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XBee/XBee.h
- Committer:
- hbujanda
- Date:
- 2015-05-14
- Revision:
- 2:2ee1b6d51df2
- Parent:
- 1:794d1d3e4a08
- Child:
- 3:8662ebe83570
File content as of revision 2:2ee1b6d51df2:
/** * Copyright (c) 2015 Digi International Inc., * All rights not expressly granted are reserved. * * This Source Code Form is subject to the terms of the Mozilla Public * License, v. 2.0. If a copy of the MPL was not distributed with this file, * You can obtain one at http://mozilla.org/MPL/2.0/. * * Digi International Inc. 11001 Bren Road East, Minnetonka, MN 55343 * ======================================================================= */ #if !defined(__DIGI_RADIO_H_) #define __DIGI_RADIO_H_ #include <stdint.h> #include "config.h" #include "Utils/Debug.h" #include "Frames/AtCmdFrame.h" #include "FrameHandlers/FrameHandler.h" #include "FrameHandlers/FH_ModemStatus.h" #include "FrameBuffer/FrameBuffer.h" #include "Addresses.h" #include "RemoteXBee/RemoteXBee.h" #include "IO/IO.h" #define MAX_FRAME_HANDLERS 4 #define RESET_TIMEOUT_MS 5000 #define DR_API_FRAME_OVERHEAD 4 /* Start of frame + frame len + checksum */ #define DR_MIN_API_FRAME_LEN 4 #define DR_START_OF_FRAME 0x7E #define DR_ESCAPE_BYTE 0x7D #define DR_XON_BYTE 0x11 #define DR_XOFF_BYTE 0x13 #define DR_ESCAPE_XOR_BYTE 0x20 /* TODO, verify these flags work in all modules */ #define DISABLE_RETRIES_AND_ROUTE_REPAIR 0x01 #define ENABLE_APS_ENCRYPTION 0x20 #define USE_EXTENDED_TX_TIMEOUT 0x40 namespace XBeeLib { /** * @defgroup RadioStatus * @{ */ /** * RadioStatus */ enum RadioStatus { Success = 0, /**< Success */ Failure = -1, /**< Failure */ OpNotSupported = -2, /**< Option Not Supported */ }; /** * @} */ /** * @defgroup RadioType * @{ */ /** * RadioType */ enum RadioType { Unknown = 0, /**< Not detected yet */ XB24_A_S1 = 0x17, /**< S1 */ XBP24_A_S1 = 0x18, /**< S1 */ XB24_B_S2 = 0x19, /**< S2 */ XBP24_B_S2 = 0x1A, /**< S2 */ XBP09_D = 0x1B, /**< S4 */ XBP09_XC = 0x1C, /**< S3 */ XBP08_D = 0x1D, /**< 868MHz S5 */ XBP24_B_S2B = 0x1E, /**< S2B */ XB24_WF = 0x1F, /**< S6 */ XBP24_C_SMT = 0x21, /**< XBee PRO SMT S2C */ XB24_C_SMT = 0x22, /**< XBee SMT S2C */ XBP09_XC_B = 0x23, /**< S3B */ XBP09_B = 0x23, /**< S3B */ XB8 = 0x24, /**< S8 */ XB2B_WF_TH = 0x27, /**< S6B TH */ XB2B_WF_SMT = 0x28, /**< S6B SMT */ XBP24_C_TH = 0x2D, /**< S2C TH */ XB24_C_TH = 0x2E, /**< S2C TH */ }; /** * @} */ /** * @defgroup TxStatus * @{ */ /** * TxStatus */ enum TxStatus { TxStatusSuccess = 0, /**< Success */ TxStatusAckFail = 1, /**< MAC ACK Failure */ TxStatusCCAFail = 2, /**< CCA Failure */ TxStatusInvDestEP = 0x15, /**< Invalid destination endpoint */ TxStatusNwAckFail = 0x21, /**< Network ACK Failure */ TxStatusNotJoinNw = 0x22, /**< Not Joined to Network */ TxStatusSelfAddr = 0x23, /**< Self-addressed */ TxStatusAddrNotFound = 0x24, /**< Address Not Found */ TxStatusRouteNotFound = 0x25, /**< Route Not Found */ TxStatusBroadSrcFail2Heard = 0x26, /**< Broadcast source failed to hear a neighbor relay the message */ TxStatusInvBindTableIdx = 0x2B, /**< Invalid binding table index */ TxStatusResourceError = 0x2C, /**< Resource error lack of free buffers, timers, etc. */ TxStatusAttBroadcWithAPS = 0x2D, /**< Attempted broadcast with APS transmission */ TxStatusAttUnicWithAPSEE0 = 0x2E, /**< Attempted unicast with APS transmission, but EE=0 */ TxStatusResourceError2 = 0x31, /**< TxStatusResourceError2 */ TxStatusInternalError = 0x32, /**< Resource error lack of free buffers, timers, etc. */ TxStatusPayloadTooLarge = 0x74, /**< Data payload too large */ TxStatusIndirectMsgUnReq = 0x75, /**< Indirect message unrequested */ TxStatusInvalidAddr = 0xfe, /**< Invalid Address (Error generated by the library) */ TxStatusTimeout = 0xff, /**< Timeout (Error generated by the library) */ }; /** * @} */ /** * @defgroup PmMode * @{ */ /** * PmMode */ enum PmMode { SleepDisabled = 0, /**< SleepDisabled */ PinSleep = 1, /**< PinSleep */ PinDoze = 2, /**< PinDoze */ CyclicSeleep = 4, /**< CyclicSeleep */ CyclicSeleepPinW = 5, /**< CyclicSeleepPinW */ }; /** * @} */ /** * @defgroup NetworkRole * @{ */ /** * NetworkRole */ enum NetworkRole { UnknownRole, /**< Unknown Role */ Coordinator, /**< Coordinator */ Router, /**< Router */ EndDevice, /**< EndDevice */ }; /** * @} */ /** * @defgroup RadioLocation * @{ */ /** * RadioLocation */ enum RadioLocation { RadioLocal = 0, /**< Local Radio */ RadioRemote = 1, /**< Remote Radio */ }; /** * @} */ /** Parent Class for XBee modules, not to be directly used */ class XBee { private: /** wait_for_module_to_reset - waits until a Modem Status packet with a reset status * is received, or the timeout expires. * * @returns * Success if a Modem Status was received, * Failure otherwise */ RadioStatus wait_for_module_to_reset(volatile uint16_t *rst_cnt_p, uint16_t init_rst_cnt); protected: /** timer used by local and remote objects */ static Timer _timer; /** buffer to store the received frames */ static FrameBuffer _framebuf; public: /** * RadioMode */ enum RadioMode { ModeUnknown = 0, /**< Unknown */ ModeAPI1 = 1, /**< API1 */ ModeAPI2 = 2, /**< API2 */ ModeTransparent = 3, /**< Transparent */ ModeBootloader = 4, /**< Bootloader */ }; /** Class constructor * @param tx the TX pin of the UART that will interface the XBee module * @param rx the RX pin of the UART that will interface the XBee module * @param reset the pin to which the XBee's reset line is attached to, use NC if not available * @param rts the RTS pin for the UART that will interface the XBee module, use NC if not available * @param cts the CTS pin for the UART that will interface the XBee module, use NC if not available * @param baud the baudrate for the UART that will interface the XBee module. Note that the module has to be already configured * to this baud rate (ATBD parameter). By default it is configured to 9600 bps * */ XBee(PinName tx, PinName rx, PinName reset = NC, PinName rts = NC, PinName cts = NC, int baud = 9600); XBee(const XBee& other); /* Intentionally not implemented */ /** Class destructor */ virtual ~XBee(); /** init- initializes object * This function must be called just after creating the object so it initializes internal data. * @returns * Success if the module has been properly initialized and is ready to process data. * Failure otherwise. */ RadioStatus init(); /** get_addr64 - returns the 64bit address of the local device * * @returns the 64bit address of the local device */ uint64_t get_addr64() const; /** get_addr16 - returns the 16bit address of the local device * * @returns the 16-bit address of the local device. */ uint16_t get_addr16() const; /** get_network_address - gets the 16bit network address of the device * * @param addr pointer where the device 16bit network address will be stored * @returns * Success if the operation was successful, * Failure otherwise */ RadioStatus get_network_address(uint16_t * const addr); /** hardware_reset - performs a hardware reset. The reset GPIO must have * been provided to the constructor * * @returns * Success if the operation was successful, * Failure otherwise */ RadioStatus hardware_reset(); /** software_reset - performs a firmware reset * * @returns * Success if the operation was successful, * Failure otherwise */ RadioStatus software_reset(); /** device_reset - performs a hardware reset if there is a GPIO connected to the * reset line of the device. Otherwise, performs a firmware reset. * * @returns * Success if the operation was successful, * Failure otherwise */ #if defined(UNIT_TEST) virtual #endif RadioStatus device_reset(); /** get_radio_type - returns the type of radio, in most cases the hardware version * * @returns the radio type */ RadioType get_radio_type() const; /** set_tx_options - sets the transmit options byte, used with the transmit frames. * Valid flags are: * - DISABLE_RETRIES_AND_ROUTE_REPAIR * - ENABLE_APS_ENCRYPTION * - USE_EXTENDED_TX_TIMEOUT * * @param options variable with the option flags */ void set_tx_options(uint8_t options); /** set_broadcast_radius - sets the max number of hops for a broadcast msg. * When set to 0 uses the maximum possible. * * @param bc_radius variable with the broadcast radious */ void set_broadcast_radius(uint8_t bc_radius); /** get_tx_options - returns the tx options byte configured in the library. * * @returns the tx options byte configured in the library. */ uint8_t get_tx_options() const; /** get_bc_radius - returns the broadcast radius configured in the library. * * @returns the broadcast radius configured in the library. */ uint8_t get_bc_radius() const; /************************ Configuration member methods *************************/ /** write_config - write settings to non volatile memory * * @returns * Success if the operation was successful, * Failure otherwise */ RadioStatus write_config(); /** config_io_sample_destination - configures to which node a remote module will send its IO Samples to. * @Note: this will modify 'remote' DH and DL parameters, if the remote node is configured in transparent mode this could lead to unwanted behavior. * Consult the module's reference manual for more information. * * @param remote remote device that will be sending the IO Samples * @param destination remote device that will be receiving the IO Samples sent by 'remote' * @returns the result of the data transfer * Success if the operation was successful, * Failure otherwise */ RadioStatus config_io_sample_destination(const RemoteXBee& remote, const RemoteXBee& destination); /** set_io_sample_rate - configures how often the IO Samples should be sent to the destination (see @ref send_io_sample_to). * * @param remote remote device that will be sending the IO Samples * @param seconds the IO Sample sending rate in seconds (granularity is of 1 millisecond). Maximum is 65.535 seconds. * @returns the result of the data transfer * Success if the operation was successful, * Failure otherwise */ RadioStatus set_io_sample_rate(const RemoteXBee& remote, float seconds); /** set_power_level - sets the power level at which the radio will transmit * * @param level power level at which the radio will transmit * @returns * Success if the operation was successful, * Failure otherwise */ RadioStatus set_power_level(uint8_t level); /** get_power_level - reads the power level configured in the radio * * @param level pointer where the read power level will be stored * @returns * Success if the operation was successful, * Failure otherwise */ RadioStatus get_power_level(uint8_t * const level); /** get_hw_version - gets the hardware version of the radio * * @returns the hardware version of the radio */ uint16_t get_hw_version() const; /** get_fw_version - gets the firmware version of the radio * * @returns the firmware version of the radio */ uint16_t get_fw_version() const; /** set_node_identifier - configures the Node Identifier string * * @param node_id NULL-terminated string with the Node Identifier that will be set on the module. Up to 20 characters length (21 with NULL-terminator). * @returns * Success if the operation was successful, * Failure otherwise */ RadioStatus set_node_identifier(const char * const node_id); /** get_node_identifier - reads the configured Node Identifier string * * @param node_id Pointer to where to store the read Node Identifier, it must point to a buffer with at least 21-bytes length. * @returns * Success if the operation was successful, * Failure otherwise */ RadioStatus get_node_identifier(char * const node_id); /** start_node_discovery - starts a node discovery operation. The responses * have to be processes on the callback function that have to be registered * for that purpose * * @returns * Success if the operation was successful, * Failure otherwise */ RadioStatus start_node_discovery(); #define XBEEZB_ND_OPTION_APPEND_DD (1 << 0) #define XBEEZB_ND_OPTION_SELF_RESPONSE (1 << 1) #define XBEE802_ND_OPTION_SELF_RESPONSE (1 << 0) /** config_node_discovery - configures the node discovery operation * * @param timeout_ms max allowed time for devices in the network to answer * to the Node Discovery request * @param options node discovery options (flags) * XBEE802_ND_OPTION_SELF_RESPONSE - to allow the module self responding (802.15.4 only) * XBEEZB_ND_OPTION_SELF_RESPONSE - to allow the module self responding (ZigBee only) * XBEEZB_ND_OPTION_APPEND_DD - to append the DD value to the response (ZigBee only) * @returns * Success if the operation was successful, * Failure otherwise */ RadioStatus config_node_discovery(uint16_t timeout_ms, uint8_t options = 0); /** get_config_node_discovery - reads the configuration of the node discovery * settings * * @param timeout_ms pointer where the node discovery time out value will be stored * @param options pointer whre the node discovery options (flags) will be saved * @returns * Success if the operation was successful, * Failure otherwise */ RadioStatus get_config_node_discovery(uint16_t * const timeout_ms, uint8_t * const options); /** set_timeout - sets the timeout in ms, used by sync methods * * @param timeout_ms new timeout in ms */ void set_timeout(uint16_t timeout_ms); /** get_timeout - gets the timeout in ms configured in the library. This value * is used in sync commands * * @returns the configured timeout value in ms */ uint16_t get_timeout() const; /* ... */ /*********************** send_data member methods ************************/ /** send_data - sends data to a remote device waiting for the packet * answer with the result of the operation * * @param remote remote device * @param data pointer to the data that will be sent * @param len number of bytes that will be transmitted * @returns the result of the data transfer * TxStatusSuccess if the operation was successful, * the error code otherwise */ virtual TxStatus send_data(const RemoteXBee& remote, const uint8_t *const data, uint16_t len) = 0; /** send_data_broadcast - sends data to all devices in the network, using the * broadcast address. The method waits for the packet * answer with the result of the operation * * @param data pointer to the data that will be sent * @param len number of bytes that will be transmitted * @returns the result of the data transfer * TxStatusSuccess if the operation was successful, * the error code otherwise */ TxStatus send_data_broadcast(const uint8_t *const data, uint16_t len); /** set_param - sets a parameter in the local radio by sending an AT command and waiting for the response. * * @param param parameter to be set. * @param data the parameter value (4 bytes) to be set. * @returns the command response status. */ AtCmdFrame::AtCmdResp set_param(const char * const param, uint32_t data); /** set_param - sets a parameter in the local radio by sending an AT command and waiting for the response. * * @param param parameter to be set. * @param data the parameter value byte array (len bytes) to be set. * @param len number of bytes of the parameter value. * @returns the command response status. */ AtCmdFrame::AtCmdResp set_param(const char * const param, const uint8_t * data = NULL, uint16_t len = 0); /** get_param - gets a parameter from the local radio by sending an AT command and waiting for the response. * * @param param parameter to be get. * @param data pointer where the param value (4 bytes) will be stored. * @returns the command response status. */ AtCmdFrame::AtCmdResp get_param(const char * const param, uint32_t * const data); /** get_param - gets a parameter from the local radio by sending an AT command and waiting for the response. * * @param param parameter to be get. * @param data pointer where the param value (n bytes) will be stored. * @param len pointer where the number of bytes of the param value will be stored. * @returns the command response status. */ AtCmdFrame::AtCmdResp get_param(const char * const param, uint8_t * const data, uint16_t * const len); /** set_param - sets a parameter in a remote radio by sending an AT command and waiting for the response. * * @param remote remote device * @param param parameter to be set. * @param data the parameter value (4 bytes) to be set. * @returns the command response status. */ virtual AtCmdFrame::AtCmdResp set_param(const RemoteXBee& remote, const char * const param, uint32_t data) = 0; /** set_param - sets a parameter in a remote radio by sending an AT command and waiting for the response. * * @param remote remote device * @param param parameter to be set. * @param data the parameter value byte array (len bytes) to be set. * @param len number of bytes of the parameter value. * @returns the command response status. */ virtual AtCmdFrame::AtCmdResp set_param(const RemoteXBee& remote, const char * const param, const uint8_t * data = NULL, uint16_t len = 0) = 0; /** get_param - gets a parameter from a remote radio by sending an AT command and waiting for the response. * * @param remote remote device * @param param parameter to be get. * @param data pointer where the param value (4 bytes) will be stored. * @returns the command response status. */ virtual AtCmdFrame::AtCmdResp get_param(const RemoteXBee& remote, const char * const param, uint32_t * const data) = 0; /** get_param - gets a parameter from a remote radio by sending an AT command and waiting for the response. * * @param remote remote device * @param param parameter to be get. * @param data pointer where the param value (n bytes) will be stored. * @param len pointer where the number of bytes of the param value will be stored. * @returns the command response status. */ virtual AtCmdFrame::AtCmdResp get_param(const RemoteXBee& remote, const char * const param, uint8_t * const data, uint16_t * const len) = 0; #if defined(ENABLE_PM_SUPPORT) /** set_pm_control - sets the operational mode of the Power Management on * the radio and registers the GPIOs used to handle the * Power Management * * @param mode operational mode of the power management * @param on_sleep pin used to detect the on/sleep status of the module * @param sleep_rq pin used to request the module to go to sleep (when pin * sleep mode is used * @returns the result of the configuration operation * Success if the operation was successful, * Failure otherwise */ RadioStatus set_pm_control(PmMode mode, PinName on_sleep = NC, PinName sleep_rq = NC); /** get_pm_mode - gets the power management mode programmed in the radio. * * @param mode pointer where the read mode will be stored. * @returns the result of the configuration operation * Success if the operation was successful, * Failure otherwise */ RadioStatus get_pm_mode(PmMode *mode); /** config_pm_timing - configures the power management timing parameters. * * @param before_sleep_ms number of miliseconds of inactivity before the radio will * automatically go to sleep again (when using cyclic sleep). * @param total_sleep_period_ms time interval in ms the radio will be sleeping. Once * this time passes, the radio will wakeup, will check for * packets and will wait before_sleep_ms of inactivity * before entering again in sleep mode. * @returns the result of the configuration operation * Success if the operation was successful, * Failure otherwise */ RadioStatus config_pm_timing(uint32_t before_sleep_ms, uint32_t total_sleep_period_ms); /** enter_sleep_mode - sets the radio into low power mode. If the pm working mode * is pin-sleep, then it will use the GPIO, otherwise, it will * use the serial interface. * * @note the method does not wait until the radio enters in sleep mode, it returns * without making any verification. * @returns the result of the operation * Success if the operation was successful, * Failure otherwise */ RadioStatus enter_sleep_mode(); /** exit_sleep_mode - for the pm mode called pin-sleep, sets the radio into active power * using the corresponding GPIO. * */ void exit_sleep_mode(); /** is_sleeping - checks if the radio is sleeping or if its active. * * @returns true if the radio is sleeping, false otherwisw */ bool is_sleeping(); /** register_wakeup_cb - registers the callback function that will be called * when the radio wakes up from sleep mode. * * @param f function pointer with the callback function */ void register_wakeup_cb(void (*f)(void)); /** unregister_wakeup_cb - removes the wakeup callback */ void unregister_wakeup_cb(); #endif /* defined(ENABLE_PM_SUPPORT) */ /** process_rx_frames - method that process the frames queued in the reception * buffer. Calls the process_frame_data method of the frame * handlers registered * * @returns Number of dropped frames since latest call to this method. */ uint32_t process_rx_frames(); /** register_modem_status_cb - registers the callback function that will be called * when a Modem Status packet is received * * @param function function pointer with the callback function */ void register_modem_status_cb(modem_status_cb_t function); /** unregister_modem_status_cb - removes the Modem Status reception callback */ void unregister_modem_status_cb(); protected: enum RadioProtocol { None, ZigBee, Raw_802_15_4, #ifdef EXTRA_XBEE_PROTOCOLS XBeeWiFi, DigiMesh, SmartEnergy, DigiPoint, ZNet, #endif }; /** send_byte_escaping_if - sends a byte, through the serial interface, to * the radio, escaping the byte if the working mode of the radio is API2. * * @param line PWM line being set * @param data the byte that will be send to radio */ void send_byte_escaping_if(uint8_t data); /** uart_read_cb - serial interface callback, called when data is received on * the serial port. The function parses the incoming data and, when a good * frame is detected, saves it in the frame list */ void uart_read_cb(); /** get_this_api_frame - searches in the FrameBuffer for an incoming frame * with frameid equal to id and frame type equal to type * or type2. If after timeout the frame hast not been found, * returns. * * @param id id of the frame we are looking for. * @param type tye type we expect the frame to be. * @param type2 alternative valid type, if provided. * @returns a pointer to the frame found in the FrameBuffer or a null pointer if * the frame has not been found and the timeout expired. */ ApiFrame * get_this_api_frame(uint8_t id, ApiFrame::ApiFrameType type, ApiFrame::ApiFrameType type2 = ApiFrame::Invalid); /** send_api_frame - method to send, over the serial port, an API frame * * @param frame pointer to the frame that will be sent. */ #if defined(UNIT_TEST) virtual #endif void send_api_frame(ApiFrame *frame); /** update_radio_status - method called when a modem status frame is received * to update the internal status variables of the library. * @note This is not a pure virtual function because it can be called while * the object is being constructed and we need the implementation of the * base class. * * @param status byte with the status received in the modem status frame */ virtual void radio_status_update(AtCmdFrame::ModemStatus modem_status); /** Method used internaly by the derived classes to transmit data to * remote nodes, waiting for the answer from the device * * @param frame frame that will be sent to the radio (have to be a * proper transmit frame * @returns the result of the data transfer * TxStatusSuccess if the operation was successful, * the error code otherwise */ TxStatus send_data(ApiFrame *frame); /** send_at_cmd - sends an AT command to the radio and waits for the response. * * @param frame api frame with the command and command params. * @param buf pointer where the param response (n bytes) will be stored. * @param len pointer where the number of bytes of the param response will be stored. * @param radio_location radio location, either RadioLocal or RadioRemote. * @param reverse reverse the byte ordering of the response saved in buf. * @returns the command response status. */ AtCmdFrame::AtCmdResp send_at_cmd(AtCmdFrame *frame, uint8_t *const buf, uint16_t *const len, RadioLocation radio_location = RadioLocal, bool reverse = true); /* send_at_cmd - methods used internally by other methods */ AtCmdFrame::AtCmdResp send_at_cmd(AtCmdFrame *frame); AtCmdFrame::AtCmdResp send_at_cmd(AtCmdFrame *frame, uint8_t *data); AtCmdFrame::AtCmdResp send_at_cmd(AtCmdFrame *frame, uint16_t *data); AtCmdFrame::AtCmdResp send_at_cmd(AtCmdFrame *frame, uint32_t *data); #if defined(ENABLE_PM_SUPPORT) /** Sets the radio into low power mode. This method is used by enter_sleep_mode() */ RadioStatus sleep_now(); #endif /* defined(ENABLE_PM_SUPPORT) */ /** register_frame_handler - registers an object to handle incoming frames from * the radio. * @note For any type of frame more than one handler can be registered and all * of them are called, sequentially, when a frame of that type arrives. * * @param handler pointer to the frame handler object * @returns the result of the registration * Success if the operation was successful, * Failure otherwise */ RadioStatus register_frame_handler(FrameHandler *const handler); /** unregister_frame_handler - removes a previously registered frame handler * * @param handler pointer to the frame handler object * @returns the result of the unregister operation * Success if the operation was successful, * Failure otherwise */ RadioStatus unregister_frame_handler(FrameHandler *const handler); /** get_radio_protocol - returns the RF protocol that the connected module uses * based on its firmware and hardware versions * * @returns a RadioProtocol enum. */ RadioProtocol get_radio_protocol(void) const; /** get_iosample - forces an io_sample read (reads all digital and analog inputs) * * @param remote remote device * @param io_sample buffer where the io_sample response is copied * @param len pointer where the length of the io_sample response is stored * @returns * Success if the operation was successful, * Failure otherwise */ RadioStatus get_iosample(const RemoteXBee& remote, uint8_t * const io_sample, uint16_t * const len); void _get_remote_node_by_id(const char * const node_id, uint64_t * addr64, uint16_t * addr16); /** check_radio_flow_control - checks that the radio has the CTS "D7" and RTS "D6" pins configured * according to the serial hardware flow control selected by the user * * @returns true if check success. */ bool check_radio_flow_control(); /** serial hardware flow control selected by the user (RTSCTS, RTS,CTS) */ SerialBase::Flow _serial_flow_type; /** Operating mode of the module (API1, API2,...) */ RadioMode _mode; /** Type of radio, mainly the hardware version, but may differ in some cases */ RadioType _type; /** Hardware version value of the radio */ uint16_t _hw_version; /** Firmware version value of the radio */ uint16_t _fw_version; /** Timeout in ms for sync operations (when we wait for a response) */ uint16_t _timeout_ms; /** Device 64 bit address (SH, SL) */ uint64_t _dev_addr64; /** Device 16 bit address (MY) */ uint16_t _dev_addr16; /** Serial Interface, use RawSerial as we dont use the streams */ RawSerial *_uart; /** IO connected to the radio reset line */ DigitalOut *_reset; /** Transmit options byte */ uint8_t _tx_options; /** Broadcast radius, number of hops a broadcast transmission can occur. * When set to 0 it will use the maximum */ uint8_t _bc_radius; /** Array of frame handler pointers. We use an array instead of a vector or other * data structure to save memory and avoid dynamic memory allocation, to avoid * memory fragmentation */ FrameHandler *_fhandlers[MAX_FRAME_HANDLERS]; /** Hardware reset counter, automatically updated by the library */ volatile uint16_t _hw_reset_cnt; /** Watchdog reset counter, automatically updated by the library */ volatile uint16_t _wd_reset_cnt; uint16_t _reset_timeout; /** Frame handler used for the Modem Status packets. Automatically registered when a callback * function is registered */ FH_ModemStatus *_modem_status_handler; /** Latest modem status received */ AtCmdFrame::ModemStatus _modem_status; /** Library is initializing */ bool _initializing; #if defined(ENABLE_PM_SUPPORT) /* Power Management mode used by the radio */ PmMode _pm_mode; /** IO connected to the radio on_sleep line */ InterruptIn *_on_sleep; /** IO connected to the radio sleep_req line */ DigitalOut *_sleep_req; #endif }; } /* namespace XBeeLib */ #endif /* defined(__DIGI_RADIO_H_) */