#1
char Aclass(3,32)
Adymosim
1.4
Final state generated by Dymosim


#    Experiment parameters
double experiment(7,1)
    3600                   # StartTime    Time at which integration starts
                           #              (and linearization and trimming time)
    7200                   # StopTime     Time at which integration stops
       0                   # Increment    Communication step size, if > 0
     500                   # nInterval    Number of communication intervals, if > 0
  9.9999999999999995E-07   # Tolerance    Relative precision of signals for
                           #              simulation, linearization and trimming
       0                   # MaxFixedStep Maximum step size of fixed step size
                           #              integrators, if > 0.0
       8                   # Algorithm    Integration algorithm as integer (1...28)
                           #
                           #             | model|       |        | dense | state |
                           # Algorithm   | typ  | stiff | order  | output| event |
                           # ------------+------+-------+--------+-------+-------+
                           #  1 | deabm  |  ode |   no  |  1-12  |  yes  |   no  |
                           #  2 | lsode1 |  ode |   no  |  1-12  |  yes  |   no  |
                           #  3 | lsode2 |  ode |  yes  |  1-5   |  yes  |   no  |
                           #  4 | lsodar |  ode |  both |1-12,1-5|  yes  |  yes  |
                           #  5 | dopri5 |  ode |   no  |   5    |   no  |   no  |
                           #  6 | dopri8 |  ode |   no  |   8    |   no  |   no  |
                           #  7 | grk4t  |  ode |  yes  |   4    |   no  |   no  |
                           #  8 | dassl  |  dae |  yes  |  1-5   |  yes  |  yes  |
                           #  9 | odassl | hdae |  yes  |  1-5   |  yes  |  yes  |
                           # 10 | mexx   | hdae |   no  |  2-24  |   no  |   no  |
                           # 11 | euler  |  ode |   no  |   1    |   no  |  yes  |
                           # 12 | rkfix2 |  ode |   no  |   2    |   no  |  yes  |
                           # 13 | rkfix3 |  ode |   no  |   3    |   no  |  yes  |
                           # 14 | rkfix4 |  ode |   no  |   4    |   no  |  yes  |
                           #>=14| others |  ode |yes/no |  2-5   |   yes |  yes  |
                           # ---+--------+------+-------+--------+-------+-------+
                           # euler and rkfix have fixed stepsize.


#    Method tuning parameters
double method(27,1)
       1                   # grid     type of communication time grid, defined by
                           #          = 1: equidistant points ("Increment/nInterval")
                           #          = 2: vector of grid points ("tgrid")
                           #          = 3: variable step integrator (automatically)
                           #          = 4: model (call of "increment" in Dymola, e.g.
                           #                      incr=Time > 2 then 0 else 0.1
                           #                      dummy=increment(incr))
                           #          grid = 1,3 is stopped by "StopTime"
                           #          grid = 2   is stopped by "tgrid(last)"
                           #          grid = 4   runs forever (stopped by model)
       1                   # nt       Use every NT time instant, if grid = 3
       3                   # dense    1/2/3 restart/step/interpolate GRID points
       1                   # evgrid   0/1 do not/save event points in comm. time grid
       1                   # evu      0/1 U-discontinuity does not/trigger events
       0                   # evuord       U-discontinuity order to consider (0,1,...)
       0                   # error    0/1/2 One message/warning/error messages
       0                   # jac      0/1 Compute jacobian numerically/by BLOCKJ
       0                   # xd0c     0/1 Compute/set XD0
       0                   # f3       0/1 Ignore/use F3 of HDAE (= index 1)
       0                   # f4       0/1 Ignore/use F4 of HDAE (= index 2)
       0                   # f5       0/1 Ignore/use F5 of HDAE (= invar.)
       0                   # debug    flags for debug information (1<<0 uses pdebug) 
     100                   # pdebug       priority of debug information (1...100)
       0                   # fmax     Maximum number of evaluations of BLOCKF, if > 0
       0                   # ordmax   Maximum allowed integration order, if > 0
       0                   # hmax     Maximum absolute stepsize, if > 0
       0                   # hmin     Minimum absolute stepsize, if > 0 (use with care!)
       0                   # h0       Stepsize to be attempted on first step, if > 0
  2.0000000000000000E-14   # teps     Bound to check, if 2 equal time instants
  1.0000000000000000E-10   # eveps    Hysteresis epsilon at event points
      20                   # eviter   Maximum number of event iterations
  9.9999999999999995E-07   # delaym   Minimum time increment in delay buffers
       1                   # fexcep   0/1 floating exception crashes/stops dymosim
       1                   # tscale   clock-time = tscale*simulation-time, if grid = 5
                           #          > 1: simulation too slow
                           #          = 1: simulation-time = real-time
                           #          < 1: simulation too fast
       1                   # shared   (not used)
    2473                   # memkey   (not used)


#    Output parameters
int settings(13,1)
 0                         # lprec    0/1 do not/store result data in double
 1                         # lx       0/1 do not/store x  (state variables)
 1                         # lxd      0/1 do not/store xd (derivative of states)
 1                         # lu       0/1 do not/store u  (input     signals)
 1                         # ly       0/1 do not/store y  (output    signals)
 0                         # lz       0/1 do not/store z  (indicator signals)
 1                         # lw       0/1 do not/store w  (auxiliary signals)
 1                         # la       0/1 do not/store a  (alias     signals)
 0                         # lperf    0/1 do not/store performance indicators
 0                         # levent   0/1 do not/store event point
 1                         # lres     0/1 do not/store results on result file
 0                         # lshare   0/1 do not/store info data for shared memory on dsshare.txt
 1                         # lform    0/1 ASCII/Matlab-binary storage format of results
                           #              (for simulation/linearization; not for trimming)


#    Names of initial variables
char initialName(1354,85)
sourceSideMassFlowSource.nPorts
sourceSideMassFlowSource.verifyInputs
sourceSideMassFlowSource.ports[1].h_outflow
sourceSideMassFlowSource.flowDirection
sourceSideMassFlowSource.X_in_internal[1]
sourceSideMassFlowSource.use_m_flow_in
sourceSideMassFlowSource.m_flow
sourceSideMassFlowSource.use_T_in
sourceSideMassFlowSource.T
sourceSideMassFlowSource.T_in_internal
sourceSideMassFlowSource.use_X_in
sourceSideMassFlowSource.use_Xi_in
sourceSideMassFlowSource.use_C_in
sourceSideMassFlowSource.X[1]
sourceSideFixedBoundary.nPorts
sourceSideFixedBoundary.verifyInputs
sourceSideFixedBoundary.ports[1].h_outflow
sourceSideFixedBoundary.flowDirection
sourceSideFixedBoundary.medium.T
sourceSideFixedBoundary.medium.d
sourceSideFixedBoundary.medium.X[1]
sourceSideFixedBoundary.medium.R
sourceSideFixedBoundary.medium.MM
sourceSideFixedBoundary.medium.preferredMediumStates
sourceSideFixedBoundary.medium.standardOrderComponents
sourceSideFixedBoundary.medium.T_degC
sourceSideFixedBoundary.medium.p_bar
sourceSideFixedBoundary.use_p
sourceSideFixedBoundary.p
sourceSideFixedBoundary.d
sourceSideFixedBoundary.use_T
sourceSideFixedBoundary.T
sourceSideFixedBoundary.h
sourceSideFixedBoundary.X[1]
TsuSourceRamp.height
TsuSourceRamp.duration
TsuSourceRamp.offset
TsuSourceRamp.startTime
T_amb_internal.k
heatPump.allowFlowReversal1
heatPump.allowFlowReversal2
heatPump.port_a1.m_flow
heatPump.port_a1.h_outflow
heatPump.port_a2.h_outflow
heatPump.m1_flow_nominal
heatPump.m2_flow_nominal
heatPump.m1_flow_small
heatPump.m2_flow_small
heatPump.show_T
heatPump.dp1
heatPump.dp2
heatPump.state_a1_inflow.T
heatPump.state_b1_inflow.T
heatPump.state_a2_inflow.T
heatPump.state_b2_inflow.T
heatPump.use_revHP
heatPump.scalingFactor
heatPump.use_refIne
heatPump.refIneFre_constant
heatPump.nthOrder
heatPump.mFlow_conNominal
heatPump.VCon
heatPump.dpCon_nominal
heatPump.deltaM_con
heatPump.use_conCap
heatPump.CCon
heatPump.GConOut
heatPump.GConIns
heatPump.mFlow_evaNominal
heatPump.VEva
heatPump.dpEva_nominal
heatPump.deltaM_eva
heatPump.use_evaCap
heatPump.CEva
heatPump.GEvaOut
heatPump.GEvaIns
heatPump.tauSenT
heatPump.transferHeat
heatPump.allowFlowReversalEva
heatPump.allowFlowReversalCon
heatPump.tauHeaTraEva
heatPump.tauHeaTraCon
heatPump.TAmbCon_nominal
heatPump.TAmbEva_nominal
heatPump.initType
heatPump.pCon_start
heatPump.TCon_start
heatPump.fixed_TCon_start
heatPump.XCon_start[1]
heatPump.pEva_start
heatPump.TEva_start
heatPump.fixed_TEva_start
heatPump.XEva_start[1]
heatPump.x_start[1]
heatPump.x_start[2]
heatPump.x_start[3]
heatPump.yRefIne_start
heatPump.massDynamics
heatPump.energyDynamics
heatPump.show_TPort
heatPump.from_dp
heatPump.homotopyInitialization
heatPump.linearized
heatPump.con.allowFlowReversal
heatPump.con.m_flow_nominal
heatPump.con.m_flow_small
heatPump.con.show_T
heatPump.con.dp
heatPump.con._m_flow_start
heatPump.con._dp_start
heatPump.con.computeFlowResistance
heatPump.con.from_dp
heatPump.con.dp_nominal
heatPump.con.linearizeFlowResistance
heatPump.con.deltaM
heatPump.con.tau
heatPump.con.homotopyInitialization
heatPump.con.energyDynamics
heatPump.con.massDynamics
heatPump.con.p_start
heatPump.con.T_start
heatPump.con.X_start[1]
heatPump.con.vol.energyDynamics
heatPump.con.vol.massDynamics
heatPump.con.vol.substanceDynamics
heatPump.con.vol.traceDynamics
heatPump.con.vol.p_start
heatPump.con.vol.T_start
heatPump.con.vol.X_start[1]
heatPump.con.vol.mSenFac
heatPump.con.vol.initialize_p
heatPump.con.vol.prescribedHeatFlowRate
heatPump.con.vol.simplify_mWat_flow
heatPump.con.vol.m_flow_nominal
heatPump.con.vol.nPorts
heatPump.con.vol.m_flow_small
heatPump.con.vol.allowFlowReversal
heatPump.con.vol.V
heatPump.con.vol.T
heatPump.con.vol.m
heatPump.con.vol.rho_start
_GlobalScope.Modelica.Media.Interfaces.PartialPureSubstance.X_default[1]
heatPump.con.vol.state_default.p
heatPump.con.vol.state_default.T
heatPump.con.vol.rho_default
heatPump.con.vol.state_start.p
heatPump.con.vol.state_start.T
heatPump.con.vol.useSteadyStateTwoPort
heatPump.con.vol.use_C_flow
heatPump.con.preDro.allowFlowReversal
heatPump.con.preDro.m_flow_nominal
heatPump.con.preDro.m_flow_small
heatPump.con.preDro.show_T
heatPump.con.preDro.dp
heatPump.con.preDro._m_flow_start
heatPump.con.preDro._dp_start
heatPump.con.preDro.from_dp
heatPump.con.preDro.dp_nominal
heatPump.con.preDro.homotopyInitialization
heatPump.con.preDro.linearized
heatPump.con.preDro.m_flow_turbulent
heatPump.con.preDro.sta_default.p
heatPump.con.preDro.sta_default.T
heatPump.con.preDro.eta_default
heatPump.con.preDro.m_flow_nominal_pos
heatPump.con.preDro.dp_nominal_pos
heatPump.con.preDro.deltaM
heatPump.con.preDro.k
heatPump.con.preDro.computeFlowResistance
heatPump.con.preDro.coeff
heatPump.con.sta_default.p
heatPump.con.sta_default.T
heatPump.con.rho_default
heatPump.con.sta_start.p
heatPump.con.sta_start.T
heatPump.con.h_outflow_start
heatPump.con.is_con
heatPump.con.V
heatPump.con.use_cap
heatPump.con.C
heatPump.con.fixed_T_start
heatPump.con.GOut
heatPump.con.GInn
heatPump.con.preHea.T_ref
heatPump.con.preHea.alpha
heatPump.con.QFlow_in
heatPump.eva.allowFlowReversal
heatPump.eva.m_flow_nominal
heatPump.eva.m_flow_small
heatPump.eva.show_T
heatPump.eva.dp
heatPump.eva._m_flow_start
heatPump.eva._dp_start
heatPump.eva.computeFlowResistance
heatPump.eva.from_dp
heatPump.eva.dp_nominal
heatPump.eva.linearizeFlowResistance
heatPump.eva.deltaM
heatPump.eva.tau
heatPump.eva.homotopyInitialization
heatPump.eva.energyDynamics
heatPump.eva.massDynamics
heatPump.eva.p_start
heatPump.eva.T_start
heatPump.eva.X_start[1]
heatPump.eva.vol.energyDynamics
heatPump.eva.vol.massDynamics
heatPump.eva.vol.substanceDynamics
heatPump.eva.vol.traceDynamics
heatPump.eva.vol.p_start
heatPump.eva.vol.T_start
heatPump.eva.vol.X_start[1]
heatPump.eva.vol.mSenFac
heatPump.eva.vol.initialize_p
heatPump.eva.vol.prescribedHeatFlowRate
heatPump.eva.vol.simplify_mWat_flow
heatPump.eva.vol.m_flow_nominal
heatPump.eva.vol.nPorts
heatPump.eva.vol.m_flow_small
heatPump.eva.vol.allowFlowReversal
heatPump.eva.vol.V
heatPump.eva.vol.T
heatPump.eva.vol.m
heatPump.eva.vol.rho_start
heatPump.eva.vol.state_default.p
heatPump.eva.vol.state_default.T
heatPump.eva.vol.rho_default
heatPump.eva.vol.state_start.p
heatPump.eva.vol.state_start.T
heatPump.eva.vol.useSteadyStateTwoPort
heatPump.eva.vol.use_C_flow
heatPump.eva.preDro.allowFlowReversal
heatPump.eva.preDro.m_flow_nominal
heatPump.eva.preDro.m_flow_small
heatPump.eva.preDro.show_T
heatPump.eva.preDro.dp
heatPump.eva.preDro._m_flow_start
heatPump.eva.preDro._dp_start
heatPump.eva.preDro.from_dp
heatPump.eva.preDro.dp_nominal
heatPump.eva.preDro.homotopyInitialization
heatPump.eva.preDro.linearized
heatPump.eva.preDro.m_flow_turbulent
heatPump.eva.preDro.sta_default.p
heatPump.eva.preDro.sta_default.T
heatPump.eva.preDro.eta_default
heatPump.eva.preDro.m_flow_nominal_pos
heatPump.eva.preDro.dp_nominal_pos
heatPump.eva.preDro.deltaM
heatPump.eva.preDro.k
heatPump.eva.preDro.computeFlowResistance
heatPump.eva.preDro.coeff
heatPump.eva.sta_default.p
heatPump.eva.sta_default.T
heatPump.eva.rho_default
heatPump.eva.sta_start.p
heatPump.eva.sta_start.T
heatPump.eva.h_outflow_start
heatPump.eva.is_con
heatPump.eva.V
heatPump.eva.use_cap
heatPump.eva.C
heatPump.eva.fixed_T_start
heatPump.eva.GOut
heatPump.eva.GInn
heatPump.eva.preHea.T_ref
heatPump.eva.preHea.alpha
heatPump.eva.QFlow_in
heatPump.iceFac_in
heatPump.nSet
heatPump.sigBusHP.mode
heatPump.sigBusHP.Pel
heatPump.sigBusHP.iceFac
heatPump.innerCycle.use_revHP
heatPump.innerCycle.scalingFactor
heatPump.innerCycle.sigBusHP.iceFac
heatPump.innerCycle.PerformanceDataHeater.Pel
heatPump.innerCycle.PerformanceDataHeater.QCon
heatPump.innerCycle.PerformanceDataHeater.sigBusHP.iceFac
heatPump.innerCycle.PerformanceDataHeater.QEva
heatPump.innerCycle.PerformanceDataHeater.scalingFactor
heatPump.innerCycle.PerformanceDataHeater.smoothness
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 1]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 2]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 3]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 4]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 5]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 6]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 7]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 8]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 1]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 2]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 3]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 4]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 5]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 6]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 7]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 8]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 1]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 2]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 3]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 4]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 5]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 6]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 7]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 8]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 1]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 2]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 3]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 4]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 5]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 6]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 7]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 8]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 1]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 2]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 3]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 4]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 5]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 6]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 7]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 8]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 1]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 2]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 3]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 4]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 5]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 6]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 7]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 8]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 1]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 2]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 3]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 4]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 5]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 6]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 7]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 8]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 1]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 2]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 3]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 4]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 5]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 6]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 7]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 8]
heatPump.innerCycle.PerformanceDataHeater.dataTable.mFlow_conNom
heatPump.innerCycle.PerformanceDataHeater.dataTable.mFlow_evaNom
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[1, 1]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[1, 2]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[2, 1]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[2, 2]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[3, 1]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[3, 2]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[4, 1]
heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[4, 2]
heatPump.innerCycle.PerformanceDataHeater.extrapolation
heatPump.innerCycle.PerformanceDataHeater.printAsserts
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.u1
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.u2
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.y
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.extrapolation
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.smoothness
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 1]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 2]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 3]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 4]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 5]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 6]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 7]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 8]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 1]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 2]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 3]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 4]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 5]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 6]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 7]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 8]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[3, 1]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[3, 2]
heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[3, 3]
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heatPump.senT_a2.tauInv
heatPump.senT_a2.T
heatPump.senT_a2.der(T)
heatPump.senT_a2.T_start
heatPump.senT_a2.transferHeat
heatPump.senT_a2.TAmb
heatPump.senT_a2.tauHeaTra
heatPump.senT_a2.tauHeaTraInv
heatPump.senT_a2.ratTau
heatPump.senT_a2.TMed
heatPump.senT_a2.T_a_inflow
heatPump.senT_a2.T_b_inflow
heatPump.senT_b2.allowFlowReversal
heatPump.senT_b2.m_flow_nominal
heatPump.senT_b2.m_flow_small
heatPump.senT_b2.tau
heatPump.senT_b2.initType
heatPump.senT_b2.k
heatPump.senT_b2.dynamic
heatPump.senT_b2.mNor_flow
heatPump.senT_b2.tauInv
heatPump.senT_b2.T
heatPump.senT_b2.der(T)
heatPump.senT_b2.T_start
heatPump.senT_b2.transferHeat
heatPump.senT_b2.TAmb
heatPump.senT_b2.tauHeaTra
heatPump.senT_b2.tauHeaTraInv
heatPump.senT_b2.ratTau
heatPump.senT_b2.TMed
heatPump.senT_b2.T_a_inflow
heatPump.senT_b2.T_b_inflow
heatPump.mFlow_eva.allowFlowReversal
heatPump.mFlow_eva.m_flow_nominal
heatPump.mFlow_eva.m_flow_small
_GlobalScope.Modelica.Media.Interfaces.PartialPureSubstance.X_default_Unique13[1]
heatPump.senT_b1.allowFlowReversal
heatPump.senT_b1.m_flow_nominal
heatPump.senT_b1.m_flow_small
heatPump.senT_b1.tau
heatPump.senT_b1.initType
heatPump.senT_b1.k
heatPump.senT_b1.dynamic
heatPump.senT_b1.mNor_flow
heatPump.senT_b1.tauInv
heatPump.senT_b1.T
heatPump.senT_b1.der(T)
heatPump.senT_b1.T_start
heatPump.senT_b1.transferHeat
heatPump.senT_b1.TAmb
heatPump.senT_b1.tauHeaTra
heatPump.senT_b1.tauHeaTraInv
heatPump.senT_b1.ratTau
heatPump.senT_b1.TMed
heatPump.senT_b1.T_a_inflow
heatPump.senT_b1.T_b_inflow
heatPump.senT_a1.allowFlowReversal
heatPump.senT_a1.m_flow_nominal
heatPump.senT_a1.m_flow_small
heatPump.senT_a1.tau
heatPump.senT_a1.initType
heatPump.senT_a1.k
heatPump.senT_a1.dynamic
heatPump.senT_a1.mNor_flow
heatPump.senT_a1.tauInv
heatPump.senT_a1.T
heatPump.senT_a1.der(T)
heatPump.senT_a1.T_start
heatPump.senT_a1.transferHeat
heatPump.senT_a1.TAmb
heatPump.senT_a1.tauHeaTra
heatPump.senT_a1.tauHeaTraInv
heatPump.senT_a1.ratTau
heatPump.senT_a1.TMed
heatPump.senT_a1.T_a_inflow
heatPump.senT_a1.T_b_inflow
heatPump.mFlow_con.allowFlowReversal
heatPump.mFlow_con.m_flow_nominal
heatPump.mFlow_con.m_flow_small
booleanStep.startTime
booleanStep.startValue
senTAct.allowFlowReversal
senTAct.port_a.h_outflow
senTAct.m_flow_nominal
senTAct.m_flow_small
senTAct.tau
senTAct.initType
senTAct.k
senTAct.dynamic
senTAct.mNor_flow
senTAct.tauInv
senTAct.T
senTAct.der(T)
senTAct.T_start
senTAct.transferHeat
senTAct.TAmb
senTAct.tauHeaTra
senTAct.tauHeaTraInv
senTAct.ratTau
senTAct.TMed
senTAct.T_a_inflow
senTAct.T_b_inflow
hys.uLow
hys.uHigh
hys.pre_y_start
hys.y
booleanToReal.u
booleanToReal.realTrue
booleanToReal.realFalse
sine.amplitude
sine.freqHz
sine.phase
sine.offset
sine.startTime
sine.y
pumSou.energyDynamics
pumSou.massDynamics
pumSou.substanceDynamics
pumSou.traceDynamics
pumSou.p_start
pumSou.T_start
pumSou.X_start[1]
pumSou.mSenFac
pumSou.allowFlowReversal
pumSou.port_a.h_outflow
pumSou.port_b.h_outflow
pumSou.m_flow_nominal
pumSou.m_flow_small
pumSou.show_T
pumSou.dp
pumSou._m_flow_start
pumSou._dp_start
pumSou.per.pressure.V_flow[1]
pumSou.per.pressure.V_flow[2]
pumSou.per.pressure.V_flow[3]
pumSou.per.pressure.V_flow[4]
pumSou.per.pressure.V_flow[5]
pumSou.per.pressure.V_flow[6]
pumSou.per.pressure.V_flow[7]
pumSou.per.pressure.V_flow[8]
pumSou.per.pressure.dp[1]
pumSou.per.pressure.dp[2]
pumSou.per.pressure.dp[3]
pumSou.per.pressure.dp[4]
pumSou.per.pressure.dp[5]
pumSou.per.pressure.dp[6]
pumSou.per.pressure.dp[7]
pumSou.per.pressure.dp[8]
pumSou.per.use_powerCharacteristic
pumSou.per.hydraulicEfficiency.V_flow[1]
pumSou.per.hydraulicEfficiency.eta[1]
pumSou.per.motorEfficiency.V_flow[1]
pumSou.per.motorEfficiency.eta[1]
pumSou.per.power.V_flow[1]
pumSou.per.power.V_flow[2]
pumSou.per.power.V_flow[3]
pumSou.per.power.V_flow[4]
pumSou.per.power.V_flow[5]
pumSou.per.power.V_flow[6]
pumSou.per.power.V_flow[7]
pumSou.per.power.V_flow[8]
pumSou.per.power.P[1]
pumSou.per.power.P[2]
pumSou.per.power.P[3]
pumSou.per.power.P[4]
pumSou.per.power.P[5]
pumSou.per.power.P[6]
pumSou.per.power.P[7]
pumSou.per.power.P[8]
pumSou.per.motorCooledByFluid
pumSou.per.speed_nominal
pumSou.per.constantSpeed
pumSou.per.speeds[1]
pumSou.per.speed_rpm_nominal
pumSou.per.constantSpeed_rpm
pumSou.per.speeds_rpm[1]
pumSou.per.havePressureCurve
pumSou.inputType
pumSou.constInput
pumSou.stageInputs[1]
pumSou.computePowerUsingSimilarityLaws
pumSou.addPowerToMedium
pumSou.nominalValuesDefineDefaultPressureCurve
pumSou.tau
pumSou.use_inputFilter
pumSou.riseTime
pumSou.init
pumSou.y_start
pumSou.y_actual
pumSou.P
pumSou.heatPort.T
pumSou.heatPort.Q_flow
pumSou.VMachine_flow
pumSou.dpMachine
pumSou.eta
pumSou.etaHyd
pumSou.etaMot
pumSou._VMachine_flow
pumSou.preVar
pumSou.speedIsInput
pumSou.nOri
pumSou.haveVMax
pumSou.V_flow_max
pumSou.rho_default
pumSou.sta_start.p
pumSou.sta_start.T
pumSou.h_outflow_start
pumSou.inputSwitch.u
pumSou.vol.energyDynamics
pumSou.vol.massDynamics
pumSou.vol.substanceDynamics
pumSou.vol.traceDynamics
pumSou.vol.p_start
pumSou.vol.T_start
pumSou.vol.X_start[1]
pumSou.vol.mSenFac
pumSou.vol.initialize_p
pumSou.vol.prescribedHeatFlowRate
pumSou.vol.simplify_mWat_flow
pumSou.vol.m_flow_nominal
pumSou.vol.nPorts
pumSou.vol.m_flow_small
pumSou.vol.allowFlowReversal
pumSou.vol.V
pumSou.vol.rho_start
pumSou.vol.state_default.p
pumSou.vol.state_default.T
pumSou.vol.rho_default
pumSou.vol.state_start.p
pumSou.vol.state_start.T
pumSou.vol.useSteadyStateTwoPort
pumSou.vol.preTem.port.Q_flow
pumSou.vol.heaFloSen.Q_flow
pumSou.vol.heaFloSen.port_a.Q_flow
pumSou.vol.heaFloSen.port_b.Q_flow
pumSou.vol.use_C_flow
pumSou.vol.heatPort.Q_flow
pumSou.vol.tau
pumSou.vol.V_nominal
pumSou.filter.analogFilter
pumSou.filter.filterType
pumSou.filter.order
pumSou.filter.f_cut
pumSou.filter.gain
pumSou.filter.A_ripple
pumSou.filter.f_min
pumSou.filter.normalized
pumSou.filter.init
pumSou.filter.nx
pumSou.filter.x_start[1]
pumSou.filter.x_start[2]
pumSou.filter.y_start
pumSou.filter.u_nominal
pumSou.filter.x[1]
pumSou.filter.der(x[1])
pumSou.filter.x[2]
pumSou.filter.der(x[2])
pumSou.filter.ncr
pumSou.filter.nc0
pumSou.filter.na
pumSou.filter.nr
pumSou.filter.cr[1]
pumSou.filter.cr[2]
pumSou.filter.r[1]
pumSou.filter.r[2]
pumSou.filter.uu[1]
pumSou.gaiSpe.k
pumSou.preSou.allowFlowReversal
pumSou.preSou.dp_start
pumSou.preSou.m_flow_start
pumSou.preSou.m_flow_small
pumSou.preSou.show_T
pumSou.preSou.show_V_flow
pumSou.preSou.dp
pumSou.preSou.V_flow
pumSou.preSou.control_m_flow
pumSou.preSou.control_dp
pumSou.preSou.dp_in
pumSou.preSou.m_flow_internal
pumSou.preSou.dp_internal
pumSou.rho_inlet.y
pumSou.senMasFlo.allowFlowReversal
pumSou.senMasFlo.m_flow_nominal
pumSou.senMasFlo.m_flow_small
pumSou.senRelPre.port_a.m_flow
pumSou.senRelPre.port_a.h_outflow
pumSou.senRelPre.port_b.m_flow
pumSou.senRelPre.port_b.h_outflow
pumSou.senRelPre.p_rel
pumSou.eff.per.pressure.V_flow[1]
pumSou.eff.per.pressure.V_flow[2]
pumSou.eff.per.pressure.V_flow[3]
pumSou.eff.per.pressure.V_flow[4]
pumSou.eff.per.pressure.V_flow[5]
pumSou.eff.per.pressure.V_flow[6]
pumSou.eff.per.pressure.V_flow[7]
pumSou.eff.per.pressure.V_flow[8]
pumSou.eff.per.pressure.dp[1]
pumSou.eff.per.pressure.dp[2]
pumSou.eff.per.pressure.dp[3]
pumSou.eff.per.pressure.dp[4]
pumSou.eff.per.pressure.dp[5]
pumSou.eff.per.pressure.dp[6]
pumSou.eff.per.pressure.dp[7]
pumSou.eff.per.pressure.dp[8]
pumSou.eff.per.use_powerCharacteristic
pumSou.eff.per.hydraulicEfficiency.V_flow[1]
pumSou.eff.per.hydraulicEfficiency.eta[1]
pumSou.eff.per.motorEfficiency.V_flow[1]
pumSou.eff.per.motorEfficiency.eta[1]
pumSou.eff.per.power.V_flow[1]
pumSou.eff.per.power.V_flow[2]
pumSou.eff.per.power.V_flow[3]
pumSou.eff.per.power.V_flow[4]
pumSou.eff.per.power.V_flow[5]
pumSou.eff.per.power.V_flow[6]
pumSou.eff.per.power.V_flow[7]
pumSou.eff.per.power.V_flow[8]
pumSou.eff.per.power.P[1]
pumSou.eff.per.power.P[2]
pumSou.eff.per.power.P[3]
pumSou.eff.per.power.P[4]
pumSou.eff.per.power.P[5]
pumSou.eff.per.power.P[6]
pumSou.eff.per.power.P[7]
pumSou.eff.per.power.P[8]
pumSou.eff.per.motorCooledByFluid
pumSou.eff.per.speed_nominal
pumSou.eff.per.constantSpeed
pumSou.eff.per.speeds[1]
pumSou.eff.per.speed_rpm_nominal
pumSou.eff.per.constantSpeed_rpm
pumSou.eff.per.speeds_rpm[1]
pumSou.eff.per.havePressureCurve
pumSou.eff.preVar
pumSou.eff.computePowerUsingSimilarityLaws
pumSou.eff.V_flow_nominal
pumSou.eff.rho_default
pumSou.eff.haveVMax
pumSou.eff.V_flow_max
pumSou.eff.nOri
pumSou.eff.homotopyInitialization
pumSou.eff.rho
pumSou.eff.WFlo
pumSou.eff.eta
pumSou.eff.etaHyd
pumSou.eff.etaMot
pumSou.eff.r_V
pumSou.eff.preSpe
pumSou.eff.prePre
pumSou.eff.motDer[1]
pumSou.eff.hydDer[1]
pumSou.eff.dpMax
pumSou.eff.delta
pumSou.eff.kRes
pumSou.eff.curve
pumSou.eff.pCur1.n
pumSou.eff.pCur1.V_flow[1]
pumSou.eff.pCur1.V_flow[2]
pumSou.eff.pCur1.V_flow[3]
pumSou.eff.pCur1.V_flow[4]
pumSou.eff.pCur1.V_flow[5]
pumSou.eff.pCur1.V_flow[6]
pumSou.eff.pCur1.V_flow[7]
pumSou.eff.pCur1.V_flow[8]
pumSou.eff.pCur1.dp[1]
pumSou.eff.pCur1.dp[2]
pumSou.eff.pCur1.dp[3]
pumSou.eff.pCur1.dp[4]
pumSou.eff.pCur1.dp[5]
pumSou.eff.pCur1.dp[6]
pumSou.eff.pCur1.dp[7]
pumSou.eff.pCur1.dp[8]
pumSou.eff.pCur2.n
pumSou.eff.pCur2.V_flow[1]
pumSou.eff.pCur2.V_flow[2]
pumSou.eff.pCur2.V_flow[3]
pumSou.eff.pCur2.V_flow[4]
pumSou.eff.pCur2.V_flow[5]
pumSou.eff.pCur2.V_flow[6]
pumSou.eff.pCur2.V_flow[7]
pumSou.eff.pCur2.V_flow[8]
pumSou.eff.pCur2.V_flow[9]
pumSou.eff.pCur2.dp[1]
pumSou.eff.pCur2.dp[2]
pumSou.eff.pCur2.dp[3]
pumSou.eff.pCur2.dp[4]
pumSou.eff.pCur2.dp[5]
pumSou.eff.pCur2.dp[6]
pumSou.eff.pCur2.dp[7]
pumSou.eff.pCur2.dp[8]
pumSou.eff.pCur2.dp[9]
pumSou.eff.pCur3.n
pumSou.eff.pCur3.V_flow[1]
pumSou.eff.pCur3.V_flow[2]
pumSou.eff.pCur3.V_flow[3]
pumSou.eff.pCur3.V_flow[4]
pumSou.eff.pCur3.V_flow[5]
pumSou.eff.pCur3.V_flow[6]
pumSou.eff.pCur3.V_flow[7]
pumSou.eff.pCur3.V_flow[8]
pumSou.eff.pCur3.V_flow[9]
pumSou.eff.pCur3.V_flow[10]
pumSou.eff.pCur3.dp[1]
pumSou.eff.pCur3.dp[2]
pumSou.eff.pCur3.dp[3]
pumSou.eff.pCur3.dp[4]
pumSou.eff.pCur3.dp[5]
pumSou.eff.pCur3.dp[6]
pumSou.eff.pCur3.dp[7]
pumSou.eff.pCur3.dp[8]
pumSou.eff.pCur3.dp[9]
pumSou.eff.pCur3.dp[10]
pumSou.eff.preDer1[1]
pumSou.eff.preDer1[2]
pumSou.eff.preDer1[3]
pumSou.eff.preDer1[4]
pumSou.eff.preDer1[5]
pumSou.eff.preDer1[6]
pumSou.eff.preDer1[7]
pumSou.eff.preDer1[8]
pumSou.eff.preDer2[1]
pumSou.eff.preDer2[2]
pumSou.eff.preDer2[3]
pumSou.eff.preDer2[4]
pumSou.eff.preDer2[5]
pumSou.eff.preDer2[6]
pumSou.eff.preDer2[7]
pumSou.eff.preDer2[8]
pumSou.eff.preDer2[9]
pumSou.eff.preDer3[1]
pumSou.eff.preDer3[2]
pumSou.eff.preDer3[3]
pumSou.eff.preDer3[4]
pumSou.eff.preDer3[5]
pumSou.eff.preDer3[6]
pumSou.eff.preDer3[7]
pumSou.eff.preDer3[8]
pumSou.eff.preDer3[9]
pumSou.eff.preDer3[10]
pumSou.eff.powDer[1]
pumSou.eff.powDer[2]
pumSou.eff.powDer[3]
pumSou.eff.powDer[4]
pumSou.eff.powDer[5]
pumSou.eff.powDer[6]
pumSou.eff.powDer[7]
pumSou.eff.powDer[8]
pumSou.eff.haveMinimumDecrease
pumSou.eff.haveDPMax
pumSou.eff.dp_internal
pumSou.gain.k
pumSou.gain.u
pumSou.gain.y
Room.energyDynamics
Room.massDynamics
Room.substanceDynamics
Room.traceDynamics
Room.p_start
Room.T_start
Room.X_start[1]
Room.mSenFac
Room.initialize_p
Room.prescribedHeatFlowRate
Room.simplify_mWat_flow
Room.m_flow_nominal
Room.nPorts
Room.m_flow_small
Room.allowFlowReversal
Room.V
Room.ports[1].h_outflow
Room.T
Room.m
Room.rho_start
Room.state_default.p
Room.state_default.T
Room.rho_default
Room.state_start.p
Room.state_start.T
Room.useSteadyStateTwoPort
Room.use_C_flow
Room.heatPort.Q_flow
nIn.k
heatFlowRateCon.T_ref
heatFlowRateCon.alpha
heatFlowRateCon.Q_flow
gain.k
sinkSideFixedBoundary.nPorts
sinkSideFixedBoundary.verifyInputs
sinkSideFixedBoundary.ports[1].m_flow
sinkSideFixedBoundary.ports[1].h_outflow
sinkSideFixedBoundary.flowDirection
sinkSideFixedBoundary.medium.T
sinkSideFixedBoundary.medium.d
sinkSideFixedBoundary.medium.X[1]
sinkSideFixedBoundary.medium.R
sinkSideFixedBoundary.medium.MM
sinkSideFixedBoundary.medium.preferredMediumStates
sinkSideFixedBoundary.medium.standardOrderComponents
sinkSideFixedBoundary.medium.T_degC
sinkSideFixedBoundary.medium.p_bar
sinkSideFixedBoundary.use_p
sinkSideFixedBoundary.p
sinkSideFixedBoundary.d
sinkSideFixedBoundary.use_T
sinkSideFixedBoundary.T
sinkSideFixedBoundary.h
sinkSideFixedBoundary.X[1]
iceFac.k
iceFac.y
heatPump.con.vol.dynBal.energyDynamics
heatPump.con.vol.dynBal.massDynamics
heatPump.con.vol.dynBal.substanceDynamics
heatPump.con.vol.dynBal.traceDynamics
heatPump.con.vol.dynBal.p_start
heatPump.con.vol.dynBal.T_start
heatPump.con.vol.dynBal.X_start[1]
heatPump.con.vol.dynBal.mSenFac
heatPump.con.vol.dynBal.initialize_p
heatPump.con.vol.dynBal.simplify_mWat_flow
heatPump.con.vol.dynBal.nPorts
heatPump.con.vol.dynBal.use_mWat_flow
heatPump.con.vol.dynBal.use_C_flow
heatPump.con.vol.dynBal.mOut
heatPump.con.vol.dynBal.medium.T
heatPump.con.vol.dynBal.medium.d
heatPump.con.vol.dynBal.medium.X[1]
heatPump.con.vol.dynBal.medium.R
heatPump.con.vol.dynBal.medium.MM
heatPump.con.vol.dynBal.medium.preferredMediumStates
heatPump.con.vol.dynBal.medium.standardOrderComponents
heatPump.con.vol.dynBal.medium.T_degC
heatPump.con.vol.dynBal.medium.p_bar
heatPump.con.vol.dynBal.U
heatPump.con.vol.dynBal.der(U)
heatPump.con.vol.dynBal.m
heatPump.con.vol.dynBal.der(m)
heatPump.con.vol.dynBal.mb_flow
heatPump.con.vol.dynBal.Hb_flow
heatPump.con.vol.dynBal.fluidVolume
heatPump.con.vol.dynBal.CSen
heatPump.con.vol.dynBal.ports_H_flow[1]
heatPump.con.vol.dynBal.ports_H_flow[2]
heatPump.con.vol.dynBal.cp_default
heatPump.con.vol.dynBal.rho_start
heatPump.con.vol.dynBal.computeCSen
heatPump.con.vol.dynBal.state_default.p
heatPump.con.vol.dynBal.state_default.T
heatPump.con.vol.dynBal.rho_default
heatPump.con.vol.dynBal.hStart
heatPump.con.vol.dynBal._simplify_mWat_flow
heatPump.con.vol.dynBal.mWat_flow_internal
heatPump.eva.vol.dynBal.energyDynamics
heatPump.eva.vol.dynBal.massDynamics
heatPump.eva.vol.dynBal.substanceDynamics
heatPump.eva.vol.dynBal.traceDynamics
heatPump.eva.vol.dynBal.p_start
heatPump.eva.vol.dynBal.T_start
heatPump.eva.vol.dynBal.X_start[1]
heatPump.eva.vol.dynBal.mSenFac
heatPump.eva.vol.dynBal.initialize_p
heatPump.eva.vol.dynBal.simplify_mWat_flow
heatPump.eva.vol.dynBal.nPorts
heatPump.eva.vol.dynBal.use_mWat_flow
heatPump.eva.vol.dynBal.use_C_flow
heatPump.eva.vol.dynBal.mOut
heatPump.eva.vol.dynBal.medium.T
heatPump.eva.vol.dynBal.medium.d
heatPump.eva.vol.dynBal.medium.X[1]
heatPump.eva.vol.dynBal.medium.R
heatPump.eva.vol.dynBal.medium.MM
heatPump.eva.vol.dynBal.medium.preferredMediumStates
heatPump.eva.vol.dynBal.medium.standardOrderComponents
heatPump.eva.vol.dynBal.medium.T_degC
heatPump.eva.vol.dynBal.medium.p_bar
heatPump.eva.vol.dynBal.U
heatPump.eva.vol.dynBal.der(U)
heatPump.eva.vol.dynBal.m
heatPump.eva.vol.dynBal.der(m)
heatPump.eva.vol.dynBal.mb_flow
heatPump.eva.vol.dynBal.Hb_flow
heatPump.eva.vol.dynBal.fluidVolume
heatPump.eva.vol.dynBal.CSen
heatPump.eva.vol.dynBal.ports_H_flow[1]
heatPump.eva.vol.dynBal.ports_H_flow[2]
heatPump.eva.vol.dynBal.cp_default
heatPump.eva.vol.dynBal.rho_start
heatPump.eva.vol.dynBal.computeCSen
heatPump.eva.vol.dynBal.state_default.p
heatPump.eva.vol.dynBal.state_default.T
heatPump.eva.vol.dynBal.rho_default
heatPump.eva.vol.dynBal.hStart
heatPump.eva.vol.dynBal._simplify_mWat_flow
heatPump.eva.vol.dynBal.mWat_flow_internal
pumSou.vol.dynBal.energyDynamics
pumSou.vol.dynBal.massDynamics
pumSou.vol.dynBal.substanceDynamics
pumSou.vol.dynBal.traceDynamics
pumSou.vol.dynBal.p_start
pumSou.vol.dynBal.T_start
pumSou.vol.dynBal.X_start[1]
pumSou.vol.dynBal.mSenFac
pumSou.vol.dynBal.initialize_p
pumSou.vol.dynBal.simplify_mWat_flow
pumSou.vol.dynBal.nPorts
pumSou.vol.dynBal.use_mWat_flow
pumSou.vol.dynBal.use_C_flow
pumSou.vol.dynBal.Q_flow
pumSou.vol.dynBal.medium.T
pumSou.vol.dynBal.medium.d
pumSou.vol.dynBal.medium.X[1]
pumSou.vol.dynBal.medium.R
pumSou.vol.dynBal.medium.MM
pumSou.vol.dynBal.medium.preferredMediumStates
pumSou.vol.dynBal.medium.standardOrderComponents
pumSou.vol.dynBal.medium.T_degC
pumSou.vol.dynBal.medium.p_bar
pumSou.vol.dynBal.U
pumSou.vol.dynBal.der(U)
pumSou.vol.dynBal.m
pumSou.vol.dynBal.der(m)
pumSou.vol.dynBal.mb_flow
pumSou.vol.dynBal.fluidVolume
pumSou.vol.dynBal.CSen
pumSou.vol.dynBal.ports_H_flow[1]
pumSou.vol.dynBal.ports_H_flow[2]
pumSou.vol.dynBal.cp_default
pumSou.vol.dynBal.rho_start
pumSou.vol.dynBal.computeCSen
pumSou.vol.dynBal.state_default.p
pumSou.vol.dynBal.state_default.T
pumSou.vol.dynBal.rho_default
pumSou.vol.dynBal.hStart
pumSou.vol.dynBal._simplify_mWat_flow
pumSou.vol.dynBal.mWat_flow_internal
pumSou.eff.dp
Room.dynBal.energyDynamics
Room.dynBal.massDynamics
Room.dynBal.substanceDynamics
Room.dynBal.traceDynamics
Room.dynBal.p_start
Room.dynBal.T_start
Room.dynBal.X_start[1]
Room.dynBal.mSenFac
Room.dynBal.initialize_p
Room.dynBal.simplify_mWat_flow
Room.dynBal.nPorts
Room.dynBal.use_mWat_flow
Room.dynBal.use_C_flow
Room.dynBal.mOut
Room.dynBal.medium.T
Room.dynBal.medium.d
Room.dynBal.medium.X[1]
Room.dynBal.medium.R
Room.dynBal.medium.MM
Room.dynBal.medium.preferredMediumStates
Room.dynBal.medium.standardOrderComponents
Room.dynBal.medium.T_degC
Room.dynBal.medium.p_bar
Room.dynBal.U
Room.dynBal.der(U)
Room.dynBal.m
Room.dynBal.der(m)
Room.dynBal.mb_flow
Room.dynBal.Hb_flow
Room.dynBal.fluidVolume
Room.dynBal.CSen
Room.dynBal.ports_H_flow[1]
Room.dynBal.ports_H_flow[2]
Room.dynBal.cp_default
Room.dynBal.rho_start
Room.dynBal.computeCSen
Room.dynBal.state_default.p
Room.dynBal.state_default.T
Room.dynBal.rho_default
Room.dynBal.hStart
Room.dynBal._simplify_mWat_flow
Room.dynBal.mWat_flow_internal

double initialValue(1354,6)
 -2       1                       0                       0                
  6   258   # sourceSideMassFlowSource.nPorts
 -2       0                       0                       0                
  6   257   # sourceSideMassFlowSource.verifyInputs
 -2  1.2489240000000010E+05 -1.0000000000000000E+10  1.0000000000000000E+10
  6   260   # sourceSideMassFlowSource.ports[1].h_outflow
 -2       3                       1                       3                
  6  1282   # sourceSideMassFlowSource.flowDirection
 -2       1                       0                       0                
  6  1280   # sourceSideMassFlowSource.X_in_internal[1]
 -2       0                       0                       0                
  6   769   # sourceSideMassFlowSource.use_m_flow_in
 -1       1                 -100000                  100000                
  1   280   # sourceSideMassFlowSource.m_flow
 -2       1                       0                       0                
  6   769   # sourceSideMassFlowSource.use_T_in
 -1  2.7514999999999998E+02       1                   10000                
  1   280   # sourceSideMassFlowSource.T
 -2     303                       0                       0                
  6  1280   # sourceSideMassFlowSource.T_in_internal
 -2       0                       0                       0                
  6   769   # sourceSideMassFlowSource.use_X_in
 -2       0                       0                       0                
  6   769   # sourceSideMassFlowSource.use_Xi_in
 -2       0                       0                       0                
  6   769   # sourceSideMassFlowSource.use_C_in
 -1       1                       0                       1                
  1   280   # sourceSideMassFlowSource.X[1]
 -2       1                       0                       0                
  6   258   # sourceSideFixedBoundary.nPorts
 -2       1                       0                       0                
  6   257   # sourceSideFixedBoundary.verifyInputs
 -2   83680                 -1.0000000000000000E+10  1.0000000000000000E+10
  6   260   # sourceSideFixedBoundary.ports[1].h_outflow
 -2       3                       1                       3                
  6  1282   # sourceSideFixedBoundary.flowDirection
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # sourceSideFixedBoundary.medium.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # sourceSideFixedBoundary.medium.d
 -2       1                       0                       1                
  6  1280   # sourceSideFixedBoundary.medium.X[1]
 -2       0                       0                       0                
  6  1280   # sourceSideFixedBoundary.medium.R
 -2  1.8015268000000001E-02       0                 1.0000000000000000E+100
  6  1280   # sourceSideFixedBoundary.medium.MM
 -2       0                       0                       0                
  6  1281   # sourceSideFixedBoundary.medium.preferredMediumStates
 -2       1                       0                       0                
  6  1281   # sourceSideFixedBoundary.medium.standardOrderComponents
 -2      20                       0                       0                
  6  1280   # sourceSideFixedBoundary.medium.T_degC
 -2  3.0000000000000004E+00       0                       0                
  6  1280   # sourceSideFixedBoundary.medium.p_bar
 -2       1                       0                       0                
  6   257   # sourceSideFixedBoundary.use_p
 -1  3.0000000000000000E+05       0                  1.0000000000000000E+08
  1   280   # sourceSideFixedBoundary.p
 -1  9.9558600000000001E+02       0                  100000                
  1   280   # sourceSideFixedBoundary.d
 -2       1                       0                       0                
  6   257   # sourceSideFixedBoundary.use_T
 -1  2.9314999999999998E+02       1                   10000                
  1   280   # sourceSideFixedBoundary.T
 -1   83680                 -1.0000000000000000E+10  1.0000000000000000E+10
  1   280   # sourceSideFixedBoundary.h
 -1       1                       0                       1                
  1   280   # sourceSideFixedBoundary.X[1]
 -1      25                       0                       0                
  1   280   # TsuSourceRamp.height
 -1    1000                       0                 1.0000000000000000E+100
  1   280   # TsuSourceRamp.duration
 -1     278                       0                       0                
  1   280   # TsuSourceRamp.offset
 -1    1000                       0                       0                
  1   280   # TsuSourceRamp.startTime
 -1  2.9114999999999998E+02       0                       0                
  1   280   # T_amb_internal.k
 -2       1                       0                       0                
  6   257   # heatPump.allowFlowReversal1
 -2       1                       0                       0                
  6   257   # heatPump.allowFlowReversal2
 -2  1.0651725924856076E-01 -100000                  100000                
  6   388   # heatPump.port_a1.m_flow
 -2  1.3318753505137638E+05 -1.0000000000000000E+10  1.0000000000000000E+10
  6   260   # heatPump.port_a1.h_outflow
 -2  1.1890268317833685E+05 -1.0000000000000000E+10  1.0000000000000000E+10
  6   260   # heatPump.port_a2.h_outflow
 -2  5.0000000000000000E-01       0                 1.0000000000000000E+100
  6   256   # heatPump.m1_flow_nominal
 -2  5.0000000000000000E-01       0                 1.0000000000000000E+100
  6   256   # heatPump.m2_flow_nominal
 -2  5.0000000000000002E-05       0                  100000                
  6   256   # heatPump.m1_flow_small
 -2  5.0000000000000002E-05       0                  100000                
  6   256   # heatPump.m2_flow_small
 -2       0                       0                       0                
  6   257   # heatPump.show_T
 -2       0                       0                       0                
  6   256   # heatPump.dp1
 -2       0                       0                       0                
  6   256   # heatPump.dp2
 -2  2.9341694066621471E+02       1                   10000                
  6  1280   # heatPump.state_a1_inflow.T
 -2  2.9341916371098807E+02       1                   10000                
  6  1280   # heatPump.state_b1_inflow.T
 -2     303                       1                   10000                
  6  1280   # heatPump.state_a2_inflow.T
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # heatPump.state_b2_inflow.T
 -2       1                       0                       0                
  6   257   # heatPump.use_revHP
 -2       1                       0                       0                
  6   256   # heatPump.scalingFactor
 -2       0                       0                       0                
  6   257   # heatPump.use_refIne
 -2       1                       0                       0                
  6   256   # heatPump.refIneFre_constant
 -2       3                       0                       0                
  6   258   # heatPump.nthOrder
 -2  5.0000000000000000E-01       0                       0                
  6   256   # heatPump.mFlow_conNominal
 -2  4.0000000000000002E-01       0                       0                
  6   256   # heatPump.VCon
 -2       0                       0                       0                
  6   256   # heatPump.dpCon_nominal
 -2  1.0000000000000001E-01       0                       0                
  6   256   # heatPump.deltaM_con
 -2       0                       0                       0                
  6   257   # heatPump.use_conCap
 -2     100                       0                       0                
  6   256   # heatPump.CCon
 -2       5                       0                       0                
  6   256   # heatPump.GConOut
 -2       0                       0                       0                
  6   256   # heatPump.GConIns
 -2  5.0000000000000000E-01       0                       0                
  6   256   # heatPump.mFlow_evaNominal
 -2  4.0000000000000001E-02       0                       0                
  6   256   # heatPump.VEva
 -2       0                       0                       0                
  6   256   # heatPump.dpEva_nominal
 -2  1.0000000000000001E-01       0                       0                
  6   256   # heatPump.deltaM_eva
 -2       0                       0                       0                
  6   257   # heatPump.use_evaCap
 -2     100                       0                       0                
  6   256   # heatPump.CEva
 -2       5                       0                       0                
  6   256   # heatPump.GEvaOut
 -2       0                       0                       0                
  6   256   # heatPump.GEvaIns
 -2       1                       0                       0                
  6   256   # heatPump.tauSenT
 -2       1                       0                       0                
  6   257   # heatPump.transferHeat
 -2       1                       0                       0                
  6   257   # heatPump.allowFlowReversalEva
 -2       1                       0                       0                
  6   257   # heatPump.allowFlowReversalCon
 -2    1200                       0                       0                
  6   256   # heatPump.tauHeaTraEva
 -2    1200                       0                       0                
  6   256   # heatPump.tauHeaTraCon
 -1  2.8814999999999998E+02       0                 1.0000000000000000E+100
  1   280   # heatPump.TAmbCon_nominal
 -1  2.7314999999999998E+02       0                 1.0000000000000000E+100
  1   280   # heatPump.TAmbEva_nominal
 -2       3                       1                       4                
  6   258   # heatPump.initType
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6   256   # heatPump.pCon_start
 -2  3.0314999999999998E+02       1                   10000                
  6   256   # heatPump.TCon_start
 -2       0                       0                       0                
  6   257   # heatPump.fixed_TCon_start
 -2       1                       0                       1                
  6   256   # heatPump.XCon_start[1]
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6   256   # heatPump.pEva_start
 -2  2.9314999999999998E+02       1                   10000                
  6   256   # heatPump.TEva_start
 -2       0                       0                       0                
  6   257   # heatPump.fixed_TEva_start
 -2       1                       0                       1                
  6   256   # heatPump.XEva_start[1]
 -1       0                       0                       0                
  1   280   # heatPump.x_start[1]
 -1       0                       0                       0                
  1   280   # heatPump.x_start[2]
 -1       0                       0                       0                
  1   280   # heatPump.x_start[3]
 -1       0                       0                       0                
  1   280   # heatPump.yRefIne_start
 -2       1                       1                       4                
  6   258   # heatPump.massDynamics
 -2       2                       1                       4                
  6   258   # heatPump.energyDynamics
 -2       0                       0                       0                
  6   257   # heatPump.show_TPort
 -2       0                       0                       0                
  6   257   # heatPump.from_dp
 -2       0                       0                       0                
  6   257   # heatPump.homotopyInitialization
 -1       0                       0                       0                
  1   281   # heatPump.linearized
 -2       1                       0                       0                
  6   257   # heatPump.con.allowFlowReversal
 -2  5.0000000000000000E-01       0                       0                
  6   256   # heatPump.con.m_flow_nominal
 -2  5.0000000000000002E-05       0                 1.0000000000000000E+100
  6   256   # heatPump.con.m_flow_small
 -2       0                       0                       0                
  6   257   # heatPump.con.show_T
 -2       0                       0                       0                
  6   256   # heatPump.con.dp
 -2       0                       0                       0                
  6  1280   # heatPump.con._m_flow_start
 -2       0                       0                       0                
  6  1280   # heatPump.con._dp_start
 -2       1                       0                       0                
  6   257   # heatPump.con.computeFlowResistance
 -2       0                       0                       0                
  6   257   # heatPump.con.from_dp
 -2       0                       0                 1.0000000000000000E+100
  6   256   # heatPump.con.dp_nominal
 -2       0                       0                       0                
  6   257   # heatPump.con.linearizeFlowResistance
 -2  1.0000000000000001E-01       0                       0                
  6   256   # heatPump.con.deltaM
 -2      30                       0                       0                
  6   256   # heatPump.con.tau
 -2       0                       0                       0                
  6   257   # heatPump.con.homotopyInitialization
 -2       2                       1                       4                
  6   258   # heatPump.con.energyDynamics
 -2       1                       1                       4                
  6   258   # heatPump.con.massDynamics
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6   256   # heatPump.con.p_start
 -2  3.0314999999999998E+02       1                   10000                
  6   256   # heatPump.con.T_start
 -2       1                       0                       1                
  6   256   # heatPump.con.X_start[1]
 -2       2                       1                       4                
  6   258   # heatPump.con.vol.energyDynamics
 -2       1                       1                       4                
  6   258   # heatPump.con.vol.massDynamics
 -2       2                       1                       4                
  6   258   # heatPump.con.vol.substanceDynamics
 -2       2                       1                       4                
  6   258   # heatPump.con.vol.traceDynamics
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6   256   # heatPump.con.vol.p_start
 -2  3.0314999999999998E+02       1                   10000                
  6   256   # heatPump.con.vol.T_start
 -2       1                       0                       1                
  6   256   # heatPump.con.vol.X_start[1]
 -2       1                       1                 1.0000000000000000E+100
  6   256   # heatPump.con.vol.mSenFac
 -2       0                       0                       0                
  6   769   # heatPump.con.vol.initialize_p
 -2       1                       0                       0                
  6   257   # heatPump.con.vol.prescribedHeatFlowRate
 -2       1                       0                       0                
  6   257   # heatPump.con.vol.simplify_mWat_flow
 -2  5.0000000000000000E-01       0                 1.0000000000000000E+100
  6   256   # heatPump.con.vol.m_flow_nominal
 -2       2                       0                       0                
  6   258   # heatPump.con.vol.nPorts
 -2  5.0000000000000002E-05       0                 1.0000000000000000E+100
  6   256   # heatPump.con.vol.m_flow_small
 -2       1                       0                       0                
  6   257   # heatPump.con.vol.allowFlowReversal
 -2  4.0000000000000002E-01       0                       0                
  6   256   # heatPump.con.vol.V
 -2  3.0498258485931558E+02       1                   10000                
  6   256   # heatPump.con.vol.T
 -2  3.9823440000000005E+02       0                       0                
  6   256   # heatPump.con.vol.m
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # heatPump.con.vol.rho_start
 -2       1                       0                       1                
  6  1280   # _GlobalScope.Modelica.Media.Interfaces.PartialPureSubstance.X_default[1]
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # heatPump.con.vol.state_default.p
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # heatPump.con.vol.state_default.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # heatPump.con.vol.rho_default
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # heatPump.con.vol.state_start.p
 -2  3.0314999999999998E+02       1                   10000                
  6  1280   # heatPump.con.vol.state_start.T
 -2       0                       0                       0                
  6  1281   # heatPump.con.vol.useSteadyStateTwoPort
 -2       0                       0                       0                
  6   257   # heatPump.con.vol.use_C_flow
 -2       1                       0                       0                
  6   257   # heatPump.con.preDro.allowFlowReversal
 -2  5.0000000000000000E-01       0                       0                
  6   256   # heatPump.con.preDro.m_flow_nominal
 -2  5.0000000000000002E-05       0                 1.0000000000000000E+100
  6   256   # heatPump.con.preDro.m_flow_small
 -2       0                       0                       0                
  6   257   # heatPump.con.preDro.show_T
 -2       0                       0                       0                
  6   256   # heatPump.con.preDro.dp
 -2       0                       0                       0                
  6  1280   # heatPump.con.preDro._m_flow_start
 -2       0                       0                       0                
  6  1280   # heatPump.con.preDro._dp_start
 -2       0                       0                       0                
  6   257   # heatPump.con.preDro.from_dp
 -2       0                       0                       0                
  6   256   # heatPump.con.preDro.dp_nominal
 -2       0                       0                       0                
  6   257   # heatPump.con.preDro.homotopyInitialization
 -2       0                       0                       0                
  6   257   # heatPump.con.preDro.linearized
 -2       0                       0                 1.0000000000000000E+100
  6   256   # heatPump.con.preDro.m_flow_turbulent
 -1  3.0000000000000000E+05       0                  1.0000000000000000E+08
  1  1304   # heatPump.con.preDro.sta_default.p
 -1  2.9314999999999998E+02       1                   10000                
  1  1304   # heatPump.con.preDro.sta_default.T
 -2  1.0000000000000000E-03       0                 1.0000000000000000E+100
  6  1280   # heatPump.con.preDro.eta_default
 -2  5.0000000000000000E-01       0                       0                
  6  1280   # heatPump.con.preDro.m_flow_nominal_pos
 -2       0                       0                       0                
  6  1280   # heatPump.con.preDro.dp_nominal_pos
 -2  1.0000000000000001E-01  9.9999999999999995E-07 1.0000000000000000E+100
  6   256   # heatPump.con.preDro.deltaM
 -2       0                       0                       0                
  6   256   # heatPump.con.preDro.k
 -2       0                       0                       0                
  6  1281   # heatPump.con.preDro.computeFlowResistance
 -2       0                       0                       0                
  6  1280   # heatPump.con.preDro.coeff
 -1  3.0000000000000000E+05       0                  1.0000000000000000E+08
  1  1304   # heatPump.con.sta_default.p
 -1  2.9314999999999998E+02       1                   10000                
  1  1304   # heatPump.con.sta_default.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # heatPump.con.rho_default
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # heatPump.con.sta_start.p
 -2  3.0314999999999998E+02       1                   10000                
  6  1280   # heatPump.con.sta_start.T
 -2  1.2552000000000000E+05       0                       0                
  6  1280   # heatPump.con.h_outflow_start
 -2       1                       0                       0                
  6   257   # heatPump.con.is_con
 -2  4.0000000000000002E-01       0                       0                
  6   256   # heatPump.con.V
 -2       0                       0                       0                
  6   257   # heatPump.con.use_cap
 -2     100                       0                       0                
  6   256   # heatPump.con.C
 -2       0                       0                       0                
  6   257   # heatPump.con.fixed_T_start
 -2       5                       0                       0                
  6   256   # heatPump.con.GOut
 -2       0                       0                       0                
  6   256   # heatPump.con.GInn
 -2  2.9314999999999998E+02       0                 1.0000000000000000E+100
  6   256   # heatPump.con.preHea.T_ref
 -2       0                       0                       0                
  6   256   # heatPump.con.preHea.alpha
 -2  6.6859735992210735E+03       0                       0                
  6   256   # heatPump.con.QFlow_in
 -2       1                       0                       0                
  6   257   # heatPump.eva.allowFlowReversal
 -2  5.0000000000000000E-01       0                       0                
  6   256   # heatPump.eva.m_flow_nominal
 -2  5.0000000000000002E-05       0                 1.0000000000000000E+100
  6   256   # heatPump.eva.m_flow_small
 -2       0                       0                       0                
  6   257   # heatPump.eva.show_T
 -2       0                       0                       0                
  6   256   # heatPump.eva.dp
 -2       0                       0                       0                
  6  1280   # heatPump.eva._m_flow_start
 -2       0                       0                       0                
  6  1280   # heatPump.eva._dp_start
 -2       1                       0                       0                
  6   257   # heatPump.eva.computeFlowResistance
 -2       0                       0                       0                
  6   257   # heatPump.eva.from_dp
 -2       0                       0                 1.0000000000000000E+100
  6   256   # heatPump.eva.dp_nominal
 -2       0                       0                       0                
  6   257   # heatPump.eva.linearizeFlowResistance
 -2  1.0000000000000001E-01       0                       0                
  6   256   # heatPump.eva.deltaM
 -2      30                       0                       0                
  6   256   # heatPump.eva.tau
 -2       0                       0                       0                
  6   257   # heatPump.eva.homotopyInitialization
 -2       2                       1                       4                
  6   258   # heatPump.eva.energyDynamics
 -2       1                       1                       4                
  6   258   # heatPump.eva.massDynamics
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6   256   # heatPump.eva.p_start
 -2  2.9314999999999998E+02       1                   10000                
  6   256   # heatPump.eva.T_start
 -2       1                       0                       1                
  6   256   # heatPump.eva.X_start[1]
 -2       2                       1                       4                
  6   258   # heatPump.eva.vol.energyDynamics
 -2       1                       1                       4                
  6   258   # heatPump.eva.vol.massDynamics
 -2       2                       1                       4                
  6   258   # heatPump.eva.vol.substanceDynamics
 -2       2                       1                       4                
  6   258   # heatPump.eva.vol.traceDynamics
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6   256   # heatPump.eva.vol.p_start
 -2  2.9314999999999998E+02       1                   10000                
  6   256   # heatPump.eva.vol.T_start
 -2       1                       0                       1                
  6   256   # heatPump.eva.vol.X_start[1]
 -2       1                       1                 1.0000000000000000E+100
  6   256   # heatPump.eva.vol.mSenFac
 -2       0                       0                       0                
  6   769   # heatPump.eva.vol.initialize_p
 -2       1                       0                       0                
  6   257   # heatPump.eva.vol.prescribedHeatFlowRate
 -2       1                       0                       0                
  6   257   # heatPump.eva.vol.simplify_mWat_flow
 -2  5.0000000000000000E-01       0                 1.0000000000000000E+100
  6   256   # heatPump.eva.vol.m_flow_nominal
 -2       2                       0                       0                
  6   258   # heatPump.eva.vol.nPorts
 -2  5.0000000000000002E-05       0                 1.0000000000000000E+100
  6   256   # heatPump.eva.vol.m_flow_small
 -2       1                       0                       0                
  6   257   # heatPump.eva.vol.allowFlowReversal
 -2  4.0000000000000001E-02       0                       0                
  6   256   # heatPump.eva.vol.V
 -2  3.0156842332178223E+02       1                   10000                
  6   256   # heatPump.eva.vol.T
 -2  3.9823439999999998E+01       0                       0                
  6   256   # heatPump.eva.vol.m
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # heatPump.eva.vol.rho_start
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # heatPump.eva.vol.state_default.p
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # heatPump.eva.vol.state_default.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # heatPump.eva.vol.rho_default
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # heatPump.eva.vol.state_start.p
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # heatPump.eva.vol.state_start.T
 -2       0                       0                       0                
  6  1281   # heatPump.eva.vol.useSteadyStateTwoPort
 -2       0                       0                       0                
  6   257   # heatPump.eva.vol.use_C_flow
 -2       1                       0                       0                
  6   257   # heatPump.eva.preDro.allowFlowReversal
 -2  5.0000000000000000E-01       0                       0                
  6   256   # heatPump.eva.preDro.m_flow_nominal
 -2  5.0000000000000002E-05       0                 1.0000000000000000E+100
  6   256   # heatPump.eva.preDro.m_flow_small
 -2       0                       0                       0                
  6   257   # heatPump.eva.preDro.show_T
 -2       0                       0                       0                
  6   256   # heatPump.eva.preDro.dp
 -2       0                       0                       0                
  6  1280   # heatPump.eva.preDro._m_flow_start
 -2       0                       0                       0                
  6  1280   # heatPump.eva.preDro._dp_start
 -2       0                       0                       0                
  6   257   # heatPump.eva.preDro.from_dp
 -2       0                       0                       0                
  6   256   # heatPump.eva.preDro.dp_nominal
 -2       0                       0                       0                
  6   257   # heatPump.eva.preDro.homotopyInitialization
 -2       0                       0                       0                
  6   257   # heatPump.eva.preDro.linearized
 -2       0                       0                 1.0000000000000000E+100
  6   256   # heatPump.eva.preDro.m_flow_turbulent
 -1  3.0000000000000000E+05       0                  1.0000000000000000E+08
  1  1304   # heatPump.eva.preDro.sta_default.p
 -1  2.9314999999999998E+02       1                   10000                
  1  1304   # heatPump.eva.preDro.sta_default.T
 -2  1.0000000000000000E-03       0                 1.0000000000000000E+100
  6  1280   # heatPump.eva.preDro.eta_default
 -2  5.0000000000000000E-01       0                       0                
  6  1280   # heatPump.eva.preDro.m_flow_nominal_pos
 -2       0                       0                       0                
  6  1280   # heatPump.eva.preDro.dp_nominal_pos
 -2  1.0000000000000001E-01  9.9999999999999995E-07 1.0000000000000000E+100
  6   256   # heatPump.eva.preDro.deltaM
 -2       0                       0                       0                
  6   256   # heatPump.eva.preDro.k
 -2       0                       0                       0                
  6  1281   # heatPump.eva.preDro.computeFlowResistance
 -2       0                       0                       0                
  6  1280   # heatPump.eva.preDro.coeff
 -1  3.0000000000000000E+05       0                  1.0000000000000000E+08
  1  1304   # heatPump.eva.sta_default.p
 -1  2.9314999999999998E+02       1                   10000                
  1  1304   # heatPump.eva.sta_default.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # heatPump.eva.rho_default
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # heatPump.eva.sta_start.p
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # heatPump.eva.sta_start.T
 -2   83680                       0                       0                
  6  1280   # heatPump.eva.h_outflow_start
 -2       0                       0                       0                
  6   257   # heatPump.eva.is_con
 -2  4.0000000000000001E-02       0                       0                
  6   256   # heatPump.eva.V
 -2       0                       0                       0                
  6   257   # heatPump.eva.use_cap
 -2     100                       0                       0                
  6   256   # heatPump.eva.C
 -2       0                       0                       0                
  6   257   # heatPump.eva.fixed_T_start
 -2       5                       0                       0                
  6   256   # heatPump.eva.GOut
 -2       0                       0                       0                
  6   256   # heatPump.eva.GInn
 -2  2.9314999999999998E+02       0                 1.0000000000000000E+100
  6   256   # heatPump.eva.preHea.T_ref
 -2       0                       0                       0                
  6   256   # heatPump.eva.preHea.alpha
 -2 -5.9876477673397258E+03       0                       0                
  6   256   # heatPump.eva.QFlow_in
 -2       1                       0                       0                
  6   256   # heatPump.iceFac_in
 -2       1                       0                       0                
  6   320   # heatPump.nSet
 -2       1                       0                       0                
  6   325   # heatPump.sigBusHP.mode
 -2  6.9832583188134822E+02       0                       0                
  6   260   # heatPump.sigBusHP.Pel
 -2       1                       0                       0                
  6   260   # heatPump.sigBusHP.iceFac
 -2       1                       0                       0                
  6   257   # heatPump.innerCycle.use_revHP
 -2       1                       0                       0                
  6   256   # heatPump.innerCycle.scalingFactor
 -2       1                       0                       0                
  6   260   # heatPump.innerCycle.sigBusHP.iceFac
 -2  6.9832583188134822E+02       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Pel
 -2  6.6859735992210735E+03       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.QCon
 -2       1                       0                       0                
  6   260   # heatPump.innerCycle.PerformanceDataHeater.sigBusHP.iceFac
 -2  5.9876477673397258E+03       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.QEva
 -2       1                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataHeater.scalingFactor
 -2       1                       1                       5                
  6   258   # heatPump.innerCycle.PerformanceDataHeater.smoothness
 -1       0                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 1]
 -1     -15                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 2]
 -1      -7                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 3]
 -1       2                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 4]
 -1       7                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 5]
 -1      10                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 6]
 -1      20                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 7]
 -1      30                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[1, 8]
 -1      35                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 1]
 -1    3020                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 2]
 -1    3810                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 3]
 -1    2610                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 4]
 -1    3960                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 5]
 -1    4340                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 6]
 -1    5350                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 7]
 -1    6610                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[2, 8]
 -1      45                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 1]
 -1    3020                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 2]
 -1    3780                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 3]
 -1    2220                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 4]
 -1    3870                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 5]
 -1    4120                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 6]
 -1    5110                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 7]
 -1    6310                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[3, 8]
 -1      55                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 1]
 -1    3120                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 2]
 -1    3790                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 3]
 -1    2430                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 4]
 -1    3610                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 5]
 -1    3910                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 6]
 -1    4850                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 7]
 -1    6000                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableQdot_con[4, 8]
 -1       0                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 1]
 -1     -15                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 2]
 -1      -7                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 3]
 -1       2                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 4]
 -1       7                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 5]
 -1      10                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 6]
 -1      20                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 7]
 -1      30                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[1, 8]
 -1      35                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 1]
 -1    1290                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 2]
 -1    1310                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 3]
 -1     730                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 4]
 -1     870                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 5]
 -1     850                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 6]
 -1     830                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 7]
 -1     780                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[2, 8]
 -1      45                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 1]
 -1    1550                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 2]
 -1    1600                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 3]
 -1     870                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 4]
 -1    1110                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 5]
 -1    1090                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 6]
 -1    1080                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 7]
 -1    1040                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[3, 8]
 -1      55                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 1]
 -1    1870                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 2]
 -1    1940                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 3]
 -1    1170                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 4]
 -1    1370                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 5]
 -1    1370                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 6]
 -1    1370                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 7]
 -1    1350                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableP_ele[4, 8]
 -1  1.8947368421052629E-01       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.mFlow_conNom
 -1  7.5000000000000000E-01       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.mFlow_evaNom
 -1     -20                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[1, 1]
 -1      50                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[1, 2]
 -1     -10                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[2, 1]
 -1      60                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[2, 2]
 -1      30                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[3, 1]
 -1      60                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[3, 2]
 -1      35                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[4, 1]
 -1      55                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.dataTable.tableUppBou[4, 2]
 -2       1                       0                       0                
  6   257   # heatPump.innerCycle.PerformanceDataHeater.extrapolation
 -2       0                       0                       0                
  6   257   # heatPump.innerCycle.PerformanceDataHeater.printAsserts
 -2  3.1828008633348190E+01       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.u1
 -2  2.9849994819867618E+01       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.u2
 -2  6.6859735992210744E+03       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.y
 -2       1                       0                       0                
  6   257   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.extrapolation
 -2       1                       1                       5                
  6   258   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.smoothness
 -2       0                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 1]
 -2     -15                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 2]
 -2      -7                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 3]
 -2       2                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 4]
 -2       7                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 5]
 -2      10                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 6]
 -2      20                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 7]
 -2      30                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[1, 8]
 -2      35                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 1]
 -2    3020                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 2]
 -2    3810                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 3]
 -2    2610                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 4]
 -2    3960                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 5]
 -2    4340                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 6]
 -2    5350                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 7]
 -2    6610                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[2, 8]
 -2      45                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[3, 1]
 -2    3020                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[3, 2]
 -2    3780                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[3, 3]
 -2    2220                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[3, 4]
 -2    3870                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[3, 5]
 -2    4120                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[3, 6]
 -2    5110                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[3, 7]
 -2    6310                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[3, 8]
 -2      55                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[4, 1]
 -2    3120                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[4, 2]
 -2    3790                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[4, 3]
 -2    2430                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[4, 4]
 -2    3610                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[4, 5]
 -2    3910                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[4, 6]
 -2    4850                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[4, 7]
 -2    6000                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.table[4, 8]
 -2       0                       0                       0                
  6   257   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.tableOnFile
 -2       0                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[1, 1]
 -2     -15                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[1, 2]
 -2      -7                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[1, 3]
 -2       2                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[1, 4]
 -2       7                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[1, 5]
 -2      10                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[1, 6]
 -2      20                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[1, 7]
 -2      30                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[1, 8]
 -2      35                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[2, 1]
 -2    3020                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[2, 2]
 -2    3810                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[2, 3]
 -2    2610                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[2, 4]
 -2    3960                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[2, 5]
 -2    4340                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[2, 6]
 -2    5350                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[2, 7]
 -2    6610                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[2, 8]
 -2      45                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[3, 1]
 -2    3020                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[3, 2]
 -2    3780                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[3, 3]
 -2    2220                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[3, 4]
 -2    3870                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[3, 5]
 -2    4120                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[3, 6]
 -2    5110                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[3, 7]
 -2    6310                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[3, 8]
 -2      55                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[4, 1]
 -2    3120                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[4, 2]
 -2    3790                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[4, 3]
 -2    2430                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[4, 4]
 -2    3610                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[4, 5]
 -2    3910                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[4, 6]
 -2    4850                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[4, 7]
 -2    6000                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.table[4, 8]
 -1       1                       0                       0                
  1   281   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.verboseRead
 -2       1                       1                       5                
  6   258   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.smoothness
 -2       0                       0                       0                
  6  1282   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.tableID.id
 -2       1                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataHeater.Qdot_ConTable.combiTable2D.tableOnFileRead
 -2  6.9832583188134822E+02       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.y
 -2       1                       0                       0                
  6   257   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.extrapolation
 -2       1                       1                       5                
  6   258   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.smoothness
 -2       0                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[1, 1]
 -2     -15                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[1, 2]
 -2      -7                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[1, 3]
 -2       2                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[1, 4]
 -2       7                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[1, 5]
 -2      10                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[1, 6]
 -2      20                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[1, 7]
 -2      30                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[1, 8]
 -2      35                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[2, 1]
 -2    1290                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[2, 2]
 -2    1310                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[2, 3]
 -2     730                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[2, 4]
 -2     870                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[2, 5]
 -2     850                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[2, 6]
 -2     830                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[2, 7]
 -2     780                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[2, 8]
 -2      45                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[3, 1]
 -2    1550                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[3, 2]
 -2    1600                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[3, 3]
 -2     870                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[3, 4]
 -2    1110                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[3, 5]
 -2    1090                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[3, 6]
 -2    1080                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[3, 7]
 -2    1040                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[3, 8]
 -2      55                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[4, 1]
 -2    1870                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[4, 2]
 -2    1940                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[4, 3]
 -2    1170                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[4, 4]
 -2    1370                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[4, 5]
 -2    1370                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[4, 6]
 -2    1370                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[4, 7]
 -2    1350                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.table[4, 8]
 -2       0                       0                       0                
  6   257   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.tableOnFile
 -2       0                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[1, 1]
 -2     -15                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[1, 2]
 -2      -7                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[1, 3]
 -2       2                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[1, 4]
 -2       7                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[1, 5]
 -2      10                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[1, 6]
 -2      20                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[1, 7]
 -2      30                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[1, 8]
 -2      35                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[2, 1]
 -2    1290                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[2, 2]
 -2    1310                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[2, 3]
 -2     730                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[2, 4]
 -2     870                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[2, 5]
 -2     850                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[2, 6]
 -2     830                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[2, 7]
 -2     780                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[2, 8]
 -2      45                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[3, 1]
 -2    1550                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[3, 2]
 -2    1600                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[3, 3]
 -2     870                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[3, 4]
 -2    1110                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[3, 5]
 -2    1090                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[3, 6]
 -2    1080                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[3, 7]
 -2    1040                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[3, 8]
 -2      55                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[4, 1]
 -2    1870                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[4, 2]
 -2    1940                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[4, 3]
 -2    1170                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[4, 4]
 -2    1370                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[4, 5]
 -2    1370                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[4, 6]
 -2    1370                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[4, 7]
 -2    1350                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.table[4, 8]
 -1       1                       0                       0                
  1   281   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.verboseRead
 -2       1                       1                       5                
  6   258   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.smoothness
 -2       1                       0                       0                
  6  1282   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.tableID.id
 -2       1                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataHeater.P_eleTable.combiTable2D.tableOnFileRead
 -2  6.6859735992210744E+03       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.nTimesQCon.y
 -2       1                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.proRedQEva.u1
 -1       1                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.calcRedQCon.k1
 -1       1                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataHeater.calcRedQCon.k2
 -2       1                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataHeater.nTimesSF.u2
 -2     -15                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataHeater.minSou
 -2      35                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataHeater.minSup
 -2      30                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataHeater.maxSou
 -2      55                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataHeater.maxSup
 -2       1                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataHeater.realCorr.k
 -2       1                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataHeater.realCorr.y
 -2  7.1826767147332212E+03       0                       0                
  6   256   # heatPump.innerCycle.switchQEva.u3
 -2 -7.6280644152655605E+03       0                       0                
  6   256   # heatPump.innerCycle.switchQCon.u3
 -2       1                       0                       0                
  6   260   # heatPump.innerCycle.PerformanceDataChiller.sigBusHP.iceFac
 -2       1                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataChiller.scalingFactor
 -2       1                       1                       5                
  6   258   # heatPump.innerCycle.PerformanceDataChiller.smoothness
 -1       0                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[1, 1]
 -1      20                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[1, 2]
 -1      25                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[1, 3]
 -1      27                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[1, 4]
 -1      30                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[1, 5]
 -1      35                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[1, 6]
 -1       7                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[2, 1]
 -1    2540                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[2, 2]
 -1    2440                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[2, 3]
 -1    2370                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[2, 4]
 -1    2230                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[2, 5]
 -1    2170                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[2, 6]
 -1      18                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[3, 1]
 -1    5270                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[3, 2]
 -1    5060                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[3, 3]
 -1    4920                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[3, 4]
 -1    4610                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[3, 5]
 -1    4500                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableQdot_con[3, 6]
 -1       0                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[1, 1]
 -1      20                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[1, 2]
 -1      25                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[1, 3]
 -1      27                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[1, 4]
 -1      30                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[1, 5]
 -1      35                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[1, 6]
 -1       7                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[2, 1]
 -1    1380                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[2, 2]
 -1    1590                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[2, 3]
 -1    1680                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[2, 4]
 -1    1800                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[2, 5]
 -1    1970                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[2, 6]
 -1      18                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[3, 1]
 -1     950                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[3, 2]
 -1    1060                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[3, 3]
 -1    1130                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[3, 4]
 -1    1200                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[3, 5]
 -1    1350                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableP_ele[3, 6]
 -1  1.8947368421052629E-01       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.mFlow_conNom
 -1  7.5000000000000000E-01       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.mFlow_evaNom
 -1      20                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableUppBou[1, 1]
 -1      20                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableUppBou[1, 2]
 -1      35                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableUppBou[2, 1]
 -1      20                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.dataTable.tableUppBou[2, 2]
 -2       1                       0                       0                
  6   257   # heatPump.innerCycle.PerformanceDataChiller.extrapolation
 -2       0                       0                       0                
  6   257   # heatPump.innerCycle.PerformanceDataChiller.printAsserts
 -2  3.1828008633348190E+01       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.u1
 -2  2.9849994819867618E+01       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.u2
 -2  7.6280644152655605E+03       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.y
 -2       1                       0                       0                
  6   257   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.extrapolation
 -2       1                       1                       5                
  6   258   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.smoothness
 -2       0                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[1, 1]
 -2      20                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[1, 2]
 -2      25                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[1, 3]
 -2      27                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[1, 4]
 -2      30                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[1, 5]
 -2      35                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[1, 6]
 -2       7                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[2, 1]
 -2    2540                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[2, 2]
 -2    2440                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[2, 3]
 -2    2370                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[2, 4]
 -2    2230                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[2, 5]
 -2    2170                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[2, 6]
 -2      18                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[3, 1]
 -2    5270                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[3, 2]
 -2    5060                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[3, 3]
 -2    4920                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[3, 4]
 -2    4610                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[3, 5]
 -2    4500                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.table[3, 6]
 -2       0                       0                       0                
  6   257   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.tableOnFile
 -2       0                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[1, 1]
 -2      20                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[1, 2]
 -2      25                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[1, 3]
 -2      27                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[1, 4]
 -2      30                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[1, 5]
 -2      35                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[1, 6]
 -2       7                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[2, 1]
 -2    2540                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[2, 2]
 -2    2440                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[2, 3]
 -2    2370                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[2, 4]
 -2    2230                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[2, 5]
 -2    2170                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[2, 6]
 -2      18                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[3, 1]
 -2    5270                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[3, 2]
 -2    5060                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[3, 3]
 -2    4920                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[3, 4]
 -2    4610                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[3, 5]
 -2    4500                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.table[3, 6]
 -1       1                       0                       0                
  1   281   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.verboseRead
 -2       1                       1                       5                
  6   258   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.smoothness
 -2       2                       0                       0                
  6  1282   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.tableID.id
 -2       1                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataChiller.Qdot_ConTable.combiTable2D.tableOnFileRead
 -2  4.4538770053233952E+02       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.y
 -2       1                       0                       0                
  6   257   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.extrapolation
 -2       1                       1                       5                
  6   258   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.smoothness
 -2       0                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[1, 1]
 -2      20                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[1, 2]
 -2      25                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[1, 3]
 -2      27                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[1, 4]
 -2      30                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[1, 5]
 -2      35                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[1, 6]
 -2       7                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[2, 1]
 -2    1380                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[2, 2]
 -2    1590                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[2, 3]
 -2    1680                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[2, 4]
 -2    1800                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[2, 5]
 -2    1970                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[2, 6]
 -2      18                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[3, 1]
 -2     950                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[3, 2]
 -2    1060                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[3, 3]
 -2    1130                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[3, 4]
 -2    1200                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[3, 5]
 -2    1350                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.table[3, 6]
 -2       0                       0                       0                
  6   257   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.tableOnFile
 -2       0                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[1, 1]
 -2      20                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[1, 2]
 -2      25                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[1, 3]
 -2      27                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[1, 4]
 -2      30                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[1, 5]
 -2      35                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[1, 6]
 -2       7                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[2, 1]
 -2    1380                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[2, 2]
 -2    1590                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[2, 3]
 -2    1680                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[2, 4]
 -2    1800                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[2, 5]
 -2    1970                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[2, 6]
 -2      18                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[3, 1]
 -2     950                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[3, 2]
 -2    1060                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[3, 3]
 -2    1130                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[3, 4]
 -2    1200                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[3, 5]
 -2    1350                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.table[3, 6]
 -1       1                       0                       0                
  1   281   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.verboseRead
 -2       1                       1                       5                
  6   258   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.smoothness
 -2       3                       0                       0                
  6  1282   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.tableID.id
 -2       1                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataChiller.P_eleTable.combiTable2D.tableOnFileRead
 -2  7.6280644152655605E+03       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.nTimesQCon.y
 -2       1                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.proRedQEva.u1
 -1       1                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.calcRedQCon.k1
 -1       1                       0                       0                
  1   280   # heatPump.innerCycle.PerformanceDataChiller.calcRedQCon.k2
 -2       1                       0                       0                
  6   256   # heatPump.innerCycle.PerformanceDataChiller.nTimesSF.u2
 -2      20                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataChiller.minSou
 -2       7                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataChiller.minSup
 -2      35                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataChiller.maxSou
 -2      18                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataChiller.maxSup
 -2       1                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataChiller.realCorr.k
 -2       1                       0                       0                
  6  1280   # heatPump.innerCycle.PerformanceDataChiller.realCorr.y
 -2  4.4538770053233952E+02       0                       0                
  6   256   # heatPump.innerCycle.switchPel.u3
 -2      -1                       0                       0                
  6   256   # heatPump.innerCycle.gainCon.k
 -2      -1                       0                       0                
  6   256   # heatPump.innerCycle.gainEva.k
 -2       1                       0                       0                
  6   257   # heatPump.senT_a2.allowFlowReversal
 -2  5.0000000000000000E-01       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_a2.m_flow_nominal
 -2  5.0000000000000002E-05       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_a2.m_flow_small
 -2       1                       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_a2.tau
 -2       3                       1                       4                
  6   258   # heatPump.senT_a2.initType
 -2       2                       0                       0                
  6  1280   # heatPump.senT_a2.k
 -2       1                       0                       0                
  6  1281   # heatPump.senT_a2.dynamic
 -2       2                       0                       0                
  6  1280   # heatPump.senT_a2.mNor_flow
 -2       1                       0                       0                
  6  1280   # heatPump.senT_a2.tauInv
 -2  3.0299999481986760E+02       0                 1.0000000000000000E+100
  2   272   # heatPump.senT_a2.T
 -2  5.1911838881897078E-14       0                       0                
  3   256   # heatPump.senT_a2.der(T)
 -2  2.9314999999999998E+02       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_a2.T_start
 -2       1                       0                       0                
  6   257   # heatPump.senT_a2.transferHeat
 -2  2.7314999999999998E+02       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_a2.TAmb
 -2    1200                       1                 1.0000000000000000E+100
  6   256   # heatPump.senT_a2.tauHeaTra
 -2  8.3333333333333339E-04       0                       0                
  6  1280   # heatPump.senT_a2.tauHeaTraInv
 -2    1200                       0                       0                
  6  1280   # heatPump.senT_a2.ratTau
 -2     303                       1                   10000                
  6  1280   # heatPump.senT_a2.TMed
 -2     303                       1                   10000                
  6  1280   # heatPump.senT_a2.T_a_inflow
 -2  3.0156842332178223E+02       1                   10000                
  6  1280   # heatPump.senT_a2.T_b_inflow
 -2       1                       0                       0                
  6   257   # heatPump.senT_b2.allowFlowReversal
 -2  5.0000000000000000E-01       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_b2.m_flow_nominal
 -2  5.0000000000000002E-05       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_b2.m_flow_small
 -2       1                       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_b2.tau
 -2       3                       1                       4                
  6   258   # heatPump.senT_b2.initType
 -2       2                       0                       0                
  6  1280   # heatPump.senT_b2.k
 -2       1                       0                       0                
  6  1281   # heatPump.senT_b2.dynamic
 -2       2                       0                       0                
  6  1280   # heatPump.senT_b2.mNor_flow
 -2       1                       0                       0                
  6  1280   # heatPump.senT_b2.tauInv
 -2  3.0156841218045446E+02       0                 1.0000000000000000E+100
  2   272   # heatPump.senT_b2.T
 -2  1.2419261068419476E-05       0                       0                
  3   256   # heatPump.senT_b2.der(T)
 -2  2.9314999999999998E+02       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_b2.T_start
 -2       1                       0                       0                
  6   257   # heatPump.senT_b2.transferHeat
 -2  2.7314999999999998E+02       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_b2.TAmb
 -2    1200                       1                 1.0000000000000000E+100
  6   256   # heatPump.senT_b2.tauHeaTra
 -2  8.3333333333333339E-04       0                       0                
  6  1280   # heatPump.senT_b2.tauHeaTraInv
 -2    1200                       0                       0                
  6  1280   # heatPump.senT_b2.ratTau
 -2  3.0156842332178223E+02       1                   10000                
  6  1280   # heatPump.senT_b2.TMed
 -2  3.0156842332178223E+02       1                   10000                
  6  1280   # heatPump.senT_b2.T_a_inflow
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # heatPump.senT_b2.T_b_inflow
 -2       1                       0                       0                
  6   257   # heatPump.mFlow_eva.allowFlowReversal
 -2       0                       0                 1.0000000000000000E+100
  6   256   # heatPump.mFlow_eva.m_flow_nominal
 -2       0                       0                 1.0000000000000000E+100
  6   256   # heatPump.mFlow_eva.m_flow_small
 -2       1                       0                       1                
  6  1280   # _GlobalScope.Modelica.Media.Interfaces.PartialPureSubstance.X_default_Unique13[1]
 -2       1                       0                       0                
  6   257   # heatPump.senT_b1.allowFlowReversal
 -2  5.0000000000000000E-01       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_b1.m_flow_nominal
 -2  5.0000000000000002E-05       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_b1.m_flow_small
 -2       1                       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_b1.tau
 -2       3                       1                       4                
  6   258   # heatPump.senT_b1.initType
 -2  2.1303451849712152E-01       0                       0                
  6  1280   # heatPump.senT_b1.k
 -2       1                       0                       0                
  6  1281   # heatPump.senT_b1.dynamic
 -2  2.1303451849712152E-01       0                       0                
  6  1280   # heatPump.senT_b1.mNor_flow
 -2       1                       0                       0                
  6  1280   # heatPump.senT_b1.tauInv
 -2  3.0497800863334817E+02       0                 1.0000000000000000E+100
  2   272   # heatPump.senT_b1.T
 -2  9.2025232953975604E-04       0                       0                
  3   256   # heatPump.senT_b1.der(T)
 -2  3.0314999999999998E+02       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_b1.T_start
 -2       1                       0                       0                
  6   257   # heatPump.senT_b1.transferHeat
 -2  2.8814999999999998E+02       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_b1.TAmb
 -2    1200                       1                 1.0000000000000000E+100
  6   256   # heatPump.senT_b1.tauHeaTra
 -2  8.3333333333333339E-04       0                       0                
  6  1280   # heatPump.senT_b1.tauHeaTraInv
 -2    1200                       0                       0                
  6  1280   # heatPump.senT_b1.ratTau
 -2  3.0498258485931558E+02       1                   10000                
  6  1280   # heatPump.senT_b1.TMed
 -2  3.0498258485931558E+02       1                   10000                
  6  1280   # heatPump.senT_b1.T_a_inflow
 -2  2.9341916371098807E+02       1                   10000                
  6  1280   # heatPump.senT_b1.T_b_inflow
 -2       1                       0                       0                
  6   257   # heatPump.senT_a1.allowFlowReversal
 -2  5.0000000000000000E-01       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_a1.m_flow_nominal
 -2  5.0000000000000002E-05       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_a1.m_flow_small
 -2       1                       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_a1.tau
 -2       3                       1                       4                
  6   258   # heatPump.senT_a1.initType
 -2  2.1303451849712152E-01       0                       0                
  6  1280   # heatPump.senT_a1.k
 -2       1                       0                       0                
  6  1281   # heatPump.senT_a1.dynamic
 -2  2.1303451849712152E-01       0                       0                
  6  1280   # heatPump.senT_a1.mNor_flow
 -2       1                       0                       0                
  6  1280   # heatPump.senT_a1.tauInv
 -2  2.9341634739392981E+02       0                 1.0000000000000000E+100
  2   272   # heatPump.senT_a1.T
 -2  1.0928726315938190E-04       0                       0                
  3   256   # heatPump.senT_a1.der(T)
 -2  3.0314999999999998E+02       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_a1.T_start
 -2       1                       0                       0                
  6   257   # heatPump.senT_a1.transferHeat
 -2  2.8814999999999998E+02       0                 1.0000000000000000E+100
  6   256   # heatPump.senT_a1.TAmb
 -2    1200                       1                 1.0000000000000000E+100
  6   256   # heatPump.senT_a1.tauHeaTra
 -2  8.3333333333333339E-04       0                       0                
  6  1280   # heatPump.senT_a1.tauHeaTraInv
 -2    1200                       0                       0                
  6  1280   # heatPump.senT_a1.ratTau
 -2  2.9341694066621471E+02       1                   10000                
  6  1280   # heatPump.senT_a1.TMed
 -2  2.9341694066621471E+02       1                   10000                
  6  1280   # heatPump.senT_a1.T_a_inflow
 -2  3.0498258485931558E+02       1                   10000                
  6  1280   # heatPump.senT_a1.T_b_inflow
 -2       1                       0                       0                
  6   257   # heatPump.mFlow_con.allowFlowReversal
 -2       0                       0                 1.0000000000000000E+100
  6   256   # heatPump.mFlow_con.m_flow_nominal
 -2       0                       0                 1.0000000000000000E+100
  6   256   # heatPump.mFlow_con.m_flow_small
 -1   10000                       0                       0                
  1   280   # booleanStep.startTime
 -1       1                       0                       0                
  1   281   # booleanStep.startValue
 -2       1                       0                       0                
  6   257   # senTAct.allowFlowReversal
 -2  8.4806180966774278E+04 -1.0000000000000000E+10  1.0000000000000000E+10
  6   260   # senTAct.port_a.h_outflow
 -2  5.0000000000000000E-01       0                 1.0000000000000000E+100
  6   256   # senTAct.m_flow_nominal
 -2  5.0000000000000002E-05       0                 1.0000000000000000E+100
  6   256   # senTAct.m_flow_small
 -2       1                       0                 1.0000000000000000E+100
  6   256   # senTAct.tau
 -2       3                       1                       4                
  6   258   # senTAct.initType
 -2  2.1303451849712152E-01       0                       0                
  6  1280   # senTAct.k
 -2       1                       0                       0                
  6  1281   # senTAct.dynamic
 -2  2.1303451849712152E-01       0                       0                
  6  1280   # senTAct.mNor_flow
 -2       1                       0                       0                
  6  1280   # senTAct.tauInv
 -2  3.0497826505997404E+02       0                 1.0000000000000000E+100
  2   272   # senTAct.T
 -2  9.2026637273015651E-04       0                       0                
  3   256   # senTAct.der(T)
 -2  3.0314999999999998E+02       0                 1.0000000000000000E+100
  6   256   # senTAct.T_start
 -2       0                       0                       0                
  6   257   # senTAct.transferHeat
 -2  2.9114999999999998E+02       0                 1.0000000000000000E+100
  6   256   # senTAct.TAmb
 -2    1200                       1                 1.0000000000000000E+100
  6   256   # senTAct.tauHeaTra
 -2  8.3333333333333339E-04       0                       0                
  6  1280   # senTAct.tauHeaTraInv
 -2    1200                       0                       0                
  6  1280   # senTAct.ratTau
 -2  3.0498258485931558E+02       1                   10000                
  6  1280   # senTAct.TMed
 -2  3.0498258485931558E+02       1                   10000                
  6  1280   # senTAct.T_a_inflow
 -2  2.9341916371098807E+02       1                   10000                
  6  1280   # senTAct.T_b_inflow
 -1  3.0814999999999998E+02       0                       0                
  1   280   # hys.uLow
 -1  3.1314999999999998E+02       0                       0                
  1   280   # hys.uHigh
 -1       1                       0                       0                
  1   281   # hys.pre_y_start
 -2       0                       0                       0                
  6   321   # hys.y
 -2       1                       0                       0                
  6   321   # booleanToReal.u
 -1       1                       0                       0                
  1   280   # booleanToReal.realTrue
 -1       0                       0                       0                
  1   280   # booleanToReal.realFalse
 -1    3000                       0                       0                
  1   280   # sine.amplitude
 -1  2.7777777777777778E-04       0                       0                
  1   280   # sine.freqHz
 -1       0                       0                       0                
  1   280   # sine.phase
 -1    3000                       0                       0                
  1   280   # sine.offset
 -1       0                       0                       0                
  1   280   # sine.startTime
 -2  2.9999999999999991E+03       0                       0                
  6   256   # sine.y
 -2       2                       1                       4                
  6   258   # pumSou.energyDynamics
 -2       2                       1                       4                
  6   258   # pumSou.massDynamics
 -2       2                       1                       4                
  6   258   # pumSou.substanceDynamics
 -2       2                       1                       4                
  6   258   # pumSou.traceDynamics
 -1  3.0000000000000000E+05       0                  1.0000000000000000E+08
  1   280   # pumSou.p_start
 -1  2.9314999999999998E+02       1                   10000                
  1   280   # pumSou.T_start
 -1       1                       0                       1                
  1   280   # pumSou.X_start[1]
 -2       1                       1                 1.0000000000000000E+100
  6   256   # pumSou.mSenFac
 -2       1                       0                       0                
  6   257   # pumSou.allowFlowReversal
 -2  8.4796879747442552E+04 -1.0000000000000000E+10  1.0000000000000000E+10
  6   260   # pumSou.port_a.h_outflow
 -2  8.4796879747442552E+04 -1.0000000000000000E+10  1.0000000000000000E+10
  6   260   # pumSou.port_b.h_outflow
 -2  2.1886164223663598E+00  9.9999999999999997E-61 1.0000000000000000E+100
  6   256   # pumSou.m_flow_nominal
 -2  2.1886164223663599E-04       0                 1.0000000000000000E+100
  6   256   # pumSou.m_flow_small
 -2       0                       0                       0                
  6   257   # pumSou.show_T
 -2       0                       0                       0                
  6   256   # pumSou.dp
 -2       0                       0                       0                
  6  1280   # pumSou._m_flow_start
 -2       0                       0                       0                
  6  1280   # pumSou._dp_start
 -2  2.6611158290900002E-06       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.V_flow[1]
 -2  6.2148663503699996E-04       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.V_flow[2]
 -2  8.8705646953300004E-04       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.V_flow[3]
 -2  1.1525489113999999E-03       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.V_flow[4]
 -2  1.4085934990800001E-03       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.V_flow[5]
 -2  1.6801820989100001E-03       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.V_flow[6]
 -2  1.9174083708500000E-03       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.V_flow[7]
 -2  2.1983198059899998E-03       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.V_flow[8]
 -2  5.0002703515100002E+04       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.dp[1]
 -2  4.9603919394999997E+04       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.dp[2]
 -2  4.7783294068499999E+04       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.dp[3]
 -2  4.4505190836800000E+04       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.dp[4]
 -2  3.9882669492100002E+04       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.dp[5]
 -2  3.3688979712100001E+04       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.dp[6]
 -2  2.7835100046299998E+04       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.dp[7]
 -2  2.0631440994199998E+04       0                 1.0000000000000000E+100
  6   256   # pumSou.per.pressure.dp[8]
 -2       1                       0                       0                
  6   257   # pumSou.per.use_powerCharacteristic
 -1       0                       0                 1.0000000000000000E+100
  1   280   # pumSou.per.hydraulicEfficiency.V_flow[1]
 -1  6.9999999999999996E-01       0                       1                
  1   280   # pumSou.per.hydraulicEfficiency.eta[1]
 -1       0                       0                 1.0000000000000000E+100
  1   280   # pumSou.per.motorEfficiency.V_flow[1]
 -1  6.9999999999999996E-01       0                       1                
  1   280   # pumSou.per.motorEfficiency.eta[1]
 -1  2.6611158290900002E-06       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.V_flow[1]
 -1  6.2148663503699996E-04       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.V_flow[2]
 -1  8.8705646953300004E-04       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.V_flow[3]
 -1  1.1525489113999999E-03       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.V_flow[4]
 -1  1.4085934990800001E-03       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.V_flow[5]
 -1  1.6801820989100001E-03       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.V_flow[6]
 -1  1.9174083708500000E-03       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.V_flow[7]
 -1  2.1983198059899998E-03       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.V_flow[8]
 -1  4.2787828579699998E+01       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.P[1]
 -1  7.2771266631499998E+01       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.P[2]
 -1  8.7057602155200001E+01       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.P[3]
 -1  9.9756254224800003E+01       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.P[4]
 -1  1.0856508549900001E+02       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.P[5]
 -1  1.1746149333600000E+02       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.P[6]
 -1  1.2318807453700001E+02       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.P[7]
 -1  1.2851157971600000E+02       0                 1.0000000000000000E+100
  1   280   # pumSou.per.power.P[8]
 -1       1                       0                       0                
  1   281   # pumSou.per.motorCooledByFluid
 -1       1                       0                 1.0000000000000000E+100
  1   280   # pumSou.per.speed_nominal
 -2       1                       0                 1.0000000000000000E+100
  6   256   # pumSou.per.constantSpeed
 -2       1                       0                 1.0000000000000000E+100
  6   256   # pumSou.per.speeds[1]
 -1    3040                       0                       0                
  1   280   # pumSou.per.speed_rpm_nominal
 -2    3040                       0                       0                
  6   256   # pumSou.per.constantSpeed_rpm
 -2    3040                       0                       0                
  6   256   # pumSou.per.speeds_rpm[1]
 -2       1                       0                       0                
  6   257   # pumSou.per.havePressureCurve
 -2       3                       1                       3                
  6   258   # pumSou.inputType
 -2       1                       0                       0                
  6   256   # pumSou.constInput
 -2       1                       0                       0                
  6   256   # pumSou.stageInputs[1]
 -2       1                       0                       0                
  6   257   # pumSou.computePowerUsingSimilarityLaws
 -2       0                       0                       0                
  6   257   # pumSou.addPowerToMedium
 -2       0                       0                       0                
  6   257   # pumSou.nominalValuesDefineDefaultPressureCurve
 -2       1                       0                       0                
  6   256   # pumSou.tau
 -2       1                       0                       0                
  6   257   # pumSou.use_inputFilter
 -1      30                       0                       0                
  1   280   # pumSou.riseTime
 -2       4                       1                       4                
  6   258   # pumSou.init
 -1       0                       0                       1                
  1   280   # pumSou.y_start
 -2  3.2894736842105254E-02       0                       0                
  6   256   # pumSou.y_actual
 -2  3.4212754604210599E-03       0                       0                
  6   256   # pumSou.P
 -2  2.9341694066621471E+02       1                   10000                
  6   260   # pumSou.heatPort.T
 -2       0                       0                       0                
  6   388   # pumSou.heatPort.Q_flow
 -2  1.0698951094989359E-04       0                       0                
  6   288   # pumSou.VMachine_flow
 -2       0                       0                       0                
  6   256   # pumSou.dpMachine
 -2       0                       0                       0                
  6   256   # pumSou.eta
 -2       1                       0                       0                
  6   256   # pumSou.etaHyd
 -2       0                       0                       0                
  6   256   # pumSou.etaMot
 -2       0                       0                       0                
  6  1280   # pumSou._VMachine_flow
 -2       1                       1                       3                
  6  1282   # pumSou.preVar
 -2       1                       0                       0                
  6  1281   # pumSou.speedIsInput
 -2       8                       0                       0                
  6  1282   # pumSou.nOri
 -2       0                       0                       0                
  6  1281   # pumSou.haveVMax
 -2  3.0028564528205323E-03       0                       0                
  6  1280   # pumSou.V_flow_max
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # pumSou.rho_default
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # pumSou.sta_start.p
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # pumSou.sta_start.T
 -2   83680                       0                       0                
  6  1280   # pumSou.h_outflow_start
 -2  3.2894736842105261E-02       0                       0                
  6  1280   # pumSou.inputSwitch.u
 -2       2                       1                       4                
  6  1282   # pumSou.vol.energyDynamics
 -2       2                       1                       4                
  6  1282   # pumSou.vol.massDynamics
 -2       2                       1                       4                
  6  1282   # pumSou.vol.substanceDynamics
 -2       2                       1                       4                
  6  1282   # pumSou.vol.traceDynamics
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # pumSou.vol.p_start
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # pumSou.vol.T_start
 -2       1                       0                       1                
  6  1280   # pumSou.vol.X_start[1]
 -2       1                       1                 1.0000000000000000E+100
  6  1280   # pumSou.vol.mSenFac
 -2       0                       0                       0                
  6   769   # pumSou.vol.initialize_p
 -2       1                       0                       0                
  6  1281   # pumSou.vol.prescribedHeatFlowRate
 -2       1                       0                       0                
  6  1281   # pumSou.vol.simplify_mWat_flow
 -2  2.1886164223663598E+00       0                 1.0000000000000000E+100
  6  1280   # pumSou.vol.m_flow_nominal
 -2       2                       0                       0                
  6  1282   # pumSou.vol.nPorts
 -2  2.1886164223663599E-04       0                 1.0000000000000000E+100
  6  1280   # pumSou.vol.m_flow_small
 -2       1                       0                       0                
  6  1281   # pumSou.vol.allowFlowReversal
 -2  2.1983198059899998E-03       0                       0                
  6  1280   # pumSou.vol.V
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # pumSou.vol.rho_start
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # pumSou.vol.state_default.p
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # pumSou.vol.state_default.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # pumSou.vol.rho_default
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # pumSou.vol.state_start.p
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # pumSou.vol.state_start.T
 -2       0                       0                       0                
  6  1281   # pumSou.vol.useSteadyStateTwoPort
 -2       0                       0                       0                
  6  1412   # pumSou.vol.preTem.port.Q_flow
 -2       0                       0                       0                
  6  1280   # pumSou.vol.heaFloSen.Q_flow
 -2       0                       0                       0                
  6  1412   # pumSou.vol.heaFloSen.port_a.Q_flow
 -2       0                       0                       0                
  6  1412   # pumSou.vol.heaFloSen.port_b.Q_flow
 -2       0                       0                       0                
  6  1281   # pumSou.vol.use_C_flow
 -2       0                       0                       0                
  6  1412   # pumSou.vol.heatPort.Q_flow
 -2       1                       0                       0                
  6  1280   # pumSou.vol.tau
 -2  2.1983198059899998E-03       0                       0                
  6  1280   # pumSou.vol.V_nominal
 -2       1                       1                       4                
  6  1282   # pumSou.filter.analogFilter
 -2       1                       1                       4                
  6  1282   # pumSou.filter.filterType
 -2       2                       1                 1.0000000000000000E+100
  6  1282   # pumSou.filter.order
 -2  2.6525823848649224E-02       0                       0                
  6  1280   # pumSou.filter.f_cut
 -1       1                       0                       0                
  1  1304   # pumSou.filter.gain
 -1  5.0000000000000000E-01       0                       0                
  1  1304   # pumSou.filter.A_ripple
 -1       0                       0                       0                
  1  1304   # pumSou.filter.f_min
 -1       1                       0                       0                
  1  1305   # pumSou.filter.normalized
 -2       4                       1                       4                
  6  1282   # pumSou.filter.init
 -2       2                       0                       0                
  6  1282   # pumSou.filter.nx
 -1       0                       0                       0                
  1  1304   # pumSou.filter.x_start[1]
 -1       0                       0                       0                
  1  1304   # pumSou.filter.x_start[2]
 -2       0                       0                       0                
  6  1280   # pumSou.filter.y_start
 -1       1                       0                       0                
  1  1304   # pumSou.filter.u_nominal
 -2  3.2894736842105261E-02       0                       0                
  2  1296   # pumSou.filter.x[1]
 -2       0                       0                       0                
  3  1280   # pumSou.filter.der(x[1])
 -2  3.2894736842105254E-02       0                       0                
  2  1296   # pumSou.filter.x[2]
 -2  1.8005585868502150E-18       0                       0                
  3  1280   # pumSou.filter.der(x[2])
 -2       2                       0                       0                
  6  1282   # pumSou.filter.ncr
 -2       0                       0                       0                
  6  1282   # pumSou.filter.nc0
 -2       0                       0                       0                
  6  1282   # pumSou.filter.na
 -2       2                       0                       0                
  6  1282   # pumSou.filter.nr
 -2  1.5569270363130960E+00       0                       0                
  6  1280   # pumSou.filter.cr[1]
 -2  1.5569270363130960E+00       0                       0                
  6  1280   # pumSou.filter.cr[2]
 -2 -2.5948783938551601E-01       0                       0                
  6  1280   # pumSou.filter.r[1]
 -2 -2.5948783938551601E-01       0                       0                
  6  1280   # pumSou.filter.r[2]
 -2  3.2894736842105261E-02       0                       0                
  6  1280   # pumSou.filter.uu[1]
 -2  3.2894736842105262E-04       0                       0                
  6  1280   # pumSou.gaiSpe.k
 -2       1                       0                       0                
  6  1281   # pumSou.preSou.allowFlowReversal
 -1       0                       0                       0                
  1  1304   # pumSou.preSou.dp_start
 -1       0                 -100000                  100000                
  1  1304   # pumSou.preSou.m_flow_start
 -2  2.1886164223663599E-04 -100000                  100000                
  6  1280   # pumSou.preSou.m_flow_small
 -2       0                       0                       0                
  6  1281   # pumSou.preSou.show_T
 -2       1                       0                       0                
  6  1281   # pumSou.preSou.show_V_flow
 -2       0                       0                       0                
  6  1280   # pumSou.preSou.dp
 -2  1.0698951094989359E-04       0                       0                
  6  1280   # pumSou.preSou.V_flow
 -2       0                       0                       0                
  6  1281   # pumSou.preSou.control_m_flow
 -2       1                       0                       0                
  6  1281   # pumSou.preSou.control_dp
 -2       0                       0                       0                
  6  1280   # pumSou.preSou.dp_in
 -2       0                       0                       0                
  6  1280   # pumSou.preSou.m_flow_internal
 -2       0                       0                       0                
  6  1280   # pumSou.preSou.dp_internal
 -2  9.9558600000000001E+02       0                       0                
  6  1280   # pumSou.rho_inlet.y
 -2       1                       0                       0                
  6  1281   # pumSou.senMasFlo.allowFlowReversal
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.senMasFlo.m_flow_nominal
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.senMasFlo.m_flow_small
 -2       0                       0                  100000                
  6  1412   # pumSou.senRelPre.port_a.m_flow
 -2       0                 -1.0000000000000000E+10  1.0000000000000000E+10
  6  1284   # pumSou.senRelPre.port_a.h_outflow
 -2       0                       0                  100000                
  6  1412   # pumSou.senRelPre.port_b.m_flow
 -2       0                 -1.0000000000000000E+10  1.0000000000000000E+10
  6  1284   # pumSou.senRelPre.port_b.h_outflow
 -2       0                       0                       0                
  6  1280   # pumSou.senRelPre.p_rel
 -2  2.6611158290900002E-06       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.V_flow[1]
 -2  6.2148663503699996E-04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.V_flow[2]
 -2  8.8705646953300004E-04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.V_flow[3]
 -2  1.1525489113999999E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.V_flow[4]
 -2  1.4085934990800001E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.V_flow[5]
 -2  1.6801820989100001E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.V_flow[6]
 -2  1.9174083708500000E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.V_flow[7]
 -2  2.1983198059899998E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.V_flow[8]
 -2  5.0002703515100002E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.dp[1]
 -2  4.9603919394999997E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.dp[2]
 -2  4.7783294068499999E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.dp[3]
 -2  4.4505190836800000E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.dp[4]
 -2  3.9882669492100002E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.dp[5]
 -2  3.3688979712100001E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.dp[6]
 -2  2.7835100046299998E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.dp[7]
 -2  2.0631440994199998E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.pressure.dp[8]
 -2       1                       0                       0                
  6  1281   # pumSou.eff.per.use_powerCharacteristic
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.hydraulicEfficiency.V_flow[1]
 -2  6.9999999999999996E-01       0                       1                
  6  1280   # pumSou.eff.per.hydraulicEfficiency.eta[1]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.motorEfficiency.V_flow[1]
 -2  6.9999999999999996E-01       0                       1                
  6  1280   # pumSou.eff.per.motorEfficiency.eta[1]
 -2  2.6611158290900002E-06       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.V_flow[1]
 -2  6.2148663503699996E-04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.V_flow[2]
 -2  8.8705646953300004E-04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.V_flow[3]
 -2  1.1525489113999999E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.V_flow[4]
 -2  1.4085934990800001E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.V_flow[5]
 -2  1.6801820989100001E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.V_flow[6]
 -2  1.9174083708500000E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.V_flow[7]
 -2  2.1983198059899998E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.V_flow[8]
 -2  4.2787828579699998E+01       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.P[1]
 -2  7.2771266631499998E+01       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.P[2]
 -2  8.7057602155200001E+01       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.P[3]
 -2  9.9756254224800003E+01       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.P[4]
 -2  1.0856508549900001E+02       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.P[5]
 -2  1.1746149333600000E+02       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.P[6]
 -2  1.2318807453700001E+02       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.P[7]
 -2  1.2851157971600000E+02       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.power.P[8]
 -2       1                       0                       0                
  6  1281   # pumSou.eff.per.motorCooledByFluid
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.speed_nominal
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.constantSpeed
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.per.speeds[1]
 -1    1500                       0                       0                
  1  1304   # pumSou.eff.per.speed_rpm_nominal
 -2    1500                       0                       0                
  6  1280   # pumSou.eff.per.constantSpeed_rpm
 -2    1500                       0                       0                
  6  1280   # pumSou.eff.per.speeds_rpm[1]
 -2       1                       0                       0                
  6  1281   # pumSou.eff.per.havePressureCurve
 -2       1                       1                       3                
  6  1282   # pumSou.eff.preVar
 -2       1                       0                       0                
  6  1281   # pumSou.eff.computePowerUsingSimilarityLaws
 -2  2.1983198059899998E-03       0                       0                
  6  1280   # pumSou.eff.V_flow_nominal
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.rho_default
 -2       0                       0                       0                
  6  1281   # pumSou.eff.haveVMax
 -2  3.0028564528205323E-03       0                       0                
  6  1280   # pumSou.eff.V_flow_max
 -2       8                       1                 1.0000000000000000E+100
  6  1282   # pumSou.eff.nOri
 -2       1                       0                       0                
  6  1281   # pumSou.eff.homotopyInitialization
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.rho
 -2       0                       0                       0                
  6  1280   # pumSou.eff.WFlo
 -2       0                       0                       0                
  6  1280   # pumSou.eff.eta
 -2       1                       0                       0                
  6  1280   # pumSou.eff.etaHyd
 -2       0                       0                       0                
  6  1280   # pumSou.eff.etaMot
 -2  3.5629245896652888E-02       0                       0                
  6  1280   # pumSou.eff.r_V
 -2       1                       0                       0                
  6  1281   # pumSou.eff.preSpe
 -2       0                       0                       0                
  6  1281   # pumSou.eff.prePre
 -2       0                       0                       0                
  6  1280   # pumSou.eff.motDer[1]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.hydDer[1]
 -2  5.0004418393852495E+04       0                       0                
  6  1280   # pumSou.eff.dpMax
 -2  5.0000000000000003E-02       0                       0                
  6  1280   # pumSou.eff.delta
 -2  4.1630709941932291E+03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.kRes
 -2       3                       0                       0                
  6  1282   # pumSou.eff.curve
 -2       8                       0                       0                
  6  1282   # pumSou.eff.pCur1.n
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.V_flow[1]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.V_flow[2]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.V_flow[3]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.V_flow[4]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.V_flow[5]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.V_flow[6]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.V_flow[7]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.V_flow[8]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.dp[1]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.dp[2]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.dp[3]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.dp[4]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.dp[5]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.dp[6]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.dp[7]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur1.dp[8]
 -2       9                       0                       0                
  6  1282   # pumSou.eff.pCur2.n
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.V_flow[1]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.V_flow[2]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.V_flow[3]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.V_flow[4]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.V_flow[5]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.V_flow[6]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.V_flow[7]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.V_flow[8]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.V_flow[9]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.dp[1]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.dp[2]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.dp[3]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.dp[4]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.dp[5]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.dp[6]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.dp[7]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.dp[8]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur2.dp[9]
 -2      10                       0                       0                
  6  1282   # pumSou.eff.pCur3.n
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.V_flow[1]
 -2  2.6611158290900002E-06       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.V_flow[2]
 -2  6.2148663503699996E-04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.V_flow[3]
 -2  8.8705646953300004E-04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.V_flow[4]
 -2  1.1525489113999999E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.V_flow[5]
 -2  1.4085934990800001E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.V_flow[6]
 -2  1.6801820989100001E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.V_flow[7]
 -2  1.9174083708500000E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.V_flow[8]
 -2  2.1983198059899998E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.V_flow[9]
 -2  3.0028564528205323E-03       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.V_flow[10]
 -2  5.0004418393852495E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.dp[1]
 -2  5.0002714593514123E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.dp[2]
 -2  4.9606506687983601E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.dp[3]
 -2  4.7786986947558522E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.dp[4]
 -2  4.4509988979742440E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.dp[5]
 -2  3.9888533566838632E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.dp[6]
 -2  3.3695974429460934E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.dp[7]
 -2  2.7843082353472706E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.dp[8]
 -2  2.0640592755620277E+04       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.dp[9]
 -2       0                       0                 1.0000000000000000E+100
  6  1280   # pumSou.eff.pCur3.dp[10]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer1[1]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer1[2]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer1[3]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer1[4]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer1[5]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer1[6]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer1[7]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer1[8]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer2[1]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer2[2]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer2[3]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer2[4]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer2[5]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer2[6]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer2[7]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer2[8]
 -2       0                       0                       0                
  6  1280   # pumSou.eff.preDer2[9]
 -2 -6.4025786466949852E+05       0                       0                
  6  1280   # pumSou.eff.preDer3[1]
 -2 -3.2361686088331771E+05       0                       0                
  6  1280   # pumSou.eff.preDer3[2]
 -2 -1.8933154324577046E+06       0                       0                
  6  1280   # pumSou.eff.preDer3[3]
 -2 -9.5972364149565119E+06       0                       0                
  6  1280   # pumSou.eff.preDer3[4]
 -2 -1.5196254890532378E+07       0                       0                
  6  1280   # pumSou.eff.preDer3[5]
 -2 -2.0425332482743196E+07       0                       0                
  6  1280   # pumSou.eff.preDer3[6]
 -2 -2.3736720107293140E+07       0                       0                
  6  1280   # pumSou.eff.preDer3[7]
 -2 -2.5155954208669100E+07       0                       0                
  6  1280   # pumSou.eff.preDer3[8]
 -2 -2.5647485772848155E+07       0                       0                
  6  1280   # pumSou.eff.preDer3[9]
 -2 -2.5655254905955836E+07       0                       0                
  6  1280   # pumSou.eff.preDer3[10]
 -2  4.8452168052439854E+04       0                       0                
  6  1280   # pumSou.eff.powDer[1]
 -2  5.1123595844180527E+04       0                       0                
  6  1280   # pumSou.eff.powDer[2]
 -2  5.0812791628376952E+04       0                       0                
  6  1280   # pumSou.eff.powDer[3]
 -2  4.1117032352846814E+04       0                       0                
  6  1280   # pumSou.eff.powDer[4]
 -2  3.3580215855265895E+04       0                       0                
  6  1280   # pumSou.eff.powDer[5]
 -2  2.8448334735947432E+04       0                       0                
  6  1280   # pumSou.eff.powDer[6]
 -2  2.1545287004444392E+04       0                       0                
  6  1280   # pumSou.eff.powDer[7]
 -2  1.8950831162664781E+04       0                       0                
  6  1280   # pumSou.eff.powDer[8]
 -2       1                       0                       0                
  6  1281   # pumSou.eff.haveMinimumDecrease
 -2       0                       0                       0                
  6  1281   # pumSou.eff.haveDPMax
 -2       0                       0                       0                
  6  1280   # pumSou.eff.dp_internal
 -2      -1                       0                       0                
  6  1280   # pumSou.gain.k
 -2       0                       0                       0                
  6  1280   # pumSou.gain.u
 -2       0                       0                       0                
  6  1280   # pumSou.gain.y
 -2       2                       1                       4                
  6   258   # Room.energyDynamics
 -2       2                       1                       4                
  6   258   # Room.massDynamics
 -2       2                       1                       4                
  6   258   # Room.substanceDynamics
 -2       2                       1                       4                
  6   258   # Room.traceDynamics
 -1  3.0000000000000000E+05       0                  1.0000000000000000E+08
  1   280   # Room.p_start
 -1  2.9314999999999998E+02       1                   10000                
  1   280   # Room.T_start
 -1       1                       0                       1                
  1   280   # Room.X_start[1]
 -2       1                       1                 1.0000000000000000E+100
  6   256   # Room.mSenFac
 -2       0                       0                       0                
  6   769   # Room.initialize_p
 -2       0                       0                       0                
  6   257   # Room.prescribedHeatFlowRate
 -2       1                       0                       0                
  6   257   # Room.simplify_mWat_flow
 -2  5.0000000000000000E-01       0                 1.0000000000000000E+100
  6   256   # Room.m_flow_nominal
 -2       2                       0                       0                
  6   258   # Room.nPorts
 -2  5.0000000000000002E-05       0                 1.0000000000000000E+100
  6   256   # Room.m_flow_small
 -2       1                       0                       0                
  6   257   # Room.allowFlowReversal
 -2       5                       0                       0                
  6   256   # Room.V
 -2  8.4806180966774278E+04 -1.0000000000000000E+10  1.0000000000000000E+10
  6   260   # Room.ports[1].h_outflow
 -2  2.9341916371098807E+02       1                   10000                
  6   256   # Room.T
 -2  4.9779300000000003E+03       0                       0                
  6   256   # Room.m
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # Room.rho_start
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # Room.state_default.p
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # Room.state_default.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # Room.rho_default
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # Room.state_start.p
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # Room.state_start.T
 -2       0                       0                       0                
  6  1281   # Room.useSteadyStateTwoPort
 -2       0                       0                       0                
  6   257   # Room.use_C_flow
 -2 -2.9999999999999991E+03       0                       0                
  6   388   # Room.heatPort.Q_flow
 -1     100                       0                       0                
  1   280   # nIn.k
 -1  2.9314999999999998E+02       0                 1.0000000000000000E+100
  1   280   # heatFlowRateCon.T_ref
 -1       0                       0                       0                
  1   280   # heatFlowRateCon.alpha
 -2 -2.9999999999999991E+03       0                       0                
  6   256   # heatFlowRateCon.Q_flow
 -1      -1                       0                       0                
  1   280   # gain.k
 -2       1                       0                       0                
  6   258   # sinkSideFixedBoundary.nPorts
 -2       1                       0                       0                
  6   257   # sinkSideFixedBoundary.verifyInputs
 -2       0                 -9.9999999999999995E+59  9.9999999999999995E+59
  6   388   # sinkSideFixedBoundary.ports[1].m_flow
 -2   83680                 -1.0000000000000000E+10  1.0000000000000000E+10
  6   260   # sinkSideFixedBoundary.ports[1].h_outflow
 -2       3                       1                       3                
  6  1282   # sinkSideFixedBoundary.flowDirection
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # sinkSideFixedBoundary.medium.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # sinkSideFixedBoundary.medium.d
 -2       1                       0                       1                
  6  1280   # sinkSideFixedBoundary.medium.X[1]
 -2       0                       0                       0                
  6  1280   # sinkSideFixedBoundary.medium.R
 -2  1.8015268000000001E-02       0                 1.0000000000000000E+100
  6  1280   # sinkSideFixedBoundary.medium.MM
 -2       0                       0                       0                
  6  1281   # sinkSideFixedBoundary.medium.preferredMediumStates
 -2       1                       0                       0                
  6  1281   # sinkSideFixedBoundary.medium.standardOrderComponents
 -2      20                       0                       0                
  6  1280   # sinkSideFixedBoundary.medium.T_degC
 -2  3.0000000000000004E+00       0                       0                
  6  1280   # sinkSideFixedBoundary.medium.p_bar
 -2       1                       0                       0                
  6   257   # sinkSideFixedBoundary.use_p
 -1  3.0000000000000000E+05       0                  1.0000000000000000E+08
  1   280   # sinkSideFixedBoundary.p
 -1  9.9558600000000001E+02       0                  100000                
  1   280   # sinkSideFixedBoundary.d
 -2       1                       0                       0                
  6   257   # sinkSideFixedBoundary.use_T
 -1  2.9314999999999998E+02       1                   10000                
  1   280   # sinkSideFixedBoundary.T
 -1   83680                 -1.0000000000000000E+10  1.0000000000000000E+10
  1   280   # sinkSideFixedBoundary.h
 -1       1                       0                       1                
  1   280   # sinkSideFixedBoundary.X[1]
 -2       1                       0                       0                
  6   256   # iceFac.k
 -2       1                       0                       0                
  6   256   # iceFac.y
 -2       2                       1                       4                
  6  1282   # heatPump.con.vol.dynBal.energyDynamics
 -2       1                       1                       4                
  6  1282   # heatPump.con.vol.dynBal.massDynamics
 -2       2                       1                       4                
  6  1282   # heatPump.con.vol.dynBal.substanceDynamics
 -2       2                       1                       4                
  6  1282   # heatPump.con.vol.dynBal.traceDynamics
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # heatPump.con.vol.dynBal.p_start
 -2  3.0314999999999998E+02       1                   10000                
  6  1280   # heatPump.con.vol.dynBal.T_start
 -2       1                       0                       1                
  6  1280   # heatPump.con.vol.dynBal.X_start[1]
 -2       1                       1                 1.0000000000000000E+100
  6  1280   # heatPump.con.vol.dynBal.mSenFac
 -2       0                       0                       0                
  6   769   # heatPump.con.vol.dynBal.initialize_p
 -2       1                       0                       0                
  6  1281   # heatPump.con.vol.dynBal.simplify_mWat_flow
 -2       2                       0                       0                
  6  1282   # heatPump.con.vol.dynBal.nPorts
 -2       0                       0                       0                
  6  1281   # heatPump.con.vol.dynBal.use_mWat_flow
 -2       0                       0                       0                
  6  1281   # heatPump.con.vol.dynBal.use_C_flow
 -2  3.9823440000000005E+02       0                 1.0000000000000000E+100
  6  1280   # heatPump.con.vol.dynBal.mOut
 -2  3.0498258485931552E+02       1                   10000                
  6  1280   # heatPump.con.vol.dynBal.medium.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # heatPump.con.vol.dynBal.medium.d
 -2       1                       0                       1                
  6  1280   # heatPump.con.vol.dynBal.medium.X[1]
 -2       0                       0                       0                
  6  1280   # heatPump.con.vol.dynBal.medium.R
 -2  1.8015268000000001E-02       0                 1.0000000000000000E+100
  6  1280   # heatPump.con.vol.dynBal.medium.MM
 -2       0                       0                       0                
  6  1281   # heatPump.con.vol.dynBal.medium.preferredMediumStates
 -2       1                       0                       0                
  6  1281   # heatPump.con.vol.dynBal.medium.standardOrderComponents
 -2  3.1832584859315546E+01       0                       0                
  6  1280   # heatPump.con.vol.dynBal.medium.T_degC
 -2  3.0000000000000004E+00       0                       0                
  6  1280   # heatPump.con.vol.dynBal.medium.p_bar
 -2  5.3039858108663842E+07       0                       0                
  2  1296   # heatPump.con.vol.dynBal.U
 -2  1.5315336230042121E+03       0                       0                
  3  1280   # heatPump.con.vol.dynBal.der(U)
 -2  3.9823440000000005E+02       0                 1.0000000000000000E+100
  6  1280   # heatPump.con.vol.dynBal.m
 -2       0                       0                       0                
  6  1280   # heatPump.con.vol.dynBal.der(m)
 -2       0                       0                       0                
  6  1280   # heatPump.con.vol.dynBal.mb_flow
 -2 -5.1544399762168614E+03       0                       0                
  6  1280   # heatPump.con.vol.dynBal.Hb_flow
 -2  4.0000000000000002E-01       0                       0                
  6  1280   # heatPump.con.vol.dynBal.fluidVolume
 -2       0                       0                       0                
  6  1280   # heatPump.con.vol.dynBal.CSen
 -2  9.0323312235273697E+03 -1.0000000000000000E+08  1.0000000000000000E+08
  6  1280   # heatPump.con.vol.dynBal.ports_H_flow[1]
 -2 -1.4186771199744231E+04 -1.0000000000000000E+08  1.0000000000000000E+08
  6  1280   # heatPump.con.vol.dynBal.ports_H_flow[2]
 -2    4184                       0                       0                
  6  1280   # heatPump.con.vol.dynBal.cp_default
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # heatPump.con.vol.dynBal.rho_start
 -2       0                       0                       0                
  6  1281   # heatPump.con.vol.dynBal.computeCSen
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # heatPump.con.vol.dynBal.state_default.p
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # heatPump.con.vol.dynBal.state_default.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # heatPump.con.vol.dynBal.rho_default
 -2  1.2552000000000000E+05       0                       0                
  6  1280   # heatPump.con.vol.dynBal.hStart
 -2       0                       0                       0                
  6  1281   # heatPump.con.vol.dynBal._simplify_mWat_flow
 -2       0                       0                       0                
  6  1280   # heatPump.con.vol.dynBal.mWat_flow_internal
 -2       2                       1                       4                
  6  1282   # heatPump.eva.vol.dynBal.energyDynamics
 -2       1                       1                       4                
  6  1282   # heatPump.eva.vol.dynBal.massDynamics
 -2       2                       1                       4                
  6  1282   # heatPump.eva.vol.dynBal.substanceDynamics
 -2       2                       1                       4                
  6  1282   # heatPump.eva.vol.dynBal.traceDynamics
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # heatPump.eva.vol.dynBal.p_start
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # heatPump.eva.vol.dynBal.T_start
 -2       1                       0                       1                
  6  1280   # heatPump.eva.vol.dynBal.X_start[1]
 -2       1                       1                 1.0000000000000000E+100
  6  1280   # heatPump.eva.vol.dynBal.mSenFac
 -2       0                       0                       0                
  6   769   # heatPump.eva.vol.dynBal.initialize_p
 -2       1                       0                       0                
  6  1281   # heatPump.eva.vol.dynBal.simplify_mWat_flow
 -2       2                       0                       0                
  6  1282   # heatPump.eva.vol.dynBal.nPorts
 -2       0                       0                       0                
  6  1281   # heatPump.eva.vol.dynBal.use_mWat_flow
 -2       0                       0                       0                
  6  1281   # heatPump.eva.vol.dynBal.use_C_flow
 -2  3.9823439999999998E+01       0                 1.0000000000000000E+100
  6  1280   # heatPump.eva.vol.dynBal.mOut
 -2  3.0156842332178218E+02       1                   10000                
  6  1280   # heatPump.eva.vol.dynBal.medium.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # heatPump.eva.vol.dynBal.medium.d
 -2       1                       0                       1                
  6  1280   # heatPump.eva.vol.dynBal.medium.X[1]
 -2       0                       0                       0                
  6  1280   # heatPump.eva.vol.dynBal.medium.R
 -2  1.8015268000000001E-02       0                 1.0000000000000000E+100
  6  1280   # heatPump.eva.vol.dynBal.medium.MM
 -2       0                       0                       0                
  6  1281   # heatPump.eva.vol.dynBal.medium.preferredMediumStates
 -2       1                       0                       0                
  6  1281   # heatPump.eva.vol.dynBal.medium.standardOrderComponents
 -2  2.8418423321782200E+01       0                       0                
  6  1280   # heatPump.eva.vol.dynBal.medium.T_degC
 -2  3.0000000000000004E+00       0                       0                
  6  1280   # heatPump.eva.vol.dynBal.medium.p_bar
 -2  4.7351138693915065E+06       0                       0                
  2  1296   # heatPump.eva.vol.dynBal.U
 -2  2.0690543235159566E+00       0                       0                
  3  1280   # heatPump.eva.vol.dynBal.der(U)
 -2  3.9823439999999998E+01       0                 1.0000000000000000E+100
  6  1280   # heatPump.eva.vol.dynBal.m
 -2       0                       0                       0                
  6  1280   # heatPump.eva.vol.dynBal.der(m)
 -2       0                       0                       0                
  6  1280   # heatPump.eva.vol.dynBal.mb_flow
 -2  5.9897168216632417E+03       0                       0                
  6  1280   # heatPump.eva.vol.dynBal.Hb_flow
 -2  4.0000000000000001E-02       0                       0                
  6  1280   # heatPump.eva.vol.dynBal.fluidVolume
 -2       0                       0                       0                
  6  1280   # heatPump.eva.vol.dynBal.CSen
 -2  1.2489240000000010E+05 -1.0000000000000000E+08  1.0000000000000000E+08
  6  1280   # heatPump.eva.vol.dynBal.ports_H_flow[1]
 -2 -1.1890268317833685E+05 -1.0000000000000000E+08  1.0000000000000000E+08
  6  1280   # heatPump.eva.vol.dynBal.ports_H_flow[2]
 -2    4184                       0                       0                
  6  1280   # heatPump.eva.vol.dynBal.cp_default
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # heatPump.eva.vol.dynBal.rho_start
 -2       0                       0                       0                
  6  1281   # heatPump.eva.vol.dynBal.computeCSen
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # heatPump.eva.vol.dynBal.state_default.p
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # heatPump.eva.vol.dynBal.state_default.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # heatPump.eva.vol.dynBal.rho_default
 -2   83680                       0                       0                
  6  1280   # heatPump.eva.vol.dynBal.hStart
 -2       0                       0                       0                
  6  1281   # heatPump.eva.vol.dynBal._simplify_mWat_flow
 -2       0                       0                       0                
  6  1280   # heatPump.eva.vol.dynBal.mWat_flow_internal
 -2       2                       1                       4                
  6  1282   # pumSou.vol.dynBal.energyDynamics
 -2       2                       1                       4                
  6  1282   # pumSou.vol.dynBal.massDynamics
 -2       2                       1                       4                
  6  1282   # pumSou.vol.dynBal.substanceDynamics
 -2       2                       1                       4                
  6  1282   # pumSou.vol.dynBal.traceDynamics
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # pumSou.vol.dynBal.p_start
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # pumSou.vol.dynBal.T_start
 -2       1                       0                       1                
  6  1280   # pumSou.vol.dynBal.X_start[1]
 -2       1                       1                 1.0000000000000000E+100
  6  1280   # pumSou.vol.dynBal.mSenFac
 -2       0                       0                       0                
  6   769   # pumSou.vol.dynBal.initialize_p
 -2       1                       0                       0                
  6  1281   # pumSou.vol.dynBal.simplify_mWat_flow
 -2       2                       0                       0                
  6  1282   # pumSou.vol.dynBal.nPorts
 -2       0                       0                       0                
  6  1281   # pumSou.vol.dynBal.use_mWat_flow
 -2       0                       0                       0                
  6  1281   # pumSou.vol.dynBal.use_C_flow
 -2       0                       0                       0                
  6  1280   # pumSou.vol.dynBal.Q_flow
 -2  2.9341694066621477E+02       1                   10000                
  6  1280   # pumSou.vol.dynBal.medium.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # pumSou.vol.dynBal.medium.d
 -2       1                       0                       1                
  6  1280   # pumSou.vol.dynBal.medium.X[1]
 -2       0                       0                       0                
  6  1280   # pumSou.vol.dynBal.medium.R
 -2  1.8015268000000001E-02       0                 1.0000000000000000E+100
  6  1280   # pumSou.vol.dynBal.medium.MM
 -2       0                       0                       0                
  6  1281   # pumSou.vol.dynBal.medium.preferredMediumStates
 -2       1                       0                       0                
  6  1281   # pumSou.vol.dynBal.medium.standardOrderComponents
 -2  2.0266940666214794E+01       0                       0                
  6  1280   # pumSou.vol.dynBal.medium.T_degC
 -2  3.0000000000000004E+00       0                       0                
  6  1280   # pumSou.vol.dynBal.medium.p_bar
 -2  1.8558784358067813E+05       0                       0                
  2  1296   # pumSou.vol.dynBal.U
 -2  9.9074039088554855E-01       0                       0                
  3  1280   # pumSou.vol.dynBal.der(U)
 -2  2.1886164223663598E+00       0                 1.0000000000000000E+100
  6  1280   # pumSou.vol.dynBal.m
 -2       0                       0                       0                
  6  1280   # pumSou.vol.dynBal.der(m)
 -2       0                       0                       0                
  6  1280   # pumSou.vol.dynBal.mb_flow
 -2  2.1983198059899998E-03       0                       0                
  6  1280   # pumSou.vol.dynBal.fluidVolume
 -2       0                       0                       0                
  6  1280   # pumSou.vol.dynBal.CSen
 -2  9.0333219639182553E+03 -1.0000000000000000E+08  1.0000000000000000E+08
  6  1280   # pumSou.vol.dynBal.ports_H_flow[1]
 -2 -9.0323312235273697E+03 -1.0000000000000000E+08  1.0000000000000000E+08
  6  1280   # pumSou.vol.dynBal.ports_H_flow[2]
 -2    4184                       0                       0                
  6  1280   # pumSou.vol.dynBal.cp_default
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # pumSou.vol.dynBal.rho_start
 -2       0                       0                       0                
  6  1281   # pumSou.vol.dynBal.computeCSen
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # pumSou.vol.dynBal.state_default.p
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # pumSou.vol.dynBal.state_default.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # pumSou.vol.dynBal.rho_default
 -2   83680                       0                       0                
  6  1280   # pumSou.vol.dynBal.hStart
 -2       0                       0                       0                
  6  1281   # pumSou.vol.dynBal._simplify_mWat_flow
 -2       0                       0                       0                
  6  1280   # pumSou.vol.dynBal.mWat_flow_internal
 -2       0                       0                       0                
  6  1280   # pumSou.eff.dp
 -2       2                       1                       4                
  6  1282   # Room.dynBal.energyDynamics
 -2       2                       1                       4                
  6  1282   # Room.dynBal.massDynamics
 -2       2                       1                       4                
  6  1282   # Room.dynBal.substanceDynamics
 -2       2                       1                       4                
  6  1282   # Room.dynBal.traceDynamics
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # Room.dynBal.p_start
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # Room.dynBal.T_start
 -2       1                       0                       1                
  6  1280   # Room.dynBal.X_start[1]
 -2       1                       1                 1.0000000000000000E+100
  6  1280   # Room.dynBal.mSenFac
 -2       0                       0                       0                
  6   769   # Room.dynBal.initialize_p
 -2       1                       0                       0                
  6  1281   # Room.dynBal.simplify_mWat_flow
 -2       2                       0                       0                
  6  1282   # Room.dynBal.nPorts
 -2       0                       0                       0                
  6  1281   # Room.dynBal.use_mWat_flow
 -2       0                       0                       0                
  6  1281   # Room.dynBal.use_C_flow
 -2  4.9779300000000003E+03       0                 1.0000000000000000E+100
  6  1280   # Room.dynBal.mOut
 -2  2.9341916371098807E+02       1                   10000                
  6  1280   # Room.dynBal.medium.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # Room.dynBal.medium.d
 -2       1                       0                       1                
  6  1280   # Room.dynBal.medium.X[1]
 -2       0                       0                       0                
  6  1280   # Room.dynBal.medium.R
 -2  1.8015268000000001E-02       0                 1.0000000000000000E+100
  6  1280   # Room.dynBal.medium.MM
 -2       0                       0                       0                
  6  1281   # Room.dynBal.medium.preferredMediumStates
 -2       1                       0                       0                
  6  1281   # Room.dynBal.medium.standardOrderComponents
 -2  2.0269163710988096E+01       0                       0                
  6  1280   # Room.dynBal.medium.T_degC
 -2  3.0000000000000004E+00       0                       0                
  6  1280   # Room.dynBal.medium.p_bar
 -2  4.2215923241993475E+08       0                       0                
  2  1296   # Room.dynBal.U
 -2  2.1534492358259768E+03       0                       0                
  3  1280   # Room.dynBal.der(U)
 -2  4.9779300000000003E+03       0                 1.0000000000000000E+100
  6  1280   # Room.dynBal.m
 -2       0                       0                       0                
  6  1280   # Room.dynBal.der(m)
 -2       0                       0                       0                
  6  1280   # Room.dynBal.mb_flow
 -2  5.1534492358259758E+03       0                       0                
  6  1280   # Room.dynBal.Hb_flow
 -2       5                       0                       0                
  6  1280   # Room.dynBal.fluidVolume
 -2       0                       0                       0                
  6  1280   # Room.dynBal.CSen
 -2 -9.0333219639182553E+03 -1.0000000000000000E+08  1.0000000000000000E+08
  6  1280   # Room.dynBal.ports_H_flow[1]
 -2  1.4186771199744231E+04 -1.0000000000000000E+08  1.0000000000000000E+08
  6  1280   # Room.dynBal.ports_H_flow[2]
 -2    4184                       0                       0                
  6  1280   # Room.dynBal.cp_default
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # Room.dynBal.rho_start
 -2       0                       0                       0                
  6  1281   # Room.dynBal.computeCSen
 -2  3.0000000000000000E+05       0                  1.0000000000000000E+08
  6  1280   # Room.dynBal.state_default.p
 -2  2.9314999999999998E+02       1                   10000                
  6  1280   # Room.dynBal.state_default.T
 -2  9.9558600000000001E+02       0                 1.0000000000000000E+100
  6  1280   # Room.dynBal.rho_default
 -2   83680                       0                       0                
  6  1280   # Room.dynBal.hStart
 -2       0                       0                       0                
  6  1281   # Room.dynBal._simplify_mWat_flow
 -2       0                       0                       0                
  6  1280   # Room.dynBal.mWat_flow_internal


# Matrix with 6 columns defining the initial value calculation
# (columns 5 and 6 are not utilized for the calculation but are
#  reported by dymosim via dymosim -i for user convenience):
#
# column 1: Type of initial value
#           = -2: special case: for continuing simulation (column 2 = value)
#           = -1: fixed value (column 2 = fixed value)
#           =  0: free value, i.e., no restriction (column 2 = initial value)
#           >  0: desired value (column 1 = weight for optimization
#                                column 2 = desired value)
#                 use weight=1, since automatic scaling usually
#                 leads to equally weighted terms
# column 2: fixed, free or desired value according to column 1.
# column 3: Minimum value (ignored, if Minimum >= Maximum).
# column 4: Maximum value (ignored, if Minimum >= Maximum).
#           Minimum and maximum restrict the search range in initial
#           value calculation. They might also be used for scaling.
# column 5: Category of variable.
#           = 1: parameter.
#           = 2: state.
#           = 3: state derivative.
#           = 4: output.
#           = 5: input.
#           = 6: auxiliary variable.
# column 6: Data type of variable and flags according to dsBaseType
#  <value>&3= 0: real.
#  <value>&3= 1: boolean.
#  <value>&3= 2: integer.
#
# Initial values are calculated according to the following procedure:
#
# - If parameters, states and inputs are FIXED, and other variables
#   are FREE, no special action takes place (default setting).
#
# - If there are only FIXED and FREE variables and the number of
#   FREE parameters, states and inputs is IDENTICAL to the number of
#   FIXED state derivatives, outputs and auxiliary variables, a non-linear
#   equation is solved to determine a consistent set of initial conditions.
#
# - In all other cases the following optimization problem is solved:
#      min( sum( weight(i)*( (value(i) - DESIRED(i))/scale(i) )^2 ) )
#   under the constraint that the differential equation is fulfilled
#   at the initial time. In most cases weight(i)=1 is sufficient, due
#   to the automatic scaling (if DESIRED(i) is not close to zero,
#   scale(i) = DESIRED(i). Otherwise, the scaling is based on the
#   nominal value (and maybe minimum and maximum values given in 
#   column 3 and 4). If these values are zero, scale(i)=1 is used).
#
char initialDescription(1354,186)
Number of ports [:#(type=Integer)]
Set to true to stop the simulation with an error if the medium temperature is outside its allowable range [:#(type=Boolean)]
Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]
Allowed flow direction [:#(type=Modelica.Fluid.Types.PortFlowDirection)]
Needed to connect to conditional connector [kg/kg]
Get the mass flow rate from the input connector [:#(type=Boolean)]
Fixed mass flow rate going out of the fluid port [kg/s]
Get the temperature from the input connector [:#(type=Boolean)]
Fixed value of temperature [K|degC]
Needed to connect to conditional connector [K|degC]
Get the composition (all fractions) from the input connector [:#(type=Boolean)]
Get the composition (independent fractions) from the input connector [:#(type=Boolean)]
Get the trace substances from the input connector [:#(type=Boolean)]
Fixed value of composition [kg/kg]
Number of ports [:#(type=Integer)]
Set to true to stop the simulation with an error if the medium temperature is outside its allowable range [:#(type=Boolean)]
Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]
Allowed flow direction [:#(type=Modelica.Fluid.Types.PortFlowDirection)]
Temperature of medium [K|degC]
Density of medium [kg/m3|g/cm3]
Mass fractions (= (component mass)/total mass  m_i/m) [1]
Gas constant (of mixture if applicable) [J/(kg.K)]
Molar mass (of mixture or single fluid) [kg/mol]
= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]
If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]
Temperature of medium in [degC] [degC;]
Absolute pressure of medium in [bar] [bar]
select p or d [:#(type=Boolean)]
Boundary pressure [Pa|bar]
Boundary density [kg/m3|g/cm3]
select T or h [:#(type=Boolean)]
Boundary temperature [K|degC]
Boundary specific enthalpy [J/kg]
Boundary mass fractions m_i/m [kg/kg]
Height of ramps
Duration of ramp (= 0.0 gives a Step) [s]
Offset of output signal
Output = offset for time < startTime [s]
Constant output value
= false to simplify equations, assuming, but not enforcing, no flow reversal for medium 1 [:#(type=Boolean)]
= false to simplify equations, assuming, but not enforcing, no flow reversal for medium 2 [:#(type=Boolean)]
Mass flow rate from the connection point into the component [kg/s]
Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]
Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]
Nominal mass flow rate [kg/s]
Nominal mass flow rate [kg/s]
Small mass flow rate for regularization of zero flow [kg/s]
Small mass flow rate for regularization of zero flow [kg/s]
= true, if actual temperature at port is computed [:#(type=Boolean)]
Pressure difference between port_a1 and port_b1 [Pa|Pa]
Pressure difference between port_a2 and port_b2 [Pa|Pa]
Temperature of medium [K|degC]
Temperature of medium [K|degC]
Temperature of medium [K|degC]
Temperature of medium [K|degC]
True if the HP is reversible [:#(type=Boolean)]
Scaling-factor of HP
Consider the inertia of the refrigerant cycle [:#(type=Boolean)]
Cut off frequency for inertia of refrigerant cycle [Hz]
Order of refrigerant cycle interia [:#(type=Integer)]
Nominal mass flow rate [kg/s]
Volume in condenser [m3]
Pressure drop at nominal mass flow rate [Pa|bar]
Fraction of nominal mass flow rate where transition to turbulent occurs
If heat losses at capacitor side are considered or not [:#(type=Boolean)]
Heat capacity of Condenser (= cp*m) [J/K]
Constant parameter for heat transfer to the ambient. Represents a sum of thermal resistances such as conductance, insulation and natural convection [W/K]
Constant parameter for heat transfer to heat exchangers capacity. Represents a sum of thermal resistances such as forced convection and conduction inside of the capacity [W/K]
Nominal mass flow rate [kg/s]
Volume in evaporator [m3]
Pressure drop at nominal mass flow rate [Pa|bar]
Fraction of nominal mass flow rate where transition to turbulent occurs
If heat losses at capacitor side are considered or not [:#(type=Boolean)]
Heat capacity of Evaporator (= cp*m) [J/K]
Constant parameter for heat transfer to the ambient. Represents a sum of thermal resistances such as conductance, insulation and natural convection [W/K]
Constant parameter for heat transfer to heat exchangers capacity. Represents a sum of thermal resistances such as forced convection and conduction inside of the capacity [W/K]
Time constant at nominal flow rate (use tau=0 for steady-state sensor, but see user guide for potential problems) [s]
If true, temperature T converges towards TAmb when no flow [:#(type=Boolean)]
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
Time constant for heat transfer in temperature sensors in evaporator, default 20 minutes [s]
Time constant for heat transfer in temperature sensors in evaporator, default 20 minutes [s]
Fixed ambient temperature for heat transfer of sensors at the condenser side [K|degC]
Fixed ambient temperature for heat transfer of sensors at the evaporator side [K|degC]
Type of initialization (InitialState and InitialOutput are identical) [:#(type=Modelica.Blocks.Types.Init)]
Start value of pressure [Pa|bar]
Start value of temperature [K|degC]
true if T_start of non-fluid capacity in condenser should be fixed at initialization [:#(type=Boolean)]
Start value of mass fractions m_i/m [kg/kg]
Start value of pressure [Pa|bar]
Start value of temperature [K|degC]
true if T_start of non-fluid capacity in evaporator should be fixed at initialization [:#(type=Boolean)]
Start value of mass fractions m_i/m [kg/kg]
Initial or guess values of states
Initial or guess values of states
Initial or guess values of states
Initial or guess value of output (= state)
Type of mass balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
= true, if actual temperature at port is computed [:#(type=Boolean)]
= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]
= true, use homotopy method [:#(type=Boolean)]
= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
Nominal mass flow rate [kg/s]
Small mass flow rate for regularization of zero flow [kg/s]
= true, if actual temperature at port is computed [:#(type=Boolean)]
Pressure difference between port_a and port_b [Pa|Pa]
Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]
Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]
=true, compute flow resistance. Set to false to assume no friction [:#(type=Boolean)]
= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]
Pressure difference [Pa|Pa]
= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]
Fraction of nominal flow rate where flow transitions to laminar
Time constant at nominal flow (if energyDynamics <> SteadyState) [s]
= true, use homotopy method [:#(type=Boolean)]
Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of mass balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Start value of pressure [Pa|bar]
Start value of temperature [K|degC]
Start value of mass fractions m_i/m [kg/kg]
Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of mass balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Start value of pressure [Pa|bar]
Start value of temperature [K|degC]
Start value of mass fractions m_i/m [kg/kg]
Factor for scaling the sensible thermal mass of the volume
= true to set up initial equations for pressure [:#(type=Boolean)]
Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]
Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]
Nominal mass flow rate [kg/s]
Number of ports [:#(type=Integer)]
Small mass flow rate for regularization of zero flow [kg/s]
= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]
Volume [m3]
Temperature of the fluid [K|degC]
Mass of the component [kg]
Density, used to compute start and guess values [kg/m3|g/cm3]
Default value for mass fractions of medium (for initialization) [kg/kg]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Density, used to compute fluid mass [kg/m3|g/cm3]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]
Set to true to enable input connector for trace substance [:#(type=Boolean)]
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
Nominal mass flow rate [kg/s]
Small mass flow rate for regularization of zero flow [kg/s]
= true, if actual temperature at port is computed [:#(type=Boolean)]
Pressure difference between port_a and port_b [Pa|Pa]
Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]
Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]
= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]
Pressure drop at nominal mass flow rate [Pa|Pa]
= true, use homotopy method [:#(type=Boolean)]
= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]
Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]
Absolute value of nominal flow rate [kg/s]
Absolute value of nominal pressure difference [Pa|Pa]
Fraction of nominal mass flow rate where transition to turbulent occurs
Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)
Flag to enable/disable computation of flow resistance [:#(type=Boolean)]
Precomputed coefficient to avoid division by parameter
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Density, used to compute fluid volume [kg/m3|g/cm3]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Start value for outflowing enthalpy [J/kg]
Type of heat exchanger [:#(type=Boolean)]
Volume in condenser [m3]
False if capacity and heat losses are neglected [:#(type=Boolean)]
Capacity of heat exchanger [J/K]
true if T_start of non-fluid capacity should be fixed at initialization [:#(type=Boolean)]
Formular for calculation of heat transfer coefficient on the outside [W/K]
Formular for calculation of heat transfer coefficient on the inside
Reference temperature [K|degC]
Temperature coefficient of heat flow rate [1/K]
Heat flow rate to the medium
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
Nominal mass flow rate [kg/s]
Small mass flow rate for regularization of zero flow [kg/s]
= true, if actual temperature at port is computed [:#(type=Boolean)]
Pressure difference between port_a and port_b [Pa|Pa]
Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]
Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]
=true, compute flow resistance. Set to false to assume no friction [:#(type=Boolean)]
= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]
Pressure difference [Pa|Pa]
= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]
Fraction of nominal flow rate where flow transitions to laminar
Time constant at nominal flow (if energyDynamics <> SteadyState) [s]
= true, use homotopy method [:#(type=Boolean)]
Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of mass balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Start value of pressure [Pa|bar]
Start value of temperature [K|degC]
Start value of mass fractions m_i/m [kg/kg]
Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of mass balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Start value of pressure [Pa|bar]
Start value of temperature [K|degC]
Start value of mass fractions m_i/m [kg/kg]
Factor for scaling the sensible thermal mass of the volume
= true to set up initial equations for pressure [:#(type=Boolean)]
Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]
Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]
Nominal mass flow rate [kg/s]
Number of ports [:#(type=Integer)]
Small mass flow rate for regularization of zero flow [kg/s]
= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]
Volume [m3]
Temperature of the fluid [K|degC]
Mass of the component [kg]
Density, used to compute start and guess values [kg/m3|g/cm3]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Density, used to compute fluid mass [kg/m3|g/cm3]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]
Set to true to enable input connector for trace substance [:#(type=Boolean)]
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
Nominal mass flow rate [kg/s]
Small mass flow rate for regularization of zero flow [kg/s]
= true, if actual temperature at port is computed [:#(type=Boolean)]
Pressure difference between port_a and port_b [Pa|Pa]
Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]
Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]
= true, use m_flow = f(dp) else dp = f(m_flow) [:#(type=Boolean)]
Pressure drop at nominal mass flow rate [Pa|Pa]
= true, use homotopy method [:#(type=Boolean)]
= true, use linear relation between m_flow and dp for any flow rate [:#(type=Boolean)]
Turbulent flow if |m_flow| >= m_flow_turbulent [kg/s]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Dynamic viscosity, used to compute transition to turbulent flow regime [Pa.s]
Absolute value of nominal flow rate [kg/s]
Absolute value of nominal pressure difference [Pa|Pa]
Fraction of nominal mass flow rate where transition to turbulent occurs
Flow coefficient, k=m_flow/sqrt(dp), with unit=(kg.m)^(1/2)
Flag to enable/disable computation of flow resistance [:#(type=Boolean)]
Precomputed coefficient to avoid division by parameter
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Density, used to compute fluid volume [kg/m3|g/cm3]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Start value for outflowing enthalpy [J/kg]
Type of heat exchanger [:#(type=Boolean)]
Volume in condenser [m3]
False if capacity and heat losses are neglected [:#(type=Boolean)]
Capacity of heat exchanger [J/K]
true if T_start of non-fluid capacity should be fixed at initialization [:#(type=Boolean)]
Formular for calculation of heat transfer coefficient on the outside [W/K]
Formular for calculation of heat transfer coefficient on the inside
Reference temperature [K|degC]
Temperature coefficient of heat flow rate [1/K]
Heat flow rate to the medium
Input signal for icing factor
Input signal speed for compressor relative between 0 and 1
true: heat pump, false: chiller [:#(type=Boolean)]
Total electrical active power [W]
Factor(0..1) to estimate efficiency losses through icing of evaporator
True if the HP is reversible [:#(type=Boolean)]
Scaling factor of heat pump
Factor(0..1) to estimate efficiency losses through icing of evaporator
Electrical Power consumed by HP [W|kW]
Heat flow rate through Condenser [W|kW]
Factor(0..1) to estimate efficiency losses through icing of evaporator
Heat flow rate through Condenser [W|kW]
Scaling factor of heat pump
Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Nominal mass flow rate in condenser [kg/s]
Nominal mass flow rate in evaporator [kg/s]
Points to define upper boundary for sink temperature
Points to define upper boundary for sink temperature
Points to define upper boundary for sink temperature
Points to define upper boundary for sink temperature
Points to define upper boundary for sink temperature
Points to define upper boundary for sink temperature
Points to define upper boundary for sink temperature
Points to define upper boundary for sink temperature
False to hold last value [:#(type=Boolean)]
WARNING: This will lead to a lot of state-events if extrapolation occurs frequently! If extrapolation is enabled, the user will get warnings when extrapolation occurs. [:#(type=Boolean)]
Connector of Real input signal 1 [degC]
Connector of Real input signal 2 [degC]
Connector of Real output signal [W|kW]
False to hold last value [:#(type=Boolean)]
Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
= true, if table is defined on file or in function usertab [:#(type=Boolean)]
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
= true, if info message that file is loading is to be printed [:#(type=Boolean)]
Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]
[:#(type=Integer)]
= 1, if table was successfully read from file
Connector of Real output signal [W|kW]
False to hold last value [:#(type=Boolean)]
Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
= true, if table is defined on file or in function usertab [:#(type=Boolean)]
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
= true, if info message that file is loading is to be printed [:#(type=Boolean)]
Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]
[:#(type=Integer)]
= 1, if table was successfully read from file
Connector of Real output signal
Connector of Real input signal 1
Gain of upper input
Gain of lower input
Connector of Real input signal 2




Constant output value
Connector of Real output signal
Connector of second Real input signal [W|kW]
Connector of second Real input signal [W|kW]
Factor(0..1) to estimate efficiency losses through icing of evaporator
Scaling factor of heat pump
Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Heating power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Electrical power table; T in degC; Q_flow in W
Nominal mass flow rate in condenser [kg/s]
Nominal mass flow rate in evaporator [kg/s]
Points to define upper boundary for sink temperature
Points to define upper boundary for sink temperature
Points to define upper boundary for sink temperature
Points to define upper boundary for sink temperature
False to hold last value [:#(type=Boolean)]
WARNING: This will lead to a lot of state-events if extrapolation occurs frequently! If extrapolation is enabled, the user will get warnings when extrapolation occurs. [:#(type=Boolean)]
Connector of Real input signal 1 [degC]
Connector of Real input signal 2 [degC]
Connector of Real output signal [W|kW]
False to hold last value [:#(type=Boolean)]
Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
= true, if table is defined on file or in function usertab [:#(type=Boolean)]
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
= true, if info message that file is loading is to be printed [:#(type=Boolean)]
Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]
[:#(type=Integer)]
= 1, if table was successfully read from file
Connector of Real output signal [W|kW]
False to hold last value [:#(type=Boolean)]
Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
= true, if table is defined on file or in function usertab [:#(type=Boolean)]
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
Table matrix (grid u1 = first column, grid u2 = first row; e.g., table=[0,0;0,1])
= true, if info message that file is loading is to be printed [:#(type=Boolean)]
Smoothness of table interpolation [:#(type=Modelica.Blocks.Types.Smoothness)]
[:#(type=Integer)]
= 1, if table was successfully read from file
Connector of Real output signal
Connector of Real input signal 1
Gain of upper input
Gain of lower input
Connector of Real input signal 2




Constant output value
Connector of Real output signal
Connector of second Real input signal [W|kW]
Gain value multiplied with input signal [1]
Gain value multiplied with input signal [1]
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
Nominal mass flow rate, used for regularization near zero flow [kg/s]
For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]
Time constant at nominal flow rate (use tau=0 for steady-state sensor, but see user guide for potential problems) [s]
Type of initialization (InitialState and InitialOutput are identical) [:#(type=Modelica.Blocks.Types.Init)]
Gain to take flow rate into account for sensor time constant
Flag, true if the sensor is a dynamic sensor [:#(type=Boolean)]
Normalized mass flow rate
Inverse of tau [s-1]
Temperature of the passing fluid [K|degC]
der(Temperature of the passing fluid) [K/s]
Initial or guess value of output (= state) [K|degC]
if true, temperature T converges towards TAmb when no flow [:#(type=Boolean)]
Fixed ambient temperature for heat transfer [K|degC]
Time constant for heat transfer, default 20 minutes [s]
Dummy parameter to avoid division by tauHeaTra [1/s]
Ratio of tau
Medium temperature to which the sensor is exposed [K|degC]
Temperature of inflowing fluid at port_a [K|degC]
Temperature of inflowing fluid at port_b, or T_a_inflow if uni-directional flow [K|degC]
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
Nominal mass flow rate, used for regularization near zero flow [kg/s]
For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]
Time constant at nominal flow rate (use tau=0 for steady-state sensor, but see user guide for potential problems) [s]
Type of initialization (InitialState and InitialOutput are identical) [:#(type=Modelica.Blocks.Types.Init)]
Gain to take flow rate into account for sensor time constant
Flag, true if the sensor is a dynamic sensor [:#(type=Boolean)]
Normalized mass flow rate
Inverse of tau [s-1]
Temperature of the passing fluid [K|degC]
der(Temperature of the passing fluid) [K/s]
Initial or guess value of output (= state) [K|degC]
if true, temperature T converges towards TAmb when no flow [:#(type=Boolean)]
Fixed ambient temperature for heat transfer [K|degC]
Time constant for heat transfer, default 20 minutes [s]
Dummy parameter to avoid division by tauHeaTra [1/s]
Ratio of tau
Medium temperature to which the sensor is exposed [K|degC]
Temperature of inflowing fluid at port_a [K|degC]
Temperature of inflowing fluid at port_b, or T_a_inflow if uni-directional flow [K|degC]
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
Nominal mass flow rate, used for regularization near zero flow [kg/s]
For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]
Default value for mass fractions of medium (for initialization) [kg/kg]
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
Nominal mass flow rate, used for regularization near zero flow [kg/s]
For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]
Time constant at nominal flow rate (use tau=0 for steady-state sensor, but see user guide for potential problems) [s]
Type of initialization (InitialState and InitialOutput are identical) [:#(type=Modelica.Blocks.Types.Init)]
Gain to take flow rate into account for sensor time constant
Flag, true if the sensor is a dynamic sensor [:#(type=Boolean)]
Normalized mass flow rate
Inverse of tau [s-1]
Temperature of the passing fluid [K|degC]
der(Temperature of the passing fluid) [K/s]
Initial or guess value of output (= state) [K|degC]
if true, temperature T converges towards TAmb when no flow [:#(type=Boolean)]
Fixed ambient temperature for heat transfer [K|degC]
Time constant for heat transfer, default 20 minutes [s]
Dummy parameter to avoid division by tauHeaTra [1/s]
Ratio of tau
Medium temperature to which the sensor is exposed [K|degC]
Temperature of inflowing fluid at port_a [K|degC]
Temperature of inflowing fluid at port_b, or T_a_inflow if uni-directional flow [K|degC]
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
Nominal mass flow rate, used for regularization near zero flow [kg/s]
For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]
Time constant at nominal flow rate (use tau=0 for steady-state sensor, but see user guide for potential problems) [s]
Type of initialization (InitialState and InitialOutput are identical) [:#(type=Modelica.Blocks.Types.Init)]
Gain to take flow rate into account for sensor time constant
Flag, true if the sensor is a dynamic sensor [:#(type=Boolean)]
Normalized mass flow rate
Inverse of tau [s-1]
Temperature of the passing fluid [K|degC]
der(Temperature of the passing fluid) [K/s]
Initial or guess value of output (= state) [K|degC]
if true, temperature T converges towards TAmb when no flow [:#(type=Boolean)]
Fixed ambient temperature for heat transfer [K|degC]
Time constant for heat transfer, default 20 minutes [s]
Dummy parameter to avoid division by tauHeaTra [1/s]
Ratio of tau
Medium temperature to which the sensor is exposed [K|degC]
Temperature of inflowing fluid at port_a [K|degC]
Temperature of inflowing fluid at port_b, or T_a_inflow if uni-directional flow [K|degC]
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
Nominal mass flow rate, used for regularization near zero flow [kg/s]
For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]
Time instant of step start [s]
Output before startTime [:#(type=Boolean)]
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]
Nominal mass flow rate, used for regularization near zero flow [kg/s]
For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]
Time constant at nominal flow rate (use tau=0 for steady-state sensor, but see user guide for potential problems) [s]
Type of initialization (InitialState and InitialOutput are identical) [:#(type=Modelica.Blocks.Types.Init)]
Gain to take flow rate into account for sensor time constant
Flag, true if the sensor is a dynamic sensor [:#(type=Boolean)]
Normalized mass flow rate
Inverse of tau [s-1]
Temperature of the passing fluid [K|degC]
der(Temperature of the passing fluid) [K/s]
Initial or guess value of output (= state) [K|degC]
if true, temperature T converges towards TAmb when no flow [:#(type=Boolean)]
Fixed ambient temperature for heat transfer [K|degC]
Time constant for heat transfer, default 20 minutes [s]
Dummy parameter to avoid division by tauHeaTra [1/s]
Ratio of tau
Medium temperature to which the sensor is exposed [K|degC]
Temperature of inflowing fluid at port_a [K|degC]
Temperature of inflowing fluid at port_b, or T_a_inflow if uni-directional flow [K|degC]
if y=true and u<=uLow, switch to y=false
if y=false and u>=uHigh, switch to y=true
Value of pre(y) at initial time [:#(type=Boolean)]
[:#(type=Boolean)]
Connector of Boolean input signal [:#(type=Boolean)]
Output signal for true Boolean input
Output signal for false Boolean input
Amplitude of sine wave
Frequency of sine wave [Hz]
Phase of sine wave [rad|deg]
Offset of output signal
Output = offset for time < startTime [s]
Connector of Real output signal
Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of mass balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Start value of pressure [Pa|bar]
Start value of temperature [K|degC]
Start value of mass fractions m_i/m [kg/kg]
Factor for scaling the sensible thermal mass of the volume
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]
Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]
Nominal mass flow rate [kg/s]
Small mass flow rate for regularization of zero flow [kg/s]
= true, if actual temperature at port is computed [:#(type=Boolean)]
Pressure difference between port_a and port_b [Pa|Pa]
Start value for m_flow, used to avoid a warning if not set in m_flow, and to avoid m_flow.start in parameter window [kg/s]
Start value for dp, used to avoid a warning if not set in dp, and to avoid dp.start in parameter window [Pa|Pa]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Use power data instead of motor efficiency [:#(type=Boolean)]
Volumetric flow rate at user-selected operating points [m3/s]
Fan or pump efficiency at these flow rates [1]
Volumetric flow rate at user-selected operating points [m3/s]
Fan or pump efficiency at these flow rates [1]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Fan or pump electrical power at these flow rates [W]
Fan or pump electrical power at these flow rates [W]
Fan or pump electrical power at these flow rates [W]
Fan or pump electrical power at these flow rates [W]
Fan or pump electrical power at these flow rates [W]
Fan or pump electrical power at these flow rates [W]
Fan or pump electrical power at these flow rates [W]
Fan or pump electrical power at these flow rates [W]
If true, then motor heat is added to fluid stream [:#(type=Boolean)]
Nominal rotational speed for flow characteristic [1]
Normalized speed set point, used if inputType = AixLib.Fluid.Types.InputType.Constant [1]
Vector of normalized speed set points, used if inputType = AixLib.Fluid.Types.InputType.Stages [1]
Nominal rotational speed for flow characteristic [rev/min]
Speed set point, used if inputType = AixLib.Fluid.Types.InputType.Constant [rev/min]
Vector of speed set points, used if inputType = AixLib.Fluid.Types.InputType.Stages [rev/min]
= true, if default record values are being used [:#(type=Boolean)]
Control input type [:#(type=AixLib.Fluid.Types.InputType)]
Constant input set point [1]
Vector of input set points corresponding to stages [1]
= true, compute power exactly, using similarity laws. Otherwise approximate. [:#(type=Boolean)]
Set to false to avoid any power (=heat and flow work) being added to medium (may give simpler equations) [:#(type=Boolean)]
Set to true to avoid warning if m_flow_nominal and dp_nominal are used to construct the default pressure curve [:#(type=Boolean)]
Time constant of fluid volume for nominal flow, used if energy or mass balance is dynamic [s]
= true, if speed is filtered with a 2nd order CriticalDamping filter [:#(type=Boolean)]
Rise time of the filter (time to reach 99.6 % of the speed) [s]
Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]
Initial value of speed [1]
Actual normalised pump speed that is used for computations [1]
Electrical power consumed [W]
Port temperature [K|degC]
Heat flow rate (positive if flowing from outside into the component) [W]
Volume flow rate [m3/s]
Pressure difference [Pa|Pa]
Global efficiency [1]
Hydraulic efficiency [1]
Motor efficiency [1]
Start value for VMachine_flow, used to avoid a warning if not specified [m3/s]
Type of prescribed variable [:#(type=AixLib.Fluid.Movers.BaseClasses.Types.PrescribedVariable)]
Parameter that is true if speed is the controlled variables [:#(type=Boolean)]
Number of data points for pressure curve [:#(type=Integer)]
Flag, true if user specified data that contain V_flow_max [:#(type=Boolean)]
Maximum volume flow rate, used for smoothing [m3/s]
Default medium density [kg/m3|g/cm3]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Start value for outflowing enthalpy [J/kg]
Connector of Real input signal
Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of mass balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Start value of pressure [Pa|bar]
Start value of temperature [K|degC]
Start value of mass fractions m_i/m [kg/kg]
Factor for scaling the sensible thermal mass of the volume
= true to set up initial equations for pressure [:#(type=Boolean)]
Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]
Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]
Nominal mass flow rate [kg/s]
Number of ports [:#(type=Integer)]
Small mass flow rate for regularization of zero flow [kg/s]
= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]
Volume [m3]
Density, used to compute start and guess values [kg/m3|g/cm3]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Density, used to compute fluid mass [kg/m3|g/cm3]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]
Heat flow rate (positive if flowing from outside into the component) [W]
Heat flow from port_a to port_b as output signal [W]
Heat flow rate (positive if flowing from outside into the component) [W]
Heat flow rate (positive if flowing from outside into the component) [W]
Set to true to enable input connector for trace substance [:#(type=Boolean)]
Heat flow rate (positive if flowing from outside into the component) [W]
Time constant at nominal flow [s]
Volume of delay element [m3]
Analog filter characteristics (CriticalDamping/Bessel/Butterworth/ChebyshevI) [:#(type=Modelica.Blocks.Types.AnalogFilter)]
Type of filter (LowPass/HighPass/BandPass/BandStop) [:#(type=Modelica.Blocks.Types.FilterType)]
Order of filter [:#(type=Integer)]
Cut-off frequency [Hz]
Gain (= amplitude of frequency response at zero frequency)
Pass band ripple for Chebyshev filter (otherwise not used); > 0 required [dB]
Band of band pass/stop filter is f_min (A=-3db*gain) .. f_cut (A=-3db*gain) [Hz]
= true, if amplitude at f_cut = -3db, otherwise unmodified filter [:#(type=Boolean)]
Type of initialization (no init/steady state/initial state/initial output) [:#(type=Modelica.Blocks.Types.Init)]
[:#(type=Integer)]
Initial or guess values of states
Initial or guess values of states
Initial value of output
Nominal value of input (used for scaling the states)
Filter states
der(Filter states)
Filter states
der(Filter states)
[:#(type=Integer)]
[:#(type=Integer)]
[:#(type=Integer)]
[:#(type=Integer)]





Gain value multiplied with input signal [1]
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
Guess value of dp = port_a.p - port_b.p [Pa|Pa]
Guess value of m_flow = port_a.m_flow [kg/s]
Small mass flow rate for regularization of zero flow [kg/s]
= true, if temperatures at port_a and port_b are computed [:#(type=Boolean)]
= true, if volume flow rate at inflowing port is computed [:#(type=Boolean)]
Pressure difference between port_a and port_b (= port_a.p - port_b.p) [Pa|Pa]
Volume flow rate at inflowing port (positive when flow from port_a to port_b) [m3/s]
if true, then the mass flow rate is equal to the value of m_flow_in [:#(type=Boolean)]
if true, then the head is equal to the value of dp_in [:#(type=Boolean)]
Prescribed pressure difference port_a.p-port_b.p [Pa]
Needed to connect to conditional connector [kg/s]
Needed to connect to conditional connector [Pa]
Value of Real output
= false to simplify equations, assuming, but not enforcing, no flow reversal [:#(type=Boolean)]
Nominal mass flow rate, used for regularization near zero flow [kg/s]
For bi-directional flow, temperature is regularized in the region |m_flow| < m_flow_small (m_flow_small > 0 required) [kg/s]
Mass flow rate from the connection point into the component [kg/s]
Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]
Mass flow rate from the connection point into the component [kg/s]
Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]
Relative pressure of port_a minus port_b [Pa|Pa]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Use power data instead of motor efficiency [:#(type=Boolean)]
Volumetric flow rate at user-selected operating points [m3/s]
Fan or pump efficiency at these flow rates [1]
Volumetric flow rate at user-selected operating points [m3/s]
Fan or pump efficiency at these flow rates [1]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Fan or pump electrical power at these flow rates [W]
Fan or pump electrical power at these flow rates [W]
Fan or pump electrical power at these flow rates [W]
Fan or pump electrical power at these flow rates [W]
Fan or pump electrical power at these flow rates [W]
Fan or pump electrical power at these flow rates [W]
Fan or pump electrical power at these flow rates [W]
Fan or pump electrical power at these flow rates [W]
If true, then motor heat is added to fluid stream [:#(type=Boolean)]
Nominal rotational speed for flow characteristic [1]
Normalized speed set point, used if inputType = AixLib.Fluid.Types.InputType.Constant [1]
Vector of normalized speed set points, used if inputType = AixLib.Fluid.Types.InputType.Stages [1]
Nominal rotational speed for flow characteristic [rev/min]
Speed set point, used if inputType = AixLib.Fluid.Types.InputType.Constant [rev/min]
Vector of speed set points, used if inputType = AixLib.Fluid.Types.InputType.Stages [rev/min]
= true, if default record values are being used [:#(type=Boolean)]
Type of prescribed variable [:#(type=AixLib.Fluid.Movers.BaseClasses.Types.PrescribedVariable)]
= true, compute power exactly, using similarity laws. Otherwise approximate. [:#(type=Boolean)]
Nominal volume flow rate, used for homotopy [m3/s]
Fluid density at medium default state [kg/m3|g/cm3]
Flag, true if user specified data that contain V_flow_max [:#(type=Boolean)]
Maximum volume flow rate, used for smoothing [m3/s]
Number of data points for pressure curve [:#(type=Integer)]
= true, use homotopy method [:#(type=Boolean)]
Medium density [kg/m3]
Flow work [W]
Overall efficiency [1]
Hydraulic efficiency [1]
Motor efficiency [1]
Ratio V_flow/V_flow_max [1]
True if speed is a prescribed variable of this block [:#(type=Boolean)]
True if pressure head is a prescribed variable of this block [:#(type=Boolean)]
Coefficients for polynomial of motor efficiency vs. volume flow rate
Coefficients for polynomial of hydraulic efficiency vs. volume flow rate
Maximum head [Pa|Pa]
Small value used to for regularization and to approximate an internal flow resistance of the fan
Coefficient for internal pressure drop of fan or pump [kg/(s.m4)]
Flag, used to pick the right representatio of the fan or pump pressure curve [:#(type=Integer)]
Number of elements in each array [:#(type=Integer)]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Number of elements in each array [:#(type=Integer)]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Number of elements in each array [:#(type=Integer)]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Volume flow rate at user-selected operating points [m3/s]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Fan or pump total pressure at these flow rates [Pa|Pa]
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Derivatives of flow rate vs. pressure at the support points
Coefficients for polynomial of power vs. flow rate
Coefficients for polynomial of power vs. flow rate
Coefficients for polynomial of power vs. flow rate
Coefficients for polynomial of power vs. flow rate
Coefficients for polynomial of power vs. flow rate
Coefficients for polynomial of power vs. flow rate
Coefficients for polynomial of power vs. flow rate
Coefficients for polynomial of power vs. flow rate
Flag used for reporting [:#(type=Boolean)]
Flag, true if user specified data that contain dpMax [:#(type=Boolean)]
If dp is prescribed, use dp_in and solve for r_N, otherwise compute dp using r_N
Gain value multiplied with input signal [1]
Input signal connector
Output signal connector
Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of mass balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Start value of pressure [Pa|bar]
Start value of temperature [K|degC]
Start value of mass fractions m_i/m [kg/kg]
Factor for scaling the sensible thermal mass of the volume
= true to set up initial equations for pressure [:#(type=Boolean)]
Set to true if the model has a prescribed heat flow at its heatPort. If the heat flow rate at the heatPort is only based on temperature difference, then set to false [:#(type=Boolean)]
Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero [:#(type=Boolean)]
Nominal mass flow rate [kg/s]
Number of ports [:#(type=Integer)]
Small mass flow rate for regularization of zero flow [kg/s]
= false to simplify equations, assuming, but not enforcing, no flow reversal. Used only if model has two ports. [:#(type=Boolean)]
Volume [m3]
Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]
Temperature of the fluid [K|degC]
Mass of the component [kg]
Density, used to compute start and guess values [kg/m3|g/cm3]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Density, used to compute fluid mass [kg/m3|g/cm3]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Flag, true if the model has two ports only and uses a steady state balance [:#(type=Boolean)]
Set to true to enable input connector for trace substance [:#(type=Boolean)]
Heat flow rate (positive if flowing from outside into the component) [W]
Constant output value
Reference temperature [K|degC]
Temperature coefficient of heat flow rate [1/K]
[W]
Gain value multiplied with input signal [1]
Number of ports [:#(type=Integer)]
Set to true to stop the simulation with an error if the medium temperature is outside its allowable range [:#(type=Boolean)]
Mass flow rate from the connection point into the component [kg/s]
Specific thermodynamic enthalpy close to the connection point if m_flow < 0 [J/kg]
Allowed flow direction [:#(type=Modelica.Fluid.Types.PortFlowDirection)]
Temperature of medium [K|degC]
Density of medium [kg/m3|g/cm3]
Mass fractions (= (component mass)/total mass  m_i/m) [1]
Gas constant (of mixture if applicable) [J/(kg.K)]
Molar mass (of mixture or single fluid) [kg/mol]
= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]
If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]
Temperature of medium in [degC] [degC;]
Absolute pressure of medium in [bar] [bar]
select p or d [:#(type=Boolean)]
Boundary pressure [Pa|bar]
Boundary density [kg/m3|g/cm3]
select T or h [:#(type=Boolean)]
Boundary temperature [K|degC]
Boundary specific enthalpy [J/kg]
Boundary mass fractions m_i/m [kg/kg]
Constant output value
Connector of Real output signal
Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of mass balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Start value of pressure [Pa|bar]
Start value of temperature [K|degC]
Start value of mass fractions m_i/m [kg/kg]
Factor for scaling the sensible thermal mass of the volume
= true to set up initial equations for pressure [:#(type=Boolean)]
Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]
Number of ports [:#(type=Integer)]
Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]
Set to true to enable input connector for trace substance [:#(type=Boolean)]
Mass of the component [kg]
Temperature of medium [K|degC]
Density of medium [kg/m3|g/cm3]
Mass fractions (= (component mass)/total mass  m_i/m) [1]
Gas constant (of mixture if applicable) [J/(kg.K)]
Molar mass (of mixture or single fluid) [kg/mol]
= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]
If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]
Temperature of medium in [degC] [degC;]
Absolute pressure of medium in [bar] [bar]
Internal energy of fluid [J]
der(Internal energy of fluid) [W]
Mass of fluid [kg]
der(Mass of fluid) [kg/s]
Mass flows across boundaries [kg/s]
Enthalpy flow across boundaries or energy source/sink [W]
Volume [m3]
Aditional heat capacity for implementing mFactor [J/K]
[W]
[W]
Heat capacity, to compute additional dry mass [J/(kg.K)]
Density, used to compute fluid mass [kg/m3|g/cm3]
[:#(type=Boolean)]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Density, used to compute fluid mass [kg/m3|g/cm3]
Start value for specific enthalpy [J/kg]
If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]
Needed to connect to conditional connector [kg/s]
Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of mass balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Start value of pressure [Pa|bar]
Start value of temperature [K|degC]
Start value of mass fractions m_i/m [kg/kg]
Factor for scaling the sensible thermal mass of the volume
= true to set up initial equations for pressure [:#(type=Boolean)]
Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]
Number of ports [:#(type=Integer)]
Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]
Set to true to enable input connector for trace substance [:#(type=Boolean)]
Mass of the component [kg]
Temperature of medium [K|degC]
Density of medium [kg/m3|g/cm3]
Mass fractions (= (component mass)/total mass  m_i/m) [1]
Gas constant (of mixture if applicable) [J/(kg.K)]
Molar mass (of mixture or single fluid) [kg/mol]
= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]
If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]
Temperature of medium in [degC] [degC;]
Absolute pressure of medium in [bar] [bar]
Internal energy of fluid [J]
der(Internal energy of fluid) [W]
Mass of fluid [kg]
der(Mass of fluid) [kg/s]
Mass flows across boundaries [kg/s]
Enthalpy flow across boundaries or energy source/sink [W]
Volume [m3]
Aditional heat capacity for implementing mFactor [J/K]
[W]
[W]
Heat capacity, to compute additional dry mass [J/(kg.K)]
Density, used to compute fluid mass [kg/m3|g/cm3]
[:#(type=Boolean)]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Density, used to compute fluid mass [kg/m3|g/cm3]
Start value for specific enthalpy [J/kg]
If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]
Needed to connect to conditional connector [kg/s]
Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of mass balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Start value of pressure [Pa|bar]
Start value of temperature [K|degC]
Start value of mass fractions m_i/m [kg/kg]
Factor for scaling the sensible thermal mass of the volume
= true to set up initial equations for pressure [:#(type=Boolean)]
Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]
Number of ports [:#(type=Integer)]
Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]
Set to true to enable input connector for trace substance [:#(type=Boolean)]
Sensible plus latent heat flow rate transferred into the medium [W]
Temperature of medium [K|degC]
Density of medium [kg/m3|g/cm3]
Mass fractions (= (component mass)/total mass  m_i/m) [1]
Gas constant (of mixture if applicable) [J/(kg.K)]
Molar mass (of mixture or single fluid) [kg/mol]
= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]
If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]
Temperature of medium in [degC] [degC;]
Absolute pressure of medium in [bar] [bar]
Internal energy of fluid [J]
der(Internal energy of fluid) [W]
Mass of fluid [kg]
der(Mass of fluid) [kg/s]
Mass flows across boundaries [kg/s]
Volume [m3]
Aditional heat capacity for implementing mFactor [J/K]
[W]
[W]
Heat capacity, to compute additional dry mass [J/(kg.K)]
Density, used to compute fluid mass [kg/m3|g/cm3]
[:#(type=Boolean)]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Density, used to compute fluid mass [kg/m3|g/cm3]
Start value for specific enthalpy [J/kg]
If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]
Needed to connect to conditional connector [kg/s]
Pressure increase (computed or prescribed) [Pa]
Type of energy balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of mass balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of independent mass fraction balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Type of trace substance balance: dynamic (3 initialization options) or steady state [:#(type=Modelica.Fluid.Types.Dynamics)]
Start value of pressure [Pa|bar]
Start value of temperature [K|degC]
Start value of mass fractions m_i/m [kg/kg]
Factor for scaling the sensible thermal mass of the volume
= true to set up initial equations for pressure [:#(type=Boolean)]
Set to true to cause port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero. Used only if Medium.nX > 1 [:#(type=Boolean)]
Number of ports [:#(type=Integer)]
Set to true to enable input connector for moisture mass flow rate [:#(type=Boolean)]
Set to true to enable input connector for trace substance [:#(type=Boolean)]
Mass of the component [kg]
Temperature of medium [K|degC]
Density of medium [kg/m3|g/cm3]
Mass fractions (= (component mass)/total mass  m_i/m) [1]
Gas constant (of mixture if applicable) [J/(kg.K)]
Molar mass (of mixture or single fluid) [kg/mol]
= true if StateSelect.prefer shall be used for the independent property variables of the medium [:#(type=Boolean)]
If true, and reducedX = true, the last element of X will be computed from the other ones [:#(type=Boolean)]
Temperature of medium in [degC] [degC;]
Absolute pressure of medium in [bar] [bar]
Internal energy of fluid [J]
der(Internal energy of fluid) [W]
Mass of fluid [kg]
der(Mass of fluid) [kg/s]
Mass flows across boundaries [kg/s]
Enthalpy flow across boundaries or energy source/sink [W]
Volume [m3]
Aditional heat capacity for implementing mFactor [J/K]
[W]
[W]
Heat capacity, to compute additional dry mass [J/(kg.K)]
Density, used to compute fluid mass [kg/m3|g/cm3]
[:#(type=Boolean)]
Absolute pressure of medium [Pa|bar]
Temperature of medium [K|degC]
Density, used to compute fluid mass [kg/m3|g/cm3]
Start value for specific enthalpy [J/kg]
If true, then port_a.m_flow + port_b.m_flow = 0 even if mWat_flow is non-zero, and equations are simplified [:#(type=Boolean)]
Needed to connect to conditional connector [kg/s]

