public static void Initialize(IInputParameters parameters)
{
AET = parameters.AET;
FolLignin = parameters.FolLignin;
KNwdLitter = GetKNwdLitter();
}
public VarEcoregionSpeciesDate(string label, DateTime[] DateRange)
{
values = new VarEcoregionSpecies <VarDate <T> >(label);
foreach (ISpecies s in PlugIn.modelCore.Species)
{
foreach (IEcoregion eco in PlugIn.ModelCore.Ecoregions)
{
values[eco, s] = new VarDate <T>(label, DateRange);
}
}
}
private static VarEcoregionSpecies <float> GetWiltingPoint(IInputParameters Parameters)
{
wiltingpoint_mm = new VarEcoregionSpecies <float>("wiltingpoint_mm");
foreach (IEcoregion ecoregion in PlugIn.ModelCore.Ecoregions)
{
foreach (ISpecies spc in PlugIn.modelCore.Species)
{
wiltingpoint_mm[ecoregion, spc] = Parameters.WltPnt[spc] * Parameters.WHC[ecoregion];
}
}
return(wiltingpoint_mm);
}
//---------------------------------------------------------------------
/// <summary>
/// Adds some biomass for a species to the LITTER pools at a site.
/// </summary>
public static VarEcoregionSpecies <double> GetKNwdLitter()
{
KNwdLitter = new VarEcoregionSpecies <double>("KNwdLitter");
foreach (IEcoregion ecoregion in PlugIn.ModelCore.Ecoregions)
{
double siteAET = (double)AET[ecoregion];
foreach (ISpecies spc in PlugIn.modelCore.Species)
{
//Calculation of decomposition rate for species litter cohort
// Decay rate from Meentemeyer 1978. Ecology 59: 465-472.
KNwdLitter[ecoregion, spc] = 1.0 / 12.0 * (-0.5365 + (0.00241 * siteAET)) - (((-0.01586 + (0.000056 * siteAET)) * FolLignin[spc] * 100));
}
}
return(KNwdLitter);
}
public static void InitializeStatic(IInputParameters Parameters)
{
climateFileName = Parameters.climateFileName;
DateRange = GetDataRange();
possibleestmonth = new VarEcoregionSpeciesDate <bool>("PossibleEstmonth", DateRange);
newsnow = new VarEcoregionDate <float>("newsnow", DateRange);
maxmonthlysnowmelt = new VarEcoregionDate <float>("maxmonthlysnowmelt", DateRange);
precin = new VarEcoregionDate <float>("precin", DateRange);
tmax = new VarEcoregionDate <float>("tmax", DateRange);
tmin = new VarEcoregionDate <float>("tmin", DateRange);
tday = new VarEcoregionDate <float>("tday", DateRange);
par0 = new VarEcoregionDate <float>("par0", DateRange);
tave = new VarEcoregionDate <float>("tave", DateRange);
prec = new VarEcoregionDate <float>("prec", DateRange);
vpd = new VarEcoregionDate <float>("vpd", DateRange);
ftemppsn = new VarEcoregionSpeciesDate <float>("dtemppsn", DateRange);
refresp = new VarEcoregionSpeciesDate <float>("refresp", DateRange);
fTempResp = new VarEcoregionSpeciesDate <float>("dTempResp", DateRange);
fTempRespDay = new VarEcoregionSpeciesDate <float>("dTempRespDay", DateRange);
wue_co2_corr = new VarEcoregionSpeciesDate <float>("wue_co2_corr", DateRange);
dvpd = new VarEcoregionSpeciesDate <float>("dvpd", DateRange);
leaf_on = new VarEcoregionSpeciesDate <bool>("leaf_on", DateRange);
gdd = new VarEcoregionSpeciesDate <float>("gdd", DateRange);
hdd = new VarEcoregionSpeciesDate <float>("hdd", DateRange);
refnetpsn = new VarEcoregionSpeciesDate <float>("refnetpsn", DateRange);
foreach (IEcoregion ecoregion in PlugIn.ModelCore.Ecoregions)
{
if (ecoregion.Active == false)
{
continue;
}
if (TryCopyVarsFromOtherEcoRegion(ecoregion))
{
PlugIn.ModelCore.UI.WriteLine(" Copied static climate data for ecoregion " + ecoregion);
continue;
}
PlugIn.ModelCore.UI.WriteLine(" Initializing static climate data for ecoregion " + ecoregion + " from " + Parameters.climateFileName[ecoregion]);
string[] Content = ReadContent(climateFileName[ecoregion]);
SetClimateFileHeaders(Content[0]);
wiltingpoint_mm = GetWiltingPoint(Parameters);
DateTime date = DateRange[0];
while (date.CompareTo(DateRange[1]) <= 0)
{
// GetLine checks if year/month according to the loop is equal to the date read in
string[] terms = GetLine(date.Year, date.Month, Content).Split((char[])null, System.StringSplitOptions.RemoveEmptyEntries);
if (terms.Count() != ColumnCount)
{
throw new System.Exception("Unexpected number of columns in " + Parameters.climateFileName + " date = " + date);
}
if (date.Year < GetYearFrom4charOr9charString(terms[0], FirstLastYear.First) ||
date.Year > GetYearFrom4charOr9charString(terms[0], FirstLastYear.Last) ||
int.Parse(terms[1]) != date.Month)
{
throw new System.Exception("Missing month " + date + " in climate file");
}
try
{
tmax[ecoregion, date] = CheckInputValue(float.Parse(terms[ColumnNumbers.TMax]), -80, 80, "TMax");
tmin[ecoregion, date] = CheckInputValue(float.Parse(terms[ColumnNumbers.TMin]), -80, tmax[ecoregion, date], "TMin");
float co2 = CheckInputValue(float.Parse(terms[ColumnNumbers.CO2]), 0, float.MaxValue, "CO2");
par0[ecoregion, date] = CheckInputValue(float.Parse(terms[ColumnNumbers.PAR0]), 0, float.MaxValue, "PAR0");
prec[ecoregion, date] = CheckInputValue(float.Parse(terms[ColumnNumbers.Prec]), 0, float.MaxValue, "PREC");
float hr = Calculate_hr(date.DayOfYear, Parameters.Latitude);
float daylength = Calculate_DayLength(hr);
float nightlength = Calculate_NightLength(hr);
int dayspan = Calculate_DaySpan(date.Month);
tave[ecoregion, date] = (float)0.5 * (tmin[ecoregion, date] + tmax[ecoregion, date]);
tday[ecoregion, date] = (float)0.5 * (tmax[ecoregion, date] + tave[ecoregion, date]);
vpd[ecoregion, date] = Calculate_VPD(Tday[ecoregion, date], TMin[ecoregion, date]);
float snowfraction = CumputeSnowFraction(tave[ecoregion, date]);
newsnow[ecoregion, date] = snowfraction * prec[ecoregion, date];//mm
maxmonthlysnowmelt[ecoregion, date] = 0.15f * Math.Max(1, Tave[ecoregion, date]) * dayspan;
PrecIn[ecoregion, date] = (1 - snowfraction) * prec[ecoregion, date];
foreach (ISpecies spc in PlugIn.ModelCore.Species)
{
float dGDD = Math.Max(0, (Tave[ecoregion, date] - Parameters.PsnTMin[spc]) * dayspan);
if (date.Month == 1)
{
gdd[ecoregion, spc, date] = dGDD;
}
else
{
DateTime last_month = date.AddMonths(-1);
gdd[ecoregion, spc, date] = gdd[ecoregion, spc, last_month] + dGDD;
}
float dHDD = Math.Max(0, (Parameters.PsnTOpt[spc] - tmin[ecoregion, date]) * dayspan);
if (date.Month <= 8)
{
hdd[ecoregion, spc, date] = 0;
}
else
{
DateTime last_month = date.AddMonths(-1);
hdd[ecoregion, spc, date] = hdd[ecoregion, spc, last_month] + dHDD;
}
if (StaticVariables.GDD[ecoregion, spc, date] < Parameters.GDDFolSt[spc] || StaticVariables.HDD[ecoregion, spc, date] > Parameters.CDDFolEnd[spc])
{
Leaf_On[ecoregion, spc, date] = false;
}
else //if (StaticVariables.HDD[ecoregion, spc, date] > Parameters.CDDFolEnd[spc] && Leaf_On[ecoregion, spc, date] == true)
{
Leaf_On[ecoregion, spc, date] = true;
}
//ftemppsn[date, spc] = ParabolicPsnTempResponse(tday[ecoregion, date], Parameters.PsnTOpt[spc], Parameters.PsnTMin[spc]);
ftemppsn[ecoregion, spc, date] = LinearPsnTempResponse(tday[ecoregion, date], Parameters.PsnTOpt[spc], Parameters.PsnTMin[spc]);
dvpd[ecoregion, spc, date] = Math.Max(0, 1 - Parameters.DVPD1[spc] * (float)Math.Pow(vpd[ecoregion, date], Parameters.DVPD2[spc]));
float cicaRatio = (-0.075f * Parameters.FolN[spc]) + 0.875f;
float ci350 = 350 * cicaRatio;
float Arel350 = 1.22f * ((ci350 - 68) / (ci350 + 136));
float ciElev = co2 * cicaRatio;
float ArelElev = 1.22f * ((ciElev - 68) / (ciElev + 136));
float delamax = 1 + ((ArelElev - Arel350) / Arel350);
// CO2 effect on photosynthesis
// Calculate CO2 effect on conductance and set slope and intercept for A-gs relationship
float Delgs = delamax / ((co2 - co2 * cicaRatio) / (350.0f - ci350));
//wue[ecoregion, spc, date] = (Parameters.WUEcnst[spc] / vpd[ecoregion, date]) * (1 + 1 - Delgs); //DWUE determined from CO2 effects on conductance
float wue = (Parameters.WUEcnst[spc] / vpd[ecoregion, date]) * (1 + 1 - Delgs); //DWUE determined from CO2 effects on conductance
wue_co2_corr[ecoregion, spc, date] = wue / delamax;
// NETPSN
float amax = delamax * (Parameters.AmaxA[spc] + Parameters.AmaxB[spc] * Parameters.FolN[spc]);
//Reference net Psn (lab conditions)
RefNetPsn[ecoregion, spc, date] = dayspan * (amax * dvpd[ecoregion, spc, date] * daylength * Constants.MC) / Constants.billion;
fTempRespDay[ecoregion, spc, date] = ((float)Math.Pow(Parameters.Q10[spc], (Tday[ecoregion, date] - Parameters.PsnTOpt[spc]) / 10));
float fTempRespNight = ((float)Math.Pow(Parameters.Q10[spc], (TMin[ecoregion, date] - Parameters.PsnTOpt[spc]) / 10));
fTempResp[ecoregion, spc, date] = (float)Math.Min(1.0, (fTempRespDay[ecoregion, spc, date] * daylength + fTempRespNight * nightlength) / ((float)daylength + (float)nightlength));
// gC/day
RefResp[ecoregion, spc, date] = Parameters.BFolResp[spc] * dayspan * (amax * daylength * Constants.MC) / Constants.billion;
}
date = date.AddMonths(1);
}
catch (System.Exception e)
{
throw new System.Exception("Error in climate " + date.ToString("MM/yyyy") + " " + e.Message);
}
}
SetEstablishmentMonths(Parameters, ecoregion);
}
PlugIn.ModelCore.UI.WriteLine("Ready initializing static data");
}
