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Dependencies: Cayenne-MQTT-mbed mbed X_NUCLEO_IKS01A2 X_NUCLEO_IDW01M1v2 NetworkSocketAPI TMP36
main.cpp
- Committer:
- percu
- Date:
- 2020-12-23
- Revision:
- 7:4265a0d54e46
- Parent:
- 6:8aa852ca98d8
File content as of revision 7:4265a0d54e46:
/**
* Example app for using the Cayenne MQTT mbed library to send data from a TMP36 sensor. This example uses
* the X-NUCLEO-IDW01M1 WiFi expansion board via the X_NUCLEO_IDW01M1v2 library.
*/
#include "MQTTTimer.h"
#include "CayenneMQTTClient.h"
#include "MQTTNetworkIDW01M1.h"
#include "SpwfInterface.h"
#include "TMP36.h"
#include "mbed.h"
#include "XNucleoIKS01A2.h"
// WiFi network info.
char* ssid = "ssid";
char* wifiPassword = "wifiPassword";
// Cayenne authentication info. This should be obtained from the Cayenne Dashboard.
char* username = "MQTT_USERNAME";
char* password = "MQTT_PASSWORD";
char* clientID = "CLIENT_ID";
SpwfSAInterface interface(D8, D2); // TX, RX
MQTTNetwork<SpwfSAInterface> network(interface);
CayenneMQTT::MQTTClient<MQTTNetwork<SpwfSAInterface>, MQTTTimer> mqttClient(network, username, password, clientID);
// płytka dodatkowa
static XNucleoIKS01A2 *mems_expansion_board = XNucleoIKS01A2::instance(D14, D15, D4, D5);
//czujniki
static HTS221Sensor *hum_temp = mems_expansion_board->ht_sensor;
static LPS22HBSensor *press_temp = mems_expansion_board->pt_sensor;
DigitalOut led1(LED1);
/**
* Print the message info.
* @param[in] message The message received from the Cayenne server.
*/
void outputMessage(CayenneMQTT::MessageData& message)
{
switch (message.topic) {
case COMMAND_TOPIC:
printf("topic=Command");
break;
case CONFIG_TOPIC:
printf("topic=Config");
break;
default:
printf("topic=%d", message.topic);
break;
}
printf(" channel=%d", message.channel);
if (message.clientID) {
printf(" clientID=%s", message.clientID);
}
if (message.type) {
printf(" type=%s", message.type);
}
for (size_t i = 0; i < message.valueCount; ++i) {
if (message.getValue(i)) {
printf(" value=%s", message.getValue(i));
}
if (message.getUnit(i)) {
printf(" unit=%s", message.getUnit(i));
}
}
if (message.id) {
printf(" id=%s", message.id);
}
printf("\n");
}
/**
* Handle messages received from the Cayenne server.
* @param[in] message The message received from the Cayenne server.
*/
void messageArrived(CayenneMQTT::MessageData& message)
{
int error = 0;
// Add code to process the message. Here we just ouput the message data.
outputMessage(message);
if (message.topic == COMMAND_TOPIC) {
switch(message.channel) {
case 0:
// Set the onboard LED state
led1 = atoi(message.getValue());
// Publish the updated LED state
if ((error = mqttClient.publishData(DATA_TOPIC, message.channel, NULL, NULL, message.getValue())) != CAYENNE_SUCCESS) {
printf("Publish LED state failure, error: %d\n", error);
}
break;
}
// If this is a command message we publish a response. Here we are just sending a default 'OK' response.
// An error response should be sent if there are issues processing the message.
if ((error = mqttClient.publishResponse(message.id, NULL, message.clientID)) != CAYENNE_SUCCESS) {
printf("Response failure, error: %d\n", error);
}
}
}
/**
* Connect to the Cayenne server.
* @return Returns CAYENNE_SUCCESS if the connection succeeds, or an error code otherwise.
*/
int connectClient(void)
{
int error = 0;
// Connect to the server.
printf("Connecting to %s:%d\n", CAYENNE_DOMAIN, CAYENNE_PORT);
while ((error = network.connect(CAYENNE_DOMAIN, CAYENNE_PORT)) != 0) {
printf("TCP connect failed, error: %d\n", error);
wait(2);
}
if ((error = mqttClient.connect()) != MQTT::SUCCESS) {
printf("MQTT connect failed, error: %d\n", error);
return error;
}
printf("Connected\n");
// Subscribe to required topics.
if ((error = mqttClient.subscribe(COMMAND_TOPIC, CAYENNE_ALL_CHANNELS)) != CAYENNE_SUCCESS) {
printf("Subscription to Command topic failed, error: %d\n", error);
}
if ((error = mqttClient.subscribe(CONFIG_TOPIC, CAYENNE_ALL_CHANNELS)) != CAYENNE_SUCCESS) {
printf("Subscription to Config topic failed, error:%d\n", error);
}
// Send device info. Here we just send some example values for the system info. These should be changed to use actual system data, or removed if not needed.
mqttClient.publishData(SYS_VERSION_TOPIC, CAYENNE_NO_CHANNEL, NULL, NULL, CAYENNE_VERSION);
mqttClient.publishData(SYS_MODEL_TOPIC, CAYENNE_NO_CHANNEL, NULL, NULL, "mbedDevice");
//mqttClient.publishData(SYS_CPU_MODEL_TOPIC, CAYENNE_NO_CHANNEL, NULL, NULL, "CPU Model");
//mqttClient.publishData(SYS_CPU_SPEED_TOPIC, CAYENNE_NO_CHANNEL, NULL, NULL, "1000000000");
return CAYENNE_SUCCESS;
}
/**
* Main loop where MQTT code is run.
*/
void loop(void)
{
// Start the countdown timer for publishing data every 5 seconds. Change the timeout parameter to publish at a different interval.
MQTTTimer timer(5000);
TMP36 tmpSensor(A5);
float stopnie,paskal;
char buffer6[32],buffer7[32];
press_temp->enable();
press_temp->get_pressure(&stopnie);
while (true) {
// Yield to allow MQTT message processing.
mqttClient.yield(1000);
// Check that we are still connected, if not, reconnect.
if (!network.connected() || !mqttClient.connected()) {
network.disconnect();
mqttClient.disconnect();
printf("Reconnecting\n");
while (connectClient() != CAYENNE_SUCCESS) {
wait(2);
printf("Reconnect failed, retrying\n");
}
}
// Publish some example data every few seconds. This should be changed to send your actual data to Cayenne.
if (timer.expired()) {
int error = 0;
if ((error = mqttClient.publishData(stopnie)) != CAYENNE_SUCCESS) {
printf("Publish temperature failed, error: %d\n", error);
}
// Restart the countdown timer for publishing data every 5 seconds. Change the timeout parameter to publish at a different interval.
timer.countdown_ms(5000);
}
}
}
//coś do dziesiątek
static char *print_double(char* str, double v, int decimalDigits=2)
{
int i = 1;
int intPart, fractPart
;int len;
char *ptr;/* prepare decimal digits multiplicator */
for (;decimalDigits!=0; i*=10, decimalDigits--);
/* calculate integer & fractinal parts */
intPart = (int)v;
fractPart= (int)((v-(double)(int)v)*i);/* fill in integer part */
sprintf(str, "%i.", intPart);/* prepare fill in of fractional part */
len = strlen(str);
ptr = &str[len];/* fill in leading fractional zeros */
for (i/=10;i>1; i/=10, ptr++)
{
if (fractPart >= i)
{
break;
}
*ptr = '0';
}/* fill in (rest of) fractional part */
sprintf(ptr, "%i", fractPart);
return str;
}
int main ()
{
uint8_t id;
float value1, value2; // Deklaracja
char buffer1[32], buffer2[32],buffer3[32],buffer4[32],buffer5[32];
hum_temp->enable();
press_temp->enable();
// hum_temp->get_temperature(&value1); hum_temp->get_humidity(&value3); press_temp->get_pressure(&value2);
printf("Start Programu");
hum_temp->read_id(&id);
printf("HTS221 temeperatura=0x%X\r\n",id);
press_temp->read_id(&id);
printf("LPS22HB temeperatura=0x%X\r\n",id);
// z czujników i wyświetlanie/
press_temp->get_pressure(&value1);
printf("Cisnie: %7s hPa\r\n ", print_double(buffer1, value1));
press_temp->get_temperature(&value2);
printf("Temp: %7s C\r\n ", print_double(buffer2, value2));
double x,bary,ile;// Cisnie w kole zadane
int wzorzecP,wzorzecT;
wzorzecP=230000;
wzorzecT=293;
x=(((wzorzecP)*(value2+ 273))/(wzorzecT));
bary=x/100000;
ile=(bary-(value1/1000));
printf("Ile ma byc w kole? %7s B\r\n ", print_double(buffer3,bary));
printf("Ilejest w kole? %7s B\r\n ", print_double(buffer1,value1/1000));
if ((value1/1000)>bary)
{
printf("Upusc %7s B\r\n ", print_double(buffer5,ile ));
}
else if ((value1/1000)<bary)
{
printf("dobij %7s B\r\n ", print_double(buffer5,ile ));
}
printf("Initializing interface\n");
interface.connect(ssid, wifiPassword, NSAPI_SECURITY_WPA2);
// Set the default function that receives Cayenne messages.
mqttClient.setDefaultMessageHandler(messageArrived);
// Connect to Cayenne.
if (connectClient() == CAYENNE_SUCCESS) {
// Run main loop.
loop();
}
else {
printf("Connection failed, exiting\n");
}
if (mqttClient.connected())
mqttClient.disconnect();
if (network.connected())
network.disconnect();
return 0;
}