/* rnaStructure - do section on 3' and 5' UTR structure. */ #include "common.h" #include "hash.h" #include "linefile.h" #include "jksql.h" #include "rnaFold.h" #include "hui.h" #include "web.h" #include "portable.h" #include "hgGene.h" static void rnaTrashDirsInit(char **tables, int count) /* create trash directories if necessary */ { for ( count--; count > -1; count--) mkdirTrashDirectory(tables[count]); } static boolean rnaStructureExists(struct section *section, struct sqlConnection *conn, char *geneId) /* Return TRUE if tables exists and have our gene. */ { if (sqlTableExists(conn, "foldUtr3") && sqlRowExists(conn, "foldUtr3", "name", geneId)) return TRUE; if (sqlTableExists(conn, "foldUtr5") && sqlRowExists(conn, "foldUtr5", "name", geneId)) return TRUE; return FALSE; } static void rnaStructurePrint(struct section *section, struct sqlConnection *conn, char *geneId) /* Print out rnaStructure table. */ { static boolean firstTime = TRUE; static char *names[2] = {"5' UTR", "3' UTR"}; static char *tables[2] = {"foldUtr5", "foldUtr3"}; int side; if (firstTime) { rnaTrashDirsInit(tables, ArraySize(tables)); firstTime = FALSE; } webPrintLinkTableStart(); webPrintLabelCell("Region"); webPrintLabelCell("Fold Energy"); webPrintLabelCell("Bases"); webPrintLabelCell("Energy/Base"); webPrintWideCenteredLabelCell("Display As", 3); for (side = 0; side < ArraySize(names); ++side) { char *table = tables[side]; struct sqlResult *sr; char query[256], **row; safef(query, sizeof(query), "select * from %s where name = '%s'", table, geneId); sr = sqlGetResult(conn, query); if ((row = sqlNextRow(sr)) != NULL) { struct rnaFold fold; int bases; char psName[128]; /* Load fold and save it as postScript. */ rnaFoldStaticLoad(row, &fold); safef(psName, sizeof(psName), "../trash/%s/%s_%s.ps", table, table, geneId); if (!fileExists(psName)) { FILE *f; f = popen("../cgi-bin/RNAplot", "w"); if (f != NULL) { fprintf(f, ">%s\n", psName); /* This tells where to put file. */ fprintf(f, "%s\n%s\n", fold.seq, fold.fold); pclose(f); } } /* Print row of table, starting with energy terms . */ hPrintf(""); bases = strlen(fold.seq); webPrintLinkCell(names[side]); webPrintLinkCellStart(); hPrintf("%1.2f", fold.energy); webPrintLinkCellEnd(); webPrintLinkCellStart(); hPrintf("%d", bases); webPrintLinkCellEnd(); webPrintLinkCellStart(); hPrintf("%1.3f", fold.energy/bases); webPrintLinkCellEnd(); /* Print link to png image. */ webPrintLinkCellStart(); hPrintf("", geneCgi, cartSidUrlString(cart), hggMrnaFoldRegion, table, hggMrnaFoldPs, psName, hggDoRnaFoldDisplay, "picture"); hPrintf(" Picture "); hPrintf(""); webPrintLinkCellEnd(); /* Print link to PostScript. */ webPrintLinkCellStart(); hPrintf("", psName); hPrintf(" PostScript "); hPrintf(""); webPrintLinkCellEnd(); /* Print link to text. */ webPrintLinkCellStart(); hPrintf("", geneCgi, cartSidUrlString(cart), hggMrnaFoldRegion, table, hggDoRnaFoldDisplay, "text"); hPrintf(" Text "); hPrintf(""); webPrintLinkCellEnd(); } sqlFreeResult(&sr); } webPrintLinkTableEnd(); hPrintf("
The RNAfold program from the "); hPrintf(""); hPrintf("Vienna RNA Package is used to perform the "); hPrintf("secondary structure predictions and folding calculations. "); hPrintf("The estimated folding energy is in kcal/mol. The more "); hPrintf("negative the energy, the more secondary structure the RNA "); hPrintf("is likely to have."); } struct section *rnaStructureSection(struct sqlConnection *conn, struct hash *sectionRa) /* Create rnaStructure section. */ { struct section *section = sectionNew(sectionRa, "rnaStructure"); if (section != NULL) { section->exists = rnaStructureExists; section->print = rnaStructurePrint; } return section; } struct rnaFold *loadFold(struct sqlConnection *conn, char *table, char *name) /* Load named fold from table. */ { struct rnaFold *fold = NULL; struct sqlResult *sr; char query[256], **row; safef(query, sizeof(query), "select * from %s where name = '%s'", table, name); sr = sqlGetResult(conn, query); if ((row = sqlNextRow(sr)) != NULL) fold = rnaFoldLoad(row); sqlFreeResult(&sr); return fold; } void doRnaFoldDisplay(struct sqlConnection *conn, char *geneId, char *geneName) /* Show RNA folding somehow. */ { char *table = cartString(cart, hggMrnaFoldRegion); char *how = cartString(cart, hggDoRnaFoldDisplay); struct rnaFold *fold = loadFold(conn, table, geneId); if (fold == NULL) { warn("Couldn't load %s from %s", geneId, table); return; } if (sameString(how, "text")) { hPrintf("
");
    hPrintf("%s\n%s (%1.2f)\n", fold->seq, fold->fold, fold->energy);
    hPrintf("
"); } else if (sameString(how, "picture")) { char *psFile = cartString(cart, hggMrnaFoldPs); char *rootName = cloneString(psFile); char pngName[256]; char pdfName[256]; chopSuffix(rootName); safef(pngName, sizeof(pngName), "%s.png", rootName); safef(pdfName, sizeof(pngName), "%s.pdf", rootName); hPrintf("

%s (%s) %s energy %1.2f

\n", geneName, geneId, table, fold->energy); if (!fileExists(pdfName)) { char command[512]; safef(command, sizeof(command), "ps2pdf %s %s" , psFile, pdfName); mustSystem(command); } hPrintf("Click here for PDF version
", pdfName); if (!fileExists(pngName)) { char command[512]; safef(command, sizeof(command), "gs -sDEVICE=png16m -sOutputFile=%s -dBATCH -dNOPAUSE -q %s" , pngName, psFile); mustSystem(command); } hPrintf("", pngName); } }