/[PAMELA software]/quicklook/OrbitalRate/src/OrbitalRate.cpp
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Diff of /quicklook/OrbitalRate/src/OrbitalRate.cpp

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revision 1.4 by pam-rm2, Thu Dec 7 13:27:30 2006 UTC revision 1.8 by pam-rm2, Sat Nov 3 22:11:18 2007 UTC
# Line 50  int main(int argc, char* argv[]){ Line 50  int main(int argc, char* argv[]){
50    int offDate = 20060928;    int offDate = 20060928;
51    //  int offDate = 20060614;    //  int offDate = 20060614;
52    int offTime = 210000;    int offTime = 210000;
53      bool field = false;
54    
55    if (argc < 2){    if (argc < 2){
56      printf("You have to insert at least the file to analyze and the mapFile \n");      printf("You have to insert at least the file to analyze and the mapFile \n");
# Line 66  int main(int argc, char* argv[]){ Line 67  int main(int argc, char* argv[]){
67      printf( "\t -outDir[path]          Path where to put the output.\n");      printf( "\t -outDir[path]          Path where to put the output.\n");
68      printf( "\t -offDate               Date of resetting of the Resource counter [format YYMMDD (UTC date) default 20060928] \n");      printf( "\t -offDate               Date of resetting of the Resource counter [format YYMMDD (UTC date) default 20060928] \n");
69      printf( "\t -offTime               Time of resetting of the Resource counter [format HHMMSS (UTC date) default 210000] \n");      printf( "\t -offTime               Time of resetting of the Resource counter [format HHMMSS (UTC date) default 210000] \n");
70        printf( "\t -field               Produce maps of the magnetic field \n");
71      exit(1);      exit(1);
72    }    }
73    
# Line 79  int main(int argc, char* argv[]){ Line 81  int main(int argc, char* argv[]){
81    }    }
82    
83    for (int i = 2; i < argc; i++){    for (int i = 2; i < argc; i++){
84        if (!strcmp(argv[i], "-field")){
85          field = true;
86          i++;
87          continue;
88        }
89    
90      if (!strcmp(argv[i], "-outDir")){      if (!strcmp(argv[i], "-outDir")){
91        if (++i >= argc){        if (++i >= argc){
92          printf( "-outDir needs arguments. \n");          printf( "-outDir needs arguments. \n");
# Line 138  int main(int argc, char* argv[]){ Line 146  int main(int argc, char* argv[]){
146    }    }
147    
148    if (mapFile != ""){    if (mapFile != ""){
149      Rate(rootFile, outDir, mapFile, tleFile, offDate, offTime);      Rate(rootFile, outDir, mapFile, tleFile, offDate, offTime, field);
150    } else {    } else {
151      printf("You have to insert at least the file to analyze and the mapFile \n");      printf("You have to insert at least the file to analyze and the mapFile \n");
152      printf("Try '--help' for more information. \n");      printf("Try '--help' for more information. \n");
# Line 207  void InitStyle() { Line 215  void InitStyle() {
215  }  }
216    
217    
218  void Rate(TString *filename, TString outDirectory = "", TString mapFile = "", TString tleFile = "", int offDate = 20060614, int offTime = 210000)  void Rate(TString *filename, TString outDirectory = "", TString mapFile = "", TString tleFile = "", int offDate = 20060614, int offTime = 210000, bool field = false)
219  {  {
220    // **** Offset to temporarily correct the TDatime bug ****/    // **** Offset to temporarily correct the TDatime bug ****/
221    offTime += 10000;    //  offTime += 10000;
222    //********************************************************/    //********************************************************/
223    
224    TTree                  *tr         = 0;    TTree                  *tr         = 0;
# Line 272  void Rate(TString *filename, TString out Line 280  void Rate(TString *filename, TString out
280    // Magnetic field histograms.  I use always the suffix _counter    // Magnetic field histograms.  I use always the suffix _counter
281    // because they are not normalized.  Imagine that an instrument    // because they are not normalized.  Imagine that an instrument
282    // give us the value of the magnetic field for each event.    // give us the value of the magnetic field for each event.
283    TH2F *hbabs_counter = new TH2F("hbabs_counter", "B module", 360, -180, 180, 180, -90, 90);    TH2F *hbabs_counter;
284    TH2F *hbnorth_counter = new TH2F("hbnorth_counter", "B north", 360, -180, 180, 180, -90, 90);    TH2F *hbnorth_counter;
285    TH2F *hbdown_counter = new TH2F("hbdown_counter", "B down", 360, -180, 180, 180, -90, 90);    TH2F *hbdown_counter;
286    TH2F *hbeast_counter = new TH2F("hbeast_counter", "B east", 360, -180, 180, 180, -90, 90);    TH2F *hbeast_counter;
287    TH2F *hb0_counter = new TH2F("hb0_counter", "B_0", 360, -180, 180, 180, -90, 90);    TH2F *hb0_counter;
288    TH2F *hl_counter = new TH2F("hl_counter", "l", 360, -180, 180, 180, -90, 90);    TH2F *hl_counter;
289    
290      if(field) {
291        hbabs_counter = new TH2F("hbabs_counter", "B module", 360, -180, 180, 180, -90, 90);
292        hbnorth_counter = new TH2F("hbnorth_counter", "B north", 360, -180, 180, 180, -90, 90);
293        hbdown_counter = new TH2F("hbdown_counter", "B down", 360, -180, 180, 180, -90, 90);
294        hbeast_counter = new TH2F("hbeast_counter", "B east", 360, -180, 180, 180, -90, 90);
295        hb0_counter = new TH2F("hb0_counter", "B_0", 360, -180, 180, 180, -90, 90);
296        hl_counter = new TH2F("hl_counter", "l", 360, -180, 180, 180, -90, 90);
297      }
298    
299    // Get a char* to "file" from "/dir1/dir2/.../file.root"    // Get a char* to "file" from "/dir1/dir2/.../file.root"
300    TString basename;    TString basename;
# Line 307  void Rate(TString *filename, TString out Line 324  void Rate(TString *filename, TString out
324      exit(EXIT_FAILURE);      exit(EXIT_FAILURE);
325    }    }
326    
327    //Get the Julian date of the Resours offset    // Here I do: resurs offset + timesync
328    TDatime offRes = TDatime(offDate, offTime);    TDatime offRes = TDatime(offDate, offTime);
329    // Add to the Resours Offset the timesync.  This is now the date at    TTimeStamp offResTS = TTimeStamp(offRes.GetYear(), offRes.GetMonth(), offRes.GetDay(), offRes.GetHour(), offRes.GetMinute(), offRes.GetSecond(), 0, kTRUE, timesync);
   // the moment of the timesync.  
   offRes.Set(offRes.Convert() + (UInt_t) timesync);  
330    
331    // Now I need a pointer to a cTle object.  The class misses a    // Now I need a pointer to a cTle object.  The class misses a
332    // constructor without arguments, so we have to give it a dummy TLE.    // constructor without arguments, so we have to give it a dummy TLE.
# Line 322  void Rate(TString *filename, TString out Line 337  void Rate(TString *filename, TString out
337    
338    // If we have to use a TLE file, call getTle().    // If we have to use a TLE file, call getTle().
339    if (tleFile != "")    if (tleFile != "")
340      tle1 = getTle(tleFile, offRes);      tle1 = getTle(tleFile, offResTS); // modify getTle() to use offResTS!
341      else
342        cout<<"OrbitalRate: Warning!!! No tle file supplied.\n";
343    
344      // Here I do: resurs offset + timesync - obt of the timesync
345      offResTS.Set(offResTS.GetSec() - obt_timesync, kTRUE, 0, kFALSE);
346    
347    cOrbit       orbit(*tle1);    cOrbit       orbit(*tle1);
348    cEci         eci;    cEci         eci;
349    cCoordGeo    coo;    cCoordGeo    coo;
350    
351    // offRes is now "offset date" + timesync.  Now I subtract the obt    // Here I do: resurs offset + timesync - obt of the timesync - tle time
352    // of the timesync.  Remember that the time of the event from the    TTimeStamp tledate = getTleDatetime(tle1);
   // tle date is:  
   // tle date - (offset date + timesync - obt timesync + obt event).  
   offRes.Set(offRes.Convert() - (UInt_t) obt_timesync);  
   
   // Get the Julian date of the TLE epoch  
   string datetime = getTleDatetime(tle1);  
   TDatime tledate = TDatime(datetime.c_str());  
   
353    cJulian jdatetime = cJulian((int) (tle1->getField(cTle::FLD_EPOCHYEAR)+2e3), tle1->getField(cTle::FLD_EPOCHDAY));    cJulian jdatetime = cJulian((int) (tle1->getField(cTle::FLD_EPOCHYEAR)+2e3), tle1->getField(cTle::FLD_EPOCHDAY));
354    int pYear, pMon; double pDOM;    int pYear, pMon; double pDOM;
355    jdatetime.getComponent(&pYear, &pMon, &pDOM);    jdatetime.getComponent(&pYear, &pMon, &pDOM);
356      offsetTime = ((Long64_t) offResTS.GetSec() - (Long64_t) tledate.GetSec());
   offsetTime = ((Long64_t) offRes.Convert() - (Long64_t) tledate.Convert());  
357    
358    /********** Magnetic Field **************/    /********** Magnetic Field **************/
359    // Check that all this is correct!    // Check that all this is correct!
# Line 351  void Rate(TString *filename, TString out Line 362  void Rate(TString *filename, TString out
362    // I can now compute the magnetic dipole moment at the actual date,    // I can now compute the magnetic dipole moment at the actual date,
363    // using the cJulian date.  I don't to recompute it for every event    // using the cJulian date.  I don't to recompute it for every event
364    // beacause changes are not relevant at all.    // beacause changes are not relevant at all.
365    Int_t y = tledate.GetYear();  //   Int_t y = tledate.GetYear();
366    Int_t m = tledate.GetMonth();  //   Int_t m = tledate.GetMonth();
367    Int_t d = tledate.GetDay();  //   Int_t d = tledate.GetDay();
368      UInt_t y, m, d;
369      tledate.GetDate(kTRUE, 0, &y, &m, &d);
370    float year = (float) y + (m*31+d)/365;    float year = (float) y + (m*31+d)/365;
371    
372    // Initialize common data for geopack    // Initialize common data for geopack
373    recalc_(y, m*31+d, 0, 0, 0);    if(field)
374        recalc_(y, m*31+d, 0, 0, 0);
375    /********** Magnetic Field **************/    /********** Magnetic Field **************/
376    
377    tr = (TTree*)rootFile->Get("Physics");    tr = (TTree*)rootFile->Get("Physics");
# Line 404  void Rate(TString *filename, TString out Line 418  void Rate(TString *filename, TString out
418        ph = eh->GetPscuHeader();        ph = eh->GetPscuHeader();
419    
420        // obt in ms        // obt in ms
421        ULong64_t obt = ph->GetOrbitalTime();        UInt_t obt = (UInt_t) ph->GetOrbitalTime();
422    
423        // timeElapsedFromTLE is the difference, in seconds, between the        // timeElapsedFromTLE is the difference, in seconds, between the
424        // event and the tle date.  I use seconds and not milliseconds        // event and the tle date.  I use seconds and not milliseconds
# Line 457  void Rate(TString *filename, TString out Line 471  void Rate(TString *filename, TString out
471        alt = coo.m_Alt;        alt = coo.m_Alt;
472    
473        /********** Magnetic Field **************/        /********** Magnetic Field **************/
474        igrf_geo__((coo.m_Alt+6371.2)/6371.2, M_PI/2.-coo.m_Lat, coo.m_Lon, br, btheta, bphi);        if(field)
475            igrf_geo__((coo.m_Alt+6371.2)/6371.2, M_PI/2.-coo.m_Lat, coo.m_Lon, br, btheta, bphi);
476        //      cout<<"("<<(coo.m_Alt+6371.2)/6371.2<<", "<<M_PI/2.-coo.m_Lat<<", "<<coo.m_Lon<<")"<<endl;        //      cout<<"("<<(coo.m_Alt+6371.2)/6371.2<<", "<<M_PI/2.-coo.m_Lat<<", "<<coo.m_Lon<<")"<<endl;
477        /********** Magnetic Field **************/        /********** Magnetic Field **************/
478    
# Line 485  void Rate(TString *filename, TString out Line 500  void Rate(TString *filename, TString out
500        // this values but I need to count how many times I fill        // this values but I need to count how many times I fill
501        // each bin.  This is done by the histogram event_counter.        // each bin.  This is done by the histogram event_counter.
502        // I will normalize later.        // I will normalize later.
503        hbabs_counter->Fill(lon, lat, sqrt(br*br+btheta*btheta+bphi*bphi)*1e-5);        if(field) {
504        hbnorth_counter->Fill(lon, lat, -btheta*1e-5);          hbabs_counter->Fill(lon, lat, sqrt(br*br+btheta*btheta+bphi*bphi)*1e-5);
505        hbdown_counter->Fill(lon, lat, -br*1e-5);          hbnorth_counter->Fill(lon, lat, -btheta*1e-5);
506        hbeast_counter->Fill(lon, lat, bphi*1e-5);          hbdown_counter->Fill(lon, lat, -br*1e-5);
507              hbeast_counter->Fill(lon, lat, bphi*1e-5);
508          }
509        // This histograms is now filled with the number of entries.        // This histograms is now filled with the number of entries.
510        // Below we will divide with the time (in seconds) to get        // Below we will divide with the time (in seconds) to get
511        // event rate per bin.        // event rate per bin.
# Line 555  void Rate(TString *filename, TString out Line 571  void Rate(TString *filename, TString out
571    TH2F *trigAndOr_rate = (TH2F*) trigAndOr_counter->Clone("trigAndOr_rate");    TH2F *trigAndOr_rate = (TH2F*) trigAndOr_counter->Clone("trigAndOr_rate");
572    TH2F *trigAndAnd_rate = (TH2F*) trigAndAnd_counter->Clone("trigAndAnd_rate");    TH2F *trigAndAnd_rate = (TH2F*) trigAndAnd_counter->Clone("trigAndAnd_rate");
573    TH2F *nd_rate = (TH2F*) nd_counter->Clone("nd_rate");    TH2F *nd_rate = (TH2F*) nd_counter->Clone("nd_rate");
574    TH2F *hbabs_norm = (TH2F*) hbabs_counter->Clone("hbabs_norm");  
575    TH2F *hbnorth_norm = (TH2F*) hbnorth_counter->Clone("hbnorth_norm");    TH2F *hbabs_norm;
576    TH2F *hbdown_norm = (TH2F*) hbabs_counter->Clone("hbdown_norm");    TH2F *hbnorth_norm;
577    TH2F *hbeast_norm = (TH2F*) hbabs_counter->Clone("hbeast_norm");    TH2F *hbdown_norm;
578      TH2F *hbeast_norm;
579    
580      if(field) {
581        hbabs_norm = (TH2F*) hbabs_counter->Clone("hbabs_norm");
582        hbnorth_norm = (TH2F*) hbnorth_counter->Clone("hbnorth_norm");
583        hbdown_norm = (TH2F*) hbabs_counter->Clone("hbdown_norm");
584        hbeast_norm = (TH2F*) hbabs_counter->Clone("hbeast_norm");
585      }
586    
587    // Now we divide each histogram _counter with the time histogram    // Now we divide each histogram _counter with the time histogram
588    // obtBinTime to have an histogram _rate.  Note that, when a second    // obtBinTime to have an histogram _rate.  Note that, when a second
# Line 625  void Rate(TString *filename, TString out Line 649  void Rate(TString *filename, TString out
649    // fill the bins with the values of the magnetic field for each    // fill the bins with the values of the magnetic field for each
650    // event, we need to divide with the number of fills done, that is    // event, we need to divide with the number of fills done, that is
651    // event_counter.    // event_counter.
652    hbabs_norm->Divide(hbabs_counter, event_counter, 1, 1, "");    if(field) {
653    oss.str("");      hbabs_norm->Divide(hbabs_counter, event_counter, 1, 1, "");
654    oss << basename.Data() << "_orbit_Babs.png";      oss.str("");
655    printHist(hbabs_norm, mapFile, outDirectory, oss.str().c_str(), "B abs (G)", -width, height, 0, 0);      oss << basename.Data() << "_orbit_Babs.png";
656        printHist(hbabs_norm, mapFile, outDirectory, oss.str().c_str(), "B abs (G)", -width, height, 0, 0);
657    hbnorth_norm->Divide(hbnorth_counter, event_counter, 1, 1, "");  
658    oss.str("");      hbnorth_norm->Divide(hbnorth_counter, event_counter, 1, 1, "");
659    oss << basename.Data() << "_orbit_Bnorth.png";      oss.str("");
660    printHist(hbnorth_norm, mapFile, outDirectory, oss.str().c_str(), "B north (G)", -width, height, 0, 1);      oss << basename.Data() << "_orbit_Bnorth.png";
661        printHist(hbnorth_norm, mapFile, outDirectory, oss.str().c_str(), "B north (G)", -width, height, 0, 1);
662    hbdown_norm->Divide(hbdown_counter, event_counter, 1, 1, "");  
663    oss.str("");      hbdown_norm->Divide(hbdown_counter, event_counter, 1, 1, "");
664    oss << basename.Data() << "_orbit_Bdown.png";      oss.str("");
665    printHist(hbdown_norm, mapFile, outDirectory, oss.str().c_str(), "B down (G)", -width, height, 0, 1);      oss << basename.Data() << "_orbit_Bdown.png";
666        printHist(hbdown_norm, mapFile, outDirectory, oss.str().c_str(), "B down (G)", -width, height, 0, 1);
667    hbeast_norm->Divide(hbeast_counter, event_counter, 1, 1, "");  
668    oss.str("");      hbeast_norm->Divide(hbeast_counter, event_counter, 1, 1, "");
669    oss << basename.Data() << "_orbit_Beast.png";      oss.str("");
670    printHist(hbeast_norm, mapFile, outDirectory, oss.str().c_str(), "B east (G)", -width, height, 0, 1);      oss << basename.Data() << "_orbit_Beast.png";
671        printHist(hbeast_norm, mapFile, outDirectory, oss.str().c_str(), "B east (G)", -width, height, 0, 1);
672      }
673    
674    delete obtBinTime;    delete obtBinTime;
675    delete event_counter;    delete event_counter;
# Line 668  void Rate(TString *filename, TString out Line 693  void Rate(TString *filename, TString out
693    delete trigS111A_rate;    delete trigS111A_rate;
694    delete trigS12andS21andS22_rate;    delete trigS12andS21andS22_rate;
695    
696    delete hbabs_counter;    if(field) {
697    delete hbnorth_counter;      delete hbabs_counter;
698    delete hbdown_counter;      delete hbnorth_counter;
699    delete hbeast_counter;      delete hbdown_counter;
700    delete hbabs_norm;      delete hbeast_counter;
701    delete hbnorth_norm;      delete hbabs_norm;
702    delete hbdown_norm;      delete hbnorth_norm;
703    delete hbeast_norm;      delete hbdown_norm;
704        delete hbeast_norm;
705      }
706    
707    rootFile->Close();    rootFile->Close();
708  }  }
# Line 699  void Rate(TString *filename, TString out Line 726  void Rate(TString *filename, TString out
726  // Scale() and Merge()).  // Scale() and Merge()).
727  //  //
728  // This function depends on InitStyle();  // This function depends on InitStyle();
729  int printHist(TH2F *h, TString mapFile, TString outDirectory, TString outputFilename, char *title, int width, int height, bool use_log, bool bool_shift)  int printHist(TH2F *h, TString mapFile, TString outDirectory, TString outputFilename, const char *title, int width, int height, bool use_log, bool bool_shift)
730  {  {
731    InitStyle();    InitStyle();
732    
# Line 797  void saveHist(TH1 *h, TString savetoroot Line 824  void saveHist(TH1 *h, TString savetoroot
824  // querying the database with the RESURS DK-1 id number 29228,  // querying the database with the RESURS DK-1 id number 29228,
825  // selecting the widest timespan, including the satellite name in the  // selecting the widest timespan, including the satellite name in the
826  // results.  // results.
827  cTle *getTle(TString tleFile, TDatime offRes)  cTle *getTle(TString tleFile, TTimeStamp offResTS)
828  {  {
829    Float_t tledatefromfile, tledatefromroot;    Float_t tledatefromfile, tledatefromroot;
830    fstream tlefile(tleFile.Data(), ios::in);    fstream tlefile(tleFile.Data(), ios::in);
# Line 827  cTle *getTle(TString tleFile, TDatime of Line 854  cTle *getTle(TString tleFile, TDatime of
854    // Sort by date    // Sort by date
855    sort(ctles.begin(), ctles.end(), compTLE);    sort(ctles.begin(), ctles.end(), compTLE);
856    
857    tledatefromroot = (offRes.GetYear()-2000)*1e3 + (offRes.Convert() - (TDatime(offRes.GetYear(), 1, 1, 0, 0, 0)).Convert())/ (24.*3600.);    UInt_t year, month, day;
858      offResTS.GetDate(kTRUE, 0, &year, &month, &day);
859      TTimeStamp firstofjan = TTimeStamp(year, 1, 1, 0, 0, 0);
860      tledatefromroot = (year-2000)*1e3 + (offResTS.GetSec() - firstofjan.GetSec())/(24.*3600.);
861    
862    for(iter = ctles.begin(); iter != ctles.end(); iter++) {    for(iter = ctles.begin(); iter != ctles.end(); iter++) {
863      cTle *tle = *iter;      cTle *tle = *iter;
# Line 871  float getTleJulian(cTle *tle) { Line 901  float getTleJulian(cTle *tle) {
901    
902  // Look for a timesync in the TFile rootFile.  Set timesync and  // Look for a timesync in the TFile rootFile.  Set timesync and
903  // obt_timesync.  Returns 1 if timesync is found, 0 otherwise.  // obt_timesync.  Returns 1 if timesync is found, 0 otherwise.
904  int lookforTimesync(TFile *rootFile, Float_t *timesync, Float_t *obt_timesync) {  UInt_t lookforTimesync(TFile *rootFile, Float_t *timesync, Float_t *obt_timesync) {
905    *timesync = -1;  // will be != -1 if found    *timesync = -1;  // will be != -1 if found
906    
907    ULong64_t             nevents    = 0;    ULong64_t             nevents    = 0;
# Line 942  TH2F* shiftHist(TH2F* h, Float_t shift) Line 972  TH2F* shiftHist(TH2F* h, Float_t shift)
972  }  }
973    
974    
975  // Return a string like YYYY-MM-DD hh:mm:ss, a datetime format.  //
976  string getTleDatetime(cTle *tle)  // Returns the tle date as a TTimeStamp object.
977    //
978    TTimeStamp getTleDatetime(cTle *tle)
979  {  {
980    int year, mon, day, hh, mm, ss;    int year, mon, day, hh, mm, ss;
981    double dom; // day of month (is double!)    double dom; // day of month (is double!)
# Line 963  string getTleDatetime(cTle *tle) Line 995  string getTleDatetime(cTle *tle)
995    ss = (int) floor( ((((dom - day) * 24 - hh) * 60 - mm) * 60));    ss = (int) floor( ((((dom - day) * 24 - hh) * 60 - mm) * 60));
996    //  ms = (int) floor( (((((dom - day) * 24 - hh) * 60 - mm) * 60) - ss) * 1000);    //  ms = (int) floor( (((((dom - day) * 24 - hh) * 60 - mm) * 60) - ss) * 1000);
997    
998    date << year << "-" << mon << "-" << day << " " << hh << ":" << mm << ":" << ss;    TTimeStamp t = TTimeStamp(year, mon, day, hh, mm, ss, 0, true);
999    
1000    return date.str();    return t;
1001  }  }
1002    
1003  //  //
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