using InnovEnergy.Lib.Protocols.Modbus.Reflection.Attributes; namespace InnovEnergy.Lib.Devices.Doepke; public class DoepkeRegisters { [InputRegister(0)] public UInt16 ValidityOfTheMeasurement { get; private set; } // 0 = Invalid (e.g. internal error/overload), 1 = OK [InputRegister(1)] public UInt16 CurrentMeasured1 { get; private set; } // Differential current absolute value [InputRegister(2)] public UInt16 CurrentMeasured2 { get; private set; } // Differential current absolute value [InputRegister(3)] public UInt16 CurrentMeasured3 { get; private set; } // Differential current absolute value [InputRegister(4)] public UInt16 CurrentMeasured4 { get; private set; } // Differential current absolute value [InputRegister(5)] public UInt16 CurrentMeasured5 { get; private set; } // Differential current absolute value [InputRegister(6)] public UInt16 CurrentMeasured6 { get; private set; } // Differential current absolute value [InputRegister(7)] public UInt16 CurrentMeasured7 { get; private set; } // Differential current absolute value [InputRegister(8)] public UInt16 CurrentMeasured8 { get; private set; } // Differential current absolute value [InputRegister(9)] public UInt16 CurrentStatusAlarmsA { get; private set; } // See bit coding* (0 = OK, 1 = Alarm) [InputRegister(10)] public UInt16 CurrentStatusAlarmsB { get; private set; } // See bit coding* (0 = OK, 1 = Alarm) [HoldingRegister(15)] public UInt16 FirmwareVersion { get; set; } // x0.01 => Example: 123 = Version 1.23 [HoldingRegister(16)] public UInt16 AlarmThresholdA1 { get; set; } // absolute value [HoldingRegister(17)] public UInt16 AlarmThresholdA2 { get; set; } // absolute value [HoldingRegister(18)] public UInt16 AlarmThresholdA3 { get; set; } // absolute value [HoldingRegister(19)] public UInt16 AlarmThresholdA4 { get; set; } // absolute value [HoldingRegister(20)] public UInt16 AlarmThresholdA5 { get; set; } // absolute value [HoldingRegister(21)] public UInt16 AlarmThresholdA6 { get; set; } // absolute value [HoldingRegister(22)] public UInt16 AlarmThresholdA7 { get; set; } // absolute value [HoldingRegister(23)] public UInt16 AlarmThresholdA8 { get; set; } // absolute value [HoldingRegister(24)] public UInt16 ActivationOfAlarmsA { get; set; } // See bit coding* (0=Inactive, 1=Active) [HoldingRegister(25)] public UInt16 AlarmThresholdB1 { get; set; } // absolute value [HoldingRegister(26)] public UInt16 AlarmThresholdB2 { get; set; } // absolute value [HoldingRegister(27)] public UInt16 AlarmThresholdB3 { get; set; } // absolute value [HoldingRegister(28)] public UInt16 AlarmThresholdB4 { get; set; } // absolute value [HoldingRegister(29)] public UInt16 AlarmThresholdB5 { get; set; } // absolute value [HoldingRegister(30)] public UInt16 AlarmThresholdB6 { get; set; } // absolute value [HoldingRegister(31)] public UInt16 AlarmThresholdB7 { get; set; } // absolute value [HoldingRegister(32)] public UInt16 AlarmThresholdB8 { get; set; } // absolute value [HoldingRegister(33)] public UInt16 ActivationOfAlarmsB { get; set; } // See bit coding* (0=Inactive, 1=Active) [HoldingRegister(34)] public UInt16 AlarmDelay { get; set; } // 0 = No delay, 1= 500ms, 2= 1000ms, [HoldingRegister(35)] public UInt16 SaveCurrentSettings { get; set; } // 0 = Successful, 1= Save, 2= Error [HoldingRegister(36)] public UInt16 DeviceTest { get; set; } // 0 = Successful, 1= Test active, 2= Error //*Bit coding alarm status/activation // Bit7 Bit6 Bit5 Bit4 Bit3 Bit2 Bit1 Bit0 // DC Ac In total 50 Hz < 100 Hz 150 Hz 100 Hz - 1kHz > 1 kHz > 10 kHz }