Dictionary <string, Compound> GenerateCompounds(IUnitsOfMeasure su)
{
//generate pseudos from number or temperature cuts
int i = 0;
int method = pseudomode;
double[] tbp2 = null;
double[] tbpx = null;
var fittedt = new List <double>();
double[] coeff;
object[] obj = null;
double Tmin, Tmax;
//generate polynomial from input data
if (tbpcurvetype == 0)
{
//tbp
tbp2 = tbp.ToArray();
tbpx = cb.ToArray();
}
else if (tbpcurvetype == 1)
{
//d86
double T0 = 0;
double T10 = 0;
double T30 = 0;
double T50 = 0;
double T70 = 0;
double T90 = 0;
double T100 = 0;
//interpolate to obtain points
double[] w = null;
ratinterpolation.buildfloaterhormannrationalinterpolant(cb.ToArray(), cb.Count, 1, ref w);
T0 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.0d);
T10 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.1d);
T30 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.3d);
T50 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.5d);
T70 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.7d);
T90 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.9d);
T100 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 1.0d);
//tbp
tbp2 = DistillationCurveConversion.ASTMD86ToPEV_Riazi(new double[] { T0, T10, T30, T50, T70, T90, T100 });
tbpx = new double[] { 1E-06, 0.1, 0.3, 0.5, 0.7, 0.9, 1.0 };
}
else if (tbpcurvetype == 2)
{
//vacuum
double T0 = 0;
double T10 = 0;
double T30 = 0;
double T50 = 0;
double T70 = 0;
double T90 = 0;
double T100 = 0;
//interpolate to obtain points
double[] w = null;
ratinterpolation.buildfloaterhormannrationalinterpolant(cb.ToArray(), cb.Count, 1, ref w);
T0 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0);
T10 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.1);
T30 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.3);
T50 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.5);
T70 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.7);
T90 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.9);
T100 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 1.0);
//tbp
tbp2 = DistillationCurveConversion.ASTMD1160ToPEVsub_Wauquier(new double[] { T0, T10, T30, T50, T70, T90, T100 });
double K = 12.0;
tbp2[0] = DistillationCurveConversion.PEVsubToPEV_MaxwellBonnel(tbp2[0], 1333, K);
tbp2[1] = DistillationCurveConversion.PEVsubToPEV_MaxwellBonnel(tbp2[1], 1333, K);
tbp[22] = DistillationCurveConversion.PEVsubToPEV_MaxwellBonnel(tbp2[2], 1333, K);
tbp2[3] = DistillationCurveConversion.PEVsubToPEV_MaxwellBonnel(tbp2[3], 1333, K);
tbp2[4] = DistillationCurveConversion.PEVsubToPEV_MaxwellBonnel(tbp2[4], 1333, K);
tbp2[5] = DistillationCurveConversion.PEVsubToPEV_MaxwellBonnel(tbp2[5], 1333, K);
tbp2[6] = DistillationCurveConversion.PEVsubToPEV_MaxwellBonnel(tbp2[6], 1333, K);
tbpx = new double[] { 1E-06, 0.1, 0.3, 0.5, 0.7, 0.9, 1.0 };
}
else if (tbpcurvetype == 3)
{
//simulated
double T5 = 0;
double T10 = 0;
double T30 = 0;
double T50 = 0;
double T70 = 0;
double T90 = 0;
double T95 = 0;
double T100 = 0;
//interpolate to obtain points
double[] w = null;
ratinterpolation.buildfloaterhormannrationalinterpolant(cb.ToArray(), cb.Count, 1, ref w);
T5 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.05);
T10 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.1);
T30 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.3);
T50 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.5);
T70 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.7);
T90 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.9);
T95 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 0.95);
T100 = polinterpolation.barycentricinterpolation(cb.ToArray(), tbp.ToArray(), w, cb.Count, 1.0);
//tbp
tbp2 = DistillationCurveConversion.ASTMD2887ToPEV_Daubert(new double[] { T5, T10, T30, T50, T70, T90, T95, T100 });
tbpx = new double[] { 0.05, 0.1, 0.3, 0.5, 0.7, 0.9, 0.95, 1.0 };
}
Tmin = tbp2.Min();
Tmax = tbp2.Max();
//y = 10358x5 - 15934x4 + 11822x3 - 4720,2x2 + 1398,2x + 269,23
//R² = 1
double[] inest = new double[7];
if (tbpcurvetype == 1)
{
double[] w2 = null;
ratinterpolation.buildfloaterhormannrationalinterpolant(tbpx, tbpx.Length, 1, ref w2);
inest[0] = polinterpolation.barycentricinterpolation(tbpx, tbp2, w2, tbpx.Length, 0);
}
else
{
inest[0] = Tmin;
}
inest[1] = 1398;
inest[2] = 4720;
inest[3] = 11821;
inest[4] = 15933;
inest[5] = 10358;
inest[6] = -3000;
DistillationCurveConversion.TBPFit lmfit = new DistillationCurveConversion.TBPFit();
obj = (object[])lmfit.GetCoeffs(tbpx, tbp2, inest, 1E-10, 1E-08, 1E-08, 1000);
coeff = (double[])obj[0];
//TBP(K) = aa + bb*fv + cc*fv^2 + dd*fv^3 + ee*fv^4 + ff*fv^5 (fv 0 ~ 1)
fittedt.Clear();
for (i = 0; i <= tbp2.Length - 1; i++)
{
fittedt.Add(cv.ConvertFromSI(su.temperature, coeff[0] + coeff[1] * tbpx[i] + coeff[2] * Math.Pow(tbpx[i], 2) + coeff[3] * Math.Pow(tbpx[i], 3) + coeff[4] * Math.Pow(tbpx[i], 4) + coeff[5] * Math.Pow(tbpx[i], 5) + coeff[6] * Math.Pow(tbpx[i], 6)));
}
//create pseudos
if (method == 0)
{
int np = Convert.ToInt32(pseudocuts);
double deltaT = (Tmax - Tmin) / (np);
double t0 = 0;
double fv0 = 0;
t0 = Tmin;
fv0 = tbpx.Min();
tccol.Clear();
for (i = 0; i <= np - 1; i++)
{
tmpcomp tc = new tmpcomp();
tc.tbp0 = t0;
tc.tbpf = t0 + deltaT;
tc.fv0 = GetFV(coeff, fv0, tc.tbp0);
tc.fvf = GetFV(coeff, fv0, tc.tbpf);
tc.fvm = tc.fv0 + (tc.fvf - tc.fv0) / 2;
tc.tbpm = GetT(coeff, tc.fvm);
tccol.Add(tc);
t0 = t0 + deltaT;
fv0 = tc.fvf;
}
}
else
{
int np = cuttemps.Count + 1;
double t0 = 0;
double fv0 = 0;
t0 = Tmin;
fv0 = tbpx.Min();
tccol.Clear();
for (i = 0; i <= np - 1; i++)
{
tmpcomp tc = new tmpcomp();
tc.tbp0 = t0;
if (i == np - 1)
{
tc.tbpf = Tmax;
}
else
{
tc.tbpf = cv.ConvertToSI(su.temperature, cuttemps[i]);
}
tc.fv0 = GetFV(coeff, fv0, tc.tbp0);
tc.fvf = GetFV(coeff, fv0, tc.tbpf);
tc.fvm = tc.fv0 + (tc.fvf - tc.fv0) / 2;
tc.tbpm = GetT(coeff, tc.fvm);
tccol.Add(tc);
fv0 = tc.fvf;
if (i < np - 1)
{
t0 = cv.ConvertToSI(su.temperature, cuttemps[i]);
}
}
}
DWSIM.Thermodynamics.Utilities.PetroleumCharacterization.Methods.GL methods2 = new DWSIM.Thermodynamics.Utilities.PetroleumCharacterization.Methods.GL();
Dictionary <string, Compound> ccol = new Dictionary <string, Compound>();
i = 0;
foreach (tmpcomp tc in tccol)
{
ConstantProperties cprops = new ConstantProperties();
cprops.NBP = tc.tbpm;
cprops.OriginalDB = "Petroleum Assay: " + assayname;
cprops.CurrentDB = "Petroleum Assay: " + assayname;
cprops.Name = assayname + "_" + (i + 1).ToString();
//SG
if (!hassgc)
{
if (Math.Abs(cprops.PF_MM.GetValueOrDefault()) < 1e-10)
{
cprops.PF_MM = Math.Pow((1 / 0.01964 * (6.97996 - Math.Log(1080 - cprops.NBP.GetValueOrDefault()))), (3 / 2));
}
cprops.PF_SG = PropertyMethods.d15_Riazi(cprops.PF_MM.GetValueOrDefault());
}
else
{
double[] w = null;
ratinterpolation.buildfloaterhormannrationalinterpolant(this.cb.ToArray(), cb.Count, 1, ref w);
cprops.PF_SG = polinterpolation.barycentricinterpolation(cb.ToArray(), sgc.ToArray(), w, cb.Count(), tc.fvm);
}
//MW
if (!hasmwc)
{
switch (type)
{
case SampleType.Light:
cprops.PF_MM = PropertyMethods.MW_Winn(cprops.NBP.GetValueOrDefault(), cprops.PF_SG.GetValueOrDefault());
break;
case SampleType.Average:
cprops.PF_MM = PropertyMethods.MW_Riazi(cprops.NBP.GetValueOrDefault(), cprops.PF_SG.GetValueOrDefault());
break;
case SampleType.Heavy:
cprops.PF_MM = PropertyMethods.MW_LeeKesler(cprops.NBP.GetValueOrDefault(), cprops.PF_SG.GetValueOrDefault());
break;
}
}
else
{
double[] w = null;
ratinterpolation.buildfloaterhormannrationalinterpolant(this.cb.ToArray(), cb.Count(), 1, ref w);
cprops.PF_MM = polinterpolation.barycentricinterpolation(this.cb.ToArray(), mwc.ToArray(), w, cb.Count(), tc.fvm);
}
cprops.Molar_Weight = cprops.PF_MM.GetValueOrDefault();
i += 1;
Compound subst = new Compound(cprops.Name, "");
subst.ConstantProperties = cprops;
subst.Name = cprops.Name;
subst.PetroleumFraction = true;
ccol.Add(cprops.Name, subst);
}
CalculateMolarFractions(ccol);
if (mwb > 1E-10)
{
double mixtMW = 0;
foreach (var c in ccol.Values)
{
mixtMW += c.MoleFraction.GetValueOrDefault() * c.ConstantProperties.Molar_Weight;
}
double facm = mwb / mixtMW;
foreach (var c in ccol.Values)
{
c.ConstantProperties.Molar_Weight *= facm;
}
}
if (sgb > 1E-10)
{
double mixtD = 0;
foreach (var c in ccol.Values)
{
mixtD += c.MassFraction.GetValueOrDefault() * c.ConstantProperties.PF_SG.GetValueOrDefault();
}
double facd = 141.5 / (131.5 + sgb) / mixtD;
foreach (var c in ccol.Values)
{
c.ConstantProperties.PF_SG *= facd;
}
}
i = 0;
foreach (var subst in ccol.Values)
{
ConstantProperties cprops = (ConstantProperties)subst.ConstantProperties;
tmpcomp tc = tccol[i];
//VISC
if (!hasvisc100c)
{
cprops.PF_Tv1 = 311;
cprops.PF_Tv2 = 372;
cprops.PF_v1 = PropertyMethods.Visc37_Abbott(cprops.NBP.GetValueOrDefault(), cprops.PF_SG.GetValueOrDefault());
cprops.PF_v2 = PropertyMethods.Visc98_Abbott(cprops.NBP.GetValueOrDefault(), cprops.PF_SG.GetValueOrDefault());
}
else
{
double[] w = null;
ratinterpolation.buildfloaterhormannrationalinterpolant(cb.ToArray(), visc100.Count, 1, ref w);
cprops.PF_v1 = polinterpolation.barycentricinterpolation(cb.ToArray(), visc100.ToArray(), w, cb.Count, tc.fvm);
ratinterpolation.buildfloaterhormannrationalinterpolant(cb.ToArray(), visc210.Count, 1, ref w);
cprops.PF_v2 = polinterpolation.barycentricinterpolation(cb.ToArray(), visc210.ToArray(), w, cb.Count, tc.fvm);
cprops.PF_Tv1 = (100 - 32) / 9 * 5 + 273.15;
cprops.PF_Tv2 = (210 - 32) / 9 * 5 + 273.15;
}
cprops.PF_vA = PropertyMethods.ViscWaltherASTM_A(cprops.PF_Tv1.GetValueOrDefault(), cprops.PF_v1.GetValueOrDefault(), cprops.PF_Tv2.GetValueOrDefault(), cprops.PF_v2.GetValueOrDefault());
cprops.PF_vB = PropertyMethods.ViscWaltherASTM_B(cprops.PF_Tv1.GetValueOrDefault(), cprops.PF_v1.GetValueOrDefault(), cprops.PF_Tv2.GetValueOrDefault(), cprops.PF_v2.GetValueOrDefault());
//Tc
switch (type)
{
case SampleType.Light:
cprops.Critical_Temperature = PropertyMethods.Tc_RiaziDaubert(cprops.NBP.GetValueOrDefault(), cprops.PF_SG.GetValueOrDefault());
break;
case SampleType.Average:
cprops.Critical_Temperature = PropertyMethods.Tc_LeeKesler(cprops.NBP.GetValueOrDefault(), cprops.PF_SG.GetValueOrDefault());
break;
case SampleType.Heavy:
cprops.Critical_Temperature = PropertyMethods.Tc_Farah(cprops.PF_vA.GetValueOrDefault(), cprops.PF_vB.GetValueOrDefault(), cprops.NBP.GetValueOrDefault(), cprops.PF_SG.GetValueOrDefault());
break;
}
//Pc
switch (type)
{
case SampleType.Light:
cprops.Critical_Pressure = PropertyMethods.Pc_RiaziDaubert(cprops.NBP.GetValueOrDefault(), cprops.PF_SG.GetValueOrDefault());
break;
case SampleType.Average:
cprops.Critical_Pressure = PropertyMethods.Pc_LeeKesler(cprops.NBP.GetValueOrDefault(), cprops.PF_SG.GetValueOrDefault());
break;
case SampleType.Heavy:
cprops.Critical_Pressure = PropertyMethods.Pc_Farah(cprops.PF_vA.GetValueOrDefault(), cprops.PF_vB.GetValueOrDefault(), cprops.NBP.GetValueOrDefault(), cprops.PF_SG.GetValueOrDefault());
break;
}
//Af
switch (type)
{
case SampleType.Heavy:
cprops.Acentric_Factor = PropertyMethods.AcentricFactor_LeeKesler(cprops.Critical_Temperature, cprops.Critical_Pressure, cprops.NBP.GetValueOrDefault());
break;
case SampleType.Light:
case SampleType.Average:
cprops.Acentric_Factor = PropertyMethods.AcentricFactor_Korsten(cprops.Critical_Temperature, cprops.Critical_Pressure, cprops.NBP.GetValueOrDefault());
break;
}
cprops.Normal_Boiling_Point = cprops.NBP.GetValueOrDefault();
cprops.IsPF = 1;
cprops.PF_Watson_K = Math.Pow((1.8 * cprops.NBP.GetValueOrDefault()), (1 / 3)) / cprops.PF_SG.GetValueOrDefault();
var tmp = (object[])methods2.calculate_Hf_Sf(cprops.PF_SG.GetValueOrDefault(), cprops.Molar_Weight, cprops.NBP.GetValueOrDefault());
cprops.IG_Enthalpy_of_Formation_25C = (double)tmp[0];
cprops.IG_Entropy_of_Formation_25C = (double)tmp[1];
cprops.IG_Gibbs_Energy_of_Formation_25C = (double)tmp[0] - 298.15 * (double)tmp[1];
DWSIM.Thermodynamics.Utilities.Hypos.Methods.HYP methods = new DWSIM.Thermodynamics.Utilities.Hypos.Methods.HYP();
cprops.HVap_A = methods.DHvb_Vetere(cprops.Critical_Temperature, cprops.Critical_Pressure, cprops.Normal_Boiling_Point) / cprops.Molar_Weight;
cprops.Critical_Compressibility = DWSIM.Thermodynamics.PropertyPackages.Auxiliary.PROPS.Zc1(cprops.Acentric_Factor);
cprops.Critical_Volume = 8314 * cprops.Critical_Compressibility * cprops.Critical_Temperature / cprops.Critical_Pressure;
cprops.Z_Rackett = DWSIM.Thermodynamics.PropertyPackages.Auxiliary.PROPS.Zc1(cprops.Acentric_Factor);
if (cprops.Z_Rackett < 0)
{
cprops.Z_Rackett = 0.2;
}
cprops.Chao_Seader_Acentricity = cprops.Acentric_Factor;
cprops.Chao_Seader_Solubility_Parameter = Math.Pow(((cprops.HVap_A * cprops.Molar_Weight - 8.314 * cprops.Normal_Boiling_Point) * 238.846 * DWSIM.Thermodynamics.PropertyPackages.Auxiliary.PROPS.liq_dens_rackett(cprops.Normal_Boiling_Point, cprops.Critical_Temperature, cprops.Critical_Pressure, cprops.Acentric_Factor, cprops.Molar_Weight) / cprops.Molar_Weight / 1000000.0), 0.5);
cprops.Chao_Seader_Liquid_Molar_Volume = 1 / DWSIM.Thermodynamics.PropertyPackages.Auxiliary.PROPS.liq_dens_rackett(cprops.Normal_Boiling_Point, cprops.Critical_Temperature, cprops.Critical_Pressure, cprops.Acentric_Factor, cprops.Molar_Weight) * cprops.Molar_Weight / 1000 * 1000000.0;
methods = null;
cprops.ID = 30000 + i + 1;
i += 1;
}
//Adjust Acentric Factors and Rackett parameters to fit NBP and Density
DensityFitting dfit = new DensityFitting();
PRVSFitting prvsfit = new PRVSFitting();
SRKVSFitting srkvsfit = new SRKVSFitting();
NBPFitting nbpfit = new NBPFitting();
MaterialStream tms = new MaterialStream("", "");
PropertyPackage pp = default(PropertyPackage);
double fzra = 0;
double fw = 0;
double fprvs = 0;
double fsrkvs = 0;
if (flowsheet.PropertyPackages.Count > 0)
{
pp = (DWSIM.Thermodynamics.PropertyPackages.PropertyPackage)flowsheet.PropertyPackages.Values.First();
}
else
{
pp = new PengRobinsonPropertyPackage();
}
foreach (var c in ccol.Values)
{
tms.Phases[0].Compounds.Add(c.Name, c);
}
bool recalcVc = false;
i = 0;
foreach (var c in ccol.Values)
{
var _with4 = nbpfit;
_with4._pp = pp;
_with4._ms = tms;
_with4._idx = i;
try
{
fw = _with4.MinimizeError();
}
catch (Exception ex)
{
flowsheet.ShowMessage("Error fitting Acentric Factor for compound '" + c.Name + "': " + ex.Message, IFlowsheet.MessageType.GeneralError);
}
var _with5 = c.ConstantProperties;
c.ConstantProperties.Acentric_Factor *= fw;
c.ConstantProperties.Z_Rackett = DWSIM.Thermodynamics.PropertyPackages.Auxiliary.PROPS.Zc1(c.ConstantProperties.Acentric_Factor);
if (_with5.Z_Rackett < 0)
{
_with5.Z_Rackett = 0.2;
recalcVc = true;
}
_with5.Critical_Compressibility = DWSIM.Thermodynamics.PropertyPackages.Auxiliary.PROPS.Zc1(_with5.Acentric_Factor);
_with5.Critical_Volume = DWSIM.Thermodynamics.PropertyPackages.Auxiliary.PROPS.Vc(_with5.Critical_Temperature, _with5.Critical_Pressure, _with5.Acentric_Factor, _with5.Critical_Compressibility);
var _with6 = dfit;
_with6._comp = c;
try
{
fzra = _with6.MinimizeError();
}
catch (Exception ex)
{
flowsheet.ShowMessage("Error fitting Rackett Parameter for compound '" + c.Name + "': " + ex.Message, IFlowsheet.MessageType.GeneralError);
}
var _with7 = c.ConstantProperties;
_with7.Z_Rackett *= fzra;
if (_with7.Critical_Compressibility < 0 | recalcVc)
{
_with7.Critical_Compressibility = _with7.Z_Rackett;
_with7.Critical_Volume = DWSIM.Thermodynamics.PropertyPackages.Auxiliary.PROPS.Vc(_with7.Critical_Temperature, _with7.Critical_Pressure, _with7.Acentric_Factor, _with7.Critical_Compressibility);
}
c.ConstantProperties.PR_Volume_Translation_Coefficient = 1;
prvsfit._comp = c;
fprvs = prvsfit.MinimizeError();
var _with8 = c.ConstantProperties;
if (Math.Abs(fprvs) < 99.0)
{
_with8.PR_Volume_Translation_Coefficient *= fprvs;
}
else
{
_with8.PR_Volume_Translation_Coefficient = 0.0;
}
c.ConstantProperties.SRK_Volume_Translation_Coefficient = 1;
srkvsfit._comp = c;
fsrkvs = srkvsfit.MinimizeError();
var _with9 = c.ConstantProperties;
if (Math.Abs(fsrkvs) < 99.0)
{
_with9.SRK_Volume_Translation_Coefficient *= fsrkvs;
}
else
{
_with9.SRK_Volume_Translation_Coefficient = 0.0;
}
recalcVc = false;
i += 1;
}
pp = null;
dfit = null;
nbpfit = null;
tms = null;
return(ccol);
}
void ParseCurveData(string[] datalines, IUnitsOfMeasure su)
{
cb.Clear();
tbp.Clear();
sgc.Clear();
mwc.Clear();
visc100.Clear();
visc210.Clear();
foreach (string line in datalines)
{
var val = line.Trim().Split(new[] { ' ', '\t' });
tbp.Add(cv.ConvertToSI(su.temperature, val[1].ToDoubleWithSeparator(decsep1)));
cb.Add(val[0].ToDoubleWithSeparator(decsep1) / 100);
if (hasmwc)
{
mwc.Add(val[2].ToDoubleWithSeparator(decsep1));
if (hassgc)
{
sgc.Add(val[3].ToDoubleWithSeparator(decsep1));
if (hasvisc100c)
{
visc100.Add(cv.ConvertToSI(su.cinematic_viscosity, val[4].ToDoubleWithSeparator(decsep1)));
if (hasvisc210c)
{
visc210.Add(cv.ConvertToSI(su.cinematic_viscosity, val[5].ToDoubleWithSeparator(decsep1)));
}
}
else
{
if (hasvisc210c)
{
visc210.Add(cv.ConvertToSI(su.cinematic_viscosity, val[4].ToDoubleWithSeparator(decsep1)));
}
}
}
else
{
if (hasvisc100c)
{
visc100.Add(cv.ConvertToSI(su.cinematic_viscosity, val[3].ToDoubleWithSeparator(decsep1)));
}
else
{
if (hasvisc210c)
{
visc210.Add(cv.ConvertToSI(su.cinematic_viscosity, val[3].ToDoubleWithSeparator(decsep1)));
}
}
}
}
else
{
if (hassgc)
{
sgc.Add(val[2].ToDoubleWithSeparator(decsep1));
if (hasvisc100c)
{
visc100.Add(cv.ConvertToSI(su.cinematic_viscosity, val[3].ToDoubleWithSeparator(decsep1)));
if (hasvisc210c)
{
visc210.Add(cv.ConvertToSI(su.cinematic_viscosity, val[4].ToDoubleWithSeparator(decsep1)));
}
}
else
{
if (hasvisc210c)
{
visc210.Add(cv.ConvertToSI(su.cinematic_viscosity, val[3].ToDoubleWithSeparator(decsep1)));
}
}
}
else
{
if (hasvisc100c)
{
visc100.Add(cv.ConvertToSI(su.cinematic_viscosity, val[2].ToDoubleWithSeparator(decsep1)));
if (hasvisc210c)
{
visc210.Add(cv.ConvertToSI(su.cinematic_viscosity, val[3].ToDoubleWithSeparator(decsep1)));
}
}
else
{
if (hasvisc210c)
{
visc210.Add(cv.ConvertToSI(su.cinematic_viscosity, val[2].ToDoubleWithSeparator(decsep1)));
}
}
}
}
}
}
void Init()
{
nf = SimObject.FlowSheet.FlowsheetOptions.NumberFormat;
su = SimObject.FlowSheet.FlowsheetOptions.SelectedUnitSystem;
CurrentModel = new ANNModel();
}
