Changeset 7409 for trunk/MagicSoft/Mars
- Timestamp:
- 11/18/05 17:15:30 (19 years ago)
- Location:
- trunk/MagicSoft/Mars
- Files:
-
- 15 edited
Legend:
- Unmodified
- Added
- Removed
-
trunk/MagicSoft/Mars/Changelog
r7408 r7409 22 22 * mhflux/MMcSpectrumWeight.cc: 23 23 - fixed a problem with using X more than once in the formula 24 25 * ganymed.cc: 26 - improved UsageInfo 27 28 * macros/optim/optimdisp.C, macros/optim/optimenergy.C: 29 - added some more examples 30 31 * mbadpixels/MBadPixelsCalc.cc: 32 - updated authors 33 34 * mbase/BaseIncl.h: 35 - added TArrayD 36 37 * mbase/MLogHtml.cc: 38 - added some includes suggested by Ching-Cheng 39 40 * mbase/MMath.[h,cc]: 41 - added some function for the analytical result of special fits 42 43 * mfilter/MFEnergySlope.[h,cc]: 44 - some updated to make it better fit into Mars 45 - upadted the user interface 46 47 * mhflux/MHEnergyEst.[h,cc]: 48 - updated to let everything fit what is commonly used. This 49 was just discussed with Abelardo 50 - some updates to the plots 51 52 * mjobs/MDataSet.cc: 53 - added some includes suggested by Ching-Cheng 54 - upadted some output 55 - remove whitespaces from read TString 56 57 * mmc/MMcCorsikaRunHeader.h: 58 - added new Getter 59 60 * mranforest/MRanForest.cc: 61 - some updates to Grow-output 24 62 25 63 -
trunk/MagicSoft/Mars/NEWS
r7408 r7409 2 2 3 3 *** Version <cvs> 4 5 - general: Updated MMath with new functions to calculate the results of 6 a exponential, logarithmic and powerlaw fits analytically. 4 7 5 8 - general: Updated some macros with comments: … … 44 47 45 48 - sponde: Added a plot E^2*dN/dE 49 50 - sponde: The energy estimator plot should now show values like 51 they are commonly used. 52 53 - sponde: Now MMcSpectrumWeight also excepts formulas with two X 54 (a powerlaw with cutoff didn't work before) 46 55 47 56 -
trunk/MagicSoft/Mars/ganymed.cc
r7380 r7409 61 61 gLog << " -q Quit when job is finished" << endl; 62 62 gLog << " -f Force overwrite of existing files" << endl; 63 gLog << " --n= [n] Analysis number" << endl;63 gLog << " --n=number Analysis number (required if not in dataset file)" << endl; 64 64 gLog << " --out=path Path to write the all output to [def=local path]" << endl; 65 65 gLog << " --ind=path Path to data/star files [default=datacenter path]" << endl; -
trunk/MagicSoft/Mars/macros/optim/optimdisp.C
r7401 r7409 42 42 opt.AddPreCut(&cuts); 43 43 44 -------------------- Energy Slope -------------------- 45 MFEnergySlope slope(-2.8); 46 opt.AddPreCut(&slope); 47 44 48 -------------------- Other cuts ---------------------- 45 49 opt.AddPreCut("MNewImagePar.fLeakage1<0.0001"); -
trunk/MagicSoft/Mars/macros/optim/optimenergy.C
r7401 r7409 38 38 opt.AddPreCut(&cuts); 39 39 40 -------------------- Energy Slope -------------------- 41 MFEnergySlope slope(-2.8); 42 opt.AddPreCut(&slope); 43 40 44 -------------------- Other cuts ---------------------- 41 45 opt.AddPreCut("MPointingPos.fZd<7"); -
trunk/MagicSoft/Mars/mbadpixels/MBadPixelsCalc.cc
r7350 r7409 17 17 ! 18 18 ! Author(s): Thomas Bretz, 02/2004 <mailto:tbretz@astro.uni.wuerzburg.de> 19 ! 20 ! Copyright: MAGIC Software Development, 2000-2004 19 ! Author(s): Stefan Ruegamer, 08/2005 <mailto:snruegam@astro.uni.wuerzburg.de> 20 ! 21 ! Copyright: MAGIC Software Development, 2000-2005 21 22 ! 22 23 ! -
trunk/MagicSoft/Mars/mbase/BaseIncl.h
r7181 r7409 1 1 #ifndef __CINT__ 2 2 3 #include <TArrayD.h> 3 4 #include <TVector3.h> 4 5 5 /*6 #include <fstream.h>7 8 #include <TFile.h>9 #include <TTree.h>10 11 #include <TGListBox.h>12 */13 14 6 #endif // __CINT__ -
trunk/MagicSoft/Mars/mbase/MLogHtml.cc
r6870 r7409 30 30 ////////////////////////////////////////////////////////////////////////////// 31 31 #include "MLogHtml.h" 32 33 #include <string.h> // necessary for Fedora core 2 with kernel 2.6.9-1.667 #1 and gcc 3.4.2 34 #include <errno.h> // necessary for Fedora core 2 with kernel 2.6.9-1.667 #1 and gcc 3.4.2 32 35 33 36 #include <fstream> // ofstream -
trunk/MagicSoft/Mars/mbase/MMath.cc
r7386 r7409 36 36 #endif 37 37 38 #ifndef ROOT_TArrayD 39 #include <TArrayD.h> 40 #endif 38 41 // -------------------------------------------------------------------------- 39 42 // … … 248 251 return InterpolParabLin(vx0, vy, TMath::Cos(x)); 249 252 } 253 254 // -------------------------------------------------------------------------- 255 // 256 // Analytically calculated result of a least square fit of: 257 // y = A*e^(B*x) 258 // Equal weights 259 // 260 // It returns TArrayD(2) = { A, B }; 261 // 262 // see: http://mathworld.wolfram.com/LeastSquaresFittingExponential.html 263 // 264 TArrayD MMath::LeastSqFitExpW1(Int_t n, Double_t *x, Double_t *y) 265 { 266 Double_t sumxsqy = 0; 267 Double_t sumylny = 0; 268 Double_t sumxy = 0; 269 Double_t sumy = 0; 270 Double_t sumxylny = 0; 271 for (int i=0; i<n; i++) 272 { 273 sumylny += y[i]*TMath::Log(y[i]); 274 sumxy += x[i]*y[i]; 275 sumxsqy += x[i]*x[i]*y[i]; 276 sumxylny += x[i]*y[i]*TMath::Log(y[i]); 277 sumy += y[i]; 278 } 279 280 const Double_t dev = sumy*sumxsqy - sumxy*sumxy; 281 282 const Double_t a = (sumxsqy*sumylny - sumxy*sumxylny)/dev; 283 const Double_t b = (sumy*sumxylny - sumxy*sumylny)/dev; 284 285 TArrayD rc(2); 286 rc[0] = TMath::Exp(a); 287 rc[1] = b; 288 return rc; 289 } 290 291 // -------------------------------------------------------------------------- 292 // 293 // Analytically calculated result of a least square fit of: 294 // y = A*e^(B*x) 295 // Greater weights to smaller values 296 // 297 // It returns TArrayD(2) = { A, B }; 298 // 299 // see: http://mathworld.wolfram.com/LeastSquaresFittingExponential.html 300 // 301 TArrayD MMath::LeastSqFitExp(Int_t n, Double_t *x, Double_t *y) 302 { 303 // -------- Greater weights to smaller values --------- 304 Double_t sumlny = 0; 305 Double_t sumxlny = 0; 306 Double_t sumxsq = 0; 307 Double_t sumx = 0; 308 for (int i=0; i<n; i++) 309 { 310 sumlny += TMath::Log(y[i]); 311 sumxlny += x[i]*TMath::Log(y[i]); 312 313 sumxsq += x[i]*x[i]; 314 sumx += x[i]; 315 } 316 317 const Double_t dev = n*sumxsq-sumx*sumx; 318 319 const Double_t a = (sumlny*sumxsq - sumx*sumxlny)/dev; 320 const Double_t b = (n*sumxlny - sumx*sumlny)/dev; 321 322 TArrayD rc(2); 323 rc[0] = TMath::Exp(a); 324 rc[1] = b; 325 return rc; 326 } 327 328 // -------------------------------------------------------------------------- 329 // 330 // Analytically calculated result of a least square fit of: 331 // y = A+B*ln(x) 332 // 333 // It returns TArrayD(2) = { A, B }; 334 // 335 // see: http://mathworld.wolfram.com/LeastSquaresFittingLogarithmic.html 336 // 337 TArrayD LeastSqFitLog(Int_t n, Double_t *x, Double_t *y) 338 { 339 Double_t sumylnx = 0; 340 Double_t sumy = 0; 341 Double_t sumlnx = 0; 342 Double_t sumlnxsq = 0; 343 for (int i=0; i<n; i++) 344 { 345 sumylnx += y[i]*TMath::Log(x[i]); 346 sumy += y[i]; 347 sumlnx += TMath::Log(x[i]); 348 sumlnxsq += TMath::Log(x[i])*TMath::Log(x[i]); 349 } 350 351 const Double_t b = (n*sumylnx-sumy*sumlnx)/(n*sumlnxsq-sumlnx*sumlnx); 352 const Double_t a = (sumy-b*sumlnx)/n; 353 354 TArrayD rc(2); 355 rc[0] = a; 356 rc[1] = b; 357 return rc; 358 } 359 360 // -------------------------------------------------------------------------- 361 // 362 // Analytically calculated result of a least square fit of: 363 // y = A*x^B 364 // 365 // It returns TArrayD(2) = { A, B }; 366 // 367 // see: http://mathworld.wolfram.com/LeastSquaresFittingPowerLaw.html 368 // 369 TArrayD LeastSqFitPowerLaw(Int_t n, Double_t *x, Double_t *y) 370 { 371 Double_t sumlnxlny = 0; 372 Double_t sumlnx = 0; 373 Double_t sumlny = 0; 374 Double_t sumlnxsq = 0; 375 for (int i=0; i<n; i++) 376 { 377 sumlnxlny += TMath::Log(x[i])*TMath::Log(y[i]); 378 sumlnx += TMath::Log(x[i]); 379 sumlny += TMath::Log(y[i]); 380 sumlnxsq += TMath::Log(x[i])*TMath::Log(x[i]); 381 } 382 383 const Double_t b = (n*sumlnxlny-sumlnx*sumlny)/(n*sumlnxsq-sumlnx*sumlnx); 384 const Double_t a = (sumlny-b*sumlnx)/n; 385 386 TArrayD rc(2); 387 rc[0] = TMath::Exp(a); 388 rc[1] = b; 389 return rc; 390 } -
trunk/MagicSoft/Mars/mbase/MMath.h
r7384 r7409 7 7 8 8 class TVector3; 9 class TArrayD; 9 10 10 11 namespace MMath … … 31 32 Double_t InterpolParabCos(const TVector3 &vx, const TVector3 &vy, Double_t x); 32 33 34 TArrayD LeastSqFitExpW1(Int_t n, Double_t *x, Double_t *y); 35 TArrayD LeastSqFitExp(Int_t n, Double_t *x, Double_t *y); 36 TArrayD LeastSqFitLog(Int_t n, Double_t *x, Double_t *y); 37 TArrayD LeastSqFitPowerLaw(Int_t n, Double_t *x, Double_t *y); 38 33 39 inline Double_t Sgn(Double_t d) { return d<0 ? -1 : 1; } 34 40 } -
trunk/MagicSoft/Mars/mfilter/MFEnergySlope.cc
r2206 r7409 18 18 ! Author(s): Antonio Stamerra 02/2003 <mailto:antonio.stamerra@pi.infn.it> 19 19 ! 20 ! Copyright: MAGIC Software Development, 2000-200 320 ! Copyright: MAGIC Software Development, 2000-2005 21 21 ! 22 22 ! … … 65 65 // -------------------------------------------------------------------------- 66 66 // 67 // Default Constructor 68 // 69 MFEnergySlope::MFEnergySlope(const char *name, const char *title): 70 fNewSlope(-1), fMcMinEnergy(-1.), fMcMaxEnergy(-1.) 71 { 72 fName = name ? name : "MFEnergySlope"; 73 fTitle = title ? title : "Filter to select energy with given slope"; 74 } 75 76 // -------------------------------------------------------------------------- 77 // 67 78 // Constructor 68 79 // 69 MFEnergySlope::MFEnergySlope(const char *name, const char *title): 70 fNumSelectedEvts(0), fNewSlope(-1), fMcMinEnergy(-1.), fMcMaxEnergy(-1.) 71 { 72 // fContName = cname; 73 fName = name ? name : "MFEnergySlope"; 74 fTitle = title ? title : "Filter to select energy with given slope"; 80 MFEnergySlope::MFEnergySlope(Float_t slope, const char *name, const char *title): 81 fNewSlope(TMath::Abs(slope)), fMcMinEnergy(-1.), fMcMaxEnergy(-1.) 82 { 83 fName = name ? name : "MFEnergySlope"; 84 fTitle = title ? title : "Filter to select energy with given slope"; 75 85 } 76 86 … … 84 94 Int_t MFEnergySlope::PreProcess(MParList *pList) 85 95 { 86 96 if (fNewSlope<0) 97 { 98 *fLog << err << "New slope still undefined... aborting." << endl; 99 return kFALSE; 100 } 101 102 fEvt = (MMcEvt*)pList->FindObject("MMcEvt"); 103 if (!fEvt) 104 { 105 *fLog << err << "MMcEvt not found... aborting." << endl; 106 return kFALSE; 107 } 108 109 return kTRUE; 110 } 111 112 // -------------------------------------------------------------------------- 113 // 114 // Preprocess 115 // 116 // MC slope and min/max energy are read 117 // Normalization factor is computed 118 // 119 Bool_t MFEnergySlope::ReInit(MParList *pList) 120 { 87 121 MMcCorsikaRunHeader *runheader = (MMcCorsikaRunHeader*)pList->FindObject("MMcCorsikaRunHeader"); 88 89 122 if (!runheader) 90 { 91 *fLog << err << dbginf << fName << " [MMcCorsikaRunHeader] not found... aborting." << endl; 92 return kFALSE; 93 } 123 { 124 *fLog << err << "MMcCorsikaRunHeader not found... aborting." << endl; 125 return kFALSE; 126 } 127 94 128 // 95 // Read info from the MC sample (it must be generated with 129 // Read info from the MC sample (it must be generated with 96 130 // reflector ver.0.6 and camera ver. 0.6) 97 131 // 98 fMcSlope = runheader->GetSlopeSpec(); 132 fMcSlope = runheader->GetSlopeSpec(); 99 133 if (fMcMinEnergy<0) 100 fMcMinEnergy = runheader->GetELowLim();134 fMcMinEnergy = runheader->GetELowLim(); 101 135 if (fMcMinEnergy<0) 102 fMcMaxEnergy = runheader->GetEUppLim(); 103 104 *fLog << inf; 105 *fLog << "MFEnergySlope::PreProcess: fetched MC info:" << endl; 106 *fLog << " E Slope: " << fMcSlope << endl; 107 *fLog << " E Min: " << fMcMinEnergy << endl; 108 *fLog << " E Max: " << fMcMaxEnergy << endl; 109 *fLog << " New E Slope: " << fNewSlope << endl; 110 136 fMcMaxEnergy = runheader->GetEUppLim(); 137 111 138 // Slope is used with positive values in the code 112 139 if (fNewSlope < 0) 113 fNewSlope *= -1;140 fNewSlope *= -1; 114 141 if (fMcSlope < 0) 115 fMcSlope *= -1; 116 117 118 // Set normalization on energy 119 fN0 = pow(fNewSlope>fMcSlope?fMcMinEnergy:fMcMaxEnergy,fNewSlope-fMcSlope); 120 121 *fLog << "Normalization factor:" <<fN0 << endl; 122 123 //--- 124 fEvt = (MMcEvt*)pList->FindObject("MMcEvt"); 125 if (!fEvt) 126 { 127 *fLog << err << dbginf << fName << " [MMcEvt] not found... aborting." << endl; 128 return kFALSE; 129 } 142 fMcSlope *= -1; 143 144 // Calculate normalization factor 145 fN0 = TMath::Power(fNewSlope>fMcSlope ? fMcMinEnergy : fMcMaxEnergy, fNewSlope-fMcSlope); 146 147 // Print some infos 148 *fLog << inf; 149 *fLog << "Fetched MC info:" << endl; 150 *fLog << " Change E Slope " << fMcSlope << " (" << fMcMinEnergy << " < E < "; 151 *fLog << fMcMaxEnergy << ") to " << fNewSlope << endl; 152 *fLog << " Norm factor: " << fN0 << endl; 130 153 131 154 return kTRUE; … … 144 167 Int_t MFEnergySlope::Process() 145 168 { 146 fResult = kTRUE; 147 148 // Energy slopes are the same: skip it 149 if (fNewSlope == fMcSlope) 169 fResult = kTRUE; 170 171 // Energy slopes are the same: skip it 172 if (fNewSlope == fMcSlope) 173 return kTRUE; 174 175 // The value of the normalized spectrum is compared with a 176 // random value in [0,1]; 177 // if the latter is higher the event is accepted 178 const Float_t energy = fEvt->GetEnergy(); 179 180 /* 181 // 182 // If energy bounds different from MC ones are selected, then 183 // events outside these bounds are rejected, as their slope has 184 // not been changed. 185 // 186 if (energy > fMcMaxEnergy || energy < fMcMinEnergy) 187 { 188 fResult = kFALSE; 189 return kTRUE; 190 } 191 */ 192 193 const Float_t Nexp = fN0 * pow(energy,fMcSlope-fNewSlope); 194 const Float_t Nrnd = gRandom->Uniform(); 195 196 fResult = Nexp > Nrnd; 197 198 //if (fResult) 199 // fNumSelectedEvts++; 200 150 201 return kTRUE; 151 152 // The value of the normalized spectrum is compared with a 153 // random value in [0,1]; 154 // if the latter is higher the event is accepted 155 const Float_t energy = fEvt->GetEnergy(); 156 157 /* 158 // 159 // If energy bounds different from MC ones are selected, then 160 // events outside these bounds are rejected, as their slope has 161 // not been changed. 162 // 163 if (energy > fMcMaxEnergy || energy < fMcMinEnergy) 164 { 165 fResult = kFALSE; 166 return kTRUE; 167 } 168 */ 169 170 const Float_t Nexp = fN0 * pow(energy,fMcSlope-fNewSlope); 171 const Float_t Nrnd = gRandom->Uniform(); 172 173 fResult = Nexp > Nrnd; 174 175 if (!fResult) 176 return kTRUE; 177 178 fNumSelectedEvts++; 179 return kTRUE; 180 } 181 202 } 203 204 205 // -------------------------------------------------------------------------- 206 // 207 // MFEnergySlope.NewSlope: -2.8 208 // 209 Int_t MFEnergySlope::ReadEnv(const TEnv &env, TString prefix, Bool_t print) 210 { 211 Bool_t rc = kFALSE; 212 if (IsEnvDefined(env, prefix, "NewSlope", print)) 213 { 214 rc = kTRUE; 215 SetNewSlope(GetEnvValue(env, prefix, "NewSlope", fNewSlope)); 216 } 217 return rc; 218 } -
trunk/MagicSoft/Mars/mfilter/MFEnergySlope.h
r2206 r7409 1 1 #ifndef MARS_MFEnergySlope 2 2 #define MARS_MFEnergySlope 3 /////////////////////////////////////////////////////////////////////////////4 // //5 // MFEnergySlope //6 // //7 /////////////////////////////////////////////////////////////////////////////8 3 9 4 #ifndef MARS_MFilter … … 11 6 #endif 12 7 8 class MMcEvt; 13 9 class MParList; 14 class MMcEvt;15 10 class MMcCorsikaRunHeader; 16 11 … … 18 13 { 19 14 private: 20 Int_t fNumSelectedEvts; // counter for number of selected events15 //Int_t fNumSelectedEvts; // counter for number of selected events 21 16 22 MMcEvt *fEvt; // Events used to determin energy slope17 MMcEvt *fEvt; //! Events used to determin energy slope 23 18 24 Bool_t fResult; // Result returned by IsExpressionTrue25 19 Float_t fNewSlope; // New slope set by user 20 Float_t fMcSlope; //! Original energy slope from MC data 26 21 27 Float_t fMcSlope; // Original energy slope from MC data 28 Float_t fMcMinEnergy; // Starting energy of MC data 29 Float_t fMcMaxEnergy; // Ending energy of MC data 22 Float_t fMcMinEnergy; //! Starting energy of MC data 23 Float_t fMcMaxEnergy; //! Ending energy of MC data 30 24 31 Float_t fN0; // Normalization factor25 Float_t fN0; //! Normalization factor 32 26 33 Int_t PreProcess(MParList *pList); 34 Int_t Process(); 27 Bool_t fResult; //! Result returned by IsExpressionTrue 28 29 // MTask 30 Int_t PreProcess(MParList *pList); 31 Bool_t ReInit(MParList *pList); 32 Int_t Process(); 33 34 // MFilter 35 Bool_t IsExpressionTrue() const { return fResult; } 35 36 36 37 public: 37 38 MFEnergySlope(const char *name=NULL, const char *title=NULL); 39 MFEnergySlope(Float_t slope, const char *name=NULL, const char *title=NULL); 38 40 39 Bool_t IsExpressionTrue() const { return fResult; } 41 // Setter 42 void SetNewSlope(Float_t f) { fNewSlope = TMath::Abs(f); } 43 void SetMcSlope(Float_t f) { fMcSlope = TMath::Abs(f); } 40 44 41 // Slope is used with positive values in the code 42 void SetNewSlope(Float_t f) {fNewSlope = TMath::Abs(f);} 43 void SetMcSlope(Float_t f) {fMcSlope = TMath::Abs(f);} 45 void SetMcMinEnergy(Float_t f) { fMcMinEnergy = f; } 46 void SetMcMaxEnergy(Float_t f) { fMcMaxEnergy = f; } 44 47 45 void SetMcMinEnergy(Float_t f) {fMcMinEnergy = f;}46 void SetMcMaxEnergy(Float_t f) {fMcMaxEnergy = f;}48 // MParContainer 49 Int_t ReadEnv(const TEnv &env, TString prefix, Bool_t print); 47 50 48 51 ClassDef(MFEnergySlope, 0) // A Filter to select events with a given energy slope -
trunk/MagicSoft/Mars/mhflux/MHEnergyEst.cc
r7388 r7409 35 35 #include "MHEnergyEst.h" 36 36 37 #include <TF1.h> 37 38 #include <TLine.h> 38 39 #include <TCanvas.h> … … 79 80 fHResolution.SetDirectory(NULL); 80 81 fHResolution.SetName("EnergyRes"); 81 fHResolution.SetTitle("Histogram in \\Delta lg(E)vs E_{est} and E_{mc}");82 fHResolution.SetTitle("Histogram in \\Delta E/E vs E_{est} and E_{mc}"); 82 83 fHResolution.SetXTitle("E_{est} [GeV]"); 83 84 fHResolution.SetYTitle("E_{mc} [GeV]"); 84 fHResolution.SetZTitle(" lg(E_{est}) - lg(E_{mc})");85 fHResolution.SetZTitle("E_{est}/E_{mc}-1"); 85 86 86 87 fHImpact.SetDirectory(NULL); 87 88 fHImpact.SetName("Impact"); 88 fHImpact.SetTitle("\\Delta lg(E)vs Impact parameter");89 fHImpact.SetTitle("\\Delta E/E vs Impact parameter"); 89 90 fHImpact.SetXTitle("Impact parameter [m]"); 90 fHImpact.SetYTitle(" lg(E_{est}) - lg(E_{mc})");91 fHImpact.SetYTitle("E_{est}/E_{mc}-1"); 91 92 92 93 fHEnergy.Sumw2(); … … 95 96 96 97 MBinning binsi, binse, binst, binsr; 97 binse.SetEdgesLog( 15, 10, 1000000);98 binse.SetEdgesLog(25, 10, 1000000); 98 99 binst.SetEdgesASin(51, -0.005, 0.505); 99 100 binsi.SetEdges(10, 0, 400); 100 binsr.SetEdges( 50, -1.3, 1.3);101 binsr.SetEdges(75, -1.75, 1.75); 101 102 102 103 SetBinning(&fHEnergy, &binse, &binse, &binst); … … 149 150 fChisq = 0; 150 151 fBias = 0; 152 151 153 fHEnergy.Reset(); 152 154 fHImpact.Reset(); … … 155 157 return kTRUE; 156 158 } 157 /* 158 #include <TSpline.h> 159 Double_t x[] = {33, 75, 153, 343, 745, 1617, 3509, 7175}; 160 Double_t y[] = {2, 24, 302, 333, 132, 53, 11, 1}; 161 Int_t n = 8; 162 TSpline3 spline("", x, y, n); 163 */ 159 164 160 // -------------------------------------------------------------------------- 165 161 // … … 172 168 const Double_t imp = fMatrix ? GetVal(1) : fMcEvt->GetImpact()/100; 173 169 const Double_t theta = fMatrix ? GetVal(2) : fMcEvt->GetTelescopeTheta()*TMath::RadToDeg(); 174 const Double_t res = log10(eest)-log10(etru);///log10(etru);175 170 const Double_t resE = (eest-etru)/etru; 176 171 … … 179 174 fHImpact.Fill(imp, resE, w); 180 175 181 //if (etru>125 && etru<750) 182 // return kCONTINUE; 183 184 // lg(N) = 4.3*lg(E)-6 185 // lg(N0) = 4.3*2.2-6 186 187 const Double_t n = 2.;///spline.Eval(etru); //pow(10, -4.3*(log10(etru)-2.2)); 188 if (n<=0) 189 return kCONTINUE; 190 191 fChisq += log10(etru)>0 ? res*res*n/2 : res*res; 192 fBias += log10(etru)>0 ? res*sqrt(n/2) : res; 176 // For the fit we use a different quantity 177 //const Double_t res = TMath::Log10(eest/etru); 178 const Double_t res = eest-etru; 179 180 fChisq += res*res; 181 fBias += res; 193 182 194 183 return kTRUE; 195 184 } 196 /* 197 void MHEnergyEst::CalcChisq(Double_t &chisq, Double_t &prob) const 198 { 199 TH1D *h1 = (TH1D*)fHEnergy.Project3D("dum2_ex"); 200 TH1D *h2 = (TH1D*)fHEnergy.Project3D("dum2_ey"); 201 202 Int_t df = 0; 203 chisq = 0; 204 prob = 0; 205 206 for (Int_t i=1; i<=h1->GetNbinsX(); i++) 207 { 208 if (h1->GetBinContent(i)>0 && h2->GetBinContent(i)>0) 209 { 210 const Double_t bin1 = log10(h1->GetBinContent(i)); 211 const Double_t bin2 = log10(h2->GetBinContent(i)); 212 213 const Double_t temp = bin1-bin2; 214 215 chisq += temp*temp/(bin1+bin2); 216 df ++; 217 } 218 } 219 220 prob = TMath::Prob(0.5*chisq, Int_t(0.5*df)); 221 222 chisq /= df; 223 224 delete h1; 225 delete h2; 226 } 227 */ 185 228 186 Bool_t MHEnergyEst::Finalize() 229 187 { 230 //Double_t chisq, prob;231 //CalcChisq(chisq, prob);232 233 188 fChisq /= GetNumExecutions(); 234 189 fBias /= GetNumExecutions(); 235 190 236 fResult->SetVal(TMath::Sqrt(fChisq)); 237 238 /* 239 Double_t sigma = TMath::Sqrt(fChisq);//+TMath::Abs(fBias); 240 fResult->SetVal(sigma); 241 */ 191 fResult->SetVal(fChisq); 192 242 193 Print(); 243 194 … … 247 198 void MHEnergyEst::Print(Option_t *o) const 248 199 { 249 const Double_t res = TMath::Sqrt(fChisq-fBias*fBias);250 const Double_t resp = TMath::Power(10, res)-1;251 const Double_t resm = 1-TMath::Power(10, -res); 252 200 // const Double_t resp = TMath::Power(10, res)-1; 201 // const Double_t resm = 1-TMath::Power(10, -res); 202 203 const Double_t res = TMath::Sqrt(fChisq-fBias*fBias); 253 204 if (TMath::IsNaN(res)) 254 205 { … … 257 208 } 258 209 259 *fLog << all; 260 *fLog << "Mean log10(Energy) Resoltion: +/- " << Form("%4.2f", res) << endl; 261 *fLog << "Mean log10(Energy) Bias: " << Form("%+4.2f", fBias) << endl; 262 *fLog << "Asymmetric Energy Resoltion: +" << Form("%4.1f%%", resp*100) << " -" << Form("%4.1f%%", resm*100) << endl; 210 TH1D *h = (TH1D*)fHResolution.ProjectionZ("Resolution"); 211 h->Fit("gaus", "Q0"); 212 213 TF1 *f = h->GetFunction("gaus"); 214 215 *fLog << all << "F=" << fChisq << endl; 216 *fLog << "Results from Histogram:" << endl; 217 *fLog << " Mean of Delta E/E: " << Form("%+4.2f%%", 100*h->GetMean()) << endl; 218 *fLog << " RMS of Delta E/E: " << Form("%4.2f%%", 100*h->GetRMS()) << endl; 219 *fLog << "Results from Histogram-Fit:" << endl; 220 *fLog << " Bias of Delta E/E: " << Form("%+4.2f%%", 100*f->GetParameter(1)) << endl; 221 *fLog << " Sigma of Delta E/E: " << Form("%4.2f%%", 100*f->GetParameter(2)) << endl; 222 *fLog << " Res of Delta E/E: " << Form("%4.2f%%", 100*TMath::Hypot(f->GetParameter(1), f->GetParameter(2))) << endl; 223 224 delete h; 263 225 } 264 226 … … 411 373 h1->SetBit(kCanDelete); 412 374 h1->SetLineWidth(2); 413 h1->SetLineColor(k Red);375 h1->SetLineColor(kBlue); 414 376 h1->SetFillStyle(4000); 415 377 h1->SetStats(kFALSE); 416 378 417 379 h2->Draw(""); 418 h1->Draw("E 3hist C same");380 h1->Draw("E0 hist C same"); 419 381 // h1->Draw("Chistsame"); 420 382 … … 509 471 //h->SetXTitle("\\frac{lg(E_{est}) - lg(E_{mc})}{lg(E_{mc})}"); 510 472 h->SetYTitle("Counts"); 511 h->SetTitle("Distribution of \\Delta lg(E)");473 h->SetTitle("Distribution of \\Delta E/E"); 512 474 h->SetDirectory(NULL); 513 475 h->SetBit(kCanDelete); … … 535 497 h = MakePlot(fHResolution, "zy"); 536 498 h->SetXTitle("E_{mc} [GeV]"); 537 h->SetYTitle(" lg(E_{est}) - lg(E_{mc})");538 h->SetTitle("Energy resolution \\Delta lg(E) vs Monte Carlo energy E_{mc}");499 h->SetYTitle("(E_{est}/E_{mc}-1"); 500 h->SetTitle("Energy resolution \\Delta E/E vs Monte Carlo Energy E_{mc}"); 539 501 h->SetMinimum(-1.3); 540 502 h->SetMaximum(1.3); … … 543 505 h = MakePlot(fHResolution, "zx"); 544 506 h->SetXTitle("E_{est} [GeV]"); 545 h->SetYTitle(" lg(E_{est}) - lg(E_{mc})");546 h->SetTitle("Energy Resolution \\Delta lg(E)vs estimated Energy E_{est}");507 h->SetYTitle("(E_{est}/E_{mc}-1"); 508 h->SetTitle("Energy resolution \\Delta E/E vs estimated Energy E_{est}"); 547 509 h->SetMinimum(-1.3); 548 510 h->SetMaximum(1.3); -
trunk/MagicSoft/Mars/mjobs/MDataSet.cc
r7389 r7409 74 74 #include "MDataSet.h" 75 75 76 #include <string.h> // necessary for Fedora core 2 with kernel 2.6.9-1.667 #1 and gcc 3.4.2 77 #include <errno.h> // necessary for Fedora core 2 with kernel 2.6.9-1.667 #1 and gcc 3.4.2 78 76 79 #include <stdlib.h> 77 80 #include <fstream> … … 222 225 fIsWobbleMode = env.GetValue("WobbleMode", kFALSE); 223 226 fComment = env.GetValue("Comment", ""); 227 228 fNameSource = fNameSource.Strip(TString::kBoth); 229 fCatalog = fCatalog.Strip(TString::kBoth); 224 230 } 225 231 … … 246 252 if (!IsValid()) 247 253 { 248 gLog << "Dataset: " << fName << " <invalid >" << endl;254 gLog << "Dataset: " << fName << " <invalid - no analysis number available>" << endl; 249 255 return; 250 256 } -
trunk/MagicSoft/Mars/mranforest/MRanForest.cc
r7398 r7409 419 419 420 420 if(calcResolution) 421 *fLog << "no. of tree no. of nodesresolution in % (from oob-data -> overest. of error)" << endl;421 *fLog << "no. of tree no. of nodes resolution in % (from oob-data -> overest. of error)" << endl; 422 422 else 423 *fLog << "no. of tree no. of nodesrms in % (from oob-data -> overest. of error)" << endl;423 *fLog << "no. of tree no. of nodes rms in % (from oob-data -> overest. of error)" << endl; 424 424 // 12345678901234567890123456789012345678901234567890 425 425 } … … 509 509 // give running output 510 510 *fLog << inf << setw(5) << fTreeNo; 511 *fLog << inf << setw( 20) << fRanTree->GetNumEndNodes();512 *fLog << inf << Form("% 20.2f", ferr*100.);511 *fLog << inf << setw(18) << fRanTree->GetNumEndNodes(); 512 *fLog << inf << Form("%18.2f", ferr*100.); 513 513 *fLog << inf << endl; 514 514
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