public TuningResult FreeTuneBinary(IECUFile m_File, double peakTorque, double peakBoost, bool tuneBasedOnTorque, MapSensorType mapType, TurboType turboType, InjectorType injectorType, BPCType valve, int rpmlimiter, int knockTime)
{
Trionic5Resume _localResume = new Trionic5Resume();
m_fileInformation = m_File.GetFileInfo();
string filename = m_fileInformation.Filename;
// first set things right by running the tunetostagex wizard
// generate a nice x_scale for ignition map (18 long)
PressureToTorque ptt = new PressureToTorque();
double peak_boost = ptt.CalculatePressureFromTorque(peakTorque, turboType);
if (!tuneBasedOnTorque) peak_boost = peakBoost;
double peak_boost_request = peak_boost;
double correction = 1.0;
if (mapType == MapSensorType.MapSensor30) correction = 1.2;
if (mapType == MapSensorType.MapSensor35) correction = 1.4;
if (mapType == MapSensorType.MapSensor40) correction = 1.6;
if (mapType == MapSensorType.MapSensor50) correction = 2.0;
peak_boost_request *= 100;
peak_boost_request += 100;
peak_boost_request /= correction;
peak_boost_request -= 100;
peak_boost_request /= 100;
double min_pressure = -1;
double max_pressure = peak_boost;
#region preparation
/********* start of prepare phase *********/
string enginetp = readenginetype(filename);
string partnumber = readpartnumber(filename);
PartNumberConverter pnc = new PartNumberConverter();
ECUInformation ecuinfo = pnc.GetECUInfo(partnumber, enginetp);
bool isLpt = true;
if (ReadTunedToStageMarker(filename) > 0)
{
return TuningResult.TuningFailedAlreadyTuned;
}
else if (ReadThreeBarConversionMarker(filename) > 0)
{
return TuningResult.TuningFailedThreebarSensor;
}
Trionic5Properties t5p = m_File.GetTrionicProperties();
if (ecuinfo.Valid)
{
if (ecuinfo.Isaero || ecuinfo.Isfpt)
{
isLpt = false;
}
}
if (t5p.MapSensorType != mapType)
{
ConvertFileToThreeBarMapSensor(m_fileInformation, t5p.MapSensorType, mapType);
}
// check injector type
if (t5p.InjectorType != injectorType)
{
int inj_konst_diff = DetermineDifferenceInInjectorConstant(t5p.InjectorType, injectorType);
AddToInjectorConstant(filename, inj_konst_diff);
SetInjectorBatteryCorrectionMap(m_File, injectorType); //TODO: check this function for correctness!
}
/*if (injectorType == InjectorType.Stock) writebyteinfile(filename, GetSymbolAddress("Inj_konst!"), 19);
else if (injectorType == InjectorType.GreenGiants) writebyteinfile(filename, GetSymbolAddress("Inj_konst!"), 18);
else if (injectorType == InjectorType.Siemens630Dekas) writebyteinfile(filename, GetSymbolAddress("Inj_konst!"), 15);
else if (injectorType == InjectorType.Siemens875Dekas) writebyteinfile(filename, GetSymbolAddress("Inj_konst!"), 13);
else if (injectorType == InjectorType.Siemens875Dekas) writebyteinfile(filename, GetSymbolAddress("Inj_konst!"), 13);*/
t5p.TurboType = turboType;
t5p.InjectorType = injectorType;
t5p.MapSensorType = mapType;
// determine stage??
int stage = 0;
if (peak_boost < 1.2) stage = 1;
else if (peak_boost < 1.3) stage = 2;
else if (peak_boost < 1.4) stage = 3;
else if (peak_boost < 1.5) stage = 4;
else if (peak_boost < 1.6) stage = 5;
else if (peak_boost < 1.7) stage = 6;
else if (peak_boost < 1.8) stage = 7;
else if (peak_boost < 1.9) stage = 8;
else stage = 9;
m_File.SetTrionicOptions(t5p);
TuneToStage(filename, stage, peak_boost_request, 0.52, 1.0, 0.52, 1.54, 90, isLpt, turboType, injectorType, mapType);
_localResume.ResumeTuning = m_resume.ResumeTuning.Copy();
/*********** end of prepare phase **************/
// set limiter, bpc valve type and knock time
SetBPCValveType(filename, valve);
_localResume.AddToResumeTable("Set BPC driving frequencies");
SetRPMLimiter(filename, rpmlimiter);
_localResume.AddToResumeTable("Set RPM limiter");
SetKnockTime(filename, knockTime);
_localResume.AddToResumeTable("Set knock time value");
#endregion
// if mapsensor != stock and injectors are 630 cc or bigger
if (mapType != MapSensorType.MapSensor25 && (injectorType == InjectorType.Siemens630Dekas || injectorType == InjectorType.Siemens875Dekas || injectorType == InjectorType.Siemens1000cc))
{
// now scale it
double step = (max_pressure - min_pressure) / 17;
double[] axisforIgnitionMap = new double[18];
for (int i = 0; i < 18; i++)
{
axisforIgnitionMap.SetValue(min_pressure + (i * step), i);
}
byte[] actualAxis = new byte[36];
int j = 0;
for (int i = 0; i < 18; i++)
{
double currValue = Convert.ToDouble(axisforIgnitionMap.GetValue(i));
currValue *= 100;
currValue += 100;
if (mapType == MapSensorType.MapSensor30) currValue /= 1.2;
else if (mapType == MapSensorType.MapSensor35) currValue /= 1.4;
else if (mapType == MapSensorType.MapSensor40) currValue /= 1.6;
else if (mapType == MapSensorType.MapSensor50) currValue /= 2.0;
int ival = Convert.ToInt32(currValue);
byte v1 = (byte)(ival / 256);
byte v2 = (byte)(ival - (int)v1 * 256);
actualAxis.SetValue(v1, j++);
actualAxis.SetValue(v2, j++);
}
m_File.WriteData(actualAxis, (uint)m_File.GetFileInfo().GetSymbolAddressFlash("Ign_map_0_x_axis!"));
_localResume.AddToResumeTable("Generated and saved new ignition map x axis");
//Generate the ignition map based on the axis values
GenerateAndSaveNewIgnitionMap(m_File, false);
_localResume.AddToResumeTable("Generated and saved new ignition map");
min_pressure = -0.8;
step = (max_pressure - min_pressure) / 15;
// now setup x axis for fuel map
double[] axisforFuelMap = new double[16];
for (int i = 0; i < 16; i++)
{
axisforFuelMap.SetValue(min_pressure + (i * step), i);
}
byte[] actualFuelAxis = new byte[16];
for (int i = 0; i < 16; i++)
{
double currValue = Convert.ToDouble(axisforFuelMap.GetValue(i));
currValue *= 100;
currValue += 100;
if (mapType == MapSensorType.MapSensor30) currValue /= 1.2;
else if (mapType == MapSensorType.MapSensor35) currValue /= 1.4;
else if (mapType == MapSensorType.MapSensor40) currValue /= 1.6;
else if (mapType == MapSensorType.MapSensor50) currValue /= 2.0;
int ival = Convert.ToInt32(currValue);
if (ival > 255) ival = 255;
actualFuelAxis.SetValue((byte)ival, i);
}
m_File.WriteData(actualFuelAxis, (uint)m_File.GetFileInfo().GetSymbolAddressFlash("Fuel_map_xaxis!"));
_localResume.AddToResumeTable("Generated and saved new fuel map x axis");
//Generate the ignition map based on the axis values
GenerateAndSaveNewFuelMap(m_File);
_localResume.AddToResumeTable("Generated and saved new fuel map");
min_pressure = -0.3;
step = (max_pressure - min_pressure) / 11;
// now setup x axis for fuel map
double[] axisforFuelKnockMap = new double[12];
for (int i = 0; i < 12; i++)
{
axisforFuelKnockMap.SetValue(min_pressure + (i * step), i);
}
byte[] actualFuelKnockAxis = new byte[12];
for (int i = 0; i < 12; i++)
{
double currValue = Convert.ToDouble(axisforFuelKnockMap.GetValue(i));
currValue *= 100;
currValue += 100;
if (mapType == MapSensorType.MapSensor30) currValue /= 1.2;
else if (mapType == MapSensorType.MapSensor35) currValue /= 1.4;
else if (mapType == MapSensorType.MapSensor40) currValue /= 1.6;
else if (mapType == MapSensorType.MapSensor50) currValue /= 2.0;
int ival = Convert.ToInt32(currValue);
if (ival > 255) ival = 255;
actualFuelKnockAxis.SetValue((byte)ival, i);
}
m_File.WriteData(actualFuelKnockAxis, (uint)m_File.GetFileInfo().GetSymbolAddressFlash("Fuel_knock_xaxis!"));
_localResume.AddToResumeTable("Generated and saved new fuel knock map x axis");
//Generate the ignition map based on the axis values
GenerateAndSaveNewFuelKnockMap(m_File);
_localResume.AddToResumeTable("Generated and saved new fuel knock map");
// mesh up a boost request map for this.. already possible
// adjust peak boost to be scaled for the mapsensor type
SetBoostRequestMaps(turboType, injectorType, mapType, m_File.GetFileInfo().Filename, peak_boost_request, 100, isLpt);
_localResume.AddToResumeTable("Generated boost request maps");
}
m_resume.ResumeTuning = _localResume.ResumeTuning.Copy();
return TuningResult.TuningSuccess;
}
