11#include <pybind11/complex.h>
12#include <pybind11/eigen.h>
13#include <pybind11/functional.h>
14#include <pybind11/iostream.h>
15#include <pybind11/pybind11.h>
16#include <pybind11/stl.h>
24namespace py = pybind11;
25using namespace pybind11::literals;
27PYBIND11_MODULE(dpsimpy, m) {
30 -----------------------
31 The Python bindings provide access to most of the DPsim features implemented in C++.
32 It is possible to run powerflow, quasi-static, dynamic phasor and electromagnetic transient simulations
33 and to parameterize all components of the network from Python.
37 py::enum_<CPS::Logger::Level>(m,
"LogLevel")
38 .value(
"trace", CPS::Logger::Level::trace)
39 .value(
"debug", CPS::Logger::Level::debug)
40 .value(
"info", CPS::Logger::Level::info)
41 .value(
"warn", CPS::Logger::Level::warn)
42 .value(
"err", CPS::Logger::Level::err)
43 .value(
"critical", CPS::Logger::Level::critical)
44 .value(
"off", CPS::Logger::Level::off);
46 py::class_<CPS::Math>(m,
"Math")
47 .def_static(
"single_phase_variable_to_three_phase",
49 .def_static(
"single_phase_parameter_to_three_phase",
51 .def_static(
"single_phase_power_to_three_phase",
54 py::enum_<DPsim::Solver::Behaviour>(m,
"SolverBehaviour")
55 .value(
"Initialization", DPsim::Solver::Behaviour::Initialization)
56 .value(
"Simulation", DPsim::Solver::Behaviour::Simulation);
58 py::enum_<CPS::Domain>(m,
"Domain")
59 .value(
"SP", CPS::Domain::SP)
60 .value(
"DP", CPS::Domain::DP)
61 .value(
"EMT", CPS::Domain::EMT);
63 py::enum_<CPS::PhaseType>(m,
"PhaseType")
64 .value(
"A", CPS::PhaseType::A)
65 .value(
"B", CPS::PhaseType::B)
66 .value(
"C", CPS::PhaseType::C)
67 .value(
"ABC", CPS::PhaseType::ABC)
68 .value(
"Single", CPS::PhaseType::Single);
70 py::enum_<CPS::PowerflowBusType>(m,
"PowerflowBusType")
71 .value(
"PV", CPS::PowerflowBusType::PV)
72 .value(
"PQ", CPS::PowerflowBusType::PQ)
73 .value(
"VD", CPS::PowerflowBusType::VD)
74 .value(
"None", CPS::PowerflowBusType::None);
76 py::enum_<CPS::GeneratorType>(m,
"GeneratorType")
77 .value(
"PVNode", CPS::GeneratorType::PVNode)
78 .value(
"TransientStability", CPS::GeneratorType::TransientStability)
79 .value(
"IdealVoltageSource", CPS::GeneratorType::IdealVoltageSource)
80 .value(
"SG3OrderVBR", CPS::GeneratorType::SG3OrderVBR)
81 .value(
"SG4OrderVBR", CPS::GeneratorType::SG4OrderVBR)
82 .value(
"SG5OrderVBR", CPS::GeneratorType::SG5OrderVBR)
83 .value(
"SG6aOrderVBR", CPS::GeneratorType::SG6aOrderVBR)
84 .value(
"SG6bOrderVBR", CPS::GeneratorType::SG6bOrderVBR)
85 .value(
"FullOrderVBR", CPS::GeneratorType::FullOrderVBR)
86 .value(
"FullOrder", CPS::GeneratorType::FullOrder)
87 .value(
"NONE", CPS::GeneratorType::None);
89 py::enum_<DPsim::Solver::Type>(m,
"Solver")
90 .value(
"MNA", DPsim::Solver::Type::MNA)
91 .value(
"DAE", DPsim::Solver::Type::DAE)
92 .value(
"NRP", DPsim::Solver::Type::NRP);
94 py::enum_<DPsim::DirectLinearSolverImpl>(m,
"DirectLinearSolverImpl")
95 .value(
"Undef", DPsim::DirectLinearSolverImpl::Undef)
96 .value(
"DenseLU", DPsim::DirectLinearSolverImpl::DenseLU)
97 .value(
"SparseLU", DPsim::DirectLinearSolverImpl::SparseLU)
98 .value(
"KLU", DPsim::DirectLinearSolverImpl::KLU)
99 .value(
"CUDADense", DPsim::DirectLinearSolverImpl::CUDADense)
100 .value(
"CUDASparse", DPsim::DirectLinearSolverImpl::CUDASparse)
101 .value(
"CUDAMagma", DPsim::DirectLinearSolverImpl::CUDAMagma);
103 py::enum_<DPsim::SCALING_METHOD>(m,
"scaling_method")
104 .value(
"no_scaling", DPsim::SCALING_METHOD::NO_SCALING)
105 .value(
"sum_scaling", DPsim::SCALING_METHOD::SUM_SCALING)
106 .value(
"max_scaling", DPsim::SCALING_METHOD::MAX_SCALING);
108 py::enum_<DPsim::FILL_IN_REDUCTION_METHOD>(m,
"fill_in_reduction_method")
109 .value(
"amd", DPsim::FILL_IN_REDUCTION_METHOD::AMD)
110 .value(
"amd_nv", DPsim::FILL_IN_REDUCTION_METHOD::AMD_NV)
111 .value(
"amd_ra", DPsim::FILL_IN_REDUCTION_METHOD::AMD_RA)
112 .value(
"colamd", DPsim::FILL_IN_REDUCTION_METHOD::COLAMD);
114 py::enum_<DPsim::PARTIAL_REFACTORIZATION_METHOD>(
115 m,
"partial_refactorization_method")
116 .value(
"no_partial_refactorization",
117 DPsim::PARTIAL_REFACTORIZATION_METHOD::NO_PARTIAL_REFACTORIZATION)
118 .value(
"factorization_path",
119 DPsim::PARTIAL_REFACTORIZATION_METHOD::FACTORIZATION_PATH)
120 .value(
"refactorization_restart",
121 DPsim::PARTIAL_REFACTORIZATION_METHOD::REFACTORIZATION_RESTART);
123 py::enum_<DPsim::USE_BTF>(m,
"use_btf")
124 .value(
"no_btf", DPsim::USE_BTF::NO_BTF)
125 .value(
"do_btf", DPsim::USE_BTF::DO_BTF);
127 py::enum_<CPS::CSVReader::Mode>(m,
"CSVReaderMode")
128 .value(
"AUTO", CPS::CSVReader::Mode::AUTO)
129 .value(
"MANUAL", CPS::CSVReader::Mode::MANUAL);
131 py::enum_<CPS::CSVReader::DataFormat>(m,
"CSVReaderFormat")
132 .value(
"HHMMSS", CPS::CSVReader::DataFormat::HHMMSS)
133 .value(
"SECONDS", CPS::CSVReader::DataFormat::SECONDS)
134 .value(
"HOURS", CPS::CSVReader::DataFormat::HOURS)
135 .value(
"MINUTES", CPS::CSVReader::DataFormat::MINUTES);
137 py::enum_<DPsim::StateSpaceAnalysisFrame>(m,
"StateSpaceAnalysisFrame")
138 .value(
"Native", DPsim::StateSpaceAnalysisFrame::Native)
139 .value(
"GlobalDQ0", DPsim::StateSpaceAnalysisFrame::GlobalDQ0);
141 m.attr(
"RMS3PH_TO_PEAK1PH") = RMS3PH_TO_PEAK1PH;
142 m.attr(
"PEAK1PH_TO_RMS3PH") = PEAK1PH_TO_RMS3PH;
143 m.attr(
"P_SNUB_TRANSFORMER") = P_SNUB_TRANSFORMER;
144 m.attr(
"Q_SNUB_TRANSFORMER") = Q_SNUB_TRANSFORMER;
148 py::class_<DPsim::DirectLinearSolverConfiguration>(
149 m,
"DirectLinearSolverConfiguration")
151 .def(
"set_fill_in_reduction_method",
152 &DPsim::DirectLinearSolverConfiguration::setFillInReductionMethod)
153 .def(
"set_scaling_method",
154 &DPsim::DirectLinearSolverConfiguration::setScalingMethod)
155 .def(
"set_partial_refactorization_method",
157 setPartialRefactorizationMethod)
158 .def(
"set_btf", &DPsim::DirectLinearSolverConfiguration::setBTF)
159 .def(
"get_scaling_method",
160 &DPsim::DirectLinearSolverConfiguration::getScalingMethod)
161 .def(
"get_fill_in_reduction_method",
162 &DPsim::DirectLinearSolverConfiguration::getFillInReductionMethod)
163 .def(
"get_partial_refactorization_method",
165 getPartialRefactorizationMethod)
166 .def(
"get_btf", &DPsim::DirectLinearSolverConfiguration::getBTF);
168 py::class_<DPsim::MNAStateSpaceExtractor>(m,
"MNAStateSpaceExtractor")
169 .def(
"is_initialized", &DPsim::MNAStateSpaceExtractor::isInitialized)
170 .def(
"get_state_count", &DPsim::MNAStateSpaceExtractor::getStateCount)
171 .def(
"get_time_step", &DPsim::MNAStateSpaceExtractor::getTimeStep)
172 .def(
"get_discrete_state_matrix",
173 &DPsim::MNAStateSpaceExtractor::getDiscreteStateMatrix,
174 py::return_value_policy::reference_internal);
176 py::class_<DPsim::StateSpaceModalAnalysis>(m,
"StateSpaceModalAnalysis")
177 .def(py::init<const DPsim::MNAStateSpaceExtractor &>(),
178 py::keep_alive<1, 2>())
179 .def(
"set_analysis_frame",
181 .def(
"set_global_dq0_frame",
185 .def(
"get_discrete_eigenvalues",
187 py::return_value_policy::reference_internal)
188 .def(
"get_continuous_eigenvalues",
190 py::return_value_policy::reference_internal);
192 py::class_<DPsim::Simulation>(m,
"Simulation")
193 .def(py::init<std::string, CPS::Logger::Level>(),
"name"_a,
194 "loglevel"_a = CPS::Logger::Level::off)
195 .def(
"name", &DPsim::Simulation::name)
196 .def(
"set_time_step", &DPsim::Simulation::setTimeStep)
197 .def(
"set_final_time", &DPsim::Simulation::setFinalTime)
199 .def(
"set_system", &DPsim::Simulation::setSystem)
201 .def(
"set_solver", &DPsim::Simulation::setSolverType)
202 .def(
"set_pf_keep_last_solution",
203 &DPsim::Simulation::setPFKeepLastSolution)
204 .def(
"get_pf_keep_last_solution",
205 &DPsim::Simulation::getPFKeepLastSolution)
206 .def(
"set_pf_solver_use_sparse", &DPsim::Simulation::setPFSolverUseSparse)
207 .def(
"get_pf_solver_use_sparse", &DPsim::Simulation::getPFSolverUseSparse)
208 .def(
"set_domain", &DPsim::Simulation::setDomain)
214 .def(
"add_interface", &DPsim::Simulation::addInterface,
"interface"_a)
215 .def(
"log_idobj_attribute", &DPsim::Simulation::logIdObjAttribute,
219 .def(
"do_init_from_nodes_and_terminals",
220 &DPsim::Simulation::doInitFromNodesAndTerminals)
221 .def(
"do_system_matrix_recomputation",
222 &DPsim::Simulation::doSystemMatrixRecomputation)
223 .def(
"do_state_space_extraction",
225 py::arg_v(
"value",
true,
"True"))
226 .def(
"get_state_space_extractor",
228 py::return_value_policy::reference_internal)
230 .def(
"do_frequency_parallelization",
232 .def(
"do_split_subnets", &DPsim::Simulation::doSplitSubnets)
233 .def(
"set_tearing_components", &DPsim::Simulation::setTearingComponents)
235 .def(
"set_solver_component_behaviour",
237 .def(
"set_direct_solver_implementation",
238 &DPsim::Simulation::setDirectLinearSolverImplementation)
239 .def(
"set_direct_linear_solver_configuration",
240 &DPsim::Simulation::setDirectLinearSolverConfiguration)
244 py::class_<DPsim::RealTimeSimulation, DPsim::Simulation>(m,
245 "RealTimeSimulation")
246 .def(py::init<std::string, CPS::Logger::Level>(),
"name"_a,
247 "loglevel"_a = CPS::Logger::Level::info)
248 .def(
"name", &DPsim::RealTimeSimulation::name)
249 .def(
"set_time_step", &DPsim::RealTimeSimulation::setTimeStep)
250 .def(
"set_final_time", &DPsim::RealTimeSimulation::setFinalTime)
252 .def(
"set_system", &DPsim::RealTimeSimulation::setSystem)
256 .def(
"set_solver", &DPsim::RealTimeSimulation::setSolverType)
257 .def(
"set_domain", &DPsim::RealTimeSimulation::setDomain);
260 py::class_<CPS::SystemTopology, std::shared_ptr<CPS::SystemTopology>>(
262 .def(py::init<CPS::Real, CPS::TopologicalNode::List,
263 CPS::IdentifiedObject::List>())
264 .def(py::init<CPS::Real, CPS::Matrix, CPS::TopologicalNode::List,
265 CPS::IdentifiedObject::List>())
266 .def(py::init<CPS::Real>())
269 .def(
"node", py::overload_cast<std::string_view>(
271 .def(
"node", py::overload_cast<CPS::UInt>(
273 .def(
"connect_component",
274 py::overload_cast<CPS::SimPowerComp<CPS::Real>::Ptr,
275 CPS::SimNode<CPS::Real>::List>(
277 .def(
"connect_component",
278 py::overload_cast<CPS::SimPowerComp<CPS::Complex>::Ptr,
279 CPS::SimNode<CPS::Complex>::List>(
285 .def(
"_repr_svg_", &DPsim::SystemTopology::render)
286 .def(
"render_to_file", &DPsim::SystemTopology::renderToFile)
290 .def_readwrite(
"components_at_node",
293 .def(
"list_idobjects", &DPsim::SystemTopology::listIdObjects)
295 "systemPF"_a,
"domain"_a)
300 py::class_<DPsim::Interface, std::shared_ptr<DPsim::Interface>>(m,
304 std::shared_ptr<DPsim::DataLoggerInterface>>(m,
305 "DataLoggerInterface")
306 .def(
"log_attribute",
307 py::overload_cast<
const CPS::String &, CPS::AttributeBase::Ptr,
308 CPS::UInt, CPS::UInt>(
309 &DPsim::DataLoggerInterface::logAttribute),
310 "name"_a,
"attr"_a,
"max_cols"_a = 0,
"max_rows"_a = 0)
312 .def(
"log_attribute",
313 py::overload_cast<
const std::vector<CPS::String> &,
314 CPS::AttributeBase::Ptr>(
315 &DPsim::DataLoggerInterface::logAttribute),
318 .def(
"log_attribute",
320 const std::vector<CPS::String> &names,
const CPS::String &attr,
322 logger.logAttribute(names, comp.
attribute(attr));
326 std::shared_ptr<DPsim::DataLogger>>(m,
"Logger")
327 .def(py::init<std::string>())
329 .def_static(
"get_log_dir", &CPS::Logger::logDir)
330 .def(
"log_attribute",
331 py::overload_cast<
const CPS::String &, CPS::AttributeBase::Ptr,
332 CPS::UInt, CPS::UInt>(
333 &DPsim::DataLogger::logAttribute),
334 "name"_a,
"attr"_a,
"max_cols"_a = 0,
"max_rows"_a = 0)
336 .def(
"log_attribute",
337 py::overload_cast<
const std::vector<CPS::String> &,
338 CPS::AttributeBase::Ptr>(
339 &DPsim::DataLogger::logAttribute),
346 CPS::UInt rowsMax, CPS::UInt colsMax) {
347 logger.logAttribute(name, comp.
attribute(attr), rowsMax, colsMax);
349 "name"_a,
"attr"_a,
"comp"_a,
"rows_max"_a = 0,
"cols_max"_a = 0)
351 .def(
"log_attribute",
354 logger.logAttribute(names, comp.
attribute(attr));
358 std::shared_ptr<DPsim::RealTimeDataLogger>>(m,
359 "RealTimeDataLogger")
361 .def(py::init([](py::object filename, DPsim::Real final_time,
362 DPsim::Real time_step) {
364 py::module_::import(
"os").attr(
"fspath")(filename);
365 std::string s = py::cast<std::string>(fspath);
366 std::filesystem::path p(s);
367 return std::make_shared<DPsim::RealTimeDataLogger>(p, final_time,
370 "filename"_a,
"final_time"_a,
"time_step"_a)
372 .def(py::init([](py::object filename, std::size_t row_number) {
374 py::module_::import(
"os").attr(
"fspath")(filename);
375 std::string s = py::cast<std::string>(fspath);
376 std::filesystem::path p(s);
377 return std::make_shared<DPsim::RealTimeDataLogger>(p, row_number);
379 "filename"_a,
"row_number"_a)
381 .def(
"log_attribute",
382 py::overload_cast<
const CPS::String &, CPS::AttributeBase::Ptr,
383 CPS::UInt, CPS::UInt>(
384 &DPsim::DataLoggerInterface::logAttribute),
385 "name"_a,
"attr"_a,
"max_cols"_a = 0,
"max_rows"_a = 0)
387 .def(
"log_attribute",
388 py::overload_cast<
const std::vector<CPS::String> &,
389 CPS::AttributeBase::Ptr>(
390 &DPsim::DataLoggerInterface::logAttribute),
397 CPS::UInt rowsMax, CPS::UInt colsMax) {
398 logger.logAttribute(name, comp.
attribute(attr), rowsMax, colsMax);
400 "name"_a,
"attr"_a,
"comp"_a,
"rows_max"_a = 0,
"cols_max"_a = 0)
405 const std::vector<CPS::String> &names,
const CPS::String &attr,
407 logger.logAttribute(names, comp.
attribute(attr));
409 "names"_a,
"attr"_a,
"comp"_a);
412 py::class_<CPS::IdentifiedObject, std::shared_ptr<CPS::IdentifiedObject>>(
413 m,
"IdentifiedObject")
414 .def(
"name", &CPS::IdentifiedObject::name)
419 .def(
"print_attribute_list", &printAttributes)
420 .def(
"print_attribute", &printAttribute,
"attribute_name"_a)
421 .def(
"__str__", &getAttributeList);
424 py::class_<CPS::CIM::Reader>(m,
"CIMReader")
425 .def(py::init<std::string, CPS::Logger::Level, CPS::Logger::Level>(),
426 "name"_a,
"loglevel"_a = CPS::Logger::Level::info,
427 "comploglevel"_a = CPS::Logger::Level::off)
429 CPS::Real,
const std::list<CPS::String> &,
430 CPS::Domain, CPS::PhaseType, CPS::GeneratorType)) &
434 py::class_<CPS::CSVReader>(m,
"CSVReader")
435 .def(py::init<std::string,
const std::string &,
436 std::map<std::string, std::string> &, CPS::Logger::Level>())
443 m,
"TopologicalPowerComp");
444 py::class_<CPS::SimPowerComp<CPS::Complex>,
445 std::shared_ptr<CPS::SimPowerComp<CPS::Complex>>,
448 .def(
"set_intf_current", &CPS::SimPowerComp<CPS::Complex>::setIntfCurrent)
449 .def(
"set_intf_voltage", &CPS::SimPowerComp<CPS::Complex>::setIntfVoltage)
452 py::class_<CPS::SimPowerComp<CPS::Real>,
453 std::shared_ptr<CPS::SimPowerComp<CPS::Real>>,
456 .def(
"set_intf_current", &CPS::SimPowerComp<CPS::Real>::setIntfCurrent)
457 .def(
"set_intf_voltage", &CPS::SimPowerComp<CPS::Real>::setIntfVoltage)
459 py::class_<CPS::TopologicalNode, std::shared_ptr<CPS::TopologicalNode>,
461 .def(
"initial_single_voltage",
462 &CPS::TopologicalNode::initialSingleVoltage,
463 "phase_type"_a = CPS::PhaseType::Single);
467 m,
"TopologicalTerminal")
469 py::overload_cast<CPS::Complex>(&CPS::TopologicalTerminal::setPower))
470 .def(
"set_power", py::overload_cast<CPS::MatrixComp>(
471 &CPS::TopologicalTerminal::setPower));
473 py::class_<CPS::SimTerminal<CPS::Complex>,
474 std::shared_ptr<CPS::SimTerminal<CPS::Complex>>,
476 py::class_<CPS::SimTerminal<CPS::Real>,
477 std::shared_ptr<CPS::SimTerminal<CPS::Real>>,
481 py::module mEvent = m.def_submodule(
"event",
"events");
482 py::class_<DPsim::Event, std::shared_ptr<DPsim::Event>>(mEvent,
"Event");
483 py::class_<DPsim::SwitchEvent, std::shared_ptr<DPsim::SwitchEvent>,
484 DPsim::Event>(mEvent,
"SwitchEvent", py::multiple_inheritance())
485 .def(py::init<CPS::Real,
const std::shared_ptr<CPS::Base::Ph1::Switch>,
487 py::class_<DPsim::SwitchEvent3Ph, std::shared_ptr<DPsim::SwitchEvent3Ph>,
488 DPsim::Event>(mEvent,
"SwitchEvent3Ph", py::multiple_inheritance())
489 .def(py::init<CPS::Real,
const std::shared_ptr<CPS::Base::Ph3::Switch>,
493 py::module mBase = m.def_submodule(
"base",
"base models");
494 addBaseComponents(mBase);
496 py::module mDP = m.def_submodule(
"dp",
"dynamic phasor models");
497 addDPComponents(mDP);
499 py::module mEMT = m.def_submodule(
"emt",
"electromagnetic-transient models");
500 addEMTComponents(mEMT);
502 py::module mSP = m.def_submodule(
"sp",
"static phasor models");
503 mSP.attr(
"SimNode") = mDP.attr(
"SimNode");
504 addSPComponents(mSP);
506 py::module mSignal = m.def_submodule(
"signal",
"signal models");
507 addSignalComponents(mSignal);
510 m.attr(
"__version__") = VERSION_INFO;
512 m.attr(
"__version__") =
"dev";
SystemTopology loadCIM(Real systemFrequency, const fs::path &filename, Domain domain=Domain::DP, PhaseType phase=PhaseType::Single, GeneratorType genType=GeneratorType::None)
Parses data from CIM files into the CPS data structure.
void assignLoadProfile(SystemTopology &sys, Real start_time=-1, Real time_step=1, Real end_time=-1, CSVReader::Mode mode=CSVReader::Mode::AUTO, CSVReader::DataFormat format=CSVReader::DataFormat::SECONDS)
assign load profile to corresponding load object
AttributeBase::Ptr attribute(const String &name) const
Return pointer to an attribute.
static void setLogDir(String path)
Set env variable CPS_LOG_DIR and overwrite.
static Matrix singlePhasePowerToThreePhase(Real power)
To convert single phase power to symmetrical three phase.
static Matrix singlePhaseParameterToThreePhase(Real parameter)
To convert single phase parameters to symmetrical three phase ones.
static MatrixComp singlePhaseVariableToThreePhase(Complex var_1ph)
To convert single phase complex variables (voltages, currents) to symmetrical three phase ones.
SimTerminal< VarType >::Ptr terminal(UInt index)
Get pointer to Terminal.
void connect(typename SimNode< VarType >::List nodes)
Sets all nodes and checks for nominal number of Nodes for this Component.
IdentifiedObject::List mComponents
List of network components.
std::shared_ptr< Type > node(UInt index)
Returns TopologicalNode by index in node list.
void initWithPowerflow(const SystemTopology &systemPF, CPS::Domain domain)
Initialize nodes and SG power from PowerFlow.
void removeComponent(const String &name)
Remove system component.
void addTearComponent(IdentifiedObject::Ptr component)
Adds component and initializes frequencies.
std::shared_ptr< Type > component(const String &name)
Returns Component by name.
TopologicalNode::List mNodes
List of network nodes.
void addComponents(const IdentifiedObject::List &components)
Add multiple components.
void connectComponentToNodes(typename SimPowerComp< VarType >::Ptr component, typename SimNode< VarType >::List simNodes)
Connect component to simNodes.
void addComponent(IdentifiedObject::Ptr component)
Adds component and initializes frequencies.
IdentifiedObject::List mTearComponents
std::map< TopologicalNode::Ptr, TopologicalPowerComp::List > mComponentsAtNode
Map of network components connected to network nodes.
Extending Simulation class by real-time functionality.
void run(const Timer::StartClock::duration &startIn=std::chrono::seconds(1))
void doFrequencyParallelization(Bool value)
Compute phasors of different frequencies in parallel.
void logLUTimes()
Write LU decomposition times measurements to log file.
Real next()
Run until next time step.
void addLogger(DataLoggerInterface::Ptr logger)
Add a new data logger.
void setSolverAndComponentBehaviour(Solver::Behaviour behaviour)
set solver and component to initialization or simulation behaviour
CPS::AttributeBase::Ptr getIdObjAttribute(const String &comp, const String &attr)
CHECK: Can these be deleted? getIdObjAttribute + "**attr =" should suffice.
void start()
Start simulation without advancing in time.
void doSteadyStateInit(Bool f)
activate steady state initialization
void addEvent(Event::Ptr e)
Schedule an event in the simulation.
void doStateSpaceExtraction(Bool value=true)
Enable extraction of the MNA-coupled discrete-time state matrix.
void run()
Run simulation until total time is elapsed.
void logAttribute(String name, CPS::AttributeBase::Ptr attr)
CHECK: Can we store the attribute name / UID intrinsically inside the attribute?
const MNAStateSpaceExtractor & getStateSpaceExtractor(UInt solverIndex=0) const
void stop()
Stop simulation including scheduler and interfaces.
void setAnalysisFrame(StateSpaceAnalysisFrame frame)
const CPS::VectorComp & getContinuousEigenvalues() const
Continuous-time EMT eigenvalues reconstructed from discrete eigenvalues.
const CPS::VectorComp & getDiscreteEigenvalues() const
Eigenvalues of the extracted discrete-time state matrix in the selected analysis frame.
void update()
Update modal quantities from the current extracted state matrix.
void setGlobalDq0Frame(Real omega, Real theta0=0.0)