///
/// Copyright (c) 2013-2021 Sensus Slovensko a.s.
///
using System;
using System.Collections.Generic;
using System.IO;
using Common;
namespace Results.Entities
{
public class MeterTestRslt
{
public virtual int Id { get; protected set; }
public virtual byte CompoundMeterId { get; set; } /// 0=single, 1=compound/main, 2=compound/aux., 3=compound/overal, 4=heat meter volume, 5=heat meter energy
public virtual int RegReaderType { get; set; } /// Not mapped to the DB, does not depend on localization and customer
public virtual double PulsesMeter { get; set; } /// # of water meter or heat meter pulses
public virtual double PulsesMaster { get; set; } /// # of reference flowmeter pulses (gated by this water meter pulses)
public virtual double PulsesPerLiter { get; set; } /// [l ^ -1], in case of heat meters (CompoundMeterId==5) pulses per kWh in [kWh ^ -1]
public virtual double VolumeStart { get; set; } /// Volume or energy (CompoundMeterId==5) on test start in [l] or [J]
public virtual double VolumeEnd { get; set; } /// Volume or energy (CompoundMeterId==5) on test end in [l] or [J]
public virtual double VolumeMeter { get; set; } /// Measured volume or energy (CompoundMeterId==5) in [l] or [J]
public virtual double VolumeRef { get; set; } /// Reference volume or energy (CompoundMeterId==5) in [l] or [J]
public virtual double TimestampStart { get; set; } /// [s]
public virtual double TimestampEnd { get; set; } /// [s]
public virtual double TestTime { get; set; } /// [s]
/// Main result
public virtual double Error { get; set; } /// [%]
public virtual long ErrorIndicators { get; set; } /// Not mapped to DB !!!, bit24=E25, bit25=E26, bit26=E27, bit27=E28 (error flags)
public virtual long InfoIndicators { get; set; } /// Not mapped to DB !!!, bit24=E25, bit25=E26, bit26=E27, bit27=E28 (info flags)
public virtual bool TestDone { get; set; } /// true = test was completed
public virtual bool Passed { get; set; } /// true = test passed, water meter is OK
#if IPERL
public virtual int CalibFactor { get; set; }
public virtual int CalibFactorLNA { get; set; }
public virtual int Q2CorrRL { get; set; }
public virtual int Q2CorrLR { get; set; }
public virtual int FlowDirection { get; set; } /// 0=unknown, 1=RL, 2=LR
public virtual string ExtraDataPath { get; set; } /// Relative path to a file with opto-data/raw-data
public virtual float X1 { get; set; }
public virtual float X2 { get; set; }
public virtual float X3 { get; set; }
public virtual float X4 { get; set; }
public virtual float X5 { get; set; }
public virtual float X6 { get; set; }
public virtual float X7 { get; set; }
public virtual float X8 { get; set; }
public virtual float X9 { get; set; }
#endif
#if ORACLE_DB
public virtual double ErrorBC { get; set; } /// [%] error before correction, saved to Oracle to table VT_PRUEFREIHE_IST_PD as KorrErrQ
public virtual double LastError { get; set; } /// [%] Previous test error at this Q in case Pruefindex > 1
#endif
public virtual WaterMeter WaterMeter { get; set; } /// reference to the WaterMeter entity
public virtual TestRslt TestRslt { get; set; } /// reference to the TestRslt entity
///
/// Wrappers
///
public virtual string Name() { return TestRslt.Name(); }
public virtual DateTime StartTime() { return TestRslt.StartTime; }
public virtual DateTime EndTime() { return TestRslt.EndTime; }
public virtual double FlowSetTime() { return TestRslt.FlowSetTime; } /// [s]
public virtual double FlowMass() { return TestRslt.FlowMass; } /// [kg/h]
public virtual double FlowVolume() { return TestRslt.FlowVolume; } /// [m3/h]
public virtual double ErrorMaster() { return TestRslt.ErrorMaster; } /// [%]
public virtual double DensityLine() { return TestRslt.DensityLine; }
public virtual Components Components(){ return TestRslt.Components; }
///
public virtual TestData TestData() { return TestRslt.TestData; }
///
public virtual int Repeats() { return TestData().Repeats; }
public virtual double Qtg() { return TestData().Qtg; } /// [m3/h]
public virtual double Qfrom() { return TestData().Qfrom; } /// [m3/h]
public virtual double Qto() { return TestData().Qto; } /// [m3/h]
public virtual double TargetVolume() { return TestData().TargetVolume; } /// [l]
public virtual double TargetTime() { return TestData().TargetTime; } /// [s]
public virtual string Method() { return TestData().Method; }
public virtual double ErrLimLo() { return TestData().ErrLimLo; } /// [%]
public virtual double ErrLimHi() { return TestData().ErrLimHi; } /// [%]
public virtual double Uncertainty() { return TestData().ErrLimMargin; } /// [%]
public virtual string ProcedureName() { return WaterMeter.Batch.ProcedureName; }
public virtual int BatchNr() { return WaterMeter.Batch.BatchNr; }
public virtual string SerialNr() { return WaterMeter.SerialNr; }
public virtual string EndState() { return WaterMeter.EndState; }
public virtual double QRise() { return WaterMeter.QRise; } /// [m3/h]
public virtual double QFall() { return WaterMeter.QFall; } /// [m3/h]
public virtual bool Evaluate() { return TestData().Evaluate; }
public virtual Common.Publish Publish() { return (Publish)TestData().Publish; }
public virtual WaterMeterData WaterMeterData() { return WaterMeter.WaterMeterData; }
public virtual Batch Batch() { return WaterMeter.Batch; }
public virtual bool IsPilotRslt()
{
return (CompoundMeterId == (byte)Common.CompoundMeterId.Single) ||
(CompoundMeterId == (byte)Common.CompoundMeterId.Compound) ||
(CompoundMeterId == (byte)Common.CompoundMeterId.HeatMeterEnergy);
}
public virtual bool IsPulses() { return (RegReaderType == (int)RegisterReaderType.Pulses || RegReaderType == (int)RegisterReaderType.Unknown); }
public virtual bool IsCamera() { return (RegReaderType == (int)RegisterReaderType.Camera); }
public virtual bool IsDataStream() { return (RegReaderType == (int)RegisterReaderType.DataStream); }
public virtual bool IsManual() { return (RegReaderType == (int)RegisterReaderType.Manual); }
public virtual string PassedOrErrorFlagsStr()
{
string eFlags = Utils.ErrorFlagsStr(ErrorIndicators);
var str = string.IsNullOrEmpty(eFlags) ? PassedColorStr(null) : eFlags;
return str;
}
public virtual string PassedColorStr(string yesNoFormatOrEmpty)
{
if (string.IsNullOrEmpty(yesNoFormatOrEmpty))
{
return Utils.PassedColorStr(Passed, Evaluate());
}
else
{
string[] yesNo = yesNoFormatOrEmpty.Split(new char[] { '~' });
return Passed ? yesNo[0] : ((yesNo.Length >= 2) ? yesNo[1] : Results.Resources.Strings.No);
}
}
public MeterTestRslt()
{
TestDone = false;
Passed = false;
}
public MeterTestRslt(WaterMeter waterMeterRslt, TestRslt testRslt, CompoundMeterId compoundMeterId)
: this()
{
WaterMeter = waterMeterRslt;
TestRslt = testRslt;
CompoundMeterId = (byte)compoundMeterId;
}
///
/// Copy constructor, copies all except of Id
/// TestRslt and WaterMeter references arenot set.
/// They have to be copied/ser manually.
///
public MeterTestRslt(MeterTestRslt oriMTR)
{
CompoundMeterId = oriMTR.CompoundMeterId;
RegReaderType = oriMTR.RegReaderType;
PulsesMeter = oriMTR.PulsesMeter;
PulsesMaster = oriMTR.PulsesMaster;
PulsesPerLiter = oriMTR.PulsesPerLiter;
VolumeStart = oriMTR.VolumeStart;
VolumeEnd = oriMTR.VolumeEnd;
VolumeMeter = oriMTR.VolumeMeter;
VolumeRef = oriMTR.VolumeRef;
TimestampStart = oriMTR.TimestampStart;
TimestampEnd = oriMTR.TimestampEnd;
TestTime = oriMTR.TestTime;
Error = oriMTR.Error;
ErrorIndicators = oriMTR.ErrorIndicators;
InfoIndicators = oriMTR.InfoIndicators;
TestDone = oriMTR.TestDone;
Passed = oriMTR.Passed;
#if IPERL
CalibFactor = oriMTR.CalibFactor;
CalibFactorLNA = oriMTR.CalibFactorLNA;
Q2CorrRL = oriMTR.Q2CorrRL;
Q2CorrLR = oriMTR.Q2CorrLR;
FlowDirection = oriMTR.FlowDirection;
ExtraDataPath = oriMTR.ExtraDataPath;
X1 = oriMTR.X1;
X2 = oriMTR.X2;
X3 = oriMTR.X3;
X4 = oriMTR.X4;
X5 = oriMTR.X5;
X6 = oriMTR.X6;
X7 = oriMTR.X7;
X8 = oriMTR.X8;
X9 = oriMTR.X9;
#endif
#if ORACLE_DB
ErrorBC = oriMTR.ErrorBC;
LastError = oriMTR.LastError;
#endif
}
public virtual void CopyContentFrom(MeterTestRslt src)
{
if (src == null) return;
CompoundMeterId = src.CompoundMeterId;
RegReaderType = src.RegReaderType;
PulsesMeter = src.PulsesMeter;
PulsesMaster = src.PulsesMaster;
PulsesPerLiter = src.PulsesPerLiter;
VolumeStart = src.VolumeStart;
VolumeEnd = src.VolumeEnd;
VolumeMeter = src.VolumeMeter;
VolumeRef = src.VolumeRef;
TimestampStart = src.TimestampStart;
TimestampEnd = src.TimestampEnd;
TestTime = src.TestTime;
Error = src.Error;
ErrorIndicators = src.ErrorIndicators;
InfoIndicators = src.InfoIndicators;
TestDone = src.TestDone;
Passed = src.Passed;
#if IPERL
CalibFactor = src.CalibFactor;
CalibFactorLNA = src.CalibFactorLNA;
Q2CorrRL = src.Q2CorrRL;
Q2CorrLR = src.Q2CorrLR;
FlowDirection = src.FlowDirection;
ExtraDataPath = src.ExtraDataPath;
X1 = src.X1;
X2 = src.X2;
X3 = src.X3;
X4 = src.X4;
X5 = src.X5;
X6 = src.X6;
X7 = src.X7;
X8 = src.X8;
X9 = src.X9;
#endif
#if ORACLE_DB
ErrorBC = src.ErrorBC;
LastError = src.LastError;
#endif
}
public override string ToString()
{
return (TestRslt != null) ? Name() : base.ToString();
}
public virtual void WriteBinary(BinaryWriter writer)
{
writer.Write(Id);
writer.Write(CompoundMeterId);
writer.Write(RegReaderType);
writer.Write(PulsesMeter);
writer.Write(PulsesMaster);
writer.Write(PulsesPerLiter);
writer.Write(VolumeStart);
writer.Write(VolumeEnd);
writer.Write(VolumeMeter);
writer.Write(VolumeRef);
writer.Write(TimestampStart);
writer.Write(TimestampEnd);
writer.Write(TestTime);
writer.Write(Error);
writer.Write(ErrorIndicators);
writer.Write(InfoIndicators);
writer.Write(TestDone);
writer.Write(Passed);
#if IPERL
writer.Write(CalibFactor);
writer.Write(CalibFactorLNA);
writer.Write(Q2CorrRL);
writer.Write(Q2CorrLR);
writer.Write(FlowDirection);
writer.Write((ExtraDataPath != null) ? ExtraDataPath : string.Empty);
writer.Write(X1);
writer.Write(X2);
writer.Write(X3);
writer.Write(X4);
writer.Write(X5);
writer.Write(X6);
writer.Write(X7);
writer.Write(X8);
writer.Write(X9);
#endif
#if ORACLE_DB
writer.Write(ErrorBC);
writer.Write(LastError);
#endif
writer.Write((TestRslt != null && TestRslt.Name() != null) ? TestRslt.Name() : string.Empty);
writer.Write(TestRslt != null ? TestRslt.Part : 0);
}
public virtual void ReadBinary(BinaryReader reader, IList testResults)
{
Id = reader.ReadInt32();
CompoundMeterId = reader.ReadByte();
RegReaderType = reader.ReadInt32();
PulsesMeter = reader.ReadDouble();
PulsesMaster = reader.ReadDouble();
PulsesPerLiter = reader.ReadDouble();
VolumeStart = reader.ReadDouble();
VolumeEnd = reader.ReadDouble();
VolumeMeter = reader.ReadDouble();
VolumeRef = reader.ReadDouble();
TimestampStart = reader.ReadDouble();
TimestampEnd = reader.ReadDouble();
TestTime = reader.ReadDouble();
Error = reader.ReadDouble();
ErrorIndicators = reader.ReadInt64();
InfoIndicators = reader.ReadInt64();
TestDone = reader.ReadBoolean();
Passed = reader.ReadBoolean();
#if IPERL
CalibFactor = reader.ReadInt32();
CalibFactorLNA = reader.ReadInt32();
Q2CorrRL = reader.ReadInt32();
Q2CorrLR = reader.ReadInt32();
FlowDirection = reader.ReadInt32();
ExtraDataPath = reader.ReadString();
X1 = reader.ReadSingle();
X2 = reader.ReadSingle();
X3 = reader.ReadSingle();
X4 = reader.ReadSingle();
X5 = reader.ReadSingle();
X6 = reader.ReadSingle();
X7 = reader.ReadSingle();
X8 = reader.ReadSingle();
X9 = reader.ReadSingle();
#endif
#if ORACLE_DB
ErrorBC = reader.ReadDouble();
LastError = reader.ReadDouble();
#endif
TestRslt = null;
string trName = reader.ReadString();
int trPart = reader.ReadInt32();
if (testResults != null && !string.IsNullOrEmpty(trName))
{
foreach (var tr in testResults)
{
if ((tr.Name() == trName) && (tr.Part == trPart))
{
TestRslt = tr;
break;
}
}
}
}
}
}