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main_aggregate_stat.cpp
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412 lines (355 loc) · 14.2 KB
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/*
16 july, this file contains functionality from the print_ugly function and codeparts in the misc.
The function will implement the ML estimate of the dfit from metaDMG-cpp bioxarhive paper.
//tsk,rh 12march 2024
*/
#include <random>
#include <cstdio>
#include <htslib/hts.h> // for htsFormat, hts_opt_add, htsFile, hts_opt
#include <htslib/sam.h> // for htsFormat, hts_opt_add, htsFile, hts_opt
#include <htslib/bgzf.h>
#include <ctime>
#include <sys/time.h>
#include <math.h>
#include <algorithm> // for std::sort
#include <cassert>
#include <iostream>
#include "profile.h"
#include "shared.h"
#include "ngsLCA.h" //<- print_chain
#include "types.h" // for int2intvec, int2int
#include "version.h" // for METADAMAGE_VERSION
#include "dfit_optim.h"
#include "pval.h"
#include "dfit_helppage.h"
extern htsFormat *dingding2;
//from metaDMG.cpp
std::map<int,mydataD> getval_full_norec(std::map<int, mydataD> &retmap, int2int &parent, int howmany);
mydata2 getval_stats(std::map<int, mydata2> &retmap, int2intvec &child, int taxid) ;
int helppage_aggregate(FILE *fp){
fprintf(fp,"Aggregation of lca produced statistics (mean length, variance length, mean GC, variance GC) when transversing up the nodes of the tree structure\n");
fprintf(stderr, "\t\t./metaDMG-cpp aggregate file.bdamage.gz --names file.gz --nodes trestructure.gz --lcastat file.stat --out filename\n");
fprintf(fp,"--help \t\t Print extended help page to see all options.\n");
fprintf(fp,"--names \t names.dmp.gz\n");
fprintf(fp,"--nodes \t nodes.dmp.gz\n");
fprintf(fp,"--lcastat \t\t lcaout.stat lca produced statistics\n");
fprintf(fp,"[--dfit] \t\t output from dfit function. Optional\n");
fprintf(fp,"--out \t\t Suffix of outputname with the predetermined prefix (.stat.gz)\n");
exit(1);
return 0;
}
/*
void to_root(int from,int to,std::map<int,mydata2> &stats,int2int &parent,int nreads){
// fprintf(stderr,"from: %d to: %d nreads:%d\n",from,to,nreads);
mydata2 &md1 = stats.find(from)->second;
std::map<int,mydata2>::iterator it=stats.find(to);
if(it==stats.end()){
mydata2 mdmis;
mdmis.nreads = md1.nreads;
mdmis.data = new double[4];
for(int iii=0;iii<4;iii++)
mdmis.data[iii] = md1.data[iii];
stats[to] = mdmis;
}
else{
mydata2 &md2 = stats.find(to)->second;
md2.data[0] = ((double) md1.data[0]*md1.nreads+md2.data[0]*md2.nreads)/((double) md1.nreads+md2.nreads); //weighted mean of read length
md2.data[2] = ((double) md1.data[2]*md1.nreads+md2.data[2]*md2.nreads)/((double) md1.nreads+md2.nreads); //weighted mean of gc
#if 0
double variance1,variance2;
int nreads1, nreads2;
#endif
if(((double) md1.nreads+md2.nreads)>2){//pooled variance of length and GC
$if 0
variance1 = ((double) md1.nreads-1)*md1.data[1];
nreads1 += md1.nreads;
variance2 = ((double) md2.nreads-1)*md2.data[1];
nreads2 += md2.nreads;
md2.data[1] = (variance1 + variance2) / (nreads1 + nreads2 - 2);
md2.data[3] = (variance1 + variance2) / (nreads1 + nreads2 - 2);
#endif
md2.data[1] = (((double) md1.nreads-1)*md1.data[1]+((double) md2.nreads-1)*md2.data[1])/((double)md1.nreads+md2.nreads-2);
md2.data[3] = (((double) md1.nreads-1)*md1.data[3]+((double) md2.nreads-1)*md2.data[3])/((double)md1.nreads+md2.nreads-2);;
}
else{
md2.data[1] = md2.data[1];
md2.data[3] = md2.data[3];
}
md2.nreads += nreads;
}
int newto = parent.find(to)->second;
if(newto!=to)
to_root(to,newto,stats,parent,nreads);
}
*/
void to_root(int from,int to,std::map<int,mydata2> &stats,int2int &parent,int src_nreads,double *src_data){
// fprintf(stderr,"from: %d to: %d src_nreads:%d\n",from,to,src_nreads);
std::map<int,mydata2>::iterator it=stats.find(to);
if(it==stats.end()){
mydata2 mdmis;
mdmis.nreads = src_nreads;
mdmis.data = new double[4];
for(int iii=0;iii<4;iii++)
mdmis.data[iii] = src_data[iii];
stats[to] = mdmis;
}
else{
mydata2 &md2 = stats.find(to)->second;
int old_nreads = md2.nreads;
int new_nreads = md2.nreads + src_nreads;
double old_mean_len = md2.data[0];
double old_var_len = md2.data[1];
double old_mean_gc = md2.data[2];
double old_var_gc = md2.data[3];
double src_mean_len = src_data[0];
double src_var_len = src_data[1];
double src_mean_gc = src_data[2];
double src_var_gc = src_data[3];
md2.data[0] = ((double)src_mean_len*src_nreads + old_mean_len*old_nreads)/((double)src_nreads + old_nreads);
md2.data[2] = ((double)src_mean_gc*src_nreads + old_mean_gc*old_nreads)/((double)src_nreads + old_nreads);
if(new_nreads>1){
if(src_nreads>1 && old_nreads>1){
double ss_len =
((double)src_nreads-1)*src_var_len +
((double)old_nreads-1)*old_var_len +
((double)src_nreads*old_nreads/(double)new_nreads)*
(src_mean_len-old_mean_len)*(src_mean_len-old_mean_len);
double ss_gc =
((double)src_nreads-1)*src_var_gc +
((double)old_nreads-1)*old_var_gc +
((double)src_nreads*old_nreads/(double)new_nreads)*
(src_mean_gc-old_mean_gc)*(src_mean_gc-old_mean_gc);
md2.data[1] = ss_len/((double)new_nreads-1);
md2.data[3] = ss_gc/((double)new_nreads-1);
}
else if(src_nreads>1 && old_nreads<=1){
md2.data[1] = src_var_len;
md2.data[3] = src_var_gc;
}
else if(src_nreads<=1 && old_nreads>1){
md2.data[1] = old_var_len;
md2.data[3] = old_var_gc;
}
}
md2.nreads += src_nreads;
}
int newto = parent.find(to)->second;
if(newto!=to)
to_root(from,newto,stats,parent,src_nreads,src_data);
}
std::map<int,char *> read_dfit(char *fname){
// fprintf(stderr,"fname: %s\n",fname);
std::map<int, char *> ret;
BGZF *fpfpfp = NULL;
fpfpfp = bgzf_open(fname, "rb");
assert(fpfpfp!=NULL);
kstring_t *kstr = new kstring_t;
kstr->s=NULL;kstr->l=kstr->m = 0;
while(bgzf_getline(fpfpfp,'\n',kstr)){
if(kstr->l==0)
break;
// fprintf(stderr,"%s len:%d",kstr->s,kstr->l);
char *taxid = kstr->s;
char *firsttab = strchr(kstr->s,'\t');
char *sectab = firsttab+1;
firsttab[0] = '\0';
// fprintf(stderr,"taxid: %d\nstr: %s\n",atoi(taxid),kstr->s);
if(ret.size()==0)
ret[-1] = strdup(sectab);
else
ret[atoi(taxid)] = strdup(sectab);
// if(ret.size()>3) break;
kstr->l = 0;
}
fprintf(stderr,"\t-> Done reading file: \"%s\", contains: %lu taxid\n",fname,ret.size());
free(kstr->s);
delete kstr;
bgzf_close(fpfpfp);
return ret;
}
/*
void aggr_stat3000(std::map<int, mydata2> &stats,int2int &parent){
std::map<int,int> dasmap;
for(std::map<int,mydata2>::iterator it = stats.begin();it!=stats.end();it++)
dasmap[it->first] = it->second.nreads;
//fprintf(stderr,"dasmap.size(): %lu stats.size():%lu\n",dasmap.size(), stats.size());
for(std::map<int,int>::iterator itt=dasmap.begin();itt!=dasmap.end();itt++){
// for(int i=0;i<dasvector.size();i++){
int focal_taxid = itt->first;
int2int::iterator it = parent.find(focal_taxid);
assert(it!=parent.end());
int target = it->second;
to_root(focal_taxid,target,stats,parent,itt->second);
}
}
*/
void aggr_stat3000(std::map<int, mydata2> &stats,int2int &parent){
std::map<int,int> dasmap;
std::map<int,double *> datamap;
for(std::map<int,mydata2>::iterator it = stats.begin();it!=stats.end();it++){
dasmap[it->first] = it->second.nreads;
datamap[it->first] = new double[4];
for(int i=0;i<4;i++)
datamap[it->first][i] = it->second.data[i];
}
for(std::map<int,int>::iterator itt=dasmap.begin();itt!=dasmap.end();itt++){
int focal_taxid = itt->first;
int2int::iterator it = parent.find(focal_taxid);
assert(it!=parent.end());
int target = it->second;
if(target!=focal_taxid)
to_root(focal_taxid,target,stats,parent,itt->second,datamap[focal_taxid]);
}
for(std::map<int,double *>::iterator it=datamap.begin();it!=datamap.end();it++)
delete [] it->second;
}
int main_aggregate(int argc, char **argv) {
if (argc <= 1){
helppage_aggregate(stderr);
return 0;
}
char *infile_bdamage = NULL;
char *infile_nodes = NULL;
char *infile_names = NULL;
char *infile_lcastat = NULL;
char *outfile_name = NULL;
char *infile_dfit = NULL;
int howmany;//this is the cycle
while (*(++argv)) {
if (strcasecmp("-h", *argv) == 0 || strcasecmp("--help", *argv) == 0)
helppage_aggregate(stderr);
else if (strcasecmp("--names", *argv) == 0 || strcasecmp("-names", *argv) == 0)
infile_names = strdup(*(++argv));
else if (strcasecmp("--nodes", *argv) == 0 || strcasecmp("-nodes", *argv) == 0)
infile_nodes = strdup(*(++argv));
else if (strcasecmp("--dfit", *argv) == 0 || strcasecmp("-dfit", *argv) == 0)
infile_dfit = strdup(*(++argv));
else if (strcasecmp("-lca", *argv) == 0|| strcasecmp("--lcastat", *argv) == 0|| strcasecmp("-lcastat", *argv) == 0)
infile_lcastat = strdup(*(++argv));
else if (strcasecmp("-o", *argv) == 0 || strcasecmp("--out", *argv) == 0 || strcasecmp("--out_prefix", *argv) == 0)
outfile_name = strdup(*(++argv));
else
infile_bdamage = strdup(*argv);
}
if(infile_nodes&&!infile_names){
fprintf(stderr,"\t-> --names file.txt.gz must be defined with --nodes is defined\n");
exit(1);
}
fprintf(stderr,"aggregate infile_bdamage: %s infile_names: %s infile_nodes: %s infile_lcastat: %s infile_dfit: %s outfile_name: %s\n",infile_bdamage,infile_names,infile_nodes,infile_lcastat,infile_dfit,outfile_name);
if(outfile_name==NULL)
outfile_name = strdup(infile_bdamage);
fprintf(stderr,"aggregate infile_bdamage: %s infile_names: %s infile_nodes: %s infile_lcastat: %s infile_dfit: %s outfile_name: %s\n",infile_bdamage,infile_names,infile_nodes,infile_lcastat,infile_dfit,outfile_name);
char buf[1024];
snprintf(buf, 1024, "%s.stat.gz", outfile_name);
fprintf(stderr, "\t-> Dumping file: \'%s\'\n", buf);
BGZF *fpfpfp = bgzf_open(buf, "wb");
kstring_t *kstr = new kstring_t;
kstr->s = NULL; kstr->l = kstr->m = 0;
// map of taxid -> taxid
int2int parent;
// map of taxid -> rank
int2char rank;
// map of parent -> child taxids
int2intvec child;
if (infile_nodes != NULL)
parse_nodes(infile_nodes, rank, parent, child, 1);
std::map<int, mydataD> retmap = load_bdamage_full(infile_bdamage, howmany);
fprintf(stderr, "\t-> Number of entries in damage pattern file: %lu printlength(howmany):%d\n", retmap.size(), howmany);
int2char name_map;
if (infile_names)
name_map = parse_names(infile_names);
float presize = retmap.size();
if(child.size()>0){
std::map<int,mydataD> results = getval_full_norec(retmap,parent,howmany);//lizard king 2000.
retmap = results;
}
float postsize = retmap.size();
fprintf(stderr, "\t-> pre: %f post:%f grownbyfactor: %f\n", presize, postsize, postsize / presize);
std::map<int, mydata2> stats;
if (infile_lcastat){
stats = load_lcastat(infile_lcastat,1);
presize = stats.size();
}
ksprintf(kstr, "taxid\tname\trank\tnalign\tnreads\tmean_rlen\tvar_rlen\tmean_gc\tvar_gc\tlca\ttaxa_path");
std::map<int, char *> dfit_int_char;
if(infile_dfit!=NULL){
dfit_int_char = read_dfit(infile_dfit);
// fprintf(stderr,"Donedone\n");
}
if(dfit_int_char.size()>0){
std::map<int, char *>::iterator it = dfit_int_char.find(-1);
assert(it!=dfit_int_char.end());
ksprintf(kstr,"\t%s",it->second);
}
ksprintf(kstr,"\n");
#if 0
if(child.size()>0)//this will not work if we have data at internal nodes
getval_stats(stats, child, 1); // this will do everything
#endif
aggr_stat3000(stats,parent);
// exit(0);
if(stats.size()>0){
postsize = stats.size();
fprintf(stderr, "\t-> pre: %f post:%f grownbyfactor: %f\n", presize, postsize, postsize / presize);
}
for (std::map<int, mydata2>::iterator it = stats.begin(); it != stats.end(); it++) {
std::map<int, mydataD>::iterator itold = retmap.find(it->first);
std::map<int, char*>::iterator itchar = dfit_int_char.find(it->first);
int nalign = -1;
if (itold == retmap.end()) {
fprintf(stderr, "\t-> Problem finding taxid: %d\n", it->first);
} else
nalign = itold->second.nal;
char *myrank = NULL;
char *myname = NULL;
if (it->second.nreads > 0) {
int2char::iterator itc = rank.find(it->first);
if (itc != rank.end())
myrank = itc->second;
itc = name_map.find(it->first);
if (itc != name_map.end())
myname = itc->second;
ksprintf(kstr, "%d\t\"%s\"\t\"%s\"\t%d\t%d\t%f\t%f\t%f\t%f", it->first, myname, myrank, nalign, it->second.nreads, it->second.data[0], it->second.data[1], it->second.data[2], it->second.data[3]);
if(child.size()>0)
print_chain(kstr, it->first, parent, rank, name_map,0);
else
ksprintf(kstr,"NA\tNA");
// fprintf(stderr,"%d->(%d,%f,%f,%f,%f)\n",it->first,it->second.nreads,it->second.data[0],it->second.data[1],it->second.data[2],it->second.data[3]);
if(itchar!=dfit_int_char.end())
ksprintf(kstr,"\t%s",itchar->second);
ksprintf(kstr,"\n");
}
}
//cleanup
if(fpfpfp){
if(bgzf_write(fpfpfp,kstr->s,kstr->l) == 0){
fprintf(stderr, "\t-> Cannot write to output BGZ file\n");
exit(1);
}
bgzf_close(fpfpfp);
}
for(int2char::iterator it=name_map.begin();it!=name_map.end();it++)
free(it->second);
for(int2char::iterator it=rank.begin();it!=rank.end();it++)
free(it->second);
for( std::map<int, mydataD>::iterator it = retmap.begin();it!=retmap.end();it++){
mydataD md = it->second;
delete [] md.fwD;
delete [] md.bwD;
}
for( std::map<int, mydata2>::iterator it = stats.begin();it!=stats.end();it++){
mydata2 md = it->second;
delete [] md.data;
}
free(kstr->s);
delete kstr;
if(infile_bdamage)
free(infile_bdamage);
if(infile_nodes)
free(infile_nodes);
if(infile_names)
free(infile_names);
if(infile_lcastat)
free(infile_lcastat);
return 0;
}