This class implements a small container which holds the transmissibility mulitpliers for all the faces in the grid. More...

Namespaces
namespace	cmp
	In the namespace cmp are implemented functions for approximate comparison of double values based on absolute and relative difference.
namespace	RawConsts
	Consts used in the non semantic, raw parsing of the eclipse file.
namespace	prefix
	Conversion prefix for units.
namespace	unit
	Definition of various units.
namespace	DifferentiateOutputTable
	Apply piecewise linear differentiation (i.e., compute slopes) on a set of dependent variables in a linearised output table.

Classes
class	NotImplemented
class	NumericalProblem
class	ConvergenceMonitorFailure
class	MaterialLawProblem
class	LinearSolverProblem
class	TooManyIterations
class	TimeSteppingBreakdown
class	ReservoirCouplingError
class	CounterLog
	Provides a simple sytem for log message which are found by the Parser/Deck/EclipseState classes during processing the deck. More...
class	EclipsePRTLog
class	InfoLogger
class	KeywordLocation
class	LogBackend
	Abstract interface class for log backends. More...
class	Logger
class	MessageFormatterInterface
	Abstract interface for message formatting classes. More...
class	SimpleMessageFormatter
	A simple formatter capable of adding message prefixes and colors. More...
class	MessageLimiter
	Handles limiting the number of messages with the same tag. More...
class	OpmLog
class	StreamLog
class	TimerLog
class	ActiveGridCells
	Simple class capturing active cells of a grid. More...
class	MonotCubicInterpolator
	Class to represent a one-dimensional function f with single-valued argument x. More...
class	NonuniformTableLinear
	This class uses linear interpolation to compute the value (and its derivative) of a function f sampled at possibly nonuniform points. More...
struct	ThrowOnError
struct	WarnAndContinueOnError
struct	ContinueOnError
class	RegulaFalsi
class	RegulaFalsiBisection
class	SparseVector
	A SparseVector stores a vector with possibly many empty elements as efficiently as possible. More...
class	UniformTableLinear
	This class uses linear interpolation to compute the value (and its derivative) of a function f sampled at uniform points. More...
class	OpmInputError
class	Parameter
struct	ParameterMapItemTrait< int >
struct	ParameterMapItemTrait< double >
struct	ParameterMapItemTrait< bool >
struct	ParameterMapItemTrait< std::string >
struct	ParameterMapItemTrait< ParameterGroup >
struct	ParameterMapItem
	The parameter handlig system is structured as a tree, where each node inhertis from ParameterMapItem. More...
struct	ParameterMapItemTrait
struct	ParameterRequirementNone
struct	ParameterRequirementProbability
struct	ParameterRequirementPositive
struct	ParameterRequirementNegative
struct	ParameterRequirementNonPositive
struct	ParameterRequirementNonNegative
struct	ParameterRequirementNonZero
struct	ParameterRequirementNonEmpty
struct	ParameterRequirementAnd
struct	ParameterRequirementMemberOf
class	Serializer
	Class for (de-)serializing. More...
class	SymmTensor
class	ThreadSafeMapBuilder
class	TimeStampUTC
struct	VisitorOverloadSet
	Helper struct for for generating visitor overload sets. More...
struct	MonoThrowHandler
	A functor for handling a monostate in a visitor overload set. More...
class	VoigtContainer
class	VoigtArray
class	Deck
class	DeckItem
class	DeckKeyword
class	DeckOutput
class	DeckRecord
class	DeckSection
class	RUNSPECSection
class	GRIDSection
class	EDITSection
class	PROPSSection
class	REGIONSSection
class	SOLUTIONSection
class	SUMMARYSection
class	SCHEDULESection
class	DeckTree
class	DeckValue
class	DeckView
class	FileDeck
class	ImportContainer
class	UDAValue
class	Aquancon
class	AquiferConfig
class	AquiferCT
struct	SingleAquiferFlux
class	AquiferFlux
class	Aquifetp
struct	NumericalAquiferCell
struct	NumericalAquiferConnection
class	NumericalAquifers
struct	AquiferCellProps
class	SingleNumericalAquifer
class	Co2StoreConfig
class	CompositionalConfig
class	EclipseConfig
class	EclipseState
class	EndpointScaling
class	GenericSpeciesConfig
class	IonExchangeConfig
class	MineralConfig
class	SpeciesConfig
class	Box
class	BoxManager
class	Carfin
class	CarfinManager
class	EclipseGrid
	About cell information and dimension: The actual grid information is held in a pointer to an ERT ecl_grid_type instance. More...
class	EclipseGridLGR
	Specialized Class to describe LGR refined cells. More...
class	CoordMapper
class	ZcornMapper
class	Fault
class	FaultCollection
class	FaultFace
class	FieldProps
class	FieldPropsManager
class	FIPRegionStatistics
	Basic descriptive statistics about a model's fluid-in-place regions. More...
class	GridDims
class	LgrCollection
class	MapAxes
struct	MULTREGTRecord
class	MULTREGTScanner
struct	NNCdata
class	NNC
class	NNCDataContainer
class	NNCDataContainerDiffGrid
class	NNCCollection
class	RegionSetMatchResult
	Result Set From RegionSetMatcher's Matching Process. More...
class	GridProperty
class	TransMult
class	EquilRecord
class	StressEquilRecord
class	EquilContainer
class	FoamData
	Foam behaviour data for a single SATNUM region. More...
class	FoamConfig
	Foam behaviour data for all SATNUM regions. More...
class	InitConfig
	Settings for model initialisation. More...
class	FIPConfig
	Class holding FIP configuration from RPTSOL/RPTSCHED keyword. More...
class	IOConfig
class	Phases
class	Welldims
class	WellSegmentDims
class	NetworkDims
class	AquiferDimensions
class	EclHysterConfig
class	SatFuncControls
class	Nupcol
class	MechSolver
class	Tracers
class	Geochem
class	Runspec
class	BCConfig
class	RockConfig
class	SimulationConfig
class	ThresholdPressure
class	SummaryConfigNode
	Definition of a single summary vector. More...
class	SummaryConfig
	Collection of run's summary vectors. More...
class	Aqudims
class	AqutabTable
class	BiofilmTable
class	BrineDensityTable
class	ColumnSchema
class	DenT
class	DiffMICPTable
class	EnkrvdTable
class	EnptvdTable
class	Eqldims
struct	EzrokhiRecord
class	EzrokhiTable
struct	FlatTable
class	FlatTableWithCopy
struct	GRAVITYRecord
struct	GravityTable
struct	DENSITYRecord
struct	DensityTable
struct	DiffCoeffRecord
struct	DiffCoeffTable
struct	DiffCoeffWatRecord
struct	DiffCoeffWatTable
struct	DiffCoeffGasRecord
struct	DiffCoeffGasTable
struct	PVTWRecord
struct	PvtwTable
struct	ROCKRecord
struct	RockTable
struct	PVCDORecord
struct	PvcdoTable
struct	PlmixparRecord
struct	PlmixparTable
struct	PlyvmhRecord
struct	PlyvmhTable
struct	ShrateRecord
struct	ShrateTable
struct	Stone1exRecord
struct	Stone1exTable
struct	TlmixparRecord
struct	TlmixparTable
struct	VISCREFRecord
struct	ViscrefTable
struct	WATDENTRecord
struct	WatdentTable
struct	SatFuncLETRecord
struct	SwofletTable
struct	SgofletTable
class	FoamadsTable
class	FoammobTable
class	GasvisctTable
class	GsfTable
class	ImkrvdTable
class	ImptvdTable
class	JFunc
class	JouleThomson
class	MiscTable
class	MsfnTable
class	OilvisctTable
class	OverburdTable
class	PbvdTable
class	PcfactTable
class	PdvdTable
class	PermfactTable
class	PlyadsTable
class	PlydhflfTable
class	PlymaxTable
class	PlymwinjTable
class	PlyrockTable
class	PlyshlogTable
class	PlyviscTable
class	PmiscTable
class	PolyInjTable
struct	PpcwmaxRecord
class	Ppcwmax
class	PvdgTable
class	PvdoTable
class	PvdsTable
class	PvtgTable
class	PvtgwoTable
class	PvtgwTable
class	PvtoTable
class	PvtsolTable
class	PvtwsaltTable
class	PvtxTable
	Base class for PVTG and PVTO tables. More...
class	Regdims
class	Rock2dTable
class	Rock2dtrTable
class	RocktabTable
class	RockwnodTable
class	RsconstTable
class	RsvdTable
class	RtempvdTable
class	RvvdTable
class	RvwvdTable
class	RwgsaltTable
class	SaltpvdTable
class	SaltsolTable
class	SaltvdTable
class	SgcwmisTable
class	SgfnTable
class	SgofTable
class	SgwfnTable
class	SimpleTable
class	SkprpolyTable
class	SkprwatTable
class	SlgofTable
class	Sof2Table
class	Sof3Table
class	SolventDensityTable
class	SorwmisTable
class	SpecheatTable
class	SpeciesVdTable
class	SpecrockTable
class	SsfnTable
struct	StandardCond
class	SwfnTable
class	SwofTable
class	Tabdims
class	TableColumn
class	TableContainer
	The TableContainer class implements a simple map: More...
class	TableIndex
class	TableManager
class	TableSchema
struct	TLMixRecord
class	TLMixpar
class	TlpmixpaTable
class	TracerVdTable
	A class that contains tracer concentration vs depth table. More...
class	WatvisctTable
class	WsfTable
class	ZmfvdTable
class	TracerConfig
class	IOrderSet
	Set of elements which preserves order of element insertion. More...
class	OrderedMap
	A map with iteration in the order of insertion. More...
class	WagHysteresisConfig
class	KeywordGenerator
class	KeywordLoader
class	ErrorGuard
class	ParseContext
	Control parser behaviour in failure conditions. More...
class	Parser
	The hub of the parsing process. More...
class	ParserItem
class	KeywordSize
class	ParserKeyword
class	ParserRecord
class	RawKeyword
class	RawRecord
	Class representing the lowest level of the Raw datatypes, a record. More...
struct	fortran_double
class	StarToken
class	Python
class	PythonInterp
class	Actdims
struct	SimulatorUpdate
	This struct is used to communicate back from the Schedule::applyAction() what needs to be updated in the simulator when execution is returned to the simulator code. More...
struct	MechBCValue
class	BCProp
class	CompletedCells
	Sparse collection of cells, and their properties, intersected by one or more well connections. More...
class	Events
	Events tied to a time and applicable to the simulation or an individual well or group. More...
class	WellGroupEvents
	Collection of events tied to a time and associated to specific, named wells or groups. More...
class	GasLiftGroup
	Gas lift optimisation parameters at the group level. More...
class	GasLiftWell
	Gas lift and gas lift optimisation parameters at the well level. More...
class	GasLiftOpt
	Gas lift optimisation parameters for all wells and groups. More...
class	GConSale
class	GConSump
class	GPMaint
class	Group
class	GroupEconProductionLimits
class	GroupSatelliteInjection
	Group level satellite production. More...
class	GSatProd
	Group level satellite production. More...
class	GTNode
class	GuideRate
class	GuideRateConfig
class	GuideRateModel
class	HandlerContext
class	KeywordHandlers
	Singleton class for Keyword handlers in Schedule. More...
class	MessageLimits
class	AutoICD
class	Segment
class	SegmentSet
	Result Set From SegmentMatcher's Matching Process. More...
class	SICD
struct	ValveUDAEval
class	Valve
class	WellSegments
class	WelSegsSet
class	OilVaporizationProperties
class	RFTConfig
class	RPTConfig
	Configuration manager for RPTSCHED and RPTSOL keywords. More...
class	RPTKeywordNormalisation
	Normalise disparate input sources into sequence of report keyword mnemonics and associate values. More...
class	RSTConfig
class	Schedule
class	ScheduleBlock
struct	ScheduleDeckContext
class	ScheduleDeck
	All SCHEDULE section keywords in a simulation run. More...
class	ScheduleGrid
	Collection of intersected cells and associate properties for all simulation grids, i.e., the main grid and all LGRs in the simulation run. More...
struct	ScheduleRestartInfo
class	ScheduleState
struct	ScheduleStatic
	Initial state of Schedule object created from information in SOLUTION section. More...
class	WellType
class	SimpleRPTIntegerControlHandler
	Report keyword integer control handler from sequence of mnemonic strings. More...
class	Source
class	SummaryState
class	NextStep
struct	Tuning
struct	TuningDp
class	UDQActive
	Internalised representation of all UDAs in a simulation run. More...
class	UDQAssign
	Representation of a UDQ ASSIGN statement. More...
class	UDQASTNode
class	UDQConfig
	Collection of all user-defined quantities in the current simulation run. More...
class	UDQContext
class	UDQDefine
class	UDQFunction
class	UDQScalarFunction
class	UDQUnaryElementalFunction
class	UDQBinaryFunction
class	UDQFunctionTable
class	UDQIndex
class	UDQInput
class	UDQParams
class	UDQScalar
class	UDQSet
class	UDQState
class	UDQToken
class	UDT
class	VFPInjTable
class	VFPProdTable
	Class for reading data from a VFPPROD (vertical flow performance production) table. More...
class	Connection
struct	FilterCake
class	NameOrder
class	GroupOrder
	Collection of group names with built-in ordering. More...
class	PAvg
class	PAvgDynamicSourceData
	Dynamic source data for block-average pressure calculations. More...
class	PAvgCalculatorResult
	Result of block-averaging well pressure procedure. More...
class	PAvgCalculator
	Facility for deriving well-level pressure values from selected block-averaging procedures. More...
class	PAvgCalculatorCollection
	Collection of WBPn calculation objects, one for each well. More...
class	WCYCLE
class	WDFAC
class	Well
struct	WellBrineProperties
class	WellConnections
class	WellEconProductionLimits
struct	WellFoamProperties
class	WellFractureSeeds
	Fracture seed points attached to a single well. More...
struct	WellInjectionControls
struct	WellMICPProperties
struct	WellPolymerProperties
struct	WellProductionControls
class	WellTestConfig
class	WellTestState
class	WellTracerProperties
struct	WellTrajInfo
struct	InjMult
class	WList
	Named sequence of wells. More...
class	WListManager
	Collection of run's known well lists. More...
class	WVFPDP
class	WVFPEXP
class	WriteRestartFileEvents
class	Dimension
class	UnitSystem
class	RawString
class	ConditionalStorage
	A simple class which only stores a given member attribute if a boolean condition is true. More...
class	ConditionalStorage< false, T >
class	EnsureFinalized
	Default implementation for asserting finalization of parameter objects. More...
class	FastSmallVector
	An implementation of vector/array based on small object optimization. More...
class	IntervalTabulated2DFunction
	Implements a function that depends on two variables. More...
struct	MathToolbox
struct	ReturnEval_
class	Spline
	Class implementing cubic splines. More...
struct	SegmentIndex
class	Tabulated1DFunction
	Implements a linearly interpolated scalar function that depends on one variable. More...
class	TridiagonalMatrix
	Provides a tridiagonal matrix that also supports non-zero entries in the upper right and lower left. More...
class	UniformTabulated2DFunction
	Implements a scalar function that depends on two variables and which is sampled on an uniform X-Y grid. More...
class	UniformXTabulated2DFunction
	Implements a scalar function that depends on two variables and which is sampled uniformly in the X direction, but non-uniformly on the Y axis-. More...
class	Air
	A simple class implementing the fluid properties of air. More...
class	Brine
	A class for the brine fluid properties. More...
class	BrineDynamic
	A class for the brine fluid properties. More...
class	C1
	Properties of pure molecular methane . More...
class	C10
	Properties of pure molecular n-Decane . More...
class	CO2
	A class for the CO2 fluid properties. More...
struct	co2TabulatedDensityTraits
struct	co2TabulatedEnthalpyTraits
class	CO2Tables
class	Component
	Abstract base class of a pure chemical species. More...
class	DNAPL
	A simple implementation of a dense non-aqueous phase liquid (DNAPL). More...
struct	H2Tables
struct	H2TabulatedDensityTraits
struct	H2TabulatedEnthalpyTraits
class	H2
	Properties of pure molecular hydrogen . More...
class	H2O
	Material properties of pure water . More...
class	LNAPL
	A simple implementation of a LNAPL, e.g. More...
class	Mesitylene
	Component for Mesitylene. More...
class	N2
	Properties of pure molecular nitrogen . More...
class	NullComponent
	A component that only throws exceptions. More...
class	SimpleCO2
	A simplistic class representing the fluid properties. More...
class	SimpleH2
	Properties of pure molecular hydrogen . More...
class	SimpleH2O
	A simple version of pure water. More...
class	SimpleHuDuanH2O
	A simple version of pure water with density from Hu et al. More...
struct	TabulatedComponentData
class	TabulatedComponent
	A generic class which tabulates all thermodynamic properties of a given component. More...
class	Unit
	A component where all quantities are fixed at 1.0. More...
class	Xylene
	Component for Xylene. More...
class	Constants
class	CompositionFromFugacities
	Calculates the chemical equilibrium from the component fugacities in a phase. More...
class	ComputeFromReferencePhase
	Computes all quantities of a generic fluid state if a reference phase has been specified. More...
class	ImmiscibleFlash
	Determines the pressures and saturations of all fluid phases given the total mass of all components. More...
class	MMPCAuxConstraint
	Specifies an auxiliary constraint for the MiscibleMultiPhaseComposition constraint solver. More...
class	MiscibleMultiPhaseComposition
	Computes the composition of all phases of a N-phase, N-component fluid system assuming that all N phases are present. More...
class	NcpFlash
	Determines the phase compositions, pressures and saturations given the total mass of all components. More...
class	PTFlash
	Determines the phase compositions, pressures and saturations given the total mass of all components for the chiwoms problem. More...
struct	MathToolbox< DenseAd::Evaluation< ValueT, numVars, staticSize > >
class	CubicEOS
class	CubicEOSParams
class	PengRobinson
	Implements the Peng-Robinson equation of state for liquids and gases. More...
class	PengRobinsonMixture
	Implements the Peng-Robinson equation of state for a mixture. More...
class	PengRobinsonParams
	Stores and provides access to the Peng-Robinson parameters. More...
class	PengRobinsonParamsMixture
	The mixing rule for the oil and the gas phases of the SPE5 problem. More...
class	PRParams
class	RKParams
class	SRKParams
class	BrooksCorey
	Implementation of the Brooks-Corey capillary pressure <-> saturation relation. More...
class	BrooksCoreyParams
	Specification of the material parameters for the Brooks-Corey constitutive relations. More...
struct	DirectionalMaterialLawParams
class	EclDefaultMaterial
	Implements the default three phase capillary pressure law used by the ECLipse simulator. More...
class	EclDefaultMaterialParams
	Default implementation for the parameters required by the default three-phase capillary pressure model used by Eclipse. More...
class	EclEpsConfig
	Specifies the configuration used by the endpoint scaling code. More...
class	EclEpsGridProperties
	Collects all grid properties which are relevant for end point scaling. More...
struct	EclEpsScalingPointsInfo
	This structure represents all values which can be possibly used as scaling points in the endpoint scaling code. More...
class	EclEpsScalingPoints
	Represents the points on the X and Y axis to be scaled if endpoint scaling is used. More...
class	EclEpsTwoPhaseLaw
	This material law takes a material law defined for unscaled saturation and converts it to a material law defined on scaled saturations. More...
class	EclEpsTwoPhaseLawParams
	A default implementation of the parameters for the material law adapter class which implements ECL endpoint scaling. More...
class	EclHysteresisConfig
	Specifies the configuration used by the ECL kr/pC hysteresis code. More...
class	EclHysteresisTwoPhaseLaw
	This material law implements the hysteresis model of the ECL file format. More...
class	EclHysteresisTwoPhaseLawParams
	A default implementation of the parameters for the material law which implements the ECL relative permeability and capillary pressure hysteresis. More...
class	EclMultiplexerMaterial
	Implements a multiplexer class that provides all three phase capillary pressure laws used by the ECLipse simulator. More...
struct	EclMultiplexerDispatch
struct	FrontIsEclMultiplexerDispatch
struct	FrontIsEclMultiplexerDispatch< EclMultiplexerDispatch< Value >, Args... >
class	EclMultiplexerMaterialParams
	Multiplexer implementation for the parameters required by the multiplexed three-phase material law. More...
class	EclStone1Material
	Implements the second phase capillary pressure/relperm law suggested by Stone as used by the ECLipse simulator. More...
class	EclStone1MaterialParams
	Default implementation for the parameters required by the three-phase capillary pressure/relperm Stone 2 model used by Eclipse. More...
class	EclStone2Material
	Implements the second phase capillary pressure/relperm law suggested by Stone as used by the ECLipse simulator. More...
class	EclStone2MaterialParams
	Default implementation for the parameters required by the three-phase capillary pressure/relperm Stone 2 model used by Eclipse. More...
class	EclTwoPhaseMaterial
	Implements a multiplexer class that provides ECL saturation functions for twophase simulations. More...
class	EclTwoPhaseMaterialParams
	Implementation for the parameters required by the material law for two-phase simulations. More...
class	EffToAbsLaw
	This material law takes a material law defined for effective saturations and converts it to a material law defined on absolute saturations. More...
class	EffToAbsLawParams
	A default implementation of the parameters for the adapter class to convert material laws from effective to absolute saturations. More...
class	LinearMaterial
	Implements a linear saturation-capillary pressure relation. More...
class	LinearMaterialParams
	Reference implementation of params for the linear M-phase material material. More...
class	NullMaterialTraits
	A generic traits class which does not provide any indices. More...
class	TwoPhaseMaterialTraits
	A generic traits class for two-phase material laws. More...
class	ThreePhaseMaterialTraits
	A generic traits class for three-phase material laws. More...
class	NullMaterial
	Implements a dummy linear saturation-capillary pressure relation which just disables capillary pressure. More...
class	NullMaterialParams
	Reference implementation of params for the linear M-phase material material. More...
class	PLScanningCurve
	Represents a scanning curve in the Parker-Lenhard hysteresis model. More...
class	ParkerLenhard
	Implements the Parker-Lenhard twophase p_c-Sw hysteresis model. More...
class	ParkerLenhardParams
	Default parameter class for the Parker-Lenhard hysteresis model. More...
class	PiecewiseLinearTwoPhaseMaterial
	Implementation of a tabulated, piecewise linear capillary pressure law. More...
class	PiecewiseLinearTwoPhaseMaterialParams
	Specification of the material parameters for a two-phase material law which uses a table and piecewise constant interpolation. More...
class	RegularizedBrooksCorey
	Implementation of the regularized Brooks-Corey capillary pressure / relative permeability <-> saturation relation. More...
class	RegularizedBrooksCoreyParams
	Parameters that are necessary for the regularization of the Brooks-Corey capillary pressure model. More...
class	RegularizedVanGenuchten
	Implementation of the regularized van Genuchten's capillary pressure / relative permeability <-> saturation relation. More...
class	RegularizedVanGenuchtenParams
	Parameters that are necessary for the regularization of VanGenuchten "material law". More...
class	SatCurveMultiplexer
	Implements a multiplexer class that provides LET curves and piecewise linear saturation functions. More...
struct	SatCurveMultiplexerDispatch
struct	FrontIsSatCurveMultiplexerDispatch
struct	FrontIsSatCurveMultiplexerDispatch< SatCurveMultiplexerDispatch< Value >, Args... >
class	SatCurveMultiplexerParams
	Specification of the material parameters for the saturation function multiplexer. More...
class	SplineTwoPhaseMaterial
	Implementation of a tabulated capillary pressure and relperm law which uses spline curves as interpolation functions. More...
class	SplineTwoPhaseMaterialParams
	Specification of the material parameters for a two-phase material law which uses a table and spline-based interpolation. More...
class	ThreePhaseParkerVanGenuchten
	Implementation of three-phase capillary pressure and relative permeability relations proposed by Parker and van Genuchten. More...
class	ThreePhaseParkerVanGenuchtenParams
	Specification of the material params for the three-phase van Genuchten capillary pressure model. More...
class	TwoPhaseLETCurves
	Implementation of the LET curve saturation functions. More...
class	TwoPhaseLETCurvesParams
	Specification of the material parameters for the LET constitutive relations. More...
class	VanGenuchten
	Implementation of the van Genuchten capillary pressure - saturation relation. More...
class	VanGenuchtenParams
	Specification of the material parameters for the van Genuchten constitutive relations. More...
class	BlackOilFluidState
	Implements a "tailor-made" fluid state class for the black-oil model. More...
class	CompositionalFluidState
	Represents all relevant thermodynamic quantities of a multi-phase, multi-component fluid system assuming thermodynamic equilibrium. More...
class	CompositionalFluidState< ValueT, FluidSystem, true >
class	CompositionalFluidState< ValueT, FluidSystem, false >
class	FluidStateExplicitCompositionModule
	Module for the modular fluid state which stores the phase compositions explicitly in terms of mole fractions. More...
class	FluidStateImmiscibleCompositionModule
	Module for the modular fluid state which provides the phase compositions assuming immiscibility. More...
class	FluidStateNullCompositionModule
	Module for the modular fluid state which does not store the compositions but throws std::logic_error instead. More...
class	FluidStateExplicitDensityModule
	Module for the modular fluid state which stores the densities explicitly. More...
class	FluidStateNullDensityModule
	Module for the modular fluid state which does not the densities but throws std::logic_error instead. More...
class	FluidStateExplicitEnthalpyModule
	Module for the modular fluid state which stores the enthalpies explicitly. More...
class	FluidStateNullEnthalpyModule
	Module for the modular fluid state which does not store the enthalpies but returns 0 instead. More...
class	FluidStateExplicitFugacityModule
	Module for the modular fluid state which stores the phase fugacity coefficients explicitly. More...
class	FluidStateImmiscibleFugacityModule
	Module for the modular fluid state which stores the phase fugacity coefficients explicitly assuming immiscibility. More...
class	FluidStateNullFugacityModule
	Module for the modular fluid state which does not store the fugacities but throws std::logic_error instead. More...
class	FluidStateExplicitPressureModule
	Module for the modular fluid state which stores the pressures explicitly. More...
class	FluidStateNullPressureModule
	Module for the modular fluid state which does not the pressures but throws std::logic_error instead. More...
class	FluidStateExplicitSaturationModule
	Module for the modular fluid state which stores the saturations explicitly. More...
class	FluidStateNullSaturationModule
	Module for the modular fluid state which does not the saturations but throws std::logic_error instead. More...
class	FluidStateExplicitTemperatureModule
	Module for the modular fluid state which stores the temperatures explicitly. More...
class	FluidStateEquilibriumTemperatureModule
	Module for the modular fluid state which stores the temperatures explicitly and assumes thermal equilibrium. More...
class	FluidStateNullTemperatureModule
	Module for the modular fluid state which does not the temperatures but throws std::logic_error instead. More...
class	FluidStateExplicitViscosityModule
	Module for the modular fluid state which stores the viscosities explicitly. More...
class	FluidStateNullViscosityModule
	Module for the modular fluid state which does not the viscosities but throws std::logic_error instead. More...
class	ImmiscibleFluidState
	Represents all relevant thermodynamic quantities of a multi-phase, multi-component fluid system assuming thermodynamic equilibrium. More...
class	ImmiscibleFluidState< ValueType, FluidSystem, true >
class	ImmiscibleFluidState< ValueType, FluidSystem, false >
class	ModularFluidState
	Represents all relevant thermodynamic quantities of a multi-phase, multi-component fluid system assuming thermodynamic equilibrium. More...
class	NonEquilibriumFluidState
	Represents all relevant thermodynamic quantities of a multi-phase, multi-component fluid system not assuming thermodynamic equilibrium. More...
class	NonEquilibriumFluidState< ValueType, FluidSystem, true >
class	NonEquilibriumFluidState< ValueType, FluidSystem, false >
class	PressureOverlayFluidState
	This is a fluid state which allows to set the fluid pressures and takes all other quantities from an other fluid state. More...
class	SaturationOverlayFluidState
	This is a fluid state which allows to set the fluid saturations and takes all other quantities from an other fluid state. More...
class	SimpleModularFluidState
	Represents all relevant thermodynamic quantities of a multi-phase, multi-component fluid system assuming thermodynamic equilibrium. More...
class	TemperatureOverlayFluidState
	This is a fluid state which allows to set the fluid temperatures and takes all other quantities from an other fluid state. More...
class	BaseFluidSystem
	The base class for all fluid systems. More...
class	BlackOilDefaultFluidSystemIndices
	The class which specifies the default phase and component indices for the black-oil fluid system. More...
class	FLUIDSYSTEM_CLASSNAME_NONSTATIC
class	FLUIDSYSTEM_CLASSNAME
	A fluid system which uses the black-oil model assumptions to calculate termodynamically meaningful quantities. More...
class	FLUIDSYSTEM_CLASSNAME_STATIC
class	BrineCo2Pvt
	This class represents the Pressure-Volume-Temperature relations of the liquid phase for a CO2-Brine system. More...
class	BrineH2Pvt
	This class represents the Pressure-Volume-Temperature relations of the liquid phase for a H2-Brine system. More...
class	Co2GasPvt
	This class represents the Pressure-Volume-Temperature relations of the gas phase for CO2. More...
class	WaterPvtMultiplexer
	This class represents the Pressure-Volume-Temperature relations of the water phase in the black-oil model. More...
class	ConstantCompressibilityBrinePvt
	This class represents the Pressure-Volume-Temperature relations of the gas phase without vaporized oil. More...
class	ConstantCompressibilityOilPvt
	This class represents the Pressure-Volume-Temperature relations of the oil phase without dissolved gas and constant compressibility/"viscosibility". More...
class	ConstantCompressibilityWaterPvt
	This class represents the Pressure-Volume-Temperature relations of the gas phase without vaporized oil. More...
class	ConstantRsDeadOilPvt
	This class represents the Pressure-Volume-Temperature relations of dead oil with constant dissolved gas (RSCONST keyword). More...
class	DeadOilPvt
	This class represents the Pressure-Volume-Temperature relations of the oil phase without dissolved gas. More...
class	DryGasPvt
	This class represents the Pressure-Volume-Temperature relations of the gas phase without vaporized oil. More...
class	DryHumidGasPvt
	This class represents the Pressure-Volume-Temperature relations of the gas phase with vaporized water. More...
class	GasPvtMultiplexer
	This class represents the Pressure-Volume-Temperature relations of the gas phase in the black-oil model. More...
class	GasPvtThermal
	This class implements temperature dependence of the PVT properties of gas. More...
class	H2GasPvt
	This class represents the Pressure-Volume-Temperature relations of the gas phase for H2. More...
class	LiveOilPvt
	This class represents the Pressure-Volume-Temperature relations of the oil phas with dissolved gas. More...
class	NullOilPvt
	Null object for oil PVT calculations. More...
class	OilPvtMultiplexer
	This class represents the Pressure-Volume-Temperature relations of the oil phase in the black-oil model. More...
class	OilPvtThermal
	This class implements temperature dependence of the PVT properties of oil. More...
class	SolventPvt
	This class represents the Pressure-Volume-Temperature relations of the "second" gas phase in the of ECL simulations with solvents. More...
class	WaterPvtThermal
	This class implements temperature dependence of the PVT properties of water. More...
class	WetGasPvt
	This class represents the Pressure-Volume-Temperature relations of the gas phas with vaporized oil. More...
class	WetHumidGasPvt
	This class represents the Pressure-Volume-Temperature relations of the gas phase with vaporized oil and vaporized water. More...
class	BrineCO2FluidSystem
	A two-phase fluid system with water and CO2. More...
class	Co2BrineFluidSystem
	A two phase two component system with components co2 brine. More...
class	GasPhase
	Represents the gas phase of a single (pseudo-) component. More...
class	GenericOilGasWaterFluidSystem
	A two phase system that can contain NumComp components. More...
class	H2OAirFluidSystem
	A fluid system with a liquid and a gaseous phase and water and air as components. More...
class	H2OAirMesityleneFluidSystem
	A fluid system with water, gas and NAPL as phases and water, air and mesitylene (DNAPL) as components. More...
class	H2OAirXyleneFluidSystem
	A fluid system with water, gas and NAPL as phases and water, air and NAPL (contaminant) as components. More...
class	H2ON2FluidSystem
	A two-phase fluid system with water and nitrogen as components. More...
class	H2ON2LiquidPhaseFluidSystem
	A liquid-phase-only fluid system with water and nitrogen as components. More...
class	LiquidPhase
	Represents the liquid phase of a single (pseudo-) component. More...
class	NullParameterCache
	A parameter cache which does nothing. More...
class	ParameterCacheBase
	The base class of the parameter caches of fluid systems. More...
class	PhaseUsageInfo
class	PTFlashParameterCache
	Specifies the parameter cache used by the SPE-5 fluid system. More...
class	SinglePhaseFluidSystem
	A fluid system for single phase models. More...
class	Spe5FluidSystem
	The fluid system for the oil, gas and water phases of the SPE5 problem. More...
class	Spe5ParameterCache
	Specifies the parameter cache used by the SPE-5 fluid system. More...
class	ThreeComponentFluidSystem
	A two phase three component fluid system with components CO2, Methane and NDekan. More...
class	TwoPhaseImmiscibleFluidSystem
	A fluid system for two-phase models assuming immiscibility and thermodynamic equilibrium. More...
class	IdealGas
	Relations valid for an ideal gas. More...
class	GenericMaterialState
class	MaterialStateTPSA
class	ConstantSolidHeatCapLaw
	Implements a solid energy storage law which assumes constant heat capacity. More...
class	ConstantSolidHeatCapLawParams
	The default implementation of a parameter object for the solid energy storage law which assumes constant heat capacity. More...
class	EclHeatcrLaw
	Implements the volumetric interior energy relations of rock used by ECL. More...
class	EclHeatcrLawParams
	The default implementation of a parameter object for the ECL thermal law. More...
class	EclSolidEnergyLawMultiplexer
	Provides the energy storage relation of rock. More...
class	EclSolidEnergyLawMultiplexerParams
	The default implementation of a parameter object for the ECL thermal law. More...
class	EclSpecrockLaw
	Implements the volumetric interior energy relations of rock used by ECL. More...
class	EclSpecrockLawParams
	The default implementation of a parameter object for the ECL thermal law based on SPECROCK. More...
class	EclThcLaw
	Implements the total thermal conductivity and rock enthalpy relations used by ECL. More...
class	EclThcLawParams
	The default implementation of a parameter object for the thermal conduction law based on the THC* keywords from ECL. More...
class	EclThconrLaw
	Implements the total thermal conductivity relations specified by the ECL THCONR. More...
class	EclThconrLawParams
	The default implementation of a parameter object for the thermal conduction law based on the THCONR keyword from ECL. More...
class	EclThermalConductionLawMultiplexer
	Implements the total thermal conductivity and rock enthalpy relations used by ECL. More...
class	EclThermalConductionLawMultiplexerParams
	The default implementation of a parameter object for the ECL thermal law. More...
class	EclThermalLawManager
	Provides an simple way to create and manage the thermal law objects for a complete ECL deck. More...
class	FluidThermalConductionLaw
	Implements a thermal conduction law which just takes the conductivity of a given fluid phase. More...
class	FluidThermalConductionLawParams
	Parameters for the thermal conduction law which just takes the conductivity of a given fluid phase. More...
class	NullSolidEnergyLaw
	Implements a solid energy storage law which just returns 0. More...
class	NullThermalConductionLaw
	Implements a dummy law for thermal conduction to which isothermal models can fall back to. More...
class	SomertonThermalConductionLaw
	Implements the Somerton law of thermal conductivity in a porous medium. More...
class	SomertonThermalConductionLawParams
	The default implementation of a parameter object for the Somerton thermal conduction law. More...
class	ViscosityModels
class	ActiveIndexByColumns
	Special purpose mapping facility to handle the output code's need to enumerate the active cells by columns (layer ID (K) cycling fastest, followed by J, followed by I) for aquifer connections. More...
class	EclipseGridInspector
	A class for inspecting the contents of an eclipse file. More...
class	EclipseIO
	File I/O management for reservoir description and dynamic results. More...
class	Inplace
class	LinearisedOutputTable
	Manage tables of column data, possibly with sub-tables, all with equal number of rows (i.e., with padding), and possibly with multiple tables pertaining to multiple subsets (i.e., cell regions). More...
class	RestartKey
class	RestartValue
class	UDQDims
	Collection of UDQ and UDA related dimension queries. More...

Typedefs
typedef std::shared_ptr< TimerLog >	TimerLogPtr
typedef std::shared_ptr< const TimerLog >	TimerLogConstPtr
using	time_point = std::chrono::time_point<std::chrono::system_clock, std::chrono::duration<int64_t, std::ratio<1,1000>>>
template<class T>
using	VectorWithDefaultAllocator = std::vector<T, std::allocator<T>>
using	AQUFETP = ParserKeywords::AQUFETP
using	AQUNUM = ParserKeywords::AQUNUM
using	AQUCON = ParserKeywords::AQUCON
using	Equil = EquilContainer<EquilRecord>
using	StressEquil = EquilContainer<StressEquilRecord>
using	BC = ParserKeywords::BCCON
using	BCKEY = ParserKeywords::BCPROP
using	AICD = ParserKeywords::WSEGAICD
using	SOURCEKEY = ParserKeywords::SOURCE
using	TuningKw = ParserKeywords::TUNING
using	WsegIterKW = ParserKeywords::WSEGITER
using	TUNINGDP = ParserKeywords::TUNINGDP
typedef Opm::UniformTabulated2DFunction< double >	TabulatedFunction
template<class T>
using	FS = BlackOilFluidSystem<T, BlackOilDefaultFluidSystemIndices>

Enumerations
enum class	MapBuilderInsertionMode { Emplace , Insert_Or_Assign }
	Utility class for adding multi-threading to loops that are building maps. More...
enum class	VoigtIndex { XX = 0 , XY = 5 , XZ = 4 , YX = XY , YY = 1 , YZ = 3 , ZX = XZ , ZY = YZ , ZZ = 2 }
enum class	Section { RUNSPEC , GRID , EDIT , PROPS , REGIONS , SOLUTION , SUMMARY , SCHEDULE }
enum	DeckChecks { SectionTopology = 0x0001 , KeywordSection = 0x0002 , UnknownKeywords = 0x0004 , AllChecks = 0xffff }
enum class	SaltMixingType { NONE , MICHAELIDES }
enum class	LiquidMixingType { NONE , IDEAL , DUANSUN }
enum class	GasMixingType { NONE , IDEAL }
enum class	SpeciesType { SPECIES , MINERAL , IONEX }
enum class	MinpvMode { Inactive = 1 , EclSTD = 2 }
enum class	PinchMode { ALL = 1 , TOPBOT = 2 , TOP = 3 , GAP = 4 , NOGAP = 5 }
enum class	Phase { OIL = 0 , GAS = 1 , WATER = 2 , SOLVENT = 3 , POLYMER = 4 , ENERGY = 5 , POLYMW = 6 , FOAM = 7 , BRINE = 8 , ZFRACTION = 9 }
enum class	InputErrorAction { THROW_EXCEPTION = 0 , WARN = 1 , IGNORE = 2 , EXIT1 = 3 , DELAYED_EXIT1 = 4 }
enum	ParserKeywordSizeEnum { SLASH_TERMINATED = 0 , FIXED = 1 , OTHER_KEYWORD_IN_DECK = 2 , UNKNOWN = 3 , FIXED_CODE = 4 , DOUBLE_SLASH_TERMINATED = 5 , SPECIAL_CASE_ROCK = 6 }
enum	ParserKeywordActionEnum { INTERNALIZE = 0 , IGNORE = 1 , IGNORE_WARNING = 2 , THROW_EXCEPTION = 3 }
enum class	BCType { RATE , FREE , DIRICHLET , THERMAL , CLOSED , NONE }
enum class	BCMECHType { FREE , FIXED , NONE }
enum class	BCComponent { OIL , GAS , WATER , SOLVENT , POLYMER , MICR , OXYG , UREA , NONE }
enum class	ICDStatus { OPEN , SHUT }
enum class	WellSegmentCompPressureDrop { HFA = 0 , HF_ = 1 , H__ = 2 }
enum class	ScheduleTimeType { START = 0 , DATES = 1 , TSTEP = 2 , RESTART = 3 }
enum class	InjectorType { WATER = 1 , GAS = 2 , OIL = 3 , MULTI = 4 }
enum class	SourceComponent { OIL , GAS , WATER , SOLVENT , POLYMER , MICR , OXYG , UREA , NONE }
enum class	UDQVarType { NONE = 0 , SCALAR = 1 , CONNECTION_VAR = 2 , FIELD_VAR = 3 , REGION_VAR = 4 , SEGMENT_VAR = 5 , AQUIFER_VAR = 6 , BLOCK_VAR = 7 , WELL_VAR = 8 , GROUP_VAR = 9 , TABLE_LOOKUP = 10 , NumTypes }
enum class	UDQTokenType { error = 0 , number = 1 , open_paren = 2 , close_paren = 3 , comp_expr = 6 , ecl_expr = 7 , binary_op_add = 8 , binary_op_sub = 9 , binary_op_div = 10 , binary_op_mul = 11 , binary_op_pow = 12 , binary_op_uadd = 13 , binary_op_umul = 14 , binary_op_umin = 15 , binary_op_umax = 16 , binary_cmp_eq = 17 , binary_cmp_ne = 18 , binary_cmp_le = 19 , binary_cmp_ge = 20 , binary_cmp_lt = 21 , binary_cmp_gt = 22 , elemental_func_randn = 23 , elemental_func_randu = 24 , elemental_func_rrandn = 25 , elemental_func_rrandu = 26 , elemental_func_abs = 27 , elemental_func_def = 28 , elemental_func_exp = 29 , elemental_func_idv = 30 , elemental_func_ln = 31 , elemental_func_log = 32 , elemental_func_nint = 33 , elemental_func_sorta = 34 , elemental_func_sortd = 35 , elemental_func_undef = 36 , scalar_func_sum = 37 , scalar_func_avea = 38 , scalar_func_aveg = 39 , scalar_func_aveh = 40 , scalar_func_max = 41 , scalar_func_min = 42 , scalar_func_norm1 = 43 , scalar_func_norm2 = 44 , scalar_func_normi = 45 , scalar_func_prod = 46 , table_lookup = 47 , table_lookup_start = 48 , table_lookup_end = 49 , end = 100 }
enum class	UDQAction { ASSIGN , DEFINE , UNITS , UPDATE }
enum class	UDQUpdate { ON , OFF , NEXT }
enum class	UDAControl { WCONPROD_ORAT , WCONPROD_WRAT , WCONPROD_GRAT , WCONPROD_LRAT , WCONPROD_RESV , WCONPROD_BHP , WCONPROD_THP , WCONPROD_LIFT , WCONINJE_RATE , WCONINJE_RESV , WCONINJE_BHP , WCONINJE_THP , GCONPROD_OIL_TARGET , GCONPROD_WATER_TARGET , GCONPROD_GAS_TARGET , GCONPROD_LIQUID_TARGET , GCONPROD_RESV_TARGET , GCONINJE_SURFACE_MAX_RATE , GCONINJE_RESV_MAX_RATE , GCONINJE_TARGET_REINJ_FRACTION , GCONINJE_TARGET_VOID_FRACTION , WELTARG_ORAT , WELTARG_WRAT , WELTARG_GRAT , WELTARG_LRAT , WELTARG_RESV , WELTARG_BHP , WELTARG_THP , WELTARG_LIFT }
enum class	UDAKeyword { WCONPROD , WCONINJE , WELTARG , GCONINJE , GCONPROD }
enum class	ConnectionOrder { DEPTH , INPUT , TRACK }
enum class	WellStatus : std::uint8_t { OPEN = 1 , STOP = 2 , SHUT = 3 , AUTO = 4 }
enum class	WellInjectorCMode : std::uint16_t { RATE = 1 , RESV = 2 , BHP = 4 , THP = 8 , GRUP = 16 , CMODE_UNDEFINED = 512 }
enum class	WellProducerCMode : std::uint16_t { NONE = 0 , ORAT = 1 , WRAT = 2 , GRAT = 4 , LRAT = 8 , CRAT = 16 , RESV = 32 , BHP = 64 , THP = 128 , GRUP = 256 , CMODE_UNDEFINED = 1024 }
enum class	WellWELTARGCMode : std::uint8_t { ORAT = 1 , WRAT = 2 , GRAT = 3 , LRAT = 4 , CRAT = 5 , RESV = 6 , BHP = 7 , THP = 8 , VFP = 9 , LIFT = 10 , GUID = 11 }
enum class	WellGuideRateTarget : std::uint8_t { OIL = 0 , WAT = 1 , GAS = 2 , LIQ = 3 , COMB = 4 , WGA = 5 , CVAL = 6 , RAT = 7 , RES = 8 , UNDEFINED = 9 }
enum class	WellGasInflowEquation : std::uint8_t { STD = 0 , R_G = 1 , P_P = 2 , GPP = 3 }
enum class	type_tag { unknown = 0 , integer = 1 , string = 2 , raw_string = 3 , fdouble = 4 , uda = 5 }
enum class	EclTwoPhaseSystemType { GasOil , OilWater , GasWater }
	Specified which fluids are involved in a given twophase material law for endpoint scaling.
enum class	EclMultiplexerApproach { Default , Stone1 , Stone2 , TwoPhase , OnePhase }
enum class	EclTwoPhaseApproach { GasOil , OilWater , GasWater }
enum class	SatCurveMultiplexerApproach { PiecewiseLinear , LET }
enum class	GasPvtApproach { NoGas , DryGas , DryHumidGas , WetHumidGas , WetGas , ThermalGas , Co2Gas , H2Gas }
enum class	OilPvtApproach { NoOil , LiveOil , DeadOil , ConstantCompressibilityOil , ThermalOil , BrineCo2 , BrineH2 , ConstantRsDeadOil }
enum class	WaterPvtApproach { NoWater , ConstantCompressibilityBrine , ConstantCompressibilityWater , ThermalWater , BrineCo2 , BrineH2 }
enum class	EclSolidEnergyApproach { Undefined , Heatcr , Specrock , Null }
enum class	EclThermalConductionApproach { Undefined , Thconr , Thc , Null }
enum class	EnergyModules : std::uint8_t { NoTemperature = 0 , ConstantTemperature = 1 , SequentialImplicitThermal = 2 , FullyImplicitThermal = 3 }

Functions
std::string	demangle (const char *mangled_symbol)
	Returns demangled name of symbol.
template<typename T>
std::string	getDemangledType ()
	Returns demangled information of a type.
std::string	unique_path (const std::string &input)
template<typename T>
void	buildUniformMonotoneTable (const std::vector< double > &xv, const std::vector< T > &yv, const int samples, UniformTableLinear< T > &table)
int	tableIndex (const std::vector< double > &table, double x)
	Returns an index in an ordered table such that x is between table[j] and table[j+1].
std::pair< double, int >	linearInterpolationSlope (const std::vector< double > &xv, const std::vector< double > &yv, const double x)
double	linearInterpolationDerivative (const std::vector< double > &xv, const std::vector< double > &yv, double x)
double	linearInterpolation (const std::vector< double > &xv, const std::vector< double > &yv, double x)
double	linearInterpolationNoExtrapolation (const std::vector< double > &xv, const std::vector< double > &yv, double x)
double	linearInterpolation (const std::vector< double > &xv, const std::vector< double > &yv, double x, int &ix1)
template<typename FI>
bool	isNondecreasing (const FI beg, const FI end)
	Detect if a sequence is nondecreasing.
template<class Functor>
void	bracketZero (const Functor &f, const double x0, const double dx, double &a, double &b)
	Attempts to find an interval bracketing a zero by successive enlargement of search interval.
template<typename T>
std::ostream &	operator<< (std::ostream &os, const UniformTableLinear< T > &t)
template<typename T>
void	cross (const std::array< T, 3 > &x, const std::array< T, 3 > &y, std::array< T, 3 > &z)
std::string	correct_parameter_tag (const ParameterMapItem &item)
std::string	correct_type (const Parameter &parameter, const std::string &param_type)
template<typename StringArray>
	ParameterGroup (int argc, StringArray argv, const bool verify_syntax=true, const bool enable_output=true)
	ParameterGroup is a class that is used to provide run-time parameters.
bool	has (const std::string &name) const
	This method checks if there is something with name `name` in the parameter gropup.
template<typename T>
T	get (const std::string &name) const
	This method is used to read a parameter from the parameter group.
template<typename T, class Requirement>
T	get (const std::string &name, const Requirement &) const
template<typename T>
T	getDefault (const std::string &name, const T &default_value) const
	This method is used to read a parameter from the parameter group.
template<typename T, class Requirement>
T	getDefault (const std::string &name, const T &default_value, const Requirement &r) const
ParameterGroup	getGroup (const std::string &name) const
	This method returns the parameter group given by name, i.e.
void	disableOutput ()
	Disables the output from get, getDefault and getGroup.
void	enableOutput ()
	Enables the output from get, getDefault and getGroup.
bool	isOutputEnabled () const
	Returs true if and only if output from get, getDefault and getGroup is enabled.
void	readParam (const std::string &param_filename)
	Reads the contents of the param file specified by param_filename into this ParameterGroup.
void	writeParam (const std::string &param_filename) const
	Writes this ParameterGroup into a param file specified by param_filename.
void	writeParamToStream (std::ostream &stream) const
	Writes this ParameterGroup to a stream.
template<typename T>
void	get (const char *name, T &value, const T &default_value) const
	vki param interface - deprecated
template<typename T>
void	get (const char *name, T &value) const
	vki param interface - deprecated
bool	anyUnused () const
	Return true if any parameters are unused.
void	displayUsage (bool used_params=false) const
	Shows which parameters which are used or unused.
const std::string &	path () const
	Returns the path of the parameter group.
void	insert (const std::string &name, const std::shared_ptr< ParameterMapItem > &data)
	Insert a new item into the group.
void	insertParameter (const std::string &name, const std::string &value)
	Insert a new parameter item into the group.
const std::vector< std::string > &	unhandledArguments () const
	Unhandled arguments from command line parsing.
template<>
std::string	ParameterGroup::to_string< std::string > (const std::string &val)
std::pair< std::string, std::string >	splitParam (const std::string &name)
template<class PtrType>
PtrType *	ComputePtrBasedOnOffsetInOtherBuffer (PtrType bufBStart, size_t bufBLength, PtrType bufAStart, size_t bufALength, PtrType *ptrInA)
bool	shmatch (const std::string &pattern, const std::string &symbol)
template<typename T, typename U>
U &	uppercase (const T &src, U &dst)
std::vector< std::string >	split_string (const std::string &input, char delimiter)
std::vector< std::string >	split_string (const std::string &input, const std::string &delimiters)
std::string	format_double (double d)
std::optional< double >	try_parse_double (const std::string &token)
template<typename T>
std::string	ltrim_copy (const T &s)
template<typename T>
std::string	rtrim_copy (const T &s)
template<typename T>
std::string	trim_copy (const T &s)
template<typename T>
void	replaceAll (T &data, const T &toSearch, const T &replace)
template void	replaceAll (std::string &, const std::string &, const std::string &)
template std::string	ltrim_copy (const std::string &)
template std::string	rtrim_copy (const std::string &)
template std::string	trim_copy (const std::string &)
template std::string	trim_copy (const EclIO::PaddedOutputString< 4 > &)
template std::string &	uppercase (const std::string &, std::string &)
template std::string &	uppercase (const std::string_view &, std::string &)
template<typename T>
std::decay< T >::type	uppercase (T &&x)
template<class T1, class T2>
SymmTensor< T1 >	operator* (const T2 value, SymmTensor< T1 > t1)
template<class T1, class T2>
SymmTensor< T1 >	operator* (SymmTensor< T1 > t1, const T2 value)
template<class T>
SymmTensor< T >	operator+ (SymmTensor< T > t1, const SymmTensor< T > &t2)
TimeStampUTC	operator+ (const TimeStampUTC &lhs, std::chrono::duration< double > delta)
std::time_t	asTimeT (const TimeStampUTC &tp)
std::time_t	asLocalTimeT (const TimeStampUTC &tp)
time_point	asTimePoint (const TimeStampUTC &tp)
template<class... Ts>
	VisitorOverloadSet (Ts...) -> VisitorOverloadSet< Ts... >
	Deduction guide for visitor overload sets.
std::ostream &	operator<< (std::ostream &os, const Deck &deck)
template<>
const std::vector< std::string > &	DeckItem::value_ref< std::string > () const
std::ostream &	operator<< (std::ostream &os, const DeckItem &item)
template std::string	DeckItem::get< std::string > (size_t) const
template void	DeckItem::push_backDummyDefault< std::string > (std::size_t)
template const std::vector< std::string > &	DeckItem::getData< std::string > () const
std::ostream &	operator<< (std::ostream &os, const DeckKeyword &keyword)
std::ostream &	operator<< (std::ostream &os, const DeckRecord &record)
template<>
bool	DeckValue::is_compatible< std::string > () const
template<>
bool	UDAValue::is< std::string > () const
std::ostream &	operator<< (std::ostream &stream, const UDAValue &uda_value)
std::vector< int >	analyticAquiferIDs (const AquiferConfig &cfg)
std::vector< int >	numericAquiferIDs (const AquiferConfig &cfg)
bool	checkDeck (const Deck &deck, const Parser &parser, const ParseContext &parseContext, ErrorGuard &errorGuard, size_t enabledChecks)
template<class MapType>
void	apply_tran (const std::unordered_map< std::string, Fieldprops::TranCalculator > &tran, const MapType &double_data, std::size_t active_size, const std::string &keyword, std::vector< double > &data)
template<class MapType>
void	apply_tran (const Fieldprops::TranCalculator &calculator, const MapType &double_data, const std::vector< std::size_t > &indices, std::vector< double > &data)
template void	apply_tran (const std::unordered_map< std::string, Fieldprops::TranCalculator > &, const std::unordered_map< std::string, Fieldprops::FieldData< double > > &, std::size_t, const std::string &, std::vector< double > &)
template void	apply_tran (const std::unordered_map< std::string, Fieldprops::TranCalculator > &, const std::map< std::string, Fieldprops::FieldData< double > > &, std::size_t, const std::string &, std::vector< double > &)
template void	apply_tran (const Fieldprops::TranCalculator &, const std::map< std::string, Fieldprops::FieldData< double > > &, const std::vector< std::size_t > &, std::vector< double > &)
template void	apply_tran (const Fieldprops::TranCalculator &, const std::unordered_map< std::string, Fieldprops::FieldData< double > > &, const std::vector< std::size_t > &, std::vector< double > &)
std::array< int, 3 >	readDims (const DeckKeyword &keyword)
std::ostream &	operator<< (std::ostream &os, const MinpvMode &mm)
std::string	PinchMode2String (const PinchMode enumValue)
PinchMode	PinchModeFromString (const std::string &stringValue)
std::ostream &	operator<< (std::ostream &os, const PinchMode pm)
void	readKeywordCarfin (const DeckRecord &deckRecord, CarfinManager &carfinManager)
void	setKeywordBox (const DeckRecord &deckRecord, BoxManager &boxManager)
Phase	get_phase (const std::string &str)
std::ostream &	operator<< (std::ostream &stream, const Phase &p)
bool	operator== (const AquiferDimensions &lhs, const AquiferDimensions &rhs)
std::size_t	declaredMaxRegionID (const Runspec &rspec)
SummaryConfigNode::Category	parseKeywordCategory (const std::string &keyword)
	Infer summary vector level from keyword name.
SummaryConfigNode::Type	parseKeywordType (std::string keyword)
	Infer summary vector type from keyword name.
bool	operator== (const SummaryConfigNode &lhs, const SummaryConfigNode &rhs)
	Equality predicate for SummaryConfigNode objects.
bool	operator< (const SummaryConfigNode &lhs, const SummaryConfigNode &rhs)
	Canonical comparison operator for SummaryConfigNode objects.
bool	operator!= (const SummaryConfigNode &lhs, const SummaryConfigNode &rhs)
	Inequality operator for SummaryConfigNode objects.
bool	operator<= (const SummaryConfigNode &lhs, const SummaryConfigNode &rhs)
	Less-than-or-equal comparison operator for SummaryConfigNode objects.
bool	operator> (const SummaryConfigNode &lhs, const SummaryConfigNode &rhs)
	Greater-than comparison operator for SummaryConfigNode objects.
bool	operator>= (const SummaryConfigNode &lhs, const SummaryConfigNode &rhs)
	Greater-than-or-equal comparison operator for SummaryConfigNode objects.
std::ostream &	operator<< (std::ostream &os, const InputErrorAction action)
void	assertFullDeck (const ParseContext &context)
std::string	ParserKeywordSizeEnum2String (ParserKeywordSizeEnum enumValue)
ParserKeywordSizeEnum	ParserKeywordSizeEnumFromString (const std::string &stringValue)
std::string	ParserKeywordActionEnum2String (ParserKeywordActionEnum enumValue)
ParserKeywordActionEnum	ParserKeywordActionEnumFromString (const std::string &stringValue)
template<>
const std::string &	ParserItem::value_ref< std::string > () const
std::ostream &	operator<< (std::ostream &stream, const ParserItem::item_size &sz)
std::ostream &	operator<< (std::ostream &stream, const ParserItem &item)
std::ostream &	operator<< (std::ostream &stream, const ParserKeyword &kw)
std::ostream &	operator<< (std::ostream &stream, const ParserRecord &rec)
bool	isStarToken (const std::string_view &token, std::string &countString, std::string &valueString)
template<>
int	readValueToken< int > (std::string_view view)
template<>
double	readValueToken< double > (std::string_view view)
template<>
std::string	readValueToken< std::string > (std::string_view view)
template<>
RawString	readValueToken< RawString > (std::string_view view)
template<>
UDAValue	readValueToken< UDAValue > (std::string_view view)
template<class T>
T	readValueToken (std::string_view)
class	__attribute__ ((visibility("default"))) PyRunModule
int	maxGroupSize (const Schedule &sched, const std::size_t step)
void	checkConsistentArrayDimensions (const EclipseState &es, const Schedule &sched, const ParseContext &ctxt, ErrorGuard &guard)
std::vector< std::pair< std::string, KeywordHandlers::handler_function > >	getGasLiftOptHandlers ()
	Obtain a list of gasliftopt keyword handlers.
Group::GroupType	operator\| (const Group::GroupType lhs, const Group::GroupType rhs)
Group::GroupType	operator& (const Group::GroupType lhs, const Group::GroupType rhs)
std::vector< std::pair< std::string, KeywordHandlers::handler_function > >	getGroupHandlers ()
	Obtain a list of group keyword handlers.
std::vector< std::pair< std::string, KeywordHandlers::handler_function > >	getGuideRateHandlers ()
	Obtain a list of guiderate keyword handlers.
std::vector< std::pair< std::string, KeywordHandlers::handler_function > >	getMixingRateControlHandlers ()
	Obtain a list of mixing rate control keyword handlers.
template<class ICD>
std::map< std::string, std::vector< std::pair< int, ICD > > >	fromWSEG (const DeckKeyword &wseg)
template<>
ICDStatus	from_int (int int_status)
template<>
int	to_int (ICDStatus status)
template<typename T>
T	from_int (int int_status)
template<typename T>
int	to_int (T status)
std::vector< std::pair< std::string, KeywordHandlers::handler_function > >	getMSWHandlers ()
	Obtain a list of MSW keyword handlers.
std::vector< std::pair< std::string, KeywordHandlers::handler_function > >	getNetworkHandlers ()
	Obtain a list of network keyword handlers.
void	handleGRUPSLAV (HandlerContext &handlerContext)
void	handleGRUPMAST (HandlerContext &handlerContext)
void	handleRCMASTS (HandlerContext &handlerContext)
void	handleUSECUPL (HandlerContext &handlerContext)
std::vector< std::pair< std::string, KeywordHandlers::handler_function > >	getReservoirCouplingHandlers ()
	Obtain a list of reservoir coupling keyword handlers.
void	handleSLAVES (HandlerContext &handlerContext)
void	handleDUMPCUPL (HandlerContext &handlerContext)
RPTKeywordNormalisation::MnemonicMap	normaliseRptSchedKeyword (const DeckKeyword &kw, const ParseContext &parseContext, ErrorGuard &errors)
	Normalise RPTSHCED keyword specification into sequence of mnemonics and associate values.
std::vector< std::pair< std::string, KeywordHandlers::handler_function > >	getRXXHandlers ()
	Obtain a list of RFT/RPT/RST keyword handlers.
std::ostream &	operator<< (std::ostream &os, const Schedule &sched)
std::string	InjectorType2String (const InjectorType enumValue)
InjectorType	InjectorTypeFromString (const std::string &stringValue)
std::ostream &	operator<< (std::ostream &stream, const SummaryState &st)
UDQASTNode	operator* (const UDQASTNode &lhs, double sign_factor)
UDQASTNode	operator* (double lhs, const UDQASTNode &rhs)
std::vector< std::pair< std::string, KeywordHandlers::handler_function > >	getUDQHandlers ()
	Obtain a list of UDQ keyword handlers.
std::unique_ptr< UDQASTNode >	parseUDQExpression (const UDQParams &udq_params, UDQVarType target_type, const std::string &target_var, const KeywordLocation &location, const std::vector< UDQToken > &tokens_, const ParseContext &parseContext, ErrorGuard &errors)
UDQScalar	operator+ (const UDQScalar &lhs, const UDQScalar &rhs)
UDQScalar	operator+ (const UDQScalar &lhs, double rhs)
UDQScalar	operator+ (double lhs, const UDQScalar &rhs)
UDQScalar	operator- (const UDQScalar &lhs, const UDQScalar &rhs)
UDQScalar	operator- (const UDQScalar &lhs, double rhs)
UDQScalar	operator- (double lhs, const UDQScalar &rhs)
UDQScalar	operator* (const UDQScalar &lhs, const UDQScalar &rhs)
UDQScalar	operator* (const UDQScalar &lhs, double rhs)
UDQScalar	operator* (double lhs, const UDQScalar &rhs)
UDQScalar	operator/ (const UDQScalar &lhs, const UDQScalar &rhs)
UDQScalar	operator/ (const UDQScalar &lhs, double rhs)
UDQScalar	operator/ (double lhs, const UDQScalar &rhs)
UDQSet	operator+ (const UDQSet &lhs, const UDQSet &rhs)
UDQSet	operator+ (const UDQSet &lhs, double rhs)
UDQSet	operator+ (double lhs, const UDQSet &rhs)
UDQSet	operator- (const UDQSet &lhs, const UDQSet &rhs)
UDQSet	operator- (const UDQSet &lhs, double rhs)
UDQSet	operator- (double lhs, const UDQSet &rhs)
UDQSet	operator* (const UDQSet &lhs, const UDQSet &rhs)
UDQSet	operator* (const UDQSet &lhs, double rhs)
UDQSet	operator* (double lhs, const UDQSet &rhs)
UDQSet	operator/ (const UDQSet &lhs, const UDQSet &rhs)
UDQSet	operator/ (const UDQSet &lhs, double rhs)
UDQSet	operator/ (double lhs, const UDQSet &rhs)
std::vector< std::pair< std::string, KeywordHandlers::handler_function > >	getGridIndependentWellKeywordHandlers ()
	Obtain a list of grid independent well keyword handlers.
template<typename Scalar>
PAvgCalculatorResult< Scalar >	linearCombination (const Scalar alpha, PAvgCalculatorResult< Scalar > x, const Scalar beta, const PAvgCalculatorResult< Scalar > &y)
	Form linear combination of WBP result objects.
	INSTANTIATE_TYPE (double)
	INSTANTIATE_TYPE (float)
std::ostream &	operator<< (std::ostream &, const Well::WellInjectionProperties &)
std::ostream &	operator<< (std::ostream &, const Well::WellProductionProperties &)
std::vector< std::pair< std::string, KeywordHandlers::handler_function > >	getWellCompletionHandlers ()
	Obtain a list of well completion keyword handlers.
std::optional< int >	getCompletionNumberFromGlobalConnectionIndex (const WellConnections &connections, const std::size_t global_index)
std::string	WellStatus2String (WellStatus enumValue)
WellStatus	WellStatusFromString (const std::string &stringValue)
std::ostream &	operator<< (std::ostream &os, const WellStatus &st)
std::string	WellInjectorCMode2String (WellInjectorCMode enumValue)
WellInjectorCMode	WellInjectorCModeFromString (const std::string &stringValue)
std::ostream &	operator<< (std::ostream &os, const WellInjectorCMode &cm)
std::string	WellProducerCMode2String (WellProducerCMode enumValue)
WellProducerCMode	WellProducerCModeFromString (const std::string &stringValue)
WellProducerCMode	WellProducerCModeFromInt (const int pmode)
std::ostream &	operator<< (std::ostream &os, const WellProducerCMode &cm)
std::string	WellWELTARGCMode2String (WellWELTARGCMode cmode)
WellWELTARGCMode	WellWELTARGCModeFromString (const std::string &string_value)
std::string	WellGuideRateTarget2String (WellGuideRateTarget enumValue)
WellGuideRateTarget	WellGuideRateTargetFromString (const std::string &stringValue)
std::string	WellGasInflowEquation2String (WellGasInflowEquation enumValue)
WellGasInflowEquation	WellGasInflowEquationFromString (const std::string &stringValue)
std::vector< std::pair< std::string, KeywordHandlers::handler_function > >	getWellHandlers ()
	Obtain a list of well keyword handlers.
std::vector< std::pair< std::string, KeywordHandlers::handler_function > >	getWellPropertiesHandlers ()
	Obtain a list of well properties keyword handlers.
std::string	tag_name (type_tag x)
template<typename T>
type_tag	get_type ()
template<>
type_tag	get_type< int > ()
template<>
type_tag	get_type< double > ()
template<>
type_tag	get_type< std::string > ()
template<>
type_tag	get_type< RawString > ()
template<>
type_tag	get_type< UDAValue > ()
template<class Scalar, class Evaluation>
Evaluation	henryIAPWS (Scalar E, Scalar F, Scalar G, Scalar H, const Evaluation &temperature)
	The Henry constants in liquid water using the IAPWS 2004 formulation.
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	blank (const Evaluation &x)
template<class Evaluation, class Scalar>
OPM_HOST_DEVICE Evaluation	constant (const Scalar &value)
template<class Evaluation, class Scalar>
OPM_HOST_DEVICE Evaluation	constant (unsigned numDeriv, const Scalar &value)
template<class Evaluation, class Scalar>
OPM_HOST_DEVICE Evaluation	constant (const Evaluation &x, const Scalar &value)
template<class Evaluation, class Scalar>
OPM_HOST_DEVICE Evaluation	variable (unsigned numDeriv, const Scalar &value, unsigned idx)
template<class Evaluation, class Scalar>
OPM_HOST_DEVICE Evaluation	variable (const Evaluation &x, const Scalar &value, unsigned idx)
template<class Evaluation, class Scalar>
OPM_HOST_DEVICE Evaluation	variable (const Scalar &value, unsigned idx)
template<class ResultEval, class Evaluation>
OPM_HOST_DEVICE auto	decay (const Evaluation &value) -> decltype(MathToolbox< Evaluation >::template decay< ResultEval >(value))
template<class Evaluation>
OPM_HOST_DEVICE auto	getValue (const Evaluation &val) -> decltype(MathToolbox< Evaluation >::value(val))
template<class Evaluation>
OPM_HOST_DEVICE auto	scalarValue (const Evaluation &val) -> decltype(MathToolbox< Evaluation >::scalarValue(val))
template<class Evaluation1, class Evaluation2>
ReturnEval_< Evaluation1, Evaluation2 >::type OPM_HOST_DEVICE	max (const Evaluation1 &arg1, const Evaluation2 &arg2)
template<class Evaluation1, class Evaluation2>
ReturnEval_< Evaluation1, Evaluation2 >::type OPM_HOST_DEVICE	min (const Evaluation1 &arg1, const Evaluation2 &arg2)
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	abs (const Evaluation &value)
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	tan (const Evaluation &value)
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	atan (const Evaluation &value)
template<class Evaluation1, class Evaluation2>
ReturnEval_< Evaluation1, Evaluation2 >::type OPM_HOST_DEVICE	atan2 (const Evaluation1 &value1, const Evaluation2 &value2)
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	sin (const Evaluation &value)
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	asin (const Evaluation &value)
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	sinh (const Evaluation &value)
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	asinh (const Evaluation &value)
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	cos (const Evaluation &value)
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	acos (const Evaluation &value)
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	cosh (const Evaluation &value)
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	acosh (const Evaluation &value)
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	sqrt (const Evaluation &value)
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	exp (const Evaluation &value)
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	log (const Evaluation &value)
template<class Evaluation>
OPM_HOST_DEVICE Evaluation	log10 (const Evaluation &value)
template<class Evaluation1, class Evaluation2>
ReturnEval_< Evaluation1, Evaluation2 >::type OPM_HOST_DEVICE	pow (const Evaluation1 &base, const Evaluation2 &exp)
template<class Evaluation>
OPM_HOST_DEVICE bool	isfinite (const Evaluation &value)
template<class Evaluation>
OPM_HOST_DEVICE bool	isnan (const Evaluation &value)
template<class Scalar>
Scalar	arithmeticMean (Scalar x, Scalar y)
	Computes the arithmetic average of two values.
template<class Scalar>
Scalar	geometricMean (Scalar x, Scalar y)
	Computes the geometric average of two values.
template<class Scalar>
Scalar	harmonicMean (Scalar x, Scalar y)
	Computes the harmonic average of two values.
template<class Scalar, class SolContainer>
unsigned	invertLinearPolynomial (SolContainer &sol, Scalar a, Scalar b)
	Invert a linear polynomial analytically.
template<class Scalar, class SolContainer>
unsigned	invertQuadraticPolynomial (SolContainer &sol, Scalar a, Scalar b, Scalar c)
	Invert a quadratic polynomial analytically.
template<class Scalar, class SolContainer>
unsigned	invertCubicPolynomial (SolContainer *sol, Scalar a, Scalar b, Scalar c, Scalar d)
	Invert a cubic polynomial analytically.
template<class Scalar, class SolContainer>
unsigned	cubicRoots (SolContainer *sol, Scalar a, Scalar b, Scalar c, Scalar d)
	Invert a cubic polynomial analytically.
void	resetLocale ()
template<class Scalar, unsigned staticSize>
OPM_HOST_DEVICE DenseAd::Evaluation< Scalar, -1, staticSize >	constant (int numDerivatives, const Scalar &value)
template<class Scalar, unsigned staticSize>
OPM_HOST_DEVICE DenseAd::Evaluation< Scalar, -1, staticSize >	variable (int numDerivatives, const Scalar &value, unsigned idx)
void	doNothing ()
template<class FluidState>
OPM_HOST_DEVICE unsigned	getPvtRegionIndex_ (typename std::enable_if< HasMember_pvtRegionIndex< FluidState >::value, const FluidState & >::type fluidState)
template<class FluidState>
OPM_HOST_DEVICE unsigned	getPvtRegionIndex_ (typename std::enable_if<!HasMember_pvtRegionIndex< FluidState >::value, const FluidState & >::type)
template<class FluidSystem, class FluidState, class LhsEval>
OPM_HOST_DEVICE auto	getInvB_ (typename std::enable_if< HasMember_invB< FluidState >::value, const FluidState & >::type fluidState, unsigned phaseIdx, unsigned, const FluidSystem &fluidSystem=FluidSystem{}) -> decltype(decay< LhsEval >(fluidState.invB(phaseIdx)))
template<class FluidSystem, class FluidState, class LhsEval>
OPM_HOST_DEVICE LhsEval	getInvB_ (typename std::enable_if<!HasMember_invB< FluidState >::value, const FluidState & >::type fluidState, unsigned phaseIdx, unsigned pvtRegionIdx, const FluidSystem &fluidSystem=FluidSystem{})
template<class FluidState>
OPM_HOST_DEVICE auto	getSaltConcentration_ (typename std::enable_if< HasMember_saltConcentration< FluidState >::value, const FluidState & >::type fluidState)
template<class FluidState>
OPM_HOST_DEVICE auto	getSaltConcentration_ (typename std::enable_if<!HasMember_saltConcentration< FluidState >::value, const FluidState & >::type)
template<class FluidState>
OPM_HOST_DEVICE auto	getSaltSaturation_ (typename std::enable_if< HasMember_saltSaturation< FluidState >::value, const FluidState & >::type fluidState)
template<class FluidState>
OPM_HOST_DEVICE auto	getSaltSaturation_ (typename std::enable_if<!HasMember_saltSaturation< FluidState >::value, const FluidState & >::type)
template<class FluidState>
OPM_HOST_DEVICE auto	getSolventSaturation_ (typename std::enable_if< HasMember_solventSaturation< FluidState >::value, const FluidState & >::type fluidState)
template<class FluidState>
OPM_HOST_DEVICE auto	getSolventSaturation_ (typename std::enable_if<!HasMember_solventSaturation< FluidState >::value, const FluidState & >::type)
ActiveIndexByColumns	buildColumnarActiveIndexMappingTables (const EclipseGrid &grid)
	Build natural->columnar active cell index mapping from an EclipseGrid instance.
void	writeWellGroupGraph (const Schedule &schedule, const std::string &casename, const bool separateWellGroups)
void	writeWellStructure (const std::string &well_name, const WellSegments &segments, const WellConnections &connections)

Variables
const std::string	ID_true = "true"
const std::string	ID_false = "false"
const std::string	ID_xmltag__param_grp = "ParameterGroup"
const std::string	ID_xmltag__param = "Parameter"
const std::string	ID_param_type__bool = "bool"
const std::string	ID_param_type__int = "int"
const std::string	ID_param_type__float = "double"
const std::string	ID_param_type__string = "string"
const std::string	ID_param_type__file = "file"
const std::string	ID_param_type__cmdline = "cmdline"
const std::string	ID_path_root = ""
const std::string	ID_delimiter_path = "/"
const std::string	ID_comment = "//"
const std::string	ID_delimiter_assignment = "="
constexpr int	NUM_PHASES_IN_ENUM = static_cast<int>(Phase::ZFRACTION) + 1
template<class Scalar, class H2O>
Scalar	Brine< Scalar, H2O >::salinity = 0.1
	Default value for the salinity of the brine (dimensionless).
template<>
const UniformTabulated2DFunction< double > &	CO2< double >::tabulatedEnthalpy = CO2Tables::tabulatedEnthalpy
template<>
const UniformTabulated2DFunction< double > &	CO2< double >::tabulatedDensity = CO2Tables::tabulatedDensity
template const double	CO2< double >::brineSalinity
template<>
const UniformTabulated2DFunction< double > &	CO2< float >::tabulatedEnthalpy = CO2Tables::tabulatedEnthalpy
template<>
const UniformTabulated2DFunction< double > &	CO2< float >::tabulatedDensity = CO2Tables::tabulatedDensity
template const float	CO2< float >::brineSalinity
template<>
const UniformTabulated2DFunction< double > &	H2< double >::tabulatedEnthalpy = H2Tables::tabulatedEnthalpy
template<>
const UniformTabulated2DFunction< double > &	H2< double >::tabulatedDensity = H2Tables::tabulatedDensity
template<>
const double	H2< double >::brineSalinity = H2Tables::brineSalinity
template<>
const UniformTabulated2DFunction< double > &	H2< float >::tabulatedEnthalpy = H2Tables::tabulatedEnthalpy
template<>
const UniformTabulated2DFunction< double > &	H2< float >::tabulatedDensity = H2Tables::tabulatedDensity
template<>
const float	H2< float >::brineSalinity = H2Tables::brineSalinity
template<class Scalar>
const Scalar	H2O< Scalar >::Rs = Common::Rs
template<class Scalar>
const Scalar	SimpleH2O< Scalar >::R = Constants<Scalar>::R / 18e-3
template<class Scalar, class RawComponent, bool useVaporPressure>
TabulatedComponentData< Scalar >	TabulatedComponent< Scalar, RawComponent, useVaporPressure >::data_
template<class Scalar, class StaticParameters>
const Scalar	PengRobinsonMixture< Scalar, StaticParameters >::R = Constants<Scalar>::R
template<class Scalar, class StaticParameters>
const Scalar	PengRobinsonMixture< Scalar, StaticParameters >::u = 2.0
template<class Scalar, class StaticParameters>
const Scalar	PengRobinsonMixture< Scalar, StaticParameters >::w = -1.0
template<typename ... Args>
constexpr bool	FrontIsEclMultiplexerDispatchV = FrontIsEclMultiplexerDispatch<Args...>::value
template<typename ... Args>
constexpr bool	FrontIsSatCurveMultiplexerDispatchV = FrontIsSatCurveMultiplexerDispatch<Args...>::value
template<class Scalar, int NumComp, bool enableWater>
std::vector< typename GenericOilGasWaterFluidSystem< Scalar, NumComp, enableWater >::ComponentParam >	GenericOilGasWaterFluidSystem< Scalar, NumComp, enableWater >::component_param_
template<class Scalar, int NumComp, bool enableWater>
std::vector< Scalar >	GenericOilGasWaterFluidSystem< Scalar, NumComp, enableWater >::interaction_coefficients_
template<class Scalar, int NumComp, bool enableWater>
std::shared_ptr< WaterPvtMultiplexer< Scalar > >	GenericOilGasWaterFluidSystem< Scalar, NumComp, enableWater >::waterPvt_
template<class Scalar>
const Scalar	Spe5FluidSystem< Scalar >::R = Constants<Scalar>::R
template<class ScalarT>
ScalarT	EclHeatcrLawParams< ScalarT >::referenceTemperature_ = 273.15 + 15.56

Detailed Description

This class implements a small container which holds the transmissibility mulitpliers for all the faces in the grid.

The unit sets emplyed in ECLIPSE, in particular the FIELD units, are quite inconsistent.

Encapsulation of the DATUM* familiy of SOLUTION section keywords which specify depths against which to compute depth corrected cell (block), region, and field-level pressures/potentials.

The multipliers in this class are built up from the transmissibility modifier keywords:

{MULTX , MULTX- , MULTY , MULTY- , MULTZ , MULTZ-, MULTFLT , MULTREGT}

This information goes into the definition of summary keywords [FRB]PP[OGW].

Ideally one should choose units for a set of base quantities like Mass,Time and Length and then derive the units for e.g. pressure and flowrate in a consisten manner. However that is not the case; for instance in the metric system we have:

[Length] = meters [time] = days [mass] = kg

This should give:

[Pressure] = [mass] / ([length] * [time]^2) = kg / (m * days * days)

Instead pressure is given in Bars. When it comes to FIELD units the number of such examples is long.

Enumeration Type Documentation

◆ MapBuilderInsertionMode

enum class Opm::MapBuilderInsertionMode

strong

Utility class for adding multi-threading to loops that are building maps.

details Intended to be used for building maps in OpenMP loops. In the parallel section the values are assembled into a list per thread. After the parallel section the lists are assembled to the map, either through RAII in the dtor, or through a manual call to finalize(). Implements both emplace and insert_or_assign, but there are a need for an assumption. In particular, the assumption is that iteration loops are ordered such that the first thread processes the first part of the range. If the order of processing is unspecified the final map results is not guaranteed to match for differing number of threads. Available insertion modes.

Function Documentation

◆ arithmeticMean()

template<class Scalar>

Scalar Opm::arithmeticMean	(	Scalar	x,
		Scalar	y )

inline

Computes the arithmetic average of two values.

This uses the usual definition of the arithmethic mean:

$\‍[ <a(x,y)> = (x+y)/2 \‍]$

◆ correct_parameter_tag()

std::string Opm::correct_parameter_tag ( const ParameterMapItem & item )

Todo: Doc me!

Parameters

return

◆ cubicRoots()

template<class Scalar, class SolContainer>

unsigned Opm::cubicRoots	(	SolContainer *	sol,
		Scalar	a,
		Scalar	b,
		Scalar	c,
		Scalar	d )

Invert a cubic polynomial analytically.

The polynomial is defined as

$\‍[ p(x) = a\; x^3 + + b\;x^3 + c\;x + d \‍]$

This method returns the number of solutions which are in the real numbers. The "sol" argument contains the real roots of the cubic polynomial in order with the smallest root first.

Parameters

sol	Container into which the solutions are written
a	The coefficient for the cubic term
b	The coefficient for the quadratic term
c	The coefficient for the linear term
d	The coefficient for the constant term

◆ demangle()

std::string Opm::demangle ( const char * mangled_symbol )

Returns demangled name of symbol.

Non-demangled name is return if demangling is not supported

◆ disableOutput()

void Opm::ParameterGroup::disableOutput ( )

Disables the output from get, getDefault and getGroup.

By default, such output is enabled.

◆ enableOutput()

void Opm::ParameterGroup::enableOutput ( )

Enables the output from get, getDefault and getGroup.

By default, such output is enabled.

◆ geometricMean()

template<class Scalar>

Scalar Opm::geometricMean	(	Scalar	x,
		Scalar	y )

inline

Computes the geometric average of two values.

This uses the usual definition of the geometric mean:

$\‍[ <a(x,y)> = \sqrt{x^2 + y^2} \‍]$

◆ get()

template<typename T>

T Opm::get ( const std::string & name ) const

This method is used to read a parameter from the parameter group.

NOTE: If the reading of the parameter fails, then this method throws an appropriate exception.

Parameters

name	is the name of the parameter in question.

Returns: The value associated with then name in this parameter group.

◆ getDefault()

template<typename T>

T Opm::getDefault	(	const std::string &	name,
		const T &	default_value ) const

This method is used to read a parameter from the parameter group.

NOTE: If the reading of the parameter fails, then either a) this method returns default_value if there was no parameter with name name in the parameter group or b) this method throws an appropriate exception.

Parameters

name	is the name of the parameter in question.
default_value	the default value of the parameter in question.

Returns: The value associated with this name in this parameter group.

◆ getDemangledType()

template<typename T>

std::string Opm::getDemangledType ( )

Returns demangled information of a type.

Non-demangled type-id symbol is returned if demangling is not supported

◆ getGroup()

ParameterGroup Opm::getGroup ( const std::string & name ) const

This method returns the parameter group given by name, i.e.

it is an alias of get<ParameterGroup>().

Parameters

name	is the name of the parameter group sought.

Returns: the parameter group sought.

◆ harmonicMean()

template<class Scalar>

Scalar Opm::harmonicMean	(	Scalar	x,
		Scalar	y )

inline

Computes the harmonic average of two values.

This uses the usual definition of the harmonic mean:

$\‍[ <a(x,y)> = \frac{2}{1/x + 1/y} \‍]$

◆ has()

bool Opm::has ( const std::string & name ) const

This method checks if there is something with name name in the parameter gropup.

Parameters

name	is the name of the parameter.

Returns: true if name is the name of something in the parameter group, false otherwise.

◆ henryIAPWS()

template<class Scalar, class Evaluation>

Evaluation Opm::henryIAPWS	(	Scalar	E,
		Scalar	F,
		Scalar	G,
		Scalar	H,
		const Evaluation &	temperature )

inline

The Henry constants in liquid water using the IAPWS 2004 formulation.

This function calculates , see:

IAPWS: "Guideline on the Henry's Constant and Vapor-Liquid Distribution Constant for Gases in H2O and D2O at High Temperatures" http://www.iapws.org/relguide/HenGuide.pdf

◆ invertCubicPolynomial()

template<class Scalar, class SolContainer>

unsigned Opm::invertCubicPolynomial	(	SolContainer *	sol,
		Scalar	a,
		Scalar	b,
		Scalar	c,
		Scalar	d )

Invert a cubic polynomial analytically.

The polynomial is defined as

$\‍[ p(x) = a\; x^3 + + b\;x^3 + c\;x + d \‍]$

This method teturns the number of solutions which are in the real numbers. The "sol" argument contains the real roots of the cubic polynomial in order with the smallest root first.

Parameters

sol	Container into which the solutions are written
a	The coefficient for the cubic term
b	The coefficient for the quadratic term
c	The coefficient for the linear term
d	The coefficient for the constant term

◆ invertLinearPolynomial()

template<class Scalar, class SolContainer>

unsigned Opm::invertLinearPolynomial	(	SolContainer &	sol,
		Scalar	a,
		Scalar	b )

Invert a linear polynomial analytically.

The polynomial is defined as

$\‍[ p(x) = a\; x + b \‍]$

This method Returns the number of solutions which are in the real numbers, i.e. 1 except if the slope of the line is 0.

Parameters

sol	Container into which the solutions are written
a	The coefficient for the linear term
b	The coefficient for the constant term

◆ invertQuadraticPolynomial()

template<class Scalar, class SolContainer>

unsigned Opm::invertQuadraticPolynomial	(	SolContainer &	sol,
		Scalar	a,
		Scalar	b,
		Scalar	c )

Invert a quadratic polynomial analytically.

The polynomial is defined as

$\‍[ p(x) = a\; x^2 + + b\;x + c \‍]$

This method teturns the number of solutions which are in the real numbers. The "sol" argument contains the real roots of the parabola in order with the smallest root first.

Parameters

sol	Container into which the solutions are written
a	The coefficient for the quadratic term
b	The coefficient for the linear term
c	The coefficient for the constant term

◆ isNondecreasing()

template<typename FI>

bool Opm::isNondecreasing	(	const FI	beg,
		const FI	end )

Detect if a sequence is nondecreasing.

Template Parameters

FI	a forward iterator whose value type has operator< defined.

Parameters

beg	start of sequence
end	one-beyond-end of sequence

Returns: false if there exists two consecutive values (v1, v2) in the sequence for which v2 < v1, else returns true.

◆ isOutputEnabled()

bool Opm::ParameterGroup::isOutputEnabled ( ) const

Returs true if and only if output from get, getDefault and getGroup is enabled.

Returns: true if and only if output from get, getDefault and getGroup is enabled.

◆ linearCombination()

template<typename Scalar>

PAvgCalculatorResult< Scalar > Opm::linearCombination	(	const Scalar	alpha,
		PAvgCalculatorResult< Scalar >	x,
		const Scalar	beta,
		const PAvgCalculatorResult< Scalar > &	y )

Form linear combination of WBP result objects.

Typically the very last step of computing the block-averaged well pressure values; namely a weighted averaged of the CTF-weighted and the PV-weighted contributions.

Parameters

[in]	alpha	Coefficient in linear combination. Typically the F2 weighting factor from the WPAVE (or WWPAVE) keyword.
[in]	x	First WBP result. Typically the CTF-weighted WBP result.
[in]	beta	Coefficient in linear combination. Typically 1-F2, with F2 from WPAVE.
[in]	y	Second WBP result. Typically the PV-weighted WBP result.

Returns: alpha*x + beta*y

.

◆ normaliseRptSchedKeyword()

Opm::RPTKeywordNormalisation::MnemonicMap Opm::normaliseRptSchedKeyword	(	const DeckKeyword &	kw,
		const ParseContext &	parseContext,
		ErrorGuard &	errors )

Normalise RPTSHCED keyword specification into sequence of mnemonics and associate values.

Simple convenience/helper function only.

Parameters

[in]	kw	Report keyword specification, typically from RPTSCHED, RPTRST, or RPTSOL.
[in]	parseContext	Error handling controls.
[in,out]	errors	Collection of parse errors encountered thus far. Behaviour controlled by `parseContext`.

Returns: Sequence of mnemonics and associate integer values.

◆ operator!=()

bool Opm::operator!=	(	const SummaryConfigNode &	lhs,
		const SummaryConfigNode &	rhs )

inline

Inequality operator for SummaryConfigNode objects.

Parameters

[in]	lhs	Left-hand side object.
[in]	rhs	Right-hand side object.

Returns: Whether or not lhs is different from rhs.

◆ operator<()

bool Opm::operator<	(	const SummaryConfigNode &	lhs,
		const SummaryConfigNode &	rhs )

Canonical comparison operator for SummaryConfigNode objects.

Parameters

[in]	lhs	Left-hand side object.
[in]	rhs	Right-hand side object.

Returns: Whether or not lhs is less than rhs.

◆ operator<=()

bool Opm::operator<=	(	const SummaryConfigNode &	lhs,
		const SummaryConfigNode &	rhs )

inline

Less-than-or-equal comparison operator for SummaryConfigNode objects.

Parameters

[in]	lhs	Left-hand side object.
[in]	rhs	Right-hand side object.

Returns: Whether or not lhs is less than or equal to rhs.

◆ operator==()

bool Opm::operator==	(	const SummaryConfigNode &	lhs,
		const SummaryConfigNode &	rhs )

Equality predicate for SummaryConfigNode objects.

Parameters

[in]	lhs	Left-hand side object.
[in]	rhs	Right-hand side object.

Returns: Whether or not lhs is the same as (equal to) rhs.

◆ operator>()

bool Opm::operator>	(	const SummaryConfigNode &	lhs,
		const SummaryConfigNode &	rhs )

inline

Greater-than comparison operator for SummaryConfigNode objects.

Parameters

[in]	lhs	Left-hand side object.
[in]	rhs	Right-hand side object.

Returns: Whether or not lhs is greater than rhs.

◆ operator>=()

bool Opm::operator>=	(	const SummaryConfigNode &	lhs,
		const SummaryConfigNode &	rhs )

inline

Greater-than-or-equal comparison operator for SummaryConfigNode objects.

Parameters

[in]	lhs	Left-hand side object.
[in]	rhs	Right-hand side object.

Returns: Whether or not lhs is greater than or equal to rhs.

◆ ParameterGroup()

template<typename StringArray>

Opm::ParameterGroup::ParameterGroup	(	int	argc,
		StringArray	argv,
		const bool	verify_syntax = true,
		const bool	enable_output = true )

ParameterGroup is a class that is used to provide run-time parameters.

The standard use of the class is to call create it with the (int argc, char** argv) constructor (where the arguments are those given by main). This parses the command line, where each token either A) specifies a parameter (by a "param=value" token). B) specifies a param file to be read (by a "filename.param" token). After the tokens are parsed they are stored in a tree structure in the ParameterGroup object; it is worth mentioning that parameters are inherited in this tree structure. Thus, if ``grid_prefix'' is given a value in the root node, this value will be visible in all parts of the tree (unless the parameter is overwritten in a subtree). Applications using this ParameterGroup objects will usually write out a message for each node in the three that is used by the application; this is one way to determine valid parameters.

Parameters specified as "param=value" on the command line

To specify a parameter on the command line, you must know where in the tree the parameter resides. The syntax for specifying parameters on the command line given an application called ``simulator'' is simulator param1=value grp/param2=value grp''. If the same parameters are specified multiple times on the command line, only the last will be used. Thus an application named simulator'' run with the following command simulator param=value1 param=value2 will use value2 as the value of ``param''.

param files

A param file consists of multiple lienes, where each line consists of "param=value". This syntax is identical to the one for parameters specified on the command line. */ class ParameterGroup : public ParameterMapItem { public: struct NotFoundException : public std::exception {}; struct WrongTypeException : public std::exception {}; struct ConversionFailedException : public std::exception {};

template<typename T> struct RequirementFailedException : public std::exception {};

ParameterGroup(); ParameterGroup(const std::string& path, const ParameterGroup* parent, const bool enable_output);

From ParameterMapItem ~ParameterGroup() override; std::string getTag() const override;

/** A constructor typically used to initialize a ParameterGroup from command-line arguments.

It is required that argv[0] is the program name, while if 0 < i < argc, then argv[i] is either the name of a parameter file or parametername=value.

Parameters

argc	is the number of command-line arguments, including the name of the executable.
argv	is an array of char*, each of which is a command line argument.
verify_syntax	If true (default), then it is an error to pass arguments that cannot be handled by the ParameterGroup, or an empty argument list. If false, such arguments are stored and can be retrieved later with unhandledArguments().
enable_output	Whether to enable output or not.

◆ parseKeywordCategory()

SummaryConfigNode::Category Opm::parseKeywordCategory ( const std::string & keyword )

Infer summary vector level from keyword name.

Parameters

[in] keyword Summary vector name.

Returns: Summary vector level (e.g., field, group, well, connection, cell, region, segment) for keyword.

◆ parseKeywordType()

SummaryConfigNode::Type Opm::parseKeywordType ( std::string keyword )

Infer summary vector type from keyword name.

Parameters

[in] keyword Summary vector name.

Returns: Summary vector type (e.g., rate, cumulative, ratio, pressure) for keyword.

◆ readParam()

void Opm::ParameterGroup::readParam ( const std::string & param_filename )

Reads the contents of the param file specified by param_filename into this ParameterGroup.

NOTE: A param file contains lines on the form 'a/b/c=d'. (e.g. c is a Parameter in the ParameterGroup b, and b is a ParameterGroup in the ParameterGroup a) while '=' separates the name from the value (e.g. the value of the parameter c above will be d). NOTE: A param file does not store any type information about its values.

Parameters

param_filename is the name of a param file.

◆ tableIndex()

int Opm::tableIndex	(	const std::vector< double > &	table,
		double	x )

inline

Returns an index in an ordered table such that x is between table[j] and table[j+1].

If x is out of bounds, it returns a clamped index

◆ writeParam()

void Opm::ParameterGroup::writeParam ( const std::string & param_filename ) const

Writes this ParameterGroup into a param file specified by param_filename.

Parameters

param_filename is the name of a param file.

◆ writeParamToStream()

void Opm::ParameterGroup::writeParamToStream ( std::ostream & stream ) const

Writes this ParameterGroup to a stream.

Parameters

stream is the stream to write to.

Namespaces

Classes

Typedefs

Enumerations

Functions

Variables

Detailed Description

Enumeration Type Documentation

◆ MapBuilderInsertionMode

Function Documentation

◆ arithmeticMean()

◆ correct_parameter_tag()

◆ cubicRoots()

◆ demangle()

◆ disableOutput()

◆ enableOutput()

◆ geometricMean()

◆ get()

◆ getDefault()

◆ getDemangledType()

◆ getGroup()

◆ harmonicMean()

◆ has()

◆ henryIAPWS()

◆ invertCubicPolynomial()

◆ invertLinearPolynomial()

◆ invertQuadraticPolynomial()

◆ isNondecreasing()

◆ isOutputEnabled()

◆ linearCombination()

◆ normaliseRptSchedKeyword()

◆ operator!=()

◆ operator<()

◆ operator<=()

◆ operator==()

◆ operator>()

◆ operator>=()

◆ ParameterGroup()

◆ parseKeywordCategory()

◆ parseKeywordType()

◆ readParam()

◆ tableIndex()

◆ writeParam()

◆ writeParamToStream()