THE MAIN GENIE PROJECT NAMESPACE More...

Namespaces
	alvarezruso

	constants
	Basic constants.

	controls
	Misc GENIE control constants.

	evtlib

	exceptions
	GENIE-defined C++ exceptions.

	flux
	GENIE flux drivers.

	geometry
	GENIE geometry drivers.

	intranuke
	INTRANUKE utilities.

	masterclass

	mueloss
	The MuELoss utility package that computes muon energy losses in the energy range from 1 GeV to 10 TeV due to ionization, direct e-e+ pair production, bremsstrahlung and photonuclear interactions. Very handy in neutrino-induced upgoing-muon calculations.

	nuvld
	Contains the NuValidator package for Neutrino Interaction model Validation.

	pathsegutils

	pdg
	Utilities for improving the code readability when using PDG codes.

	units
	Physical System of Units.

	utils
	Root of GENIE utility namespaces.

	VLEConstants
	Constants used in VLE package.

Classes
class	AGCharm2019
	Andreopoulos - Gallagher (AG) GENIE Charm Hadronization model. More...

class	AGKY2019
	A 'composite' hadronization model using a KNO-based hadronization model at low W and PYTHIA/JETSET at higher W. Contains no new hadronization code but merely a configurable KNO to PYTHIA transition scheme. More...

class	AGKYLowW2019
	A KNO-based hadronization model. More...

class	AhrensDMELPXSec
	Differential cross section for DM+N elastic scattering. Is a concrete implementation of the XSecAlgorithmI interface. . More...

class	AhrensNCELPXSec
	Differential cross section for v+N / vbar+N elastic scattering. Is a concrete implementation of the XSecAlgorithmI interface. . More...

class	AivazisCharmPXSecLO
	Computes, at Leading Order (LO), the differential cross section for neutrino charm production using the Aivazis,Olness,Tung model. Is a concrete implementation of the XSecAlgorithmI interface. More...

class	AlamSimoAtharVacasSKPXSec2014
	Differential cross section model for single kaon production. More...

class	AlamSimoAtharVacasSKXSec
	A cross-section integrator and GSL interface for the M. Rafi Alam, I. Ruiz Simo, M. Sajjad Athar and M.J. Vicente Vacas single-Kaon production model. Is a concrete implementation of the XSecIntegratorI interface. More...

class	AlgCmp
	Encapsulates an enumeration of possible algorithm comparisons. More...

class	AlgConfigPool
	A singleton class holding all configuration registries built while parsing all loaded XML configuration files. More...

class	AlgFactory
	The GENIE Algorithm Factory. More...

class	AlgId
	Algorithm ID (algorithm name + configuration set name) More...

class	Algorithm
	Algorithm abstract base class. More...

class	AlgStatus
	Encapsulates an enumeration of possible algorithm execution states. More...

class	AlvarezRusoCOHPiPXSec
	Implementation of the Alvarez-Ruso coherent pion production model. More...

class	AMNuGammaGenerator

class	AMNuGammaInteractionListGenerator
	Concrete implementations of the InteractionListGeneratorI interface. Generates a list of all the interactions that can be generated by the AM-NUGAMMA EventGenerator. More...

class	AxialFormFactor
	A class holding the Axial Form Factor. More...

class	AxialFormFactorModelI
	Pure abstract base class. Defines the AxialFormFactorModelI interface to be implemented by LlewellynSmith Algorithm for calculating the Axial Form Factor. More...

class	BardinIMDRadCorIntegrand
	Auxiliary scalar function for the internal integration in Bardin's IMD d2xsec/dxdy cross section algorithm. More...

class	BardinIMDRadCorPXSec
	Computes the Inverse Muon Decay (IMD) diff. cross section using the Bardin-Dokuchaeva including all 1-loop radiative corrections. . More...

class	BaryonResList
	Encapsulates a list of baryon resonances. More...

class	BaryonResonance
	An enumeration of Baryon Resonances more frequently used in resonance neutrino-nucleon/nucleus models. More...

class	BaryonResonanceDecayer
	Baryon resonance decayer module. More...

class	BBA03ELFormFactorsModel
	Concrete implementation of the ELFormFactorsModelI interface. Computes elastic form factors using the BBA2003 parameterization. More...

class	BBA05ELFormFactorsModel
	Concrete implementation of the ELFormFactorsModelI interface. Computes elastic form factors using the BBA2005 parameterization. More...

class	BBA07ELFormFactorsModel
	Computes elastic form factors using the BBA2007 parameterization. Concrete implementation of the ELFormFactorsModelI interface. More...

class	BergerSehgalCOHPiPXSec2015
	Computes the double differential cross section for CC & NC coherent pion production according to the Berger-Sehgal model. v(vbar)A->v(vbar)Api0, vA->l-Api+, vbarA->l+Api-. More...

class	BergerSehgalFMCOHPiPXSec2015
	Computes the triple differential cross section for CC & NC coherent pion production according to the Berger-Sehgal model. v(vbar)A->v(vbar)Api0, vA->l-Api+, vbarA->l+Api-. More...

class	BergerSehgalRESPXSec2014
	Computes the double differential cross section for resonance electro- or neutrino-production according to the Berger Sehgal model. More...

class	BertuzzoDNuCOHPXSec
	Differential cross section for v+As coherent elastic scattering.Coherent DNu. Is a concrete implementation of the XSecAlgorithmI interface. . More...

class	BLI2DGrid

class	BLI2DNonUnifGrid

class	BLI2DNonUnifObjectGrid
	A class template that performs bilinear interpolation on a non-uniform grid with an implementation similar to that of genie::BLI2DNonUnifGrid. More...

class	BLI2DUnifGrid
	Bilinear interpolation of 2D functions on a regular grid. More...

class	BostedChristyEMPXSec
	Fit to inelastic cross sections for A(e,e')X valid for all W<3 GeV and all Q2<10 GeV2. More...

class	BSKLNBaseRESPXSec2014
	Base class for the Berger-Sehgal and the Kuzmin, Lyubushkin, Naumov resonance models, implemented as modifications to the Rein-Sehgal model. More...

class	BYPDF
	Computes corrected PDFs according to the Bodek-Yang model. More...

class	BYStrucFunc
	Bodek Yang structure function model. More...

class	Cache
	GENIE Cache Memory. More...

class	CacheBranchFx
	A simple cache branch storing the cached data in a TNtuple. More...

class	CacheBranchI
	The TObject at the root of concrete cache branches. More...

class	CacheBranchNtp
	A simple cache branch storing the cached data in a TNtuple. More...

class	CascadeReweight
	In this module, the event weight is set depending on the FSI fate. The weights are set depending on the xml configuration defined by the user. More...

class	CEvNSEventGenerator
	Generates complete CEvNS events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	CEvNSInteractionListGenerator
	Concrete implementations of the InteractionListGeneratorI interface. Generates a list of all the Interaction (= event summary) objects that can be generated by the CEvNSEventGenerator. More...

class	CEvNSXSec
	Computes the cross section for coherent elastic scattering. Is a concrete implementation of the XSecIntegratorI interface. More...

class	CmdLnArgParser
	Command line argument parser. More...

class	COHDNuEventGenerator
	Generates complete COHDNu events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	COHDNuInteractionListGenerator
	Concrete implementations of the InteractionListGeneratorI interface. Generates a list of all the Interaction (= event summary) objects that can be generated by the COHDNu EventGenerator. More...

class	COHDNuXSec
	Computes the cross section for coherent dark neutrino scattering. Is a concrete implementation of the XSecIntegratorI interface. More...

class	COHHadronicSystemGenerator
	Generates the f/s hadronic system in v COH pi production interactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	COHInteractionListGenerator
	Concrete implementations of the InteractionListGeneratorI interface. Generates a list of all the Interaction (= event summary) objects that can be generated by the COH EventGenerator. More...

class	COHKinematicsGenerator
	Generates values for the kinematic variables describing coherent neutrino-nucleus pion production events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	COHPrimaryLeptonGenerator
	Generates the final state primary lepton in v COH NC interactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	COHXSec
	Computes the cross section for COH neutrino-nucleus pi production. Is a concrete implementation of the XSecIntegratorI interface. More...

class	COHXSecAR
	Computes the cross section for COH neutrino-nucleus pi production. Is a concrete implementation of the XSecIntegratorI interface. More...

class	CollinsSpillerFragm
	The Collins-Spiller fragmentation function. Is a concrete implementation of the FragmentationFunctionI interface. More...

class	DarkSectorDecayer
	Dark Sector decayer module. More...

class	Decayer
	Base class for decayer classes. Implements common configuration, allowing users to toggle on/off flags for particles and decay channels. Is a concerete implementation of the EventRecordVisitorI interface. More...

class	DFRHadronicSystemGenerator

class	DFRInteractionListGenerator
	Concrete implementations of the InteractionListGeneratorI interface. Generates a list of all the interactions that can be generated by the DFR EventGenerator. More...

class	DFRKinematicsGenerator
	Generates kinematics for diffractive reactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	DFRPrimaryLeptonGenerator
	Generates the final state primary lepton in diffractive reactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	DFRXSec
	Computes the cross section for DFR neutrino-nucleus pi production. Is a concrete implementation of the XSecIntegratorI interface. More...

class	DipoleAxialFormFactorModel
	Concrete implementation of the AxialFormFactorModelI interface. Computes the axial form factor using the dipole form factor approximation. More...

class	DipoleELFormFactorsModel
	Concrete implementation of the ELFormFactorsModelI interface. Computes dipole elastic form factors. More...

class	DISHadronicSystemGenerator
	Generates the final state hadronic system in v DIS interactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	DISInteractionListGenerator
	Concrete implementations of the InteractionListGeneratorI interface. Generate a list of all the Interaction (= event summary) objects that can be generated by the DIS EventGenerator. More...

class	DISKinematicsGenerator
	Generates values for the kinematic variables describing DIS v interaction events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	DISPrimaryLeptonGenerator
	Generates the final state primary lepton in v DIS interactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	DISStructureFunc
	A class holding Deep Inelastic Scattering (DIS) Form Factors (invariant structure funstions) More...

class	DISStructureFuncModelI
	Pure Abstract Base Class. Defines the DISStructureFuncModelI interface to be implemented by any algorithmic class computing DIS structure functions. More...

class	DISXSec
	Computes the DIS Cross Section. Is a concrete implementation of the XSecIntegratorI interface. . More...

class	DMBYStrucFunc

class	DMDISInteractionListGenerator
	Concrete implementations of the InteractionListGeneratorI interface. Generate a list of all the Interaction (= event summary) objects that can be generated by the DMDIS EventGenerator. More...

class	DMDISKinematicsGenerator
	Generates values for the kinematic variables describing DIS DM interaction events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	DMDISOutgoingDarkGenerator
	Generates the final state dark matter in DM DIS interactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	DMDISXSec
	Computes the DMDIS Cross Section. Is a concrete implementation of the XSecIntegratorI interface. . More...

class	DMEInteractionListGenerator
	Concrete implementations of the InteractionListGeneratorI interface. Generates a list of all the Interaction (= event summary) objects that can be generated by the DME EventGenerator. More...

class	DMEKinematicsGenerator
	Generates kinematics for neutrino-electron events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	DMElectronPXSec
	nu/nubar + e- scattering differential cross section The cross section algorithm handles: More...

class	DMElectronXSec
	nu/nubar + e- scattering cross section. Integrates the loaded differential cross section model. An analytical cross section model also exists, so you cal also use that if you do not apply any kinematical cuts. More...

class	DMELEventGenerator
	Generates values for the kinematic variables describing DMEL neutrino interaction events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	DMELInteractionListGenerator

class	DMELKinematicsGenerator
	Generates values for the kinematic variables describing DM elastic interaction events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	DMELOutgoingDarkGenerator
	Generates the final state primary lepton in v DMEL interactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	DMELXSec
	Computes the Elastic dark matter (DMEL) cross section. Is a concrete implementation of the XSecIntegratorI interface. . More...

class	DMEOutgoingDarkGenerator
	Generates the final state primary lepton in neutrino-electron events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	DMETargetRemnantGenerator
	Generates all the non-primary lepton final state particles in neutrino-electron events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	DMInteractionListGenerator
	Concrete implementations of the InteractionListGeneratorI interface. Generates a list of all the Interaction (= event summary) objects that can be generated by the DMEL EventGenerator. More...

class	DummyInteractionListGenerator

class	DummyPXSec

class	EffectiveSF
	An effective spectral function to match psi' superscaling. Implements the NuclearModelI interface. More...

struct	EKF_t

class	ELFormFactors
	A class holding the Elastic Form Factors Ge,Gm. More...

class	ELFormFactorsModelI
	Pure abstract base class. Defines the ELFormFactorsModelI interface to be implemented by any algorithmic class computing Elastic Form Factors. More...

class	EmpiricalMECPXSec2015
	Computes the MEC differential cross section. Is a concrete implementation of the XSecAlgorithmI interface. . More...

class	EngelFormFactor
	Form Factor for BertuzzoDNuCOHXSec... More...

struct	EPDF

class	EventGenerator
	Encapsulates a full ordered list of (is the aggregate of) concrete EventGeneratorI implementations that must act on the EventRecord to generate an event. Each of these implementations corresponds to a single processing step. More...

class	EventGeneratorI
	Defines the EventGeneratorI interface. More...

class	EventGeneratorList
	A vector of EventGeneratorI objects. More...

class	EventGeneratorListAssembler
	Assembles a list of all the EventGeneratorI subclasses that can be employed during a neutrino event generation job. More...

class	EventRecord
	Generated Event Record. It is a GHepRecord object that can accept / be visited by EventRecordVisitorI objects (event generation modules). All the other important container manipulation methods are defined at the base GHepRecord record. More...

class	EventRecordVisitorI
	Defines the EventRecordVisitorI interface. Concrete implementations of this interface use the 'Visitor' Design Pattern to perform an operation on an EventRecord. More...

class	FermiMomentumTable
	A table of Fermi momentum constants. More...

class	FermiMomentumTablePool
	Singleton class to load & serve tables of Fermi momentum constants. More...

class	FermiMover
	It visits the event record & computes a Fermi motion momentum for initial state nucleons bound in nuclei. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	FGMBodekRitchie
	The Bodek Richie Fermi Gass model. Implements the NuclearModelI interface. More...

class	FKR
	Simple struct-like class holding the Feynmann-Kislinger-Ravndall (FKR) baryon excitation model parameters. More...

class	FragmentationFunctionI
	Pure abstract base class. Defines the FragmentationFunctionI interface to be implemented by any algorithmic class implementing a fragmentation function. More...

class	FRHadronicSystemGenerator
	Generates the f/s hadronic system in diffractive interactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	GeomAnalyzerI
	Defines the GENIE Geometry Analyzer Interface. More...

class	GEVGDriver
	GENIE Event Generation Driver. A minimalist user interface object for generating neutrino interactions. Each such object is configured for a given initial state and it drives all relevant GENIE neutrino interaction physics simulation code for that state. To set-up MC jobs involving a multitude of possible initial states, including arbitrarily complex neutrino flux and detector geometry descriptions, see the GMCJDriver object. More...

class	GEvGenMode_t
	Enumeration of GENIE event generation modes. More...

class	GEVGPool
	A pool of GEVGDriver objects with an initial state key. More...

class	GFluxI
	GENIE Interface for user-defined flux classes. More...

class	GHepFlag
	An enumeration of event flags. Each represents a physical condition or a computational error. If any is set the event would be marked as unphysical. More...

class	GHepFlags

class	GHepParticle
	STDHEP-like event record entry that can fit a particle or a nucleus. More...

class	GHepRecord
	GENIE's GHEP MC event record. More...

class	GHepRecordHistory
	Holds the history of the GHEP event record as it being modified by the processing steps of an event generation thread. The event record history can be used to step back in the generation sequence if a processing step is to be re-run (this the GENIE event generation framework equivalent of an 'Undo') More...

class	GHepStatus
	GHepParticle Status. More...

class	GHepVirtualList
	A GHepVirtualList is a 'virtual' collection of GHepParticles. Is virtual because it does not own but only points to GHepParticles owned by the generated GHepRecord. Use it if in your event generation algorithm you need to define & use a GHepRecord subset (without duplicating the GHepParticle entries) All 'named' lists are managed by the GHepVirtualListFolder singleton and get cleared after the generation of each event is completed. More...

class	GHepVirtualListFolder
	A singleton class to manage all named GHepVirtualLists. More...

class	GiBUURESFormFactor
	Singleton to load and serve data tables provided by the GiBUU group. More...

class	GLRESGenerator
	Glashow resonance event generator. More...

class	GLRESInteractionListGenerator
	Generates a list of all the interactions that cab be generated by the GLRES EventGenerator. More...

class	GLRESKinematicsGenerator
	Generates values for the kinematic variables describing Glashow resonance. Is a concrete implementation of the EventRecordVisitorI interface. Part of its implementation, related with the caching and retrieval of previously computed values, is inherited from the KineGeneratorWithCache abstract class. More...

class	GLRESPXSec
	Nuebar cross section at the Glashow resonance (nuebar + e- -> W-). Is a concrete implementation of the XSecAlgorithmI interface. More...

class	GLRESXSec
	nubar + e- scattering glashow resonance. Integrates the loaded differential cross section model. An analytical cross section model also exists, so you cal also use that if you do not apply any kinematical cuts. More...

class	GMCJDriver
	A GENIE `MC Job Driver'. Can be used for setting up complicated event generation cases involving detailed flux descriptions and detector geometry descriptions. More...

class	GMCJMonitor
	Simple class to create & update MC job status files and env. vars. This is used to be able to keep track of an MC job status even when all output is suppressed or redirected to /dev/null. More...

class	GNuMcMainFrame
	GENIE Neutrino Masterclass app main frame. More...

class	GRV89LO
	GRV98LO parton density functions (pdf). Concrete implementation of the PDFModelI interface. More...

class	GRV98LO

class	GSimFiles

class	GVldContext
	Validity Context for an Event Generator. More...

class	H3AMNuGammaPXSec
	An anomaly-mediated neutrino-photon interaction cross section model Is a concrete implementation of the XSecAlgorithmI interface. More...

class	HadronicSystemGenerator
	Abstract class. Is used to pass some commonly recurring methods to all concrete implementations of the EventRecordVisitorI interface generating the hadronic system for a specific processes (QEL,DIS, RES,...) More...

class	HadronTensorI
	Abstract interface for an object that computes the elements a hadron tensor $W^{\mu\nu}$ . Also computes the contraction of the hadron tensor with the lepton tensor $L_{\mu\nu}W^{\mu\nu}$ for one or more kinds of projectile (e.g., neutrinos, electrons) More...

class	HadronTensorModelI
	Creates hadron tensor objects for use in cross section calculations. More...

class	HadronTransporter
	Intranuclear hadronic transport module. It is being used to transfer all hadrons outside the nucleus without rescattering -if rescattering is switched off- or to call one of the supported hadron transport MCs -if rescattering is switched on-. More...

class	HAIntranuke

class	HAIntranuke2018

class	HEDISGenerator
	Generates the final state leptonic and hadronic system in v HEDIS interactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	HEDISInteractionListGenerator
	Concrete implementations of the InteractionListGeneratorI interface. Generate a list of all the Interaction (= event summary) objects that can be generated by the HEDIS EventGenerator. More...

class	HEDISKinematicsGenerator
	Generates values for the kinematic variables describing HEDIS v interaction events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	HEDISPXSec
	Computes the double differential Cross Section for HEDIS. Is a concrete implementation of the XSecAlgorithmI interface. More...

class	HEDISStrcuFunc
	Singleton class to load Structure Functions used in HEDIS. More...

class	HEDISStrucFunc

class	HEDISXSec
	Computes the HEDIS Cross Section. Is a concrete implementation of the XSecIntegratorI interface. . More...

class	HNIntranuke2018

class	HybridXSecAlgorithm
	Defines an XSecAlgorithmI that delegates the actual calculation to one or more sub-algorithms (each of which is itself an XSecAlgorithmI) based on the input interaction. The choice of sub-algorithms is configurable via XML. More...

class	IBDHadronicSystemGenerator
	Generates the final state hadronic system in v IBD interactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	IBDInteractionListGenerator
	Generates a list of all the interactions that can be generated by the VLE SV QEL Nu-Nucleon generator. More...

class	IBDKinematicsGenerator
	Generates values for the kinematic variables describing IBD neutrino interaction events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	IBDPrimaryLeptonGenerator
	Generates the final state primary lepton in v IBD interactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	IBDXSecMap
	Maps specific nuclei to appropriate cross section models. More...

class	IMDAnnihilationPXSec
	nuebar + e- -> mu- + numubar [CC] scattering differential cross section More...

class	IMDXSec
	Computes the Inverse Muon Decay cross section. More...

class	InitialState
	Initial State information. More...

class	InitialStateAppender
	Appends the initial state information to the event record. Is a concerete implementation of the EventRecordVisitorI interface. More...

class	Interaction
	Summary information for an interaction. More...

class	InteractionGeneratorMap
	An Interaction -> EventGeneratorI associative container. The container is being built for the loaded EventGeneratorList and for the input InitialState object and is being used to locate the generator that can generate aany given interaction. More...

class	InteractionList
	A vector of Interaction objects. More...

class	InteractionListAssembler
	Assembles a list of all interactions that can be generated during a neutrino event generation job by querying each EventGeneratorI subclass employed in that job for its interaction list. More...

class	InteractionListGeneratorI
	Defines the InteractionListGeneratorI interface. Concrete implementations of this interface generate a list of all Interaction (= event summary) objects that can be generated by EventGeneratorI subclasses. More...

class	InteractionSelectorI
	Defines the InteractionSelectorI interface to be implemented by algorithms selecting interactions to be generated. More...

class	InteractionType
	Enumeration of interaction types: e/m, weak cc, weak nc. More...

class	Interpolator2D
	A 2D interpolator using the GSL spline type If GSL version is not sufficient, does an inefficient version using TGraph2D. More...

class	Intranuke
	The INTRANUKE intranuclear hadron transport MC. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	Intranuke2018

class	IntranukeMode
	An enumeration of intranuke modes. More...

class	INukeDeltaPropg

class	INukeHadroData
	Singleton class to load & serve hadron x-section splines used by GENIE's version of the INTRANUKE cascade MC. More...

class	INukeHadroData2018

class	INukeHadroFates
	An enumeration of possible hadron "fates" taken into account by the INTRANUKE hadron transport MC. More...

class	INukeMode

class	KineGeneratorWithCache
	Abstract class. Provides a data caching mechanism for for concrete implementations of the EventRecordVisitorI interface, generating kinematics and wishing to cache maximum differential xsecs. More...

class	Kinematics
	Generated/set kinematical variables for an event. More...

class	KinePhaseSpace
	Enumeration of kinematical phase spaces. More...

class	KineVar
	Enumeration of kinematic variables. More...

class	KLVOxygenIBDPXSec
	An implementation of the neutrino - Oxygen16 cross section. More...

class	KNOTunedQPMDISPXSec
	Computes DIS differential cross sections. Is a concrete implementation of the XSecAlgorithmI interface. More...

class	KovalenkoQELCharmPXSec
	Computes the QEL Charm Production Differential Cross Section using Kovalenko's duality model approach. It models the differential cross sections for: . More...

class	KPhaseSpace
	Kinematical phase space. More...

class	KuzminLyubushkinNaumovRESPXSec2014
	Computes the double differential cross section for resonance electro- or neutrino-production according to the Berger Sehgal model. More...

class	KuzminNaumov2016AxialFormFactorModel
	Concrete implementation of the AxialFormFactorModelI interface. Computes the axial form factor using a running MA. More...

class	LabFrameHadronTensorI
	Abstract interface for an object that computes the elements ( $W^{xx}$ , $W^{0z}$ , etc.) and structure functions ( , , etc.) of the hadron tensor $W^{\mu\nu}$ defined according to the conventions of the Valencia model. More...

class	LeptoHadronization
	Provides access to the LEPTO hadronization models. . More...

class	LHAPDF5
	LHAPDF5 library interface. Concrete implementation of the PDFModelI interface. More...

class	LHAPDF6
	LHAPDF6 library interface. Concrete implementation of the PDFModelI interface. More...

class	LocalFGM
	local Fermi gas model. Implements the NuclearModelI interface. More...

class	LwlynSmithFF
	Abstract Base Class: implements the QELFormFactorsModelI interface but can not be instantiated. More...

class	LwlynSmithFFCC
	Is a concrete implementation of the QELFormFactorsModelI: Form Factors for Quasi Elastic CC vN scattering according to Llewellyn-Smith model. More...

class	LwlynSmithFFDeltaS

class	LwlynSmithFFNC
	Concrete implementation of the QELFormFactorsModelI : Form Factors for Quasi Elastic NC vN scattering according to Llewellyn-Smith model. More...

class	LwlynSmithQELCCPXSec
	Computes neutrino-nucleon(nucleus) QELCC differential cross section Is a concrete implementation of the XSecAlgorithmI interface. . More...

class	MartiniEricsonChanfrayMarteauMECPXSec2016
	Computes the Martini, Ericson, Chanfray and Marteau MEC model differential cross section. Uses precomputed hadon tensor tables. Is a concrete implementation of the XSecAlgorithmI interface. More...

class	MECGenerator
	Simulate the primary MEC interaction. More...

class	MECInteractionListGenerator
	Concrete implementations of the InteractionListGeneratorI interface. Generates a list of all the interactions that can be generated by the MEC EventGenerator. More...

class	MECScaleVsW
	This class is responsible to compute the MEC scaling factor given Q0, Q3. The scaling is done as a function of the hadronic invariant mass. More...

class	MECXSec
	A numerical cross-section integrator (GENIE/GSL interface) for the J. Nieves, I. Ruiz Simo, M.J. Vicente Vacas and Martini MEC models. Is a concrete implementation of the XSecIntegratorI interface. More...

class	Messenger
	A more convenient interface to the log4cpp Message Service. More...

class	MuELossI
	Cross Section Calculation Interface. More...

class	NaturalIsotopeElementData

class	NaturalIsotopes
	Singleton class to load & serve tables of natural occurring isotopes. More...

class	NeutronOscPrimaryVtxGenerator
	Utilities for simulating neutron oscillation. More...

class	NewQELXSec
	Computes the Quasi Elastic (QEL) total cross section. Is a concrete implementation of the XSecIntegratorI interface. . More...

class	NHLDecayMode
	Enumeration of NHL decay modes. More...

class	NHLPrimaryVtxGenerator
	Neutral Heavy Lepton primary vertex generator. More...

class	NievesMECHadronTensorModel
	Creates hadron tensor objects for calculations of MEC cross sections using the Valencia model. More...

class	NievesQELCCPXSec
	Computes neutrino-nucleon(nucleus) QELCC differential cross section with RPA corrections Is a concrete implementation of the XSecAlgorithmI interface. . More...

class	NievesSimoVacasMECPXSec2016
	Computes the Valencia MEC model differential cross section. Uses precomputed hadon tensor tables. Is a concrete implementation of the XSecAlgorithmI interface. More...

class	NNBarOscDummyInteractionListGenerator

class	NNBarOscDummyPXSec

class	NNBarOscMode
	Enumeration of neutron oscillation annihilation modes. More...

class	NNBarOscPrimaryVtxGenerator

class	NOscDummyInteractionListGenerator

class	NtpMCDTime
	MINOS-style Ntuple Class to hold the date and time that the event ntuple was generated. More...

class	NtpMCEventRecord
	MINOS-style ntuple record. Each such ntuple record holds a generated EventRecord object. Ntuples of this type are intended for feeding GENIE events into other applications (for example the GEANT4 based MC generation framework of an experiment) if no direct interface exists. More...

class	NtpMCFormat
	Encapsulates an enumeration of possible GENIE output TTree formats. More...

class	NtpMCJobConfig
	Stores the GENIE configuration in ROOT TFolders along with the output event tree. More...

class	NtpMCJobEnv
	Stores a snapshot of your environment in ROOT TFolder along with the output event tree. More...

class	NtpMCRecHeader
	MINOS-style Ntuple Class to hold an MC Event Record Header. More...

class	NtpMCRecordI
	MINOS-style base class for ntuple records. More...

class	NtpMCTreeHeader
	MINOS-style Ntuple Class to hold an output MC Tree Header. More...

class	NtpWriter
	A utility class to facilitate creating the GENIE MC Ntuple from the output GENIE GHEP event records. More...

class	NucBindEnergyAggregator
	A nuclear binding energy 'collector' which visits the event record, finds nucleons originating from within a nuclei and subtracts the binding energy they had in the nucleus. To record this action in the event record a hypothetical BINDINO is added to the event record. Is a concerete implementation of the EventRecordVisitorI interface. More...

class	NucDeExcitationSim
	Generates nuclear de-excitation gamma rays. More...

class	NuclearData

class	NuclearModel
	Encapsulates an enumeration of nuclear model types. More...

class	NuclearModelI
	Pure abstract base class. Defines the NuclearModelI interface to be implemented by any physics model describing the distribution of nucleons within a nuclei. More...

class	NuclearModelMap
	This class is a hook for nuclear models and allows associating each one of them with specific nuclei. Is a concrete implementation of the NuclearModelI interface. More...

class	NucleonDecayMode
	Enumeration of nucleon decay modes. More...

class	NucleonDecayPrimaryVtxGenerator
	Utilities for simulating nucleon decay. More...

class	NuEInteractionListGenerator
	Concrete implementations of the InteractionListGeneratorI interface. Generates a list of all the Interaction (= event summary) objects that can be generated by the NUE EventGenerator. More...

class	NuEKinematicsGenerator
	Generates kinematics for neutrino-electron events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	NuElectronPXSec
	nu/nubar + e- scattering differential cross section The cross section algorithm handles: More...

class	NuElectronXSec
	nu/nubar + e- scattering cross section. Integrates the loaded differential cross section model. An analytical cross section model also exists, so you cal also use that if you do not apply any kinematical cuts. More...

class	NuEPrimaryLeptonGenerator
	Generates the final state primary lepton in neutrino-electron events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	NuETargetRemnantGenerator
	Generates all the non-primary lepton final state particles in neutrino-electron events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	OutgoingDarkGenerator
	Abstract class. Is used to pass common implementation to concrete implementations of the EventRecordVisitorI interface generating the primary lepton for a specific processes (QEL,DIS,RES,IMD,...) More...

class	P33PaschosLalakulichPXSec
	Double differential resonance cross section for P33 according to the Paschos, Lalakulich model. More...

class	PaisQELLambdaPXSec
	Implementation of the quasi-elastic scattering formula for production of particles with different masses than the target. More...

class	PathLengthList
	Object to be filled with the neutrino path-length, for all detector geometry materials, when starting from a position x and travelling along the direction of the neutrino 4-momentum. More...

class	PattonCEvNSPXSec
	Differential cross section for v+As coherent elastic scattering. Is a concrete implementation of the XSecAlgorithmI interface. More...

class	PauliBlocker
	Examines whether the generated event should be Pauli blocked. Is a concerete implementation of the EventRecordVisitorI interface. More...

class	PDF
	A class to store PDFs. More...

struct	PDF_t
	A struct to hold PDF set data. More...

class	PDFModelI
	Pure abstract base class. Defines the PDFModelI interface to be implemented by wrapper classes to existing Parton Density Function libraries (PDFLIB, LHAPDF), or by built-in implementations. More...

class	PDGCodeList
	A list of PDG codes. More...

class	PDGLibrary
	Singleton class to load & serve a TDatabasePDG. More...

class	PetersonFragm
	The Peterson fragmentation function. Is a concrete implementation of the FragmentationFunctionI interface. More...

class	PhysInteractionSelector
	Selects interactions to be generated. More...

class	PrimaryLeptonGenerator
	Abstract class. Is used to pass common implementation to concrete implementations of the EventRecordVisitorI interface generating the primary lepton for a specific processes (QEL,DIS,RES,IMD,...) More...

class	ProcessInfo
	A class encapsulating an enumeration of interaction types (EM, Weak-CC, Weak-NC) and scattering types (Elastic, Quasi Elastic, Deep Inelastic, Resonant Single Pion Production, Coherent Pion Production). More...

class	Pythia6Hadro2019
	Provides access to the PYTHIA hadronization models. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	Pythia8Hadro2019
	Provides access to the PYTHIA hadronization models. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	PythiaBaseHadro2019
	Base class for the Pythia (6 and 8) hadronization modules in GENIE. In particular, the base class provides common checks and basic assignments of quark/diquark codes for a no frills interface to Pythia hadronization routines. More...

class	PythiaDecayer
	Interface to PYTHIA particle decayer. The PythiaDecayer is a concrete implementation of the Decayer interface. More...

class	QELEventGenerator
	Generates values for the kinematic variables describing QEL neutrino interaction events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	QELEventGeneratorSM
	Generates values for the kinematic variables describing QEL neutrino interaction events for Smith-Moniz model. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	QELEventGeneratorSuSA
	Event generator for SuSAv2 1p1h interactions. More...

class	QELFormFactors
	A class holding Quasi Elastic (QEL) Form Factors. More...

class	QELFormFactorsModelI
	Pure abstract base class. Defines the QELFormFactorsModelI interface to be implemented by any algorithmic class computing Quasi-Elastic Form Factors. More...

class	QELHadronicSystemGenerator
	Generates the final state hadronic system in v QEL interactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	QELInteractionListGenerator
	Concrete implementations of the InteractionListGeneratorI interface. Generates a list of all the Interaction (= event summary) objects that can be generated by the QEL EventGenerator. More...

class	QELKinematicsGenerator
	Generates values for the kinematic variables describing QEL neutrino interaction events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	QELPrimaryLeptonGenerator
	Generates the final state primary lepton in v QEL interactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	QELXSec
	Computes the Quasi Elastic (QEL) cross section. Is a concrete implementation of the XSecIntegratorI interface. . More...

class	QPMDISPXSec
	Computes DIS differential cross sections. Is a concrete implementation of the XSecAlgorithmI interface. More...

class	QPMDISStrucFunc
	Standard Quark Parton Model (QPM) Deep Inelastic Scatering (DIS) Structure Functions (SF) More...

class	QPMDISStrucFuncBase
	Abstract base class. Provides common implementation for concrete objects implementing the DISStructureFuncModelI interface. More...

class	QPMDMDISPXSec
	Computes DMDIS differential cross sections. Is a concrete implementation of the XSecAlgorithmI interface. More...

class	QPMDMDISStrucFuncBase
	Abstract base class. Provides common implementation for concrete objects implementing the DISStructureFuncModelI interface. More...

class	QvalueShfiter
	This class is responsible to compute a relative shift to a Qvalue. More...

class	QvalueShifter

class	RandomGen
	A singleton holding random number generator classes. All random number generation in GENIE should take place through this class. Ensures that the random number generator seed is set consistently to all GENIE modules and that all modules use the preferred rndm number generator. More...

class	Range1D_t
	A simple [min,max] interval for doubles. More...

class	Range1F_t
	A simple [min,max] interval for floats. More...

class	Range1I_t
	A simple [min,max] interval for integers. More...

class	RefFrame
	An enumeration of reference frames. More...

class	Registry
	A registry. Provides the container for algorithm configuration parameters. More...

class	RegistryItem
	A templated concrete implementation of the RegistryItemI interface. Provides an arbitrary basic type (bool, int, double, string) value for RegistryI-type containers. More...

class	RegistryItemI
	Registry item pABC. More...

class	RegistryItemTypeDef
	Definition of Registry item types. More...

class	RegistryItemTypeId
	An enumeration of Registry item types. More...

class	ReinDFRPXSec
	Neutrino diffractive pion production cross section. More...

class	ReinSehgalCOHPiPXSec
	Computes the double differential cross section for CC & NC coherent pion production according to the Rein-Sehgal model. v(vbar)A->v(vbar)Api0, vA->l-Api+, vbarA->l+Api-. More...

class	ReinSehgalRESPXSec
	Computes the double differential cross section for resonance electro- or neutrino-production according to the Rein-Sehgal model. More...

class	ReinSehgalRESXSec
	Computes the cross section for an exclusive 1pi reaction through resonance neutrinoproduction according to the Rein-Sehgal model. More...

class	ReinSehgalRESXSecFast
	Computes the cross section for an exclusive 1pi reaction through resonance neutrinoproduction according to the Rein-Sehgal model. More...

class	ReinSehgalRESXSecWithCache
	An ABC that caches resonance neutrinoproduction cross sections on free nucleons according to the Rein-Sehgal model. This significantly speeds the cross section calculation for multiple nuclear targets (eg at the spline construction phase) More...

class	ReinSehgalRESXSecWithCacheFast
	Class that caches resonance neutrinoproduction cross sections on free nucleons according to the Rein-Sehgal model. This significantly speeds the cross section calculation for multiple nuclear targets (eg at the spline construction phase). This class integrates cross sections faster, than ReinSehgalRESXSecWithCache because of integration area transformation. More...

class	ReinSehgalSPPPXSec
	Computes the differential cross section for an exclusive 1-pion reaction through resonance neutrinoproduction according to the Rein-Sehgal model. More...

class	ReinSehgalSPPXSec
	Computes the cross section for an exclusive 1pi reaction through resonance neutrinoproduction according to the Rein-Sehgal model. More...

class	RESHadronicSystemGenerator
	Generates the 'final state' hadronic system in v RES interactions. It adds the remnant nucleus (if any), the pre-selected resonance and the resonance decay products at the GHEP record. Unlike the SPP thread, in the RES thread the resonance is specified at the time an interaction is selected but its decay products not (semi-inclusive resonance reactions). The off the mass-shell baryon resonance is decayed using a phase space generator. All kinematically available decay channels are being used (not just 1 pi channels). Is a concrete implementation of the EventRecordVisitorI interface. More...

class	RESInteractionListGenerator
	Creates a list of all the interactions that can be generated by the RES thread (generates semi-inclusive resonance reactions). Concrete implementations of the InteractionListGeneratorI interface. More...

class	RESKinematicsGenerator
	Generates resonance event (v+N->l+Resonance) kinematics. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	RESPrimaryLeptonGenerator
	Generates the final state primary lepton in v RES interactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	RESXSec
	Computes the RES Cross Section. Is a concrete implementation of the XSecIntegratorI interface. . More...

class	RgType

class	RosenbluthPXSec
	Differential cross section for charged lepton elastic scattering. Is a concrete implementation of the XSecAlgorithmI interface. . More...

class	RSHelicityAmpl
	A class holding the Rein-Sehgal's helicity amplitudes. More...

class	RSHelicityAmplModelCC
	The Helicity Amplitudes, for all baryon resonances, for CC neutrino interactions on free nucleons, as computed in the Rein-Sehgal's paper. More...

class	RSHelicityAmplModelEMn
	The Helicity Amplitudes, for all baryon resonances, for Electro- Magnetic (EM) interactions on free neutrons, as computed in the Rein-Sehgal's paper. More...

class	RSHelicityAmplModelEMp
	The Helicity Amplitudes, for all baryon resonances, for Electro- Magnetic (EM) interactions on free protons, as computed in the Rein-Sehgal's paper. More...

class	RSHelicityAmplModelI
	Pure abstract base class. Defines the RSHelicityAmplModelI interface. More...

class	RSHelicityAmplModelNCn
	The Helicity Amplitudes, for all baryon resonances, for NC neutrino interactions on free neutrons, as computed in the Rein-Sehgal's paper. More...

class	RSHelicityAmplModelNCp
	The Helicity Amplitudes, for all baryon resonances, for NC neutrino interactions on free protons, as computed in the Rein-Sehgal's paper. More...

class	RSPPHadronicSystemGenerator
	Generates the 'final state' hadronic system in v SPP interactions. It adds the remnant nucleus (if any) and the baryon resonance decay products at the GHEP record. The resonance decay products are pre- determined since in this thread we generate exclusive SPP reactions. The module uses a simple phase space decay. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	RSPPInteractionListGenerator
	Creates a list of all the interactions that can be generated by the SPP thread (generates exclusive inelastic 1 pion reactions proceeding through resonance neutrinoproduction). Concrete implementations of the InteractionListGeneratorI interface. More...

class	RSPPResonanceSelector
	Generates an intermediate baryon resonance for exclusive interactions proceeding through resonance productions and adds it to the event record. The resonance is selected based on its contribution to the selected exclusive reaction cross section. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	RunningThreadInfo
	Keep info on the event generation thread currently on charge. This is used so that event generation modules invoked by the thread can see the "bigger picture" and access the cross section model for the thread, look-up info for modules that run before or are scheduled to run after etc. More...

class	RunOpt
	Some common run-time GENIE options. More...

struct	SBBA2003Fit

struct	SBBA2005Fit

struct	SBBA2007Fit

class	ScatteringType
	Enumeration of scattering types. More...

class	SecondNucleonEmissionI
	Interface to drive the a second nucleon emission from a nucleus Specfic impelmentations will have different physics. More...

struct	SF_info

struct	SF_xQ2

class	SKHadronicSystemGenerator
	Generates the f/s hadronic system in single-Kaon production interactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	SKInteractionListGenerator
	Concrete implementations of the InteractionListGeneratorI interface. Creates a list of all the interactions that can be generated by the single-Kaon generator. More...

class	SKKinematicsGenerator
	Generates values for the kinematic variables describing neutrino-nucleus single kaon production events. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	SKPrimaryLeptonGenerator
	Generates the final state primary lepton in single-Kaon interactions. Is a concrete implementation of the EventRecordVisitorI interface. More...

class	SlowRsclCharmDISPXSecLO
	Computes, at Leading Order (LO), the differential cross section for neutrino charm production using a slow rescaling model. Is a concrete implementation of the XSecAlgorithmI interface. More...

class	SmithMonizQELCCPXSec
	Computes neutrino-nucleon(nucleus) QELCC differential cross section. Is a concrete implementation of the XSecAlgorithmI interface. More...

class	SmithMonizQELCCXSec
	Computes the Quasi Elastic (QEL) cross section by Smith Moniz model. Is a concrete implementation of the XSecIntegratorI interface. . More...

class	SmithMonizUtils
	Contains auxiliary functions for Smith-Moniz model. . More...

class	SpectralFunc
	A realistic spectral function - based nuclear model. Is a concrete implementation of the NuclearModelI interface. More...

class	SpectralFunc1d
	Simpler approach to using spectral functions. A beta version. Implements the NuclearModelI interface. More...

class	SpectralFunction2p2h
	Speficif implementation of SecondNucleonEmissionI to emit the second nulceon coming from a 2p2h pair When GENIE is operating in with EffectiveSF. More...

class	Spline
	A numeric analysis tool class for interpolating 1-D functions. More...

class	SppChannel
	Enumeration of single pion production channels. More...

class	SRCNuclearRecoil
	Created this new module that controls the addition of the recoil nucleon in the event record and extracts its kinematics. More...

class	StrumiaVissaniIBDPXSec
	An implementation of the neutrino - (free) nucleon [inverse beta decay] cross section, valid from the threshold energy (1.806MeV) up to hundreds of MeV. Currently cut off at 1/2 nucleon mass. Based on the Strumia/Vissani paper Phys.Lett.B564:42-54,2003. More...

class	SuSAv2MECHadronTensorModel
	Creates hadron tensor objects for calculations of MEC cross sections using the SuSAv2 approach. More...

class	SuSAv2MECPXSec
	Computes the SuSAv2-MEC model differential cross section. Uses precomputed hadron tensor tables. Is a concrete implementation of the XSecAlgorithmI interface. More...

class	SuSAv2QELHadronTensorModel
	Creates hadron tensor objects for calculations of quasielastic cross sections using the SuSAv2 approach. More...

class	SuSAv2QELPXSec
	Computes the SuSAv2-QE model differential cross section. Uses precomputed hadron tensor tables. Is a concrete implementation of the XSecAlgorithmI interface. More...

class	TabulatedHadronTensorModelI
	Creates hadron tensor objects for cross section calculations using precomputed data tables. More...

class	TabulatedLabFrameHadronTensor
	Computes the elements and structure functions of the hadron tensor $W^{\mu\nu}$ (using the conventions of the Valencia model) using precomputed tables. Is a concrete implementation of the HadronTensorI interface. More...

class	Target
	A Neutrino Interaction Target. Is a transparent encapsulation of quite different physical systems such as a nuclear target, a 'spectator' nuclear target with a Hit nucleon, a free nucleon or a free particle (eg a e- target in the inverse muon decay reaction) More...

class	ToyInteractionSelector
	Generates random interactions. More...

class	TransverseEnhancementFFModel
	Modification of magnetic form factors to match observed enhancement in transverse cross section of the quasi-elastic peak. Implements ElFormFactorsModelI. Requires another subclass of ElFormFactorsModelI to calculate original form factors, which are then enhances. More...

class	TuneId
	GENIE tune ID. More...

class	UnstableParticleDecayer
	A hook for concrete particle decayers in the chain of event processing modules. More...

class	VertexGenerator

class	XclsTag
	Contains minimal information for tagging exclusive processes. More...

class	XmlParserStatus
	Encapsulates an XML document parsing status. More...

class	XSecAlgorithmI
	Cross Section Calculation Interface. More...

class	XSecAlgorithmMap
	An Interaction -> XSecAlgorithmI associative container. The container is being built for the loaded EventGeneratorList and for the input InitialState object. More...

class	XSecIntegratorI
	Cross Section Integrator Interface. More...

class	XSecLinearCombinations
	Computes the xsec as a linear combination of different XSecSlgorithmI See GENIE docdb 252. More...

class	XSecScaleI
	This class is responsible to compute a scaling factor for the XSec. More...

class	XSecScaleMap
	This class is responsible to compute a scaling factor for the XSec. More...

class	XSecSplineList
	List of cross section vs energy splines. More...

class	ZExpAxialFormFactorModel
	Concrete implementation of the AxialFormFactorModelI interface. Computes the axial form factor using the model-independent z-expansion technique. More...

Typedefs
typedef enum genie::EAlgCmp	AlgCmp_t

typedef map< string, Algorithm * >	AlgMap

typedef map< string, Algorithm * >::iterator	AlgMapIter

typedef map< string, Algorithm * >::const_iterator	AlgMapConstIter

typedef pair< string, Algorithm * >	AlgMapPair

typedef enum genie::EAlgStatus	AlgStatus_t

typedef enum genie::EGEvGenMode	GEvGenMode_t

typedef enum genie::EKinePhaseSpace	KinePhaseSpace_t

typedef enum genie::EKineVar	KineVar_t

typedef enum genie::ERefFrame	RefFrame_t

typedef enum genie::EXmlParseStatus	XmlParserStatus_t

typedef enum genie::EGHepFlag	GHepFlag_t

typedef enum genie::EGHepStatus	GHepStatus_t

typedef enum genie::EInteractionType	InteractionType_t

typedef enum genie::EScatteringType	ScatteringType_t

typedef enum genie::ESppChannel	SppChannel_t

typedef enum genie::ENtpMCFormat	NtpMCFormat_t

typedef enum genie::EResonance	Resonance_t

typedef map< RgKey, RegistryItemI * >	RgIMap

typedef pair< RgKey, RegistryItemI * >	RgIMapPair

typedef map< RgKey, RegistryItemI * >::size_type	RgIMapSizeType

typedef map< RgKey, RegistryItemI * >::iterator	RgIMapIter

typedef map< RgKey, RegistryItemI * >::const_iterator	RgIMapConstIter

typedef vector< RgKey >	RgKeyList

typedef enum genie::ERgType	RgType_t

typedef enum genie::EDMELEvGenBindingMode	DMELEvGen_BindingMode_t

typedef enum genie::HadronTensorType	HadronTensorType_t

typedef enum genie::EINukeFateHN_t	INukeFateHN_t

typedef enum genie::EINukeFateHA_t	INukeFateHA_t

typedef enum genie::EINukeMode	INukeMode_t

typedef enum genie::ENHLDecayMode	NHLDecayMode_t

typedef enum genie::ENNBarOscMode	NNBarOscMode_t

typedef struct genie::EKF_t	KF_t

typedef enum genie::ENuclearModel	NuclearModel_t

typedef enum genie::EFermiMoverInteractionType	FermiMoverInteractionType_t

typedef enum genie::ENucleonDecayMode	NucleonDecayMode_t

typedef struct genie::EPDF	PDF_t

typedef struct genie::SBBA2003Fit	BBA2003Fit_t

typedef struct genie::SBBA2005Fit	BBA2005Fit_t

typedef struct genie::SBBA2007Fit	BBA2007Fit_t

typedef enum genie::EQELRmax	Nieves_Coulomb_Rmax_t

typedef enum genie::EQELEvGenBindingMode	QELEvGen_BindingMode_t

Enumerations
enum	EAlgCmp { kAlgCmpUnknown = -1, kAlgCmpIdentical, kAlgCmpDiffConfig, kAlgCmpDiffAlg }

enum	EAlgStatus { kAlgUndefinedStatus = -1, kAlgFail, kAlgSuccess }

enum	EGEvGenMode { kGMdUnknown = 0, kGMdLeptonNucleus, kGMdHadronNucleus, kGMdPhotonNucleus, kGMdDarkMatterNucleus, kGMdNucleonDecay, kGMdNeutronOsc, kGMdNeutralHeavyLepton }

enum	EKinePhaseSpace { kPSNull = 0, kPSfE, kPSxfE, kPSlogxfE, kPSxfEy, kPSlogxfEy, kPSyfE, kPSlogyfE, kPSyfEx, kPSlogyfEx, kPSxyfE, kPSlogxlogyfE, kPSxQ2fE, kPSQ2fE, kPSQD2fE, kPSlogQ2fE, kPSQ2fEW, kPSlogQ2fEW, kPSq2fE, kPSq2fEW, kPSWfE, kPSWfEQ2, kPSWfEq2, kPSWQ2fE, kPSWQD2fE, kPSW2Q2fE, kPSWlogQ2fE, kPSW2logQ2fE, kPSWq2fE, kPSW2q2fE, kPSxytfE, kPSQ2yfE, kPSlogQ2logyfE, kPSTlctl, kPSElOlOpifE, kPSElOlTpifE, kPSTkTlctl, kPSQ2vfE, kPSQELEvGen, kPSTAfE, kPSEgTlOgfE, kPSDMELEvGen, kPSlog10xlog10Q2fE, kPSEDNufE }

enum	EKineVar { kKVNull = 0, kKVx, kKVy, kKVQ2, kKVq2, kKVW, kKVt, kKVTk, kKVTl, kKVctl, kKVphikq, kKVSelx, kKVSely, kKVSelQ2, kKVSelq2, kKVSelW, kKVSelt, kKVSelTk, kKVSelTl, kKVSelctl, kKVSelphikq, kKVSelRad, kKVPn, kKVv, kKVSelPn, kKVSelv, kKVQ0, kKVQ3, kKVSelQ0, kKVSelQ3, kNumOfKineVar }

enum	ERefFrame { kRfUndefined = 0, kRfLab, kRfCM, kRfHCM, kRfTgtRest, kRfHitNucRest, kRfHitElRest }

enum	EXmlParseStatus { kXmlUndefined = -1, kXmlOK = 0, kXmlNotParsed = 1, kXmlEmpty = 2, kXmlInvalidRoot = 3 }

enum	EGHepFlag { kGenericErr = 0, kPauliBlock = 1, kBelowThrNRF = 2, kBelowThrERF = 3, kKineGenErr = 4, kHadroSysGenErr = 5, kLeptoGenErr = 6, kDecayErr = 7 }

enum	EGHepStatus { kIStUndefined = -1, kIStInitialState = 0, kIStStableFinalState = 1, kIStIntermediateState = 2, kIStDecayedState = 3, kIStCorrelatedNucleon = 10, kIStNucleonTarget = 11, kIStDISPreFragmHadronicState = 12, kIStPreDecayResonantState = 13, kIStHadronInTheNucleus = 14, kIStFinalStateNuclearRemnant = 15, kIStNucleonClusterTarget = 16 }

enum	EInteractionType { kIntNull = 0, kIntEM, kIntWeakCC, kIntWeakNC, kIntWeakMix, kIntDarkMatter, kIntNDecay, kIntNOsc, kIntNHL, kIntDarkNC }

enum	EScatteringType { kScUnknown = -100, kScNull = 0, kScQuasiElastic, kScSingleKaon, kScDeepInelastic, kScResonant, kScCoherentProduction, kScDiffractive, kScNuElectronElastic, kScInverseMuDecay, kScAMNuGamma, kScMEC, kScCoherentElastic, kScInverseBetaDecay, kScGlashowResonance, kScIMDAnnihilation, kScDarkMatterElastic = 101, kScDarkMatterDeepInelastic, kScDarkMatterElectron }

enum	ESppChannel { kSppNull = 0, kSpp_vp_cc_10100, kSpp_vn_cc_10010, kSpp_vn_cc_01100, kSpp_vp_nc_10010, kSpp_vp_nc_01100, kSpp_vn_nc_01010, kSpp_vn_nc_10001, kSpp_vbn_cc_01001, kSpp_vbp_cc_01010, kSpp_vbp_cc_10001, kSpp_vbp_nc_10010, kSpp_vbp_nc_01100, kSpp_vbn_nc_01010, kSpp_vbn_nc_10001 }

enum	ENtpMCFormat { kNFUndefined = -1, kNFGHEP }

enum	EResonance { kNoResonance = -1, kP33_1232 = 0, kS11_1535 = 1, kD13_1520 = 2, kS11_1650 = 3, kD13_1700 = 4, kD15_1675 = 5, kS31_1620 = 6, kD33_1700 = 7, kP11_1440 = 8, kP33_1600 = 9, kP13_1720 = 10, kF15_1680 = 11, kP31_1910 = 12, kP33_1920 = 13, kF35_1905 = 14, kF37_1950 = 15, kP11_1710 = 16, kF17_1970 = 17 }

enum	ERgType { kRgUndefined = 0, kRgBool, kRgInt, kRgDbl, kRgStr, kRgAlg, kRgH1F, kRgH2F, kRgTree }

enum	EDMELEvGenBindingMode { kUseNuclearModel, kUseGroundStateRemnant, kOnShell }

enum	HadronTensorType { kHT_Undefined = -1, kHT_MEC_FullAll, kHT_MEC_Fullpn, kHT_MEC_DeltaAll, kHT_MEC_Deltapn, kHT_MEC_EM, kHT_QE_EM, kHT_MEC_FullAll_Param, kHT_MEC_FullAll_wImag, kHT_QE_Full, kHT_MEC_EM_wImag }

enum	EINukeFateHN_t { kIHNFtUndefined = 0, kIHNFtNoInteraction, kIHNFtCEx, kIHNFtElas, kIHNFtInelas, kIHNFtAbs, kIHNFtCmp, kIHNFtUndefined = 0, kIHNFtNoInteraction, kIHNFtCEx, kIHNFtElas, kIHNFtInelas, kIHNFtAbs, kIHNFtCmp }

enum	EINukeFateHA_t { kIHAFtUndefined = 0, kIHAFtNoInteraction, kIHAFtCEx, kIHAFtElas, kIHAFtInelas, kIHAFtAbs, kIHAFtKo, kIHAFtCmp, kIHAFtPiProd, kIHAFtInclPip, kIHAFtInclPim, kIHAFtInclPi0, kIHAFtDCEx, kIHAFtUndefined = 0, kIHAFtNoInteraction, kIHAFtCEx, kIHAFtInelas, kIHAFtAbs, kIHAFtKo, kIHAFtCmp, kIHAFtPiProd, kIHAFtInclPip, kIHAFtInclPim, kIHAFtInclPi0, kIHAFtDCEx }

enum	EINukeFateHN_t { kIHNFtUndefined = 0, kIHNFtNoInteraction, kIHNFtCEx, kIHNFtElas, kIHNFtInelas, kIHNFtAbs, kIHNFtCmp, kIHNFtUndefined = 0, kIHNFtNoInteraction, kIHNFtCEx, kIHNFtElas, kIHNFtInelas, kIHNFtAbs, kIHNFtCmp }

enum	EINukeFateHA_t { kIHAFtUndefined = 0, kIHAFtNoInteraction, kIHAFtCEx, kIHAFtElas, kIHAFtInelas, kIHAFtAbs, kIHAFtKo, kIHAFtCmp, kIHAFtPiProd, kIHAFtInclPip, kIHAFtInclPim, kIHAFtInclPi0, kIHAFtDCEx, kIHAFtUndefined = 0, kIHAFtNoInteraction, kIHAFtCEx, kIHAFtInelas, kIHAFtAbs, kIHAFtKo, kIHAFtCmp, kIHAFtPiProd, kIHAFtInclPip, kIHAFtInclPim, kIHAFtInclPi0, kIHAFtDCEx }

enum	EINukeMode { kIMdUndefined = -1, kIMdHN, kIMdHA }

enum	ENHLDecayMode { kNHLDcyNull = 0, kNHLDcyTEST = 1 }

enum	ENNBarOscMode { kNONull = -1, kNORandom, kNOpto1pip1pi0, kNOpto1pip2pi0, kNOpto1pip3pi0, kNOpto2pip1pim1pi0, kNOpto2pip1pim2pi0, kNOpto2pip1pim2o, kNOpto3pip2pim1pi0, kNOnto1pip1pim, kNOnto2pi0, kNOnto1pip1pim1pi0, kNOnto1pip1pim2pi0, kNOnto1pip1pim3pi0, kNOnto2pip2pim, kNOnto2pip2pim1pi0, kNOnto1pip1pim1o, kNOnto2pip2pim2pi0 }

enum	ENuclearModel { kNucmUndefined = -1, kNucmFermiGas, kNucmLocalFermiGas, kNucmSpectralFunc, kNucmEffSpectralFunc }

enum	EFermiMoverInteractionType { kFermiMoveDefault = 0, kFermiMoveEffectiveSF1p1h, kFermiMoveEffectiveSF2p2h_eject, kFermiMoveEffectiveSF2p2h_noeject }

enum	ENucleonDecayMode { kNDNull = 0, kNDN2eppi, kNDN2muppi, kNDN2nubarpi, kNDp2epeta, kNDp2mupeta, kNDn2nubareta, kNDN2eprho, kNDN2muprho, kNDN2nubarrho, kNDp2epomega, kNDp2mupomega, kNDn2nubaromega, kNDN2epK, kNDp2epK0s, kNDp2epK0l, kNDN2mupK, kNDp2mupK0s, kNDp2mupK0l, kNDN2nubarK, kNDn2nubarK0s, kNDp2epKstar0, kNDN2nubarKstar, kNDp2eppippim, kNDp2eppi0pi0, kNDn2eppimpi0, kNDp2muppippim, kNDp2muppi0pi0, kNDn2muppimpi0, kNDn2epK0pim, kNDn2empip, kNDn2mumpip, kNDn2emrhop, kNDn2mumrhop, kNDn2emKp, kNDn2mumKp, kNDp2empippip, kNDn2empippi0, kNDp2mumpippip, kNDn2mumpippi0, kNDp2empipKp, kNDp2mumpipKp, kNDp2epgamma, kNDp2mupgamma, kNDn2nubargamma, kNDp2epgammagamma, kNDn2nubargammagamma, kNDp2epepem = 49, kNDp2epmupmum, kNDp2epnubarnu, kNDn2epemnubar, kNDn2mupemnubar, kNDn2mupmumnubar, kNDp2mupepem, kNDp2mupmupmum, kNDp2mupnubarnu, kNDp2emmupmup, kNDn2threenus, kNDn2fivenus }

enum	EQELRmax { kMatchVertexGeneratorRmax, kMatchNieves }

enum	EQELEvGenBindingMode { kUseNuclearModel, kUseGroundStateRemnant, kOnShell, kValenciaStyleQValue }

Functions
ostream &	operator<< (ostream &stream, const AlgConfigPool &config_pool)

ostream &	operator<< (ostream &stream, const AlgFactory &algf)

ostream &	operator<< (ostream &stream, const AlgId &algid)

ostream &	operator<< (ostream &stream, const Algorithm &alg)

ostream &	operator<< (ostream &stream, const EventGeneratorList &evgl)

ostream &	operator<< (ostream &stream, const EventRecord &event)

ostream &	operator<< (ostream &stream, const GEVGDriver &driver)

ostream &	operator<< (ostream &stream, const GEVGPool &pool)

ostream &	operator<< (ostream &stream, const GVldContext &vldc)

ostream &	operator<< (ostream &stream, const InteractionGeneratorMap &intl)

ostream &	operator<< (ostream &stream, const InteractionList &intl)

ostream &	operator<< (ostream &stream, const PathLengthList &list)

ostream &	operator<< (ostream &stream, const XSecAlgorithmMap &intl)

ostream &	operator<< (ostream &stream, const GHepParticle &p)

ostream &	operator<< (ostream &stream, const GHepRecord &rec)

ostream &	operator<< (ostream &stream, const GHepRecordHistory &history)

ostream &	operator<< (ostream &stream, const InitialState &i)

ostream &	operator<< (ostream &stream, const Interaction &i)

ostream &	operator<< (ostream &stream, const Kinematics &kine)

ostream &	operator<< (ostream &stream, const ProcessInfo &proc)

ostream &	operator<< (ostream &stream, const Target &t)

ostream &	operator<< (ostream &stream, const XclsTag &xcls)

ostream &	operator<< (ostream &stream, const NtpMCDTime &dt)

ostream &	operator<< (ostream &stream, const NtpMCEventRecord &rec)

ostream &	operator<< (ostream &stream, const NtpMCRecHeader &hdr)

ostream &	operator<< (ostream &stream, const NtpMCTreeHeader &hdr)

ostream &	operator<< (ostream &stream, const Spline &spl)

ostream &	operator<< (ostream &stream, const BaryonResList &res_list)

ostream &	operator<< (ostream &stream, const PDGCodeList &list)

template<class T >
void	SetRegistryItem (Registry *r, RgKey key, T item)

template<class T >
T	GetValueOrUseDefault (Registry *r, RgKey key, T def, bool set_def)

ostream &	operator<< (ostream &stream, const Registry &registry)

template ostream &	operator<< (ostream &stream, const RegistryItem< RgBool > &r)

template ostream &	operator<< (ostream &stream, const RegistryItem< RgDbl > &r)

template ostream &	operator<< (ostream &stream, const RegistryItem< RgStr > &r)

template ostream &	operator<< (ostream &stream, const RegistryItem< RgAlg > &r)

template ostream &	operator<< (ostream &stream, const RegistryItem< RgH1F > &r)

template ostream &	operator<< (ostream &stream, const RegistryItem< RgH2F > &r)

template ostream &	operator<< (ostream &stream, const RegistryItem< RgTree > &r)

template<typename T >
ostream &	operator<< (ostream &stream, const RegistryItem< T > &rec)

ostream &	operator<< (ostream &stream, const Cache &cache)

ostream &	operator<< (ostream &stream, const CacheBranchFx &cbntp)

ostream &	operator<< (ostream &stream, const CacheBranchNtp &cbntp)

ostream &	operator<< (ostream &stream, const GSimFiles &f)

ostream &	operator<< (ostream &stream, const RunOpt &opt)

ostream &	operator<< (ostream &stream, const TuneId &id)

bool	operator== (const TuneId &id1, const TuneId &id2)

bool	operator!= (const TuneId &id1, const TuneId &id2)

ostream &	operator<< (ostream &stream, const XSecSplineList &list)

ostream &	operator<< (ostream &stream, const DISStructureFunc &ff)

bool	operator== (const SF_info &a, const SF_info &b)

std::istream &	operator>> (std::istream &is, SF_info &a)

std::ostream &	operator<< (std::ostream &os, const SF_info &a)

ostream &	operator<< (ostream &stream, const PDF &pdf_set)

ostream &	operator<< (ostream &stream, const AxialFormFactor &ff)

ostream &	operator<< (ostream &stream, const ELFormFactors &ff)

ostream &	operator<< (ostream &stream, const QELFormFactors &ff)

ostream &	operator<< (ostream &stream, const FKR &parameters)

ostream &	operator<< (ostream &stream, const RSHelicityAmpl &hamp)

Variables
const UInt_t	kISkipProcessChk = 1<<17
	if set, skip process validity checks More...

const UInt_t	kISkipKinematicChk = 1<<16
	if set, skip kinematic validity checks More...

const UInt_t	kIAssumeFreeNucleon = 1<<15

const UInt_t	kIAssumeFreeElectron = 1<<15

const UInt_t	kINoNuclearCorrection = 1<<14
	if set, inhibit nuclear corrections More...

bool	gAbortingInErr = false

const int	kPdgNuE = 12

const int	kPdgAntiNuE = -12

const int	kPdgNuMu = 14

const int	kPdgAntiNuMu = -14

const int	kPdgNuTau = 16

const int	kPdgAntiNuTau = -16

const int	kPdgElectron = 11

const int	kPdgPositron = -11

const int	kPdgMuon = 13

const int	kPdgAntiMuon = -13

const int	kPdgTau = 15

const int	kPdgAntiTau = -15

const int	kPdgUQuark = 2

const int	kPdgAntiUQuark = -2

const int	kPdgDQuark = 1

const int	kPdgAntiDQuark = -1

const int	kPdgSQuark = 3

const int	kPdgAntiSQuark = -3

const int	kPdgCQuark = 4

const int	kPdgAntiCQuark = -4

const int	kPdgBQuark = 5

const int	kPdgAntiBQuark = -5

const int	kPdgTQuark = 6

const int	kPdgAntiTQuark = -6

const int	kPdgDDDiquarkS1 = 1103

const int	kPdgUDDiquarkS0 = 2101

const int	kPdgUDDiquarkS1 = 2103

const int	kPdgUUDiquarkS1 = 2203

const int	kPdgSDDiquarkS0 = 3101

const int	kPdgSDDiquarkS1 = 3103

const int	kPdgSUDiquarkS0 = 3201

const int	kPdgSUDiquarkS1 = 3203

const int	kPdgSSDiquarkS1 = 3303

const int	kPdgCDDiquarkS0 = 4101

const int	kPdgCDDiquarkS1 = 4103

const int	kPdgCUDiquarkS0 = 4201

const int	kPdgCUDiquarkS1 = 4203

const int	kPdgCSDiquarkS0 = 4301

const int	kPdgCSDiquarkS1 = 4303

const int	kPdgCCDiquarkS1 = 4403

const int	kPdgBDDiquarkS0 = 5101

const int	kPdgBDDiquarkS1 = 5103

const int	kPdgBUDiquarkS0 = 5201

const int	kPdgBUDiquarkS1 = 5203

const int	kPdgBSDiquarkS0 = 5301

const int	kPdgBSDiquarkS1 = 5303

const int	kPdgBCDiquarkS0 = 5401

const int	kPdgBCDiquarkS1 = 5403

const int	kPdgBBDiquarkS1 = 5503

const int	kPdgProton = 2212

const int	kPdgAntiProton = -2212

const int	kPdgNeutron = 2112

const int	kPdgAntiNeutron = -2112

const int	kPdgLambda = 3122

const int	kPdgAntiLambda = -3122

const int	kPdgSigmaP = 3222

const int	kPdgSigma0 = 3212

const int	kPdgSigmaM = 3112

const int	kPdgAntiSigmaP = -3222

const int	kPdgAntiSigma0 = -3212

const int	kPdgAntiSigmaM = -3112

const int	kPdgXi0 = 3322

const int	kPdgXiM = 3312

const int	kPdgAntiXi0 = -3322

const int	kPdgAntiXiP = -3312

const int	kPdgOmegaM = 3334

const int	kPdgAntiOmegaP = -3334

const int	kPdgLambdaPc = 4122

const int	kPdgSigma0c = 4112

const int	kPdgSigmaPc = 4212

const int	kPdgSigmaPPc = 4222

const int	kPdgP33m1232_DeltaM = 1114

const int	kPdgP33m1232_Delta0 = 2114

const int	kPdgP33m1232_DeltaP = 2214

const int	kPdgP33m1232_DeltaPP = 2224

const int	kPdgS11m1535_N0 = 102112

const int	kPdgS11m1535_NP = 102212

const int	kPdgD13m1520_N0 = 102114

const int	kPdgD13m1520_NP = 102214

const int	kPdgS11m1650_N0 = 132112

const int	kPdgS11m1650_NP = 132212

const int	kPdgD13m1700_N0 = 112114

const int	kPdgD13m1700_NP = 112214

const int	kPdgD15m1675_N0 = 102116

const int	kPdgD15m1675_NP = 102216

const int	kPdgS31m1620_DeltaM = 111112

const int	kPdgS31m1620_Delta0 = 112112

const int	kPdgS31m1620_DeltaP = 112212

const int	kPdgS31m1620_DeltaPP = 112222

const int	kPdgD33m1700_DeltaM = 121114

const int	kPdgD33m1700_Delta0 = 122114

const int	kPdgD33m1700_DeltaP = 122214

const int	kPdgD33m1700_DeltaPP = 122224

const int	kPdgP11m1440_N0 = 202112

const int	kPdgP11m1440_NP = 202212

const int	kPdgP33m1600_DeltaM = 211114

const int	kPdgP33m1600_Delta0 = 212114

const int	kPdgP33m1600_DeltaP = 212214

const int	kPdgP33m1600_DeltaPP = 212224

const int	kPdgP13m1720_N0 = 202114

const int	kPdgP13m1720_NP = 202214

const int	kPdgF15m1680_N0 = 202116

const int	kPdgF15m1680_NP = 202216

const int	kPdgP31m1910_DeltaM = 221112

const int	kPdgP31m1910_Delta0 = 222112

const int	kPdgP31m1910_DeltaP = 222212

const int	kPdgP31m1910_DeltaPP = 222222

const int	kPdgP33m1920_DeltaM = 221114

const int	kPdgP33m1920_Delta0 = 222114

const int	kPdgP33m1920_DeltaP = 222214

const int	kPdgP33m1920_DeltaPP = 222224

const int	kPdgF35m1905_DeltaM = 211116

const int	kPdgF35m1905_Delta0 = 212116

const int	kPdgF35m1905_DeltaP = 212216

const int	kPdgF35m1905_DeltaPP = 212226

const int	kPdgF37m1950_DeltaM = 201118

const int	kPdgF37m1950_Delta0 = 202118

const int	kPdgF37m1950_DeltaP = 202218

const int	kPdgF37m1950_DeltaPP = 202228

const int	kPdgP11m1710_N0 = 212112

const int	kPdgP11m1710_NP = 212212

const int	kPdgF17m1970_N0 = 212118

const int	kPdgF17m1970_NP = 212218

const int	kPdgPiP = 211

const int	kPdgPiM = -211

const int	kPdgPi0 = 111

const int	kPdgEta = 221

const int	kPdgEtaPrm = 331

const int	kPdgEtac = 441

const int	kPdgEtab = 551

const int	kPdgRhoP = 213

const int	kPdgRhoM = -213

const int	kPdgRho0 = 113

const int	kPdgomega = 223

const int	kPdgPhi = 333

const int	kPdgJpsi = 443

const int	kPdgY = 553

const int	kPdgKP = 321

const int	kPdgKM = -321

const int	kPdgK0 = 311

const int	kPdgAntiK0 = -311

const int	kPdgK0L = 130

const int	kPdgK0S = 310

const int	kPdgKStarP = 323

const int	kPdgKStarM = -323

const int	kPdgKStar0 = 313

const int	kPdgDP = 411

const int	kPdgDM = -411

const int	kPdgD0 = 421

const int	kPdgAntiD0 = -421

const int	kPdgDPs = 431

const int	kPdgDMs = -431

const int	kPdgGluon = 21

const int	kPdgGamma = 22

const int	kPdgZ0 = 23

const int	kPdgWP = 24

const int	kPdgWM = -24

const int	kPdgTgtFreeP = 1000010010

const int	kPdgTgtFreeN = 1000000010

const int	kPdgTgtDeuterium = 1000010020

const int	kPdgTgtC12 = 1000060120

const int	kPdgTgtO16 = 1000080160

const int	kPdgTgtCa40 = 1000200400

const int	kPdgTgtFe56 = 1000260560

const int	kPdgHadronicSyst = 2000000001

const int	kPdgHadronicBlob = 2000000002

const int	kPdgBindino = 2000000101

const int	kPdgCoulobtron = 2000000102

const int	kPdgClusterNN = 2000000200

const int	kPdgClusterNP = 2000000201

const int	kPdgClusterPP = 2000000202

const int	kPdgCompNuclCluster = 2000000300

const int	kPdgDarkMatter = 2000010000

const int	kPdgAntiDarkMatter = -2000010000

const int	kPdgMediator = 2000010001

const int	kPdgNHL = 2000020000

const int	kPdgDarkNeutrino = 2000030000

const int	kPdgAntiDarkNeutrino = -2000030000

const int	kPdgDNuMediator = 2000030001

const int	kPdgCluster = 91

const int	kPdgString = 92

const int	kPdgIndep = 93

static const string	gDefaultTune = "G18_02a_00_000"

Detailed Description

THE MAIN GENIE PROJECT NAMESPACE

QE utilities.

#include "Numerical/GSFunc.h"

Names of environmental variables to keep track of when saving the job config in TFolders along with the output event tree

Author: Costas Andreopoulos <constantinos.andreopoulos cern.ch> University of Liverpool & STFC Rutherford Appleton Laboratory

May 03, 2004

Jeremy Wolcott <jwolcott fnal.gov> Tufts University

Author: Steven Gardiner <gardiner fnal.gov> Fermilab

May 04, 2004

Robert Hatcher rhatc.nosp@m.her@.nosp@m.fnal..nosp@m.gov Fermi National Accelerator Laboratory

Typedef Documentation

typedef enum genie::EAlgCmp genie::AlgCmp_t

typedef map<string, Algorithm *> genie::AlgMap

Definition at line 48 of file Algorithm.h.

typedef map<string, Algorithm *>::const_iterator genie::AlgMapConstIter

Definition at line 50 of file Algorithm.h.

typedef map<string, Algorithm *>::iterator genie::AlgMapIter

Definition at line 49 of file Algorithm.h.

typedef pair<string, Algorithm *> genie::AlgMapPair

Definition at line 51 of file Algorithm.h.

typedef enum genie::EAlgStatus genie::AlgStatus_t

typedef struct genie::SBBA2003Fit genie::BBA2003Fit_t

typedef struct genie::SBBA2005Fit genie::BBA2005Fit_t

typedef struct genie::SBBA2007Fit genie::BBA2007Fit_t

typedef enum genie::EDMELEvGenBindingMode genie::DMELEvGen_BindingMode_t

typedef enum genie::EFermiMoverInteractionType genie::FermiMoverInteractionType_t

typedef enum genie::EGEvGenMode genie::GEvGenMode_t

typedef enum genie::EGHepFlag genie::GHepFlag_t

typedef enum genie::EGHepStatus genie::GHepStatus_t

typedef enum genie::HadronTensorType genie::HadronTensorType_t

Enumerated type that describes the physics represented by a particular hadron tensor

Todo:: Document enum values

typedef enum genie::EInteractionType genie::InteractionType_t

typedef enum genie::EINukeFateHA_t genie::INukeFateHA_t

typedef enum genie::EINukeFateHN_t genie::INukeFateHN_t

typedef enum genie::EINukeMode genie::INukeMode_t

typedef struct genie::EKF_t genie::KF_t

typedef enum genie::EKinePhaseSpace genie::KinePhaseSpace_t

typedef enum genie::EKineVar genie::KineVar_t

typedef enum genie::ENHLDecayMode genie::NHLDecayMode_t

typedef enum genie::EQELRmax genie::Nieves_Coulomb_Rmax_t

typedef enum genie::ENNBarOscMode genie::NNBarOscMode_t

typedef enum genie::ENtpMCFormat genie::NtpMCFormat_t

typedef enum genie::ENuclearModel genie::NuclearModel_t

typedef enum genie::ENucleonDecayMode genie::NucleonDecayMode_t

typedef struct genie::EPDF genie::PDF_t

typedef enum genie::EQELEvGenBindingMode genie::QELEvGen_BindingMode_t

typedef enum genie::ERefFrame genie::RefFrame_t

typedef enum genie::EResonance genie::Resonance_t

typedef map<RgKey, RegistryItemI *> genie::RgIMap

Definition at line 45 of file Registry.h.

typedef map<RgKey, RegistryItemI *>::const_iterator genie::RgIMapConstIter

Definition at line 49 of file Registry.h.

typedef map<RgKey, RegistryItemI *>::iterator genie::RgIMapIter

Definition at line 48 of file Registry.h.

typedef pair<RgKey, RegistryItemI *> genie::RgIMapPair

Definition at line 46 of file Registry.h.

typedef map<RgKey, RegistryItemI *>::size_type genie::RgIMapSizeType

Definition at line 47 of file Registry.h.

typedef vector<RgKey> genie::RgKeyList

Definition at line 50 of file Registry.h.

typedef enum genie::ERgType genie::RgType_t

typedef enum genie::EScatteringType genie::ScatteringType_t

typedef enum genie::ESppChannel genie::SppChannel_t

typedef enum genie::EXmlParseStatus genie::XmlParserStatus_t

Enumeration Type Documentation

enum genie::EAlgCmp

Enumerator
kAlgCmpUnknown
kAlgCmpIdentical
kAlgCmpDiffConfig
kAlgCmpDiffAlg

Definition at line 27 of file AlgCmp.h.

                      {
 
    kAlgCmpUnknown    = -1,
    kAlgCmpIdentical,
    kAlgCmpDiffConfig,
    kAlgCmpDiffAlg
 
 } AlgCmp_t;

enum genie::EAlgStatus

Enumerator
kAlgUndefinedStatus
kAlgFail
kAlgSuccess

Definition at line 27 of file AlgStatus.h.

                         {
 
    kAlgUndefinedStatus    = -1,
    kAlgFail,
    kAlgSuccess
 
 } AlgStatus_t;

enum genie::EDMELEvGenBindingMode

Enumerator
kUseNuclearModel
kUseGroundStateRemnant
kOnShell

Definition at line 17 of file DMELUtils.h.

                                      {
 
     // Use removal energy from the nuclear model
     kUseNuclearModel,
 
     // Calculate binding energy assuming that the remnant nucleus is left in its
     // ground state
     kUseGroundStateRemnant,
 
     // Leave the struck nucleon on shell, effectively ignoring its binding energy
     kOnShell
   } DMELEvGen_BindingMode_t;

enum genie::EFermiMoverInteractionType

Enumerator
kFermiMoveDefault
kFermiMoveEffectiveSF1p1h
kFermiMoveEffectiveSF2p2h_eject
kFermiMoveEffectiveSF2p2h_noeject

Definition at line 38 of file NuclearModel.h.

                                         {
   kFermiMoveDefault = 0,
   kFermiMoveEffectiveSF1p1h,
   kFermiMoveEffectiveSF2p2h_eject,
   kFermiMoveEffectiveSF2p2h_noeject,
 } FermiMoverInteractionType_t;  

enum genie::EGEvGenMode

Enumerator
kGMdUnknown
kGMdLeptonNucleus
kGMdHadronNucleus
kGMdPhotonNucleus
kGMdDarkMatterNucleus
kGMdNucleonDecay
kGMdNeutronOsc
kGMdNeutralHeavyLepton

Definition at line 23 of file GMode.h.

                          {
 
   kGMdUnknown = 0,
   kGMdLeptonNucleus,     // chg.lepton/neutrino + nucleon/nucleus scattering
   kGMdHadronNucleus,     // hadron + nucleon/nucleus scattering
   kGMdPhotonNucleus,     // photon + nucleon/nucleus scattering
   kGMdDarkMatterNucleus, // dark matter + nucleon/nucleus scattering
   kGMdNucleonDecay,      // nucleon decay
   kGMdNeutronOsc,        // neutron-antineutron oscillation
   kGMdNeutralHeavyLepton // neutral heavy lepton
 
 } GEvGenMode_t;

enum genie::EGHepFlag

Enumerator
kGenericErr
kPauliBlock
kBelowThrNRF
kBelowThrERF
kKineGenErr
kHadroSysGenErr
kLeptoGenErr
kDecayErr

Definition at line 25 of file GHepFlags.h.

                          {
 
      kGenericErr      = 0,
      kPauliBlock      = 1,
      kBelowThrNRF     = 2,
      kBelowThrERF     = 3,
      kKineGenErr      = 4,
      kHadroSysGenErr  = 5,
      kLeptoGenErr     = 6,
      kDecayErr        = 7
 
   } GHepFlag_t;

enum genie::EGHepStatus

Enumerator
kIStUndefined
kIStInitialState
kIStStableFinalState
kIStIntermediateState
kIStDecayedState
kIStCorrelatedNucleon
kIStNucleonTarget
kIStDISPreFragmHadronicState
kIStPreDecayResonantState
kIStHadronInTheNucleus
kIStFinalStateNuclearRemnant
kIStNucleonClusterTarget

Definition at line 27 of file GHepStatus.h.

                          {
    kIStUndefined                  = -1,
    kIStInitialState               =  0,   /* generator-level initial state */
    kIStStableFinalState           =  1,   /* generator-level final state: particles to be tracked by detector-level MC */
    kIStIntermediateState          =  2,
    kIStDecayedState               =  3,
    kIStCorrelatedNucleon          = 10,
    kIStNucleonTarget              = 11,
    kIStDISPreFragmHadronicState   = 12,
    kIStPreDecayResonantState      = 13,
    kIStHadronInTheNucleus         = 14,   /* hadrons inside the nucleus: marked for hadron transport modules to act on */
    kIStFinalStateNuclearRemnant   = 15,   /* low energy nuclear fragments entering the record collectively as a 'hadronic blob' pseudo-particle */
    kIStNucleonClusterTarget       = 16    // for composite nucleons before phase space decay
 }

enum genie::EInteractionType

Enumerator
kIntNull
kIntEM
kIntWeakCC
kIntWeakNC
kIntWeakMix
kIntDarkMatter
kIntNDecay
kIntNOsc
kIntNHL
kIntDarkNC

Definition at line 33 of file InteractionType.h.

                               {
 
   kIntNull   = 0,
   kIntEM,          //
   kIntWeakCC,      //
   kIntWeakNC,      //
   kIntWeakMix,     // CC + NC + interference
   kIntDarkMatter,  //
   kIntNDecay,      //
   kIntNOsc,        //
   kIntNHL,         //
   kIntDarkNC       //
 
 } InteractionType_t;

enum genie::EINukeFateHA_t

Enumerator
kIHAFtUndefined
kIHAFtNoInteraction
kIHAFtCEx
kIHAFtElas
kIHAFtInelas
kIHAFtAbs
kIHAFtKo
kIHAFtCmp
kIHAFtPiProd
kIHAFtInclPip
kIHAFtInclPim
kIHAFtInclPi0
kIHAFtDCEx
kIHAFtUndefined
kIHAFtNoInteraction
kIHAFtCEx
kIHAFtInelas
kIHAFtAbs
kIHAFtKo
kIHAFtCmp
kIHAFtPiProd
kIHAFtInclPip
kIHAFtInclPim
kIHAFtInclPi0
kIHAFtDCEx

Definition at line 46 of file INukeHadroFates.h.

                             {
 
    kIHAFtUndefined = 0,
    kIHAFtNoInteraction,  // no interaction 
    kIHAFtCEx,            // cex
    kIHAFtElas,           // elas
    kIHAFtInelas,         // inelas
    kIHAFtAbs,            // abs
    kIHAFtKo,             // knock out
    kIHAFtCmp,            // compound nucleus
    kIHAFtPiProd,         // pi production
    kIHAFtInclPip,        // pi production : inclusive pi+
    kIHAFtInclPim,        // pi production : inclusive pi-
    kIHAFtInclPi0,        // pi production : inclusive pi0 
    kIHAFtDCEx            // dcex
 
 } INukeFateHA_t;   

enum genie::EINukeFateHA_t

Enumerator
kIHAFtUndefined
kIHAFtNoInteraction
kIHAFtCEx
kIHAFtElas
kIHAFtInelas
kIHAFtAbs
kIHAFtKo
kIHAFtCmp
kIHAFtPiProd
kIHAFtInclPip
kIHAFtInclPim
kIHAFtInclPi0
kIHAFtDCEx
kIHAFtUndefined
kIHAFtNoInteraction
kIHAFtCEx
kIHAFtInelas
kIHAFtAbs
kIHAFtKo
kIHAFtCmp
kIHAFtPiProd
kIHAFtInclPip
kIHAFtInclPim
kIHAFtInclPi0
kIHAFtDCEx

Definition at line 46 of file INukeHadroFates2018.h.

                             {
 
    kIHAFtUndefined = 0,
    kIHAFtNoInteraction,  // no interaction 
    kIHAFtCEx,            // cex
    //   kIHAFtElas,           // elas
    kIHAFtInelas,         // inelas
    kIHAFtAbs,            // abs
    kIHAFtKo,             // knock out
    kIHAFtCmp,            // compound nucleus
    kIHAFtPiProd,         // pi production
    kIHAFtInclPip,        // pi production : inclusive pi+
    kIHAFtInclPim,        // pi production : inclusive pi-
    kIHAFtInclPi0,        // pi production : inclusive pi0 
    kIHAFtDCEx            // dcex
 
 } INukeFateHA_t;   

enum genie::EINukeFateHN_t

Enumerator
kIHNFtUndefined
kIHNFtNoInteraction
kIHNFtCEx
kIHNFtElas
kIHNFtInelas
kIHNFtAbs
kIHNFtCmp
kIHNFtUndefined
kIHNFtNoInteraction
kIHNFtCEx
kIHNFtElas
kIHNFtInelas
kIHNFtAbs
kIHNFtCmp

Definition at line 32 of file INukeHadroFates.h.

                             {
 
    kIHNFtUndefined = 0, 
    kIHNFtNoInteraction,
    kIHNFtCEx,       // cex
    kIHNFtElas,      // elas
    kIHNFtInelas,    // inelas
    kIHNFtAbs,       // abs 
    kIHNFtCmp         //cmp
 
 } INukeFateHN_t;   

enum genie::EINukeFateHN_t

Enumerator
kIHNFtUndefined
kIHNFtNoInteraction
kIHNFtCEx
kIHNFtElas
kIHNFtInelas
kIHNFtAbs
kIHNFtCmp
kIHNFtUndefined
kIHNFtNoInteraction
kIHNFtCEx
kIHNFtElas
kIHNFtInelas
kIHNFtAbs
kIHNFtCmp

Definition at line 32 of file INukeHadroFates2018.h.

                             {
 
    kIHNFtUndefined = 0, 
    kIHNFtNoInteraction,
    kIHNFtCEx,       // cex
    kIHNFtElas,      // elas
    kIHNFtInelas,    // inelas
    kIHNFtAbs,       // abs 
    kIHNFtCmp         //cmp
 
 } INukeFateHN_t;   

enum genie::EINukeMode

Enumerator
kIMdUndefined
kIMdHN
kIMdHA

Definition at line 29 of file INukeMode.h.

                         {
 
    kIMdUndefined = -1, 
    kIMdHN,
    kIMdHA
 
 } INukeMode_t;   

enum genie::EKinePhaseSpace

Enumerator
kPSNull
kPSfE
kPSxfE
kPSlogxfE
kPSxfEy
kPSlogxfEy
kPSyfE
kPSlogyfE
kPSyfEx
kPSlogyfEx
kPSxyfE
kPSlogxlogyfE
kPSxQ2fE
kPSQ2fE
kPSQD2fE
kPSlogQ2fE
kPSQ2fEW
kPSlogQ2fEW
kPSq2fE
kPSq2fEW
kPSWfE
kPSWfEQ2
kPSWfEq2
kPSWQ2fE
kPSWQD2fE
kPSW2Q2fE
kPSWlogQ2fE
kPSW2logQ2fE
kPSWq2fE
kPSW2q2fE
kPSxytfE
kPSQ2yfE
kPSlogQ2logyfE
kPSTlctl
kPSElOlOpifE
kPSElOlTpifE
kPSTkTlctl
kPSQ2vfE
kPSQELEvGen
kPSTAfE
kPSEgTlOgfE
kPSDMELEvGen
kPSlog10xlog10Q2fE
kPSEDNufE

Definition at line 28 of file KinePhaseSpace.h.

                              {
   kPSNull = 0,
   kPSfE,
   kPSxfE,
   kPSlogxfE,
   kPSxfEy,
   kPSlogxfEy,
   kPSyfE,
   kPSlogyfE,
   kPSyfEx,
   kPSlogyfEx,
   kPSxyfE,
   kPSlogxlogyfE,
   kPSxQ2fE,
   kPSQ2fE,
   kPSQD2fE,
   kPSlogQ2fE,
   kPSQ2fEW,
   kPSlogQ2fEW,
   kPSq2fE,
   kPSq2fEW,
   kPSWfE,
   kPSWfEQ2,
   kPSWfEq2,
   kPSWQ2fE,
   kPSWQD2fE,
   kPSW2Q2fE,
   kPSWlogQ2fE,
   kPSW2logQ2fE,
   kPSWq2fE,
   kPSW2q2fE,
   kPSxytfE,
   kPSQ2yfE,
   kPSlogQ2logyfE,
   kPSTlctl,
   kPSElOlOpifE,
   kPSElOlTpifE,
   kPSTkTlctl,
   kPSQ2vfE,
   kPSQELEvGen,// Phase space used by genie::QELEventGenerator for sampling kinematic variables
               // TODO: rename this value when the correct variables are identified
   kPSTAfE,
   kPSEgTlOgfE,
   kPSDMELEvGen, // Equivalent to kPSQELEvGen for Dark Matter scattering  
   kPSlog10xlog10Q2fE,
   kPSEDNufE // Used for Dark Neutrinos, two body final state
 } KinePhaseSpace_t;

enum genie::EKineVar

Enumerator
kKVNull
kKVx
kKVy
kKVQ2
kKVq2
kKVW
kKVt
kKVTk
kKVTl
kKVctl
kKVphikq
kKVSelx
kKVSely
kKVSelQ2
kKVSelq2
kKVSelW
kKVSelt
kKVSelTk
kKVSelTl
kKVSelctl
kKVSelphikq
kKVSelRad
kKVPn
kKVv
kKVSelPn
kKVSelv
kKVQ0
kKVQ3
kKVSelQ0
kKVSelQ3
kNumOfKineVar

Definition at line 28 of file KineVar.h.

                       {
 
   kKVNull = 0,
   kKVx,
   kKVy,
   kKVQ2,
   kKVq2,
   kKVW,
   kKVt,
   kKVTk,
   kKVTl,
   kKVctl,
   kKVphikq,
   kKVSelx,
   kKVSely,
   kKVSelQ2,
   kKVSelq2,
   kKVSelW,
   kKVSelt,
   kKVSelTk,
   kKVSelTl,
   kKVSelctl,
   kKVSelphikq,
   kKVSelRad,
   kKVPn,
   kKVv,
   kKVSelPn,
   kKVSelv,
   kKVQ0,
   kKVQ3,
   kKVSelQ0,
   kKVSelQ3,
   // put all new enum names right before this line
   // do not change any previous ordering (neither insert nor delete)
   kNumOfKineVar
 
 } KineVar_t;

enum genie::ENHLDecayMode

Enumerator
kNHLDcyNull
kNHLDcyTEST

Definition at line 26 of file NHLDecayMode.h.

                             {
 
    kNHLDcyNull = 0,
 
    //
    // Add enumerations for each decay channel
    // Start eacg enum with kNHLDcy...
    // See $GENIE/src/Physics/NucleonDecay/NucleonDecayMode.h for a similar code
    //
    //
    // ...
    // ...
    // ...
    kNHLDcyTEST = 1
 
 
  } NHLDecayMode_t;

enum genie::ENNBarOscMode

Enumerator
kNONull
kNORandom
kNOpto1pip1pi0
kNOpto1pip2pi0
kNOpto1pip3pi0
kNOpto2pip1pim1pi0
kNOpto2pip1pim2pi0
kNOpto2pip1pim2o
kNOpto3pip2pim1pi0
kNOnto1pip1pim
kNOnto2pi0
kNOnto1pip1pim1pi0
kNOnto1pip1pim2pi0
kNOnto1pip1pim3pi0
kNOnto2pip2pim
kNOnto2pip2pim1pi0
kNOnto1pip1pim1o
kNOnto2pip2pim2pi0

Definition at line 27 of file NNBarOscMode.h.

                             {
 
      // i just replaced all the nucleon decay modes with nnbar modes -j
 
      kNONull     = -1,
      kNORandom,            // Will select a random decay mode -j
      kNOpto1pip1pi0,       // p + nbar --> \pi^{+} + \pi^{0}
      kNOpto1pip2pi0,       // p + nbar --> \pi^{+} + 2\pi^{0}
      kNOpto1pip3pi0,       // p + nbar --> \pi^{+} + 3\pi^{0}
      kNOpto2pip1pim1pi0,   // p + nbar --> 2\pi^{+} + \pi^{-} + \pi^{0}
      kNOpto2pip1pim2pi0,   // p + nbar --> 2\pi^{+} + \pi^{-} + 2\pi^{0}
      kNOpto2pip1pim2o,     // p + nbar --> 2\pi^{+} + \pi^{-} + 2\omega^{0}
      kNOpto3pip2pim1pi0,   // p + nbar --> 3\pi^{+} + 2\pi^{-} + \pi^{0}
      kNOnto1pip1pim,       // n + nbar --> \pi^{+} + \pi^{-}
      kNOnto2pi0,           // n + nbar --> 2\pi^{0}
      kNOnto1pip1pim1pi0,   // n + nbar --> \pi^{+} + \pi^{-} + \pi^{0}
      kNOnto1pip1pim2pi0,   // n + nbar --> \pi^{+} + \pi^{-} + 2\pi^{0}
      kNOnto1pip1pim3pi0,   // n + nbar --> \pi^{+} + \pi^{-} + 3\pi^{0}
      kNOnto2pip2pim,       // n + nbar --> 2\pi^{+} + 2\pi^{-}
      kNOnto2pip2pim1pi0,   // n + nbar --> 2\pi^{+} + 2\pi^{-} + \pi^{0}
      kNOnto1pip1pim1o,     // n + nbar --> \pi^{+} + \pi^{-} + \omega^{0}
      kNOnto2pip2pim2pi0    // n + nbar --> 2\pi^{+} + 2\pi^{-} + 2\pi^{0}
 
  } NNBarOscMode_t;

enum genie::ENtpMCFormat

Enumerator
kNFUndefined
kNFGHEP

Definition at line 27 of file NtpMCFormat.h.

                           {
 
    kNFUndefined = -1,
    kNFGHEP   /* each mc tree leaf contains the full GHEP EventRecord */
 
 } NtpMCFormat_t;

enum genie::ENuclearModel

Enumerator
kNucmUndefined
kNucmFermiGas
kNucmLocalFermiGas
kNucmSpectralFunc
kNucmEffSpectralFunc

Definition at line 28 of file NuclearModel.h.

                            {
 
    kNucmUndefined    = -1, 
    kNucmFermiGas,
    kNucmLocalFermiGas,
    kNucmSpectralFunc,
    kNucmEffSpectralFunc
 
 } NuclearModel_t; 

enum genie::ENucleonDecayMode

Enumerator
kNDNull
kNDN2eppi
kNDN2muppi
kNDN2nubarpi
kNDp2epeta
kNDp2mupeta
kNDn2nubareta
kNDN2eprho
kNDN2muprho
kNDN2nubarrho
kNDp2epomega
kNDp2mupomega
kNDn2nubaromega
kNDN2epK
kNDp2epK0s
kNDp2epK0l
kNDN2mupK
kNDp2mupK0s
kNDp2mupK0l
kNDN2nubarK
kNDn2nubarK0s
kNDp2epKstar0
kNDN2nubarKstar
kNDp2eppippim
kNDp2eppi0pi0
kNDn2eppimpi0
kNDp2muppippim
kNDp2muppi0pi0
kNDn2muppimpi0
kNDn2epK0pim
kNDn2empip
kNDn2mumpip
kNDn2emrhop
kNDn2mumrhop
kNDn2emKp
kNDn2mumKp
kNDp2empippip
kNDn2empippi0
kNDp2mumpippip
kNDn2mumpippi0
kNDp2empipKp
kNDp2mumpipKp
kNDp2epgamma
kNDp2mupgamma
kNDn2nubargamma
kNDp2epgammagamma
kNDn2nubargammagamma
kNDp2epepem
kNDp2epmupmum
kNDp2epnubarnu
kNDn2epemnubar
kNDn2mupemnubar
kNDn2mupmumnubar
kNDp2mupepem
kNDp2mupmupmum
kNDp2mupnubarnu
kNDp2emmupmup
kNDn2threenus
kNDn2fivenus

Definition at line 27 of file NucleonDecayMode.h.

                                 {
 
    kNDNull = 0,
    // Antilepton + meson
    kNDN2eppi,           // m = 1: p --> e^{+} + \pi^{0}, n --> e^{+} + \pi^{-}
    kNDN2muppi,          // m = 2: p --> \mu^{+} + \pi^{0}, n --> \mu^{+} + \pi^{-}
    kNDN2nubarpi,        // m = 3: p --> \bar{\nu}} + \pi^{+}, n -->  \bar{\nu}} + \pi^{0}
    kNDp2epeta,          // m = 4: p --> e^{+} + \eta
    kNDp2mupeta,         // m = 5: p --> \mu^{+} + \eta
    kNDn2nubareta,       // m = 6: n --> \bar{\nu}} + \eta
    kNDN2eprho,          // m = 7: p --> e^{+} + \rho^{0}, n --> e^{+} + \rho^{-}
    kNDN2muprho,         // m = 8: p --> \mu^{+} + \rho^{0}, n --> \mu^{+} + \rho^{-}
    kNDN2nubarrho,       // m = 9: p --> \bar{\nu}} + \rho^{+}, n --> \bar{\nu}} + \rho^{0}
    kNDp2epomega,        // m = 10: p --> e^{+} + \omega
    kNDp2mupomega,       // m = 11: p --> \mu^{+} + \omega
    kNDn2nubaromega,     // m = 12: n --> \bar{\nu}} + \omega
    kNDN2epK,            // m = 13: p --> e^{+} + K^{0}, n --> e^{+} + K^{-}
    kNDp2epK0s,          // m = 14: p --> e^{+} + K^{0}_{short}
    kNDp2epK0l,          // m = 15: p --> e^{+} + K^{0}_{long}
    kNDN2mupK,           // m = 16: p --> \mu^{+} + K^{0}, n --> \mu^{+} + K^{-}
    kNDp2mupK0s,         // m = 17: p --> \mu^{+} + K^{0}_{short}
    kNDp2mupK0l,         // m = 18: p --> \mu^{+} + K^{0}_{long}
    kNDN2nubarK,         // m = 19: p --> \bar{\nu}} + K^{+}, n --> \bar{\nu}} + K^{0}
    kNDn2nubarK0s,       // m = 20: n --> \bar{\nu}} + K^{0}_{short}
    kNDp2epKstar0,       // m = 21: p --> e^{+} + K^{\star 0}
    kNDN2nubarKstar,     // m = 22: p --> \bar{\nu}} + K^{\star +}, n --> \bar{\nu}} + K^{\star 0}
    // Antilepton + mesons
    kNDp2eppippim,       // m = 23: p --> e^{+} + \pi^{+} + \pi^{-}
    kNDp2eppi0pi0,       // m = 24: p --> e^{+} + \pi^{0} + \pi^{0}
    kNDn2eppimpi0,       // m = 25: n --> e^{+} + \pi^{-} + \pi^{0}
    kNDp2muppippim,      // m = 26: p --> \mu^{+} + \pi^{+} + \pi^{-}
    kNDp2muppi0pi0,      // m = 27: p --> \mu^{+} + \pi^{0} + \pi^{0}
    kNDn2muppimpi0,      // m = 28: n --> \mu^{+} + \pi^{-} + \pi^{0}
    kNDn2epK0pim,        // m = 29: n --> e^{+} + K^{0} + \pi^{-}
    // Lepton + meson
    kNDn2empip,          // m = 30: n --> e^{-} + \pi^{+}
    kNDn2mumpip,         // m = 31: n --> \mu^{-} + \pi^{+}
    kNDn2emrhop,         // m = 32: n --> e^{-} + \rho^{+}
    kNDn2mumrhop,        // m = 33: n --> \mu^{-} + \rho^{+}
    kNDn2emKp,           // m = 34: n --> e^{-} + K^{+}
    kNDn2mumKp,          // m = 35: n --> \mu^{-} + K^{+}
    // Lepton + mesons
    kNDp2empippip,       // m = 36: p --> e^{-} + \pi^{+} + \pi^{+}
    kNDn2empippi0,       // m = 37: n --> e^{-} + \pi^{+} + \pi^{0}
    kNDp2mumpippip,      // m = 38: p --> \mu^{-} + \pi^{+} + \pi^{+}
    kNDn2mumpippi0,      // m = 39: n --> \mu^{-} + \pi^{+} + \pi^{0}
    kNDp2empipKp,        // m = 40: p --> e^{-} + \pi^{+} + K^{+}
    kNDp2mumpipKp,       // m = 41: p --> \mu^{-} + \pi^{+} + K^{+}
    // Antilepton + photon(s)
    kNDp2epgamma,        // m = 42: p --> e^{+} + \gamma
    kNDp2mupgamma,       // m = 43: p --> \mu^{+} + \gamma
    kNDn2nubargamma,     // m = 44: n -->  \bar{\nu}} + \gamma
    kNDp2epgammagamma,   // m = 45: p --> e^{+} + \gamma + \gamma
    kNDn2nubargammagamma,// m = 46: n -->  \bar{\nu}} + \gamma + \gamma
    // Three (or more) leptons
    kNDp2epepem = 49,    // m = 49: p --> e^{+} + e^{+} + e^{-}
    kNDp2epmupmum,       // m = 50: p --> e^{+} + \mu^{+} + \mu^{-}
    kNDp2epnubarnu,      // m = 51: p --> e^{+} + \bar{\nu}} + \nu
    kNDn2epemnubar,      // m = 52: n --> e^{+} + e^{-} + \bar{\nu}}
    kNDn2mupemnubar,     // m = 53: n --> \mu^{+} + e^{-} + \bar{\nu}}
    kNDn2mupmumnubar,    // m = 54: n --> \mu^{+} + \mu^{-} + \bar{\nu}}
    kNDp2mupepem,        // m = 55: p --> \mu^{+} + e^{+} + e^{-}
    kNDp2mupmupmum,      // m = 56: p --> \mu^{+} + \mu^{+} + \mu^{-}
    kNDp2mupnubarnu,     // m = 57: p --> \mu^{+} + \bar{\nu}} + \nu
    kNDp2emmupmup,       // m = 58: p --> e^{-} + \mu^{+} + \mu^{+}
    kNDn2threenus,       // m = 59: n --> \bar{\nu}} + \bar{\nu}} + \nu
    kNDn2fivenus         // m = 60: n --> \bar{\nu}} + \bar{\nu}} + \bar{\nu}} + \nu + \nu
 
  } NucleonDecayMode_t;

enum genie::EQELEvGenBindingMode

Enumerator
kUseNuclearModel
kUseGroundStateRemnant
kOnShell
kValenciaStyleQValue

Definition at line 32 of file QELUtils.h.

                                     {
 
     // Use removal energy from the nuclear model
     kUseNuclearModel,
 
     // Calculate binding energy assuming that the remnant nucleus is left in its
     // ground state
     kUseGroundStateRemnant,
 
     // Leave the struck nucleon on shell, effectively ignoring its binding
     // energy
     kOnShell,
 
     // Use a prescription equivalent to that of the Valencia model (see
     // Eq. (43) in https://arxiv.org/abs/nucl-th/0408005). In this case,
     // the effective energy transfer implies an off-shell hit nucleon
     // total energy in the initial state.
     kValenciaStyleQValue,
   } QELEvGen_BindingMode_t;

enum genie::EQELRmax

Enumerator
kMatchVertexGeneratorRmax
kMatchNieves

Definition at line 37 of file NievesQELCCPXSec.h.

                       {
   // Use the same maximum radius as VertexGenerator (3*R0*A^(1/3))
   kMatchVertexGeneratorRmax,
 
   // Use the method for calculting Rmax from Nieves' Fortran code
   kMatchNieves
 } Nieves_Coulomb_Rmax_t;

enum genie::ERefFrame

Enumerator
kRfUndefined
kRfLab
kRfCM
kRfHCM
kRfTgtRest
kRfHitNucRest
kRfHitElRest

Definition at line 23 of file RefFrame.h.

                        {
 
   kRfUndefined = 0,
   kRfLab,
   kRfCM,
   kRfHCM,
   kRfTgtRest,
   kRfHitNucRest,
   kRfHitElRest
 
 } RefFrame_t;

enum genie::EResonance

Enumerator
kNoResonance
kP33_1232
kS11_1535
kD13_1520
kS11_1650
kD13_1700
kD15_1675
kS31_1620
kD33_1700
kP11_1440
kP33_1600
kP13_1720
kF15_1680
kP31_1910
kP33_1920
kF35_1905
kF37_1950
kP11_1710
kF17_1970

Definition at line 24 of file BaryonResonance.h.

                           {
        kNoResonance = -1,
        kP33_1232    =  0,
        kS11_1535    =  1,
        kD13_1520    =  2,
        kS11_1650    =  3,
        kD13_1700    =  4,
        kD15_1675    =  5,
        kS31_1620    =  6,
        kD33_1700    =  7,
        kP11_1440    =  8,
        kP33_1600    =  9,
        kP13_1720    = 10,
        kF15_1680    = 11,
        kP31_1910    = 12,
        kP33_1920    = 13,
        kF35_1905    = 14,
        kF37_1950    = 15,
        kP11_1710    = 16,
        kF17_1970    = 17
   } Resonance_t;

enum genie::ERgType

Enumerator
kRgUndefined
kRgBool
kRgInt
kRgDbl
kRgStr
kRgAlg
kRgH1F
kRgH2F
kRgTree

Definition at line 27 of file RegistryItemTypeId.h.

                      {
 
   kRgUndefined = 0,
   kRgBool,
   kRgInt,
   kRgDbl,
   kRgStr,
   kRgAlg,
   kRgH1F,
   kRgH2F,
   kRgTree
 
 } RgType_t;

enum genie::EScatteringType

Enumerator
kScUnknown
kScNull
kScQuasiElastic
kScSingleKaon
kScDeepInelastic
kScResonant
kScCoherentProduction
kScDiffractive
kScNuElectronElastic
kScInverseMuDecay
kScAMNuGamma
kScMEC
kScCoherentElastic
kScInverseBetaDecay
kScGlashowResonance
kScIMDAnnihilation
kScDarkMatterElastic
kScDarkMatterDeepInelastic
kScDarkMatterElectron

Definition at line 35 of file ScatteringType.h.

                              {
 
   kScUnknown = -100, 
   kScNull = 0,
   kScQuasiElastic,
   kScSingleKaon,
   kScDeepInelastic,
   kScResonant,
   kScCoherentProduction,
   kScDiffractive,
   kScNuElectronElastic,
   kScInverseMuDecay,
   kScAMNuGamma,
   kScMEC,
   kScCoherentElastic,
   kScInverseBetaDecay,
   kScGlashowResonance,
   kScIMDAnnihilation,
   kScDarkMatterElastic = 101,
   kScDarkMatterDeepInelastic,
   kScDarkMatterElectron
 } ScatteringType_t;

enum genie::ESppChannel

Enumerator
kSppNull
kSpp_vp_cc_10100
kSpp_vn_cc_10010
kSpp_vn_cc_01100
kSpp_vp_nc_10010
kSpp_vp_nc_01100
kSpp_vn_nc_01010
kSpp_vn_nc_10001
kSpp_vbn_cc_01001
kSpp_vbp_cc_01010
kSpp_vbp_cc_10001
kSpp_vbp_nc_10010
kSpp_vbp_nc_01100
kSpp_vbn_nc_01010
kSpp_vbn_nc_10001

Definition at line 33 of file SppChannel.h.

                          {
 
   kSppNull = 0,
 
          /* [p,n,pi+,pi0,pi-] */
 
   kSpp_vp_cc_10100,  /* neutrino  CC */
   kSpp_vn_cc_10010,
   kSpp_vn_cc_01100,
 
   kSpp_vp_nc_10010,  /* neutrino NC */
   kSpp_vp_nc_01100,
   kSpp_vn_nc_01010,
   kSpp_vn_nc_10001,
 
   kSpp_vbn_cc_01001,  /* anti-neutrino  CC */
   kSpp_vbp_cc_01010,
   kSpp_vbp_cc_10001,
 
   kSpp_vbp_nc_10010,  /* anti-neutrino NC */
   kSpp_vbp_nc_01100,
   kSpp_vbn_nc_01010,
   kSpp_vbn_nc_10001
 
 } SppChannel_t;

enum genie::EXmlParseStatus

Enumerator
kXmlUndefined
kXmlOK
kXmlNotParsed
kXmlEmpty
kXmlInvalidRoot

Definition at line 23 of file XmlParserStatus.h.

                              {
 
   kXmlUndefined   = -1,
   kXmlOK          =  0,
   kXmlNotParsed   =  1,
   kXmlEmpty       =  2,
   kXmlInvalidRoot =  3
 
 } XmlParserStatus_t;

enum genie::HadronTensorType

Enumerated type that describes the physics represented by a particular hadron tensor

Todo:: Document enum values

Enumerator
kHT_Undefined
kHT_MEC_FullAll
kHT_MEC_Fullpn
kHT_MEC_DeltaAll
kHT_MEC_Deltapn
kHT_MEC_EM
kHT_QE_EM
kHT_MEC_FullAll_Param
kHT_MEC_FullAll_wImag
kHT_QE_Full
kHT_MEC_EM_wImag

Definition at line 38 of file HadronTensorI.h.

                               {
   kHT_Undefined = -1,
   kHT_MEC_FullAll,
   kHT_MEC_Fullpn,
   kHT_MEC_DeltaAll,
   kHT_MEC_Deltapn,
   kHT_MEC_EM,
   kHT_QE_EM,
   kHT_MEC_FullAll_Param,
   kHT_MEC_FullAll_wImag,
   kHT_QE_Full,
   kHT_MEC_EM_wImag
 }

Function Documentation

template<class T >

T genie::GetValueOrUseDefault	(	Registry *	r,
		RgKey	key,
		T	def,
		bool	set_def
	)

Definition at line 51 of file Registry.cxx.

  {
   // Return the requested registry item. If it does not exist return
   // the input default value (in this case, if set_def is true it can
   // override a lock and add the input default as a new registry item)
 
    T value;
    if(r->Exists(key)) {
       if(r->ItemIsLocal(key)) {
          r->Get(key,value);
          return value;
       }
    }
    value = def;
    bool was_locked = r->IsLocked();
    if(was_locked) r->UnLock();
 
    if(set_def) {
       r->Set(key, value);
       r->LinkToGlobalDef(key);
    }
    if(was_locked) r->Lock();
    return value;
  }

bool genie::operator!=	(	const TuneId &	id1,
		const TuneId &	id2
	)

Definition at line 46 of file TuneId.cxx.

   {
     return !id1.Compare(id2);
   }

ostream & genie::operator<<	(	ostream &	stream,
		const RSHelicityAmpl &	hamp
	)

Definition at line 18 of file RSHelicityAmpl.cxx.

   {
      hamp.Print(stream);
      return stream;
   }

ostream & genie::operator<<	(	ostream &	stream,
		const InteractionList &	intl
	)

Definition at line 20 of file InteractionList.cxx.

  {
    intl.Print(stream);
 
    return stream;
  }

ostream & genie::operator<<	(	ostream &	stream,
		const CacheBranchFx &	cbntp
	)

Definition at line 20 of file CacheBranchFx.cxx.

   {
      cbntp.Print(stream);
      return stream;
   }

ostream & genie::operator<<	(	ostream &	stream,
		const EventGeneratorList &	evgl
	)

Definition at line 20 of file EventGeneratorList.cxx.

  {
    evgl.Print(stream);
    return stream;
  }

ostream & genie::operator<<	(	ostream &	stream,
		const PDF &	pdf_set
	)

Definition at line 20 of file PDF.cxx.

   {
      pdf_set.Print(stream);
      return stream;
   }

ostream & genie::operator<<	(	ostream &	stream,
		const GEVGPool &	pool
	)

Definition at line 21 of file GEVGPool.cxx.

  {
    pool.Print(stream);
    return stream;
  }

ostream & genie::operator<<	(	ostream &	stream,
		const AlgId &	algid
	)

Definition at line 22 of file AlgId.cxx.

   {
     algid.Print(stream);
     return stream;
   }

template ostream & genie::operator<<	(	ostream &	stream,
		const RegistryItem< RgBool > &	r
	)

ostream & genie::operator<<	(	ostream &	stream,
		const CacheBranchNtp &	cbntp
	)

Definition at line 22 of file CacheBranchNtp.cxx.

   {
      cbntp.Print(stream);
      return stream;
   }

ostream & genie::operator<<	(	ostream &	stream,
		const NtpMCDTime &	dt
	)

Definition at line 23 of file NtpMCDTime.cxx.

   {
      dt.PrintToStream(stream);
      return stream;
   }

ostream & genie::operator<<	(	ostream &	stream,
		const GHepRecordHistory &	history
	)

Definition at line 25 of file GHepRecordHistory.cxx.

  {
    history.Print(stream);
    return stream;
  }

ostream & genie::operator<<	(	ostream &	stream,
		const GVldContext &	vldc
	)

Definition at line 25 of file GVldContext.cxx.

  {
    vldc.Print(stream);
    return stream;
  }

ostream & genie::operator<<	(	ostream &	stream,
		const XSecAlgorithmMap &	intl
	)

Definition at line 25 of file XSecAlgorithmMap.cxx.

  {
    intl.Print(stream);
    return stream;
  }

ostream & genie::operator<<	(	ostream &	stream,
		const BaryonResList &	res_list
	)

Definition at line 25 of file BaryonResList.cxx.

   {
      res_list.Print(stream);
      return stream;
   }

template ostream& genie::operator<<	(	ostream &	stream,
		const RegistryItem< RgDbl > &	r
	)

ostream & genie::operator<<	(	ostream &	stream,
		const DISStructureFunc &	ff
	)

Definition at line 26 of file DISStructureFunc.cxx.

   {
      ff.Print(stream);
      return stream;
   }

ostream & genie::operator<<	(	ostream &	stream,
		const FKR &	parameters
	)

Definition at line 26 of file FKR.cxx.

   {
      parameters.Print(stream);
      return stream;
   }

ostream & genie::operator<<	(	ostream &	stream,
		const QELFormFactors &	ff
	)

Definition at line 26 of file QELFormFactors.cxx.

   {
      ff.Print(stream);
      return stream;
   }

ostream & genie::operator<<	(	ostream &	stream,
		const GSimFiles &	f
	)

Definition at line 27 of file GSimFiles.cxx.

   {
     f.Print(stream);
     return stream;
   }

ostream & genie::operator<<	(	ostream &	stream,
		const ELFormFactors &	ff
	)

Definition at line 27 of file ELFormFactors.cxx.

   {
      ff.Print(stream);
      return stream;
   }

template ostream& genie::operator<<	(	ostream &	stream,
		const RegistryItem< RgStr > &	r
	)

ostream & genie::operator<<	(	ostream &	stream,
		const PDGCodeList &	list
	)

Definition at line 28 of file PDGCodeList.cxx.

  {
    list.Print(stream);
    return stream;
  }

ostream & genie::operator<<	(	ostream &	stream,
		const AlgFactory &	algf
	)

Definition at line 28 of file AlgFactory.cxx.

   {
     algf.Print(stream);
     return stream;
   }

ostream & genie::operator<<	(	ostream &	stream,
		const Cache &	cache
	)

Definition at line 29 of file Cache.cxx.

 {
   cache.Print(stream);
   return stream;
 }

ostream & genie::operator<<	(	ostream &	stream,
		const NtpMCTreeHeader &	hdr
	)

Definition at line 29 of file NtpMCTreeHeader.cxx.

   {
      hdr.PrintToStream(stream);
      return stream;
   }

template ostream& genie::operator<<	(	ostream &	stream,
		const RegistryItem< RgAlg > &	r
	)

ostream & genie::operator<<	(	ostream &	stream,
		const InteractionGeneratorMap &	intl
	)

Definition at line 30 of file InteractionGeneratorMap.cxx.

  {
    intl.Print(stream);
    return stream;
  }

ostream& genie::operator<<	(	ostream &	stream,
		const NtpMCRecHeader &	hdr
	)

ostream & genie::operator<<	(	ostream &	stream,
		const AxialFormFactor &	ff
	)

Definition at line 30 of file AxialFormFactor.cxx.

   {
      ff.Print(stream);
      return stream;
   }

ostream & genie::operator<<	(	ostream &	stream,
		const Algorithm &	alg
	)

Definition at line 31 of file Algorithm.cxx.

   {
     alg.Print(stream);
     return stream;
   }

template ostream& genie::operator<<	(	ostream &	stream,
		const RegistryItem< RgH1F > &	r
	)

ostream & genie::operator<<	(	ostream &	stream,
		const RunOpt &	opt
	)

Definition at line 32 of file RunOpt.cxx.

 {
   opt.Print(stream);
   return stream;
 }

template ostream& genie::operator<<	(	ostream &	stream,
		const RegistryItem< RgH2F > &	r
	)

ostream & genie::operator<<	(	ostream &	stream,
		const TuneId &	id
	)

Definition at line 35 of file TuneId.cxx.

   {
     id.Print(stream);
     return stream;
   }

ostream& genie::operator<<	(	ostream &	stream,
		const NtpMCEventRecord &	rec
	)

ostream& genie::operator<<	(	ostream &	stream,
		const EventRecord &	event
	)

template ostream& genie::operator<<	(	ostream &	stream,
		const RegistryItem< RgTree > &	r
	)

ostream& genie::operator<<	(	ostream &	stream,
		const Kinematics &	kine
	)

ostream& genie::operator<<	(	ostream &	stream,
		const XclsTag &	xcls
	)

ostream& genie::operator<<	(	ostream &	stream,
		const GHepParticle &	p
	)

ostream & genie::operator<<	(	ostream &	stream,
		const PathLengthList &	list
	)

Definition at line 38 of file PathLengthList.cxx.

  {
    list.Print(stream);
    return stream;
  }

ostream& genie::operator<<	(	ostream &	stream,
		const Target &	t
	)

template<typename T >

ostream & genie::operator<<	(	ostream &	stream,
		const RegistryItem< T > &	rec
	)

Definition at line 40 of file RegistryItem.cxx.

 {
    rec.Print(stream);
    return stream;
 }

ostream & genie::operator<<	(	ostream &	stream,
		const XSecSplineList &	list
	)

Definition at line 40 of file XSecSplineList.cxx.

 {
   list.Print(stream);
   return stream;
 }

ostream & genie::operator<<	(	ostream &	stream,
		const AlgConfigPool &	config_pool
	)

Definition at line 41 of file AlgConfigPool.cxx.

   {
     config_pool.Print(stream);
     return stream;
   }

ostream& genie::operator<<	(	ostream &	stream,
		const ProcessInfo &	proc
	)

ostream& genie::operator<<	(	ostream &	stream,
		const Spline &	spl
	)

ostream & genie::operator<<	(	ostream &	stream,
		const GHepRecord &	rec
	)

Definition at line 46 of file GHepRecord.cxx.

  {
    rec.Print(stream);
    return stream;
  }

ostream& genie::operator<<	(	ostream &	stream,
		const InitialState &	i
	)

ostream & genie::operator<<	(	ostream &	stream,
		const GEVGDriver &	driver
	)

Definition at line 50 of file GEVGDriver.cxx.

  {
    driver.Print(stream);
    return stream;
  }

ostream& genie::operator<<	(	ostream &	stream,
		const Interaction &	i
	)

ostream & genie::operator<<	(	ostream &	stream,
		const Registry &	registry
	)

Definition at line 77 of file Registry.cxx.

  {
    registry.Print(stream);
    return stream;
  }

std::ostream& genie::operator<<	(	std::ostream &	os,
		const SF_info &	a
	)

inline

Definition at line 136 of file HEDISStrucFunc.h.

                                                                     {
 
     return os << '\n'
               << "#--------------------------------------------------------------------------------"    << '\n'
               << "# Metafile that stores information used to generate Structure Functions for HEDIS"   << '\n'
               << "#--------------------------------------------------------------------------------"    << '\n'
               << "# LHAPDF set"    << '\n'
               << a.LHAPDFset     << '\n'
               << "# LHAPDF member" << '\n'
               << a.LHAPDFmember  << '\n'
               << "# NLO"        << '\n' 
               << a.IsNLO         << '\n' 
               << "# Mass Scheme"       << '\n'
               << a.Scheme        << '\n'
               << "# Quark threshold"      << '\n'
               << a.QrkThrs       << '\n'
               << "# NX"       << '\n'
               << a.NGridX        << '\n'
               << "# NQ2"      << '\n'
               << a.NGridQ2       << '\n'
               << "# Xmin"     << '\n'
               << a.XGridMin      << '\n'
               << "# Q2min"    << '\n'
               << a.Q2GridMin     << '\n'
               << "# Q2max"    << '\n'
               << a.Q2GridMax     << '\n'
               << "# Mass W"        << '\n'
               << a.MassW         << '\n'
               << "# Mass Z"        << '\n'
               << a.MassZ         << '\n'
               << "# Rho"          << '\n'
               << a.Rho           << '\n'
               << "# Sin2ThW"      << '\n'
               << a.Sin2ThW       << '\n'
               << "# CKM"          << '\n'
               << a.Vud           << '\n'
               << a.Vus           << '\n'
               << a.Vub           << '\n'
               << a.Vcd           << '\n'
               << a.Vcs           << '\n'
               << a.Vcb           << '\n'
               << a.Vtd           << '\n'
               << a.Vts           << '\n'
               << a.Vtb           << '\n';
 
   }

bool genie::operator==	(	const TuneId &	id1,
		const TuneId &	id2
	)

Definition at line 41 of file TuneId.cxx.

   {
     return id1.Compare(id2);
   }

bool genie::operator==	(	const SF_info &	a,
		const SF_info &	b
	)

inline

Definition at line 58 of file HEDISStrucFunc.h.

                                                               {
     
     if ( a.LHAPDFmember != b.LHAPDFmember   ) return false;
     if ( a.LHAPDFset    != b.LHAPDFset      ) return false;
     if ( a.IsNLO        != b.IsNLO          ) return false;
     if ( a.Scheme       != b.Scheme         ) return false;
     if ( a.QrkThrs      != b.QrkThrs        ) return false;
     if ( a.NGridX       != b.NGridX         ) return false;
     if ( a.NGridQ2      != b.NGridQ2        ) return false;
     if ( abs(a.XGridMin-b.XGridMin)>1e-10   ) return false;
     if ( abs(a.Q2GridMin-b.Q2GridMin)>1e-10 ) return false;
     if ( abs(a.Q2GridMax-b.Q2GridMax)>1e-10 ) return false;
     if ( abs(a.MassW-b.MassW)>1e-10         ) return false;
     if ( abs(a.MassZ-b.MassZ)>1e-10         ) return false;
     if ( abs(a.Rho-b.Rho)>1e-10             ) return false;
     if ( abs(a.Sin2ThW-b.Sin2ThW)>1e-10     ) return false;
     if ( abs(a.Vud-b.Vud)>1e-10             ) return false;
     if ( abs(a.Vus-b.Vus)>1e-10             ) return false;
     if ( abs(a.Vub-b.Vub)>1e-10             ) return false;
     if ( abs(a.Vcd-b.Vcd)>1e-10             ) return false;
     if ( abs(a.Vcs-b.Vcs)>1e-10             ) return false;
     if ( abs(a.Vcb-b.Vcb)>1e-10             ) return false;
     if ( abs(a.Vtd-b.Vtd)>1e-10             ) return false;
     if ( abs(a.Vts-b.Vts)>1e-10             ) return false;
     if ( abs(a.Vtb-b.Vtb)>1e-10             ) return false;
     return true;
 
   }

std::istream& genie::operator>>	(	std::istream &	is,
		SF_info &	a
	)

inline

Definition at line 87 of file HEDISStrucFunc.h.

                                                               {
 
     string saux;
     std::getline (is,saux); //# Header
     std::getline (is,saux); //# Header
     std::getline (is,saux); //# Header
     std::getline (is,saux); //# Header
     std::getline (is,saux); //# LHAPDF set
     std::getline (is,saux); a.LHAPDFset=saux.c_str();
     std::getline (is,saux); //# LHAPDF member
     std::getline (is,saux); a.LHAPDFmember=atoi(saux.c_str());
     std::getline (is,saux); //#NLO
     std::getline (is,saux); a.IsNLO=atoi(saux.c_str());
     std::getline (is,saux); //# Mass scheme
     std::getline (is,saux); a.Scheme=saux.c_str();
     std::getline (is,saux); //# Quark threshold
     std::getline (is,saux); a.QrkThrs=atof(saux.c_str());
     std::getline (is,saux); //# NGridX
     std::getline (is,saux); a.NGridX=atoi(saux.c_str());
     std::getline (is,saux); //# NGridQ2
     std::getline (is,saux); a.NGridQ2=atoi(saux.c_str());
     std::getline (is,saux); //# XGridMin
     std::getline (is,saux); a.XGridMin=atof(saux.c_str());
     std::getline (is,saux); //# Q2min
     std::getline (is,saux); a.Q2GridMin=atof(saux.c_str());
     std::getline (is,saux); //# Q2max
     std::getline (is,saux); a.Q2GridMax=atof(saux.c_str());
     std::getline (is,saux); //# Mass W
     std::getline (is,saux); a.MassW=atof(saux.c_str());
     std::getline (is,saux); //# Mass Z
     std::getline (is,saux); a.MassZ=atof(saux.c_str());
     std::getline (is,saux); //# Rho
     std::getline (is,saux); a.Rho=atof(saux.c_str());
     std::getline (is,saux); //# Sin2ThW
     std::getline (is,saux); a.Sin2ThW=atof(saux.c_str());
     std::getline (is,saux); //# CKM
     std::getline (is,saux); a.Vud=atof(saux.c_str());
     std::getline (is,saux); a.Vus=atof(saux.c_str());
     std::getline (is,saux); a.Vub=atof(saux.c_str());
     std::getline (is,saux); a.Vcd=atof(saux.c_str());
     std::getline (is,saux); a.Vcs=atof(saux.c_str());
     std::getline (is,saux); a.Vcb=atof(saux.c_str());
     std::getline (is,saux); a.Vtd=atof(saux.c_str());
     std::getline (is,saux); a.Vts=atof(saux.c_str());
     std::getline (is,saux); a.Vtb=atof(saux.c_str());
     return is;
 
   }

template<class T >

void genie::SetRegistryItem	(	Registry *	r,
		RgKey	key,
		T	item
	)

Definition at line 39 of file Registry.cxx.

  {
     string itemtype = typeid(item).name();
     LOG("Registry", pINFO)
              << "Set item [" << itemtype << "]: key = "
                                       << key << " --> value = " << item;
     bool lock = r->ItemIsLocked(key); // store, could be true but inhibited
     RegistryItem<T> * reg_item = new RegistryItem<T>(item,lock);
     RgIMapPair config_entry(key, reg_item);
     r->Set(config_entry);
  }

Variable Documentation

bool genie::gAbortingInErr = false

Definition at line 34 of file Messenger.cxx.

const string genie::gDefaultTune = "G18_02a_00_000"

static

Definition at line 29 of file RunOpt.cxx.

const UInt_t genie::kIAssumeFreeElectron = 1<<15

Definition at line 50 of file Interaction.h.

const UInt_t genie::kIAssumeFreeNucleon = 1<<15

Definition at line 49 of file Interaction.h.

const UInt_t genie::kINoNuclearCorrection = 1<<14

if set, inhibit nuclear corrections

Definition at line 51 of file Interaction.h.

const UInt_t genie::kISkipKinematicChk = 1<<16

if set, skip kinematic validity checks

Definition at line 48 of file Interaction.h.

const UInt_t genie::kISkipProcessChk = 1<<17

if set, skip process validity checks

Definition at line 47 of file Interaction.h.

const int genie::kPdgAntiBQuark = -5

Definition at line 51 of file PDGCodes.h.

const int genie::kPdgAntiCQuark = -4

Definition at line 49 of file PDGCodes.h.

const int genie::kPdgAntiD0 = -421

Definition at line 184 of file PDGCodes.h.

const int genie::kPdgAntiDarkMatter = -2000010000

Definition at line 219 of file PDGCodes.h.

const int genie::kPdgAntiDarkNeutrino = -2000030000

Definition at line 223 of file PDGCodes.h.

const int genie::kPdgAntiDQuark = -1

Definition at line 45 of file PDGCodes.h.

const int genie::kPdgAntiK0 = -311

Definition at line 175 of file PDGCodes.h.

const int genie::kPdgAntiLambda = -3122

Definition at line 86 of file PDGCodes.h.

const int genie::kPdgAntiMuon = -13

Definition at line 38 of file PDGCodes.h.

const int genie::kPdgAntiNeutron = -2112

Definition at line 84 of file PDGCodes.h.

const int genie::kPdgAntiNuE = -12

Definition at line 29 of file PDGCodes.h.

const int genie::kPdgAntiNuMu = -14

Definition at line 31 of file PDGCodes.h.

const int genie::kPdgAntiNuTau = -16

Definition at line 33 of file PDGCodes.h.

const int genie::kPdgAntiOmegaP = -3334

Definition at line 98 of file PDGCodes.h.

const int genie::kPdgAntiProton = -2212

Definition at line 82 of file PDGCodes.h.

const int genie::kPdgAntiSigma0 = -3212

Definition at line 91 of file PDGCodes.h.

const int genie::kPdgAntiSigmaM = -3112

Definition at line 92 of file PDGCodes.h.

const int genie::kPdgAntiSigmaP = -3222

Definition at line 90 of file PDGCodes.h.

const int genie::kPdgAntiSQuark = -3

Definition at line 47 of file PDGCodes.h.

const int genie::kPdgAntiTau = -15

Definition at line 40 of file PDGCodes.h.

const int genie::kPdgAntiTQuark = -6

Definition at line 53 of file PDGCodes.h.

const int genie::kPdgAntiUQuark = -2

Definition at line 43 of file PDGCodes.h.

const int genie::kPdgAntiXi0 = -3322

Definition at line 95 of file PDGCodes.h.

const int genie::kPdgAntiXiP = -3312

Definition at line 96 of file PDGCodes.h.

const int genie::kPdgBBDiquarkS1 = 5503

Definition at line 79 of file PDGCodes.h.

const int genie::kPdgBCDiquarkS0 = 5401

Definition at line 77 of file PDGCodes.h.

const int genie::kPdgBCDiquarkS1 = 5403

Definition at line 78 of file PDGCodes.h.

const int genie::kPdgBDDiquarkS0 = 5101

Definition at line 71 of file PDGCodes.h.

const int genie::kPdgBDDiquarkS1 = 5103

Definition at line 72 of file PDGCodes.h.

const int genie::kPdgBindino = 2000000101

Definition at line 212 of file PDGCodes.h.

const int genie::kPdgBQuark = 5

Definition at line 50 of file PDGCodes.h.

const int genie::kPdgBSDiquarkS0 = 5301

Definition at line 75 of file PDGCodes.h.

const int genie::kPdgBSDiquarkS1 = 5303

Definition at line 76 of file PDGCodes.h.

const int genie::kPdgBUDiquarkS0 = 5201

Definition at line 73 of file PDGCodes.h.

const int genie::kPdgBUDiquarkS1 = 5203

Definition at line 74 of file PDGCodes.h.

const int genie::kPdgCCDiquarkS1 = 4403

Definition at line 70 of file PDGCodes.h.

const int genie::kPdgCDDiquarkS0 = 4101

Definition at line 64 of file PDGCodes.h.

const int genie::kPdgCDDiquarkS1 = 4103

Definition at line 65 of file PDGCodes.h.

const int genie::kPdgCluster = 91

Definition at line 229 of file PDGCodes.h.

const int genie::kPdgClusterNN = 2000000200

Definition at line 214 of file PDGCodes.h.

const int genie::kPdgClusterNP = 2000000201

Definition at line 215 of file PDGCodes.h.

const int genie::kPdgClusterPP = 2000000202

Definition at line 216 of file PDGCodes.h.

const int genie::kPdgCompNuclCluster = 2000000300

Definition at line 217 of file PDGCodes.h.

const int genie::kPdgCoulobtron = 2000000102

Definition at line 213 of file PDGCodes.h.

const int genie::kPdgCQuark = 4

Definition at line 48 of file PDGCodes.h.

const int genie::kPdgCSDiquarkS0 = 4301

Definition at line 68 of file PDGCodes.h.

const int genie::kPdgCSDiquarkS1 = 4303

Definition at line 69 of file PDGCodes.h.

const int genie::kPdgCUDiquarkS0 = 4201

Definition at line 66 of file PDGCodes.h.

const int genie::kPdgCUDiquarkS1 = 4203

Definition at line 67 of file PDGCodes.h.

const int genie::kPdgD0 = 421

Definition at line 183 of file PDGCodes.h.

const int genie::kPdgD13m1520_N0 = 102114

Definition at line 110 of file PDGCodes.h.

const int genie::kPdgD13m1520_NP = 102214

Definition at line 111 of file PDGCodes.h.

const int genie::kPdgD13m1700_N0 = 112114

Definition at line 114 of file PDGCodes.h.

const int genie::kPdgD13m1700_NP = 112214

Definition at line 115 of file PDGCodes.h.

const int genie::kPdgD15m1675_N0 = 102116

Definition at line 116 of file PDGCodes.h.

const int genie::kPdgD15m1675_NP = 102216

Definition at line 117 of file PDGCodes.h.

const int genie::kPdgD33m1700_Delta0 = 122114

Definition at line 123 of file PDGCodes.h.

const int genie::kPdgD33m1700_DeltaM = 121114

Definition at line 122 of file PDGCodes.h.

const int genie::kPdgD33m1700_DeltaP = 122214

Definition at line 124 of file PDGCodes.h.

const int genie::kPdgD33m1700_DeltaPP = 122224

Definition at line 125 of file PDGCodes.h.

const int genie::kPdgDarkMatter = 2000010000

Definition at line 218 of file PDGCodes.h.

const int genie::kPdgDarkNeutrino = 2000030000

Definition at line 222 of file PDGCodes.h.

const int genie::kPdgDDDiquarkS1 = 1103

Definition at line 55 of file PDGCodes.h.

const int genie::kPdgDM = -411

Definition at line 182 of file PDGCodes.h.

const int genie::kPdgDMs = -431

Definition at line 186 of file PDGCodes.h.

const int genie::kPdgDNuMediator = 2000030001

Definition at line 224 of file PDGCodes.h.

const int genie::kPdgDP = 411

Definition at line 181 of file PDGCodes.h.

const int genie::kPdgDPs = 431

Definition at line 185 of file PDGCodes.h.

const int genie::kPdgDQuark = 1

Definition at line 44 of file PDGCodes.h.

const int genie::kPdgElectron = 11

Definition at line 35 of file PDGCodes.h.

const int genie::kPdgEta = 221

Definition at line 161 of file PDGCodes.h.

const int genie::kPdgEtab = 551

Definition at line 164 of file PDGCodes.h.

const int genie::kPdgEtac = 441

Definition at line 163 of file PDGCodes.h.

const int genie::kPdgEtaPrm = 331

Definition at line 162 of file PDGCodes.h.

const int genie::kPdgF15m1680_N0 = 202116

Definition at line 134 of file PDGCodes.h.

const int genie::kPdgF15m1680_NP = 202216

Definition at line 135 of file PDGCodes.h.

const int genie::kPdgF17m1970_N0 = 212118

Definition at line 154 of file PDGCodes.h.

const int genie::kPdgF17m1970_NP = 212218

Definition at line 155 of file PDGCodes.h.

const int genie::kPdgF35m1905_Delta0 = 212116

Definition at line 145 of file PDGCodes.h.

const int genie::kPdgF35m1905_DeltaM = 211116

Definition at line 144 of file PDGCodes.h.

const int genie::kPdgF35m1905_DeltaP = 212216

Definition at line 146 of file PDGCodes.h.

const int genie::kPdgF35m1905_DeltaPP = 212226

Definition at line 147 of file PDGCodes.h.

const int genie::kPdgF37m1950_Delta0 = 202118

Definition at line 149 of file PDGCodes.h.

const int genie::kPdgF37m1950_DeltaM = 201118

Definition at line 148 of file PDGCodes.h.

const int genie::kPdgF37m1950_DeltaP = 202218

Definition at line 150 of file PDGCodes.h.

const int genie::kPdgF37m1950_DeltaPP = 202228

Definition at line 151 of file PDGCodes.h.

const int genie::kPdgGamma = 22

Definition at line 189 of file PDGCodes.h.

const int genie::kPdgGluon = 21

Definition at line 188 of file PDGCodes.h.

const int genie::kPdgHadronicBlob = 2000000002

Definition at line 211 of file PDGCodes.h.

const int genie::kPdgHadronicSyst = 2000000001

Definition at line 210 of file PDGCodes.h.

const int genie::kPdgIndep = 93

Definition at line 231 of file PDGCodes.h.

const int genie::kPdgJpsi = 443

Definition at line 170 of file PDGCodes.h.

const int genie::kPdgK0 = 311

Definition at line 174 of file PDGCodes.h.

const int genie::kPdgK0L = 130

Definition at line 176 of file PDGCodes.h.

const int genie::kPdgK0S = 310

Definition at line 177 of file PDGCodes.h.

const int genie::kPdgKM = -321

Definition at line 173 of file PDGCodes.h.

const int genie::kPdgKP = 321

Definition at line 172 of file PDGCodes.h.

const int genie::kPdgKStar0 = 313

Definition at line 180 of file PDGCodes.h.

const int genie::kPdgKStarM = -323

Definition at line 179 of file PDGCodes.h.

const int genie::kPdgKStarP = 323

Definition at line 178 of file PDGCodes.h.

const int genie::kPdgLambda = 3122

Definition at line 85 of file PDGCodes.h.

const int genie::kPdgLambdaPc = 4122

Definition at line 99 of file PDGCodes.h.

const int genie::kPdgMediator = 2000010001

Definition at line 220 of file PDGCodes.h.

const int genie::kPdgMuon = 13

Definition at line 37 of file PDGCodes.h.

const int genie::kPdgNeutron = 2112

Definition at line 83 of file PDGCodes.h.

const int genie::kPdgNHL = 2000020000

Definition at line 221 of file PDGCodes.h.

const int genie::kPdgNuE = 12

Definition at line 28 of file PDGCodes.h.

const int genie::kPdgNuMu = 14

Definition at line 30 of file PDGCodes.h.

const int genie::kPdgNuTau = 16

Definition at line 32 of file PDGCodes.h.

const int genie::kPdgomega = 223

Definition at line 168 of file PDGCodes.h.

const int genie::kPdgOmegaM = 3334

Definition at line 97 of file PDGCodes.h.

const int genie::kPdgP11m1440_N0 = 202112

Definition at line 126 of file PDGCodes.h.

const int genie::kPdgP11m1440_NP = 202212

Definition at line 127 of file PDGCodes.h.

const int genie::kPdgP11m1710_N0 = 212112

Definition at line 152 of file PDGCodes.h.

const int genie::kPdgP11m1710_NP = 212212

Definition at line 153 of file PDGCodes.h.

const int genie::kPdgP13m1720_N0 = 202114

Definition at line 132 of file PDGCodes.h.

const int genie::kPdgP13m1720_NP = 202214

Definition at line 133 of file PDGCodes.h.

const int genie::kPdgP31m1910_Delta0 = 222112

Definition at line 137 of file PDGCodes.h.

const int genie::kPdgP31m1910_DeltaM = 221112

Definition at line 136 of file PDGCodes.h.

const int genie::kPdgP31m1910_DeltaP = 222212

Definition at line 138 of file PDGCodes.h.

const int genie::kPdgP31m1910_DeltaPP = 222222

Definition at line 139 of file PDGCodes.h.

const int genie::kPdgP33m1232_Delta0 = 2114

Definition at line 105 of file PDGCodes.h.

const int genie::kPdgP33m1232_DeltaM = 1114

Definition at line 104 of file PDGCodes.h.

const int genie::kPdgP33m1232_DeltaP = 2214

Definition at line 106 of file PDGCodes.h.

const int genie::kPdgP33m1232_DeltaPP = 2224

Definition at line 107 of file PDGCodes.h.

const int genie::kPdgP33m1600_Delta0 = 212114

Definition at line 129 of file PDGCodes.h.

const int genie::kPdgP33m1600_DeltaM = 211114

Definition at line 128 of file PDGCodes.h.

const int genie::kPdgP33m1600_DeltaP = 212214

Definition at line 130 of file PDGCodes.h.

const int genie::kPdgP33m1600_DeltaPP = 212224

Definition at line 131 of file PDGCodes.h.

const int genie::kPdgP33m1920_Delta0 = 222114

Definition at line 141 of file PDGCodes.h.

const int genie::kPdgP33m1920_DeltaM = 221114

Definition at line 140 of file PDGCodes.h.

const int genie::kPdgP33m1920_DeltaP = 222214

Definition at line 142 of file PDGCodes.h.

const int genie::kPdgP33m1920_DeltaPP = 222224

Definition at line 143 of file PDGCodes.h.

const int genie::kPdgPhi = 333

Definition at line 169 of file PDGCodes.h.

const int genie::kPdgPi0 = 111

Definition at line 160 of file PDGCodes.h.

const int genie::kPdgPiM = -211

Definition at line 159 of file PDGCodes.h.

const int genie::kPdgPiP = 211

Definition at line 158 of file PDGCodes.h.

const int genie::kPdgPositron = -11

Definition at line 36 of file PDGCodes.h.

const int genie::kPdgProton = 2212

Definition at line 81 of file PDGCodes.h.

const int genie::kPdgRho0 = 113

Definition at line 167 of file PDGCodes.h.

const int genie::kPdgRhoM = -213

Definition at line 166 of file PDGCodes.h.

const int genie::kPdgRhoP = 213

Definition at line 165 of file PDGCodes.h.

const int genie::kPdgS11m1535_N0 = 102112

Definition at line 108 of file PDGCodes.h.

const int genie::kPdgS11m1535_NP = 102212

Definition at line 109 of file PDGCodes.h.

const int genie::kPdgS11m1650_N0 = 132112

Definition at line 112 of file PDGCodes.h.

const int genie::kPdgS11m1650_NP = 132212

Definition at line 113 of file PDGCodes.h.

const int genie::kPdgS31m1620_Delta0 = 112112

Definition at line 119 of file PDGCodes.h.

const int genie::kPdgS31m1620_DeltaM = 111112

Definition at line 118 of file PDGCodes.h.

const int genie::kPdgS31m1620_DeltaP = 112212

Definition at line 120 of file PDGCodes.h.

const int genie::kPdgS31m1620_DeltaPP = 112222

Definition at line 121 of file PDGCodes.h.

const int genie::kPdgSDDiquarkS0 = 3101

Definition at line 59 of file PDGCodes.h.

const int genie::kPdgSDDiquarkS1 = 3103

Definition at line 60 of file PDGCodes.h.

const int genie::kPdgSigma0 = 3212

Definition at line 88 of file PDGCodes.h.

const int genie::kPdgSigma0c = 4112

Definition at line 100 of file PDGCodes.h.

const int genie::kPdgSigmaM = 3112

Definition at line 89 of file PDGCodes.h.

const int genie::kPdgSigmaP = 3222

Definition at line 87 of file PDGCodes.h.

const int genie::kPdgSigmaPc = 4212

Definition at line 101 of file PDGCodes.h.

const int genie::kPdgSigmaPPc = 4222

Definition at line 102 of file PDGCodes.h.

const int genie::kPdgSQuark = 3

Definition at line 46 of file PDGCodes.h.

const int genie::kPdgSSDiquarkS1 = 3303

Definition at line 63 of file PDGCodes.h.

const int genie::kPdgString = 92

Definition at line 230 of file PDGCodes.h.

const int genie::kPdgSUDiquarkS0 = 3201

Definition at line 61 of file PDGCodes.h.

const int genie::kPdgSUDiquarkS1 = 3203

Definition at line 62 of file PDGCodes.h.

const int genie::kPdgTau = 15

Definition at line 39 of file PDGCodes.h.

const int genie::kPdgTgtC12 = 1000060120

Definition at line 202 of file PDGCodes.h.

const int genie::kPdgTgtCa40 = 1000200400

Definition at line 204 of file PDGCodes.h.

const int genie::kPdgTgtDeuterium = 1000010020

Definition at line 201 of file PDGCodes.h.

const int genie::kPdgTgtFe56 = 1000260560

Definition at line 205 of file PDGCodes.h.

const int genie::kPdgTgtFreeN = 1000000010

Definition at line 200 of file PDGCodes.h.

const int genie::kPdgTgtFreeP = 1000010010

Definition at line 199 of file PDGCodes.h.

const int genie::kPdgTgtO16 = 1000080160

Definition at line 203 of file PDGCodes.h.

const int genie::kPdgTQuark = 6

Definition at line 52 of file PDGCodes.h.

const int genie::kPdgUDDiquarkS0 = 2101

Definition at line 56 of file PDGCodes.h.

const int genie::kPdgUDDiquarkS1 = 2103

Definition at line 57 of file PDGCodes.h.

const int genie::kPdgUQuark = 2

Definition at line 42 of file PDGCodes.h.

const int genie::kPdgUUDiquarkS1 = 2203

Definition at line 58 of file PDGCodes.h.

const int genie::kPdgWM = -24

Definition at line 192 of file PDGCodes.h.

const int genie::kPdgWP = 24

Definition at line 191 of file PDGCodes.h.

const int genie::kPdgXi0 = 3322

Definition at line 93 of file PDGCodes.h.

const int genie::kPdgXiM = 3312

Definition at line 94 of file PDGCodes.h.

const int genie::kPdgY = 553

Definition at line 171 of file PDGCodes.h.

const int genie::kPdgZ0 = 23

Definition at line 190 of file PDGCodes.h.

Namespaces

Classes

Typedefs

Enumerations

Functions

Variables

Detailed Description

Typedef Documentation

Enumeration Type Documentation

Function Documentation

Variable Documentation