Сенсорный мини выключатель EFEKTA co стеклянной панелью.

int8_t timer_status = 0;
boolean sens_flag1 = 0;
boolean sens_flag2 = 0;
boolean switch_a = 0;
boolean switch_b = 0;
uint16_t temp;
float vcc;
int battery;
int old_battery;
uint32_t oldmillis;
uint32_t newmillis;
uint32_t interrupt_time;
uint32_t SLEEP_TIME = 7000;
uint32_t SLEEP_TIME_W;
uint32_t SLEEP_TIME_W2;
int NrfRSSI;
uint16_t NrfRSSI2;
boolean wait_off;

#define MY_DEBUG

#define MY_RADIO_NRF5_ESB
#define MY_PASSIVE_NODE
#define MY_NODE_ID 120
#define MY_PARENT_NODE_ID 0
#define MY_PARENT_NODE_IS_STATIC
#define MY_TRANSPORT_UPLINK_CHECK_DISABLED
#define POWER_CHILD_ID 110
#define UP_POWER_SWITCH_ID 1
#define DOWN_POWER_SWITCH_ID 2
#define CHILD_ID_nRF52_RSSI_RX 3

#define BAT_COOF 0.0092957746478873
#define BAT_MIN 200
#define BAT_MAX 290

#include <MySensors.h>
MyMessage upMsg(UP_POWER_SWITCH_ID, V_STATUS);
MyMessage downMsg(DOWN_POWER_SWITCH_ID, V_STATUS);
MyMessage powerMsg(POWER_CHILD_ID, V_VAR1);
MyMessage msgRF52RssiReceiv(CHILD_ID_nRF52_RSSI_RX, V_VAR1);

void preHwInit() {
//delay(1000);
pinMode(31, OUTPUT);
digitalWrite(31, HIGH);
delay(3000);
pinMode(3, INPUT);
pinMode(25, OUTPUT);
pinMode(26, OUTPUT);
pinMode(27, OUTPUT);
pinMode(6, OUTPUT);
pinMode(7, OUTPUT);
pinMode(8, OUTPUT);

pinMode(28, OUTPUT); // bizzer

pinMode(2, INPUT);
pinMode(9, INPUT);
pinMode(10, INPUT);

pinMode(29, INPUT);

digitalWrite(28, LOW); // off bizzer
digitalWrite(27, HIGH);
digitalWrite(26, HIGH);
digitalWrite(25, HIGH);
digitalWrite(6, HIGH);
digitalWrite(7, HIGH);
digitalWrite(8, HIGH);
}

void before()
{
//digitalWrite(31, HIGH);
NRF_POWER->DCDCEN = 1;
//NRF_UART0->ENABLE = 0;
analogReadResolution(12);
disableNfc();
turnOffAdc();
//wait(2000);
digitalWrite(25, LOW);
digitalWrite(6, LOW);
wait(200);
digitalWrite(25, HIGH);
digitalWrite(6, HIGH);
wait(100);
playSound0();
wait(100);
digitalWrite(25, LOW);
digitalWrite(6, LOW);
wait(200);
digitalWrite(25, HIGH);
digitalWrite(6, HIGH);
wait(3000);

digitalWrite(27, LOW);
digitalWrite(8, LOW);
wait(200);
digitalWrite(27, HIGH);
digitalWrite(8, HIGH);
wait(400);
digitalWrite(6, LOW);
digitalWrite(25, LOW);
wait(200);
digitalWrite(6, HIGH);
digitalWrite(25, HIGH);
wait(400);
digitalWrite(26, LOW);
digitalWrite(7, LOW);
wait(200);
digitalWrite(26, HIGH);
digitalWrite(7, HIGH);
wait(1000);
digitalWrite(26, LOW);
digitalWrite(7, LOW);
}

void setup()
{
digitalWrite(26, HIGH);
digitalWrite(7, HIGH);
wait(50);
playSound();
wait(2000);
readBatLev();
wait(200);
SLEEP_TIME_W = SLEEP_TIME;
}

void presentation()
{
sendSketchInfo(«Power on|off Node», «1.0»);
wait(100);
present(POWER_CHILD_ID, S_CUSTOM, «BATTERY DATA»);
wait(100);
present(UP_POWER_SWITCH_ID, S_BINARY, «UP SWITCH»);
wait(100);
present(DOWN_POWER_SWITCH_ID, S_BINARY, «DOWN SWITCH»);
}

void loop()
{
if (sens_flag1 == 0 && sens_flag2 == 0) {
if (switch_a == 0 && switch_b == 0) {
timer_status = sleep(digitalPinToInterrupt(2), RISING, digitalPinToInterrupt(3), RISING, 3600000, false);
wait_off = 1;
} else {
//oldmillis = millis();
timer_status = sleep(digitalPinToInterrupt(2), RISING, digitalPinToInterrupt(3), RISING, SLEEP_TIME_W, false);
wait_off = 0;
}
}
if (timer_status == 3) {
wait(100);
digitalWrite(27, LOW);
digitalWrite(8, LOW);
wait(2000);
digitalWrite(27, HIGH);
digitalWrite(8, HIGH);
wait(100);
digitalWrite(31, LOW);
}

if (timer_status == 2) {

if (digitalRead(9) == HIGH && sens_flag1 == 0 && switch_b == 0) {
sens_flag1 = 1;
if (switch_a == 0) {
oldmillis = millis();
SLEEP_TIME_W = SLEEP_TIME;
switch_a = 1;
send(upMsg.set(switch_a));
//wait(200);
digitalWrite(6, LOW);
wait(10);
playSound1();
wait(20);
playSound2();
wait(50);
} else {
switch_a = 0;
send(upMsg.set(switch_a));
//wait(200);
digitalWrite(6, HIGH);
wait(10);
playSound2();
wait(20);
playSound1();
wait(50);
}
//sleep_not_pasible = 1;
//digitalWrite(25, HIGH);
//wait(100);

}
if (digitalRead(10) == HIGH && sens_flag2 == 0 && switch_a == 0) {
sens_flag2 = 1;
if (switch_b == 0) {
oldmillis = millis();
SLEEP_TIME_W = SLEEP_TIME;
switch_b = 1;
send(downMsg.set(switch_b));
//wait(200);
digitalWrite(25, LOW);
wait(10);
playSound1();
wait(20);
playSound2();
wait(50);
} else {
switch_b = 0;
send(downMsg.set(switch_b));
//wait(200);
digitalWrite(25, HIGH);
wait(10);
playSound2();
wait(20);
playSound1();
wait(50);
}
//sleep_not_pasible = 1;
//digitalWrite(6, HIGH);
//wait(100);
}

if (digitalRead(9) == LOW && sens_flag1 == 1) {
sens_flag1 = 0;
//digitalWrite(6, HIGH);
//playSound2();
//wait(50);
}

if (digitalRead(10) == LOW && sens_flag2 == 1) {
sens_flag2 = 0;
//digitalWrite(25, HIGH);
//playSound2();
//wait(50);
}
if (switch_a == 1 || switch_b == 1) {
if (wait_off == 0) {
newmillis = millis();
wait(10);
SLEEP_TIME_W2 = SLEEP_TIME_W;
wait(10);
interrupt_time = newmillis — oldmillis;
wait(10);
SLEEP_TIME_W = SLEEP_TIME_W2 — interrupt_time;
wait(10);
Serial.print(«WAS IN A SLEEP: „);
Serial.print(newmillis — oldmillis);
Serial.println(“ MILLISECONDS»);

if (SLEEP_TIME_W < 1000) {
if (switch_a == 1) {
switch_a = 0;
digitalWrite(6, HIGH);
//wait(10);
//playSound2();
//wait(20);
//playSound1();
//wait(50);
//send(upMsg.set(switch_a));
//wait(200);
}
if (switch_b == 1) {
switch_b = 0;
digitalWrite(25, HIGH);
//wait(10);
//playSound2();
//wait(20);
//playSound1();
//wait(50);
//send(downMsg.set(switch_b));
//wait(200);
}
SLEEP_TIME_W = SLEEP_TIME;
wait(50);
}
Serial.println(SLEEP_TIME);
Serial.println(SLEEP_TIME_W);
Serial.println(SLEEP_TIME_W2);
Serial.print(«GO TO SLEEP FOR: „);
Serial.print(SLEEP_TIME_W);
Serial.println(“ MILLISECONDS»);
}
oldmillis = millis();
}
}

if (timer_status == -1) {
if (switch_a == 1 || switch_b == 1) {
if (switch_a == 1) {
switch_a = 0;
digitalWrite(6, HIGH);
wait(10);
playSound2();
wait(20);
playSound1();
wait(50);
send(upMsg.set(switch_a));
wait(200);
}
if (switch_b == 1) {
switch_b = 0;
digitalWrite(25, HIGH);
wait(10);
playSound2();
wait(20);
playSound1();
wait(50);
send(downMsg.set(switch_b));
wait(200);
}
} else {
readBatLev();
}
}
}

void disableNfc() {
NRF_NFCT->TASKS_DISABLE = 1;
NRF_NVMC->CONFIG = 1;
NRF_UICR->NFCPINS = 0;
NRF_NVMC->CONFIG = 0;
}

void turnOffAdc() {
if (NRF_SAADC->ENABLE) {
NRF_SAADC->TASKS_STOP = 1;
while (NRF_SAADC->EVENTS_STOPPED) {}
NRF_SAADC->ENABLE = 0;
while (NRF_SAADC->ENABLE) {}
}
}

void myTone(uint32_t j, uint32_t k) { // Определяем функцию myTone
j = 500000 / j; // Меняем значение переменной j на время одного полупериода в мкс
k += millis(); // Меняем значение переменной к на время завершения вывода сигнала
while (k > millis()) { // Выводим сигнал, пока не истечёт указанное время
digitalWrite(28, HIGH); delayMicroseconds(j); // Устанавливаем на выходе i уровень логической «1» на время j
digitalWrite(28, LOW ); delayMicroseconds(j); // Устанавливаем на выходе i уровень логического «0» на время j
}
}

void playSound0() {
//wait(500);
myTone(1300, 50); // Выводим звуковой сигнал длительностью 0,1 сек с частотой 2048 Гц
wait(20); // Ждём 0,1 сек
myTone(1300, 50);
wait(50);
}

void playSound() {
//wait(500);
myTone(700, 30); // Выводим звуковой сигнал длительностью 0,1 сек с частотой 2048 Гц
wait(10); // Ждём 0,1 сек
myTone(700, 30);
wait(10);
myTone(700, 30);
wait(50); // Ждём 0,1 сек
//myTone(500, 30);
//wait(500);
}

void playSound1() {
//wait(500);
myTone(200, 10); // Выводим звуковой сигнал длительностью 0,1 сек с частотой 2048 Гц
wait(10); // Ждём 0,1 сек
myTone(400, 5);
wait(30); // Ждём 0,1 сек
//myTone(500, 30);
//wait(500);
}

void playSound2() {
//wait(500);
myTone(400, 10); // Выводим звуковой сигнал длительностью 0,1 сек с частотой 2048 Гц
wait(10); // Ждём 0,1 сек
myTone(200, 5);
wait(30); // Ждём 0,1 сек
//myTone(500, 30);
//wait(500);
}

void readBatLev() {
//NRF5_ESB_startListening();
wait(200);
temp = analogRead(29);
vcc = temp * 0.0033 * 100;
battery = map((int)vcc, BAT_MIN, BAT_MAX, 0, 100);
if (battery < 0) {
battery = 0;
}
if (battery > 100) {
battery = 100;
}
sendBatteryLevel(battery);
wait(200);
send(powerMsg.set(temp));
wait(200);
NrfRSSI = transportGetReceivingRSSI();
NrfRSSI2 = map(NrfRSSI, -85, -40, 0, 100);
if (NrfRSSI2 < 0) {
NrfRSSI2 = 0;
}
if (NrfRSSI2 > 100) {
NrfRSSI2 = 100;
}
send(msgRF52RssiReceiv.set(NrfRSSI2));
wait(200);
}