public VICycleDataGroup(DataGroup dataGroup)
{
m_cycleDataGroups = dataGroup.DataSeries
.Select((series, i) => Tuple.Create(i / 4, series))
.GroupBy(tuple => tuple.Item1)
.Select(grouping => new DataGroup(grouping.Select(tuple => tuple.Item2)))
.Select(group => new CycleDataGroup(group))
.ToList();
}
public DataGroup ToSubGroup(DateTime startTime, DateTime endTime)
{
DataGroup subGroup = new DataGroup();
foreach (DataSeries dataSeries in m_dataSeries)
{
subGroup.Add(dataSeries.ToSubSeries(startTime, endTime));
}
return(subGroup);
}
public DataGroup ToSubGroup(int startIndex, int endIndex)
{
DataGroup subGroup = new DataGroup();
foreach (DataSeries dataSeries in m_dataSeries)
{
subGroup.Add(dataSeries.ToSubSeries(startIndex, endIndex));
}
return(subGroup);
}
public VICycleDataGroup(DataGroup dataGroup)
{
m_cycleDataGroups = dataGroup.DataSeries
.Select((dataSeries, index) => new { DataSeries = dataSeries, Index = index })
.GroupBy(obj => obj.Index / 4)
.Where(grouping => grouping.Count() >= 4)
.Select(grouping => grouping.Select(obj => obj.DataSeries))
.Select(grouping => new CycleDataGroup(new DataGroup(grouping)))
.ToList();
MapIndexes();
}
public static DataGroup Combine(params DataGroup[] dataGroups)
{
DataGroup combination = new DataGroup();
foreach (DataGroup dataGroup in dataGroups)
{
foreach (DataSeries dataSeries in dataGroup.DataSeries)
{
combination.Add(dataSeries);
}
}
return(combination);
}
private void DetectDisturbances(DataGroup dataGroup, VICycleDataGroup viCycleDataGroup)
{
List <Range <int> > aPhaseDisturbanceRanges = DetectDisturbanceRanges(ToPerUnit(viCycleDataGroup.VA?.RMS));
List <Range <int> > bPhaseDisturbanceRanges = DetectDisturbanceRanges(ToPerUnit(viCycleDataGroup.VB?.RMS));
List <Range <int> > cPhaseDisturbanceRanges = DetectDisturbanceRanges(ToPerUnit(viCycleDataGroup.VC?.RMS));
List <Range <int> > abPhaseDisturbanceRanges = DetectDisturbanceRanges(ToPerUnit(viCycleDataGroup.VAB?.RMS));
List <Range <int> > bcPhaseDisturbanceRanges = DetectDisturbanceRanges(ToPerUnit(viCycleDataGroup.VBC?.RMS));
List <Range <int> > caPhaseDisturbanceRanges = DetectDisturbanceRanges(ToPerUnit(viCycleDataGroup.VCA?.RMS));
List <Disturbance> disturbanceList = aPhaseDisturbanceRanges.Select(range => ToDisturbance(viCycleDataGroup.VA.RMS, range, Phase.AN))
.Concat(bPhaseDisturbanceRanges.Select(range => ToDisturbance(viCycleDataGroup.VB.RMS, range, Phase.BN)))
.Concat(cPhaseDisturbanceRanges.Select(range => ToDisturbance(viCycleDataGroup.VC.RMS, range, Phase.CN)))
.Concat(abPhaseDisturbanceRanges.Select(range => ToDisturbance(viCycleDataGroup.VAB.RMS, range, Phase.AB)))
.Concat(bcPhaseDisturbanceRanges.Select(range => ToDisturbance(viCycleDataGroup.VBC.RMS, range, Phase.BC)))
.Concat(caPhaseDisturbanceRanges.Select(range => ToDisturbance(viCycleDataGroup.VCA.RMS, range, Phase.CA)))
.ToList();
IEnumerable <Range <int> > allDisturbanceRanges = aPhaseDisturbanceRanges
.Concat(bPhaseDisturbanceRanges)
.Concat(cPhaseDisturbanceRanges)
.Concat(abPhaseDisturbanceRanges)
.Concat(bcPhaseDisturbanceRanges)
.Concat(caPhaseDisturbanceRanges);
IEnumerable <Disturbance> worstDisturbances = Range <int> .MergeAllOverlapping(allDisturbanceRanges)
.Select(range =>
{
Disturbance worst = null;
foreach (Disturbance disturbance in disturbanceList.Where(disturbance => ToRange(disturbance).Overlaps(range)))
{
if ((object)worst == null || m_isMoreSevere(disturbance.PerUnitMagnitude, worst.PerUnitMagnitude))
{
worst = disturbance;
}
}
worst = worst.Clone();
worst.Phase = Phase.Worst;
return(worst);
});
disturbanceList.AddRange(worstDisturbances);
if (disturbanceList.Any())
{
m_disturbances.Add(dataGroup, disturbanceList);
}
}
public VICycleDataGroup(DataGroup dataGroup)
{
m_vIndices = new List <VIndices>();
m_asset = dataGroup.Asset;
m_cycleDataGroups = dataGroup.DataSeries
.Select((dataSeries, index) => new { DataSeries = dataSeries, Index = index })
.GroupBy(obj => obj.Index / 4)
.Where(grouping => grouping.Count() >= 4)
.Select(grouping => grouping.Select(obj => obj.DataSeries))
.Select(grouping => new CycleDataGroup(new DataGroup(grouping, dataGroup.Asset), dataGroup.Asset))
.ToList();
MapIndexes();
}
public VIDataGroup(DataGroup dataGroup)
{
// Get all necessary voltage and current channels in the proper order
List <DataSeries> viSeriesList = Enumerable.Range(0, 7)
.GroupJoin(dataGroup.DataSeries.Where(IsInstantaneous), i => i, GetIndex, (i, series) => series.FirstOrDefault())
.ToList();
// Validate that no channels are missing
if (viSeriesList.Any(series => (object)series == null))
{
throw new InvalidOperationException("Cannot create VIDataGroup from an incomplete set of voltage/current channels");
}
// Create the data group from the complete
// set of voltage/current channels
m_dataGroup = new DataGroup(viSeriesList);
}
private void DetectDisturbances(DataGroup dataGroup, VICycleDataGroup viCycleDataGroup)
{
double nominalVoltage = dataGroup.Line.VoltageKV * 1000.0D / Sqrt3;
double nominalVoltageReciprocal = 1.0D / nominalVoltage;
DataSeries vAll = GetVAllSeries(viCycleDataGroup);
List <Range <int> > aPhaseDisturbanceRanges = DetectDisturbanceRanges(viCycleDataGroup.VA.RMS.Multiply(nominalVoltageReciprocal));
List <Range <int> > bPhaseDisturbanceRanges = DetectDisturbanceRanges(viCycleDataGroup.VB.RMS.Multiply(nominalVoltageReciprocal));
List <Range <int> > cPhaseDisturbanceRanges = DetectDisturbanceRanges(viCycleDataGroup.VC.RMS.Multiply(nominalVoltageReciprocal));
List <Range <int> > allDisturbanceRanges = DetectDisturbanceRanges(vAll.Multiply(nominalVoltageReciprocal));
List <Disturbance> disturbanceList = aPhaseDisturbanceRanges.Select(range => ToDisturbance(viCycleDataGroup.VA.RMS, range, Phase.AN))
.Concat(bPhaseDisturbanceRanges.Select(range => ToDisturbance(viCycleDataGroup.VB.RMS, range, Phase.BN)))
.Concat(cPhaseDisturbanceRanges.Select(range => ToDisturbance(viCycleDataGroup.VC.RMS, range, Phase.CN)))
.Concat(allDisturbanceRanges.Select(range => ToDisturbance(vAll, range, Phase.None)))
.ToList();
m_disturbances.Add(dataGroup, disturbanceList);
}
private Range <int> ToRange(DataGroup dataGroup, ReportedDisturbance disturbance)
{
if (dataGroup.Samples == 0)
{
return(null);
}
DateTime startTime = disturbance.Time;
DateTime endTime = startTime + disturbance.Duration;
TimeSpan eventSpan = dataGroup.EndTime - dataGroup.StartTime;
TimeSpan startSpan = startTime - dataGroup.StartTime;
TimeSpan endSpan = endTime - dataGroup.EndTime;
int startIndex = (int)(startSpan.TotalSeconds / eventSpan.TotalSeconds * dataGroup.Samples);
int endIndex = (int)(endSpan.TotalSeconds / eventSpan.TotalSeconds * dataGroup.Samples);
return(new Range <int>(startIndex, endIndex));
}
public void Initialize(MeterDataSet meterDataSet)
{
ConnectionStringParser.ParseConnectionString(meterDataSet.ConnectionString, this);
m_disturbances = new Dictionary <DataGroup, List <Disturbance> >();
CycleDataResource cycleDataResource = meterDataSet.GetResource <CycleDataResource>();
int lineCount = meterDataSet.Meter.MeterLines.Count;
for (int i = 0; i < cycleDataResource.DataGroups.Count; i++)
{
DataGroup dataGroup = cycleDataResource.DataGroups[i];
VICycleDataGroup viCycleDataGroup = cycleDataResource.VICycleDataGroups[i];
Range <DateTime> eventDateRange = new Range <DateTime>(dataGroup.StartTime, dataGroup.EndTime);
if (lineCount == 1 && dataGroup.Disturbances.Count > 0)
{
ProcessReportedDisturbances(meterDataSet.Meter, dataGroup);
}
else
{
DetectDisturbances(dataGroup, viCycleDataGroup);
}
}
DataGroupsResource dataGroupsResource = meterDataSet.GetResource <DataGroupsResource>();
foreach (DataGroup dataGroup in dataGroupsResource.DataGroups)
{
if (dataGroup.DataSeries.Count > 0)
{
continue;
}
if (lineCount == 1 && dataGroup.Disturbances.Count > 0)
{
ProcessReportedDisturbances(meterDataSet.Meter, dataGroup);
}
}
}
// Static Methods
private static Series GetSeriesInfo(MeterInfoDataContext meterInfo, Meter meter, DataGroup dataGroup, string measurementTypeName, string phaseName)
{
int lineID;
string measurementCharacteristicName;
string seriesTypeName;
char typeDesignation;
char phaseDesignation;
string channelName;
DataContextLookup <ChannelKey, Channel> channelLookup;
DataContextLookup <SeriesKey, Series> seriesLookup;
DataContextLookup <string, MeasurementType> measurementTypeLookup;
DataContextLookup <string, MeasurementCharacteristic> measurementCharacteristicLookup;
DataContextLookup <string, Phase> phaseLookup;
DataContextLookup <string, SeriesType> seriesTypeLookup;
ChannelKey channelKey;
SeriesKey seriesKey;
lineID = dataGroup.Line.ID;
measurementCharacteristicName = "Instantaneous";
seriesTypeName = "Values";
typeDesignation = (measurementTypeName == "Current") ? 'I' : measurementTypeName[0];
phaseDesignation = (phaseName == "RES") ? 'R' : phaseName[0];
channelName = string.Concat(typeDesignation, phaseDesignation);
channelLookup = new DataContextLookup <ChannelKey, Channel>(meterInfo, channel => new ChannelKey(channel))
.WithFilterExpression(channel => channel.MeterID == meter.ID)
.WithFilterExpression(channel => channel.LineID == dataGroup.Line.ID)
.WithFilterExpression(channel => channel.MeasurementType.Name == measurementTypeName)
.WithFilterExpression(channel => channel.MeasurementCharacteristic.Name == measurementCharacteristicName)
.WithFilterExpression(channel => channel.Phase.Name == phaseName);
seriesLookup = new DataContextLookup <SeriesKey, Series>(meterInfo, series => new SeriesKey(series))
.WithFilterExpression(series => series.Channel.Meter.ID == meter.ID)
.WithFilterExpression(series => series.Channel.Line.ID == dataGroup.Line.ID)
.WithFilterExpression(series => series.Channel.MeasurementType.Name == measurementTypeName)
.WithFilterExpression(series => series.Channel.MeasurementCharacteristic.Name == measurementCharacteristicName)
.WithFilterExpression(series => series.Channel.Phase.Name == phaseName)
.WithFilterExpression(series => series.SeriesType.Name == seriesTypeName);
measurementTypeLookup = new DataContextLookup <string, MeasurementType>(meterInfo, measurementType => measurementType.Name);
measurementCharacteristicLookup = new DataContextLookup <string, MeasurementCharacteristic>(meterInfo, measurementCharacteristic => measurementCharacteristic.Name);
phaseLookup = new DataContextLookup <string, Phase>(meterInfo, phase => phase.Name);
seriesTypeLookup = new DataContextLookup <string, SeriesType>(meterInfo, seriesType => seriesType.Name);
channelKey = new ChannelKey(lineID, 0, channelName, measurementTypeName, measurementCharacteristicName, phaseName);
seriesKey = new SeriesKey(channelKey, seriesTypeName);
return(seriesLookup.GetOrAdd(seriesKey, key =>
{
SeriesType seriesType = seriesTypeLookup.GetOrAdd(key.SeriesType, name => new SeriesType()
{
Name = name, Description = name
});
Channel channel = channelLookup.GetOrAdd(channelKey, chKey =>
{
MeasurementType measurementType = measurementTypeLookup.GetOrAdd(chKey.MeasurementType, name => new MeasurementType()
{
Name = name, Description = name
});
MeasurementCharacteristic measurementCharacteristic = measurementCharacteristicLookup.GetOrAdd(chKey.MeasurementCharacteristic, name => new MeasurementCharacteristic()
{
Name = name, Description = name
});
Phase phase = phaseLookup.GetOrAdd(chKey.Phase, name => new Phase()
{
Name = name, Description = name
});
return new Channel()
{
Meter = meter,
Line = dataGroup.Line,
MeasurementType = measurementType,
MeasurementCharacteristic = measurementCharacteristic,
Phase = phase,
Name = chKey.Name,
SamplesPerHour = dataGroup.SamplesPerHour,
PerUnitValue = 0,
HarmonicGroup = 0,
Description = string.Concat(measurementCharacteristic.Name, " ", measurementType.Name, " ", phase.Name),
Enabled = 1
};
});
return new Series()
{
SeriesType = seriesType,
Channel = channel,
SourceIndexes = string.Empty
};
}));
}
private static Series GetSeriesInfo(MeterInfoDataContext meterInfo, Meter meter, DataGroup dataGroup, int index)
{
Dictionary <int, string> measurementTypeNameLookup = new Dictionary <int, string>()
{
{ VAIndex, "Voltage" },
{ VBIndex, "Voltage" },
{ VCIndex, "Voltage" },
{ IAIndex, "Current" },
{ IBIndex, "Current" },
{ ICIndex, "Current" },
{ IRIndex, "Current" }
};
Dictionary <int, string> phaseNameLookup = new Dictionary <int, string>()
{
{ VAIndex, "AN" },
{ VBIndex, "BN" },
{ VCIndex, "CN" },
{ IAIndex, "AN" },
{ IBIndex, "BN" },
{ ICIndex, "CN" },
{ IRIndex, "RES" }
};
int lineID;
string measurementTypeName;
string measurementCharacteristicName;
string phaseName;
string seriesTypeName;
string channelName;
DataContextLookup <ChannelKey, Channel> channelLookup;
DataContextLookup <SeriesKey, Series> seriesLookup;
DataContextLookup <string, MeasurementType> measurementTypeLookup;
DataContextLookup <string, MeasurementCharacteristic> measurementCharacteristicLookup;
DataContextLookup <string, Phase> phaseLookup;
DataContextLookup <string, SeriesType> seriesTypeLookup;
SeriesKey seriesKey;
ChannelKey channelKey;
lineID = dataGroup.Line.ID;
measurementTypeName = measurementTypeNameLookup[index];
measurementCharacteristicName = "Instantaneous";
phaseName = phaseNameLookup[index];
seriesTypeName = "Values";
channelName = string.Concat(measurementTypeName, " ", phaseName);
channelLookup = new DataContextLookup <ChannelKey, Channel>(meterInfo, GetChannelKey)
.WithFilterExpression(channel => channel.MeterID == meter.ID)
.WithFilterExpression(channel => channel.LineID == dataGroup.Line.ID);
seriesLookup = new DataContextLookup <SeriesKey, Series>(meterInfo, GetSeriesKey)
.WithFilterExpression(series => series.Channel.Meter.ID == meter.ID)
.WithFilterExpression(series => series.Channel.Line.ID == dataGroup.Line.ID);
measurementTypeLookup = new DataContextLookup <string, MeasurementType>(meterInfo, measurementType => measurementType.Name);
measurementCharacteristicLookup = new DataContextLookup <string, MeasurementCharacteristic>(meterInfo, measurementCharacteristic => measurementCharacteristic.Name);
phaseLookup = new DataContextLookup <string, Phase>(meterInfo, phase => phase.Name);
seriesTypeLookup = new DataContextLookup <string, SeriesType>(meterInfo, seriesType => seriesType.Name);
seriesKey = Tuple.Create(lineID, 0, channelName, measurementTypeName, measurementCharacteristicName, phaseName, seriesTypeName);
channelKey = Tuple.Create(lineID, 0, channelName, measurementTypeName, measurementCharacteristicName, phaseName);
return(seriesLookup.GetOrAdd(seriesKey, key =>
{
SeriesType seriesType = seriesTypeLookup.GetOrAdd(seriesTypeName, name => new SeriesType()
{
Name = name, Description = name
});
Channel channel = channelLookup.GetOrAdd(channelKey, chKey =>
{
MeasurementType measurementType = measurementTypeLookup.GetOrAdd(measurementTypeName, name => new MeasurementType()
{
Name = name, Description = name
});
MeasurementCharacteristic measurementCharacteristic = measurementCharacteristicLookup.GetOrAdd(measurementCharacteristicName, name => new MeasurementCharacteristic()
{
Name = name, Description = name
});
Phase phase = phaseLookup.GetOrAdd(phaseName, name => new Phase()
{
Name = name, Description = name
});
return new Channel()
{
Meter = meter,
Line = dataGroup.Line,
MeasurementType = measurementType,
MeasurementCharacteristic = measurementCharacteristic,
Phase = phase,
Name = string.Concat(measurementType.Name, " ", phase.Name),
SamplesPerHour = dataGroup.SamplesPerHour,
PerUnitValue = 0,
HarmonicGroup = 0,
Description = string.Concat(measurementCharacteristic.Name, " ", measurementType.Name, " ", phase.Name),
Enabled = 1
};
});
return new Series()
{
SeriesType = seriesType,
Channel = channel,
SourceIndexes = string.Empty
};
}));
}
public static CycleDataGroup ToCycleDataGroup(DataSeries dataSeries, double frequency)
{
DataGroup dataGroup = new DataGroup();
DataSeries rmsSeries = new DataSeries();
DataSeries phaseSeries = new DataSeries();
DataSeries peakSeries = new DataSeries();
DataSeries errorSeries = new DataSeries();
int samplesPerCycle;
double[] yValues;
double[] tValues;
double sum;
DateTime cycleTime;
SineWave sineFit;
if ((object)dataSeries == null)
{
return(new CycleDataGroup(dataGroup));
}
// Set series info to the source series info
rmsSeries.SeriesInfo = dataSeries.SeriesInfo;
phaseSeries.SeriesInfo = dataSeries.SeriesInfo;
peakSeries.SeriesInfo = dataSeries.SeriesInfo;
errorSeries.SeriesInfo = dataSeries.SeriesInfo;
// Get samples per cycle of the data series based on the given frequency
samplesPerCycle = CalculateSamplesPerCycle(dataSeries, frequency);
// Initialize arrays of y-values and t-values for calculating cycle data
yValues = new double[samplesPerCycle];
tValues = new double[samplesPerCycle];
for (int i = 0; i <= dataSeries.DataPoints.Count - samplesPerCycle; i++)
{
// Use the time of the first data point in the cycle as the time of the cycle
cycleTime = dataSeries.DataPoints[i].Time;
sum = 0.0D;
// Copy values from the original data series into the y-value and t-value arrays
for (int j = 0; j < samplesPerCycle; j++)
{
yValues[j] = dataSeries.DataPoints[i + j].Value;
tValues[j] = (dataSeries.DataPoints[i + j].Time - cycleTime).TotalSeconds;
sum += yValues[j] * yValues[j];
}
// Use a curve fitting algorithm to estimate the sine wave over this cycle
sineFit = WaveFit.SineFit(yValues, tValues, frequency);
// Add data points to each of the cycle data series
rmsSeries.DataPoints.Add(new DataPoint()
{
Time = cycleTime,
Value = Math.Sqrt(sum / samplesPerCycle)
});
phaseSeries.DataPoints.Add(new DataPoint()
{
Time = cycleTime,
Value = sineFit.Phase
});
peakSeries.DataPoints.Add(new DataPoint()
{
Time = cycleTime,
Value = sineFit.Amplitude
});
errorSeries.DataPoints.Add(new DataPoint()
{
Time = cycleTime,
Value = tValues
.Select(sineFit.CalculateY)
.Zip(yValues, (estimate, value) => Math.Abs(estimate - value))
.Sum()
});
}
// Add a series to the data group for each series of cycle data
dataGroup.Add(rmsSeries);
dataGroup.Add(phaseSeries);
dataGroup.Add(peakSeries);
dataGroup.Add(errorSeries);
return(new CycleDataGroup(dataGroup));
}
public static CycleDataGroup ToCycleDataGroup(DataSeries dataSeries, double frequency)
{
DataGroup dataGroup = new DataGroup();
DataSeries rmsSeries = new DataSeries();
DataSeries phaseSeries = new DataSeries();
DataSeries peakSeries = new DataSeries();
DataSeries errorSeries = new DataSeries();
int samplesPerCycle;
double[] yValues;
double[] tValues;
double sum;
DateTime cycleTime;
SineWave sineFit;
if ((object)dataSeries == null)
{
return(null);
}
// Set series info to the source series info
rmsSeries.SeriesInfo = dataSeries.SeriesInfo;
phaseSeries.SeriesInfo = dataSeries.SeriesInfo;
peakSeries.SeriesInfo = dataSeries.SeriesInfo;
errorSeries.SeriesInfo = dataSeries.SeriesInfo;
// Get samples per cycle of the data series based on the given frequency
samplesPerCycle = CalculateSamplesPerCycle(dataSeries, frequency);
// Initialize arrays of y-values and t-values for calculating cycle data
yValues = new double[samplesPerCycle];
tValues = new double[samplesPerCycle];
// Obtain a list of time gaps in the data series
List <int> gapIndexes = Enumerable.Range(0, dataSeries.DataPoints.Count - 1)
.Where(index =>
{
DataPoint p1 = dataSeries[index];
DataPoint p2 = dataSeries[index + 1];
double cycleDiff = (p2.Time - p1.Time).TotalSeconds * frequency;
// Detect gaps larger than a quarter cycle.
// Tolerance of 0.000062 calculated
// assuming 3.999 samples per cycle
return(cycleDiff > 0.250062);
})
.ToList();
for (int i = 0; i <= dataSeries.DataPoints.Count - samplesPerCycle; i++)
{
// If the cycle following i contains a data gap, do not calculate cycle data
if (gapIndexes.Any(index => i <= index && (i + samplesPerCycle - 1) > index))
{
continue;
}
// Use the time of the first data point in the cycle as the time of the cycle
cycleTime = dataSeries.DataPoints[i].Time;
sum = 0.0D;
// Copy values from the original data series into the y-value and t-value arrays
for (int j = 0; j < samplesPerCycle; j++)
{
yValues[j] = dataSeries.DataPoints[i + j].Value;
tValues[j] = (dataSeries.DataPoints[i + j].Time - cycleTime).TotalSeconds;
sum += yValues[j] * yValues[j];
}
// Use a curve fitting algorithm to estimate the sine wave over this cycle
sineFit = WaveFit.SineFit(yValues, tValues, frequency);
// Add data points to each of the cycle data series
rmsSeries.DataPoints.Add(new DataPoint()
{
Time = cycleTime,
Value = Math.Sqrt(sum / samplesPerCycle)
});
phaseSeries.DataPoints.Add(new DataPoint()
{
Time = cycleTime,
Value = sineFit.Phase
});
peakSeries.DataPoints.Add(new DataPoint()
{
Time = cycleTime,
Value = sineFit.Amplitude
});
errorSeries.DataPoints.Add(new DataPoint()
{
Time = cycleTime,
Value = tValues
.Select(sineFit.CalculateY)
.Zip(yValues, (estimate, value) => Math.Abs(estimate - value))
.Sum()
});
}
// Add a series to the data group for each series of cycle data
dataGroup.Add(rmsSeries);
dataGroup.Add(phaseSeries);
dataGroup.Add(peakSeries);
dataGroup.Add(errorSeries);
return(new CycleDataGroup(dataGroup));
}
// Static Methods
private static Series GetSeriesInfo(Meter meter, DataGroup dataGroup, string measurementTypeName, string phaseName, int assetID)
{
string measurementCharacteristicName = "Instantaneous";
string seriesTypeName = "Values";
char typeDesignation = (measurementTypeName == "Current") ? 'I' : measurementTypeName[0];
string phaseDesignation = (phaseName == "RES") ? "R" : phaseName.TrimEnd('N');
string channelName = string.Concat(typeDesignation, phaseDesignation);
ChannelKey channelKey = new ChannelKey(assetID, 0, channelName, measurementTypeName, measurementCharacteristicName, phaseName);
SeriesKey seriesKey = new SeriesKey(channelKey, seriesTypeName);
Series dbSeries = meter.Channels
.SelectMany(channel => channel.Series)
.FirstOrDefault(series => seriesKey.Equals(new SeriesKey(series)));
if ((object)dbSeries == null)
{
Channel dbChannel = meter.Channels
.FirstOrDefault(channel => channelKey.Equals(new ChannelKey(channel)));
//need to get Asset based on the asset of the datagroup or the connected assets
Asset asset = dataGroup.Asset;
if (asset.ID != assetID)
{
List <Asset> connectedAssets = asset.ConnectedAssets.ToList();
asset = connectedAssets.Find(item => item.ID == assetID);
}
if ((object)dbChannel == null)
{
MeasurementType measurementType = new MeasurementType()
{
Name = measurementTypeName
};
MeasurementCharacteristic measurementCharacteristic = new MeasurementCharacteristic()
{
Name = measurementCharacteristicName
};
Phase phase = new Phase()
{
Name = phaseName
};
dbChannel = new Channel()
{
MeterID = meter.ID,
AssetID = assetID,
MeasurementTypeID = measurementType.ID,
MeasurementCharacteristicID = measurementCharacteristic.ID,
PhaseID = phase.ID,
Name = channelKey.Name,
SamplesPerHour = dataGroup.SamplesPerHour,
Description = string.Concat(measurementCharacteristicName, " ", measurementTypeName, " ", phaseName),
Enabled = true,
Meter = meter,
Asset = asset,
MeasurementType = measurementType,
MeasurementCharacteristic = measurementCharacteristic,
Phase = phase,
Series = new List <Series>()
};
meter.Channels.Add(dbChannel);
}
SeriesType seriesType = new SeriesType()
{
Name = seriesTypeName
};
dbSeries = new Series()
{
ChannelID = dbChannel.ID,
SeriesTypeID = seriesType.ID,
SourceIndexes = string.Empty,
Channel = dbChannel,
SeriesType = seriesType
};
dbChannel.Series.Add(dbSeries);
}
return(dbSeries);
}
public VIDataGroup(DataGroup dataGroup)
{
// Initialize each of
// the indexes to -1
m_vIndices = new List <VIndices>();
m_iaIndex = -1;
m_ibIndex = -1;
m_icIndex = -1;
m_irIndex = -1;
// Initialize the data group
m_dataGroup = new DataGroup(dataGroup.DataSeries, dataGroup.Asset);
// List of Indices matching channel type
List <int> vaIndices = new List <int>();
List <int> vbIndices = new List <int>();
List <int> vcIndices = new List <int>();
List <int> vabIndices = new List <int>();
List <int> vbcIndices = new List <int>();
List <int> vcaIndices = new List <int>();
List <int> iaIndices = new List <int>();
List <int> ibIndices = new List <int>();
List <int> icIndices = new List <int>();
List <int> iresIndices = new List <int>();
for (int i = 0; i < dataGroup.DataSeries.Count; i++)
{
if (isVoltage("AN", dataGroup[i]))
{
vaIndices.Add(i);
}
else if (isVoltage("BN", dataGroup[i]))
{
vbIndices.Add(i);
}
else if (isVoltage("CN", dataGroup[i]))
{
vcIndices.Add(i);
}
else if (isVoltage("AB", dataGroup[i]))
{
vabIndices.Add(i);
}
else if (isVoltage("BC", dataGroup[i]))
{
vbcIndices.Add(i);
}
else if (isVoltage("CA", dataGroup[i]))
{
vcaIndices.Add(i);
}
else if (isCurrent("AN", dataGroup[i]))
{
iaIndices.Add(i);
}
else if (isCurrent("BN", dataGroup[i]))
{
ibIndices.Add(i);
}
else if (isCurrent("CN", dataGroup[i]))
{
icIndices.Add(i);
}
else if (isCurrent("RES", dataGroup[i]))
{
iresIndices.Add(i);
}
}
//Walk through all Va and try to get corresponding Vb and Vc...
List <int?> ProcessedIndices = new List <int?>();
foreach (int?VaIndex in vaIndices)
{
int assetID = dataGroup[(int)VaIndex].SeriesInfo.Channel.AssetID;
int VbIndex = vbIndices.Cast <int?>().FirstOrDefault(i => dataGroup[(int)i].SeriesInfo.Channel.AssetID == assetID && !ProcessedIndices.Contains(i)) ?? -1;
int VcIndex = vcIndices.Cast <int?>().FirstOrDefault(i => dataGroup[(int)i].SeriesInfo.Channel.AssetID == assetID && !ProcessedIndices.Contains(i)) ?? -1;
int VabIndex = vabIndices.Cast <int?>().FirstOrDefault(i => dataGroup[(int)i].SeriesInfo.Channel.AssetID == assetID && !ProcessedIndices.Contains(i)) ?? -1;
int VbcIndex = vbcIndices.Cast <int?>().FirstOrDefault(i => dataGroup[(int)i].SeriesInfo.Channel.AssetID == assetID && !ProcessedIndices.Contains(i)) ?? -1;
int VcaIndex = vcaIndices.Cast <int?>().FirstOrDefault(i => dataGroup[(int)i].SeriesInfo.Channel.AssetID == assetID && !ProcessedIndices.Contains(i)) ?? -1;
VIndices set = new VIndices();
ProcessedIndices.Add(VaIndex);
set.Va = (int)VaIndex;
if (VbIndex > -1)
{
ProcessedIndices.Add(VbIndex);
set.Vb = VbIndex;
}
if (VcIndex > -1)
{
ProcessedIndices.Add(VcIndex);
set.Vc = VcIndex;
}
if (VabIndex > -1)
{
ProcessedIndices.Add(VabIndex);
set.Vab = VabIndex;
}
if (VbcIndex > -1)
{
ProcessedIndices.Add(VbcIndex);
set.Vbc = VbcIndex;
}
if (VcaIndex > -1)
{
ProcessedIndices.Add(VcaIndex);
set.Vca = VcaIndex;
}
if (assetID == dataGroup.Asset.ID)
{
set.distance = 0;
}
else
{
set.distance = dataGroup.Asset.DistanceToAsset(assetID);
}
m_vIndices.Add(set);
}
// Start by matching
//Check if a voltage and current channnel exist on this asset
if (iaIndices.Where(i => dataGroup[i].SeriesInfo.Channel.AssetID == dataGroup.Asset.ID).Count() > 0)
{
m_iaIndex = iaIndices.Where(i => dataGroup[i].SeriesInfo.Channel.AssetID == dataGroup.Asset.ID).First();
}
if (ibIndices.Where(i => dataGroup[i].SeriesInfo.Channel.AssetID == dataGroup.Asset.ID).Count() > 0)
{
m_ibIndex = ibIndices.Where(i => dataGroup[i].SeriesInfo.Channel.AssetID == dataGroup.Asset.ID).First();
}
if (icIndices.Where(i => dataGroup[i].SeriesInfo.Channel.AssetID == dataGroup.Asset.ID).Count() > 0)
{
m_icIndex = icIndices.Where(i => dataGroup[i].SeriesInfo.Channel.AssetID == dataGroup.Asset.ID).First();
}
if (iresIndices.Where(i => dataGroup[i].SeriesInfo.Channel.AssetID == dataGroup.Asset.ID).Count() > 0)
{
m_irIndex = iresIndices.Where(i => dataGroup[i].SeriesInfo.Channel.AssetID == dataGroup.Asset.ID).First();
}
// use one of the connected Assets
List <int> connectedAssets = dataGroup.Asset.ConnectedAssets.Select(item => item.ID).ToList();
if (m_iaIndex == -1 && iaIndices.Where(i => connectedAssets.Contains(dataGroup[i].SeriesInfo.Channel.AssetID)).Count() > 0)
{
m_iaIndex = iaIndices.Where(i => connectedAssets.Contains(dataGroup[i].SeriesInfo.Channel.AssetID)).First();
}
if (m_ibIndex == -1 && ibIndices.Where(i => connectedAssets.Contains(dataGroup[i].SeriesInfo.Channel.AssetID)).Count() > 0)
{
m_ibIndex = ibIndices.Where(i => connectedAssets.Contains(dataGroup[i].SeriesInfo.Channel.AssetID)).First();
}
if (m_icIndex == -1 && icIndices.Where(i => connectedAssets.Contains(dataGroup[i].SeriesInfo.Channel.AssetID)).Count() > 0)
{
m_icIndex = icIndices.Where(i => connectedAssets.Contains(dataGroup[i].SeriesInfo.Channel.AssetID)).First();
}
if (m_irIndex == -1 && iresIndices.Where(i => connectedAssets.Contains(dataGroup[i].SeriesInfo.Channel.AssetID)).Count() > 0)
{
m_irIndex = iresIndices.Where(i => connectedAssets.Contains(dataGroup[i].SeriesInfo.Channel.AssetID)).First();
}
if (m_iaIndex == -1 && iaIndices.Count() > 0)
{
m_iaIndex = iaIndices.First();
}
if (m_ibIndex == -1 && ibIndices.Count() > 0)
{
m_ibIndex = ibIndices.First();
}
if (m_ibIndex == -1 && ibIndices.Count() > 0)
{
m_ibIndex = icIndices.First();
}
if (m_irIndex == -1 && iresIndices.Count() > 0)
{
m_irIndex = iresIndices.First();
}
if (m_vIndices.Count() == 0)
{
m_vIndices.Add(new VIndices());
}
CalculateMissingCurrentChannel();
CalculateMissingLLVoltageChannels();
//sort by all available Channels and number of Hops to actual Asset
m_vIndices.Sort((a, b) =>
{
if (b.allVoltagesDefined && !a.allVoltagesDefined)
{
return(1);
}
if (a.allVoltagesDefined && !b.allVoltagesDefined)
{
return(-1);
}
return(a.distance.CompareTo(b.distance));
});
}
private void ProcessReportedDisturbances(Meter meter, DataGroup dataGroup)
{
Line line = dataGroup.Line;
if ((object)line == null)
{
if (meter.MeterLocation.MeterLocationLines.Count != 1)
{
return;
}
line = meter.MeterLocation.MeterLocationLines.Single().Line;
}
List <Disturbance> disturbanceList = dataGroup.Disturbances
.Select(disturbance => ToDisturbance(line, disturbance))
.Where(IsDisturbed)
.ToList();
if (dataGroup.Samples > 0)
{
DateTime startTime = dataGroup.StartTime;
DateTime endTime = dataGroup.EndTime;
TimeSpan duration = (endTime - startTime);
foreach (Disturbance disturbance in disturbanceList)
{
TimeSpan startDuration = disturbance.StartTime - startTime;
TimeSpan endDuration = disturbance.EndTime - startTime;
disturbance.StartIndex = (int)((startDuration.TotalSeconds / duration.TotalSeconds) * dataGroup.Samples);
disturbance.EndIndex = (int)((endDuration.TotalSeconds / duration.TotalSeconds) * dataGroup.Samples);
}
}
IEnumerable <Range <DateTime> > allDisturbanceRanges = disturbanceList
.Select(ToDateRange);
IEnumerable <Disturbance> worstDisturbances = Range <DateTime> .MergeAllOverlapping(allDisturbanceRanges)
.Select(range =>
{
Disturbance worst = null;
foreach (Disturbance disturbance in disturbanceList.Where(disturbance => ToDateRange(disturbance).Overlaps(range)))
{
if ((object)worst == null || m_isMoreSevere(disturbance.PerUnitMagnitude, worst.PerUnitMagnitude))
{
worst = disturbance;
}
}
worst = worst.Clone();
worst.Phase = Phase.Worst;
return(worst);
});
disturbanceList.AddRange(worstDisturbances);
if (disturbanceList.Any())
{
m_disturbances.Add(dataGroup, disturbanceList);
}
}
// Static Methods
public static DataSeries AddMissingCurrentSeries(MeterInfoDataContext meterInfo, Meter meter, DataGroup dataGroup)
{
DataSeries missingSeries = null;
// Get all necessary voltage and current channels in the proper order
List <DataSeries> viSeriesList = Enumerable.Range(VAIndex, IRIndex + 1)
.GroupJoin(dataGroup.DataSeries.Where(IsInstantaneous), i => i, GetIndex, (i, series) => series.FirstOrDefault())
.ToList();
// Validate that no more than one current channel is missing
if (viSeriesList.Count(series => (object)series == null) > 1)
{
return(null);
}
// Attempt to fill in missing current channels
// based on the relation IR = IA + IB + IC
if ((object)viSeriesList[IAIndex] == null)
{
missingSeries = viSeriesList[IRIndex];
missingSeries = missingSeries.Add(viSeriesList[IBIndex].Negate());
missingSeries = missingSeries.Add(viSeriesList[ICIndex].Negate());
missingSeries.SeriesInfo = GetSeriesInfo(meterInfo, meter, dataGroup, IAIndex);
missingSeries.SeriesInfo.Channel.Line = viSeriesList[IBIndex].SeriesInfo.Channel.Line;
viSeriesList[IAIndex] = missingSeries;
}
else if ((object)viSeriesList[IBIndex] == null)
{
missingSeries = viSeriesList[IRIndex];
missingSeries = missingSeries.Add(viSeriesList[IAIndex].Negate());
missingSeries = missingSeries.Add(viSeriesList[ICIndex].Negate());
missingSeries.SeriesInfo = GetSeriesInfo(meterInfo, meter, dataGroup, IBIndex);
missingSeries.SeriesInfo.Channel.Line = viSeriesList[IAIndex].SeriesInfo.Channel.Line;
viSeriesList[IBIndex] = missingSeries;
}
else if ((object)viSeriesList[ICIndex] == null)
{
missingSeries = viSeriesList[IRIndex];
missingSeries = missingSeries.Add(viSeriesList[IAIndex].Negate());
missingSeries = missingSeries.Add(viSeriesList[IBIndex].Negate());
missingSeries.SeriesInfo = GetSeriesInfo(meterInfo, meter, dataGroup, ICIndex);
missingSeries.SeriesInfo.Channel.Line = viSeriesList[IAIndex].SeriesInfo.Channel.Line;
viSeriesList[ICIndex] = missingSeries;
}
else if ((object)viSeriesList[IRIndex] == null)
{
missingSeries = viSeriesList[IAIndex];
missingSeries = missingSeries.Add(viSeriesList[IBIndex]);
missingSeries = missingSeries.Add(viSeriesList[ICIndex]);
missingSeries.SeriesInfo = GetSeriesInfo(meterInfo, meter, dataGroup, IRIndex);
missingSeries.SeriesInfo.Channel.Line = viSeriesList[IAIndex].SeriesInfo.Channel.Line;
viSeriesList[IRIndex] = missingSeries;
}
if ((object)missingSeries != null)
{
dataGroup.Add(missingSeries);
}
return(missingSeries);
}
// Static Methods
private static Series GetSeriesInfo(Meter meter, DataGroup dataGroup, string measurementTypeName, string phaseName)
{
int lineID = dataGroup.Line.ID;
string measurementCharacteristicName = "Instantaneous";
string seriesTypeName = "Values";
char typeDesignation = (measurementTypeName == "Current") ? 'I' : measurementTypeName[0];
string phaseDesignation = (phaseName == "RES") ? "R" : phaseName.TrimEnd('N');
string channelName = string.Concat(typeDesignation, phaseDesignation);
ChannelKey channelKey = new ChannelKey(lineID, 0, channelName, measurementTypeName, measurementCharacteristicName, phaseName);
SeriesKey seriesKey = new SeriesKey(channelKey, seriesTypeName);
Series dbSeries = meter.Channels
.SelectMany(channel => channel.Series)
.FirstOrDefault(series => seriesKey.Equals(new SeriesKey(series)));
if ((object)dbSeries == null)
{
using (AdoDataConnection connection = meter.ConnectionFactory())
{
Channel dbChannel = meter.Channels
.FirstOrDefault(channel => channelKey.Equals(new ChannelKey(channel)));
if ((object)dbChannel == null)
{
TableOperations <Channel> channelTable = new TableOperations <Channel>(connection);
TableOperations <MeasurementType> measurementTypeTable = new TableOperations <MeasurementType>(connection);
TableOperations <MeasurementCharacteristic> measurementCharacteristicTable = new TableOperations <MeasurementCharacteristic>(connection);
TableOperations <Phase> phaseTable = new TableOperations <Phase>(connection);
MeasurementType measurementType = measurementTypeTable.GetOrAdd(measurementTypeName);
MeasurementCharacteristic measurementCharacteristic = measurementCharacteristicTable.GetOrAdd(measurementCharacteristicName);
Phase phase = phaseTable.GetOrAdd(phaseName);
dbChannel = new Channel()
{
MeterID = meter.ID,
LineID = lineID,
MeasurementTypeID = measurementType.ID,
MeasurementCharacteristicID = measurementCharacteristic.ID,
PhaseID = phase.ID,
Name = channelKey.Name,
SamplesPerHour = dataGroup.SamplesPerHour,
Description = string.Concat(measurementCharacteristicName, " ", measurementTypeName, " ", phaseName),
Enabled = true
};
channelTable.AddNewRecord(dbChannel);
dbChannel.ID = connection.ExecuteScalar <int>("SELECT @@IDENTITY");
meter.Channels = null;
}
TableOperations <Series> seriesTable = new TableOperations <Series>(connection);
TableOperations <SeriesType> seriesTypeTable = new TableOperations <SeriesType>(connection);
SeriesType seriesType = seriesTypeTable.GetOrAdd(seriesTypeName);
dbSeries = new Series()
{
ChannelID = dbChannel.ID,
SeriesTypeID = seriesType.ID,
SourceIndexes = string.Empty
};
seriesTable.AddNewRecord(dbSeries);
dbSeries.ID = connection.ExecuteScalar <int>("SELECT @@IDENTITY");
dbChannel.Series = null;
dbSeries = meter.Channels
.SelectMany(channel => channel.Series)
.First(series => seriesKey.Equals(new SeriesKey(series)));
}
}
return(dbSeries);
}
public CycleDataGroup(DataGroup dataGroup)
{
m_dataGroup = dataGroup;
}
public CycleDataGroup(DataGroup dataGroup, Asset asset)
{
m_dataGroup = dataGroup;
m_asset = asset;
}
public VIDataGroup(DataGroup dataGroup)
{
string[] instantaneousSeriesTypes = { "Values", "Instantaneous" };
// Initialize each of
// the indexes to -1
m_vaIndex = -1;
m_vbIndex = -1;
m_vcIndex = -1;
m_vabIndex = -1;
m_vbcIndex = -1;
m_vcaIndex = -1;
m_iaIndex = -1;
m_ibIndex = -1;
m_icIndex = -1;
m_irIndex = -1;
// Initialize the data group
m_dataGroup = new DataGroup(dataGroup.DataSeries);
for (int i = 0; i < dataGroup.DataSeries.Count; i++)
{
string measurementType = dataGroup[i].SeriesInfo.Channel.MeasurementType.Name;
string measurementCharacteristic = dataGroup[i].SeriesInfo.Channel.MeasurementCharacteristic.Name;
string seriesType = dataGroup[i].SeriesInfo.SeriesType.Name;
string phase = dataGroup[i].SeriesInfo.Channel.Phase.Name;
// If the data group is not instantaneous, do not use it in the VIDataGroup
if (measurementCharacteristic != "Instantaneous")
{
continue;
}
// If the data group is not instantaneous, do not use it in the VIDataGroup
if (!instantaneousSeriesTypes.Contains(seriesType))
{
continue;
}
// Assign the proper indexes for the seven VIDataGroup
// channels by checking the name of the channel
if (measurementType == "Voltage" && phase == "AN")
{
m_vaIndex = i;
}
else if (measurementType == "Voltage" && phase == "BN")
{
m_vbIndex = i;
}
else if (measurementType == "Voltage" && phase == "CN")
{
m_vcIndex = i;
}
else if (measurementType == "Voltage" && phase == "AB")
{
m_vabIndex = i;
}
else if (measurementType == "Voltage" && phase == "BC")
{
m_vbcIndex = i;
}
else if (measurementType == "Voltage" && phase == "CA")
{
m_vcaIndex = i;
}
else if (measurementType == "Current" && phase == "AN")
{
m_iaIndex = i;
}
else if (measurementType == "Current" && phase == "BN")
{
m_ibIndex = i;
}
else if (measurementType == "Current" && phase == "CN")
{
m_icIndex = i;
}
else if (measurementType == "Current" && phase == "RES")
{
m_irIndex = i;
}
}
CalculateMissingLLVoltageChannels();
}
public static Event GetEvent(this TableOperations <Event> eventTable, FileGroup fileGroup, DataGroup dataGroup)
{
int fileGroupID = fileGroup.ID;
int lineID = dataGroup.Line.ID;
DateTime startTime = dataGroup.StartTime;
DateTime endTime = dataGroup.EndTime;
int samples = dataGroup.Samples;
IDbDataParameter startTimeParameter = new SqlParameter()
{
ParameterName = nameof(dataGroup.StartTime),
DbType = DbType.DateTime2,
Value = startTime
};
IDbDataParameter endTimeParameter = new SqlParameter()
{
ParameterName = nameof(dataGroup.EndTime),
DbType = DbType.DateTime2,
Value = endTime
};
RecordRestriction recordRestriction =
new RecordRestriction("FileGroupID = {0}", fileGroupID) &
new RecordRestriction("LineID = {0}", lineID) &
new RecordRestriction("StartTime = {0}", startTimeParameter) &
new RecordRestriction("EndTime = {0}", endTimeParameter) &
new RecordRestriction("Samples = {0}", samples);
return(eventTable.QueryRecord(recordRestriction));
}