private void WriteData(CancellationToken cancelToken)
{
foreach (var vals in _dataQueue.GetConsumingEnumerable(cancelToken))
{
_logger.InfoFormat("WRITTING {0} values", vals.Data.Count);
var insertMode = AFUpdateOption.InsertNoCompression;
if (vals.IsBackFillData)
{
insertMode = AFUpdateOption.Insert;
}
//foreach (var val in vals.Data)
//{
// _logger.DebugFormat("writing {0} at {1}", val.Value,val.Timestamp);
//}
// sorting values before writing
vals.Data.Sort();
var errors = _server.UpdateValues(vals.Data, insertMode, AFBufferOption.BufferIfPossible);
if (errors != null && errors.HasErrors)
{
_logger.Error(errors.Errors);
_logger.Error(errors.PIServerErrors);
}
}
}
public void Run()
{
PIServers piServers = new PIServers();
PIServer piServer = piServers["<PISERVER>"];
IList <PIPoint> points = PIPoint.FindPIPoints(piServer, new[] { "sample_floatpoint", "sample_digitalpoint" });
PIPoint floatingPIPoint = points[0];
PIPoint digitalPIPoint = points[1];
AFEnumerationSet digSet = piServer.StateSets["Modes"];
IList <AFValue> valuesToWrite = new List <AFValue>();
for (int i = 0; i < 10; i++)
{
AFTime time = new AFTime(new DateTime(2015, 1, 1, i, 0, 0, DateTimeKind.Local));
AFValue afValueFloat = new AFValue(i, time);
// Associate the AFValue to a PI Point so we know where to write to.
afValueFloat.PIPoint = floatingPIPoint;
AFEnumerationValue digSetValue = i % 2 == 0 ? digSet["Auto"] : digSet["Manual"];
AFValue afValueDigital = new AFValue(digSetValue, time);
afValueDigital.PIPoint = digitalPIPoint;
valuesToWrite.Add(afValueFloat);
valuesToWrite.Add(afValueDigital);
}
// Perform a bulk write. Use a single local call to PI Buffer Subsystem if possible.
// Otherwise, make a single call to the PI Data Archive.
// We use no compression just so we can check all the values are written.
piServer.UpdateValues(valuesToWrite, AFUpdateOption.InsertNoCompression, AFBufferOption.BufferIfPossible);
}
public static void SaveOutputDataInPi(Outputs UnitOutputTags, IList <PIPoint> points, eRCM_KernelControl objACIkernal, Service unit)
{
IList <AFValue> valuesToWrite = new List <AFValue>();
List <Tag> lstTagResult = new List <Tag>();
var LoadArray = objACIkernal.LoadArray(unit.LoadStep);
//Load Step
object IdealLS = UnitOutputTags.LoadStep.Ideal.Value;
object IdealLSDetails = UnitOutputTags.LoadStep.IdealDetails.Value;
var loadStep = LoadSteps.GetLoadSteps(objACIkernal, UnitOutputTags.LoadStep);
//lstTagResult.Add(loadStep.Current);
//lstTagResult.Add(loadStep.CurrentDetails);
//lstTagResult.Add(loadStep.Ideal);
//lstTagResult.Add(loadStep.IdealDetails);
lstTagResult.Add(loadStep.NextDown);
lstTagResult.Add(loadStep.NextUp);
//Load Prediction
//var loadPredictionResult = LoadPrediction.GetLoadPrediction(objACIkernal, UnitOutputTags.LoadPrediction);
//lstTagResult.Add(loadPredictionResult.Current);
//lstTagResult.Add(loadPredictionResult.Ideal);
//Flow Prediction
//var flowPredictionResult = FlowPrediction.GetFlowPrediction(objACIkernal, UnitOutputTags.FlowPrediction);
//lstTagResult.Add(flowPredictionResult.Current);
//lstTagResult.Add(flowPredictionResult.Ideal);
//Meachinical Efficiency
UnitOutputTags.MechanicalEfficiency.Value = objACIkernal.MechanicalEfficiency;
lstTagResult.Add(UnitOutputTags.MechanicalEfficiency);
//Current Torque
UnitOutputTags.CurrentTorque.Value = objACIkernal.CurrentTorque;
lstTagResult.Add(UnitOutputTags.CurrentTorque);
//Max Load
UnitOutputTags.MaxLoad.Value = objACIkernal.MaxAllowedLoad;
lstTagResult.Add(UnitOutputTags.MaxLoad);
//ErroCode objERCM.FullEnglishErrors(objERCM.ErrorArray(objERCM.CurrentLoadStep), 0)
//UnitOutputTags.ErrorCode.Value = objACIkernal.FullEnglishErrors(objACIkernal.ErrorArray(objACIkernal.CurrentLoadStep), 0);
//UnitOutputTags.ErrorCode.Value = objACIkernal.ErrorArray(objACIkernal.CurrentLoadStep);
//lstTagResult.Add(UnitOutputTags.ErrorCode);
//Rated Load
UnitOutputTags.RatedLoad.Value = objACIkernal.RatedLoad;
lstTagResult.Add(UnitOutputTags.RatedLoad);
//Rated Speed
UnitOutputTags.RatedSpeed.Value = objACIkernal.RatedSpeed;
lstTagResult.Add(UnitOutputTags.RatedSpeed);
//Min Load/Flow Change Allowed
UnitOutputTags.MinChangeAllowed.Value = objACIkernal.MinLoadFlowChangeAllowed;
lstTagResult.Add(UnitOutputTags.MinChangeAllowed);
//Max Load Change Allowed
UnitOutputTags.MaxChangeAllowed.Value = objACIkernal.MaxLoadChangeAllowed;
lstTagResult.Add(UnitOutputTags.MaxChangeAllowed);
//Min Speed
UnitOutputTags.MinSpeed.Value = objACIkernal.MinSpeedCurrentLS();
lstTagResult.Add(UnitOutputTags.MinSpeed);
//Max Speed
UnitOutputTags.MaxSpeed.Value = objACIkernal.MaxSpeedCurrentLS();
lstTagResult.Add(UnitOutputTags.MaxSpeed);
//Stage Info
var stageInfoResult = StageInfo.GetStageInfoList(objACIkernal, UnitOutputTags.StageInfo, unit);
foreach (var stage in stageInfoResult)
{
// Trace.WriteLine("StageNumber:" + stage.StageNumber);
lstTagResult.Add(stage.CompressionRatio);
lstTagResult.Add(stage.DischargePressureAtFlange);
lstTagResult.Add(stage.DischargePressureAtGadge);
lstTagResult.Add(stage.DischargeTemperature);
lstTagResult.Add(stage.Load);
lstTagResult.Add(stage.RatioActualVsTheoriticalPressure);
lstTagResult.Add(stage.RatioActualVsTheoriticalTemperature);
}
//Load Balance
var lbResult = LoadBalance.GetLoadBalance(objACIkernal, UnitOutputTags.LoadBalance);
foreach (var stage in lbResult)
{
// Trace.WriteLine("StageNumber:" + stage.Stages);
lstTagResult.Add(stage.Ratio);
}
//Head End Info
var headEndResult = HeadEndInfo.GetHeadEndInfo(objACIkernal, UnitOutputTags.HeadEndInfo);
foreach (var headEndCylinder in headEndResult)
{
lstTagResult.Add(headEndCylinder.DischargeVE);
lstTagResult.Add(headEndCylinder.Flow);
lstTagResult.Add(headEndCylinder.Load);
lstTagResult.Add(headEndCylinder.SuctionVE);
}
//Crank End
var crankEndResult = CrankEndInfo.GetHeadEndInfo(objACIkernal, UnitOutputTags.CrankEndInfo);
foreach (var crankEndCylinder in crankEndResult)
{
lstTagResult.Add(crankEndCylinder.DischargeVE);
lstTagResult.Add(crankEndCylinder.Flow);
lstTagResult.Add(crankEndCylinder.Load);
lstTagResult.Add(crankEndCylinder.SuctionVE);
lstTagResult.Add(crankEndCylinder.EstimatedDischargeTemperature);
}
//Compression Forces
var compForcesResults = CompressionForces.GetCompressionForces(objACIkernal, UnitOutputTags.CompressionForces);
foreach (var throws in compForcesResults)
{
lstTagResult.Add(throws.Force);
}
//Tension Forces
var tensForcesResults = TensionForces.GetTensionForces(objACIkernal, UnitOutputTags.TensionForces);
foreach (var throws in tensForcesResults)
{
lstTagResult.Add(throws.Force);
}
//Fuel Rate
//var fuelRatesResult = FuelRates.GetFuelRates(objACIkernal, UnitOutputTags.FuelRate, unit);
//lstTagResult.Add(fuelRatesResult.Current);
//lstTagResult.Add(fuelRatesResult.Ideal);
lstTagResult.Add(UnitOutputTags.MaxAllowedDischargePressure);
lstTagResult.Add(UnitOutputTags.IdealFlow90T);
lstTagResult.Add(UnitOutputTags.IdealFuelRate90T);
lstTagResult.Add(UnitOutputTags.IdealLoad90T);
lstTagResult.Add(UnitOutputTags.IdealLoadStep90T);
lstTagResult.Add(UnitOutputTags.IdealLoadStepDetail90T);
lstTagResult.Add(UnitOutputTags.IdealFlow95T);
lstTagResult.Add(UnitOutputTags.IdealFuelRate95T);
lstTagResult.Add(UnitOutputTags.IdealLoad95T);
lstTagResult.Add(UnitOutputTags.IdealLoadStep95T);
lstTagResult.Add(UnitOutputTags.IdealLoadStepDetail95T);
UnitOutputTags.LoadStep.Ideal.Value = IdealLS;
lstTagResult.Add(UnitOutputTags.LoadStep.Ideal);
UnitOutputTags.LoadStep.IdealDetails.Value = IdealLSDetails;
lstTagResult.Add(UnitOutputTags.LoadStep.IdealDetails);
lstTagResult.Add(UnitOutputTags.LoadPrediction.Ideal);
lstTagResult.Add(UnitOutputTags.FlowPrediction.Ideal);
lstTagResult.Add(UnitOutputTags.FuelRate.Ideal);
lstTagResult.Add(UnitOutputTags.LoadStep.Current);
lstTagResult.Add(UnitOutputTags.LoadStep.CurrentDetails);
lstTagResult.Add(UnitOutputTags.LoadPrediction.Current);
lstTagResult.Add(UnitOutputTags.FlowPrediction.Current);
lstTagResult.Add(UnitOutputTags.FuelRate.Current);
lstTagResult.Add(UnitOutputTags.ErrorCode);
foreach (var pipoint in points)
{
var tagValue = lstTagResult.Where(x => x.Name == pipoint.Name).Select(x => x.Value).FirstOrDefault();
AFValue afValueFloat = new AFValue(tagValue, DateTime.Now)
{
PIPoint = pipoint
};
valuesToWrite.Add(afValueFloat);
}
piServer.UpdateValues(valuesToWrite, AFUpdateOption.InsertNoCompression, AFBufferOption.BufferIfPossible);
Console.WriteLine("Pi Values Added for " + unit.UnitName + " at" + DateTime.Now + " Successfully");
}