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HB-UNI-Sen-WEA.ino
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//- -----------------------------------------------------------------------------------------------------------------------
// AskSin++
// 2016-10-31 papa Creative Commons - http://creativecommons.org/licenses/by-nc-sa/3.0/de/
// some parts (BME280 measurement) from HB-UNI-Sensor1
// 2018-05-11 Tom Major (Creative Commons)
// 2018-05-21 jp112sdl (Creative Commons)
//- -----------------------------------------------------------------------------------------------------------------------
// #define NDEBUG // disable all serial debuf messages
// #define NSENSORS // if defined, only fake values are used
#define SENSOR_ONLY
#define EI_NOTEXTERNAL
#include <EnableInterrupt.h>
#include <SPI.h>
#include <AskSinPP.h>
#include <Register.h>
#include <MultiChannelDevice.h>
#include <sensors/Max44009.h>
#include <sensors/Veml6070.h>
#include "Sensors/Sens_Bme280.h"
#include "Sensors/Sens_As3935.h"
#include "Sensors/Sens_As5600.h"
#include "Sensors/VentusW132.h"
//#include "Sensors/PCF8574_WindDir.h"
#define CONFIG_BUTTON_PIN 8 // Anlerntaster-Pin
////////// REGENDETEKTOR
//bei Verwendung der Regensensorplatine von stall.biz (https://www.stall.biz/produkt/regenmelder-sensorplatine)
#define RAINDETECTOR_STALLBIZ_SENS_PIN A3 // Pin, an dem der Kondensator angeschlossen ist (hier wird der analoge Wert für die Regenerkennung ermittelt)
#define RAINDETECTOR_STALLBIZ_CRG_PIN 4 // Pin, an dem der Widerstand für die Kondensatoraufladung angeschlossen is
#define RAINDETECTOR_STALLBIZ_HEAT_PIN 9 // Pin, an dem der Transistor für die Heizung angeschlossen ist
#define RAINDETECTOR_STALLBIZ_HEAT_DEWFALL_T 20 // Temperaturschwelle bei aktiviertem "automatisch Heizen bei Erreichen des Taupunkts"; default = 20 (heizen bei +/- 2,0°C um den Taupunkt)
//bei Verwendung eines Regensensors mit H/L-Pegel Ausgang
#define RAINDETECTOR_PIN 9 // Pin, an dem der Regendetektor angeschlossen ist
#define RAINDETECTOR_PIN_LEVEL_ON_RAIN LOW // Pegel, wenn Regen erkannt wird
#define RAINDETECTOR_CHECK_INTERVAL 5 // alle x Sekunden auf Regen prüfen
/////////////////////////////////////////////////////////////////////
#define WINDSPEEDCOUNTER_PIN 5 // Anemometer
#define RAINQUANTITYCOUNTER_PIN 6 // Regenmengenmesser
#define AS3935_ENVIRONMENT ::Sens_As3935<>::AS3935_ENVIRONMENT_OUTDOOR
#define AS3935_IRQ_PIN 3 // IRQ Pin des Blitzdetektors
#define AS3935_CS_PIN_OR_ADDR 7 // SPI: CS Pin / I2C: Address (default: 0x03)
#define WINDDIRECTION_PIN A2 // Pin, an dem der Windrichtungsanzeiger (RESISTORS oder PULSE) angeschlossen ist
#define WINDDIRECTION_USE_RESISTORS
//#define WINDDIRECTION_USE_PULSE
//#define WINDDIRECTION_USE_AS5600
//#define WINDDIRECTION_USE_PCF8574
//#define WINDDIRECTION_USE_VENTUSW132
//#define VENTUSW132_PIN_N A0 // Pins für den Anschluss der
//#define VENTUSW132_PIN_O A1 // 4 Photodioden
//#define VENTUSW132_PIN_S A2 // des Ventus W132
//#define VENTUSW132_PIN_W A6 // Ersatz-Windmessers
// N O S W
//entspricht Windrichtung in ° 0 , 22.5 , 45 , 67.5 , 90 , 112.5 , 135 , 157.5 , 180 , 202.5 , 225 , 247.5 , 270 , 292.5 , 315 , 337.5
#ifdef WINDDIRECTION_USE_PULSE
const uint16_t WINDDIRS[] = { 70 , 78 , 86 , 94 , 102, 108 , 116 , 0 , 8 , 16 , 24 , 32 , 40 , 48 , 56 , 62 };
#endif
#ifdef WINDDIRECTION_USE_RESISTORS
const uint16_t WINDDIRS[] = { 58 , 74 , 52 , 115 , 97 , 328 , 302 , 790 , 559 , 663 , 187 , 205 , 163 , 420 , 129 , 153 };
#endif
#if defined(WINDDIRECTION_USE_VENTUSW132) || defined(WINDDIRECTION_USE_PCF8574)
//direction index 0 1 2 3 4 5 6 7
const uint16_t WINDDIRS[] = { 0, 45, 90, 135, 180, 225, 270, 315 };
#endif
#ifdef WINDDIRECTION_USE_AS5600
const uint16_t WINDDIRS[] = {0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0};
#endif
#define WINDSPEED_MEASUREINTERVAL_SECONDS 5 // Messintervall (Sekunden) für Windgeschwindigkeit / Böen
//////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
//some static definitions
#define WINDSPEED_MAX 0x3FFF
#define GUSTSPEED_MAX 0x7FFF
#define RAINCOUNTER_MAX 0x7FFF
#define STORM_COND_VALUE_LO 100
#define STORM_COND_VALUE_HI 200
#define PEERS_PER_CHANNEL 4
using namespace as;
volatile uint32_t _rainquantity_isr_counter = 0;
volatile uint16_t _wind_isr_counter = 0;
void rainquantitycounterISR() {
_rainquantity_isr_counter++;
}
void windspeedcounterISR() {
_wind_isr_counter++;
}
enum eventMessageSources {EVENT_SRC_RAINING, EVENT_SRC_HEATING, EVENT_SRC_GUST};
const struct DeviceInfo PROGMEM devinfo = {
{0xF1, 0xD0, 0x02}, // Device ID
"JPWEA00002", // Device Serial
{0xF1, 0xD0}, // Device Model
0x14, // Firmware Version
as::DeviceType::THSensor, // Device Type
{0x01, 0x01} // Info Bytes
};
// Configure the used hardware
typedef AskSin<NoLed, NoBattery, Radio<LibSPI<10>, 2>> Hal;
Hal hal;
class WeatherEventMsg : public Message {
public:
void init(uint8_t msgcnt, int16_t temp, uint16_t airPressure, uint8_t humidity, uint32_t brightness, bool israining, bool isheating, uint16_t raincounter, uint16_t windspeed, uint8_t winddir, uint8_t winddirrange, uint16_t gustspeed, uint8_t uvindex, uint8_t lightningcounter, uint8_t lightningdistance) {
Message::init(0x1a, msgcnt, 0x70, BIDI | RPTEN, (temp >> 8) & 0x7f, temp & 0xff);
pload[0] = (airPressure >> 8) & 0xff;
pload[1] = airPressure & 0xff;
pload[2] = humidity;
pload[3] = (brightness >> 16) & 0xff;
pload[4] = (brightness >> 8) & 0xff;
pload[5] = brightness & 0xff;
pload[6] = ((raincounter >> 8) & 0xff) | (israining << 7);
pload[7] = raincounter & 0xff;
pload[8] = ((windspeed >> 8) & 0xff) | (winddirrange << 6);
pload[9] = windspeed & 0xff;
pload[10] = winddir;
pload[11] = ((gustspeed >> 8) & 0xff) | (isheating << 7);
pload[12] = gustspeed & 0xff;
pload[13] = (uvindex & 0xff) | (lightningdistance << 4);
pload[14] = lightningcounter & 0xff;
}
};
class ExtraEventMsg : public Message {
public:
void init(uint8_t msgcnt, bool israining, bool isheating, uint16_t gustspeed) {
Message::init(0x0d, msgcnt, 0x53, BIDI | RPTEN, 0x41, (israining & 0xff) | (isheating << 1));
pload[0] = (gustspeed >> 8) & 0xff;
pload[1] = gustspeed & 0xff;
}
};
DEFREGISTER(Reg0, MASTERID_REGS, DREG_TRANSMITTRYMAX, 0x20, 0x21, 0x22, 0x23)
class SensorList0 : public RegList0<Reg0> {
public:
SensorList0(uint16_t addr) : RegList0<Reg0>(addr) {}
bool updIntervall (uint16_t value) const {
return this->writeRegister(0x20, (value >> 8) & 0xff) && this->writeRegister(0x21, value & 0xff);
}
uint16_t updIntervall () const {
return (this->readRegister(0x20, 0) << 8) + this->readRegister(0x21, 0);
}
bool height (uint16_t value) const {
return this->writeRegister(0x22, (value >> 8) & 0xff) && this->writeRegister(0x23, value & 0xff);
}
uint16_t height () const {
return (this->readRegister(0x22, 0) << 8) + this->readRegister(0x23, 0);
}
void defaults () {
clear();
updIntervall(60);
height(0);
transmitDevTryMax(6);
}
};
DEFREGISTER(Reg1, 0x01, 0x02, 0x03, 0x04, 0x05, 0x06, 0x07, 0x08, 0x09, 0x0a, 0x0b, 0x0c, 0x0d, 0x0e, 0x0f, 0x10, 0x11, 0x12, 0x13, 0x14, 0x15, 0x16)
class SensorList1 : public RegList1<Reg1> {
public:
SensorList1 (uint16_t addr) : RegList1<Reg1>(addr) {}
bool AnemometerRadius (uint8_t value) const {
return this->writeRegister(0x01, value & 0xff);
}
uint8_t AnemometerRadius () const {
return this->readRegister(0x01, 0);
}
bool AnemometerCalibrationFactor (uint16_t value) const {
return this->writeRegister(0x02, (value >> 8) & 0xff) && this->writeRegister(0x03, value & 0xff);
}
uint16_t AnemometerCalibrationFactor () const {
return (this->readRegister(0x02, 0) << 8) + this->readRegister(0x03, 0);
}
bool LightningDetectorCapacitor (uint8_t value) const {
return this->writeRegister(0x04, value & 0xff);
}
uint8_t LightningDetectorCapacitor () const {
return this->readRegister(0x04, 0);
}
bool LightningDetectorMinStrikes (uint8_t value) const {
return this->writeRegister(0x12, value & 0xff);
}
uint8_t LightningDetectorMinStrikes () const {
return this->readRegister(0x12, 0);
}
bool LightningDetectorWatchdogThreshold (uint8_t value) const {
return this->writeRegister(0x13, value & 0xff);
}
uint8_t LightningDetectorWatchdogThreshold () const {
return this->readRegister(0x13, 0);
}
bool LightningDetectorNoiseFloorLevel (uint8_t value) const {
return this->writeRegister(0x14, value & 0xff);
}
uint8_t LightningDetectorNoiseFloorLevel () const {
return this->readRegister(0x14, 0);
}
bool LightningDetectorSpikeRejection (uint8_t value) const {
return this->writeRegister(0x15, value & 0xff);
}
uint8_t LightningDetectorSpikeRejection () const {
return this->readRegister(0x15, 0);
}
bool LightningDetectorDisturberDetection () const {
return this->readBit(0x05, 0, true);
}
bool LightningDetectorDisturberDetection (bool v) const {
return this->writeBit(0x05, 0, v);
}
bool ExtraMessageOnGustThreshold (uint8_t value) const {
return this->writeRegister(0x06, value & 0xff);
}
uint8_t ExtraMessageOnGustThreshold () const {
return this->readRegister(0x06, 0);
}
bool StormUpperThreshold (uint8_t value) const {
return this->writeRegister(0x07, value & 0xff);
}
uint8_t StormUpperThreshold () const {
return this->readRegister(0x07, 0);
}
bool StormLowerThreshold (uint8_t value) const {
return this->writeRegister(0x08, value & 0xff);
}
uint8_t StormLowerThreshold () const {
return this->readRegister(0x08, 0);
}
bool RaindetectorStallBizHiThresholdRain (uint16_t value) const {
return this->writeRegister(0x09, (value >> 8) & 0xff) && this->writeRegister(0x0a, value & 0xff);
}
uint16_t RaindetectorStallBizHiThresholdRain () const {
return (this->readRegister(0x09, 0) << 8) + this->readRegister(0x0a, 0);
}
bool RaindetectorStallBizLoThresholdRain (uint16_t value) const {
return this->writeRegister(0x0b, (value >> 8) & 0xff) && this->writeRegister(0x0c, value & 0xff);
}
uint16_t RaindetectorStallBizLoThresholdRain () const {
return (this->readRegister(0x0b, 0) << 8) + this->readRegister(0x0c, 0);
}
bool RaindetectorStallBizHiThresholdHeater (uint16_t value) const {
return this->writeRegister(0x0d, (value >> 8) & 0xff) && this->writeRegister(0x0e, value & 0xff);
}
uint16_t RaindetectorStallBizHiThresholdHeater () const {
return (this->readRegister(0x0d, 0) << 8) + this->readRegister(0x0e, 0);
}
bool RaindetectorStallBizLoThresholdHeater (uint16_t value) const {
return this->writeRegister(0x0f, (value >> 8) & 0xff) && this->writeRegister(0x10, value & 0xff);
}
uint16_t RaindetectorStallBizLoThresholdHeater () const {
return (this->readRegister(0x0f, 0) << 8) + this->readRegister(0x10, 0);
}
bool RaindetectorSensorType (uint8_t value) const {
return this->writeRegister(0x11, value & 0xff);
}
uint8_t RaindetectorSensorType () const {
return this->readRegister(0x11, 0);
}
bool RaindetectorStallBizHeatOnDewfall () const {
return this->readBit(0x16, 0, true);
}
bool RaindetectorStallBizHeatOnDewfall (bool v) const {
return this->writeBit(0x16, 0, v);
}
void defaults () {
clear();
AnemometerRadius(65);
AnemometerCalibrationFactor(10);
LightningDetectorCapacitor(80);
LightningDetectorDisturberDetection(true);
ExtraMessageOnGustThreshold(0);
StormUpperThreshold(0);
StormLowerThreshold(0);
RaindetectorSensorType(0);
RaindetectorStallBizHiThresholdRain(750);
RaindetectorStallBizLoThresholdRain(500);
RaindetectorStallBizHiThresholdHeater(500);
RaindetectorStallBizLoThresholdHeater(400);
RaindetectorStallBizHeatOnDewfall(true);
LightningDetectorMinStrikes(0);
LightningDetectorSpikeRejection(2);
LightningDetectorWatchdogThreshold(2);
LightningDetectorNoiseFloorLevel(2);
}
};
class WeatherChannel : public Channel<Hal, SensorList1, EmptyList, List4, PEERS_PER_CHANNEL, SensorList0>, public Alarm {
int16_t temperature;
uint16_t airPressure;
uint8_t humidity;
uint32_t brightness;
bool israining;
bool isheating;
uint16_t raincounter;
uint16_t windspeed;
uint16_t gustspeed;
uint16_t uvindex;
uint8_t lightningcounter;
uint8_t lightningdistance;
uint8_t winddir;
uint8_t winddirrange;
uint16_t stormUpperThreshold;
uint16_t stormLowerThreshold;
bool initComplete;
bool initLightningDetectorDone;
uint8_t short_interval_measure_count;
uint8_t israining_alarm_count;
Sens_Bme280 bme280;
Veml6070<VEML6070_1_T> veml6070;
MAX44009<> max44009;
#ifdef WINDDIRECTION_USE_AS5600
Sens_As5600 as5600;
#endif
#ifdef WINDDIRECTION_USE_VENTUSW132
VentusW132<VENTUSW132_PIN_N, VENTUSW132_PIN_O, VENTUSW132_PIN_S, VENTUSW132_PIN_W> ventus;
#endif
#ifdef WINDDIRECTION_USE_PCF8574
PCF8574_WindDir<0x38> pcf;
#endif
public:
#ifdef __SENSORS_AS3935_h__
Sens_As3935<AS3935_CS_PIN_OR_ADDR, AS3935_IRQ_PIN> as3935;
#endif
public:
WeatherChannel () : Channel(), Alarm(seconds2ticks(60)), temperature(0), airPressure(0), humidity(0), brightness(0), israining(false), isheating(false), raincounter(0), windspeed(0), gustspeed(0), uvindex(0), lightningcounter(0), lightningdistance(0), winddir(0), winddirrange(0), stormUpperThreshold(0), stormLowerThreshold(0), initComplete(false), initLightningDetectorDone(false), short_interval_measure_count(0), israining_alarm_count(0), wind_and_uv_measure(*this), lightning_and_raining_check(*this) {}
virtual ~WeatherChannel () {}
class WindSpeedAndUVMeasureAlarm : public Alarm {
WeatherChannel& chan;
public:
WindSpeedAndUVMeasureAlarm (WeatherChannel& c) : Alarm (seconds2ticks(WINDSPEED_MEASUREINTERVAL_SECONDS)), chan(c) {}
virtual ~WindSpeedAndUVMeasureAlarm () {}
void trigger (__attribute__ ((unused)) AlarmClock& clock) {
chan.measure_windspeed();
chan.measure_uvindex();
tick = (seconds2ticks(WINDSPEED_MEASUREINTERVAL_SECONDS));
clock.add(*this);
chan.short_interval_measure_count++;
}
} wind_and_uv_measure;
class LightningAndRainingAlarm : public Alarm {
WeatherChannel& chan;
public:
LightningAndRainingAlarm (WeatherChannel& c) : Alarm (seconds2ticks(1)), chan(c) {}
virtual ~LightningAndRainingAlarm () {}
void trigger (__attribute__ ((unused)) AlarmClock& clock) {
chan.measure_lightning();
chan.measure_israining();
tick = (seconds2ticks(1));
clock.add(*this);
}
} lightning_and_raining_check;
virtual void trigger (__attribute__ ((unused)) AlarmClock& clock) {
measure_winddirection();
measure_thpb();
measure_rainquantity();
if (initComplete) {
windspeed = windspeed / short_interval_measure_count;
if (windspeed > WINDSPEED_MAX) windspeed = WINDSPEED_MAX;
uvindex = uvindex / short_interval_measure_count;
}
//DPRINT(F("GUSTSPEED : ")); DDECLN(gustspeed);
//DPRINT(F("WINDSPEED : ")); DDECLN(windspeed);
//DPRINT(F("UV Index : ")); DDECLN(uvindex);
WeatherEventMsg& msg = (WeatherEventMsg&)device().message();
uint8_t msgcnt = device().nextcount();
msg.init(msgcnt, temperature, airPressure, humidity, brightness, israining, isheating, raincounter, windspeed, winddir, winddirrange, gustspeed, uvindex, lightningcounter, lightningdistance);
if (msgcnt % 20 == 1) {
device().sendMasterEvent(msg);
} else {
device().broadcastEvent(msg);
}
uint16_t updCycle = this->device().getList0().updIntervall();
tick = seconds2ticks(updCycle);
initComplete = true;
windspeed = 0;
gustspeed = 0;
uvindex = 0;
short_interval_measure_count = 0;
sysclock.add(*this);
}
void sendExtraMessage (uint8_t t) {
DPRINT(F("SENDING EXTRA MESSAGE ")); DDECLN(t);
ExtraEventMsg& extramsg = (ExtraEventMsg&)device().message();
extramsg.init(device().nextcount(), israining, isheating, gustspeed);
device().sendMasterEvent(extramsg);
}
void measure_windspeed() {
#ifdef NSENSORS
_wind_isr_counter = random(20);
#endif
//V = 2 * R * Pi * N
// int kmph = 3.141593 * 2 * ((float)anemometerRadius / 100) * ((float)_wind_isr_counter / (float)WINDSPEED_MEASUREINTERVAL_SECONDS) * 3.6 * ((float)anemometerCalibrationFactor / 10);
uint16_t kmph = ((226L * this->getList1().AnemometerRadius() * this->getList1().AnemometerCalibrationFactor() * _wind_isr_counter) / WINDSPEED_MEASUREINTERVAL_SECONDS) / 10000;
if (kmph > gustspeed) {
gustspeed = (kmph > GUSTSPEED_MAX) ? GUSTSPEED_MAX : kmph;
}
if (this->getList1().ExtraMessageOnGustThreshold() > 0 && kmph > (this->getList1().ExtraMessageOnGustThreshold() * 10)) {
sendExtraMessage(EVENT_SRC_GUST);
}
//DPRINT(F("WIND kmph : ")); DDECLN(kmph);
//DPRINT(F("UPPER THRESH : ")); DDECLN(stormUpperThreshold);
//DPRINT(F("LOWER THRESH : ")); DDECLN(stormLowerThreshold);
static uint8_t STORM_COND_VALUE_Last = STORM_COND_VALUE_LO;
static uint8_t STORM_COND_VALUE = STORM_COND_VALUE_LO;
if (stormUpperThreshold > 0) {
if (kmph >= stormUpperThreshold || kmph <= stormLowerThreshold) {
static uint8_t evcnt = 0;
if (kmph >= stormUpperThreshold) STORM_COND_VALUE = STORM_COND_VALUE_HI;
if (kmph <= stormLowerThreshold) STORM_COND_VALUE = STORM_COND_VALUE_LO;
if (STORM_COND_VALUE != STORM_COND_VALUE_Last) {
SensorEventMsg& rmsg = (SensorEventMsg&)device().message();
//DPRINT(F("PEER THRESHOLD DETECTED ")); DDECLN(STORM_COND_VALUE);
rmsg.init(device().nextcount(), number(), evcnt++, STORM_COND_VALUE, false , false);
device().sendPeerEvent(rmsg, *this);
}
STORM_COND_VALUE_Last = STORM_COND_VALUE;
}
}
windspeed += kmph;
_wind_isr_counter = 0;
}
void measure_israining() {
static bool wasraining = false;
if (initComplete) {
if (israining_alarm_count >= RAINDETECTOR_CHECK_INTERVAL) {
switch (this->getList1().RaindetectorSensorType()) {
case 0:
israining = (digitalRead(RAINDETECTOR_PIN) == RAINDETECTOR_PIN_LEVEL_ON_RAIN);
break;
case 1:
digitalWrite(RAINDETECTOR_STALLBIZ_CRG_PIN, HIGH);
_delay_ms(2);
digitalWrite(RAINDETECTOR_STALLBIZ_CRG_PIN, LOW);
uint16_t rdVal = analogRead(RAINDETECTOR_STALLBIZ_SENS_PIN);
//DPRINT(F("RD aVal : ")); DDECLN(rdVal);
if (rdVal > this->getList1().RaindetectorStallBizHiThresholdRain()) {
israining = true;
}
if (rdVal < this->getList1().RaindetectorStallBizLoThresholdRain()) {
israining = false;
}
static bool mustheat = false;
if (rdVal > this->getList1().RaindetectorStallBizHiThresholdHeater()) {
mustheat = true;
}
if (rdVal < (this->getList1().RaindetectorStallBizLoThresholdHeater())) {
mustheat = false;
}
bool dewfall = false;
if (this->getList1().RaindetectorStallBizHeatOnDewfall() == true)
dewfall = bme280.present() ? (abs(bme280.temperature() - bme280.dewPoint()) < RAINDETECTOR_STALLBIZ_HEAT_DEWFALL_T) : false;
// Heizung schalten
raindetector_heater(mustheat || dewfall);
}
//DPRINT(F("RD israining : ")); DDECLN(israining);
if (wasraining != israining) {
sendExtraMessage(EVENT_SRC_RAINING);
static uint8_t evcnt = 0;
SensorEventMsg& rmsg = (SensorEventMsg&)device().message();
rmsg.init(device().nextcount(), number(), evcnt++, israining ? 200 : 0, true , false);
device().sendPeerEvent(rmsg, *this);
}
wasraining = israining;
israining_alarm_count = 0;
}
israining_alarm_count++;
}
}
void raindetector_heater(bool State) {
static bool washeating = false;
static uint8_t pwmval = 0;
isheating = State;
if (State == true) {
if (pwmval < 255) pwmval = pwmval + 51;
} else {
pwmval = 0;
}
analogWrite(RAINDETECTOR_STALLBIZ_HEAT_PIN, pwmval);
//DPRINT(F("RD HEAT : ")); DDECLN(State);
//DPRINT(F("RD HEAT PWM : ")); DDECLN(pwmval);
if (washeating != State) {
sendExtraMessage(EVENT_SRC_HEATING);
}
washeating = State;
}
void measure_uvindex() {
#ifdef NSENSORS
uvindex += random(11);
#else
veml6070.measure();
//DPRINT(F("UV readUV : ")); DDECLN(veml6070.UVValue());
uvindex += veml6070.UVIndex();
#endif
}
void measure_winddirection() {
//Windrichtung Grad/3: 60° = 20; 0° = Norden
winddir = 0;
uint8_t idxwdir = 0;
#ifdef NSENSORS
idxwdir = random(15);
winddir = (idxwdir * 15 + 2 / 2) / 2;
#else
#ifdef WINDDIRECTION_USE_AS5600
as5600.measure();
winddir = as5600.angle() / 3;
idxwdir = winddir * 10 / 75;
DPRINT(F("WINDDIR angle : ")); DDECLN(as5600.angle());
#endif
#ifdef WINDDIRECTION_USE_VENTUSW132
//winddir = ventus.winddirValue();
idxwdir = ventus.winddirValue(true);
winddir = WINDDIRS[idxwdir] / 3;
DPRINT(F("WINDDIR value (=dir / 3) : ")); DDECLN(winddir);
#endif
#ifdef WINDDIRECTION_USE_PCF8574
idxwdir = pcf.winddirValue(true);
winddir = WINDDIRS[idxwdir] / 3;
DPRINT(F("WINDDIR value (=dir / 3) : ")); DDECLN(winddir);
#endif
#ifdef WINDDIRECTION_USE_PULSE
uint8_t aVal = 0;
uint8_t WINDDIR_TOLERANCE = 3;
aVal = pulseIn(WINDDIRECTION_PIN, HIGH, 1000);
DPRINT("AVAL = "); DDECLN(aVal);
#endif
#ifdef WINDDIRECTION_USE_RESISTORS
uint16_t aVal = 0;
for (uint8_t i = 0; i <= 0xf; i++) {
aVal += analogRead(WINDDIRECTION_PIN);
}
aVal = aVal >> 4;
uint8_t WINDDIR_TOLERANCE = 2;
if ((aVal > 100) && (aVal < 250)) WINDDIR_TOLERANCE = 5;
if (aVal >= 250) WINDDIR_TOLERANCE = 10;
#endif
#if !defined(WINDDIRECTION_USE_AS5600) && !defined(WINDDIRECTION_USE_VENTUSW132) && !defined(WINDDIRECTION_USE_PCF8574)
for (uint8_t i = 0; i < sizeof(WINDDIRS) / sizeof(uint16_t); i++) {
if (aVal < WINDDIRS[i] + WINDDIR_TOLERANCE && aVal > WINDDIRS[i] - WINDDIR_TOLERANCE) {
idxwdir = i;
winddir = (idxwdir * 15 + 2 / 2) / 2;
break;
}
}
DPRINT(F("WINDDIR aVal : ")); DDEC(aVal); DPRINT(F(" :: tolerance = ")); DDEC(WINDDIR_TOLERANCE); DPRINT(F(" :: i = ")); DDECLN(idxwdir);
#endif
#endif
//Schwankungsbreite
static uint8_t idxoldwdir = 0;
winddirrange = 3; // 0 - 3 (0, 22,5, 45, 67,5°)
int idxdiff = abs(idxwdir - idxoldwdir);
uint8_t num_winddirs = sizeof(WINDDIRS) / sizeof(uint16_t);
if (idxdiff <= 3) winddirrange = idxdiff;
if (idxwdir <= 2 && idxoldwdir >= (num_winddirs-3)) winddirrange = num_winddirs - idxdiff;
if (winddirrange > 3) winddirrange = 3;
idxoldwdir = idxwdir;
//DPRINT(F("WINDDIR dir/3 : ")); DDECLN(winddir);
//DPRINT(F("WINDDIR range : ")); DDECLN(winddirrange);
}
void measure_rainquantity() {
#ifdef NSENSORS
_rainquantity_isr_counter++;
#endif
if (!initComplete) {
_rainquantity_isr_counter = 0;
//DPRINTLN(F("RAINCOUNTER : initalize"));
} else {
if (_rainquantity_isr_counter > RAINCOUNTER_MAX) {
_rainquantity_isr_counter = 1;
}
raincounter = _rainquantity_isr_counter;
}
//DPRINT(F("RAINCOUNTER : ")); DDECLN(_rainquantity_isr_counter);
}
void measure_lightning() {
#if defined(NSENSORS) || !defined(__SENSORS_AS3935_h__)
lightningcounter = 0;
lightningdistance = 0;
#else
if (!initLightningDetectorDone) {
as3935.init(this->getList1().LightningDetectorCapacitor(),
this->getList1().LightningDetectorDisturberDetection(),
AS3935_ENVIRONMENT,
this->getList1().LightningDetectorMinStrikes(),
this->getList1().LightningDetectorWatchdogThreshold(),
this->getList1().LightningDetectorNoiseFloorLevel(),
this->getList1().LightningDetectorSpikeRejection());
initLightningDetectorDone = true;
} else {
uint8_t lightning_dist_km = 0;
if (as3935.LightningIsrCounter() > 0) {
switch (as3935.GetInterruptSrc()) {
case 0:
DPRINTLN(F("LD IRQ SRC NOT EXPECTED"));
break;
case 1:
lightning_dist_km = as3935.LightningDistKm();
DPRINT(F("LD LIGHTNING IN ")); DDEC(lightning_dist_km); DPRINTLN(" km");
lightningcounter++;
// Wenn Zähler überläuft (255 + 1), dann 1 statt 0
if (lightningcounter == 0) lightningcounter = 1;
lightningdistance = (lightning_dist_km + 1) / 3;
break;
case 2:
DPRINTLN(F("LD DIST"));
break;
case 3:
DPRINTLN(F("LD NOISE"));
break;
}
as3935.ResetLightninIsrCounter();
}
}
#endif
//DPRINT(F("LD CNT : ")); DDECLN(lightningcounter);
//DPRINT(F("LD DIST : ")); DDECLN(lightningdistance);
}
void measure_thpb() {
uint16_t height = this->device().getList0().height();
#ifdef NSENSORS
airPressure = 9000 + random(2000); // 1024 hPa +x
humidity = 66 + random(7); // 66% +x
temperature = 150 + random(50); // 15C +x
brightness = 1700000 + random(10000); // 67000 Lux +x
//DPRINT(F(" airPressure : ")); DDECLN(airPressure);
//DPRINT(F(" humidity : ")); DDECLN(humidity);
//DPRINT(F(" temperature : ")); DDECLN(temperature);
//DPRINT(F(" brightness : ")); DDECLN(brightness);
#else
bme280.measure(height);
temperature = bme280.temperature();
airPressure = bme280.pressureNN();
humidity = bme280.humidity();
max44009.measure();
brightness = max44009.brightness();
//DPRINT(F("BRIGHTNESS : ") ); DDECLN(brightness);
#endif
}
void setup(Device<Hal, SensorList0>* dev, uint8_t number, uint16_t addr) {
Channel::setup(dev, number, addr);
tick = seconds2ticks(3); // first message in 3 sec.
#ifndef NSENSORS
max44009.init();
bme280.init();
veml6070.init();
#endif
#ifdef WINDDIRECTION_USE_AS5600
as5600.init();
#endif
#ifdef WINDDIRECTION_USE_VENTUSW132
ventus.init();
#endif
#ifdef WINDDIRECTION_USE_PCF8574
pcf.init();
#endif
sysclock.add(*this);
sysclock.add(wind_and_uv_measure);
sysclock.add(lightning_and_raining_check);
}
void configChanged() {
DPRINTLN("* Config changed : List1");
//DPRINTLN(F("* ANEMOMETER : "));
//DPRINT(F("* - RADIUS : ")); DDECLN(this->getList1().AnemometerRadius());
//DPRINT(F("* - CALIBRATIONFACTOR : ")); DDECLN(this->getList1().AnemometerCalibrationFactor());
//DPRINT(F("* - GUST MSG THRESHOLD: ")); DDECLN(this->getList1().ExtraMessageOnGustThreshold());
//DPRINTLN(F("* LIGHTNINGDETECTOR : "));
//DPRINT(F("* - CAPACITOR : ")); DDECLN(this->getList1().LightningDetectorCapacitor());
//DPRINT(F("* - DISTURB.DETECTION : ")); DDECLN(this->getList1().LightningDetectorDisturberDetection());
//DPRINT(F("* - WATCHDOGTHRESHOLD : ")); DDECLN(this->getList1().LightningDetectorWatchdogThreshold());
//DPRINT(F("* - SPIKREJECTION : ")); DDECLN(this->getList1().LightningDetectorSpikeRejection());
//DPRINT(F("* - NOISEFLOORLEVEL : ")); DDECLN(this->getList1().LightningDetectorNoiseFloorLevel());
//DPRINT(F("* - MINSTRIKES : ")); DDECLN(this->getList1().LightningDetectorMinStrikes());
//DPRINT(F("PEERSETTING UPPER = ")); DDECLN(this->getList1().StormUpperThreshold());
stormUpperThreshold = this->getList1().StormUpperThreshold() * 10;
//DPRINT(F("PEERSETTING LOWER = ")); DDECLN(this->getList1().StormLowerThreshold());
stormLowerThreshold = this->getList1().StormLowerThreshold() * 10;
//DPRINT(F("RAINDETECTOR SENSORTYPE = ")); DDECLN(this->getList1().RaindetectorSensorType());
//DPRINT(F("RaindetectorStallBizHiThresholdRain = ")); DDECLN(this->getList1().RaindetectorStallBizHiThresholdRain());
//DPRINT(F("RaindetectorStallBizLoThresholdRain = ")); DDECLN(this->getList1().RaindetectorStallBizLoThresholdRain());
//DPRINT(F("RaindetectorStallBizHiThresholdHeater = ")); DDECLN(this->getList1().RaindetectorStallBizHiThresholdHeater());
//DPRINT(F("RaindetectorStallBizLoThresholdHeater = ")); DDECLN(this->getList1().RaindetectorStallBizLoThresholdHeater());
//DPRINT(F("RaindetectorStallBizHeatOnDewfall = ")); DDECLN(this->getList1().RaindetectorStallBizHeatOnDewfall());
switch (this->getList1().RaindetectorSensorType()) {
case 0:
pinMode(RAINDETECTOR_PIN, INPUT_PULLUP);
break;
case 1:
pinMode(RAINDETECTOR_STALLBIZ_CRG_PIN, OUTPUT);
pinMode(RAINDETECTOR_STALLBIZ_HEAT_PIN, OUTPUT);
pinMode(RAINDETECTOR_STALLBIZ_SENS_PIN, INPUT);
break;
}
initLightningDetectorDone = false;
}
uint8_t status () const {
return 0;
}
uint8_t flags () const {
return 0;
}
};
class SensChannelDevice : public MultiChannelDevice<Hal, WeatherChannel, 1, SensorList0> {
public:
typedef MultiChannelDevice<Hal, WeatherChannel, 1, SensorList0> TSDevice;
SensChannelDevice(const DeviceInfo& info, uint16_t addr) : TSDevice(info, addr) {}
virtual ~SensChannelDevice () {}
virtual void configChanged () {
TSDevice::configChanged();
DPRINTLN("* Config Changed : List0");
DPRINT(F("* SENDEINTERVALL : ")); DDECLN(this->getList0().updIntervall());
//DPRINT(F("* ALTITUDE : ")); DDECLN(this->getList0().height());
//DPRINT(F("* TRANSMITTRYMAX : ")); DDECLN(this->getList0().transmitDevTryMax());
}
};
SensChannelDevice sdev(devinfo, 0x20);
ConfigButton<SensChannelDevice> cfgBtn(sdev);
void setup () {
DINIT(57600, ASKSIN_PLUS_PLUS_IDENTIFIER);
sdev.init(hal);
buttonISR(cfgBtn, CONFIG_BUTTON_PIN);
sdev.initDone();
//sdev.startPairing();
pinMode(RAINQUANTITYCOUNTER_PIN, INPUT_PULLUP);
pinMode(WINDSPEEDCOUNTER_PIN, INPUT_PULLUP);
pinMode(WINDDIRECTION_PIN, INPUT_PULLUP);
if ( digitalPinToInterrupt(RAINQUANTITYCOUNTER_PIN) == NOT_AN_INTERRUPT ) enableInterrupt(RAINQUANTITYCOUNTER_PIN, rainquantitycounterISR, RISING); else attachInterrupt(digitalPinToInterrupt(RAINQUANTITYCOUNTER_PIN), rainquantitycounterISR, RISING);
if ( digitalPinToInterrupt(WINDSPEEDCOUNTER_PIN) == NOT_AN_INTERRUPT ) enableInterrupt(WINDSPEEDCOUNTER_PIN, windspeedcounterISR, RISING); else attachInterrupt(digitalPinToInterrupt(WINDSPEEDCOUNTER_PIN), windspeedcounterISR, RISING);
}
void loop() {
bool worked = hal.runready();
bool poll = sdev.pollRadio();
if ( worked == false && poll == false ) {
// hal.activity.savePower<Idle<false, true>>(hal);
}
}