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"); |
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 |
|
|
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"); |
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"); |
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; |
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; |
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); |
330 |
// the moment of the timesync. |
// cout<<"timesync="<<timesync<<" obt_timesync="<<obt_timesync<<endl; |
331 |
offRes.Set(offRes.Convert() + (UInt_t) timesync); |
// cout<<"offResTS.GetSec()="<<offResTS.GetSec()<<endl; |
332 |
|
// cout<<"offResTS.AsString()="<<offResTS.AsString()<<endl<<endl; |
333 |
|
|
334 |
// 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 |
335 |
// constructor without arguments, so we have to give it a dummy TLE. |
// constructor without arguments, so we have to give it a dummy TLE. |
340 |
|
|
341 |
// If we have to use a TLE file, call getTle(). |
// If we have to use a TLE file, call getTle(). |
342 |
if (tleFile != "") |
if (tleFile != "") |
343 |
tle1 = getTle(tleFile, offRes); |
tle1 = getTle(tleFile, offResTS); // modify getTle() to use offResTS! |
344 |
|
else |
345 |
|
cout<<"OrbitalRate: Warning!!! No tle file supplied.\n"; |
346 |
|
|
347 |
|
// Here I do: resurs offset + timesync - obt of the timesync |
348 |
|
// cout<<"here0 "<<offResTS.GetSec()<<endl; |
349 |
|
// offResTS.Set(offResTS.GetSec() - obt_timesync, kTRUE, 0, kFALSE); |
350 |
|
offResTS.Set(offResTS.GetSec() - obt_timesync, kFALSE, 0, kFALSE); |
351 |
|
// cout<<"here1 "<<offResTS.GetSec()<<endl; |
352 |
|
|
353 |
cOrbit orbit(*tle1); |
cOrbit orbit(*tle1); |
354 |
cEci eci; |
cEci eci; |
355 |
cCoordGeo coo; |
cCoordGeo coo; |
356 |
|
|
357 |
// offRes is now "offset date" + timesync. Now I subtract the obt |
// Here I do: resurs offset + timesync - obt of the timesync - tle time |
358 |
// 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()); |
|
|
|
|
359 |
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)); |
360 |
int pYear, pMon; double pDOM; |
int pYear, pMon; double pDOM; |
361 |
jdatetime.getComponent(&pYear, &pMon, &pDOM); |
jdatetime.getComponent(&pYear, &pMon, &pDOM); |
362 |
|
offsetTime = ((Long64_t) offResTS.GetSec() - (Long64_t) tledate.GetSec()); |
363 |
offsetTime = ((Long64_t) offRes.Convert() - (Long64_t) tledate.Convert()); |
// cerr<<"offsetTime="<<offsetTime<<endl |
364 |
|
// <<"offResTS.GetSec()="<<offResTS.GetSec()<<endl |
365 |
|
// <<"tledate.GetSec()="<<tledate.GetSec()<<endl<<endl; |
366 |
|
|
367 |
/********** Magnetic Field **************/ |
/********** Magnetic Field **************/ |
368 |
// Check that all this is correct! |
// Check that all this is correct! |
371 |
// I can now compute the magnetic dipole moment at the actual date, |
// I can now compute the magnetic dipole moment at the actual date, |
372 |
// 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 |
373 |
// beacause changes are not relevant at all. |
// beacause changes are not relevant at all. |
374 |
Int_t y = tledate.GetYear(); |
UInt_t y, m, d; |
375 |
Int_t m = tledate.GetMonth(); |
tledate.GetDate(kTRUE, 0, &y, &m, &d); |
|
Int_t d = tledate.GetDay(); |
|
376 |
float year = (float) y + (m*31+d)/365; |
float year = (float) y + (m*31+d)/365; |
377 |
|
|
378 |
// Initialize common data for geopack |
// Initialize common data for geopack |
379 |
recalc_(y, m*31+d, 0, 0, 0); |
if(field) |
380 |
|
recalc_(y, m*31+d, 0, 0, 0); |
381 |
/********** Magnetic Field **************/ |
/********** Magnetic Field **************/ |
382 |
|
|
383 |
tr = (TTree*)rootFile->Get("Physics"); |
tr = (TTree*)rootFile->Get("Physics"); |
424 |
ph = eh->GetPscuHeader(); |
ph = eh->GetPscuHeader(); |
425 |
|
|
426 |
// obt in ms |
// obt in ms |
427 |
ULong64_t obt = ph->GetOrbitalTime(); |
UInt_t obt = (UInt_t) ph->GetOrbitalTime(); |
428 |
|
|
429 |
// timeElapsedFromTLE is the difference, in seconds, between the |
// timeElapsedFromTLE is the difference, in seconds, between the |
430 |
// event and the tle date. I use seconds and not milliseconds |
// event and the tle date. I use seconds and not milliseconds |
431 |
// because the indetermination on the timesync is about 1s. |
// because the indetermination on the timesync is about 1s. |
432 |
timeElapsedFromTLE = offsetTime + obt/1000; |
timeElapsedFromTLE = offsetTime + obt/1000; |
433 |
|
if(!i) cerr<<"1st event: timeElapsedFromTLE="<<timeElapsedFromTLE<<endl; |
434 |
|
|
435 |
// I also need the abstime in seconds rounded to the lower |
// I also need the abstime in seconds rounded to the lower |
436 |
// value. Every second, we set a_second_is_over to true. Only |
// value. Every second, we set a_second_is_over to true. Only |
478 |
alt = coo.m_Alt; |
alt = coo.m_Alt; |
479 |
|
|
480 |
/********** Magnetic Field **************/ |
/********** Magnetic Field **************/ |
481 |
igrf_geo__((coo.m_Alt+6371.2)/6371.2, M_PI/2.-coo.m_Lat, coo.m_Lon, br, btheta, bphi); |
if(field) |
482 |
|
igrf_geo__((coo.m_Alt+6371.2)/6371.2, M_PI/2.-coo.m_Lat, coo.m_Lon, br, btheta, bphi); |
483 |
// 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; |
484 |
/********** Magnetic Field **************/ |
/********** Magnetic Field **************/ |
485 |
|
|
507 |
// this values but I need to count how many times I fill |
// this values but I need to count how many times I fill |
508 |
// each bin. This is done by the histogram event_counter. |
// each bin. This is done by the histogram event_counter. |
509 |
// I will normalize later. |
// I will normalize later. |
510 |
hbabs_counter->Fill(lon, lat, sqrt(br*br+btheta*btheta+bphi*bphi)*1e-5); |
if(field) { |
511 |
hbnorth_counter->Fill(lon, lat, -btheta*1e-5); |
hbabs_counter->Fill(lon, lat, sqrt(br*br+btheta*btheta+bphi*bphi)*1e-5); |
512 |
hbdown_counter->Fill(lon, lat, -br*1e-5); |
hbnorth_counter->Fill(lon, lat, -btheta*1e-5); |
513 |
hbeast_counter->Fill(lon, lat, bphi*1e-5); |
hbdown_counter->Fill(lon, lat, -br*1e-5); |
514 |
|
hbeast_counter->Fill(lon, lat, bphi*1e-5); |
515 |
|
} |
516 |
// This histograms is now filled with the number of entries. |
// This histograms is now filled with the number of entries. |
517 |
// Below we will divide with the time (in seconds) to get |
// Below we will divide with the time (in seconds) to get |
518 |
// event rate per bin. |
// event rate per bin. |
578 |
TH2F *trigAndOr_rate = (TH2F*) trigAndOr_counter->Clone("trigAndOr_rate"); |
TH2F *trigAndOr_rate = (TH2F*) trigAndOr_counter->Clone("trigAndOr_rate"); |
579 |
TH2F *trigAndAnd_rate = (TH2F*) trigAndAnd_counter->Clone("trigAndAnd_rate"); |
TH2F *trigAndAnd_rate = (TH2F*) trigAndAnd_counter->Clone("trigAndAnd_rate"); |
580 |
TH2F *nd_rate = (TH2F*) nd_counter->Clone("nd_rate"); |
TH2F *nd_rate = (TH2F*) nd_counter->Clone("nd_rate"); |
581 |
TH2F *hbabs_norm = (TH2F*) hbabs_counter->Clone("hbabs_norm"); |
|
582 |
TH2F *hbnorth_norm = (TH2F*) hbnorth_counter->Clone("hbnorth_norm"); |
TH2F *hbabs_norm; |
583 |
TH2F *hbdown_norm = (TH2F*) hbabs_counter->Clone("hbdown_norm"); |
TH2F *hbnorth_norm; |
584 |
TH2F *hbeast_norm = (TH2F*) hbabs_counter->Clone("hbeast_norm"); |
TH2F *hbdown_norm; |
585 |
|
TH2F *hbeast_norm; |
586 |
|
|
587 |
|
if(field) { |
588 |
|
hbabs_norm = (TH2F*) hbabs_counter->Clone("hbabs_norm"); |
589 |
|
hbnorth_norm = (TH2F*) hbnorth_counter->Clone("hbnorth_norm"); |
590 |
|
hbdown_norm = (TH2F*) hbabs_counter->Clone("hbdown_norm"); |
591 |
|
hbeast_norm = (TH2F*) hbabs_counter->Clone("hbeast_norm"); |
592 |
|
} |
593 |
|
|
594 |
// Now we divide each histogram _counter with the time histogram |
// Now we divide each histogram _counter with the time histogram |
595 |
// obtBinTime to have an histogram _rate. Note that, when a second |
// obtBinTime to have an histogram _rate. Note that, when a second |
656 |
// fill the bins with the values of the magnetic field for each |
// fill the bins with the values of the magnetic field for each |
657 |
// 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 |
658 |
// event_counter. |
// event_counter. |
659 |
hbabs_norm->Divide(hbabs_counter, event_counter, 1, 1, ""); |
if(field) { |
660 |
oss.str(""); |
hbabs_norm->Divide(hbabs_counter, event_counter, 1, 1, ""); |
661 |
oss << basename.Data() << "_orbit_Babs.png"; |
oss.str(""); |
662 |
printHist(hbabs_norm, mapFile, outDirectory, oss.str().c_str(), "B abs (G)", -width, height, 0, 0); |
oss << basename.Data() << "_orbit_Babs.png"; |
663 |
|
printHist(hbabs_norm, mapFile, outDirectory, oss.str().c_str(), "B abs (G)", -width, height, 0, 0); |
664 |
hbnorth_norm->Divide(hbnorth_counter, event_counter, 1, 1, ""); |
|
665 |
oss.str(""); |
hbnorth_norm->Divide(hbnorth_counter, event_counter, 1, 1, ""); |
666 |
oss << basename.Data() << "_orbit_Bnorth.png"; |
oss.str(""); |
667 |
printHist(hbnorth_norm, mapFile, outDirectory, oss.str().c_str(), "B north (G)", -width, height, 0, 1); |
oss << basename.Data() << "_orbit_Bnorth.png"; |
668 |
|
printHist(hbnorth_norm, mapFile, outDirectory, oss.str().c_str(), "B north (G)", -width, height, 0, 1); |
669 |
hbdown_norm->Divide(hbdown_counter, event_counter, 1, 1, ""); |
|
670 |
oss.str(""); |
hbdown_norm->Divide(hbdown_counter, event_counter, 1, 1, ""); |
671 |
oss << basename.Data() << "_orbit_Bdown.png"; |
oss.str(""); |
672 |
printHist(hbdown_norm, mapFile, outDirectory, oss.str().c_str(), "B down (G)", -width, height, 0, 1); |
oss << basename.Data() << "_orbit_Bdown.png"; |
673 |
|
printHist(hbdown_norm, mapFile, outDirectory, oss.str().c_str(), "B down (G)", -width, height, 0, 1); |
674 |
hbeast_norm->Divide(hbeast_counter, event_counter, 1, 1, ""); |
|
675 |
oss.str(""); |
hbeast_norm->Divide(hbeast_counter, event_counter, 1, 1, ""); |
676 |
oss << basename.Data() << "_orbit_Beast.png"; |
oss.str(""); |
677 |
printHist(hbeast_norm, mapFile, outDirectory, oss.str().c_str(), "B east (G)", -width, height, 0, 1); |
oss << basename.Data() << "_orbit_Beast.png"; |
678 |
|
printHist(hbeast_norm, mapFile, outDirectory, oss.str().c_str(), "B east (G)", -width, height, 0, 1); |
679 |
|
} |
680 |
|
|
681 |
delete obtBinTime; |
delete obtBinTime; |
682 |
delete event_counter; |
delete event_counter; |
700 |
delete trigS111A_rate; |
delete trigS111A_rate; |
701 |
delete trigS12andS21andS22_rate; |
delete trigS12andS21andS22_rate; |
702 |
|
|
703 |
delete hbabs_counter; |
if(field) { |
704 |
delete hbnorth_counter; |
delete hbabs_counter; |
705 |
delete hbdown_counter; |
delete hbnorth_counter; |
706 |
delete hbeast_counter; |
delete hbdown_counter; |
707 |
delete hbabs_norm; |
delete hbeast_counter; |
708 |
delete hbnorth_norm; |
delete hbabs_norm; |
709 |
delete hbdown_norm; |
delete hbnorth_norm; |
710 |
delete hbeast_norm; |
delete hbdown_norm; |
711 |
|
delete hbeast_norm; |
712 |
|
} |
713 |
|
|
714 |
rootFile->Close(); |
rootFile->Close(); |
715 |
} |
} |
733 |
// Scale() and Merge()). |
// Scale() and Merge()). |
734 |
// |
// |
735 |
// This function depends on InitStyle(); |
// This function depends on InitStyle(); |
736 |
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) |
737 |
{ |
{ |
738 |
InitStyle(); |
InitStyle(); |
739 |
|
|
831 |
// querying the database with the RESURS DK-1 id number 29228, |
// querying the database with the RESURS DK-1 id number 29228, |
832 |
// selecting the widest timespan, including the satellite name in the |
// selecting the widest timespan, including the satellite name in the |
833 |
// results. |
// results. |
834 |
cTle *getTle(TString tleFile, TDatime offRes) |
cTle *getTle(TString tleFile, TTimeStamp offResTS) |
835 |
{ |
{ |
836 |
Float_t tledatefromfile, tledatefromroot; |
Float_t tledatefromfile, tledatefromroot; |
837 |
fstream tlefile(tleFile.Data(), ios::in); |
fstream tlefile(tleFile.Data(), ios::in); |
861 |
// Sort by date |
// Sort by date |
862 |
sort(ctles.begin(), ctles.end(), compTLE); |
sort(ctles.begin(), ctles.end(), compTLE); |
863 |
|
|
864 |
tledatefromroot = (offRes.GetYear()-2000)*1e3 + (offRes.Convert() - (TDatime(offRes.GetYear(), 1, 1, 0, 0, 0)).Convert())/ (24.*3600.); |
UInt_t year, month, day; |
865 |
|
offResTS.GetDate(kTRUE, 0, &year, &month, &day); |
866 |
|
TTimeStamp firstofjan = TTimeStamp(year, 1, 1, 0, 0, 0); |
867 |
|
tledatefromroot = (year-2000)*1e3 + (offResTS.GetSec() - firstofjan.GetSec())/(24.*3600.); |
868 |
|
|
869 |
for(iter = ctles.begin(); iter != ctles.end(); iter++) { |
for(iter = ctles.begin(); iter != ctles.end(); iter++) { |
870 |
cTle *tle = *iter; |
cTle *tle = *iter; |
908 |
|
|
909 |
// Look for a timesync in the TFile rootFile. Set timesync and |
// Look for a timesync in the TFile rootFile. Set timesync and |
910 |
// obt_timesync. Returns 1 if timesync is found, 0 otherwise. |
// obt_timesync. Returns 1 if timesync is found, 0 otherwise. |
911 |
int lookforTimesync(TFile *rootFile, Float_t *timesync, Float_t *obt_timesync) { |
UInt_t lookforTimesync(TFile *rootFile, Float_t *timesync, Float_t *obt_timesync) { |
912 |
*timesync = -1; // will be != -1 if found |
*timesync = -1; // will be != -1 if found |
913 |
|
|
914 |
ULong64_t nevents = 0; |
ULong64_t nevents = 0; |
979 |
} |
} |
980 |
|
|
981 |
|
|
982 |
// Return a string like YYYY-MM-DD hh:mm:ss, a datetime format. |
// |
983 |
string getTleDatetime(cTle *tle) |
// Returns the tle date as a TTimeStamp object. |
984 |
|
// |
985 |
|
TTimeStamp getTleDatetime(cTle *tle) |
986 |
{ |
{ |
987 |
int year, mon, day, hh, mm, ss; |
int year, mon, day, hh, mm, ss; |
988 |
double dom; // day of month (is double!) |
double dom; // day of month (is double!) |
1002 |
ss = (int) floor( ((((dom - day) * 24 - hh) * 60 - mm) * 60)); |
ss = (int) floor( ((((dom - day) * 24 - hh) * 60 - mm) * 60)); |
1003 |
// ms = (int) floor( (((((dom - day) * 24 - hh) * 60 - mm) * 60) - ss) * 1000); |
// ms = (int) floor( (((((dom - day) * 24 - hh) * 60 - mm) * 60) - ss) * 1000); |
1004 |
|
|
1005 |
date << year << "-" << mon << "-" << day << " " << hh << ":" << mm << ":" << ss; |
TTimeStamp t = TTimeStamp(year, mon, day, hh, mm, ss, 0, true); |
1006 |
|
|
1007 |
return date.str(); |
return t; |
1008 |
} |
} |
1009 |
|
|
1010 |
// |
// |