tbf/TestBenchFramework/BenchControl/WaterMeters/iPerl/ProcParams.cs

370 lines
13 KiB
C#

///
/// Copyright (c) 2015-2017 Sensus Metering Systems
/// Author: Milan Hanajík
///
using System;
using System.IO;
using System.Text;
using System.Xml.Serialization;
using Config.Entities;
using TBF.BenchControl.Generic;
using TBF.Resources;
namespace TBF.BenchControl.WaterMeters.iPerl
{
public class ProcParams : ProcedureParamsBase, IParamsProvider, IProcedureParams
{
public string ProductName; /// Znak fabryczny (PL)
public string Producer; /// Producent (PL), Hersteller (D)
public float DN;
public float L; /// stavebná dĺžka [mm]
public Mounting Mounting;
public float Q4; /// [m3/h]
public float Qn; /// [m3/h]
public float Q2; /// [m3/h]
public float Q1; /// [m3/h]
public string MetrologicalClass; /// Metr. Klasse
public TemperatureClass TemperatureClass;
public PressureLossClass PressureLossClass;
public MaxAdmissiblePressure MaxAdmissiblePressure;
public FlowProfileSensitivityClass FlowProfileSensitivityClass;
public string ApprovalInfo; /// Zulassungszeichen, WE (PL)
public string Certificate;
public float PulsesPerLtr; /// Target low limit of the flow increase or decrease
public string Text1;
public string Text2;
public string Text3;
public string Text4;
public string Text5;
public MeterType MeterType;
#if ORACLE_DB
public int WMType_ID; /// Required for Oracle DB: ID_WZTyp in table VT_PRUEFPUNKT_SOLL_SD
public int WMType_Rev; /// Required for Oracle DB: Rev_WZTyp in table VT_PRUEFPUNKT_SOLL_SD
#endif
public int FactorLimitLo; /// Lower limit for the calibration factor
public int FactorLimitHi; /// Upper limit for the calibration factor
public override void InitializeAll()
{
ProductName = string.Empty;
Producer = string.Empty;
DN = 0;
L = 0;
Mounting = Mounting.NotSpecified;
Q4 = 4.0f;
Qn = 2.5f;
Q2 = 0.005f;
Q1 = 0.003125f;
MetrologicalClass = "R800";
TemperatureClass = TemperatureClass.NotSpecified;
PressureLossClass = PressureLossClass.NotSpecified;
MaxAdmissiblePressure = MaxAdmissiblePressure.NotSpecified;
FlowProfileSensitivityClass = FlowProfileSensitivityClass.NotSpecified;
ApprovalInfo = string.Empty;
Certificate = string.Empty;
PulsesPerLtr = 1.0f;
Text1 = string.Empty;
Text2 = string.Empty;
Text3 = string.Empty;
Text4 = string.Empty;
Text5 = string.Empty;
MeterType = MeterType.AutoDetect;
#if ORACLE_DB
WMType_ID = 2; /// Value for iPerl DN15
WMType_Rev = 1; /// Value for iPerl DN15
#endif
FactorLimitLo = 1000;
FactorLimitHi = 8000;
}
string[] paramNames = new string[]
{
Strings.Product_name,
Strings.Producer,
"DN",
Strings.L,
Strings.Mounting,
"Q4",
"Q3",
"Q2",
"Q1",
Strings.Metrological_class,
Strings.Temperature_class,
Strings.Pressure_loss_class,
Strings.Maximum_admissible_pressure,
Strings.Flow_profile_sensitivity_class,
Strings.Approval_info,
Strings.Certificate,
Strings.PulsesPerLtr,
"Text1",
"Text2",
"Text3",
"Text4",
"Text5",
"iPerl type",
#if ORACLE_DB
"WMType ID",
"WMType Rev.",
#endif
"Calib. factor Lo",
"Calib. factor Hi",
};
public override string ParamName(int i) { return paramNames[i]; }
public override int ParamsCount() { return paramNames.Length; }
public override string ToString(int i)
{
switch (i)
{
case 0: return ProductName;
case 1: return Producer;
case 2: return DN.ToString();
case 3: return L.ToString();
case 4: return Mounting.ToDescription();
case 5: return Q4.ToString();
case 6: return Qn.ToString();
case 7: return Q2.ToString();
case 8: return Q1.ToString();
case 9: return MetrologicalClass;
case 10: return TemperatureClass.ToDescription();
case 11: return PressureLossClass.ToDescription();
case 12: return MaxAdmissiblePressure.ToDescription();
case 13: return FlowProfileSensitivityClass.ToDescription();
case 14: return ApprovalInfo;
case 15: return Certificate;
case 16: return PulsesPerLtr.ToString();
case 17: return Text1;
case 18: return Text2;
case 19: return Text3;
case 20: return Text4;
case 21: return Text5;
case 22: return MeterType.ToString();
#if ORACLE_DB
case 23: return WMType_ID.ToString();
case 24: return WMType_Rev.ToString();
#endif
case 25: return FactorLimitLo.ToString();
case 26: return FactorLimitHi.ToString();
default: return string.Empty;
}
}
public void UpdateParam(int i, string strValue)
{
switch (i)
{
case 0: ProductName = strValue; return;
case 1: Producer = strValue; return;
case 2: DN = Utils.ParseUFloat(strValue); return;
case 3: L = Utils.ParseUFloat(strValue); return;
case 4:
for (Mounting m = 0; m < Mounting.Count; m++)
{
if (m.ToDescription().Equals(strValue)) { Mounting = m; return; }
}
break;
case 5: Q4 = Utils.ParseUFloat(strValue); return;
case 6: Qn = Utils.ParseUFloat(strValue); return;
case 7: Q2 = Utils.ParseUFloat(strValue); return;
case 8: Q1 = Utils.ParseUFloat(strValue); return;
case 9: MetrologicalClass = strValue; return;
case 10:
for (TemperatureClass tc = 0; tc < TemperatureClass.Count; tc++)
{
if (tc.ToDescription().Equals(strValue)) { TemperatureClass = tc; return; }
}
break;
case 11:
for (PressureLossClass dp = 0; dp < PressureLossClass.Count; dp++)
{
if (dp.ToDescription().Equals(strValue)) { PressureLossClass = dp; return; }
}
break;
case 12:
for (MaxAdmissiblePressure map = 0; map < MaxAdmissiblePressure.Count; map++)
{
if (map.ToDescription().Equals(strValue)) { MaxAdmissiblePressure = map; return; }
}
break;
case 13:
for (FlowProfileSensitivityClass fps = 0; fps < FlowProfileSensitivityClass.Count; fps++)
{
if (fps.ToDescription().Equals(strValue)) { FlowProfileSensitivityClass = fps; return; }
}
break;
case 14: ApprovalInfo = strValue; return;
case 15: Certificate = strValue; return;
case 16: PulsesPerLtr = Utils.ParseUFloat(strValue); return;
case 17: Text1 = strValue; return;
case 18: Text2 = strValue; return;
case 19: Text3 = strValue; return;
case 20: Text4 = strValue; return;
case 21: Text5 = strValue; return;
case 22:
for (MeterType mt = 0; mt < MeterType.Count; mt++)
{
if (mt.ToString().Equals(strValue)) { MeterType = mt; return; }
}
break;
#if ORACLE_DB
case 23: WMType_ID = int.Parse(strValue); return;
case 24: WMType_Rev = int.Parse(strValue); return;
#endif
case 25: FactorLimitLo = int.Parse(strValue); return;
case 26: FactorLimitHi = int.Parse(strValue); return;
default: return;
}
}
public bool ValidateParam(int i, string strValue, out string message)
{
message = string.Empty;
float dummy;
int iDummy;
switch (i)
{
case 0: /// ProductName
case 1: /// Producer
case 9: /// MetrologicalClass
case 14: /// ApprovalInfo
case 15: /// Certificate
case 17: /// Text1
case 18: /// Text2
case 19: /// Text3
case 20: /// Text4
case 21: /// Text5
return true;
case 2: /// DN
case 3: /// L
case 5: /// Q4
case 6: /// Q3
case 7: /// Q2
case 8: /// Q1
case 16: /// PulsesPerLtr
if (Utils.TryParseUFloat(strValue, out dummy)) return true;
break;
case 4:
for (Mounting tc = 0; tc < Mounting.Count; tc++) if (tc.ToDescription().Equals(strValue)) return true;
break;
case 10:
for (TemperatureClass tc = 0; tc < TemperatureClass.Count; tc++) if (tc.ToDescription().Equals(strValue)) return true;
break;
case 11:
for (PressureLossClass tc = 0; tc < PressureLossClass.Count; tc++) if (tc.ToDescription().Equals(strValue)) return true;
break;
case 12:
for (MaxAdmissiblePressure map = 0; map < MaxAdmissiblePressure.Count; map++) if (map.ToDescription().Equals(strValue)) return true;
break;
case 13:
for (FlowProfileSensitivityClass tc = 0; tc < FlowProfileSensitivityClass.Count; tc++) if (tc.ToDescription().Equals(strValue)) return true;
break;
case 22:
for (MeterType mt = 0; mt < MeterType.Count; mt++) if (mt.ToString().Equals(strValue)) return true;
break;
#if ORACLE_DB
case 23: /// WMType_ID
case 24: /// WMType_Rev
if (int.TryParse(strValue, out iDummy)) return true;
break;
#endif
case 25:
case 26:
if (int.TryParse(strValue, out iDummy) && iDummy >= 1000 && iDummy <= 8000) return true;
break;
default:
message = "Invalid index";
return false;
}
message = ParamName(i) + " is invalid";
return false;
}
void CopyContentTo(ProcParams prms)
{
prms.ProductName = this.ProductName;
prms.Producer = this.Producer;
prms.DN = this.DN;
prms.L = this.L;
prms.Mounting = this.Mounting;
prms.Q4 = this.Q4;
prms.Qn = this.Qn;
prms.Q2 = this.Q2;
prms.Q1 = this.Q1;
prms.MetrologicalClass = this.MetrologicalClass;
prms.TemperatureClass = this.TemperatureClass;
prms.PressureLossClass = this.PressureLossClass;
prms.MaxAdmissiblePressure = this.MaxAdmissiblePressure;
prms.FlowProfileSensitivityClass = this.FlowProfileSensitivityClass;
prms.ApprovalInfo = this.ApprovalInfo;
prms.Certificate = this.Certificate;
prms.PulsesPerLtr = this.PulsesPerLtr;
prms.Text1 = this.Text1;
prms.Text2 = this.Text2;
prms.Text3 = this.Text3;
prms.Text4 = this.Text4;
prms.Text5 = this.Text5;
prms.MeterType = this.MeterType;
#if ORACLE_DB
prms.WMType_ID = this.WMType_ID;
prms.WMType_Rev = this.WMType_Rev;
#endif
prms.FactorLimitLo = this.FactorLimitLo;
prms.FactorLimitHi = this.FactorLimitHi;
}
public IParamsProvider Clone()
{
ProcParams pars = new ProcParams();
CopyContentTo(pars);
return pars;
}
public override void UpdateProcedureParams(ComponentProcedure dbEntity)
{
if (dbEntity == null) return;
try
{
ProcParams tmp = (ProcParams)(new XmlSerializer(typeof(ProcParams)))
.Deserialize(new StringReader(dbEntity.Parameters));
procedureParamsEntity = dbEntity;
componentName = dbEntity.CmpntName;
procedure = dbEntity.Procedure;
tmp.CopyContentTo(this);
}
catch
{
}
}
public ProcParams()
{
}
public ProcParams(bool initialize)
{
if (initialize) InitializeAll();
}
public ProcParams(ComponentProcedure procParamsEntity, string componentName, Procedure procedure)
{
this.procedureParamsEntity = procParamsEntity;
this.componentName = componentName;
this.procedure = procedure;
}
}
}