Bytes | 0 .    | 1 . 2 . 3 . 4 . | 5 . 6 . 7 . 8 . | 9 . 10 . |
------+--------+-----------------+-----------------+----------+
Field | Header | Pressure        | Temperature     | Voltage  |

# Example of a successful measurement
'003d94ce4541b7a5120e2a'
  '00'       -> Successful readout
  '3d94ce45' -> 0.073 mH2O
  '41b7a512' -> 22.96 °C
  '0e2a'     -> 3626 mV / 3.626 V

# Example
'80ffffffffffffffff'
  '80'       -> An error occurred.
  'ffffffff' -> Pressure could not be read.
  'ffffffff' -> Temperature could not be read.
  'ffff'     -> Voltage could not be read.

Bytes | 0 .    | 1 . 2 .  | 3 . 4 .     | 5 . 6 . |
------+--------+----------+-------------+---------|
Field | Header | Pressure | Temperature | Voltage |

# Example of a successful measurement
'000211001a0e2a'
  '00'           -> Successful readout
  '0211' -> 529  -> 0.529 mH2O
  '001a' -> 26   -> 26°C (inside Box)
  '0e2a' -> 3626 -> 3626 mV / 3.626 V

/**
 * Parser for Lobaro Pressure Probe via LoRaWAN (hybrid gateway).
 * Usable for Pressure Probe as or with Presure+Temperature Probe.
 * Works with TTN, ChirpStack, or the Lobaro Platform.
 */
function signed(val, bits) {
    // max positive value possible for signed int with bits:
    var mx = Math.pow(2, bits-1);
    if (val < mx) {
vals["error"] = !!(bytes[0]&0x80);
            // pressure in mH2O
            vals["pressure"] = float32_BE(bytes, 1);
            // temperature in Degree Celsius
            vals["temperature"] = float32_BE(bytes, 5);
        } else if (bytes.length==11) {
            vals["error"] = !!(bytes[0]&0x80);
            // is positive value, just returnpressure in mH2O or Bar, depending on probe type
        return val;
    } else {vals["pressure"] = float32_BE(bytes, 1);
        // is negative value, convert// totemperature neg:
in Degree   Celsius
    return val - (2 * mx);
    }
}
function int16vals["temperature"] = float32_BE(bytes, idx5);
 {
    bytes = bytes.slice(idx || 0);
    return signed(bytes[0] << 8 | bytes[1] << 0, 2*8);
}
function uint16_BE(bytes, idx) {vals["voltage"] = uint16_BE(bytes, 9) / 1000;
        }
    }
     
    bytes = bytes.slice(idx || 0);
    return if (port === 64 && bytes.length == 13) { // status packet
        vals["Firmware Identifier"] =  String.fromCharCode(bytes[0]) << 8 | + String.fromCharCode(bytes[1]) << 0;
}
function uint32_BE(bytes, idx) {
+ String.fromCharCode(bytes[2]);
        bytesvals["FirmwareVersion"] = bytes.slice(idx || 0);
    return bytes[0] << 24 | bytes[1] << 16 | bytes[2] << 8 | bytes[3] << 0;
}
function float32FromInt(asInt) {[3] + '.' + bytes[4] + '.' + bytes[5];
        vals["status"] = bytes[6];
    var sign = (asInt & 0x80000000) ? -1 : 1;
    var exponent = ((asInt >> 23) & 0xFF) - 127;
    var significand = (asInt & ~(-1 << 23));
    if (exponent === 128)
     vals["reboot reason"] = bytes[7];
        vals["final words"] = bytes[8];
        vals["voltage"] = uint16_BE(bytes,9)/1000.0
        vals["temperature"] =  int16_BE(bytes,11)/10.0;
    }
    return nullvals;
}
 
function NB_ParseModbusQuery(input){
  vals = {};
  //
 return sign * ((significand) ? Number.NaN : Number.POSITIVE_INFINITY);
    if (exponent === -127) {
   for( var i = 0; i< input.d.batch.length; i++ ){
     if (significandinput.d.batch[i].cmd === 0) return sign * 0.0;"AQMAFgAC"){
      vals["pressure"]  exponent = -126= float32_BE(bytes(atob(input.d.batch[i].rsp)),3);
    }
    significand /=if (1 << 22);input.d.batch[i].cmd == "AQMAJgAC"){
    } else significand vals["temperature"] = (significand | (1 << 23)) / (1 << 23);float32_BE(bytes(atob(input.d.batch[i].rsp)),3);
    }
    return
 sign * significand * Math.pow(2, exponent);
}
function float32_BE(bytes, idx) { return float32FromInt(uint32_BE(bytes, idx)); }
 
/**
 * TTN decoder function.
 */
function Decoder(bytes, port) {// else: keller
    if (input.d.batch[i].cmd == "AQMAAgAC"){
      // convert to mH2O
    var  vals["pressure"] = {}; float32_BE(bytes(atob(input.d.batch[i].rsp)),3)*10.197442889221;
    }
    if ( port input.d.batch[i].cmd == 20 "AQMACAAC"){
      vals["temperature"] = if float32_BE(bytes.length==5) {(atob(input.d.batch[i].rsp)),3);
    }
      // Pressurevbat
 Probe without temperature sensor and Bridges internal Temperature
   if (input.d.batch[i].cmd == "+gQABQAB"){
       vals["errorvBat"] = !!int16_BE(bytes[0]&0x80);(atob(input.d.batch[i].rsp)),3)/1000.0;
    }
  
    // internal temperature
      vals["pressure"] = int16_BE(bytes, 1)/1000;
    if (input.d.batch[i].cmd == "+gQABAAB"){
      vals["temperaturetemperatureInt"] = int16_BE(bytes, (atob(input.d.batch[i].rsp)),3);
    }
    }  else if (bytes.length==7) {
          vals["error"] = !!(bytes[0]&0x80);
          vals["pressure"] = int16_BE(bytes, 1)/1000;}
  
  return vals;
}
   
/**
 * TTN V3 Wrapper
 */
function decodeUplink(input) {
   return {
    data: {
     vals["temperature"] = int16_BE( values: Decoder(input.bytes, 3input.fPort);
    },
    warnings:  vals["voltage"] = uint16_BE(bytes, 5) / 1000;],
    errors: []
  };
}
   
function NB_ParseDeviceQuery(input) {
  for }(var elsekey ifin (bytes.length==9input.d) {
          vals["error"]var v = !!(bytes[0]&0x80)input.d[key];
      switch (key) {
  // pressure in mH2O
     case "temperature":
    vals["pressure"] = float32_BE(bytes, 1);
       v = v // temperature in Degree Celsius
 10.0;
              vals["temperature"] = float32_BE(bytes, 5Device.setProperty("device.temperature", v);
        }   else if (bytes.length==11) { continue;
          vals[case "error"] = !!(bytes[0]&0x80);
          // pressure in mH2O
vbat":
              vals["pressure"]v = float32_BE(bytes, 1) v / 1000.0;
          //  temperature in Degree Celsius
 Device.setProperty("device.voltage", v);
           vals["temperature"] = float32_BE(bytes, 5) continue;
      }
        vals["voltage"] = uint16_BE(bytes, 9) / 1000Device.setProperty("device." + key, v);
  }
  return null;
}
   }
function NB_ParseConfigQuery(input) {
  for (var key in input.d) {
     }Device.setConfig(key, input.d[key]);
    }
    if (port === 64 && bytes.length == 13) { // status packetreturn null;
}
   
function NB_ParseStatusQuery(input) {
    NB_ParseDeviceQuery(input);
    vals["Firmware Identifier"] =  String.fromCharCode(bytes[0]) + String.fromCharCode(bytes[1]) + String.fromCharCode(bytes[2]);
        vals["FirmwareVersion"] = bytes[3] + '.' + bytes[4] + '.' + bytes[5]; 
        vals["status"] = bytes[6]; 
        vals["reboot reason"] = bytes[7]return null;
}
   
/**
 * ChirpStack decoder function.
 */
function Decode(fPort, bytes) {
    // wrap TTN Decoder:
    return Decoder(bytes, fPort);
}
   
/**
 * Lobaro Platform decoder function.
 */
function Parse(input) {
    if (input.i && input.d) {
      // NB-IoT
      var decoded = {};
        vals["final words"]decoded = bytes[8]input.d;
        vals["voltage [V]"] = uint16_BE(bytes,9)/1000.0decoded.address = input.i;
        vals["temperature [°C]"]decoded.fCnt =  int16_BE(bytes,11)/10.0 input.n;
    }  
    return vals;
}
 var 
/**
 * TTN V3 Wrapper
 */
function decodeUplink(input) {
   return {query = input.q || "data";
      
    data: {
 switch (query) {
   values: Decoder(input.bytes, input.fPort)
    },case "config":
    warnings: [],
    errors: []
  };
}return NB_ParseConfigQuery(input);
  
/**
 * ChirpStack decoder function.
 */
function Decode(fPort, bytes) { case "device":
    // wrap TTN Decoder:
    return Decoder(bytes, fPort);
}
  
/**
 * Lobaro Platform decoder function.
 */
function Parse(input) {
NB_ParseDeviceQuery(input);     
        case "modbus":
        var data = bytes(atobreturn NB_ParseModbusQuery(input.data));
    var   port = input.fPort;
case "status":
          return Decoder(data, port);
}