--- /dev/null
+///////////////////////////////////////////////////////////////////////////
+//
+// Copyright 2010
+//
+// This file is part of starlight.
+//
+// starlight is free software: you can redistribute it and/or modify
+// it under the terms of the GNU General Public License as published by
+// the Free Software Foundation, either version 3 of the License, or
+// (at your option) any later version.
+//
+// starlight is distributed in the hope that it will be useful,
+// but WITHOUT ANY WARRANTY; without even the implied warranty of
+// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
+// GNU General Public License for more details.
+//
+// You should have received a copy of the GNU General Public License
+// along with starlight. If not, see <http://www.gnu.org/licenses/>.
+//
+///////////////////////////////////////////////////////////////////////////
+//
+// File and Version Information:
+// $Rev:: $: revision of last commit
+// $Author:: $: author of last commit
+// $Date:: $: date of last commit
+//
+// Description:
+//
+//
+//
+///////////////////////////////////////////////////////////////////////////
+
+
+#ifndef INPUTPARAMETERS_H
+#define INPUTPARAMETERS_H
+
+
+#include "starlightconstants.h"
+#include "inputParser.h"
+#include "singleton.h"
+#include <string>
+#include <ostream>
+#include <vector>
+#include <sstream>
+
+class parameterbase;
+
+
+class parameterlist
+{
+public:
+
+ parameterlist() : _parameters(0) {}
+
+ void add(parameterbase* p) {
+ _parameters.push_back(p);
+ }
+
+ // Returns a string with a key of the current state of the parameter list
+ // only
+ inline std::string validationKey();
+
+
+private:
+
+ std::vector<parameterbase*> _parameters;
+
+};
+
+// Base class for parameters, needed to keep a list of parameters
+class parameterbase
+{
+public:
+
+ // Add this to parameter list
+ parameterbase()
+ {
+ _parameters.add(this);
+ }
+ virtual std::string validationkey() = 0;
+
+ template<typename T>
+ std::string toString(T v)
+ {
+ std::stringstream s;
+ s << v;
+ return s.str();
+ }
+ inline friend std::ostream& operator<<(std::ostream& os, const parameterbase& par);
+
+ // List of all parameters
+ static parameterlist _parameters;
+
+
+
+};
+// Need to init the static variable
+// parameterlist parameterbase::_parameters;
+
+
+// The actual parameter class
+// validate parameter specifies if the parameter should be a part of the validity check of the current parameters
+template<typename T, bool validate>
+class parameter : public parameterbase
+{
+public:
+
+ // Constructor
+ parameter(const std::string &name, T value, bool required = true) :parameterbase(),_name(name), _value(value), _validate(validate), _required(required) {}
+
+// T operator()() const {
+// return _value;
+// }
+
+ parameter &operator=(T v) { _value = v; return *this;}
+ T* ptr() const {
+ return const_cast<T*>(&_value);
+ }
+
+ T value() const { return _value; }
+
+ std::string name() const { return _name;}
+
+ bool required() const { return _required; }
+
+ void setValue(T v) { _value = v; }
+
+ void setName(std::string name) { _name = name; }
+
+ void setRequired(bool r) { _required = r; }
+
+ // Validation key for this parameter
+ std::string validationkey()
+ {
+ return (_validate ? _name + ":" + toString(_value) + "-" : std::string(""));
+ }
+
+ template<typename S, bool v>
+ inline friend std::ostream& operator<<(std::ostream& os, const parameter<S,v>& par);
+
+
+
+private:
+ std::string _name;
+
+ T _value; // Value
+ bool _validate; // true if a change in the parameter invalidates x-sec tables
+ bool _required; // true if this is required option.
+
+ parameter();
+};
+
+template<typename S, bool v>
+std::ostream& operator<<(std::ostream& os, const parameter<S,v>& par)
+{
+ os << par._value;
+ return os;
+}
+
+std::ostream& operator<<(std::ostream& os, const parameterbase& par)
+{
+ os << par._parameters.validationKey();
+ return os;
+}
+std::string parameterlist::validationKey()
+{
+ std::stringstream s;
+ for(unsigned int i = 0; i < _parameters.size(); ++i)
+ {
+ s << _parameters[i]->validationkey(); // Will print names and values of validation parameters
+ }
+ return s.str();
+}
+
+class inputParameters {
+
+private:
+ // inputParameters is now a singleton
+ friend class Singleton<inputParameters>;
+ inputParameters();
+public:
+
+ ~inputParameters();
+
+ bool init();
+ bool configureFromFile(const std::string &configFileName = "./config/slight.in");
+
+ unsigned int beam1Z () const { return _beam1Z.value(); } ///< returns atomic number of beam particle 1
+ unsigned int beam1A () const { return _beam1A.value(); } ///< returns atomic mass number of beam particle 1
+ unsigned int beam2Z () const { return _beam2Z.value(); } ///< returns atomic number of beam particle 2
+ unsigned int beam2A () const { return _beam2A.value(); } ///< returns atomic mass number of beam particle 2
+ double beamLorentzGamma () const { return _beamLorentzGamma; } ///< returns Lorentz gamma factor of both beams in beam CMS frame
+ double beam1LorentzGamma () const { return _beam1LorentzGamma.value(); } ///< returns Lorentz gamma factor of beam 1 in collider frame
+ double beam2LorentzGamma () const { return _beam2LorentzGamma.value(); } ///< returns Lorentz gamma factor of beam 2 in collider frame
+ double maxW () const { return _maxW.value(); } ///< returns maximum mass W of produced hadronic system [GeV/c^2]
+ double minW () const { return _minW.value(); } ///< returns minimum mass W of produced hadronic system [GeV/c^2]
+ unsigned int nmbWBins () const { return _nmbWBins.value(); } ///< returns number of W bins in lookup table
+ double maxRapidity () const { return _maxRapidity.value(); } ///< returns maximum absolute value of rapidity
+ unsigned int nmbRapidityBins () const { return _nmbRapidityBins.value(); } ///< returns number of rapidity bins in lookup table
+ bool ptCutEnabled () const { return _ptCutEnabled.value(); } ///< returns cut in pt
+ double ptCutMin () const { return _ptCutMin.value(); } ///< returns minimum pt
+ double ptCutMax () const { return _ptCutMax.value(); } ///< returns maximum pt
+ bool etaCutEnabled () const { return _etaCutEnabled.value(); } ///< returns cut in eta
+ double etaCutMin () const { return _etaCutMin.value(); } ///< returns minimum eta
+ double etaCutMax () const { return _etaCutMax.value(); } ///< returns maximum eta
+ int productionMode () const { return _productionMode.value(); } ///< returns production mode
+ unsigned int nmbEvents () const { return _nmbEventsTot.value(); } ///< returns total number of events to generate
+ int prodParticleId () const { return _prodParticleId.value(); } ///< returns PDG particle ID of produced particle
+ int randomSeed () const { return _randomSeed.value(); } ///< returns seed for random number generator
+ int outputFormat () const { return _outputFormat.value(); } ///< returns output format
+ int beamBreakupMode () const { return _beamBreakupMode.value(); } ///< returns breakup mode for beam particles
+ bool interferenceEnabled () const { return _interferenceEnabled.value(); } ///< returns whether interference is taken into account
+ double interferenceStrength () const { return _interferenceStrength.value(); } ///< returns percentage of interference
+ bool coherentProduction () const { return _coherentProduction.value(); } ///< returns whether production is coherent or incoherent
+ double incoherentFactor () const { return _incoherentFactor.value(); } ///< returns incoherent contribution in vector meson production
+ double deuteronSlopePar () const { return _deuteronSlopePar.value(); } ///< returns slope parameter for deuteron form factor [(GeV/c)^{-2}]
+ double maxPtInterference () const { return _maxPtInterference.value(); } ///< returns maximum p_T for interference calculation [GeV/c]
+ int nmbPtBinsInterference () const { return _nmbPtBinsInterference.value(); } ///< returns number of p_T bins for interference calculation
+ double ptBinWidthInterference() const { return _ptBinWidthInterference.value(); } ///< returns width of p_T bins for interference calculation [GeV/c]
+ double minGammaEnergy () const { return _minGammaEnergy.value(); } ///< returns minimum gamma energy in case of photo nuclear processes [GeV]
+ double maxGammaEnergy () const { return _maxGammaEnergy.value(); } ///< returns maximum gamma energy in case of photo nuclear processes [GeV]
+ std::string pythiaParams () const { return _pythiaParams.value(); } ///< returns parameters to be passed to pythia
+ bool pythiaFullEventRecord () const { return _pythiaFullEventRecord.value(); } ///< returns if the full pythia event record should be printed
+ int xsecCalcMethod () const { return _xsecCalcMethod.value(); } ///< returns the method used for the x-sec calculation
+ int nThreads () const { return _nThreads.value(); } ///< returns the number of threads in case method 1 is used for the x-sec calc
+ unsigned int nBinsQKniehl () const { return _nBinsQKniehl.value(); } ///< Number of bins in Q used for the transformation to the impact paramter space of the Kniehl function
+ unsigned int nBinsEKniehl () const { return _nBinsEKniehl.value(); } ///< Number of bins in photon energy used for the Kniehl function
+ unsigned int nBinsBKniehl () const { return _nBinsBKniehl.value(); } ///< Number of bins in impact parameter used for the Kniehl function
+ double qMaxKniehl () const { return _qMaxKniehl.value(); } ///< Max value of Q used for the Kniehl funcion
+ double eGammaMinKniehl () const { return _eGammaMinKniehl.value(); } ///< Min value of gamma energy used for the Kniehl funcion
+ double eGammaMaxKniehl () const { return _eGammaMaxKniehl.value(); } ///< Max value of gamma energy used for the Kniehl funcion
+ double bMinKniehl () const { return _bMinKniehl.value(); } ///< Min value of impact parameter used for the Kniehl funcion
+ double bMaxKniehl () const { return _bMaxKniehl.value(); } ///< Max value of impact parameter used for the Kniehl funcion
+
+ starlightConstants::particleTypeEnum prodParticleType () const { return _particleType; } ///< returns type of produced particle
+ starlightConstants::decayTypeEnum prodParticleDecayType() const { return _decayType; } ///< returns decay type of produced particle
+ starlightConstants::interactionTypeEnum interactionType () const { return _interactionType; } ///< returns interaction type
+ // double vmPhotonCoupling();
+ // double slopeParameter();
+ double protonEnergy () const { return _protonEnergy.value(); }
+
+ void setBeam1Z (unsigned int v) { _beam1Z = v; } ///< returns atomic number of beam particle 1
+ void setBeam1A (unsigned int v) { _beam1A = v; } ///< returns atomic mass number of beam particle 1
+ void setBeam2Z (unsigned int v) { _beam2Z = v; } ///< returns atomic number of beam particle 2
+ void setBeam2A (unsigned int v) { _beam2A = v; } ///< returns atomic mass number of beam particle 2
+ void setBeamLorentzGamma (double v) { _beamLorentzGamma = v; } ///< returns Lorentz gamma factor of both beams in beam CMS frame
+ void setBeam1LorentzGamma (double v) { _beam1LorentzGamma = v; } ///< returns Lorentz gamma factor of beam 1 in collider frame
+ void setBeam2LorentzGamma (double v) { _beam2LorentzGamma = v; } ///< returns Lorentz gamma factor of beam 2 in collider frame
+ void setMaxW (double v) { _maxW = v; } ///< returns maximum mass W of produced hadronic system [GeV/c^2]
+ void setMinW (double v) { _minW = v; } ///< returns minimum mass W of produced hadronic system [GeV/c^2]
+ void setNmbWBins (unsigned int v) { _nmbWBins = v; } ///< returns number of W bins in lookup table
+ void setMaxRapidity (double v) { _maxRapidity = v; } ///< returns maximum absolute value of rapidity
+ void setNmbRapidityBins (unsigned int v) { _nmbRapidityBins = v; } ///< returns number of rapidity bins in lookup table
+ void setPtCutEnabled (bool v) { _ptCutEnabled = v; } ///< returns cut in pt
+ void setPtCutMin (double v) { _ptCutMin = v; } ///< returns minimum pt
+ void setPtCutMax (double v) { _ptCutMax = v; } ///< returns maximum pt
+ void setEtaCutEnabled (bool v) { _etaCutEnabled = v; } ///< returns cut in eta
+ void setEtaCutMin (double v) { _etaCutMin = v; } ///< returns minimum eta
+ void setEtaCutMax (double v) { _etaCutMax = v; } ///< returns maximum eta
+ void setProductionMode (int v) { _productionMode = v; } ///< returns production mode
+ void setNmbEvents (unsigned int v) { _nmbEventsTot = v; } ///< returns total number of events to generate
+ void setProdParticleId (int v) { _prodParticleId = v; } ///< returns PDG particle ID of produced particle
+ void setRandomSeed (int v) { _randomSeed = v; } ///< returns seed for random number generator
+ void setOutputFormat (int v) { _outputFormat = v; } ///< returns output format
+ void setBeamBreakupMode (int v) { _beamBreakupMode = v; } ///< returns breakup mode for beam particles
+ void setInterferenceEnabled (bool v) { _interferenceEnabled = v; } ///< returns whether interference is taken into account
+ void setInterferenceStrength (double v) { _interferenceStrength = v; } ///< returns percentage of interference
+ void setCoherentProduction (bool v) { _coherentProduction = v; } ///< returns whether production is coherent or incoherent
+ void setIncoherentFactor (double v) { _incoherentFactor = v; } ///< returns incoherent contribution in vector meson production
+ void setDeuteronSlopePar (double v) { _deuteronSlopePar = v; } ///< returns slope parameter for deuteron form factor [(GeV/c)^{-2}]
+ void setMaxPtInterference (double v) { _maxPtInterference = v; } ///< returns maximum p_T for voiderference calculation [GeV/c]
+ void setNmbPtBinsInterference (int v) { _nmbPtBinsInterference = v; } ///< returns number of p_T bins for interference calculation
+ void setPtBinWidthInterference(double v) { _ptBinWidthInterference = v; } ///< returns width of p_T bins for voiderference calculation [GeV/c]
+ void setMinGammaEnergy (double v) { _minGammaEnergy = v; } ///< returns minimum gamma energy in case of photo nuclear processes [GeV]
+ void setMaxGammaEnergy (double v) { _maxGammaEnergy = v; } ///< returns maximum gamma energy in case of photo nuclear processes [GeV]
+ void setPythiaParams (std::string v) { _pythiaParams = v; } ///< returns parameters to be passed to pythia
+ void setPythiaFullEventRecord (bool v) { _pythiaFullEventRecord = v; } ///< returns if the full pythia event record should be prvoided
+ void setXsecCalcMethod (int v) { _xsecCalcMethod = v; } ///< returns the method used for the x-sec calculation
+ void setNThreads (int v) { _nThreads = v; } ///< returns the number of threads in case method 1 is used for the x-sec calc
+ void setNBinsQKniehl (unsigned int v) { _nBinsQKniehl = v; } ///< Number of bins in Q used for the transformation to the impact paramter space of the Kniehl function
+ void setNBinsEKniehl (unsigned int v) { _nBinsEKniehl = v; } ///< Number of bins in photon energy used for the Kniehl function
+ void setNBinsBKniehl (unsigned int v) { _nBinsBKniehl = v; } ///< Number of bins in impact parameter used for the Kniehl function
+ void setQMaxKniehl (double v) { _qMaxKniehl = v; } ///< Max value of Q used for the Kniehl funcion
+ void setEGammaMinKniehl (double v) { _eGammaMinKniehl = v; } ///< Min value of gamma energy used for the Kniehl funcion
+ void setEGammaMaxKniehl (double v) { _eGammaMaxKniehl = v; } ///< Max value of gamma energy used for the Kniehl funcion
+ void setBMinKniehl (double v) { _bMinKniehl = v; } ///< Min value of impact parameter used for the Kniehl funcion
+ void setBMaxKniehl (double v) { _bMaxKniehl = v; } ///< Max value of impact parameter used for the Kniehl funcion
+
+ void setProdParticleType (starlightConstants::particleTypeEnum v) { _particleType = v; } ///< returns type of produced particle
+ void setProdParticleDecayType (starlightConstants::decayTypeEnum v) { _decayType = v; } ///< returns decay type of produced particle
+ void setInteractionType (starlightConstants::interactionTypeEnum v) { _interactionType = v; } ///< returns interaction type
+
+ // double vmPhotonCoupling();
+ // double slopeParameter();
+ void setProtonEnergy (double v) { _protonEnergy = v; }
+
+ template<typename T>
+ inline bool setParameter(std::string expression);
+
+ std::ostream& print(std::ostream& out) const; ///< prints parameter summary
+ std::ostream& write(std::ostream& out) const; ///< writes parameters back to an ostream
+
+ std::string parameterValueKey() const; ///< Generates key for the current parameters
+
+
+private:
+
+
+// To indicate if the crossection table should be re-calculated if parameter changes
+#define VALIDITY_CHECK true
+#define NO_VALIDITY_CHECK false
+
+ std::string _configFileName; ///< path to configuration file (default = ./config/slight.in)
+
+ // config file parameters
+ parameter<unsigned int,VALIDITY_CHECK> _beam1Z; ///< atomic number of beam particle 1
+ parameter<unsigned int,VALIDITY_CHECK> _beam1A; ///< atomic mass number of beam particle 1
+ parameter<unsigned int,VALIDITY_CHECK> _beam2Z; ///< atomic number of beam particle 2
+ parameter<unsigned int,VALIDITY_CHECK> _beam2A; ///< atomic mass number of beam particle 2
+ parameter<double, VALIDITY_CHECK> _beam1LorentzGamma; ///< Lorentz gamma factor of beam 1 in collider frame
+ parameter<double, VALIDITY_CHECK> _beam2LorentzGamma; ///< Lorentz gamma factor of beam 2 in collider frame
+ parameter<double, VALIDITY_CHECK> _maxW; ///< maximum mass W of produced hadronic system [GeV/c^2]
+ parameter<double, VALIDITY_CHECK> _minW; ///< minimum mass W of produced hadronic system; if set to -1 default value is taken [GeV/c^2]
+ parameter<unsigned int, VALIDITY_CHECK> _nmbWBins; ///< number of W bins in lookup table
+ parameter<double, VALIDITY_CHECK> _maxRapidity; ///< maximum absolute value of rapidity
+ parameter<unsigned int, VALIDITY_CHECK> _nmbRapidityBins; ///< number of rapidity bins in lookup table
+ parameter<bool, VALIDITY_CHECK> _ptCutEnabled; ///< en/disables cut in pt
+ parameter<double, VALIDITY_CHECK> _ptCutMin; ///< minimum pt, if cut is enabled
+ parameter<double, VALIDITY_CHECK> _ptCutMax; ///< maximum pt, if cut is enabled
+ parameter<bool, VALIDITY_CHECK> _etaCutEnabled; ///< en/disables cut in eta
+ parameter<double, VALIDITY_CHECK> _etaCutMin; ///< minimum eta, if cut is enabled
+ parameter<double, VALIDITY_CHECK> _etaCutMax; ///< maximum eta, if cut is enabled
+ parameter<unsigned int, VALIDITY_CHECK> _productionMode; ///< \brief production mode
+ ///<
+ ///< 1 = photon-photon fusion,
+ ///< 2 = narrow vector meson resonance in photon-Pomeron fusion,
+ ///< 3 = Breit-Wigner vector meson resonance in photon-Pomeron fusion
+ parameter<unsigned int, VALIDITY_CHECK> _nmbEventsTot; ///< total number of events to generate
+ parameter<unsigned int, VALIDITY_CHECK> _prodParticleId; ///< PDG particle ID of produced particle
+ parameter<unsigned int, VALIDITY_CHECK> _randomSeed; ///< seed for random number generator
+ parameter<unsigned int, NO_VALIDITY_CHECK> _outputFormat; ///< \brief output format
+ ///<
+ ///< 1 = ASCII
+ ///< 2 = GSTARtext,
+ ///< 3 = PAW ntuple (not working)
+ parameter<unsigned int, VALIDITY_CHECK> _beamBreakupMode; ///< \brief breakup mode for beam particles
+ ///<
+ ///< 1 = hard sphere nuclei (b > 2R),
+ ///< 2 = both nuclei break up (XnXn),
+ ///< 3 = a single neutron from each nucleus (1n1n),
+ ///< 4 = neither nucleon breaks up (with b > 2R),
+ ///< 5 = no hadronic break up (similar to option 1, but with the actual hadronic interaction)
+ parameter<bool, VALIDITY_CHECK> _interferenceEnabled; ///< if VALIDITY_CHECK, interference is taken into account
+ parameter<double, VALIDITY_CHECK> _interferenceStrength; ///< percentage of interference: from 0 = none to 1 = full
+ parameter<bool, VALIDITY_CHECK> _coherentProduction; ///< if VALIDITY_CHECK, production is coherent, else incoherent
+ parameter<double, VALIDITY_CHECK> _incoherentFactor; ///< allows to scale the incoherent contribution in vector meson production
+ parameter<double, VALIDITY_CHECK> _deuteronSlopePar; ///< slope parameter for deuteron form factor [(GeV/c)^{-2}]
+ parameter<double, VALIDITY_CHECK> _maxPtInterference; ///< maximum p_T for interference calculation [GeV/c]
+ parameter<unsigned int, VALIDITY_CHECK> _nmbPtBinsInterference; ///< number of p_T bins for interference calculation
+ parameter<double, VALIDITY_CHECK> _ptBinWidthInterference; ///< width of p_T bins for interference calculation [GeV/c]
+ parameter<double, VALIDITY_CHECK> _protonEnergy;
+ parameter<double, VALIDITY_CHECK> _minGammaEnergy; ///< minimum gamma energy in case of photo nuclear processes [GeV]
+ parameter<double, VALIDITY_CHECK> _maxGammaEnergy; ///< maximum gamma energy in case of photo nuclear processes [GeV]
+ parameter<std::string,NO_VALIDITY_CHECK> _pythiaParams; ///< semi-colon separated parameters to pass to pythia, e.g. "mstj(1)=0;paru(13)=0.1"
+ parameter<bool, NO_VALIDITY_CHECK> _pythiaFullEventRecord; ///< if the full pythia event record should be in the outputu
+ parameter<unsigned int, VALIDITY_CHECK> _xsecCalcMethod; ///< Select x-sec calc method. (0 is standard starlight method, 1 must be used for assym. collisions (e.g. p-A), but is slow)
+ parameter<unsigned int, NO_VALIDITY_CHECK> _nThreads; ///< Number of threads used in the case of using method 1 for calculating the x-sections
+ parameter<unsigned int, VALIDITY_CHECK> _nBinsQKniehl; ///< Number of bins in Q used for the transformation to the impact paramter space of the Kniehl function
+ parameter<unsigned int, VALIDITY_CHECK> _nBinsEKniehl; ///< Number of bins in photon energy used for the Kniehl function
+ parameter<unsigned int, VALIDITY_CHECK> _nBinsBKniehl; ///< Number of bins in impact parameter used for the Kniehl function
+ parameter<double, VALIDITY_CHECK> _qMaxKniehl; ///< Max value of Q used for the Kniehl funcion
+ parameter<double, VALIDITY_CHECK> _eGammaMinKniehl; ///< Min value of gamma energy used for the Kniehl funcion
+ parameter<double, VALIDITY_CHECK> _eGammaMaxKniehl; ///< Max value of gamma energy used for the Kniehl funcion
+ parameter<double, VALIDITY_CHECK> _bMinKniehl; ///< Min value of impact parameter used for the Kniehl funcion
+ parameter<double, VALIDITY_CHECK> _bMaxKniehl; ///< Max value of impact parameter used for the Kniehl funcion
+
+
+ starlightConstants::particleTypeEnum _particleType;
+ starlightConstants::decayTypeEnum _decayType;
+ starlightConstants::interactionTypeEnum _interactionType;
+
+ double _beamLorentzGamma; ///< Lorentz gamma factor of the beams in CMS frame, not an input parameter
+
+ inputParser _ip;
+
+};
+
+#define inputParametersInstance Singleton<inputParameters>::instance()
+
+template<typename T>
+inline
+bool inputParameters::setParameter(std::string expression)
+{
+
+ return _ip.parseString(expression);
+
+
+}
+
+inline
+std::ostream&
+operator <<(std::ostream& out,
+ const inputParameters& par)
+{
+ return par.print(out);
+}
+
+
+#endif // INPUTPARAMETERS_H
git://git.uio.no / u / mrichter / AliRoot.git / blobdiff