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net.simplace.client.simulation.lap.sucros.modular.splitting2.Sucros2CropPotEvapTran

Component Variables

Content Type	Name	Description	Data Type	Unit	Min Value	Max Value	Default Value
constant	cAMDVST	Table of AMDVS as a function of DVS	DOUBLEARRAY		-	-	[Ljava.lang.Double;@719c1faf
constant	cAMTMPT	Table of AMTMP as function of DDTMP	DOUBLEARRAY		-	-	[Ljava.lang.Double;@6ba6557e
constant	cAMX	Potential CO 2 assimilation rate at light saturatPotential CO 2 assimilation rate at light saturation for individual leaveson for	DOUBLE	g m-2 s-1	-	-	0.00111
constant	cASRQLV	Assimilate requirement for leaf dry matter production	DOUBLE	g g-1	-	-	1.463
constant	cASRQRT	Assimilate requirement for root dry matter production	DOUBLE	g g-1	-	-	1.444
constant	cASRQSO	Assimilate requirement for storage organ dry matter production	DOUBLE	g g-1	-	-	1.415
constant	cASRQST	Assimilate requirement for stem dry matter production	DOUBLE	g g-1	-	-	1.513
constant	cCFLV	Mass fraction carbon in the leaves	DOUBLE	g g-1	-	-	0.459
constant	cCFRT	Mass fraction carbon in the roots	DOUBLE	g g-1	-	-	0.467
constant	cCFSO	Mass fraction carbon in the storage organs	DOUBLE	g g-1	-	-	0.471
constant	cCFST	Mass fraction carbon in the stems	DOUBLE	g g-1	-	-	0.494
constant	cCONVL	Conversion factor for remobilization of stem carbohydrates into glucose	DOUBLE		-	-	0.947
constant	cCompatibilityMode	compatibility mode for GLA calculation	BOOLEAN		-	-	true
constant	cDOYEM	latitude	INT	d	-	-	90
constant	cDVRRT	Table of DVR in post-anthesis phase as function of temperature	DOUBLEARRAY		-	-	[Ljava.lang.Double;@1f172892
constant	cDVRVT	Table of DVR in pre-anthesis phase as function of temperature	DOUBLEARRAY		-	-	[Ljava.lang.Double;@5409dfdd
constant	cEAR	Ear area/weight ratio	DOUBLE	m2 g-1	-	-	6.3E-4
constant	cEFF	Initial light conversion factor for individual leaves	DOUBLE	g J-1	-	-	1.25E-5
constant	cFLVTB	Table of FLV as function of DVS	DOUBLEARRAY		-	-	[Ljava.lang.Double;@45f9d394
constant	cFRDR	Parameter to determine rate of increase in RDR	DOUBLE		-	-	1.0
constant	cFRTRL	Fraction stem weight eventually translocated to storage organs	DOUBLE		-	-	0.2
constant	cFSHTB	Table of FSH as function of DVS	DOUBLEARRAY		-	-	[Ljava.lang.Double;@1c2d63f0
constant	cFSOTB	Table of FSO as function of DVS	DOUBLEARRAY		-	-	[Ljava.lang.Double;@3a588b5f
constant	cFSTTB	Table of FST as function of DVS	DOUBLEARRAY		-	-	[Ljava.lang.Double;@20b54cfe
constant	cIDVS	Initial development stage	DOUBLE	-	-	-	0.0
constant	cIEAI	Initial ear area index	DOUBLE	m2 m-2	-	-	0.0
constant	cILAI	Initial leaf area index	DOUBLE	m2 m-2	-	-	0.012
constant	cINTC	Interception capacity of precipitation of 1 layer of leaves	DOUBLE	mm d-1	-	-	0.25
constant	cKDF	Extinction coefficient for leaves	DOUBLE	m2 ha-1	-	-	0.6
constant	cLAICR	Critical leaf area index beyond which death to self-shading occurs	DOUBLE	m2 m-2	-	-	4.0
constant	cLAT	latitude	DOUBLE	°	-	-	51.97
constant	cMAINLV	Maintenance respiration coefficient of leaves	DOUBLE	g g-1 d-1	-	-	0.03
constant	cMAINRT	Maintenance respiration coefficient of roots	DOUBLE	g g-1 d-1	-	-	0.015
constant	cMAINSO	Maintenance respiration coefficient of storage organs	DOUBLE	g g-1 d-1	-	-	0.01
constant	cMAINST	Maintenance respiration coefficient of stems	DOUBLE	g g-1 d-1	-	-	0.015
constant	cQ10	Factor accounting for increase in maintenance respiration with a 10 °C rise temperature	DOUBLE		-	-	2.0
constant	cRGRL	Relative growth rate of leaf area during exponential growth	DOUBLE	°C-1 d-1	-	-	0.009
constant	cSCP	Scattering coefficient of leaves for PAR	DOUBLE		-	-	0.2
constant	cSLA	Specific leaf area	DOUBLE	m2 g-1	-	-	0.022
constant	cTBASE	Base temperature for juvenile leaf area growth	DOUBLE	°C	-	-	0.0
constant	cTKL1	Thickness of the soil layer 1	DOUBLE	mm	-	-	200.0
constant	cTREF	Reference temperature	DOUBLE	°C	-	-	25.0
constant	cWCST1	Volumetric water content at saturation in each soil layer	DOUBLE	cm3 cm-3	-	-	0.4
constant	cWLVDI	Initial value for WLVD	DOUBLE	g m-2	-	-	0.0
constant	cWLVI	Initial dry weight of the leaves	DOUBLE	g m-2	-	-	0.5
constant	cWRTI	Initial dry weight of the roots	DOUBLE	g m-2	-	-	0.8
constant	cWSOI	Initial value for WSO	DOUBLE	g m-2	-	-	0.0
constant	cWSTI	Initial value for WST	DOUBLE	g m-2	-	-	0.3
input	iActualTranspiration	Total actual transpiration rate of the canopy	DOUBLE	mm d-1	-	-	0.0
input	iRAIN	Daily precipitation (from AB/TPE weather system)	DOUBLE		-	-	0.0
input	iRDD	Daily solar radiation	DOUBLE	J m-2 d-1	-	-	0.0
input	iTMMN	Daily minimum temperature (from AB/TPE weather system)	DOUBLE	°	-	-	0.0
input	iTMMX	Daily maximum temperature (from AB/TPE weather system)	DOUBLE	°	-	-	0.0
input	iVP	Actual vapour pressure (from AB/TPE weather system)	DOUBLE	kPa	-	-	0.0
input	iWL1	Amount of water in soil compartment 1	DOUBLE	mm	-	-	0.0
input	iWN	Wind speed (from AB/TPE weather system)	DOUBLE	m s-1	-	-	0.0
state	sCumulativePotentialSoilEvaporation	Cumulative potential ecaporatio	DOUBLE	mm	-	-	0.0
state	sCumulativePotentialTranspiration	Cumulative actual soil evaporation	DOUBLE	mm	-	-	0.0
state	sDVS	Development stage of the crop	DOUBLE	-	-	-	0.0
state	sEAI	Ear area index	DOUBLE	m2 m-2	-	-	0.0
state	sLAI	Leaf area index	DOUBLE	m2 m-2	-	-	0.0
state	sTAINTC	Total amount of rainfall intercepted by the canopy	DOUBLE	mm	-	-	0.0
state	sTDTGA	Total gross CO 2 assimilation of the crop	DOUBLE	g m-2	-	-	0.0
state	sTEVAPD	Cumulative potential soil evaporation due to drying power of the air	DOUBLE	mm	-	-	0.0
state	sTEVAPR	Cumulative potential soil evaporation due to radiation	DOUBLE	mm	-	-	0.0
state	sTNASS	Total net CO 2 assimilation	DOUBLE	g m-2	-	-	0.0
state	sTPENM	Cumulative potential evapotranspiration	DOUBLE	mm	-	-	0.0
state	sTRAIN	Total precipitation	DOUBLE	mm	-	-	0.0
state	sWLVD	Dry weight of dead leaves	DOUBLE	g m-2	-	-	0.0
state	sWLVG	Dry weight of green leaves	DOUBLE	g m-2	-	-	0.0
state	sWRT	Dry weight of the roots	DOUBLE	g m-2	-	-	0.0
state	sWSO	Dry weight of storage organs	DOUBLE	g m-2	-	-	0.0
state	sWST	Dry weight of the stems	DOUBLE	g m-2	-	-	0.0
rate	rAINTC	Actual amount of precipitation intercepted by the canopy	DOUBLE	mm d-1	-	-	0.0
rate	rDLV	Death rate of leaves	DOUBLE	g m-2 d-1	-	-	0.0
rate	rDTGA	Daily total gross CO 2 assimilation of the crop	DOUBLE	g m-2 d-1	-	-	0.0
rate	rDVR	Development rate	DOUBLE	d-1	-	-	0.0
rate	rEVAPD	Potential soil evaporation due to drying power of the air	DOUBLE	mm d-1	-	-	0.0
rate	rEVAPR	Potential soil evaporation due to radiation	DOUBLE	mm d-1	-	-	0.0
rate	rGRT	Dry matter growth rate of roots	DOUBLE	g m-2 d-1	-	-	0.0
rate	rGSO	Dry matter growth rate of storage organs	DOUBLE	g m-2 d-1	-	-	0.0
rate	rGST	Dry matter growth rate of stems	DOUBLE	g m-2 d-1	-	-	0.0
rate	rPENMAN	Penman reference value for potential evaporation	DOUBLE	mm d-1	-	-	0.0
rate	rPotentialSoilEvaporation	Potential soil evaporation	DOUBLE	mm d-1	-	-	0.0
rate	rPotentialTranspiration	Potential transpiration rate derived from Penman evaporation	DOUBLE	mm d-1	-	-	0.0
rate	rREAI	Growth rate ear area index	DOUBLE	m2 m-2 d-1	-	-	0.0
rate	rRLAI	Growth rate leaf area index	DOUBLE	m2 m-2 d-1	-	-	0.0
rate	rRTNASS	net CO 2 assimilation rate	DOUBLE	g m-2 d-1	-	-	0.0
rate	rRWLVG	Green leaf growth rate	DOUBLE	g m-2 d-1	-	-	0.0
out	CHKDIF	Difference between carbon added to the crop since initialization and the net total of integrated carbon fluxes, relative to their sum	DOUBLE	g m-2	-	-	0.0
out	CROPF	Crop factor for crop water requirement	DOUBLE		-	-	0.0
out	HI	Harvest index	DOUBLE	g g-1	-	-	0.0
out	TADRW	Total above ground biomass	DOUBLE	g m-2	-	-	0.0
out	TDRW	Total biomass	DOUBLE	g m-2	-	-	0.0
out	TNASSI	Initial value of TNASS	DOUBLE	g m-2	-	-	0.0
out	WLV	Weight of green and dead leaves	DOUBLE	g m-2	-	-	0.0

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

// Public Instance Methods

public HashMap createVariables(); // Defines
net.simplace.simulation.model.FWSimComponent

Create the FWSimVariables as interface for this SimComponent

public void initializeVariables();

// Protected Instance Methods

protected void init(); // Defines
net.simplace.simulation.model.FWSimComponent

Initializes the fields by getting input and output FWSimVariables from VarMap

protected void process(); // Defines
net.simplace.simulation.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.simulation.model.FWSimComponent

creates a clone from this SimComponent for use in other threads

}

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