Documentazione del codice

The C++ API documentation is also available as doxgen documentation.

union addr16_t

Public Members

uint8_t *bptr

uint16_t *wptr

uint16_t word

uint8_t bytes[2]

struct bin_value_t

Public Members

uint16_t sample: last sample

uint16_t med: average values of observations

uint16_t sigma: standard deviation of observations

class BitBangedSPI

Public Functions

inline void begin()

inline void beginTransaction(SPISettings settings)

inline void end()

inline uint8_t transfer(uint8_t b)

Private Members

unsigned long pulseWidth

struct configuration_t

#include <i2c-leaf.h>

EEPROM saved configuration.

Public Members

uint8_t module_main_version: module main version

uint8_t module_configuration_version: module configuration version

uint8_t module_type: module type

uint8_t i2c_address: i2c address

bool is_oneshot: enable or disable oneshot mode

uint16_t leaf_calibration_threshold

uint8_t module_version: module version

bool is_continuous

enable or disable continuous mode

NOT USED enable or disable continuous mode.

uint16_t adc_voltage_max_panel

uint16_t adc_voltage_max_battery

float adc_voltage_offset_1

float adc_voltage_offset_2

float adc_voltage_min

float adc_voltage_max

float adc_calibration_offset[ADS1115_CHANNEL_COUNT]

float adc_calibration_gain[ADS1115_CHANNEL_COUNT]

float sensor_rad_max[ADS1115_CHANNEL_COUNT]

float sensor_voltage_max[ADS1115_CHANNEL_COUNT]

uint16_t tipping_bucket_time_ms: Tipping bucket time in milliseconds.

uint8_t rain_for_tip: How much mm of rain for one tip of tipping bucket rain gauge.

sensor_conf_t sensors[2]

sensors configurations

SensorDriver buffer for storing sensors parameter.

sensor_t sensors[SENSORS_MAX]: SensorDriver buffer for storing sensors parameter.

uint8_t sensors_count: configured sensors number

uint16_t report_seconds: seconds for report values

constantdata_t constantdata[USE_CONSTANTDATA_COUNT]: Constantdata buffer for storing constant station data parameter.

uint8_t constantdata_count: configured constantdata number

bool is_dhcp_enable: dhcp status

uint8_t ethernet_mac[ETHERNET_MAC_LENGTH]: ethernet mac

uint8_t ip[ETHERNET_IP_LENGTH]: ip address

uint8_t netmask[ETHERNET_IP_LENGTH]: netmask

uint8_t gateway[ETHERNET_IP_LENGTH]: gateway

uint8_t primary_dns[ETHERNET_IP_LENGTH]: primary dns

struct constantdata_t

Public Members

char btable[CONSTANTDATA_BTABLE_LENGTH]: table B code for constant station data

char value[CONSTANTDATA_VALUE_LENGTH]: value of constant station data

struct data_t

Public Members

int16_t sample_panel

int16_t sample_battery

int16_t avg_panel

int16_t avg_battery

int16_t sample

int16_t avg

struct db_data_t

Public Members

int id

frtosLogging *logger

Queue *dbqueue

Queue *mqttqueue

BinarySemaphore *recoverysemaphore

BinaryQueue *recoveryqueue

dbStatus_t *status

station_t *station

File *logFile

struct dbStatus_t

Public Members

status_e database: stato di funzionamento del DataBase

class dbThread : public Thread

Public Functions

dbThread(db_data_t *db_data)

Constructor to create a DB thread.

Parametri:: db_data -- data used by thread.

~dbThread()

virtual void Cleanup()

Protected Functions

virtual void Run()

Private Functions

bool doDb(const mqttMessage_t&)

int db_exec(const char*)

bool db_obsolete(bool &obsolete)

bool db_remove()

void db_setup()

bool data_purge(const bool flush, int messages)

bool data_recovery()

bool data_set_recovery()

bool db_restart()

Private Members

db_data_t *data

sqlite3 *db

uint8_t sqlite_memory[SQLITE_MEMORY]

bool sqlite_status

rpcRecovery_t rpcrecovery

File archiveFile: File for archive on SD-Card.

struct DIR

Public Members

WORD index

BYTE *fn

CLUST sclust

CLUST clust

DWORD sect

struct FatFileDesc

Public Members

uint32_t firstFatBlock

uint32_t dataBlock

uint8_t blocksPerCluster

struct FATFS

Public Members

BYTE fs_type

BYTE flag

BYTE csize

BYTE pad1

WORD n_rootdir

CLUST n_fatent

DWORD fatbase

DWORD dirbase

DWORD database

DWORD fptr

DWORD fsize

CLUST org_clust

CLUST curr_clust

DWORD dsect

struct FILINFO

Public Members

DWORD fsize

WORD fdate

WORD ftime

BYTE fattrib

char fname[13]

struct float_observation_t

Public Members

float med[OBSERVATION_COUNT]: buffer containing the mean values calculated on a one sample buffer respectively

uint16_t count: number of observations

float *read_ptr: reader pointer to buffer (read observations for calculate report value)

float *write_ptr: writer pointer to buffer (add new observation)

struct georef_t

Public Members

char lon[11]: longitudine in sessadecimale 5 decimali rappresentazione intera

char lat[11]: latitudine in sessadecimale 5 decimali rappresentazione intera

time_t timestamp: timestamp delle coordinate

cpp_freertos::MutexStandard *mutex: mutex per l'accesso ai dati

struct gps_data_t

Public Members

int id

frtosLogging *logger

gpsStatus_t *status

georef_t *georef

frtosRtc *frtosRTC

struct gpsStatus_t

Public Members

status_e receive: stato della ricezione dei dati per georeferenziazione

class gpsThread : public Thread

Public Functions

gpsThread(gps_data_t *gps_data)

Constructor to create a GPS thread.

Parametri:: gps_data -- data used by thread.

~gpsThread()

virtual void Cleanup()

Protected Functions

virtual void Run()

Private Functions

void GPS_SerialInit()

void doSerialNmea()

Private Members

gps_data_t *data

struct ihex_state

Public Members

ihex_address_t address

ihex_segment_t segment

ihex_flags_t flags

uint8_t line_length

uint8_t length

uint8_t data[IHEX_LINE_MAX_LENGTH + 1]

struct leaf_wetness_t

#include <i2c-leaf.h>

Leaf wetness data.

Public Members

uint32_t time: time in seconds that indicates wet leaf

struct measure_data_t

Public Members

int id

frtosLogging *logger

Queue *mqttqueue

Queue *dbqueue

measureStatus_t *status

station_t *station

summarydata_t *summarydata

MutexStandard *i2cmutex

georef_t *georef

sensor_t sensors[SENSORS_MAX]

uint8_t sensors_count

struct measureStatus_t

Public Members

status_e novalue: stato delle misurazioni

status_e sensor: stato dei sensori

status_e geodef: stato dei dati di georefenzazione per la pubblicazione

class measureThread : public Thread

Public Functions

measureThread(measure_data_t *measure_data)

~measureThread()

virtual void Cleanup()

void Begin()

Protected Functions

virtual void Run()

Private Functions

void reset_summary_data_in_progress()

void update_summary_data()

void doMeasure()

void enqueueMqttMessage(uint8_t i)

void get_summary_data_in_progress(uint8_t i)

Private Members

measure_data_t *data

summarydata_t summarydata_in_progress

SensorDriver *sd[SENSORS_MAX]

sensorManage sensorm[SENSORS_MAX]

uint8_t sensors_count

struct mqttMessage_t

Public Members

uint8_t sent

char topic[MQTT_ROOT_TOPIC_LENGTH + MQTT_SENSOR_TOPIC_LENGTH]

char payload[MQTT_MESSAGE_LENGTH]

struct observation_t

#include <i2c-opc.h>

Observations values for opc.

Observations values for temperature and humidity NOT USED / typedef struct { int32_t values[OBSERVATION_COUNT]; //!< buffer containing the mean values calculated on a one sample buffer respectively uint16_t count; //!< number of observations uint32_t *read_ptr; //!< reader pointer to buffer (read observations for calculate report value) uint32_t *write_ptr; //!< writer pointer to buffer (add new observation) } observation_t;.

/********************************************************************* TYPEDEF for Finite State Machine

struct param

Public Members

uint8_t devicecode

uint8_t revision

uint8_t progtype

uint8_t parmode

uint8_t polling

uint8_t selftimed

uint8_t lockbytes

uint8_t fusebytes

uint8_t flashpoll

uint16_t eeprompoll

uint16_t pagesize

uint16_t eepromsize

uint32_t flashsize

struct pm_value_t

Public Members

float sample: last sample

float med: average values of observations

float sigma: standard deviation of observations

struct publish_data_t

Public Members

int id

frtosLogging *logger

Queue *mqttqueue

Queue *dbqueue

BinaryQueue *recoveryqueue

stimawifiStatus_t *status

station_t *station

WiFiClient *networkClient

struct publishStatus_t

Public Members

status_e connect: stato della connessione MQTT

status_e publish: stato della pubblicazione dati MQTT

class publishThread : public Thread

Public Functions

publishThread(publish_data_t *publish_data)

~publishThread()

virtual void Cleanup()

Protected Functions

virtual void Run()

bool mqttSubscribeRpc(char *comtopic)

Private Functions

bool mqttDisconnect()

bool mqttConnect(const bool cleanSession = true)

bool mqttPublish(const mqttMessage_t &mqtt_message, const bool retained)

bool publish_maint()

bool publish_status_summary()

void reset_status_summary()

bool publish_constantdata()

void archive()

bool doPublish(mqttMessage_t &mqtt_message)

Private Members

publish_data_t *data

IPStack ipstack

MQTT::Client<IPStack, Countdown, MQTT_PACKET_SIZE, 1> mqttclient

uint8_t errorcount

time_t last_status_sended

struct readable_data_t

#include <i2c-leaf.h>

Readable data through i2c bus.

Public Members

uint8_t module_type

module type

module version

uint8_t module_main_version: module main version

uint8_t module_minor_version: module minor version

leaf_wetness_t leaf_wetness: leaf wetness data for report

uint8_t module_version: module type

float pm_sample[OPCXX_PM_LENGTH]

float pm_med[OPCXX_PM_LENGTH]

float pm_sigma[OPCXX_PM_LENGTH]

uint16_t bins_med[OPCN3_BINS_LENGTH]

uint16_t bins_sigma[OPCN3_BINS_LENGTH]

pm_value_t pm1: pm1 data for report

pm_value_t pm25: pm25 data for report

pm_value_t pm10: pm10 data for report

bin_value_t bins[OPC_BINS_LENGTH]: bins array data for report

data_t power

data_t solar_radiation

rain_t rain: rain data

value_t temperature: temperature data for report

value_t humidity: humidity data for report

report_t thr

report_t wind

struct report_t

#include <i2c-power.h>

report data.

Public Members

float rain_tips

float rain

float sample_temperature

float sample_humidity

float ist_temperature

float ist_humidity

float min_temperature

float min_humidity

float avg_temperature

float avg_humidity

float max_temperature

float max_humidity

float sigma_temperature

float sigma_humidity

uint16_t sample_speed

uint16_t sample_direction

uint16_t vavg10_speed

uint16_t vavg10_direction

uint16_t vavg_speed

uint16_t vavg_direction

uint16_t peak_gust_speed

uint16_t long_gust_speed

uint16_t avg_speed

uint8_t class_1

uint8_t class_2

uint8_t class_3

uint8_t class_4

uint8_t class_5

uint8_t class_6

uint16_t peak_gust_direction

uint16_t long_gust_direction

struct rpcRecovery_t

Public Members

char dtstart[20]

char dtend[20]

struct sample_t

#include <i2c-opc.h>

Samples values for measured opc data.

samples data

Public Members

float values

buffer containing the measured samples

samples buffer

uint8_t count

number of good samples

samples counter

uint8_t error_count: number of bad samples

int32_t values[SAMPLES_COUNT_MAX]: samples buffer

uint16_t count: samples counter

int32_t *read_ptr: reader pointer

int32_t *write_ptr: writer pointer

float value[SAMPLES_COUNT]: samples buffer

float *read_ptr: reader pointer

float *write_ptr: writer pointer

struct sensor_conf_t

Public Members

char type[4]: sensor type

uint8_t i2c_address: i2c address of sensor

struct sensor_t

#include <i2c-th.h>

sensors configuration.

Public Functions

inline sensor_t()

Public Members

char driver[SENSORDRIVER_DRIVER_LEN]

int node

char type[SENSORDRIVER_TYPE_LEN]

int address

char timerange[SENSORDRIVER_META_LEN]

char level[SENSORDRIVER_META_LEN]

struct sensordata_t: #include <sensor_config.h>

constant station data (station name, station height ...) parameters.

class SPISettings

Public Functions

inline SPISettings(uint32_t clock, uint8_t bitOrder, uint8_t dataMode)

inline uint32_t getClockFreq() const

Private Members

uint32_t clockFreq

struct station_t

Public Functions

inline station_t()

Public Members

char longitude[11]: longitudine in sessadecimale 5 decimali rappresentazione intera

char latitude[11]: latitudine in sessadecimale 5 decimali rappresentazione intera

char network[31]: rete osservativa della stazione

char ident[10]: identificativo per stazioni mobili

char server[41]: server RMAP

char ntp_server[41]: server NTP

char mqtt_server[41]: broker MQTT

int sampletime: intervallo tra le misurazioni in secondi

char user[10]: utente

char password[31]: password

char stationslug[31]: nome sintetico della stazione

char boardslug[31]: nome sintetico della board

char mqttrootpath[10]: radice del topic MQTT per i dati

char mqttmaintpath[10]: radice del topic MQTT per i dati amministrativi

constantdata_t constantdata[MAX_CONSTANTDATA_COUNT]: Constantdata buffer for storing constant station data parameter (metadati)

uint8_t constantdata_count: configured constantdata number

struct stimawifiStatus_t

Public Members

measureStatus_t measure: Stati relativi al thread di misura.

publishStatus_t publish: Stati relativi al thread di pubblicazione.

udpStatus_t udp: Stati relativi al thread di ricezione UDP dei dati di georeferenziazione.

gpsStatus_t gps: Stati relativi al thread di ricezione GPS (porta seriale) dei dati di georeferenziazione.

dbStatus_t db: Stati relativi al thread di gestione del DataBase.

summaryStatus_t summary: Sommario dello stato stazione che evidenzia eventuali errori nel periodo

struct summarydata_t

Public Functions

inline summarydata_t()

Public Members

float temperature

int humidity

int pm2

int pm10

int co2

struct summaryStatus_t

Public Members

bool err_reboot

bool err_power_on

bool err_georef

bool err_db

bool err_mqtt_publish

bool err_mqtt_connect

bool err_geodef

bool err_sensor

bool err_novalue

struct udp_data_t

Public Members

int id

frtosLogging *logger

udpStatus_t *status

georef_t *georef

frtosRtc *frtosRTC

struct udpStatus_t

Public Members

status_e receive: stato della ricezione dei dati per georeferenziazione

class udpThread : public Thread

Public Functions

udpThread(udp_data_t *udp_data)

Constructor to create a UDP thread.

Parametri:: udp_data -- data used by thread.

~udpThread()

virtual void Cleanup()

Protected Functions

virtual void Run()

Private Functions

void doUdp()

Private Members

udp_data_t *data

struct uint16_observation_t

Public Members

uint16_t med[OBSERVATION_COUNT]: buffer containing the mean values calculated on a one sample buffer respectively

uint16_t count: number of observations

uint16_t *read_ptr: reader pointer to buffer (read observations for calculate report value)

uint16_t *write_ptr: writer pointer to buffer (add new observation)

struct writable_data_t

#include <i2c-leaf.h>

Writable data through i2c bus.

Public Members

uint8_t i2c_address: i2c address

bool is_oneshot: enable or disable oneshot mode

uint16_t leaf_calibration_threshold

bool is_continuous: enable or disable continuous mode

uint16_t adc_voltage_max_panel

uint16_t adc_voltage_max_battery

float adc_calibration_offset[ADS1115_CHANNEL_COUNT]

float adc_calibration_gain[ADS1115_CHANNEL_COUNT]

float sensor_voltage_max[ADS1115_CHANNEL_COUNT]

float sensor_rad_max[ADS1115_CHANNEL_COUNT]

uint16_t tipping_bucket_time_ms: Tipping bucket time in milliseconds.

uint8_t rain_for_tip: How much mm of rain for one tip of tipping bucket rain gauge.

sensor_conf_t sensors[2]: sensors configurations

float adc_voltage_offset_1

float adc_voltage_offset_2

float adc_voltage_min

float adc_voltage_max

namespace cpp_freertos

file index.md

file ArduinoISP.ino

#include "Arduino.h"

Defines

PROG_FLICKER

SPI_CLOCK

RESET

LED_HB

LED_ERR

LED_PMODE

PIN_MOSI

PIN_MISO

PIN_SCK

SERIAL

BAUDRATE

HWVER

SWMAJ

SWMIN

STK_OK

STK_FAILED

STK_UNKNOWN

STK_INSYNC

STK_NOSYNC

CRC_EOP

SPI_MODE0

beget16(addr)

PTIME

EECHUNK

Typedefs

typedef struct param parameter

Functions

void pulse(int pin, int times)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void heartbeat()

void reset_target(bool reset)

void loop(void)

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

uint8_t getch()

void fill(int n)

void prog_lamp(int state)

uint8_t spi_transaction(uint8_t a, uint8_t b, uint8_t c, uint8_t d)

void empty_reply()

void breply(uint8_t b)

void get_version(uint8_t c)

void set_parameters()

void start_pmode()

void end_pmode()

void universal()

void flash(uint8_t hilo, unsigned int addr, uint8_t data)

void commit(unsigned int addr)

unsigned int current_page()

void write_flash(int length)

uint8_t write_flash_pages(int length)

uint8_t write_eeprom(unsigned int length)

uint8_t write_eeprom_chunk(unsigned int start, unsigned int length)

void program_page()

uint8_t flash_read(uint8_t hilo, unsigned int addr)

char flash_read_page(int length)

char eeprom_read_page(int length)

void read_page()

void read_signature()

void avrisp()

Variables

static BitBangedSPI SPI

int ISPError = 0

int pmode = 0

unsigned int here

uint8_t buff[256]

parameter param

uint8_t hbval = 128

int8_t hbdelta = 8

static bool rst_active_high

file baudcheck.c

Variables

bpsx =BAUD_RATEbps=${bpsx/L/}bps=${bps/U/}fcpux=F_CPUfcpu=${fcpux/L/}fcpu=${fcpu/U/}BAUD_SETTING=$(( ( ($fcpu + $bps * 4) / (($bps * 8))) - 1 ))BAUD_ACTUAL=$(( ($fcpu/(8 * (($BAUD_SETTING)+1))) ))BAUD_ERROR=$(( (( 100*($BAUD_ACTUAL - $bps) ) / $bps) ))ERR_TS=$(( ((( 1000*($BAUD_ACTUAL - $bps) ) / $bps) - $BAUD_ERROR * 10) ))ERR_TENTHS=$(( ERR_TS > 0 ? ERR_TS: -ERR_TS ))echo BAUD RATE CHECK: Desired: $bps

Real __pad0__

Real UBRRL = $BAUD_SETTING

file baudcheck.c

Variables

bpsx =BAUD_RATEbps=${bpsx/L/}bps=${bps/U/}fcpux=F_CPUfcpu=${fcpux/L/}fcpu=${fcpu/U/}BAUD_SETTING=$(( ( ($fcpu + $bps * 4) / (($bps * 8))) - 1 ))BAUD_ACTUAL=$(( ($fcpu/(8 * (($BAUD_SETTING)+1))) ))BAUD_ERROR=$(( (( 100*($BAUD_ACTUAL - $bps) ) / $bps) ))ERR_TS=$(( ((( 1000*($BAUD_ACTUAL - $bps) ) / $bps) - $BAUD_ERROR * 10) ))ERR_TENTHS=$(( ERR_TS > 0 ? ERR_TS: -ERR_TS ))echo BAUD RATE CHECK: Desired: $bps

Real __pad0__

Real UBRRL = $BAUD_SETTING

file boot.h

#include <avr/eeprom.h>

#include <avr/io.h>

#include <inttypes.h>

#include <limits.h>

Defines

BOOTLOADER_SECTION: Used to declare a function or variable to be placed into a new section called .bootloader. This section and its contents can then be relocated to any address (such as the bootloader NRWW area) at link-time.

__COMMON_ASB

__COMMON_ASRE

BLB12

BLB11

BLB02

BLB01

boot_spm_interrupt_enable(): Enable the SPM interrupt.

boot_spm_interrupt_disable(): Disable the SPM interrupt.

boot_is_spm_interrupt(): Check if the SPM interrupt is enabled.

boot_rww_busy(): Check if the RWW section is busy.

boot_spm_busy(): Check if the SPM instruction is busy.

boot_spm_busy_wait(): Wait while the SPM instruction is busy.

__BOOT_PAGE_ERASE

__BOOT_PAGE_WRITE

__BOOT_PAGE_FILL

__BOOT_RWW_ENABLE

__BOOT_LOCK_BITS_SET

__boot_page_fill_short(address, data)

__boot_page_fill_normal(address, data)

__boot_page_fill_alternate(address, data)

__boot_page_fill_extended(address, data)

__boot_page_fill_extended_short(address, data)

__boot_page_erase_short(address)

__boot_page_erase_normal(address)

__boot_page_erase_alternate(address)

__boot_page_erase_extended(address)

__boot_page_erase_extended_short(address)

__boot_page_write_short(address)

__boot_page_write_normal(address)

__boot_page_write_alternate(address)

__boot_page_write_extended(address)

__boot_page_write_extended_short(address)

__boot_rww_enable_short()

__boot_rww_enable()

__boot_rww_enable_alternate()

__boot_lock_bits_set_short(lock_bits)

__boot_lock_bits_set(lock_bits)

__boot_lock_bits_set_alternate(lock_bits)

GET_LOW_FUSE_BITS: address to read the low fuse bits, using boot_lock_fuse_bits_get

GET_LOCK_BITS: address to read the lock bits, using boot_lock_fuse_bits_get

GET_EXTENDED_FUSE_BITS: address to read the extended fuse bits, using boot_lock_fuse_bits_get

GET_HIGH_FUSE_BITS: address to read the high fuse bits, using boot_lock_fuse_bits_get

boot_lock_fuse_bits_get_short(address)

boot_lock_fuse_bits_get(address)

Read the lock or fuse bits at address.

Parameter address can be any of GET_LOW_FUSE_BITS, GET_LOCK_BITS, GET_EXTENDED_FUSE_BITS, or GET_HIGH_FUSE_BITS.

Nota

The lock and fuse bits returned are the physical values, i.e. a bit returned as 0 means the corresponding fuse or lock bit is programmed.

__BOOT_SIGROW_READ

boot_signature_byte_get_short(addr)

boot_signature_byte_get(addr)

Read the Signature Row byte at address. For some MCU types, this function can also retrieve the factory-stored oscillator calibration bytes.

Parameter address can be 0-0x1f as documented by the datasheet.

Nota

The values are MCU type dependent.

boot_page_fill(address, data): Fill the bootloader temporary page buffer for flash address with data word.

Nota

The address is a byte address. The data is a word. The AVR writes data to the buffer a word at a time, but addresses the buffer per byte! So, increment your address by 2 between calls, and send 2 data bytes in a word format! The LSB of the data is written to the lower address; the MSB of the data is written to the higher address.

boot_page_erase(address): Erase the flash page that contains address.

Nota

address is a byte address in flash, not a word address.

boot_page_write(address): Write the bootloader temporary page buffer to flash page that contains address.

Nota

address is a byte address in flash, not a word address.

boot_rww_enable(): Enable the Read-While-Write memory section.

boot_lock_bits_set(lock_bits)

Set the bootloader lock bits.

For example, to disallow the SPM instruction from writing to the Boot Loader memory section of flash, you would use this macro as such:

boot_lock_bits_set (_BV (BLB11));

Nota

In this context, a 'set bit' will be written to a zero value. Note also that only BLBxx bits can be programmed by this command.

Nota

Like any lock bits, the Boot Loader Lock Bits, once set, cannot be cleared again except by a chip erase which will in turn also erase the boot loader itself.

Parametri:

lock_bits -- A mask of which Boot Loader Lock Bits to set.

boot_page_fill_safe(address, data): Same as boot_page_fill() except it waits for eeprom and spm operations to complete before filling the page.

boot_page_erase_safe(address): Same as boot_page_erase() except it waits for eeprom and spm operations to complete before erasing the page.

boot_page_write_safe(address): Same as boot_page_write() except it waits for eeprom and spm operations to complete before writing the page.

boot_rww_enable_safe(): Same as boot_rww_enable() except waits for eeprom and spm operations to complete before enabling the RWW mameory.

boot_lock_bits_set_safe(lock_bits): Same as boot_lock_bits_set() except waits for eeprom and spm operations to complete before setting the lock bits.

file boot.h

#include <avr/eeprom.h>

#include <avr/io.h>

#include <inttypes.h>

#include <limits.h>

Defines

BOOTLOADER_SECTION: Used to declare a function or variable to be placed into a new section called .bootloader. This section and its contents can then be relocated to any address (such as the bootloader NRWW area) at link-time.

__COMMON_ASB

__COMMON_ASRE

BLB12

BLB11

BLB02

BLB01

boot_spm_interrupt_enable(): Enable the SPM interrupt.

boot_spm_interrupt_disable(): Disable the SPM interrupt.

boot_is_spm_interrupt(): Check if the SPM interrupt is enabled.

boot_rww_busy(): Check if the RWW section is busy.

boot_spm_busy(): Check if the SPM instruction is busy.

boot_spm_busy_wait(): Wait while the SPM instruction is busy.

__BOOT_PAGE_ERASE

__BOOT_PAGE_WRITE

__BOOT_PAGE_FILL

__BOOT_RWW_ENABLE

__BOOT_LOCK_BITS_SET

__boot_page_fill_short(address, data)

__boot_page_fill_normal(address, data)

__boot_page_fill_alternate(address, data)

__boot_page_fill_extended(address, data)

__boot_page_fill_extended_short(address, data)

__boot_page_erase_short(address)

__boot_page_erase_normal(address)

__boot_page_erase_alternate(address)

__boot_page_erase_extended(address)

__boot_page_erase_extended_short(address)

__boot_page_write_short(address)

__boot_page_write_normal(address)

__boot_page_write_alternate(address)

__boot_page_write_extended(address)

__boot_page_write_extended_short(address)

__boot_rww_enable_short()

__boot_rww_enable()

__boot_rww_enable_alternate()

__boot_lock_bits_set_short(lock_bits)

__boot_lock_bits_set(lock_bits)

__boot_lock_bits_set_alternate(lock_bits)

GET_LOW_FUSE_BITS: address to read the low fuse bits, using boot_lock_fuse_bits_get

GET_LOCK_BITS: address to read the lock bits, using boot_lock_fuse_bits_get

GET_EXTENDED_FUSE_BITS: address to read the extended fuse bits, using boot_lock_fuse_bits_get

GET_HIGH_FUSE_BITS: address to read the high fuse bits, using boot_lock_fuse_bits_get

boot_lock_fuse_bits_get_short(address)

boot_lock_fuse_bits_get(address)

Read the lock or fuse bits at address.

Parameter address can be any of GET_LOW_FUSE_BITS, GET_LOCK_BITS, GET_EXTENDED_FUSE_BITS, or GET_HIGH_FUSE_BITS.

Nota

The lock and fuse bits returned are the physical values, i.e. a bit returned as 0 means the corresponding fuse or lock bit is programmed.

__BOOT_SIGROW_READ

boot_signature_byte_get_short(addr)

boot_signature_byte_get(addr)

Read the Signature Row byte at address. For some MCU types, this function can also retrieve the factory-stored oscillator calibration bytes.

Parameter address can be 0-0x1f as documented by the datasheet.

Nota

The values are MCU type dependent.

boot_page_fill(address, data): Fill the bootloader temporary page buffer for flash address with data word.

Nota

The address is a byte address. The data is a word. The AVR writes data to the buffer a word at a time, but addresses the buffer per byte! So, increment your address by 2 between calls, and send 2 data bytes in a word format! The LSB of the data is written to the lower address; the MSB of the data is written to the higher address.

boot_page_erase(address): Erase the flash page that contains address.

Nota

address is a byte address in flash, not a word address.

boot_page_write(address): Write the bootloader temporary page buffer to flash page that contains address.

Nota

address is a byte address in flash, not a word address.

boot_rww_enable(): Enable the Read-While-Write memory section.

boot_lock_bits_set(lock_bits)

Set the bootloader lock bits.

For example, to disallow the SPM instruction from writing to the Boot Loader memory section of flash, you would use this macro as such:

boot_lock_bits_set (_BV (BLB11));

Nota

In this context, a 'set bit' will be written to a zero value. Note also that only BLBxx bits can be programmed by this command.

Nota

Like any lock bits, the Boot Loader Lock Bits, once set, cannot be cleared again except by a chip erase which will in turn also erase the boot loader itself.

Parametri:

lock_bits -- A mask of which Boot Loader Lock Bits to set.

boot_page_fill_safe(address, data): Same as boot_page_fill() except it waits for eeprom and spm operations to complete before filling the page.

boot_page_erase_safe(address): Same as boot_page_erase() except it waits for eeprom and spm operations to complete before erasing the page.

boot_page_write_safe(address): Same as boot_page_write() except it waits for eeprom and spm operations to complete before writing the page.

boot_rww_enable_safe(): Same as boot_rww_enable() except waits for eeprom and spm operations to complete before enabling the RWW mameory.

boot_lock_bits_set_safe(lock_bits): Same as boot_lock_bits_set() except waits for eeprom and spm operations to complete before setting the lock bits.

file diskio.c

#include "pff/src/pff.h"

#include "pff/src/diskio.h"

Defines

CMD0

CMD1

ACMD41

CMD8

CMD16

CMD17

CMD24

CMD55

CMD58

CT_MMC

CT_SD1

CT_SD2

CT_BLOCK

Functions

void init_spi(void)

Init SPI library.

Ritorna:: void.

void deselect(void)

void select(void)

void xmit_spi(BYTE d)

BYTE rcv_spi(void)

void dly_100us(void)

static BYTE send_cmd(BYTE cmd, DWORD arg)

DSTATUS disk_initialize(void)

DRESULT disk_readp(BYTE *buff, DWORD sector, UINT offset, UINT count)

Variables

static BYTE CardType

file diskio.c

#include "diskio.h"

Functions

DSTATUS disk_initialize(void)

DRESULT disk_readp(BYTE *buff, DWORD sector, UINT offset, UINT count)

DRESULT disk_writep(BYTE *buff, DWORD sc)

file diskio.c

#include "pff/src/pff.h"

#include "pff/src/diskio.h"

Defines

CMD0

CMD1

ACMD41

CMD8

CMD16

CMD17

CMD24

CMD55

CMD58

CT_MMC

CT_SD1

CT_SD2

CT_BLOCK

Functions

void init_spi(void)

Init SPI library.

Ritorna:: void.

void deselect(void)

void select(void)

void xmit_spi(BYTE d)

BYTE rcv_spi(void)

void dly_100us(void)

static BYTE send_cmd(BYTE cmd, DWORD arg)

DSTATUS disk_initialize(void)

DRESULT disk_readp(BYTE *buff, DWORD sector, UINT offset, UINT count)

Variables

static BYTE CardType

file diskio.c

#include "diskio.h"

Functions

DSTATUS disk_initialize(void)

DRESULT disk_readp(BYTE *buff, DWORD sector, UINT offset, UINT count)

DRESULT disk_writep(BYTE *buff, DWORD sc)

file optiboot.c

#include <inttypes.h>

#include <avr/io.h>

#include <avr/pgmspace.h>

#include <avr/eeprom.h>

#include <string.h>

#include "pff/src/pff.h"

#include "boot.h"

#include "pin_defs.h"

#include "stk500.h"

Defines

FUNC_READ

FUNC_WRITE

OPTIBOOT_MAJVER

OPTIBOOT_MINVER

OPTIBOOT_CUSTOMVER

PGM_READ_BYTE(x)

UART_REPORT

LED_START_FLASHES

BAUD_RATE

UART

BAUD_SETTING

BAUD_ACTUAL

BAUD_ERROR

WATCHDOG_OFF

WATCHDOG_16MS

WATCHDOG_32MS

WATCHDOG_64MS

WATCHDOG_125MS

WATCHDOG_250MS

WATCHDOG_500MS

WATCHDOG_1S

WATCHDOG_2S

WATCHDOG_4S

WATCHDOG_8S

GETLENGTH(len)

RAMSTART

buff

appstart_vec

Functions

unsigned const int __attribute__ ((section(".version")))

static uint8_t pagecmp()

uint8_t doFlash()

void checkFile()

void UART_puts(const char *str)

void UART_newline(void)

void UART_putnibble(uint8_t c)

void UART_puthex(uint8_t c)

void UART_puthex16(uint16_t n)

void UART_puthex32(uint32_t n)

void UART_putsP(const char *str, uint16_t n)

int main(void)

void putch(char ch)

uint8_t getch(void)

void getNch(uint8_t count)

void verifySpace()

void watchdogReset()

void watchdogConfig(uint8_t x)

void appStart(uint8_t rstFlags)

static inline void writebuffer(int8_t memtype, uint8_t *mybuff, uint16_t address, pagelen_t len)

static inline void read_mem(uint8_t memtype, uint16_t address, pagelen_t length)

Variables

const char filename[13] = "FIRMWARE.BIN\0"

file optiboot.c

#include <inttypes.h>

#include <avr/io.h>

#include <avr/pgmspace.h>

#include <avr/eeprom.h>

#include <string.h>

#include "pff/src/pff.h"

#include "ihex/kk_ihex_read.h"

#include "boot.h"

#include "pin_defs.h"

#include "stk500.h"

Defines

FUNC_READ

FUNC_WRITE

OPTIBOOT_MAJVER

OPTIBOOT_MINVER

OPTIBOOT_CUSTOMVER

PGM_READ_BYTE(x)

UART_REPORT

LED_START_FLASHES

BAUD_RATE

UART

BAUD_SETTING

BAUD_ACTUAL

BAUD_ERROR

WATCHDOG_OFF

WATCHDOG_16MS

WATCHDOG_32MS

WATCHDOG_64MS

WATCHDOG_125MS

WATCHDOG_250MS

WATCHDOG_500MS

WATCHDOG_1S

WATCHDOG_2S

WATCHDOG_4S

WATCHDOG_8S

GETLENGTH(len)

RAMSTART

buff

appstart_vec

Functions

unsigned const int __attribute__ ((section(".version")))

void write_flash_page()

static uint8_t pagecmp()

uint8_t doFlash()

void checkFile()

void UART_puts(const char *str)

void UART_newline(void)

void UART_putnibble(uint8_t c)

void UART_puthex(uint8_t c)

void UART_puthex16(uint16_t n)

void UART_puthex32(uint32_t n)

void UART_putsP(const char *str, uint16_t n)

int main(void)

void putch(char ch)

uint8_t getch(void)

void getNch(uint8_t count)

void verifySpace()

void watchdogReset()

void watchdogConfig(uint8_t x)

void appStart(uint8_t rstFlags)

static inline void writebuffer(int8_t memtype, uint8_t *mybuff, uint16_t address, pagelen_t len)

static inline void read_mem(uint8_t memtype, uint16_t address, pagelen_t length)

Variables

const char filename[13] = "FIRMWARE.BIN\0"

file diskio.h

#include "integer.h"

Defines

STA_NOINIT

STA_NODISK

Typedefs

typedef BYTE DSTATUS

Enums

enum DRESULT

Values:

enumerator RES_OK

enumerator RES_ERROR

enumerator RES_NOTRDY

enumerator RES_PARERR

enumerator RES_OK

enumerator RES_ERROR

enumerator RES_NOTRDY

enumerator RES_PARERR

Functions

DSTATUS disk_initialize(void)

DRESULT disk_readp(BYTE *buff, DWORD sector, UINT offser, UINT count)

DRESULT disk_writep(const BYTE *buff, DWORD sc)

file diskio.h

#include "integer.h"

Defines

STA_NOINIT

STA_NODISK

Typedefs

typedef BYTE DSTATUS

Enums

enum DRESULT

Values:

enumerator RES_OK

enumerator RES_ERROR

enumerator RES_NOTRDY

enumerator RES_PARERR

enumerator RES_OK

enumerator RES_ERROR

enumerator RES_NOTRDY

enumerator RES_PARERR

Functions

DSTATUS disk_initialize(void)

DRESULT disk_readp(BYTE *buff, DWORD sector, UINT offser, UINT count)

DRESULT disk_writep(const BYTE *buff, DWORD sc)

file integer.h

Typedefs

typedef unsigned char BYTE

typedef short SHORT

typedef unsigned short WORD

typedef unsigned short WCHAR

typedef int INT

typedef unsigned int UINT

typedef long LONG

typedef unsigned long DWORD

file integer.h

Typedefs

typedef unsigned char BYTE

typedef short SHORT

typedef unsigned short WORD

typedef unsigned short WCHAR

typedef int INT

typedef unsigned int UINT

typedef long LONG

typedef unsigned long DWORD

file pff.c

#include "pff.h"

#include "diskio.h"

Defines

_FS_32ONLY

ABORT(err)

_EXCVT

IsUpper(c)

IsLower(c)

IsDBCS1(c)

IsDBCS2(c)

BS_jmpBoot

BS_OEMName

BPB_BytsPerSec

BPB_SecPerClus

BPB_RsvdSecCnt

BPB_NumFATs

BPB_RootEntCnt

BPB_TotSec16

BPB_Media

BPB_FATSz16

BPB_SecPerTrk

BPB_NumHeads

BPB_HiddSec

BPB_TotSec32

BS_55AA

BS_DrvNum

BS_BootSig

BS_VolID

BS_VolLab

BS_FilSysType

BPB_FATSz32

BPB_ExtFlags

BPB_FSVer

BPB_RootClus

BPB_FSInfo

BPB_BkBootSec

BS_DrvNum32

BS_BootSig32

BS_VolID32

BS_VolLab32

BS_FilSysType32

MBR_Table

DIR_Name

DIR_Attr

DIR_NTres

DIR_CrtTime

DIR_CrtDate

DIR_FstClusHI

DIR_WrtTime

DIR_WrtDate

DIR_FstClusLO

DIR_FileSize

Functions

static void mem_set(void *dst, int val, int cnt)

static int mem_cmp(const void *dst, const void *src, int cnt)

static CLUST get_fat(CLUST clst)

static DWORD clust2sect(CLUST clst)

static CLUST get_clust(BYTE *dir)

static FRESULT dir_rewind(DIR *dj)

static FRESULT dir_next(DIR *dj)

static FRESULT dir_find(DIR *dj, BYTE *dir)

static FRESULT create_name(DIR *dj, const char **path)

static FRESULT follow_path(DIR *dj, BYTE *dir, const char *path)

static BYTE check_fs(BYTE *buf, DWORD sect)

FRESULT pf_mount(FATFS *fs)

FRESULT pf_open(const char *path)

FRESULT pf_read(void *buff, UINT btr)

Variables

static FATFS *FatFs

file pff.c

#include "pff.h"

#include "diskio.h"

Defines

_FS_32ONLY

ABORT(err)

_EXCVT

IsUpper(c)

IsLower(c)

IsDBCS1(c)

IsDBCS2(c)

BS_jmpBoot

BS_OEMName

BPB_BytsPerSec

BPB_SecPerClus

BPB_RsvdSecCnt

BPB_NumFATs

BPB_RootEntCnt

BPB_TotSec16

BPB_Media

BPB_FATSz16

BPB_SecPerTrk

BPB_NumHeads

BPB_HiddSec

BPB_TotSec32

BS_55AA

BS_DrvNum

BS_BootSig

BS_VolID

BS_VolLab

BS_FilSysType

BPB_FATSz32

BPB_ExtFlags

BPB_FSVer

BPB_RootClus

BPB_FSInfo

BPB_BkBootSec

BS_DrvNum32

BS_BootSig32

BS_VolID32

BS_VolLab32

BS_FilSysType32

MBR_Table

DIR_Name

DIR_Attr

DIR_NTres

DIR_CrtTime

DIR_CrtDate

DIR_FstClusHI

DIR_WrtTime

DIR_WrtDate

DIR_FstClusLO

DIR_FileSize

Functions

static void mem_set(void *dst, int val, int cnt)

static int mem_cmp(const void *dst, const void *src, int cnt)

static CLUST get_fat(CLUST clst)

static DWORD clust2sect(CLUST clst)

static CLUST get_clust(BYTE *dir)

static FRESULT dir_rewind(DIR *dj)

static FRESULT dir_next(DIR *dj)

static FRESULT dir_find(DIR *dj, BYTE *dir)

static FRESULT create_name(DIR *dj, const char **path)

static FRESULT follow_path(DIR *dj, BYTE *dir, const char *path)

static BYTE check_fs(BYTE *buf, DWORD sect)

FRESULT pf_mount(FATFS *fs)

FRESULT pf_open(const char *path)

FRESULT pf_read(void *buff, UINT btr)

Variables

static FATFS *FatFs

file pff.h

#include "integer.h"

#include "pffconf.h"

Defines

_PFATFS

CLUST

FA_OPENED

FA_WPRT

FA__WIP

FS_FAT12

FS_FAT16

FS_FAT32

AM_RDO

AM_HID

AM_SYS

AM_VOL

AM_LFN

AM_DIR

AM_ARC

AM_MASK

LD_WORD(ptr)

LD_DWORD(ptr)

ST_WORD(ptr, val)

ST_DWORD(ptr, val)

Enums

enum FRESULT

Values:

enumerator FR_OK

enumerator FR_DISK_ERR

enumerator FR_NOT_READY

enumerator FR_NO_FILE

enumerator FR_NOT_OPENED

enumerator FR_NOT_ENABLED

enumerator FR_NO_FILESYSTEM

enumerator FR_OK

enumerator FR_DISK_ERR

enumerator FR_NOT_READY

enumerator FR_NO_FILE

enumerator FR_NOT_OPENED

enumerator FR_NOT_ENABLED

enumerator FR_NO_FILESYSTEM

Functions

FRESULT pf_mount(FATFS *fs)

FRESULT pf_open(const char *path)

FRESULT pf_read(void *buff, UINT btr)

FRESULT pf_write(const void *buff, UINT btw, UINT *bw)

FRESULT pf_lseek(DWORD ofs)

FRESULT pf_opendir(DIR *dj, const char *path)

FRESULT pf_readdir(DIR *dj, FILINFO *fno)

file pff.h

#include "integer.h"

#include "pffconf.h"

Defines

_PFATFS

CLUST

FA_OPENED

FA_WPRT

FA__WIP

FS_FAT12

FS_FAT16

FS_FAT32

AM_RDO

AM_HID

AM_SYS

AM_VOL

AM_LFN

AM_DIR

AM_ARC

AM_MASK

LD_WORD(ptr)

LD_DWORD(ptr)

ST_WORD(ptr, val)

ST_DWORD(ptr, val)

Enums

enum FRESULT

Values:

enumerator FR_OK

enumerator FR_DISK_ERR

enumerator FR_NOT_READY

enumerator FR_NO_FILE

enumerator FR_NOT_OPENED

enumerator FR_NOT_ENABLED

enumerator FR_NO_FILESYSTEM

enumerator FR_OK

enumerator FR_DISK_ERR

enumerator FR_NOT_READY

enumerator FR_NO_FILE

enumerator FR_NOT_OPENED

enumerator FR_NOT_ENABLED

enumerator FR_NO_FILESYSTEM

Functions

FRESULT pf_mount(FATFS *fs)

FRESULT pf_open(const char *path)

FRESULT pf_read(void *buff, UINT btr)

FRESULT pf_write(const void *buff, UINT btw, UINT *bw)

FRESULT pf_lseek(DWORD ofs)

FRESULT pf_opendir(DIR *dj, const char *path)

FRESULT pf_readdir(DIR *dj, FILINFO *fno)

file pffconf.h

Defines

_PFFCONF

_USE_MINIMALISTIC_PFF

_USE_READ

_USE_DIR

_USE_LSEEK

_USE_WRITE

_FS_FAT12

_FS_FAT16

_FS_FAT32

_USE_LCC

_CODE_PAGE

_WORD_ACCESS

file pffconf.h

Defines

_PFFCONF

_USE_MINIMALISTIC_PFF

_USE_READ

_USE_DIR

_USE_LSEEK

_USE_WRITE

_FS_FAT12

_FS_FAT16

_FS_FAT32

_USE_LCC

_CODE_PAGE

_WORD_ACCESS

file pin_defs.h

Defines

UART_SRA

UART_SRB

UART_SRC

UART_SRL

UART_UDR

A0

A1

A2

A3

A4

A5

A6

A7

B0

B1

B2

B3

B4

B5

B6

B7

C0

C1

C2

C3

C4

C5

C6

C7

D0

D1

D2

D3

D4

D5

D6

D7

E0

E1

E2

E3

E4

E5

E6

E7

F0

F1

F2

F3

F4

F5

F6

F7

G0

G1

G2

G3

G4

G5

G6

G7

H0

H1

H2

H3

H4

H5

H6

H7

J0

J1

J2

J3

J4

J5

J6

J7

K0

K1

K2

K3

K4

K5

K6

K7

L0

L1

L2

L3

L4

L5

L6

L7

file pin_defs.h

Defines

UART_SRA

UART_SRB

UART_SRC

UART_SRL

UART_UDR

A0

A1

A2

A3

A4

A5

A6

A7

B0

B1

B2

B3

B4

B5

B6

B7

C0

C1

C2

C3

C4

C5

C6

C7

D0

D1

D2

D3

D4

D5

D6

D7

E0

E1

E2

E3

E4

E5

E6

E7

F0

F1

F2

F3

F4

F5

F6

F7

G0

G1

G2

G3

G4

G5

G6

G7

H0

H1

H2

H3

H4

H5

H6

H7

J0

J1

J2

J3

J4

J5

J6

J7

K0

K1

K2

K3

K4

K5

K6

K7

L0

L1

L2

L3

L4

L5

L6

L7

file spi_pins.h

file spi_pins.h

file stk500.h

Defines

STK_OK

STK_FAILED

STK_UNKNOWN

STK_NODEVICE

STK_INSYNC

STK_NOSYNC

ADC_CHANNEL_ERROR

ADC_MEASURE_OK

PWM_CHANNEL_ERROR

PWM_ADJUST_OK

CRC_EOP

STK_GET_SYNC

STK_GET_SIGN_ON

STK_SET_PARAMETER

STK_GET_PARAMETER

STK_SET_DEVICE

STK_SET_DEVICE_EXT

STK_ENTER_PROGMODE

STK_LEAVE_PROGMODE

STK_CHIP_ERASE

STK_CHECK_AUTOINC

STK_LOAD_ADDRESS

STK_UNIVERSAL

STK_PROG_FLASH

STK_PROG_DATA

STK_PROG_FUSE

STK_PROG_LOCK

STK_PROG_PAGE

STK_PROG_FUSE_EXT

STK_READ_FLASH

STK_READ_DATA

STK_READ_FUSE

STK_READ_LOCK

STK_READ_PAGE

STK_READ_SIGN

STK_READ_OSCCAL

STK_READ_FUSE_EXT

STK_READ_OSCCAL_EXT

STK_SW_MAJOR

STK_SW_MINOR

file stk500.h

Defines

STK_OK

STK_FAILED

STK_UNKNOWN

STK_NODEVICE

STK_INSYNC

STK_NOSYNC

ADC_CHANNEL_ERROR

ADC_MEASURE_OK

PWM_CHANNEL_ERROR

PWM_ADJUST_OK

CRC_EOP

STK_GET_SYNC

STK_GET_SIGN_ON

STK_SET_PARAMETER

STK_GET_PARAMETER

STK_SET_DEVICE

STK_SET_DEVICE_EXT

STK_ENTER_PROGMODE

STK_LEAVE_PROGMODE

STK_CHIP_ERASE

STK_CHECK_AUTOINC

STK_LOAD_ADDRESS

STK_UNIVERSAL

STK_PROG_FLASH

STK_PROG_DATA

STK_PROG_FUSE

STK_PROG_LOCK

STK_PROG_PAGE

STK_PROG_FUSE_EXT

STK_READ_FLASH

STK_READ_DATA

STK_READ_FUSE

STK_READ_LOCK

STK_READ_PAGE

STK_READ_SIGN

STK_READ_OSCCAL

STK_READ_FUSE_EXT

STK_READ_OSCCAL_EXT

STK_SW_MAJOR

STK_SW_MINOR

file kk_ihex.h

#include <stdint.h>

Defines

KK_IHEX_VERSION

IHEX_LINE_MAX_LENGTH

IHEX_LINEAR_ADDRESS(ihex)

IHEX_BYTE_ADDRESS(ihex, byte_index)

IHEX_NEWLINE_STRING

Typedefs

typedef uint_fast8_t ihex_bool_t

typedef uint_least32_t ihex_address_t

typedef uint_least16_t ihex_segment_t

typedef int ihex_count_t

typedef uint8_t ihex_flags_t

typedef struct ihex_state kk_ihex_t

typedef uint8_t ihex_record_type_t

Enums

enum ihex_flags

Values:

enumerator IHEX_FLAG_ADDRESS_OVERFLOW

enum ihex_record_type

Values:

enumerator IHEX_DATA_RECORD

enumerator IHEX_END_OF_FILE_RECORD

enumerator IHEX_EXTENDED_SEGMENT_ADDRESS_RECORD

enumerator IHEX_START_SEGMENT_ADDRESS_RECORD

enumerator IHEX_EXTENDED_LINEAR_ADDRESS_RECORD

enumerator IHEX_START_LINEAR_ADDRESS_RECORD

file kk_ihex_read.c

#include "kk_ihex_read.h"

Defines

IHEX_START

ADDRESS_HIGH_MASK

IHEX_READ_RECORD_TYPE_MASK

IHEX_READ_STATE_MASK

IHEX_READ_STATE_OFFSET

Enums

enum ihex_read_state

Values:

enumerator READ_WAIT_FOR_START

enumerator READ_COUNT_HIGH

enumerator READ_COUNT_LOW

enumerator READ_ADDRESS_MSB_HIGH

enumerator READ_ADDRESS_MSB_LOW

enumerator READ_ADDRESS_LSB_HIGH

enumerator READ_ADDRESS_LSB_LOW

enumerator READ_RECORD_TYPE_HIGH

enumerator READ_RECORD_TYPE_LOW

enumerator READ_DATA_HIGH

enumerator READ_DATA_LOW

Functions

void ihex_begin_read(struct ihex_state *const ihex)

void ihex_read_at_address(struct ihex_state *const ihex, ihex_address_t address)

void ihex_read_at_segment(struct ihex_state *const ihex, ihex_segment_t segment)

void ihex_end_read(struct ihex_state *const ihex)

void ihex_read_byte(struct ihex_state *const ihex, const char byte)

void ihex_read_bytes (struct ihex_state *restrict ihex, const char *restrict data, ihex_count_t count)

file kk_ihex_read.h

#include "kk_ihex.h"

Functions

void ihex_begin_read(struct ihex_state *ihex)

void ihex_read_at_address(struct ihex_state *ihex, ihex_address_t address)

void ihex_read_byte(struct ihex_state *ihex, char chr)

void ihex_read_bytes (struct ihex_state *restrict ihex, const char *restrict data, ihex_count_t count)

void ihex_end_read(struct ihex_state *ihex)

ihex_bool_t ihex_data_read(struct ihex_state *ihex, ihex_record_type_t type, ihex_bool_t checksum_mismatch)

void ihex_read_at_segment(struct ihex_state *ihex, ihex_segment_t segment)

file README.md

file README.md

file PetitFS.ino

#include "PetitFS.h"

#include "kk_ihex_read.h"

Functions

ihex_bool_t ihex_data_read(struct ihex_state *ihex, ihex_record_type_t type, ihex_bool_t checksum_error)

void ihex_read()

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

FATFS fs

file debug_config.h

Defines

SDCARD_LOGGING_FILE_NAME: File name for logging on SD-Card.

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

DEBUG_MEMORY: Activate debug of memory use and stack heap collision on serial interface.

LCD_TRACE_LEVEL_OFF: Debug level for print error message on lcd interface.

LCD_TRACE_LEVEL_ERROR: Debug level for print error message on lcd.

LCD_TRACE_LEVEL_WARNING: Debug level for print detailed informations message on serial interface.

LCD_TRACE_LEVEL_INFO: Debug level for print informations message on lcd.

LCD_TRACE_LEVEL_DEBUG: Debug level for print verbose informations message on lcd.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

STIMA_LCD_TRACE_LEVEL: Lcd trace level debug for stima sketch.

file debug_config.h

Defines

SDCARD_LOGGING_FILE_NAME: File name for logging on SD-Card.

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

DEBUG_MEMORY: Activate debug of memory use and stack heap collision on serial interface.

LCD_TRACE_LEVEL_OFF: Debug level for print error message on lcd interface.

LCD_TRACE_LEVEL_ERROR: Debug level for print error message on lcd.

LCD_TRACE_LEVEL_WARNING: Debug level for print detailed informations message on serial interface.

LCD_TRACE_LEVEL_INFO: Debug level for print informations message on lcd.

LCD_TRACE_LEVEL_DEBUG: Debug level for print verbose informations message on lcd.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

STIMA_LCD_TRACE_LEVEL: Lcd trace level debug for stima sketch.

file debug_config.h

Defines

SDCARD_LOGGING_FILE_NAME: File name for logging on SD-Card.

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

file debug_config.h

Defines

SDCARD_LOGGING_FILE_NAME: File name for logging on SD-Card.

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

file debug_config.h

Defines

SDCARD_LOGGING_FILE_NAME: File name for logging on SD-Card.

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

DEBUG_MEMORY: Activate debug of memory use and stack heap collision on serial interface.

LCD_TRACE_LEVEL_OFF: Debug level for print error message on lcd interface.

LCD_TRACE_LEVEL_ERROR: Debug level for print error message on lcd.

LCD_TRACE_LEVEL_WARNING: Debug level for print detailed informations message on serial interface.

LCD_TRACE_LEVEL_INFO: Debug level for print informations message on lcd.

LCD_TRACE_LEVEL_DEBUG: Debug level for print verbose informations message on lcd.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

STIMA_LCD_TRACE_LEVEL: Lcd trace level debug for stima sketch.

file debug_config.h

Defines

SDCARD_LOGGING_FILE_NAME: File name for logging on SD-Card.

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

DEBUG_MEMORY: Activate debug of memory use and stack heap collision on serial interface.

LCD_TRACE_LEVEL_OFF: Debug level for print error message on lcd interface.

LCD_TRACE_LEVEL_ERROR: Debug level for print error message on lcd.

LCD_TRACE_LEVEL_WARNING: Debug level for print detailed informations message on serial interface.

LCD_TRACE_LEVEL_INFO: Debug level for print informations message on lcd.

LCD_TRACE_LEVEL_DEBUG: Debug level for print verbose informations message on lcd.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

STIMA_LCD_TRACE_LEVEL: Lcd trace level debug for stima sketch.

file debug_config.h

Defines

SDCARD_LOGGING_FILE_NAME: File name for logging on SD-Card.

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

DEBUG_MEMORY: Activate debug of memory use and stack heap collision on serial interface.

LCD_TRACE_LEVEL_OFF: Debug level for print error message on lcd interface.

LCD_TRACE_LEVEL_ERROR: Debug level for print error message on lcd.

LCD_TRACE_LEVEL_WARNING: Debug level for print detailed informations message on serial interface.

LCD_TRACE_LEVEL_INFO: Debug level for print informations message on lcd.

LCD_TRACE_LEVEL_DEBUG: Debug level for print verbose informations message on lcd.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

STIMA_LCD_TRACE_LEVEL: Lcd trace level debug for stima sketch.

file debug_config.h

Defines

SDCARD_LOGGING_FILE_NAME: File name for logging on SD-Card.

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

DEBUG_MEMORY: Activate debug of memory use and stack heap collision on serial interface.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

file debug_config.h

Defines

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

DEBUG_MEMORY: Activate debug of memory use and stack heap collision on serial interface.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

STIMA_LCD_TRACE_LEVEL: Lcd trace level debug for stima sketch.

file debug_config.h

Defines

ENABLE_SDCARD_LOGGING

Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

To use this we cannot disable device locking by the macro CONFIG_DISABLE_HAL_LOCKS in platformio.ini becouse the SPI is not mutex protected by application

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

SDCARD_LOGGING_FILE_NAME: File name for logging on SD-Card.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

file debug_config.h

Defines

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

DEBUG_MEMORY: Activate debug of memory use and stack heap collision on serial interface.

LCD_TRACE_LEVEL_OFF: Debug level for print error message on lcd interface.

LCD_TRACE_LEVEL_ERROR: Debug level for print error message on lcd.

LCD_TRACE_LEVEL_WARNING: Debug level for print detailed informations message on serial interface.

LCD_TRACE_LEVEL_INFO: Debug level for print informations message on lcd.

LCD_TRACE_LEVEL_DEBUG: Debug level for print verbose informations message on lcd.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

STIMA_LCD_TRACE_LEVEL: Lcd trace level debug for stima sketch.

file debug_config.h

Defines

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

DEBUG_MEMORY: Activate debug of memory use and stack heap collision on serial interface.

LCD_TRACE_LEVEL_OFF: Debug level for print error message on lcd interface.

LCD_TRACE_LEVEL_ERROR: Debug level for print error message on lcd.

LCD_TRACE_LEVEL_WARNING: Debug level for print detailed informations message on serial interface.

LCD_TRACE_LEVEL_INFO: Debug level for print informations message on lcd.

LCD_TRACE_LEVEL_DEBUG: Debug level for print verbose informations message on lcd.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

STIMA_LCD_TRACE_LEVEL: Lcd trace level debug for stima sketch.

file debug_config.h

Defines

SERIAL_TRACE_LEVEL_OFF: Debug level for disable debug on serial interface.

SERIAL_TRACE_LEVEL_ERROR: Debug level for print error message on serial interface.

SERIAL_TRACE_LEVEL_WARNING: Debug level for print warning message on serial interface.

SERIAL_TRACE_LEVEL_INFO: Debug level for print informations message on serial interface.

SERIAL_TRACE_LEVEL_DEBUG: Debug level for print verbose informations message on serial interface.

SERIAL_TRACE_LEVEL_TRACE: Debug level for print detailed informations message on serial interface.

LCD_TRACE_LEVEL_OFF: Debug level for print error message on lcd interface.

LCD_TRACE_LEVEL_ERROR: Debug level for print error message on lcd.

LCD_TRACE_LEVEL_WARNING: Debug level for print detailed informations message on serial interface.

LCD_TRACE_LEVEL_INFO: Debug level for print informations message on lcd.

LCD_TRACE_LEVEL_DEBUG: Debug level for print verbose informations message on lcd.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

SENSOR_DRIVER_SERIAL_TRACE_LEVEL: Serial trace level debug for SensorDriver library.

SIM800_SERIAL_TRACE_LEVEL: Serial trace level debug for Sim800 library.

OPC_SERIAL_TRACE_LEVEL: Serial trace level debug for Opcxx library.

I2C_TH_SERIAL_TRACE_LEVEL: Serial trace level debug for i2c-th sketch.

I2C_RAIN_SERIAL_TRACE_LEVEL: Serial trace level debug for i2c-rain sketch.

I2C_OPC_SERIAL_TRACE_LEVEL: Serial trace level debug for i2c-opc sketch.

STIMA_SERIAL_TRACE_LEVEL: Serial trace level debug for stima sketch.

STIMA_LCD_TRACE_LEVEL: Lcd trace level debug for stima sketch.

file debug_config.h

Defines

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

DEBUG_MEMORY: Activate debug of memory use and stack heap collision on serial interface.

LCD_TRACE_LEVEL_OFF: Debug level for print error message on lcd interface.

LCD_TRACE_LEVEL_ERROR: Debug level for print error message on lcd.

LCD_TRACE_LEVEL_WARNING: Debug level for print detailed informations message on serial interface.

LCD_TRACE_LEVEL_INFO: Debug level for print informations message on lcd.

LCD_TRACE_LEVEL_DEBUG: Debug level for print verbose informations message on lcd.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

STIMA_LCD_TRACE_LEVEL: Lcd trace level debug for stima sketch.

file debug_config.h

Defines

SDCARD_LOGGING_FILE_NAME: File name for logging on SD-Card.

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

DEBUG_MEMORY: Activate debug of memory use and stack heap collision on serial interface.

LCD_TRACE_LEVEL_OFF: Debug level for print error message on lcd interface.

LCD_TRACE_LEVEL_ERROR: Debug level for print error message on lcd.

LCD_TRACE_LEVEL_WARNING: Debug level for print detailed informations message on serial interface.

LCD_TRACE_LEVEL_INFO: Debug level for print informations message on lcd.

LCD_TRACE_LEVEL_DEBUG: Debug level for print verbose informations message on lcd.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

STIMA_LCD_TRACE_LEVEL: Lcd trace level debug for stima sketch.

file debug_config.h

Defines

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

DEBUG_MEMORY: Activate debug of memory use and stack heap collision on serial interface.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

STIMA_LCD_TRACE_LEVEL: Lcd trace level debug for stima sketch.

file debug_config.h

Defines

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

DEBUG_MEMORY: Activate debug of memory use and stack heap collision on serial interface.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

STIMA_LCD_TRACE_LEVEL: Lcd trace level debug for stima sketch.

file debug_config.h

Defines

ENABLE_SDCARD_LOGGING: Enable logging on SDcard define to 1 the macro to enable logging on a file on SDcard.

LOG_LEVEL: logging level at compile time Available levels are: LOG_LEVEL_SILENT LOG_LEVEL_FATAL LOG_LEVEL_ERROR LOG_LEVEL_WARNING LOG_LEVEL_NOTICE LOG_LEVEL_TRACE LOG_LEVEL_VERBOSE

DEBUG_MEMORY: Activate debug of memory use and stack heap collision on serial interface.

LCD_TRACE_LEVEL_OFF: Debug level for print error message on lcd interface.

LCD_TRACE_LEVEL_ERROR: Debug level for print error message on lcd.

LCD_TRACE_LEVEL_WARNING: Debug level for print detailed informations message on serial interface.

LCD_TRACE_LEVEL_INFO: Debug level for print informations message on lcd.

LCD_TRACE_LEVEL_DEBUG: Debug level for print verbose informations message on lcd.

OK_STRING: "OK" string message.

ERROR_STRING: "ERROR" string message.

FAIL_STRING: "FAIL" string message.

YES_STRING: "YES" string message.

NO_STRING: "NO" string message.

ON_STRING: "ON" string message.

OFF_STRING: "OFF" string message.

SAVE_STRING: "SAVE" string message.

STIMA_LCD_TRACE_LEVEL: Lcd trace level debug for stima sketch.

file i2c_config.h

Defines

I2C_BUS_CLOCK: I2C bus clock in Hertz.

I2C_MAX_DATA_LENGTH: Max length in bytes for i2c bus data buffer.

I2C_MAX_ERROR_COUNT: Max i2c error for bus restart.

file i2c_config.h

Defines

I2C_BUS_CLOCK: I2C bus clock in Hertz.

I2C_MAX_DATA_LENGTH: Max length in bytes for i2c bus data buffer.

I2C_MAX_ERROR_COUNT: Max i2c error for bus restart.

file i2c_config.h

Defines

I2C_BUS_CLOCK: I2C bus clock in Hertz. 30418,25 Hz : minimum freq with prescaler set to 1 and CPU clock to 16MHz.

I2C_MAX_DATA_LENGTH: Max length in bytes for i2c bus data buffer.

I2C_MAX_ERROR_COUNT: Max i2c error for bus restart.

I2C_SET_ERROR_COUNT: I2C error count for bus restart.

file i2c_config.h

Defines

I2C_BUS_CLOCK: I2C bus clock in Hertz. 30418,25 Hz : minimum freq with prescaler set to 1 and CPU clock to 16MHz.

I2C_MAX_DATA_LENGTH: Max length in bytes for i2c bus data buffer.

I2C_MAX_ERROR_COUNT: Max i2c error for bus restart.

I2C_SET_ERROR_COUNT: I2C error count for bus restart.

file i2c_config.h

Defines

I2C_HOW_MANY_BUSY_CHECKS_AFTER_STOP

TWI_TIMEOUT

I2C_BUS_CLOCK: I2C bus clock in Hertz. 30418,25 Hz : minimum freq with prescaler set to 1 and CPU clock to 16MHz.

I2C_MAX_DATA_LENGTH: Max length in bytes for i2c bus data buffer.

I2C_MAX_ERROR_COUNT: Max i2c error for bus restart.

file i2c_config.h

Defines

I2C_BUS_CLOCK: I2C bus clock in Hertz. 30418,25 Hz : minimum freq with prescaler set to 1 and CPU clock to 16MHz.

I2C_MAX_DATA_LENGTH: Max length in bytes for i2c bus data buffer.

I2C_MAX_ERROR_COUNT: Max i2c error for bus restart.

file i2c_config.h

Defines

I2C_BUS_CLOCK: I2C bus clock in Hertz. 30418,25 Hz : minimum freq with prescaler set to 1 and CPU clock to 16MHz.

I2C_MAX_DATA_LENGTH: Max length in bytes for i2c bus data buffer.

I2C_MAX_ERROR_COUNT: Max i2c error for bus restart.

file i2c_config.h

Defines

I2C_BUS_CLOCK: I2C bus clock in Hertz.

I2C_MAX_DATA_LENGTH: Max length in bytes for i2c bus data buffer.

I2C_MAX_ERROR_COUNT: Max i2c error for bus restart.

I2C_SET_ERROR_COUNT: I2C error count for bus restart.

file i2c_config.h

Defines

I2C_BUS_CLOCK: I2C bus clock in Hertz. 30418,25 Hz : minimum freq with prescaler set to 1 and CPU clock to 16MHz.

I2C_MAX_DATA_LENGTH: Max length in bytes for i2c bus data buffer.

I2C_MAX_ERROR_COUNT: Max i2c error for bus restart.

file i2c_config.h

Defines

I2C_BUS_CLOCK: I2C bus clock in Hertz.

I2C_MAX_DATA_LENGTH: Max length in bytes for i2c bus data buffer.

I2C_MAX_ERROR_COUNT: Max i2c error for bus restart.

file i2c_config.h

Defines

I2C_BUS_CLOCK: I2C bus clock in Hertz.

I2C_MAX_DATA_LENGTH: Max length in bytes for i2c bus data buffer.

I2C_MAX_ERROR_COUNT: Max i2c error for bus restart.

file i2c_config.h

Defines

I2C_BUS_CLOCK: I2C bus clock in Hertz. 30418,25 Hz : minimum freq with prescaler set to 1 and CPU clock to 16MHz.

I2C_MAX_DATA_LENGTH: Max length in bytes for i2c bus data buffer.

I2C_MAX_ERROR_COUNT: Max i2c error for bus restart.

file i2c_config.h

Defines

I2C_BUS_CLOCK: I2C bus clock in Hertz.

I2C_MAX_DATA_LENGTH: Max length in bytes for i2c bus data buffer.

I2C_MAX_ERROR_COUNT: Max i2c error for bus restart.

file i2c_config.h

Defines

I2C_BUS_CLOCK: I2C bus clock in Hertz.

I2C_MAX_DATA_LENGTH: Max length in bytes for i2c bus data buffer.

I2C_MAX_ERROR_COUNT: Max i2c error for bus restart.

file i2c_config.h

Defines

I2C_BUS_CLOCK: I2C bus clock in Hertz.

I2C_MAX_DATA_LENGTH: Max length in bytes for i2c bus data buffer.

I2C_MAX_ERROR_COUNT: Max i2c error for bus restart.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file json_config.h

Defines

JSON_BUFFER_LENGTH: Length in bytes for JSON data buffer.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_SUBSCRIBE_TOPIC_LENGTH: Length in bytes for mqtt subscibe topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_SUBSCRIBE_TOPIC: Default MQTT subscibe topic.

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_SUBSCRIBE_TOPIC_LENGTH: Length in bytes for mqtt subscibe topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_SUBSCRIBE_TOPIC: Default MQTT subscibe topic.

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_SUBSCRIBE_TOPIC_LENGTH: Length in bytes for mqtt subscibe topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_SUBSCRIBE_TOPIC: Default MQTT subscibe topic.

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_SUBSCRIBE_TOPIC_LENGTH: Length in bytes for mqtt subscibe topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_SUBSCRIBE_TOPIC: Default MQTT subscibe topic.

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_SUBSCRIBE_TOPIC_LENGTH: Length in bytes for mqtt subscibe topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_SUBSCRIBE_TOPIC: Default MQTT subscibe topic.

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_SUBSCRIBE_TOPIC_LENGTH: Length in bytes for mqtt subscibe topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_SUBSCRIBE_TOPIC: Default MQTT subscibe topic.

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_SUBSCRIBE_TOPIC_LENGTH: Length in bytes for mqtt subscibe topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_SUBSCRIBE_TOPIC: Default MQTT subscibe topic.

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_SUBSCRIBE_TOPIC_LENGTH: Length in bytes for mqtt subscibe topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_SUBSCRIBE_TOPIC: Default MQTT subscibe topic.

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_RPC_TOPIC_LENGTH: Length in bytes for mqtt rpc topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_RPC_COMMAND_LENGTH: Length in bytes for mqtt rpc command message.

MQTT_RPC_RESPONSE_LENGTH: Length in bytes for mqtt rpc response message.

MQTT_PACKET_SIZE: Length in bytes for max mqtt packet size.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_RPC_TOPIC

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_RPC_TOPIC_LENGTH: Length in bytes for mqtt rpc topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_RPC_COMMAND_LENGTH: Length in bytes for mqtt rpc command message.

MQTT_RPC_RESPONSE_LENGTH: Length in bytes for mqtt rpc response message.

MQTT_PACKET_SIZE: Length in bytes for max mqtt packet size.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_RPC_TOPIC

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_RPC_TOPIC_LENGTH: Length in bytes for mqtt rpc topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_RPC_COMMAND_LENGTH: Length in bytes for mqtt rpc command message.

MQTT_RPC_RESPONSE_LENGTH: Length in bytes for mqtt rpc response message.

MQTT_PACKET_SIZE: Length in bytes for max mqtt packet size.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

STATIONSLUG_LENGTH: Length in bytes for station slug.

BOARDSLUG_LENGTH: Length in bytes for board slug.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_RPC_TOPIC

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

DEFAULT_STATIONSLUG: Default station slug.

DEFAULT_BOARDSLUG: Default board slug.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_RPC_TOPIC_LENGTH: Length in bytes for mqtt rpc topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_RPC_COMMAND_LENGTH: Length in bytes for mqtt rpc command message.

MQTT_RPC_RESPONSE_LENGTH: Length in bytes for mqtt rpc response message.

MQTT_PACKET_SIZE: Length in bytes for max mqtt packet size.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

STATIONSLUG_LENGTH: Length in bytes for station slug.

BOARDSLUG_LENGTH: Length in bytes for board slug.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_RPC_TOPIC

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

DEFAULT_STATIONSLUG: Default station slug.

DEFAULT_BOARDSLUG: Default board slug.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_SUBSCRIBE_TOPIC_LENGTH: Length in bytes for mqtt subscibe topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_SUBSCRIBE_TOPIC: Default MQTT subscibe topic.

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_RPC_TOPIC_LENGTH: Length in bytes for mqtt rpc topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_RPC_COMMAND_LENGTH: Length in bytes for mqtt rpc command message.

MQTT_RPC_RESPONSE_LENGTH: Length in bytes for mqtt rpc response message.

MQTT_PACKET_SIZE: Length in bytes for max mqtt packet size.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_RPC_TOPIC

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_SUBSCRIBE_TOPIC_LENGTH: Length in bytes for mqtt subscibe topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_SUBSCRIBE_TOPIC: Default MQTT subscibe topic.

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_SUBSCRIBE_TOPIC_LENGTH: Length in bytes for mqtt subscibe topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_SUBSCRIBE_TOPIC: Default MQTT subscibe topic.

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_SUBSCRIBE_TOPIC_LENGTH: Length in bytes for mqtt subscibe topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_SUBSCRIBE_TOPIC: Default MQTT subscibe topic.

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_SUBSCRIBE_TOPIC_LENGTH: Length in bytes for mqtt subscibe topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_SUBSCRIBE_TOPIC: Default MQTT subscibe topic.

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_SUBSCRIBE_TOPIC_LENGTH: Length in bytes for mqtt subscibe topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_SUBSCRIBE_TOPIC: Default MQTT subscibe topic.

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file mqtt_config.h

Defines

MQTT_ROOT_TOPIC_LENGTH: Length in bytes for mqtt root topic.

MQTT_MAINT_TOPIC_LENGTH: Length in bytes for mqtt maint topic.

MQTT_SUBSCRIBE_TOPIC_LENGTH: Length in bytes for mqtt subscibe topic.

MQTT_SENSOR_TOPIC_LENGTH: Length in bytes for mqtt sensor topic.

MQTT_CLIENT_ID_LENGTH: Length in bytes for mqtt client id.

MQTT_MESSAGE_LENGTH: Length in bytes for mqtt message.

MQTT_SERVER_LENGTH: Length in bytes for mqtt server.

MQTT_USERNAME_LENGTH: Length in bytes for mqtt username.

MQTT_PASSWORD_LENGTH: Length in bytes for mqtt password.

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

MQTT_DEFAULT_SERVER: Default MQTT server.

MQTT_DEFAULT_PORT: Default MQTT server port.

MQTT_DEFAULT_ROOT_TOPIC: Default MQTT root topic.

MQTT_DEFAULT_MAINT_TOPIC: Default MQTT maint topic.

MQTT_DEFAULT_SUBSCRIBE_TOPIC: Default MQTT subscibe topic.

MQTT_DEFAULT_USERNAME: Default MQTT username.

MQTT_DEFAULT_PASSWORD: Default MQTT password.

MQTT_STATUS_TOPIC: Default MQTT status topic for printing on connect/disconnect message.

MQTT_ON_CONNECT_MESSAGE: MQTT on connect message.

MQTT_ON_DISCONNECT_MESSAGE: MQTT on disconnect message.

MQTT_ON_ERROR_MESSAGE: MQTT on error message.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SPI_DRIVER_SELECT

USE_SD_CRC

SDFAT_FILE_TYPE

USE_LONG_FILE_NAMES

USE_SEPARATE_FAT_CACHE

USE_EXFAT_BITMAP_CACHE

USE_UTF8_LONG_NAMES

USE_FAT_FILE_FLAG_CONTIGUOUS

ENABLE_DEDICATED_SPI

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sdcard_config.h

Defines

SDCARD_FILES_NAME_MAX_LENGTH: Length in bytes for sdcard file name data buffer.

file sensors_config.h

Defines

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

RAIN_FOR_TIP: How much mm of rain for one tip of tipping bucket rain gauge.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

OBSERVATIONS_MINUTES: How much minutes for calculate an observations by processing sampling. Tipically 1-10 minutes.

STATISTICAL_DATA_COUNT: How much observations are needed for generating a report.

OBSERVATION_COUNT: Observations buffer length.

OBSERVATION_COUNT_TOLLERANCE: Tolerance of observations for generating a valid report.

file sensors_config.h

Defines

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

RAIN_FOR_TIP: How much mm of rain for one tip of tipping bucket rain gauge.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

OBSERVATIONS_MINUTES: How much minutes for calculate an observations by processing sampling. Tipically 1-10 minutes.

STATISTICAL_DATA_COUNT: How much observations are needed for generating a report.

OBSERVATION_COUNT: Observations buffer length.

OBSERVATION_COUNT_TOLLERANCE: Tolerance of observations for generating a valid report.

file sensors_config.h

Defines

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_DES: Enable if you want use DigitEco Wind Speed sensor.

USE_SENSOR_DED: Enable if you want use DigitEco Wind Direction sensor.

USE_SENSOR_DSR: Enable if you want use DigitEco Global Solar Radiation sensor.

USE_SENSOR_VSR: Enable if you want use 0-2.5V High Resolution Global Solar Radiation sensor.

USE_SENSOR_PWR: Enable if you want use power (solar panel and battery) sensor.

USE_SENSOR_DSA: Enable if you want average Global Solar Radiation sensor.

USE_SENSOR_DWA: Enable if you want vectorial average Wind Speed and Direction over 10'.

USE_SENSOR_DWB: Enable if you want vectorial average Wind Speed and Direction over report time.

USE_SENSOR_DWC: Enable if you want gust Wind Speed and Direction over report time.

USE_SENSOR_DWD: Enable if you want average Wind Speed over report time.

USE_SENSOR_DWE: Enable if you want class Wind Speed over report time.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

RAIN_FOR_TIP: How much mm of rain for one tip of tipping bucket rain gauge.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

OBSERVATIONS_MINUTES: How much minutes for calculate an observations by processing sampling. Tipically 1-10 minutes.

STATISTICAL_DATA_COUNT: How much observations are needed for generating a report.

OBSERVATION_COUNT: Observations buffer length.

OBSERVATION_COUNT_TOLLERANCE: Tolerance of observations for generating a valid report.

file sensors_config.h

Defines

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_DES: Enable if you want use DigitEco Wind Speed sensor.

USE_SENSOR_DED: Enable if you want use DigitEco Wind Direction sensor.

USE_SENSOR_DSR: Enable if you want use DigitEco Global Solar Radiation sensor.

USE_SENSOR_VSR: Enable if you want use 0-2.5V High Resolution Global Solar Radiation sensor.

USE_SENSOR_DSA: Enable if you want average Global Solar Radiation sensor.

USE_SENSOR_DWA: Enable if you want vectorial average Wind Speed and Direction over 10'.

USE_SENSOR_DWB: Enable if you want vectorial average Wind Speed and Direction over report time.

USE_SENSOR_DWC: Enable if you want gust Wind Speed and Direction over report time.

USE_SENSOR_DWD: Enable if you want average Wind Speed over report time.

USE_SENSOR_DWE: Enable if you want class Wind Speed over report time.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

RAIN_FOR_TIP: How much mm of rain for one tip of tipping bucket rain gauge.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

OBSERVATIONS_MINUTES: How much minutes for calculate an observations by processing sampling. Tipically 1-10 minutes.

STATISTICAL_DATA_COUNT: How much observations are needed for generating a report.

OBSERVATION_COUNT: Observations buffer length.

OBSERVATION_COUNT_TOLLERANCE: Tolerance of observations for generating a valid report.

file sensors_config.h

Defines

SENSORS_MAX

SENSORS_UNIQUE_MAX

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

file sensors_config.h

Defines

SENSORS_MAX

SENSORS_UNIQUE_MAX

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_SPS: Enable if you want use Sensirion SPS30 PM sensor.

USE_SENSOR_SCD: Enable if you want use Sensiorion SCD30 CO2 sensor.

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_SHT

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_POW: Enable if you want use Power panel and battery sensor.

USE_SENSOR_DES: Enable if you want use DigitEco Wind Speed sensor.

USE_SENSOR_DED: Enable if you want use DigitEco Wind Direction sensor.

USE_SENSOR_DSR: Enable if you want use DigitEco Global Solar Radiation sensor.

USE_SENSOR_VSR: Enable if you want use 0-5V High Resolution Global Solar Radiation sensor.

USE_SENSOR_DSA: Enable if you want average Global Solar Radiation sensor.

USE_SENSOR_DWA: Enable if you want vectorial average Wind Speed and Direction over 10' (WMO).

USE_SENSOR_DWB: Enable if you want vectorial average Wind Speed and Direction over report time.

USE_SENSOR_DWC: Enable if you want gust and long gust Wind Speed over report time.

USE_SENSOR_DWD: Enable if you want average Wind Speed over report time.

USE_SENSOR_DWE: Enable if you want frequency class Wind Speed over report time.

USE_SENSOR_DWF: Enable if you want gust and long gust Wind Direction over report time.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

file sensors_config.h

Defines

SENSORS_MAX

SENSORS_UNIQUE_MAX

USE_THR: Enable if you want use one module for TH and RAIN. Disable if you want use one module for TH and one for RAIN.

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

OBSERVATIONS_MINUTES: How much minutes for calculate an observations by processing sampling. Tipically 1-10 minutes.

STATISTICAL_DATA_COUNT: How much observations are needed for generating a report.

OBSERVATION_COUNT: Observations buffer length.

OBSERVATION_COUNT_TOLLERANCE: Tolerance of observations for generating a valid report.

USE_TH_SENSORS

USE_RAIN_SENSORS

USE_MODULE_THR

USE_MODULE_TH

USE_MODULE_RAIN

file sensors_config.h

Defines

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_DES: Enable if you want use DigitEco Wind Speed sensor.

USE_SENSOR_DED: Enable if you want use DigitEco Wind Direction sensor.

USE_SENSOR_DSR: Enable if you want use DigitEco Global Solar Radiation sensor.

USE_SENSOR_VSR: Enable if you want use 0-5V High Resolution Global Solar Radiation sensor.

USE_SENSOR_DSA: Enable if you want average Global Solar Radiation sensor.

USE_SENSOR_DWA: Enable if you want vectorial average Wind Speed and Direction over 10'.

USE_SENSOR_DWB: Enable if you want vectorial average Wind Speed and Direction over report time.

USE_SENSOR_DWC: Enable if you want gust Wind Speed and Direction over report time.

USE_SENSOR_DWD: Enable if you want average Wind Speed over report time.

USE_SENSOR_DWE: Enable if you want class Wind Speed over report time.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

OBSERVATIONS_MINUTES: How much minutes for calculate an observations by processing sampling. Tipically 1-10 minutes.

STATISTICAL_DATA_COUNT: How much observations are needed for generating a report.

OBSERVATION_COUNT: Observations buffer length.

OBSERVATION_COUNT_TOLLERANCE: Tolerance of observations for generating a valid report.

file sensors_config.h

Defines

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

RAIN_FOR_TIP: How much mm of rain for one tip of tipping bucket rain gauge.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

OBSERVATIONS_MINUTES: How much minutes for calculate an observations by processing sampling. Tipically 1-10 minutes.

STATISTICAL_DATA_COUNT: How much observations are needed for generating a report.

OBSERVATION_COUNT: Observations buffer length.

OBSERVATION_COUNT_TOLLERANCE: Tolerance of observations for generating a valid report.

file sensors_config.h

Defines

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

RAIN_FOR_TIP: How much mm of rain for one tip of tipping bucket rain gauge.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

OBSERVATIONS_MINUTES: How much minutes for calculate an observations by processing sampling. Tipically 1-10 minutes.

STATISTICAL_DATA_COUNT: How much observations are needed for generating a report.

OBSERVATION_COUNT: Observations buffer length.

OBSERVATION_COUNT_TOLLERANCE: Tolerance of observations for generating a valid report.

file sensors_config.h

Defines

SENSORS_MAX

SENSORS_UNIQUE_MAX

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_POW: Enable if you want use Power panel and battery sensor.

USE_SENSOR_DES: Enable if you want use DigitEco Wind Speed sensor.

USE_SENSOR_DED: Enable if you want use DigitEco Wind Direction sensor.

USE_SENSOR_DSR: Enable if you want use DigitEco Global Solar Radiation sensor.

USE_SENSOR_VSR: Enable if you want use 0-5V High Resolution Global Solar Radiation sensor.

USE_SENSOR_DSA: Enable if you want average Global Solar Radiation sensor.

USE_SENSOR_DWA: Enable if you want vectorial average Wind Speed and Direction over 10'.

USE_SENSOR_DWB: Enable if you want vectorial average Wind Speed and Direction over report time.

USE_SENSOR_DWC: Enable if you want gust Wind Speed and Direction over report time.

USE_SENSOR_DWD: Enable if you want average Wind Speed over report time.

USE_SENSOR_DWE: Enable if you want class Wind Speed over report time.

USE_SENSOR_DWF: Enable if you want maximum wind gust speed and direction over report time.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

file sensors_config.h

Defines

SENSORS_MAX

SENSORS_UNIQUE_MAX

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_SPS: Enable if you want use Sensirion SPS30 PM sensor.

USE_SENSOR_SCD: Enable if you want use Sensiorion SCD30 CO2 sensor.

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_SHT

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_POW: Enable if you want use Power panel and battery sensor.

USE_SENSOR_DES: Enable if you want use DigitEco Wind Speed sensor.

USE_SENSOR_DED: Enable if you want use DigitEco Wind Direction sensor.

USE_SENSOR_DSR: Enable if you want use DigitEco Global Solar Radiation sensor.

USE_SENSOR_VSR: Enable if you want use 0-5V High Resolution Global Solar Radiation sensor.

USE_SENSOR_DSA: Enable if you want average Global Solar Radiation sensor.

USE_SENSOR_DWA: Enable if you want vectorial average Wind Speed and Direction over 10' (WMO).

USE_SENSOR_DWB: Enable if you want vectorial average Wind Speed and Direction over report time.

USE_SENSOR_DWC: Enable if you want gust and long gust Wind Speed over report time.

USE_SENSOR_DWD: Enable if you want average Wind Speed over report time.

USE_SENSOR_DWE: Enable if you want frequency class Wind Speed over report time.

USE_SENSOR_DWF: Enable if you want gust and long gust Wind Direction over report time.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

file sensors_config.h

Defines

SENSORS_MAX

SENSORS_UNIQUE_MAX

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_SPS: Enable if you want use Sensirion SPS30 PM sensor.

USE_SENSOR_SCD: Enable if you want use Sensiorion SCD30 CO2 sensor.

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_SHT

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_POW: Enable if you want use Power panel and battery sensor.

USE_SENSOR_DES: Enable if you want use DigitEco Wind Speed sensor.

USE_SENSOR_DED: Enable if you want use DigitEco Wind Direction sensor.

USE_SENSOR_DSR: Enable if you want use DigitEco Global Solar Radiation sensor.

USE_SENSOR_VSR: Enable if you want use 0-5V High Resolution Global Solar Radiation sensor.

USE_SENSOR_DSA: Enable if you want average Global Solar Radiation sensor.

USE_SENSOR_DWA: Enable if you want vectorial average Wind Speed and Direction over 10' (WMO).

USE_SENSOR_DWB: Enable if you want vectorial average Wind Speed and Direction over report time.

USE_SENSOR_DWC: Enable if you want gust and long gust Wind Speed over report time.

USE_SENSOR_DWD: Enable if you want average Wind Speed over report time.

USE_SENSOR_DWE: Enable if you want frequency class Wind Speed over report time.

USE_SENSOR_DWF: Enable if you want gust and long gust Wind Direction over report time.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

file sensors_config.h

Defines

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

RAIN_FOR_TIP: How much mm of rain for one tip of tipping bucket rain gauge.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

OBSERVATIONS_MINUTES: How much minutes for calculate an observations by processing sampling. Tipically 1-10 minutes.

STATISTICAL_DATA_COUNT: How much observations are needed for generating a report.

OBSERVATION_COUNT: Observations buffer length.

OBSERVATION_COUNT_TOLLERANCE: Tolerance of observations for generating a valid report.

file sensors_config.h

Defines

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

RAIN_FOR_TIP: How much mm of rain for one tip of tipping bucket rain gauge.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

OBSERVATIONS_MINUTES: How much minutes for calculate an observations by processing sampling. Tipically 1-10 minutes.

STATISTICAL_DATA_COUNT: How much observations are needed for generating a report.

OBSERVATION_COUNT: Observations buffer length.

OBSERVATION_COUNT_TOLLERANCE: Tolerance of observations for generating a valid report.

file sensors_config.h

Defines

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

RAIN_FOR_TIP: How much mm of rain for one tip of tipping bucket rain gauge.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

OBSERVATIONS_MINUTES: How much minutes for calculate an observations by processing sampling. Tipically 1-10 minutes.

STATISTICAL_DATA_COUNT: How much observations are needed for generating a report.

OBSERVATION_COUNT: Observations buffer length.

OBSERVATION_COUNT_TOLLERANCE: Tolerance of observations for generating a valid report.

file sensors_config.h

Defines

SENSORS_MAX

SENSORS_UNIQUE_MAX

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_SPS: Enable if you want use Sensirion SPS30 PM sensor.

USE_SENSOR_SCD: Enable if you want use Sensiorion SCD30 CO2 sensor.

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_SHT

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_POW: Enable if you want use Power panel and battery sensor.

USE_SENSOR_DES: Enable if you want use DigitEco Wind Speed sensor.

USE_SENSOR_DED: Enable if you want use DigitEco Wind Direction sensor.

USE_SENSOR_DSR: Enable if you want use DigitEco Global Solar Radiation sensor.

USE_SENSOR_VSR: Enable if you want use 0-5V High Resolution Global Solar Radiation sensor.

USE_SENSOR_DSA: Enable if you want average Global Solar Radiation sensor.

USE_SENSOR_DWA: Enable if you want vectorial average Wind Speed and Direction over 10' (WMO).

USE_SENSOR_DWB: Enable if you want vectorial average Wind Speed and Direction over report time.

USE_SENSOR_DWC: Enable if you want gust and long gust Wind Speed over report time.

USE_SENSOR_DWD: Enable if you want average Wind Speed over report time.

USE_SENSOR_DWE: Enable if you want frequency class Wind Speed over report time.

USE_SENSOR_DWF: Enable if you want gust and long gust Wind Direction over report time.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

file sensors_config.h

Defines

SENSORS_MAX

SENSORS_UNIQUE_MAX

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_SPS: Enable if you want use Sensirion SPS30 PM sensor.

USE_SENSOR_SCD: Enable if you want use Sensiorion SCD30 CO2 sensor.

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_SHT

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_POW: Enable if you want use Power panel and battery sensor.

USE_SENSOR_DES: Enable if you want use DigitEco Wind Speed sensor.

USE_SENSOR_DED: Enable if you want use DigitEco Wind Direction sensor.

USE_SENSOR_DSR: Enable if you want use DigitEco Global Solar Radiation sensor.

USE_SENSOR_VSR: Enable if you want use 0-5V High Resolution Global Solar Radiation sensor.

USE_SENSOR_DSA: Enable if you want average Global Solar Radiation sensor.

USE_SENSOR_DWA: Enable if you want vectorial average Wind Speed and Direction over 10' (WMO).

USE_SENSOR_DWB: Enable if you want vectorial average Wind Speed and Direction over report time.

USE_SENSOR_DWC: Enable if you want gust and long gust Wind Speed over report time.

USE_SENSOR_DWD: Enable if you want average Wind Speed over report time.

USE_SENSOR_DWE: Enable if you want frequency class Wind Speed over report time.

USE_SENSOR_DWF: Enable if you want gust and long gust Wind Direction over report time.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

file sensors_config.h

Defines

SENSORS_MAX

SENSORS_UNIQUE_MAX

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_SPS: Enable if you want use Sensirion SPS30 PM sensor.

USE_SENSOR_SCD: Enable if you want use Sensiorion SCD30 CO2 sensor.

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_SHT

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_POW: Enable if you want use Power panel and battery sensor.

USE_SENSOR_DES: Enable if you want use DigitEco Wind Speed sensor.

USE_SENSOR_DED: Enable if you want use DigitEco Wind Direction sensor.

USE_SENSOR_DSR: Enable if you want use DigitEco Global Solar Radiation sensor.

USE_SENSOR_VSR: Enable if you want use 0-5V High Resolution Global Solar Radiation sensor.

USE_SENSOR_DSA: Enable if you want average Global Solar Radiation sensor.

USE_SENSOR_DWA: Enable if you want vectorial average Wind Speed and Direction over 10' (WMO).

USE_SENSOR_DWB: Enable if you want vectorial average Wind Speed and Direction over report time.

USE_SENSOR_DWC: Enable if you want gust and long gust Wind Speed over report time.

USE_SENSOR_DWD: Enable if you want average Wind Speed over report time.

USE_SENSOR_DWE: Enable if you want frequency class Wind Speed over report time.

USE_SENSOR_DWF: Enable if you want gust and long gust Wind Direction over report time.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

file sensors_config.h

Defines

USE_JSON: Enable if you want use json library for json response (getJson function in SensorDriver).

USE_SENSOR_ADT: Enable if you want use ADT7420 sensor.

USE_SENSOR_HIH: Enable if you want use HIH6100 sensor.

USE_SENSOR_HYT: Enable if you want use HYT271 or HYT221 sensor.

USE_SENSOR_DEP: Enable if you want use DigitEco Power sensor.

USE_SENSOR_OA2: Enable if you want use OPC PM1, PM2.5, PM10 continuous average value.

USE_SENSOR_OA3

USE_SENSOR_OB2: Enable if you want use OPC PM1, PM2.5, PM10 continuous standard deviation value.

USE_SENSOR_OB3

USE_SENSOR_OC2: Enable if you want use OPC BINS continuous average value.

USE_SENSOR_OC3

USE_SENSOR_OD2: Enable if you want use OPC BINS continuous standard deviation value.

USE_SENSOR_OD3

USE_SENSOR_OE3

USE_SENSOR_LWT: Enable if you want use leaf wetness time continuous value.

USE_SENSOR_HI7: Enable if you want use SI7021 sensor.

USE_SENSOR_BMP: Enable if you want use Bmp085 sensor.

USE_SENSOR_DW1: Enable if you want use DW1 sensor.

USE_SENSOR_TBR: Enable if you want use Tipping bucket rain gauge sensor.

USE_SENSOR_STH: Enable if you want use Temperature and humidity oneshot sensor.

USE_SENSOR_ITH: Enable if you want use Temperature and humidity continuous istantaneous sensor.

USE_SENSOR_NTH: Enable if you want use Temperature and humidity continuous minium sensor.

USE_SENSOR_MTH: Enable if you want use Temperature and humidity continuous average sensor.

USE_SENSOR_XTH: Enable if you want use Temperature and humidity continuous maximum sensor.

USE_SENSOR_SSD: Enable if you want use SSD011 oneshot sensor.

USE_SENSOR_ISD: Enable if you want use SSD011 report istantaneous sensor.

USE_SENSOR_NSD: Enable if you want use SSD011 report minium sensor.

USE_SENSOR_MSD: Enable if you want use SSD011 report average sensor.

USE_SENSOR_XSD: Enable if you want use SSD011 report maximum sensor.

USE_SENSOR_SMI: Enable if you want use MICS4514 oneshot sensor.

USE_SENSOR_IMI: Enable if you want use MICS4514 report istantaneous sensor.

USE_SENSOR_NMI: Enable if you want use MICS4514 report minium sensor.

USE_SENSOR_MMI: Enable if you want use MICS4514 report average sensor.

USE_SENSOR_GWS: Enable if you want use Gill Windsonic sensor.

USE_SENSOR_XMI: Enable if you want use MICS4514 report maximum sensor.

USE_SENSOR_RF24: Enable if you want use Radio RF24 sensor.

RAIN_FOR_TIP: How much mm of rain for one tip of tipping bucket rain gauge.

VALUES_TO_READ_FROM_SENSOR_COUNT: Maximum number of values to be read by the sensors.

JSONS_TO_READ_FROM_SENSOR_COUNT

OBSERVATIONS_MINUTES: How much minutes for calculate an observations by processing sampling. Tipically 1-10 minutes.

STATISTICAL_DATA_COUNT: How much observations are needed for generating a report.

OBSERVATION_COUNT: Observations buffer length.

OBSERVATION_COUNT_TOLLERANCE: Tolerance of observations for generating a valid report.

file i2c-leaf-config.h

#include <sensors_config.h>

Defines

MODULE_MAIN_VERSION: Module major version.

MODULE_MINOR_VERSION: Module major version.

MODULE_CONFIGURATION_VERSION: Module version of compatibile configuration. If you change it, you have to reconfigure.

MODULE_TYPE: Type of module. It is defined in registers.h.

CONFIGURATION_DEFAULT_IS_ONESHOT: Oneshot mode for default.

CONFIGURATION_DEFAULT_IS_CONTINUOUS: Continuous mode for default.

CONFIGURATION_DEFAULT_I2C_ADDRESS: Default i2c address.

CONFIGURATION_DEFAULT_LEAF_CALIBRATION_THRESHOLD: Default threshold for ADC wet/dry (0-1023).

CONFIGURATION_RESET_PIN: Input pin for reset configuration at startup.

LEAF_POWER_PIN: Output pin for power on and power off leaf sensor.

LEAF_ANALOG_PIN: Input pin for reading leaf sensor value.

SDCARD_CHIP_SELECT_PIN: Chip select for SDcard SPI.

SPI_SPEED: Clock speed for SPI and SDcard.

I2C_MAX_TIME: Max i2c time in seconds before i2c restart.

USE_POWER_DOWN: Enable or disable power down.

DEBOUNCING_POWER_DOWN_TIME_MS: Debounce power down ms.

USE_TIMER_1: Enable or disable timer1.

USE_LEAF_POWER_DOWN: Enable or disable power down for leaf sensor.

WDT_TIMER

Watchdog timer for periodically check microprocessor block states.

Possible value for WDT_TIMER are: WDTO_15MS, WDTO_30MS, WDTO_60MS, WDTO_120MS, WDTO_250MS, WDTO_500MS, WDTO_1S, WDTO_2S, WDTO_4S, WDTO_8S

SENSORS_SAMPLE_TIME_MS: Milliseconds for sampling sensors: 1000 - 60000 [ms] must be integer multiple of TIMER1_INTERRUPT_TIME_MS !!!

TIMER1_INTERRUPT_TIME_MS: Value in milliseconds for generating timer1 interrupt: 100 - 8000 [ms].

TIMER1_TCNT1_VALUE: Timer1 timer overflow with 1024 prescaler at 8 MHz.

TIMER_COUNTER_VALUE_MAX_MS: Maximum timer1 counter value for timed tasks.

LEAF_VALUES_READ_DELAY_MS: Reading delay from measure to get one data.

LEAF_READ_COUNT: Maximum number of leaf reading to get one data.

TRANSACTION_TIMEOUT_MS: Timeout for command transaction.

file i2c-leaf.h

#include "i2c-leaf-config.h"

#include <debug.h>

#include <i2c_config.h>

#include <avr/sleep.h>

#include <avr/power.h>

#include <avr/wdt.h>

#include <i2c_utility.h>

#include <rmap_utility.h>

#include <eeprom_utility.h>

#include <Wire.h>

#include <TimeLib.h>

#include <typedef.h>

#include <registers-leaf.h>

#include <debug_config.h>

#include <SdFat.h>

#include <StreamUtils.h>

#include <ArduinoLog.h>

Enums

enum state_t

Main loop finite state machine.

Values:

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator REBOOT: reboot the machine

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enum leaf_reading_state_t

Values:

enumerator LEAF_READING_INIT: init task variables

enumerator LEAF_READING_READ

enumerator LEAF_READING_END: performs end operations and deactivate task

enumerator LEAF_READING_WAIT_STATE: non-blocking waiting time

Functions

void init_logging()

Init logging system.

Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_system(void)

Init system.

Ritorna:: void.

void init_buffers(void)

Init buffers.

Ritorna:: void.

void init_tasks(void)

Init tasks variable and state.

Ritorna:: void.

void init_pins(void)

Init hardware pins.

Ritorna:: void.

void init_wire(void)

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_spi(void)

Init SPI library.

Ritorna:: void.

void init_rtc(void)

Init RTC module.

Ritorna:: void.

void init_sensors(void)

Create and setup sensors.

Ritorna:: void.

void print_configuration(void)

Print current configuration.

Ritorna:: void.

void load_configuration(void)

Load configuration from EEPROM.

Ritorna:: void.

void save_configuration(bool)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void commands(void)

Performs specific operations based on the received command.

Ritorna:: void.

void reset_samples_buffer(void)

Reset samples buffers to default value.

Ritorna:: void.

void reset_report_buffer(void)

void reset_buffer(void)

Reset sample and observations buffers to default value.

Ritorna:: void.

void exchange_buffers(void)

Exchange reader and writer pointer to buffer.

Ritorna:: void.

template<typename sample_g, typename observation_g, typename value_v> void addSample(sample_g *sample, observation_g *observation, value_v value)

template<typename observation_g, typename value_v> value_v readCurrentObservation(observation_g *buffer)

template<typename observation_g, typename value_v> void writeCurrentObservation(observation_g *buffer, value_v value)

template<typename observation_g, typename length_v> void resetObservation(observation_g *buffer, length_v length)

template<typename observation_g, typename length_v> void resetBackPmObservation(observation_g *buffer, length_v length)

template<typename observation_g, typename length_v> void incrementObservation(observation_g *buffer, length_v length)

template<typename observation_g, typename length_v, typename value_v> void addObservation(observation_g *buffer, length_v length, value_v value)

template<typename observation_g, typename length_v, typename value_v> value_v readBackObservation(observation_g *buffer, length_v length)

void samples_processing(bool is_force_processing)

Main routine for processing the samples to calculate an observation.

Parametri:: is_force_processing -- if is true, force the calculation of the observation provided there is a minimum number of samples.
Ritorna:: void.

void leaf_reading_task(void)

Sensors reading Task. Read data from sensors.

Ritorna:: void.

void command_task(void)

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void i2c_request_interrupt_handler(void)

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(void)

I2C receive interrupt handler.

Ritorna:: void.

Variables

configuration_t configuration: Configuration data.

readable_data_t readable_data_1: First readable i2c register.

readable_data_t readable_data_2: Second readable i2c register.

readable_data_t *readable_data_read_ptr: Pointer for read data in i2c readable register.

readable_data_t *readable_data_write_ptr: Pointer for write data in i2c readable register.

readable_data_t *readable_data_temp_ptr: Temporary pointer for exchange read and write pointer for i2c readable register.

writable_data_t writable_data: Writable i2c register.

writable_data_t *writable_data_ptr: Pointer for read and write data in i2c writable register.

uint8_t readable_data_address: Address of readable i2c register.

uint8_t readable_data_length: Number of bytes to read at readable_data_address.

uint8_t i2c_rx_data[I2C_MAX_DATA_LENGTH]: Buffer for i2c received data.

uint8_t lastcommand

last command received.

command to be executed.

uint8_t i2c_error: Number of i2c error.

uint8_t i2c_time: Time in seconds from last I2C reset.

uint8_t ready_tasks_count: Number of tasks ready to execute.

uint32_t awakened_event_occurred_time_ms: System time (in millisecond) when the system has awakened from power down.

bool is_start: Execute start command.

bool is_stop: Execute stop command.

bool is_test_read: Received command is in continuous mode.

bool is_leaf_init

bool is_leaf_wet

uint8_t samples_count: Number of samples to be acquired for make one observation.

bool do_buffers_reset: Force a buffers reset.

uint16_t timer_counter_ms: Timer counter variable for execute timed task with time multiple of base Timer1 time.

state_t state: Current main loop state.

leaf_reading_state_t leaf_reading_state

bool inside_transaction: Status of command transaction.

uint16_t transaction_time: Timer counter variable for compute command transaction timeout.

bool is_event_leaf_reading: Enable or disable the Sensors reading task.

bool is_event_command_task: Enable or disable the Command task.

file i2c-leaf.ino

#include "i2c-leaf.h"

Functions

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void init_logging()

Init logging system.

Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_buffers()

Init buffers.

Ritorna:: void.

void init_tasks()

Init tasks variable and state.

Ritorna:: void.

void init_pins()

Init hardware pins.

Ritorna:: void.

void init_wire()

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_spi()

Init SPI library.

Ritorna:: void.

void init_rtc()

Init RTC module.

Ritorna:: void.

void init_system()

Init system.

Ritorna:: void.

void print_configuration()

Print current configuration.

Ritorna:: void.

void save_configuration(bool is_default)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void load_configuration()

Load configuration from EEPROM.

Ritorna:: void.

void init_sensors()

Create and setup sensors.

Ritorna:: void.

ISR(TIMER1_OVF_vect)

Timer1 overflow interrupts routine.

Ritorna:: void.

void i2c_request_interrupt_handler()

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(int rx_data_length)

I2C receive interrupt handler.

Parametri:: rx_data_length -- [in] received data length in bytes.
Ritorna:: void.

void leaf_reading_task()

Sensors reading Task. Read data from sensors.

Ritorna:: void.

void exchange_buffers()

Exchange reader and writer pointer to buffer.

Ritorna:: void.

void reset_samples_buffer()

Reset samples buffers to default value.

Ritorna:: void.

void reset_report_buffer()

void command_task()

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void copy_buffers()

void commands()

Performs specific operations based on the received command.

Ritorna:: void.

file i2c-opc-config.h

#include <sensors_config.h>

Defines

MODULE_VERSION: Module version.

MODULE_TYPE: Type of module. It is defined in registers.h.

CONFIGURATION_DEFAULT_IS_ONESHOT: Oneshot mode for default.

CONFIGURATION_DEFAULT_IS_CONTINUOUS: Continuous mode for default.

CONFIGURATION_DEFAULT_I2C_ADDRESS: Default i2c address.

CONFIGURATION_RESET_PIN: Input pin for reset configuration at startup.

OPC_POWER_PIN: Output pin for power on and power off opc sensor.

OPC_SPI_POWER_PIN

OPC_CHIP_SELECT: Output pin for spi chip select opc sensor.

SDCARD_CHIP_SELECT_PIN: Chip select for SDcard SPI.

SPI_SPEED: Clock speed for SPI and SDcard.

USE_POWER_DOWN: Enable or disable power down.

DEBOUNCING_POWER_DOWN_TIME_MS: Debounce power down ms.

USE_TIMER_1: Enable or disable timer1.

USE_OPC_POWER_DOWN: Enable or disable power down for opc sensor.

WDT_TIMER

Watchdog timer for periodically check microprocessor block states.

Possible value for WDT_TIMER are: WDTO_15MS, WDTO_30MS, WDTO_60MS, WDTO_120MS, WDTO_250MS, WDTO_500MS, WDTO_1S, WDTO_2S, WDTO_4S, WDTO_8S

SENSORS_SAMPLE_TIME_MS: Milliseconds for sampling sensors: 100 - 60000 [ms] must be integer multiple of TIMER1_INTERRUPT_TIME_MS !!!

SENSORS_SAMPLE_COUNT_MIN: Sample count minimum in OBSERVATIONS_MINUTES minutes.

SENSORS_SAMPLE_COUNT_MAX: Sample count maximum in OBSERVATIONS_MINUTES minutes.

SENSORS_SAMPLE_COUNT_TOLERANCE: Maximum invalid sample count for generate a valid observations.

USE_SENSORS_COUNT: Sensors count.

TIMER1_INTERRUPT_TIME_MS: Value in milliseconds for generating timer1 interrupt: 100 - 8000 [ms].

TIMER1_OVERFLOW_TIME_MS

Timer1 timer overflow with 1024 prescaler at 8 or 16 MHz.

Timer1 timer overflow with 1024 prescaler at 8 MHz.

Timer1 timer overflow with 1024 prescaler at 16 MHz.

TIMER1_TCNT1_VALUE: Timer1 timer overflow with 1024 prescaler at 8 MHz.

TIMER1_VALUE_MAX_MS: Maximum timer1 counter value for timed tasks.

OPC_RETRY_COUNT_MAX: Maximum number of retry for opc reading.

file i2c-opc.h

#include "i2c-opc-config.h"

#include <debug.h>

#include <i2c_config.h>

#include <avr/sleep.h>

#include <avr/power.h>

#include <avr/wdt.h>

#include <i2c_utility.h>

#include <rmap_utility.h>

#include <eeprom_utility.h>

#include <Wire.h>

#include <TimeLib.h>

#include <typedef.h>

#include <registers-opc.h>

#include <opcxx.h>

#include <debug_config.h>

#include <SdFat.h>

#include <StreamUtils.h>

#include <ArduinoLog.h>

Enums

enum state_t

Main loop finite state machine.

Values:

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator REBOOT: reboot the machine

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enum opc_state_t

OPC setup and reading task finite state machine.

Values:

enumerator OPC_INIT

enumerator OPC_SWITCH_ON

enumerator OPC_SEND_COMMAND_FAN_DAC

enumerator OPC_WAIT_RESULT_FAN_DAC

enumerator OPC_SEND_COMMAND_FAN_ON

enumerator OPC_WAIT_RESULT_FAN_ON

enumerator OPC_SEND_COMMAND_LASER_ON

enumerator OPC_WAIT_RESULT_LASER_ON

enumerator OPC_SEND_COMMAND_READ_HISTOGRAM

enumerator OPC_WAIT_RESULT_READ_HISTOGRAM

enumerator OPC_READ_HISTOGRAM

enumerator OPC_END: performs end operations and deactivate task

enumerator OPC_WAIT_STATE: non-blocking waiting time

Functions

void init_logging()

Init logging system.

Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_system(void)

Init system.

Ritorna:: void.

void init_buffers(void)

Init buffers.

Ritorna:: void.

void init_tasks(void)

Init tasks variable and state.

Ritorna:: void.

void init_pins(void)

Init hardware pins.

Ritorna:: void.

void init_wire(void)

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_spi(void)

Init SPI library.

Ritorna:: void.

void init_rtc(void)

Init RTC module.

Ritorna:: void.

void init_sensors(void)

Create and setup sensors.

Ritorna:: void.

void print_configuration(void)

Print current configuration.

Ritorna:: void.

void load_configuration(void)

Load configuration from EEPROM.

Ritorna:: void.

void save_configuration(bool)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void commands(void)

Performs specific operations based on the received command.

Ritorna:: void.

void reset_samples_buffer(void)

Reset samples buffers to default value.

Ritorna:: void.

void exchange_buffers(void)

Exchange reader and writer pointer to buffer.

Ritorna:: void.

template<typename sample_g, typename observation_g, typename values_v, typename value_v> void addSample(sample_g *sample, observation_g *observation, values_v *values, value_v value)

template<typename observation_g, typename value_v> value_v readCurrentObservation(observation_g *buffer)

template<typename observation_g, typename value_v> void writeCurrentObservation(observation_g *buffer, value_v value)

template<typename observation_g, typename length_v> void resetObservation(observation_g *buffer, length_v length)

template<typename observation_g, typename length_v> void resetBackPmObservation(observation_g *buffer, length_v length)

template<typename observation_g, typename length_v> void incrementObservation(observation_g *buffer, length_v length)

template<typename observation_g, typename length_v, typename value_v> void addObservation(observation_g *buffer, length_v length, value_v value)

template<typename observation_g, typename length_v, typename value_v> value_v readBackObservation(observation_g *buffer, length_v length)

void samples_processing(bool is_force_processing)

Main routine for processing the samples to calculate an observation.

Parametri:: is_force_processing -- if is true, force the calculation of the observation provided there is a minimum number of samples.
Ritorna:: void.

bool observations_processing(void)

Main routine for processing the observations to calculate a value for report.

Ritorna:: void.

template<typename sample_g, typename observation_g> bool make_observation_from_samples(bool is_force_processing, sample_g *sample, observation_g *observation)

template<typename sample_g, typename observation_g, typename value_v, typename val_v> bool make_value_from_samples_and_observations(sample_g *sample, observation_g *observation, value_v *value)

void opc_task(void)

Opc setup and reading Task. Read data from OPC.

Ritorna:: void.

void command_task(void)

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void i2c_request_interrupt_handler(void)

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(void)

Variables

configuration_t configuration

readable_data_t readable_data_1

readable_data_t readable_data_2

readable_data_t *readable_data_read_ptr

readable_data_t *readable_data_write_ptr

readable_data_t *readable_data_temp_ptr

writable_data_t writable_data

writable_data_t *writable_data_ptr

uint8_t readable_data_address

uint8_t readable_data_length

uint8_t i2c_rx_data[I2C_MAX_DATA_LENGTH]

uint8_t i2c_error

uint8_t ready_tasks_count

uint32_t awakened_event_occurred_time_ms

bool is_start

bool is_stop

bool is_oneshot: Received command is in oneshot mode.

bool is_continuous: Received command is in continuous mode.

sample_t pm1_samples

sample_t pm25_samples

sample_t pm10_samples

sample_t bins_samples[OPC_BINS_LENGTH]

float_observation_t pm1_observations

float_observation_t pm25_observations

float_observation_t pm10_observations

uint16_observation_t bins_observations[OPC_BINS_LENGTH]

uint8_t samples_count

bool do_buffers_reset

uint16_t timer_counter: Timer counter variable for execute timed task with time multiple of base Timer1 time.

state_t state

opc_state_t opc_state: Current sensors reading task state.

bool is_opc_setted

bool is_opc_first_read

uint8_t histogram_error_count

bool is_event_opc_task: Enable or disable the OPC task.

bool is_event_command_task

file i2c-opc.ino

#include "i2c-opc.h"

Functions

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void init_logging()

Init logging system.

Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_buffers()

Init buffers.

Ritorna:: void.

void init_tasks()

Init tasks variable and state.

Ritorna:: void.

void init_pins()

Init hardware pins.

Ritorna:: void.

void init_wire()

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_spi()

Init SPI library.

Ritorna:: void.

void init_rtc()

Init RTC module.

Ritorna:: void.

void init_system()

Init system.

Ritorna:: void.

void print_configuration()

Print current configuration.

Ritorna:: void.

void save_configuration(bool is_default)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void load_configuration()

Load configuration from EEPROM.

Ritorna:: void.

void init_sensors()

Create and setup sensors.

Ritorna:: void.

ISR(TIMER1_OVF_vect)

void i2c_request_interrupt_handler()

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(int rx_data_length)

I2C receive interrupt handler.

Parametri:: rx_data_length -- [in] received data length in bytes.
Ritorna:: void.

template<typename sample_g, typename observation_g, typename values_v, typename value_v> void addSample(sample_g *sample, observation_g *observation, values_v *values, value_v value)

template<typename observation_g, typename value_v> value_v readCurrentObservation(observation_g *buffer)

template<typename observation_g, typename value_v> void writeCurrentObservation(observation_g *buffer, value_v value)

template<typename observation_g, typename length_v> void resetObservation(observation_g *buffer, length_v length)

template<typename observation_g, typename length_v> void resetBackObservation(observation_g *buffer, length_v length)

template<typename observation_g, typename length_v> void incrementObservation(observation_g *buffer, length_v length)

template<typename observation_g, typename length_v, typename value_v> void addObservation(observation_g *buffer, length_v length, value_v value)

template<typename observation_g, typename length_v, typename value_v> value_v readBackObservation(observation_g *buffer, length_v length)

void samples_processing(bool is_force_processing)

Main routine for processing the samples to calculate an observation.

Parametri:: is_force_processing -- if is true, force the calculation of the observation provided there is a minimum number of samples.
Ritorna:: void.

template<typename sample_g, typename observation_g> bool make_observation_from_samples(bool is_force_processing, sample_g *sample, observation_g *observation)

bool observations_processing()

Main routine for processing the observations to calculate a value for report.

Ritorna:: void.

template<typename sample_g, typename observation_g, typename value_v, typename val_v> bool make_value_from_samples_and_observations(sample_g *sample, observation_g *observation, value_v *value)

void opc_task()

Opc setup and reading Task. Read data from OPC.

Ritorna:: void.

void exchange_buffers()

Exchange reader and writer pointer to buffer.

Ritorna:: void.

void reset_samples_buffer()

Reset samples buffers to default value.

Ritorna:: void.

void reset_observations_buffer()

Reset observations buffers to default value.

Ritorna:: void.

void command_task()

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void tests()

Performs specific operations based on the received command.

Performs tests operations based on the received command.

Ritorna:: void.

void commands()

Performs specific operations based on the received command.

Ritorna:: void.

file i2c-power-config.h

#include <sensors_config.h>

Defines

MODULE_MAIN_VERSION: Module main version.

MODULE_MINOR_VERSION: Module minor version.

MODULE_CONFIGURATION_VERSION: Module version of compatibile configuration. If you change it, you have to reconfigure.

MODULE_TYPE: Type of module. It is defined in stima_module.h.

CONFIGURATION_DEFAULT_ONESHOT

CONFIGURATION_DEFAULT_I2C_ADDRESS: Default i2c address.

CONFIGURATION_RESET_PIN: Input pin for reset configuration at startup.

POWER_ADC_CHANNEL_INPUT_PANEL: Input channel for panel.

POWER_ADC_CHANNEL_INPUT_BATTERY: Input channel for battery.

ADC_GND_I2C_ADDRESS

ADC_VDD_I2C_ADDRESS

ADC_SCL_I2C_ADDRESS

ADC_SDA_I2C_ADDRESS

ADC_I2C_ADDRESS

CONFIGURATION_DEFAULT_ADC_VOLTAGE_MAX_PANEL

CONFIGURATION_DEFAULT_ADC_VOLTAGE_MAX_BATTERY

SDCARD_CHIP_SELECT_PIN: Chip select for SDcard SPI.

SPI_SPEED: Clock speed for SPI and SDcard.

USE_POWER_DOWN: Enable or disable power down.

DEBOUNCING_POWER_DOWN_TIME_MS: Debounce power down ms.

USE_TIMER_1: Enable or disable timer1.

WDT_TIMER

Watchdog timer for periodically check microprocessor block states.

Possible value for WDT_TIMER are: WDTO_15MS, WDTO_30MS, WDTO_60MS, WDTO_120MS, WDTO_250MS, WDTO_500MS, WDTO_1S, WDTO_2S, WDTO_4S, WDTO_8S

SENSORS_SAMPLE_TIME_MS: Milliseconds for sampling sensors: 100 - 60000 [ms] must be integer multiple of TIMER1_INTERRUPT_TIME_MS !!!

RMAP_REPORT_SAMPLE_ERROR_MAX_PERC: Sample maximum error in percent for one observation.

RMAP_REPORT_SAMPLE_MIN_TIME: Sample minimun time for elaborate one observation (seconds).

USE_SENSORS_COUNT: Sensors count.

TIMER1_INTERRUPT_TIME_MS: Value in milliseconds for generating timer1 interrupt: 100 - 8000 [ms].

TIMER1_TCNT1_VALUE: Timer1 timer overflow with 1024 prescaler at 16 MHz.

TIMER_COUNTER_VALUE_MAX_MS: Maximum timer1 counter value for timed tasks.

TIMER_COUNTER_VALUE_MAX_S

TRANSACTION_TIMEOUT_MS: Timeout for command transaction.

file i2c-power.h

#include "i2c-power-config.h"

#include <debug.h>

#include <i2c_config.h>

#include <avr/sleep.h>

#include <avr/power.h>

#include <avr/wdt.h>

#include <i2c_utility.h>

#include <rmap_utility.h>

#include <sdcard_utility.h>

#include <eeprom_utility.h>

#include <Wire.h>

#include <TimeLib.h>

#include <typedef.h>

#include <ADS1115.h>

#include <registers-power.h>

#include <debug_config.h>

#include <SdFat.h>

#include <StreamUtils.h>

#include <ArduinoLog.h>

Enums

enum state_t

Main loop finite state machine.

Values:

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator REBOOT: reboot the machine

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enum power_state_t

POWER setup and reading task finite state machine.

Values:

enumerator POWER_INIT

enumerator POWER_READING_PANEL

enumerator POWER_READING_BATTERY

enumerator POWER_ELABORATE

enumerator POWER_END: performs end operations and deactivate task

enumerator POWER_WAIT_STATE: non-blocking waiting time

enum power_hr_state_t

Values:

enumerator POWER_HR_INIT

enumerator POWER_HR_READ

enumerator POWER_HR_EVALUATE

enumerator POWER_HR_PROCESS

enumerator POWER_HR_END: performs end operations and deactivate task

enumerator POWER_HR_WAIT_STATE: non-blocking waiting time

Functions

ADS1115 adc1(ADC_I2C_ADDRESS)

void init_logging()

Init logging system.

Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_system(void)

Init system.

Ritorna:: void.

void init_buffers(void)

Init buffers.

Ritorna:: void.

void init_tasks(void)

Init tasks variable and state.

Ritorna:: void.

void init_pins(void)

Init hardware pins.

Ritorna:: void.

void init_wire(void)

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_adc(void)

Init ADC converter.

Init ADC hardware.

Ritorna:: void.

void init_spi(void)

Init SPI library.

Ritorna:: void.

void init_rtc(void)

Init RTC module.

Ritorna:: void.

void init_sensors(void)

Create and setup sensors.

Ritorna:: void.

void print_configuration(void)

Print current configuration.

Ritorna:: void.

void load_configuration(void)

Load configuration from EEPROM.

Ritorna:: void.

void save_configuration(bool)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void commands(void)

Performs specific operations based on the received command.

Ritorna:: void.

void tests(void)

Performs specific operations based on the received command.

Performs tests operations based on the received command.

Ritorna:: void.

void reset_buffer(void)

Reset sample and observations buffers to default value.

Ritorna:: void.

void exchange_buffers(void)

Exchange reader and writer pointer to buffer.

Ritorna:: void.

void make_report(bool init = false)

Main routine for processing the samples to calculate an observation.

Ritorna:: void.

void power_task(void)

Setup and reading Task. Read voltage from panel and battery.

Ritorna:: void.

void power_task_hr(void)

Setup and reading Task. Read voltage from panel and battery Higt resolution.

Ritorna:: void.

void command_task(void)

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void i2c_request_interrupt_handler(void)

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(void)

Variables

configuration_t configuration

readable_data_t readable_data_1

readable_data_t readable_data_2

readable_data_t *readable_data_read_ptr

readable_data_t *readable_data_write_ptr

readable_data_t *readable_data_temp_ptr

writable_data_t writable_data

writable_data_t *writable_data_ptr

uint8_t readable_data_address

uint8_t readable_data_length

uint8_t i2c_rx_data[I2C_MAX_DATA_LENGTH]

uint8_t i2c_error

uint8_t ready_tasks_count

uint32_t awakened_event_occurred_time_ms

bool inside_transaction

uint16_t transaction_time

uint8_t lastcommand

bool is_start

bool is_stop

bool is_test_read

bool is_oneshot

bool is_continuous

bool is_test

Received command is in test mode.

If true, reading value from sensors for testing purpose.

Execute stop command in test mode.

int16_t sample_panel

int16_t sample_battery

int16_t average_panel

int16_t average_battery

uint16_t samples_count_panel: Number of samples to be acquired for make one panel observation.

uint16_t samples_error_count_panel: Number of error while acquire samples for make one panel observation.

uint16_t samples_count_battery: Number of samples to be acquired for make one battery observation.

uint16_t samples_error_count_battery: Number of error while acquire samples for make one battery observation.

uint16_t timer_counter_ms

uint16_t timer_counter_s

state_t state

power_state_t power_state: Current sensors reading task state.

bool is_event_power_task: Enable or disable the POWER task.

bool is_event_command_task

file i2c-power.ino

#include "i2c-power.h"

Functions

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void init_logging()

Init logging system.

Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_buffers()

Init buffers.

Ritorna:: void.

void init_tasks()

Init tasks variable and state.

Ritorna:: void.

void init_pins()

Init hardware pins.

Ritorna:: void.

void init_wire()

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_adc()

Init ADC converter.

Init ADC hardware.

Ritorna:: void.

void init_spi()

Init SPI library.

Ritorna:: void.

void init_rtc()

Init RTC module.

Ritorna:: void.

void init_system()

Init system.

Ritorna:: void.

void print_configuration()

Print current configuration.

Ritorna:: void.

void save_configuration(bool is_default)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void load_configuration()

Load configuration from EEPROM.

Ritorna:: void.

void init_sensors()

Create and setup sensors.

Ritorna:: void.

void i2c_request_interrupt_handler()

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(int rx_data_length)

I2C receive interrupt handler.

Parametri:: rx_data_length -- [in] received data length in bytes.
Ritorna:: void.

void make_report(bool init)

Main routine for processing the samples to calculate an observation.

Ritorna:: void.

void power_task()

Setup and reading Task. Read voltage from panel and battery.

Ritorna:: void.

void exchange_buffers()

Exchange reader and writer pointer to buffer.

Ritorna:: void.

void reset_samples_buffer()

Reset samples buffers to default value.

Ritorna:: void.

void reset_data(volatile readable_data_t *ptr)

void command_task()

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void copy_buffers()

void commands()

Performs specific operations based on the received command.

Ritorna:: void.

file i2c-radiation-config.h

#include <sensors_config.h>

Defines

MODULE_MAIN_VERSION: Module main version.

MODULE_MINOR_VERSION: Module minor version.

MODULE_CONFIGURATION_VERSION: Module version of compatibile configuration. If you change it, you have to reconfigure.

MODULE_TYPE: Type of module. It is defined in registers.h.

CONFIGURATION_DEFAULT_ONESHOT

CONFIGURATION_DEFAULT_I2C_ADDRESS: Default i2c address.

CONFIGURATION_RESET_PIN: Input pin for reset configuration at startup.

ADC_GND_I2C_ADDRESS

ADC_VDD_I2C_ADDRESS

ADC_SCL_I2C_ADDRESS

ADC_SDA_I2C_ADDRESS

ADC_I2C_ADDRESS

CONFIGURATION_DEFAULT_ADC_VOLTAGE_OFFSET_1

CONFIGURATION_DEFAULT_ADC_VOLTAGE_OFFSET_2

CONFIGURATION_DEFAULT_ADC_VOLTAGE_GAIN_1

CONFIGURATION_DEFAULT_ADC_VOLTAGE_GAIN_2

CONFIGURATION_DEFAULT_ADC_VOLTAGE_MIN

CONFIGURATION_DEFAULT_ADC_VOLTAGE_MAX

CONFIGURATION_DEFAULT_ADC_VOLTAGE_OFFSET

CONFIGURATION_DEFAULT_ADC_VOLTAGE_GAIN

CONFIGURATION_DEFAULT_SENSOR_VOLTAGE_MAX

CONFIGURATION_DEFAULT_SENSOR_RADIATION_MAX

ACQUISITION_COUNT_FOR_POWER_RESET

SDCARD_CHIP_SELECT_PIN: Chip select for SDcard SPI.

SPI_SPEED: Clock speed for SPI and SDcard.

USE_POWER_DOWN: Enable or disable power down.

DEBOUNCING_POWER_DOWN_TIME_MS: Debounce power down ms.

USE_TIMER_1: Enable or disable timer1.

WDT_TIMER

Watchdog timer for periodically check microprocessor block states.

Possible value for WDT_TIMER are: WDTO_15MS, WDTO_30MS, WDTO_60MS, WDTO_120MS, WDTO_250MS, WDTO_500MS, WDTO_1S, WDTO_2S, WDTO_4S, WDTO_8S

SENSORS_SAMPLE_TIME_MS: Milliseconds for sampling sensors: 100 - 60000 [ms] must be integer multiple of TIMER1_INTERRUPT_TIME_MS !!!

RMAP_REPORT_SAMPLE_ERROR_MAX_PERC: Sample maximum error in percent for one observation.

RMAP_REPORT_SAMPLE_MIN_TIME: Sample minimun time for elaborate one observation (seconds).

USE_SENSORS_COUNT: Sensors count.

TIMER1_INTERRUPT_TIME_MS: Value in milliseconds for generating timer1 interrupt: 100 - 8000 [ms].

TIMER1_TCNT1_VALUE: Timer1 timer overflow with 1024 prescaler at 16 MHz.

TIMER_COUNTER_VALUE_MAX_MS: Maximum timer1 counter value for timed tasks.

TIMER_COUNTER_VALUE_MAX_S

SOLAR_RADIATION_READ_DELAY_MS: Reading delay.

SOLAR_RADIATION_VALUES_READ_DELAY_MS: Reading delay.

SOLAR_RADIATION_READ_COUNT: number of read.

TRANSACTION_TIMEOUT_MS: Timeout for command transaction.

file i2c-radiation.h

#include "i2c-radiation-config.h"

#include <debug.h>

#include <i2c_config.h>

#include <avr/sleep.h>

#include <avr/power.h>

#include <avr/wdt.h>

#include <i2c_utility.h>

#include <rmap_utility.h>

#include <sdcard_utility.h>

#include <eeprom_utility.h>

#include <Wire.h>

#include <TimeLib.h>

#include <typedef.h>

#include <ADS1115.h>

#include <registers-radiation.h>

#include <debug_config.h>

#include <SdFat.h>

#include <StreamUtils.h>

#include <ArduinoLog.h>

Enums

enum state_t

Main loop finite state machine.

Values:

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator REBOOT: reboot the machine

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enum solar_radiation_state_t

RADIATION setup and reading task finite state machine.

Values:

enumerator SOLAR_RADIATION_INIT

enumerator SOLAR_RADIATION_READING

enumerator SOLAR_RADIATION_ELABORATE

enumerator SOLAR_RADIATION_END: performs end operations and deactivate task

enumerator SOLAR_RADIATION_WAIT_STATE: non-blocking waiting time

enum solar_radiation_hr_state_t

Values:

enumerator SOLAR_RADIATION_HR_INIT

enumerator SOLAR_RADIATION_HR_READ

enumerator SOLAR_RADIATION_HR_EVALUATE

enumerator SOLAR_RADIATION_HR_PROCESS

enumerator SOLAR_RADIATION_HR_END: performs end operations and deactivate task

enumerator SOLAR_RADIATION_HR_WAIT_STATE: non-blocking waiting time

Functions

void init_logging()

Init logging system.

Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_system(void)

Init system.

Ritorna:: void.

void init_buffers(void)

Init buffers.

Ritorna:: void.

void init_tasks(void)

Init tasks variable and state.

Ritorna:: void.

void init_pins(void)

Init hardware pins.

Ritorna:: void.

void init_wire(void)

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_spi(void)

Init SPI library.

Ritorna:: void.

void init_adc(void)

Init ADC converter.

Init ADC hardware.

Ritorna:: void.

void init_rtc(void)

Init RTC module.

Ritorna:: void.

void init_sensors(void)

Create and setup sensors.

Ritorna:: void.

void print_configuration(void)

Print current configuration.

Ritorna:: void.

void load_configuration(void)

Load configuration from EEPROM.

Ritorna:: void.

void save_configuration(bool)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void commands(void)

Performs specific operations based on the received command.

Ritorna:: void.

void tests(void)

Performs specific operations based on the received command.

Performs tests operations based on the received command.

Ritorna:: void.

void reset_buffer(void)

Reset sample and observations buffers to default value.

Ritorna:: void.

void exchange_buffers(void)

Exchange reader and writer pointer to buffer.

Ritorna:: void.

void make_report(bool init = false)

Main routine for processing the samples to calculate an observation.

Ritorna:: void.

void solar_radiation_task(void)

Wind setup and reading Task. Read data from RADIATION.

Ritorna:: void.

void solar_radiation_task_hr(void)

Wind setup and reading Task. Read data from RADIATION.

Ritorna:: void.

void command_task(void)

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void i2c_request_interrupt_handler(void)

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(void)

Variables

configuration_t configuration

readable_data_t readable_data_1

readable_data_t readable_data_2

readable_data_t *readable_data_read_ptr

readable_data_t *readable_data_write_ptr

readable_data_t *readable_data_temp_ptr

writable_data_t writable_data

writable_data_t *writable_data_ptr

uint8_t readable_data_address

uint8_t readable_data_length

uint8_t i2c_rx_data[I2C_MAX_DATA_LENGTH]

uint8_t i2c_error

uint8_t ready_tasks_count

uint32_t awakened_event_occurred_time_ms

bool inside_transaction

uint16_t transaction_time

uint8_t lastcommand

bool is_start

bool is_stop

bool is_test_read

bool is_oneshot

bool is_continuous

bool is_test

int16_t sample

int16_t average

uint8_t solar_radiation_acquisition_count

uint16_t samples_count

uint16_t samples_error_count: Number of error while acquire samples for make one observation.

uint16_t timer_counter_ms

uint16_t timer_counter_s

state_t state

solar_radiation_state_t solar_radiation_state: Current sensors reading task state.

solar_radiation_hr_state_t solar_radiation_hr_state

bool is_event_solar_radiation_task: Enable or disable the RADIATION task.

bool is_event_command_task

file i2c-radiation.ino

#include "i2c-radiation.h"

Functions

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void init_logging()

Init logging system.

Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_buffers()

Init buffers.

Ritorna:: void.

void init_tasks()

Init tasks variable and state.

Ritorna:: void.

void init_pins()

Init hardware pins.

Ritorna:: void.

void init_wire()

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_spi()

Init SPI library.

Ritorna:: void.

void init_adc()

Init ADC converter.

Init ADC hardware.

Ritorna:: void.

void init_rtc()

Init RTC module.

Ritorna:: void.

void init_system()

Init system.

Ritorna:: void.

void print_configuration()

Print current configuration.

Ritorna:: void.

void save_configuration(bool is_default)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void load_configuration()

Load configuration from EEPROM.

Ritorna:: void.

void init_sensors()

Create and setup sensors.

Ritorna:: void.

void i2c_request_interrupt_handler()

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(int rx_data_length)

I2C receive interrupt handler.

Parametri:: rx_data_length -- [in] received data length in bytes.
Ritorna:: void.

void make_report(bool init)

Main routine for processing the samples to calculate an observation.

Ritorna:: void.

void exchange_buffers()

Exchange reader and writer pointer to buffer.

Ritorna:: void.

void reset_samples_buffer()

Reset samples buffers to default value.

Ritorna:: void.

void reset_data(volatile readable_data_t *ptr)

void command_task()

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void copy_buffers()

void commands()

Performs specific operations based on the received command.

Ritorna:: void.

file i2c-rain-config.h

#include <sensors_config.h>

Defines

MODULE_MAIN_VERSION: Module main version.

MODULE_MINOR_VERSION: Module minor version.

MODULE_CONFIGURATION_VERSION: Module version of compatibile configuration. If you change it, you have to reconfigure.

MODULE_TYPE: Type of module. It is defined in registers.h.

TIPPING_BUCKET_PIN: Interrupt pin for tipping bucket rain gauge.

CONFIGURATION_DEFAULT_TIPPING_BUCKET_TIME_MS: Tipping bucket time in milliseconds.

CONFIGURATION_DEFAULT_RAIN_FOR_TIP: brief How much mm/10 of rain for one tip of tipping bucket rain gauge.

CONFIGURATION_DEFAULT_IS_ONESHOT: Oneshot mode for default.

CONFIGURATION_DEFAULT_IS_CONTINUOUS: Continuous mode for default.

CONFIGURATION_DEFAULT_I2C_ADDRESS: Default i2c address.

CONFIGURATION_RESET_PIN: Input pin for reset configuration at startup.

SDCARD_CHIP_SELECT_PIN: Chip select for SDcard SPI.

SPI_SPEED: Clock speed for SPI and SDcard.

I2C_MAX_TIME: Max i2c time in seconds before i2c restart.

USE_POWER_DOWN: Enable or disable power down.

DEBOUNCING_POWER_DOWN_TIME_MS: Debounce power down ms.

USE_TIMER_1: Enable or disable timer1.

WDT_TIMER

Watchdog timer for periodically check microprocessor block states.

Possible value for WDT_TIMER are: WDTO_15MS, WDTO_30MS, WDTO_60MS, WDTO_120MS, WDTO_250MS, WDTO_500MS, WDTO_1S, WDTO_2S, WDTO_4S, WDTO_8S

TIMER1_INTERRUPT_TIME_MS: Value in milliseconds for generating timer1 interrupt: 100 - 8000 [ms].

TIMER1_TCNT1_VALUE: Timer1 timer overflow with 1024 prescaler.

TRANSACTION_TIMEOUT_MS: Timeout for command transaction.

file i2c-rain.h

#include "i2c-rain-config.h"

#include <debug.h>

#include <i2c_config.h>

#include <avr/sleep.h>

#include <avr/power.h>

#include <avr/wdt.h>

#include <i2c_utility.h>

#include <rmap_utility.h>

#include <sdcard_utility.h>

#include <eeprom_utility.h>

#include <Wire.h>

#include <typedef.h>

#include <registers-rain.h>

#include <debug_config.h>

#include <SdFat.h>

#include <StreamUtils.h>

#include <ArduinoLog.h>

Enums

enum state_t

Main loop finite state machine.

Values:

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator REBOOT: reboot the machine

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enum tipping_bucket_state_t

Tipping bucket task finite state machine.

Values:

enumerator TIPPING_BUCKET_INIT: init task variables and wait half debounce time

enumerator TIPPING_BUCKET_READ: read rain tips from variable shared with tipping bucket interrupt, validate it for spike re-reading tipping bucket signal and wait double debounce time

enumerator TIPPING_BUCKET_COUNT: validate re-reading tipping bucket signal and increment total tips

enumerator TIPPING_BUCKET_END: wait for the tipping bucket switch return open and performs end operations and deactivate task

enumerator TIPPING_BUCKET_WAIT_STATE: non-blocking waiting time

Functions

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_system(void)

Init system.

Ritorna:: void.

void init_buffers(void)

Init buffers.

Ritorna:: void.

void init_tasks(void)

Init tasks variable and state.

Ritorna:: void.

void init_pins(void)

Init hardware pins.

Ritorna:: void.

void init_wire(void)

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_spi(void)

Init SPI library.

Ritorna:: void.

void init_rtc(void)

Init RTC module.

Ritorna:: void.

void init_sensors(void)

Create and setup sensors.

Ritorna:: void.

void print_configuration(void)

Print current configuration.

Ritorna:: void.

void load_configuration(void)

Load configuration from EEPROM.

Ritorna:: void.

void save_configuration(bool)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void commands(void)

Performs specific operations based on the received command.

Ritorna:: void.

void tests(void)

Performs specific operations based on the received command.

Performs tests operations based on the received command.

Ritorna:: void.

void reset_buffers(void)

Reset buffers to default value.

Ritorna:: void.

void exchange_buffers(void)

Exchange reader and writer pointer to buffer.

Ritorna:: void.

void init_logging()

Init logging system.

Ritorna:: void.

void tipping_bucket_task(void)

Tipping bucket task.

Ritorna:: void.

void command_task(void)

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void i2c_request_interrupt_handler(void)

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(int rx_data_length)

I2C receive interrupt handler.

Parametri:: rx_data_length -- [in] received data length in bytes.
Ritorna:: void.

void tipping_bucket_interrupt_handler(void)

Tipping bucket interrupt handler.

Ritorna:: void.

Variables

configuration_t configuration

readable_data_t readable_data_1

readable_data_t readable_data_2

readable_data_t *readable_data_read_ptr

readable_data_t *readable_data_write_ptr

readable_data_t *readable_data_temp_ptr

writable_data_t writable_data

writable_data_t *writable_data_ptr

uint8_t readable_data_address

uint8_t readable_data_length

uint8_t i2c_rx_data[I2C_MAX_DATA_LENGTH]

uint8_t lastcommand

uint8_t i2c_error

uint8_t i2c_time

uint8_t ready_tasks_count

uint32_t awakened_event_occurred_time_ms

bool inside_transaction

uint16_t transaction_time

bool is_start

bool is_stop

bool is_test

bool is_started: Start command is active and measure is active.

rain_t rain: Rain data.

state_t state

tipping_bucket_state_t tipping_bucket_state: Current tipping bucket task state.

bool is_event_tipping_bucket: Enable or disable the Tipping Bucket task.

bool is_event_command_task

file i2c-rain.ino

#include "i2c-rain.h"

Functions

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void init_logging()

Init logging system.

Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_buffers()

Init buffers.

Ritorna:: void.

void init_tasks()

Init tasks variable and state.

Ritorna:: void.

void init_pins()

Init hardware pins.

Ritorna:: void.

void init_wire()

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_spi()

Init SPI library.

Ritorna:: void.

void init_rtc()

Init RTC module.

Ritorna:: void.

void init_system()

Init system.

Ritorna:: void.

void init_sensors()

Create and setup sensors.

Ritorna:: void.

void init_tipping_bucket_interrupt()

void print_configuration()

Print current configuration.

Ritorna:: void.

void save_configuration(bool is_default)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void load_configuration()

Load configuration from EEPROM.

Ritorna:: void.

void tipping_bucket_interrupt_handler()

Tipping bucket interrupt handler.

Ritorna:: void.

void i2c_request_interrupt_handler()

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(int rx_data_length)

I2C receive interrupt handler.

Parametri:: rx_data_length -- [in] received data length in bytes.
Ritorna:: void.

void tipping_bucket_task()

Tipping bucket task.

Ritorna:: void.

void exchange_buffers()

Exchange reader and writer pointer to buffer.

Ritorna:: void.

void reset_buffers()

Reset buffers to default value.

Ritorna:: void.

void command_task()

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void commands()

Performs specific operations based on the received command.

Ritorna:: void.

file i2c-th-config.h

#include <sensors_config.h>

Defines

MODULE_MAIN_VERSION: Module main version.

MODULE_MINOR_VERSION: Module minor version.

MODULE_CONFIGURATION_VERSION: Module version of compatibile configuration. If you change it, you have to reconfigure.

MODULE_TYPE: Type of module. It is defined in registers.h.

CONFIGURATION_DEFAULT_IS_ONESHOT: Oneshot mode for default.

CONFIGURATION_DEFAULT_I2C_ADDRESS: Default i2c address.

CONFIGURATION_RESET_PIN: Input pin for reset configuration at startup.

TH_POWER_PIN: Output pin for power on and power off th sensor.

SDCARD_CHIP_SELECT_PIN: Chip select for SDcard SPI.

SPI_SPEED: Clock speed for SPI and SDcard.

USE_POWER_DOWN: Enable or disable power down.

DEBOUNCING_POWER_DOWN_TIME_MS: Debounce power down ms.

USE_TIMER_1: Enable or disable timer1.

WDT_TIMER

Watchdog timer for periodically check microprocessor block states.

Possible value for WDT_TIMER are: WDTO_15MS, WDTO_30MS, WDTO_60MS, WDTO_120MS, WDTO_250MS, WDTO_500MS, WDTO_1S, WDTO_2S, WDTO_4S, WDTO_8S

SENSOR_ERROR_COUNT_MAX

OBSERVATIONS_MINUTES: How much minutes for calculate an observations by processing sampling. Tipically 1-10 minutes.

SENSORS_SAMPLE_TIME_MS: Milliseconds for sampling sensors: 2000 - 8000 [ms] setting it to 3980 ms we gain 20 ms every sample, 300 ms every observation, 4500 every report (15minutes)

SAMPLES_COUNT_MAX

OBSERVATION_SAMPLES_COUNT: Sample count in OBSERVATIONS_MINUTES minutes.

OBSERVATION_SAMPLE_ERROR_MAX: Maximum invalid sample count for generate a valid observations.

RMAP_REPORT_ERROR_MAX

RMAP_REPORT_VALID_MIN

TIMER1_INTERRUPT_TIME_MS: Value in milliseconds for generating timer1 interrupt.

TIMER1_TCNT1_VALUE: Timer1 timer overflow with 1024 prescaler.

TIMER1_VALUE_MAX_MS: Maximum timer1 counter value for timed tasks.

SENSORS_RETRY_COUNT_MAX: Maximum number of retry for sensors reading.

SENSORS_RETRY_DELAY_MS: Waiting for reading between two attempts.

TRANSACTION_TIMEOUT_MS: Timeout for command transaction.

file i2c-th-config.h

#include <sensors_config.h>

Defines

MODULE_MAIN_VERSION: Module main version.

MODULE_MINOR_VERSION: Module minor version.

MODULE_CONFIGURATION_VERSION: Module version of compatibile configuration. If you change it, you have to reconfigure.

MODULE_TYPE: Type of module. It is defined in registers.h.

CONFIGURATION_DEFAULT_IS_ONESHOT: Oneshot mode for default.

CONFIGURATION_DEFAULT_I2C_ADDRESS: Default i2c address.

CONFIGURATION_RESET_PIN: Input pin for reset configuration at startup.

TH_POWER_PIN: Output pin for power on and power off th sensor.

SDCARD_CHIP_SELECT_PIN: Chip select for SDcard SPI.

SPI_SPEED: Clock speed for SPI and SDcard.

USE_POWER_DOWN: Enable or disable power down.

DEBOUNCING_POWER_DOWN_TIME_MS: Debounce power down ms.

USE_TIMER_1: Enable or disable timer1.

WDT_TIMER

Watchdog timer for periodically check microprocessor block states.

Possible value for WDT_TIMER are: WDTO_15MS, WDTO_30MS, WDTO_60MS, WDTO_120MS, WDTO_250MS, WDTO_500MS, WDTO_1S, WDTO_2S, WDTO_4S, WDTO_8S

SENSOR_ERROR_COUNT_MAX

OBSERVATIONS_MINUTES: How much minutes for calculate an observations by processing sampling. Tipically 1-10 minutes.

SENSORS_SAMPLE_TIME_MS: Milliseconds for sampling sensors: 2000 - 8000 [ms] setting it to 3980 ms we gain 20 ms every sample, 300 ms every observation, 4500 every report (15minutes)

SAMPLES_COUNT_MAX

OBSERVATION_SAMPLES_COUNT: Sample count in OBSERVATIONS_MINUTES minutes.

OBSERVATION_SAMPLE_ERROR_MAX: Maximum invalid sample count for generate a valid observations.

RMAP_REPORT_ERROR_MAX

RMAP_REPORT_VALID_MIN

TIMER1_INTERRUPT_TIME_MS: Value in milliseconds for generating timer1 interrupt.

TIMER1_TCNT1_VALUE: Timer1 timer overflow with 1024 prescaler.

TIMER1_VALUE_MAX_MS: Maximum timer1 counter value for timed tasks.

SENSORS_RETRY_COUNT_MAX: Maximum number of retry for sensors reading.

SENSORS_RETRY_DELAY_MS: Waiting for reading between two attempts.

TRANSACTION_TIMEOUT_MS: Timeout for command transaction.

file i2c-th.h

#include "i2c-th-config.h"

#include <debug.h>

#include <i2c_config.h>

#include <avr/sleep.h>

#include <avr/power.h>

#include <avr/wdt.h>

#include <i2c_utility.h>

#include <rmap_utility.h>

#include <sdcard_utility.h>

#include <eeprom_utility.h>

#include <Wire.h>

#include <TimeLib.h>

#include <typedef.h>

#include <registers-th.h>

#include <SensorDriver.h>

#include <debug_config.h>

#include <SdFat.h>

#include <StreamUtils.h>

#include <ArduinoLog.h>

Enums

enum state_t

Main loop finite state machine.

Values:

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator REBOOT: reboot the machine

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enum sensors_reading_state_t

Sensors reading task finite state machine.

Values:

enumerator SENSORS_READING_INIT: init task variables

enumerator SENSORS_READING_SETUP_CHECK: check sensor errors

enumerator SENSORS_READING_POWER_OFF: power off sensor

enumerator SENSORS_READING_POWER_ON: power on sensor

enumerator SENSORS_READING_SETUP: if required try a sensor setup

enumerator SENSORS_READING_PREPARE: prepare sensor

enumerator SENSORS_READING_IS_PREPARED: check if the sensor has been prepared

enumerator SENSORS_READING_GET: read and get values from sensor

enumerator SENSORS_READING_IS_GETTED: check if the sensor has been readed

enumerator SENSORS_READING_READ: intermediate state (future implementation...)

enumerator SENSORS_READING_NEXT: go to next sensor

enumerator SENSORS_READING_END: performs end operations and deactivate task

enumerator SENSORS_READING_WAIT_STATE: non-blocking waiting time

enumerator SENSORS_READING_INIT: init task variables

enumerator SENSORS_SETUP_CHECK: check errors and if required try a sensor setup

enumerator SENSORS_READING_PREPARE: prepare sensor

enumerator SENSORS_READING_IS_PREPARED: check if the sensor has been prepared

enumerator SENSORS_READING_GET: read and get values from sensor

enumerator SENSORS_READING_IS_GETTED: check if the sensor has been readed

enumerator SENSORS_READING_READ: intermediate state (future implementation...)

enumerator SENSORS_READING_NEXT: go to next sensor

enumerator SENSORS_READING_END: performs end operations and deactivate task

enumerator SENSORS_READING_WAIT_STATE: non-blocking waiting time

enumerator SENSORS_READING_INIT: init task variables

enumerator SENSORS_READING_SETUP_CHECK: check sensor errors

enumerator SENSORS_READING_POWER_OFF: power off sensor

enumerator SENSORS_READING_POWER_ON: power on sensor

enumerator SENSORS_READING_SETUP: if required try a sensor setup

enumerator SENSORS_READING_PREPARE: prepare sensor

enumerator SENSORS_READING_IS_PREPARED: check if the sensor has been prepared

enumerator SENSORS_READING_GET: read and get values from sensor

enumerator SENSORS_READING_IS_GETTED: check if the sensor has been readed

enumerator SENSORS_READING_READ: intermediate state (future implementation...)

enumerator SENSORS_READING_NEXT: go to next sensor

enumerator SENSORS_READING_END: performs end operations and deactivate task

enumerator SENSORS_READING_WAIT_STATE: non-blocking waiting time

enumerator SENSORS_READING_INIT

enumerator SENSORS_READING_PREPARE

enumerator SENSORS_READING_IS_PREPARED

enumerator SENSORS_READING_GET

enumerator SENSORS_READING_IS_GETTED

enumerator SENSORS_READING_READ

enumerator SENSORS_READING_NEXT

enumerator SENSORS_READING_END

enumerator SENSORS_READING_WAIT_STATE

Functions

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_system(void)

Init system.

Ritorna:: void.

void init_buffers(void)

Init buffers.

Ritorna:: void.

void init_tasks(void)

Init tasks variable and state.

Ritorna:: void.

void init_pins(void)

Init hardware pins.

Ritorna:: void.

void init_wire(void)

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_spi(void)

Init SPI library.

Ritorna:: void.

void init_rtc(void)

Init RTC module.

Ritorna:: void.

void init_sensors(void)

Create and setup sensors.

Ritorna:: void.

void print_configuration(void)

Print current configuration.

Ritorna:: void.

void load_configuration(void)

Load configuration from EEPROM.

Ritorna:: void.

void save_configuration(bool)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void commands(void)

Performs specific operations based on the received command.

Ritorna:: void.

void reset_samples_buffer(void)

Reset samples buffers to default value.

Ritorna:: void.

void reset_observations_buffer(void)

Reset observations buffers to default value.

Ritorna:: void.

void exchange_buffers(void)

Exchange reader and writer pointer to buffer.

Ritorna:: void.

void samples_processing(bool is_force_processing)

Main routine for processing the samples to calculate an observation.

Parametri:: is_force_processing -- if is true, force the calculation of the observation provided there is a minimum number of samples.
Ritorna:: void.

void init_logging()

Init logging system.

Ritorna:: void.

void sensors_reading_task(void)

Sensors reading Task. Read data from sensors.

Ritorna:: void.

void command_task(void)

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void i2c_request_interrupt_handler(void)

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(void)

Variables

configuration_t configuration

readable_data_t readable_data_1

readable_data_t readable_data_2

readable_data_t *readable_data_read_ptr

readable_data_t *readable_data_write_ptr

readable_data_t *readable_data_temp_ptr

writable_data_t writable_data

writable_data_t *writable_data_ptr

uint8_t readable_data_address

uint8_t readable_data_length

uint8_t i2c_rx_data[I2C_MAX_DATA_LENGTH]

uint8_t lastcommand

uint8_t i2c_error

uint8_t ready_tasks_count

uint32_t awakened_event_occurred_time_ms

bool inside_transaction

uint16_t transaction_time

bool is_start

bool is_stop

bool is_test_read

SensorDriver *sensors[SENSORS_MAX]

SensorDriver buffer for storing sensors parameter.

SensorDriver array structure.

uint8_t sensors_count

Configured sensors number.

number of created sensors drivers.

sample_t temperature_samples: Temperature samples.

sample_t humidity_samples: Humidity samples.

uint16_t timer_counter

state_t state

sensors_reading_state_t sensors_reading_state

Current sensors reading task state.

Sensors reading task state.

bool is_event_sensors_reading: Enable or disable the Sensors reading task.

bool is_event_command_task

file i2c-th.h

#include "i2c-th-config.h"

#include <debug.h>

#include <i2c_config.h>

#include <avr/sleep.h>

#include <avr/power.h>

#include <avr/wdt.h>

#include <i2c_utility.h>

#include <rmap_utility.h>

#include <sdcard_utility.h>

#include <eeprom_utility.h>

#include <Wire.h>

#include <TimeLib.h>

#include <typedef.h>

#include <registers-th.h>

#include <SensorDriver.h>

#include <debug_config.h>

#include <SdFat.h>

#include <StreamUtils.h>

#include <ArduinoLog.h>

Enums

enum state_t

Main loop finite state machine.

Values:

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator REBOOT: reboot the machine

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enum sensors_reading_state_t

Sensors reading task finite state machine.

Values:

enumerator SENSORS_READING_INIT: init task variables

enumerator SENSORS_READING_SETUP_CHECK: check sensor errors

enumerator SENSORS_READING_POWER_OFF: power off sensor

enumerator SENSORS_READING_POWER_ON: power on sensor

enumerator SENSORS_READING_SETUP: if required try a sensor setup

enumerator SENSORS_READING_PREPARE: prepare sensor

enumerator SENSORS_READING_IS_PREPARED: check if the sensor has been prepared

enumerator SENSORS_READING_GET: read and get values from sensor

enumerator SENSORS_READING_IS_GETTED: check if the sensor has been readed

enumerator SENSORS_READING_READ: intermediate state (future implementation...)

enumerator SENSORS_READING_NEXT: go to next sensor

enumerator SENSORS_READING_END: performs end operations and deactivate task

enumerator SENSORS_READING_WAIT_STATE: non-blocking waiting time

enumerator SENSORS_READING_INIT: init task variables

enumerator SENSORS_SETUP_CHECK: check errors and if required try a sensor setup

enumerator SENSORS_READING_PREPARE: prepare sensor

enumerator SENSORS_READING_IS_PREPARED: check if the sensor has been prepared

enumerator SENSORS_READING_GET: read and get values from sensor

enumerator SENSORS_READING_IS_GETTED: check if the sensor has been readed

enumerator SENSORS_READING_READ: intermediate state (future implementation...)

enumerator SENSORS_READING_NEXT: go to next sensor

enumerator SENSORS_READING_END: performs end operations and deactivate task

enumerator SENSORS_READING_WAIT_STATE: non-blocking waiting time

enumerator SENSORS_READING_INIT: init task variables

enumerator SENSORS_READING_SETUP_CHECK: check sensor errors

enumerator SENSORS_READING_POWER_OFF: power off sensor

enumerator SENSORS_READING_POWER_ON: power on sensor

enumerator SENSORS_READING_SETUP: if required try a sensor setup

enumerator SENSORS_READING_PREPARE: prepare sensor

enumerator SENSORS_READING_IS_PREPARED: check if the sensor has been prepared

enumerator SENSORS_READING_GET: read and get values from sensor

enumerator SENSORS_READING_IS_GETTED: check if the sensor has been readed

enumerator SENSORS_READING_READ: intermediate state (future implementation...)

enumerator SENSORS_READING_NEXT: go to next sensor

enumerator SENSORS_READING_END: performs end operations and deactivate task

enumerator SENSORS_READING_WAIT_STATE: non-blocking waiting time

enumerator SENSORS_READING_INIT

enumerator SENSORS_READING_PREPARE

enumerator SENSORS_READING_IS_PREPARED

enumerator SENSORS_READING_GET

enumerator SENSORS_READING_IS_GETTED

enumerator SENSORS_READING_READ

enumerator SENSORS_READING_NEXT

enumerator SENSORS_READING_END

enumerator SENSORS_READING_WAIT_STATE

Functions

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_system(void)

Init system.

Ritorna:: void.

void init_buffers(void)

Init buffers.

Ritorna:: void.

void init_tasks(void)

Init tasks variable and state.

Ritorna:: void.

void init_pins(void)

Init hardware pins.

Ritorna:: void.

void init_wire(void)

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_spi(void)

Init SPI library.

Ritorna:: void.

void init_rtc(void)

Init RTC module.

Ritorna:: void.

void init_sensors(void)

Create and setup sensors.

Ritorna:: void.

void print_configuration(void)

Print current configuration.

Ritorna:: void.

void load_configuration(void)

Load configuration from EEPROM.

Ritorna:: void.

void save_configuration(bool)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void commands(void)

Performs specific operations based on the received command.

Ritorna:: void.

void reset_samples_buffer(void)

Reset samples buffers to default value.

Ritorna:: void.

void reset_observations_buffer(void)

Reset observations buffers to default value.

Ritorna:: void.

void exchange_buffers(void)

Exchange reader and writer pointer to buffer.

Ritorna:: void.

void samples_processing(bool is_force_processing)

Main routine for processing the samples to calculate an observation.

Parametri:: is_force_processing -- if is true, force the calculation of the observation provided there is a minimum number of samples.
Ritorna:: void.

void init_logging()

Init logging system.

Ritorna:: void.

void sensors_reading_task(void)

Sensors reading Task. Read data from sensors.

Ritorna:: void.

void command_task(void)

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void i2c_request_interrupt_handler(void)

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(void)

Variables

configuration_t configuration

readable_data_t readable_data_1

readable_data_t readable_data_2

readable_data_t *readable_data_read_ptr

readable_data_t *readable_data_write_ptr

readable_data_t *readable_data_temp_ptr

writable_data_t writable_data

writable_data_t *writable_data_ptr

uint8_t readable_data_address

uint8_t readable_data_length

uint8_t i2c_rx_data[I2C_MAX_DATA_LENGTH]

uint8_t lastcommand

uint8_t i2c_error

uint8_t ready_tasks_count

uint32_t awakened_event_occurred_time_ms

bool inside_transaction

uint16_t transaction_time

bool is_start

bool is_stop

bool is_test_read

SensorDriver *sensors[SENSORS_MAX]

uint8_t sensors_count

sample_t temperature_samples

sample_t humidity_samples

uint16_t timer_counter

state_t state

sensors_reading_state_t sensors_reading_state

bool is_event_sensors_reading

bool is_event_command_task

file i2c-th.ino

#include "i2c-th.h"

Functions

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void init_logging()

Init logging system.

Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_buffers()

Init buffers.

Ritorna:: void.

void init_tasks()

Init tasks variable and state.

Ritorna:: void.

void init_pins()

Init hardware pins.

Ritorna:: void.

void init_wire()

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void thPowerOff()

void thPowerOn()

void init_spi()

Init SPI library.

Ritorna:: void.

void init_rtc()

Init RTC module.

Ritorna:: void.

void init_system()

Init system.

Ritorna:: void.

void print_configuration()

Print current configuration.

Ritorna:: void.

void save_configuration(bool is_default)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void load_configuration()

Load configuration from EEPROM.

Ritorna:: void.

void init_sensors()

Create and setup sensors.

Ritorna:: void.

ISR(TIMER1_OVF_vect)

void i2c_request_interrupt_handler()

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(int rx_data_length)

I2C receive interrupt handler.

Parametri:: rx_data_length -- [in] received data length in bytes.
Ritorna:: void.

void sensors_reading_task()

Sensors reading Task. Read data from sensors.

Ritorna:: void.

template<typename buffer_g, typename length_v, typename value_v> value_v bufferRead(buffer_g *buffer, length_v length)

template<typename buffer_g, typename length_v, typename value_v> value_v bufferReadBack(buffer_g *buffer, length_v length)

template<typename buffer_g, typename length_v> void bufferPtrResetBack(buffer_g *buffer, length_v length)

template<typename buffer_g, typename length_v, typename value_v> void bufferReset(buffer_g *buffer, length_v length)

template<typename buffer_g, typename length_v> void incrementBuffer(buffer_g *buffer, length_v length)

template<typename buffer_g, typename length_v, typename value_v> void addValue(buffer_g *buffer, length_v length, value_v value)

void make_report(bool init = false)

Main routine for processing the samples to calculate an observation.

Ritorna:: void.

void samples_processing()

Main routine for processing the samples to calculate an observation.

Ritorna:: void.

void exchange_buffers()

Exchange reader and writer pointer to buffer.

Ritorna:: void.

void reset_samples_buffer()

Reset samples buffers to default value.

Ritorna:: void.

void reset_data(volatile readable_data_t *ptr)

void command_task()

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void copy_buffers()

void commands()

Performs specific operations based on the received command.

Ritorna:: void.

file i2c-th.ino

#include "i2c-th.h"

Functions

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void init_logging()

Init logging system.

Ritorna:: void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_pins()

Init hardware pins.

Ritorna:: void.

void thPowerOff()

void thPowerOn()

file i2c-thr-config.h

#include <sensors_config.h>

Defines

MODULE_MAIN_VERSION: Module main version.

MODULE_MINOR_VERSION: Module minor version.

MODULE_CONFIGURATION_VERSION: Module version of compatibile configuration. If you change it, you have to reconfigure.

CONFIGURATION_DEFAULT_TEMPERATURE_ADDRESS: Default i2c temperature address.

CONFIGURATION_DEFAULT_HUMIDITY_ADDRESS: Default i2c humidity address.

CONFIGURATION_RESET_PIN: Input pin for reset configuration at startup.

I2C_MAX_TIME: Max i2c time in seconds before i2c restart.

USE_POWER_DOWN: Enable or disable power down.

DEBOUNCING_POWER_DOWN_TIME_MS: Debounce power down ms.

USE_TIMER_1: Enable or disable timer1.

WDT_TIMER

Watchdog timer for periodically check microprocessor block states.

Possible value for WDT_TIMER are: WDTO_15MS, WDTO_30MS, WDTO_60MS, WDTO_120MS, WDTO_250MS, WDTO_500MS, WDTO_1S, WDTO_2S, WDTO_4S, WDTO_8S

TIMER1_INTERRUPT_TIME_MS: Value in milliseconds for generating timer1 interrupt: from 100 to TIMER1_OVERFLOW_TIME_MS.

TIMER1_TCNT1_VALUE: Timer1 timer overflow with 1024 prescaler at 8 MHz.

TIMER_COUNTER_VALUE_MAX_MS: Maximum timer1 counter value for timed tasks.

SDCARD_CHIP_SELECT_PIN: Chip select for SDcard SPI.

SPI_SPEED: Clock speed for SPI and SDcard.

SENSOR_ERROR_COUNT_MAX

SENSORS_SAMPLE_TIME_MS: Milliseconds for sampling sensors: 100 - 60000 [ms] must be integer multiple of TIMER1_INTERRUPT_TIME_MS !!!

OBSERVATION_SAMPLES_COUNT_MIN: Sample count minimum in OBSERVATIONS_MINUTES minutes.

OBSERVATION_SAMPLES_COUNT_MAX: Sample count maximum in OBSERVATIONS_MINUTES minutes.

RMAP_REPORT_SAMPLE_VALID

RMAP_REPORT_SAMPLES_COUNT

OBSERVATION_SAMPLE_ERROR_MAX: Maximum invalid sample count for generate a valid observations.

OBSERVATION_SAMPLE_VALID_MIN

RMAP_REPORT_SAMPLE_ERROR_MAX

RMAP_REPORT_SAMPLE_VALID_MIN

RMAP_REPORT_ERROR_MAX

RMAP_REPORT_VALID_MIN

SAMPLES_COUNT

RMAP_REPORT_INTERVAL_S

USE_SENSORS_COUNT: Sensors count.

USE_SENSOR_DRIVER_COUNT

SENSORS_RETRY_COUNT_MAX: Maximum number of retry for sensors reading.

SENSORS_RETRY_DELAY_MS: Waiting for reading between two attempts.

file i2c-thr.h

#include "i2c-thr-config.h"

#include <debug.h>

#include <i2c_config.h>

#include <avr/sleep.h>

#include <avr/power.h>

#include <avr/wdt.h>

#include <i2c_utility.h>

#include <rmap_utility.h>

#include <sdcard_utility.h>

#include <eeprom_utility.h>

#include <Wire.h>

#include <TimeLib.h>

#include <typedef.h>

#include <SensorDriver.h>

#include <debug_config.h>

#include <SdFat.h>

#include <StreamUtils.h>

#include <ArduinoLog.h>

Enums

enum state_t

Main loop finite state machine.

Values:

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator REBOOT: reboot the machine

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

Functions

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_system(void)

Init system.

Ritorna:: void.

void init_buffers(void)

Init buffers.

Ritorna:: void.

void init_tasks(void)

Init tasks variable and state.

Ritorna:: void.

void init_pins(void)

Init hardware pins.

Ritorna:: void.

void init_wire(void)

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_spi(void)

Init SPI library.

Ritorna:: void.

void init_rtc(void)

Init RTC module.

Ritorna:: void.

void init_sensors(void)

Create and setup sensors.

Ritorna:: void.

void print_configuration(void)

Print current configuration.

Ritorna:: void.

void load_configuration(void)

Load configuration from EEPROM.

Ritorna:: void.

void save_configuration(bool)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void commands(void)

Performs specific operations based on the received command.

Ritorna:: void.

void tests(void)

Performs specific operations based on the received command.

Performs tests operations based on the received command.

Ritorna:: void.

void reset_samples_buffer(void)

Reset samples buffers to default value.

Ritorna:: void.

void reset_report_buffer(void)

void reset_buffer(void)

Reset sample and observations buffers to default value.

Ritorna:: void.

void exchange_buffers(void)

Exchange reader and writer pointer to buffer.

Ritorna:: void.

template<typename buffer_g, typename length_v, typename value_v> value_v bufferRead(buffer_g *buffer, length_v length)

template<typename buffer_g, typename length_v, typename value_v> value_v bufferReadBack(buffer_g *buffer, length_v length)

template<typename buffer_g, typename value_v> void bufferWrite(buffer_g *buffer, value_v value)

template<typename buffer_g> void bufferPtrReset(buffer_g *buffer)

template<typename buffer_g, typename length_v> void bufferPtrResetBack(buffer_g *buffer, length_v length)

template<typename buffer_g, typename length_v> void incrementBuffer(buffer_g *buffer, length_v length)

template<typename buffer_g, typename length_v, typename value_v> void bufferReset(buffer_g *buffer, length_v length)

template<typename buffer_g, typename length_v, typename value_v> void addValue(buffer_g *buffer, length_v length, value_v value)

void samples_processing()

Main routine for processing the samples to calculate an observation.

Ritorna:: void.

void make_report()

void copy_oneshot_data()

void command_task(void)

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void i2c_request_interrupt_handler(void)

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(void)

Variables

configuration_t configuration

readable_data_t readable_data_1

readable_data_t readable_data_2

readable_data_t *readable_data_read_ptr

readable_data_t *readable_data_write_ptr

readable_data_t *readable_data_temp_ptr

writable_data_t writable_data

writable_data_t *writable_data_ptr

uint8_t readable_data_address

uint8_t readable_data_length

uint8_t i2c_rx_data[I2C_MAX_DATA_LENGTH]

uint8_t i2c_error

uint8_t i2c_time

uint8_t ready_tasks_count

uint32_t awakened_event_occurred_time_ms

bool is_start

bool is_stop

bool is_oneshot

bool is_continuous

uint16_t timer_counter_ms

SensorDriver *sensors[SENSORS_MAX]

uint8_t sensors_count

state_t state

bool is_event_command_task

file i2c-thr.ino

#include "i2c-thr.h"

Functions

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void init_logging()

Init logging system.

Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_buffers()

Init buffers.

Ritorna:: void.

void init_tasks()

Init tasks variable and state.

Ritorna:: void.

void init_pins()

Init hardware pins.

Ritorna:: void.

void init_wire()

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_spi()

Init SPI library.

Ritorna:: void.

void init_rtc()

Init RTC module.

Ritorna:: void.

void init_system()

Init system.

Ritorna:: void.

void print_configuration()

Print current configuration.

Ritorna:: void.

void save_configuration(bool is_default)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void load_configuration()

Load configuration from EEPROM.

Ritorna:: void.

void init_sensors()

Create and setup sensors.

Ritorna:: void.

ISR(TIMER1_OVF_vect)

void i2c_request_interrupt_handler()

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(int rx_data_length)

I2C receive interrupt handler.

Parametri:: rx_data_length -- [in] received data length in bytes.
Ritorna:: void.

copy_oneshot_data()

void samples_processing()

Main routine for processing the samples to calculate an observation.

Ritorna:: void.

void exchange_buffers()

Exchange reader and writer pointer to buffer.

Ritorna:: void.

void reset_samples_buffer()

Reset samples buffers to default value.

Ritorna:: void.

void reset_buffer()

Reset sample and observations buffers to default value.

Ritorna:: void.

void reset_report_buffer()

void command_task()

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void commands()

Performs specific operations based on the received command.

Ritorna:: void.

void tests()

Performs specific operations based on the received command.

Performs tests operations based on the received command.

Ritorna:: void.

file i2c-wind-config.h

#include <sensors_config.h>

Defines

MODULE_MAIN_VERSION: Module main version.

MODULE_MINOR_VERSION: Module minor version.

MODULE_CONFIGURATION_VERSION: Module version of compatibile configuration. If you change it, you have to reconfigure.

MODULE_TYPE: Type of module. It is defined in registers.h.

CONFIGURATION_DEFAULT_IS_ONESHOT: Oneshot mode for default.

CONFIGURATION_DEFAULT_I2C_ADDRESS: Default i2c address.

CONFIGURATION_RESET_PIN: Input pin for reset configuration at startup.

SDCARD_CHIP_SELECT_PIN: Chip select for SDcard SPI.

SPI_SPEED: Clock speed for SPI and SDcard.

I2C_MAX_TIME: Max i2c time in seconds before i2c restart.

USE_POWER_DOWN: Enable or disable power down.

DEBOUNCING_POWER_DOWN_TIME_MS: Debounce power down ms.

USE_TIMER_1: Enable or disable timer1.

WDT_TIMER

Watchdog timer for periodically check microprocessor block states.

Possible value for WDT_TIMER are: WDTO_15MS, WDTO_30MS, WDTO_60MS, WDTO_120MS, WDTO_250MS, WDTO_500MS, WDTO_1S, WDTO_2S, WDTO_4S, WDTO_8S

WMO_REPORT_SAMPLES_TIME: Sample time for generate WMO standard wind (verctorial mean) (minutes).

WMO_REPORT_SAMPLES_COUNT: Sample count for generate WMO standard wind (verctorial mean).

RMAP_REPORT_SAMPLE_ERROR_MAX_PERC: Sample maximum error in percent for one observation.

LONG_GUST_SAMPLES_TIME: Sample time for elaborate long gust (seconds).

LONG_GUST_SAMPLES_COUNT: Sample count for generate long gust.

GWS_ERROR_COUNT_MAX: Maximum error readeng GWS sensor before sensor reset and configuration.

WIND_CLASS_1_MAX

WIND_CLASS_2_MAX

WIND_CLASS_3_MAX

WIND_CLASS_4_MAX

WIND_CLASS_5_MAX

USE_SENSORS_COUNT: Sensors count.

TIMER1_TCNT1_VALUE: Timer1 timer overflow with 1024 prescaler at 16 MHz.

TIMER_COUNTER_VALUE_MAX_MS: Maximum timer1 counter value for timed tasks.

WIND_SETUP_DELAY_MS: Reading delay.

WIND_POWER_ON_DELAY_MS

WIND_POWER_RESPONSE_DELAY_MS: windsonic poll mode delay for response (millisec). \from User Manual: \When in polled mode the system will respond to the data command within 130mS \with the last valid data sample as calculated by the Output rate (P Mode Setting). \ is not TRUE !

WIND_READ_DELAY_MS: Reading delay.

WIND_READ_COUNT: number of read.

TRANSACTION_TIMEOUT_MS: Timeout for command transaction.

file i2c-wind.h

#include "i2c-wind-config.h"

#include <debug.h>

#include <i2c_config.h>

#include <avr/sleep.h>

#include <avr/power.h>

#include <avr/wdt.h>

#include <i2c_utility.h>

#include <rmap_utility.h>

#include <sdcard_utility.h>

#include <eeprom_utility.h>

#include <Wire.h>

#include <TimeLib.h>

#include <typedef.h>

#include <registers-wind.h>

#include <debug_config.h>

#include <SdFat.h>

#include <StreamUtils.h>

#include <ArduinoLog.h>

#include <CircularBuffer.h>

Enums

enum state_t

Main loop finite state machine.

Values:

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator REBOOT: reboot the machine

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enum wind_state_t

WIND setup and reading task finite state machine.

Values:

enumerator WIND_INIT

enumerator WIND_READING

enumerator WIND_ELABORATE

enumerator WIND_END: performs end operations and deactivate task

enumerator WIND_WAIT_STATE: non-blocking waiting time

Functions

void init_logging()

Init logging system.

Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_system(void)

Init system.

Ritorna:: void.

void init_buffers(void)

Init buffers.

Ritorna:: void.

void init_tasks(void)

Init tasks variable and state.

Ritorna:: void.

void init_pins(void)

Init hardware pins.

Ritorna:: void.

void init_wire(void)

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_spi(void)

Init SPI library.

Ritorna:: void.

void init_rtc(void)

Init RTC module.

Ritorna:: void.

void init_sensors(void)

Create and setup sensors.

Ritorna:: void.

void print_configuration(void)

Print current configuration.

Ritorna:: void.

void load_configuration(void)

Load configuration from EEPROM.

Ritorna:: void.

void save_configuration(bool)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void commands(void)

Performs specific operations based on the received command.

Ritorna:: void.

void tests(void)

Performs specific operations based on the received command.

Performs tests operations based on the received command.

Ritorna:: void.

void reset_samples_buffer(void)

Reset samples buffers to default value.

Ritorna:: void.

void reset_report_buffer(void)

void exchange_buffers(void)

Exchange reader and writer pointer to buffer.

Ritorna:: void.

void make_report(bool init = false)

Main routine for processing the samples to calculate an observation.

Ritorna:: void.

void elaborate_circular_buffer(void)

Main routine for processing the samples in circular buffer to calculate an observation.

Ritorna:: void.

void getSDFromUV(float, float, float*, float*)

void wind_task(void)

Wind setup and reading Task. Read data from WIND.

Ritorna:: void.

void command_task(void)

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void i2c_request_interrupt_handler(void)

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(void)

Variables

configuration_t configuration

readable_data_t readable_data_1

readable_data_t readable_data_2

readable_data_t *readable_data_read_ptr

readable_data_t *readable_data_write_ptr

readable_data_t *readable_data_temp_ptr

writable_data_t writable_data

writable_data_t *writable_data_ptr

uint8_t readable_data_address

uint8_t readable_data_length

uint8_t i2c_rx_data[I2C_MAX_DATA_LENGTH]

uint8_t lastcommand

uint8_t i2c_error

uint8_t i2c_time

uint8_t ready_tasks_count

uint32_t awakened_event_occurred_time_ms

bool inside_transaction

uint16_t transaction_time

uint16_t timer_counter_ms

state_t state

wind_state_t wind_state: Current sensors reading task state.

bool is_event_activate_wind_task: Enable or disable activation of WIND task by timer.

bool is_event_wind_task: Enable or disable the WIND task.

bool is_event_command_task

file i2c-wind.ino

#include "i2c-wind.h"

Functions

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void init_logging()

Init logging system.

Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_buffers()

Init buffers.

Ritorna:: void.

void init_tasks()

Init tasks variable and state.

Ritorna:: void.

void init_pins()

Init hardware pins.

Ritorna:: void.

void init_wire()

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_spi()

Init SPI library.

Ritorna:: void.

void init_rtc()

Init RTC module.

Ritorna:: void.

void init_system()

Init system.

Ritorna:: void.

void print_configuration()

Print current configuration.

Ritorna:: void.

void save_configuration(bool is_default)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void load_configuration()

Load configuration from EEPROM.

Ritorna:: void.

void init_sensors()

Create and setup sensors.

Ritorna:: void.

ISR(TIMER1_OVF_vect)

void i2c_request_interrupt_handler()

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(int rx_data_length)

I2C receive interrupt handler.

Parametri:: rx_data_length -- [in] received data length in bytes.
Ritorna:: void.

void getSDFromUV(float u, float v, uint16_t *speed, uint16_t *direction)

void print_registers(void)

void make_report(bool init)

Main routine for processing the samples to calculate an observation.

Ritorna:: void.

void elaborate_circular_buffer(void)

Main routine for processing the samples in circular buffer to calculate an observation.

Ritorna:: void.

void exchange_buffers()

Exchange reader and writer pointer to buffer.

Ritorna:: void.

void reset_samples_buffer()

Reset samples buffers to default value.

Ritorna:: void.

void reset_data(volatile readable_data_t *ptr)

void command_task()

Command Task. Execute the command received on i2c bus by reading i2c received data buffer.

Execute the command received on i2c bus by reading i2c received data buffer.

Ritorna:: void.

void copy_buffers()

file SdFormatter.ino

#include "SdFat.h"

#include "sdios.h"

Defines

SDCARD_SS_PIN

SPI_CLOCK

SD_CONFIG

sdError(msg)

Functions

ArduinoOutStream cout(Serial)

void sdErrorHalt()

void clearSerialInput()

void eraseCard()

void formatCard()

void printConfig(SdSpiConfig config)

bool cidDmp()

bool csdDmp()

void errorPrint()

bool mbrDmp()

void dmpVol()

void printCardType()

void printConfig(SdioConfig config)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

const int8_t DISABLE_CS_PIN = -1

const uint8_t SD_CS_PIN = SDCARD_SS_PIN

uint32_t cardSectorCount = 0

uint8_t sectorBuffer[512]

SdCardFactory cardFactory

SdCard *m_card = nullptr

SdFs sd

cid_t m_cid

csd_t m_csd

uint32_t m_eraseSize

uint32_t m_ocr

uint32_t const ERASE_SIZE = 262144L

file sensor_config.ino

#include "Wire.h"

#include <Arduino.h>

#include "registers-radiation.h"

#include "registers-wind.h"

#include "registers-th.h"

#include "registers-rain.h"

#include "registers-power.h"

#include <i2c_utility.h>

Defines

WIND_POWER_ON_DELAY_MS

WIND_POWER_PIN

GWS_SERIAL_BAUD

GWS_SERIAL_TIMEOUT_MS

UART_RX_BUFFER_LENGTH

CONFMSG

SAFEMSG

Functions

HardwareSerial Serial1(D0, D1)

void scanI2CBus(byte from_addr, byte to_addr, void (*callback)(byte address, byte result))

void scanFunc(byte addr, byte result)

void windsonicSerialReset()

void windsonicReceiveTerminatedMessage(const char terminator)

void windsonicReceiveMessage(const char terminator)

void windsonicPowerOff()

void windsonicPowerOn()

void windsonicFlush(void)

bool windsonicEnterConfigMode(void)

bool windsonicEnterConfigModeAllBaudrate()

bool windsonicInitSafeMode()

void windsonicConfigure(void)

void windsonicSconfigure(void)

char getCommand()

void displayHelp()

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

byte start_address = 1

byte end_address = 127

uint16_t uart_rx_buffer_length

char uart_rx_buffer[UART_RX_BUFFER_LENGTH]

const char version[] = "2.0"

file sensor_config.ino

#include "Wire.h"

#include <Arduino.h>

#include "registers-radiation.h"

#include "registers-wind.h"

#include "registers-th.h"

#include "registers-rain.h"

#include "registers-power.h"

#include <i2c_utility.h>

#include <menu.h>

#include <menuIO/hd44780_I2CexpOut.h>

#include <menuIO/RotaryIn.h>

#include <menuIO/IRremoteIn.h>

#include <menuIO/keyIn.h>

#include <menuIO/chainStream.h>

#include <menuIO/serialOut.h>

#include <menuIO/serialIn.h>

#include <hd44780.h>

#include <hd44780ioClass/hd44780_I2Cexp.h>

Defines

WIND_POWER_ON_DELAY_MS

WIND_POWER_PIN

GWS_SERIAL_BAUD

GWS_SERIAL_TIMEOUT_MS

UART_RX_BUFFER_LENGTH

encA

encB

encBtn

IR_PIN

MAX_DEPTH

CONFMSG

SAFEMSG

Functions

HardwareSerial Serial1(D0, D1)

void scanI2CBus(byte from_addr, byte to_addr, void (*callback)(byte address, byte result))

result scan_i2c_bus()

result i2c_solar_radiation_address(eventMask e, prompt &item)

result i2c_solar_radiation_oneshot(eventMask e, prompt &item)

result i2c_solar_radiation_offset(eventMask e, prompt &item)

result i2c_solar_radiation_gain(eventMask e, prompt &item)

result i2c_solar_radiation_sensor_voltage(eventMask e, prompt &item)

result i2c_solar_radiation_sensor_radiation(eventMask e, prompt &item)

result i2c_solar_radiation_save_all(eventMask e, prompt &item)

result i2c_th_address(eventMask e, prompt &item)

result i2c_th_oneshot(eventMask e, prompt &item)

result i2c_th_sensor_type1(eventMask e, prompt &item)

result i2c_th_sensor_address1(eventMask e, prompt &item)

result i2c_th_sensor_type2(eventMask e, prompt &item)

result i2c_th_sensor_address2(eventMask e, prompt &item)

result i2c_th_save_all(eventMask e, prompt &item)

result i2c_rain_address(eventMask e, prompt &item)

result i2c_rain_oneshot(eventMask e, prompt &item)

result i2c_rain_tipping_bucket_time(eventMask e, prompt &item)

result i2c_rain_rain_for_tip(eventMask e, prompt &item)

result i2c_rain_save_all(eventMask e, prompt &item)

result i2c_power_address(eventMask e, prompt &item)

result i2c_power_oneshot(eventMask e, prompt &item)

result i2c_power_voltage_max_panel(eventMask e, prompt &item)

result i2c_power_voltage_max_battery(eventMask e, prompt &item)

result i2c_power_save_all(eventMask e, prompt &item)

result i2c_wind_address(eventMask e, prompt &item)

result i2c_wind_oneshot(eventMask e, prompt &item)

result i2c_wind_save_all(eventMask e, prompt &item)

result windsonic_sconfigurator(eventMask e, prompt &item)

result windsonic_configurator(eventMask e, prompt &item)

TOGGLE (radiationOneshot, subMenuRadiationOneshot,"Oneshot: ", doNothing, noEvent, noStyle, VALUE("True", true, i2c_solar_radiation_oneshot, exitEvent), VALUE("False", false, i2c_solar_radiation_oneshot, exitEvent)) MENU(subMenuRadiationSave

Save OP ("Yes", i2c_solar_radiation_save_all, enterEvent)

Save EXIT ("<Back"))

MENU (subMenuRadiation,"i2c_radiation", doNothing, noEvent, noStyle, FIELD(radiationAddress,"I2C address","", 0, 127, 1, 0, i2c_solar_radiation_address, exitEvent, noStyle), SUBMENU(subMenuRadiationOneshot), FIELD(radiationOffset,"ADC offset","",-127.0, 127.0, 1.0, 0, i2c_solar_radiation_offset, exitEvent, noStyle), altFIELD(decPlaces< 3 >::menuField, radiationGain,"ADC gain","", 0., 2., 0.1, 0.001, i2c_solar_radiation_gain, exitEvent, noStyle), altFIELD(decPlaces< 0 >::menuField, radiationSensorVoltage,"Volt MAX"," mV", 0.0, 10000.0, 100.0, 1.0, i2c_solar_radiation_sensor_voltage, exitEvent, noStyle), altFIELD(decPlaces< 0 >::menuField, radiationSensorRadiation,"Radi MAX"," w/m^2", 0.0, 10000.0, 100.0, 1.0, i2c_solar_radiation_sensor_radiation, exitEvent, noStyle), SUBMENU(subMenuRadiationSave), EXIT("<Back"))

TOGGLE (thOneshot, subMenuThOneshot,"Oneshot: ", doNothing, noEvent, noStyle, VALUE("True", true, i2c_th_oneshot, exitEvent), VALUE("False", false, i2c_th_oneshot, exitEvent)) MENU(subMenuThSave

Save OP ("Yes", i2c_th_save_all, enterEvent)

MENU (subMenuTh,"i2c_th", doNothing, noEvent, noStyle, FIELD(thAddress,"I2C address","", 0, 127, 1, 0, i2c_th_address, exitEvent, noStyle), SUBMENU(subMenuThOneshot), EDIT("sensor1 type", thSensorType1, alpha, i2c_th_sensor_type1, exitEvent, noStyle), FIELD(thSensorAddress1,"sensor1 address","", 0, 127, 1, 0, i2c_th_sensor_address1, exitEvent, noStyle), EDIT("sensor2 type", thSensorType2, alpha, i2c_th_sensor_type2, exitEvent, noStyle), FIELD(thSensorAddress2,"sensor2 address","", 0, 127, 1, 0, i2c_th_sensor_address2, exitEvent, noStyle), SUBMENU(subMenuThSave), EXIT("<Back"))

TOGGLE (rainOneshot, subMenuRainOneshot,"Oneshot: ", doNothing, noEvent, noStyle, VALUE("True", true, i2c_rain_oneshot, exitEvent), VALUE("False", false, i2c_rain_oneshot, exitEvent)) MENU(subMenuRainSave

Save OP ("Yes", i2c_rain_save_all, enterEvent)

MENU (subMenuRain,"i2c_rain", doNothing, noEvent, noStyle, FIELD(rainAddress,"I2C address","", 0, 127, 1, 0, i2c_rain_address, exitEvent, noStyle), SUBMENU(subMenuRainOneshot), FIELD(rainTippingBucketTime,"Tip time","ms", 0, 1000, 10, 1, i2c_rain_tipping_bucket_time, exitEvent, noStyle), FIELD(rainRainForTip,"Tip value","mm/10", 1, 20, 1, 0, i2c_rain_rain_for_tip, exitEvent, noStyle), SUBMENU(subMenuRainSave), EXIT("<Back"))

TOGGLE (powerOneshot, subMenuPowerOneshot,"Oneshot: ", doNothing, noEvent, noStyle, VALUE("True", true, i2c_power_oneshot, exitEvent), VALUE("False", false, i2c_power_oneshot, exitEvent)) MENU(subMenuPowerSave

Save OP ("Yes", i2c_power_save_all, enterEvent)

MENU (subMenuPower,"i2c_power", doNothing, noEvent, noStyle, FIELD(powerAddress,"I2C address","", 0, 127, 1, 0, i2c_power_address, exitEvent, noStyle), SUBMENU(subMenuPowerOneshot), FIELD(powerVoltageMaxPanel,"Panel max","mV", 1, 50000, 100, 1, i2c_power_voltage_max_panel, exitEvent, noStyle), FIELD(powerVoltageMaxBattery,"Battery max","mV", 1, 30000, 100, 1, i2c_power_voltage_max_battery, exitEvent, noStyle), SUBMENU(subMenuPowerSave), EXIT("<Back"))

TOGGLE (windOneshot, subMenuWindOneshot,"Oneshot: ", doNothing, noEvent, noStyle, VALUE("True", true, i2c_wind_oneshot, exitEvent), VALUE("False", false, i2c_wind_oneshot, exitEvent)) MENU(subMenuWindSave

Save OP ("Yes", i2c_wind_save_all, enterEvent)

MENU (subMenuWind,"i2c_wind", doNothing, noEvent, noStyle, FIELD(windAddress,"I2C address","", 0, 127, 1, 0, i2c_wind_address, exitEvent, noStyle), SUBMENU(subMenuWindOneshot), SUBMENU(subMenuWindSave), EXIT("<Back"))

MENU (mainMenu,"Configuration", doNothing, noEvent, noStyle, SUBMENU(subMenuRadiation), SUBMENU(subMenuTh), SUBMENU(subMenuRain), SUBMENU(subMenuPower), SUBMENU(subMenuWind), OP("configure windsonic", windsonic_configurator, enterEvent), OP("sconfigure windsonic", windsonic_sconfigurator, enterEvent), OP("Scan i2c bus", scan_i2c_bus, enterEvent), EXIT("<Exit go to serial port"))

encoderInStream<encA, encB> encStream(encoder)

irInStream<IR_PIN> irStream(ir)

keyIn<1> encButton(encBtn_map)

serialIn serial(Serial)

MENU_INPUTS (in,&irStream,&encStream,&encButton,&serial)

panelsList pList (panels, nodes, 1)

serialOut outSerial(Serial, serialTops)

liquidCrystalOut outLcd(lcd, lcdTops, pList)

outputsList out (outputs, sizeof(outputs)/sizeof(menuOut *))

NAVROOT(nav, mainMenu, MAX_DEPTH, in, out)

result display_status(menuOut &o, idleEvent e)

result display_nostatus(menuOut &o, idleEvent e)

result idle(menuOut &o, idleEvent e)

result look_at_serial_message(menuOut &o, idleEvent e)

void encoderprocess()

void scanFunc(byte addr, byte result)

void windsonicSerialReset()

void windsonicReceiveTerminatedMessage(const char terminator)

void windsonicReceiveMessage(const char terminator)

void windsonicPowerOff()

void windsonicPowerOn()

void windsonicFlush(void)

bool windsonicEnterConfigMode(void)

bool windsonicEnterConfigModeAllBaudrate()

bool windsonicInitSafeMode()

void windsonicConfigure(void)

void windsonicSconfigure(void)

char getCommand()

void displayHelp()

bool do_i2c_solar_radiation_address(void)

bool do_i2c_solar_radiation_oneshot(void)

bool do_i2c_solar_radiation_offset(void)

bool do_i2c_solar_radiation_gain(void)

bool do_i2c_solar_radiation_sensor_voltage(void)

bool do_i2c_solar_radiation_sensor_radiation(void)

bool do_i2c_solar_radiation_save(void)

bool do_i2c_th_address(void)

bool do_i2c_th_oneshot(void)

bool do_i2c_th_sensor_type1(void)

bool do_i2c_th_sensor_address1(void)

bool do_i2c_th_sensor_type2(void)

bool do_i2c_th_sensor_address2(void)

bool do_i2c_th_save(void)

bool do_i2c_rain_address(void)

bool do_i2c_rain_oneshot(void)

bool do_i2c_rain_rain_for_tip(void)

bool do_i2c_rain_tipping_bucket_time(void)

bool do_i2c_rain_save(void)

bool do_i2c_power_address(void)

bool do_i2c_power_oneshot(void)

bool do_i2c_power_voltage_max_panel(void)

bool do_i2c_power_voltage_max_battery(void)

bool do_i2c_power_save(void)

bool do_i2c_wind_address(void)

bool do_i2c_wind_oneshot(void)

void do_windsonic_sconfigurator(void)

void do_windsonic_configurator(void)

bool do_i2c_wind_save(void)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

void loop_menu()

void loop_serial()

Variables

uint16_t uart_rx_buffer_length

char uart_rx_buffer[UART_RX_BUFFER_LENGTH]

const char version[] = "4.0"

hd44780_I2Cexp lcd

bool last_status

bool true_idle_status = false

uint8_t radiationAddress = I2C_SOLAR_RADIATION_DEFAULT_ADDRESS

bool radiationOneshot = false

float radiationOffset = 0.0

float radiationGain = 1.0

float radiationSensorVoltage = 5000.0

float radiationSensorRadiation = 2000.0

uint8_t thAddress = I2C_TH_DEFAULT_ADDRESS

bool thOneshot = false

char thSensorType1[] = "HYT"

uint8_t thSensorAddress1 = 40

char thSensorType2[] = " "

uint8_t thSensorAddress2 = 0

uint8_t rainAddress = I2C_RAIN_DEFAULT_ADDRESS

bool rainOneshot = true

uint16_t rainTippingBucketTime = 50

uint8_t rainRainForTip = 1

uint8_t powerAddress = I2C_POWER_DEFAULT_ADDRESS

bool powerOneshot = false

uint16_t powerVoltageMaxPanel = 30000

uint16_t powerVoltageMaxBattery = 15000

uint8_t windAddress = I2C_WIND_DEFAULT_ADDRESS

bool windOneshot = false

uint8_t windType = 1

Save configuration

Save doNothing

Save noEvent

Save noStyle

const char *const alpha[] MEMMODE = {"ABCDEFGHIJKLMNOPQRSTUVWXYZ"}

encoderIn<encA, encB> encoder

irIn<IR_PIN> ir

keyMap encBtn_map[] = {{-encBtn, defaultNavCodes[enterCmd].ch}}

menuIn *inputsList[] = {&encButton}

navNode *nodes[sizeof(panels) / sizeof(panel)]

idx_t serialTops[MAX_DEPTH]

idx_t lcdTops[MAX_DEPTH]

file sensor_config.ino

#include "Wire.h"

#include <Arduino.h>

#include <ArduinoLog.h>

#include "registers-master.h"

#include "registers-radiation.h"

#include "registers-wind.h"

#include "registers-th.h"

#include "registers-rain.h"

#include "registers-power.h"

#include <i2c_utility.h>

#include <stima-config.h>

#include <sensors_config.h>

#include <ethernet_config.h>

#include "sensor_config.h"

#include "lcd_config.h"

#include <EEPROM.h>

#include <menu.h>

#include <menuIO/hd44780_I2CexpOut.h>

#include <menuIO/RotaryIn.h>

#include <menuIO/IRremoteIn.h>

#include <menuIO/keyIn.h>

#include <menuIO/chainStream.h>

#include <menuIO/serialOut.h>

#include <menuIO/serialIn.h>

#include <SPI.h>

#include <SdFat.h>

#include "sdios.h"

#include <plugin/SdFatMenu.h>

#include <hd44780.h>

#include <hd44780ioClass/hd44780_I2Cexp.h>

Defines

encA

encB

encBtn

IR_PIN

WIND_POWER_PIN

LOG_LEVEL

WIND_POWER_ON_DELAY_MS

GWS_SERIAL_BAUD

GWS_SERIAL_TIMEOUT_MS

UART_RX_BUFFER_LENGTH

SDCARD_SS

SD_CONFIG

MAX_DEPTH

CONFMSG

SAFEMSG

CHUNK

Functions

HardwareSerial Serial1(D0, D1)

result filePick(eventMask event, navNode &nav, prompt &item)

void scanI2CBus(byte from_addr, byte to_addr, void (*callback)(byte address, byte result))

result scan_i2c_bus()

result i2c_master_save_i2c_all(eventMask e, prompt &item)

result i2c_master_save_eeprom_all(eventMask e, prompt &item)

result i2c_solar_radiation_address(eventMask e, prompt &item)

result i2c_solar_radiation_oneshot(eventMask e, prompt &item)

result i2c_solar_radiation_offset(eventMask e, prompt &item)

result i2c_solar_radiation_gain(eventMask e, prompt &item)

result i2c_solar_radiation_sensor_voltage(eventMask e, prompt &item)

result i2c_solar_radiation_sensor_radiation(eventMask e, prompt &item)

result i2c_solar_radiation_save_all(eventMask e, prompt &item)

result i2c_th_address(eventMask e, prompt &item)

result i2c_th_oneshot(eventMask e, prompt &item)

result i2c_th_sensor_type1(eventMask e, prompt &item)

result i2c_th_sensor_address1(eventMask e, prompt &item)

result i2c_th_sensor_type2(eventMask e, prompt &item)

result i2c_th_sensor_address2(eventMask e, prompt &item)

result i2c_th_save_all(eventMask e, prompt &item)

result i2c_rain_address(eventMask e, prompt &item)

result i2c_rain_oneshot(eventMask e, prompt &item)

result i2c_rain_tipping_bucket_time(eventMask e, prompt &item)

result i2c_rain_rain_for_tip(eventMask e, prompt &item)

result i2c_rain_save_all(eventMask e, prompt &item)

result i2c_power_address(eventMask e, prompt &item)

result i2c_power_oneshot(eventMask e, prompt &item)

result i2c_power_voltage_max_panel(eventMask e, prompt &item)

result i2c_power_voltage_max_battery(eventMask e, prompt &item)

result i2c_power_save_all(eventMask e, prompt &item)

result i2c_wind_address(eventMask e, prompt &item)

result i2c_wind_oneshot(eventMask e, prompt &item)

result i2c_wind_save_all(eventMask e, prompt &item)

result sdcardFormat(eventMask e, prompt &item)

result windsonic_sconfigurator(eventMask e, prompt &item)

result windsonic_configurator(eventMask e, prompt &item)

SDMenuT< CachedFSO< SdFat, 32 > > filePickMenu (sd,"Select conf file","/", filePick, enterEvent)

MENU (subMenuMasterEepromSave,"EE save conf", doNothing, noEvent, noStyle, OP("Yes write on EEPROM", i2c_master_save_eeprom_all, enterEvent), EXIT("<Back"))

MENU (subMenuMasterI2cSave,"I2C save conf", doNothing, noEvent, noStyle, OP("Yes write on I2C", i2c_master_save_i2c_all, enterEvent), EXIT("<Back"))

MENU (subMenuMaster,"Master", doNothing, noEvent, noStyle, SUBMENU(filePickMenu), SUBMENU(subMenuMasterEepromSave), SUBMENU(subMenuMasterI2cSave), EXIT("<Back"))

TOGGLE (radiationOneshot, subMenuRadiationOneshot,"Oneshot: ", doNothing, noEvent, noStyle, VALUE("True", true, i2c_solar_radiation_oneshot, exitEvent), VALUE("False", false, i2c_solar_radiation_oneshot, exitEvent)) MENU(subMenuRadiationSave

Save OP ("Yes", i2c_solar_radiation_save_all, enterEvent)

Save EXIT ("<Back"))

MENU (subMenuRadiation,"i2c_radiation", doNothing, noEvent, noStyle, FIELD(radiationAddress,"I2C address","", 0, 127, 1, 0, i2c_solar_radiation_address, exitEvent, noStyle), SUBMENU(subMenuRadiationOneshot), FIELD(radiationOffset,"ADC offset","",-127.0, 127.0, 1.0, 0, i2c_solar_radiation_offset, exitEvent, noStyle), altFIELD(decPlaces< 3 >::menuField, radiationGain,"ADC gain","", 0., 2., 0.1, 0.001, i2c_solar_radiation_gain, exitEvent, noStyle), altFIELD(decPlaces< 0 >::menuField, radiationSensorVoltage,"Volt MAX"," mV", 0.0, 10000.0, 100.0, 1.0, i2c_solar_radiation_sensor_voltage, exitEvent, noStyle), altFIELD(decPlaces< 0 >::menuField, radiationSensorRadiation,"Radi MAX"," w/m^2", 0.0, 10000.0, 100.0, 1.0, i2c_solar_radiation_sensor_radiation, exitEvent, noStyle), SUBMENU(subMenuRadiationSave), EXIT("<Back"))

TOGGLE (thOneshot, subMenuThOneshot,"Oneshot: ", doNothing, noEvent, noStyle, VALUE("True", true, i2c_th_oneshot, exitEvent), VALUE("False", false, i2c_th_oneshot, exitEvent)) MENU(subMenuThSave

Save OP ("Yes", i2c_th_save_all, enterEvent)

MENU (subMenuTh,"i2c_th", doNothing, noEvent, noStyle, FIELD(thAddress,"I2C address","", 0, 127, 1, 0, i2c_th_address, exitEvent, noStyle), SUBMENU(subMenuThOneshot), EDIT("sensor1 type", thSensorType1, alpha, i2c_th_sensor_type1, exitEvent, noStyle), FIELD(thSensorAddress1,"sensor1 address","", 0, 127, 1, 0, i2c_th_sensor_address1, exitEvent, noStyle), EDIT("sensor2 type", thSensorType2, alpha, i2c_th_sensor_type2, exitEvent, noStyle), FIELD(thSensorAddress2,"sensor2 address","", 0, 127, 1, 0, i2c_th_sensor_address2, exitEvent, noStyle), SUBMENU(subMenuThSave), EXIT("<Back"))

TOGGLE (rainOneshot, subMenuRainOneshot,"Oneshot: ", doNothing, noEvent, noStyle, VALUE("True", true, i2c_rain_oneshot, exitEvent), VALUE("False", false, i2c_rain_oneshot, exitEvent)) MENU(subMenuRainSave

Save OP ("Yes", i2c_rain_save_all, enterEvent)

MENU (subMenuRain,"i2c_rain", doNothing, noEvent, noStyle, FIELD(rainAddress,"I2C address","", 0, 127, 1, 0, i2c_rain_address, exitEvent, noStyle), SUBMENU(subMenuRainOneshot), FIELD(rainTippingBucketTime,"Tip time","ms", 0, 1000, 10, 1, i2c_rain_tipping_bucket_time, exitEvent, noStyle), FIELD(rainRainForTip,"Tip value","mm/10", 1, 20, 1, 0, i2c_rain_rain_for_tip, exitEvent, noStyle), SUBMENU(subMenuRainSave), EXIT("<Back"))

TOGGLE (powerOneshot, subMenuPowerOneshot,"Oneshot: ", doNothing, noEvent, noStyle, VALUE("True", true, i2c_power_oneshot, exitEvent), VALUE("False", false, i2c_power_oneshot, exitEvent)) MENU(subMenuPowerSave

Save OP ("Yes", i2c_power_save_all, enterEvent)

MENU (subMenuPower,"i2c_power", doNothing, noEvent, noStyle, FIELD(powerAddress,"I2C address","", 0, 127, 1, 0, i2c_power_address, exitEvent, noStyle), SUBMENU(subMenuPowerOneshot), FIELD(powerVoltageMaxPanel,"Panel max","mV", 1, 50000, 100, 1, i2c_power_voltage_max_panel, exitEvent, noStyle), FIELD(powerVoltageMaxBattery,"Battery max","mV", 1, 30000, 100, 1, i2c_power_voltage_max_battery, exitEvent, noStyle), SUBMENU(subMenuPowerSave), EXIT("<Back"))

TOGGLE (windOneshot, subMenuWindOneshot,"Oneshot: ", doNothing, noEvent, noStyle, VALUE("True", true, i2c_wind_oneshot, exitEvent), VALUE("False", false, i2c_wind_oneshot, exitEvent)) MENU(subMenuWindSave

Save OP ("Yes", i2c_wind_save_all, enterEvent)

MENU (subMenuWind,"i2c_wind", doNothing, noEvent, noStyle, FIELD(windAddress,"I2C address","", 0, 127, 1, 0, i2c_wind_address, exitEvent, noStyle), SUBMENU(subMenuWindOneshot), SUBMENU(subMenuWindSave), EXIT("<Back"))

MENU (subMenuSdformat,"SD format", doNothing, noEvent, noStyle, OP("Yes erase all data", sdcardFormat, enterEvent), EXIT("<Back"))

MENU (mainMenu,"Configuration", doNothing, noEvent, noStyle, SUBMENU(subMenuMaster), SUBMENU(subMenuRadiation), SUBMENU(subMenuTh), SUBMENU(subMenuRain), SUBMENU(subMenuPower), SUBMENU(subMenuWind), SUBMENU(subMenuSdformat), OP("configure windsonic", windsonic_configurator, enterEvent), OP("sconfigure windsonic", windsonic_sconfigurator, enterEvent), OP("Scan i2c bus", scan_i2c_bus, enterEvent), EXIT("<Exit go to serial port"))

encoderInStream<encA, encB> encStream(encoder)

irInStream<IR_PIN> irStream(ir)

keyIn<1> encButton(encBtn_map)

serialIn serial(Serial)

MENU_INPUTS (in,&irStream,&encStream,&encButton,&serial)

panelsList pList (panels, nodes, 1)

serialOut outSerial(Serial, serialTops)

liquidCrystalOut outLcd(lcd, lcdTops, pList)

outputsList out (outputs, sizeof(outputs)/sizeof(menuOut *))

NAVROOT(nav, mainMenu, MAX_DEPTH, in, out)

result display_status(menuOut &o, idleEvent e)

result display_nostatus(menuOut &o, idleEvent e)

result idle(menuOut &o, idleEvent e)

result look_at_serial_message(menuOut &o, idleEvent e)

void encoderprocess()

void scanFunc(byte addr, byte result)

void windsonicSerialReset()

void windsonicReceiveTerminatedMessage(const char terminator)

void windsonicReceiveMessage(const char terminator)

void windsonicPowerOff()

void windsonicPowerOn()

void windsonicFlush(void)

bool windsonicEnterConfigMode(void)

bool windsonicEnterConfigModeAllBaudrate()

bool windsonicInitSafeMode()

void windsonicConfigure(void)

void windsonicSconfigure(void)

bool cidDmp()

bool csdDmp()

void errorPrint()

bool mbrDmp()

void dmpVol()

void printCardType()

char getCommand()

void displayHelp()

void print_configuration()

Print current configuration.

Ritorna:: void.

bool do_i2c_master_config(uint16_t index, uint8_t *conf, uint8_t conflength)

bool do_i2c_master_save(void)

bool do_i2c_solar_radiation_address(void)

bool do_i2c_solar_radiation_oneshot(void)

bool do_i2c_solar_radiation_offset(void)

bool do_i2c_solar_radiation_gain(void)

bool do_i2c_solar_radiation_sensor_voltage(void)

bool do_i2c_solar_radiation_sensor_radiation(void)

bool do_i2c_solar_radiation_save(void)

bool do_i2c_th_address(void)

bool do_i2c_th_oneshot(void)

bool do_i2c_th_sensor_type1(void)

bool do_i2c_th_sensor_address1(void)

bool do_i2c_th_sensor_type2(void)

bool do_i2c_th_sensor_address2(void)

bool do_i2c_th_save(void)

bool do_i2c_rain_address(void)

bool do_i2c_rain_oneshot(void)

bool do_i2c_rain_rain_for_tip(void)

bool do_i2c_rain_tipping_bucket_time(void)

bool do_i2c_rain_save(void)

bool do_i2c_power_address(void)

bool do_i2c_power_oneshot(void)

bool do_i2c_power_voltage_max_panel(void)

bool do_i2c_power_voltage_max_battery(void)

bool do_i2c_power_save(void)

bool do_i2c_wind_address(void)

bool do_i2c_wind_oneshot(void)

void do_windsonic_sconfigurator(void)

void do_windsonic_configurator(void)

bool do_i2c_wind_save(void)

void logSuffix(Print *_logOutput)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

void loop_menu()

void loop_serial()

Variables

uint16_t uart_rx_buffer_length

char uart_rx_buffer[UART_RX_BUFFER_LENGTH]

const char version[] = "4.0"

SdFs sd

SdCardFactory cardFactory

SdCard *m_card = nullptr

cid_t m_cid

csd_t m_csd

uint32_t m_eraseSize

uint32_t m_ocr

hd44780_I2Cexp lcd

bool last_status

bool true_idle_status = false

uint8_t radiationAddress = I2C_SOLAR_RADIATION_DEFAULT_ADDRESS

bool radiationOneshot = false

float radiationOffset = 0.0

float radiationGain = 1.0

float radiationSensorVoltage = 5000.0

float radiationSensorRadiation = 2000.0

uint8_t thAddress = I2C_TH_DEFAULT_ADDRESS

bool thOneshot = false

char thSensorType1[] = "HYT"

uint8_t thSensorAddress1 = 40

char thSensorType2[] = " "

uint8_t thSensorAddress2 = 0

uint8_t rainAddress = I2C_RAIN_DEFAULT_ADDRESS

bool rainOneshot = true

uint16_t rainTippingBucketTime = 50

uint8_t rainRainForTip = 1

uint8_t powerAddress = I2C_POWER_DEFAULT_ADDRESS

bool powerOneshot = false

uint16_t powerVoltageMaxPanel = 30000

uint16_t powerVoltageMaxBattery = 15000

uint8_t windAddress = I2C_WIND_DEFAULT_ADDRESS

bool windOneshot = false

uint8_t windType = 1

char filename[100]

char path[100]

Save configuration

Save doNothing

Save noEvent

Save noStyle

const char *const alpha[] MEMMODE = {"ABCDEFGHIJKLMNOPQRSTUVWXYZ"}

encoderIn<encA, encB> encoder

irIn<IR_PIN> ir

keyMap encBtn_map[] = {{-encBtn, defaultNavCodes[enterCmd].ch}}

menuIn *inputsList[] = {&encButton}

navNode *nodes[sizeof(panels) / sizeof(panel)]

idx_t serialTops[MAX_DEPTH]

idx_t lcdTops[MAX_DEPTH]

file constantdata_config.h

Defines

CONSTANTDATA_BTABLE_LENGTH: Maximum lenght of btable code plus terminator that describe one constant data.

CONSTANTDATA_VALUE_LENGTH: Maximum lenght of value plus terminator for one constant data.

file constantdata_config.h

Defines

CONSTANTDATA_BTABLE_LENGTH: Maximum lenght of btable code plus terminator that describe one constant data.

CONSTANTDATA_VALUE_LENGTH: Maximum lenght of value plus terminator for one constant data.

file ethernet_config.h

Defines

ETHERNET_DEFAULT_DHCP_ENABLE: Default option for enable or disable DHCP protocol with ethernet.

ETHERNET_DEFAULT_MAC: Default mac address for ethernet device.

ETHERNET_DEFAULT_IP: Default ip address for ethernet device.

ETHERNET_DEFAULT_NETMASK: Default netmask for ethernet device.

ETHERNET_DEFAULT_GATEWAY: Default gateway for ethernet device.

ETHERNET_DEFAULT_PRIMARY_DNS: Default primary dns for ethernet device.

ETHERNET_DEFAULT_LOCAL_UDP_PORT: Default local udp port for ethernet device.

ETHERNET_ATTEMPT_MS: Set next ethernet library attempt delay in milliseconds after a failure.

ETHERNET_RETRY_TIME_MS: Set next ethernet task attempt delay in milliseconds after a failure.

ETHERNET_RETRY_COUNT: Maximum number of retry for ethernet task.

ETHERNET_MQTT_TIMEOUT_MS: MQTT timeout in milliseconds for ethernet device.

ETHERNET_MAC_LENGTH: Length in bytes for mac address.

ETHERNET_IP_LENGTH: Length in bytes for ip address.

file ethernet_config.h

Defines

ETHERNET_DEFAULT_DHCP_ENABLE: Default option for enable or disable DHCP protocol with ethernet.

ETHERNET_DEFAULT_MAC: Default mac address for ethernet device.

ETHERNET_DEFAULT_IP: Default ip address for ethernet device.

ETHERNET_DEFAULT_NETMASK: Default netmask for ethernet device.

ETHERNET_DEFAULT_GATEWAY: Default gateway for ethernet device.

ETHERNET_DEFAULT_PRIMARY_DNS: Default primary dns for ethernet device.

ETHERNET_DEFAULT_LOCAL_UDP_PORT: Default local udp port for ethernet device.

ETHERNET_ATTEMPT_MS: Set next ethernet library attempt delay in milliseconds after a failure.

ETHERNET_RETRY_TIME_MS: Set next ethernet task attempt delay in milliseconds after a failure.

ETHERNET_RETRY_COUNT: Maximum number of retry for ethernet task.

ETHERNET_MQTT_TIMEOUT_MS: MQTT timeout in milliseconds for ethernet device.

ETHERNET_MAC_LENGTH: Length in bytes for mac address.

ETHERNET_IP_LENGTH: Length in bytes for ip address.

file ethernet_config.h

Defines

ETHERNET_DEFAULT_DHCP_ENABLE: Default option for enable or disable DHCP protocol with ethernet.

ETHERNET_DEFAULT_MAC: Default mac address for ethernet device.

ETHERNET_DEFAULT_IP: Default ip address for ethernet device.

ETHERNET_DEFAULT_NETMASK: Default netmask for ethernet device.

ETHERNET_DEFAULT_GATEWAY: Default gateway for ethernet device.

ETHERNET_DEFAULT_PRIMARY_DNS: Default primary dns for ethernet device.

ETHERNET_DEFAULT_LOCAL_UDP_PORT: Default local udp port for ethernet device.

ETHERNET_ATTEMPT_MS: Set next ethernet library attempt delay in milliseconds after a failure.

ETHERNET_RETRY_TIME_MS: Set next ethernet task attempt delay in milliseconds after a failure.

ETHERNET_RETRY_COUNT: Maximum number of retry for ethernet task.

ETHERNET_MQTT_TIMEOUT_MS: MQTT timeout in milliseconds for ethernet device.

ETHERNET_MAC_LENGTH: Length in bytes for mac address.

ETHERNET_IP_LENGTH: Length in bytes for ip address.

file gsm_config.h

Defines

GSM_APN_TIM: APN for TIM.

GSM_APN_WIND: APN for WIND.

GSM_APN_VODAFONE: APN for VODAFONE.

GSM_DEFAULT_APN: Default GSM APN.

GSM_DEFAULT_USERNAME: Default GSM username.

GSM_DEFAULT_PASSWORD: Default GSM password.

GSM_APN_LENGTH: Length in bytes for apn.

GSM_USERNAME_LENGTH: Length in bytes for username.

GSM_PASSWORD_LENGTH: Length in bytes for password.

USE_SIM_800C: Enable if you want to use SIM800C.

USE_SIM_800L: Enable if you want to use SIM800L.

file gsm_config.h

Defines

GSM_APN_TIM: APN for TIM.

GSM_APN_WIND: APN for WIND.

GSM_APN_VODAFONE: APN for VODAFONE.

GSM_DEFAULT_APN: Default GSM APN.

GSM_DEFAULT_USERNAME: Default GSM username.

GSM_DEFAULT_PASSWORD: Default GSM password.

GSM_APN_LENGTH: Length in bytes for apn.

GSM_USERNAME_LENGTH: Length in bytes for username.

GSM_PASSWORD_LENGTH: Length in bytes for password.

USE_SIM_800C: Enable if you want to use SIM800C.

USE_SIM_800L: Enable if you want to use SIM800L.

file gsm_config.h

Defines

GSM_APN_TIM: APN for TIM.

GSM_APN_WIND: APN for WIND.

GSM_APN_VODAFONE: APN for VODAFONE.

GSM_DEFAULT_APN: Default GSM APN.

GSM_DEFAULT_USERNAME: Default GSM username.

GSM_DEFAULT_PASSWORD: Default GSM password.

GSM_APN_LENGTH: Length in bytes for apn.

GSM_USERNAME_LENGTH: Length in bytes for username.

GSM_PASSWORD_LENGTH: Length in bytes for password.

USE_SIM_800C: Enable if you want to use SIM800C.

USE_SIM_800L: Enable if you want to use SIM800L.

file lcd_config.h

Defines

LCD_I2C_ADDRESS: LCD i2c address.

LCD_I2C_SECONDARY_ADDRESS: Try this I2C address for LCD if LCD_I2C_ADDRESS fail.

LCD_COLUMNS: Default LCD columns number.

LCD_ROWS: Default LCD rows number.

file lcd_config.h

Defines

LCD_I2C_ADDRESS: LCD i2c address.

LCD_I2C_SECONDARY_ADDRESS: Try this I2C address for LCD if LCD_I2C_ADDRESS fail.

LCD_COLUMNS: Default LCD columns number.

LCD_ROWS: Default LCD rows number.

file lcd_config.h

Defines

LCD_I2C_ADDRESS: Default LCD i2c address.

LCD_COLUMNS: Default LCD columns number.

LCD_ROWS: Default LCD rows number.

file ntp_config.h

Defines

NTP_SERVER_LENGTH: Length in bytes for ntp server data buffer.

NTP_DEFAULT_SERVER: Default NTP server.

file ntp_config.h

Defines

NTP_SERVER_LENGTH: Length in bytes for ntp server data buffer.

NTP_DEFAULT_SERVER: Default NTP server.

file ntp_config.h

Defines

NTP_SERVER_LENGTH: Length in bytes for ntp server data buffer.

NTP_DEFAULT_SERVER: Default NTP server.

file stima-config.h

#include <sensors_config.h>

#include <constantdata_config.h>

#include <stima_module.h>

Defines

MODULE_MAIN_VERSION: Module main version.

MODULE_MINOR_VERSION: Module minor version.

MODULE_CONFIGURATION_VERSION: Module version of compatibile configuration. If you change it, you have to reconfigure.

MODULE_TYPE: Type of module. It is defined in registers.h.

USE_MQTT: MQTT support.

USE_LCD: LCD support.

USE_SDCARD: SD-Card support.

USE_RTC: RTC support.

USE_TIMER_1: Timer 1 support instead of RTC.

USE_RPC_METHOD_CONFIGURE: RPC method for station configuration.

USE_RPC_METHOD_PREPARE: RPC method for prepare sensors.

USE_RPC_METHOD_PREPANDGET: RPC method for prepare and get data from sensors.

USE_RPC_METHOD_GETJSON: RPC method for get sensor's data.

USE_RPC_METHOD_REBOOT: RPC method for reboot station.

USE_RPC_METHOD_RECOVERY: RPC method for recovery data written on SD card from station.

CONFIGURATION_DEFAULT_TH_ADDRESS: Default i2c i2c-th address.

CONFIGURATION_DEFAULT_RAIN_ADDRESS: Default i2c i2c-rain address.

CONFIGURATION_RESET_PIN: Input pin for reset configuration at startup.

CONFIGURATION_DEFAULT_NTP_SERVER: Default ntp server.

CONFIGURATION_DEFAULT_ETHERNET_DHCP_ENABLE: Default DHCP status.

CONFIGURATION_DEFAULT_ETHERNET_MAC: Default mac address.

CONFIGURATION_DEFAULT_ETHERNET_IP: Default ip address.

CONFIGURATION_DEFAULT_ETHERNET_NETMASK: Default netmask address.

CONFIGURATION_DEFAULT_ETHERNET_GATEWAY: Default gateway address.

CONFIGURATION_DEFAULT_ETHERNET_PRIMARY_DNS: Default primary dns address.

SENSOR_ERROR_COUNT_MAX

USE_POWER_DOWN: Enable or disable power down.

DEBOUNCING_POWER_DOWN_TIME_MS: Debounce power down ms.

W5500_CHIP_SELECT_PIN: Chip select pin for Wiznet W5500 ethernet module.

WDT_TIMER

Watchdog timer for periodically check microprocessor block states.

Possible value for WDT_TIMER are: WDTO_15MS, WDTO_30MS, WDTO_60MS, WDTO_120MS, WDTO_250MS, WDTO_500MS, WDTO_1S, WDTO_2S, WDTO_4S, WDTO_8S

RTC_FREQUENCY: Real time clock frequency for generating interrupt for awaken the microprocessor and execute timed tasks.

RTC_INTERRUPT_PIN: Interrupt pin for rtc.

TIMER1_INTERRUPT_TIME_MS: Value in milliseconds for generating timer1 interrupt.

TIMER1_TCNT1_VALUE: Timer1 timer overflow with 1024 prescaler.

USE_CONSTANTDATA_COUNT: Constantdata count.

SENSORS_RETRY_COUNT_MAX: Maximum number of retry for sensors reading.

SENSORS_RETRY_DELAY_MS: Waiting for reading between two attempts.

SENSORS_TESTING_DELAY_S

DATA_PROCESSING_RETRY_COUNT_MAX: Maximum number of retry for processing acquired data.

DATA_PROCESSING_RETRY_DELAY_MS: Wait time between two attempts.

DATA_SAVING_RETRY_COUNT_MAX: Maximum number of retry for saving data on SD-Card.

DATA_SAVING_DELAY_MS: Wait time between two attempts.

MQTT_RETRY_COUNT_MAX: Maximum number of retry for doing mqtt operations.

MQTT_DELAY_MS: Wait time between two attempts.

IP_STACK_TIMEOUT_MS: IPStack timeout.

SUPERVISOR_CONNECTION_RETRY_COUNT_MAX: Maximum number of retry for doing supervisor operations.

SUPERVISOR_CONNECTION_TIMEOUT_MS: Timeout for connecting.

NTP_RETRY_COUNT_MAX: Maximum number of retry for doing ntp operations.

NTP_RETRY_DELAY_MS: Wait time between two NTP attempts.

NTP_TIME_FOR_RESYNC_S: Maximum seconds for resync time over ntp.

NTP_MAX_DIFF_VALID_TIME_S

LCD_TIME_FOR_REINITIALIZE_S: Maximum seconds for reinitialize LCD.

DISPLAY_SET_MAX: Max number of page to show on display when testing sensors.

ETHERNET_RETRY_COUNT_MAX: Maximum number of retry for doing ethernet operations.

ETHERNET_RETRY_DELAY_MS: Wait time between two attempts.

DATE_TIME_STRING_LENGTH: Length of datetime string %04u-%02u-%02uT%02u:%02u:%02u.

file stima-config.h

#include <sensors_config.h>

#include <constantdata_config.h>

Defines

MODULE_MAIN_VERSION: Module main version.

MODULE_MINOR_VERSION: Module minor version.

MODULE_CONFIGURATION_VERSION: Module version of compatibile configuration. If you change it, you have to reconfigure.

MODULE_TYPE: Type of module. It is defined in registers.h.

USE_MQTT: MQTT support.

USE_LCD: LCD support.

USE_SDCARD: SD-Card support.

USE_RTC: RTC support.

USE_TIMER_1: Timer 1 support instead of RTC.

USE_RPC_METHOD_CONFIGURE: RPC method for station configuration.

USE_RPC_METHOD_PREPARE: RPC method for prepare sensors.

USE_RPC_METHOD_PREPANDGET: RPC method for prepare and get data from sensors.

USE_RPC_METHOD_GETJSON: RPC method for get sensor's data.

USE_RPC_METHOD_REBOOT: RPC method for reboot station.

USE_RPC_METHOD_RECOVERY: RPC method for recovery data written on SD card from station.

CONFIGURATION_DEFAULT_TH_ADDRESS: Default i2c i2c-th address.

CONFIGURATION_DEFAULT_RAIN_ADDRESS: Default i2c i2c-rain address.

CONFIGURATION_RESET_PIN: Input pin for reset configuration at startup.

CONFIGURATION_DEFAULT_NTP_SERVER: Default ntp server.

CONFIGURATION_DEFAULT_ETHERNET_DHCP_ENABLE: Default DHCP status.

CONFIGURATION_DEFAULT_ETHERNET_MAC: Default mac address.

CONFIGURATION_DEFAULT_ETHERNET_IP: Default ip address.

CONFIGURATION_DEFAULT_ETHERNET_NETMASK: Default netmask address.

CONFIGURATION_DEFAULT_ETHERNET_GATEWAY: Default gateway address.

CONFIGURATION_DEFAULT_ETHERNET_PRIMARY_DNS: Default primary dns address.

SENSOR_ERROR_COUNT_MAX

USE_POWER_DOWN: Enable or disable power down.

DEBOUNCING_POWER_DOWN_TIME_MS: Debounce power down ms.

W5500_CHIP_SELECT_PIN: Chip select pin for Wiznet W5500 ethernet module.

WDT_TIMER

Watchdog timer for periodically check microprocessor block states.

Possible value for WDT_TIMER are: WDTO_15MS, WDTO_30MS, WDTO_60MS, WDTO_120MS, WDTO_250MS, WDTO_500MS, WDTO_1S, WDTO_2S, WDTO_4S, WDTO_8S

RTC_FREQUENCY: Real time clock frequency for generating interrupt for awaken the microprocessor and execute timed tasks.

RTC_INTERRUPT_PIN: Interrupt pin for rtc.

TIMER1_INTERRUPT_TIME_MS: Value in milliseconds for generating timer1 interrupt.

TIMER1_TCNT1_VALUE: Timer1 timer overflow with 1024 prescaler.

USE_CONSTANTDATA_COUNT: Constantdata count.

SENSORS_RETRY_COUNT_MAX: Maximum number of retry for sensors reading.

SENSORS_RETRY_DELAY_MS: Waiting for reading between two attempts.

SENSORS_TESTING_DELAY_S

DATA_PROCESSING_RETRY_COUNT_MAX: Maximum number of retry for processing acquired data.

DATA_PROCESSING_RETRY_DELAY_MS: Wait time between two attempts.

DATA_SAVING_RETRY_COUNT_MAX: Maximum number of retry for saving data on SD-Card.

DATA_SAVING_DELAY_MS: Wait time between two attempts.

MQTT_RETRY_COUNT_MAX: Maximum number of retry for doing mqtt operations.

MQTT_DELAY_MS: Wait time between two attempts.

IP_STACK_TIMEOUT_MS: IPStack timeout.

SUPERVISOR_CONNECTION_RETRY_COUNT_MAX: Maximum number of retry for doing supervisor operations.

SUPERVISOR_CONNECTION_TIMEOUT_MS: Timeout for connecting.

NTP_RETRY_COUNT_MAX: Maximum number of retry for doing ntp operations.

NTP_RETRY_DELAY_MS: Wait time between two NTP attempts.

NTP_TIME_FOR_RESYNC_S: Maximum seconds for resync time over ntp.

NTP_MAX_DIFF_VALID_TIME_S

LCD_TIME_FOR_REINITIALIZE_S: Maximum seconds for reinitialize LCD.

DISPLAY_SET_MAX

ETHERNET_RETRY_COUNT_MAX: Maximum number of retry for doing ethernet operations.

ETHERNET_RETRY_DELAY_MS: Wait time between two attempts.

DATE_TIME_STRING_LENGTH: Length of datetime string %04u-%02u-%02uT%02u:%02u:%02u.

file sensor_config.h: #include <sensors_config.h>

#include <mqtt_config.h>

#include <constantdata_config.h>

#include <gsm_config.h>

#include <ntp_config.h>

#include <typedef.h>

file stima.h

#include <stima_module.h>

#include "stima-config.h"

#include <typedef.h>

#include <registers.h>

#include <registers-master.h>

#include <debug.h>

#include <ArduinoLog.h>

#include <StreamUtils.h>

#include <i2c_config.h>

#include <json_config.h>

#include <ntp_config.h>

#include <constantdata_config.h>

#include <gsm_config.h>

#include <SPI.h>

#include <Wire.h>

#include <pcf8563.h>

#include <rmap_utility.h>

#include <TimeLib.h>

#include <SensorDriver.h>

#include <i2c_utility.h>

#include <arduinoJsonRPC.h>

#include <ethernet_config.h>

#include <Ethernet2.h>

#include <IWatchdog.h>

#include "STM32LowPower.h"

#include <STM32RTC.h>

#include <rtc.h>

Defines

WDTO_1S

SLEEP_MODE_PWR_DOWN

Enums

enum state_t

Main loop finite state machine.

Values:

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator REBOOT: reboot the machine

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enum supervisor_state_t

Supervisor task finite state machine.

Values:

enumerator SUPERVISOR_INIT: init task variables

enumerator SUPERVISOR_CONNECTION_LEVEL_TASK: enable hardware related tasks for doing connection

enumerator SUPERVISOR_WAIT_CONNECTION_LEVEL_TASK: enable hardware related tasks for doing connection

enumerator SUPERVISOR_TIME_LEVEL_TASK: enable time task for sync time with ntp server

enumerator SUPERVISOR_MANAGE_LEVEL_TASK: enable tasks for manage data (mqtt)

enumerator SUPERVISOR_TEST_SDCARD

enumerator SUPERVISOR_END: performs end operations and deactivate task

enumerator SUPERVISOR_WAIT_STATE: non-blocking waiting time

enum ethernet_state_t

Ethernet task finite state machine.

Values:

enumerator ETHERNET_INIT: init task variables

enumerator ETHERNET_CONNECT: begin ethernet operations

enumerator ETHERNET_OPEN_UDP_SOCKET: open udp socket

enumerator ETHERNET_END: performs end operations and deactivate task

enumerator ETHERNET_WAIT_STATE: non-blocking waiting time

enum sensors_reading_state_t

Sensors reading task finite state machine.

Values:

enumerator SENSORS_READING_INIT: init task variables

enumerator SENSORS_READING_SETUP_CHECK: check sensor errors

enumerator SENSORS_READING_POWER_OFF: power off sensor

enumerator SENSORS_READING_POWER_ON: power on sensor

enumerator SENSORS_READING_SETUP: if required try a sensor setup

enumerator SENSORS_READING_PREPARE: prepare sensor

enumerator SENSORS_READING_IS_PREPARED: check if the sensor has been prepared

enumerator SENSORS_READING_GET: read and get values from sensor

enumerator SENSORS_READING_IS_GETTED: check if the sensor has been readed

enumerator SENSORS_READING_READ: intermediate state (future implementation...)

enumerator SENSORS_READING_NEXT: go to next sensor

enumerator SENSORS_READING_END: performs end operations and deactivate task

enumerator SENSORS_READING_WAIT_STATE: non-blocking waiting time

enumerator SENSORS_READING_INIT: init task variables

enumerator SENSORS_SETUP_CHECK: check errors and if required try a sensor setup

enumerator SENSORS_READING_PREPARE: prepare sensor

enumerator SENSORS_READING_IS_PREPARED: check if the sensor has been prepared

enumerator SENSORS_READING_GET: read and get values from sensor

enumerator SENSORS_READING_IS_GETTED: check if the sensor has been readed

enumerator SENSORS_READING_READ: intermediate state (future implementation...)

enumerator SENSORS_READING_NEXT: go to next sensor

enumerator SENSORS_READING_END: performs end operations and deactivate task

enumerator SENSORS_READING_WAIT_STATE: non-blocking waiting time

enumerator SENSORS_READING_INIT: init task variables

enumerator SENSORS_READING_SETUP_CHECK: check sensor errors

enumerator SENSORS_READING_POWER_OFF: power off sensor

enumerator SENSORS_READING_POWER_ON: power on sensor

enumerator SENSORS_READING_SETUP: if required try a sensor setup

enumerator SENSORS_READING_PREPARE: prepare sensor

enumerator SENSORS_READING_IS_PREPARED: check if the sensor has been prepared

enumerator SENSORS_READING_GET: read and get values from sensor

enumerator SENSORS_READING_IS_GETTED: check if the sensor has been readed

enumerator SENSORS_READING_READ: intermediate state (future implementation...)

enumerator SENSORS_READING_NEXT: go to next sensor

enumerator SENSORS_READING_END: performs end operations and deactivate task

enumerator SENSORS_READING_WAIT_STATE: non-blocking waiting time

enumerator SENSORS_READING_INIT

enumerator SENSORS_READING_PREPARE

enumerator SENSORS_READING_IS_PREPARED

enumerator SENSORS_READING_GET

enumerator SENSORS_READING_IS_GETTED

enumerator SENSORS_READING_READ

enumerator SENSORS_READING_NEXT

enumerator SENSORS_READING_END

enumerator SENSORS_READING_WAIT_STATE

enum time_state_t

Time task finite state machine.

Values:

enumerator TIME_INIT: init task variables

enumerator TIME_SEND_ONLINE_REQUEST: send ntp request

enumerator TIME_WAIT_ONLINE_RESPONSE: wait ntp response

enumerator TIME_SET_SYNC_NTP_PROVIDER: set ntp time

enumerator TIME_SET_SYNC_RTC_PROVIDER: set rtc time

enumerator TIME_END: performs end operations and deactivate task

enumerator TIME_WAIT_STATE: non-blocking waiting time

enum rpc_state_t

RPC task finite state machine.

Values:

enumerator RPC_INIT: init task variables

enumerator RPC_EXECUTE: execute function loop

enumerator RPC_END: performs end operations

Functions

JsonRPC streamRpc (false): Remote Procedure Call object.

void realreboot()

time_t getSystemTime()

void init_logging(void)

Init logging system.

Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_system(void)

Init system.

Ritorna:: void.

void init_rpc(void)

Register RPC.

Ritorna:: void.

void init_buffers(void)

Init buffers.

Ritorna:: void.

void init_tasks(void)

Init tasks variable and state.

Ritorna:: void.

void init_pins(void)

Init hardware pins.

Ritorna:: void.

void init_wire(void)

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_spi(void)

Init SPI library.

Ritorna:: void.

void init_rtc(void)

Init RTC module.

Ritorna:: void.

void init_timer1(void)

Init Timer1 module.

Ritorna:: void.

void start_timer(void)

Start Timer1 module.

Ritorna:: void.

void stop_timer(void)

Stop Timer1 module.

Ritorna:: void.

void interrupt_task_1s(void)

1 seconds task.

Ritorna:: void.

void init_sensors(void)

Create and setup sensors.

Ritorna:: void.

void print_configuration(void)

Print current configuration.

Ritorna:: void.

void load_configuration(void)

Load configuration from EEPROM.

Ritorna:: void.

void save_configuration(bool)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void set_default_configuration(void)

Set default configuration to global configuration variable.

Ritorna:: void.

void setNextTimeForSensorReading(time_t *next_time, uint16_t time_s)

bool extractSensorsParams(JsonObject &params, char *driver, char *type, uint8_t *address, uint8_t *node)

Extract sensor's parameter.

Parametri:

*params -- [in] json's params
*driver -- [out] driver
*type -- [out] type
*address -- [out] address
*node -- [out] node

Ritorna:

status code.

int configure(JsonObject &params, JsonObject &result)

RPC configuration.

Parametri:

*params -- json's params
&result -- json's response

Ritorna:

status code.

int prepare(JsonObject &params, JsonObject &result)

RPC prepare.

Parametri:

*params -- json's params
&result -- json's response

Ritorna:

status code.

int getjson(JsonObject &params, JsonObject &result)

RPC get json.

Parametri:

*params -- json's params
&result -- json's response

Ritorna:

status code.

int prepandget(JsonObject &params, JsonObject &result)

RPC prepare and get json.

Parametri:

*params -- json's params
&result -- json's response

Ritorna:

status code.

int reboot(JsonObject &params, JsonObject &result)

RPC reboot.

Parametri:

*params -- json's params
&result -- json's response

Ritorna:

status code.

void supervisor_task(void)

Supervisor task. Manage RTC and NTP sync and open/close gsm and ethernet connection.

Ritorna:: void.

void sensors_reading_task(bool do_prepare = true, bool do_get = true, char *driver = NULL, char *type = NULL, uint8_t address = 0, uint8_t node = 0, uint8_t *sensor_index = 0, uint32_t *wait_time = NULL)

Sensors reading Task. Read data from sensors.

Parametri:

do_prepare -- if true, execute the prepare sensor's procedure
do_get -- if true, execute the get sensor's procedure
*driver -- sensor's driver
*type -- sensor's type
*address -- sensor's address
*node -- sensor's node
*sensor_index -- sensor's index
*wait_time -- sensor's wait time

Ritorna:

void.

void rtc_task(void)

Real Time Clock task. Read RTC time and sync system time with it.

Ritorna:: void.

void time_task(void)

Time task. Get time from NTP and sync RTC with it.

Ritorna:: void.

void ethernet_task(void)

Ethernet task. Manage Ethernet operation.

Ritorna:: void.

void rtc_interrupt_handler(void)

Real Time Clock interrupt handler.

Ritorna:: void.

HardwareSerial Serial1(PB11, PB10)

void wdt_enable(int wdt_timer)

void wdt_reset()

void wdt_disable()

void power_adc_disable()

void power_spi_disable()

void power_timer0_disable()

void power_timer1_disable()

void power_timer2_disable()

void power_adc_enable()

void power_spi_enable()

void power_timer0_enable()

void power_timer1_enable()

void power_timer2_enable()

void set_sleep_mode(int SLEEP_MODE_PWR_DOWN)

void sleep_enable()

void sleep_cpu()

void sleep_disable()

Variables

uint8_t sensors_count = 0

bool is_datetime_set: A valid date and time is setted and usable by station.

bool have_to_reboot: Request for a reboot as soon as possible.

configuration_t readable_configuration: Configuration for this module.

configuration_t writable_configuration: Configuration for this module.

uint8_t ready_tasks_count

uint32_t awakened_event_occurred_time_ms

EthernetUDP eth_udp_client: Ethernet UDP client structure.

EthernetClient eth_tcp_client: Ethernet TCP client structure.

SensorDriver *sensors[SENSORS_MAX]

bool is_first_run: If true, the first reading of the sensors was performed.

bool do_reset_first_run: If true, the first reading of the sensors was performed.

bool is_first_test: If true, the first reading of the sensors was performed.

bool is_test

bool is_time_set: If true, the time was readed from rtc or ntp and was setted in system.

bool is_time_for_sensors_reading_updated: If true, the next time has been calculated to read the sensors.

bool is_client_connected: If true, the client (ethernet or gsm) was connected to socket (TCP or UDP).

bool is_client_udp_socket_open: If true, the client (ethernet or gsm) was opened the UDP socket.

bool is_event_client_executed: If true, the client has executed its task.

bool is_event_time_executed: If true, the time task has executed.

bool do_ntp_sync: If true, you must update the time from ntp.

time_t last_ntp_sync: Last date and time when ntp sync was performed.

char json_sensors_data[SENSORS_MAX][JSON_BUFFER_LENGTH]: buffer containing the data read by sensors in json text format.

char json_sensors_data_test[JSON_BUFFER_LENGTH]: buffer containing the data read by sensors in json text format for test only.

time_t system_time: System time since 01/01/1970 00:00:00.

time_t next_ptr_time_for_sensors_reading: Next scheduled time (in seconds since 01/01/1970 00:0:00) for sensors reading.

time_t next_ptr_time_for_testing_sensors: Next scheduled time (in seconds since 01/01/1970 00:0:00) for sensors reading.

uint8_t sensor_reading_failed_count: Counter for failed and skipped sensors.

tmElements_t sensor_reading_time: Date and time corresponding to the last reading of the sensors.

time_t ptr_time_data: Readed data pointer stored on SD-Card for data send.

char stima_name[20]: Name of this module.

state_t state

supervisor_state_t supervisor_state: Supervisor task state.

ethernet_state_t ethernet_state: Ethernet task state.

uint8_t i2c_error

time_state_t time_state: Time task state.

sensors_reading_state_t sensors_reading_state

rpc_state_t rpc_state: RPC task state.

bool is_event_supervisor: Enable or disable the Supervisor task.

bool is_event_sensors_reading

bool is_event_sensors_reading_rpc: Enable or disable the Sensors reading task from RPC.

bool is_event_rtc: Enable or disable the Real Time Clock task.

bool is_event_time: Enable or disable the Time task.

bool is_event_ethernet: Enable or disable the Ethernet task.

bool is_event_rpc: Indicate if RPC is active or not.

STM32RTC &rtc = STM32RTC::getInstance()

file stima.ino

#include <debug_config.h>

#include "stima.h"

Functions

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void init_logging()

Init logging system.

Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_buffers()

Init buffers.

Ritorna:: void.

void init_tasks()

Init tasks variable and state.

Ritorna:: void.

void init_pins()

Init hardware pins.

Ritorna:: void.

void i2c_receive_interrupt_handler(int rx_data_length)

I2C receive interrupt handler.

Parametri:: rx_data_length -- [in] received data length in bytes.
Ritorna:: void.

void init_wire()

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void reset_wire()

void init_spi()

Init SPI library.

Ritorna:: void.

void init_system()

Init system.

Ritorna:: void.

void init_rpc()

Register RPC.

Ritorna:: void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_timer1()

Init Timer1 module.

Ritorna:: void.

void start_timer()

Start Timer1 module.

Ritorna:: void.

void stop_timer()

Stop Timer1 module.

Ritorna:: void.

ISR(TIMER1_OVF_vect)

void init_sensors()

Create and setup sensors.

Ritorna:: void.

void setNextTimeForSensorReading(time_t *next_time, uint16_t time_s)

void print_configuration()

Print current configuration.

Ritorna:: void.

void set_default_configuration()

Set default configuration to global configuration variable.

Ritorna:: void.

void save_configuration(bool is_default)

Save configuration to EEPROM.

Parametri:: is_default -- if true save default configuration; if false save current configuration.
Ritorna:: void.

void load_configuration()

Load configuration from EEPROM.

Ritorna:: void.

time_t getSystemTime()

void realreboot()

void interrupt_task_1s()

1 seconds task.

Ritorna:: void.

void supervisor_task()

Supervisor task. Manage RTC and NTP sync and open/close gsm and ethernet connection.

Ritorna:: void.

void rtc_task()

Real Time Clock task. Read RTC time and sync system time with it.

Ritorna:: void.

void time_task()

Time task. Get time from NTP and sync RTC with it.

Ritorna:: void.

void ethernet_task()

Ethernet task. Manage Ethernet operation.

Ritorna:: void.

void sensors_reading_task(bool do_prepare, bool do_get, char *driver, char *type, uint8_t address, uint8_t node, uint8_t *sensor_index, uint32_t *wait_time)

Sensors reading Task. Read data from sensors.

Parametri:

do_prepare -- if true, execute the prepare sensor's procedure
do_get -- if true, execute the get sensor's procedure
*driver -- sensor's driver
*type -- sensor's type
*address -- sensor's address
*node -- sensor's node
*sensor_index -- sensor's index
*wait_time -- sensor's wait time

Ritorna:

void.

file event_groups.h: #include <freertos/event_groups.h>

file FreeRTOS.h: #include <freertos/FreeRTOS.h>

file pins_stima.h: #include <stdint.h>

file queue.h: #include <freertos/queue.h>

file semphr.h: #include <freertos/semphr.h>

file stimawifi_config.h

Defines

SOFTWARE_VERSION

MAJOR_VERSION

MINOR_VERSION

WIFI_SSED

WIFI_PASSWORD

DEFAULT_SAMPLETIME

UDP_PORT

OLEDI2CADDRESS

LOG_LEVEL

DATE_TIME_STRING_LENGTH

HEAP_MIN_WARNING

STACK_MIN_WARNING

STIMAHTTP_PORT

PMS_RESET

SCL_PIN

SDA_PIN

RESET_PIN

SENSORDRIVER_DRIVER_LEN

SENSORDRIVER_TYPE_LEN

SENSORDRIVER_META_LEN

CH

DATA_BURST

DATA_BURST_RECOVERY

DB_QUEUE_LEN

MQTT_QUEUE_LEN

MQTT_QUEUE_SPACELEFT_MEASURE

MQTT_QUEUE_SPACELEFT_PUBLISH

MQTT_QUEUE_SPACELEFT_RECOVERY

C3SCK

C3MISO

C3MOSI

C3SS

SPICLOCK

SDMAXFILE

SDCARD_INFO_FILE_NAME

SDCARD_ARCHIVE_FILE_NAME

LFMAXFILE

SDRECOVERYTIME

SQLITE_MEMORY

MQTT_TIMEOUT_MS: Timeout in milliseconds for mqtt stack.

IP_STACK_TIMEOUT_MS: IPStack timeout.

STATUS_SEND_S: send MQTT board status every STATUS_SEND_S.

MQTT_PACKET_SIZE: Length in bytes for max mqtt packet size.

MQTT_SERVER_PORT

CONSTANTDATA_BTABLE_LENGTH: Maximum lenght of btable code plus terminator that describe one constant data.

CONSTANTDATA_VALUE_LENGTH: Maximum lenght of value plus terminator for one constant data.

file task.h: #include <freertos/task.h>

file timers.h: #include <freertos/timers.h>

file common.h: #include "Arduino.h"

#include "pins_stima.h"

#include "stimawifi_config.h"

#include "typedef.h"

#include <frtosLog.h>

#include <frtosRtc.h>

#include "thread.hpp"

#include "ticks.hpp"

#include "queue.hpp"

#include <DNSServer.h>

#include <ArduinoJson.h>

#include <Wire.h>

#include <U8g2lib.h>

#include "time.h"

#include <WiFi.h>

#include <ESPmDNS.h>

#include <WebServer.h>

#include <HTTPClient.h>

#include <LittleFS.h>

#include "esp_netif.h"

#include "esp_sntp.h"

#include <TimeAlarms.h>

#include <WiFiManager.h>

#include <LOLIN_I2C_BUTTON.h>

#include <HTTPUpdate.h>

#include <Adafruit_NeoPixel.h>

#include <sqlite3.h>

#include "udp_thread.h"

#include "gps_thread.h"

#include "measure_thread.h"

#include "publish_thread.h"

#include "db_thread.h"

#include "critical.hpp"

#include "semaphore.hpp"

#include "SD.h"

#include <SdFat.h>

#include <StreamUtils.h>

#include <esp_task_wdt.h>

file db_thread.cpp

#include "common.h"

Functions

void clearSD()

static int db_exec_callback(void *data, int argc, char **argv, char **azColName)

static int db_obsolete_callback(void *result, int argc, char **argv, char **azColName)

file db_thread.h

file gps_thread.cpp

#include "common.h"

Defines

GPS_SERIAL_SPEED

MESSAGELEN

Variables

OZGPS gps_gps

MGPS gps_mgps

file gps_thread.h: #include "ozgps.h"

#include <cmath>

file measure_thread.cpp

#include "common.h"

#include "measure_thread.h"

Variables

unsigned short int displaypos

file measure_thread.h

#include "SensorManager.h"

Functions

void enqueueMqttMessage(const char *values, const char *timerange, const char *level, measure_data_t &data)

void doMeasure(measure_data_t &data)

void web_values(const char *values)

file publish_thread.cpp: #include "common.h"

file publish_thread.h

#include <Countdown.h>

#include <WifiIPStack.h>

#include <MQTTClient.h>

Functions

bool publish_maint(MQTT::Client<IPStack, Countdown, MQTT_PACKET_SIZE, 1> &mqttclient, publish_data_t &data)

bool publish_constantdata(MQTT::Client<IPStack, Countdown, MQTT_PACKET_SIZE, 1> &mqttclient, publish_data_t &data)

file stimawifi.h

#include "common.h"

Functions

WebServer webserver(STIMAHTTP_PORT)

U8G2_SSD1306_64X48_ER_F_HW_I2C u8g2(U8G2_R0)

Queue dbQueue (DB_QUEUE_LEN, sizeof(mqttMessage_t))

Queue mqttQueue (MQTT_QUEUE_LEN, sizeof(mqttMessage_t))

BinaryQueue recoveryQueue (sizeof(rpcRecovery_t))

BinarySemaphore recoverySemaphore (false)

time_t rtc_set_time()

String Json()

String Data()

String FullPage()

void writeconfig()

void handle_FullPage()

void handle_Data()

void handle_Json()

void handle_NotFound()

void saveConfigCallback()

String rmap_get_remote_config()

void firmware_upgrade()

String readconfig_rmap()

void writeconfig_rmap(const String payload)

int rmap_config(const String payload)

void readconfig()

void web_values(const char *values)

void measureAndPublish()

void reboot()

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

const char * update_url = "/firmware/update/" FIRMWARE_TYPE "/"

const uint16_t update_port = 80

WiFiManager wifiManager

WiFiClient httpClient

WiFiClient networkClient

MutexStandard loggingmutex

MutexStandard i2cmutex

MutexStandard geomutex

frtosRtc frtosRTC

bool shouldSaveConfig = false

bool pmspresent = false

bool oledpresent = false

I2C_BUTTON button

summarydata_t summarydata

georef_t georef = {"", "", 0, &geomutex}

stimawifiStatus_t stimawifiStatus

station_t station

udp_data_t udp_data = {1, &frtosLog, &stimawifiStatus.udp, &georef, &frtosRTC}

gps_data_t gps_data = {1, &frtosLog, &stimawifiStatus.gps, &georef, &frtosRTC}

db_data_t db_data = {1, &frtosLog, &dbQueue, &mqttQueue, &recoverySemaphore, &recoveryQueue, &stimawifiStatus.db, &station, NULL}

measure_data_t measure_data = {1, &frtosLog, &mqttQueue, &dbQueue, &stimawifiStatus.measure, &station, &summarydata, &i2cmutex, &georef}

publish_data_t publish_data = {1, &frtosLog, &mqttQueue, &dbQueue, &recoveryQueue, &stimawifiStatus, &station, &networkClient}

Adafruit_NeoPixel pixels = Adafruit_NeoPixel(1, LED_PIN, NEO_GRB + NEO_KHZ800)

char status[15] = ""

bool loopinit = true

file stimawifi.ino

#include "stimawifi.h"

Defines

SD_CONFIG

Functions

void print_reset_reason(int reason)

void verbose_print_reset_reason(int reason)

void set_status_summary(int reason)

void display_summary_data(char *status)

void printLocalTime()

time_t rtc_set_time()

void timeavailable(struct timeval *t)

String Json()

String Geo()

String Data()

String FullPage()

void handle_FullPage()

void handle_Data()

void handle_Json()

void handle_Geo()

void handle_NotFound()

void saveConfigCallback()

time_t ntp_set_time()

String rmap_get_remote_config()

void firmware_upgrade()

String readconfig_rmap()

void writeconfig_rmap(const String payload)

int rmap_config(const String payload)

void readconfig()

void writeconfig()

void displayStatus()

void dataRecovery()

void measureAndPublish()

void reboot()

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

file typedef.h

#include <mqtt_config.h>

#include <mutex.hpp>

Defines

CONSTANTDATA_BTABLE_LENGTH: Maximum lenght of btable code plus terminator that describe one constant data.

CONSTANTDATA_VALUE_LENGTH: Maximum lenght of value plus terminator for one constant data.

MAX_CONSTANTDATA_COUNT: Numero massimo di dati costanti di stazione (metadati).

Enums

enum status_e

Values:

enumerator unknown

enumerator ok

enumerator error

file udp_thread.cpp

#include "common.h"

Variables

WiFiUDP UDP

OZGPS udp_gps

MGPS udp_mgps

file udp_thread.h: #include <WiFiUdp.h>

#include "ozgps.h"

#include <cmath>

file test_hyt271.ino

#include <hyt2x1.h>

Defines

POWER_PIN

This program is free software; you can redistribute it and/or modify it under the terms of the GNU General Public License as published by the Free Software Foundation; either version 2 of the License, or (at your option) any later version.

This program is distributed in the hope that it will be useful, but WITHOUT ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License for more details.

You should have received a copy of the GNU General Public License along with this program. If not, see http://www.gnu.org/licenses/.

Functions

void test_read_ht(int8_t address)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

file hardware_config.h

Defines

I2C_BUS_CLOCK

I2C_MAX_DATA_LENGTH

file test_i2c_multimaster.ino

#include <Arduino.h>

#include <debug_config.h>

#include <i2c_config.h>

#include <avr/sleep.h>

#include <avr/power.h>

#include <avr/wdt.h>

#include <Wire.h>

#include <i2c_utility.h>

#include <ArduinoLog.h>

Defines

I2C_ADDRESS_1

I2C_ADDRESS_2

I2C_ADDRESS_3

I2C_ADDRESS_4

I2C_MY_ADDRESS

I2C_MAX_ERROR_COUNT

I2C_CHECK_DELAY_MS

I2C_REQUEST_MIN_DELAY_MS

I2C_REQUEST_MAX_DELAY_MS

I2C_SEND_DATA_MIN_DELAY_MS

I2C_SEND_DATA_MAX_DELAY_MS

PRINT_STATUS_DELAY_MS

WDT_TIMER

Enums

enum state_t

Values:

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator REBOOT: reboot the machine

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

enumerator INIT: init tasks and sensors

enumerator TASKS_EXECUTION: execute active tasks

enumerator END: go to ENTER_POWER_DOWN or TASKS_EXECUTION

Functions

uint8_t I2C_ClearBus_NEW()

bool check_i2c_bus()

void i2c_request_interrupt_handler()

I2C request interrupt handler.

Ritorna:: void.

void i2c_receive_interrupt_handler(int rx_data_length)

I2C receive interrupt handler.

Parametri:: rx_data_length -- [in] received data length in bytes.
Ritorna:: void.

void init_power_down(uint32_t *time_ms, uint32_t debouncing_ms)

Enter power down mode.

Parametri:

time_ms -- pointer to a variable to save the last instant you entered power down.
debouncing_ms -- delay to power down.

Ritorna:

void.

void init_wdt(uint8_t wdt_timer)

Init watchdog.

Parametri:: wdt_timer -- a time value for init watchdog (WDTO_xxxx).
Ritorna:: void.

void init_wire()

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void init_system()

Init system.

Ritorna:: void.

void init_tasks()

Init tasks variable and state.

Ritorna:: void.

void init_sensors()

Create and setup sensors.

Ritorna:: void.

void reset_i2c_buffer(void *buffer, uint8_t *length)

void received_data()

void send_data(uint8_t write_data_length, uint8_t i2c_other_address)

void request_data(uint8_t length, uint8_t i2c_other_address)

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void init_logging()

Init logging system.

Ritorna:: void.

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

state_t state

uint8_t ready_tasks_count

uint32_t awakened_event_occurred_time_ms

bool is_event_request_data

bool is_event_send_data

uint32_t start_print_status_delay_ms

uint32_t start_i2c_check_delay_ms

uint32_t i2c_request_delay_ms

uint32_t start_time_i2c_request_delay_ms

uint32_t i2c_send_delay_ms

uint32_t start_time_i2c_send_delay_ms

static uint8_t rx_buffer[I2C_MAX_DATA_LENGTH]

static uint8_t rx_buffer_length

uint8_t tx_buffer[I2C_MAX_DATA_LENGTH + 1]

uint8_t tx_buffer_length

uint8_t rq_buffer[I2C_MAX_DATA_LENGTH + 1]

uint8_t rq_buffer_length

uint16_t i2c_rx_error_count

uint16_t i2c_rx_success_count

uint16_t i2c_tx_error_count

uint16_t i2c_tx_success_count

uint16_t i2c_rq_error_count

uint16_t i2c_rq_success_count

file ToggleLED.ino

#include <arduinoJsonRPC.h>

Functions

JsonRPC rpc (false)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

int toggle(JsonObject params, JsonObject result)

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

int led = 13

file HelloWorld.ino

#include <Wire.h>

#include <hd44780.h>

#include <hd44780ioClass/hd44780_I2Cexp.h>

Functions

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

hd44780_I2Cexp lcd

const int LCD_COLS = 20

const int LCD_ROWS = 4

file SDlog.ino

#include <ArduinoLog.h>

#include <SPI.h>

#include <SdFat.h>

#include <StreamUtils.h>

Defines

USE_SDCARD

This example sketch shows most of the features of the ArduinoLog library with SD card

USE_SDCARD RAM: [= ] 10.4% (used 1700 bytes from 16384 bytes) Flash: [== ] 16.7% (used 21668 bytes from 130048 bytes)

serial only logger RAM: [= ] 6.1% (used 996 bytes from 16384 bytes) Flash: [= ] 12.7% (used 16500 bytes from 130048 bytes)

DISABLE_LOGGING RAM: [= ] 5.8% (used 958 bytes from 16384 bytes) Flash: [= ] 8.8% (used 11426 bytes from 130048 bytes)

SDCARD_CHIP_SELECT_PIN

SPI_SPEED

SDCARD_LOGGING_FILE_NAME

LOG_LEVEL

Functions

WriteLoggingStream loggingStream(logFile, Serial)

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

SdFat SD: SD-Card structure.

File logFile: File for logging on SD-Card.

int intValue1

int intValue2

long longValue1

long longValue2

bool boolValue1

bool boolValue2

const char *charArray = "this is a string"

String stringValue1 = "this is a string"

float floatValue

double doubleValue

file test_mqtt.ino

#include <debug_config.h>

#include <sim800Client.h>

#include <Sim800IPStack.h>

#include <Countdown.h>

#include <MQTTClient.h>

#include <ArduinoLog.h>

Defines

TIMEOUT

REPEATWAIT

ENABLE_SUBSCRIBE

ENABLE_QOS0

ENABLE_QOS1

ENABLE_QOS2

MQTTCLIENT_QOS2

MQTTCLIENT_QOS

SERIAL_TRACE_LEVEL

SIM800_ON_OFF_PIN

GSM_APN

GSM_USERNAME

GSM_PASSWORD

TOPIC

HOSTNAME

DATE_TIME_STRING_LENGTH

Functions

HardwareSerial Serial1(PB11, PB10)

void messageArrived(MQTT::MessageData &md)

IPStack ipstack(s800)

bool initmodem(void)

bool connect(void)

bool publish(void)

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

unsigned int arrivedcount = 0

sim800Client s800

MQTT::Client<IPStack, Countdown, 120, 2> client = MQTT::Client<IPStack, Countdown, 120, 2>(ipstack, TIMEOUT)

file test_mqtt_subscribe.ino

#include <sim800Client.h>

#include <Sim800IPStack.h>

#include <Countdown.h>

#include <MQTTClient.h>

Defines

TIMEOUT

MQTTCLIENT_QOS

SIM800_ON_OFF_PIN

GSM_APN

GSM_USERNAME

GSM_PASSWORD

TOPICCOM

TOPICRES

HOSTNAME

Functions

HardwareSerial Serial1(PB11, PB10)

IPStack ipstack(s800)

bool publish(const char *topic, const char *payload)

void messageArrived(MQTT::MessageData &md)

bool initmodem(void)

bool connect(void)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

sim800Client s800

MQTT::Client<IPStack, Countdown, 120, 1> client = MQTT::Client<IPStack, Countdown, 120, 1>(ipstack, TIMEOUT)

bool send_response = false

file test_ntp.ino

#include <debug_config.h>

#include <sim800Client.h>

#include <Sim800IPStack.h>

#include <Countdown.h>

#include <ArduinoLog.h>

#include <ntp.h>

Defines

SIM800_ON_OFF_PIN

GSM_APN

GSM_USERNAME

GSM_PASSWORD

NTP_SERVER

DATE_TIME_STRING_LENGTH

Functions

HardwareSerial Serial1(PB11, PB10)

bool initmodem(void)

void getNtp()

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

sim800Client s800

file test_rtc.ino

#include <ArduinoLog.h>

#include <TimeLib.h>

#include <pcf8563.h>

Defines

DATE_TIME_STRING_LENGTH

Functions

void resetrtc()

void initrtc()

bool getrtc(time_t &time)

bool setrtc(const time_t time)

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

time_t current_time

file test_sdcard.ino

#include <SPI.h>

#include <SdFat.h>

Defines

SPI_DRIVER_SELECT

USE_SD_CRC

SDFAT_FILE_TYPE

USE_LONG_FILE_NAMES

C3SCK

C3MISO

C3MOSI

C3SS

SDCARD_CHIP_SELECT_PIN

SPI_SPEED

Functions

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop(void)

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

SdFat SD

File test_file

file Fat16Config.h

Configuration file

Defines

USE_ACMD41: Set USE_ACMD41 zero to initialize the card with CMD1. This will allowed limited use of MMC cards.

FAT16_DEBUG_SUPPORT: Set non-zero to allow access to Fat16 internals by cardInfo debug sketch

file mSPI.cpp

#include "mSPI.h"

#include <inttypes.h>

#include <avr/io.h>

Functions

void SPI_begin(void)

uint8_t SPI_transfer(uint8_t data)

file mSPI.h

#include <inttypes.h>

#include <avr/io.h>

Defines

SPI_SPCR_CONFIG

Functions

void SPI_begin(void)

uint8_t SPI_transfer(uint8_t data)

file optiboot.ino

#include "SdCard.h"

Defines

BLOCK_SIZE

FAT16_ID_POS

MBR_FIRST_PART_POS

MBR_PART_LBA_POS

BLOCKS_PER_CLUSTER_POS

RESERVED_BLOCKS_COUNT_POS

ROOT_ENTRIES_COUNT_POS

BLOCKS_PER_FAT_POS

ROOT_ENTRY_SIZE

ROOT_ENTRY_FREE_TAG

ROOT_ENTRY_FILENAME_SIZE

ROOT_ENTRY_CLUSTER_POS

ROOT_ENTRY_SIZE_POS

FAT_ENTRY_SIZE

FAT_FILENAME_SIZE

FAT_EOF_TAG

FAT_FREE_TAG

WAIT_FOR_LINE_START

READ_LINE_SIZE

READ_ADDRESS

READ_LINE_TYPE

READ_DATA

Functions

bool fatTagFound(void)

uint8_t *find_firmware_data(FatFileDesc *fat, uint8_t cardType)

void write_page(uint16_t address)

int sdcard_loader(void)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

uint8_t buff[1000]

file SdCard.cpp

#include "SdCard.h"

#include <stdint.h>

#include <avr/io.h>

#include "Fat16Config.h"

#include "mSPI.h"

Defines

RAMSTART

buff

Functions

uint8_t spiReceive(void)

bool waitNotBusy(void)

void chipSelectHigh(void)

void chipSelectLow(void)

uint8_t cardCommand(uint8_t cmd, uint32_t arg)

uint8_t cardAcmd(uint8_t cmd, uint32_t arg)

uint8_t SdCard_begin(void)

bool SdCard_readBlock(uint32_t blockNumber, uint8_t cardType)

Reads a 512 byte block from a storage device.

Parametri:

blockNumber -- [in] Logical block to be read.
dst -- [out] Pointer to the location that will receive the data.

Ritorna:

The value one, true, is returned for success and the value zero, false, is returned for failure.

bool SdCard_writeBlock(uint32_t blockNumber, uint8_t cardType)

Writes a 512 byte block to a storage device.

Parametri:

blockNumber -- [in] Logical block to be written.
src -- [in] Pointer to the location of the data to be written.

Ritorna:

The value one, true, is returned for success and the value zero, false, is returned for failure.

file SdCard.h

#include <stdint.h>

#include <avr/io.h>

#include "mSPI.h"

Defines

__STDC_LIMIT_MACROS

SD_SS_PORT

SD_SS_PIN

SD_SS_PORT_REG

SD_SS_DDR_REG

SPI_SCK_INIT_DIVISOR

SD_MAX_CMD0_TRIES

SD_MAX_TRANSFERTS

SD_MAX_COMMANDS

CMD0: GO_IDLE_STATE - init card in spi mode if CS low

CMD8: SEND_IF_COND - verify SD Memory Card interface operating condition.

CMD9: SEND_CSD - read the Card Specific Data (CSD register)

CMD10: SEND_CID - read the card identification information (CID register)

CMD12: STOP_TRANSMISSION - end multiple block read sequence

CMD13: SEND_STATUS - read the card status register

CMD17: READ_SINGLE_BLOCK - read a single data block from the card

CMD18: READ_MULTIPLE_BLOCK - read a multiple data blocks from the card

CMD24: WRITE_BLOCK - write a single data block to the card

CMD25: WRITE_MULTIPLE_BLOCK - write blocks of data until a STOP_TRANSMISSION

CMD32: ERASE_WR_BLK_START - sets the address of the first block to be erased

CMD33: ERASE_WR_BLK_END - sets the address of the last block of the continuous range to be erased

CMD38: ERASE - erase all previously selected blocks

CMD55: APP_CMD - escape for application specific command

CMD58: READ_OCR - read the OCR register of a card

CMD59: CRC_ON_OFF - enable or disable CRC checking

ACMD23: SET_WR_BLK_ERASE_COUNT - Set the number of write blocks to be pre-erased before writing

ACMD41: SD_SEND_OP_COMD - Sends host capacity support information and activates the card's initialization process

R1_READY_STATE: status for card in the ready state

R1_IDLE_STATE: status for card in the idle state

R1_ILLEGAL_COMMAND: status bit for illegal command

DATA_START_BLOCK: start data token for read or write single block

STOP_TRAN_TOKEN: stop token for write multiple blocks

WRITE_MULTIPLE_TOKEN: start data token for write multiple blocks

DATA_RES_MASK: mask for data response tokens after a write block operation

DATA_RES_ACCEPTED: write data accepted token

CARD_TYPE_SDV1: sd card type v1

CARD_TYPE_SDV2: sd card type v2

CARD_TYPE_SDHC: sd card type sdhc

Functions

uint8_t SdCard_begin()

bool SdCard_readBlock(uint32_t block, uint8_t cardType)

Reads a 512 byte block from a storage device.

Parametri:

blockNumber -- [in] Logical block to be read.
dst -- [out] Pointer to the location that will receive the data.

Ritorna:

The value one, true, is returned for success and the value zero, false, is returned for failure.

bool SdCard_writeBlock(uint32_t block, uint8_t cardType)

Writes a 512 byte block to a storage device.

Parametri:

blockNumber -- [in] Logical block to be written.
src -- [in] Pointer to the location of the data to be written.

Ritorna:

The value one, true, is returned for success and the value zero, false, is returned for failure.

file test_sensor_driver.ino

#include <i2c_config.h>

#include <debug_config.h>

#include <sensors_config.h>

#include <SensorDriver.h>

#include <ArduinoLog.h>

Defines

I2C_BUS_CLOCK

SENSORS_RETRY_COUNT_MAX

SENSORS_RETRY_DELAY_MS

DELAY_ACQ_MS

DELAY_TEST_MS

Enums

enum sensors_reading_state_t

Values:

enumerator SENSORS_READING_INIT: init task variables

enumerator SENSORS_READING_SETUP_CHECK: check sensor errors

enumerator SENSORS_READING_POWER_OFF: power off sensor

enumerator SENSORS_READING_POWER_ON: power on sensor

enumerator SENSORS_READING_SETUP: if required try a sensor setup

enumerator SENSORS_READING_PREPARE: prepare sensor

enumerator SENSORS_READING_IS_PREPARED: check if the sensor has been prepared

enumerator SENSORS_READING_GET: read and get values from sensor

enumerator SENSORS_READING_IS_GETTED: check if the sensor has been readed

enumerator SENSORS_READING_READ: intermediate state (future implementation...)

enumerator SENSORS_READING_NEXT: go to next sensor

enumerator SENSORS_READING_END: performs end operations and deactivate task

enumerator SENSORS_READING_WAIT_STATE: non-blocking waiting time

enumerator SENSORS_READING_INIT: init task variables

enumerator SENSORS_SETUP_CHECK: check errors and if required try a sensor setup

enumerator SENSORS_READING_PREPARE: prepare sensor

enumerator SENSORS_READING_IS_PREPARED: check if the sensor has been prepared

enumerator SENSORS_READING_GET: read and get values from sensor

enumerator SENSORS_READING_IS_GETTED: check if the sensor has been readed

enumerator SENSORS_READING_READ: intermediate state (future implementation...)

enumerator SENSORS_READING_NEXT: go to next sensor

enumerator SENSORS_READING_END: performs end operations and deactivate task

enumerator SENSORS_READING_WAIT_STATE: non-blocking waiting time

enumerator SENSORS_READING_INIT: init task variables

enumerator SENSORS_READING_SETUP_CHECK: check sensor errors

enumerator SENSORS_READING_POWER_OFF: power off sensor

enumerator SENSORS_READING_POWER_ON: power on sensor

enumerator SENSORS_READING_SETUP: if required try a sensor setup

enumerator SENSORS_READING_PREPARE: prepare sensor

enumerator SENSORS_READING_IS_PREPARED: check if the sensor has been prepared

enumerator SENSORS_READING_GET: read and get values from sensor

enumerator SENSORS_READING_IS_GETTED: check if the sensor has been readed

enumerator SENSORS_READING_READ: intermediate state (future implementation...)

enumerator SENSORS_READING_NEXT: go to next sensor

enumerator SENSORS_READING_END: performs end operations and deactivate task

enumerator SENSORS_READING_WAIT_STATE: non-blocking waiting time

enumerator SENSORS_READING_INIT

enumerator SENSORS_READING_PREPARE

enumerator SENSORS_READING_IS_PREPARED

enumerator SENSORS_READING_GET

enumerator SENSORS_READING_IS_GETTED

enumerator SENSORS_READING_READ

enumerator SENSORS_READING_NEXT

enumerator SENSORS_READING_END

enumerator SENSORS_READING_WAIT_STATE

Functions

void init_sensors()

Create and setup sensors.

Ritorna:: void.

void sensors_reading_task(bool do_prepare = true, bool do_get = true, char *driver = NULL, char *type = NULL, uint8_t address = 0, uint8_t node = 0, uint8_t *sensor_index = 0, uint32_t *wait_time = NULL)

Sensors reading Task. Read data from sensors.

Parametri:

do_prepare -- if true, execute the prepare sensor's procedure
do_get -- if true, execute the get sensor's procedure
*driver -- sensor's driver
*type -- sensor's type
*address -- sensor's address
*node -- sensor's node
*sensor_index -- sensor's index
*wait_time -- sensor's wait time

Ritorna:

void.

void reset_wire()

void init_wire()

Init wire (i2c) library and performs checks on the bus.

Ritorna:: void.

void check_i2c_bus()

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

uint8_t sensors_count

SensorDriver *sensors[SENSORS_MAX]

bool is_first_run

bool is_test

bool is_event_sensors_reading

bool do_reset_first_run

int32_t values_readed_from_sensor[SENSORS_MAX][VALUES_TO_READ_FROM_SENSOR_COUNT]

sensors_reading_state_t sensors_reading_state

uint32_t acquiring_sensors_delay_ms

uint32_t testing_sensors_delay_ms

uint8_t i2c_error

file test_sensor_manager.ino

#include <SensorManager.h>

Defines

DELAY_ACQ_MS

DELAY_TEST_MS

Functions

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

sensorManage sensorm[SENSORS_MAX]

uint32_t acquiring_sensor_delay_ms

uint32_t testing_sensor_delay_ms

uint8_t sensors_count

SensorDriver *sensors[SENSORS_MAX]

file basic.ino

#include <gsm_config.h>

#include <sim800Client.h>

#include <ArduinoLog.h>

Defines

LOG_LEVEL

SIM800_ON_OFF_PIN

SIM800_GSM_APN

SIM800_GSM_USERNAME

SIM800_GSM_PASSWORD

Enums

enum gsm_state_t

Values:

enumerator GSM_INIT: init task variables

enumerator GSM_SWITCH_ON: gsm power on

enumerator GSM_AUTOBAUD: gsm autobaud procedure

enumerator GSM_SETUP: gsm setup

enumerator GSM_START_CONNECTION: gsm open connection

enumerator GSM_CHECK_OPERATION: check operations (ntp or mqtt)

enumerator GSM_OPEN_UDP_SOCKET: open udp socket for ntp sync

enumerator GSM_SUSPEND: wait other tasks for complete its operations with gsm

enumerator GSM_STOP_CONNECTION: gsm close connection

enumerator GSM_WAIT_FOR_SWITCH_OFF: wait gsm for power off

enumerator GSM_SWITCH_OFF: gsm power off

enumerator GSM_END: performs end operations and deactivate task

enumerator GSM_WAIT_STATE: non-blocking waiting time

Functions

HardwareSerial Serial1(PB11, PB10)

void gsm_task()

void logPrefix(Print *_logOutput)

void logSuffix(Print *_logOutput)

void setup()

Arduino setup function. Init watchdog, hardware, debug, buffer and load configuration stored in EEPROM.

Arduino setup function. Init watchdog, hardware, debug and load configuration stored in EEPROM.

Ritorna:: void.

void loop()

Arduino loop function. First, initialize tasks and sensors, then execute the tasks and activates the power down if no task is running.

Ritorna:: void.

Variables

sim800Client s800

bool is_event_gsm

bool is_client_connected

bool is_client_udp_socket_open

bool is_event_client_executed

uint8_t ready_tasks_count

gsm_state_t gsm_state

group avr_boot

#include <avr/io.h>
#include <avr/boot.h>

The macros in this module provide a C language interface to the bootloader support functionality of certain AVR processors. These macros are designed to work with all sizes of flash memory.

Global interrupts are not automatically disabled for these macros. It is left up to the programmer to do this. See the code example below. Also see the processor datasheet for caveats on having global interrupts enabled during writing of the Flash.

Todo:: From email with Marek: On smaller devices (all except ATmega64/128), __SPM_REG is in the I/O space, accessible with the shorter "in" and "out" instructions - since the boot loader has a limited size, this could be an important optimization.

#include <inttypes.h>
#include <avr/interrupt.h>
#include <avr/pgmspace.h>

void boot_program_page (uint32_t page, uint8_t *buf)
{
    uint16_t i;
    uint8_t sreg;

    // Disable interrupts.

    sreg = SREG;
    cli();

    eeprom_busy_wait ();

    boot_page_erase (page);
    boot_spm_busy_wait ();      // Wait until the memory is erased.

    for (i=0; i<SPM_PAGESIZE; i+=2)
    {
        // Set up little-endian word.

        uint16_t w = *buf++;
        w += (*buf++) << 8;
    
        boot_page_fill (page + i, w);
    }

    boot_page_write (page);     // Store buffer in flash page.
    boot_spm_busy_wait();       // Wait until the memory is written.

    // Reenable RWW-section again. We need this if we want to jump back
    // to the application after bootloading.

    boot_rww_enable ();

    // Re-enable interrupts (if they were ever enabled).

    SREG = sreg;
}

API Usage Example: The following code shows typical usage of the boot API.

#include <avr/io.h>
#include <avr/boot.h>

The macros in this module provide a C language interface to the bootloader support functionality of certain AVR processors. These macros are designed to work with all sizes of flash memory.

Global interrupts are not automatically disabled for these macros. It is left up to the programmer to do this. See the code example below. Also see the processor datasheet for caveats on having global interrupts enabled during writing of the Flash.

Todo:: From email with Marek: On smaller devices (all except ATmega64/128), __SPM_REG is in the I/O space, accessible with the shorter "in" and "out" instructions - since the boot loader has a limited size, this could be an important optimization.

#include <inttypes.h>
#include <avr/interrupt.h>
#include <avr/pgmspace.h>

void boot_program_page (uint32_t page, uint8_t *buf)
{
    uint16_t i;
    uint8_t sreg;

    // Disable interrupts.

    sreg = SREG;
    cli();

    eeprom_busy_wait ();

    boot_page_erase (page);
    boot_spm_busy_wait ();      // Wait until the memory is erased.

    for (i=0; i<SPM_PAGESIZE; i+=2)
    {
        // Set up little-endian word.

        uint16_t w = *buf++;
        w += (*buf++) << 8;
    
        boot_page_fill (page + i, w);
    }

    boot_page_write (page);     // Store buffer in flash page.
    boot_spm_busy_wait();       // Wait until the memory is written.

    // Reenable RWW-section again. We need this if we want to jump back
    // to the application after bootloading.

    boot_rww_enable ();

    // Re-enable interrupts (if they were ever enabled).

    SREG = sreg;
}

API Usage Example: The following code shows typical usage of the boot API.

Nota

Not all AVR processors provide bootloader support. See your processor datasheet to see if it provides bootloader support.

Nota

Not all AVR processors provide bootloader support. See your processor datasheet to see if it provides bootloader support.

Defines

BOOTLOADER_SECTION: Used to declare a function or variable to be placed into a new section called .bootloader. This section and its contents can then be relocated to any address (such as the bootloader NRWW area) at link-time.

boot_spm_interrupt_enable(): Enable the SPM interrupt.

boot_spm_interrupt_disable(): Disable the SPM interrupt.

boot_is_spm_interrupt(): Check if the SPM interrupt is enabled.

boot_rww_busy(): Check if the RWW section is busy.

boot_spm_busy(): Check if the SPM instruction is busy.

boot_spm_busy_wait(): Wait while the SPM instruction is busy.

GET_LOW_FUSE_BITS: address to read the low fuse bits, using boot_lock_fuse_bits_get

GET_LOCK_BITS: address to read the lock bits, using boot_lock_fuse_bits_get

GET_EXTENDED_FUSE_BITS: address to read the extended fuse bits, using boot_lock_fuse_bits_get

GET_HIGH_FUSE_BITS: address to read the high fuse bits, using boot_lock_fuse_bits_get

boot_lock_fuse_bits_get(address)

Read the lock or fuse bits at address.

Parameter address can be any of GET_LOW_FUSE_BITS, GET_LOCK_BITS, GET_EXTENDED_FUSE_BITS, or GET_HIGH_FUSE_BITS.

Nota

The lock and fuse bits returned are the physical values, i.e. a bit returned as 0 means the corresponding fuse or lock bit is programmed.

boot_signature_byte_get(addr)

Read the Signature Row byte at address. For some MCU types, this function can also retrieve the factory-stored oscillator calibration bytes.

Parameter address can be 0-0x1f as documented by the datasheet.

Nota

The values are MCU type dependent.

boot_page_fill(address, data): Fill the bootloader temporary page buffer for flash address with data word.

Nota

The address is a byte address. The data is a word. The AVR writes data to the buffer a word at a time, but addresses the buffer per byte! So, increment your address by 2 between calls, and send 2 data bytes in a word format! The LSB of the data is written to the lower address; the MSB of the data is written to the higher address.

boot_page_erase(address): Erase the flash page that contains address.

Nota

address is a byte address in flash, not a word address.

boot_page_write(address): Write the bootloader temporary page buffer to flash page that contains address.

Nota

address is a byte address in flash, not a word address.

boot_rww_enable(): Enable the Read-While-Write memory section.

boot_lock_bits_set(lock_bits)

Set the bootloader lock bits.

For example, to disallow the SPM instruction from writing to the Boot Loader memory section of flash, you would use this macro as such:

boot_lock_bits_set (_BV (BLB11));

Nota

In this context, a 'set bit' will be written to a zero value. Note also that only BLBxx bits can be programmed by this command.

Nota

Like any lock bits, the Boot Loader Lock Bits, once set, cannot be cleared again except by a chip erase which will in turn also erase the boot loader itself.

Parametri:

lock_bits -- A mask of which Boot Loader Lock Bits to set.

boot_page_fill_safe(address, data): Same as boot_page_fill() except it waits for eeprom and spm operations to complete before filling the page.

boot_page_erase_safe(address): Same as boot_page_erase() except it waits for eeprom and spm operations to complete before erasing the page.

boot_page_write_safe(address): Same as boot_page_write() except it waits for eeprom and spm operations to complete before writing the page.

boot_rww_enable_safe(): Same as boot_rww_enable() except waits for eeprom and spm operations to complete before enabling the RWW mameory.

boot_lock_bits_set_safe(lock_bits): Same as boot_lock_bits_set() except waits for eeprom and spm operations to complete before setting the lock bits.

BOOTLOADER_SECTION: Used to declare a function or variable to be placed into a new section called .bootloader. This section and its contents can then be relocated to any address (such as the bootloader NRWW area) at link-time.

boot_spm_interrupt_enable(): Enable the SPM interrupt.

boot_spm_interrupt_disable(): Disable the SPM interrupt.

boot_is_spm_interrupt(): Check if the SPM interrupt is enabled.

boot_rww_busy(): Check if the RWW section is busy.

boot_spm_busy(): Check if the SPM instruction is busy.

boot_spm_busy_wait(): Wait while the SPM instruction is busy.

GET_LOW_FUSE_BITS: address to read the low fuse bits, using boot_lock_fuse_bits_get

GET_LOCK_BITS: address to read the lock bits, using boot_lock_fuse_bits_get

GET_EXTENDED_FUSE_BITS: address to read the extended fuse bits, using boot_lock_fuse_bits_get

GET_HIGH_FUSE_BITS: address to read the high fuse bits, using boot_lock_fuse_bits_get

boot_lock_fuse_bits_get(address)

Read the lock or fuse bits at address.

Parameter address can be any of GET_LOW_FUSE_BITS, GET_LOCK_BITS, GET_EXTENDED_FUSE_BITS, or GET_HIGH_FUSE_BITS.

Nota

The lock and fuse bits returned are the physical values, i.e. a bit returned as 0 means the corresponding fuse or lock bit is programmed.

boot_signature_byte_get(addr)

Read the Signature Row byte at address. For some MCU types, this function can also retrieve the factory-stored oscillator calibration bytes.

Parameter address can be 0-0x1f as documented by the datasheet.

Nota

The values are MCU type dependent.

boot_page_fill(address, data): Fill the bootloader temporary page buffer for flash address with data word.

Nota

The address is a byte address. The data is a word. The AVR writes data to the buffer a word at a time, but addresses the buffer per byte! So, increment your address by 2 between calls, and send 2 data bytes in a word format! The LSB of the data is written to the lower address; the MSB of the data is written to the higher address.

boot_page_erase(address): Erase the flash page that contains address.

Nota

address is a byte address in flash, not a word address.

boot_page_write(address): Write the bootloader temporary page buffer to flash page that contains address.

Nota

address is a byte address in flash, not a word address.

boot_rww_enable(): Enable the Read-While-Write memory section.

boot_lock_bits_set(lock_bits)

Set the bootloader lock bits.

For example, to disallow the SPM instruction from writing to the Boot Loader memory section of flash, you would use this macro as such:

boot_lock_bits_set (_BV (BLB11));

Nota

In this context, a 'set bit' will be written to a zero value. Note also that only BLBxx bits can be programmed by this command.

Nota

Like any lock bits, the Boot Loader Lock Bits, once set, cannot be cleared again except by a chip erase which will in turn also erase the boot loader itself.

Parametri:

lock_bits -- A mask of which Boot Loader Lock Bits to set.

boot_page_fill_safe(address, data): Same as boot_page_fill() except it waits for eeprom and spm operations to complete before filling the page.

boot_page_erase_safe(address): Same as boot_page_erase() except it waits for eeprom and spm operations to complete before erasing the page.

boot_page_write_safe(address): Same as boot_page_write() except it waits for eeprom and spm operations to complete before writing the page.

boot_rww_enable_safe(): Same as boot_rww_enable() except waits for eeprom and spm operations to complete before enabling the RWW mameory.

boot_lock_bits_set_safe(lock_bits): Same as boot_lock_bits_set() except waits for eeprom and spm operations to complete before setting the lock bits.

page md__home_pat1_git_rmap_platformio_stima_v3_digitecoboot_ihex_ihex_README

A small library for reading and writing the Intel HEX (or IHEX) format. The library is mainly intended for embedded systems and microcontrollers, such as Arduino, AVR, PIC, ARM, STM32, etc - hence the emphasis is on small size rather than features, generality, or error handling.

See the header file kk_ihex.h for documentation, or below for simple examples.

~ Kimmo Kulovesi, 2013-12-27

Writing

Basic usage for writing binary data as IHEX ASCII:

#include "kk_ihex_write.h"

struct ihex_state ihex;
ihex_init(&ihex);
ihex_write_at_address(&ihex, 0);
ihex_write_bytes(&ihex, my_data_bytes, my_data_size);
ihex_end_write(&ihex);

The function ihex_write_bytes may be called multiple times to pass any amount of data at a time.

The actual writing is done by a callback called ihex_flush_buffer, which must be implemented, e.g., as follows:

void ihex_flush_buffer(struct ihex_state *ihex, char *buffer, char *eptr) {
    *eptr = '\0';
    (void) fputs(buffer, stdout);
}

The length of the buffer can be obtained from eptr - buffer. The actual implementation may of course do with the IHEX data as it pleases, e.g., transmit it over a serial port.

For a complete example, see the included program bin2ihex.c.

Reading

Basic usage for reading ASCII IHEX into binary data:

#include "kk_ihex_read.h"

struct ihex_state ihex;
ihex_begin_read(&ihex);
ihex_read_bytes(&ihex, my_ascii_bytes, my_ascii_length);
ihex_end_read(&ihex);

The function ihex_read_bytes may be called multiple times to pass any amount of data at a time.

The reading functions call the function ihex_data_read, which must be implemented by the caller to store the binary data, e.g., as follows:

ihex_bool_t ihex_data_read (struct ihex_state *ihex,
                            ihex_record_type_t type,
                            ihex_bool_t checksum_error) {
    if (type == IHEX_DATA_RECORD) {
        unsigned long address = (unsigned long) IHEX_LINEAR_ADDRESS(ihex);
        (void) fseek(outfile, address, SEEK_SET);
        (void) fwrite(ihex->data, ihex->length, 1, outfile);
    } else if (type == IHEX_END_OF_FILE_RECORD) {
        (void) fclose(outfile);
    }
    return true;
}

Of course an actual implementation is free to do with the data as it chooses, e.g., burn it on an EEPROM instead of writing it to a file.

For an example complete with error handling, see the included program ihex2bin.c.

Example Programs

The included example programs, ihex2bin and bin2ihex, implement a very simple conversion between raw binary data and Intel HEX. Usage by example:

# Simple conversion from binary to IHEX:
bin2ihex <infile.bin >outfile.hex

# Add an offset to the output addresses (i.e., make the address
# of the first byte of the input other than zero):
bin2ihex -a 0x8000000 -i infile.bin -o outfile.hex

# Encode 64 input bytes per output IHEX line:
bin2ihex -b 64 <infile.bin >outfile.hex

# Simple conversion from IHEX to binary:
ihex2bin <infile.hex >outfile.bin

# Manually specify the initial address written (i.e., subtract
# an offset from the input addresses):
ihex2bin -a 0x8000000 -i infile.hex -o outfile.bin

# Start output at the first data byte (i.e., make the address offset
# equal to the address of the first data byte read from input):
ihex2bin -A -i infile.hex -o outfile.bin

Both programs also accept the option -v to increase verbosity.

When using ihex2bin on Intel HEX files produced by compilers and such, it is a good idea to specify the command-line option -A to autodetect the address offset. Otherwise the program will simply fill any unused addresses, starting from 0, with zero bytes, which may total mega- or even gigabytes.

Utilities

Four additional utilities are provided to help working with ROM images:

split16bit – splits a 16-bit ROM binary into two 8-bit halves
merge16bit – merges two 8-bit ROM binary halves into a single 16-bit file
split32bit – splits a 32-bit ROM binary into four 8-bit parts
merge32bit – merges four 8-bit ROM binary parts into a single 32-bit file

Both 16-bit utilities take the filenames of the high and low halves with the arguments -llow.bin and -hhigh.bin, respectively. The bytes are in little endian order, i.e., the one with the lowest address is the "low" half.

# Split 16bit.bin into low.bin and high.bin:
split16bit -i 16bit.bin -l low.bin -h high.bin

# Merge low.bin and high.bin into 16bit.bin:
merge16bit -o 16bit.bin -l low.bin -h high.bin

Both 32-bit utilities take the filenames of the four 8-bit files with the arguments -0, -1, -2, and -3, with byte 0 being the one with the lowest address, i.e., the bytes are in little endian order.

# Split 32bit.bin into a.bin, b.bin, c.bin, and d.bin
split32bit -i 32bit.bin -0 a.bin -1 b.bin -2 c.bin -3 d.bin

# Merge a.bin, b.bin, c.bin, and d.bin into 32bit.bin
merge32bit -o 32bit.bin -0 a.bin -1 b.bin -2 c.bin -3 d.bin

These utilities have nothing to with IHEX as such, but they are so small that it didn't seem worth the bother to release them separately.

page md__home_pat1_git_rmap_platformio_stima_v3_stimawifi_README

con la stazione di monitoraggio ambientale Stimawifi.

Tutta la documentazione la trovate:

https://doc.rmap.cc/stima_wifi/stima_wifi_howto.html

Nello specifico

La documentazione per configurare la stazione e pubblicare i dati:

server

stazione
non dimenticate i nostri videotutorial

page todo

Module avr_boot

From email with Marek: On smaller devices (all except ATmega64/128), __SPM_REG is in the I/O space, accessible with the shorter "in" and "out" instructions - since the boot loader has a limited size, this could be an important optimization.

dir /home/pat1/git/rmap/platformio/stima_v3/arduino_as_isp

dir /home/pat1/git/rmap/platformio/stima_v3/digitecoboot

dir /home/pat1/git/rmap/platformio/stima_v3/digitecoboot_ihex

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-leaf

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-opc

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-power

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-radiation

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-rain

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-th

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-thr

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-wind

dir /home/pat1/git/rmap/platformio/stima_v3/digitecoboot_ihex/ihex

dir /home/pat1/git/rmap/platformio/stima_v3/test_mqtt_sim800/include

dir /home/pat1/git/rmap/platformio/stima_v3/sensor_config/include

dir /home/pat1/git/rmap/platformio/stima_v3/test_i2c_multimaster/include

dir /home/pat1/git/rmap/platformio/stima_v3/test_mqtt_subscribe_sim800/include

dir /home/pat1/git/rmap/platformio/stima_v3/sensor_config_menu/include

dir /home/pat1/git/rmap/platformio/stima_v3/test_ntp/include

dir /home/pat1/git/rmap/platformio/stima_v3/stimawifi/include

dir /home/pat1/git/rmap/platformio/stima_v3/test_sim800/include

dir /home/pat1/git/rmap/platformio/stima_v3/stima/include

dir /home/pat1/git/rmap/platformio/stima_v3/test_pin/include

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-wind/include

dir /home/pat1/git/rmap/platformio/stima_v3/test_sensordriver/include

dir /home/pat1/git/rmap/platformio/stima_v3/test_sensormanager/include

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-th/include

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-rain/include

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-radiation/include

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-power/include

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-opc/include

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-leaf/include

dir /home/pat1/git/rmap/platformio/stima_v3/sensor_config_menu_sdcard/include

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-thr/include

dir /home/pat1/git/rmap/platformio/stima_v3/digitecoboot/pff

dir /home/pat1/git/rmap/platformio/stima_v3/digitecoboot_ihex/pff

dir /home/pat1/git/rmap/platformio

dir /home/pat1/git/rmap/platformio/stima_v3/SdFormatter

dir /home/pat1/git/rmap/platformio/stima_v3/sensor_config

dir /home/pat1/git/rmap/platformio/stima_v3/sensor_config_menu

dir /home/pat1/git/rmap/platformio/stima_v3/sensor_config_menu_sdcard

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-thr/src

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-rain/src

dir /home/pat1/git/rmap/platformio/stima_v3/test_jsonrpc/src

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-th/src

dir /home/pat1/git/rmap/platformio/stima_v3/test_pin/src

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-wind/src

dir /home/pat1/git/rmap/platformio/stima_v3/SdFormatter/src

dir /home/pat1/git/rmap/platformio/stima_v3/sensor_config/src

dir /home/pat1/git/rmap/platformio/stima_v3/sensor_config_menu/src

dir /home/pat1/git/rmap/platformio/stima_v3/sensor_config_menu_sdcard/src

dir /home/pat1/git/rmap/platformio/stima_v3/stima/src

dir /home/pat1/git/rmap/platformio/stima_v3/stimawifi/src

dir /home/pat1/git/rmap/platformio/stima_v3/test_logging/src

dir /home/pat1/git/rmap/platformio/stima_v3/test_hyt271/src

dir /home/pat1/git/rmap/platformio/stima_v3/test_i2c_multimaster/src

dir /home/pat1/git/rmap/platformio/stima_v3/test_lcd/src

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-power/src

dir /home/pat1/git/rmap/platformio/stima_v3/arduino_as_isp/src

dir /home/pat1/git/rmap/platformio/stima_v3/digitecoboot/pff/src

dir /home/pat1/git/rmap/platformio/stima_v3/digitecoboot_ihex/pff/src

dir /home/pat1/git/rmap/platformio/stima_v3/test_sim800/src

dir /home/pat1/git/rmap/platformio/stima_v3/test_sensormanager/src

dir /home/pat1/git/rmap/platformio/stima_v3/test_sensordriver/src

dir /home/pat1/git/rmap/platformio/stima_v3/test_sdfat16/src

dir /home/pat1/git/rmap/platformio/stima_v3/test_sdcard/src

dir /home/pat1/git/rmap/platformio/stima_v3/test_rtc/src

dir /home/pat1/git/rmap/platformio/stima_v3/test_ntp/src

dir /home/pat1/git/rmap/platformio/stima_v3/test_mqtt_subscribe_sim800/src

dir /home/pat1/git/rmap/platformio/stima_v3/test_mqtt_sim800/src

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-leaf/src

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-opc/src

dir /home/pat1/git/rmap/platformio/stima_v3/i2c-radiation/src

dir /home/pat1/git/rmap/platformio/stima_v3/stima

dir /home/pat1/git/rmap/platformio/stima_v3

dir /home/pat1/git/rmap/platformio/stima_v3/stimawifi

dir /home/pat1/git/rmap/platformio/stima_v3/test_hyt271

dir /home/pat1/git/rmap/platformio/stima_v3/test_i2c_multimaster

dir /home/pat1/git/rmap/platformio/stima_v3/test_jsonrpc

dir /home/pat1/git/rmap/platformio/stima_v3/test_lcd

dir /home/pat1/git/rmap/platformio/stima_v3/test_logging

dir /home/pat1/git/rmap/platformio/stima_v3/test_mqtt_sim800

dir /home/pat1/git/rmap/platformio/stima_v3/test_mqtt_subscribe_sim800

dir /home/pat1/git/rmap/platformio/stima_v3/test_ntp

dir /home/pat1/git/rmap/platformio/stima_v3/test_pin

dir /home/pat1/git/rmap/platformio/stima_v3/test_rtc

dir /home/pat1/git/rmap/platformio/stima_v3/test_sdcard

dir /home/pat1/git/rmap/platformio/stima_v3/test_sdfat16

dir /home/pat1/git/rmap/platformio/stima_v3/test_sensordriver

dir /home/pat1/git/rmap/platformio/stima_v3/test_sensormanager

dir /home/pat1/git/rmap/platformio/stima_v3/test_sim800

page index: Introduction

software to collect weather data contributed by citizens; to make these data available for weather services and homeland security; to provide feedback to the data contributors so that they have the tools to check and improve their data quality

http://doc.rmap.cc

Howto

STIMA over Ethernet:

Hardware

1) Stima I2C-Base @ 5V

2) Microduino Ethernet WIZ

3) Microduino RJ45

4) Stima core+1284 @ 5V

5) Stima I2C-RTC @ 5V

6) Stima FT232RL

7) Stima SD-Card

Software

1) open sketch arduino/sketchbook/rmap/rmap/rmap.ino

2) in arduino/sketchbook/rmap/rmap/rmap-config.h set STIMA_MODULE_TYPE_REPORT_ETH or STIMA_MODULE_TYPE_SAMPLE_ETH in MODULE_VERSION define

3) open arduino/sketchbook/libraries/RmapConfig/sensors_config.h and set true or false sensors's define and json's define in order to enable or disable relative sensor's driver and library

4) compile and upload firmware

5) short-circuit the two configure pins with a jumper and configure it!

STIMA over GSM/GPRS:

Hardware

1) Stima I2C-Base @ 5V

2) Stima SIM800C Power

3) Stima SIM800C Module

4) Stima core+1284 @ 5V

5) Stima I2C-RTC @ 5V

6) Stima FT232RL

7) Stima SD-Card

Software

1) open sketch arduino/sketchbook/rmap/rmap/rmap.ino

2) in arduino/sketchbook/rmap/rmap/rmap-config.h set STIMA_MODULE_TYPE_REPORT_GSM or STIMA_MODULE_TYPE_SAMPLE_GSM in MODULE_VERSION define

3) open arduino/sketchbook/libraries/RmapConfig/sensors_config.h and set true or false sensors's define and json's define in order to enable or disable relative sensor's driver and library

4) compile and upload firmware

5) short-circuit the two configure pins with a jumper and configure it!

STIMA Passive:

Hardware

1) Stima I2C-Base @ 5V / 3.3V

2) Stima core+1284 @ 5V / Stima core+644 @ 3.3V

3) Stima I2C-RTC @ 5V / 3.3V

4) Stima FT232RL

Software

1) open sketch arduino/sketchbook/rmap/rmap/rmap.ino

2) in arduino/sketchbook/rmap/rmap/rmap-config.h set STIMA_MODULE_TYPE_PASSIVE in MODULE_VERSION define

3) open arduino/sketchbook/libraries/RmapConfig/sensors_config.h and set true or false sensors's define and json's define in order to enable or disable relative sensor's driver and library

4) compile and upload firmware

5) short-circuit the two configure pins with a jumper and configure it!

STIMA I2C-TH:

Hardware

1) Stima I2C-Base @ 3.3V

2) Stima core+644 @ 3.3V

3) Stima FT232RL

4) Stima SD-Card

Software

1) open sketch arduino/sketchbook/rmap/i2c-th/i2c-th.ino

2) open arduino/sketchbook/libraries/RmapConfig/sensors_config.h and set true or false sensors's define and json's define in order to enable or disable relative sensor's driver and library

3) compile and upload firmware

STIMA I2C-Rain:

Hardware

1) Stima I2C-Base @ 3.3V

2) Stima core+644 @ 3.3V

3) Stima I2C-Digital

4) Stima FT232RL

5) Stima SD-Card

Software

1) open sketch arduino/sketchbook/rmap/i2c-rain/i2c-rain.ino

2) open arduino/sketchbook/libraries/RmapConfig/sensors_config.h and set false in all sensors's define and json's define

3) compile and upload firmware

STIMA Meteo Station assembly

1) Stima over Ethernet or Stima over GSM

--> connect with a cable at 5V hub port --> in GSM/GPRS version: connect SMA antenna and insert a SIM card --> in Ethernet version: connect ethernet/POE cable

2) Stima I2C-TH

--> connect with a cable at 3.3V hub port

3) Stima I2C-Rain

--> connect with a cable at 3.3V hub port

--> connect at tipping bucket rain on 2 external pins of Stima I2C-Digital

4) I2C sensor's:

--> connect with a cable at 3.3V or 5V hub port

5) I2C LCD Display

--> connect with a cable at 5V hub port

6) Stima I2C-HUB

Power up the station through one of the following ways:

1) USB power supply with USB type B connector

2) Plug a POE cable into RJ45 interface (only for ethernet version)

3) 5V DC power supply through hub input port

4) DigitecoPower through hub input port with capability of 12V battery backup, solar panel or 12-30V DC input source voltage

in that case, the pins on the DigitecoPower module are:

1) VCC_IN: 12-30V DC input source VCC (+)

2) GND_IN: 12-30V DC input source GND (-)

3) VCC_BAT: 12V DC input/otput battery backup VCC (+)

4) GND_BAT: 12V DC input/otput battery backup GND (-)

5) Status LED: green for battery charged, orange for medium charged battery, red for low battery

6) VCC_OUT: 5V DC output for input hub connector VCC (+)

7) SCL: I2C SCL for input hub connector

8) SDA: I2C SDA for input hub connector

9) GND_OUT: 5V DC output for input hub connector GND (-)

Project Library

For details, look at the specific library files.

RmapConfig

This library contains the definitions that are useful for configuring some default values. Below is a list of the files contained therein.

debug_config.h: Enable or disable debug in sketch and library

ethernet_config.h: Ethernet configuration's parameters (IP, DHCP, delay, ecc..)

gsm_config.h: GSM configuration's parameters (APN, username, ecc..)

hardware_config.h: Hardware configuration's parameters (I2C bus clock, ecc..)

json_config.h: JSON configuration's parameters (buffer length)

lcd_config.h: LCD configuration's parameters (rows, columns, ecc..)

mqtt_config.h: MQTT configuration's parameters (topic length, buffers length, ecc..)

ntp_config.h: NTP configuration's parameters (timezone, server, ecc..)

sdcard_config.h: SDCARD configuration's parameters (name length, ecc..)

sensors_config.h: Enable or disable sensor driver sensors for specific sketch

Rmap

This library contains generic utility features. Below is a list of the files contained therein.

debug.h debug.cpp: Debugging functions for print debug message on serial port or LCD

eeprom_utility.h eeprom_utility.cpp: EEPROM utility for write and read eeprom

i2c_utility.h i2c_utility.cpp: I2C utility for bus recovery

registers.h: General register's define

registers-th.h: I2C-TH register's define

registers-rain.h: I2C-Rain register's define

rmap_utility.h rmap_utility.cpp: RMAP useful functions

sdcard_utility.h sdcard_utility.cpp: SD-Card useful functions

stima_module.h: STIMA station's definition

typedef.h: Useful project typedef

SensorDriver

This library is provided to read measurements from I2C sensors.

SensorDriverSensors.h: define list with sensor names in SensorDriver

SensorDriver.h SensorDriver.cpp: SensorDriver library files

HYT2X1

This library implements functions for read and configure HYT271 and HYT221 sensors.

hyt2x1.h hyt2x1.cpp: HYT2X1 library files

NTP

This library implements NTP functions for read time over NTP server with ethernet client or sim800 client.

ntp.h ntp.cpp: NTP library files

PCF8563

This library implements PCF8563 functions for communicate with pcf8563 real time clock.

pcf8563.h pcf8563.cpp: PCF8563 library files

SIM800

This library implements SIM800 functions for communicate with SIM800C/SIM800L GSM/GPRS module.

sim800.h sim800.cpp: SIM800 library files

sim800Client.h: SIM800 library interface for Arduino Client.

SIM800C is fully supported, SIM800L is partially supported (coming soon...)

Implemented features

Transport

o) Serial: yes

o) Ethernet: partial (basic functions are present but need to interface with Ethernet Client)

o) MQTT: partial (subscribe functions are present but need to interface with rpc process function)

See ArduinoJsonRPC library

SD-Card files

On the sdcard there is a file called mqtt_ptr.txt containing a binary data in uint32_t format corresponding to the seconds passed since 00:00:00 01/01/1970 indicating the last data sent by MQTT.

The data is recorded on files (one file for each recording day) named in the format yyyy_mm_dd.txt and each data recorded on sd card is MQTT_SENSOR_TOPIC_LENGTH + MQTT_MESSAGE_LENGTH bytes long (look at the mqtt_config.h file).

Each recorded data has the format of the type: TRANGE/LEVEL/VAR { “v”: VALUE, “t”: TIME}

SensorDriver's sensors

o) ADT7420 (ADT)

o) HIH6100 (HIH)

o) HYT221 (HYT)

o) HYT271 (HYT)

o) DigitecoPower (DEP)

o) I2C-TH (STH, ITH, NTH, MTH, XTH)

o) I2C-Rain (TBS, TBR)

o) I2C-Wind (DW1)

other sensors can be easily integrated (see SensorDriver library).

Documentazione del codice

Introduction

Howto

STIMA over Ethernet:

Hardware

Software

STIMA over GSM/GPRS:

Hardware

Software

STIMA Passive:

Hardware

Software

STIMA I2C-TH:

Hardware

Software

STIMA I2C-Rain:

Hardware

Software

STIMA Meteo Station assembly

Project Library

RmapConfig

Rmap

SensorDriver

HYT2X1

NTP

PCF8563

SIM800

Implemented features

Transport

SD-Card files

SensorDriver's sensors