public void SetMapSensorTypes(MapSensorType fromType, MapSensorType toType)
{
memoEdit1.Text += Environment.NewLine;
string targetMapSensorString = "3 bar mapsensor";
switch (toType)
{
case MapSensorType.MapSensor25:
targetMapSensorString = "2.5 bar mapsensor";
break;
case MapSensorType.MapSensor30:
targetMapSensorString = "3.0 bar mapsensor";
break;
case MapSensorType.MapSensor35:
targetMapSensorString = "3.5 bar mapsensor";
break;
case MapSensorType.MapSensor40:
targetMapSensorString = "4.0 bar mapsensor";
break;
case MapSensorType.MapSensor50:
targetMapSensorString = "5.0 bar mapsensor";
break;
}
string sourceMapSensorString = "3 bar mapsensor";
switch (fromType)
{
case MapSensorType.MapSensor25:
sourceMapSensorString = "2.5 bar mapsensor";
break;
case MapSensorType.MapSensor30:
sourceMapSensorString = "3.0 bar mapsensor";
break;
case MapSensorType.MapSensor35:
sourceMapSensorString = "3.5 bar mapsensor";
break;
case MapSensorType.MapSensor40:
sourceMapSensorString = "4.0 bar mapsensor";
break;
case MapSensorType.MapSensor50:
sourceMapSensorString = "5.0 bar mapsensor";
break;
}
memoEdit1.Text += "You are converting from a " + sourceMapSensorString + " to a " + targetMapSensorString;
//All boost related tables will be altered to make sure the correct values are calculated within the ECU based on the new mapsensor type.
}
private double CalculateConversionFactor(MapSensorType fromSensorType, MapSensorType toSensorType)
{
double factor = 1.2;
switch (fromSensorType)
{
case MapSensorType.MapSensor25:
switch (toSensorType)
{
case MapSensorType.MapSensor25:
factor = 1.0; // from 2.5 to 2.5 mapsensor
break;
case MapSensorType.MapSensor30:
factor = 1.2; // from 2.5 to 3.0 mapsensor
break;
case MapSensorType.MapSensor35:
factor = 1.4; // from 2.5 to 3.5 mapsensor
break;
case MapSensorType.MapSensor40:
factor = 1.6; // from 2.5 to 4.0 mapsensor
break;
case MapSensorType.MapSensor50:
factor = 2.0; // from 2.5 to 5.0 mapsensor
break;
}
break;
case MapSensorType.MapSensor30:
switch (toSensorType)
{
case MapSensorType.MapSensor25:
factor = 0.8333; // from 3.0 to 2.5 mapsensor
break;
case MapSensorType.MapSensor30:
factor = 1.0; // from 3.0 to 3.0 mapsensor
break;
case MapSensorType.MapSensor35:
factor = 1.1666; // from 3.0 to 3.5 mapsensor
break;
case MapSensorType.MapSensor40:
factor = 1.3333; // from 3.0 to 4.0 mapsensor
break;
case MapSensorType.MapSensor50:
factor = 1.6667; // from 3.0 to 5.0 mapsensor
break;
}
break;
case MapSensorType.MapSensor35:
switch (toSensorType)
{
case MapSensorType.MapSensor25:
factor = 0.7143; // from 3.5 to 2.5 mapsensor
break;
case MapSensorType.MapSensor30:
factor = 0.8571; // from 3.5 to 3.0 mapsensor
break;
case MapSensorType.MapSensor35:
factor = 1.0; // from 3.5 to 3.5 mapsensor
break;
case MapSensorType.MapSensor40:
factor = 1.1429; // from 3.5 to 4.0 mapsensor
break;
case MapSensorType.MapSensor50:
factor = 1.4285; // from 3.5 to 5.0 mapsensor
break;
}
break;
case MapSensorType.MapSensor40:
switch (toSensorType)
{
case MapSensorType.MapSensor25:
factor = 0.6250; // from 4.0 to 2.5 mapsensor
break;
case MapSensorType.MapSensor30:
factor = 0.75; // from 4.0 to 3.0 mapsensor
break;
case MapSensorType.MapSensor35:
factor = 0.875; // from 4.0 to 3.5 mapsensor
break;
case MapSensorType.MapSensor40:
factor = 1.0; // from 4.0 to 4.0 mapsensor
break;
case MapSensorType.MapSensor50:
factor = 1.25; // from 4.0 to 5.0 mapsensor
break;
}
break;
case MapSensorType.MapSensor50:
switch (toSensorType)
{
case MapSensorType.MapSensor25:
factor = 0.5; // from 5.0 to 2.5 mapsensor
break;
case MapSensorType.MapSensor30:
factor = 0.6; // from 5.0 to 3.0 mapsensor
break;
case MapSensorType.MapSensor35:
factor = 0.7; // from 5.0 to 3.5 mapsensor
break;
case MapSensorType.MapSensor40:
factor = 0.8; // from 5.0 to 4.0 mapsensor
break;
case MapSensorType.MapSensor50:
factor = 1.0; // from 5.0 to 5.0 mapsensor
break;
}
break;
}
return factor;
}
/// <summary>
/// Take care of threebar conversion as well!
/// </summary>
/// <param name="symbolname"></param>
/// <param name="ecudata"></param>
/// <returns></returns>
public double ConvertSymbol(string symbolname, byte[] ecudata, MapSensorType _mapsensor, double _userCorrectionFactor, double _userCorrectionOffset, bool UseUserCorrection)
{
double retval = 0;
if (UseUserCorrection)
{
retval = ConvertByteStringToDouble(ecudata);
retval *= _userCorrectionFactor;
retval += _userCorrectionOffset;
}
else
{
//convert data depending on symbolname
double _correctionForMapsensor = 1;
switch (_mapsensor)
{
case MapSensorType.MapSensor25:
_correctionForMapsensor = 1;
break;
case MapSensorType.MapSensor30:
_correctionForMapsensor = 1.2;
break;
case MapSensorType.MapSensor35:
_correctionForMapsensor = 1.4;
break;
case MapSensorType.MapSensor40:
_correctionForMapsensor = 1.6;
break;
case MapSensorType.MapSensor50:
_correctionForMapsensor = 2.0;
break;
}
switch (symbolname)
{
case "P_medel":
case "P_Manifold10":
case "P_Manifold":
case "Max_tryck":
case "Regl_tryck":
// inlet manifold pressure
retval = ConvertByteStringToDouble(ecudata);
retval *= _correctionForMapsensor;
retval *= 0.01F;
retval -= 1;
break;
case "Lufttemp":
retval = ConvertByteStringToDouble(ecudata);
if (retval > 128) retval = -(256 - retval);
break;
case "Kyl_temp":
retval = ConvertByteStringToDouble(ecudata);
if (retval > 128) retval = -(256 - retval);
break;
case "Rpm":
retval = ConvertByteStringToDouble(ecudata);
retval *= 10; // factor 10
break;
case "AD_sond":
// should average, no the realtime panel does that
retval = ConvertByteStringToDouble(ecudata);
retval = ConvertToAFR(retval);
break;
case "AD_EGR":
retval = ConvertByteStringToDouble(ecudata);
retval = ConvertToWidebandAFR(retval);
//retval = ConvertToAFR(retval);
break;
case "Pgm_status":
// now what, just pass it on in a seperate structure
retval = ConvertByteStringToDoubleStatus(ecudata);
break;
case "Insptid_ms10":
retval = ConvertByteStringToDouble(ecudata);
retval /= 10;
break;
case "Lacc_mangd":
case "Acc_mangd":
case "Lret_mangd":
case "Ret_mangd":
retval = ConvertByteStringToDouble(ecudata);
// 4 values in one variable, one for each cylinder
break;
case "Ign_angle":
retval = ConvertByteStringToDouble(ecudata);
if (retval > 32000) retval = -(65536 - retval);
retval /= 10;
break;
case "Knock_offset1":
case "Knock_offset2":
case "Knock_offset3":
case "Knock_offset4":
case "Knock_offset1234":
retval = ConvertByteStringToDouble(ecudata);
if (retval > 32000) retval = -(65536 - retval);
retval /= 10;
break;
case "Medeltrot":
retval = ConvertByteStringToDouble(ecudata);
retval -= 34;
//TODO: should substract trot_min from this value?
break;
case "Apc_decrese":
retval = ConvertByteStringToDouble(ecudata);
retval *= _correctionForMapsensor;
retval *= 0.01F; // to bar!
break;
case "P_fak":
case "I_fak":
case "D_fak":
retval = ConvertByteStringToDouble(ecudata);
if (retval > 32000) retval = -(65535 - retval);
break;
case "PWM_ut10":
retval = ConvertByteStringToDouble(ecudata);
break;
case "Knock_count_cyl1":
case "Knock_count_cyl2":
case "Knock_count_cyl3":
case "Knock_count_cyl4":
retval = ConvertByteStringToDouble(ecudata);
break;
case "Knock_average":
retval = ConvertByteStringToDouble(ecudata);
break;
case "Bil_hast":
retval = ConvertByteStringToDouble(ecudata);
break;
case "TQ":
retval = ConvertByteStringToDouble(ecudata);
retval *= _correctionForMapsensor;
break;
default:
retval = ConvertByteStringToDouble(ecudata);
break;
}
}
return retval;
}
public void SetMapSensorType(MapSensorType mapsensor)
{
comboBoxEdit1.SelectedIndex = (int)mapsensor;
}
private void UpdateMaxima(TurboType turbo, InjectorType injectors, MapSensorType mapSensor)
{
switch (mapSensor)
{
case MapSensorType.MapSensor25:
// max achievable 400Nm / 1.45 bar
if (injectors == InjectorType.Stock)
{
spinEdit1.Properties.MaxValue = 400;
spinEdit2.Properties.MaxValue = (decimal)1.30;
}
else
{
spinEdit1.Properties.MaxValue = 450;
spinEdit2.Properties.MaxValue = (decimal)1.45;
}
break;
case MapSensorType.MapSensor30:
switch (injectors)
{
case InjectorType.Stock:
spinEdit1.Properties.MaxValue = 400;
spinEdit2.Properties.MaxValue = (decimal)1.30;
break;
case InjectorType.GreenGiants:
switch (turbo)
{
case TurboType.Stock:
case TurboType.TD0415T:
spinEdit1.Properties.MaxValue = 450;
spinEdit2.Properties.MaxValue = (decimal)1.45;
break;
case TurboType.GT28BB:
case TurboType.GT28RS:
case TurboType.TD0419T:
spinEdit1.Properties.MaxValue = 550;
spinEdit2.Properties.MaxValue = (decimal)1.70;
break;
case TurboType.GT3071R:
case TurboType.HX35w:
spinEdit1.Properties.MaxValue = 550;
spinEdit2.Properties.MaxValue = (decimal)1.50;
break;
case TurboType.HX40w:
case TurboType.S400SX371:
spinEdit1.Properties.MaxValue = 550;
spinEdit2.Properties.MaxValue = (decimal)1.40;
break;
}
break;
case InjectorType.Siemens630Dekas:
// 3.0 bar sensor, 630cc injectors -> max 600Nm
switch (turbo)
{
case TurboType.Stock:
case TurboType.TD0415T:
spinEdit1.Properties.MaxValue = 450;
spinEdit2.Properties.MaxValue = (decimal)1.45;
break;
case TurboType.GT28BB:
case TurboType.GT28RS:
case TurboType.TD0419T:
spinEdit1.Properties.MaxValue = 580;
spinEdit2.Properties.MaxValue = (decimal)1.75;
break;
case TurboType.GT3071R:
case TurboType.HX35w:
spinEdit1.Properties.MaxValue = 600;
spinEdit2.Properties.MaxValue = (decimal)1.80;
break;
case TurboType.HX40w:
case TurboType.S400SX371:
spinEdit1.Properties.MaxValue = 600;
spinEdit2.Properties.MaxValue = (decimal)1.70;
break;
}
break;
case InjectorType.Siemens875Dekas:
case InjectorType.Siemens1000cc:
// 3.0 bar sensor, 630cc injectors -> limit to turbo only
switch (turbo)
{
case TurboType.Stock:
case TurboType.TD0415T:
spinEdit1.Properties.MaxValue = 450;
spinEdit2.Properties.MaxValue = (decimal)1.45;
break;
case TurboType.GT28BB:
case TurboType.GT28RS:
case TurboType.TD0419T:
spinEdit1.Properties.MaxValue = 580;
spinEdit2.Properties.MaxValue = (decimal)1.75;
break;
case TurboType.GT3071R:
case TurboType.HX35w:
spinEdit1.Properties.MaxValue = 620;
spinEdit2.Properties.MaxValue = (decimal)1.9;
break;
case TurboType.HX40w:
case TurboType.S400SX371:
spinEdit1.Properties.MaxValue = 670;
spinEdit2.Properties.MaxValue = (decimal)2.0;
break;
}
break;
}
break;
case MapSensorType.MapSensor35:
case MapSensorType.MapSensor40:
case MapSensorType.MapSensor50:
switch (injectors)
{
case InjectorType.Stock:
spinEdit1.Properties.MaxValue = 400;
spinEdit2.Properties.MaxValue = (decimal)1.30;
break;
case InjectorType.GreenGiants:
switch (turbo)
{
case TurboType.Stock:
case TurboType.TD0415T:
spinEdit1.Properties.MaxValue = 450;
spinEdit2.Properties.MaxValue = (decimal)1.45;
break;
case TurboType.GT28BB:
case TurboType.GT28RS:
case TurboType.TD0419T:
spinEdit1.Properties.MaxValue = 550;
spinEdit2.Properties.MaxValue = (decimal)1.70;
break;
case TurboType.GT3071R:
case TurboType.HX35w:
spinEdit1.Properties.MaxValue = 550;
spinEdit2.Properties.MaxValue = (decimal)1.50;
break;
case TurboType.HX40w:
case TurboType.S400SX371:
spinEdit1.Properties.MaxValue = 550;
spinEdit2.Properties.MaxValue = (decimal)1.40;
break;
}
break;
case InjectorType.Siemens630Dekas:
// 3.0 bar sensor, 630cc injectors -> max 600Nm
switch (turbo)
{
case TurboType.Stock:
case TurboType.TD0415T:
spinEdit1.Properties.MaxValue = 450;
spinEdit2.Properties.MaxValue = (decimal)1.45;
break;
case TurboType.GT28BB:
case TurboType.GT28RS:
case TurboType.TD0419T:
spinEdit1.Properties.MaxValue = 580;
spinEdit2.Properties.MaxValue = (decimal)1.75;
break;
case TurboType.GT3071R:
case TurboType.HX35w:
spinEdit1.Properties.MaxValue = 600;
spinEdit2.Properties.MaxValue = (decimal)1.80;
break;
case TurboType.HX40w:
case TurboType.S400SX371:
spinEdit1.Properties.MaxValue = 600;
spinEdit2.Properties.MaxValue = (decimal)1.70;
break;
}
break;
case InjectorType.Siemens875Dekas:
case InjectorType.Siemens1000cc:
// 3.0 bar sensor, 630cc injectors -> limit to turbo only
switch (turbo)
{
case TurboType.Stock:
case TurboType.TD0415T:
spinEdit1.Properties.MaxValue = 450;
spinEdit2.Properties.MaxValue = (decimal)1.45;
break;
case TurboType.GT28BB:
case TurboType.GT28RS:
case TurboType.TD0419T:
spinEdit1.Properties.MaxValue = 580;
spinEdit2.Properties.MaxValue = (decimal)1.75;
break;
case TurboType.GT3071R:
case TurboType.HX35w:
spinEdit1.Properties.MaxValue = 620;
spinEdit2.Properties.MaxValue = (decimal)1.9;
break;
case TurboType.HX40w:
case TurboType.S400SX371:
spinEdit1.Properties.MaxValue = 670;
spinEdit2.Properties.MaxValue = (decimal)2.2;
break;
}
break;
}
break;
}
UpdateStage();
}
public void ConvertFileToThreeBarMapSensor(IECUFileInformation fileinformation, MapSensorType fromSensorType, MapSensorType toSensorType)
{
m_fileInformation = fileinformation;
// frmProgress progress = new frmProgress();
// progress.Show();
// progress.SetProgress("Checking current configuration...");
m_resume = new Trionic5Resume();
m_resume.ResumeTuning = new System.Data.DataTable();
m_resume.ResumeTuning.Columns.Add("Description");
if (fromSensorType == toSensorType) return;
string infoStr = "Tuning your binary from ";
string infoCopyStr = "beforetuningfrom";
switch (fromSensorType)
{
case MapSensorType.MapSensor25:
infoStr += " 2.5 bar sensor to ";
infoCopyStr += "250kpasensorto";
break;
case MapSensorType.MapSensor30:
infoStr += " 3.0 bar sensor to ";
infoCopyStr += "300kpasensorto";
break;
case MapSensorType.MapSensor35:
infoStr += " 3.5 bar sensor to ";
infoCopyStr += "350kpasensorto";
break;
case MapSensorType.MapSensor40:
infoStr += " 4.0 bar sensor to ";
infoCopyStr += "400kpasensorto";
break;
case MapSensorType.MapSensor50:
infoStr += " 5.0 bar sensor to ";
infoCopyStr += "500kpasensorto";
break;
}
switch (toSensorType)
{
case MapSensorType.MapSensor25:
infoStr += " 2.5 bar sensor";
infoCopyStr += "250kpasensor";
break;
case MapSensorType.MapSensor30:
infoStr += " 3.0 bar sensor";
infoCopyStr += "300kpasensor";
break;
case MapSensorType.MapSensor35:
infoStr += " 3.5 bar sensor";
infoCopyStr += "350kpasensor";
break;
case MapSensorType.MapSensor40:
infoStr += " 4.0 bar sensor";
infoCopyStr += "400kpasensor";
break;
case MapSensorType.MapSensor50:
infoStr += " 5.0 bar sensor";
infoCopyStr += "500kpasensor";
break;
}
infoStr += ": " + Path.GetFileName(m_fileInformation.Filename);
m_resume.AddToResumeTable(infoStr);
// get the software ID from the bainery
//progress.SetProgress("Creating backup file...");
File.Copy(m_fileInformation.Filename, Path.GetDirectoryName(m_fileInformation.Filename) + "\\" + Path.GetFileNameWithoutExtension(m_fileInformation.Filename) + DateTime.Now.ToString("yyyyMMddHHmmss") + infoCopyStr + ".bin", true);
m_resume.AddToResumeTable("Backup file created (" + Path.GetFileNameWithoutExtension(m_fileInformation.Filename) + DateTime.Now.ToString("yyyyMMddHHmmss") + infoCopyStr + ".bin" + ")");
// symbols with MAP as values
infoStr = "Altering tables for";
switch (toSensorType)
{
case MapSensorType.MapSensor25:
infoStr += " 2.5 bar sensor...";
break;
case MapSensorType.MapSensor30:
infoStr += " 3.0 bar sensor...";
break;
case MapSensorType.MapSensor35:
infoStr += " 3.5 bar sensor...";
break;
case MapSensorType.MapSensor40:
infoStr += " 4.0 bar sensor...";
break;
}
//progress.SetProgress(infoStr);
double factor = CalculateConversionFactor(fromSensorType, toSensorType);
AlterTableForThreeBarSensor("Tryck_mat!", factor);
AlterTableForThreeBarSensor("Tryck_mat_a!", factor);
AlterTableForThreeBarSensor("Tryck_vakt_tab!", factor);
AlterTableForThreeBarSensor("Regl_tryck_fgaut!", factor);
AlterTableForThreeBarSensor("Regl_tryck_fgm!", factor);
AlterTableForThreeBarSensor("Regl_tryck_sgm!", factor);
AlterTableForThreeBarSensor("Limp_tryck_konst!", factor);
AlterTableForThreeBarSensor("Idle_tryck!", factor);
AlterTableForThreeBarSensor("Knock_press_tab!", factor);
AlterTableForThreeBarSensor("Turbo_knock_tab!", factor);
AlterTableForThreeBarSensor("Iv_min_load!", factor);
// new symbols 25/03/2008
AlterTableForThreeBarSensor("Open_loop!", factor);
AlterTableForThreeBarSensor("Open_loop_knock!", factor);
AlterTableForThreeBarSensor("Open_loop_adapt!", factor);
AlterTableForThreeBarSensor("Lacc_clear_tab!", factor);
AlterTableForThreeBarSensor("Lner_detekt!", factor);
AlterTableForThreeBarSensor("Lupp_detekt!", factor);
AlterTableForThreeBarSensor("Sond_heat_tab!", factor);
AlterTableForThreeBarSensor("Grund_last!", factor);
AlterTableForThreeBarSensor("Grund_last_max!", factor);
//end
/*
Detect_map_x_axis (1.2 factor, normal)
Reg_last (1.2 factor, normal)
Overstid_tab op 0 gezet (bigger turbo???)
Fuel_knock_xaxis factor 1.2 + increasing in last 5 stages
Fuel_map_xaxis factor 1.2 + increasing in last 5 stages
Ign_map_6_x_axis factor 1.2
Ign_map_2_x_axis factor 1.2
Ign_map_0_x_axis factor 1.2 + increasing in last 8 stages
Misfire_map_x_axis factor 1.2
* * */
//progress.SetProgress("Altering axis for" + infoStr);
// symbols with MAP in x axis
// these three need increasing last steps
AlterXAxisForThreeBarSensor("Fuel_map_xaxis!", false, factor);
AlterXAxisForThreeBarSensor("Fuel_knock_xaxis!", false, factor);
AlterXAxisForThreeBarSensor("Ign_map_0_x_axis!", true, factor);
AlterXAxisForThreeBarSensor("Ign_map_2_x_axis!", true, factor);
AlterXAxisForThreeBarSensor("Ign_map_3_x_axis!", true, factor);
//AlterXAxisForThreeBarSensor("Ign_map_4_x_axis!", false, factor);
AlterXAxisForThreeBarSensor("Ign_map_6_x_axis!", true, factor);
AlterXAxisForThreeBarSensor("Ign_map_8_x_axis!", true, factor);
AlterXAxisForThreeBarSensor("Temp_reduce_x_st!", false, factor);
AlterXAxisForThreeBarSensor("Misfire_map_x_axis!", true, factor);
//AlterXAxisForThreeBarSensor("Mis200_map!", factor);
//AlterXAxisForThreeBarSensor("Misfire_map!", factor);
AlterXAxisForThreeBarSensor("Detect_map_x_axis!", true, factor);
//AlterXAxisForThreeBarSensor("Knock_ref_matrix!", factor);
AlterXAxisForThreeBarSensor("Idle_st_last!", false, factor);
AlterXAxisForThreeBarSensor("Reg_last!", false, factor);
// new symbols 25/03/2008
AlterXAxisForThreeBarSensor("Min_load_gadapt!", false, factor);
AlterXAxisForThreeBarSensor("Max_load_gadapt!", false, factor);
AlterXAxisForThreeBarSensor("Kadapt_load_low!", false, factor);
AlterXAxisForThreeBarSensor("Kadapt_load_high!", false, factor);
AlterXAxisForThreeBarSensor("Last_cyl_komp!", false, factor);
AlterXAxisForThreeBarSensor("Overs_tab_xaxis!", false, factor);
// end
//if (!m_appSettings.PreventThreeBarRescaling)
{
TuneAndSmoothTable("Insp_mat!", 16);
TuneAndSmoothTable("Fuel_knock_mat!", 12);
TuneAndSmoothTableSixteen("Ign_map_0!", 18);
TuneAndSmoothTableSixteen("Ign_map_4!", 18);
}
// ALTER Grund_last!
// ALTER Lam_laststeg!
// symbols with MAP in Y axis
//AlterYAxisForThreeBarSensor("Lambdamatris!");
// Also scale inj_konst with factor 1.2 because the measured MAP value will be 1.2 factor lower
// and this value is used to determine Grund_tid in injection duration calculation.
//<GS-30062010> Probably better to do this after all (have a look at ChrisDuram examples)
ScaleInjectorConstant(factor); //<GS-06072010> ??? should this be done?
WriteThreeBarConversionMarker(m_fileInformation.Filename, toSensorType);
//TryVerifyChecksum(m_fileInformation.Filename);
//CheckBinForAnomalies(m_fileInformation.Filename, true, false);
//progress.Close();
}
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;
}
/// <summary>
/// Take care of threebar conversion as well!
/// </summary>
/// <param name="symbolname"></param>
/// <param name="ecudata"></param>
/// <returns></returns>
public double ConvertSymbol(string symbolname, byte[] ecudata, MapSensorType _mapsensor, double _userCorrectionFactor, double _userCorrectionOffset, bool UseUserCorrection)
{
double retval = 0;
if (UseUserCorrection)
{
retval = ConvertByteStringToDouble(ecudata);
retval *= _userCorrectionFactor;
retval += _userCorrectionOffset;
}
else
{
//convert data depending on symbolname
double _correctionForMapsensor = 1;
switch (_mapsensor)
{
case MapSensorType.MapSensor25:
_correctionForMapsensor = 1;
break;
case MapSensorType.MapSensor30:
_correctionForMapsensor = 1.2;
break;
case MapSensorType.MapSensor35:
_correctionForMapsensor = 1.4;
break;
case MapSensorType.MapSensor40:
_correctionForMapsensor = 1.6;
break;
case MapSensorType.MapSensor50:
_correctionForMapsensor = 2.0;
break;
}
switch (symbolname)
{
case "P_medel":
case "P_Manifold10":
case "P_Manifold":
case "Max_tryck":
case "Regl_tryck":
// inlet manifold pressure
retval = ConvertByteStringToDouble(ecudata);
retval *= _correctionForMapsensor;
retval *= 0.01F;
retval -= 1;
break;
case "Lufttemp":
retval = ConvertByteStringToDouble(ecudata);
if (retval > 128)
{
retval = -(256 - retval);
}
break;
case "Kyl_temp":
retval = ConvertByteStringToDouble(ecudata);
if (retval > 128)
{
retval = -(256 - retval);
}
break;
case "Rpm":
retval = ConvertByteStringToDouble(ecudata);
retval *= 10; // factor 10
break;
case "AD_sond":
// should average, no the realtime panel does that
retval = ConvertByteStringToDouble(ecudata);
retval = ConvertToAFR(retval);
break;
case "AD_EGR":
retval = ConvertByteStringToDouble(ecudata);
retval = ConvertToWidebandAFR(retval);
//retval = ConvertToAFR(retval);
break;
case "Pgm_status":
// now what, just pass it on in a seperate structure
retval = ConvertByteStringToDoubleStatus(ecudata);
break;
case "Insptid_ms10":
retval = ConvertByteStringToDouble(ecudata);
retval /= 10;
break;
case "Lacc_mangd":
case "Acc_mangd":
case "Lret_mangd":
case "Ret_mangd":
retval = ConvertByteStringToDouble(ecudata);
// 4 values in one variable, one for each cylinder
break;
case "Ign_angle":
retval = ConvertByteStringToDouble(ecudata);
if (retval > 32000)
{
retval = -(65536 - retval);
}
retval /= 10;
break;
case "Knock_offset1":
case "Knock_offset2":
case "Knock_offset3":
case "Knock_offset4":
case "Knock_offset1234":
retval = ConvertByteStringToDouble(ecudata);
if (retval > 32000)
{
retval = -(65536 - retval);
}
retval /= 10;
break;
case "Medeltrot":
retval = ConvertByteStringToDouble(ecudata);
retval -= 34;
//TODO: should substract trot_min from this value?
break;
case "Apc_decrese":
retval = ConvertByteStringToDouble(ecudata);
retval *= _correctionForMapsensor;
retval *= 0.01F; // to bar!
break;
case "P_fak":
case "I_fak":
case "D_fak":
retval = ConvertByteStringToDouble(ecudata);
if (retval > 32000)
{
retval = -(65535 - retval);
}
break;
case "PWM_ut10":
retval = ConvertByteStringToDouble(ecudata);
break;
case "Knock_count_cyl1":
case "Knock_count_cyl2":
case "Knock_count_cyl3":
case "Knock_count_cyl4":
retval = ConvertByteStringToDouble(ecudata);
break;
case "Knock_average":
retval = ConvertByteStringToDouble(ecudata);
break;
case "Bil_hast":
retval = ConvertByteStringToDouble(ecudata);
break;
case "TQ":
retval = ConvertByteStringToDouble(ecudata);
retval *= _correctionForMapsensor;
break;
default:
retval = ConvertByteStringToDouble(ecudata);
break;
}
}
return(retval);
}
private void TuneToStage(string m_currentfile, int stage, double maxBoostValue, double maxBoostFirstGear, double maxBoostSecondGear, double maxBoostFirstGearAUT, double fuelCutLevel, double AutoGearBoxPercentage, bool isLpt, TurboType turboType, InjectorType injectorType, MapSensorType mapSensorType)
{
m_resume = new Trionic5Resume();
m_resume.AddToResumeTable("Tuning your binary to stage: " + stage.ToString());
// get the software ID from the bainery
string enginetp = readenginetype(m_currentfile);
string partnumber = readpartnumber(m_currentfile);
// look up parameters for this sw id
PartNumberConverter pnc = new PartNumberConverter();
ECUInformation ecuinfo = pnc.GetECUInfo(partnumber, enginetp);
File.Copy(m_currentfile, Path.GetDirectoryName(m_currentfile) + "\\" + Path.GetFileNameWithoutExtension(m_currentfile) + DateTime.Now.ToString("yyyyMMddHHmmss") + "beforetuningtostage" + stage.ToString() + ".bin", true);
m_resume.AddToResumeTable("Backup file created (" + Path.GetFileNameWithoutExtension(m_currentfile) + DateTime.Now.ToString("yyyyMMddHHmmss") + "beforetuningtostage" + stage.ToString() + ".bin" + ")");
switch (stage)
{
case 1:
SetRegKonMatFirstGearManual(m_currentfile, 30);
SetRegKonMatSecondGearManual(m_currentfile, 45);
SetRegKonMatFirstGearAutomatic(m_currentfile, 30);
break;
case 2:
SetRegKonMatFirstGearManual(m_currentfile, 45);
SetRegKonMatSecondGearManual(m_currentfile, 45);
SetRegKonMatFirstGearAutomatic(m_currentfile, 45);
break;
case 3:
default:
SetRegKonMatFirstGearManual(m_currentfile, 45);
SetRegKonMatSecondGearManual(m_currentfile, 45);
SetRegKonMatFirstGearAutomatic(m_currentfile, 45);
break;
}
if (CheckBoostRegulationMapEmpty(m_currentfile))
{
// empty reg_kon_mat
switch (stage)
{
case 1:
FillRegulationMapValue(m_currentfile, 45);
break;
case 2:
FillRegulationMapValue(m_currentfile, 45);
break;
case 3:
default:
FillRegulationMapValue(m_currentfile, 45);
break;
}
}
if (CheckBoostRegulationAUTMapEmpty(m_currentfile))
{
switch (stage)
{
case 1:
FillRegulationAUTMapValue(m_currentfile, 45);
break;
case 2:
FillRegulationAUTMapValue(m_currentfile, 45);
break;
case 3:
default:
FillRegulationAUTMapValue(m_currentfile, 45);
break;
}
}
if (CheckPIDControlEmpty(m_currentfile))
{
FillDefaultPIDControls(m_currentfile);
}
if (CheckPIDControlAUTEmpty(m_currentfile))
{
FillDefaultPIDAUTControls(m_currentfile);
}
//depending on turbotype!!!
SetBoostRequestMaps(turboType, injectorType, mapSensorType, m_currentfile, maxBoostValue, AutoGearBoxPercentage, isLpt);
if (/*!isLpt*/true) // don't if T5.2&& m_currentfile_size > 0x20000
{
// should be percentages
/* SetInjectionMap(m_currentfile,15, 15, 255);
SetInjectionMap(m_currentfile,14, 15, 253);
SetInjectionMap(m_currentfile,13, 15, 253);
SetInjectionMap(m_currentfile,12, 15, 249);
SetInjectionMap(m_currentfile,11, 15, 248);
SetInjectionMap(m_currentfile,10, 15, 245);
SetInjectionMap(m_currentfile,9, 15, 236);
SetInjectionMap(m_currentfile,15, 14, 255);
SetInjectionMap(m_currentfile,14, 14, 253);
SetInjectionMap(m_currentfile,13, 14, 253);
SetInjectionMap(m_currentfile,12, 14, 235);
SetInjectionMap(m_currentfile,11, 14, 234);
SetInjectionMap(m_currentfile,10, 14, 226);
SetInjectionMap(m_currentfile,9, 14, 225);
SetInjectionMap(m_currentfile,15, 13, 248);
SetInjectionMap(m_currentfile,14, 13, 245);
SetInjectionMap(m_currentfile,13, 13, 245);
SetInjectionMap(m_currentfile,12, 13, 224);
SetInjectionMap(m_currentfile,11, 13, 217);
SetInjectionMap(m_currentfile,10, 13, 205);
SetInjectionMap(m_currentfile,9, 13, 189);
SetInjectionMap(m_currentfile,15, 12, 219);
SetInjectionMap(m_currentfile,14, 12, 215);
SetInjectionMap(m_currentfile,13, 12, 213);
SetInjectionMap(m_currentfile,12, 12, 206);
SetInjectionMap(m_currentfile,11, 12, 205);
SetInjectionMap(m_currentfile,10, 12, 198);
SetInjectionMap(m_currentfile,9, 12, 176);
SetInjectionMap(m_currentfile,15, 11, 198);
SetInjectionMap(m_currentfile,14, 11, 192);
SetInjectionMap(m_currentfile,13, 11, 191);
SetInjectionMap(m_currentfile,12, 11, 190);
SetInjectionMap(m_currentfile,11, 11, 190);
SetInjectionMap(m_currentfile,10, 11, 183);
SetInjectionMap(m_currentfile,9, 11, 163);*/
}
IncreaseInjectionKnockMap(m_currentfile, 0, 4);
IncreaseInjectionKnockMap(m_currentfile, 1, 4);
IncreaseInjectionKnockMap(m_currentfile, 2, 4);
//SetIgnitionMap(m_currentfile, 15, 17, 1.5);
//SetIgnitionMap(m_currentfile, 14, 17, 1.0);
//SetIgnitionMap(m_currentfile, 13, 17, 0.5);
//byte fuelcut = (byte)((fuelCutLevel + 1) * 100);
SetBoostLimitMap(m_currentfile, 254 /* fuelcut */);
//m_resume.m_resume.AddToResumeTable("Updated fuelcut map to: " + fuelCutLevel.ToString() + " bar");
byte fglimit = (byte)((maxBoostFirstGear + 1) * 100);
SetFirstGearLimiter(m_currentfile, fglimit);
m_resume.AddToResumeTable("Updated first gear limiter (MAN) to: " + maxBoostFirstGear.ToString() + " bar");
byte fgalimit = (byte)((maxBoostFirstGearAUT + 1) * 100);
SetFirstGearLimiterAutoTrans(m_currentfile, fgalimit);
m_resume.AddToResumeTable("Updated first gear limiter (AUT) to: " + maxBoostFirstGearAUT.ToString() + " bar");
byte sglimit = (byte)((maxBoostSecondGear + 1) * 100);
SetSecondGearLimiter(m_currentfile, sglimit);
m_resume.AddToResumeTable("Updated second gear limiter (MAN) to: " + maxBoostSecondGear.ToString() + " bar");
// <Guido> add Max_regl_temp1 Max_regl_temp2
SetMaxReglTempValues(m_currentfile, 250);
try
{
Trionic5Anomalies anomalies = new Trionic5Anomalies();
anomalies.CheckBinForAnomalies(m_currentfile, m_resume, false, true, m_fileInformation );
}
catch (Exception E)
{
Console.WriteLine("CheckBinForAnomalies: " + E.Message);
}
// mark this particular file as tuned to stage X, to prevent running the wizard on this file again!
//enginetp = enginetp.Substring(0, enginetp.Length - 4);
//enginetp += "T5S" + stage.ToString();
//writeenginetype(enginetp);
WriteTunedToStageMarker(m_currentfile, stage);
m_resume.AddToResumeTable("Updated binary description with tuned stage");
Trionic5File file = new Trionic5File();
file.LibraryPath = Application.StartupPath + "\\Binaries";
file.SetAutoUpdateChecksum(m_autoUpdateChecksum);
file.UpdateChecksum(m_currentfile);
}
private void SetBoostRequestMaps(TurboType turboType, InjectorType injectorType, MapSensorType mapSensorType, string m_currentfile, double maxBoostValue, double AutoGearBoxPercentage, bool isLpt)
{
switch (turboType)
{
case TurboType.Stock:
SetBoostRequestMap(m_currentfile, 0, 6, maxBoostValue * 0.85, AutoGearBoxPercentage); // % of max boost
SetBoostRequestMap(m_currentfile, 1, 6, maxBoostValue * 0.87, AutoGearBoxPercentage); // low rpm
SetBoostRequestMap(m_currentfile, 2, 6, maxBoostValue * 0.89, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 3, 6, maxBoostValue * 0.90, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 4, 6, maxBoostValue * 0.95, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 5, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 6, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 7, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 8, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 9, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 10, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 11, 6, maxBoostValue * 0.9, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 12, 6, maxBoostValue * 0.8, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 13, 6, maxBoostValue * 0.7, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 14, 6, maxBoostValue * 0.65, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 15, 6, maxBoostValue * 0.6, AutoGearBoxPercentage); // high rpm
SetBoostRequestMap(m_currentfile, 0, 7, maxBoostValue * 0.85, AutoGearBoxPercentage); // % of max boost
SetBoostRequestMap(m_currentfile, 1, 7, maxBoostValue * 0.89, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 2, 7, maxBoostValue * 0.9, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 3, 7, maxBoostValue * 0.95, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 4, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 5, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 6, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 7, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 8, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 9, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 10, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 11, 7, maxBoostValue * 0.9, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 12, 7, maxBoostValue * 0.8, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 13, 7, maxBoostValue * 0.7, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 14, 7, maxBoostValue * 0.65, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 15, 7, maxBoostValue * 0.6, AutoGearBoxPercentage);
break;
case TurboType.TD0415T: // hold longer than stock
SetBoostRequestMap(m_currentfile, 0, 6, maxBoostValue * 0.85, AutoGearBoxPercentage); // % of max boost
SetBoostRequestMap(m_currentfile, 1, 6, maxBoostValue * 0.87, AutoGearBoxPercentage); // low rpm
SetBoostRequestMap(m_currentfile, 2, 6, maxBoostValue * 0.89, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 3, 6, maxBoostValue * 0.90, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 4, 6, maxBoostValue * 0.95, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 5, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 6, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 7, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 8, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 9, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 10, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 11, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 12, 6, maxBoostValue * 0.95, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 13, 6, maxBoostValue * 0.9, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 14, 6, maxBoostValue * 0.80, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 15, 6, maxBoostValue * 0.65, AutoGearBoxPercentage); // high rpm
SetBoostRequestMap(m_currentfile, 0, 7, maxBoostValue * 0.85, AutoGearBoxPercentage); // % of max boost
SetBoostRequestMap(m_currentfile, 1, 7, maxBoostValue * 0.89, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 2, 7, maxBoostValue * 0.9, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 3, 7, maxBoostValue * 0.95, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 4, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 5, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 6, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 7, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 8, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 9, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 10, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 11, 7, maxBoostValue , AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 12, 7, maxBoostValue * 0.95, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 13, 7, maxBoostValue * 0.90, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 14, 7, maxBoostValue * 0.80, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 15, 7, maxBoostValue * 0.65, AutoGearBoxPercentage);
break;
case TurboType.TD0419T: // hold longer than stock but spool later
case TurboType.GT28BB: // hold longer than stock but spool later
case TurboType.GT28RS: // hold longer than stock but spool later
SetBoostRequestMap(m_currentfile, 0, 6, maxBoostValue * 0.60, AutoGearBoxPercentage); // % of max boost
SetBoostRequestMap(m_currentfile, 1, 6, maxBoostValue * 0.60, AutoGearBoxPercentage); // low rpm
SetBoostRequestMap(m_currentfile, 2, 6, maxBoostValue * 0.60, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 3, 6, maxBoostValue * 0.65, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 4, 6, maxBoostValue * 0.80, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 5, 6, maxBoostValue * 0.95, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 6, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 7, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 8, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 9, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 10, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 11, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 12, 6, maxBoostValue * 0.95, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 13, 6, maxBoostValue * 0.9, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 14, 6, maxBoostValue * 0.85, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 15, 6, maxBoostValue * 0.70, AutoGearBoxPercentage); // high rpm
SetBoostRequestMap(m_currentfile, 0, 7, maxBoostValue * 0.60, AutoGearBoxPercentage); // % of max boost
SetBoostRequestMap(m_currentfile, 1, 7, maxBoostValue * 0.60, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 2, 7, maxBoostValue * 0.60, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 3, 7, maxBoostValue * 0.65, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 4, 7, maxBoostValue * 0.80, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 5, 7, maxBoostValue * 0.95, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 6, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 7, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 8, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 9, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 10, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 11, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 12, 7, maxBoostValue * 0.95, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 13, 7, maxBoostValue * 0.90, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 14, 7, maxBoostValue * 0.85, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 15, 7, maxBoostValue * 0.70, AutoGearBoxPercentage);
break;
case TurboType.GT3071R: // hold longer than stock
case TurboType.HX35w: // hold longer than stock
SetBoostRequestMap(m_currentfile, 0, 6, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7); // % of max boost
SetBoostRequestMap(m_currentfile, 1, 6, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7); // low rpm
SetBoostRequestMap(m_currentfile, 2, 6, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 3, 6, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 4, 6, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 5, 6, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 6, 6, maxBoostValue * 0.65, AutoGearBoxPercentage, 0.8);
SetBoostRequestMap(m_currentfile, 7, 6, maxBoostValue * 0.75, AutoGearBoxPercentage, 1.0);
SetBoostRequestMap(m_currentfile, 8, 6, maxBoostValue * 0.95, AutoGearBoxPercentage, 1.2);
SetBoostRequestMap(m_currentfile, 9, 6, maxBoostValue * 0.98, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 10, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 11, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 12, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 13, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 14, 6, maxBoostValue * 0.95, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 15, 6, maxBoostValue * 0.80, AutoGearBoxPercentage); // high rpm
SetBoostRequestMap(m_currentfile, 0, 7, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7); // % of max boost
SetBoostRequestMap(m_currentfile, 1, 7, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7); // low rpm
SetBoostRequestMap(m_currentfile, 2, 7, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 3, 7, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 4, 7, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 5, 7, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 6, 7, maxBoostValue * 0.65, AutoGearBoxPercentage, 0.8);
SetBoostRequestMap(m_currentfile, 7, 7, maxBoostValue * 0.75, AutoGearBoxPercentage, 1.0);
SetBoostRequestMap(m_currentfile, 8, 7, maxBoostValue * 0.95, AutoGearBoxPercentage, 1.2);
SetBoostRequestMap(m_currentfile, 9, 7, maxBoostValue * 0.98, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 10, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 11, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 12, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 13, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 14, 7, maxBoostValue * 0.95, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 15, 7, maxBoostValue * 0.80, AutoGearBoxPercentage);
break;
case TurboType.HX40w: // hold longer than stock
case TurboType.S400SX371:
SetBoostRequestMap(m_currentfile, 0, 6, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7); // % of max boost
SetBoostRequestMap(m_currentfile, 1, 6, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7); // low rpm
SetBoostRequestMap(m_currentfile, 2, 6, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 3, 6, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 4, 6, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 5, 6, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 6, 6, maxBoostValue * 0.65, AutoGearBoxPercentage, 0.8);
SetBoostRequestMap(m_currentfile, 7, 6, maxBoostValue * 0.75, AutoGearBoxPercentage, 1.0);
SetBoostRequestMap(m_currentfile, 8, 6, maxBoostValue * 0.95, AutoGearBoxPercentage, 1.2);
SetBoostRequestMap(m_currentfile, 9, 6, maxBoostValue * 0.98, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 10, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 11, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 12, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 13, 6, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 14, 6, maxBoostValue * 0.98, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 15, 6, maxBoostValue * 0.93, AutoGearBoxPercentage); // high rpm
SetBoostRequestMap(m_currentfile, 0, 7, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7); // % of max boost
SetBoostRequestMap(m_currentfile, 1, 7, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7); // low rpm
SetBoostRequestMap(m_currentfile, 2, 7, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 3, 7, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 4, 7, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 5, 7, maxBoostValue * 0.60, AutoGearBoxPercentage, 0.7);
SetBoostRequestMap(m_currentfile, 6, 7, maxBoostValue * 0.65, AutoGearBoxPercentage, 0.8);
SetBoostRequestMap(m_currentfile, 7, 7, maxBoostValue * 0.75, AutoGearBoxPercentage, 1.0);
SetBoostRequestMap(m_currentfile, 8, 7, maxBoostValue * 0.95, AutoGearBoxPercentage, 1.2);
SetBoostRequestMap(m_currentfile, 9, 7, maxBoostValue * 0.98, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 10, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 11, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 12, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 13, 7, maxBoostValue, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 14, 7, maxBoostValue * 0.98, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 15, 7, maxBoostValue * 0.93, AutoGearBoxPercentage);
break;
}
if (isLpt)
{
// more columns need adjusting
SetBoostRequestMap(m_currentfile, 0, 5, maxBoostValue * 0.55, AutoGearBoxPercentage); // % of max boost
SetBoostRequestMap(m_currentfile, 1, 5, maxBoostValue * 0.55, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 2, 5, maxBoostValue * 0.55, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 3, 5, maxBoostValue * 0.57, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 4, 5, maxBoostValue * 0.58, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 5, 5, maxBoostValue * 0.58, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 6, 5, maxBoostValue * 0.58, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 7, 5, maxBoostValue * 0.57, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 8, 5, maxBoostValue * 0.57, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 9, 5, maxBoostValue * 0.56, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 10, 5, maxBoostValue * 0.53, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 11, 5, maxBoostValue * 0.50, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 12, 5, maxBoostValue * 0.45, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 13, 5, maxBoostValue * 0.40, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 14, 5, maxBoostValue * 0.40, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 15, 5, maxBoostValue * 0.35, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 0, 4, maxBoostValue * 0.35, AutoGearBoxPercentage); // 75% of max boost
SetBoostRequestMap(m_currentfile, 1, 4, maxBoostValue * 0.35, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 2, 4, maxBoostValue * 0.35, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 3, 4, maxBoostValue * 0.30, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 4, 4, maxBoostValue * 0.30, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 5, 4, maxBoostValue * 0.30, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 6, 4, maxBoostValue * 0.30, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 7, 4, maxBoostValue * 0.30, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 8, 4, maxBoostValue * 0.30, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 9, 4, maxBoostValue * 0.30, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 10, 4, maxBoostValue * 0.25, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 11, 4, maxBoostValue * 0.2, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 12, 4, maxBoostValue * 0.18, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 13, 4, maxBoostValue * 0.15, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 14, 4, maxBoostValue * 0.15, AutoGearBoxPercentage);
SetBoostRequestMap(m_currentfile, 15, 4, maxBoostValue * 0.1, AutoGearBoxPercentage);
}
}
private void AddFilesToLibrary(string path)
{
Application.DoEvents();
DataTable dt = new DataTable("UserLib");
dt.Columns.Add("Filename");
dt.Columns.Add("FilenameNoPath");
dt.Columns.Add("EngineType");
dt.Columns.Add("Stage");
dt.Columns.Add("Injectors");
dt.Columns.Add("Mapsensor");
dt.Columns.Add("Torque");
dt.Columns.Add("E85", Type.GetType("System.Boolean"));
dt.Columns.Add("T7Valve", Type.GetType("System.Boolean"));
dt.Columns.Add("Partnumber");
dt.Columns.Add("SoftwareID");
dt.Columns.Add("CPU");
dt.Columns.Add("RAMlocked", Type.GetType("System.Boolean"));
if (File.Exists(Application.StartupPath + "\\UserLib.xml"))
{
dt.ReadXml(Application.StartupPath + "\\UserLib.xml");
}
string[] files = Directory.GetFiles(path, "*.bin", SearchOption.AllDirectories);
foreach (string file in files)
{
FileInfo fi = new FileInfo(file);
this.Text = "User library browser - " + Path.GetFileName(file);
Application.DoEvents();
if (fi.Length == 0x20000 || fi.Length == 0x40000)
{
try
{
foreach (DataRow dr in dt.Rows)
{
if (dr["Filename"] != DBNull.Value)
{
if (dr["Filename"].ToString() == file)
{
dt.Rows.Remove(dr);
break;
}
}
}
Trionic5File _file = new Trionic5File();
_file.SelectFile(file);
Trionic5FileInformation m_trionicFileInformation = _file.ParseFile();
Trionic5Properties props = _file.GetTrionicProperties();
// get information about the file
MapSensorType mapsensor = _file.GetMapSensorType(true);
ECUFileType fileType = _file.DetermineFileType();
//t5p.Enginetype
//t5p.Partnumber
//t5p.CPUspeed
//t5p.SoftwareID
//t5p.RAMlocked
//TuningStage _stage = m_trionicFile.DetermineTuningStage(out m_maxBoost);
int injkonst = _file.GetSymbolAsInt("Inj_konst!");
bool m_E85 = false;
int max_injection = _file.GetMaxInjection();
max_injection *= injkonst;
// de maximale waarde uit fuel_map_x_axis! aub
byte[] fuelxaxis = _file.ReadData((uint)m_trionicFileInformation.GetSymbolAddressFlash("Fuel_map_xaxis!"), (uint)m_trionicFileInformation.GetSymbolLength("Fuel_map_xaxis!"));
int max_value_x_axis = Convert.ToInt32(fuelxaxis.GetValue(fuelxaxis.Length - 1));
if (mapsensor == MapSensorType.MapSensor30)
{
max_value_x_axis *= 120;
max_value_x_axis /= 100;
}
else if (mapsensor == MapSensorType.MapSensor35)
{
max_value_x_axis *= 140;
max_value_x_axis /= 100;
}
else if (mapsensor == MapSensorType.MapSensor40)
{
max_value_x_axis *= 160;
max_value_x_axis /= 100;
}
else if (mapsensor == MapSensorType.MapSensor50)
{
max_value_x_axis *= 200;
max_value_x_axis /= 100;
}
//Console.WriteLine("max x: " + max_value_x_axis.ToString());
float max_support_boost = max_value_x_axis;
max_support_boost /= 100;
max_support_boost -= 1;
float corr_inj = 1.4F / max_support_boost;
corr_inj *= 100;
//Console.WriteLine("corr_inj = " + corr_inj.ToString());
max_injection *= (int)corr_inj;
max_injection /= 100;
// dtReport.Rows.Add("Max injection: "+ max_injection.ToString());
if (max_injection > 7500)
{
m_E85 = true;
}
if (injkonst > 26)
{
m_E85 = true;
}
//TODO: nog extra controleren of er andere indicatoren zijn of er E85 gebruikt wordt
// we kunnen dit aan de start verrijkingen zien en aan de ontstekingstijdstippen bij
// vollast (ontsteking scherper), let op want dit laatste is bij W/M injectie ook zo.
// de een na laatste waarde uit Eftersta_fak! geeft een duidelijke indicatie
byte[] eftstafak = _file.ReadData((uint)m_trionicFileInformation.GetSymbolAddressFlash("Eftersta_fak!"), (uint)m_trionicFileInformation.GetSymbolLength("Eftersta_fak!"));
if (eftstafak.Length == 15)
{
int eftstafakvalue = Convert.ToInt32(eftstafak.GetValue(13));
if (eftstafakvalue > 170)
{
m_E85 = true;
}
}
if (m_E85)
{
max_injection *= 10;
max_injection /= 14;
// dtReport.Rows.Add("Probable fuel: E85");
}
// get peak from insp_mat and multiply by injector constant
InjectorType inj_type = InjectorType.Stock;
if (max_injection > 5000)
{
inj_type = InjectorType.Stock;
}
else if (max_injection > 3500)
{
inj_type = InjectorType.GreenGiants;
}
else if (max_injection > 2000)
{
inj_type = InjectorType.Siemens630Dekas;
}
else if (max_injection > 1565)
{
inj_type = InjectorType.Siemens875Dekas;
}
else
{
inj_type = InjectorType.Siemens1000cc;
}
// Add info about T5/T7 valve
int frek230 = _file.GetSymbolAsInt("Frek_230!");
int frek250 = _file.GetSymbolAsInt("Frek_250!");
bool T7Valve = false;
if (fileType == ECUFileType.Trionic52File)
{
if (frek230 == 728 || frek250 == 935)
{
T7Valve = false;
}
else
{
T7Valve = true;
}
}
else if (fileType == ECUFileType.Trionic55File)
{
if (frek230 == 90 || frek250 == 70)
{
T7Valve = false;
}
else
{
T7Valve = true;
}
}
int torque = 0;
float m_maxBoost = 0;
TuningStage _stage = _file.DetermineTuningStage(out m_maxBoost);
PressureToTorque ptt = new PressureToTorque();
torque = Convert.ToInt32(ptt.CalculateTorqueFromPressure(m_maxBoost, props.TurboType));
dt.Rows.Add(file, Path.GetFileName(file), props.Enginetype, _stage.ToString(), inj_type.ToString(), mapsensor.ToString(), torque.ToString(), m_E85, T7Valve, props.Partnumber, props.SoftwareID, props.CPUspeed, props.RAMlocked);
}
catch (Exception E)
{
Console.WriteLine(E.Message);
}
}
}
dt.WriteXml(Application.StartupPath + "\\UserLib.xml");
gridControl1.DataSource = dt;
gridView1.BestFitColumns();
this.Text = "User library browser";
}
private double CalculateConversionFactor(MapSensorType fromSensorType, MapSensorType toSensorType)
{
double factor = 1.2;
switch (fromSensorType)
{
case MapSensorType.MapSensor25:
switch (toSensorType)
{
case MapSensorType.MapSensor25:
factor = 1.0; // from 2.5 to 2.5 mapsensor
break;
case MapSensorType.MapSensor30:
factor = 1.2; // from 2.5 to 3.0 mapsensor
break;
case MapSensorType.MapSensor35:
factor = 1.4; // from 2.5 to 3.5 mapsensor
break;
case MapSensorType.MapSensor40:
factor = 1.6; // from 2.5 to 4.0 mapsensor
break;
case MapSensorType.MapSensor50:
factor = 2.0; // from 2.5 to 5.0 mapsensor
break;
}
break;
case MapSensorType.MapSensor30:
switch (toSensorType)
{
case MapSensorType.MapSensor25:
factor = 0.8333; // from 3.0 to 2.5 mapsensor
break;
case MapSensorType.MapSensor30:
factor = 1.0; // from 3.0 to 3.0 mapsensor
break;
case MapSensorType.MapSensor35:
factor = 1.1666; // from 3.0 to 3.5 mapsensor
break;
case MapSensorType.MapSensor40:
factor = 1.3333; // from 3.0 to 4.0 mapsensor
break;
case MapSensorType.MapSensor50:
factor = 1.6667; // from 3.0 to 5.0 mapsensor
break;
}
break;
case MapSensorType.MapSensor35:
switch (toSensorType)
{
case MapSensorType.MapSensor25:
factor = 0.7143; // from 3.5 to 2.5 mapsensor
break;
case MapSensorType.MapSensor30:
factor = 0.8571; // from 3.5 to 3.0 mapsensor
break;
case MapSensorType.MapSensor35:
factor = 1.0; // from 3.5 to 3.5 mapsensor
break;
case MapSensorType.MapSensor40:
factor = 1.1429; // from 3.5 to 4.0 mapsensor
break;
case MapSensorType.MapSensor50:
factor = 1.4285; // from 3.5 to 5.0 mapsensor
break;
}
break;
case MapSensorType.MapSensor40:
switch (toSensorType)
{
case MapSensorType.MapSensor25:
factor = 0.6250; // from 4.0 to 2.5 mapsensor
break;
case MapSensorType.MapSensor30:
factor = 0.75; // from 4.0 to 3.0 mapsensor
break;
case MapSensorType.MapSensor35:
factor = 0.875; // from 4.0 to 3.5 mapsensor
break;
case MapSensorType.MapSensor40:
factor = 1.0; // from 4.0 to 4.0 mapsensor
break;
case MapSensorType.MapSensor50:
factor = 1.25; // from 4.0 to 5.0 mapsensor
break;
}
break;
case MapSensorType.MapSensor50:
switch (toSensorType)
{
case MapSensorType.MapSensor25:
factor = 0.5; // from 5.0 to 2.5 mapsensor
break;
case MapSensorType.MapSensor30:
factor = 0.6; // from 5.0 to 3.0 mapsensor
break;
case MapSensorType.MapSensor35:
factor = 0.7; // from 5.0 to 3.5 mapsensor
break;
case MapSensorType.MapSensor40:
factor = 0.8; // from 5.0 to 4.0 mapsensor
break;
case MapSensorType.MapSensor50:
factor = 1.0; // from 5.0 to 5.0 mapsensor
break;
}
break;
}
return(factor);
}
private void UpdateMaxima(TurboType turbo, InjectorType injectors, MapSensorType mapSensor)
{
switch (mapSensor)
{
case MapSensorType.MapSensor25:
// max achievable 400Nm / 1.45 bar
if (injectors == InjectorType.Stock)
{
spinEdit1.Properties.MaxValue = 400;
spinEdit2.Properties.MaxValue = (decimal)1.30;
}
else
{
spinEdit1.Properties.MaxValue = 450;
spinEdit2.Properties.MaxValue = (decimal)1.45;
}
break;
case MapSensorType.MapSensor30:
switch (injectors)
{
case InjectorType.Stock:
spinEdit1.Properties.MaxValue = 400;
spinEdit2.Properties.MaxValue = (decimal)1.30;
break;
case InjectorType.GreenGiants:
switch (turbo)
{
case TurboType.Stock:
case TurboType.TD0415T:
spinEdit1.Properties.MaxValue = 450;
spinEdit2.Properties.MaxValue = (decimal)1.45;
break;
case TurboType.GT28BB:
case TurboType.GT28RS:
case TurboType.TD0419T:
spinEdit1.Properties.MaxValue = 550;
spinEdit2.Properties.MaxValue = (decimal)1.70;
break;
case TurboType.GT3071R:
case TurboType.HX35w:
spinEdit1.Properties.MaxValue = 550;
spinEdit2.Properties.MaxValue = (decimal)1.50;
break;
case TurboType.HX40w:
case TurboType.S400SX371:
spinEdit1.Properties.MaxValue = 550;
spinEdit2.Properties.MaxValue = (decimal)1.40;
break;
}
break;
case InjectorType.Siemens630Dekas:
// 3.0 bar sensor, 630cc injectors -> max 600Nm
switch (turbo)
{
case TurboType.Stock:
case TurboType.TD0415T:
spinEdit1.Properties.MaxValue = 450;
spinEdit2.Properties.MaxValue = (decimal)1.45;
break;
case TurboType.GT28BB:
case TurboType.GT28RS:
case TurboType.TD0419T:
spinEdit1.Properties.MaxValue = 580;
spinEdit2.Properties.MaxValue = (decimal)1.75;
break;
case TurboType.GT3071R:
case TurboType.HX35w:
spinEdit1.Properties.MaxValue = 600;
spinEdit2.Properties.MaxValue = (decimal)1.80;
break;
case TurboType.HX40w:
case TurboType.S400SX371:
spinEdit1.Properties.MaxValue = 600;
spinEdit2.Properties.MaxValue = (decimal)1.70;
break;
}
break;
case InjectorType.Siemens875Dekas:
case InjectorType.Siemens1000cc:
// 3.0 bar sensor, 630cc injectors -> limit to turbo only
switch (turbo)
{
case TurboType.Stock:
case TurboType.TD0415T:
spinEdit1.Properties.MaxValue = 450;
spinEdit2.Properties.MaxValue = (decimal)1.45;
break;
case TurboType.GT28BB:
case TurboType.GT28RS:
case TurboType.TD0419T:
spinEdit1.Properties.MaxValue = 580;
spinEdit2.Properties.MaxValue = (decimal)1.75;
break;
case TurboType.GT3071R:
case TurboType.HX35w:
spinEdit1.Properties.MaxValue = 620;
spinEdit2.Properties.MaxValue = (decimal)1.9;
break;
case TurboType.HX40w:
case TurboType.S400SX371:
spinEdit1.Properties.MaxValue = 670;
spinEdit2.Properties.MaxValue = (decimal)2.0;
break;
}
break;
}
break;
case MapSensorType.MapSensor35:
case MapSensorType.MapSensor40:
case MapSensorType.MapSensor50:
switch (injectors)
{
case InjectorType.Stock:
spinEdit1.Properties.MaxValue = 400;
spinEdit2.Properties.MaxValue = (decimal)1.30;
break;
case InjectorType.GreenGiants:
switch (turbo)
{
case TurboType.Stock:
case TurboType.TD0415T:
spinEdit1.Properties.MaxValue = 450;
spinEdit2.Properties.MaxValue = (decimal)1.45;
break;
case TurboType.GT28BB:
case TurboType.GT28RS:
case TurboType.TD0419T:
spinEdit1.Properties.MaxValue = 550;
spinEdit2.Properties.MaxValue = (decimal)1.70;
break;
case TurboType.GT3071R:
case TurboType.HX35w:
spinEdit1.Properties.MaxValue = 550;
spinEdit2.Properties.MaxValue = (decimal)1.50;
break;
case TurboType.HX40w:
case TurboType.S400SX371:
spinEdit1.Properties.MaxValue = 550;
spinEdit2.Properties.MaxValue = (decimal)1.40;
break;
}
break;
case InjectorType.Siemens630Dekas:
// 3.0 bar sensor, 630cc injectors -> max 600Nm
switch (turbo)
{
case TurboType.Stock:
case TurboType.TD0415T:
spinEdit1.Properties.MaxValue = 450;
spinEdit2.Properties.MaxValue = (decimal)1.45;
break;
case TurboType.GT28BB:
case TurboType.GT28RS:
case TurboType.TD0419T:
spinEdit1.Properties.MaxValue = 580;
spinEdit2.Properties.MaxValue = (decimal)1.75;
break;
case TurboType.GT3071R:
case TurboType.HX35w:
spinEdit1.Properties.MaxValue = 600;
spinEdit2.Properties.MaxValue = (decimal)1.80;
break;
case TurboType.HX40w:
case TurboType.S400SX371:
spinEdit1.Properties.MaxValue = 600;
spinEdit2.Properties.MaxValue = (decimal)1.70;
break;
}
break;
case InjectorType.Siemens875Dekas:
case InjectorType.Siemens1000cc:
// 3.0 bar sensor, 630cc injectors -> limit to turbo only
switch (turbo)
{
case TurboType.Stock:
case TurboType.TD0415T:
spinEdit1.Properties.MaxValue = 450;
spinEdit2.Properties.MaxValue = (decimal)1.45;
break;
case TurboType.GT28BB:
case TurboType.GT28RS:
case TurboType.TD0419T:
spinEdit1.Properties.MaxValue = 580;
spinEdit2.Properties.MaxValue = (decimal)1.75;
break;
case TurboType.GT3071R:
case TurboType.HX35w:
spinEdit1.Properties.MaxValue = 620;
spinEdit2.Properties.MaxValue = (decimal)1.9;
break;
case TurboType.HX40w:
case TurboType.S400SX371:
spinEdit1.Properties.MaxValue = 670;
spinEdit2.Properties.MaxValue = (decimal)2.2;
break;
}
break;
}
break;
}
UpdateStage();
}
public void SetMapSensorType(MapSensorType mapsensor)
{
comboBoxEdit1.SelectedIndex = (int)mapsensor;
}
/// <summary>
/// Write the threebar conversion marker to the binary. This is kept at address (length - 0x1FF)
/// </summary>
/// <param name="filename"></param>
/// <param name="stage"></param>
/// <returns></returns>
private void WriteThreeBarConversionMarker(string filename, MapSensorType sensorType)
{
int address = m_fileInformation.Filelength - 0x1FF;
if (address > 0)
{
switch (sensorType)
{
case MapSensorType.MapSensor25:
writebyteinfile(filename, address, 0xFF); // original
break;
case MapSensorType.MapSensor30:
writebyteinfile(filename, address, 0x01);
break;
case MapSensorType.MapSensor35:
writebyteinfile(filename, address, 0x02);
break;
case MapSensorType.MapSensor40:
writebyteinfile(filename, address, 0x03);
break;
case MapSensorType.MapSensor50:
writebyteinfile(filename, address, 0x04);
break;
}
}
}
internal void BuildGraph()
{
if (_trionicFile != null)
{
Trionic5FileInformation m_trionicFileInformation = _trionicFile.GetFileInfo();
X_axisvalues = _trionicFile.GetMapYaxisValues(m_trionicFileInformation.GetBoostRequestMap()); // injection map Y = rpm
Trionic5Properties props = _trionicFile.GetTrionicProperties();
byte[] tryck_mat = _trionicFile.ReadData((uint)m_trionicFileInformation.GetSymbolAddressFlash(m_trionicFileInformation.GetBoostRequestMap()), (uint)m_trionicFileInformation.GetSymbolLength(m_trionicFileInformation.GetBoostRequestMap()));
if (props.AutomaticTransmission)
{
tryck_mat = _trionicFile.ReadData((uint)m_trionicFileInformation.GetSymbolAddressFlash(m_trionicFileInformation.GetBoostRequestMapAUT()), (uint)m_trionicFileInformation.GetSymbolLength(m_trionicFileInformation.GetBoostRequestMapAUT()));
}
/* new */
Insp_mat = _trionicFile.ReadData((uint)m_trionicFileInformation.GetSymbolAddressFlash(m_trionicFileInformation.GetInjectionMap()), (uint)m_trionicFileInformation.GetSymbolLength(m_trionicFileInformation.GetInjectionMap()));
//Fuel_knock_mat = m_trionicFile.ReadData((uint)m_trionicFileInformation.GetSymbolAddressFlash(m_trionicFileInformation.GetInjectionKnockMap()), (uint)m_trionicFileInformation.GetSymbolLength(m_trionicFileInformation.GetInjectionKnockMap()));
//injectiontiming.Idle_fuel_map = m_trionicFile.ReadData((uint)m_trionicFileInformation.GetSymbolAddressFlash(m_trionicFileInformation.GetIdleFuelMap()), (uint)m_trionicFileInformation.GetSymbolLength(m_trionicFileInformation.GetIdleFuelMap()));
Batt_korr_tab = _trionicFile.GetSymbolAsIntArray(m_trionicFileInformation.GetBatteryCorrectionMap());
Min_tid = _trionicFile.GetSymbolAsInt("Min_tid!");
Fuel_map_x_axis = _trionicFile.GetXaxisValues(m_trionicFileInformation.Filename, _trionicFile.GetFileInfo().GetInjectionMap());
Fuel_map_y_axis = _trionicFile.GetYaxisValues(m_trionicFileInformation.Filename, _trionicFile.GetFileInfo().GetInjectionMap());
//injectiontiming.Fuel_knock_map_x_axis = m_trionicFile.GetXaxisValues(m_trionicFileInformation.Filename, "Fuel_knock_mat!");
//injectiontiming.Fuel_knock_map_y_axis = m_trionicFile.GetYaxisValues(m_trionicFileInformation.Filename, "Fuel_knock_mat!");
//injectiontiming.Idle_fuel_x_axis = m_trionicFile.GetXaxisValues(m_trionicFileInformation.Filename, "Idle_fuel_korr!");
//injectiontiming.Idle_fuel_y_axis = m_trionicFile.GetYaxisValues(m_trionicFileInformation.Filename, "Idle_fuel_korr!");
Luft_kompfak = _trionicFile.Luft_kompfak_array;
//Temp_steg = _trionicFile.Temp_steg_array;
Kyltemp_steg = _trionicFile.Kyltemp_steg_array;
Kyltemp_tab = _trionicFile.Kyltemp_tab_array;
Lufttemp_steg = _trionicFile.Lufttemp_steg_array;
Lufttemp_tab = _trionicFile.Lufttemp_tab_array;
byte[] data = _trionicFile.ReadData((uint)m_trionicFileInformation.GetSymbolAddressFlash(m_trionicFileInformation.GetInjectorConstant()), (uint)m_trionicFileInformation.GetSymbolLength(m_trionicFileInformation.GetInjectorConstant()));
int inj_konst = Convert.ToInt32(data.GetValue(0));
Inj_konst = inj_konst;
/* new */
// get every 8th byte
double[] values = new double[16];
MapSensorType mst = _trionicFile.GetMapSensorType(_appSettings.AutoDetectMapsensorType);
double[] injdc = new double[16]; // fill with injector DC in max values
for (int i = 0; i < 16; i++)
{
double val = Convert.ToDouble(tryck_mat[i * 8 + 7]);
if (mst == MapSensorType.MapSensor30)
{
val *= 1.2;
}
else if (mst == MapSensorType.MapSensor35)
{
val *= 1.4;
}
else if (mst == MapSensorType.MapSensor40)
{
val *= 1.6;
}
else if (mst == MapSensorType.MapSensor50)
{
val *= 2.0;
}
injdc.SetValue(BoostRpmToInjectorDuration(Convert.ToInt32(val), Convert.ToInt32(X_axisvalues.GetValue(i))), i);
val -= 100;
val /= 100;
values.SetValue(val, i);
}
FillGraph(values, injdc, props.TurboType);
}
}
private void RunMapSensorWizard(MapSensorType targetMapSensorType)
{
if (m_trionicFile.Exists())
{
Trionic5Tuner _tuner = new Trionic5Tuner();
string targetMapSensorString = "3 bar mapsensor";
switch (targetMapSensorType)
{
case MapSensorType.MapSensor25:
targetMapSensorString = "2.5 bar mapsensor";
break;
case MapSensorType.MapSensor30:
targetMapSensorString = "3.0 bar mapsensor";
break;
case MapSensorType.MapSensor35:
targetMapSensorString = "3.5 bar mapsensor";
break;
case MapSensorType.MapSensor40:
targetMapSensorString = "4.0 bar mapsensor";
break;
case MapSensorType.MapSensor50:
targetMapSensorString = "5.0 bar mapsensor";
break;
}
MapSensorType fromMapSensortype = m_trionicFile.GetMapSensorType(m_appSettings.AutoDetectMapsensorType);
frmMapSensorWizard mapSensorWiz = new frmMapSensorWizard();
mapSensorWiz.SetMapSensorTypes(fromMapSensortype, targetMapSensorType);
if (mapSensorWiz.ShowDialog() == DialogResult.OK)
{
_tuner.AutoUpdateChecksum = m_appSettings.AutoChecksum;
_tuner.ConvertFileToThreeBarMapSensor(m_trionicFileInformation, fromMapSensortype, MapSensorType.MapSensor30);
props = m_trionicFile.GetTrionicProperties();
m_trionicFile.UpdateChecksum();
TuningReport tuningrep = new TuningReport();
tuningrep.ReportTitle = targetMapSensorString + " report";
tuningrep.DataSource = _tuner.Resume.ResumeTuning;
tuningrep.CreateReport();
tuningrep.ShowPreview(defaultLookAndFeel1.LookAndFeel);
}
}
}
