/
testVectorizedPowerSystem.mos
678 lines (673 loc) · 24.7 KB
/
testVectorizedPowerSystem.mos
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// name: testVectorizedPowerSystem
// keywords: vectorized components, array equations, for loops
// status: correct
// teardown_command: rm -f *VectorizedPowerSystemTest*
// cflags: -d=-newInst
setCommandLineOptions("--std=3.3"); getErrorString();
setCommandLineOptions("-d=newInst,-nfScalarize"); getErrorString();
setCommandLineOptions("--preOptModules-=removeSimpleEquations"); getErrorString();
setCommandLineOptions("--postOptModules-=removeSimpleEquations"); getErrorString();
setCommandLineOptions("--preOptModules+=dumpDAE"); getErrorString();
setCommandLineOptions("--postOptModules+=dumpDAE"); getErrorString();
setCommandLineOptions("--simCodeTarget=Cpp"); getErrorString();
loadFile("VectorizedPowerSystemTotal.mo"); getErrorString();
//instantiateModel(VectorizedPowerSystemTest); getErrorString();
simulate(VectorizedPowerSystemTest); getErrorString();
val(fixedVoltageSource1.p[1], 1.0);
// Result:
// true
// ""
// true
// ""
// true
// ""
// true
// ""
// true
// ""
// true
// ""
// true
// ""
// true
// ""
//
// ########################################
// dumpDAE
// ########################################
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: system.initime:DISCRETE(unit = "s" ) type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): when initial() then
// system.initime := time;
// end when; [dynamic |0|0|0|0|]
//
//
// no matching
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: busBar1.phi:VARIABLE(unit = "rad" ) type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): busBar1.phi = 0.0 [binding |0|0|0|0|]
//
//
// no matching
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: busBar1.I:VARIABLE(unit = "A" nominal = 1.0 ) type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): busBar1.I = busBar1.i[1] [binding |0|0|0|0|]
//
//
// no matching
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: busBar1.V:VARIABLE(unit = "V" nominal = 1000.0 ) type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): busBar1.V = busBar1.v[1] [binding |0|0|0|0|]
//
//
// no matching
//
//
// unspecified partition
// ========================================
//
// Variables (5)
// ========================================
// 1: system.omega_internal:VARIABLE(flow=false protected = true ) type: Real
// 2: system.omega:VARIABLE(start = 314.1592653589793 unit = "rad/s" ) type: Real
// 3: system.thetaRef:VARIABLE(unit = "rad" ) "angle of reference frame" type: Real
// 4: system.thetaRel:VARIABLE(unit = "rad" ) "angle relative to reference frame" type: Real
// 5: system.theta:VARIABLE(start = 0.0 unit = "rad" ) "system angle" type: Real
//
//
// Equations (5, 5)
// ========================================
// 1/1 (1): system.thetaRef / time = system.omega_internal [dynamic |0|0|0|0|]
// 2/2 (1): system.omega = 314.1592653589793 [dynamic |0|0|0|0|]
// 3/3 (1): system.thetaRef = system.omega * time [dynamic |0|0|0|0|]
// 4/4 (1): 0.0 = -system.thetaRel [unknown |0|0|0|0|]
// 5/5 (1): system.thetaRef = system.theta [binding |0|0|0|0|]
//
//
// no matching
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: fixedVoltageSource1.phi:VARIABLE(unit = "rad" ) type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): fixedVoltageSource1.phi = 0.0 [binding |0|0|0|0|]
//
//
// no matching
//
//
// unspecified partition
// ========================================
//
// Variables (13)
// ========================================
// 1: busBar1.p:VARIABLE(unit = {"W"} ) type: Real[1] [1]
// 2: busBar1.i:VARIABLE(start = busBar1.i_start unit = {"A"} nominal = {1.0} ) type: Real[1] [1]
// 3: busBar1.v:VARIABLE(start = busBar1.v_start unit = {"V"} nominal = {1000.0} ) type: Real[1] [1]
// 4: busBar1.terminal_n.v:VARIABLE(flow=false unit = fill({"V"}, 3) nominal = fill({1000.0}, 3) ) "voltage vector" type: Real[3, 1] [3,1]
// 5: busBar1.terminal_n.i:VARIABLE(flow=true unit = fill({"A"}, 3) nominal = fill({1.0}, 3) ) "current vector" type: Real[3, 1] [3,1]
// 6: busBar1.terminal_p.i:VARIABLE(flow=true unit = {"A"} nominal = {1.0} ) "current vector" type: Real[1] [1]
// 7: busBar1.terminal_p.v:VARIABLE(flow=false unit = {"V"} nominal = {1000.0} ) "voltage vector" type: Real[1] [1]
// 8: fixedLoad1.terminal.v:VARIABLE(flow=false start = fixedLoad1.v_start unit = fill({"V"}, 3) nominal = fill({1000.0}, 3) ) "voltage vector" type: Real[3, 1] [3,1]
// 9: fixedLoad1.terminal.i:VARIABLE(flow=true unit = fill({"A"}, 3) nominal = fill({1.0}, 3) ) "current vector" type: Real[3, 1] [3,1]
// 10: fixedLoad1.p:VARIABLE(unit = fill({"W"}, 3) ) type: Real[3, 1] [3,1]
// 11: fixedVoltageSource1.p:VARIABLE(unit = {"W"} ) type: Real[1] [1]
// 12: fixedVoltageSource1.terminal.i:VARIABLE(flow=true unit = {"A"} nominal = {1.0} ) "current vector" type: Real[1] [1]
// 13: fixedVoltageSource1.terminal.v:VARIABLE(flow=false unit = {"V"} nominal = {1000.0} ) "voltage vector" type: Real[1] [1]
//
//
// Equations (13, 13)
// ========================================
// 1/1 (3): busBar1.terminal_n.v = fixedLoad1.terminal.v [dynamic |0|0|0|0|]
// 2/4 (3): busBar1.terminal_n.i + fixedLoad1.terminal.i = 0.0 [dynamic |0|0|0|0|]
// 3/7 (1): fixedVoltageSource1.terminal.v = busBar1.terminal_p.v [dynamic |0|0|0|0|]
// 4/8 (1): fixedVoltageSource1.terminal.i + busBar1.terminal_p.i = 0.0 [dynamic |0|0|0|0|]
// 5/9 (1): fixedVoltageSource1.p = {fixedVoltageSource1.terminal.v * fixedVoltageSource1.terminal.i} [dynamic |0|0|0|0|]
// 6/10 (1): fixedVoltageSource1.terminal.v = {fixedVoltageSource1.V} [dynamic |0|0|0|0|]
// 7/11 (3): for $i1 in 1 : 3 loop
// fixedLoad1[$i1].p = {fixedLoad1[$i1].terminal.v * fixedLoad1[$i1].terminal.i}; end for; [dynamic |0|0|0|0|]
// 8/14 (3): for $i1 in 1 : 3 loop
// fixedLoad1[$i1].terminal.v * fixedLoad1[$i1].terminal.i = fixedLoad1[$i1].P; end for; [dynamic |0|0|0|0|]
// 9/17 (1): busBar1.v = busBar1.terminal_p.v [dynamic |0|0|0|0|]
// 10/18 (1): busBar1.i = busBar1.terminal_p.i [dynamic |0|0|0|0|]
// 11/19 (1): busBar1.p = {busBar1.v * busBar1.i} [dynamic |0|0|0|0|]
// 12/20 (1): for i in 1 : 1 loop
// busBar1.terminal_p.i[i] = -sum(busBar1.terminal_n[:].i[i]); end for; [dynamic |0|0|0|0|]
// 13/21 (3): for i in 1 : 3 loop
// busBar1.terminal_n[i].v = busBar1.terminal_p.v; end for; [dynamic |0|0|0|0|]
//
//
// no matching
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: system.receiveFreq.w_h:VARIABLE(flow=false ) "Dummy potential-variable to balance flow-variable w_H" type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): system.receiveFreq.w_h = 0.0 [dynamic |0|0|0|0|]
//
//
// no matching
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: system.receiveFreq.h:VARIABLE(flow=false ) "Dummy potential-variable to balance flow-variable H" type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): system.receiveFreq.h = 0.0 [dynamic |0|0|0|0|]
//
//
// no matching
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: system.receiveFreq.w_H:VARIABLE(flow=true unit = "rad" ) "angular velocity, inertia-weighted" type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): system.receiveFreq.w_H = 0.0 [dynamic |0|0|0|0|]
//
//
// no matching
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: system.receiveFreq.H:VARIABLE(flow=true unit = "s" ) "inertia constant" type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): system.receiveFreq.H = 0.0 [dynamic |0|0|0|0|]
//
//
// no matching
//
//
//
// BackendDAEType: simulation
//
//
// Known variables only depending on parameters and constants - globalKnownVars (20)
// ========================================
// 1: busBar1.n_n:PARAM(final = true ) = 3 type: Integer
// 2: busBar1.i_start:PARAM(unit = {"A"} nominal = {1.0} ) = {0.0} "Start value for current" type: Real[1] [1]
// 3: busBar1.v_start:PARAM(unit = {"V"} nominal = {1000.0} ) = {0.0} "Start value for voltage drop" type: Real[1] [1]
// 4: fixedLoad1.v_start:PARAM(unit = fill({"V"}, 3) nominal = fill({1000.0}, 3) ) = {{1.0}, {1.0}, {1.0}} "Start value for voltage drop" type: Real[3, 1] [3,1]
// 5: fixedLoad1.P:PARAM(unit = fill("W", 3) ) = 1000000.0:1000000.0:3000000.0 "rms value of constant active power" type: Real[3] [3]
// 6: fixedLoad1.phi:PARAM(unit = fill("rad", 3) ) = 0.1:0.1:0.3 "phase angle" type: Real[3] [3]
// 7: system.synRef:PARAM(final = true ) = true type: Boolean
// 8: system.w_nom:PARAM(unit = "rad/s" final = true ) = 314.1592653589793 "nom r.p.m." type: Real
// 9: system.omega_nom:PARAM(unit = "rad/s" final = true ) = 314.1592653589793 "nominal angular frequency" type: Real
// 10: system.dynType:PARAM(min = PowerSystems.Types.Dynamics.FreeInitial max = PowerSystems.Types.Dynamics.SteadyState final = true ) = PowerSystems.Types.Dynamics.SteadyInitial "transient or steady-state model" type: enumeration(FreeInitial, FixedInitial, SteadyInitial, SteadyState)
// 11: system.refType:PARAM(min = PowerSystems.Types.ReferenceFrame.Synchron max = PowerSystems.Types.ReferenceFrame.Inertial final = true ) = PowerSystems.Types.ReferenceFrame.Synchron "reference frame (3-phase)" type: enumeration(Synchron, Inertial)
// 12: system.alpha0:PARAM(unit = "rad" final = true ) = 0.0 "phase angle" type: Real
// 13: system.f_lim:PARAM(unit = {"Hz", "Hz"} final = true ) = {25.0, 100.0} "limit frequencies (for supervision of average frequency)" type: Real[2] [2]
// 14: system.f_nom:PARAM(unit = "Hz" final = true ) = 50.0 "nominal frequency" type: Real
// 15: system.f:PARAM(unit = "Hz" final = true ) = 50.0 "frequency if type is parameter, else initial frequency" type: Real
// 16: system.fType:PARAM(min = PowerSystems.Types.SystemFrequency.Parameter max = PowerSystems.Types.SystemFrequency.Average final = true ) = PowerSystems.Types.SystemFrequency.Parameter "system frequency type" type: enumeration(Parameter, Signal, Average)
// 17: fixedVoltageSource1.V:PARAM(unit = "V" nominal = 1000.0 ) = 10000.0 "value of constant voltage" type: Real
// 18: fixedVoltageSource1.definiteReference:PARAM(final = true ) = false "serve as definite root" type: Boolean
// 19: fixedVoltageSource1.potentialReference:PARAM(final = true ) = true "serve as potential root" type: Boolean
// 20: n:PARAM(final = true ) = 3 "number of loads" type: Integer
//
//
// Simple Shared Equations (1, 1)
// ========================================
// 1/1 (0): for i in 1 : 3 loop
// algorithm
// branch({}, {});
// ; end for; [dynamic |0|0|0|0|]
//
//
//
// ########################################
// dumpDAE
// ########################################
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: system.receiveFreq.H:VARIABLE(flow=true unit = "s" ) "inertia constant" type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): system.receiveFreq.H = 0.0 [dynamic |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: system.receiveFreq.w_H:VARIABLE(flow=true unit = "rad" ) "angular velocity, inertia-weighted" type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): system.receiveFreq.w_H = 0.0 [dynamic |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: system.receiveFreq.h:VARIABLE(flow=false ) "Dummy potential-variable to balance flow-variable H" type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): system.receiveFreq.h = 0.0 [dynamic |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: system.receiveFreq.w_h:VARIABLE(flow=false ) "Dummy potential-variable to balance flow-variable w_H" type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): system.receiveFreq.w_h = 0.0 [dynamic |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (13)
// ========================================
// 1: busBar1.p:VARIABLE(unit = {"W"} ) type: Real[1] [1]
// 2: busBar1.i:VARIABLE(start = busBar1.i_start unit = {"A"} nominal = {1.0} ) type: Real[1] [1]
// 3: busBar1.v:VARIABLE(start = busBar1.v_start unit = {"V"} nominal = {1000.0} ) type: Real[1] [1]
// 4: busBar1.terminal_n.v:VARIABLE(flow=false unit = {{"V"}, {"V"}, {"V"}} nominal = {{1000.0}, {1000.0}, {1000.0}} ) "voltage vector" type: Real[3, 1] [3,1]
// 5: busBar1.terminal_n.i:VARIABLE(flow=true unit = {{"A"}, {"A"}, {"A"}} nominal = {{1.0}, {1.0}, {1.0}} ) "current vector" type: Real[3, 1] [3,1]
// 6: busBar1.terminal_p.i:VARIABLE(flow=true unit = {"A"} nominal = {1.0} ) "current vector" type: Real[1] [1]
// 7: busBar1.terminal_p.v:VARIABLE(flow=false unit = {"V"} nominal = {1000.0} ) "voltage vector" type: Real[1] [1]
// 8: fixedLoad1.terminal.v:VARIABLE(flow=false start = fixedLoad1.v_start unit = {{"V"}, {"V"}, {"V"}} nominal = {{1000.0}, {1000.0}, {1000.0}} ) "voltage vector" type: Real[3, 1] [3,1]
// 9: fixedLoad1.terminal.i:VARIABLE(flow=true unit = {{"A"}, {"A"}, {"A"}} nominal = {{1.0}, {1.0}, {1.0}} ) "current vector" type: Real[3, 1] [3,1]
// 10: fixedLoad1.p:VARIABLE(unit = {{"W"}, {"W"}, {"W"}} ) type: Real[3, 1] [3,1]
// 11: fixedVoltageSource1.p:VARIABLE(unit = {"W"} ) type: Real[1] [1]
// 12: fixedVoltageSource1.terminal.i:VARIABLE(flow=true unit = {"A"} nominal = {1.0} ) "current vector" type: Real[1] [1]
// 13: fixedVoltageSource1.terminal.v:VARIABLE(flow=false unit = {"V"} nominal = {1000.0} ) "voltage vector" type: Real[1] [1]
//
//
// Equations (13, 13)
// ========================================
// 1/1 (3): busBar1.terminal_n.v = fixedLoad1.terminal.v [dynamic |0|0|0|0|]
// 2/4 (3): busBar1.terminal_n.i + fixedLoad1.terminal.i = 0.0 [dynamic |0|0|0|0|]
// 3/7 (1): fixedVoltageSource1.terminal.v = busBar1.terminal_p.v [dynamic |0|0|0|0|]
// 4/8 (1): fixedVoltageSource1.terminal.i + busBar1.terminal_p.i = 0.0 [dynamic |0|0|0|0|]
// 5/9 (1): fixedVoltageSource1.p = {fixedVoltageSource1.terminal.v * fixedVoltageSource1.terminal.i} [dynamic |0|0|0|0|]
// 6/10 (1): fixedVoltageSource1.terminal.v = {fixedVoltageSource1.V} [dynamic |0|0|0|0|]
// 7/11 (3): for $i1 in 1 : 3 loop
// fixedLoad1[$i1].p = {fixedLoad1[$i1].terminal.v * fixedLoad1[$i1].terminal.i}; end for; [dynamic |0|0|0|0|]
// 8/14 (3): for $i1 in 1 : 3 loop
// fixedLoad1[$i1].terminal.v * fixedLoad1[$i1].terminal.i = fixedLoad1[$i1].P; end for; [dynamic |0|0|0|0|]
// 9/17 (1): busBar1.v = busBar1.terminal_p.v [dynamic |0|0|0|0|]
// 10/18 (1): busBar1.i = busBar1.terminal_p.i [dynamic |0|0|0|0|]
// 11/19 (1): busBar1.p = {busBar1.v * busBar1.i} [dynamic |0|0|0|0|]
// 12/20 (1): for i in 1 : 1 loop
// busBar1.terminal_p.i[i] = -sum(busBar1.terminal_n[:].i[i]); end for; [dynamic |0|0|0|0|]
// 13/21 (3): for i in 1 : 3 loop
// busBar1.terminal_n[i].v = busBar1.terminal_p.v; end for; [dynamic |0|0|0|0|]
//
//
// Matching
// ========================================
// 13 variables and equations
// var 1 is solved in eqn 11
// var 2 is solved in eqn 10
// var 3 is solved in eqn 9
// var 4 is solved in eqn 13
// var 5 is solved in eqn 2
// var 6 is solved in eqn 12
// var 7 is solved in eqn 3
// var 8 is solved in eqn 1
// var 9 is solved in eqn 8
// var 10 is solved in eqn 7
// var 11 is solved in eqn 5
// var 12 is solved in eqn 4
// var 13 is solved in eqn 6
//
//
// StrongComponents
// ========================================
// {12:6}
// Array {{10:2}}
// Array {{6:13}}
// Array {{4:12}}
// Array {{5:11}}
// Array {{3:7}}
// Array {{9:3}}
// Array {{11:1}}
// {13:4}
// Array {{1:8}}
// {8:9}
// Array {{2:5}}
// {7:10}
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: fixedVoltageSource1.phi:VARIABLE(unit = "rad" ) type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): fixedVoltageSource1.phi = 0.0 [binding |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (5)
// ========================================
// 1: system.omega_internal:VARIABLE(flow=false protected = true ) type: Real
// 2: system.omega:VARIABLE(start = 314.1592653589793 unit = "rad/s" ) type: Real
// 3: system.thetaRef:VARIABLE(unit = "rad" ) "angle of reference frame" type: Real
// 4: system.thetaRel:VARIABLE(unit = "rad" ) "angle relative to reference frame" type: Real
// 5: system.theta:VARIABLE(start = 0.0 unit = "rad" ) "system angle" type: Real
//
//
// Equations (5, 5)
// ========================================
// 1/1 (1): system.omega_internal = system.thetaRef / time [dynamic |0|0|0|0|]
// 2/2 (1): system.omega = 314.1592653589793 [dynamic |0|0|0|0|]
// 3/3 (1): system.thetaRef = system.omega * time [dynamic |0|0|0|0|]
// 4/4 (1): system.thetaRel = 0.0 [unknown |0|0|0|0|]
// 5/5 (1): system.theta = system.thetaRef [binding |0|0|0|0|]
//
//
// Matching
// ========================================
// 5 variables and equations
// var 1 is solved in eqn 1
// var 2 is solved in eqn 2
// var 3 is solved in eqn 3
// var 4 is solved in eqn 4
// var 5 is solved in eqn 5
//
//
// StrongComponents
// ========================================
// {4:4}
// {2:2}
// {3:3}
// {5:5}
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: busBar1.V:VARIABLE(unit = "V" nominal = 1000.0 ) type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): busBar1.V = busBar1.v[1] [binding |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: busBar1.I:VARIABLE(unit = "A" nominal = 1.0 ) type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): busBar1.I = busBar1.i[1] [binding |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: busBar1.phi:VARIABLE(unit = "rad" ) type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): busBar1.phi = 0.0 [binding |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// {1:1}
//
//
// unspecified partition
// ========================================
//
// Variables (1)
// ========================================
// 1: system.initime:DISCRETE(unit = "s" ) type: Real
//
//
// Equations (1, 1)
// ========================================
// 1/1 (1): when false then
// system.initime := time;
// end when; [dynamic |0|0|0|0|]
//
//
// Matching
// ========================================
// 1 variables and equations
// var 1 is solved in eqn 1
//
//
// StrongComponents
// ========================================
// WhenEquation {1:1}
//
//
//
// BackendDAEType: simulation
//
//
// Known variables only depending on parameters and constants - globalKnownVars (20)
// ========================================
// 1: busBar1.n_n:PARAM(final = true ) = 3 type: Integer
// 2: busBar1.i_start:PARAM(unit = {"A"} nominal = {1.0} ) = {0.0} "Start value for current" type: Real[1] [1]
// 3: busBar1.v_start:PARAM(unit = {"V"} nominal = {1000.0} ) = {0.0} "Start value for voltage drop" type: Real[1] [1]
// 4: fixedLoad1.v_start:PARAM(unit = {{"V"}, {"V"}, {"V"}} nominal = {{1000.0}, {1000.0}, {1000.0}} ) = {{1.0}, {1.0}, {1.0}} "Start value for voltage drop" type: Real[3, 1] [3,1]
// 5: fixedLoad1.P:PARAM(unit = {"W", "W", "W"} ) = 1000000.0:1000000.0:3000000.0 "rms value of constant active power" type: Real[3] [3]
// 6: fixedLoad1.phi:PARAM(unit = {"rad", "rad", "rad"} ) = 0.1:0.1:0.3 "phase angle" type: Real[3] [3]
// 7: system.synRef:PARAM(final = true ) = true type: Boolean
// 8: system.w_nom:PARAM(unit = "rad/s" final = true ) = 314.1592653589793 "nom r.p.m." type: Real
// 9: system.omega_nom:PARAM(unit = "rad/s" final = true ) = 314.1592653589793 "nominal angular frequency" type: Real
// 10: system.dynType:PARAM(min = PowerSystems.Types.Dynamics.FreeInitial max = PowerSystems.Types.Dynamics.SteadyState final = true ) = PowerSystems.Types.Dynamics.SteadyInitial "transient or steady-state model" type: enumeration(FreeInitial, FixedInitial, SteadyInitial, SteadyState)
// 11: system.refType:PARAM(min = PowerSystems.Types.ReferenceFrame.Synchron max = PowerSystems.Types.ReferenceFrame.Inertial final = true ) = PowerSystems.Types.ReferenceFrame.Synchron "reference frame (3-phase)" type: enumeration(Synchron, Inertial)
// 12: system.alpha0:PARAM(unit = "rad" final = true ) = 0.0 "phase angle" type: Real
// 13: system.f_lim:PARAM(unit = {"Hz", "Hz"} final = true ) = {25.0, 100.0} "limit frequencies (for supervision of average frequency)" type: Real[2] [2]
// 14: system.f_nom:PARAM(unit = "Hz" final = true ) = 50.0 "nominal frequency" type: Real
// 15: system.f:PARAM(unit = "Hz" final = true ) = 50.0 "frequency if type is parameter, else initial frequency" type: Real
// 16: system.fType:PARAM(min = PowerSystems.Types.SystemFrequency.Parameter max = PowerSystems.Types.SystemFrequency.Average final = true ) = PowerSystems.Types.SystemFrequency.Parameter "system frequency type" type: enumeration(Parameter, Signal, Average)
// 17: fixedVoltageSource1.V:PARAM(unit = "V" nominal = 1000.0 ) = 10000.0 "value of constant voltage" type: Real
// 18: fixedVoltageSource1.definiteReference:PARAM(final = true ) = false "serve as definite root" type: Boolean
// 19: fixedVoltageSource1.potentialReference:PARAM(final = true ) = true "serve as potential root" type: Boolean
// 20: n:PARAM(final = true ) = 3 "number of loads" type: Integer
//
//
// Simple Shared Equations (1, 1)
// ========================================
// 1/1 (0): for i in 1 : 3 loop
// algorithm
// branch({}, {});
// ; end for; [dynamic |0|0|0|0|]
//
//
// record SimulationResult
// resultFile = "VectorizedPowerSystemTest_res.mat",
// simulationOptions = "startTime = 0.0, stopTime = 1.0, numberOfIntervals = 500, tolerance = 1e-06, method = 'dassl', fileNamePrefix = 'VectorizedPowerSystemTest', options = '', outputFormat = 'mat', variableFilter = '.*', cflags = '', simflags = ''",
// messages = ""
// end SimulationResult;
// ""
// -6000000.0
// endResult