[OMK]

Mam czujnik SPS30, BME280 i ESP32 lub ESP8266. Wgrałem gotowy przykład sds30 w załączeniu i chciałbym przesłać dane do ThingSpeak.
Problem tylko w tym że jestem zacieki. Może ktoś pomoże? A może ktoś ma już jakiś gotowy. Próbowałem Smogomierza ale nawet niby dedykowany tzn np 2.7.8 SPS30 nie działa. Jest rozbudowany ale tylko dział z 7003 i pewnie 5003.
Szukałem coś w sieci ale nic nie znalazłem pod taki zestaw. Będę wdzięczny za pomoc. Pozdrawiam
PS Chętnie zlecę taki projekt.

Kod:

#include <sps30.h>

// Example arduino sketch, based on
// https://github.com/Sensirion/embedded-sps/blob/master/sps30-i2c/sps30_example_usage.c


// uncomment the next line to use the serial plotter
// #define PLOTTER_FORMAT

void setup() {
  int16_t ret;
  uint8_t auto_clean_days = 4;
  uint32_t auto_clean;

  Serial.begin(9600);
  delay(2000);

  sensirion_i2c_init();

  while (sps30_probe() != 0) {
    Serial.print("SPS sensor probing failed\n");
    delay(500);
  }

#ifndef PLOTTER_FORMAT
  Serial.print("SPS sensor probing successful\n");
#endif /* PLOTTER_FORMAT */

  ret = sps30_set_fan_auto_cleaning_interval_days(auto_clean_days);
  if (ret) {
    Serial.print("error setting the auto-clean interval: ");
    Serial.println(ret);
  }

  ret = sps30_start_measurement();
  if (ret < 0) {
    Serial.print("error starting measurement\n");
  }

#ifndef PLOTTER_FORMAT
  Serial.print("measurements started\n");
#endif /* PLOTTER_FORMAT */

#ifdef SPS30_LIMITED_I2C_BUFFER_SIZE
  Serial.print("Your Arduino hardware has a limitation that only\n");
  Serial.print("  allows reading the mass concentrations. For more\n");
  Serial.print("  information, please check\n");
  Serial.print("  https://github.com/Sensirion/arduino-sps#esp8266-partial-legacy-support\n");
  Serial.print("\n");
  delay(2000);
#endif

  delay(1000);
}

void loop() {
  struct sps30_measurement m;
  char serial[SPS30_MAX_SERIAL_LEN];
  uint16_t data_ready;
  int16_t ret;

  do {
    ret = sps30_read_data_ready(&data_ready);
    if (ret < 0) {
      Serial.print("error reading data-ready flag: ");
      Serial.println(ret);
    } else if (!data_ready)
      Serial.print("data not ready, no new measurement available\n");
    else
      break;
    delay(100); /* retry in 100ms */
  } while (1);

  ret = sps30_read_measurement(&m);
  if (ret < 0) {
    Serial.print("error reading measurement\n");
  } else {

#ifndef PLOTTER_FORMAT
    Serial.print("PM  1.0: ");
    Serial.println(m.mc_1p0);
    Serial.print("PM  2.5: ");
    Serial.println(m.mc_2p5);
    Serial.print("PM  4.0: ");
    Serial.println(m.mc_4p0);
    Serial.print("PM 10.0: ");
    Serial.println(m.mc_10p0);

#ifndef SPS30_LIMITED_I2C_BUFFER_SIZE
    Serial.print("NC  0.5: ");
    Serial.println(m.nc_0p5);
    Serial.print("NC  1.0: ");
    Serial.println(m.nc_1p0);
    Serial.print("NC  2.5: ");
    Serial.println(m.nc_2p5);
    Serial.print("NC  4.0: ");
    Serial.println(m.nc_4p0);
    Serial.print("NC 10.0: ");
    Serial.println(m.nc_10p0);

    Serial.print("Typical partical size: ");
    Serial.println(m.typical_particle_size);
#endif

    Serial.println();

#else
    // since all values include particles smaller than X, if we want to create buckets we
    // need to subtract the smaller particle count.
    // This will create buckets (all values in micro meters):
    // - particles        <= 0,5
    // - particles > 0.5, <= 1
    // - particles > 1,  <= 2.5
    // - particles > 2.5, <= 4
    // - particles > 4,  <= 10

    Serial.print(m.nc_0p5);
    Serial.print(" ");
    Serial.print(m.nc_1p0  - m.nc_0p5);
    Serial.print(" ");
    Serial.print(m.nc_2p5  - m.nc_1p0);
    Serial.print(" ");
    Serial.print(m.nc_4p0  - m.nc_2p5);
    Serial.print(" ");
    Serial.print(m.nc_10p0 - m.nc_4p0);
    Serial.println();


#endif /* PLOTTER_FORMAT */

  }

  delay(5000);
}