/*****************************************************************************
* Project: RooFit *
* Package: RooFitCore *
* File: $Id: RooRealVar.cc,v 1.57 2005/06/20 15:44:57 wverkerke Exp $
* Authors: *
* WV, Wouter Verkerke, UC Santa Barbara, verkerke@slac.stanford.edu *
* DK, David Kirkby, UC Irvine, dkirkby@uci.edu *
* *
* Copyright (c) 2000-2005, Regents of the University of California *
* and Stanford University. All rights reserved. *
* *
* Redistribution and use in source and binary forms, *
* with or without modification, are permitted according to the terms *
* listed in LICENSE (http://roofit.sourceforge.net/license.txt) *
*****************************************************************************/
// -- CLASS DESCRIPTION [REAL] --
// RooRealVar represents a fundamental (non-derived) real valued object
//
// This class also holds an error and a fit range associated with the real value
#include "RooFit.h"
#include <math.h>
#include <math.h>
#include <stdlib.h>
#include <string.h>
#include <ctype.h>
#include <iomanip>
#include "TObjString.h"
#include "TTree.h"
#include "RooRealVar.h"
#include "RooStreamParser.h"
#include "RooErrorVar.h"
#include "RooRangeBinning.h"
#include "RooCmdConfig.h"
ClassImp(RooRealVar)
;
Bool_t RooRealVar::_printScientific(kFALSE) ;
Int_t RooRealVar::_printSigDigits(5) ;
RooRealVar::RooRealVar()
{
// Default constructor
}
RooRealVar::RooRealVar(const char *name, const char *title,
Double_t value, const char *unit) :
RooAbsRealLValue(name, title, unit), _error(-1), _asymErrLo(1), _asymErrHi(-1) //, _fitBins(100)
{
// Constructor with value and unit
_binning = new RooUniformBinning(-1,1,100) ;
_value = value ;
removeRange();
setConstant(kTRUE) ;
}
RooRealVar::RooRealVar(const char *name, const char *title,
Double_t minValue, Double_t maxValue,
const char *unit) :
RooAbsRealLValue(name, title, unit), _error(-1), _asymErrLo(1), _asymErrHi(-1) // , _fitBins(100)
{
// Constructor with range and unit. Value is set to middle of range
_binning = new RooUniformBinning(minValue,maxValue,100) ;
_value= 0.5*(minValue + maxValue);
// setPlotRange(minValue,maxValue) ;
setRange(minValue,maxValue) ;
}
RooRealVar::RooRealVar(const char *name, const char *title,
Double_t value, Double_t minValue, Double_t maxValue,
const char *unit) :
RooAbsRealLValue(name, title, unit), _error(-1), _asymErrLo(1), _asymErrHi(-1) //, _fitBins(100)
{
// Constructor with value, range and unit
_value = value ;
_binning = new RooUniformBinning(minValue,maxValue,100) ;
setRange(minValue,maxValue) ;
}
RooRealVar::RooRealVar(const RooRealVar& other, const char* name) :
RooAbsRealLValue(other,name),
_error(other._error),
_asymErrLo(other._asymErrLo),
_asymErrHi(other._asymErrHi)
{
// Copy Constructor
_binning = other._binning->clone() ;
TIterator* iter = other._altBinning.MakeIterator() ;
RooAbsBinning* binning ;
while((binning=(RooAbsBinning*)iter->Next())) {
_altBinning.Add(binning->clone()) ;
}
delete iter ;
}
RooRealVar::~RooRealVar()
{
// Destructor
delete _binning ;
_altBinning.Delete() ;
}
Double_t RooRealVar::getVal(const RooArgSet*) const
{
return _value ;
}
void RooRealVar::setVal(Double_t value) {
// Set current value
Double_t clipValue ;
inRange(value,&clipValue) ;
setValueDirty() ;
_value = clipValue;
}
RooErrorVar* RooRealVar::errorVar() const
{
TString name(GetName()), title(GetTitle()) ;
name.Append("err") ;
title.Append(" Error") ;
return new RooErrorVar(name,title,*this) ;
}
Bool_t RooRealVar::hasBinning(const char* name) const
{
return _altBinning.FindObject(name) ? kTRUE : kFALSE ;
}
const RooAbsBinning& RooRealVar::getBinning(const char* name, Bool_t verbose, Bool_t createOnTheFly) const
{
return const_cast<RooRealVar*>(this)->getBinning(name, verbose, createOnTheFly) ;
}
RooAbsBinning& RooRealVar::getBinning(const char* name, Bool_t verbose, Bool_t createOnTheFly)
{
// Return default (normalization) binning and range if no name is specified
if (name==0) {
return *_binning ;
}
// Check if binning with this name has been created already
RooAbsBinning* binning = (RooAbsBinning*) _altBinning.FindObject(name) ;
if (binning) {
return *binning ;
}
// Return default binning if requested binning doesn't exist
if (!createOnTheFly) {
return *_binning ;
}
// Create a new RooRangeBinning with this name with default range
binning = new RooRangeBinning(getMin(),getMax(),name) ;
if (verbose) {
cout << "RooRealVar::getBinning(" << GetName() << ") new range named '"
<< name << "' created with default bounds" << endl ;
}
_altBinning.Add(binning) ;
return *binning ;
}
void RooRealVar::setBinning(const RooAbsBinning& binning, const char* name)
{
if (!name) {
if (_binning) delete _binning ;
_binning = binning.clone() ;
} else {
// Remove any old binning with this name
RooAbsBinning* oldBinning = (RooAbsBinning*) _altBinning.FindObject(name) ;
if (oldBinning) {
_altBinning.Remove(oldBinning) ;
delete oldBinning ;
}
// Insert new binning in list of alternative binnings
RooAbsBinning* newBinning = binning.clone() ;
newBinning->SetName(name) ;
newBinning->SetTitle(name) ;
_altBinning.Add(newBinning) ;
}
}
void RooRealVar::setMin(const char* name, Double_t value)
{
// Set new minimum of fit range
RooAbsBinning& binning = getBinning(name,kTRUE,kTRUE) ;
// Check if new limit is consistent
if (value >= getMax()) {
cout << "RooRealVar::setMin(" << GetName()
<< "): Proposed new fit min. larger than max., setting min. to max." << endl ;
binning.setMin(getMax()) ;
} else {
binning.setMin(value) ;
}
// Clip current value in window if it fell out
if (!name) {
Double_t clipValue ;
if (!inRange(_value,&clipValue)) {
setVal(clipValue) ;
}
}
setShapeDirty() ;
}
void RooRealVar::setMax(const char* name, Double_t value)
{
// Set new maximum of fit range
RooAbsBinning& binning = getBinning(name,kTRUE,kTRUE) ;
// Check if new limit is consistent
if (value < getMin()) {
cout << "RooRealVar::setMax(" << GetName()
<< "): Proposed new fit max. smaller than min., setting max. to min." << endl ;
binning.setMax(getMin()) ;
} else {
binning.setMax(value) ;
}
// Clip current value in window if it fell out
if (!name) {
Double_t clipValue ;
if (!inRange(_value,&clipValue)) {
setVal(clipValue) ;
}
}
setShapeDirty() ;
}
void RooRealVar::setRange(const char* name, Double_t min, Double_t max)
{
Bool_t exists = name ? (_altBinning.FindObject(name)?kTRUE:kFALSE) : kTRUE ;
// Set new fit range
RooAbsBinning& binning = getBinning(name,kFALSE,kTRUE) ;
// Check if new limit is consistent
if (min>max) {
cout << "RooRealVar::setRange(" << GetName()
<< "): Proposed new fit max. smaller than min., setting max. to min." << endl ;
binning.setRange(min,min) ;
} else {
binning.setRange(min,max) ;
}
if (!exists) {
cout << "RooRealVar::setRange(" << GetName()
<< ") new range named '" << name << "' created with bounds ["
<< min << "," << max << "]" << endl ;
}
setShapeDirty() ;
}
Bool_t RooRealVar::readFromStream(istream& is, Bool_t compact, Bool_t verbose)
{
// Read object contents from given stream
TString token,errorPrefix("RooRealVar::readFromStream(") ;
errorPrefix.Append(GetName()) ;
errorPrefix.Append(")") ;
RooStreamParser parser(is,errorPrefix) ;
Double_t value(0) ;
if (compact) {
// Compact mode: Read single token
if (parser.readDouble(value,verbose)) return kTRUE ;
if (isValidReal(value,verbose)) {
setVal(value) ;
return kFALSE ;
} else {
return kTRUE ;
}
} else {
// Extended mode: Read multiple tokens on a single line
Bool_t haveValue(kFALSE) ;
Bool_t haveConstant(kFALSE) ;
removeError() ;
removeAsymError() ;
Bool_t reprocessToken = kFALSE ;
while(1) {
if (parser.atEOL() || parser.atEOF()) break ;
if (!reprocessToken) {
token=parser.readToken() ;
}
reprocessToken = kFALSE ;
if (!token.CompareTo("+")) {
// Expect +/- as 3-token sequence
if (parser.expectToken("/",kTRUE) ||
parser.expectToken("-",kTRUE)) {
break ;
}
// Next token is error or asymmetric error, check if first char of token is a '('
TString tmp = parser.readToken() ;
if (tmp.CompareTo("(")) {
// Symmetric error, convert token do double
Double_t error ;
parser.convertToDouble(tmp,error) ;
setError(error) ;
} else {
// Have error
Double_t asymErrLo, asymErrHi ;
if (parser.readDouble(asymErrLo,kTRUE) ||
parser.expectToken(",",kTRUE) ||
parser.readDouble(asymErrHi,kTRUE) ||
parser.expectToken(")",kTRUE)) break ;
setAsymError(asymErrLo,asymErrHi) ;
}
} else if (!token.CompareTo("C")) {
// Set constant
setConstant(kTRUE) ;
haveConstant = kTRUE ;
} else if (!token.CompareTo("P")) {
// Next tokens are plot limits
Double_t plotMin(0), plotMax(0) ;
Int_t plotBins(0) ;
if (parser.expectToken("(",kTRUE) ||
parser.readDouble(plotMin,kTRUE) ||
parser.expectToken("-",kTRUE) ||
parser.readDouble(plotMax,kTRUE) ||
parser.expectToken(":",kTRUE) ||
parser.readInteger(plotBins,kTRUE) ||
parser.expectToken(")",kTRUE)) break ;
// setPlotRange(plotMin,plotMax) ;
cout << "RooRealVar::readFromStrem(" << GetName()
<< ") WARNING: plot range deprecated, removed P(...) token" << endl ;
} else if (!token.CompareTo("F")) {
// Next tokens are fit limits
Double_t fitMin, fitMax ;
Int_t fitBins ;
if (parser.expectToken("(",kTRUE) ||
parser.readDouble(fitMin,kTRUE) ||
parser.expectToken("-",kTRUE) ||
parser.readDouble(fitMax,kTRUE) ||
parser.expectToken(":",kTRUE) ||
parser.readInteger(fitBins,kTRUE) ||
parser.expectToken(")",kTRUE)) break ;
//setBins(fitBins) ;
//setRange(fitMin,fitMax) ;
cout << "RooRealVar::readFromStream(" << GetName()
<< ") WARNING: F(lo-hi:bins) token deprecated, use L(lo-hi) B(bins)" << endl ;
if (!haveConstant) setConstant(kFALSE) ;
} else if (!token.CompareTo("L")) {
// Next tokens are fit limits
Double_t fitMin, fitMax ;
// Int_t fitBins ;
if (parser.expectToken("(",kTRUE) ||
parser.readDouble(fitMin,kTRUE) ||
parser.expectToken("-",kTRUE) ||
parser.readDouble(fitMax,kTRUE) ||
parser.expectToken(")",kTRUE)) break ;
setRange(fitMin,fitMax) ;
if (!haveConstant) setConstant(kFALSE) ;
} else if (!token.CompareTo("B")) {
// Next tokens are fit limits
Int_t fitBins ;
if (parser.expectToken("(",kTRUE) ||
parser.readInteger(fitBins,kTRUE) ||
parser.expectToken(")",kTRUE)) break ;
setBins(fitBins) ;
} else {
// Token is value
if (parser.convertToDouble(token,value)) { parser.zapToEnd() ; break ; }
haveValue = kTRUE ;
// Defer value assignment to end
}
}
if (haveValue) setVal(value) ;
return kFALSE ;
}
}
void RooRealVar::writeToStream(ostream& os, Bool_t compact) const
{
// Write object contents to given stream
if (compact) {
// Write value only
os << getVal() ;
} else {
// Write value with error (if not zero)
if (_printScientific) {
char fmtVal[16], fmtErr[16] ;
sprintf(fmtVal,"%%.%de",_printSigDigits) ;
sprintf(fmtErr,"%%.%de",(_printSigDigits+1)/2) ;
if (_value>=0) os << " " ;
os << Form(fmtVal,_value) ;
if (hasAsymError()) {
os << " +/- (" << Form(fmtErr,getAsymErrorLo())
<< ", " << Form(fmtErr,getAsymErrorHi()) << ")" ;
} else if (hasError()) {
os << " +/- " << Form(fmtErr,getError()) ;
}
os << " " ;
} else {
os << format(_printSigDigits,"EFA")->Data() << " " ;
}
// Append limits if not constants
if (isConstant()) {
os << "C " ;
}
// Append fit limits if not +Inf:-Inf
if (hasMin() || hasMax()) {
os << "L(" ;
if(hasMin()) {
os << getMin();
}
else {
os << "-INF";
}
if(hasMax()) {
os << " - " << getMax() ;
}
else {
os << " - +INF";
}
os << ") " ;
}
if (getBins()!=100) {
os << "B(" << getBins() << ") " ;
}
// Add comment with unit, if unit exists
if (!_unit.IsNull())
os << "// [" << getUnit() << "]" ;
}
}
void RooRealVar::printToStream(ostream& os, PrintOption opt, TString indent) const {
// Print info about this object to the specified stream. In addition to the info
// from RooAbsRealLValue::printToStream() we add:
//
// Verbose : fit range and error
RooAbsRealLValue::printToStream(os,opt,indent);
if(opt >= Verbose) {
os << indent << "--- RooRealVar ---" << endl;
TString unit(_unit);
if(!unit.IsNull()) unit.Prepend(' ');
if(opt >= Verbose) {
os << indent << " Error = " << getError() << unit << endl;
}
}
}
TString* RooRealVar::format(const RooCmdArg& formatArg) const
{
RooCmdArg tmp(formatArg) ;
tmp.setProcessRecArgs(kTRUE) ;
RooCmdConfig pc(Form("RooRealVar::format(%s)",GetName())) ;
pc.defineString("what","FormatArgs",0,"") ;
pc.defineInt("autop","FormatArgs::AutoPrecision",0,2) ;
pc.defineInt("fixedp","FormatArgs::FixedPrecision",0,2) ;
pc.defineInt("tlatex","FormatArgs::TLatexStyle",0,0) ;
pc.defineInt("latex","FormatArgs::LatexStyle",0,0) ;
pc.defineInt("latext","FormatArgs::LatexTableStyle",0,0) ;
pc.defineInt("verbn","FormatArgs::VerbatimName",0,0) ;
pc.defineMutex("FormatArgs::TLatexStyle","FormatArgs::LatexStyle","FormatArgs::LatexTableStyle") ;
pc.defineMutex("FormatArgs::AutoPrecision","FormatArgs::FixedPrecision") ;
// Process & check varargs
pc.process(tmp) ;
if (!pc.ok(kTRUE)) {
return 0 ;
}
// Extract values from named arguments
TString options ;
options = pc.getString("what") ;
if (pc.getInt("tlatex")) {
options += "L" ;
} else if (pc.getInt("latex")) {
options += "X" ;
} else if (pc.getInt("latext")) {
options += "Y" ;
}
if (pc.getInt("verbn")) options += "V" ;
Int_t sigDigits = 2 ;
if (pc.hasProcessed("FormatArgs::AutoPrecision")) {
options += "P" ;
sigDigits = pc.getInt("autop") ;
} else if (pc.hasProcessed("FormatArgs::FixedPrecision")) {
options += "F" ;
sigDigits = pc.getInt("fixedp") ;
}
return format(sigDigits,options) ;
}
TString *RooRealVar::format(Int_t sigDigits, const char *options) const {
// Format numeric value in a variety of ways
//
// What is shown?
// N = show name
// H = hide value
// E = show error
// A = show asymmetric error instead of parabolic error (if available)
// U = show unit
//
// How is it shown?
// L = TLatex mode
// X = Latex mode
// Y = Latex table mode ( '=' replaced by '&' )
// V = Make name \verbatim in Latex mode
// P = use error to control shown precision
// F = force fixed precision
//
//cout << "format = " << options << endl ;
// parse the options string
TString opts(options);
opts.ToLower();
Bool_t showName= opts.Contains("n");
Bool_t hideValue= opts.Contains("h");
Bool_t showError= opts.Contains("e");
Bool_t showUnit= opts.Contains("u");
Bool_t tlatexMode= opts.Contains("l");
Bool_t latexMode= opts.Contains("x");
Bool_t latexTableMode = opts.Contains("y") ;
Bool_t latexVerbatimName = opts.Contains("v") ;
if (latexTableMode) latexMode = kTRUE ;
Bool_t asymError= opts.Contains("a") ;
Bool_t useErrorForPrecision= (((showError && !isConstant()) || opts.Contains("p")) && !opts.Contains("f")) ;
// calculate the precision to use
if(sigDigits < 1) sigDigits= 1;
Int_t leadingDigitVal = 0;
if (useErrorForPrecision) {
leadingDigitVal = (Int_t)floor(log10(fabs(_error+1e-10)));
if (_value==0&&_error==0) leadingDigitVal=0 ;
} else {
leadingDigitVal = (Int_t)floor(log10(fabs(_value+1e-10)));
if (_value==0) leadingDigitVal=0 ;
}
Int_t leadingDigitErr= (Int_t)floor(log10(fabs(_error)));
Int_t whereVal= leadingDigitVal - sigDigits + 1;
Int_t whereErr= leadingDigitErr - sigDigits + 1;
char fmtVal[16], fmtErr[16];
if (_value<0) whereVal -= 1 ;
sprintf(fmtVal,"%%.%df", whereVal < 0 ? -whereVal : 0);
sprintf(fmtErr,"%%.%df", whereErr < 0 ? -whereErr : 0);
TString *text= new TString();
if(latexMode) text->Append("$");
// begin the string with "<name> = " if requested
if(showName) {
if (latexTableMode && latexVerbatimName) {
text->Append("\\verb+") ;
}
text->Append(getPlotLabel());
if (latexVerbatimName) text->Append("+") ;
if (!latexTableMode) {
text->Append(" = ");
} else {
text->Append(" $ & $ ");
}
}
// Add leading space if value is positive
if (_value>=0) text->Append(" ") ;
// append our value if requested
char buffer[256];
if(!hideValue) {
chopAt(_value, whereVal);
sprintf(buffer, fmtVal, _value);
text->Append(buffer);
}
// append our error if requested and this variable is not constant
if(hasError() && showError && !(asymError && hasAsymError())) {
if(tlatexMode) {
text->Append(" #pm ");
}
else if(latexMode) {
text->Append("\\pm ");
}
else {
text->Append(" +/- ");
}
sprintf(buffer, fmtErr, getError());
text->Append(buffer);
}
if (asymError && hasAsymError() && showError) {
if(tlatexMode) {
text->Append(" #pm ");
text->Append("_{") ;
sprintf(buffer, fmtErr, getAsymErrorLo());
text->Append(buffer);
text->Append("}^{+") ;
sprintf(buffer, fmtErr, getAsymErrorHi());
text->Append(buffer);
text->Append("}") ;
}
else if(latexMode) {
text->Append("\\pm ");
text->Append("_{") ;
sprintf(buffer, fmtErr, getAsymErrorLo());
text->Append(buffer);
text->Append("}^{+") ;
sprintf(buffer, fmtErr, getAsymErrorHi());
text->Append(buffer);
text->Append("}") ;
}
else {
text->Append(" +/- ");
text->Append(" (") ;
sprintf(buffer, fmtErr, getAsymErrorLo());
text->Append(buffer);
text->Append(", ") ;
sprintf(buffer, fmtErr, getAsymErrorHi());
text->Append(buffer);
text->Append(")") ;
}
}
// append our units if requested
if(!_unit.IsNull() && showUnit) {
text->Append(' ');
text->Append(_unit);
}
if(latexMode) text->Append("$");
return text;
}
Double_t RooRealVar::chopAt(Double_t what, Int_t where) const {
// What does this do?
Double_t scale= pow(10.0,where);
Int_t trunc= (Int_t)floor(what/scale + 0.5);
return (Double_t)trunc*scale;
}
void RooRealVar::attachToTree(TTree& t, Int_t bufSize)
{
// Follow usual procedure for value
RooAbsReal::attachToTree(t,bufSize) ;
// Attach/create additional branch for error
if (getAttribute("StoreError")) {
TString errName(GetName()) ;
errName.Append("_err") ;
TBranch* branch = t.GetBranch(errName) ;
if (branch) {
t.SetBranchAddress(errName,&_error) ;
} else {
TString format(errName);
format.Append("/D");
t.Branch(errName, &_error, (const Text_t*)format, bufSize);
}
}
// Attach/create additional branches for asymmetric error
if (getAttribute("StoreAsymError")) {
TString loName(GetName()) ;
loName.Append("_aerr_lo") ;
TBranch* lobranch = t.GetBranch(loName) ;
if (lobranch) {
t.SetBranchAddress(loName,&_asymErrLo) ;
} else {
TString format(loName);
format.Append("/D");
t.Branch(loName, &_asymErrLo, (const Text_t*)format, bufSize);
}
TString hiName(GetName()) ;
hiName.Append("_aerr_hi") ;
TBranch* hibranch = t.GetBranch(hiName) ;
if (hibranch) {
t.SetBranchAddress(hiName,&_asymErrHi) ;
} else {
TString format(hiName);
format.Append("/D");
t.Branch(hiName, &_asymErrHi, (const Text_t*)format, bufSize);
}
}
}
void RooRealVar::fillTreeBranch(TTree& t)
{
// Attach object to a branch of given TTree
// First determine if branch is taken
TString cleanName(cleanBranchName()) ;
TBranch* valBranch = t.GetBranch(cleanName) ;
if (!valBranch) {
cout << "RooAbsReal::fillTreeBranch(" << GetName() << ") ERROR: not attached to tree" << endl ;
assert(0) ;
}
valBranch->Fill() ;
if (getAttribute("StoreError")) {
TString errName(GetName()) ;
errName.Append("_err") ;
TBranch* errBranch = t.GetBranch(errName) ;
if (errBranch) errBranch->Fill() ;
}
if (getAttribute("StoreAsymError")) {
TString loName(GetName()) ;
loName.Append("_aerr_lo") ;
TBranch* loBranch = t.GetBranch(loName) ;
if (loBranch) loBranch->Fill() ;
TString hiName(GetName()) ;
hiName.Append("_aerr_hi") ;
TBranch* hiBranch = t.GetBranch(hiName) ;
if (hiBranch) hiBranch->Fill() ;
}
}
void RooRealVar::copyCache(const RooAbsArg* source)
{
// Copy the cached value of another RooAbsArg to our cache
// Warning: This function copies the cached values of source,
// it is the callers responsibility to make sure the cache is clean
// Follow usual procedure for valueklog
RooAbsReal::copyCache(source) ;
// Copy error too, if source has one
RooRealVar* other = dynamic_cast<RooRealVar*>(const_cast<RooAbsArg*>(source)) ;
if (other) {
// Copy additional error value
_error = other->_error ;
_asymErrLo = other->_asymErrLo ;
_asymErrHi = other->_asymErrHi ;
}
}
void RooRealVar::Streamer(TBuffer &R__b)
{
// Stream an object of class RooRealVar.
UInt_t R__s, R__c;
if (R__b.IsReading()) {
Version_t R__v = R__b.ReadVersion(&R__s, &R__c); if (R__v) { }
RooAbsRealLValue::Streamer(R__b);
if (R__v==1) {
cout << "RooRealVar::Streamer(" << GetName() << ") converting version 1 data format" << endl ;
Double_t fitMin, fitMax ;
Int_t fitBins ;
R__b >> fitMin;
R__b >> fitMax;
R__b >> fitBins;
_binning = new RooUniformBinning(fitMin,fitMax,fitBins) ;
}
R__b >> _error;
R__b >> _asymErrLo;
R__b >> _asymErrHi;
if (R__v!=1) {
R__b >> _binning;
}
R__b.CheckByteCount(R__s, R__c, RooRealVar::IsA());
} else {
R__c = R__b.WriteVersion(RooRealVar::IsA(), kTRUE);
RooAbsRealLValue::Streamer(R__b);
R__b << _error;
R__b << _asymErrLo;
R__b << _asymErrHi;
R__b << _binning;
R__b.SetByteCount(R__c, kTRUE);
}
}
void RooRealVar::setFitBins(Int_t nBins)
{
cout << "WARNING setFitBins() IS OBSOLETE, PLEASE USE setBins()" << endl ;
setBins(nBins) ;
}
void RooRealVar::setFitMin(Double_t value)
{
cout << "WARNING setFitMin() IS OBSOLETE, PLEASE USE setMin()" << endl ;
setMin(value) ;
}
void RooRealVar::setFitMax(Double_t value)
{
cout << "WARNING setFitMax() IS OBSOLETE, PLEASE USE setMin()" << endl ;
setMax(value) ;
}
void RooRealVar::setFitRange(Double_t min, Double_t max)
{
cout << "WARNING setFitRange() IS OBSOLETE, PLEASE USE setRange()" << endl ;
setRange(min,max) ;
}
void RooRealVar::removeFitMin()
{
cout << "WARNING removeFitMin() IS OBSOLETE, PLEASE USE removeMin()" << endl ;
removeMin() ;
}
void RooRealVar::removeFitMax()
{
cout << "WARNING removeFitMax() IS OBSOLETE, PLEASE USE removeMax()" << endl ;
removeMax() ;
}
void RooRealVar::removeFitRange()
{
cout << "WARNING removeFitRange() IS OBSOLETE, PLEASE USE removeRange()" << endl ;
removeRange() ;
}
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