protected override double convertValue(string sHexVal, int index)
{
return((index == 0) ? RQVoltage.convertToMainVoltage(sHexVal) : RQVoltage.convertToInternalVoltage(sHexVal));
}
private void interpretMonitoringString(string monStr, long timestamp)
{
// Tracer.Trace("MON: " + monStr);
int j = 0;
for (int i = 1; i < monStr.Length && j < monitorStringValueNames.GetLength(0); i += 2)
{
string sHexVal = monStr.Substring(i, 2);
string valueName = monitorStringValueNames[j];
RQMeasuredValue measuredValue = new RQMeasuredValue();
bool mustAdd = false;
if (m_measuredValues.ContainsKey(valueName))
{
measuredValue = (RQMeasuredValue)m_measuredValues[valueName];
}
else
{
measuredValue = new RQMeasuredValue();
mustAdd = true;
}
lock (measuredValue)
{
measuredValue.timestamp = timestamp;
measuredValue.valueName = valueName;
measuredValue.stringValue = sHexVal;
measuredValue.intValue = Int32.Parse(sHexVal, NumberStyles.HexNumber);
switch (monitorStringValueConverters[j])
{
default:
measuredValue.doubleValue = (double)measuredValue.intValue;
break;
case 1:
measuredValue.doubleValue = RQVoltage.convertToMainVoltage(sHexVal);
break;
case 2:
measuredValue.doubleValue = RQVoltage.convertToInternalVoltage(sHexVal);
break;
case 3:
measuredValue.doubleValue = RQTemperature.convertToCelcius(sHexVal);
break;
case 4:
measuredValue.intValue = RQCompressedHex.convertToInt(sHexVal);
measuredValue.doubleValue = (double)measuredValue.intValue;
break;
}
}
if (mustAdd)
{
m_measuredValues.Add(valueName, measuredValue);
}
// Tracer.Trace(valueName + "=" + sHexVal + "=" + measuredValue.doubleValue);
j++;
}
}