Class Hierarchy

Go to the graphical class hierarchy

This inheritance list is sorted roughly, but not completely, alphabetically:

[detail level 123456789]

CDPsim::CommandLineArgs::Argument
►CCPS::AttributeBase
CCPS::Attribute< MatrixVar< Complex > >
CCPS::Attribute< Matrix >
CCPS::Attribute< Complex >
CCPS::Attribute< Real >
CCPS::Attribute< MatrixVar< Real > >
CCPS::Attribute< Bool >
CCPS::Attribute< MatrixComp >
CCPS::Attribute< String >
CCPS::Attribute< Int >
CCPS::Attribute< MatrixVar< VarType > >
CCPS::Attribute< CPS::UInt >
►CCPS::Attribute< T >
CCPS::AttributeDynamic< T >
CCPS::AttributeStatic< T >
CCPS::AttributeCmp< T >
CCPS::AttributeEq< T >
CCPS::AttributePointer< T >
►CCPS::AttributeUpdateTaskBase< DependentType >
CCPS::AttributeUpdateTask< DependentType, DependencyTypes >
►CCPS::Base::AvVoltageSourceInverterDQ	Base model of average inverter
CCPS::DP::Ph1::AvVoltageSourceInverterDQ
CCPS::EMT::Ph3::AvVoltageSourceInverterDQ
CCPS::EMT::Ph3::VSIVoltageControlVCO
CCPS::SP::Ph1::AvVoltageSourceInverterDQ
CCPS::Base::AvVoltageSourceInverterDQWithStateSpace	Base model of average inverter
CDPsim::Barrier
►CCPS::Base::Ph1::Capacitor
CCPS::DP::Ph1::Capacitor	Capacitor model
CCPS::EMT::Ph1::Capacitor	Capacitor model
CCPS::EMT::Ph1::SSN::Full_Serial_RLC	Full_Serial_RLC
CCPS::SP::Ph1::Capacitor
►CCPS::Base::Ph3::Capacitor
CCPS::DP::Ph3::Capacitor	Capacitor model
CCPS::DP::Ph3::SSN::Full_Serial_RLC	Series RLC one-port as a three-phase DP V-type SSN component
CCPS::EMT::Ph3::Capacitor	Capacitor model
CCPS::EMT::Ph3::SSN::Capacitor
CCPS::EMT::Ph3::SSN::Full_Serial_RLC	Full_Serial_RLC
CCPS::SP::Ph3::Capacitor	Capacitor model
CDPsim::CommandLineArgs
CDPsim::Counter
►CCreator< BaseClass >
CDerivedCreator< DerivedClass, BaseClass >
CCPS::CSVReader	Reads load profiles (csv files only) and assign them to the corresponding load object
CCPS::CSVReaderIterator
CCPS::CSVRow
CDPsim::cuda::CudaMatrix< ValueType, IndexType >
CCPS::Base::Ph1::CurrentSource
►CCPS::DAEInterface
CCPS::DP::Ph1::NetworkInjection	Network injection model
CCPS::DP::Ph1::ProfileVoltageSource
CCPS::DP::Ph1::Resistor	Dynamic phasor resistor model
CCPS::DP::Ph1::VoltageSource	Ideal Voltage source model
CCPS::DP::Ph3::VoltageSource	Ideal Voltage source model
CCPS::SP::Ph1::NetworkInjection	Network injection model
CCPS::SP::Ph1::VoltageSource	Ideal Voltage source model
CCPS::SP::Ph3::VoltageSource	Ideal Voltage source model
►CDPsim::DataLoggerInterface
CDPsim::DataLogger
CDPsim::RealTimeDataLogger
►CDPsim::DirectLinearSolver
CDPsim::DenseLUAdapter
CDPsim::GpuDenseAdapter
CDPsim::GpuMagmaAdapter
CDPsim::GpuSparseAdapter
CDPsim::KLUAdapter
CDPsim::SparseLUAdapter
CDPsim::DirectLinearSolverConfiguration
CCPS::DP::Ph1::DPDQInterface	Class providing interface with DP domain for all components in DQ domain
Cdps_magma_data
Cdpsim_csr_matrix
Cdpsim_mna_plugin
►CCPS::Graph::Element
CCPS::Graph::Edge
CCPS::Graph::Graph
CCPS::Graph::Node
►Cstd::enable_shared_from_this
CCPS::Attribute< MatrixVar< Complex > >
CCPS::Attribute< Matrix >
CCPS::Attribute< Complex >
CCPS::Attribute< Real >
CCPS::Attribute< MatrixVar< Real > >
CCPS::Attribute< Bool >
CCPS::Attribute< MatrixComp >
CCPS::Attribute< String >
CCPS::Attribute< Int >
CCPS::Attribute< MatrixVar< VarType > >
CCPS::Attribute< CPS::UInt >
CCPS::SimNode< Complex >
CCPS::SimNode< Real >
CCPS::Attribute< T >
CCPS::SimNode< VarType >
►CDPsim::Event
CDPsim::AttributeEvent< T >
CDPsim::SwitchEvent
CDPsim::SwitchEvent3Ph
CDPsim::EventComparator
CDPsim::EventQueue
►Cstd::exception
►CCPS::Exception
CCPS::AccessException
CCPS::InvalidArgumentException
CCPS::InvalidAttributeException
CCPS::TypeException
►CCPS::Base::Exciter	Base model for exciters
CCPS::Signal::ExciterDC1
CCPS::Signal::ExciterDC1Simp
CCPS::Signal::ExciterST1Simp
CCPS::Signal::ExciterStatic
►CCPS::Base::ExciterParameters
CCPS::Signal::ExciterDC1Parameters
CCPS::Signal::ExciterDC1SimpParameters
CCPS::Signal::ExciterST1Parameters
CCPS::Signal::ExciterStaticParameters
CFactory< BaseClass >
CFactoryRegistration< BaseClass >
►Cstd::false_type
CCPS::CIM::has_value_member< T, std::void_t< decltype(std::declval< const T & >().value)> >
CCPS::CIM::has_value_member< T, typename >
►CCPS::Base::Governor	Base model for Governors
CCPS::Signal::HydroTurbineGovernor
CCPS::Signal::SteamTurbineGovernor
►CCPS::Base::GovernorParameters
CCPS::Signal::HydroGovernorParameters
CCPS::Signal::SteamGovernorParameters
CDPsim::GpuDenseAdapter::GpuData	Variables for solving one Equation-system (All pointer are device-pointer)
Cstd::hash< CPS::AttributePointer< T > >
►CCPS::IdentifiedObject
►CCPS::TopologicalNode
CCPS::SimNode< Complex >
CCPS::SimNode< Real >
CCPS::SimNode< VarType >
►CCPS::TopologicalPowerComp
►CCPS::SimPowerComp< Complex >
►CCPS::MNASimPowerComp< Complex >
►CCPS::Base::ReducedOrderSynchronGenerator< Complex >
►CCPS::DP::Ph1::ReducedOrderSynchronGeneratorVBR	Base class for DP VBR synchronous generator model single phase
CCPS::DP::Ph1::SynchronGenerator3OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 3rd order synchronous generator model
CCPS::DP::Ph1::SynchronGenerator4OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 4th order synchronous generator model
CCPS::DP::Ph1::SynchronGenerator5OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 5th type 2 order synchronous generator model Ref: Milano, Documentation for PSAT version 2.1.6, June 2, 2011, chapter 17.1.2
CCPS::DP::Ph1::SynchronGenerator6aOrderVBR	Voltage-Behind-Reactance (VBR) implementation of 6th order synchronous generator model Marconato's model (Milano, Power System modelling and scripting, chapter 15)
CCPS::DP::Ph1::SynchronGenerator6bOrderVBR	Voltage-Behind-Reactance (VBR) implementation of 6th order synchronous generator model Anderson - Fouad's model (Milano, Power System modelling and scripting, chapter 15)
CCPS::DP::Ph1::SynchronGenerator4OrderPCM	4 Order Synchronous generator model for transient stability analysis
CCPS::DP::Ph1::SynchronGenerator4OrderTPM	4 Order Synchronous generator model for transient stability analysis
CCPS::DP::Ph1::SynchronGenerator6OrderPCM	6 Order Synchronous generator model for transient stability analysis
CCPS::DP::Ph1::SynchronGeneratorIter	Base class for DP VBR synchronous generator model single phase
►CCPS::SP::Ph1::ReducedOrderSynchronGeneratorVBR	Base class for SP VBR synchronous generator model single phase
CCPS::SP::Ph1::SynchronGenerator3OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 3rd order synchronous generator model
CCPS::SP::Ph1::SynchronGenerator4OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 4th order synchronous generator model
CCPS::SP::Ph1::SynchronGenerator5OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 5th type 2 order synchronous generator model Ref: Milano, Documentation for PSAT version 2.1.6, June 2, 2011, chapter 17.1.2
CCPS::SP::Ph1::SynchronGenerator6aOrderVBR	Voltage-Behind-Reactance (VBR) implementation of 6th order synchronous generator model Marconato's model (Milano, Power System modelling and scripting, chapter 15)
CCPS::SP::Ph1::SynchronGenerator6bOrderVBR	Voltage-Behind-Reactance (VBR) implementation of 6th order synchronous generator model Anderson-Fouad's model (Milano, Power System modelling and scripting, chapter 15)
►CCPS::CompositePowerComp< Complex >
CCPS::DP::Ph1::AvVoltageSourceInverterDQ
CCPS::DP::Ph1::NetworkInjection	Network injection model
CCPS::DP::Ph1::PQLoadCS	PQ-load represented by a current source
CCPS::DP::Ph1::PiLine	PI-line dynamic phasor model
CCPS::DP::Ph1::RXLoad	Constant impedance load model consisting of RLC elements
CCPS::DP::Ph1::RXLoadSwitch	Constant impedance load model consisting of RLC elements
CCPS::DP::Ph1::RxLine
CCPS::DP::Ph1::SVC	SVC
CCPS::DP::Ph1::Shunt
CCPS::DP::Ph1::SynchronGeneratorIdeal	Ideal voltage source representing a synchronous generator
CCPS::DP::Ph1::SynchronGeneratorTrStab	Synchronous generator model for transient stability analysis
CCPS::DP::Ph1::Transformer	Transformer that includes an inductance and resistance
CCPS::DP::Ph1::VoltageSourceRamp
CCPS::DP::Ph3::NetworkInjection	Network injection model
CCPS::DP::Ph3::PiLine	PI-line dynamic phasor model
CCPS::SP::Ph1::AvVoltageSourceInverterDQ
CCPS::SP::Ph1::Load
CCPS::SP::Ph1::NetworkInjection	Network injection model
CCPS::SP::Ph1::PiLine	PI-line static phasor model
CCPS::SP::Ph1::RXLine
CCPS::SP::Ph1::SolidStateTransformer
CCPS::SP::Ph1::SynchronGeneratorTrStab	Synchronous generator model for transient stability analysis
CCPS::SP::Ph1::Transformer	Transformer that includes an inductance and resistance
CCPS::DP::Ph1::Capacitor	Capacitor model
CCPS::DP::Ph1::ControlledCurrentSource	Dynamic phasor ideal current source
CCPS::DP::Ph1::ControlledVoltageSource	Controlled Ideal Voltage source model
CCPS::DP::Ph1::CurrentSource	Dynamic phasor ideal current source
CCPS::DP::Ph1::Inductor	Inductor
CCPS::DP::Ph1::Inverter	Single phase inverter model
►CCPS::DP::Ph1::MixedVTypeVariableSSNComp
CCPS::DP::Ph1::AvVoltSourceInverterStateSpace	Averaged grid-following VSI SSN port of EMT::Ph3::AvVoltSourceInverterStateSpace: 8 real control states plus 2 complex envelope states (Vc, If)
CCPS::DP::Ph1::SSN::Variable_Serial_RLC
CCPS::DP::Ph1::ProfileVoltageSource
CCPS::DP::Ph1::ResIndSeries	Resistor inductor series element
CCPS::DP::Ph1::Resistor	Dynamic phasor resistor model
CCPS::DP::Ph1::Switch	Dynamic phasor switch
CCPS::DP::Ph1::VoltageSource	Ideal Voltage source model
CCPS::DP::Ph1::VoltageSourceNorton	Resistive dynamic phasor voltage source
CCPS::DP::Ph1::varResSwitch	Switch with variable resistance to avoid numerical oscillations, when an inductive current is suddenly interrupted. It is useful as a fault switch especially on a faulted generator or transformer winding
CCPS::DP::Ph3::Capacitor	Capacitor model
CCPS::DP::Ph3::CurrentSource	Ideal current source model
CCPS::DP::Ph3::Inductor	Inductor
►CCPS::DP::Ph3::MixedVTypeVariableSSNComp
CCPS::DP::Ph3::AvVoltSourceInverterStateSpace	Averaged grid-following VSI (SSN), optional dual-sequence current control
CCPS::DP::Ph3::Resistor
CCPS::DP::Ph3::SeriesResistor
CCPS::DP::Ph3::SeriesSwitch	Dynamic phasor three-phase switch
CCPS::DP::Ph3::Switch	Dynamic phasor three-phase switch with per-phase resistance
►CCPS::DP::Ph3::SynchronGeneratorDQ	Synchronous generator model in dq-reference frame
CCPS::DP::Ph3::SynchronGeneratorDQODE
CCPS::DP::Ph3::SynchronGeneratorDQTrapez
CCPS::DP::Ph3::VoltageSource	Ideal Voltage source model
►CCPS::DP::SSNComp	Abstract base class for DP/SFA state-space nodal (SSN) components
►CCPS::DP::ITypeSSNComp	Abstract base for DP I-type SSN components (input current, output voltage)
►CCPS::DP::Ph1::TwoTerminalITypeSSNComp	Single-phase, two-terminal I-type SSN stamping layer
CCPS::DP::Ph1::GenericTwoTerminalITypeSSN	Generic single-phase, two-terminal I-type SSN component
►CCPS::DP::Ph3::TwoTerminalITypeSSNComp	Three-phase, two-terminal I-type SSN stamping layer
CCPS::DP::Ph3::GenericTwoTerminalITypeSSN	Generic three-phase, two-terminal I-type SSN component
►CCPS::DP::VTypeSSNComp	Abstract base for DP V-type SSN components (input voltage, output current)
►CCPS::DP::Ph1::TwoTerminalVTypeSSNComp	Single-phase, two-terminal V-type SSN stamping layer
CCPS::DP::Ph1::GenericTwoTerminalVTypeSSN	Generic single-phase, two-terminal V-type SSN component
CCPS::DP::Ph1::SSN::Full_Serial_RLC	Series RLC one-port as a DP V-type SSN component
►CCPS::DP::Ph3::TwoTerminalVTypeSSNComp	Three-phase, two-terminal V-type SSN stamping layer
CCPS::DP::Ph3::GenericTwoTerminalVTypeSSN	Generic three-phase, two-terminal V-type SSN component
CCPS::DP::Ph3::SSN::Full_Serial_RLC	Series RLC one-port as a three-phase DP V-type SSN component
CCPS::SP::Ph1::Capacitor
CCPS::SP::Ph1::ControlledCurrentSource	Ideal Current source model
CCPS::SP::Ph1::ControlledVoltageSource	Ideal Voltage source model
CCPS::SP::Ph1::Inductor	Static phasor inductor model
CCPS::SP::Ph1::Resistor	Static phasor resistor model
CCPS::SP::Ph1::SSNTypeI2T	SSNTypeI2T Model for a one phase, two terminal I-type SSN component which can be represented using a state space equation system x' = A * x + B * u y = C * x + D * u with x: state vector, y: output vector, u: input vector, where u represents external current (mIntfCurrent), y represents external voltage (mIntfVoltage), x represents any component states
CCPS::SP::Ph1::SSNTypeV2T	SSNTypeV2T Model for a one phase, two terminal V-type SSN component which can be represented using a state space equation system x' = A * x + B * u y = C * x + D * u with x: state vector, y: output vector, u: input vector, where u represents external voltage (mIntfVoltage), y represents external current (mIntfCurrent), x represents any component states
CCPS::SP::Ph1::Switch	Dynamic phasor switch
CCPS::SP::Ph1::VoltageSource	Ideal Voltage source model
CCPS::SP::Ph1::varResSwitch	Switch with variable resistance to avoid numerical oscillations, when an inductive current is suddenly interrupted. It is useful as a fault switch especially on a faulted generator or transformer winding
CCPS::SP::Ph3::Capacitor	Capacitor model
CCPS::SP::Ph3::Inductor	Inductor
CCPS::SP::Ph3::Resistor
CCPS::SP::Ph3::VoltageSource	Ideal Voltage source model
CCPS::DP::Ph3::SynchronGeneratorVBR
CCPS::SP::Ph1::PQNode
CCPS::SP::Ph1::PVNode
CCPS::SP::Ph1::Shunt
CCPS::SP::Ph1::SynchronGenerator
CCPS::SP::Ph1::VDNode
CCPS::SP::Ph1::VoltageSourceInverter
►CCPS::SimPowerComp< Real >
►CCPS::MNASimPowerComp< Real >
►CCPS::Base::ReducedOrderSynchronGenerator< Real >
►CCPS::EMT::Ph3::ReducedOrderSynchronGeneratorVBR	Base class for EMT VBR simplefied synchronous generator models
CCPS::EMT::Ph3::SynchronGenerator3OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 3rd order synchronous generator model
CCPS::EMT::Ph3::SynchronGenerator4OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 4th order synchronous generator model
CCPS::EMT::Ph3::SynchronGenerator5OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 5th type 2 order synchronous generator model Ref: Milano, Documentation for PSAT version 2.1.6, June 2, 2011, chapter 17.1.2
CCPS::EMT::Ph3::SynchronGenerator6aOrderVBR	Voltage-Behind-Reactance (VBR) implementation of 6th order synchronous generator model Marconato's model (Milano, Power System modelling and scripting, chapter 15)
CCPS::EMT::Ph3::SynchronGenerator6bOrderVBR	Voltage-Behind-Reactance (VBR) implementation of 6th order synchronous generator model Anderson - Fouad's model (Milano, Power System modelling and scripting, chapter 15)
CCPS::EMT::Ph3::SynchronGenerator4OrderPCM	4 Order Synchronous generator model for transient stability analysis
►CCPS::CompositePowerComp< Real >
CCPS::EMT::Ph1::PiLine	PI-line dynamic phasor model
CCPS::EMT::Ph1::VoltageSourceRamp
CCPS::EMT::Ph3::AvVoltageSourceInverterDQ
CCPS::EMT::Ph3::NetworkInjection	Network injection model
CCPS::EMT::Ph3::PiLine	PI-line dynamic phasor model
CCPS::EMT::Ph3::RXLoad	TODO: currently modelled as an impedance, which obviously doesn't have a constant power characteristic Model as current source and read from CSV files
CCPS::EMT::Ph3::RxLine
CCPS::EMT::Ph3::Shunt
CCPS::EMT::Ph3::SynchronGeneratorIdeal	Ideal voltage source representing a synchronous generator
CCPS::EMT::Ph3::SynchronGeneratorTrStab	Synchronous generator model for transient stability analysis
CCPS::EMT::Ph3::Transformer	Transformer that includes an inductance and resistance
CCPS::EMT::Ph3::VSIVoltageControlVCO
CCPS::EMT::Ph1::Capacitor	Capacitor model
CCPS::EMT::Ph1::CurrentSource	Ideal current source model
CCPS::EMT::Ph1::Inductor	Inductor
CCPS::EMT::Ph1::Resistor	EMT Resistor
CCPS::EMT::Ph1::SSN::Full_Serial_RLC	Full_Serial_RLC
CCPS::EMT::Ph1::SSNTypeI2T	SSNTypeI2T Model for a one phase, two terminal I-type SSN component which can be represented using a state space equation system x' = A * x + B * u y = C * x + D * u with x: state vector, y: output vector, u: input vector, where u represents external current (mIntfCurrent), y represents external voltage (mIntfVoltage), x represents any component states
CCPS::EMT::Ph1::SSNTypeV2T	SSNTypeV2T Model for a one phase, two terminal V-type SSN component which can be represented using a state space equation system x' = A * x + B * u y = C * x + D * u with x: state vector, y: output vector, u: input vector, where u represents external voltage (mIntfVoltage), y represents external current (mIntfCurrent), x represents any component states
CCPS::EMT::Ph1::Switch	One phase EMT switch
CCPS::EMT::Ph1::VoltageSource	Ideal Voltage source model
CCPS::EMT::Ph1::VoltageSourceNorton	Voltage source as Norton equivalent
CCPS::EMT::Ph3::Capacitor	Capacitor model
CCPS::EMT::Ph3::ControlledCurrentSource	Ideal current source model
CCPS::EMT::Ph3::ControlledVoltageSource	Controlled Ideal Voltage source model
CCPS::EMT::Ph3::CurrentSource	Ideal current source model
CCPS::EMT::Ph3::Inductor	Inductor
CCPS::EMT::Ph3::Resistor	EMT Resistor
CCPS::EMT::Ph3::SeriesResistor	EMT three-phase resistor
CCPS::EMT::Ph3::SeriesSwitch	EMT three-phase switch
CCPS::EMT::Ph3::Switch	Dynamic phasor switch
►CCPS::EMT::Ph3::SynchronGeneratorDQ	Synchronous generator model in dq-reference frame
CCPS::EMT::Ph3::SynchronGeneratorDQODE
CCPS::EMT::Ph3::SynchronGeneratorDQTrapez
CCPS::EMT::Ph3::SynchronGeneratorVBR
CCPS::EMT::Ph3::VoltageSource	Ideal Voltage source model
CCPS::EMT::Ph3::VoltageSourceNorton	Voltage source with Norton equivalent model
►CCPS::EMT::SSNComp	Abstract base class for EMT state-space nodal (SSN) components
►CCPS::EMT::ITypeSSNComp	Abstract base class for EMT I-type SSN components
►CCPS::EMT::Ph3::TwoTerminalITypeSSNComp	Abstract base class for three-phase, two-terminal, I-type SSN components
CCPS::EMT::Ph3::GenericTwoTerminalITypeSSN	Concrete generic three-phase, two-terminal I-type SSN component
CCPS::EMT::Ph3::SSN::Capacitor
►CCPS::EMT::VTypeSSNComp	Abstract base class for EMT V-type SSN components
►CCPS::EMT::Ph3::FourTerminalVTypeSSNComp
CCPS::EMT::Ph3::GenericFourTerminalVTypeSSN
►CCPS::EMT::Ph3::TwoTerminalVTypeSSNComp	Abstract base class for three-phase, two-terminal, V-type SSN components
CCPS::EMT::Ph3::GenericTwoTerminalVTypeSSN	Concrete generic three-phase, two-terminal V-type SSN component
CCPS::EMT::Ph3::SSN::Full_Serial_RLC	Full_Serial_RLC
CCPS::EMT::Ph3::SSN::Inductor	Inductor
►CCPS::EMT::VTypeVariableSSNComp	Abstract base class for variable EMT V-type SSN components
►CCPS::EMT::Ph3::TwoTerminalVTypeVariableSSNComp	Abstract base class for three-phase, two-terminal, variable V-type SSN components
CCPS::EMT::Ph3::AvVoltSourceInverterStateSpace
CCPS::EMT::Ph3::PiecewiseLinearInductor	Three-phase, two-terminal, piecewise-linear flux-state inductor
CCPS::EMT::Ph3::SSN_GFM	Three-phase grid-forming inverter represented by a locally linearized affine state-space model
CCPS::SP::Ph3::RxLine
►CCPS::SimPowerComp< VarType >	Base class for all components that are transmitting power
►CCPS::MNASimPowerComp< VarType >	Base class for all MNA components that are transmitting power
CCPS::Base::ReducedOrderSynchronGenerator< VarType >
CCPS::CompositePowerComp< VarType >	Base class for composite power components
►CCPS::TopologicalSignalComp
►CCPS::SimSignalComp
CCPS::Signal::DecouplingIdealTransformer_DP_Ph1
CCPS::Signal::DecouplingIdealTransformer_EMT_Ph1
CCPS::Signal::DecouplingIdealTransformer_EMT_Ph3
CCPS::Signal::DecouplingIdealTransformer_SP_Ph1
CCPS::Signal::DecouplingLine
CCPS::Signal::DecouplingLineEMT
CCPS::Signal::DecouplingLineEMT_Ph3
CCPS::Signal::ExciterDC1
CCPS::Signal::ExciterDC1Simp
CCPS::Signal::ExciterST1Simp
CCPS::Signal::ExciterStatic
CCPS::Signal::FIRFilter
CCPS::Signal::HydroTurbine
CCPS::Signal::HydroTurbineGovernor
CCPS::Signal::Integrator
CCPS::Signal::PLL
CCPS::Signal::PSS1A
CCPS::Signal::PowerControllerVSI
►CCPS::Signal::SignalGenerator	Model to generate generic signals
CCPS::Signal::CosineFMGenerator	Model to generate signals containing a frequency ramp
CCPS::Signal::DCGenerator	Model to generate sinusoidal signals
CCPS::Signal::FrequencyRampGenerator	Model to generate signals containing a frequency ramp
CCPS::Signal::SineWaveGenerator	Model to generate sinusoidal signals
CCPS::Signal::SteamTurbine
CCPS::Signal::SteamTurbineGovernor
CCPS::Signal::TurbineGovernor	Turbine governor model to be used with synchronous generator
CCPS::Signal::TurbineGovernorType1
CCPS::Signal::VCO
CCPS::Signal::VoltageControllerVSI
►CCPS::TopologicalTerminal
CCPS::SimTerminal< Complex >
CCPS::SimTerminal< Real >
CCPS::SimTerminal< VarType >
►CCPS::Base::Ph1::Inductor
CCPS::DP::Ph1::Inductor	Inductor
CCPS::EMT::Ph1::Inductor	Inductor
CCPS::EMT::Ph1::SSN::Full_Serial_RLC	Full_Serial_RLC
CCPS::SP::Ph1::Inductor	Static phasor inductor model
►CCPS::Base::Ph3::Inductor
CCPS::DP::Ph3::Inductor	Inductor
CCPS::DP::Ph3::SSN::Full_Serial_RLC	Series RLC one-port as a three-phase DP V-type SSN component
CCPS::EMT::Ph3::Inductor	Inductor
CCPS::EMT::Ph3::SSN::Full_Serial_RLC	Full_Serial_RLC
CCPS::EMT::Ph3::SSN::Inductor	Inductor
CCPS::SP::Ph3::Inductor	Inductor
►CDPsim::InterfaceWorker
CDPsim::InterfaceWorkerVillas
CCPS::CIM::InvalidTopology
►Cstd::iterator
CDPsim::cuda::Vector< T >::iterator
CCPS::EMT::SSNComp::LocalAbcStateBlock
CCPS::Logger
CDPsim::Simulation::LoggerMapping
CCPS::Math
►CCPS::MNAInterface	Interface to be implemented by all models used by the MNA solver
CCPS::MNASimPowerComp< Complex >
CCPS::MNASimPowerComp< Real >
CCPS::DP::Ph3::SynchronGeneratorVBR
CCPS::MNASimPowerComp< VarType >	Base class for all MNA components that are transmitting power
CDPsim::MnaSolverFactory
CCPS::MNAStampUtils
CDPsim::MNAStateSpaceContributor
CDPsim::MNAStateSpaceContributorFactory
CDPsim::MNAStateSpaceExtractor
►CCPS::MNASwitchInterface	MNA interface to be used by switching devices
CCPS::DP::Ph1::RXLoadSwitch	Constant impedance load model consisting of RLC elements
CCPS::DP::Ph1::Switch	Dynamic phasor switch
CCPS::DP::Ph1::varResSwitch	Switch with variable resistance to avoid numerical oscillations, when an inductive current is suddenly interrupted. It is useful as a fault switch especially on a faulted generator or transformer winding
CCPS::DP::Ph3::SeriesSwitch	Dynamic phasor three-phase switch
CCPS::DP::Ph3::Switch	Dynamic phasor three-phase switch with per-phase resistance
CCPS::EMT::Ph1::Switch	One phase EMT switch
CCPS::EMT::Ph3::SeriesSwitch	EMT three-phase switch
CCPS::EMT::Ph3::Switch	Dynamic phasor switch
CCPS::SP::Ph1::Switch	Dynamic phasor switch
CCPS::SP::Ph1::varResSwitch	Switch with variable resistance to avoid numerical oscillations, when an inductive current is suddenly interrupted. It is useful as a fault switch especially on a faulted generator or transformer winding
►CCPS::MNASyncGenInterface	Interface to be used by synchronous generators
CCPS::DP::Ph1::SynchronGenerator4OrderPCM	4 Order Synchronous generator model for transient stability analysis
CCPS::DP::Ph1::SynchronGenerator4OrderTPM	4 Order Synchronous generator model for transient stability analysis
CCPS::DP::Ph1::SynchronGenerator6OrderPCM	6 Order Synchronous generator model for transient stability analysis
CCPS::DP::Ph1::SynchronGeneratorIter	Base class for DP VBR synchronous generator model single phase
CCPS::EMT::Ph3::SynchronGenerator4OrderPCM	4 Order Synchronous generator model for transient stability analysis
►CCPS::MNATearInterface
CCPS::DP::Ph1::Inductor	Inductor
CCPS::DP::Ph1::PiLine	PI-line dynamic phasor model
CCPS::DP::Ph1::ResIndSeries	Resistor inductor series element
CCPS::DP::Ph1::Resistor	Dynamic phasor resistor model
CCPS::DP::Ph3::Inductor	Inductor
CCPS::DP::Ph3::PiLine	PI-line dynamic phasor model
CCPS::DP::Ph3::Resistor
CCPS::EMT::Ph1::Inductor	Inductor
CCPS::EMT::Ph1::PiLine	PI-line dynamic phasor model
CCPS::EMT::Ph1::Resistor	EMT Resistor
CCPS::EMT::Ph3::Inductor	Inductor
CCPS::EMT::Ph3::PiLine	PI-line dynamic phasor model
CCPS::EMT::Ph3::Resistor	EMT Resistor
CCPS::SP::Ph1::Inductor	Static phasor inductor model
CCPS::SP::Ph1::PiLine	PI-line static phasor model
CCPS::SP::Ph1::Resistor	Static phasor resistor model
CCPS::SP::Ph3::Inductor	Inductor
CCPS::SP::Ph3::Resistor
►CCPS::MNAVariableCompInterface	MNA interface to be used by elements that require recomputing of the system matrix
CCPS::DP::Ph1::MixedVTypeVariableSSNComp
CCPS::DP::Ph1::RXLoadSwitch	Constant impedance load model consisting of RLC elements
CCPS::DP::Ph1::ReducedOrderSynchronGeneratorVBR	Base class for DP VBR synchronous generator model single phase
CCPS::DP::Ph1::SVC	SVC
CCPS::DP::Ph1::Switch	Dynamic phasor switch
CCPS::DP::Ph1::varResSwitch	Switch with variable resistance to avoid numerical oscillations, when an inductive current is suddenly interrupted. It is useful as a fault switch especially on a faulted generator or transformer winding
CCPS::DP::Ph3::MixedVTypeVariableSSNComp
CCPS::DP::Ph3::SeriesSwitch	Dynamic phasor three-phase switch
CCPS::DP::Ph3::Switch	Dynamic phasor three-phase switch with per-phase resistance
CCPS::EMT::Ph1::Switch	One phase EMT switch
CCPS::EMT::Ph3::ReducedOrderSynchronGeneratorVBR	Base class for EMT VBR simplefied synchronous generator models
CCPS::EMT::Ph3::SeriesSwitch	EMT three-phase switch
CCPS::EMT::Ph3::Switch	Dynamic phasor switch
CCPS::EMT::Ph3::SynchronGeneratorVBR
CCPS::EMT::VTypeVariableSSNComp	Abstract base class for variable EMT V-type SSN components
CCPS::SP::Ph1::ReducedOrderSynchronGeneratorVBR	Base class for SP VBR synchronous generator model single phase
CCPS::SP::Ph1::Switch	Dynamic phasor switch
CCPS::SP::Ph1::varResSwitch	Switch with variable resistance to avoid numerical oscillations, when an inductive current is suddenly interrupted. It is useful as a fault switch especially on a faulted generator or transformer winding
►CCPS::ODEInterface
CCPS::DP::Ph3::SynchronGeneratorDQODE
CCPS::EMT::Ph3::SynchronGeneratorDQODE
CCPS::ODEintInterface
Coption
CDPsim::Timer::OverrunException
►CCPS::PFSolverInterfaceBranch	Common base class of all Component templates
CCPS::SP::Ph1::Capacitor
CCPS::SP::Ph1::PiLine	PI-line static phasor model
CCPS::SP::Ph1::RXLine
CCPS::SP::Ph1::Resistor	Static phasor resistor model
CCPS::SP::Ph1::Shunt
CCPS::SP::Ph1::Transformer	Transformer that includes an inductance and resistance
►CCPS::PFSolverInterfaceBus	Common base class of all Component templates
CCPS::SP::Ph1::Load
CCPS::SP::Ph1::NetworkInjection	Network injection model
CCPS::SP::Ph1::SynchronGenerator
CCPS::SP::Ph1::VoltageSourceInverter
►CCPS::Base::Ph1::PiLine
CCPS::DP::Ph1::PiLine	PI-line dynamic phasor model
CCPS::DP::Ph1::RxLine
CCPS::EMT::Ph1::PiLine	PI-line dynamic phasor model
CCPS::SP::Ph1::PiLine	PI-line static phasor model
CCPS::SP::Ph1::RXLine
►CCPS::Base::Ph3::PiLine
CCPS::DP::Ph3::PiLine	PI-line dynamic phasor model
CCPS::EMT::Ph3::PiLine	PI-line dynamic phasor model
CCPS::EMT::Ph3::RxLine
CCPS::SP::Ph3::RxLine
CCPS::PowerProfile
CCPS::PQData
►CCPS::Base::PSS	Base model for power system stabilizers
CCPS::Signal::PSS1A
►CCPS::Base::PSSParameters
CCPS::Signal::PSS1AParameters
CCPS::CIM::Reader
CDPsim::InterfaceQueued::ReaderThread
►CCPS::Base::Ph1::Resistor
CCPS::DP::Ph1::Resistor	Dynamic phasor resistor model
CCPS::DP::Ph3::SeriesResistor
CCPS::EMT::Ph1::Resistor	EMT Resistor
CCPS::EMT::Ph1::SSN::Full_Serial_RLC	Full_Serial_RLC
CCPS::EMT::Ph3::SeriesResistor	EMT three-phase resistor
CCPS::SP::Ph1::Resistor	Static phasor resistor model
►CCPS::Base::Ph3::Resistor
CCPS::DP::Ph3::Resistor
CCPS::DP::Ph3::SSN::Full_Serial_RLC	Series RLC one-port as a three-phase DP V-type SSN component
CCPS::EMT::Ph3::Resistor	EMT Resistor
CCPS::EMT::Ph3::SSN::Full_Serial_RLC	Full_Serial_RLC
CCPS::SP::Ph3::Resistor
CCPS::Utils::Rgb
►CDPsim::Scheduler
CDPsim::OpenMPLevelScheduler
CDPsim::SequentialScheduler
►CDPsim::ThreadScheduler
CDPsim::ThreadLevelScheduler
CDPsim::ThreadListScheduler
CDPsim::SchedulingException
►CSharedFactory< T >
CCPS::SimNode< Complex >
CCPS::SimNode< Real >
►CSharedFactory< AttributeDynamic< T > >
CCPS::AttributeDynamic< T >
►CSharedFactory< AttributeEvent< T > >
CDPsim::AttributeEvent< T >
►CSharedFactory< AttributeList >
►CCPS::AttributeList	Base class of objects having attributes to access member variables
CDPsim::DiakopticsSolver< VarType >
►CDPsim::Simulation	The Simulation holds a SystemTopology and a Solver
CDPsim::RealTimeSimulation	Extending Simulation class by real-time functionality
►CSharedFactory< AttributeStatic< T > >
CCPS::AttributeStatic< T >
►CSharedFactory< AttributeUpdateTask< DependentType, DependencyTypes... > >
CCPS::AttributeUpdateTask< DependentType, DependencyTypes >
►CSharedFactory< AvVoltageSourceInverterDQ >
CCPS::DP::Ph1::AvVoltageSourceInverterDQ
CCPS::EMT::Ph3::AvVoltageSourceInverterDQ
CCPS::SP::Ph1::AvVoltageSourceInverterDQ
►CSharedFactory< AvVoltSourceInverterStateSpace >
CCPS::DP::Ph1::AvVoltSourceInverterStateSpace	Averaged grid-following VSI SSN port of EMT::Ph3::AvVoltSourceInverterStateSpace: 8 real control states plus 2 complex envelope states (Vc, If)
CCPS::DP::Ph3::AvVoltSourceInverterStateSpace	Averaged grid-following VSI (SSN), optional dual-sequence current control
CCPS::EMT::Ph3::AvVoltSourceInverterStateSpace
►CSharedFactory< Capacitor >
CCPS::DP::Ph1::Capacitor	Capacitor model
CCPS::DP::Ph3::Capacitor	Capacitor model
CCPS::EMT::Ph1::Capacitor	Capacitor model
CCPS::EMT::Ph3::Capacitor	Capacitor model
CCPS::EMT::Ph3::SSN::Capacitor
CCPS::SP::Ph1::Capacitor
CCPS::SP::Ph3::Capacitor	Capacitor model
►CSharedFactory< ControlledCurrentSource >
CCPS::DP::Ph1::ControlledCurrentSource	Dynamic phasor ideal current source
CCPS::EMT::Ph3::ControlledCurrentSource	Ideal current source model
CCPS::SP::Ph1::ControlledCurrentSource	Ideal Current source model
►CSharedFactory< ControlledVoltageSource >
CCPS::DP::Ph1::ControlledVoltageSource	Controlled Ideal Voltage source model
CCPS::EMT::Ph3::ControlledVoltageSource	Controlled Ideal Voltage source model
CCPS::SP::Ph1::ControlledVoltageSource	Ideal Voltage source model
►CSharedFactory< CosineFMGenerator >
CCPS::Signal::CosineFMGenerator	Model to generate signals containing a frequency ramp
►CSharedFactory< CurrentSource >
CCPS::DP::Ph1::CurrentSource	Dynamic phasor ideal current source
CCPS::DP::Ph3::CurrentSource	Ideal current source model
CCPS::EMT::Ph1::CurrentSource	Ideal current source model
CCPS::EMT::Ph3::CurrentSource	Ideal current source model
►CSharedFactory< DataLogger >
CDPsim::DataLogger
►CSharedFactory< DCGenerator >
CCPS::Signal::DCGenerator	Model to generate sinusoidal signals
►CSharedFactory< DecouplingIdealTransformer_DP_Ph1 >
CCPS::Signal::DecouplingIdealTransformer_DP_Ph1
►CSharedFactory< DecouplingIdealTransformer_EMT_Ph1 >
CCPS::Signal::DecouplingIdealTransformer_EMT_Ph1
►CSharedFactory< DecouplingIdealTransformer_EMT_Ph3 >
CCPS::Signal::DecouplingIdealTransformer_EMT_Ph3
►CSharedFactory< DecouplingIdealTransformer_SP_Ph1 >
CCPS::Signal::DecouplingIdealTransformer_SP_Ph1
►CSharedFactory< DecouplingLine >
CCPS::Signal::DecouplingLine
►CSharedFactory< DecouplingLineEMT >
CCPS::Signal::DecouplingLineEMT
►CSharedFactory< DecouplingLineEMT_Ph3 >
CCPS::Signal::DecouplingLineEMT_Ph3
►CSharedFactory< ExciterDC1 >
CCPS::Signal::ExciterDC1
►CSharedFactory< ExciterDC1Parameters >
CCPS::Signal::ExciterDC1Parameters
►CSharedFactory< ExciterDC1Simp >
CCPS::Signal::ExciterDC1Simp
►CSharedFactory< ExciterDC1SimpParameters >
CCPS::Signal::ExciterDC1SimpParameters
►CSharedFactory< ExciterST1Parameters >
CCPS::Signal::ExciterST1Parameters
►CSharedFactory< ExciterST1Simp >
CCPS::Signal::ExciterST1Simp
►CSharedFactory< ExciterStatic >
CCPS::Signal::ExciterStatic
►CSharedFactory< ExciterStaticParameters >
CCPS::Signal::ExciterStaticParameters
►CSharedFactory< FIRFilter >
CCPS::Signal::FIRFilter
►CSharedFactory< FrequencyRampGenerator >
CCPS::Signal::FrequencyRampGenerator	Model to generate signals containing a frequency ramp
►CSharedFactory< Full_Serial_RLC >
CCPS::DP::Ph1::SSN::Full_Serial_RLC	Series RLC one-port as a DP V-type SSN component
CCPS::DP::Ph3::SSN::Full_Serial_RLC	Series RLC one-port as a three-phase DP V-type SSN component
CCPS::EMT::Ph1::SSN::Full_Serial_RLC	Full_Serial_RLC
CCPS::EMT::Ph3::SSN::Full_Serial_RLC	Full_Serial_RLC
►CSharedFactory< GenericFourTerminalVTypeSSN >
CCPS::EMT::Ph3::GenericFourTerminalVTypeSSN
►CSharedFactory< GenericTwoTerminalITypeSSN >
CCPS::DP::Ph1::GenericTwoTerminalITypeSSN	Generic single-phase, two-terminal I-type SSN component
CCPS::DP::Ph3::GenericTwoTerminalITypeSSN	Generic three-phase, two-terminal I-type SSN component
CCPS::EMT::Ph3::GenericTwoTerminalITypeSSN	Concrete generic three-phase, two-terminal I-type SSN component
►CSharedFactory< GenericTwoTerminalVTypeSSN >
CCPS::DP::Ph1::GenericTwoTerminalVTypeSSN	Generic single-phase, two-terminal V-type SSN component
CCPS::DP::Ph3::GenericTwoTerminalVTypeSSN	Generic three-phase, two-terminal V-type SSN component
CCPS::EMT::Ph3::GenericTwoTerminalVTypeSSN	Concrete generic three-phase, two-terminal V-type SSN component
►CSharedFactory< HydroGovernorParameters >
CCPS::Signal::HydroGovernorParameters
►CSharedFactory< HydroTurbine >
CCPS::Signal::HydroTurbine
►CSharedFactory< HydroTurbineGovernor >
CCPS::Signal::HydroTurbineGovernor
►CSharedFactory< HydroTurbineParameters >
CCPS::Signal::HydroTurbineParameters
►CSharedFactory< Inductor >
CCPS::DP::Ph1::Inductor	Inductor
CCPS::DP::Ph3::Inductor	Inductor
CCPS::EMT::Ph1::Inductor	Inductor
CCPS::EMT::Ph3::Inductor	Inductor
CCPS::EMT::Ph3::SSN::Inductor	Inductor
CCPS::SP::Ph1::Inductor	Static phasor inductor model
CCPS::SP::Ph3::Inductor	Inductor
►CSharedFactory< Integrator >
CCPS::Signal::Integrator
►CSharedFactory< Interface >
►CDPsim::Interface
►CDPsim::InterfaceQueued
►CDPsim::InterfaceVillas	Interface type that can be used to import and export simulation attributes over any node type supported by VILLASnode
CPyInterfaceVillas
CDPsim::InterfaceVillasQueueless	Interface type that can be used to import and export simulation attributes over any node type supported by VILLASnode
►CSharedFactory< InterfaceQueued >
CDPsim::InterfaceQueued
►CSharedFactory< InterfaceVillas >
CDPsim::InterfaceVillas	Interface type that can be used to import and export simulation attributes over any node type supported by VILLASnode
►CSharedFactory< InterfaceVillasQueueless >
CDPsim::InterfaceVillasQueueless	Interface type that can be used to import and export simulation attributes over any node type supported by VILLASnode
►CSharedFactory< InterfaceWorkerVillas >
CDPsim::InterfaceWorkerVillas
►CSharedFactory< Inverter >
CCPS::DP::Ph1::Inverter	Single phase inverter model
►CSharedFactory< Load >
CCPS::SP::Ph1::Load
►CSharedFactory< NetworkInjection >
CCPS::DP::Ph1::NetworkInjection	Network injection model
CCPS::DP::Ph3::NetworkInjection	Network injection model
CCPS::EMT::Ph3::NetworkInjection	Network injection model
CCPS::SP::Ph1::NetworkInjection	Network injection model
►CSharedFactory< PiecewiseLinearInductor >
CCPS::EMT::Ph3::PiecewiseLinearInductor	Three-phase, two-terminal, piecewise-linear flux-state inductor
►CSharedFactory< PiLine >
CCPS::DP::Ph1::PiLine	PI-line dynamic phasor model
CCPS::DP::Ph3::PiLine	PI-line dynamic phasor model
CCPS::EMT::Ph1::PiLine	PI-line dynamic phasor model
CCPS::EMT::Ph3::PiLine	PI-line dynamic phasor model
CCPS::SP::Ph1::PiLine	PI-line static phasor model
►CSharedFactory< PLL >
CCPS::Signal::PLL
►CSharedFactory< PowerControllerVSI >
CCPS::Signal::PowerControllerVSI
►CSharedFactory< PQLoadCS >
CCPS::DP::Ph1::PQLoadCS	PQ-load represented by a current source
►CSharedFactory< PQNode >
CCPS::SP::Ph1::PQNode
►CSharedFactory< ProfileVoltageSource >
CCPS::DP::Ph1::ProfileVoltageSource
►CSharedFactory< PSS1A >
CCPS::Signal::PSS1A
►CSharedFactory< PSS1AParameters >
CCPS::Signal::PSS1AParameters
►CSharedFactory< PVNode >
CCPS::SP::Ph1::PVNode
►CSharedFactory< RealTimeDataLogger >
CDPsim::RealTimeDataLogger
►CSharedFactory< ResIndSeries >
CCPS::DP::Ph1::ResIndSeries	Resistor inductor series element
►CSharedFactory< Resistor >
CCPS::DP::Ph1::Resistor	Dynamic phasor resistor model
CCPS::DP::Ph3::Resistor
CCPS::EMT::Ph1::Resistor	EMT Resistor
CCPS::EMT::Ph3::Resistor	EMT Resistor
CCPS::SP::Ph1::Resistor	Static phasor resistor model
CCPS::SP::Ph3::Resistor
►CSharedFactory< RXLine >
CCPS::SP::Ph1::RXLine
►CSharedFactory< RxLine >
CCPS::DP::Ph1::RxLine
CCPS::EMT::Ph3::RxLine
CCPS::SP::Ph3::RxLine
►CSharedFactory< RXLoad >
CCPS::DP::Ph1::RXLoad	Constant impedance load model consisting of RLC elements
CCPS::EMT::Ph3::RXLoad	TODO: currently modelled as an impedance, which obviously doesn't have a constant power characteristic Model as current source and read from CSV files
►CSharedFactory< RXLoadSwitch >
CCPS::DP::Ph1::RXLoadSwitch	Constant impedance load model consisting of RLC elements
►CSharedFactory< SeriesResistor >
CCPS::DP::Ph3::SeriesResistor
CCPS::EMT::Ph3::SeriesResistor	EMT three-phase resistor
►CSharedFactory< SeriesSwitch >
CCPS::DP::Ph3::SeriesSwitch	Dynamic phasor three-phase switch
CCPS::EMT::Ph3::SeriesSwitch	EMT three-phase switch
►CSharedFactory< Shunt >
CCPS::DP::Ph1::Shunt
CCPS::EMT::Ph3::Shunt
CCPS::SP::Ph1::Shunt
►CSharedFactory< SimNode< VarType > >
CCPS::SimNode< VarType >
►CSharedFactory< SimTerminal< Complex > >
CCPS::SimTerminal< Complex >
►CSharedFactory< SimTerminal< Real > >
CCPS::SimTerminal< Real >
►CSharedFactory< SimTerminal< VarType > >
CCPS::SimTerminal< VarType >
►CSharedFactory< SineWaveGenerator >
CCPS::Signal::SineWaveGenerator	Model to generate sinusoidal signals
►CSharedFactory< SolidStateTransformer >
CCPS::SP::Ph1::SolidStateTransformer
►CSharedFactory< SSN_GFM >
CCPS::EMT::Ph3::SSN_GFM	Three-phase grid-forming inverter represented by a locally linearized affine state-space model
►CSharedFactory< SSNTypeI2T >
CCPS::EMT::Ph1::SSNTypeI2T	SSNTypeI2T Model for a one phase, two terminal I-type SSN component which can be represented using a state space equation system x' = A * x + B * u y = C * x + D * u with x: state vector, y: output vector, u: input vector, where u represents external current (mIntfCurrent), y represents external voltage (mIntfVoltage), x represents any component states
CCPS::SP::Ph1::SSNTypeI2T	SSNTypeI2T Model for a one phase, two terminal I-type SSN component which can be represented using a state space equation system x' = A * x + B * u y = C * x + D * u with x: state vector, y: output vector, u: input vector, where u represents external current (mIntfCurrent), y represents external voltage (mIntfVoltage), x represents any component states
►CSharedFactory< SSNTypeV2T >
CCPS::EMT::Ph1::SSNTypeV2T	SSNTypeV2T Model for a one phase, two terminal V-type SSN component which can be represented using a state space equation system x' = A * x + B * u y = C * x + D * u with x: state vector, y: output vector, u: input vector, where u represents external voltage (mIntfVoltage), y represents external current (mIntfCurrent), x represents any component states
CCPS::SP::Ph1::SSNTypeV2T	SSNTypeV2T Model for a one phase, two terminal V-type SSN component which can be represented using a state space equation system x' = A * x + B * u y = C * x + D * u with x: state vector, y: output vector, u: input vector, where u represents external voltage (mIntfVoltage), y represents external current (mIntfCurrent), x represents any component states
►CSharedFactory< SteamGovernorParameters >
CCPS::Signal::SteamGovernorParameters
►CSharedFactory< SteamTurbine >
CCPS::Signal::SteamTurbine
►CSharedFactory< SteamTurbineGovernor >
CCPS::Signal::SteamTurbineGovernor
►CSharedFactory< SteamTurbineParameters >
CCPS::Signal::SteamTurbineParameters
►CSharedFactory< SVC >
CCPS::DP::Ph1::SVC	SVC
►CSharedFactory< Switch >
CCPS::DP::Ph1::Switch	Dynamic phasor switch
CCPS::DP::Ph3::Switch	Dynamic phasor three-phase switch with per-phase resistance
CCPS::EMT::Ph1::Switch	One phase EMT switch
CCPS::EMT::Ph3::Switch	Dynamic phasor switch
CCPS::SP::Ph1::Switch	Dynamic phasor switch
►CSharedFactory< SwitchEvent >
CDPsim::SwitchEvent
►CSharedFactory< SwitchEvent3Ph >
CDPsim::SwitchEvent3Ph
►CSharedFactory< SynchronGenerator >
CCPS::SP::Ph1::SynchronGenerator
►CSharedFactory< SynchronGenerator3OrderVBR >
CCPS::DP::Ph1::SynchronGenerator3OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 3rd order synchronous generator model
CCPS::EMT::Ph3::SynchronGenerator3OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 3rd order synchronous generator model
CCPS::SP::Ph1::SynchronGenerator3OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 3rd order synchronous generator model
►CSharedFactory< SynchronGenerator4OrderPCM >
CCPS::DP::Ph1::SynchronGenerator4OrderPCM	4 Order Synchronous generator model for transient stability analysis
CCPS::EMT::Ph3::SynchronGenerator4OrderPCM	4 Order Synchronous generator model for transient stability analysis
►CSharedFactory< SynchronGenerator4OrderTPM >
CCPS::DP::Ph1::SynchronGenerator4OrderTPM	4 Order Synchronous generator model for transient stability analysis
►CSharedFactory< SynchronGenerator4OrderVBR >
CCPS::DP::Ph1::SynchronGenerator4OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 4th order synchronous generator model
CCPS::EMT::Ph3::SynchronGenerator4OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 4th order synchronous generator model
CCPS::SP::Ph1::SynchronGenerator4OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 4th order synchronous generator model
►CSharedFactory< SynchronGenerator5OrderVBR >
CCPS::DP::Ph1::SynchronGenerator5OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 5th type 2 order synchronous generator model Ref: Milano, Documentation for PSAT version 2.1.6, June 2, 2011, chapter 17.1.2
CCPS::EMT::Ph3::SynchronGenerator5OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 5th type 2 order synchronous generator model Ref: Milano, Documentation for PSAT version 2.1.6, June 2, 2011, chapter 17.1.2
CCPS::SP::Ph1::SynchronGenerator5OrderVBR	Voltage-Behind-Reactance (VBR) implementation of 5th type 2 order synchronous generator model Ref: Milano, Documentation for PSAT version 2.1.6, June 2, 2011, chapter 17.1.2
►CSharedFactory< SynchronGenerator6aOrderVBR >
CCPS::DP::Ph1::SynchronGenerator6aOrderVBR	Voltage-Behind-Reactance (VBR) implementation of 6th order synchronous generator model Marconato's model (Milano, Power System modelling and scripting, chapter 15)
CCPS::EMT::Ph3::SynchronGenerator6aOrderVBR	Voltage-Behind-Reactance (VBR) implementation of 6th order synchronous generator model Marconato's model (Milano, Power System modelling and scripting, chapter 15)
CCPS::SP::Ph1::SynchronGenerator6aOrderVBR	Voltage-Behind-Reactance (VBR) implementation of 6th order synchronous generator model Marconato's model (Milano, Power System modelling and scripting, chapter 15)
►CSharedFactory< SynchronGenerator6bOrderVBR >
CCPS::DP::Ph1::SynchronGenerator6bOrderVBR	Voltage-Behind-Reactance (VBR) implementation of 6th order synchronous generator model Anderson - Fouad's model (Milano, Power System modelling and scripting, chapter 15)
CCPS::EMT::Ph3::SynchronGenerator6bOrderVBR	Voltage-Behind-Reactance (VBR) implementation of 6th order synchronous generator model Anderson - Fouad's model (Milano, Power System modelling and scripting, chapter 15)
CCPS::SP::Ph1::SynchronGenerator6bOrderVBR	Voltage-Behind-Reactance (VBR) implementation of 6th order synchronous generator model Anderson-Fouad's model (Milano, Power System modelling and scripting, chapter 15)
►CSharedFactory< SynchronGenerator6OrderPCM >
CCPS::DP::Ph1::SynchronGenerator6OrderPCM	6 Order Synchronous generator model for transient stability analysis
►CSharedFactory< SynchronGeneratorDQODE >
CCPS::DP::Ph3::SynchronGeneratorDQODE
CCPS::EMT::Ph3::SynchronGeneratorDQODE
►CSharedFactory< SynchronGeneratorDQTrapez >
CCPS::DP::Ph3::SynchronGeneratorDQTrapez
CCPS::EMT::Ph3::SynchronGeneratorDQTrapez
►CSharedFactory< SynchronGeneratorIdeal >
CCPS::DP::Ph1::SynchronGeneratorIdeal	Ideal voltage source representing a synchronous generator
CCPS::EMT::Ph3::SynchronGeneratorIdeal	Ideal voltage source representing a synchronous generator
►CSharedFactory< SynchronGeneratorTrStab >
CCPS::DP::Ph1::SynchronGeneratorTrStab	Synchronous generator model for transient stability analysis
CCPS::EMT::Ph3::SynchronGeneratorTrStab	Synchronous generator model for transient stability analysis
CCPS::SP::Ph1::SynchronGeneratorTrStab	Synchronous generator model for transient stability analysis
►CSharedFactory< SynchronGeneratorVBR >
CCPS::DP::Ph3::SynchronGeneratorVBR
CCPS::EMT::Ph3::SynchronGeneratorVBR
►CSharedFactory< Transformer >
CCPS::DP::Ph1::Transformer	Transformer that includes an inductance and resistance
CCPS::EMT::Ph3::Transformer	Transformer that includes an inductance and resistance
CCPS::SP::Ph1::Transformer	Transformer that includes an inductance and resistance
►CSharedFactory< TurbineGovernor >
CCPS::Signal::TurbineGovernor	Turbine governor model to be used with synchronous generator
►CSharedFactory< TurbineGovernorType1 >
CCPS::Signal::TurbineGovernorType1
►CSharedFactory< Variable_Serial_RLC >
CCPS::DP::Ph1::SSN::Variable_Serial_RLC
►CSharedFactory< varResSwitch >
CCPS::DP::Ph1::varResSwitch	Switch with variable resistance to avoid numerical oscillations, when an inductive current is suddenly interrupted. It is useful as a fault switch especially on a faulted generator or transformer winding
CCPS::SP::Ph1::varResSwitch	Switch with variable resistance to avoid numerical oscillations, when an inductive current is suddenly interrupted. It is useful as a fault switch especially on a faulted generator or transformer winding
►CSharedFactory< VCO >
CCPS::Signal::VCO
►CSharedFactory< VDNode >
CCPS::SP::Ph1::VDNode
►CSharedFactory< VoltageControllerVSI >
CCPS::Signal::VoltageControllerVSI
►CSharedFactory< VoltageSource >
CCPS::DP::Ph1::VoltageSource	Ideal Voltage source model
CCPS::DP::Ph3::VoltageSource	Ideal Voltage source model
CCPS::EMT::Ph1::VoltageSource	Ideal Voltage source model
CCPS::EMT::Ph3::VoltageSource	Ideal Voltage source model
CCPS::SP::Ph1::VoltageSource	Ideal Voltage source model
CCPS::SP::Ph3::VoltageSource	Ideal Voltage source model
►CSharedFactory< VoltageSourceInverter >
CCPS::SP::Ph1::VoltageSourceInverter
►CSharedFactory< VoltageSourceNorton >
CCPS::DP::Ph1::VoltageSourceNorton	Resistive dynamic phasor voltage source
CCPS::EMT::Ph1::VoltageSourceNorton	Voltage source as Norton equivalent
CCPS::EMT::Ph3::VoltageSourceNorton	Voltage source with Norton equivalent model
►CSharedFactory< VoltageSourceRamp >
CCPS::DP::Ph1::VoltageSourceRamp
CCPS::EMT::Ph1::VoltageSourceRamp
►CSharedFactory< VSIVoltageControlVCO >
CCPS::EMT::Ph3::VSIVoltageControlVCO
►CDPsim::Solver	Base class for more specific solvers such as MNA, ODE or IDA
CDPsim::DAESolver	Solver class which uses Differential Algebraic Equation(DAE) systems
CDPsim::DiakopticsSolver< VarType >
►CDPsim::MnaSolver< VarType >	Solver class using Modified Nodal Analysis (MNA)
►CDPsim::MnaSolverDirect< VarType >	Solver class using Modified Nodal Analysis (MNA)
CDPsim::MnaSolverPlugin< VarType >
CDPsim::ODESolver	Solver class for ODE (Ordinary Differential Equation) systems
CDPsim::ODEintSolver	Solver class which uses ODE systems
►CDPsim::PFSolver	Solver class using the nonlinear powerflow (PF) formulation
►CDPsim::PFSolverPowerPolar	Powerflow solver class considering power mismatch and voltages in polar coordinates
CDPsim::PFSolverPowerPolarSparse
CDPsim::SolverException
CDPsim::StateSpaceAbcStateBlock
CDPsim::StateSpaceMetadata
CDPsim::StateSpaceModalAnalysis
►CCPS::Base::Ph1::SVC	Static VAR compensator (SVC)
CCPS::DP::Ph1::SVC	SVC
►CCPS::Base::Ph1::Switch	Dynamic Phasor Three-Phase Switch
CCPS::DP::Ph1::Switch	Dynamic phasor switch
CCPS::DP::Ph1::varResSwitch	Switch with variable resistance to avoid numerical oscillations, when an inductive current is suddenly interrupted. It is useful as a fault switch especially on a faulted generator or transformer winding
CCPS::DP::Ph3::SeriesSwitch	Dynamic phasor three-phase switch
CCPS::EMT::Ph1::Switch	One phase EMT switch
CCPS::EMT::Ph3::SeriesSwitch	EMT three-phase switch
CCPS::SP::Ph1::Switch	Dynamic phasor switch
CCPS::SP::Ph1::varResSwitch	Switch with variable resistance to avoid numerical oscillations, when an inductive current is suddenly interrupted. It is useful as a fault switch especially on a faulted generator or transformer winding
►CCPS::Base::Ph3::Switch	Dynamic Phasor Three-Phase Switch
CCPS::DP::Ph3::Switch	Dynamic phasor three-phase switch with per-phase resistance
CCPS::EMT::Ph3::Switch	Dynamic phasor switch
CDPsim::SwitchConfiguration	Holds switching time and which system should be activated
►CCPS::Base::SynchronGenerator	Base synchronous generator model
CCPS::DP::Ph1::SynchronGeneratorTrStab	Synchronous generator model for transient stability analysis
CCPS::DP::Ph3::SynchronGeneratorDQ	Synchronous generator model in dq-reference frame
CCPS::DP::Ph3::SynchronGeneratorVBR
CCPS::EMT::Ph3::SynchronGeneratorDQ	Synchronous generator model in dq-reference frame
CCPS::EMT::Ph3::SynchronGeneratorTrStab	Synchronous generator model for transient stability analysis
CCPS::EMT::Ph3::SynchronGeneratorVBR
CCPS::SP::Ph1::SynchronGeneratorTrStab	Synchronous generator model for transient stability analysis
CCPS::SystemError
CSystemError
CCPS::SystemTopology
►CCPS::Task	Tasks to be defined by every component
CCPS::DP::Ph1::AvVoltageSourceInverterDQ::ControlPreStep
CCPS::DP::Ph1::AvVoltageSourceInverterDQ::ControlStep
CCPS::DP::Ph1::Capacitor::MnaPostStepHarm
CCPS::DP::Ph1::Capacitor::MnaPreStepHarm
CCPS::DP::Ph1::Inductor::MnaPostStepHarm
CCPS::DP::Ph1::Inductor::MnaPreStepHarm
CCPS::DP::Ph1::Inverter::MnaPostStepHarm
CCPS::DP::Ph1::Inverter::MnaPreStepHarm
CCPS::DP::Ph1::ProfileVoltageSource::MnaPostStepHarm
CCPS::DP::Ph1::ProfileVoltageSource::MnaPreStepHarm
CCPS::DP::Ph1::Resistor::MnaPostStepHarm
CCPS::DP::Ph1::SynchronGeneratorTrStab::AddBStep
CCPS::DP::Ph1::VoltageSource::MnaPostStepHarm
CCPS::DP::Ph1::VoltageSource::MnaPreStepHarm
CCPS::DP::Ph3::SynchronGeneratorDQODE::ODEPreStep
CCPS::EMT::Ph3::AvVoltageSourceInverterDQ::ControlPreStep
CCPS::EMT::Ph3::AvVoltageSourceInverterDQ::ControlStep
CCPS::EMT::Ph3::SynchronGeneratorDQODE::ODEPreStep
CCPS::EMT::Ph3::SynchronGeneratorTrStab::AddBStep
CCPS::EMT::Ph3::VSIVoltageControlVCO::ControlPreStep
CCPS::EMT::Ph3::VSIVoltageControlVCO::ControlStep
CCPS::MNASimPowerComp< VarType >::MnaPostStep
CCPS::MNASimPowerComp< VarType >::MnaPreStep
CCPS::SP::Ph1::AvVoltageSourceInverterDQ::ControlPreStep
CCPS::SP::Ph1::AvVoltageSourceInverterDQ::ControlStep
CCPS::SP::Ph1::SynchronGeneratorTrStab::AddBStep
CCPS::Signal::DecouplingIdealTransformer_DP_Ph1::PostStep
CCPS::Signal::DecouplingIdealTransformer_DP_Ph1::PreStep
CCPS::Signal::DecouplingIdealTransformer_EMT_Ph1::PostStep
CCPS::Signal::DecouplingIdealTransformer_EMT_Ph1::PreStep
CCPS::Signal::DecouplingIdealTransformer_EMT_Ph3::PostStep
CCPS::Signal::DecouplingIdealTransformer_EMT_Ph3::PreStep
CCPS::Signal::DecouplingIdealTransformer_SP_Ph1::PostStep
CCPS::Signal::DecouplingIdealTransformer_SP_Ph1::PreStep
CCPS::Signal::DecouplingLine::PostStep
CCPS::Signal::DecouplingLine::PreStep
CCPS::Signal::DecouplingLineEMT::PostStep
CCPS::Signal::DecouplingLineEMT::PreStep
CCPS::Signal::DecouplingLineEMT_Ph3::PostStep
CCPS::Signal::DecouplingLineEMT_Ph3::PreStep
CCPS::Signal::FIRFilter::Step
CCPS::Signal::Integrator::PreStep
CCPS::Signal::Integrator::Step
CCPS::Signal::PLL::PreStep
CCPS::Signal::PLL::Step
CCPS::Signal::PowerControllerVSI::PreStep
CCPS::Signal::PowerControllerVSI::Step
CCPS::Signal::VCO::PreStep
CCPS::Signal::VCO::Step
CCPS::Signal::VoltageControllerVSI::PreStep
CCPS::Signal::VoltageControllerVSI::Step
CCPS::SimNode< VarType >::MnaPostStepHarm
CDPsim::BarrierTask
CDPsim::DataLogger::Step
CDPsim::DiakopticsSolver< VarType >::LogTask
CDPsim::DiakopticsSolver< VarType >::PostSolveTask
CDPsim::DiakopticsSolver< VarType >::PreSolveTask
CDPsim::DiakopticsSolver< VarType >::SolveTask
CDPsim::DiakopticsSolver< VarType >::SubnetSolveTask
CDPsim::InterfaceQueued::PostStep
CDPsim::InterfaceQueued::PreStep
CDPsim::InterfaceVillasQueueless::PostStep
CDPsim::InterfaceVillasQueueless::PreStep
CDPsim::MnaSolverDirect< VarType >::LogTask
CDPsim::MnaSolverDirect< VarType >::SolveTask
CDPsim::MnaSolverDirect< VarType >::SolveTaskHarm
CDPsim::MnaSolverDirect< VarType >::SolveTaskRecomp
CDPsim::MnaSolverDirect< VarType >::StateSpaceExtractionTask	State-space extraction task
CDPsim::MnaSolverPlugin< VarType >::LogTask
CDPsim::MnaSolverPlugin< VarType >::SolveTask
CDPsim::ODESolver::SolveTask
CDPsim::PFSolver::SolveTask
CDPsim::RealTimeDataLogger::Step
CDPsim::Scheduler::Root
CDPsim::Timer
►CCPS::Base::Ph1::Transformer
CCPS::DP::Ph1::Transformer	Transformer that includes an inductance and resistance
CCPS::SP::Ph1::Transformer	Transformer that includes an inductance and resistance
►CCPS::Base::Ph3::Transformer
CCPS::EMT::Ph3::Transformer	Transformer that includes an inductance and resistance
►Cstd::true_type
CCPS::CIM::has_value_member< T, std::void_t< decltype(std::declval< const T & >().value)> >
►CCPS::Base::Turbine	Base model for Turbines
CCPS::Signal::HydroTurbine
CCPS::Signal::SteamTurbine
►CCPS::Base::TurbineParameters
CCPS::Signal::HydroTurbineParameters
CCPS::Signal::SteamTurbineParameters
CUniqueFactory< T >
CDPsim::UnsupportedSolverException
CDPsim::cuda::Vector< T >
►CCPS::Base::Ph1::VoltageSource
CCPS::DP::Ph1::VoltageSourceNorton	Resistive dynamic phasor voltage source
CCPS::EMT::Ph1::VoltageSourceNorton	Voltage source as Norton equivalent
CCPS::EMT::Ph3::VoltageSourceNorton	Voltage source with Norton equivalent model
CCPS::Base::Ph3::VoltageSource
CDPsim::InterfaceQueued::WriterThread