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NodeManagerLibrary.h
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/*
* NodeManager Library
*/
#ifndef NodeManager_h
#define NodeManager_h
#include <Arduino.h>
// define NodeManager version
#define VERSION "1.7-dev"
/***********************************
Constants
*/
// define board status
#define AWAKE 0
#define SLEEP 1
// define time unit
#define SECONDS 0
#define MINUTES 1
#define HOURS 2
#define DAYS 3
// define on/off
#define OFF 0
#define ON 1
// define value type
#define TYPE_INTEGER 0
#define TYPE_FLOAT 1
#define TYPE_STRING 2
#define TYPE_DOUBLE 2
// define interrupt pins
#define INTERRUPT_PIN_1 3
#define INTERRUPT_PIN_2 2
// define eeprom addresses
#define EEPROM_SLEEP_SAVED 0
#define EEPROM_SLEEP_1 5
#define EEPROM_SLEEP_2 6
#define EEPROM_SLEEP_3 7
#define EEPROM_USER_START 100
/***********************************
Default configuration settings
*/
// if enabled, allow modifying the configuration remotely by interacting with the configuration child id
// the child id used to allow remote configuration
#ifndef CONFIGURATION_CHILD_ID
#define CONFIGURATION_CHILD_ID 200
#endif
// the child id used to report the battery voltage to the controller
#ifndef BATTERY_CHILD_ID
#define BATTERY_CHILD_ID 201
#endif
// the child id used to report the rssi level to the controller
#ifndef SIGNAL_CHILD_ID
#define SIGNAL_CHILD_ID 202
#endif
// define default sketch name and version
#ifndef SKETCH_NAME
#define SKETCH_NAME "NodeManager"
#endif
#ifndef SKETCH_VERSION
#define SKETCH_VERSION "1.0"
#endif
/***********************************
Libraries
*/
// include supporting libraries
#ifdef MY_USE_UDP
#include <WiFiUdp.h>
#endif
#ifdef MY_GATEWAY_ESP8266
#include <ESP8266WiFi.h>
#endif
// load MySensors library
#include <MySensors.h>
// include third party libraries
#ifdef USE_DHT
#include <DHT.h>
#endif
#ifdef USE_SHT21
#include <Wire.h>
#include <Sodaq_SHT2x.h>
#endif
#ifdef USE_DS18B20
#include <OneWire.h>
#include <DallasTemperature.h>
#endif
#ifdef USE_BH1750
#include <BH1750.h>
#include <Wire.h>
#endif
#ifdef USE_MLX90614
#include <Wire.h>
#include <Adafruit_MLX90614.h>
#endif
#ifdef USE_BME280
#include <Wire.h>
#include <SPI.h>
#include <Adafruit_Sensor.h>
#include <Adafruit_BME280.h>
#endif
#ifdef USE_SONOFF
#include <Bounce2.h>
#endif
#ifdef USE_BMP085
#include <Wire.h>
#include <Adafruit_BMP085.h>
#endif
#ifdef USE_HCSR04
#include <NewPing.h>
#endif
#ifdef USE_MCP9808
#include <Wire.h>
#include "Adafruit_MCP9808.h"
#endif
#ifdef USE_MHZ19
#include <SoftwareSerial.h>
#endif
#ifdef USE_AM2320
#include <Wire.h>
#include <AM2320.h>
#endif
#ifdef USE_TSL2561
#include <TSL2561.h>
#include <Wire.h>
#endif
#ifdef USE_PT100
#include <DFRobotHighTemperatureSensor.h>
#endif
#ifdef USE_BMP280
#include <Wire.h>
#include <Adafruit_Sensor.h>
#include <Adafruit_BMP280.h>
#endif
#ifdef USE_DIMMER
#include <math.h>
#endif
#ifdef USE_PMS
#include <PMS.h>
#include <SoftwareSerial.h>
#endif
#ifdef USE_VL53L0X
#include <Wire.h>
#include <VL53L0X.h>
#endif
#ifdef USE_SSD1306
#include <SSD1306Ascii.h>
#include <SSD1306AsciiAvrI2c.h>
#endif
#ifdef USE_SHT31
#include <Wire.h>
#include "Adafruit_SHT31.h"
#endif
#if FEATURE_TIME == ON
#include <TimeLib.h>
#endif
#if FEATURE_RTC == ON
#define FEATURE_TIME ON
#include <DS3232RTC.h>
#endif
/*******************************************************************
Classes
*/
class NodeManager;
class Sensor;
/*
* List
*/
template<typename T> class List {
public:
typedef T* iterator;
List() {
_internalArray = NULL;
_endPosition = 0;
_allocBlocks = 0;
}
~List() {
delete[] _internalArray;
_internalArray = NULL;
_endPosition = 0;
_allocBlocks = 0;
}
void push(T item) {
if (_endPosition == _allocBlocks) _AllocOneBlock(false);
_internalArray[_endPosition] = item;
++_endPosition;
}
void pop() {
if (_endPosition == 0) return;
--_endPosition;
_DeAllocOneBlock(false);
}
T get(int position) {
position = position -1;
if (position > _endPosition) position = _endPosition;
return _internalArray[position];
}
inline iterator begin() { return _internalArray; }
inline iterator end() { return _internalArray + _endPosition; }
inline bool empty() { return (_endPosition == 0); }
inline unsigned int size() { return _endPosition; }
void allocateBlocks(int alloc) {
_allocBlocks = alloc;
T* newArray = new T[_allocBlocks];
for (int i = 0; i < _endPosition; ++i) newArray[i] = _internalArray[i];
delete[] _internalArray;
_internalArray = newArray;
}
private:
T* _internalArray;
int _endPosition;
int _allocBlocks;
void _AllocOneBlock(bool shiftItems) {
++_allocBlocks;
T* newArray = new T[_allocBlocks];
for (int i = 0; i < _endPosition; ++i) newArray[shiftItems ? (i + 1) : i] = _internalArray[i];
delete[] _internalArray;
_internalArray = newArray;
}
void _DeAllocOneBlock(bool shiftItems) {
--_allocBlocks;
if (_allocBlocks == 0) {
delete[] _internalArray;
_internalArray = NULL;
return;
}
T* newArray = new T[_allocBlocks];
for (int i = 0; i < _endPosition; ++i) newArray[i] = _internalArray[shiftItems ? (i + 1) : i];
delete[] _internalArray;
_internalArray = newArray;
}
};
/*
PowerManager
*/
#if FEATURE_POWER_MANAGER == ON
class PowerManager {
public:
PowerManager(int ground_pin, int vcc_pin, int wait_time = 50);
// to save battery the sensor can be optionally connected to two pins which will act as vcc and ground and activated on demand
void setPowerPins(int ground_pin, int vcc_pin, int wait_time = 50);
// if enabled the pins will be automatically powered on while awake and off during sleeping
// turns the power pins on
void powerOn();
// turns the power pins on
void powerOff();
private:
int _vcc_pin = -1;
int _ground_pin = -1;
long _wait = 0;
};
#endif
/*
Timer
*/
class Timer {
public:
Timer(NodeManager* node_manager);
// start the timer which will be over when the configured target passes by
void start(int target, int unit);
void start();
// stop the timer
void stop();
// reset the timer
void reset();
// reset the timer and start over
void restart();
// set the timer configuration but do not start it
void set(int target, int unit);
void unset();
// update the timer. To be called at every cycle
void update();
// return true if the time is over
bool isOver();
// return true if the timer is running
bool isRunning();
// return true if the timer has been configured
bool isConfigured();
// return true if this is the first time the timer runs
bool isFirstRun();
// return the current elapsed time
float getElapsed();
private:
NodeManager* _node;
int _target = 0;
long _elapsed = 0;
bool _is_running = false;
bool _is_configured = false;
bool _first_run = true;
long _last = 0;
};
/*
Request
*/
class Request {
public:
Request(int child_id, const char* string);
// return the child id the message has been requested to
int getRecipientChildId();
// return the child id the request is for
int getChildId();
// return the parsed function
int getFunction();
// return the value as an int
int getValueInt();
// return the value as a float
float getValueFloat();
private:
int _function = -1;
int _child_id = -1;
int _recipient_child_id = -1;
float _value;
};
/***************************************
Child: child class
*/
class Child {
public:
Child();
Child(Sensor* sensor, int child_id, int presentation, int type, const char* description = "");
int child_id;
int presentation = S_CUSTOM;
int type = V_CUSTOM;
const char* description = "";
virtual void sendValue();
virtual void printOn(Print& p);
#if FEATURE_TRACK_LAST_VALUE == ON
Timer* force_update_timer;
virtual bool isNewValue();
#endif
protected:
int _samples = 0;
Sensor* _sensor;
};
class ChildInt: public Child {
public:
ChildInt(Sensor* sensor, int child_id, int presentation, int type, const char* description = "");
void setValueInt(int value);
int getValueInt();
void sendValue();
void printOn(Print& p);
#if FEATURE_TRACK_LAST_VALUE == ON
bool isNewValue();
#endif
private:
int _value;
#if FEATURE_TRACK_LAST_VALUE == ON
int _last_value;
#endif
int _total = 0;
};
class ChildFloat: public Child {
public:
ChildFloat(Sensor* sensor, int child_id, int presentation, int type, const char* description = "");
void setValueFloat(float value);
float getValueFloat();
void sendValue();
void printOn(Print& p);
#if FEATURE_TRACK_LAST_VALUE == ON
bool isNewValue();
#endif
private:
float _value;
#if FEATURE_TRACK_LAST_VALUE == ON
float _last_value;
#endif
float _total = 0;
};
class ChildDouble: public Child {
public:
ChildDouble(Sensor* sensor, int child_id, int presentation, int type, const char* description = "");
void setValueDouble(double value);
double getValueDouble();
void sendValue();
void printOn(Print& p);
#if FEATURE_TRACK_LAST_VALUE == ON
bool isNewValue();
#endif
private:
double _value;
#if FEATURE_TRACK_LAST_VALUE == ON
double _last_value;
#endif
double _total = 0;
};
class ChildString: public Child {
public:
ChildString(Sensor* sensor, int child_id, int presentation, int type, const char* description = "");
void setValueString(const char* value);
const char* getValueString();
void sendValue();
void printOn(Print& p);
#if FEATURE_TRACK_LAST_VALUE == ON
bool isNewValue();
#endif
private:
const char* _value = "";
#if FEATURE_TRACK_LAST_VALUE == ON
const char* _last_value = "";
#endif
};
/***************************************
Sensor: generic sensor class
*/
class Sensor {
public:
Sensor();
Sensor(NodeManager& node_manager, int pin = -1);
// return the name of the sensor
const char* getName();
// [1] where the sensor is attached to (default: not set)
void setPin(int value);
int getPin();
// [5] For some sensors, the measurement can be queried multiple times and an average is returned (default: 1)
void setSamples(int value);
// [6] If more then one sample has to be taken, set the interval in milliseconds between measurements (default: 0)
void setSamplesInterval(int value);
#if FEATURE_TRACK_LAST_VALUE == ON
// [7] if true will report the measure only if different than the previous one (default: false)
void setTrackLastValue(bool value);
// [9] if track last value is enabled, force to send an update after the configured number of minutes
void setForceUpdateMinutes(int value);
#endif
#if FEATURE_POWER_MANAGER == ON
// to save battery the sensor can be optionally connected to two pins which will act as vcc and ground and activated on demand
void setPowerPins(int ground_pin, int vcc_pin, int wait_time = 50);
// [13] manually turn the power on
void powerOn();
// [14] manually turn the power off
void powerOff();
#endif
// [17] After how many minutes the sensor will report back its measure (default: 10 minutes)
void setReportIntervalSeconds(int value);
// [16] After how many minutes the sensor will report back its measure (default: 10 minutes)
void setReportIntervalMinutes(int value);
// [19] After how many hours the sensor will report back its measure (default: 10 minutes)
void setReportIntervalHours(int value);
// [20] After how many days the sensor will report back its measure (default: 10 minutes)
void setReportIntervalDays(int value);
// return true if the report interval has been already configured
bool isReportIntervalConfigured();
#if FEATURE_INTERRUPTS == ON
// return the pin the interrupt is attached to
int getInterruptPin();
// listen for interrupts on the given pin so interrupt() will be called when occurring
void setInterrupt(int pin, int mode, int initial);
#endif
#if FEATURE_POWER_MANAGER == ON
// set a previously configured PowerManager to the sensor so to powering it up with custom pins
void setPowerManager(PowerManager& powerManager);
#endif
// list of configured child
List<Child*> children;
#if FEATURE_INTERRUPTS == ON
void interrupt();
#endif
Child* getChild(int child_id);
// register a child
void registerChild(Child* child);
NodeManager* _node;
// define what to do at each stage of the sketch
void before();
void presentation();
void setup();
void loop(MyMessage* message);
void receive(MyMessage &message);
// abstract functions, subclasses need to implement
virtual void onBefore();
virtual void onSetup();
virtual void onLoop(Child* child);
virtual void onReceive(MyMessage* message);
virtual void onInterrupt();
protected:
const char* _name = "";
int _pin = -1;
int _samples = 1;
int _samples_interval = 0;
#if FEATURE_TRACK_LAST_VALUE == ON
bool _track_last_value = false;
#endif
#if FEATURE_INTERRUPTS == ON
int _interrupt_pin = -1;
#endif
#if FEATURE_POWER_MANAGER == ON
PowerManager* _powerManager = nullptr;
#endif
Timer* _report_timer;
};
/*
SensorBattery: report battery level
*/
class SensorBattery: public Sensor {
public:
SensorBattery(NodeManager& nodeManager, int child_id = BATTERY_CHILD_ID);
// [102] the expected vcc when the batter is fully discharged, used to calculate the percentage (default: 2.7)
void setMinVoltage(float value);
// [103] the expected vcc when the batter is fully charged, used to calculate the percentage (default: 3.3)
void setMaxVoltage(float value);
// [104] if true, the battery level will be evaluated by measuring the internal vcc without the need to connect any pin, if false the voltage divider methon will be used (default: true)
void setBatteryInternalVcc(bool value);
// [105] if setBatteryInternalVcc() is set to false, the analog pin to which the battery's vcc is attached (https://www.mysensors.org/build/battery) (default: -1)
void setBatteryPin(int value);
// [106] if setBatteryInternalVcc() is set to false, the volts per bit ratio used to calculate the battery voltage (default: 0.003363075)
void setBatteryVoltsPerBit(float value);
// define what to do at each stage of the sketch
void onSetup();
void onLoop(Child* child);
void onReceive(MyMessage* message);
protected:
float _battery_min = 2.6;
float _battery_max = 3.3;
bool _battery_internal_vcc = true;
int _battery_pin = -1;
float _battery_volts_per_bit = 0.003363075;
};
#ifdef MY_SIGNAL_REPORT_ENABLED
/*
SensorSignal: report RSSI signal strength from the radio
*/
class SensorSignal: public Sensor {
public:
SensorSignal(NodeManager& nodeManager, int child_id = SIGNAL_CHILD_ID);
// [101] define which signal report to send. Possible values are SR_UPLINK_QUALITY, SR_TX_POWER_LEVEL, SR_TX_POWER_PERCENT, SR_TX_RSSI, SR_RX_RSSI, SR_TX_SNR, SR_RX_SNR (default: SR_RX_RSSI)
void setSignalCommand(int value);
// define what to do at each stage of the sketch
void onLoop(Child* child);
void onReceive(MyMessage* message);
protected:
int _signal_command = SR_RX_RSSI;
};
#endif
/*
SensorConfiguration: allow remote configuration of the board and any configured sensor
*/
class SensorConfiguration: public Sensor {
public:
SensorConfiguration(NodeManager& nodeManager);
// define what to do at each stage of the sketch
void onBefore();
void onSetup();
void onLoop(Child* child);
void onReceive(MyMessage* message);
protected:
};
#ifdef USE_ANALOG_INPUT
/*
SensorAnalogInput: read the analog input of a configured pin
*/
class SensorAnalogInput: public Sensor {
public:
SensorAnalogInput(NodeManager& node_manager, int pin, int child_id = -255);
// [101] the analog reference to use (default: not set, can be either INTERNAL or DEFAULT)
void setReference(int value);
// [102] reverse the value or the percentage (e.g. 70% -> 30%) (default: false)
void setReverse(bool value);
// [103] when true returns the value as a percentage (default: true)
void setOutputPercentage(bool value);
// [104] minimum value for calculating the percentage (default: 0)
void setRangeMin(int value);
// [105] maximum value for calculating the percentage (default: 1024)
void setRangeMax(int value);
// define what to do at each stage of the sketch
void onSetup();
void onLoop(Child* child);
void onReceive(MyMessage* message);
protected:
int _reference = -1;
bool _reverse = false;
bool _output_percentage = true;
int _range_min = 0;
int _range_max = 1024;
int _getPercentage(int value);
int _getAnalogRead();
};
/*
SensorLDR: return the percentage of light from a Light dependent resistor
*/
class SensorLDR: public SensorAnalogInput {
public:
SensorLDR(NodeManager& node_manager, int pin, int child_id = -255);
// define what to do at each stage of the sketch
void onSetup();
};
/*
SensorRain
*/
class SensorRain: public SensorAnalogInput {
public:
SensorRain(NodeManager& node_manager, int pin, int child_id = -255);
// define what to do at each stage of the sketch
void onSetup();
};
/*
SensorSoilMoisture
*/
class SensorSoilMoisture: public SensorAnalogInput {
public:
SensorSoilMoisture(NodeManager& node_manager, int pin, int child_id = -255);
// define what to do at each stage of the sketch
void onSetup();
};
#endif
#ifdef USE_THERMISTOR
/*
SensorThermistor: read the temperature from a thermistor
*/
class SensorThermistor: public Sensor {
public:
SensorThermistor(NodeManager& node_manager, int pin, int child_id = -255);
// [101] resistance at 25 degrees C (default: 10000)
void setNominalResistor(long value);
// [102] temperature for nominal resistance (default: 25)
void setNominalTemperature(int value);
// [103] The beta coefficient of the thermistor (default: 3950)
void setBCoefficient(int value);
// [104] the value of the resistor in series with the thermistor (default: 10000)
void setSeriesResistor(long value);
// [105] set a temperature offset
void setOffset(float value);
// define what to do at each stage of the sketch
void onSetup();
void onLoop(Child* child);
void onReceive(MyMessage* message);
protected:
long _nominal_resistor = 10000;
int _nominal_temperature = 25;
int _b_coefficient = 3950;
long _series_resistor = 10000;
float _offset = 0;
};
#endif
#ifdef USE_ML8511
/*
SensorML8511
*/
class SensorML8511: public Sensor {
public:
SensorML8511(NodeManager& node_Manager, int pin, int child_id = -255);
// define what to do at each stage of the sketch
void onSetup();
void onLoop(Child* child);
void onReceive(MyMessage* message);
protected:
float _mapfloat(float x, float in_min, float in_max, float out_min, float out_max);
};
#endif
#ifdef USE_ACS712
/*
SensorACS712
*/
class SensorACS712: public Sensor {
public:
SensorACS712(NodeManager& node_manager, int pin, int child_id = -255);
// [101] set how many mV are equivalent to 1 Amp. The value depends on the module (100 for 20A Module, 66 for 30A Module) (default: 185);
void setmVPerAmp(int value);
// [102] set ACS offset (default: 2500);
void setOffset(int value);
// define what to do at each stage of the sketch
void onSetup();
void onLoop(Child* child);
void onReceive(MyMessage* message);
protected:
int _ACS_offset = 2500;
int _mv_per_amp = 185;
};
#endif
#ifdef USE_DIGITAL_INPUT
/*
SensorDigitalInput: read the digital input of the configured pin
*/
class SensorDigitalInput: public Sensor {
public:
SensorDigitalInput(NodeManager& node_manager, int pin, int child_id = -255);
// define what to do at each stage of the sketch
void onSetup();
void onLoop(Child* child);
void onReceive(MyMessage* message);
};
#endif
#ifdef USE_DIGITAL_OUTPUT
/*
SensorDigitalOutput: control a digital output of the configured pin
*/
class SensorDigitalOutput: public Sensor {
public:
SensorDigitalOutput(NodeManager& node_manager, int pin, int child_id = -255);
// [103] define which value to set to the output when set to on (default: HIGH)
void setOnValue(int value);
// [104] when legacy mode is enabled expect a REQ message to trigger, otherwise the default SET (default: false)
void setLegacyMode(bool value);
// [105] automatically turn the output off after the given number of minutes
void setSafeguard(int value);
// [106] if true the input value becomes a duration in minutes after which the output will be automatically turned off (default: false)
void setInputIsElapsed(bool value);
// [107] optionally wait for the given number of milliseconds after changing the status (default: 0)
void setWaitAfterSet(int value);
// manually switch the output to the provided value
void setStatus(Child* child, int value);
// get the current state
int getStatus();
void onSetup();
void onLoop(Child* child);
void onReceive(MyMessage* message);
protected:
int _on_value = HIGH;
int _status = OFF;
bool _legacy_mode = false;
bool _input_is_elapsed = false;
int _wait_after_set = 0;
Timer* _safeguard_timer;
void _setupPin(Child* child, int pin);
virtual void _setStatus(Child* child, int value);
int _getValueToWrite(int value);
};
/*
SensorRelay
*/
class SensorRelay: public SensorDigitalOutput {
public:
SensorRelay(NodeManager& node_manager, int pin, int child_id = -255);
};
/*
SensorLatchingRelay
*/
class SensorLatchingRelay: public SensorRelay {
public:
SensorLatchingRelay(NodeManager& node_manager, int pin, int child_id = -255);
// [201] set the duration of the pulse to send in ms to activate the relay (default: 50)
void setPulseWidth(int value);
// [202] set the pin which turns the relay off (default: the pin provided while registering the sensor)
void setPinOff(int value);
// [203] set the pin which turns the relay on (default: the pin provided while registering the sensor + 1)
void setPinOn(int value);
// define what to do at each stage of the sketch
void onSetup();
protected:
int _pin_on;
int _pin_off;
int _pulse_width = 50;
void _setStatus(Child* child, int value);
};
#endif
/*
SensorDHT
*/
#ifdef USE_DHT
class SensorDHT: public Sensor {
public:
SensorDHT(NodeManager& node_manager, int pin, int child_id = -255);
// define what to do at each stage of the sketch
void onSetup();
void onLoop(Child* child);
void onReceive(MyMessage* message);
protected:
DHT* _dht;
int _dht_type;
float _offset = 0;
};
/*
SensorDHT11
*/
class SensorDHT11: public SensorDHT {
public:
SensorDHT11(NodeManager& node_manager, int pin, int child_id = -255);
};
/*
SensorDHT22
*/
class SensorDHT22: public SensorDHT {
public:
SensorDHT22(NodeManager& node_manager, int pin, int child_id = -255);
};
#endif
/*
SensorSHT21: temperature and humidity sensor
*/
#ifdef USE_SHT21
class SensorSHT21: public Sensor {
public:
SensorSHT21(NodeManager& node_manager, int child_id = -255);
// define what to do at each stage of the sketch
void onSetup();
void onLoop(Child* child);
void onReceive(MyMessage* message);
protected:
};
/*
SensorHTU21D: temperature and humidity sensor
*/
class SensorHTU21D: public SensorSHT21 {
public:
SensorHTU21D(NodeManager& nodeManager, int child_id = -255);
};
#endif
/*
* SensorSwitch
*/
#ifdef USE_SWITCH
class SensorSwitch: public Sensor {
public:
SensorSwitch(NodeManager& node_manager, int pin, int child_id = -255);
// [101] set the interrupt mode. Can be CHANGE, RISING, FALLING (default: CHANGE)
void setMode(int value);
// [102] milliseconds to wait before reading the input (default: 0)
void setDebounce(int value);
// [103] time to wait in milliseconds after a change is detected to allow the signal to be restored to its normal value (default: 0)
void setTriggerTime(int value);
// [104] Set initial value on the interrupt pin (default: HIGH)
void setInitial(int value);
// [105] Set active state (default: HIGH)
void setActiveState(int value);
// define what to do at each stage of the sketch
void onSetup();
void onLoop(Child* child);
void onReceive(MyMessage* message);
void onInterrupt();
protected:
int _debounce = 0;
int _trigger_time = 0;
int _mode = CHANGE;
int _initial = HIGH;
int _active_state = HIGH;
};
/*
* SensorDoor
*/
class SensorDoor: public SensorSwitch {
public:
SensorDoor(NodeManager& node_manager, int pin, int child_id = -255);
};
/*
* SensorMotion
*/
class SensorMotion: public SensorSwitch {
public:
SensorMotion(NodeManager& node_manager, int pin, int child_id = -255);
void onSetup();
};
#endif
/*
SensorDs18b20
*/
#ifdef USE_DS18B20
class SensorDs18b20: public Sensor {
public:
SensorDs18b20(NodeManager& node_manager, int pin, int child_id = -255);
// returns the sensor's resolution in bits
int getResolution();
// [101] set the sensor's resolution in bits
void setResolution(int value);
// [102] sleep while DS18B20 calculates temperature (default: false)
void setSleepDuringConversion(bool value);
// define what to do at each stage of the sketch
void onLoop(Child* child);
void onReceive(MyMessage* message);
protected:
bool _sleep_during_conversion = false;
DallasTemperature* _sensors;
};
#endif
/*
SensorBH1750
*/
#ifdef USE_BH1750
class SensorBH1750: public Sensor {
public:
SensorBH1750(NodeManager& node_manager, int child_id = -255);
// [101] set sensor reading mode, e.g. BH1750_ONE_TIME_HIGH_RES_MODE
void setMode(uint8_t mode);
// define what to do at each stage of the sketch
void onSetup();
void onLoop(Child* child);
void onReceive(MyMessage* message);
protected:
BH1750* _lightSensor;
};
#endif
/*
SensorMLX90614
*/
#ifdef USE_MLX90614
class SensorMLX90614: public Sensor {
public:
SensorMLX90614(NodeManager& node_manager, int child_id = -255);
// define what to do at each stage of the sketch
void onSetup();
void onLoop(Child* child);
void onReceive(MyMessage* message);
protected:
Adafruit_MLX90614* _mlx;
int _sensor_type;
};
#endif
/*
* SensorBosch
*/
#if defined(USE_BME280) || defined(USE_BMP085) || defined(USE_BMP280)
class SensorBosch: public Sensor {
public:
SensorBosch(NodeManager& node_manager, int child_id = -255);
// [101] define how many pressure samples to keep track of for calculating the forecast (default: 5)
void setForecastSamplesCount(int value);
// define what to do at each stage of the sketch
void onReceive(MyMessage* message);
static uint8_t GetI2CAddress(uint8_t chip_id);
protected:
char* _weather[6] = { "stable", "sunny", "cloudy", "unstable", "thunderstorm", "unknown" };
int _forecast_samples_count = 5;
float* _forecast_samples;
int _minute_count = 0;
float _pressure_avg;
float _pressure_avg2;
float _dP_dt;
bool _first_round = true;
float _getLastPressureSamplesAverage();
char* _forecast(float pressure);
};
#endif
/*
SensorBME280
*/
#ifdef USE_BME280
class SensorBME280: public SensorBosch {
public:
SensorBME280(NodeManager& node_manager, int child_id = -255);
// define what to do at each stage of the sketch
void onSetup();
void onLoop(Child* child);
protected:
Adafruit_BME280* _bm;
};
#endif
/*
SensorBMP085
*/
#ifdef USE_BMP085
class SensorBMP085: public SensorBosch {
public:
SensorBMP085(NodeManager& node_manager, int child_id = -255);
// define what to do at each stage of the sketch
void onSetup();
void onLoop(Child* child);
protected: