Running: ./testmodel.py --libraries=/home/hudson/saved_omc/libraries/.openmodelica/libraries --ompython_omhome=/usr SiemensPower_OMCtest_SiemensPower.Components.Pipes.Tests.tube_ownMedia_test.conf.json
loadFile("/home/hudson/saved_omc/libraries/.openmodelica/libraries/ModelicaServices 4.0.0+maint.om/package.mo", uses=false)
loadFile("/home/hudson/saved_omc/libraries/.openmodelica/libraries/Complex 4.0.0+maint.om/package.mo", uses=false)
loadFile("/home/hudson/saved_omc/libraries/.openmodelica/libraries/Modelica 3.2.3+maint.om/package.mo", uses=false)
loadFile("/home/hudson/saved_omc/libraries/.openmodelica/libraries/SiemensPower OMCtest/package.mo", uses=false)
Using package SiemensPower with version OMCtest (/home/hudson/saved_omc/libraries/.openmodelica/libraries/SiemensPower OMCtest/package.mo)
Using package Modelica with version 3.2.3 (/home/hudson/saved_omc/libraries/.openmodelica/libraries/Modelica 3.2.3+maint.om/package.mo)
Using package Complex with version 4.0.0 (/home/hudson/saved_omc/libraries/.openmodelica/libraries/Complex 4.0.0+maint.om/package.mo)
Using package ModelicaServices with version 4.0.0 (/home/hudson/saved_omc/libraries/.openmodelica/libraries/ModelicaServices 4.0.0+maint.om/package.mo)
Running command: translateModel(SiemensPower.Components.Pipes.Tests.tube_ownMedia_test,tolerance=1e-05,outputFormat="empty",numberOfIntervals=4000,variableFilter="",fileNamePrefix="SiemensPower_OMCtest_SiemensPower.Components.Pipes.Tests.tube_ownMedia_test")
translateModel(SiemensPower.Components.Pipes.Tests.tube_ownMedia_test,tolerance=1e-05,outputFormat="empty",numberOfIntervals=4000,variableFilter="",fileNamePrefix="SiemensPower_OMCtest_SiemensPower.Components.Pipes.Tests.tube_ownMedia_test")
Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/ModelicaServices 4.0.0+maint.om/package.mo): time 0.001161/0.001161, allocations: 107 kB / 16.42 MB, free: 6.512 MB / 14.72 MB
Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/Complex 4.0.0+maint.om/package.mo): time 0.001108/0.001108, allocations: 187.2 kB / 17.35 MB, free: 5.754 MB / 14.72 MB
Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/Modelica 3.2.3+maint.om/package.mo): time 1.221/1.221, allocations: 205.1 MB / 223.2 MB, free: 12.23 MB / 190.1 MB
Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/SiemensPower OMCtest/package.mo): time 0.02156/0.02156, allocations: 4.037 MB / 274.6 MB, free: 8.012 MB / 222.1 MB
Notification: Performance of FrontEnd - Absyn->SCode: time 2.234e-05/2.235e-05, allocations: 3.047 kB / 381.8 MB, free: 49.48 MB / 318.1 MB
Notification: Performance of NFInst.instantiate(SiemensPower.Components.Pipes.Tests.tube_ownMedia_test): time 0.03936/0.0394, allocations: 56.95 MB / 438.7 MB, free: 4.988 MB / 318.1 MB
Notification: Performance of NFInst.instExpressions: time 0.02279/0.06222, allocations: 21.25 MB / 460 MB, free: 15.7 MB / 350.1 MB
Notification: Performance of NFInst.updateImplicitVariability: time 0.001499/0.06375, allocations: 35.81 kB / 460 MB, free: 15.67 MB / 350.1 MB
Notification: Performance of NFTyping.typeComponents: time 0.001954/0.06572, allocations: 0.788 MB / 460.8 MB, free: 14.88 MB / 350.1 MB
Notification: Performance of NFTyping.typeBindings: time 0.01517/0.0809, allocations: 5.631 MB / 466.4 MB, free: 9.242 MB / 350.1 MB
Notification: Performance of NFTyping.typeClassSections: time 0.01135/0.09227, allocations: 4.294 MB / 470.7 MB, free: 4.969 MB / 350.1 MB
Notification: Performance of NFFlatten.flatten: time 0.007441/0.09973, allocations: 5.849 MB / 476.6 MB, free: 15.12 MB / 366.1 MB
Notification: Performance of NFFlatten.resolveConnections: time 0.00386/0.1036, allocations: 4.164 MB / 480.7 MB, free: 10.94 MB / 366.1 MB
Notification: Performance of NFEvalConstants.evaluate: time 0.003999/0.1076, allocations: 2.548 MB / 483.3 MB, free: 8.383 MB / 366.1 MB
Notification: Performance of NFSimplifyModel.simplify: time 0.002643/0.1103, allocations: 2.162 MB / 485.4 MB, free: 6.215 MB / 366.1 MB
Notification: Performance of NFPackage.collectConstants: time 0.0005625/0.1109, allocations: 420 kB / 485.8 MB, free: 5.805 MB / 366.1 MB
Notification: Performance of NFFlatten.collectFunctions: time 0.01198/0.1228, allocations: 6.919 MB / 492.8 MB, free: 14.88 MB / 382.1 MB
Notification: Performance of combineBinaries: time 0.004173/0.1271, allocations: 4.748 MB / 497.5 MB, free: 10.09 MB / 382.1 MB
Notification: Performance of replaceArrayConstructors: time 0.001704/0.1288, allocations: 2.489 MB / 0.4883 GB, free: 7.578 MB / 382.1 MB
Notification: Performance of NFVerifyModel.verify: time 0.0007146/0.1295, allocations: 415 kB / 0.4887 GB, free: 7.172 MB / 382.1 MB
Notification: Performance of FrontEnd: time 0.0003531/0.1299, allocations: 43.88 kB / 0.4887 GB, free: 7.129 MB / 382.1 MB
Notification: Model statistics after passing the front-end and creating the data structures used by the back-end:
 * Number of equations: 1789 (595)
 * Number of variables: 1789 (317)
Notification: Performance of Bindings: time 0.01307/0.143, allocations: 15.08 MB / 0.5035 GB, free: 7.703 MB / 398.1 MB
Notification: Performance of FunctionAlias: time 0.001463/0.1444, allocations: 1.449 MB / 0.5049 GB, free: 6.262 MB / 398.1 MB
Notification: Performance of Early Inline: time 0.011/0.1554, allocations: 11.51 MB / 0.5161 GB, free: 10.65 MB / 414.1 MB
Notification: Performance of simplify1: time 0.0008021/0.1563, allocations: 0.6087 MB / 0.5167 GB, free: 10.04 MB / 414.1 MB
Notification: Performance of Alias: time 0.009342/0.1656, allocations: 8.146 MB / 0.5247 GB, free: 1.379 MB / 414.1 MB
Notification: Performance of simplify2: time 0.0008419/0.1665, allocations: 0.5932 MB / 0.5252 GB, free: 0.7852 MB / 414.1 MB
Notification: Performance of Events: time 0.1957/0.3622, allocations: 1.753 MB / 0.527 GB, free: 51.62 MB / 414.1 MB
Notification: Performance of Detect States: time 0.00243/0.3647, allocations: 2.352 MB / 0.5292 GB, free: 51.52 MB / 414.1 MB
Notification: Performance of Partitioning: time 0.003754/0.3685, allocations: 3.683 MB / 0.5328 GB, free: 50.73 MB / 414.1 MB
Error: Internal error NBSlice.fillDependencyArray failed because number of flattened indices 1 for dependency EVA.alpha could not be divided by the body size 20 without rest.
Error: Internal error NBAdjacency.Matrix.createPseudo failed for:
[ARRY] (20) EVA.qMetalFluid = EVA.alpha * (EVA.TWall - EVA.T) ($RES_SIM_232)
Error: Internal error NBAdjacency.Matrix.create failed to create adjacency matrix for system:
System Variables (172/1224)
*****************************
(1)       [ALGB] (20) Real[20] prescribedHeatFlow.portsOut.T (start = {288.15 for $i1 in 1:20}, min = {0.0 for $i1 in 1:20}, nominal = {300.0 for $i1 in 1:20})
(2)       [DISC] (1) Boolean $SEV_29
(3)       [DISC] (1) Boolean $SEV_28
(4)       [ALGB] (20) protected inner Real[20] EVA.TWall (start = {500.0 for $i1 in 1:20}, min = {273.15 for $i1 in 1:20}, max = {2273.15 for $i1 in 1:20}, nominal = {500.0 for $i1 in 1:20})
(5)       [ALGB] (1) Real timeTable.C1signal.u
(6)       [DISC] (1) Boolean $SEV_26
(7)       [DISC] (1) Boolean $SEV_25
(8)       [DISC] (1) Boolean $SEV_24
(9)       [ALGB] (1) stream Real ECO.portOut.h_outflow (start = ECO.hOut_start, min = -1e10, max = 1e10, nominal = 5e5)
(10)      [ALGB] (1) Real watersink_ph.water.state.T (start = 500.0, min = 273.15, max = 2273.15, nominal = 500.0)
(11)      [ALGB] (1) Real ECO.dAverage (start = sum(ECO.rho0) / 10.0, min = 0.0, max = 1e5, nominal = 500.0)
(12)      [ALGB] (1) stream Real ECO.portIn.h_outflow (start = ECO.hIn_start, min = -1e10, max = 1e10, nominal = 5e5)
(13)      [DISC] (1) Boolean $TEV_2
(14)      [DISC] (1) Boolean $TEV_1
(15)      [ALGB] (10) flow Real[10] ECO.wall.port_ext.Q_flow
(16)      [ALGB] (10) flow Real[10] ECO.gasSide.Q_flow
(17)      [DER-] (1) Real $DER.EVA.m_flow
(18)      [ALGB] (1) Real watersink_ph.water.state.d (start = 150.0, min = 0.0, max = 1e5, nominal = 500.0)
(19)      [ALGB] (20) flow Real[20] prescribedHeatFlow.portsOut.Q_flow
(20)      [ALGB] (1) Real EVA.hIn (start = EVA.hIn_start, min = -1e10, max = 1e10, nominal = 5e5)
(21)      [ALGB] (1) Real watersink_ph.water.state.p (start = 5e6, min = 611.657, max = 1e8, nominal = 1e6)
(22)      [DISC] (1) protected discrete Real timeTable.originalTable.nextEvent (fixed = true, start = 0.0)
(23)      [ALGB] (3) Real[3] EVA.wall.layer.Am
(24)      [DISC] (18) Boolean[18] $SEV_31[$i1]
(25)      [DER-] (1) Real $DER.ECO.p
(26)      [DER-] (1) Real $DER.watersink_ph.water.p_bar
(27)      [DISC] (1) protected discrete Real timeTable.originalTable.nextEventScaled (fixed = true, start = 0.0)
(28)      [ALGB] (10) Real[10] ECO.heatport.port.T (start = {288.15 for $i1 in 1:10}, min = {0.0 for $i1 in 1:10}, nominal = {300.0 for $i1 in 1:10})
(29)      [DER-] (10) Real[10] $DER.ECO.h
(30)      [ALGB] (1) Real watersink_ph.water.sat.Tsat (start = 500.0, min = 273.15, max = 2273.15, nominal = 500.0)
(31)      [ALGB] (1) stream Real EVA.portIn.h_outflow (start = EVA.hIn_start, min = -1e10, max = 1e10, nominal = 5e5)
(32)      [ALGB] (10) flow Real[10] ECO.wall.port_int.Q_flow
(33)      [ALGB] (1) Real EVA.dphyd (start = (sum(EVA.rho0) * 9.80665 * EVA.geoPipe.H) / 20.0, min = 611.657, max = 1e8, nominal = 1e6)
(34)      [ALGB] (20) Real[20] EVA.heatport.port.T (start = {288.15 for $i1 in 1:20}, min = {0.0 for $i1 in 1:20}, nominal = {300.0 for $i1 in 1:20})
(35)      [ALGB] (10) protected inner Real[10] ECO.TWall (start = {500.0 for $i1 in 1:10}, min = {273.15 for $i1 in 1:10}, max = {2273.15 for $i1 in 1:10}, nominal = {500.0 for $i1 in 1:10})
(36)      [ALGB] (10) flow Real[10] prescribedHeatFlow1.portsOut.Q_flow
(37)      [ALGB] (1) Real ECO.zeta
(38)      [ALGB] (1) Real ECO.dp (start = ECO.pIn_start - ECO.pOut_start)
(39)      [ALGB] (1) Real watersource_mh.h_port_actual (start = 1e5, min = -1e10, max = 1e10, nominal = 5e5)
(40)      [ALGB] (1) Real ECO.hOut (start = ECO.hOut_start, min = -1e10, max = 1e10, nominal = 5e5)
(41)      [ALGB] (1) Real EVA.alpha
(42)      [ALGB] (1) Real watersink_ph.hPortActual (start = 1e5, min = -1e10, max = 1e10, nominal = 5e5)
(43)      [ALGB] (10) Real[10] ECO.vol (min = {0.0 for $i1 in 1:10})
(44)      [ALGB] (3) Real[3] $FUN_9
(45)      [DER-] (60) Real[3, 20] $DER.EVA.wall.layer.T
(46)      [ALGB] (20) flow Real[20] EVA.gasSide.Q_flow
(47)      [ALGB] (1) flow Real watersink_ph.port.m_flow (min = -1e5, max = 1e5)
(48)      [ALGB] (3) Real[3] $FUN_8
(49)      [ALGB] (1) Real $FUN_7
(50)      [ALGB] (1) Real $FUN_6
(51)      [DISC] (1) Integer $FUN_29
(52)      [DISC] (1) Integer watersink_ph.water.state.phase (min = 0, max = 2)
(53)      [ALGB] (1) Real $FUN_5
(54)      [ALGB] (1) Real $FUN_28
(55)      [ALGB] (20) Real[20] EVA.d (start = EVA.rho0, min = {0.0 for $i1 in 1:20}, max = {1e5 for $i1 in 1:20}, nominal = {500.0 for $i1 in 1:20})
(56)      [ALGB] (1) Real $FUN_27
(57)      [ALGB] (1) Real $FUN_26
(58)      [ALGB] (1) protected Real EVA.state_from_b.p (start = EVA.pOut_start, min = 611.657, max = 1e8, nominal = 1e6)
(59)      [ALGB] (3) Real[3] $FUN_2
(60)      [DISC] (1) Integer $FUN_25
(61)      [ALGB] (3) Real[3] $FUN_1
(62)      [ALGB] (1) Real $FUN_24
(63)      [ALGB] (1) Real $FUN_23
(64)      [DISC] (1) protected discrete Real timeTable1.originalTable.nextEvent (fixed = true, start = 0.0)
(65)      [ALGB] (1) Real $FUN_22
(66)      [ALGB] (1) Real watersource_mh.medium.sat.psat (start = 5e6, min = 611.657, max = 1e8, nominal = 1e6)
(67)      [ALGB] (30) Real[3, 10] ECO.wall.layer.port_ext.T (start = {ECO.wall.layer[$layer1].T_start[$port_ext1] for $layer1 in 1:10, $port_ext1 in 1:3}, min = {0.0 for $i1 in 1:3, $i2 in 1:10}, nominal = {300.0 for $i1 in 1:3, $i2 in 1:10})
(68)      [ALGB] (3) Real[3] ECO.wall.layer.rext
(69)      [DER-] (1) Real $DER.prescribedHeatFlow.Q_flow
(70)      [ALGB] (1) protected Real EVA.state_from_b.d (start = 150.0, min = 0.0, max = 1e5, nominal = 500.0)
(71)      [ALGB] (3) Real[3] EVA.wall.layer.Tube_mass (min = {0.0 for $i1 in 1:3})
(72)      [ALGB] (20) Real[20] EVA.T (start = EVA.T_start, min = {273.15 for $i1 in 1:20}, max = {2273.15 for $i1 in 1:20}, nominal = {500.0 for $i1 in 1:20})
(73)      [ALGB] (30) flow Real[3, 10] ECO.wall.layer.port_ext.Q_flow
(74)      [ALGB] (3) Real[3] EVA.wall.layer.rext
(75)      [DISC] (1) Integer watersink_ph.water.phase (fixed = false, start = 1, min = 0, max = 2)
(76)      [DISC] (1) protected discrete Real timeTable1.originalTable.nextEventScaled (fixed = true, start = 0.0)
(77)      [ALGB] (20) flow Real[20] EVA.heatport.port.Q_flow
(78)      [ALGB] (10) Real[10] ECO.gasSide.T (start = {ECO.T_wall_start[$gasSide1] for $gasSide1 in 1:10}, min = {0.0 for $i1 in 1:10}, nominal = {300.0 for $i1 in 1:10})
(79)      [DISC] (1) Integer watersource_mh.medium.state.phase (min = 0, max = 2)
(80)      [ALGB] (3) Real[3] EVA.wall.layer.HeatCap
(81)      [DISC] (1) protected Integer timeTable1.originalTable.last (start = 1)
(82)      [ALGB] (1) protected Real EVA.state_from_b.T (start = EVA.TOut_start, min = 273.15, max = 2273.15, nominal = 500.0)
(83)      [ALGB] (1) stream Real EVA.portOut.h_outflow (start = EVA.hOut_start, min = -1e10, max = 1e10, nominal = 5e5)
(84)      [DISC] (1) protected Real timeTable.originalTable.a
(85)      [DISC] (1) protected Real timeTable.originalTable.b
(86)      [ALGB] (1) Real $FUN_14
(87)      [ALGB] (1) Real $FUN_13
(88)      [ALGB] (1) Real $FUN_12
(89)      [ALGB] (1) Real ECO.dpfric (start = (0.5 * ECO.m_flow_start * ECO.geoPipe.L * 0.015 * (1.0 / ECO.rho0[10] + 1.0 / ECO.rho0[1])) / (ECO.geoPipe.Nt * (ECO.geoPipe.d_out - ECO.geoPipe.s * 2.0) ^ 5.0), min = 611.657, max = 1e8, nominal = 1e6)
(90)      [DER-] (1) Real $DER.ECO.m_flow
(91)      [ALGB] (1) Real ECO.portOut.p (start = ECO.pOut_start, min = 611.657, max = 1e8, nominal = 1e6)
(92)      [ALGB] (1) Real ECO.dphyd (start = (sum(ECO.rho0) * 9.80665 * ECO.geoPipe.H) / 10.0, min = 611.657, max = 1e8, nominal = 1e6)
(93)      [ALGB] (20) Real[20] EVA.gasSide.T (start = {EVA.T_wall_start[$gasSide1] for $gasSide1 in 1:20}, min = {0.0 for $i1 in 1:20}, nominal = {300.0 for $i1 in 1:20})
(94)      [DISC] (1) Integer watersource_mh.medium.phase (fixed = false, start = 1, min = 0, max = 2)
(95)      [ALGB] (10) Real[10] prescribedHeatFlow1.portsOut.T (start = {288.15 for $i1 in 1:10}, min = {0.0 for $i1 in 1:10}, nominal = {300.0 for $i1 in 1:10})
(96)      [ALGB] (1) Real ECO.hIn (start = ECO.hIn_start, min = -1e10, max = 1e10, nominal = 5e5)
(97)      [ALGB] (10) protected Real[10] ECO.drdp
(98)      [ALGB] (60) Real[3, 20] EVA.wall.layer.port_ext.T (start = {EVA.wall.layer[$layer1].T_start[$port_ext1] for $layer1 in 1:20, $port_ext1 in 1:3}, min = {0.0 for $i1 in 1:3, $i2 in 1:20}, nominal = {300.0 for $i1 in 1:3, $i2 in 1:20})
(99)      [ALGB] (10) Real[10] ECO.wall.port_ext.T (start = {288.15 for $i1 in 1:10}, min = {0.0 for $i1 in 1:10}, nominal = {300.0 for $i1 in 1:10})
(100)     [ALGB] (30) flow Real[3, 10] ECO.wall.layer.port_int.Q_flow
(101)     [ALGB] (10) protected Real[10] ECO.drdh
(102)     [ALGB] (3) Real[3] ECO.wall.layer.Am
(103)     [ALGB] (1) Real ECO.alpha
(104)     [ALGB] (20) Real[20] EVA.wall.port_ext.T (start = {288.15 for $i1 in 1:20}, min = {0.0 for $i1 in 1:20}, nominal = {300.0 for $i1 in 1:20})
(105)     [ALGB] (1) protected Real ECO.state_from_b.p (start = ECO.pOut_start, min = 611.657, max = 1e8, nominal = 1e6)
(106)     [ALGB] (1) protected Real EVA.state_from_a.p (start = EVA.pIn_start, min = 611.657, max = 1e8, nominal = 1e6)
(107)     [ALGB] (1) Real ECO.volAverage (start = 1.0 / SiemensPower.Components.Pipes.Tests.tube_ownMedia_test.ECO.Medium.density_phX(0.5 * (ECO.pOut_start + ECO.pIn_start), 0.5 * (ECO.hOut_start + ECO.hIn_start), ECO.XIn_start, 0), min = 0.0)
(108)     [ALGB] (1) Real timeTable1.C1signal.u
(109)     [ALGB] (1) protected Real ECO.state_from_b.h (start = 1e5, min = -1e10, max = 1e10, nominal = 5e5)
(110)     [ALGB] (1) protected Real EVA.state_from_a.h (start = 1e5, min = -1e10, max = 1e10, nominal = 5e5)
(111)     [ALGB] (1) protected Real ECO.state_from_b.d (start = 150.0, min = 0.0, max = 1e5, nominal = 500.0)
(112)     [ALGB] (1) protected Real EVA.state_from_a.d (start = 150.0, min = 0.0, max = 1e5, nominal = 500.0)
(113)     [ALGB] (10) flow Real[10] ECO.heatport.port.Q_flow
(114)     [DER-] (10) Real[10] $DER.ECO.qMetalFluidDelayed
(115)     [ALGB] (1) Real watersource_mh.medium.state.T (start = 500.0, min = 273.15, max = 2273.15, nominal = 500.0)
(116)     [DISC] (1) protected Real timeTable1.originalTable.b
(117)     [DISC] (1) protected Real timeTable1.originalTable.a
(118)     [ALGB] (1) Real watersource_mh.medium.d (start = 150.0, min = 0.0, max = 1e5, nominal = 500.0, StateSelect = default)
(119)     [ALGB] (3) Real[3] ECO.wall.layer.Tube_mass (min = {0.0 for $i1 in 1:3})
(120)     [DER-] (1) Real $DER.EVA.p
(121)     [ALGB] (1) Real watersource_mh.medium.sat.Tsat (start = 500.0, min = 273.15, max = 2273.15, nominal = 500.0)
(122)     [ALGB] (1) protected Real ECO.state_from_b.T (start = ECO.TOut_start, min = 273.15, max = 2273.15, nominal = 500.0)
(123)     [ALGB] (1) protected Real EVA.state_from_a.T (start = EVA.TIn_start, min = 273.15, max = 2273.15, nominal = 500.0)
(124)     [ALGB] (3) Real[3] ECO.wall.layer.HeatCap
(125)     [ALGB] (3) Real[3] ECO.wall.layer.rint
(126)     [DER-] (20) Real[20] $DER.EVA.h
(127)     [ALGB] (1) Real EVA.zeta
(128)     [ALGB] (1) Real watersource_mh.medium.state.d (start = 150.0, min = 0.0, max = 1e5, nominal = 500.0)
(129)     [ALGB] (60) flow Real[3, 20] EVA.wall.layer.port_int.Q_flow
(130)     [ALGB] (1) Real EVA.hOut (start = EVA.hOut_start, min = -1e10, max = 1e10, nominal = 5e5)
(131)     [ALGB] (1) Real watersource_mh.medium.u (min = -1e8, max = 1e8, nominal = 1e6)
(132)     [ALGB] (3) Real[3] EVA.wall.layer.rint
(133)     [DISC] (8) Boolean[8] $SEV_27[$i1]
(134)     [ALGB] (20) protected Real[20] EVA.qMetalFluid
(135)     [ALGB] (1) Real watersource_mh.medium.state.p (start = 5e6, min = 611.657, max = 1e8, nominal = 1e6)
(136)     [DISC] (1) protected Integer timeTable.originalTable.last (start = 1)
(137)     [ALGB] (30) Real[3, 10] ECO.wall.layer.port_int.T (start = {ECO.wall.layer[$layer1].T_start[$port_int1] for $layer1 in 1:10, $port_int1 in 1:3}, min = {0.0 for $i1 in 1:3, $i2 in 1:10}, nominal = {300.0 for $i1 in 1:3, $i2 in 1:10})
(138)     [ALGB] (1) Real watersink_ph.water.T_degC = Modelica.SIunits.Conversions.to_degC(-((-273.15) - watersink_ph.water.T_degC))
(139)     [ALGB] (1) protected Real ECO.state_from_a.p (start = ECO.pIn_start, min = 611.657, max = 1e8, nominal = 1e6)
(140)     [ALGB] (20) flow Real[20] EVA.wall.port_int.Q_flow
(141)     [ALGB] (10) Real[10] ECO.d (start = ECO.rho0, min = {0.0 for $i1 in 1:10}, max = {1e5 for $i1 in 1:10}, nominal = {500.0 for $i1 in 1:10})
(142)     [ALGB] (1) flow Real EVA.portIn.m_flow (start = EVA.m_flow_start, min = -1e5, max = 1e5)
(143)     [ALGB] (20) Real[20] EVA.qMetalFluidDelayed
(144)     [ALGB] (1) Real EVA.dAverage (start = sum(EVA.rho0) / 20.0, min = 0.0, max = 1e5, nominal = 500.0)
(145)     [ALGB] (1) Real watersink_ph.water.u (min = -1e8, max = 1e8, nominal = 1e6)
(146)     [ALGB] (60) flow Real[3, 20] EVA.wall.layer.port_ext.Q_flow
(147)     [ALGB] (1) protected Real ECO.state_from_a.d (start = 150.0, min = 0.0, max = 1e5, nominal = 500.0)
(148)     [DER-] (30) Real[3, 10] $DER.ECO.wall.layer.T
(149)     [ALGB] (1) Real EVA.dp (start = EVA.pIn_start - EVA.pOut_start)
(150)     [ALGB] (10) Real[10] ECO.heatport.Q_flow
(151)     [DISC] (1) Boolean $SEV_39
(152)     [ALGB] (1) Real EVA.dpfric (start = (0.5 * EVA.m_flow_start * EVA.geoPipe.L * 0.015 * (1.0 / EVA.rho0[20] + 1.0 / EVA.rho0[1])) / (EVA.geoPipe.Nt * (EVA.geoPipe.d_out - EVA.geoPipe.s * 2.0) ^ 5.0), min = 611.657, max = 1e8, nominal = 1e6)
(153)     [DISC] (1) Boolean $SEV_36
(154)     [DISC] (1) Boolean $SEV_35
(155)     [ALGB] (10) Real[10] ECO.T (start = ECO.T_start, min = {273.15 for $i1 in 1:10}, max = {2273.15 for $i1 in 1:10}, nominal = {500.0 for $i1 in 1:10})
(156)     [ALGB] (1) Real watersink_ph.water.sat.psat (start = 5e6, min = 611.657, max = 1e8, nominal = 1e6)
(157)     [DISC] (1) Boolean $SEV_32
(158)     [ALGB] (1) Real watersink_ph.water.d (start = 150.0, min = 0.0, max = 1e5, nominal = 500.0, StateSelect = default)
(159)     [ALGB] (1) Real EVA.volAverage (start = 1.0 / SiemensPower.Components.Pipes.Tests.tube_ownMedia_test.EVA.Medium.density_phX(0.5 * (EVA.pOut_start + EVA.pIn_start), 0.5 * (EVA.hOut_start + EVA.hIn_start), EVA.XIn_start, 0), min = 0.0)
(160)     [ALGB] (20) Real[20] EVA.heatport.Q_flow
(161)     [DISC] (1) Boolean $SEV_30
(162)     [ALGB] (1) protected Real ECO.state_from_a.T (start = ECO.TIn_start, min = 273.15, max = 2273.15, nominal = 500.0)
(163)     [ALGB] (10) protected Real[10] ECO.qMetalFluid
(164)     [ALGB] (60) Real[3, 20] EVA.wall.layer.port_int.T (start = {EVA.wall.layer[$layer1].T_start[$port_int1] for $layer1 in 1:20, $port_int1 in 1:3}, min = {0.0 for $i1 in 1:3, $i2 in 1:20}, nominal = {300.0 for $i1 in 1:3, $i2 in 1:20})
(165)     [ALGB] (20) Real[20] EVA.vol (min = {0.0 for $i1 in 1:20})
(166)     [ALGB] (20) protected Real[20] EVA.drdp
(167)     [ALGB] (10) Real[10] ECO.wall.port_int.T (start = {288.15 for $i1 in 1:10}, min = {0.0 for $i1 in 1:10}, nominal = {300.0 for $i1 in 1:10})
(168)     [ALGB] (20) flow Real[20] EVA.wall.port_ext.Q_flow
(169)     [ALGB] (20) protected Real[20] EVA.drdh
(170)     [ALGB] (20) Real[20] EVA.wall.port_int.T (start = {288.15 for $i1 in 1:20}, min = {0.0 for $i1 in 1:20}, nominal = {300.0 for $i1 in 1:20})
(171)     [ALGB] (1) Real watersource_mh.medium.p_bar = Modelica.SIunits.Conversions.to_bar(99999.99999999999 * watersource_mh.medium.p_bar)
(172)     [ALGB] (1) Real watersource_mh.medium.T_degC = Modelica.SIunits.Conversions.to_degC(-((-273.15) - watersource_mh.medium.T_degC))


System Equations (394/1224)
*****************************
(1)       [SCAL] (1) EVA.wall.layer[3].port_ext[9].Q_flow - EVA.wall.port_ext[9].Q_flow = 0.0 ($RES_SIM_429)
(2)       [SCAL] (1) EVA.dphyd = 9.80665 * EVA.geoPipe.H * EVA.dAverage ($RES_SIM_254)
(3)       [SCAL] (1) EVA.dpfric = (0.5 * EVA.geoPipe.L * EVA.volAverage * ($FUN_6 + EVA.m_flowLaminar) * EVA.m_flow * EVA.zeta) / (EVA.di * EVA.A ^ 2.0) ($RES_SIM_255)
(4)       [SCAL] (1) EVA.zeta = (1.14 - 2.0 * $FUN_5) ^ (-2.0) + (EVA.di * EVA.geoPipe.zeta_add) / EVA.geoPipe.L ($RES_SIM_256)
(5)       [SCAL] (1) EVA.m_flow = ((1.0 - EVA.hydM) * watersink_ph.port.m_flow + EVA.hydM * EVA.portIn.m_flow) / EVA.geoPipe.Nt ($RES_SIM_257)
(6)       [FOR-] (10) ($RES_SIM_510)
(6)       [----] for $i1 in 1:10 loop
(6)       [----]   [SCAL] (1) prescribedHeatFlow1.portsOut[$i1].Q_flow + ECO.gasSide[$i1].Q_flow = 0.0 ($RES_SIM_511)
(6)       [----] end for;
(7)       [SCAL] (1) EVA.p = EVA.hydP * ECO.portOut.p + (1.0 - EVA.hydP) * (99999.99999999999 * watersink_ph.water.p_bar) ($RES_SIM_259)
(8)       [ARRY] (10) prescribedHeatFlow1.portsOut.T = ECO.gasSide.T ($RES_SIM_512)
(9)       [FOR-] (20) ($RES_SIM_516)
(9)       [----] for $i1 in 1:20 loop
(9)       [----]   [SCAL] (1) prescribedHeatFlow.portsOut[$i1].Q_flow + EVA.gasSide[$i1].Q_flow = 0.0 ($RES_SIM_517)
(9)       [----] end for;
(10)      [ARRY] (20) prescribedHeatFlow.portsOut.T = EVA.gasSide.T ($RES_SIM_518)
(11)      [FOR-] (10) ($RES_SIM_171)
(11)      [----] for $i1 in 1:10 loop
(11)      [----]   [SCAL] (1) ECO.drdh[$i1] = SiemensPower.Media.TTSE.Utilities.rho_ph_dh(ECO.p, ECO.h[$i1], 0) ($RES_SIM_172)
(11)      [----] end for;
(12)      [SCAL] (1) $SEV_24 = (-EVA.portIn.m_flow) >= 0.0 ($RES_EVT_817)
(13)      [SCAL] (1) $SEV_25 = watersource_mh.m_flow_start >= 0.0 ($RES_EVT_818)
(14)      [-IF-] (1)if $SEV_26 then
(14)      [----]   [SCAL] (1) $DER.ECO.h[10] + ((EVA.portIn.h_outflow - ECO.h[10]) * ECO.m_flow) / (ECO.dz * ECO.d[10] * ECO.A) = (ECO.qMetalFluidDelayed[10] * 4.0) / (ECO.di * ECO.d[10]) + $DER.ECO.p / ECO.d[10] ($RES_SIM_174)
(14)      [----] else
(14)      [----]   [SCAL] (1) $DER.ECO.h[10] + ((ECO.h[10] - ECO.h[9]) * ECO.m_flow) / (ECO.dz * ECO.d[10] * ECO.A) = (ECO.qMetalFluidDelayed[10] * 4.0) / (ECO.di * ECO.d[10]) + $DER.ECO.p / ECO.d[10] ($RES_SIM_175)
(14)      [----] end if;
(15)      [SCAL] (1) $SEV_26 = ECO.m_flow < 0.0 ($RES_EVT_819)
(16)      [SCAL] (1) ECO.wall.layer[1].port_ext[7].T = ECO.wall.layer[2].port_int[7].T ($RES_SIM_600)
(17)      [SCAL] (1) ECO.wall.layer[1].port_ext[6].T = ECO.wall.layer[2].port_int[6].T ($RES_SIM_601)
(18)      [SCAL] (1) ECO.wall.layer[1].port_ext[5].T = ECO.wall.layer[2].port_int[5].T ($RES_SIM_602)
(19)      [FOR-] (8) ($RES_SIM_176)
(19)      [----] for $i1 in 2:9 loop
(19)      [----]   [-IF-] (1)if $SEV_27[$i1] then
(19)      [----]   [----]   [SCAL] (1) $DER.ECO.h[$i1] + ((ECO.h[$i1 + 1] - ECO.h[$i1]) * ECO.m_flow) / (ECO.dz * ECO.d[$i1] * ECO.A) = (ECO.qMetalFluidDelayed[$i1] * 4.0) / (ECO.di * ECO.d[$i1]) + $DER.ECO.p / ECO.d[$i1] ($RES_SIM_178)
(19)      [----]   [----] else
(19)      [----]   [----]   [SCAL] (1) $DER.ECO.h[$i1] + ((ECO.h[$i1] - ECO.h[$i1 - 1]) * ECO.m_flow) / (ECO.dz * ECO.d[$i1] * ECO.A) = (ECO.qMetalFluidDelayed[$i1] * 4.0) / (ECO.di * ECO.d[$i1]) + $DER.ECO.p / ECO.d[$i1] ($RES_SIM_179)
(19)      [----]   [----] end if;
(19)      [----] end for;
(20)      [SCAL] (1) ECO.wall.layer[1].port_ext[4].T = ECO.wall.layer[2].port_int[4].T ($RES_SIM_603)
(21)      [SCAL] (1) ECO.wall.layer[1].port_ext[3].T = ECO.wall.layer[2].port_int[3].T ($RES_SIM_604)
(22)      [SCAL] (1) ECO.wall.layer[1].port_ext[2].T = ECO.wall.layer[2].port_int[2].T ($RES_SIM_605)
(23)      [SCAL] (1) EVA.wall.layer[3].port_ext[8].Q_flow - EVA.wall.port_ext[8].Q_flow = 0.0 ($RES_SIM_430)
(24)      [SCAL] (1) ECO.wall.layer[1].port_ext[1].T = ECO.wall.layer[2].port_int[1].T ($RES_SIM_606)
(25)      [SCAL] (1) EVA.wall.layer[3].port_ext[7].Q_flow - EVA.wall.port_ext[7].Q_flow = 0.0 ($RES_SIM_431)
(26)      [SCAL] (1) ECO.wall.layer[1].port_int[10].T = ECO.wall.port_int[10].T ($RES_SIM_607)
(27)      [SCAL] (1) EVA.wall.layer[3].port_ext[6].Q_flow - EVA.wall.port_ext[6].Q_flow = 0.0 ($RES_SIM_432)
(28)      [SCAL] (1) ECO.wall.layer[1].port_int[9].T = ECO.wall.port_int[9].T ($RES_SIM_608)
(29)      [SCAL] (1) EVA.wall.layer[3].port_ext[5].Q_flow - EVA.wall.port_ext[5].Q_flow = 0.0 ($RES_SIM_433)
(30)      [SCAL] (1) ECO.wall.layer[1].port_int[8].T = ECO.wall.port_int[8].T ($RES_SIM_609)
(31)      [SCAL] (1) EVA.wall.layer[3].port_ext[4].Q_flow - EVA.wall.port_ext[4].Q_flow = 0.0 ($RES_SIM_434)
(32)      [SCAL] (1) EVA.wall.layer[3].port_ext[3].Q_flow - EVA.wall.port_ext[3].Q_flow = 0.0 ($RES_SIM_435)
(33)      [SCAL] (1) EVA.portOut.h_outflow = EVA.h[20] ($RES_SIM_260)
(34)      [SCAL] (1) EVA.wall.layer[3].port_ext[2].Q_flow - EVA.wall.port_ext[2].Q_flow = 0.0 ($RES_SIM_436)
(35)      [SCAL] (1) EVA.portIn.h_outflow = EVA.h[1] ($RES_SIM_261)
(36)      [SCAL] (1) EVA.wall.layer[3].port_ext[1].Q_flow - EVA.wall.port_ext[1].Q_flow = 0.0 ($RES_SIM_437)
(37)      [FOR-] (20) ($RES_SIM_262)
(37)      [----] for $i1 in 1:20 loop
(37)      [----]   [SCAL] (1) EVA.vol[$i1] = 1.0 / EVA.d[$i1] ($RES_SIM_263)
(37)      [----] end for;
(38)      [SCAL] (1) EVA.wall.layer[2].port_ext[20].Q_flow + EVA.wall.layer[3].port_int[20].Q_flow = 0.0 ($RES_SIM_438)
(39)      [SCAL] (1) EVA.wall.layer[2].port_ext[19].Q_flow + EVA.wall.layer[3].port_int[19].Q_flow = 0.0 ($RES_SIM_439)
(40)      [ARRY] (20) EVA.heatport.Q_flow = EVA.heatport.port.Q_flow ($RES_SIM_267)
(41)      [ARRY] (20) EVA.TWall = EVA.heatport.port.T ($RES_SIM_268)
(42)      [FOR-] (8) ($RES_EVT_820)
(42)      [----] for $i1 in 2:9 loop
(42)      [----]   [SCAL] (1) $SEV_27[$i1] = ECO.m_flow < 0.0 ($RES_EVT_821)
(42)      [----] end for;
(43)      [SCAL] (1) $SEV_28 = (-watersink_ph.port.m_flow) >= 0.0 ($RES_EVT_822)
(44)      [SCAL] (1) $SEV_29 = EVA.portIn.m_flow >= 0.0 ($RES_EVT_823)
(45)      [SCAL] (1) $SEV_30 = EVA.m_flow < 0.0 ($RES_EVT_824)
(46)      [FOR-] (18) ($RES_EVT_825)
(46)      [----] for $i1 in 2:19 loop
(46)      [----]   [SCAL] (1) $SEV_31[$i1] = EVA.m_flow < 0.0 ($RES_EVT_826)
(46)      [----] end for;
(47)      [-IF-] (1)if $SEV_26 then
(47)      [----]   [SCAL] (1) $DER.ECO.h[1] + ((ECO.h[2] - ECO.h[1]) * ECO.m_flow) / (ECO.dz * ECO.d[1] * ECO.A) = (ECO.qMetalFluidDelayed[1] * 4.0) / (ECO.di * ECO.d[1]) + $DER.ECO.p / ECO.d[1] ($RES_SIM_181)
(47)      [----] else
(47)      [----]   [SCAL] (1) $DER.ECO.h[1] + ((ECO.h[1] - watersource_mh.h_start) * ECO.m_flow) / (ECO.dz * ECO.d[1] * ECO.A) = (ECO.qMetalFluidDelayed[1] * 4.0) / (ECO.di * ECO.d[1]) + $DER.ECO.p / ECO.d[1] ($RES_SIM_182)
(47)      [----] end if;
(48)      [SCAL] (1) $SEV_32 = watersink_ph.port.m_flow > 0.0 ($RES_EVT_827)
(49)      [SCAL] (1) ((ECO.portOut.p - 99999.99999999999 * watersource_mh.medium.p_bar) * ECO.A) / ECO.geoPipe.L + (ECO.A * ECO.dphyd) / ECO.geoPipe.L + $DER.ECO.m_flow + (ECO.A * ECO.dpfric) / ECO.geoPipe.L = 0.0 ($RES_SIM_183)
(50)      [SCAL] (1) ECO.wall.layer[1].port_int[7].T = ECO.wall.port_int[7].T ($RES_SIM_610)
(51)      [SCAL] (1) 0.1 * ($FUN_14 * $DER.ECO.p + ECO.drdh * $DER.ECO.h) - (watersource_mh.m_flow_start - EVA.portIn.m_flow) / (ECO.geoPipe.Nt * ECO.V) = 0.0 ($RES_SIM_184)
(52)      [SCAL] (1) ECO.wall.layer[1].port_int[6].T = ECO.wall.port_int[6].T ($RES_SIM_611)
(53)      [SCAL] (1) ECO.dphyd = 9.80665 * ECO.geoPipe.H * ECO.dAverage ($RES_SIM_185)
(54)      [SCAL] (1) ECO.wall.layer[1].port_int[5].T = ECO.wall.port_int[5].T ($RES_SIM_612)
(55)      [SCAL] (1) ECO.dpfric = (0.5 * ECO.geoPipe.L * ECO.volAverage * ($FUN_13 + ECO.m_flowLaminar) * ECO.m_flow * ECO.zeta) / (ECO.di * ECO.A ^ 2.0) ($RES_SIM_186)
(56)      [SCAL] (1) ECO.wall.layer[1].port_int[4].T = ECO.wall.port_int[4].T ($RES_SIM_613)
(57)      [SCAL] (1) ECO.zeta = (1.14 - 2.0 * $FUN_12) ^ (-2.0) + (ECO.di * ECO.geoPipe.zeta_add) / ECO.geoPipe.L ($RES_SIM_187)
(58)      [SCAL] (1) ECO.wall.layer[1].port_int[3].T = ECO.wall.port_int[3].T ($RES_SIM_614)
(59)      [SCAL] (1) ECO.m_flow = ((1.0 - ECO.hydM) * EVA.portIn.m_flow + ECO.hydM * watersource_mh.m_flow_start) / ECO.geoPipe.Nt ($RES_SIM_188)
(60)      [SCAL] (1) EVA.wall.layer[2].port_ext[18].Q_flow + EVA.wall.layer[3].port_int[18].Q_flow = 0.0 ($RES_SIM_440)
(61)      [SCAL] (1) ECO.wall.layer[1].port_int[2].T = ECO.wall.port_int[2].T ($RES_SIM_615)
(62)      [SCAL] (1) EVA.wall.layer[2].port_ext[17].Q_flow + EVA.wall.layer[3].port_int[17].Q_flow = 0.0 ($RES_SIM_441)
(63)      [SCAL] (1) ECO.wall.layer[1].port_int[1].T = ECO.wall.port_int[1].T ($RES_SIM_616)
(64)      [SCAL] (1) EVA.wall.layer[2].port_ext[16].Q_flow + EVA.wall.layer[3].port_int[16].Q_flow = 0.0 ($RES_SIM_442)
(65)      [SCAL] (1) EVA.wall.layer[2].port_ext[15].Q_flow + EVA.wall.layer[3].port_int[15].Q_flow = 0.0 ($RES_SIM_443)
(66)      [SCAL] (1) EVA.wall.layer[2].port_ext[14].Q_flow + EVA.wall.layer[3].port_int[14].Q_flow = 0.0 ($RES_SIM_444)
(67)      [SCAL] (1) EVA.wall.layer[2].port_ext[13].Q_flow + EVA.wall.layer[3].port_int[13].Q_flow = 0.0 ($RES_SIM_445)
(68)      [SCAL] (1) EVA.wall.layer[2].port_ext[12].Q_flow + EVA.wall.layer[3].port_int[12].Q_flow = 0.0 ($RES_SIM_446)
(69)      [FOR-] (60) ($RES_SIM_271)
(69)      [----] for {$i1 in 1:3, $i2 in 1:20} loop
(69)      [----]   [SCAL] (1) EVA.wall.layer[$i1].port_ext[$i2].Q_flow = ((EVA.wall.layer[$i1].port_ext[$i2].T - EVA.wall.layer[$i1].T[$i2]) * EVA.wall.layer[$i1].numberOfParallelTubes * ((EVA.wall.layer[$i1].length * 3.141592653589793 * 2.0 * EVA.wall.layer[$i1].metal.lambda) / 20.0)) / $FUN_2[$i1] ($RES_SIM_272)
(69)      [----] end for;
(70)      [SCAL] (1) EVA.wall.layer[2].port_ext[11].Q_flow + EVA.wall.layer[3].port_int[11].Q_flow = 0.0 ($RES_SIM_447)
(71)      [SCAL] (1) EVA.wall.layer[2].port_ext[10].Q_flow + EVA.wall.layer[3].port_int[10].Q_flow = 0.0 ($RES_SIM_448)
(72)      [FOR-] (60) ($RES_SIM_273)
(72)      [----] for {$i1 in 1:3, $i2 in 1:20} loop
(72)      [----]   [SCAL] (1) EVA.wall.layer[$i1].port_int[$i2].Q_flow = ((EVA.wall.layer[$i1].port_int[$i2].T - EVA.wall.layer[$i1].T[$i2]) * EVA.wall.layer[$i1].numberOfParallelTubes * ((EVA.wall.layer[$i1].length * 3.141592653589793 * 2.0 * EVA.wall.layer[$i1].metal.lambda) / 20.0)) / $FUN_1[$i1] ($RES_SIM_274)
(72)      [----] end for;
(73)      [SCAL] (1) EVA.wall.layer[1].port_int[6].T = EVA.wall.port_int[6].T ($RES_SIM_700)
(74)      [SCAL] (1) EVA.wall.layer[2].port_ext[9].Q_flow + EVA.wall.layer[3].port_int[9].Q_flow = 0.0 ($RES_SIM_449)
(75)      [SCAL] (1) EVA.wall.layer[1].port_int[5].T = EVA.wall.port_int[5].T ($RES_SIM_701)
(76)      [FOR-] (3) ($RES_SIM_275)
(76)      [----] for $i1 in 1:3 loop
(76)      [----]   [SCAL] (1) EVA.wall.layer[$i1].Am = (EVA.wall.layer[$i1].rext ^ 2.0 - EVA.wall.layer[$i1].rint ^ 2.0) * 3.141592653589793 ($RES_SIM_276)
(76)      [----] end for;
(77)      [SCAL] (1) EVA.wall.layer[1].port_int[4].T = EVA.wall.port_int[4].T ($RES_SIM_702)
(78)      [SCAL] (1) EVA.wall.layer[1].port_int[3].T = EVA.wall.port_int[3].T ($RES_SIM_703)
(79)      [FOR-] (60) ($RES_SIM_277)
(79)      [----] for {$i1 in 1:3, $i2 in 1:20} loop
(79)      [----]   [SCAL] (1) EVA.wall.layer[$i1].HeatCap * $DER.EVA.wall.layer[$i1].T[$i2] = EVA.wall.layer[$i1].port_int[$i2].Q_flow + EVA.wall.layer[$i1].port_ext[$i2].Q_flow ($RES_SIM_278)
(79)      [----] end for;
(80)      [SCAL] (1) EVA.wall.layer[1].port_int[2].T = EVA.wall.port_int[2].T ($RES_SIM_704)
(81)      [SCAL] (1) EVA.wall.layer[1].port_int[1].T = EVA.wall.port_int[1].T ($RES_SIM_705)
(82)      [FOR-] (3) ($RES_SIM_279)
(82)      [----] for $i1 in 1:3 loop
(82)      [----]   [SCAL] (1) EVA.wall.layer[$i1].HeatCap = EVA.wall.layer[$i1].metal.cp * EVA.wall.layer[$i1].Tube_mass ($RES_SIM_280)
(82)      [----] end for;
(83)      [SCAL] (1) $SEV_35 = (watersink_ph.h_start < Modelica.Media.Water.IF97_Utilities.BaseIF97.Regions.hvl_p(watersink_ph.water.sat.psat, Modelica.Media.Water.IF97_Utilities.BaseIF97.Regions.boilingcurve_p(watersink_ph.water.sat.psat)) or watersink_ph.h_start > Modelica.Media.Water.IF97_Utilities.BaseIF97.Regions.hvl_p(watersink_ph.water.sat.psat, Modelica.Media.Water.IF97_Utilities.BaseIF97.Regions.dewcurve_p(watersink_ph.water.sat.psat))) or 99999.99999999999 * watersink_ph.water.p_bar > 2.2064e7 ($RES_EVT_830)
(84)      [SCAL] (1) $SEV_36 = (-watersource_mh.m_flow_start) > 0.0 ($RES_EVT_831)
(85)      [SCAL] (1) $SEV_39 = (watersource_mh.h_start < Modelica.Media.Water.IF97_Utilities.BaseIF97.Regions.hvl_p(watersource_mh.medium.sat.psat, Modelica.Media.Water.IF97_Utilities.BaseIF97.Regions.boilingcurve_p(watersource_mh.medium.sat.psat)) or watersource_mh.h_start > Modelica.Media.Water.IF97_Utilities.BaseIF97.Regions.hvl_p(watersource_mh.medium.sat.psat, Modelica.Media.Water.IF97_Utilities.BaseIF97.Regions.dewcurve_p(watersource_mh.medium.sat.psat))) or 99999.99999999999 * watersource_mh.medium.p_bar > 2.2064e7 ($RES_EVT_834)
(86)      [SCAL] (1) ECO.p = ECO.hydP * (99999.99999999999 * watersource_mh.medium.p_bar) + (1.0 - ECO.hydP) * ECO.portOut.p ($RES_SIM_190)
(87)      [SCAL] (1) ECO.portOut.h_outflow = ECO.h[10] ($RES_SIM_191)
(88)      [SCAL] (1) ECO.portIn.h_outflow = ECO.h[1] ($RES_SIM_192)
(89)      [FOR-] (10) ($RES_SIM_193)
(89)      [----] for $i1 in 1:10 loop
(89)      [----]   [SCAL] (1) ECO.vol[$i1] = 1.0 / ECO.d[$i1] ($RES_SIM_194)
(89)      [----] end for;
(90)      [FOR-] (20) ($RES_SIM_620)
(90)      [----] for $i1 in 1:20 loop
(90)      [----]   [SCAL] (1) EVA.wall.port_int[$i1].Q_flow + EVA.heatport.port[$i1].Q_flow = 0.0 ($RES_SIM_621)
(90)      [----] end for;
(91)      [ARRY] (20) EVA.wall.port_int.T = EVA.heatport.port.T ($RES_SIM_622)
(92)      [FOR-] (20) ($RES_SIM_623)
(92)      [----] for $i1 in 1:20 loop
(92)      [----]   [SCAL] (1) EVA.wall.port_ext[$i1].Q_flow - EVA.gasSide[$i1].Q_flow = 0.0 ($RES_SIM_624)
(92)      [----] end for;
(93)      [ARRY] (10) ECO.heatport.Q_flow = ECO.heatport.port.Q_flow ($RES_SIM_198)
(94)      [ARRY] (20) EVA.gasSide.T = EVA.wall.port_ext.T ($RES_SIM_625)
(95)      [SCAL] (1) EVA.wall.layer[2].port_ext[8].Q_flow + EVA.wall.layer[3].port_int[8].Q_flow = 0.0 ($RES_SIM_450)
(96)      [ARRY] (10) ECO.TWall = ECO.heatport.port.T ($RES_SIM_199)
(97)      [SCAL] (1) EVA.wall.layer[3].port_ext[20].T = EVA.wall.port_ext[20].T ($RES_SIM_626)
(98)      [SCAL] (1) EVA.wall.layer[2].port_ext[7].Q_flow + EVA.wall.layer[3].port_int[7].Q_flow = 0.0 ($RES_SIM_451)
(99)      [SCAL] (1) EVA.wall.layer[3].port_ext[19].T = EVA.wall.port_ext[19].T ($RES_SIM_627)
(100)     [SCAL] (1) EVA.wall.layer[2].port_ext[6].Q_flow + EVA.wall.layer[3].port_int[6].Q_flow = 0.0 ($RES_SIM_452)
(101)     [SCAL] (1) EVA.wall.layer[3].port_ext[18].T = EVA.wall.port_ext[18].T ($RES_SIM_628)
(102)     [SCAL] (1) EVA.wall.layer[2].port_ext[5].Q_flow + EVA.wall.layer[3].port_int[5].Q_flow = 0.0 ($RES_SIM_453)
(103)     [SCAL] (1) EVA.wall.layer[3].port_ext[17].T = EVA.wall.port_ext[17].T ($RES_SIM_629)
(104)     [SCAL] (1) EVA.wall.layer[2].port_ext[4].Q_flow + EVA.wall.layer[3].port_int[4].Q_flow = 0.0 ($RES_SIM_454)
(105)     [SCAL] (1) EVA.wall.layer[2].port_ext[3].Q_flow + EVA.wall.layer[3].port_int[3].Q_flow = 0.0 ($RES_SIM_455)
(106)     [SCAL] (1) EVA.wall.layer[2].port_ext[2].Q_flow + EVA.wall.layer[3].port_int[2].Q_flow = 0.0 ($RES_SIM_456)
(107)     [FOR-] (3) ($RES_SIM_281)
(107)     [----] for $i1 in 1:3 loop
(107)     [----]   [SCAL] (1) EVA.wall.layer[$i1].Tube_mass = ((EVA.wall.layer[$i1].length * EVA.wall.layer[$i1].Am * EVA.wall.layer[$i1].metal.rho) / 20.0) * EVA.wall.layer[$i1].numberOfParallelTubes ($RES_SIM_282)
(107)     [----] end for;
(108)     [SCAL] (1) EVA.wall.layer[2].port_ext[1].Q_flow + EVA.wall.layer[3].port_int[1].Q_flow = 0.0 ($RES_SIM_457)
(109)     [SCAL] (1) EVA.wall.layer[1].port_ext[20].Q_flow + EVA.wall.layer[2].port_int[20].Q_flow = 0.0 ($RES_SIM_458)
(110)     [FOR-] (3) ($RES_SIM_283)
(110)     [----] for $i1 in 1:3 loop
(110)     [----]   [SCAL] (1) EVA.wall.layer[$i1].rext = EVA.wall.layer[$i1].diameterInner * 0.5 + 0.001 ($RES_SIM_284)
(110)     [----] end for;
(111)     [SCAL] (1) EVA.wall.layer[1].port_ext[19].Q_flow + EVA.wall.layer[2].port_int[19].Q_flow = 0.0 ($RES_SIM_459)
(112)     [FOR-] (3) ($RES_SIM_285)
(112)     [----] for $i1 in 1:3 loop
(112)     [----]   [SCAL] (1) EVA.wall.layer[$i1].rint = EVA.wall.layer[$i1].diameterInner * 0.5 ($RES_SIM_286)
(112)     [----] end for;
(113)     [ARRY] (20) prescribedHeatFlow.portsOut.Q_flow = -0.05 .* (prescribedHeatFlow.Q_flow * fill(1.0, 20)) ($RES_SIM_287)
(114)     [SCAL] (1) watersink_ph.hPortActual = noEvent(if $SEV_32 then EVA.portOut.h_outflow else watersink_ph.h_start) ($RES_SIM_288)
(115)     [SCAL] (1) ECO.wall.layer[3].port_ext[10].Q_flow - ECO.wall.port_ext[10].Q_flow = 0.0 ($RES_SIM_377)
(116)     [SCAL] (1) ECO.wall.layer[3].port_ext[9].Q_flow - ECO.wall.port_ext[9].Q_flow = 0.0 ($RES_SIM_378)
(117)     [SCAL] (1) EVA.wall.layer[3].port_ext[16].T = EVA.wall.port_ext[16].T ($RES_SIM_630)
(118)     [SCAL] (1) ECO.wall.layer[3].port_ext[8].Q_flow - ECO.wall.port_ext[8].Q_flow = 0.0 ($RES_SIM_379)
(119)     [SCAL] (1) EVA.wall.layer[3].port_ext[15].T = EVA.wall.port_ext[15].T ($RES_SIM_631)
(120)     [SCAL] (1) EVA.wall.layer[3].port_ext[14].T = EVA.wall.port_ext[14].T ($RES_SIM_632)
(121)     [SCAL] (1) EVA.wall.layer[3].port_ext[13].T = EVA.wall.port_ext[13].T ($RES_SIM_633)
(122)     [SCAL] (1) EVA.wall.layer[3].port_ext[12].T = EVA.wall.port_ext[12].T ($RES_SIM_634)
(123)     [SCAL] (1) EVA.wall.layer[3].port_ext[11].T = EVA.wall.port_ext[11].T ($RES_SIM_635)
(124)     [SCAL] (1) EVA.wall.layer[1].port_ext[18].Q_flow + EVA.wall.layer[2].port_int[18].Q_flow = 0.0 ($RES_SIM_460)
(125)     [SCAL] (1) EVA.wall.layer[3].port_ext[10].T = EVA.wall.port_ext[10].T ($RES_SIM_636)
(126)     [SCAL] (1) EVA.wall.layer[1].port_ext[17].Q_flow + EVA.wall.layer[2].port_int[17].Q_flow = 0.0 ($RES_SIM_461)
(127)     [SCAL] (1) EVA.wall.layer[3].port_ext[9].T = EVA.wall.port_ext[9].T ($RES_SIM_637)
(128)     [SCAL] (1) EVA.wall.layer[1].port_ext[16].Q_flow + EVA.wall.layer[2].port_int[16].Q_flow = 0.0 ($RES_SIM_462)
(129)     [SCAL] (1) EVA.wall.layer[3].port_ext[8].T = EVA.wall.port_ext[8].T ($RES_SIM_638)
(130)     [SCAL] (1) EVA.wall.layer[1].port_ext[15].Q_flow + EVA.wall.layer[2].port_int[15].Q_flow = 0.0 ($RES_SIM_463)
(131)     [SCAL] (1) EVA.wall.layer[3].port_ext[7].T = EVA.wall.port_ext[7].T ($RES_SIM_639)
(132)     [SCAL] (1) EVA.wall.layer[1].port_ext[14].Q_flow + EVA.wall.layer[2].port_int[14].Q_flow = 0.0 ($RES_SIM_464)
(133)     [SCAL] (1) EVA.wall.layer[1].port_ext[13].Q_flow + EVA.wall.layer[2].port_int[13].Q_flow = 0.0 ($RES_SIM_465)
(134)     [SCAL] (1) EVA.wall.layer[1].port_ext[12].Q_flow + EVA.wall.layer[2].port_int[12].Q_flow = 0.0 ($RES_SIM_466)
(135)     [SCAL] (1) EVA.wall.layer[1].port_ext[11].Q_flow + EVA.wall.layer[2].port_int[11].Q_flow = 0.0 ($RES_SIM_467)
(136)     [SCAL] (1) EVA.wall.layer[1].port_ext[10].Q_flow + EVA.wall.layer[2].port_int[10].Q_flow = 0.0 ($RES_SIM_468)
(137)     [SCAL] (1) EVA.wall.layer[1].port_ext[9].Q_flow + EVA.wall.layer[2].port_int[9].Q_flow = 0.0 ($RES_SIM_469)
(138)     [SCAL] (1) watersink_ph.water.phase = watersink_ph.water.state.phase ($RES_SIM_298)
(139)     [SCAL] (1) watersink_ph.water.d = watersink_ph.water.state.d ($RES_SIM_299)
(140)     [SCAL] (1) ECO.wall.layer[3].port_ext[7].Q_flow - ECO.wall.port_ext[7].Q_flow = 0.0 ($RES_SIM_380)
(141)     [SCAL] (1) ECO.wall.layer[3].port_ext[6].Q_flow - ECO.wall.port_ext[6].Q_flow = 0.0 ($RES_SIM_381)
(142)     [SCAL] (1) ECO.wall.layer[3].port_ext[5].Q_flow - ECO.wall.port_ext[5].Q_flow = 0.0 ($RES_SIM_382)
(143)     [SCAL] (1) ECO.wall.layer[3].port_ext[4].Q_flow - ECO.wall.port_ext[4].Q_flow = 0.0 ($RES_SIM_383)
(144)     [SCAL] (1) ECO.wall.layer[3].port_ext[3].Q_flow - ECO.wall.port_ext[3].Q_flow = 0.0 ($RES_SIM_384)
(145)     [SCAL] (1) ECO.wall.layer[3].port_ext[2].Q_flow - ECO.wall.port_ext[2].Q_flow = 0.0 ($RES_SIM_385)
(146)     [SCAL] (1) ECO.wall.layer[3].port_ext[1].Q_flow - ECO.wall.port_ext[1].Q_flow = 0.0 ($RES_SIM_386)
(147)     [SCAL] (1) ECO.wall.layer[2].port_ext[10].Q_flow + ECO.wall.layer[3].port_int[10].Q_flow = 0.0 ($RES_SIM_387)
(148)     [SCAL] (1) ECO.wall.layer[2].port_ext[9].Q_flow + ECO.wall.layer[3].port_int[9].Q_flow = 0.0 ($RES_SIM_388)
(149)     [SCAL] (1) EVA.wall.layer[3].port_ext[6].T = EVA.wall.port_ext[6].T ($RES_SIM_640)
(150)     [SCAL] (1) ECO.wall.layer[2].port_ext[8].Q_flow + ECO.wall.layer[3].port_int[8].Q_flow = 0.0 ($RES_SIM_389)
(151)     [SCAL] (1) EVA.wall.layer[3].port_ext[5].T = EVA.wall.port_ext[5].T ($RES_SIM_641)
(152)     [SCAL] (1) EVA.wall.layer[3].port_ext[4].T = EVA.wall.port_ext[4].T ($RES_SIM_642)
(153)     [SCAL] (1) EVA.wall.layer[3].port_ext[3].T = EVA.wall.port_ext[3].T ($RES_SIM_643)
(154)     [SCAL] (1) EVA.wall.layer[3].port_ext[2].T = EVA.wall.port_ext[2].T ($RES_SIM_644)
(155)     [SCAL] (1) EVA.wall.layer[3].port_ext[1].T = EVA.wall.port_ext[1].T ($RES_SIM_645)
(156)     [SCAL] (1) EVA.wall.layer[1].port_ext[8].Q_flow + EVA.wall.layer[2].port_int[8].Q_flow = 0.0 ($RES_SIM_470)
(157)     [SCAL] (1) EVA.wall.layer[2].port_ext[20].T = EVA.wall.layer[3].port_int[20].T ($RES_SIM_646)
(158)     [SCAL] (1) EVA.wall.layer[1].port_ext[7].Q_flow + EVA.wall.layer[2].port_int[7].Q_flow = 0.0 ($RES_SIM_471)
(159)     [SCAL] (1) EVA.wall.layer[2].port_ext[19].T = EVA.wall.layer[3].port_int[19].T ($RES_SIM_647)
(160)     [SCAL] (1) EVA.wall.layer[1].port_ext[6].Q_flow + EVA.wall.layer[2].port_int[6].Q_flow = 0.0 ($RES_SIM_472)
(161)     [SCAL] (1) EVA.wall.layer[2].port_ext[18].T = EVA.wall.layer[3].port_int[18].T ($RES_SIM_648)
(162)     [SCAL] (1) EVA.wall.layer[1].port_ext[5].Q_flow + EVA.wall.layer[2].port_int[5].Q_flow = 0.0 ($RES_SIM_473)
(163)     [SCAL] (1) EVA.wall.layer[2].port_ext[17].T = EVA.wall.layer[3].port_int[17].T ($RES_SIM_649)
(164)     [SCAL] (1) EVA.wall.layer[1].port_ext[4].Q_flow + EVA.wall.layer[2].port_int[4].Q_flow = 0.0 ($RES_SIM_474)
(165)     [SCAL] (1) EVA.wall.layer[1].port_ext[3].Q_flow + EVA.wall.layer[2].port_int[3].Q_flow = 0.0 ($RES_SIM_475)
(166)     [SCAL] (1) EVA.wall.layer[1].port_ext[2].Q_flow + EVA.wall.layer[2].port_int[2].Q_flow = 0.0 ($RES_SIM_476)
(167)     [SCAL] (1) EVA.wall.layer[1].port_ext[1].Q_flow + EVA.wall.layer[2].port_int[1].Q_flow = 0.0 ($RES_SIM_477)
(168)     [SCAL] (1) EVA.wall.layer[1].port_int[20].Q_flow - EVA.wall.port_int[20].Q_flow = 0.0 ($RES_SIM_478)
(169)     [SCAL] (1) EVA.wall.layer[1].port_int[19].Q_flow - EVA.wall.port_int[19].Q_flow = 0.0 ($RES_SIM_479)
(170)     [SCAL] (1) ECO.wall.layer[2].port_ext[7].Q_flow + ECO.wall.layer[3].port_int[7].Q_flow = 0.0 ($RES_SIM_390)
(171)     [SCAL] (1) ECO.wall.layer[2].port_ext[6].Q_flow + ECO.wall.layer[3].port_int[6].Q_flow = 0.0 ($RES_SIM_391)
(172)     [SCAL] (1) ECO.wall.layer[2].port_ext[5].Q_flow + ECO.wall.layer[3].port_int[5].Q_flow = 0.0 ($RES_SIM_392)
(173)     [SCAL] (1) ECO.wall.layer[2].port_ext[4].Q_flow + ECO.wall.layer[3].port_int[4].Q_flow = 0.0 ($RES_SIM_393)
(174)     [SCAL] (1) ECO.wall.layer[2].port_ext[3].Q_flow + ECO.wall.layer[3].port_int[3].Q_flow = 0.0 ($RES_SIM_394)
(175)     [SCAL] (1) ECO.wall.layer[2].port_ext[2].Q_flow + ECO.wall.layer[3].port_int[2].Q_flow = 0.0 ($RES_SIM_395)
(176)     [SCAL] (1) ECO.wall.layer[2].port_ext[1].Q_flow + ECO.wall.layer[3].port_int[1].Q_flow = 0.0 ($RES_SIM_396)
(177)     [SCAL] (1) ECO.wall.layer[1].port_ext[10].Q_flow + ECO.wall.layer[2].port_int[10].Q_flow = 0.0 ($RES_SIM_397)
(178)     [SCAL] (1) ECO.wall.layer[1].port_ext[9].Q_flow + ECO.wall.layer[2].port_int[9].Q_flow = 0.0 ($RES_SIM_398)
(179)     [SCAL] (1) EVA.wall.layer[2].port_ext[16].T = EVA.wall.layer[3].port_int[16].T ($RES_SIM_650)
(180)     [SCAL] (1) ECO.wall.layer[1].port_ext[8].Q_flow + ECO.wall.layer[2].port_int[8].Q_flow = 0.0 ($RES_SIM_399)
(181)     [SCAL] (1) EVA.wall.layer[2].port_ext[15].T = EVA.wall.layer[3].port_int[15].T ($RES_SIM_651)
(182)     [SCAL] (1) EVA.wall.layer[2].port_ext[14].T = EVA.wall.layer[3].port_int[14].T ($RES_SIM_652)
(183)     [SCAL] (1) EVA.wall.layer[2].port_ext[13].T = EVA.wall.layer[3].port_int[13].T ($RES_SIM_653)
(184)     [SCAL] (1) EVA.wall.layer[2].port_ext[12].T = EVA.wall.layer[3].port_int[12].T ($RES_SIM_654)
(185)     [SCAL] (1) EVA.wall.layer[2].port_ext[11].T = EVA.wall.layer[3].port_int[11].T ($RES_SIM_655)
(186)     [SCAL] (1) EVA.wall.layer[1].port_int[18].Q_flow - EVA.wall.port_int[18].Q_flow = 0.0 ($RES_SIM_480)
(187)     [SCAL] (1) EVA.wall.layer[2].port_ext[10].T = EVA.wall.layer[3].port_int[10].T ($RES_SIM_656)
(188)     [SCAL] (1) EVA.wall.layer[1].port_int[17].Q_flow - EVA.wall.port_int[17].Q_flow = 0.0 ($RES_SIM_481)
(189)     [SCAL] (1) EVA.wall.layer[2].port_ext[9].T = EVA.wall.layer[3].port_int[9].T ($RES_SIM_657)
(190)     [SCAL] (1) EVA.wall.layer[1].port_int[16].Q_flow - EVA.wall.port_int[16].Q_flow = 0.0 ($RES_SIM_482)
(191)     [SCAL] (1) EVA.wall.layer[2].port_ext[8].T = EVA.wall.layer[3].port_int[8].T ($RES_SIM_658)
(192)     [SCAL] (1) EVA.wall.layer[1].port_int[15].Q_flow - EVA.wall.port_int[15].Q_flow = 0.0 ($RES_SIM_483)
(193)     [ALGO] (5) ($RES_SIM_27)
(193)     [----] assert(not (timeTable1.originalTable.table[1, 1] > 0.0 or timeTable1.originalTable.table[1, 1] < 0.0), "The first point in time has to be set to 0, but is table[1,1] = " + String(timeTable1.originalTable.table[1, 1], 6, 0, true), AssertionLevel.error);

(193)     [----] when {time >= $PRE.timeTable1.originalTable.nextEvent, initial()} then
(193)     [----]   (timeTable1.originalTable.a, timeTable1.originalTable.b, timeTable1.originalTable.nextEventScaled, timeTable1.originalTable.last) := ($FUN_26, $FUN_27, $FUN_28, $FUN_29);
(193)     [----]   timeTable1.originalTable.nextEvent := timeTable1.originalTable.nextEventScaled;
(193)     [----] end when;

(194)     [SCAL] (1) EVA.wall.layer[2].port_ext[7].T = EVA.wall.layer[3].port_int[7].T ($RES_SIM_659)
(195)     [SCAL] (1) EVA.wall.layer[1].port_int[14].Q_flow - EVA.wall.port_int[14].Q_flow = 0.0 ($RES_SIM_484)
(196)     [SCAL] (1) EVA.wall.layer[1].port_int[13].Q_flow - EVA.wall.port_int[13].Q_flow = 0.0 ($RES_SIM_485)
(197)     [ALGO] (5) ($RES_SIM_29)
(197)     [----] assert(not (timeTable.originalTable.table[1, 1] > 0.0 or timeTable.originalTable.table[1, 1] < 0.0), "The first point in time has to be set to 0, but is table[1,1] = " + String(timeTable.originalTable.table[1, 1], 6, 0, true), AssertionLevel.error);

(197)     [----] when {time >= $PRE.timeTable.originalTable.nextEvent, initial()} then
(197)     [----]   (timeTable.originalTable.a, timeTable.originalTable.b, timeTable.originalTable.nextEventScaled, timeTable.originalTable.last) := ($FUN_22, $FUN_23, $FUN_24, $FUN_25);
(197)     [----]   timeTable.originalTable.nextEvent := timeTable.originalTable.nextEventScaled;
(197)     [----] end when;

(198)     [SCAL] (1) EVA.wall.layer[1].port_int[12].Q_flow - EVA.wall.port_int[12].Q_flow = 0.0 ($RES_SIM_486)
(199)     [SCAL] (1) EVA.wall.layer[1].port_int[11].Q_flow - EVA.wall.port_int[11].Q_flow = 0.0 ($RES_SIM_487)
(200)     [SCAL] (1) EVA.wall.layer[1].port_int[10].Q_flow - EVA.wall.port_int[10].Q_flow = 0.0 ($RES_SIM_488)
(201)     [SCAL] (1) EVA.wall.layer[1].port_int[9].Q_flow - EVA.wall.port_int[9].Q_flow = 0.0 ($RES_SIM_489)
(202)     [FOR-] (10) ($RES_SIM_571)
(202)     [----] for $i1 in 1:10 loop
(202)     [----]   [SCAL] (1) ECO.wall.port_int[$i1].Q_flow + ECO.heatport.port[$i1].Q_flow = 0.0 ($RES_SIM_572)
(202)     [----] end for;
(203)     [SCAL] (1) EVA.state_from_a.h = ECO.portOut.h_outflow ($RES_SIM_747)
(204)     [ARRY] (10) ECO.wall.port_int.T = ECO.heatport.port.T ($RES_SIM_573)
(205)     [SCAL] (1) EVA.state_from_a.d = Modelica.Media.Water.IF97_Utilities.rho_ph(ECO.portOut.p, ECO.portOut.h_outflow, 0, 0) ($RES_SIM_748)
(206)     [FOR-] (10) ($RES_SIM_574)
(206)     [----] for $i1 in 1:10 loop
(206)     [----]   [SCAL] (1) ECO.wall.port_ext[$i1].Q_flow - ECO.gasSide[$i1].Q_flow = 0.0 ($RES_SIM_575)
(206)     [----] end for;
(207)     [SCAL] (1) EVA.state_from_a.T = Modelica.Media.Water.IF97_Utilities.T_ph(ECO.portOut.p, ECO.portOut.h_outflow, 0, 0) ($RES_SIM_749)
(208)     [ARRY] (10) ECO.gasSide.T = ECO.wall.port_ext.T ($RES_SIM_576)
(209)     [SCAL] (1) ECO.wall.layer[3].port_ext[10].T = ECO.wall.port_ext[10].T ($RES_SIM_577)
(210)     [SCAL] (1) ECO.wall.layer[3].port_ext[9].T = ECO.wall.port_ext[9].T ($RES_SIM_578)
(211)     [SCAL] (1) ECO.wall.layer[3].port_ext[8].T = ECO.wall.port_ext[8].T ($RES_SIM_579)
(212)     [SCAL] (1) EVA.wall.layer[2].port_ext[6].T = EVA.wall.layer[3].port_int[6].T ($RES_SIM_660)
(213)     [SCAL] (1) EVA.wall.layer[2].port_ext[5].T = EVA.wall.layer[3].port_int[5].T ($RES_SIM_661)
(214)     [SCAL] (1) EVA.wall.layer[2].port_ext[4].T = EVA.wall.layer[3].port_int[4].T ($RES_SIM_662)
(215)     [SCAL] (1) EVA.wall.layer[2].port_ext[3].T = EVA.wall.layer[3].port_int[3].T ($RES_SIM_663)
(216)     [SCAL] (1) EVA.wall.layer[2].port_ext[2].T = EVA.wall.layer[3].port_int[2].T ($RES_SIM_664)
(217)     [SCAL] (1) EVA.wall.layer[2].port_ext[1].T = EVA.wall.layer[3].port_int[1].T ($RES_SIM_665)
(218)     [SCAL] (1) EVA.wall.layer[1].port_int[8].Q_flow - EVA.wall.port_int[8].Q_flow = 0.0 ($RES_SIM_490)
(219)     [SCAL] (1) EVA.wall.layer[1].port_ext[20].T = EVA.wall.layer[2].port_int[20].T ($RES_SIM_666)
(220)     [SCAL] (1) EVA.wall.layer[1].port_int[7].Q_flow - EVA.wall.port_int[7].Q_flow = 0.0 ($RES_SIM_491)
(221)     [SCAL] (1) EVA.wall.layer[1].port_ext[19].T = EVA.wall.layer[2].port_int[19].T ($RES_SIM_667)
(222)     [SCAL] (1) EVA.wall.layer[1].port_int[6].Q_flow - EVA.wall.port_int[6].Q_flow = 0.0 ($RES_SIM_492)
(223)     [SCAL] (1) EVA.wall.layer[1].port_ext[18].T = EVA.wall.layer[2].port_int[18].T ($RES_SIM_668)
(224)     [SCAL] (1) EVA.wall.layer[1].port_int[5].Q_flow - EVA.wall.port_int[5].Q_flow = 0.0 ($RES_SIM_493)
(225)     [SCAL] (1) EVA.wall.layer[1].port_ext[17].T = EVA.wall.layer[2].port_int[17].T ($RES_SIM_669)
(226)     [SCAL] (1) EVA.wall.layer[1].port_int[4].Q_flow - EVA.wall.port_int[4].Q_flow = 0.0 ($RES_SIM_494)
(227)     [SCAL] (1) EVA.wall.layer[1].port_int[3].Q_flow - EVA.wall.port_int[3].Q_flow = 0.0 ($RES_SIM_495)
(228)     [SCAL] (1) EVA.wall.layer[1].port_int[2].Q_flow - EVA.wall.port_int[2].Q_flow = 0.0 ($RES_SIM_496)
(229)     [SCAL] (1) EVA.wall.layer[1].port_int[1].Q_flow - EVA.wall.port_int[1].Q_flow = 0.0 ($RES_SIM_497)
(230)     [SCAL] (1) EVA.state_from_a.p = ECO.portOut.p ($RES_SIM_750)
(231)     [SCAL] (1) EVA.state_from_b.d = Modelica.Media.Water.IF97_Utilities.rho_ph(99999.99999999999 * watersink_ph.water.p_bar, watersink_ph.h_start, 0, 0) ($RES_SIM_753)
(232)     [SCAL] (1) EVA.state_from_b.T = Modelica.Media.Water.IF97_Utilities.T_ph(99999.99999999999 * watersink_ph.water.p_bar, watersink_ph.h_start, 0, 0) ($RES_SIM_754)
(233)     [SCAL] (1) ECO.wall.layer[3].port_ext[7].T = ECO.wall.port_ext[7].T ($RES_SIM_580)
(234)     [SCAL] (1) EVA.state_from_b.p = 99999.99999999999 * watersink_ph.water.p_bar ($RES_SIM_755)
(235)     [SCAL] (1) ECO.wall.layer[3].port_ext[6].T = ECO.wall.port_ext[6].T ($RES_SIM_581)
(236)     [SCAL] (1) ECO.wall.layer[3].port_ext[5].T = ECO.wall.port_ext[5].T ($RES_SIM_582)
(237)     [SCAL] (1) ECO.wall.layer[3].port_ext[4].T = ECO.wall.port_ext[4].T ($RES_SIM_583)
(238)     [SCAL] (1) ECO.state_from_a.d = Modelica.Media.Water.IF97_Utilities.rho_ph(99999.99999999999 * watersource_mh.medium.p_bar, watersource_mh.h_start, 0, 0) ($RES_SIM_758)
(239)     [SCAL] (1) ECO.wall.layer[3].port_ext[3].T = ECO.wall.port_ext[3].T ($RES_SIM_584)
(240)     [SCAL] (1) ECO.state_from_a.T = Modelica.Media.Water.IF97_Utilities.T_ph(99999.99999999999 * watersource_mh.medium.p_bar, watersource_mh.h_start, 0, 0) ($RES_SIM_759)
(241)     [SCAL] (1) ECO.wall.layer[3].port_ext[2].T = ECO.wall.port_ext[2].T ($RES_SIM_585)
(242)     [SCAL] (1) ECO.wall.layer[3].port_ext[1].T = ECO.wall.port_ext[1].T ($RES_SIM_586)
(243)     [SCAL] (1) ECO.wall.layer[2].port_ext[10].T = ECO.wall.layer[3].port_int[10].T ($RES_SIM_587)
(244)     [SCAL] (1) ECO.wall.layer[2].port_ext[9].T = ECO.wall.layer[3].port_int[9].T ($RES_SIM_588)
(245)     [SCAL] (1) ECO.wall.layer[2].port_ext[8].T = ECO.wall.layer[3].port_int[8].T ($RES_SIM_589)
(246)     [SCAL] (1) EVA.wall.layer[1].port_ext[16].T = EVA.wall.layer[2].port_int[16].T ($RES_SIM_670)
(247)     [SCAL] (1) EVA.wall.layer[1].port_ext[15].T = EVA.wall.layer[2].port_int[15].T ($RES_SIM_671)
(248)     [SCAL] (1) EVA.wall.layer[1].port_ext[14].T = EVA.wall.layer[2].port_int[14].T ($RES_SIM_672)
(249)     [SCAL] (1) EVA.wall.layer[1].port_ext[13].T = EVA.wall.layer[2].port_int[13].T ($RES_SIM_673)
(250)     [SCAL] (1) EVA.wall.layer[1].port_ext[12].T = EVA.wall.layer[2].port_int[12].T ($RES_SIM_674)
(251)     [SCAL] (1) EVA.wall.layer[1].port_ext[11].T = EVA.wall.layer[2].port_int[11].T ($RES_SIM_675)
(252)     [SCAL] (1) EVA.wall.layer[1].port_ext[10].T = EVA.wall.layer[2].port_int[10].T ($RES_SIM_676)
(253)     [SCAL] (1) EVA.wall.layer[1].port_ext[9].T = EVA.wall.layer[2].port_int[9].T ($RES_SIM_677)
(254)     [SCAL] (1) EVA.wall.layer[1].port_ext[8].T = EVA.wall.layer[2].port_int[8].T ($RES_SIM_678)
(255)     [SCAL] (1) EVA.wall.layer[1].port_ext[7].T = EVA.wall.layer[2].port_int[7].T ($RES_SIM_679)
(256)     [SCAL] (1) ECO.state_from_a.p = 99999.99999999999 * watersource_mh.medium.p_bar ($RES_SIM_760)
(257)     [SCAL] (1) ECO.state_from_b.h = EVA.portIn.h_outflow ($RES_SIM_762)
(258)     [SCAL] (1) ECO.state_from_b.d = Modelica.Media.Water.IF97_Utilities.rho_ph(ECO.portOut.p, EVA.portIn.h_outflow, 0, 0) ($RES_SIM_763)
(259)     [SCAL] (1) ECO.state_from_b.T = Modelica.Media.Water.IF97_Utilities.T_ph(ECO.portOut.p, EVA.portIn.h_outflow, 0, 0) ($RES_SIM_764)
(260)     [SCAL] (1) ECO.wall.layer[2].port_ext[7].T = ECO.wall.layer[3].port_int[7].T ($RES_SIM_590)
(261)     [SCAL] (1) ECO.state_from_b.p = ECO.portOut.p ($RES_SIM_765)
(262)     [SCAL] (1) ECO.wall.layer[2].port_ext[6].T = ECO.wall.layer[3].port_int[6].T ($RES_SIM_591)
(263)     [SCAL] (1) ECO.wall.layer[2].port_ext[5].T = ECO.wall.layer[3].port_int[5].T ($RES_SIM_592)
(264)     [SCAL] (1) ECO.wall.layer[2].port_ext[4].T = ECO.wall.layer[3].port_int[4].T ($RES_SIM_593)
(265)     [SCAL] (1) ECO.wall.layer[2].port_ext[3].T = ECO.wall.layer[3].port_int[3].T ($RES_SIM_594)
(266)     [SCAL] (1) ECO.wall.layer[2].port_ext[2].T = ECO.wall.layer[3].port_int[2].T ($RES_SIM_595)
(267)     [SCAL] (1) ECO.wall.layer[2].port_ext[1].T = ECO.wall.layer[3].port_int[1].T ($RES_SIM_596)
(268)     [SCAL] (1) ECO.wall.layer[1].port_ext[10].T = ECO.wall.layer[2].port_int[10].T ($RES_SIM_597)
(269)     [SCAL] (1) ECO.wall.layer[1].port_ext[9].T = ECO.wall.layer[2].port_int[9].T ($RES_SIM_598)
(270)     [SCAL] (1) ECO.wall.layer[1].port_ext[8].T = ECO.wall.layer[2].port_int[8].T ($RES_SIM_599)
(271)     [SCAL] (1) EVA.wall.layer[1].port_ext[6].T = EVA.wall.layer[2].port_int[6].T ($RES_SIM_680)
(272)     [SCAL] (1) EVA.wall.layer[1].port_ext[5].T = EVA.wall.layer[2].port_int[5].T ($RES_SIM_681)
(273)     [SCAL] (1) EVA.wall.layer[1].port_ext[4].T = EVA.wall.layer[2].port_int[4].T ($RES_SIM_682)
(274)     [SCAL] (1) EVA.wall.layer[1].port_ext[3].T = EVA.wall.layer[2].port_int[3].T ($RES_SIM_683)
(275)     [SCAL] (1) EVA.wall.layer[1].port_ext[2].T = EVA.wall.layer[2].port_int[2].T ($RES_SIM_684)
(276)     [SCAL] (1) EVA.wall.layer[1].port_ext[1].T = EVA.wall.layer[2].port_int[1].T ($RES_SIM_685)
(277)     [SCAL] (1) EVA.wall.layer[1].port_int[20].T = EVA.wall.port_int[20].T ($RES_SIM_686)
(278)     [SCAL] (1) EVA.wall.layer[1].port_int[19].T = EVA.wall.port_int[19].T ($RES_SIM_687)
(279)     [SCAL] (1) EVA.wall.layer[1].port_int[18].T = EVA.wall.port_int[18].T ($RES_SIM_688)
(280)     [SCAL] (1) EVA.wall.layer[1].port_int[17].T = EVA.wall.port_int[17].T ($RES_SIM_689)
(281)     [SCAL] (1) EVA.wall.layer[1].port_int[16].T = EVA.wall.port_int[16].T ($RES_SIM_690)
(282)     [SCAL] (1) EVA.wall.layer[1].port_int[15].T = EVA.wall.port_int[15].T ($RES_SIM_691)
(283)     [SCAL] (1) EVA.wall.layer[1].port_int[14].T = EVA.wall.port_int[14].T ($RES_SIM_692)
(284)     [SCAL] (1) EVA.wall.layer[1].port_int[13].T = EVA.wall.port_int[13].T ($RES_SIM_693)
(285)     [SCAL] (1) EVA.wall.layer[1].port_int[12].T = EVA.wall.port_int[12].T ($RES_SIM_694)
(286)     [SCAL] (1) EVA.wall.layer[1].port_int[11].T = EVA.wall.port_int[11].T ($RES_SIM_695)
(287)     [SCAL] (1) EVA.wall.layer[1].port_int[10].T = EVA.wall.port_int[10].T ($RES_SIM_696)
(288)     [SCAL] (1) EVA.wall.layer[1].port_int[9].T = EVA.wall.port_int[9].T ($RES_SIM_697)
(289)     [SCAL] (1) EVA.wall.layer[1].port_int[8].T = EVA.wall.port_int[8].T ($RES_SIM_698)
(290)     [SCAL] (1) EVA.wall.layer[1].port_int[7].T = EVA.wall.port_int[7].T ($RES_SIM_699)
(291)     [FOR-] (3) ($RES_$AUX_744)
(291)     [----] for $i1 in 1:3 loop
(291)     [----]   [SCAL] (1) $FUN_1[$i1] = log((EVA.wall.layer[$i1].rext + EVA.wall.layer[$i1].rint) / (EVA.wall.layer[$i1].rint * 2.0)) ($RES_$AUX_745)
(291)     [----] end for;
(292)     [FOR-] (3) ($RES_$AUX_742)
(292)     [----] for $i1 in 1:3 loop
(292)     [----]   [SCAL] (1) $FUN_2[$i1] = log((EVA.wall.layer[$i1].rext * 2.0) / (EVA.wall.layer[$i1].rint + EVA.wall.layer[$i1].rext)) ($RES_$AUX_743)
(292)     [----] end for;
(293)     [SCAL] (1) 20.0 * EVA.dAverage = sum(EVA.d) ($RES_$AUX_741)
(294)     [SCAL] (1) 20.0 * EVA.volAverage = sum(EVA.vol) ($RES_$AUX_740)
(295)     [FOR-] (30) ($RES_SIM_202)
(295)     [----] for {$i1 in 1:3, $i2 in 1:10} loop
(295)     [----]   [SCAL] (1) ECO.wall.layer[$i1].port_ext[$i2].Q_flow = ((ECO.wall.layer[$i1].port_ext[$i2].T - ECO.wall.layer[$i1].T[$i2]) * ECO.wall.layer[$i1].numberOfParallelTubes * ((ECO.wall.layer[$i1].length * 3.141592653589793 * 2.0 * ECO.wall.layer[$i1].metal.lambda) / 10.0)) / $FUN_9[$i1] ($RES_SIM_203)
(295)     [----] end for;
(296)     [FOR-] (30) ($RES_SIM_204)
(296)     [----] for {$i1 in 1:3, $i2 in 1:10} loop
(296)     [----]   [SCAL] (1) ECO.wall.layer[$i1].port_int[$i2].Q_flow = ((ECO.wall.layer[$i1].port_int[$i2].T - ECO.wall.layer[$i1].T[$i2]) * ECO.wall.layer[$i1].numberOfParallelTubes * ((ECO.wall.layer[$i1].length * 3.141592653589793 * 2.0 * ECO.wall.layer[$i1].metal.lambda) / 10.0)) / $FUN_8[$i1] ($RES_SIM_205)
(296)     [----] end for;
(297)     [FOR-] (3) ($RES_SIM_206)
(297)     [----] for $i1 in 1:3 loop
(297)     [----]   [SCAL] (1) ECO.wall.layer[$i1].Am = (ECO.wall.layer[$i1].rext ^ 2.0 - ECO.wall.layer[$i1].rint ^ 2.0) * 3.141592653589793 ($RES_SIM_207)
(297)     [----] end for;
(298)     [FOR-] (30) ($RES_SIM_208)
(298)     [----] for {$i1 in 1:3, $i2 in 1:10} loop
(298)     [----]   [SCAL] (1) ECO.wall.layer[$i1].HeatCap * $DER.ECO.wall.layer[$i1].T[$i2] = ECO.wall.layer[$i1].port_int[$i2].Q_flow + ECO.wall.layer[$i1].port_ext[$i2].Q_flow ($RES_SIM_209)
(298)     [----] end for;
(299)     [SCAL] (1) $FUN_5 = log10(EVA.geoPipe.r / EVA.di) ($RES_$AUX_739)
(300)     [SCAL] (1) $FUN_6 = abs(EVA.m_flow) ($RES_$AUX_738)
(301)     [SCAL] (1) $FUN_7 = sum(EVA.drdp) ($RES_$AUX_737)
(302)     [FOR-] (3) ($RES_$AUX_735)
(302)     [----] for $i1 in 1:3 loop
(302)     [----]   [SCAL] (1) $FUN_8[$i1] = log((ECO.wall.layer[$i1].rext + ECO.wall.layer[$i1].rint) / (ECO.wall.layer[$i1].rint * 2.0)) ($RES_$AUX_736)
(302)     [----] end for;
(303)     [FOR-] (3) ($RES_$AUX_733)
(303)     [----] for $i1 in 1:3 loop
(303)     [----]   [SCAL] (1) $FUN_9[$i1] = log((ECO.wall.layer[$i1].rext * 2.0) / (ECO.wall.layer[$i1].rint + ECO.wall.layer[$i1].rext)) ($RES_$AUX_734)
(303)     [----] end for;
(304)     [SCAL] (1) 10.0 * ECO.dAverage = sum(ECO.d) ($RES_$AUX_732)
(305)     [SCAL] (1) 10.0 * ECO.volAverage = sum(ECO.vol) ($RES_$AUX_731)
(306)     [SCAL] (1) $FUN_12 = log10(ECO.geoPipe.r / ECO.di) ($RES_$AUX_730)
(307)     [FOR-] (3) ($RES_SIM_210)
(307)     [----] for $i1 in 1:3 loop
(307)     [----]   [SCAL] (1) ECO.wall.layer[$i1].HeatCap = ECO.wall.layer[$i1].metal.cp * ECO.wall.layer[$i1].Tube_mass ($RES_SIM_211)
(307)     [----] end for;
(308)     [FOR-] (3) ($RES_SIM_212)
(308)     [----] for $i1 in 1:3 loop
(308)     [----]   [SCAL] (1) ECO.wall.layer[$i1].Tube_mass = ((ECO.wall.layer[$i1].length * ECO.wall.layer[$i1].Am * ECO.wall.layer[$i1].metal.rho) / 10.0) * ECO.wall.layer[$i1].numberOfParallelTubes ($RES_SIM_213)
(308)     [----] end for;
(309)     [FOR-] (3) ($RES_SIM_214)
(309)     [----] for $i1 in 1:3 loop
(309)     [----]   [SCAL] (1) ECO.wall.layer[$i1].rext = ECO.wall.layer[$i1].diameterInner * 0.5 + 0.001 ($RES_SIM_215)
(309)     [----] end for;
(310)     [FOR-] (3) ($RES_SIM_216)
(310)     [----] for $i1 in 1:3 loop
(310)     [----]   [SCAL] (1) ECO.wall.layer[$i1].rint = ECO.wall.layer[$i1].diameterInner * 0.5 ($RES_SIM_217)
(310)     [----] end for;
(311)     [SCAL] (1) $DER.prescribedHeatFlow.Q_flow = (timeTable.C1signal.u - prescribedHeatFlow.Q_flow) / timeTable.C1signal.timeDelay ($RES_SIM_218)
(312)     [SCAL] (1) timeTable.C1signal.u = timeTable.originalTable.a * time + timeTable.originalTable.b ($RES_SIM_219)
(313)     [SCAL] (1) -((-273.15) - watersink_ph.water.T_degC) = watersink_ph.water.state.T ($RES_SIM_300)
(314)     [SCAL] (1) 99999.99999999999 * watersink_ph.water.p_bar = watersink_ph.water.state.p ($RES_SIM_301)
(315)     [SCAL] (1) watersink_ph.water.u = watersink_ph.h_start - (99999.99999999999 * watersink_ph.water.p_bar) / watersink_ph.water.d ($RES_SIM_304)
(316)     [SCAL] (1) watersink_ph.water.sat.psat = 99999.99999999999 * watersink_ph.water.p_bar ($RES_SIM_305)
(317)     [SCAL] (1) watersink_ph.water.sat.Tsat = Modelica.Media.Water.IF97_Utilities.BaseIF97.Basic.tsat(99999.99999999999 * watersink_ph.water.p_bar) ($RES_SIM_306)
(318)     [SCAL] (1) $FUN_13 = abs(ECO.m_flow) ($RES_$AUX_729)
(319)     [SCAL] (1) -((-273.15) - watersink_ph.water.T_degC) = Modelica.Media.Water.IF97_Utilities.T_props_ph(99999.99999999999 * watersink_ph.water.p_bar, watersink_ph.h_start, Modelica.Media.Water.IF97_Utilities.waterBaseProp_ph(99999.99999999999 * watersink_ph.water.p_bar, watersink_ph.h_start, watersink_ph.water.phase, 0)) ($RES_SIM_307)
(320)     [SCAL] (1) $FUN_14 = sum(ECO.drdp) ($RES_$AUX_728)
(321)     [SCAL] (1) watersink_ph.water.d = Modelica.Media.Water.IF97_Utilities.rho_props_ph(99999.99999999999 * watersink_ph.water.p_bar, watersink_ph.h_start, Modelica.Media.Water.IF97_Utilities.waterBaseProp_ph(99999.99999999999 * watersink_ph.water.p_bar, watersink_ph.h_start, watersink_ph.water.phase, 0)) ($RES_SIM_308)
(322)     [SCAL] (1) watersink_ph.water.phase = if $SEV_35 then 1 else 2 ($RES_SIM_309)
(323)     [SCAL] (1) EVA.dp = ECO.portOut.p - 99999.99999999999 * watersink_ph.water.p_bar ($RES_SIM_221)
(324)     [-IF-] (1)if noEvent($SEV_28) then
(324)     [----]   [SCAL] (1) EVA.hOut = watersink_ph.h_start ($RES_SIM_223)
(324)     [----] else
(324)     [----]   [SCAL] (1) EVA.hOut = EVA.portOut.h_outflow ($RES_SIM_224)
(324)     [----] end if;
(325)     [-IF-] (1)if noEvent($SEV_29) then
(325)     [----]   [SCAL] (1) EVA.hIn = ECO.portOut.h_outflow ($RES_SIM_226)
(325)     [----] else
(325)     [----]   [SCAL] (1) EVA.hIn = EVA.portIn.h_outflow ($RES_SIM_227)
(325)     [----] end if;
(326)     [SCAL] (1) watersource_mh.h_port_actual = noEvent(if $SEV_36 then ECO.portIn.h_outflow else watersource_mh.h_start) ($RES_SIM_311)
(327)     [TUPL] (4) ($FUN_22, $FUN_23, $FUN_24, $FUN_25) = SiemensPower.Components.Pipes.Tests.tube_ownMedia_test.timeTable.originalTable.getInterpolationCoefficients(timeTable.originalTable.table, timeTable.originalTable.offset, timeTable.originalTable.startTime, time, timeTable.originalTable.last, 1e-13, timeTable.originalTable.shiftTime) ($RES_$AUX_718)
(328)     [TUPL] (4) ($FUN_26, $FUN_27, $FUN_28, $FUN_29) = SiemensPower.Components.Pipes.Tests.tube_ownMedia_test.timeTable1.originalTable.getInterpolationCoefficients(timeTable1.originalTable.table, timeTable1.originalTable.offset, timeTable1.originalTable.startTime, time, timeTable1.originalTable.last, 1e-13, timeTable1.originalTable.shiftTime) ($RES_$AUX_717)
(329)     [ARRY] (10) prescribedHeatFlow1.portsOut.Q_flow = -0.1 .* (2.5e7 * fill(1.0, 10)) ($RES_SIM_148)
(330)     [SCAL] (1) ECO.wall.layer[1].port_ext[7].Q_flow + ECO.wall.layer[2].port_int[7].Q_flow = 0.0 ($RES_SIM_400)
(331)     [SCAL] (1) 99999.99999999999 * $DER.watersink_ph.water.p_bar = (timeTable1.C1signal.u - 99999.99999999999 * watersink_ph.water.p_bar) / timeTable1.C1signal.timeDelay ($RES_SIM_149)
(332)     [SCAL] (1) ECO.wall.layer[1].port_ext[6].Q_flow + ECO.wall.layer[2].port_int[6].Q_flow = 0.0 ($RES_SIM_401)
(333)     [SCAL] (1) ECO.wall.layer[1].port_ext[5].Q_flow + ECO.wall.layer[2].port_int[5].Q_flow = 0.0 ($RES_SIM_402)
(334)     [SCAL] (1) ECO.wall.layer[1].port_ext[4].Q_flow + ECO.wall.layer[2].port_int[4].Q_flow = 0.0 ($RES_SIM_403)
(335)     [SCAL] (1) ECO.wall.layer[1].port_ext[3].Q_flow + ECO.wall.layer[2].port_int[3].Q_flow = 0.0 ($RES_SIM_404)
(336)     [SCAL] (1) ECO.wall.layer[1].port_ext[2].Q_flow + ECO.wall.layer[2].port_int[2].Q_flow = 0.0 ($RES_SIM_405)
(337)     [ARRY] (20) EVA.qMetalFluidDelayed = EVA.qMetalFluid ($RES_SIM_230)
(338)     [SCAL] (1) ECO.wall.layer[1].port_ext[1].Q_flow + ECO.wall.layer[2].port_int[1].Q_flow = 0.0 ($RES_SIM_406)
(339)     [ARRY] (20) EVA.heatport.Q_flow = EVA.geoPipe.Nt * (3.141592653589793 * EVA.di) * EVA.dz * EVA.qMetalFluidDelayed ($RES_SIM_231)
(340)     [SCAL] (1) ECO.wall.layer[1].port_int[10].Q_flow - ECO.wall.port_int[10].Q_flow = 0.0 ($RES_SIM_407)
(341)     [ARRY] (20) EVA.qMetalFluid = EVA.alpha * (EVA.TWall - EVA.T) ($RES_SIM_232)
(342)     [SCAL] (1) ECO.wall.layer[1].port_int[9].Q_flow - ECO.wall.port_int[9].Q_flow = 0.0 ($RES_SIM_408)
(343)     [SCAL] (1) EVA.alpha = EVA.alphaOffset + 400.0 * ($FUN_6 / (($FUN_6 / EVA.A * ($FUN_6 / EVA.A) + 1e-4) ^ 0.25 * EVA.A)) * EVA.alphaFactor ($RES_SIM_233)
(344)     [SCAL] (1) ECO.wall.layer[1].port_int[8].Q_flow - ECO.wall.port_int[8].Q_flow = 0.0 ($RES_SIM_409)
(345)     [FOR-] (20) ($RES_SIM_234)
(345)     [----] for $i1 in 1:20 loop
(345)     [----]   [SCAL] (1) EVA.T[$i1] = SiemensPower.Media.TTSE.Utilities.T_ph(EVA.p, EVA.h[$i1], 0) ($RES_SIM_235)
(345)     [----] end for;
(346)     [FOR-] (20) ($RES_SIM_236)
(346)     [----] for $i1 in 1:20 loop
(346)     [----]   [SCAL] (1) EVA.d[$i1] = SiemensPower.Media.TTSE.Utilities.rho_ph(EVA.p, EVA.h[$i1], 0) ($RES_SIM_237)
(346)     [----] end for;
(347)     [FOR-] (20) ($RES_SIM_238)
(347)     [----] for $i1 in 1:20 loop
(347)     [----]   [SCAL] (1) EVA.drdp[$i1] = SiemensPower.Media.TTSE.Utilities.rho_ph_dp(EVA.p, EVA.h[$i1], 0) ($RES_SIM_239)
(347)     [----] end for;
(348)     [SCAL] (1) watersource_mh.medium.phase = watersource_mh.medium.state.phase ($RES_SIM_322)
(349)     [SCAL] (1) watersource_mh.medium.d = watersource_mh.medium.state.d ($RES_SIM_323)
(350)     [SCAL] (1) -((-273.15) - watersource_mh.medium.T_degC) = watersource_mh.medium.state.T ($RES_SIM_324)
(351)     [SCAL] (1) 99999.99999999999 * watersource_mh.medium.p_bar = watersource_mh.medium.state.p ($RES_SIM_325)
(352)     [SCAL] (1) timeTable1.C1signal.u = timeTable1.originalTable.a * time + timeTable1.originalTable.b ($RES_SIM_150)
(353)     [SCAL] (1) ECO.dp = 99999.99999999999 * watersource_mh.medium.p_bar - ECO.portOut.p ($RES_SIM_152)
(354)     [SCAL] (1) watersource_mh.medium.u = watersource_mh.h_start - (99999.99999999999 * watersource_mh.medium.p_bar) / watersource_mh.medium.d ($RES_SIM_328)
(355)     [-IF-] (1)if noEvent($SEV_24) then
(355)     [----]   [SCAL] (1) ECO.hOut = EVA.portIn.h_outflow ($RES_SIM_154)
(355)     [----] else
(355)     [----]   [SCAL] (1) ECO.hOut = ECO.portOut.h_outflow ($RES_SIM_155)
(355)     [----] end if;
(356)     [SCAL] (1) watersource_mh.medium.sat.psat = 99999.99999999999 * watersource_mh.medium.p_bar ($RES_SIM_329)
(357)     [-IF-] (1)if noEvent($SEV_25) then
(357)     [----]   [SCAL] (1) ECO.hIn = watersource_mh.h_start ($RES_SIM_157)
(357)     [----] else
(357)     [----]   [SCAL] (1) ECO.hIn = ECO.portIn.h_outflow ($RES_SIM_158)
(357)     [----] end if;
(358)     [SCAL] (1) ECO.wall.layer[1].port_int[7].Q_flow - ECO.wall.port_int[7].Q_flow = 0.0 ($RES_SIM_410)
(359)     [SCAL] (1) ECO.wall.layer[1].port_int[6].Q_flow - ECO.wall.port_int[6].Q_flow = 0.0 ($RES_SIM_411)
(360)     [SCAL] (1) ECO.wall.layer[1].port_int[5].Q_flow - ECO.wall.port_int[5].Q_flow = 0.0 ($RES_SIM_412)
(361)     [SCAL] (1) ECO.wall.layer[1].port_int[4].Q_flow - ECO.wall.port_int[4].Q_flow = 0.0 ($RES_SIM_413)
(362)     [SCAL] (1) ECO.wall.layer[1].port_int[3].Q_flow - ECO.wall.port_int[3].Q_flow = 0.0 ($RES_SIM_414)
(363)     [SCAL] (1) ECO.wall.layer[1].port_int[2].Q_flow - ECO.wall.port_int[2].Q_flow = 0.0 ($RES_SIM_415)
(364)     [FOR-] (20) ($RES_SIM_240)
(364)     [----] for $i1 in 1:20 loop
(364)     [----]   [SCAL] (1) EVA.drdh[$i1] = SiemensPower.Media.TTSE.Utilities.rho_ph_dh(EVA.p, EVA.h[$i1], 0) ($RES_SIM_241)
(364)     [----] end for;
(365)     [SCAL] (1) ECO.wall.layer[1].port_int[1].Q_flow - ECO.wall.port_int[1].Q_flow = 0.0 ($RES_SIM_416)
(366)     [-IF-] (1)if $SEV_30 then
(366)     [----]   [SCAL] (1) $DER.EVA.h[20] + ((watersink_ph.h_start - EVA.h[20]) * EVA.m_flow) / (EVA.dz * EVA.d[20] * EVA.A) = (EVA.qMetalFluidDelayed[20] * 4.0) / (EVA.di * EVA.d[20]) + $DER.EVA.p / EVA.d[20] ($RES_SIM_243)
(366)     [----] else
(366)     [----]   [SCAL] (1) $DER.EVA.h[20] + ((EVA.h[20] - EVA.h[19]) * EVA.m_flow) / (EVA.dz * EVA.d[20] * EVA.A) = (EVA.qMetalFluidDelayed[20] * 4.0) / (EVA.di * EVA.d[20]) + $DER.EVA.p / EVA.d[20] ($RES_SIM_244)
(366)     [----] end if;
(367)     [SCAL] (1) EVA.wall.layer[3].port_ext[20].Q_flow - EVA.wall.port_ext[20].Q_flow = 0.0 ($RES_SIM_418)
(368)     [SCAL] (1) EVA.wall.layer[3].port_ext[19].Q_flow - EVA.wall.port_ext[19].Q_flow = 0.0 ($RES_SIM_419)
(369)     [FOR-] (18) ($RES_SIM_245)
(369)     [----] for $i1 in 2:19 loop
(369)     [----]   [-IF-] (1)if $SEV_31[$i1] then
(369)     [----]   [----]   [SCAL] (1) $DER.EVA.h[$i1] + ((EVA.h[$i1 + 1] - EVA.h[$i1]) * EVA.m_flow) / (EVA.dz * EVA.d[$i1] * EVA.A) = (EVA.qMetalFluidDelayed[$i1] * 4.0) / (EVA.di * EVA.d[$i1]) + $DER.EVA.p / EVA.d[$i1] ($RES_SIM_247)
(369)     [----]   [----] else
(369)     [----]   [----]   [SCAL] (1) $DER.EVA.h[$i1] + ((EVA.h[$i1] - EVA.h[$i1 - 1]) * EVA.m_flow) / (EVA.dz * EVA.d[$i1] * EVA.A) = (EVA.qMetalFluidDelayed[$i1] * 4.0) / (EVA.di * EVA.d[$i1]) + $DER.EVA.p / EVA.d[$i1] ($RES_SIM_248)
(369)     [----]   [----] end if;
(369)     [----] end for;
(370)     [-IF-] (1)if $SEV_30 then
(370)     [----]   [SCAL] (1) $DER.EVA.h[1] + ((EVA.h[2] - EVA.h[1]) * EVA.m_flow) / (EVA.dz * EVA.d[1] * EVA.A) = (EVA.qMetalFluidDelayed[1] * 4.0) / (EVA.di * EVA.d[1]) + $DER.EVA.p / EVA.d[1] ($RES_SIM_250)
(370)     [----] else
(370)     [----]   [SCAL] (1) $DER.EVA.h[1] + ((EVA.h[1] - ECO.portOut.h_outflow) * EVA.m_flow) / (EVA.dz * EVA.d[1] * EVA.A) = (EVA.qMetalFluidDelayed[1] * 4.0) / (EVA.di * EVA.d[1]) + $DER.EVA.p / EVA.d[1] ($RES_SIM_251)
(370)     [----] end if;
(371)     [SCAL] (1) watersource_mh.medium.sat.Tsat = Modelica.Media.Water.IF97_Utilities.BaseIF97.Basic.tsat(99999.99999999999 * watersource_mh.medium.p_bar) ($RES_SIM_330)
(372)     [SCAL] (1) -((-273.15) - watersource_mh.medium.T_degC) = Modelica.Media.Water.IF97_Utilities.T_props_ph(99999.99999999999 * watersource_mh.medium.p_bar, watersource_mh.h_start, Modelica.Media.Water.IF97_Utilities.waterBaseProp_ph(99999.99999999999 * watersource_mh.medium.p_bar, watersource_mh.h_start, watersource_mh.medium.phase, 0)) ($RES_SIM_331)
(373)     [SCAL] (1) $TEV_1 = $PRE.timeTable1.originalTable.nextEvent ($RES_EVT_802)
(374)     [SCAL] (1) watersource_mh.medium.d = Modelica.Media.Water.IF97_Utilities.rho_props_ph(99999.99999999999 * watersource_mh.medium.p_bar, watersource_mh.h_start, Modelica.Media.Water.IF97_Utilities.waterBaseProp_ph(99999.99999999999 * watersource_mh.medium.p_bar, watersource_mh.h_start, watersource_mh.medium.phase, 0)) ($RES_SIM_332)
(375)     [SCAL] (1) $TEV_2 = $PRE.timeTable.originalTable.nextEvent ($RES_EVT_803)
(376)     [SCAL] (1) watersource_mh.medium.phase = if $SEV_39 then 1 else 2 ($RES_SIM_333)
(377)     [ARRY] (10) $DER.ECO.qMetalFluidDelayed = (ECO.qMetalFluid - ECO.qMetalFluidDelayed) / ECO.timeDelayOfInnerHeatTransfer ($RES_SIM_161)
(378)     [ARRY] (10) ECO.heatport.Q_flow = ECO.geoPipe.Nt * (3.141592653589793 * ECO.di) * ECO.dz * ECO.qMetalFluidDelayed ($RES_SIM_162)
(379)     [ARRY] (10) ECO.qMetalFluid = ECO.alpha * (ECO.TWall - ECO.T) ($RES_SIM_163)
(380)     [SCAL] (1) ECO.alpha = ECO.alphaOffset + 400.0 * ($FUN_13 / (($FUN_13 / ECO.A * ($FUN_13 / ECO.A) + 1e-4) ^ 0.25 * ECO.A)) * ECO.alphaFactor ($RES_SIM_164)
(381)     [FOR-] (10) ($RES_SIM_165)
(381)     [----] for $i1 in 1:10 loop
(381)     [----]   [SCAL] (1) ECO.T[$i1] = SiemensPower.Media.TTSE.Utilities.T_ph(ECO.p, ECO.h[$i1], 0) ($RES_SIM_166)
(381)     [----] end for;
(382)     [FOR-] (10) ($RES_SIM_167)
(382)     [----] for $i1 in 1:10 loop
(382)     [----]   [SCAL] (1) ECO.d[$i1] = SiemensPower.Media.TTSE.Utilities.rho_ph(ECO.p, ECO.h[$i1], 0) ($RES_SIM_168)
(382)     [----] end for;
(383)     [SCAL] (1) EVA.wall.layer[3].port_ext[18].Q_flow - EVA.wall.port_ext[18].Q_flow = 0.0 ($RES_SIM_420)
(384)     [FOR-] (10) ($RES_SIM_169)
(384)     [----] for $i1 in 1:10 loop
(384)     [----]   [SCAL] (1) ECO.drdp[$i1] = SiemensPower.Media.TTSE.Utilities.rho_ph_dp(ECO.p, ECO.h[$i1], 0) ($RES_SIM_170)
(384)     [----] end for;
(385)     [SCAL] (1) EVA.wall.layer[3].port_ext[17].Q_flow - EVA.wall.port_ext[17].Q_flow = 0.0 ($RES_SIM_421)
(386)     [SCAL] (1) EVA.wall.layer[3].port_ext[16].Q_flow - EVA.wall.port_ext[16].Q_flow = 0.0 ($RES_SIM_422)
(387)     [SCAL] (1) EVA.wall.layer[3].port_ext[15].Q_flow - EVA.wall.port_ext[15].Q_flow = 0.0 ($RES_SIM_423)
(388)     [SCAL] (1) EVA.wall.layer[3].port_ext[14].Q_flow - EVA.wall.port_ext[14].Q_flow = 0.0 ($RES_SIM_424)
(389)     [SCAL] (1) EVA.wall.layer[3].port_ext[13].Q_flow - EVA.wall.port_ext[13].Q_flow = 0.0 ($RES_SIM_425)
(390)     [SCAL] (1) EVA.wall.layer[3].port_ext[12].Q_flow - EVA.wall.port_ext[12].Q_flow = 0.0 ($RES_SIM_426)
(391)     [SCAL] (1) EVA.wall.layer[3].port_ext[11].Q_flow - EVA.wall.port_ext[11].Q_flow = 0.0 ($RES_SIM_427)
(392)     [SCAL] (1) ((99999.99999999999 * watersink_ph.water.p_bar - ECO.portOut.p) * EVA.A) / EVA.geoPipe.L + (EVA.A * EVA.dphyd) / EVA.geoPipe.L + $DER.EVA.m_flow + (EVA.A * EVA.dpfric) / EVA.geoPipe.L = 0.0 ($RES_SIM_252)
(393)     [SCAL] (1) EVA.wall.layer[3].port_ext[10].Q_flow - EVA.wall.port_ext[10].Q_flow = 0.0 ($RES_SIM_428)
(394)     [SCAL] (1) 0.05 * ($FUN_7 * $DER.EVA.p + EVA.drdh * $DER.EVA.h) - (EVA.portIn.m_flow - watersink_ph.port.m_flow) / (EVA.geoPipe.Nt * EVA.V) = 0.0 ($RES_SIM_253)