AjBool gFormatGenbank(AjPSeq seq, AjPStr *inseq){
AjPSeqout seqout = NULL;
AjPFeattabOut featout = NULL;
AjPFeattable feat = NULL;
AjPStr seqline = NULL;
AjPStr featline = NULL;
AjPFile seqfile = NULL;
AjPFile featfile = NULL;
AjPStr filename = NULL;
gAssignUniqueName(&filename);
feat = ajSeqGetFeatCopy(seq);
if(!feat)
return ajFalse;
seqout = ajSeqoutNew();
if(!ajSeqoutOpenFilename(seqout,filename))
embExitBad();
ajSeqoutSetFormatS(seqout,ajStrNewC("genbank"));
ajSeqoutWriteSeq(seqout,seq);
ajSeqoutClose(seqout);
ajSeqoutDel(&seqout);
seqfile = ajFileNewInNameS(filename);
ajSysFileUnlinkS(filename);
featout = ajFeattabOutNew();
if(!ajFeattabOutOpen(featout,filename))
return ajFalse;
ajFeattableWriteGenbank(featout,feat);
ajFeattableDel(&feat);
//ajFeattabOutDel(&featout);
ajFileClose(&(featout->Handle));
featfile = ajFileNewInNameS(filename);
ajSysFileUnlinkS(filename);
while(ajReadline(seqfile,&seqline)){
if(ajStrMatchC(seqline,"ORIGIN\n")){
while(ajReadline(featfile,&featline)){
ajStrAppendS(inseq, featline);
}
}
ajStrAppendS(inseq, seqline);
}
ajStrDel(&seqline);
ajStrDel(&featline);
ajStrDel(&filename);
ajFileClose(&seqfile);
ajFileClose(&featfile);
return ajTrue;
}
static size_t dbiblast_memfseek(PMemFile mf, ajlong offset, ajint whence)
{
if(mf->IsMem)
{ /* memory mapped */
switch(whence)
{
case 0:
mf->Pos = offset;
break;
case 1:
mf->Pos += offset;
break;
case 2:
mf->Pos = mf->Size + offset;
break;
default:
ajErr("invalid memfseek code %d", whence);
embExitBad();
}
if(mf->Pos > mf->Size)
mf->Pos = mf->Size;
if(mf->Pos < 0)
mf->Pos = 0;
return 0;
}
return ajFileSeek( mf->File, offset, whence);
}
int main(int argc, char **argv)
{
AjPSeqall seqall;
AjPSeq seq = NULL;
AjPFile primerFile; /* read the primer pairs from a file */
AjPFile outf;
AjPList primerList;
ajint mmp = 0;
embInit("primersearch", argc, argv);
seqall = ajAcdGetSeqall("seqall");
outf = ajAcdGetOutfile("outfile");
primerFile = ajAcdGetInfile("infile");
mmp = ajAcdGetInt("mismatchpercent");
/* build list of forward/reverse primer pairs as read from primerfile */
primerList = ajListNew();
/* read in primers from primerfile, classify and compile them */
primersearch_read_primers(&primerList,primerFile, mmp);
/* check there are primers to be searched */
if(!ajListGetLength(primerList))
{
ajErr("No suitable primers found - exiting");
embExitBad();
return 0;
}
/* query sequences one by one */
while(ajSeqallNext(seqall,&seq))
primersearch_primer_search(primerList, seq);
/* output the results */
primersearch_print_hits(primerList, outf);
/* delete all nodes of list, then the list itself */
ajListMap(primerList, primersearch_free_primer, NULL);
ajListFree(&primerList);
ajListFree(&primerList);
ajFileClose(&outf);
ajSeqallDel(&seqall);
ajSeqDel(&seq);
ajFileClose(&primerFile);
embExit();
return 0;
}
int main(int argc, char **argv) {
embInitPV("kmafft", argc, argv, "KBWS", "1.0.8");
struct soap soap;
struct ns1__mafftInputParams params;
char* jobid;
char* result;
AjPSeqall seqall;
AjPSeq seq;
AjPFile outf;
AjPStr substr;
AjPStr inseq = NULL;
AjPStr strategy;
AjPStr outorder;
float op;
float ep;
AjPStr scorematrix;
AjBool homologs;
AjBool showhomologs;
float threshold;
AjPStr referenceseq;
AjPStr harrplot;
strategy = ajAcdGetString("strategy");
outorder = ajAcdGetString("outorder");
op = ajAcdGetFloat("op");
ep = ajAcdGetFloat("ep");
scorematrix = ajAcdGetString("scorematrix");
homologs = ajAcdGetBoolean("homologs");
showhomologs = ajAcdGetBoolean("showhomologs");
threshold = ajAcdGetFloat("threshold");
referenceseq = ajAcdGetString("referenceseq");
harrplot = ajAcdGetString("harrplot");
seqall = ajAcdGetSeqall("seqall");
outf = ajAcdGetOutfile("outfile");
params.strategy = ajCharNewS(strategy);
params.outorder = ajCharNewS(outorder);
params.op = op;
params.ep = ep;
params.scorematrix = ajCharNewS(scorematrix);
if (homologs) {
params.homologs = xsd__boolean__true_;
} else {
params.homologs = xsd__boolean__false_;
}
if (showhomologs) {
params.showhomologs = xsd__boolean__true_;
} else {
params.showhomologs = xsd__boolean__false_;
}
params.threshold = threshold;
params.referenceseq = ajCharNewS(referenceseq);
params.harrplot = ajCharNewS(harrplot);
AjPStr tmp = NULL;
AjPStr tmpFileName = NULL;
AjPSeqout fil_file;
AjPStr line = NULL; /* if "AjPStr line; -> ajReadline is not success!" */
AjPStr sizestr = NULL;
ajint thissize;
ajint nb = 0;
AjBool are_prot = ajFalse;
ajint size = 0;
AjPFile infile;
tmp = ajStrNewC("fasta");
fil_file = ajSeqoutNew();
tmpFileName = getUniqueFileName();
if( !ajSeqoutOpenFilename(fil_file, tmpFileName) ) {
embExitBad();
}
ajSeqoutSetFormatS(fil_file, tmp);
while (ajSeqallNext(seqall, &seq)) {
if (!nb) {
are_prot = ajSeqIsProt(seq);
}
ajSeqoutWriteSeq(fil_file, seq);
++nb;
}
ajSeqoutClose(fil_file);
ajSeqoutDel(&fil_file);
if (nb < 2) {
ajFatal("Multiple alignments need at least two sequences");
}
infile = ajFileNewInNameS(tmpFileName);
while (ajReadline(infile, &line)) {
ajStrAppendS(&inseq,line);
ajStrAppendC(&inseq,"\n");
}
soap_init(&soap);
char* in0;
in0 = ajCharNewS(inseq);
if ( soap_call_ns1__runMafft( &soap, NULL, NULL, in0, ¶ms, &jobid ) == SOAP_OK ) {
fprintf(stderr,"Jobid: %s\n",jobid);
} else {
soap_print_fault(&soap, stderr);
}
int check = 0;
while ( check == 0 ) {
if ( soap_call_ns1__checkStatus( &soap, NULL, NULL, jobid, &check ) == SOAP_OK ) {
fprintf(stderr,"*");
} else {
soap_print_fault(&soap, stderr);
}
sleep(3);
}
fprintf(stderr,"\n");
if ( soap_call_ns1__getResult( &soap, NULL, NULL, jobid, &result ) == SOAP_OK ) {
substr = ajStrNewC(result);
ajFmtPrintF(outf,"%S\n",substr);
} else {
soap_print_fault(&soap, stderr);
}
ajSysFileUnlinkS(tmpFileName);
soap_destroy(&soap);
soap_end(&soap);
soap_done(&soap);
ajFileClose(&outf);
ajSeqallDel(&seqall);
ajSeqDel(&seq);
ajStrDel(&substr);
embExit();
return 0;
}
int main(int argc, char **argv) {
// initialize EMBASSY info
embInitPV("kweblogo", argc, argv, "KBWS", "1.0.9");
// soap driver and parameter object
struct soap soap;
struct ns1__weblogoInputParams params;
char* jobid;
AjPSeqall seqall;
AjPSeq seq;
AjPStr substr;
AjPStr inseq = NULL;
// get input sequence
seqall= ajAcdGetSeqall("seqall");
// get/set parameters
params.format = ajCharNewS(ajAcdGetString("format"));
AjPStr tmp= NULL;
AjPStr tmpFileName= NULL;
AjPSeqout fil_file;
AjPStr line= NULL; /* if "AjPStr line; -> ajReadline is not success!" */
AjPStr sizestr= NULL;
ajint thissize;
ajint nb= 0;
AjBool are_prot= ajFalse;
ajint size= 0;
AjPFile infile;
AjPFile goutf;
AjPStr goutfile;
goutfile= ajAcdGetString("goutfile");
tmp= ajStrNewC("fasta");
fil_file= ajSeqoutNew();
tmpFileName= getUniqueFileName();
if(!ajSeqoutOpenFilename(fil_file, tmpFileName)) {
embExitBad();
}
ajSeqoutSetFormatS(fil_file, tmp);
while (ajSeqallNext(seqall, &seq)) {
if (!nb) {
are_prot = ajSeqIsProt(seq);
}
ajSeqoutWriteSeq(fil_file, seq);
++nb;
}
ajSeqoutClose(fil_file);
ajSeqoutDel(&fil_file);
if (nb < 2) {
ajFatal("Multiple alignments need at least two sequences");
}
infile = ajFileNewInNameS(tmpFileName);
while (ajReadline(infile, &line)) {
ajStrAppendS(&inseq,line);
ajStrAppendC(&inseq,"\n");
}
soap_init(&soap);
char* in0;
in0= ajCharNewS(inseq);
if (soap_call_ns1__runWeblogo( &soap, NULL, NULL, in0, ¶ms, &jobid) == SOAP_OK) {
} else {
soap_print_fault(&soap, stderr);
}
int check= 0;
while (check == 0 ) {
if (soap_call_ns1__checkStatus(&soap, NULL, NULL, jobid, &check) == SOAP_OK) {
} else {
soap_print_fault(&soap, stderr);
}
sleep(3);
}
char* image_url;
if (soap_call_ns1__getResult(&soap, NULL, NULL, jobid, &image_url) == SOAP_OK) {
goutf= ajFileNewOutNameS(goutfile);
if (!goutf) {
// can not open image output file
ajFmtError("Problem writing out image file");
embExitBad();
}
if (!gHttpGetBinC(image_url, &goutf)) {
// can not download image file
ajFmtError("Problem downloading image file");
embExitBad();
}
} else {
soap_print_fault(&soap, stderr);
}
// delete temporary multi-fasta sequence file
ajSysFileUnlinkS(tmpFileName);
// destruct SOAP driver
soap_destroy(&soap);
soap_end(&soap);
soap_done(&soap);
// destruct EMBOSS object
ajSeqallDel(&seqall);
ajSeqDel(&seq);
ajStrDel(&substr);
// exit
embExit();
return 0;
}
int main(int argc, char **argv)
{
AjPSeqset seq1;
AjPSeqset seq2;
AjPFile list;
ajint n1;
ajint n2;
ajint *lengths1;
ajint *lengths2;
ajuint *order1;
ajuint *order2;
ajint *hits1;
ajint *hits2;
ajint curr1;
ajint curr2;
ajint tmp1;
ajint tmp2 = 0;
ajint i;
AjPStr operator;
ajint OperatorCode=0;
embInit("listor", argc, argv);
seq1 = ajAcdGetSeqset("firstsequences");
seq2 = ajAcdGetSeqset("secondsequences");
list = ajAcdGetOutfile("outfile");
operator = ajAcdGetListSingle("operator");
/* get the operator value */
switch(ajStrGetCharFirst(operator))
{
case 'O':
OperatorCode = L_OR;
break;
case 'A':
OperatorCode = L_AND;
break;
case 'X':
OperatorCode = L_XOR;
break;
case 'N':
OperatorCode = L_NOT;
break;
default:
ajFatal("Invalid operator type: %S", operator);
embExitBad();
}
/* get the order of seqset 1 by length */
n1 = ajSeqsetGetSize(seq1);
/* lengths of seq1 entries */
lengths1 = AJCALLOC0(n1, sizeof(ajint));
/* seq1 entries which match seq2 */
hits1 = AJCALLOC0(n1, sizeof(ajint));
/* seq1 entries in length order */
order1 = AJCALLOC0(n1, sizeof(ajint));
for(i=0; i<n1; i++)
{
lengths1[i] = ajSeqGetLen(ajSeqsetGetseqSeq(seq1, i));
order1[i] = i;
hits1[i] = -1;
}
ajSortIntIncI(lengths1, order1, n1);
/* get the order of seqset 2 by length */
n2 = ajSeqsetGetSize(seq2);
lengths2 = AJCALLOC0(n2, sizeof(ajint));
hits2 = AJCALLOC0(n2, sizeof(ajint));
order2 = AJCALLOC0(n2, sizeof(ajint));
for(i=0; i<n2; i++)
{
lengths2[i] = ajSeqGetLen(ajSeqsetGetseqSeq(seq2, i));
order2[i] = i;
hits2[i] = -1;
}
ajSortIntIncI(lengths2, order2, n2);
/*
** go down the two sequence sets, by size order, looking for identical
**lengths
*/
curr1 = 0;
curr2 = 0;
while(curr1 < n1 && curr2 < n2)
{
if(lengths1[order1[curr1]] < lengths2[order2[curr2]])
/* seq1 is shorter - increment curr1 index */
curr1++;
else if(lengths1[order1[curr1]] > lengths2[order2[curr2]])
/* seq2 is shorter - increment curr2 index */
curr2++;
else
{
/* identical lengths - check all seq1/seq2 entries of this len */
for(tmp1=curr1; tmp1<n1
&& lengths1[order1[tmp1]] == lengths2[order2[curr2]]; tmp1++)
for(tmp2=curr2; tmp2<n2 && lengths2[order2[tmp2]] ==
lengths2[order2[curr2]]; tmp2++)
/* check to see if the sequences are identical */
if(!ajStrCmpCaseS(ajSeqGetSeqS(ajSeqsetGetseqSeq(seq1,
order1[tmp1])),
ajSeqGetSeqS(ajSeqsetGetseqSeq(seq2,
order2[tmp2]))))
{
hits1[order1[tmp1]] = order2[tmp2];
hits2[order2[tmp2]] = order1[tmp1];
}
curr1 = tmp1;
curr2 = tmp2;
}
}
/* output the required entries to the list file */
listor_Output(list, OperatorCode, seq1, seq2, hits1, hits2, n1, n2);
AJFREE(lengths1);
AJFREE(lengths2);
AJFREE(order1);
AJFREE(order2);
AJFREE(hits1);
AJFREE(hits2);
ajFileClose(&list);
ajStrDel(&operator);
ajSeqsetDel(&seq1);
ajSeqsetDel(&seq2);
embExit();
return 0;
}
int main(int argc, char *argv[])
{
embInitPV("goligomersearch", argc, argv, "GEMBASSY", "1.0.3");
AjPSeqall seqall;
AjPSeq seq;
AjPStr inseq = NULL;
AjPStr oligomer = NULL;
AjPStr restid = NULL;
AjPStr seqid = NULL;
AjPStr base = NULL;
AjPStr url = NULL;
AjPStr _return = NULL;
AjPStr tmpname = NULL;
AjPSeqout tmpout = NULL;
AjPFilebuff tmp = NULL;
AjPStr line = NULL;
AjPFile outfile = NULL;
seqall = ajAcdGetSeqall("sequence");
oligomer = ajAcdGetString("oligomer");
_return = ajAcdGetSelectSingle("return");
outfile = ajAcdGetOutfile("outfile");
base = ajStrNewC("rest.g-language.org");
gAssignUniqueName(&tmpname);
ajStrAppendC(&tmpname, ".fasta");
while(ajSeqallNext(seqall, &seq))
{
inseq = NULL;
tmpout = ajSeqoutNew();
if(!ajSeqoutOpenFilename(tmpout, tmpname))
{
embExitBad();
}
ajSeqoutSetFormatS(tmpout,ajStrNewC("fasta"));
ajSeqoutWriteSeq(tmpout, seq);
ajSeqoutClose(tmpout);
ajSeqoutDel(&tmpout);
ajFmtPrintS(&url, "http://%S/upload/upl.pl", base);
gFilePostSS(url, tmpname, &restid);
ajStrDel(&url);
ajSysFileUnlinkS(tmpname);
ajStrAssignS(&seqid, ajSeqGetAccS(seq));
if(ajStrGetLen(seqid) == 0)
{
ajStrAssignS(&seqid, ajSeqGetNameS(seq));
}
if(ajStrGetLen(seqid) == 0)
{
ajWarn("No valid header information\n");
}
url = ajStrNew();
ajFmtPrintS(&url, "http://%S/%S/oligomer_search/%S/return=%S",
base, restid, oligomer, _return);
if(!gFilebuffURLS(url, &tmp))
{
ajDie("Failed to download result from:\n%S\n", url);
}
ajBuffreadLine(tmp, &line);
ajStrRemoveSetC(&line, "\n");
ajFmtPrintF(outfile, "Sequence: %S Oligomer: %S Return: %S\n",
seqid, oligomer, line);
ajStrDel(&url);
ajStrDel(&restid);
ajStrDel(&seqid);
ajStrDel(&inseq);
}
ajFileClose(&outfile);
ajSeqallDel(&seqall);
ajSeqDel(&seq);
ajStrDel(&base);
ajStrDel(&oligomer);
embExit();
return 0;
}
int main(int argc, char **argv)
{
AjPSeqall seqall = NULL;
AjPFile dend_outfile = NULL;
AjPStr tmp_dendfilename = NULL;
AjPFile tmp_dendfile = NULL;
AjPStr tmp_aln_outfile = NULL;
AjPSeqset seqset = NULL;
AjPSeqout seqout = NULL;
AjPSeqin seqin = NULL;
AjBool only_dend;
AjBool are_prot = ajFalse;
AjBool do_slow;
AjBool use_dend;
AjPFile dend_file = NULL;
AjPStr dend_filename = NULL;
ajint ktup;
ajint gapw;
ajint topdiags;
ajint window;
AjBool nopercent;
AjPStr pw_matrix = NULL;
AjPStr pw_dna_matrix = NULL;
AjPFile pairwise_matrix = NULL;
float pw_gapc;
float pw_gapv;
AjPStr pwmstr = NULL;
char pwmc = '\0';
AjPStr pwdstr = NULL;
char pwdc = '\0';
AjPStr m1str = NULL;
AjPStr m2str = NULL;
char m1c = '\0';
char m2c = '\0';
AjPStr matrix = NULL;
AjPStr dna_matrix = NULL;
AjPFile ma_matrix = NULL;
float gapc;
float gapv;
AjBool endgaps;
AjBool norgap;
AjBool nohgap;
ajint gap_dist;
ajint maxdiv;
AjPStr hgapres = NULL;
AjPSeqout fil_file = NULL;
AjPSeq seq = NULL;
AjPStr cmd = NULL;
AjPStr tmp = NULL;
AjPStr tmpFilename;
AjPStr line = NULL;
ajint nb = 0;
/* get all the parameters */
embInit("emma", argc, argv);
pwmstr = ajStrNew();
pwdstr = ajStrNew();
m1str = ajStrNew();
m2str = ajStrNew();
seqall = ajAcdGetSeqall("sequence");
seqout = ajAcdGetSeqoutset("outseq");
dend_outfile = ajAcdGetOutfile("dendoutfile");
only_dend = ajAcdGetToggle("onlydend");
use_dend = ajAcdGetToggle("dendreuse");
dend_file = ajAcdGetInfile("dendfile");
if (dend_file)
ajStrAssignS(&dend_filename, ajFileGetPrintnameS(dend_file));
ajFileClose(&dend_file);
do_slow = ajAcdGetToggle("slowalign");
ktup = ajAcdGetInt("ktup");
gapw = ajAcdGetInt("gapw");
topdiags = ajAcdGetInt("topdiags");
window = ajAcdGetInt("window");
nopercent = ajAcdGetBoolean("nopercent");
pw_matrix = ajAcdGetListSingle("pwmatrix");
pwmc = ajStrGetCharFirst(pw_matrix);
if(pwmc=='b')
ajStrAssignC(&pwmstr,"blosum");
else if(pwmc=='p')
ajStrAssignC(&pwmstr,"pam");
else if(pwmc=='g')
ajStrAssignC(&pwmstr,"gonnet");
else if(pwmc=='i')
ajStrAssignC(&pwmstr,"id");
else if(pwmc=='o')
ajStrAssignC(&pwmstr,"own");
pw_dna_matrix = ajAcdGetListSingle("pwdnamatrix");
pwdc = ajStrGetCharFirst(pw_dna_matrix);
if(pwdc=='i')
ajStrAssignC(&pwdstr,"iub");
else if(pwdc=='c')
ajStrAssignC(&pwdstr,"clustalw");
else if(pwdc=='o')
ajStrAssignC(&pwdstr,"own");
pairwise_matrix = ajAcdGetInfile("pairwisedatafile");
pw_gapc = ajAcdGetFloat( "pwgapopen");
pw_gapv = ajAcdGetFloat( "pwgapextend");
matrix = ajAcdGetListSingle( "matrix");
m1c = ajStrGetCharFirst(matrix);
if(m1c=='b')
ajStrAssignC(&m1str,"blosum");
else if(m1c=='p')
ajStrAssignC(&m1str,"pam");
else if(m1c=='g')
ajStrAssignC(&m1str,"gonnet");
else if(m1c=='i')
ajStrAssignC(&m1str,"id");
else if(m1c=='o')
ajStrAssignC(&m1str,"own");
dna_matrix = ajAcdGetListSingle( "dnamatrix");
m2c = ajStrGetCharFirst(dna_matrix);
if(m2c=='i')
ajStrAssignC(&m2str,"iub");
else if(m2c=='c')
ajStrAssignC(&m2str,"clustalw");
else if(m2c=='o')
ajStrAssignC(&m2str,"own");
ma_matrix = ajAcdGetInfile("mamatrixfile");
gapc = ajAcdGetFloat("gapopen");
gapv = ajAcdGetFloat("gapextend");
endgaps = ajAcdGetBoolean("endgaps");
norgap = ajAcdGetBoolean("norgap");
nohgap = ajAcdGetBoolean("nohgap");
gap_dist = ajAcdGetInt("gapdist");
hgapres = ajAcdGetString("hgapres");
maxdiv = ajAcdGetInt("maxdiv");
tmp = ajStrNewC("fasta");
/*
** Start by writing sequences into a unique temporary file
** get file pointer to unique file
*/
fil_file = ajSeqoutNew();
tmpFilename = emma_getUniqueFileName();
if(!ajSeqoutOpenFilename( fil_file, tmpFilename))
embExitBad();
/* Set output format to fasta */
ajSeqoutSetFormatS( fil_file, tmp);
while(ajSeqallNext(seqall, &seq))
{
/*
** Check sequences are all of the same type
** Still to be done
** Write out sequences
*/
if (!nb)
are_prot = ajSeqIsProt(seq);
ajSeqoutWriteSeq(fil_file, seq);
++nb;
}
ajSeqoutClose(fil_file);
if(nb < 2)
ajFatal("Multiple alignments need at least two sequences");
/* Generate clustalw command line */
cmd = ajStrNewS(ajAcdGetpathC("clustalw"));
/* add tmp file containing sequences */
ajStrAppendC(&cmd, " -infile=");
ajStrAppendS(&cmd, tmpFilename);
/* add out file name */
tmp_aln_outfile = emma_getUniqueFileName();
ajStrAppendC(&cmd, " -outfile=");
ajStrAppendS(&cmd, tmp_aln_outfile);
/* calculating just the nj tree or doing full alignment */
if(only_dend)
ajStrAppendC(&cmd, " -tree");
else
if(!use_dend)
ajStrAppendC(&cmd, " -align");
/* Set sequence type from information from acd file */
if(are_prot)
ajStrAppendC(&cmd, " -type=protein");
else
ajStrAppendC(&cmd, " -type=dna");
/*
** set output to MSF format - will read in this file later and output
** user requested format
*/
ajStrAppendC(&cmd, " -output=");
ajStrAppendC(&cmd, "gcg");
/* If going to do pairwise alignment */
if(!use_dend)
{
/* add fast pairwise alignments*/
if(!do_slow)
{
ajStrAppendC(&cmd, " -quicktree");
ajStrAppendC(&cmd, " -ktuple=");
ajStrFromInt(&tmp, ktup);
ajStrAppendS(&cmd, tmp);
ajStrAppendC(&cmd, " -window=");
ajStrFromInt(&tmp, window);
ajStrAppendS(&cmd, tmp);
if(nopercent)
ajStrAppendC(&cmd, " -score=percent");
else
ajStrAppendC(&cmd, " -score=absolute");
ajStrAppendC(&cmd, " -topdiags=");
ajStrFromInt(&tmp, topdiags);
ajStrAppendS(&cmd, tmp);
ajStrAppendC(&cmd, " -pairgap=");
ajStrFromInt(&tmp, gapw);
ajStrAppendS(&cmd, tmp);
}
else
{
if(pairwise_matrix)
{
if(are_prot)
ajStrAppendC(&cmd, " -pwmatrix=");
else
ajStrAppendC(&cmd, " -pwdnamatrix=");
ajStrAppendS(&cmd, ajFileGetPrintnameS(pairwise_matrix));
}
else
{
if(are_prot)
{
ajStrAppendC(&cmd, " -pwmatrix=");
ajStrAppendS(&cmd, pwmstr);
}
else
{
ajStrAppendC(&cmd, " -pwdnamatrix=");
ajStrAppendS(&cmd, pwdstr);
}
}
ajStrAppendC(&cmd, " -pwgapopen=");
ajStrFromFloat(&tmp, pw_gapc, 3);
ajStrAppendS(&cmd, tmp);
ajStrAppendC(&cmd, " -pwgapext=");
ajStrFromFloat(&tmp, pw_gapv, 3);
ajStrAppendS(&cmd, tmp);
}
}
/* Multiple alignments */
/* using existing tree or generating new tree? */
if(use_dend)
{
ajStrAppendC(&cmd, " -usetree=");
ajStrAppendS(&cmd, dend_filename);
}
else
{
/* use tmp file to hold dend file, will read back in later */
tmp_dendfilename = emma_getUniqueFileName();
ajStrAppendC(&cmd, " -newtree=");
ajStrAppendS(&cmd, tmp_dendfilename);
}
if(ma_matrix)
{
if(are_prot)
ajStrAppendC(&cmd, " -matrix=");
else
ajStrAppendC(&cmd, " -pwmatrix=");
ajStrAppendS(&cmd, ajFileGetPrintnameS(ma_matrix));
}
else
{
if(are_prot)
{
ajStrAppendC(&cmd, " -matrix=");
ajStrAppendS(&cmd, m1str);
}
else
{
ajStrAppendC(&cmd, " -dnamatrix=");
ajStrAppendS(&cmd, m2str);
}
}
ajStrAppendC(&cmd, " -gapopen=");
ajStrFromFloat(&tmp, gapc, 3);
ajStrAppendS(&cmd, tmp);
ajStrAppendC(&cmd, " -gapext=");
ajStrFromFloat(&tmp, gapv, 3);
ajStrAppendS(&cmd, tmp);
ajStrAppendC(&cmd, " -gapdist=");
ajStrFromInt(&tmp, gap_dist);
ajStrAppendS(&cmd, tmp);
ajStrAppendC(&cmd, " -hgapresidues=");
ajStrAppendS(&cmd, hgapres);
if(!endgaps)
ajStrAppendC(&cmd, " -endgaps");
if(norgap)
ajStrAppendC(&cmd, " -nopgap");
if(nohgap)
ajStrAppendC(&cmd, " -nohgap");
ajStrAppendC(&cmd, " -maxdiv=");
ajStrFromInt(&tmp, maxdiv);
ajStrAppendS(&cmd, tmp);
/* run clustalw */
/* ajFmtError("..%s..\n\n", ajStrGetPtr( cmd)); */
ajDebug("Executing '%S'\n", cmd);
ajSysExecS(cmd);
/* produce alignment file only if one was produced */
if(!only_dend)
{
/* read in tmp alignment output file to output through EMBOSS output */
seqin = ajSeqinNew();
/*
** add the Usa format to the start of the filename to tell EMBOSS
** format of file
*/
ajStrInsertC(&tmp_aln_outfile, 0, "msf::");
ajSeqinUsa(&seqin, tmp_aln_outfile);
seqset = ajSeqsetNew();
if(ajSeqsetRead(seqset, seqin))
{
ajSeqoutWriteSet(seqout, seqset);
ajSeqoutClose(seqout);
ajSeqinDel(&seqin);
/* remove the Usa from the start of the string */
ajStrCutStart(&tmp_aln_outfile, 5);
}
else
ajFmtError("Problem writing out EMBOSS alignment file\n");
}
/* read in new tmp dend file (if produced) to output through EMBOSS */
if(tmp_dendfilename!=NULL)
{
tmp_dendfile = ajFileNewInNameS( tmp_dendfilename);
if(tmp_dendfile!=NULL){
while(ajReadlineTrim(tmp_dendfile, &line))
ajFmtPrintF(dend_outfile, "%s\n", ajStrGetPtr( line));
ajFileClose(&tmp_dendfile);
ajSysFileUnlinkS(tmp_dendfilename);
}
}
ajSysFileUnlinkS(tmpFilename);
if(!only_dend)
ajSysFileUnlinkS(tmp_aln_outfile);
ajStrDel(&pw_matrix);
ajStrDel(&matrix);
ajStrDel(&pw_dna_matrix);
ajStrDel(&dna_matrix);
ajStrDel(&tmp_dendfilename);
ajStrDel(&dend_filename);
ajStrDel(&tmp_aln_outfile);
ajStrDel(&pwmstr);
ajStrDel(&pwdstr);
ajStrDel(&m1str);
ajStrDel(&m2str);
ajStrDel(&hgapres);
ajStrDel(&cmd);
ajStrDel(&tmp);
ajStrDel(&tmpFilename);
ajStrDel(&line);
ajFileClose(&dend_outfile);
ajFileClose(&tmp_dendfile);
ajFileClose(&dend_file);
ajFileClose(&pairwise_matrix);
ajFileClose(&ma_matrix);
ajSeqallDel(&seqall);
ajSeqsetDel(&seqset);
ajSeqDel(&seq);
ajSeqoutDel(&seqout);
ajSeqoutDel(&fil_file);
ajSeqinDel(&seqin);
embExit();
return 0;
}
int main(int argc, char **argv) {
embInitPV("kclustalw", argc, argv, "KBWS", "1.0.8");
struct soap soap;
struct ns1__clustalwInputParams params;
char* jobid;
char* result;
AjPSeqall seqall;
AjPSeq seq;
AjPFile outf;
AjPFile outf_dnd;
AjPStr substr;
AjPStr inseq = NULL;
AjPStr alignment;
AjPStr output;
AjPStr matrix;
AjPStr outorder;
ajint ktup;
ajint window;
ajint gapopen;
float gapext;
ajint gapdist;
AjBool endgaps;
ajint pairgap;
ajint topdiags;
AjPStr score;
AjBool tossgaps;
AjBool kimura;
AjPStr outputtree;
AjBool tree;
AjBool quicktree;
AjBool align;
AjPStr clustering;
ajint numiter;
AjPStr iteration;
alignment = ajAcdGetString("alignment");
output = ajAcdGetString("output");
matrix = ajAcdGetString("matrix");
outorder = ajAcdGetString("outorder");
ktup = ajAcdGetInt("ktup");
window = ajAcdGetInt("window");
gapopen = ajAcdGetInt("gapopen");
gapext = ajAcdGetFloat("gapext");
gapdist = ajAcdGetInt("gapdist");
endgaps = ajAcdGetBoolean("endgaps");
pairgap = ajAcdGetInt("pairgap");
topdiags = ajAcdGetInt("topdiags");
score = ajAcdGetString("score");
tossgaps = ajAcdGetBoolean("tossgaps");
kimura = ajAcdGetBoolean("kimura");
outputtree = ajAcdGetString("outputtree");
tree = ajAcdGetBoolean("tree");
quicktree = ajAcdGetBoolean("quicktree");
align = ajAcdGetBoolean("align");
clustering = ajAcdGetString("clustering");
numiter = ajAcdGetInt("numiter");
iteration = ajAcdGetString("iteration");
seqall = ajAcdGetSeqall("seqall");
outf = ajAcdGetOutfile("outfile");
outf_dnd = ajAcdGetOutfile("dndoutfile");
params.alignment = ajCharNewS(alignment);
params.output = ajCharNewS(output);
params.matrix = ajCharNewS(matrix);
params.outorder = ajCharNewS(outorder);
params.ktup = ktup;
params.window = window;
params.gapopen = gapopen;
params.gapext = gapext;
params.gapdist = gapdist;
if (endgaps) {
params.endgaps = xsd__boolean__true_;
} else {
params.endgaps = xsd__boolean__false_;
}
params.pairgap = pairgap;
params.topdiags = topdiags;
params.score = ajCharNewS(score);
if (tossgaps) {
params.tossgaps = xsd__boolean__true_;
} else {
params.tossgaps = xsd__boolean__false_;
}
if (kimura) {
params.kimura = xsd__boolean__true_;
} else {
params.kimura = xsd__boolean__false_;
}
params.outputtree = ajCharNewS(outputtree);
if (tree) {
params.tree = xsd__boolean__true_;
} else {
params.tree = xsd__boolean__false_;
}
if (quicktree) {
params.quicktree = xsd__boolean__true_;
} else {
params.quicktree = xsd__boolean__false_;
}
if (align) {
params.align = xsd__boolean__true_;
} else {
params.align = xsd__boolean__false_;
}
params.clustering = ajCharNewS(clustering);
params.numiter = numiter;
params.iteration = ajCharNewS(iteration);
AjPStr tmp = NULL;
AjPStr tmpFileName = NULL;
AjPSeqout fil_file;
AjPStr line = NULL; /* if "AjPStr line; -> ajReadline is not success!" */
AjPStr sizestr = NULL;
ajint thissize;
ajint nb = 0;
AjBool are_prot = ajFalse;
ajint size = 0;
AjPFile infile;
tmp = ajStrNewC("fasta");
fil_file = ajSeqoutNew();
tmpFileName = getUniqueFileName();
if( !ajSeqoutOpenFilename(fil_file, tmpFileName) ) {
embExitBad();
}
ajSeqoutSetFormatS(fil_file, tmp);
while (ajSeqallNext(seqall, &seq)) {
if (!nb) {
are_prot = ajSeqIsProt(seq);
}
ajSeqoutWriteSeq(fil_file, seq);
++nb;
}
ajSeqoutClose(fil_file);
ajSeqoutDel(&fil_file);
if (nb < 2) {
ajFatal("Multiple alignments need at least two sequences");
}
infile = ajFileNewInNameS(tmpFileName);
while (ajReadline(infile, &line)) {
ajStrAppendS(&inseq,line);
ajStrAppendC(&inseq,"\n");
}
soap_init(&soap);
char* in0;
in0 = ajCharNewS(inseq);
if ( soap_call_ns1__runClustalw( &soap, NULL, NULL, in0, ¶ms, &jobid ) == SOAP_OK ) {
fprintf(stderr,"Jobid: %s\n",jobid);
} else {
soap_print_fault(&soap, stderr);
}
int check = 0;
while ( check == 0 ) {
if ( soap_call_ns1__checkStatus( &soap, NULL, NULL, jobid, &check ) == SOAP_OK ) {
fprintf(stderr,"*");
} else {
soap_print_fault(&soap, stderr);
}
sleep(3);
}
fprintf(stderr,"\n");
char* type;
type = "out";
if(soap_call_ns1__getMultiResult( &soap, NULL, NULL, jobid, type, &result )== SOAP_OK) {
substr = ajStrNewC(result);
fprintf(stdout, "%s\n", ajStrGetPtr(substr));
} else {
soap_print_fault(&soap, stderr);
}
type = "aln";
if(soap_call_ns1__getMultiResult( &soap, NULL, NULL, jobid, type, &result )== SOAP_OK) {
substr = ajStrNewC(result);
ajFmtPrintF(outf,"%S\n",substr);
} else {
soap_print_fault(&soap, stderr);
}
type = "dnd";
if(soap_call_ns1__getMultiResult( &soap, NULL, NULL, jobid, type, &result )== SOAP_OK) {
substr = ajStrNewC(result);
ajFmtPrintF(outf_dnd,"%S\n",substr);
} else {
soap_print_fault(&soap, stderr);
}
ajSysFileUnlinkS(tmpFileName);
soap_destroy(&soap);
soap_end(&soap);
soap_done(&soap);
ajFileClose(&outf_dnd);
ajFileClose(&outf);
ajSeqallDel(&seqall);
ajSeqDel(&seq);
ajStrDel(&substr);
embExit();
return 0;
}
int main(int argc, char *argv[])
{
embInitPV("ggeneskew", argc, argv, "GEMBASSY", "1.0.3");
AjPSeqall seqall;
AjPSeq seq;
AjPStr inseq = NULL;
ajint window = 0;
ajint slide = 0;
AjBool cumulative = ajFalse;
AjBool gc3 = ajFalse;
AjPStr basetype = NULL;
AjBool accid = ajFalse;
AjPStr restid = NULL;
AjPStr seqid = NULL;
AjPStr base = NULL;
AjPStr url = NULL;
AjPFile tmpfile = NULL;
AjPStr tmpname = NULL;
AjBool plot = 0;
AjPFile outf = NULL;
AjPFilebuff buff = NULL;
AjPGraph mult = NULL;
gPlotParams gpp;
AjPStr title = NULL;
seqall = ajAcdGetSeqall("sequence");
window = ajAcdGetInt("window");
slide = ajAcdGetInt("slide");
cumulative = ajAcdGetBoolean("cumulative");
gc3 = ajAcdGetBoolean("gctri");
basetype = ajAcdGetSelectSingle("base");
accid = ajAcdGetBoolean("accid");
plot = ajAcdGetToggle("plot");
outf = ajAcdGetOutfile("outfile");
mult = ajAcdGetGraphxy("graph");
if(ajStrMatchC(base, "none"))
basetype = ajStrNewC("");
base = ajStrNewC("rest.g-language.org");
gAssignUniqueName(&tmpname);
while(ajSeqallNext(seqall, &seq))
{
inseq = NULL;
if(!accid)
{
if(gFormatGenbank(seq, &inseq))
{
gAssignUniqueName(&tmpname);
tmpfile = ajFileNewOutNameS(tmpname);
if(!tmpfile)
{
ajFmtError("Output file (%S) open error\n", tmpname);
embExitBad();
}
ajFmtPrintF(tmpfile, "%S", inseq);
ajFileClose(&tmpfile);
ajFmtPrintS(&url, "http://%S/upload/upl.pl", base);
gFilePostSS(url, tmpname, &restid);
ajStrDel(&url);
ajSysFileUnlinkS(tmpname);
}
else
{
ajFmtError("Sequence does not have features\n"
"Proceeding with sequence accession ID\n");
accid = ajTrue;
}
}
ajStrAssignS(&seqid, ajSeqGetAccS(seq));
if(ajStrGetLen(seqid) == 0)
{
ajStrAssignS(&seqid, ajSeqGetNameS(seq));
}
if(ajStrGetLen(seqid) == 0)
{
ajWarn("No valid header information\n");
}
if(accid)
{
ajStrAssignS(&restid, seqid);
if(ajStrGetLen(seqid) == 0)
{
ajDie("Cannot proceed without header with -accid\n");
}
if(!gValID(seqid))
{
ajDie("Invalid accession ID:%S, exiting\n", seqid);
}
}
url = ajStrNew();
ajFmtPrintS(&url, "http://%S/%S/geneskew/window=%d/slide=%d/"
"cumulative=%d/gc3=%d/base=%S/output=f/tag=gene",
base, restid, window, slide, cumulative, gc3, basetype);
if(plot)
{
title = ajStrNew();
ajStrAppendC(&title, argv[0]);
ajStrAppendC(&title, " of ");
ajStrAppendS(&title, seqid);
gpp.title = ajStrNewS(title);
gpp.xlab = ajStrNewC("gene skew");
gpp.ylab = ajStrNewC("bp");
if(!gFilebuffURLS(url, &buff))
{
ajDie("File downloading error from:\n%S\n", url);
}
if(!gPlotFilebuff(buff, mult, &gpp))
{
ajDie("Error in plotting\n");
}
AJFREE(gpp.title);
AJFREE(gpp.xlab);
AJFREE(gpp.ylab);
ajStrDel(&title);
ajFilebuffDel(&buff);
}
else
{
ajFmtPrintF(outf, "Sequence: %S\n", seqid);
if(!gFileOutURLS(url, &outf))
{
ajDie("File downloading error from:\n%S\n", url);
}
}
ajStrDel(&url);
ajStrDel(&restid);
ajStrDel(&seqid);
ajStrDel(&inseq);
}
ajFileClose(&outf);
ajSeqallDel(&seqall);
ajSeqDel(&seq);
ajStrDel(&base);
embExit();
return 0;
}
int main(int argc, char *argv[])
{
embInitPV("ggcskew", argc, argv, "GEMBASSY", "1.0.3");
AjPSeqall seqall;
AjPSeq seq;
AjPStr inseq = NULL;
AjBool accid = ajFalse;
AjPStr restid = NULL;
AjPStr seqid = NULL;
AjPStr base = NULL;
AjPStr url = NULL;
AjPStr tmpname = NULL;
AjPSeqout tmpout = NULL;
ajint window = 0;
ajint slide = 0;
AjBool cumulative = 0;
AjBool at = 0;
AjBool purine = 0;
AjBool keto = 0;
AjBool plot = 0;
AjPFile outf = NULL;
AjPFilebuff buff = NULL;
AjPGraph mult = NULL;
gPlotParams gpp;
AjPStr title = NULL;
seqall = ajAcdGetSeqall("sequence");
window = ajAcdGetInt("window");
slide = ajAcdGetInt("slide");
cumulative = ajAcdGetBoolean("cumulative");
at = ajAcdGetBoolean("at");
purine = ajAcdGetBoolean("purine");
keto = ajAcdGetBoolean("keto");
plot = ajAcdGetToggle("plot");
outf = ajAcdGetOutfile("outfile");
mult = ajAcdGetGraphxy("graph");
base = ajStrNewC("rest.g-language.org");
gAssignUniqueName(&tmpname);
ajStrAppendC(&tmpname, ".fasta");
while(ajSeqallNext(seqall, &seq))
{
tmpout = ajSeqoutNew();
if(!ajSeqoutOpenFilename(tmpout, tmpname))
{
embExitBad();
}
ajSeqoutSetFormatS(tmpout,ajStrNewC("fasta"));
ajSeqoutWriteSeq(tmpout, seq);
ajSeqoutClose(tmpout);
ajSeqoutDel(&tmpout);
ajFmtPrintS(&url, "http://%S/upload/upl.pl", base);
gFilePostSS(url, tmpname, &restid);
ajStrDel(&url);
ajSysFileUnlinkS(tmpname);
ajStrAssignS(&seqid, ajSeqGetAccS(seq));
if(ajStrGetLen(seqid) == 0)
{
ajStrAssignS(&seqid, ajSeqGetNameS(seq));
}
if(ajStrGetLen(seqid) == 0)
{
ajWarn("No valid header information\n");
}
url = ajStrNew();
ajFmtPrintS(&url, "http://%S/%S/gcskew/window=%d/slide=%d/cumulative=%d/"
"at=%d/purine=%d/keto=%d/output=f/", base, restid, window,
slide, cumulative, at, purine, keto);
if(plot)
{
title = ajStrNew();
ajStrAppendC(&title, argv[0]);
ajStrAppendC(&title, " of ");
ajStrAppendS(&title, seqid);
gpp.title = ajStrNewS(title);
gpp.xlab = ajStrNewC("location");
gpp.ylab = ajStrNewC("GC skew");
if(!gFilebuffURLS(url, &buff))
{
ajDie("File downloading error from:\n%S\n", url);
}
if(!gPlotFilebuff(buff, mult, &gpp))
{
ajDie("Error in plotting\n");
}
AJFREE(gpp.title);
AJFREE(gpp.xlab);
AJFREE(gpp.ylab);
ajStrDel(&title);
ajFilebuffDel(&buff);
}
else
{
ajFmtPrintF(outf, "Sequence: %S\n", seqid);
if(!gFileOutURLS(url, &outf))
{
ajDie("File downloading error from:\n%S\n", url);
}
}
ajStrDel(&url);
ajStrDel(&restid);
ajStrDel(&seqid);
}
ajFileClose(&outf);
ajSeqallDel(&seqall);
ajSeqDel(&seq);
ajStrDel(&base);
embExit();
return 0;
}
int main(int argc, char *argv[])
{
embInitPV("gbaseinformationcontent", argc, argv, "GEMBASSY", "1.0.1");
AjPSeqall seqall;
AjPSeq seq;
AjPStr inseq = NULL;
AjPStr position = 0;
ajint PatLen = 0;
ajint upstream = 0;
ajint downstream = 0;
AjBool accid = ajFalse;
AjPStr restid = NULL;
AjPStr seqid = NULL;
AjPStr base = NULL;
AjPStr url = NULL;
AjPFile tmpfile = NULL;
AjPStr tmpname = NULL;
AjBool plot = 0;
AjPFile outf = NULL;
AjPFilebuff buff = NULL;
AjPGraph mult = NULL;
gPlotParams gpp;
AjPStr title = NULL;
seqall = ajAcdGetSeqall("sequence");
position = ajAcdGetSelectSingle("position");
PatLen = ajAcdGetInt("patlen");
upstream = ajAcdGetInt("upstream");
downstream = ajAcdGetInt("downstream");
accid = ajAcdGetBoolean("accid");
plot = ajAcdGetToggle("plot");
outf = ajAcdGetOutfile("outfile");
mult = ajAcdGetGraphxy("graph");
base = ajStrNewC("rest.g-language.org");
gAssignUniqueName(&tmpname);
while(ajSeqallNext(seqall, &seq))
{
inseq = NULL;
if(!accid)
{
if(gFormatGenbank(seq, &inseq))
{
gAssignUniqueName(&tmpname);
tmpfile = ajFileNewOutNameS(tmpname);
if(!tmpfile)
{
ajFmtError("Output file (%S) open error\n", tmpname);
embExitBad();
}
ajFmtPrintF(tmpfile, "%S", inseq);
ajFileClose(&tmpfile);
ajFmtPrintS(&url, "http://%S/upload/upl.pl", base);
gFilePostSS(url, tmpname, &restid);
ajStrDel(&url);
ajSysFileUnlinkS(tmpname);
}
else
{
ajFmtError("Sequence does not have features\n"
"Proceeding with sequence accession ID\n");
accid = ajTrue;
}
}
if(accid)
{
ajStrAssignS(&seqid, ajSeqGetAccS(seq));
if(!ajStrGetLen(seqid))
{
ajStrAssignS(&seqid, ajSeqGetNameS(seq));
}
if(!ajStrGetLen(seqid))
{
ajFmtError("No valid header information\n");
embExitBad();
}
ajStrAssignS(&restid, seqid);
}
ajStrAssignS(&seqid, ajSeqGetAccS(seq));
url = ajStrNew();
ajFmtPrintS(&url, "http://%S/%S/base_information_content/position=%S/"
"PatLen=%d/upstream=%d/downstream=%d/output=f/tag=gene",
base, restid, position, PatLen, upstream, downstream);
if(plot)
{
title = ajStrNew();
ajStrAppendC(&title, argv[0]);
ajStrAppendC(&title, " of ");
ajStrAppendS(&title, seqid);
gpp.title = ajStrNewS(title);
gpp.xlab = ajStrNewC("position");
gpp.ylab = ajStrNewC("information content");
if(!gFilebuffURLS(url, &buff))
{
ajDie("File downloading error from:\n%S\n", url);
}
if(!gPlotFilebuff(buff, mult, &gpp))
{
ajDie("Error in plotting\n");
}
AJFREE(gpp.title);
AJFREE(gpp.xlab);
AJFREE(gpp.ylab);
ajStrDel(&title);
ajFilebuffDel(&buff);
}
else
{
ajFmtPrintF(outf, "Sequence: %S\n", seqid);
if(!gFileOutURLS(url, &outf))
{
ajDie("File downloading error from:\n%S\n", url);
}
}
}
ajFileClose(&outf);
ajSeqallDel(&seqall);
ajSeqDel(&seq);
ajStrDel(&seqid);
ajStrDel(&position);
embExit();
return 0;
}
int main(int argc, char **argv)
{
AjPFile outf = NULL;
AjPSeq sequence = NULL;
AjPStr substr = NULL;
AjPStr seqstr = NULL;
AjPStr revstr = NULL;
AjPStr p1;
AjPStr p2;
PPrimer eric = NULL;
PPrimer fred = NULL;
PPrimer f;
PPrimer r;
PPair pair;
AjPList forlist = NULL;
AjPList revlist = NULL;
AjPList pairlist = NULL;
AjBool targetrange;
AjBool isDNA = ajTrue;
AjBool dolist = ajFalse;
ajint primerlen = 0;
ajint minprimerlen = 0;
ajint maxprimerlen = 0;
ajint minprodlen = 0;
ajint maxprodlen = 0;
ajint prodlen = 0;
ajint seqlen = 0;
ajint stepping_value = 1;
ajint targetstart = 0;
ajint targetend = 0;
ajint limit = 0;
ajint limit2 = 0;
ajint lastpos = 0;
ajint startpos = 0;
ajint endpos = 0;
ajint begin;
ajint end;
ajint v1;
ajint v2;
ajint overlap;
float minpmGCcont = 0.;
float maxpmGCcont = 0.;
float minprodGCcont = 0.;
float maxprodGCcont = 0.;
float prodTm;
float prodGC;
ajint i;
ajint j;
ajint neric=0;
ajint nfred=0;
ajint npair=0;
float minprimerTm = 0.0;
float maxprimerTm = 0.0;
float saltconc = 0.0;
float dnaconc = 0.0;
embInit ("prima", argc, argv);
substr = ajStrNew();
forlist = ajListNew();
revlist = ajListNew();
pairlist = ajListNew();
p1 = ajStrNew();
p2 = ajStrNew();
sequence = ajAcdGetSeq("sequence");
outf = ajAcdGetOutfile("outfile");
minprimerlen = ajAcdGetInt("minprimerlen");
maxprimerlen = ajAcdGetInt("maxprimerlen");
minpmGCcont = ajAcdGetFloat("minpmGCcont");
maxpmGCcont = ajAcdGetFloat("maxpmGCcont");
minprimerTm = ajAcdGetFloat("mintmprimer");
maxprimerTm = ajAcdGetFloat("maxtmprimer");
minprodlen = ajAcdGetInt("minplen");
maxprodlen = ajAcdGetInt("maxplen");
minprodGCcont = ajAcdGetFloat("minpgccont");
maxprodGCcont = ajAcdGetFloat("maxpgccont");
saltconc = ajAcdGetFloat("saltconc");
dnaconc = ajAcdGetFloat("dnaconc");
targetrange = ajAcdGetToggle("targetrange");
targetstart = ajAcdGetInt("targetstart");
targetend = ajAcdGetInt("targetend");
overlap = ajAcdGetInt("overlap");
dolist = ajAcdGetBoolean("list");
seqstr = ajSeqGetSeqCopyS(sequence);
ajStrFmtUpper(&seqstr);
begin = ajSeqGetBegin(sequence);
end = ajSeqGetEnd(sequence);
seqlen = end-begin+1;
ajStrAssignSubC(&substr,ajStrGetPtr(seqstr),begin-1,end-1);
revstr = ajStrNewC(ajStrGetPtr(substr));
ajSeqstrReverse(&revstr);
AJCNEW0(entropy, seqlen);
AJCNEW0(enthalpy, seqlen);
AJCNEW0(energy, seqlen);
/* Initialise Tm calculation arrays */
ajMeltTempSave(ajStrGetPtr(substr),0,seqlen,saltconc,dnaconc,1,
&entropy, &enthalpy, &energy);
ajFmtPrintF(outf, "\n\nINPUT SUMMARY\n");
ajFmtPrintF(outf, "*************\n\n");
if(targetrange)
ajFmtPrintF
(outf, "Prima of %s from positions %d to %d bps\n",
ajSeqGetNameC(sequence),targetstart, targetend);
else
ajFmtPrintF(outf, "Prima of %s\n", ajSeqGetNameC(sequence));
ajFmtPrintF(outf, "PRIMER CONSTRAINTS:\n");
ajFmtPrintF
(outf, "PRIMA DOES NOT ALLOW PRIMER SEQUENCE AMBIGUITY OR ");
ajFmtPrintF(outf,"DUPLICATE PRIMER ENDPOINTS\n");
ajFmtPrintF(outf,
"Primer size range is %d-%d\n",minprimerlen,maxprimerlen);
ajFmtPrintF(outf,
"Primer GC content range is %.2f-%.2f\n",minpmGCcont,
maxpmGCcont);
ajFmtPrintF(outf,"Primer melting Temp range is %.2f - %.2f C\n",
minprimerTm, maxprimerTm);
ajFmtPrintF (outf, "PRODUCT CONSTRAINTS:\n");
ajFmtPrintF(outf,"Product GC content range is %.2f-%.2f\n",
minprodGCcont, maxprodGCcont);
ajFmtPrintF(outf, "Salt concentration is %.2f (mM)\n", saltconc);
ajFmtPrintF(outf, "DNA concentration is %.2f (nM)\n", dnaconc);
if(targetrange)
ajFmtPrintF(outf, "Targeted range to amplify is from %d to %d\n",
targetstart,targetend);
else
{
ajFmtPrintF(outf,"Considering all suitable Primer pairs with ");
ajFmtPrintF(outf,"Product length ranges %d to %d\n\n\n", minprodlen,
maxprodlen);
}
ajFmtPrintF(outf, "\n\nPRIMER/PRODUCT PAIR CALCULATIONS & OUTPUT\n");
ajFmtPrintF(outf, "*****************************************\n\n");
if(seqlen-minprimerlen < 0)
ajFatal("Sequence too short");
if(targetrange)
{
ajStrAssignSubC(&p1,ajStrGetPtr(substr),targetstart-begin,targetend-begin);
prodGC = ajMeltGC(substr,seqlen);
prodTm = ajMeltTempProd(prodGC,saltconc,seqlen);
if(prodGC<minprodGCcont || prodGC>maxprodGCcont)
{
ajFmtPrintF(outf,
"Product GC content [%.2f] outside acceptable range\n",
prodGC);
embExitBad();
return 0;
}
prima_testtarget(substr, revstr, targetstart-begin, targetend-begin,
minprimerlen, maxprimerlen,
seqlen, minprimerTm, maxprimerTm, minpmGCcont,
maxpmGCcont, minprodGCcont, maxprodGCcont, saltconc,
dnaconc, pairlist, &npair);
}
if(!targetrange)
{
limit = seqlen-minprimerlen-minprodlen+1;
lastpos = seqlen-minprodlen;
limit2 = maxprodlen-minprodlen;
/* Outer loop selects all possible product start points */
for(i=minprimerlen; i<limit; ++i)
{
startpos = i;
ajDebug("Position in sequence %d\n",startpos);
endpos = i+minprodlen-1;
/* Inner loop selects all possible product lengths */
for(j=0; j<limit2; ++j, ++endpos)
{
if(endpos>lastpos)
break;
v1 = endpos-startpos+1;
ajStrAssignSubC(&p1,ajStrGetPtr(substr),startpos,endpos);
prodGC = ajMeltGC(p1,v1);
prodTm = ajMeltTempProd(prodGC,saltconc,v1);
if(prodGC<minprodGCcont || prodGC>maxprodGCcont)
continue;
/* Only accept primers with acceptable Tm and GC */
neric = 0;
nfred = 0;
prima_testproduct(substr, startpos, endpos, primerlen,
minprimerlen, maxprimerlen,minpmGCcont,
maxpmGCcont, minprimerTm, maxprimerTm,
minprodlen, maxprodlen, prodTm, prodGC, seqlen,
&eric,&fred,forlist,revlist,&neric,&nfred,
stepping_value, saltconc,dnaconc, isDNA, begin);
if(!neric)
continue;
/* Now reject those primers with self-complementarity */
prima_reject_self(forlist,revlist,&neric,&nfred);
if(!neric)
continue;
/* Reject any primers that could bind elsewhere in the
sequence */
prima_test_multi(forlist,revlist,&neric,&nfred,substr,revstr,
seqlen);
/* Now select the least complementary pair (if any) */
prima_best_primer(forlist, revlist, &neric, &nfred);
if(!neric)
continue;
AJNEW(pair);
ajListPop(forlist,(void **)&f);
ajListPop(revlist,(void **)&r);
pair->f = f;
pair->r = r;
++npair;
ajListPush(pairlist,(void *)pair);
}
}
}
if(!targetrange)
{
/* Get rid of primer pairs nearby the top scoring ones */
prima_TwoSortscorepos(&pairlist);
prima_prune_nearby(pairlist, &npair, maxprimerlen-1);
ajListSort(pairlist,prima_PosCompare);
prima_check_overlap(pairlist,&npair,overlap);
}
if(npair)
{
if(!targetrange)
ajFmtPrintF(outf,"%d pairs found\n\n",npair);
else
ajFmtPrintF(outf,
"Closest primer pair to specified product is:\n\n");
if((maxprimerlen<26 && seqlen<999999 && !dolist))
ajFmtPrintF(outf,"\n\t\tForward\t\t\t\t\tReverse\n\n");
}
for(i=0;i<npair;++i)
{
if(!targetrange)
ajFmtPrintF(outf,"[%d]\n",i+1);
ajListPop(pairlist,(void **)&pair);
prodlen = pair->r->start - (pair->f->start + pair->f->primerlen);
if((maxprimerlen<26 && seqlen<999999 && !dolist))
{
v1 = pair->f->start;
v2 = v1 + pair->f->primerlen -1;
ajStrAssignSubS(&p1,substr,v1,v2);
ajFmtPrintF(outf,"%6d %-25.25s %d\t", v1+begin, ajStrGetPtr(p1),
v2+begin);
v1 = pair->r->start;
v2 = v1 + pair->r->primerlen -1;
ajStrAssignSubS(&p2,substr,v1,v2);
ajSeqstrReverse(&p2);
ajFmtPrintF(outf,
"%6d %-25.25s %d\n", v1+begin, ajStrGetPtr(p2), v2+begin);
ajFmtPrintF(outf," Tm %.2f C (GC %.2f%%)\t\t ",
pair->f->primerTm,pair->f->primGCcont*100.);
ajFmtPrintF(outf,"Tm %.2f C (GC %.2f%%)\n",
pair->r->primerTm,pair->r->primGCcont*100.);
ajFmtPrintF(outf," Length: %-32dLength: %d\n",
pair->f->primerlen,pair->r->primerlen);
ajFmtPrintF(outf," Tma: %.2f C\t\t\t",
ajAnneal(pair->f->primerTm,pair->f->prodTm));
ajFmtPrintF(outf," Tma: %.2f C\n\n\n",
ajAnneal(pair->r->primerTm,pair->f->prodTm));
ajFmtPrintF(outf," Product GC: %.2f%%\n",
pair->f->prodGC * 100.0);
ajFmtPrintF(outf," Product Tm: %.2f C\n",
pair->f->prodTm);
ajFmtPrintF(outf," Length: %d\n\n\n",prodlen);
}
else
{
ajFmtPrintF(outf," Product from %d to %d\n",pair->f->start+
pair->f->primerlen+begin,pair->r->start-1+begin);
ajFmtPrintF(outf," Tm: %.2f C GC: %.2f%%\n",
pair->f->prodTm,pair->f->prodGC*(float)100.);
ajFmtPrintF(outf," Length: %d\n\n\n",prodlen);
v1 = pair->f->start;
v2 = v1 + pair->f->primerlen -1;
ajStrAssignSubS(&p1,substr,v1,v2);
ajFmtPrintF(outf," Forward: 5' %s 3'\n",ajStrGetPtr(p1));
ajFmtPrintF(outf," Start: %d\n",v1+begin);
ajFmtPrintF(outf," End: %d\n",v2+begin);
ajFmtPrintF(outf," Tm: %.2f C\n",
pair->f->primerTm);
ajFmtPrintF(outf," GC: %.2f%%\n",
pair->f->primGCcont*(float)100.);
ajFmtPrintF(outf," Len: %d\n",
pair->f->primerlen);
ajFmtPrintF(outf," Tma: %.2f C\n\n\n",
ajAnneal(pair->f->primerTm,pair->f->prodTm));
v1 = pair->r->start;
v2 = v1 + pair->r->primerlen -1;
ajStrAssignSubS(&p2,substr,v1,v2);
ajSeqstrReverse(&p2);
ajStrAssignSubS(&p1,substr,v1,v2);
ajFmtPrintF(outf," Reverse: 5' %s 3'\n",ajStrGetPtr(p1));
ajFmtPrintF(outf," Start: %d\n",v1+begin);
ajFmtPrintF(outf," End: %d\n",v2+begin);
ajFmtPrintF(outf," Tm: %.2f C\n",
pair->r->primerTm);
ajFmtPrintF(outf," GC: %.2f%%\n",
pair->r->primGCcont*(float)100.);
ajFmtPrintF(outf," Len: %d\n",
pair->r->primerlen);
ajFmtPrintF(outf," Tma: %.2f C\n\n\n",
ajAnneal(pair->r->primerTm,pair->f->prodTm));
}
prima_PrimerDel(&pair->f);
prima_PrimerDel(&pair->r);
AJFREE(pair);
}
ajStrDel(&seqstr);
ajStrDel(&revstr);
ajStrDel(&substr);
ajStrDel(&p1);
ajStrDel(&p2);
ajListFree(&forlist);
ajListFree(&revlist);
ajListFree(&pairlist);
ajFileClose(&outf);
ajSeqDel(&sequence);
AJFREE(entropy);
AJFREE(enthalpy);
AJFREE(energy);
embExit();
return 0;
}
int main(int argc, char *argv[])
{
embInitPV("gseqinfo", argc, argv, "GEMBASSY", "1.0.3");
AjPSeqall seqall;
AjPSeq seq;
AjPStr inseq = NULL;
AjPStr ori = NULL;
AjPStr ter = NULL;
AjPStr restid = NULL;
AjPStr seqid = NULL;
AjPStr base = NULL;
AjPStr url = NULL;
AjPStr tmpname = NULL;
AjPSeqout tmpout = NULL;
AjPFile outf = NULL;
seqall = ajAcdGetSeqall("sequence");
outf = ajAcdGetOutfile("outfile");
base = ajStrNewC("rest.g-language.org");
gAssignUniqueName(&tmpname);
ajStrAppendC(&tmpname, ".fasta");
while(ajSeqallNext(seqall, &seq))
{
tmpout = ajSeqoutNew();
if(!ajSeqoutOpenFilename(tmpout, tmpname))
{
embExitBad();
}
ajSeqoutSetFormatS(tmpout,ajStrNewC("fasta"));
ajSeqoutWriteSeq(tmpout, seq);
ajSeqoutClose(tmpout);
ajSeqoutDel(&tmpout);
ajFmtPrintS(&url, "http://%S/upload/upl.pl", base);
gFilePostSS(url, tmpname, &restid);
ajStrDel(&url);
ajSysFileUnlinkS(tmpname);
ajStrAssignS(&seqid, ajSeqGetAccS(seq));
if(ajStrGetLen(seqid) == 0)
{
ajStrAssignS(&seqid, ajSeqGetNameS(seq));
}
if(ajStrGetLen(seqid) == 0)
{
ajWarn("No valid header information\n");
}
url = ajStrNew();
ajFmtPrintS(&url, "http://%S/%S/seqinfo/", base, restid);
ajFmtPrintF(outf, "Sequence: %S\n", seqid);
if(!gFileOutURLS(url, &outf))
{
ajDie("Failed to download result from:\n%S\n", url);
}
ajStrDel(&url);
ajStrDel(&restid);
ajStrDel(&seqid);
ajStrDel(&inseq);
}
ajFileClose(&outf);
ajSeqallDel(&seqall);
ajSeqDel(&seq);
ajStrDel(&base);
embExit();
return 0;
}
int main(int argc, char **argv) {
// initialize EMBASSY info
embInitPV("kcentroidfold", argc, argv, "KBWS", "1.0.9");
// soap driver and parameter object
struct soap soap;
struct ns1__centroidfoldInputParams params;
char* jobid;
AjPSeqall seqall; // input sequence
AjPFile outf; // outfile
AjPStr goutfile; // graph file name
AjPFile goutf; // graph file handle
AjPSeq seq;
AjPStr inseq= NULL;
AjPStr substr;
AjPStr engine; // CONTRAfold, McCaskill, pfold or AUX
ajint gamma;
// get input/output info
seqall= ajAcdGetSeqall("seqall");
outf= ajAcdGetOutfile("outfile");
goutfile= ajAcdGetString("goutfile");
// get parameters
engine= ajAcdGetString("engine");
gamma= ajAcdGetInt("gamma");
// set parameters
params.model= ajCharNewS(engine);
params.gamma= gamma;
while (ajSeqallNext(seqall, &seq)) {
// initialize
soap_init(&soap);
inseq= NULL;
// convert sequence data to EMBOSS string as fasta format
ajStrAppendC(&inseq, ">");
ajStrAppendS(&inseq, ajSeqGetNameS(seq));
ajStrAppendC(&inseq, "\n");
ajStrAppendS(&inseq, ajSeqGetSeqS(seq));
// convert EMBOSS string to char* in C
char* in0;
in0= ajCharNewS(inseq);
// submit query via SOAP and get job ID
if (soap_call_ns1__runCentroidfold(&soap, NULL, NULL, in0, ¶ms, &jobid) == SOAP_OK) {
} else {
soap_print_fault(&soap, stderr);
}
// polling
int check = 0;
while (check == 0) {
if (soap_call_ns1__checkStatus(&soap, NULL, NULL, jobid, &check) == SOAP_OK) {
} else {
soap_print_fault(&soap, stderr);
}
sleep(3);
}
// get result (sequence alignment text data)
char* result;
if(soap_call_ns1__getMultiResult(&soap, NULL, NULL, jobid, "out", &result) == SOAP_OK) {
// convert result from C char* to EMBOSS string object
substr= ajStrNewC(result);
// output result (EMBOSS string) to file or STDOUT via EMBOSS
ajFmtPrintF(outf, "%S\n", substr);
} else {
soap_print_fault(&soap, stderr);
}
// get result (image file)
char* image_url;
if(soap_call_ns1__getMultiResult(&soap, NULL, NULL, jobid, "png", &image_url) == SOAP_OK) {
goutf= ajFileNewOutNameS(goutfile);
if (!goutf) {
// can not open image output file
ajFmtError("Problem writing out image file");
embExitBad();
}
if (!gHttpGetBinC(image_url, &goutf)) {
// can not download image file
ajFmtError("Problem downloading image file");
embExitBad();
}
} else {
soap_print_fault(&soap, stderr);
}
}
// destruct SOAP driver
soap_destroy(&soap);
soap_end(&soap);
soap_done(&soap);
// write output file and destruct outfile object
ajFileClose(&outf);
// destruct EMBOSS object
ajSeqallDel(&seqall);
ajSeqDel(&seq);
ajStrDel(&substr);
ajStrDel(&engine);
// exit
embExit();
return 0;
}
int main(int argc, char *argv[])
{
embInitPV("greporiter", argc, argv, "GEMBASSY", "1.0.3");
AjPSeqall seqall;
AjPSeq seq;
AjPStr inseq = NULL;
AjBool accid = ajFalse;
AjPStr restid = NULL;
AjPStr seqid = NULL;
AjPStr base = NULL;
AjPStr url = NULL;
AjBool oriloc = 0;
AjBool gcskew = 0;
AjBool dbonly = 0;
ajint difthreshold = 0;
AjPFile outf = NULL;
AjPFile tmpfile = NULL;
AjPStr tmpname = NULL;
AjPStr fstname = NULL;
AjPFilebuff tmp = NULL;
AjPStr line = NULL;
AjPSeqout tmpout = NULL;
AjPRegexp regex;
AjPStr ori = NULL;
AjPStr ter = NULL;
seqall = ajAcdGetSeqall("sequence");
difthreshold = ajAcdGetInt("difthreshold");
oriloc = ajAcdGetBoolean("oriloc");
gcskew = ajAcdGetBoolean("gcskew");
dbonly = ajAcdGetBoolean("dbonly");
accid = ajAcdGetBoolean("accid");
outf = ajAcdGetOutfile("outfile");
base = ajStrNewC("rest.g-language.org");
gAssignUniqueName(&tmpname);
gAssignUniqueName(&fstname);
ajStrAppendC(&fstname, ".fasta");
while(ajSeqallNext(seqall, &seq))
{
inseq = ajStrNew();
tmpout = ajSeqoutNew();
if(!accid)
{
if(gFormatGenbank(seq, &inseq))
{
tmpfile = ajFileNewOutNameS(tmpname);
if(!tmpfile)
{
ajDie("Output file (%S) open error\n", tmpname);
}
ajFmtPrintF(tmpfile, "%S", inseq);
ajFileClose(&tmpfile);
ajFmtPrintS(&url, "http://%S/upload/upl.pl", base);
gFilePostSS(url, tmpname, &restid);
ajStrDel(&url);
ajSysFileUnlinkS(tmpname);
}
else
{
if(!ajSeqoutOpenFilename(tmpout, fstname))
{
embExitBad();
}
ajSeqoutSetFormatS(tmpout,ajStrNewC("fasta"));
ajSeqoutWriteSeq(tmpout, seq);
ajSeqoutClose(tmpout);
ajSeqoutDel(&tmpout);
ajFmtPrintS(&url, "http://%S/upload/upl.pl", base);
gFilePostSS(url, fstname, &restid);
ajStrDel(&url);
ajSysFileUnlinkS(fstname);
}
}
ajStrAssignS(&seqid, ajSeqGetAccS(seq));
if(ajStrGetLen(seqid) == 0)
{
ajStrAssignS(&seqid, ajSeqGetNameS(seq));
}
if(ajStrGetLen(seqid) == 0)
{
ajWarn("No valid header information\n");
}
if(accid)
{
ajStrAssignS(&restid, seqid);
if(ajStrGetLen(seqid) == 0)
{
ajDie("Cannot proceed without header with -accid\n");
}
if(!gValID(seqid))
{
ajDie("Invalid accession ID:%S, exiting\n", seqid);
}
}
url = ajStrNew();
ajFmtPrintS(&url, "http://%S/%S/rep_ori_ter/oriloc=%d/gcskew=%d/"
"difthreshold=%d/dbonly=%d/", base, restid, oriloc, gcskew,
difthreshold, dbonly);
if(!gFilebuffURLS(url, &tmp))
{
ajDie("Failed to download result from:\n%S\n", url);
}
ajBuffreadLine(tmp, &line);
regex = ajRegCompC("([0-9]+),([0-9]+)");
if(ajRegExec(regex, line)) {
if(ajRegSubI(regex, 1, &ori), ajRegSubI(regex, 2, &ter)) {
ajFmtPrint("%S Origin: %S Terminus %S\n", seqid, ori, ter);
}
}
ajStrDel(&url);
ajStrDel(&restid);
ajStrDel(&seqid);
ajStrDel(&inseq);
}
ajFileClose(&outf);
ajSeqallDel(&seqall);
ajSeqDel(&seq);
ajStrDel(&base);
embExit();
return 0;
}
double bsd_tree_diff(group_type **tree1, group_type **tree2,
long ntree1, long ntree2, double *lengths1,
double* lengths2, long patternsz1, long patternsz2)
{
/* Compute the difference between 2 given trees. Return
that value as a double. */
long index1, index2;
double return_value = 0;
boolean match_found;
long i;
if ( group_is_null(tree1, 0) || group_is_null(tree2, 0) ) {
printf ("Error computing tree difference between tree %ld and tree %ld\n",
ntree1, ntree2);
embExitBad();
}
for ( index1 = 0; index1 < patternsz1; index1++ ) {
if ( !group_is_null(tree1, index1) ) {
if ( lengths1[index1] == -1 ) {
printf(
"Error: tree %ld is missing a length from at least one branch\n",
ntree1);
embExitBad();
}
}
}
for ( index2 = 0; index2 < patternsz2; index2++ ) {
if ( !group_is_null(tree2, index2) ) {
if ( lengths2[index2] == -1 ) {
printf(
"Error: tree %ld is missing a length from at least one branch\n",
ntree2);
embExitBad();
}
}
}
for ( index1 = 0 ; index1 < patternsz1; index1++ ) {
/* For every element in the first tree, see if there's
a match to it in the second tree. */
match_found = false;
if ( group_is_null(tree1, index1) ) {
/* When we've gone over all the elements in tree1, greater
number of elements in tree2 will constitute that much more
of a difference... */
while ( !group_is_null(tree2, index1) ) {
return_value += pow(lengths1[index1], 2);
index1++;
}
break;
}
for ( index2 = 0 ; index2 < patternsz2 ; index2++ ) {
/* For every element in the second tree, see if any match
the current element in the first tree. */
if ( group_is_null(tree2, index2) ) {
/* When we've gone over all the elements in tree2 */
match_found = false;
break;
}
else {
/* Tentatively set match_found; will be changed later if
neccessary. . . */
match_found = true;
for ( i = 0 ; i < setsz ; i++ ) {
/* See if we've got a match, */
if ( tree1[i][index1] != tree2[i][index2] )
match_found = false;
}
if ( match_found == true ) {
break;
}
}
}
if ( match_found == false ) {
return_value += pow(lengths1[index1], 2);
}
}
for ( index2 = 0 ; index2 < patternsz2 ; index2++ ) {
/* For every element in the second tree, see if there's
a match to it in the first tree. */
match_found = false;
if ( group_is_null(tree2, index2) ) {
/* When we've gone over all the elements in tree2, greater
number of elements in tree1 will constitute that much more
of a difference... */
while ( !group_is_null(tree1, index2) ) {
return_value += pow(lengths2[index2], 2);
index2++;
}
break;
}
for ( index1 = 0 ; index1 < patternsz1 ; index1++ ) {
/* For every element in the first tree, see if any match
the current element in the second tree. */
if ( group_is_null(tree1, index1) ) {
/* When we've gone over all the elements in tree2 */
match_found = false;
break;
}
else {
/* Tentatively set match_found; will be changed later if
neccessary. . . */
match_found = true;
for ( i = 0 ; i < setsz ; i++ ) {
/* See if we've got a match, */
if ( tree1[i][index1] != tree2[i][index2] )
match_found = false;
}
if ( match_found == true ) {
return_value += pow(lengths1[index1] - lengths2[index2], 2);
break;
}
}
}
if ( match_found == false ) {
return_value += pow(lengths2[index2], 2);
}
}
if (return_value > 0.0)
return_value = sqrt(return_value);
else
return_value = 0.0;
return return_value;
}
int main(int argc, char **argv) {
embInitPV("kdnapenny", argc, argv, "KBWS", "1.0.8");
struct soap soap;
char* jobid;
char* result;
AjPSeqall seqall;
AjPSeq seq;
AjPFile outf;
AjPStr substr;
AjPStr inseq = NULL;
seqall = ajAcdGetSeqall("seqall");
outf = ajAcdGetOutfile("outfile");
AjPStr tmp = NULL;
AjPStr tmpFileName = NULL;
AjPSeqout fil_file;
AjPStr line = NULL;
AjPStr sizestr = NULL;
ajint thissize = 0;
ajint nb = 0;
AjBool are_prot = ajFalse;
ajint size = 0;
AjPFile infile;
tmp = ajStrNewC("fasta");
fil_file = ajSeqoutNew();
tmpFileName = getUniqueFileName();
if( !ajSeqoutOpenFilename(fil_file, tmpFileName) ) {
embExitBad();
}
ajSeqoutSetFormatS(fil_file, tmp);
while (ajSeqallNext(seqall, &seq)) {
if (!nb) {
are_prot = ajSeqIsProt(seq);
}
ajSeqoutWriteSeq(fil_file, seq);
++nb;
}
ajSeqoutClose(fil_file);
ajSeqoutDel(&fil_file);
if (nb < 2) {
ajFatal("Multiple alignments need at least two sequences");
}
infile = ajFileNewInNameS(tmpFileName);
while (ajReadline(infile, &line)) {
ajStrAppendS(&inseq,line);
ajStrAppendC(&inseq,"\n");
}
soap_init(&soap);
char* in0;
in0 = ajCharNewS(inseq);
if ( soap_call_ns1__runDnapenny( &soap, NULL, NULL, in0, &jobid ) == SOAP_OK ) {
fprintf(stderr,"Jobid: %s\n",jobid);
} else {
soap_print_fault(&soap, stderr);
}
int check = 0;
while ( check == 0 ) {
if ( soap_call_ns1__checkStatus( &soap, NULL, NULL, jobid, &check ) == SOAP_OK ) {
fprintf(stderr,"*");
} else {
soap_print_fault(&soap, stderr);
}
sleep(3);
}
fprintf(stderr, "\n");
if ( soap_call_ns1__getResult( &soap, NULL, NULL, jobid, &result ) == SOAP_OK ) {
substr = ajStrNewC(result);
ajFmtPrintF(outf,"%S\n",substr);
} else {
soap_print_fault(&soap, stderr);
}
ajSysFileUnlinkS(tmpFileName);
soap_destroy(&soap);
soap_end(&soap);
soap_done(&soap);
ajFileClose(&outf);
ajSeqallDel(&seqall);
ajSeqDel(&seq);
ajStrDel(&substr);
embExit();
return 0;
}
int main(int argc, char *argv[])
{
embInitPV("gpalindrome", argc, argv, "GEMBASSY", "1.0.3");
struct soap soap;
struct ns1__palindromeInputParams params;
AjPSeqall seqall;
AjPSeq seq;
AjPStr inseq = NULL;
AjPStr seqid = NULL;
ajint shortest = 0;
ajint loop = 0;
AjBool gtmatch = 0;
char *in0;
char *result;
AjPFile outf = NULL;
seqall = ajAcdGetSeqall("sequence");
shortest = ajAcdGetInt("shortest");
loop = ajAcdGetInt("loop");
gtmatch = ajAcdGetBoolean("gtmatch");
outf = ajAcdGetOutfile("outfile");
params.shortest = shortest;
params.loop = loop;
params.gtmatch = gtmatch;
params.output = "f";
while(ajSeqallNext(seqall, &seq))
{
soap_init(&soap);
inseq = NULL;
ajStrAppendC(&inseq, ">");
ajStrAppendS(&inseq, ajSeqGetNameS(seq));
ajStrAppendC(&inseq, "\n");
ajStrAppendS(&inseq, ajSeqGetSeqS(seq));
ajStrAssignS(&seqid, ajSeqGetAccS(seq));
in0 = ajCharNewS(inseq);
if(soap_call_ns1__palindrome(
&soap,
NULL,
NULL,
in0,
¶ms,
&result
) == SOAP_OK)
{
ajFmtPrintF(outf, "Sequence: %S\n", seqid);
if(!gFileOutURLC(result, &outf))
{
ajDie("File downloading error from:\n%s\n", result);
embExitBad();
}
}
else
{
soap_print_fault(&soap, stderr);
}
soap_destroy(&soap);
soap_end(&soap);
soap_done(&soap);
AJFREE(in0);
ajStrDel(&inseq);
}
ajFileClose(&outf);
ajSeqallDel(&seqall);
ajSeqDel(&seq);
ajStrDel(&seqid);
embExit();
return 0;
}
void seqboot_inputdatafreq(AjPPhyloFreq freq)
{
/* input the names and sequences for each species */
long i, j, k, l, m, n;
double x;
ajint ipos=0;
nodef = (double **)Malloc(spp*sizeof(double *));
for (i = 0; i < (spp); i++)
nodef[i] = (double *)Malloc(sites*sizeof(double));
j = nmlngth + (sites + (sites - 1) / 10) / 2 - 5;
if (j < nmlngth - 1)
j = nmlngth - 1;
if (j > 37)
j = 37;
if (printdata) {
fprintf(outfile, "\nBootstrapping algorithm, version %s\n\n\n",VERSION);
if (bootstrap) {
if (blocksize > 1) {
if (regular)
fprintf(outfile, "Block-bootstrap with block size %ld\n\n", blocksize);
else
fprintf(outfile, "Partial (%2.0f%%) block-bootstrap with block size %ld\n\n",
100*fracsample, blocksize);
} else {
if (regular)
fprintf(outfile, "Bootstrap\n\n");
else
fprintf(outfile, "Partial (%2.0f%%) bootstrap\n\n", 100*fracsample);
}
} else {
if (jackknife) {
if (regular)
fprintf(outfile, "Delete-half Jackknife\n\n");
else
fprintf(outfile, "Delete-%2.0f%% Jackknife\n\n", 100*(1.0-fracsample));
} else {
if (permute) {
fprintf(outfile, "Species order permuted separately for each");
fprintf(outfile, " locus\n\n");
}
else {
if (ild) {
fprintf(outfile, "Locus");
fprintf(outfile, " order permuted\n\n");
} else {
if (lockhart)
fprintf(outfile, "Locus");
fprintf(outfile, " order permuted separately for each species\n\n");
}
}
}
}
fprintf(outfile, "%3ld species, %3ld loci\n\n", spp, loci);
fprintf(outfile, "Name");
for (i = 1; i <= j; i++)
putc(' ', outfile);
fprintf(outfile, "Data\n");
fprintf(outfile, "----");
for (i = 1; i <= j; i++)
putc(' ', outfile);
fprintf(outfile, "----\n\n");
}
for (i = 1; i <= (spp); i++) {
initnamefreq(freq,i - 1);
j = 1;
while (j <= sites) {
x = freq->Data[ipos++];
if ((unsigned)x > 1.0) {
printf("GENE FREQ OUTSIDE [0,1] in species %ld\n", i);
embExitBad();
} else {
nodef[i - 1][j - 1] = x;
j++;
}
}
}
if (!printdata)
return;
m = (sites - 1) / 8 + 1;
for (i = 1; i <= m; i++) {
for (j = 0; j < spp; j++) {
for (k = 0; k < nmlngth; k++)
putc(nayme[j][k], outfile);
fprintf(outfile, " ");
l = i * 8;
if (l > sites)
l = sites;
n = (i - 1) * 8;
for (k = n; k < l; k++) {
fprintf(outfile, "%8.5f", nodef[j][k]);
}
putc('\n', outfile);
}
putc('\n', outfile);
}
putc('\n', outfile);
} /* seqboot_inputdatafreq */
int main(int argc, char *argv[])
{
embInitPV("gviewcds", argc, argv, "GEMBASSY", "1.0.1");
AjPSeqall seqall;
AjPSeq seq;
AjPStr inseq = NULL;
ajint length = 0;
ajint gap = 0;
AjBool accid = ajFalse;
AjPStr restid = NULL;
AjPStr seqid = NULL;
AjPStr base = NULL;
AjPStr url = NULL;
AjPFile tmpfile = NULL;
AjPStr tmpname = NULL;
AjBool plot = 0;
AjPFile outf = NULL;
AjPFilebuff buff = NULL;
AjPGraph mult = NULL;
gPlotParams gpp;
AjPStr title = NULL;
AjPPStr names = NULL;
ajint i;
seqall = ajAcdGetSeqall("sequence");
length = ajAcdGetInt("length");
gap = ajAcdGetInt("gap");
accid = ajAcdGetBoolean("accid");
plot = ajAcdGetToggle("plot");
outf = ajAcdGetOutfile("outfile");
mult = ajAcdGetGraphxy("graph");
base = ajStrNewC("rest.g-language.org");
gAssignUniqueName(&tmpname);
while(ajSeqallNext(seqall, &seq))
{
inseq = NULL;
if(!accid)
{
if(gFormatGenbank(seq, &inseq))
{
gAssignUniqueName(&tmpname);
tmpfile = ajFileNewOutNameS(tmpname);
if(!tmpfile)
{
ajFmtError("Output file (%S) open error\n", tmpname);
embExitBad();
}
ajFmtPrintF(tmpfile, "%S", inseq);
ajFileClose(&tmpfile);
ajFmtPrintS(&url, "http://%S/upload/upl.pl", base);
gFilePostSS(url, tmpname, &restid);
ajStrDel(&url);
ajSysFileUnlinkS(tmpname);
}
else
{
ajFmtError("Sequence does not have features\n"
"Proceeding with sequence accession ID\n");
accid = ajTrue;
}
}
if(accid)
{
ajStrAssignS(&seqid, ajSeqGetAccS(seq));
if(!ajStrGetLen(seqid))
{
ajStrAssignS(&seqid, ajSeqGetNameS(seq));
}
if(!ajStrGetLen(seqid))
{
ajFmtError("No valid header information\n");
embExitBad();
}
ajStrAssignS(&restid, seqid);
}
ajStrAssignS(&seqid, ajSeqGetAccS(seq));
url = ajStrNew();
ajFmtPrintS(&url, "http://%S/%S/view_cds/length=%d/gap=%d/"
"output=f/tag=gene", base, restid, length, gap);
if(plot)
{
if((names = (AjPPStr)malloc(sizeof(AjPStr) * 5)) == NULL) {
ajDie("Error in memory allocation, exiting\n");
}
names[0] = NULL;
names[1] = ajStrNewC("A");
names[2] = ajStrNewC("T");
names[3] = ajStrNewC("G");
names[4] = ajStrNewC("C");
title = ajStrNew();
ajStrAppendC(&title, argv[0]);
ajStrAppendC(&title, " of ");
ajStrAppendS(&title, seqid);
gpp.title = ajStrNewS(title);
gpp.xlab = ajStrNewC("position");
gpp.ylab = ajStrNewC("percentage");
gpp.names = names;
if(!gFilebuffURLS(url, &buff))
{
ajDie("File downloading error from:\n%S\n", url);
}
if(!gPlotFilebuff(buff, mult, &gpp))
{
ajDie("Error in plotting\n");
}
i = 0;
while(names[i])
{
AJFREE(names[i]);
++i;
}
AJFREE(names);
AJFREE(gpp.title);
AJFREE(gpp.xlab);
AJFREE(gpp.ylab);
ajStrDel(&title);
ajFilebuffDel(&buff);
}
else
{
ajFmtPrintF(outf, "Sequence: %S\n", seqid);
if(!gFileOutURLS(url, &outf))
{
ajDie("File downloading error from:\n%S\n", url);
}
}
}
ajFileClose(&outf);
ajSeqallDel(&seqall);
ajSeqDel(&seq);
ajStrDel(&seqid);
embExit();
return 0;
}
