/// <summary>
/// Creates a new <see cref="FrequencyDefinition"/> from specified parameters.
/// </summary>
/// <param name="parent">The <see cref="ConfigurationCell"/> parent of this <see cref="FrequencyDefinition"/>.</param>
/// <param name="label">The label of this <see cref="FrequencyDefinition"/>.</param>
public FrequencyDefinition(ConfigurationCell parent, string label)
: base(parent, label, 1000, 100, 0.0D)
{
}
/// <summary>
/// Creates a new <see cref="AnalogDefinition"/> from specified parameters.
/// </summary>
/// <param name="parent">The <see cref="ConfigurationCell"/> parent of this <see cref="AnalogDefinition"/>.</param>
/// <param name="label">The label of this <see cref="AnalogDefinition"/>.</param>
/// <param name="scale">The integer scaling value of this <see cref="AnalogDefinitionBase"/>.</param>
/// <param name="type">The <see cref="AnalogType"/> of this <see cref="AnalogDefinition"/>.</param>
public AnalogDefinition(ConfigurationCell parent, string label, uint scale, AnalogType type)
: base(parent, label, scale, 0.0, type)
{
}
/// <summary>
/// Creates a new <see cref="AnalogDefinition"/> from specified parameters.
/// </summary>
/// <param name="parent">The <see cref="ConfigurationCell"/> parent of this <see cref="AnalogDefinition"/>.</param>
/// <param name="label">The label of this <see cref="AnalogDefinition"/>.</param>
/// <param name="scale">The integer scaling value of this <see cref="AnalogDefinitionBase"/>.</param>
/// <param name="type">The <see cref="AnalogType"/> of this <see cref="AnalogDefinition"/>.</param>
public AnalogDefinition(ConfigurationCell parent, string label, uint scale, AnalogType type)
: base(parent, label, scale, 0.0, type)
{
}
// Load device list for this mapper connection
private void LoadInputDevices()
{
ConfigurationCell definedDevice;
string deviceName;
if ((object)m_definedDevices != null)
{
// Unregister each existing device from the statistics engine
foreach (ConfigurationCell device in DefinedDevices)
StatisticsEngine.Unregister(device);
}
m_definedDevices = new ConcurrentDictionary<ushort, DeviceStatisticsHelper<ConfigurationCell>>();
if (m_isConcentrator)
{
StringBuilder deviceStatus = new StringBuilder();
bool devicedAdded;
int index = 0;
deviceStatus.AppendLine();
deviceStatus.AppendLine();
deviceStatus.Append("Loading expected concentrator device list...");
deviceStatus.AppendLine();
deviceStatus.AppendLine();
// Making a connection to a concentrator that can support multiple devices
foreach (DataRow row in DataSource.Tables["InputStreamDevices"].Select($"ParentID={SharedMappingID}"))
{
// Create new configuration cell parsing needed ID code and label from input stream configuration
definedDevice = new ConfigurationCell(ushort.Parse(row["AccessID"].ToString()));
deviceName = row["Acronym"].ToNonNullString("[undefined]").Trim();
definedDevice.StationName = row["Name"].ToNonNullString(deviceName).Trim().TruncateRight(definedDevice.MaximumStationNameLength);
definedDevice.IDLabel = deviceName.TruncateRight(definedDevice.IDLabelLength);
definedDevice.Tag = uint.Parse(row["ID"].ToString());
definedDevice.Source = this;
devicedAdded = false;
if (m_forceLabelMapping)
{
// When forcing label mapping we always try to use label for unique lookup
if ((object)m_labelDefinedDevices == null)
m_labelDefinedDevices = new ConcurrentDictionary<string, DeviceStatisticsHelper<ConfigurationCell>>(StringComparer.OrdinalIgnoreCase);
// See if label already exists in this collection
if (m_labelDefinedDevices.ContainsKey(definedDevice.StationName))
{
// For devices that do not have unique labels when forcing label mapping, we fall back on its ID code for unique lookup
if (m_definedDevices.ContainsKey(definedDevice.IDCode))
{
OnProcessException(MessageLevel.Error, new InvalidOperationException($"ERROR: Device ID \"{definedDevice.IDCode}\", labeled \"{definedDevice.StationName}\", was not unique in the {Name} input stream. Data from devices that are not distinctly defined by ID code or label will not be correctly parsed until uniquely identified."), flags: MessageFlags.UsageIssue);
}
else
{
m_definedDevices.TryAdd(definedDevice.IDCode, new DeviceStatisticsHelper<ConfigurationCell>(definedDevice));
RegisterStatistics(definedDevice, definedDevice.IDLabel, "Device", "PMU");
devicedAdded = true;
}
}
else
{
m_labelDefinedDevices.TryAdd(definedDevice.StationName, new DeviceStatisticsHelper<ConfigurationCell>(definedDevice));
RegisterStatistics(definedDevice, definedDevice.IDLabel, "Device", "PMU");
devicedAdded = true;
}
}
else
{
// See if key already exists in this collection
if (m_definedDevices.ContainsKey(definedDevice.IDCode))
{
// For devices that do not have unique ID codes, we fall back on its label for unique lookup
if ((object)m_labelDefinedDevices == null)
m_labelDefinedDevices = new ConcurrentDictionary<string, DeviceStatisticsHelper<ConfigurationCell>>(StringComparer.OrdinalIgnoreCase);
if (m_labelDefinedDevices.ContainsKey(definedDevice.StationName))
{
OnProcessException(MessageLevel.Error, new InvalidOperationException($"Device ID \"{definedDevice.IDCode}\", labeled \"{definedDevice.StationName}\", was not unique in the {Name} input stream. Data from devices that are not distinctly defined by ID code or label will not be correctly parsed until uniquely identified."), flags: MessageFlags.UsageIssue);
}
else
{
m_labelDefinedDevices.TryAdd(definedDevice.StationName, new DeviceStatisticsHelper<ConfigurationCell>(definedDevice));
RegisterStatistics(definedDevice, definedDevice.IDLabel, "Device", "PMU");
devicedAdded = true;
}
}
else
{
m_definedDevices.TryAdd(definedDevice.IDCode, new DeviceStatisticsHelper<ConfigurationCell>(definedDevice));
RegisterStatistics(definedDevice, definedDevice.IDLabel, "Device", "PMU");
devicedAdded = true;
}
}
if (devicedAdded)
{
// Create status display string for expected device
deviceStatus.Append(" Device ");
deviceStatus.Append((index++).ToString("00"));
deviceStatus.Append(": ");
deviceStatus.Append(definedDevice.StationName);
deviceStatus.Append(" (");
deviceStatus.Append(definedDevice.IDCode);
deviceStatus.Append(')');
deviceStatus.AppendLine();
}
}
OnStatusMessage(MessageLevel.Info, deviceStatus.ToString());
if ((object)m_labelDefinedDevices != null)
{
if (m_forceLabelMapping)
OnStatusMessage(MessageLevel.Info, $"{Name} has {m_labelDefinedDevices.Count:N0} defined input devices that are using the device label for identification since connection has been forced to use label mapping. This is not the optimal configuration.", flags: MessageFlags.UsageIssue);
else
OnStatusMessage(MessageLevel.Info, $"{Name} has {m_labelDefinedDevices.Count:N0} defined input devices that do not have unique ID codes (i.e., the AccessID), as a result system will use the device label for identification. This is not the optimal configuration.", flags: MessageFlags.UsageIssue);
}
}
else
{
// Making a connection to a single device
definedDevice = new ConfigurationCell(m_accessID);
// Used shared mapping name for single device connection if defined - this causes measurement mappings to be associated
// with alternate device by caching signal references associated with shared mapping acronym
if (string.IsNullOrWhiteSpace(SharedMapping))
deviceName = Name.ToNonNullString("[undefined]").Trim();
else
deviceName = SharedMapping;
definedDevice.StationName = deviceName.TruncateRight(definedDevice.MaximumStationNameLength);
definedDevice.IDLabel = deviceName.TruncateRight(definedDevice.IDLabelLength);
definedDevice.Tag = ID;
definedDevice.Source = this;
// When forcing label mapping we always try to use label for unique lookup instead of ID code
if (m_forceLabelMapping)
{
if ((object)m_labelDefinedDevices == null)
m_labelDefinedDevices = new ConcurrentDictionary<string, DeviceStatisticsHelper<ConfigurationCell>>(StringComparer.OrdinalIgnoreCase);
m_labelDefinedDevices.TryAdd(definedDevice.StationName, new DeviceStatisticsHelper<ConfigurationCell>(definedDevice));
RegisterStatistics(definedDevice, definedDevice.IDLabel, "Device", "PMU");
OnStatusMessage(MessageLevel.Info, "Input device is using the device label for identification since connection has been forced to use label mapping. This is not the optimal configuration.");
}
else
{
m_definedDevices.TryAdd(definedDevice.IDCode, new DeviceStatisticsHelper<ConfigurationCell>(definedDevice));
RegisterStatistics(definedDevice, definedDevice.IDLabel, "Device", "PMU");
}
}
}
/// <summary>
/// Creates a new <see cref="DigitalDefinition"/> from specified parameters.
/// </summary>
/// <param name="parent">The <see cref="ConfigurationCell"/> parent of this <see cref="DigitalDefinition"/>.</param>
/// <param name="label">The label of this <see cref="DigitalDefinition"/>.</param>
/// <param name="maskValue">The value of the digital mask made available in configuration frames.</param>
public DigitalDefinition(ConfigurationCell parent, string label, uint maskValue)
: base(parent, label)
{
m_maskValue = maskValue;
}
public void UpdateConfiguration()
{
const int LabelLength = 16;
PhasorType type;
AnalogType analogType;
char phase;
string label, scale;
uint scalingValue;
int order;
// Define a protocol independent configuration frame
m_baseConfigurationFrame = new ConfigurationFrame(m_idCode, DateTime.UtcNow.Ticks, (ushort)base.FramesPerSecond);
// Define configuration cells (i.e., PMU's that will appear in outgoing data stream)
foreach (DataRow deviceRow in DataSource.Tables["OutputStreamDevices"].Select(string.Format("ParentID={0}", ID), "LoadOrder"))
{
try
{
// Get device ID and ID code
int deviceID = int.Parse(deviceRow["ID"].ToString());
ushort idCode = ushort.Parse(deviceRow["IDCode"].ToString());
// If number was never assigned or is invalid, we fall back on unique database record ID
if (idCode == 0)
idCode = unchecked((ushort)deviceID);
// Create a new configuration cell
ConfigurationCell cell = new ConfigurationCell(m_baseConfigurationFrame, idCode);
// Assign user selected data and coordinate formats, derived classes can change
string formatString;
formatString = deviceRow["PhasorDataFormat"].ToNonNullString(m_dataFormat.ToString());
cell.PhasorDataFormat = (DataFormat)Enum.Parse(typeof(DataFormat), string.IsNullOrEmpty(formatString) ? m_dataFormat.ToString() : formatString, true);
formatString = deviceRow["FrequencyDataFormat"].ToNonNullString(m_dataFormat.ToString());
cell.FrequencyDataFormat = (DataFormat)Enum.Parse(typeof(DataFormat), string.IsNullOrEmpty(formatString) ? m_dataFormat.ToString() : formatString, true);
formatString = deviceRow["AnalogDataFormat"].ToNonNullString(m_dataFormat.ToString());
cell.AnalogDataFormat = (DataFormat)Enum.Parse(typeof(DataFormat), string.IsNullOrEmpty(formatString) ? m_dataFormat.ToString() : formatString, true);
formatString = deviceRow["CoordinateFormat"].ToNonNullString(m_coordinateFormat.ToString());
cell.PhasorCoordinateFormat = (CoordinateFormat)Enum.Parse(typeof(CoordinateFormat), string.IsNullOrEmpty(formatString) ? m_coordinateFormat.ToString() : formatString, true);
// Assign device identification labels
cell.IDLabel = deviceRow["Name"].ToString().TruncateRight(cell.IDLabelLength).Trim();
label = deviceRow["Acronym"].ToString().TruncateRight(cell.MaximumStationNameLength).Trim();
// Station name is serialized to configuration frame
cell.StationName = label;
// Define all the phasors configured for this device
foreach (DataRow phasorRow in DataSource.Tables["OutputStreamDevicePhasors"].Select(string.Format("OutputStreamDeviceID={0}", deviceID), "LoadOrder"))
{
order = int.Parse(phasorRow["LoadOrder"].ToNonNullString("0"));
label = phasorRow["Label"].ToNonNullString("Phasor " + order).Trim().TruncateRight(LabelLength);
type = phasorRow["Type"].ToNonNullString("V").Trim().ToUpper().StartsWith("V") ? PhasorType.Voltage : PhasorType.Current;
phase = phasorRow["Phase"].ToNonNullString("+").Trim().ToUpper()[0];
scale = phasorRow["ScalingValue"].ToNonNullString("0");
if (m_replaceWithSpaceChar != Char.MinValue)
label = label.Replace(m_replaceWithSpaceChar, ' ');
// Scale can be defined as a negative value in database, so check both formatting styles
if (!uint.TryParse(scale, out scalingValue))
scalingValue = unchecked((uint)int.Parse(scale));
// Choose stream defined default value if no scaling value was defined
if (scalingValue == 0)
scalingValue = (type == PhasorType.Voltage ? m_voltageScalingValue : m_currentScalingValue);
cell.PhasorDefinitions.Add(new PhasorDefinition(
cell,
GeneratePhasorLabel(label, phase, type),
scalingValue,
type,
null));
}
// Add frequency definition
label = string.Format("{0} Freq", cell.IDLabel.TruncateRight(LabelLength - 5)).Trim();
cell.FrequencyDefinition = new FrequencyDefinition(cell, label);
// Optionally define all the analogs configured for this device
if (DataSource.Tables.Contains("OutputStreamDeviceAnalogs"))
{
foreach (DataRow analogRow in DataSource.Tables["OutputStreamDeviceAnalogs"].Select(string.Format("OutputStreamDeviceID={0}", deviceID), "LoadOrder"))
{
order = int.Parse(analogRow["LoadOrder"].ToNonNullString("0"));
label = analogRow["Label"].ToNonNullString("Analog " + order).Trim().TruncateRight(LabelLength);
analogType = (AnalogType)int.Parse(analogRow["Type"].ToNonNullString("0"));
scale = analogRow["ScalingValue"].ToNonNullString("0");
if (m_replaceWithSpaceChar != Char.MinValue)
label = label.Replace(m_replaceWithSpaceChar, ' ');
// Scale can be defined as a negative value in database, so check both formatting styles
if (!uint.TryParse(scale, out scalingValue))
scalingValue = unchecked((uint)int.Parse(scale));
cell.AnalogDefinitions.Add(new AnalogDefinition(
cell,
label,
scalingValue == 0 ? m_analogScalingValue : scalingValue,
analogType));
}
}
// Optionally define all the digitals configured for this device
if (DataSource.Tables.Contains("OutputStreamDeviceDigitals"))
{
foreach (DataRow digitalRow in DataSource.Tables["OutputStreamDeviceDigitals"].Select(string.Format("OutputStreamDeviceID={0}", deviceID), "LoadOrder"))
{
order = int.Parse(digitalRow["LoadOrder"].ToNonNullString("0"));
scale = digitalRow["MaskValue"].ToNonNullString("0");
// IEEE C37.118 digital labels are defined with all 16-labels (one for each bit) in one large formatted string
label = digitalRow["Label"].ToNonNullString("Digital " + order).Trim().TruncateRight(LabelLength * 16);
if (m_replaceWithSpaceChar != Char.MinValue)
label = label.Replace(m_replaceWithSpaceChar, ' ');
// Mask can be defined as a negative value in database, so check both formatting styles
if (!uint.TryParse(scale, out scalingValue))
scalingValue = unchecked((uint)int.Parse(scale));
cell.DigitalDefinitions.Add(new DigitalDefinition(
cell,
label,
scalingValue == 0 ? m_digitalMaskValue : scalingValue));
}
}
m_baseConfigurationFrame.Cells.Add(cell);
}
catch (Exception ex)
{
OnProcessException(new InvalidOperationException(string.Format("Failed to define output stream device \"{0}\" due to exception: {1}", deviceRow["Acronym"].ToString().Trim(), ex.Message), ex));
}
}
OnStatusMessage("Defined {0} output stream devices...", m_baseConfigurationFrame.Cells.Count);
// Clear any existing signal references
m_signalReferences.Clear();
Dictionary<string, int> signalCellIndexes = new Dictionary<string, int>();
SignalReference signal;
SignalReference[] signals;
MeasurementKey measurementKey;
bool foundQualityFlagsMeasurement = false;
bool isQualityFlagsMeasurement;
// Define measurement to signals cross reference dictionary
foreach (DataRow measurementRow in DataSource.Tables["OutputStreamMeasurements"].Select(string.Format("AdapterID={0}", ID)))
{
isQualityFlagsMeasurement = false;
try
{
// Create a new signal reference
signal = new SignalReference(measurementRow["SignalReference"].ToString());
// See if this is the quality flags designation for this output stream
if (signal.Kind == SignalKind.Quality)
{
if (Name.Equals(signal.Acronym, StringComparison.OrdinalIgnoreCase))
{
if (foundQualityFlagsMeasurement)
throw new Exception("Only one quality flags measurement can be assigned to an output stream - additional quality flags will be ignored.");
foundQualityFlagsMeasurement = true;
isQualityFlagsMeasurement = true;
}
else
{
throw new Exception(string.Format("Unexpected quality flags measurement assignment to \"{0}\". A single quality flags measurement can be assigned to output stream \"{1}\".", signal.Acronym, Name));
}
}
else
{
// Lookup cell index by acronym - doing this work upfront will save a huge amount of work during primary measurement sorting
if (!signalCellIndexes.TryGetValue(signal.Acronym, out signal.CellIndex))
{
// We cache these indices locally to speed up initialization as we'll be
// requesting them for the same devices over and over
signal.CellIndex = m_baseConfigurationFrame.Cells.IndexOfStationName(signal.Acronym);
signalCellIndexes.Add(signal.Acronym, signal.CellIndex);
}
}
// No need to define this measurement for sorting unless it has a destination in the outgoing frame
if (signal.CellIndex > -1 || isQualityFlagsMeasurement)
{
// Get historian field
string historian = measurementRow["Historian"].ToNonNullString();
string pointID = measurementRow["PointID"].ToString();
// Define measurement key
if (!string.IsNullOrEmpty(historian))
{
measurementKey = MeasurementKey.LookUpOrCreate(historian, uint.Parse(pointID));
}
else
{
DataTable activeMeasurements = DataSource.Tables["ActiveMeasurements"];
DataRow[] activeMeasurementRows = new DataRow[0];
object activeMeasurementSignalID = null;
object activeMeasurementID = null;
// OPTIMIZE: This select query will be slow on very large ActiveMeasurement implementations, consider optimization.
if ((object)activeMeasurements != null)
activeMeasurementRows = activeMeasurements.Select(string.Format("ID LIKE '*:{0}'", pointID));
if (activeMeasurementRows.Length == 1)
{
activeMeasurementSignalID = activeMeasurementRows[0]["SignalID"];
activeMeasurementID = activeMeasurementRows[0]["ID"];
}
// If we still can't find the measurement key, now is the time to give up
if ((object)activeMeasurementSignalID == null && (object)activeMeasurementID == null)
throw new Exception(string.Format("Cannot find measurement key for measurement with pointID {0}", pointID));
measurementKey = MeasurementKey.LookUpOrCreate(Guid.Parse(activeMeasurementRows[0]["SignalID"].ToString()), activeMeasurementID.ToString());
}
// It is possible, but not as common, that a single measurement will have multiple destinations
// within an outgoing data stream frame, hence the following
signals = m_signalReferences.GetOrAdd(measurementKey, null as SignalReference[]);
if ((object)signals == null)
{
// Add new signal to new collection
signals = new SignalReference[1];
signals[0] = signal;
}
else
{
// Add a new signal to existing collection
List<SignalReference> signalList = new List<SignalReference>(signals);
signalList.Add(signal);
signals = signalList.ToArray();
}
m_signalReferences[measurementKey] = signals;
}
}
catch (Exception ex)
{
OnProcessException(new InvalidOperationException(string.Format("Failed to associate measurement key to signal reference \"{0}\" due to exception: {1}", measurementRow["SignalReference"].ToNonNullString(), ex.Message), ex));
}
}
// Assign action adapter input measurement keys - this assigns the expected measurements per frame needed
// by the concentration engine for preemptive publication
InputMeasurementKeys = m_signalReferences.Keys.ToArray();
// Allow for spaces in output stream device names if a replacement character has been defined for spaces
if (m_replaceWithSpaceChar != Char.MinValue)
{
foreach (IConfigurationCell cell in m_baseConfigurationFrame.Cells)
{
cell.StationName = cell.StationName.Replace(m_replaceWithSpaceChar, ' ');
}
}
// Create a new protocol specific configuration frame
m_configurationFrame = CreateNewConfigurationFrame(m_baseConfigurationFrame);
// Cache new protocol specific configuration frame
CacheConfigurationFrame(m_configurationFrame, Name);
}
/// <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="scale">The integer scaling value 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, uint scale, PhasorType type, PhasorDefinition voltageReference)
: base(parent, label, scale, 0.0D, type, voltageReference)
{
}
/// <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="scale">The integer scaling value 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>
/// <param name="originalSourceIndex">The original source phasor index, if applicable.</param>
/// <param name="phase">The phase of this <see cref="PhasorDefinition"/>.</param>
public PhasorDefinition(ConfigurationCell parent, string label, uint scale, PhasorType type, PhasorDefinition voltageReference, int originalSourceIndex = -1, char phase = '+')
: base(parent, label, scale, 0.0D, type, voltageReference)
{
OriginalSourceIndex = originalSourceIndex;
Phase = phase;
}
/// <summary>
/// Creates a new <see cref="DigitalDefinition"/> from specified parameters.
/// </summary>
/// <param name="parent">The <see cref="ConfigurationCell"/> parent of this <see cref="DigitalDefinition"/>.</param>
/// <param name="label">The label of this <see cref="DigitalDefinition"/>.</param>
/// <param name="maskValue">The value of the digital mask made available in configuration frames.</param>
public DigitalDefinition(ConfigurationCell parent, string label, uint maskValue)
: base(parent, label)
{
m_maskValue = maskValue;
}
private void CopyDevice(ConfigurationCell sourceDevice)
{
// Create a new configuration cell to hold copied information
ConfigurationCell copiedDevice = new ConfigurationCell(m_configurationFrame, 0);
copiedDevice.IDCode = (ushort)m_configurationFrame.Cells.Count;
copiedDevice.StationName = "Device " + (copiedDevice.IDCode + 1);
// Create equivalent derived phasor definitions
foreach (PhasorDefinition sourcePhasor in sourceDevice.PhasorDefinitions)
{
copiedDevice.PhasorDefinitions.Add(new PhasorDefinition(copiedDevice, sourcePhasor.Label, sourcePhasor.ScalingValue, sourcePhasor.PhasorType, null));
}
// Create equivalent derived frequency definition
IFrequencyDefinition sourceFrequency = sourceDevice.FrequencyDefinition;
if (sourceFrequency != null)
copiedDevice.FrequencyDefinition = new FrequencyDefinition(copiedDevice, sourceFrequency.Label);
// Create equivalent derived analog definitions (assuming analog type = SinglePointOnWave)
foreach (AnalogDefinition sourceAnalog in sourceDevice.AnalogDefinitions)
{
copiedDevice.AnalogDefinitions.Add(new AnalogDefinition(copiedDevice, sourceAnalog.Label, sourceAnalog.ScalingValue, sourceAnalog.AnalogType));
}
// Create equivalent derived digital definitions
foreach (DigitalDefinition sourceDigital in sourceDevice.DigitalDefinitions)
{
copiedDevice.DigitalDefinitions.Add(new DigitalDefinition(copiedDevice, sourceDigital.Label, sourceDigital.MaskValue));
}
// Add new copied cell to the list and select it
m_configurationFrame.Cells.Add(copiedDevice);
listBoxDevices.SelectedIndex = (m_configurationFrame.Cells.Count - 1);
}
private void buttonDeviceAdd_Click(object sender, RoutedEventArgs e)
{
ConfigurationCell device = new ConfigurationCell(m_configurationFrame, 0);
device.IDCode = (ushort)m_configurationFrame.Cells.Count;
device.StationName = "Device " + (device.IDCode + 1);
m_configurationFrame.Cells.Add(device);
listBoxDevices.SelectedIndex = (m_configurationFrame.Cells.Count - 1);
}
/// <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="scale">The integer scaling value 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, uint scale, PhasorType type, PhasorDefinition voltageReference)
: base(parent, label, scale, 0.0D, type, voltageReference)
{
}
