source: Sophya/trunk/Cosmo/RadioBeam/calcpk2.cc@ 3976

Last change on this file since 3976 was 3973, checked in by ansari, 14 years ago

Corrections diverses: choix lobe gaussien/triangle et specif DishDiameter au lieu de DoL ds applobe/calcpk2, possibilite application lobe freq.independante ds applobe, Reza 18/04/2011

File size: 9.4 KB
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1/* ------------------------ Projet BAORadio --------------------
2 Programme de calcul du spectre de puissance (3D) a partir d'un
3 cube de delta T/T LSS, d'un cube delta T/T LSS synchrotron
4 ou radio-sources, apres ajustement / soustraction d'une loi de
5 puissance en frequence (l'axe Z du tableau doit etre en frequence)
6
7 R. Ansari , C. Magneville - Juin 2010
8
9Usage: calcpk2 [-t -g] InMapLSS convFacLSS InMapSync convFacSync InMapRadioSource convFacRsc OutPkFile
10 [PixNoiseLevel] [Diameter/Four2DRespTableFile] [TargetBeamArcmin] [NSigSrcThr]
11--------------------------------------------------------------- */
12
13#include "machdefs.h"
14#include "sopnamsp.h"
15#include <iostream>
16#include <string>
17#include <math.h>
18
19#include <typeinfo>
20
21#include "specpk.h"
22#include "histats.h"
23#include "vector3d.h"
24
25#include "qhist.h"
26#include "lobe.h"
27#include "cubedef.h"
28#include "fgndsub.h"
29#include "radutil.h"
30
31#include "histinit.h"
32#include "fftwserver.h"
33#include "randr48.h"
34
35#include "ctimer.h"
36
37typedef ThSDR48RandGen RandomGenerator ;
38
39//-------------------------------------------------------------------------
40// ------------------ MAIN PROGRAM ------------------------------
41//-------------------------------------------------------------------------
42/* --Fonction-- */
43int main(int narg, const char* arg[])
44{
45 if ( (narg<6)||((narg>1)&&(strcmp(arg[1],"-h")==0)) ) {
46 cout << " Usage: [-t -g] calcpk2 InMapLSS convFacLSS InMapFgnd convFacFgnd OutPkFile \n"
47 << " [PixNoiseLevel] [D_Dish/Four2DRespTableFile CorBeamDiam] \n"
48 << " [NSigSrcThr] [P2/P1] [RecMapFile] " << endl;
49 if ((narg>1)&&(strcmp(arg[1],"-h")==0)) {
50 cout << "-t -g : Triangular / gaussian beam shape (def=gaussian) \n"
51 << "- InMapLSS: Input 3D LSS cube (PPF file name) \n "
52 << "- convFacLSS: LSS cube conversion factor to mK (milliKelvin) \n"
53 << "- InMapFgnd: Input 3D foreground cube (PPF file name) \n"
54 << "- convFacFgnd: Foreground cube conversion factor to mK (milliKelvin) \n"
55 << "- PixNoiseLevel: White noise level per pixel (mK) (default=0.) \n"
56 << "- D_Dish/Four2DRespTableFile: Dish diameter or 2D (u,v) plane response (PPF file name) \n"
57 << "- CorBeamDiam: Beam correction target dish diameter \n"
58 << " These two parameters are used to correct for beam effect for a \n"
59 << " target beam (independent of frequency) defined by D/Lambda \n"
60 << " DoL = 100 --> beam ~ 35 arcmin (D=30m @ z~0.5 Lambda~30cm) \n"
61 << " default : no beam correction applied \n "
62 << " - NSigSrcThr: Point source cleaning, Nb_Sigmas on stacked 2D temperature \n"
63 << " default (0.) : no point source cleaning, use NSigSrcThr ~ 3..5 \n"
64 << " - P2/P1: 2nd/first degree polynomial fit on ln(Temp) = f(ln(freq)) \n "
65 << " foreground subtraction. default is P2 \n"
66 << "- RecMapFile: output PPF file for reconstructed foreground template \n"
67 << " (Temperature,SpectralIndex) and extracted LSS cube \n"
68 << endl;
69 return 1;
70 }
71 else cout << " calcpk2 -h for detailed usage " << endl;
72 return 2;
73 }
74 Timer tm("calcpk2");
75 int rc = 0;
76 try {
77 bool fggaussian=true; // true -> gaussian beam
78 // decodage argument optionnel
79 bool fgoptarg=true;
80 while (fgoptarg) {
81 string fbo = arg[1];
82 if (fbo=="-t") { fggaussian=false; arg++; narg--; }
83 else if (fbo=="-g") { fggaussian=true; arg++; narg--; }
84 else fgoptarg=false;
85 }
86 if (narg < 6) {
87 cout << " calcpk2/error arguments , applobe -h for help " << endl;
88 return 2;
89 }
90
91 string inppflss = arg[1];
92 r_4 rfaclss = atof(arg[2]);
93 string inppfsync = arg[3];
94 r_4 rfacsync = atof(arg[4]);
95 string outname = arg[5];
96
97 double pixsignoise = 0.;
98 bool fgaddnoise=false;
99 if (narg>6) {
100 pixsignoise=atof(arg[6]);
101 if (pixsignoise>1.e-6) fgaddnoise=true;
102 }
103
104 bool fgcorrbeam=true;
105
106 bool fgresptbl=false;
107 double DIAMETRE=100.;
108 string resptblname;
109 if (narg>7) {
110 if (isdigit(*arg[7])) {
111 fgresptbl=false;
112 DIAMETRE=atof(arg[7]);
113 }
114 else {
115 resptblname=arg[7];
116 fgresptbl=true;
117 }
118 }
119 double tbeamDiam=0.;
120 if (narg>8) {
121 tbeamDiam=atof(arg[8]);
122 if (tbeamDiam<1.) fgcorrbeam=false;
123 }
124 bool fgclnsrc=true;
125 double nsigsrc=5.;
126 if (narg>9) {
127 nsigsrc=atof(arg[9]);
128 if (nsigsrc<1.e-6) fgclnsrc=false;
129 }
130 bool fgpoly2=true; // true -> soustraction polynome degre 2
131 if ((narg>0)&&(strcmp(arg[10],"P1")==0)) fgpoly2=false;
132 bool fgsavemaps=false;
133 string outmap_ppfname="extlss.ppf";
134 if (narg>11) {
135 outmap_ppfname=arg[11];
136 fgsavemaps=true;
137 }
138
139 TArray<r_4> maplss, mapsync;
140 const char * tits[2]={"LSS", "Sync/RadioSrc"};
141 for(int ks=0; ks<2; ks++) {
142 string& ppfname=inppflss;
143 r_4 rfac=rfaclss;
144 TArray<r_4>* inmap=&maplss;
145 if (ks==1) { ppfname=inppfsync; rfac=rfacsync; inmap=&mapsync; }
146 cout << "calcpk2[" << ks+1 << "] : reading 3D map " << tits[ks] << " from file " << ppfname
147 << " RenormFactor=" << rfac << endl;
148 PInPersist pin(ppfname);
149 pin >> (*inmap);
150 (*inmap) *= rfac;
151 double mean, sigma;
152 MeanSigma(*inmap, mean, sigma);
153 cout << " ...InMap sizes " << inmap->InfoString() << endl;
154 inmap->Show();
155 cout << " ... Mean=" << mean << " Sigma=" << sigma << endl;
156 }
157
158 bool smo;
159 if (!maplss.CompareSizes(mapsync,smo) ) {
160 cout << " calcpk2/ERROR sizes " << endl;
161 maplss.Show(); mapsync.Show();
162 return 99;
163 }
164
165 TArray<r_4> skycube(mapsync);
166 skycube += maplss;
167
168 if (fgaddnoise) {
169 cout << " calcpk2: adding noise to skycube cube ... " << endl;
170 BeamEffect::AddNoise(skycube, pixsignoise);
171 }
172
173 double mean, sigma;
174 MeanSigma(skycube, mean, sigma);
175 cout << " input sky cube : Mean=" << mean << " Sigma=" << sigma << endl;
176 tm.Split(" After input ");
177
178 H21Conversions conv;
179 conv.setFrequency(Freq0MHz);
180 double lambda = conv.getLambda();
181 Four2DResponse arep(2, DIAMETRE/lambda, DIAMETRE/lambda, lambda);
182 Four2DResponse* arep_p=&arep;
183 Four2DRespTable resptbl;
184 if (fgresptbl) {
185 cout << "calcpk2[3.a]: initializing Four2DRespTable from file" << resptblname << endl;
186 resptbl.readFromPPF(resptblname);
187 resptbl.renormalize(1.);
188 arep_p=&resptbl;
189 }
190 else cout << " calcpk2[3.a]: Four2DResponse ( Diameter=" << DIAMETRE << " Lambda= " << lambda
191 << " DoL=" << DIAMETRE/lambda << " ) " << endl;
192
193 double DoL = tbeamDiam/lambda;
194 double tbeamarcmin = RadianToDegree(1.22/DoL)*60.;
195 int typcb = (fggaussian)?1:2;
196 // if (fgresptbl) typcb=22;
197 Four2DResponse tbeam(typcb, DoL, DoL );
198
199 ForegroundCleaner cleaner(*arep_p, tbeam, skycube);
200 if (fgcorrbeam) {
201 cout << "calcpk2[3.b] : calling cleaner.BeamCorrections() for target beam Diameter=" << tbeamDiam
202 << " D/Lambda=" << DoL << " -> arcmin " << tbeamarcmin << " TypDishResp=" << typcb << endl;
203 cleaner.BeamCorrections();
204 }
205 cout << " calcpk2[3.c] : calling cleaner.CleanNegatives() ... " << endl;
206 cleaner.CleanNegatives();
207 if (fgclnsrc) {
208 cout << "calcpk2[3.d] : calling cleaner.CleanPointSources() with threshold NSigma=" << nsigsrc << endl;
209 cleaner.CleanPointSources(nsigsrc);
210 }
211
212 cout << "calcpk2[4] : calling cleaner.extractLSSCube(...) " << endl;
213 TArray<r_4> synctemp, specidx;
214 TArray<r_4> exlss;
215 if (fgpoly2) exlss = cleaner.extractLSSCubeP2(synctemp, specidx);
216 else exlss = cleaner.extractLSSCubeP1(synctemp, specidx);
217
218 MeanSigma(exlss, mean, sigma);
219 cout << " After cleaning/extractLSS: Mean=" << mean << " Sigma=" << sigma << endl;
220 tm.Split(" After CleanForeground");
221
222 cout << "calcpk2[5] : computing 3D Fourier coefficients ... " << endl;
223 FFTWServer ffts;
224 TArray< complex<r_4> > four3d;
225 ffts.FFTForward(exlss, four3d);
226 tm.Split(" After FFTForward ");
227
228 cout << "calcpk2[6] : computing power spectrum ... " << endl;
229 RandomGenerator rg;
230 Four3DPk pkc(four3d, rg);
231 double dkxmpc = DeuxPI/(double)exlss.SizeX()/XCellSizeMpc;
232 double dkympc = DeuxPI/(double)exlss.SizeY()/YCellSizeMpc;
233 double dkzmpc = DeuxPI/(double)exlss.SizeZ()/ZCellSizeMpc;
234 pkc.SetCellSize(dkxmpc, dkympc, dkzmpc);
235
236 HProf hp = pkc.ComputePk(0.,HPk_NBin);
237
238 tm.Split(" Done ComputePk ");
239 {
240 cout << "calcpk2[7.a] : writing profile P(k) to " << outname << endl;
241 POutPersist po(outname);
242 po << hp;
243 }
244 if (fgsavemaps) {
245 cout << "calcpk2[7.b] : writing foreground maps and extracted LSS to " << outmap_ppfname << endl;
246 POutPersist pom(outmap_ppfname);
247 pom << PPFNameTag("Tsync") << synctemp;
248 pom << PPFNameTag("async") << specidx;
249 pom << PPFNameTag("extlss") << exlss;
250 }
251
252 } // End of try bloc
253 catch (PThrowable & exc) { // catching SOPHYA exceptions
254 cerr << " calcpk2.cc: Catched Exception (PThrowable)" << (string)typeid(exc).name()
255 << "\n...exc.Msg= " << exc.Msg() << endl;
256 rc = 99;
257 }
258 catch (std::exception & e) { // catching standard C++ exceptions
259 cerr << " calcpk2.cc: Catched std::exception " << " - what()= " << e.what() << endl;
260 rc = 98;
261 }
262 catch (...) { // catching other exceptions
263 cerr << " calcpk2.cc: some other exception (...) was caught ! " << endl;
264 rc = 97;
265 }
266 cout << " ==== End of calcpk2.cc program Rc= " << rc << endl;
267 return rc;
268}
269
270
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