Merge branch 'User_code' of github.com:goldenfishs/MRobot into User_code

This commit is contained in:
yxming66 2026-01-01 23:09:36 +08:00
commit 6933dce729
100 changed files with 2168 additions and 6 deletions

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.DS_Store vendored

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uart,请开启uart的dma和中断 uart,请开启uart的dma和中断
can,请开启can中断使用函数前请确保can已经初始化。一定要开启can发送中断 can,请开启can中断使用函数前请确保can已经初始化。一定要开启can发送中断
fdcan,请开启fdcan中断支持经典CAN和FDCAN模式。会自动根据IOC配置生成对应的宏定义。
gpio,会自动读取cubemx中配置为gpio的引脚并自动区分输入输出和中断。 gpio,会自动读取cubemx中配置为gpio的引脚并自动区分输入输出和中断。
spi,请开启spi的dma和中断 spi,请开启spi的dma和中断
i2c,要求开始spi中断 i2c,要求开始spi中断
@ -8,4 +9,4 @@ time,获取时间戳函数需要开启freerots
dwt,需要开启dwt获取时间 dwt,需要开启dwt获取时间
i2c,请开启i2c的dma和中断 i2c,请开启i2c的dma和中断
pwm,用于选择那些勇于输出pwm pwm,用于选择那些勇于输出pwm
flash,自动识别MCU型号并配置Flash支持STM32F1(Page)/F4(Sector)/H7(Sector)自动处理单Bank/双Bank配置

1 uart 请开启uart的dma和中断
2 can 请开启can中断,使用函数前请确保can已经初始化。一定要开启can发送中断!!!
3 fdcan 请开启fdcan中断,支持经典CAN和FDCAN模式。会自动根据IOC配置生成对应的宏定义。
4 gpio 会自动读取cubemx中配置为gpio的引脚,并自动区分输入输出和中断。
5 spi 请开启spi的dma和中断
6 i2c 要求开始spi中断
9 dwt 需要开启dwt,获取时间
10 i2c 请开启i2c的dma和中断
11 pwm 用于选择那些勇于输出pwm
12 flash 自动识别MCU型号并配置Flash,支持STM32F1(Page)/F4(Sector)/H7(Sector),自动处理单Bank/双Bank配置

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bsp/fdcan/fdcan.c Normal file
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/* Includes ----------------------------------------------------------------- */
#include "fdcan.h"
#include "bsp/fdcan.h"
#include "bsp/bsp.h"
#include <fdcan.h>
#include <cmsis_os2.h>
#include <string.h>
/* Private define ----------------------------------------------------------- */
#define FDCAN_QUEUE_MUTEX_TIMEOUT 100
/* Private macro ------------------------------------------------------------ */
/* ===== FDCAN_FilterTypeDef 配置表 =====
* FDCAN实例的过滤器参数表
*
* idx idtype ftype id1 id2 rxidx
* ID1 ID2
*/
#ifdef FDCAN1_EN
#define FDCAN1_FILTER_CONFIG_TABLE(X) \
X(0, FDCAN_STANDARD_ID, FDCAN_FILTER_MASK, 0x000 , 0x000 , 0) \
X(1, FDCAN_EXTENDED_ID, FDCAN_FILTER_MASK, 0x00000000, 0x00000000, 0)
#define FDCAN1_GLOBAL_FILTER FDCAN_REJECT, FDCAN_REJECT, FDCAN_FILTER_REMOTE, FDCAN_FILTER_REMOTE/* 全局过滤器参数(用于 HAL_FDCAN_ConfigGlobalFilter */
#endif
#ifdef FDCAN2_EN
#define FDCAN2_FILTER_CONFIG_TABLE(X) \
X(0, FDCAN_STANDARD_ID, FDCAN_FILTER_MASK, 0x000 , 0x000 , 0) \
X(1, FDCAN_EXTENDED_ID, FDCAN_FILTER_MASK, 0x00000000, 0x00000000, 0)
#define FDCAN2_GLOBAL_FILTER FDCAN_REJECT, FDCAN_REJECT, FDCAN_FILTER_REMOTE, FDCAN_FILTER_REMOTE/* 全局过滤器参数(用于 HAL_FDCAN_ConfigGlobalFilter */
#endif
#ifdef FDCAN3_EN
#define FDCAN3_FILTER_CONFIG_TABLE(X) \
X(0, FDCAN_STANDARD_ID, FDCAN_FILTER_MASK, 0x000 , 0x000 , 0) \
X(1, FDCAN_EXTENDED_ID, FDCAN_FILTER_MASK, 0x00000000, 0x00000000, 0)
#define FDCAN3_GLOBAL_FILTER FDCAN_REJECT, FDCAN_REJECT, FDCAN_FILTER_REMOTE, FDCAN_FILTER_REMOTE/* 全局过滤器参数(用于 HAL_FDCAN_ConfigGlobalFilter */
#endif
/* ====宏展开实现==== */
#define FDCAN_FILTER_TO_RXFIFO_ENUM_INNER(FIFOIndex) FDCAN_FILTER_TO_RXFIFO##FIFOIndex
#define FDCAN_FILTER_TO_RXFIFO_ENUM(FIFOIndex) FDCAN_FILTER_TO_RXFIFO_ENUM_INNER(FIFOIndex)
#define FDCAN_CONFIG_FILTER(idx, idtype, ftype, id1, id2, rxidx) \
sFilterConfig.FilterIndex = (idx); \
sFilterConfig.IdType = (idtype); \
sFilterConfig.FilterType = (ftype); \
sFilterConfig.FilterConfig = (FDCAN_FILTER_TO_RXFIFO_ENUM(FDCANX_RX_FIFO)); \
sFilterConfig.FilterID1 = (id1); \
sFilterConfig.FilterID2 = (id2); \
sFilterConfig.RxBufferIndex = (rxidx); \
HAL_FDCAN_ConfigFilter(&hfdcan, &sFilterConfig);
#define FDCAN_NOTIFY_FLAG_RXFIFO_INNER(FIFO_IDX) FDCAN_IT_RX_FIFO##FIFO_IDX##_NEW_MESSAGE
#define FDCAN_NOTIFY_FLAG_RXFIFO(FIFO_IDX) FDCAN_NOTIFY_FLAG_RXFIFO_INNER(FIFO_IDX)
#define FDCANx_NOTIFY_FLAGS(FIFO_MACRO) (FDCAN_NOTIFY_FLAG_RXFIFO(FIFO_MACRO) | FDCAN_IT_TX_EVT_FIFO_NEW_DATA | FDCAN_IT_RAM_ACCESS_FAILURE)
#define FDCANX_MSG_PENDING_CB_INNER(FIFO_IDX) HAL_FDCAN_RX_FIFO##FIFO_IDX##_MSG_PENDING_CB
#define FDCANX_MSG_PENDING_CB(FIFO_IDX) FDCANX_MSG_PENDING_CB_INNER(FIFO_IDX)
/* Private typedef ---------------------------------------------------------- */
typedef struct BSP_FDCAN_QueueNode {
BSP_FDCAN_t fdcan;
uint32_t can_id;
osMessageQueueId_t queue;
uint8_t queue_size;
struct BSP_FDCAN_QueueNode *next;
} BSP_FDCAN_QueueNode_t;
/* Private variables -------------------------------------------------------- */
static BSP_FDCAN_QueueNode_t *queue_list = NULL;
static osMutexId_t queue_mutex = NULL;
static void (*FDCAN_Callback[BSP_FDCAN_NUM][HAL_FDCAN_CB_NUM])(void);
static bool inited = false;
static BSP_FDCAN_IdParser_t id_parser = NULL;
static BSP_FDCAN_TxQueue_t tx_queues[BSP_FDCAN_NUM];
static const uint8_t fdcan_dlc2len[16] = {0,1,2,3,4,5,6,7,8,12,16,20,24,32,48,64};
/* Private function prototypes ---------------------------------------------- */
static BSP_FDCAN_t FDCAN_Get(FDCAN_HandleTypeDef *hfdcan);
static osMessageQueueId_t BSP_FDCAN_FindQueue(BSP_FDCAN_t fdcan, uint32_t can_id);
static int8_t BSP_FDCAN_CreateIdQueue(BSP_FDCAN_t fdcan, uint32_t can_id, uint8_t queue_size);
static void BSP_FDCAN_RxFifo0Callback(void);
static void BSP_FDCAN_RxFifo1Callback(void);
static void BSP_FDCAN_TxCompleteCallback(void);
static BSP_FDCAN_FrameType_t BSP_FDCAN_GetFrameType(FDCAN_RxHeaderTypeDef *header);
static uint32_t BSP_FDCAN_DefaultIdParser(uint32_t original_id, BSP_FDCAN_FrameType_t frame_type);
static void BSP_FDCAN_TxQueueInit(BSP_FDCAN_t fdcan);
static bool BSP_FDCAN_TxQueuePush(BSP_FDCAN_t fdcan, BSP_FDCAN_TxMessage_t *msg);
static bool BSP_FDCAN_TxQueuePop(BSP_FDCAN_t fdcan, BSP_FDCAN_TxMessage_t *msg);
static bool BSP_FDCAN_TxQueueIsEmpty(BSP_FDCAN_t fdcan);
/* Private functions -------------------------------------------------------- */
static BSP_FDCAN_t FDCAN_Get(FDCAN_HandleTypeDef *hfdcan) {
if (hfdcan == NULL) return BSP_FDCAN_ERR;
if (hfdcan->Instance == FDCAN1) return BSP_FDCAN_1;
else if (hfdcan->Instance == FDCAN2) return BSP_FDCAN_2;
else if (hfdcan->Instance == FDCAN3) return BSP_FDCAN_3;
else return BSP_FDCAN_ERR;
}
static osMessageQueueId_t BSP_FDCAN_FindQueue(BSP_FDCAN_t fdcan, uint32_t can_id) {
BSP_FDCAN_QueueNode_t *node = queue_list;
while (node != NULL) {
if (node->fdcan == fdcan && node->can_id == can_id) return node->queue;
node = node->next;
}
return NULL;
}
static int8_t BSP_FDCAN_CreateIdQueue(BSP_FDCAN_t fdcan, uint32_t can_id, uint8_t queue_size) {
if (queue_size == 0) queue_size = BSP_FDCAN_DEFAULT_QUEUE_SIZE;
if (osMutexAcquire(queue_mutex, FDCAN_QUEUE_MUTEX_TIMEOUT) != osOK) return BSP_ERR_TIMEOUT;
BSP_FDCAN_QueueNode_t *node = queue_list;
while (node != NULL) {
if (node->fdcan == fdcan && node->can_id == can_id) {
osMutexRelease(queue_mutex);
return BSP_ERR;
}
node = node->next;
}
BSP_FDCAN_QueueNode_t *new_node = (BSP_FDCAN_QueueNode_t *)BSP_Malloc(sizeof(BSP_FDCAN_QueueNode_t));
if (new_node == NULL) { osMutexRelease(queue_mutex); return BSP_ERR_NULL; }
new_node->queue = osMessageQueueNew(queue_size, sizeof(BSP_FDCAN_Message_t), NULL);
if (new_node->queue == NULL) { BSP_Free(new_node); osMutexRelease(queue_mutex); return BSP_ERR; }
new_node->fdcan = fdcan;
new_node->can_id = can_id;
new_node->queue_size = queue_size;
new_node->next = queue_list;
queue_list = new_node;
osMutexRelease(queue_mutex);
return BSP_OK;
}
static BSP_FDCAN_FrameType_t BSP_FDCAN_GetFrameType(FDCAN_RxHeaderTypeDef *header) {
if (header->RxFrameType == FDCAN_REMOTE_FRAME) {
return (header->IdType == FDCAN_EXTENDED_ID) ? BSP_FDCAN_FRAME_EXT_REMOTE : BSP_FDCAN_FRAME_STD_REMOTE;
} else {
return (header->IdType == FDCAN_EXTENDED_ID) ? BSP_FDCAN_FRAME_EXT_DATA : BSP_FDCAN_FRAME_STD_DATA;
}
}
static uint32_t BSP_FDCAN_DefaultIdParser(uint32_t original_id, BSP_FDCAN_FrameType_t frame_type) {
(void)frame_type;
return original_id;
}
static uint32_t BSP_FDCAN_EncodeDLC(uint8_t dlc) {
if (dlc <= 8) return dlc;
if (dlc <= 12) return FDCAN_DLC_BYTES_12;
if (dlc <= 16) return FDCAN_DLC_BYTES_16;
if (dlc <= 20) return FDCAN_DLC_BYTES_20;
if (dlc <= 24) return FDCAN_DLC_BYTES_24;
if (dlc <= 32) return FDCAN_DLC_BYTES_32;
if (dlc <= 48) return FDCAN_DLC_BYTES_48;
return FDCAN_DLC_BYTES_64;
}
static void BSP_FDCAN_TxQueueInit(BSP_FDCAN_t fdcan) {
if (fdcan >= BSP_FDCAN_NUM) return;
tx_queues[fdcan].head = 0;
tx_queues[fdcan].tail = 0;
}
static bool BSP_FDCAN_TxQueuePush(BSP_FDCAN_t fdcan, BSP_FDCAN_TxMessage_t *msg) {
if (fdcan >= BSP_FDCAN_NUM || msg == NULL) return false;
BSP_FDCAN_TxQueue_t *queue = &tx_queues[fdcan];
uint32_t next_head = (queue->head + 1) % BSP_FDCAN_TX_QUEUE_SIZE;
if (next_head == queue->tail) return false;
queue->buffer[queue->head] = *msg;
queue->head = next_head;
return true;
}
static bool BSP_FDCAN_TxQueuePop(BSP_FDCAN_t fdcan, BSP_FDCAN_TxMessage_t *msg) {
if (fdcan >= BSP_FDCAN_NUM || msg == NULL) return false;
BSP_FDCAN_TxQueue_t *queue = &tx_queues[fdcan];
if (queue->head == queue->tail) return false;
*msg = queue->buffer[queue->tail];
queue->tail = (queue->tail + 1) % BSP_FDCAN_TX_QUEUE_SIZE;
return true;
}
static bool BSP_FDCAN_TxQueueIsEmpty(BSP_FDCAN_t fdcan) {
if (fdcan >= BSP_FDCAN_NUM) return true;
return tx_queues[fdcan].head == tx_queues[fdcan].tail;
}
static void BSP_FDCAN_TxCompleteCallback(void) {
for (int i = 0; i < BSP_FDCAN_NUM; i++) {
BSP_FDCAN_t fdcan = (BSP_FDCAN_t)i;
FDCAN_HandleTypeDef *hfdcan = BSP_FDCAN_GetHandle(fdcan);
if (hfdcan == NULL) continue;
// 消费所有 TX EVENT FIFO 事件,防止堵塞
FDCAN_TxEventFifoTypeDef tx_event;
while (HAL_FDCAN_GetTxEvent(hfdcan, &tx_event) == HAL_OK) {
// 可在此统计 MessageMarker、ID、时间戳等
}
// 续写软件队列到硬件 FIFO
BSP_FDCAN_TxMessage_t msg;
while (!BSP_FDCAN_TxQueueIsEmpty(fdcan)) {
if (HAL_FDCAN_GetTxFifoFreeLevel(hfdcan) == 0) break;
if (!BSP_FDCAN_TxQueuePop(fdcan, &msg)) break;
HAL_StatusTypeDef res = HAL_FDCAN_AddMessageToTxFifoQ(hfdcan, &msg.header, msg.data);
if (res != HAL_OK) {
break;
}
}
}
}
static void BSP_FDCAN_RxFifo0Callback(void) {
FDCAN_RxHeaderTypeDef rx_header;
uint8_t rx_data[BSP_FDCAN_MAX_DLC];
for (int fdcan_idx = 0; fdcan_idx < BSP_FDCAN_NUM; fdcan_idx++) {
FDCAN_HandleTypeDef *hfdcan = BSP_FDCAN_GetHandle((BSP_FDCAN_t)fdcan_idx);
if (hfdcan == NULL) continue;
while (HAL_FDCAN_GetRxFifoFillLevel(hfdcan, FDCAN_RX_FIFO0) > 0) {
if (HAL_FDCAN_GetRxMessage(hfdcan, FDCAN_RX_FIFO0, &rx_header, rx_data) == HAL_OK) {
uint32_t original_id = (rx_header.IdType == FDCAN_STANDARD_ID) ? rx_header.Identifier&0x7ff : rx_header.Identifier&0x1fffffff;
BSP_FDCAN_FrameType_t frame_type = BSP_FDCAN_GetFrameType(&rx_header);
uint32_t parsed_id = BSP_FDCAN_ParseId(original_id, frame_type);
osMessageQueueId_t queue = BSP_FDCAN_FindQueue((BSP_FDCAN_t)fdcan_idx, parsed_id);
if (queue != NULL) {
BSP_FDCAN_Message_t msg;
msg.frame_type = frame_type;
msg.original_id = original_id;
msg.parsed_id = parsed_id;
uint8_t real_len = fdcan_dlc2len[rx_header.DataLength & 0xF];
msg.dlc = real_len;
if (msg.dlc > BSP_FDCAN_MAX_DLC) msg.dlc = BSP_FDCAN_MAX_DLC;
memset(msg.data, 0, BSP_FDCAN_MAX_DLC);//现在是最大缓冲区写法所以全清零
memcpy(msg.data, rx_data, msg.dlc);
osMessageQueuePut(queue, &msg, 0, 0);
}
} else {
break;
}
}
}
}
static void BSP_FDCAN_RxFifo1Callback(void) {
FDCAN_RxHeaderTypeDef rx_header;
uint8_t rx_data[BSP_FDCAN_MAX_DLC];
for (int fdcan_idx = 0; fdcan_idx < BSP_FDCAN_NUM; fdcan_idx++) {
FDCAN_HandleTypeDef *hfdcan = BSP_FDCAN_GetHandle((BSP_FDCAN_t)fdcan_idx);
if (hfdcan == NULL) continue;
while (HAL_FDCAN_GetRxFifoFillLevel(hfdcan, FDCAN_RX_FIFO1) > 0) {
if (HAL_FDCAN_GetRxMessage(hfdcan, FDCAN_RX_FIFO1, &rx_header, rx_data) == HAL_OK) {
uint32_t original_id = (rx_header.IdType == FDCAN_STANDARD_ID) ? rx_header.Identifier&0x7ff : rx_header.Identifier&0x1fffffff;
BSP_FDCAN_FrameType_t frame_type = BSP_FDCAN_GetFrameType(&rx_header);
uint32_t parsed_id = BSP_FDCAN_ParseId(original_id, frame_type);
osMessageQueueId_t queue = BSP_FDCAN_FindQueue((BSP_FDCAN_t)fdcan_idx, parsed_id);
if (queue != NULL) {
BSP_FDCAN_Message_t msg;
msg.frame_type = frame_type;
msg.original_id = original_id;
msg.parsed_id = parsed_id;
uint8_t real_len = fdcan_dlc2len[rx_header.DataLength & 0xF];
msg.dlc = real_len;
if (msg.dlc > BSP_FDCAN_MAX_DLC) msg.dlc = BSP_FDCAN_MAX_DLC;
memset(msg.data, 0, BSP_FDCAN_MAX_DLC);//现在是最大缓冲区写法所以全清零
memcpy(msg.data, rx_data, msg.dlc);
osMessageQueuePut(queue, &msg, 0, 0);
}
} else {
break;
}
}
}
}
/* HAL Callback Stubs (map HAL FDCAN callbacks to user callbacks) */
void HAL_FDCAN_TxEventFifoCallback(FDCAN_HandleTypeDef *hfdcan, uint32_t TxEventFifoITs) {
BSP_FDCAN_t bsp_fdcan = FDCAN_Get(hfdcan);
if (bsp_fdcan != BSP_FDCAN_ERR) {
if (FDCAN_Callback[bsp_fdcan][HAL_FDCAN_TX_EVENT_FIFO_CB])
FDCAN_Callback[bsp_fdcan][HAL_FDCAN_TX_EVENT_FIFO_CB]();
}
}
void HAL_FDCAN_TxBufferCompleteCallback(FDCAN_HandleTypeDef *hfdcan, uint32_t BufferIndex) {
BSP_FDCAN_t bsp_fdcan = FDCAN_Get(hfdcan);
if (bsp_fdcan != BSP_FDCAN_ERR) {
if (FDCAN_Callback[bsp_fdcan][HAL_FDCAN_TX_BUFFER_COMPLETE_CB])
FDCAN_Callback[bsp_fdcan][HAL_FDCAN_TX_BUFFER_COMPLETE_CB]();
}
}
void HAL_FDCAN_TxBufferAbortCallback(FDCAN_HandleTypeDef *hfdcan, uint32_t BufferIndex) {
BSP_FDCAN_t bsp_fdcan = FDCAN_Get(hfdcan);
if (bsp_fdcan != BSP_FDCAN_ERR) {
if (FDCAN_Callback[bsp_fdcan][HAL_FDCAN_TX_BUFFER_ABORT_CB])
FDCAN_Callback[bsp_fdcan][HAL_FDCAN_TX_BUFFER_ABORT_CB]();
}
}
void HAL_FDCAN_RxFifo0Callback(FDCAN_HandleTypeDef *hfdcan, uint32_t RxFifo0ITs) {
BSP_FDCAN_t bsp_fdcan = FDCAN_Get(hfdcan);
if (bsp_fdcan != BSP_FDCAN_ERR) {
if (FDCAN_Callback[bsp_fdcan][HAL_FDCAN_RX_FIFO0_MSG_PENDING_CB])
FDCAN_Callback[bsp_fdcan][HAL_FDCAN_RX_FIFO0_MSG_PENDING_CB]();
}
}
void HAL_FDCAN_RxFifo1Callback(FDCAN_HandleTypeDef *hfdcan, uint32_t RxFifo1ITs) {
BSP_FDCAN_t bsp_fdcan = FDCAN_Get(hfdcan);
if (bsp_fdcan != BSP_FDCAN_ERR) {
if (FDCAN_Callback[bsp_fdcan][HAL_FDCAN_RX_FIFO1_MSG_PENDING_CB])
FDCAN_Callback[bsp_fdcan][HAL_FDCAN_RX_FIFO1_MSG_PENDING_CB]();
}
}
void HAL_FDCAN_ErrorCallback(FDCAN_HandleTypeDef *hfdcan) {
BSP_FDCAN_t bsp_fdcan = FDCAN_Get(hfdcan);
if (bsp_fdcan != BSP_FDCAN_ERR) {
if (FDCAN_Callback[bsp_fdcan][HAL_FDCAN_ERROR_CB])
FDCAN_Callback[bsp_fdcan][HAL_FDCAN_ERROR_CB]();
}
}
/* Exported functions ------------------------------------------------------- */
int8_t BSP_FDCAN_Init(void) {
if (inited) return BSP_ERR_INITED;
memset(FDCAN_Callback, 0, sizeof(FDCAN_Callback));
for (int i = 0; i < BSP_FDCAN_NUM; i++) BSP_FDCAN_TxQueueInit((BSP_FDCAN_t)i);
id_parser = BSP_FDCAN_DefaultIdParser;
queue_mutex = osMutexNew(NULL);
if (queue_mutex == NULL) return BSP_ERR;
inited = true;
/* 配置并启动 FDCAN 实例,绑定中断/回调 */
//========== 过滤器配置说明:==========================
// 过滤器编号相对于每个相当于经典can过滤器的bank
// sFilterConfig.FilterIndex = 0 to 127(标准ID) or 0 to 63(扩展ID);
// 关于过滤器索引的说明:
// 由stm32h7xx_hal_fdcan.c的第1874行代码可知滤波器地址计算方式如下
// StandardFilterSA字节 = SRAMCAN_BASE + (MessageRAMOffset * 4U)
// 标准滤波器物理地址(字节) = StandardFilterSA + (FilterIndex * 4U)(每个标准滤波器占 4 字节 = 1 word,扩展的则是8个字节
//
//
// 标识符类型:
// sFilterConfig.IdType = FDCAN_STANDARD_ID or FDCAN_EXTENDED_ID;
// 过滤器类型: (仅介绍掩码模式)
// sFilterConfig.FilterType = FDCAN_FILTER_MASK;(掩码模式)
// 过滤器配置:
// sFilterConfig.FilterConfig = FDCAN_FILTER_DISABLE; (禁用该过滤器条目)
// FDCAN_FILTER_TO_RXFIFO0; (将匹配的消息放入 FIFO 0普通优先级)
// FDCAN_FILTER_TO_RXFIFO1; (将匹配的消息放入 FIFO 1高优先级)
// FDCAN_FILTER_TO_RXBUFFER; (将匹配的消息放入 指定的接收缓冲区)
// FDCAN_FILTER_REJECT; (拒绝接收该标识符对应的报文)
// FDCAN_FILTER_ACCEPT; (接受所有消息)
// FDCAN_FILTER_HP (过滤器匹配时,将报文标记为高优先级)
// FDCAN_FILTER_TO_RXFIFO0_HP (过滤器匹配时将报文标记为高优先级并存储至接收FIFO 0)
// FDCAN_FILTER_TO_RXFIFO1_HP (过滤器匹配时将报文标记为高优先级并存储至接收FIFO 1)
// FDCAN_FILTER_TO_RXBUFFER (将报文存储至接收缓冲区过滤器类型FilterType配置项失效 )
// 过滤器ID与掩码(FilterType掩码模式下)
// 比较值(要匹配的 ID 的参考位)
// sFilterConfig.FilterID1 = 0 to 0x7FF; 标准ID
// 0 to 0x1FFFFFFF 扩展ID
// 掩码1=比较该位0=忽略该位)
// sFilterConfig.FilterID2 = 0 to 0x7FF; 标准ID
// 0 to 0x1FFFFFFF 扩展ID
// 接收缓冲区索引
// FilterConfig == FDCAN_FILTER_TO_RXBUFFER 时有效;必须小于RxBuffersNbr配置的实际Rx buffer数量
// sFilterConfig.RxBufferIndex = 0 to (RxBuffersNbr - 1);
// 标记校准信息(用于 FDCAN 校准/时钟相关单元作特殊处理或统计)
// 仅在FilterConfig 设为 FDCAN_FILTER_TO_RXBUFFER 时才有意义通常设置为0
// IsCalibrationMsg = 0 or 1;
// fdcan_filter_table.h
//=================================================================================
/* 依据上述说明配置过滤器并启动FDCAN */
FDCAN_FilterTypeDef sFilterConfig;
#ifdef FDCAN1_EN
#define hfdcan hfdcan1
#define FDCANX_RX_FIFO FDCAN1_RX_FIFO
FDCAN1_FILTER_CONFIG_TABLE(FDCAN_CONFIG_FILTER)
#undef hfdcan
#undef FDCANX_RX_FIFO
HAL_FDCAN_ConfigGlobalFilter(&hfdcan1, FDCAN1_GLOBAL_FILTER);
HAL_FDCAN_ActivateNotification(&hfdcan1, FDCANx_NOTIFY_FLAGS(FDCAN1_RX_FIFO), 0);
BSP_FDCAN_RegisterCallback(BSP_FDCAN_1, FDCANX_MSG_PENDING_CB(FDCAN1_RX_FIFO), BSP_FDCAN_RxFifo0Callback);
BSP_FDCAN_RegisterCallback(BSP_FDCAN_1, HAL_FDCAN_TX_EVENT_FIFO_CB, BSP_FDCAN_TxCompleteCallback);
HAL_FDCAN_Start(&hfdcan1);
#endif
#ifdef FDCAN2_EN
#define hfdcan hfdcan2
#define FDCANX_RX_FIFO FDCAN2_RX_FIFO
FDCAN2_FILTER_CONFIG_TABLE(FDCAN_CONFIG_FILTER)
#undef hfdcan
#undef FDCANX_RX_FIFO
HAL_FDCAN_ConfigGlobalFilter(&hfdcan2, FDCAN2_GLOBAL_FILTER);
HAL_FDCAN_ActivateNotification(&hfdcan2, FDCANx_NOTIFY_FLAGS(FDCAN2_RX_FIFO), 0);
BSP_FDCAN_RegisterCallback(BSP_FDCAN_2, FDCANX_MSG_PENDING_CB(FDCAN2_RX_FIFO), BSP_FDCAN_RxFifo1Callback);
BSP_FDCAN_RegisterCallback(BSP_FDCAN_2, HAL_FDCAN_TX_EVENT_FIFO_CB, BSP_FDCAN_TxCompleteCallback);
HAL_FDCAN_Start(&hfdcan2);
#endif
#ifdef FDCAN3_EN
#define hfdcan hfdcan3
#define FDCANX_RX_FIFO FDCAN3_RX_FIFO
FDCAN3_FILTER_CONFIG_TABLE(FDCAN_CONFIG_FILTER)
#undef hfdcan
#undef FDCANX_RX_FIFO
HAL_FDCAN_ConfigGlobalFilter(&hfdcan3, FDCAN3_GLOBAL_FILTER);
HAL_FDCAN_ActivateNotification(&hfdcan3, FDCANx_NOTIFY_FLAGS(FDCAN3_RX_FIFO), 0);
BSP_FDCAN_RegisterCallback(BSP_FDCAN_3, FDCANX_MSG_PENDING_CB(FDCAN3_RX_FIFO), BSP_FDCAN_RxFifo1Callback);
BSP_FDCAN_RegisterCallback(BSP_FDCAN_3, HAL_FDCAN_TX_EVENT_FIFO_CB, BSP_FDCAN_TxCompleteCallback);
HAL_FDCAN_Start(&hfdcan3);
#endif
#undef FDCAN_FILTER_TO_RXFIFO_ENUM_INNER
#undef FDCAN_FILTER_TO_RXFIFO_ENUM
#undef FDCAN_CONFIG_FILTER
#undef FDCAN_NOTIFY_FLAG_RXFIFO_INNER
#undef FDCAN_NOTIFY_FLAG_RXFIFO
#undef FDCANx_NOTIFY_FLAGS
#undef FDCANX_MSG_PENDING_CB_INNER
#undef FDCANX_MSG_PENDING_CB
return BSP_OK;
}
FDCAN_HandleTypeDef *BSP_FDCAN_GetHandle(BSP_FDCAN_t fdcan) {
if (fdcan >= BSP_FDCAN_NUM) return NULL;
switch (fdcan) {
/* AUTO GENERATED BSP_FDCAN_GET_HANDLE BEGIN */
case BSP_FDCAN_1: return &hfdcan1;
case BSP_FDCAN_2: return &hfdcan2;
case BSP_FDCAN_3: return &hfdcan3;
/* AUTO GENERATED BSP_FDCAN_GET_HANDLE END */
default: return NULL;
}
}
int8_t BSP_FDCAN_RegisterCallback(BSP_FDCAN_t fdcan, BSP_FDCAN_Callback_t type, void (*callback)(void)) {
if (!inited) return BSP_ERR_INITED;
if (callback == NULL) return BSP_ERR_NULL;
if (fdcan >= BSP_FDCAN_NUM) return BSP_ERR;
if (type >= HAL_FDCAN_CB_NUM) return BSP_ERR;
FDCAN_Callback[fdcan][type] = callback;
return BSP_OK;
}
int8_t BSP_FDCAN_Transmit(BSP_FDCAN_t fdcan, BSP_FDCAN_Format_t format, uint32_t id, uint8_t *data, uint8_t dlc) {
if (!inited) return BSP_ERR_INITED;
if (fdcan >= BSP_FDCAN_NUM) return BSP_ERR;
if (data == NULL && format != BSP_FDCAN_FORMAT_STD_REMOTE && format != BSP_FDCAN_FORMAT_EXT_REMOTE) return BSP_ERR_NULL;
if (dlc > BSP_FDCAN_MAX_DLC) return BSP_ERR;
FDCAN_HandleTypeDef *hfdcan = BSP_FDCAN_GetHandle(fdcan);
if (hfdcan == NULL) return BSP_ERR_NULL;
BSP_FDCAN_TxMessage_t tx_msg = {0};
switch (format) {
case BSP_FDCAN_FORMAT_STD_DATA:
tx_msg.header.Identifier = id;
tx_msg.header.IdType = FDCAN_STANDARD_ID;
tx_msg.header.TxFrameType = FDCAN_DATA_FRAME;
break;
case BSP_FDCAN_FORMAT_EXT_DATA:
tx_msg.header.Identifier = id;
tx_msg.header.IdType = FDCAN_EXTENDED_ID;
tx_msg.header.TxFrameType = FDCAN_DATA_FRAME;
break;
case BSP_FDCAN_FORMAT_STD_REMOTE:
tx_msg.header.Identifier = id;
tx_msg.header.IdType = FDCAN_STANDARD_ID;
tx_msg.header.TxFrameType = FDCAN_REMOTE_FRAME;
break;
case BSP_FDCAN_FORMAT_EXT_REMOTE:
tx_msg.header.Identifier = id;
tx_msg.header.IdType = FDCAN_EXTENDED_ID;
tx_msg.header.TxFrameType = FDCAN_REMOTE_FRAME;
break;
default:
return BSP_ERR;
}
switch (hfdcan->Init.FrameFormat) {
case FDCAN_FRAME_FD_BRS:
tx_msg.header.BitRateSwitch = FDCAN_BRS_ON;
tx_msg.header.FDFormat = FDCAN_FD_CAN;
break;
case FDCAN_FRAME_FD_NO_BRS:
tx_msg.header.BitRateSwitch = FDCAN_BRS_OFF;
tx_msg.header.FDFormat = FDCAN_FD_CAN;
break;
case FDCAN_FRAME_CLASSIC:
default:
tx_msg.header.BitRateSwitch = FDCAN_BRS_OFF;
tx_msg.header.FDFormat = FDCAN_CLASSIC_CAN;
break;
}
tx_msg.header.ErrorStateIndicator = FDCAN_ESI_ACTIVE;
tx_msg.header.TxEventFifoControl = FDCAN_STORE_TX_EVENTS;
tx_msg.header.MessageMarker = 0x01;
tx_msg.header.DataLength = BSP_FDCAN_EncodeDLC(dlc);
memset(tx_msg.data, 0, dlc);
if (data != NULL && dlc > 0) {memcpy(tx_msg.data, data, dlc);}
if (HAL_FDCAN_GetTxFifoFreeLevel(hfdcan) > 0) {
if (HAL_FDCAN_AddMessageToTxFifoQ(hfdcan, &tx_msg.header, tx_msg.data) == HAL_OK) return BSP_OK;
}
if (BSP_FDCAN_TxQueuePush(fdcan, &tx_msg)) return BSP_OK;
return BSP_ERR;
}
int8_t BSP_FDCAN_TransmitStdDataFrame(BSP_FDCAN_t fdcan, BSP_FDCAN_StdDataFrame_t *frame) {
if (frame == NULL) return BSP_ERR_NULL;
return BSP_FDCAN_Transmit(fdcan, BSP_FDCAN_FORMAT_STD_DATA, frame->id, frame->data, frame->dlc);
}
int8_t BSP_FDCAN_TransmitExtDataFrame(BSP_FDCAN_t fdcan, BSP_FDCAN_ExtDataFrame_t *frame) {
if (frame == NULL) return BSP_ERR_NULL;
return BSP_FDCAN_Transmit(fdcan, BSP_FDCAN_FORMAT_EXT_DATA, frame->id, frame->data, frame->dlc);
}
int8_t BSP_FDCAN_TransmitRemoteFrame(BSP_FDCAN_t fdcan, BSP_FDCAN_RemoteFrame_t *frame) {
if (frame == NULL) return BSP_ERR_NULL;
BSP_FDCAN_Format_t format = frame->is_extended ? BSP_FDCAN_FORMAT_EXT_REMOTE : BSP_FDCAN_FORMAT_STD_REMOTE;
return BSP_FDCAN_Transmit(fdcan, format, frame->id, NULL, frame->dlc);
}
int8_t BSP_FDCAN_RegisterId(BSP_FDCAN_t fdcan, uint32_t can_id, uint8_t queue_size) {
if (!inited) return BSP_ERR_INITED;
return BSP_FDCAN_CreateIdQueue(fdcan, can_id, queue_size);
}
int8_t BSP_FDCAN_GetMessage(BSP_FDCAN_t fdcan, uint32_t can_id, BSP_FDCAN_Message_t *msg, uint32_t timeout) {
if (!inited) return BSP_ERR_INITED;
if (msg == NULL) return BSP_ERR_NULL;
if (osMutexAcquire(queue_mutex, FDCAN_QUEUE_MUTEX_TIMEOUT) != osOK) return BSP_ERR_TIMEOUT;
osMessageQueueId_t queue = BSP_FDCAN_FindQueue(fdcan, can_id);
osMutexRelease(queue_mutex);
if (queue == NULL) return BSP_ERR_NO_DEV;
osStatus_t res = osMessageQueueGet(queue, msg, NULL, timeout);
return (res == osOK) ? BSP_OK : BSP_ERR;
}
int32_t BSP_FDCAN_GetQueueCount(BSP_FDCAN_t fdcan, uint32_t can_id) {
if (!inited) return -1;
if (osMutexAcquire(queue_mutex, FDCAN_QUEUE_MUTEX_TIMEOUT) != osOK) return -1;
osMessageQueueId_t queue = BSP_FDCAN_FindQueue(fdcan, can_id);
osMutexRelease(queue_mutex);
if (queue == NULL) return -1;
return (int32_t)osMessageQueueGetCount(queue);
}
int8_t BSP_FDCAN_FlushQueue(BSP_FDCAN_t fdcan, uint32_t can_id) {
if (!inited) return BSP_ERR_INITED;
if (osMutexAcquire(queue_mutex, FDCAN_QUEUE_MUTEX_TIMEOUT) != osOK) return BSP_ERR_TIMEOUT;
osMessageQueueId_t queue = BSP_FDCAN_FindQueue(fdcan, can_id);
osMutexRelease(queue_mutex);
if (queue == NULL) return BSP_ERR_NO_DEV;
BSP_FDCAN_Message_t tmp;
while (osMessageQueueGet(queue, &tmp, NULL, BSP_FDCAN_TIMEOUT_IMMEDIATE) == osOK) { }
return BSP_OK;
}
int8_t BSP_FDCAN_RegisterIdParser(BSP_FDCAN_IdParser_t parser) {
if (!inited) return BSP_ERR_INITED;
if (parser == NULL) return BSP_ERR_NULL;
id_parser = parser;
return BSP_OK;
}
uint32_t BSP_FDCAN_ParseId(uint32_t original_id, BSP_FDCAN_FrameType_t frame_type) {
if (id_parser != NULL) return id_parser(original_id, frame_type);
return BSP_FDCAN_DefaultIdParser(original_id, frame_type);
}
/* */

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#pragma once
#ifdef __cplusplus
extern "C" {
#endif
/* Includes ----------------------------------------------------------------- */
#include <stdint.h>
#include <stdbool.h>
#include "bsp/bsp.h"
#include "bsp/mm.h"
#include <cmsis_os.h>
/* USER INCLUDE BEGIN */
#include <fdcan.h>
/* USER INCLUDE END */
/* Exported constants ------------------------------------------------------- */
#define BSP_FDCAN_MAX_DLC 64
#define BSP_FDCAN_DEFAULT_QUEUE_SIZE 10
#define BSP_FDCAN_TIMEOUT_IMMEDIATE 0
#define BSP_FDCAN_TIMEOUT_FOREVER osWaitForever
#define BSP_FDCAN_TX_QUEUE_SIZE 32
/* Exported macro ----------------------------------------------------------- */
//FDCANX实例使能
/* AUTO GENERATED FDCAN_EN BEGIN */
#define FDCAN1_EN
#define FDCAN2_EN
#define FDCAN3_EN
/* AUTO GENERATED FDCAN_EN END */
// FDCANX接收FIFO选择0=FIFO0, 1=FIFO1
/* AUTO GENERATED FDCAN_RX_FIFO BEGIN */
#ifdef FDCAN1_EN
#define FDCAN1_RX_FIFO 0
#endif
#ifdef FDCAN2_EN
#define FDCAN2_RX_FIFO 1
#endif
#ifdef FDCAN3_EN
#define FDCAN3_RX_FIFO 1
#endif
/* AUTO GENERATED FDCAN_RX_FIFO END */
/* Exported types ----------------------------------------------------------- */
typedef enum {
/* AUTO GENERATED BSP_FDCAN_NAME BEGIN */
BSP_FDCAN_1,
BSP_FDCAN_2,
BSP_FDCAN_3,
/* AUTO GENERATED BSP_FDCAN_NAME END */
BSP_FDCAN_NUM,
BSP_FDCAN_ERR,
} BSP_FDCAN_t;
typedef enum {
HAL_FDCAN_TX_EVENT_FIFO_CB,
HAL_FDCAN_TX_BUFFER_COMPLETE_CB,
HAL_FDCAN_TX_BUFFER_ABORT_CB,
HAL_FDCAN_RX_FIFO0_MSG_PENDING_CB,
HAL_FDCAN_RX_FIFO0_FULL_CB,
HAL_FDCAN_RX_FIFO1_MSG_PENDING_CB,
HAL_FDCAN_RX_FIFO1_FULL_CB,
HAL_FDCAN_ERROR_CB,
HAL_FDCAN_CB_NUM,
} BSP_FDCAN_Callback_t;
typedef enum {
BSP_FDCAN_FORMAT_STD_DATA,
BSP_FDCAN_FORMAT_EXT_DATA,
BSP_FDCAN_FORMAT_STD_REMOTE,
BSP_FDCAN_FORMAT_EXT_REMOTE,
} BSP_FDCAN_Format_t;
typedef enum {
BSP_FDCAN_FRAME_STD_DATA,
BSP_FDCAN_FRAME_EXT_DATA,
BSP_FDCAN_FRAME_STD_REMOTE,
BSP_FDCAN_FRAME_EXT_REMOTE,
} BSP_FDCAN_FrameType_t;
typedef struct {
BSP_FDCAN_FrameType_t frame_type;
uint32_t original_id;
uint32_t parsed_id;
uint8_t dlc;
uint8_t data[BSP_FDCAN_MAX_DLC];
uint32_t timestamp;
} BSP_FDCAN_Message_t;
typedef struct {
uint32_t id;
uint8_t dlc;
uint8_t data[BSP_FDCAN_MAX_DLC];
} BSP_FDCAN_StdDataFrame_t;
typedef struct {
uint32_t id;
uint8_t dlc;
uint8_t data[BSP_FDCAN_MAX_DLC];
} BSP_FDCAN_ExtDataFrame_t;
typedef struct {
uint32_t id;
uint8_t dlc;
bool is_extended;
} BSP_FDCAN_RemoteFrame_t;
typedef uint32_t (*BSP_FDCAN_IdParser_t)(uint32_t original_id, BSP_FDCAN_FrameType_t frame_type);
typedef struct {
FDCAN_TxHeaderTypeDef header; /* HAL FDCAN header type */
uint8_t data[BSP_FDCAN_MAX_DLC];
} BSP_FDCAN_TxMessage_t;
typedef struct {
BSP_FDCAN_TxMessage_t buffer[BSP_FDCAN_TX_QUEUE_SIZE];
volatile uint32_t head;
volatile uint32_t tail;
} BSP_FDCAN_TxQueue_t;
/* Exported functions prototypes -------------------------------------------- */
int8_t BSP_FDCAN_Init(void);
FDCAN_HandleTypeDef *BSP_FDCAN_GetHandle(BSP_FDCAN_t can);
int8_t BSP_FDCAN_RegisterCallback(BSP_FDCAN_t can, BSP_FDCAN_Callback_t type, void (*callback)(void));
int8_t BSP_FDCAN_Transmit(BSP_FDCAN_t can, BSP_FDCAN_Format_t format, uint32_t id, uint8_t *data, uint8_t dlc);
int8_t BSP_FDCAN_TransmitStdDataFrame(BSP_FDCAN_t can, BSP_FDCAN_StdDataFrame_t *frame);
int8_t BSP_FDCAN_TransmitExtDataFrame(BSP_FDCAN_t can, BSP_FDCAN_ExtDataFrame_t *frame);
int8_t BSP_FDCAN_TransmitRemoteFrame(BSP_FDCAN_t can, BSP_FDCAN_RemoteFrame_t *frame);
int8_t BSP_FDCAN_RegisterId(BSP_FDCAN_t can, uint32_t can_id, uint8_t queue_size);
int8_t BSP_FDCAN_GetMessage(BSP_FDCAN_t can, uint32_t can_id, BSP_FDCAN_Message_t *msg, uint32_t timeout);
int32_t BSP_FDCAN_GetQueueCount(BSP_FDCAN_t can, uint32_t can_id);
int8_t BSP_FDCAN_FlushQueue(BSP_FDCAN_t can, uint32_t can_id);
int8_t BSP_FDCAN_RegisterIdParser(BSP_FDCAN_IdParser_t parser);
uint32_t BSP_FDCAN_ParseId(uint32_t original_id, BSP_FDCAN_FrameType_t frame_type);
#ifdef __cplusplus
}
#endif

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# Flash BSP 更新日志
## v2.0 - 2026-01-01
### 新增功能
✨ **多系列MCU支持**
- 新增 STM32F1 系列支持Page模式
- 新增 STM32H7 系列支持Sector模式
- 保持 STM32F4 系列支持Sector模式
### STM32F1系列详情
- **Flash组织**: Page模式
- **页大小**:
- 小/中容量≤128KB: 1KB/页
- 大容量/互联型(>128KB: 2KB/页
- **容量支持**: 16KB - 1MB
- **容量代码**: 4/6/8/B/C/D/E/F/G
- **生成宏**: `ADDR_FLASH_PAGE_X`
### STM32H7系列详情
- **Flash组织**: Sector模式扇区
- **扇区大小**: 固定128KB
- **容量支持**: 128KB - 2MB
- **容量代码**: B/G/I
- **Bank支持**:
- 单Bank: 1MB (8个Sector)
- 双Bank: 2MB (16个Sector)
- **生成宏**: `ADDR_FLASH_SECTOR_X`
### 技术改进
- 重构 `get_flash_config_from_mcu()` 函数为多系列架构
- 新增 `_get_stm32f1_flash_config()` - F1系列专用配置
- 新增 `_get_stm32f4_flash_config()` - F4系列专用配置
- 新增 `_get_stm32h7_flash_config()` - H7系列专用配置
- 配置中新增 `type` 字段区分 'page' 和 'sector' 模式
- 界面自动识别并显示Page或Sector模式
- 代码生成支持Page和Sector两种宏定义
### 示例支持的芯片型号
**STM32F1:**
- STM32F103C8T6 → 64KB (64 pages × 1KB)
- STM32F103RCT6 → 256KB (128 pages × 2KB)
- STM32F103ZET6 → 512KB (256 pages × 2KB)
**STM32F4:**
- STM32F407VGT6 → 1MB (Sector 0-11)
- STM32F407IGH6 → 2MB (Sector 0-23, 双Bank)
- STM32F405RGT6 → 1MB (Sector 0-11)
**STM32H7:**
- STM32H750VBT6 → 128KB (1 sector)
- STM32H743VGT6 → 1MB (8 sectors)
- STM32H743VIT6 → 2MB (16 sectors, 双Bank)
### 配置文件变化
```yaml
# 新增字段
flash:
type: page # 或 sector
page_size: 2 # 仅F1系列有此字段
```
### 文档更新
- 更新 README.md 包含三个系列的完整说明
- 新增各系列的Flash布局图
- 新增各系列的使用示例
- 更新注意事项包含擦除时间和寿命信息
---
## v1.0 - 初始版本
### 初始功能
- STM32F4 系列支持
- 自动识别芯片型号
- 单Bank/双Bank配置
- 基础API擦除、读、写

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# Flash BSP 自动配置说明
## 功能特性
Flash BSP模块能够自动识别STM32芯片型号并生成对应的Flash配置代码。
### 支持的芯片系列
#### STM32F1 系列
- 使用**Page**组织方式而非Sector
- 自动检测Flash容量16KB - 1MB
- 小/中容量设备1KB/页
- 大容量/互联型设备2KB/页
#### STM32F4 系列
- 使用**Sector**组织方式
- 自动检测Flash容量256KB/512KB/1MB/2MB
- 自动配置单Bank或双Bank模式
- 不同大小的Sector16KB/64KB/128KB
#### STM32H7 系列
- 使用**Sector**组织方式
- 每个Sector固定128KB
- 自动检测Flash容量128KB/1MB/2MB
- 自动配置单Bank或双Bank模式
### Flash容量识别规则
根据STM32命名规则中的第9位字符识别Flash容量
**STM32F1系列:**
- **4**: 16KB (16 pages × 1KB)
- **6**: 32KB (32 pages × 1KB)
- **8**: 64KB (64 pages × 1KB)
- **B**: 128KB (128 pages × 1KB)
- **C**: 256KB (128 pages × 2KB)
- **D**: 384KB (192 pages × 2KB)
- **E**: 512KB (256 pages × 2KB)
- **F**: 768KB (384 pages × 2KB, 互联型)
- **G**: 1MB (512 pages × 2KB, 互联型)
**STM32F4系列:**
- **C**: 256KB (单Bank, Sector 0-7)
- **E**: 512KB (单Bank, Sector 0-9)
- **G**: 1MB (单Bank, Sector 0-11)
- **I**: 2MB (双Bank, Sector 0-23)
**STM32H7系列:**
- **B**: 128KB (1个Sector, 单Bank)
- **G**: 1MB (8个Sector, 单Bank)
- **I**: 2MB (16个Sector, 双Bank)
例如:
- `STM32F103C8T6` → 64KB Flash (64 pages × 1KB)
- `STM32F103RCT6` → 256KB Flash (128 pages × 2KB)
- `STM32F103ZET6` → 512KB Flash (256 pages × 2KB)
- `STM32F407VGT6` → 1MB Flash (Sector 0-11)
- `STM32F407IGH6` → 2MB Flash (Sector 0-23, 双Bank)
- `STM32F405RGT6` → 1MB Flash (Sector 0-11)
- `STM32H743VIT6` → 2MB Flash (16 sectors × 128KB, 双Bank)
- `STM32H750VBT6` → 128KB Flash (1 sector × 128KB)
## Flash布局
### STM32F1 Page模式 (16KB - 1MB)
```
小/中容量 (≤128KB): 每页1KB
Page 0: 0x08000000 - 0x080003FF (1KB)
Page 1: 0x08000400 - 0x080007FF (1KB)
...
大容量/互联型 (>128KB): 每页2KB
Page 0: 0x08000000 - 0x080007FF (2KB)
Page 1: 0x08000800 - 0x08000FFF (2KB)
...
```
### STM32F4 单Bank模式 (256KB - 1MB)
```
Sector 0-3: 16KB each (0x08000000 - 0x0800FFFF)
Sector 4: 64KB (0x08010000 - 0x0801FFFF)
Sector 5-11: 128KB each (0x08020000 - 0x080FFFFF)
```
### STM32F4 双Bank模式 (2MB)
```
Bank 1:
Sector 0-3: 16KB each (0x08000000 - 0x0800FFFF)
Sector 4: 64KB (0x08010000 - 0x0801FFFF)
Sector 5-11: 128KB each (0x08020000 - 0x080FFFFF)
Bank 2:
Sector 12-15: 16KB each (0x08100000 - 0x0810FFFF)
Sector 16: 64KB (0x08110000 - 0x0811FFFF)
Sector 17-23: 128KB each (0x08120000 - 0x081FFFFF)
```
### STM32H7 Sector模式
```
单Bank (1MB):
Sector 0-7: 128KB each (0x08000000 - 0x080FFFFF)
双Bank (2MB):
Bank 1:
Sector 0-7: 128KB each (0x08000000 - 0x080FFFFF)
Bank 2:
Sector 8-15: 128KB each (0x08100000 - 0x081FFFFF)
```
## 使用方法
### 1. 在BSP配置界面启用Flash
在代码生成界面的BSP标签中勾选"生成 Flash 代码"选项。
### 2. 自动检测
系统会自动:
- 读取项目中的`.ioc`文件
- 提取MCU型号信息
- 计算Flash扇区配置
- 生成对应的宏定义
### 3. 生成的代码示例
**STM32F1系列** (以STM32F103RCT6为例 - 256KB):
```c
// flash.h
#define ADDR_FLASH_PAGE_0 ((uint32_t)0x08000000)
/* Base address of Page 0, 2 Kbytes */
#define ADDR_FLASH_PAGE_1 ((uint32_t)0x08000800)
/* Base address of Page 1, 2 Kbytes */
...
#define ADDR_FLASH_PAGE_127 ((uint32_t)0x0803F800)
/* Base address of Page 127, 2 Kbytes */
#define ADDR_FLASH_END ((uint32_t)0x08040000)
// flash.c
#define BSP_FLASH_MAX_PAGE 127
if (page >= 0 && page <= 127) {
// 擦除代码...
}
```
**STM32F4系列** (以STM32F407IGH6为例 - 2MB):
```c
// flash.h
#define ADDR_FLASH_SECTOR_0 ((uint32_t)0x08000000)
/* Base address of Sector 0, 16 Kbytes */
...
#define ADDR_FLASH_SECTOR_23 ((uint32_t)0x081E0000)
/* Base address of Sector 23, 128 Kbytes */
#define ADDR_FLASH_END ((uint32_t)0x08200000)
/* End address for flash */
```
**flash.c**:
```c
#define BSP_FLASH_MAX_SECTOR 23
void BSP_Flash_EraseSector(uint32_t sector) {
if (sector > 0 && sector <= 23) {
// 擦除代码...
}
}
```
**STM32H7系列** (以STM32H743VIT6为例 - 2MB):
```c
// flash.h
#define ADDR_FLASH_SECTOR_0 ((uint32_t)0x08000000)
/* Base address of Sector 0, 128 Kbytes */
...
#define ADDR_FLASH_SECTOR_15 ((uint32_t)0x081E0000)
/* Base address of Sector 15, 128 Kbytes */
#define ADDR_FLASH_END ((uint32_t)0x08200000)
// flash.c
#define BSP_FLASH_MAX_SECTOR 15
if (sector > 0 && sector <= 15) {
// 擦除代码...
}
```
## API接口
### BSP_Flash_EraseSector (F4/H7) / BSP_Flash_ErasePage (F1)
擦除指定扇区或页
```c
// F4/H7系列
void BSP_Flash_EraseSector(uint32_t sector);
// F1系列
void BSP_Flash_ErasePage(uint32_t page);
```
- **参数**:
- sector/page - 扇区号或页号
- F1: 0 到 (页数-1)
- F4: 0-11 或 0-23根据芯片型号
- H7: 0-7 或 0-15根据芯片型号
### BSP_Flash_WriteBytes
写入数据到Flash
```c
void BSP_Flash_WriteBytes(uint32_t address, const uint8_t *buf, size_t len);
```
- **参数**:
- address - Flash地址
- buf - 数据缓冲区
- len - 数据长度
### BSP_Flash_ReadBytes
从Flash读取数据
```c
void BSP_Flash_ReadBytes(uint32_t address, void *buf, size_t len);
```
- **参数**:
- address - Flash地址
- buf - 接收缓冲区
- len - 读取长度
## 使用示例
### STM32F1系列示例
```c
#include "bsp/flash.h"
void save_config_f1(void) {
// 擦除Page 127 (最后一页,通常用于存储用户数据)
BSP_Flash_ErasePage(127);
// 写入配置数据
uint8_t config[100] = {/* 配置数据 */};
BSP_Flash_WriteBytes(ADDR_FLASH_PAGE_127, config, sizeof(config));
}
void load_config_f1(void) {
// 读取配置数据
uint8_t config[100];
BSP_Flash_ReadBytes(ADDR_FLASH_PAGE_127, config, sizeof(config));
}
```
### STM32F4系列示例
```c
#include "bsp/flash.h"
void save_config_f4(void) {
// 擦除Sector 11 (通常用于存储用户数据)
BSP_Flash_EraseSector(11);
// 写入配置数据
uint8_t config[100] = {/* 配置数据 */};
BSP_Flash_WriteBytes(ADDR_FLASH_SECTOR_11, config, sizeof(config));
}
void load_config_f4(void) {
// 读取配置数据
uint8_t config[100];
BSP_Flash_ReadBytes(ADDR_FLASH_SECTOR_11, config, sizeof(config));
}
```
### STM32H7系列示例
### STM32H7系列示例
```c
#include "bsp/flash.h"
void save_config(void) {
// 擦除Sector 11 (通常用于存储用户数据)
BSP_Flash_EraseSector(11);
// 写入配置数据
uint8_t config[100] = {/* 配置数据 */};
BSP_Flash_WriteBytes(ADDR_FLASH_SECTOR_11, config, sizeof(config));
}
void load_config(void) {
// 读取配置数据
uint8_t config[100];
BSP_Flash_ReadBytes(ADDR_FLASH_SECTOR_11, config, sizeof(config));
}
```
## 注意事项
1. **擦除时间**: Flash擦除需要一定时间注意不要在中断中执行
- F1 Page擦除: ~20ms
- F4 Sector擦除: 16KB~100ms, 64KB~300ms, 128KB~500ms
- H7 Sector擦除: ~200ms
2. **写入前擦除**:
- F1: 必须先擦除整页才能写入
- F4/H7: 必须先擦除整个扇区才能写入
3. **区域选择**: 避免擦除包含程序代码的扇区/页
- F1: 通常最后几页用于存储数据
- F4: Sector 11 或 23 常用于存储数据
- H7: Sector 7 或 15 常用于存储数据
4. **写入对齐**: 建议按字节写入HAL库会处理对齐
5. **断电保护**: 写入过程中断电可能导致数据丢失
6. **擦写次数限制**:
- F1: 典型10,000次
- F4/H7: 典型10,000-100,000次
## 配置文件
配置信息保存在 `bsp_config.yaml`:
**STM32F1:**
```yaml
flash:
enabled: true
mcu_name: STM32F103RCT6
dual_bank: false
sectors: 128 # 实际是128个页
type: page
page_size: 2
```
**STM32F4:**
```yaml
flash:
enabled: true
mcu_name: STM32F407IGHx
dual_bank: true
sectors: 24
type: sector
```
**STM32H7:**
```yaml
flash:
enabled: true
mcu_name: STM32H743VIT6
dual_bank: true
sectors: 16
type: sector
```
## 扩展支持
当前支持的系列:
- ✅ STM32F1 (Page模式)
- ✅ STM32F4 (Sector模式)
- ✅ STM32H7 (Sector模式)
如需支持其他STM32系列如F2/F3/L4/G4等可在 `analyzing_ioc.py``get_flash_config_from_mcu()` 函数中添加相应的配置规则。

55
bsp/flash/flash.c Normal file
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@ -0,0 +1,55 @@
/* Includes ----------------------------------------------------------------- */
#include "bsp/flash.h"
#include <main.h>
#include <string.h>
/* Private define ----------------------------------------------------------- */
/* USER CODE BEGIN FLASH_MAX_SECTOR */
/* AUTO GENERATED FLASH_MAX_SECTOR */
/* USER CODE END FLASH_MAX_SECTOR */
/* Private macro ------------------------------------------------------------ */
/* Private typedef ---------------------------------------------------------- */
/* Private variables -------------------------------------------------------- */
/* Private function -------------------------------------------------------- */
/* Exported functions ------------------------------------------------------- */
void BSP_Flash_EraseSector(uint32_t sector) {
FLASH_EraseInitTypeDef flash_erase;
uint32_t sector_error;
/* USER CODE BEGIN FLASH_ERASE_CHECK */
/* AUTO GENERATED FLASH_ERASE_CHECK */
/* USER CODE END FLASH_ERASE_CHECK */
flash_erase.Sector = sector;
flash_erase.TypeErase = FLASH_TYPEERASE_SECTORS;
flash_erase.VoltageRange = FLASH_VOLTAGE_RANGE_3;
flash_erase.NbSectors = 1;
HAL_FLASH_Unlock();
while (FLASH_WaitForLastOperation(50) != HAL_OK)
;
HAL_FLASHEx_Erase(&flash_erase, &sector_error);
HAL_FLASH_Lock();
}
/* USER CODE BEGIN FLASH_ERASE_END */
/* USER CODE END FLASH_ERASE_END */
}
void BSP_Flash_WriteBytes(uint32_t address, const uint8_t *buf, size_t len) {
HAL_FLASH_Unlock();
while (len > 0) {
while (FLASH_WaitForLastOperation(50) != HAL_OK)
;
HAL_FLASH_Program(FLASH_TYPEPROGRAM_BYTE, address, *buf);
address++;
buf++;
len--;
}
HAL_FLASH_Lock();
}
void BSP_Flash_ReadBytes(uint32_t address, void *buf, size_t len) {
memcpy(buf, (void *)address, len);
}

31
bsp/flash/flash.h Normal file
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@ -0,0 +1,31 @@
#pragma once
#ifdef __cplusplus
extern "C" {
#endif
/* Includes ------------------------------------------------------------------ */
#include <main.h>
#include "bsp/bsp.h"
/* Exported constants -------------------------------------------------------- */
/* Base address of the Flash sectors */
/* USER CODE BEGIN FLASH_SECTOR_DEFINES */
/* AUTO GENERATED FLASH_SECTORS */
/* USER CODE END FLASH_SECTOR_DEFINES */
/* USER CODE BEGIN FLASH_END_ADDRESS */
/* AUTO GENERATED FLASH_END_ADDRESS */
/* USER CODE END FLASH_END_ADDRESS */
/* Exported macro ------------------------------------------------------------ */
/* Exported types ------------------------------------------------------------ */
/* Exported functions prototypes --------------------------------------------- */
void BSP_Flash_EraseSector(uint32_t sector);
void BSP_Flash_WriteBytes(uint32_t address, const uint8_t *buf, size_t len);
void BSP_Flash_ReadBytes(uint32_t address, void *buf, size_t len);
#ifdef __cplusplus
}
#endif

View File

@ -1,4 +1,4 @@
bsp,can,dwt,gpio,i2c,mm,spi,uart,pwm,time bsp,can,fdcan,dwt,gpio,i2c,mm,spi,uart,pwm,time,flash
component,ahrs,capacity,cmd,crc8,crc16,error_detect,filter,FreeRTOS_CLI,limiter,mixer,pid,ui,user_math component,ahrs,capacity,cmd,crc8,crc16,error_detect,filter,FreeRTOS_CLI,limiter,mixer,pid,ui,user_math
device,dr16,bmi088,ist8310,motor,motor_rm,motor_dm,motor_vesc,motor_lk,motor_lz,motor_odrive,dm_imu,rc_can,servo,buzzer,led,ws2812,vofa,ops9,oid,lcd_driver device,dr16,bmi088,ist8310,motor,motor_rm,motor_dm,motor_vesc,motor_lk,motor_lz,motor_odrive,dm_imu,rc_can,servo,buzzer,led,ws2812,vofa,ops9,oid,lcd_driver
module,config, module,
1 bsp,can,dwt,gpio,i2c,mm,spi,uart,pwm,time bsp,can,fdcan,dwt,gpio,i2c,mm,spi,uart,pwm,time,flash
2 component,ahrs,capacity,cmd,crc8,crc16,error_detect,filter,FreeRTOS_CLI,limiter,mixer,pid,ui,user_math component,ahrs,capacity,cmd,crc8,crc16,error_detect,filter,FreeRTOS_CLI,limiter,mixer,pid,ui,user_math
3 device,dr16,bmi088,ist8310,motor,motor_rm,motor_dm,motor_vesc,motor_lk,motor_lz,motor_odrive,dm_imu,rc_can,servo,buzzer,led,ws2812,vofa,ops9,oid,lcd_driver device,dr16,bmi088,ist8310,motor,motor_rm,motor_dm,motor_vesc,motor_lk,motor_lz,motor_odrive,dm_imu,rc_can,servo,buzzer,led,ws2812,vofa,ops9,oid,lcd_driver
4 module,config, module,

View File

@ -240,6 +240,22 @@ devices:
description: "lcd驱动(SPI)" description: "lcd驱动(SPI)"
dependencies: dependencies:
bsp: ["gpio", "spi"] bsp: ["gpio", "spi"]
bsp_requirements:
- type: "spi"
var_name: "BSP_SPI_LCD"
description: "用于LCD通信的SPI总线"
- type: "gpio"
var_name: "BSP_GPIO_LCD_CS"
description: "LCD片选引脚"
gpio_type: "output"
- type: "gpio"
var_name: "BSP_GPIO_LCD_DC"
description: "LCD数据/命令控制引脚"
gpio_type: "output"
- type: "gpio"
var_name: "BSP_GPIO_LCD_RST"
description: "LCD复位引脚"
gpio_type: "output"
thread_signals: [] thread_signals: []
files: files:
header: "lcd.h" header: "lcd.h"

View File

@ -13,10 +13,17 @@
/* Exported variables ------------------------------------------------------- */ /* Exported variables ------------------------------------------------------- */
// 机器人参数配置 /**
* @brief
* @note
*/
Config_RobotParam_t robot_config = { Config_RobotParam_t robot_config = {
/* USER CODE BEGIN robot_config */
.example_param = 0, // 示例参数初始化
// 在此添加您的配置参数初始化
/* USER CODE END robot_config */
}; };
/* Private function prototypes ---------------------------------------------- */ /* Private function prototypes ---------------------------------------------- */

View File

@ -9,9 +9,20 @@ extern "C" {
#endif #endif
#include <stdint.h> #include <stdint.h>
#include <stdbool.h>
/**
* @brief
* @note
*/
typedef struct { typedef struct {
// 示例配置项(可根据实际需求修改或删除)
uint8_t example_param; // 示例参数
/* USER CODE BEGIN Config_RobotParam */
// 在此添加您的配置参数
/* USER CODE END Config_RobotParam */
} Config_RobotParam_t; } Config_RobotParam_t;
/* Exported functions prototypes -------------------------------------------- */ /* Exported functions prototypes -------------------------------------------- */

4
module/describe.csv Normal file
View File

@ -0,0 +1,4 @@
module_name,description
cmd,命令系统,用于机器人指令处理和行为控制
2_axis_gimbal,双轴云台控制模块支持pitch和yaw轴控制
3+3shoot,双级三摩擦轮发射机构模块
1 module_name description
2 cmd 命令系统,用于机器人指令处理和行为控制
3 2_axis_gimbal 双轴云台控制模块,支持pitch和yaw轴控制
4 3+3shoot 双级三摩擦轮发射机构模块

View File

@ -0,0 +1,658 @@
/*
* far
*/
/********************************* 使用示例 **********************************/
/*1.配置config参数以及Config_ShootInit函数参数*/
/*2.
COMP_AT9S_CMD_t shoot_ctrl_cmd_rc;
Shoot_t shoot;
Shoot_CMD_t shoot_cmd;
void Task(void *argument) {
Config_ShootInit();
Shoot_Init(&shoot,&Config_GetRobotParam()->shoot_param,SHOOT_CTRL_FREQ);
Shoot_SetMode(&shoot,SHOOT_MODE_SINGLE);
while (1) {
shoot_cmd.online =shoot_ctrl_cmd_rc.online;
shoot_cmd.ready =shoot_ctrl_cmd_rc.shoot.ready;
shoot_cmd.firecmd =shoot_ctrl_cmd_rc.shoot.firecmd;
shoot.mode =shoot_ctrl_cmd_rc.mode;
Chassis_UpdateFeedback(&shoot);
Shoot_Control(&shoot,&shoot_cmd);
}
}
*******************************************************************************/
/* Includes ----------------------------------------------------------------- */
#include <math.h>
#include <string.h>
#include "shoot.h"
#include "bsp/mm.h"
#include "bsp/time.h"
#include "component/filter.h"
#include "component/user_math.h"
/* Private typedef ---------------------------------------------------------- */
/* Private define ----------------------------------------------------------- */
#define MAX_FRIC_RPM 7000.0f
#define MAX_TRIG_RPM 1500.0f//这里可能也会影响最高发射频率,待测试
/* Private macro ------------------------------------------------------------ */
/* Private variables -------------------------------------------------------- */
static bool last_firecmd;
float maxTrigrpm=1500.0f;
/* Private function -------------------------------------------------------- */
/**
* \brief
*
* \param s
* \param mode
*
* \return
*/
int8_t Shoot_SetMode(Shoot_t *s, Shoot_Mode_t mode)
{
if (s == NULL) {
return SHOOT_ERR_NULL; // 参数错误
}
s->mode=mode;
return SHOOT_OK;
}
/**
* \brief PID积分
*
* \param s
*
* \return
*/
int8_t Shoot_ResetIntegral(Shoot_t *s)
{
if (s == NULL) {
return SHOOT_ERR_NULL; // 参数错误
}
uint8_t fric_num = s->param->basic.fric_num;
for(int i=0;i<fric_num;i++)
{
PID_ResetIntegral(&s->pid.fric_follow[i]);
PID_ResetIntegral(&s->pid.fric_err[i]);
}
PID_ResetIntegral(&s->pid.trig);
PID_ResetIntegral(&s->pid.trig_omg);
return SHOOT_OK;
}
/**
* \brief
*
* \param s
*
* \return
*/
int8_t Shoot_ResetCalu(Shoot_t *s)
{
if (s == NULL) {
return SHOOT_ERR_NULL; // 参数错误
}
uint8_t fric_num = s->param->basic.fric_num;
for(int i=0;i<fric_num;i++)
{
PID_Reset(&s->pid.fric_follow[i]);
PID_Reset(&s->pid.fric_err[i]);
LowPassFilter2p_Reset(&s->filter.fric.in[i], 0.0f);
LowPassFilter2p_Reset(&s->filter.fric.out[i], 0.0f);
}
PID_Reset(&s->pid.trig);
PID_Reset(&s->pid.trig_omg);
LowPassFilter2p_Reset(&s->filter.trig.in, 0.0f);
LowPassFilter2p_Reset(&s->filter.trig.out, 0.0f);
return SHOOT_OK;
}
/**
* \brief
*
* \param s
*
* \return
*/
int8_t Shoot_ResetOutput(Shoot_t *s)
{
if (s == NULL) {
return SHOOT_ERR_NULL; // 参数错误
}
uint8_t fric_num = s->param->basic.fric_num;
for(int i=0;i<fric_num;i++)
{
s->output.out_follow[i]=0.0f;
s->output.out_err[i]=0.0f;
s->output.out_fric[i]=0.0f;
s->output.lpfout_fric[i]=0.0f;
}
s->output.outagl_trig=0.0f;
s->output.outomg_trig=0.0f;
s->output.outlpf_trig=0.0f;
return SHOOT_OK;
}
//float last_angle=0.0f;
//float speed=0.0f;
//int8_t Shoot_CalufeedbackRPM(Shoot_t *s)
//{
// if (s == NULL) {
// return SHOOT_ERR_NULL; // 参数错误
// }
//// static
// float err;
// err=CircleError(s->feedback.fric[0].rotor_abs_angle,last_angle,M_2PI);
// speed=err/s->dt/M_2PI*60.0f;
// last_angle=s->feedback.fric->rotor_abs_angle;
// return SHOOT_OK;
//}
/**
* \brief
*
* \param s
* \param target_speed m/s
*
* \return
*/
int8_t Shoot_CaluTargetRPM(Shoot_t *s, float target_speed)
{
if (s == NULL) {
return SHOOT_ERR_NULL; // 参数错误
}
switch(s->param->basic.projectileType)
{
case SHOOT_PROJECTILE_17MM:
s->target_variable.fric_rpm=5000.0f;
break;
case SHOOT_PROJECTILE_42MM:
s->target_variable.fric_rpm=4000.0f;
break;
}
return SHOOT_OK;
}
/**
* \brief
*
* \param s
* \param cmd
*
* \return
*/
int8_t Shoot_CaluTargetAngle(Shoot_t *s, Shoot_CMD_t *cmd)
{
if (s == NULL || s->var_trig.num_toShoot == 0) {
return SHOOT_ERR_NULL;
}
float dt = s->timer.now - s->var_trig.time_lastShoot;
float dpos;
dpos = CircleError(s->target_variable.trig_angle, s->var_trig.trig_agl, M_2PI);
if(dt >= 1.0f/s->param->basic.shot_freq && cmd->firecmd && dpos<=1.0f)
{
s->var_trig.time_lastShoot=s->timer.now;
CircleAdd(&s->target_variable.trig_angle, M_2PI/s->param->basic.num_trig_tooth, M_2PI);
s->var_trig.num_toShoot--;
}
return SHOOT_OK;
}
static float Shoot_CaluCoupledWeight(Shoot_t *s, uint8_t fric_index)
{
if (s == NULL) {
return SHOOT_ERR_NULL; // 参数错误
}
float Threshold;
switch (s->param->basic.projectileType) {
case SHOOT_PROJECTILE_17MM:
Threshold=50.0f;
break;
case SHOOT_PROJECTILE_42MM:
Threshold=400.0f;
break;
default:
return 0.0f;
}
float err;
err=fabs((s->param->basic.ratio_multilevel[fric_index]
*s->target_variable.fric_rpm)
-s->feedback.fric[fric_index].rotor_speed);
if (err<Threshold)
{
s->var_fric.coupled_control_weights=1.0f-(err*err)/(Threshold*Threshold);
}
else
{
s->var_fric.coupled_control_weights=0.0f;
}
return s->var_fric.coupled_control_weights;
}
/**
* \brief
*
* \param s
*
* \return
*/
int8_t Shoot_UpdateFeedback(Shoot_t *s)
{
if (s == NULL) {
return SHOOT_ERR_NULL; // 参数错误
}
uint8_t fric_num = s->param->basic.fric_num;
for(int i = 0; i < fric_num; i++) {
/* 更新摩擦轮电机反馈 */
MOTOR_RM_Update(&s->param->motor.fric[i].param);
MOTOR_RM_t *motor_fed = MOTOR_RM_GetMotor(&s->param->motor.fric[i].param);
if(motor_fed!=NULL)
{
s->feedback.fric[i]=motor_fed->motor.feedback;
}
/* 滤波摩擦轮电机转速反馈 */
s->var_fric.fil_rpm[i] = LowPassFilter2p_Apply(&s->filter.fric.in[i], s->feedback.fric[i].rotor_speed);
/* 归一化摩擦轮电机转速反馈 */
s->var_fric.normalized_fil_rpm[i] = s->var_fric.fil_rpm[i] / MAX_FRIC_RPM;
if(s->var_fric.normalized_fil_rpm[i]>1.0f)s->var_fric.normalized_fil_rpm[i]=1.0f;
if(s->var_fric.normalized_fil_rpm[i]<-1.0f)s->var_fric.normalized_fil_rpm[i]=-1.0f;
/* 计算平均摩擦轮电机转速反馈 */
s->var_fric.normalized_fil_avgrpm[s->param->motor.fric[i].level-1]+=s->var_fric.normalized_fil_rpm[i];
}
for (int i=1; i<MAX_NUM_MULTILEVEL; i++)
{
s->var_fric.normalized_fil_avgrpm[i]=s->var_fric.normalized_fil_avgrpm[i]/fric_num/MAX_NUM_MULTILEVEL;
}
/* 更新拨弹电机反馈 */
MOTOR_RM_Update(&s->param->motor.trig);
s->feedback.trig = *MOTOR_RM_GetMotor(&s->param->motor.trig);
s->var_trig.trig_agl=s->param->basic.extra_deceleration_ratio*s->feedback.trig.gearbox_total_angle;
while(s->var_trig.trig_agl<0)s->var_trig.trig_agl+=M_2PI;
while(s->var_trig.trig_agl>=M_2PI)s->var_trig.trig_agl-=M_2PI;
if (s->feedback.trig.motor.reverse) {
s->var_trig.trig_agl = M_2PI - s->var_trig.trig_agl;
}
s->var_trig.fil_trig_rpm = LowPassFilter2p_Apply(&s->filter.trig.in, s->feedback.trig.feedback.rotor_speed);
s->var_trig.trig_rpm = s->feedback.trig.feedback.rotor_speed / maxTrigrpm;
if(s->var_trig.trig_rpm>1.0f)s->var_trig.trig_rpm=1.0f;
if(s->var_trig.trig_rpm<-1.0f)s->var_trig.trig_rpm=-1.0f;
s->errtosee = s->feedback.fric[0].rotor_speed - s->feedback.fric[1].rotor_speed;
return SHOOT_OK;
}
/**
* \brief
*
* \param s
* \param cmd
*
* \return
*/float a;
int8_t Shoot_RunningFSM(Shoot_t *s, Shoot_CMD_t *cmd)
{
if (s == NULL || cmd == NULL) {
return SHOOT_ERR_NULL; // 参数错误
}
uint8_t fric_num = s->param->basic.fric_num;
static float pos;
if(s->mode==SHOOT_MODE_SAFE){
for(int i=0;i<fric_num;i++)
{
MOTOR_RM_Relax(&s->param->motor.fric[i].param);
}
MOTOR_RM_Relax(&s->param->motor.trig);\
pos=s->target_variable.trig_angle=s->var_trig.trig_agl;
}
else{
switch(s->running_state)
{
case SHOOT_STATE_IDLE:/*熄火等待*/
for(int i=0;i<fric_num;i++)
{ /* 转速归零 */
PID_ResetIntegral(&s->pid.fric_follow[i]);
s->output.out_follow[i]=PID_Calc(&s->pid.fric_follow[i],0.0f,s->var_fric.normalized_fil_rpm[i],0,s->timer.dt);
s->output.out_fric[i]=s->output.out_follow[i];
s->output.lpfout_fric[i] = LowPassFilter2p_Apply(&s->filter.fric.out[i], s->output.out_fric[i]);
MOTOR_RM_SetOutput(&s->param->motor.fric[i].param, s->output.lpfout_fric[i]);
}
s->output.outagl_trig =PID_Calc(&s->pid.trig,pos,s->var_trig.trig_agl,0,s->timer.dt);
s->output.outomg_trig =PID_Calc(&s->pid.trig_omg,s->output.outagl_trig,s->var_trig.trig_rpm,0,s->timer.dt);
s->output.outlpf_trig =LowPassFilter2p_Apply(&s->filter.trig.out, s->output.outomg_trig);
MOTOR_RM_SetOutput(&s->param->motor.trig, s->output.outlpf_trig);
/* 检查状态机 */
if(cmd->ready)
{
Shoot_ResetCalu(s);
Shoot_ResetIntegral(s);
Shoot_ResetOutput(s);
s->running_state=SHOOT_STATE_READY;
}
break;
case SHOOT_STATE_READY:/*准备射击*/
for(int i=0;i<fric_num;i++)
{
uint8_t level=s->param->motor.fric[i].level-1;
float target_rpm=s->param->basic.ratio_multilevel[level]
*s->target_variable.fric_rpm/MAX_FRIC_RPM;
/* 计算耦合控制权重 */
float w=Shoot_CaluCoupledWeight(s,i);
/* 计算跟随输出、计算修正输出 */
s->output.out_follow[i]=PID_Calc(&s->pid.fric_follow[i],
target_rpm,
s->var_fric.normalized_fil_rpm[i],
0,
s->timer.dt);
s->output.out_err[i]=w*PID_Calc(&s->pid.fric_err[i],
s->var_fric.normalized_fil_avgrpm[s->param->motor.fric[i].level-1],
s->var_fric.normalized_fil_rpm[i],
0,
s->timer.dt);
/* 按比例缩放并加和输出 */
ScaleSumTo1(&s->output.out_follow[i], &s->output.out_err[i]);
s->output.out_fric[i]=s->output.out_follow[i]+s->output.out_err[i];
/* 滤波 */
s->output.lpfout_fric[i] = LowPassFilter2p_Apply(&s->filter.fric.out[i], s->output.out_fric[i]);
/* 设置输出 */
MOTOR_RM_SetOutput(&s->param->motor.fric[i].param, s->output.lpfout_fric[i]);
}
/* 设置拨弹电机输出 */
s->output.outagl_trig =PID_Calc(&s->pid.trig,
pos,
s->var_trig.trig_agl,
0,
s->timer.dt);
s->output.outomg_trig =PID_Calc(&s->pid.trig_omg,
s->output.outagl_trig,
s->var_trig.trig_rpm,
0,
s->timer.dt);
s->output.outlpf_trig =LowPassFilter2p_Apply(&s->filter.trig.out, s->output.outomg_trig);
MOTOR_RM_SetOutput(&s->param->motor.trig, s->output.outlpf_trig);
/* 检查状态机 */
if(!cmd->ready)
{
Shoot_ResetCalu(s);
Shoot_ResetOutput(s);
s->running_state=SHOOT_STATE_IDLE;
}
else if(last_firecmd==false&&cmd->firecmd==true)
{
s->running_state=SHOOT_STATE_FIRE;
/* 根据模式设置待发射弹数 */
switch(s->mode)
{
case SHOOT_MODE_SINGLE:
s->var_trig.num_toShoot=1;
break;
case SHOOT_MODE_BURST:
s->var_trig.num_toShoot=s->param->basic.shot_burst_num;
break;
case SHOOT_MODE_CONTINUE:
s->var_trig.num_toShoot=6666;
break;
default:
s->var_trig.num_toShoot=0;
break;
}
}
break;
case SHOOT_STATE_FIRE:/*射击*/
Shoot_CaluTargetAngle(s, cmd);
for(int i=0;i<fric_num;i++)
{
uint8_t level=s->param->motor.fric[i].level-1;
float target_rpm=s->param->basic.ratio_multilevel[level]
*s->target_variable.fric_rpm/MAX_FRIC_RPM;
/* 计算耦合控制权重 */
float w=Shoot_CaluCoupledWeight(s,i);
/* 计算跟随输出、计算修正输出 */
s->output.out_follow[i]=PID_Calc(&s->pid.fric_follow[i],
target_rpm,
s->var_fric.normalized_fil_rpm[i],
0,
s->timer.dt);
s->output.out_err[i]=w*PID_Calc(&s->pid.fric_err[i],
s->var_fric.normalized_fil_avgrpm[s->param->motor.fric[i].level-1],
s->var_fric.normalized_fil_rpm[i],
0,
s->timer.dt);
/* 按比例缩放并加和输出 */
ScaleSumTo1(&s->output.out_follow[i], &s->output.out_err[i]);
s->output.out_fric[i]=s->output.out_follow[i]+s->output.out_err[i];
/* 滤波 */
s->output.lpfout_fric[i] = LowPassFilter2p_Apply(&s->filter.fric.out[i], s->output.out_fric[i]);
/* 设置输出 */
MOTOR_RM_SetOutput(&s->param->motor.fric[i].param, s->output.lpfout_fric[i]);
}
/* 设置拨弹电机输出 */
s->output.outagl_trig =PID_Calc(&s->pid.trig,
s->target_variable.trig_angle,
s->var_trig.trig_agl,
0,
s->timer.dt);
s->output.outomg_trig =PID_Calc(&s->pid.trig_omg,
s->output.outagl_trig,
s->var_trig.trig_rpm,
0,
s->timer.dt);
s->output.outlpf_trig =LowPassFilter2p_Apply(&s->filter.trig.out, s->output.outomg_trig);
MOTOR_RM_SetOutput(&s->param->motor.trig, s->output.outlpf_trig);
/* 检查状态机 */
if(!cmd->firecmd)
{
s->running_state=SHOOT_STATE_READY;
pos=s->var_trig.trig_agl;
s->var_trig.num_toShoot=0;
}
break;
default:
s->running_state=SHOOT_STATE_IDLE;
break;
}
}
/* 输出 */
MOTOR_RM_Ctrl(&s->param->motor.fric[0].param);
if(s->param->basic.fric_num>4)
{
MOTOR_RM_Ctrl(&s->param->motor.fric[4].param);
}
MOTOR_RM_Ctrl(&s->param->motor.trig);
last_firecmd = cmd->firecmd;
return SHOOT_OK;
}
/**
* \brief
*
* \param s
* \param cmd
*
* \return
*/
int8_t Shoot_JamDetectionFSM(Shoot_t *s, Shoot_CMD_t *cmd)
{
if (s == NULL) {
return SHOOT_ERR_NULL; // 参数错误
}
if(s->param->jamDetection.enable){
switch (s->jamdetection.fsmState) {
case SHOOT_JAMFSM_STATE_NORMAL:/* 正常运行 */
/* 检测电流是否超过阈值 */
if (s->feedback.trig.feedback.torque_current/1000.0f > s->param->jamDetection.threshold) {
s->jamdetection.fsmState = SHOOT_JAMFSM_STATE_SUSPECTED;
s->jamdetection.lastTime = s->timer.now; /* 记录怀疑开始时间 */
}
/* 正常运行射击状态机 */
Shoot_RunningFSM(s, cmd);
break;
case SHOOT_JAMFSM_STATE_SUSPECTED:/* 怀疑堵塞 */
/* 检测电流是否低于阈值 */
if (s->feedback.trig.feedback.torque_current/1000.0f < s->param->jamDetection.threshold) {
s->jamdetection.fsmState = SHOOT_JAMFSM_STATE_NORMAL;
break;
}
/* 检测高阈值状态是否超过设定怀疑时间 */
else if ((s->timer.now - s->jamdetection.lastTime) >= s->param->jamDetection.suspectedTime) {
s->jamdetection.detected =true;
s->jamdetection.fsmState = SHOOT_JAMFSM_STATE_CONFIRMED;
break;
}
/* 正常运行射击状态机 */
Shoot_RunningFSM(s, cmd);
break;
case SHOOT_JAMFSM_STATE_CONFIRMED:/* 确认堵塞 */
/* 清空待发射弹 */
s->var_trig.num_toShoot=0;
/* 修改拨弹盘目标角度 */
s->target_variable.trig_angle = s->var_trig.trig_agl-(M_2PI/s->param->basic.num_trig_tooth);
/* 切换状态 */
s->jamdetection.fsmState = SHOOT_JAMFSM_STATE_DEAL;
/* 记录处理开始时间 */
s->jamdetection.lastTime = s->timer.now;
case SHOOT_JAMFSM_STATE_DEAL:/* 堵塞处理 */
/* 正常运行射击状态机 */
Shoot_RunningFSM(s, cmd);
/* 给予0.3秒响应时间并检测电流小于20A认为堵塞已解除 */
if ((s->timer.now - s->jamdetection.lastTime)>=0.3f&&s->feedback.trig.feedback.torque_current/1000.0f < 20.0f) {
s->jamdetection.fsmState = SHOOT_JAMFSM_STATE_NORMAL;
}
break;
default:
s->jamdetection.fsmState = SHOOT_JAMFSM_STATE_NORMAL;
break;
}
}
else{
s->jamdetection.fsmState = SHOOT_JAMFSM_STATE_NORMAL;
s->jamdetection.detected = false;
Shoot_RunningFSM(s, cmd);
}
return SHOOT_OK;
}
/* Exported functions ------------------------------------------------------- */
/**
* \brief
*
* \param s
* \param param
* \param target_freq Hz
*
* \return
*/
int8_t Shoot_Init(Shoot_t *s, Shoot_Params_t *param, float target_freq)
{
if (s == NULL || param == NULL || target_freq <= 0.0f) {
return SHOOT_ERR_NULL; // 参数错误
}
uint8_t fric_num = param->basic.fric_num;
s->param=param;
BSP_CAN_Init();
/* 初始化摩擦轮PID和滤波器 */
for(int i=0;i<fric_num;i++){
MOTOR_RM_Register(&param->motor.fric[i].param);
PID_Init(&s->pid.fric_follow[i],
KPID_MODE_CALC_D,
target_freq,
&param->pid.fric_follow);
PID_Init(&s->pid.fric_err[i],
KPID_MODE_CALC_D,
target_freq,
&param->pid.fric_err);
LowPassFilter2p_Init(&s->filter.fric.in[i],
target_freq,
s->param->filter.fric.in);
LowPassFilter2p_Init(&s->filter.fric.out[i],
target_freq,
s->param->filter.fric.out);
}
/* 初始化拨弹PID和滤波器 */
MOTOR_RM_Register(&param->motor.trig);
switch(s->param->motor.trig.module)
{
case MOTOR_M3508:
PID_Init(&s->pid.trig,
KPID_MODE_CALC_D,
target_freq,
&param->pid.trig_3508);
PID_Init(&s->pid.trig_omg,
KPID_MODE_CALC_D,
target_freq,
&param->pid.trig_omg_3508);
break;
case MOTOR_M2006:
PID_Init(&s->pid.trig,
KPID_MODE_CALC_D,
target_freq,
&param->pid.trig_2006);
PID_Init(&s->pid.trig_omg,
KPID_MODE_CALC_D,
target_freq,
&param->pid.trig_omg_2006);
break;
default:
return SHOOT_ERR_MOTOR;
break;
}
LowPassFilter2p_Init(&s->filter.trig.in,
target_freq,
s->param->filter.trig.in);
LowPassFilter2p_Init(&s->filter.trig.out,
target_freq,
s->param->filter.trig.out);
/* 归零变量 */
memset(&s->var_trig,0,sizeof(s->var_trig));
return SHOOT_OK;
}
/**
* \brief
*
* \param s
* \param cmd
*
* \return
*/
int8_t Shoot_Control(Shoot_t *s, Shoot_CMD_t *cmd)
{
if (s == NULL || cmd == NULL) {
return SHOOT_ERR_NULL; // 参数错误
}
s->timer.now = BSP_TIME_Get_us() / 1000000.0f;
s->timer.dt = (BSP_TIME_Get_us() - s->timer.lask_wakeup) / 1000000.0f;
s->timer.lask_wakeup = BSP_TIME_Get_us();
Shoot_CaluTargetRPM(s,233);
Shoot_JamDetectionFSM(s, cmd);
// Shoot_CalufeedbackRPM(s);
return SHOOT_OK;
}

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@ -0,0 +1,243 @@
/*
* far
*/
#pragma once
#include <stddef.h>
#ifdef __cplusplus
extern "C" {
#endif
#include "main.h"
#include "component/pid.h"
#include "device/motor_rm.h"
/* Exported constants ------------------------------------------------------- */
#define MAX_FRIC_NUM 6
#define MAX_NUM_MULTILEVEL 2 /* 多级发射级数 */
#define SHOOT_OK (0) /* 运行正常 */
#define SHOOT_ERR_NULL (-1) /* 运行时发现NULL指针 */
#define SHOOT_ERR_ERR (-2) /* 运行时发现了其他错误 */
#define SHOOT_ERR_MODE (-3) /* 运行时配置了错误的Mode */
#define SHOOT_ERR_MOTOR (-4) /* 运行时配置了不存在的电机类型 */
#define SHOOT_ERR_MALLOC (-5) /* 内存分配失败 */
/* Exported macro ----------------------------------------------------------- */
/* Exported types ----------------------------------------------------------- */
typedef enum {
SHOOT_JAMFSM_STATE_NORMAL = 0,/* 常规状态 */
SHOOT_JAMFSM_STATE_SUSPECTED, /* 怀疑状态 */
SHOOT_JAMFSM_STATE_CONFIRMED, /* 确认状态 */
SHOOT_JAMFSM_STATE_DEAL /* 处理状态 */
}Shoot_JamDetectionFSM_State_t;
typedef enum {
SHOOT_STATE_IDLE = 0,/* 熄火 */
SHOOT_STATE_READY, /* 准备射击 */
SHOOT_STATE_FIRE /* 射击 */
}Shoot_Running_State_t;
typedef enum {
SHOOT_MODE_SAFE = 0,/* 安全模式 */
SHOOT_MODE_SINGLE, /* 单发模式 */
SHOOT_MODE_BURST, /* 多发模式 */
SHOOT_MODE_CONTINUE,/* 连发模式 */
SHOOT_MODE_NUM
}Shoot_Mode_t;
typedef enum {
SHOOT_PROJECTILE_17MM,
SHOOT_PROJECTILE_42MM,
}Shoot_Projectile_t;
typedef struct{
MOTOR_RM_Param_t param;
uint8_t level; /* 电机属于第几级发射1起始 */
}Shoot_MOTOR_RM_Param_t;
typedef struct {
MOTOR_Feedback_t fric[MAX_FRIC_NUM];/* 摩擦轮电机反馈 */
MOTOR_RM_t trig; /* 拨弹电机反馈 */
}Shoot_Feedback_t;
typedef struct{
float fil_rpm[MAX_FRIC_NUM]; /* 滤波后的摩擦轮原始转速 */
float normalized_fil_rpm[MAX_FRIC_NUM]; /* 归一化摩擦轮转速 */
float normalized_fil_avgrpm[MAX_NUM_MULTILEVEL]; /* 归一化摩擦轮平均转速 */
float coupled_control_weights; /* 耦合控制权重 */
}Shoot_VARSForFricCtrl_t;
typedef struct{
float time_lastShoot;/* 上次射击时间 */
uint16_t num_toShoot;/* 剩余待发射弹数 */
uint16_t num_shooted;/* 已发射弹数 */
float trig_agl; /*计算所有减速比后的拨弹盘的角度*/
float fil_trig_rpm; /* 滤波后的拨弹电机转速*/
float trig_rpm; /* 归一化拨弹电机转速 */
}Shoot_VARSForTrigCtrl_t;
typedef struct {
bool detected; /* 卡弹检测结果 */
float lastTime;/* 用于记录怀疑状态或处理状态的开始时间 */
Shoot_JamDetectionFSM_State_t fsmState; /* 卡弹检测状态机 */
}Shoot_JamDetection_t;
typedef struct {
float out_follow[MAX_FRIC_NUM];
float out_err[MAX_FRIC_NUM];
float out_fric[MAX_FRIC_NUM];
float lpfout_fric[MAX_FRIC_NUM];
float outagl_trig;
float outomg_trig;
float outlpf_trig;
}Shoot_Output_t;
typedef struct {
Shoot_Mode_t mode;/* 射击模式 */
bool ready; /* 准备射击 */
bool firecmd; /* 射击 */
}Shoot_CMD_t;
/* 底盘参数的结构体包含所有初始化用的参数通常是const存好几组 */
typedef struct {
struct{
Shoot_Projectile_t projectileType; /* 发射弹丸类型 */;
size_t fric_num; /* 摩擦轮电机数量 */
float ratio_multilevel[MAX_NUM_MULTILEVEL]; /* 多级发射各级速度比例 */
float extra_deceleration_ratio; /*电机出轴到拨盘的额外减速比没有写1*/
size_t num_trig_tooth; /* 拨弹盘每圈弹丸数量 */
float shot_freq; /* 射击频率单位Hz */
size_t shot_burst_num; /* 多发模式一次射击的数量 */
}basic;/* 发射基础参数 */
struct {
bool enable; /* 是否启用卡弹检测 */
float threshold; /* 卡弹检测阈值单位A (dji2006建议设置为120Adji3508建议设置为235A,根据实际测试调整)*/
float suspectedTime;/* 卡弹怀疑时间,单位秒 */
}jamDetection;/* 卡弹检测参数 */
struct {
Shoot_MOTOR_RM_Param_t fric[MAX_FRIC_NUM];
MOTOR_RM_Param_t trig;
}motor; /* 电机参数 */
struct{
KPID_Params_t fric_follow; /* 摩擦轮电机PID控制参数用于跟随目标速度 */
KPID_Params_t fric_err; /* 摩擦轮电机PID控制参数用于消除转速误差 */
KPID_Params_t trig_2006; /* 拨弹电机PID控制参数 */
KPID_Params_t trig_omg_2006;/* 拨弹电机PID控制参数 */
KPID_Params_t trig_3508; /* 拨弹电机PID控制参数 */
KPID_Params_t trig_omg_3508;/* 拨弹电机PID控制参数 */
}pid; /* PID参数 */
struct {
struct{
float in; /* 反馈值滤波器截止频率 */
float out; /* 输出值滤波器截止频率 */
}fric;
struct{
float in; /* 反馈值滤波器截止频率 */
float out; /* 输出值滤波器截止频率 */
}trig;
} filter;/* 滤波器截止频率参数 */
} Shoot_Params_t;
typedef struct {
float now; /* 当前时间,单位秒 */
uint64_t lask_wakeup; /* 上次唤醒时间,单位微秒 */
float dt; /* 两次唤醒间隔时间,单位秒 */
}Shoot_Timer_t;
/*
*
*
*/
typedef struct {
Shoot_Timer_t timer; /* 计时器 */
Shoot_Params_t *param; /* 发射参数 */
/* 模块通用 */
Shoot_Mode_t mode; /* 射击模式 */
/* 反馈信息 */
Shoot_Feedback_t feedback;
/* 控制信息*/
Shoot_Running_State_t running_state; /* 运行状态机 */
Shoot_JamDetection_t jamdetection; /* 卡弹检测控制信息 */
Shoot_VARSForFricCtrl_t var_fric; /* 摩擦轮控制信息 */
Shoot_VARSForTrigCtrl_t var_trig; /* 角度计算控制信息 */
Shoot_Output_t output; /* 输出信息 */
/* 目标控制量 */
struct {
float fric_rpm; /* 目标摩擦轮转速 */
float trig_angle;/* 目标拨弹位置 */
}target_variable;
/* 反馈控制用的PID */
struct {
KPID_t fric_follow[MAX_FRIC_NUM];/* 摩擦轮PID主结构体 */
KPID_t fric_err[MAX_FRIC_NUM]; /* 摩擦轮PID主结构体 */
KPID_t trig; /* 拨弹PID主结构体 */
KPID_t trig_omg; /* 拨弹PID主结构体 */
} pid;
/* 滤波器 */
struct {
struct{
LowPassFilter2p_t in[MAX_FRIC_NUM]; /* 反馈值滤波器 */
LowPassFilter2p_t out[MAX_FRIC_NUM];/* 输出值滤波器 */
}fric;
struct{
LowPassFilter2p_t in; /* 反馈值滤波器 */
LowPassFilter2p_t out;/* 输出值滤波器 */
}trig;
} filter;
float errtosee; /*调试用*/
} Shoot_t;
/* Exported functions prototypes -------------------------------------------- */
/**
* \brief
*
* \param s
* \param param
* \param target_freq
*
* \return
*/
int8_t Shoot_Init(Shoot_t *s, Shoot_Params_t *param, float target_freq);
/**
* \brief
*
* \param s
* \param mode
*
* \return
*/
int8_t Shoot_SetMode(Shoot_t *s, Shoot_Mode_t mode);
/**
* \brief
*
* \param s
*
* \return
*/
int8_t Shoot_UpdateFeedback(Shoot_t *s);
/**
* \brief
*
* \param s
* \param cmd
*
* \return
*/
int8_t Shoot_Control(Shoot_t *s, Shoot_CMD_t *cmd);
#ifdef __cplusplus
}
#endif