 }
 
 #if defined(ENABLE_DHT)
-void ICACHE_RAM_ATTR printEdgeTiming(class PietteTech_DHT *_d) {
+void ICACHE_RAM_ATTR printEdgeTiming(class PietteTech_DHT * _d) {
   byte n;
 #if defined(DHT_DEBUG_TIMING)
   volatile uint8_t *_e = &_d->_edges[0];

      //  radio.openReadingPipe(1, pipes[0]); -->  5 : door, 65 : roll, 2 : DS18B20
      //  radio.openReadingPipe(2, pipes[2]); --> 15 : ads1115
      //  radio.openReadingPipe(2, pipes[3]); --> 25 : lcd
      //  radio
      byte pipeNo;
      if (radio.available(&pipeNo)) {
        // from attiny 85 data size is 11
        // sensor_data data size = 12
        uint8_t len = radio.getDynamicPayloadSize();
        // avr 8bit, esp 32bit. esp use 4 byte step.
        if ( (len + 1 ) != sizeof(sensor_data) ) {
          radio.read(0, 0);
          return;
        }

        if ( sensor_data.devid == 5 ||  sensor_data.devid == 65) {
          //radio.writeAckPayload(pipeNo, &time_ackpayload, sizeof(time_ackpayload));
        } else if ( sensor_data.devid == 25 ) {
          radio.writeAckPayload(pipeNo, &data_ackpayload, sizeof(data_ackpayload));
        }

        radio.read(&sensor_data, sizeof(sensor_data));

        //if ( sensor_data.devid != 15 ) {
        if ( (pipeNo == 1 || pipeNo == 3 ) && sensor_data.devid != 15 ) {

          String radiopayload = "{\"_salt\":";
          radiopayload += sensor_data._salt;
          radiopayload += ",\"volt\":";
          radiopayload += sensor_data.volt;
          radiopayload += ",\"data1\":";

          if ( sensor_data.data1 == 0 ) {
            radiopayload += 0;
          } else {
            radiopayload += ((float)sensor_data.data1 / 10);
          }

          radiopayload += ",\"data2\":";

          if ( sensor_data.data2 == 0 ) {
            radiopayload += 0;
          } else {
            radiopayload += ((float)sensor_data.data2 / 10);
          }

          radiopayload += ",\"devid\":";
          radiopayload += sensor_data.devid;
          radiopayload += "}";

          if ( (sensor_data.devid > 0) && (sensor_data.devid < 255) ) {
            String newRadiotopic = radiotopic;
            newRadiotopic += "/";
            newRadiotopic += sensor_data.devid;
            unsigned int newRadiotopic_length = newRadiotopic.length();
            char newRadiotopictosend[newRadiotopic_length] ;
            newRadiotopic.toCharArray(newRadiotopictosend, newRadiotopic_length + 1);
            sendmqttMsg(newRadiotopictosend, radiopayload);
          } else {
            sendmqttMsg(radiofault, radiopayload);
          }

          if (DEBUG_PRINT) {
            syslogPayload = pipeNo;
            syslogPayload += " ---> ";
            syslogPayload += sensor_data.devid;
            syslogPayload += " ---> ";
            syslogPayload += data_ackpayload.timestamp;
            syslogPayload += " ---> ";
            syslogPayload += data_ackpayload.data1;
            syslogPayload += " ---> ";
            syslogPayload += data_ackpayload.data2;

            sendUdpSyslog(syslogPayload);
          }
        } else if ( pipeNo == 2 && sensor_data.devid == 15 ) {
          if ( sensor_data.data1 < 0 ) {
            sensor_data.data1 = 0;
          }

          String udppayload = "current,test=current,measureno=";
          udppayload += sensor_data._salt;
          udppayload += " devid=";
          udppayload += sensor_data.devid;
          udppayload += "i,volt=";
          udppayload += sensor_data.volt;
          udppayload += "i,ampere=";
          uint32_t ampere_temp;
          ampere_temp = sensor_data.data1 * ampereunit[sensor_data.data2];
          udppayload += ampere_temp;
          udppayload += " ";
          udppayload += timestamp;
          char buf[3];
          sprintf(buf, "%03d", millisnow);
          udppayload += buf;
          udppayload += "000000";
          sendUdpmsg(udppayload);
        }
      }


}

void loop() {
  if (WiFi.status() == WL_CONNECTED) {
    if (!client.connected()) {
      if (DEBUG_PRINT) {
