#include "sopnamsp.h"
#include "pmixer.h"
/*!
* \defgroup PMixer PMixer module
* This module contains programs which:
*
* - add several sky components, taking into account their
* radiation spectra and convoluting them with a given filter
* response : skymixer
*
- create a map with point source : extractRS
*
- generate sky components, radiation spectra and spectral
* response (small generator of maps) : tgsky and tgrsr
*
* A detailed description may be found at:
*/
/*!
* \ingroup PMixer
* \file skymixer.cc
*\brief \b PROGRAM \b skyMixer
* add several sky components, taking into account their
*radiation spectra and convoluting them with a given filter
*response
*/
// -----------------------------------------------------------------
// ------------- Function declaration ------------------------------
int CheckCards(DataCards & dc, string & msg, FitsOutFile& fios);
char * BuildFITSFileName(string const & fname);
SpectralResponse * getSpectralResponse(DataCards & dc, FitsOutFile& fios);
RadSpectra * getEmissionSpectra(DataCards & dc, int nc, FitsOutFile& fios);
void SKM_MergeFITSKeywords(char * flnm);
void SKM_MergeFITSKeywords2(DVList & dvl);
void RadSpec2Nt(RadSpectra & rs, POutPersist & so, string name);
void SpectralResponse2Nt(SpectralResponse& sr, POutPersist & so, string name);
// to add different sky components and corresponding tools
//----------------------------------------------------------
template
void addComponent(SpectralResponse& sr,
PixelMap& finalMap,
PixelMap& mapToAdd,
RadSpectra& rs, double K=1.);
//
template
void addComponentBeta(SphereHEALPix& finalMap,
SphereHEALPix& mapToAdd,SpectralResponse& sr,
SphereHEALPix& betaMap, double normFreq, double K);
//
template
void integratedMap(SpectralResponse& sr,
SphereHEALPix& betaMap, double normFreq, SphereHEALPix& intBetaMap);
//
template
void addComponentBeta(SphereHEALPix& finalMap,
SphereHEALPix& mapToAdd,
SphereHEALPix& intBetaMap, double K);
//
template
void addDipole(SpectralResponse& sr, PixelMap& finalMap,
double theta,double phi,double amp,double temp);
//
// -----------------------------------------------------------------
// ----- Global (static) variables ------------
static bool rdmap = false; // true -> Read map first
static char mapPath[256]; // Path for input maps
static int hp_nside = 32; // HealPix NSide
static int nskycomp = 0; // Number of sky components
static int debuglev = 0; // Debug Level
static int printlev = 0; // Print Level
static POutPersist * so = NULL; // Debug PPFOut file
static DVList * dvl_fitskw = NULL; // Global DVList for all FITS Keywords
bool checkpdmtype=false;
bool dvliston= false;
// --------- SkyMixer Version --------------
static double skm_version = 1.5;
// -------------------------------------------------------------------------
// main program
// -------------------------------------------------------------------------
int main(int narg, char * arg[])
{
if ((narg < 3) || ((narg > 1) && (strcmp(arg[1], "-h") == 0) )) {
cout << " Usage: skymixer parameterFile outputfitsname [outppfname]" << endl;
exit(0);
}
InitTim();
FitsOutFile fios(arg[2]);
cout << " skymixer Version= " << skm_version << " SophyaVersion= "
<< SophyaVersion() << endl;
string msg;
int rc = 0;
RadSpectra * es = NULL;
SpectralResponse * sr = NULL;
double moy, sig;
DataCards dc;
so = NULL;
// DVList for merging all FITS keywords and datacards
dvl_fitskw = new DVList;
try {
string dcard = arg[1];
if(printlev > 1) cout << " Decoding parameters from file " << dcard << endl;
dc.ReadFile(dcard);
rc = CheckCards(dc, msg,fios);
if (rc) {
cerr << " Error condition -> Rc= " << rc << endl;
cerr << " Msg= " << msg << endl;
return(rc);
}
}
catch (PException exc) {
msg = exc.Msg();
cerr << " !!!! skymixer/ Readcard - Catched exception - Msg= " << exc.Msg() << endl;
return(90);
}
cout << " skymix/Info : NComp = " << nskycomp << " SphereHEALPix_NSide= " << hp_nside << endl;
cout << " ... MapPath = " << (string)mapPath << " DebugLev= " << debuglev
<< " PrintLev= " << printlev << endl;
// We create an output persist file for writing debug objects
if (debuglev > 0) so = new POutPersist("skymixdbg.ppf");
int countHead = 2;
SphereHEALPix outgs(hp_nside);
try{
if (rdmap) { // Reading map from FITS file
char ifnm[256];
strncpy(ifnm, dc.SParam("READMAP", 0).c_str(), 255);
ifnm[255] = '\0';
cout << " Reading output HealPix map from FITS file " << (string)ifnm << endl;
{
FitsInFile fitsin(ifnm);
fitsin >> outgs;
// Getting FITS keywords in primary header
// SKM_MergeFITSKeywords(ifnm);
// Getting FITS keywords in data object header
if(checkpdmtype)
{
int status = 1;
string whatsup=fitsin.getStringKeyword(2,"PDMTYPE",status);
if(!(status==0&&whatsup=="COMPMAP"))
{
cerr << " !!!! skymixer - file" << ifnm << " is not a COMPMAP " << endl;
throw ParmError("Error");
}
else cout << "read the comment COMPMAP from " << ifnm << endl;
}
if(dvliston) SKM_MergeFITSKeywords2(outgs.Info());
else
{
fios.appendInputHeader(fitsin, countHead);
}
}
if(printlev>0)
cout << " Output HealPIx Map read - NbPixels= " <<
outgs.NbPixels() << endl;
if (printlev > 0) {
MeanSig(outgs.DataBlock(), moy, sig );
cout << " MeanSig for outpout map - Mean= " <<
moy << " Sigma= " << sig << endl;
}
}
else {
if(printlev>0)
cout << " Output HealPix Map created - NbPixels= " <<
outgs.NbPixels() << endl;
outgs.SetPixels(0.);
}
// Decoding detection pass-band filter
sr = getSpectralResponse(dc,fios);
PrtTim(" After FilterCreation ");
char * flnm, buff[90];
string key;
double K = 1.;
double freqOfMap = 1.;
// Loop over sky component
int sk;
for(sk = 0; sk3)
{
temp = dc.DParam(key,4,1.);
}
cout << " creating dipole " << temp << " " << amp << " " << phi << " " << theta << " " << endl;
addDipole(*sr, outgs,theta,phi,amp,temp);
}
else
{
sprintf(buff, "%d", sk+1);
key = (string)"MAPFITSFILE" + buff;
flnm = BuildFITSFileName(dc.SParam(key, 0));
K = dc.DParam(key, 1, 1.);
cout << " Reading Input FITS map " << (string)flnm << endl;
SphereHEALPix ings(hp_nside);
{
FitsInFile fiosIn(flnm);
fiosIn >> ings;
// Getting FITS keywords in primary header
// SKM_MergeFITSKeywords(flnm);
// Getting FITS keywords in data object header
//if(fiosIn.hasKeyword(string("PDMTYPE"), 1)) cout << "read the comment COMPMAP from " << flnm << endl;
if(checkpdmtype)
{
int status = 1;
string ch = "PDMTYPE";
string whatsup=fiosIn.getStringKeyword(2,ch,status);
if(!(status==0&&whatsup=="COMPMAP"))
{
cerr << " !!!! skymixer - file" << flnm << " is not a COMPMAP " << endl;
throw ParmError("Error");
}
else cout << "read the comment COMPMAP from " << flnm << endl;
}
if(dvliston) SKM_MergeFITSKeywords2(ings.Info());
else
{
fios.appendInputHeader(fiosIn, countHead);
}
}
if (debuglev > 4) { // Writing the input map to the outppf
FIO_SphereHEALPix fiog(ings);
fiog.Write(*so, key);
}
if (printlev > 2) {
MeanSig(ings.DataBlock(), moy, sig );
cout << " MeanSig for input map - Mean= " << moy << " Sigma= " << sig << endl;
}
bool mapDependentOfFreq = false;
key = (string)"BETAFITSFILE"+ buff;
if(dc.HasKey(key))
{
mapDependentOfFreq = true;
}
// getting Emission spectra
if(!mapDependentOfFreq)
{
if (es) { delete es; es = NULL; }
es = getEmissionSpectra(dc, sk,fios);
addComponent(*sr, outgs, ings, *es, K);
}
else
{
key = (string)"BETAFITSFILE"+ buff;
//SphereHEALPix betaMap;
flnm = BuildFITSFileName(dc.SParam(key, 0));
double normFreq = dc.DParam(key, 1, 1.);
if (printlev > 4) cout << "....BetaFits... normalization Freq = " << normFreq << endl;
int nSideForInt = dc.DParam(key, 2, 1.);
if (printlev > 4) cout << "....BetaFits... NSide for Integration map = " << nSideForInt << endl;
cout << "....BetaFits... Reading Beta FITS map " << (string)flnm << endl;
SphereHEALPix betaMap(hp_nside);
{
FitsInFile fiosBM(flnm);
fiosBM >> betaMap;
// Getting FITS keywords in primary header
// SKM_MergeFITSKeywords(flnm);
// Getting FITS keywords in data object header
//if(fiosBM.hasKeyword(string("COMPMAP"), 1)) cout << "read the comment COMPMAP from " << flnm << endl;
if(checkpdmtype)
{
int status = 1;
string whatsup=fiosBM.getStringKeyword(2,"PDMTYPE",status);
if(!(status==0&&whatsup=="INDEXMAP"))
{
cerr << " !!!! skymixer - file" << flnm << " is not an INDEXMAP " << endl;
throw ParmError("Error");
}
else cout << "read the comment INDEXMAP from " << flnm << endl;
}
if(dvliston) SKM_MergeFITSKeywords2(betaMap.Info());
else
{
fios.appendInputHeader(fiosBM, countHead);
}
}
if (printlev > 2) {
MeanSig(betaMap.DataBlock(), moy, sig );
cout << " MeanSig for Beta map - Mean= " << moy << " Sigma= " << sig << endl;
}
if (debuglev > 4) { // Writing the input map to the outppf
FIO_SphereHEALPix fiogs(betaMap);
fiogs.Write(*so, key);
}
if(nSideForInt<0) nSideForInt = sqrt((double)betaMap.NbPixels()/12);
bool bydefault = true;
if(!bydefault)
addComponentBeta(outgs,ings,*sr,betaMap,normFreq, K);
else
{
// integrate the betamap over the SpectralResponse
SphereHEALPix intBetaMap(nSideForInt);
integratedMap(*sr, betaMap, normFreq, intBetaMap);
if (debuglev > 4) { // Writing the input map to the outppf
FIO_SphereHEALPix fiogs2(intBetaMap);
fiogs2.Write(*so, "INTBETAMAP");
}
betaMap.Resize(8);
if (printlev > 4)
{
MeanSig(intBetaMap.DataBlock(), moy, sig );
cout << "....BetaFits... MeanSig for intBetaMap - Mean= "
<< moy << " Sigma= " << sig << endl;
}
// add the integrated beta map
addComponentBeta(outgs,ings,intBetaMap, K);
}
}
MeanSig(outgs.DataBlock(), moy, sig );
cout << " MeanSig for Sum map - Mean= " << moy << " Sigma= " << sig << endl;
cout << "-------------------------------------------------" << endl;
sprintf(buff, "End of Processing Component %d ", sk+1);
PrtTim(buff);
}
}
}
catch(PException exc)
{
cout << "catched PException" << endl;
msg = exc.Msg();
cerr << " !!!! skymixer - Catched exception - Msg= " << exc.Msg() << endl;
rc = 50;
return(50);
}
try {
// Saving the output map in FITS format
cout << "Output Map (SphereHEALPix) written to FITS file "
<< (string)(arg[2]) << endl;
{
// FitsOutFile fios(arg[2]);
fios.firstImageOnPrimaryHeader(false); // Use secondary header
DVList& dvl = (*dvl_fitskw);
dvl["PDMTYPE"] = "COMPMAP";
dvl.SetComment("PDMTYPE", "Planck Data Model Type");
dvl["SOPHYVER"] = SophyaVersion();
dvl.SetComment("SOPHYVER", "Sophya Version number");
dvl["SKYMVER"] = skm_version;
dvl.SetComment("SKYMVER", "skymixer Version number");
// fios.DVListIntoPrimaryHeader(dvl);
dvl["CREATOR"] = "SkyMixer";
outgs.Info() = dvl;
fios << outgs ;
}
PrtTim("End of WriteFITS ");
// Saving the output map in PPF format
if (narg > 3) {
POutPersist s(arg[3]);
FIO_SphereHEALPix fiog(&outgs) ;
fiog.Write(s);
cout << "Output Map (SphereHEALPix) written to POutPersist file "
<< (string)(arg[3]) << endl;
PrtTim("End of WritePPF ");
}
}
catch(PException exc)
{
cout << "catched PException (2)" << endl;
msg = exc.Msg();
cerr << " !!!! skymixer(2) - Catched exception - Msg= " << exc.Msg() << endl;
rc = 55;
return(55);
}
if (so) delete so; // Closing the debug ppf file
return(rc);
}
/* Nouvelle-Fonction */
int CheckCards(DataCards & dc, string & msg, FitsOutFile& fios)
// Function to check datacards
{
rdmap = false;
mapPath[0] = '\0';
hp_nside = 32;
nskycomp = 0;
debuglev = 0;
printlev = 0;
int rc = 0;
string key, key2,key3;
DVList & dvl = *dvl_fitskw;
// Cheking datacards
if (dc.NbParam("SKYMIX") < 2) {
rc = 71;
msg = "Invalid parameters - Check @SKYMIX card ";
return(rc);
}
if(dvliston)
dvl.SetS("SKYMIX", dc.GetParams("SKYMIX"));
else
{
fios.insertCommentLineOnHeader("--------------------");
fios.insertCommentLineOnHeader("SkyMixer DataCard");
fios.insertCommentLineOnHeader("--------------------");
string key = "SKYMIX"+ (string)dc.GetParams("SKYMIX");
fios.insertCommentLineOnHeader(key);
}
key = "CHECKPDMTYPE";
if (dc.HasKey(key)) {
checkpdmtype=true;
}
key = "READMAP";
if (dc.HasKey(key)) {
if (dc.NbParam(key) < 1) {
rc = 72;
msg = "Invalid parameters - Check @READMAP card ";
return(rc);
}
else rdmap = true;
if(dvliston) dvl.SetS(key, dc.GetParams(key));
else
{
string keynew = key + (string)dc.GetParams(key);
fios.insertCommentLineOnHeader(keynew);
}
}
// Checking detection filter specification
key = "GAUSSFILTER";
key2 = "FILTERFITSFILE";
key3 = "DIPOLE";
if ( (dc.NbParam(key) < 5) && (dc.NbParam(key2) < 3) && (dc.NbParam(key3) < 3)) {
msg = "Missing card or parameters : Check @GAUSSFILTER or @FILTERFITSFILE or @DIPOLE";
rc = 73; return(rc);
}
if (dc.HasKey(key))
{
if(dvliston) dvl.SetS("GAUSFILT", dc.GetParams(key));
else
{
string keynew = key + (string)dc.GetParams(key);
fios.insertCommentLineOnHeader(keynew);
}
}
if (dc.HasKey(key2))
{
if(dvliston) dvl.SetS("FILTFILE", dc.GetParams(key2));
else
{
string keynew = key2 + (string)dc.GetParams(key2);
fios.insertCommentLineOnHeader(keynew);
}
}
if (dc.HasKey(key3))
{
if(dvliston) dvl.SetS("DIPOLE", dc.GetParams(key3));
else
{
string keynew = key3 + (string)dc.GetParams(key3);
fios.insertCommentLineOnHeader(keynew);
}
}
// Decoding number of component and pixelisation parameter
int mg = 32;
int ncomp = 0;
ncomp = dc.IParam("SKYMIX", 0, 0);
mg = dc.IParam("SKYMIX", 1, 32);
if (ncomp < 1) {
msg = "Invalid parameters - Check datacards @SKYMIX ";
rc = 74;
return(rc);
}
// Checking detection filter specification
// Checking input FITS file specifications
int kc;
char buff[256];
bool pb = false;
string key4;
string key5;
string key6;
for(kc=0; kc> mtx ;
// Getting FITS keywords in primary header
// SKM_MergeFITSKeywords(ifnm);
// Getting FITS keywords in data object header
if(checkpdmtype)
{
int status = 1;
string whatsup=fiis.getStringKeyword(2,"PDMTYPE",status);
if(!(status==0&&whatsup=="COMPMAP"))
{
cerr << " !!!! skymixer - file" << ifnm << " is not a COMPMAP " << endl;
throw ParmError("Error");
}
else cout << "read the comment COMPMAP from " << ifnm << endl;
}
if(dvliston) SKM_MergeFITSKeywords2(mtx.Info());
else
{
fios.appendInputHeader(fiis, 2);
}
double numin = dc.DParam(key, 2, 1.);
double numax = dc.DParam(key, 3, 9999.);
Vector nu(mtx.NCols());
Vector fnu(mtx.NCols());
for(int k=0; k0)
{
cout << endl;
cout << " Filter decoded - Created " << endl;
cout << *filt << endl;
}
// for debug
if (debuglev > 1) SpectralResponse2Nt(*filt, *so, ppfname);
return(filt);
}
/* Nouvelle-Fonction */
RadSpectra * getEmissionSpectra(DataCards & dc, int nc, FitsOutFile& fios)
{
char numb[16];
sprintf(numb, "%d", nc+1);
string key = (string)"SPECTRAFITSFILE" + numb;
string key2 = (string)"BLACKBODY" + numb;
string key5 = (string)"DERIVBB" + numb;
string key3 = (string)"POWERLAWSPECTRA" + numb;
string ppfname = "espectra";
RadSpectra * rs = NULL;
if (dc.HasKey(key) ) { // Reading emission spectra from file
char * ifnm = BuildFITSFileName(dc.SParam(key, 0));
cout << " Reading Input FITS spectra file " << (string)ifnm << endl;
Matrix mtx;
FitsInFile fiis(ifnm);
fiis.firstImageOnPrimaryHeader(false); // Use secondary header HDU=2
fiis >> mtx ;
// Getting FITS keywords in primary header
// SKM_MergeFITSKeywords(ifnm);
// Getting FITS keywords in data object header
//if(fiis.hasKeyword(string("PDMTYPE"), 1)) cout << "read the comment COMPMAP from " << ifnm << endl;
if(checkpdmtype)
{
int status = 1;
string whatsup=fiis.getStringKeyword(2,"PDMTYPE",status);
if(!(status==0&&whatsup=="FGRSPEC"))
{
cerr << " !!!! skymixer - file" << ifnm << " is not a FGRSPEC" << endl;
throw ParmError("Error");
}
else cout << "read the comment FGRSPEC from " << ifnm << endl;
}
if(dvliston) SKM_MergeFITSKeywords2(mtx.Info());
else
{
fios.appendInputHeader(fiis, 2);
}
double numin = dc.DParam(key, 2, 1.);
double numax = dc.DParam(key, 3, 9999.);
Vector nu(mtx.NCols());
Vector tnu(mtx.NCols());
for(int k=0; k 2) RadSpec2Nt(*rs, *so, ppfname);
return(rs);
}
template
void addDipole(SpectralResponse& sr, PixelMap& finalMap,
double theta,double phi,double amp,double temp)
{
DerivBlackBody dbb;
if(temp>0) dbb.setTemperature(temp);
double coeff = dbb.filteredIntegratedFlux(sr) * amp;
UnitVector vd(theta,phi);
UnitVector vc(theta,phi);
for(int i=0; i 4) { // Writing the input map to the outppf
SphereHEALPix ings((int)sqrt((double)finalMap.NbPixels()/12));
for(int i=0; i fiog(ings);
fiog.Write(*so, "dipole");
cout << "Debug the dipole map....saved in debug file !" << endl;
}
}
/* Nouvelle-Fonction */
template
void addComponent(SpectralResponse& sr, PixelMap& finalMap,
PixelMap& mapToAdd, RadSpectra& rs, double K)
{
// finalMap = finalMap + coeff* mapToAdd
// coeff = convolution of sr and rs
// compute the coefficient corresponding to mapToAdd
if (finalMap.NbPixels() != mapToAdd.NbPixels())
throw SzMismatchError("addComponent()/Error: Unequal number of Input/Output map pixels");
double coeff = rs.filteredIntegratedFlux(sr) * K;
if (printlev > 1)
cout << " addComponent - Coeff= " << coeff << " (K= " << K << ")" << endl;
for(int i=0; i
void addComponentBeta(SphereHEALPix& finalMap,
SphereHEALPix& mapToAdd,SpectralResponse& sr,
SphereHEALPix& betaMap, double normFreq, double K)
{
// finalMap = finalMap + coeff* mapToAdd
// coeff = convolution of sr and rs
// compute the coefficient corresponding to mapToAdd
// betaMap is the map of (beta(theta,phi))
int nbpix = finalMap.NbPixels();
if (nbpix != mapToAdd.NbPixels())
throw SzMismatchError("addComponentBeta()/Error: Unequal number of Input/Output map pixels");
if (printlev > 1)
{
cout << "addComponentBeta - Coeff= " << K << endl;
cout << "nb pixels: " << finalMap.NbPixels() << endl;
}
SphereHEALPix bigBetaMap((int)sqrt((double)nbpix/12));
if(nbpix != betaMap.NbPixels())
{
Sph2Sph(betaMap,bigBetaMap);
}
for(int i=0; ifilteredIntegratedFlux(sr);
finalMap(i) += coeff*K*mapToAdd(i);
}
}
template
void integratedMap(SpectralResponse& sr,
SphereHEALPix& betaMap,
double normFreq,
SphereHEALPix& intBetaMap)
{
PowerLawSpectra rs(1.,-2., 0., normFreq);
if(betaMap.NbPixels()!=intBetaMap.NbPixels())
{
Sph2Sph(betaMap,intBetaMap);
for(int i=0; i
void addComponentBeta(SphereHEALPix& finalMap,
SphereHEALPix& mapToAdd,SphereHEALPix& intBetaMap, double K)
{
// finalMap = finalMap + coeff* mapToAdd
// coeff = convolution of sr and rs
// compute the coefficient corresponding to mapToAdd
// integBetaMap is the map of the integration (nu/normFreq)^(-beta(theta,phi)) over
// the spectralResponse
// different from addComponentBeta(PixelMap& finalMap,
// PixelMap& mapToAdd,SpectralResponse& sr, PixelMap& betaMap, double normFreq, double K)
// since it permits to use a intBetaMap with a different number of pixels than
// the other maps
int nbpix = finalMap.NbPixels();
if (nbpix != mapToAdd.NbPixels())
throw SzMismatchError("addComponentBeta(PixelMap&,PixelMap&,PixelMap&,double)/Error: Unequal number of Input/Output map pixels");
double coeff = K;
if(nbpix != intBetaMap.NbPixels())
{
for(int i=0; i 1)
{
cout << "addComponentBeta(SG,SG,SG,double) - Coeff= " << K << endl;
}
}
/* Nouvelle-Fonction */
void SKM_MergeFITSKeywords(char * flnm)
{
DVList dvl;
FitsFile::FitsExtensionType typeOfExtension;
int naxis;
vector naxisn;
FitsFile::FitsDataType dataType;
FitsInFile::GetBlockType(flnm, 1, typeOfExtension, naxis, naxisn, dataType, dvl);
// Cleaning the keywords
#define SZexlst 21
char *exlst[SZexlst]=
{"SIMPLE","BITPIX" ,"NAXIS" ,"NAXIS#" ,"PCOUNT","GCOUNT",
"EXTEND","ORIGIN" ,"DATE*" ,"TFIELDS","TTYPE#","TFORM#",
"TUNIT#","EXTNAME","CTYPE#","CRVAL#" ,"CRPIX#","CDELT#",
"XTENSION","INSTRUME","TELESCOP"};
char kwex[32];
int i,l;
for (i=0; i lstsup;
kwex[l] = '\0';
DVList::ValList::const_iterator it;
for (it = dvl.Begin(); it != dvl.End(); it++) {
if ((*it).first.substr(0,l) != kwex) continue;
if (fgd && !isdigit((*it).first[l])) continue;
lstsup.push_back((*it).first);
}
list::iterator it2;
for (it2 = lstsup.begin(); it2 != lstsup.end(); it2++)
dvl.DeleteKey(*it2);
}
}
dvl_fitskw->Merge(dvl);
}
/* Nouvelle-Fonction */
void SKM_MergeFITSKeywords2(DVList & dvl)
{
// Cleaning the keywords
#define SZexlst 21
char *exlst[SZexlst]=
{"SIMPLE","BITPIX" ,"NAXIS" ,"NAXIS#" ,"PCOUNT","GCOUNT",
"EXTEND","ORIGIN" ,"DATE*" ,"TFIELDS","TTYPE#","TFORM#",
"TUNIT#","EXTNAME","CTYPE#","CRVAL#" ,"CRPIX#","CDELT#",
"XTENSION","INSTRUME","TELESCOP"};
char kwex[32];
int i,l;
for (i=0; i lstsup;
kwex[l] = '\0';
DVList::ValList::const_iterator it;
for (it = dvl.Begin(); it != dvl.End(); it++) {
if ((*it).first.substr(0,l) != kwex) continue;
if (fgd && !isdigit((*it).first[l])) continue;
lstsup.push_back((*it).first);
}
list::iterator it2;
for (it2 = lstsup.begin(); it2 != lstsup.end(); it2++)
dvl.DeleteKey(*it2);
}
}
dvl_fitskw->Merge(dvl);
}
/* Nouvelle-Fonction */
void RadSpec2Nt(RadSpectra & rs, POutPersist & so, string name)
{
char *ntn[2] = {"nu","fnu"};
NTuple nt(2,ntn); // Creation NTuple (AVEC new )
float xnt[2];
double nu;
double numin = rs.minFreq();
double numax = rs.maxFreq();
int nmax = 500;
double dnu = (numax-numin)/nmax;
for(int k=0; k oiont(&nt);
oiont.Write(so, name);
return;
}
/* Nouvelle-Fonction */
void SpectralResponse2Nt(SpectralResponse& sr, POutPersist & so, string name)
{
char *ntn[2] = {"nu","tnu"};
NTuple nt(2,ntn); // Creation NTuple (AVEC new )
float xnt[2];
double nu;
double numin = sr.minFreq();
double numax = sr.maxFreq();
int nmax = 500;
double dnu = (numax-numin)/nmax;
for(int k=0; k oiont(&nt);
oiont.Write(so, name);
return;
}