Plotting/Modules/Setup.C

#include <iostream>
#include <fstream>
#include <TCut.h>
#include <TColor.h>
#include <TStyle.h>

#ifndef SampleClassLoaded
#include "SampleClass.C"
#endif
#define SetupLoaded
#ifndef ResultLibraryClassLoaded
#include "ResultLibraryClass.C"
#endif


using namespace std;


namespace PlottingSetup {

  string directoryname="Results_With_4653ipb__Step8___AllInOne___PAPERMODE";
  
  bool RestrictToMassPeak=true; //if you want to switch between offpeak ("false") and onpeak ("true") analysis please use this switch; the masscut below will be adapted automatically when adding samples :-)
  
  float luminosity=4653.74;//p3523.18;//2096.0;//3172.73;//2096.0;//1936;//751.0;//486.0;//468.0//336.;//pb^{-1}
//  float luminosity=3523.18;//2096.0;//3172.73;//2096.0;//1936;//751.0;//486.0;//468.0//336.;//pb^{-1}
//  float luminosity=2096.0;//3172.73;//2096.0;//1936;//751.0;//486.0;//468.0//336.;//pb^{-1}
  float lumiuncert=0.045;// to be indicated in [0,1] range, e.g. for 4% write 0.04

  string jzbvariabledata="jzb[1]+0.06*pt";
  string jzbvariablemc="jzb[1]+0.04*pt";
  float jzbHigh = 400.; // Range for JZB plots

  samplecollection allsamples("completesamplecollection");
  samplecollection signalsamples("signalsamplecollection");
  samplecollection systsamples("systematicssamplecollection");
  samplecollection scansample("scansamplecollection");
  samplecollection raresample("raresamplecollection");
  int data=1;
  int mc=0;
  int mcwithsignal=2;
  TCut passtrig("(passed_triggers||!is_data)");
  TCut cutmass("abs(mll-91.2)<20");
  TCut genMassCut("abs(genMll-91.2)<20");
  TCut openmasscut("mll>40"); // this is the mass cut used in the off peak analysis!
  TCut openGenmasscut("genMll>40");
  //TCut cutmass("mll>2");
  TCut basiccut("mll>2");//basically nothing.
  TCut basicqualitycut("(pfJetGoodNum>=2&&pfJetGoodID[0]!=0)&&(pfJetGoodNum>=2&&pfJetGoodID[1]!=0)");//don't use this for the "essential cut", because we want to plot nJets as well as mll in the inclusive case; we thus use it as an addition nJets cut.
  //TCut jetqualitycut("(pfJetGoodNum>=2&&pfJetGoodID[0])&&(pfJetGoodNum>=2&&pfJetGoodID[1])");//now part of the basiccut
  //TCut jetqualitycut("mll>0");
  
  TCut cutnJets("pfJetGoodNum>=3"&&basicqualitycut);
  TCut cutnJetsJESdown("pfJetGoodNum25>=3"&&basicqualitycut);
  TCut cutnJetsJESup("pfJetGoodNum35>=3"&&basicqualitycut);
  TCut cutOSOF("(id1!=id2)&&(ch1*ch2<0)");
  TCut cutOSSF("(id1==id2)&&(ch1*ch2<0)");
  TCut sidebandcut("(mll>55&&mll<70)||(mll>112&&mll<160)");

  // SUSY scan parameters
  float mglustart=25;float mgluend=1200;float mglustep=25;
  float mLSPstart=25;float mLSPend=1200;float mLSPstep=25;
  
  float m0start=200;  float m0end=3000;  float m0step=20;
  float m12start=100; float m12end=1000;  float m12step=20;

  int ScanXzones=10; // number of zones in x for (mSUGRA) scans
  int ScanYzones=10; // number of zones in y for (mSUGRA) scans

  //scan types:
  int mSUGRA=1;
  int SMS=2;
  int GMSB=3;

  TCut essential(passtrig);//add here any cuts you ALWAYS want
  int dogaus=0;
  int doKM=1;
  int dogaus2sigma=2;
  int dogaus3sigma=3;
  int Kostasmethod=-99;
  
  float fitresultconstdata=0;//this is the result when fitting in the 0-30 GeV range
  float fitresultconstmc=0;//this is the result when fitting in the 0-30 GeV range
  
  int method=-1;//Fitting method
  
  //now some style issues:
  float DataMarkerSize=1.2;
  
  //here we save our number of predicted and observed events (with errors)
  vector<float> Nobs;
  vector<float> Npred;
  vector<float> Nprederr;
  
  //here we save our "flipped" number of predicted and observed events (with errors) -- this means that we consider JZB<-X as observed and construct the corresponding prediction
  bool alwaysflip=false;
  vector<float> flippedNobs;
  vector<float> flippedNpred;
  vector<float> flippedNprederr;
  
  int noJES=0;
  int JESdown=1;
  int JESup=2;
  
  //some refinement: nicer color gradient
  Double_t stops[5] = { 0.00, 0.34, 0.61, 0.84, 1.00 };
  Double_t red[5]   = { 0.00, 0.00, 0.87, 1.00, 0.51 };
  Double_t green[5] = { 0.00, 0.81, 1.00, 0.20, 0.00 };
  Double_t blue[5]  = { 0.51, 1.00, 0.12, 0.00, 0.00 };
  int fi=TColor::CreateGradientColorTable(5, stops, red, green,blue, 255);
  
  // LIMITS
  int nlimittoys=1000; // how many toys for setting limits
  string limitmethod="cls";//what method to use to set limits
  int limitpatience=15; // for how many minutes should the limit calculation (for one configuration!) be allowed to run before being aborted? this only has an effect when when running on the t3 batch; the value for CRAB is on the next line
  int limitpatienceCRAB=60;
  bool ConsiderSignalContaminationForLimits=true; //whether or not to consider signal contamination when computing limits (standard:true)
  int nuisancemodel=1;
  
  float JZBPeakPositionData=-999;
  float JZBPeakPositionMC=-999;
  float JZBPeakWidthData=-999;
  float JZBPeakWidthMC=-999;

  // two possible future systematics that ATM only take up CPU time in SUSY scans
  bool computeJZBefficiency=false;
  bool computeJZBresponse=false;

  bool requireZ=true;

  string ScanSampleDirectory="SMS_T5zz/"; // possibilities (atm) : SMS_T5zz/, SMS_T5zzl/, SMS_T5zzh/, GMSB/, mSUGRA/     note: this string needs to either contain "SMS", "GMSB", or "mSUGRA"

  ResultLibrary allresults;
}
Revision:	1.3
Committed:	Thu Feb 9 16:01:04 2012 UTC (13 years, 2 months ago) by buchmann
Content type:	text/plain
Branch:	MAIN
Changes since 1.2:	+2 -2 lines
Log Message:	Reduced the number of scan zones to avoid running out of ram again
#	User	Rev	Content
1	buchmann	1.1	#include <iostream>
2			#include <fstream>
3			#include <TCut.h>
4			#include <TColor.h>
5			#include <TStyle.h>
6
7			#ifndef SampleClassLoaded
8			#include "SampleClass.C"
9			#endif
10			#define SetupLoaded
11			#ifndef ResultLibraryClassLoaded
12			#include "ResultLibraryClass.C"
13			#endif
14
15
16			using namespace std;
17
18
19			namespace PlottingSetup {
20
21			string directoryname="Results_With_4653ipb__Step8___AllInOne___PAPERMODE";
22
23			bool RestrictToMassPeak=true; //if you want to switch between offpeak ("false") and onpeak ("true") analysis please use this switch; the masscut below will be adapted automatically when adding samples :-)
24
25			float luminosity=4653.74;//p3523.18;//2096.0;//3172.73;//2096.0;//1936;//751.0;//486.0;//468.0//336.;//pb^{-1}
26			// float luminosity=3523.18;//2096.0;//3172.73;//2096.0;//1936;//751.0;//486.0;//468.0//336.;//pb^{-1}
27			// float luminosity=2096.0;//3172.73;//2096.0;//1936;//751.0;//486.0;//468.0//336.;//pb^{-1}
28			float lumiuncert=0.045;// to be indicated in [0,1] range, e.g. for 4% write 0.04
29
30			string jzbvariabledata="jzb[1]+0.06*pt";
31			string jzbvariablemc="jzb[1]+0.04*pt";
32			float jzbHigh = 400.; // Range for JZB plots
33
34			samplecollection allsamples("completesamplecollection");
35			samplecollection signalsamples("signalsamplecollection");
36			samplecollection systsamples("systematicssamplecollection");
37			samplecollection scansample("scansamplecollection");
38			samplecollection raresample("raresamplecollection");
39			int data=1;
40			int mc=0;
41			int mcwithsignal=2;
42			TCut passtrig("(passed_triggers\|\|!is_data)");
43			TCut cutmass("abs(mll-91.2)<20");
44			TCut genMassCut("abs(genMll-91.2)<20");
45			TCut openmasscut("mll>40"); // this is the mass cut used in the off peak analysis!
46			TCut openGenmasscut("genMll>40");
47			//TCut cutmass("mll>2");
48			TCut basiccut("mll>2");//basically nothing.
49			TCut basicqualitycut("(pfJetGoodNum>=2&&pfJetGoodID[0]!=0)&&(pfJetGoodNum>=2&&pfJetGoodID[1]!=0)");//don't use this for the "essential cut", because we want to plot nJets as well as mll in the inclusive case; we thus use it as an addition nJets cut.
50			//TCut jetqualitycut("(pfJetGoodNum>=2&&pfJetGoodID[0])&&(pfJetGoodNum>=2&&pfJetGoodID[1])");//now part of the basiccut
51			//TCut jetqualitycut("mll>0");
52
53			TCut cutnJets("pfJetGoodNum>=3"&&basicqualitycut);
54			TCut cutnJetsJESdown("pfJetGoodNum25>=3"&&basicqualitycut);
55			TCut cutnJetsJESup("pfJetGoodNum35>=3"&&basicqualitycut);
56			TCut cutOSOF("(id1!=id2)&&(ch1*ch2<0)");
57			TCut cutOSSF("(id1==id2)&&(ch1*ch2<0)");
58			TCut sidebandcut("(mll>55&&mll<70)\|\|(mll>112&&mll<160)");
59
60			// SUSY scan parameters
61			float mglustart=25;float mgluend=1200;float mglustep=25;
62			float mLSPstart=25;float mLSPend=1200;float mLSPstep=25;
63
64	buchmann	1.2	float m0start=200; float m0end=3000; float m0step=20;
65			float m12start=100; float m12end=1000; float m12step=20;
66
67	buchmann	1.3	int ScanXzones=10; // number of zones in x for (mSUGRA) scans
68			int ScanYzones=10; // number of zones in y for (mSUGRA) scans
69	buchmann	1.1
70			//scan types:
71			int mSUGRA=1;
72			int SMS=2;
73			int GMSB=3;
74
75			TCut essential(passtrig);//add here any cuts you ALWAYS want
76			int dogaus=0;
77			int doKM=1;
78			int dogaus2sigma=2;
79			int dogaus3sigma=3;
80			int Kostasmethod=-99;
81
82			float fitresultconstdata=0;//this is the result when fitting in the 0-30 GeV range
83			float fitresultconstmc=0;//this is the result when fitting in the 0-30 GeV range
84
85			int method=-1;//Fitting method
86
87			//now some style issues:
88			float DataMarkerSize=1.2;
89
90			//here we save our number of predicted and observed events (with errors)
91			vector<float> Nobs;
92			vector<float> Npred;
93			vector<float> Nprederr;
94
95			//here we save our "flipped" number of predicted and observed events (with errors) -- this means that we consider JZB<-X as observed and construct the corresponding prediction
96			bool alwaysflip=false;
97			vector<float> flippedNobs;
98			vector<float> flippedNpred;
99			vector<float> flippedNprederr;
100
101			int noJES=0;
102			int JESdown=1;
103			int JESup=2;
104
105			//some refinement: nicer color gradient
106			Double_t stops[5] = { 0.00, 0.34, 0.61, 0.84, 1.00 };
107			Double_t red[5] = { 0.00, 0.00, 0.87, 1.00, 0.51 };
108			Double_t green[5] = { 0.00, 0.81, 1.00, 0.20, 0.00 };
109			Double_t blue[5] = { 0.51, 1.00, 0.12, 0.00, 0.00 };
110			int fi=TColor::CreateGradientColorTable(5, stops, red, green,blue, 255);
111
112			// LIMITS
113			int nlimittoys=1000; // how many toys for setting limits
114			string limitmethod="cls";//what method to use to set limits
115			int limitpatience=15; // for how many minutes should the limit calculation (for one configuration!) be allowed to run before being aborted? this only has an effect when when running on the t3 batch; the value for CRAB is on the next line
116			int limitpatienceCRAB=60;
117			bool ConsiderSignalContaminationForLimits=true; //whether or not to consider signal contamination when computing limits (standard:true)
118			int nuisancemodel=1;
119
120			float JZBPeakPositionData=-999;
121			float JZBPeakPositionMC=-999;
122			float JZBPeakWidthData=-999;
123			float JZBPeakWidthMC=-999;
124
125			// two possible future systematics that ATM only take up CPU time in SUSY scans
126			bool computeJZBefficiency=false;
127			bool computeJZBresponse=false;
128
129			bool requireZ=true;
130
131			string ScanSampleDirectory="SMS_T5zz/"; // possibilities (atm) : SMS_T5zz/, SMS_T5zzl/, SMS_T5zzh/, GMSB/, mSUGRA/ note: this string needs to either contain "SMS", "GMSB", or "mSUGRA"
132
133			ResultLibrary allresults;
134			}