ich habe mir das Projekt von Jerome nachgebaut und für eine spezielle anwendung benötige ich nun die Temperaturanzeige meiner 4 Fühler aller 5 Sekunden auf dem Display aktualisiert. (so zusagen fast Realtime Anzeige). Die Werte an die Homematic senden reicht mir aller 60 Sek aus.
Leider bin ich mit den Arduino Sketchen nocht nicht so fit und habe mir jetzt ein Block in denn Loop rein geschrieben das die Fühler aller 5 Sek ausgelesern werden und im Display angezeigt werden.
Das Problem was ich jetzt habe: Ich kann das gerät nicht mher an die CCU2 anlernen, vermutlich weil der Arduino mit dem auslesen und anzeigen der Werte beschäftigt ist. Wie bzw wo muss ich mein Skript erweiter das das anlernen nicht behindert wird?
Code: Alles auswählen
void loop() {
bool worked = hal.runready();
bool poll = sdev.pollRadio();
if ( worked == false && poll == false ) {
if ( hal.battery.critical() ) {
hal.activity.sleepForever(hal);
}
hal.activity.savePower<Sleep<>>(hal);
}
// ######################## Sketch Erweiterung ########################
DallasTemperature sensors(&oneWire);
sensors.requestTemperatures();
String s_temp1 = " --.-";
String s_temp2 = " --.-";
String s_temp3 = " --.-";
String s_temp4 = " --.-";
s_temp1 = (sensors.getTempCByIndex(0));
s_temp2 = (sensors.getTempCByIndex(1));
s_temp3 = (sensors.getTempCByIndex(2));
s_temp4 = (sensors.getTempCByIndex(3));
s_temp1 = s_temp1.substring(0, s_temp1.length() - 1);
s_temp2 = s_temp2.substring(0, s_temp2.length() - 1);
s_temp3 = s_temp3.substring(0, s_temp3.length() - 1);
s_temp4 = s_temp4.substring(0, s_temp4.length() - 1);
Serial.println(String() + "Temperature 1 is: " + s_temp1 + "°C " + "Temperature 2 is: " + s_temp2 + "°C " + "Temperature 3 is: " + s_temp3 + "°C " + "Temperature 4 is: " + s_temp4 + "°C ");
#ifdef USE_LCD
lcd.setCursor(0, 0);
lcd.print(String() + "Temp1" + " : " + s_temp1 + (char)223 + "C");
lcd.setCursor(0, 1);
lcd.print(String() + "Temp2" + " : " + s_temp2 + (char)223 + "C");
lcd.setCursor(0, 2);
lcd.print(String() + "Temp3" + " : " + s_temp3 + (char)223 + "C");
lcd.setCursor(0, 3);
lcd.print(String() + "Temp4" + " : " + s_temp4 + (char)223 + "C");
// delay(5000);
#endif
// ######################## Sketcherweiterung ende ########################
}
Code: Alles auswählen
//- -----------------------------------------------------------------------------------------------------------------------
// AskSin++
// 2016-10-31 papa Creative Commons - http://creativecommons.org/licenses/by-nc-sa/3.0/de/
// 2018-03-24 jp112sdl Creative Commons - http://creativecommons.org/licenses/by-nc-sa/3.0/de/
//- -----------------------------------------------------------------------------------------------------------------------
// define this to read the device id, serial and device type from bootloader section
// #define USE_OTA_BOOTLOADER
#define USE_LCD
#define LCD_ADDRESS 0x27
#define EI_NOTEXTERNAL
#include <EnableInterrupt.h>
#include <AskSinPP.h>
#include <LowPower.h>
#include <Register.h>
#include <MultiChannelDevice.h>
#ifdef USE_LCD
#include <LiquidCrystal_I2C.h>
LiquidCrystal_I2C lcd(LCD_ADDRESS, 20, 4);
#endif
#include <DallasTemperature.h>
#include <OneWire.h>
#include <sensors/Ds18b20.h>
#define MAX_SENSORS 4
// Arduino Pro mini 8 Mhz
// Arduino pin for the config button
#define CONFIG_BUTTON_PIN 8
#define LED_PIN 4
// number of available peers per channel
#define PEERS_PER_CHANNEL 6
//DS18B20 Sensors connected to pin
OneWire oneWire(3);
// all library classes are placed in the namespace 'as'
using namespace as;
// define all device properties
const struct DeviceInfo PROGMEM devinfo = {
{0xf3, 0x01, 0x04}, // Device ID
"UNITEMP004", // Device Serial
{0xF3, 0x01}, // Device Model
0x10, // Firmware Version
as::DeviceType::THSensor, // Device Type
{0x01, 0x01} // Info Bytes
};
/**
Configure the used hardware
*/
typedef AvrSPI<10, 11, 12, 13> SPIType;
typedef Radio<SPIType, 2> RadioType;
typedef StatusLed<LED_PIN> LedType;
typedef AskSin<LedType, BatterySensor, RadioType> BaseHal;
class Hal : public BaseHal {
public:
void init (const HMID& id) {
BaseHal::init(id);
battery.init(seconds2ticks(60UL * 60), sysclock); //battery measure once an hour
battery.low(22);
battery.critical(18);
}
bool runready () {
return sysclock.runready() || BaseHal::runready();
}
} hal;
DEFREGISTER(UReg0, MASTERID_REGS, DREG_LOWBATLIMIT, 0x21, 0x22)
class UList0 : public RegList0<UReg0> {
public:
UList0 (uint16_t addr) : RegList0<UReg0>(addr) {}
bool Sendeintervall (uint16_t value) const {
return this->writeRegister(0x21, (value >> 8) & 0xff) && this->writeRegister(0x22, value & 0xff);
}
uint16_t Sendeintervall () const {
return (this->readRegister(0x21, 0) << 8) + this->readRegister(0x22, 0);
}
void defaults () {
clear();
lowBatLimit(22);
Sendeintervall(180);
}
};
DEFREGISTER(UReg1, 0x01, 0x02, 0x03, 0x04)
class UList1 : public RegList1<UReg1> {
public:
UList1 (uint16_t addr) : RegList1<UReg1>(addr) {}
bool Offset (int32_t value) const {
return
this->writeRegister(0x01, (value >> 24) & 0xff) &&
this->writeRegister(0x02, (value >> 16) & 0xff) &&
this->writeRegister(0x03, (value >> 8) & 0xff) &&
this->writeRegister(0x04, (value) & 0xff)
;
}
int32_t Offset () const {
return
((int32_t)(this->readRegister(0x01, 0)) << 24) +
((int32_t)(this->readRegister(0x02, 0)) << 16) +
((int32_t)(this->readRegister(0x03, 0)) << 8) +
((int32_t)(this->readRegister(0x04, 0)))
;
}
void defaults () {
clear();
Offset(0);
}
};
int32_t Offsets[MAX_SENSORS];
class WeatherEventMsg : public Message {
public:
void init(uint8_t msgcnt, Ds18b20* sensors, bool batlow, uint8_t channelFieldOffset) {
Message::init(0x16, msgcnt, 0x53, (msgcnt % 20 == 1) ? (BIDI | WKMEUP) : BCAST, batlow ? 0x80 : 0x00, 0x41 + channelFieldOffset);
int16_t t0 = sensors[0 + channelFieldOffset].temperature() + Offsets[0 + channelFieldOffset];
int16_t t1 = sensors[1 + channelFieldOffset].temperature() + Offsets[1 + channelFieldOffset];
int16_t t2 = sensors[2 + channelFieldOffset].temperature() + Offsets[2 + channelFieldOffset];
int16_t t3 = sensors[3 + channelFieldOffset].temperature() + Offsets[3 + channelFieldOffset];
pload[0] = (t0 >> 8) & 0xff;
pload[1] = (t0) & 0xff;
pload[2] = 0x42 + channelFieldOffset;
pload[3] = (t1 >> 8) & 0xff;
pload[4] = (t1) & 0xff;
pload[5] = 0x43 + channelFieldOffset;
pload[6] = (t2 >> 8) & 0xff;
pload[7] = (t2) & 0xff;
pload[8] = 0x44 + channelFieldOffset;
pload[9] = (t3 >> 8) & 0xff;
pload[10] = (t3) & 0xff;
}
};
class WeatherChannel : public Channel<Hal, UList1, EmptyList, List4, PEERS_PER_CHANNEL, UList0> {
public:
WeatherChannel () : Channel() {}
virtual ~WeatherChannel () {}
void configChanged() {
//DPRINT(F("(")); DDEC(number()); DPRINTLN(F(") Config changed List1"));
DPRINT(F("OFFSET: ")); DDECLN(this->getList1().Offset());
Offsets[number() - 1] = this->getList1().Offset();
}
uint8_t status () const {
return 0;
}
uint8_t flags () const {
return 0;
}
};
class UType : public MultiChannelDevice<Hal, WeatherChannel, MAX_SENSORS, UList0> {
class SensorArray : public Alarm {
UType& dev;
public:
uint8_t sensorcount;
Ds18b20 sensors[MAX_SENSORS];
SensorArray (UType& d) : Alarm(0), dev(d), sensorcount(0) {}
virtual void trigger (__attribute__ ((unused)) AlarmClock& clock) {
tick = delay();
sysclock.add(*this);
Ds18b20::measure(sensors, sensorcount);
DPRINT(F("Temperaturen: | "));
// for (int i = 0; i < MAX_SENSORS; i++) {
// DDEC(sensors[i].temperature()); DPRINT(" | ");
#ifdef USE_LCD
// uint8_t x = 0;
// uint8_t y = i;
// lcd.setCursor(x, y);
// String s_temp = " --.-";
// if ((i + 1) <= sensorcount) {
// s_temp = (String)((float)sensors[i].temperature() / 10.0);
// s_temp = s_temp.substring(0, s_temp.length() - 1);
// if (sensors[i].temperature() < 1000 && sensors[i].temperature() >= 0) s_temp = " " + s_temp;
// }
// String disp_temp;
#endif
// }
DPRINTLN("");
WeatherEventMsg& msg = (WeatherEventMsg&)dev.message();
//Aufteilung in 2 Messages, da sonst die max. BidCos Message Size (0x1a)? überschritten wird
msg.init(dev.nextcount(), sensors, dev.battery().low(), 0);
dev.send(msg, dev.getMasterID());
#if MAX_SENSORS > 4
_delay_ms(250);
msg.init(dev.nextcount(), sensors, dev.battery().low(), 4);
dev.send(msg, dev.getMasterID());
#endif
}
uint32_t delay () {
uint16_t _txMindelay = 180;
_txMindelay = dev.getList0().Sendeintervall();
if (_txMindelay == 0) _txMindelay = 180;
return seconds2ticks(_txMindelay);
}
} sensarray;
public:
typedef MultiChannelDevice<Hal, WeatherChannel, MAX_SENSORS, UList0> TSDevice;
UType(const DeviceInfo& info, uint16_t addr) : TSDevice(info, addr), sensarray(*this) {}
virtual ~UType () {}
virtual void configChanged () {
TSDevice::configChanged();
DPRINTLN("Config Changed List0");
DPRINT("LOW BAT Limit: ");
DDECLN(this->getList0().lowBatLimit());
this->battery().low(this->getList0().lowBatLimit());
DPRINT("Sendeintervall: "); DDECLN(this->getList0().Sendeintervall());
}
void init (Hal& hal) {
TSDevice::init(hal);
sensarray.sensorcount = Ds18b20::init(oneWire, sensarray.sensors, MAX_SENSORS);
DPRINT("Found "); DDEC(sensarray.sensorcount); DPRINTLN(" DS18B20 Sensors");
#ifdef USE_LCD
lcd.setCursor(2, 3);
lcd.print("Found Sensors: " + String(sensarray.sensorcount));
//Display leeren
_delay_ms(2000);
lcd.setCursor(0, 0);
lcd.print(F(" "));
lcd.setCursor(0, 1);
lcd.print(F(" "));
lcd.setCursor(0, 2);
lcd.print(F(" "));
lcd.setCursor(0, 3);
lcd.print(F(" "));
#endif
sensarray.set(seconds2ticks(5));
sysclock.add(sensarray);
}
};
UType sdev(devinfo, 0x20);
ConfigButton<UType> cfgBtn(sdev);
void setup () {
DINIT(115200, ASKSIN_PLUS_PLUS_IDENTIFIER);
memset(Offsets, 0, MAX_SENSORS);
DDEVINFO(sdev);
#ifdef USE_LCD
lcd.init();
lcd.backlight();
lcd.setCursor(0, 0);
lcd.print("UNI-Sen-TEMP-DS18B20");
lcd.setCursor(5, 1);
lcd.print((char*)serial);
HMID temp;
sdev.getDeviceID(temp);
lcd.setCursor(7, 2);
lcd.print(temp, HEX);
#endif
sdev.init(hal);
buttonISR(cfgBtn, CONFIG_BUTTON_PIN);
sdev.initDone();
}
void loop() {
bool worked = hal.runready();
bool poll = sdev.pollRadio();
if ( worked == false && poll == false ) {
if ( hal.battery.critical() ) {
hal.activity.sleepForever(hal);
}
hal.activity.savePower<Sleep<>>(hal);
}
// ######################## Sketch Erweiterung ########################
DallasTemperature sensors(&oneWire);
sensors.requestTemperatures();
String s_temp1 = " --.-";
String s_temp2 = " --.-";
String s_temp3 = " --.-";
String s_temp4 = " --.-";
s_temp1 = (sensors.getTempCByIndex(0));
s_temp2 = (sensors.getTempCByIndex(1));
s_temp3 = (sensors.getTempCByIndex(2));
s_temp4 = (sensors.getTempCByIndex(3));
s_temp1 = s_temp1.substring(0, s_temp1.length() - 1);
s_temp2 = s_temp2.substring(0, s_temp2.length() - 1);
s_temp3 = s_temp3.substring(0, s_temp3.length() - 1);
s_temp4 = s_temp4.substring(0, s_temp4.length() - 1);
Serial.println(String() + "Temperature 1 is: " + s_temp1 + "°C " + "Temperature 2 is: " + s_temp2 + "°C " + "Temperature 3 is: " + s_temp3 + "°C " + "Temperature 4 is: " + s_temp4 + "°C ");
#ifdef USE_LCD
lcd.setCursor(0, 0);
lcd.print(String() + "Temp1" + " : " + s_temp1 + (char)223 + "C");
lcd.setCursor(0, 1);
lcd.print(String() + "Temp2" + " : " + s_temp2 + (char)223 + "C");
lcd.setCursor(0, 2);
lcd.print(String() + "Temp3" + " : " + s_temp3 + (char)223 + "C");
lcd.setCursor(0, 3);
lcd.print(String() + "Temp4" + " : " + s_temp4 + (char)223 + "C");
// delay(5000);
#endif
// ######################## Sketcherweiterung ende ########################
}
}