internal IfcFluidFlowProperties(DatabaseIfc db, IfcFluidFlowProperties p, DuplicateOptions options) : base(db, p, options)
{
mPropertySource = p.mPropertySource;
//if(p.mFlowConditionTimeSeries > 0)
// mFlowConditionTimeSeries = p.mFlowConditionTimeSeries;
//mVelocityTimeSeries = p.mVelocityTimeSeries;
//mFlowrateTimeSeries = p.mFlowrateTimeSeries;
//mFluid = p.mFluid;
//mPressureTimeSeries = p.mPressureTimeSeries;
mUserDefinedPropertySource = p.mUserDefinedPropertySource;
mTemperatureSingleValue = p.mTemperatureSingleValue;
mWetBulbTemperatureSingleValue = p.mWetBulbTemperatureSingleValue;
//mWetBulbTemperatureTimeSeries = p.mWetBulbTemperatureTimeSeries;
//mTemperatureTimeSeries = p.mTemperatureTimeSeries;
mFlowrateSingleValue = p.mFlowrateSingleValue;
mFlowConditionSingleValue = p.mFlowConditionSingleValue;
mVelocitySingleValue = p.mVelocitySingleValue;
mPressureSingleValue = p.mPressureSingleValue;
}
internal static void parseFields(IfcFluidFlowProperties p, List<string> arrFields, ref int ipos)
{
IfcPropertySetDefinition.parseFields(p, arrFields, ref ipos);
p.mPropertySource = (IfcPropertySourceEnum)Enum.Parse(typeof(IfcPropertySourceEnum), arrFields[ipos++].Replace(".", ""));
p.mFlowConditionTimeSeries = ParserSTEP.ParseLink(arrFields[ipos++]);
p.mVelocityTimeSeries = ParserSTEP.ParseLink(arrFields[ipos++]);
p.mFlowrateTimeSeries = ParserSTEP.ParseLink(arrFields[ipos++]);
p.mFluid = ParserSTEP.ParseLink(arrFields[ipos++]);
p.mPressureTimeSeries = ParserSTEP.ParseLink(arrFields[ipos++]);
p.mUserDefinedPropertySource = arrFields[ipos++];
p.mTemperatureSingleValue = ParserSTEP.ParseLink(arrFields[ipos++]);
p.mWetBulbTemperatureSingleValue = ParserSTEP.ParseLink(arrFields[ipos++]);
p.mWetBulbTemperatureTimeSeries = ParserSTEP.ParseLink(arrFields[ipos++]);
p.mTemperatureTimeSeries = ParserSTEP.ParseLink(arrFields[ipos++]);
p.mFlowrateSingleValue = ParserSTEP.ParseLink(arrFields[ipos++]);
p.mFlowConditionSingleValue = ParserSTEP.ParseLink(arrFields[ipos++]);
p.mVelocitySingleValue = ParserSTEP.ParseLink(arrFields[ipos++]);
p.mPressureSingleValue = ParserSTEP.ParseLink(arrFields[ipos++]);
}
internal static IfcFluidFlowProperties Parse(string strDef)
{
IfcFluidFlowProperties p = new IfcFluidFlowProperties(); int ipos = 0; parseFields(p, ParserSTEP.SplitLineFields(strDef), ref ipos); return p;
}
internal IfcFluidFlowProperties(DatabaseIfc db, IfcFluidFlowProperties p)
: base(db, p)
{
mPropertySource = p.mPropertySource;
//if(p.mFlowConditionTimeSeries > 0)
// mFlowConditionTimeSeries = p.mFlowConditionTimeSeries;
//mVelocityTimeSeries = p.mVelocityTimeSeries;
//mFlowrateTimeSeries = p.mFlowrateTimeSeries;
//mFluid = p.mFluid;
//mPressureTimeSeries = p.mPressureTimeSeries;
mUserDefinedPropertySource = p.mUserDefinedPropertySource;
mTemperatureSingleValue = p.mTemperatureSingleValue;
mWetBulbTemperatureSingleValue = p.mWetBulbTemperatureSingleValue;
//mWetBulbTemperatureTimeSeries = p.mWetBulbTemperatureTimeSeries;
//mTemperatureTimeSeries = p.mTemperatureTimeSeries;
mFlowrateSingleValue = p.mFlowrateSingleValue;
mFlowConditionSingleValue = p.mFlowConditionSingleValue;
mVelocitySingleValue = p.mVelocitySingleValue;
mPressureSingleValue = p.mPressureSingleValue;
}
internal IfcFluidFlowProperties(IfcFluidFlowProperties p)
: base(p)
{
mPropertySource = p.mPropertySource;
mFlowConditionTimeSeries = p.mFlowConditionTimeSeries;
mVelocityTimeSeries = p.mVelocityTimeSeries;
mFlowrateTimeSeries = p.mFlowrateTimeSeries;
mFluid = p.mFluid;
mPressureTimeSeries = p.mPressureTimeSeries;
mUserDefinedPropertySource = p.mUserDefinedPropertySource;
mTemperatureSingleValue = p.mTemperatureSingleValue;
mWetBulbTemperatureSingleValue = p.mWetBulbTemperatureSingleValue;
mWetBulbTemperatureTimeSeries = p.mWetBulbTemperatureTimeSeries;
mTemperatureTimeSeries = p.mTemperatureTimeSeries;
mFlowrateSingleValue = p.mFlowrateSingleValue;
mFlowConditionSingleValue = p.mFlowConditionSingleValue;
mVelocitySingleValue = p.mVelocitySingleValue;
mPressureSingleValue = p.mPressureSingleValue;
}
