public static void GetRCModel(List <SourceData> SDList, Project project, ref RCModel rcModel)
{
RCModel output = rcModel;
output.SourceList = SDList;
Int32 iMinVoltage;
Int32 iMaxVoltage;
TableMakerService.GetVoltageBondary(SDList, out iMinVoltage, out iMaxVoltage);
output.MinVoltage = iMinVoltage;
output.MaxVoltage = iMaxVoltage;
foreach (var sd in SDList)
{
if (!output.listfTemp.Contains(sd.fTemperature)) //not exist in list add it
{
output.listfTemp.Add(sd.fTemperature);
}
if (!output.listfCurr.Contains(sd.fCurrent)) //not exis in list add it
{
output.listfCurr.Add(sd.fCurrent);
}
}
UInt32 uErr = 0;
CreateRCPoints_TableMini(ref uErr, ref output, SDList, project);
}
private static bool GetLstTblM_OCV(List <SourceData> lstSample2, out List <float> fLstTblM_OCV)
{
Int32 iMinVoltage;
Int32 iMaxVoltage;
TableMakerService.GetVoltageBondary(lstSample2, out iMinVoltage, out iMaxVoltage);
fLstTblM_OCV = new List <float>();
bool bReturn = false;
int indexLow, indexHigh;
SourceData lowcurSample, higcurSample;
float fTmpSoC1, fTmpSoC2, fTmpVolt1;
int fmulti = (int)(((float)(iMaxVoltage - iMinVoltage)) * 10F / TableMakerService.iSOCStepmV);
int ileft = (int)fmulti % 10;
int ii, jj;
//(200902)francis, for table_mini
float fFullCapacity = 0, fACCMiniStep = 0;// = fMiniTableSteps * 0.01F * (TableSourceData[0].fFullCapacity - TableSourceData[0].fCapacityDiff);
List <float> flstLoCurVoltPoints = new List <float>();
List <float> flstHiCurVoltPoints = new List <float>();
#region assign low/high current sample, and assign SoC points (as default or input)
//lstSample2.Count definitely is 2
if (Math.Abs(lstSample2[0].fCurrent) < Math.Abs(lstSample2[1].fCurrent))
{
lowcurSample = lstSample2[0];
higcurSample = lstSample2[1];
}
else
{
lowcurSample = lstSample2[1];
higcurSample = lstSample2[0];
}
//fHdAbsMaxCap = lstSample2[0].fAbsMaxCap;
//fHdCapacityDiff = lstSample2[0].fCapacityDiff;
//(A200902)Francis, use the low_cur header setting to calculate
fFullCapacity = lowcurSample.fAbsMaxCap - lowcurSample.fCapacityDiff;
fACCMiniStep = fMiniTableSteps * 0.01F * (lowcurSample.fAbsMaxCap - lowcurSample.fCapacityDiff);
#endregion
//calculate TSOCbyOCV, high/low voltage is coming from user input
fmulti /= 10;
fTmpVolt1 = fmulti * TableMakerService.iSOCStepmV + iMinVoltage;
if ((ileft != 0) || (fTmpVolt1 != iMaxVoltage))
{
if (fTmpVolt1 < iMaxVoltage) //should not bigger than iMaxVoltage
{
iMaxVoltage = (int)(fTmpVolt1 + 0.5);
}
}
#region (A200902)francis, for table_mini
#region find <SoC, Volt> from low current data
indexLow = 0;
flstLoCurVoltPoints.Clear();
//fSoCbk = lowcurSample.AdjustedExpData[indexLow].fAccMah;
for (; indexLow < lowcurSample.AdjustedExpData.Count; indexLow++)
{
fTmpVolt1 = lowcurSample.AdjustedExpData[indexLow].fVoltage;
fTmpSoC1 = lowcurSample.AdjustedExpData[indexLow].fAccMah;
if (flstLoCurVoltPoints.Count < fFullCapacity)
{
if (flstLoCurVoltPoints.Count == 0)
{
flstLoCurVoltPoints.Add(fTmpVolt1);
continue;
}
else
{
//fTmpSoC1 = fSoCbk - fTmpSoC1;
//fTmpSoC1 /= iNumOfMiniPoints;
if (fTmpSoC1 < flstLoCurVoltPoints.Count)
{
}
else
{
flstLoCurVoltPoints.Add(fTmpVolt1);
}
}
}
}
for (int ilo = flstLoCurVoltPoints.Count; ilo <= fFullCapacity; ilo++)
{
flstLoCurVoltPoints.Add(iMinVoltage);
}
#endregion
#region find <SoC, Volt> from high current data
indexHigh = 0;
flstHiCurVoltPoints.Clear();
//fSoCbk = higcurSample.AdjustedExpData[indexHigh].fAccMah;
for (; indexHigh < higcurSample.AdjustedExpData.Count; indexHigh++)
{
fTmpVolt1 = higcurSample.AdjustedExpData[indexHigh].fVoltage;
fTmpSoC2 = higcurSample.AdjustedExpData[indexHigh].fAccMah;
if (flstHiCurVoltPoints.Count < fFullCapacity)
{
if (flstHiCurVoltPoints.Count == 0)
{
flstHiCurVoltPoints.Add(fTmpVolt1);
continue;
}
else
{
//fTmpSoC2 = fSoCbk - fTmpSoC1;
//fTmpSoC2 /= iNumOfMiniPoints;
if (fTmpSoC2 < flstHiCurVoltPoints.Count)
{
}
else
{
flstHiCurVoltPoints.Add(fTmpVolt1);
}
}
}
}
for (int ihi = flstHiCurVoltPoints.Count; ihi <= fFullCapacity; ihi++)
{
flstHiCurVoltPoints.Add(iMinVoltage);
}
#endregion
jj = 0;
indexLow = 0; indexHigh = 0;
fTmpSoC1 = flstLoCurVoltPoints[indexLow];
fTmpSoC2 = flstHiCurVoltPoints[indexHigh];
for (jj = 0; jj < (iNumOfMiniPoints + 1); jj++)
{
for (; indexLow < flstLoCurVoltPoints.Count; indexLow++)
{
if (indexLow < (jj * fACCMiniStep))
{
fTmpSoC1 = flstLoCurVoltPoints[indexLow];
}
else
{
break;
}
}
for (; indexHigh < flstHiCurVoltPoints.Count; indexHigh++)
{
if (indexHigh < (jj * fACCMiniStep))
{
fTmpSoC2 = flstHiCurVoltPoints[indexHigh];
}
else
{
break;
}
}
if (jj == 0)
{
fTmpVolt1 = (fTmpSoC2 + fTmpSoC1) / 2;
}
else
{
//fCurrent is saving in mA format
fTmpVolt1 = (fTmpSoC2 - fTmpSoC1) / ((Math.Abs(lowcurSample.fCurrent) - Math.Abs(higcurSample.fCurrent)) / 1000);
fTmpVolt1 *= (Math.Abs(lowcurSample.fCurrent) / 1000);
fTmpVolt1 += fTmpSoC1;
}
fLstTblM_OCV.Add(fTmpVolt1);
} //for (jj=0; jj < (iNumOfMiniPoints+1);jj++)
#endregion
return(bReturn);
}