Revision 6:e23a088bd573, committed 2021-01-27

Comitter:

percu

Date:

Wed Jan 27 23:09:02 2021 +0000

Parent:

5:294a8b1bca28

Commit message:

sw

Changed in this revision

diff -r 294a8b1bca28 -r e23a088bd573 Czujniki.lib
--- /dev/null	Thu Jan 01 00:00:00 1970 +0000
+++ b/Czujniki.lib	Wed Jan 27 23:09:02 2021 +0000
@@ -0,0 +1,1 @@
+https://os.mbed.com/users/percu/code/TMP36/#b28f9b9a8962

diff -r 294a8b1bca28 -r e23a088bd573 TMP36.lib
--- a/TMP36.lib	Fri Nov 11 18:31:11 2016 +0000
+++ /dev/null	Thu Jan 01 00:00:00 1970 +0000
@@ -1,1 +0,0 @@
-http://mbed.org/users/zchen311/code/TMP36/#ab3d7d0c34ce

diff -r 294a8b1bca28 -r e23a088bd573 main.cpp
--- a/main.cpp	Fri Nov 11 18:31:11 2016 +0000
+++ b/main.cpp	Wed Jan 27 23:09:02 2021 +0000
@@ -1,22 +1,18 @@
-/**
-* 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 "ABP.h"
+#include "LM35.h"
 
-// WiFi network info.
-char* ssid = "ssid";
-char* wifiPassword = "wifiPassword";
+// Dane do wifi
+char* ssid = "FunBox2-20F4";
+char* wifiPassword = "3129F7A6C2479CC337E77C5D6A";
 
-// Cayenne authentication info. This should be obtained from the Cayenne Dashboard.
-char* username = "MQTT_USERNAME";
-char* password = "MQTT_PASSWORD";
-char* clientID = "CLIENT_ID";
+// Dane do Cayenne
+char* username = "a9472990-3ff6-11eb-a2e4-b32ea624e442";
+char* password = "9c7d211eff0e1f0da7d90e036eeaafada2ac5339";
+char* clientID = "28d96ff0-3ff8-11eb-8779-7d56e82df461";
 
 SpwfSAInterface interface(D8, D2); // TX, RX
 MQTTNetwork<SpwfSAInterface> network(interface);
@@ -24,10 +20,6 @@
 
 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)  {
@@ -62,44 +54,33 @@
     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);
@@ -112,7 +93,7 @@
     }
     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);
     }
@@ -120,29 +101,27 @@
         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);
+    MQTTTimer timer(1000);
+    LM35 LM35(A1); // Wyłowanie klasy z PINEM A0 odpowiadająca czujnik temperatury LM35 
+ABP ABP(A0); //Wyłowanie klasy z PINEM A0 odpowiadająca czujniki ciśnienia  ABPMANV150PGAA5 HONEYWELL
+double Idealne_cisnienie,bary,ile; // zmienne odpowiadające rózne obliczenia ciśnień 
+int wzorzecP,wzorzecT; // zmienne odpowiadjące za wzrocowe cisnieni i temperature
+wzorzecP=230000;  //Ciśnieni wzorcowe w kole 
+wzorzecT=293;  //Temperatura wzorcowe w kole 
     
     while (true) {
-        // Yield to allow MQTT message processing.
+        Idealne_cisnienie=(((wzorzecP)*(LM35.read()+ 273))/(wzorzecT)); 
+bary=Idealne_cisnienie/100000;
+ile=(bary-ABP.read());
         mqttClient.yield(1000);
-
-        // Check that we are still connected, if not, reconnect.
         if (!network.connected() || !mqttClient.connected()) {
             network.disconnect();
             mqttClient.disconnect();
@@ -153,33 +132,32 @@
             }
         }
 
-        // 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(DATA_TOPIC, 5, TYPE_TEMPERATURE, UNIT_CELSIUS, tmpSensor.read())) != CAYENNE_SUCCESS) {
+            if ((error = mqttClient.publishData(DATA_TOPIC, 5, TYPE_TEMPERATURE, UNIT_CELSIUS, LM35.read())) != CAYENNE_SUCCESS) {
+                printf("Publish temperature failed, error: %d\n", error);
+        
+            }
+                 if ((error = mqttClient.publishData(DATA_TOPIC,2, TYPE_BAROMETRIC_PRESSURE, UNIT_HECTOPASCAL, ABP.read())) != CAYENNE_SUCCESS) 
+                 { 
+                printf("Publish temperature failed, error: %d\n", error);
+                }
+             if ((error = mqttClient.publishData(DATA_TOPIC, 3, TYPE_BAROMETRIC_PRESSURE, UNIT_HECTOPASCAL,ile)) != 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);
-        }
+            }
     }
 }
 
-/**
-* Main function.
-*/
 int main()
 {   
-    // Initialize the network interface.
-    printf("Initializing interface\n");
+    printf("Ladowanie interfejsu \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 {