switch to sending temp/humidity every cb

This commit is contained in:
Travis Shears 2025-12-21 18:37:05 +01:00
parent 3f54203246
commit af4b86b966
Signed by: travisshears
GPG key ID: CB9BF1910F3F7469
2 changed files with 58 additions and 83 deletions

View file

@ -1,6 +1,7 @@
package main package main
import ( import (
"io"
"log/slog" "log/slog"
"net" "net"
"os" "os"
@ -49,7 +50,11 @@ func handleConnection(conn *net.TCPConn) {
//Read up to 1024 bytes //Read up to 1024 bytes
n, err := conn.Read(buffer) n, err := conn.Read(buffer)
if err != nil { if err != nil {
slog.Error("Error reading from connection", "error", err) if err == io.EOF {
slog.Info("Connection closed by client", "remote_addr", conn.RemoteAddr().String())
} else {
slog.Error("Error reading from connection", "error", err)
}
return return
} }
if n == 0 { if n == 0 {

134
node1.c
View file

@ -34,16 +34,14 @@
* Sensors: BME280, PMS5003 * Sensors: BME280, PMS5003
*/ */
// COMMS LED
absolute_time_t comms_led_off_time;
int16_t comms_led_blink_count = 0;
bool comms_led_state = false;
void comms_led_init() { void comms_led_init() {
gpio_init(16); gpio_init(16);
gpio_set_dir(16, GPIO_OUT); gpio_set_dir(16, GPIO_OUT);
} }
absolute_time_t comms_led_off_time;
int16_t comms_led_blink_count = 0;
bool comms_led_state = false;
void comms_led_blink() { void comms_led_blink() {
printf("COMMS LED BLINK COUNT: %d\n", comms_led_blink_count); printf("COMMS LED BLINK COUNT: %d\n", comms_led_blink_count);
comms_led_blink_count++; comms_led_blink_count++;
@ -51,7 +49,6 @@ void comms_led_blink() {
comms_led_off_time = make_timeout_time_ms(1000); comms_led_off_time = make_timeout_time_ms(1000);
gpio_put(16, comms_led_state); gpio_put(16, comms_led_state);
} }
void comms_led_update() { void comms_led_update() {
if (time_reached(comms_led_off_time)) { if (time_reached(comms_led_off_time)) {
comms_led_state = false; comms_led_state = false;
@ -70,32 +67,14 @@ static bool cb_24h(__unused struct repeating_timer *t) {
static tcp_client_config tcp_config; static tcp_client_config tcp_config;
static bool wifi_connected = false; static bool wifi_connected = false;
static pms5003_config pms_config; // static pms5003_config pms_config;
static pms5003_reading current_pms5003_reading; // static pms5003_reading current_pms5003_reading;
static int8_t readings_index = 0;
static bme280_config bem_config; static bme280_config bem_config;
static bme280_reading current_bem280_reading; static bme280_reading current_bem280_reading;
static bme280_reading bem280_readings[10];
static int8_t readings_index = 0;
static bme280_reading calculate_average_bme280_reading() { // Initialize WiFi connection
float tempSum = 0;
float pressureSum = 0;
float humiditySum = 0;
for (int i = 0; i < 10; i++) {
tempSum += bem280_readings[i].temperature;
pressureSum += bem280_readings[i].pressure;
humiditySum += bem280_readings[i].humidity;
}
bme280_reading average_reading = {.temperature = tempSum / 10,
.pressure = pressureSum / 10,
.humidity = humiditySum / 10};
return average_reading;
}
/**
* Initialize WiFi connection
*/
bool wifi_init(void) { bool wifi_init(void) {
if (cyw43_arch_init()) { if (cyw43_arch_init()) {
printf("Failed to initialize CYW43\n"); printf("Failed to initialize CYW43\n");
@ -121,70 +100,61 @@ bool wifi_init(void) {
static bool cb_30(__unused struct repeating_timer *t) { static bool cb_30(__unused struct repeating_timer *t) {
comms_led_blink(); comms_led_blink();
printf("cb_30: %d\n", readings_index); printf("cb_30: %d\n", readings_index);
if (readings_index >= 10) { // if (readings_index >= 10) {
printf("Preparing data to send\n"); // printf("Preparing data to send\n");
readings_index = 0; // readings_index = 0;
// Calculate average BME280 reading // Calculate average BME280 reading
current_bem280_reading = calculate_average_bme280_reading(); // printf("Tempature: %.2f\n", current_bem280_reading.temperature);
printf("Tempature: %.2f\n", current_bem280_reading.temperature); // printf("Pressure: %.2f\n", current_bem280_reading.pressure);
printf("Pressure: %.2f\n", current_bem280_reading.pressure); // printf("Humidity: %.2f\n", current_bem280_reading.humidity);
printf("Humidity: %.2f\n", current_bem280_reading.humidity);
printf("PM1: %.2f\n", current_pms5003_reading.pm1); // printf("PM1: %.2f\n", current_pms5003_reading.pm1);
printf("PM2.5: %.2f\n", current_pms5003_reading.pm2_5); // printf("PM2.5: %.2f\n", current_pms5003_reading.pm2_5);
printf("PM10: %.2f\n", current_pms5003_reading.pm10); // printf("PM10: %.2f\n", current_pms5003_reading.pm10);
// Send to backend server if WiFi is connected // Send to backend server if WiFi is connected
if (wifi_connected) {
char msg[256];
snprintf(msg, sizeof(msg),
"{\"temperature\":%.2f,\"pressure\":%.2f,\"humidity\":%.2f,"
"\"pm1\":%.2f,\"pm2_5\":%.2f,\"pm10\":%.2f}\n",
current_bem280_reading.temperature,
current_bem280_reading.pressure,
current_bem280_reading.humidity,
current_pms5003_reading.pm1,
current_pms5003_reading.pm2_5,
current_pms5003_reading.pm10);
printf("Sending data to backend server...\n");
bool success = tcp_client_send_message(&tcp_config, msg);
if (success) {
printf("✓ Data sent successfully\n");
comms_led_blink();
} else {
printf("✗ Failed to send data\n");
}
} else {
printf("WiFi not connected, skipping send\n");
}
return true;
}
// Read BME280 // Read BME280
printf("Making BME280 Reading\n"); printf("Making BME280 Reading\n");
current_bem280_reading = bme280_read(&bem_config); current_bem280_reading = bme280_read(&bem_config);
bem280_readings[readings_index] = current_bem280_reading;
if (readings_index == 2) {
printf("Warming up PMSS5003\n"); // if (readings_index == 2) {
pms5003_warmup(&pms_config); // printf("Warming up PMSS5003\n");
// pms5003_warmup(&pms_config);
// }
// if (readings_index == 4) {
// printf("Starting reads on PMSS5003\n");
// pms5003_start_reading(&pms_config);
// }
// if (readings_index == 6) {
// printf("Finished reading PMSS5003\n");
// current_pms5003_reading = pms5003_finish_reading(&pms_config);
// }
// readings_index++;
if (wifi_connected) {
char msg[256];
snprintf(msg, sizeof(msg),
"M001,%.2f,%.2f%.2f\n",
current_bem280_reading.temperature,
current_bem280_reading.pressure,
current_bem280_reading.humidity);
printf("Sending data to backend server...\n");
bool success = tcp_client_send_message(&tcp_config, msg);
if (success) {
printf("✓ Data sent successfully\n");
comms_led_blink();
} else {
printf("✗ Failed to send data\n");
}
} else {
printf("WiFi not connected, skipping send\n");
} }
if (readings_index == 4) {
printf("Starting reads on PMSS5003\n");
pms5003_start_reading(&pms_config);
}
if (readings_index == 6) {
printf("Finished reading PMSS5003\n");
current_pms5003_reading = pms5003_finish_reading(&pms_config);
}
readings_index++;
return true; return true;
}; };
@ -218,7 +188,7 @@ int main() {
bme280_init(&bem_config, i2c1, 14, 15); bme280_init(&bem_config, i2c1, 14, 15);
// Setup PMS5003 // Setup PMS5003
pms5003_init(&pms_config, uart1, 20, 21, 18, 19); // pms5003_init(&pms_config, uart1, 20, 21, 18, 19);
struct repeating_timer timer_30; struct repeating_timer timer_30;
add_repeating_timer_ms(LOOP_INTERVAL_MS, cb_30, NULL, &timer_30); add_repeating_timer_ms(LOOP_INTERVAL_MS, cb_30, NULL, &timer_30);