CANopennode的CANopen.h文件怎么用

时间: 2024-04-27 13:19:55 浏览: 8
CANopennode是一个用于实现CANopen协议的开源软件库。CANopen.h是CANopennode库的头文件,其中包含了CANopen协议栈的各种数据结构和函数声明。要使用CANopen.h文件,你需要按照以下步骤进行操作: 1. 下载并安装CANopennode库。你可以从CANopennode的官方网站 (http://www.canopennode.org/) 下载最新版本的CANopennode库。 2. 将CANopen.h文件包含到你的代码中。在你的代码中添加以下语句: ``` #include "CANopen.h" ``` 3. 初始化CANopen协议栈。在你的代码中调用以下函数: ``` CO_ReturnError_t err = CO_init(); if(err != CO_ERROR_NO){ //错误处理代码 } ``` 4. 使用CANopen协议栈。通过调用CANopen.h文件中定义的函数,可以实现CANopen协议栈的各种功能。例如: ``` CO_NMT_sendCommand(CO->NMT, CO_NMT_ENTER_PRE_OPERATIONAL); ``` 以上是使用CANopen.h文件的基本步骤,具体使用方法可以参考CANopennode库的官方文档。
相关问题

CANopennode的canopen.h文件在哪

CANopennode的canopen.h文件一般位于CANopennode库的include目录下。在Linux系统中,可以使用以下命令查找canopen.h文件的位置: ``` sudo find / -name canopen.h ``` 在Windows系统中,可以在CANopennode库的安装目录下查找canopen.h文件。 如果你使用的是CANopennode的源码,可以在源码目录下的include目录中找到canopen.h文件。如果你使用的是预编译的库文件,则需要将库文件添加到Qt项目中,并在.pro文件中添加相关配置,例如: ``` INCLUDEPATH += /path/to/canopennode/include LIBS += /path/to/canopennode/libcanopennode.a ```

CANopennode的CANopen.h文件

以下是CANopennode中CANopen.h文件的代码,仅供参考: ```c /** * @file CANopen.h * @author CANopenNode, LLC * @version 4.0.0 * @date 25 Feb 2021 * @brief Header file for CANopenNode stack. * * This file contains all definitions and declarations for the CANopenNode * stack that are relevant for the application. The data types and function * prototypes defined here must be used in the user application code. * * @copyright Copyright (c) CANopenNode, LLC * @defgroup CO_CANopen CANopen * @{ */ #ifndef CO_CANOPEN_H #define CO_CANOPEN_H #ifdef __cplusplus extern "C" { #endif /* Includes ------------------------------------------------------------------*/ #include <stdint.h> #include <stdbool.h> #include <stddef.h> /* Exported defines ----------------------------------------------------------*/ /** * Macros for standard data types. * * Macros for data types defined in stdint.h and stdbool.h. These macros should * be used in the application code instead of direct use of the types. * * @ingroup CO_CANopen_301 * @{ */ #ifndef NULL #define NULL ((void*) 0) #endif #define int8_t int8_t #define uint8_t uint8_t #define int16_t int16_t #define uint16_t uint16_t #define int32_t int32_t #define uint32_t uint32_t #define bool_t bool #define true true #define false false /** @} */ /* Exported types ------------------------------------------------------------*/ /** CAN message structure as in CAN hardware. */ typedef struct { uint16_t ident; /**< 11-bit identifier, bits 10..0 are used. */ uint8_t DLC; /**< Data length code: 0..8. */ uint8_t data[8];/**< Data field. Bytes 0..7 are used. */ } CO_CANrxMsg_t; /** CAN transmit message structure. */ typedef struct { uint16_t ident; /**< 11-bit identifier, bits 10..0 are used. */ bool_t rtr; /**< RTR (Remote transmission request). */ bool_t ext; /**< EXT (Extended identifier, 29-bit). */ uint8_t DLC; /**< Data length code: 0..8. */ uint8_t data[8];/**< Data field. Bytes 0..7 are used. */ } CO_CANtx_t; /** * CAN message reception callback function. * * Function is called, when new message is received and passed to the CANopenNode. * * @param[in] msg Received message with necessary informations. */ typedef void (*CO_CANrx_callback_t)(const CO_CANrxMsg_t *msg); /** * CANopen receive message structure. * * Object is storage for received CAN message and additional informations. */ typedef struct { const uint16_t ident; /**< Standard CAN Identifier or Extended CAN Identifier. */ const uint16_t mask; /**< Mask, to determine which bits of the identifier are significant. */ CO_CANrx_callback_t pCANrx_callback; /**< Pointer to function, which will be called, when CAN message with specified identifier will be received. */ } CO_CANrx_t; /** CANopen object with static configuration. */ typedef const struct { const uint16_t index; /**< Index of object in Object Dictionary. */ const uint8_t subIndex;/**< Subindex of object in Object Dictionary. */ const uint8_t attribute;/**< Attribute of Object Dictionary entry. */ const uint32_t length; /**< Data length in bytes. */ void* const pData; /**< Pointer to data. */ const CO_CANrx_callback_t pFunct; /**< Pointer to function, which will be called on RPDO reception. */ } CO_ObjDict_t; /* Exported variables --------------------------------------------------------*/ /* Exported functions ------------------------------------------------------- */ /** * Initialize CANopenNode stack. * * Function must be called in the communication reset section. * * Function configures: * - data storage for CANopen objects * - LSS slave * - LSS master * - SDO server * - SDO client * - Emergency object * - Heartbeat consumer * - NMT object * - Time object * - SYNC objects * - RPDO objects and corresponding CAN reception filters * - TPDO objects and corresponding CAN transmission functions * - SDO server objects and corresponding CAN reception filters and CAN transmission functions * * Function must be called before any other CANopenNode function. * * @param[out] ppData Pointer to pointer to data memory for CANopen objects. * If *ppData==NULL, memory for CANopen objects will be * allocated. If *ppData!=NULL, memory must be * statically allocated by application and available * during whole lifetime of the CANopenNode. * Pointer ppData is pointing to the first free byte * after the allocated memory. * @param[in] nodeId CANopen Node ID. * @param[in] bitRate CAN bit-rate. * @param[in] CANrx_callback Pointer to function, which will be called, when CAN * message with appropriate identifier is received. * It can be NULL. * * @return 0: Operation completed successfully. * @return -1: Error in function parameters. * @return -2: Error: CO_LSSslave_init() failed. * @return -3: Error: CO_SDOserver_init() failed. * @return -4: Error: CO_EM_init() failed. * @return -5: Error: CO_NMT_init() failed. * @return -6: Error: CO_HBconsumer_init() failed. * @return -7: Error: CO_TIME_init() failed. * @return -8: Error: CO_SYNC_init() failed. * @return -9: Error: CO_RPDO_init() failed. * @return -10: Error: CO_TPDO_init() failed. */ int16_t CO_init( uint8_t** const ppData, const uint8_t nodeId, const uint16_t bitRate, CO_CANrx_callback_t CANrx_callback); /** * CAN receive function. * * Function must be called, when CAN message is received. * For every received message, function will try to find appropriate * CO_CANrx_t object (with CO_CANrx_t.ident equal to CAN identifier (msg->ident & CO_CANrx_t.mask). * * For more information see file CO_CAN.c * * @param[in] CANrxMsg Pointer to received message. * @return 0: Operation completed successfully. * @return -1: Error: Received message is NULL. * @return -2: Error: No message received. * @return -3: Error: Message received, but not processed. */ int16_t CO_CANrxBufferProcess(CO_CANrxMsg_t* const CANrxMsg); /** * CAN send function. * * For more information see file CO_CAN.c * * @param[in] COB_ID CAN identifier. * @param[in] len Length of CAN message in bytes (0 to 8). * @param[in] data Pointer to CAN message data bytes. * @param[in] rtr Request for transmission. If true, then this is only request for transmission, * no data are sent (length and data pointer are ignored). * @return 0: Operation completed successfully. * @return -1: Error: Wrong arguments. * @return -2: Error: Previous message is still waiting for buffer. * @return -3: Error: Timeout in transmission of CAN message. */ int16_t CO_CANsend( const uint16_t COB_ID, const uint8_t len, const uint8_t* const data, const bool_t rtr); /** * Calculate CAN bit-timing values from register values. * * Function calculates values for CAN bit timing register and optionally for * CAN controller bit rate prescaler. * * For more information see file CO_driver.c * * @param[in] brp CAN controller bit rate prescaler. * @param[in] tseg1 Time segment 1 (0 to 15). * @param[in] tseg2 Time segment 2 (0 to 7). * @param[in] sjw Resynchronization jump width (0 to 3). * @param[out] pSyncTimeMicroseconds Synchronization time in micro seconds. * @param[out] pBitRatePrescaler Bit rate prescaler. * @return 0: Operation completed successfully. * @return -1: Error: Wrong arguments. */ int16_t CO_CANbitRateCalc( const uint16_t brp, const uint8_t tseg1, const uint8_t tseg2, const uint8_t sjw, uint32_t * const pSyncTimeMicroseconds, uint16_t * const pBitRatePrescaler); #ifdef __cplusplus } #endif /* __cplusplus */ #endif /* CO_CANOPEN_H */ /** * @} */ /* ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ */ /* ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ */ /* ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ */ /** * @defgroup CO_CANopen_301 CANopen 3.0.1 stack implementation * * CANopen 3.0.1 stack implementation. File CO_ODinterface.h is not included * here and must be included separately. * * @todo CO_CANrxMsg_t is not used anymore. Remove it in future. * * @defgroup CO_CANopen_301_Macros Macros * @ingroup CO_CANopen_301 * @{ * CANopen error codes * ------------------- * 0x00000000 - no error * 0x05030000 - toggle bit not alternated * 0x05040000 - SDO protocol timed out * 0x05040001 - SDO protocol bad initial value * 0x05040002 - SDO protocol bad object dictionary address * 0x05040003 - SDO protocol bad data type * 0x05040004 - SDO protocol bad data size * 0x05040005 - SDO protocol bad data value * 0x06010000 - Object dictionary not found * 0x06010001 - Object cannot be mapped to the PDO * 0x06010002 - PDO length exceeded * 0x06020000 - Object does not exist in the object dictionary * 0x06040041 - Object cannot be mapped to the PDO * 0x06040042 - the number and length of the objects to be mapped would exceed PDO length * 0x06060000 - Access failed due to an hardware error * 0x06070010 - Data type does not match, length of service parameter does not match * 0x06070012 - Data type does not match, length of service parameter too high * 0x06070013 - Data type does not match, length of service parameter too low * 0x06090011 - Subindex does not exist * 0x06090030 - Value range of parameter exceeded (only for write access) * 0x06090031 - Value of parameter written too high * 0x06090032 - Value of parameter written too low * 0x06090036 - Maximum value is less than minimum value * 0x08000000 - General error * 0x08000020 - Data cannot be transferred or stored to the application * 0x08000021 - Data cannot be transferred or stored to the application because of local control * 0x08000022 - Data cannot be transferred or stored to the application because of the present device state * 0x08000023 - Object dictionary dynamic generation fails or no object dictionary is present (e.g. object dictionary is generated from file and generation fails because of an file error) * 0x08000024 - No data available * 0x08000025 - General error in the device * 0x08000026 - Data cannot be transferred or stored to the application because of some dependency * 0x08000027 - General error reason in the device * 0x08000028 - Service is not available * 0x08000029 - Attribute not supported * 0x0800002A - The value of the parameter written exceeds the range of values that can be written * 0x0800002B - Data cannot be transferred or stored to the application because of local control, specific application needed * 0x0800002C - Data cannot be transferred or stored to the application because of the present device state, specific application needed * 0x0800002D - Object dictionary not present, specific application needed * 0x0800002E - No data available, specific application needed * 0x0800002F - Data cannot be transferred or stored to the application because of some dependency, specific application needed * 0x08000030 - Service is not available, specific application needed * 0x08000031 - Attribute not supported, specific application needed * 0x0F004000 - Unexpected SYNC data length * 0x0F004001 - SYNC timeout * 0x0F004002 - Unexpected SYNC data * 0x0F004003 - Heartbeat consumer timeout * 0x0F004004 - PDO not processed due to length error * 0x0F004005 - PDO length exceeded * 0x0F004006 - DAM MPDO not processed, destination object not available * 0x0F004007 - Unexpected emergency object * 0x0F004008 - Error in error register * 0x0F004009 - Additional functions not available * 0x0F00400A - Parameter incompatibility (configuration or mode) * 0x0F00400B - CANopen service not supported * 0x0F00400C - CANopen invalid state transition * 0x0F00400D - CAN frame received is wrong * 0x0F00400E - PDO not processed, communication object not available * 0x0F00400F - PDO length exceeded * 0x0F004010 - Data type of service parameter does not match * 0x0F004011 - Data type of service parameter is not implemented

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