WallSegmentClock/app/application.cpp

#include <SmingCore.h>
#include <Libraries/DHTesp/DHTesp.h>

///////////////////////////////////////////////////////////////////
// Set your SSID & Pass for initial configuration
#include "configuration.h" // application configuration
///////////////////////////////////////////////////////////////////

#include "webserver.h"
#include "tm1650.h"
#include "AHTxx.h"
#include "led_spi.h"

/** DHT22 */
#define DHT22_PIN 2
DHTesp dht;
TempAndHumidity th;
Timer readTemperatureProcTimer;
void onTimer_readDHT22();

Timer procTimer, procRTimer;
Timer displayTimer, tmpTimer;
Timer showHighTimer, showLowTimer;
Timer brightTimer;
// Sensors values
ahtxx_t sensorData;
String StrCF;
// Time values
time_t Time, NTPLastUpdate;
DateTime dt;
float SensorT, SensorH, SensorHI, SensorCR;

void GetData(void);
void connectOk(const String& SSID, MacAddress bssid, uint8_t channel);
void connectFail(const String& ssid, MacAddress bssid, WifiDisconnectReason reason);
void gotIP(IpAddress ip, IpAddress netmask, IpAddress gateway);

void showWatch(void);
void showTime(void);
void showTemperature(void);
void showHumidity(void);
void showError(void);
void setBright(void);

// NTP Client
void onNtpReceive(NtpClient& client, time_t timestamp);
NtpClient ntpClient("ntp.time.in.ua", 1500, onNtpReceive); // every 15 min

void init(void) {
	spiffs_mount(); // Mount file system, in order to work with files

	Serial.begin(SERIAL_BAUD_RATE);  // 115200 by default
	Serial.systemDebugOutput(false); // Debug output to serial
	Serial.println("Wall Segment Clock");

	ActiveConfig = loadConfig();

	// set timezone hourly difference to UTC
	SystemClock.setTimeZone(ActiveConfig.AddTZ);

	WifiStation.config(ActiveConfig.NetworkSSID, ActiveConfig.NetworkPassword);
	WifiStation.enable(true);
	WifiAccessPoint.enable(false);

	WifiEvents.onStationConnect(connectOk);
	WifiEvents.onStationDisconnect(connectFail);
	WifiEvents.onStationGotIP(gotIP);

	// initialize I2C
	Wire.pins(4, 5);
	Wire.begin();

	// BIG digits
	LED_Init();

	// Low LED output
	TM1650_Init();
	brightTimer.initializeMs(1000, setBright).start();

	// refresh big led
	displayTimer.initializeMs(500, showWatch).start();

	/* AHTxx Sensor */
//	AHTxx_Init();
//	procTimer.initializeMs(2000, GetData).start();

	/* DHT22 */
	dht.setup(DHT22_PIN, DHTesp::DHT22);
	readTemperatureProcTimer.initializeMs(5 * 1000, onTimer_readDHT22).start(); // every so often.
}

void showWatch(void) {
	static time_t oldTime;

	Time = SystemClock.now();

	dt.setTime(Time);
	/*
	 * Now, in dt we have:
	 * 	int8_t Hour;
	 * 	int8_t Minute;
	 * 	int8_t Second;
	 * 	int16_t Milliseconds;
	 * 	int8_t Day;
	 * 	int8_t DayofWeek; -- Sunday is day 0
	 * 	int8_t Month; // Jan is month 0
	 * 	int16_t Year;  // Full Year numer
	 */

	if (oldTime == Time) {
		// Old Second
		LED_SemicolonOFF();
	}	else {
		// New Second
		oldTime = Time;
		LED_ShowBin(dt.Hour, dt.Minute);
//		LED_ShowBin(dt.Minute, dt.Second);
		LED_SemicolonOn();

		if (dt.Second == 0x00) {
			Serial.printf("Time: %02d:%02d:00\r\n", dt.Hour, dt.Minute);
		}
	}
}

/*
 * Выводим текущее время [HH MM] на верхние индикаторы
 */
void showTime(void) {
	static uint8_t oldHour = 0xFF, oldMinute = 0xFF;

	if (oldMinute != dt.Minute) {
		oldMinute = dt.Minute;

		// ...
		
		if (oldHour != dt.Hour) {
			oldHour = dt.Hour;

			// ...
		} // new hour
	} // new minute
}

/*
 * Show temperature, small indicators
 */
void showTemperature(void)
{
	SensorT = th.temperature;
	uint8_t a, b;
	a = (uint8_t)th.temperature / 10;
	b = (uint8_t)th.temperature % 10;
	TM1650_Out(a, b, 0, 0);
	TM1650_Out3(Sym_o);
	TM1650_Out4(Sym_C);
}


/*
 * Show humidity, small indicators
 */
void showHumidity(void) {
	SensorH = th.humidity;
	uint8_t a, b;
	a = (uint8_t)th.humidity / 10;
	b = (uint8_t)th.humidity % 10;
	TM1650_Out(a, b, 0, 0);
	TM1650_Out3(Sym_Off);
	TM1650_Out4(Sym_H);
}

/*
 * Show error, small indicators
 */
void showError(void) {
	TM1650_DotRes(Dig_2);
	TM1650_Out1(Sym_E);
	TM1650_Out2(Sym_r);
	TM1650_Out3(Sym_r);
	TM1650_Out4(Sym_Off);
}

/*
 * Выводим дату на верхние индикаторы [DD MM]
 */
 void showDate(void) {
 		// ...
}

/*
 * Автоматическая регулировка яркости индикаторов
 * GY-49 (MAX44009)
 */
void setBright(void) {
		// ...
}

/**
 * @brief Get data from Temperature/Humidity Sensor.
 */
void GetData(void) {
	static bool st = false;

	AHTxx_GetData(&sensorData);
	if (sensorData.Error != St_OK) {
		Serial.println("Sensor: Data error!");
		return;
	}

	th.temperature = (float)sensorData.Temperature / 10.0;
	th.humidity = (float)sensorData.Humidity / 10.0;

	if (st) {
		st = !st;
		showTemperature();
	} else {
		st = !st;
		showHumidity();
	}

	Serial.printf("Humidity: %d.%d %%; Temperature: %d.%d *C\r\n", sensorData.Humidity/10, sensorData.Humidity%10, sensorData.Temperature/10, sensorData.Temperature%10);
}

void connectOk(const String& SSID, MacAddress bssid, uint8_t channel)
{
	debugf("connected");
	WifiAccessPoint.enable(false);
}

void gotIP(IpAddress ip, IpAddress netmask, IpAddress gateway)
{
	Serial.print("Got IP address: ");
	Serial.println(ip);
	// Restart main screen output
	procTimer.restart();
	displayTimer.restart();

	// start NTP Client there?

	startWebServer();
}

void connectFail(const String& ssid, MacAddress bssid, WifiDisconnectReason reason)
{
	debugf("connection FAILED: %s", WifiEvents.getDisconnectReasonDesc(reason).c_str());
	WifiAccessPoint.config("ClockConfig", "", AUTH_OPEN);
	WifiAccessPoint.enable(true);
	// Stop main screen output
	procTimer.stop();
	displayTimer.stop();

	Serial.println("WiFi ClockConfig");
	Serial.println(WifiAccessPoint.getIP());

	startWebServer();
	WifiStation.disconnect();
	WifiStation.connect();
}

/**
 * @brief NTP Client
 */
void onNtpReceive(NtpClient& client, time_t timestamp)
{
	SystemClock.setTime(timestamp, eTZ_UTC);
	NTPLastUpdate = SystemClock.now();
	Serial.println("*** Time synchronized OK! ***"); // DEBUG
}

void onTimer_readDHT22()
{
	//* try different reading methods (Adafruit compatible) vs improved */
	static bool toggle = false;
	toggle = !toggle;
	float humidity = 0;
	float temperature = 0;
	Serial << _F("TickCount=") << RTC.getRtcNanoseconds() / 1000000 << endl;
	if(toggle) {
		Serial.println(_F("Read using Adafruit API methods"));
		humidity = dht.getHumidity();
		temperature = dht.getTemperature();
		th.humidity = humidity;
		th.temperature = temperature;

		// check if returns are valid, if they are NaN (not a number) then something went wrong!
		if(dht.getStatus() == DHTesp::ERROR_NONE) {
			Serial << _F("\tHumidity: ") << humidity << _F("% Temperature: ") << temperature << " °C" << endl;
		} else {
			Serial << _F("Failed to read from DHT: ") << dht.getStatus() << endl;
		}
	} else {
		//* improved reading method
		Serial.println(_F("\r\n"
						  "Read using new API methods"));
		th = dht.getTempAndHumidity();
		humidity = th.humidity;
		temperature = th.temperature;

		if(dht.getStatus() == DHTesp::ERROR_NONE) {
			Serial << _F("\tHumidity: ") << th.humidity << _F("% Temperature: ") << th.temperature << " °C" << endl;
		} else {
			Serial << _F("Failed to read from DHT: ") << dht.getStatus() << endl;
		}
	}

	//  Other goodies:
	//
	//  Heatindex is the perceived temperature taking humidity into account
	//  More: https://en.wikipedia.org/wiki/Heat_index
	//
	Serial << _F("Heatindex: ") << dht.computeHeatIndex(temperature, humidity) << " °C" << endl;

	//
	//  Dewpoint is the temperature where condensation starts.
	//  Water vapors will start condensing on an object having this temperature or below.
	//  More: https://en.wikipedia.org/wiki/Dew_point
	//
	Serial << _F("Dewpoint: ") << dht.computeDewPoint(temperature, humidity) << " °C" << endl;

	//
	// Determine thermal comfort according to http://epb.apogee.net/res/refcomf.asp
	//
	ComfortState cf;

	Serial << _F("Comfort is at ") << dht.getComfortRatio(cf, temperature, humidity) << " %, (";

	switch(cf) {
	case Comfort_OK:
		Serial.print(_F("OK"));
		break;
	case Comfort_TooHot:
		Serial.print(_F("Too Hot"));
		break;
	case Comfort_TooCold:
		Serial.print(_F("Too Cold"));
		break;
	case Comfort_TooDry:
		Serial.print(_F("Too Dry"));
		break;
	case Comfort_TooHumid:
		Serial.print(_F("Too Humid"));
		break;
	case Comfort_HotAndHumid:
		Serial.print(_F("Hot And Humid"));
		break;
	case Comfort_HotAndDry:
		Serial.print(_F("Hot And Dry"));
		break;
	case Comfort_ColdAndHumid:
		Serial.print(_F("Cold And Humid"));
		break;
	case Comfort_ColdAndDry:
		Serial.print(_F("Cold And Dry"));
		break;
	default:
		Serial.print(_F("Unknown:"));
		Serial.print(cf);
		break;
	}

	Serial.println(')');
}