Alexa und Sinric pro

Die Quellcodes zu den Beispielen aus der Youtube Serie findet ihr hier.
Die verwendete Hardware ist ein Wemos D1 Mini, welcher in einem Lichterbogen eingebaut ist.

Pin D1 = LEDs Lichterbogen
Pin D4 = interne blaue Led
Pin D5 = Taster (Input Pullup Konfiguration erforderlich)
Pin A0 = Potentiometer

2 Relais (Digital-Ausgänge) schalten:

/* * Example for how to use SinricPro Switch device: * - setup a switch device * - handle request using callback (turn on/off builtin led indicating device power state) * - send event to sinricPro server (flash button is used to turn on/off device manually) * * If you encounter any issues: * - check the readme.md at https://github.com/sinricpro/esp8266-esp32-sdk/blob/master/README.md * - ensure all dependent libraries are installed * - see https://github.com/sinricpro/esp8266-esp32-sdk/blob/master/README.md#arduinoide * - see https://github.com/sinricpro/esp8266-esp32-sdk/blob/master/README.md#dependencies * - open serial monitor and check whats happening * - check full user documentation at https://sinricpro.github.io/esp8266-esp32-sdk * - visit https://github.com/sinricpro/esp8266-esp32-sdk/issues and check for existing issues or open a new one** erweitert von Daniel -> 06.01.2021 */
#define WIFI_SSID "xxx" #define WIFI_PASS "xxxx"#define APP_KEY "xxxxx" // Should look like "de0bxxxx-1x3x-4x3x-ax2x-5dabxxxxxxxx"#define APP_SECRET "xxxxx" // Should look like "5f36xxxx-x3x7-4x3x-xexe-e86724a9xxxx-4c4axxxx-3x3x-x5xe-x9x3-333d65xxxxxx"
// Uncomment the following line to enable serial debug output//#define ENABLE_DEBUG
#ifdef ENABLE_DEBUG #define DEBUG_ESP_PORT Serial #define NODEBUG_WEBSOCKETS #define NDEBUG#endif
#include <Arduino.h>#ifdef ESP8266 #include <ESP8266WiFi.h>#endif #ifdef ESP32 #include <WiFi.h>#endif
#include "SinricPro.h"#include "SinricProSwitch.h"

#define SWITCH_ID "xxxx" // Should look like "5dc1564130xxxxxxxxxxxxxx"#define SWITCH_ID1 "xxxx" // Should look like "5dc1564130xxxxxxxxxxxxxx"#define BAUD_RATE 115200 // Change baudrate to your need
#define BUTTON_PIN D5 // GPIO for BUTTON (inverted: LOW = pressed, HIGH = released)#define LED_PIN D4 // GPIO for LED (inverted)#define LED_PIN1 D1
bool myPowerState = false;unsigned long lastBtnPress = 0;
/* bool onPowerState(String deviceId, bool &state) * * Callback for setPowerState request * parameters * String deviceId (r) * contains deviceId (useful if this callback used by multiple devices) * bool &state (r/w) * contains the requested state (true:on / false:off) * must return the new state * * return * true if request should be marked as handled correctly / false if not */bool onPowerState(const String &deviceId, bool &state) { Serial.printf("Device %s turned %s (via SinricPro) \r\n", deviceId.c_str(), state?"on":"off"); myPowerState = state; digitalWrite(LED_PIN, myPowerState?LOW:HIGH); return true; // request handled properly}
bool onPowerState1(const String &deviceId, bool &state) { Serial.printf("Device %s turned %s (via SinricPro) \r\n", deviceId.c_str(), state?"on":"off"); myPowerState = state; digitalWrite(LED_PIN1, myPowerState?HIGH:LOW); return true; // request handled properly}
void handleButtonPress() { unsigned long actualMillis = millis(); // get actual millis() and keep it in variable actualMillis if (digitalRead(BUTTON_PIN) == LOW && actualMillis - lastBtnPress > 1000) { // is button pressed (inverted logic! button pressed = LOW) and debounced? if (myPowerState) { // flip myPowerState: if it was true, set it to false, vice versa myPowerState = false; } else { myPowerState = true; } digitalWrite(LED_PIN, myPowerState?LOW:HIGH); // if myPowerState indicates device turned on: turn on led (builtin led uses inverted logic: LOW = LED ON / HIGH = LED OFF)
// get Switch device back SinricProSwitch& mySwitch = SinricPro[SWITCH_ID]; // send powerstate event mySwitch.sendPowerStateEvent(myPowerState); // send the new powerState to SinricPro server Serial.printf("Device %s turned %s (manually via flashbutton)\r\n", mySwitch.getDeviceId().toString().c_str(), myPowerState?"on":"off");
lastBtnPress = actualMillis; // update last button press variable } }
// setup function for WiFi connectionvoid setupWiFi() { Serial.printf("\r\n[Wifi]: Connecting"); WiFi.begin(WIFI_SSID, WIFI_PASS);
while (WiFi.status() != WL_CONNECTED) { Serial.printf("."); delay(250); } Serial.printf("connected!\r\n[WiFi]: IP-Address is %s\r\n", WiFi.localIP().toString().c_str());}
// setup function for SinricProvoid setupSinricPro() { // add device to SinricPro SinricProSwitch& mySwitch = SinricPro[SWITCH_ID];
// set callback function to device mySwitch.onPowerState(onPowerState);
// add device to SinricPro SinricProSwitch& mySwitch1 = SinricPro[SWITCH_ID1];
// set callback function to device mySwitch1.onPowerState(onPowerState1);
// setup SinricPro SinricPro.onConnected([](){ Serial.printf("Connected to SinricPro\r\n"); }); SinricPro.onDisconnected([](){ Serial.printf("Disconnected from SinricPro\r\n"); }); SinricPro.begin(APP_KEY, APP_SECRET);}
// main setup functionvoid setup() { pinMode(BUTTON_PIN, INPUT_PULLUP); // GPIO 0 as input, pulled high pinMode(LED_PIN, OUTPUT); // define LED GPIO as output digitalWrite(LED_PIN, HIGH); // turn off LED on bootup
pinMode(LED_PIN1, OUTPUT); // define LED GPIO as output
Serial.begin(BAUD_RATE); Serial.printf("\r\n\r\n"); setupWiFi(); setupSinricPro();}
void loop() { handleButtonPress(); SinricPro.handle();}

Google Sites

Report abuse