simulations. Importantly, according to ClinVar, the residue swap alters the last nucleotide of an exon and is predicted to destroy the splice donor site, resulting in aberrant splicing and pathogenic status.10.1016/j.ajhg.2020.11.011
c.1531G>CG511R
(3D Viewer)
Likely PathogenicGAPPathogenic 1-11.327Likely Pathogenic0.991Likely PathogenicLikely Pathogenic0.415Likely Benign1.94Ambiguous0.31.32Ambiguous1.63Ambiguous0.94Ambiguous-7.72Deleterious1.000Probably Damaging1.000Probably Damaging3.26Benign0.06Tolerated3.3735-3-2-4.199.14279.4-159.90.00.00.70.1XXPotentially PathogenicGly511 is located in an α-helix (res. Gly502-Tyr518), facing hydrophobic residues in an inter-helix space (e.g., Leu610, Ile514) in the WT simulations. In contrast, in the variant simulations, the bulkier and positively charged guanidinium side chain of Arg511 forms a salt bridge with the carboxylate group of Glu217 or hydrogen bonds with the backbone carbonyl group of Leu610. Although the residue swap introduces a third positively charged residue in close vicinity (Arg511, Lys507, Arg515), the protein structure seems to remain stable in the variant simulations. Importantly, according to ClinVar, the residue swap alters the last nucleotide of an exon and is predicted to destroy the splice donor site, resulting in aberrant splicing and pathogenic status.10.1016/j.ajhg.2020.11.011
c.1814C>GP605R
(3D Viewer)
Likely PathogenicGAPUncertain 1-13.745Likely Pathogenic0.996Likely PathogenicLikely Pathogenic0.845Likely Pathogenic8.71Destabilizing2.56.46Destabilizing7.59Destabilizing0.92Ambiguous-8.95Deleterious1.000Probably Damaging1.000Probably Damaging0.69Pathogenic0.00Affected3.37350-2-2.959.07281.7-118.1-0.20.00.50.1XXXXPotentially PathogenicPro605 is located in a short turn between an α helix (res. Glu582-Met603) and a short α helical section (res. Ser606-Phe608). The pyrrolidine side chain of Pro605 packs hydrophobically with nearby hydrophobic residues (e.g., Ile514, Leu623, Leu610) in the inter-helix space. Additionally, proline lacks a free backbone amide group, which breaks the α helix and facilitates the turn in the WT structure.In the variant simulations, the guanidinium side chain of Arg605 is bulkier than proline, and its positively charged guanidinium group faces mostly hydrophobic residues (e.g., Ile514, Leu623, Leu610). As a result, it needs to rotate away from the hydrophobic niche. The residue swap could have a more profound effect on the actual folding process, for example, by preventing the bending at the α helix end.Moreover, due to its location at the GAP-Ras interface, the residue swap could affect the GAP-Ras association.
c.680G>AG227E
(3D Viewer)
Likely PathogenicPHConflicting 26-33435531-G-A31.86e-6-9.186Likely Pathogenic0.996Likely PathogenicLikely Pathogenic0.792Likely Pathogenic2.56Destabilizing0.45.36Destabilizing3.96Destabilizing0.94Ambiguous-6.49Deleterious0.906Possibly Damaging0.360Benign5.72Benign0.01Affected3.43120-2-3.172.06237.7-112.10.10.30.00.3XXUncertainThe introduced residue Glu227 is located in a β hairpin loop connecting two anti-parallel β sheet strands (res. Cys219-Thr224 and Thr228-Ala232). In the variant simulations, the carboxylate group of Glu227 frequently forms a salt bridge with the amino group of the neighboring residue Lys229. Despite this interaction, the integrity of the secondary structure element is not compromised. However, the β hairpins are potential nucleation sites during the initial stages of protein folding. Additionally, since the model ends abruptly at the N-terminus, no definite conclusions can be drawn from the simulations.
c.1169G>AG390E
(3D Viewer)
C2Uncertain 1-7.913In-Between0.646Likely PathogenicLikely Benign0.575Likely Pathogenic2.61Destabilizing0.94.28Destabilizing3.45Destabilizing0.47Likely Benign-0.87Neutral0.276Benign0.045Benign1.32Pathogenic0.05Affected4.3280-2-3.172.06241.5-108.40.60.5-0.10.1UncertainGly390 is located in the Gly-rich Ω loop (res. Pro364-Pro398) between two anti-parallel β sheet strands (res. Thr359-Pro364 and res. Ala399-Ile411). The Ω loop is assumed to directly interact with the membrane, and it is observed to move arbitrarily throughout the WT solvent simulations. This loop potentially plays a crucial role in the SynGAP-membrane complex association, stability, and dynamics. However, this aspect cannot be fully addressed through solvent simulations alone.Ω loops are known to play significant roles in protein functions that require flexibility, and so they are rich in glycine residues, prolines, and to a lesser extent, small hydrophilic residues to ensure maximum flexibility. Thus, the variant’s Glu390 may not be as well tolerated in the Ω loop. Additionally, the carboxylate group of Glu390 occasionally forms H-bonds with other loop residues in the variant simulations. The interaction between the acidic carboxylate side chain and the acidic membrane lipids may further influence the SynGAP-membrane complex. However, since the effects on the Gly-rich Ω loop dynamics can only be well studied through the SynGAP-membrane complex, no definite conclusions can be drawn.
c.844T>CC282R
(3D Viewer)
Likely PathogenicC2Pathogenic 2-16.378Likely Pathogenic0.999Likely PathogenicLikely Pathogenic0.466Likely Benign3.13Destabilizing0.61.58Ambiguous2.36Destabilizing1.70Destabilizing-11.03Deleterious0.999Probably Damaging0.998Probably Damaging1.63Pathogenic0.00Affected3.3918-4-3-7.053.05297.4-98.2-0.10.10.50.0XXXPotentially PathogenicThe thiol-containing side chain of Cys282, located at the beginning of an anti-parallel β sheet strand (res. Arg279-Leu286), is packed against multiple hydrophobic residues (e.g., Ile268, Leu284, Trp308, Leu327). In the variant simulations, the bulky side chain of Arg282 with its positively charged guanidinium group is not suitable for this hydrophobic niche. Consequently, the hydrophobic residues must either make room to accommodate Arg282 or it must escape the hydrophobic C2 domain core.As a result, new hydrogen bonds are formed with the backbone carbonyl groups of the surrounding β sheet residues Ala399, Leu325, and His326, which decreases the unity of the secondary structure elements. Notably, it is likely that the residue swap causes major problems during the C2 domain folding that are not visible in the variant simulations. In fact, even increased lability in the C2 domain could adversely affect the establishment of a stable SynGAP-membrane association.
c.1639T>CC547R
(3D Viewer)
Likely PathogenicGAPUncertain 1-16.967Likely Pathogenic0.999Likely PathogenicLikely Pathogenic0.900Likely Pathogenic7.76Destabilizing0.85.83Destabilizing6.80Destabilizing1.69Destabilizing-11.60Deleterious1.000Probably Damaging0.998Probably Damaging-1.33Pathogenic0.02Affected3.3735-4-3-7.053.05267.4-90.30.00.0-0.10.1XXXXPotentially PathogenicCys547 is located in an α-helix (res. Ala533-Val560). The thiol side chain of Cys is situated in a hydrophobic inter-helix space, where it packs hydrophobically with other residues such as Ile626, Leu551, and Phe652. Additionally, the thiol side chain of Cys547 weakly hydrogen bonds with the carbonyl group of Leu543 in the same α-helix. In the variant simulations, the bulkier, positively charged guanidinium group of Arg547 must rotate out of the hydrophobic space. Consequently, it forms ionic interactions with the carboxylate groups of Glu548 in the same helix and Glu656 in the neighboring α-helix (res. Glu666-Asp644). This causes the two helices to slightly separate, significantly affecting the secondary structure integrity of the latter helix. These negative structural effects could be more pronounced during protein folding and are likely to be undermined in the MD simulations.
c.1973G>AG658D
(3D Viewer)
GAPUncertain 16-33441232-G-A31.86e-6-7.786In-Between0.442AmbiguousLikely Benign0.144Likely Benign-0.40Likely Benign0.1-0.59Ambiguous-0.50Ambiguous0.46Likely Benign-2.64Deleterious0.008Benign0.005Benign3.53Benign0.38Tolerated3.39241-1-3.158.04219.8-84.30.00.00.20.1XPotentially PathogenicGly658, located on the outer surface of an α helix (res. Ser641-Glu666), weakens the helix integrity at that spot, which is necessary for the kink in the middle of the long helix. In the variant simulations, the carboxylic acid side chain of Asp658 is on the surface of the α helix and is not involved in any interactions. However, aspartate is not as effective a breaker of the secondary structure element as glycine, which may lead to misfolding.
c.1349C>AA450E
(3D Viewer)
Likely PathogenicGAPUncertain 1-16.578Likely Pathogenic0.989Likely PathogenicLikely Pathogenic0.653Likely Pathogenic3.86Destabilizing0.25.23Destabilizing4.55Destabilizing1.59Destabilizing-4.67Deleterious0.999Probably Damaging0.992Probably Damaging3.38Benign0.07Tolerated3.37320-1-5.358.04240.1-82.60.00.00.70.0XXPotentially PathogenicThe methyl group of Ala450, located in an α helix (res. Asn440-Thr458), packs against hydrophobic residues in the inter-helix space (e.g., Leu692). In the variant simulations, the carboxylate group of the Glu450 side chain rotates outward, away from the hydrophobic niche, where it does not form any lasting salt bridges or H-bonds. Although the residue swap does not negatively affect the protein structure based on the simulations, it is possible that the introduction of the negatively charged residue adversely affects the folding process or tertiary assembly.
c.1802C>AA601E
(3D Viewer)
Likely PathogenicGAPConflicting 2-16.752Likely Pathogenic0.992Likely PathogenicLikely Pathogenic0.588Likely Pathogenic6.68Destabilizing0.85.76Destabilizing6.22Destabilizing1.24Destabilizing-4.98Deleterious1.000Probably Damaging0.999Probably Damaging2.54Benign0.00Affected3.37350-1-5.358.04240.0-82.30.00.00.70.1XXXPotentially PathogenicThe methyl side chain of Ala601, located on an α helix (res. Glu582-Met603), packs hydrophobically against other hydrophobic residues in the inter-helix space (e.g., Phe597, Leu598, Leu506, Phe608).In the variant simulations, the carboxylate group of Glu601 faces the inter-helix space and is forced to shift slightly away from the hydrophobic niche. Additionally, in two of the simulations, Glu601 forms a salt bridge with Arg499, causing the otherwise stable salt bridge between Arg499 and Glu496 at the outer surface of an α helix (res. Leu489-Glu519) to break due to the residue swap.These effects suggest that the protein folding process could be seriously affected. Moreover, due to its location at the GAP-Ras interface, it could also impact the complex formation with the GTPase.
c.1505G>AG502D
(3D Viewer)
Likely PathogenicGAPUncertain 1-14.796Likely Pathogenic0.994Likely PathogenicLikely Pathogenic0.915Likely Pathogenic3.79Destabilizing0.95.69Destabilizing4.74Destabilizing1.38Destabilizing-6.80Deleterious0.999Probably Damaging0.977Probably Damaging-1.66Pathogenic0.00Affected3.37351-1-3.158.04224.2-80.0-0.80.70.60.3XXXPotentially PathogenicGly502 is located in a hinge in the middle of an α-helix (res. Leu489-Glu519). In the WT, Gly502 acts as an α-helix breaker due to its lack of a side chain, facilitating a bend in the middle of the α-helix. In the variant simulations, the carboxylate group of Asp502 forms hydrogen bonds with neighboring residues (e.g., Ser677, Lys504), disrupting the hinge. Additionally, Asp502 struggles to fit into the α-helix hinge and cannot generate a similar bend as Gly502, which would drastically affect the secondary structure during folding. Thus, the deleterious effect seen in the simulations is likely an underestimate of the impact of the residue swap on the protein structure during protein folding.
c.1121C>AS374Y
(3D Viewer)
C2Uncertain 1-7.774In-Between0.344AmbiguousLikely Benign0.310Likely Benign0.71Ambiguous1.20.66Ambiguous0.69Ambiguous-0.02Likely Benign-1.18Neutral0.875Possibly Damaging0.271Benign5.41Benign0.01Affected4.3213-3-2-0.576.10237.3-76.90.50.40.50.3UncertainSer374 is located in the Gly-rich Ω loop (res. Pro364-Pro398) between two anti-parallel β sheet strands (res. Thr359-Pro364, res. Ala399-Ile411). Because the Ω loop is assumed to directly interact with the membrane, it moves arbitrarily throughout the WT solvent simulations. The Ω loop potentially plays a crucial role in the SynGAP-membrane complex association, stability, and dynamics. However, this aspect cannot be fully addressed through solvent simulations alone.Ω loops are known to play major roles in protein functions that require flexibility, and thus, large and relatively hydrophobic residues like tyrosine are rarely tolerated. Additionally, the hydroxyl group of Tyr374 frequently forms various hydrogen bonds with other loop residues in the variant simulations. Although no negative structural effects are observed in the variant simulations, Tyr374 may exert drastic effects on the SynGAP-membrane complex dynamics and stability. However, since the effect on Gly-rich Ω loop dynamics can only be studied through the SynGAP-membrane complex, no definite conclusions can be drawn.
c.1136C>GS379W
(3D Viewer)
C2Uncertain 16-33438041-C-G-8.898Likely Pathogenic0.388AmbiguousLikely Benign0.520Likely Pathogenic4.32Destabilizing3.43.56Destabilizing3.94Destabilizing0.16Likely Benign-1.02Neutral0.998Probably Damaging0.844Possibly Damaging3.82Benign0.01Affected4.3211-2-3-0.199.14271.3-75.71.41.00.60.5UncertainSer379 is located in the Gly-rich Ω loop (res. Pro364-Pro398) between two anti-parallel β sheet strands (res. Thr359-Pro364, res. Ala399-Ile411). Because the Ω loop is assumed to directly interact with the membrane, it moves arbitrarily throughout the WT solvent simulations. The Ω loop potentially plays a crucial role in the SynGAP-membrane complex association, stability, and dynamics. However, this aspect cannot be fully addressed through solvent simulations alone.Ω loops are known to play major roles in protein functions that require flexibility, and thus hydrophobic residues like tryptophan are rarely tolerated. Although no major negative structural effects are observed in the variant simulations, Trp379 may exert drastic effects on the SynGAP-membrane complex dynamics and stability. However, since the effect on Gly-rich Ω loop dynamics can only be studied through the SynGAP-membrane complex, no definite conclusions can be drawn
c.1154C>GS385W
(3D Viewer)
C2Benign 16-33438059-C-G-9.353Likely Pathogenic0.362AmbiguousLikely Benign0.373Likely Benign0.53Ambiguous0.20.69Ambiguous0.61Ambiguous0.00Likely Benign-0.84Neutral0.986Probably Damaging0.968Probably Damaging4.63Benign0.00Affected4.323-2-3-0.199.14260.4-71.20.51.30.70.4UncertainSer385 is located in the Gly-rich Ω loop (res. Pro364-Pro398) between two anti-parallel β sheet strands (res. Thr359-Pro364, res. Ala399-Ile411). Because the Ω loop is assumed to directly interact with the membrane, it moves arbitrarily throughout the WT solvent simulations. The Ω loop potentially plays a crucial role in the SynGAP-membrane complex association, stability, and dynamics. However, this aspect cannot be fully addressed through solvent simulations alone.Ω loops are known to play major roles in protein functions that require flexibility, and thus hydrophobic residues like tryptophan are rarely tolerated. Although no major negative structural effects are observed in the variant simulations, Trp385 may exert drastic effects on the SynGAP-membrane complex dynamics and stability. However, since the effects on Gly-rich Ω loop dynamics can only be studied through the SynGAP-membrane complex, no definite conclusions can be drawn.10.1016/j.ajhg.2020.11.011
c.1172G>TG391V
(3D Viewer)
Likely BenignC2Likely Benign 16-33438077-G-T31.86e-6-6.642Likely Benign0.133Likely BenignLikely Benign0.595Likely Pathogenic4.23Destabilizing1.34.81Destabilizing4.52Destabilizing-0.11Likely Benign-0.98Neutral0.994Probably Damaging0.887Possibly Damaging1.32Pathogenic0.10Tolerated3.698-1-34.642.08228.6-69.00.00.8-0.50.3UncertainGly387 is located in the Gly-rich Ω loop (res. Pro364-Pro398) between two anti-parallel β sheet strands (res. Thr359-Pro364 and res. Ala399-Ile411). The Ω loop is assumed to directly interact with the membrane, and it is observed to move arbitrarily throughout the WT solvent simulations. This loop potentially plays a crucial role in the SynGAP-membrane complex association, stability, and dynamics. However, this aspect cannot be fully addressed through solvent simulations alone.Ω loops are known to play significant roles in protein functions that require flexibility, and thus hydrophobic residues like valine are rarely tolerated. Although no negative structural effects are visualized in the variant’s simulations, Val391 may exert drastic effects on the SynGAP-membrane complex dynamics and stability. Since the effects on the Gly-rich Ω loop dynamics can only be well studied through the SynGAP-membrane complex, no definite conclusions can be drawn.
c.953C>TP318L
(3D Viewer)
Likely PathogenicC2Uncertain 36-33437858-C-T31.86e-6-10.090Likely Pathogenic0.958Likely PathogenicLikely Pathogenic0.624Likely Pathogenic1.33Ambiguous0.10.26Likely Benign0.80Ambiguous0.43Likely Benign-8.96Deleterious1.000Probably Damaging0.999Probably Damaging1.82Pathogenic0.03Affected3.3823-3-35.416.04228.6-68.9-0.70.7-0.40.1XPotentially BenignThe cyclic five-membered pyrrolidine ring of Pro318, located in a β hairpin loop linking two anti-parallel β sheet strands (res. Asp330-Ala322, res. Thr305-Asn315), packs against the hydrophobic side chain of Ile205 at the end of the anti-parallel β sheet in the PH domain. In the variant simulations, the iso-butyl side chain of Leu318 is unable to do the same, potentially weakening the PH and C2 domain association. Importantly, the residue swap could also affect loop formation during folding, as proline can make tighter turns than leucine. Because the residue swap could affect the C2 domain stability, it could also negatively impact the SynGAP-membrane association.
c.1142G>TG381V
(3D Viewer)
Likely BenignC2Uncertain 16-33438047-G-T21.25e-6-5.967Likely Benign0.146Likely BenignLikely Benign0.618Likely Pathogenic7.16Destabilizing1.04.10Destabilizing5.63Destabilizing-0.32Likely Benign-0.95Neutral0.386Benign0.157Benign1.32Pathogenic0.10Tolerated4.329-1-34.642.08214.6-68.80.30.7-0.50.3UncertainGly381 is located in the Gly-rich Ω loop (res. Pro364-Pro398) between two anti-parallel β sheet strands (res. Thr359-Pro364, res. Ala399-Ile411). Because the Ω loop is assumed to directly interact with the membrane, it moves arbitrarily throughout the WT solvent simulations. The Ω loop potentially plays a crucial role in the SynGAP-membrane complex association, stability, and dynamics. However, this aspect cannot be fully addressed through solvent simulations alone.Ω loops are known to play major roles in protein functions that require flexibility, and thus hydrophobic residues like valine are rarely tolerated. Although no negative structural effects are observed in the variant simulations, Val381 may exert drastic effects on the SynGAP-membrane complex dynamics and stability. However, since the effects on Gly-rich Ω loop dynamics can only be well studied through the SynGAP-membrane complex, no definite conclusions can be drawn.
c.1193C>TP398L
(3D Viewer)
C2Uncertain 16-33438098-C-T84.96e-6-7.518In-Between0.547AmbiguousLikely Benign0.599Likely Pathogenic1.48Ambiguous0.2-0.54Ambiguous0.47Likely Benign0.62Ambiguous-7.10Deleterious0.961Probably Damaging0.256Benign5.72Benign0.01Affected3.4016-3-35.416.04245.8-68.6-0.10.0-0.30.2XPotentially PathogenicPro398 is located in the Gly-rich Ω loop (res. Pro364-Pro398) between two anti-parallel β sheet strands (res. Thr359-Pro364 and res. Ala399-Ile411). The Ω loop is assumed to directly interact with the membrane, and it is observed to move arbitrarily throughout the WT solvent simulations. Although the residue swap does not influence the nearby secondary structure elements, proline is often found at the ends of β sheets due to its disfavored status during folding.Additionally, the Ω loop potentially plays a crucial role in the SynGAP-membrane complex association, stability, and dynamics. However, this aspect cannot be fully addressed through solvent simulations alone. Ω loops are known to play significant roles in protein functions that require flexibility, and thus hydrophobic residues like leucine are rarely tolerated. Although no negative structural effects are visualized in the variant’s simulations, Leu398 may exert drastic effects on the SynGAP-membrane complex dynamics and stability. Since the effects on the Gly-rich Ω loop dynamics can only be well studied through the SynGAP-membrane complex, no definite conclusions can be drawn.
c.1685C>TP562L
(3D Viewer)
Likely PathogenicGAPPathogenic/Likely path. 106-33440737-C-T-13.438Likely Pathogenic0.996Likely PathogenicLikely Pathogenic0.829Likely Pathogenic3.54Destabilizing0.80.17Likely Benign1.86Ambiguous-0.14Likely Benign-9.95Deleterious1.000Probably Damaging1.000Probably Damaging0.58Pathogenic0.00Affected3.3735-3-35.416.04228.8-68.5-0.10.00.10.2XPotentially PathogenicPro562 is located on an α-α loop between two α-helices (res. Ala533-Val560 and res. Arg563-Glu578). The cyclic pyrrolidine side chain of Pro562 hydrophobically packs with other residues in the inter-helix space, such as Leu565, Ile501, and Phe561. In the variant simulations, Leu562 packs more favorably with the nearby hydrophobic residues, and the backbone amide group of Leu562 (absent in proline) does not form any intra-protein hydrogen bonds. However, prolines are well-suited for unstructured regions like loops, and thus, Pro562 in the WT is necessary at the end of the helix to induce a tight turn during folding. Although no negative structural effects are observed during the simulations, the residue swap could potentially cause extensive damage to the protein structure during folding.10.1016/j.ajhg.2020.11.011
c.1160G>TG387V
(3D Viewer)
Likely BenignC2Uncertain 16-33438065-G-T221.37e-5-6.199Likely Benign0.153Likely BenignLikely Benign0.390Likely Benign5.13Destabilizing1.86.44Destabilizing5.79Destabilizing-0.33Likely Benign-0.54Neutral0.069Benign0.077Benign1.32Pathogenic0.01Affected4.323-1-34.642.08207.7-68.4-0.70.8-0.50.1UncertainGly387 is located in the Gly-rich Ω loop (res. Pro364-Pro398) between two anti-parallel β sheet strands (res. Thr359-Pro364 and res. Ala399-Ile411). The Ω loop is assumed to directly interact with the membrane, and it is observed to move arbitrarily throughout the WT solvent simulations. This loop potentially plays a crucial role in the SynGAP-membrane complex association, stability, and dynamics. However, this aspect cannot be fully addressed through solvent simulations alone.Ω loops are known to play significant roles in protein functions that require flexibility, and thus hydrophobic residues like valine are rarely tolerated. Although no negative structural effects are visualized in the variant’s simulations, Val387 may exert drastic effects on the SynGAP-membrane complex dynamics and stability. Since the effects on the Gly-rich Ω loop dynamics can only be well studied through the SynGAP-membrane complex, no definite conclusions can be drawn.
c.1118G>TG373V
(3D Viewer)
Likely BenignC2Uncertain 16-33438023-G-T65.03e-6-6.062Likely Benign0.112Likely BenignLikely Benign0.428Likely Benign5.32Destabilizing3.20.82Ambiguous3.07Destabilizing0.09Likely Benign-0.98Neutral0.007Benign0.001Benign3.90Benign0.00Affected3.5316-1-34.642.08207.6-68.11.91.1-0.60.1UncertainGly373 is located in the Gly-rich Ω loop (res. Pro364-Pro398) between two anti-parallel β sheet strands (res. Thr359-Pro364, res. Ala399-Ile411). Because the Ω loop is assumed to directly interact with the membrane, it moves arbitrarily throughout the WT solvent simulations. The Ω loop potentially plays a crucial role in the SynGAP-membrane complex association, stability, and dynamics. However, this aspect cannot be fully addressed through solvent simulations alone.Ω loops are known to play major roles in protein functions that require flexibility, and thus hydrophobic residues like valine are rarely tolerated. Although no negative structural effects are observed in the variant simulations, Val373 may exert drastic effects on the SynGAP-membrane complex dynamics and stability. However, since the effect on the Gly-rich Ω loop dynamics can only be studied through the SynGAP-membrane complex, no definite conclusions can be drawn.
c.899C>TS300F
(3D Viewer)
Likely PathogenicC2Uncertain 1-10.222Likely Pathogenic0.353AmbiguousLikely Benign0.117Likely Benign-0.29Likely Benign0.40.16Likely Benign-0.07Likely Benign0.04Likely Benign-2.66Deleterious0.975Probably Damaging0.596Possibly Damaging1.52Pathogenic0.01Affected3.4719-3-23.660.10233.6-67.6-0.10.00.40.2XXPotentially PathogenicThe hydroxyl group of the Ser300 side chain, located in a β hairpin loop linking two anti-parallel β sheet strands (res. Met289-Pro298, res. Thr305-Asn315), hydrogen bonds with the guanidinium group of Arg299 and the backbone amide group and side chain of Ser302. Thus, in the WT simulations, it contributes to the β hairpin stability. In the variant simulations, the phenol ring of Phe300 cannot form any side chain-related hydrogen bonds, and Arg299 is moved away from its central hairpin loop position.β hairpins are potential nucleation sites during the initial stages of protein folding, so even minor changes in them could be significant. Due to its location near the membrane surface, the residue swap could also affect the C2 loop dynamics and SynGAP-membrane association. However, this is beyond the scope of the solvent-only simulations to unravel.
c.812C>AA271D
(3D Viewer)
Likely PathogenicC2Pathogenic 1-18.590Likely Pathogenic0.999Likely PathogenicLikely Pathogenic0.706Likely Pathogenic4.71Destabilizing0.42.67Destabilizing3.69Destabilizing1.59Destabilizing-5.52Deleterious1.000Probably Damaging0.999Probably Damaging0.62Pathogenic0.00Affected3.38190-2-5.344.01226.2-63.40.00.00.90.1XXXXPotentially PathogenicThe methyl group of Ala271, located near the end of an anti-parallel β sheet strand (res. Arg259-Arg272), packs against multiple hydrophobic residues such as Val400, Val306, and Leu274 in the WT simulations. In the variant simulations, the carboxylate group of Asp271 is not suitable for the hydrophobic niche, causing the hydrophobic residues to make room for the swapped residue. Additionally, the carboxylate group of the Asp271 side chain forms hydrogen bonds with the backbone amide groups of Arg272 and Ala399 in the β sheet, or even forms a salt bridge with the amino group of the Lys394 side chain. This directly affects the integrity of the anti-parallel β sheet at the end. In short, the residue swap disrupts the C2 domain packing during folding, which could weaken the stability of the SynGAP-membrane association.
c.968T>GL323R
(3D Viewer)
Likely PathogenicC2Likely Pathogenic 1-14.568Likely Pathogenic0.997Likely PathogenicLikely Pathogenic0.692Likely Pathogenic3.75Destabilizing0.44.47Destabilizing4.11Destabilizing2.15Destabilizing-4.70Deleterious0.999Probably Damaging0.969Probably Damaging0.59Pathogenic0.01Affected3.3922-3-2-8.343.03261.8-61.6-0.40.20.80.2XXXPotentially PathogenicThe iso-butyl side chain of Leu323, located at the beginning of an anti-parallel β sheet strand (res. Ala322-Asp330), packs against multiple hydrophobic leucine residues (e.g., Leu264, Leu266, Leu284, Leu286). In contrast, in the variant simulations, the positively charged guanidinium group of the Arg323 side chain is unsuitable for the hydrophobic niche. Consequently, the side chain either rotates away from the center of the C2 domain or, if it remains within the C2 domain core, it reorients nearby residues to form hydrogen bonds. Regardless, the residue swap extensively disrupts the C2 domain structure.
c.1976C>TS659F
(3D Viewer)
Likely PathogenicGAPUncertain 1-10.925Likely Pathogenic0.662Likely PathogenicLikely Benign0.194Likely Benign-0.81Ambiguous0.1-0.25Likely Benign-0.53Ambiguous0.32Likely Benign-4.59Deleterious0.806Possibly Damaging0.171Benign3.39Benign0.05Affected3.3828-3-23.660.10221.3-61.20.00.00.60.4XPotentially BenignIn the WT simulations, the hydroxyl group of Ser659, located in a kink in the middle of the long α-helix (res. Ser641-Glu666), forms a hydrogen bond with the carboxylate group of Glu656. However, the phenol ring of the Phe659 side chain cannot form a similar hydrogen bond. Instead, it interacts with the hydrophobic isopropyl side chain of Val555 from the opposing α-helix (res. Ala533-Val560). This residue swap may therefore cause issues during protein folding.
c.1481T>GI494R
(3D Viewer)
Likely PathogenicGAPLikely Pathogenic 1-15.758Likely Pathogenic0.995Likely PathogenicLikely Pathogenic0.911Likely Pathogenic6.71Destabilizing0.33.40Destabilizing5.06Destabilizing2.19Destabilizing-6.43Deleterious0.999Probably Damaging0.957Probably Damaging-1.41Pathogenic0.00Affected3.3735-2-3-9.043.03273.9-59.80.00.00.00.1XXXXPotentially PathogenicThe sec-butyl side chain of Ile494, located in an α-helix (res. Leu489-Glu519), packs against hydrophobic residues (e.g., Phe484, Leu465, Trp572, Ala493, Met468) in an inter-helix space (res. Leu489-Glu519 and res. Ala461-Phe476). In the variant simulations, the bulkier and positively charged residue, Arg494, weakens the integrity of the opposing helix. Additionally, the bulkier Arg494 stacks with Phe484, causing the α-helices to move farther apart to accommodate it. This mutation could have substantial negative effects due to the fundamental role of hydrophobic packing, which is disrupted by Arg494 during protein folding.
c.2003C>TS668F
(3D Viewer)
Likely PathogenicGAPLikely Pathogenic 1-15.047Likely Pathogenic0.999Likely PathogenicLikely Pathogenic0.643Likely Pathogenic16.72Destabilizing5.011.07Destabilizing13.90Destabilizing0.00Likely Benign-5.98Deleterious0.999Probably Damaging0.935Probably Damaging3.18Benign0.00Affected3.3828-3-23.660.10250.9-59.6-0.10.10.00.1XXXPotentially PathogenicIn the WT simulations, the hydroxyl side chain of Ser668, located on an α-α loop connecting the two α-helices (res. Ser641-Glu666 and res. Leu685-Val699), forms hydrogen bonds with the backbone carbonyl groups of Leu664, Tyr665, and Glu666, as well as the guanidinium group of Arg573 on a nearby α-helix (res. Arg563-Glu578). In the variant simulations, the side chain of Phe668 cannot maintain the same hydrogen-bond network. Due to its larger size, it moves away to avoid steric hindrance. In the WT simulations, a network of hydrogen bonds between several residues (e.g., Asn669, Lys566, and Glu666) keeps both α-helices and the proceeding loop (res. Asn669-Asp684) tightly connected, but this setup is not present in the variant simulations. Additionally, in the variant simulations, the side chain of Arg573 shifts to form a more stable salt bridge with the carboxylate group of Glu582 instead of hydrogen bonding with Ser668 as in the WT simulations.
c.1406C>AA469D
(3D Viewer)
Likely PathogenicGAPUncertain 1-14.643Likely Pathogenic0.999Likely PathogenicLikely Pathogenic0.738Likely Pathogenic5.09Destabilizing0.24.16Destabilizing4.63Destabilizing1.68Destabilizing-3.48Deleterious0.999Probably Damaging0.996Probably Damaging-1.34Pathogenic0.21Tolerated3.37340-2-5.344.01237.0-58.2-0.20.10.80.1XXPotentially PathogenicThe methyl group of Ala469, located in an α helix (res. Ala461–Phe476), interacts with hydrophobic residues (e.g., Trp572, Leu588, Met470) in an inter-helix space formed by two other α helices (res. Glu582–Ser604, res. Arg563–Gly580). In the variant simulations, Asp469 introduces a negatively charged and bulky side chain into the hydrophobic niche. Consequently, the side chain of Asp469 rotates outward, allowing the carboxylate group to form a salt bridge with the guanidinium group of Arg575 on the protein surface. This interaction affects the continuity of the parent α helix (Ala461–Phe476). Due to the importance of hydrophobic packing, the structural effects could be more pronounced during actual protein folding.
c.1205T>GL402R
(3D Viewer)
Likely PathogenicC2Likely Pathogenic1-13.800Likely Pathogenic0.997Likely PathogenicLikely Pathogenic0.522Likely Pathogenic4.10Destabilizing0.23.82Destabilizing3.96Destabilizing2.24Destabilizing-4.69Deleterious0.967Probably Damaging0.459Possibly Damaging3.69Benign0.00Affected3.3828-3-2-8.343.03259.5-55.40.00.01.40.0XXXPotentially PathogenicThe iso-butyl side chain of Leu402, located in an anti-parallel β sheet strand (res. Ala399-Ile411), packs with residues inside the hydrophobic core of the C2 domain (e.g., Ile268, Ala404, Leu266, Val400). In the variant simulations, the positively charged guanidinium group of the Arg402 side chain is not suitable for the hydrophobic niche. Consequently, the side chain moves outward from the hydrophobic C2 domain core and stacks with the phenol ring of Tyr363 or forms H-bonds with the carboxamide group of the Gln361 side chain in the β sheet strand (res. Thr359-Tyr364). This movement induces extensive negative effects on the C2 domain structure.
c.1640G>AC547Y
(3D Viewer)
Likely PathogenicGAPPathogenic 1-15.871Likely Pathogenic0.999Likely PathogenicLikely Pathogenic0.874Likely Pathogenic8.53Destabilizing1.86.20Destabilizing7.37Destabilizing0.62Ambiguous-10.57Deleterious1.000Probably Damaging0.998Probably Damaging-1.33Pathogenic0.06Tolerated3.37350-2-3.860.04280.1-54.80.00.00.00.0XXXPotentially PathogenicCys547 is located in an α-helix (res. Ala533-Val560). The thiol side chain of Cys547 is situated in a hydrophobic inter-helix space, where it packs hydrophobically with other residues such as Ile626, Leu551, and Phe652. Additionally, the thiol side chain of Cys weakly hydrogen bonds with the carbonyl group of Leu543 in the same α-helix. In the variant simulations, the bulkier phenol ring of Tyr547, with its polar hydroxyl group, is less suited for the hydrophobic space. Consequently, it moves outside and forms a hydrogen bond with the carbonyl group of Phe652 in the neighboring α-helix (res. Glu666-Asp644). This causes the two helices to slightly separate, negatively affecting the secondary structure integrity of the latter helix. These negative structural effects could be more pronounced during protein folding and are likely to be undermined in the MD simulations.
c.2015C>TT672M
(3D Viewer)
GAPConflicting 26-33441274-C-T191.18e-5-9.472Likely Pathogenic0.174Likely BenignLikely Benign0.127Likely Benign0.31Likely Benign0.41.52Ambiguous0.92Ambiguous0.41Likely Benign-4.34Deleterious0.993Probably Damaging0.520Possibly Damaging3.39Benign0.00Affected3.4025-1-12.630.09231.9-52.91.10.10.50.0XXPotentially PathogenicThe hydroxyl group of Thr672, located in an entangled α-α loop connecting the two α-helices (res. Ser641-Glu666 and res. Leu685-Val699), is involved in a highly coordinated hydrogen-bonding network between residues from two α-helices (res. Ser641-Glu666 and res. Arg563-Glu578) and from the α-α loop itself, such as Lys566, Glu666, and Asn669. Met672 can only form a hydrogen bond with the amino group of the Lys566 side chain via its backbone carbonyl group. Nevertheless, the Lys566-Glu666 salt bridge forms intermittently. This is possible because Asn669 keeps the carboxylate group of Glu666 in the vicinity through hydrogen bonding, and the hydrophobic side chain of Met stays mostly rotated away from the salt bridge. Consequently, no drastic disruption of the hydrogen-bond network that keeps the loop close to the helices occurs in the variant simulations.
c.2105A>GQ702R
(3D Viewer)
GAPUncertain 1-7.894In-Between0.348AmbiguousLikely Benign0.294Likely Benign-0.31Likely Benign0.10.63Ambiguous0.16Likely Benign0.13Likely Benign-3.14Deleterious0.909Possibly Damaging0.889Possibly Damaging3.43Benign0.02Affected3.471011-1.028.06270.3-52.90.00.00.00.1XPotentially PathogenicThe carboxamide side chain of Gln702 is located at the end and outer surface of an α-helix (res. Leu685-Gln702), where it does not directly form hydrogen bonds with any residues in the WT simulations. In the variant simulations, the positively charged guanidinium group of Arg702 forms a salt bridge with the negatively charged carboxylate group of Glu698 on the same helix and/or hydrogen bonds with the backbone carbonyl group of Ala438 on an opposite α-helix (res. Tyr428-Glu436). Consequently, the residue swap could strengthen the tertiary structure assembly, which could have either positive or negative effects on its function.
c.1678G>AV560M
(3D Viewer)
GAPUncertain 26-33440730-G-A159.50e-6-9.598Likely Pathogenic0.517AmbiguousLikely Benign0.520Likely Pathogenic-0.33Likely Benign0.10.88Ambiguous0.28Likely Benign0.72Ambiguous-2.42Neutral0.999Probably Damaging0.863Possibly Damaging-1.25Pathogenic0.14Tolerated3.373521-2.332.06234.9-52.60.00.0-0.10.1XPotentially BenignVal560 is located on the surface at the end of an α-helix (res. Ala533-Val560). The iso-propyl group of Val560 favorably packs against Asp508 of the opposing α-helix (res. Gln503-Glu519). However, in the variant simulations, the bulkier thioether side chain of Met560 does not form equally favorable inter-helix interactions. Regardless, no negative structural effects are observed during the simulations.
c.1030G>AG344S
(3D Viewer)
Likely PathogenicC2Pathogenic 5-11.254Likely Pathogenic0.986Likely PathogenicLikely Pathogenic0.790Likely Pathogenic9.02Destabilizing0.76.08Destabilizing7.55Destabilizing0.98Ambiguous-5.28Deleterious1.000Probably Damaging1.000Probably Damaging-0.45Pathogenic0.04Affected3.372510-0.430.03217.3-51.70.00.10.20.1XXPotentially PathogenicBecause Gly344 lacks a proper side chain, it allows the anti-parallel β sheet strand (res. Gly341-Pro349) to have a slight twist. Within a β strand, side chains normally alternate between outward and inward positions, but glycine is an exception as it allows the alternating pattern to skip a residue. Introducing serine or any other residue with a side chain at position 344 prevents this unique skip in the alternating pattern, causing structural strain or likely preventing correct folding altogether. Additionally, Tyr342 shields Gly344 from the solvent, contributing to twist formation in the β sheet and stabilizing the β-strand.In the variant simulations, the side chain of Ser344 assumes the inward position. However, the hydrophobic niche formed by multiple C2 domain residues (e.g., Val365, Val343, Leu327) is not accommodating for its hydroxyl group. The outward position, not seen in the simulations, would be equally disadvantageous due to the presence of hydrophobic residues on that side as well (e.g., Leu345, Tyr342). Serine is also not well-suited for twist formation, as it tends to suppress twisting and bending in β sheets. At this position, the hydroxyl group of Ser344 could also form hydrogen bonds with the backbone atoms of the Gly-rich Ω loop in the C2 domain (e.g., Thr366, Leu367, Gly378; res. Pro364-Pro398), potentially adversely affecting membrane-loop dynamics and ultimately compromising the stability of the SynGAP-membrane association.
c.1154C>TS385L
(3D Viewer)
Likely BenignC2Uncertain 26-33438059-C-T94.60e-5-6.018Likely Benign0.167Likely BenignLikely Benign0.304Likely Benign0.16Likely Benign0.10.08Likely Benign0.12Likely Benign-0.26Likely Benign-0.68Neutral0.829Possibly Damaging0.706Possibly Damaging4.63Benign0.01Affected4.323-3-24.626.08244.6-50.10.00.6-0.10.1UncertainSer385 is located in the Gly-rich Ω loop (res. Pro364-Pro398) between two anti-parallel β sheet strands (res. Thr359-Pro364, res. Ala399-Ile411). Because the Ω loop is assumed to directly interact with the membrane, it moves arbitrarily throughout the WT solvent simulations. The Ω loop potentially plays a crucial role in the SynGAP-membrane complex association, stability, and dynamics. However, this aspect cannot be fully addressed through solvent simulations alone.Ω loops are known to play major roles in protein functions that require flexibility, and thus hydrophobic residues like leucine are rarely tolerated. Although no negative structural effects are observed in the variant simulations, Leu385 may exert drastic effects on the SynGAP-membrane complex dynamics and stability. However, since the effects on Gly-rich Ω loop dynamics can only be studied through the SynGAP-membrane complex, no definite conclusions can be drawn.
c.1150G>AG384S
(3D Viewer)
Likely BenignC2Uncertain 16-33438055-G-A16.22e-7-5.243Likely Benign0.090Likely BenignLikely Benign0.315Likely Benign1.92Ambiguous0.21.66Ambiguous1.79Ambiguous0.19Likely Benign-0.67Neutral0.980Probably Damaging0.968Probably Damaging1.33Pathogenic0.04Affected4.32210-0.430.03202.4-49.80.51.0-0.20.0UncertainGly384 is located in the Gly-rich Ω loop (res. Pro364-Pro398) between two anti-parallel β sheet strands (res. Thr359-Pro364, res. Ala399-Ile411). Because the Ω loop is assumed to directly interact with the membrane, it moves arbitrarily throughout the WT solvent simulations. The Ω loop potentially plays a crucial role in the SynGAP-membrane complex association, stability, and dynamics. However, this aspect cannot be fully addressed through solvent simulations alone.Ω loops are known to play major roles in protein functions that require flexibility, and so they are rich in glycines, prolines, and, to a lesser extent, small hydrophilic residues to ensure maximum flexibility. Thus, the variant’s Ser384 is potentially tolerated in the Ω loop, although the hydroxyl group of Ser384 forms various hydrogen bonds with several other loop residues in the variant simulations. However, since the effects on Gly-rich Ω loop dynamics can only be studied through the SynGAP-membrane complex, no definite conclusions can be drawn.
c.1108G>AG370S
(3D Viewer)
Likely BenignC2Uncertain 16-33438013-G-A159.31e-6-3.533Likely Benign0.081Likely BenignLikely Benign0.282Likely Benign2.83Destabilizing2.01.05Ambiguous1.94Ambiguous-0.02Likely Benign0.47Neutral0.000Benign0.000Benign1.33Pathogenic0.77Tolerated3.421910-0.430.03196.6-49.60.92.2-0.10.4UncertainGly370 is located in the Gly-rich Ω loop (res. Pro364- Pro398) between two anti-parallel β sheet strands (res. Thr359-Pro364, res. Ala399-Ile411). Because, the Ω loop is assumed to be directly interacting with the membrane, it is only seen to move arbitrarily throughout the WT solvent simulations. The Ω loop is potentially playing a crucial loop in the SynGAP-membrane complex association, stability and dynamics, regardless, this aspect cannot be addressed through the solvent simulations only. The Ω-loops are known to have a major role in protein functions that requires flexibility and thus, they are rich in glycines, prolines and to a lesser extent, hydrophilic residues to ensure maximum flexibility. Thus, Ser370 in the variant is potentially tolerated in the Ω loop. However, since the effect on the Gly-rich Ω loop dynamics can only be well-studied through the SynGAP-membrane complex, no definite conclusions can be withdrawn.
c.1811C>TS604L
(3D Viewer)
Likely PathogenicGAPUncertain 16-33440863-C-T63.72e-6-14.683Likely Pathogenic0.965Likely PathogenicLikely Pathogenic0.639Likely Pathogenic-0.94Ambiguous0.1-1.24Ambiguous-1.09Ambiguous-0.31Likely Benign-5.97Deleterious1.000Probably Damaging0.991Probably Damaging3.09Benign0.00Affected3.3735-3-24.626.08234.0-49.60.00.10.30.5XXPotentially PathogenicSer604 is located in a short turn between an α helix (res. Glu582-Met603) and a short α helical section (res. Ser606-Phe608). In the WT simulations, the hydroxyl side chain of Ser604 periodically hydrogen bonds with the backbone carbonyl groups of other α helix residues (e.g., Pro600, Met603). Serine weakens the α helix secondary structure, and thus, Ser604 along with Pro605 breaks the α helix, facilitating the turn in the WT structure.In contrast, in the variant simulations, Leu604 forms a few hydrophobic interactions (e.g., Leu607, Phe608). More importantly, the helix end is more stable than with Ser604 in the WT. The residue swap could have a more profound effect on the actual folding process, for example, by preventing the bending at the α helix end, than what the simulations suggest.Moreover, Ser604 directly hydrogen bonds with Ras residues Ser65 and Ala66 in the WT SynGAP-Ras complex. The hydrophobic leucine cannot maintain these interactions with Ras at the GAP-Ras interface. Thus, the effect of the residue swap on the complex formation with the GTPase cannot be fully explored in the solvent-only simulations.
c.1738G>AG580S
(3D Viewer)
Likely PathogenicGAPUncertain 16-33440790-G-A16.20e-7-10.788Likely Pathogenic0.861Likely PathogenicAmbiguous0.644Likely Pathogenic2.84Destabilizing0.20.59Ambiguous1.72Ambiguous0.87Ambiguous-5.73Deleterious1.000Probably Damaging0.999Probably Damaging-1.23Pathogenic0.07Tolerated3.373410-0.430.03233.9-49.30.80.00.60.1XPotentially BenignGly580 is located on the outer surface in a short α-α loop turn connecting two α-helices (res. Arg563-Glu578, res. Glu582-Phe608) in the WT simulations. In the variant simulations, the side chain of Ser580 faces outward, and its hydroxyl group does not make any new or additional interactions compared to Gly580 in the WT simulations that could affect the protein structure.
c.1136C>TS379L
(3D Viewer)
Likely BenignC2Benign 16-33438041-C-T84.05e-5-5.641Likely Benign0.173Likely BenignLikely Benign0.469Likely Benign0.39Likely Benign0.23.38Destabilizing1.89Ambiguous-0.52Ambiguous-0.85Neutral0.015Benign0.002Benign3.83Benign0.04Affected4.3211-3-24.626.08251.9-48.10.61.10.00.5UncertainSer379 is located in the Gly-rich Ω loop (res. Pro364-Pro398) between two anti-parallel β sheet strands (res. Thr359-Pro364, res. Ala399-Ile411). Because the Ω loop is assumed to directly interact with the membrane, it moves arbitrarily throughout the WT solvent simulations. The Ω loop potentially plays a crucial role in the SynGAP-membrane complex association, stability, and dynamics. However, this aspect cannot be fully addressed through solvent simulations alone.Ω loops are known to play major roles in protein functions that require flexibility, and thus hydrophobic residues like leucine are rarely tolerated. Although no negative structural effects are observed in the variant simulations, Leu379 may exert drastic effects on the SynGAP-membrane complex dynamics and stability. However, since the effect on Gly-rich Ω loop dynamics can only be studied through the SynGAP-membrane complex, no definite conclusions can be drawn.
c.1042G>AV348M
(3D Viewer)
C2Uncertain 1-7.076In-Between0.546AmbiguousLikely Benign0.191Likely Benign-1.19Ambiguous0.10.72Ambiguous-0.24Likely Benign0.76Ambiguous-1.62Neutral0.966Probably Damaging0.564Possibly Damaging1.58Pathogenic0.03Affected3.372521-2.332.06253.8-47.4-0.30.10.20.1XPotentially BenignThe iso-propyl side chain of Val348, located in an anti-parallel β sheet strand (res. Gly341-Pro349), packs against multiple hydrophobic C2 domain residues (e.g., Leu353, Leu323, Leu402). In the variant simulations, the thioether side chain of Met348 can form similar interactions as valine due to its comparable hydrophobic profile. In fact, the thioether group of methionine can even stack favorably with the phenol ring of Tyr363 in the anti-parallel β sheet strand (res. Ala399-Ile411). Overall, the residue swap does not appear to cause negative effects on the protein structure based on the simulations.
c.2095G>AV699M
(3D Viewer)
GAPUncertain 26-33441354-G-A84.96e-6-8.869Likely Pathogenic0.484AmbiguousLikely Benign0.276Likely Benign-0.58Ambiguous0.10.29Likely Benign-0.15Likely Benign0.96Ambiguous-2.18Neutral0.994Probably Damaging0.806Possibly Damaging3.37Benign0.03Affected3.471021-2.332.06257.8-47.20.00.00.90.1XPotentially BenignThe isopropyl side chain of Val699, located on an α-helix (res. Leu685-Gln702), packs against hydrophobic residues (e.g., Leu703, Leu696, Leu435, Leu439) in the inter-helix space. In the variant simulations, the thioether side chain of Met699 has similar physicochemical properties to Val699 in the WT, and thus, it is able to maintain similar interactions. Consequently, the mutation causes no apparent changes in the structure.
c.1579G>TD527Y
(3D Viewer)
Likely PathogenicGAPUncertain 1-15.386Likely Pathogenic0.978Likely PathogenicLikely Pathogenic0.905Likely Pathogenic-0.77Ambiguous0.21.89Ambiguous0.56Ambiguous-0.14Likely Benign-8.79Deleterious1.000Probably Damaging0.999Probably Damaging-2.41Pathogenic0.00Affected3.3735-4-32.248.09270.9-45.70.10.1-0.10.0XPotentially PathogenicAsp527 is located on an α-α loop between the two α-helices (res. Gly502-Tyr518 and Ala533-Val560). In the WT simulations, the carboxylate group of the Asp527 side chain forms hydrogen bonds with the backbone atoms of loop residues (e.g., Ile529, Lys530) facing the membrane surface. In the variant simulations, Tyr527 is a bulkier residue that faces away from the loop and stacks with Phe646 in a nearby α-helix (res. Ser614-Ser668). Regardless, no negative structural effects are observed during the variant simulations. However, due to its location near the SynGAP-membrane interface, the effect of the residue swap cannot be fully addressed using the SynGAP solvent-only simulations.
c.1802C>TA601V
(3D Viewer)
Likely PathogenicGAPUncertain 1-10.447Likely Pathogenic0.853Likely PathogenicAmbiguous0.535Likely Pathogenic1.64Ambiguous0.10.35Likely Benign1.00Ambiguous0.81Ambiguous-3.98Deleterious1.000Probably Damaging0.989Probably Damaging2.74Benign0.03Affected3.3735002.428.05228.5-45.50.00.00.40.5XPotentially BenignThe methyl side chain of Ala601, located on an α helix (res. Glu582-Met603), packs hydrophobically against other hydrophobic residues in the inter-helix space (e.g., Phe597, Leu598, Leu506, Phe608).In the variant simulations, Val601, which has similar size and physicochemical properties to alanine, resides in the inter-helix hydrophobic space in a similar manner to Ala601 in the WT, causing no apparent negative effect on the protein structure. However, the effect of the residue swap on the SynGAP-Ras complex formation or GTPase activation cannot be fully addressed using the SynGAP solvent-only simulations.
c.1610C>TA537V
(3D Viewer)
Likely BenignGAPLikely Benign 16-33438853-C-T74.34e-6-6.888Likely Benign0.120Likely BenignLikely Benign0.382Likely Benign0.54Ambiguous0.0-0.05Likely Benign0.25Likely Benign0.41Likely Benign-1.97Neutral0.977Probably Damaging0.469Possibly Damaging-1.26Pathogenic0.24Tolerated3.3735002.428.05220.3-45.10.00.0-0.70.1XPotentially BenignAla537 is located on the outer surface of an α-helix (res. Ala533-Val560). The methyl group of Ala537 is on the surface and does not form any interactions. In the variant simulations, the iso-propyl side chain of Val537 is also on the surface, similar to Ala537 in the WT, causing no negative structural effects.
c.707C>TA236V
(3D Viewer)
PHBenign/Likely benign 26-33435558-C-T63.72e-6-8.752Likely Pathogenic0.267Likely BenignLikely Benign0.777Likely Pathogenic0.61Ambiguous0.21.08Ambiguous0.85Ambiguous0.64Ambiguous-3.55Deleterious0.981Probably Damaging0.446Benign5.79Benign0.03Affected3.4014002.428.05213.8-44.70.00.0-0.20.2XPotentially BenignThe methyl side chain of Ala236, located on an α helix (residues Ala236-Val250) facing an anti-parallel β sheet strand (residues Ile205-Val209), interacts hydrophobically with nearby residues such as Arg239 and Phe218. In the variant simulations, the isopropyl branched hydrocarbon side chain of Val236 maintains similar hydrophobic interactions as alanine in the WT, with an overall arrangement remarkably similar to Ala236. The residue swap does not affect the protein structure based on the simulations.
c.1441C>TH481Y
(3D Viewer)
Likely PathogenicGAPLikely Benign 16-33438473-C-T169.91e-6-10.910Likely Pathogenic0.565Likely PathogenicLikely Benign0.256Likely Benign-0.53Ambiguous0.1-0.46Likely Benign-0.50Ambiguous0.20Likely Benign-3.32Deleterious0.988Probably Damaging0.979Probably Damaging3.40Benign0.59Tolerated3.3733021.926.03256.5-44.40.00.00.20.2XXUncertainThe imidazole ring of the His481 side chain is located in a short helical structure (res. Glu480-Leu482) within an α-α loop connecting the two α-helices (res. Ala461-Phe476 and Leu489-Glu519) at the GAP-Ras interface. In the WT simulations, His481 alternately stacks against Arg485, Arg587, and Glu480 without a definite role. In the variant simulations, Tyr481 also alternately stacks with nearby arginine residues, including Arg485, Arg587, and Arg479. The interaction between Tyr481 and Arg479 affects the α-α loop, causing it to fold into a distorted helical structure, an effect that might be more pronounced during protein folding. Finally, the potential effect of the residue swap on SynGAP-Ras complex formation or GTPase activation cannot be fully addressed using the SynGAP solvent-only simulations.
c.859G>TD287Y
(3D Viewer)
Likely PathogenicC2Likely Pathogenic 1-12.877Likely Pathogenic0.999Likely PathogenicLikely Pathogenic0.663Likely Pathogenic0.21Likely Benign0.20.48Likely Benign0.35Likely Benign0.27Likely Benign-8.27Deleterious1.000Probably Damaging0.999Probably Damaging1.51Pathogenic0.00Affected3.3823-4-32.248.09257.8-44.4-0.61.60.20.3XXPotentially PathogenicThe carboxylate group of Asp287, located at the beginning of a β hairpin loop linking two anti-parallel β sheet strands (res. Arg279-Leu286, res. Met289-Pro298), maintains a salt bridge with the guanidinium group of Arg324 in the β sheet during the WT simulations. In the variant simulations, the phenol group of the Tyr287 side chain is unable to form a salt bridge with the guanidinium group of Arg324, which could weaken the tertiary structure assembly of the C2 domain. However, the phenol group of Tyr287 frequently stacks with the Arg324 guanidinium side chain, which could help maintain the tertiary structure, especially compared to the D287H variant. The destabilization of the C2 domain could adversely affect the stability of the SynGAP-membrane association.
c.1729G>AA577T
(3D Viewer)
Likely BenignGAPBenign 16-33440781-G-A63.72e-6-5.311Likely Benign0.322Likely BenignLikely Benign0.427Likely Benign0.86Ambiguous0.10.54Ambiguous0.70Ambiguous0.54Ambiguous-1.47Neutral0.999Probably Damaging0.987Probably Damaging-1.31Pathogenic0.47Tolerated3.373410-2.530.03191.9-43.40.00.00.70.1XPotentially BenignAla577 is located near the end and outer surface of an α-helix (res. Arg563-Glu578), where its methyl group does not form any particular interactions in the WT simulations. In the variant simulations, the hydroxyl group of the Thr577 side chain hydrogen bonds with the backbone atoms of Arg573 and Lys574 within the same helix, which has the potential to weaken the stability of the secondary structure element. Regardless, the residue swap seems to be well tolerated based on the variant simulations.
c.1771G>AA591T
(3D Viewer)
Likely PathogenicGAPConflicting 36-33440823-G-A181.12e-5-9.572Likely Pathogenic0.704Likely PathogenicLikely Benign0.270Likely Benign1.61Ambiguous0.21.00Ambiguous1.31Ambiguous1.19Destabilizing-3.40Deleterious0.955Possibly Damaging0.209Benign3.48Benign0.01Affected3.373510-2.530.03202.9-43.40.20.00.70.1XPotentially BenignThe methyl group of the Ala591 side chain, located in the middle of an α helix (res. Glu582-Met603), packs against hydrophobic residues (e.g., Ile483, Phe484) of an opposing partially helical loop (res. Phe476-Asn487).In the variant simulations, the hydroxyl group of Thr591 can form hydrogen bonds with the backbone carbonyl of Ile843 in the opposing loop or the backbone carbonyl group of Arg587. These interactions could either reinforce the tertiary assembly or weaken the α helix unity. Additionally, the Thr591 side chain can hydrogen bond with the guanidinium group of the Arg587 side chain, potentially strengthening the α helix unity.Overall, the residue swap does not seem to cause any major negative effects on the protein structure.
c.745G>AA249T
(3D Viewer)
Likely BenignPHUncertain 1-3.564Likely Benign0.805Likely PathogenicAmbiguous0.487Likely Benign1.50Ambiguous0.61.39Ambiguous1.45Ambiguous0.30Likely Benign-0.96Neutral0.990Probably Damaging0.815Possibly Damaging5.65Benign0.40Tolerated3.391510-2.530.03214.5-43.30.00.00.50.2XPotentially BenignThe methyl group of Ala249, located on the surface of an α helix (res. Ala236-Val250) facing an anti-parallel β sheet strand (res. Ile205-Val209), packs against nearby hydrophobic residues such as Leu200, Leu246, and Val250. In the variant simulations, the hydroxyl group of Thr249, which is not suitable for hydrophobic packing, forms a stable hydrogen bond with the backbone carbonyl of Asn245 in the same helix. Although this interaction could theoretically weaken the structural integrity of the α helix, this destabilizing effect is not observed in the variant simulations.
c.901G>AA301T
(3D Viewer)
Likely BenignC2Uncertain 56-33437806-G-A21.24e-6-3.448Likely Benign0.070Likely BenignLikely Benign0.150Likely Benign0.36Likely Benign0.2-0.33Likely Benign0.02Likely Benign0.03Likely Benign-0.25Neutral0.997Probably Damaging0.989Probably Damaging4.15Benign0.22Tolerated4.321410-2.530.03219.8-42.8-0.10.0-0.50.2UncertainThe methyl group of Ala301, located in a β hairpin loop linking two anti-parallel β sheet strands (res. Met289-Pro298, res. Thr305-Asn315), points outward from the β hairpin loop, and its backbone atoms do not participate in the loop formation in the WT simulations. In the variant simulations, the hydroxyl group of the Thr301 side chain also mostly points outward; however, the guanidinium group of Arg299 is moved away from its central hairpin loop position.β hairpins are potential nucleation sites during the initial stages of protein folding, so even minor changes in them could be significant. Due to its location near the membrane surface, the residue swap could also affect the C2 loop dynamics and SynGAP-membrane association. However, this is beyond the scope of the solvent-only simulations to unravel.

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