/// <summary>
/// Synchronise the DeviceZone information in the OPC UA information model with the current state of a
/// Temperature Control Device simulator. For read-write fields the synchronisation is bidirectional: if the
/// simulator indicates that the value has changed, then the OPC UA information model is updated; otherwise
/// if the value in the information model is different from that in the simulator, then the simulator is
/// upated with the new value. Read-only fields are updated from the simulator if the value has changed.
/// </summary>
/// <param name="simulator">The simulator to sync with.</param>
public void SyncWith(TCDSimulator simulator)
{
// Update Temperature.ActualValue.
double actualTemp = simulator.GetActualTemp_C();
if (!(m_temperature.ActualValue.Value is double) || (double)m_temperature.ActualValue.Value != actualTemp)
{
m_temperature.ActualValue.Value = actualTemp;
if (m_temperature.ActualValue.EngineeringUnits == null)
{
m_temperature.ActualValue.EngineeringUnits = new PropertyState <EUInformation>(m_temperature.ActualValue);
}
m_temperature.ActualValue.EngineeringUnits.Value = new EUInformation("C", "Degrees Centigrade", @"http://www.opcfoundation.org/UA/units/un/cefact");
m_temperature.ActualValue.UpdateChangeMasks(NodeStateChangeMasks.Value);
}
// Synchronise Temperature.SetValue.
double setpoint = simulator.GetSetpoint_C();
if (simulator.HasSetpointChanged())
{
m_temperature.SetValue.Value = setpoint;
m_temperature.SetValue.UpdateChangeMasks(NodeStateChangeMasks.Value);
}
else if (m_temperature.SetValue.Value is double && (double)m_temperature.SetValue.Value != setpoint)
{
simulator.SetSetpoint((double)m_temperature.SetValue.Value, true);
}
// Synchronise Temperature.SetRampUp.
double rampUp = simulator.GetRampUp_CpMin();
if (simulator.HasRampUpChanged())
{
m_temperature.SetRampUp.Value = rampUp;
m_temperature.SetRampUp.UpdateChangeMasks(NodeStateChangeMasks.Value);
}
else if (m_temperature.SetRampUp.Value is double && (double)m_temperature.SetRampUp.Value != rampUp)
{
simulator.SetRampUp((double)m_temperature.SetRampUp.Value, true);
}
// Synchronise Temperature.SetRampDown.
double rampDown = simulator.GetRampDown_CpMin();
if (simulator.HasRampDownChanged())
{
m_temperature.SetRampDown.Value = rampDown;
m_temperature.SetRampDown.UpdateChangeMasks(NodeStateChangeMasks.Value);
}
else if (m_temperature.SetRampDown.Value is double && (double)m_temperature.SetRampDown.Value != rampDown)
{
simulator.SetRampDown((double)m_temperature.SetRampDown.Value, true);
}
// Synchronise Temperature.LowerTolerance.
double lowerTolerance = simulator.GetLowerTolerance_C();
if (simulator.HasLowerToleranceChanged())
{
m_temperature.LowerTolerance.Value = lowerTolerance;
m_temperature.LowerTolerance.UpdateChangeMasks(NodeStateChangeMasks.Value);
}
else if (m_temperature.LowerTolerance.Value is double && (double)m_temperature.LowerTolerance.Value != lowerTolerance)
{
simulator.SetLowerTolerance((double)m_temperature.LowerTolerance.Value, true);
}
// Synchroise Temperature.UpperTolerance.
double upperTolerance = simulator.GetUpperTolerance_C();
if (simulator.HasUpperToleranceChanged())
{
m_temperature.UpperTolerance.Value = upperTolerance;
m_temperature.UpperTolerance.UpdateChangeMasks(NodeStateChangeMasks.Value);
}
else if (m_temperature.UpperTolerance.Value is double && (double)m_temperature.UpperTolerance.Value != upperTolerance)
{
simulator.SetUpperTolerance((double)m_temperature.UpperTolerance.Value, true);
}
// Synchronise Temperature.MinValue.
double minValue = simulator.GetMinValue_C();
if (simulator.HasMinValueChanged())
{
m_temperature.MinValue.Value = minValue;
m_temperature.MinValue.UpdateChangeMasks(NodeStateChangeMasks.Value);
}
else if (m_temperature.MinValue.Value is double && (double)m_temperature.MinValue.Value != minValue)
{
simulator.SetMinValue((double)m_temperature.MinValue.Value, true);
}
// Synchronise Temperature.MaxValue.
double maxValue = simulator.GetMaxValue_C();
if (simulator.HasMaxValueChanged())
{
m_temperature.MaxValue.Value = maxValue;
m_temperature.MaxValue.UpdateChangeMasks(NodeStateChangeMasks.Value);
}
else if (m_temperature.MaxValue.Value is double && (double)m_temperature.MaxValue.Value != maxValue)
{
simulator.SetMaxValue((double)m_temperature.MaxValue.Value, true);
}
if (m_maintenanceInformation != null)
{
// Synchronise MaintenanceInformation Cooling.
if (m_maintenanceInformation.Cooling != null)
{
m_maintenanceInformation.Cooling.SyncWith(simulator.CoolingMaintenance);
if (!(m_maintenanceInformation.Cooling.Reset is ResetCoolingMaintenanceMethodState))
{
ResetCoolingMaintenanceMethodState method = new ResetCoolingMaintenanceMethodState(m_maintenanceInformation.Cooling.Reset);
method.setSimulator(simulator);
m_maintenanceInformation.Cooling.Reset = method;
}
}
// Synchronise MaintenanceInformation Heating.
if (m_maintenanceInformation.Heating != null)
{
m_maintenanceInformation.Heating.SyncWith(simulator.HeatingMaintenance);
if (!(m_maintenanceInformation.Heating.Reset is ResetHeatingMethodState))
{
ResetHeatingMethodState method = new ResetHeatingMethodState(m_maintenanceInformation.Heating.Reset);
method.setSimulator(simulator);
m_maintenanceInformation.Heating.Reset = method;
}
}
}
}