Package net.simplace.sim.components.soil.hillflow

Class HillFlow1D

java.lang.Object

net.simplace.sim.model.FWSimComponent

net.simplace.sim.components.soil.hillflow.HillFlow1D

All Implemented Interfaces:

net.simplace.sim.util.FWSimFieldContainer

public class HillFlow1D
extends net.simplace.sim.model.FWSimComponent

Hillflow1D is a SimComponent for transient simulations of soil water balance of a multiple layer soil profile (Bronstert & Plate 1997). In contrast to other SimComponents which use a conceptual approach to calculate the soil water balance (e.g. SlimWater) in daily time steps, HIllflow1D is a physically based model where soil water fluxe4s are driven by soil water potential.

References: Bronstert, A., Jürgens, M., 1995. Modellsystem HILLFLOW. Modelldokumentation und Benutzerhandbuch., Institut für Hydrologie und Wasserwirtschaft, Universität Karlsruhe., Karlsruhe, Germany. Bronstert, A., Plate, E.J., 1997. Modelling of runoff generation and soil moisture dynamics for hillslopes and micro-catchments. J. Hydrol. 198, 177-195.

Author:

Axel Bronstert, Gunther Krausss (translation into Java), Thomas Gaiser (Documentation)

Component Variables

Content Type	Name	Description	Data Type	Unit	Min Value	Max Value	Default Value
constant	cBELMANS	If true, Potential Soil Evaporation according to BELMANS is used	BOOLEAN	1	-	-	false
constant	cBINT	Drainage parameter b for calculation interception by RUTTER (0 if unknown)	DOUBLE	1	-	-	0.0
constant	cDIREKT	If true, ETP estimations from an external input file are used	BOOLEAN	1	-	-	false
constant	cDSTO	Drainage rate when interception capacity (INTMAX) is exceeded (required to calculate interception according to RUTTER, 0 if unknown)	DOUBLE	mm/s	-	-	0.0
constant	cDTX	Array of time intervals (event dependent time interval)	INTARRAY	s	-	-	-
constant	cDZF	Depth of the soil layer where lateral subsurface flow occurs	DOUBLE	m	-	-	0.0
constant	cFEUR	ThetaR (residual soil water content after drying) in the subsurface flow layer for vanGenuchten equation	DOUBLE	cubic_metre_per_cubic_metre	-	-	-
constant	cGALPHA	Parameter alfa in the subsurface flow layer for the vanGenuchten equation	DOUBLE	reciprocal_metre	-	-	-
constant	cGenAlfa	Parameter alfa for each soil layer for vanGenuchten equation	DOUBLEARRAY	m-1	-	-	-
constant	cGenDeltaTheta	Resolution of theta for pre-calculating and storing the vanGenuchten values	DOUBLE	m3/m3	-	-	0.01
constant	cGenN	Parameter n for each soil layer for vanGenuchten equation	DOUBLEARRAY	1	-	-	-
constant	cGenThetaR	ThetaR (residual soil water content after drying) for each soil layer for vanGenuchtens equation	DOUBLEARRAY	m3/m3	-	-	-
constant	cHAUDE	If true, Reference ET according to HAUDE is used	BOOLEAN	1	-	-	false
constant	cHLIM1	Pressure head at which transpiration reduction factor is 0 due to extreme excess of water	DOUBLE	m	-	-	0.0
constant	cHLIM2	Pressure head below which transpiration reduction factor reaches 1 (optimum water uptake). When not set by the user, it will be calculated (default)	DOUBLE	m	-	-	-
constant	cHLIM3H	Pressure head below which transpiration reduction factor starts getting below 1 due to drought (for high potential transpiration conditions)	DOUBLE	m	-	-	-
constant	cHLIM3L	Pressure head below which transpiration reduction factor starts getting below 1 due to drought (for low potential transpiration conditions)	DOUBLE	m	-	-	-
constant	cHLIM4	Pressure head below which transpiration reduction factor reaches 0 due to extreme drought	DOUBLE	m	-	-	-150.0
constant	cHOMAX	limit at which infiltration surplus runs off	DOUBLE	mm/h	-	-	-
constant	cHZMAX	limit at which subsurface flow occurs	DOUBLE	mm	-	-	-
constant	cIBU	Switch for lower soil boundary: 0=no flow, 1=constant, 2=free flow	INT	1	-	-	-
constant	cINTMAX	maximum interception capacity of the vegetation in mm	DOUBLE	mm	-	-	0.0
constant	cIQO	Switch for infiltration surplus method: 0=complete runoff, 1=no runoff, 2=runoff up to QOCONST, 3=runoff if greater than HOMAX	INT	1	-	-	-
constant	cIQZ	Switch for subsurface flow method: 0=complete runoff, 1=no runoff, 2=runoff up to QZCONST, 3=runoff if greater than HZMAX	INT	1	-	-	-
constant	cIROOT	switch for distribution of roots per layer: 1=uniform(FEDDES), 2=triangle(PRADAS), 3=trapez(VGENUCHTEN), 4=as input from other module	INT	1	-	-	-
constant	cIZVARY	Switch whether soil layer thickness is considered to be Constant(=0) or variable(=1)	INT	1	-	-	0
constant	cKSAT	Saturated hydraulic conductivity for each soil layer	DOUBLEARRAY	m/s	-	-	-
constant	cKcomp	Compensatory hydraulic conductivity	DOUBLE	d-1	-	-	2.0E-6
constant	cKrs	Hydraulic conductance from soil to leaf	DOUBLE	d-1	8.0E-6	6.0E-5	8.0E-6
constant	cLABIZEPT	switch for interception calculation: 0=no interception, 1=constant interception, 2=Rutter-model	INT	1	-	-	0
constant	cLayerDepth	Depth of the bottom of each soil layer after soil layer transformation	DOUBLEARRAY	m	-	-	-
constant	cMAKKINK	If true, Reference ET according to MAKKINK is used	BOOLEAN	1	-	-	false
constant	cMESSUNG	If true, Reference ET is approximated from measurements of potential evapotranspiration in an external input file	BOOLEAN	1	-	-	false
constant	cMONTEITH	If true, Reference ET according to MONTEITH is used	BOOLEAN	1	-	-	false
constant	cMinimalTimeStep	Minimal time step for calculation of vertical water flows in the soil matrix	DOUBLE	s	1.0E-5	3600.0	0.1
constant	cMixingEfficiency	Mixing efficiency	DOUBLE	-	0.0	1.0	0.0
constant	cNGENU	Parameter n in the subsurface flow layer for the vanGenuchten equation	DOUBLE	1	-	-	-
constant	cPsiLeafThreshold	Threshold of leaf water potential (specific for plant)	DOUBLE	m	-200.0	-150.0	-160.0
constant	cQOCONST	maximum of runoff	DOUBLE	mm/h	-	-	-
constant	cQZCONST	maximum of subsurface flow	DOUBLE	mm	-	-	-
constant	cRITCHIE	If true, Potential Soil Evaporation according to RITCHIE is used	BOOLEAN	1	-	-	false
constant	cRainInterval	Time intervall between precipitation measurements in seconds	INT	s	-	-	-
constant	cTHETAO	Initial volumetric water content	DOUBLEARRAY	m3/m3	-	-	-
constant	cTHETAS	Volumetric water content at saturation for each layer	DOUBLEARRAY	m3/m3	-	-	-
constant	cTHETBU	Initial volumetric water content at the bottom	DOUBLE	m3/m3	-	-	-
constant	cTillageDepth	Depth of tillage	DOUBLE	m	0.0	-	0.0
constant	cTopsoilDepth	depth of topsoil	DOUBLE	m	-	-	0.9
constant	cVMA	Macropore volume in the subsurface flow layer	DOUBLE	m3/m3	-	-	-
constant	cWaterUptakeMethod	Which method to use (Feddes (default), Couvreur)	CHAR		-	-
input	iActualPrecipitationHeight	actual precipitation height	DOUBLEARRAY	mm	-	-	-
input	iActualPrecipitationTime	time in seconds of day when the precipitation is measured	INTARRAY	s	-	-	-
input	iBBG	soil cover rate with plants (calculating interception by RUTTER)	DOUBLE	1	-	-	-
input	iDoInitialize	if true component will be reset to initial state	BOOLEAN	1	-	-	false
input	iDoTillage	Triggers tillage	BOOLEAN	-	-	-	false
input	iDynamicWaterTableDepth	depth of the watertable, all layers below will be kept at saturation	DOUBLE	m	0.0	-	Infinity
input	iFACPL	plant factor for calculating evapotranspiration by MAKKINK or HAUDE	DOUBLE	1	-	-	-
input	iLAI	Leaf area index	DOUBLE	1	-	-	-
input	iLpl	plant height in cm	DOUBLE	cm	-	-	-
input	iOpenPanEvaporation	Measured open pan evapotranspiration	DOUBLE	1	-	-	-
input	iPHI	relative humidity	DOUBLE	1	-	-	-
input	iPropertiesChanged	True if properties have changed from previous day	BOOLEAN	-	-	-	false
input	iReferenceCropEvapotranspiration	Reference Evapotranspiration per day	DOUBLE	mm	-	-	-
input	iRelativeRootLengthPerLayer	relative root length per layer	DOUBLEARRAY	1	0.0	1.0	-
input	iRg	global solar radiation	DOUBLE	W/m2	-	-	-
input	iRn	net solar radiation in W/m**2	DOUBLE	W/m2	-	-	-
input	iRootRestrictionFactor	root restriction factor due to root density and aging	DOUBLEARRAY	m	0.0	20.0	-
input	iTEMP	air temperature	DOUBLE	°C	-	-	-
input	iWIND2	wind speed at 2m height	DOUBLE	m/s	-	-	-
input	iWaterLoggingDepth	depth up to which upper layers are at saturation due to water logging	DOUBLE	m	0.0	-	0.0
input	iZROOT	Depth of roots in m	DOUBLE	m	-	-	-
state	rWaterSurplusFromDynamicWaterTable	daily water inflow from below to keep layers below water table at saturation	DOUBLEARRAY	mm/d	-	-	-
state	rWaterSurplusFromWaterLogging	daily water inflow from above to keep top layer(s) at saturation	DOUBLEARRAY	mm/d	-	-	-
state	sDMF	Depth of the soil layer where lateral subsurface flow occurs	DOUBLE	m	-	-	-
state	sDRYDAY	Number of days without rain	INT	1	-	-	-
state	sDT	Current time step	INT	s	-	-	-
state	sDTH	Resolution of theta for calculating soil water tensions	DOUBLEARRAY	m3/m3	-	-	-
state	sDTMAX	Largest time step for simulations	DOUBLE	1	-	-	0.0
state	sDTOLD	Previous time step	INT	s	-	-	-
state	sDZ	Thickness of soil layer	DOUBLEARRAY	m	-	-	-
state	sDZFNEU	Thickness of the subsurface flow layer as a multiple NZF of the thickness of the first soil layer	DOUBLE	m	-	-	-
state	sDZM	Depth of the top layer assuming constant thickness of layers	DOUBLE	m	-	-	-
state	sETPACT	Internal variable to calculate actual evapotransporation (m per second) as sum of TRAACT and EVAACT	DOUBLE	m/s	-	-	-
state	sETPPOT	Internal variable for VETPOT (m per second), caution: if interception then ETPPOT=VEVPOT-Interception;	DOUBLE	m/s	-	-	-
state	sEVAACT	Actual evaporation from soil surface in m per second	DOUBLE	m/s	-	-	-
state	sEVAPOT	Internal potential evaporation from the soil surface in m per second	DOUBLE	m/s	-	-	-
state	sFAV	Daily vertical flux (FLV) from one soil layer to the adjacent soil layers divided by NT	DOUBLEARRAY	m	-	-	-
state	sFEU	Average volumetric water content in the subsurface flow layer (average over all elemnts within this layer)	DOUBLE	m3/m3	-	-	-
state	sFEUS	Volumetric water content at saturation in the subsurface flow layer	DOUBLE	m3/m3	-	-	-
state	sFLV	Daily vertical flux from one soil layer to the adjacent soil layers	DOUBLEARRAY	m	-	-	-
state	sH	Water level (inundation depth) at the soil surface before each time step	DOUBLE	m	-	-	-
state	sH1	Water level (inundation depth) at the soil surface after each time step	DOUBLE	m	-	-	-
state	sHZ	Water level in the subsurface flow layer before each time step	DOUBLE	m	-	-	-
state	sHZ1	Water level in the subsurface flow layer after each time step	DOUBLE	m	-	-	-
state	sIDTACT	Code of the four possible time steps (DTX) as defined by the user in the control.xml file	INT	1	-	-	-
state	sINF	Total amount of water (INFMIK+INFMAK) infiltrating at the soil surface (?) per time step DT in m per second	DOUBLE	m/s	-	-	-
state	sINFEX	Infiltration excess is the excess of net precipitation which can not infiltrate into the soil at the soil surface per time step DT in m per second	DOUBLE	m/s	-	-	-
state	sINFMAK	Amount of water infiltrating into the macro-pores of the soil at the soil surface (?) per time step DT in m per second	DOUBLE	m/s	-	-	-
state	sINFMIK	Amount of water infiltrating into the pores in the soil matrix at the soil surface (?) per time step DT in m per second	DOUBLE	m/s	-	-	-
state	sINTACT	Amount of water in the interception pool at the beginning of each day	DOUBLE	m	-	-	-
state	sINTENS	Rainfall intensity in m per day	DOUBLE	m/d	-	-	-
state	sINTEVAP	Direct evaporation of water from the interception pool (leaves and stems) per time step DT	DOUBLE	m/s	-	-	-
state	sMAEX	Matrix excess (water which can not infiltrate from the macropores to the micropores) within the subsurface flow layer per time step DT in m per second	DOUBLE	m/s	-	-	-
state	sMAINF	Infiltration rate into the soil matrix within the subsurface flow layer (?) per time step DT in m per second	DOUBLE	m/s	-	-	-
state	sNDT	total number of time steps DTX	INT	1	-	-	-
state	sNETRAIN	Net precipitation (rain minus interception) in m per second	DOUBLE	m/s	-	-	-
state	sNSOIL	Index numbers of a the soil layer (array starts with 0)	INTARRAY	1	-	-	-
state	sNT	Is equal to 1 or a multiple of the actual time step (DTORG/DTACT)	INT	1	-	-	-
state	sNZDTM	Total number of soil layers	INT	1	-	-	-
state	sNZF	Number of soil layers in the interflow layer	INT	1	-	-	-
state	sNZR	Number of layers with roots	INT	1	-	-	-
state	sOUTFL	temporary variable for outflow rate from one soil layer to the adjacent layer	DOUBLE	mm	-	-	0.0
state	sQOUT	Surface run off (=matrix excess at the soil surface INFEX)	DOUBLE	m/s	-	-	-
state	sQOUTZ	Subsurface run off (outflow from of the subsurface flow layer=Matrix excess in the subsurface flow layer	DOUBLE	m/s	-	-	-
state	sRAIN	Internal amount of rainfall per time step in m per second	DOUBLE	m/s	-	-	-
state	sSINTEV	Daily evaporation of water from the interception pool (leaves and stems)	DOUBLE	m	-	-	-
state	sSLASTR	Sum of last rainfall event	DOUBLE	mm	-	-	-
state	sSUMIEX	Sum of infiltration excess at the soil surface per day	DOUBLE	m	-	-	-
state	sSUMINF	Sum of infitration at the soil surface per day	DOUBLE	m	-	-	-
state	sSUMINT	Amount of water in the interception pool at the end of each day	DOUBLE	m	-	-	-
state	sSUMMEX	Matrix excess within the subhsurface flow layer per day (sum of MAINF)	DOUBLE	m	-	-	-
state	sSUMMIN	Infiltration rate into the matrix of the subsurface flow layer per day (sum of MAEX)	DOUBLE	m	-	-	-
state	sSUMNETR	Daily sum of net precipitation in m	DOUBLE	m	-	-	-
state	sSUMRAIN	Daily sum of rainfall in m	DOUBLE	m	-	-	-
state	sSUMTHEO	Amount of water in a layer at start of simulation (temporary variable)	DOUBLE	mm	-	-	-
state	sT	Current Time	INT	s	-	-	-
state	sTHETA	Currrent volumetric water content in a layer	DOUBLEARRAY	m3/m3	0.0	0.65	-
state	sTHETA1	Currrent volumetric water content in a layer (temporary variable)	DOUBLEARRAY	m3/m3	0.0	0.65	-
state	sTLASTR	Time in seconds since last rainfall event occured	INT	s	-	-	-
state	sTRAACS	Actual crop transpiration from a soil layer IZ in m per second	DOUBLEARRAY	m/s	-	-	-
state	sTRAACT	Actual crop transpiration in m per second	DOUBLE	m/s	-	-	-
state	sTRAACTSub	Actual crop transpiration from subsoil layers (defined as all soil layers below TopsoilDepth) in m per second	DOUBLE	m/s	-	-	-
state	sTRAACTTop	Actual crop transpiration from topsoil layers (defined by constant TopsoilDepth) in m per second	DOUBLE	m/s	-	-	-
state	sTRAPOS	Potential crop transpiration from a soil layer IZ in m per second	DOUBLEARRAY	m/s	-	-	-
state	sTRAPOT	Potential crop transpiration in m per second	DOUBLE	m/s	-	-	-
state	sTranspReductionFactorPerLayerScaled	Crop transpiration reduction factor at the last subdaily timestep from a soil layer IZ scaled from -1 to 1 where: -1=FullReduction due to drought, 0=NoReduction, 1=Full reduction due to saturation	DOUBLEARRAY	-1 to 1	-	-	-
state	sTranspReductionPerLayerDry	Daily crop transpiration reduction from a soil layer IZ due to dry conditions according to Feddes (e.g., PSI < HLIM3)	DOUBLEARRAY	mm	-	-	-
state	sTranspReductionPerLayerWet	Daily crop transpiration reduction from a soil layer IZ due to wet conditions according to Feddes (e.g., PSI > HLIM2)	DOUBLEARRAY	mm	-	-	-
state	sVETPOT	Internal reference crop evaporation according to Haude, Makkink or Monteith-Rijtma or input variable in m per second	DOUBLE	m/s	-	-	-
state	sVEVPOT	Potential evaporation from the soil surface according to Belmans or Ritchie in m per second	DOUBLE	m/s	-	-	-
state	sWaterSurplusFromDynamicWaterTable	Water surplus due to (dynamic) water table above soil depth	DOUBLEARRAY	mm	-	-	-
state	sWaterSurplusFromWaterLogging	Water surplus due to water logging	DOUBLEARRAY	mm	-	-	-
rate	rTRAACSRedDry	Crop transpiration reduction rate due to dry conditions at the last subdaily timestep from a soil layer IZ in m per second	DOUBLEARRAY	m/s	-	-	-
rate	rTRAACSRedWet	Crop transpiration reduction rate due to wet conditions at the last subdaily timestep from a soil layer IZ in m per second	DOUBLEARRAY	m/s	-	-	-
out	ActualEvapotranspiration	Sum of ActualEvaporation and ActualTranspiration	DOUBLE	mm	-	-	-
out	ActualSoilEvaporation	Actual soil evaporation as affected by potential evporation and soil mositure in the upper soil layers	DOUBLE	mm	-	-	-
out	ActualTranspiration	Actual crop transpiration as affected by crop water demand and crop available soil water	DOUBLE	mm	-	-	-
out	ActualTranspirationSubsoil	Actual crop transpiration from subsoil layers	DOUBLE	mm	-	-	-
out	ActualTranspirationTopsoil	Actual crop transpiration from topsoil layers	DOUBLE	mm	-	-	-
out	BottomFlow	Daily amount of deep percolation below the profile depth (equal to FLUXU)	DOUBLE	mm	-	-	-
out	DrynessFactor	Dryness factor in each layer (input to SlimRoots)	DOUBLEARRAY	1	-	-	-
out	FLUXU	Daily amount of deep percolation below the profile depth	DOUBLE	1	-	-	-
out	FieldCapacity	FieldCapacity	DOUBLEARRAY	m3/m3	-	-	-
out	Infiltration	Daily amount of infiltrated water at the soil surface (mm)	DOUBLE	mm	-	-	-
out	LayerFlow	Daily vertical flow from a soil layer into the adjacent soil layers	DOUBLEARRAY	mm	-	-	-
out	LayerFlowIn	Daily vertical flow into a soil layer from the adjacent soil layers	DOUBLEARRAY	mm	-	-	-
out	LessMobileWater	Total amount of less mobile water (WR-WHT15R) in each layer (only used for solute transport) (mm)	DOUBLEARRAY	mm	-	-	-
out	MobileWater	Daily amount of mobile water (WM) in each soil layer (mm)	DOUBLEARRAY	mm	-	-	-
out	PotentialSoilEvaporation	Potential soil evaporation (provided by other SimComponents e.g. CropEvapoTranspirationDualCoeff.java)	DOUBLE	mm	-	-	-
out	PotentialTranspiration	Potential crop transpiration (provided by other SimComponents e.g. CropEvapoTranspirationDualCoeff.java)	DOUBLE	mm	-	-	-
out	PsiLeaf	Leaf water potential (pressure head of leaf) (hourly)	DOUBLEARRAY	m	-	-	-
out	PsiRoot	Soil to root water potential (pressure head of root) (hourly)	DOUBLEARRAY	m	-	-	-
out	QOMAX	Daily maximum surface run off rate	DOUBLE	mm/s	-	-	-
out	QOSUM	Daily amount of surface run off in mm	DOUBLE	mm	-	-	-
out	QZMAX	Daily maximum subsurface run off rate	DOUBLE	mm/s	-	-	-
out	QZSUM	Daily amount of subsurface run off in mm	DOUBLE	mm	-	-	-
out	RainInterception	-	DOUBLE	m	-	-	-
out	ReducedCropExtractionPoint	ReducedCropExtractionPoint	DOUBLEARRAY	m3/m3	-	-	-
out	RetainedWater	Daily amount of retained water (WR) in each soil layer (mm)	DOUBLEARRAY	mm	-	-	-
out	RootWaterUptakePerLayer	Root water uptake per layer (daily)	DOUBLEARRAY	mm/d	-	-	-
out	SUETAC	Actual evapotranspiration in mm per day (equal to SimVariable 'ActualEvapotranspiration')	DOUBLE	mm	-	-	-
out	SUETPO	Potential Evapotranspiration in mm per day	DOUBLE	mm	-	-	-
out	SUEVAC	Actual soil evaporation in mm per day (equal to SimVariable 'ActualSoilEvaporation')	DOUBLE	mm	-	-	-
out	SUEVPO	Potential soil evaporation in mm day (equal to SimVariable 'PotentialSoilEvaporation')	DOUBLE	mm	-	-	-
out	SUEVRE	Actual evaporation in mm per day after reduction due to low soil water content in topsoil layer (only applicable when open pan evapioration is used ?)	DOUBLE	mm	-	-	-
out	SUTRAC	Actual crop transpiration in mm per day (equal to SimVariable 'ActualTranspiration')	DOUBLE	mm	-	-	-
out	SUTRPO	Potential crop transpiration in mm per day (equal to SimVariable 'PotentialTranspiration')	DOUBLE	mm	-	-	-
out	SUTTRE	Actual transpiration in mm per day after reduction due to low soil water content in individual layers (only applicable when open pan evapioration is used ?)	DOUBLE	mm	-	-	-
out	SubsurfaceFlow	Daily amouont of subsurface run off (equal to QZSUM)	DOUBLE	mm	-	-	-
out	SurfaceFlow	Daily amount of surface run off in mm (equal to QOSUM)	DOUBLE	mm	-	-	-
out	SurfaceFlowDueToSoilSettling	Daily amount of surface run off in mm due to reduced saturation by soil settling	DOUBLE	mm	-	-	-
out	TotalAvailWater	Sum of mobile and retained water in each layer (Soil available water)(mm)	DOUBLEARRAY	mm	-	-	-
out	TotalAvailWaterVolumetric	Volumetric water content equivalent for the sum of mobile and retained water in each layer	DOUBLEARRAY	m3/m3	-	-	-
out	TotalWater	Total water content in each soil layer (mm)	DOUBLEARRAY	mm	-	-	-
out	TotalWaterInProfile	Total water content over all soil layers (mm)	DOUBLE	mm	-	-	-
out	TotalWaterInProfileVolumetric	Average cvolumetric water content over all layers in the soil profile	DOUBLE	m3/m3	-	-	-
out	TotalWaterVolumetric	Volumetric total water content in each soil layer	DOUBLEARRAY	m3/m3	-	-	-
out	TranspReductionDry	Reduction in crop transpiration due to dry conditions according to Feddes (e.g., PSI < HLIM3)	DOUBLE	mm	-	-	-
out	TranspReductionWet	Reduction in crop transpiration due to wet conditions according to Feddes (e.g., PSI > HLIM2)	DOUBLE	mm	-	-	-
out	WFR	Amount of less mobile water in each layer not available for upward movement of solutes or water (see explanation and use in SlimNitrogen)	DOUBLEARRAY	mm	-	-	-
out	WHT15R	Retained water below 0.5*wilting point in each layer not available for movement of solutes	DOUBLEARRAY	mm	-	-	-
out	WR33	Amount of retained water in finer pores of each layer available for upward movement of solutes or water (see explanation and use in SlimNitrogen)	DOUBLEARRAY	mm	-	-	-
out	WRH	Retained water at field capacity in each soil layer	DOUBLEARRAY	mm	-	-	-
out	WaterBalance	WaterBalance	DOUBLE	mm	-	-	0.0
out	WiltingPoint	WiltingPoint	DOUBLEARRAY	m3/m3	-	-	-

Nested Class Summary

Nested classes/interfaces inherited from class net.simplace.sim.model.FWSimComponent

net.simplace.sim.model.FWSimComponent.TEST_STATE

Field Summary

Fields inherited from class net.simplace.sim.model.FWSimComponent

iFieldMap, iFrequence, iInputMap, iJexlRule, iMasterComponentGroup, iName, iOrderNumber, isComponentGroup, iSimComponentElement, iSimModel, iVarMap

Constructor Summary

Constructors

Constructor	Description
HillFlow1D()

Method Summary

Modifier and Type	Method	Description
protected net.simplace.sim.model.FWSimComponent	clone(net.simplace.sim.util.FWSimVarMap aVarMap)
HashMap<String,net.simplace.sim.util.FWSimVariable<?>>	createVariables()	Create the FWSimVariables as interface for this SimComponent
HashMap<String,net.simplace.sim.util.FWSimVariable<?>>	fillTestVariables(int aParamIndex, net.simplace.sim.model.FWSimComponent.TEST_STATE aDefineOrCheck)	called for single component test to check the components algorithm.
protected void	init()	Initializes the fields by getting input and output FWSimVariables from VarMap
protected void	initializeVariables()
protected void	process()
protected void	reset()	Initializes the fields by getting input and output FWSimVariables from VarMap

Methods inherited from class net.simplace.sim.model.FWSimComponent

addVariable, bind, checkCondition, createSimComponent, createSimComponent, createSimComponent, createSimComponent, doProcess, getConstantVariables, getContentType, getCreateFormXML, getDescription, getEditFormXML, getFieldMap, getFrequence, getFrequenceRuleScript, getInputs, getInputVariables, getMasterComponentGroup, getName, getOrderNumber, getOutputVariables, getVariable, getVariableField, getVarMap, initialize, isConditionCheck, isVariableAvailable, performLinks, performLinks, readInputs, removeVariable, reset, runComponentTest, setVariablesDefault, toComponentLinkingXML, toDocXML, toGroupXML, toOutputDefinitionXML, toResourcesDataXML, toResourcesDefinitionXML, toString, toXML, writeVarInfos

Methods inherited from class java.lang.Object

clone, equals, finalize, getClass, hashCode, notify, notifyAll, wait, wait, wait

Constructor Details

HillFlow1D

public HillFlow1D()

Method Details

createVariables

public HashMap<String,net.simplace.sim.util.FWSimVariable<?>> createVariables()

Create the FWSimVariables as interface for this SimComponent

Specified by:

createVariables in interface net.simplace.sim.util.FWSimFieldContainer

Specified by:

createVariables in class net.simplace.sim.model.FWSimComponent

See Also:

• FWSimComponent.createVariables()

init

protected void init()

Initializes the fields by getting input and output FWSimVariables from VarMap

Specified by:

init in class net.simplace.sim.model.FWSimComponent

See Also:

• FWSimComponent.init()

initializeVariables

protected void initializeVariables()

reset

protected void reset()

Initializes the fields by getting input and output FWSimVariables from VarMap

See Also:

• FWSimComponent.init()

process

protected void process()

Specified by:

process in class net.simplace.sim.model.FWSimComponent

clone

protected net.simplace.sim.model.FWSimComponent clone(net.simplace.sim.util.FWSimVarMap aVarMap)

Specified by:

clone in class net.simplace.sim.model.FWSimComponent

fillTestVariables

public HashMap<String,net.simplace.sim.util.FWSimVariable<?>> fillTestVariables(int aParamIndex,
 net.simplace.sim.model.FWSimComponent.TEST_STATE aDefineOrCheck)

called for single component test to check the components algorithm.

Specified by:

fillTestVariables in class net.simplace.sim.model.FWSimComponent

See Also:

• net.simplace.sim.util.FWSimFieldContainer#fillTestVariables(int aParamIndex, TEST_STATE aDefineOrCheck)