Page Comparison

function get_user_mode(input) {
  var user_mode = input[9] & 0x7;
  switch (user_mode) {
    case 0:
      return "Valve_Position";
    case 1:
      return "RESERVED";
    case 2:
      return "SP_Ambient_Temperature";
    case 3:
      return "Detecting_Opening_Point";
    case 4:
      return "Slow_Harvesting";
    case 5:
      return "Temperature_Drop";
    case 6:
      return "Freeze_Protect";
    case 7:
      return "Forced_Heating";
    default:
      return "Unknown Operating Mode";
  }
}

function get_user_value(input) {
  var user_mode = get_user_mode(input);
  switch (user_mode) {
    case "Valve_Position":
    case "Freeze_Protect":
    case "Forced_Heating":
      return input[10];
    case "SP_Ambient_Temperature":
      return input[10] * 0.5;
    case "Detecting_Opening_Point":
    case "Slow_Harvesting":
      return input[10] * 0.25;
    default:
      return "Invalid User Mode";
  }
}

function decode_port_1(bytes) {
  var output = {};
  {
    
    output.DEV_EUI = LoRaObject.devEUI;
    output.RSSI = LoRaObject.rxInfo[0].rssi;
    output.SNR = LoRaObject.rxInfo[0].loRaSNR;
    output.Data = LoRaObject.data;
    output.ADR = LoRaObject.txInfo.adr;
    output.coderate = LoRaObject.txInfo.codeRate;
    output.FCnt = LoRaObject.fCnt;
    output.Port = LoRaObject.fPort;
    output.Frequency = LoRaObject.txInfo.frequency;
    output.Modulation = LoRaObject.txInfo.dataRate.modulation;
    output.Bandwidth = LoRaObject.txInfo.dataRate.bandwidth;
    output.SpreadingFactor = LoRaObject.txInfo.dataRate.spreadFactor;

    output.Current_Valve_Position = bytes[0];
    output.Flow_Sensor_Raw = bytes[1] * 0.5;
    output.Flow_Temperature = bytes[2] * 0.5;
    output.Ambient_Sensor_Raw = bytes[3] * 0.25;
    output.Ambient_Temperature = bytes[4] * 0.25;
    output.Energy_Storage = bytes[5] >> 6 & 0x01;
    output.Harvesting_Active = bytes[5] >> 5 & 0x01;
    output.Ambient_Sensor_Failure = bytes[5] >> 4 & 0x01;
    output.Flow_Sensor_Failure = bytes[5] >> 3 & 0x01;
    output.Radio_Communication_Error = bytes[5] >> 2 & 0x01;
    output.Received_Signal_Strength = bytes[5] >> 1 & 0x01;
    output.Motor_Error = bytes[5] >> 0 & 0x01;
    output.Storage_Voltage = Number((bytes[6] * 0.02).toFixed(2));
    output.Average_Current_Consumed = bytes[7] * 10;
    output.Average_Current_Generated = bytes[8] * 10;
    output.Operating_Condition= bytes[9] >> 7 & 0x01,
    output.Storage_Fully_Charged= bytes[9] >> 6 & 0x01,
    output.Zero_Error= bytes[9] >> 5 & 0x01,
    output.Calibration_OK= bytes[9] >> 4 & 0x01,

    output.User_Mode = get_user_mode(bytes);
    output.User_Value = get_user_value(bytes);

    if (bytes.length == 12) {
      utmp = bytes[11] * 0.25;
      output.Used_Temperature = utmp;
  }    
    
  }

  return output;
}

function decode_port_2(bytes) {
  var output = {};
  {
    var REV_Major = (bytes[0] & 0xF).toString();
    var REV_Minor = ((bytes[0] >> 4) & 0xF).toString(16);
    output.REV = REV_Major + "." + REV_Minor;
  }
  {
    var HW_Major = (bytes[1] & 0xF).toString();
    var HW_Minor = ((bytes[1] >> 4) & 0xF).toString();
    output.HW = HW_Major + "." + HW_Minor;
  }
  {
    var FW_Year = bytes[2].toString();
    var FW_Month = bytes[3].toString();
    var FW_Day = bytes[4].toString();
    var FW_Minor = bytes[5].toString();
    output.FW = "20" + FW_Year + "." + FW_Month + "." + FW_Day + "." + FW_Minor;
  }
  return output;
}

function decode_port_3(bytes) {
  var output = {};
  switch (bytes[0]) {
    case 0:
      output.motor_range = 2.56048;
      break;
    case 7:
      output.motor_range = 1.456;
      break;
    case 8:
      output.motor_range = 1.664;
      break;
    case 9:
      output.motor_range = 1.872;
      break;
    case 10:
      output.motor_range = 2.080;
      break;
    case 11:
      output.motor_range = 2.288;
      break;
    case 12:
      output.motor_range = 2.496;
      break;
    default:
      output.motor_range = 0;
      break;
  }
  return output;
}

function Decode(fPort, bytes) {
  var output = {};
  switch (fPort) {
    case 1:
      output = decode_port_1(bytes);
      break;
    case 2:
      output = decode_port_2(bytes);
      break;
    case 3:
      output = decode_port_3(bytes);
      break;
    default:
      return {
        errors: ['unknown FPort'],
      };
  }
  return output;
}

// Possible Optionsparameters:
// userMode          : "Ambient_Temperature" or "Valve_Position"
// setValue          : 0 to 40  (0.5° resolution) for "Ambient_Temperature"
// setValue          : 0 to 100 (1% resolution)   for "Valve_Position"

// safetyMode        : "Ambient_Temperature" or "Valve_Position"
// safetyValue       : 0 to 40  (0.5° resolution) for "Ambient_Temperature"
// safetyValue       : 0 to 100 (1% resolution)   for "Valve_Position"

// roomTemperature   : 0 (Internal Ambient Estimate) or Temperature from External Sensor (0.25° resolution)
// radioInterval     : 5 or 10 or 60 or 120 or 480 (minutes)
// doReferenceRunNow : 0 or 1 (0-False; 1-True)

/*

function Encode(fPort, obj)  {
    var mode = obj.userMode; // "Ambient_Temperature" or "Valve_Position"
    var safetyMode = obj.safetyMode; // IMPORTANT: All of the parameters in obj is NOT required for the encoder to work
Eg. Only the "roomTemperature" parameter can be added and
For the remaining parameters, the defaults will be applied 
*/

var DEFAULT_USER_MODE_BITS = 2 << 2;      // "Ambient Temperature" 
var DEFAULT_SET_VALUE      = 38;          // 19° Ambient Temperature"

var DEFAULT_SAFETY_MODE_BITS = 0 << 0;    // "Ambient Temperature" 
var DEFAULT_SAFETY_MODE_VALUE = 38;       // 19° Ambient Temperature"

var DEFAULT_RADIO_INTERVAL_BITS = 0 << 4;  // 10 minutes
var DEFAULT_ROOM_TEMPERATURE_VALUE = 0;   // Use Internal Ambient Estimate
var DEFAULT_DO_REFERENCE_RUN_NOW_BIT = 0; // 0- No Reference Run

function Encode(fPort, obj)  {
    var mode = obj.userMode; // "Ambient_Temperature" or "Valve_Position"
    var safetyMode = obj.safetyMode; // "Ambient_Temperature" or "Valve_Position"
    var setValue = obj.setValue; // 0-40 for Ambient_Temperature, 0-100 for Valve_Position
    var roomTemperature = obj.roomTemperature; // 0-40
    var safetyValue = obj.safetyValue; // 0-40 for Ambient_Temperature, 0-100 for Valve_Position
    var radioInterval = obj.radioInterval; // 5, 10, 60, 120, 480
    var doReferenceRunNow = obj.doReferenceRunNow; // 0 or 1
  
    var bytes = [0, 0, 0, 0, 0, 0];
  
    // Byte 1: Set value
    if (typeof setValue === "undefined") {
        throw new Error("Invalid setValue");
    }
    else bytes = [0, 0, 0, 0, 0, 0];
  
    // Byte 1: Set value
    if (mode === "Ambient_Temperature") {
        if (setValue < 0 || setValue > 40) {
          throw new Error("Set value out of range for ambient mode");
        }
        else {
          bytes[0] = setValue *2;
        }         
    } else if (mode === "Valve_Position") {
        if (setValue < 0 || setValue > 100) {
          throw new Error("Set value out of range for valve mode");
        } 
        else {
          bytes[0] = setValue;
        }
    } else {
        bytes[0]  }= DEFAULT_SET_VALUE;
    }
  
    // Byte 2: Room temperature (0-40)
    if (roomTemperature < 0 || roomTemperature > 40) {
      throw new Error("Room temperature out of range");
    }
    else if (typeof roomTemperature === "undefined") {
      throw new Error("Invalid roomTemperature")  bytes[1] = DEFAULT_ROOM_TEMPERATURE_VALUE;
    }
    else {
        bytes[1] = roomTemperature * 4;
    }
  
    // Byte 3: Safety value
    if (typeof safetyValue === "undefined") {
 roomTemperature * 4;
    }
  throw
new Error("Invalid safetyValue");  // Byte 3: }Safety value
   else if (safetyMode === "Ambient_Temperature") {
        if (safetyValue < 0 || safetyValue > 40) {
          throw new Error("Safety value out of range for ambient mode");
        } 
        else {
          bytes[2] = safetyValue * 2;
        }
    } else if (safetyMode === "Valve_Position") {
        if (safetyValue < 0 || safetyValue > 100) {
          throw new Error("Safety value out of range for valve mode");
        } 
        else {
          bytes[2] = safetyValue;
        }
    } else {
        bytes[2] = DEFAULT_SAFETY_MODE_VALUE;
    }
  
    // Byte 4: Radio interval, user mode, safety mode
    var radioBits;
    switch (radioInterval) {
        case 5:
            radioBits = 1 << 4; // Radio interval 5 minutes
            break;
        case 10:
            radioBits = 0 << 4; // Radio interval 10 minutes
            break;
        case 60:
            radioBits = 2 << 4; // Radio interval 60 minutes
            break;
        case 120:
            radioBits = 3 << 4; // Radio interval 120 minutes
            break;
        case 480:
            radioBits = 4 << 4; // Radio interval 480 minutes
            break;
        default:
            throwradioBits new Error("Invalid radioInterval")= DEFAULT_RADIO_INTERVAL_BITS;
    }
  
    var userModeBits;
    if (mode === "Ambient_Temperature") {
        userModeBits = 2 << 2; // User mode "Ambient_Temperature" in bits 3 and 4
    } else if (typeof mode === "undefined") {
        throwuserModeBits new Error("Invalid userMode")= DEFAULT_USER_MODE_BITS;
    }
    else if (mode === "Valve_Position") {
        userModeBits = 0 << 2; // User mode "Valve_Position" in bits 3 and 4
    }
  
    var safetyModeBits;
    if (safetyMode === "Ambient_Temperature") {
        safetyModeBits = 0 << 0; // Safety mode "Ambient_Temperature" in bits 1 and 2
    } else if (typeof safetyMode === "undefined") {
        throwsafetyModeBits new Error("Invalid safetyMode")= DEFAULT_SAFETY_MODE_BITS;
    }
    else if (safetyMode === "Valve_Position") {
        safetyModeBits = 2 << 0; // Safety mode "Valve_Position" in bits 1 and 2
    }
  
    bytes[3] = radioBits | userModeBits | safetyModeBits;
  
    // Byte 5: Reserved (set to 0)
    bytes[4] = 0;
  
    // Byte 6: doReferenceRunNow bit (bit 8)
    if (doReferenceRunNow < 0 || doReferenceRunNow > 1) {
      throw new Error("Invalid doReferenceRunNow value");
    }
    else if (typeof doReferenceRunNow === "undefined") {
      bytes[5]  throw new Error("Invalid doReferenceRunNow")= DEFAULT_DO_REFERENCE_RUN_NOW_BIT;
    }
    else {
      bytes[5] = doReferenceRunNow << 7;
    }
  
    return bytes;
  }