Termostato de Arduino con i2c x DS18b20 2 pantalla de 4 x 16, 2 RGB LED y 3 relé (4 / 4 paso)

Paso 4: El código

IMÁGENES
int bluePin1 = 10;                        Digital Pin für Blaue LED1 en RGB-LED
int greenPin1 = 11;                       Digital Pin für Grüne LED1 en RGB-LED
int redPin1 = 12;                         Digital Pin für LED1 Rote en RGB-LED

int redIn1 = 0;
int greenIn1 = 1;
int blueIn1 = 2;

int redVal1;
int greenVal1;
int blueVal1;

int bluePin2 = 4;                        Digital Pin für Blaue LED2 en RGB-LED
int greenPin2 = 5;                       Digital Pin für Grüne LED2 en RGB-LED
int redPin2 = 6;                         Digital Pin für LED2 Rote en RGB-LED

int redIn2 = 3;
int greenIn2 = 4;
int blueIn2 = 5;

int redVal2;
int greenVal2;
int blueVal2;

Relés de
int relPin1 = 2;                        Für Pin digital relé 1
int relPin2 = 3;                        Für Pin digital relé 2
int relPin3 = 8;                        Digital Pin für Relay3

int relPin1In = 3;
int relPin2In = 4;
int relPin3In = 5;

int relPin1Val;
int relPin2Val;
int relPin3Val;

Estado de Heizungs
int heiz1Val;
int heiz2Val;
#define BACKLIGHT_PIN 13
#define ONE_WIRE_BUS 7
Lcd(0x20,20,4) de LiquidCrystal_I2C;  configurar la dirección de LCD a 0 x 20 para 20 caractéres y pantalla de 4 líneas
OneWire oneWire(ONE_WIRE_BUS);
DallasTemperature sensors (& oneWire);

void setup() {}
Serial.Begin(9600);
Sensors.Begin();
LCD.init();                      inicializar el lcd
LCD.Backlight();
pinMode (relPin1, salida);      Modo de salida de relé 1
pinMode (relPin2, salida);      Modo de salida de relé 2
pinMode (relPin3, salida);      Modo de salida para Relay3
}

void loop() {}
sensors.requestTemperatures();
flotador temperature1 = sensors.getTempCByIndex(0);
lcd.setCursor (0, 0);
LCD.Print ("acuario:");
LCD.Print(Sensors.getTempCByIndex(0));
LCD.Print("C");

flotador temperature2 = sensors.getTempCByIndex(1);
lcd.setCursor (0, 2);
LCD.Print ("Becken:");
LCD.Print(Sensors.getTempCByIndex(1));
LCD.Print("C");

Je nach Temperatur Farbe der RGB-LED anpassen und 1 Rel schalten
Si (temperature1 < = 27)
{
redVal1 = 0;
greenVal1 = 0;
blueVal1 = 150;
relPin1Val = bajo;
relPin3Val = bajo;
lcd.setCursor (0, 1);
LCD.Print ("Heizung ist: Ein");
}
else if (temperature1 > 27 & & temperature1 < 29)
{
redVal1 = 0;
greenVal1 = 150;
blueVal1 = 0;
relPin1Val = alto;
relPin3Val = bajo;
lcd.setCursor (0, 1);
LCD.Print ("Heizung ist: Aus");
}
else if (temperature1 > 29)
{
redVal1 = 150;
greenVal1 = 0;
blueVal1 = 0;
relPin1Val = alto;
relPin3Val = alto;
lcd.setCursor (0, 1);
LCD.Print ("Lueftung ist: Ein");
}

Je nach Temperatur Farbe der RGB-LED anpassen und 2 Rel schalten
Si (temperature2 < = 27)
{
redVal2 = 0;
greenVal2 = 0;
blueVal2 = 255;
relPin2Val = bajo;
lcd.setCursor (0, 3);
LCD.Print ("Heizung ist: Ein");
}
else if (temperature2 > 27 & & temperature2 < 29)
{
redVal2 = 0;
greenVal2 = 255;
blueVal2 = 0;
relPin2Val = alto;
lcd.setCursor (0, 3);
LCD.Print ("Heizung ist: Aus");
}
else if (temperature2 > 29)
{
redVal2 = 255;
greenVal2 = 0;
blueVal2 = 0;
relPin2Val = alto;
lcd.setCursor (0, 3);
LCD.Print ("Lueftung ist: Ein");
}
{
analogWrite (redPin1, redVal1);
analogWrite (greenPin1, greenVal1);
analogWrite (bluePin1, blueVal1);
analogWrite (redPin2, redVal2);
analogWrite (greenPin2, greenVal2);
analogWrite (bluePin2, blueVal2);
digitalWrite (relPin1, relPin1Val);
digitalWrite (relPin2, relPin2Val);
digitalWrite (relPin3, relPin3Val);
}
}