Running: ./testmodel.py --libraries=/home/hudson/saved_omc/libraries/.openmodelica/libraries --ompython_omhome=/usr ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia.conf.json loadFile("/home/hudson/saved_omc/libraries/.openmodelica/libraries/ModelicaServices 4.1.0+maint.om/package.mo", uses=false) [Timeout 180] "Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/ModelicaServices 4.1.0+maint.om/package.mo): time 0.001233/0.001233, allocations: 93.06 kB / 19.65 MB, free: 280 kB / 13.93 MB " [Timeout remaining time 180] loadFile("/home/hudson/saved_omc/libraries/.openmodelica/libraries/Complex 4.1.0+maint.om/package.mo", uses=false) [Timeout 180] "Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/Complex 4.1.0+maint.om/package.mo): time 0.001035/0.001035, allocations: 173 kB / 23.02 MB, free: 1.551 MB / 18.57 MB " [Timeout remaining time 180] loadFile("/home/hudson/saved_omc/libraries/.openmodelica/libraries/Modelica 4.1.0+maint.om/package.mo", uses=false) [Timeout 180] "Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/Modelica 4.1.0+maint.om/package.mo): time 0.895/0.895, allocations: 177.2 MB / 203.4 MB, free: 5.633 MB / 186.7 MB " [Timeout remaining time 179] loadFile("/home/hudson/saved_omc/libraries/.openmodelica/libraries/ThermofluidStream main/package.mo", uses=false) [Timeout 180] "Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/ThermofluidStream main/package.mo): time 0.6523/0.6523, allocations: 118.6 MB / 378.6 MB, free: 1.488 MB / 346.7 MB " [Timeout remaining time 179] Using package ThermofluidStream with version 1.4.0 (/home/hudson/saved_omc/libraries/.openmodelica/libraries/ThermofluidStream main/package.mo) Using package Modelica with version 4.1.0 (/home/hudson/saved_omc/libraries/.openmodelica/libraries/Modelica 4.1.0+maint.om/package.mo) Using package Complex with version 4.1.0 (/home/hudson/saved_omc/libraries/.openmodelica/libraries/Complex 4.1.0+maint.om/package.mo) Using package ModelicaServices with version 4.1.0 (/home/hudson/saved_omc/libraries/.openmodelica/libraries/ModelicaServices 4.1.0+maint.om/package.mo) Running command: translateModel(ThermofluidStream.Media.Tests.TestXRGMedia,tolerance=1e-06,outputFormat="mat",numberOfIntervals=1000,variableFilter=".*",fileNamePrefix="ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia") translateModel(ThermofluidStream.Media.Tests.TestXRGMedia,tolerance=1e-06,outputFormat="mat",numberOfIntervals=1000,variableFilter=".*",fileNamePrefix="ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia") [Timeout 660] "Notification: Performance of FrontEnd - loaded program: time 1.162e-06/1.162e-06, allocations: 0 / 483.6 MB, free: 8.281 MB / 410.7 MB Notification: Performance of FrontEnd - Absyn->SCode: time 1.174e-05/1.29e-05, allocations: 8.625 kB / 483.6 MB, free: 8.277 MB / 410.7 MB Notification: Performance of NFInst.instantiate(ThermofluidStream.Media.Tests.TestXRGMedia): time 0.06121/0.06122, allocations: 78.3 MB / 0.5487 GB, free: 2.188 MB / 474.7 MB Notification: Performance of NFInst.instExpressions: time 0.04888/0.1101, allocations: 47.27 MB / 0.5949 GB, free: 2.773 MB / 0.5105 GB Notification: Performance of NFInst.updateImplicitVariability: time 0.005166/0.1153, allocations: 269.6 kB / 0.5952 GB, free: 2.508 MB / 0.5105 GB Notification: Performance of NFTyping.typeComponents: time 0.0031/0.1184, allocations: 1.496 MB / 0.5966 GB, free: 1 MB / 0.5105 GB Notification: Performance of NFTyping.typeBindings: time 0.02568/0.1441, allocations: 12.44 MB / 0.6088 GB, free: 4.488 MB / 0.5261 GB Notification: Performance of NFTyping.typeClassSections: time 0.008357/0.1524, allocations: 4.457 MB / 0.6131 GB, free: 16 kB / 0.5261 GB Notification: Performance of NFFlatten.flatten: time 0.01462/0.167, allocations: 17.82 MB / 0.6305 GB, free: 14.09 MB / 0.5573 GB Notification: Performance of NFFlatten.resolveConnections: time 0.003006/0.17, allocations: 1.813 MB / 0.6323 GB, free: 12.19 MB / 0.5573 GB Notification: Performance of NFEvalConstants.evaluate: time 0.2916/0.4617, allocations: 49.13 MB / 0.6803 GB, free: 38.27 MB / 0.5573 GB Notification: Performance of NFSimplifyModel.simplify: time 0.01214/0.4738, allocations: 9.121 MB / 0.6892 GB, free: 38.12 MB / 0.5573 GB Notification: Performance of NFPackage.collectConstants: time 0.002247/0.476, allocations: 0.9558 MB / 0.6901 GB, free: 38.12 MB / 0.5573 GB Notification: Performance of NFFlatten.collectFunctions: time 0.02937/0.5054, allocations: 24.46 MB / 0.714 GB, free: 32.8 MB / 0.5573 GB Notification: Performance of NFScalarize.scalarize: time 0.00173/0.5071, allocations: 2.36 MB / 0.7163 GB, free: 32.09 MB / 0.5573 GB Notification: Performance of NFVerifyModel.verify: time 0.005122/0.5123, allocations: 4.222 MB / 0.7204 GB, free: 29.5 MB / 0.5573 GB Notification: Performance of NFConvertDAE.convert: time 0.05042/0.5627, allocations: 34.6 MB / 0.7542 GB, free: 0.7109 MB / 0.5573 GB Notification: Performance of FrontEnd - DAE generated: time 4.398e-06/0.5627, allocations: 0 / 0.7542 GB, free: 0.7109 MB / 0.5573 GB Notification: Performance of FrontEnd: time 1.353e-06/0.5627, allocations: 0 / 0.7542 GB, free: 0.7109 MB / 0.5573 GB Notification: Performance of Transformations before backend: time 0.0002483/0.5629, allocations: 0 / 0.7542 GB, free: 0.7109 MB / 0.5573 GB Notification: Model statistics after passing the front-end and creating the data structures used by the back-end: * Number of equations: 2248 * Number of variables: 2248 Notification: Performance of Generate backend data structure: time 0.02522/0.5882, allocations: 13.59 MB / 0.7675 GB, free: 5.223 MB / 0.573 GB Notification: Performance of prepare preOptimizeDAE: time 3.657e-05/0.5882, allocations: 12.03 kB / 0.7675 GB, free: 5.211 MB / 0.573 GB Notification: Performance of preOpt normalInlineFunction (simulation): time 0.008432/0.5966, allocations: 3.878 MB / 0.7713 GB, free: 1.98 MB / 0.573 GB Notification: Performance of preOpt evaluateParameters (simulation): time 0.007221/0.6038, allocations: 5.885 MB / 0.777 GB, free: 13.64 MB / 0.5886 GB Notification: Performance of preOpt simplifyIfEquations (simulation): time 0.0004389/0.6043, allocations: 0.8646 MB / 0.7779 GB, free: 12.77 MB / 0.5886 GB Notification: Performance of preOpt expandDerOperator (simulation): time 0.0007956/0.6051, allocations: 0.8006 MB / 0.7787 GB, free: 11.97 MB / 0.5886 GB Notification: Performance of preOpt clockPartitioning (simulation): time 0.01213/0.6172, allocations: 9.313 MB / 0.7878 GB, free: 2.188 MB / 0.5886 GB Notification: Performance of preOpt findStateOrder (simulation): time 9.371e-05/0.6173, allocations: 7.469 kB / 0.7878 GB, free: 2.184 MB / 0.5886 GB Notification: Performance of preOpt replaceEdgeChange (simulation): time 0.0004954/0.6178, allocations: 316 kB / 0.7881 GB, free: 1.875 MB / 0.5886 GB Notification: Performance of preOpt inlineArrayEqn (simulation): time 0.0004816/0.6183, allocations: 390.7 kB / 0.7884 GB, free: 1.492 MB / 0.5886 GB Notification: Performance of preOpt removeEqualRHS (simulation): time 0.009302/0.6276, allocations: 5.217 MB / 0.7935 GB, free: 12.29 MB / 0.6042 GB Warning: The model contains alias variables with redundant start and/or conflicting nominal values. It is recommended to resolve the conflicts, because otherwise the system could be hard to solve. To print the conflicting alias sets and the chosen candidates please use -d=aliasConflicts. Notification: Performance of preOpt removeSimpleEquations (simulation): time 0.03495/0.6625, allocations: 29.74 MB / 0.8226 GB, free: 15.19 MB / 0.6355 GB Notification: Performance of preOpt comSubExp (simulation): time 0.008235/0.6708, allocations: 5.3 MB / 0.8277 GB, free: 9.914 MB / 0.6355 GB Notification: Performance of preOpt resolveLoops (simulation): time 0.003393/0.6742, allocations: 2.575 MB / 0.8303 GB, free: 7.32 MB / 0.6355 GB Warning: The model contains alias variables with redundant start and/or conflicting nominal values. It is recommended to resolve the conflicts, because otherwise the system could be hard to solve. To print the conflicting alias sets and the chosen candidates please use -d=aliasConflicts. Notification: Performance of preOpt evalFunc (simulation): time 0.02095/0.6951, allocations: 14.17 MB / 0.8441 GB, free: 9.383 MB / 0.6511 GB Notification: Performance of preOpt encapsulateWhenConditions (simulation): time 7.624e-05/0.6952, allocations: 123.5 kB / 0.8442 GB, free: 9.25 MB / 0.6511 GB Notification: Performance of pre-optimization done (n=1014): time 8.977e-06/0.6952, allocations: 0 / 0.8442 GB, free: 9.25 MB / 0.6511 GB Notification: Performance of matching and sorting (n=1029): time 0.03813/0.7333, allocations: 20.78 MB / 0.8645 GB, free: 4.414 MB / 0.6667 GB Notification: Performance of inlineWhenForInitialization (initialization): time 7.019e-05/0.7334, allocations: 129.2 kB / 0.8646 GB, free: 4.273 MB / 0.6667 GB Notification: Performance of selectInitializationVariablesDAE (initialization): time 0.005082/0.7385, allocations: 4.924 MB / 0.8694 GB, free: 15.34 MB / 0.6823 GB Notification: Performance of collectPreVariables (initialization): time 0.000434/0.7389, allocations: 157.7 kB / 0.8696 GB, free: 15.18 MB / 0.6823 GB Notification: Performance of collectInitialEqns (initialization): time 0.002012/0.7409, allocations: 3.807 MB / 0.8733 GB, free: 11.38 MB / 0.6823 GB Notification: Performance of collectInitialBindings (initialization): time 0.002651/0.7436, allocations: 3.746 MB / 0.877 GB, free: 7.699 MB / 0.6823 GB Notification: Performance of simplifyInitialFunctions (initialization): time 0.002138/0.7457, allocations: 1.861 MB / 0.8788 GB, free: 5.824 MB / 0.6823 GB Notification: Performance of setup shared object (initialization): time 0.0001092/0.7458, allocations: 480.8 kB / 0.8792 GB, free: 5.352 MB / 0.6823 GB Notification: Performance of preBalanceInitialSystem (initialization): time 0.003386/0.7492, allocations: 1.874 MB / 0.8811 GB, free: 3.477 MB / 0.6823 GB Notification: Performance of partitionIndependentBlocks (initialization): time 0.004629/0.7538, allocations: 3.75 MB / 0.8847 GB, free: 15.2 MB / 0.698 GB Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: flowResistance8.m_flow = flowResistance8.m_flow_0 (discretizedHEX2.m_flow_0_B = flowResistance8.m_flow_0) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX.inletA.m_flow = discretizedHEX.m_flow_0_A (discretizedHEX4.m_flow_0_B + discretizedHEX2.m_flow_0_B = discretizedHEX.m_flow_0_A) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX4.thermalElementA[3].deltaE_system = $START.discretizedHEX4.thermalElementA[3].deltaE_system (0.0 = $START.discretizedHEX4.thermalElementA[3].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX4.thermalElementA[2].deltaE_system = $START.discretizedHEX4.thermalElementA[2].deltaE_system (0.0 = $START.discretizedHEX4.thermalElementA[2].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX4.thermalElementA[1].deltaE_system = $START.discretizedHEX4.thermalElementA[1].deltaE_system (0.0 = $START.discretizedHEX4.thermalElementA[1].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX4.thermalElementB[3].deltaE_system = $START.discretizedHEX4.thermalElementB[3].deltaE_system (0.0 = $START.discretizedHEX4.thermalElementB[3].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX4.thermalElementB[2].deltaE_system = $START.discretizedHEX4.thermalElementB[2].deltaE_system (0.0 = $START.discretizedHEX4.thermalElementB[2].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX4.thermalElementB[1].deltaE_system = $START.discretizedHEX4.thermalElementB[1].deltaE_system (0.0 = $START.discretizedHEX4.thermalElementB[1].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX2.thermalElementA[3].deltaE_system = $START.discretizedHEX2.thermalElementA[3].deltaE_system (0.0 = $START.discretizedHEX2.thermalElementA[3].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX2.thermalElementA[2].deltaE_system = $START.discretizedHEX2.thermalElementA[2].deltaE_system (0.0 = $START.discretizedHEX2.thermalElementA[2].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX2.thermalElementA[1].deltaE_system = $START.discretizedHEX2.thermalElementA[1].deltaE_system (0.0 = $START.discretizedHEX2.thermalElementA[1].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX2.thermalElementB[3].deltaE_system = $START.discretizedHEX2.thermalElementB[3].deltaE_system (0.0 = $START.discretizedHEX2.thermalElementB[3].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX2.thermalElementB[2].deltaE_system = $START.discretizedHEX2.thermalElementB[2].deltaE_system (0.0 = $START.discretizedHEX2.thermalElementB[2].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX2.thermalElementB[1].deltaE_system = $START.discretizedHEX2.thermalElementB[1].deltaE_system (0.0 = $START.discretizedHEX2.thermalElementB[1].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX1.thermalElementA[3].deltaE_system = $START.discretizedHEX1.thermalElementA[3].deltaE_system (0.0 = $START.discretizedHEX1.thermalElementA[3].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX1.thermalElementA[2].deltaE_system = $START.discretizedHEX1.thermalElementA[2].deltaE_system (0.0 = $START.discretizedHEX1.thermalElementA[2].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX1.thermalElementA[1].deltaE_system = $START.discretizedHEX1.thermalElementA[1].deltaE_system (0.0 = $START.discretizedHEX1.thermalElementA[1].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX1.thermalElementB[3].deltaE_system = $START.discretizedHEX1.thermalElementB[3].deltaE_system (0.0 = $START.discretizedHEX1.thermalElementB[3].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX1.thermalElementB[2].deltaE_system = $START.discretizedHEX1.thermalElementB[2].deltaE_system (0.0 = $START.discretizedHEX1.thermalElementB[2].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX1.thermalElementB[1].deltaE_system = $START.discretizedHEX1.thermalElementB[1].deltaE_system (0.0 = $START.discretizedHEX1.thermalElementB[1].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX.thermalElementA[3].deltaE_system = $START.discretizedHEX.thermalElementA[3].deltaE_system (0.0 = $START.discretizedHEX.thermalElementA[3].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX.thermalElementA[2].deltaE_system = $START.discretizedHEX.thermalElementA[2].deltaE_system (0.0 = $START.discretizedHEX.thermalElementA[2].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX.thermalElementA[1].deltaE_system = $START.discretizedHEX.thermalElementA[1].deltaE_system (0.0 = $START.discretizedHEX.thermalElementA[1].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX.thermalElementB[3].deltaE_system = $START.discretizedHEX.thermalElementB[3].deltaE_system (0.0 = $START.discretizedHEX.thermalElementB[3].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX.thermalElementB[2].deltaE_system = $START.discretizedHEX.thermalElementB[2].deltaE_system (0.0 = $START.discretizedHEX.thermalElementB[2].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: discretizedHEX.thermalElementB[1].deltaE_system = $START.discretizedHEX.thermalElementB[1].deltaE_system (0.0 = $START.discretizedHEX.thermalElementB[1].deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: conductionElement1.deltaE_system = $START.conductionElement1.deltaE_system (0.0 = $START.conductionElement1.deltaE_system) Warning: It was not possible to determine if the initialization problem is consistent, because of not evaluable parameters/start values during compile time: conductionElement.deltaE_system = $START.conductionElement.deltaE_system (0.0 = $START.conductionElement.deltaE_system) Notification: Performance of analyzeInitialSystem (initialization): time 0.01975/0.7736, allocations: 13.81 MB / 0.8982 GB, free: 0.9297 MB / 0.698 GB Notification: Performance of solveInitialSystemEqSystem (initialization): time 3.142e-05/0.7736, allocations: 8 kB / 0.8982 GB, free: 0.9219 MB / 0.698 GB Notification: Performance of matching and sorting (n=1210) (initialization): time 0.4388/1.212, allocations: 8.337 MB / 0.9064 GB, free: 172.5 MB / 0.698 GB Notification: Performance of prepare postOptimizeDAE: time 4.58e-05/1.212, allocations: 16.38 kB / 0.9064 GB, free: 172.5 MB / 0.698 GB Notification: Performance of postOpt simplifyComplexFunction (initialization): time 0.009414/1.222, allocations: 6.52 MB / 0.9128 GB, free: 171.9 MB / 0.698 GB Notification: Performance of postOpt tearingSystem (initialization): time 0.008629/1.23, allocations: 1.866 MB / 0.9146 GB, free: 171.6 MB / 0.698 GB Notification: Performance of postOpt solveSimpleEquations (initialization): time 0.003595/1.234, allocations: 1.629 MB / 0.9162 GB, free: 171.6 MB / 0.698 GB Notification: Performance of postOpt calculateStrongComponentJacobians (initialization): time 0.01415/1.248, allocations: 43.3 MB / 0.9585 GB, free: 132.8 MB / 0.698 GB Notification: Performance of postOpt simplifyAllExpressions (initialization): time 0.003715/1.252, allocations: 409.9 kB / 0.9589 GB, free: 132.8 MB / 0.698 GB Notification: Performance of postOpt collapseArrayExpressions (initialization): time 0.0005476/1.252, allocations: 377.8 kB / 0.9592 GB, free: 132.8 MB / 0.698 GB Warning: The initial conditions are over specified. The following 28 initial equations are redundant, so they are removed from the initialization system: flowResistance8.m_flow = flowResistance8.m_flow_0 discretizedHEX.inletA.m_flow = discretizedHEX.m_flow_0_A discretizedHEX4.thermalElementA[3].deltaE_system = $START.discretizedHEX4.thermalElementA[3].deltaE_system discretizedHEX4.thermalElementA[2].deltaE_system = $START.discretizedHEX4.thermalElementA[2].deltaE_system discretizedHEX4.thermalElementA[1].deltaE_system = $START.discretizedHEX4.thermalElementA[1].deltaE_system discretizedHEX4.thermalElementB[3].deltaE_system = $START.discretizedHEX4.thermalElementB[3].deltaE_system discretizedHEX4.thermalElementB[2].deltaE_system = $START.discretizedHEX4.thermalElementB[2].deltaE_system discretizedHEX4.thermalElementB[1].deltaE_system = $START.discretizedHEX4.thermalElementB[1].deltaE_system discretizedHEX2.thermalElementA[3].deltaE_system = $START.discretizedHEX2.thermalElementA[3].deltaE_system discretizedHEX2.thermalElementA[2].deltaE_system = $START.discretizedHEX2.thermalElementA[2].deltaE_system discretizedHEX2.thermalElementA[1].deltaE_system = $START.discretizedHEX2.thermalElementA[1].deltaE_system discretizedHEX2.thermalElementB[3].deltaE_system = $START.discretizedHEX2.thermalElementB[3].deltaE_system discretizedHEX2.thermalElementB[2].deltaE_system = $START.discretizedHEX2.thermalElementB[2].deltaE_system discretizedHEX2.thermalElementB[1].deltaE_system = $START.discretizedHEX2.thermalElementB[1].deltaE_system discretizedHEX1.thermalElementA[3].deltaE_system = $START.discretizedHEX1.thermalElementA[3].deltaE_system discretizedHEX1.thermalElementA[2].deltaE_system = $START.discretizedHEX1.thermalElementA[2].deltaE_system discretizedHEX1.thermalElementA[1].deltaE_system = $START.discretizedHEX1.thermalElementA[1].deltaE_system discretizedHEX1.thermalElementB[3].deltaE_system = $START.discretizedHEX1.thermalElementB[3].deltaE_system discretizedHEX1.thermalElementB[2].deltaE_system = $START.discretizedHEX1.thermalElementB[2].deltaE_system discretizedHEX1.thermalElementB[1].deltaE_system = $START.discretizedHEX1.thermalElementB[1].deltaE_system discretizedHEX.thermalElementA[3].deltaE_system = $START.discretizedHEX.thermalElementA[3].deltaE_system discretizedHEX.thermalElementA[2].deltaE_system = $START.discretizedHEX.thermalElementA[2].deltaE_system discretizedHEX.thermalElementA[1].deltaE_system = $START.discretizedHEX.thermalElementA[1].deltaE_system discretizedHEX.thermalElementB[3].deltaE_system = $START.discretizedHEX.thermalElementB[3].deltaE_system discretizedHEX.thermalElementB[2].deltaE_system = $START.discretizedHEX.thermalElementB[2].deltaE_system discretizedHEX.thermalElementB[1].deltaE_system = $START.discretizedHEX.thermalElementB[1].deltaE_system conductionElement1.deltaE_system = $START.conductionElement1.deltaE_system conductionElement.deltaE_system = $START.conductionElement.deltaE_system. Notification: Model statistics after passing the back-end for initialization: * Number of independent subsystems: 123 * Number of states: 0 () * Number of discrete variables: 77 (volumeFlex.medium.phase,volume.medium.phase,receiver.medium.phase,volume.state_in.phase,conductionElement1.state.phase,conductionElement1.outlet.state.phase,basicControlValve.outlet.state.phase,source3.outlet.state.phase,flowResistance7.outlet.state.phase,sink.inlet.state.phase,dynamicPressureOutflow.outlet.state.phase,source2.outlet.state.phase,splitterT2_1.splitterN.outlets[2].state.phase,junctionT2_1.outlet.state.phase,conductionElement.state.phase,flowResistance5.outlet.state.phase,flowResistance5.inlet.state.phase,flowResistance4.outlet.state.phase,receiver.outlet.state.phase,receiver.inlet.state.phase,volumeFlex.inlet.state.phase,source1.outlet.state.phase,sink2.inlet.state.phase,discretizedHEX4.outletA.state.phase,discretizedHEX4.inletA.state.phase,discretizedHEX4.outletB.state.phase,discretizedHEX4.inletB.state.phase,discretizedHEX4.thermalElementA[3].state.phase,discretizedHEX4.thermalElementA[2].state.phase,discretizedHEX4.thermalElementA[2].outlet.state.phase,discretizedHEX4.thermalElementA[1].state.phase,discretizedHEX4.thermalElementA[1].outlet.state.phase,discretizedHEX4.thermalElementB[3].state.phase,discretizedHEX4.thermalElementB[2].state.phase,discretizedHEX4.thermalElementB[2].outlet.state.phase,discretizedHEX4.thermalElementB[1].state.phase,discretizedHEX4.thermalElementB[1].outlet.state.phase,counterFlowNTU.outletB.state.phase,counterFlowNTU.inletB.state.phase,counterFlowNTU.outletA.state.phase,counterFlowNTU.inletA.state.phase,discretizedHEX2.inletA.state.phase,discretizedHEX2.thermalElementA[3].state.phase,discretizedHEX2.thermalElementA[2].state.phase,discretizedHEX2.thermalElementA[2].outlet.state.phase,discretizedHEX2.thermalElementA[1].state.phase,discretizedHEX2.thermalElementA[1].outlet.state.phase,discretizedHEX2.thermalElementB[3].state.phase,discretizedHEX2.thermalElementB[2].state.phase,discretizedHEX2.thermalElementB[2].outlet.state.phase,discretizedHEX2.thermalElementB[1].state.phase,discretizedHEX2.thermalElementB[1].outlet.state.phase,discretizedHEX1.outletA.state.phase,discretizedHEX1.inletA.state.phase,discretizedHEX1.outletB.state.phase,discretizedHEX1.thermalElementA[3].state.phase,discretizedHEX1.thermalElementA[2].state.phase,discretizedHEX1.thermalElementA[2].outlet.state.phase,discretizedHEX1.thermalElementA[1].state.phase,discretizedHEX1.thermalElementA[1].outlet.state.phase,discretizedHEX1.thermalElementB[3].state.phase,discretizedHEX1.thermalElementB[2].state.phase,discretizedHEX1.thermalElementB[2].outlet.state.phase,discretizedHEX1.thermalElementB[1].state.phase,discretizedHEX1.thermalElementB[1].outlet.state.phase,discretizedHEX.inletA.state.phase,discretizedHEX.outletB.state.phase,discretizedHEX.thermalElementA[3].state.phase,discretizedHEX.thermalElementA[2].state.phase,discretizedHEX.thermalElementA[2].outlet.state.phase,discretizedHEX.thermalElementA[1].state.phase,discretizedHEX.thermalElementA[1].outlet.state.phase,discretizedHEX.thermalElementB[3].state.phase,discretizedHEX.thermalElementB[2].state.phase,discretizedHEX.thermalElementB[2].outlet.state.phase,discretizedHEX.thermalElementB[1].state.phase,discretizedHEX.thermalElementB[1].outlet.state.phase) * Number of discrete states: 0 () * Number of clocked states: 0 () * Top-level inputs: 0 Notification: Strong component statistics for initialization (814): * Single equations (assignments): 716 * Array equations: 0 * Algorithm blocks: 0 * Record equations: 73 * When equations: 0 * If-equations: 0 * Equation systems (not torn): 2 * Torn equation systems: 23 * Mixed (continuous/discrete) equation systems: 0 Notification: Equation system details (not torn): * Constant Jacobian (size): 0 systems * Linear Jacobian (size,density): 0 systems * Non-linear Jacobian (size): 2 systems {1, 1} * Without analytic Jacobian (size): 0 systems Notification: Torn system details for strict tearing set: * Linear torn systems (#iteration vars, #inner vars, density): 20 systems {(1,4,100.0%), (1,1,100.0%), (4,25,75.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%), (1,5,100.0%), (1,5,100.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%), (1,9,100.0%), (2,2,100.0%), (1,8,100.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%)} * Non-linear torn systems (#iteration vars, #inner vars): 3 systems {(1,1), (2,2), (1,1)} Notification: Performance of prepare postOptimizeDAE: time 0.002133/1.255, allocations: 0.8136 MB / 0.96 GB, free: 132.6 MB / 0.698 GB Notification: Performance of postOpt lateInlineFunction (simulation): time 0.001434/1.256, allocations: 1.094 MB / 0.9611 GB, free: 132.6 MB / 0.698 GB Notification: Performance of postOpt wrapFunctionCalls (simulation): time 0.02158/1.278, allocations: 26.19 MB / 0.9866 GB, free: 130.3 MB / 0.698 GB Notification: Performance of postOpt inlineArrayEqn (simulation): time 0.009901/1.288, allocations: 9.423 MB / 0.9958 GB, free: 129.3 MB / 0.698 GB Notification: Performance of postOpt constantLinearSystem (simulation): time 1.92e-05/1.288, allocations: 19.88 kB / 0.9959 GB, free: 129.3 MB / 0.698 GB Notification: Performance of postOpt simplifysemiLinear (simulation): time 6.067e-05/1.288, allocations: 48.61 kB / 0.9959 GB, free: 129.3 MB / 0.698 GB Notification: Performance of postOpt removeSimpleEquations (simulation): time 0.02291/1.311, allocations: 22.42 MB / 1.018 GB, free: 122 MB / 0.698 GB Notification: Performance of postOpt simplifyComplexFunction (simulation): time 0.009661/1.32, allocations: 8.889 MB / 1.026 GB, free: 113.8 MB / 0.698 GB Notification: Performance of postOpt solveSimpleEquations (simulation): time 0.003381/1.324, allocations: 1.704 MB / 1.028 GB, free: 112.5 MB / 0.698 GB Notification: Performance of postOpt tearingSystem (simulation): time 0.003914/1.327, allocations: 1.805 MB / 1.03 GB, free: 111.1 MB / 0.698 GB Notification: Performance of postOpt inputDerivativesUsed (simulation): time 0.0004315/1.328, allocations: 307 kB / 1.03 GB, free: 110.9 MB / 0.698 GB Notification: Performance of postOpt calculateStrongComponentJacobians (simulation): time 0.01409/1.342, allocations: 44.05 MB / 1.073 GB, free: 65.69 MB / 0.698 GB Notification: Performance of postOpt calculateStateSetsJacobians (simulation): time 3.056e-06/1.342, allocations: 4 kB / 1.073 GB, free: 65.69 MB / 0.698 GB Notification: Performance of postOpt symbolicJacobian (simulation): time 0.01686/1.359, allocations: 13.56 MB / 1.086 GB, free: 52.38 MB / 0.698 GB Notification: Performance of postOpt removeConstants (simulation): time 0.003156/1.362, allocations: 2.107 MB / 1.089 GB, free: 50.36 MB / 0.698 GB Notification: Performance of postOpt simplifyTimeIndepFuncCalls (simulation): time 0.0007293/1.363, allocations: 215.4 kB / 1.089 GB, free: 50.15 MB / 0.698 GB Notification: Performance of postOpt simplifyAllExpressions (simulation): time 0.002174/1.365, allocations: 483.1 kB / 1.089 GB, free: 49.68 MB / 0.698 GB Notification: Performance of postOpt findZeroCrossings (simulation): time 0.0008348/1.366, allocations: 0.7365 MB / 1.09 GB, free: 48.95 MB / 0.698 GB Notification: Performance of postOpt collapseArrayExpressions (simulation): time 0.0004094/1.366, allocations: 359.8 kB / 1.09 GB, free: 48.6 MB / 0.698 GB Notification: Performance of sorting global known variables: time 0.002359/1.369, allocations: 2.654 MB / 1.093 GB, free: 45.95 MB / 0.698 GB Notification: Performance of sort global known variables: time 8e-08/1.369, allocations: 4 kB / 1.093 GB, free: 45.95 MB / 0.698 GB Notification: Performance of remove unused functions: time 0.01247/1.381, allocations: 4.551 MB / 1.097 GB, free: 41.76 MB / 0.698 GB Notification: Model statistics after passing the back-end for simulation: * Number of independent subsystems: 20 * Number of states: 42 (discretizedHEX.thermalElementB[1].h,discretizedHEX.thermalElementB[2].h,discretizedHEX.thermalElementB[3].h,discretizedHEX.thermalElementA[1].h,discretizedHEX.thermalElementA[2].h,discretizedHEX.thermalElementA[3].h,discretizedHEX1.thermalElementB[1].h,discretizedHEX1.thermalElementB[2].h,discretizedHEX1.thermalElementB[3].h,discretizedHEX1.thermalElementA[1].h,discretizedHEX1.thermalElementA[2].h,discretizedHEX1.thermalElementA[3].h,discretizedHEX2.thermalElementB[1].h,discretizedHEX2.thermalElementB[2].h,discretizedHEX2.thermalElementB[3].h,discretizedHEX2.thermalElementA[1].h,discretizedHEX2.thermalElementA[2].h,discretizedHEX2.thermalElementA[3].h,counterFlowNTU.h_out_A,counterFlowNTU.h_out_B,volume.M,volume.U_med,discretizedHEX4.thermalElementB[1].h,discretizedHEX4.thermalElementB[2].h,discretizedHEX4.thermalElementB[3].h,discretizedHEX4.thermalElementA[1].h,discretizedHEX4.thermalElementA[2].h,discretizedHEX4.thermalElementA[3].h,volumeFlex.M,volumeFlex.U_med,receiver.M,receiver.U_med,flowResistance1.inlet.m_flow,flowResistance2.inlet.m_flow,flowResistance3.inlet.m_flow,conductionElement.inlet.m_flow,conductionElement.h,flowResistance6.inlet.m_flow,conductionElement1.inlet.m_flow,conductionElement1.h,pump.m_flow,flowResistance8.inlet.m_flow) * Number of discrete variables: 190 (counterFlowNTU.outletB.state.phase,discretizedHEX2.thermalElementB[1].outlet.state.phase,discretizedHEX2.thermalElementB[2].outlet.state.phase,receiver.inlet.state.phase,counterFlowNTU.inletB.state.phase,conductionElement1.outlet.state.phase,basicControlValve.outlet.state.phase,sink.inlet.state.phase,counterFlowNTU.outletA.state.phase,counterFlowNTU.inletA.state.phase,discretizedHEX4.outletA.state.phase,discretizedHEX4.thermalElementA[2].outlet.state.phase,discretizedHEX4.thermalElementA[1].outlet.state.phase,discretizedHEX4.inletA.state.phase,sink2.inlet.state.phase,receiver.outlet.state.phase,junctionT2_1.outlet.state.phase,flowResistance5.outlet.state.phase,flowResistance5.inlet.state.phase,discretizedHEX4.inletB.state.phase,discretizedHEX4.thermalElementB[2].outlet.state.phase,discretizedHEX4.outletB.state.phase,discretizedHEX4.thermalElementB[1].outlet.state.phase,flowResistance4.outlet.state.phase,volumeFlex.inlet.state.phase,discretizedHEX2.thermalElementA[2].outlet.state.phase,discretizedHEX2.thermalElementA[1].outlet.state.phase,discretizedHEX2.inletA.state.phase,discretizedHEX.outletB.state.phase,discretizedHEX.thermalElementB[2].outlet.state.phase,discretizedHEX.thermalElementB[1].outlet.state.phase,discretizedHEX1.outletA.state.phase,discretizedHEX1.thermalElementA[2].outlet.state.phase,discretizedHEX1.thermalElementA[1].outlet.state.phase,discretizedHEX1.inletA.state.phase,discretizedHEX1.outletB.state.phase,discretizedHEX1.thermalElementB[2].outlet.state.phase,discretizedHEX1.thermalElementB[1].outlet.state.phase,discretizedHEX.thermalElementA[2].outlet.state.phase,splitterT2_1.splitterN.outlets[2].state.phase,discretizedHEX.thermalElementA[1].outlet.state.phase,$cse1.phase,$cse2,$cse4.phase,$cse5,$cse6.phase,$cse7,$cse8.phase,$cse9,$cse10.phase,$cse11,$cse12.phase,$cse13,$cse14.phase,$cse15,$cse18.phase,$cse19,$cse20.phase,$cse21,$cse22.phase,$cse23,$cse24.phase,$cse25,$cse28.phase,$cse29,$cse34.phase,$cse35,$cse36.phase,$cse37,$cse38.phase,$cse39,$cse41.phase,$cse42,$cse44.phase,$cse45,$cse47.phase,$cse48,$cse49.phase,$cse50,$cse51.phase,$cse52,$cse53.phase,$cse54,$cse56.phase,$cse57,$cse59.phase,$cse60,$cse62.phase,$cse63,$cse64.phase,$cse65,$cse66.phase,$cse67,$cse68.phase,$cse69,$cse72.phase,$cse73,$cse76.phase,$cse77,$cse80.phase,$cse81,$cse82.phase,$cse83,$cse84.phase,$cse85,$cse86.phase,$cse87,$cse90.phase,$cse91,$cse94.phase,$cse95,$cse98.phase,$cse99,$cse100.phase,$cse102.phase,$cse104.phase,$cse107.phase,$cse108.phase,$cse109.phase,$cse110.phase,$cse111.phase,$cse112,$cse113.phase,$cse114,$cse116.phase,$cse118.phase,$cse120.phase,$cse122.phase,$cse124.phase,$cse126.phase,$cse129.phase,$cse130,$cse131.phase,$cse132,$cse133.phase,$cse134,$cse135.phase,$cse136,$cse142.phase,$cse143,$cse144.phase,$cse145.phase,$cse148.phase,$cse149,$cse150.phase,$cse151,$cse152.phase,$cse153,$cse154.phase,$cse155,$cse156.phase,$cse157,$cse162.phase,$cse163,$cse164.phase,$cse165,$cse168.phase,$cse169,$cse170.phase,$cse171,discretizedHEX.thermalElementB[1].state.phase,discretizedHEX.thermalElementB[2].state.phase,discretizedHEX.thermalElementB[3].state.phase,discretizedHEX.thermalElementA[1].state.phase,discretizedHEX.thermalElementA[2].state.phase,discretizedHEX.thermalElementA[3].state.phase,discretizedHEX1.thermalElementB[1].state.phase,discretizedHEX1.thermalElementB[2].state.phase,discretizedHEX1.thermalElementB[3].state.phase,discretizedHEX1.thermalElementA[1].state.phase,discretizedHEX1.thermalElementA[2].state.phase,discretizedHEX1.thermalElementA[3].state.phase,discretizedHEX2.thermalElementB[1].state.phase,discretizedHEX2.thermalElementB[2].state.phase,discretizedHEX2.thermalElementB[3].state.phase,discretizedHEX2.thermalElementA[1].state.phase,discretizedHEX2.thermalElementA[2].state.phase,discretizedHEX2.thermalElementA[3].state.phase,discretizedHEX4.thermalElementB[1].state.phase,discretizedHEX4.thermalElementB[2].state.phase,discretizedHEX4.thermalElementB[3].state.phase,discretizedHEX4.thermalElementA[1].state.phase,discretizedHEX4.thermalElementA[2].state.phase,discretizedHEX4.thermalElementA[3].state.phase,conductionElement.state.phase,dynamicPressureOutflow.outlet.state.phase,flowResistance7.outlet.state.phase,conductionElement1.state.phase,discretizedHEX.inletA.state.phase,source3.outlet.state.phase) * Number of discrete states: 0 () * Number of clocked states: 0 () * Top-level inputs: 0 Notification: Strong component statistics for simulation (939): * Single equations (assignments): 808 * Array equations: 0 * Algorithm blocks: 0 * Record equations: 105 * When equations: 0 * If-equations: 0 * Equation systems (not torn): 0 * Torn equation systems: 26 * Mixed (continuous/discrete) equation systems: 0 Notification: Torn system details for strict tearing set: * Linear torn systems (#iteration vars, #inner vars, density): 20 systems {(1,5,100.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%), (1,3,100.0%), (4,25,75.0%), (1,5,100.0%), (1,8,100.0%), (2,2,100.0%), (1,1,100.0%), (1,9,100.0%), (1,4,100.0%)} * Non-linear torn systems (#iteration vars, #inner vars): 6 systems {(2,2), (1,1), (1,3), (2,4), (1,1), (1,3)} Notification: Performance of Backend phase and start with SimCode phase: time 0.04314/1.424, allocations: 18.75 MB / 1.116 GB, free: 23.9 MB / 0.698 GB Notification: Performance of simCode: created initialization part: time 0.01708/1.441, allocations: 12.39 MB / 1.128 GB, free: 11.02 MB / 0.698 GB Notification: Performance of simCode: created event and clocks part: time 1.182e-05/1.441, allocations: 5.844 kB / 1.128 GB, free: 11.01 MB / 0.698 GB Notification: Performance of simCode: created simulation system equations: time 0.009006/1.45, allocations: 8.999 MB / 1.136 GB, free: 1.613 MB / 0.698 GB Notification: Performance of simCode: created of all other equations (e.g. parameter, nominal, assert, etc): time 0.01613/1.466, allocations: 5.119 MB / 1.141 GB, free: 12.84 MB / 0.7137 GB Notification: Performance of simCode: created linear, non-linear and system jacobian parts: time 0.03282/1.499, allocations: 22.37 MB / 1.163 GB, free: 6.715 MB / 0.7293 GB Notification: Performance of simCode: some other stuff during SimCode phase: time 0.002703/1.502, allocations: 2.666 MB / 1.166 GB, free: 4.02 MB / 0.7293 GB Notification: Performance of simCode: alias equations: time 0.2424/1.744, allocations: 4.476 MB / 1.17 GB, free: 183.5 MB / 0.7293 GB Notification: Performance of simCode: all other stuff during SimCode phase: time 0.003483/1.748, allocations: 0.8572 MB / 1.171 GB, free: 183.5 MB / 0.7293 GB Notification: Performance of SimCode: time 1.804e-06/1.748, allocations: 1.125 kB / 1.171 GB, free: 183.5 MB / 0.7293 GB Notification: Performance of Templates: time 0.5259/2.274, allocations: 314.8 MB / 1.479 GB, free: 195.3 MB / 0.7449 GB " [Timeout remaining time 658] make -j1 -f ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia.makefile [Timeout 660] (rm -f ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia.pipe ; mkfifo ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia.pipe ; head -c 1048576 < ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia.pipe >> ../files/ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia.sim & ./ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia -abortSlowSimulation -alarm=240 -emit_protected -lv LOG_STATS > ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia.pipe 2>&1) [Timeout 240] diffSimulationResults("ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat","/mnt/ReferenceFiles/ThermofluidStream-main-regression/ReferenceData/ThermofluidStream.Media.Tests.TestXRGMedia_ref.mat","",relTol=0.003,relTolDiffMinMax=0.003,rangeDelta=0.001) [Timeout 660] "Error: Could not read variable CPUtime in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable CPUtime from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable EventCounter in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable EventCounter from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.initialization[1].Calls in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.initialization[1].Calls from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.initialization[1].Iterations in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.initialization[1].Iterations from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.initialization[1].Jacobians in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.initialization[1].Jacobians from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.initialization[1].Residues in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.initialization[1].Residues from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.initialization[2].Calls in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.initialization[2].Calls from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.initialization[2].Iterations in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.initialization[2].Iterations from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.initialization[2].Jacobians in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.initialization[2].Jacobians from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.initialization[2].Residues in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.initialization[2].Residues from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.simulation[1].Calls in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.simulation[1].Calls from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.simulation[1].Iterations in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.simulation[1].Iterations from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.simulation[1].Jacobians in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.simulation[1].Jacobians from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.simulation[1].Residues in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.simulation[1].Residues from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.simulation[2].Calls in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.simulation[2].Calls from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.simulation[2].Iterations in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.simulation[2].Iterations from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.simulation[2].Jacobians in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.simulation[2].Jacobians from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.simulation[2].Residues in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.simulation[2].Residues from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.simulation[3].Calls in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.simulation[3].Calls from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.simulation[3].Iterations in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.simulation[3].Iterations from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.simulation[3].Jacobians in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.simulation[3].Jacobians from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable NonlinearSystems.simulation[3].Residues in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable NonlinearSystems.simulation[3].Residues from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable basicControlValve.secondsPerHour in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable basicControlValve.secondsPerHour from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable counterFlowNTU.eps in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable counterFlowNTU.eps from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX.thermalElementA[1].Re_exp in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX.thermalElementA[1].Re_exp from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX.thermalElementA[1].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX.thermalElementA[1].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX.thermalElementA[2].Re_exp in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX.thermalElementA[2].Re_exp from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX.thermalElementA[2].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX.thermalElementA[2].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX.thermalElementA[3].Re_exp in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX.thermalElementA[3].Re_exp from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX.thermalElementA[3].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX.thermalElementA[3].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX.thermalElementB[1].Re_exp_cond in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX.thermalElementB[1].Re_exp_cond from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX.thermalElementB[1].Re_exp_evap in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX.thermalElementB[1].Re_exp_evap from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX.thermalElementB[1].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX.thermalElementB[1].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX.thermalElementB[2].Re_exp_cond in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX.thermalElementB[2].Re_exp_cond from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX.thermalElementB[2].Re_exp_evap in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX.thermalElementB[2].Re_exp_evap from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX.thermalElementB[2].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX.thermalElementB[2].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX.thermalElementB[3].Re_exp_cond in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX.thermalElementB[3].Re_exp_cond from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX.thermalElementB[3].Re_exp_evap in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX.thermalElementB[3].Re_exp_evap from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX.thermalElementB[3].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX.thermalElementB[3].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX1.thermalElementA[1].Re_exp in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX1.thermalElementA[1].Re_exp from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX1.thermalElementA[1].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX1.thermalElementA[1].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX1.thermalElementA[2].Re_exp in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX1.thermalElementA[2].Re_exp from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX1.thermalElementA[2].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX1.thermalElementA[2].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX1.thermalElementA[3].Re_exp in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX1.thermalElementA[3].Re_exp from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX1.thermalElementA[3].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX1.thermalElementA[3].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX1.thermalElementB[1].Re_exp_cond in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX1.thermalElementB[1].Re_exp_cond from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX1.thermalElementB[1].Re_exp_evap in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX1.thermalElementB[1].Re_exp_evap from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX1.thermalElementB[1].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX1.thermalElementB[1].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX1.thermalElementB[2].Re_exp_cond in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX1.thermalElementB[2].Re_exp_cond from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX1.thermalElementB[2].Re_exp_evap in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX1.thermalElementB[2].Re_exp_evap from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX1.thermalElementB[2].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX1.thermalElementB[2].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX1.thermalElementB[3].Re_exp_cond in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX1.thermalElementB[3].Re_exp_cond from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX1.thermalElementB[3].Re_exp_evap in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX1.thermalElementB[3].Re_exp_evap from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX1.thermalElementB[3].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX1.thermalElementB[3].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX2.thermalElementA[1].Re_exp in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX2.thermalElementA[1].Re_exp from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX2.thermalElementA[1].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX2.thermalElementA[1].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX2.thermalElementA[2].Re_exp in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX2.thermalElementA[2].Re_exp from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX2.thermalElementA[2].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX2.thermalElementA[2].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX2.thermalElementA[3].Re_exp in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX2.thermalElementA[3].Re_exp from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX2.thermalElementA[3].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX2.thermalElementA[3].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX2.thermalElementB[1].Re_exp_cond in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX2.thermalElementB[1].Re_exp_cond from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX2.thermalElementB[1].Re_exp_evap in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX2.thermalElementB[1].Re_exp_evap from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX2.thermalElementB[1].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX2.thermalElementB[1].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX2.thermalElementB[2].Re_exp_cond in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX2.thermalElementB[2].Re_exp_cond from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX2.thermalElementB[2].Re_exp_evap in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX2.thermalElementB[2].Re_exp_evap from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX2.thermalElementB[2].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX2.thermalElementB[2].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX2.thermalElementB[3].Re_exp_cond in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX2.thermalElementB[3].Re_exp_cond from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX2.thermalElementB[3].Re_exp_evap in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX2.thermalElementB[3].Re_exp_evap from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX2.thermalElementB[3].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX2.thermalElementB[3].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX4.thermalElementA[1].Re_exp in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX4.thermalElementA[1].Re_exp from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX4.thermalElementA[1].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX4.thermalElementA[1].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX4.thermalElementA[2].Re_exp in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX4.thermalElementA[2].Re_exp from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX4.thermalElementA[2].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX4.thermalElementA[2].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX4.thermalElementA[3].Re_exp in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX4.thermalElementA[3].Re_exp from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX4.thermalElementA[3].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX4.thermalElementA[3].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX4.thermalElementB[1].Re_exp_cond in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX4.thermalElementB[1].Re_exp_cond from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX4.thermalElementB[1].Re_exp_evap in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX4.thermalElementB[1].Re_exp_evap from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX4.thermalElementB[1].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX4.thermalElementB[1].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX4.thermalElementB[2].Re_exp_cond in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX4.thermalElementB[2].Re_exp_cond from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX4.thermalElementB[2].Re_exp_evap in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX4.thermalElementB[2].Re_exp_evap from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX4.thermalElementB[2].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX4.thermalElementB[2].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX4.thermalElementB[3].Re_exp_cond in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX4.thermalElementB[3].Re_exp_cond from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX4.thermalElementB[3].Re_exp_evap in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX4.thermalElementB[3].Re_exp_evap from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable discretizedHEX4.thermalElementB[3].U_min in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable discretizedHEX4.thermalElementB[3].U_min from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable dropOfCommons.instanceNameColor[1] in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable dropOfCommons.instanceNameColor[1] from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable dropOfCommons.instanceNameColor[2] in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable dropOfCommons.instanceNameColor[2] from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable dropOfCommons.instanceNameColor[3] in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable dropOfCommons.instanceNameColor[3] from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable flowResistance1.inlet.state.der(d) in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable flowResistance1.inlet.state.der(d) from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable junctionT2_1.junctionN.inlets[2].der(m_flow) in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable junctionT2_1.junctionN.inlets[2].der(m_flow) from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable pump.inlet.der(m_flow) in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable pump.inlet.der(m_flow) from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable receiver.der(m_flow_in) in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable receiver.der(m_flow_in) from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable receiver.medium.state.der(d) in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable receiver.medium.state.der(d) from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable sink.inlet.der(m_flow) in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable sink.inlet.der(m_flow) from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable sink2.inlet.der(m_flow) in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable sink2.inlet.der(m_flow) from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable sink3.inlet.der(m_flow) in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable sink3.inlet.der(m_flow) from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable sink4.inlet.der(m_flow) in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable sink4.inlet.der(m_flow) from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable source.outlet.der(m_flow) in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable source.outlet.der(m_flow) from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable source1.outlet.der(m_flow) in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable source1.outlet.der(m_flow) from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable volume.der(m_flow_in) in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable volume.der(m_flow_in) from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable volume.der(m_flow_out) in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable volume.der(m_flow_out) from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! Error: Could not read variable volumeFlex.medium.state.der(d) in file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat. Warning: Get data of variable volumeFlex.medium.state.der(d) from file ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat failed! " [Timeout remaining time 660] "" Variables in the reference:CPUtime,EventCounter,NonlinearSystems.initialization[1].Calls,NonlinearSystems.initialization[1].Iterations,NonlinearSystems.initialization[1].Jacobians,NonlinearSystems.initialization[1].Residues,NonlinearSystems.initialization[2].Calls,NonlinearSystems.initialization[2].Iterations,NonlinearSystems.initialization[2].Jacobians,NonlinearSystems.initialization[2].Residues,NonlinearSystems.simulation[1].Calls,NonlinearSystems.simulation[1].Iterations,NonlinearSystems.simulation[1].Jacobians,NonlinearSystems.simulation[1].Residues,NonlinearSystems.simulation[2].Calls,NonlinearSystems.simulation[2].Iterations,NonlinearSystems.simulation[2].Jacobians,NonlinearSystems.simulation[2].Residues,NonlinearSystems.simulation[3].Calls,NonlinearSystems.simulation[3].Iterations,NonlinearSystems.simulation[3].Jacobians,NonlinearSystems.simulation[3].Residues,Time,basicControlValve.Cvs_UK,basicControlValve.Cvs_US,basicControlValve.Kvs,basicControlValve.L,basicControlValve.V_flow_ref,basicControlValve.clip_p_out,basicControlValve.dp,basicControlValve.dp_ref,basicControlValve.dr_corr,basicControlValve.flowCoefficient,basicControlValve.h_in,basicControlValve.h_out,basicControlValve.initM_flow,der(basicControlValve.inlet.m_flow),basicControlValve.inlet.m_flow,basicControlValve.inlet.r,basicControlValve.inlet.state.T,basicControlValve.inlet.state.d,basicControlValve.inlet.state.h,basicControlValve.inlet.state.p,basicControlValve.inlet.state.phase,basicControlValve.k_min,basicControlValve.k_u,basicControlValve.m_acceleration_0,basicControlValve.m_flow,basicControlValve.m_flowStateSelect,basicControlValve.m_flow_0,basicControlValve.m_flow_ref,basicControlValve.m_flow_ref_set,basicControlValve.outlet.m_flow,basicControlValve.outlet.r,basicControlValve.outlet.state.T,basicControlValve.outlet.state.d,basicControlValve.outlet.state.h,basicControlValve.outlet.state.p,basicControlValve.outlet.state.phase,basicControlValve.p_in,basicControlValve.p_min,basicControlValve.p_out,basicControlValve.rho,basicControlValve.rho_ref,basicControlValve.secondsPerHour,basicControlValve.u,basicControlValve.u_in,conductionElement.A,conductionElement.L,conductionElement.M,conductionElement.Q_flow,conductionElement.T,conductionElement.T_0,conductionElement.T_e,conductionElement.T_heatPort,conductionElement.U,conductionElement.U_internal,conductionElement.V,conductionElement.clip_p_out,conductionElement.deltaE_system,der(conductionElement.h),conductionElement.dp,conductionElement.dr_corr,conductionElement.h,conductionElement.h_0,conductionElement.h_in,conductionElement.h_in_norm,conductionElement.h_out,conductionElement.heatPort.Q_flow,conductionElement.heatPort.T,conductionElement.init,conductionElement.initM_flow,der(conductionElement.inlet.m_flow),conductionElement.inlet.m_flow,conductionElement.inlet.r,conductionElement.inlet.state.T,conductionElement.inlet.state.d,conductionElement.inlet.state.h,conductionElement.inlet.state.p,conductionElement.inlet.state.phase,conductionElement.k,conductionElement.k_internal,conductionElement.k_par,conductionElement.m_acceleration_0,conductionElement.m_flow,conductionElement.m_flowStateSelect,conductionElement.m_flow_0,conductionElement.m_flow_assert,conductionElement.outlet.m_flow,conductionElement.outlet.r,conductionElement.outlet.state.T,conductionElement.outlet.state.d,conductionElement.outlet.state.h,conductionElement.outlet.state.p,conductionElement.outlet.state.phase,conductionElement.p_in,conductionElement.p_min,conductionElement.p_out,conductionElement.rho,conductionElement.rho_min,conductionElement.state.T,conductionElement.state.d,conductionElement.state.h,conductionElement.state.p,conductionElement.state.phase,conductionElement1.A,conductionElement1.L,conductionElement1.M,conductionElement1.Q_flow,conductionElement1.T,conductionElement1.T_0,conductionElement1.T_e,conductionElement1.T_heatPort,conductionElement1.U,conductionElement1.U_internal,conductionElement1.V,conductionElement1.clip_p_out,conductionElement1.deltaE_system,der(conductionElement1.h),conductionElement1.dp,conductionElement1.dr_corr,conductionElement1.h,conductionElement1.h_0,conductionElement1.h_in,conductionElement1.h_in_norm,conductionElement1.h_out,conductionElement1.heatPort.Q_flow,conductionElement1.heatPort.T,conductionElement1.init,conductionElement1.initM_flow,der(conductionElement1.inlet.m_flow),conductionElement1.inlet.m_flow,conductionElement1.inlet.r,conductionElement1.inlet.state.T,conductionElement1.inlet.state.d,conductionElement1.inlet.state.h,conductionElement1.inlet.state.p,conductionElement1.inlet.state.phase,conductionElement1.k,conductionElement1.k_internal,conductionElement1.k_par,conductionElement1.m_acceleration_0,conductionElement1.m_flow,conductionElement1.m_flowStateSelect,conductionElement1.m_flow_0,conductionElement1.m_flow_assert,conductionElement1.outlet.m_flow,conductionElement1.outlet.r,conductionElement1.outlet.state.T,conductionElement1.outlet.state.d,conductionElement1.outlet.state.h,conductionElement1.outlet.state.p,conductionElement1.outlet.state.phase,conductionElement1.p_in,conductionElement1.p_min,conductionElement1.p_out,conductionElement1.rho,conductionElement1.rho_min,conductionElement1.state.T,conductionElement1.state.d,conductionElement1.state.h,conductionElement1.state.p,conductionElement1.state.phase,const.k,const.y,counterFlowNTU.A,counterFlowNTU.C_A,counterFlowNTU.C_B,counterFlowNTU.C_max,counterFlowNTU.C_min,counterFlowNTU.C_r,counterFlowNTU.Delta_T_max,counterFlowNTU.L,counterFlowNTU.NTU,counterFlowNTU.TC,counterFlowNTU.T_in_MediumA,counterFlowNTU.T_in_MediumB,counterFlowNTU.cpA_in,counterFlowNTU.cpA_out,counterFlowNTU.cpB_in,counterFlowNTU.cpB_out,counterFlowNTU.cp_A,counterFlowNTU.cp_B,der(counterFlowNTU.h_out_A),der(counterFlowNTU.h_out_B),der(counterFlowNTU.inletA_m_flow),der(counterFlowNTU.inletB_m_flow),counterFlowNTU.dh_A,counterFlowNTU.dh_B,counterFlowNTU.effectiveness,counterFlowNTU.eps,counterFlowNTU.h_in_A,counterFlowNTU.h_in_B,counterFlowNTU.h_out_A,counterFlowNTU.h_out_B,counterFlowNTU.inletA.m_flow,counterFlowNTU.inletA.r,counterFlowNTU.inletA.state.T,counterFlowNTU.inletA.state.d,counterFlowNTU.inletA.state.h,counterFlowNTU.inletA.state.p,counterFlowNTU.inletA.state.phase,counterFlowNTU.inletA_m_flow,counterFlowNTU.inletA_r,counterFlowNTU.inletA_state.T,counterFlowNTU.inletA_state.d,counterFlowNTU.inletA_state.h,counterFlowNTU.inletA_state.p,counterFlowNTU.inletA_state.phase,counterFlowNTU.inletB.m_flow,counterFlowNTU.inletB.r,counterFlowNTU.inletB.state.T,counterFlowNTU.inletB.state.d,counterFlowNTU.inletB.state.h,counterFlowNTU.inletB.state.p,counterFlowNTU.inletB.state.phase,counterFlowNTU.inletB_m_flow,counterFlowNTU.inletB_r,counterFlowNTU.inletB_state.T,counterFlowNTU.inletB_state.d,counterFlowNTU.inletB_state.h,counterFlowNTU.inletB_state.p,counterFlowNTU.inletB_state.phase,counterFlowNTU.k_NTU,counterFlowNTU.m_flow_A,counterFlowNTU.m_flow_B,counterFlowNTU.m_flow_reg,counterFlowNTU.outletA.m_flow,counterFlowNTU.outletA.r,counterFlowNTU.outletA.state.T,counterFlowNTU.outletA.state.d,counterFlowNTU.outletA.state.h,counterFlowNTU.outletA.state.p,counterFlowNTU.outletA.state.phase,counterFlowNTU.outletA_m_flow,counterFlowNTU.outletA_r,counterFlowNTU.outletA_state.T,counterFlowNTU.outletA_state.d,counterFlowNTU.outletA_state.h,counterFlowNTU.outletA_state.p,counterFlowNTU.outletA_state.phase,counterFlowNTU.outletB.m_flow,counterFlowNTU.outletB.r,counterFlowNTU.outletB.state.T,counterFlowNTU.outletB.state.d,counterFlowNTU.outletB.state.h,counterFlowNTU.outletB.state.p,counterFlowNTU.outletB.state.phase,counterFlowNTU.outletB_m_flow,counterFlowNTU.outletB_r,counterFlowNTU.outletB_state.T,counterFlowNTU.outletB_state.d,counterFlowNTU.outletB_state.h,counterFlowNTU.outletB_state.p,counterFlowNTU.outletB_state.phase,counterFlowNTU.p_A,counterFlowNTU.p_B,counterFlowNTU.q_flow,counterFlowNTU.q_flowA,counterFlowNTU.q_flowB,counterFlowNTU.q_max,counterFlowNTU.summary.Q_flow_A,counterFlowNTU.summary.Q_flow_B,counterFlowNTU.summary.Tin_A,counterFlowNTU.summary.Tin_B,counterFlowNTU.summary.Tout_A,counterFlowNTU.summary.Tout_B,counterFlowNTU.summary.dT_A,counterFlowNTU.summary.dT_B,counterFlowNTU.summary.dh_A,counterFlowNTU.summary.dh_B,counterFlowNTU.summary.efficiency,counterFlowNTU.summary.hin_A,counterFlowNTU.summary.hin_B,counterFlowNTU.summary.hout_A,counterFlowNTU.summary.hout_B,discretizedHEX.A,discretizedHEX.G,discretizedHEX.M_A,discretizedHEX.M_B,discretizedHEX.Q_flow_A,discretizedHEX.Q_flow_B,discretizedHEX.V_Hex,discretizedHEX.deltaE_system,discretizedHEX.inletA.m_flow,discretizedHEX.inletA.r,discretizedHEX.inletA.state.T,discretizedHEX.inletA.state.d,discretizedHEX.inletA.state.h,discretizedHEX.inletA.state.p,discretizedHEX.inletA.state.phase,discretizedHEX.inletA_m_flow,discretizedHEX.inletA_r,discretizedHEX.inletA_state.T,discretizedHEX.inletA_state.d,discretizedHEX.inletA_state.h,discretizedHEX.inletA_state.p,discretizedHEX.inletA_state.phase,discretizedHEX.inletB.m_flow,discretizedHEX.inletB.r,discretizedHEX.inletB.state.T,discretizedHEX.inletB.state.d,discretizedHEX.inletB.state.h,discretizedHEX.inletB.state.p,discretizedHEX.inletB.state.phase,discretizedHEX.inletB_m_flow,discretizedHEX.inletB_r,discretizedHEX.inletB_state.T,discretizedHEX.inletB_state.d,discretizedHEX.inletB_state.h,discretizedHEX.inletB_state.p,discretizedHEX.inletB_state.phase,discretizedHEX.k_wall,discretizedHEX.m_flow_0_A,discretizedHEX.m_flow_0_B,discretizedHEX.m_flow_assert,discretizedHEX.nCells,discretizedHEX.nCellsParallel,discretizedHEX.outletA.m_flow,discretizedHEX.outletA.r,discretizedHEX.outletA.state.T,discretizedHEX.outletA.state.d,discretizedHEX.outletA.state.h,discretizedHEX.outletA.state.p,discretizedHEX.outletA.state.phase,discretizedHEX.outletA_m_flow,discretizedHEX.outletA_r,discretizedHEX.outletA_state.T,discretizedHEX.outletA_state.d,discretizedHEX.outletA_state.h,discretizedHEX.outletA_state.p,discretizedHEX.outletA_state.phase,discretizedHEX.outletB.m_flow,discretized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_color,flowResistance6.dr_corr,flowResistance6.h_in,flowResistance6.h_out,flowResistance6.initM_flow,der(flowResistance6.inlet.m_flow),flowResistance6.inlet.m_flow,flowResistance6.inlet.r,flowResistance6.inlet.state.T,flowResistance6.inlet.state.d,flowResistance6.inlet.state.h,flowResistance6.inlet.state.p,flowResistance6.inlet.state.phase,flowResistance6.l,flowResistance6.m_acceleration_0,flowResistance6.m_flow,flowResistance6.m_flowStateSelect,flowResistance6.m_flow_0,flowResistance6.mu_in,flowResistance6.outlet.m_flow,flowResistance6.outlet.r,flowResistance6.outlet.state.T,flowResistance6.outlet.state.d,flowResistance6.outlet.state.h,flowResistance6.outlet.state.p,flowResistance6.outlet.state.phase,flowResistance6.p_in,flowResistance6.p_min,flowResistance6.p_out,flowResistance6.perimeter,flowResistance6.perimeterInput,flowResistance6.phi,flowResistance6.pressureDropSignificantDigits,flowResistance6.r,flowResistance6.rho_in,flowResistance6.rho_min,flowResistance6.shape,flowResistance7.D_h,flowResistance7.L,flowResistance7.L_value,flowResistance7.a,flowResistance7.areaCross,flowResistance7.areaCrossInput,flowResistance7.areaHydraulic,flowResistance7.b,flowResistance7.clip_p_out,flowResistance7.dp,flowResistance7.dp_ref_color,flowResistance7.dr_corr,flowResistance7.h_in,flowResistance7.h_out,flowResistance7.initM_flow,der(flowResistance7.inlet.m_flow),flowResistance7.inlet.m_flow,flowResistance7.inlet.r,flowResistance7.inlet.state.T,flowResistance7.inlet.state.d,flowResistance7.inlet.state.h,flowResistance7.inlet.state.p,flowResistance7.inlet.state.phase,flowResistance7.l,flowResistance7.m_acceleration_0,flowResistance7.m_flow,flowResistance7.m_flowStateSelect,flowResistance7.m_flow_0,flowResistance7.mu_in,flowResistance7.outlet.m_flow,flowResistance7.outlet.r,flowResistance7.outlet.state.T,flowResistance7.outlet.state.d,flowResistance7.outlet.state.h,flowResistance7.outlet.state.p,flowResistance7.outlet.state.phase,flowResistance7.p_in,flowResistance7.p_min,flowResistance7.p_out,flowResistance7.perimeter,flowResistance7.perimeterInput,flowResistance7.phi,flowResistance7.pressureDropSignificantDigits,flowResistance7.r,flowResistance7.rho_in,flowResistance7.rho_min,flowResistance7.shape,flowResistance8.D_h,flowResistance8.L,flowResistance8.L_value,flowResistance8.a,flowResistance8.areaCross,flowResistance8.areaCrossInput,flowResistance8.areaHydraulic,flowResistance8.b,flowResistance8.clip_p_out,flowResistance8.dp,flowResistance8.dp_ref_color,flowResistance8.dr_corr,flowResistance8.h_in,flowResistance8.h_out,flowResistance8.initM_flow,der(flowResistance8.inlet.m_flow),flowResistance8.inlet.m_flow,flowResistance8.inlet.r,flowResistance8.inlet.state.T,flowResistance8.inlet.state.d,flowResistance8.inlet.state.h,flowResistance8.inlet.state.p,flowResistance8.inlet.state.phase,flowResistance8.l,flowResistance8.m_acceleration_0,flowResistance8.m_flow,flowResistance8.m_flowStateSelect,flowResistance8.m_flow_0,flowResistance8.mu_in,flowResistance8.outlet.m_flow,flowResistance8.outlet.r,flowResistance8.outlet.state.T,flowResistance8.outlet.state.d,flowResistance8.outlet.state.h,flowResistance8.outlet.state.p,flowResistance8.outlet.state.phase,flowResistance8.p_in,flowResistance8.p_min,flowResistance8.p_out,flowResistance8.perimeter,flowResistance8.perimeterInput,flowResistance8.phi,flowResistance8.pressureDropSignificantDigits,flowResistance8.r,flowResistance8.rho_in,flowResistance8.rho_min,flowResistance8.shape,junctionT2_1.L,junctionT2_1.inletA.m_flow,junctionT2_1.inletA.r,junctionT2_1.inletA.state.T,junctionT2_1.inletA.state.d,junctionT2_1.inletA.state.h,junctionT2_1.inletA.state.p,junctionT2_1.inletA.state.phase,junctionT2_1.inletB.m_flow,junctionT2_1.inletB.r,junctionT2_1.inletB.state.T,junctionT2_1.inletB.state.d,junctionT2_1.inletB.state.h,junctionT2_1.inletB.state.p,junctionT2_1.inletB.state.phase,junctionT2_1.junctionN.L,junctionT2_1.junctionN.N,junctionT2_1.junctionN.h[1],junctionT2_1.junctionN.h[2],junctionT2_1.junctionN.h_mix,der(junctionT2_1.junctionN.inlets[1].m_flow),junctionT2_1.junctionN.inlets[1].m_flow,junctionT2_1.junctionN.inlets[1].r,junctionT2_1.junctionN.inlets[1].state.T,junctionT2_1.junctionN.inlets[1].state.d,junctionT2_1.junctionN.inlets[1].state.h,junctionT2_1.junctionN.inlets[1].state.p,junctionT2_1.junctionN.inlets[1].state.phase,der(junctionT2_1.junctionN.inlets[2].m_flow),junctionT2_1.junctionN.inlets[2].m_flow,junctionT2_1.junctionN.inlets[2].r,junctionT2_1.junctionN.inlets[2].state.T,junctionT2_1.junctionN.inlets[2].state.d,junctionT2_1.junctionN.inlets[2].state.h,junctionT2_1.junctionN.inlets[2].state.p,junctionT2_1.junctionN.inlets[2].state.phase,junctionT2_1.junctionN.m_flow_eps,der(junctionT2_1.junctionN.outlet.m_flow),junctionT2_1.junctionN.outlet.m_flow,junctionT2_1.junctionN.outlet.r,junctionT2_1.junctionN.outlet.state.T,junctionT2_1.junctionN.outlet.state.d,junctionT2_1.junctionN.outlet.state.h,junctionT2_1.junctionN.outlet.state.p,junctionT2_1.junctionN.outlet.state.phase,junctionT2_1.junctionN.p[1],junctionT2_1.junctionN.p[2],junctionT2_1.junctionN.p_mix,junctionT2_1.junctionN.r_in[1],junctionT2_1.junctionN.r_in[2],junctionT2_1.junctionN.r_mix,junctionT2_1.junctionN.rho[1],junctionT2_1.junctionN.rho[2],junctionT2_1.junctionN.w2[1],junctionT2_1.junctionN.w2[2],junctionT2_1.junctionN.w[1],junctionT2_1.junctionN.w[2],junctionT2_1.m_flow_eps,junctionT2_1.outlet.m_flow,junctionT2_1.outlet.r,junctionT2_1.outlet.state.T,junctionT2_1.outlet.state.d,junctionT2_1.outlet.state.h,junctionT2_1.outlet.state.p,junctionT2_1.outlet.state.phase,nozzle.A_in,nozzle.A_in_internal,nozzle.A_out,nozzle.A_out_internal,nozzle.L,nozzle.L_value,nozzle.clip_p_out,nozzle.dp,nozzle.dr_corr,nozzle.h_in,nozzle.h_out,nozzle.initM_flow,der(nozzle.inlet.m_flow),nozzle.inlet.m_flow,nozzle.inlet.r,nozzle.inlet.state.T,nozzle.inlet.state.d,nozzle.inlet.state.h,nozzle.inlet.state.p,nozzle.inlet.state.phase,nozzle.m_acceleration_0,nozzle.m_flow,nozzle.m_flowStateSelect,nozzle.m_flow_0,nozzle.outlet.m_flow,nozzle.outlet.r,nozzle.outlet.state.T,nozzle.outlet.state.d,nozzle.outlet.state.h,nozzle.outlet.state.p,nozzle.outlet.state.phase,nozzle.p_in,nozzle.p_min,nozzle.p_out,nozzle.rho_in,nozzle.rho_out,nozzle.v_in,nozzle.v_out,pump.J_p,pump.L,pump.Q_t,pump.W_t,pump.clip_p_out,der(pump.m_flow),pump.dh,pump.dp,pump.dr_corr,pump.eta,pump.h_in,pump.h_out,pump.initM_flow,pump.initOmega,der(pump.inlet.m_flow),pump.inlet.m_flow,pump.inlet.r,pump.inlet.state.T,pump.inlet.state.d,pump.inlet.state.h,pump.inlet.state.p,pump.inlet.state.phase,pump.m_acceleration_0,pump.m_flow,pump.m_flowStateSelect,pump.m_flow_0,pump.m_flow_reg,pump.max_rel_volume,pump.omega,pump.omegaStateSelect,pump.omega_0,pump.omega_dot_0,pump.omega_input,pump.omega_reg,pump.outlet.m_flow,pump.outlet.r,pump.outlet.state.T,pump.outlet.state.d,pump.outlet.state.h,pump.outlet.state.p,pump.outlet.state.phase,pump.outputQuantity,pump.p_in,pump.p_min,pump.p_out,pump.phi,pump.phi_0,pump.rho_min,pump.tau,pump.tau_normalized,pump.tau_st,pump.v_in,pump.v_out,ramp.duration,ramp.height,ramp.offset,ramp.startTime,ramp.y,receiver.A,receiver.L,receiver.M,receiver.M_0,receiver.Q_flow,receiver.T_heatPort,receiver.T_start,receiver.U,receiver.U_med,receiver.V,receiver.V_par,receiver.W_v,receiver.d,receiver.d_gas,receiver.d_liq,receiver.density_derp_h,receiver.density_derp_h_set,der(receiver.M),der(receiver.U_med),der(receiver.m_flow_in),der(receiver.m_flow_out),receiver.h_0,receiver.h_bubble,receiver.h_dew,receiver.h_in,receiver.h_out,receiver.h_pipe,receiver.h_start,receiver.init_method,receiver.inlet.m_flow,receiver.inlet.r,receiver.inlet.state.T,receiver.inlet.state.d,receiver.inlet.state.h,receiver.inlet.state.p,receiver.inlet.state.phase,receiver.k_volume_damping,receiver.l_0,receiver.liquid_level,receiver.liquid_level_pipe,receiver.m_flow_assert,receiver.m_flow_in,receiver.m_flow_out,receiver.medium.MM,receiver.medium.R_s,receiver.medium.T,receiver.medium.T_degC,receiver.medium.X[1],receiver.medium.d,der(receiver.medium.h),der(receiver.medium.p),der(receiver.medium.u),receiver.medium.h,receiver.medium.p,receiver.medium.p_bar,receiver.medium.phase,receiver.medium.preferredMediumStates,receiver.medium.quality,receiver.medium.sat.Tsat,receiver.medium.sat.psat,receiver.medium.standardOrderComponents,receiver.medium.state.T,receiver.medium.state.d,der(receiver.medium.state.d),receiver.medium.state.h,receiver.medium.state.p,receiver.medium.state.phase,receiver.medium.u,receiver.outlet.m_flow,receiver.outlet.r,receiver.outlet.state.T,receiver.outlet.state.d,receiver.outlet.state.h,receiver.outlet.state.p,receiver.outlet.state.phase,receiver.p_in,receiver.p_start,receiver.pipe_high,receiver.pipe_low,receiver.r,receiver.r_damping,receiver.r_in,receiver.r_out,receiver.state_in.T,receiver.state_in.d,receiver.state_in.h,receiver.state_in.p,receiver.state_in.phase,receiver.state_out.T,receiver.state_out.d,receiver.state_out.h,receiver.state_out.p,receiver.state_out.phase,receiver.vapor_quality,receiver.x,receiver.x_0,sink.L,der(sink.inlet.m_flow),sink.inlet.m_flow,sink.inlet.r,sink.inlet.state.T,sink.inlet.state.d,sink.inlet.state.h,sink.inlet.state.p,sink.inlet.state.phase,sink.p,sink.p0,sink.p0_par,sink.r,sink1.L,der(sink1.inlet.m_flow),sink1.inlet.m_flow,sink1.inlet.r,sink1.inlet.state.T,sink1.inlet.state.d,sink1.inlet.state.h,sink1.inlet.state.p,sink1.inlet.state.phase,sink1.p,sink1.p0,sink1.p0_par,sink1.r,sink2.L,der(sink2.inlet.m_flow),sink2.inlet.m_flow,sink2.inlet.r,sink2.inlet.state.T,sink2.inlet.state.d,sink2.inlet.state.h,sink2.inlet.state.p,sink2.inlet.state.phase,sink2.p,sink2.p0,sink2.p0_par,sink2.r,sink3.L,der(sink3.inlet.m_flow),sink3.inlet.m_flow,sink3.inlet.r,sink3.inlet.state.T,sink3.inlet.state.d,sink3.inlet.state.h,sink3.inlet.state.p,sink3.inlet.state.phase,sink3.p,sink3.p0,sink3.p0_par,sink3.r,sink4.L,der(sink4.inlet.m_flow),sink4.inlet.m_flow,sink4.inlet.r,sink4.inlet.state.T,sink4.inlet.state.d,sink4.inlet.state.h,sink4.inlet.state.p,sink4.inlet.state.phase,sink4.p,sink4.p0,sink4.p0_par,sink4.r,source.L,source.T0,source.T0_par,source.h0,source.h0_par,der(source.outlet.m_flow),source.outlet.m_flow,source.outlet.r,source.outlet.state.T,source.outlet.state.d,source.outlet.state.h,source.outlet.state.p,source.outlet.state.phase,source.p0,source.p0_par,source1.L,source1.T0,source1.T0_par,source1.h0,source1.h0_par,der(source1.outlet.m_flow),source1.outlet.m_flow,source1.outlet.r,source1.outlet.state.T,source1.outlet.state.d,source1.outlet.state.h,source1.outlet.state.p,source1.outlet.state.phase,source1.p0,source1.p0_par,source2.L,source2.T0,source2.T0_par,source2.h0,source2.h0_par,der(source2.outlet.m_flow),source2.outlet.m_flow,source2.outlet.r,source2.outlet.state.T,source2.outlet.state.d,source2.outlet.state.h,source2.outlet.state.p,source2.outlet.state.phase,source2.p0,source2.p0_par,source3.L,source3.T0,source3.T0_par,source3.h0,source3.h0_par,der(source3.outlet.m_flow),source3.outlet.m_flow,source3.outlet.r,source3.outlet.state.T,source3.outlet.state.d,source3.outlet.state.h,source3.outlet.state.p,source3.outlet.state.phase,source3.p0,source3.p0_par,splitterT2_1.L,splitterT2_1.inlet.m_flow,splitterT2_1.inlet.r,splitterT2_1.inlet.state.T,splitterT2_1.inlet.state.d,splitterT2_1.inlet.state.h,splitterT2_1.inlet.state.p,splitterT2_1.inlet.state.phase,splitterT2_1.outletA.m_flow,splitterT2_1.outletA.r,splitterT2_1.outletA.state.T,splitterT2_1.outletA.state.d,splitterT2_1.outletA.state.h,splitterT2_1.outletA.state.p,splitterT2_1.outletA.state.phase,splitterT2_1.outletB.m_flow,splitterT2_1.outletB.r,splitterT2_1.outletB.state.T,splitterT2_1.outletB.state.d,splitterT2_1.outletB.state.h,splitterT2_1.outletB.state.p,splitterT2_1.outletB.state.phase,splitterT2_1.splitterN.L,splitterT2_1.splitterN.N,der(splitterT2_1.splitterN.inlet.m_flow),splitterT2_1.splitterN.inlet.m_flow,splitterT2_1.splitterN.inlet.r,splitterT2_1.splitterN.inlet.state.T,splitterT2_1.splitterN.inlet.state.d,splitterT2_1.splitterN.inlet.state.h,splitterT2_1.splitterN.inlet.state.p,splitterT2_1.splitterN.inlet.state.phase,der(splitterT2_1.splitterN.outlets[1].m_flow),splitterT2_1.splitterN.outlets[1].m_flow,splitterT2_1.splitterN.outlets[1].r,splitterT2_1.splitterN.outlets[1].state.T,splitterT2_1.splitterN.outlets[1].state.d,splitterT2_1.splitterN.outlets[1].state.h,splitterT2_1.splitterN.outlets[1].state.p,splitterT2_1.splitterN.outlets[1].state.phase,der(splitterT2_1.splitterN.outlets[2].m_flow),splitterT2_1.splitterN.outlets[2].m_flow,splitterT2_1.splitterN.outlets[2].r,splitterT2_1.splitterN.outlets[2].state.T,splitterT2_1.splitterN.outlets[2].state.d,splitterT2_1.splitterN.outlets[2].state.h,splitterT2_1.splitterN.outlets[2].state.p,splitterT2_1.splitterN.outlets[2].state.phase,splitterT2_1.splitterN.r_mix,volume.A,volume.L,volume.M,volume.Q_flow,volume.T_heatPort,volume.T_start,volume.U,volume.U_med,volume.V,volume.V_par,volume.W_v,volume.d,volume.density_derp_h,volume.density_derp_h_set,der(volume.M),der(volume.U_med),der(volume.m_flow_in),der(volume.m_flow_out),volume.h_in,volume.h_out,volume.h_start,volume.k_volume_damping,volume.m_flow_assert,volume.m_flow_in,volume.m_flow_out,volume.medium.MM,volume.medium.R_s,volume.medium.T,volume.medium.T_degC,volume.medium.X[1],volume.medium.d,der(volume.medium.h),der(volume.medium.p),der(volume.medium.u),volume.medium.h,volume.medium.p,volume.medium.p_bar,volume.medium.phase,volume.medium.preferredMediumStates,volume.medium.quality,volume.medium.sat.Tsat,volume.medium.sat.psat,volume.medium.standardOrderComponents,volume.medium.state.T,volume.medium.state.d,volume.medium.state.h,volume.medium.state.p,volume.medium.state.phase,volume.medium.u,volume.outlet.m_flow,volume.outlet.r,volume.outlet.state.T,volume.outlet.state.d,volume.outlet.state.h,volume.outlet.state.p,volume.outlet.state.phase,volume.p_in,volume.p_start,volume.r,volume.r_damping,volume.r_in,volume.r_out,volume.state_in.T,volume.state_in.d,volume.state_in.h,volume.state_in.p,volume.state_in.phase,volume.state_out.T,volume.state_out.d,volume.state_out.h,volume.state_out.p,volume.state_out.phase,volumeFlex.A,volumeFlex.K,volumeFlex.L,volumeFlex.M,volumeFlex.Q_flow,volumeFlex.T_heatPort,volumeFlex.T_start,volumeFlex.U,volumeFlex.U_med,volumeFlex.V,volumeFlex.V_ref,volumeFlex.W_v,volumeFlex.d,volumeFlex.density_derp_h,der(volumeFlex.M),der(volumeFlex.U_med),der(volumeFlex.V),der(volumeFlex.m_flow_in),der(volumeFlex.m_flow_out),volumeFlex.h_in,volumeFlex.h_out,volumeFlex.h_start,volumeFlex.inlet.m_flow,volumeFlex.inlet.r,volumeFlex.inlet.state.T,volumeFlex.inlet.state.d,volumeFlex.inlet.state.h,volumeFlex.inlet.state.p,volumeFlex.inlet.state.phase,volumeFlex.k_volume_damping,volumeFlex.m_flow_assert,volumeFlex.m_flow_in,volumeFlex.m_flow_out,volumeFlex.medium.MM,volumeFlex.medium.R_s,volumeFlex.medium.T,volumeFlex.medium.T_degC,volumeFlex.medium.X[1],volumeFlex.medium.d,der(volumeFlex.medium.h),der(volumeFlex.medium.p),der(volumeFlex.medium.u),volumeFlex.medium.h,volumeFlex.medium.p,volumeFlex.medium.p_bar,volumeFlex.medium.phase,volumeFlex.medium.preferredMediumStates,volumeFlex.medium.quality,volumeFlex.medium.sat.Tsat,volumeFlex.medium.sat.psat,volumeFlex.medium.standardOrderComponents,volumeFlex.medium.state.T,volumeFlex.medium.state.d,der(volumeFlex.medium.state.d),volumeFlex.medium.state.h,volumeFlex.medium.state.p,volumeFlex.medium.state.phase,volumeFlex.medium.u,volumeFlex.outlet.m_flow,volumeFlex.outlet.r,volumeFlex.outlet.state.T,volumeFlex.outlet.state.d,volumeFlex.outlet.state.h,volumeFlex.outlet.state.p,volumeFlex.outlet.state.phase,volumeFlex.p_in,volumeFlex.p_ref,volumeFlex.p_start,volumeFlex.r,volumeFlex.r_damping,volumeFlex.r_in,volumeFlex.r_out,volumeFlex.state_in.T,volumeFlex.state_in.d,volumeFlex.state_in.h,volumeFlex.state_in.p,volumeFlex.state_in.phase,volumeFlex.state_out.T,volumeFlex.state_out.d,volumeFlex.state_out.h,volumeFlex.state_out.p,volumeFlex.state_out.phase Variables in the result:$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState165.T,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState165.d,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState165.h,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState165.p,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState165.phase,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState194.T,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState194.d,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState194.h,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState194.p,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState194.phase,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState747.T,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState747.d,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState747.h,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState747.p,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState747.phase,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState870.T,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState870.d,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState870.h,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState870.p,$TMP_ThermofluidStream_Media_XRGMedia_CO2__ph_ThermodynamicState870.phase,$TMP_ThermofluidStream_Media_XRGMedia_NH3__ph_ThermodynamicState360.T,$TMP_ThermofluidStream_Media_XRGMedia_NH3__ph_ThermodynamicState360.d,$TMP_ThermofluidStream_Media_XRGMedia_NH3__ph_ThermodynamicState360.h,$TMP_ThermofluidStream_Media_XRGMedia_NH3__ph_ThermodynamicState360.p,$TMP_ThermofluidStream_Media_XRGMedia_NH3__ph_ThermodynamicState360.phase,$TMP_ThermofluidStream_Media_XRGMedia_NH3__ph_ThermodynamicState389.T,$TMP_ThermofluidStream_Media_XRGMedia_NH3__ph_ThermodynamicState389.d,$TMP_ThermofluidStream_Media_XRGMedia_NH3__ph_ThermodynamicState389.h,$TMP_ThermofluidStream_Media_XRGMedia_NH3__ph_ThermodynamicState389.p,$TMP_ThermofluidStream_Media_XRGMedia_NH3__ph_ThermodynamicState389.phase,$TMP_ThermofluidStream_Media_XRGMedia_NH3__ph_ThermodynamicState436.T,$TMP_ThermofluidStream_Media_XRGMedia_NH3__ph_ThermodynamicState436.d,$TMP_ThermofluidStream_Media_XRGMedia_NH3__ph_ThermodynamicState436.h,$TMP_ThermofluidStream_Media_XRGMedia_NH3__ph_ThermodynamicState436.p,$TMP_ThermofluidStream_Media_XRGMedia_NH3__ph_ThermodynamicState436.phase,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState495.T,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState495.d,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState495.h,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState495.p,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState495.phase,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState524.T,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState524.d,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState524.h,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState524.p,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState524.phase,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState543.T,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState543.d,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState543.h,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState543.p,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState543.phase,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState555.T,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState555.d,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState555.h,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState555.p,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState555.phase,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState605.T,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState605.d,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState605.h,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState605.p,$TMP_ThermofluidStream_Media_XRGMedia_R1234yf__ph_ThermodynamicState605.phase,$TMP_ThermofluidStream_Media_XRGMedia_R134a__ph_ThermodynamicState102.T,$TMP_ThermofluidStream_Media_XRGMedia_R134a__ph_ThermodynamicState102.d,$TMP_ThermofluidStream_Media_XRGMedia_R134a__ph_ThermodynamicState102.h,$TMP_ThermofluidStream_Media_XRGMedia_R134a__ph_ThermodynamicState102.p,$TMP_ThermofluidStream_Media_XRGMedia_R134a__ph_ThermodynamicState102.phase,$TMP_ThermofluidStream_Media_XRGMedia_R134a__ph_ThermodynamicState1021.T,$TMP_ThermofluidStream_Media_XRGMedia_R134a__ph_ThermodynamicState1021.d,$TMP_ThermofluidStream_Media_XRGMedia_R134a__ph_ThermodynamicState1021.h,$TMP_ThermofluidStream_Media_XRGMedia_R134a__ph_ThermodynamicS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filterSimulationResults("ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia_res.mat", "/var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/files/ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia.diff.mat", vars={"receiver.r_in", "receiver.r", "receiver.medium.der(u)", "receiver.medium.der(p)", "receiver.medium.der(h)", "receiver.m_flow_in", "flowResistance8.outlet.r", "discretizedHEX4.thermalElementB[2].der(h)", "discretizedHEX4.thermalElementB[1].der(h)", "discretizedHEX2.thermalElementB[3].k", "discretizedHEX2.thermalElementB[3].inlet.r", "discretizedHEX2.thermalElementB[3].der(h)", "discretizedHEX2.thermalElementB[3].U_vap", "discretizedHEX2.thermalElementB[3].U_liq", "discretizedHEX2.thermalElementB[3].U", "discretizedHEX2.thermalElementB[2].k", "discretizedHEX2.thermalElementB[2].inlet.r", "discretizedHEX2.thermalElementB[2].U_vap", "discretizedHEX2.thermalElementB[2].U_liq", "discretizedHEX2.thermalElementB[2].U", "discretizedHEX2.thermalElementB[1].k", "discretizedHEX2.thermalElementB[1].inlet.r", "discretizedHEX2.thermalElementB[1].U_vap", "discretizedHEX2.thermalElementB[1].U_liq", "discretizedHEX2.thermalElementB[1].U", "discretizedHEX1.thermalElementB[2].heatPort.Q_flow", "discretizedHEX1.thermalElementB[1].heatPort.Q_flow", "discretizedHEX1.thermalElementB[1].der(h)", "discretizedHEX1.thermalElementA[1].der(h)", "discretizedHEX1.thermalConductor[2].dT", "discretizedHEX1.thermalConductor[1].dT", "discretizedHEX.thermalElementB[3].heatPort.Q_flow", "discretizedHEX.thermalElementB[3].der(h)", "discretizedHEX.thermalElementB[2].heatPort.Q_flow", "discretizedHEX.thermalElementB[2].der(h)", "discretizedHEX.thermalElementB[1].der(h)", "discretizedHEX.thermalElementA[3].der(h)", "discretizedHEX.thermalElementA[2].der(h)", "discretizedHEX.thermalElementA[1].der(h)", "discretizedHEX.thermalConductor[3].dT", "discretizedHEX.thermalConductor[2].dT", "counterFlowNTU.summary.dh_A", "counterFlowNTU.summary.dT_A", "counterFlowNTU.C_r", "counterFlowNTU.C_max", "counterFlowNTU.C_B"}, removeDescription=false) [Timeout 660] "" [Timeout remaining time 660] filterSimulationResults("/mnt/ReferenceFiles/ThermofluidStream-main-regression/ReferenceData/ThermofluidStream.Media.Tests.TestXRGMedia_ref.mat", "/var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/files/ThermofluidStream_dev_ThermofluidStream.Media.Tests.TestXRGMedia.diff.ref.mat", vars={"receiver.r_in", "receiver.r", "receiver.medium.der(u)", "receiver.medium.der(p)", "receiver.medium.der(h)", "receiver.m_flow_in", "flowResistance8.outlet.r", "discretizedHEX4.thermalElementB[2].der(h)", "discretizedHEX4.thermalElementB[1].der(h)", "discretizedHEX2.thermalElementB[3].k", "discretizedHEX2.thermalElementB[3].inlet.r", "discretizedHEX2.thermalElementB[3].der(h)", "discretizedHEX2.thermalElementB[3].U_vap", "discretizedHEX2.thermalElementB[3].U_liq", "discretizedHEX2.thermalElementB[3].U", "discretizedHEX2.thermalElementB[2].k", "discretizedHEX2.thermalElementB[2].inlet.r", "discretizedHEX2.thermalElementB[2].U_vap", "discretizedHEX2.thermalElementB[2].U_liq", "discretizedHEX2.thermalElementB[2].U", "discretizedHEX2.thermalElementB[1].k", "discretizedHEX2.thermalElementB[1].inlet.r", "discretizedHEX2.thermalElementB[1].U_vap", "discretizedHEX2.thermalElementB[1].U_liq", "discretizedHEX2.thermalElementB[1].U", "discretizedHEX1.thermalElementB[2].heatPort.Q_flow", "discretizedHEX1.thermalElementB[1].heatPort.Q_flow", "discretizedHEX1.thermalElementB[1].der(h)", "discretizedHEX1.thermalElementA[1].der(h)", "discretizedHEX1.thermalConductor[2].dT", "discretizedHEX1.thermalConductor[1].dT", "discretizedHEX.thermalElementB[3].heatPort.Q_flow", "discretizedHEX.thermalElementB[3].der(h)", "discretizedHEX.thermalElementB[2].heatPort.Q_flow", "discretizedHEX.thermalElementB[2].der(h)", "discretizedHEX.thermalElementB[1].der(h)", "discretizedHEX.thermalElementA[3].der(h)", "discretizedHEX.thermalElementA[2].der(h)", "discretizedHEX.thermalElementA[1].der(h)", "discretizedHEX.thermalConductor[3].dT", "discretizedHEX.thermalConductor[2].dT", "counterFlowNTU.summary.dh_A", "counterFlowNTU.summary.dT_A", "counterFlowNTU.C_r", "counterFlowNTU.C_max", "counterFlowNTU.C_B"}, removeDescription=false) [Timeout 660] "" [Timeout remaining time 660] [Calling sys.exit(0), Time elapsed: 28.423324638046324]