********************************************************************************************** ** ** ** SNPs&GO ** ** Predicting disease associated variation using GO terms ** ** ** ********************************************************************************************** Sequence File: fileseq.seq Mutation Prediction RI Probability Method R121W Disease 8 0.916 PhD-SNP: F[R]=98% F[W]=0% Nali=1009 R121W Unclassified NA NA PANTHER: F[R]=NA F[W]=NA R121W Disease 7 0.849 SNPs&GO R225W Disease 9 0.933 PhD-SNP: F[R]=97% F[W]=0% Nali=1247 R225W Disease 10 0.977 PANTHER: F[R]=86% F[W]=0% R225W Disease 6 0.813 SNPs&GO A226D Disease 9 0.927 PhD-SNP: F[A]=23% F[D]=0% Nali=1247 A226D Disease 7 0.870 PANTHER: F[A]=78% F[D]=0% A226D Disease 9 0.930 SNPs&GO A226V Disease 5 0.756 PhD-SNP: F[A]=23% F[V]=5% Nali=1247 A226V Disease 6 0.786 PANTHER: F[A]=78% F[V]=1% A226V Disease 6 0.785 SNPs&GO D356N Disease 7 0.862 PhD-SNP: F[D]=98% F[N]=1% Nali=1026 D356N Disease 7 0.839 PANTHER: F[D]=86% F[N]=1% D356N Disease 5 0.775 SNPs&GO D356Y Disease 9 0.938 PhD-SNP: F[D]=98% F[Y]=0% Nali=1026 D356Y Disease 9 0.961 PANTHER: F[D]=86% F[Y]=0% D356Y Disease 7 0.853 SNPs&GO L404Q Disease 5 0.774 PhD-SNP: F[L]=33% F[Q]=0% Nali=1002 L404Q Disease 5 0.761 PANTHER: F[L]=65% F[Q]=0% L404Q Disease 4 0.684 SNPs&GO V1201M Disease 3 0.670 PhD-SNP: F[V]=61% F[M]=0% Nali=1383 V1201M Disease 6 0.793 PANTHER: F[V]=70% F[M]=1% V1201M Disease 1 0.546 SNPs&GO Mutation: WT+POS+NEW WT: Residue in wild-type protein POS: Residue position NEW: New residue after mutation Prediction: Neutral: Neutral variation Disease: Disease associated variation RI: Reliability Index Probability: Disease probability (if >0.5 mutation is predicted Disease) Method: SVM type and data PANTHER: Output of the PANTHER algorithm PhD-SNP: SVM input is the sequence and profile at the mutated position SNPs&GO: SVM input is all the input in PhD-SNP, PANTHER and GO term features F[X]: Frequency of residue X in the sequence profile Nali: Number of aligned sequences in the mutated site ********************************************************************************************** ** ** ** Calabrese R, Capriotti E, Fariselli P, Martelli PL, Casadio R. (2009). Functional ** ** annotations improve the predictive score of human disease-related mutations in ** ** proteins. Human Mutation. 30:1237-1244. ** ** ** ** Capriotti E, Altman RB. (2011). Improving the prediction of disease-related vari- ** ** ants using protein three-dimensional structure. BMC Bioinformatics. 12 (Sup.4) S3. ** ** ** **********************************************************************************************