Une lampe intelligente pour les "riches" avec leurs mains "paresseuses", c'est "simple" et pratique

• 28 kB Flash memory for your sketches
• 2 kB RAM available
• Z-Wave RF transmitter at 9.6/40/100 kbps
• 26 GPIO (overlaps with special hardware controllers)
• 4 ADC
• 5 PWM
• 2 UART
• 1 USB (serial port)
• 16 kB EEPROM
• 1 SPI (master or slave)
• 4 IR controllers, 1 IR learn capability
• 1 TRIAC/ZEROX to control dimmer
• 3 Interrupts
• 1 Timer 4 MHz
• I2C (software)
• 1-Wire (software)
• 8x6 Keypad Scanner (software)
• 2 service LED, 1 service button
• 1 user test LED

• One 0-10 V analog output — control industrial dimmers
• Up to four PWM or switch outputs (up to 5 A per channel) — control contactors, switches, halogen bulbs or LED strips
• Up to eight digital 0/3 V inputs or outputs — connect various low voltage digital senors and actors
• Up to four digital 0/3, 0/5 or 0/12 V digital or analog inputs — connect industrial 10 V sensors or any Arduino-compatible sensor
• RS485 or UART — for industial meters
• OneWire — for DS18B20 or other sensors

ZUNO_SETUP_CHANNELS(
      ZUNO_SWITCH_MULTILEVEL(getRed, setRed),
      ZUNO_SWITCH_MULTILEVEL(getGreen, setGreen),
      ZUNO_SWITCH_MULTILEVEL(getBlue, setBlue),
      ZUNO_SWITCH_BINARY(switch_getter, switch_setter)
);

#include "EEPROM.h"
#include "EEPR.h"

int readPin = 9;
int triggerPin = 10;
byte controlState = 0;
word lastValue;
#define REDPIN   PWM1     // pin connection R 
#define GREENPIN PWM2     // pin connection G
#define BLUEPIN  PWM3     // pin connection B

ZUNO_SETUP_CHANNELS(ZUNO_SWITCH_COLOR(SWITCH_COLOR_FLAGS_RED|SWITCH_COLOR_FLAGS_GREEN|SWITCH_COLOR_FLAGS_BLUE, getterFunction, setterFunction));

#define ON 1
#define OFF 0
uint8_t switch_=OFF;

uint8_t pwmR=0;
uint8_t pwmG=0;
uint8_t pwmB=0;
uint8_t b_pwmR=0;
uint8_t b_pwmG=0;
uint8_t b_pwmB=0;

enum
{
  DEF_R = 255,
  DEF_G = 255,
  DEF_B = 255
};
uint8_t radio_action = 0;

void setup() 
{ 
  init_EEPROM();
  Serial.begin();
  pinMode(readPin, INPUT);
  pinMode(triggerPin, OUTPUT);
  digitalWrite(triggerPin, LOW);
  pinMode(REDPIN, OUTPUT);
  pinMode(GREENPIN, OUTPUT);
  pinMode(BLUEPIN, OUTPUT);
  analogWrite(REDPIN, pwmR & 0xff);
  analogWrite(GREENPIN, pwmG & 0xff);
  analogWrite(BLUEPIN, pwmB & 0xff);
  
} 
int act=1;
int actf = 0;
int cnt=57; 

void loop()
{
  int tmp;
  // trigger measurement
  digitalWrite(triggerPin, LOW);
  delayMicroseconds(10);
  digitalWrite(triggerPin, HIGH);
  delayMicroseconds(10);
  digitalWrite(triggerPin, LOW);
  // read pulse width
  tmp = pulseIn(readPin, HIGH, 100000);
  lastValue = tmp / 58;
  Serial.print(" cm= ");
  Serial.println(lastValue);
  if (lastValue < 30)
  {
    cnt++;
  }
  else
  {
    cnt--;
  }
  if (cnt > 55)
  { 
    act=1;
  }
  if (cnt > 60)
    cnt= 60;
  if (cnt < 50)
  {
    act=0;
    actf=0;
  }
  if (cnt < 45 )
    cnt = 45;
  
  if ((act == 1) && (actf == 0))
  {  
    actf = 1;
    if (switch_ == OFF)
    {
      switch_=ON;
      b_pwmG = pwmG;
      b_pwmB = pwmB;
      b_pwmR = pwmR;
    }
    else
    {
      switch_=OFF;
      b_pwmR=0;
      b_pwmG=0;
      b_pwmB=0;
    }
    analogWrite(REDPIN, b_pwmR & 0xff);
    analogWrite(GREENPIN, b_pwmG & 0xff);
    analogWrite(BLUEPIN, b_pwmB & 0xff); 
  } 
  
  Serial.print("cnt = ");    
  Serial.print(cnt);  
  Serial.print(" || ");    
  Serial.print(pwmR);  
  Serial.print(" ");      
  Serial.print(pwmG);  
  Serial.print(" ");
  Serial.print(pwmB);  
  Serial.print(" ");
  Serial.println("");
 // delay(10);

 if(radio_action)
 {
    radio_action = 0;
    eepr_save_col();
    analogWrite(REDPIN, pwmR & 0xff);
    analogWrite(GREENPIN, pwmG & 0xff);
    analogWrite(BLUEPIN, pwmB & 0xff);
 }
}

BYTE getterFunction(BYTE component) {
  switch(component)
  {
    case SWITCH_COLOR_COMPONENT_RED:
      return pwmR;
      break;
    case SWITCH_COLOR_COMPONENT_GREEN:
      return pwmG;
      break;
    case SWITCH_COLOR_COMPONENT_BLUE:
      return pwmB;
      break;
  }
  return 3;
}

void setterFunction(BYTE component, BYTE newValue) 
{
  switch(component)
  {
    case SWITCH_COLOR_COMPONENT_RED:
      pwmR = newValue;
      break;
    case SWITCH_COLOR_COMPONENT_GREEN:
      pwmG = newValue;
      break;
    case SWITCH_COLOR_COMPONENT_BLUE:
      pwmB = newValue;
      break;
  }
  radio_action = 1;
}