/// <summary>
/// Relais output parameter construction (hysteresis or window mode)
/// </summary>
/// <param name="portId"></param>
/// <param name="normallyInverted"></param>
/// <param name="mvCode"></param>
/// <param name="mvRangeMin"></param>
/// <param name="mvRangeMax"></param>
/// <param name="switchPoint1"></param>
/// <param name="hysteresis1"></param>
/// <param name="switchPoint2"></param>
/// <param name="hysteresis2"></param>
/// <param name="mvVariant"></param>
/// <param name="errorIndicationEnabled"></param>
/// <param name="activeIfError"></param>
public SetOutputConfigCmdParams_Relais(byte portId, bool normallyInverted, MVCode mvCode, float mvRangeMin, float mvRangeMax,
float switchPoint1, float hysteresis1, float?switchPoint2, float?hysteresis2,
ValueVariant?mvVariant = null, bool?errorIndicationEnabled = null, bool activeIfError = false) :
base(portId)
{
//... set bytes
}
/// <summary>
/// Determines whether measurement value code 1 is from different unit system as the specified measurement value code 2.
/// </summary>
/// <param name="mvCode1">The measurement value code 1.</param>
/// <param name="mvCode2">The measurement value code 2.</param>
/// <returns>
/// <c>true</c> if they are from different unit systems; otherwise, <c>false</c>.
/// </returns>
public static bool IsDifferentUnitSystem(MVCode mvCode1, MVCode mvCode2)
{
//return (IsUnitSystemSI(mvCode1) && IsUnitSystemUS(mvCode2)) ||
// (IsUnitSystemUS(mvCode1) && IsUnitSystemSI(mvCode2));
SIUSUnit unit1 = GetUnitSystem(mvCode1);
SIUSUnit unit2 = GetUnitSystem(mvCode2);
return(unit1 != unit2);
}
/// <summary>
/// Analog output parameter construction
/// </summary>
/// <param name="portId"></param>
/// <param name="analogMode"></param>
/// <param name="mvCode"></param>
/// <param name="mvRangeMin"></param>
/// <param name="mvRangeMax"></param>
/// <param name="analogRangeMin"></param>
/// <param name="analogRangeMax"></param>
/// <param name="mvVariant"></param>
/// <param name="errorIndicationEnabled"></param>
/// <param name="errorIndication"></param>
/// <param name="isInput"></param>
public SetOutputConfigCmdParams_Analog(byte portId, byte analogMode, MVCode mvCode, float mvRangeMin, float mvRangeMax,
float analogRangeMin, float analogRangeMax, ValueVariant?mvVariant = null, bool?errorIndicationEnabled = null, float errorIndication = 0, bool isInput = false) :
base(portId, isInput)
{
if (analogMode != 0x0 && analogMode != 0x1)
{
throw new ArgumentOutOfRangeException("analogMode", "Only 0x0 (current mode) or 0x1 (voltage mode) is allowed");
}
//... set bytes
}
/// <summary>
/// Gets the (engineering) unit system, i.e. SI or US (or undefined for neutral MV codes).
/// </summary>
/// <param name="mvCode">The measurement value code.</param>
/// <returns></returns>
public static SIUSUnit GetUnitSystem(MVCode mvCode)
{
if (Enumerable.Contains(MembersUnitSI, mvCode))
{
return(SIUSUnit.SI);
}
if (Enumerable.Contains(MembersUnitUS, mvCode))
{
return(SIUSUnit.US);
}
return(SIUSUnit.Undefined);
}
internal override void InterpretResult(bool reverseByteOrder, IEECmdConverters cmdConv, IEECommandParameter cmdParams)
{
// Create command specific result from data
if (Data.Length < cmdParams.CmdData.Length + 1)
{
Code = EECmdResultCode.InvalidResult;
}
else
{
// First response byte is 0, data begins at 1
int resultIdx = 1;
// Get number of requested values from sent command data
int nrValues = cmdParams.CmdData.Length / 2;
for (int i = 0; i < nrValues; i++)
{
// Get MVCode from sent command data
MVCode code = cmdConv.MVIndexToMVCode(cmdParams.CmdData[i * 2]);
// Get data type (try to get from MVCode if invalid)
MVDataType dataType = (MVDataType)Data[resultIdx++];
// Get value for data type
double value = double.NaN;
switch (dataType)
{
case MVDataType.Float:
if ((resultIdx + 4) <= Data.Length)
{
value = DataTypeConverter.ByteConverter.ToFloat(Data, resultIdx, reverseByteOrder).ToDoubleWithFloatResolution();
}
resultIdx += 4;
break;
case MVDataType.Double:
if ((resultIdx + 8) <= Data.Length)
{
value = DataTypeConverter.ByteConverter.ToDouble(Data, resultIdx, reverseByteOrder);
}
resultIdx += 8;
break;
}
MeasValues.Add(new KeyValuePair <MVCode, double>(code, value));
}
}
}
/// <summary>
/// Modifies the MVCode collection with specified MVCodes (given as string list).
/// </summary>
/// <param name="mvCodes">MVCode collection</param>
/// <param name="itemsToProcess">Items to add or remove</param>
/// <param name="adding">Given items should be added (true) or removed (false)</param>
private static void Modify(IList <MVCode> mvCodes, string itemsToProcess, bool adding)
{
if (null == mvCodes || null == itemsToProcess)
{
return;
}
string[] items = itemsToProcess.Split(new char[] { ',', ';', '|' }, StringSplitOptions.RemoveEmptyEntries);
foreach (string item in items)
{
MVCode mvCode = MVCodeHelper.ParseSafe(item);
MVClass mvClass = MVClassHelper.ParseSafe(item);
if (MVCode.INVALID != mvCode)
{
if (adding && !mvCodes.Contains(mvCode))
{
mvCodes.Add(mvCode);
}
if (!adding && mvCodes.Contains(mvCode))
{
mvCodes.Remove(mvCode);
}
}
if (MVClass.INVALID != mvClass)
{
IEnumerator <MVCode> enumerator = MVEnumerator.GetCodesOfClass(mvClass);
while (enumerator.MoveNext())
{
MVCode current = enumerator.Current;
if (current == MVCode.INVALID)
{
continue;
}
if (adding && !mvCodes.Contains(current))
{
mvCodes.Add(current);
}
if (!adding && mvCodes.Contains(current))
{
mvCodes.Remove(current);
}
}
}
}
}
/// <summary>
/// Pulse output parameter construction
/// </summary>
/// <param name="portId"></param>
/// <param name="normallyInverted"></param>
/// <param name="mvCode"></param>
/// <param name="mvRangeMin"></param>
/// <param name="mvRangeMax"></param>
/// <param name="pulseWidth"></param>
/// <param name="pulseWeight"></param>
/// <param name="mvVariant"></param>
/// <param name="errorIndicationEnabled"></param>
/// <param name="activeIfError"></param>
public SetOutputConfigCmdParams_Pulse(byte portId, bool normallyInverted, MVCode mvCode, float mvRangeMin, float mvRangeMax,
float pulseWidth, float pulseWeight, ValueVariant?mvVariant = null, bool?errorIndicationEnabled = null, bool activeIfError = false) :
base(portId)
{
int size = 20;
if (mvVariant != null || errorIndicationEnabled != null)
{
size += 1; // additional byte for variant
}
if (errorIndicationEnabled != null)
{
size += errorIndicationEnabled.Value ? 2 : 1; // additional byte for enabled (2 additional if 'true')
}
//... set bytes
}
/// <summary>
/// Ensures measurement value is of the unit system US.
/// </summary>
/// <param name="mvCode">The measurement value code.</param>
/// <returns>Measurement value code that is of unit system US (may be the same as parameter <paramref name="mvCode"/>).</returns>
public static MVCode EnsureUnitSystemUS(MVCode mvCode)
{
if (MVCode.INVALID == mvCode)
{
return(mvCode);
}
if (MVCode.TEMP__DEG_K == mvCode)
{
return(MVCode.TEMP__DEG_F);
}
if (IsUnitSystemUSorNeutral(mvCode))
{
return(mvCode);
}
return(MembersUnitUS.ElementAt(MembersUnitSI.ToList().FindIndex(mv => mv.Equals(mvCode))));
}
/// <summary>
/// Initializes a new instance of the <see cref="MVClassOrMVCode" /> class.
/// </summary>
/// <param name="mvCode">The MVCode.</param>
public MVClassOrMVCode(MVCode mvCode)
: this(MVEnumerator.GetClass(mvCode), mvCode)
{
}
/// <summary>
/// Converts the EE31 standardized measval index (Cmds 0x33/0x34) to MVCode.
/// </summary>
/// <param name="ee31MVIdx"></param>
/// <returns></returns>
public MVCode MVIndexToMVCode(int ee31MVIdx)
{
if (UseMVCodeInsteadOfEE31Index)
{
// Use MVCode enum values instead of EE31 index numbers to identify measurands
// (with unit). Only newer devices like EE210 support this.
try
{
MVCode mvCode = (MVCode)ee31MVIdx;
if (Enum.IsDefined(typeof(MVCode), mvCode))
{
return(mvCode);
}
}
catch (Exception ex)
{
Diagnostic.Msg(1, "MVIndexToMVCode", "Exception: " + ex.Message);
}
return(MVCode.INVALID);
}
bool bIsUnitSystemUS = SIUS == SIUSUnit.US;
foreach (byte cmd in new byte[] { 0x33, 0x67 })
{
if (null != CfgMVCodeTranslations && CfgMVCodeTranslations.ContainsKey(cmd) && CfgMVCodeTranslations[cmd].Count > 0)
{
// If unit override exists, try to find there
MVCodeTranslationData mvcTD = CfgMVCodeTranslations[cmd].FirstOrDefault(a => a.EE31Index == ee31MVIdx);
if (null != mvcTD)
{
if (bIsUnitSystemUS)
{
return(mvcTD.MVCodeUS);
}
return(mvcTD.MVCode);
}
}
}
switch (ee31MVIdx)
{
case 0: // Temperature T [°C; °F]
if (bIsUnitSystemUS)
{
return(MVCode.TEMP__DEG_F);
}
return(MVCode.TEMP__DEG_C);
case 1: // Relative Humidity RH [%rH]
return(MVCode.RH__PCT);
case 2: // Water vapor partial pressure e [mbar; psi]
if (bIsUnitSystemUS)
{
return(MVCode.e__PSI);
}
return(MVCode.e__MBAR);
case 3: // Dew point Td [°C; °F]
if (bIsUnitSystemUS)
{
return(MVCode.Td__DEG_F);
}
return(MVCode.Td__DEG_C);
case 4: // Wet bulb Tw [°C; °F]
if (bIsUnitSystemUS)
{
return(MVCode.Tw__DEG_F);
}
return(MVCode.Tw__DEG_C);
case 5: // Water vapor concentration dv [g/m3; gr/ft3]
if (bIsUnitSystemUS)
{
return(MVCode.dv__GR_FT3);
}
return(MVCode.dv__G_M3);
case 6: // Mixing ratio r [g/kg; gr/lb]
if (bIsUnitSystemUS)
{
return(MVCode.r__GR_LB);
}
return(MVCode.r__G_KG);
case 7: // Enthalpy h [kJ/kg; ft lbf/lb]
if (bIsUnitSystemUS)
{
return(MVCode.h__FT_LBF_LB);
}
return(MVCode.h__KJ_KG);
case 8: // Dew point Td or Frost point Tf [°C; °F]
if (bIsUnitSystemUS)
{
return(MVCode.TdTf__DEG_F);
}
return(MVCode.TdTf__DEG_C);
case 10: // CO2 raw [ppm]
return(MVCode.CO2_RAW__PPM);
case 11: // CO2 mean [ppm]
return(MVCode.CO2_MEAN__PPM);
case 12: // (Air) Velocity [m/s; ft/min]
if (bIsUnitSystemUS)
{
return(MVCode.V__FT_PER_MIN);
}
return(MVCode.V__M_PER_SEC);
case 13: // Aw [1]
return(MVCode.Aw__1);
case 14: // Water content X [ppm]
return(MVCode.X__PPM);
case 27: // Volume concentration (Humidity!) [ppm]
return(MVCode.Wv__PPM);
case 28: // %S [%]
return(MVCode.PctS__PCT);
case 40: // O2 mean value [%]
return(MVCode.O2_MEAN__PCT);
}
return(MVCode.INVALID);
}
/// <summary>
/// Converts the MVCode to EE31 standardized measval index (Cmds 0x33/0x34).
/// </summary>
/// <param name="mvCode">The mv code.</param>
/// <returns></returns>
public byte MVCodeToEE31MVIndex(MVCode mvCode)
{
// Use MVCode enum values instead of EE31 index numbers to identify measurands (with
// unit). Only newer devices like EE210 support this.
if (UseMVCodeInsteadOfEE31Index)
{
return((byte)mvCode);
}
foreach (byte cmd in new byte[] { 0x33, 0x67 })
{
if (null != CfgMVCodeTranslations && CfgMVCodeTranslations.ContainsKey(cmd) && CfgMVCodeTranslations[cmd].Count > 0)
{
// If unit override exists, try to find there
MVCodeTranslationData mvcTD = CfgMVCodeTranslations[cmd].FirstOrDefault(a => a.MVCode == mvCode || a.MVCodeUS == mvCode);
if (null != mvcTD)
{
return((byte)mvcTD.EE31Index);
}
}
}
switch (mvCode)
{
case MVCode.TEMP__DEG_C: // Temp. [°C]
case MVCode.TEMP__DEG_F: // Temp. [°F]
case MVCode.TEMP__DEG_K: // Temp. [K]
return(0);
case MVCode.RH__PCT: // RH [%rH]
return(1);
case MVCode.e__MBAR: // Water vapor partial pressure e [mbar]
case MVCode.e__PSI: // Water vapor partial pressure e [psi]
return(2);
case MVCode.Td__DEG_C: // Dew point temperature Td [°C]
case MVCode.Td__DEG_F: // Dew point temperature Td [°F]
case MVCode.Td__DEG_K: // Dew point temperature Td [K]
return(3);
case MVCode.Tw__DEG_C: // Wet bulb temperature Tw [°C]
case MVCode.Tw__DEG_F: // Wet bulb temperature Tw [°F]
case MVCode.Tw__DEG_K: // Wet bulb temperature Tw [K]
return(4);
case MVCode.dv__G_M3: // Absolute humidity dv [g/m3]
case MVCode.dv__GR_FT3: // Absolute humidity dv [gr/ft3]
return(5);
case MVCode.r__G_KG: // Mixing ratio r [g/kg]
case MVCode.r__GR_LB: // Mixing ratio r [gr/lb]
return(6);
case MVCode.h__KJ_KG: // Enthalpy h [kJ/kg]
case MVCode.h__FT_LBF_LB: // Enthalpy h [ft lbf/lb]
case MVCode.h__BTU_LB: // Enthalpy h [BTU/lb]
return(7);
case MVCode.TdTf__DEG_C: // Td/Tf [°C]
case MVCode.TdTf__DEG_F: // Td/Tf [°F]
case MVCode.TdTf__DEG_K: // Td/Tf [K]
return(8);
case MVCode.CO2_RAW__PPM: // CO2 raw [ppm]
return(10);
case MVCode.CO2_MEAN__PPM: // CO2 mean value (Median 11) [ppm]
return(11);
case MVCode.V__M_PER_SEC: // (Air) Velocity [m/s]
case MVCode.V__FT_PER_MIN: // (Air) Velocity [ft/min]
return(12);
case MVCode.Aw__1: // Aw [1]
return(13);
case MVCode.X__PPM: // Water content X [ppm]
return(14);
case MVCode.Wv__PPM: // Volume concentration (Humidity!) [ppm]
return(27);
case MVCode.PctS__PCT: // %S [%]
return(28);
case MVCode.O2_MEAN__PCT: // O2 mean value [%]
return(40);
//case AirPres__MBAR: // Air pressure [mbar]
}
return(0xFF);
}
/// <summary>
/// Parameter constructor to set measurement value and measurement range for Out1 and Out2
/// </summary>
public SetOut1Out2MVAndRangeCmdParams(MVCode out1MVCode, float out1MVRangeMin, float out1MVRangeMax,
MVCode out2MVCode, float out2MVRangeMin, float out2MVRangeMax) :
base(0x0)
{
//... set bytes
}
/// <summary>
/// Determines whether measurement value code is of unit system US or neutral.
/// </summary>
/// <param name="mvCode">The measurement value code.</param>
/// <returns>
/// <c>true</c> if it is of unit system US or neutral; otherwise, <c>false</c>.
/// </returns>
public static bool IsUnitSystemUSorNeutral(MVCode mvCode)
{
return(Enumerable.Contains(MembersUnitUS, mvCode) || IsUnitSystemNeutral(mvCode));
}
/// <summary>
/// Determines whether measurement value code is of unit system US.
/// </summary>
/// <param name="mvCode">The measurement value code.</param>
/// <returns>
/// <c>true</c> if it is of unit system US; otherwise, <c>false</c>.
/// </returns>
public static bool IsUnitSystemUS(MVCode mvCode)
{
return(Enumerable.Contains(MembersUnitUS, mvCode));
}
/// <summary>
/// Determines whether measurement value code is member of the specified mv class.
/// </summary>
/// <param name="mvCode">The measurement value code.</param>
/// <param name="mvClass">The measurement value class.</param>
/// <returns>
/// <c>true</c> if is member of [the specified measurement value class; otherwise, <c>false</c>.
/// </returns>
public static bool IsMemberOf(MVCode mvCode, MVClass mvClass)
{
switch (mvClass)
{
case MVClass.Temperature:
return(Enumerable.Contains(MembersTemperature, mvCode));
case MVClass.RelativeHumidity:
return(Enumerable.Contains(MembersRelativeHumidity, mvCode));
case MVClass.Velocity:
return(Enumerable.Contains(MembersVelocity, mvCode));
case MVClass.StdVelocity:
return(Enumerable.Contains(MembersStdVelocity, mvCode));
case MVClass.CO2:
return(Enumerable.Contains(MembersCO2, mvCode));
case MVClass.CO2Raw:
return(Enumerable.Contains(MembersCO2Raw, mvCode));
case MVClass.O2:
return(Enumerable.Contains(MembersO2, mvCode));
case MVClass.WaterVaporPartialPressure:
return(Enumerable.Contains(MembersWaterVaporPartialPressure, mvCode));
case MVClass.DewPoint:
return(Enumerable.Contains(MembersDewPoint, mvCode));
case MVClass.WetBulb:
return(Enumerable.Contains(MembersWetBulb, mvCode));
case MVClass.AbsoluteHumidity:
return(Enumerable.Contains(MembersAbsoluteHumidity, mvCode));
case MVClass.MixingRatio:
return(Enumerable.Contains(MembersMixingRatio, mvCode));
case MVClass.Enthalpy:
return(Enumerable.Contains(MembersEnthalpy, mvCode));
case MVClass.DewPointOrFrostPoint:
return(Enumerable.Contains(MembersDewPointOrFrostPoint, mvCode));
case MVClass.WaterActivity:
return(Enumerable.Contains(MembersWaterActivity, mvCode));
case MVClass.PercentSaturation:
return(Enumerable.Contains(MembersPercentSaturation, mvCode));
case MVClass.VolumeConcentration:
return(Enumerable.Contains(MembersVolumeConcentration, mvCode));
case MVClass.WaterContent:
return(Enumerable.Contains(MembersWaterContent, mvCode));
case MVClass.SpecificMassFlow:
return(Enumerable.Contains(MembersSpecificMassFlow, mvCode));
case MVClass.MassFlow:
return(Enumerable.Contains(MembersMassFlow, mvCode));
case MVClass.StdVolumetricFlow:
return(Enumerable.Contains(MembersStdVolumetricFlow, mvCode));
case MVClass.VolumetricFlow:
return(Enumerable.Contains(MembersVolumetricFlow, mvCode));
case MVClass.VolumetricConsumption:
return(Enumerable.Contains(MembersVolumetricConsumption, mvCode));
case MVClass.VolumetricConsumptionTotal:
return(Enumerable.Contains(MembersVolumetricConsumptionTotal, mvCode));
case MVClass.Pressure:
return(Enumerable.Contains(MembersPressure, mvCode));
case MVClass.Resistance:
return(Enumerable.Contains(MembersResistance, mvCode));
case MVClass.Current:
return(Enumerable.Contains(MembersCurrent, mvCode));
case MVClass.Frequency:
return(Enumerable.Contains(MembersFrequency, mvCode));
case MVClass.Voltage:
return(Enumerable.Contains(MembersVoltage, mvCode));
case MVClass.Diameter:
return(Enumerable.Contains(MembersDiameter, mvCode));
case MVClass.FilterContamination:
return(Enumerable.Contains(MembersFilterContamination, mvCode));
case MVClass.LevelIndicator:
return(Enumerable.Contains(MembersLevelIndicator, mvCode));
case MVClass.DifferentialPressure:
return(Enumerable.Contains(MembersDifferentialPressure, mvCode));
}
return(false);
}
/// <summary>
/// Determines whether measurement value code 1 is from different class as the specified measurement value code 2.
/// </summary>
/// <param name="mvCode1">The measurement value code 1.</param>
/// <param name="mvCode2">The measurement value code 2.</param>
/// <returns>
/// <c>true</c> if they are from different measurement value classes; otherwise, <c>false</c>.
/// </returns>
public static bool IsDifferentClass(MVCode mvCode1, MVCode mvCode2)
{
return(GetClass(mvCode1) != GetClass(mvCode2));
}
/// <summary>
/// Parameter constructor to set constant measurement value
/// </summary>
/// <param name="portId">1, 2, 3 or 0xFF</param>
/// <param name="mvCode">Measurement value code</param>
/// <param name="constValue">Output value</param>
/// <param name="mode">1 = use all adjustment data,
/// 2 = use only factory adjustment,
/// 3 = use unadjusted</param>
public SetConstantValueCmdParams_MV(byte portId, MVCode mvCode, float constValue, byte mode = 1) :
base(portId, mode, (byte)mvCode, constValue)
{
}
/// <summary>
/// Gets the measurement value class from a measurement value code.
/// </summary>
/// <param name="mvCode">The measurement value code.</param>
/// <returns></returns>
public static MVClass GetClass(MVCode mvCode)
{
if (Enumerable.Contains(MembersTemperature, mvCode))
{
return(MVClass.Temperature);
}
if (Enumerable.Contains(MembersRelativeHumidity, mvCode))
{
return(MVClass.RelativeHumidity);
}
if (Enumerable.Contains(MembersVelocity, mvCode))
{
return(MVClass.Velocity);
}
if (Enumerable.Contains(MembersStdVelocity, mvCode))
{
return(MVClass.StdVelocity);
}
if (Enumerable.Contains(MembersCO2, mvCode))
{
return(MVClass.CO2);
}
if (Enumerable.Contains(MembersCO2Raw, mvCode))
{
return(MVClass.CO2Raw);
}
if (Enumerable.Contains(MembersO2, mvCode))
{
return(MVClass.O2);
}
if (Enumerable.Contains(MembersWaterVaporPartialPressure, mvCode))
{
return(MVClass.WaterVaporPartialPressure);
}
if (Enumerable.Contains(MembersDewPoint, mvCode))
{
return(MVClass.DewPoint);
}
if (Enumerable.Contains(MembersWetBulb, mvCode))
{
return(MVClass.WetBulb);
}
if (Enumerable.Contains(MembersAbsoluteHumidity, mvCode))
{
return(MVClass.AbsoluteHumidity);
}
if (Enumerable.Contains(MembersMixingRatio, mvCode))
{
return(MVClass.MixingRatio);
}
if (Enumerable.Contains(MembersEnthalpy, mvCode))
{
return(MVClass.Enthalpy);
}
if (Enumerable.Contains(MembersDewPointOrFrostPoint, mvCode))
{
return(MVClass.DewPointOrFrostPoint);
}
if (Enumerable.Contains(MembersWaterActivity, mvCode))
{
return(MVClass.WaterActivity);
}
if (Enumerable.Contains(MembersPercentSaturation, mvCode))
{
return(MVClass.PercentSaturation);
}
if (Enumerable.Contains(MembersVolumeConcentration, mvCode))
{
return(MVClass.VolumeConcentration);
}
if (Enumerable.Contains(MembersWaterContent, mvCode))
{
return(MVClass.WaterContent);
}
if (Enumerable.Contains(MembersSpecificMassFlow, mvCode))
{
return(MVClass.SpecificMassFlow);
}
if (Enumerable.Contains(MembersMassFlow, mvCode))
{
return(MVClass.MassFlow);
}
if (Enumerable.Contains(MembersStdVolumetricFlow, mvCode))
{
return(MVClass.StdVolumetricFlow);
}
if (Enumerable.Contains(MembersVolumetricFlow, mvCode))
{
return(MVClass.VolumetricFlow);
}
if (Enumerable.Contains(MembersVolumetricConsumption, mvCode))
{
return(MVClass.VolumetricConsumption);
}
if (Enumerable.Contains(MembersVolumetricConsumptionTotal, mvCode))
{
return(MVClass.VolumetricConsumptionTotal);
}
if (Enumerable.Contains(MembersPressure, mvCode))
{
return(MVClass.Pressure);
}
if (Enumerable.Contains(MembersResistance, mvCode))
{
return(MVClass.Resistance);
}
if (Enumerable.Contains(MembersCurrent, mvCode))
{
return(MVClass.Current);
}
if (Enumerable.Contains(MembersFrequency, mvCode))
{
return(MVClass.Frequency);
}
if (Enumerable.Contains(MembersVoltage, mvCode))
{
return(MVClass.Voltage);
}
if (Enumerable.Contains(MembersDiameter, mvCode))
{
return(MVClass.Diameter);
}
if (Enumerable.Contains(MembersFilterContamination, mvCode))
{
return(MVClass.FilterContamination);
}
if (Enumerable.Contains(MembersLevelIndicator, mvCode))
{
return(MVClass.LevelIndicator);
}
if (Enumerable.Contains(MembersDifferentialPressure, mvCode))
{
return(MVClass.DifferentialPressure);
}
return(MVClass.INVALID);
}