// Static Methods
// Calculates a Macrodyne phasor's custom conversion factor using INI information
internal static double CustomConversionFactor(PhasorDefinition phasor)
{
if (phasor.PhasorType == PhasorType.Voltage)
{
return(phasor.CalFactor * phasor.Ratio);
}
return(phasor.CalFactor * phasor.Ratio / phasor.Shunt);
}
/// <summary>
/// Creates a new <see cref="PhasorDefinition"/> from specified parameters.
/// </summary>
/// <param name="parent">The <see cref="ConfigurationCell"/> parent of this <see cref="PhasorDefinition"/>.</param>
/// <param name="index">Index of phasor within INI based configuration file.</param>
/// <param name="entryValue">The entry value from the INI based configuration file.</param>
public PhasorDefinition(ConfigurationCell parent, int index, string entryValue)
: base(parent)
{
string[] entry = entryValue.Split(',');
string entryType = entry[0].Trim().Substring(0, 1).ToUpper();
PhasorDefinition defaultPhasor;
if (parent is null)
{
defaultPhasor = new PhasorDefinition(null);
}
else
{
ConfigurationFrame configFile = Parent.Parent;
switch (entryType)
{
case "V":
PhasorType = PhasorType.Voltage;
defaultPhasor = configFile.DefaultPhasorV;
break;
case "I":
PhasorType = PhasorType.Current;
defaultPhasor = configFile.DefaultPhasorI;
break;
default:
PhasorType = PhasorType.Voltage;
defaultPhasor = configFile.DefaultPhasorV;
break;
}
}
Ratio = entry.Length > 1 ? double.Parse(entry[1].Trim()) : defaultPhasor.Ratio;
if (entry.Length > 2)
{
CalFactor = double.Parse(entry[2].Trim());
}
else
{
ConversionFactor = defaultPhasor.ConversionFactor;
}
Offset = entry.Length > 3 ? double.Parse(entry[3].Trim()) : defaultPhasor.Offset;
Shunt = entry.Length > 4 ? double.Parse(entry[4].Trim()) : defaultPhasor.Shunt;
VoltageReferenceIndex = entry.Length > 5 ? (int)double.Parse(entry[5].Trim()) : defaultPhasor.VoltageReferenceIndex;
Label = entry.Length > 6 ? entry[6].Trim() : defaultPhasor.Label;
Index = index;
}
// Creates phasor information for an INI based BPA PDCstream configuration file
internal static string ConfigFileFormat(IPhasorDefinition definition)
{
PhasorDefinition phasor = definition as PhasorDefinition;
if (phasor != null)
{
return((phasor.PhasorType == PhasorType.Voltage ? "V" : "I") + "," + phasor.Ratio + "," + phasor.CalFactor + "," + phasor.Offset + "," + phasor.Shunt + "," + phasor.VoltageReferenceIndex + "," + phasor.Label);
}
else if (definition != null)
{
if (definition.PhasorType == PhasorType.Voltage)
{
return("V,4500.0,0.0060573,0,0,500," + definition.Label.ToNonNullString("Default 500kV"));
}
else
{
return("I,600.00,0.000040382,0,1,1," + definition.Label.ToNonNullString("Default Current"));
}
}
return("");
}
/// <summary>
/// Creates a new <see cref="PhasorValue"/> from specified parameters.
/// </summary>
/// <param name="parent">The <see cref="DataCell"/> parent of this <see cref="PhasorValue"/>.</param>
/// <param name="phasorDefinition">The <see cref="PhasorDefinition"/> associated with this <see cref="PhasorValue"/>.</param>
/// <param name="angle">The <see cref="GSF.Units.Angle"/> value (a.k.a., the argument) of this <see cref="PhasorValue"/>, in radians.</param>
/// <param name="magnitude">The magnitude value (a.k.a., the absolute value or modulus) of this <see cref="PhasorValue"/>.</param>
public PhasorValue(DataCell parent, PhasorDefinition phasorDefinition, Angle angle, double magnitude)
: base(parent, phasorDefinition, angle, magnitude)
{
}
/// <summary>
/// Creates a new <see cref="PhasorValue"/> from specified parameters.
/// </summary>
/// <param name="parent">The <see cref="DataCell"/> parent of this <see cref="PhasorValue"/>.</param>
/// <param name="phasorDefinition">The <see cref="PhasorDefinition"/> associated with this <see cref="PhasorValue"/>.</param>
/// <param name="real">The real value of this <see cref="PhasorValue"/>.</param>
/// <param name="imaginary">The imaginary value of this <see cref="PhasorValue"/>.</param>
public PhasorValue(DataCell parent, PhasorDefinition phasorDefinition, double real, double imaginary)
: base(parent, phasorDefinition, real, imaginary)
{
}
/// <summary>
/// Creates a new <see cref="PhasorValue"/> from specified parameters.
/// </summary>
/// <param name="parent">The <see cref="DataCell"/> parent of this <see cref="PhasorValue"/>.</param>
/// <param name="phasorDefinition">The <see cref="PhasorDefinition"/> associated with this <see cref="PhasorValue"/>.</param>
/// <param name="angle">The <see cref="GSF.Units.Angle"/> value (a.k.a., the argument) of this <see cref="PhasorValue"/>, in radians.</param>
/// <param name="magnitude">The magnitude value (a.k.a., the absolute value or modulus) of this <see cref="PhasorValue"/>.</param>
public PhasorValue(DataCell parent, PhasorDefinition phasorDefinition, Angle angle, double magnitude)
: base(parent, phasorDefinition, angle, magnitude)
{
}
/// <summary>
/// Creates a new <see cref="PhasorValue"/> from specified parameters.
/// </summary>
/// <param name="parent">The <see cref="DataCell"/> parent of this <see cref="PhasorValue"/>.</param>
/// <param name="phasorDefinition">The <see cref="PhasorDefinition"/> associated with this <see cref="PhasorValue"/>.</param>
/// <param name="real">The real value of this <see cref="PhasorValue"/>.</param>
/// <param name="imaginary">The imaginary value of this <see cref="PhasorValue"/>.</param>
public PhasorValue(DataCell parent, PhasorDefinition phasorDefinition, double real, double imaginary)
: base(parent, phasorDefinition, real, imaginary)
{
}
/// <summary>
/// Creates a new <see cref="PhasorDefinition"/> from specified parameters.
/// </summary>
/// <param name="parent">The <see cref="ConfigurationCell"/> parent of this <see cref="PhasorDefinition"/>.</param>
/// <param name="label">The label of this <see cref="PhasorDefinition"/>.</param>
/// <param name="type">The <see cref="PhasorType"/> of this <see cref="PhasorDefinition"/>.</param>
/// <param name="voltageReference">The associated <see cref="IPhasorDefinition"/> that represents the voltage reference (if any).</param>
public PhasorDefinition(ConfigurationCell parent, string label, PhasorType type, PhasorDefinition voltageReference)
: base(parent, label, 1, 0.0D, type, voltageReference)
{
}
// Static Methods
/// <summary>
/// Gets a generated INI configuration file image.
/// </summary>
public static string GetIniFileImage(IConfigurationFrame configFrame)
{
StringBuilder fileImage = new StringBuilder();
fileImage.AppendLine("; BPA PDCstream Style IniFile for Macrodyne Configuration " + configFrame.IDCode);
fileImage.AppendLine("; Auto-generated on " + DateTime.Now);
fileImage.AppendLine("; Assembly: " + AssemblyInfo.ExecutingAssembly.Name);
fileImage.AppendLine("; Compiled: " + File.GetLastWriteTime(AssemblyInfo.ExecutingAssembly.Location));
fileImage.AppendLine(";");
fileImage.AppendLine(";");
fileImage.AppendLine("; Format:");
fileImage.AppendLine("; Each Column in data file is given a bracketed identifier, numbered in the order it");
fileImage.AppendLine("; appears in the data file, and identified by data type ( PMU, PDC, or other)");
fileImage.AppendLine("; PMU designates column data format from a single PMU");
fileImage.AppendLine("; PDC designates column data format from another PDC which is somewhat different from a single PMU");
fileImage.AppendLine("; Default gives default values for a processing algorithm in case quantities are omitted");
fileImage.AppendLine("; Name= gives the overall station name for print labels");
fileImage.AppendLine("; NumberPhasors= : for PMU data, gives the number of phasors contained in column");
fileImage.AppendLine("; for PDC data, gives the number of PMUs data included in the column");
fileImage.AppendLine("; Note - for PDC data, there will be 2 phasors & 1 freq per PMU");
fileImage.AppendLine("; Quantities within the column are listed by PhasorI=, Frequency=, etc");
fileImage.AppendLine("; Each quantity has 7 comma separated fields followed by an optional comment");
fileImage.AppendLine(";");
fileImage.AppendLine("; Phasor entry format: Type, Ratio, Cal Factor, Offset, Shunt, VoltageRef/Class, Label ;Comments");
fileImage.AppendLine("; Type: Type of measurement, V=voltage, I=current, N=don\'t care, single ASCII character");
fileImage.AppendLine("; Ratio: PT/CT ratio N:1 where N is a floating point number");
fileImage.AppendLine("; Cal Factor: Conversion factor between integer in file and secondary volts, floating point");
fileImage.AppendLine("; Offset: Phase Offset to correct for phase angle measurement errors or differences, floating point");
fileImage.AppendLine("; Shunt: Current- shunt resistence in ohms, or the equivalent ratio for aux CTs, floating point");
fileImage.AppendLine("; Voltage- empty, not used");
fileImage.AppendLine("; VoltageRef: Current- phasor number (1-10) of voltage phasor to use for power calculation, integer");
fileImage.AppendLine("; Voltage- voltage class, standard l-l voltages, 500, 230, 115, etc, integer");
fileImage.AppendLine("; Label: Phasor quantity label for print label, text");
fileImage.AppendLine("; Comments: All text after the semicolon on a line are optional comments not for processing");
fileImage.AppendLine(";");
fileImage.AppendLine("; Voltage Magnitude = MAG(Real,Imaginary) * CalFactor * PTR (line-neutral)");
fileImage.AppendLine("; Current Magnitude = MAG(Real,Imaginary) * CalFactor * CTR / Shunt (phase current)");
fileImage.AppendLine("; Phase Angle = ATAN(Imaginary/Real) + Phase Offset (usually degrees)");
fileImage.AppendLine("; Note: Usually phase Offset is 0, but is sometimes required for comparing measurements");
fileImage.AppendLine("; from different systems or through transformer banks");
fileImage.AppendLine(";");
fileImage.AppendLine("; Frequency entry format: scale, offset, dF/dt scale, dF/dt offset, dummy, label ;Comments");
fileImage.AppendLine("; Frequency = Number / scale + offset");
fileImage.AppendLine("; dF/dt = Number / (dF/dt scale) + (dF/dt offset)");
fileImage.AppendLine(";");
fileImage.AppendLine(";");
fileImage.AppendLine("[DEFAULT]");
fileImage.AppendLine("PhasorV=" + DefaultVoltagePhasorEntry); //PhasorDefinition.ConfigFileFormat(DefaultPhasorV));
fileImage.AppendLine("PhasorI=" + DefaultCurrentPhasorEntry); //PhasorDefinition.ConfigFileFormat(DefaultPhasorI));
fileImage.AppendLine("Frequency=" + DefaultFrequencyEntry); //FrequencyDefinition.ConfigFileFormat(DefaultFrequency));
fileImage.AppendLine();
fileImage.AppendLine("[CONFIG]");
fileImage.AppendLine("SampleRate=" + configFrame.FrameRate);
fileImage.AppendLine("NumberOfPMUs=" + configFrame.Cells.Count);
fileImage.AppendLine();
for (int x = 0; x < configFrame.Cells.Count; x++)
{
fileImage.AppendLine("[" + configFrame.Cells[x].IDLabel + "]");
fileImage.AppendLine("Name=" + configFrame.Cells[x].StationName);
fileImage.AppendLine("PMU=" + x);
fileImage.AppendLine("NumberPhasors=" + configFrame.Cells[x].PhasorDefinitions.Count);
for (int y = 0; y < configFrame.Cells[x].PhasorDefinitions.Count; y++)
{
fileImage.AppendLine("Phasor" + (y + 1) + "=" + PhasorDefinition.ConfigFileFormat(configFrame.Cells[x].PhasorDefinitions[y]));
}
fileImage.AppendLine("Frequency=" + FrequencyDefinition.ConfigFileFormat(configFrame.Cells[x].FrequencyDefinition));
fileImage.AppendLine();
}
return(fileImage.ToString());
}
/// <summary>
/// Reload Macrodyne INI based configuration file.
/// </summary>
public void Refresh()
{
if ((object)m_iniFile == null)
{
return;
}
// The only time we need an access lock is when we reload the config file...
lock (m_iniFile)
{
if (File.Exists(m_iniFile.FileName))
{
ConfigurationCell pmuCell;
int phasorCount, pmuCount, x, y;
m_defaultPhasorV = new PhasorDefinition(null, 0, m_iniFile["DEFAULT", "PhasorV", DefaultVoltagePhasorEntry]);
m_defaultPhasorI = new PhasorDefinition(null, 0, m_iniFile["DEFAULT", "PhasorI", DefaultCurrentPhasorEntry]);
m_defaultFrequency = new FrequencyDefinition(null, m_iniFile["DEFAULT", "Frequency", DefaultFrequencyEntry]);
FrameRate = ushort.Parse(m_iniFile["CONFIG", "SampleRate", "30"]);
// We read all cells in the config file into their own configuration cell collection - cells parsed
// from the configuration frame will be mapped to their associated config file cell by ID label
// when the configuration cell is parsed from the configuration frame
if (m_configurationFileCells == null)
{
m_configurationFileCells = new ConfigurationCellCollection(int.MaxValue);
}
m_configurationFileCells.Clear();
// Load phasor data for each section in config file...
foreach (string section in m_iniFile.GetSectionNames())
{
if (section.Length > 0)
{
// Make sure this is not a special section
if (string.Compare(section, "DEFAULT", true) != 0 && string.Compare(section, "CONFIG", true) != 0)
{
// Create new PMU entry structure from config file settings...
phasorCount = int.Parse(m_iniFile[section, "NumberPhasors", "0"]);
// Check for PDC code
int pdcID = int.Parse(m_iniFile[section, "PDC", "-1"]);
if (pdcID == -1)
{
// No PDC entry exists, assume this is a PMU
pmuCell = new ConfigurationCell(this);
pmuCell.IDCode = ushort.Parse(m_iniFile[section, "PMU", Cells.Count.ToString()]);
pmuCell.SectionEntry = section; // This will automatically assign ID label as first 4 digits of section
pmuCell.StationName = m_iniFile[section, "Name", section];
pmuCell.PhasorDefinitions.Clear();
for (x = 0; x < phasorCount; x++)
{
pmuCell.PhasorDefinitions.Add(new PhasorDefinition(pmuCell, x + 1, m_iniFile[section, "Phasor" + (x + 1), DefaultVoltagePhasorEntry]));
}
pmuCell.FrequencyDefinition = new FrequencyDefinition(pmuCell, m_iniFile[section, "Frequency", DefaultFrequencyEntry]);
m_configurationFileCells.Add(pmuCell);
}
else
{
// This is a PDC, need to define one virtual entry for each PMU
pmuCount = int.Parse(m_iniFile[section, "NumberPMUs", "0"]);
for (x = 0; x < pmuCount; x++)
{
// Create a new PMU cell for each PDC entry that exists
pmuCell = new ConfigurationCell(this);
// For BPA INI files, PMUs tradionally have an ID number indexed starting at zero or one - so we multiply
// ID by 1000 and add index to attempt to create a fairly unique ID to help optimize downstream parsing
pmuCell.IDCode = unchecked ((ushort)(pdcID * 1000 + x));
pmuCell.SectionEntry = string.Format("{0}pmu{1}", section, x); // This will automatically assign ID label as first 4 digits of section
pmuCell.StationName = string.Format("{0} - Device {1}", m_iniFile[section, "Name", section], (x + 1));
pmuCell.PhasorDefinitions.Clear();
for (y = 0; y < 2; y++)
{
pmuCell.PhasorDefinitions.Add(new PhasorDefinition(pmuCell, y + 1, m_iniFile[section, "Phasor" + ((x * 2) + (y + 1)), DefaultVoltagePhasorEntry]));
}
pmuCell.FrequencyDefinition = new FrequencyDefinition(pmuCell, m_iniFile[section, "Frequency", DefaultFrequencyEntry]);
m_configurationFileCells.Add(pmuCell);
}
}
}
}
}
// Associate single Macrodyne cell with its associated cell hopefully defined in INI file
if (m_configurationFileCells.Count > 0 && (object)Cells != null && Cells.Count > 0)
{
ConfigurationCell configurationFileCell = null;
// Assign INI file cell associating by section entry
ConfigurationCell cell = Cells[0];
// Attempt to associate this configuration cell with information read from external INI based configuration file
m_configurationFileCells.TryGetBySectionEntry(cell.SectionEntry, ref configurationFileCell);
cell.ConfigurationFileCell = configurationFileCell;
m_onlineDataFormatFlags = Common.GetFormatFlagsFromPhasorCount(cell.PhasorDefinitions.Count);
m_stationName = cell.StationName;
}
}
else
{
throw new InvalidOperationException("Macrodyne config file \"" + m_iniFile.FileName + "\" does not exist.");
}
}
// In case other classes want to know, we send out a notification that the config file has been reloaded (make sure
// you do this after the write lock has been released to avoid possible dead-lock situations)
if (ConfigurationFileReloaded != null)
{
ConfigurationFileReloaded(this, EventArgs.Empty);
}
}
/// <summary>
/// Creates a new <see cref="PhasorDefinition"/> from specified parameters.
/// </summary>
/// <param name="parent">The <see cref="ConfigurationCell"/> parent of this <see cref="PhasorDefinition"/>.</param>
/// <param name="index">Index of phasor within INI based configuration file.</param>
/// <param name="entryValue">The entry value from the INI based configuration file.</param>
public PhasorDefinition(ConfigurationCell parent, int index, string entryValue)
: base(parent)
{
string[] entry = entryValue.Split(',');
string entryType = entry[0].Trim().Substring(0, 1).ToUpper();
PhasorDefinition defaultPhasor;
if (parent != null)
{
ConfigurationFrame configFile = this.Parent.Parent;
if (entryType == "V")
{
PhasorType = PhasorType.Voltage;
defaultPhasor = configFile.DefaultPhasorV;
}
else if (entryType == "I")
{
PhasorType = PhasorType.Current;
defaultPhasor = configFile.DefaultPhasorI;
}
else
{
PhasorType = PhasorType.Voltage;
defaultPhasor = configFile.DefaultPhasorV;
}
}
else
{
defaultPhasor = new PhasorDefinition(null as ConfigurationCell);
}
if (entry.Length > 1)
Ratio = double.Parse(entry[1].Trim());
else
Ratio = defaultPhasor.Ratio;
if (entry.Length > 2)
CalFactor = double.Parse(entry[2].Trim());
else
ConversionFactor = defaultPhasor.ConversionFactor;
if (entry.Length > 3)
Offset = double.Parse(entry[3].Trim());
else
Offset = defaultPhasor.Offset;
if (entry.Length > 4)
Shunt = double.Parse(entry[4].Trim());
else
Shunt = defaultPhasor.Shunt;
if (entry.Length > 5)
VoltageReferenceIndex = (int)double.Parse(entry[5].Trim());
else
VoltageReferenceIndex = defaultPhasor.VoltageReferenceIndex;
if (entry.Length > 6)
Label = entry[6].Trim();
else
Label = defaultPhasor.Label;
this.Index = index;
}
/// <summary>
/// Creates a new <see cref="PhasorDefinition"/> from specified parameters.
/// </summary>
/// <param name="parent">The <see cref="ConfigurationCell"/> parent of this <see cref="PhasorDefinition"/>.</param>
/// <param name="label">The label of this <see cref="PhasorDefinition"/>.</param>
/// <param name="type">The <see cref="PhasorType"/> of this <see cref="PhasorDefinition"/>.</param>
/// <param name="voltageReference">The associated <see cref="IPhasorDefinition"/> that represents the voltage reference (if any).</param>
public PhasorDefinition(ConfigurationCell parent, string label, PhasorType type, PhasorDefinition voltageReference)
: base(parent, label, 1, 0.0D, type, voltageReference)
{
}
// Static Methods
// Calculates a Macrodyne phasor's custom conversion factor using INI information
internal static double CustomConversionFactor(PhasorDefinition phasor)
{
if (phasor.PhasorType == PhasorType.Voltage)
return phasor.CalFactor * phasor.Ratio;
return phasor.CalFactor * phasor.Ratio / phasor.Shunt;
}
/// <summary>
/// Creates a new <see cref="PhasorDefinition"/> from specified parameters.
/// </summary>
/// <param name="parent">The <see cref="ConfigurationCell"/> parent of this <see cref="PhasorDefinition"/>.</param>
/// <param name="index">Index of phasor within INI based configuration file.</param>
/// <param name="entryValue">The entry value from the INI based configuration file.</param>
public PhasorDefinition(ConfigurationCell parent, int index, string entryValue)
: base(parent)
{
string[] entry = entryValue.Split(',');
string entryType = entry[0].Trim().Substring(0, 1).ToUpper();
PhasorDefinition defaultPhasor;
if (parent != null)
{
ConfigurationFrame configFile = this.Parent.Parent;
if (entryType == "V")
{
PhasorType = PhasorType.Voltage;
defaultPhasor = configFile.DefaultPhasorV;
}
else if (entryType == "I")
{
PhasorType = PhasorType.Current;
defaultPhasor = configFile.DefaultPhasorI;
}
else
{
PhasorType = PhasorType.Voltage;
defaultPhasor = configFile.DefaultPhasorV;
}
}
else
{
defaultPhasor = new PhasorDefinition(null as ConfigurationCell);
}
if (entry.Length > 1)
{
Ratio = double.Parse(entry[1].Trim());
}
else
{
Ratio = defaultPhasor.Ratio;
}
if (entry.Length > 2)
{
CalFactor = double.Parse(entry[2].Trim());
}
else
{
ConversionFactor = defaultPhasor.ConversionFactor;
}
if (entry.Length > 3)
{
Offset = double.Parse(entry[3].Trim());
}
else
{
Offset = defaultPhasor.Offset;
}
if (entry.Length > 4)
{
Shunt = double.Parse(entry[4].Trim());
}
else
{
Shunt = defaultPhasor.Shunt;
}
if (entry.Length > 5)
{
VoltageReferenceIndex = (int)double.Parse(entry[5].Trim());
}
else
{
VoltageReferenceIndex = defaultPhasor.VoltageReferenceIndex;
}
if (entry.Length > 6)
{
Label = entry[6].Trim();
}
else
{
Label = defaultPhasor.Label;
}
this.Index = index;
}