Running: ./testmodel.py --libraries=/home/hudson/saved_omc/libraries/.openmodelica/libraries --ompython_omhome=/usr Modelica_3.2.2_Modelica.Fluid.Examples.Tanks.EmptyTanks.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)
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(Modelica.Fluid.Examples.Tanks.EmptyTanks,tolerance=1e-06,outputFormat="empty",numberOfIntervals=5000,variableFilter="",fileNamePrefix="Modelica_3.2.2_Modelica.Fluid.Examples.Tanks.EmptyTanks")
translateModel(Modelica.Fluid.Examples.Tanks.EmptyTanks,tolerance=1e-06,outputFormat="empty",numberOfIntervals=5000,variableFilter="",fileNamePrefix="Modelica_3.2.2_Modelica.Fluid.Examples.Tanks.EmptyTanks")
Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/ModelicaServices 4.0.0+maint.om/package.mo): time 0.001159/0.001159, allocations: 108.7 kB / 17.75 MB, free: 5.34 MB / 14.72 MB
Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/Complex 4.0.0+maint.om/package.mo): time 0.001164/0.001164, allocations: 188.6 kB / 18.68 MB, free: 4.422 MB / 14.72 MB
Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/Modelica 3.2.3+maint.om/package.mo): time 1.298/1.298, allocations: 205.1 MB / 224.6 MB, free: 12.25 MB / 190.1 MB
Notification: Performance of FrontEnd - Absyn->SCode: time 2.357e-05/2.358e-05, allocations: 7.344 kB / 328.5 MB, free: 3.367 MB / 270.1 MB
Notification: Performance of NFInst.instantiate(Modelica.Fluid.Examples.Tanks.EmptyTanks): time 0.0151/0.01513, allocations: 15.86 MB / 344.3 MB, free: 3.434 MB / 286.1 MB
Notification: Performance of NFInst.instExpressions: time 0.008787/0.02395, allocations: 6.85 MB / 351.2 MB, free: 12.57 MB / 302.1 MB
Notification: Performance of NFInst.updateImplicitVariability: time 0.0006764/0.02465, allocations: 23.88 kB / 351.2 MB, free: 12.55 MB / 302.1 MB
Notification: Performance of NFTyping.typeComponents: time 0.0008035/0.02547, allocations: 322 kB / 351.5 MB, free: 12.23 MB / 302.1 MB
Notification: Performance of NFTyping.typeBindings: time 0.002327/0.0278, allocations: 1.077 MB / 352.6 MB, free: 11.15 MB / 302.1 MB
Notification: Performance of NFTyping.typeClassSections: time 0.00398/0.0318, allocations: 1.785 MB / 354.4 MB, free: 9.359 MB / 302.1 MB
Notification: Performance of NFFlatten.flatten: time 0.002647/0.03445, allocations: 2.448 MB / 356.8 MB, free: 6.902 MB / 302.1 MB
Notification: Performance of NFFlatten.resolveConnections: time 0.0007702/0.03523, allocations: 0.6191 MB / 357.5 MB, free: 6.266 MB / 302.1 MB
Notification: Performance of NFEvalConstants.evaluate: time 0.001318/0.03656, allocations: 0.9736 MB / 358.4 MB, free: 5.289 MB / 302.1 MB
Notification: Performance of NFSimplifyModel.simplify: time 0.000914/0.03749, allocations: 0.8058 MB / 359.2 MB, free: 4.48 MB / 302.1 MB
Notification: Performance of NFPackage.collectConstants: time 0.0001312/0.03763, allocations: 84 kB / 359.3 MB, free: 4.398 MB / 302.1 MB
Notification: Performance of NFFlatten.collectFunctions: time 0.002161/0.0398, allocations: 1.217 MB / 360.5 MB, free: 3.18 MB / 302.1 MB
Notification: Performance of combineBinaries: time 0.001305/0.04112, allocations: 1.707 MB / 362.2 MB, free: 1.457 MB / 302.1 MB
Notification: Performance of replaceArrayConstructors: time 0.0006565/0.04178, allocations: 1.038 MB / 363.3 MB, free: 416 kB / 302.1 MB
Notification: Performance of NFVerifyModel.verify: time 0.0001813/0.04197, allocations: 143.6 kB / 363.4 MB, free: 272 kB / 302.1 MB
Notification: Performance of FrontEnd: time 0.0001464/0.04213, allocations: 23.88 kB / 363.4 MB, free: 248 kB / 302.1 MB
Notification: Model statistics after passing the front-end and creating the data structures used by the back-end:
 * Number of equations: 138 (127)
 * Number of variables: 142 (130)
Notification: Performance of Bindings: time 0.004063/0.0462, allocations: 4.551 MB / 368 MB, free: 11.54 MB / 318.1 MB
Notification: Performance of FunctionAlias: time 0.0004169/0.04662, allocations: 404.1 kB / 368.4 MB, free: 11.13 MB / 318.1 MB
Notification: Performance of Early Inline: time 0.002841/0.04947, allocations: 2.654 MB / 371 MB, free: 8.434 MB / 318.1 MB
Notification: Performance of simplify1: time 0.0002083/0.04969, allocations: 179.7 kB / 371.2 MB, free: 8.258 MB / 318.1 MB
Notification: Performance of Alias: time 0.002455/0.05215, allocations: 2.232 MB / 373.5 MB, free: 5.824 MB / 318.1 MB
Notification: Performance of simplify2: time 0.0001799/0.05234, allocations: 171.8 kB / 373.6 MB, free: 5.656 MB / 318.1 MB
Notification: Performance of Events: time 0.0009024/0.05325, allocations: 0.6512 MB / 374.3 MB, free: 4.977 MB / 318.1 MB
Notification: Performance of Detect States: time 0.0007505/0.05401, allocations: 0.7036 MB / 375 MB, free: 4.254 MB / 318.1 MB
Notification: Performance of Partitioning: time 0.0009971/0.05502, allocations: 0.9503 MB / 375.9 MB, free: 3.234 MB / 318.1 MB
Error: Internal error NBAdjacency.Matrix.create failed to create adjacency matrix for system:
System Variables (136/148)
****************************
(1)       [ALGB] (1) Real[1] tank2.ports_H_flow (min = {-1e8 for $i1 in 1:1}, max = {1e8 for $i1 in 1:1}, nominal = {1000.0 for $i1 in 1:1})
(2)       [ALGB] (1) Real[1] tank1.ports_H_flow (min = {-1e8 for $i1 in 1:1}, max = {1e8 for $i1 in 1:1}, nominal = {1000.0 for $i1 in 1:1})
(3)       [ALGB] (1) Real[1] tank2.portInDensities (start = {1.0 for $i1 in 1:1}, min = {0.0 for $i1 in 1:1}, max = {1e5 for $i1 in 1:1}, nominal = {1.0 for $i1 in 1:1})
(4)       [ALGB] (1) Real[1] tank1.vessel_ps_static (start = {1e5 for $i1 in 1:1}, min = {0.0 for $i1 in 1:1}, max = {1e8 for $i1 in 1:1}, nominal = {1e5 for $i1 in 1:1})
(5)       [ALGB] (2) Real[2] pipe.flowModel.rhos = {Modelica.Fluid.Examples.Tanks.EmptyTanks.pipe.flowModel.Medium.density(pipe.flowModel.states[$i1]) for $i1 in 1:2} (start = {1.0 for $i1 in 1:2}, min = {0.0 for $i1 in 1:2}, max = {1e5 for $i1 in 1:2}, nominal = {1.0 for $i1 in 1:2})
(6)       [DISC] (1) Boolean $SEV_26
(7)       [DISC] (1) Boolean $SEV_25
(8)       [ALGB] (1) Real[1] pipe.flowModel.mus_act (start = {0.001 for $i1 in 1:1}, min = {0.0 for $i1 in 1:1}, max = {1e8 for $i1 in 1:1}, nominal = {0.001 for $i1 in 1:1})
(9)       [DISC] (1) Boolean $SEV_24
(10)      [ALGB] (1) protected Real[1] tank2.portsData_zeta_out
(11)      [DISC] (1) Boolean $SEV_23
(12)      [ALGB] (1) protected Real[1] tank2.portsData_zeta_out_internal = tank2.portsData.zeta_out
(13)      [DISC] (1) Boolean $SEV_22
(14)      [DISC] (1) Boolean $SEV_21
(15)      [DISC] (1) Boolean $SEV_20
(16)      [ALGB] (2) Real[2] pipe.flowModel.mus = {Modelica.Fluid.Examples.Tanks.EmptyTanks.pipe.flowModel.Medium.dynamicViscosity(pipe.flowModel.states[$i1]) for $i1 in 1:2} (start = {0.001 for $i1 in 1:2}, min = {0.0 for $i1 in 1:2}, max = {1e8 for $i1 in 1:2}, nominal = {0.001 for $i1 in 1:2})
(17)      [DISC] (1) protected Boolean[1] tank2.regularFlow (start = {true for $i1 in 1:1})
(18)      [ALGB] (1) Real[1] pipe.flowModel.m_flows (start = {0.0 for $i1 in 1:1}, min = {-1e60 for $i1 in 1:1}, max = {1e5 for $i1 in 1:1}, StateSelect = default)
(19)      [ALGB] (1) protected Real[1] tank2.portsData_zeta_in_internal = tank2.portsData.zeta_in
(20)      [ALGB] (1) Real[1] tank2.heatTransfer.heatPorts.T (start = {288.15 for $i1 in 1:1}, min = {0.0 for $i1 in 1:1}, nominal = {300.0 for $i1 in 1:1})
(21)      [ALGB] (1) Real[1] pipe.flowModel.Fs_p
(22)      [ALGB] (2) final Real[2] pipe.flowModel.dimensions = {(4.0 * pipe.crossArea) / pipe.perimeter, (4.0 * pipe.crossArea) / pipe.perimeter}
(23)      [ALGB] (1) protected Real[1] tank1.portsData_zeta_out_internal = tank1.portsData.zeta_out
(24)      [DISC] (1) Boolean $SEV_19
(25)      [DISC] (1) Boolean $SEV_18
(26)      [DISC] (1) Boolean $SEV_17
(27)      [DISC] (1) Boolean $SEV_16
(28)      [DISC] (1) Boolean $SEV_15
(29)      [DISC] (1) Boolean $SEV_10
(30)      [ALGB] (1) Real[1] tank1.heatTransfer.surfaceAreas = {sqrt(3.141592653589793 * tank1.crossArea) * 2.0 * tank1.fluidLevel + tank1.crossArea}
(31)      [ALGB] (1) Real[1] tank2.s (start = {tank2.fluidLevel_max for $i1 in 1:1})
(32)      [ALGB] (1) stream Real pipe.port_a.h_outflow (min = -1e10, max = 1e10, nominal = 1e6)
(33)      [ALGB] (1) stream Real[1] tank1.ports.h_outflow (min = {-1e10 for $i1 in 1:1}, max = {1e10 for $i1 in 1:1}, nominal = {1e6 for $i1 in 1:1})
(34)      [ALGB] (1) final input Real[1, 1] tank1.heatTransfer.states.p = {tank1.medium.state.p} (start = {1e5 for $i1 in 1:1}, min = {0.0 for $i1 in 1:1}, max = {1e8 for $i1 in 1:1}, nominal = {1e5 for $i1 in 1:1})
(35)      [DISC] (1) protected Boolean[1] tank1.regularFlow (start = {true for $i1 in 1:1})
(36)      [ALGB] (1) Real tank2.medium.state.T (start = 288.15, min = 1.0, max = 1e4, nominal = 300.0)
(37)      [ALGB] (1) Real tank2.medium.T_degC = Modelica.SIunits.Conversions.to_degC(-((-273.15) - tank2.medium.T_degC))
(38)      [ALGB] (1) Real[1] pipe.flowModel.Fs_fg
(39)      [ALGB] (1) Real tank1.mb_flow
(40)      [ALGB] (1) protected Real[1] tank1.portsData_zeta_out
(41)      [ALGB] (1) protected Real[1] tank1.portsData_height_internal = tank1.portsData.height
(42)      [ALGB] (1) Real tank1.medium.T_degC = Modelica.SIunits.Conversions.to_degC(-((-273.15) - tank1.medium.T_degC))
(43)      [ALGB] (1) stream Real pipe.port_b.h_outflow (min = -1e10, max = 1e10, nominal = 1e6)
(44)      [ALGB] (1) protected final Real tank1.fluidLevel = tank1.fluidLevel (min = 0.0)
(45)      [ALGB] (1) final input Real[1, 1] tank2.heatTransfer.states.T = {tank2.medium.state.T} (start = {288.15 for $i1 in 1:1}, min = {1.0 for $i1 in 1:1}, max = {1e4 for $i1 in 1:1}, nominal = {300.0 for $i1 in 1:1})
(46)      [ALGB] (1) flow Real[1] tank2.heatTransfer.heatPorts.Q_flow
(47)      [ALGB] (1) Real[1] tank1.ports.p (start = {1e5 for $i1 in 1:1}, min = {0.0 for $i1 in 1:1}, max = {1e8 for $i1 in 1:1}, nominal = {1e5 for $i1 in 1:1})
(48)      [ALGB] (1) final input Real[1, 1] tank1.heatTransfer.states.T = {tank1.medium.state.T} (start = {288.15 for $i1 in 1:1}, min = {1.0 for $i1 in 1:1}, max = {1e4 for $i1 in 1:1}, nominal = {300.0 for $i1 in 1:1})
(49)      [ALGB] (1) Real $FUN_9
(50)      [ALGB] (1) final Real tank1.fluidVolume = tank1.fluidVolume
(51)      [ALGB] (1) Real[1] pipe.flowModel.Is
(52)      [ALGB] (1) Real $FUN_8
(53)      [ALGB] (1) Real $FUN_7
(54)      [ALGB] (1) Real tank2.medium.state.p (start = 1e5, min = 0.0, max = 1e8, nominal = 1e5)
(55)      [ALGB] (1) Real $FUN_6
(56)      [DISC] (1) protected Boolean[1] tank1.inFlow (start = {false for $i1 in 1:1})
(57)      [ALGB] (1) Real $FUN_4
(58)      [ALGB] (1) protected Real[1] tank2.portsData_height_internal = tank2.portsData.height
(59)      [ALGB] (1) protected Real[1] tank2.portsData_diameter_internal = tank2.portsData.diameter
(60)      [ALGB] (1) Real $FUN_3
(61)      [ALGB] (1) protected Real[1] tank2.portsData_diameter
(62)      [ALGB] (1) Real $FUN_2
(63)      [ALGB] (1) Real[1] tank1.heatTransfer.heatPorts.T (start = {288.15 for $i1 in 1:1}, min = {0.0 for $i1 in 1:1}, nominal = {300.0 for $i1 in 1:1})
(64)      [ALGB] (1) Real tank2.mb_flow
(65)      [ALGB] (1) Real pipe.port_a.p (start = 1e5, min = 0.0, max = 1e8, nominal = 1e5)
(66)      [ALGB] (1) Real[1] pipe.flowModel.rhos_act (start = {1.0 for $i1 in 1:1}, min = {0.0 for $i1 in 1:1}, max = {1e5 for $i1 in 1:1}, nominal = {1.0 for $i1 in 1:1})
(67)      [ALGB] (1) final input Real[1, 1] tank2.heatTransfer.states.p = {tank2.medium.state.p} (start = {1e5 for $i1 in 1:1}, min = {0.0 for $i1 in 1:1}, max = {1e8 for $i1 in 1:1}, nominal = {1e5 for $i1 in 1:1})
(68)      [ALGB] (1) flow Real pipe.port_b.m_flow (min = -1e5, max = 1e60)
(69)      [ALGB] (1) Real[1] tank2.heatTransfer.Q_flows
(70)      [ALGB] (1) protected Real pipe.flowModel.dp_fric_nominal = sum({Modelica.Fluid.Examples.Tanks.EmptyTanks.pipe.flowModel.WallFriction.pressureLoss_m_flow(pipe.flowModel.m_flow_nominal / pipe.flowModel.nParallel, pipe.flowModel.rho_nominal, pipe.flowModel.rho_nominal, pipe.flowModel.mu_nominal, pipe.flowModel.mu_nominal, pipe.flowModel.pathLengths_internal[1], pipe.flowModel.diameters[1], ((pipe.flowModel.crossAreas[2:2] + pipe.flowModel.crossAreas[1:1]) / 2.0)[1], ((pipe.flowModel.roughnesses[2:2] + pipe.flowModel.roughnesses[1:1]) / 2.0)[1], pipe.flowModel.m_flow_small / pipe.flowModel.nParallel, pipe.flowModel.Res_turbulent_internal[1])}) (min = 0.0, nominal = 1e5)
(71)      [DER-] (1) Real $DER.tank1.U
(72)      [ALGB] (1) Real[1] tank2.ports.p (start = {1e5 for $i1 in 1:1}, min = {0.0 for $i1 in 1:1}, max = {1e8 for $i1 in 1:1}, nominal = {1e5 for $i1 in 1:1})
(73)      [ALGB] (1) stream Real[1] tank2.ports.h_outflow (min = {-1e10 for $i1 in 1:1}, max = {1e10 for $i1 in 1:1}, nominal = {1e6 for $i1 in 1:1})
(74)      [ALGB] (1) Real[1] tank1.s (start = {tank1.fluidLevel_max for $i1 in 1:1})
(75)      [ALGB] (1) Real tank1.Hb_flow
(76)      [ALGB] (1) Real[1] pipe.flowModel.pathLengths_internal = pipe.flowModel.pathLengths
(77)      [ALGB] (1) protected Real[1] tank1.portsData_height
(78)      [ALGB] (1) final Real[1] pipe.flowModel.pathLengths = {pipe.length}
(79)      [ALGB] (1) final Real[1] pipe.flowModel.dheights = {pipe.height_ab}
(80)      [ALGB] (1) Real[1] pipe.flowModel.dps_fg (start = {pipe.flowModel.p_a_start - pipe.flowModel.p_b_start for $i1 in 1:1})
(81)      [ALGB] (1) protected Real[1] tank1.portsData_zeta_in
(82)      [ALGB] (1) Real $FUN_11
(83)      [ALGB] (1) Real[1] tank2.portVelocities
(84)      [ALGB] (1) protected Real[1] tank1.portsData_diameter_internal = tank1.portsData.diameter
(85)      [DER-] (1) Real $DER.tank1.m
(86)      [DISC] (1) Boolean $SEV_9
(87)      [DISC] (1) Boolean $SEV_8
(88)      [DISC] (1) Boolean $SEV_7
(89)      [DISC] (1) Boolean $SEV_6
(90)      [DISC] (1) Boolean $SEV_5
(91)      [DISC] (1) Boolean $SEV_4
(92)      [ALGB] (2) Real[2] pipe.flowModel.vs = {(-pipe.port_b.m_flow) / (pipe.flowModel.crossAreas[1] * Modelica.Fluid.Examples.Tanks.EmptyTanks.pipe.Medium.density(pipe.flowModel.states[1])), -pipe.port_b.m_flow / (Modelica.Fluid.Examples.Tanks.EmptyTanks.pipe.Medium.density(pipe.flowModel.states[2]) * pipe.flowModel.crossAreas[2])} / pipe.nParallel
(93)      [DISC] (1) Boolean $SEV_3
(94)      [DISC] (1) Boolean $SEV_2
(95)      [ALGB] (1) protected Real[1] tank2.portsData_height
(96)      [DISC] (1) Boolean $SEV_1
(97)      [DISC] (1) Boolean $SEV_0
(98)      [ALGB] (1) protected Real[1] tank1.portsData_diameter
(99)      [ALGB] (1) Real[1] tank1.heatTransfer.Ts = {Modelica.Fluid.Examples.Tanks.EmptyTanks.tank1.heatTransfer.Medium.temperature(tank1.heatTransfer.states[1])} (start = {288.15 for $i1 in 1:1}, min = {0.0 for $i1 in 1:1}, nominal = {300.0 for $i1 in 1:1})
(100)     [ALGB] (1) Real tank2.Hb_flow
(101)     [ALGB] (1) protected Real[1] tank1.portsData_zeta_in_internal = tank1.portsData.zeta_in
(102)     [ALGB] (1) Real[1] pipe.flowModel.Res_turbulent_internal = pipe.flowModel.Re_turbulent * {1.0 for $i1 in 1:1}
(103)     [ALGB] (1) Real pipe.port_b.p (start = 1e5, min = 0.0, max = 1e8, nominal = 1e5)
(104)     [ALGB] (1) Real[1] tank2.ports_E_flow
(105)     [ALGB] (1) Real[1] tank1.ports_E_flow
(106)     [ALGB] (2) final Real[2] pipe.flowModel.roughnesses = {pipe.roughness, pipe.roughness} (min = {0.0 for $i1 in 1:2})
(107)     [ALGB] (1) Real[1] tank1.ports_penetration
(108)     [ALGB] (1) Real tank1.medium.state.T (start = 288.15, min = 1.0, max = 1e4, nominal = 300.0)
(109)     [ALGB] (1) Real[1] tank1.portAreas = {tank1.portsData_diameter[1] ^ 2.0 * 0.7853981633974483}
(110)     [DER-] (1) Real $DER.tank2.U
(111)     [ALGB] (1) Real[1] tank1.m_flow_turbulent
(112)     [ALGB] (1) Real tank1.Qb_flow
(113)     [ALGB] (1) Real[1] tank2.m_flow_turbulent
(114)     [ALGB] (1) Real[1] tank2.portAreas = {tank2.portsData_diameter[1] ^ 2.0 * 0.7853981633974483}
(115)     [ALGB] (1) Real[1] tank1.heatTransfer.Q_flows
(116)     [DER-] (1) Real $DER.tank2.m
(117)     [DISC] (1) protected Boolean[1] tank2.inFlow (start = {false for $i1 in 1:1})
(118)     [ALGB] (1) Real tank1.medium.state.p (start = 1e5, min = 0.0, max = 1e8, nominal = 1e5)
(119)     [ALGB] (1) Real[1] tank1.portInDensities (start = {1.0 for $i1 in 1:1}, min = {0.0 for $i1 in 1:1}, max = {1e5 for $i1 in 1:1}, nominal = {1.0 for $i1 in 1:1})
(120)     [ALGB] (1) Real[1] tank2.heatTransfer.Ts = {Modelica.Fluid.Examples.Tanks.EmptyTanks.tank2.heatTransfer.Medium.temperature(tank2.heatTransfer.states[1])} (start = {288.15 for $i1 in 1:1}, min = {0.0 for $i1 in 1:1}, nominal = {300.0 for $i1 in 1:1})
(121)     [ALGB] (4) input Real[2, 2] pipe.flowModel.states.p (start = {1e5 for $i1 in 1:2}, min = {0.0 for $i1 in 1:2}, max = {1e8 for $i1 in 1:2}, nominal = {1e5 for $i1 in 1:2})
(122)     [ALGB] (1) Real tank2.Qb_flow
(123)     [ALGB] (1) flow Real[1] tank1.heatTransfer.heatPorts.Q_flow
(124)     [ALGB] (1) flow Real[1] tank2.ports.m_flow (min = {-1e5 for $i1 in 1:1}, max = {1e5 for $i1 in 1:1})
(125)     [ALGB] (1) flow Real[1] tank1.ports.m_flow (min = {-1e5 for $i1 in 1:1}, max = {1e5 for $i1 in 1:1})
(126)     [ALGB] (1) Real[1] tank2.ports_penetration
(127)     [ALGB] (2) final Real[2] pipe.flowModel.crossAreas = {pipe.crossArea, pipe.crossArea}
(128)     [ALGB] (4) input Real[2, 2] pipe.flowModel.states.T (start = {288.15 for $i1 in 1:2}, min = {1.0 for $i1 in 1:2}, max = {1e4 for $i1 in 1:2}, nominal = {300.0 for $i1 in 1:2})
(129)     [ALGB] (1) Real[1] tank2.heatTransfer.surfaceAreas = {sqrt(3.141592653589793 * tank2.crossArea) * 2.0 * tank2.fluidLevel + tank2.crossArea}
(130)     [ALGB] (1) Real[1] tank1.portVelocities
(131)     [ALGB] (1) final Real tank2.fluidVolume = tank2.fluidVolume
(132)     [ALGB] (1) protected Real[1] pipe.flowModel.diameters = 0.5 * (pipe.flowModel.dimensions[2:2] + pipe.flowModel.dimensions[1:1])
(133)     [ALGB] (1) protected final Real tank2.fluidLevel = tank2.fluidLevel (min = 0.0)
(134)     [ALGB] (1) Real[1] pipe.flowModel.Ib_flows
(135)     [ALGB] (1) protected Real[1] tank2.portsData_zeta_in
(136)     [ALGB] (1) Real[1] tank2.vessel_ps_static (start = {1e5 for $i1 in 1:1}, min = {0.0 for $i1 in 1:1}, max = {1e8 for $i1 in 1:1}, nominal = {1e5 for $i1 in 1:1})


System Equations (133/144)
****************************
(1)       [SCAL] (1) tank1.ports_H_flow[1] = smooth(0, tank1.ports[1].m_flow * (if $SEV_24 then pipe.port_a.h_outflow else tank1.ports[1].h_outflow)) ($RES_SIM_80)
(2)       [ARRY] (1) tank1.portsData_diameter = tank1.portsData_diameter_internal ($RES_SIM_120)
(3)       [SCAL] (1) tank1.m_flow_turbulent[1] = tank1.m_flow_small ($RES_SIM_81)
(4)       [SCAL] (1) tank1.portVelocities[1] = smooth(0, 0.0010044335697769957 * (tank1.ports[1].m_flow / tank1.portAreas[1])) ($RES_SIM_82)
(5)       [SCAL] (1) tank1.portInDensities[1] = 995.586 ($RES_SIM_83)
(6)       [SCAL] (1) tank1.Qb_flow = tank1.heatTransfer.Q_flows[1] ($RES_SIM_86)
(7)       [SCAL] (1) tank1.Hb_flow = $FUN_2 + $FUN_3 ($RES_SIM_87)
(8)       [SCAL] (1) tank1.vessel_ps_static[1] = 995.586 * system.g * max(0.0, tank1.fluidLevel - tank1.portsData_height[1]) + tank1.p_ambient ($RES_SIM_89)
(9)       [SCAL] (1) tank2.ports_penetration[1] = smooth(1, if $SEV_0 then 1.0 else if $SEV_1 then 0.001 else if $SEV_2 then 0.5005 - 0.24975 * ((-3.0) + ((tank2.fluidLevel - (0.1 * tank2.portsData_diameter[1] + tank2.portsData_height[1])) / (0.1 * tank2.portsData_diameter[1])) ^ 2.0) * ((10.0 * (tank2.fluidLevel - (tank2.portsData_height[1] + 0.1 * tank2.portsData_diameter[1]))) / tank2.portsData_diameter[1]) else 0.5005) ($RES_SIM_10)
(10)      [SCAL] (1) tank2.regularFlow[1] = $SEV_3 ($RES_SIM_11)
(11)      [SCAL] (1) tank2.inFlow[1] = $SEV_4 ($RES_SIM_12)
(12)      [-IF-] (1)if tank2.regularFlow[1] then
(12)      [----]   [SCAL] (1) tank2.ports[1].p = tank2.vessel_ps_static[1] + (0.5 / tank2.portAreas[1] ^ 2.0) * smooth(2, if $SEV_5 then (tank2.ports_penetration[1] * ((-1.0) + tank2.portAreas[1] ^ 2.0 / tank2.vesselArea ^ 2.0 + tank2.portsData_zeta_in[1]) * tank2.ports[1].m_flow ^ 2.0) / tank2.portInDensities[1] else if $SEV_6 then -(((1.0 + tank2.portsData_zeta_out[1]) - tank2.portAreas[1] ^ 2.0 / tank2.vesselArea ^ 2.0) * tank2.ports[1].m_flow ^ 2.0) / (tank2.ports_penetration[1] * 995.586) else if $SEV_7 then Modelica.Fluid.Utilities.regSquare2.regSquare2_utility(tank2.ports[1].m_flow, tank2.m_flow_turbulent[1], (tank2.ports_penetration[1] * ((-1.0) + tank2.portAreas[1] ^ 2.0 / tank2.vesselArea ^ 2.0 + tank2.portsData_zeta_in[1])) / tank2.portInDensities[1], ((1.0 + tank2.portsData_zeta_out[1]) - tank2.portAreas[1] ^ 2.0 / tank2.vesselArea ^ 2.0) / (tank2.ports_penetration[1] * 995.586), false, 1.0) else -Modelica.Fluid.Utilities.regSquare2.regSquare2_utility(-tank2.ports[1].m_flow, tank2.m_flow_turbulent[1], ((1.0 + tank2.portsData_zeta_out[1]) - tank2.portAreas[1] ^ 2.0 / tank2.vesselArea ^ 2.0) / (tank2.ports_penetration[1] * 995.586), (tank2.ports_penetration[1] * ((-1.0) + tank2.portAreas[1] ^ 2.0 / tank2.vesselArea ^ 2.0 + tank2.portsData_zeta_in[1])) / tank2.portInDensities[1], false, 1.0)) ($RES_SIM_14)
(12)      [----] elseif tank2.inFlow[1] then
(12)      [----]   [SCAL] (1) tank2.ports[1].p = tank2.vessel_ps_static[1] ($RES_SIM_15)
(12)      [----] else
(12)      [----]   [SCAL] (1) tank2.ports[1].m_flow = 0.0 ($RES_SIM_16)
(12)      [----] end if;
(13)      [-IF-] (1)if tank2.regularFlow[1] then
(13)      [----]   [SCAL] (1) tank2.s[1] = tank2.fluidLevel - tank2.portsData_height[1] ($RES_SIM_18)
(13)      [----] elseif tank2.inFlow[1] then
(13)      [----]   [SCAL] (1) tank2.s[1] = tank2.ports[1].m_flow ($RES_SIM_19)
(13)      [----] else
(13)      [----]   [SCAL] (1) tank2.s[1] = ((tank2.ports[1].p - tank2.vessel_ps_static[1]) / 101325.0) * (tank2.portsData_height[1] - tank2.fluidLevel) ($RES_SIM_20)
(13)      [----] end if;
(14)      [SCAL] (1) tank1.fluidVolume = tank1.crossArea * tank1.fluidLevel ($RES_SIM_92)
(15)      [ARRY] (1) tank1.heatTransfer.Q_flows = tank1.heatTransfer.heatPorts.Q_flow ($RES_SIM_93)
(16)      [ARRY] (1) tank1.heatTransfer.Ts = tank1.heatTransfer.heatPorts.T ($RES_SIM_94)
(17)      [SCAL] (1) tank1.medium.state.p = tank1.p_ambient ($RES_SIM_99)
(18)      [SCAL] (1) tank2.ports[1].h_outflow = 4184.0 * ((-273.15) - ((-273.15) - tank2.medium.T_degC)) ($RES_SIM_21)
(19)      [SCAL] (1) tank2.ports_E_flow[1] = tank2.ports[1].m_flow * (0.5 * tank2.portVelocities[1] * tank2.portVelocities[1] + system.g * tank2.portsData_height[1]) ($RES_SIM_22)
(20)      [SCAL] (1) tank2.ports_H_flow[1] = smooth(0, tank2.ports[1].m_flow * (if $SEV_8 then pipe.port_b.h_outflow else tank2.ports[1].h_outflow)) ($RES_SIM_23)
(21)      [SCAL] (1) tank2.m_flow_turbulent[1] = tank2.m_flow_small ($RES_SIM_24)
(22)      [SCAL] (1) tank2.portVelocities[1] = smooth(0, 0.0010044335697769957 * (tank2.ports[1].m_flow / tank2.portAreas[1])) ($RES_SIM_25)
(23)      [SCAL] (1) tank2.portInDensities[1] = 995.586 ($RES_SIM_26)
(24)      [SCAL] (1) tank2.Qb_flow = tank2.heatTransfer.Q_flows[1] ($RES_SIM_29)
(25)      [SCAL] (1) tank2.Hb_flow = $FUN_6 + $FUN_7 ($RES_SIM_30)
(26)      [SCAL] (1) tank2.vessel_ps_static[1] = 995.586 * system.g * max(0.0, tank2.fluidLevel - tank2.portsData_height[1]) + tank2.p_ambient ($RES_SIM_32)
(27)      [ARRY] (1) tank1.heatTransfer.surfaceAreas = {2.0 * $FUN_11 * tank1.fluidLevel + tank1.crossArea} ($RES_BND_124)
(28)      [ARRY] (1) tank1.heatTransfer.Ts = {tank1.heatTransfer.states.p} ($RES_BND_125)
(29)      [SCAL] (1) tank2.fluidVolume = tank2.crossArea * tank2.fluidLevel ($RES_SIM_35)
(30)      [ARRY] (1) tank1.portAreas = {0.7853981633974483 * tank1.portsData_diameter[1] ^ 2.0} ($RES_BND_126)
(31)      [ARRY] (1) tank2.heatTransfer.Q_flows = tank2.heatTransfer.heatPorts.Q_flow ($RES_SIM_36)
(32)      [ARRY] (1) tank2.heatTransfer.Ts = tank2.heatTransfer.heatPorts.T ($RES_SIM_37)
(33)      [ARRY] (1) tank1.portsData_diameter_internal = tank1.portsData.diameter ($RES_BND_128)
(34)      [ARRY] (1) tank1.portsData_height_internal = tank1.portsData.height ($RES_BND_129)
(35)      [SCAL] (1) tank1.mb_flow = sum(tank1.ports.m_flow) ($RES_$AUX_170)
(36)      [ARRY] (1) tank1.portsData_zeta_in_internal = tank1.portsData.zeta_in ($RES_BND_130)
(37)      [ARRY] (1) tank1.portsData_zeta_out_internal = tank1.portsData.zeta_out ($RES_BND_131)
(38)      [ARRY] (2) pipe.flowModel.vs = {-(0.0010044335697769957 * pipe.port_b.m_flow) / pipe.flowModel.crossAreas[1], -(0.0010044335697769957 * pipe.port_b.m_flow) / pipe.flowModel.crossAreas[2]} / pipe.nParallel ($RES_BND_132)
(39)      [SCAL] (1) tank2.medium.state.p = tank2.p_ambient ($RES_SIM_42)
(40)      [ARRY] (2) pipe.flowModel.crossAreas = {pipe.crossArea, pipe.crossArea} ($RES_BND_133)
(41)      [SCAL] (1) tank2.medium.state.T = -((-273.15) - tank2.medium.T_degC) ($RES_SIM_43)
(42)      [ARRY] (2) pipe.flowModel.dimensions = {(4.0 * pipe.crossArea) / pipe.perimeter, (4.0 * pipe.crossArea) / pipe.perimeter} ($RES_BND_134)
(43)      [ARRY] (2) pipe.flowModel.roughnesses = {pipe.roughness, pipe.roughness} ($RES_BND_135)
(44)      [SCAL] (1) $FUN_2 = sum(tank1.ports_H_flow) ($RES_$AUX_169)
(45)      [ARRY] (1) pipe.flowModel.dheights = {pipe.height_ab} ($RES_BND_136)
(46)      [SCAL] (1) $FUN_3 = sum(tank1.ports_E_flow) ($RES_$AUX_168)
(47)      [ARRY] (1) pipe.flowModel.pathLengths = {pipe.length} ($RES_BND_137)
(48)      [SCAL] (1) $FUN_4 = Modelica.Fluid.Examples.Tanks.EmptyTanks.pipe.flowModel.WallFriction.massFlowRate_dp_staticHead(pipe.flowModel.dps_fg[1], pipe.flowModel.rhos[1], pipe.flowModel.rhos[2], pipe.flowModel.mus[1], pipe.flowModel.mus[2], pipe.flowModel.pathLengths_internal[1], pipe.flowModel.diameters[1], (pipe.flowModel.g * pipe.flowModel.dheights)[1], (0.5 .* (pipe.flowModel.crossAreas[1:1] + pipe.flowModel.crossAreas[2:2]))[1], (0.5 .* (pipe.flowModel.roughnesses[1:1] + pipe.flowModel.roughnesses[2:2]))[1], pipe.flowModel.dp_small, pipe.flowModel.Res_turbulent_internal[1]) ($RES_$AUX_167)
(49)      [FOR-] (2) ($RES_BND_138)
(49)      [----] for $i1 in 1:2 loop
(49)      [----]   [SCAL] (1) pipe.flowModel.rhos[$i1] = 995.586 ($RES_BND_139)
(49)      [----] end for;
(50)      [SCAL] (1) tank2.mb_flow = sum(tank2.ports.m_flow) ($RES_$AUX_166)
(51)      [SCAL] (1) $FUN_6 = sum(tank2.ports_H_flow) ($RES_$AUX_165)
(52)      [SCAL] (1) $FUN_7 = sum(tank2.ports_E_flow) ($RES_$AUX_164)
(53)      [SCAL] (1) $FUN_8 = sqrt(3.141592653589793 * tank2.crossArea) ($RES_$AUX_163)
(54)      [SCAL] (1) $FUN_9 = Modelica.Fluid.Examples.Tanks.EmptyTanks.pipe.flowModel.WallFriction.pressureLoss_m_flow(pipe.flowModel.m_flow_nominal / pipe.flowModel.nParallel, pipe.flowModel.rho_nominal, pipe.flowModel.rho_nominal, pipe.flowModel.mu_nominal, pipe.flowModel.mu_nominal, pipe.flowModel.pathLengths_internal[1], pipe.flowModel.diameters[1], (0.5 .* (pipe.flowModel.crossAreas[2:2] + pipe.flowModel.crossAreas[1:1]))[1], (0.5 .* (pipe.flowModel.roughnesses[2:2] + pipe.flowModel.roughnesses[1:1]))[1], pipe.flowModel.m_flow_small / pipe.flowModel.nParallel, pipe.flowModel.Res_turbulent_internal[1]) ($RES_$AUX_162)
(55)      [SCAL] (1) pipe.flowModel.dp_fric_nominal = sum({$FUN_9}) ($RES_$AUX_161)
(56)      [SCAL] (1) $FUN_11 = sqrt(3.141592653589793 * tank1.crossArea) ($RES_$AUX_160)
(57)      [FOR-] (2) ($RES_BND_140)
(57)      [----] for $i1 in 1:2 loop
(57)      [----]   [SCAL] (1) pipe.flowModel.mus[$i1] = 0.001 ($RES_BND_141)
(57)      [----] end for;
(58)      [SCAL] (1) $SEV_0 = tank2.fluidLevel - (tank2.portsData_height[1] + 0.1 * tank2.portsData_diameter[1]) > 0.1 * tank2.portsData_diameter[1] ($RES_EVT_177)
(59)      [ARRY] (1) pipe.flowModel.pathLengths_internal = pipe.flowModel.pathLengths ($RES_BND_142)
(60)      [SCAL] (1) pipe.port_a.h_outflow = tank2.ports[1].h_outflow + system.g * pipe.height_ab ($RES_SIM_51)
(61)      [SCAL] (1) $SEV_1 = tank2.fluidLevel - (tank2.portsData_height[1] + 0.1 * tank2.portsData_diameter[1]) < (-0.1 * tank2.portsData_diameter[1]) ($RES_EVT_178)
(62)      [SCAL] (1) pipe.flowModel.Res_turbulent_internal[1] = pipe.flowModel.Re_turbulent ($RES_BND_143)
(63)      [SCAL] (1) pipe.port_b.h_outflow = tank1.ports[1].h_outflow - system.g * pipe.height_ab ($RES_SIM_52)
(64)      [SCAL] (1) $SEV_2 = 0.1 * tank2.portsData_diameter[1] > 0.0 ($RES_EVT_179)
(65)      [ARRY] (1) pipe.flowModel.diameters = 0.5 * (pipe.flowModel.dimensions[2:2] + pipe.flowModel.dimensions[1:1]) ($RES_BND_144)
(66)      [SCAL] (1) tank2.m = 995.586 * tank2.fluidVolume ($RES_SIM_9)
(67)      [SCAL] (1) -pipe.port_b.m_flow = pipe.flowModel.m_flows[1] ($RES_SIM_54)
(68)      [SCAL] (1) tank2.U = tank2.m * (4184.0 * ((-273.15) - ((-273.15) - tank2.medium.T_degC))) ($RES_SIM_8)
(69)      [ARRY] (1) {0.0} = pipe.flowModel.Ib_flows - (pipe.flowModel.Fs_fg + pipe.flowModel.Fs_p) ($RES_SIM_55)
(70)      [SCAL] (1) $DER.tank2.U = tank2.Qb_flow + tank2.Hb_flow ($RES_SIM_7)
(71)      [ARRY] (1) pipe.flowModel.Is = {pipe.flowModel.m_flows[1] * pipe.flowModel.pathLengths[1]} ($RES_SIM_56)
(72)      [SCAL] (1) $DER.tank2.m = tank2.mb_flow ($RES_SIM_6)
(73)      [ARRY] (1) pipe.flowModel.dps_fg = {(2.0 * (pipe.flowModel.Fs_fg[1] / pipe.flowModel.nParallel)) / (pipe.flowModel.crossAreas[1] + pipe.flowModel.crossAreas[2])} ($RES_SIM_57)
(74)      [ARRY] (1) pipe.flowModel.Fs_p = pipe.flowModel.nParallel * {0.5 * (pipe.flowModel.crossAreas[1] + pipe.flowModel.crossAreas[2]) * (pipe.flowModel.states.T - pipe.flowModel.states.T)} ($RES_SIM_58)
(75)      [ARRY] (1) tank2.heatTransfer.surfaceAreas = {2.0 * $FUN_8 * tank2.fluidLevel + tank2.crossArea} ($RES_BND_149)
(76)      [ARRY] (1) pipe.flowModel.Ib_flows = {0.0} ($RES_SIM_59)
(77)      [SCAL] (1) $SEV_3 = tank2.fluidLevel >= tank2.portsData_height[1] ($RES_EVT_180)
(78)      [SCAL] (1) $SEV_4 = not tank2.regularFlow[1] and (tank2.s[1] > 0.0 or tank2.portsData_height[1] >= tank2.fluidLevel_max) ($RES_EVT_181)
(79)      [SCAL] (1) $SEV_5 = tank2.ports[1].m_flow >= tank2.m_flow_turbulent[1] ($RES_EVT_182)
(80)      [SCAL] (1) $SEV_6 = tank2.ports[1].m_flow <= (-tank2.m_flow_turbulent[1]) ($RES_EVT_183)
(81)      [SCAL] (1) $SEV_7 = (tank2.ports_penetration[1] * ((-1.0) + tank2.portAreas[1] ^ 2.0 / tank2.vesselArea ^ 2.0 + tank2.portsData_zeta_in[1])) / tank2.portInDensities[1] >= ((1.0 + tank2.portsData_zeta_out[1]) - tank2.portAreas[1] ^ 2.0 / tank2.vesselArea ^ 2.0) / (tank2.ports_penetration[1] * 995.586) ($RES_EVT_184)
(82)      [SCAL] (1) $SEV_8 = tank2.ports[1].m_flow > 0.0 ($RES_EVT_185)
(83)      [SCAL] (1) $SEV_9 = tank2.fluidLevel > (-1e-6 * tank2.fluidLevel_max) ($RES_EVT_186)
(84)      [ARRY] (1) tank2.heatTransfer.Ts = {tank2.heatTransfer.states.p} ($RES_BND_150)
(85)      [SCAL] (1) $SEV_10 = tank2.fluidLevel <= tank2.fluidLevel_max ($RES_EVT_187)
(86)      [SCAL] (1) pipe.flowModel.rhos_act[1] = noEvent(if $SEV_15 then pipe.flowModel.rhos[1] else pipe.flowModel.rhos[2]) ($RES_SIM_60)
(87)      [ARRY] (1) tank2.portAreas = {0.7853981633974483 * tank2.portsData_diameter[1] ^ 2.0} ($RES_BND_151)
(88)      [SCAL] (1) tank1.medium.state.T = -((-273.15) - tank1.medium.T_degC) ($RES_SIM_100)
(89)      [SCAL] (1) pipe.flowModel.mus_act[1] = noEvent(if $SEV_15 then pipe.flowModel.mus[1] else pipe.flowModel.mus[2]) ($RES_SIM_61)
(90)      [ARRY] (1) pipe.flowModel.m_flows = {homotopy(({$FUN_4} .* pipe.flowModel.nParallel)[1], (pipe.flowModel.m_flow_nominal / pipe.flowModel.dp_nominal * (pipe.flowModel.dps_fg - (pipe.flowModel.g * pipe.flowModel.dheights) .* pipe.flowModel.rho_nominal))[1])} ($RES_SIM_62)
(91)      [ARRY] (1) tank2.portsData_diameter_internal = tank2.portsData.diameter ($RES_BND_153)
(92)      [SCAL] (1) $DER.tank1.m = tank1.mb_flow ($RES_SIM_63)
(93)      [ARRY] (1) tank2.portsData_height_internal = tank2.portsData.height ($RES_BND_154)
(94)      [SCAL] (1) $DER.tank1.U = tank1.Qb_flow + tank1.Hb_flow ($RES_SIM_64)
(95)      [ARRY] (1) tank2.portsData_zeta_in_internal = tank2.portsData.zeta_in ($RES_BND_155)
(96)      [SCAL] (1) tank1.U = tank1.m * (4184.0 * ((-273.15) - ((-273.15) - tank1.medium.T_degC))) ($RES_SIM_65)
(97)      [ARRY] (1) tank2.portsData_zeta_out_internal = tank2.portsData.zeta_out ($RES_BND_156)
(98)      [SCAL] (1) tank1.m = 995.586 * tank1.fluidVolume ($RES_SIM_66)
(99)      [ARRY] (2) tank1.heatTransfer.states = {tank1.medium.state} ($RES_BND_157)
(100)     [SCAL] (1) tank1.ports_penetration[1] = smooth(1, if $SEV_16 then 1.0 else if $SEV_17 then 0.001 else if $SEV_18 then 0.5005 - 0.24975 * ((-3.0) + ((tank1.fluidLevel - (0.1 * tank1.portsData_diameter[1] + tank1.portsData_height[1])) / (0.1 * tank1.portsData_diameter[1])) ^ 2.0) * ((10.0 * (tank1.fluidLevel - (tank1.portsData_height[1] + 0.1 * tank1.portsData_diameter[1]))) / tank1.portsData_diameter[1]) else 0.5005) ($RES_SIM_67)
(101)     [ARRY] (4) pipe.flowModel.states = {Modelica.Fluid.Examples.Tanks.EmptyTanks.pipe.Medium.ThermodynamicState(pipe.port_a.p, 273.15 + 2.390057361376673e-4 * tank1.ports[1].h_outflow), Modelica.Fluid.Examples.Tanks.EmptyTanks.pipe.Medium.ThermodynamicState(pipe.port_b.p, 273.15 + 2.390057361376673e-4 * tank2.ports[1].h_outflow)} ($RES_BND_158)
(102)     [SCAL] (1) tank2.heatTransfer.heatPorts[1].Q_flow = 0.0 ($RES_SIM_107)
(103)     [SCAL] (1) tank1.regularFlow[1] = $SEV_19 ($RES_SIM_68)
(104)     [ARRY] (2) tank2.heatTransfer.states = {tank2.medium.state} ($RES_BND_159)
(105)     [SCAL] (1) pipe.port_b.m_flow + tank2.ports[1].m_flow = 0.0 ($RES_SIM_108)
(106)     [SCAL] (1) tank1.inFlow[1] = $SEV_20 ($RES_SIM_69)
(107)     [SCAL] (1) tank1.heatTransfer.heatPorts[1].Q_flow = 0.0 ($RES_SIM_109)
(108)     [SCAL] (1) $SEV_15 = pipe.flowModel.m_flows[1] > 0.0 ($RES_EVT_192)
(109)     [SCAL] (1) $SEV_16 = tank1.fluidLevel - (tank1.portsData_height[1] + 0.1 * tank1.portsData_diameter[1]) > 0.1 * tank1.portsData_diameter[1] ($RES_EVT_193)
(110)     [SCAL] (1) $SEV_17 = tank1.fluidLevel - (tank1.portsData_height[1] + 0.1 * tank1.portsData_diameter[1]) < (-0.1 * tank1.portsData_diameter[1]) ($RES_EVT_194)
(111)     [SCAL] (1) $SEV_18 = 0.1 * tank1.portsData_diameter[1] > 0.0 ($RES_EVT_195)
(112)     [SCAL] (1) $SEV_19 = tank1.fluidLevel >= tank1.portsData_height[1] ($RES_EVT_196)
(113)     [SCAL] (1) $SEV_20 = not tank1.regularFlow[1] and (tank1.s[1] > 0.0 or tank1.portsData_height[1] >= tank1.fluidLevel_max) ($RES_EVT_197)
(114)     [-IF-] (1)if tank1.regularFlow[1] then
(114)     [----]   [SCAL] (1) tank1.ports[1].p = tank1.vessel_ps_static[1] + (0.5 / tank1.portAreas[1] ^ 2.0) * smooth(2, if $SEV_21 then (tank1.ports_penetration[1] * ((-1.0) + tank1.portAreas[1] ^ 2.0 / tank1.vesselArea ^ 2.0 + tank1.portsData_zeta_in[1]) * tank1.ports[1].m_flow ^ 2.0) / tank1.portInDensities[1] else if $SEV_22 then -(((1.0 + tank1.portsData_zeta_out[1]) - tank1.portAreas[1] ^ 2.0 / tank1.vesselArea ^ 2.0) * tank1.ports[1].m_flow ^ 2.0) / (tank1.ports_penetration[1] * 995.586) else if $SEV_23 then Modelica.Fluid.Utilities.regSquare2.regSquare2_utility(tank1.ports[1].m_flow, tank1.m_flow_turbulent[1], (tank1.ports_penetration[1] * ((-1.0) + tank1.portAreas[1] ^ 2.0 / tank1.vesselArea ^ 2.0 + tank1.portsData_zeta_in[1])) / tank1.portInDensities[1], ((1.0 + tank1.portsData_zeta_out[1]) - tank1.portAreas[1] ^ 2.0 / tank1.vesselArea ^ 2.0) / (tank1.ports_penetration[1] * 995.586), false, 1.0) else -Modelica.Fluid.Utilities.regSquare2.regSquare2_utility(-tank1.ports[1].m_flow, tank1.m_flow_turbulent[1], ((1.0 + tank1.portsData_zeta_out[1]) - tank1.portAreas[1] ^ 2.0 / tank1.vesselArea ^ 2.0) / (tank1.ports_penetration[1] * 995.586), (tank1.ports_penetration[1] * ((-1.0) + tank1.portAreas[1] ^ 2.0 / tank1.vesselArea ^ 2.0 + tank1.portsData_zeta_in[1])) / tank1.portInDensities[1], false, 1.0)) ($RES_SIM_71)
(114)     [----] elseif tank1.inFlow[1] then
(114)     [----]   [SCAL] (1) tank1.ports[1].p = tank1.vessel_ps_static[1] ($RES_SIM_72)
(114)     [----] else
(114)     [----]   [SCAL] (1) tank1.ports[1].m_flow = 0.0 ($RES_SIM_73)
(114)     [----] end if;
(115)     [SCAL] (1) pipe.port_b.p = tank2.ports[1].p ($RES_SIM_110)
(116)     [SCAL] (1) $SEV_21 = tank1.ports[1].m_flow >= tank1.m_flow_turbulent[1] ($RES_EVT_198)
(117)     [SCAL] (1) tank1.ports[1].m_flow - pipe.port_b.m_flow = 0.0 ($RES_SIM_111)
(118)     [SCAL] (1) $SEV_22 = tank1.ports[1].m_flow <= (-tank1.m_flow_turbulent[1]) ($RES_EVT_199)
(119)     [SCAL] (1) tank1.ports[1].p = pipe.port_a.p ($RES_SIM_112)
(120)     [ARRY] (1) tank2.portsData_zeta_out = tank2.portsData_zeta_out_internal ($RES_SIM_113)
(121)     [-IF-] (1)if tank1.regularFlow[1] then
(121)     [----]   [SCAL] (1) tank1.s[1] = tank1.fluidLevel - tank1.portsData_height[1] ($RES_SIM_75)
(121)     [----] elseif tank1.inFlow[1] then
(121)     [----]   [SCAL] (1) tank1.s[1] = tank1.ports[1].m_flow ($RES_SIM_76)
(121)     [----] else
(121)     [----]   [SCAL] (1) tank1.s[1] = ((tank1.ports[1].p - tank1.vessel_ps_static[1]) / 101325.0) * (tank1.portsData_height[1] - tank1.fluidLevel) ($RES_SIM_77)
(121)     [----] end if;
(122)     [ARRY] (1) tank2.portsData_zeta_in = tank2.portsData_zeta_in_internal ($RES_SIM_114)
(123)     [ARRY] (1) tank2.portsData_height = tank2.portsData_height_internal ($RES_SIM_115)
(124)     [ARRY] (1) tank2.portsData_diameter = tank2.portsData_diameter_internal ($RES_SIM_116)
(125)     [ARRY] (1) tank1.portsData_zeta_out = tank1.portsData_zeta_out_internal ($RES_SIM_117)
(126)     [SCAL] (1) tank1.ports[1].h_outflow = 4184.0 * ((-273.15) - ((-273.15) - tank1.medium.T_degC)) ($RES_SIM_78)
(127)     [ARRY] (1) tank1.portsData_zeta_in = tank1.portsData_zeta_in_internal ($RES_SIM_118)
(128)     [SCAL] (1) tank1.ports_E_flow[1] = tank1.ports[1].m_flow * (0.5 * tank1.portVelocities[1] * tank1.portVelocities[1] + system.g * tank1.portsData_height[1]) ($RES_SIM_79)
(129)     [ARRY] (1) tank1.portsData_height = tank1.portsData_height_internal ($RES_SIM_119)
(130)     [SCAL] (1) $SEV_23 = (tank1.ports_penetration[1] * ((-1.0) + tank1.portAreas[1] ^ 2.0 / tank1.vesselArea ^ 2.0 + tank1.portsData_zeta_in[1])) / tank1.portInDensities[1] >= ((1.0 + tank1.portsData_zeta_out[1]) - tank1.portAreas[1] ^ 2.0 / tank1.vesselArea ^ 2.0) / (tank1.ports_penetration[1] * 995.586) ($RES_EVT_200)
(131)     [SCAL] (1) $SEV_24 = tank1.ports[1].m_flow > 0.0 ($RES_EVT_201)
(132)     [SCAL] (1) $SEV_25 = tank1.fluidLevel > (-1e-6 * tank1.fluidLevel_max) ($RES_EVT_202)
(133)     [SCAL] (1) $SEV_26 = tank1.fluidLevel <= tank1.fluidLevel_max ($RES_EVT_203)