Stable version of the mDot library for mbed 5. This version of the library is suitable for deployment scenarios. See lastest commit message for version of mbed-os library that has been tested against.
Dependents: mdot_two_way unh-hackathon-example unh-hackathon-example-raw TelitSensorToCloud ... more
Fork of libmDot-dev-mbed5-deprecated by
The Dot library provides a LoRaWan certified stack for LoRa communication using MultiTech mDot and xDot devices. The stack is compatible with mbed 5.
The name of the repository can be used to determine which device the stack was compiled for and if it's a development or production-ready build:
- libmDot-mbed5 -> production-ready build for mDot
- libmDot-dev-mbed5 -> development build for mDot
- libxDot-mbed5 -> production-ready build for xDot
- libxDot-dev-mbed5 -> development build for xDot
A changelog for the Dot library can be found here.
The Dot library version and the version of mbed-os it was compiled against can both be found in the commit message for that revision of the Dot library. Building your application with the same version of mbed-os as what was used to build the Dot library is highly recommended!
The Dot-Examples repository demonstrates how to use the Dot library in a custom application.
The mDot and xDot platform pages have lots of platform specific information and document potential issues, gotchas, etc, and provide instructions for getting started with development. Please take a look at the platform page before starting development as they should answer many questions you will have.
FOTA
Full FOTA support is only available with mDot, xDot does not have the required external flash. xDot can use the FOTA example to dynamically join a multicast session only. After joining the multicast session the received Fragmentation packets could be handed to a host MCU for processing and at completion the firmware can be loaded into the xDot using the bootloader and y-modem. See xDot Developer Guide.
- Add the following code to allow Fota to use the Dot instance
main.cpp
// Initialize FOTA singleton Fota::getInstance(dot);
- Add fragmentation handling the the PacketRx event
RadioEvent.h
virtual void PacketRx(uint8_t port, uint8_t *payload, uint16_t size, int16_t rssi, int8_t snr, lora::DownlinkControl ctrl, uint8_t slot, uint8_t retries, uint32_t address, bool dupRx) { mDotEvent::PacketRx(port, payload, size, rssi, snr, ctrl, slot, retries, address, dupRx); #if ACTIVE_EXAMPLE == FOTA_EXAMPLE if(port == 200 || port == 201 || port == 202) { Fota::getInstance()->processCmd(payload, port, size); } #endif }
A definition is needed to enable Fragmentation support on mDot and save fragments to flash. This should not be defined for xDot and will result in a compiler error.
mbed_app.json
{ "macros": [ "FOTA=1" ] }
The FOTA implementation has a few differences from the LoRaWAN Protocol
- Fragmentation Indexing starts at 0
- McKEKey is 00-00-00-00-00-00-00-00-00-00-00-00-00-00-00-00
- Start Time is a count-down in seconds to start of session
mDot.h
- Committer:
- Mike Fiore
- Date:
- 2015-08-17
- Revision:
- 7:683dba5d576f
- Parent:
- 6:390fc83d588d
- Child:
- 9:ec2fffe31793
File content as of revision 7:683dba5d576f:
/************************************************ * MultiTech MTDOT Library * Copyright (c) 2015 MultiTech Systems * * See LICENSE file for license information ***********************************************/ #ifndef MDOT_H #define MDOT_H #include "mbed.h" #include "rtos.h" #include <vector> #include <map> #include <string> class LoRaMacEvent; class LoRaConfig; class LoRaMac; class MdotRadio; class mDot { private: mDot(); ~mDot(); static void idle(void const* args) { while (1) __WFI(); } void setLastError(const std::string& str); static bool validateBaudRate(const uint32_t& baud); static bool validateFrequencySubBand(const uint8_t& band); bool validateDataRate(const uint8_t& dr); int32_t joinBase(const uint32_t& retries); int32_t sendBase(const std::vector<uint8_t>& data, const bool& confirmed = false, const bool& blocking = true, const bool& highBw = false); void waitForPacket(); void waitForLinkCheck(); void setActivityLedState(const uint8_t& state); uint8_t getActivityLedState(); void blinkActivityLed(void) { if (_activity_led) { int val = _activity_led->read(); _activity_led->write(!val); } } mDot(const mDot&); mDot& operator=(const mDot&); uint32_t RTC_ReadBackupRegister(uint32_t RTC_BKP_DR); void RTC_WriteBackupRegister(uint32_t RTC_BKP_DR, uint32_t Data); void wakeup(); static mDot* _instance; LoRaMac* _mac; MdotRadio* _radio; LoRaMacEvent* _events; LoRaConfig* _config; Thread _idle_thread; std::string _last_error; static const uint32_t _baud_rates[]; uint8_t _activity_led_state; Ticker _tick; DigitalOut* _activity_led; bool _activity_led_enable; PinName _activity_led_pin; bool _activity_led_external; uint16_t _linkFailCount; uint8_t _class; InterruptIn* _wakeup; PinName _wakeup_pin; typedef enum { OFF, ON, BLINK, } state; public: typedef enum { FM_APPEND = (1 << 0), FM_TRUNC = (1 << 1), FM_CREAT = (1 << 2), FM_RDONLY = (1 << 3), FM_WRONLY = (1 << 4), FM_RDWR = (FM_RDONLY | FM_WRONLY), FM_DIRECT = (1 << 5) } FileMode; typedef enum { MDOT_OK = 0, MDOT_INVALID_PARAM = -1, MDOT_TX_ERROR = -2, MDOT_RX_ERROR = -3, MDOT_JOIN_ERROR = -4, MDOT_TIMEOUT = -5, MDOT_NOT_JOINED = -6, MDOT_ENCRYPTION_DISABLED = -7, MDOT_NO_FREE_CHAN = -8, MDOT_ERROR = -1024, } mdot_ret_code; enum JoinMode { MANUAL, OTA, AUTO_OTA }; enum Mode { COMMAND_MODE, SERIAL_MODE }; enum RX_Output { HEXADECIMAL, BINARY }; enum DataRates { SF_12, SF_11, SF_10, SF_9, SF_8, SF_7, SF_7H, SF_50 }; enum FrequencyBands { FB_868, FB_915 }; enum FrequencySubBands { FSB_ALL, FSB_1, FSB_2, FSB_3, FSB_4, FSB_5, FSB_6, FSB_7, FSB_8 }; enum JoinByteOrder { LSB, MSB }; enum wakeup_mode { RTC_ALARM, INTERRUPT }; typedef struct { int16_t fd; char name[30]; uint32_t size; } mdot_file; typedef struct { uint32_t Up; uint32_t Down; uint32_t Joins; uint32_t JoinFails; uint32_t MissedAcks; } mdot_stats; typedef struct { int16_t last; int16_t min; int16_t max; int16_t avg; } rssi_stats; typedef struct { int8_t last; int8_t min; int8_t max; int8_t avg; } snr_stats; typedef struct { bool status; int32_t dBm; uint32_t gateways; std::vector<uint8_t> payload; } link_check; typedef struct { int32_t status; int16_t rssi; int16_t snr; } ping_response; static const uint8_t MaxLengths_915[]; static const uint8_t MaxLengths_868[]; static std::string JoinModeStr(uint8_t mode); static std::string ModeStr(uint8_t mode); static std::string RxOutputStr(uint8_t format); static std::string DataRateStr(uint8_t rate); static std::string FrequencyBandStr(uint8_t band); static std::string FrequencySubBandStr(uint8_t band); /** Get a handle to the singleton object * @returns pointer to mDot object */ static mDot* getInstance(); /** Get library version information * @returns string containing library version information */ std::string getId(); /** Perform a soft reset of the system */ void resetCpu(); /** Reset config to factory default */ void resetConfig(); /** Save config data to non volatile memory * @returns true if success, false if failure */ bool saveConfig(); /** Set the log level for the library * options are: * NONE_LEVEL - logging is off at this level * FATAL_LEVEL - only critical errors will be reported * ERROR_LEVEL * WARNING_LEVEL * INFO_LEVEL * DEBUG_LEVEL * TRACE_LEVEL - every detail will be reported * @param level the level to log at * @returns MDOT_OK if success */ int32_t setLogLevel(const uint8_t& level); /** Get the current log level for the library * @returns current log level */ uint8_t getLogLevel(); /** Enable or disable the activity LED. * @param enable true to enable the LED, false to disable */ void setActivityLedEnable(const bool& enable); /** Find out if the activity LED is enabled * @returns true if activity LED is enabled, false if disabled */ bool getActivityLedEnable(); /** Use a different pin for the activity LED. * The default is XBEE_RSSI. * @param pin the new pin to use */ void setActivityLedPin(const PinName& pin); /** Use an external DigitalOut object for the activity LED. * The pointer must stay valid! * @param pin the DigitalOut object to use */ void setActivityLedPin(DigitalOut* pin); /** Find out what pin the activity LED is on * @returns the pin the activity LED is using */ PinName getActivityLedPin(); /** Get list of channel frequencies currently in use * @returns vector of channels currently in use */ std::vector<uint32_t> getChannels(); /** Get frequency band * @returns FB_915 if configured for United States, FB_868 if configured for Europe */ uint8_t getFrequencyBand(); /** Set frequency sub band * only applicable if frequency band is set for United States (FB_915) * sub band 0 will allow the radio to use all 64 channels * sub band 1 - 8 will allow the radio to use the 8 channels in that sub band * for use with Conduit gateway and MTAC_LORA, use sub bands 1 - 8, not sub band 0 * @param band the sub band to use (0 - 8) * @returns MDOT_OK if success */ int32_t setFrequencySubBand(const uint8_t& band); /** Get frequency sub band * @returns frequency sub band currently in use */ uint8_t getFrequencySubBand(); /** Enable/disable public network mode * for use with Conduit gateway and MTAC_LORA, disable public network mode * @param on should be true to enable public network mode * @returns MDOT_OK if success */ int32_t setPublicNetwork(const bool& on); /** Get public network mode * @returns true if public network mode is enabled */ bool getPublicNetwork(); /** Get the device ID * @returns vector containing the device ID (size 8) */ std::vector<uint8_t> getDeviceId(); /** Set network address * for use with MANUAL network join mode, will be assigned in OTA & AUTO_OTA modes * @param addr a vector of 4 bytes * @returns MDOT_OK if success */ int32_t setNetworkAddress(const std::vector<uint8_t>& addr); /** Get network address * @returns vector containing network address (size 4) */ std::vector<uint8_t> getNetworkAddress(); /** Set network session key * for use with MANUAL network join mode, will be assigned in OTA & AUTO_OTA modes * @param key a vector of 16 bytes * @returns MDOT_OK if success */ int32_t setNetworkSessionKey(const std::vector<uint8_t>& key); /** Get network session key * @returns vector containing network session key (size 16) */ std::vector<uint8_t> getNetworkSessionKey(); /** Set data session key * for use with MANUAL network join mode, will be assigned in OTA & AUTO_OTA modes * @param key a vector of 16 bytes * @returns MDOT_OK if success */ int32_t setDataSessionKey(const std::vector<uint8_t>& key); /** Get data session key * @returns vector containing data session key (size 16) */ std::vector<uint8_t> getDataSessionKey(); /** Set network name * for use with OTA & AUTO_OTA network join modes * generates network ID (crc64 of name) automatically * @param name a string of of at least 8 bytes and no more than 128 bytes * @return MDOT_OK if success */ int32_t setNetworkName(const std::string& name); /** Get network name * @return string containing network name (size 8 to 128) */ std::string getNetworkName(); /** Set network ID * for use with OTA & AUTO_OTA network join modes * setting network ID via this function sets network name to empty * @param id a vector of 8 bytes * @returns MDOT_OK if success */ int32_t setNetworkId(const std::vector<uint8_t>& id); /** Get network ID * @returns vector containing network ID (size 8) */ std::vector<uint8_t> getNetworkId(); /** Set network passphrase * for use with OTA & AUTO_OTA network join modes * generates network key (cmac of passphrase) automatically * @param name a string of of at least 8 bytes and no more than 128 bytes * @return MDOT_OK if success */ int32_t setNetworkPassphrase(const std::string& passphrase); /** Get network passphrase * @return string containing network passphrase (size 8 to 128) */ std::string getNetworkPassphrase(); /** Set network key * for use with OTA & AUTO_OTA network join modes * setting network key via this function sets network passphrase to empty * @param id a vector of 16 bytes * @returns MDOT_OK if success */ int32_t setNetworkKey(const std::vector<uint8_t>& id); /** Get network key * @returns a vector containing network key (size 16) */ std::vector<uint8_t> getNetworkKey(); /** Set join byte order * @param order 0:LSB 1:MSB */ uint32_t setJoinByteOrder(uint8_t order); /** Get join byte order * @returns byte order to use in joins 0:LSB 1:MSB */ uint8_t getJoinByteOrder(); /** Attempt to join network * retries according to configuration set by setJoinRetries() * @returns MDOT_OK if success */ int32_t joinNetwork(); /** Attempts to join network once * @returns MDOT_OK if success */ int32_t joinNetworkOnce(); /** Resets current network session, essentially disconnecting from the network * has no effect for MANUAL network join mode */ void resetNetworkSession(); /** Set number of times joining will retry before giving up * @param retries must be between 0 - 255 * @returns MDOT_OK if success */ int32_t setJoinRetries(const uint8_t& retries); /** Set number of times joining will retry before giving up * @returns join retries (0 - 255) */ uint8_t getJoinRetries(); /** Set network join mode * MANUAL: set network address and session keys manually * OTA: User sets network name and passphrase, then attempts to join * AUTO_OTA: same as OTA, but network sessions can be saved and restored * @param mode MANUAL, OTA, or AUTO_OTA * @returns MDOT_OK if success */ int32_t setJoinMode(const uint8_t& mode); /** Get network join mode * @returns MANUAL, OTA, or AUTO_OTA */ uint8_t getJoinMode(); /** Get network join status * @returns true if currently joined to network */ bool getNetworkJoinStatus(); /** Do a network link check * application data may be returned in response to a network link check command * @returns link_check structure containing success, dBm above noise floor, gateways in range, and packet payload */ link_check networkLinkCheck(); /** Set network link check count to perform automatic link checks every count packets * only applicable if ACKs are disabled * @param count must be between 0 - 255 * @returns MDOT_OK if success */ int32_t setLinkCheckCount(const uint8_t& count); /** Get network link check count * @returns count (0 - 255) */ uint8_t getLinkCheckCount(); /** Set network link check threshold, number of link check failures or missed acks to tolerate * before considering network connection lost * @pararm count must be between 0 - 255 * @returns MDOT_OK if success */ int32_t setLinkCheckThreshold(const uint8_t& count); /** Get network link check threshold * @returns threshold (0 - 255) */ uint8_t getLinkCheckThreshold(); /** Get UpLinkCounter * @returns number of packets sent to the gateway during this network session (sequence number) */ uint32_t getUpLinkCounter(); /** Enable/disable AES encryption * AES encryption must be enabled for use with Conduit gateway and MTAC_LORA card * @param on true for AES encryption to be enabled * @returns MDOT_OK if success */ int32_t setAesEncryption(const bool& on); /** Get AES encryption * @returns true if AES encryption is enabled */ bool getAesEncryption(); /** Get RSSI stats * @returns rssi_stats struct containing last, min, max, and avg RSSI */ rssi_stats getRssiStats(); /** Get SNR stats * @returns snr_stats struct containing last, min, max, and avg SNR */ snr_stats getSnrStats(); /** Get ms until next free channel * only applicable for European models, US models return 0 * @returns time (ms) until a channel is free to use for transmitting */ uint32_t getNextTxMs(); /** Get data pending * only valid after sending data to the gateway * @returns true if server has available packet(s) */ bool getDataPending(); /** Get transmitting * @returns true if currently transmitting */ bool getIsTransmitting(); /** Set TX data rate * data rates affect maximum payload size * @param dr SF_7 - SF_12 for Europe, SF_7 - SF_10 for United States * @returns MDOT_OK if success */ int32_t setTxDataRate(const uint8_t& dr); /** Get TX data rate * @returns current TX data rate (SF_7 - SF_12) */ uint8_t getTxDataRate(); /** Set TX power * power affects maximum range * @param power 2 dBm - 20 dBm * @returns MDOT_OK if success */ int32_t setTxPower(const uint32_t& power); /** Get TX power * @returns TX power (2 dBm - 20 dBm) */ uint32_t getTxPower(); /** Enable/disable TX waiting for rx windows * when enabled, send calls will block until a packet is received or RX timeout * @param enable set to true if expecting responses to transmitted packets * @returns MDOT_OK if success */ int32_t setTxWait(const bool& enable); /** Get TX wait * @returns true if TX wait is enabled */ bool getTxWait(); /** Get time on air * @returns the amount of time (in ms) it would take to send bytes bytes based on current configuration */ uint32_t getTimeOnAir(uint8_t bytes); /** Get min frequency * @returns minimum frequency based on current configuration */ uint32_t getMinFrequency(); /** Get max frequency * @returns maximum frequency based on current configuration */ uint32_t getMaxFrequency(); /** Set forward error correction bytes * @param bytes 1 - 4 bytes * @returns MDOT_OK if success */ int32_t setFec(const uint8_t& bytes); /** Get forward error correction bytes * @returns bytes (1 - 4) */ uint8_t getFec(); /** Enable/disable CRC checking of packets * CRC checking must be enabled for use with Conduit gateway and MTAC_LORA card * @param on set to true to enable CRC checking * @returns MDOT_OK if success */ int32_t setCrc(const bool& on); /** Get CRC checking * @returns true if CRC checking is enabled */ bool getCrc(); /** Set ack * @param retries 0 to disable acks, otherwise 1 - 8 * @returns MDOT_OK if success */ int32_t setAck(const uint8_t& retries); /** Get ack * @returns 0 if acks are disabled, otherwise retries (1 - 8) */ uint8_t getAck(); /** Send data to the gateway * validates data size (based on spreading factor) * @param data a vector of up to 242 bytes (may be less based on spreading factor) * @returns MDOT_OK if packet was sent successfully (ACKs disabled), or if an ACK was received (ACKs enabled) */ int32_t send(const std::vector<uint8_t>& data, const bool& blocking = true, const bool& highBw = false); /** Fetch data received from the gateway * this function only checks to see if a packet has been received - it does not open a receive window * send() must be called before recv() * @param data a vector to put the received data into * @returns MDOT_OK if packet was successfully received */ int32_t recv(std::vector<uint8_t>& data); /** Ping * status will be MDOT_OK if ping succeeded * @returns ping_response struct containing status, RSSI, and SNR */ ping_response ping(); /** Get return code string * @returns string containing a description of the given error code */ static std::string getReturnCodeString(const int32_t& code); /** Get last error * @returns string explaining the last error that occured */ std::string getLastError(); /** Go to sleep * @param interval the number of seconds to sleep before waking up if wakeup_mode == RTC_ALARM, else ignored * @param wakeup_mode RTC_ALARM, INTERRUPT * if RTC_ALARM the real time clock is configured to wake the device up after the specified interval * if INTERRUPT the device will wake up on the rising edge of the interrupt pin * @param deepsleep if true go into deep sleep mode (lowest power, all memory and registers are lost, peripherals turned off) * else go into sleep mode (low power, memory and registers are maintained, peripherals stay on) * * ** CURRENTLY ONLY DEEPSLEEP MODE IS AVAILABLE ** * * in sleep mode, the device can be woken up on any of the XBEE pins or by the RTC alarm * in deepsleep mode, the device can only be woken up using the WKUP pin (PA0, XBEE_DIO7) or by the RTC alarm */ void sleep(const uint32_t& interval, const uint8_t& wakeup_mode = RTC_ALARM, const bool& deepsleep = true); /** Set wake pin * @param pin the pin to use to wake the device from sleep mode */ void setWakePin(const PinName& pin); /** Get wake pin * @returns the pin to use to wake the device from sleep mode */ PinName getWakePin(); /****************************************** * THESE FEATURES ARE NOT FULLY IMPLEMENTED *****************************************/ // get/set adaptive data rate // configure data rates and power levels based on signal to noise information from gateway // true == adaptive data rate is on // set function returns MDOT_OK if success int32_t setAdr(const bool& on); bool getAdr(); /************************************************************************* * The following functions are only used by the AT command application and * should not be used by standard applications consuming the mDot library ************************************************************************/ // set/get configured baud rate for command port // only for use in conjunction with AT interface // set function returns MDOT_OK if success int32_t setBaud(const uint32_t& baud); uint32_t getBaud(); // set/get baud rate for debug port // set function returns MDOT_OK if success int32_t setDebugBaud(const uint32_t& baud); uint32_t getDebugBaud(); // set/get command terminal echo // set function returns MDOT_OK if success int32_t setEcho(const bool& on); bool getEcho(); // set/get command terminal verbose mode // set function returns MDOT_OK if success int32_t setVerbose(const bool& on); bool getVerbose(); // set/get startup mode // COMMAND_MODE (default), starts up ready to accept AT commands // SERIAL_MODE, read serial data and send it as LoRa packets // set function returns MDOT_OK if success int32_t setStartUpMode(const uint8_t& mode); uint8_t getStartUpMode(); int32_t setRxDataRate(const uint8_t& dr); uint8_t getRxDataRate(); // get/set TX/RX frequency // if frequency band == FB_868 (Europe), must be between 863000000 - 870000000 // if frequency band == FB_915 (United States), must be between 902000000-928000000 // if set to 0, device will hop frequencies // set function returns MDOT_OK if success int32_t setTxFrequency(const uint32_t& freq); uint32_t getTxFrequency(); int32_t setRxFrequency(const uint32_t& freq); uint32_t getRxFrequency(); // get/set TX/RX inverted // true == signal is inverted // set function returns MDOT_OK if success int32_t setTxInverted(const bool& on); bool getTxInverted(); int32_t setRxInverted(const bool& on); bool getRxInverted(); // get/set RX output mode // valid options are HEXADECIMAL and BINARY // set function returns MDOT_OK if success int32_t setRxOutput(const uint8_t& mode); uint8_t getRxOutput(); // get/set serial wake interval // valid values are 2 s - INT_MAX (2147483647) s // set function returns MDOT_OK if success int32_t setWakeInterval(const uint32_t& interval); uint32_t getWakeInterval(); // get/set serial wake delay // valid values are 2 ms - INT_MAX (2147483647) ms // set function returns MDOT_OK if success int32_t setWakeDelay(const uint32_t& delay); uint32_t getWakeDelay(); // get/set serial receive timeout // valid values are 0 ms - 65000 ms // set function returns MDOT_OK if success int32_t setWakeTimeout(const uint16_t& timeout); uint16_t getWakeTimeout(); // get/set serial wake mode // valid values are INTERRUPT or RTC_ALARM // set function returns MDOT_OK if success int32_t setWakeMode(const uint8_t& delay); uint8_t getWakeMode(); // Save user file data to flash // file - name of file max 30 chars // data - data of file // size - size of file bool saveUserFile(const char* file, void* data, uint32_t size); // Append user file data to flash // file - name of file max 30 chars // data - data of file // size - size of file bool appendUserFile(const char* file, void* data, uint32_t size); // Read user file data from flash // file - name of file max 30 chars // data - data of file // size - size of file bool readUserFile(const char* file, void* data, uint32_t size); // Move a user file in flash // file - name of file // new_name - new name of file bool moveUserFile(const char* file, const char* new_name); // Delete user file data from flash // file - name of file max 30 chars bool deleteUserFile(const char* file); // Open user file in flash, max of 4 files open concurrently // file - name of file max 30 chars // mode - combination of FM_APPEND | FM_TRUNC | FM_CREAT | // FM_RDONLY | FM_WRONLY | FM_RDWR | FM_DIRECT // returns - mdot_file struct, fd field will be a negative value if file could not be opened mDot::mdot_file openUserFile(const char* file, int mode); // Seek an open file // file - mdot file struct // offset - offset in bytes // whence - where offset is based SEEK_SET, SEEK_CUR, SEEK_END bool seekUserFile(mDot::mdot_file& file, size_t offset, int whence); // Read bytes from open file // file - mdot file struct // data - mem location to store data // length - number of bytes to read // returns - number of bytes written int readUserFile(mDot::mdot_file& file, void* data, size_t length); // Write bytes to open file // file - mdot file struct // data - data to write // length - number of bytes to write // returns - number of bytes written int writeUserFile(mDot::mdot_file& file, void* data, size_t length); // Close open file // file - mdot file struct bool closeUserFile(mDot::mdot_file& file); // List user files stored in flash std::vector<mDot::mdot_file> listUserFiles(); // Move file into the firmware upgrade path to be flashed on next boot // file - name of file bool moveUserFileToFirmwareUpgrade(const char* file); // get current statistics // Join Attempts, Join Fails, Up Packets, Down Packets, Missed Acks mdot_stats getStats(); // reset statistics // Join Attempts, Join Fails, Up Packets, Down Packets, Missed Acks void resetStats(); // Convert pin number 2-8 to pin name DIO2-DI8 static PinName pinNum2Name(uint8_t num); // Convert pin name DIO2-DI8 to pin number 2-8 static uint8_t pinName2Num(PinName name); // Convert pin name DIO2-DI8 to string static std::string pinName2Str(PinName name); uint64_t crc64(uint64_t crc, const unsigned char *s, uint64_t l); // MTS_RADIO_DEBUG_COMMANDS void openRxWindow(uint32_t timeout, uint8_t bandwidth = 0); void sendContinuous(); int32_t setDeviceId(const std::vector<uint8_t>& id); int32_t setFrequencyBand(const uint8_t& band); bool saveProtectedConfig(); void resetRadio(); int32_t setRadioMode(const uint8_t& mode); std::map<uint8_t, uint8_t> dumpRegisters(); void eraseFlash(); // deprecated - use setWakeInterval int32_t setSerialWakeInterval(const uint32_t& interval); // deprecated - use getWakeInterval uint32_t getSerialWakeInterval(); // deprecated - use setWakeDelay int32_t setSerialWakeDelay(const uint32_t& delay); // deprecated - use setWakeDelay uint32_t getSerialWakeDelay(); // deprecated - use setWakeTimeout int32_t setSerialReceiveTimeout(const uint16_t& timeout); // deprecated - use getWakeTimeout uint16_t getSerialReceiveTimeout(); private: mdot_stats _stats; }; #endif