net.simplace.sim.components.models.sucros.modular.splitting2.Sucros2CropPotEvapTran

Sim component that calculates only the crop and potential evapotranspiration part of Sucros2

Description

For more Information about the splitting please consult the package info on splitting2

For detailed information about the Sucros2 model please consult the original documentation (S).

References

Component Variables

Content TypeNameDescriptionData TypeUnitMin ValueMax ValueDefault Value
constantcAMDVSTTable of AMDVS as a function of DVSDOUBLEARRAY-- 0.0 1.0 1.0 1.0 2.0 0.5 2.5 0.0
constantcAMTMPTTable of AMTMP as function of DDTMP DOUBLEARRAY-- -10.0 0.0 0.0 0.0 10.0 1.0 25.0 1.0 35.0 0.0 50.0 0.0
constantcAMXPotential CO 2 assimilation rate at light saturatPotential CO 2 assimilation rate at light saturation for individual leaveson forDOUBLEg m-2 s-1--0.00111
constantcASRQLVAssimilate requirement for leaf dry matter productionDOUBLEg g-1--1.463
constantcASRQRTAssimilate requirement for root dry matter productionDOUBLEg g-1--1.444
constantcASRQSOAssimilate requirement for storage organ dry matter productionDOUBLEg g-1--1.415
constantcASRQSTAssimilate requirement for stem dry matter productionDOUBLEg g-1--1.513
constantcCFLVMass fraction carbon in the leavesDOUBLEg g-1--0.459
constantcCFRTMass fraction carbon in the rootsDOUBLEg g-1--0.467
constantcCFSOMass fraction carbon in the storage organsDOUBLEg g-1--0.471
constantcCFSTMass fraction carbon in the stems DOUBLEg g-1--0.494
constantcCONVLConversion factor for remobilization of stem carbohydrates into glucoseDOUBLE--0.947
constantcCompatibilityModecompatibility mode for GLA calculationBOOLEAN--true
constantcDOYEMlatitudeINTd--90
constantcDVRRTTable of DVR in post-anthesis phase as function of temperatureDOUBLEARRAY-- -10.0 0.0 0.0 0.0 30.0 0.031
constantcDVRVTTable of DVR in pre-anthesis phase as function of temperatureDOUBLEARRAY-- -10.0 0.0 0.0 0.0 30.0 0.027
constantcEAREar area/weight ratioDOUBLEm2 g-1--6.3E-4
constantcEFFInitial light conversion factor for individual leavesDOUBLEg J-1--1.25E-5
constantcFLVTBTable of FLV as function of DVSDOUBLEARRAY-- 0.0 0.65 0.1 0.65 0.25 0.7 0.5 0.5 0.7 0.15 0.95 0.0 2.5 0.0
constantcFRDRParameter to determine rate of increase in RDRDOUBLE--1.0
constantcFRTRLFraction stem weight eventually translocated to storage organsDOUBLE--0.2
constantcFSHTBTable of FSH as function of DVSDOUBLEARRAY-- 0.0 0.5 0.1 0.5 0.2 0.6 0.35 0.78 0.4 0.83 0.5 0.87 0.6 0.9 0.7 0.93 0.8 0.95 0.9 0.97 1.0 0.98 1.1 0.99 1.2 1.0 2.5 1.0
constantcFSOTBTable of FSO as function of DVSDOUBLEARRAY-- 0.0 0.0 0.95 0.0 1.05 1.0 2.5 1.0
constantcFSTTBTable of FST as function of DVSDOUBLEARRAY-- 0.0 0.35 0.1 0.35 0.25 0.3 0.5 0.5 0.7 0.85 0.95 1.0 1.05 0.0 2.5 0.0
constantcIDVSInitial development stageDOUBLE---0.0
constantcIEAIInitial ear area indexDOUBLEm2 m-2--0.0
constantcILAIInitial leaf area indexDOUBLEm2 m-2--0.012
constantcINTCInterception capacity of precipitation of 1 layer of leavesDOUBLEmm d-1--0.25
constantcKDFExtinction coefficient for leavesDOUBLEm2 ha-1--0.6
constantcLAICRCritical leaf area index beyond which death to self-shading occurs DOUBLEm2 m-2--4.0
constantcLATlatitudeDOUBLE°--51.97
constantcMAINLVMaintenance respiration coefficient of leavesDOUBLEg g-1 d-1--0.03
constantcMAINRTMaintenance respiration coefficient of rootsDOUBLEg g-1 d-1--0.015
constantcMAINSOMaintenance respiration coefficient of storage organsDOUBLEg g-1 d-1--0.01
constantcMAINSTMaintenance respiration coefficient of stemsDOUBLEg g-1 d-1--0.015
constantcQ10Factor accounting for increase in maintenance respiration with a 10 °C rise temperatureDOUBLE--2.0
constantcRGRLRelative growth rate of leaf area during exponential growthDOUBLE°C-1 d-1--0.009
constantcSCPScattering coefficient of leaves for PARDOUBLE--0.2
constantcSLASpecific leaf areaDOUBLEm2 g-1--0.022
constantcTBASEBase temperature for juvenile leaf area growthDOUBLE°C--0.0
constantcTKL1Thickness of the soil layer 1DOUBLEmm--200.0
constantcTREFReference temperatureDOUBLE°C--25.0
constantcWCST1Volumetric water content at saturation in each soil layerDOUBLEcm3 cm-3--0.4
constantcWLVDIInitial value for WLVDDOUBLEg m-2--0.0
constantcWLVIInitial dry weight of the leavesDOUBLEg m-2--0.5
constantcWRTIInitial dry weight of the rootsDOUBLEg m-2--0.8
constantcWSOIInitial value for WSODOUBLEg m-2--0.0
constantcWSTIInitial value for WSTDOUBLEg m-2--0.3
inputiActualTranspirationTotal actual transpiration rate of the canopy DOUBLEmm d-1--0.0
inputiRAINDaily precipitation (from AB/TPE weather system)DOUBLE--0.0
inputiRDDDaily solar radiationDOUBLEJ m-2 d-1--0.0
inputiTMMNDaily minimum temperature (from AB/TPE weather system)DOUBLE°--0.0
inputiTMMXDaily maximum temperature (from AB/TPE weather system)DOUBLE°--0.0
inputiVPActual vapour pressure (from AB/TPE weather system)DOUBLEkPa--0.0
inputiWL1Amount of water in soil compartment 1DOUBLEmm--0.0
inputiWNWind speed (from AB/TPE weather system)DOUBLEm s-1--0.0
statesCumulativePotentialSoilEvaporationCumulative potential ecaporatioDOUBLEmm--0.0
statesCumulativePotentialTranspirationCumulative actual soil evaporationDOUBLEmm--0.0
statesDVSDevelopment stage of the cropDOUBLE---0.0
statesEAIEar area indexDOUBLEm2 m-2--0.0
statesLAILeaf area indexDOUBLEm2 m-2--0.0
statesTAINTCTotal amount of rainfall intercepted by the canopyDOUBLEmm--0.0
statesTDTGATotal gross CO 2 assimilation of the cropDOUBLEg m-2--0.0
statesTEVAPDCumulative potential soil evaporation due to drying power of the airDOUBLEmm--0.0
statesTEVAPRCumulative potential soil evaporation due to radiationDOUBLEmm--0.0
statesTNASSTotal net CO 2 assimilationDOUBLEg m-2--0.0
statesTPENMCumulative potential evapotranspirationDOUBLEmm--0.0
statesTRAINTotal precipitationDOUBLEmm--0.0
statesWLVDDry weight of dead leavesDOUBLEg m-2--0.0
statesWLVGDry weight of green leavesDOUBLEg m-2--0.0
statesWRTDry weight of the rootsDOUBLEg m-2--0.0
statesWSODry weight of storage organsDOUBLEg m-2--0.0
statesWSTDry weight of the stemsDOUBLEg m-2--0.0
raterAINTCActual amount of precipitation intercepted by the canopyDOUBLEmm d-1--0.0
raterDLVDeath rate of leavesDOUBLEg m-2 d-1--0.0
raterDTGADaily total gross CO 2 assimilation of the cropDOUBLEg m-2 d-1--0.0
raterDVRDevelopment rateDOUBLEd-1--0.0
raterEVAPDPotential soil evaporation due to drying power of the airDOUBLEmm d-1--0.0
raterEVAPRPotential soil evaporation due to radiationDOUBLEmm d-1--0.0
raterGRTDry matter growth rate of rootsDOUBLEg m-2 d-1--0.0
raterGSODry matter growth rate of storage organsDOUBLEg m-2 d-1--0.0
raterGSTDry matter growth rate of stemsDOUBLEg m-2 d-1--0.0
raterPENMANPenman reference value for potential evaporationDOUBLEmm d-1--0.0
raterPotentialSoilEvaporationPotential soil evaporationDOUBLEmm d-1--0.0
raterPotentialTranspirationPotential transpiration rate derived from Penman evaporationDOUBLEmm d-1--0.0
raterREAIGrowth rate ear area indexDOUBLEm2 m-2 d-1--0.0
raterRLAIGrowth rate leaf area indexDOUBLEm2 m-2 d-1--0.0
raterRTNASSnet CO 2 assimilation rateDOUBLEg m-2 d-1--0.0
raterRWLVGGreen leaf growth rateDOUBLEg m-2 d-1--0.0
outCHKDIF Difference between carbon added to the crop since initialization and the net total of integrated carbon fluxes, relative to their sum DOUBLEg m-2--0.0
outCROPFCrop factor for crop water requirementDOUBLE--0.0
outHIHarvest indexDOUBLEg g-1--0.0
outTADRWTotal above ground biomass DOUBLEg m-2--0.0
outTDRWTotal biomass DOUBLEg m-2--0.0
outTNASSIInitial value of TNASSDOUBLEg m-2--0.0
outWLVWeight of green and dead leavesDOUBLEg m-2--0.0


See also: net.simplace.sim.components.models.sucros, net.simplace.sim.components.models.sucros.modular, net.simplace.sim.components.models.sucros.modular.splitting2




public class Sucros2CropPotEvapTran extends
net.simplace.sim.model.FWSimComponent {
// Public Constructors
public Sucros2CropPotEvapTran();


// Public Instance Methods
public HashMap createVariables(); // Defines
net.simplace.sim.model.FWSimComponent


Create the FWSimVariables as interface for this SimComponent
public void initializeVariables();


// Protected Instance Methods
protected void init(); // Defines net.simplace.sim.model.FWSimComponent

Initializes the fields by getting input and output FWSimVariables from VarMap
protected void process(); // Defines net.simplace.sim.model.FWSimComponent

Process the algorithm and write the results back to VarMap
protected void calculateRates();

protected void integrateStates();

protected FWSimComponent clone(FWSimVarMap aVarMap);
// Defines net.simplace.sim.model.FWSimComponent


creates a clone from this SimComponent for use in other threads


}



Hierarchy: java.lang.Object - net.simplace.sim.model.FWSimComponent (net.simplace.sim.util.FWSimFieldContainer) - Sucros2CropPotEvapTran