public RW_EQUIPMENT getData(int ID, string temUnit, string volUnit)
{
RW_EQUIPMENT eq = new RW_EQUIPMENT();
RW_ASSESSMENT_BUS assBus = new RW_ASSESSMENT_BUS();
BUS_UNITS convUnit = new BUS_UNITS();
eq.ID = ID;
eq.AdminUpsetManagement = chkAministrativeControl.Checked ? 1 : 0;
eq.ContainsDeadlegs = chkContainsDeadlegs.Checked ? 1 : 0;
eq.CyclicOperation = chkCylicOperation.Checked ? 1 : 0;
eq.HighlyDeadlegInsp = chkHighlyEffectiveInspection.Checked ? 1 : 0;
eq.DowntimeProtectionUsed = chkDowntimeProtection.Checked ? 1 : 0;
eq.ExternalEnvironment = cbExternalEnvironment.Text;
eq.HeatTraced = chkHeatTraced.Checked ? 1 : 0;
eq.InterfaceSoilWater = chkInterfaceSoilWater.Checked ? 1 : 0;
eq.LinerOnlineMonitoring = chkLinerOnlineMonitoring.Checked ? 1 : 0;
eq.MaterialExposedToClExt = chkMaterialExposedFluid.Checked ? 1 : 0;
double minReqTem = 0;
if (temUnit == "DEG_C")
{
minReqTem = txtMinRequiredTemperature.Text != "" ? double.Parse(txtMinRequiredTemperature.Text) : 0;
}
else if (temUnit == "DEG_F")
{
minReqTem = txtMinRequiredTemperature.Text != "" ? convUnit.FahToCel(double.Parse(txtMinRequiredTemperature.Text)) : 0; // mai
}
else
{
minReqTem = txtMinRequiredTemperature.Text != "" ? convUnit.KenvinToCel(double.Parse(txtMinRequiredTemperature.Text)) : 0; // mai
}
eq.MinReqTemperaturePressurisation = (float)minReqTem;
eq.OnlineMonitoring = cbOnlineMonitoring.Text;
eq.PresenceSulphidesO2 = chkPresenceSulphideOperation.Checked ? 1 : 0;
eq.PresenceSulphidesO2Shutdown = chkPresenceSulphideShutdown.Checked ? 1 : 0;
eq.PressurisationControlled = chkPressurisationControlled.Checked ? 1 : 0;
eq.PWHT = chkPWHT.Checked ? 1 : 0;
eq.SteamOutWaterFlush = chkSteamedOutPriorWaterFlushing.Checked ? 1 : 0;
int equipmentID = assBus.getEquipmentID(ID);
float FMS = busFacility.getFMS(busEquipmentMaster.getFacilityID(equipmentID));
eq.ManagementFactor = FMS;
eq.ThermalHistory = cbThermalHistory.Text;
eq.YearLowestExpTemp = chkEquipmentOperatingManyYear.Checked ? 1 : 0;
double equipVolume = 0;
if (volUnit == "m3")
{
equipVolume = txtEquipmentVolume.Text != "" ? float.Parse(txtEquipmentVolume.Text) : 0;
}
else
{
equipVolume = txtMinRequiredTemperature.Text != "" ? (float.Parse(txtEquipmentVolume.Text) * convUnit.ft3) : 0; // mai
}
eq.Volume = (float)equipVolume;
//eq.CommissionDate =
return(eq);
}
public RW_EQUIPMENT getData(int ID, string temUnit, string volUnit)
{
RW_EQUIPMENT eq = new RW_EQUIPMENT();
eq.ID = ID;
eq.AdminUpsetManagement = chkAministrativeControl.Checked ? 1 : 0;
eq.CyclicOperation = chkCylicOperation.Checked ? 1 : 0;
eq.DowntimeProtectionUsed = chkDowntimeProtection.Checked ? 1 : 0;
eq.ExternalEnvironment = cbAdjustmentSettlement.Text;
eq.HeatTraced = chkHeatTraced.Checked ? 1 : 0;
eq.InterfaceSoilWater = chkInterfaceSoilWater.Checked ? 1 : 0;
eq.LinerOnlineMonitoring = chkLinerOnlineMonitoring.Checked ? 1 : 0;
eq.MaterialExposedToClExt = chkMaterialExposedFluid.Checked ? 1 : 0;
//eq.MinReqTemperaturePressurisation = txtMinRequiredTemperature.Text != "" ? float.Parse(txtMinRequiredTemperature.Text) : 0;
double minReqTem = 0; // hiếu
if (temUnit == "DEG_C")
{
minReqTem = txtMinRequiredTemperature.Text != "" ? double.Parse(txtMinRequiredTemperature.Text) : 0;
}
else if (temUnit == "DEG_F")
{
minReqTem = txtMinRequiredTemperature.Text != "" ? convUnit.FahToCel(double.Parse(txtMinRequiredTemperature.Text)) : 0; // mai
}
else
{
minReqTem = txtMinRequiredTemperature.Text != "" ? convUnit.KenvinToCel(double.Parse(txtMinRequiredTemperature.Text)) : 0; // mai
}
eq.MinReqTemperaturePressurisation = (float)minReqTem; //hiếu
eq.OnlineMonitoring = cbOnlineMonitoring.Text;
eq.PresenceSulphidesO2 = chkPresenceSulphideOperation.Checked ? 1 : 0;
eq.PresenceSulphidesO2Shutdown = chkPresenceSulphideShutdown.Checked ? 1 : 0;
eq.PressurisationControlled = chkPressurisationControlled.Checked ? 1 : 0;
eq.PWHT = chkPWHT.Checked ? 1 : 0;
eq.SteamOutWaterFlush = chkSteamedOutPriorWaterFlushing.Checked ? 1 : 0;
eq.ManagementFactor = (float)numSystemManagementFactor.Value;
eq.ThermalHistory = cbThermalHistory.Text;
eq.YearLowestExpTemp = chkEquipmentOperatingManyYear.Checked ? 1 : 0;
if (volUnit == "m3")
{
eq.Volume = txtEquipmentVolume.Text != "" ? float.Parse(txtEquipmentVolume.Text) : 0;
}
else
{
eq.Volume = txtMinRequiredTemperature.Text != "" ? (float)(double.Parse(txtEquipmentVolume.Text) * convUnit.ft3) : 0; // mai
}
eq.TypeOfSoil = cbTypeSoild.Text;
eq.EnvironmentSensitivity = cbEnvironmentalSensitivity.Text;
eq.AdjustmentSettle = cbAdjustmentSettlement.Text;
eq.ComponentIsWelded = chkComponentWelded.Checked ? 1 : 0;
eq.TankIsMaintained = chkTankMaintainedAccordance.Checked ? 1 : 0;
//tank shell
//tank bottom
eq.DistanceToGroundWater = txtDistanceGroundWater.Text != "" ? float.Parse(txtDistanceGroundWater.Text) : 0;
return(eq);
}
public RW_INPUT_CA_LEVEL_1 getDataforCA(int id, string temperatureUnit, string pressureUnit)//thao
{
RW_INPUT_CA_LEVEL_1 ca = new RW_INPUT_CA_LEVEL_1();
BUS_UNITS convUnit = new BUS_UNITS();
ca.ID = id;
switch (temperatureUnit)
{
case "DEG_C":
ca.Stored_Temp = txtMinimumOperatingTemp.Text != "" ? float.Parse(txtMinimumOperatingTemp.Text) + 273 : 0;
break;
case "DEG_F":
ca.Stored_Temp = txtMinimumOperatingTemp.Text != "" ? (float)convUnit.FahToCel(float.Parse(txtMinimumOperatingTemp.Text)) + 273 : 0;
break;
case "K":
ca.Stored_Temp = txtMinimumOperatingTemp.Text != "" ? (float)convUnit.KenvinToCel(float.Parse(txtMinimumOperatingTemp.Text)) + 273 : 0;
break;
}
switch (pressureUnit)
{
case "psi":
ca.Stored_Pressure = txtMinOperatingPressure.Text != "" ? float.Parse(txtMinOperatingPressure.Text) * 6.895f : 0;
break;
case "KSI":
ca.Stored_Pressure = txtMinOperatingPressure.Text != "" ? float.Parse(txtMinOperatingPressure.Text) * (float)convUnit.ksi * 6.895f : 0;
break;
case "bar":
ca.Stored_Pressure = txtMinOperatingPressure.Text != "" ? float.Parse(txtMinOperatingPressure.Text) * (float)convUnit.bar * 6.895f : 0;
break;
case "MPa":
ca.Stored_Pressure = txtMinOperatingPressure.Text != "" ? float.Parse(txtMinOperatingPressure.Text) * (float)convUnit.MPa * 6.895f : 0;
break;
case "NpM2":
ca.Stored_Pressure = txtMinOperatingPressure.Text != "" ? float.Parse(txtMinOperatingPressure.Text) * (float)convUnit.NpM2 * 6.895f : 0;
break;
case "NpCM2":
ca.Stored_Pressure = txtMinOperatingPressure.Text != "" ? float.Parse(txtMinOperatingPressure.Text) * (float)convUnit.NpCM2 * 6.895f : 0;
break;
}
return(ca);
}
public RW_STREAM getDataforStream(int ID, string temperatureUnit, string pressureUnit, string flowRateUnit)
{
RW_STREAM str = new RW_STREAM();
BUS_UNITS convUnit = new BUS_UNITS();
str.ID = ID;
if (flowRateUnit == "m3/hr")
{
str.FlowRate = txtFlowRate.Text != "" ? float.Parse(txtFlowRate.Text) : 0;
}
else
{
str.FlowRate = txtFlowRate.Text != "" ? float.Parse(txtFlowRate.Text) * (float)convUnit.ft3 : 0;
}
switch (temperatureUnit)
{
case "DEG_C":
str.MaxOperatingTemperature = txtMaximumOperatingTemp.Text != "" ? float.Parse(txtMaximumOperatingTemp.Text) : 0;
str.MinOperatingTemperature = txtMinimumOperatingTemp.Text != "" ? float.Parse(txtMinimumOperatingTemp.Text) : 0;
str.CriticalExposureTemperature = txtCriticalExposure.Text != "" ? float.Parse(txtCriticalExposure.Text) : 0;
break;
case "DEG_F":
str.MaxOperatingTemperature = txtMaximumOperatingTemp.Text != "" ? (float)convUnit.FahToCel(float.Parse(txtMaximumOperatingTemp.Text)) : 0;
str.MinOperatingTemperature = txtMinimumOperatingTemp.Text != "" ? (float)convUnit.FahToCel(float.Parse(txtMinimumOperatingTemp.Text)) : 0;
str.CriticalExposureTemperature = txtCriticalExposure.Text != "" ? (float)convUnit.FahToCel(float.Parse(txtCriticalExposure.Text)) : 0;
break;
case "K":
str.MaxOperatingTemperature = txtMaximumOperatingTemp.Text != "" ? (float)convUnit.KenvinToCel(float.Parse(txtMaximumOperatingTemp.Text)) : 0;
str.MinOperatingTemperature = txtMinimumOperatingTemp.Text != "" ? (float)convUnit.KenvinToCel(float.Parse(txtMinimumOperatingTemp.Text)) : 0;
str.CriticalExposureTemperature = txtCriticalExposure.Text != "" ? (float)convUnit.KenvinToCel(float.Parse(txtCriticalExposure.Text)) : 0;
break;
}
switch (pressureUnit)
{
case "psi":
str.MaxOperatingPressure = txtMaxOperatingPressure.Text != "" ? float.Parse(txtMaxOperatingPressure.Text) : 0;
str.MinOperatingPressure = txtMinOperatingPressure.Text != "" ? float.Parse(txtMinOperatingPressure.Text) : 0;
str.H2SPartialPressure = txtOperatingHydrogen.Text != "" ? float.Parse(txtOperatingHydrogen.Text) : 0;
break;
case "KSI":
str.MaxOperatingPressure = txtMaxOperatingPressure.Text != "" ? float.Parse(txtMaxOperatingPressure.Text) * (float)convUnit.ksi : 0;
str.MinOperatingPressure = txtMinOperatingPressure.Text != "" ? float.Parse(txtMinOperatingPressure.Text) * (float)convUnit.ksi : 0;
str.H2SPartialPressure = txtOperatingHydrogen.Text != "" ? float.Parse(txtOperatingHydrogen.Text) * (float)convUnit.ksi : 0;
break;
case "bar":
str.MaxOperatingPressure = txtMaxOperatingPressure.Text != "" ? float.Parse(txtMaxOperatingPressure.Text) * (float)convUnit.bar : 0;
str.MinOperatingPressure = txtMinOperatingPressure.Text != "" ? float.Parse(txtMinOperatingPressure.Text) * (float)convUnit.bar : 0;
str.H2SPartialPressure = txtOperatingHydrogen.Text != "" ? float.Parse(txtOperatingHydrogen.Text) * (float)convUnit.bar : 0;
break;
case "MPa":
str.MaxOperatingPressure = txtMaxOperatingPressure.Text != "" ? float.Parse(txtMaxOperatingPressure.Text) * (float)convUnit.MPa : 0;
str.MinOperatingPressure = txtMinOperatingPressure.Text != "" ? float.Parse(txtMinOperatingPressure.Text) * (float)convUnit.MPa : 0;
str.H2SPartialPressure = txtOperatingHydrogen.Text != "" ? float.Parse(txtOperatingHydrogen.Text) * (float)convUnit.MPa : 0;
break;
case "NpM2":
str.MaxOperatingPressure = txtMaxOperatingPressure.Text != "" ? float.Parse(txtMaxOperatingPressure.Text) * (float)convUnit.NpM2 : 0;
str.MinOperatingPressure = txtMinOperatingPressure.Text != "" ? float.Parse(txtMinOperatingPressure.Text) * (float)convUnit.NpM2 : 0;
str.H2SPartialPressure = txtOperatingHydrogen.Text != "" ? float.Parse(txtOperatingHydrogen.Text) * (float)convUnit.NpM2 : 0;
break;
case "NpCM2":
str.MaxOperatingPressure = txtMaxOperatingPressure.Text != "" ? float.Parse(txtMaxOperatingPressure.Text) * (float)convUnit.NpCM2 : 0;
str.MinOperatingPressure = txtMinOperatingPressure.Text != "" ? float.Parse(txtMinOperatingPressure.Text) * (float)convUnit.NpCM2 : 0;
str.H2SPartialPressure = txtOperatingHydrogen.Text != "" ? float.Parse(txtOperatingHydrogen.Text) * (float)convUnit.NpCM2 : 0;
break;
}
return(str);
}
public RW_MATERIAL getData(int ID, string temUnit, string pressureUnit, string stressUnit, string thicknessUnit, string corrosionUnit)
{
RW_MATERIAL ma = new RW_MATERIAL();
BUS_UNITS convUnit = new BUS_UNITS();
ma.ID = ID;
ma.MaterialName = txtMaterial.Text;
switch (temUnit)
{
case "DEG_C":
ma.DesignTemperature = txtMaxDesignTemperature.Text != "" ? float.Parse(txtMaxDesignTemperature.Text) : 0;
ma.MinDesignTemperature = txtMinDesignTemperature.Text != "" ? float.Parse(txtMinDesignTemperature.Text) : 0;
ma.ReferenceTemperature = txtReferenceTemperature.Text != "" ? float.Parse(txtReferenceTemperature.Text) : 0;
break;
case "DEG_F":
ma.DesignTemperature = txtMaxDesignTemperature.Text != "" ? (float)convUnit.FahToCel(float.Parse(txtMaxDesignTemperature.Text)) : 0;
ma.MinDesignTemperature = txtMinDesignTemperature.Text != "" ? (float)convUnit.FahToCel(float.Parse(txtMinDesignTemperature.Text)) : 0;
ma.ReferenceTemperature = txtReferenceTemperature.Text != "" ? (float)convUnit.FahToCel(float.Parse(txtReferenceTemperature.Text)) : 0;
break;
case "K":
ma.DesignTemperature = txtMaxDesignTemperature.Text != "" ? (float)convUnit.KenvinToCel(float.Parse(txtMaxDesignTemperature.Text)) : 0;
ma.MinDesignTemperature = txtMinDesignTemperature.Text != "" ? (float)convUnit.KenvinToCel(float.Parse(txtMinDesignTemperature.Text)) : 0;
ma.ReferenceTemperature = txtReferenceTemperature.Text != "" ? (float)convUnit.KenvinToCel(float.Parse(txtReferenceTemperature.Text)) : 0;
break;
}
switch (pressureUnit)
{
case "psi":
ma.DesignPressure = txtDesignPressure.Text != "" ? float.Parse(txtDesignPressure.Text) : 0;
break;
case "KSI":
ma.DesignPressure = txtDesignPressure.Text != "" ? float.Parse(txtDesignPressure.Text) * (float)convUnit.ksi : 0;
break;
case "bar":
ma.DesignPressure = txtDesignPressure.Text != "" ? float.Parse(txtDesignPressure.Text) * (float)convUnit.bar : 0;
break;
case "MPa":
ma.DesignPressure = txtDesignPressure.Text != "" ? float.Parse(txtDesignPressure.Text) * (float)convUnit.MPa : 0;
break;
case "N/m2":
ma.DesignPressure = txtDesignPressure.Text != "" ? float.Parse(txtDesignPressure.Text) * (float)convUnit.NpM2 : 0;
break;
case "N/cm2":
ma.DesignPressure = txtDesignPressure.Text != "" ? float.Parse(txtDesignPressure.Text) * (float)convUnit.NpCM2 : 0;
break;
}
switch (stressUnit)
{
case "psi":
ma.AllowableStress = txtAllowableStress.Text != "" ? float.Parse(txtAllowableStress.Text) : 0;
break;
case "KSI":
ma.AllowableStress = txtAllowableStress.Text != "" ? float.Parse(txtAllowableStress.Text) * (float)convUnit.ksi : 0;
break;
case "bar":
ma.AllowableStress = txtAllowableStress.Text != "" ? float.Parse(txtAllowableStress.Text) * (float)convUnit.bar : 0;
break;
case "MPa":
ma.AllowableStress = txtAllowableStress.Text != "" ? float.Parse(txtAllowableStress.Text) * (float)convUnit.MPa : 0;
break;
case "N/m2":
ma.AllowableStress = txtAllowableStress.Text != "" ? float.Parse(txtAllowableStress.Text) * (float)convUnit.NpM2 : 0;
break;
case "N/cm2":
ma.AllowableStress = txtAllowableStress.Text != "" ? float.Parse(txtAllowableStress.Text) * (float)convUnit.NpCM2 : 0;
break;
}
switch (corrosionUnit)
{
case "mm":
ma.CorrosionAllowance = txtCorrosionAllowance.Text != "" ? float.Parse(txtCorrosionAllowance.Text) : 0;
break;
case "mil":
ma.CorrosionAllowance = txtCorrosionAllowance.Text != "" ? float.Parse(txtCorrosionAllowance.Text) * (float)convUnit.mil : 0;
break;
}
switch (thicknessUnit)
{
case "mm":
ma.BrittleFractureThickness = txtBrittleFracture.Text != "" ? float.Parse(txtBrittleFracture.Text) : 0;
break;
case "in":
ma.BrittleFractureThickness = txtBrittleFracture.Text != "" ? float.Parse(txtBrittleFracture.Text) * (float)convUnit.inch : 0;
break;
case "m":
ma.BrittleFractureThickness = txtBrittleFracture.Text != "" ? float.Parse(txtBrittleFracture.Text) * (float)convUnit.meter : 0;
break;
}
ma.SulfurContent = cbSulfurContent.Text;
ma.HeatTreatment = cbHeatTreatment.Text;
ma.PTAMaterialCode = cbPTAMaterialGrade.Text;
ma.IsPTA = chkIsPTASeverity.Checked ? 1 : 0;
ma.Austenitic = chkAusteniticSteel.Checked ? 1 : 0;
ma.CarbonLowAlloy = chkCarbonLowAlloySteel.Checked ? 1 : 0;
ma.NickelBased = chkNickelAlloy.Checked ? 1 : 0;
ma.ChromeMoreEqual12 = chkChromium.Checked ? 1 : 0;
ma.CostFactor = txtMaterialCostFactor.Text != "" ? float.Parse(txtMaterialCostFactor.Text) : 0;
return(ma);
}
public RW_MATERIAL getData(int ID, string temUnit, string pressureUnit, string corrosionUnit)
{
RW_MATERIAL ma = new RW_MATERIAL();
BUS_UNITS convUnit = new BUS_UNITS();
ma.ID = ID;
ma.MaterialName = txtMaterial.Text;
switch (temUnit)
{
case "DEG_C":
ma.DesignTemperature = txtMaxDesignTemperature.Text != "" ? float.Parse(txtMaxDesignTemperature.Text) : 0;
ma.MinDesignTemperature = txtMinDesignTemperature.Text != "" ? float.Parse(txtMinDesignTemperature.Text) : 0;
ma.ReferenceTemperature = txtReferenceTemperature.Text != "" ? float.Parse(txtReferenceTemperature.Text) : 0;
break;
case "DEG_F":
ma.DesignTemperature = txtMaxDesignTemperature.Text != "" ? (float)convUnit.FahToCel(float.Parse(txtMaxDesignTemperature.Text)) : 0;
ma.MinDesignTemperature = txtMinDesignTemperature.Text != "" ? (float)convUnit.FahToCel(float.Parse(txtMinDesignTemperature.Text)) : 0;
ma.ReferenceTemperature = txtReferenceTemperature.Text != "" ? (float)convUnit.FahToCel(float.Parse(txtReferenceTemperature.Text)) : 0;
break;
case "K":
ma.DesignTemperature = txtMaxDesignTemperature.Text != "" ? (float)convUnit.KenvinToCel(float.Parse(txtMaxDesignTemperature.Text)) : 0;
ma.MinDesignTemperature = txtMinDesignTemperature.Text != "" ? (float)convUnit.KenvinToCel(float.Parse(txtMinDesignTemperature.Text)) : 0;
ma.ReferenceTemperature = txtReferenceTemperature.Text != "" ? (float)convUnit.KenvinToCel(float.Parse(txtReferenceTemperature.Text)) : 0;
break;
}
switch (pressureUnit)
{
case "PSI":
ma.YieldStrength = txtYieldStrength.Text != "" ? float.Parse(txtYieldStrength.Text) * (float)convUnit.psi : 0;
ma.TensileStrength = txtTensileStrength.Text != "" ? float.Parse(txtTensileStrength.Text) * (float)convUnit.psi : 0;
ma.DesignPressure = txtDesignPressure.Text != "" ? float.Parse(txtDesignPressure.Text) * (float)convUnit.psi : 0;
break;
case "KSI":
ma.YieldStrength = txtYieldStrength.Text != "" ? float.Parse(txtYieldStrength.Text) * (float)convUnit.ksi : 0;
ma.TensileStrength = txtTensileStrength.Text != "" ? float.Parse(txtTensileStrength.Text) * (float)convUnit.ksi : 0;
ma.DesignPressure = txtDesignPressure.Text != "" ? float.Parse(txtDesignPressure.Text) * (float)convUnit.ksi : 0;
break;
case "BAR":
ma.YieldStrength = txtYieldStrength.Text != "" ? float.Parse(txtYieldStrength.Text) * (float)convUnit.bar : 0;
ma.TensileStrength = txtTensileStrength.Text != "" ? float.Parse(txtTensileStrength.Text) * (float)convUnit.bar : 0;
ma.DesignPressure = txtDesignPressure.Text != "" ? float.Parse(txtDesignPressure.Text) * (float)convUnit.bar : 0;
break;
case "MPA":
ma.YieldStrength = txtYieldStrength.Text != "" ? float.Parse(txtYieldStrength.Text) : 0;
ma.TensileStrength = txtTensileStrength.Text != "" ? float.Parse(txtTensileStrength.Text) : 0;
ma.DesignPressure = txtDesignPressure.Text != "" ? float.Parse(txtDesignPressure.Text) : 0;
break;
case "NM2":
ma.YieldStrength = txtYieldStrength.Text != "" ? float.Parse(txtYieldStrength.Text) * (float)convUnit.NpM2 : 0;
ma.TensileStrength = txtTensileStrength.Text != "" ? float.Parse(txtTensileStrength.Text) * (float)convUnit.NpM2 : 0;
ma.DesignPressure = txtDesignPressure.Text != "" ? float.Parse(txtDesignPressure.Text) * (float)convUnit.NpM2 : 0;
break;
case "NCM2":
ma.YieldStrength = txtYieldStrength.Text != "" ? float.Parse(txtYieldStrength.Text) * (float)convUnit.NpCM2 : 0;
ma.TensileStrength = txtTensileStrength.Text != "" ? float.Parse(txtTensileStrength.Text) * (float)convUnit.NpCM2 : 0;
ma.DesignPressure = txtDesignPressure.Text != "" ? float.Parse(txtDesignPressure.Text) * (float)convUnit.NpCM2 : 0;
break;
}
switch (corrosionUnit)
{
case "mm":
ma.CorrosionAllowance = txtCorrosionAllowance.Text != "" ? float.Parse(txtCorrosionAllowance.Text) : 0;
break;
case "mil":
ma.CorrosionAllowance = txtCorrosionAllowance.Text != "" ? float.Parse(txtCorrosionAllowance.Text) * (float)convUnit.mil : 0;
break;
}
ma.SulfurContent = cbSulfurContent.Text;
ma.PTAMaterialCode = cbPTAMaterialGrade.Text;
ma.IsPTA = chkIsPTASeverity.Checked ? 1 : 0;
ma.Austenitic = chkAusteniticSteel.Checked ? 1 : 0;
ma.CarbonLowAlloy = chkCarbonLowAlloySteel.Checked ? 1 : 0;
ma.NickelBased = chkNickelAlloy.Checked ? 1 : 0;
ma.ChromeMoreEqual12 = chkChromium.Checked ? 1 : 0;
ma.CostFactor = txtMaterialCostFactor.Text != "" ? float.Parse(txtMaterialCostFactor.Text) : 0;
return(ma);
}
