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Dear Trnsys users, we are getting the ERROR 22 from Trnsys (see below). It seems that there is a problem with the maximum number of EQUATIONS plus CONSTANTS, but we already modified the set limit to 6000 equations and we are sure that we have not more than these number of equations or constants.
TRNSYS Message 22 : The array which holds the EQUATIONs and CONSTANTs has been corruped. The most likely cause of this error is that the number of CONSTANTs plus EQUATIONs used in the input file is greater than the currently set limit.
Reported information : Error 22
PS: I am not able to attach the DCKc file or .log file.
A_Weiss 29/06/2023 2:52 pm
@tonicalabrese It might help to copy and paste the .dck or .log file as a comment or as a reply on this post. I have seen other users do that, in order to get around the file type restriction for attachments on the forum.
ToniCalabrese Topic starter
29/06/2023 2:55 pm
**********************************************************************
** head.ddck from C:\Daten\GIT\pytrnsys\data\ddcks\generic
*******************************************************************
****************************
**BEGIN Head.ddck
*******************************
VERSION 18
CONSTANTS 4
year = 1 ! select year to be run of weather files that contain data for more than one year
START=8016.0 ! value changed from original by executeTrnsys.py
STOP=17520.0 ! value changed from original by executeTrnsys.py
dtSim=1/12 ! value changed from original by executeTrnsys.py
CONSTANTS 13
nIteTrnsys = 30 ! TRNSYS Limit of iterations
nWarnTrnsys = 12000 ! TRNSYS Limit of warnings
nCallTraceTrnys = 31 ! TRNSYS limit of calls to a component before it will be traced
FrInte_Tol = 0.003 ! TRNSYS solver tolerances
FrConv_Tol = 0.0005 ! TRNSYS solver tolerances
nan_check_bool = 1 ! TRNSYS nan check boolean
time_report = 1 ! TRNSYS time report
solver_equation = 0 ! TRNSYS EQUATION SOLVER statement
debug_statement = 0 ! TRNSYS Overwrite DEBUG statement
solver_statement = 0 ! TRNSYS Solver statement
min_relax_factor = 1 ! TRNSYS Minimum relaxation factor
max_relac_factor = 1 ! TRNSYS Maximum relaxation factor
solver_integration = 1 ! TRNSYS numerical integration solver method
SIMULATION START STOP dtSim
TOLERANCES FrInte_Tol FrConv_Tol
LIMITS nIteTrnsys nWarnTrnsys nCallTraceTrnys ! Limit of Iterations, limit of warnings, limit of calls to a component before it will be traced
DFQ solver_integration ! TRNSYS numerical integration solver method
WIDTH 132 ! TRNSYS output file width, number of characters
LIST ! NOLIST statement
SOLVER solver_statement min_relax_factor max_relac_factor ! Solver statement, Minimum relaxation factor, Maximum relaxation factor
NAN_CHECK nan_check_bool ! Nan DEBUG statement
OVERWRITE_CHECK debug_statement ! Overwrite DEBUG statement
EQSOLVER solver_equation ! EQUATION SOLVER statement
TIME_REPORT time_report
CONSTANTS 3
tStrtUser = START ! START start time of user defined printer
tEndUser = STOP ! END time of user defined printer
dtPrUser = dtSim ! timestep of user defined printer
CONSTANTS 6
versionDeck = 1 !can be changed from config file to adapt processes and so on
PI = 3.1415926
Zero = 0
Nix = 0
notused = 0
NPlotsPerSim = 18
CONSTANTS 7
CPBRI = 3.8160 ! spec. heat of Glycol [kJ/kgK]; Value for an average pipe temperature with 55 °C Tyfocor LS
RHOBRI = 1016.0 ! density Glycol [kg/m³]; Value for an average pipe temperature with 55 °C Tyfocor L
CPWAT = 4.19 ! spec. heat of Water [kJ/kgK] at 20 °C
RHOWAT = 998.0 ! density of Water [kg/m³] at20 °C
LAMWAT = 0.58 ! heat conductivity W/(mK)
CPWAT_SI = CPWAT*1000 ! J/(kgK)
CPBRI_SI = CPBRI*1000 ! J/(kgK)
**********************************************************************
** Building_2.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys
*******************************************************************
****************************
**BEGIN Building_2.ddck
*******************************
EQUATIONS 118
Mfr43GfRSW = MPu43GfRSW_43GfRSW
Mfr43GfRSE = MPu43GfRSE_43GfRSE
Mfr43GfRNE = MPu43GfRNE_43GfRNE
Mfr43GfLSW = MPu43GfLSW_43GfLSW
Mfr43GfLNE = MPu43GfLNE_43GfLNE
Mfr43aGfRSW = MPu43aGfRSW_43aGfRSW
Mfr43aGfRNE = MPu43aGfRNE_43aGfRNE
Mfr43aGfCSW = MPu43aGfCSW_43aGfCSW
Mfr43aGfLSW = MPu43aGfLSW_43aGfLSW
Mfr43aGfLNW = MPu43aGfLNW_43aGfLNW
Mfr43aGfLNE = MPu43aGfLNE_43aGfLNE
Mfr431fRSW = MPu431fRSW_431fRSW
Mfr431fRSE = MPu431fRSE_431fRSE
Mfr431fRNE = MPu431fRNE_431fRNE
Mfr431fLSW = MPu431fLSW_431fLSW
Mfr431fLNE = MPu431fLNE_431fLNE
Mfr43a1fRSW = MPu43a1fRSW_43a1fRSW
Mfr43a1fRNE = MPu43a1fRNE_43a1fRNE
Mfr43a1fCSW = MPu43a1fCSW_43a1fCSW
Mfr43a1fLSW = MPu43a1fLSW_43a1fLSW
Mfr43a1fLNW = MPu43a1fLNW_43a1fLNW
Mfr43a1fLNE = MPu43a1fLNE_43a1fLNE
Mfr432fRSW = MPu432fRSW_432fRSW
Mfr432fRSE = MPu432fRSE_432fRSE
Mfr432fRNE = MPu432fRNE_432fRNE
Mfr432fLSW = MPu432fLSW_432fLSW
Mfr432fLNE = MPu432fLNE_432fLNE
Mfr43a2fRSW = MPu43a2fRSW_43a2fRSW
Mfr43a2fRNE = MPu43a2fRNE_43a2fRNE
Mfr43a2fCSW = MPu43a2fCSW_43a2fCSW
Mfr43a2fLSW = MPu43a2fLSW_43a2fLSW
Mfr43a2fLNW = MPu43a2fLNW_43a2fLNW
Mfr43a2fLNE = MPu43a2fLNE_43a2fLNE
Mfr433fRSW = MPu433fRSW_433fRSW
Mfr433fRSE = MPu433fRSE_433fRSE
Mfr433fRNE = MPu433fRNE_433fRNE
Mfr433fLSW = MPu433fLSW_433fLSW
Mfr433fLNE = MPu433fLNE_433fLNE
Mfr43a3fRSW = MPu43a3fRSW_43a3fRSW
Mfr43a3fRNE = MPu43a3fRNE_43a3fRNE
Mfr43a3fCSW = MPu43a3fCSW_43a3fCSW
Mfr43a3fLSW = MPu43a3fLSW_43a3fLSW
Mfr43a3fLNW = MPu43a3fLNW_43a3fLNW
Mfr43a3fLNE = MPu43a3fLNE_43a3fLNE
Mfr43Att1 = MPu43Att1_43Att1
Mfr43Att2 = MPu43Att2_43Att2
Mfr43aAtt1 = MPu43aAtt1_43aAtt1
Mfr43aAtt2 = MPu43aAtt2_43aAtt2
Mfr43aAtt3 = MPu43aAtt3_43aAtt3
Tin43GfRSW = TPu43GfRSW_43GfRSW
Tin43GfRSE = TPu43GfRSE_43GfRSE
Tin43GfRNE = TPu43GfRNE_43GfRNE
Tin43GfLSW = TPu43GfLSW_43GfLSW
Tin43GfLNE = TPu43GfLNE_43GfLNE
Tin43aGfRSW = TPu43aGfRSW_43aGfRSW
Tin43aGfRNE = TPu43aGfRNE_43aGfRNE
Tin43aGfCSW = TPu43aGfCSW_43aGfCSW
Tin43aGfLSW = TPu43aGfLSW_43aGfLSW
Tin43aGfLNW = TPu43aGfLNW_43aGfLNW
Tin43aGfLNE = TPu43aGfLNE_43aGfLNE
Tin431fRSW = TPu431fRSW_431fRSW
Tin431fRSE = TPu431fRSE_431fRSE
Tin431fRNE = TPu431fRNE_431fRNE
Tin431fLSW = TPu431fLSW_431fLSW
Tin431fLNE = TPu431fLNE_431fLNE
Tin43a1fRSW = TPu43a1fRSW_43a1fRSW
Tin43a1fRNE = TPu43a1fRNE_43a1fRNE
Tin43a1fCSW = TPu43a1fCSW_43a1fCSW
Tin43a1fLSW = TPu43a1fLSW_43a1fLSW
Tin43a1fLNW = TPu43a1fLNW_43a1fLNW
Tin43a1fLNE = TPu43a1fLNE_43a1fLNE
Tin432fRSW = TPu432fRSW_432fRSW
Tin432fRSE = TPu432fRSE_432fRSE
Tin432fRNE = TPu432fRNE_432fRNE
Tin432fLSW = TPu432fLSW_432fLSW
Tin432fLNE = TPu432fLNE_432fLNE
Tin43a2fRSW = TPu43a2fRSW_43a2fRSW
Tin43a2fRNE = TPu43a2fRNE_43a2fRNE
Tin43a2fCSW = TPu43a2fCSW_43a2fCSW
Tin43a2fLSW = TPu43a2fLSW_43a2fLSW
Tin43a2fLNW = TPu43a2fLNW_43a2fLNW
Tin43a2fLNE = TPu43a2fLNE_43a2fLNE
Tin433fRSW = TPu433fRSW_433fRSW
Tin433fRSE = TPu433fRSE_433fRSE
Tin433fRNE = TPu433fRNE_433fRNE
Tin433fLSW = TPu433fLSW_433fLSW
Tin433fLNE = TPu433fLNE_433fLNE
Tin43a3fRSW = TPu43a3fRSW_43a3fRSW
Tin43a3fRNE = TPu43a3fRNE_43a3fRNE
Tin43a3fCSW = TPu43a3fCSW_43a3fCSW
Tin43a3fLSW = TPu43a3fLSW_43a3fLSW
Tin43a3fLNW = TPu43a3fLNW_43a3fLNW
Tin43a3fLNE = TPu43a3fLNE_43a3fLNE
Tin43Att1 = TPu43Att1_43Att1
Tin43Att2 = TPu43Att2_43Att2
Tin43aAtt1 = TPu43aAtt1_43aAtt1
Tin43aAtt2 = TPu43aAtt2_43aAtt2
Tin43aAtt3 = TPu43aAtt3_43aAtt3
TinRad43GfR = TPuRad43GfR_Rad43GfR
TinRad43GfL = TPuRad43GfL_Rad43GfL
TinRad43aGfR = TPuRad43aGfR_Rad43aGfR
TinRad43aGfC = TPuRad43aGfC_Rad43aGfC
TinRad43aGfL = TPuRad43aGfL_Rad43aGfL
TinRad431fR = TPuRad431fR_Rad431fR
TinRad431fL = TPuRad431fL_Rad431fL
TinRad43a1fR = TPuRad43a1fR_Rad43a1fR
TinRad43a1fC = TPuRad43a1fC_Rad43a1fC
TinRad43a1fL = TPuRad43a1fL_Rad43a1fL
TinRad432fR = TPuRad432fR_Rad432fR
TinRad432fL = TPuRad432fL_Rad432fL
TinRad43a2fR = TPuRad43a2fR_Rad43a2fR
TinRad43a2fC = TPuRad43a2fC_Rad43a2fC
TinRad43a2fL = TPuRad43a2fL_Rad43a2fL
TinRad433fR = TPuRad433fR_Rad433fR
TinRad433fL = TPuRad433fL_Rad433fL
TinRad43a3fR = TPuRad43a3fR_Rad43a3fR
TinRad43a3fC = TPuRad43a3fC_Rad43a3fC
TinRad43a3fL = TPuRad43a3fL_Rad43a3fL
EQUATIONS 89
MfrPuRad43GfR = MfrRad43GfR ! mass flow rate radiators [kg/h]
MfrPuRad43GfL = MfrRad43GfL
MfrPuRad43aGfR = MfrRad43aGfR
MfrPuRad43aGfC = MfrRad43aGfC
MfrPuRad43aGfL = MfrRad43aGfL
MfrPuRad431fR = MfrRad431fR
MfrPuRad431fL = MfrRad431fL
MfrPuRad43a1fR = MfrRad43a1fR
MfrPuRad43a1fC = MfrRad43a1fC
MfrPuRad43a1fL = MfrRad43a1fL
MfrPuRad432fR = MfrRad432fR
MfrPuRad432fL = MfrRad432fL
MfrPuRad43a2fR = MfrRad43a2fR
MfrPuRad43a2fC = MfrRad43a2fC
MfrPuRad43a2fL = MfrRad43a2fL
MfrPuRad433fR = MfrRad433fR
MfrPuRad433fL = MfrRad433fL
MfrPuRad43a3fR = MfrRad43a3fR
MfrPuRad43a3fC = MfrRad43a3fC
MfrPuRad43a3fL = MfrRad43a3fL
T43GfRSEOut=Tout43GfRSE
T43aGfRNEOut=Tout43aGfRNE
T431fRSEOut=Tout431fRSE
T431fRNEOut=Tout431fRNE
T431fLSWOut=Tout431fLSW
T431fLNEOut=Tout431fLNE
T43a1fRSWOut=Tout43a1fRSW
T43a1fRNEOut=Tout43a1fRNE
T43a1fCSWOut=Tout43a1fCSW
T43a1fLSWOut=Tout43a1fLSW
T43a1fLNWOut=Tout43a1fLNW
T43a1fLNEOut=Tout43a1fLNE
T432fRSWOut=Tout432fRSW
T432fRNEOut=Tout432fRNE
T432fLSWOut=Tout432fLSW
T432fRSEOut=Tout432fRSE
T43a2fLNWOut=Tout43a2fLNW
T432fLNEOut=Tout432fLNE
T43a2fRSWOut=Tout43a2fRSW
T43a2fRNEOut=Tout43a2fRNE
T43a2fLSWOut=Tout43a2fLSW
T433fRSWOut=Tout433fRSW
T43a2fLNEOut=Tout43a2fLNE
T433fRSEOut=Tout433fRSE
T433fRNEOut=Tout433fRNE
T43GfRSWOut=Tout43GfRSW
T43GfRNEOut=Tout43GfRNE
T43GfLSWOut=Tout43GfLSW
T43GfLNEOut=Tout43GfLNE
T43aGfRSWOut=Tout43aGfRSW
T43aGfCSWOut=Tout43aGfCSW
T43aGfLSWOut=Tout43aGfLSW
T43aGfLNWOut=Tout43aGfLNW
T43aGfLNEOut=Tout43aGfLNE
T431fRSWOut=Tout431fRSW
T43a2fCSWOut=Tout43a2fCSW
T433fLSWOut=Tout433fLSW
T433fLNEOut=Tout433fLNE
T43a3fRSWOut=Tout43a3fRSW
T43a3fRNEOut=Tout43a3fRNE
T43a3fCSWOut=Tout43a3fCSW
T43a3fLSWOut=Tout43a3fLSW
T43a3fLNWOut=Tout43a3fLNW
T43a3fLNEOut=Tout43a3fLNE
T43Att1Out=Tout43Att1
T43Att2Out=Tout43Att2
T43aAtt1Out=Tout43aAtt1
T43aAtt2Out=Tout43aAtt2
T43aAtt3Out=Tout43aAtt3
TRad43GfROut=ToutRad43GfR
TRad43GfLOut=ToutRad43GfL
TRad43aGfROut=ToutRad43aGfR
TRad43aGfCOut=ToutRad43aGfC
TRad43aGfLOut=ToutRad43aGfL
TRad431fROut=ToutRad431fR
TRad431fLOut=ToutRad431fL
TRad43a1fROut=ToutRad43a1fR
TRad43a1fCOut=ToutRad43a1fC
TRad43a1fLOut=ToutRad43a1fL
TRad432fROut=ToutRad432fR
TRad432fLOut=ToutRad432fL
TRad43a2fROut=ToutRad43a2fR
TRad43a2fCOut=ToutRad43a2fC
TRad43a2fLOut=ToutRad43a2fL
TRad433fROut=ToutRad433fR
TRad433fLOut=ToutRad433fL
TRad43a3fROut=ToutRad43a3fR
TRad43a3fCOut=ToutRad43a3fC
TRad43a3fLOut=ToutRad43a3fL
EQUATIONS 5
qSysOut_HeatConExWall = QdotConExWall ! Heating demand building (ConExWall)
qSysOut_HeatFloorHeat = QdotFloorHeat ! Heating demand building (Floor heating)
qSysOut_HeatRadiator = QdotRadiator ! Heating demand building (Radiators)
elSysOut_VentBui = ElventBui ! Electricity consumption ventilation system
elSysOut_LightEquipmBui = ElLightEquipmBui ! Electricity consumption light and equipment
EQUATIONS 1
TGroundBui = T_zGrd2 ! undisturbed soil temperature [°C] coming from Type 985 (choose the correct output of Type 985 depending on the case)
CONSTANTS 58 ! area [m2] and volume [m3] of the thermal zones (Info from Type 56)
Area43Stair = 22.4
Area43aStair = 24.0
AreaCel = 387.0
Area43GfR = 104.3
Area43GfL = 71.0
Area43aGfR = 61.3
Area43aGfC = 63.2
Area43aGfL = 87.2
Area431fR = 104.3
Area431fL = 71.0
Area43a1fR = 61.3
Area43a1fC = 63.2
Area43a1fL = 87.2
Area432fR = 104.3
Area432fL = 71.0
Area43a2fR = 61.3
Area43a2fC = 63.2
Area43a2fL = 87.2
Area433fR = 104.3
Area433fL = 71.0
Area43a3fR = 61.3
Area43a3fC = 63.2
Area43a3fL = 87.2
Area43Att = 100.3
Area43aAtt = 130.4
AreaWGGf = 84.1
AreaWG1f = 84.1
AreaWG2f = 84.1
AreaWG3f = 84.1
Vol43Stair = 356.0
Vol43aStair = 380.3
VolCel = 921.2
Vol43GfR = 281.7
Vol43GfL = 191.6
Vol43aGfR = 165.6
Vol43aGfC = 170.6
Vol43aGfL = 235.5
Vol431fR = 281.7
Vol431fL = 191.6
Vol43a1fR = 165.6
Vol43a1fC = 170.6
Vol43a1fL = 235.5
Vol432fR = 281.7
Vol432fL = 191.6
Vol43a2fR = 165.6
Vol43a2fC = 170.6
Vol43a2fL = 235.5
Vol433fR = 281.7
Vol433fL = 191.6
Vol43a3fR = 165.6
Vol43a3fC = 170.6
Vol43a3fL = 235.5
Vol43Att = 270.7
Vol43aAtt = 352.1
VolWGGf = 227.0
VolWG1f = 227.0
VolWG2f = 227.0
VolWG3f = 227.0
CONSTANTS 13
BoHeatSys = 1.0 ! activation (1) or deactivation (0) of the main heating system (ConExWall/Floor Heating)
BoRadiator = 1.0 ! activation (1) or deactivation (0) of the radiators
IdHeatTsp = 0.0 ! Set point T. [°C] ideal heating
eWHTsp = 21.0 ! Set point T. [°C] eWH system
FloorHeatTsp = 21.0 ! Set point T. [°C] floor heating system
RadHeatTsp = 20.7 ! Set point T. [°C] radiator heating system
InfRate = 0.15 ! Infiltration rate [m3/(hm2)] from SIA 2024
InfRateAtt = 0.70 ! Infiltration rate for attics [m3/(hm2)] from SIA 2024
InfRateWG = 2.70 ! Increased infiltration rate for WG [m3/(hm2)] in case of overheating
PeopleHumSource = 80 ! Specific humidity production [g/hP] due to people
EltoIGFactor = 0.7 ! From electr. consumption to internal gains factor
Etath = 0.85 ! Sensible effectiveness of the heat exchanger of the centralized ventilation system (Building 43a)
Etahum = 0.0 ! Latent effectiveness of the heat exchanger of the centralized ventilation system (Building 43a)
CONSTANTS 7
TiAvg = 15 ! Tcellar average over the year [°C] -> Parameter 11 of Type 985
dTi = 0 ! amplitude of sine-curve Tcellar [K] -> Parameter 12 of Type 985
lFl = 33.6 ! length of the floor in contact with the ground [m] -> Parameter 13 of Type 985
bFl = 12.6 ! width of the floor in contact with the ground [m] -> Parameter 14 of Type 985
w = 0.42 ! thickness of the walls around the floor in contact with the ground [m] -> Parameter 15 of Type 985
RGrTot = 0.29 ! total thermal resistance of floor [K/m2W] -> Parameter 16 of Type 985
Psi = 0 ! Linear thermal transmittance [W/mK] -> Parameter 17 of Type 985
CONSTANTS 3
AirDens = 1.204 ! density of air [kg/m3]
gMultiplFactor = 0.18 ! g multiplication factor shading -> change this parameter to modify the g multiplication factor of shading
gMultiplFactorWG = 0.11 ! g multiplication factor shading winter garden -> change this parameter to modify the g multiplication factor of shading
CONSTANTS 4
OutCO2Conc = 400 ! outdoor CO2 concentration [ppm]
InitCO2Conc = 400 ! initial CO2 concentration of the rooms [ppm]
HeatPeople = 70 ! Heat emission by one person [W/P] with a MET of 1.2
met = 1.2 ! Metabolism rate (1.2 met = 70 W/P)
UNIT 38 TYPE 56 Building !Changed automatically
PARAMETERS 3
unitBuilding ! 1 Logical unit for building description file (*.b18, *.b17, *.bui)
0 ! 2 Star network calculation switch
0.50 ! 3 Weighting factor for operative temperature
INPUTS 415
tAmbDry ! 1- TAMB
relHum ! 2- RELHUMAMB
Tsky ! 3- TSKY
tAmbDry ! 4- TSGRD
AISZ ! 5- AZEN
AISA ! 6- AAZM
IT_surfUser_5
IT_surfUser_6
IT_surfUser_7
IT_surfUser_8
IT_surfUser_9
IT_surfUser_10
IB_surfUser_5
IB_surfUser_6
IB_surfUser_7
IB_surfUser_8
IB_surfUser_9
IB_surfUser_10
AI_surfUser_5
AI_surfUser_6
AI_surfUser_7
AI_surfUser_8
AI_surfUser_9
AI_surfUser_10
groundRef ! 7- GRDREF
TGroundBui ! 8- TGROUND
InfRate43Stair
InfRate43aStair
InfRateCel
InfRate43GfR
InfRate43GfL
InfRate43aGfR
InfRate43aGfC
InfRate43aGfL
InfRate431fR
InfRate431fL
InfRate43a1fR
InfRate43a1fC
InfRate43a1fL
InfRate432fR
InfRate432fL
InfRate43a2fR
InfRate43a2fC
InfRate43a2fL
InfRate433fR
InfRate433fL
InfRate43a3fR
InfRate43a3fC
InfRate43a3fL
InfRate43Att
InfRate43aAtt
InfRateWGGf
InfRateWG1f
InfRateWG2f
InfRateWG3f
Shd43GfRNW
Shd43GfRSW
Shd43GfRNE
Shd43GfRSE
Shd43GfLNW
Shd43GfLSW
Shd43GfLNE
Shd43GfLSE
Shd43aGfRNW
Shd43aGfRSW
Shd43aGfRNE
Shd43aGfRSE
Shd43aGfCNW
Shd43aGfCSW
Shd43aGfCNE
Shd43aGfCSE
Shd43aGfLNW
Shd43aGfLSW
Shd43aGfLNE
Shd43aGfLSE
Shd431fRNW
Shd431fRSW
Shd431fRNE
Shd431fRSE
Shd431fLNW
Shd431fLSW
Shd431fLNE
Shd431fLSE
Shd43a1fRNW
Shd43a1fRSW
Shd43a1fRNE
Shd43a1fRSE
Shd43a1fCNW
Shd43a1fCSW
Shd43a1fCNE
Shd43a1fCSE
Shd43a1fLNW
Shd43a1fLSW
Shd43a1fLNE
Shd43a1fLSE
Shd432fRNW
Shd432fRSW
Shd432fRNE
Shd432fRSE
Shd432fLNW
Shd432fLSW
Shd432fLNE
Shd432fLSE
Shd43a2fRNW
Shd43a2fRSW
Shd43a2fRNE
Shd43a2fRSE
Shd43a2fCNW
Shd43a2fCSW
Shd43a2fCNE
Shd43a2fCSE
Shd43a2fLNW
Shd43a2fLSW
Shd43a2fLNE
Shd43a2fLSE
Shd433fRNW
Shd433fRSW
Shd433fRNE
Shd433fRSE
Shd433fLNW
Shd433fLSW
Shd433fLNE
Shd433fLSE
Shd43a3fRNW
Shd43a3fRSW
Shd43a3fRNE
Shd43a3fRSE
Shd43a3fCNW
Shd43a3fCSW
Shd43a3fCNE
Shd43a3fCSE
Shd43a3fLNW
Shd43a3fLSW
Shd43a3fLNE
Shd43a3fLSE
Shd43AttNW
Shd43AttSW
Shd43AttNE
Shd43AttSE
Shd43aAttNW
Shd43aAttSW
Shd43aAttNE
Shd43aAttSE
ShdWGGf
ShdWG1f
ShdWG2f
ShdWG3f
MVent43aGfR
MVent43aGfC
MVent43aGfL
MVent43a1fR
MVent43a1fC
MVent43a1fL
MVent43a2fR
MVent43a2fC
MVent43a2fL
MVent43a3fR
MVent43a3fC
MVent43a3fL
TSupAir43a
RHSupAir43a
Mvent43GfR
Mvent43GfL
Mvent431fR
Mvent431fL
Mvent432fR
Mvent432fL
Mvent433fR
Mvent433fL
MventWG43GfR
MventWG43GfL
MventWG431fR
MventWG431fL
MventWG432fR
MventWG432fL
MventWG433fR
MventWG433fL
TSupAir43GfR
TSupAir43GfL
TSupAir431fR
TSupAir431fL
TSupAir432fR
TSupAir432fL
TSupAir433fR
TSupAir433fL
TSupAirWG43GfR
TSupAirWG43GfL
TSupAirWG431fR
TSupAirWG431fL
TSupAirWG432fR
TSupAirWG432fL
TSupAirWG433fR
TSupAirWG433fL
RHSupAir43GfR
RHSupAir43GfL
RHSupAir431fR
RHSupAir431fL
RHSupAir432fR
RHSupAir432fL
RHSupAir433fR
RHSupAir433fL
RHSupAirWG43GfR
RHSupAirWG43GfL
RHSupAirWG431fR
RHSupAirWG431fL
RHSupAirWG432fR
RHSupAirWG432fL
RHSupAirWG433fR
RHSupAirWG433fL
IdHeatTsp
Mfr43GfRSW
Mfr43GfRSE
Mfr43GfRNE
Mfr43GfLSW
Mfr43GfLNE
Mfr43aGfRSW
Mfr43aGfRNE
Mfr43aGfCSW
Mfr43aGfLSW
Mfr43aGfLNW
Mfr43aGfLNE
Mfr431fRSW
Mfr431fRSE
Mfr431fRNE
Mfr431fLSW
Mfr431fLNE
Mfr43a1fRSW
Mfr43a1fRNE
Mfr43a1fCSW
Mfr43a1fLSW
Mfr43a1fLNW
Mfr43a1fLNE
Mfr432fRSW
Mfr432fRSE
Mfr432fRNE
Mfr432fLSW
Mfr432fLNE
Mfr43a2fRSW
Mfr43a2fRNE
Mfr43a2fCSW
Mfr43a2fLSW
Mfr43a2fLNW
Mfr43a2fLNE
Mfr433fRSW
Mfr433fRSE
Mfr433fRNE
Mfr433fLSW
Mfr433fLNE
Mfr43a3fRSW
Mfr43a3fRNE
Mfr43a3fCSW
Mfr43a3fLSW
Mfr43a3fLNW
Mfr43a3fLNE
Mfr43Att1
Mfr43Att2
Mfr43aAtt1
Mfr43aAtt2
Mfr43aAtt3
Tin43GfRSW
Tin43GfRSE
Tin43GfRNE
Tin43GfLSW
Tin43GfLNE
Tin43aGfRSW
Tin43aGfRNE
Tin43aGfCSW
Tin43aGfLSW
Tin43aGfLNW
Tin43aGfLNE
Tin431fRSW
Tin431fRSE
Tin431fRNE
Tin431fLSW
Tin431fLNE
Tin43a1fRSW
Tin43a1fRNE
Tin43a1fCSW
Tin43a1fLSW
Tin43a1fLNW
Tin43a1fLNE
Tin432fRSW
Tin432fRSE
Tin432fRNE
Tin432fLSW
Tin432fLNE
Tin43a2fRSW
Tin43a2fRNE
Tin43a2fCSW
Tin43a2fLSW
Tin43a2fLNW
Tin43a2fLNE
Tin433fRSW
Tin433fRSE
Tin433fRNE
Tin433fLSW
Tin433fLNE
Tin43a3fRSW
Tin43a3fRNE
Tin43a3fCSW
Tin43a3fLSW
Tin43a3fLNW
Tin43a3fLNE
Tin43Att1
Tin43Att2
Tin43aAtt1
Tin43aAtt2
Tin43aAtt3
QdotRad43GfRConv
QdotRad43GfRRad
QdotRad43GfLConv
QdotRad43GfLRad
QdotRad43aGfRConv
QdotRad43aGfRRad
QdotRad43aGfCConv
QdotRad43aGfCRad
QdotRad43aGfLConv
QdotRad43aGfLRad
QdotRad431fRConv
QdotRad431fRRad
QdotRad431fLConv
QdotRad431fLRad
QdotRad43a1fRConv
QdotRad43a1fRRad
QdotRad43a1fCConv
QdotRad43a1fCRad
QdotRad43a1fLConv
QdotRad43a1fLRad
QdotRad432fRConv
QdotRad432fRRad
QdotRad432fLConv
QdotRad432fLRad
QdotRad43a2fRConv
QdotRad43a2fRRad
QdotRad43a2fCConv
QdotRad43a2fCRad
QdotRad43a2fLConv
QdotRad43a2fLRad
QdotRad433fRConv
QdotRad433fRRad
QdotRad433fLConv
QdotRad433fLRad
QdotRad43a3fRConv
QdotRad43a3fRRad
QdotRad43a3fCConv
QdotRad43a3fCRad
QdotRad43a3fLConv
QdotRad43a3fLRad
CloFactor
IntGainPeople43GfR
IntGainPeople43GfL
IntGainPeople43aGfR
IntGainPeople43aGfC
IntGainPeople43aGfL
IntGainPeople431fR
IntGainPeople431fL
IntGainPeople43a1fR
IntGainPeople43a1fC
IntGainPeople43a1fL
IntGainPeople432fR
IntGainPeople432fL
IntGainPeople43a2fR
IntGainPeople43a2fC
IntGainPeople43a2fL
IntGainPeople433fR
IntGainPeople433fL
IntGainPeople43a3fR
IntGainPeople43a3fC
IntGainPeople43a3fL
IntGainPeople43Att
IntGainPeople43aAtt
IntGainPeopleHum43GfR
IntGainPeopleHum43GfL
IntGainPeopleHum43aGfR
IntGainPeopleHum43aGfC
IntGainPeopleHum43aGfL
IntGainPeopleHum431fR
IntGainPeopleHum431fL
IntGainPeopleHum43a1fR
IntGainPeopleHum43a1fC
IntGainPeopleHum43a1fL
IntGainPeopleHum432fR
IntGainPeopleHum432fL
IntGainPeopleHum43a2fR
IntGainPeopleHum43a2fC
IntGainPeopleHum43a2fL
IntGainPeopleHum433fR
IntGainPeopleHum433fL
IntGainPeopleHum43a3fR
IntGainPeopleHum43a3fC
IntGainPeopleHum43a3fL
IntGainPeopleHum43Att
IntGainPeopleHum43aAtt
IntGainLightEquipm43GfR
IntGainLightEquipm43GfL
IntGainLightEquipm43aGfR
IntGainLightEquipm43aGfC
IntGainLightEquipm43aGfL
IntGainLightEquipm431fR
IntGainLightEquipm431fL
IntGainLightEquipm43a1fR
IntGainLightEquipm43a1fC
IntGainLightEquipm43a1fL
IntGainLightEquipm432fR
IntGainLightEquipm432fL
IntGainLightEquipm43a2fR
IntGainLightEquipm43a2fC
IntGainLightEquipm43a2fL
IntGainLightEquipm433fR
IntGainLightEquipm433fL
IntGainLightEquipm43a3fR
IntGainLightEquipm43a3fC
IntGainLightEquipm43a3fL
IntGainLightEquipm43Att
IntGainLightEquipm43aAtt
0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0
CONSTANTS 1
unitBuilding = 159
ASSIGN "R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\01_Model\Building_2.b18" unitBuilding
EQUATIONS 209
Tc43Stair = [38,1] !Changed automatically
Tc43aStair = [38,2] !Changed automatically
TcCel = [38,3] !Changed automatically
Tc43GfR = [38,4] !Changed automatically
Tc43GfL = [38,5] !Changed automatically
Tc43aGfR = [38,6] !Changed automatically
Tc43aGfC = [38,7] !Changed automatically
Tc43aGfL = [38,8] !Changed automatically
Tc431fR = [38,9] !Changed automatically
Tc431fL = [38,10] !Changed automatically
Tc43a1fR = [38,11] !Changed automatically
Tc43a1fC = [38,12] !Changed automatically
Tc43a1fL = [38,13] !Changed automatically
Tc432fR = [38,14] !Changed automatically
Tc432fL = [38,15] !Changed automatically
Tc43a2fR = [38,16] !Changed automatically
Tc43a2fC = [38,17] !Changed automatically
Tc43a2fL = [38,18] !Changed automatically
Tc433fR = [38,19] !Changed automatically
Tc433fL = [38,20] !Changed automatically
Tc43a3fR = [38,21] !Changed automatically
Tc43a3fC = [38,22] !Changed automatically
Tc43a3fL = [38,23] !Changed automatically
Tc43Att = [38,24] !Changed automatically
Tc43aAtt = [38,25] !Changed automatically
TcWGGf = [38,26] !Changed automatically
TcWG1f = [38,27] !Changed automatically
TcWG2f = [38,28] !Changed automatically
TcWG3f = [38,29] !Changed automatically
Top43Stair = [38,30] !Changed automatically
Top43aStair = [38,31] !Changed automatically
TopCel = [38,32] !Changed automatically
Top43GfR = [38,33] !Changed automatically
Top43GfL = [38,34] !Changed automatically
Top43aGfR = [38,35] !Changed automatically
Top43aGfC = [38,36] !Changed automatically
Top43aGfL = [38,37] !Changed automatically
Top431fR = [38,38] !Changed automatically
Top431fL = [38,39] !Changed automatically
Top43a1fR = [38,40] !Changed automatically
Top43a1fC = [38,41] !Changed automatically
Top43a1fL = [38,42] !Changed automatically
Top432fR = [38,43] !Changed automatically
Top432fL = [38,44] !Changed automatically
Top43a2fR = [38,45] !Changed automatically
Top43a2fC = [38,46] !Changed automatically
Top43a2fL = [38,47] !Changed automatically
Top433fR = [38,48] !Changed automatically
Top433fL = [38,49] !Changed automatically
Top43a3fR = [38,50] !Changed automatically
Top43a3fC = [38,51] !Changed automatically
Top43a3fL = [38,52] !Changed automatically
Top43Att = [38,53] !Changed automatically
Top43aAtt = [38,54] !Changed automatically
TopWGGf = [38,55] !Changed automatically
TopWG1f = [38,56] !Changed automatically
TopWG2f = [38,57] !Changed automatically
TopWG3f = [38,58] !Changed automatically
RH43Stair = [38,59] !Changed automatically
RH43aStair = [38,60] !Changed automatically
RHCel = [38,61] !Changed automatically
RH43GfR = [38,62] !Changed automatically
RH43GfL = [38,63] !Changed automatically
RH43aGfR = [38,64] !Changed automatically
RH43aGfC = [38,65] !Changed automatically
RH43aGfL = [38,66] !Changed automatically
RH431fR = [38,67] !Changed automatically
RH431fL = [38,68] !Changed automatically
RH43a1fR = [38,69] !Changed automatically
RH43a1fC = [38,70] !Changed automatically
RH43a1fL = [38,71] !Changed automatically
RH432fR = [38,72] !Changed automatically
RH432fL = [38,73] !Changed automatically
RH43a2fR = [38,74] !Changed automatically
RH43a2fC = [38,75] !Changed automatically
RH43a2fL = [38,76] !Changed automatically
RH433fR = [38,77] !Changed automatically
RH433fL = [38,78] !Changed automatically
RH43a3fR = [38,79] !Changed automatically
RH43a3fC = [38,80] !Changed automatically
RH43a3fL = [38,81] !Changed automatically
RH43Att = [38,82] !Changed automatically
RH43aAtt = [38,83] !Changed automatically
RHWGGf = [38,84] !Changed automatically
RHWG1f = [38,85] !Changed automatically
RHWG2f = [38,86] !Changed automatically
RHWG3f = [38,87] !Changed automatically
IdHeat43Stair = [38,88] / 3600 !Changed automatically
IdHeat43aStair = [38,89] / 3600 !Changed automatically
IdHeatCel = [38,90] / 3600 !Changed automatically
IdHeat43GfR = [38,91] / 3600 !Changed automatically
IdHeat43GfL = [38,92] / 3600 !Changed automatically
IdHeat43aGfR = [38,93] / 3600 !Changed automatically
IdHeat43aGfC = [38,94] / 3600 !Changed automatically
IdHeat43aGfL = [38,95] / 3600 !Changed automatically
IdHeat431fR = [38,96] / 3600 !Changed automatically
IdHeat431fL = [38,97] / 3600 !Changed automatically
IdHeat43a1fR = [38,98] / 3600 !Changed automatically
IdHeat43a1fC = [38,99] / 3600 !Changed automatically
IdHeat43a1fL = [38,100] / 3600 !Changed automatically
IdHeat432fR = [38,101] / 3600 !Changed automatically
IdHeat432fL = [38,102] / 3600 !Changed automatically
IdHeat43a2fR = [38,103] / 3600 !Changed automatically
IdHeat43a2fC = [38,104] / 3600 !Changed automatically
IdHeat43a2fL = [38,105] / 3600 !Changed automatically
IdHeat433fR = [38,106] / 3600 !Changed automatically
IdHeat433fL = [38,107] / 3600 !Changed automatically
IdHeat43a3fR = [38,108] / 3600 !Changed automatically
IdHeat43a3fC = [38,109] / 3600 !Changed automatically
IdHeat43a3fL = [38,110] / 3600 !Changed automatically
IdHeat43Att = [38,111] / 3600 !Changed automatically
IdHeat43aAtt = [38,112] / 3600 !Changed automatically
IdHeatWGGf = [38,113] / 3600 !Changed automatically
IdHeatWG1f = [38,114] / 3600 !Changed automatically
IdHeatWG2f = [38,115] / 3600 !Changed automatically
IdHeatWG3f = [38,116] / 3600 !Changed automatically
QdoteWH43GfR = - ([38,117] + [38,118] + [38,119]) / 3600 !Changed automatically
QdoteWH43GfL = - ([38,120] + [38,121]) / 3600 !Changed automatically
QdoteWH43aGfR = - ([38,122] + [38,123]) / 3600 !Changed automatically
QdoteWH43aGfC = - [38,124] / 3600 !Changed automatically
QdoteWH43aGfL = - ([38,125] + [38,126] + [38,127]) / 3600 !Changed automatically
QdoteWH431fR = - ([38,128] + [38,129] + [38,130]) / 3600 !Changed automatically
QdoteWH431fL = - ([38,131] + [38,132]) / 3600 !Changed automatically
QdoteWH43a1fR = - ([38,133] + [38,134]) / 3600 !Changed automatically
QdoteWH43a1fC = - [38,135] / 3600 !Changed automatically
QdoteWH43a1fL = - ([38,136] + [38,137] + [38,138]) / 3600 !Changed automatically
QdoteWH432fR = - ([38,139] + [38,140] + [38,141]) / 3600 !Changed automatically
QdoteWH432fL = - ([38,142] + [38,143]) / 3600 !Changed automatically
QdoteWH43a2fR = - ([38,144] + [38,145]) / 3600 !Changed automatically
QdoteWH43a2fC = - [38,146] / 3600 !Changed automatically
QdoteWH43a2fL = - ([38,147] + [38,148] + [38,149]) / 3600 !Changed automatically
QdoteWH433fR = - ([38,150] + [38,151] + [38,152]) / 3600 !Changed automatically
QdoteWH433fL = - ([38,153] + [38,154]) / 3600 !Changed automatically
QdoteWH43a3fR = - ([38,155] + [38,156]) / 3600 !Changed automatically
QdoteWH43a3fC = - [38,157] / 3600 !Changed automatically
QdoteWH43a3fL = - ([38,158] + [38,159] + [38,160]) / 3600 !Changed automatically
QdotFloorHeat43Att = - ([38,161] + [38,162]) / 3600 !Changed automatically
QdotFloorHeat43aAtt = - ([38,163] + [38,164] + [38,165]) / 3600 !Changed automatically
PMV43GfR = [38,166] !Changed automatically
PMV43GfL = [38,167] !Changed automatically
PMV43aGfR = [38,168] !Changed automatically
PMV43aGfC = [38,169] !Changed automatically
PMV43aGfL = [38,170] !Changed automatically
PMV431fR = [38,171] !Changed automatically
PMV431fL = [38,172] !Changed automatically
PMV43a1fR = [38,173] !Changed automatically
PMV43a1fC = [38,174] !Changed automatically
PMV43a1fL = [38,175] !Changed automatically
PMV432fR = [38,176] !Changed automatically
PMV432fL = [38,177] !Changed automatically
PMV43a2fR = [38,178] !Changed automatically
PMV43a2fC = [38,179] !Changed automatically
PMV43a2fL = [38,180] !Changed automatically
PMV433fR = [38,181] !Changed automatically
PMV433fL = [38,182] !Changed automatically
PMV43a3fR = [38,183] !Changed automatically
PMV43a3fC = [38,184] !Changed automatically
PMV43a3fL = [38,185] !Changed automatically
PMV43Att = [38,186] !Changed automatically
PMV43aAtt = [38,187] !Changed automatically
Tout43GfRSW = [38,188] !Changed automatically
Tout43GfRSE = [38,189] !Changed automatically
Tout43GfRNE = [38,190] !Changed automatically
Tout43GfLSW = [38,191] !Changed automatically
Tout43GfLNE = [38,192] !Changed automatically
Tout43aGfRSW = [38,193] !Changed automatically
Tout43aGfRNE = [38,194] !Changed automatically
Tout43aGfCSW = [38,195] !Changed automatically
Tout43aGfLSW = [38,196] !Changed automatically
Tout43aGfLNW = [38,197] !Changed automatically
Tout43aGfLNE = [38,198] !Changed automatically
Tout431fRSW = [38,199] !Changed automatically
Tout431fRSE = [38,200] !Changed automatically
Tout431fRNE = [38,201] !Changed automatically
Tout431fLSW = [38,202] !Changed automatically
Tout431fLNE = [38,203] !Changed automatically
Tout43a1fRSW = [38,204] !Changed automatically
Tout43a1fRNE = [38,205] !Changed automatically
Tout43a1fCSW = [38,206] !Changed automatically
Tout43a1fLSW = [38,207] !Changed automatically
Tout43a1fLNW = [38,208] !Changed automatically
Tout43a1fLNE = [38,209] !Changed automatically
Tout432fRSW = [38,210] !Changed automatically
Tout432fRSE = [38,211] !Changed automatically
Tout432fRNE = [38,212] !Changed automatically
Tout432fLSW = [38,213] !Changed automatically
Tout432fLNE = [38,214] !Changed automatically
Tout43a2fRSW = [38,215] !Changed automatically
Tout43a2fRNE = [38,216] !Changed automatically
Tout43a2fCSW = [38,217] !Changed automatically
Tout43a2fLSW = [38,218] !Changed automatically
Tout43a2fLNW = [38,219] !Changed automatically
Tout43a2fLNE = [38,220] !Changed automatically
Tout433fRSW = [38,221] !Changed automatically
Tout433fRSE = [38,222] !Changed automatically
Tout433fRNE = [38,223] !Changed automatically
Tout433fLSW = [38,224] !Changed automatically
Tout433fLNE = [38,225] !Changed automatically
Tout43a3fRSW = [38,226] !Changed automatically
Tout43a3fRNE = [38,227] !Changed automatically
Tout43a3fCSW = [38,228] !Changed automatically
Tout43a3fLSW = [38,229] !Changed automatically
Tout43a3fLNW = [38,230] !Changed automatically
Tout43a3fLNE = [38,231] !Changed automatically
Tout43Att1 = [38,232] !Changed automatically
Tout43Att2 = [38,233] !Changed automatically
Tout43aAtt1 = [38,234] !Changed automatically
Tout43aAtt2 = [38,235] !Changed automatically
Tout43aAtt3 = [38,236] !Changed automatically
EQUATIONS 4
CloFactor = HRBypassCtrlTamb * 0.5 + (1-HRBypassCtrlTamb)
QdotConExWall = QdoteWH43GfR + QdoteWH43GfL + QdoteWH43aGfR + QdoteWH43aGfC + QdoteWH43aGfL + QdoteWH431fR + QdoteWH431fL + QdoteWH43a1fR + QdoteWH43a1fC + QdoteWH43a1fL + QdoteWH432fR + QdoteWH432fL + QdoteWH43a2fR + QdoteWH43a2fC + QdoteWH43a2fL + QdoteWH433fR + QdoteWH433fL + QdoteWH43a3fR + QdoteWH43a3fC + QdoteWH43a3fL
QdotFloorHeat = QdotFloorHeat43Att + QdotFloorHeat43aAtt
QdotRadiator = QdotRadInject43GfR + QdotRadInject43GfL + QdotRadInject43aGfR + QdotRadInject43aGfC + QdotRadInject43aGfL + QdotRadInject431fR + QdotRadInject431fL + QdotRadInject43a1fR + QdotRadInject43a1fC + QdotRadInject43a1fL + QdotRadInject432fR + QdotRadInject432fL + QdotRadInject43a2fR + QdotRadInject43a2fC + QdotRadInject43a2fL + QdotRadInject433fR + QdotRadInject433fL + QdotRadInject43a3fR + QdotRadInject43a3fC + QdotRadInject43a3fL
UNIT 72 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
TcWGGf ! Tamb,ave -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
InfHigherTWGGf ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 25.0 23.0
EQUATIONS 1
InfHigherTWGGf = [72,1] !Changed automatically
UNIT 73 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
TcWG1f ! Tamb,ave -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
InfHigherTWG1f ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 25.0 23.0
EQUATIONS 1
InfHigherTWG1f = [73,1] !Changed automatically
UNIT 74 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
TcWG2f ! Tamb,ave -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
InfHigherTWG2f ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 25.0 23.0
EQUATIONS 1
InfHigherTWG2f = [74,1] !Changed automatically
UNIT 75 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
TcWG3f ! Tamb,ave -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
InfHigherTWG3f ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 25.0 23.0
EQUATIONS 1
InfHigherTWG3f = [75,1] !Changed automatically
UNIT 76 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
TcWGGf ! T -> Upper input value
tAmbDry ! Tamb
0,0 ! Monitoring value
InfHigherTambWGGf ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
InfHigherTambWGGf = [76,1] !Changed automatically
UNIT 77 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
TcWG1f ! T -> Upper input value
tAmbDry ! Tamb
0,0 ! Monitoring value
InfHigherTambWG1f ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
InfHigherTambWG1f = [77,1] !Changed automatically
UNIT 78 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
TcWG2f ! T -> Upper input value
tAmbDry ! Tamb
0,0 ! Monitoring value
InfHigherTambWG2f ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
InfHigherTambWG2f = [78,1] !Changed automatically
UNIT 79 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
TcWG3f ! T -> Upper input value
tAmbDry ! Tamb
0,0 ! Monitoring value
InfHigherTambWG3f ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
InfHigherTambWG3f = [79,1] !Changed automatically
EQUATIONS 37 ! Infiltration rate to Type 56
InfHigherWGGf = InfHigherTWGGf * InfHigherTambWGGf
InfHigherWG1f = InfHigherTWG1f * InfHigherTambWG1f
InfHigherWG2f = InfHigherTWG2f * InfHigherTambWG2f
InfHigherWG3f = InfHigherTWG3f * InfHigherTambWG3f
InfWGGf = InfHigherWGGf * InfRateWG + (1- InfHigherWGGf)* InfRate
InfWG1f = InfHigherWG1f * InfRateWG + (1- InfHigherWG1f)* InfRate
InfWG2f = InfHigherWG2f * InfRateWG + (1- InfHigherWG2f)* InfRate
InfWG3f = InfHigherWG3f * InfRateWG + (1- InfHigherWG3f)* InfRate
InfRate43Stair = InfRate * Area43Stair / Vol43Stair
InfRate43aStair = InfRate * Area43aStair / Vol43aStair
InfRateCel = InfRate * AreaCel / VolCel
InfRate43GfR = InfRate * Area43GfR / Vol43GfR
InfRate43GfL = InfRate * Area43GfL / Vol43GfL
InfRate43aGfR = InfRate * Area43aGfR / Vol43aGfR
InfRate43aGfC = InfRate * Area43aGfC / Vol43aGfC
InfRate43aGfL = InfRate * Area43aGfL / Vol43aGfL
InfRate431fR = InfRate * Area431fR / Vol431fR
InfRate431fL = InfRate * Area431fL / Vol431fL
InfRate43a1fR = InfRate * Area43a1fR / Vol43a1fR
InfRate43a1fC = InfRate * Area43a1fC / Vol43a1fC
InfRate43a1fL = InfRate * Area43a1fL / Vol43a1fL
InfRate432fR = InfRate * Area432fR / Vol432fR
InfRate432fL = InfRate * Area432fL / Vol432fL
InfRate43a2fR = InfRate * Area43a2fR / Vol43a2fR
InfRate43a2fC = InfRate * Area43a2fC / Vol43a2fC
InfRate43a2fL = InfRate * Area43a2fL / Vol43a2fL
InfRate433fR = InfRate * Area433fR / Vol433fR
InfRate433fL = InfRate * Area433fL / Vol433fL
InfRate43a3fR = InfRate * Area43a3fR / Vol43a3fR
InfRate43a3fC = InfRate * Area43a3fC / Vol43a3fC
InfRate43a3fL = InfRate * Area43a3fL / Vol43a3fL
InfRate43Att = InfRateAtt * Area43Att / Vol43Att
InfRate43aAtt = InfRateAtt * Area43aAtt / Vol43aAtt
InfRateWGGf = InfWGGf * AreaWGGf / VolWGGf
InfRateWG1f = InfWG1f * AreaWG1f / VolWG1f
InfRateWG2f = InfWG2f * AreaWG2f / VolWG2f
InfRateWG3f = InfWG3f * AreaWG3f / VolWG3f
CONSTANTS 1
unitReadIntGain = 160
ASSIGN "R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\03_Boundary_Conditions\IntGains_DemoBern_h.txt" unitReadIntGain
EQUATIONS 1
dtIntGaindata = 1
UNIT 10 TYPE 9 !Changed automatically
PARAMETERS 182
6 ! 1 Mode
0 ! 2 Header Lines to Skip
44 ! 3 No. of values to read
dtIntGaindata ! 4 Time interval of data
-1 1 0 0 ! 5 Interpolate (+) or not (-)? 6: Multuplication factor, 7: Addition factor, 8: Average (0) or instantaneous (1) value
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
-1 1 0 0
unitReadIntGain ! 9 Logical unit for input file
-1 ! 10 Free format mode
EQUATIONS 44
People43GfR = [10,1] !Changed automatically
People43GfL = [10,2] !Changed automatically
People43aGfR = [10,3] !Changed automatically
People43aGfC = [10,4] !Changed automatically
People43aGfL = [10,5] !Changed automatically
People431fR = [10,6] !Changed automatically
People431fL = [10,7] !Changed automatically
People43a1fR = [10,8] !Changed automatically
People43a1fC = [10,9] !Changed automatically
People43a1fL = [10,10] !Changed automatically
People432fR = [10,11] !Changed automatically
People432fL = [10,12] !Changed automatically
People43a2fR = [10,13] !Changed automatically
People43a2fC = [10,14] !Changed automatically
People43a2fL = [10,15] !Changed automatically
People433fR = [10,16] !Changed automatically
People433fL = [10,17] !Changed automatically
People43a3fR = [10,18] !Changed automatically
People43a3fC = [10,19] !Changed automatically
People43a3fL = [10,20] !Changed automatically
People43Att = [10,21] !Changed automatically
People43aAtt = [10,22] !Changed automatically
LightEquipm43GfR = [10,23] !Changed automatically
LightEquipm43GfL = [10,24] !Changed automatically
LightEquipm43aGfR = [10,25] !Changed automatically
LightEquipm43aGfC = [10,26] !Changed automatically
LightEquipm43aGfL = [10,27] !Changed automatically
LightEquipm431fR = [10,28] !Changed automatically
LightEquipm431fL = [10,29] !Changed automatically
LightEquipm43a1fR = [10,30] !Changed automatically
LightEquipm43a1fC = [10,31] !Changed automatically
LightEquipm43a1fL = [10,32] !Changed automatically
LightEquipm432fR = [10,33] !Changed automatically
LightEquipm432fL = [10,34] !Changed automatically
LightEquipm43a2fR = [10,35] !Changed automatically
LightEquipm43a2fC = [10,36] !Changed automatically
LightEquipm43a2fL = [10,37] !Changed automatically
LightEquipm433fR = [10,38] !Changed automatically
LightEquipm433fL = [10,39] !Changed automatically
LightEquipm43a3fR = [10,40] !Changed automatically
LightEquipm43a3fC = [10,41] !Changed automatically
LightEquipm43a3fL = [10,42] !Changed automatically
LightEquipm43Att = [10,43] !Changed automatically
LightEquipm43aAtt = [10,44] !Changed automatically
EQUATIONS 66
IntGainPeople43GfR = [10,1] * HeatPeople * 3.6 !Changed automatically
IntGainPeople43GfL = [10,2] * HeatPeople * 3.6 !Changed automatically
IntGainPeople43aGfR = [10,3] * HeatPeople * 3.6 !Changed automatically
IntGainPeople43aGfC = [10,4] * HeatPeople * 3.6 !Changed automatically
IntGainPeople43aGfL = [10,5] * HeatPeople * 3.6 !Changed automatically
IntGainPeople431fR = [10,6] * HeatPeople * 3.6 !Changed automatically
IntGainPeople431fL = [10,7] * HeatPeople * 3.6 !Changed automatically
IntGainPeople43a1fR = [10,8] * HeatPeople * 3.6 !Changed automatically
IntGainPeople43a1fC = [10,9] * HeatPeople * 3.6 !Changed automatically
IntGainPeople43a1fL = [10,10] * HeatPeople * 3.6 !Changed automatically
IntGainPeople432fR = [10,11] * HeatPeople * 3.6 !Changed automatically
IntGainPeople432fL = [10,12] * HeatPeople * 3.6 !Changed automatically
IntGainPeople43a2fR = [10,13] * HeatPeople * 3.6 !Changed automatically
IntGainPeople43a2fC = [10,14] * HeatPeople * 3.6 !Changed automatically
IntGainPeople43a2fL = [10,15] * HeatPeople * 3.6 !Changed automatically
IntGainPeople433fR = [10,16] * HeatPeople * 3.6 !Changed automatically
IntGainPeople433fL = [10,17] * HeatPeople * 3.6 !Changed automatically
IntGainPeople43a3fR = [10,18] * HeatPeople * 3.6 !Changed automatically
IntGainPeople43a3fC = [10,19] * HeatPeople * 3.6 !Changed automatically
IntGainPeople43a3fL = [10,20] * HeatPeople * 3.6 !Changed automatically
IntGainPeople43Att = [10,21] * HeatPeople * 3.6 !Changed automatically
IntGainPeople43aAtt = [10,22] * HeatPeople * 3.6 !Changed automatically
IntGainLightEquipm43GfR = [10,23] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm43GfL = [10,24] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm43aGfR = [10,25] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm43aGfC = [10,26] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm43aGfL = [10,27] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm431fR = [10,28] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm431fL = [10,29] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm43a1fR = [10,30] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm43a1fC = [10,31] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm43a1fL = [10,32] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm432fR = [10,33] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm432fL = [10,34] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm43a2fR = [10,35] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm43a2fC = [10,36] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm43a2fL = [10,37] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm433fR = [10,38] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm433fL = [10,39] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm43a3fR = [10,40] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm43a3fC = [10,41] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm43a3fL = [10,42] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm43Att = [10,43] * EltoIGFactor * 3.6 !Changed automatically
IntGainLightEquipm43aAtt = [10,44] * EltoIGFactor * 3.6 !Changed automatically
IntGainPeopleHum43GfR = [10,1] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum43GfL = [10,2] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum43aGfR = [10,3] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum43aGfC = [10,4] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum43aGfL = [10,5] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum431fR = [10,6] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum431fL = [10,7] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum43a1fR = [10,8] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum43a1fC = [10,9] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum43a1fL = [10,10] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum432fR = [10,11] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum432fL = [10,12] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum43a2fR = [10,13] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum43a2fC = [10,14] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum43a2fL = [10,15] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum433fR = [10,16] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum433fL = [10,17] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum43a3fR = [10,18] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum43a3fC = [10,19] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum43a3fL = [10,20] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum43Att = [10,21] * PeopleHumSource / 1000 !Changed automatically
IntGainPeopleHum43aAtt = [10,22] * PeopleHumSource / 1000 !Changed automatically
EQUATIONS 1
ElLightEquipmBui = (LightEquipm43GfR + LightEquipm43GfL + LightEquipm43aGfR + LightEquipm43aGfC + LightEquipm43aGfL + LightEquipm431fR + LightEquipm431fL + LightEquipm43a1fR + LightEquipm43a1fC + LightEquipm43a1fL + LightEquipm432fR + LightEquipm432fL + LightEquipm43a2fR + LightEquipm43a2fC + LightEquipm43a2fL + LightEquipm433fR + LightEquipm433fL + LightEquipm43a3fR + LightEquipm43a3fC + LightEquipm43a3fL + LightEquipm43Att + LightEquipm43aAtt)/1000
CONSTANTS 12
DeltaVdotmin = 800 ! [m3/h]
DeltaVdotStage1 = 1000 ! [m3/h]
DeltaVdotStage2 = 800 ! [m3/h]
DeltaVElmin = 350 ! [W]
DeltaVElStage1 = 410 ! [W]
DeltaVElStage2 = 700 ! [W]
RHmin = 35 ! [%]
RHStage1 = 50 ! [%]
RHStage2 = 60 ! [%]
CO243aExAirMin = 800 ! [ppm]
CO243aExAirStage1 = 1000 ! [ppm]
CO243aExAirStage2 = 1400 ! [ppm]
UNIT 158 TYPE 993 !Changed automatically
PARAMETERS 1
92 ! 1: number of variables to be remembered
INPUTS 92
RHExAir
RH43GfR
RH43GfL
RH431fR
RH431fL
RH432fR
RH432fL
RH433fR
RH433fL
CO2Conc43aExAir
Tc43GfR
Tc43GfL
Tc43aGfR
Tc43aGfC
Tc43aGfL
Tc431fR
Tc431fL
Tc43a1fR
Tc43a1fC
Tc43a1fL
Tc432fR
Tc432fL
Tc43a2fR
Tc43a2fC
Tc43a2fL
Tc433fR
Tc433fL
Tc43a3fR
Tc43a3fC
Tc43a3fL
Tc43Att
Tc43aAtt
MfrRad43GfR
MfrRad43GfL
MfrRad43aGfR
MfrRad43aGfC
MfrRad43aGfL
MfrRad431fR
MfrRad431fL
MfrRad43a1fR
MfrRad43a1fC
MfrRad43a1fL
MfrRad432fR
MfrRad432fL
MfrRad43a2fR
MfrRad43a2fC
MfrRad43a2fL
MfrRad433fR
MfrRad433fL
MfrRad43a3fR
MfrRad43a3fC
MfrRad43a3fL
PIDRad43GfR
PIDRad43GfL
PIDRad43aGfR
PIDRad43aGfC
PIDRad43aGfL
PIDRad431fR
PIDRad431fL
PIDRad43a1fR
PIDRad43a1fC
PIDRad43a1fL
PIDRad432fR
PIDRad432fL
PIDRad43a2fR
PIDRad43a2fC
PIDRad43a2fL
PIDRad433fR
PIDRad433fL
PIDRad43a3fR
PIDRad43a3fC
PIDRad43a3fL
ToutRad43GfR
ToutRad43GfL
ToutRad43aGfR
ToutRad43aGfC
ToutRad43aGfL
ToutRad431fR
ToutRad431fL
ToutRad43a1fR
ToutRad43a1fC
ToutRad43a1fL
ToutRad432fR
ToutRad432fL
ToutRad43a2fR
ToutRad43a2fC
ToutRad43a2fL
ToutRad433fR
ToutRad433fL
ToutRad43a3fR
ToutRad43a3fC
ToutRad43a3fL
0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0
EQUATIONS 92
RHExAirRc = [158,1] !Changed automatically
RH43GfRRc = [158,2] !Changed automatically
RH43GfLRc = [158,3] !Changed automatically
RH431fRRc = [158,4] !Changed automatically
RH431fLRc = [158,5] !Changed automatically
RH432fRRc = [158,6] !Changed automatically
RH432fLRc = [158,7] !Changed automatically
RH433fRRc = [158,8] !Changed automatically
RH433fLRc = [158,9] !Changed automatically
CO2Conc43aExAirRc = [158,10] !Changed automatically
Tc43GfRRc = [158,11] !Changed automatically
Tc43GfLRc = [158,12] !Changed automatically
Tc43aGfRRc = [158,13] !Changed automatically
Tc43aGfCRc = [158,14] !Changed automatically
Tc43aGfLRc = [158,15] !Changed automatically
Tc431fRRc = [158,16] !Changed automatically
Tc431fLRc = [158,17] !Changed automatically
Tc43a1fRRc = [158,18] !Changed automatically
Tc43a1fCRc = [158,19] !Changed automatically
Tc43a1fLRc = [158,20] !Changed automatically
Tc432fRRc = [158,21] !Changed automatically
Tc432fLRc = [158,22] !Changed automatically
Tc43a2fRRc = [158,23] !Changed automatically
Tc43a2fCRc = [158,24] !Changed automatically
Tc43a2fLRc = [158,25] !Changed automatically
Tc433fRRc = [158,26] !Changed automatically
Tc433fLRc = [158,27] !Changed automatically
Tc43a3fRRc = [158,28] !Changed automatically
Tc43a3fCRc = [158,29] !Changed automatically
Tc43a3fLRc = [158,30] !Changed automatically
Tc43AttRc = [158,31] !Changed automatically
Tc43aAttRc = [158,32] !Changed automatically
MfrRad43GfRRc = [158,33] !Changed automatically
MfrRad43GfLRc = [158,34] !Changed automatically
MfrRad43aGfRRc = [158,35] !Changed automatically
MfrRad43aGfCRc = [158,36] !Changed automatically
MfrRad43aGfLRc = [158,37] !Changed automatically
MfrRad431fRRc = [158,38] !Changed automatically
MfrRad431fLRc = [158,39] !Changed automatically
MfrRad43a1fRRc = [158,40] !Changed automatically
MfrRad43a1fCRc = [158,41] !Changed automatically
MfrRad43a1fLRc = [158,42] !Changed automatically
MfrRad432fRRc = [158,43] !Changed automatically
MfrRad432fLRc = [158,44] !Changed automatically
MfrRad43a2fRRc = [158,45] !Changed automatically
MfrRad43a2fCRc = [158,46] !Changed automatically
MfrRad43a2fLRc = [158,47] !Changed automatically
MfrRad433fRRc = [158,48] !Changed automatically
MfrRad433fLRc = [158,49] !Changed automatically
MfrRad43a3fRRc = [158,50] !Changed automatically
MfrRad43a3fCRc = [158,51] !Changed automatically
MfrRad43a3fLRc = [158,52] !Changed automatically
PIDRad43GfRRc = [158,53] !Changed automatically
PIDRad43GfLRc = [158,54] !Changed automatically
PIDRad43aGfRRc = [158,55] !Changed automatically
PIDRad43aGfCRc = [158,56] !Changed automatically
PIDRad43aGfLRc = [158,57] !Changed automatically
PIDRad431fRRc = [158,58] !Changed automatically
PIDRad431fLRc = [158,59] !Changed automatically
PIDRad43a1fRRc = [158,60] !Changed automatically
PIDRad43a1fCRc = [158,61] !Changed automatically
PIDRad43a1fLRc = [158,62] !Changed automatically
PIDRad432fRRc = [158,63] !Changed automatically
PIDRad432fLRc = [158,64] !Changed automatically
PIDRad43a2fRRc = [158,65] !Changed automatically
PIDRad43a2fCRc = [158,66] !Changed automatically
PIDRad43a2fLRc = [158,67] !Changed automatically
PIDRad433fRRc = [158,68] !Changed automatically
PIDRad433fLRc = [158,69] !Changed automatically
PIDRad43a3fRRc = [158,70] !Changed automatically
PIDRad43a3fCRc = [158,71] !Changed automatically
PIDRad43a3fLRc = [158,72] !Changed automatically
ToutRad43GfRRc = [158,73] !Changed automatically
ToutRad43GfLRc = [158,74] !Changed automatically
ToutRad43aGfRRc = [158,75] !Changed automatically
ToutRad43aGfCRc = [158,76] !Changed automatically
ToutRad43aGfLRc = [158,77] !Changed automatically
ToutRad431fRRc = [158,78] !Changed automatically
ToutRad431fLRc = [158,79] !Changed automatically
ToutRad43a1fRRc = [158,80] !Changed automatically
ToutRad43a1fCRc = [158,81] !Changed automatically
ToutRad43a1fLRc = [158,82] !Changed automatically
ToutRad432fRRc = [158,83] !Changed automatically
ToutRad432fLRc = [158,84] !Changed automatically
ToutRad43a2fRRc = [158,85] !Changed automatically
ToutRad43a2fCRc = [158,86] !Changed automatically
ToutRad43a2fLRc = [158,87] !Changed automatically
ToutRad433fRRc = [158,88] !Changed automatically
ToutRad433fLRc = [158,89] !Changed automatically
ToutRad43a3fRRc = [158,90] !Changed automatically
ToutRad43a3fCRc = [158,91] !Changed automatically
ToutRad43a3fLRc = [158,92] !Changed automatically
UNIT 16 TYPE 939 !Changed automatically
PARAMETERS 3
1 ! 1 Number of Inputs to Watch
48 ! 2 Time Period [h]
0 ! 3 Average Value for Input
INPUTS 1
tAmbDry ! 24h average of Tamb, �C
0
EQUATIONS 1
Tamb48 = [16,2] !Changed automatically
UNIT 17 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tamb48 ! Tamb,ave -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
HRBypassCtrlTamb ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 18.5 17.5
EQUATIONS 1
HRBypassCtrlTamb = [17,1] !Changed automatically
UNIT 18 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
TExAir ! Tbui,ave -> Upper input value
tAmbDry ! Tamb
0,0 ! Monitoring value
HRBypassCtrlTbui ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlTbui = [18,1] !Changed automatically
UNIT 11 TYPE 648 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
12 ! 2 Number of inlet ports
INPUTS 61
Tc43aGfR ! Air temperature EG_Ost
0,0 ! [unconnected] Not used (w)-1
RH43aGfR ! Relative humidity EG_Ost
MVent43aGfR ! Mass flow rate ventilation EG_Ost
0,0 ! [unconnected] Inlet air pressure-1
Tc43aGfC ! Air temperature EG_Ost
0,0 ! [unconnected] Not used (w)-1
RH43aGfC ! Relative humidity EG_Ost
MVent43aGfC ! Mass flow rate ventilation EG_Ost
0,0 ! [unconnected] Inlet air pressure-1
Tc43aGfL ! Air temperature EG_Ost
0,0 ! [unconnected] Not used (w)-1
RH43aGfL ! Relative humidity EG_Ost
MVent43aGfL ! Mass flow rate ventilation EG_Ost
0,0 ! [unconnected] Inlet air pressure-1
Tc43a1fR ! Air temperature EG_Ost
0,0 ! [unconnected] Not used (w)-1
RH43a1fR ! Relative humidity EG_Ost
MVent43a1fR ! Mass flow rate ventilation EG_Ost
0,0 ! [unconnected] Inlet air pressure-1
Tc43a1fC ! Air temperature EG_Ost
0,0 ! [unconnected] Not used (w)-1
RH43a1fC ! Relative humidity EG_Ost
MVent43a1fC ! Mass flow rate ventilation EG_Ost
0,0 ! [unconnected] Inlet air pressure-1
Tc43a1fL ! Air temperature EG_Ost
0,0 ! [unconnected] Not used (w)-1
RH43a1fL ! Relative humidity EG_Ost
MVent43a1fL ! Mass flow rate ventilation EG_Ost
0,0 ! [unconnected] Inlet air pressure-1
Tc43a2fR ! Air temperature EG_Ost
0,0 ! [unconnected] Not used (w)-1
RH43a2fR ! Relative humidity EG_Ost
MVent43a2fR ! Mass flow rate ventilation EG_Ost
0,0 ! [unconnected] Inlet air pressure-1
Tc43a2fC ! Air temperature EG_Ost
0,0 ! [unconnected] Not used (w)-1
RH43a2fC ! Relative humidity EG_Ost
MVent43a2fC ! Mass flow rate ventilation EG_Ost
0,0 ! [unconnected] Inlet air pressure-1
Tc43a2fL ! Air temperature EG_Ost
0,0 ! [unconnected] Not used (w)-1
RH43a2fL ! Relative humidity EG_Ost
MVent43a2fL ! Mass flow rate ventilation EG_Ost
0,0 ! [unconnected] Inlet air pressure-1
Tc43a3fR ! Air temperature EG_Ost
0,0 ! [unconnected] Not used (w)-1
RH43a3fR ! Relative humidity EG_Ost
MVent43a3fR ! Mass flow rate ventilation EG_Ost
0,0 ! [unconnected] Inlet air pressure-1
Tc43a3fC ! Air temperature EG_Ost
0,0 ! [unconnected] Not used (w)-1
RH43a3fC ! Relative humidity EG_Ost
MVent43a3fC ! Mass flow rate ventilation EG_Ost
0,0 ! [unconnected] Inlet air pressure-1
Tc43a3fL ! Air temperature EG_Ost
0,0 ! [unconnected] Not used (w)-1
RH43a3fL ! Relative humidity EG_Ost
MVent43a3fL ! Mass flow rate ventilation EG_Ost
0,0 ! [unconnected] Inlet air pressure-1
0,0 ! [unconnected] Air-side pressure drop
21.0 0.008 50. 1000.0 1. 21.0 0.008 50. 1000.0 1. 21.0 0.008 50. 1000.0 1. 21.0 0.008 50. 1000.0 1. 21.0 0.008 50. 1000.0 1. 21.0 0.008 50. 1000.0 1.
21.0 0.008 50. 1000.0 1. 21.0 0.008 50. 1000.0 1. 21.0 0.008 50. 1000.0 1. 21.0 0.008 50. 1000.0 1. 21.0 0.008 50. 1000.0 1. 21.0 0.008 50. 1000.0 1. 0.0
EQUATIONS 3
TExAir= [11,1] !Changed automatically
RHExAir=[11,3] !Changed automatically
FRExAir=[11,4] !Changed automatically
UNIT 48 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
TExAir ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RHExAir ! [unconnected] Exhaust air %RH
FRExAir ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
tAmbDry ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
relHum ! [unconnected] Fresh air %RH
MventTot43a ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHR43a ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHR43a
EQUATIONS 2
TSupAir43a = [48,6] !Changed automatically
RHSupAir43a = [48,8] !Changed automatically
EQUATIONS 15
Area43a = Area43aGfR + Area43aGfC + Area43aGfL + Area43a1fR + Area43a1fC + Area43a1fL + Area43a2fR + Area43a2fC + Area43a2fL + Area43a3fR + Area43a3fC + Area43a3fL
MventTot43a = (CtrlHR43a *(GT(CO2Conc43aExAirRc,CO243aExAirMin)*DeltaVdotmin + GT(CO2Conc43aExAirRc,CO243aExAirStage1)*DeltaVdotStage1 + GT(CO2Conc43aExAirRc,CO243aExAirStage2)*DeltaVdotStage2) + NOT(CtrlHR43a) * 2600) *AirDens
MVent43aGfR = MventTot43a / Area43a * Area43aGfR
MVent43aGfC = MventTot43a / Area43a * Area43aGfC
MVent43aGfL = MventTot43a / Area43a * Area43aGfL
MVent43a1fR = MventTot43a / Area43a * Area43a1fR
MVent43a1fC = MventTot43a / Area43a * Area43a1fC
MVent43a1fL = MventTot43a / Area43a * Area43a1fL
MVent43a2fR = MventTot43a / Area43a * Area43a2fR
MVent43a2fC = MventTot43a / Area43a * Area43a2fC
MVent43a2fL = MventTot43a / Area43a * Area43a2fL
MVent43a3fR = MventTot43a / Area43a * Area43a3fR
MVent43a3fC = MventTot43a / Area43a * Area43a3fC
MVent43a3fL = MventTot43a / Area43a * Area43a3fL
CtrlHR43a = 1 - (HRBypassCtrlTamb * HRBypassCtrlTbui)
EQUATIONS 1
ElventBui43a = (CtrlHR43a *(GT(CO2Conc43aExAirRc,CO243aExAirMin)*DeltaVElmin + GT(CO2Conc43aExAirRc,CO243aExAirStage1)*DeltaVElStage1 + GT(CO2Conc43aExAirRc,CO243aExAirStage2)*DeltaVElStage2)+ NOT(CtrlHR43a) * 1460)/1000
CONSTANTS 12
WindITecDeltaVdotmin = 9 ! [m3/h]
WindITecDeltaVdotStage1 = 6 ! [m3/h]
WindITecDeltaVdotStage2 = 16 ! [m3/h]
WindITecDeltaVdotStage3 = 8 ! [m3/h]
WindITecDeltaElmin = 6 ! [W]
WindITecDeltaElStage1 = 2 ! [W]
WindITecDeltaElStage2 = 16 ! [W]
WindITecDeltaElStage3 = 12 ! [W]
WindITecRHmin = 35 ! [%]
WindITecRHStage1 = 50 ! [%]
WindITecRHStage2 = 60 ! [%]
WindITecRHStage3 = 70 ! [%]
UNIT 84 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc43GfR ! Troom,ave -> Upper input value
tAmbDry ! Tamb
0,0 ! Monitoring value
HRBypassCtrlT43GfR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlT43GfR = [84,1] !Changed automatically
UNIT 85 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc43GfL ! Troom,ave -> Upper input value
tAmbDry ! Tamb
0,0 ! Monitoring value
HRBypassCtrlT43GfL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlT43GfL = [85,1] !Changed automatically
UNIT 86 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc431fR ! Troom,ave -> Upper input value
tAmbDry ! Tamb
0,0 ! Monitoring value
HRBypassCtrlT431fR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlT431fR = [86,1] !Changed automatically
UNIT 87 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc431fL ! Troom,ave -> Upper input value
tAmbDry ! Tamb
0,0 ! Monitoring value
HRBypassCtrlT431fL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlT431fL = [87,1] !Changed automatically
UNIT 88 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc432fR ! Troom,ave -> Upper input value
tAmbDry ! Tamb
0,0 ! Monitoring value
HRBypassCtrlT432fR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlT432fR = [88,1] !Changed automatically
UNIT 89 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc432fL ! Troom,ave -> Upper input value
tAmbDry ! Tamb
0,0 ! Monitoring value
HRBypassCtrlT432fL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlT432fL = [89,1] !Changed automatically
UNIT 90 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc433fR ! Troom,ave -> Upper input value
tAmbDry ! Tamb
0,0 ! Monitoring value
HRBypassCtrlT433fR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlT433fR = [90,1] !Changed automatically
UNIT 91 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc433fL ! Troom,ave -> Upper input value
tAmbDry ! Tamb
0,0 ! Monitoring value
HRBypassCtrlT433fL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlT433fL = [91,1] !Changed automatically
UNIT 92 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc43GfR ! Troom,ave -> Upper input value
TcWGGf ! Tamb
0,0 ! Monitoring value
HRBypassCtrlTWG43GfR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlTWG43GfR = [92,1] !Changed automatically
UNIT 93 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc43GfL ! Troom,ave -> Upper input value
TcWGGf ! Tamb
0,0 ! Monitoring value
HRBypassCtrlTWG43GfL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlTWG43GfL = [93,1] !Changed automatically
UNIT 94 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc431fR ! Troom,ave -> Upper input value
TcWG1f ! Tamb
0,0 ! Monitoring value
HRBypassCtrlTWG431fR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlTWG431fR = [94,1] !Changed automatically
UNIT 95 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc431fL ! Troom,ave -> Upper input value
TcWG1f ! Tamb
0,0 ! Monitoring value
HRBypassCtrlTWG431fL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlTWG431fL = [95,1] !Changed automatically
UNIT 96 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc432fR ! Troom,ave -> Upper input value
TcWG2f ! Tamb
0,0 ! Monitoring value
HRBypassCtrlTWG432fR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlTWG432fR = [96,1] !Changed automatically
UNIT 97 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc432fL ! Troom,ave -> Upper input value
TcWG2f ! Tamb
0,0 ! Monitoring value
HRBypassCtrlTWG432fL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlTWG432fL = [97,1] !Changed automatically
UNIT 98 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc433fR ! Troom,ave -> Upper input value
TcWG3f ! Tamb
0,0 ! Monitoring value
HRBypassCtrlTWG433fR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlTWG433fR = [98,1] !Changed automatically
UNIT 99 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
Tc433fL ! Troom,ave -> Upper input value
TcWG3f ! Tamb
0,0 ! Monitoring value
HRBypassCtrlTWG433fL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 2.0 -2.0
EQUATIONS 1
HRBypassCtrlTWG433fL = [99,1] !Changed automatically
EQUATIONS 16
CtrlHR43GfR = 1 - (HRBypassCtrlTamb * HRBypassCtrlT43GfR)
CtrlHR43GfL = 1 - (HRBypassCtrlTamb * HRBypassCtrlT43GfL)
CtrlHR431fR = 1 - (HRBypassCtrlTamb * HRBypassCtrlT431fR)
CtrlHR431fL = 1 - (HRBypassCtrlTamb * HRBypassCtrlT431fL)
CtrlHR432fR = 1 - (HRBypassCtrlTamb * HRBypassCtrlT432fR)
CtrlHR432fL = 1 - (HRBypassCtrlTamb * HRBypassCtrlT432fL)
CtrlHR433fR = 1 - (HRBypassCtrlTamb * HRBypassCtrlT433fR)
CtrlHR433fL = 1 - (HRBypassCtrlTamb * HRBypassCtrlT433fL)
CtrlHRWG43GfR = 1 - (HRBypassCtrlTamb * HRBypassCtrlTWG43GfR)
CtrlHRWG43GfL = 1 - (HRBypassCtrlTamb * HRBypassCtrlTWG43GfL)
CtrlHRWG431fR = 1 - (HRBypassCtrlTamb * HRBypassCtrlTWG431fR)
CtrlHRWG431fL = 1 - (HRBypassCtrlTamb * HRBypassCtrlTWG431fL)
CtrlHRWG432fR = 1 - (HRBypassCtrlTamb * HRBypassCtrlTWG432fR)
CtrlHRWG432fL = 1 - (HRBypassCtrlTamb * HRBypassCtrlTWG432fL)
CtrlHRWG433fR = 1 - (HRBypassCtrlTamb * HRBypassCtrlTWG433fR)
CtrlHRWG433fL = 1 - (HRBypassCtrlTamb * HRBypassCtrlTWG433fL)
EQUATIONS 16
Mvent43GfR = 3*(CtrlHR43GfR * (GT(RH43GfRRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH43GfRRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH43GfRRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH43GfRRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR43GfR) * 39)*AirDens
Mvent43GfL = 2*(CtrlHR43GfL * (GT(RH43GfLRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH43GfLRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH43GfLRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH43GfLRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR43GfL) * 39)*AirDens
Mvent431fR = 3*(CtrlHR431fR * (GT(RH431fRRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH431fRRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH431fRRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH431fRRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR431fR) * 39)*AirDens
Mvent431fL = 2*(CtrlHR431fL * (GT(RH431fLRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH431fLRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH431fLRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH431fLRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR431fL) * 39)*AirDens
Mvent432fR = 3*(CtrlHR432fR * (GT(RH432fRRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH432fRRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH432fRRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH432fRRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR432fR) * 39)*AirDens
Mvent432fL = 2*(CtrlHR432fL * (GT(RH432fLRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH432fLRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH432fLRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH432fLRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR432fL) * 39)*AirDens
Mvent433fR = 3*(CtrlHR433fR * (GT(RH433fRRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH433fRRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH433fRRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH433fRRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR433fR) * 39)*AirDens
Mvent433fL = 2*(CtrlHR433fL * (GT(RH433fLRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH433fLRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH433fLRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH433fLRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR433fL) * 39)*AirDens
MventWG43GfR = 2*(CtrlHR43GfR * (GT(RH43GfRRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH43GfRRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH43GfRRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH43GfRRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR43GfR) * 39)*AirDens
MventWG43GfL = 2*(CtrlHR43GfL * (GT(RH43GfLRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH43GfLRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH43GfLRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH43GfLRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR43GfL) * 39)*AirDens
MventWG431fR = 2*(CtrlHR431fR * (GT(RH431fRRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH431fRRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH431fRRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH431fRRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR431fR) * 39)*AirDens
MventWG431fL = 2*(CtrlHR431fL * (GT(RH431fLRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH431fLRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH431fLRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH431fLRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR431fL) * 39)*AirDens
MventWG432fR = 2*(CtrlHR432fR * (GT(RH432fRRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH432fRRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH432fRRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH432fRRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR432fR) * 39)*AirDens
MventWG432fL = 2*(CtrlHR432fL * (GT(RH432fLRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH432fLRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH432fLRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH432fLRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR432fL) * 39)*AirDens
MventWG433fR = 2*(CtrlHR433fR * (GT(RH433fRRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH433fRRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH433fRRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH433fRRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR433fR) * 39)*AirDens
MventWG433fL = 2*(CtrlHR433fL * (GT(RH433fLRc,WindITecRHmin)*WindITecDeltaVdotmin + GT(RH433fLRc,WindITecRHStage1)*WindITecDeltaVdotStage1 + GT(RH433fLRc,WindITecRHStage2)*WindITecDeltaVdotStage2+ GT(RH433fLRc,WindITecRHStage3)*WindITecDeltaVdotStage3) + NOT(CtrlHR433fL) * 39)*AirDens
EQUATIONS 16
Elvent43GfR = 3*(CtrlHR43GfR * (GT(RH43GfRRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH43GfRRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH43GfRRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH43GfRRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR43GfR) * 36)/1000
Elvent43GfL = 2*(CtrlHR43GfL * (GT(RH43GfLRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH43GfLRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH43GfLRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH43GfLRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR43GfL) * 36)/1000
Elvent431fR = 3*(CtrlHR431fR * (GT(RH431fRRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH431fRRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH431fRRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH431fRRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR431fR) * 36)/1000
Elvent431fL = 2*(CtrlHR431fL * (GT(RH431fLRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH431fLRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH431fLRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH431fLRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR431fL) * 36)/1000
Elvent432fR = 3*(CtrlHR432fR * (GT(RH432fRRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH432fRRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH432fRRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH432fRRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR432fR) * 36)/1000
Elvent432fL = 2*(CtrlHR432fL * (GT(RH432fLRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH432fLRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH432fLRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH432fLRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR432fL) * 36)/1000
Elvent433fR = 3*(CtrlHR433fR * (GT(RH433fRRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH433fRRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH433fRRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH433fRRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR433fR) * 36)/1000
Elvent433fL = 2*(CtrlHR433fL * (GT(RH433fLRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH433fLRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH433fLRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH433fLRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR433fL) * 36)/1000
ElventWG43GfR = 2*(CtrlHR43GfR * (GT(RH43GfRRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH43GfRRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH43GfRRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH43GfRRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR43GfR) * 36)/1000
ElventWG43GfL = 2*(CtrlHR43GfL * (GT(RH43GfLRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH43GfLRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH43GfLRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH43GfLRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR43GfL) * 36)/1000
ElventWG431fR = 2*(CtrlHR431fR * (GT(RH431fRRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH431fRRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH431fRRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH431fRRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR431fR) * 36)/1000
ElventWG431fL = 2*(CtrlHR431fL * (GT(RH431fLRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH431fLRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH431fLRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH431fLRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR431fL) * 36)/1000
ElventWG432fR = 2*(CtrlHR432fR * (GT(RH432fRRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH432fRRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH432fRRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH432fRRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR432fR) * 36)/1000
ElventWG432fL = 2*(CtrlHR432fL * (GT(RH432fLRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH432fLRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH432fLRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH432fLRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR432fL) * 36)/1000
ElventWG433fR = 2*(CtrlHR433fR * (GT(RH433fRRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH433fRRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH433fRRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH433fRRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR433fR) * 36)/1000
ElventWG433fL = 2*(CtrlHR433fL * (GT(RH433fLRc,WindITecRHmin)*WindITecDeltaElmin + GT(RH433fLRc,WindITecRHStage1)*WindITecDeltaElStage1 + GT(RH433fLRc,WindITecRHStage2)*WindITecDeltaElStage2+ GT(RH433fLRc,WindITecRHStage3)*WindITecDeltaElStage3) + NOT(CtrlHR433fL) * 36)/1000
EQUATIONS 2
ElventBui43 = Elvent43GfR + Elvent43GfL + Elvent431fR + Elvent431fL + Elvent432fR + Elvent432fL + Elvent433fR + Elvent433fL + ElventWG43GfR + ElventWG43GfL + ElventWG431fR + ElventWG431fL + ElventWG432fR + ElventWG432fL + ElventWG433fR + ElventWG433fL
ElventBui = ElventBui43 + ElventBui43a
UNIT 100 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc43GfR ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH43GfR ! [unconnected] Exhaust air %RH
Mvent43GfR ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
tAmbDry ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
relHum ! [unconnected] Fresh air %RH
Mvent43GfR ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHR43GfR ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHR43GfR
EQUATIONS 2
TSupAir43GfR = [100,6] !Changed automatically
RHSupAir43GfR = [100,8] !Changed automatically
UNIT 101 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc43GfL ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH43GfL ! [unconnected] Exhaust air %RH
Mvent43GfL ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
tAmbDry ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
relHum ! [unconnected] Fresh air %RH
Mvent43GfL ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHR43GfL ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHR43GfL
EQUATIONS 2
TSupAir43GfL = [101,6] !Changed automatically
RHSupAir43GfL = [101,8] !Changed automatically
UNIT 102 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc431fR ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH431fR ! [unconnected] Exhaust air %RH
Mvent431fR ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
tAmbDry ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
relHum ! [unconnected] Fresh air %RH
Mvent431fR ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHR431fR ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHR431fR
EQUATIONS 2
TSupAir431fR = [102,6] !Changed automatically
RHSupAir431fR = [102,8] !Changed automatically
UNIT 103 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc431fL ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH431fL ! [unconnected] Exhaust air %RH
Mvent431fL ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
tAmbDry ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
relHum ! [unconnected] Fresh air %RH
Mvent431fL ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHR431fL ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHR431fL
EQUATIONS 2
TSupAir431fL = [103,6] !Changed automatically
RHSupAir431fL = [103,8] !Changed automatically
UNIT 104 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc432fR ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH432fR ! [unconnected] Exhaust air %RH
Mvent432fR ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
tAmbDry ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
relHum ! [unconnected] Fresh air %RH
Mvent432fR ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHR432fR ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHR432fR
EQUATIONS 2
TSupAir432fR = [104,6] !Changed automatically
RHSupAir432fR = [104,8] !Changed automatically
UNIT 105 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc432fL ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH432fL ! [unconnected] Exhaust air %RH
Mvent432fL ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
tAmbDry ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
relHum ! [unconnected] Fresh air %RH
Mvent432fL ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHR432fL ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHR432fL
EQUATIONS 2
TSupAir432fL = [105,6] !Changed automatically
RHSupAir432fL = [105,8] !Changed automatically
UNIT 106 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc433fR ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH433fR ! [unconnected] Exhaust air %RH
Mvent433fR ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
tAmbDry ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
relHum ! [unconnected] Fresh air %RH
Mvent433fR ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHR433fR ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHR433fR
EQUATIONS 2
TSupAir433fR = [106,6] !Changed automatically
RHSupAir433fR = [106,8] !Changed automatically
UNIT 107 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc433fL ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH433fL ! [unconnected] Exhaust air %RH
Mvent433fL ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
tAmbDry ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
relHum ! [unconnected] Fresh air %RH
Mvent433fL ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHR433fL ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHR433fL
EQUATIONS 2
TSupAir433fL = [107,6] !Changed automatically
RHSupAir433fL = [107,8] !Changed automatically
UNIT 108 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc43GfR ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH43GfR ! [unconnected] Exhaust air %RH
MventWG43GfR ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
TcWGGf ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
RHWGGf ! [unconnected] Fresh air %RH
MventWG43GfR ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHRWG43GfR ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHRWG43GfR
EQUATIONS 2
TSupAirWG43GfR = [108,6] !Changed automatically
RHSupAirWG43GfR = [108,8] !Changed automatically
UNIT 109 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc43GfL ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH43GfL ! [unconnected] Exhaust air %RH
MventWG43GfL ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
TcWGGf ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
RHWGGf ! [unconnected] Fresh air %RH
MventWG43GfL ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHRWG43GfL ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHRWG43GfL
EQUATIONS 2
TSupAirWG43GfL = [109,6] !Changed automatically
RHSupAirWG43GfL = [109,8] !Changed automatically
UNIT 110 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc431fR ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH431fR ! [unconnected] Exhaust air %RH
MventWG431fR ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
TcWG1f ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
RHWG1f ! [unconnected] Fresh air %RH
MventWG431fR ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHRWG431fR ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHRWG431fR
EQUATIONS 2
TSupAirWG431fR = [110,6] !Changed automatically
RHSupAirWG431fR = [110,8] !Changed automatically
UNIT 111 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc431fL ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH431fL ! [unconnected] Exhaust air %RH
MventWG431fL ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
TcWG1f ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
RHWG1f ! [unconnected] Fresh air %RH
MventWG431fL ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHRWG431fL ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHRWG431fL
EQUATIONS 2
TSupAirWG431fL = [111,6] !Changed automatically
RHSupAirWG431fL = [111,8] !Changed automatically
UNIT 112 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc432fR ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH432fR ! [unconnected] Exhaust air %RH
MventWG432fR ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
TcWG2f ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
RHWG2f ! [unconnected] Fresh air %RH
MventWG432fR ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHRWG432fR ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHRWG432fR
EQUATIONS 2
TSupAirWG432fR = [112,6] !Changed automatically
RHSupAirWG432fR = [112,8] !Changed automatically
UNIT 113 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc432fL ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH432fL ! [unconnected] Exhaust air %RH
MventWG432fL ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
TcWG2f ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
RHWG2f ! [unconnected] Fresh air %RH
MventWG432fL ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHRWG432fL ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHRWG432fL
EQUATIONS 2
TSupAirWG432fL = [113,6] !Changed automatically
RHSupAirWG432fL = [113,8] !Changed automatically
UNIT 114 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc433fR ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH433fR ! [unconnected] Exhaust air %RH
MventWG433fR ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
TcWG3f ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
RHWG3f ! [unconnected] Fresh air %RH
MventWG433fR ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHRWG433fR ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHRWG433fR
EQUATIONS 2
TSupAirWG433fR = [114,6] !Changed automatically
RHSupAirWG433fR = [114,8] !Changed automatically
UNIT 115 TYPE 667 !Changed automatically
PARAMETERS 2
2 ! 1 Humidity mode
671.1 ! 2 Rated power
INPUTS 15
Tc433fL ! [unconnected] Exhaust air temperature
0,0 ! [unconnected] Not used
RH433fL ! [unconnected] Exhaust air %RH
MventWG433fL ! [unconnected] Exhaust air flow rate
0,0 ! [unconnected] Exhaust air pressure
0,0 ! [unconnected] Exhaust air pressure drop
TcWG3f ! [unconnected] Fresh air temperature
0,0 ! [unconnected] Not used
RHWG3f ! [unconnected] Fresh air %RH
MventWG433fL ! [unconnected] Fresh air flow rate
0,0 ! [unconnected] Fresh air pressure
0,0 ! [unconnected] Fresh air pressure drop
Etath ! [unconnected] Sensible effectiveness
Etahum ! [unconnected] Latent effectiveness
CtrlHRWG433fL ! [unconnected] On/Off Control Signal
20.0 0.005 60.0 0.0 1.0 0 20.0 0.005 50.0 0.0 1.0 0.0 Etath Etahum CtrlHRWG433fL
EQUATIONS 2
TSupAirWG433fL = [115,6] !Changed automatically
RHSupAirWG433fL = [115,8] !Changed automatically
EQUATIONS 66
InfRatem3h43aGfR = InfRate * Area43aGfR
VolVent43aGfR = MVent43aGfR / AirDens
Met43aGfR = People43aGfR * met
InfRatem3h43aGfC = InfRate * Area43aGfC
VolVent43aGfC = MVent43aGfC / AirDens
Met43aGfC = People43aGfC * met
InfRatem3h43aGfL = InfRate * Area43aGfL
VolVent43aGfL = MVent43aGfL / AirDens
Met43aGfL = People43aGfL * met
InfRatem3h43a1fR = InfRate * Area43a1fR
VolVent43a1fR = MVent43a1fR / AirDens
Met43a1fR = People43a1fR * met
InfRatem3h43a1fC = InfRate * Area43a1fC
VolVent43a1fC = MVent43a1fC / AirDens
Met43a1fC = People43a1fC * met
InfRatem3h43a1fL = InfRate * Area43a1fL
VolVent43a1fL = MVent43a1fL / AirDens
Met43a1fL = People43a1fL * met
InfRatem3h43a2fR = InfRate * Area43a2fR
VolVent43a2fR = MVent43a2fR / AirDens
Met43a2fR = People43a2fR * met
InfRatem3h43a2fC = InfRate * Area43a2fC
VolVent43a2fC = MVent43a2fC / AirDens
Met43a2fC = People43a2fC * met
InfRatem3h43a2fL = InfRate * Area43a2fL
VolVent43a2fL = MVent43a2fL / AirDens
Met43a2fL = People43a2fL * met
InfRatem3h43a3fR = InfRate * Area43a3fR
VolVent43a3fR = MVent43a3fR / AirDens
Met43a3fR = People43a3fR * met
InfRatem3h43a3fC = InfRate * Area43a3fC
VolVent43a3fC = MVent43a3fC / AirDens
Met43a3fC = People43a3fC * met
InfRatem3h43a3fL = InfRate * Area43a3fL
VolVent43a3fL = MVent43a3fL / AirDens
Met43a3fL = People43a3fL * met
InfRatem3h43GfR = InfRate * Area43GfR
VolVent43GfR = Mvent43GfR / AirDens
Met43GfR = People43GfR * met
InfRatem3h43GfL = InfRate * Area43GfL
VolVent43GfL = Mvent43GfL / AirDens
Met43GfL = People43GfL * met
InfRatem3h431fR = InfRate * Area431fR
VolVent431fR = Mvent431fR / AirDens
Met431fR = People431fR * met
InfRatem3h431fL = InfRate * Area431fL
VolVent431fL = Mvent431fL / AirDens
Met431fL = People431fL * met
InfRatem3h432fR = InfRate * Area432fR
VolVent432fR = Mvent432fR / AirDens
Met432fR = People432fR * met
InfRatem3h432fL = InfRate * Area432fL
VolVent432fL = Mvent432fL / AirDens
Met432fL = People432fL * met
InfRatem3h433fR = InfRate * Area433fR
VolVent433fR = Mvent433fR / AirDens
Met433fR = People433fR * met
InfRatem3h433fL = InfRate * Area433fL
VolVent433fL = Mvent433fL / AirDens
Met433fL = People433fL * met
InfRatem3h43Att = InfRateAtt * Area43Att
VolVent43Att = 0
Met43Att = People43Att * met
InfRatem3h43aAtt = InfRateAtt * Area43aAtt
VolVent43aAtt = 0
Met43aAtt = People43aAtt * met
EQUATIONS 1
CO2Conc43aExAir = (CO2Conc43aGfR + CO2Conc43aGfC + CO2Conc43aGfL + CO2Conc43a1fR + CO2Conc43a1fC + CO2Conc43a1fL + CO2Conc43a2fR + CO2Conc43a2fC + CO2Conc43a2fL + CO2Conc43a3fR + CO2Conc43a3fC + CO2Conc43a3fL)/12
UNIT 116 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43aGfR ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43aGfR ! 1: sum of met values
InfRatem3h43aGfR ! 2: infiltration rate, m3/h
VolVent43aGfR ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43aGfR = [116,1] !Changed automatically
UNIT 117 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43aGfC ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43aGfC ! 1: sum of met values
InfRatem3h43aGfC ! 2: infiltration rate, m3/h
VolVent43aGfC ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43aGfC = [117,1] !Changed automatically
UNIT 118 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43aGfL ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43aGfL ! 1: sum of met values
InfRatem3h43aGfL ! 2: infiltration rate, m3/h
VolVent43aGfL ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43aGfL = [118,1] !Changed automatically
UNIT 119 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43a1fR ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43a1fR ! 1: sum of met values
InfRatem3h43a1fR ! 2: infiltration rate, m3/h
VolVent43a1fR ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43a1fR = [119,1] !Changed automatically
UNIT 120 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43a1fC ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43a1fC ! 1: sum of met values
InfRatem3h43a1fC ! 2: infiltration rate, m3/h
VolVent43a1fC ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43a1fC = [120,1] !Changed automatically
UNIT 121 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43a1fL ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43a1fL ! 1: sum of met values
InfRatem3h43a1fL ! 2: infiltration rate, m3/h
VolVent43a1fL ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43a1fL = [121,1] !Changed automatically
UNIT 122 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43a2fR ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43a2fR ! 1: sum of met values
InfRatem3h43a2fR ! 2: infiltration rate, m3/h
VolVent43a2fR ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43a2fR = [122,1] !Changed automatically
UNIT 123 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43a2fC ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43a2fC ! 1: sum of met values
InfRatem3h43a2fC ! 2: infiltration rate, m3/h
VolVent43a2fC ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43a2fC = [123,1] !Changed automatically
UNIT 124 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43a2fL ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43a2fL ! 1: sum of met values
InfRatem3h43a2fL ! 2: infiltration rate, m3/h
VolVent43a2fL ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43a2fL = [124,1] !Changed automatically
UNIT 125 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43a3fR ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43a3fR ! 1: sum of met values
InfRatem3h43a3fR ! 2: infiltration rate, m3/h
VolVent43a3fR ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43a3fR = [125,1] !Changed automatically
UNIT 126 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43a3fC ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43a3fC ! 1: sum of met values
InfRatem3h43a3fC ! 2: infiltration rate, m3/h
VolVent43a3fC ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43a3fC = [126,1] !Changed automatically
UNIT 127 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43a3fL ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43a3fL ! 1: sum of met values
InfRatem3h43a3fL ! 2: infiltration rate, m3/h
VolVent43a3fL ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43a3fL = [127,1] !Changed automatically
UNIT 128 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43GfR ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43GfR ! 1: sum of met values
InfRatem3h43GfR ! 2: infiltration rate, m3/h
VolVent43GfR ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43GfR = [128,1] !Changed automatically
UNIT 129 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43GfL ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43GfL ! 1: sum of met values
InfRatem3h43GfL ! 2: infiltration rate, m3/h
VolVent43GfL ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43GfL = [129,1] !Changed automatically
UNIT 130 TYPE 820 !Changed automatically
PARAMETERS 3
Vol431fR ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met431fR ! 1: sum of met values
InfRatem3h431fR ! 2: infiltration rate, m3/h
VolVent431fR ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc431fR = [130,1] !Changed automatically
UNIT 131 TYPE 820 !Changed automatically
PARAMETERS 3
Vol431fL ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met431fL ! 1: sum of met values
InfRatem3h431fL ! 2: infiltration rate, m3/h
VolVent431fL ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc431fL = [131,1] !Changed automatically
UNIT 132 TYPE 820 !Changed automatically
PARAMETERS 3
Vol432fR ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met432fR ! 1: sum of met values
InfRatem3h432fR ! 2: infiltration rate, m3/h
VolVent432fR ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc432fR = [132,1] !Changed automatically
UNIT 133 TYPE 820 !Changed automatically
PARAMETERS 3
Vol432fL ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met432fL ! 1: sum of met values
InfRatem3h432fL ! 2: infiltration rate, m3/h
VolVent432fL ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc432fL = [133,1] !Changed automatically
UNIT 134 TYPE 820 !Changed automatically
PARAMETERS 3
Vol433fR ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met433fR ! 1: sum of met values
InfRatem3h433fR ! 2: infiltration rate, m3/h
VolVent433fR ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc433fR = [134,1] !Changed automatically
UNIT 135 TYPE 820 !Changed automatically
PARAMETERS 3
Vol433fL ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met433fL ! 1: sum of met values
InfRatem3h433fL ! 2: infiltration rate, m3/h
VolVent433fL ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc433fL = [135,1] !Changed automatically
UNIT 136 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43Att ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43Att ! 1: sum of met values
InfRatem3h43Att ! 2: infiltration rate, m3/h
VolVent43Att ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43Att = [136,1] !Changed automatically
UNIT 137 TYPE 820 !Changed automatically
PARAMETERS 3
Vol43aAtt ! 1: room volume [m3]
OutCO2Conc ! 2: outside CO2 concentration [ppm]
InitCO2Conc ! 3: initial CO2 concentration in room [ppm]
INPUTS 3
Met43aAtt ! 1: sum of met values
InfRatem3h43aAtt ! 2: infiltration rate, m3/h
VolVent43aAtt ! 3: ventilation rate, m3/h
0 0 0
EQUATIONS 1
CO2Conc43aAtt = [137,1] !Changed automatically
UNIT 12 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
IT_surfUser_8 ! Radiation -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdIrrCtrlNW ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 720.0 540.0
EQUATIONS 1
ShdIrrCtrlNW = [12,1] !Changed automatically
UNIT 13 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
IT_surfUser_10 ! Radiation -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdIrrCtrlSE ! Output control function -> Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 720.0 540.0
EQUATIONS 1
ShdIrrCtrlSE = [13,1] !Changed automatically
UNIT 14 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
IT_surfUser_9 ! Radiation -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdIrrCtrlNE ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 720.0 540.0
EQUATIONS 1
ShdIrrCtrlNE = [14,1] !Changed automatically
UNIT 15 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
IT_surfUser_7 ! Radiation: -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdIrrCtrlSW ! Output control function -> Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 720.0 540.0
EQUATIONS 1
ShdIrrCtrlSW = [15,1] !Changed automatically
UNIT 50 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43GfR ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43GfR ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43GfR = [50,1] !Changed automatically
UNIT 51 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43GfL ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43GfL ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43GfL = [51,1] !Changed automatically
UNIT 52 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43aGfR ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43aGfR ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43aGfR = [52,1] !Changed automatically
UNIT 53 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43aGfC ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43aGfC ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43aGfC = [53,1] !Changed automatically
UNIT 54 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43aGfL ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43aGfL ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43aGfL = [54,1] !Changed automatically
UNIT 55 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc431fR ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl431fR ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl431fR = [55,1] !Changed automatically
UNIT 56 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc431fL ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl431fL ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl431fL = [56,1] !Changed automatically
UNIT 57 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43a1fR ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43a1fR ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43a1fR = [57,1] !Changed automatically
UNIT 58 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43a1fC ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43a1fC ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43a1fC = [58,1] !Changed automatically
UNIT 59 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43a1fL ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43a1fL ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43a1fL = [59,1] !Changed automatically
UNIT 60 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc432fR ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl432fR ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl432fR = [60,1] !Changed automatically
UNIT 61 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc432fL ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl432fL ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl432fL = [61,1] !Changed automatically
UNIT 62 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43a2fR ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43a2fR ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43a2fR = [62,1] !Changed automatically
UNIT 63 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43a2fC ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43a2fC ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43a2fC = [63,1] !Changed automatically
UNIT 64 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43a2fL ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43a2fL ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43a2fL = [64,1] !Changed automatically
UNIT 65 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc433fR ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl433fR ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl433fR = [65,1] !Changed automatically
UNIT 66 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc433fL ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl433fL ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl433fL = [66,1] !Changed automatically
UNIT 67 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43a3fR ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43a3fR ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43a3fR = [67,1] !Changed automatically
UNIT 68 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43a3fC ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43a3fC ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43a3fC = [68,1] !Changed automatically
UNIT 69 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43a3fL ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43a3fL ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43a3fL = [69,1] !Changed automatically
UNIT 70 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43Att ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43Att ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43Att = [70,1] !Changed automatically
UNIT 71 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
Tc43aAtt ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrl43aAtt ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrl43aAtt = [71,1] !Changed automatically
UNIT 80 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
TcWGGf ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrlWGGf ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrlWGGf = [80,1] !Changed automatically
UNIT 81 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
TcWG1f ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrlWG1f ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrlWG1f = [81,1] !Changed automatically
UNIT 82 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
TcWG2f ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrlWG2f ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrlWG2f = [82,1] !Changed automatically
UNIT 83 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
95 ! 2 High limit cut-out
INPUTS 6
TcWG3f ! Temp. oper -> Upper input value
0,0 ! Lower input value
0,0 ! Monitoring value
ShdTCtrlWG3f ! Output control function ->Input control function 49,1
0,0 ! Upper dead band
0,0 ! Lower dead band
21 0 0 0 24 23
EQUATIONS 1
ShdTCtrlWG3f = [83,1] !Changed automatically
EQUATIONS 92
Shd43GfRNW = ShdTCtrl43GfR * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43GfRSW = ShdTCtrl43GfR * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43GfRNE = ShdTCtrl43GfR * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43GfRSE = ShdTCtrl43GfR * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd43GfLNW = ShdTCtrl43GfL * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43GfLSW = ShdTCtrl43GfL * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43GfLNE = ShdTCtrl43GfL * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43GfLSE = ShdTCtrl43GfL * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd43aGfRNW = ShdTCtrl43aGfR * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43aGfRSW = ShdTCtrl43aGfR * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43aGfRNE = ShdTCtrl43aGfR * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43aGfRSE = ShdTCtrl43aGfR * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd43aGfCNW = ShdTCtrl43aGfC * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43aGfCSW = ShdTCtrl43aGfC * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43aGfCNE = ShdTCtrl43aGfC * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43aGfCSE = ShdTCtrl43aGfC * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd43aGfLNW = ShdTCtrl43aGfL * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43aGfLSW = ShdTCtrl43aGfL * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43aGfLNE = ShdTCtrl43aGfL * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43aGfLSE = ShdTCtrl43aGfL * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd431fRNW = ShdTCtrl431fR * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd431fRSW = ShdTCtrl431fR * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd431fRNE = ShdTCtrl431fR * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd431fRSE = ShdTCtrl431fR * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd431fLNW = ShdTCtrl431fL * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd431fLSW = ShdTCtrl431fL * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd431fLNE = ShdTCtrl431fL * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd431fLSE = ShdTCtrl431fL * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd43a1fRNW = ShdTCtrl43a1fR * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43a1fRSW = ShdTCtrl43a1fR * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43a1fRNE = ShdTCtrl43a1fR * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43a1fRSE = ShdTCtrl43a1fR * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd43a1fCNW = ShdTCtrl43a1fC * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43a1fCSW = ShdTCtrl43a1fC * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43a1fCNE = ShdTCtrl43a1fC * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43a1fCSE = ShdTCtrl43a1fC * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd43a1fLNW = ShdTCtrl43a1fL * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43a1fLSW = ShdTCtrl43a1fL * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43a1fLNE = ShdTCtrl43a1fL * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43a1fLSE = ShdTCtrl43a1fL * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd432fRNW = ShdTCtrl432fR * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd432fRSW = ShdTCtrl432fR * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd432fRNE = ShdTCtrl432fR * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd432fRSE = ShdTCtrl432fR * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd432fLNW = ShdTCtrl432fL * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd432fLSW = ShdTCtrl432fL * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd432fLNE = ShdTCtrl432fL * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd432fLSE = ShdTCtrl432fL * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd43a2fRNW = ShdTCtrl43a2fR * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43a2fRSW = ShdTCtrl43a2fR * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43a2fRNE = ShdTCtrl43a2fR * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43a2fRSE = ShdTCtrl43a2fR * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd43a2fCNW = ShdTCtrl43a2fC * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43a2fCSW = ShdTCtrl43a2fC * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43a2fCNE = ShdTCtrl43a2fC * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43a2fCSE = ShdTCtrl43a2fC * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd43a2fLNW = ShdTCtrl43a2fL * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43a2fLSW = ShdTCtrl43a2fL * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43a2fLNE = ShdTCtrl43a2fL * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43a2fLSE = ShdTCtrl43a2fL * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd433fRNW = ShdTCtrl433fR * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd433fRSW = ShdTCtrl433fR * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd433fRNE = ShdTCtrl433fR * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd433fRSE = ShdTCtrl433fR * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd433fLNW = ShdTCtrl433fL * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd433fLSW = ShdTCtrl433fL * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd433fLNE = ShdTCtrl433fL * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd433fLSE = ShdTCtrl433fL * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd43a3fRNW = ShdTCtrl43a3fR * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43a3fRSW = ShdTCtrl43a3fR * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43a3fRNE = ShdTCtrl43a3fR * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43a3fRSE = ShdTCtrl43a3fR * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd43a3fCNW = ShdTCtrl43a3fC * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43a3fCSW = ShdTCtrl43a3fC * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43a3fCNE = ShdTCtrl43a3fC * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43a3fCSE = ShdTCtrl43a3fC * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd43a3fLNW = ShdTCtrl43a3fL * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43a3fLSW = ShdTCtrl43a3fL * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43a3fLNE = ShdTCtrl43a3fL * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43a3fLSE = ShdTCtrl43a3fL * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd43AttNW = ShdTCtrl43Att * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43AttSW = ShdTCtrl43Att * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43AttNE = ShdTCtrl43Att * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43AttSE = ShdTCtrl43Att * ShdIrrCtrlSE * (1- gMultiplFactor)
Shd43aAttNW = ShdTCtrl43aAtt * ShdIrrCtrlNW * (1- gMultiplFactor)
Shd43aAttSW = ShdTCtrl43aAtt * ShdIrrCtrlSW * (1- gMultiplFactor)
Shd43aAttNE = ShdTCtrl43aAtt * ShdIrrCtrlNE * (1- gMultiplFactor)
Shd43aAttSE = ShdTCtrl43aAtt * ShdIrrCtrlSE * (1- gMultiplFactor)
ShdWGGf = ShdTCtrlWGGf * (1- gMultiplFactorWG)
ShdWG1f = ShdTCtrlWG1f * (1- gMultiplFactorWG)
ShdWG2f = ShdTCtrlWG2f * (1- gMultiplFactorWG)
ShdWG3f = ShdTCtrlWG3f * (1- gMultiplFactorWG)
CONSTANTS 6
QdotRadNom = 7200 ! Total nominal power of all radiators of the zone [kJ/h]
pGainRad = 0.6
iGainRad = 0.05
m_Radiator = 1.3
CeffRad = 40000 ! Thermal Cap. of Radiator, kJ/K
PIDRadBuiMin = 0.15
EQUATIONS 3
MfrRadNom = QdotRadNom /(CPWAT*(TBuiFlNom-TBuiRtNom)) ! PheatRadNom/(CPWAT*(TBuiFlNom-TBuiRtNom)) ! Nominal mass flow of heat distribution system [kg/h] ! JS: Divide by factor of 4 to have more realistic values
ftemp = (60./((TBuiFlNom+TBuiRtNom)/2-RadHeatTsp)) ! ftemp: faktor Qnominal -> Qnorm,real (DT=60 - 90/70/20) Radiator (c>=0.7), -
QdotRaddT60 = ftemp*QdotRadNom ! Heating Rate at 60 oC Radiator temperature, kJ/h
UNIT 19 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc43GfR ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad43GfR = GT([19,1],PIDRadBuiMin)* BoHS * BoRadiator * [19,1] !Changed automatically
UNIT 20 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc43GfL ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad43GfL = GT([20,1],PIDRadBuiMin)*BoHS * BoRadiator * [20,1] !Changed automatically
UNIT 21 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc43aGfR ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad43aGfR = GT([21,1],PIDRadBuiMin)*BoHS*BoRadiator * [21,1] !Changed automatically
UNIT 22 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc43aGfC ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad43aGfC = GT([22,1],PIDRadBuiMin)*BoHS*BoRadiator * [22,1] !Changed automatically
UNIT 23 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc43aGfL ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad43aGfL = GT([23,1],PIDRadBuiMin)*BoHS*BoRadiator * [23,1] !Changed automatically
UNIT 28 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc431fR ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad431fR = GT([28,1],PIDRadBuiMin)*BoHS*BoRadiator * [28,1] !Changed automatically
UNIT 29 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc431fL ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad431fL = GT([29,1],PIDRadBuiMin)*BoHS*BoRadiator * [29,1] !Changed automatically
UNIT 30 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc43a1fR ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad43a1fR = GT([30,1],PIDRadBuiMin)*BoHS*BoRadiator * [30,1] !Changed automatically
UNIT 31 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc43a1fC ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad43a1fC = GT([31,1],PIDRadBuiMin)*BoHS*BoRadiator * [31,1] !Changed automatically
UNIT 32 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc43a1fL ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad43a1fL = GT([32,1],PIDRadBuiMin)*BoHS*BoRadiator * [32,1] !Changed automatically
UNIT 33 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc432fR ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad432fR = GT([33,1],PIDRadBuiMin)*BoHS*BoRadiator * [33,1] !Changed automatically
UNIT 34 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc432fL ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad432fL = GT([34,1],PIDRadBuiMin)*BoHS*BoRadiator * [34,1] !Changed automatically
UNIT 35 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc43a2fR ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad43a2fR = GT([35,1],PIDRadBuiMin)*BoHS*BoRadiator * [35,1] !Changed automatically
UNIT 36 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc43a2fC ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad43a2fC = GT([36,1],PIDRadBuiMin)*BoHS*BoRadiator * [36,1] !Changed automatically
UNIT 37 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc43a2fL ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad43a2fL = GT([37,1],PIDRadBuiMin)*BoHS*BoRadiator * [37,1] !Changed automatically
UNIT 47 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc433fR ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad433fR = GT([47,1],PIDRadBuiMin)*BoHS*BoRadiator * [47,1] !Changed automatically
UNIT 39 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc433fL ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad433fL = GT([39,1],PIDRadBuiMin)*BoHS*BoRadiator * [39,1] !Changed automatically
UNIT 40 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc43a3fR ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad43a3fR = GT([40,1],PIDRadBuiMin)*BoHS*BoRadiator * [40,1] !Changed automatically
UNIT 41 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc43a3fC ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad43a3fC = GT([41,1],PIDRadBuiMin)*BoHS*BoRadiator * [41,1] !Changed automatically
UNIT 46 TYPE 320 !Changed automatically
PARAMETERS 7
3 ! 1: Temperature width of PID band
pGainRad ! 2: Proportional gain PID band
iGainRad ! 3: Integral gain PID band
0 ! 4: Differential gain PID band
0.5 ! 5: Proportional gain P-band
0 ! 6: Saturation mode
0 ! 7: Minimum value controller action in saturation mode
INPUTS 3
RadHeatTsp ! Set temperature
Tc43a3fL ! Building: 1- (air temperature of zone) TAIR 1 ->Feedback room temperature
0,0 ! Control inversion option 1: increasing, 2: decreasing action
22 18 2
EQUATIONS 1
PIDRad43a3fL = GT([46,1],PIDRadBuiMin)*BoHS*BoRadiator * [46,1] !Changed automatically
UNIT 138 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad43GfR ! supply Temperature
Tc43GfR ! Building: star node temperature TSTAR
PIDRad43GfR ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad43GfR = BoHS *[138,2] !Changed automatically
QdotRadInject43GfR = [138,4]/3600 !Changed automatically
QdotRad43GfR = [138,3]/3600 !Changed automatically
QdotRad43GfRRad = QdotRad43GfR * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad43GfRConv = QdotRad43GfR* 0.7
UNIT 139 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad43GfL ! supply Temperature
Tc43GfL ! Building: star node temperature TSTAR
PIDRad43GfL ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad43GfL = BoHS *[139,2] !Changed automatically
QdotRadInject43GfL = [139,4]/3600 !Changed automatically
QdotRad43GfL = [139,3]/3600 !Changed automatically
QdotRad43GfLRad = QdotRad43GfL * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad43GfLConv = QdotRad43GfL* 0.7
UNIT 140 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad43aGfR ! supply Temperature
Tc43aGfR ! Building: star node temperature TSTAR
PIDRad43aGfR ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad43aGfR = BoHS *[140,2] !Changed automatically
QdotRadInject43aGfR = [140,4]/3600 !Changed automatically
QdotRad43aGfR = [140,3]/3600 !Changed automatically
QdotRad43aGfRRad = QdotRad43aGfR * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad43aGfRConv = QdotRad43aGfR* 0.7
UNIT 141 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad43aGfC ! supply Temperature
Tc43aGfC ! Building: star node temperature TSTAR
PIDRad43aGfC ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad43aGfC = BoHS *[141,2] !Changed automatically
QdotRadInject43aGfC = [141,4]/3600 !Changed automatically
QdotRad43aGfC = [141,3]/3600 !Changed automatically
QdotRad43aGfCRad = QdotRad43aGfC * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad43aGfCConv = QdotRad43aGfC* 0.7
UNIT 142 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad43aGfL ! supply Temperature
Tc43aGfL ! Building: star node temperature TSTAR
PIDRad43aGfL ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad43aGfL = BoHS *[142,2] !Changed automatically
QdotRadInject43aGfL = [142,4]/3600 !Changed automatically
QdotRad43aGfL = [142,3]/3600 !Changed automatically
QdotRad43aGfLRad = QdotRad43aGfL * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad43aGfLConv = QdotRad43aGfL* 0.7
UNIT 143 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad431fR ! supply Temperature
Tc431fR ! Building: star node temperature TSTAR
PIDRad431fR ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad431fR = BoHS *[143,2] !Changed automatically
QdotRadInject431fR = [143,4]/3600 !Changed automatically
QdotRad431fR = [143,3]/3600 !Changed automatically
QdotRad431fRRad = QdotRad431fR * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad431fRConv = QdotRad431fR* 0.7
UNIT 144 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad431fL ! supply Temperature
Tc431fL ! Building: star node temperature TSTAR
PIDRad431fL ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad431fL = BoHS *[144,2] !Changed automatically
QdotRadInject431fL = [144,4]/3600 !Changed automatically
QdotRad431fL = [144,3]/3600 !Changed automatically
QdotRad431fLRad = QdotRad431fL * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad431fLConv = QdotRad431fL* 0.7
UNIT 145 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad43a1fR ! supply Temperature
Tc43a1fR ! Building: star node temperature TSTAR
PIDRad43a1fR ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad43a1fR = BoHS *[145,2] !Changed automatically
QdotRadInject43a1fR = [145,4]/3600 !Changed automatically
QdotRad43a1fR = [145,3]/3600 !Changed automatically
QdotRad43a1fRRad = QdotRad43a1fR * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad43a1fRConv = QdotRad43a1fR* 0.7
UNIT 146 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad43a1fC ! supply Temperature
Tc43a1fC ! Building: star node temperature TSTAR
PIDRad43a1fC ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad43a1fC = BoHS *[146,2] !Changed automatically
QdotRadInject43a1fC = [146,4]/3600 !Changed automatically
QdotRad43a1fC = [146,3]/3600 !Changed automatically
QdotRad43a1fCRad = QdotRad43a1fC * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad43a1fCConv = QdotRad43a1fC* 0.7
UNIT 147 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad43a1fL ! supply Temperature
Tc43a1fL ! Building: star node temperature TSTAR
PIDRad43a1fL ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad43a1fL = BoHS *[147,2] !Changed automatically
QdotRadInject43a1fL = [147,4]/3600 !Changed automatically
QdotRad43a1fL = [147,3]/3600 !Changed automatically
QdotRad43a1fLRad = QdotRad43a1fL * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad43a1fLConv = QdotRad43a1fL* 0.7
UNIT 148 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad432fR ! supply Temperature
Tc432fR ! Building: star node temperature TSTAR
PIDRad432fR ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad432fR = BoHS *[148,2] !Changed automatically
QdotRadInject432fR = [148,4]/3600 !Changed automatically
QdotRad432fR = [148,3]/3600 !Changed automatically
QdotRad432fRRad = QdotRad432fR * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad432fRConv = QdotRad432fR* 0.7
UNIT 149 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad432fL ! supply Temperature
Tc432fL ! Building: star node temperature TSTAR
PIDRad432fL ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad432fL = BoHS *[149,2] !Changed automatically
QdotRadInject432fL = [149,4]/3600 !Changed automatically
QdotRad432fL = [149,3]/3600 !Changed automatically
QdotRad432fLRad = QdotRad432fL * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad432fLConv = QdotRad432fL* 0.7
UNIT 150 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad43a2fR ! supply Temperature
Tc43a2fR ! Building: star node temperature TSTAR
PIDRad43a2fR ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad43a2fR = BoHS *[150,2] !Changed automatically
QdotRadInject43a2fR = [150,4]/3600 !Changed automatically
QdotRad43a2fR = [150,3]/3600 !Changed automatically
QdotRad43a2fRRad = QdotRad43a2fR * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad43a2fRConv = QdotRad43a2fR* 0.7
UNIT 151 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad43a2fC ! supply Temperature
Tc43a2fC ! Building: star node temperature TSTAR
PIDRad43a2fC ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad43a2fC = BoHS *[151,2] !Changed automatically
QdotRadInject43a2fC = [151,4]/3600 !Changed automatically
QdotRad43a2fC = [151,3]/3600 !Changed automatically
QdotRad43a2fCRad = QdotRad43a2fC * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad43a2fCConv = QdotRad43a2fC* 0.7
UNIT 152 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad43a2fL ! supply Temperature
Tc43a2fL ! Building: star node temperature TSTAR
PIDRad43a2fL ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad43a2fL = BoHS *[152,2] !Changed automatically
QdotRadInject43a2fL = [152,4]/3600 !Changed automatically
QdotRad43a2fL = [152,3]/3600 !Changed automatically
QdotRad43a2fLRad = QdotRad43a2fL * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad43a2fLConv = QdotRad43a2fL* 0.7
UNIT 153 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad433fR ! supply Temperature
Tc433fR ! Building: star node temperature TSTAR
PIDRad433fR ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad433fR = BoHS *[153,2] !Changed automatically
QdotRadInject433fR = [153,4]/3600 !Changed automatically
QdotRad433fR = [153,3]/3600 !Changed automatically
QdotRad433fRRad = QdotRad433fR * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad433fRConv = QdotRad433fR* 0.7
UNIT 154 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad433fL ! supply Temperature
Tc433fL ! Building: star node temperature TSTAR
PIDRad433fL ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad433fL = BoHS *[154,2] !Changed automatically
QdotRadInject433fL = [154,4]/3600 !Changed automatically
QdotRad433fL = [154,3]/3600 !Changed automatically
QdotRad433fLRad = QdotRad433fL * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad433fLConv = QdotRad433fL* 0.7
UNIT 155 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad43a3fR ! supply Temperature
Tc43a3fR ! Building: star node temperature TSTAR
PIDRad43a3fR ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad43a3fR = BoHS *[155,2] !Changed automatically
QdotRadInject43a3fR = [155,4]/3600 !Changed automatically
QdotRad43a3fR = [155,3]/3600 !Changed automatically
QdotRad43a3fRRad = QdotRad43a3fR * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad43a3fRConv = QdotRad43a3fR* 0.7
UNIT 156 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad43a3fC ! supply Temperature
Tc43a3fC ! Building: star node temperature TSTAR
PIDRad43a3fC ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signal<1)
50 10 0
EQUATIONS 5 ! Mass flow rate and return temp. of Radiator / Building
MfrRad43a3fC = BoHS *[156,2] !Changed automatically
QdotRadInject43a3fC = [156,4]/3600 !Changed automatically
QdotRad43a3fC = [156,3]/3600 !Changed automatically
QdotRad43a3fCRad = QdotRad43a3fC * 0.3 !PBuiGains_kW=PheatBui_kW
QdotRad43a3fCConv = QdotRad43a3fC* 0.7
UNIT 157 TYPE 3621 !Changed automatically
PARAMETERS 11
MfrRadNom ! Nominal (maximal) mass flow rate of the radiator
QdotRaddT60 ! Nominal heating power
TBuiFlNom ! Nominal flow temp
TBuiRtNom ! Nominal return temp
TambD ! Design ambient
m_Radiator ! Radiator Exponent
CeffRad ! Lumped radiator capacity [KJ/K]
CPWAT ! specific heat water [KJ/KgK]
0 ! Pipe capacity
10 ! number of control volumes
21 ! 11: Initial radiator temperature
INPUTS 3
TinRad43a3fL ! supply Temperature
Tc43a3fL ! Building: star node temperature TSTAR
PIDRad43a3fL ! myPIDKiGa ! PID Controller T220:Mass flow control (0 <signalAmbient temperature
tambDewPoint ! Psychrometrics:Dew point temperature. ->Dew point temperature at ambient conditions
IB_H ! Weather data:beam radiation on horizontal ->Beam radiation on the horizontal
ID_H ! Weather data:sky diffuse radiation on horizontal ->Diffuse radiation on the horizontal
0 20 0 0
CONSTANTS 1
unitPrinterWeather = 173
EQUATIONS 1
one = 1 ! this is needed to get the total hours per month
ASSIGN temp\WEATHER_BASE_MO.Prt unitPrinterWeather
UNIT 172 Type 46 !Changed automatically
PARAMETERS 6
unitPrinterWeather ! 1: Logical unit number, -
-1 ! 2: Logical unit for monthly summaries, -
1 ! 3: Relative or absolute start time. 0: print at time intervals relative to the simulation start time. 1: print at absolute time intervals. No effect for monthly integrations
-1 ! 4: Printing & integrating interval, h. -1 for monthly integration
1 ! 5: Number of inputs to avoid integration, -
1 ! 6: Output number to avoid integration
INPUTS 6
Time Tamb one IT_H_KW IB_H_kW IT_surfUser_1_Wm2
Time Tamb hoursInMonth IT_H_KW IB_H_kW IT_surfUser_1_Wm2
**********************************************************************
** hydraulic_control_newGUI.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\03_pytrnsysGUI\ddck\control
*******************************************************************
**********************************
**BEGIN hydraulic_control.ddck
*************************************
EQUATIONS 1
elSysOut_Pu = ElPuTot ! Electricity consumption pumps
EQUATIONS 72
TWtDhwOut = TPuDhw_WtDhwOut
TPu43GfRSW = TTee117_Pump122
TPu43GfRSE = TTee258_Pump255
TPu43GfRNE = TTee127_Pump262
TPu43GfLSW = TTee268_Pump272
TPu43GfLNE = TTee278_Pump282
TPu43aGfRSW = TTee278_Pump293
TPu43aGfRNE = TTee357_Pump354
TPu43aGfCSW = TTee365_Pump373
TPu43aGfLSW = TTee381_Pump389
TPu43aGfLNW = TTee395_Pump403
TPu43aGfLNE = TTee409_Pump413
TPu431fRSW = TTee409_Pump423
TPu431fRSE = TTee465_Pump469
TPu431fRNE = TTee476_Pump480
TPu431fLSW = TTee487_Pump495
TPu431fLNE = TTee498_Pump502
TPu43a1fRSW = TTee509_Pump513
TPu43a1fRNE = TTee509_Pump520
TPu43a1fCSW = TTee557_Pump561
TPu43a1fLSW = TTee568_Pump572
TPu43a1fLNW = TTee582_Pump579
TPu43a1fLNE = TTee590_Pump594
TPu432fRSW = TTee601_Pump609
TPu432fRSE = TTee601_Pump612
TPu432fRNE = TTee655_Pump659
TPu432fLSW = TTee690_Pump670
TPu432fLNE = TTee680_Pump677
TPu43a2fRSW = TTee694_Pump702
TPu43a2fRNE = TTee711_Pump705
TPu43a2fCSW = TTee711_Pump708
TPu43a2fLSW = TTee759_Pump763
TPu43a2fLNW = TTee770_Pump774
TPu43a2fLNE = TTee781_Pump785
TPu433fRSW = TTee792_Pump796
TPu433fRSE = TTee803_Pump807
TPu433fRNE = TTee803_Pump818
TPu433fLSW = TTee868_Pump872
TPu433fLNE = TTee883_Pump887
TPu43a3fRSW = TTee897_Pump894
TPu43a3fRNE = TTee905_Pump909
TPu43a3fCSW = TTee919_Pump916
TPu43a3fLSW = TTee919_Pump927
TPu43a3fLNW = TTee981_Pump989
TPu43a3fLNE = TTee992_Pump996
TPu43Att1 = TTee1006_Pump1003
TPu43Att2 = TTee1014_Pump1018
TPu43aAtt1 = TTee1028_Pump1025
TPu43aAtt2 = TTee1028_Pump1036
TPu43aAtt3 = TTee1089_Pump1093
TPuRad43GfR = TTee1100_Pump1104
TPuRad43GfL = TTee1111_Pump1115
TPuRad43aGfR = TTee1122_Pump1126
TPuRad43aGfC = TTee1136_Pump1133
TPuRad43aGfL = TTee1136_Pump1144
TPuRad431fR = TTee1203_Pump1207
TPuRad431fL = TTee1214_Pump1218
TPuRad43a1fR = TTee1225_Pump1229
TPuRad43a1fC = TTee1239_Pump1236
TPuRad43a1fL = TTee1251_Pump1255
TPuRad432fR = TTee1251_Pump1258
TPuRad432fL = TTee1310_Pump1314
TPuRad43a2fR = TTee1321_Pump1325
TPuRad43a2fC = TTee1335_Pump1332
TPuRad43a2fL = TTee1343_Pump1347
TPuRad433fR = TTee1354_Pump1358
TPuRad433fL = TTee1354_Pump1365
TPuRad43a3fR = TTee1410_Pump1414
TPuRad43a3fC = TTee1421_PuRad43a3fC
TPuRad43a3fL = TTee1421_Pump1432
TPuHp = TTee27_Pump1527
TPuDhw = TValMixDhw_PuDhw
CONSTANTS 49
Mfr43GfRSWNom = 135.0
Mfr43GfRSENom = 210.0
Mfr43GfRNENom = 125.0
Mfr43GfLSWNom = 115.0
Mfr43GfLNENom = 80.0
Mfr43aGfRSWNom = 47.0
Mfr43aGfRNENom = 100.0
Mfr43aGfCSWNom = 175.0
Mfr43aGfLSWNom = 68.0
Mfr43aGfLNWNom = 210.0
Mfr43aGfLNENom = 155.0
Mfr431fRSWNom = 135.0
Mfr431fRSENom = 210.0
Mfr431fRNENom = 125.0
Mfr431fLSWNom = 115.0
Mfr431fLNENom = 80.0
Mfr43a1fRSWNom = 47.0
Mfr43a1fRNENom = 100.0
Mfr43a1fCSWNom = 175.0
Mfr43a1fLSWNom = 68.0
Mfr43a1fLNWNom = 210.0
Mfr43a1fLNENom = 155.0
Mfr432fRSWNom = 135.0
Mfr432fRSENom = 210.0
Mfr432fRNENom = 125.0
Mfr432fLSWNom = 115.0
Mfr432fLNENom = 80.0
Mfr43a2fRSWNom = 47.0
Mfr43a2fRNENom = 100.0
Mfr43a2fCSWNom = 175.0
Mfr43a2fLSWNom = 68.0
Mfr43a2fLNWNom = 210.0
Mfr43a2fLNENom = 155.0
Mfr433fRSWNom = 135.0
Mfr433fRSENom = 210.0
Mfr433fRNENom = 125.0
Mfr433fLSWNom = 115.0
Mfr433fLNENom = 80.0
Mfr43a3fRSWNom = 47.0
Mfr43a3fRNENom = 100.0
Mfr43a3fCSWNom = 175.0
Mfr43a3fLSWNom = 68.0
Mfr43a3fLNWNom = 210.0
Mfr43a3fLNENom = 155.0
Mfr43Att1Nom = 550.0
Mfr43Att2Nom = 460.0
Mfr43aAtt1Nom = 470.0
Mfr43aAtt2Nom = 310.0
Mfr43aAtt3Nom = 525.0
EQUATIONS 55
xFracValHp = 1-BoTesDHW
MfrWtDhwIn = MfrDHWset
BoHPforDHW = BoTesDHW ! Switch On heat pump to charge TESdhw
BoHPforSH = BoTesSH * GT(MValMixSh_Tee300,0) ! Switch On heat pump to heat the building and charge TESsh
MfrPuHp = MfrPuHpPD !hpIsOn * MfrHpCondNom
MfrPuDhw = MfrDHWset
MfrPu43GfRSW = CtrlHeat43GfR * Mfr43GfRSWNom
MfrPu43GfRSE = CtrlHeat43GfR * Mfr43GfRSENom
MfrPu43GfRNE = CtrlHeat43GfR * Mfr43GfRNENom
MfrPu43GfLSW = CtrlHeat43GfL * Mfr43GfLSWNom
MfrPu43GfLNE = CtrlHeat43GfL * Mfr43GfLNENom
MfrPu43aGfRSW = CtrlHeat43aGfR * Mfr43aGfRSWNom
MfrPu43aGfRNE = CtrlHeat43aGfR * Mfr43aGfRNENom
MfrPu43aGfCSW = CtrlHeat43aGfC * Mfr43aGfCSWNom
MfrPu43aGfLSW = CtrlHeat43aGfL * Mfr43aGfLSWNom
MfrPu43aGfLNW = CtrlHeat43aGfL * Mfr43aGfLNWNom
MfrPu43aGfLNE = CtrlHeat43aGfL * Mfr43aGfLNENom
MfrPu431fRSW = CtrlHeat431fR * Mfr431fRSWNom
MfrPu431fRSE = CtrlHeat431fR * Mfr431fRSENom
MfrPu431fRNE = CtrlHeat431fR * Mfr431fRNENom
MfrPu431fLSW = CtrlHeat431fL * Mfr431fLSWNom
MfrPu431fLNE = CtrlHeat431fL * Mfr431fLNENom
MfrPu43a1fRSW = CtrlHeat43a1fR * Mfr43a1fRSWNom
MfrPu43a1fRNE = CtrlHeat43a1fR * Mfr43a1fRNENom
MfrPu43a1fCSW = CtrlHeat43a1fC * Mfr43a1fCSWNom
MfrPu43a1fLSW = CtrlHeat43a1fL * Mfr43a1fLSWNom
MfrPu43a1fLNW = CtrlHeat43a1fL * Mfr43a1fLNWNom
MfrPu43a1fLNE = CtrlHeat43a1fL * Mfr43a1fLNENom
MfrPu432fRSW = CtrlHeat432fR * Mfr432fRSWNom
MfrPu432fRSE = CtrlHeat432fR * Mfr432fRSENom
MfrPu432fRNE = CtrlHeat432fR * Mfr432fRNENom
MfrPu432fLSW = CtrlHeat432fL * Mfr432fLSWNom
MfrPu432fLNE = CtrlHeat432fL * Mfr432fLNENom
MfrPu43a2fRSW = CtrlHeat43a2fR * Mfr43a2fRSWNom
MfrPu43a2fRNE = CtrlHeat43a2fR * Mfr43a2fRNENom
MfrPu43a2fCSW = CtrlHeat43a2fC * Mfr43a2fCSWNom
MfrPu43a2fLSW = CtrlHeat43a2fL * Mfr43a2fLSWNom
MfrPu43a2fLNW = CtrlHeat43a2fL * Mfr43a2fLNWNom
MfrPu43a2fLNE = CtrlHeat43a2fL * Mfr43a2fLNENom
MfrPu433fRSW = CtrlHeat433fR * Mfr433fRSWNom
MfrPu433fRSE = CtrlHeat433fR * Mfr433fRSENom
MfrPu433fRNE = CtrlHeat433fR * Mfr433fRNENom
MfrPu433fLSW = CtrlHeat433fL * Mfr433fLSWNom
MfrPu433fLNE = CtrlHeat433fL * Mfr433fLNENom
MfrPu43a3fRSW = CtrlHeat43a3fR * Mfr43a3fRSWNom
MfrPu43a3fRNE = CtrlHeat43a3fR * Mfr43a3fRNENom
MfrPu43a3fCSW = CtrlHeat43a3fC * Mfr43a3fCSWNom
MfrPu43a3fLSW = CtrlHeat43a3fL * Mfr43a3fLSWNom
MfrPu43a3fLNW = CtrlHeat43a3fL * Mfr43a3fLNWNom
MfrPu43a3fLNE = CtrlHeat43a3fL * Mfr43a3fLNENom
MfrPu43Att1 = CtrlHeat43Att * Mfr43Att1Nom
MfrPu43Att2 = CtrlHeat43Att * Mfr43Att2Nom
MfrPu43aAtt1 = CtrlHeat43aAtt * Mfr43aAtt1Nom
MfrPu43aAtt2 = CtrlHeat43aAtt * Mfr43aAtt2Nom
MfrPu43aAtt3 = CtrlHeat43aAtt * Mfr43aAtt3Nom
EQUATIONS 4
PelSpecPu = 0.03 ! [W/(kg/h)] Assumption: specific electricity consumption of a pump
ElPuHp = (PelSpecPu * MfrPuHp)/1000 ! Electricity consumption [kW] pump of the heat pump
ElPuSh = (PelSpecPu * MValMixSh_Tee300)/1000 ! Electricity consumption [kW] pump of the space heating loops
ElPuTot = ElPuHp + ElPuSh ! Total electricity consumption [kW] of the pumps
EQUATIONS 1 ! control of heat pump
hpIsOn = OR(BoHPforDHW,BoHPforSH) ! HpForDHWIsNeeded, BoHS, HpForSHIsNeeded outputs of Type 888
EQUATIONS 2
T_set_ValMixSh=Tv
T_set_ValMixDhw=45
UNIT 196 TYPE 811 !Changed automatically
PARAMETERS 1
5 !Nb.of iterations before fixing the value
INPUTS 4
TTee73_ValMixSh
TTee86_ValMixSh
MValMixSh_Tee300
T_set_ValMixSh
35.0 21.0 800.0 T_set_ValMixSh
EQUATIONS 1
xFracValMixSh = 1.-[196,5] !Changed automatically
UNIT 197 TYPE 811 !Changed automatically
PARAMETERS 1
5 !Nb.of iterations before fixing the value
INPUTS 4
TTesDhw_ValMixDhw
TTee1724_ValMixDhw
MValMixDhw_PuDhw
T_set_ValMixDhw
35.0 21.0 800.0 T_set_ValMixDhw
EQUATIONS 1
xFracValMixDhw = 1.-[197,5] !Changed automatically
UNIT 174 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc43GfR
0,0 ! Monitoring value
CtrlHeat43GfR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat43GfR = BoHeatSys * BoHS * [174,1] !Changed automatically
UNIT 175 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc43GfL
0,0 ! Monitoring value
CtrlHeat43GfL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat43GfL = BoHeatSys * BoHS * [175,1] !Changed automatically
UNIT 176 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc43aGfR
0,0 ! Monitoring value
CtrlHeat43aGfR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat43aGfR = BoHeatSys * BoHS * [176,1] !Changed automatically
UNIT 177 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc43aGfC
0,0 ! Monitoring value
CtrlHeat43aGfC ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat43aGfC = BoHeatSys * BoHS * [177,1] !Changed automatically
UNIT 178 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc43aGfL
0,0 ! Monitoring value
CtrlHeat43aGfL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat43aGfL = BoHeatSys * BoHS * [178,1] !Changed automatically
UNIT 179 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc431fR
0,0 ! Monitoring value
CtrlHeat431fR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat431fR = BoHeatSys * BoHS * [179,1] !Changed automatically
UNIT 180 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc431fL
0,0 ! Monitoring value
CtrlHeat431fL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat431fL = BoHeatSys * BoHS * [180,1] !Changed automatically
UNIT 181 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc43a1fR
0,0 ! Monitoring value
CtrlHeat43a1fR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat43a1fR = BoHeatSys * BoHS * [181,1] !Changed automatically
UNIT 182 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc43a1fC
0,0 ! Monitoring value
CtrlHeat43a1fC ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat43a1fC = BoHeatSys * BoHS * [182,1] !Changed automatically
UNIT 183 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc43a1fL
0,0 ! Monitoring value
CtrlHeat43a1fL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat43a1fL = BoHeatSys * BoHS * [183,1] !Changed automatically
UNIT 184 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc432fR
0,0 ! Monitoring value
CtrlHeat432fR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat432fR = BoHeatSys * BoHS * [184,1] !Changed automatically
UNIT 185 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc432fL
0,0 ! Monitoring value
CtrlHeat432fL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat432fL = BoHeatSys * BoHS * [185,1] !Changed automatically
UNIT 186 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc43a2fR
0,0 ! Monitoring value
CtrlHeat43a2fR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat43a2fR = BoHeatSys * BoHS * [186,1] !Changed automatically
UNIT 187 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc43a2fC
0,0 ! Monitoring value
CtrlHeat43a2fC ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat43a2fC = BoHeatSys * BoHS * [187,1] !Changed automatically
UNIT 188 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc43a2fL
0,0 ! Monitoring value
CtrlHeat43a2fL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat43a2fL = BoHeatSys * BoHS * [188,1] !Changed automatically
UNIT 189 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc433fR
0,0 ! Monitoring value
CtrlHeat433fR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat433fR = BoHeatSys * BoHS * [189,1] !Changed automatically
UNIT 190 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc433fL
0,0 ! Monitoring value
CtrlHeat433fL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat433fL = BoHeatSys * BoHS * [190,1] !Changed automatically
UNIT 191 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc43a3fR
0,0 ! Monitoring value
CtrlHeat43a3fR ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat43a3fR = BoHeatSys * BoHS * [191,1] !Changed automatically
UNIT 192 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc43a3fC
0,0 ! Monitoring value
CtrlHeat43a3fC ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat43a3fC = BoHeatSys * BoHS * [192,1] !Changed automatically
UNIT 193 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
eWHTsp
Tc43a3fL
0,0 ! Monitoring value
CtrlHeat43a3fL ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.0 -0.0
EQUATIONS 1
CtrlHeat43a3fL = BoHeatSys * BoHS * [193,1] !Changed automatically
UNIT 194 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
FloorHeatTsp
Tc43Att
0,0 ! Monitoring value
CtrlHeat43Att ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.5 -0.5
EQUATIONS 1
CtrlHeat43Att = BoHeatSys * BoHS * [194,1] !Changed automatically
UNIT 195 TYPE 2 !Changed automatically
PARAMETERS 2
5 ! 1 No. of oscillations
5000 ! 2 High limit cut-out
INPUTS 6
FloorHeatTsp
Tc43aAtt
0,0 ! Monitoring value
CtrlHeat43aAtt ! Output control function ->Input control function
0,0 ! Upper dead band
0,0 ! Lower dead band
15 0 0 0 0.5 -0.5
EQUATIONS 1
CtrlHeat43aAtt = BoHeatSys * BoHS * [195,1] !Changed automatically
EQUATIONS 3
MfrHeatLoops_100 = MValMixSh_Tee300/100
MfrHP_100 = MfrPuHp/100
MfrDHW_10 = MfrPuDhw/10
UNIT 198 TYPE 65 !Changed automatically
PARAMETERS 12
3 ! 1 Nb. of left-axis variables
9 ! 2 Nb. of right-axis variables
0 ! 3 Left axis minimum
2 ! 4 Left axis maximum -
-20 ! 5 Right axis minimum
120 ! 6 Right axis maximum
nPlotsPerSim ! 7 Number of plots per simulation
12 ! 8 X-axis gridpoints
1 ! 9 Shut off Online w/o removing
-1 ! 10 Logical unit for output file
0 ! 11 Output file units
0 ! 12 Output file delimiter
INPUTS 12
hpIsOn BoHPforDHW BoHPforSH T10_Tes1 T10_Tes2 Tamb24 Tv TValMixSh_Tee300 TValMixDhw_PuDhw MfrHeatLoops_100 MfrHP_100 MfrDHW_10
hpIsOn BoHPforDHW BoHPforSH T10_Tes1 T10_Tes2 Tamb24 Tv TValMixSh_Tee300 TValMixDhw_PuDhw MfrHeatLoops_100 MfrHP_100 MfrDHW_10
LABELS 3
Controls
Temp
Overview_control
**********************************************************************
** type888.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\03_pytrnsysGUI\ddck\control
*******************************************************************
****************************
**BEGIN type888.ddck
****************************
EQUATIONS 1
elSysOut_CtrlDemand = PelContr_kW
EQUATIONS 4
myTDhwSetpoint = 50 !TDhwSet --> later as input from optimization control DDCK
mydt_rh_on = 0.0 !dt_rh_on --> later as input from optimization control DDCK
mydt_rh_off = 3.0 !dt_rh_off --> later as input from optimization control DDCK
mytRoomSet = 21.0 ! tRoomSet --> later as input from optimization control DDCK
EQUATIONS 4
BoHS = [199,1] !Changed automatically
BoTesDHW = [199,2] !Changed automatically
BoTesSH = [199,3] !Changed automatically
Tv = [199,4] !Changed automatically
CONSTANTS 10
tavgTamb = 24 ! time for averaging of outdoor temperature for the evaluation of heating season or no heating season, h
offsetDhw = 6 ! Usually we had it at 7.5 . This means the heat pump would need to reach TdhwSet+7.5 !!
onsetDhw = 2
TwwStAuxOFF = myTDhwSetpoint+offsetDhw ! Stop heating DHW if TStoreUp > TWWStAuxOFF
TwwStAuxON = myTDhwSetpoint+onsetDhw ! Start heating DHW if TStoreDhwBot TambHS is used for determination of heating season
TTesDhwAuxOn ! 2: TwwStUp: upper Store temperature measurement for Warm water
TTesDhwAuxOff ! 3: TwwStLo: lower store temperature measurement for Warm water
TwwStAuxON ! 4: TwwON: temperature of store (upper) below which auxiliary is on for WW-Mode
TwwStauxOff ! 5: TwwOFF: temperature of store (lower) above which auxiliary is off for WW-Mode
TsensorTesSh ! 6: TrhStUp:upper temperature measured for room heating (on)
TsensorTesShLow ! 7 : THpsCondIn 11: TrhStLo: lower temperature measured for room heating (off)
mydt_rh_on ! 8: TrhON: temperature (difference) for room heating on
mydt_rh_off ! 9: TrhOFF: temperature (difference) for room heating off
mytRoomSet ! 10: TroomSet: room set-point for heating curve calculation
Tamb24 ! 11: Tamb: is used for flow temperature calculation according to heating curve
nightSetBack ! 12: dTnight: night-time room set-point reduction
TScSetWW ! 13: TScSetWW: Set-point temperature for the heat source in warm water mode. Absolute value in �C if temperature setpoint mode for warm water MoTww = 1, relative value in K if MoTww = 2 or 3
TScSetRH ! 14: TScSetRH:Set-point temperature for the heat source in room heating mode. Absolute value in �C if temperature setpoint mode for room heating MoTrh = 1, relative value if MoTrh = 2, 3 or 4
0 0 0 0 0 0 0 0 0 0 0 0 0 0
UNIT 200 Type 816 !Changed automatically
PARAMETERS 2
1 ! 1: number of values for input
tavgTamb ! 2: time of averaging (dt in hours)
INPUTS 1
Tamb ! T_ambient
21
EQUATIONS 1
Tamb24 = [200,1] !Changed automatically
*******************************************************************
** hydraulic_newGUI.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\03_pytrnsysGUI\ddck\hydraulic
*******************************************************************
**********************************
** BEGIN hydraulic.ddck
*************************************
EQUATIONS 2
qSysOut_PipeLoss = PipeLossTot
qSysOut_spPipeIntTot = spPipeIntTot
EQUATIONS 73
TTesDhwHxHpDhwH=TTesDhwHxHpDhw
TTesDhwDpR1_99H=TTesDhwDpR1_99
TTesShDpL99_1H=TTesShDpL99_1
TAwHpH= THpCondOut ! BoHPforDHW * 60.0 + NOT(BoHPforDHW) * 40.0 !TAwHp
T43GfRSEH=T43GfRSEOut
T43aGfRNEH=T43aGfRNEOut
T431fRSEH=T431fRSEOut
T431fRNEH=T431fRNEOut
T431fLSWH=T431fLSWOut
T431fLNEH=T431fLNEOut
T43a1fRSWH=T43a1fRSWOut
T43a1fRNEH=T43a1fRNEOut
T43a1fCSWH=T43a1fCSWOut
T43a1fLSWH=T43a1fLSWOut
T43a1fLNWH=T43a1fLNWOut
T43a1fLNEH=T43a1fLNEOut
T432fRSWH=T432fRSWOut
T432fRNEH=T432fRNEOut
T432fLSWH=T432fLSWOut
T432fRSEH=T432fRSEOut
T43a2fLNWH=T43a2fLNWOut
T432fLNEH=T432fLNEOut
T43a2fRSWH=T43a2fRSWOut
T43a2fRNEH=T43a2fRNEOut
T43a2fLSWH=T43a2fLSWOut
T433fRSWH=T433fRSWOut
T43a2fLNEH=T43a2fLNEOut
T433fRSEH=T433fRSEOut
T433fRNEH=T433fRNEOut
T43GfRSWH=T43GfRSWOut
T43GfRNEH=T43GfRNEOut
T43GfLSWH=T43GfLSWOut
T43GfLNEH=T43GfLNEOut
T43aGfRSWH=T43aGfRSWOut
T43aGfCSWH=T43aGfCSWOut
T43aGfLSWH=T43aGfLSWOut
T43aGfLNWH=T43aGfLNWOut
T43aGfLNEH=T43aGfLNEOut
T431fRSWH=T431fRSWOut
T43a2fCSWH=T43a2fCSWOut
T433fLSWH=T433fLSWOut
T433fLNEH=T433fLNEOut
T43a3fRSWH=T43a3fRSWOut
T43a3fRNEH=T43a3fRNEOut
T43a3fCSWH=T43a3fCSWOut
T43a3fLSWH=T43a3fLSWOut
T43a3fLNWH=T43a3fLNWOut
T43a3fLNEH=T43a3fLNEOut
T43Att1H=T43Att1Out
T43Att2H=T43Att2Out
T43aAtt1H=T43aAtt1Out
T43aAtt2H=T43aAtt2Out
T43aAtt3H=T43aAtt3Out
TRad43GfRH=TRad43GfROut
TRad43GfLH=TRad43GfLOut
TRad43aGfRH=TRad43aGfROut
TRad43aGfCH=TRad43aGfCOut
TRad43aGfLH=TRad43aGfLOut
TRad431fRH=TRad431fROut
TRad431fLH=TRad431fLOut
TRad43a1fRH=TRad43a1fROut
TRad43a1fCH=TRad43a1fCOut
TRad43a1fLH=TRad43a1fLOut
TRad432fRH=TRad432fROut
TRad432fLH=TRad432fLOut
TRad43a2fRH=TRad43a2fROut
TRad43a2fCH=TRad43a2fCOut
TRad43a2fLH=TRad43a2fLOut
TRad433fRH=TRad433fROut
TRad433fLH=TRad433fLOut
TRad43a3fRH=TRad43a3fROut
TRad43a3fCH=TRad43a3fCOut
TRad43a3fLH=TRad43a3fLOut
UNIT 203 TYPE 9352 !Changed automatically
PARAMETERS 2608
mfrSolverAbsTol
mfrSolverRelTol
mfrTolSwitchThreshold
651
572 7 0 0 !1 : TesDhwHxHpDhw
648 646 0 0 !2 : TesDhwDpR1_99
568 569 0 0 !3 : TesShDpL99_1
570 571 0 0 !4 : AwHp
571 572 560 3 !5 : ValHp
7 558 562 2 !6 : Tee27
1 6 0 0 !7 : TesDhw_Tee27
650 0 0 5 !8 : WtDhwOut
651 0 0 4 !9 : WtDhwIn
565 560 568 2 !10 : Tee73
567 565 566 3 !11 : ValMixSh
563 556 566 2 !12 : Tee86
575 77 0 0 !13 : 43GfRSE
55 56 63 2 !14 : Tee117
56 574 0 1 !15 : Pu43GfRSW
64 58 65 2 !16 : Tee127
579 107 0 0 !17 : 43aGfRNE
580 150 0 0 !18 : 431fRSE
583 148 0 0 !19 : 431fRNE
584 146 0 0 !20 : 431fLSW
588 144 0 0 !21 : 431fLNE
591 142 0 0 !22 : 43a1fRSW
595 141 0 0 !23 : 43a1fRNE
582 183 0 0 !24 : 43a1fCSW
581 187 0 0 !25 : 43a1fLSW
585 190 0 0 !26 : 43a1fLNW
589 195 0 0 !27 : 43a1fLNE
590 198 0 0 !28 : 432fRSW
639 223 0 0 !29 : 432fRNE
638 226 0 0 !30 : 432fLSW
596 201 0 0 !31 : 432fRSE
637 266 0 0 !32 : 43a2fLNW
612 230 0 0 !33 : 432fLNE
605 239 0 0 !34 : 43a2fRSW
604 236 0 0 !35 : 43a2fRNE
640 263 0 0 !36 : 43a2fLSW
606 274 0 0 !37 : 433fRSW
611 270 0 0 !38 : 43a2fLNE
603 278 0 0 !39 : 433fRSE
599 280 0 0 !40 : 433fRNE
574 573 0 0 !41 : 43GfRSW
57 575 0 1 !42 : Pu43GfRSE
63 57 64 2 !43 : Tee258
58 576 0 1 !44 : Pu43GfRNE
576 74 0 0 !45 : 43GfRNE
65 59 62 2 !46 : Tee268
59 586 0 1 !47 : Pu43GfLSW
586 71 0 0 !48 : 43GfLSW
62 60 61 2 !49 : Tee278
60 593 0 1 !50 : Pu43GfLNE
593 68 0 0 !51 : 43GfLNE
61 642 0 1 !52 : Pu43aGfRSW
642 67 0 0 !53 : 43aGfRSW
55 567 102 2 !54 : Tee300
54 14 0 0 !55 : Tee300_Tee117
14 15 0 0 !56 : Tee117_Pump122
43 42 0 0 !57 : Tee258_Pump255
16 44 0 0 !58 : Tee127_Pump262
46 47 0 0 !59 : Tee268_Pump272
49 50 0 0 !60 : Tee278_Pump282
49 52 0 0 !61 : Tee278_Pump293
46 49 0 0 !62 : Tee268_Tee278
14 43 0 0 !63 : Tee117_Tee258
43 16 0 0 !64 : Tee258_Tee127
16 46 0 0 !65 : Tee127_Tee268
70 67 68 2 !66 : Tee323
53 66 0 0 !67 : Rad296_Tee323
51 66 0 0 !68 : Rad285_Tee323
73 70 71 2 !69 : Tee329
66 69 0 0 !70 : Tee323_Tee329
48 69 0 0 !71 : Rad275_Tee329
76 73 74 2 !72 : Tee335
69 72 0 0 !73 : Tee329_Tee335
45 72 0 0 !74 : Rad265_Tee335
79 76 77 2 !75 : Tee341
72 75 0 0 !76 : Tee335_Tee341
13 75 0 0 !77 : Rad114_Tee341
534 79 573 2 !78 : Tee347
75 78 0 0 !79 : Tee341_Tee347
104 579 0 1 !80 : Pu43aGfRNE
103 104 105 2 !81 : Tee357
102 151 103 2 !82 : Tee361
105 106 110 2 !83 : Tee365
108 113 109 2 !84 : Tee369
106 578 0 1 !85 : Pu43aGfCSW
578 109 0 0 !86 : 43aGfCSW
110 111 112 2 !87 : Tee381
113 115 114 2 !88 : Tee385
111 577 0 1 !89 : Pu43aGfLSW
577 114 0 0 !90 : 43aGfLSW
112 116 117 2 !91 : Tee395
115 122 120 2 !92 : Tee399
116 587 0 1 !93 : Pu43aGfLNW
587 120 0 0 !94 : 43aGfLNW
117 118 119 2 !95 : Tee409
118 592 0 1 !96 : Pu43aGfLNE
592 121 0 0 !97 : 43aGfLNE
122 123 121 2 !98 : Tee419
119 594 0 1 !99 : Pu431fRSW
594 123 0 0 !100 : 431fRSW
535 108 107 2 !101 : Tee429
54 82 0 0 !102 : Tee300_Tee361
82 81 0 0 !103 : Tee361_Tee357
81 80 0 0 !104 : Tee357_Pump354
81 83 0 0 !105 : Tee357_Tee365
83 85 0 0 !106 : Tee365_Pump373
17 101 0 0 !107 : Rad133_Tee429
84 101 0 0 !108 : Tee369_Tee429
86 84 0 0 !109 : Rad376_Tee369
83 87 0 0 !110 : Tee365_Tee381
87 89 0 0 !111 : Tee381_Pump389
87 91 0 0 !112 : Tee381_Tee395
88 84 0 0 !113 : Tee385_Tee369
90 88 0 0 !114 : Rad392_Tee385
92 88 0 0 !115 : Tee399_Tee385
91 93 0 0 !116 : Tee395_Pump403
91 95 0 0 !117 : Tee395_Tee409
95 96 0 0 !118 : Tee409_Pump413
95 99 0 0 !119 : Tee409_Pump423
94 92 0 0 !120 : Rad406_Tee399
97 98 0 0 !121 : Rad416_Tee419
98 92 0 0 !122 : Tee419_Tee399
100 98 0 0 !123 : Rad426_Tee419
151 180 152 2 !124 : Tee461
152 153 154 2 !125 : Tee465
153 580 0 1 !126 : Pu431fRSE
537 149 150 2 !127 : Tee472
154 155 156 2 !128 : Tee476
155 583 0 1 !129 : Pu431fRNE
149 147 148 2 !130 : Tee483
156 157 158 2 !131 : Tee487
147 145 146 2 !132 : Tee491
157 584 0 1 !133 : Pu431fLSW
158 159 160 2 !134 : Tee498
159 588 0 1 !135 : Pu431fLNE
145 143 144 2 !136 : Tee505
160 161 162 2 !137 : Tee509
161 591 0 1 !138 : Pu43a1fRSW
143 141 142 2 !139 : Tee516
162 595 0 1 !140 : Pu43a1fRNE
23 139 0 0 !141 : Rad151_Tee516
22 139 0 0 !142 : Rad148_Tee516
139 136 0 0 !143 : Tee516_Tee505
21 136 0 0 !144 : Rad145_Tee505
136 132 0 0 !145 : Tee505_Tee491
20 132 0 0 !146 : Rad142_Tee491
132 130 0 0 !147 : Tee491_Tee483
19 130 0 0 !148 : Rad139_Tee483
130 127 0 0 !149 : Tee483_Tee472
18 127 0 0 !150 : Rad136_Tee472
82 124 0 0 !151 : Tee361_Tee461
124 125 0 0 !152 : Tee461_Tee465
125 126 0 0 !153 : Tee465_Pump469
125 128 0 0 !154 : Tee465_Tee476
128 129 0 0 !155 : Tee476_Pump480
128 131 0 0 !156 : Tee476_Tee487
131 133 0 0 !157 : Tee487_Pump495
131 134 0 0 !158 : Tee487_Tee498
134 135 0 0 !159 : Tee498_Pump502
134 137 0 0 !160 : Tee498_Tee509
137 138 0 0 !161 : Tee509_Pump513
137 140 0 0 !162 : Tee509_Pump520
180 220 181 2 !163 : Tee553
181 182 184 2 !164 : Tee557
182 582 0 1 !165 : Pu43a1fCSW
539 185 183 2 !166 : Tee564
184 186 188 2 !167 : Tee568
186 581 0 1 !168 : Pu43a1fLSW
185 193 187 2 !169 : Tee575
189 585 0 1 !170 : Pu43a1fLNW
188 189 191 2 !171 : Tee582
193 192 190 2 !172 : Tee586
191 194 196 2 !173 : Tee590
194 589 0 1 !174 : Pu43a1fLNE
192 199 195 2 !175 : Tee597
196 197 200 2 !176 : Tee601
199 201 198 2 !177 : Tee605
197 590 0 1 !178 : Pu432fRSW
200 596 0 1 !179 : Pu432fRSE
124 163 0 0 !180 : Tee461_Tee553
163 164 0 0 !181 : Tee553_Tee557
164 165 0 0 !182 : Tee557_Pump561
24 166 0 0 !183 : Rad154_Tee564
164 167 0 0 !184 : Tee557_Tee568
169 166 0 0 !185 : Tee575_Tee564
167 168 0 0 !186 : Tee568_Pump572
25 169 0 0 !187 : Rad157_Tee575
167 171 0 0 !188 : Tee568_Tee582
171 170 0 0 !189 : Tee582_Pump579
26 172 0 0 !190 : Rad160_Tee586
171 173 0 0 !191 : Tee582_Tee590
175 172 0 0 !192 : Tee597_Tee586
172 169 0 0 !193 : Tee586_Tee575
173 174 0 0 !194 : Tee590_Pump594
27 175 0 0 !195 : Rad163_Tee597
173 176 0 0 !196 : Tee590_Tee601
176 178 0 0 !197 : Tee601_Pump609
28 177 0 0 !198 : Rad166_Tee605
177 175 0 0 !199 : Tee605_Tee597
176 179 0 0 !200 : Tee601_Pump612
31 177 0 0 !201 : Rad175_Tee605
597 235 0 0 !202 : 43a2fCSW
220 259 221 2 !203 : Tee651
221 222 224 2 !204 : Tee655
222 639 0 1 !205 : Pu432fRNE
541 227 223 2 !206 : Tee662
225 638 0 1 !207 : Pu432fLSW
227 231 226 2 !208 : Tee673
229 612 0 1 !209 : Pu432fLNE
228 229 232 2 !210 : Tee680
231 240 230 2 !211 : Tee684
224 225 228 2 !212 : Tee690
232 241 233 2 !213 : Tee694
240 238 239 2 !214 : Tee698
241 605 0 1 !215 : Pu43a2fRSW
237 604 0 1 !216 : Pu43a2fRNE
234 597 0 1 !217 : Pu43a2fCSW
233 237 234 2 !218 : Tee711
238 235 236 2 !219 : Tee715
163 203 0 0 !220 : Tee553_Tee651
203 204 0 0 !221 : Tee651_Tee655
204 205 0 0 !222 : Tee655_Pump659
29 206 0 0 !223 : Rad169_Tee662
204 212 0 0 !224 : Tee655_Tee690
212 207 0 0 !225 : Tee690_Pump670
30 208 0 0 !226 : Rad172_Tee673
208 206 0 0 !227 : Tee673_Tee662
212 210 0 0 !228 : Tee690_Tee680
210 209 0 0 !229 : Tee680_Pump677
33 211 0 0 !230 : Rad181_Tee684
211 208 0 0 !231 : Tee684_Tee673
210 213 0 0 !232 : Tee680_Tee694
213 218 0 0 !233 : Tee694_Tee711
218 217 0 0 !234 : Tee711_Pump708
202 219 0 0 !235 : Rad648_Tee715
35 219 0 0 !236 : Rad187_Tee715
218 216 0 0 !237 : Tee711_Pump705
219 214 0 0 !238 : Tee715_Tee698
34 214 0 0 !239 : Rad184_Tee698
214 211 0 0 !240 : Tee698_Tee684
213 215 0 0 !241 : Tee694_Pump702
259 304 260 2 !242 : Tee755
260 261 262 2 !243 : Tee759
261 640 0 1 !244 : Pu43a2fLSW
543 264 263 2 !245 : Tee766
262 265 267 2 !246 : Tee770
265 637 0 1 !247 : Pu43a2fLNW
264 268 266 2 !248 : Tee777
267 269 271 2 !249 : Tee781
269 611 0 1 !250 : Pu43a2fLNE
268 272 270 2 !251 : Tee788
271 273 275 2 !252 : Tee792
273 606 0 1 !253 : Pu433fRSW
272 276 274 2 !254 : Tee799
275 277 279 2 !255 : Tee803
277 603 0 1 !256 : Pu433fRSE
276 280 278 2 !257 : Tee810
279 599 0 1 !258 : Pu433fRNE
203 242 0 0 !259 : Tee651_Tee755
242 243 0 0 !260 : Tee755_Tee759
243 244 0 0 !261 : Tee759_Pump763
243 246 0 0 !262 : Tee759_Tee770
36 245 0 0 !263 : Rad193_Tee766
248 245 0 0 !264 : Tee777_Tee766
246 247 0 0 !265 : Tee770_Pump774
32 248 0 0 !266 : Rad178_Tee777
246 249 0 0 !267 : Tee770_Tee781
251 248 0 0 !268 : Tee788_Tee777
249 250 0 0 !269 : Tee781_Pump785
38 251 0 0 !270 : Rad199_Tee788
249 252 0 0 !271 : Tee781_Tee792
254 251 0 0 !272 : Tee799_Tee788
252 253 0 0 !273 : Tee792_Pump796
37 254 0 0 !274 : Rad196_Tee799
252 255 0 0 !275 : Tee792_Tee803
257 254 0 0 !276 : Tee810_Tee799
255 256 0 0 !277 : Tee803_Pump807
39 257 0 0 !278 : Rad202_Tee810
255 258 0 0 !279 : Tee803_Pump818
40 257 0 0 !280 : Rad205_Tee810
641 308 0 0 !281 : 433fLSW
636 310 0 0 !282 : 433fLNE
610 315 0 0 !283 : 43a3fRSW
607 320 0 0 !284 : 43a3fRNE
602 323 0 0 !285 : 43a3fCSW
598 325 0 0 !286 : 43a3fLSW
305 306 307 2 !287 : Tee868
306 641 0 1 !288 : Pu433fLSW
545 313 308 2 !289 : Tee875
304 349 305 2 !290 : Tee879
307 309 311 2 !291 : Tee883
309 636 0 1 !292 : Pu433fLNE
313 312 310 2 !293 : Tee890
314 610 0 1 !294 : Pu43a3fRSW
311 314 316 2 !295 : Tee897
312 317 315 2 !296 : Tee901
316 318 319 2 !297 : Tee905
318 607 0 1 !298 : Pu43a3fRNE
317 321 320 2 !299 : Tee912
322 602 0 1 !300 : Pu43a3fCSW
319 322 324 2 !301 : Tee919
321 325 323 2 !302 : Tee923
324 598 0 1 !303 : Pu43a3fLSW
242 290 0 0 !304 : Tee755_Tee879
290 287 0 0 !305 : Tee879_Tee868
287 288 0 0 !306 : Tee868_Pump872
287 291 0 0 !307 : Tee868_Tee883
281 289 0 0 !308 : Rad850_Tee875
291 292 0 0 !309 : Tee883_Pump887
282 293 0 0 !310 : Rad853_Tee890
291 295 0 0 !311 : Tee883_Tee897
296 293 0 0 !312 : Tee901_Tee890
293 289 0 0 !313 : Tee890_Tee875
295 294 0 0 !314 : Tee897_Pump894
283 296 0 0 !315 : Rad856_Tee901
295 297 0 0 !316 : Tee897_Tee905
299 296 0 0 !317 : Tee912_Tee901
297 298 0 0 !318 : Tee905_Pump909
297 301 0 0 !319 : Tee905_Tee919
284 299 0 0 !320 : Rad859_Tee912
302 299 0 0 !321 : Tee923_Tee912
301 300 0 0 !322 : Tee919_Pump916
285 302 0 0 !323 : Rad862_Tee923
301 303 0 0 !324 : Tee919_Pump927
286 302 0 0 !325 : Rad865_Tee923
634 352 0 0 !326 : 43a3fLNW
635 356 0 0 !327 : 43a3fLNE
609 360 0 0 !328 : 43Att1
608 364 0 0 !329 : 43Att2
601 368 0 0 !330 : 43aAtt1
600 369 0 0 !331 : 43aAtt2
349 394 350 2 !332 : Tee977
350 351 353 2 !333 : Tee981
547 354 352 2 !334 : Tee985
351 634 0 1 !335 : Pu43a3fLNW
353 355 357 2 !336 : Tee992
355 635 0 1 !337 : Pu43a3fLNE
354 358 356 2 !338 : Tee999
359 609 0 1 !339 : Pu43Att1
357 359 361 2 !340 : Tee1006
358 362 360 2 !341 : Tee1010
361 363 365 2 !342 : Tee1014
363 608 0 1 !343 : Pu43Att2
362 366 364 2 !344 : Tee1021
367 601 0 1 !345 : Pu43aAtt1
365 367 370 2 !346 : Tee1028
366 369 368 2 !347 : Tee1032
370 600 0 1 !348 : Pu43aAtt2
290 332 0 0 !349 : Tee879_Tee977
332 333 0 0 !350 : Tee977_Tee981
333 335 0 0 !351 : Tee981_Pump989
326 334 0 0 !352 : Rad959_Tee985
333 336 0 0 !353 : Tee981_Tee992
338 334 0 0 !354 : Tee999_Tee985
336 337 0 0 !355 : Tee992_Pump996
327 338 0 0 !356 : Rad962_Tee999
336 340 0 0 !357 : Tee992_Tee1006
341 338 0 0 !358 : Tee1010_Tee999
340 339 0 0 !359 : Tee1006_Pump1003
328 341 0 0 !360 : Rad965_Tee1010
340 342 0 0 !361 : Tee1006_Tee1014
344 341 0 0 !362 : Tee1021_Tee1010
342 343 0 0 !363 : Tee1014_Pump1018
329 344 0 0 !364 : Rad968_Tee1021
342 346 0 0 !365 : Tee1014_Tee1028
347 344 0 0 !366 : Tee1032_Tee1021
346 345 0 0 !367 : Tee1028_Pump1025
330 347 0 0 !368 : Rad971_Tee1032
331 347 0 0 !369 : Rad974_Tee1032
346 348 0 0 !370 : Tee1028_Pump1036
632 397 0 0 !371 : 43aAtt3
633 401 0 0 !372 : Rad43GfR
624 405 0 0 !373 : Rad43GfL
619 409 0 0 !374 : Rad43aGfR
618 413 0 0 !375 : Rad43aGfC
613 412 0 0 !376 : Rad43aGfL
394 483 395 2 !377 : Tee1085
395 396 398 2 !378 : Tee1089
396 632 0 1 !379 : Pu43aAtt3
549 399 397 2 !380 : Tee1096
398 400 402 2 !381 : Tee1100
400 633 0 1 !382 : PuRad43GfR
399 403 401 2 !383 : Tee1107
402 404 406 2 !384 : Tee1111
404 624 0 1 !385 : PuRad43GfL
403 407 405 2 !386 : Tee1118
406 408 410 2 !387 : Tee1122
408 619 0 1 !388 : PuRad43aGfR
407 414 409 2 !389 : Tee1129
415 618 0 1 !390 : PuRad43aGfC
410 415 411 2 !391 : Tee1136
414 412 413 2 !392 : Tee1140
411 613 0 1 !393 : PuRad43aGfL
332 377 0 0 !394 : Tee977_Tee1085
377 378 0 0 !395 : Tee1085_Tee1089
378 379 0 0 !396 : Tee1089_Pump1093
371 380 0 0 !397 : Rad1067_Tee1096
378 381 0 0 !398 : Tee1089_Tee1100
383 380 0 0 !399 : Tee1107_Tee1096
381 382 0 0 !400 : Tee1100_Pump1104
372 383 0 0 !401 : Rad1070_Tee1107
381 384 0 0 !402 : Tee1100_Tee1111
386 383 0 0 !403 : Tee1118_Tee1107
384 385 0 0 !404 : Tee1111_Pump1115
373 386 0 0 !405 : Rad1073_Tee1118
384 387 0 0 !406 : Tee1111_Tee1122
389 386 0 0 !407 : Tee1129_Tee1118
387 388 0 0 !408 : Tee1122_Pump1126
374 389 0 0 !409 : Rad1076_Tee1129
387 391 0 0 !410 : Tee1122_Tee1136
391 393 0 0 !411 : Tee1136_Pump1144
376 392 0 0 !412 : Rad1082_Tee1140
375 392 0 0 !413 : Rad1079_Tee1140
392 389 0 0 !414 : Tee1140_Tee1129
391 390 0 0 !415 : Tee1136_Pump1133
631 441 0 0 !416 : Rad431fR
630 445 0 0 !417 : Rad431fL
623 451 0 0 !418 : Rad43a1fR
620 453 0 0 !419 : Rad43a1fC
617 455 0 0 !420 : Rad43a1fL
614 457 0 0 !421 : Rad432fR
483 484 439 2 !422 : Tee1199
439 440 442 2 !423 : Tee1203
440 631 0 1 !424 : PuRad431fR
551 443 441 2 !425 : Tee1210
442 444 446 2 !426 : Tee1214
444 630 0 1 !427 : PuRad431fL
443 448 445 2 !428 : Tee1221
446 450 447 2 !429 : Tee1225
450 623 0 1 !430 : PuRad43a1fR
448 449 451 2 !431 : Tee1232
452 620 0 1 !432 : PuRad43a1fC
447 452 459 2 !433 : Tee1239
449 458 453 2 !434 : Tee1243
458 457 455 2 !435 : Tee1247
459 454 456 2 !436 : Tee1251
454 617 0 1 !437 : PuRad43a1fL
456 614 0 1 !438 : PuRad432fR
422 423 0 0 !439 : Tee1199_Tee1203
423 424 0 0 !440 : Tee1203_Pump1207
416 425 0 0 !441 : Rad1175_Tee1210
423 426 0 0 !442 : Tee1203_Tee1214
428 425 0 0 !443 : Tee1221_Tee1210
426 427 0 0 !444 : Tee1214_Pump1218
417 428 0 0 !445 : Rad1178_Tee1221
426 429 0 0 !446 : Tee1214_Tee1225
429 433 0 0 !447 : Tee1225_Tee1239
431 428 0 0 !448 : Tee1232_Tee1221
434 431 0 0 !449 : Tee1243_Tee1232
429 430 0 0 !450 : Tee1225_Pump1229
418 431 0 0 !451 : Rad1181_Tee1232
433 432 0 0 !452 : Tee1239_Pump1236
419 434 0 0 !453 : Rad1190_Tee1243
436 437 0 0 !454 : Tee1251_Pump1255
420 435 0 0 !455 : Rad1193_Tee1247
436 438 0 0 !456 : Tee1251_Pump1258
421 435 0 0 !457 : Rad1196_Tee1247
435 434 0 0 !458 : Tee1247_Tee1243
433 436 0 0 !459 : Tee1239_Tee1251
628 487 0 0 !460 : Rad432fL
629 491 0 0 !461 : Rad43a2fR
622 493 0 0 !462 : Rad43a2fC
621 495 0 0 !463 : Rad43a2fL
616 503 0 0 !464 : Rad433fR
615 502 0 0 !465 : Rad433fL
484 559 485 2 !466 : Tee1306
485 486 488 2 !467 : Tee1310
486 628 0 1 !468 : PuRad432fL
553 489 487 2 !469 : Tee1317
488 490 496 2 !470 : Tee1321
490 629 0 1 !471 : PuRad43a2fR
489 499 491 2 !472 : Tee1328
492 622 0 1 !473 : PuRad43a2fC
496 492 497 2 !474 : Tee1335
499 498 493 2 !475 : Tee1339
497 494 500 2 !476 : Tee1343
494 621 0 1 !477 : PuRad43a2fL
498 504 495 2 !478 : Tee1350
500 505 501 2 !479 : Tee1354
505 616 0 1 !480 : PuRad433fR
504 502 503 2 !481 : Tee1361
501 615 0 1 !482 : PuRad433fL
377 422 0 0 !483 : Tee1085_Tee1199
422 466 0 0 !484 : Tee1199_Tee1306
466 467 0 0 !485 : Tee1306_Tee1310
467 468 0 0 !486 : Tee1310_Pump1314
460 469 0 0 !487 : Rad1288_Tee1317
467 470 0 0 !488 : Tee1310_Tee1321
472 469 0 0 !489 : Tee1328_Tee1317
470 471 0 0 !490 : Tee1321_Pump1325
461 472 0 0 !491 : Rad1291_Tee1328
474 473 0 0 !492 : Tee1335_Pump1332
462 475 0 0 !493 : Rad1294_Tee1339
476 477 0 0 !494 : Tee1343_Pump1347
463 478 0 0 !495 : Rad1297_Tee1350
470 474 0 0 !496 : Tee1321_Tee1335
474 476 0 0 !497 : Tee1335_Tee1343
478 475 0 0 !498 : Tee1350_Tee1339
475 472 0 0 !499 : Tee1339_Tee1328
476 479 0 0 !500 : Tee1343_Tee1354
479 482 0 0 !501 : Tee1354_Pump1365
465 481 0 0 !502 : Rad1303_Tee1361
464 481 0 0 !503 : Rad1300_Tee1361
481 478 0 0 !504 : Tee1361_Tee1350
479 480 0 0 !505 : Tee1354_Pump1358
627 517 0 0 !506 : Rad43a3fR
626 519 0 0 !507 : Rad43a3fC
625 522 0 0 !508 : Rad43a3fL
559 516 518 2 !509 : Tee1410
516 627 0 1 !510 : PuRad43a3fR
555 520 517 2 !511 : Tee1417
518 564 521 2 !512 : Tee1421
564 626 0 1 !513 : PuRad43a3fC
520 522 519 2 !514 : Tee1428
521 625 0 1 !515 : PuRad43a3fL
509 510 0 0 !516 : Tee1410_Pump1414
506 511 0 0 !517 : Rad1401_Tee1417
509 512 0 0 !518 : Tee1410_Tee1421
507 514 0 0 !519 : Rad1404_Tee1428
514 511 0 0 !520 : Tee1428_Tee1417
512 515 0 0 !521 : Tee1421_Pump1432
508 514 0 0 !522 : Rad1407_Tee1428
534 536 535 2 !523 : Tee1450
536 538 537 2 !524 : Tee1456
538 540 539 2 !525 : Tee1460
540 542 541 2 !526 : Tee1464
542 544 543 2 !527 : Tee1468
544 546 545 2 !528 : Tee1472
546 548 547 2 !529 : Tee1476
548 550 549 2 !530 : Tee1480
550 552 551 2 !531 : Tee1484
552 554 553 2 !532 : Tee1488
556 555 554 2 !533 : Tee1492
78 523 0 0 !534 : Tee347_Tee1450
101 523 0 0 !535 : Tee429_Tee1450
523 524 0 0 !536 : Tee1450_Tee1456
127 524 0 0 !537 : Tee472_Tee1456
524 525 0 0 !538 : Tee1456_Tee1460
166 525 0 0 !539 : Tee564_Tee1460
525 526 0 0 !540 : Tee1460_Tee1464
206 526 0 0 !541 : Tee662_Tee1464
526 527 0 0 !542 : Tee1464_Tee1468
245 527 0 0 !543 : Tee766_Tee1468
527 528 0 0 !544 : Tee1468_Tee1472
289 528 0 0 !545 : Tee875_Tee1472
528 529 0 0 !546 : Tee1472_Tee1476
334 529 0 0 !547 : Tee985_Tee1476
529 530 0 0 !548 : Tee1476_Tee1480
380 530 0 0 !549 : Tee1096_Tee1480
530 531 0 0 !550 : Tee1480_Tee1484
425 531 0 0 !551 : Tee1210_Tee1484
531 532 0 0 !552 : Tee1484_Tee1488
469 532 0 0 !553 : Tee1317_Tee1488
532 533 0 0 !554 : Tee1488_Tee1492
511 533 0 0 !555 : Tee1417_Tee1492
533 12 0 0 !556 : Tee1492_Tee86
558 570 0 1 !557 : PuHp
6 557 0 0 !558 : Tee27_Pump1527
466 509 0 0 !559 : Tee1306_Tee1410
5 10 0 0 !560 : ValHp_Tee73
562 563 569 2 !561 : Tee1569
561 6 0 0 !562 : Tee1569_Tee27
12 561 0 0 !563 : Tee86_Tee1569
512 513 0 0 !564 : Tee1421_PuRad43a3fC
10 11 0 0 !565 : Tee73_ValMixSh
12 11 0 0 !566 : Tee86_ValMixSh
11 54 0 0 !567 : ValMixSh_Tee300
10 3 0 0 !568 : Tee73_TesSh
3 561 0 0 !569 : TesSh_Tee1569
557 4 0 0 !570 : PuHp_AwHp
4 5 0 0 !571 : AwHp_ValHp
5 1 0 0 !572 : ValHp_TesDhw
41 78 0 0 !573 : 43GfRSW_Tee347
15 41 0 0 !574 : Pu43GfRSW_43GfRSW
42 13 0 0 !575 : Pu43GfRSE_43GfRSE
44 45 0 0 !576 : Pu43GfRNE_43GfRNE
89 90 0 0 !577 : Pu43aGfLSW_43aGfLSW
85 86 0 0 !578 : Pu43aGfCSW_43aGfCSW
80 17 0 0 !579 : Pu43aGfRNE_43aGfRNE
126 18 0 0 !580 : Pu431fRSE_431fRSE
168 25 0 0 !581 : Pu43a1fLSW_43a1fLSW
165 24 0 0 !582 : Pu43a1fCSW_43a1fCSW
129 19 0 0 !583 : Pu431fRNE_431fRNE
133 20 0 0 !584 : Pu431fLSW_431fLSW
170 26 0 0 !585 : Pu43a1fLNW_43a1fLNW
47 48 0 0 !586 : Pu43GfLSW_43GfLSW
93 94 0 0 !587 : Pu43aGfLNW_43aGfLNW
135 21 0 0 !588 : Pu431fLNE_431fLNE
174 27 0 0 !589 : Pu43a1fLNE_43a1fLNE
178 28 0 0 !590 : Pu432fRSW_432fRSW
138 22 0 0 !591 : Pu43a1fRSW_43a1fRSW
96 97 0 0 !592 : Pu43aGfLNE_43aGfLNE
50 51 0 0 !593 : Pu43GfLNE_43GfLNE
99 100 0 0 !594 : Pu431fRSW_431fRSW
140 23 0 0 !595 : Pu43a1fRNE_43a1fRNE
179 31 0 0 !596 : Pu432fRSE_432fRSE
217 202 0 0 !597 : Pu43a2fCSW_43a2fCSW
303 286 0 0 !598 : Pu43a3fLSW_43a3fLSW
258 40 0 0 !599 : Pu433fRNE_433fRNE
348 331 0 0 !600 : Pu43aAtt2_43aAtt2
345 330 0 0 !601 : Pu43aAtt1_43aAtt1
300 285 0 0 !602 : Pu43a3fCSW_43a3fCSW
256 39 0 0 !603 : Pu433fRSE_433fRSE
216 35 0 0 !604 : Pu43a2fRNE_43a2fRNE
215 34 0 0 !605 : Pu43a2fRSW_43a2fRSW
253 37 0 0 !606 : Pu433fRSW_433fRSW
298 284 0 0 !607 : Pu43a3fRNE_43a3fRNE
343 329 0 0 !608 : Pu43Att2_43Att2
339 328 0 0 !609 : Pu43Att1_43Att1
294 283 0 0 !610 : Pu43a3fRSW_43a3fRSW
250 38 0 0 !611 : Pu43a2fLNE_43a2fLNE
209 33 0 0 !612 : Pu432fLNE_432fLNE
393 376 0 0 !613 : PuRad43aGfL_Rad43aGfL
438 421 0 0 !614 : PuRad432fR_Rad432fR
482 465 0 0 !615 : PuRad433fL_Rad433fL
480 464 0 0 !616 : PuRad433fR_Rad433fR
437 420 0 0 !617 : PuRad43a1fL_Rad43a1fL
390 375 0 0 !618 : PuRad43aGfC_Rad43aGfC
388 374 0 0 !619 : PuRad43aGfR_Rad43aGfR
432 419 0 0 !620 : PuRad43a1fC_Rad43a1fC
477 463 0 0 !621 : PuRad43a2fL_Rad43a2fL
473 462 0 0 !622 : PuRad43a2fC_Rad43a2fC
430 418 0 0 !623 : PuRad43a1fR_Rad43a1fR
385 373 0 0 !624 : PuRad43GfL_Rad43GfL
515 508 0 0 !625 : PuRad43a3fL_Rad43a3fL
513 507 0 0 !626 : PuRad43a3fC_Rad43a3fC
510 506 0 0 !627 : PuRad43a3fR_Rad43a3fR
468 460 0 0 !628 : PuRad432fL_Rad432fL
471 461 0 0 !629 : PuRad43a2fR_Rad43a2fR
427 417 0 0 !630 : PuRad431fL_Rad431fL
424 416 0 0 !631 : PuRad431fR_Rad431fR
379 371 0 0 !632 : Pu43aAtt3_43aAtt3
382 372 0 0 !633 : PuRad43GfR_Rad43GfR
335 326 0 0 !634 : Pu43a3fLNW_43a3fLNW
337 327 0 0 !635 : Pu43a3fLNE_43a3fLNE
292 282 0 0 !636 : Pu433fLNE_433fLNE
247 32 0 0 !637 : Pu43a2fLNW_43a2fLNW
207 30 0 0 !638 : Pu432fLSW_432fLSW
205 29 0 0 !639 : Pu432fRNE_432fRNE
244 36 0 0 !640 : Pu43a2fLSW_43a2fLSW
288 281 0 0 !641 : Pu433fLSW_433fLSW
52 53 0 0 !642 : Pu43aGfRSW_43aGfRSW
647 650 0 1 !643 : PuDhw
648 651 649 2 !644 : Tee1724
647 646 649 3 !645 : ValMixDhw
2 645 0 0 !646 : TesDhw_ValMixDhw
645 643 0 0 !647 : ValMixDhw_PuDhw
644 2 0 0 !648 : Tee1724_TesDhw
644 645 0 0 !649 : Tee1724_ValMixDhw
643 8 0 0 !650 : PuDhw_WtDhwOut
9 644 0 0 !651 : WtDhwIn_Tee1724
INPUTS 651! for Type 9351
0,0 0,0 0,0 0,0 xFracValHp 0,0 0,0 0,0 MfrWtDhwIn 0,0
xFracValMixSh 0,0 0,0 0,0 MfrPu43GfRSW 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 MfrPu43GfRSE 0,0 MfrPu43GfRNE 0,0 0,0 MfrPu43GfLSW 0,0 0,0 MfrPu43GfLNE
0,0 MfrPu43aGfRSW 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 MfrPu43aGfRNE
0,0 0,0 0,0 0,0 MfrPu43aGfCSW 0,0 0,0 0,0 MfrPu43aGfLSW 0,0
0,0 0,0 MfrPu43aGfLNW 0,0 0,0 MfrPu43aGfLNE 0,0 0,0 MfrPu431fRSW 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 MfrPu431fRSE 0,0 0,0 MfrPu431fRNE 0,0
0,0 0,0 MfrPu431fLSW 0,0 MfrPu431fLNE 0,0 0,0 MfrPu43a1fRSW 0,0 MfrPu43a1fRNE
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 MfrPu43a1fCSW 0,0 0,0 MfrPu43a1fLSW 0,0 MfrPu43a1fLNW
0,0 0,0 0,0 MfrPu43a1fLNE 0,0 0,0 0,0 MfrPu432fRSW MfrPu432fRSE 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 MfrPu432fRNE 0,0 MfrPu432fLSW 0,0 MfrPu432fLNE 0,0
0,0 0,0 0,0 0,0 MfrPu43a2fRSW MfrPu43a2fRNE MfrPu43a2fCSW 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 MfrPu43a2fLSW 0,0 0,0 MfrPu43a2fLNW 0,0 0,0 MfrPu43a2fLNE
0,0 0,0 MfrPu433fRSW 0,0 0,0 MfrPu433fRSE 0,0 MfrPu433fRNE 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 MfrPu433fLSW 0,0 0,0
0,0 MfrPu433fLNE 0,0 MfrPu43a3fRSW 0,0 0,0 0,0 MfrPu43a3fRNE 0,0 MfrPu43a3fCSW
0,0 0,0 MfrPu43a3fLSW 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 MfrPu43a3fLNW 0,0 MfrPu43a3fLNE 0,0 MfrPu43Att1 0,0
0,0 0,0 MfrPu43Att2 0,0 MfrPu43aAtt1 0,0 0,0 MfrPu43aAtt2 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 MfrPu43aAtt3 0,0
0,0 MfrPuRad43GfR 0,0 0,0 MfrPuRad43GfL 0,0 0,0 MfrPuRad43aGfR 0,0 MfrPuRad43aGfC
0,0 0,0 MfrPuRad43aGfL 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 MfrPuRad431fR 0,0 0,0 MfrPuRad431fL 0,0 0,0 MfrPuRad43a1fR
0,0 MfrPuRad43a1fC 0,0 0,0 0,0 0,0 MfrPuRad43a1fL MfrPuRad432fR 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 MfrPuRad432fL 0,0 0,0
MfrPuRad43a2fR 0,0 MfrPuRad43a2fC 0,0 0,0 0,0 MfrPuRad43a2fL 0,0 0,0 MfrPuRad433fR
0,0 MfrPuRad433fL 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 MfrPuRad43a3fR
0,0 0,0 MfrPuRad43a3fC 0,0 MfrPuRad43a3fL 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 MfrPuHp 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0 0,0
0,0 0,0 MfrPuDhw 0,0 xFracValMixDhw 0,0 0,0 0,0 0,0 0,0
0,0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0 0 0 0 0 0 0 0 0 0
0
EQUATIONS 1444 ! Output up to three (A,B,C) mass flow rates of each component, positive = input/inlet, negative = output/outlet
MTesDhwHxHpDhw_A=[203,1] !Changed automatically
MTesDhwHxHpDhw_B=[203,2] !Changed automatically
MTesDhwDpR1_99_A=[203,4] !Changed automatically
MTesDhwDpR1_99_B=[203,5] !Changed automatically
MTesShDpL99_1_A=[203,7] !Changed automatically
MTesShDpL99_1_B=[203,8] !Changed automatically
MAwHp_A=[203,10] !Changed automatically
MAwHp_B=[203,11] !Changed automatically
MValHp_A=[203,13] !Changed automatically
MValHp_B=[203,14] !Changed automatically
MValHp_C=[203,15] !Changed automatically
MTee27_A=[203,16] !Changed automatically
MTee27_B=[203,17] !Changed automatically
MTee27_C=[203,18] !Changed automatically
MTesDhw_Tee27_A=[203,19] !Changed automatically
MTesDhw_Tee27_B=[203,20] !Changed automatically
MWtDhwOut_A=[203,22] !Changed automatically
MWtDhwIn_A=[203,25] !Changed automatically
MTee73_A=[203,28] !Changed automatically
MTee73_B=[203,29] !Changed automatically
MTee73_C=[203,30] !Changed automatically
MValMixSh_A=[203,31] !Changed automatically
MValMixSh_B=[203,32] !Changed automatically
MValMixSh_C=[203,33] !Changed automatically
MTee86_A=[203,34] !Changed automatically
MTee86_B=[203,35] !Changed automatically
MTee86_C=[203,36] !Changed automatically
M43GfRSE_A=[203,37] !Changed automatically
M43GfRSE_B=[203,38] !Changed automatically
MTee117_A=[203,40] !Changed automatically
MTee117_B=[203,41] !Changed automatically
MTee117_C=[203,42] !Changed automatically
MPu43GfRSW_A=[203,43] !Changed automatically
MPu43GfRSW_B=[203,44] !Changed automatically
MTee127_A=[203,46] !Changed automatically
MTee127_B=[203,47] !Changed automatically
MTee127_C=[203,48] !Changed automatically
M43aGfRNE_A=[203,49] !Changed automatically
M43aGfRNE_B=[203,50] !Changed automatically
M431fRSE_A=[203,52] !Changed automatically
M431fRSE_B=[203,53] !Changed automatically
M431fRNE_A=[203,55] !Changed automatically
M431fRNE_B=[203,56] !Changed automatically
M431fLSW_A=[203,58] !Changed automatically
M431fLSW_B=[203,59] !Changed automatically
M431fLNE_A=[203,61] !Changed automatically
M431fLNE_B=[203,62] !Changed automatically
M43a1fRSW_A=[203,64] !Changed automatically
M43a1fRSW_B=[203,65] !Changed automatically
M43a1fRNE_A=[203,67] !Changed automatically
M43a1fRNE_B=[203,68] !Changed automatically
M43a1fCSW_A=[203,70] !Changed automatically
M43a1fCSW_B=[203,71] !Changed automatically
M43a1fLSW_A=[203,73] !Changed automatically
M43a1fLSW_B=[203,74] !Changed automatically
M43a1fLNW_A=[203,76] !Changed automatically
M43a1fLNW_B=[203,77] !Changed automatically
M43a1fLNE_A=[203,79] !Changed automatically
M43a1fLNE_B=[203,80] !Changed automatically
M432fRSW_A=[203,82] !Changed automatically
M432fRSW_B=[203,83] !Changed automatically
M432fRNE_A=[203,85] !Changed automatically
M432fRNE_B=[203,86] !Changed automatically
M432fLSW_A=[203,88] !Changed automatically
M432fLSW_B=[203,89] !Changed automatically
M432fRSE_A=[203,91] !Changed automatically
M432fRSE_B=[203,92] !Changed automatically
M43a2fLNW_A=[203,94] !Changed automatically
M43a2fLNW_B=[203,95] !Changed automatically
M432fLNE_A=[203,97] !Changed automatically
M432fLNE_B=[203,98] !Changed automatically
M43a2fRSW_A=[203,100] !Changed automatically
M43a2fRSW_B=[203,101] !Changed automatically
M43a2fRNE_A=[203,103] !Changed automatically
M43a2fRNE_B=[203,104] !Changed automatically
M43a2fLSW_A=[203,106] !Changed automatically
M43a2fLSW_B=[203,107] !Changed automatically
M433fRSW_A=[203,109] !Changed automatically
M433fRSW_B=[203,110] !Changed automatically
M43a2fLNE_A=[203,112] !Changed automatically
M43a2fLNE_B=[203,113] !Changed automatically
M433fRSE_A=[203,115] !Changed automatically
M433fRSE_B=[203,116] !Changed automatically
M433fRNE_A=[203,118] !Changed automatically
M433fRNE_B=[203,119] !Changed automatically
M43GfRSW_A=[203,121] !Changed automatically
M43GfRSW_B=[203,122] !Changed automatically
MPu43GfRSE_A=[203,124] !Changed automatically
MPu43GfRSE_B=[203,125] !Changed automatically
MTee258_A=[203,127] !Changed automatically
MTee258_B=[203,128] !Changed automatically
MTee258_C=[203,129] !Changed automatically
MPu43GfRNE_A=[203,130] !Changed automatically
MPu43GfRNE_B=[203,131] !Changed automatically
M43GfRNE_A=[203,133] !Changed automatically
M43GfRNE_B=[203,134] !Changed automatically
MTee268_A=[203,136] !Changed automatically
MTee268_B=[203,137] !Changed automatically
MTee268_C=[203,138] !Changed automatically
MPu43GfLSW_A=[203,139] !Changed automatically
MPu43GfLSW_B=[203,140] !Changed automatically
M43GfLSW_A=[203,142] !Changed automatically
M43GfLSW_B=[203,143] !Changed automatically
MTee278_A=[203,145] !Changed automatically
MTee278_B=[203,146] !Changed automatically
MTee278_C=[203,147] !Changed automatically
MPu43GfLNE_A=[203,148] !Changed automatically
MPu43GfLNE_B=[203,149] !Changed automatically
M43GfLNE_A=[203,151] !Changed automatically
M43GfLNE_B=[203,152] !Changed automatically
MPu43aGfRSW_A=[203,154] !Changed automatically
MPu43aGfRSW_B=[203,155] !Changed automatically
M43aGfRSW_A=[203,157] !Changed automatically
M43aGfRSW_B=[203,158] !Changed automatically
MTee300_A=[203,160] !Changed automatically
MTee300_B=[203,161] !Changed automatically
MTee300_C=[203,162] !Changed automatically
MTee300_Tee117_A=[203,163] !Changed automatically
MTee300_Tee117_B=[203,164] !Changed automatically
MTee117_Pump122_A=[203,166] !Changed automatically
MTee117_Pump122_B=[203,167] !Changed automatically
MTee258_Pump255_A=[203,169] !Changed automatically
MTee258_Pump255_B=[203,170] !Changed automatically
MTee127_Pump262_A=[203,172] !Changed automatically
MTee127_Pump262_B=[203,173] !Changed automatically
MTee268_Pump272_A=[203,175] !Changed automatically
MTee268_Pump272_B=[203,176] !Changed automatically
MTee278_Pump282_A=[203,178] !Changed automatically
MTee278_Pump282_B=[203,179] !Changed automatically
MTee278_Pump293_A=[203,181] !Changed automatically
MTee278_Pump293_B=[203,182] !Changed automatically
MTee268_Tee278_A=[203,184] !Changed automatically
MTee268_Tee278_B=[203,185] !Changed automatically
MTee117_Tee258_A=[203,187] !Changed automatically
MTee117_Tee258_B=[203,188] !Changed automatically
MTee258_Tee127_A=[203,190] !Changed automatically
MTee258_Tee127_B=[203,191] !Changed automatically
MTee127_Tee268_A=[203,193] !Changed automatically
MTee127_Tee268_B=[203,194] !Changed automatically
MTee323_A=[203,196] !Changed automatically
MTee323_B=[203,197] !Changed automatically
MTee323_C=[203,198] !Changed automatically
MRad296_Tee323_A=[203,199] !Changed automatically
MRad296_Tee323_B=[203,200] !Changed automatically
MRad285_Tee323_A=[203,202] !Changed automatically
MRad285_Tee323_B=[203,203] !Changed automatically
MTee329_A=[203,205] !Changed automatically
MTee329_B=[203,206] !Changed automatically
MTee329_C=[203,207] !Changed automatically
MTee323_Tee329_A=[203,208] !Changed automatically
MTee323_Tee329_B=[203,209] !Changed automatically
MRad275_Tee329_A=[203,211] !Changed automatically
MRad275_Tee329_B=[203,212] !Changed automatically
MTee335_A=[203,214] !Changed automatically
MTee335_B=[203,215] !Changed automatically
MTee335_C=[203,216] !Changed automatically
MTee329_Tee335_A=[203,217] !Changed automatically
MTee329_Tee335_B=[203,218] !Changed automatically
MRad265_Tee335_A=[203,220] !Changed automatically
MRad265_Tee335_B=[203,221] !Changed automatically
MTee341_A=[203,223] !Changed automatically
MTee341_B=[203,224] !Changed automatically
MTee341_C=[203,225] !Changed automatically
MTee335_Tee341_A=[203,226] !Changed automatically
MTee335_Tee341_B=[203,227] !Changed automatically
MRad114_Tee341_A=[203,229] !Changed automatically
MRad114_Tee341_B=[203,230] !Changed automatically
MTee347_A=[203,232] !Changed automatically
MTee347_B=[203,233] !Changed automatically
MTee347_C=[203,234] !Changed automatically
MTee341_Tee347_A=[203,235] !Changed automatically
MTee341_Tee347_B=[203,236] !Changed automatically
MPu43aGfRNE_A=[203,238] !Changed automatically
MPu43aGfRNE_B=[203,239] !Changed automatically
MTee357_A=[203,241] !Changed automatically
MTee357_B=[203,242] !Changed automatically
MTee357_C=[203,243] !Changed automatically
MTee361_A=[203,244] !Changed automatically
MTee361_B=[203,245] !Changed automatically
MTee361_C=[203,246] !Changed automatically
MTee365_A=[203,247] !Changed automatically
MTee365_B=[203,248] !Changed automatically
MTee365_C=[203,249] !Changed automatically
MTee369_A=[203,250] !Changed automatically
MTee369_B=[203,251] !Changed automatically
MTee369_C=[203,252] !Changed automatically
MPu43aGfCSW_A=[203,253] !Changed automatically
MPu43aGfCSW_B=[203,254] !Changed automatically
M43aGfCSW_A=[203,256] !Changed automatically
M43aGfCSW_B=[203,257] !Changed automatically
MTee381_A=[203,259] !Changed automatically
MTee381_B=[203,260] !Changed automatically
MTee381_C=[203,261] !Changed automatically
MTee385_A=[203,262] !Changed automatically
MTee385_B=[203,263] !Changed automatically
MTee385_C=[203,264] !Changed automatically
MPu43aGfLSW_A=[203,265] !Changed automatically
MPu43aGfLSW_B=[203,266] !Changed automatically
M43aGfLSW_A=[203,268] !Changed automatically
M43aGfLSW_B=[203,269] !Changed automatically
MTee395_A=[203,271] !Changed automatically
MTee395_B=[203,272] !Changed automatically
MTee395_C=[203,273] !Changed automatically
MTee399_A=[203,274] !Changed automatically
MTee399_B=[203,275] !Changed automatically
MTee399_C=[203,276] !Changed automatically
MPu43aGfLNW_A=[203,277] !Changed automatically
MPu43aGfLNW_B=[203,278] !Changed automatically
M43aGfLNW_A=[203,280] !Changed automatically
M43aGfLNW_B=[203,281] !Changed automatically
MTee409_A=[203,283] !Changed automatically
MTee409_B=[203,284] !Changed automatically
MTee409_C=[203,285] !Changed automatically
MPu43aGfLNE_A=[203,286] !Changed automatically
MPu43aGfLNE_B=[203,287] !Changed automatically
M43aGfLNE_A=[203,289] !Changed automatically
M43aGfLNE_B=[203,290] !Changed automatically
MTee419_A=[203,292] !Changed automatically
MTee419_B=[203,293] !Changed automatically
MTee419_C=[203,294] !Changed automatically
MPu431fRSW_A=[203,295] !Changed automatically
MPu431fRSW_B=[203,296] !Changed automatically
M431fRSW_A=[203,298] !Changed automatically
M431fRSW_B=[203,299] !Changed automatically
MTee429_A=[203,301] !Changed automatically
MTee429_B=[203,302] !Changed automatically
MTee429_C=[203,303] !Changed automatically
MTee300_Tee361_A=[203,304] !Changed automatically
MTee300_Tee361_B=[203,305] !Changed automatically
MTee361_Tee357_A=[203,307] !Changed automatically
MTee361_Tee357_B=[203,308] !Changed automatically
MTee357_Pump354_A=[203,310] !Changed automatically
MTee357_Pump354_B=[203,311] !Changed automatically
MTee357_Tee365_A=[203,313] !Changed automatically
MTee357_Tee365_B=[203,314] !Changed automatically
MTee365_Pump373_A=[203,316] !Changed automatically
MTee365_Pump373_B=[203,317] !Changed automatically
MRad133_Tee429_A=[203,319] !Changed automatically
MRad133_Tee429_B=[203,320] !Changed automatically
MTee369_Tee429_A=[203,322] !Changed automatically
MTee369_Tee429_B=[203,323] !Changed automatically
MRad376_Tee369_A=[203,325] !Changed automatically
MRad376_Tee369_B=[203,326] !Changed automatically
MTee365_Tee381_A=[203,328] !Changed automatically
MTee365_Tee381_B=[203,329] !Changed automatically
MTee381_Pump389_A=[203,331] !Changed automatically
MTee381_Pump389_B=[203,332] !Changed automatically
MTee381_Tee395_A=[203,334] !Changed automatically
MTee381_Tee395_B=[203,335] !Changed automatically
MTee385_Tee369_A=[203,337] !Changed automatically
MTee385_Tee369_B=[203,338] !Changed automatically
MRad392_Tee385_A=[203,340] !Changed automatically
MRad392_Tee385_B=[203,341] !Changed automatically
MTee399_Tee385_A=[203,343] !Changed automatically
MTee399_Tee385_B=[203,344] !Changed automatically
MTee395_Pump403_A=[203,346] !Changed automatically
MTee395_Pump403_B=[203,347] !Changed automatically
MTee395_Tee409_A=[203,349] !Changed automatically
MTee395_Tee409_B=[203,350] !Changed automatically
MTee409_Pump413_A=[203,352] !Changed automatically
MTee409_Pump413_B=[203,353] !Changed automatically
MTee409_Pump423_A=[203,355] !Changed automatically
MTee409_Pump423_B=[203,356] !Changed automatically
MRad406_Tee399_A=[203,358] !Changed automatically
MRad406_Tee399_B=[203,359] !Changed automatically
MRad416_Tee419_A=[203,361] !Changed automatically
MRad416_Tee419_B=[203,362] !Changed automatically
MTee419_Tee399_A=[203,364] !Changed automatically
MTee419_Tee399_B=[203,365] !Changed automatically
MRad426_Tee419_A=[203,367] !Changed automatically
MRad426_Tee419_B=[203,368] !Changed automatically
MTee461_A=[203,370] !Changed automatically
MTee461_B=[203,371] !Changed automatically
MTee461_C=[203,372] !Changed automatically
MTee465_A=[203,373] !Changed automatically
MTee465_B=[203,374] !Changed automatically
MTee465_C=[203,375] !Changed automatically
MPu431fRSE_A=[203,376] !Changed automatically
MPu431fRSE_B=[203,377] !Changed automatically
MTee472_A=[203,379] !Changed automatically
MTee472_B=[203,380] !Changed automatically
MTee472_C=[203,381] !Changed automatically
MTee476_A=[203,382] !Changed automatically
MTee476_B=[203,383] !Changed automatically
MTee476_C=[203,384] !Changed automatically
MPu431fRNE_A=[203,385] !Changed automatically
MPu431fRNE_B=[203,386] !Changed automatically
MTee483_A=[203,388] !Changed automatically
MTee483_B=[203,389] !Changed automatically
MTee483_C=[203,390] !Changed automatically
MTee487_A=[203,391] !Changed automatically
MTee487_B=[203,392] !Changed automatically
MTee487_C=[203,393] !Changed automatically
MTee491_A=[203,394] !Changed automatically
MTee491_B=[203,395] !Changed automatically
MTee491_C=[203,396] !Changed automatically
MPu431fLSW_A=[203,397] !Changed automatically
MPu431fLSW_B=[203,398] !Changed automatically
MTee498_A=[203,400] !Changed automatically
MTee498_B=[203,401] !Changed automatically
MTee498_C=[203,402] !Changed automatically
MPu431fLNE_A=[203,403] !Changed automatically
MPu431fLNE_B=[203,404] !Changed automatically
MTee505_A=[203,406] !Changed automatically
MTee505_B=[203,407] !Changed automatically
MTee505_C=[203,408] !Changed automatically
MTee509_A=[203,409] !Changed automatically
MTee509_B=[203,410] !Changed automatically
MTee509_C=[203,411] !Changed automatically
MPu43a1fRSW_A=[203,412] !Changed automatically
MPu43a1fRSW_B=[203,413] !Changed automatically
MTee516_A=[203,415] !Changed automatically
MTee516_B=[203,416] !Changed automatically
MTee516_C=[203,417] !Changed automatically
MPu43a1fRNE_A=[203,418] !Changed automatically
MPu43a1fRNE_B=[203,419] !Changed automatically
MRad151_Tee516_A=[203,421] !Changed automatically
MRad151_Tee516_B=[203,422] !Changed automatically
MRad148_Tee516_A=[203,424] !Changed automatically
MRad148_Tee516_B=[203,425] !Changed automatically
MTee516_Tee505_A=[203,427] !Changed automatically
MTee516_Tee505_B=[203,428] !Changed automatically
MRad145_Tee505_A=[203,430] !Changed automatically
MRad145_Tee505_B=[203,431] !Changed automatically
MTee505_Tee491_A=[203,433] !Changed automatically
MTee505_Tee491_B=[203,434] !Changed automatically
MRad142_Tee491_A=[203,436] !Changed automatically
MRad142_Tee491_B=[203,437] !Changed automatically
MTee491_Tee483_A=[203,439] !Changed automatically
MTee491_Tee483_B=[203,440] !Changed automatically
MRad139_Tee483_A=[203,442] !Changed automatically
MRad139_Tee483_B=[203,443] !Changed automatically
MTee483_Tee472_A=[203,445] !Changed automatically
MTee483_Tee472_B=[203,446] !Changed automatically
MRad136_Tee472_A=[203,448] !Changed automatically
MRad136_Tee472_B=[203,449] !Changed automatically
MTee361_Tee461_A=[203,451] !Changed automatically
MTee361_Tee461_B=[203,452] !Changed automatically
MTee461_Tee465_A=[203,454] !Changed automatically
MTee461_Tee465_B=[203,455] !Changed automatically
MTee465_Pump469_A=[203,457] !Changed automatically
MTee465_Pump469_B=[203,458] !Changed automatically
MTee465_Tee476_A=[203,460] !Changed automatically
MTee465_Tee476_B=[203,461] !Changed automatically
MTee476_Pump480_A=[203,463] !Changed automatically
MTee476_Pump480_B=[203,464] !Changed automatically
MTee476_Tee487_A=[203,466] !Changed automatically
MTee476_Tee487_B=[203,467] !Changed automatically
MTee487_Pump495_A=[203,469] !Changed automatically
MTee487_Pump495_B=[203,470] !Changed automatically
MTee487_Tee498_A=[203,472] !Changed automatically
MTee487_Tee498_B=[203,473] !Changed automatically
MTee498_Pump502_A=[203,475] !Changed automatically
MTee498_Pump502_B=[203,476] !Changed automatically
MTee498_Tee509_A=[203,478] !Changed automatically
MTee498_Tee509_B=[203,479] !Changed automatically
MTee509_Pump513_A=[203,481] !Changed automatically
MTee509_Pump513_B=[203,482] !Changed automatically
MTee509_Pump520_A=[203,484] !Changed automatically
MTee509_Pump520_B=[203,485] !Changed automatically
MTee553_A=[203,487] !Changed automatically
MTee553_B=[203,488] !Changed automatically
MTee553_C=[203,489] !Changed automatically
MTee557_A=[203,490] !Changed automatically
MTee557_B=[203,491] !Changed automatically
MTee557_C=[203,492] !Changed automatically
MPu43a1fCSW_A=[203,493] !Changed automatically
MPu43a1fCSW_B=[203,494] !Changed automatically
MTee564_A=[203,496] !Changed automatically
MTee564_B=[203,497] !Changed automatically
MTee564_C=[203,498] !Changed automatically
MTee568_A=[203,499] !Changed automatically
MTee568_B=[203,500] !Changed automatically
MTee568_C=[203,501] !Changed automatically
MPu43a1fLSW_A=[203,502] !Changed automatically
MPu43a1fLSW_B=[203,503] !Changed automatically
MTee575_A=[203,505] !Changed automatically
MTee575_B=[203,506] !Changed automatically
MTee575_C=[203,507] !Changed automatically
MPu43a1fLNW_A=[203,508] !Changed automatically
MPu43a1fLNW_B=[203,509] !Changed automatically
MTee582_A=[203,511] !Changed automatically
MTee582_B=[203,512] !Changed automatically
MTee582_C=[203,513] !Changed automatically
MTee586_A=[203,514] !Changed automatically
MTee586_B=[203,515] !Changed automatically
MTee586_C=[203,516] !Changed automatically
MTee590_A=[203,517] !Changed automatically
MTee590_B=[203,518] !Changed automatically
MTee590_C=[203,519] !Changed automatically
MPu43a1fLNE_A=[203,520] !Changed automatically
MPu43a1fLNE_B=[203,521] !Changed automatically
MTee597_A=[203,523] !Changed automatically
MTee597_B=[203,524] !Changed automatically
MTee597_C=[203,525] !Changed automatically
MTee601_A=[203,526] !Changed automatically
MTee601_B=[203,527] !Changed automatically
MTee601_C=[203,528] !Changed automatically
MTee605_A=[203,529] !Changed automatically
MTee605_B=[203,530] !Changed automatically
MTee605_C=[203,531] !Changed automatically
MPu432fRSW_A=[203,532] !Changed automatically
MPu432fRSW_B=[203,533] !Changed automatically
MPu432fRSE_A=[203,535] !Changed automatically
MPu432fRSE_B=[203,536] !Changed automatically
MTee461_Tee553_A=[203,538] !Changed automatically
MTee461_Tee553_B=[203,539] !Changed automatically
MTee553_Tee557_A=[203,541] !Changed automatically
MTee553_Tee557_B=[203,542] !Changed automatically
MTee557_Pump561_A=[203,544] !Changed automatically
MTee557_Pump561_B=[203,545] !Changed automatically
MRad154_Tee564_A=[203,547] !Changed automatically
MRad154_Tee564_B=[203,548] !Changed automatically
MTee557_Tee568_A=[203,550] !Changed automatically
MTee557_Tee568_B=[203,551] !Changed automatically
MTee575_Tee564_A=[203,553] !Changed automatically
MTee575_Tee564_B=[203,554] !Changed automatically
MTee568_Pump572_A=[203,556] !Changed automatically
MTee568_Pump572_B=[203,557] !Changed automatically
MRad157_Tee575_A=[203,559] !Changed automatically
MRad157_Tee575_B=[203,560] !Changed automatically
MTee568_Tee582_A=[203,562] !Changed automatically
MTee568_Tee582_B=[203,563] !Changed automatically
MTee582_Pump579_A=[203,565] !Changed automatically
MTee582_Pump579_B=[203,566] !Changed automatically
MRad160_Tee586_A=[203,568] !Changed automatically
MRad160_Tee586_B=[203,569] !Changed automatically
MTee582_Tee590_A=[203,571] !Changed automatically
MTee582_Tee590_B=[203,572] !Changed automatically
MTee597_Tee586_A=[203,574] !Changed automatically
MTee597_Tee586_B=[203,575] !Changed automatically
MTee586_Tee575_A=[203,577] !Changed automatically
MTee586_Tee575_B=[203,578] !Changed automatically
MTee590_Pump594_A=[203,580] !Changed automatically
MTee590_Pump594_B=[203,581] !Changed automatically
MRad163_Tee597_A=[203,583] !Changed automatically
MRad163_Tee597_B=[203,584] !Changed automatically
MTee590_Tee601_A=[203,586] !Changed automatically
MTee590_Tee601_B=[203,587] !Changed automatically
MTee601_Pump609_A=[203,589] !Changed automatically
MTee601_Pump609_B=[203,590] !Changed automatically
MRad166_Tee605_A=[203,592] !Changed automatically
MRad166_Tee605_B=[203,593] !Changed automatically
MTee605_Tee597_A=[203,595] !Changed automatically
MTee605_Tee597_B=[203,596] !Changed automatically
MTee601_Pump612_A=[203,598] !Changed automatically
MTee601_Pump612_B=[203,599] !Changed automatically
MRad175_Tee605_A=[203,601] !Changed automatically
MRad175_Tee605_B=[203,602] !Changed automatically
M43a2fCSW_A=[203,604] !Changed automatically
M43a2fCSW_B=[203,605] !Changed automatically
MTee651_A=[203,607] !Changed automatically
MTee651_B=[203,608] !Changed automatically
MTee651_C=[203,609] !Changed automatically
MTee655_A=[203,610] !Changed automatically
MTee655_B=[203,611] !Changed automatically
MTee655_C=[203,612] !Changed automatically
MPu432fRNE_A=[203,613] !Changed automatically
MPu432fRNE_B=[203,614] !Changed automatically
MTee662_A=[203,616] !Changed automatically
MTee662_B=[203,617] !Changed automatically
MTee662_C=[203,618] !Changed automatically
MPu432fLSW_A=[203,619] !Changed automatically
MPu432fLSW_B=[203,620] !Changed automatically
MTee673_A=[203,622] !Changed automatically
MTee673_B=[203,623] !Changed automatically
MTee673_C=[203,624] !Changed automatically
MPu432fLNE_A=[203,625] !Changed automatically
MPu432fLNE_B=[203,626] !Changed automatically
MTee680_A=[203,628] !Changed automatically
MTee680_B=[203,629] !Changed automatically
MTee680_C=[203,630] !Changed automatically
MTee684_A=[203,631] !Changed automatically
MTee684_B=[203,632] !Changed automatically
MTee684_C=[203,633] !Changed automatically
MTee690_A=[203,634] !Changed automatically
MTee690_B=[203,635] !Changed automatically
MTee690_C=[203,636] !Changed automatically
MTee694_A=[203,637] !Changed automatically
MTee694_B=[203,638] !Changed automatically
MTee694_C=[203,639] !Changed automatically
MTee698_A=[203,640] !Changed automatically
MTee698_B=[203,641] !Changed automatically
MTee698_C=[203,642] !Changed automatically
MPu43a2fRSW_A=[203,643] !Changed automatically
MPu43a2fRSW_B=[203,644] !Changed automatically
MPu43a2fRNE_A=[203,646] !Changed automatically
MPu43a2fRNE_B=[203,647] !Changed automatically
MPu43a2fCSW_A=[203,649] !Changed automatically
MPu43a2fCSW_B=[203,650] !Changed automatically
MTee711_A=[203,652] !Changed automatically
MTee711_B=[203,653] !Changed automatically
MTee711_C=[203,654] !Changed automatically
MTee715_A=[203,655] !Changed automatically
MTee715_B=[203,656] !Changed automatically
MTee715_C=[203,657] !Changed automatically
MTee553_Tee651_A=[203,658] !Changed automatically
MTee553_Tee651_B=[203,659] !Changed automatically
MTee651_Tee655_A=[203,661] !Changed automatically
MTee651_Tee655_B=[203,662] !Changed automatically
MTee655_Pump659_A=[203,664] !Changed automatically
MTee655_Pump659_B=[203,665] !Changed automatically
MRad169_Tee662_A=[203,667] !Changed automatically
MRad169_Tee662_B=[203,668] !Changed automatically
MTee655_Tee690_A=[203,670] !Changed automatically
MTee655_Tee690_B=[203,671] !Changed automatically
MTee690_Pump670_A=[203,673] !Changed automatically
MTee690_Pump670_B=[203,674] !Changed automatically
MRad172_Tee673_A=[203,676] !Changed automatically
MRad172_Tee673_B=[203,677] !Changed automatically
MTee673_Tee662_A=[203,679] !Changed automatically
MTee673_Tee662_B=[203,680] !Changed automatically
MTee690_Tee680_A=[203,682] !Changed automatically
MTee690_Tee680_B=[203,683] !Changed automatically
MTee680_Pump677_A=[203,685] !Changed automatically
MTee680_Pump677_B=[203,686] !Changed automatically
MRad181_Tee684_A=[203,688] !Changed automatically
MRad181_Tee684_B=[203,689] !Changed automatically
MTee684_Tee673_A=[203,691] !Changed automatically
MTee684_Tee673_B=[203,692] !Changed automatically
MTee680_Tee694_A=[203,694] !Changed automatically
MTee680_Tee694_B=[203,695] !Changed automatically
MTee694_Tee711_A=[203,697] !Changed automatically
MTee694_Tee711_B=[203,698] !Changed automatically
MTee711_Pump708_A=[203,700] !Changed automatically
MTee711_Pump708_B=[203,701] !Changed automatically
MRad648_Tee715_A=[203,703] !Changed automatically
MRad648_Tee715_B=[203,704] !Changed automatically
MRad187_Tee715_A=[203,706] !Changed automatically
MRad187_Tee715_B=[203,707] !Changed automatically
MTee711_Pump705_A=[203,709] !Changed automatically
MTee711_Pump705_B=[203,710] !Changed automatically
MTee715_Tee698_A=[203,712] !Changed automatically
MTee715_Tee698_B=[203,713] !Changed automatically
MRad184_Tee698_A=[203,715] !Changed automatically
MRad184_Tee698_B=[203,716] !Changed automatically
MTee698_Tee684_A=[203,718] !Changed automatically
MTee698_Tee684_B=[203,719] !Changed automatically
MTee694_Pump702_A=[203,721] !Changed automatically
MTee694_Pump702_B=[203,722] !Changed automatically
MTee755_A=[203,724] !Changed automatically
MTee755_B=[203,725] !Changed automatically
MTee755_C=[203,726] !Changed automatically
MTee759_A=[203,727] !Changed automatically
MTee759_B=[203,728] !Changed automatically
MTee759_C=[203,729] !Changed automatically
MPu43a2fLSW_A=[203,730] !Changed automatically
MPu43a2fLSW_B=[203,731] !Changed automatically
MTee766_A=[203,733] !Changed automatically
MTee766_B=[203,734] !Changed automatically
MTee766_C=[203,735] !Changed automatically
MTee770_A=[203,736] !Changed automatically
MTee770_B=[203,737] !Changed automatically
MTee770_C=[203,738] !Changed automatically
MPu43a2fLNW_A=[203,739] !Changed automatically
MPu43a2fLNW_B=[203,740] !Changed automatically
MTee777_A=[203,742] !Changed automatically
MTee777_B=[203,743] !Changed automatically
MTee777_C=[203,744] !Changed automatically
MTee781_A=[203,745] !Changed automatically
MTee781_B=[203,746] !Changed automatically
MTee781_C=[203,747] !Changed automatically
MPu43a2fLNE_A=[203,748] !Changed automatically
MPu43a2fLNE_B=[203,749] !Changed automatically
MTee788_A=[203,751] !Changed automatically
MTee788_B=[203,752] !Changed automatically
MTee788_C=[203,753] !Changed automatically
MTee792_A=[203,754] !Changed automatically
MTee792_B=[203,755] !Changed automatically
MTee792_C=[203,756] !Changed automatically
MPu433fRSW_A=[203,757] !Changed automatically
MPu433fRSW_B=[203,758] !Changed automatically
MTee799_A=[203,760] !Changed automatically
MTee799_B=[203,761] !Changed automatically
MTee799_C=[203,762] !Changed automatically
MTee803_A=[203,763] !Changed automatically
MTee803_B=[203,764] !Changed automatically
MTee803_C=[203,765] !Changed automatically
MPu433fRSE_A=[203,766] !Changed automatically
MPu433fRSE_B=[203,767] !Changed automatically
MTee810_A=[203,769] !Changed automatically
MTee810_B=[203,770] !Changed automatically
MTee810_C=[203,771] !Changed automatically
MPu433fRNE_A=[203,772] !Changed automatically
MPu433fRNE_B=[203,773] !Changed automatically
MTee651_Tee755_A=[203,775] !Changed automatically
MTee651_Tee755_B=[203,776] !Changed automatically
MTee755_Tee759_A=[203,778] !Changed automatically
MTee755_Tee759_B=[203,779] !Changed automatically
MTee759_Pump763_A=[203,781] !Changed automatically
MTee759_Pump763_B=[203,782] !Changed automatically
MTee759_Tee770_A=[203,784] !Changed automatically
MTee759_Tee770_B=[203,785] !Changed automatically
MRad193_Tee766_A=[203,787] !Changed automatically
MRad193_Tee766_B=[203,788] !Changed automatically
MTee777_Tee766_A=[203,790] !Changed automatically
MTee777_Tee766_B=[203,791] !Changed automatically
MTee770_Pump774_A=[203,793] !Changed automatically
MTee770_Pump774_B=[203,794] !Changed automatically
MRad178_Tee777_A=[203,796] !Changed automatically
MRad178_Tee777_B=[203,797] !Changed automatically
MTee770_Tee781_A=[203,799] !Changed automatically
MTee770_Tee781_B=[203,800] !Changed automatically
MTee788_Tee777_A=[203,802] !Changed automatically
MTee788_Tee777_B=[203,803] !Changed automatically
MTee781_Pump785_A=[203,805] !Changed automatically
MTee781_Pump785_B=[203,806] !Changed automatically
MRad199_Tee788_A=[203,808] !Changed automatically
MRad199_Tee788_B=[203,809] !Changed automatically
MTee781_Tee792_A=[203,811] !Changed automatically
MTee781_Tee792_B=[203,812] !Changed automatically
MTee799_Tee788_A=[203,814] !Changed automatically
MTee799_Tee788_B=[203,815] !Changed automatically
MTee792_Pump796_A=[203,817] !Changed automatically
MTee792_Pump796_B=[203,818] !Changed automatically
MRad196_Tee799_A=[203,820] !Changed automatically
MRad196_Tee799_B=[203,821] !Changed automatically
MTee792_Tee803_A=[203,823] !Changed automatically
MTee792_Tee803_B=[203,824] !Changed automatically
MTee810_Tee799_A=[203,826] !Changed automatically
MTee810_Tee799_B=[203,827] !Changed automatically
MTee803_Pump807_A=[203,829] !Changed automatically
MTee803_Pump807_B=[203,830] !Changed automatically
MRad202_Tee810_A=[203,832] !Changed automatically
MRad202_Tee810_B=[203,833] !Changed automatically
MTee803_Pump818_A=[203,835] !Changed automatically
MTee803_Pump818_B=[203,836] !Changed automatically
MRad205_Tee810_A=[203,838] !Changed automatically
MRad205_Tee810_B=[203,839] !Changed automatically
M433fLSW_A=[203,841] !Changed automatically
M433fLSW_B=[203,842] !Changed automatically
M433fLNE_A=[203,844] !Changed automatically
M433fLNE_B=[203,845] !Changed automatically
M43a3fRSW_A=[203,847] !Changed automatically
M43a3fRSW_B=[203,848] !Changed automatically
M43a3fRNE_A=[203,850] !Changed automatically
M43a3fRNE_B=[203,851] !Changed automatically
M43a3fCSW_A=[203,853] !Changed automatically
M43a3fCSW_B=[203,854] !Changed automatically
M43a3fLSW_A=[203,856] !Changed automatically
M43a3fLSW_B=[203,857] !Changed automatically
MTee868_A=[203,859] !Changed automatically
MTee868_B=[203,860] !Changed automatically
MTee868_C=[203,861] !Changed automatically
MPu433fLSW_A=[203,862] !Changed automatically
MPu433fLSW_B=[203,863] !Changed automatically
MTee875_A=[203,865] !Changed automatically
MTee875_B=[203,866] !Changed automatically
MTee875_C=[203,867] !Changed automatically
MTee879_A=[203,868] !Changed automatically
MTee879_B=[203,869] !Changed automatically
MTee879_C=[203,870] !Changed automatically
MTee883_A=[203,871] !Changed automatically
MTee883_B=[203,872] !Changed automatically
MTee883_C=[203,873] !Changed automatically
MPu433fLNE_A=[203,874] !Changed automatically
MPu433fLNE_B=[203,875] !Changed automatically
MTee890_A=[203,877] !Changed automatically
MTee890_B=[203,878] !Changed automatically
MTee890_C=[203,879] !Changed automatically
MPu43a3fRSW_A=[203,880] !Changed automatically
MPu43a3fRSW_B=[203,881] !Changed automatically
MTee897_A=[203,883] !Changed automatically
MTee897_B=[203,884] !Changed automatically
MTee897_C=[203,885] !Changed automatically
MTee901_A=[203,886] !Changed automatically
MTee901_B=[203,887] !Changed automatically
MTee901_C=[203,888] !Changed automatically
MTee905_A=[203,889] !Changed automatically
MTee905_B=[203,890] !Changed automatically
MTee905_C=[203,891] !Changed automatically
MPu43a3fRNE_A=[203,892] !Changed automatically
MPu43a3fRNE_B=[203,893] !Changed automatically
MTee912_A=[203,895] !Changed automatically
MTee912_B=[203,896] !Changed automatically
MTee912_C=[203,897] !Changed automatically
MPu43a3fCSW_A=[203,898] !Changed automatically
MPu43a3fCSW_B=[203,899] !Changed automatically
MTee919_A=[203,901] !Changed automatically
MTee919_B=[203,902] !Changed automatically
MTee919_C=[203,903] !Changed automatically
MTee923_A=[203,904] !Changed automatically
MTee923_B=[203,905] !Changed automatically
MTee923_C=[203,906] !Changed automatically
MPu43a3fLSW_A=[203,907] !Changed automatically
MPu43a3fLSW_B=[203,908] !Changed automatically
MTee755_Tee879_A=[203,910] !Changed automatically
MTee755_Tee879_B=[203,911] !Changed automatically
MTee879_Tee868_A=[203,913] !Changed automatically
MTee879_Tee868_B=[203,914] !Changed automatically
MTee868_Pump872_A=[203,916] !Changed automatically
MTee868_Pump872_B=[203,917] !Changed automatically
MTee868_Tee883_A=[203,919] !Changed automatically
MTee868_Tee883_B=[203,920] !Changed automatically
MRad850_Tee875_A=[203,922] !Changed automatically
MRad850_Tee875_B=[203,923] !Changed automatically
MTee883_Pump887_A=[203,925] !Changed automatically
MTee883_Pump887_B=[203,926] !Changed automatically
MRad853_Tee890_A=[203,928] !Changed automatically
MRad853_Tee890_B=[203,929] !Changed automatically
MTee883_Tee897_A=[203,931] !Changed automatically
MTee883_Tee897_B=[203,932] !Changed automatically
MTee901_Tee890_A=[203,934] !Changed automatically
MTee901_Tee890_B=[203,935] !Changed automatically
MTee890_Tee875_A=[203,937] !Changed automatically
MTee890_Tee875_B=[203,938] !Changed automatically
MTee897_Pump894_A=[203,940] !Changed automatically
MTee897_Pump894_B=[203,941] !Changed automatically
MRad856_Tee901_A=[203,943] !Changed automatically
MRad856_Tee901_B=[203,944] !Changed automatically
MTee897_Tee905_A=[203,946] !Changed automatically
MTee897_Tee905_B=[203,947] !Changed automatically
MTee912_Tee901_A=[203,949] !Changed automatically
MTee912_Tee901_B=[203,950] !Changed automatically
MTee905_Pump909_A=[203,952] !Changed automatically
MTee905_Pump909_B=[203,953] !Changed automatically
MTee905_Tee919_A=[203,955] !Changed automatically
MTee905_Tee919_B=[203,956] !Changed automatically
MRad859_Tee912_A=[203,958] !Changed automatically
MRad859_Tee912_B=[203,959] !Changed automatically
MTee923_Tee912_A=[203,961] !Changed automatically
MTee923_Tee912_B=[203,962] !Changed automatically
MTee919_Pump916_A=[203,964] !Changed automatically
MTee919_Pump916_B=[203,965] !Changed automatically
MRad862_Tee923_A=[203,967] !Changed automatically
MRad862_Tee923_B=[203,968] !Changed automatically
MTee919_Pump927_A=[203,970] !Changed automatically
MTee919_Pump927_B=[203,971] !Changed automatically
MRad865_Tee923_A=[203,973] !Changed automatically
MRad865_Tee923_B=[203,974] !Changed automatically
M43a3fLNW_A=[203,976] !Changed automatically
M43a3fLNW_B=[203,977] !Changed automatically
M43a3fLNE_A=[203,979] !Changed automatically
M43a3fLNE_B=[203,980] !Changed automatically
M43Att1_A=[203,982] !Changed automatically
M43Att1_B=[203,983] !Changed automatically
M43Att2_A=[203,985] !Changed automatically
M43Att2_B=[203,986] !Changed automatically
M43aAtt1_A=[203,988] !Changed automatically
M43aAtt1_B=[203,989] !Changed automatically
M43aAtt2_A=[203,991] !Changed automatically
M43aAtt2_B=[203,992] !Changed automatically
MTee977_A=[203,994] !Changed automatically
MTee977_B=[203,995] !Changed automatically
MTee977_C=[203,996] !Changed automatically
MTee981_A=[203,997] !Changed automatically
MTee981_B=[203,998] !Changed automatically
MTee981_C=[203,999] !Changed automatically
MTee985_A=[203,1000] !Changed automatically
MTee985_B=[203,1001] !Changed automatically
MTee985_C=[203,1002] !Changed automatically
MPu43a3fLNW_A=[203,1003] !Changed automatically
MPu43a3fLNW_B=[203,1004] !Changed automatically
MTee992_A=[203,1006] !Changed automatically
MTee992_B=[203,1007] !Changed automatically
MTee992_C=[203,1008] !Changed automatically
MPu43a3fLNE_A=[203,1009] !Changed automatically
MPu43a3fLNE_B=[203,1010] !Changed automatically
MTee999_A=[203,1012] !Changed automatically
MTee999_B=[203,1013] !Changed automatically
MTee999_C=[203,1014] !Changed automatically
MPu43Att1_A=[203,1015] !Changed automatically
MPu43Att1_B=[203,1016] !Changed automatically
MTee1006_A=[203,1018] !Changed automatically
MTee1006_B=[203,1019] !Changed automatically
MTee1006_C=[203,1020] !Changed automatically
MTee1010_A=[203,1021] !Changed automatically
MTee1010_B=[203,1022] !Changed automatically
MTee1010_C=[203,1023] !Changed automatically
MTee1014_A=[203,1024] !Changed automatically
MTee1014_B=[203,1025] !Changed automatically
MTee1014_C=[203,1026] !Changed automatically
MPu43Att2_A=[203,1027] !Changed automatically
MPu43Att2_B=[203,1028] !Changed automatically
MTee1021_A=[203,1030] !Changed automatically
MTee1021_B=[203,1031] !Changed automatically
MTee1021_C=[203,1032] !Changed automatically
MPu43aAtt1_A=[203,1033] !Changed automatically
MPu43aAtt1_B=[203,1034] !Changed automatically
MTee1028_A=[203,1036] !Changed automatically
MTee1028_B=[203,1037] !Changed automatically
MTee1028_C=[203,1038] !Changed automatically
MTee1032_A=[203,1039] !Changed automatically
MTee1032_B=[203,1040] !Changed automatically
MTee1032_C=[203,1041] !Changed automatically
MPu43aAtt2_A=[203,1042] !Changed automatically
MPu43aAtt2_B=[203,1043] !Changed automatically
MTee879_Tee977_A=[203,1045] !Changed automatically
MTee879_Tee977_B=[203,1046] !Changed automatically
MTee977_Tee981_A=[203,1048] !Changed automatically
MTee977_Tee981_B=[203,1049] !Changed automatically
MTee981_Pump989_A=[203,1051] !Changed automatically
MTee981_Pump989_B=[203,1052] !Changed automatically
MRad959_Tee985_A=[203,1054] !Changed automatically
MRad959_Tee985_B=[203,1055] !Changed automatically
MTee981_Tee992_A=[203,1057] !Changed automatically
MTee981_Tee992_B=[203,1058] !Changed automatically
MTee999_Tee985_A=[203,1060] !Changed automatically
MTee999_Tee985_B=[203,1061] !Changed automatically
MTee992_Pump996_A=[203,1063] !Changed automatically
MTee992_Pump996_B=[203,1064] !Changed automatically
MRad962_Tee999_A=[203,1066] !Changed automatically
MRad962_Tee999_B=[203,1067] !Changed automatically
MTee992_Tee1006_A=[203,1069] !Changed automatically
MTee992_Tee1006_B=[203,1070] !Changed automatically
MTee1010_Tee999_A=[203,1072] !Changed automatically
MTee1010_Tee999_B=[203,1073] !Changed automatically
MTee1006_Pump1003_A=[203,1075] !Changed automatically
MTee1006_Pump1003_B=[203,1076] !Changed automatically
MRad965_Tee1010_A=[203,1078] !Changed automatically
MRad965_Tee1010_B=[203,1079] !Changed automatically
MTee1006_Tee1014_A=[203,1081] !Changed automatically
MTee1006_Tee1014_B=[203,1082] !Changed automatically
MTee1021_Tee1010_A=[203,1084] !Changed automatically
MTee1021_Tee1010_B=[203,1085] !Changed automatically
MTee1014_Pump1018_A=[203,1087] !Changed automatically
MTee1014_Pump1018_B=[203,1088] !Changed automatically
MRad968_Tee1021_A=[203,1090] !Changed automatically
MRad968_Tee1021_B=[203,1091] !Changed automatically
MTee1014_Tee1028_A=[203,1093] !Changed automatically
MTee1014_Tee1028_B=[203,1094] !Changed automatically
MTee1032_Tee1021_A=[203,1096] !Changed automatically
MTee1032_Tee1021_B=[203,1097] !Changed automatically
MTee1028_Pump1025_A=[203,1099] !Changed automatically
MTee1028_Pump1025_B=[203,1100] !Changed automatically
MRad971_Tee1032_A=[203,1102] !Changed automatically
MRad971_Tee1032_B=[203,1103] !Changed automatically
MRad974_Tee1032_A=[203,1105] !Changed automatically
MRad974_Tee1032_B=[203,1106] !Changed automatically
MTee1028_Pump1036_A=[203,1108] !Changed automatically
MTee1028_Pump1036_B=[203,1109] !Changed automatically
M43aAtt3_A=[203,1111] !Changed automatically
M43aAtt3_B=[203,1112] !Changed automatically
MRad43GfR_A=[203,1114] !Changed automatically
MRad43GfR_B=[203,1115] !Changed automatically
MRad43GfL_A=[203,1117] !Changed automatically
MRad43GfL_B=[203,1118] !Changed automatically
MRad43aGfR_A=[203,1120] !Changed automatically
MRad43aGfR_B=[203,1121] !Changed automatically
MRad43aGfC_A=[203,1123] !Changed automatically
MRad43aGfC_B=[203,1124] !Changed automatically
MRad43aGfL_A=[203,1126] !Changed automatically
MRad43aGfL_B=[203,1127] !Changed automatically
MTee1085_A=[203,1129] !Changed automatically
MTee1085_B=[203,1130] !Changed automatically
MTee1085_C=[203,1131] !Changed automatically
MTee1089_A=[203,1132] !Changed automatically
MTee1089_B=[203,1133] !Changed automatically
MTee1089_C=[203,1134] !Changed automatically
MPu43aAtt3_A=[203,1135] !Changed automatically
MPu43aAtt3_B=[203,1136] !Changed automatically
MTee1096_A=[203,1138] !Changed automatically
MTee1096_B=[203,1139] !Changed automatically
MTee1096_C=[203,1140] !Changed automatically
MTee1100_A=[203,1141] !Changed automatically
MTee1100_B=[203,1142] !Changed automatically
MTee1100_C=[203,1143] !Changed automatically
MPuRad43GfR_A=[203,1144] !Changed automatically
MPuRad43GfR_B=[203,1145] !Changed automatically
MTee1107_A=[203,1147] !Changed automatically
MTee1107_B=[203,1148] !Changed automatically
MTee1107_C=[203,1149] !Changed automatically
MTee1111_A=[203,1150] !Changed automatically
MTee1111_B=[203,1151] !Changed automatically
MTee1111_C=[203,1152] !Changed automatically
MPuRad43GfL_A=[203,1153] !Changed automatically
MPuRad43GfL_B=[203,1154] !Changed automatically
MTee1118_A=[203,1156] !Changed automatically
MTee1118_B=[203,1157] !Changed automatically
MTee1118_C=[203,1158] !Changed automatically
MTee1122_A=[203,1159] !Changed automatically
MTee1122_B=[203,1160] !Changed automatically
MTee1122_C=[203,1161] !Changed automatically
MPuRad43aGfR_A=[203,1162] !Changed automatically
MPuRad43aGfR_B=[203,1163] !Changed automatically
MTee1129_A=[203,1165] !Changed automatically
MTee1129_B=[203,1166] !Changed automatically
MTee1129_C=[203,1167] !Changed automatically
MPuRad43aGfC_A=[203,1168] !Changed automatically
MPuRad43aGfC_B=[203,1169] !Changed automatically
MTee1136_A=[203,1171] !Changed automatically
MTee1136_B=[203,1172] !Changed automatically
MTee1136_C=[203,1173] !Changed automatically
MTee1140_A=[203,1174] !Changed automatically
MTee1140_B=[203,1175] !Changed automatically
MTee1140_C=[203,1176] !Changed automatically
MPuRad43aGfL_A=[203,1177] !Changed automatically
MPuRad43aGfL_B=[203,1178] !Changed automatically
MTee977_Tee1085_A=[203,1180] !Changed automatically
MTee977_Tee1085_B=[203,1181] !Changed automatically
MTee1085_Tee1089_A=[203,1183] !Changed automatically
MTee1085_Tee1089_B=[203,1184] !Changed automatically
MTee1089_Pump1093_A=[203,1186] !Changed automatically
MTee1089_Pump1093_B=[203,1187] !Changed automatically
MRad1067_Tee1096_A=[203,1189] !Changed automatically
MRad1067_Tee1096_B=[203,1190] !Changed automatically
MTee1089_Tee1100_A=[203,1192] !Changed automatically
MTee1089_Tee1100_B=[203,1193] !Changed automatically
MTee1107_Tee1096_A=[203,1195] !Changed automatically
MTee1107_Tee1096_B=[203,1196] !Changed automatically
MTee1100_Pump1104_A=[203,1198] !Changed automatically
MTee1100_Pump1104_B=[203,1199] !Changed automatically
MRad1070_Tee1107_A=[203,1201] !Changed automatically
MRad1070_Tee1107_B=[203,1202] !Changed automatically
MTee1100_Tee1111_A=[203,1204] !Changed automatically
MTee1100_Tee1111_B=[203,1205] !Changed automatically
MTee1118_Tee1107_A=[203,1207] !Changed automatically
MTee1118_Tee1107_B=[203,1208] !Changed automatically
MTee1111_Pump1115_A=[203,1210] !Changed automatically
MTee1111_Pump1115_B=[203,1211] !Changed automatically
MRad1073_Tee1118_A=[203,1213] !Changed automatically
MRad1073_Tee1118_B=[203,1214] !Changed automatically
MTee1111_Tee1122_A=[203,1216] !Changed automatically
MTee1111_Tee1122_B=[203,1217] !Changed automatically
MTee1129_Tee1118_A=[203,1219] !Changed automatically
MTee1129_Tee1118_B=[203,1220] !Changed automatically
MTee1122_Pump1126_A=[203,1222] !Changed automatically
MTee1122_Pump1126_B=[203,1223] !Changed automatically
MRad1076_Tee1129_A=[203,1225] !Changed automatically
MRad1076_Tee1129_B=[203,1226] !Changed automatically
MTee1122_Tee1136_A=[203,1228] !Changed automatically
MTee1122_Tee1136_B=[203,1229] !Changed automatically
MTee1136_Pump1144_A=[203,1231] !Changed automatically
MTee1136_Pump1144_B=[203,1232] !Changed automatically
MRad1082_Tee1140_A=[203,1234] !Changed automatically
MRad1082_Tee1140_B=[203,1235] !Changed automatically
MRad1079_Tee1140_A=[203,1237] !Changed automatically
MRad1079_Tee1140_B=[203,1238] !Changed automatically
MTee1140_Tee1129_A=[203,1240] !Changed automatically
MTee1140_Tee1129_B=[203,1241] !Changed automatically
MTee1136_Pump1133_A=[203,1243] !Changed automatically
MTee1136_Pump1133_B=[203,1244] !Changed automatically
MRad431fR_A=[203,1246] !Changed automatically
MRad431fR_B=[203,1247] !Changed automatically
MRad431fL_A=[203,1249] !Changed automatically
MRad431fL_B=[203,1250] !Changed automatically
MRad43a1fR_A=[203,1252] !Changed automatically
MRad43a1fR_B=[203,1253] !Changed automatically
MRad43a1fC_A=[203,1255] !Changed automatically
MRad43a1fC_B=[203,1256] !Changed automatically
MRad43a1fL_A=[203,1258] !Changed automatically
MRad43a1fL_B=[203,1259] !Changed automatically
MRad432fR_A=[203,1261] !Changed automatically
MRad432fR_B=[203,1262] !Changed automatically
MTee1199_A=[203,1264] !Changed automatically
MTee1199_B=[203,1265] !Changed automatically
MTee1199_C=[203,1266] !Changed automatically
MTee1203_A=[203,1267] !Changed automatically
MTee1203_B=[203,1268] !Changed automatically
MTee1203_C=[203,1269] !Changed automatically
MPuRad431fR_A=[203,1270] !Changed automatically
MPuRad431fR_B=[203,1271] !Changed automatically
MTee1210_A=[203,1273] !Changed automatically
MTee1210_B=[203,1274] !Changed automatically
MTee1210_C=[203,1275] !Changed automatically
MTee1214_A=[203,1276] !Changed automatically
MTee1214_B=[203,1277] !Changed automatically
MTee1214_C=[203,1278] !Changed automatically
MPuRad431fL_A=[203,1279] !Changed automatically
MPuRad431fL_B=[203,1280] !Changed automatically
MTee1221_A=[203,1282] !Changed automatically
MTee1221_B=[203,1283] !Changed automatically
MTee1221_C=[203,1284] !Changed automatically
MTee1225_A=[203,1285] !Changed automatically
MTee1225_B=[203,1286] !Changed automatically
MTee1225_C=[203,1287] !Changed automatically
MPuRad43a1fR_A=[203,1288] !Changed automatically
MPuRad43a1fR_B=[203,1289] !Changed automatically
MTee1232_A=[203,1291] !Changed automatically
MTee1232_B=[203,1292] !Changed automatically
MTee1232_C=[203,1293] !Changed automatically
MPuRad43a1fC_A=[203,1294] !Changed automatically
MPuRad43a1fC_B=[203,1295] !Changed automatically
MTee1239_A=[203,1297] !Changed automatically
MTee1239_B=[203,1298] !Changed automatically
MTee1239_C=[203,1299] !Changed automatically
MTee1243_A=[203,1300] !Changed automatically
MTee1243_B=[203,1301] !Changed automatically
MTee1243_C=[203,1302] !Changed automatically
MTee1247_A=[203,1303] !Changed automatically
MTee1247_B=[203,1304] !Changed automatically
MTee1247_C=[203,1305] !Changed automatically
MTee1251_A=[203,1306] !Changed automatically
MTee1251_B=[203,1307] !Changed automatically
MTee1251_C=[203,1308] !Changed automatically
MPuRad43a1fL_A=[203,1309] !Changed automatically
MPuRad43a1fL_B=[203,1310] !Changed automatically
MPuRad432fR_A=[203,1312] !Changed automatically
MPuRad432fR_B=[203,1313] !Changed automatically
MTee1199_Tee1203_A=[203,1315] !Changed automatically
MTee1199_Tee1203_B=[203,1316] !Changed automatically
MTee1203_Pump1207_A=[203,1318] !Changed automatically
MTee1203_Pump1207_B=[203,1319] !Changed automatically
MRad1175_Tee1210_A=[203,1321] !Changed automatically
MRad1175_Tee1210_B=[203,1322] !Changed automatically
MTee1203_Tee1214_A=[203,1324] !Changed automatically
MTee1203_Tee1214_B=[203,1325] !Changed automatically
MTee1221_Tee1210_A=[203,1327] !Changed automatically
MTee1221_Tee1210_B=[203,1328] !Changed automatically
MTee1214_Pump1218_A=[203,1330] !Changed automatically
MTee1214_Pump1218_B=[203,1331] !Changed automatically
MRad1178_Tee1221_A=[203,1333] !Changed automatically
MRad1178_Tee1221_B=[203,1334] !Changed automatically
MTee1214_Tee1225_A=[203,1336] !Changed automatically
MTee1214_Tee1225_B=[203,1337] !Changed automatically
MTee1225_Tee1239_A=[203,1339] !Changed automatically
MTee1225_Tee1239_B=[203,1340] !Changed automatically
MTee1232_Tee1221_A=[203,1342] !Changed automatically
MTee1232_Tee1221_B=[203,1343] !Changed automatically
MTee1243_Tee1232_A=[203,1345] !Changed automatically
MTee1243_Tee1232_B=[203,1346] !Changed automatically
MTee1225_Pump1229_A=[203,1348] !Changed automatically
MTee1225_Pump1229_B=[203,1349] !Changed automatically
MRad1181_Tee1232_A=[203,1351] !Changed automatically
MRad1181_Tee1232_B=[203,1352] !Changed automatically
MTee1239_Pump1236_A=[203,1354] !Changed automatically
MTee1239_Pump1236_B=[203,1355] !Changed automatically
MRad1190_Tee1243_A=[203,1357] !Changed automatically
MRad1190_Tee1243_B=[203,1358] !Changed automatically
MTee1251_Pump1255_A=[203,1360] !Changed automatically
MTee1251_Pump1255_B=[203,1361] !Changed automatically
MRad1193_Tee1247_A=[203,1363] !Changed automatically
MRad1193_Tee1247_B=[203,1364] !Changed automatically
MTee1251_Pump1258_A=[203,1366] !Changed automatically
MTee1251_Pump1258_B=[203,1367] !Changed automatically
MRad1196_Tee1247_A=[203,1369] !Changed automatically
MRad1196_Tee1247_B=[203,1370] !Changed automatically
MTee1247_Tee1243_A=[203,1372] !Changed automatically
MTee1247_Tee1243_B=[203,1373] !Changed automatically
MTee1239_Tee1251_A=[203,1375] !Changed automatically
MTee1239_Tee1251_B=[203,1376] !Changed automatically
MRad432fL_A=[203,1378] !Changed automatically
MRad432fL_B=[203,1379] !Changed automatically
MRad43a2fR_A=[203,1381] !Changed automatically
MRad43a2fR_B=[203,1382] !Changed automatically
MRad43a2fC_A=[203,1384] !Changed automatically
MRad43a2fC_B=[203,1385] !Changed automatically
MRad43a2fL_A=[203,1387] !Changed automatically
MRad43a2fL_B=[203,1388] !Changed automatically
MRad433fR_A=[203,1390] !Changed automatically
MRad433fR_B=[203,1391] !Changed automatically
MRad433fL_A=[203,1393] !Changed automatically
MRad433fL_B=[203,1394] !Changed automatically
MTee1306_A=[203,1396] !Changed automatically
MTee1306_B=[203,1397] !Changed automatically
MTee1306_C=[203,1398] !Changed automatically
MTee1310_A=[203,1399] !Changed automatically
MTee1310_B=[203,1400] !Changed automatically
MTee1310_C=[203,1401] !Changed automatically
MPuRad432fL_A=[203,1402] !Changed automatically
MPuRad432fL_B=[203,1403] !Changed automatically
MTee1317_A=[203,1405] !Changed automatically
MTee1317_B=[203,1406] !Changed automatically
MTee1317_C=[203,1407] !Changed automatically
MTee1321_A=[203,1408] !Changed automatically
MTee1321_B=[203,1409] !Changed automatically
MTee1321_C=[203,1410] !Changed automatically
MPuRad43a2fR_A=[203,1411] !Changed automatically
MPuRad43a2fR_B=[203,1412] !Changed automatically
MTee1328_A=[203,1414] !Changed automatically
MTee1328_B=[203,1415] !Changed automatically
MTee1328_C=[203,1416] !Changed automatically
MPuRad43a2fC_A=[203,1417] !Changed automatically
MPuRad43a2fC_B=[203,1418] !Changed automatically
MTee1335_A=[203,1420] !Changed automatically
MTee1335_B=[203,1421] !Changed automatically
MTee1335_C=[203,1422] !Changed automatically
MTee1339_A=[203,1423] !Changed automatically
MTee1339_B=[203,1424] !Changed automatically
MTee1339_C=[203,1425] !Changed automatically
MTee1343_A=[203,1426] !Changed automatically
MTee1343_B=[203,1427] !Changed automatically
MTee1343_C=[203,1428] !Changed automatically
MPuRad43a2fL_A=[203,1429] !Changed automatically
MPuRad43a2fL_B=[203,1430] !Changed automatically
MTee1350_A=[203,1432] !Changed automatically
MTee1350_B=[203,1433] !Changed automatically
MTee1350_C=[203,1434] !Changed automatically
MTee1354_A=[203,1435] !Changed automatically
MTee1354_B=[203,1436] !Changed automatically
MTee1354_C=[203,1437] !Changed automatically
MPuRad433fR_A=[203,1438] !Changed automatically
MPuRad433fR_B=[203,1439] !Changed automatically
MTee1361_A=[203,1441] !Changed automatically
MTee1361_B=[203,1442] !Changed automatically
MTee1361_C=[203,1443] !Changed automatically
MPuRad433fL_A=[203,1444] !Changed automatically
MPuRad433fL_B=[203,1445] !Changed automatically
MTee1085_Tee1199_A=[203,1447] !Changed automatically
MTee1085_Tee1199_B=[203,1448] !Changed automatically
MTee1199_Tee1306_A=[203,1450] !Changed automatically
MTee1199_Tee1306_B=[203,1451] !Changed automatically
MTee1306_Tee1310_A=[203,1453] !Changed automatically
MTee1306_Tee1310_B=[203,1454] !Changed automatically
MTee1310_Pump1314_A=[203,1456] !Changed automatically
MTee1310_Pump1314_B=[203,1457] !Changed automatically
MRad1288_Tee1317_A=[203,1459] !Changed automatically
MRad1288_Tee1317_B=[203,1460] !Changed automatically
MTee1310_Tee1321_A=[203,1462] !Changed automatically
MTee1310_Tee1321_B=[203,1463] !Changed automatically
MTee1328_Tee1317_A=[203,1465] !Changed automatically
MTee1328_Tee1317_B=[203,1466] !Changed automatically
MTee1321_Pump1325_A=[203,1468] !Changed automatically
MTee1321_Pump1325_B=[203,1469] !Changed automatically
MRad1291_Tee1328_A=[203,1471] !Changed automatically
MRad1291_Tee1328_B=[203,1472] !Changed automatically
MTee1335_Pump1332_A=[203,1474] !Changed automatically
MTee1335_Pump1332_B=[203,1475] !Changed automatically
MRad1294_Tee1339_A=[203,1477] !Changed automatically
MRad1294_Tee1339_B=[203,1478] !Changed automatically
MTee1343_Pump1347_A=[203,1480] !Changed automatically
MTee1343_Pump1347_B=[203,1481] !Changed automatically
MRad1297_Tee1350_A=[203,1483] !Changed automatically
MRad1297_Tee1350_B=[203,1484] !Changed automatically
MTee1321_Tee1335_A=[203,1486] !Changed automatically
MTee1321_Tee1335_B=[203,1487] !Changed automatically
MTee1335_Tee1343_A=[203,1489] !Changed automatically
MTee1335_Tee1343_B=[203,1490] !Changed automatically
MTee1350_Tee1339_A=[203,1492] !Changed automatically
MTee1350_Tee1339_B=[203,1493] !Changed automatically
MTee1339_Tee1328_A=[203,1495] !Changed automatically
MTee1339_Tee1328_B=[203,1496] !Changed automatically
MTee1343_Tee1354_A=[203,1498] !Changed automatically
MTee1343_Tee1354_B=[203,1499] !Changed automatically
MTee1354_Pump1365_A=[203,1501] !Changed automatically
MTee1354_Pump1365_B=[203,1502] !Changed automatically
MRad1303_Tee1361_A=[203,1504] !Changed automatically
MRad1303_Tee1361_B=[203,1505] !Changed automatically
MRad1300_Tee1361_A=[203,1507] !Changed automatically
MRad1300_Tee1361_B=[203,1508] !Changed automatically
MTee1361_Tee1350_A=[203,1510] !Changed automatically
MTee1361_Tee1350_B=[203,1511] !Changed automatically
MTee1354_Pump1358_A=[203,1513] !Changed automatically
MTee1354_Pump1358_B=[203,1514] !Changed automatically
MRad43a3fR_A=[203,1516] !Changed automatically
MRad43a3fR_B=[203,1517] !Changed automatically
MRad43a3fC_A=[203,1519] !Changed automatically
MRad43a3fC_B=[203,1520] !Changed automatically
MRad43a3fL_A=[203,1522] !Changed automatically
MRad43a3fL_B=[203,1523] !Changed automatically
MTee1410_A=[203,1525] !Changed automatically
MTee1410_B=[203,1526] !Changed automatically
MTee1410_C=[203,1527] !Changed automatically
MPuRad43a3fR_A=[203,1528] !Changed automatically
MPuRad43a3fR_B=[203,1529] !Changed automatically
MTee1417_A=[203,1531] !Changed automatically
MTee1417_B=[203,1532] !Changed automatically
MTee1417_C=[203,1533] !Changed automatically
MTee1421_A=[203,1534] !Changed automatically
MTee1421_B=[203,1535] !Changed automatically
MTee1421_C=[203,1536] !Changed automatically
MPuRad43a3fC_A=[203,1537] !Changed automatically
MPuRad43a3fC_B=[203,1538] !Changed automatically
MTee1428_A=[203,1540] !Changed automatically
MTee1428_B=[203,1541] !Changed automatically
MTee1428_C=[203,1542] !Changed automatically
MPuRad43a3fL_A=[203,1543] !Changed automatically
MPuRad43a3fL_B=[203,1544] !Changed automatically
MTee1410_Pump1414_A=[203,1546] !Changed automatically
MTee1410_Pump1414_B=[203,1547] !Changed automatically
MRad1401_Tee1417_A=[203,1549] !Changed automatically
MRad1401_Tee1417_B=[203,1550] !Changed automatically
MTee1410_Tee1421_A=[203,1552] !Changed automatically
MTee1410_Tee1421_B=[203,1553] !Changed automatically
MRad1404_Tee1428_A=[203,1555] !Changed automatically
MRad1404_Tee1428_B=[203,1556] !Changed automatically
MTee1428_Tee1417_A=[203,1558] !Changed automatically
MTee1428_Tee1417_B=[203,1559] !Changed automatically
MTee1421_Pump1432_A=[203,1561] !Changed automatically
MTee1421_Pump1432_B=[203,1562] !Changed automatically
MRad1407_Tee1428_A=[203,1564] !Changed automatically
MRad1407_Tee1428_B=[203,1565] !Changed automatically
MTee1450_A=[203,1567] !Changed automatically
MTee1450_B=[203,1568] !Changed automatically
MTee1450_C=[203,1569] !Changed automatically
MTee1456_A=[203,1570] !Changed automatically
MTee1456_B=[203,1571] !Changed automatically
MTee1456_C=[203,1572] !Changed automatically
MTee1460_A=[203,1573] !Changed automatically
MTee1460_B=[203,1574] !Changed automatically
MTee1460_C=[203,1575] !Changed automatically
MTee1464_A=[203,1576] !Changed automatically
MTee1464_B=[203,1577] !Changed automatically
MTee1464_C=[203,1578] !Changed automatically
MTee1468_A=[203,1579] !Changed automatically
MTee1468_B=[203,1580] !Changed automatically
MTee1468_C=[203,1581] !Changed automatically
MTee1472_A=[203,1582] !Changed automatically
MTee1472_B=[203,1583] !Changed automatically
MTee1472_C=[203,1584] !Changed automatically
MTee1476_A=[203,1585] !Changed automatically
MTee1476_B=[203,1586] !Changed automatically
MTee1476_C=[203,1587] !Changed automatically
MTee1480_A=[203,1588] !Changed automatically
MTee1480_B=[203,1589] !Changed automatically
MTee1480_C=[203,1590] !Changed automatically
MTee1484_A=[203,1591] !Changed automatically
MTee1484_B=[203,1592] !Changed automatically
MTee1484_C=[203,1593] !Changed automatically
MTee1488_A=[203,1594] !Changed automatically
MTee1488_B=[203,1595] !Changed automatically
MTee1488_C=[203,1596] !Changed automatically
MTee1492_A=[203,1597] !Changed automatically
MTee1492_B=[203,1598] !Changed automatically
MTee1492_C=[203,1599] !Changed automatically
MTee347_Tee1450_A=[203,1600] !Changed automatically
MTee347_Tee1450_B=[203,1601] !Changed automatically
MTee429_Tee1450_A=[203,1603] !Changed automatically
MTee429_Tee1450_B=[203,1604] !Changed automatically
MTee1450_Tee1456_A=[203,1606] !Changed automatically
MTee1450_Tee1456_B=[203,1607] !Changed automatically
MTee472_Tee1456_A=[203,1609] !Changed automatically
MTee472_Tee1456_B=[203,1610] !Changed automatically
MTee1456_Tee1460_A=[203,1612] !Changed automatically
MTee1456_Tee1460_B=[203,1613] !Changed automatically
MTee564_Tee1460_A=[203,1615] !Changed automatically
MTee564_Tee1460_B=[203,1616] !Changed automatically
MTee1460_Tee1464_A=[203,1618] !Changed automatically
MTee1460_Tee1464_B=[203,1619] !Changed automatically
MTee662_Tee1464_A=[203,1621] !Changed automatically
MTee662_Tee1464_B=[203,1622] !Changed automatically
MTee1464_Tee1468_A=[203,1624] !Changed automatically
MTee1464_Tee1468_B=[203,1625] !Changed automatically
MTee766_Tee1468_A=[203,1627] !Changed automatically
MTee766_Tee1468_B=[203,1628] !Changed automatically
MTee1468_Tee1472_A=[203,1630] !Changed automatically
MTee1468_Tee1472_B=[203,1631] !Changed automatically
MTee875_Tee1472_A=[203,1633] !Changed automatically
MTee875_Tee1472_B=[203,1634] !Changed automatically
MTee1472_Tee1476_A=[203,1636] !Changed automatically
MTee1472_Tee1476_B=[203,1637] !Changed automatically
MTee985_Tee1476_A=[203,1639] !Changed automatically
MTee985_Tee1476_B=[203,1640] !Changed automatically
MTee1476_Tee1480_A=[203,1642] !Changed automatically
MTee1476_Tee1480_B=[203,1643] !Changed automatically
MTee1096_Tee1480_A=[203,1645] !Changed automatically
MTee1096_Tee1480_B=[203,1646] !Changed automatically
MTee1480_Tee1484_A=[203,1648] !Changed automatically
MTee1480_Tee1484_B=[203,1649] !Changed automatically
MTee1210_Tee1484_A=[203,1651] !Changed automatically
MTee1210_Tee1484_B=[203,1652] !Changed automatically
MTee1484_Tee1488_A=[203,1654] !Changed automatically
MTee1484_Tee1488_B=[203,1655] !Changed automatically
MTee1317_Tee1488_A=[203,1657] !Changed automatically
MTee1317_Tee1488_B=[203,1658] !Changed automatically
MTee1488_Tee1492_A=[203,1660] !Changed automatically
MTee1488_Tee1492_B=[203,1661] !Changed automatically
MTee1417_Tee1492_A=[203,1663] !Changed automatically
MTee1417_Tee1492_B=[203,1664] !Changed automatically
MTee1492_Tee86_A=[203,1666] !Changed automatically
MTee1492_Tee86_B=[203,1667] !Changed automatically
MPuHp_A=[203,1669] !Changed automatically
MPuHp_B=[203,1670] !Changed automatically
MTee27_Pump1527_A=[203,1672] !Changed automatically
MTee27_Pump1527_B=[203,1673] !Changed automatically
MTee1306_Tee1410_A=[203,1675] !Changed automatically
MTee1306_Tee1410_B=[203,1676] !Changed automatically
MValHp_Tee73_A=[203,1678] !Changed automatically
MValHp_Tee73_B=[203,1679] !Changed automatically
MTee1569_A=[203,1681] !Changed automatically
MTee1569_B=[203,1682] !Changed automatically
MTee1569_C=[203,1683] !Changed automatically
MTee1569_Tee27_A=[203,1684] !Changed automatically
MTee1569_Tee27_B=[203,1685] !Changed automatically
MTee86_Tee1569_A=[203,1687] !Changed automatically
MTee86_Tee1569_B=[203,1688] !Changed automatically
MTee1421_PuRad43a3fC_A=[203,1690] !Changed automatically
MTee1421_PuRad43a3fC_B=[203,1691] !Changed automatically
MTee73_ValMixSh_A=[203,1693] !Changed automatically
MTee73_ValMixSh_B=[203,1694] !Changed automatically
MTee86_ValMixSh_A=[203,1696] !Changed automatically
MTee86_ValMixSh_B=[203,1697] !Changed automatically
MValMixSh_Tee300_A=[203,1699] !Changed automatically
MValMixSh_Tee300_B=[203,1700] !Changed automatically
MTee73_TesSh_A=[203,1702] !Changed automatically
MTee73_TesSh_B=[203,1703] !Changed automatically
MTesSh_Tee1569_A=[203,1705] !Changed automatically
MTesSh_Tee1569_B=[203,1706] !Changed automatically
MPuHp_AwHp_A=[203,1708] !Changed automatically
MPuHp_AwHp_B=[203,1709] !Changed automatically
MAwHp_ValHp_A=[203,1711] !Changed automatically
MAwHp_ValHp_B=[203,1712] !Changed automatically
MValHp_TesDhw_A=[203,1714] !Changed automatically
MValHp_TesDhw_B=[203,1715] !Changed automatically
M43GfRSW_Tee347_A=[203,1717] !Changed automatically
M43GfRSW_Tee347_B=[203,1718] !Changed automatically
MPu43GfRSW_43GfRSW_A=[203,1720] !Changed automatically
MPu43GfRSW_43GfRSW_B=[203,1721] !Changed automatically
MPu43GfRSE_43GfRSE_A=[203,1723] !Changed automatically
MPu43GfRSE_43GfRSE_B=[203,1724] !Changed automatically
MPu43GfRNE_43GfRNE_A=[203,1726] !Changed automatically
MPu43GfRNE_43GfRNE_B=[203,1727] !Changed automatically
MPu43aGfLSW_43aGfLSW_A=[203,1729] !Changed automatically
MPu43aGfLSW_43aGfLSW_B=[203,1730] !Changed automatically
MPu43aGfCSW_43aGfCSW_A=[203,1732] !Changed automatically
MPu43aGfCSW_43aGfCSW_B=[203,1733] !Changed automatically
MPu43aGfRNE_43aGfRNE_A=[203,1735] !Changed automatically
MPu43aGfRNE_43aGfRNE_B=[203,1736] !Changed automatically
MPu431fRSE_431fRSE_A=[203,1738] !Changed automatically
MPu431fRSE_431fRSE_B=[203,1739] !Changed automatically
MPu43a1fLSW_43a1fLSW_A=[203,1741] !Changed automatically
MPu43a1fLSW_43a1fLSW_B=[203,1742] !Changed automatically
MPu43a1fCSW_43a1fCSW_A=[203,1744] !Changed automatically
MPu43a1fCSW_43a1fCSW_B=[203,1745] !Changed automatically
MPu431fRNE_431fRNE_A=[203,1747] !Changed automatically
MPu431fRNE_431fRNE_B=[203,1748] !Changed automatically
MPu431fLSW_431fLSW_A=[203,1750] !Changed automatically
MPu431fLSW_431fLSW_B=[203,1751] !Changed automatically
MPu43a1fLNW_43a1fLNW_A=[203,1753] !Changed automatically
MPu43a1fLNW_43a1fLNW_B=[203,1754] !Changed automatically
MPu43GfLSW_43GfLSW_A=[203,1756] !Changed automatically
MPu43GfLSW_43GfLSW_B=[203,1757] !Changed automatically
MPu43aGfLNW_43aGfLNW_A=[203,1759] !Changed automatically
MPu43aGfLNW_43aGfLNW_B=[203,1760] !Changed automatically
MPu431fLNE_431fLNE_A=[203,1762] !Changed automatically
MPu431fLNE_431fLNE_B=[203,1763] !Changed automatically
MPu43a1fLNE_43a1fLNE_A=[203,1765] !Changed automatically
MPu43a1fLNE_43a1fLNE_B=[203,1766] !Changed automatically
MPu432fRSW_432fRSW_A=[203,1768] !Changed automatically
MPu432fRSW_432fRSW_B=[203,1769] !Changed automatically
MPu43a1fRSW_43a1fRSW_A=[203,1771] !Changed automatically
MPu43a1fRSW_43a1fRSW_B=[203,1772] !Changed automatically
MPu43aGfLNE_43aGfLNE_A=[203,1774] !Changed automatically
MPu43aGfLNE_43aGfLNE_B=[203,1775] !Changed automatically
MPu43GfLNE_43GfLNE_A=[203,1777] !Changed automatically
MPu43GfLNE_43GfLNE_B=[203,1778] !Changed automatically
MPu431fRSW_431fRSW_A=[203,1780] !Changed automatically
MPu431fRSW_431fRSW_B=[203,1781] !Changed automatically
MPu43a1fRNE_43a1fRNE_A=[203,1783] !Changed automatically
MPu43a1fRNE_43a1fRNE_B=[203,1784] !Changed automatically
MPu432fRSE_432fRSE_A=[203,1786] !Changed automatically
MPu432fRSE_432fRSE_B=[203,1787] !Changed automatically
MPu43a2fCSW_43a2fCSW_A=[203,1789] !Changed automatically
MPu43a2fCSW_43a2fCSW_B=[203,1790] !Changed automatically
MPu43a3fLSW_43a3fLSW_A=[203,1792] !Changed automatically
MPu43a3fLSW_43a3fLSW_B=[203,1793] !Changed automatically
MPu433fRNE_433fRNE_A=[203,1795] !Changed automatically
MPu433fRNE_433fRNE_B=[203,1796] !Changed automatically
MPu43aAtt2_43aAtt2_A=[203,1798] !Changed automatically
MPu43aAtt2_43aAtt2_B=[203,1799] !Changed automatically
MPu43aAtt1_43aAtt1_A=[203,1801] !Changed automatically
MPu43aAtt1_43aAtt1_B=[203,1802] !Changed automatically
MPu43a3fCSW_43a3fCSW_A=[203,1804] !Changed automatically
MPu43a3fCSW_43a3fCSW_B=[203,1805] !Changed automatically
MPu433fRSE_433fRSE_A=[203,1807] !Changed automatically
MPu433fRSE_433fRSE_B=[203,1808] !Changed automatically
MPu43a2fRNE_43a2fRNE_A=[203,1810] !Changed automatically
MPu43a2fRNE_43a2fRNE_B=[203,1811] !Changed automatically
MPu43a2fRSW_43a2fRSW_A=[203,1813] !Changed automatically
MPu43a2fRSW_43a2fRSW_B=[203,1814] !Changed automatically
MPu433fRSW_433fRSW_A=[203,1816] !Changed automatically
MPu433fRSW_433fRSW_B=[203,1817] !Changed automatically
MPu43a3fRNE_43a3fRNE_A=[203,1819] !Changed automatically
MPu43a3fRNE_43a3fRNE_B=[203,1820] !Changed automatically
MPu43Att2_43Att2_A=[203,1822] !Changed automatically
MPu43Att2_43Att2_B=[203,1823] !Changed automatically
MPu43Att1_43Att1_A=[203,1825] !Changed automatically
MPu43Att1_43Att1_B=[203,1826] !Changed automatically
MPu43a3fRSW_43a3fRSW_A=[203,1828] !Changed automatically
MPu43a3fRSW_43a3fRSW_B=[203,1829] !Changed automatically
MPu43a2fLNE_43a2fLNE_A=[203,1831] !Changed automatically
MPu43a2fLNE_43a2fLNE_B=[203,1832] !Changed automatically
MPu432fLNE_432fLNE_A=[203,1834] !Changed automatically
MPu432fLNE_432fLNE_B=[203,1835] !Changed automatically
MPuRad43aGfL_Rad43aGfL_A=[203,1837] !Changed automatically
MPuRad43aGfL_Rad43aGfL_B=[203,1838] !Changed automatically
MPuRad432fR_Rad432fR_A=[203,1840] !Changed automatically
MPuRad432fR_Rad432fR_B=[203,1841] !Changed automatically
MPuRad433fL_Rad433fL_A=[203,1843] !Changed automatically
MPuRad433fL_Rad433fL_B=[203,1844] !Changed automatically
MPuRad433fR_Rad433fR_A=[203,1846] !Changed automatically
MPuRad433fR_Rad433fR_B=[203,1847] !Changed automatically
MPuRad43a1fL_Rad43a1fL_A=[203,1849] !Changed automatically
MPuRad43a1fL_Rad43a1fL_B=[203,1850] !Changed automatically
MPuRad43aGfC_Rad43aGfC_A=[203,1852] !Changed automatically
MPuRad43aGfC_Rad43aGfC_B=[203,1853] !Changed automatically
MPuRad43aGfR_Rad43aGfR_A=[203,1855] !Changed automatically
MPuRad43aGfR_Rad43aGfR_B=[203,1856] !Changed automatically
MPuRad43a1fC_Rad43a1fC_A=[203,1858] !Changed automatically
MPuRad43a1fC_Rad43a1fC_B=[203,1859] !Changed automatically
MPuRad43a2fL_Rad43a2fL_A=[203,1861] !Changed automatically
MPuRad43a2fL_Rad43a2fL_B=[203,1862] !Changed automatically
MPuRad43a2fC_Rad43a2fC_A=[203,1864] !Changed automatically
MPuRad43a2fC_Rad43a2fC_B=[203,1865] !Changed automatically
MPuRad43a1fR_Rad43a1fR_A=[203,1867] !Changed automatically
MPuRad43a1fR_Rad43a1fR_B=[203,1868] !Changed automatically
MPuRad43GfL_Rad43GfL_A=[203,1870] !Changed automatically
MPuRad43GfL_Rad43GfL_B=[203,1871] !Changed automatically
MPuRad43a3fL_Rad43a3fL_A=[203,1873] !Changed automatically
MPuRad43a3fL_Rad43a3fL_B=[203,1874] !Changed automatically
MPuRad43a3fC_Rad43a3fC_A=[203,1876] !Changed automatically
MPuRad43a3fC_Rad43a3fC_B=[203,1877] !Changed automatically
MPuRad43a3fR_Rad43a3fR_A=[203,1879] !Changed automatically
MPuRad43a3fR_Rad43a3fR_B=[203,1880] !Changed automatically
MPuRad432fL_Rad432fL_A=[203,1882] !Changed automatically
MPuRad432fL_Rad432fL_B=[203,1883] !Changed automatically
MPuRad43a2fR_Rad43a2fR_A=[203,1885] !Changed automatically
MPuRad43a2fR_Rad43a2fR_B=[203,1886] !Changed automatically
MPuRad431fL_Rad431fL_A=[203,1888] !Changed automatically
MPuRad431fL_Rad431fL_B=[203,1889] !Changed automatically
MPuRad431fR_Rad431fR_A=[203,1891] !Changed automatically
MPuRad431fR_Rad431fR_B=[203,1892] !Changed automatically
MPu43aAtt3_43aAtt3_A=[203,1894] !Changed automatically
MPu43aAtt3_43aAtt3_B=[203,1895] !Changed automatically
MPuRad43GfR_Rad43GfR_A=[203,1897] !Changed automatically
MPuRad43GfR_Rad43GfR_B=[203,1898] !Changed automatically
MPu43a3fLNW_43a3fLNW_A=[203,1900] !Changed automatically
MPu43a3fLNW_43a3fLNW_B=[203,1901] !Changed automatically
MPu43a3fLNE_43a3fLNE_A=[203,1903] !Changed automatically
MPu43a3fLNE_43a3fLNE_B=[203,1904] !Changed automatically
MPu433fLNE_433fLNE_A=[203,1906] !Changed automatically
MPu433fLNE_433fLNE_B=[203,1907] !Changed automatically
MPu43a2fLNW_43a2fLNW_A=[203,1909] !Changed automatically
MPu43a2fLNW_43a2fLNW_B=[203,1910] !Changed automatically
MPu432fLSW_432fLSW_A=[203,1912] !Changed automatically
MPu432fLSW_432fLSW_B=[203,1913] !Changed automatically
MPu432fRNE_432fRNE_A=[203,1915] !Changed automatically
MPu432fRNE_432fRNE_B=[203,1916] !Changed automatically
MPu43a2fLSW_43a2fLSW_A=[203,1918] !Changed automatically
MPu43a2fLSW_43a2fLSW_B=[203,1919] !Changed automatically
MPu433fLSW_433fLSW_A=[203,1921] !Changed automatically
MPu433fLSW_433fLSW_B=[203,1922] !Changed automatically
MPu43aGfRSW_43aGfRSW_A=[203,1924] !Changed automatically
MPu43aGfRSW_43aGfRSW_B=[203,1925] !Changed automatically
MPuDhw_A=[203,1927] !Changed automatically
MPuDhw_B=[203,1928] !Changed automatically
MTee1724_A=[203,1930] !Changed automatically
MTee1724_B=[203,1931] !Changed automatically
MTee1724_C=[203,1932] !Changed automatically
MValMixDhw_A=[203,1933] !Changed automatically
MValMixDhw_B=[203,1934] !Changed automatically
MValMixDhw_C=[203,1935] !Changed automatically
MTesDhw_ValMixDhw_A=[203,1936] !Changed automatically
MTesDhw_ValMixDhw_B=[203,1937] !Changed automatically
MValMixDhw_PuDhw_A=[203,1939] !Changed automatically
MValMixDhw_PuDhw_B=[203,1940] !Changed automatically
MTee1724_TesDhw_A=[203,1942] !Changed automatically
MTee1724_TesDhw_B=[203,1943] !Changed automatically
MTee1724_ValMixDhw_A=[203,1945] !Changed automatically
MTee1724_ValMixDhw_B=[203,1946] !Changed automatically
MPuDhw_WtDhwOut_A=[203,1948] !Changed automatically
MPuDhw_WtDhwOut_B=[203,1949] !Changed automatically
MWtDhwIn_Tee1724_A=[203,1951] !Changed automatically
MWtDhwIn_Tee1724_B=[203,1952] !Changed automatically
EQUATIONS 4
FbrineRho = RHOBRI ! [kg/m^3]
FbrineCp = CPBRI_SI*0.001 ! [kJ/(kg*K)]
FwaterRho = RHOWAT ! [kg/m^3]
FwaterCp = CPWAT_SI*0.001 ! [kJ/(kg*K)]
EQUATIONS 18
loop3NPipes = 0
loop3Len = 2.0 ! [m]
loop3Dia = 0.02 ! [m]
loop3UVal = 2.99988 ! [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop3Rho = FwaterRho
Lloop3Cp = FwaterCp
loop5NPipes = 355
loop5Len=50.0 ! value changed from original by executeTrnsys.py
loop5Dia=0.42 ! value changed from original by executeTrnsys.py
loop5UVal=0.0 ! value changed from original by executeTrnsys.py
Lloop5Rho = FwaterRho
Lloop5Cp = FwaterCp
loop4NPipes = 6
loop4Len=30.0 ! value changed from original by executeTrnsys.py
loop4Dia=0.16 ! value changed from original by executeTrnsys.py
loop4UVal=0.0 ! value changed from original by executeTrnsys.py
Lloop4Rho = FwaterRho
Lloop4Cp = FwaterCp
UNIT 204 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MValHp_A
MValHp_B
MValHp_C
TAwHp_ValHp
TValHp_TesDhw
TValHp_Tee73
0 0 0 20 20 20
EQUATIONS 1
TValHp= [204,1] !Changed automatically
UNIT 205 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee27_A
MTee27_B
MTee27_C
TTesDhw_Tee27
TTee27_Pump1527
TTee1569_Tee27
0 0 0 20 20 20
EQUATIONS 1
TTee27= [205,1] !Changed automatically
UNIT 206 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTesDhwHxHpDhwH ! input flow temperature [deg C]
MTesDhw_Tee27_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee27 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTesDhw_Tee27 = [206,1] !Changed automatically
PTesDhw_Tee27_kW = [206,3]/3600 !Changed automatically
PTesDhw_Tee27Conv_kW = [206,4]/3600 !Changed automatically
PTesDhw_Tee27Int_kJ = [206,5] !Changed automatically
MTesDhw_Tee27 = MTesDhw_Tee27_A
EQUATIONS 1
TWtDhwIn = Tcw
UNIT 207 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee73_A
MTee73_B
MTee73_C
TTee73_ValMixSh
TValHp_Tee73
TTee73_TesSh
0 0 0 20 20 20
EQUATIONS 1
TTee73= [207,1] !Changed automatically
UNIT 208 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MValMixSh_A
MValMixSh_B
MValMixSh_C
TValMixSh_Tee300
TTee73_ValMixSh
TTee86_ValMixSh
0 0 0 20 20 20
EQUATIONS 1
TValMixSh= [208,1] !Changed automatically
UNIT 209 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee86_A
MTee86_B
MTee86_C
TTee86_Tee1569
TTee1492_Tee86
TTee86_ValMixSh
0 0 0 20 20 20
EQUATIONS 1
TTee86= [209,1] !Changed automatically
UNIT 210 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee117_A
MTee117_B
MTee117_C
TTee300_Tee117
TTee117_Pump122
TTee117_Tee258
0 0 0 20 20 20
EQUATIONS 1
TTee117= [210,1] !Changed automatically
UNIT 211 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee127_A
MTee127_B
MTee127_C
TTee258_Tee127
TTee127_Pump262
TTee127_Tee268
0 0 0 20 20 20
EQUATIONS 1
TTee127= [211,1] !Changed automatically
UNIT 212 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee258_A
MTee258_B
MTee258_C
TTee117_Tee258
TTee258_Pump255
TTee258_Tee127
0 0 0 20 20 20
EQUATIONS 1
TTee258= [212,1] !Changed automatically
UNIT 213 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee268_A
MTee268_B
MTee268_C
TTee127_Tee268
TTee268_Pump272
TTee268_Tee278
0 0 0 20 20 20
EQUATIONS 1
TTee268= [213,1] !Changed automatically
UNIT 214 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee278_A
MTee278_B
MTee278_C
TTee268_Tee278
TTee278_Pump282
TTee278_Pump293
0 0 0 20 20 20
EQUATIONS 1
TTee278= [214,1] !Changed automatically
UNIT 215 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee300_A
MTee300_B
MTee300_C
TTee300_Tee117
TValMixSh_Tee300
TTee300_Tee361
0 0 0 20 20 20
EQUATIONS 1
TTee300= [215,1] !Changed automatically
UNIT 216 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee300 ! input flow temperature [deg C]
MTee300_Tee117_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee117 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee300_Tee117 = [216,1] !Changed automatically
PTee300_Tee117_kW = [216,3]/3600 !Changed automatically
PTee300_Tee117Conv_kW = [216,4]/3600 !Changed automatically
PTee300_Tee117Int_kJ = [216,5] !Changed automatically
MTee300_Tee117 = MTee300_Tee117_A
UNIT 217 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee117 ! input flow temperature [deg C]
MTee117_Pump122_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43GfRSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee117_Pump122 = [217,1] !Changed automatically
PTee117_Pump122_kW = [217,3]/3600 !Changed automatically
PTee117_Pump122Conv_kW = [217,4]/3600 !Changed automatically
PTee117_Pump122Int_kJ = [217,5] !Changed automatically
MTee117_Pump122 = MTee117_Pump122_A
UNIT 218 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee258 ! input flow temperature [deg C]
MTee258_Pump255_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43GfRSE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee258_Pump255 = [218,1] !Changed automatically
PTee258_Pump255_kW = [218,3]/3600 !Changed automatically
PTee258_Pump255Conv_kW = [218,4]/3600 !Changed automatically
PTee258_Pump255Int_kJ = [218,5] !Changed automatically
MTee258_Pump255 = MTee258_Pump255_A
UNIT 219 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee127 ! input flow temperature [deg C]
MTee127_Pump262_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43GfRNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee127_Pump262 = [219,1] !Changed automatically
PTee127_Pump262_kW = [219,3]/3600 !Changed automatically
PTee127_Pump262Conv_kW = [219,4]/3600 !Changed automatically
PTee127_Pump262Int_kJ = [219,5] !Changed automatically
MTee127_Pump262 = MTee127_Pump262_A
UNIT 220 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee268 ! input flow temperature [deg C]
MTee268_Pump272_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43GfLSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee268_Pump272 = [220,1] !Changed automatically
PTee268_Pump272_kW = [220,3]/3600 !Changed automatically
PTee268_Pump272Conv_kW = [220,4]/3600 !Changed automatically
PTee268_Pump272Int_kJ = [220,5] !Changed automatically
MTee268_Pump272 = MTee268_Pump272_A
UNIT 221 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee278 ! input flow temperature [deg C]
MTee278_Pump282_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43GfLNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee278_Pump282 = [221,1] !Changed automatically
PTee278_Pump282_kW = [221,3]/3600 !Changed automatically
PTee278_Pump282Conv_kW = [221,4]/3600 !Changed automatically
PTee278_Pump282Int_kJ = [221,5] !Changed automatically
MTee278_Pump282 = MTee278_Pump282_A
UNIT 222 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee278 ! input flow temperature [deg C]
MTee278_Pump293_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43aGfRSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee278_Pump293 = [222,1] !Changed automatically
PTee278_Pump293_kW = [222,3]/3600 !Changed automatically
PTee278_Pump293Conv_kW = [222,4]/3600 !Changed automatically
PTee278_Pump293Int_kJ = [222,5] !Changed automatically
MTee278_Pump293 = MTee278_Pump293_A
UNIT 223 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee268 ! input flow temperature [deg C]
MTee268_Tee278_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee278 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee268_Tee278 = [223,1] !Changed automatically
PTee268_Tee278_kW = [223,3]/3600 !Changed automatically
PTee268_Tee278Conv_kW = [223,4]/3600 !Changed automatically
PTee268_Tee278Int_kJ = [223,5] !Changed automatically
MTee268_Tee278 = MTee268_Tee278_A
UNIT 224 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee117 ! input flow temperature [deg C]
MTee117_Tee258_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee258 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee117_Tee258 = [224,1] !Changed automatically
PTee117_Tee258_kW = [224,3]/3600 !Changed automatically
PTee117_Tee258Conv_kW = [224,4]/3600 !Changed automatically
PTee117_Tee258Int_kJ = [224,5] !Changed automatically
MTee117_Tee258 = MTee117_Tee258_A
UNIT 225 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee258 ! input flow temperature [deg C]
MTee258_Tee127_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee127 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee258_Tee127 = [225,1] !Changed automatically
PTee258_Tee127_kW = [225,3]/3600 !Changed automatically
PTee258_Tee127Conv_kW = [225,4]/3600 !Changed automatically
PTee258_Tee127Int_kJ = [225,5] !Changed automatically
MTee258_Tee127 = MTee258_Tee127_A
UNIT 226 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee127 ! input flow temperature [deg C]
MTee127_Tee268_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee268 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee127_Tee268 = [226,1] !Changed automatically
PTee127_Tee268_kW = [226,3]/3600 !Changed automatically
PTee127_Tee268Conv_kW = [226,4]/3600 !Changed automatically
PTee127_Tee268Int_kJ = [226,5] !Changed automatically
MTee127_Tee268 = MTee127_Tee268_A
UNIT 227 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee323_A
MTee323_B
MTee323_C
TTee323_Tee329
TRad296_Tee323
TRad285_Tee323
0 0 0 20 20 20
EQUATIONS 1
TTee323= [227,1] !Changed automatically
UNIT 228 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43aGfRSWH ! input flow temperature [deg C]
MRad296_Tee323_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee323 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad296_Tee323 = [228,1] !Changed automatically
PRad296_Tee323_kW = [228,3]/3600 !Changed automatically
PRad296_Tee323Conv_kW = [228,4]/3600 !Changed automatically
PRad296_Tee323Int_kJ = [228,5] !Changed automatically
MRad296_Tee323 = MRad296_Tee323_A
UNIT 229 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43GfLNEH ! input flow temperature [deg C]
MRad285_Tee323_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee323 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad285_Tee323 = [229,1] !Changed automatically
PRad285_Tee323_kW = [229,3]/3600 !Changed automatically
PRad285_Tee323Conv_kW = [229,4]/3600 !Changed automatically
PRad285_Tee323Int_kJ = [229,5] !Changed automatically
MRad285_Tee323 = MRad285_Tee323_A
UNIT 230 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee329_A
MTee329_B
MTee329_C
TTee329_Tee335
TTee323_Tee329
TRad275_Tee329
0 0 0 20 20 20
EQUATIONS 1
TTee329= [230,1] !Changed automatically
UNIT 231 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee323 ! input flow temperature [deg C]
MTee323_Tee329_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee329 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee323_Tee329 = [231,1] !Changed automatically
PTee323_Tee329_kW = [231,3]/3600 !Changed automatically
PTee323_Tee329Conv_kW = [231,4]/3600 !Changed automatically
PTee323_Tee329Int_kJ = [231,5] !Changed automatically
MTee323_Tee329 = MTee323_Tee329_A
UNIT 232 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43GfLSWH ! input flow temperature [deg C]
MRad275_Tee329_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee329 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad275_Tee329 = [232,1] !Changed automatically
PRad275_Tee329_kW = [232,3]/3600 !Changed automatically
PRad275_Tee329Conv_kW = [232,4]/3600 !Changed automatically
PRad275_Tee329Int_kJ = [232,5] !Changed automatically
MRad275_Tee329 = MRad275_Tee329_A
UNIT 233 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee335_A
MTee335_B
MTee335_C
TTee335_Tee341
TTee329_Tee335
TRad265_Tee335
0 0 0 20 20 20
EQUATIONS 1
TTee335= [233,1] !Changed automatically
UNIT 234 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee329 ! input flow temperature [deg C]
MTee329_Tee335_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee335 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee329_Tee335 = [234,1] !Changed automatically
PTee329_Tee335_kW = [234,3]/3600 !Changed automatically
PTee329_Tee335Conv_kW = [234,4]/3600 !Changed automatically
PTee329_Tee335Int_kJ = [234,5] !Changed automatically
MTee329_Tee335 = MTee329_Tee335_A
UNIT 235 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43GfRNEH ! input flow temperature [deg C]
MRad265_Tee335_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee335 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad265_Tee335 = [235,1] !Changed automatically
PRad265_Tee335_kW = [235,3]/3600 !Changed automatically
PRad265_Tee335Conv_kW = [235,4]/3600 !Changed automatically
PRad265_Tee335Int_kJ = [235,5] !Changed automatically
MRad265_Tee335 = MRad265_Tee335_A
UNIT 236 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee341_A
MTee341_B
MTee341_C
TTee341_Tee347
TTee335_Tee341
TRad114_Tee341
0 0 0 20 20 20
EQUATIONS 1
TTee341= [236,1] !Changed automatically
UNIT 237 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee335 ! input flow temperature [deg C]
MTee335_Tee341_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee341 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee335_Tee341 = [237,1] !Changed automatically
PTee335_Tee341_kW = [237,3]/3600 !Changed automatically
PTee335_Tee341Conv_kW = [237,4]/3600 !Changed automatically
PTee335_Tee341Int_kJ = [237,5] !Changed automatically
MTee335_Tee341 = MTee335_Tee341_A
UNIT 238 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43GfRSEH ! input flow temperature [deg C]
MRad114_Tee341_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee341 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad114_Tee341 = [238,1] !Changed automatically
PRad114_Tee341_kW = [238,3]/3600 !Changed automatically
PRad114_Tee341Conv_kW = [238,4]/3600 !Changed automatically
PRad114_Tee341Int_kJ = [238,5] !Changed automatically
MRad114_Tee341 = MRad114_Tee341_A
UNIT 239 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee347_A
MTee347_B
MTee347_C
TTee347_Tee1450
TTee341_Tee347
T43GfRSW_Tee347
0 0 0 20 20 20
EQUATIONS 1
TTee347= [239,1] !Changed automatically
UNIT 240 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee341 ! input flow temperature [deg C]
MTee341_Tee347_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee347 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee341_Tee347 = [240,1] !Changed automatically
PTee341_Tee347_kW = [240,3]/3600 !Changed automatically
PTee341_Tee347Conv_kW = [240,4]/3600 !Changed automatically
PTee341_Tee347Int_kJ = [240,5] !Changed automatically
MTee341_Tee347 = MTee341_Tee347_A
UNIT 241 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee357_A
MTee357_B
MTee357_C
TTee361_Tee357
TTee357_Pump354
TTee357_Tee365
0 0 0 20 20 20
EQUATIONS 1
TTee357= [241,1] !Changed automatically
UNIT 242 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee361_A
MTee361_B
MTee361_C
TTee300_Tee361
TTee361_Tee461
TTee361_Tee357
0 0 0 20 20 20
EQUATIONS 1
TTee361= [242,1] !Changed automatically
UNIT 243 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee365_A
MTee365_B
MTee365_C
TTee357_Tee365
TTee365_Pump373
TTee365_Tee381
0 0 0 20 20 20
EQUATIONS 1
TTee365= [243,1] !Changed automatically
UNIT 244 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee369_A
MTee369_B
MTee369_C
TTee369_Tee429
TTee385_Tee369
TRad376_Tee369
0 0 0 20 20 20
EQUATIONS 1
TTee369= [244,1] !Changed automatically
UNIT 245 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee381_A
MTee381_B
MTee381_C
TTee365_Tee381
TTee381_Pump389
TTee381_Tee395
0 0 0 20 20 20
EQUATIONS 1
TTee381= [245,1] !Changed automatically
UNIT 246 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee385_A
MTee385_B
MTee385_C
TTee385_Tee369
TTee399_Tee385
TRad392_Tee385
0 0 0 20 20 20
EQUATIONS 1
TTee385= [246,1] !Changed automatically
UNIT 247 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee395_A
MTee395_B
MTee395_C
TTee381_Tee395
TTee395_Pump403
TTee395_Tee409
0 0 0 20 20 20
EQUATIONS 1
TTee395= [247,1] !Changed automatically
UNIT 248 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee399_A
MTee399_B
MTee399_C
TTee399_Tee385
TTee419_Tee399
TRad406_Tee399
0 0 0 20 20 20
EQUATIONS 1
TTee399= [248,1] !Changed automatically
UNIT 249 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee409_A
MTee409_B
MTee409_C
TTee395_Tee409
TTee409_Pump413
TTee409_Pump423
0 0 0 20 20 20
EQUATIONS 1
TTee409= [249,1] !Changed automatically
UNIT 250 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee419_A
MTee419_B
MTee419_C
TTee419_Tee399
TRad426_Tee419
TRad416_Tee419
0 0 0 20 20 20
EQUATIONS 1
TTee419= [250,1] !Changed automatically
UNIT 251 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee429_A
MTee429_B
MTee429_C
TTee429_Tee1450
TTee369_Tee429
TRad133_Tee429
0 0 0 20 20 20
EQUATIONS 1
TTee429= [251,1] !Changed automatically
UNIT 252 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee300 ! input flow temperature [deg C]
MTee300_Tee361_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee361 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee300_Tee361 = [252,1] !Changed automatically
PTee300_Tee361_kW = [252,3]/3600 !Changed automatically
PTee300_Tee361Conv_kW = [252,4]/3600 !Changed automatically
PTee300_Tee361Int_kJ = [252,5] !Changed automatically
MTee300_Tee361 = MTee300_Tee361_A
UNIT 253 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee361 ! input flow temperature [deg C]
MTee361_Tee357_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee357 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee361_Tee357 = [253,1] !Changed automatically
PTee361_Tee357_kW = [253,3]/3600 !Changed automatically
PTee361_Tee357Conv_kW = [253,4]/3600 !Changed automatically
PTee361_Tee357Int_kJ = [253,5] !Changed automatically
MTee361_Tee357 = MTee361_Tee357_A
UNIT 254 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee357 ! input flow temperature [deg C]
MTee357_Pump354_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43aGfRNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee357_Pump354 = [254,1] !Changed automatically
PTee357_Pump354_kW = [254,3]/3600 !Changed automatically
PTee357_Pump354Conv_kW = [254,4]/3600 !Changed automatically
PTee357_Pump354Int_kJ = [254,5] !Changed automatically
MTee357_Pump354 = MTee357_Pump354_A
UNIT 255 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee357 ! input flow temperature [deg C]
MTee357_Tee365_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee365 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee357_Tee365 = [255,1] !Changed automatically
PTee357_Tee365_kW = [255,3]/3600 !Changed automatically
PTee357_Tee365Conv_kW = [255,4]/3600 !Changed automatically
PTee357_Tee365Int_kJ = [255,5] !Changed automatically
MTee357_Tee365 = MTee357_Tee365_A
UNIT 256 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee365 ! input flow temperature [deg C]
MTee365_Pump373_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43aGfCSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee365_Pump373 = [256,1] !Changed automatically
PTee365_Pump373_kW = [256,3]/3600 !Changed automatically
PTee365_Pump373Conv_kW = [256,4]/3600 !Changed automatically
PTee365_Pump373Int_kJ = [256,5] !Changed automatically
MTee365_Pump373 = MTee365_Pump373_A
UNIT 257 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43aGfRNEH ! input flow temperature [deg C]
MRad133_Tee429_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee429 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad133_Tee429 = [257,1] !Changed automatically
PRad133_Tee429_kW = [257,3]/3600 !Changed automatically
PRad133_Tee429Conv_kW = [257,4]/3600 !Changed automatically
PRad133_Tee429Int_kJ = [257,5] !Changed automatically
MRad133_Tee429 = MRad133_Tee429_A
UNIT 258 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee369 ! input flow temperature [deg C]
MTee369_Tee429_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee429 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee369_Tee429 = [258,1] !Changed automatically
PTee369_Tee429_kW = [258,3]/3600 !Changed automatically
PTee369_Tee429Conv_kW = [258,4]/3600 !Changed automatically
PTee369_Tee429Int_kJ = [258,5] !Changed automatically
MTee369_Tee429 = MTee369_Tee429_A
UNIT 259 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43aGfCSWH ! input flow temperature [deg C]
MRad376_Tee369_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee369 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad376_Tee369 = [259,1] !Changed automatically
PRad376_Tee369_kW = [259,3]/3600 !Changed automatically
PRad376_Tee369Conv_kW = [259,4]/3600 !Changed automatically
PRad376_Tee369Int_kJ = [259,5] !Changed automatically
MRad376_Tee369 = MRad376_Tee369_A
UNIT 260 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee365 ! input flow temperature [deg C]
MTee365_Tee381_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee381 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee365_Tee381 = [260,1] !Changed automatically
PTee365_Tee381_kW = [260,3]/3600 !Changed automatically
PTee365_Tee381Conv_kW = [260,4]/3600 !Changed automatically
PTee365_Tee381Int_kJ = [260,5] !Changed automatically
MTee365_Tee381 = MTee365_Tee381_A
UNIT 261 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee381 ! input flow temperature [deg C]
MTee381_Pump389_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43aGfLSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee381_Pump389 = [261,1] !Changed automatically
PTee381_Pump389_kW = [261,3]/3600 !Changed automatically
PTee381_Pump389Conv_kW = [261,4]/3600 !Changed automatically
PTee381_Pump389Int_kJ = [261,5] !Changed automatically
MTee381_Pump389 = MTee381_Pump389_A
UNIT 262 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee381 ! input flow temperature [deg C]
MTee381_Tee395_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee395 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee381_Tee395 = [262,1] !Changed automatically
PTee381_Tee395_kW = [262,3]/3600 !Changed automatically
PTee381_Tee395Conv_kW = [262,4]/3600 !Changed automatically
PTee381_Tee395Int_kJ = [262,5] !Changed automatically
MTee381_Tee395 = MTee381_Tee395_A
UNIT 263 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee385 ! input flow temperature [deg C]
MTee385_Tee369_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee369 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee385_Tee369 = [263,1] !Changed automatically
PTee385_Tee369_kW = [263,3]/3600 !Changed automatically
PTee385_Tee369Conv_kW = [263,4]/3600 !Changed automatically
PTee385_Tee369Int_kJ = [263,5] !Changed automatically
MTee385_Tee369 = MTee385_Tee369_A
UNIT 264 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43aGfLSWH ! input flow temperature [deg C]
MRad392_Tee385_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee385 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad392_Tee385 = [264,1] !Changed automatically
PRad392_Tee385_kW = [264,3]/3600 !Changed automatically
PRad392_Tee385Conv_kW = [264,4]/3600 !Changed automatically
PRad392_Tee385Int_kJ = [264,5] !Changed automatically
MRad392_Tee385 = MRad392_Tee385_A
UNIT 265 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee399 ! input flow temperature [deg C]
MTee399_Tee385_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee385 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee399_Tee385 = [265,1] !Changed automatically
PTee399_Tee385_kW = [265,3]/3600 !Changed automatically
PTee399_Tee385Conv_kW = [265,4]/3600 !Changed automatically
PTee399_Tee385Int_kJ = [265,5] !Changed automatically
MTee399_Tee385 = MTee399_Tee385_A
UNIT 266 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee395 ! input flow temperature [deg C]
MTee395_Pump403_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43aGfLNW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee395_Pump403 = [266,1] !Changed automatically
PTee395_Pump403_kW = [266,3]/3600 !Changed automatically
PTee395_Pump403Conv_kW = [266,4]/3600 !Changed automatically
PTee395_Pump403Int_kJ = [266,5] !Changed automatically
MTee395_Pump403 = MTee395_Pump403_A
UNIT 267 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee395 ! input flow temperature [deg C]
MTee395_Tee409_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee409 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee395_Tee409 = [267,1] !Changed automatically
PTee395_Tee409_kW = [267,3]/3600 !Changed automatically
PTee395_Tee409Conv_kW = [267,4]/3600 !Changed automatically
PTee395_Tee409Int_kJ = [267,5] !Changed automatically
MTee395_Tee409 = MTee395_Tee409_A
UNIT 268 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee409 ! input flow temperature [deg C]
MTee409_Pump413_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43aGfLNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee409_Pump413 = [268,1] !Changed automatically
PTee409_Pump413_kW = [268,3]/3600 !Changed automatically
PTee409_Pump413Conv_kW = [268,4]/3600 !Changed automatically
PTee409_Pump413Int_kJ = [268,5] !Changed automatically
MTee409_Pump413 = MTee409_Pump413_A
UNIT 269 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee409 ! input flow temperature [deg C]
MTee409_Pump423_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu431fRSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee409_Pump423 = [269,1] !Changed automatically
PTee409_Pump423_kW = [269,3]/3600 !Changed automatically
PTee409_Pump423Conv_kW = [269,4]/3600 !Changed automatically
PTee409_Pump423Int_kJ = [269,5] !Changed automatically
MTee409_Pump423 = MTee409_Pump423_A
UNIT 270 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43aGfLNWH ! input flow temperature [deg C]
MRad406_Tee399_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee399 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad406_Tee399 = [270,1] !Changed automatically
PRad406_Tee399_kW = [270,3]/3600 !Changed automatically
PRad406_Tee399Conv_kW = [270,4]/3600 !Changed automatically
PRad406_Tee399Int_kJ = [270,5] !Changed automatically
MRad406_Tee399 = MRad406_Tee399_A
UNIT 271 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43aGfLNEH ! input flow temperature [deg C]
MRad416_Tee419_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee419 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad416_Tee419 = [271,1] !Changed automatically
PRad416_Tee419_kW = [271,3]/3600 !Changed automatically
PRad416_Tee419Conv_kW = [271,4]/3600 !Changed automatically
PRad416_Tee419Int_kJ = [271,5] !Changed automatically
MRad416_Tee419 = MRad416_Tee419_A
UNIT 272 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee419 ! input flow temperature [deg C]
MTee419_Tee399_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee399 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee419_Tee399 = [272,1] !Changed automatically
PTee419_Tee399_kW = [272,3]/3600 !Changed automatically
PTee419_Tee399Conv_kW = [272,4]/3600 !Changed automatically
PTee419_Tee399Int_kJ = [272,5] !Changed automatically
MTee419_Tee399 = MTee419_Tee399_A
UNIT 273 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T431fRSWH ! input flow temperature [deg C]
MRad426_Tee419_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee419 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad426_Tee419 = [273,1] !Changed automatically
PRad426_Tee419_kW = [273,3]/3600 !Changed automatically
PRad426_Tee419Conv_kW = [273,4]/3600 !Changed automatically
PRad426_Tee419Int_kJ = [273,5] !Changed automatically
MRad426_Tee419 = MRad426_Tee419_A
UNIT 274 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee461_A
MTee461_B
MTee461_C
TTee361_Tee461
TTee461_Tee553
TTee461_Tee465
0 0 0 20 20 20
EQUATIONS 1
TTee461= [274,1] !Changed automatically
UNIT 275 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee465_A
MTee465_B
MTee465_C
TTee461_Tee465
TTee465_Pump469
TTee465_Tee476
0 0 0 20 20 20
EQUATIONS 1
TTee465= [275,1] !Changed automatically
UNIT 276 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee472_A
MTee472_B
MTee472_C
TTee472_Tee1456
TTee483_Tee472
TRad136_Tee472
0 0 0 20 20 20
EQUATIONS 1
TTee472= [276,1] !Changed automatically
UNIT 277 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee476_A
MTee476_B
MTee476_C
TTee465_Tee476
TTee476_Pump480
TTee476_Tee487
0 0 0 20 20 20
EQUATIONS 1
TTee476= [277,1] !Changed automatically
UNIT 278 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee483_A
MTee483_B
MTee483_C
TTee483_Tee472
TTee491_Tee483
TRad139_Tee483
0 0 0 20 20 20
EQUATIONS 1
TTee483= [278,1] !Changed automatically
UNIT 279 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee487_A
MTee487_B
MTee487_C
TTee476_Tee487
TTee487_Pump495
TTee487_Tee498
0 0 0 20 20 20
EQUATIONS 1
TTee487= [279,1] !Changed automatically
UNIT 280 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee491_A
MTee491_B
MTee491_C
TTee491_Tee483
TTee505_Tee491
TRad142_Tee491
0 0 0 20 20 20
EQUATIONS 1
TTee491= [280,1] !Changed automatically
UNIT 281 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee498_A
MTee498_B
MTee498_C
TTee487_Tee498
TTee498_Pump502
TTee498_Tee509
0 0 0 20 20 20
EQUATIONS 1
TTee498= [281,1] !Changed automatically
UNIT 282 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee505_A
MTee505_B
MTee505_C
TTee505_Tee491
TTee516_Tee505
TRad145_Tee505
0 0 0 20 20 20
EQUATIONS 1
TTee505= [282,1] !Changed automatically
UNIT 283 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee509_A
MTee509_B
MTee509_C
TTee498_Tee509
TTee509_Pump513
TTee509_Pump520
0 0 0 20 20 20
EQUATIONS 1
TTee509= [283,1] !Changed automatically
UNIT 284 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee516_A
MTee516_B
MTee516_C
TTee516_Tee505
TRad151_Tee516
TRad148_Tee516
0 0 0 20 20 20
EQUATIONS 1
TTee516= [284,1] !Changed automatically
UNIT 285 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a1fRNEH ! input flow temperature [deg C]
MRad151_Tee516_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee516 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad151_Tee516 = [285,1] !Changed automatically
PRad151_Tee516_kW = [285,3]/3600 !Changed automatically
PRad151_Tee516Conv_kW = [285,4]/3600 !Changed automatically
PRad151_Tee516Int_kJ = [285,5] !Changed automatically
MRad151_Tee516 = MRad151_Tee516_A
UNIT 286 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a1fRSWH ! input flow temperature [deg C]
MRad148_Tee516_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee516 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad148_Tee516 = [286,1] !Changed automatically
PRad148_Tee516_kW = [286,3]/3600 !Changed automatically
PRad148_Tee516Conv_kW = [286,4]/3600 !Changed automatically
PRad148_Tee516Int_kJ = [286,5] !Changed automatically
MRad148_Tee516 = MRad148_Tee516_A
UNIT 287 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee516 ! input flow temperature [deg C]
MTee516_Tee505_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee505 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee516_Tee505 = [287,1] !Changed automatically
PTee516_Tee505_kW = [287,3]/3600 !Changed automatically
PTee516_Tee505Conv_kW = [287,4]/3600 !Changed automatically
PTee516_Tee505Int_kJ = [287,5] !Changed automatically
MTee516_Tee505 = MTee516_Tee505_A
UNIT 288 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T431fLNEH ! input flow temperature [deg C]
MRad145_Tee505_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee505 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad145_Tee505 = [288,1] !Changed automatically
PRad145_Tee505_kW = [288,3]/3600 !Changed automatically
PRad145_Tee505Conv_kW = [288,4]/3600 !Changed automatically
PRad145_Tee505Int_kJ = [288,5] !Changed automatically
MRad145_Tee505 = MRad145_Tee505_A
UNIT 289 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee505 ! input flow temperature [deg C]
MTee505_Tee491_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee491 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee505_Tee491 = [289,1] !Changed automatically
PTee505_Tee491_kW = [289,3]/3600 !Changed automatically
PTee505_Tee491Conv_kW = [289,4]/3600 !Changed automatically
PTee505_Tee491Int_kJ = [289,5] !Changed automatically
MTee505_Tee491 = MTee505_Tee491_A
UNIT 290 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T431fLSWH ! input flow temperature [deg C]
MRad142_Tee491_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee491 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad142_Tee491 = [290,1] !Changed automatically
PRad142_Tee491_kW = [290,3]/3600 !Changed automatically
PRad142_Tee491Conv_kW = [290,4]/3600 !Changed automatically
PRad142_Tee491Int_kJ = [290,5] !Changed automatically
MRad142_Tee491 = MRad142_Tee491_A
UNIT 291 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee491 ! input flow temperature [deg C]
MTee491_Tee483_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee483 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee491_Tee483 = [291,1] !Changed automatically
PTee491_Tee483_kW = [291,3]/3600 !Changed automatically
PTee491_Tee483Conv_kW = [291,4]/3600 !Changed automatically
PTee491_Tee483Int_kJ = [291,5] !Changed automatically
MTee491_Tee483 = MTee491_Tee483_A
UNIT 292 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T431fRNEH ! input flow temperature [deg C]
MRad139_Tee483_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee483 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad139_Tee483 = [292,1] !Changed automatically
PRad139_Tee483_kW = [292,3]/3600 !Changed automatically
PRad139_Tee483Conv_kW = [292,4]/3600 !Changed automatically
PRad139_Tee483Int_kJ = [292,5] !Changed automatically
MRad139_Tee483 = MRad139_Tee483_A
UNIT 293 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee483 ! input flow temperature [deg C]
MTee483_Tee472_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee472 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee483_Tee472 = [293,1] !Changed automatically
PTee483_Tee472_kW = [293,3]/3600 !Changed automatically
PTee483_Tee472Conv_kW = [293,4]/3600 !Changed automatically
PTee483_Tee472Int_kJ = [293,5] !Changed automatically
MTee483_Tee472 = MTee483_Tee472_A
UNIT 294 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T431fRSEH ! input flow temperature [deg C]
MRad136_Tee472_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee472 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad136_Tee472 = [294,1] !Changed automatically
PRad136_Tee472_kW = [294,3]/3600 !Changed automatically
PRad136_Tee472Conv_kW = [294,4]/3600 !Changed automatically
PRad136_Tee472Int_kJ = [294,5] !Changed automatically
MRad136_Tee472 = MRad136_Tee472_A
UNIT 295 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee361 ! input flow temperature [deg C]
MTee361_Tee461_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee461 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee361_Tee461 = [295,1] !Changed automatically
PTee361_Tee461_kW = [295,3]/3600 !Changed automatically
PTee361_Tee461Conv_kW = [295,4]/3600 !Changed automatically
PTee361_Tee461Int_kJ = [295,5] !Changed automatically
MTee361_Tee461 = MTee361_Tee461_A
UNIT 296 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee461 ! input flow temperature [deg C]
MTee461_Tee465_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee465 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee461_Tee465 = [296,1] !Changed automatically
PTee461_Tee465_kW = [296,3]/3600 !Changed automatically
PTee461_Tee465Conv_kW = [296,4]/3600 !Changed automatically
PTee461_Tee465Int_kJ = [296,5] !Changed automatically
MTee461_Tee465 = MTee461_Tee465_A
UNIT 297 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee465 ! input flow temperature [deg C]
MTee465_Pump469_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu431fRSE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee465_Pump469 = [297,1] !Changed automatically
PTee465_Pump469_kW = [297,3]/3600 !Changed automatically
PTee465_Pump469Conv_kW = [297,4]/3600 !Changed automatically
PTee465_Pump469Int_kJ = [297,5] !Changed automatically
MTee465_Pump469 = MTee465_Pump469_A
UNIT 298 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee465 ! input flow temperature [deg C]
MTee465_Tee476_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee476 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee465_Tee476 = [298,1] !Changed automatically
PTee465_Tee476_kW = [298,3]/3600 !Changed automatically
PTee465_Tee476Conv_kW = [298,4]/3600 !Changed automatically
PTee465_Tee476Int_kJ = [298,5] !Changed automatically
MTee465_Tee476 = MTee465_Tee476_A
UNIT 299 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee476 ! input flow temperature [deg C]
MTee476_Pump480_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu431fRNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee476_Pump480 = [299,1] !Changed automatically
PTee476_Pump480_kW = [299,3]/3600 !Changed automatically
PTee476_Pump480Conv_kW = [299,4]/3600 !Changed automatically
PTee476_Pump480Int_kJ = [299,5] !Changed automatically
MTee476_Pump480 = MTee476_Pump480_A
UNIT 300 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee476 ! input flow temperature [deg C]
MTee476_Tee487_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee487 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee476_Tee487 = [300,1] !Changed automatically
PTee476_Tee487_kW = [300,3]/3600 !Changed automatically
PTee476_Tee487Conv_kW = [300,4]/3600 !Changed automatically
PTee476_Tee487Int_kJ = [300,5] !Changed automatically
MTee476_Tee487 = MTee476_Tee487_A
UNIT 301 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee487 ! input flow temperature [deg C]
MTee487_Pump495_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu431fLSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee487_Pump495 = [301,1] !Changed automatically
PTee487_Pump495_kW = [301,3]/3600 !Changed automatically
PTee487_Pump495Conv_kW = [301,4]/3600 !Changed automatically
PTee487_Pump495Int_kJ = [301,5] !Changed automatically
MTee487_Pump495 = MTee487_Pump495_A
UNIT 302 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee487 ! input flow temperature [deg C]
MTee487_Tee498_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee498 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee487_Tee498 = [302,1] !Changed automatically
PTee487_Tee498_kW = [302,3]/3600 !Changed automatically
PTee487_Tee498Conv_kW = [302,4]/3600 !Changed automatically
PTee487_Tee498Int_kJ = [302,5] !Changed automatically
MTee487_Tee498 = MTee487_Tee498_A
UNIT 303 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee498 ! input flow temperature [deg C]
MTee498_Pump502_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu431fLNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee498_Pump502 = [303,1] !Changed automatically
PTee498_Pump502_kW = [303,3]/3600 !Changed automatically
PTee498_Pump502Conv_kW = [303,4]/3600 !Changed automatically
PTee498_Pump502Int_kJ = [303,5] !Changed automatically
MTee498_Pump502 = MTee498_Pump502_A
UNIT 304 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee498 ! input flow temperature [deg C]
MTee498_Tee509_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee509 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee498_Tee509 = [304,1] !Changed automatically
PTee498_Tee509_kW = [304,3]/3600 !Changed automatically
PTee498_Tee509Conv_kW = [304,4]/3600 !Changed automatically
PTee498_Tee509Int_kJ = [304,5] !Changed automatically
MTee498_Tee509 = MTee498_Tee509_A
UNIT 305 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee509 ! input flow temperature [deg C]
MTee509_Pump513_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a1fRSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee509_Pump513 = [305,1] !Changed automatically
PTee509_Pump513_kW = [305,3]/3600 !Changed automatically
PTee509_Pump513Conv_kW = [305,4]/3600 !Changed automatically
PTee509_Pump513Int_kJ = [305,5] !Changed automatically
MTee509_Pump513 = MTee509_Pump513_A
UNIT 306 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee509 ! input flow temperature [deg C]
MTee509_Pump520_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a1fRNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee509_Pump520 = [306,1] !Changed automatically
PTee509_Pump520_kW = [306,3]/3600 !Changed automatically
PTee509_Pump520Conv_kW = [306,4]/3600 !Changed automatically
PTee509_Pump520Int_kJ = [306,5] !Changed automatically
MTee509_Pump520 = MTee509_Pump520_A
UNIT 307 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee553_A
MTee553_B
MTee553_C
TTee461_Tee553
TTee553_Tee651
TTee553_Tee557
0 0 0 20 20 20
EQUATIONS 1
TTee553= [307,1] !Changed automatically
UNIT 308 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee557_A
MTee557_B
MTee557_C
TTee553_Tee557
TTee557_Pump561
TTee557_Tee568
0 0 0 20 20 20
EQUATIONS 1
TTee557= [308,1] !Changed automatically
UNIT 309 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee564_A
MTee564_B
MTee564_C
TTee564_Tee1460
TTee575_Tee564
TRad154_Tee564
0 0 0 20 20 20
EQUATIONS 1
TTee564= [309,1] !Changed automatically
UNIT 310 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee568_A
MTee568_B
MTee568_C
TTee557_Tee568
TTee568_Pump572
TTee568_Tee582
0 0 0 20 20 20
EQUATIONS 1
TTee568= [310,1] !Changed automatically
UNIT 311 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee575_A
MTee575_B
MTee575_C
TTee575_Tee564
TTee586_Tee575
TRad157_Tee575
0 0 0 20 20 20
EQUATIONS 1
TTee575= [311,1] !Changed automatically
UNIT 312 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee582_A
MTee582_B
MTee582_C
TTee568_Tee582
TTee582_Pump579
TTee582_Tee590
0 0 0 20 20 20
EQUATIONS 1
TTee582= [312,1] !Changed automatically
UNIT 313 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee586_A
MTee586_B
MTee586_C
TTee586_Tee575
TTee597_Tee586
TRad160_Tee586
0 0 0 20 20 20
EQUATIONS 1
TTee586= [313,1] !Changed automatically
UNIT 314 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee590_A
MTee590_B
MTee590_C
TTee582_Tee590
TTee590_Pump594
TTee590_Tee601
0 0 0 20 20 20
EQUATIONS 1
TTee590= [314,1] !Changed automatically
UNIT 315 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee597_A
MTee597_B
MTee597_C
TTee597_Tee586
TTee605_Tee597
TRad163_Tee597
0 0 0 20 20 20
EQUATIONS 1
TTee597= [315,1] !Changed automatically
UNIT 316 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee601_A
MTee601_B
MTee601_C
TTee590_Tee601
TTee601_Pump609
TTee601_Pump612
0 0 0 20 20 20
EQUATIONS 1
TTee601= [316,1] !Changed automatically
UNIT 317 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee605_A
MTee605_B
MTee605_C
TTee605_Tee597
TRad175_Tee605
TRad166_Tee605
0 0 0 20 20 20
EQUATIONS 1
TTee605= [317,1] !Changed automatically
UNIT 318 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee461 ! input flow temperature [deg C]
MTee461_Tee553_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee553 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee461_Tee553 = [318,1] !Changed automatically
PTee461_Tee553_kW = [318,3]/3600 !Changed automatically
PTee461_Tee553Conv_kW = [318,4]/3600 !Changed automatically
PTee461_Tee553Int_kJ = [318,5] !Changed automatically
MTee461_Tee553 = MTee461_Tee553_A
UNIT 319 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee553 ! input flow temperature [deg C]
MTee553_Tee557_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee557 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee553_Tee557 = [319,1] !Changed automatically
PTee553_Tee557_kW = [319,3]/3600 !Changed automatically
PTee553_Tee557Conv_kW = [319,4]/3600 !Changed automatically
PTee553_Tee557Int_kJ = [319,5] !Changed automatically
MTee553_Tee557 = MTee553_Tee557_A
UNIT 320 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee557 ! input flow temperature [deg C]
MTee557_Pump561_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a1fCSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee557_Pump561 = [320,1] !Changed automatically
PTee557_Pump561_kW = [320,3]/3600 !Changed automatically
PTee557_Pump561Conv_kW = [320,4]/3600 !Changed automatically
PTee557_Pump561Int_kJ = [320,5] !Changed automatically
MTee557_Pump561 = MTee557_Pump561_A
UNIT 321 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a1fCSWH ! input flow temperature [deg C]
MRad154_Tee564_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee564 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad154_Tee564 = [321,1] !Changed automatically
PRad154_Tee564_kW = [321,3]/3600 !Changed automatically
PRad154_Tee564Conv_kW = [321,4]/3600 !Changed automatically
PRad154_Tee564Int_kJ = [321,5] !Changed automatically
MRad154_Tee564 = MRad154_Tee564_A
UNIT 322 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee557 ! input flow temperature [deg C]
MTee557_Tee568_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee568 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee557_Tee568 = [322,1] !Changed automatically
PTee557_Tee568_kW = [322,3]/3600 !Changed automatically
PTee557_Tee568Conv_kW = [322,4]/3600 !Changed automatically
PTee557_Tee568Int_kJ = [322,5] !Changed automatically
MTee557_Tee568 = MTee557_Tee568_A
UNIT 323 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee575 ! input flow temperature [deg C]
MTee575_Tee564_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee564 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee575_Tee564 = [323,1] !Changed automatically
PTee575_Tee564_kW = [323,3]/3600 !Changed automatically
PTee575_Tee564Conv_kW = [323,4]/3600 !Changed automatically
PTee575_Tee564Int_kJ = [323,5] !Changed automatically
MTee575_Tee564 = MTee575_Tee564_A
UNIT 324 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee568 ! input flow temperature [deg C]
MTee568_Pump572_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a1fLSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee568_Pump572 = [324,1] !Changed automatically
PTee568_Pump572_kW = [324,3]/3600 !Changed automatically
PTee568_Pump572Conv_kW = [324,4]/3600 !Changed automatically
PTee568_Pump572Int_kJ = [324,5] !Changed automatically
MTee568_Pump572 = MTee568_Pump572_A
UNIT 325 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a1fLSWH ! input flow temperature [deg C]
MRad157_Tee575_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee575 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad157_Tee575 = [325,1] !Changed automatically
PRad157_Tee575_kW = [325,3]/3600 !Changed automatically
PRad157_Tee575Conv_kW = [325,4]/3600 !Changed automatically
PRad157_Tee575Int_kJ = [325,5] !Changed automatically
MRad157_Tee575 = MRad157_Tee575_A
UNIT 326 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee568 ! input flow temperature [deg C]
MTee568_Tee582_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee582 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee568_Tee582 = [326,1] !Changed automatically
PTee568_Tee582_kW = [326,3]/3600 !Changed automatically
PTee568_Tee582Conv_kW = [326,4]/3600 !Changed automatically
PTee568_Tee582Int_kJ = [326,5] !Changed automatically
MTee568_Tee582 = MTee568_Tee582_A
UNIT 327 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee582 ! input flow temperature [deg C]
MTee582_Pump579_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a1fLNW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee582_Pump579 = [327,1] !Changed automatically
PTee582_Pump579_kW = [327,3]/3600 !Changed automatically
PTee582_Pump579Conv_kW = [327,4]/3600 !Changed automatically
PTee582_Pump579Int_kJ = [327,5] !Changed automatically
MTee582_Pump579 = MTee582_Pump579_A
UNIT 328 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a1fLNWH ! input flow temperature [deg C]
MRad160_Tee586_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee586 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad160_Tee586 = [328,1] !Changed automatically
PRad160_Tee586_kW = [328,3]/3600 !Changed automatically
PRad160_Tee586Conv_kW = [328,4]/3600 !Changed automatically
PRad160_Tee586Int_kJ = [328,5] !Changed automatically
MRad160_Tee586 = MRad160_Tee586_A
UNIT 329 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee582 ! input flow temperature [deg C]
MTee582_Tee590_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee590 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee582_Tee590 = [329,1] !Changed automatically
PTee582_Tee590_kW = [329,3]/3600 !Changed automatically
PTee582_Tee590Conv_kW = [329,4]/3600 !Changed automatically
PTee582_Tee590Int_kJ = [329,5] !Changed automatically
MTee582_Tee590 = MTee582_Tee590_A
UNIT 330 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee597 ! input flow temperature [deg C]
MTee597_Tee586_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee586 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee597_Tee586 = [330,1] !Changed automatically
PTee597_Tee586_kW = [330,3]/3600 !Changed automatically
PTee597_Tee586Conv_kW = [330,4]/3600 !Changed automatically
PTee597_Tee586Int_kJ = [330,5] !Changed automatically
MTee597_Tee586 = MTee597_Tee586_A
UNIT 331 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee586 ! input flow temperature [deg C]
MTee586_Tee575_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee575 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee586_Tee575 = [331,1] !Changed automatically
PTee586_Tee575_kW = [331,3]/3600 !Changed automatically
PTee586_Tee575Conv_kW = [331,4]/3600 !Changed automatically
PTee586_Tee575Int_kJ = [331,5] !Changed automatically
MTee586_Tee575 = MTee586_Tee575_A
UNIT 332 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee590 ! input flow temperature [deg C]
MTee590_Pump594_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a1fLNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee590_Pump594 = [332,1] !Changed automatically
PTee590_Pump594_kW = [332,3]/3600 !Changed automatically
PTee590_Pump594Conv_kW = [332,4]/3600 !Changed automatically
PTee590_Pump594Int_kJ = [332,5] !Changed automatically
MTee590_Pump594 = MTee590_Pump594_A
UNIT 333 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a1fLNEH ! input flow temperature [deg C]
MRad163_Tee597_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee597 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad163_Tee597 = [333,1] !Changed automatically
PRad163_Tee597_kW = [333,3]/3600 !Changed automatically
PRad163_Tee597Conv_kW = [333,4]/3600 !Changed automatically
PRad163_Tee597Int_kJ = [333,5] !Changed automatically
MRad163_Tee597 = MRad163_Tee597_A
UNIT 334 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee590 ! input flow temperature [deg C]
MTee590_Tee601_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee601 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee590_Tee601 = [334,1] !Changed automatically
PTee590_Tee601_kW = [334,3]/3600 !Changed automatically
PTee590_Tee601Conv_kW = [334,4]/3600 !Changed automatically
PTee590_Tee601Int_kJ = [334,5] !Changed automatically
MTee590_Tee601 = MTee590_Tee601_A
UNIT 335 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee601 ! input flow temperature [deg C]
MTee601_Pump609_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu432fRSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee601_Pump609 = [335,1] !Changed automatically
PTee601_Pump609_kW = [335,3]/3600 !Changed automatically
PTee601_Pump609Conv_kW = [335,4]/3600 !Changed automatically
PTee601_Pump609Int_kJ = [335,5] !Changed automatically
MTee601_Pump609 = MTee601_Pump609_A
UNIT 336 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T432fRSWH ! input flow temperature [deg C]
MRad166_Tee605_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee605 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad166_Tee605 = [336,1] !Changed automatically
PRad166_Tee605_kW = [336,3]/3600 !Changed automatically
PRad166_Tee605Conv_kW = [336,4]/3600 !Changed automatically
PRad166_Tee605Int_kJ = [336,5] !Changed automatically
MRad166_Tee605 = MRad166_Tee605_A
UNIT 337 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee605 ! input flow temperature [deg C]
MTee605_Tee597_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee597 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee605_Tee597 = [337,1] !Changed automatically
PTee605_Tee597_kW = [337,3]/3600 !Changed automatically
PTee605_Tee597Conv_kW = [337,4]/3600 !Changed automatically
PTee605_Tee597Int_kJ = [337,5] !Changed automatically
MTee605_Tee597 = MTee605_Tee597_A
UNIT 338 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee601 ! input flow temperature [deg C]
MTee601_Pump612_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu432fRSE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee601_Pump612 = [338,1] !Changed automatically
PTee601_Pump612_kW = [338,3]/3600 !Changed automatically
PTee601_Pump612Conv_kW = [338,4]/3600 !Changed automatically
PTee601_Pump612Int_kJ = [338,5] !Changed automatically
MTee601_Pump612 = MTee601_Pump612_A
UNIT 339 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T432fRSEH ! input flow temperature [deg C]
MRad175_Tee605_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee605 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad175_Tee605 = [339,1] !Changed automatically
PRad175_Tee605_kW = [339,3]/3600 !Changed automatically
PRad175_Tee605Conv_kW = [339,4]/3600 !Changed automatically
PRad175_Tee605Int_kJ = [339,5] !Changed automatically
MRad175_Tee605 = MRad175_Tee605_A
UNIT 340 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee651_A
MTee651_B
MTee651_C
TTee553_Tee651
TTee651_Tee755
TTee651_Tee655
0 0 0 20 20 20
EQUATIONS 1
TTee651= [340,1] !Changed automatically
UNIT 341 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee655_A
MTee655_B
MTee655_C
TTee651_Tee655
TTee655_Pump659
TTee655_Tee690
0 0 0 20 20 20
EQUATIONS 1
TTee655= [341,1] !Changed automatically
UNIT 342 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee662_A
MTee662_B
MTee662_C
TTee662_Tee1464
TTee673_Tee662
TRad169_Tee662
0 0 0 20 20 20
EQUATIONS 1
TTee662= [342,1] !Changed automatically
UNIT 343 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee673_A
MTee673_B
MTee673_C
TTee673_Tee662
TTee684_Tee673
TRad172_Tee673
0 0 0 20 20 20
EQUATIONS 1
TTee673= [343,1] !Changed automatically
UNIT 344 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee680_A
MTee680_B
MTee680_C
TTee690_Tee680
TTee680_Pump677
TTee680_Tee694
0 0 0 20 20 20
EQUATIONS 1
TTee680= [344,1] !Changed automatically
UNIT 345 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee684_A
MTee684_B
MTee684_C
TTee684_Tee673
TTee698_Tee684
TRad181_Tee684
0 0 0 20 20 20
EQUATIONS 1
TTee684= [345,1] !Changed automatically
UNIT 346 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee690_A
MTee690_B
MTee690_C
TTee655_Tee690
TTee690_Pump670
TTee690_Tee680
0 0 0 20 20 20
EQUATIONS 1
TTee690= [346,1] !Changed automatically
UNIT 347 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee694_A
MTee694_B
MTee694_C
TTee680_Tee694
TTee694_Pump702
TTee694_Tee711
0 0 0 20 20 20
EQUATIONS 1
TTee694= [347,1] !Changed automatically
UNIT 348 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee698_A
MTee698_B
MTee698_C
TTee698_Tee684
TTee715_Tee698
TRad184_Tee698
0 0 0 20 20 20
EQUATIONS 1
TTee698= [348,1] !Changed automatically
UNIT 349 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee711_A
MTee711_B
MTee711_C
TTee694_Tee711
TTee711_Pump705
TTee711_Pump708
0 0 0 20 20 20
EQUATIONS 1
TTee711= [349,1] !Changed automatically
UNIT 350 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee715_A
MTee715_B
MTee715_C
TTee715_Tee698
TRad648_Tee715
TRad187_Tee715
0 0 0 20 20 20
EQUATIONS 1
TTee715= [350,1] !Changed automatically
UNIT 351 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee553 ! input flow temperature [deg C]
MTee553_Tee651_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee651 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee553_Tee651 = [351,1] !Changed automatically
PTee553_Tee651_kW = [351,3]/3600 !Changed automatically
PTee553_Tee651Conv_kW = [351,4]/3600 !Changed automatically
PTee553_Tee651Int_kJ = [351,5] !Changed automatically
MTee553_Tee651 = MTee553_Tee651_A
UNIT 352 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee651 ! input flow temperature [deg C]
MTee651_Tee655_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee655 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee651_Tee655 = [352,1] !Changed automatically
PTee651_Tee655_kW = [352,3]/3600 !Changed automatically
PTee651_Tee655Conv_kW = [352,4]/3600 !Changed automatically
PTee651_Tee655Int_kJ = [352,5] !Changed automatically
MTee651_Tee655 = MTee651_Tee655_A
UNIT 353 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee655 ! input flow temperature [deg C]
MTee655_Pump659_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu432fRNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee655_Pump659 = [353,1] !Changed automatically
PTee655_Pump659_kW = [353,3]/3600 !Changed automatically
PTee655_Pump659Conv_kW = [353,4]/3600 !Changed automatically
PTee655_Pump659Int_kJ = [353,5] !Changed automatically
MTee655_Pump659 = MTee655_Pump659_A
UNIT 354 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T432fRNEH ! input flow temperature [deg C]
MRad169_Tee662_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee662 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad169_Tee662 = [354,1] !Changed automatically
PRad169_Tee662_kW = [354,3]/3600 !Changed automatically
PRad169_Tee662Conv_kW = [354,4]/3600 !Changed automatically
PRad169_Tee662Int_kJ = [354,5] !Changed automatically
MRad169_Tee662 = MRad169_Tee662_A
UNIT 355 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee655 ! input flow temperature [deg C]
MTee655_Tee690_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee690 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee655_Tee690 = [355,1] !Changed automatically
PTee655_Tee690_kW = [355,3]/3600 !Changed automatically
PTee655_Tee690Conv_kW = [355,4]/3600 !Changed automatically
PTee655_Tee690Int_kJ = [355,5] !Changed automatically
MTee655_Tee690 = MTee655_Tee690_A
UNIT 356 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee690 ! input flow temperature [deg C]
MTee690_Pump670_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu432fLSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee690_Pump670 = [356,1] !Changed automatically
PTee690_Pump670_kW = [356,3]/3600 !Changed automatically
PTee690_Pump670Conv_kW = [356,4]/3600 !Changed automatically
PTee690_Pump670Int_kJ = [356,5] !Changed automatically
MTee690_Pump670 = MTee690_Pump670_A
UNIT 357 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T432fLSWH ! input flow temperature [deg C]
MRad172_Tee673_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee673 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad172_Tee673 = [357,1] !Changed automatically
PRad172_Tee673_kW = [357,3]/3600 !Changed automatically
PRad172_Tee673Conv_kW = [357,4]/3600 !Changed automatically
PRad172_Tee673Int_kJ = [357,5] !Changed automatically
MRad172_Tee673 = MRad172_Tee673_A
UNIT 358 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee673 ! input flow temperature [deg C]
MTee673_Tee662_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee662 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee673_Tee662 = [358,1] !Changed automatically
PTee673_Tee662_kW = [358,3]/3600 !Changed automatically
PTee673_Tee662Conv_kW = [358,4]/3600 !Changed automatically
PTee673_Tee662Int_kJ = [358,5] !Changed automatically
MTee673_Tee662 = MTee673_Tee662_A
UNIT 359 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee690 ! input flow temperature [deg C]
MTee690_Tee680_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee680 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee690_Tee680 = [359,1] !Changed automatically
PTee690_Tee680_kW = [359,3]/3600 !Changed automatically
PTee690_Tee680Conv_kW = [359,4]/3600 !Changed automatically
PTee690_Tee680Int_kJ = [359,5] !Changed automatically
MTee690_Tee680 = MTee690_Tee680_A
UNIT 360 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee680 ! input flow temperature [deg C]
MTee680_Pump677_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu432fLNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee680_Pump677 = [360,1] !Changed automatically
PTee680_Pump677_kW = [360,3]/3600 !Changed automatically
PTee680_Pump677Conv_kW = [360,4]/3600 !Changed automatically
PTee680_Pump677Int_kJ = [360,5] !Changed automatically
MTee680_Pump677 = MTee680_Pump677_A
UNIT 361 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T432fLNEH ! input flow temperature [deg C]
MRad181_Tee684_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee684 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad181_Tee684 = [361,1] !Changed automatically
PRad181_Tee684_kW = [361,3]/3600 !Changed automatically
PRad181_Tee684Conv_kW = [361,4]/3600 !Changed automatically
PRad181_Tee684Int_kJ = [361,5] !Changed automatically
MRad181_Tee684 = MRad181_Tee684_A
UNIT 362 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee684 ! input flow temperature [deg C]
MTee684_Tee673_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee673 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee684_Tee673 = [362,1] !Changed automatically
PTee684_Tee673_kW = [362,3]/3600 !Changed automatically
PTee684_Tee673Conv_kW = [362,4]/3600 !Changed automatically
PTee684_Tee673Int_kJ = [362,5] !Changed automatically
MTee684_Tee673 = MTee684_Tee673_A
UNIT 363 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee680 ! input flow temperature [deg C]
MTee680_Tee694_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee694 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee680_Tee694 = [363,1] !Changed automatically
PTee680_Tee694_kW = [363,3]/3600 !Changed automatically
PTee680_Tee694Conv_kW = [363,4]/3600 !Changed automatically
PTee680_Tee694Int_kJ = [363,5] !Changed automatically
MTee680_Tee694 = MTee680_Tee694_A
UNIT 364 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee694 ! input flow temperature [deg C]
MTee694_Tee711_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee711 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee694_Tee711 = [364,1] !Changed automatically
PTee694_Tee711_kW = [364,3]/3600 !Changed automatically
PTee694_Tee711Conv_kW = [364,4]/3600 !Changed automatically
PTee694_Tee711Int_kJ = [364,5] !Changed automatically
MTee694_Tee711 = MTee694_Tee711_A
UNIT 365 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee711 ! input flow temperature [deg C]
MTee711_Pump708_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a2fCSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee711_Pump708 = [365,1] !Changed automatically
PTee711_Pump708_kW = [365,3]/3600 !Changed automatically
PTee711_Pump708Conv_kW = [365,4]/3600 !Changed automatically
PTee711_Pump708Int_kJ = [365,5] !Changed automatically
MTee711_Pump708 = MTee711_Pump708_A
UNIT 366 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a2fCSWH ! input flow temperature [deg C]
MRad648_Tee715_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee715 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad648_Tee715 = [366,1] !Changed automatically
PRad648_Tee715_kW = [366,3]/3600 !Changed automatically
PRad648_Tee715Conv_kW = [366,4]/3600 !Changed automatically
PRad648_Tee715Int_kJ = [366,5] !Changed automatically
MRad648_Tee715 = MRad648_Tee715_A
UNIT 367 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a2fRNEH ! input flow temperature [deg C]
MRad187_Tee715_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee715 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad187_Tee715 = [367,1] !Changed automatically
PRad187_Tee715_kW = [367,3]/3600 !Changed automatically
PRad187_Tee715Conv_kW = [367,4]/3600 !Changed automatically
PRad187_Tee715Int_kJ = [367,5] !Changed automatically
MRad187_Tee715 = MRad187_Tee715_A
UNIT 368 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee711 ! input flow temperature [deg C]
MTee711_Pump705_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a2fRNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee711_Pump705 = [368,1] !Changed automatically
PTee711_Pump705_kW = [368,3]/3600 !Changed automatically
PTee711_Pump705Conv_kW = [368,4]/3600 !Changed automatically
PTee711_Pump705Int_kJ = [368,5] !Changed automatically
MTee711_Pump705 = MTee711_Pump705_A
UNIT 369 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee715 ! input flow temperature [deg C]
MTee715_Tee698_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee698 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee715_Tee698 = [369,1] !Changed automatically
PTee715_Tee698_kW = [369,3]/3600 !Changed automatically
PTee715_Tee698Conv_kW = [369,4]/3600 !Changed automatically
PTee715_Tee698Int_kJ = [369,5] !Changed automatically
MTee715_Tee698 = MTee715_Tee698_A
UNIT 370 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a2fRSWH ! input flow temperature [deg C]
MRad184_Tee698_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee698 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad184_Tee698 = [370,1] !Changed automatically
PRad184_Tee698_kW = [370,3]/3600 !Changed automatically
PRad184_Tee698Conv_kW = [370,4]/3600 !Changed automatically
PRad184_Tee698Int_kJ = [370,5] !Changed automatically
MRad184_Tee698 = MRad184_Tee698_A
UNIT 371 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee698 ! input flow temperature [deg C]
MTee698_Tee684_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee684 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee698_Tee684 = [371,1] !Changed automatically
PTee698_Tee684_kW = [371,3]/3600 !Changed automatically
PTee698_Tee684Conv_kW = [371,4]/3600 !Changed automatically
PTee698_Tee684Int_kJ = [371,5] !Changed automatically
MTee698_Tee684 = MTee698_Tee684_A
UNIT 372 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee694 ! input flow temperature [deg C]
MTee694_Pump702_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a2fRSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee694_Pump702 = [372,1] !Changed automatically
PTee694_Pump702_kW = [372,3]/3600 !Changed automatically
PTee694_Pump702Conv_kW = [372,4]/3600 !Changed automatically
PTee694_Pump702Int_kJ = [372,5] !Changed automatically
MTee694_Pump702 = MTee694_Pump702_A
UNIT 373 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee755_A
MTee755_B
MTee755_C
TTee651_Tee755
TTee755_Tee879
TTee755_Tee759
0 0 0 20 20 20
EQUATIONS 1
TTee755= [373,1] !Changed automatically
UNIT 374 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee759_A
MTee759_B
MTee759_C
TTee755_Tee759
TTee759_Pump763
TTee759_Tee770
0 0 0 20 20 20
EQUATIONS 1
TTee759= [374,1] !Changed automatically
UNIT 375 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee766_A
MTee766_B
MTee766_C
TTee766_Tee1468
TTee777_Tee766
TRad193_Tee766
0 0 0 20 20 20
EQUATIONS 1
TTee766= [375,1] !Changed automatically
UNIT 376 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee770_A
MTee770_B
MTee770_C
TTee759_Tee770
TTee770_Pump774
TTee770_Tee781
0 0 0 20 20 20
EQUATIONS 1
TTee770= [376,1] !Changed automatically
UNIT 377 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee777_A
MTee777_B
MTee777_C
TTee777_Tee766
TTee788_Tee777
TRad178_Tee777
0 0 0 20 20 20
EQUATIONS 1
TTee777= [377,1] !Changed automatically
UNIT 378 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee781_A
MTee781_B
MTee781_C
TTee770_Tee781
TTee781_Pump785
TTee781_Tee792
0 0 0 20 20 20
EQUATIONS 1
TTee781= [378,1] !Changed automatically
UNIT 379 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee788_A
MTee788_B
MTee788_C
TTee788_Tee777
TTee799_Tee788
TRad199_Tee788
0 0 0 20 20 20
EQUATIONS 1
TTee788= [379,1] !Changed automatically
UNIT 380 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee792_A
MTee792_B
MTee792_C
TTee781_Tee792
TTee792_Pump796
TTee792_Tee803
0 0 0 20 20 20
EQUATIONS 1
TTee792= [380,1] !Changed automatically
UNIT 381 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee799_A
MTee799_B
MTee799_C
TTee799_Tee788
TTee810_Tee799
TRad196_Tee799
0 0 0 20 20 20
EQUATIONS 1
TTee799= [381,1] !Changed automatically
UNIT 382 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee803_A
MTee803_B
MTee803_C
TTee792_Tee803
TTee803_Pump807
TTee803_Pump818
0 0 0 20 20 20
EQUATIONS 1
TTee803= [382,1] !Changed automatically
UNIT 383 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee810_A
MTee810_B
MTee810_C
TTee810_Tee799
TRad205_Tee810
TRad202_Tee810
0 0 0 20 20 20
EQUATIONS 1
TTee810= [383,1] !Changed automatically
UNIT 384 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee651 ! input flow temperature [deg C]
MTee651_Tee755_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee755 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee651_Tee755 = [384,1] !Changed automatically
PTee651_Tee755_kW = [384,3]/3600 !Changed automatically
PTee651_Tee755Conv_kW = [384,4]/3600 !Changed automatically
PTee651_Tee755Int_kJ = [384,5] !Changed automatically
MTee651_Tee755 = MTee651_Tee755_A
UNIT 385 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee755 ! input flow temperature [deg C]
MTee755_Tee759_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee759 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee755_Tee759 = [385,1] !Changed automatically
PTee755_Tee759_kW = [385,3]/3600 !Changed automatically
PTee755_Tee759Conv_kW = [385,4]/3600 !Changed automatically
PTee755_Tee759Int_kJ = [385,5] !Changed automatically
MTee755_Tee759 = MTee755_Tee759_A
UNIT 386 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee759 ! input flow temperature [deg C]
MTee759_Pump763_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a2fLSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee759_Pump763 = [386,1] !Changed automatically
PTee759_Pump763_kW = [386,3]/3600 !Changed automatically
PTee759_Pump763Conv_kW = [386,4]/3600 !Changed automatically
PTee759_Pump763Int_kJ = [386,5] !Changed automatically
MTee759_Pump763 = MTee759_Pump763_A
UNIT 387 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee759 ! input flow temperature [deg C]
MTee759_Tee770_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee770 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee759_Tee770 = [387,1] !Changed automatically
PTee759_Tee770_kW = [387,3]/3600 !Changed automatically
PTee759_Tee770Conv_kW = [387,4]/3600 !Changed automatically
PTee759_Tee770Int_kJ = [387,5] !Changed automatically
MTee759_Tee770 = MTee759_Tee770_A
UNIT 388 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a2fLSWH ! input flow temperature [deg C]
MRad193_Tee766_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee766 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad193_Tee766 = [388,1] !Changed automatically
PRad193_Tee766_kW = [388,3]/3600 !Changed automatically
PRad193_Tee766Conv_kW = [388,4]/3600 !Changed automatically
PRad193_Tee766Int_kJ = [388,5] !Changed automatically
MRad193_Tee766 = MRad193_Tee766_A
UNIT 389 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee777 ! input flow temperature [deg C]
MTee777_Tee766_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee766 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee777_Tee766 = [389,1] !Changed automatically
PTee777_Tee766_kW = [389,3]/3600 !Changed automatically
PTee777_Tee766Conv_kW = [389,4]/3600 !Changed automatically
PTee777_Tee766Int_kJ = [389,5] !Changed automatically
MTee777_Tee766 = MTee777_Tee766_A
UNIT 390 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee770 ! input flow temperature [deg C]
MTee770_Pump774_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a2fLNW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee770_Pump774 = [390,1] !Changed automatically
PTee770_Pump774_kW = [390,3]/3600 !Changed automatically
PTee770_Pump774Conv_kW = [390,4]/3600 !Changed automatically
PTee770_Pump774Int_kJ = [390,5] !Changed automatically
MTee770_Pump774 = MTee770_Pump774_A
UNIT 391 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a2fLNWH ! input flow temperature [deg C]
MRad178_Tee777_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee777 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad178_Tee777 = [391,1] !Changed automatically
PRad178_Tee777_kW = [391,3]/3600 !Changed automatically
PRad178_Tee777Conv_kW = [391,4]/3600 !Changed automatically
PRad178_Tee777Int_kJ = [391,5] !Changed automatically
MRad178_Tee777 = MRad178_Tee777_A
UNIT 392 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee770 ! input flow temperature [deg C]
MTee770_Tee781_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee781 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee770_Tee781 = [392,1] !Changed automatically
PTee770_Tee781_kW = [392,3]/3600 !Changed automatically
PTee770_Tee781Conv_kW = [392,4]/3600 !Changed automatically
PTee770_Tee781Int_kJ = [392,5] !Changed automatically
MTee770_Tee781 = MTee770_Tee781_A
UNIT 393 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee788 ! input flow temperature [deg C]
MTee788_Tee777_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee777 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee788_Tee777 = [393,1] !Changed automatically
PTee788_Tee777_kW = [393,3]/3600 !Changed automatically
PTee788_Tee777Conv_kW = [393,4]/3600 !Changed automatically
PTee788_Tee777Int_kJ = [393,5] !Changed automatically
MTee788_Tee777 = MTee788_Tee777_A
UNIT 394 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee781 ! input flow temperature [deg C]
MTee781_Pump785_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a2fLNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee781_Pump785 = [394,1] !Changed automatically
PTee781_Pump785_kW = [394,3]/3600 !Changed automatically
PTee781_Pump785Conv_kW = [394,4]/3600 !Changed automatically
PTee781_Pump785Int_kJ = [394,5] !Changed automatically
MTee781_Pump785 = MTee781_Pump785_A
UNIT 395 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a2fLNEH ! input flow temperature [deg C]
MRad199_Tee788_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee788 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad199_Tee788 = [395,1] !Changed automatically
PRad199_Tee788_kW = [395,3]/3600 !Changed automatically
PRad199_Tee788Conv_kW = [395,4]/3600 !Changed automatically
PRad199_Tee788Int_kJ = [395,5] !Changed automatically
MRad199_Tee788 = MRad199_Tee788_A
UNIT 396 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee781 ! input flow temperature [deg C]
MTee781_Tee792_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee792 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee781_Tee792 = [396,1] !Changed automatically
PTee781_Tee792_kW = [396,3]/3600 !Changed automatically
PTee781_Tee792Conv_kW = [396,4]/3600 !Changed automatically
PTee781_Tee792Int_kJ = [396,5] !Changed automatically
MTee781_Tee792 = MTee781_Tee792_A
UNIT 397 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee799 ! input flow temperature [deg C]
MTee799_Tee788_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee788 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee799_Tee788 = [397,1] !Changed automatically
PTee799_Tee788_kW = [397,3]/3600 !Changed automatically
PTee799_Tee788Conv_kW = [397,4]/3600 !Changed automatically
PTee799_Tee788Int_kJ = [397,5] !Changed automatically
MTee799_Tee788 = MTee799_Tee788_A
UNIT 398 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee792 ! input flow temperature [deg C]
MTee792_Pump796_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu433fRSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee792_Pump796 = [398,1] !Changed automatically
PTee792_Pump796_kW = [398,3]/3600 !Changed automatically
PTee792_Pump796Conv_kW = [398,4]/3600 !Changed automatically
PTee792_Pump796Int_kJ = [398,5] !Changed automatically
MTee792_Pump796 = MTee792_Pump796_A
UNIT 399 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T433fRSWH ! input flow temperature [deg C]
MRad196_Tee799_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee799 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad196_Tee799 = [399,1] !Changed automatically
PRad196_Tee799_kW = [399,3]/3600 !Changed automatically
PRad196_Tee799Conv_kW = [399,4]/3600 !Changed automatically
PRad196_Tee799Int_kJ = [399,5] !Changed automatically
MRad196_Tee799 = MRad196_Tee799_A
UNIT 400 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee792 ! input flow temperature [deg C]
MTee792_Tee803_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee803 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee792_Tee803 = [400,1] !Changed automatically
PTee792_Tee803_kW = [400,3]/3600 !Changed automatically
PTee792_Tee803Conv_kW = [400,4]/3600 !Changed automatically
PTee792_Tee803Int_kJ = [400,5] !Changed automatically
MTee792_Tee803 = MTee792_Tee803_A
UNIT 401 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee810 ! input flow temperature [deg C]
MTee810_Tee799_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee799 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee810_Tee799 = [401,1] !Changed automatically
PTee810_Tee799_kW = [401,3]/3600 !Changed automatically
PTee810_Tee799Conv_kW = [401,4]/3600 !Changed automatically
PTee810_Tee799Int_kJ = [401,5] !Changed automatically
MTee810_Tee799 = MTee810_Tee799_A
UNIT 402 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee803 ! input flow temperature [deg C]
MTee803_Pump807_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu433fRSE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee803_Pump807 = [402,1] !Changed automatically
PTee803_Pump807_kW = [402,3]/3600 !Changed automatically
PTee803_Pump807Conv_kW = [402,4]/3600 !Changed automatically
PTee803_Pump807Int_kJ = [402,5] !Changed automatically
MTee803_Pump807 = MTee803_Pump807_A
UNIT 403 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T433fRSEH ! input flow temperature [deg C]
MRad202_Tee810_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee810 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad202_Tee810 = [403,1] !Changed automatically
PRad202_Tee810_kW = [403,3]/3600 !Changed automatically
PRad202_Tee810Conv_kW = [403,4]/3600 !Changed automatically
PRad202_Tee810Int_kJ = [403,5] !Changed automatically
MRad202_Tee810 = MRad202_Tee810_A
UNIT 404 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee803 ! input flow temperature [deg C]
MTee803_Pump818_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu433fRNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee803_Pump818 = [404,1] !Changed automatically
PTee803_Pump818_kW = [404,3]/3600 !Changed automatically
PTee803_Pump818Conv_kW = [404,4]/3600 !Changed automatically
PTee803_Pump818Int_kJ = [404,5] !Changed automatically
MTee803_Pump818 = MTee803_Pump818_A
UNIT 405 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T433fRNEH ! input flow temperature [deg C]
MRad205_Tee810_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee810 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad205_Tee810 = [405,1] !Changed automatically
PRad205_Tee810_kW = [405,3]/3600 !Changed automatically
PRad205_Tee810Conv_kW = [405,4]/3600 !Changed automatically
PRad205_Tee810Int_kJ = [405,5] !Changed automatically
MRad205_Tee810 = MRad205_Tee810_A
UNIT 406 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee868_A
MTee868_B
MTee868_C
TTee879_Tee868
TTee868_Pump872
TTee868_Tee883
0 0 0 20 20 20
EQUATIONS 1
TTee868= [406,1] !Changed automatically
UNIT 407 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee875_A
MTee875_B
MTee875_C
TTee875_Tee1472
TTee890_Tee875
TRad850_Tee875
0 0 0 20 20 20
EQUATIONS 1
TTee875= [407,1] !Changed automatically
UNIT 408 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee879_A
MTee879_B
MTee879_C
TTee755_Tee879
TTee879_Tee977
TTee879_Tee868
0 0 0 20 20 20
EQUATIONS 1
TTee879= [408,1] !Changed automatically
UNIT 409 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee883_A
MTee883_B
MTee883_C
TTee868_Tee883
TTee883_Pump887
TTee883_Tee897
0 0 0 20 20 20
EQUATIONS 1
TTee883= [409,1] !Changed automatically
UNIT 410 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee890_A
MTee890_B
MTee890_C
TTee890_Tee875
TTee901_Tee890
TRad853_Tee890
0 0 0 20 20 20
EQUATIONS 1
TTee890= [410,1] !Changed automatically
UNIT 411 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee897_A
MTee897_B
MTee897_C
TTee883_Tee897
TTee897_Pump894
TTee897_Tee905
0 0 0 20 20 20
EQUATIONS 1
TTee897= [411,1] !Changed automatically
UNIT 412 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee901_A
MTee901_B
MTee901_C
TTee901_Tee890
TTee912_Tee901
TRad856_Tee901
0 0 0 20 20 20
EQUATIONS 1
TTee901= [412,1] !Changed automatically
UNIT 413 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee905_A
MTee905_B
MTee905_C
TTee897_Tee905
TTee905_Pump909
TTee905_Tee919
0 0 0 20 20 20
EQUATIONS 1
TTee905= [413,1] !Changed automatically
UNIT 414 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee912_A
MTee912_B
MTee912_C
TTee912_Tee901
TTee923_Tee912
TRad859_Tee912
0 0 0 20 20 20
EQUATIONS 1
TTee912= [414,1] !Changed automatically
UNIT 415 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee919_A
MTee919_B
MTee919_C
TTee905_Tee919
TTee919_Pump916
TTee919_Pump927
0 0 0 20 20 20
EQUATIONS 1
TTee919= [415,1] !Changed automatically
UNIT 416 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee923_A
MTee923_B
MTee923_C
TTee923_Tee912
TRad865_Tee923
TRad862_Tee923
0 0 0 20 20 20
EQUATIONS 1
TTee923= [416,1] !Changed automatically
UNIT 417 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee755 ! input flow temperature [deg C]
MTee755_Tee879_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee879 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee755_Tee879 = [417,1] !Changed automatically
PTee755_Tee879_kW = [417,3]/3600 !Changed automatically
PTee755_Tee879Conv_kW = [417,4]/3600 !Changed automatically
PTee755_Tee879Int_kJ = [417,5] !Changed automatically
MTee755_Tee879 = MTee755_Tee879_A
UNIT 418 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee879 ! input flow temperature [deg C]
MTee879_Tee868_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee868 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee879_Tee868 = [418,1] !Changed automatically
PTee879_Tee868_kW = [418,3]/3600 !Changed automatically
PTee879_Tee868Conv_kW = [418,4]/3600 !Changed automatically
PTee879_Tee868Int_kJ = [418,5] !Changed automatically
MTee879_Tee868 = MTee879_Tee868_A
UNIT 419 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee868 ! input flow temperature [deg C]
MTee868_Pump872_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu433fLSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee868_Pump872 = [419,1] !Changed automatically
PTee868_Pump872_kW = [419,3]/3600 !Changed automatically
PTee868_Pump872Conv_kW = [419,4]/3600 !Changed automatically
PTee868_Pump872Int_kJ = [419,5] !Changed automatically
MTee868_Pump872 = MTee868_Pump872_A
UNIT 420 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee868 ! input flow temperature [deg C]
MTee868_Tee883_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee883 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee868_Tee883 = [420,1] !Changed automatically
PTee868_Tee883_kW = [420,3]/3600 !Changed automatically
PTee868_Tee883Conv_kW = [420,4]/3600 !Changed automatically
PTee868_Tee883Int_kJ = [420,5] !Changed automatically
MTee868_Tee883 = MTee868_Tee883_A
UNIT 421 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T433fLSWH ! input flow temperature [deg C]
MRad850_Tee875_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee875 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad850_Tee875 = [421,1] !Changed automatically
PRad850_Tee875_kW = [421,3]/3600 !Changed automatically
PRad850_Tee875Conv_kW = [421,4]/3600 !Changed automatically
PRad850_Tee875Int_kJ = [421,5] !Changed automatically
MRad850_Tee875 = MRad850_Tee875_A
UNIT 422 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee883 ! input flow temperature [deg C]
MTee883_Pump887_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu433fLNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee883_Pump887 = [422,1] !Changed automatically
PTee883_Pump887_kW = [422,3]/3600 !Changed automatically
PTee883_Pump887Conv_kW = [422,4]/3600 !Changed automatically
PTee883_Pump887Int_kJ = [422,5] !Changed automatically
MTee883_Pump887 = MTee883_Pump887_A
UNIT 423 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T433fLNEH ! input flow temperature [deg C]
MRad853_Tee890_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee890 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad853_Tee890 = [423,1] !Changed automatically
PRad853_Tee890_kW = [423,3]/3600 !Changed automatically
PRad853_Tee890Conv_kW = [423,4]/3600 !Changed automatically
PRad853_Tee890Int_kJ = [423,5] !Changed automatically
MRad853_Tee890 = MRad853_Tee890_A
UNIT 424 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee883 ! input flow temperature [deg C]
MTee883_Tee897_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee897 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee883_Tee897 = [424,1] !Changed automatically
PTee883_Tee897_kW = [424,3]/3600 !Changed automatically
PTee883_Tee897Conv_kW = [424,4]/3600 !Changed automatically
PTee883_Tee897Int_kJ = [424,5] !Changed automatically
MTee883_Tee897 = MTee883_Tee897_A
UNIT 425 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee901 ! input flow temperature [deg C]
MTee901_Tee890_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee890 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee901_Tee890 = [425,1] !Changed automatically
PTee901_Tee890_kW = [425,3]/3600 !Changed automatically
PTee901_Tee890Conv_kW = [425,4]/3600 !Changed automatically
PTee901_Tee890Int_kJ = [425,5] !Changed automatically
MTee901_Tee890 = MTee901_Tee890_A
UNIT 426 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee890 ! input flow temperature [deg C]
MTee890_Tee875_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee875 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee890_Tee875 = [426,1] !Changed automatically
PTee890_Tee875_kW = [426,3]/3600 !Changed automatically
PTee890_Tee875Conv_kW = [426,4]/3600 !Changed automatically
PTee890_Tee875Int_kJ = [426,5] !Changed automatically
MTee890_Tee875 = MTee890_Tee875_A
UNIT 427 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee897 ! input flow temperature [deg C]
MTee897_Pump894_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a3fRSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee897_Pump894 = [427,1] !Changed automatically
PTee897_Pump894_kW = [427,3]/3600 !Changed automatically
PTee897_Pump894Conv_kW = [427,4]/3600 !Changed automatically
PTee897_Pump894Int_kJ = [427,5] !Changed automatically
MTee897_Pump894 = MTee897_Pump894_A
UNIT 428 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a3fRSWH ! input flow temperature [deg C]
MRad856_Tee901_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee901 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad856_Tee901 = [428,1] !Changed automatically
PRad856_Tee901_kW = [428,3]/3600 !Changed automatically
PRad856_Tee901Conv_kW = [428,4]/3600 !Changed automatically
PRad856_Tee901Int_kJ = [428,5] !Changed automatically
MRad856_Tee901 = MRad856_Tee901_A
UNIT 429 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee897 ! input flow temperature [deg C]
MTee897_Tee905_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee905 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee897_Tee905 = [429,1] !Changed automatically
PTee897_Tee905_kW = [429,3]/3600 !Changed automatically
PTee897_Tee905Conv_kW = [429,4]/3600 !Changed automatically
PTee897_Tee905Int_kJ = [429,5] !Changed automatically
MTee897_Tee905 = MTee897_Tee905_A
UNIT 430 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee912 ! input flow temperature [deg C]
MTee912_Tee901_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee901 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee912_Tee901 = [430,1] !Changed automatically
PTee912_Tee901_kW = [430,3]/3600 !Changed automatically
PTee912_Tee901Conv_kW = [430,4]/3600 !Changed automatically
PTee912_Tee901Int_kJ = [430,5] !Changed automatically
MTee912_Tee901 = MTee912_Tee901_A
UNIT 431 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee905 ! input flow temperature [deg C]
MTee905_Pump909_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a3fRNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee905_Pump909 = [431,1] !Changed automatically
PTee905_Pump909_kW = [431,3]/3600 !Changed automatically
PTee905_Pump909Conv_kW = [431,4]/3600 !Changed automatically
PTee905_Pump909Int_kJ = [431,5] !Changed automatically
MTee905_Pump909 = MTee905_Pump909_A
UNIT 432 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee905 ! input flow temperature [deg C]
MTee905_Tee919_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee919 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee905_Tee919 = [432,1] !Changed automatically
PTee905_Tee919_kW = [432,3]/3600 !Changed automatically
PTee905_Tee919Conv_kW = [432,4]/3600 !Changed automatically
PTee905_Tee919Int_kJ = [432,5] !Changed automatically
MTee905_Tee919 = MTee905_Tee919_A
UNIT 433 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a3fRNEH ! input flow temperature [deg C]
MRad859_Tee912_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee912 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad859_Tee912 = [433,1] !Changed automatically
PRad859_Tee912_kW = [433,3]/3600 !Changed automatically
PRad859_Tee912Conv_kW = [433,4]/3600 !Changed automatically
PRad859_Tee912Int_kJ = [433,5] !Changed automatically
MRad859_Tee912 = MRad859_Tee912_A
UNIT 434 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee923 ! input flow temperature [deg C]
MTee923_Tee912_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee912 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee923_Tee912 = [434,1] !Changed automatically
PTee923_Tee912_kW = [434,3]/3600 !Changed automatically
PTee923_Tee912Conv_kW = [434,4]/3600 !Changed automatically
PTee923_Tee912Int_kJ = [434,5] !Changed automatically
MTee923_Tee912 = MTee923_Tee912_A
UNIT 435 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee919 ! input flow temperature [deg C]
MTee919_Pump916_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a3fCSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee919_Pump916 = [435,1] !Changed automatically
PTee919_Pump916_kW = [435,3]/3600 !Changed automatically
PTee919_Pump916Conv_kW = [435,4]/3600 !Changed automatically
PTee919_Pump916Int_kJ = [435,5] !Changed automatically
MTee919_Pump916 = MTee919_Pump916_A
UNIT 436 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a3fCSWH ! input flow temperature [deg C]
MRad862_Tee923_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee923 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad862_Tee923 = [436,1] !Changed automatically
PRad862_Tee923_kW = [436,3]/3600 !Changed automatically
PRad862_Tee923Conv_kW = [436,4]/3600 !Changed automatically
PRad862_Tee923Int_kJ = [436,5] !Changed automatically
MRad862_Tee923 = MRad862_Tee923_A
UNIT 437 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee919 ! input flow temperature [deg C]
MTee919_Pump927_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a3fLSW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee919_Pump927 = [437,1] !Changed automatically
PTee919_Pump927_kW = [437,3]/3600 !Changed automatically
PTee919_Pump927Conv_kW = [437,4]/3600 !Changed automatically
PTee919_Pump927Int_kJ = [437,5] !Changed automatically
MTee919_Pump927 = MTee919_Pump927_A
UNIT 438 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a3fLSWH ! input flow temperature [deg C]
MRad865_Tee923_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee923 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad865_Tee923 = [438,1] !Changed automatically
PRad865_Tee923_kW = [438,3]/3600 !Changed automatically
PRad865_Tee923Conv_kW = [438,4]/3600 !Changed automatically
PRad865_Tee923Int_kJ = [438,5] !Changed automatically
MRad865_Tee923 = MRad865_Tee923_A
UNIT 439 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee977_A
MTee977_B
MTee977_C
TTee879_Tee977
TTee977_Tee1085
TTee977_Tee981
0 0 0 20 20 20
EQUATIONS 1
TTee977= [439,1] !Changed automatically
UNIT 440 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee981_A
MTee981_B
MTee981_C
TTee977_Tee981
TTee981_Pump989
TTee981_Tee992
0 0 0 20 20 20
EQUATIONS 1
TTee981= [440,1] !Changed automatically
UNIT 441 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee985_A
MTee985_B
MTee985_C
TTee985_Tee1476
TTee999_Tee985
TRad959_Tee985
0 0 0 20 20 20
EQUATIONS 1
TTee985= [441,1] !Changed automatically
UNIT 442 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee992_A
MTee992_B
MTee992_C
TTee981_Tee992
TTee992_Pump996
TTee992_Tee1006
0 0 0 20 20 20
EQUATIONS 1
TTee992= [442,1] !Changed automatically
UNIT 443 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee999_A
MTee999_B
MTee999_C
TTee999_Tee985
TTee1010_Tee999
TRad962_Tee999
0 0 0 20 20 20
EQUATIONS 1
TTee999= [443,1] !Changed automatically
UNIT 444 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1006_A
MTee1006_B
MTee1006_C
TTee992_Tee1006
TTee1006_Pump1003
TTee1006_Tee1014
0 0 0 20 20 20
EQUATIONS 1
TTee1006= [444,1] !Changed automatically
UNIT 445 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1010_A
MTee1010_B
MTee1010_C
TTee1010_Tee999
TTee1021_Tee1010
TRad965_Tee1010
0 0 0 20 20 20
EQUATIONS 1
TTee1010= [445,1] !Changed automatically
UNIT 446 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1014_A
MTee1014_B
MTee1014_C
TTee1006_Tee1014
TTee1014_Pump1018
TTee1014_Tee1028
0 0 0 20 20 20
EQUATIONS 1
TTee1014= [446,1] !Changed automatically
UNIT 447 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1021_A
MTee1021_B
MTee1021_C
TTee1021_Tee1010
TTee1032_Tee1021
TRad968_Tee1021
0 0 0 20 20 20
EQUATIONS 1
TTee1021= [447,1] !Changed automatically
UNIT 448 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1028_A
MTee1028_B
MTee1028_C
TTee1014_Tee1028
TTee1028_Pump1025
TTee1028_Pump1036
0 0 0 20 20 20
EQUATIONS 1
TTee1028= [448,1] !Changed automatically
UNIT 449 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1032_A
MTee1032_B
MTee1032_C
TTee1032_Tee1021
TRad974_Tee1032
TRad971_Tee1032
0 0 0 20 20 20
EQUATIONS 1
TTee1032= [449,1] !Changed automatically
UNIT 450 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee879 ! input flow temperature [deg C]
MTee879_Tee977_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee977 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee879_Tee977 = [450,1] !Changed automatically
PTee879_Tee977_kW = [450,3]/3600 !Changed automatically
PTee879_Tee977Conv_kW = [450,4]/3600 !Changed automatically
PTee879_Tee977Int_kJ = [450,5] !Changed automatically
MTee879_Tee977 = MTee879_Tee977_A
UNIT 451 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee977 ! input flow temperature [deg C]
MTee977_Tee981_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee981 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee977_Tee981 = [451,1] !Changed automatically
PTee977_Tee981_kW = [451,3]/3600 !Changed automatically
PTee977_Tee981Conv_kW = [451,4]/3600 !Changed automatically
PTee977_Tee981Int_kJ = [451,5] !Changed automatically
MTee977_Tee981 = MTee977_Tee981_A
UNIT 452 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee981 ! input flow temperature [deg C]
MTee981_Pump989_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a3fLNW ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee981_Pump989 = [452,1] !Changed automatically
PTee981_Pump989_kW = [452,3]/3600 !Changed automatically
PTee981_Pump989Conv_kW = [452,4]/3600 !Changed automatically
PTee981_Pump989Int_kJ = [452,5] !Changed automatically
MTee981_Pump989 = MTee981_Pump989_A
UNIT 453 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a3fLNWH ! input flow temperature [deg C]
MRad959_Tee985_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee985 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad959_Tee985 = [453,1] !Changed automatically
PRad959_Tee985_kW = [453,3]/3600 !Changed automatically
PRad959_Tee985Conv_kW = [453,4]/3600 !Changed automatically
PRad959_Tee985Int_kJ = [453,5] !Changed automatically
MRad959_Tee985 = MRad959_Tee985_A
UNIT 454 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee981 ! input flow temperature [deg C]
MTee981_Tee992_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee992 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee981_Tee992 = [454,1] !Changed automatically
PTee981_Tee992_kW = [454,3]/3600 !Changed automatically
PTee981_Tee992Conv_kW = [454,4]/3600 !Changed automatically
PTee981_Tee992Int_kJ = [454,5] !Changed automatically
MTee981_Tee992 = MTee981_Tee992_A
UNIT 455 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee999 ! input flow temperature [deg C]
MTee999_Tee985_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee985 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee999_Tee985 = [455,1] !Changed automatically
PTee999_Tee985_kW = [455,3]/3600 !Changed automatically
PTee999_Tee985Conv_kW = [455,4]/3600 !Changed automatically
PTee999_Tee985Int_kJ = [455,5] !Changed automatically
MTee999_Tee985 = MTee999_Tee985_A
UNIT 456 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee992 ! input flow temperature [deg C]
MTee992_Pump996_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43a3fLNE ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee992_Pump996 = [456,1] !Changed automatically
PTee992_Pump996_kW = [456,3]/3600 !Changed automatically
PTee992_Pump996Conv_kW = [456,4]/3600 !Changed automatically
PTee992_Pump996Int_kJ = [456,5] !Changed automatically
MTee992_Pump996 = MTee992_Pump996_A
UNIT 457 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43a3fLNEH ! input flow temperature [deg C]
MRad962_Tee999_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee999 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad962_Tee999 = [457,1] !Changed automatically
PRad962_Tee999_kW = [457,3]/3600 !Changed automatically
PRad962_Tee999Conv_kW = [457,4]/3600 !Changed automatically
PRad962_Tee999Int_kJ = [457,5] !Changed automatically
MRad962_Tee999 = MRad962_Tee999_A
UNIT 458 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee992 ! input flow temperature [deg C]
MTee992_Tee1006_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1006 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee992_Tee1006 = [458,1] !Changed automatically
PTee992_Tee1006_kW = [458,3]/3600 !Changed automatically
PTee992_Tee1006Conv_kW = [458,4]/3600 !Changed automatically
PTee992_Tee1006Int_kJ = [458,5] !Changed automatically
MTee992_Tee1006 = MTee992_Tee1006_A
UNIT 459 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1010 ! input flow temperature [deg C]
MTee1010_Tee999_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee999 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1010_Tee999 = [459,1] !Changed automatically
PTee1010_Tee999_kW = [459,3]/3600 !Changed automatically
PTee1010_Tee999Conv_kW = [459,4]/3600 !Changed automatically
PTee1010_Tee999Int_kJ = [459,5] !Changed automatically
MTee1010_Tee999 = MTee1010_Tee999_A
UNIT 460 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1006 ! input flow temperature [deg C]
MTee1006_Pump1003_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43Att1 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1006_Pump1003 = [460,1] !Changed automatically
PTee1006_Pump1003_kW = [460,3]/3600 !Changed automatically
PTee1006_Pump1003Conv_kW = [460,4]/3600 !Changed automatically
PTee1006_Pump1003Int_kJ = [460,5] !Changed automatically
MTee1006_Pump1003 = MTee1006_Pump1003_A
UNIT 461 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43Att1H ! input flow temperature [deg C]
MRad965_Tee1010_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1010 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad965_Tee1010 = [461,1] !Changed automatically
PRad965_Tee1010_kW = [461,3]/3600 !Changed automatically
PRad965_Tee1010Conv_kW = [461,4]/3600 !Changed automatically
PRad965_Tee1010Int_kJ = [461,5] !Changed automatically
MRad965_Tee1010 = MRad965_Tee1010_A
UNIT 462 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1006 ! input flow temperature [deg C]
MTee1006_Tee1014_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1014 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1006_Tee1014 = [462,1] !Changed automatically
PTee1006_Tee1014_kW = [462,3]/3600 !Changed automatically
PTee1006_Tee1014Conv_kW = [462,4]/3600 !Changed automatically
PTee1006_Tee1014Int_kJ = [462,5] !Changed automatically
MTee1006_Tee1014 = MTee1006_Tee1014_A
UNIT 463 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1021 ! input flow temperature [deg C]
MTee1021_Tee1010_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1010 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1021_Tee1010 = [463,1] !Changed automatically
PTee1021_Tee1010_kW = [463,3]/3600 !Changed automatically
PTee1021_Tee1010Conv_kW = [463,4]/3600 !Changed automatically
PTee1021_Tee1010Int_kJ = [463,5] !Changed automatically
MTee1021_Tee1010 = MTee1021_Tee1010_A
UNIT 464 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1014 ! input flow temperature [deg C]
MTee1014_Pump1018_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43Att2 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1014_Pump1018 = [464,1] !Changed automatically
PTee1014_Pump1018_kW = [464,3]/3600 !Changed automatically
PTee1014_Pump1018Conv_kW = [464,4]/3600 !Changed automatically
PTee1014_Pump1018Int_kJ = [464,5] !Changed automatically
MTee1014_Pump1018 = MTee1014_Pump1018_A
UNIT 465 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43Att2H ! input flow temperature [deg C]
MRad968_Tee1021_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1021 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad968_Tee1021 = [465,1] !Changed automatically
PRad968_Tee1021_kW = [465,3]/3600 !Changed automatically
PRad968_Tee1021Conv_kW = [465,4]/3600 !Changed automatically
PRad968_Tee1021Int_kJ = [465,5] !Changed automatically
MRad968_Tee1021 = MRad968_Tee1021_A
UNIT 466 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1014 ! input flow temperature [deg C]
MTee1014_Tee1028_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1028 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1014_Tee1028 = [466,1] !Changed automatically
PTee1014_Tee1028_kW = [466,3]/3600 !Changed automatically
PTee1014_Tee1028Conv_kW = [466,4]/3600 !Changed automatically
PTee1014_Tee1028Int_kJ = [466,5] !Changed automatically
MTee1014_Tee1028 = MTee1014_Tee1028_A
UNIT 467 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1032 ! input flow temperature [deg C]
MTee1032_Tee1021_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1021 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1032_Tee1021 = [467,1] !Changed automatically
PTee1032_Tee1021_kW = [467,3]/3600 !Changed automatically
PTee1032_Tee1021Conv_kW = [467,4]/3600 !Changed automatically
PTee1032_Tee1021Int_kJ = [467,5] !Changed automatically
MTee1032_Tee1021 = MTee1032_Tee1021_A
UNIT 468 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1028 ! input flow temperature [deg C]
MTee1028_Pump1025_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43aAtt1 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1028_Pump1025 = [468,1] !Changed automatically
PTee1028_Pump1025_kW = [468,3]/3600 !Changed automatically
PTee1028_Pump1025Conv_kW = [468,4]/3600 !Changed automatically
PTee1028_Pump1025Int_kJ = [468,5] !Changed automatically
MTee1028_Pump1025 = MTee1028_Pump1025_A
UNIT 469 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43aAtt1H ! input flow temperature [deg C]
MRad971_Tee1032_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1032 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad971_Tee1032 = [469,1] !Changed automatically
PRad971_Tee1032_kW = [469,3]/3600 !Changed automatically
PRad971_Tee1032Conv_kW = [469,4]/3600 !Changed automatically
PRad971_Tee1032Int_kJ = [469,5] !Changed automatically
MRad971_Tee1032 = MRad971_Tee1032_A
UNIT 470 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43aAtt2H ! input flow temperature [deg C]
MRad974_Tee1032_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1032 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad974_Tee1032 = [470,1] !Changed automatically
PRad974_Tee1032_kW = [470,3]/3600 !Changed automatically
PRad974_Tee1032Conv_kW = [470,4]/3600 !Changed automatically
PRad974_Tee1032Int_kJ = [470,5] !Changed automatically
MRad974_Tee1032 = MRad974_Tee1032_A
UNIT 471 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1028 ! input flow temperature [deg C]
MTee1028_Pump1036_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43aAtt2 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1028_Pump1036 = [471,1] !Changed automatically
PTee1028_Pump1036_kW = [471,3]/3600 !Changed automatically
PTee1028_Pump1036Conv_kW = [471,4]/3600 !Changed automatically
PTee1028_Pump1036Int_kJ = [471,5] !Changed automatically
MTee1028_Pump1036 = MTee1028_Pump1036_A
UNIT 472 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1085_A
MTee1085_B
MTee1085_C
TTee977_Tee1085
TTee1085_Tee1199
TTee1085_Tee1089
0 0 0 20 20 20
EQUATIONS 1
TTee1085= [472,1] !Changed automatically
UNIT 473 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1089_A
MTee1089_B
MTee1089_C
TTee1085_Tee1089
TTee1089_Pump1093
TTee1089_Tee1100
0 0 0 20 20 20
EQUATIONS 1
TTee1089= [473,1] !Changed automatically
UNIT 474 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1096_A
MTee1096_B
MTee1096_C
TTee1096_Tee1480
TTee1107_Tee1096
TRad1067_Tee1096
0 0 0 20 20 20
EQUATIONS 1
TTee1096= [474,1] !Changed automatically
UNIT 475 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1100_A
MTee1100_B
MTee1100_C
TTee1089_Tee1100
TTee1100_Pump1104
TTee1100_Tee1111
0 0 0 20 20 20
EQUATIONS 1
TTee1100= [475,1] !Changed automatically
UNIT 476 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1107_A
MTee1107_B
MTee1107_C
TTee1107_Tee1096
TTee1118_Tee1107
TRad1070_Tee1107
0 0 0 20 20 20
EQUATIONS 1
TTee1107= [476,1] !Changed automatically
UNIT 477 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1111_A
MTee1111_B
MTee1111_C
TTee1100_Tee1111
TTee1111_Pump1115
TTee1111_Tee1122
0 0 0 20 20 20
EQUATIONS 1
TTee1111= [477,1] !Changed automatically
UNIT 478 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1118_A
MTee1118_B
MTee1118_C
TTee1118_Tee1107
TTee1129_Tee1118
TRad1073_Tee1118
0 0 0 20 20 20
EQUATIONS 1
TTee1118= [478,1] !Changed automatically
UNIT 479 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1122_A
MTee1122_B
MTee1122_C
TTee1111_Tee1122
TTee1122_Pump1126
TTee1122_Tee1136
0 0 0 20 20 20
EQUATIONS 1
TTee1122= [479,1] !Changed automatically
UNIT 480 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1129_A
MTee1129_B
MTee1129_C
TTee1129_Tee1118
TTee1140_Tee1129
TRad1076_Tee1129
0 0 0 20 20 20
EQUATIONS 1
TTee1129= [480,1] !Changed automatically
UNIT 481 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1136_A
MTee1136_B
MTee1136_C
TTee1122_Tee1136
TTee1136_Pump1133
TTee1136_Pump1144
0 0 0 20 20 20
EQUATIONS 1
TTee1136= [481,1] !Changed automatically
UNIT 482 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1140_A
MTee1140_B
MTee1140_C
TTee1140_Tee1129
TRad1082_Tee1140
TRad1079_Tee1140
0 0 0 20 20 20
EQUATIONS 1
TTee1140= [482,1] !Changed automatically
UNIT 483 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee977 ! input flow temperature [deg C]
MTee977_Tee1085_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1085 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee977_Tee1085 = [483,1] !Changed automatically
PTee977_Tee1085_kW = [483,3]/3600 !Changed automatically
PTee977_Tee1085Conv_kW = [483,4]/3600 !Changed automatically
PTee977_Tee1085Int_kJ = [483,5] !Changed automatically
MTee977_Tee1085 = MTee977_Tee1085_A
UNIT 484 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1085 ! input flow temperature [deg C]
MTee1085_Tee1089_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1089 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1085_Tee1089 = [484,1] !Changed automatically
PTee1085_Tee1089_kW = [484,3]/3600 !Changed automatically
PTee1085_Tee1089Conv_kW = [484,4]/3600 !Changed automatically
PTee1085_Tee1089Int_kJ = [484,5] !Changed automatically
MTee1085_Tee1089 = MTee1085_Tee1089_A
UNIT 485 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1089 ! input flow temperature [deg C]
MTee1089_Pump1093_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPu43aAtt3 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1089_Pump1093 = [485,1] !Changed automatically
PTee1089_Pump1093_kW = [485,3]/3600 !Changed automatically
PTee1089_Pump1093Conv_kW = [485,4]/3600 !Changed automatically
PTee1089_Pump1093Int_kJ = [485,5] !Changed automatically
MTee1089_Pump1093 = MTee1089_Pump1093_A
UNIT 486 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43aAtt3H ! input flow temperature [deg C]
MRad1067_Tee1096_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1096 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1067_Tee1096 = [486,1] !Changed automatically
PRad1067_Tee1096_kW = [486,3]/3600 !Changed automatically
PRad1067_Tee1096Conv_kW = [486,4]/3600 !Changed automatically
PRad1067_Tee1096Int_kJ = [486,5] !Changed automatically
MRad1067_Tee1096 = MRad1067_Tee1096_A
UNIT 487 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1089 ! input flow temperature [deg C]
MTee1089_Tee1100_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1100 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1089_Tee1100 = [487,1] !Changed automatically
PTee1089_Tee1100_kW = [487,3]/3600 !Changed automatically
PTee1089_Tee1100Conv_kW = [487,4]/3600 !Changed automatically
PTee1089_Tee1100Int_kJ = [487,5] !Changed automatically
MTee1089_Tee1100 = MTee1089_Tee1100_A
UNIT 488 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1107 ! input flow temperature [deg C]
MTee1107_Tee1096_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1096 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1107_Tee1096 = [488,1] !Changed automatically
PTee1107_Tee1096_kW = [488,3]/3600 !Changed automatically
PTee1107_Tee1096Conv_kW = [488,4]/3600 !Changed automatically
PTee1107_Tee1096Int_kJ = [488,5] !Changed automatically
MTee1107_Tee1096 = MTee1107_Tee1096_A
UNIT 489 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1100 ! input flow temperature [deg C]
MTee1100_Pump1104_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad43GfR ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1100_Pump1104 = [489,1] !Changed automatically
PTee1100_Pump1104_kW = [489,3]/3600 !Changed automatically
PTee1100_Pump1104Conv_kW = [489,4]/3600 !Changed automatically
PTee1100_Pump1104Int_kJ = [489,5] !Changed automatically
MTee1100_Pump1104 = MTee1100_Pump1104_A
UNIT 490 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad43GfRH ! input flow temperature [deg C]
MRad1070_Tee1107_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1107 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1070_Tee1107 = [490,1] !Changed automatically
PRad1070_Tee1107_kW = [490,3]/3600 !Changed automatically
PRad1070_Tee1107Conv_kW = [490,4]/3600 !Changed automatically
PRad1070_Tee1107Int_kJ = [490,5] !Changed automatically
MRad1070_Tee1107 = MRad1070_Tee1107_A
UNIT 491 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1100 ! input flow temperature [deg C]
MTee1100_Tee1111_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1111 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1100_Tee1111 = [491,1] !Changed automatically
PTee1100_Tee1111_kW = [491,3]/3600 !Changed automatically
PTee1100_Tee1111Conv_kW = [491,4]/3600 !Changed automatically
PTee1100_Tee1111Int_kJ = [491,5] !Changed automatically
MTee1100_Tee1111 = MTee1100_Tee1111_A
UNIT 492 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1118 ! input flow temperature [deg C]
MTee1118_Tee1107_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1107 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1118_Tee1107 = [492,1] !Changed automatically
PTee1118_Tee1107_kW = [492,3]/3600 !Changed automatically
PTee1118_Tee1107Conv_kW = [492,4]/3600 !Changed automatically
PTee1118_Tee1107Int_kJ = [492,5] !Changed automatically
MTee1118_Tee1107 = MTee1118_Tee1107_A
UNIT 493 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1111 ! input flow temperature [deg C]
MTee1111_Pump1115_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad43GfL ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1111_Pump1115 = [493,1] !Changed automatically
PTee1111_Pump1115_kW = [493,3]/3600 !Changed automatically
PTee1111_Pump1115Conv_kW = [493,4]/3600 !Changed automatically
PTee1111_Pump1115Int_kJ = [493,5] !Changed automatically
MTee1111_Pump1115 = MTee1111_Pump1115_A
UNIT 494 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad43GfLH ! input flow temperature [deg C]
MRad1073_Tee1118_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1118 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1073_Tee1118 = [494,1] !Changed automatically
PRad1073_Tee1118_kW = [494,3]/3600 !Changed automatically
PRad1073_Tee1118Conv_kW = [494,4]/3600 !Changed automatically
PRad1073_Tee1118Int_kJ = [494,5] !Changed automatically
MRad1073_Tee1118 = MRad1073_Tee1118_A
UNIT 495 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1111 ! input flow temperature [deg C]
MTee1111_Tee1122_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1122 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1111_Tee1122 = [495,1] !Changed automatically
PTee1111_Tee1122_kW = [495,3]/3600 !Changed automatically
PTee1111_Tee1122Conv_kW = [495,4]/3600 !Changed automatically
PTee1111_Tee1122Int_kJ = [495,5] !Changed automatically
MTee1111_Tee1122 = MTee1111_Tee1122_A
UNIT 496 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1129 ! input flow temperature [deg C]
MTee1129_Tee1118_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1118 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1129_Tee1118 = [496,1] !Changed automatically
PTee1129_Tee1118_kW = [496,3]/3600 !Changed automatically
PTee1129_Tee1118Conv_kW = [496,4]/3600 !Changed automatically
PTee1129_Tee1118Int_kJ = [496,5] !Changed automatically
MTee1129_Tee1118 = MTee1129_Tee1118_A
UNIT 497 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1122 ! input flow temperature [deg C]
MTee1122_Pump1126_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad43aGfR ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1122_Pump1126 = [497,1] !Changed automatically
PTee1122_Pump1126_kW = [497,3]/3600 !Changed automatically
PTee1122_Pump1126Conv_kW = [497,4]/3600 !Changed automatically
PTee1122_Pump1126Int_kJ = [497,5] !Changed automatically
MTee1122_Pump1126 = MTee1122_Pump1126_A
UNIT 498 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad43aGfRH ! input flow temperature [deg C]
MRad1076_Tee1129_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1129 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1076_Tee1129 = [498,1] !Changed automatically
PRad1076_Tee1129_kW = [498,3]/3600 !Changed automatically
PRad1076_Tee1129Conv_kW = [498,4]/3600 !Changed automatically
PRad1076_Tee1129Int_kJ = [498,5] !Changed automatically
MRad1076_Tee1129 = MRad1076_Tee1129_A
UNIT 499 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1122 ! input flow temperature [deg C]
MTee1122_Tee1136_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1136 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1122_Tee1136 = [499,1] !Changed automatically
PTee1122_Tee1136_kW = [499,3]/3600 !Changed automatically
PTee1122_Tee1136Conv_kW = [499,4]/3600 !Changed automatically
PTee1122_Tee1136Int_kJ = [499,5] !Changed automatically
MTee1122_Tee1136 = MTee1122_Tee1136_A
UNIT 500 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1136 ! input flow temperature [deg C]
MTee1136_Pump1144_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad43aGfL ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1136_Pump1144 = [500,1] !Changed automatically
PTee1136_Pump1144_kW = [500,3]/3600 !Changed automatically
PTee1136_Pump1144Conv_kW = [500,4]/3600 !Changed automatically
PTee1136_Pump1144Int_kJ = [500,5] !Changed automatically
MTee1136_Pump1144 = MTee1136_Pump1144_A
UNIT 501 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad43aGfLH ! input flow temperature [deg C]
MRad1082_Tee1140_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1140 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1082_Tee1140 = [501,1] !Changed automatically
PRad1082_Tee1140_kW = [501,3]/3600 !Changed automatically
PRad1082_Tee1140Conv_kW = [501,4]/3600 !Changed automatically
PRad1082_Tee1140Int_kJ = [501,5] !Changed automatically
MRad1082_Tee1140 = MRad1082_Tee1140_A
UNIT 502 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad43aGfCH ! input flow temperature [deg C]
MRad1079_Tee1140_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1140 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1079_Tee1140 = [502,1] !Changed automatically
PRad1079_Tee1140_kW = [502,3]/3600 !Changed automatically
PRad1079_Tee1140Conv_kW = [502,4]/3600 !Changed automatically
PRad1079_Tee1140Int_kJ = [502,5] !Changed automatically
MRad1079_Tee1140 = MRad1079_Tee1140_A
UNIT 503 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1140 ! input flow temperature [deg C]
MTee1140_Tee1129_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1129 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1140_Tee1129 = [503,1] !Changed automatically
PTee1140_Tee1129_kW = [503,3]/3600 !Changed automatically
PTee1140_Tee1129Conv_kW = [503,4]/3600 !Changed automatically
PTee1140_Tee1129Int_kJ = [503,5] !Changed automatically
MTee1140_Tee1129 = MTee1140_Tee1129_A
UNIT 504 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1136 ! input flow temperature [deg C]
MTee1136_Pump1133_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad43aGfC ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1136_Pump1133 = [504,1] !Changed automatically
PTee1136_Pump1133_kW = [504,3]/3600 !Changed automatically
PTee1136_Pump1133Conv_kW = [504,4]/3600 !Changed automatically
PTee1136_Pump1133Int_kJ = [504,5] !Changed automatically
MTee1136_Pump1133 = MTee1136_Pump1133_A
UNIT 505 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1199_A
MTee1199_B
MTee1199_C
TTee1085_Tee1199
TTee1199_Tee1306
TTee1199_Tee1203
0 0 0 20 20 20
EQUATIONS 1
TTee1199= [505,1] !Changed automatically
UNIT 506 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1203_A
MTee1203_B
MTee1203_C
TTee1199_Tee1203
TTee1203_Pump1207
TTee1203_Tee1214
0 0 0 20 20 20
EQUATIONS 1
TTee1203= [506,1] !Changed automatically
UNIT 507 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1210_A
MTee1210_B
MTee1210_C
TTee1210_Tee1484
TTee1221_Tee1210
TRad1175_Tee1210
0 0 0 20 20 20
EQUATIONS 1
TTee1210= [507,1] !Changed automatically
UNIT 508 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1214_A
MTee1214_B
MTee1214_C
TTee1203_Tee1214
TTee1214_Pump1218
TTee1214_Tee1225
0 0 0 20 20 20
EQUATIONS 1
TTee1214= [508,1] !Changed automatically
UNIT 509 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1221_A
MTee1221_B
MTee1221_C
TTee1221_Tee1210
TTee1232_Tee1221
TRad1178_Tee1221
0 0 0 20 20 20
EQUATIONS 1
TTee1221= [509,1] !Changed automatically
UNIT 510 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1225_A
MTee1225_B
MTee1225_C
TTee1214_Tee1225
TTee1225_Pump1229
TTee1225_Tee1239
0 0 0 20 20 20
EQUATIONS 1
TTee1225= [510,1] !Changed automatically
UNIT 511 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1232_A
MTee1232_B
MTee1232_C
TTee1232_Tee1221
TTee1243_Tee1232
TRad1181_Tee1232
0 0 0 20 20 20
EQUATIONS 1
TTee1232= [511,1] !Changed automatically
UNIT 512 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1239_A
MTee1239_B
MTee1239_C
TTee1225_Tee1239
TTee1239_Pump1236
TTee1239_Tee1251
0 0 0 20 20 20
EQUATIONS 1
TTee1239= [512,1] !Changed automatically
UNIT 513 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1243_A
MTee1243_B
MTee1243_C
TTee1243_Tee1232
TTee1247_Tee1243
TRad1190_Tee1243
0 0 0 20 20 20
EQUATIONS 1
TTee1243= [513,1] !Changed automatically
UNIT 514 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1247_A
MTee1247_B
MTee1247_C
TTee1247_Tee1243
TRad1196_Tee1247
TRad1193_Tee1247
0 0 0 20 20 20
EQUATIONS 1
TTee1247= [514,1] !Changed automatically
UNIT 515 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1251_A
MTee1251_B
MTee1251_C
TTee1239_Tee1251
TTee1251_Pump1255
TTee1251_Pump1258
0 0 0 20 20 20
EQUATIONS 1
TTee1251= [515,1] !Changed automatically
UNIT 516 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1199 ! input flow temperature [deg C]
MTee1199_Tee1203_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1203 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1199_Tee1203 = [516,1] !Changed automatically
PTee1199_Tee1203_kW = [516,3]/3600 !Changed automatically
PTee1199_Tee1203Conv_kW = [516,4]/3600 !Changed automatically
PTee1199_Tee1203Int_kJ = [516,5] !Changed automatically
MTee1199_Tee1203 = MTee1199_Tee1203_A
UNIT 517 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1203 ! input flow temperature [deg C]
MTee1203_Pump1207_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad431fR ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1203_Pump1207 = [517,1] !Changed automatically
PTee1203_Pump1207_kW = [517,3]/3600 !Changed automatically
PTee1203_Pump1207Conv_kW = [517,4]/3600 !Changed automatically
PTee1203_Pump1207Int_kJ = [517,5] !Changed automatically
MTee1203_Pump1207 = MTee1203_Pump1207_A
UNIT 518 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad431fRH ! input flow temperature [deg C]
MRad1175_Tee1210_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1210 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1175_Tee1210 = [518,1] !Changed automatically
PRad1175_Tee1210_kW = [518,3]/3600 !Changed automatically
PRad1175_Tee1210Conv_kW = [518,4]/3600 !Changed automatically
PRad1175_Tee1210Int_kJ = [518,5] !Changed automatically
MRad1175_Tee1210 = MRad1175_Tee1210_A
UNIT 519 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1203 ! input flow temperature [deg C]
MTee1203_Tee1214_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1214 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1203_Tee1214 = [519,1] !Changed automatically
PTee1203_Tee1214_kW = [519,3]/3600 !Changed automatically
PTee1203_Tee1214Conv_kW = [519,4]/3600 !Changed automatically
PTee1203_Tee1214Int_kJ = [519,5] !Changed automatically
MTee1203_Tee1214 = MTee1203_Tee1214_A
UNIT 520 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1221 ! input flow temperature [deg C]
MTee1221_Tee1210_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1210 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1221_Tee1210 = [520,1] !Changed automatically
PTee1221_Tee1210_kW = [520,3]/3600 !Changed automatically
PTee1221_Tee1210Conv_kW = [520,4]/3600 !Changed automatically
PTee1221_Tee1210Int_kJ = [520,5] !Changed automatically
MTee1221_Tee1210 = MTee1221_Tee1210_A
UNIT 521 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1214 ! input flow temperature [deg C]
MTee1214_Pump1218_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad431fL ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1214_Pump1218 = [521,1] !Changed automatically
PTee1214_Pump1218_kW = [521,3]/3600 !Changed automatically
PTee1214_Pump1218Conv_kW = [521,4]/3600 !Changed automatically
PTee1214_Pump1218Int_kJ = [521,5] !Changed automatically
MTee1214_Pump1218 = MTee1214_Pump1218_A
UNIT 522 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad431fLH ! input flow temperature [deg C]
MRad1178_Tee1221_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1221 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1178_Tee1221 = [522,1] !Changed automatically
PRad1178_Tee1221_kW = [522,3]/3600 !Changed automatically
PRad1178_Tee1221Conv_kW = [522,4]/3600 !Changed automatically
PRad1178_Tee1221Int_kJ = [522,5] !Changed automatically
MRad1178_Tee1221 = MRad1178_Tee1221_A
UNIT 523 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1214 ! input flow temperature [deg C]
MTee1214_Tee1225_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1225 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1214_Tee1225 = [523,1] !Changed automatically
PTee1214_Tee1225_kW = [523,3]/3600 !Changed automatically
PTee1214_Tee1225Conv_kW = [523,4]/3600 !Changed automatically
PTee1214_Tee1225Int_kJ = [523,5] !Changed automatically
MTee1214_Tee1225 = MTee1214_Tee1225_A
UNIT 524 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1225 ! input flow temperature [deg C]
MTee1225_Tee1239_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1239 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1225_Tee1239 = [524,1] !Changed automatically
PTee1225_Tee1239_kW = [524,3]/3600 !Changed automatically
PTee1225_Tee1239Conv_kW = [524,4]/3600 !Changed automatically
PTee1225_Tee1239Int_kJ = [524,5] !Changed automatically
MTee1225_Tee1239 = MTee1225_Tee1239_A
UNIT 525 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1232 ! input flow temperature [deg C]
MTee1232_Tee1221_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1221 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1232_Tee1221 = [525,1] !Changed automatically
PTee1232_Tee1221_kW = [525,3]/3600 !Changed automatically
PTee1232_Tee1221Conv_kW = [525,4]/3600 !Changed automatically
PTee1232_Tee1221Int_kJ = [525,5] !Changed automatically
MTee1232_Tee1221 = MTee1232_Tee1221_A
UNIT 526 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1243 ! input flow temperature [deg C]
MTee1243_Tee1232_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1232 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1243_Tee1232 = [526,1] !Changed automatically
PTee1243_Tee1232_kW = [526,3]/3600 !Changed automatically
PTee1243_Tee1232Conv_kW = [526,4]/3600 !Changed automatically
PTee1243_Tee1232Int_kJ = [526,5] !Changed automatically
MTee1243_Tee1232 = MTee1243_Tee1232_A
UNIT 527 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1225 ! input flow temperature [deg C]
MTee1225_Pump1229_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad43a1fR ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1225_Pump1229 = [527,1] !Changed automatically
PTee1225_Pump1229_kW = [527,3]/3600 !Changed automatically
PTee1225_Pump1229Conv_kW = [527,4]/3600 !Changed automatically
PTee1225_Pump1229Int_kJ = [527,5] !Changed automatically
MTee1225_Pump1229 = MTee1225_Pump1229_A
UNIT 528 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad43a1fRH ! input flow temperature [deg C]
MRad1181_Tee1232_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1232 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1181_Tee1232 = [528,1] !Changed automatically
PRad1181_Tee1232_kW = [528,3]/3600 !Changed automatically
PRad1181_Tee1232Conv_kW = [528,4]/3600 !Changed automatically
PRad1181_Tee1232Int_kJ = [528,5] !Changed automatically
MRad1181_Tee1232 = MRad1181_Tee1232_A
UNIT 529 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1239 ! input flow temperature [deg C]
MTee1239_Pump1236_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad43a1fC ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1239_Pump1236 = [529,1] !Changed automatically
PTee1239_Pump1236_kW = [529,3]/3600 !Changed automatically
PTee1239_Pump1236Conv_kW = [529,4]/3600 !Changed automatically
PTee1239_Pump1236Int_kJ = [529,5] !Changed automatically
MTee1239_Pump1236 = MTee1239_Pump1236_A
UNIT 530 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad43a1fCH ! input flow temperature [deg C]
MRad1190_Tee1243_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1243 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1190_Tee1243 = [530,1] !Changed automatically
PRad1190_Tee1243_kW = [530,3]/3600 !Changed automatically
PRad1190_Tee1243Conv_kW = [530,4]/3600 !Changed automatically
PRad1190_Tee1243Int_kJ = [530,5] !Changed automatically
MRad1190_Tee1243 = MRad1190_Tee1243_A
UNIT 531 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1251 ! input flow temperature [deg C]
MTee1251_Pump1255_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad43a1fL ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1251_Pump1255 = [531,1] !Changed automatically
PTee1251_Pump1255_kW = [531,3]/3600 !Changed automatically
PTee1251_Pump1255Conv_kW = [531,4]/3600 !Changed automatically
PTee1251_Pump1255Int_kJ = [531,5] !Changed automatically
MTee1251_Pump1255 = MTee1251_Pump1255_A
UNIT 532 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad43a1fLH ! input flow temperature [deg C]
MRad1193_Tee1247_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1247 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1193_Tee1247 = [532,1] !Changed automatically
PRad1193_Tee1247_kW = [532,3]/3600 !Changed automatically
PRad1193_Tee1247Conv_kW = [532,4]/3600 !Changed automatically
PRad1193_Tee1247Int_kJ = [532,5] !Changed automatically
MRad1193_Tee1247 = MRad1193_Tee1247_A
UNIT 533 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1251 ! input flow temperature [deg C]
MTee1251_Pump1258_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad432fR ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1251_Pump1258 = [533,1] !Changed automatically
PTee1251_Pump1258_kW = [533,3]/3600 !Changed automatically
PTee1251_Pump1258Conv_kW = [533,4]/3600 !Changed automatically
PTee1251_Pump1258Int_kJ = [533,5] !Changed automatically
MTee1251_Pump1258 = MTee1251_Pump1258_A
UNIT 534 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad432fRH ! input flow temperature [deg C]
MRad1196_Tee1247_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1247 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1196_Tee1247 = [534,1] !Changed automatically
PRad1196_Tee1247_kW = [534,3]/3600 !Changed automatically
PRad1196_Tee1247Conv_kW = [534,4]/3600 !Changed automatically
PRad1196_Tee1247Int_kJ = [534,5] !Changed automatically
MRad1196_Tee1247 = MRad1196_Tee1247_A
UNIT 535 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1247 ! input flow temperature [deg C]
MTee1247_Tee1243_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1243 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1247_Tee1243 = [535,1] !Changed automatically
PTee1247_Tee1243_kW = [535,3]/3600 !Changed automatically
PTee1247_Tee1243Conv_kW = [535,4]/3600 !Changed automatically
PTee1247_Tee1243Int_kJ = [535,5] !Changed automatically
MTee1247_Tee1243 = MTee1247_Tee1243_A
UNIT 536 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1239 ! input flow temperature [deg C]
MTee1239_Tee1251_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1251 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1239_Tee1251 = [536,1] !Changed automatically
PTee1239_Tee1251_kW = [536,3]/3600 !Changed automatically
PTee1239_Tee1251Conv_kW = [536,4]/3600 !Changed automatically
PTee1239_Tee1251Int_kJ = [536,5] !Changed automatically
MTee1239_Tee1251 = MTee1239_Tee1251_A
UNIT 537 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1306_A
MTee1306_B
MTee1306_C
TTee1199_Tee1306
TTee1306_Tee1410
TTee1306_Tee1310
0 0 0 20 20 20
EQUATIONS 1
TTee1306= [537,1] !Changed automatically
UNIT 538 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1310_A
MTee1310_B
MTee1310_C
TTee1306_Tee1310
TTee1310_Pump1314
TTee1310_Tee1321
0 0 0 20 20 20
EQUATIONS 1
TTee1310= [538,1] !Changed automatically
UNIT 539 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1317_A
MTee1317_B
MTee1317_C
TTee1317_Tee1488
TTee1328_Tee1317
TRad1288_Tee1317
0 0 0 20 20 20
EQUATIONS 1
TTee1317= [539,1] !Changed automatically
UNIT 540 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1321_A
MTee1321_B
MTee1321_C
TTee1310_Tee1321
TTee1321_Pump1325
TTee1321_Tee1335
0 0 0 20 20 20
EQUATIONS 1
TTee1321= [540,1] !Changed automatically
UNIT 541 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1328_A
MTee1328_B
MTee1328_C
TTee1328_Tee1317
TTee1339_Tee1328
TRad1291_Tee1328
0 0 0 20 20 20
EQUATIONS 1
TTee1328= [541,1] !Changed automatically
UNIT 542 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1335_A
MTee1335_B
MTee1335_C
TTee1321_Tee1335
TTee1335_Pump1332
TTee1335_Tee1343
0 0 0 20 20 20
EQUATIONS 1
TTee1335= [542,1] !Changed automatically
UNIT 543 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1339_A
MTee1339_B
MTee1339_C
TTee1339_Tee1328
TTee1350_Tee1339
TRad1294_Tee1339
0 0 0 20 20 20
EQUATIONS 1
TTee1339= [543,1] !Changed automatically
UNIT 544 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1343_A
MTee1343_B
MTee1343_C
TTee1335_Tee1343
TTee1343_Pump1347
TTee1343_Tee1354
0 0 0 20 20 20
EQUATIONS 1
TTee1343= [544,1] !Changed automatically
UNIT 545 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1350_A
MTee1350_B
MTee1350_C
TTee1350_Tee1339
TTee1361_Tee1350
TRad1297_Tee1350
0 0 0 20 20 20
EQUATIONS 1
TTee1350= [545,1] !Changed automatically
UNIT 546 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1354_A
MTee1354_B
MTee1354_C
TTee1343_Tee1354
TTee1354_Pump1358
TTee1354_Pump1365
0 0 0 20 20 20
EQUATIONS 1
TTee1354= [546,1] !Changed automatically
UNIT 547 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1361_A
MTee1361_B
MTee1361_C
TTee1361_Tee1350
TRad1303_Tee1361
TRad1300_Tee1361
0 0 0 20 20 20
EQUATIONS 1
TTee1361= [547,1] !Changed automatically
UNIT 548 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1085 ! input flow temperature [deg C]
MTee1085_Tee1199_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1199 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1085_Tee1199 = [548,1] !Changed automatically
PTee1085_Tee1199_kW = [548,3]/3600 !Changed automatically
PTee1085_Tee1199Conv_kW = [548,4]/3600 !Changed automatically
PTee1085_Tee1199Int_kJ = [548,5] !Changed automatically
MTee1085_Tee1199 = MTee1085_Tee1199_A
UNIT 549 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1199 ! input flow temperature [deg C]
MTee1199_Tee1306_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1306 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1199_Tee1306 = [549,1] !Changed automatically
PTee1199_Tee1306_kW = [549,3]/3600 !Changed automatically
PTee1199_Tee1306Conv_kW = [549,4]/3600 !Changed automatically
PTee1199_Tee1306Int_kJ = [549,5] !Changed automatically
MTee1199_Tee1306 = MTee1199_Tee1306_A
UNIT 550 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1306 ! input flow temperature [deg C]
MTee1306_Tee1310_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1310 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1306_Tee1310 = [550,1] !Changed automatically
PTee1306_Tee1310_kW = [550,3]/3600 !Changed automatically
PTee1306_Tee1310Conv_kW = [550,4]/3600 !Changed automatically
PTee1306_Tee1310Int_kJ = [550,5] !Changed automatically
MTee1306_Tee1310 = MTee1306_Tee1310_A
UNIT 551 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1310 ! input flow temperature [deg C]
MTee1310_Pump1314_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad432fL ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1310_Pump1314 = [551,1] !Changed automatically
PTee1310_Pump1314_kW = [551,3]/3600 !Changed automatically
PTee1310_Pump1314Conv_kW = [551,4]/3600 !Changed automatically
PTee1310_Pump1314Int_kJ = [551,5] !Changed automatically
MTee1310_Pump1314 = MTee1310_Pump1314_A
UNIT 552 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad432fLH ! input flow temperature [deg C]
MRad1288_Tee1317_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1317 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1288_Tee1317 = [552,1] !Changed automatically
PRad1288_Tee1317_kW = [552,3]/3600 !Changed automatically
PRad1288_Tee1317Conv_kW = [552,4]/3600 !Changed automatically
PRad1288_Tee1317Int_kJ = [552,5] !Changed automatically
MRad1288_Tee1317 = MRad1288_Tee1317_A
UNIT 553 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1310 ! input flow temperature [deg C]
MTee1310_Tee1321_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1321 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1310_Tee1321 = [553,1] !Changed automatically
PTee1310_Tee1321_kW = [553,3]/3600 !Changed automatically
PTee1310_Tee1321Conv_kW = [553,4]/3600 !Changed automatically
PTee1310_Tee1321Int_kJ = [553,5] !Changed automatically
MTee1310_Tee1321 = MTee1310_Tee1321_A
UNIT 554 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1328 ! input flow temperature [deg C]
MTee1328_Tee1317_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1317 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1328_Tee1317 = [554,1] !Changed automatically
PTee1328_Tee1317_kW = [554,3]/3600 !Changed automatically
PTee1328_Tee1317Conv_kW = [554,4]/3600 !Changed automatically
PTee1328_Tee1317Int_kJ = [554,5] !Changed automatically
MTee1328_Tee1317 = MTee1328_Tee1317_A
UNIT 555 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1321 ! input flow temperature [deg C]
MTee1321_Pump1325_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad43a2fR ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1321_Pump1325 = [555,1] !Changed automatically
PTee1321_Pump1325_kW = [555,3]/3600 !Changed automatically
PTee1321_Pump1325Conv_kW = [555,4]/3600 !Changed automatically
PTee1321_Pump1325Int_kJ = [555,5] !Changed automatically
MTee1321_Pump1325 = MTee1321_Pump1325_A
UNIT 556 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad43a2fRH ! input flow temperature [deg C]
MRad1291_Tee1328_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1328 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1291_Tee1328 = [556,1] !Changed automatically
PRad1291_Tee1328_kW = [556,3]/3600 !Changed automatically
PRad1291_Tee1328Conv_kW = [556,4]/3600 !Changed automatically
PRad1291_Tee1328Int_kJ = [556,5] !Changed automatically
MRad1291_Tee1328 = MRad1291_Tee1328_A
UNIT 557 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1335 ! input flow temperature [deg C]
MTee1335_Pump1332_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad43a2fC ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1335_Pump1332 = [557,1] !Changed automatically
PTee1335_Pump1332_kW = [557,3]/3600 !Changed automatically
PTee1335_Pump1332Conv_kW = [557,4]/3600 !Changed automatically
PTee1335_Pump1332Int_kJ = [557,5] !Changed automatically
MTee1335_Pump1332 = MTee1335_Pump1332_A
UNIT 558 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad43a2fCH ! input flow temperature [deg C]
MRad1294_Tee1339_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1339 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1294_Tee1339 = [558,1] !Changed automatically
PRad1294_Tee1339_kW = [558,3]/3600 !Changed automatically
PRad1294_Tee1339Conv_kW = [558,4]/3600 !Changed automatically
PRad1294_Tee1339Int_kJ = [558,5] !Changed automatically
MRad1294_Tee1339 = MRad1294_Tee1339_A
UNIT 559 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1343 ! input flow temperature [deg C]
MTee1343_Pump1347_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad43a2fL ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1343_Pump1347 = [559,1] !Changed automatically
PTee1343_Pump1347_kW = [559,3]/3600 !Changed automatically
PTee1343_Pump1347Conv_kW = [559,4]/3600 !Changed automatically
PTee1343_Pump1347Int_kJ = [559,5] !Changed automatically
MTee1343_Pump1347 = MTee1343_Pump1347_A
UNIT 560 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad43a2fLH ! input flow temperature [deg C]
MRad1297_Tee1350_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1350 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1297_Tee1350 = [560,1] !Changed automatically
PRad1297_Tee1350_kW = [560,3]/3600 !Changed automatically
PRad1297_Tee1350Conv_kW = [560,4]/3600 !Changed automatically
PRad1297_Tee1350Int_kJ = [560,5] !Changed automatically
MRad1297_Tee1350 = MRad1297_Tee1350_A
UNIT 561 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1321 ! input flow temperature [deg C]
MTee1321_Tee1335_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1335 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1321_Tee1335 = [561,1] !Changed automatically
PTee1321_Tee1335_kW = [561,3]/3600 !Changed automatically
PTee1321_Tee1335Conv_kW = [561,4]/3600 !Changed automatically
PTee1321_Tee1335Int_kJ = [561,5] !Changed automatically
MTee1321_Tee1335 = MTee1321_Tee1335_A
UNIT 562 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1335 ! input flow temperature [deg C]
MTee1335_Tee1343_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1343 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1335_Tee1343 = [562,1] !Changed automatically
PTee1335_Tee1343_kW = [562,3]/3600 !Changed automatically
PTee1335_Tee1343Conv_kW = [562,4]/3600 !Changed automatically
PTee1335_Tee1343Int_kJ = [562,5] !Changed automatically
MTee1335_Tee1343 = MTee1335_Tee1343_A
UNIT 563 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1350 ! input flow temperature [deg C]
MTee1350_Tee1339_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1339 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1350_Tee1339 = [563,1] !Changed automatically
PTee1350_Tee1339_kW = [563,3]/3600 !Changed automatically
PTee1350_Tee1339Conv_kW = [563,4]/3600 !Changed automatically
PTee1350_Tee1339Int_kJ = [563,5] !Changed automatically
MTee1350_Tee1339 = MTee1350_Tee1339_A
UNIT 564 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1339 ! input flow temperature [deg C]
MTee1339_Tee1328_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1328 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1339_Tee1328 = [564,1] !Changed automatically
PTee1339_Tee1328_kW = [564,3]/3600 !Changed automatically
PTee1339_Tee1328Conv_kW = [564,4]/3600 !Changed automatically
PTee1339_Tee1328Int_kJ = [564,5] !Changed automatically
MTee1339_Tee1328 = MTee1339_Tee1328_A
UNIT 565 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1343 ! input flow temperature [deg C]
MTee1343_Tee1354_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1354 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1343_Tee1354 = [565,1] !Changed automatically
PTee1343_Tee1354_kW = [565,3]/3600 !Changed automatically
PTee1343_Tee1354Conv_kW = [565,4]/3600 !Changed automatically
PTee1343_Tee1354Int_kJ = [565,5] !Changed automatically
MTee1343_Tee1354 = MTee1343_Tee1354_A
UNIT 566 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1354 ! input flow temperature [deg C]
MTee1354_Pump1365_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad433fL ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1354_Pump1365 = [566,1] !Changed automatically
PTee1354_Pump1365_kW = [566,3]/3600 !Changed automatically
PTee1354_Pump1365Conv_kW = [566,4]/3600 !Changed automatically
PTee1354_Pump1365Int_kJ = [566,5] !Changed automatically
MTee1354_Pump1365 = MTee1354_Pump1365_A
UNIT 567 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad433fLH ! input flow temperature [deg C]
MRad1303_Tee1361_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1361 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1303_Tee1361 = [567,1] !Changed automatically
PRad1303_Tee1361_kW = [567,3]/3600 !Changed automatically
PRad1303_Tee1361Conv_kW = [567,4]/3600 !Changed automatically
PRad1303_Tee1361Int_kJ = [567,5] !Changed automatically
MRad1303_Tee1361 = MRad1303_Tee1361_A
UNIT 568 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad433fRH ! input flow temperature [deg C]
MRad1300_Tee1361_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1361 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1300_Tee1361 = [568,1] !Changed automatically
PRad1300_Tee1361_kW = [568,3]/3600 !Changed automatically
PRad1300_Tee1361Conv_kW = [568,4]/3600 !Changed automatically
PRad1300_Tee1361Int_kJ = [568,5] !Changed automatically
MRad1300_Tee1361 = MRad1300_Tee1361_A
UNIT 569 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1361 ! input flow temperature [deg C]
MTee1361_Tee1350_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1350 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1361_Tee1350 = [569,1] !Changed automatically
PTee1361_Tee1350_kW = [569,3]/3600 !Changed automatically
PTee1361_Tee1350Conv_kW = [569,4]/3600 !Changed automatically
PTee1361_Tee1350Int_kJ = [569,5] !Changed automatically
MTee1361_Tee1350 = MTee1361_Tee1350_A
UNIT 570 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1354 ! input flow temperature [deg C]
MTee1354_Pump1358_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad433fR ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1354_Pump1358 = [570,1] !Changed automatically
PTee1354_Pump1358_kW = [570,3]/3600 !Changed automatically
PTee1354_Pump1358Conv_kW = [570,4]/3600 !Changed automatically
PTee1354_Pump1358Int_kJ = [570,5] !Changed automatically
MTee1354_Pump1358 = MTee1354_Pump1358_A
UNIT 571 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1410_A
MTee1410_B
MTee1410_C
TTee1306_Tee1410
TTee1410_Pump1414
TTee1410_Tee1421
0 0 0 20 20 20
EQUATIONS 1
TTee1410= [571,1] !Changed automatically
UNIT 572 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1417_A
MTee1417_B
MTee1417_C
TTee1417_Tee1492
TTee1428_Tee1417
TRad1401_Tee1417
0 0 0 20 20 20
EQUATIONS 1
TTee1417= [572,1] !Changed automatically
UNIT 573 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1421_A
MTee1421_B
MTee1421_C
TTee1410_Tee1421
TTee1421_PuRad43a3fC
TTee1421_Pump1432
0 0 0 20 20 20
EQUATIONS 1
TTee1421= [573,1] !Changed automatically
UNIT 574 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1428_A
MTee1428_B
MTee1428_C
TTee1428_Tee1417
TRad1407_Tee1428
TRad1404_Tee1428
0 0 0 20 20 20
EQUATIONS 1
TTee1428= [574,1] !Changed automatically
UNIT 575 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1410 ! input flow temperature [deg C]
MTee1410_Pump1414_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad43a3fR ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1410_Pump1414 = [575,1] !Changed automatically
PTee1410_Pump1414_kW = [575,3]/3600 !Changed automatically
PTee1410_Pump1414Conv_kW = [575,4]/3600 !Changed automatically
PTee1410_Pump1414Int_kJ = [575,5] !Changed automatically
MTee1410_Pump1414 = MTee1410_Pump1414_A
UNIT 576 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad43a3fRH ! input flow temperature [deg C]
MRad1401_Tee1417_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1417 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1401_Tee1417 = [576,1] !Changed automatically
PRad1401_Tee1417_kW = [576,3]/3600 !Changed automatically
PRad1401_Tee1417Conv_kW = [576,4]/3600 !Changed automatically
PRad1401_Tee1417Int_kJ = [576,5] !Changed automatically
MRad1401_Tee1417 = MRad1401_Tee1417_A
UNIT 577 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1410 ! input flow temperature [deg C]
MTee1410_Tee1421_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1421 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1410_Tee1421 = [577,1] !Changed automatically
PTee1410_Tee1421_kW = [577,3]/3600 !Changed automatically
PTee1410_Tee1421Conv_kW = [577,4]/3600 !Changed automatically
PTee1410_Tee1421Int_kJ = [577,5] !Changed automatically
MTee1410_Tee1421 = MTee1410_Tee1421_A
UNIT 578 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad43a3fCH ! input flow temperature [deg C]
MRad1404_Tee1428_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1428 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1404_Tee1428 = [578,1] !Changed automatically
PRad1404_Tee1428_kW = [578,3]/3600 !Changed automatically
PRad1404_Tee1428Conv_kW = [578,4]/3600 !Changed automatically
PRad1404_Tee1428Int_kJ = [578,5] !Changed automatically
MRad1404_Tee1428 = MRad1404_Tee1428_A
UNIT 579 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1428 ! input flow temperature [deg C]
MTee1428_Tee1417_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1417 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1428_Tee1417 = [579,1] !Changed automatically
PTee1428_Tee1417_kW = [579,3]/3600 !Changed automatically
PTee1428_Tee1417Conv_kW = [579,4]/3600 !Changed automatically
PTee1428_Tee1417Int_kJ = [579,5] !Changed automatically
MTee1428_Tee1417 = MTee1428_Tee1417_A
UNIT 580 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1421 ! input flow temperature [deg C]
MTee1421_Pump1432_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad43a3fL ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1421_Pump1432 = [580,1] !Changed automatically
PTee1421_Pump1432_kW = [580,3]/3600 !Changed automatically
PTee1421_Pump1432Conv_kW = [580,4]/3600 !Changed automatically
PTee1421_Pump1432Int_kJ = [580,5] !Changed automatically
MTee1421_Pump1432 = MTee1421_Pump1432_A
UNIT 581 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TRad43a3fLH ! input flow temperature [deg C]
MRad1407_Tee1428_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1428 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TRad1407_Tee1428 = [581,1] !Changed automatically
PRad1407_Tee1428_kW = [581,3]/3600 !Changed automatically
PRad1407_Tee1428Conv_kW = [581,4]/3600 !Changed automatically
PRad1407_Tee1428Int_kJ = [581,5] !Changed automatically
MRad1407_Tee1428 = MRad1407_Tee1428_A
UNIT 582 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1450_A
MTee1450_B
MTee1450_C
TTee347_Tee1450
TTee1450_Tee1456
TTee429_Tee1450
0 0 0 20 20 20
EQUATIONS 1
TTee1450= [582,1] !Changed automatically
UNIT 583 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1456_A
MTee1456_B
MTee1456_C
TTee1450_Tee1456
TTee1456_Tee1460
TTee472_Tee1456
0 0 0 20 20 20
EQUATIONS 1
TTee1456= [583,1] !Changed automatically
UNIT 584 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1460_A
MTee1460_B
MTee1460_C
TTee1456_Tee1460
TTee1460_Tee1464
TTee564_Tee1460
0 0 0 20 20 20
EQUATIONS 1
TTee1460= [584,1] !Changed automatically
UNIT 585 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1464_A
MTee1464_B
MTee1464_C
TTee1460_Tee1464
TTee1464_Tee1468
TTee662_Tee1464
0 0 0 20 20 20
EQUATIONS 1
TTee1464= [585,1] !Changed automatically
UNIT 586 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1468_A
MTee1468_B
MTee1468_C
TTee1464_Tee1468
TTee1468_Tee1472
TTee766_Tee1468
0 0 0 20 20 20
EQUATIONS 1
TTee1468= [586,1] !Changed automatically
UNIT 587 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1472_A
MTee1472_B
MTee1472_C
TTee1468_Tee1472
TTee1472_Tee1476
TTee875_Tee1472
0 0 0 20 20 20
EQUATIONS 1
TTee1472= [587,1] !Changed automatically
UNIT 588 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1476_A
MTee1476_B
MTee1476_C
TTee1472_Tee1476
TTee1476_Tee1480
TTee985_Tee1476
0 0 0 20 20 20
EQUATIONS 1
TTee1476= [588,1] !Changed automatically
UNIT 589 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1480_A
MTee1480_B
MTee1480_C
TTee1476_Tee1480
TTee1480_Tee1484
TTee1096_Tee1480
0 0 0 20 20 20
EQUATIONS 1
TTee1480= [589,1] !Changed automatically
UNIT 590 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1484_A
MTee1484_B
MTee1484_C
TTee1480_Tee1484
TTee1484_Tee1488
TTee1210_Tee1484
0 0 0 20 20 20
EQUATIONS 1
TTee1484= [590,1] !Changed automatically
UNIT 591 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1488_A
MTee1488_B
MTee1488_C
TTee1484_Tee1488
TTee1488_Tee1492
TTee1317_Tee1488
0 0 0 20 20 20
EQUATIONS 1
TTee1488= [591,1] !Changed automatically
UNIT 592 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1492_A
MTee1492_B
MTee1492_C
TTee1492_Tee86
TTee1417_Tee1492
TTee1488_Tee1492
0 0 0 20 20 20
EQUATIONS 1
TTee1492= [592,1] !Changed automatically
UNIT 593 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee347 ! input flow temperature [deg C]
MTee347_Tee1450_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1450 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee347_Tee1450 = [593,1] !Changed automatically
PTee347_Tee1450_kW = [593,3]/3600 !Changed automatically
PTee347_Tee1450Conv_kW = [593,4]/3600 !Changed automatically
PTee347_Tee1450Int_kJ = [593,5] !Changed automatically
MTee347_Tee1450 = MTee347_Tee1450_A
UNIT 594 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee429 ! input flow temperature [deg C]
MTee429_Tee1450_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1450 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee429_Tee1450 = [594,1] !Changed automatically
PTee429_Tee1450_kW = [594,3]/3600 !Changed automatically
PTee429_Tee1450Conv_kW = [594,4]/3600 !Changed automatically
PTee429_Tee1450Int_kJ = [594,5] !Changed automatically
MTee429_Tee1450 = MTee429_Tee1450_A
UNIT 595 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1450 ! input flow temperature [deg C]
MTee1450_Tee1456_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1456 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1450_Tee1456 = [595,1] !Changed automatically
PTee1450_Tee1456_kW = [595,3]/3600 !Changed automatically
PTee1450_Tee1456Conv_kW = [595,4]/3600 !Changed automatically
PTee1450_Tee1456Int_kJ = [595,5] !Changed automatically
MTee1450_Tee1456 = MTee1450_Tee1456_A
UNIT 596 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee472 ! input flow temperature [deg C]
MTee472_Tee1456_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1456 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee472_Tee1456 = [596,1] !Changed automatically
PTee472_Tee1456_kW = [596,3]/3600 !Changed automatically
PTee472_Tee1456Conv_kW = [596,4]/3600 !Changed automatically
PTee472_Tee1456Int_kJ = [596,5] !Changed automatically
MTee472_Tee1456 = MTee472_Tee1456_A
UNIT 597 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1456 ! input flow temperature [deg C]
MTee1456_Tee1460_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1460 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1456_Tee1460 = [597,1] !Changed automatically
PTee1456_Tee1460_kW = [597,3]/3600 !Changed automatically
PTee1456_Tee1460Conv_kW = [597,4]/3600 !Changed automatically
PTee1456_Tee1460Int_kJ = [597,5] !Changed automatically
MTee1456_Tee1460 = MTee1456_Tee1460_A
UNIT 598 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee564 ! input flow temperature [deg C]
MTee564_Tee1460_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1460 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee564_Tee1460 = [598,1] !Changed automatically
PTee564_Tee1460_kW = [598,3]/3600 !Changed automatically
PTee564_Tee1460Conv_kW = [598,4]/3600 !Changed automatically
PTee564_Tee1460Int_kJ = [598,5] !Changed automatically
MTee564_Tee1460 = MTee564_Tee1460_A
UNIT 599 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1460 ! input flow temperature [deg C]
MTee1460_Tee1464_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1464 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1460_Tee1464 = [599,1] !Changed automatically
PTee1460_Tee1464_kW = [599,3]/3600 !Changed automatically
PTee1460_Tee1464Conv_kW = [599,4]/3600 !Changed automatically
PTee1460_Tee1464Int_kJ = [599,5] !Changed automatically
MTee1460_Tee1464 = MTee1460_Tee1464_A
UNIT 600 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee662 ! input flow temperature [deg C]
MTee662_Tee1464_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1464 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee662_Tee1464 = [600,1] !Changed automatically
PTee662_Tee1464_kW = [600,3]/3600 !Changed automatically
PTee662_Tee1464Conv_kW = [600,4]/3600 !Changed automatically
PTee662_Tee1464Int_kJ = [600,5] !Changed automatically
MTee662_Tee1464 = MTee662_Tee1464_A
UNIT 601 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1464 ! input flow temperature [deg C]
MTee1464_Tee1468_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1468 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1464_Tee1468 = [601,1] !Changed automatically
PTee1464_Tee1468_kW = [601,3]/3600 !Changed automatically
PTee1464_Tee1468Conv_kW = [601,4]/3600 !Changed automatically
PTee1464_Tee1468Int_kJ = [601,5] !Changed automatically
MTee1464_Tee1468 = MTee1464_Tee1468_A
UNIT 602 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee766 ! input flow temperature [deg C]
MTee766_Tee1468_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1468 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee766_Tee1468 = [602,1] !Changed automatically
PTee766_Tee1468_kW = [602,3]/3600 !Changed automatically
PTee766_Tee1468Conv_kW = [602,4]/3600 !Changed automatically
PTee766_Tee1468Int_kJ = [602,5] !Changed automatically
MTee766_Tee1468 = MTee766_Tee1468_A
UNIT 603 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1468 ! input flow temperature [deg C]
MTee1468_Tee1472_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1472 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1468_Tee1472 = [603,1] !Changed automatically
PTee1468_Tee1472_kW = [603,3]/3600 !Changed automatically
PTee1468_Tee1472Conv_kW = [603,4]/3600 !Changed automatically
PTee1468_Tee1472Int_kJ = [603,5] !Changed automatically
MTee1468_Tee1472 = MTee1468_Tee1472_A
UNIT 604 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee875 ! input flow temperature [deg C]
MTee875_Tee1472_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1472 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee875_Tee1472 = [604,1] !Changed automatically
PTee875_Tee1472_kW = [604,3]/3600 !Changed automatically
PTee875_Tee1472Conv_kW = [604,4]/3600 !Changed automatically
PTee875_Tee1472Int_kJ = [604,5] !Changed automatically
MTee875_Tee1472 = MTee875_Tee1472_A
UNIT 605 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1472 ! input flow temperature [deg C]
MTee1472_Tee1476_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1476 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1472_Tee1476 = [605,1] !Changed automatically
PTee1472_Tee1476_kW = [605,3]/3600 !Changed automatically
PTee1472_Tee1476Conv_kW = [605,4]/3600 !Changed automatically
PTee1472_Tee1476Int_kJ = [605,5] !Changed automatically
MTee1472_Tee1476 = MTee1472_Tee1476_A
UNIT 606 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee985 ! input flow temperature [deg C]
MTee985_Tee1476_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1476 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee985_Tee1476 = [606,1] !Changed automatically
PTee985_Tee1476_kW = [606,3]/3600 !Changed automatically
PTee985_Tee1476Conv_kW = [606,4]/3600 !Changed automatically
PTee985_Tee1476Int_kJ = [606,5] !Changed automatically
MTee985_Tee1476 = MTee985_Tee1476_A
UNIT 607 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1476 ! input flow temperature [deg C]
MTee1476_Tee1480_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1480 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1476_Tee1480 = [607,1] !Changed automatically
PTee1476_Tee1480_kW = [607,3]/3600 !Changed automatically
PTee1476_Tee1480Conv_kW = [607,4]/3600 !Changed automatically
PTee1476_Tee1480Int_kJ = [607,5] !Changed automatically
MTee1476_Tee1480 = MTee1476_Tee1480_A
UNIT 608 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1096 ! input flow temperature [deg C]
MTee1096_Tee1480_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1480 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1096_Tee1480 = [608,1] !Changed automatically
PTee1096_Tee1480_kW = [608,3]/3600 !Changed automatically
PTee1096_Tee1480Conv_kW = [608,4]/3600 !Changed automatically
PTee1096_Tee1480Int_kJ = [608,5] !Changed automatically
MTee1096_Tee1480 = MTee1096_Tee1480_A
UNIT 609 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1480 ! input flow temperature [deg C]
MTee1480_Tee1484_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1484 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1480_Tee1484 = [609,1] !Changed automatically
PTee1480_Tee1484_kW = [609,3]/3600 !Changed automatically
PTee1480_Tee1484Conv_kW = [609,4]/3600 !Changed automatically
PTee1480_Tee1484Int_kJ = [609,5] !Changed automatically
MTee1480_Tee1484 = MTee1480_Tee1484_A
UNIT 610 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1210 ! input flow temperature [deg C]
MTee1210_Tee1484_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1484 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1210_Tee1484 = [610,1] !Changed automatically
PTee1210_Tee1484_kW = [610,3]/3600 !Changed automatically
PTee1210_Tee1484Conv_kW = [610,4]/3600 !Changed automatically
PTee1210_Tee1484Int_kJ = [610,5] !Changed automatically
MTee1210_Tee1484 = MTee1210_Tee1484_A
UNIT 611 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1484 ! input flow temperature [deg C]
MTee1484_Tee1488_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1488 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1484_Tee1488 = [611,1] !Changed automatically
PTee1484_Tee1488_kW = [611,3]/3600 !Changed automatically
PTee1484_Tee1488Conv_kW = [611,4]/3600 !Changed automatically
PTee1484_Tee1488Int_kJ = [611,5] !Changed automatically
MTee1484_Tee1488 = MTee1484_Tee1488_A
UNIT 612 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1317 ! input flow temperature [deg C]
MTee1317_Tee1488_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1488 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1317_Tee1488 = [612,1] !Changed automatically
PTee1317_Tee1488_kW = [612,3]/3600 !Changed automatically
PTee1317_Tee1488Conv_kW = [612,4]/3600 !Changed automatically
PTee1317_Tee1488Int_kJ = [612,5] !Changed automatically
MTee1317_Tee1488 = MTee1317_Tee1488_A
UNIT 613 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1488 ! input flow temperature [deg C]
MTee1488_Tee1492_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1492 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1488_Tee1492 = [613,1] !Changed automatically
PTee1488_Tee1492_kW = [613,3]/3600 !Changed automatically
PTee1488_Tee1492Conv_kW = [613,4]/3600 !Changed automatically
PTee1488_Tee1492Int_kJ = [613,5] !Changed automatically
MTee1488_Tee1492 = MTee1488_Tee1492_A
UNIT 614 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1417 ! input flow temperature [deg C]
MTee1417_Tee1492_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1492 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1417_Tee1492 = [614,1] !Changed automatically
PTee1417_Tee1492_kW = [614,3]/3600 !Changed automatically
PTee1417_Tee1492Conv_kW = [614,4]/3600 !Changed automatically
PTee1417_Tee1492Int_kJ = [614,5] !Changed automatically
MTee1417_Tee1492 = MTee1417_Tee1492_A
UNIT 615 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1492 ! input flow temperature [deg C]
MTee1492_Tee86_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee86 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1492_Tee86 = [615,1] !Changed automatically
PTee1492_Tee86_kW = [615,3]/3600 !Changed automatically
PTee1492_Tee86Conv_kW = [615,4]/3600 !Changed automatically
PTee1492_Tee86Int_kJ = [615,5] !Changed automatically
MTee1492_Tee86 = MTee1492_Tee86_A
UNIT 616 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee27 ! input flow temperature [deg C]
MTee27_Pump1527_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuHp ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee27_Pump1527 = [616,1] !Changed automatically
PTee27_Pump1527_kW = [616,3]/3600 !Changed automatically
PTee27_Pump1527Conv_kW = [616,4]/3600 !Changed automatically
PTee27_Pump1527Int_kJ = [616,5] !Changed automatically
MTee27_Pump1527 = MTee27_Pump1527_A
UNIT 617 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1306 ! input flow temperature [deg C]
MTee1306_Tee1410_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1410 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1306_Tee1410 = [617,1] !Changed automatically
PTee1306_Tee1410_kW = [617,3]/3600 !Changed automatically
PTee1306_Tee1410Conv_kW = [617,4]/3600 !Changed automatically
PTee1306_Tee1410Int_kJ = [617,5] !Changed automatically
MTee1306_Tee1410 = MTee1306_Tee1410_A
UNIT 618 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TValHp ! input flow temperature [deg C]
MValHp_Tee73_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee73 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TValHp_Tee73 = [618,1] !Changed automatically
PValHp_Tee73_kW = [618,3]/3600 !Changed automatically
PValHp_Tee73Conv_kW = [618,4]/3600 !Changed automatically
PValHp_Tee73Int_kJ = [618,5] !Changed automatically
MValHp_Tee73 = MValHp_Tee73_A
UNIT 619 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1569_A
MTee1569_B
MTee1569_C
TTee1569_Tee27
TTee86_Tee1569
TTesSh_Tee1569
0 0 0 20 20 20
EQUATIONS 1
TTee1569= [619,1] !Changed automatically
UNIT 620 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1569 ! input flow temperature [deg C]
MTee1569_Tee27_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee27 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1569_Tee27 = [620,1] !Changed automatically
PTee1569_Tee27_kW = [620,3]/3600 !Changed automatically
PTee1569_Tee27Conv_kW = [620,4]/3600 !Changed automatically
PTee1569_Tee27Int_kJ = [620,5] !Changed automatically
MTee1569_Tee27 = MTee1569_Tee27_A
UNIT 621 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee86 ! input flow temperature [deg C]
MTee86_Tee1569_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1569 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee86_Tee1569 = [621,1] !Changed automatically
PTee86_Tee1569_kW = [621,3]/3600 !Changed automatically
PTee86_Tee1569Conv_kW = [621,4]/3600 !Changed automatically
PTee86_Tee1569Int_kJ = [621,5] !Changed automatically
MTee86_Tee1569 = MTee86_Tee1569_A
UNIT 622 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1421 ! input flow temperature [deg C]
MTee1421_PuRad43a3fC_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuRad43a3fC ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1421_PuRad43a3fC = [622,1] !Changed automatically
PTee1421_PuRad43a3fC_kW = [622,3]/3600 !Changed automatically
PTee1421_PuRad43a3fCConv_kW = [622,4]/3600 !Changed automatically
PTee1421_PuRad43a3fCInt_kJ = [622,5] !Changed automatically
MTee1421_PuRad43a3fC = MTee1421_PuRad43a3fC_A
UNIT 623 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee73 ! input flow temperature [deg C]
MTee73_ValMixSh_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TValMixSh ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee73_ValMixSh = [623,1] !Changed automatically
PTee73_ValMixSh_kW = [623,3]/3600 !Changed automatically
PTee73_ValMixShConv_kW = [623,4]/3600 !Changed automatically
PTee73_ValMixShInt_kJ = [623,5] !Changed automatically
MTee73_ValMixSh = MTee73_ValMixSh_A
UNIT 624 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee86 ! input flow temperature [deg C]
MTee86_ValMixSh_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TValMixSh ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee86_ValMixSh = [624,1] !Changed automatically
PTee86_ValMixSh_kW = [624,3]/3600 !Changed automatically
PTee86_ValMixShConv_kW = [624,4]/3600 !Changed automatically
PTee86_ValMixShInt_kJ = [624,5] !Changed automatically
MTee86_ValMixSh = MTee86_ValMixSh_A
UNIT 625 TYPE 931 !Changed automatically
PARAMETERS 6
loop5Dia ! diameter [m]
loop5Len ! length [m]
loop5UVal ! U-value [kJ/(h*m^2*K)]
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TValMixSh ! input flow temperature [deg C]
MValMixSh_Tee300_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee300 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TValMixSh_Tee300 = [625,1] !Changed automatically
PValMixSh_Tee300_kW = [625,3]/3600 !Changed automatically
PValMixSh_Tee300Conv_kW = [625,4]/3600 !Changed automatically
PValMixSh_Tee300Int_kJ = [625,5] !Changed automatically
MValMixSh_Tee300 = MValMixSh_Tee300_A
UNIT 626 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee73 ! input flow temperature [deg C]
MTee73_TesSh_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTesShDpL99_1H ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee73_TesSh = [626,1] !Changed automatically
PTee73_TesSh_kW = [626,3]/3600 !Changed automatically
PTee73_TesShConv_kW = [626,4]/3600 !Changed automatically
PTee73_TesShInt_kJ = [626,5] !Changed automatically
MTee73_TesSh = MTee73_TesSh_A
UNIT 627 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTesShDpL99_1H ! input flow temperature [deg C]
MTesSh_Tee1569_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1569 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTesSh_Tee1569 = [627,1] !Changed automatically
PTesSh_Tee1569_kW = [627,3]/3600 !Changed automatically
PTesSh_Tee1569Conv_kW = [627,4]/3600 !Changed automatically
PTesSh_Tee1569Int_kJ = [627,5] !Changed automatically
MTesSh_Tee1569 = MTesSh_Tee1569_A
UNIT 628 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuHp ! input flow temperature [deg C]
MPuHp_AwHp_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TAwHpH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuHp_AwHp = [628,1] !Changed automatically
PPuHp_AwHp_kW = [628,3]/3600 !Changed automatically
PPuHp_AwHpConv_kW = [628,4]/3600 !Changed automatically
PPuHp_AwHpInt_kJ = [628,5] !Changed automatically
MPuHp_AwHp = MPuHp_AwHp_A
UNIT 629 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TAwHpH ! input flow temperature [deg C]
MAwHp_ValHp_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TValHp ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TAwHp_ValHp = [629,1] !Changed automatically
PAwHp_ValHp_kW = [629,3]/3600 !Changed automatically
PAwHp_ValHpConv_kW = [629,4]/3600 !Changed automatically
PAwHp_ValHpInt_kJ = [629,5] !Changed automatically
MAwHp_ValHp = MAwHp_ValHp_A
UNIT 630 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TValHp ! input flow temperature [deg C]
MValHp_TesDhw_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTesDhwHxHpDhwH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TValHp_TesDhw = [630,1] !Changed automatically
PValHp_TesDhw_kW = [630,3]/3600 !Changed automatically
PValHp_TesDhwConv_kW = [630,4]/3600 !Changed automatically
PValHp_TesDhwInt_kJ = [630,5] !Changed automatically
MValHp_TesDhw = MValHp_TesDhw_A
UNIT 631 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
T43GfRSWH ! input flow temperature [deg C]
M43GfRSW_Tee347_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee347 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
T43GfRSW_Tee347 = [631,1] !Changed automatically
P43GfRSW_Tee347_kW = [631,3]/3600 !Changed automatically
P43GfRSW_Tee347Conv_kW = [631,4]/3600 !Changed automatically
P43GfRSW_Tee347Int_kJ = [631,5] !Changed automatically
M43GfRSW_Tee347 = M43GfRSW_Tee347_A
UNIT 632 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43GfRSW ! input flow temperature [deg C]
MPu43GfRSW_43GfRSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43GfRSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43GfRSW_43GfRSW = [632,1] !Changed automatically
PPu43GfRSW_43GfRSW_kW = [632,3]/3600 !Changed automatically
PPu43GfRSW_43GfRSWConv_kW = [632,4]/3600 !Changed automatically
PPu43GfRSW_43GfRSWInt_kJ = [632,5] !Changed automatically
MPu43GfRSW_43GfRSW = MPu43GfRSW_43GfRSW_A
UNIT 633 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43GfRSE ! input flow temperature [deg C]
MPu43GfRSE_43GfRSE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43GfRSEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43GfRSE_43GfRSE = [633,1] !Changed automatically
PPu43GfRSE_43GfRSE_kW = [633,3]/3600 !Changed automatically
PPu43GfRSE_43GfRSEConv_kW = [633,4]/3600 !Changed automatically
PPu43GfRSE_43GfRSEInt_kJ = [633,5] !Changed automatically
MPu43GfRSE_43GfRSE = MPu43GfRSE_43GfRSE_A
UNIT 634 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43GfRNE ! input flow temperature [deg C]
MPu43GfRNE_43GfRNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43GfRNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43GfRNE_43GfRNE = [634,1] !Changed automatically
PPu43GfRNE_43GfRNE_kW = [634,3]/3600 !Changed automatically
PPu43GfRNE_43GfRNEConv_kW = [634,4]/3600 !Changed automatically
PPu43GfRNE_43GfRNEInt_kJ = [634,5] !Changed automatically
MPu43GfRNE_43GfRNE = MPu43GfRNE_43GfRNE_A
UNIT 635 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43aGfLSW ! input flow temperature [deg C]
MPu43aGfLSW_43aGfLSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43aGfLSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43aGfLSW_43aGfLSW = [635,1] !Changed automatically
PPu43aGfLSW_43aGfLSW_kW = [635,3]/3600 !Changed automatically
PPu43aGfLSW_43aGfLSWConv_kW = [635,4]/3600 !Changed automatically
PPu43aGfLSW_43aGfLSWInt_kJ = [635,5] !Changed automatically
MPu43aGfLSW_43aGfLSW = MPu43aGfLSW_43aGfLSW_A
UNIT 636 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43aGfCSW ! input flow temperature [deg C]
MPu43aGfCSW_43aGfCSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43aGfCSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43aGfCSW_43aGfCSW = [636,1] !Changed automatically
PPu43aGfCSW_43aGfCSW_kW = [636,3]/3600 !Changed automatically
PPu43aGfCSW_43aGfCSWConv_kW = [636,4]/3600 !Changed automatically
PPu43aGfCSW_43aGfCSWInt_kJ = [636,5] !Changed automatically
MPu43aGfCSW_43aGfCSW = MPu43aGfCSW_43aGfCSW_A
UNIT 637 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43aGfRNE ! input flow temperature [deg C]
MPu43aGfRNE_43aGfRNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43aGfRNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43aGfRNE_43aGfRNE = [637,1] !Changed automatically
PPu43aGfRNE_43aGfRNE_kW = [637,3]/3600 !Changed automatically
PPu43aGfRNE_43aGfRNEConv_kW = [637,4]/3600 !Changed automatically
PPu43aGfRNE_43aGfRNEInt_kJ = [637,5] !Changed automatically
MPu43aGfRNE_43aGfRNE = MPu43aGfRNE_43aGfRNE_A
UNIT 638 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu431fRSE ! input flow temperature [deg C]
MPu431fRSE_431fRSE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T431fRSEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu431fRSE_431fRSE = [638,1] !Changed automatically
PPu431fRSE_431fRSE_kW = [638,3]/3600 !Changed automatically
PPu431fRSE_431fRSEConv_kW = [638,4]/3600 !Changed automatically
PPu431fRSE_431fRSEInt_kJ = [638,5] !Changed automatically
MPu431fRSE_431fRSE = MPu431fRSE_431fRSE_A
UNIT 639 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a1fLSW ! input flow temperature [deg C]
MPu43a1fLSW_43a1fLSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a1fLSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a1fLSW_43a1fLSW = [639,1] !Changed automatically
PPu43a1fLSW_43a1fLSW_kW = [639,3]/3600 !Changed automatically
PPu43a1fLSW_43a1fLSWConv_kW = [639,4]/3600 !Changed automatically
PPu43a1fLSW_43a1fLSWInt_kJ = [639,5] !Changed automatically
MPu43a1fLSW_43a1fLSW = MPu43a1fLSW_43a1fLSW_A
UNIT 640 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a1fCSW ! input flow temperature [deg C]
MPu43a1fCSW_43a1fCSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a1fCSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a1fCSW_43a1fCSW = [640,1] !Changed automatically
PPu43a1fCSW_43a1fCSW_kW = [640,3]/3600 !Changed automatically
PPu43a1fCSW_43a1fCSWConv_kW = [640,4]/3600 !Changed automatically
PPu43a1fCSW_43a1fCSWInt_kJ = [640,5] !Changed automatically
MPu43a1fCSW_43a1fCSW = MPu43a1fCSW_43a1fCSW_A
UNIT 641 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu431fRNE ! input flow temperature [deg C]
MPu431fRNE_431fRNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T431fRNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu431fRNE_431fRNE = [641,1] !Changed automatically
PPu431fRNE_431fRNE_kW = [641,3]/3600 !Changed automatically
PPu431fRNE_431fRNEConv_kW = [641,4]/3600 !Changed automatically
PPu431fRNE_431fRNEInt_kJ = [641,5] !Changed automatically
MPu431fRNE_431fRNE = MPu431fRNE_431fRNE_A
UNIT 642 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu431fLSW ! input flow temperature [deg C]
MPu431fLSW_431fLSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T431fLSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu431fLSW_431fLSW = [642,1] !Changed automatically
PPu431fLSW_431fLSW_kW = [642,3]/3600 !Changed automatically
PPu431fLSW_431fLSWConv_kW = [642,4]/3600 !Changed automatically
PPu431fLSW_431fLSWInt_kJ = [642,5] !Changed automatically
MPu431fLSW_431fLSW = MPu431fLSW_431fLSW_A
UNIT 643 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a1fLNW ! input flow temperature [deg C]
MPu43a1fLNW_43a1fLNW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a1fLNWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a1fLNW_43a1fLNW = [643,1] !Changed automatically
PPu43a1fLNW_43a1fLNW_kW = [643,3]/3600 !Changed automatically
PPu43a1fLNW_43a1fLNWConv_kW = [643,4]/3600 !Changed automatically
PPu43a1fLNW_43a1fLNWInt_kJ = [643,5] !Changed automatically
MPu43a1fLNW_43a1fLNW = MPu43a1fLNW_43a1fLNW_A
UNIT 644 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43GfLSW ! input flow temperature [deg C]
MPu43GfLSW_43GfLSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43GfLSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43GfLSW_43GfLSW = [644,1] !Changed automatically
PPu43GfLSW_43GfLSW_kW = [644,3]/3600 !Changed automatically
PPu43GfLSW_43GfLSWConv_kW = [644,4]/3600 !Changed automatically
PPu43GfLSW_43GfLSWInt_kJ = [644,5] !Changed automatically
MPu43GfLSW_43GfLSW = MPu43GfLSW_43GfLSW_A
UNIT 645 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43aGfLNW ! input flow temperature [deg C]
MPu43aGfLNW_43aGfLNW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43aGfLNWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43aGfLNW_43aGfLNW = [645,1] !Changed automatically
PPu43aGfLNW_43aGfLNW_kW = [645,3]/3600 !Changed automatically
PPu43aGfLNW_43aGfLNWConv_kW = [645,4]/3600 !Changed automatically
PPu43aGfLNW_43aGfLNWInt_kJ = [645,5] !Changed automatically
MPu43aGfLNW_43aGfLNW = MPu43aGfLNW_43aGfLNW_A
UNIT 646 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu431fLNE ! input flow temperature [deg C]
MPu431fLNE_431fLNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T431fLNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu431fLNE_431fLNE = [646,1] !Changed automatically
PPu431fLNE_431fLNE_kW = [646,3]/3600 !Changed automatically
PPu431fLNE_431fLNEConv_kW = [646,4]/3600 !Changed automatically
PPu431fLNE_431fLNEInt_kJ = [646,5] !Changed automatically
MPu431fLNE_431fLNE = MPu431fLNE_431fLNE_A
UNIT 647 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a1fLNE ! input flow temperature [deg C]
MPu43a1fLNE_43a1fLNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a1fLNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a1fLNE_43a1fLNE = [647,1] !Changed automatically
PPu43a1fLNE_43a1fLNE_kW = [647,3]/3600 !Changed automatically
PPu43a1fLNE_43a1fLNEConv_kW = [647,4]/3600 !Changed automatically
PPu43a1fLNE_43a1fLNEInt_kJ = [647,5] !Changed automatically
MPu43a1fLNE_43a1fLNE = MPu43a1fLNE_43a1fLNE_A
UNIT 648 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu432fRSW ! input flow temperature [deg C]
MPu432fRSW_432fRSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T432fRSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu432fRSW_432fRSW = [648,1] !Changed automatically
PPu432fRSW_432fRSW_kW = [648,3]/3600 !Changed automatically
PPu432fRSW_432fRSWConv_kW = [648,4]/3600 !Changed automatically
PPu432fRSW_432fRSWInt_kJ = [648,5] !Changed automatically
MPu432fRSW_432fRSW = MPu432fRSW_432fRSW_A
UNIT 649 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a1fRSW ! input flow temperature [deg C]
MPu43a1fRSW_43a1fRSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a1fRSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a1fRSW_43a1fRSW = [649,1] !Changed automatically
PPu43a1fRSW_43a1fRSW_kW = [649,3]/3600 !Changed automatically
PPu43a1fRSW_43a1fRSWConv_kW = [649,4]/3600 !Changed automatically
PPu43a1fRSW_43a1fRSWInt_kJ = [649,5] !Changed automatically
MPu43a1fRSW_43a1fRSW = MPu43a1fRSW_43a1fRSW_A
UNIT 650 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43aGfLNE ! input flow temperature [deg C]
MPu43aGfLNE_43aGfLNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43aGfLNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43aGfLNE_43aGfLNE = [650,1] !Changed automatically
PPu43aGfLNE_43aGfLNE_kW = [650,3]/3600 !Changed automatically
PPu43aGfLNE_43aGfLNEConv_kW = [650,4]/3600 !Changed automatically
PPu43aGfLNE_43aGfLNEInt_kJ = [650,5] !Changed automatically
MPu43aGfLNE_43aGfLNE = MPu43aGfLNE_43aGfLNE_A
UNIT 651 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43GfLNE ! input flow temperature [deg C]
MPu43GfLNE_43GfLNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43GfLNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43GfLNE_43GfLNE = [651,1] !Changed automatically
PPu43GfLNE_43GfLNE_kW = [651,3]/3600 !Changed automatically
PPu43GfLNE_43GfLNEConv_kW = [651,4]/3600 !Changed automatically
PPu43GfLNE_43GfLNEInt_kJ = [651,5] !Changed automatically
MPu43GfLNE_43GfLNE = MPu43GfLNE_43GfLNE_A
UNIT 652 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu431fRSW ! input flow temperature [deg C]
MPu431fRSW_431fRSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T431fRSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu431fRSW_431fRSW = [652,1] !Changed automatically
PPu431fRSW_431fRSW_kW = [652,3]/3600 !Changed automatically
PPu431fRSW_431fRSWConv_kW = [652,4]/3600 !Changed automatically
PPu431fRSW_431fRSWInt_kJ = [652,5] !Changed automatically
MPu431fRSW_431fRSW = MPu431fRSW_431fRSW_A
UNIT 653 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a1fRNE ! input flow temperature [deg C]
MPu43a1fRNE_43a1fRNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a1fRNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a1fRNE_43a1fRNE = [653,1] !Changed automatically
PPu43a1fRNE_43a1fRNE_kW = [653,3]/3600 !Changed automatically
PPu43a1fRNE_43a1fRNEConv_kW = [653,4]/3600 !Changed automatically
PPu43a1fRNE_43a1fRNEInt_kJ = [653,5] !Changed automatically
MPu43a1fRNE_43a1fRNE = MPu43a1fRNE_43a1fRNE_A
UNIT 654 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu432fRSE ! input flow temperature [deg C]
MPu432fRSE_432fRSE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T432fRSEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu432fRSE_432fRSE = [654,1] !Changed automatically
PPu432fRSE_432fRSE_kW = [654,3]/3600 !Changed automatically
PPu432fRSE_432fRSEConv_kW = [654,4]/3600 !Changed automatically
PPu432fRSE_432fRSEInt_kJ = [654,5] !Changed automatically
MPu432fRSE_432fRSE = MPu432fRSE_432fRSE_A
UNIT 655 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a2fCSW ! input flow temperature [deg C]
MPu43a2fCSW_43a2fCSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a2fCSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a2fCSW_43a2fCSW = [655,1] !Changed automatically
PPu43a2fCSW_43a2fCSW_kW = [655,3]/3600 !Changed automatically
PPu43a2fCSW_43a2fCSWConv_kW = [655,4]/3600 !Changed automatically
PPu43a2fCSW_43a2fCSWInt_kJ = [655,5] !Changed automatically
MPu43a2fCSW_43a2fCSW = MPu43a2fCSW_43a2fCSW_A
UNIT 656 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a3fLSW ! input flow temperature [deg C]
MPu43a3fLSW_43a3fLSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a3fLSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a3fLSW_43a3fLSW = [656,1] !Changed automatically
PPu43a3fLSW_43a3fLSW_kW = [656,3]/3600 !Changed automatically
PPu43a3fLSW_43a3fLSWConv_kW = [656,4]/3600 !Changed automatically
PPu43a3fLSW_43a3fLSWInt_kJ = [656,5] !Changed automatically
MPu43a3fLSW_43a3fLSW = MPu43a3fLSW_43a3fLSW_A
UNIT 657 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu433fRNE ! input flow temperature [deg C]
MPu433fRNE_433fRNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T433fRNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu433fRNE_433fRNE = [657,1] !Changed automatically
PPu433fRNE_433fRNE_kW = [657,3]/3600 !Changed automatically
PPu433fRNE_433fRNEConv_kW = [657,4]/3600 !Changed automatically
PPu433fRNE_433fRNEInt_kJ = [657,5] !Changed automatically
MPu433fRNE_433fRNE = MPu433fRNE_433fRNE_A
UNIT 658 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43aAtt2 ! input flow temperature [deg C]
MPu43aAtt2_43aAtt2_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43aAtt2H ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43aAtt2_43aAtt2 = [658,1] !Changed automatically
PPu43aAtt2_43aAtt2_kW = [658,3]/3600 !Changed automatically
PPu43aAtt2_43aAtt2Conv_kW = [658,4]/3600 !Changed automatically
PPu43aAtt2_43aAtt2Int_kJ = [658,5] !Changed automatically
MPu43aAtt2_43aAtt2 = MPu43aAtt2_43aAtt2_A
UNIT 659 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43aAtt1 ! input flow temperature [deg C]
MPu43aAtt1_43aAtt1_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43aAtt1H ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43aAtt1_43aAtt1 = [659,1] !Changed automatically
PPu43aAtt1_43aAtt1_kW = [659,3]/3600 !Changed automatically
PPu43aAtt1_43aAtt1Conv_kW = [659,4]/3600 !Changed automatically
PPu43aAtt1_43aAtt1Int_kJ = [659,5] !Changed automatically
MPu43aAtt1_43aAtt1 = MPu43aAtt1_43aAtt1_A
UNIT 660 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a3fCSW ! input flow temperature [deg C]
MPu43a3fCSW_43a3fCSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a3fCSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a3fCSW_43a3fCSW = [660,1] !Changed automatically
PPu43a3fCSW_43a3fCSW_kW = [660,3]/3600 !Changed automatically
PPu43a3fCSW_43a3fCSWConv_kW = [660,4]/3600 !Changed automatically
PPu43a3fCSW_43a3fCSWInt_kJ = [660,5] !Changed automatically
MPu43a3fCSW_43a3fCSW = MPu43a3fCSW_43a3fCSW_A
UNIT 661 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu433fRSE ! input flow temperature [deg C]
MPu433fRSE_433fRSE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T433fRSEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu433fRSE_433fRSE = [661,1] !Changed automatically
PPu433fRSE_433fRSE_kW = [661,3]/3600 !Changed automatically
PPu433fRSE_433fRSEConv_kW = [661,4]/3600 !Changed automatically
PPu433fRSE_433fRSEInt_kJ = [661,5] !Changed automatically
MPu433fRSE_433fRSE = MPu433fRSE_433fRSE_A
UNIT 662 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a2fRNE ! input flow temperature [deg C]
MPu43a2fRNE_43a2fRNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a2fRNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a2fRNE_43a2fRNE = [662,1] !Changed automatically
PPu43a2fRNE_43a2fRNE_kW = [662,3]/3600 !Changed automatically
PPu43a2fRNE_43a2fRNEConv_kW = [662,4]/3600 !Changed automatically
PPu43a2fRNE_43a2fRNEInt_kJ = [662,5] !Changed automatically
MPu43a2fRNE_43a2fRNE = MPu43a2fRNE_43a2fRNE_A
UNIT 663 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a2fRSW ! input flow temperature [deg C]
MPu43a2fRSW_43a2fRSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a2fRSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a2fRSW_43a2fRSW = [663,1] !Changed automatically
PPu43a2fRSW_43a2fRSW_kW = [663,3]/3600 !Changed automatically
PPu43a2fRSW_43a2fRSWConv_kW = [663,4]/3600 !Changed automatically
PPu43a2fRSW_43a2fRSWInt_kJ = [663,5] !Changed automatically
MPu43a2fRSW_43a2fRSW = MPu43a2fRSW_43a2fRSW_A
UNIT 664 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu433fRSW ! input flow temperature [deg C]
MPu433fRSW_433fRSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T433fRSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu433fRSW_433fRSW = [664,1] !Changed automatically
PPu433fRSW_433fRSW_kW = [664,3]/3600 !Changed automatically
PPu433fRSW_433fRSWConv_kW = [664,4]/3600 !Changed automatically
PPu433fRSW_433fRSWInt_kJ = [664,5] !Changed automatically
MPu433fRSW_433fRSW = MPu433fRSW_433fRSW_A
UNIT 665 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a3fRNE ! input flow temperature [deg C]
MPu43a3fRNE_43a3fRNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a3fRNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a3fRNE_43a3fRNE = [665,1] !Changed automatically
PPu43a3fRNE_43a3fRNE_kW = [665,3]/3600 !Changed automatically
PPu43a3fRNE_43a3fRNEConv_kW = [665,4]/3600 !Changed automatically
PPu43a3fRNE_43a3fRNEInt_kJ = [665,5] !Changed automatically
MPu43a3fRNE_43a3fRNE = MPu43a3fRNE_43a3fRNE_A
UNIT 666 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43Att2 ! input flow temperature [deg C]
MPu43Att2_43Att2_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43Att2H ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43Att2_43Att2 = [666,1] !Changed automatically
PPu43Att2_43Att2_kW = [666,3]/3600 !Changed automatically
PPu43Att2_43Att2Conv_kW = [666,4]/3600 !Changed automatically
PPu43Att2_43Att2Int_kJ = [666,5] !Changed automatically
MPu43Att2_43Att2 = MPu43Att2_43Att2_A
UNIT 667 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43Att1 ! input flow temperature [deg C]
MPu43Att1_43Att1_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43Att1H ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43Att1_43Att1 = [667,1] !Changed automatically
PPu43Att1_43Att1_kW = [667,3]/3600 !Changed automatically
PPu43Att1_43Att1Conv_kW = [667,4]/3600 !Changed automatically
PPu43Att1_43Att1Int_kJ = [667,5] !Changed automatically
MPu43Att1_43Att1 = MPu43Att1_43Att1_A
UNIT 668 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a3fRSW ! input flow temperature [deg C]
MPu43a3fRSW_43a3fRSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a3fRSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a3fRSW_43a3fRSW = [668,1] !Changed automatically
PPu43a3fRSW_43a3fRSW_kW = [668,3]/3600 !Changed automatically
PPu43a3fRSW_43a3fRSWConv_kW = [668,4]/3600 !Changed automatically
PPu43a3fRSW_43a3fRSWInt_kJ = [668,5] !Changed automatically
MPu43a3fRSW_43a3fRSW = MPu43a3fRSW_43a3fRSW_A
UNIT 669 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a2fLNE ! input flow temperature [deg C]
MPu43a2fLNE_43a2fLNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a2fLNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a2fLNE_43a2fLNE = [669,1] !Changed automatically
PPu43a2fLNE_43a2fLNE_kW = [669,3]/3600 !Changed automatically
PPu43a2fLNE_43a2fLNEConv_kW = [669,4]/3600 !Changed automatically
PPu43a2fLNE_43a2fLNEInt_kJ = [669,5] !Changed automatically
MPu43a2fLNE_43a2fLNE = MPu43a2fLNE_43a2fLNE_A
UNIT 670 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu432fLNE ! input flow temperature [deg C]
MPu432fLNE_432fLNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T432fLNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu432fLNE_432fLNE = [670,1] !Changed automatically
PPu432fLNE_432fLNE_kW = [670,3]/3600 !Changed automatically
PPu432fLNE_432fLNEConv_kW = [670,4]/3600 !Changed automatically
PPu432fLNE_432fLNEInt_kJ = [670,5] !Changed automatically
MPu432fLNE_432fLNE = MPu432fLNE_432fLNE_A
UNIT 671 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad43aGfL ! input flow temperature [deg C]
MPuRad43aGfL_Rad43aGfL_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad43aGfLH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad43aGfL_Rad43aGfL = [671,1] !Changed automatically
PPuRad43aGfL_Rad43aGfL_kW = [671,3]/3600 !Changed automatically
PPuRad43aGfL_Rad43aGfLConv_kW = [671,4]/3600 !Changed automatically
PPuRad43aGfL_Rad43aGfLInt_kJ = [671,5] !Changed automatically
MPuRad43aGfL_Rad43aGfL = MPuRad43aGfL_Rad43aGfL_A
UNIT 672 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad432fR ! input flow temperature [deg C]
MPuRad432fR_Rad432fR_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad432fRH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad432fR_Rad432fR = [672,1] !Changed automatically
PPuRad432fR_Rad432fR_kW = [672,3]/3600 !Changed automatically
PPuRad432fR_Rad432fRConv_kW = [672,4]/3600 !Changed automatically
PPuRad432fR_Rad432fRInt_kJ = [672,5] !Changed automatically
MPuRad432fR_Rad432fR = MPuRad432fR_Rad432fR_A
UNIT 673 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad433fL ! input flow temperature [deg C]
MPuRad433fL_Rad433fL_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad433fLH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad433fL_Rad433fL = [673,1] !Changed automatically
PPuRad433fL_Rad433fL_kW = [673,3]/3600 !Changed automatically
PPuRad433fL_Rad433fLConv_kW = [673,4]/3600 !Changed automatically
PPuRad433fL_Rad433fLInt_kJ = [673,5] !Changed automatically
MPuRad433fL_Rad433fL = MPuRad433fL_Rad433fL_A
UNIT 674 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad433fR ! input flow temperature [deg C]
MPuRad433fR_Rad433fR_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad433fRH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad433fR_Rad433fR = [674,1] !Changed automatically
PPuRad433fR_Rad433fR_kW = [674,3]/3600 !Changed automatically
PPuRad433fR_Rad433fRConv_kW = [674,4]/3600 !Changed automatically
PPuRad433fR_Rad433fRInt_kJ = [674,5] !Changed automatically
MPuRad433fR_Rad433fR = MPuRad433fR_Rad433fR_A
UNIT 675 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad43a1fL ! input flow temperature [deg C]
MPuRad43a1fL_Rad43a1fL_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad43a1fLH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad43a1fL_Rad43a1fL = [675,1] !Changed automatically
PPuRad43a1fL_Rad43a1fL_kW = [675,3]/3600 !Changed automatically
PPuRad43a1fL_Rad43a1fLConv_kW = [675,4]/3600 !Changed automatically
PPuRad43a1fL_Rad43a1fLInt_kJ = [675,5] !Changed automatically
MPuRad43a1fL_Rad43a1fL = MPuRad43a1fL_Rad43a1fL_A
UNIT 676 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad43aGfC ! input flow temperature [deg C]
MPuRad43aGfC_Rad43aGfC_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad43aGfCH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad43aGfC_Rad43aGfC = [676,1] !Changed automatically
PPuRad43aGfC_Rad43aGfC_kW = [676,3]/3600 !Changed automatically
PPuRad43aGfC_Rad43aGfCConv_kW = [676,4]/3600 !Changed automatically
PPuRad43aGfC_Rad43aGfCInt_kJ = [676,5] !Changed automatically
MPuRad43aGfC_Rad43aGfC = MPuRad43aGfC_Rad43aGfC_A
UNIT 677 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad43aGfR ! input flow temperature [deg C]
MPuRad43aGfR_Rad43aGfR_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad43aGfRH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad43aGfR_Rad43aGfR = [677,1] !Changed automatically
PPuRad43aGfR_Rad43aGfR_kW = [677,3]/3600 !Changed automatically
PPuRad43aGfR_Rad43aGfRConv_kW = [677,4]/3600 !Changed automatically
PPuRad43aGfR_Rad43aGfRInt_kJ = [677,5] !Changed automatically
MPuRad43aGfR_Rad43aGfR = MPuRad43aGfR_Rad43aGfR_A
UNIT 678 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad43a1fC ! input flow temperature [deg C]
MPuRad43a1fC_Rad43a1fC_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad43a1fCH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad43a1fC_Rad43a1fC = [678,1] !Changed automatically
PPuRad43a1fC_Rad43a1fC_kW = [678,3]/3600 !Changed automatically
PPuRad43a1fC_Rad43a1fCConv_kW = [678,4]/3600 !Changed automatically
PPuRad43a1fC_Rad43a1fCInt_kJ = [678,5] !Changed automatically
MPuRad43a1fC_Rad43a1fC = MPuRad43a1fC_Rad43a1fC_A
UNIT 679 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad43a2fL ! input flow temperature [deg C]
MPuRad43a2fL_Rad43a2fL_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad43a2fLH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad43a2fL_Rad43a2fL = [679,1] !Changed automatically
PPuRad43a2fL_Rad43a2fL_kW = [679,3]/3600 !Changed automatically
PPuRad43a2fL_Rad43a2fLConv_kW = [679,4]/3600 !Changed automatically
PPuRad43a2fL_Rad43a2fLInt_kJ = [679,5] !Changed automatically
MPuRad43a2fL_Rad43a2fL = MPuRad43a2fL_Rad43a2fL_A
UNIT 680 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad43a2fC ! input flow temperature [deg C]
MPuRad43a2fC_Rad43a2fC_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad43a2fCH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad43a2fC_Rad43a2fC = [680,1] !Changed automatically
PPuRad43a2fC_Rad43a2fC_kW = [680,3]/3600 !Changed automatically
PPuRad43a2fC_Rad43a2fCConv_kW = [680,4]/3600 !Changed automatically
PPuRad43a2fC_Rad43a2fCInt_kJ = [680,5] !Changed automatically
MPuRad43a2fC_Rad43a2fC = MPuRad43a2fC_Rad43a2fC_A
UNIT 681 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad43a1fR ! input flow temperature [deg C]
MPuRad43a1fR_Rad43a1fR_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad43a1fRH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad43a1fR_Rad43a1fR = [681,1] !Changed automatically
PPuRad43a1fR_Rad43a1fR_kW = [681,3]/3600 !Changed automatically
PPuRad43a1fR_Rad43a1fRConv_kW = [681,4]/3600 !Changed automatically
PPuRad43a1fR_Rad43a1fRInt_kJ = [681,5] !Changed automatically
MPuRad43a1fR_Rad43a1fR = MPuRad43a1fR_Rad43a1fR_A
UNIT 682 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad43GfL ! input flow temperature [deg C]
MPuRad43GfL_Rad43GfL_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad43GfLH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad43GfL_Rad43GfL = [682,1] !Changed automatically
PPuRad43GfL_Rad43GfL_kW = [682,3]/3600 !Changed automatically
PPuRad43GfL_Rad43GfLConv_kW = [682,4]/3600 !Changed automatically
PPuRad43GfL_Rad43GfLInt_kJ = [682,5] !Changed automatically
MPuRad43GfL_Rad43GfL = MPuRad43GfL_Rad43GfL_A
UNIT 683 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad43a3fL ! input flow temperature [deg C]
MPuRad43a3fL_Rad43a3fL_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad43a3fLH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad43a3fL_Rad43a3fL = [683,1] !Changed automatically
PPuRad43a3fL_Rad43a3fL_kW = [683,3]/3600 !Changed automatically
PPuRad43a3fL_Rad43a3fLConv_kW = [683,4]/3600 !Changed automatically
PPuRad43a3fL_Rad43a3fLInt_kJ = [683,5] !Changed automatically
MPuRad43a3fL_Rad43a3fL = MPuRad43a3fL_Rad43a3fL_A
UNIT 684 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad43a3fC ! input flow temperature [deg C]
MPuRad43a3fC_Rad43a3fC_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad43a3fCH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad43a3fC_Rad43a3fC = [684,1] !Changed automatically
PPuRad43a3fC_Rad43a3fC_kW = [684,3]/3600 !Changed automatically
PPuRad43a3fC_Rad43a3fCConv_kW = [684,4]/3600 !Changed automatically
PPuRad43a3fC_Rad43a3fCInt_kJ = [684,5] !Changed automatically
MPuRad43a3fC_Rad43a3fC = MPuRad43a3fC_Rad43a3fC_A
UNIT 685 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad43a3fR ! input flow temperature [deg C]
MPuRad43a3fR_Rad43a3fR_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad43a3fRH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad43a3fR_Rad43a3fR = [685,1] !Changed automatically
PPuRad43a3fR_Rad43a3fR_kW = [685,3]/3600 !Changed automatically
PPuRad43a3fR_Rad43a3fRConv_kW = [685,4]/3600 !Changed automatically
PPuRad43a3fR_Rad43a3fRInt_kJ = [685,5] !Changed automatically
MPuRad43a3fR_Rad43a3fR = MPuRad43a3fR_Rad43a3fR_A
UNIT 686 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad432fL ! input flow temperature [deg C]
MPuRad432fL_Rad432fL_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad432fLH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad432fL_Rad432fL = [686,1] !Changed automatically
PPuRad432fL_Rad432fL_kW = [686,3]/3600 !Changed automatically
PPuRad432fL_Rad432fLConv_kW = [686,4]/3600 !Changed automatically
PPuRad432fL_Rad432fLInt_kJ = [686,5] !Changed automatically
MPuRad432fL_Rad432fL = MPuRad432fL_Rad432fL_A
UNIT 687 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad43a2fR ! input flow temperature [deg C]
MPuRad43a2fR_Rad43a2fR_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad43a2fRH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad43a2fR_Rad43a2fR = [687,1] !Changed automatically
PPuRad43a2fR_Rad43a2fR_kW = [687,3]/3600 !Changed automatically
PPuRad43a2fR_Rad43a2fRConv_kW = [687,4]/3600 !Changed automatically
PPuRad43a2fR_Rad43a2fRInt_kJ = [687,5] !Changed automatically
MPuRad43a2fR_Rad43a2fR = MPuRad43a2fR_Rad43a2fR_A
UNIT 688 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad431fL ! input flow temperature [deg C]
MPuRad431fL_Rad431fL_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad431fLH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad431fL_Rad431fL = [688,1] !Changed automatically
PPuRad431fL_Rad431fL_kW = [688,3]/3600 !Changed automatically
PPuRad431fL_Rad431fLConv_kW = [688,4]/3600 !Changed automatically
PPuRad431fL_Rad431fLInt_kJ = [688,5] !Changed automatically
MPuRad431fL_Rad431fL = MPuRad431fL_Rad431fL_A
UNIT 689 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad431fR ! input flow temperature [deg C]
MPuRad431fR_Rad431fR_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad431fRH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad431fR_Rad431fR = [689,1] !Changed automatically
PPuRad431fR_Rad431fR_kW = [689,3]/3600 !Changed automatically
PPuRad431fR_Rad431fRConv_kW = [689,4]/3600 !Changed automatically
PPuRad431fR_Rad431fRInt_kJ = [689,5] !Changed automatically
MPuRad431fR_Rad431fR = MPuRad431fR_Rad431fR_A
UNIT 690 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43aAtt3 ! input flow temperature [deg C]
MPu43aAtt3_43aAtt3_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43aAtt3H ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43aAtt3_43aAtt3 = [690,1] !Changed automatically
PPu43aAtt3_43aAtt3_kW = [690,3]/3600 !Changed automatically
PPu43aAtt3_43aAtt3Conv_kW = [690,4]/3600 !Changed automatically
PPu43aAtt3_43aAtt3Int_kJ = [690,5] !Changed automatically
MPu43aAtt3_43aAtt3 = MPu43aAtt3_43aAtt3_A
UNIT 691 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuRad43GfR ! input flow temperature [deg C]
MPuRad43GfR_Rad43GfR_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TRad43GfRH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuRad43GfR_Rad43GfR = [691,1] !Changed automatically
PPuRad43GfR_Rad43GfR_kW = [691,3]/3600 !Changed automatically
PPuRad43GfR_Rad43GfRConv_kW = [691,4]/3600 !Changed automatically
PPuRad43GfR_Rad43GfRInt_kJ = [691,5] !Changed automatically
MPuRad43GfR_Rad43GfR = MPuRad43GfR_Rad43GfR_A
UNIT 692 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a3fLNW ! input flow temperature [deg C]
MPu43a3fLNW_43a3fLNW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a3fLNWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a3fLNW_43a3fLNW = [692,1] !Changed automatically
PPu43a3fLNW_43a3fLNW_kW = [692,3]/3600 !Changed automatically
PPu43a3fLNW_43a3fLNWConv_kW = [692,4]/3600 !Changed automatically
PPu43a3fLNW_43a3fLNWInt_kJ = [692,5] !Changed automatically
MPu43a3fLNW_43a3fLNW = MPu43a3fLNW_43a3fLNW_A
UNIT 693 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a3fLNE ! input flow temperature [deg C]
MPu43a3fLNE_43a3fLNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a3fLNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a3fLNE_43a3fLNE = [693,1] !Changed automatically
PPu43a3fLNE_43a3fLNE_kW = [693,3]/3600 !Changed automatically
PPu43a3fLNE_43a3fLNEConv_kW = [693,4]/3600 !Changed automatically
PPu43a3fLNE_43a3fLNEInt_kJ = [693,5] !Changed automatically
MPu43a3fLNE_43a3fLNE = MPu43a3fLNE_43a3fLNE_A
UNIT 694 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu433fLNE ! input flow temperature [deg C]
MPu433fLNE_433fLNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T433fLNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu433fLNE_433fLNE = [694,1] !Changed automatically
PPu433fLNE_433fLNE_kW = [694,3]/3600 !Changed automatically
PPu433fLNE_433fLNEConv_kW = [694,4]/3600 !Changed automatically
PPu433fLNE_433fLNEInt_kJ = [694,5] !Changed automatically
MPu433fLNE_433fLNE = MPu433fLNE_433fLNE_A
UNIT 695 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a2fLNW ! input flow temperature [deg C]
MPu43a2fLNW_43a2fLNW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a2fLNWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a2fLNW_43a2fLNW = [695,1] !Changed automatically
PPu43a2fLNW_43a2fLNW_kW = [695,3]/3600 !Changed automatically
PPu43a2fLNW_43a2fLNWConv_kW = [695,4]/3600 !Changed automatically
PPu43a2fLNW_43a2fLNWInt_kJ = [695,5] !Changed automatically
MPu43a2fLNW_43a2fLNW = MPu43a2fLNW_43a2fLNW_A
UNIT 696 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu432fLSW ! input flow temperature [deg C]
MPu432fLSW_432fLSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T432fLSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu432fLSW_432fLSW = [696,1] !Changed automatically
PPu432fLSW_432fLSW_kW = [696,3]/3600 !Changed automatically
PPu432fLSW_432fLSWConv_kW = [696,4]/3600 !Changed automatically
PPu432fLSW_432fLSWInt_kJ = [696,5] !Changed automatically
MPu432fLSW_432fLSW = MPu432fLSW_432fLSW_A
UNIT 697 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu432fRNE ! input flow temperature [deg C]
MPu432fRNE_432fRNE_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T432fRNEH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu432fRNE_432fRNE = [697,1] !Changed automatically
PPu432fRNE_432fRNE_kW = [697,3]/3600 !Changed automatically
PPu432fRNE_432fRNEConv_kW = [697,4]/3600 !Changed automatically
PPu432fRNE_432fRNEInt_kJ = [697,5] !Changed automatically
MPu432fRNE_432fRNE = MPu432fRNE_432fRNE_A
UNIT 698 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43a2fLSW ! input flow temperature [deg C]
MPu43a2fLSW_43a2fLSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43a2fLSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43a2fLSW_43a2fLSW = [698,1] !Changed automatically
PPu43a2fLSW_43a2fLSW_kW = [698,3]/3600 !Changed automatically
PPu43a2fLSW_43a2fLSWConv_kW = [698,4]/3600 !Changed automatically
PPu43a2fLSW_43a2fLSWInt_kJ = [698,5] !Changed automatically
MPu43a2fLSW_43a2fLSW = MPu43a2fLSW_43a2fLSW_A
UNIT 699 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu433fLSW ! input flow temperature [deg C]
MPu433fLSW_433fLSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T433fLSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu433fLSW_433fLSW = [699,1] !Changed automatically
PPu433fLSW_433fLSW_kW = [699,3]/3600 !Changed automatically
PPu433fLSW_433fLSWConv_kW = [699,4]/3600 !Changed automatically
PPu433fLSW_433fLSWInt_kJ = [699,5] !Changed automatically
MPu433fLSW_433fLSW = MPu433fLSW_433fLSW_A
UNIT 700 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop5Rho ! density [kg/m^3]
Lloop5Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPu43aGfRSW ! input flow temperature [deg C]
MPu43aGfRSW_43aGfRSW_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
T43aGfRSWH ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPu43aGfRSW_43aGfRSW = [700,1] !Changed automatically
PPu43aGfRSW_43aGfRSW_kW = [700,3]/3600 !Changed automatically
PPu43aGfRSW_43aGfRSWConv_kW = [700,4]/3600 !Changed automatically
PPu43aGfRSW_43aGfRSWInt_kJ = [700,5] !Changed automatically
MPu43aGfRSW_43aGfRSW = MPu43aGfRSW_43aGfRSW_A
UNIT 701 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MTee1724_A
MTee1724_B
MTee1724_C
TTee1724_TesDhw
TWtDhwIn_Tee1724
TTee1724_ValMixDhw
0 0 0 20 20 20
EQUATIONS 1
TTee1724= [701,1] !Changed automatically
UNIT 702 TYPE 929 !Changed automatically
PARAMETERS 0
INPUTS 6
MValMixDhw_A
MValMixDhw_B
MValMixDhw_C
TValMixDhw_PuDhw
TTesDhw_ValMixDhw
TTee1724_ValMixDhw
0 0 0 20 20 20
EQUATIONS 1
TValMixDhw= [702,1] !Changed automatically
UNIT 703 TYPE 931 !Changed automatically
PARAMETERS 6
loop4Dia ! diameter [m]
loop4Len ! length [m]
loop4UVal ! U-value [kJ/(h*m^2*K)]
Lloop4Rho ! density [kg/m^3]
Lloop4Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTesDhwDpR1_99H ! input flow temperature [deg C]
MTesDhw_ValMixDhw_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TValMixDhw ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTesDhw_ValMixDhw = [703,1] !Changed automatically
PTesDhw_ValMixDhw_kW = [703,3]/3600 !Changed automatically
PTesDhw_ValMixDhwConv_kW = [703,4]/3600 !Changed automatically
PTesDhw_ValMixDhwInt_kJ = [703,5] !Changed automatically
MTesDhw_ValMixDhw = MTesDhw_ValMixDhw_A
UNIT 704 TYPE 931 !Changed automatically
PARAMETERS 6
loop4Dia ! diameter [m]
loop4Len ! length [m]
loop4UVal ! U-value [kJ/(h*m^2*K)]
Lloop4Rho ! density [kg/m^3]
Lloop4Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TValMixDhw ! input flow temperature [deg C]
MValMixDhw_PuDhw_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TPuDhw ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TValMixDhw_PuDhw = [704,1] !Changed automatically
PValMixDhw_PuDhw_kW = [704,3]/3600 !Changed automatically
PValMixDhw_PuDhwConv_kW = [704,4]/3600 !Changed automatically
PValMixDhw_PuDhwInt_kJ = [704,5] !Changed automatically
MValMixDhw_PuDhw = MValMixDhw_PuDhw_A
UNIT 705 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop4Rho ! density [kg/m^3]
Lloop4Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1724 ! input flow temperature [deg C]
MTee1724_TesDhw_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTesDhwDpR1_99H ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1724_TesDhw = [705,1] !Changed automatically
PTee1724_TesDhw_kW = [705,3]/3600 !Changed automatically
PTee1724_TesDhwConv_kW = [705,4]/3600 !Changed automatically
PTee1724_TesDhwInt_kJ = [705,5] !Changed automatically
MTee1724_TesDhw = MTee1724_TesDhw_A
UNIT 706 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop4Rho ! density [kg/m^3]
Lloop4Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TTee1724 ! input flow temperature [deg C]
MTee1724_ValMixDhw_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TValMixDhw ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TTee1724_ValMixDhw = [706,1] !Changed automatically
PTee1724_ValMixDhw_kW = [706,3]/3600 !Changed automatically
PTee1724_ValMixDhwConv_kW = [706,4]/3600 !Changed automatically
PTee1724_ValMixDhwInt_kJ = [706,5] !Changed automatically
MTee1724_ValMixDhw = MTee1724_ValMixDhw_A
UNIT 707 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop4Rho ! density [kg/m^3]
Lloop4Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TPuDhw ! input flow temperature [deg C]
MPuDhw_WtDhwOut_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TWtDhwOut ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TPuDhw_WtDhwOut = [707,1] !Changed automatically
PPuDhw_WtDhwOut_kW = [707,3]/3600 !Changed automatically
PPuDhw_WtDhwOutConv_kW = [707,4]/3600 !Changed automatically
PPuDhw_WtDhwOutInt_kJ = [707,5] !Changed automatically
MPuDhw_WtDhwOut = MPuDhw_WtDhwOut_A
UNIT 708 TYPE 931 !Changed automatically
PARAMETERS 6
0.02 ! diameter [m]
2.0 ! length [m]
2.99988 ! U-value [kJ/(h*m^2*K)] (= 0.8333 W/(m^2*K))
Lloop4Rho ! density [kg/m^3]
Lloop4Cp ! specific heat [kJ/(kg*K)]
20 ! Initial fluid temperature [deg C]
INPUTS 4
TWtDhwIn ! input flow temperature [deg C]
MWtDhwIn_Tee1724_A ! input mass flow [kg/h]
TRoomStore ! ambient temperature [deg C]
TTee1724 ! reverse flow input temperature [deg C]
20 0.0 20 20
EQUATIONS 5
TWtDhwIn_Tee1724 = [708,1] !Changed automatically
PWtDhwIn_Tee1724_kW = [708,3]/3600 !Changed automatically
PWtDhwIn_Tee1724Conv_kW = [708,4]/3600 !Changed automatically
PWtDhwIn_Tee1724Int_kJ = [708,5] !Changed automatically
MWtDhwIn_Tee1724 = MWtDhwIn_Tee1724_A
EQUATIONS 1
spPipeEnIntTot = PTesDhw_Tee27Int_kJ+PTee300_Tee117Int_kJ+PTee117_Pump122Int_kJ+PTee258_Pump255Int_kJ+PTee127_Pump262Int_kJ+PTee268_Pump272Int_kJ+PTee278_Pump282Int_kJ+PTee278_Pump293Int_kJ+PTee268_Tee278Int_kJ+PTee117_Tee258Int_kJ+PTee258_Tee127Int_kJ+PTee127_Tee268Int_kJ+PRad296_Tee323Int_kJ+PRad285_Tee323Int_kJ+PTee323_Tee329Int_kJ+PRad275_Tee329Int_kJ+PTee329_Tee335Int_kJ+PRad265_Tee335Int_kJ+PTee335_Tee341Int_kJ+PRad114_Tee341Int_kJ+PTee341_Tee347Int_kJ+PTee300_Tee361Int_kJ+PTee361_Tee357Int_kJ+PTee357_Pump354Int_kJ+PTee357_Tee365Int_kJ+PTee365_Pump373Int_kJ+PRad133_Tee429Int_kJ+PTee369_Tee429Int_kJ+PRad376_Tee369Int_kJ+PTee365_Tee381Int_kJ+PTee381_Pump389Int_kJ+PTee381_Tee395Int_kJ+PTee385_Tee369Int_kJ+PRad392_Tee385Int_kJ+PTee399_Tee385Int_kJ+PTee395_Pump403Int_kJ+PTee395_Tee409Int_kJ+PTee409_Pump413Int_kJ+PTee409_Pump423Int_kJ+PRad406_Tee399Int_kJ+PRad416_Tee419Int_kJ+PTee419_Tee399Int_kJ+PRad426_Tee419Int_kJ+PRad151_Tee516Int_kJ+PRad148_Tee516Int_kJ+PTee516_Tee505Int_kJ+PRad145_Tee505Int_kJ+PTee505_Tee491Int_kJ+PRad142_Tee491Int_kJ+PTee491_Tee483Int_kJ+PRad139_Tee483Int_kJ+PTee483_Tee472Int_kJ+PRad136_Tee472Int_kJ+PTee361_Tee461Int_kJ+PTee461_Tee465Int_kJ+PTee465_Pump469Int_kJ+PTee465_Tee476Int_kJ+PTee476_Pump480Int_kJ+PTee476_Tee487Int_kJ+PTee487_Pump495Int_kJ+PTee487_Tee498Int_kJ+PTee498_Pump502Int_kJ+PTee498_Tee509Int_kJ+PTee509_Pump513Int_kJ+PTee509_Pump520Int_kJ+PTee461_Tee553Int_kJ+PTee553_Tee557Int_kJ+PTee557_Pump561Int_kJ+PRad154_Tee564Int_kJ+PTee557_Tee568Int_kJ+PTee575_Tee564Int_kJ+PTee568_Pump572Int_kJ+PRad157_Tee575Int_kJ+PTee568_Tee582Int_kJ+PTee582_Pump579Int_kJ+PRad160_Tee586Int_kJ+PTee582_Tee590Int_kJ+PTee597_Tee586Int_kJ+PTee586_Tee575Int_kJ+PTee590_Pump594Int_kJ+PRad163_Tee597Int_kJ+PTee590_Tee601Int_kJ+PTee601_Pump609Int_kJ+PRad166_Tee605Int_kJ+PTee605_Tee597Int_kJ+PTee601_Pump612Int_kJ+PRad175_Tee605Int_kJ+PTee553_Tee651Int_kJ+PTee651_Tee655Int_kJ+PTee655_Pump659Int_kJ+PRad169_Tee662Int_kJ+PTee655_Tee690Int_kJ+PTee690_Pump670Int_kJ+PRad172_Tee673Int_kJ+PTee673_Tee662Int_kJ+PTee690_Tee680Int_kJ+PTee680_Pump677Int_kJ+PRad181_Tee684Int_kJ+PTee684_Tee673Int_kJ+PTee680_Tee694Int_kJ+PTee694_Tee711Int_kJ+PTee711_Pump708Int_kJ+PRad648_Tee715Int_kJ+PRad187_Tee715Int_kJ+PTee711_Pump705Int_kJ+PTee715_Tee698Int_kJ+PRad184_Tee698Int_kJ+PTee698_Tee684Int_kJ+PTee694_Pump702Int_kJ+PTee651_Tee755Int_kJ+PTee755_Tee759Int_kJ+PTee759_Pump763Int_kJ+PTee759_Tee770Int_kJ+PRad193_Tee766Int_kJ+PTee777_Tee766Int_kJ+PTee770_Pump774Int_kJ+PRad178_Tee777Int_kJ+PTee770_Tee781Int_kJ+PTee788_Tee777Int_kJ+PTee781_Pump785Int_kJ+PRad199_Tee788Int_kJ+PTee781_Tee792Int_kJ+PTee799_Tee788Int_kJ+PTee792_Pump796Int_kJ+PRad196_Tee799Int_kJ+PTee792_Tee803Int_kJ+PTee810_Tee799Int_kJ+PTee803_Pump807Int_kJ+PRad202_Tee810Int_kJ+PTee803_Pump818Int_kJ+PRad205_Tee810Int_kJ+PTee755_Tee879Int_kJ+PTee879_Tee868Int_kJ+PTee868_Pump872Int_kJ+PTee868_Tee883Int_kJ+PRad850_Tee875Int_kJ+PTee883_Pump887Int_kJ+PRad853_Tee890Int_kJ+PTee883_Tee897Int_kJ+PTee901_Tee890Int_kJ+PTee890_Tee875Int_kJ+PTee897_Pump894Int_kJ+PRad856_Tee901Int_kJ+PTee897_Tee905Int_kJ+PTee912_Tee901Int_kJ+PTee905_Pump909Int_kJ+PTee905_Tee919Int_kJ+PRad859_Tee912Int_kJ+PTee923_Tee912Int_kJ+PTee919_Pump916Int_kJ+PRad862_Tee923Int_kJ+PTee919_Pump927Int_kJ+PRad865_Tee923Int_kJ+PTee879_Tee977Int_kJ+PTee977_Tee981Int_kJ+PTee981_Pump989Int_kJ+PRad959_Tee985Int_kJ+PTee981_Tee992Int_kJ+PTee999_Tee985Int_kJ+PTee992_Pump996Int_kJ+PRad962_Tee999Int_kJ+PTee992_Tee1006Int_kJ+PTee1010_Tee999Int_kJ+PTee1006_Pump1003Int_kJ+PRad965_Tee1010Int_kJ+PTee1006_Tee1014Int_kJ+PTee1021_Tee1010Int_kJ+PTee1014_Pump1018Int_kJ+PRad968_Tee1021Int_kJ+PTee1014_Tee1028Int_kJ+PTee1032_Tee1021Int_kJ+PTee1028_Pump1025Int_kJ+PRad971_Tee1032Int_kJ+PRad974_Tee1032Int_kJ+PTee1028_Pump1036Int_kJ+PTee977_Tee1085Int_kJ+PTee1085_Tee1089Int_kJ+PTee1089_Pump1093Int_kJ+PRad1067_Tee1096Int_kJ+PTee1089_Tee1100Int_kJ+PTee1107_Tee1096Int_kJ+PTee1100_Pump1104Int_kJ+PRad1070_Tee1107Int_kJ+PTee1100_Tee1111Int_kJ+PTee1118_Tee1107Int_kJ+PTee1111_Pump1115Int_kJ+PRad1073_Tee1118Int_kJ+PTee1111_Tee1122Int_kJ+PTee1129_Tee1118Int_kJ+PTee1122_Pump1126Int_kJ+PRad1076_Tee1129Int_kJ+PTee1122_Tee1136Int_kJ+PTee1136_Pump1144Int_kJ+PRad1082_Tee1140Int_kJ+PRad1079_Tee1140Int_kJ+PTee1140_Tee1129Int_kJ+PTee1136_Pump1133Int_kJ+PTee1199_Tee1203Int_kJ+PTee1203_Pump1207Int_kJ+PRad1175_Tee1210Int_kJ+PTee1203_Tee1214Int_kJ+PTee1221_Tee1210Int_kJ+PTee1214_Pump1218Int_kJ+PRad1178_Tee1221Int_kJ+PTee1214_Tee1225Int_kJ+PTee1225_Tee1239Int_kJ+PTee1232_Tee1221Int_kJ+PTee1243_Tee1232Int_kJ+PTee1225_Pump1229Int_kJ+PRad1181_Tee1232Int_kJ+PTee1239_Pump1236Int_kJ+PRad1190_Tee1243Int_kJ+PTee1251_Pump1255Int_kJ+PRad1193_Tee1247Int_kJ+PTee1251_Pump1258Int_kJ+PRad1196_Tee1247Int_kJ+PTee1247_Tee1243Int_kJ+PTee1239_Tee1251Int_kJ+PTee1085_Tee1199Int_kJ+PTee1199_Tee1306Int_kJ+PTee1306_Tee1310Int_kJ+PTee1310_Pump1314Int_kJ+PRad1288_Tee1317Int_kJ+PTee1310_Tee1321Int_kJ+PTee1328_Tee1317Int_kJ+PTee1321_Pump1325Int_kJ+PRad1291_Tee1328Int_kJ+PTee1335_Pump1332Int_kJ+PRad1294_Tee1339Int_kJ+PTee1343_Pump1347Int_kJ+PRad1297_Tee1350Int_kJ+PTee1321_Tee1335Int_kJ+PTee1335_Tee1343Int_kJ+PTee1350_Tee1339Int_kJ+PTee1339_Tee1328Int_kJ+PTee1343_Tee1354Int_kJ+PTee1354_Pump1365Int_kJ+PRad1303_Tee1361Int_kJ+PRad1300_Tee1361Int_kJ+PTee1361_Tee1350Int_kJ+PTee1354_Pump1358Int_kJ+PTee1410_Pump1414Int_kJ+PRad1401_Tee1417Int_kJ+PTee1410_Tee1421Int_kJ+PRad1404_Tee1428Int_kJ+PTee1428_Tee1417Int_kJ+PTee1421_Pump1432Int_kJ+PRad1407_Tee1428Int_kJ+PTee347_Tee1450Int_kJ+PTee429_Tee1450Int_kJ+PTee1450_Tee1456Int_kJ+PTee472_Tee1456Int_kJ+PTee1456_Tee1460Int_kJ+PTee564_Tee1460Int_kJ+PTee1460_Tee1464Int_kJ+PTee662_Tee1464Int_kJ+PTee1464_Tee1468Int_kJ+PTee766_Tee1468Int_kJ+PTee1468_Tee1472Int_kJ+PTee875_Tee1472Int_kJ+PTee1472_Tee1476Int_kJ+PTee985_Tee1476Int_kJ+PTee1476_Tee1480Int_kJ+PTee1096_Tee1480Int_kJ+PTee1480_Tee1484Int_kJ+PTee1210_Tee1484Int_kJ+PTee1484_Tee1488Int_kJ+PTee1317_Tee1488Int_kJ+PTee1488_Tee1492Int_kJ+PTee1417_Tee1492Int_kJ+PTee1492_Tee86Int_kJ+PTee27_Pump1527Int_kJ+PTee1306_Tee1410Int_kJ+PValHp_Tee73Int_kJ+PTee1569_Tee27Int_kJ+PTee86_Tee1569Int_kJ+PTee1421_PuRad43a3fCInt_kJ+PTee73_ValMixShInt_kJ+PTee86_ValMixShInt_kJ+PValMixSh_Tee300Int_kJ+PTee73_TesShInt_kJ+PTesSh_Tee1569Int_kJ+PPuHp_AwHpInt_kJ+PAwHp_ValHpInt_kJ+PValHp_TesDhwInt_kJ+P43GfRSW_Tee347Int_kJ+PPu43GfRSW_43GfRSWInt_kJ+PPu43GfRSE_43GfRSEInt_kJ+PPu43GfRNE_43GfRNEInt_kJ+PPu43aGfLSW_43aGfLSWInt_kJ+PPu43aGfCSW_43aGfCSWInt_kJ+PPu43aGfRNE_43aGfRNEInt_kJ+PPu431fRSE_431fRSEInt_kJ+PPu43a1fLSW_43a1fLSWInt_kJ+PPu43a1fCSW_43a1fCSWInt_kJ+PPu431fRNE_431fRNEInt_kJ+PPu431fLSW_431fLSWInt_kJ+PPu43a1fLNW_43a1fLNWInt_kJ+PPu43GfLSW_43GfLSWInt_kJ+PPu43aGfLNW_43aGfLNWInt_kJ+PPu431fLNE_431fLNEInt_kJ+PPu43a1fLNE_43a1fLNEInt_kJ+PPu432fRSW_432fRSWInt_kJ+PPu43a1fRSW_43a1fRSWInt_kJ+PPu43aGfLNE_43aGfLNEInt_kJ+PPu43GfLNE_43GfLNEInt_kJ+PPu431fRSW_431fRSWInt_kJ+PPu43a1fRNE_43a1fRNEInt_kJ+PPu432fRSE_432fRSEInt_kJ+PPu43a2fCSW_43a2fCSWInt_kJ+PPu43a3fLSW_43a3fLSWInt_kJ+PPu433fRNE_433fRNEInt_kJ+PPu43aAtt2_43aAtt2Int_kJ+PPu43aAtt1_43aAtt1Int_kJ+PPu43a3fCSW_43a3fCSWInt_kJ+PPu433fRSE_433fRSEInt_kJ+PPu43a2fRNE_43a2fRNEInt_kJ+PPu43a2fRSW_43a2fRSWInt_kJ+PPu433fRSW_433fRSWInt_kJ+PPu43a3fRNE_43a3fRNEInt_kJ+PPu43Att2_43Att2Int_kJ+PPu43Att1_43Att1Int_kJ+PPu43a3fRSW_43a3fRSWInt_kJ+PPu43a2fLNE_43a2fLNEInt_kJ+PPu432fLNE_432fLNEInt_kJ+PPuRad43aGfL_Rad43aGfLInt_kJ+PPuRad432fR_Rad432fRInt_kJ+PPuRad433fL_Rad433fLInt_kJ+PPuRad433fR_Rad433fRInt_kJ+PPuRad43a1fL_Rad43a1fLInt_kJ+PPuRad43aGfC_Rad43aGfCInt_kJ+PPuRad43aGfR_Rad43aGfRInt_kJ+PPuRad43a1fC_Rad43a1fCInt_kJ+PPuRad43a2fL_Rad43a2fLInt_kJ+PPuRad43a2fC_Rad43a2fCInt_kJ+PPuRad43a1fR_Rad43a1fRInt_kJ+PPuRad43GfL_Rad43GfLInt_kJ+PPuRad43a3fL_Rad43a3fLInt_kJ+PPuRad43a3fC_Rad43a3fCInt_kJ+PPuRad43a3fR_Rad43a3fRInt_kJ+PPuRad432fL_Rad432fLInt_kJ+PPuRad43a2fR_Rad43a2fRInt_kJ+PPuRad431fL_Rad431fLInt_kJ+PPuRad431fR_Rad431fRInt_kJ+PPu43aAtt3_43aAtt3Int_kJ+PPuRad43GfR_Rad43GfRInt_kJ+PPu43a3fLNW_43a3fLNWInt_kJ+PPu43a3fLNE_43a3fLNEInt_kJ+PPu433fLNE_433fLNEInt_kJ+PPu43a2fLNW_43a2fLNWInt_kJ+PPu432fLSW_432fLSWInt_kJ+PPu432fRNE_432fRNEInt_kJ+PPu43a2fLSW_43a2fLSWInt_kJ+PPu433fLSW_433fLSWInt_kJ+PPu43aGfRSW_43aGfRSWInt_kJ+PTesDhw_ValMixDhwInt_kJ+PValMixDhw_PuDhwInt_kJ+PTee1724_TesDhwInt_kJ+PTee1724_ValMixDhwInt_kJ+PPuDhw_WtDhwOutInt_kJ+PWtDhwIn_Tee1724Int_kJ
UNIT 202 TYPE 993 !Changed automatically
PARAMETERS 1
1 ! Number of inputs
INPUTS 1
spPipeEnIntTot
0
EQUATIONS 4
spPipeConvectedTot = PTesDhw_Tee27Conv_kW+PTee300_Tee117Conv_kW+PTee117_Pump122Conv_kW+PTee258_Pump255Conv_kW+PTee127_Pump262Conv_kW+PTee268_Pump272Conv_kW+PTee278_Pump282Conv_kW+PTee278_Pump293Conv_kW+PTee268_Tee278Conv_kW+PTee117_Tee258Conv_kW+PTee258_Tee127Conv_kW+PTee127_Tee268Conv_kW+PRad296_Tee323Conv_kW+PRad285_Tee323Conv_kW+PTee323_Tee329Conv_kW+PRad275_Tee329Conv_kW+PTee329_Tee335Conv_kW+PRad265_Tee335Conv_kW+PTee335_Tee341Conv_kW+PRad114_Tee341Conv_kW+PTee341_Tee347Conv_kW+PTee300_Tee361Conv_kW+PTee361_Tee357Conv_kW+PTee357_Pump354Conv_kW+PTee357_Tee365Conv_kW+PTee365_Pump373Conv_kW+PRad133_Tee429Conv_kW+PTee369_Tee429Conv_kW+PRad376_Tee369Conv_kW+PTee365_Tee381Conv_kW+PTee381_Pump389Conv_kW+PTee381_Tee395Conv_kW+PTee385_Tee369Conv_kW+PRad392_Tee385Conv_kW+PTee399_Tee385Conv_kW+PTee395_Pump403Conv_kW+PTee395_Tee409Conv_kW+PTee409_Pump413Conv_kW+PTee409_Pump423Conv_kW+PRad406_Tee399Conv_kW+PRad416_Tee419Conv_kW+PTee419_Tee399Conv_kW+PRad426_Tee419Conv_kW+PRad151_Tee516Conv_kW+PRad148_Tee516Conv_kW+PTee516_Tee505Conv_kW+PRad145_Tee505Conv_kW+PTee505_Tee491Conv_kW+PRad142_Tee491Conv_kW+PTee491_Tee483Conv_kW+PRad139_Tee483Conv_kW+PTee483_Tee472Conv_kW+PRad136_Tee472Conv_kW+PTee361_Tee461Conv_kW+PTee461_Tee465Conv_kW+PTee465_Pump469Conv_kW+PTee465_Tee476Conv_kW+PTee476_Pump480Conv_kW+PTee476_Tee487Conv_kW+PTee487_Pump495Conv_kW+PTee487_Tee498Conv_kW+PTee498_Pump502Conv_kW+PTee498_Tee509Conv_kW+PTee509_Pump513Conv_kW+PTee509_Pump520Conv_kW+PTee461_Tee553Conv_kW+PTee553_Tee557Conv_kW+PTee557_Pump561Conv_kW+PRad154_Tee564Conv_kW+PTee557_Tee568Conv_kW+PTee575_Tee564Conv_kW+PTee568_Pump572Conv_kW+PRad157_Tee575Conv_kW+PTee568_Tee582Conv_kW+PTee582_Pump579Conv_kW+PRad160_Tee586Conv_kW+PTee582_Tee590Conv_kW+PTee597_Tee586Conv_kW+PTee586_Tee575Conv_kW+PTee590_Pump594Conv_kW+PRad163_Tee597Conv_kW+PTee590_Tee601Conv_kW+PTee601_Pump609Conv_kW+PRad166_Tee605Conv_kW+PTee605_Tee597Conv_kW+PTee601_Pump612Conv_kW+PRad175_Tee605Conv_kW+PTee553_Tee651Conv_kW+PTee651_Tee655Conv_kW+PTee655_Pump659Conv_kW+PRad169_Tee662Conv_kW+PTee655_Tee690Conv_kW+PTee690_Pump670Conv_kW+PRad172_Tee673Conv_kW+PTee673_Tee662Conv_kW+PTee690_Tee680Conv_kW+PTee680_Pump677Conv_kW+PRad181_Tee684Conv_kW+PTee684_Tee673Conv_kW+PTee680_Tee694Conv_kW+PTee694_Tee711Conv_kW+PTee711_Pump708Conv_kW+PRad648_Tee715Conv_kW+PRad187_Tee715Conv_kW+PTee711_Pump705Conv_kW+PTee715_Tee698Conv_kW+PRad184_Tee698Conv_kW+PTee698_Tee684Conv_kW+PTee694_Pump702Conv_kW+PTee651_Tee755Conv_kW+PTee755_Tee759Conv_kW+PTee759_Pump763Conv_kW+PTee759_Tee770Conv_kW+PRad193_Tee766Conv_kW+PTee777_Tee766Conv_kW+PTee770_Pump774Conv_kW+PRad178_Tee777Conv_kW+PTee770_Tee781Conv_kW+PTee788_Tee777Conv_kW+PTee781_Pump785Conv_kW+PRad199_Tee788Conv_kW+PTee781_Tee792Conv_kW+PTee799_Tee788Conv_kW+PTee792_Pump796Conv_kW+PRad196_Tee799Conv_kW+PTee792_Tee803Conv_kW+PTee810_Tee799Conv_kW+PTee803_Pump807Conv_kW+PRad202_Tee810Conv_kW+PTee803_Pump818Conv_kW+PRad205_Tee810Conv_kW+PTee755_Tee879Conv_kW+PTee879_Tee868Conv_kW+PTee868_Pump872Conv_kW+PTee868_Tee883Conv_kW+PRad850_Tee875Conv_kW+PTee883_Pump887Conv_kW+PRad853_Tee890Conv_kW+PTee883_Tee897Conv_kW+PTee901_Tee890Conv_kW+PTee890_Tee875Conv_kW+PTee897_Pump894Conv_kW+PRad856_Tee901Conv_kW+PTee897_Tee905Conv_kW+PTee912_Tee901Conv_kW+PTee905_Pump909Conv_kW+PTee905_Tee919Conv_kW+PRad859_Tee912Conv_kW+PTee923_Tee912Conv_kW+PTee919_Pump916Conv_kW+PRad862_Tee923Conv_kW+PTee919_Pump927Conv_kW+PRad865_Tee923Conv_kW+PTee879_Tee977Conv_kW+PTee977_Tee981Conv_kW+PTee981_Pump989Conv_kW+PRad959_Tee985Conv_kW+PTee981_Tee992Conv_kW+PTee999_Tee985Conv_kW+PTee992_Pump996Conv_kW+PRad962_Tee999Conv_kW+PTee992_Tee1006Conv_kW+PTee1010_Tee999Conv_kW+PTee1006_Pump1003Conv_kW+PRad965_Tee1010Conv_kW+PTee1006_Tee1014Conv_kW+PTee1021_Tee1010Conv_kW+PTee1014_Pump1018Conv_kW+PRad968_Tee1021Conv_kW+PTee1014_Tee1028Conv_kW+PTee1032_Tee1021Conv_kW+PTee1028_Pump1025Conv_kW+PRad971_Tee1032Conv_kW+PRad974_Tee1032Conv_kW+PTee1028_Pump1036Conv_kW+PTee977_Tee1085Conv_kW+PTee1085_Tee1089Conv_kW+PTee1089_Pump1093Conv_kW+PRad1067_Tee1096Conv_kW+PTee1089_Tee1100Conv_kW+PTee1107_Tee1096Conv_kW+PTee1100_Pump1104Conv_kW+PRad1070_Tee1107Conv_kW+PTee1100_Tee1111Conv_kW+PTee1118_Tee1107Conv_kW+PTee1111_Pump1115Conv_kW+PRad1073_Tee1118Conv_kW+PTee1111_Tee1122Conv_kW+PTee1129_Tee1118Conv_kW+PTee1122_Pump1126Conv_kW+PRad1076_Tee1129Conv_kW+PTee1122_Tee1136Conv_kW+PTee1136_Pump1144Conv_kW+PRad1082_Tee1140Conv_kW+PRad1079_Tee1140Conv_kW+PTee1140_Tee1129Conv_kW+PTee1136_Pump1133Conv_kW+PTee1199_Tee1203Conv_kW+PTee1203_Pump1207Conv_kW+PRad1175_Tee1210Conv_kW+PTee1203_Tee1214Conv_kW+PTee1221_Tee1210Conv_kW+PTee1214_Pump1218Conv_kW+PRad1178_Tee1221Conv_kW+PTee1214_Tee1225Conv_kW+PTee1225_Tee1239Conv_kW+PTee1232_Tee1221Conv_kW+PTee1243_Tee1232Conv_kW+PTee1225_Pump1229Conv_kW+PRad1181_Tee1232Conv_kW+PTee1239_Pump1236Conv_kW+PRad1190_Tee1243Conv_kW+PTee1251_Pump1255Conv_kW+PRad1193_Tee1247Conv_kW+PTee1251_Pump1258Conv_kW+PRad1196_Tee1247Conv_kW+PTee1247_Tee1243Conv_kW+PTee1239_Tee1251Conv_kW+PTee1085_Tee1199Conv_kW+PTee1199_Tee1306Conv_kW+PTee1306_Tee1310Conv_kW+PTee1310_Pump1314Conv_kW+PRad1288_Tee1317Conv_kW+PTee1310_Tee1321Conv_kW+PTee1328_Tee1317Conv_kW+PTee1321_Pump1325Conv_kW+PRad1291_Tee1328Conv_kW+PTee1335_Pump1332Conv_kW+PRad1294_Tee1339Conv_kW+PTee1343_Pump1347Conv_kW+PRad1297_Tee1350Conv_kW+PTee1321_Tee1335Conv_kW+PTee1335_Tee1343Conv_kW+PTee1350_Tee1339Conv_kW+PTee1339_Tee1328Conv_kW+PTee1343_Tee1354Conv_kW+PTee1354_Pump1365Conv_kW+PRad1303_Tee1361Conv_kW+PRad1300_Tee1361Conv_kW+PTee1361_Tee1350Conv_kW+PTee1354_Pump1358Conv_kW+PTee1410_Pump1414Conv_kW+PRad1401_Tee1417Conv_kW+PTee1410_Tee1421Conv_kW+PRad1404_Tee1428Conv_kW+PTee1428_Tee1417Conv_kW+PTee1421_Pump1432Conv_kW+PRad1407_Tee1428Conv_kW+PTee347_Tee1450Conv_kW+PTee429_Tee1450Conv_kW+PTee1450_Tee1456Conv_kW+PTee472_Tee1456Conv_kW+PTee1456_Tee1460Conv_kW+PTee564_Tee1460Conv_kW+PTee1460_Tee1464Conv_kW+PTee662_Tee1464Conv_kW+PTee1464_Tee1468Conv_kW+PTee766_Tee1468Conv_kW+PTee1468_Tee1472Conv_kW+PTee875_Tee1472Conv_kW+PTee1472_Tee1476Conv_kW+PTee985_Tee1476Conv_kW+PTee1476_Tee1480Conv_kW+PTee1096_Tee1480Conv_kW+PTee1480_Tee1484Conv_kW+PTee1210_Tee1484Conv_kW+PTee1484_Tee1488Conv_kW+PTee1317_Tee1488Conv_kW+PTee1488_Tee1492Conv_kW+PTee1417_Tee1492Conv_kW+PTee1492_Tee86Conv_kW+PTee27_Pump1527Conv_kW+PTee1306_Tee1410Conv_kW+PValHp_Tee73Conv_kW+PTee1569_Tee27Conv_kW+PTee86_Tee1569Conv_kW+PTee1421_PuRad43a3fCConv_kW+PTee73_ValMixShConv_kW+PTee86_ValMixShConv_kW+PValMixSh_Tee300Conv_kW+PTee73_TesShConv_kW+PTesSh_Tee1569Conv_kW+PPuHp_AwHpConv_kW+PAwHp_ValHpConv_kW+PValHp_TesDhwConv_kW+P43GfRSW_Tee347Conv_kW+PPu43GfRSW_43GfRSWConv_kW+PPu43GfRSE_43GfRSEConv_kW+PPu43GfRNE_43GfRNEConv_kW+PPu43aGfLSW_43aGfLSWConv_kW+PPu43aGfCSW_43aGfCSWConv_kW+PPu43aGfRNE_43aGfRNEConv_kW+PPu431fRSE_431fRSEConv_kW+PPu43a1fLSW_43a1fLSWConv_kW+PPu43a1fCSW_43a1fCSWConv_kW+PPu431fRNE_431fRNEConv_kW+PPu431fLSW_431fLSWConv_kW+PPu43a1fLNW_43a1fLNWConv_kW+PPu43GfLSW_43GfLSWConv_kW+PPu43aGfLNW_43aGfLNWConv_kW+PPu431fLNE_431fLNEConv_kW+PPu43a1fLNE_43a1fLNEConv_kW+PPu432fRSW_432fRSWConv_kW+PPu43a1fRSW_43a1fRSWConv_kW+PPu43aGfLNE_43aGfLNEConv_kW+PPu43GfLNE_43GfLNEConv_kW+PPu431fRSW_431fRSWConv_kW+PPu43a1fRNE_43a1fRNEConv_kW+PPu432fRSE_432fRSEConv_kW+PPu43a2fCSW_43a2fCSWConv_kW+PPu43a3fLSW_43a3fLSWConv_kW+PPu433fRNE_433fRNEConv_kW+PPu43aAtt2_43aAtt2Conv_kW+PPu43aAtt1_43aAtt1Conv_kW+PPu43a3fCSW_43a3fCSWConv_kW+PPu433fRSE_433fRSEConv_kW+PPu43a2fRNE_43a2fRNEConv_kW+PPu43a2fRSW_43a2fRSWConv_kW+PPu433fRSW_433fRSWConv_kW+PPu43a3fRNE_43a3fRNEConv_kW+PPu43Att2_43Att2Conv_kW+PPu43Att1_43Att1Conv_kW+PPu43a3fRSW_43a3fRSWConv_kW+PPu43a2fLNE_43a2fLNEConv_kW+PPu432fLNE_432fLNEConv_kW+PPuRad43aGfL_Rad43aGfLConv_kW+PPuRad432fR_Rad432fRConv_kW+PPuRad433fL_Rad433fLConv_kW+PPuRad433fR_Rad433fRConv_kW+PPuRad43a1fL_Rad43a1fLConv_kW+PPuRad43aGfC_Rad43aGfCConv_kW+PPuRad43aGfR_Rad43aGfRConv_kW+PPuRad43a1fC_Rad43a1fCConv_kW+PPuRad43a2fL_Rad43a2fLConv_kW+PPuRad43a2fC_Rad43a2fCConv_kW+PPuRad43a1fR_Rad43a1fRConv_kW+PPuRad43GfL_Rad43GfLConv_kW+PPuRad43a3fL_Rad43a3fLConv_kW+PPuRad43a3fC_Rad43a3fCConv_kW+PPuRad43a3fR_Rad43a3fRConv_kW+PPuRad432fL_Rad432fLConv_kW+PPuRad43a2fR_Rad43a2fRConv_kW+PPuRad431fL_Rad431fLConv_kW+PPuRad431fR_Rad431fRConv_kW+PPu43aAtt3_43aAtt3Conv_kW+PPuRad43GfR_Rad43GfRConv_kW+PPu43a3fLNW_43a3fLNWConv_kW+PPu43a3fLNE_43a3fLNEConv_kW+PPu433fLNE_433fLNEConv_kW+PPu43a2fLNW_43a2fLNWConv_kW+PPu432fLSW_432fLSWConv_kW+PPu432fRNE_432fRNEConv_kW+PPu43a2fLSW_43a2fLSWConv_kW+PPu433fLSW_433fLSWConv_kW+PPu43aGfRSW_43aGfRSWConv_kW+PTesDhw_ValMixDhwConv_kW+PValMixDhw_PuDhwConv_kW+PTee1724_TesDhwConv_kW+PTee1724_ValMixDhwConv_kW+PPuDhw_WtDhwOutConv_kW+PWtDhwIn_Tee1724Conv_kW
PipeLossTot = PTesDhw_Tee27_kW+PTee300_Tee117_kW+PTee117_Pump122_kW+PTee258_Pump255_kW+PTee127_Pump262_kW+PTee268_Pump272_kW+PTee278_Pump282_kW+PTee278_Pump293_kW+PTee268_Tee278_kW+PTee117_Tee258_kW+PTee258_Tee127_kW+PTee127_Tee268_kW+PRad296_Tee323_kW+PRad285_Tee323_kW+PTee323_Tee329_kW+PRad275_Tee329_kW+PTee329_Tee335_kW+PRad265_Tee335_kW+PTee335_Tee341_kW+PRad114_Tee341_kW+PTee341_Tee347_kW+PTee300_Tee361_kW+PTee361_Tee357_kW+PTee357_Pump354_kW+PTee357_Tee365_kW+PTee365_Pump373_kW+PRad133_Tee429_kW+PTee369_Tee429_kW+PRad376_Tee369_kW+PTee365_Tee381_kW+PTee381_Pump389_kW+PTee381_Tee395_kW+PTee385_Tee369_kW+PRad392_Tee385_kW+PTee399_Tee385_kW+PTee395_Pump403_kW+PTee395_Tee409_kW+PTee409_Pump413_kW+PTee409_Pump423_kW+PRad406_Tee399_kW+PRad416_Tee419_kW+PTee419_Tee399_kW+PRad426_Tee419_kW+PRad151_Tee516_kW+PRad148_Tee516_kW+PTee516_Tee505_kW+PRad145_Tee505_kW+PTee505_Tee491_kW+PRad142_Tee491_kW+PTee491_Tee483_kW+PRad139_Tee483_kW+PTee483_Tee472_kW+PRad136_Tee472_kW+PTee361_Tee461_kW+PTee461_Tee465_kW+PTee465_Pump469_kW+PTee465_Tee476_kW+PTee476_Pump480_kW+PTee476_Tee487_kW+PTee487_Pump495_kW+PTee487_Tee498_kW+PTee498_Pump502_kW+PTee498_Tee509_kW+PTee509_Pump513_kW+PTee509_Pump520_kW+PTee461_Tee553_kW+PTee553_Tee557_kW+PTee557_Pump561_kW+PRad154_Tee564_kW+PTee557_Tee568_kW+PTee575_Tee564_kW+PTee568_Pump572_kW+PRad157_Tee575_kW+PTee568_Tee582_kW+PTee582_Pump579_kW+PRad160_Tee586_kW+PTee582_Tee590_kW+PTee597_Tee586_kW+PTee586_Tee575_kW+PTee590_Pump594_kW+PRad163_Tee597_kW+PTee590_Tee601_kW+PTee601_Pump609_kW+PRad166_Tee605_kW+PTee605_Tee597_kW+PTee601_Pump612_kW+PRad175_Tee605_kW+PTee553_Tee651_kW+PTee651_Tee655_kW+PTee655_Pump659_kW+PRad169_Tee662_kW+PTee655_Tee690_kW+PTee690_Pump670_kW+PRad172_Tee673_kW+PTee673_Tee662_kW+PTee690_Tee680_kW+PTee680_Pump677_kW+PRad181_Tee684_kW+PTee684_Tee673_kW+PTee680_Tee694_kW+PTee694_Tee711_kW+PTee711_Pump708_kW+PRad648_Tee715_kW+PRad187_Tee715_kW+PTee711_Pump705_kW+PTee715_Tee698_kW+PRad184_Tee698_kW+PTee698_Tee684_kW+PTee694_Pump702_kW+PTee651_Tee755_kW+PTee755_Tee759_kW+PTee759_Pump763_kW+PTee759_Tee770_kW+PRad193_Tee766_kW+PTee777_Tee766_kW+PTee770_Pump774_kW+PRad178_Tee777_kW+PTee770_Tee781_kW+PTee788_Tee777_kW+PTee781_Pump785_kW+PRad199_Tee788_kW+PTee781_Tee792_kW+PTee799_Tee788_kW+PTee792_Pump796_kW+PRad196_Tee799_kW+PTee792_Tee803_kW+PTee810_Tee799_kW+PTee803_Pump807_kW+PRad202_Tee810_kW+PTee803_Pump818_kW+PRad205_Tee810_kW+PTee755_Tee879_kW+PTee879_Tee868_kW+PTee868_Pump872_kW+PTee868_Tee883_kW+PRad850_Tee875_kW+PTee883_Pump887_kW+PRad853_Tee890_kW+PTee883_Tee897_kW+PTee901_Tee890_kW+PTee890_Tee875_kW+PTee897_Pump894_kW+PRad856_Tee901_kW+PTee897_Tee905_kW+PTee912_Tee901_kW+PTee905_Pump909_kW+PTee905_Tee919_kW+PRad859_Tee912_kW+PTee923_Tee912_kW+PTee919_Pump916_kW+PRad862_Tee923_kW+PTee919_Pump927_kW+PRad865_Tee923_kW+PTee879_Tee977_kW+PTee977_Tee981_kW+PTee981_Pump989_kW+PRad959_Tee985_kW+PTee981_Tee992_kW+PTee999_Tee985_kW+PTee992_Pump996_kW+PRad962_Tee999_kW+PTee992_Tee1006_kW+PTee1010_Tee999_kW+PTee1006_Pump1003_kW+PRad965_Tee1010_kW+PTee1006_Tee1014_kW+PTee1021_Tee1010_kW+PTee1014_Pump1018_kW+PRad968_Tee1021_kW+PTee1014_Tee1028_kW+PTee1032_Tee1021_kW+PTee1028_Pump1025_kW+PRad971_Tee1032_kW+PRad974_Tee1032_kW+PTee1028_Pump1036_kW+PTee977_Tee1085_kW+PTee1085_Tee1089_kW+PTee1089_Pump1093_kW+PRad1067_Tee1096_kW+PTee1089_Tee1100_kW+PTee1107_Tee1096_kW+PTee1100_Pump1104_kW+PRad1070_Tee1107_kW+PTee1100_Tee1111_kW+PTee1118_Tee1107_kW+PTee1111_Pump1115_kW+PRad1073_Tee1118_kW+PTee1111_Tee1122_kW+PTee1129_Tee1118_kW+PTee1122_Pump1126_kW+PRad1076_Tee1129_kW+PTee1122_Tee1136_kW+PTee1136_Pump1144_kW+PRad1082_Tee1140_kW+PRad1079_Tee1140_kW+PTee1140_Tee1129_kW+PTee1136_Pump1133_kW+PTee1199_Tee1203_kW+PTee1203_Pump1207_kW+PRad1175_Tee1210_kW+PTee1203_Tee1214_kW+PTee1221_Tee1210_kW+PTee1214_Pump1218_kW+PRad1178_Tee1221_kW+PTee1214_Tee1225_kW+PTee1225_Tee1239_kW+PTee1232_Tee1221_kW+PTee1243_Tee1232_kW+PTee1225_Pump1229_kW+PRad1181_Tee1232_kW+PTee1239_Pump1236_kW+PRad1190_Tee1243_kW+PTee1251_Pump1255_kW+PRad1193_Tee1247_kW+PTee1251_Pump1258_kW+PRad1196_Tee1247_kW+PTee1247_Tee1243_kW+PTee1239_Tee1251_kW+PTee1085_Tee1199_kW+PTee1199_Tee1306_kW+PTee1306_Tee1310_kW+PTee1310_Pump1314_kW+PRad1288_Tee1317_kW+PTee1310_Tee1321_kW+PTee1328_Tee1317_kW+PTee1321_Pump1325_kW+PRad1291_Tee1328_kW+PTee1335_Pump1332_kW+PRad1294_Tee1339_kW+PTee1343_Pump1347_kW+PRad1297_Tee1350_kW+PTee1321_Tee1335_kW+PTee1335_Tee1343_kW+PTee1350_Tee1339_kW+PTee1339_Tee1328_kW+PTee1343_Tee1354_kW+PTee1354_Pump1365_kW+PRad1303_Tee1361_kW+PRad1300_Tee1361_kW+PTee1361_Tee1350_kW+PTee1354_Pump1358_kW+PTee1410_Pump1414_kW+PRad1401_Tee1417_kW+PTee1410_Tee1421_kW+PRad1404_Tee1428_kW+PTee1428_Tee1417_kW+PTee1421_Pump1432_kW+PRad1407_Tee1428_kW+PTee347_Tee1450_kW+PTee429_Tee1450_kW+PTee1450_Tee1456_kW+PTee472_Tee1456_kW+PTee1456_Tee1460_kW+PTee564_Tee1460_kW+PTee1460_Tee1464_kW+PTee662_Tee1464_kW+PTee1464_Tee1468_kW+PTee766_Tee1468_kW+PTee1468_Tee1472_kW+PTee875_Tee1472_kW+PTee1472_Tee1476_kW+PTee985_Tee1476_kW+PTee1476_Tee1480_kW+PTee1096_Tee1480_kW+PTee1480_Tee1484_kW+PTee1210_Tee1484_kW+PTee1484_Tee1488_kW+PTee1317_Tee1488_kW+PTee1488_Tee1492_kW+PTee1417_Tee1492_kW+PTee1492_Tee86_kW+PTee27_Pump1527_kW+PTee1306_Tee1410_kW+PValHp_Tee73_kW+PTee1569_Tee27_kW+PTee86_Tee1569_kW+PTee1421_PuRad43a3fC_kW+PTee73_ValMixSh_kW+PTee86_ValMixSh_kW+PValMixSh_Tee300_kW+PTee73_TesSh_kW+PTesSh_Tee1569_kW+PPuHp_AwHp_kW+PAwHp_ValHp_kW+PValHp_TesDhw_kW+P43GfRSW_Tee347_kW+PPu43GfRSW_43GfRSW_kW+PPu43GfRSE_43GfRSE_kW+PPu43GfRNE_43GfRNE_kW+PPu43aGfLSW_43aGfLSW_kW+PPu43aGfCSW_43aGfCSW_kW+PPu43aGfRNE_43aGfRNE_kW+PPu431fRSE_431fRSE_kW+PPu43a1fLSW_43a1fLSW_kW+PPu43a1fCSW_43a1fCSW_kW+PPu431fRNE_431fRNE_kW+PPu431fLSW_431fLSW_kW+PPu43a1fLNW_43a1fLNW_kW+PPu43GfLSW_43GfLSW_kW+PPu43aGfLNW_43aGfLNW_kW+PPu431fLNE_431fLNE_kW+PPu43a1fLNE_43a1fLNE_kW+PPu432fRSW_432fRSW_kW+PPu43a1fRSW_43a1fRSW_kW+PPu43aGfLNE_43aGfLNE_kW+PPu43GfLNE_43GfLNE_kW+PPu431fRSW_431fRSW_kW+PPu43a1fRNE_43a1fRNE_kW+PPu432fRSE_432fRSE_kW+PPu43a2fCSW_43a2fCSW_kW+PPu43a3fLSW_43a3fLSW_kW+PPu433fRNE_433fRNE_kW+PPu43aAtt2_43aAtt2_kW+PPu43aAtt1_43aAtt1_kW+PPu43a3fCSW_43a3fCSW_kW+PPu433fRSE_433fRSE_kW+PPu43a2fRNE_43a2fRNE_kW+PPu43a2fRSW_43a2fRSW_kW+PPu433fRSW_433fRSW_kW+PPu43a3fRNE_43a3fRNE_kW+PPu43Att2_43Att2_kW+PPu43Att1_43Att1_kW+PPu43a3fRSW_43a3fRSW_kW+PPu43a2fLNE_43a2fLNE_kW+PPu432fLNE_432fLNE_kW+PPuRad43aGfL_Rad43aGfL_kW+PPuRad432fR_Rad432fR_kW+PPuRad433fL_Rad433fL_kW+PPuRad433fR_Rad433fR_kW+PPuRad43a1fL_Rad43a1fL_kW+PPuRad43aGfC_Rad43aGfC_kW+PPuRad43aGfR_Rad43aGfR_kW+PPuRad43a1fC_Rad43a1fC_kW+PPuRad43a2fL_Rad43a2fL_kW+PPuRad43a2fC_Rad43a2fC_kW+PPuRad43a1fR_Rad43a1fR_kW+PPuRad43GfL_Rad43GfL_kW+PPuRad43a3fL_Rad43a3fL_kW+PPuRad43a3fC_Rad43a3fC_kW+PPuRad43a3fR_Rad43a3fR_kW+PPuRad432fL_Rad432fL_kW+PPuRad43a2fR_Rad43a2fR_kW+PPuRad431fL_Rad431fL_kW+PPuRad431fR_Rad431fR_kW+PPu43aAtt3_43aAtt3_kW+PPuRad43GfR_Rad43GfR_kW+PPu43a3fLNW_43a3fLNW_kW+PPu43a3fLNE_43a3fLNE_kW+PPu433fLNE_433fLNE_kW+PPu43a2fLNW_43a2fLNW_kW+PPu432fLSW_432fLSW_kW+PPu432fRNE_432fRNE_kW+PPu43a2fLSW_43a2fLSW_kW+PPu433fLSW_433fLSW_kW+PPu43aGfRSW_43aGfRSW_kW+PTesDhw_ValMixDhw_kW+PValMixDhw_PuDhw_kW+PTee1724_TesDhw_kW+PTee1724_ValMixDhw_kW+PPuDhw_WtDhwOut_kW+PWtDhwIn_Tee1724_kW
spPipeIntTot = (spPipeEnIntTot - [202,1]) / dtSim / 3600 !Changed automatically
spImbalance = spPipeConvectedTot - PipeLossTot - spPipeIntTot
ASSIGN 03_pytrnsysGUI_Mfr.prt 956
UNIT 709 TYPE 25 !Changed automatically
PARAMETERS 10
dtSim! 1 Printing interval
START! 2 Start time
STOP! 3 Stop time
956! 4 Logical unit
0! 5 Units printing mode
0! 6 Relative or absolute start time
-1! 7 Overwrite or Append
-1! 8 Print header
0! 9 Delimiter
1! 10 Print labels
INPUTS 364
xFracValHp MTesDhw_Tee27 xFracValMixSh MTee300_Tee117 MTee117_Pump122 MTee258_Pump255 MTee127_Pump262 MTee268_Pump272
MTee278_Pump282 MTee278_Pump293 MTee268_Tee278 MTee117_Tee258 MTee258_Tee127 MTee127_Tee268 MRad296_Tee323 MRad285_Tee323
MTee323_Tee329 MRad275_Tee329 MTee329_Tee335 MRad265_Tee335 MTee335_Tee341 MRad114_Tee341 MTee341_Tee347 MTee300_Tee361
MTee361_Tee357 MTee357_Pump354 MTee357_Tee365 MTee365_Pump373 MRad133_Tee429 MTee369_Tee429 MRad376_Tee369 MTee365_Tee381
MTee381_Pump389 MTee381_Tee395 MTee385_Tee369 MRad392_Tee385 MTee399_Tee385 MTee395_Pump403 MTee395_Tee409 MTee409_Pump413
MTee409_Pump423 MRad406_Tee399 MRad416_Tee419 MTee419_Tee399 MRad426_Tee419 MRad151_Tee516 MRad148_Tee516 MTee516_Tee505
MRad145_Tee505 MTee505_Tee491 MRad142_Tee491 MTee491_Tee483 MRad139_Tee483 MTee483_Tee472 MRad136_Tee472 MTee361_Tee461
MTee461_Tee465 MTee465_Pump469 MTee465_Tee476 MTee476_Pump480 MTee476_Tee487 MTee487_Pump495 MTee487_Tee498 MTee498_Pump502
MTee498_Tee509 MTee509_Pump513 MTee509_Pump520 MTee461_Tee553 MTee553_Tee557 MTee557_Pump561 MRad154_Tee564 MTee557_Tee568
MTee575_Tee564 MTee568_Pump572 MRad157_Tee575 MTee568_Tee582 MTee582_Pump579 MRad160_Tee586 MTee582_Tee590 MTee597_Tee586
MTee586_Tee575 MTee590_Pump594 MRad163_Tee597 MTee590_Tee601 MTee601_Pump609 MRad166_Tee605 MTee605_Tee597 MTee601_Pump612
MRad175_Tee605 MTee553_Tee651 MTee651_Tee655 MTee655_Pump659 MRad169_Tee662 MTee655_Tee690 MTee690_Pump670 MRad172_Tee673
MTee673_Tee662 MTee690_Tee680 MTee680_Pump677 MRad181_Tee684 MTee684_Tee673 MTee680_Tee694 MTee694_Tee711 MTee711_Pump708
MRad648_Tee715 MRad187_Tee715 MTee711_Pump705 MTee715_Tee698 MRad184_Tee698 MTee698_Tee684 MTee694_Pump702 MTee651_Tee755
MTee755_Tee759 MTee759_Pump763 MTee759_Tee770 MRad193_Tee766 MTee777_Tee766 MTee770_Pump774 MRad178_Tee777 MTee770_Tee781
MTee788_Tee777 MTee781_Pump785 MRad199_Tee788 MTee781_Tee792 MTee799_Tee788 MTee792_Pump796 MRad196_Tee799 MTee792_Tee803
MTee810_Tee799 MTee803_Pump807 MRad202_Tee810 MTee803_Pump818 MRad205_Tee810 MTee755_Tee879 MTee879_Tee868 MTee868_Pump872
MTee868_Tee883 MRad850_Tee875 MTee883_Pump887 MRad853_Tee890 MTee883_Tee897 MTee901_Tee890 MTee890_Tee875 MTee897_Pump894
MRad856_Tee901 MTee897_Tee905 MTee912_Tee901 MTee905_Pump909 MTee905_Tee919 MRad859_Tee912 MTee923_Tee912 MTee919_Pump916
MRad862_Tee923 MTee919_Pump927 MRad865_Tee923 MTee879_Tee977 MTee977_Tee981 MTee981_Pump989 MRad959_Tee985 MTee981_Tee992
MTee999_Tee985 MTee992_Pump996 MRad962_Tee999 MTee992_Tee1006 MTee1010_Tee999 MTee1006_Pump1003 MRad965_Tee1010 MTee1006_Tee1014
MTee1021_Tee1010 MTee1014_Pump1018 MRad968_Tee1021 MTee1014_Tee1028 MTee1032_Tee1021 MTee1028_Pump1025 MRad971_Tee1032 MRad974_Tee1032
MTee1028_Pump1036 MTee977_Tee1085 MTee1085_Tee1089 MTee1089_Pump1093 MRad1067_Tee1096 MTee1089_Tee1100 MTee1107_Tee1096 MTee1100_Pump1104
MRad1070_Tee1107 MTee1100_Tee1111 MTee1118_Tee1107 MTee1111_Pump1115 MRad1073_Tee1118 MTee1111_Tee1122 MTee1129_Tee1118 MTee1122_Pump1126
MRad1076_Tee1129 MTee1122_Tee1136 MTee1136_Pump1144 MRad1082_Tee1140 MRad1079_Tee1140 MTee1140_Tee1129 MTee1136_Pump1133 MTee1199_Tee1203
MTee1203_Pump1207 MRad1175_Tee1210 MTee1203_Tee1214 MTee1221_Tee1210 MTee1214_Pump1218 MRad1178_Tee1221 MTee1214_Tee1225 MTee1225_Tee1239
MTee1232_Tee1221 MTee1243_Tee1232 MTee1225_Pump1229 MRad1181_Tee1232 MTee1239_Pump1236 MRad1190_Tee1243 MTee1251_Pump1255 MRad1193_Tee1247
MTee1251_Pump1258 MRad1196_Tee1247 MTee1247_Tee1243 MTee1239_Tee1251 MTee1085_Tee1199 MTee1199_Tee1306 MTee1306_Tee1310 MTee1310_Pump1314
MRad1288_Tee1317 MTee1310_Tee1321 MTee1328_Tee1317 MTee1321_Pump1325 MRad1291_Tee1328 MTee1335_Pump1332 MRad1294_Tee1339 MTee1343_Pump1347
MRad1297_Tee1350 MTee1321_Tee1335 MTee1335_Tee1343 MTee1350_Tee1339 MTee1339_Tee1328 MTee1343_Tee1354 MTee1354_Pump1365 MRad1303_Tee1361
MRad1300_Tee1361 MTee1361_Tee1350 MTee1354_Pump1358 MTee1410_Pump1414 MRad1401_Tee1417 MTee1410_Tee1421 MRad1404_Tee1428 MTee1428_Tee1417
MTee1421_Pump1432 MRad1407_Tee1428 MTee347_Tee1450 MTee429_Tee1450 MTee1450_Tee1456 MTee472_Tee1456 MTee1456_Tee1460 MTee564_Tee1460
MTee1460_Tee1464 MTee662_Tee1464 MTee1464_Tee1468 MTee766_Tee1468 MTee1468_Tee1472 MTee875_Tee1472 MTee1472_Tee1476 MTee985_Tee1476
MTee1476_Tee1480 MTee1096_Tee1480 MTee1480_Tee1484 MTee1210_Tee1484 MTee1484_Tee1488 MTee1317_Tee1488 MTee1488_Tee1492 MTee1417_Tee1492
MTee1492_Tee86 MTee27_Pump1527 MTee1306_Tee1410 MValHp_Tee73 MTee1569_Tee27 MTee86_Tee1569 MTee1421_PuRad43a3fC MTee73_ValMixSh
MTee86_ValMixSh MValMixSh_Tee300 MTee73_TesSh MTesSh_Tee1569 MPuHp_AwHp MAwHp_ValHp MValHp_TesDhw M43GfRSW_Tee347
MPu43GfRSW_43GfRSW MPu43GfRSE_43GfRSE MPu43GfRNE_43GfRNE MPu43aGfLSW_43aGfLSW MPu43aGfCSW_43aGfCSW MPu43aGfRNE_43aGfRNE MPu431fRSE_431fRSE MPu43a1fLSW_43a1fLSW
MPu43a1fCSW_43a1fCSW MPu431fRNE_431fRNE MPu431fLSW_431fLSW MPu43a1fLNW_43a1fLNW MPu43GfLSW_43GfLSW MPu43aGfLNW_43aGfLNW MPu431fLNE_431fLNE MPu43a1fLNE_43a1fLNE
MPu432fRSW_432fRSW MPu43a1fRSW_43a1fRSW MPu43aGfLNE_43aGfLNE MPu43GfLNE_43GfLNE MPu431fRSW_431fRSW MPu43a1fRNE_43a1fRNE MPu432fRSE_432fRSE MPu43a2fCSW_43a2fCSW
MPu43a3fLSW_43a3fLSW MPu433fRNE_433fRNE MPu43aAtt2_43aAtt2 MPu43aAtt1_43aAtt1 MPu43a3fCSW_43a3fCSW MPu433fRSE_433fRSE MPu43a2fRNE_43a2fRNE MPu43a2fRSW_43a2fRSW
MPu433fRSW_433fRSW MPu43a3fRNE_43a3fRNE MPu43Att2_43Att2 MPu43Att1_43Att1 MPu43a3fRSW_43a3fRSW MPu43a2fLNE_43a2fLNE MPu432fLNE_432fLNE MPuRad43aGfL_Rad43aGfL
MPuRad432fR_Rad432fR MPuRad433fL_Rad433fL MPuRad433fR_Rad433fR MPuRad43a1fL_Rad43a1fL MPuRad43aGfC_Rad43aGfC MPuRad43aGfR_Rad43aGfR MPuRad43a1fC_Rad43a1fC MPuRad43a2fL_Rad43a2fL
MPuRad43a2fC_Rad43a2fC MPuRad43a1fR_Rad43a1fR MPuRad43GfL_Rad43GfL MPuRad43a3fL_Rad43a3fL MPuRad43a3fC_Rad43a3fC MPuRad43a3fR_Rad43a3fR MPuRad432fL_Rad432fL MPuRad43a2fR_Rad43a2fR
MPuRad431fL_Rad431fL MPuRad431fR_Rad431fR MPu43aAtt3_43aAtt3 MPuRad43GfR_Rad43GfR MPu43a3fLNW_43a3fLNW MPu43a3fLNE_43a3fLNE MPu433fLNE_433fLNE MPu43a2fLNW_43a2fLNW
MPu432fLSW_432fLSW MPu432fRNE_432fRNE MPu43a2fLSW_43a2fLSW MPu433fLSW_433fLSW MPu43aGfRSW_43aGfRSW xFracValMixDhw MTesDhw_ValMixDhw MValMixDhw_PuDhw
MTee1724_TesDhw MTee1724_ValMixDhw MPuDhw_WtDhwOut MWtDhwIn_Tee1724
xFracValHp MTesDhw_Tee27 xFracValMixSh MTee300_Tee117 MTee117_Pump122 MTee258_Pump255 MTee127_Pump262 MTee268_Pump272
MTee278_Pump282 MTee278_Pump293 MTee268_Tee278 MTee117_Tee258 MTee258_Tee127 MTee127_Tee268 MRad296_Tee323 MRad285_Tee323
MTee323_Tee329 MRad275_Tee329 MTee329_Tee335 MRad265_Tee335 MTee335_Tee341 MRad114_Tee341 MTee341_Tee347 MTee300_Tee361
MTee361_Tee357 MTee357_Pump354 MTee357_Tee365 MTee365_Pump373 MRad133_Tee429 MTee369_Tee429 MRad376_Tee369 MTee365_Tee381
MTee381_Pump389 MTee381_Tee395 MTee385_Tee369 MRad392_Tee385 MTee399_Tee385 MTee395_Pump403 MTee395_Tee409 MTee409_Pump413
MTee409_Pump423 MRad406_Tee399 MRad416_Tee419 MTee419_Tee399 MRad426_Tee419 MRad151_Tee516 MRad148_Tee516 MTee516_Tee505
MRad145_Tee505 MTee505_Tee491 MRad142_Tee491 MTee491_Tee483 MRad139_Tee483 MTee483_Tee472 MRad136_Tee472 MTee361_Tee461
MTee461_Tee465 MTee465_Pump469 MTee465_Tee476 MTee476_Pump480 MTee476_Tee487 MTee487_Pump495 MTee487_Tee498 MTee498_Pump502
MTee498_Tee509 MTee509_Pump513 MTee509_Pump520 MTee461_Tee553 MTee553_Tee557 MTee557_Pump561 MRad154_Tee564 MTee557_Tee568
MTee575_Tee564 MTee568_Pump572 MRad157_Tee575 MTee568_Tee582 MTee582_Pump579 MRad160_Tee586 MTee582_Tee590 MTee597_Tee586
MTee586_Tee575 MTee590_Pump594 MRad163_Tee597 MTee590_Tee601 MTee601_Pump609 MRad166_Tee605 MTee605_Tee597 MTee601_Pump612
MRad175_Tee605 MTee553_Tee651 MTee651_Tee655 MTee655_Pump659 MRad169_Tee662 MTee655_Tee690 MTee690_Pump670 MRad172_Tee673
MTee673_Tee662 MTee690_Tee680 MTee680_Pump677 MRad181_Tee684 MTee684_Tee673 MTee680_Tee694 MTee694_Tee711 MTee711_Pump708
MRad648_Tee715 MRad187_Tee715 MTee711_Pump705 MTee715_Tee698 MRad184_Tee698 MTee698_Tee684 MTee694_Pump702 MTee651_Tee755
MTee755_Tee759 MTee759_Pump763 MTee759_Tee770 MRad193_Tee766 MTee777_Tee766 MTee770_Pump774 MRad178_Tee777 MTee770_Tee781
MTee788_Tee777 MTee781_Pump785 MRad199_Tee788 MTee781_Tee792 MTee799_Tee788 MTee792_Pump796 MRad196_Tee799 MTee792_Tee803
MTee810_Tee799 MTee803_Pump807 MRad202_Tee810 MTee803_Pump818 MRad205_Tee810 MTee755_Tee879 MTee879_Tee868 MTee868_Pump872
MTee868_Tee883 MRad850_Tee875 MTee883_Pump887 MRad853_Tee890 MTee883_Tee897 MTee901_Tee890 MTee890_Tee875 MTee897_Pump894
MRad856_Tee901 MTee897_Tee905 MTee912_Tee901 MTee905_Pump909 MTee905_Tee919 MRad859_Tee912 MTee923_Tee912 MTee919_Pump916
MRad862_Tee923 MTee919_Pump927 MRad865_Tee923 MTee879_Tee977 MTee977_Tee981 MTee981_Pump989 MRad959_Tee985 MTee981_Tee992
MTee999_Tee985 MTee992_Pump996 MRad962_Tee999 MTee992_Tee1006 MTee1010_Tee999 MTee1006_Pump1003 MRad965_Tee1010 MTee1006_Tee1014
MTee1021_Tee1010 MTee1014_Pump1018 MRad968_Tee1021 MTee1014_Tee1028 MTee1032_Tee1021 MTee1028_Pump1025 MRad971_Tee1032 MRad974_Tee1032
MTee1028_Pump1036 MTee977_Tee1085 MTee1085_Tee1089 MTee1089_Pump1093 MRad1067_Tee1096 MTee1089_Tee1100 MTee1107_Tee1096 MTee1100_Pump1104
MRad1070_Tee1107 MTee1100_Tee1111 MTee1118_Tee1107 MTee1111_Pump1115 MRad1073_Tee1118 MTee1111_Tee1122 MTee1129_Tee1118 MTee1122_Pump1126
MRad1076_Tee1129 MTee1122_Tee1136 MTee1136_Pump1144 MRad1082_Tee1140 MRad1079_Tee1140 MTee1140_Tee1129 MTee1136_Pump1133 MTee1199_Tee1203
MTee1203_Pump1207 MRad1175_Tee1210 MTee1203_Tee1214 MTee1221_Tee1210 MTee1214_Pump1218 MRad1178_Tee1221 MTee1214_Tee1225 MTee1225_Tee1239
MTee1232_Tee1221 MTee1243_Tee1232 MTee1225_Pump1229 MRad1181_Tee1232 MTee1239_Pump1236 MRad1190_Tee1243 MTee1251_Pump1255 MRad1193_Tee1247
MTee1251_Pump1258 MRad1196_Tee1247 MTee1247_Tee1243 MTee1239_Tee1251 MTee1085_Tee1199 MTee1199_Tee1306 MTee1306_Tee1310 MTee1310_Pump1314
MRad1288_Tee1317 MTee1310_Tee1321 MTee1328_Tee1317 MTee1321_Pump1325 MRad1291_Tee1328 MTee1335_Pump1332 MRad1294_Tee1339 MTee1343_Pump1347
MRad1297_Tee1350 MTee1321_Tee1335 MTee1335_Tee1343 MTee1350_Tee1339 MTee1339_Tee1328 MTee1343_Tee1354 MTee1354_Pump1365 MRad1303_Tee1361
MRad1300_Tee1361 MTee1361_Tee1350 MTee1354_Pump1358 MTee1410_Pump1414 MRad1401_Tee1417 MTee1410_Tee1421 MRad1404_Tee1428 MTee1428_Tee1417
MTee1421_Pump1432 MRad1407_Tee1428 MTee347_Tee1450 MTee429_Tee1450 MTee1450_Tee1456 MTee472_Tee1456 MTee1456_Tee1460 MTee564_Tee1460
MTee1460_Tee1464 MTee662_Tee1464 MTee1464_Tee1468 MTee766_Tee1468 MTee1468_Tee1472 MTee875_Tee1472 MTee1472_Tee1476 MTee985_Tee1476
MTee1476_Tee1480 MTee1096_Tee1480 MTee1480_Tee1484 MTee1210_Tee1484 MTee1484_Tee1488 MTee1317_Tee1488 MTee1488_Tee1492 MTee1417_Tee1492
MTee1492_Tee86 MTee27_Pump1527 MTee1306_Tee1410 MValHp_Tee73 MTee1569_Tee27 MTee86_Tee1569 MTee1421_PuRad43a3fC MTee73_ValMixSh
MTee86_ValMixSh MValMixSh_Tee300 MTee73_TesSh MTesSh_Tee1569 MPuHp_AwHp MAwHp_ValHp MValHp_TesDhw M43GfRSW_Tee347
MPu43GfRSW_43GfRSW MPu43GfRSE_43GfRSE MPu43GfRNE_43GfRNE MPu43aGfLSW_43aGfLSW MPu43aGfCSW_43aGfCSW MPu43aGfRNE_43aGfRNE MPu431fRSE_431fRSE MPu43a1fLSW_43a1fLSW
MPu43a1fCSW_43a1fCSW MPu431fRNE_431fRNE MPu431fLSW_431fLSW MPu43a1fLNW_43a1fLNW MPu43GfLSW_43GfLSW MPu43aGfLNW_43aGfLNW MPu431fLNE_431fLNE MPu43a1fLNE_43a1fLNE
MPu432fRSW_432fRSW MPu43a1fRSW_43a1fRSW MPu43aGfLNE_43aGfLNE MPu43GfLNE_43GfLNE MPu431fRSW_431fRSW MPu43a1fRNE_43a1fRNE MPu432fRSE_432fRSE MPu43a2fCSW_43a2fCSW
MPu43a3fLSW_43a3fLSW MPu433fRNE_433fRNE MPu43aAtt2_43aAtt2 MPu43aAtt1_43aAtt1 MPu43a3fCSW_43a3fCSW MPu433fRSE_433fRSE MPu43a2fRNE_43a2fRNE MPu43a2fRSW_43a2fRSW
MPu433fRSW_433fRSW MPu43a3fRNE_43a3fRNE MPu43Att2_43Att2 MPu43Att1_43Att1 MPu43a3fRSW_43a3fRSW MPu43a2fLNE_43a2fLNE MPu432fLNE_432fLNE MPuRad43aGfL_Rad43aGfL
MPuRad432fR_Rad432fR MPuRad433fL_Rad433fL MPuRad433fR_Rad433fR MPuRad43a1fL_Rad43a1fL MPuRad43aGfC_Rad43aGfC MPuRad43aGfR_Rad43aGfR MPuRad43a1fC_Rad43a1fC MPuRad43a2fL_Rad43a2fL
MPuRad43a2fC_Rad43a2fC MPuRad43a1fR_Rad43a1fR MPuRad43GfL_Rad43GfL MPuRad43a3fL_Rad43a3fL MPuRad43a3fC_Rad43a3fC MPuRad43a3fR_Rad43a3fR MPuRad432fL_Rad432fL MPuRad43a2fR_Rad43a2fR
MPuRad431fL_Rad431fL MPuRad431fR_Rad431fR MPu43aAtt3_43aAtt3 MPuRad43GfR_Rad43GfR MPu43a3fLNW_43a3fLNW MPu43a3fLNE_43a3fLNE MPu433fLNE_433fLNE MPu43a2fLNW_43a2fLNW
MPu432fLSW_432fLSW MPu432fRNE_432fRNE MPu43a2fLSW_43a2fLSW MPu433fLSW_433fLSW MPu43aGfRSW_43aGfRSW xFracValMixDhw MTesDhw_ValMixDhw MValMixDhw_PuDhw
MTee1724_TesDhw MTee1724_ValMixDhw MPuDhw_WtDhwOut MWtDhwIn_Tee1724
ASSIGN 03_pytrnsysGUI_T.prt 957
UNIT 710 TYPE 25 !Changed automatically
PARAMETERS 10
dtSim! 1 Printing interval
START! 2 Start time
STOP! 3 Stop time
957! 4 Logical unit
0! 5 Units printing mode
0! 6 Relative or absolute start time
-1! 7 Overwrite or Append
-1! 8 Print header
0! 9 Delimiter
1! 10 Print labels
INPUTS 361
TTesDhw_Tee27 TTee300_Tee117 TTee117_Pump122 TTee258_Pump255 TTee127_Pump262 TTee268_Pump272 TTee278_Pump282 TTee278_Pump293
TTee268_Tee278 TTee117_Tee258 TTee258_Tee127 TTee127_Tee268 TRad296_Tee323 TRad285_Tee323 TTee323_Tee329 TRad275_Tee329
TTee329_Tee335 TRad265_Tee335 TTee335_Tee341 TRad114_Tee341 TTee341_Tee347 TTee300_Tee361 TTee361_Tee357 TTee357_Pump354
TTee357_Tee365 TTee365_Pump373 TRad133_Tee429 TTee369_Tee429 TRad376_Tee369 TTee365_Tee381 TTee381_Pump389 TTee381_Tee395
TTee385_Tee369 TRad392_Tee385 TTee399_Tee385 TTee395_Pump403 TTee395_Tee409 TTee409_Pump413 TTee409_Pump423 TRad406_Tee399
TRad416_Tee419 TTee419_Tee399 TRad426_Tee419 TRad151_Tee516 TRad148_Tee516 TTee516_Tee505 TRad145_Tee505 TTee505_Tee491
TRad142_Tee491 TTee491_Tee483 TRad139_Tee483 TTee483_Tee472 TRad136_Tee472 TTee361_Tee461 TTee461_Tee465 TTee465_Pump469
TTee465_Tee476 TTee476_Pump480 TTee476_Tee487 TTee487_Pump495 TTee487_Tee498 TTee498_Pump502 TTee498_Tee509 TTee509_Pump513
TTee509_Pump520 TTee461_Tee553 TTee553_Tee557 TTee557_Pump561 TRad154_Tee564 TTee557_Tee568 TTee575_Tee564 TTee568_Pump572
TRad157_Tee575 TTee568_Tee582 TTee582_Pump579 TRad160_Tee586 TTee582_Tee590 TTee597_Tee586 TTee586_Tee575 TTee590_Pump594
TRad163_Tee597 TTee590_Tee601 TTee601_Pump609 TRad166_Tee605 TTee605_Tee597 TTee601_Pump612 TRad175_Tee605 TTee553_Tee651
TTee651_Tee655 TTee655_Pump659 TRad169_Tee662 TTee655_Tee690 TTee690_Pump670 TRad172_Tee673 TTee673_Tee662 TTee690_Tee680
TTee680_Pump677 TRad181_Tee684 TTee684_Tee673 TTee680_Tee694 TTee694_Tee711 TTee711_Pump708 TRad648_Tee715 TRad187_Tee715
TTee711_Pump705 TTee715_Tee698 TRad184_Tee698 TTee698_Tee684 TTee694_Pump702 TTee651_Tee755 TTee755_Tee759 TTee759_Pump763
TTee759_Tee770 TRad193_Tee766 TTee777_Tee766 TTee770_Pump774 TRad178_Tee777 TTee770_Tee781 TTee788_Tee777 TTee781_Pump785
TRad199_Tee788 TTee781_Tee792 TTee799_Tee788 TTee792_Pump796 TRad196_Tee799 TTee792_Tee803 TTee810_Tee799 TTee803_Pump807
TRad202_Tee810 TTee803_Pump818 TRad205_Tee810 TTee755_Tee879 TTee879_Tee868 TTee868_Pump872 TTee868_Tee883 TRad850_Tee875
TTee883_Pump887 TRad853_Tee890 TTee883_Tee897 TTee901_Tee890 TTee890_Tee875 TTee897_Pump894 TRad856_Tee901 TTee897_Tee905
TTee912_Tee901 TTee905_Pump909 TTee905_Tee919 TRad859_Tee912 TTee923_Tee912 TTee919_Pump916 TRad862_Tee923 TTee919_Pump927
TRad865_Tee923 TTee879_Tee977 TTee977_Tee981 TTee981_Pump989 TRad959_Tee985 TTee981_Tee992 TTee999_Tee985 TTee992_Pump996
TRad962_Tee999 TTee992_Tee1006 TTee1010_Tee999 TTee1006_Pump1003 TRad965_Tee1010 TTee1006_Tee1014 TTee1021_Tee1010 TTee1014_Pump1018
TRad968_Tee1021 TTee1014_Tee1028 TTee1032_Tee1021 TTee1028_Pump1025 TRad971_Tee1032 TRad974_Tee1032 TTee1028_Pump1036 TTee977_Tee1085
TTee1085_Tee1089 TTee1089_Pump1093 TRad1067_Tee1096 TTee1089_Tee1100 TTee1107_Tee1096 TTee1100_Pump1104 TRad1070_Tee1107 TTee1100_Tee1111
TTee1118_Tee1107 TTee1111_Pump1115 TRad1073_Tee1118 TTee1111_Tee1122 TTee1129_Tee1118 TTee1122_Pump1126 TRad1076_Tee1129 TTee1122_Tee1136
TTee1136_Pump1144 TRad1082_Tee1140 TRad1079_Tee1140 TTee1140_Tee1129 TTee1136_Pump1133 TTee1199_Tee1203 TTee1203_Pump1207 TRad1175_Tee1210
TTee1203_Tee1214 TTee1221_Tee1210 TTee1214_Pump1218 TRad1178_Tee1221 TTee1214_Tee1225 TTee1225_Tee1239 TTee1232_Tee1221 TTee1243_Tee1232
TTee1225_Pump1229 TRad1181_Tee1232 TTee1239_Pump1236 TRad1190_Tee1243 TTee1251_Pump1255 TRad1193_Tee1247 TTee1251_Pump1258 TRad1196_Tee1247
TTee1247_Tee1243 TTee1239_Tee1251 TTee1085_Tee1199 TTee1199_Tee1306 TTee1306_Tee1310 TTee1310_Pump1314 TRad1288_Tee1317 TTee1310_Tee1321
TTee1328_Tee1317 TTee1321_Pump1325 TRad1291_Tee1328 TTee1335_Pump1332 TRad1294_Tee1339 TTee1343_Pump1347 TRad1297_Tee1350 TTee1321_Tee1335
TTee1335_Tee1343 TTee1350_Tee1339 TTee1339_Tee1328 TTee1343_Tee1354 TTee1354_Pump1365 TRad1303_Tee1361 TRad1300_Tee1361 TTee1361_Tee1350
TTee1354_Pump1358 TTee1410_Pump1414 TRad1401_Tee1417 TTee1410_Tee1421 TRad1404_Tee1428 TTee1428_Tee1417 TTee1421_Pump1432 TRad1407_Tee1428
TTee347_Tee1450 TTee429_Tee1450 TTee1450_Tee1456 TTee472_Tee1456 TTee1456_Tee1460 TTee564_Tee1460 TTee1460_Tee1464 TTee662_Tee1464
TTee1464_Tee1468 TTee766_Tee1468 TTee1468_Tee1472 TTee875_Tee1472 TTee1472_Tee1476 TTee985_Tee1476 TTee1476_Tee1480 TTee1096_Tee1480
TTee1480_Tee1484 TTee1210_Tee1484 TTee1484_Tee1488 TTee1317_Tee1488 TTee1488_Tee1492 TTee1417_Tee1492 TTee1492_Tee86 TTee27_Pump1527
TTee1306_Tee1410 TValHp_Tee73 TTee1569_Tee27 TTee86_Tee1569 TTee1421_PuRad43a3fC TTee73_ValMixSh TTee86_ValMixSh TValMixSh_Tee300
TTee73_TesSh TTesSh_Tee1569 TPuHp_AwHp TAwHp_ValHp TValHp_TesDhw T43GfRSW_Tee347 TPu43GfRSW_43GfRSW TPu43GfRSE_43GfRSE
TPu43GfRNE_43GfRNE TPu43aGfLSW_43aGfLSW TPu43aGfCSW_43aGfCSW TPu43aGfRNE_43aGfRNE TPu431fRSE_431fRSE TPu43a1fLSW_43a1fLSW TPu43a1fCSW_43a1fCSW TPu431fRNE_431fRNE
TPu431fLSW_431fLSW TPu43a1fLNW_43a1fLNW TPu43GfLSW_43GfLSW TPu43aGfLNW_43aGfLNW TPu431fLNE_431fLNE TPu43a1fLNE_43a1fLNE TPu432fRSW_432fRSW TPu43a1fRSW_43a1fRSW
TPu43aGfLNE_43aGfLNE TPu43GfLNE_43GfLNE TPu431fRSW_431fRSW TPu43a1fRNE_43a1fRNE TPu432fRSE_432fRSE TPu43a2fCSW_43a2fCSW TPu43a3fLSW_43a3fLSW TPu433fRNE_433fRNE
TPu43aAtt2_43aAtt2 TPu43aAtt1_43aAtt1 TPu43a3fCSW_43a3fCSW TPu433fRSE_433fRSE TPu43a2fRNE_43a2fRNE TPu43a2fRSW_43a2fRSW TPu433fRSW_433fRSW TPu43a3fRNE_43a3fRNE
TPu43Att2_43Att2 TPu43Att1_43Att1 TPu43a3fRSW_43a3fRSW TPu43a2fLNE_43a2fLNE TPu432fLNE_432fLNE TPuRad43aGfL_Rad43aGfL TPuRad432fR_Rad432fR TPuRad433fL_Rad433fL
TPuRad433fR_Rad433fR TPuRad43a1fL_Rad43a1fL TPuRad43aGfC_Rad43aGfC TPuRad43aGfR_Rad43aGfR TPuRad43a1fC_Rad43a1fC TPuRad43a2fL_Rad43a2fL TPuRad43a2fC_Rad43a2fC TPuRad43a1fR_Rad43a1fR
TPuRad43GfL_Rad43GfL TPuRad43a3fL_Rad43a3fL TPuRad43a3fC_Rad43a3fC TPuRad43a3fR_Rad43a3fR TPuRad432fL_Rad432fL TPuRad43a2fR_Rad43a2fR TPuRad431fL_Rad431fL TPuRad431fR_Rad431fR
TPu43aAtt3_43aAtt3 TPuRad43GfR_Rad43GfR TPu43a3fLNW_43a3fLNW TPu43a3fLNE_43a3fLNE TPu433fLNE_433fLNE TPu43a2fLNW_43a2fLNW TPu432fLSW_432fLSW TPu432fRNE_432fRNE
TPu43a2fLSW_43a2fLSW TPu433fLSW_433fLSW TPu43aGfRSW_43aGfRSW TTesDhw_ValMixDhw TValMixDhw_PuDhw TTee1724_TesDhw TTee1724_ValMixDhw TPuDhw_WtDhwOut
TWtDhwIn_Tee1724
TTesDhw_Tee27 TTee300_Tee117 TTee117_Pump122 TTee258_Pump255 TTee127_Pump262 TTee268_Pump272 TTee278_Pump282 TTee278_Pump293
TTee268_Tee278 TTee117_Tee258 TTee258_Tee127 TTee127_Tee268 TRad296_Tee323 TRad285_Tee323 TTee323_Tee329 TRad275_Tee329
TTee329_Tee335 TRad265_Tee335 TTee335_Tee341 TRad114_Tee341 TTee341_Tee347 TTee300_Tee361 TTee361_Tee357 TTee357_Pump354
TTee357_Tee365 TTee365_Pump373 TRad133_Tee429 TTee369_Tee429 TRad376_Tee369 TTee365_Tee381 TTee381_Pump389 TTee381_Tee395
TTee385_Tee369 TRad392_Tee385 TTee399_Tee385 TTee395_Pump403 TTee395_Tee409 TTee409_Pump413 TTee409_Pump423 TRad406_Tee399
TRad416_Tee419 TTee419_Tee399 TRad426_Tee419 TRad151_Tee516 TRad148_Tee516 TTee516_Tee505 TRad145_Tee505 TTee505_Tee491
TRad142_Tee491 TTee491_Tee483 TRad139_Tee483 TTee483_Tee472 TRad136_Tee472 TTee361_Tee461 TTee461_Tee465 TTee465_Pump469
TTee465_Tee476 TTee476_Pump480 TTee476_Tee487 TTee487_Pump495 TTee487_Tee498 TTee498_Pump502 TTee498_Tee509 TTee509_Pump513
TTee509_Pump520 TTee461_Tee553 TTee553_Tee557 TTee557_Pump561 TRad154_Tee564 TTee557_Tee568 TTee575_Tee564 TTee568_Pump572
TRad157_Tee575 TTee568_Tee582 TTee582_Pump579 TRad160_Tee586 TTee582_Tee590 TTee597_Tee586 TTee586_Tee575 TTee590_Pump594
TRad163_Tee597 TTee590_Tee601 TTee601_Pump609 TRad166_Tee605 TTee605_Tee597 TTee601_Pump612 TRad175_Tee605 TTee553_Tee651
TTee651_Tee655 TTee655_Pump659 TRad169_Tee662 TTee655_Tee690 TTee690_Pump670 TRad172_Tee673 TTee673_Tee662 TTee690_Tee680
TTee680_Pump677 TRad181_Tee684 TTee684_Tee673 TTee680_Tee694 TTee694_Tee711 TTee711_Pump708 TRad648_Tee715 TRad187_Tee715
TTee711_Pump705 TTee715_Tee698 TRad184_Tee698 TTee698_Tee684 TTee694_Pump702 TTee651_Tee755 TTee755_Tee759 TTee759_Pump763
TTee759_Tee770 TRad193_Tee766 TTee777_Tee766 TTee770_Pump774 TRad178_Tee777 TTee770_Tee781 TTee788_Tee777 TTee781_Pump785
TRad199_Tee788 TTee781_Tee792 TTee799_Tee788 TTee792_Pump796 TRad196_Tee799 TTee792_Tee803 TTee810_Tee799 TTee803_Pump807
TRad202_Tee810 TTee803_Pump818 TRad205_Tee810 TTee755_Tee879 TTee879_Tee868 TTee868_Pump872 TTee868_Tee883 TRad850_Tee875
TTee883_Pump887 TRad853_Tee890 TTee883_Tee897 TTee901_Tee890 TTee890_Tee875 TTee897_Pump894 TRad856_Tee901 TTee897_Tee905
TTee912_Tee901 TTee905_Pump909 TTee905_Tee919 TRad859_Tee912 TTee923_Tee912 TTee919_Pump916 TRad862_Tee923 TTee919_Pump927
TRad865_Tee923 TTee879_Tee977 TTee977_Tee981 TTee981_Pump989 TRad959_Tee985 TTee981_Tee992 TTee999_Tee985 TTee992_Pump996
TRad962_Tee999 TTee992_Tee1006 TTee1010_Tee999 TTee1006_Pump1003 TRad965_Tee1010 TTee1006_Tee1014 TTee1021_Tee1010 TTee1014_Pump1018
TRad968_Tee1021 TTee1014_Tee1028 TTee1032_Tee1021 TTee1028_Pump1025 TRad971_Tee1032 TRad974_Tee1032 TTee1028_Pump1036 TTee977_Tee1085
TTee1085_Tee1089 TTee1089_Pump1093 TRad1067_Tee1096 TTee1089_Tee1100 TTee1107_Tee1096 TTee1100_Pump1104 TRad1070_Tee1107 TTee1100_Tee1111
TTee1118_Tee1107 TTee1111_Pump1115 TRad1073_Tee1118 TTee1111_Tee1122 TTee1129_Tee1118 TTee1122_Pump1126 TRad1076_Tee1129 TTee1122_Tee1136
TTee1136_Pump1144 TRad1082_Tee1140 TRad1079_Tee1140 TTee1140_Tee1129 TTee1136_Pump1133 TTee1199_Tee1203 TTee1203_Pump1207 TRad1175_Tee1210
TTee1203_Tee1214 TTee1221_Tee1210 TTee1214_Pump1218 TRad1178_Tee1221 TTee1214_Tee1225 TTee1225_Tee1239 TTee1232_Tee1221 TTee1243_Tee1232
TTee1225_Pump1229 TRad1181_Tee1232 TTee1239_Pump1236 TRad1190_Tee1243 TTee1251_Pump1255 TRad1193_Tee1247 TTee1251_Pump1258 TRad1196_Tee1247
TTee1247_Tee1243 TTee1239_Tee1251 TTee1085_Tee1199 TTee1199_Tee1306 TTee1306_Tee1310 TTee1310_Pump1314 TRad1288_Tee1317 TTee1310_Tee1321
TTee1328_Tee1317 TTee1321_Pump1325 TRad1291_Tee1328 TTee1335_Pump1332 TRad1294_Tee1339 TTee1343_Pump1347 TRad1297_Tee1350 TTee1321_Tee1335
TTee1335_Tee1343 TTee1350_Tee1339 TTee1339_Tee1328 TTee1343_Tee1354 TTee1354_Pump1365 TRad1303_Tee1361 TRad1300_Tee1361 TTee1361_Tee1350
TTee1354_Pump1358 TTee1410_Pump1414 TRad1401_Tee1417 TTee1410_Tee1421 TRad1404_Tee1428 TTee1428_Tee1417 TTee1421_Pump1432 TRad1407_Tee1428
TTee347_Tee1450 TTee429_Tee1450 TTee1450_Tee1456 TTee472_Tee1456 TTee1456_Tee1460 TTee564_Tee1460 TTee1460_Tee1464 TTee662_Tee1464
TTee1464_Tee1468 TTee766_Tee1468 TTee1468_Tee1472 TTee875_Tee1472 TTee1472_Tee1476 TTee985_Tee1476 TTee1476_Tee1480 TTee1096_Tee1480
TTee1480_Tee1484 TTee1210_Tee1484 TTee1484_Tee1488 TTee1317_Tee1488 TTee1488_Tee1492 TTee1417_Tee1492 TTee1492_Tee86 TTee27_Pump1527
TTee1306_Tee1410 TValHp_Tee73 TTee1569_Tee27 TTee86_Tee1569 TTee1421_PuRad43a3fC TTee73_ValMixSh TTee86_ValMixSh TValMixSh_Tee300
TTee73_TesSh TTesSh_Tee1569 TPuHp_AwHp TAwHp_ValHp TValHp_TesDhw T43GfRSW_Tee347 TPu43GfRSW_43GfRSW TPu43GfRSE_43GfRSE
TPu43GfRNE_43GfRNE TPu43aGfLSW_43aGfLSW TPu43aGfCSW_43aGfCSW TPu43aGfRNE_43aGfRNE TPu431fRSE_431fRSE TPu43a1fLSW_43a1fLSW TPu43a1fCSW_43a1fCSW TPu431fRNE_431fRNE
TPu431fLSW_431fLSW TPu43a1fLNW_43a1fLNW TPu43GfLSW_43GfLSW TPu43aGfLNW_43aGfLNW TPu431fLNE_431fLNE TPu43a1fLNE_43a1fLNE TPu432fRSW_432fRSW TPu43a1fRSW_43a1fRSW
TPu43aGfLNE_43aGfLNE TPu43GfLNE_43GfLNE TPu431fRSW_431fRSW TPu43a1fRNE_43a1fRNE TPu432fRSE_432fRSE TPu43a2fCSW_43a2fCSW TPu43a3fLSW_43a3fLSW TPu433fRNE_433fRNE
TPu43aAtt2_43aAtt2 TPu43aAtt1_43aAtt1 TPu43a3fCSW_43a3fCSW TPu433fRSE_433fRSE TPu43a2fRNE_43a2fRNE TPu43a2fRSW_43a2fRSW TPu433fRSW_433fRSW TPu43a3fRNE_43a3fRNE
TPu43Att2_43Att2 TPu43Att1_43Att1 TPu43a3fRSW_43a3fRSW TPu43a2fLNE_43a2fLNE TPu432fLNE_432fLNE TPuRad43aGfL_Rad43aGfL TPuRad432fR_Rad432fR TPuRad433fL_Rad433fL
TPuRad433fR_Rad433fR TPuRad43a1fL_Rad43a1fL TPuRad43aGfC_Rad43aGfC TPuRad43aGfR_Rad43aGfR TPuRad43a1fC_Rad43a1fC TPuRad43a2fL_Rad43a2fL TPuRad43a2fC_Rad43a2fC TPuRad43a1fR_Rad43a1fR
TPuRad43GfL_Rad43GfL TPuRad43a3fL_Rad43a3fL TPuRad43a3fC_Rad43a3fC TPuRad43a3fR_Rad43a3fR TPuRad432fL_Rad432fL TPuRad43a2fR_Rad43a2fR TPuRad431fL_Rad431fL TPuRad431fR_Rad431fR
TPu43aAtt3_43aAtt3 TPuRad43GfR_Rad43GfR TPu43a3fLNW_43a3fLNW TPu43a3fLNE_43a3fLNE TPu433fLNE_433fLNE TPu43a2fLNW_43a2fLNW TPu432fLSW_432fLSW TPu432fRNE_432fRNE
TPu43a2fLSW_43a2fLSW TPu433fLSW_433fLSW TPu43aGfRSW_43aGfRSW TTesDhw_ValMixDhw TValMixDhw_PuDhw TTee1724_TesDhw TTee1724_ValMixDhw TPuDhw_WtDhwOut
TWtDhwIn_Tee1724
**********************************************************************
** TesDhw.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\03_pytrnsysGUI\ddck\TesDhw
*******************************************************************
**********************************
**BEGIN TesDhw.ddck
*************************************
EQUATIONS 3
qSysOut_TesDhwLoss = QLoss_Tes2
qSysOut_TesDhwAcum = QAcum_Tes2
elSysIn_Q_TesDhwAux = qHeatSource_Tes2
EQUATIONS 3
Tdp1In_Tes2 = TTee1724_TesDhw
Mfrdp1_Tes2 = MTesDhwDpR1_99_A
Tdp1InRev_Tes2 = TTesDhw_ValMixDhw
EQUATIONS 3
Thx1In_Tes2 = TValHp_TesDhw
Mfrhx1_Tes2 = MTesDhwHxHpDhw_A
Thx1InRev_Tes2 = TTesDhw_Tee27
CONSTANTS 2
zAux1_Tes2=0.00
qAux1_Tes2=0.00
EQUATIONS 1
TTesDhwDpR1_99=[711,1] !Changed automatically
EQUATIONS 1
TTesDhwHxHpDhw=[711,102] !Changed automatically
EQUATIONS 2
TTesDhwAuxOn = Tsen10_Tes2 ! upper Store temperature measurement for Warm water --> Input 2 of Type 888
TTesDhwAuxOff = Tsen1_Tes2 ! lower store temperature measurement for Warm water --> Input 3 of Type 888
CONSTANTS 1
ratioTes2 = Vol_Tes2 / VStoreRef
CONSTANTS 2
zInDp1_Tes2=0.01
zOutDp1_Tes2=0.99
CONSTANTS 4
zInhx1_Tes2=0.99
zOuthx1_Tes2=0.01
Cphx1_Tes2=Lloop5Cp
Rhohx1_Tes2=Lloop5Rho
CONSTANTS 1
Dp1Strat_Tes2=0 ! 0: no forced stratification ; 1: force to stratify
CONSTANTS 1
nHxUsed_Tes2=1
CONSTANTS 15
dInHx1_Tes2=0.05 ! m only if modHx1=1
dOutHx1_Tes2=0.06 ! m only if modHx1=1
LHx1_Tes2=20 ! m only if modHx1=1
LamHx1_Tes2=50 ! W/mK only if modHx1=1
brineConcHx1_Tes2=30 ! [0-100] only if modHx1=1
VHx1_Tes2=0.
nCvHx1_Tes2=20
modHx1_Tes2=1 ! modHX1, 0 = physical model, 1 = Drueck-model (Multiport)
nNuHx1_Tes2=0.5 ! only if modHx1=1
cNuHx1_Tes2=0.25 ! only if modHx1=1
dUaMfrHx1_Tes2=0.375 ! only if modHx1=0
dUadTHx1_Tes2=0.0 ! only if modHx1=0
dUaTHx1_Tes2=0.458 ! only if modHx1=0
UaHx1_Tes2=1105*ratioTes2 ! kJ/hK only if modHx1=0
startUpHx1_Tes2=0. ! only if modHx1=0
CONSTANTS 10
zSen1_Tes2=0.05
zSen2_Tes2=0.15
zSen3_Tes2=0.25
zSen4_Tes2=0.35
zSen5_Tes2=0.45
zSen6_Tes2=0.55
zSen7_Tes2=0.65
zSen8_Tes2=0.75
zSen9_Tes2=0.85
zSen10_Tes2=0.95
CONSTANTS 10
zSenAvgBot1_Tes2 = 0.05
zSenAvgTop1_Tes2 = 0.15
zSenAvgBot2_Tes2 = 0.25
zSenAvgTop2_Tes2 = 0.35
zSenAvgBot3_Tes2 = 0.45
zSenAvgTop3_Tes2 = 0.55
zSenAvgBot4_Tes2 = 0.65
zSenAvgTop4_Tes2 = 0.75
zSenAvgBot5_Tes2 = 0.85
zSenAvgTop5_Tes2 = 0.95
CONSTANTS 12
Vol_Tes2=4.0 ! value changed from original by executeTrnsys.py
RhoWat_Tes2=RhoWat ! 2: kg/m3, density of storage media
CpWat_Tes2=CpWat ! 3: kJ/kgK, specific heat of storage media
lamZ_Tes2=0.6 ! 4: W/mK, effective vertical thermal conductivity of TES
Heigh_Tes2=2. ! 5: m, storage height
Tini_Tes2=20. ! 6: oC, initial temperature
nCvMax_Tes2=400 ! 7: -, minimum relative plug height
nCvMin_Tes2=20 ! 8: -, maximum relative plug height
maxTDiff_Tes2=0.015 ! 9: K, maximum temperature difference between plugs
readMode_Tes2=0 ! 10: 1: from table, 0: Tini and CapTot
Tref_Tes2=273.15 ! 11: oC, reference temperature
Tmax_Tes2=100. ! 6: oC, initial temperature
CONSTANTS 10
Ufoam_Tes2= 0.67 ! W/(m2K) 6 cm of foam of 0.04 W/(mK)
Ubot_Tes2 = 0.67 ! W/(m2K) 6 cm of foam of 0.04 W/(mK)
Atop_Tes2 = Vol_Tes2/Heigh_Tes2 ! m2
Diameter_Tes2 = (4*ATop_Tes2/PI)^0.5 ! m
ALat_Tes2 = Heigh_Tes2*PI*Diameter_Tes2 ! m2
UaBot_Tes2= Ubot_Tes2*ATop_Tes2 ! W/k
Uaz1_Tes2 = Ufoam_Tes2*ALat_Tes2/3 ! W/k
Uaz2_Tes2 = Ufoam_Tes2*ALat_Tes2/3 ! W/k
Uaz3_Tes2 = Ufoam_Tes2*ALat_Tes2/3 ! W/k
UaTop_Tes2 = Ufoam_Tes2*ATop_Tes2 ! W/k
CONSTANTS 4
MoInsPlate_Tes2=0 ! 0-2, Insulation Plate Mode: 0 = no insulation plate inside TES, 1 = insulation plate at fixed relative height, 2 = insulation plate at fixed temperature / density controlled
zInsPlate_Tes2=0 ! 0-1, relative position of fixed height insulation plate inside TES (only for Insulation Plate Mode = 1
TinsPlate_Tes2=0 ! oC, temperature at which moveable insulation plate floats in TES (only for Insulation Plate Mode = 2)
UAinsPlate_Tes2=0 ! W/K, overall heat transfer coefficient across moveable insulation plate (including heat transfer in gap between plate and wall and in wall at the respective height)
UNIT 711 TYPE 1925 !Changed automatically
PARAMETERS 219
Vol_Tes2 ! 1: m3, volume of store
RhoWat_Tes2 ! 2: kg/m3, density of storage media
CpWat_Tes2 ! 3: kJ/kgK, specific heat of storage media
lamZ_Tes2 ! 4: W/mK, effective vertical thermal conductivity of TES
Heigh_Tes2 ! 5: m, storage height
TIni_Tes2 ! 6: oC, initial temperature
nCvMax_Tes2 ! 7: -, minimum relative plug height
nCvMin_Tes2 ! 8: -, maximum relative plug height
maxTDiff_Tes2 ! 9: K, maximum temperature difference between plugs
readMode_Tes2 ! 10: 1: from table, 0: Tini and CapTot
Tref_Tes2 ! 11: oC, reference temperature
UaBot_Tes2 ! W/k
Uaz1_Tes2 ! W/k
Uaz2_Tes2 ! W/k
Uaz3_Tes2 ! W/k
UaTop_Tes2 ! W/k
tMax_Tes2
0 0 0 ! 17-20 unsused parameters
zInDp1_Tes2 zOutDp1_Tes2 zero Dp1Strat_Tes2 ! 21 - 25: zIn, zOut, cp, strat
-1 -1 zero zero ! 26 - 30: zIn, zOut, cp, strat
-1 -1 zero zero ! 31 - 35: zIn, zOut, cp, strat
-1 -1 zero zero ! 36 - 40: zIn, zOut, cp, strat
-1 -1 zero zero ! 41 - 45: zIn, zOut, cp, strat
-1 -1 zero zero ! 46 - 50: zIn, zOut, cp, strat
-1 -1 zero zero ! 51 - 55: zIn, zOut, cp, strat
-1 -1 zero zero ! 56 - 60: zIn, zOut, cp, strat
-1 -1 zero zero ! 61 - 65: zIn, zOut, cp, strat
-1 -1 zero zero ! 66 - 70: zIn, zOut, cp, strat
zSen1_Tes2 zSen2_Tes2 zSen3_Tes2 zSen4_Tes2 zSen5_Tes2 zSen6_Tes2 zSen7_Tes2 zSen8_Tes2 zSen9_Tes2 zSen10_Tes2 ! 61-71 : relative storage temperature sensor heights
zSenAvgBot1_Tes2 zSenAvgTop1_Tes2 ! 71-72 : relative position of lower and upper edge temeprature sensors
zSenAvgBot2_Tes2 zSenAvgTop2_Tes2 ! 73-74 : relative position of lower and upper edge temeprature sensors
zSenAvgBot3_Tes2 zSenAvgTop3_Tes2 ! 75-76 : relative position of lower and upper edge temeprature sensors
zSenAvgBot4_Tes2 zSenAvgTop4_Tes2 ! 77-78 : relative position of lower and upper edge temeprature sensors
zSenAvgBot5_Tes2 zSenAvgTop5_Tes2 ! 79-80 : relative position of lower and upper edge temeprature sensors
MoInsPlate_Tes2 ! 81: 0-2, Insulation Plate Mode: 0 = no insulation plate inside TES, 1 = insulation plate at fixed relative height, 2 = insulation plate at fixed temperature / density controlled
zInsPlate_Tes2 ! 82: 0-1, relative position of fixed height insulation plate inside TES (only for Insulation Plate Mode = 1
TinsPlate_Tes2 ! 83: oC, temperature at which moveable insulation plate floats in TES (only for Insulation Plate Mode = 2)
UAinsPlate_Tes2 ! 84: W/K, overall heat transfer coefficient across moveable insulation plate (including heat transfer in gap between plate and wall and in wall at the respective height)
nHxUsed_Tes2 ! 85: number Of used Hx
zInHx1_Tes2 zOutHx1_Tes2 dInHx1_Tes2 dOutHx1_Tes2 LHx1_Tes2 LamHx1_Tes2 brineConcHx1_Tes2 VHx1_Tes2 CpHx1_Tes2 RhoHx1_Tes2 nCvHx1_Tes2 modHx1_Tes2 nNuHx1_Tes2 cNuHx1_Tes2 dUaMfrHx1_Tes2 dUadTHx1_Tes2 dUaTHx1_Tes2 UaHx1_Tes2 startUpHx1_Tes2 ! Heax exchanger 1
-1 -1 zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero ! Heax exchanger 2
-1 -1 zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero ! Heax exchanger 3
-1 -1 zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero ! Heax exchanger 4
-1 -1 zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero ! Heax exchanger 5
-1 -1 zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero ! Heax exchanger 6
zAux1_Tes2 zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero
INPUTS 69
Tdp1In_Tes2 Mfrdp1_Tes2 Tdp1InRev_Tes2
zero zero zero
zero zero zero
zero zero zero
zero zero zero
zero zero zero
zero zero zero
zero zero zero
zero zero zero
zero zero zero
TroomStore
Thx1In_Tes2 Mfrhx1_Tes2 Thx1InRev_Tes2
zero zero zero
zero zero zero
zero zero zero
zero zero zero
zero zero zero
qAux1_Tes2 zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero
zero zero zero zero zero zero zero zero zero zero
zero zero zero zero zero zero zero zero zero zero
zero zero zero zero zero zero zero zero zero zero
zero zero zero zero zero zero zero zero zero zero
zero zero zero zero zero zero zero zero zero zero
zero zero zero zero zero zero zero zero zero zero
zero zero zero zero zero zero zero zero zero
EQUATIONS 1
Qdp1_Tes2=[711,31] !Changed automatically
EQUATIONS 21
TAvg_Tes2 = [711,180] !Changed automatically
T1_Tes2 =[711,21] !Changed automatically
T2_Tes2 =[711,22] !Changed automatically
T3_Tes2 =[711,23] !Changed automatically
T4_Tes2 =[711,24] !Changed automatically
T5_Tes2 =[711,25] !Changed automatically
T6_Tes2 =[711,26] !Changed automatically
T7_Tes2 =[711,27] !Changed automatically
T8_Tes2 =[711,28] !Changed automatically
T9_Tes2 =[711,29] !Changed automatically
T10_Tes2 =[711,30] !Changed automatically
Tsen1_Tes2 =[711,71] !Changed automatically
Tsen2_Tes2 =[711,72] !Changed automatically
Tsen3_Tes2 =[711,73] !Changed automatically
Tsen4_Tes2 =[711,74] !Changed automatically
Tsen5_Tes2 =[711,75] !Changed automatically
Tsen6_Tes2 =[711,76] !Changed automatically
Tsen7_Tes2 =[711,77] !Changed automatically
Tsen8_Tes2 =[711,78] !Changed automatically
Tsen9_Tes2 =[711,79] !Changed automatically
Tsen10_Tes2 =[711,80] !Changed automatically
EQUATIONS 1
Qhx1Out_Tes2=[711,104] !Changed automatically
EQUATIONS 1
qHeatSource_Tes2 = [711,181] !Changed automatically
EQUATIONS 5
Qv_Tes2 = [711,176] !Changed automatically
QLoss_Tes2 = [711,177] !Changed automatically
QAcum_Tes2 = [711,178] !Changed automatically
QPorts_Tes2 = [711,179] !Changed automatically
QImb_Tes2 = [711,64] !Changed automatically
CONSTANTS 1
unitPrinter_Tes2 = 714
ASSIGN temp\TES2_MO.Prt unitPrinter_Tes2
UNIT 712 TYPE 46 !Changed automatically
PARAMETERS 5
unitPrinter_Tes2 ! 1: Logical unit number, -
-1 ! 2: Logical unit for monthly summaries
1 ! 3: Relative or absolute start time. 0: print at time intervals relative to the simulation start time. 1: print at absolute time intervals. No effect for monthly integrations
-1 ! 4: Printing & integrating interval, h. -1 for monthly integration
0 ! 5: Number of inputs to avoid integration
INPUTS 8
Qv_Tes2 QLoss_Tes2 QAcum_Tes2 QPorts_Tes2 QImb_Tes2 Qdp1_Tes2 Qhx1Out_Tes2 qHeatSource_Tes2
zero zero zero zero zero zero zero zero
UNIT 713 TYPE 65 !Changed automatically
PARAMETERS 12
10 ! 1 Nb. of left-axis variables
0 ! 2 Nb. of right-axis variables
0 ! 3 Left axis minimum
100 ! 4 Left axis maximum -
0 ! 5 Right axis minimum
100 ! 6 Right axis maximum
nPlotsPerSim ! 7 Number of plots per simulation
12 ! 8 X-axis gridpoints
1 ! 9 Shut off Online w/o removing
-1 ! 10 Logical unit for output file
0 ! 11 Output file units
0 ! 12 Output file delimiter
INPUTS 10
T1_Tes2 T2_Tes2 T3_Tes2 T4_Tes2 T5_Tes2 T6_Tes2 T7_Tes2 T8_Tes2 T9_Tes2 T10_Tes2
T1_Tes2 T2_Tes2 T3_Tes2 T4_Tes2 T5_Tes2 T6_Tes2 T7_Tes2 T8_Tes2 T9_Tes2 T10_Tes2
LABELS 3
Temperatures
MassFlows
Tes2
**********************************************************************
** TesSh.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\03_pytrnsysGUI\ddck\TesSh
*******************************************************************
**********************************
**BEGIN TesSh.ddck
*************************************
EQUATIONS 3
qSysOut_TesShLoss = QLoss_Tes1
qSysOut_TesShAcum = QAcum_Tes1
elSysIn_Q_TesShAux = qHeatSource_Tes1
EQUATIONS 3
Tdp1In_Tes1 = TTee73_TesSh
Mfrdp1_Tes1 = MTesShDpL99_1_A
Tdp1InRev_Tes1 = TTesSh_Tee1569
CONSTANTS 2
zAux1_Tes1=0.00
qAux1_Tes1=0.00
EQUATIONS 1
TTesShDpL99_1=[715,1] !Changed automatically
EQUATIONS 2
TsensorTesSh = Tsen10_Tes1 ! upper temperature measured for room heating (on) --> Input 6 of Type 888
TsensorTesShLow = Tsen1_Tes1 ! lower temperature measured for room heating off --> Input 7 of Type 888
CONSTANTS 3
TRoomStore=15 !
VStoreRef = 0.763
ratioTes1 = Vol_Tes1 / VStoreRef
CONSTANTS 2
zInDp1_Tes1=0.99
zOutDp1_Tes1=0.01
CONSTANTS 1
Dp1Strat_Tes1=0 ! 0: no forced stratification ; 1: force to stratify
CONSTANTS 1
nHxUsed_Tes1=0
CONSTANTS 10
zSen1_Tes1=0.05
zSen2_Tes1=0.15
zSen3_Tes1=0.25
zSen4_Tes1=0.35
zSen5_Tes1=0.45
zSen6_Tes1=0.55
zSen7_Tes1=0.65
zSen8_Tes1=0.75
zSen9_Tes1=0.85
zSen10_Tes1=0.95
CONSTANTS 10
zSenAvgBot1_Tes1 = 0.05
zSenAvgTop1_Tes1 = 0.15
zSenAvgBot2_Tes1 = 0.25
zSenAvgTop2_Tes1 = 0.35
zSenAvgBot3_Tes1 = 0.45
zSenAvgTop3_Tes1 = 0.55
zSenAvgBot4_Tes1 = 0.65
zSenAvgTop4_Tes1 = 0.75
zSenAvgBot5_Tes1 = 0.85
zSenAvgTop5_Tes1 = 0.95
CONSTANTS 12
Vol_Tes1=4.0 ! value changed from original by executeTrnsys.py
RhoWat_Tes1=RhoWat ! 2: kg/m3, density of storage media
CpWat_Tes1=CpWat ! 3: kJ/kgK, specific heat of storage media
lamZ_Tes1=0.6 ! 4: W/mK, effective vertical thermal conductivity of TES
Heigh_Tes1=2. ! 5: m, storage height
Tini_Tes1=20. ! 6: oC, initial temperature
nCvMax_Tes1=400 ! 7: -, minimum relative plug height
nCvMin_Tes1=20 ! 8: -, maximum relative plug height
maxTDiff_Tes1=0.015 ! 9: K, maximum temperature difference between plugs
readMode_Tes1=0 ! 10: 1: from table, 0: Tini and CapTot
Tref_Tes1=273.15 ! 11: oC, reference temperature
Tmax_Tes1=100. ! 6: oC, initial temperature
CONSTANTS 10
Ufoam_Tes1= 0.67 ! W/(m2K) 6 cm of foam of 0.04 W/(mK)
Ubot_Tes1 = 0.67 ! W/(m2K) 6 cm of foam of 0.04 W/(mK)
Atop_Tes1 = Vol_Tes1/Heigh_Tes1 ! m2
Diameter_Tes1 = (4*ATop_Tes1/PI)^0.5 ! m
ALat_Tes1 = Heigh_Tes1*PI*Diameter_Tes1 ! m2
UaBot_Tes1= Ubot_Tes1*ATop_Tes1 ! W/k
Uaz1_Tes1 = Ufoam_Tes1*ALat_Tes1/3 ! W/k
Uaz2_Tes1 = Ufoam_Tes1*ALat_Tes1/3 ! W/k
Uaz3_Tes1 = Ufoam_Tes1*ALat_Tes1/3 ! W/k
UaTop_Tes1 = Ufoam_Tes1*ATop_Tes1 ! W/k
CONSTANTS 4
MoInsPlate_Tes1=0 ! 0-2, Insulation Plate Mode: 0 = no insulation plate inside TES, 1 = insulation plate at fixed relative height, 2 = insulation plate at fixed temperature / density controlled
zInsPlate_Tes1=0 ! 0-1, relative position of fixed height insulation plate inside TES (only for Insulation Plate Mode = 1
TinsPlate_Tes1=0 ! oC, temperature at which moveable insulation plate floats in TES (only for Insulation Plate Mode = 2)
UAinsPlate_Tes1=0 ! W/K, overall heat transfer coefficient across moveable insulation plate (including heat transfer in gap between plate and wall and in wall at the respective height)
UNIT 715 TYPE 1924 !Changed automatically
PARAMETERS 219
Vol_Tes1 ! 1: m3, volume of store
RhoWat_Tes1 ! 2: kg/m3, density of storage media
CpWat_Tes1 ! 3: kJ/kgK, specific heat of storage media
lamZ_Tes1 ! 4: W/mK, effective vertical thermal conductivity of TES
Heigh_Tes1 ! 5: m, storage height
TIni_Tes1 ! 6: oC, initial temperature
nCvMax_Tes1 ! 7: -, minimum relative plug height
nCvMin_Tes1 ! 8: -, maximum relative plug height
maxTDiff_Tes1 ! 9: K, maximum temperature difference between plugs
readMode_Tes1 ! 10: 1: from table, 0: Tini and CapTot
Tref_Tes1 ! 11: oC, reference temperature
UaBot_Tes1 ! W/k
Uaz1_Tes1 ! W/k
Uaz2_Tes1 ! W/k
Uaz3_Tes1 ! W/k
UaTop_Tes1 ! W/k
tMax_Tes1
0 0 0 ! 17-20 unsused parameters
zInDp1_Tes1 zOutDp1_Tes1 zero Dp1Strat_Tes1 ! 21 - 25: zIn, zOut, cp, strat
-1 -1 zero zero ! 26 - 30: zIn, zOut, cp, strat
-1 -1 zero zero ! 31 - 35: zIn, zOut, cp, strat
-1 -1 zero zero ! 36 - 40: zIn, zOut, cp, strat
-1 -1 zero zero ! 41 - 45: zIn, zOut, cp, strat
-1 -1 zero zero ! 46 - 50: zIn, zOut, cp, strat
-1 -1 zero zero ! 51 - 55: zIn, zOut, cp, strat
-1 -1 zero zero ! 56 - 60: zIn, zOut, cp, strat
-1 -1 zero zero ! 61 - 65: zIn, zOut, cp, strat
-1 -1 zero zero ! 66 - 70: zIn, zOut, cp, strat
zSen1_Tes1 zSen2_Tes1 zSen3_Tes1 zSen4_Tes1 zSen5_Tes1 zSen6_Tes1 zSen7_Tes1 zSen8_Tes1 zSen9_Tes1 zSen10_Tes1 ! 61-71 : relative storage temperature sensor heights
zSenAvgBot1_Tes1 zSenAvgTop1_Tes1 ! 71-72 : relative position of lower and upper edge temeprature sensors
zSenAvgBot2_Tes1 zSenAvgTop2_Tes1 ! 73-74 : relative position of lower and upper edge temeprature sensors
zSenAvgBot3_Tes1 zSenAvgTop3_Tes1 ! 75-76 : relative position of lower and upper edge temeprature sensors
zSenAvgBot4_Tes1 zSenAvgTop4_Tes1 ! 77-78 : relative position of lower and upper edge temeprature sensors
zSenAvgBot5_Tes1 zSenAvgTop5_Tes1 ! 79-80 : relative position of lower and upper edge temeprature sensors
MoInsPlate_Tes1 ! 81: 0-2, Insulation Plate Mode: 0 = no insulation plate inside TES, 1 = insulation plate at fixed relative height, 2 = insulation plate at fixed temperature / density controlled
zInsPlate_Tes1 ! 82: 0-1, relative position of fixed height insulation plate inside TES (only for Insulation Plate Mode = 1
TinsPlate_Tes1 ! 83: oC, temperature at which moveable insulation plate floats in TES (only for Insulation Plate Mode = 2)
UAinsPlate_Tes1 ! 84: W/K, overall heat transfer coefficient across moveable insulation plate (including heat transfer in gap between plate and wall and in wall at the respective height)
nHxUsed_Tes1 ! 85: number Of used Hx
-1 -1 zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero ! Heax exchanger 1
-1 -1 zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero ! Heax exchanger 2
-1 -1 zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero ! Heax exchanger 3
-1 -1 zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero ! Heax exchanger 4
-1 -1 zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero ! Heax exchanger 5
-1 -1 zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero ! Heax exchanger 6
zAux1_Tes1 zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero
INPUTS 69
Tdp1In_Tes1 Mfrdp1_Tes1 Tdp1InRev_Tes1
zero zero zero
zero zero zero
zero zero zero
zero zero zero
zero zero zero
zero zero zero
zero zero zero
zero zero zero
zero zero zero
TroomStore
zero zero zero
zero zero zero
zero zero zero
zero zero zero
zero zero zero
zero zero zero
qAux1_Tes1 zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero zero
zero zero zero zero zero zero zero zero zero zero
zero zero zero zero zero zero zero zero zero zero
zero zero zero zero zero zero zero zero zero zero
zero zero zero zero zero zero zero zero zero zero
zero zero zero zero zero zero zero zero zero zero
zero zero zero zero zero zero zero zero zero zero
zero zero zero zero zero zero zero zero zero
EQUATIONS 1
Qdp1_Tes1=[715,31] !Changed automatically
EQUATIONS 21
TAvg_Tes1 = [715,180] !Changed automatically
T1_Tes1 =[715,21] !Changed automatically
T2_Tes1 =[715,22] !Changed automatically
T3_Tes1 =[715,23] !Changed automatically
T4_Tes1 =[715,24] !Changed automatically
T5_Tes1 =[715,25] !Changed automatically
T6_Tes1 =[715,26] !Changed automatically
T7_Tes1 =[715,27] !Changed automatically
T8_Tes1 =[715,28] !Changed automatically
T9_Tes1 =[715,29] !Changed automatically
T10_Tes1 =[715,30] !Changed automatically
Tsen1_Tes1 =[715,71] !Changed automatically
Tsen2_Tes1 =[715,72] !Changed automatically
Tsen3_Tes1 =[715,73] !Changed automatically
Tsen4_Tes1 =[715,74] !Changed automatically
Tsen5_Tes1 =[715,75] !Changed automatically
Tsen6_Tes1 =[715,76] !Changed automatically
Tsen7_Tes1 =[715,77] !Changed automatically
Tsen8_Tes1 =[715,78] !Changed automatically
Tsen9_Tes1 =[715,79] !Changed automatically
Tsen10_Tes1 =[715,80] !Changed automatically
EQUATIONS 1
qHeatSource_Tes1 = [715,181] !Changed automatically
EQUATIONS 5
Qv_Tes1 = [715,176] !Changed automatically
QLoss_Tes1 = [715,177] !Changed automatically
QAcum_Tes1 = [715,178] !Changed automatically
QPorts_Tes1 = [715,179] !Changed automatically
QImb_Tes1 = [715,64] !Changed automatically
CONSTANTS 1
unitPrinter_Tes1 = 718
ASSIGN temp\TES1_MO.Prt unitPrinter_Tes1
UNIT 716 TYPE 46 !Changed automatically
PARAMETERS 5
unitPrinter_Tes1 ! 1: Logical unit number, -
-1 ! 2: Logical unit for monthly summaries
1 ! 3: Relative or absolute start time. 0: print at time intervals relative to the simulation start time. 1: print at absolute time intervals. No effect for monthly integrations
-1 ! 4: Printing & integrating interval, h. -1 for monthly integration
0 ! 5: Number of inputs to avoid integration
INPUTS 7
Qv_Tes1 QLoss_Tes1 QAcum_Tes1 QPorts_Tes1 QImb_Tes1 Qdp1_Tes1 qHeatSource_Tes1
zero zero zero zero zero zero zero
UNIT 717 TYPE 65 !Changed automatically
PARAMETERS 12
10 ! 1 Nb. of left-axis variables
0 ! 2 Nb. of right-axis variables
0 ! 3 Left axis minimum
100 ! 4 Left axis maximum -
0 ! 5 Right axis minimum
100 ! 6 Right axis maximum
nPlotsPerSim ! 7 Number of plots per simulation
12 ! 8 X-axis gridpoints
1 ! 9 Shut off Online w/o removing
-1 ! 10 Logical unit for output file
0 ! 11 Output file units
0 ! 12 Output file delimiter
INPUTS 10
T1_Tes1 T2_Tes1 T3_Tes1 T4_Tes1 T5_Tes1 T6_Tes1 T7_Tes1 T8_Tes1 T9_Tes1 T10_Tes1
T1_Tes1 T2_Tes1 T3_Tes1 T4_Tes1 T5_Tes1 T6_Tes1 T7_Tes1 T8_Tes1 T9_Tes1 T10_Tes1
LABELS 3
Temperatures
MassFlows
Tes1
**********************************************************************
** dhw_DemoBern.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\03_pytrnsysGUI\ddck\WtDhwOut
*******************************************************************
****************************
**BEGIN DHW-SFH.dck
*******************************
EQUATIONS 2
Tdhw = TPuDhw_WtDhwOut ![22,1] ! Warm water supply temperature from WW heat exchanger or mixing valve [�C]
MfrDhw = ABS(MPuDhw_WtDhwOut) ! Mass flow on consumption side mixed down, kg/h = MfrDHWSet
EQUATIONS 1
qSysOut_DhwDemand = Pdhw_kW
CONSTANTS 2
TDhwSupply = Tcw !TcwAvg Standard cold water temperature (�C) TcwAvg from weatherData
my_T_set_MixDhw = T_set_ValMixDhw ! This parameter is defined in the control of DHW mixing valve
CONSTANTS 1
unitReadDhw = 723
ASSIGN "R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\03_pytrnsysGUI\ddck\WtDhwOut\profiles\DHW_DemoBern_h.txt" unitReadDhw ! water draw profile JS: Changed from V2 to V3, V3 has always the same temperature
CONSTANTS 2
scaleDHW=0.5 ! value changed from original by executeTrnsys.py
PelPuDHW_kW = 0 ! Electricity consumption of DHW pump! [kW]
EQUATIONS 1
Pdhw_kW = MfrDhw*(Tdhw-TDhwSupply)*CPWAT/3600 ! DHW-consumption power [kW]
EQUATIONS 1
dtDHWdata = 1! 1/30. ! timestep of DHW data-file
UNIT 719 TYPE 9 !Changed automatically
PARAMETERS 26 !
6 ! 1 Mode
2 ! 2 Header Lines to Skip -- SFH has 2 lines, MFH has 1 line
5 ! 3 No. of values to read
dtDHWdata ! 4 Time interval of data
-1 1 0 0 ! 5 Interpolate (+) or not (-)? 6: Multuplication factor, 7: Addition factor, 8: Average (0) or instantaneous (1) value
-1 1 0 0 ! 5 Interpolate (+) or not (-)? 6: Multuplication factor, 7: Addition factor, 8: Average (0) or instantaneous (1) value
-1 1 0 0 ! 5 Interpolate (+) or not (-)? 6: Multuplication factor, 7: Addition factor, 8: Average (0) or instantaneous (1) value
-1 1 0 0 ! 5 Interpolate (+) or not (-)? 6: Multuplication factor, 7: Addition factor, 8: Average (0) or instantaneous (1) value
-1 1 0 0 ! 5 Interpolate (+) or not (-)? 6: Multuplication factor, 7: Addition factor, 8: Average (0) or instantaneous (1) value
unitReadDhw ! 9 Logical unit for input file
-1 ! 10 Free format mode
EQUATIONS 4
tDRdhw = [719,2] !Changed automatically
QDHWstd = [719,3] !Changed automatically
MfrDHWreal = [719,4]*scaleDHW !Changed automatically
TdhwSetProfile = GT(MfrDHWreal,0) * [719,5] + LE(MfrDHWreal,0) * 45 !Changed automatically
EQUATIONS 6
TcwStd = 10. ! Standard cold water temperature (deg C)
QDHWloc = QDHWstd*(TdhwSetProfile-Tcw)/(TdhwSetProfile-TcwStd) ! local average draw off energy (according to T44A38_Rep_C1_A) [kWh] Before was [kJ]
QDHWset = QDHWstd*(1+0.2*COS((time-ddTcwOffset*24)/8760*360)) ! local time dependent draw off energy (according to T44A38_Rep_C1_A) [kWh] Before was [kJ]
MfrDHWset = (QDHWset*3600*scaleDHW)/dtDHWdata/(CpWat*(TdhwSetProfile-Tcw)) ! mass flow of hot water draw off [kg/h]
TdhwHxSet = TdhwSetProfile+ 0.1 ! Setpoint for heat exchanger control (if present), �C
PdhwIdeal_kW = QDHWstd/dtDHWdata ! ideal draw off power, kW
EQUATIONS 2 ! post calculations of DHW loop
dTdhwFlow = GT(MfrDHWset,0)*(my_T_set_MixDhw-Tdhw) ! missed temperature of warm water, K
PpenDHW_kW = 1.5*MfrDHWset*CPWAT*dTdhwFlow/3600
UNIT 720 TYPE 65 !Changed automatically
PARAMETERS 12
1 ! 1 Nb. of left-axis variables
1 ! 2 Nb. of right-axis variables
0 ! 3 Left axis minimum
300 ! 4 Left axis maximum
0 ! 5 Right axis minimum
60 ! 6 Right axis maximum
nPlotsPerSim ! 7 Number of plots per simulation
12 ! 8 X-axis gridpoints
1 ! 9 Shut off Online w/o removing
-1 ! 10 Logical unit for output file
0 ! 11 Output file units
0 ! 12 Output file delimiter
INPUTS 2
MfrDhw
Tdhw
MfrDhw
Tdhw
LABELS 3
massFlow
Temperatures
DHW-Hyd
CONSTANTS 1
unitPrinterDHW = 724
ASSIGN temp\DHW_MO.Prt unitPrinterDHW
UNIT 721 TYPE 46 !Changed automatically
PARAMETERS 5
unitPrinterDHW ! 1: Logical unit number, -
-1 ! 2: Logical unit for monthly summaries, -
1 ! 3: Relative or absolute start time. 0: print at time intervals relative to the simulation start time. 1: print at absolute time intervals. No effect for monthly integrations
-1 ! 4: Printing & integrating interval, h. -1 for monthly integration
0 ! 5: Number of inputs to avoid integration, -
INPUTS 5
Time Pdhw_kW PpenDHW_kW PelPuDHW_kW PdhwIdeal_kW
Time Pdhw_kW PpenDHW_kW PelPuDHW_kW PdhwIdeal_kW
CONSTANTS 1
unitHourlyDHW = 725
ASSIGN temp\DHW_HR.Prt unitHourlyDHW
UNIT 722 TYPE 46 !Changed automatically
PARAMETERS 6
unitHourlyDHW ! 1: Logical unit number, -
-1 ! 2: Logical unit for monthly summaries, -
1 ! 3: Relative or absolute start time. 0: print at time intervals relative to the simulation start time. 1: print at absolute time intervals. No effect for monthly integrations
1 ! 4: Printing & integrating interval, h. -1 for monthly integration
1 ! 5: Number of inputs to avoid integration, -
1 ! 6: Output number to avoid integration
INPUTS 5
Tdhw Pdhw_kW PpenDHW_kW PelPuDHW_kW PdhwIdeal_kW
Tdhw Pdhw_kW PpenDHW_kW PelPuDHW_kW PdhwIdeal_kW
**********************************************************************
** type977.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\03_pytrnsysGUI\ddck\AwHp
*******************************************************************
**********************************
** BEGIN BW-HeatPump.dck
*************************************
EQUATIONS 4
ThpEvapIn = TAmb
MfrEvapIn = ABS(MfrHpEvapNom)
THpCondIn = ABS(TPuHp_AwHp) !@temp(In, TPiHpCondIn)
MfrCondIn = ABS(MPuHp_AwHp) !ABS(@mfr(In, MfrPiHpCondIn))
EQUATIONS 2
THpEvapOut = [731,1] !Changed automatically
THpCondOut = [731,3] !Changed automatically
EQUATIONS 3
elSysIn_Q_HpCompD = PelAuxComp_kW
qSysOut_HpLoss = PAuxDefrost_kW + PAuxLossStart_kW
qSysIn_PauxEvap = PauxEvap_kW
EQUATIONS 1
myHpIsOn = hpIsOn ! control signal for the heat pump
EQUATIONS 1
MfrHpPD = MfrPD
CONSTANTS 7 ! Heat Pump: Size
sizeHpUsed=50.0 ! value changed from original by executeTrnsys.py
ratioCondEvap = MfrHpCondRef/MfrHpEvapRef
SizeHpDefined = sizeHpUsed/sizeHpNom
SizeHpRatio = SizeHpDefined
MfrHpEvapNom = SizeHpRatio*MfrHpEvapRef
MfrHpCondNom = SizeHpRatio*MfrHpCondRef ! adapt cond to corrected evap MfrHpEvapNom*ratioCondEvap !
timeHpBlock = 5
CONSTANTS 5
Moloss = 0
Ctherm = 4
Ualoss = 0
frCOP = 1
frCond = 1
CONSTANTS 5
MfrHpCondMin = MfrHpCondNom*0.4 ! chosen without any knowledge of actual system
MfrHpCondMax = MfrHpCondNom ! chosen without any knowledge of actual system
dMfrHpCondInc = 4*MfrHpCondNom
dMfrHpCondDec = -dMfrHpCondInc
dtSetHp = 5
EQUATIONS 1
dTProPID= HpIsOn*(THpCondOut-THpCondIn)+NOT(HpIsOn)*5
UNIT 730 TYPE 889 !Changed automatically
PARAMETERS 9
1 ! 1: mode of timesteps: 1= use previous value, 0 = use current value
MfrHpCondMin ! 2: lowest possible output value
MfrHpCondMax ! 3: highest possible output value
-1 ! 4: mode of action: 1 = positive, (increase in manipulated value causes increase in process variable), -1 = negative
MfrHpCondNom ! 5: By how much shall the manipulated variable be changed per hour if the process variable is 1 unit off?
4 ! 6: A high value for D counteracts overshoot / counteracts high rates of increase or decrease in the process variable.
120 ! 7: maximum rate of setpoint change per hour
dMfrHpCondInc ! 8: maximum rate of increase of the manipulated variable (positive value)
dMfrHpCondDec ! 9: maximum rate of decrease of the manipulated variable (negative value)
INPUTS 5
dTProPID ! 1: process variable
dtSetHp ! 2: setpoint
Nix ! 3: freeze manipulated variable (1) or let act (0)
Nix ! 4: Manual (1) or automatic (0) manipulated variable
Nix ! 5: manual manipulated variable
0.0 0.0 0.0 0.0 0.0
EQUATIONS 6 ! ASHP ON-Signal and mass flow
MfrPDNew = [730,1] !Changed automatically
SetpPD = [730,2] !Changed automatically
DevPD = [730,3] !Changed automatically
MfrPuHpPD = HpIsOn*MfrPD
relaxMfrPD = 1
MfrPD = MfrPDNew*relaxMFrPD + (1-relaxMFrPD)*MfrPDRc
CONSTANTS 6
tauWPstart = 10
tauWPstop = 20
TWPEvapIce = 7 ! JS: 7 seems to give somewhat realistic results. the dCOP distribution is different from type 401, needs to be checked further...
EtaDefrost = 0.3 ! JS: was 0.4 before, dCOP was too small, so this efficiency was decreased
PelWPVen = 0
PelAuxCtr_kW = 0
EQUATIONS 1
tAmbHp = tAmbDry
UNIT 731 TYPE 977 !Changed automatically
PARAMETERS 28
CHPM_c1 ! 1: c1
CHPM_c2 ! 2: c2
CHPM_c3 ! 3: c3
CHPM_c4 ! 4: c4
CHPM_c5 ! 5: c5
CHPM_c6 ! 6: c6
COP_c1 ! 7: cop1
COP_c2 ! 8: cop2
COP_c3 ! 9: cop3
COP_c4 ! 10: cop4
COP_c5 ! 11: cop5
COP_c6 ! 12: cop6
tauWPstart ! 13: tau_start, s
tauWPstop ! 14: tau_stop, s
TWPEvapIce ! 15: tevapIce, �C
EtaDefrost ! 16: eta_defrost, -
PelWPVen ! 17: ventilator electricity consumption, kW
PelAuxCtr_kW ! 18: controller electricity consumption, kW
TminEvapTout ! 19: tevap,min, �C
TEvapMaxHp ! 20: tevap,max, �C
0 ! 21: tcond,min, �C
tCondMaxHp ! 22: tcond,max, �C
CpEvap ! 23: cp,evap, kJ/kgK
CpWat ! 24: cp,cond, kJ/kgK
timeHpBlock ! 25: tau_error, hr
Moloss ! 26: 0-3
Ctherm ! 27: kJ/K
Ualoss ! 28: W/k
INPUTS 9
ThpEvapIn ! 1: tevap,in, �C
MfrEvapIn ! 2: Mfr,evap,in, kg/h
THpCondIn ! 3: tcond,in, �C
MfrCondIn ! DC LET IS AS IT WAS BEFORE (CHECK) MfrHpCond ! ! 4: Mfr,cond,in, kg/h
myHpIsOn ! 5: gamma_ON, -
RHamb_1 ! 6: RH_air_in
tAmbHp ! 7
frCond ! 8
frCOP ! 9
0 0 0 0 0 0.5 21 1 1
EQUATIONS 11 ! Heat Pump: Outputs
MfrAuxEvapOut = [731,2] !Changed automatically
HpIsBlock = BrineTooColdTimer ! OR([162,18],BrineTooColdTimer) !
BrineTooCold = OR(LT(THpEvapIn,TMinEvapTin),(LT(THpEvapOut,TMinEvapTout)))
MfrAuxOut = [731,4]*NOT(HpIsBlock) !Changed automatically
PelAuxComp_kW = [731,5] !Changed automatically
PelAuxTot_kW = [731,6] !Changed automatically
PauxEvap_kW = [731,7] !Changed automatically
PauxCond_kW = [731,8] !Changed automatically
COPAux = PauxCond_kW/(PelAuxTot_kW+0.000001)
PAuxLossStart_kW = [731,10] !Changed automatically
PAuxDefrost_kW = [731,11] !Changed automatically
UNIT 732 TYPE 817 !Changed automatically
PARAMETERS 10
1 ! 1: mode of timer 1: 1= from first trigger on; 2 = from last trigger on
timeHpBlock ! 2: lenght of time for timer 1 [h]
0 ! 3: mode of timer 2: 1= from first trigger on; 2 = from last trigger on
0 ! 4: lenght of time for timer 2 [h]
0 ! 5: mode of timer 3: 1= from first trigger on; 2 = from last trigger on
0 ! 6: lenght of time for timer 3 [h]
0 ! 7: mode of timer 4: 1= from first trigger on; 2 = from last trigger on
0 ! 8: lenght of time for timer 4 [h]
0
0
INPUTS 5
BrineTooCold Nix Nix Nix Nix
0.0 0.0 0.0 0.0 0.0
EQUATIONS 1
BrineTooColdTimer = [732,1] !Changed automatically
UNIT 728 TYPE 993 !Changed automatically
PARAMETERS 1
4 ! 1: number of variables to be remembered
INPUTS 4
HpIsBlock THpCondOut myHpIsOn MfrPD !ImbHpOnErr_kWh EImbPPiShHot_kWh ImbHpDhwOnErr_kWh
0 0 0 0 !0 0 0
EQUATIONS 6
BoHpStart = myHpIsOn*NOT(myHpIsOnRc)
HpStartPerH = BoHpStart/dtsim
HpIsBlockRc = [728,1] !Changed automatically
THpOutRc = [728,2] !Changed automatically
myHpIsOnRc = [728,3] !Changed automatically
MfrPDRc = [728,4] !Changed automatically
EQUATIONS 2
dtEvap = ThpEvapIn-THpEvapOut
dtCond = THpCondOut-THpCondIn
CONSTANTS 1
unitPrintHp = 733
ASSIGN temp\HEAT_PUMP_MO.Prt unitPrintHp
UNIT 726 TYPE 46 !Changed automatically
PARAMETERS 6
unitPrintHp ! 1: Logical unit number, -
-1 ! 2: Logical unit for monthly summaries, -
1 ! 3: Relative or absolute start time. 0: print at time intervals relative to the simulation start time. 1: print at absolute time intervals. No effect for monthly integrations
-1 ! 4: Printing & integrating interval, h. -1 for monthly integration
1 ! 5: Number of inputs to avoid integration, -
1 ! 6: Output number to avoid integration
INPUTS 5
Time PauxEvap_kW PauxCond_kW PelAuxComp_kW PelAuxTot_kW
Time PauxEvap_kW PauxCond_kW PelAuxComp_kW PelAuxTot_kW
CONSTANTS 1
unitHourlyHp = 734
ASSIGN temp\HEAT_PUMP_HR.Prt unitHourlyHp
UNIT 727 TYPE 46 !Changed automatically
PARAMETERS 10
unitHourlyHp ! 1: Logical unit number, -
-1 ! 2: Logical unit for monthly summaries, -
1 ! 3: Relative or absolute start time. 0: print at time intervals relative to the simulation start time. 1: print at absolute time intervals. No effect for monthly integrations
1 ! 4: Printing & integrating interval, h. -1 for monthly integration
5 ! 5: Number of inputs to avoid integration, -
6 ! 6: Output number to avoid integration
7 ! 7: Output number to avoid integration
8 ! 8: Output number to avoid integration
9 ! 9: Output number to avoid integration
10 ! 10: Output number to avoid integration
INPUTS 10
Time PauxEvap_kW PauxCond_kW PelAuxComp_kW PelAuxTot_kW ThpEvapIn THpEvapOut THpCondIn THpCondOut COPAux
Time PauxEvap_kW PauxCond_kW PelAuxComp_kW PelAuxTot_kW ThpEvapIn THpEvapOut THpCondIn THpCondOut COPAux
UNIT 729 TYPE 65 !Changed automatically
PARAMETERS 12
10 ! 1: Nb. of left-axis variables
10 ! 2: Nb. of right-axis variables
-10 ! 3: Left axis minimum
70 ! 4: Left axis maximum
0 ! 5: Right axis minimum
100 ! 6: Right axis maximum
nPlotsPerSim ! 7: Number of plots per simulation
12 ! 8: X-axis gridpoints
1 ! 9: Shut off Online w/o removing
-1 ! 10: Logical unit for output file
0 ! 11: Output file units
0 ! 12: Output file delimiter
INPUTS 20
ThpEvapIn THpEvapOut THpCondIn THpCondOut myHpIsOn HpIsBlock Nix Nix Nix Nix
MfrEvapIn MfrCondIn PauxEvap_kW PauxCond_kW frCond dtEvap dtCond PAuxLossStart_kW Nix Nix
ThpEvapIn THpEvapOut THpCondIn THpCondOut myHpIsOn HpIsBlock Nix Nix Nix Nix
MfrEvapIn MfrCondIn PauxEvap_kW PauxCond_kW frCond dtEvap dtCond PAuxLossStart_kW Nix Nix
LABELS 3
Temperatures
massFlow_and_Heat_transf
HP
**********************************************************************
** AHCN9a.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\03_pytrnsysGUI\ddck\AwHp
*******************************************************************
******************************************
** BEGIN AHCN9a.ddck
*********************************************
CONSTANTS 22
TEvapMaxHp = 80
sizeHpNom = 10.0
MfrHpCondRef = 1500
MfrHpEvapRef = 5000
COPNom = 4.0
TEvapMax = 35
CHPM_c1 = sizeHpRatio*4.2965
CHPM_c2 = sizeHpRatio*81.7143
CHPM_c3 = sizeHpRatio*73.0322
CHPM_c4 = sizeHpRatio*-152.4054
CHPM_c5 = sizeHpRatio*583.2136
CHPM_c6 = sizeHpRatio*-280.6302
COP_c1 = 3.3770
COP_c2 = 36.4204
COP_c3 = 15.1541
COP_c4 = -104.6609
COP_c5 = 257.4518
COP_c6 = -108.8033
TMinEvapTin = -20.000000
TMinEvapTout = TMinEvapTin - 3
TCondMaxHp = 70
CpEvap = 1.004
**********************************************************************
** type194_field1.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\02_PV
*******************************************************************
****************************
**BEGIN pv_field1.dck
*******************************
EQUATIONS 1
ASolarZenithPV1 = AISZ
CONSTANTS 5
slopePv1 = slopeSurfUser_8 !define in config file!
Pv1_azim = aziSurfUser_8 !define in config file!
NPanelPara1 = 2
NPanelSeries1 = 43
NInverters1 = 1
EQUATIONS 6
IT_Pv1 = IT_surfUser_8 ! Incident total radiation on collector plane, kJ/hm2
IB_Pv1 = IB_surfUser_8 ! incident beam radiation on collector plane, kJ/hm2
ID_Pv1 = ID_surfUser_8 ! diffuse and ground reflected irradiance on collector tilt
IDS_Pv1 = IDS_surfUser_8
IDG_Pv1 = IDG_surfUser_8
AI_Pv1 = AI_surfUser_8 ! incident angle on collector plane, �
EQUATIONS 4
IT_PV1_kW = IT_Pv1/3600 ! Incident total radiation on collector plane, kW/m2
IB_PV1_kW = IB_Pv1/3600 ! incident beam radiation on collector plane, kW/m2
ID_PV1_kW = ID_Pv1/3600 ! diffuse and ground reflected irradiance on collector tilt (kW/m2)
IT_PV1_Wm2 = IT_surfUser_8/3.6
UNIT 735 TYPE 194 !Changed automatically
PARAMETERS 29
2 ! 1 Mode
AvSkala_PvIsc ! 2 Module short-circuit current at reference conditions
AvSkala_PvVos ! 3 Module open-circuit voltage at reference conditions
AvSkala_PvRefTemp ! 4 Reference temperature
AvSkala_PvRefInsulation ! 5 Reference insolation
AvSkala_PvURefMpp ! 6 Module voltage at max power point and reference conditions
AvSkala_PvIRefMpp ! 7 Module current at max power point and reference conditions
AvSkala_PvCoeffIsc ! 8 Temperature coeficient of Isc at (ref. cond)
AvSkala_PvCoeffVoc ! 9 Temperature coeficient of Voc (ref. cond.)
AvSkala_PvCellsInSeries ! 10 Number of cells wired in series
NPanelSeries1 ! 11 Number of modules in series
NPanelPara1 ! 12 Number of modules in parallel
AvSkala_PvTempNoct ! 13 Module temperature at NOCT
AvSkala_PvTambNoct ! 14 Ambient temperature at NOCT
AvSkala_PvInsNoct ! 15 Insolation at NOCT
AvSkala_areaOneModule ! 16 Module area
0.95 ! 17 tau-alpha product for normal incidence okay
1.12 ! 18 Semiconductor bandgap
AvSkala_PvARef ! 19 Value of parameter "a" at reference conditions
AvSkala_PvILRef ! 20 Value of parameter I_L at reference conditions
AvSkala_PvI0Ref ! 21 Value of parametre I_0 at reference conditions
AvSkala_PvModuleRs ! 22 Module series resistance
AvSkala_PvShuntRs ! 23 Shunt resistance at reference conditions
0.008 ! 24 Extinction coefficient-thickness product of cover
PvMaxPInv ! 25 Maximum inverter power
PvMaxVInv ! 26 Maximium inverter voltage
PvMinVInv ! 27 Minimum inverter voltage
1 ! 28 Night tare
unitReadInvPv ! 29 Logical unit number for inverter data
INPUTS 10
IT_Pv1 ! kJ/(hm2), Total incident radiation on tilted surface
Tamb ! Ambient temperature
0,0 ! [unconnected] Load voltage
0,0 ! [unconnected] Array slope
IB_Pv1 ! kJ/(hm2), Beam radiation on tilted surface
IDS_Pv1 ! kJ/(hm2), Sky diffuse radiation on tilted surface
IDG_Pv1 ! Ground diffuse radiation on tilted surface
AI_Pv1 ! Incidence angle on tilted surface
ASolarZenithPV1 ! Solar zenith angle
vWind ! Wind speed
0 Tamb 0 slopePv1 0 0 0 0 0 0
EQUATIONS 6 ! Output of PV collector
PelMaxPower1_kW = [735,4]*NInverters1/1000 !Changed automatically
PelArrayMPP1_kW = [735,16]*NInverters1/1000 !Changed automatically
PelPV1_kW = PelMaxPower1_kW ! Power AC in kW
PelPV1DC_kW = PelArrayMPP1_kW ! Power DC in kW
PelPV1AC_kW = PelPV1_kW
PvInverterLoss1_kW = PelPV1DC_kW-PelPV1AC_kW
**********************************************************************
** type194_field2.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\02_PV
*******************************************************************
****************************
**BEGIN pv_field2.dck
*******************************
EQUATIONS 1
ASolarZenithPV2 = AISZ
CONSTANTS 5
slopePv2 = slopeSurfUser_10 !define in config file!
Pv2_azim = aziSurfUser_10 !define in config file!
NPanelPara2 = 2
NPanelSeries2 = 24
NInverters2 = 1
EQUATIONS 6
IT_Pv2 = IT_surfUser_10 ! Incident total radiation on collector plane, kJ/hm2
IB_Pv2 = IB_surfUser_10 ! incident beam radiation on collector plane, kJ/hm2
ID_Pv2 = ID_surfUser_10 ! diffuse and ground reflected irradiance on collector tilt
IDS_Pv2 = IDS_surfUser_10
IDG_Pv2 = IDG_surfUser_10
AI_Pv2 = AI_surfUser_10 ! incident angle on collector plane, �
EQUATIONS 4
IT_PV2_kW = IT_Pv2/3600 ! Incident total radiation on collector plane, kW/m2
IB_PV2_kW = IB_Pv2/3600 ! incident beam radiation on collector plane, kW/m2
ID_PV2_kW = ID_Pv2/3600 ! diffuse and ground reflected irradiance on collector tilt (kW/m2)
IT_PV2_Wm2 = IT_surfUser_10/3.6
UNIT 736 TYPE 194 !Changed automatically
PARAMETERS 29
2 ! 1 Mode
AvSkala_PvIsc ! 2 Module short-circuit current at reference conditions
AvSkala_PvVos ! 3 Module open-circuit voltage at reference conditions
AvSkala_PvRefTemp ! 4 Reference temperature
AvSkala_PvRefInsulation ! 5 Reference insolation
AvSkala_PvURefMpp ! 6 Module voltage at max power point and reference conditions
AvSkala_PvIRefMpp ! 7 Module current at max power point and reference conditions
AvSkala_PvCoeffIsc ! 8 Temperature coeficient of Isc at (ref. cond)
AvSkala_PvCoeffVoc ! 9 Temperature coeficient of Voc (ref. cond.)
AvSkala_PvCellsInSeries ! 10 Number of cells wired in series
NPanelSeries2 ! 11 Number of modules in series
NPanelPara2 ! 12 Number of modules in parallel
AvSkala_PvTempNoct ! 13 Module temperature at NOCT
AvSkala_PvTambNoct ! 14 Ambient temperature at NOCT
AvSkala_PvInsNoct ! 15 Insolation at NOCT
AvSkala_areaOneModule ! 16 Module area
0.95 ! 17 tau-alpha product for normal incidence okay
1.12 ! 18 Semiconductor bandgap
AvSkala_PvARef ! 19 Value of parameter "a" at reference conditions
AvSkala_PvILRef ! 20 Value of parameter I_L at reference conditions
AvSkala_PvI0Ref ! 21 Value of parametre I_0 at reference conditions
AvSkala_PvModuleRs ! 22 Module series resistance
AvSkala_PvShuntRs ! 23 Shunt resistance at reference conditions
0.008 ! 24 Extinction coefficient-thickness product of cover
PvMaxPInv ! 25 Maximum inverter power
PvMaxVInv ! 26 Maximium inverter voltage
PvMinVInv ! 27 Minimum inverter voltage
1 ! 28 Night tare
unitReadInvPv ! 29 Logical unit number for inverter data
INPUTS 10
IT_Pv2 ! kJ/(hm2), Total incident radiation on tilted surface
Tamb ! Ambient temperature
0,0 ! [unconnected] Load voltage
0,0 ! [unconnected] Array slope
IB_Pv2 ! kJ/(hm2), Beam radiation on tilted surface
IDS_Pv2 ! kJ/(hm2), Sky diffuse radiation on tilted surface
IDG_Pv2 ! Ground diffuse radiation on tilted surface
AI_Pv2 ! Incidence angle on tilted surface
ASolarZenithPV2 ! Solar zenith angle
vWind ! Wind speed
0 Tamb 0 slopePv2 0 0 0 0 0 0
EQUATIONS 6 ! Output of PV collector
PelMaxPower2_kW = [736,4]*NInverters2/1000 !Changed automatically
PelArrayMPP2_kW = [736,16]*NInverters2/1000 !Changed automatically
PelPV2_kW = PelMaxPower2_kW ! Power AC in kW
PelPV2DC_kW = PelArrayMPP2_kW ! Power DC in kW
PelPV2AC_kW = PelPV2_kW
PvInverterLoss2_kW = PelPV2DC_kW-PelPV2AC_kW
**********************************************************************
** type194_field3.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\02_PV
*******************************************************************
****************************
**BEGIN pv_field1.dck
*******************************
EQUATIONS 1
ASolarZenithPV3 = AISZ
CONSTANTS 5
slopePv3 = slopeSurfUser_9 !define in config file!
Pv3_azim = aziSurfUser_9 !define in config file!
NPanelPara3 = 2
NPanelSeries3 = 24
NInverters3 = 1
EQUATIONS 6
IT_Pv3 = IT_surfUser_9 ! Incident total radiation on collector plane, kJ/hm2
IB_Pv3 = IB_surfUser_9 ! incident beam radiation on collector plane, kJ/hm2
ID_Pv3 = ID_surfUser_9 ! diffuse and ground reflected irradiance on collector tilt
IDS_Pv3 = IDS_surfUser_9
IDG_Pv3 = IDG_surfUser_9
AI_Pv3 = AI_surfUser_9 ! incident angle on collector plane, �
EQUATIONS 4
IT_PV3_kW = IT_Pv3/3600 ! Incident total radiation on collector plane, kW/m2
IB_PV3_kW = IB_Pv3/3600 ! incident beam radiation on collector plane, kW/m2
ID_PV3_kW = ID_Pv3/3600 ! diffuse and ground reflected irradiance on collector tilt (kW/m2)
IT_PV3_Wm2 = IT_surfUser_9/3.6
UNIT 737 TYPE 194 !Changed automatically
PARAMETERS 29
2 ! 1 Mode
AvSkala_PvIsc ! 2 Module short-circuit current at reference conditions
AvSkala_PvVos ! 3 Module open-circuit voltage at reference conditions
AvSkala_PvRefTemp ! 4 Reference temperature
AvSkala_PvRefInsulation ! 5 Reference insolation
AvSkala_PvURefMpp ! 6 Module voltage at max power point and reference conditions
AvSkala_PvIRefMpp ! 7 Module current at max power point and reference conditions
AvSkala_PvCoeffIsc ! 8 Temperature coeficient of Isc at (ref. cond)
AvSkala_PvCoeffVoc ! 9 Temperature coeficient of Voc (ref. cond.)
AvSkala_PvCellsInSeries ! 10 Number of cells wired in series
NPanelSeries3 ! 11 Number of modules in series
NPanelPara3 ! 12 Number of modules in parallel
AvSkala_PvTempNoct ! 13 Module temperature at NOCT
AvSkala_PvTambNoct ! 14 Ambient temperature at NOCT
AvSkala_PvInsNoct ! 15 Insolation at NOCT
AvSkala_areaOneModule ! 16 Module area
0.95 ! 17 tau-alpha product for normal incidence okay
1.12 ! 18 Semiconductor bandgap
AvSkala_PvARef ! 19 Value of parameter "a" at reference conditions
AvSkala_PvILRef ! 20 Value of parameter I_L at reference conditions
AvSkala_PvI0Ref ! 21 Value of parametre I_0 at reference conditions
AvSkala_PvModuleRs ! 22 Module series resistance
AvSkala_PvShuntRs ! 23 Shunt resistance at reference conditions
0.008 ! 24 Extinction coefficient-thickness product of cover
PvMaxPInv ! 25 Maximum inverter power
PvMaxVInv ! 26 Maximium inverter voltage
PvMinVInv ! 27 Minimum inverter voltage
1 ! 28 Night tare
unitReadInvPv ! 29 Logical unit number for inverter data
INPUTS 10
IT_Pv3 ! kJ/(hm2), Total incident radiation on tilted surface
Tamb ! Ambient temperature
0,0 ! [unconnected] Load voltage
0,0 ! [unconnected] Array slope
IB_Pv3 ! kJ/(hm2), Beam radiation on tilted surface
IDS_Pv3 ! kJ/(hm2), Sky diffuse radiation on tilted surface
IDG_Pv3 ! Ground diffuse radiation on tilted surface
AI_Pv3 ! Incidence angle on tilted surface
ASolarZenithPV3 ! Solar zenith angle
vWind ! Wind speed
0 Tamb 0 slopePv3 0 0 0 0 0 0
EQUATIONS 6 ! Output of PV collector
PelMaxPower3_kW = [737,4]*NInverters3/1000 !Changed automatically
PelArrayMPP3_kW = [737,16]*NInverters3/1000 !Changed automatically
PelPV3_kW = PelMaxPower3_kW ! Power AC in kW
PelPV3DC_kW = PelArrayMPP3_kW ! Power DC in kW
PelPV3AC_kW = PelPV3_kW
PvInverterLoss3_kW = PelPV3DC_kW-PelPV3AC_kW
**********************************************************************
** type194_field4.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\02_PV
*******************************************************************
****************************
**BEGIN pv_field1.dck
*******************************
EQUATIONS 1
ASolarZenithPV4 = AISZ
CONSTANTS 5
slopePv4 = slopeSurfUser_7 !define in config file!
Pv4_azim = aziSurfUser_7 !define in config file!
NPanelPara4 = 4
NPanelSeries4 = 20
NInverters4 = 1
EQUATIONS 6
IT_Pv4 = IT_surfUser_7 ! Incident total radiation on collector plane, kJ/hm2
IB_Pv4 = IB_surfUser_7 ! incident beam radiation on collector plane, kJ/hm2
ID_Pv4 = ID_surfUser_7 ! diffuse and ground reflected irradiance on collector tilt
IDS_Pv4 = IDS_surfUser_7
IDG_Pv4 = IDG_surfUser_7
AI_Pv4 = AI_surfUser_7 ! incident angle on collector plane, �
EQUATIONS 4
IT_PV4_kW = IT_Pv4/3600 ! Incident total radiation on collector plane, kW/m2
IB_PV4_kW = IB_Pv4/3600 ! incident beam radiation on collector plane, kW/m2
ID_PV4_kW = ID_Pv4/3600 ! diffuse and ground reflected irradiance on collector tilt (kW/m2)
IT_PV4_Wm2 = IT_surfUser_7/3.6
UNIT 738 TYPE 194 !Changed automatically
PARAMETERS 29
2 ! 1 Mode
Trinasol_PvIsc ! 2 Module short-circuit current at reference conditions
Trinasol_PvVos ! 3 Module open-circuit voltage at reference conditions
Trinasol_PvRefTemp ! 4 Reference temperature
Trinasol_PvRefInsulation ! 5 Reference insolation
Trinasol_PvURefMpp ! 6 Module voltage at max power point and reference conditions
Trinasol_PvIRefMpp ! 7 Module current at max power point and reference conditions
Trinasol_PvCoeffIsc ! 8 Temperature coeficient of Isc at (ref. cond)
Trinasol_PvCoeffVoc ! 9 Temperature coeficient of Voc (ref. cond.)
Trinasol_PvCellsInSeries ! 10 Number of cells wired in series
NPanelSeries4 ! 11 Number of modules in series
NPanelPara4 ! 12 Number of modules in parallel
Trinasol_PvTempNoct ! 13 Module temperature at NOCT
Trinasol_PvTambNoct ! 14 Ambient temperature at NOCT
Trinasol_PvInsNoct ! 15 Insolation at NOCT
Trinasol_areaOneModule ! 16 Module area
0.95 ! 17 tau-alpha product for normal incidence okay
1.12 ! 18 Semiconductor bandgap
Trinasol_PvARef ! 19 Value of parameter "a" at reference conditions
Trinasol_PvILRef ! 20 Value of parameter I_L at reference conditions
Trinasol_PvI0Ref ! 21 Value of parametre I_0 at reference conditions
Trinasol_PvModuleRs ! 22 Module series resistance
Trinasol_PvShuntRs ! 23 Shunt resistance at reference conditions
0.008 ! 24 Extinction coefficient-thickness product of cover
PvMaxPInv ! 25 Maximum inverter power
PvMaxVInv ! 26 Maximium inverter voltage
PvMinVInv ! 27 Minimum inverter voltage
1 ! 28 Night tare
unitReadInvPv ! 29 Logical unit number for inverter data
INPUTS 10
IT_Pv4 ! kJ/(hm2), Total incident radiation on tilted surface
Tamb ! Ambient temperature
0,0 ! [unconnected] Load voltage
0,0 ! [unconnected] Array slope
IB_Pv4 ! kJ/(hm2), Beam radiation on tilted surface
IDS_Pv4 ! kJ/(hm2), Sky diffuse radiation on tilted surface
IDG_Pv4 ! Ground diffuse radiation on tilted surface
AI_Pv4 ! Incidence angle on tilted surface
ASolarZenithPV4 ! Solar zenith angle
vWind ! Wind speed
0 Tamb 0 slopePv4 0 0 0 0 0 0
EQUATIONS 6 ! Output of PV collector
PelMaxPower4_kW = [738,4]*NInverters4/1000 !Changed automatically
PelArrayMPP4_kW = [738,16]*NInverters4/1000 !Changed automatically
PelPV4_kW = PelMaxPower4_kW ! Power AC in kW
PelPV4DC_kW = PelArrayMPP4_kW ! Power DC in kW
PelPV4AC_kW = PelPV4_kW
PvInverterLoss4_kW = PelPV4DC_kW-PelPV4AC_kW
**********************************************************************
** type194_field5.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\02_PV
*******************************************************************
****************************
**BEGIN pv_field1.dck
*******************************
EQUATIONS 1
ASolarZenithPV5 = AISZ
CONSTANTS 5
slopePv5 = slopeSurfUser_10 !define in config file!
Pv5_azim = aziSurfUser_10 !define in config file!
NPanelPara5 = 1
NPanelSeries5 = 4
NInverters5 = 1
EQUATIONS 6
IT_Pv5 = IT_surfUser_10 ! Incident total radiation on collector plane, kJ/hm2
IB_Pv5 = IB_surfUser_10 ! incident beam radiation on collector plane, kJ/hm2
ID_Pv5 = ID_surfUser_10 ! diffuse and ground reflected irradiance on collector tilt
IDS_Pv5 = IDS_surfUser_10
IDG_Pv5 = IDG_surfUser_10
AI_Pv5 = AI_surfUser_10 ! incident angle on collector plane, �
EQUATIONS 4
IT_PV5_kW = IT_Pv5/3600 ! Incident total radiation on collector plane, kW/m2
IB_PV5_kW = IB_Pv5/3600 ! incident beam radiation on collector plane, kW/m2
ID_PV5_kW = ID_Pv5/3600 ! diffuse and ground reflected irradiance on collector tilt (kW/m2)
IT_PV5_Wm2 = IT_surfUser_10/3.6
UNIT 739 TYPE 194 !Changed automatically
PARAMETERS 29
2 ! 1 Mode
Trinasol_PvIsc ! 2 Module short-circuit current at reference conditions
Trinasol_PvVos ! 3 Module open-circuit voltage at reference conditions
Trinasol_PvRefTemp ! 4 Reference temperature
Trinasol_PvRefInsulation ! 5 Reference insolation
Trinasol_PvURefMpp ! 6 Module voltage at max power point and reference conditions
Trinasol_PvIRefMpp ! 7 Module current at max power point and reference conditions
Trinasol_PvCoeffIsc ! 8 Temperature coeficient of Isc at (ref. cond)
Trinasol_PvCoeffVoc ! 9 Temperature coeficient of Voc (ref. cond.)
Trinasol_PvCellsInSeries ! 10 Number of cells wired in series
NPanelSeries5 ! 11 Number of modules in series
NPanelPara5 ! 12 Number of modules in parallel
Trinasol_PvTempNoct ! 13 Module temperature at NOCT
Trinasol_PvTambNoct ! 14 Ambient temperature at NOCT
Trinasol_PvInsNoct ! 15 Insolation at NOCT
Trinasol_areaOneModule ! 16 Module area
0.95 ! 17 tau-alpha product for normal incidence okay
1.12 ! 18 Semiconductor bandgap
Trinasol_PvARef ! 19 Value of parameter "a" at reference conditions
Trinasol_PvILRef ! 20 Value of parameter I_L at reference conditions
Trinasol_PvI0Ref ! 21 Value of parametre I_0 at reference conditions
Trinasol_PvModuleRs ! 22 Module series resistance
Trinasol_PvShuntRs ! 23 Shunt resistance at reference conditions
0.008 ! 24 Extinction coefficient-thickness product of cover
PvMaxPInv ! 25 Maximum inverter power
PvMaxVInv ! 26 Maximium inverter voltage
PvMinVInv ! 27 Minimum inverter voltage
1 ! 28 Night tare
unitReadInvPv ! 29 Logical unit number for inverter data
INPUTS 10
IT_Pv5 ! kJ/(hm2), Total incident radiation on tilted surface
Tamb ! Ambient temperature
0,0 ! [unconnected] Load voltage
0,0 ! [unconnected] Array slope
IB_Pv5 ! kJ/(hm2), Beam radiation on tilted surface
IDS_Pv5 ! kJ/(hm2), Sky diffuse radiation on tilted surface
IDG_Pv5 ! Ground diffuse radiation on tilted surface
AI_Pv5 ! Incidence angle on tilted surface
ASolarZenithPV5 ! Solar zenith angle
vWind ! Wind speed
0 Tamb 0 slopePv5 0 0 0 0 0 0
EQUATIONS 6 ! Output of PV collector
PelMaxPower5_kW = [739,4]*NInverters5/1000 !Changed automatically
PelArrayMPP5_kW = [739,16]*NInverters5/1000 !Changed automatically
PelPV5_kW = PelMaxPower5_kW ! Power AC in kW
PelPV5DC_kW = PelArrayMPP5_kW ! Power DC in kW
PelPV5AC_kW = PelPV5_kW
PvInverterLoss5_kW = PelPV5DC_kW-PelPV5AC_kW
**********************************************************************
** type194_field6.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\02_PV
*******************************************************************
****************************
**BEGIN pv_field1.dck
*******************************
EQUATIONS 1
ASolarZenithPV6 = AISZ
CONSTANTS 5
slopePv6 = slopeSurfUser_8 !define in config file!
Pv6_azim = aziSurfUser_8 !define in config file!
NPanelPara6 = 1
NPanelSeries6 = 4
NInverters6 = 1
EQUATIONS 6
IT_Pv6 = IT_surfUser_8 ! Incident total radiation on collector plane, kJ/hm2
IB_Pv6 = IB_surfUser_8 ! incident beam radiation on collector plane, kJ/hm2
ID_Pv6 = ID_surfUser_8 ! diffuse and ground reflected irradiance on collector tilt
IDS_Pv6 = IDS_surfUser_8
IDG_Pv6 = IDG_surfUser_8
AI_Pv6 = AI_surfUser_8 ! incident angle on collector plane, �
EQUATIONS 4
IT_PV6_kW = IT_Pv6/3600 ! Incident total radiation on collector plane, kW/m2
IB_PV6_kW = IB_Pv6/3600 ! incident beam radiation on collector plane, kW/m2
ID_PV6_kW = ID_Pv6/3600 ! diffuse and ground reflected irradiance on collector tilt (kW/m2)
IT_PV6_Wm2 = IT_surfUser_8/3.6
UNIT 740 TYPE 194 !Changed automatically
PARAMETERS 29
2 ! 1 Mode
Trinasol_PvIsc ! 2 Module short-circuit current at reference conditions
Trinasol_PvVos ! 3 Module open-circuit voltage at reference conditions
Trinasol_PvRefTemp ! 4 Reference temperature
Trinasol_PvRefInsulation ! 5 Reference insolation
Trinasol_PvURefMpp ! 6 Module voltage at max power point and reference conditions
Trinasol_PvIRefMpp ! 7 Module current at max power point and reference conditions
Trinasol_PvCoeffIsc ! 8 Temperature coeficient of Isc at (ref. cond)
Trinasol_PvCoeffVoc ! 9 Temperature coeficient of Voc (ref. cond.)
Trinasol_PvCellsInSeries ! 10 Number of cells wired in series
NPanelSeries6 ! 11 Number of modules in series
NPanelPara6 ! 12 Number of modules in parallel
Trinasol_PvTempNoct ! 13 Module temperature at NOCT
Trinasol_PvTambNoct ! 14 Ambient temperature at NOCT
Trinasol_PvInsNoct ! 15 Insolation at NOCT
Trinasol_areaOneModule ! 16 Module area
0.95 ! 17 tau-alpha product for normal incidence okay
1.12 ! 18 Semiconductor bandgap
Trinasol_PvARef ! 19 Value of parameter "a" at reference conditions
Trinasol_PvILRef ! 20 Value of parameter I_L at reference conditions
Trinasol_PvI0Ref ! 21 Value of parametre I_0 at reference conditions
Trinasol_PvModuleRs ! 22 Module series resistance
Trinasol_PvShuntRs ! 23 Shunt resistance at reference conditions
0.008 ! 24 Extinction coefficient-thickness product of cover
PvMaxPInv ! 25 Maximum inverter power
PvMaxVInv ! 26 Maximium inverter voltage
PvMinVInv ! 27 Minimum inverter voltage
1 ! 28 Night tare
unitReadInvPv ! 29 Logical unit number for inverter data
INPUTS 10
IT_Pv6 ! kJ/(hm2), Total incident radiation on tilted surface
Tamb ! Ambient temperature
0,0 ! [unconnected] Load voltage
0,0 ! [unconnected] Array slope
IB_Pv6 ! kJ/(hm2), Beam radiation on tilted surface
IDS_Pv6 ! kJ/(hm2), Sky diffuse radiation on tilted surface
IDG_Pv6 ! Ground diffuse radiation on tilted surface
AI_Pv6 ! Incidence angle on tilted surface
ASolarZenithPV6 ! Solar zenith angle
vWind ! Wind speed
0 Tamb 0 slopePv6 0 0 0 0 0 0
EQUATIONS 6 ! Output of PV collector
PelMaxPower6_kW = [740,4]*NInverters6/1000 !Changed automatically
PelArrayMPP6_kW = [740,16]*NInverters6/1000 !Changed automatically
PelPV6_kW = PelMaxPower6_kW ! Power AC in kW
PelPV6DC_kW = PelArrayMPP6_kW ! Power DC in kW
PelPV6AC_kW = PelPV6_kW
PvInverterLoss6_kW = PelPV6DC_kW-PelPV6AC_kW
**********************************************************************
** type194_field7.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\02_PV
*******************************************************************
****************************
**BEGIN pv_field1.dck
*******************************
EQUATIONS 1
ASolarZenithPV7 = AISZ
CONSTANTS 5
slopePv7 = slopeSurfUser_13 !define in config file!
Pv7_azim = aziSurfUser_13 !define in config file!
NPanelPara7 = 1
NPanelSeries7 = 61
NInverters7 = 1
EQUATIONS 6
IT_Pv7 = IT_surfUser_13 ! Incident total radiation on collector plane, kJ/hm2
IB_Pv7 = IB_surfUser_13 ! incident beam radiation on collector plane, kJ/hm2
ID_Pv7 = ID_surfUser_13 ! diffuse and ground reflected irradiance on collector tilt
IDS_Pv7 = IDS_surfUser_13
IDG_Pv7 = IDG_surfUser_13
AI_Pv7 = AI_surfUser_13 ! incident angle on collector plane, �
EQUATIONS 4
IT_PV7_kW = IT_Pv7/3600 ! Incident total radiation on collector plane, kW/m2
IB_PV7_kW = IB_Pv7/3600 ! incident beam radiation on collector plane, kW/m2
ID_PV7_kW = ID_Pv7/3600 ! diffuse and ground reflected irradiance on collector tilt (kW/m2)
IT_PV7_Wm2 = IT_surfUser_13/3.6
UNIT 741 TYPE 194 !Changed automatically
PARAMETERS 29
2 ! 1 Mode
LongSol_PvIsc ! 2 Module short-circuit current at reference conditions
LongSol_PvVos ! 3 Module open-circuit voltage at reference conditions
LongSol_PvRefTemp ! 4 Reference temperature
LongSol_PvRefInsulation ! 5 Reference insolation
LongSol_PvURefMpp ! 6 Module voltage at max power point and reference conditions
LongSol_PvIRefMpp ! 7 Module current at max power point and reference conditions
LongSol_PvCoeffIsc ! 8 Temperature coeficient of Isc at (ref. cond)
LongSol_PvCoeffVoc ! 9 Temperature coeficient of Voc (ref. cond.)
LongSol_PvCellsInSeries ! 10 Number of cells wired in series
NPanelSeries7 ! 11 Number of modules in series
NPanelPara7 ! 12 Number of modules in parallel
LongSol_PvTempNoct ! 13 Module temperature at NOCT
LongSol_PvTambNoct ! 14 Ambient temperature at NOCT
LongSol_PvInsNoct ! 15 Insolation at NOCT
LongSol_areaOneModule ! 16 Module area
0.95 ! 17 tau-alpha product for normal incidence okay
1.12 ! 18 Semiconductor bandgap
LongSol_PvARef ! 19 Value of parameter "a" at reference conditions
LongSol_PvILRef ! 20 Value of parameter I_L at reference conditions
LongSol_PvI0Ref ! 21 Value of parametre I_0 at reference conditions
LongSol_PvModuleRs ! 22 Module series resistance
LongSol_PvShuntRs ! 23 Shunt resistance at reference conditions
0.008 ! 24 Extinction coefficient-thickness product of cover
PvMaxPInv ! 25 Maximum inverter power
PvMaxVInv ! 26 Maximium inverter voltage
PvMinVInv ! 27 Minimum inverter voltage
1 ! 28 Night tare
unitReadInvPv ! 29 Logical unit number for inverter data
INPUTS 10
IT_Pv7 ! kJ/(hm2), Total incident radiation on tilted surface
Tamb ! Ambient temperature
0,0 ! [unconnected] Load voltage
0,0 ! [unconnected] Array slope
IB_Pv7 ! kJ/(hm2), Beam radiation on tilted surface
IDS_Pv7 ! kJ/(hm2), Sky diffuse radiation on tilted surface
IDG_Pv7 ! Ground diffuse radiation on tilted surface
AI_Pv7 ! Incidence angle on tilted surface
ASolarZenithPV7 ! Solar zenith angle
vWind ! Wind speed
0 Tamb 0 slopePv7 0 0 0 0 0 0
EQUATIONS 6 ! Output of PV collector
PelMaxPower7_kW = [741,4]*NInverters7/1000 !Changed automatically
PelArrayMPP7_kW = [741,16]*NInverters7/1000 !Changed automatically
PelPV7_kW = PelMaxPower7_kW ! Power AC in kW
PelPV7DC_kW = PelArrayMPP7_kW ! Power DC in kW
PelPV7AC_kW = PelPV7_kW
PvInverterLoss7_kW = PelPV7DC_kW-PelPV7AC_kW
**********************************************************************
** type194_field8.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\02_PV
*******************************************************************
****************************
**BEGIN pv_field1.dck
*******************************
EQUATIONS 1
ASolarZenithPV8 = AISZ
CONSTANTS 5
slopePv8 = slopeSurfUser_14 !define in config file!
Pv8_azim = aziSurfUser_14 !define in config file!
NPanelPara8 = 1
NPanelSeries8 = 61
NInverters8 = 1
EQUATIONS 6
IT_Pv8 = IT_surfUser_14 ! Incident total radiation on collector plane, kJ/hm2
IB_Pv8 = IB_surfUser_14 ! incident beam radiation on collector plane, kJ/hm2
ID_Pv8 = ID_surfUser_14 ! diffuse and ground reflected irradiance on collector tilt
IDS_Pv8 = IDS_surfUser_14
IDG_Pv8 = IDG_surfUser_14
AI_Pv8 = AI_surfUser_14 ! incident angle on collector plane, �
EQUATIONS 4
IT_PV8_kW = IT_Pv8/3600 ! Incident total radiation on collector plane, kW/m2
IB_PV8_kW = IB_Pv8/3600 ! incident beam radiation on collector plane, kW/m2
ID_PV8_kW = ID_Pv8/3600 ! diffuse and ground reflected irradiance on collector tilt (kW/m2)
IT_PV8_Wm2 = IT_surfUser_14/3.6
UNIT 742 TYPE 194 !Changed automatically
PARAMETERS 29
2 ! 1 Mode
LongSol_PvIsc ! 2 Module short-circuit current at reference conditions
LongSol_PvVos ! 3 Module open-circuit voltage at reference conditions
LongSol_PvRefTemp ! 4 Reference temperature
LongSol_PvRefInsulation ! 5 Reference insolation
LongSol_PvURefMpp ! 6 Module voltage at max power point and reference conditions
LongSol_PvIRefMpp ! 7 Module current at max power point and reference conditions
LongSol_PvCoeffIsc ! 8 Temperature coeficient of Isc at (ref. cond)
LongSol_PvCoeffVoc ! 9 Temperature coeficient of Voc (ref. cond.)
LongSol_PvCellsInSeries ! 10 Number of cells wired in series
NPanelSeries8 ! 11 Number of modules in series
NPanelPara8 ! 12 Number of modules in parallel
LongSol_PvTempNoct ! 13 Module temperature at NOCT
LongSol_PvTambNoct ! 14 Ambient temperature at NOCT
LongSol_PvInsNoct ! 15 Insolation at NOCT
LongSol_areaOneModule ! 16 Module area
0.95 ! 17 tau-alpha product for normal incidence okay
1.12 ! 18 Semiconductor bandgap
LongSol_PvARef ! 19 Value of parameter "a" at reference conditions
LongSol_PvILRef ! 20 Value of parameter I_L at reference conditions
LongSol_PvI0Ref ! 21 Value of parametre I_0 at reference conditions
LongSol_PvModuleRs ! 22 Module series resistance
LongSol_PvShuntRs ! 23 Shunt resistance at reference conditions
0.008 ! 24 Extinction coefficient-thickness product of cover
PvMaxPInv ! 25 Maximum inverter power
PvMaxVInv ! 26 Maximium inverter voltage
PvMinVInv ! 27 Minimum inverter voltage
1 ! 28 Night tare
unitReadInvPv ! 29 Logical unit number for inverter data
INPUTS 10
IT_Pv8 ! kJ/(hm2), Total incident radiation on tilted surface
Tamb ! Ambient temperature
0,0 ! [unconnected] Load voltage
0,0 ! [unconnected] Array slope
IB_Pv8 ! kJ/(hm2), Beam radiation on tilted surface
IDS_Pv8 ! kJ/(hm2), Sky diffuse radiation on tilted surface
IDG_Pv8 ! Ground diffuse radiation on tilted surface
AI_Pv8 ! Incidence angle on tilted surface
ASolarZenithPV8 ! Solar zenith angle
vWind ! Wind speed
0 Tamb 0 slopePv8 0 0 0 0 0 0
EQUATIONS 6 ! Output of PV collector
PelMaxPower8_kW = [742,4]*NInverters8/1000 !Changed automatically
PelArrayMPP8_kW = [742,16]*NInverters8/1000 !Changed automatically
PelPV8_kW = PelMaxPower8_kW ! Power AC in kW
PelPV8DC_kW = PelArrayMPP8_kW ! Power DC in kW
PelPV8AC_kW = PelPV8_kW
PvInverterLoss8_kW = PelPV8DC_kW-PelPV8AC_kW
**********************************************************************
** type194_join.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\02_PV
*******************************************************************
****************************
**BEGIN pv_join.dck
*******************************
EQUATIONS 2
elSysIn_PV = PelPVDC_kW !DC Power provided by PV field
elSysOut_InvLoss = PvInverterLoss_kW !JS: Only correct if there is no battery, otherwise the inverter losses have to be accounted for in the battery ddck.
EQUATIONS 3 ! Output of PV collector
PelPVDC_kW = PelPV1DC_kW + PelPV2DC_kW + PelPV3DC_kW + PelPV4DC_kW + PelPV5DC_kW + PelPV6DC_kW + PelPV7DC_kW + PelPV8DC_kW ! Power DC in kW
PelPVAC_kW = PelPVDC_kW * 0.95 ! Power AC in kW (temporary equation before to implement inverter)
PvInverterLoss_kW = PelPVDC_kW-PelPVAC_kW
CONSTANTS 1
unitPrinterPV = 745
ASSIGN temp\PV_MO.Prt unitPrinterPV
UNIT 744 Type 46 !Changed automatically
PARAMETERS 6
unitPrinterPV !, 1, Logical unit number, -
-1 !, 2, Logical unit for monthly summaries, -
1 !, 3, Relative or absolute start time. 0: print at time intervals relative to the simulation start time. 1: print at absolute time intervals. No effect for monthly integrations
-1 !, 4, Printing & integrating interval, h. -1 for monthly integration
1 !, 5, Number of inputs to avoid integration, -
1 !, 6, Output number to avoid integration
INPUTS 4
Time PelPVDC_kW PelPVAC_kW PvInverterLoss_kW
Time PelPVDC_kW PelPVAC_kW PvInverterLoss_kW
UNIT 743 TYPE 65 !Changed automatically
PARAMETERS 12
1 ! 1 Nb. of left-axis variables
3 ! 2 Nb. of right-axis variables
-20 ! 3 Left axis minimum
30 ! 4 Left axis maximum
0 ! 5 Right axis minimum
100 ! 6 Right axis maximum
nPlotsPerSim ! 7 Number of plots per simulation
12 ! 8 X-axis gridpoints
1 ! 9 Shut off Online w/o removing
-1 ! 10 Logical unit for output file
0 ! 11 Output file units
0 ! 12 Output file delimiter
INPUTS 4
Tamb PelPVAC_kW PelPVDC_kW PvInverterLoss_kW
Tamb PelPVAC_kW PelPVDC_kW PvInverterLoss_kW
LABELS 3
Temp
Power
PV
**********************************************************************
** Avancis_Skala.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\02_PV
*******************************************************************
***************************
**BEGIN Avancis_Skala.ddck
*******************************
CONSTANTS 19
AvSkala_PvIsc = 3.35 ! Module short-circuit current at reference conditions
AvSkala_PvVos = 59.2 ! Module open-circuit voltage at reference conditions
AvSkala_PvRefTemp = 298.15 ! Reference temperature
AvSkala_PvRefInsulation = 1000 ! Reference insolation
AvSkala_PvURefMpp = 44.9 ! Module voltage at max power point and reference conditions
AvSkala_PvIRefMpp = 3.01 ! Module current at max power point and reference conditions
AvSkala_PvCoeffIsc = 0.0 ! Temperature coefficient of Isc at (ref. cond) in A/°C --> PvCoeffIsc = %/C * Isc / 100
AvSkala_PvCoeffVoc = -0.17 ! Temperature coefficient of Voc (ref. cond.) in V/°C --> PvCoeffVoc = %/C * Voc / 100
AvSkala_PvCellsInSeries = 72 ! Number of cells wired in series
AvSkala_areaOneModule = 1.054 ! Reference area (m2) from Datasheet (1587 mm x 664 mm)
AvSkala_PvARef = 1.180 ! Value of parameter "a" at reference conditions --> to define through tool EES
AvSkala_PvILRef = 3.38 ! Value of parameter I_L at reference conditions --> to define through tool EES
AvSkala_PvI0Ref = 0.00000000004 ! Value of parametre I_0 at reference conditions --> to define through tool EES
AvSkala_PvModuleRs = 1.255 ! Module series resistance --> to define through tool EES
AvSkala_PvShuntRs = 139.1 ! Shunt resistance at reference conditions --> to define through tool EES
AvSkala_PvTempNoct = 313.15 ! Module temperature at NOCT
AvSkala_PvTambNoct = 293.15 ! Ambient temperature at NOCT
AvSkala_PvInsNoct = 800 ! Insolation at NOCT
AvSkala_powerRating = 135 ! rated power at STC (Wp), according to datasheet, PvURefMpp*PvIRefMpp=450.27, slightly larger
**********************************************************************
** LongiSolar_LR6_60PE_310M.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\02_PV
*******************************************************************
***************************
**BEGIN LongiSolar_LR6_60PE_310M.ddck
*******************************
CONSTANTS 19
LongSol_PvIsc = 9.98 ! Module short-circuit current at reference conditions
LongSol_PvVos = 40.3 ! Module open-circuit voltage at reference conditions
LongSol_PvRefTemp = 298.15 ! Reference temperature
LongSol_PvRefInsulation = 1000 ! Reference insolation
LongSol_PvURefMpp = 33.2 ! Module voltage at max power point and reference conditions
LongSol_PvIRefMpp = 9.35 ! Module current at max power point and reference conditions
LongSol_PvCoeffIsc = 0.00569 ! Temperature coefficient of Isc at (ref. cond) in A/°C --> PvCoeffIsc = %/C * Isc / 100
LongSol_PvCoeffVoc = -0.11526 ! Temperature coefficient of Voc (ref. cond.) in V/°C --> PvCoeffVoc = %/C * Voc / 100
LongSol_PvCellsInSeries = 60 ! Number of cells wired in series
LongSol_areaOneModule = 1.635 ! Reference area (m2) from Datasheet (1650 mm x 991 mm)
LongSol_PvARef = 1.608 ! Value of parameter "a" at reference conditions --> to define through tool EES
LongSol_PvILRef = 9.991 ! Value of parameter I_L at reference conditions --> to define through tool EES
LongSol_PvI0Ref = 0.0000000001279 ! Value of parametre I_0 at reference conditions --> to define through tool EES
LongSol_PvModuleRs = 0.2399 ! Module series resistance --> to define through tool EES
LongSol_PvShuntRs = 217.8 ! Shunt resistance at reference conditions --> to define through tool EES
LongSol_PvTempNoct = 318.15 ! Module temperature at NOCT
LongSol_PvTambNoct = 293.15 ! Ambient temperature at NOCT
LongSol_PvInsNoct = 800 ! Insolation at NOCT
LongSol_powerRating = 310 ! rated power at STC (Wp), according to datasheet, PvURefMpp*PvIRefMpp=450.27, slightly larger
**********************************************************************
** Trinasolar_TSM_DD05A_05.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\02_PV
*******************************************************************
***************************
**BEGIN Trinasolar_TSM_DD05A_05_315W.ddck
*******************************
CONSTANTS 19
Trinasol_PvIsc = 10.0 ! Module short-circuit current at reference conditions
Trinasol_PvVos = 40.5 ! Module open-circuit voltage at reference conditions
Trinasol_PvRefTemp = 298.15 ! Reference temperature
Trinasol_PvRefInsulation = 1000 ! Reference insolation
Trinasol_PvURefMpp = 33.3 ! Module voltage at max power point and reference conditions
Trinasol_PvIRefMpp = 9.46 ! Module current at max power point and reference conditions
Trinasol_PvCoeffIsc = 0.005 ! Temperature coefficient of Isc at (ref. cond) in A/°C --> PvCoeffIsc = %/C * Isc / 100
Trinasol_PvCoeffVoc = -0.11745 ! Temperature coefficient of Voc (ref. cond.) in V/°C --> PvCoeffVoc = %/C * Voc / 100
Trinasol_PvCellsInSeries = 60 ! Number of cells wired in series
Trinasol_areaOneModule = 1.637 ! Reference area (m2) from Datasheet (1650 mm x 992 mm)
Trinasol_PvARef = 1.625 ! Value of parameter "a" at reference conditions --> to define through tool EES
Trinasol_PvILRef = 10.0 ! Value of parameter I_L at reference conditions --> to define through tool EES
Trinasol_PvI0Ref = 0.0000000001495 ! Value of parametre I_0 at reference conditions --> to define through tool EES
Trinasol_PvModuleRs = 0.2453 ! Module series resistance --> to define through tool EES
Trinasol_PvShuntRs = 721.1 ! Shunt resistance at reference conditions --> to define through tool EES
Trinasol_PvTempNoct = 317.15 ! Module temperature at NOCT
Trinasol_PvTambNoct = 293.15 ! Ambient temperature at NOCT
Trinasol_PvInsNoct = 800 ! Insolation at NOCT
Trinasol_powerRating = 315 ! rated power at STC (Wp), according to datasheet, PvURefMpp*PvIRefMpp=450.27, slightly larger
**********************************************************************
** SolarEdge_inverter_25K.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\02_PV
*******************************************************************
****************************
**BEGIN GW4000DT_inverter.dck
****************************
CONSTANTS 1
unitReadInvPv = 746
CONSTANTS 3
PvMaxPInv = 33750
PvMaxVInv = 900
PvMinVInv = 180
ASSIGN "R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\02_PV\GW4000DT_Inverter.dat" unitReadInvPv
*******************************************************************
** PVGrid_connection.ddck from R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\02_PV
*******************************************************************
****************************
**BEGIN PVGrid_connection.ddck
*******************************
EQUATIONS 2
elSysIn_Grid = PelFromGrid_kW
elSysOut_PvToGrid = PvToGrid_kW
EQUATIONS 3
myPelPV_kW = PelPVAC_kW ! Total PV electricity (after the inverter)
myPelBui_kW = ElventBui + ElLightEquipmBui + ElPuTot + PelContr_kW ! Electricity demand of the building (except than heat pump)
myPelHP_kW = PelAuxComp_kW ! Electricity demand of heat pump
EQUATIONS 6
PVToBui_kW = MIN (myPelPV_kW,myPelBui_kW)
PVforHP_kW = myPelPV_kW - PVToBui_kW
PVToHP_kW = MIN (PVforHP_kW,myPelHP_kW)
PvToGrid_kW = MAX(PVforHP_kW - PVToHP_kW,0)
PVSelf_kW = PVToBui_kW + PVToHP_kW
PelFromGrid_kW = MAX(myPelBui_kW + myPelHP_kW - PVSelf_kW,0.0)
EQUATIONS 9
ITTot_PV1_kW = IT_PV1_kW *(NPanelSeries1*NPanelPara1*AvSkala_areaOneModule) ! Total Irradiation (kW) on the PV system 1
ITTot_PV2_kW = IT_PV2_kW *(NPanelSeries2*NPanelPara2*AvSkala_areaOneModule) ! Total Irradiation (kW) on the PV system 2
ITTot_PV3_kW = IT_PV3_kW *(NPanelSeries3*NPanelPara3*AvSkala_areaOneModule) ! Total Irradiation (kW) on the PV system 3
ITTot_PV4_kW = IT_PV4_kW *(NPanelSeries4*NPanelPara4*Trinasol_areaOneModule) ! Total Irradiation (kW) on the PV system 4
ITTot_PV5_kW = IT_PV5_kW *(NPanelSeries5*NPanelPara5*Trinasol_areaOneModule) ! Total Irradiation (kW) on the PV system 5
ITTot_PV6_kW = IT_PV6_kW *(NPanelSeries6*NPanelPara6*Trinasol_areaOneModule) ! Total Irradiation (kW) on the PV system 6
ITTot_PV7_kW = IT_PV7_kW *(NPanelSeries7*NPanelPara7*LongSol_areaOneModule) ! Total Irradiation (kW) on the PV system 7
ITTot_PV8_kW = IT_PV8_kW *(NPanelSeries8*NPanelPara8*LongSol_areaOneModule) ! Total Irradiation (kW) on the PV system 8
ITTot_PV_kW = ITTot_PV1_kW + ITTot_PV2_kW + ITTot_PV3_kW + ITTot_PV4_kW + ITTot_PV5_kW + ITTot_PV6_kW + ITTot_PV7_kW + ITTot_PV8_kW ! Total Irradiation (kW) on the PV system
CONSTANTS 1
unitPrinterEnergyGrid = 750
ASSIGN temp\EnergyGrid_MO.Prt unitPrinterEnergyGrid
UNIT 748 Type 46 !Changed automatically
PARAMETERS 6
unitPrinterEnergyGrid ! 1: Logical unit number, -
-1 ! 2: Logical unit for monthly summaries, -
1 ! 3: Relative or absolute start time. 0: print at time intervals relative to the simulation start time. 1: print at absolute time intervals. No effect for monthly integrations
-1 ! 4: Printing & integrating interval, h. -1 for monthly integration
1 ! 5: Number of inputs to avoid integration, -
1 ! 6: Output number to avoid integration
INPUTS 11
Time ITTot_PV_kW PelPVDC_kW PvInverterLoss_kW PelPVAC_kW PVToBui_kW PVforHP_kW PVToHP_kW PVSelf_kW PvToGrid_kW PelFromGrid_kW
Time ITTot_PV_kW PelPVDC_kW PvInverterLoss_kW PelPVAC_kW PVToBui_kW PVforHP_kW PVToHP_kW PVSelf_kW PvToGrid_kW PelFromGrid_kW
CONSTANTS 1
unitHourlyElectr = 751
ASSIGN temp\GridConnection_HR.Prt unitHourlyElectr
UNIT 747 TYPE 46 !Changed automatically
PARAMETERS 10
unitHourlyElectr ! 1: Logical unit number, -
-1 ! 2: Logical unit for monthly summaries, -
1 ! 3: Relative or absolute start time. 0: print at time intervals relative to the simulation start time. 1: print at absolute time intervals. No effect for monthly integrations
1 ! 4: Printing & integrating interval, h. -1 for monthly integration
5 ! 5: Number of inputs to avoid integration, -
6 ! 6: Output number to avoid integration
7 ! 7: Output number to avoid integration
8 ! 8: Output number to avoid integration
9 ! 9: Output number to avoid integration
10 ! 10: Output number to avoid integration
INPUTS 12
Time myPelHP_kW myPelBui_kW ITTot_PV_kW PelPVDC_kW PvInverterLoss_kW PelPVAC_kW PVToBui_kW PVforHP_kW PVToHP_kW PVSelf_kW PvToGrid_kW PelFromGrid_kW
Time myPelHP_kW myPelBui_kW ITTot_PV_kW PelPVDC_kW PvInverterLoss_kW PelPVAC_kW PVToBui_kW PVforHP_kW PVToHP_kW PVSelf_kW PvToGrid_kW PelFromGrid_kW
UNIT 749 TYPE 65 !Changed automatically
PARAMETERS 12
8 ! 1 Nb. of left-axis variables
0 ! 2 Nb. of right-axis variables
0 ! 3 Left axis minimum
10 ! 4 Left axis maximum
0 ! 5 Right axis minimum
2 ! 6 Right axis maximum
nPlotsPerSim ! 7 Number of plots per simulation
12 ! 8 X-axis gridpoints
1 ! 9 Shut off Online w/o removing
-1 ! 10 Logical unit for output file
0 ! 11 Output file units
0 ! 12 Output file delimiter
INPUTS 8
PelPVAC_kW myPelHP_kW myPelBui_kW PVToBui_kW PVforHP_kW PVToHP_kW PvToGrid_kW PelFromGrid_kW
PelPVAC_kW myPelHP_kW myPelBui_kW PVToBui_kW PVforHP_kW PVToHP_kW PvToGrid_kW PelFromGrid_kW
LABELS 3
Pel
nix
nix
**********************************************************************
** end.ddck from C:\Daten\GIT\pytrnsys\data\ddcks\generic
*******************************************************************
************************************************************
**BEGIN Monthly Energy Balance printer automatically generated from DDck files
************************************************************
EQUATIONS 1
qImb = - qSysOut_HeatConExWall - qSysOut_HeatFloorHeat - qSysOut_HeatRadiator - qSysOut_PipeLoss - qSysOut_spPipeIntTot - qSysOut_TesDhwLoss - qSysOut_TesDhwAcum + elSysIn_Q_TesDhwAux - qSysOut_TesShLoss - qSysOut_TesShAcum + elSysIn_Q_TesShAux - qSysOut_DhwDemand + elSysIn_Q_HpCompD - qSysOut_HpLoss + qSysIn_PauxEvap
CONSTANTS 1
unitPrintEBal=752
ASSIGN temp\ENERGY_BALANCE_MO.Prt unitPrintEBal
UNIT 752 Type 46
PARAMETERS 6
unitPrintEBal !1: Logical unit number
-1 !2: for monthly summaries
1 !3: 1:print at absolute times
-1 !4 -1: monthly integration
1 !5 number of outputs to avoid integration
1 !6 output number to avoid integration
INPUTS 25
TIME qSysOut_HeatConExWall qSysOut_HeatFloorHeat qSysOut_HeatRadiator elSysOut_VentBui elSysOut_LightEquipmBui elSysOut_Pu elSysOut_CtrlDemand qSysOut_PipeLoss qSysOut_spPipeIntTot qSysOut_TesDhwLoss qSysOut_TesDhwAcum elSysIn_Q_TesDhwAux qSysOut_TesShLoss qSysOut_TesShAcum elSysIn_Q_TesShAux qSysOut_DhwDemand elSysIn_Q_HpCompD qSysOut_HpLoss qSysIn_PauxEvap elSysIn_PV elSysOut_InvLoss elSysIn_Grid elSysOut_PvToGrid qImb
*************************
TIME qSysOut_HeatConExWall qSysOut_HeatFloorHeat qSysOut_HeatRadiator elSysOut_VentBui elSysOut_LightEquipmBui elSysOut_Pu elSysOut_CtrlDemand qSysOut_PipeLoss qSysOut_spPipeIntTot qSysOut_TesDhwLoss qSysOut_TesDhwAcum elSysIn_Q_TesDhwAux qSysOut_TesShLoss qSysOut_TesShAcum elSysIn_Q_TesShAux qSysOut_DhwDemand elSysIn_Q_HpCompD qSysOut_HpLoss qSysIn_PauxEvap elSysIn_PV elSysOut_InvLoss elSysIn_Grid elSysOut_PvToGrid qImb
************************************************************
**BEGIN Hourly Energy Balance printer automatically generated from DDck files
************************************************************
CONSTANTS 1
unitPrintEBal_h=753
ASSIGN temp\ENERGY_BALANCE_HR.Prt unitPrintEBal_h
UNIT 753 Type 46
PARAMETERS 6
unitPrintEBal_h !1: Logical unit number
-1 !2: for monthly summaries
1 !3: 1:print at absolute times
1 !4 1: hourly integration
1 !5 number of outputs to avoid integration
1 !6 output number to avoid integration
INPUTS 25
TIME qSysOut_HeatConExWall qSysOut_HeatFloorHeat qSysOut_HeatRadiator elSysOut_VentBui elSysOut_LightEquipmBui elSysOut_Pu elSysOut_CtrlDemand qSysOut_PipeLoss qSysOut_spPipeIntTot qSysOut_TesDhwLoss qSysOut_TesDhwAcum elSysIn_Q_TesDhwAux qSysOut_TesShLoss qSysOut_TesShAcum elSysIn_Q_TesShAux qSysOut_DhwDemand elSysIn_Q_HpCompD qSysOut_HpLoss qSysIn_PauxEvap elSysIn_PV elSysOut_InvLoss elSysIn_Grid elSysOut_PvToGrid qImb
*************************
TIME qSysOut_HeatConExWall qSysOut_HeatFloorHeat qSysOut_HeatRadiator elSysOut_VentBui elSysOut_LightEquipmBui elSysOut_Pu elSysOut_CtrlDemand qSysOut_PipeLoss qSysOut_spPipeIntTot qSysOut_TesDhwLoss qSysOut_TesDhwAcum elSysIn_Q_TesDhwAux qSysOut_TesShLoss qSysOut_TesShAcum elSysIn_Q_TesShAux qSysOut_DhwDemand elSysIn_Q_HpCompD qSysOut_HpLoss qSysIn_PauxEvap elSysIn_PV elSysOut_InvLoss elSysIn_Grid elSysOut_PvToGrid qImb
****************************
**BEGIN End.ddck
*******************************
END
ToniCalabrese Topic starter
29/06/2023 2:56 pm
TRNSYS - the TRaNsient SYstem Simulation program
The Solar Energy Lab at the University of Wisconsin - Madison, USA
Le Centre Scientifique et Technique du Batiment, Sophia Antipolis, France
Transsolar Energietechnik GmBH, Stuttgart, Germany
Thermal Energy System Specialists, LLC, Madison Wisconsin, USA
Release 18.02.0000
User ID 18-D0213
Simulation log for: "R:\Projekte\EU_PLURAL\SystemSimulationsAndTools\Demo_Bern\Simulationen\Building_after_renovation\04_Pytrnsys\Results9\pytrnsysRun\pytrnsysRun.dck"
Notice at time : 0.000000
Generated by Unit : Not applicable or not available
Generated by Type : Not applicable or not available
Message : The TRNSYS Executable (TRNExe.exe) and main DLL (TRNDll.dll) are located in "C:\TRNSYS18\Exe"
Fatal Error at time : 0.000000
Generated by Unit : Not applicable or not available
Generated by Type : Not applicable or not available
TRNSYS Message 22 : The array which holds the EQUATIONs and CONSTANTs has been corruped. The most likely cause of this error is that the number of CONSTANTs plus EQUATIONs used in the input file is greater than the currently set limit.
Reported information : Error 22
Warning at time : 0.000000
Generated by Unit : Not applicable or not available
Generated by Type : Not applicable or not available
TRNSYS Message 87 : The TRNSYS Processor recognized the keyword VARIANT after the UNIT-TYPE statement, but no number was recognized.
Reported information : Not available
Simulation stopped with errors
Total Notices : 1
Total Warnings : 1
Total Fatal Errors : 1
Hello Toni,
I think your .dck file got corrupted somehow. If you look on line 4601 (about a dozen lines below the line **BEGIN type888.ddck), you'll see the statement CONSTANTS 10, but only 5 equations/constants follow before something that looks like a parameter list for a Type (starting with TTesDhwAuxOn):
**************************** **BEGIN type888.ddck ************************* EQUATIONS 1 elSysOut_CtrlDemand = PelContr_kW EQUATIONS 4 myTDhwSetpoint = 50 !TDhwSet --> later as input from optimization control DDCK mydt_rh_on = 0.0 !dt_rh_on --> later as input from optimization control DDCK mydt_rh_off = 3.0 !dt_rh_off --> later as input from optimization control DDCK mytRoomSet = 21.0 ! tRoomSet --> later as input from optimization control DDCK EQUATIONS 4 BoHS = [199,1] !Changed automatically BoTesDHW = [199,2] !Changed automatically BoTesSH = [199,3] !Changed automatically Tv = [199,4] !Changed automatically CONSTANTS 10 tavgTamb = 24 ! time for averaging of outdoor temperature for the evaluation of heating season or no heating season, h offsetDhw = 6 ! Usually we had it at 7.5 . This means the heat pump would need to reach TdhwSet+7.5 !! onsetDhw = 2 TwwStAuxOFF = myTDhwSetpoint+offsetDhw ! Stop heating DHW if TStoreUp > TWWStAuxOFF TwwStAuxON = myTDhwSetpoint+onsetDhw ! Start heating DHW if TStoreDhwBot TambHS is used for determination of heating season TTesDhwAuxOn ! 2: TwwStUp: upper Store temperature measurement for Warm water TTesDhwAuxOff ! 3: TwwStLo: lower store temperature measurement for Warm water TwwStAuxON ! 4: TwwON: temperature of store (upper) below which auxiliary is on for WW-Mode TwwStauxOff ! 5: TwwOFF: temperature of store (lower) above which auxiliary is off for WW-Mode TsensorTesSh ! 6: TrhStUp:upper temperature measured for room heating (on) TsensorTesShLow ! 7 : THpsCondIn 11: TrhStLo: lower temperature measured for room heating (off)
