This commit is contained in:
TuxMonkey
2025-11-16 17:19:14 +08:00
parent de8a0d5117
commit ab01747052
20 changed files with 10796 additions and 234 deletions

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@@ -26,7 +26,7 @@
/* Private includes ----------------------------------------------------------*/
/* USER CODE BEGIN Includes */
#include "ws2812status.h"
#include "ins_task.h"
#include "buzzer.h"
// #include "remoteTask.h"
//
@@ -58,65 +58,65 @@
/* Definitions for BeginTask */
osThreadId_t BeginTaskHandle;
const osThreadAttr_t BeginTask_attributes = {
.name = "BeginTask",
.stack_size = 256 * 4,
.priority = (osPriority_t) osPriorityNormal,
.name = "BeginTask",
.stack_size = 256 * 4,
.priority = (osPriority_t) osPriorityNormal,
};
/* Definitions for shoot */
osThreadId_t shootHandle;
const osThreadAttr_t shoot_attributes = {
.name = "shoot",
.stack_size = 512 * 4,
.priority = (osPriority_t) osPriorityNormal,
.name = "shoot",
.stack_size = 512 * 4,
.priority = (osPriority_t) osPriorityNormal,
};
/* Definitions for gimbal */
osThreadId_t gimbalHandle;
const osThreadAttr_t gimbal_attributes = {
.name = "gimbal",
.stack_size = 512 * 4,
.priority = (osPriority_t) osPriorityNormal,
.name = "gimbal",
.stack_size = 512 * 4,
.priority = (osPriority_t) osPriorityNormal,
};
/* Definitions for chassis */
osThreadId_t chassisHandle;
const osThreadAttr_t chassis_attributes = {
.name = "chassis",
.stack_size = 512 * 4,
.priority = (osPriority_t) osPriorityNormal,
.name = "chassis",
.stack_size = 512 * 4,
.priority = (osPriority_t) osPriorityNormal,
};
/* Definitions for init */
osThreadId_t initHandle;
const osThreadAttr_t init_attributes = {
.name = "init",
.stack_size = 256 * 4,
.priority = (osPriority_t) osPriorityHigh,
.name = "init",
.stack_size = 256 * 4,
.priority = (osPriority_t) osPriorityHigh,
};
/* Definitions for vision */
osThreadId_t visionHandle;
const osThreadAttr_t vision_attributes = {
.name = "vision",
.stack_size = 512 * 4,
.priority = (osPriority_t) osPriorityNormal,
.name = "vision",
.stack_size = 512 * 4,
.priority = (osPriority_t) osPriorityNormal,
};
/* Definitions for cmd */
osThreadId_t cmdHandle;
const osThreadAttr_t cmd_attributes = {
.name = "cmd",
.stack_size = 512 * 4,
.priority = (osPriority_t) osPriorityNormal,
.name = "cmd",
.stack_size = 512 * 4,
.priority = (osPriority_t) osPriorityNormal,
};
/* Definitions for reference */
osThreadId_t referenceHandle;
const osThreadAttr_t reference_attributes = {
.name = "reference",
.stack_size = 512 * 4,
.priority = (osPriority_t) osPriorityNormal,
.name = "reference",
.stack_size = 512 * 4,
.priority = (osPriority_t) osPriorityNormal,
};
/* Definitions for WS2812Task */
osThreadId_t WS2812TaskHandle;
const osThreadAttr_t WS2812Task_attributes = {
.name = "WS2812Task",
.stack_size = 256 * 4,
.priority = (osPriority_t) osPriorityBelowNormal,
.name = "WS2812Task",
.stack_size = 256 * 4,
.priority = (osPriority_t) osPriorityBelowNormal,
};
/* Private function prototypes -----------------------------------------------*/
@@ -125,43 +125,53 @@ const osThreadAttr_t WS2812Task_attributes = {
/* USER CODE END FunctionPrototypes */
void StartDefaultTask(void *argument);
void ShootTask(void *argument);
void GimbalTask(void *argument);
void ChassisTask(void *argument);
void StartInitTask(void *argument);
void VisionTask(void *argument);
void CmdTask(void *argument);
void RefereeTask(void *argument);
extern void ws2812Task(void *argument);
extern void MX_USB_DEVICE_Init(void);
void MX_FREERTOS_Init(void); /* (MISRA C 2004 rule 8.1) */
/* Hook prototypes */
void vApplicationStackOverflowHook(xTaskHandle xTask, signed char *pcTaskName);
void vApplicationMallocFailedHook(void);
/* USER CODE BEGIN 4 */
void vApplicationStackOverflowHook(xTaskHandle xTask, signed char *pcTaskName) {
/* Run time stack overflow checking is performed if
configCHECK_FOR_STACK_OVERFLOW is defined to 1 or 2. This hook function is
called if a stack overflow is detected. */
void vApplicationStackOverflowHook(xTaskHandle xTask, signed char *pcTaskName)
{
/* Run time stack overflow checking is performed if
configCHECK_FOR_STACK_OVERFLOW is defined to 1 or 2. This hook function is
called if a stack overflow is detected. */
}
/* USER CODE END 4 */
/* USER CODE BEGIN 5 */
void vApplicationMallocFailedHook(void) {
/* vApplicationMallocFailedHook() will only be called if
configUSE_MALLOC_FAILED_HOOK is set to 1 in FreeRTOSConfig.h. It is a hook
function that will get called if a call to pvPortMalloc() fails.
pvPortMalloc() is called internally by the kernel whenever a task, queue,
timer or semaphore is created. It is also called by various parts of the
demo application. If heap_1.c or heap_2.c are used, then the size of the
heap available to pvPortMalloc() is defined by configTOTAL_HEAP_SIZE in
FreeRTOSConfig.h, and the xPortGetFreeHeapSize() API function can be used
to query the size of free heap space that remains (although it does not
provide information on how the remaining heap might be fragmented). */
void vApplicationMallocFailedHook(void)
{
/* vApplicationMallocFailedHook() will only be called if
configUSE_MALLOC_FAILED_HOOK is set to 1 in FreeRTOSConfig.h. It is a hook
function that will get called if a call to pvPortMalloc() fails.
pvPortMalloc() is called internally by the kernel whenever a task, queue,
timer or semaphore is created. It is also called by various parts of the
demo application. If heap_1.c or heap_2.c are used, then the size of the
heap available to pvPortMalloc() is defined by configTOTAL_HEAP_SIZE in
FreeRTOSConfig.h, and the xPortGetFreeHeapSize() API function can be used
to query the size of free heap space that remains (although it does not
provide information on how the remaining heap might be fragmented). */
}
/* USER CODE END 5 */
@@ -171,62 +181,63 @@ void vApplicationMallocFailedHook(void) {
* @param None
* @retval None
*/
void MX_FREERTOS_Init(void) {
/* USER CODE BEGIN Init */
void MX_FREERTOS_Init(void)
{
/* USER CODE BEGIN Init */
/* USER CODE END Init */
/* USER CODE END Init */
/* USER CODE BEGIN RTOS_MUTEX */
/* add mutexes, ... */
/* USER CODE END RTOS_MUTEX */
/* USER CODE BEGIN RTOS_MUTEX */
/* add mutexes, ... */
/* USER CODE END RTOS_MUTEX */
/* USER CODE BEGIN RTOS_SEMAPHORES */
/* add semaphores, ... */
/* USER CODE END RTOS_SEMAPHORES */
/* USER CODE BEGIN RTOS_SEMAPHORES */
/* add semaphores, ... */
/* USER CODE END RTOS_SEMAPHORES */
/* USER CODE BEGIN RTOS_TIMERS */
/* start timers, add new ones, ... */
/* USER CODE END RTOS_TIMERS */
/* USER CODE BEGIN RTOS_TIMERS */
/* start timers, add new ones, ... */
/* USER CODE END RTOS_TIMERS */
/* USER CODE BEGIN RTOS_QUEUES */
/* add queues, ... */
/* USER CODE END RTOS_QUEUES */
/* USER CODE BEGIN RTOS_QUEUES */
/* add queues, ... */
/* USER CODE END RTOS_QUEUES */
/* Create the thread(s) */
/* creation of BeginTask */
BeginTaskHandle = osThreadNew(StartDefaultTask, NULL, &BeginTask_attributes);
/* Create the thread(s) */
/* creation of BeginTask */
BeginTaskHandle = osThreadNew(StartDefaultTask, NULL, &BeginTask_attributes);
/* creation of shoot */
shootHandle = osThreadNew(ShootTask, NULL, &shoot_attributes);
/* creation of shoot */
shootHandle = osThreadNew(ShootTask, NULL, &shoot_attributes);
/* creation of gimbal */
gimbalHandle = osThreadNew(GimbalTask, NULL, &gimbal_attributes);
/* creation of gimbal */
gimbalHandle = osThreadNew(GimbalTask, NULL, &gimbal_attributes);
/* creation of chassis */
chassisHandle = osThreadNew(ChassisTask, NULL, &chassis_attributes);
/* creation of chassis */
chassisHandle = osThreadNew(ChassisTask, NULL, &chassis_attributes);
/* creation of init */
initHandle = osThreadNew(StartInitTask, NULL, &init_attributes);
/* creation of init */
initHandle = osThreadNew(StartInitTask, NULL, &init_attributes);
/* creation of vision */
visionHandle = osThreadNew(VisionTask, NULL, &vision_attributes);
/* creation of vision */
visionHandle = osThreadNew(VisionTask, NULL, &vision_attributes);
/* creation of cmd */
cmdHandle = osThreadNew(CmdTask, NULL, &cmd_attributes);
/* creation of cmd */
cmdHandle = osThreadNew(CmdTask, NULL, &cmd_attributes);
/* creation of reference */
referenceHandle = osThreadNew(RefereeTask, NULL, &reference_attributes);
/* creation of reference */
referenceHandle = osThreadNew(RefereeTask, NULL, &reference_attributes);
/* creation of WS2812Task */
WS2812TaskHandle = osThreadNew(ws2812Task, NULL, &WS2812Task_attributes);
/* creation of WS2812Task */
WS2812TaskHandle = osThreadNew(ws2812Task, NULL, &WS2812Task_attributes);
/* USER CODE BEGIN RTOS_THREADS */
/* add threads, ... */
/* USER CODE END RTOS_THREADS */
/* USER CODE BEGIN RTOS_THREADS */
/* add threads, ... */
/* USER CODE END RTOS_THREADS */
/* USER CODE BEGIN RTOS_EVENTS */
/* add events, ... */
/* USER CODE END RTOS_EVENTS */
/* USER CODE BEGIN RTOS_EVENTS */
/* add events, ... */
/* USER CODE END RTOS_EVENTS */
}
@@ -239,14 +250,15 @@ void MX_FREERTOS_Init(void) {
/* USER CODE END Header_StartDefaultTask */
__weak void StartDefaultTask(void *argument)
{
/* init code for USB_DEVICE */
MX_USB_DEVICE_Init();
/* USER CODE BEGIN StartDefaultTask */
/* Infinite loop */
for (;;) {
osDelay(1);
}
/* USER CODE END StartDefaultTask */
/* init code for USB_DEVICE */
MX_USB_DEVICE_Init();
/* USER CODE BEGIN StartDefaultTask */
/* Infinite loop */
for (;;)
{
osDelay(1);
}
/* USER CODE END StartDefaultTask */
}
/* USER CODE BEGIN Header_ShootTask */
@@ -258,12 +270,13 @@ __weak void StartDefaultTask(void *argument)
/* USER CODE END Header_ShootTask */
__weak void ShootTask(void *argument)
{
/* USER CODE BEGIN ShootTask */
/* Infinite loop */
for (;;) {
osDelay(1);
}
/* USER CODE END ShootTask */
/* USER CODE BEGIN ShootTask */
/* Infinite loop */
for (;;)
{
osDelay(1);
}
/* USER CODE END ShootTask */
}
/* USER CODE BEGIN Header_GimbalTask */
@@ -275,12 +288,13 @@ __weak void ShootTask(void *argument)
/* USER CODE END Header_GimbalTask */
__weak void GimbalTask(void *argument)
{
/* USER CODE BEGIN GimbalTask */
/* Infinite loop */
for (;;) {
osDelay(1);
}
/* USER CODE END GimbalTask */
/* USER CODE BEGIN GimbalTask */
/* Infinite loop */
for (;;)
{
osDelay(1);
}
/* USER CODE END GimbalTask */
}
/* USER CODE BEGIN Header_ChassisTask */
@@ -292,12 +306,13 @@ __weak void GimbalTask(void *argument)
/* USER CODE END Header_ChassisTask */
__weak void ChassisTask(void *argument)
{
/* USER CODE BEGIN ChassisTask */
/* Infinite loop */
for (;;) {
osDelay(1);
}
/* USER CODE END ChassisTask */
/* USER CODE BEGIN ChassisTask */
/* Infinite loop */
for (;;)
{
osDelay(1);
}
/* USER CODE END ChassisTask */
}
/* USER CODE BEGIN Header_StartInitTask */
@@ -309,12 +324,13 @@ __weak void ChassisTask(void *argument)
/* USER CODE END Header_StartInitTask */
__weak void StartInitTask(void *argument)
{
/* USER CODE BEGIN StartInitTask */
/* Infinite loop */
for (;;) {
osDelay(1);
}
/* USER CODE END StartInitTask */
/* USER CODE BEGIN StartInitTask */
/* Infinite loop */
for (;;)
{
osDelay(1);
}
/* USER CODE END StartInitTask */
}
/* USER CODE BEGIN Header_VisionTask */
@@ -326,12 +342,13 @@ __weak void StartInitTask(void *argument)
/* USER CODE END Header_VisionTask */
__weak void VisionTask(void *argument)
{
/* USER CODE BEGIN VisionTask */
/* Infinite loop */
for (;;) {
osDelay(1);
}
/* USER CODE END VisionTask */
/* USER CODE BEGIN VisionTask */
/* Infinite loop */
for (;;)
{
osDelay(1);
}
/* USER CODE END VisionTask */
}
/* USER CODE BEGIN Header_CmdTask */
@@ -343,12 +360,13 @@ __weak void VisionTask(void *argument)
/* USER CODE END Header_CmdTask */
__weak void CmdTask(void *argument)
{
/* USER CODE BEGIN CmdTask */
/* Infinite loop */
for (;;) {
osDelay(1);
}
/* USER CODE END CmdTask */
/* USER CODE BEGIN CmdTask */
/* Infinite loop */
for (;;)
{
osDelay(1);
}
/* USER CODE END CmdTask */
}
/* USER CODE BEGIN Header_RefereeTask */
@@ -360,16 +378,37 @@ __weak void CmdTask(void *argument)
/* USER CODE END Header_RefereeTask */
__weak void RefereeTask(void *argument)
{
/* USER CODE BEGIN RefereeTask */
/* Infinite loop */
for (;;) {
osDelay(1);
}
/* USER CODE END RefereeTask */
/* USER CODE BEGIN RefereeTask */
/* Infinite loop */
for (;;)
{
osDelay(1);
}
/* USER CODE END RefereeTask */
}
/* Private application code --------------------------------------------------*/
/* USER CODE BEGIN Application */
//Todo:INS_Task是测试阶段使用。
__attribute__((noreturn)) void StartINSTASK(void const *argument)
{
static float ins_start;
static float ins_dt;
INS_Init(); // 确保BMI088被正确初始化.
// LOGINFO("[freeRTOS] INS Task Start");
for (;;)
{
// 1kHz
// ins_start = DWT_GetTimeline_ms();
INS_Task();
// ins_dt = DWT_GetTimeline_ms() - ins_start;
// if (ins_dt > 1)
// Todo: LOGERROR("[freeRTOS] INS Task is being DELAY! dt = [%f]", &ins_dt);
// // VisionSend(); // 解算完成后发送视觉数据,但是当前的实现不太优雅,后续若添加硬件触发需要重新考虑结构的组织
osDelay(1); // 1ms, 1kHz
}
}
/* USER CODE END Application */

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@@ -0,0 +1,201 @@
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View File

@@ -498,12 +498,14 @@ Mcu.Pin55=VP_TIM1_VS_ClockSourceINT
Mcu.Pin56=VP_TIM1_VS_no_output3
Mcu.Pin57=VP_USB_DEVICE_VS_USB_DEVICE_CDC_HS
Mcu.Pin58=VP_MEMORYMAP_VS_MEMORYMAP
Mcu.Pin59=VP_STMicroelectronics.X-CUBE-ALGOBUILD_VS_DSPOoLibraryJjLibrary_1.4.0_1.4.0
Mcu.Pin6=PC0
Mcu.Pin7=PC1
Mcu.Pin8=PC2_C
Mcu.Pin9=PC3_C
Mcu.PinsNb=59
Mcu.ThirdPartyNb=0
Mcu.PinsNb=60
Mcu.ThirdParty0=STMicroelectronics.X-CUBE-ALGOBUILD.1.4.0
Mcu.ThirdPartyNb=1
Mcu.UserConstants=
Mcu.UserName=STM32H723VGTx
MxCube.Version=6.15.0
@@ -874,6 +876,10 @@ SPI6.Direction=SPI_DIRECTION_2LINES_TXONLY
SPI6.IPParameters=VirtualType,Mode,Direction,CalculateBaudRate,DataSize,BaudRatePrescaler,CLKPhase
SPI6.Mode=SPI_MODE_MASTER
SPI6.VirtualType=VM_MASTER
STMicroelectronics.X-CUBE-ALGOBUILD.1.4.0.DSPOoLibraryJjLibrary_Checked=true
STMicroelectronics.X-CUBE-ALGOBUILD.1.4.0.IPParameters=LibraryCcDSPOoLibraryJjDSPOoLibrary
STMicroelectronics.X-CUBE-ALGOBUILD.1.4.0.LibraryCcDSPOoLibraryJjDSPOoLibrary=true
STMicroelectronics.X-CUBE-ALGOBUILD.1.4.0_SwParameter=LibraryCcDSPOoLibraryJjDSPOoLibrary\:true;
TIM1.Channel-PWM\ Generation3\ No\ Output=TIM_CHANNEL_3
TIM1.IPParameters=Channel-PWM Generation3 No Output,Prescaler,Period
TIM1.Period=1999
@@ -929,6 +935,8 @@ VP_FREERTOS_VS_CMSIS_V2.Mode=CMSIS_V2
VP_FREERTOS_VS_CMSIS_V2.Signal=FREERTOS_VS_CMSIS_V2
VP_MEMORYMAP_VS_MEMORYMAP.Mode=CurAppReg
VP_MEMORYMAP_VS_MEMORYMAP.Signal=MEMORYMAP_VS_MEMORYMAP
VP_STMicroelectronics.X-CUBE-ALGOBUILD_VS_DSPOoLibraryJjLibrary_1.4.0_1.4.0.Mode=DSPOoLibraryJjLibrary
VP_STMicroelectronics.X-CUBE-ALGOBUILD_VS_DSPOoLibraryJjLibrary_1.4.0_1.4.0.Signal=STMicroelectronics.X-CUBE-ALGOBUILD_VS_DSPOoLibraryJjLibrary_1.4.0_1.4.0
VP_SYS_VS_tim23.Mode=TIM23
VP_SYS_VS_tim23.Signal=SYS_VS_tim23
VP_TIM1_VS_ClockSourceINT.Mode=Internal

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@@ -0,0 +1,86 @@
/**
* @file robot.c
* @brief
* @author TuxMonkey (nqx2004@gmail.com)
* @version 1.0
* @date 2025-07-08
*
* @copyright Copyright (c) 2025 DLMU-C.ONE
*
* @par 修改日志:
* <table>
* <tr><th>Date <th>Version <th>Author <th>Description
* <tr><td>2025-07-08 <td>1.0 <td>TuxMonkey <td>内容
* </table>
*/
#include "bsp_init.h"
#include "robot.h"
#include "cmsis_gcc.h"
// #include "robot_def.h"
// #include "robot_task.h"
// // 编译warning,提醒开发者修改机器人参数
// #ifndef ROBOT_DEF_PARAM_WARNING
// #define ROBOT_DEF_PARAM_WARNING
// #pragma message "check if you have configured the parameters in robot_def.h, IF NOT, please refer to the comments AND DO IT, otherwise the robot will have FATAL ERRORS!!!"
// #endif // !ROBOT_DEF_PARAM_WARNING
// #if defined(ONE_BOARD) || defined(CHASSIS_BOARD)
// #include "chassis.h"
// #endif
// #if defined(ONE_BOARD) || defined(GIMBAL_BOARD)
// #include "gimbal.h"
// #include "shoot.h"
// #include "robot_cmd.h"
// #endif
/**
* @brief 机器人初始化函数
*
* @note 该函数在系统启动时调用,用于初始化机器人各个模块
*
* @attention 请不要在初始化过程中使用中断和延时函数!
* 若必须,则只允许使用DWT_Delay()
*/
void RobotInit()
{
// 关闭中断,防止在初始化过程中发生中断
// 请不要在初始化过程中使用中断和延时函数!
// 若必须,则只允许使用DWT_Delay()
__disable_irq();
BSPInit();
#if defined(ONE_BOARD) || defined(GIMBAL_BOARD)
RobotCMDInit();
// GimbalInit();
// ShootInit();
#endif
#if defined(ONE_BOARD) || defined(CHASSIS_BOARD)
ChassisInit();
#endif
// OSTaskInit(); // 创建基础任务
// 初始化完成,开启中断
__enable_irq();
}
// void RobotTask()
// {
// #if defined(ONE_BOARD) || defined(GIMBAL_BOARD)
// RobotCMDTask();
// // GimbalTask();
// // ShootTask();
// #endif
// #if defined(ONE_BOARD) || defined(CHASSIS_BOARD)
// ChassisTask();
// #endif
// }

View File

@@ -0,0 +1,18 @@
#ifndef ROBOT_H
#define ROBOT_H
/* Robot利用robot_def.h中的宏对不同的机器人进行了大量的兼容,同时兼容了两个开发板(云台板和底盘板)的配置 */
/**
* @brief 机器人初始化,请在开启rtos之前调用.这也是唯一需要放入main函数的函数
*
*/
void RobotInit();
/**
* @brief 机器人任务,放入实时系统以一定频率运行,内部会调用各个应用的任务
*
*/
void RobotTask();
#endif

22
User_Code/bsp/bsp_init.h Normal file
View File

@@ -0,0 +1,22 @@
#ifndef BSP_INIT_h
#define BSP_INIT_h
#include "bsp_init.h"
// #include "bsp_log.h"
#include "bsp_dwt.h"
// #include "bsp_usb.h"
/**
* @brief bsp层初始化统一入口,这里仅初始化必须的bsp组件,其他组件的初始化在各自的模块中进行
* 需在实时系统启动前调用,目前由RobotoInit()调用
*
* @note 其他实例型的外设如CAN和串口会在注册实例的时候自动初始化,不注册不初始化
*/
inline void BSPInit()
{
DWT_Init(480); //Todo:修改这里以适配喵板cpufreq
// BSPLogInit();
}
#endif // !BSP_INIT_h

View File

@@ -1,5 +1,139 @@
//
// Created by tuxmonkey on 2025/10/28.
//
/**
* @file bsp_dwt.c
* @brief DWT延时 软件延时库
* @author TuxMonkey (nqx2004@gmail.com)
* @version 1.0
* @date 2025-07-08
*
* @copyright Copyright (c) 2025 DLMU-C.ONE
*
* @par 修改日志:
* <table>
* <tr><th>Date <th>Version <th>Author <th>Description
* <tr><td>2025-07-08 <td>1.0 <td>TuxMonkey <td>内容
* </table>
*/
#include "bsp_dwt.h"
#include "bsp_dwt.h"
#include "cmsis_os.h"
static DWT_Time_t SysTime;
static uint32_t CPU_FREQ_Hz, CPU_FREQ_Hz_ms, CPU_FREQ_Hz_us;
static uint32_t CYCCNT_RountCount;
static uint32_t CYCCNT_LAST;
static uint64_t CYCCNT64;
/**
* @brief 私有函数,用于检查DWT CYCCNT寄存器是否溢出,并更新CYCCNT_RountCount
* @attention 此函数假设两次调用之间的时间间隔不超过一次溢出
*
* @todo 更好的方案是为dwt的时间更新单独设置一个任务?
* 不过,使用dwt的初衷是定时不被中断/任务等因素影响,因此该实现仍然有其存在的意义
*
*/
static void DWT_CNT_Update(void)
{
static volatile uint8_t bit_locker = 0;
if (!bit_locker)
{
bit_locker = 1;
volatile uint32_t cnt_now = DWT->CYCCNT;
if (cnt_now < CYCCNT_LAST)
CYCCNT_RountCount++;
CYCCNT_LAST = DWT->CYCCNT;
bit_locker = 0;
}
}
void DWT_Init(uint32_t CPU_Freq_mHz)
{
/* 使能DWT外设 */
CoreDebug->DEMCR |= CoreDebug_DEMCR_TRCENA_Msk;
/* DWT CYCCNT寄存器计数清0 */
DWT->CYCCNT = (uint32_t) 0u;
/* 使能Cortex-M DWT CYCCNT寄存器 */
DWT->CTRL |= DWT_CTRL_CYCCNTENA_Msk;
CPU_FREQ_Hz = CPU_Freq_mHz * 1000000;
CPU_FREQ_Hz_ms = CPU_FREQ_Hz / 1000;
CPU_FREQ_Hz_us = CPU_FREQ_Hz / 1000000;
CYCCNT_RountCount = 0;
DWT_CNT_Update();
}
float DWT_GetDeltaT(uint32_t *cnt_last)
{
volatile uint32_t cnt_now = DWT->CYCCNT;
float dt = ((uint32_t) (cnt_now - *cnt_last)) / ((float) (CPU_FREQ_Hz));
*cnt_last = cnt_now;
DWT_CNT_Update();
return dt;
}
double DWT_GetDeltaT64(uint32_t *cnt_last)
{
volatile uint32_t cnt_now = DWT->CYCCNT;
double dt = ((uint32_t) (cnt_now - *cnt_last)) / ((double) (CPU_FREQ_Hz));
*cnt_last = cnt_now;
DWT_CNT_Update();
return dt;
}
void DWT_SysTimeUpdate(void)
{
volatile uint32_t cnt_now = DWT->CYCCNT;
static uint64_t CNT_TEMP1, CNT_TEMP2, CNT_TEMP3;
DWT_CNT_Update();
CYCCNT64 = (uint64_t) CYCCNT_RountCount * (uint64_t) UINT32_MAX + (uint64_t) cnt_now;
CNT_TEMP1 = CYCCNT64 / CPU_FREQ_Hz;
CNT_TEMP2 = CYCCNT64 - CNT_TEMP1 * CPU_FREQ_Hz;
SysTime.s = CNT_TEMP1;
SysTime.ms = CNT_TEMP2 / CPU_FREQ_Hz_ms;
CNT_TEMP3 = CNT_TEMP2 - SysTime.ms * CPU_FREQ_Hz_ms;
SysTime.us = CNT_TEMP3 / CPU_FREQ_Hz_us;
}
float DWT_GetTimeline_s(void)
{
DWT_SysTimeUpdate();
float DWT_Timelinef32 = SysTime.s + SysTime.ms * 0.001f + SysTime.us * 0.000001f;
return DWT_Timelinef32;
}
float DWT_GetTimeline_ms(void)
{
DWT_SysTimeUpdate();
float DWT_Timelinef32 = SysTime.s * 1000 + SysTime.ms + SysTime.us * 0.001f;
return DWT_Timelinef32;
}
uint64_t DWT_GetTimeline_us(void)
{
DWT_SysTimeUpdate();
uint64_t DWT_Timelinef32 = SysTime.s * 1000000 + SysTime.ms * 1000 + SysTime.us;
return DWT_Timelinef32;
}
void DWT_Delay(float Delay)
{
uint32_t tickstart = DWT->CYCCNT;
float wait = Delay;
while ((DWT->CYCCNT - tickstart) < wait * (float) CPU_FREQ_Hz);
}

View File

@@ -1,8 +1,104 @@
//
// Created by tuxmonkey on 2025/10/28.
//
/**
* @file bsp_dwt.h
* @brief DWT延时 软件延时库头文件
* @author TuxMonkey (nqx2004@gmail.com)
* @version 1.0
* @date 2025-07-08
*
* @copyright Copyright (c) 2025 DLMU-C.ONE
*
* @par 修改日志:
* <table>
* <tr><th>Date <th>Version <th>Author <th>Description
* <tr><td>2025-07-08 <td>1.0 <td>TuxMonkey <td>内容
* </table>
*/
#ifndef TRONONEH7_SCAFFOLD_BSP_DWT_H
#define TRONONEH7_SCAFFOLD_BSP_DWT_H
#ifndef _BSP_DWT_H
#define _BSP_DWT_H
#endif //TRONONEH7_SCAFFOLD_BSP_DWT_H
#include "main.h"
#include "stdint.h"
#include "bsp_log.h"
typedef struct
{
uint32_t s;
uint16_t ms;
uint16_t us;
} DWT_Time_t;
/**
* @brief 该宏用于计算代码段执行时间,单位为秒/s,返回值为float类型
* 首先需要创建一个float类型的变量,用于存储时间间隔
* 计算得到的时间间隔同时还会通过RTT打印到日志终端,你也可以将你的dt变量添加到查看
*/
#define TIME_ELAPSE(dt, code) \
do \
{ \
float tstart = DWT_GetTimeline_s(); \
code; \
dt = DWT_GetTimeline_s() - tstart; \
LOGINFO("[DWT] " #dt " = %f s\r\n", dt); \
} while (0)
/**
* @brief 初始化DWT,传入参数为CPU频率,单位MHz
*
* @param CPU_Freq_mHz c板为168MHz,A板为180MHz
*/
void DWT_Init(uint32_t CPU_Freq_mHz);
/**
* @brief 获取两次调用之间的时间间隔,单位为秒/s
*
* @param cnt_last 上一次调用的时间戳
* @return float 时间间隔,单位为秒/s
*/
float DWT_GetDeltaT(uint32_t *cnt_last);
/**
* @brief 获取两次调用之间的时间间隔,单位为秒/s,高精度
*
* @param cnt_last 上一次调用的时间戳
* @return double 时间间隔,单位为秒/s
*/
double DWT_GetDeltaT64(uint32_t *cnt_last);
/**
* @brief 获取当前时间,单位为秒/s,即初始化后的时间
*
* @return float 时间轴
*/
float DWT_GetTimeline_s(void);
/**
* @brief 获取当前时间,单位为毫秒/ms,即初始化后的时间
*
* @return float
*/
float DWT_GetTimeline_ms(void);
/**
* @brief 获取当前时间,单位为微秒/us,即初始化后的时间
*
* @return uint64_t
*/
uint64_t DWT_GetTimeline_us(void);
/**
* @brief DWT延时函数,单位为秒/s
* @attention 该函数不受中断是否开启的影响,可以在临界区和关闭中断时使用
* @note 禁止在__disable_irq()和__enable_irq()之间使用HAL_Delay()函数,应使用本函数
*
* @param Delay 延时时间,单位为秒/s
*/
void DWT_Delay(float Delay);
/**
* @brief DWT更新时间轴函数,会被三个timeline函数调用
* @attention 如果长时间不调用timeline函数,则需要手动调用该函数更新时间轴,否则CYCCNT溢出后定时和时间轴不准确
*/
void DWT_SysTimeUpdate(void);
#endif /* BSP_DWT_H_ */

View File

@@ -0,0 +1,54 @@
# bsp_dwt
DWT是stm32内部的一个"隐藏资源",他的用途是给下载器提供准确的定时,从而为调试信息加上时间戳.并在固定的时间间隔将调试数据发送到你的xxlink上.
## 常用功能
### 计算两次进入同一个函数的时间间隔
```c
static uint32_t cnt;
float deltaT;
deltaT=DWT_GetDeltaT(&cnt);
```
### 计算执行某部分代码的耗时
```c
float start,end;
start=DWT_DetTimeline_ms();
// some proc to go...
for(uint8_t i=0;i<10;i++)
foo();
end = DWT_DetTimeline_ms()-start;
```
我们还提供了一个宏用于调试计时:
```c
#define TIME_ELAPSE(dt, code) \
do \
{ \
float tstart = DWT_GetTimeline_s(); \
code; \
dt = DWT_GetTimeline_s() - tstart; \
LOGINFO("[DWT] " #dt " = %f s\r\n", dt); \
} while (0)
```
传入一个float类型的变量,并将你要执行的代码写入第二个参数:
```c
static float my_func_dt;
TIME_ELAPSE(my_func_dt,
Function1(vara);
Function2(some, var);
Function3(your,param);
// something more
);
// my_func_dt can be used for other purpose then;
```

View File

@@ -150,7 +150,7 @@ FDCANInstance *FDCANRegister(FDCAN_Init_Config_s *config)
{
while (1)
{
// LOGERROR("[bsp_fdcan] FDCAN instance exceeded MAX num, consider balance the load of FDCAN bus");
// Todo:LOGERROR("[bsp_fdcan] FDCAN instance exceeded MAX num, consider balance the load of FDCAN bus");
}
}
for (size_t i = 0; i < idx; i++)
@@ -160,7 +160,7 @@ FDCANInstance *FDCANRegister(FDCAN_Init_Config_s *config)
{
while (1)
{
// LOGERROR("[bsp_fdcan] FDCAN id crash ,tx [%d] or rx [%d] already registered", config->tx_id, config->rx_id);
// Todo:LOGERROR("[bsp_fdcan] FDCAN id crash ,tx [%d] or rx [%d] already registered", config->tx_id, config->rx_id);
}
}
}
@@ -243,7 +243,7 @@ void FDCANSetDLC(FDCANInstance *_instance, uint8_t length)
if (length > 64 || length == 0) // 安全检查
while (1)
{
//LOGERROR("[bsp_fdcan] FDCAN DLC error! check your code or wild pointer");
//Todo:LOGERROR("[bsp_fdcan] FDCAN DLC error! check your code or wild pointer");
}
_instance->txconf.DataLength = FDCANLenToDlc(length);
}

View File

@@ -1,5 +1,208 @@
//
// Created by ASUS on 2025/11/15.
//
/**
* @file controller.c
* @author wanghongxi
* @author modified by neozng
* @brief PID控制器定义
* @version beta
* @date 2022-11-01
*
* @copyrightCopyright (c) 2022 HNU YueLu EC all rights reserved
*/
#include "controller.h"
#include "memory.h"
/* ----------------------------下面是pid优化环节的实现---------------------------- */
// 梯形积分
static void f_Trapezoid_Intergral(PIDInstance *pid)
{
// 计算梯形的面积,(上底+下底)*高/2
pid->ITerm = pid->Ki * ((pid->Err + pid->Last_Err) / 2) * pid->dt;
}
// 变速积分(误差小时积分作用更强)
static void f_Changing_Integration_Rate(PIDInstance *pid)
{
if (pid->Err * pid->Iout > 0)
{
// 积分呈累积趋势
if (abs(pid->Err) <= pid->CoefB)
return; // Full integral
if (abs(pid->Err) <= (pid->CoefA + pid->CoefB))
pid->ITerm *= (pid->CoefA - abs(pid->Err) + pid->CoefB) / pid->CoefA;
else // 最大阈值,不使用积分
pid->ITerm = 0;
}
}
static void f_Integral_Limit(PIDInstance *pid)
{
static float temp_Output, temp_Iout;
temp_Iout = pid->Iout + pid->ITerm;
temp_Output = pid->Pout + pid->Iout + pid->Dout;
if (abs(temp_Output) > pid->MaxOut)
{
if (pid->Err * pid->Iout > 0) // 积分却还在累积
{
pid->ITerm = 0; // 当前积分项置零
}
}
if (temp_Iout > pid->IntegralLimit)
{
pid->ITerm = 0;
pid->Iout = pid->IntegralLimit;
}
if (temp_Iout < -pid->IntegralLimit)
{
pid->ITerm = 0;
pid->Iout = -pid->IntegralLimit;
}
}
// 微分先行(仅使用反馈值而不计参考输入的微分)
static void f_Derivative_On_Measurement(PIDInstance *pid)
{
pid->Dout = pid->Kd * (pid->Last_Measure - pid->Measure) / pid->dt;
}
// 微分滤波(采集微分时,滤除高频噪声)
static void f_Derivative_Filter(PIDInstance *pid)
{
pid->Dout = pid->Dout * pid->dt / (pid->Derivative_LPF_RC + pid->dt) +
pid->Last_Dout * pid->Derivative_LPF_RC / (pid->Derivative_LPF_RC + pid->dt);
}
// 输出滤波
static void f_Output_Filter(PIDInstance *pid)
{
pid->Output = pid->Output * pid->dt / (pid->Output_LPF_RC + pid->dt) +
pid->Last_Output * pid->Output_LPF_RC / (pid->Output_LPF_RC + pid->dt);
}
// 输出限幅
static void f_Output_Limit(PIDInstance *pid)
{
if (pid->Output > pid->MaxOut)
{
pid->Output = pid->MaxOut;
}
if (pid->Output < -(pid->MaxOut))
{
pid->Output = -(pid->MaxOut);
}
}
// 电机堵转检测
static void f_PID_ErrorHandle(PIDInstance *pid)
{
/*Motor Blocked Handle*/
if (fabsf(pid->Output) < pid->MaxOut * 0.001f || fabsf(pid->Ref) < 0.0001f)
return;
if ((fabsf(pid->Ref - pid->Measure) / fabsf(pid->Ref)) > 0.95f)
{
// Motor blocked counting
pid->ERRORHandler.ERRORCount++;
}
else
{
pid->ERRORHandler.ERRORCount = 0;
}
if (pid->ERRORHandler.ERRORCount > 500)
{
// Motor blocked over 1000times
pid->ERRORHandler.ERRORType = PID_MOTOR_BLOCKED_ERROR;
}
}
/* ---------------------------下面是PID的外部算法接口--------------------------- */
/**
* @brief 初始化PID,设置参数和启用的优化环节,将其他数据置零
*
* @param pid PID实例
* @param config PID初始化设置
*/
void PIDInit(PIDInstance *pid, PID_Init_Config_s *config)
{
// config的数据和pid的部分数据是连续且相同的的,所以可以直接用memcpy
// @todo: 不建议这样做,可扩展性差,不知道的开发者可能会误以为pid和config是同一个结构体
// 后续修改为逐个赋值
memset(pid, 0, sizeof(PIDInstance));
// utilize the quality of struct that its memeory is continuous
memcpy(pid, config, sizeof(PID_Init_Config_s));
// set rest of memory to 0
DWT_GetDeltaT(&pid->DWT_CNT);
}
/**
* @brief PID计算
* @param[in] PID结构体
* @param[in] 测量值
* @param[in] 期望值
* @retval 返回空
*/
float PIDCalculate(PIDInstance *pid, float measure, float ref)
{
// 堵转检测
if (pid->Improve & PID_ErrorHandle)
f_PID_ErrorHandle(pid);
pid->dt = DWT_GetDeltaT(&pid->DWT_CNT); // 获取两次pid计算的时间间隔,用于积分和微分
// 保存上次的测量值和误差,计算当前error
pid->Measure = measure;
pid->Ref = ref;
pid->Err = pid->Ref - pid->Measure;
// 如果在死区外,则计算PID
if (abs(pid->Err) > pid->DeadBand)
{
// 基本的pid计算,使用位置式
pid->Pout = pid->Kp * pid->Err;
pid->ITerm = pid->Ki * pid->Err * pid->dt;
pid->Dout = pid->Kd * (pid->Err - pid->Last_Err) / pid->dt;
// 梯形积分
if (pid->Improve & PID_Trapezoid_Intergral)
f_Trapezoid_Intergral(pid);
// 变速积分
if (pid->Improve & PID_ChangingIntegrationRate)
f_Changing_Integration_Rate(pid);
// 微分先行
if (pid->Improve & PID_Derivative_On_Measurement)
f_Derivative_On_Measurement(pid);
// 微分滤波器
if (pid->Improve & PID_DerivativeFilter)
f_Derivative_Filter(pid);
// 积分限幅
if (pid->Improve & PID_Integral_Limit)
f_Integral_Limit(pid);
pid->Iout += pid->ITerm; // 累加积分
pid->Output = pid->Pout + pid->Iout + pid->Dout; // 计算输出
// 输出滤波
if (pid->Improve & PID_OutputFilter)
f_Output_Filter(pid);
// 输出限幅
f_Output_Limit(pid);
}
else // 进入死区, 则清空积分和输出
{
pid->Output = 0;
pid->ITerm = 0;
}
// 保存当前数据,用于下次计算
pid->Last_Measure = pid->Measure;
pid->Last_Output = pid->Output;
pid->Last_Dout = pid->Dout;
pid->Last_Err = pid->Err;
pid->Last_ITerm = pid->ITerm;
return pid->Output;
}

View File

@@ -1,8 +1,136 @@
//
// Created by ASUS on 2025/11/15.
//
/**
******************************************************************************
* @file controller.h
* @author Wang Hongxi
* @version V1.1.3
* @date 2021/7/3
* @brief
******************************************************************************
* @attention
*
******************************************************************************
*/
#ifndef _CONTROLLER_H
#define _CONTROLLER_H
#ifndef TRONONEH7_SCAFFOLD_CONTROLLER_H
#define TRONONEH7_SCAFFOLD_CONTROLLER_H
#include "main.h"
#include "stdint.h"
#include "memory.h"
#include "stdlib.h"
#include "bsp_dwt.h"
#include "arm_math.h"
#include <math.h>
#endif //TRONONEH7_SCAFFOLD_CONTROLLER_H
#ifndef abs
#define abs(x) ((x > 0) ? x : -x)
#endif
// PID 优化环节使能标志位,通过位与可以判断启用的优化环节;也可以改成位域的形式
typedef enum
{
PID_IMPROVE_NONE = 0b00000000, // 0000 0000
PID_Integral_Limit = 0b00000001, // 0000 0001
PID_Derivative_On_Measurement = 0b00000010, // 0000 0010
PID_Trapezoid_Intergral = 0b00000100, // 0000 0100
PID_Proportional_On_Measurement = 0b00001000, // 0000 1000
PID_OutputFilter = 0b00010000, // 0001 0000
PID_ChangingIntegrationRate = 0b00100000, // 0010 0000
PID_DerivativeFilter = 0b01000000, // 0100 0000
PID_ErrorHandle = 0b10000000, // 1000 0000
} PID_Improvement_e;
/* PID 报错类型枚举*/
typedef enum errorType_e
{
PID_ERROR_NONE = 0x00U,
PID_MOTOR_BLOCKED_ERROR = 0x01U
} ErrorType_e;
typedef struct
{
uint64_t ERRORCount;
ErrorType_e ERRORType;
} PID_ErrorHandler_t;
/* PID结构体 */
typedef struct
{
//---------------------------------- init config block
// config parameter
float Kp;
float Ki;
float Kd;
float MaxOut;
float DeadBand;
// improve parameter
PID_Improvement_e Improve;
float IntegralLimit; // 积分限幅
float CoefA; // 变速积分 For Changing Integral
float CoefB; // 变速积分 ITerm = Err*((A-abs(err)+B)/A) when B<|err|<A+B
float Output_LPF_RC; // 输出滤波器 RC = 1/omegac
float Derivative_LPF_RC; // 微分滤波器系数
//-----------------------------------
// for calculating
float Measure;
float Last_Measure;
float Err;
float Last_Err;
float Last_ITerm;
float Pout;
float Iout;
float Dout;
float ITerm;
float Output;
float Last_Output;
float Last_Dout;
float Ref;
uint32_t DWT_CNT;
float dt;
PID_ErrorHandler_t ERRORHandler;
} PIDInstance;
/* 用于PID初始化的结构体*/
typedef struct // config parameter
{
// basic parameter
float Kp;
float Ki;
float Kd;
float MaxOut; // 输出限幅
float DeadBand; // 死区
// improve parameter
PID_Improvement_e Improve;
float IntegralLimit; // 积分限幅
float CoefA; // AB为变速积分参数,变速积分实际上就引入了积分分离
float CoefB; // ITerm = Err*((A-abs(err)+B)/A) when B<|err|<A+B
float Output_LPF_RC; // RC = 1/omegac
float Derivative_LPF_RC;
} PID_Init_Config_s;
/**
* @brief 初始化PID实例
* @todo 待修改为统一的PIDRegister风格
* @param pid PID实例指针
* @param config PID初始化配置
*/
void PIDInit(PIDInstance *pid, PID_Init_Config_s *config);
/**
* @brief 计算PID输出
*
* @param pid PID实例指针
* @param measure 反馈值
* @param ref 设定值
* @return float PID计算输出
*/
float PIDCalculate(PIDInstance *pid, float measure, float ref);
#endif

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@@ -1,5 +1,486 @@
//
// Created by ASUS on 2025/11/15.
//
/**
******************************************************************************
* @file kalman filter.c
* @author Wang Hongxi
* @version V1.2.2
* @date 2022/1/8
* @brief C implementation of kalman filter
******************************************************************************
* @attention
* 该卡尔曼滤波器可以在传感器采样频率不同的情况下动态调整矩阵H R和K的维数与数值。
* This implementation of kalman filter can dynamically adjust dimension and
* value of matrix H R and K according to the measurement validity under any
* circumstance that the sampling rate of component sensors are different.
*
* 因此矩阵H和R的初始化会与矩阵P A和Q有所不同。另外的在初始化量测向量z时需要额外写
* 入传感器量测所对应的状态与这个量测的方式,详情请见例程
* Therefore, the initialization of matrix P, F, and Q is sometimes different
* from that of matrices H R. when initialization. Additionally, the corresponding
* state and the method of the measurement should be provided when initializing
* measurement vector z. For more details, please see the example.
*
* 若不需要动态调整量测向量z可简单将结构体中的Use_Auto_Adjustment初始化为0并像初
* 始化矩阵P那样用常规方式初始化z H R即可。
* If automatic adjustment is not required, assign zero to the UseAutoAdjustment
* and initialize z H R in the normal way as matrix P.
*
* 要求量测向量z与控制向量u在传感器回调函数中更新。整数0意味着量测无效即自上次卡尔曼
* 滤波更新后无传感器数据更新。因此量测向量z与控制向量u会在卡尔曼滤波更新过程中被清零
* MeasuredVector and ControlVector are required to be updated in the sensor
* callback function. Integer 0 in measurement vector z indicates the invalidity
* of current measurement, so MeasuredVector and ControlVector will be reset
* (to 0) during each update.
*
* 此外矩阵P过度收敛后滤波器将难以再适应状态的缓慢变化从而产生滤波估计偏差。该算法
* 通过限制矩阵P最小值的方法可有效抑制滤波器的过度收敛详情请见例程。
* Additionally, the excessive convergence of matrix P will make filter incapable
* of adopting the slowly changing state. This implementation can effectively
* suppress filter excessive convergence through boundary limiting for matrix P.
* For more details, please see the example.
*
* @example:
* x =
* | height |
* | velocity |
* |acceleration|
*
* KalmanFilter_t Height_KF;
*
* void INS_Task_Init(void)
* {
* static float P_Init[9] =
* {
* 10, 0, 0,
* 0, 30, 0,
* 0, 0, 10,
* };
* static float F_Init[9] =
* {
* 1, dt, 0.5*dt*dt,
* 0, 1, dt,
* 0, 0, 1,
* };
* static float Q_Init[9] =
* {
* 0.25*dt*dt*dt*dt, 0.5*dt*dt*dt, 0.5*dt*dt,
* 0.5*dt*dt*dt, dt*dt, dt,
* 0.5*dt*dt, dt, 1,
* };
*
* // 设置最小方差
* static float state_min_variance[3] = {0.03, 0.005, 0.1};
*
* // 开启自动调整
* Height_KF.UseAutoAdjustment = 1;
*
* // 气压测得高度 GPS测得高度 加速度计测得z轴运动加速度
* static uint8_t measurement_reference[3] = {1, 1, 3}
*
* static float measurement_degree[3] = {1, 1, 1}
* // 根据measurement_reference与measurement_degree生成H矩阵如下在当前周期全部测量数据有效情况下
* |1 0 0|
* |1 0 0|
* |0 0 1|
*
* static float mat_R_diagonal_elements = {30, 25, 35}
* //根据mat_R_diagonal_elements生成R矩阵如下在当前周期全部测量数据有效情况下
* |30 0 0|
* | 0 25 0|
* | 0 0 35|
*
* Kalman_Filter_Init(&Height_KF, 3, 0, 3);
*
* // 设置矩阵值
* memcpy(Height_KF.P_data, P_Init, sizeof(P_Init));
* memcpy(Height_KF.F_data, F_Init, sizeof(F_Init));
* memcpy(Height_KF.Q_data, Q_Init, sizeof(Q_Init));
* memcpy(Height_KF.MeasurementMap, measurement_reference, sizeof(measurement_reference));
* memcpy(Height_KF.MeasurementDegree, measurement_degree, sizeof(measurement_degree));
* memcpy(Height_KF.MatR_DiagonalElements, mat_R_diagonal_elements, sizeof(mat_R_diagonal_elements));
* memcpy(Height_KF.StateMinVariance, state_min_variance, sizeof(state_min_variance));
* }
*
* void INS_Task(void const *pvParameters)
* {
* // 循环更新
* Kalman_Filter_Update(&Height_KF);
* vTaskDelay(ts);
* }
*
* // 测量数据更新应按照以下形式 即向MeasuredVector赋值
* void Barometer_Read_Over(void)
* {
* ......
* INS_KF.MeasuredVector[0] = baro_height;
* }
* void GPS_Read_Over(void)
* {
* ......
* INS_KF.MeasuredVector[1] = GPS_height;
* }
* void Acc_Data_Process(void)
* {
* ......
* INS_KF.MeasuredVector[2] = acc.z;
* }
******************************************************************************
*/
#include "kalman_filter.h"
uint16_t sizeof_float, sizeof_double;
static void H_K_R_Adjustment(KalmanFilter_t *kf);
/**
* @brief 初始化矩阵维度信息并为矩阵分配空间
*
* @param kf kf类型定义
* @param xhatSize 状态变量维度
* @param uSize 控制变量维度
* @param zSize 观测量维度
*/
void Kalman_Filter_Init(KalmanFilter_t *kf, uint8_t xhatSize, uint8_t uSize, uint8_t zSize)
{
sizeof_float = sizeof(float);
sizeof_double = sizeof(double);
kf->xhatSize = xhatSize;
kf->uSize = uSize;
kf->zSize = zSize;
kf->MeasurementValidNum = 0;
// measurement flags
kf->MeasurementMap = (uint8_t *) user_malloc(sizeof(uint8_t) * zSize);
memset(kf->MeasurementMap, 0, sizeof(uint8_t) * zSize);
kf->MeasurementDegree = (float *) user_malloc(sizeof_float * zSize);
memset(kf->MeasurementDegree, 0, sizeof_float * zSize);
kf->MatR_DiagonalElements = (float *) user_malloc(sizeof_float * zSize);
memset(kf->MatR_DiagonalElements, 0, sizeof_float * zSize);
kf->StateMinVariance = (float *) user_malloc(sizeof_float * xhatSize);
memset(kf->StateMinVariance, 0, sizeof_float * xhatSize);
kf->temp = (uint8_t *) user_malloc(sizeof(uint8_t) * zSize);
memset(kf->temp, 0, sizeof(uint8_t) * zSize);
// filter data
kf->FilteredValue = (float *) user_malloc(sizeof_float * xhatSize);
memset(kf->FilteredValue, 0, sizeof_float * xhatSize);
kf->MeasuredVector = (float *) user_malloc(sizeof_float * zSize);
memset(kf->MeasuredVector, 0, sizeof_float * zSize);
kf->ControlVector = (float *) user_malloc(sizeof_float * uSize);
memset(kf->ControlVector, 0, sizeof_float * uSize);
// xhat x(k|k)
kf->xhat_data = (float *) user_malloc(sizeof_float * xhatSize);
memset(kf->xhat_data, 0, sizeof_float * xhatSize);
Matrix_Init(&kf->xhat, kf->xhatSize, 1, (float *) kf->xhat_data);
// xhatminus x(k|k-1)
kf->xhatminus_data = (float *) user_malloc(sizeof_float * xhatSize);
memset(kf->xhatminus_data, 0, sizeof_float * xhatSize);
Matrix_Init(&kf->xhatminus, kf->xhatSize, 1, (float *) kf->xhatminus_data);
if (uSize != 0)
{
// control vector u
kf->u_data = (float *) user_malloc(sizeof_float * uSize);
memset(kf->u_data, 0, sizeof_float * uSize);
Matrix_Init(&kf->u, kf->uSize, 1, (float *) kf->u_data);
}
// measurement vector z
kf->z_data = (float *) user_malloc(sizeof_float * zSize);
memset(kf->z_data, 0, sizeof_float * zSize);
Matrix_Init(&kf->z, kf->zSize, 1, (float *) kf->z_data);
// covariance matrix P(k|k)
kf->P_data = (float *) user_malloc(sizeof_float * xhatSize * xhatSize);
memset(kf->P_data, 0, sizeof_float * xhatSize * xhatSize);
Matrix_Init(&kf->P, kf->xhatSize, kf->xhatSize, (float *) kf->P_data);
// create covariance matrix P(k|k-1)
kf->Pminus_data = (float *) user_malloc(sizeof_float * xhatSize * xhatSize);
memset(kf->Pminus_data, 0, sizeof_float * xhatSize * xhatSize);
Matrix_Init(&kf->Pminus, kf->xhatSize, kf->xhatSize, (float *) kf->Pminus_data);
// state transition matrix F FT
kf->F_data = (float *) user_malloc(sizeof_float * xhatSize * xhatSize);
kf->FT_data = (float *) user_malloc(sizeof_float * xhatSize * xhatSize);
memset(kf->F_data, 0, sizeof_float * xhatSize * xhatSize);
memset(kf->FT_data, 0, sizeof_float * xhatSize * xhatSize);
Matrix_Init(&kf->F, kf->xhatSize, kf->xhatSize, (float *) kf->F_data);
Matrix_Init(&kf->FT, kf->xhatSize, kf->xhatSize, (float *) kf->FT_data);
if (uSize != 0)
{
// control matrix B
kf->B_data = (float *) user_malloc(sizeof_float * xhatSize * uSize);
memset(kf->B_data, 0, sizeof_float * xhatSize * uSize);
Matrix_Init(&kf->B, kf->xhatSize, kf->uSize, (float *) kf->B_data);
}
// measurement matrix H
kf->H_data = (float *) user_malloc(sizeof_float * zSize * xhatSize);
kf->HT_data = (float *) user_malloc(sizeof_float * xhatSize * zSize);
memset(kf->H_data, 0, sizeof_float * zSize * xhatSize);
memset(kf->HT_data, 0, sizeof_float * xhatSize * zSize);
Matrix_Init(&kf->H, kf->zSize, kf->xhatSize, (float *) kf->H_data);
Matrix_Init(&kf->HT, kf->xhatSize, kf->zSize, (float *) kf->HT_data);
// process noise covariance matrix Q
kf->Q_data = (float *) user_malloc(sizeof_float * xhatSize * xhatSize);
memset(kf->Q_data, 0, sizeof_float * xhatSize * xhatSize);
Matrix_Init(&kf->Q, kf->xhatSize, kf->xhatSize, (float *) kf->Q_data);
// measurement noise covariance matrix R
kf->R_data = (float *) user_malloc(sizeof_float * zSize * zSize);
memset(kf->R_data, 0, sizeof_float * zSize * zSize);
Matrix_Init(&kf->R, kf->zSize, kf->zSize, (float *) kf->R_data);
// kalman gain K
kf->K_data = (float *) user_malloc(sizeof_float * xhatSize * zSize);
memset(kf->K_data, 0, sizeof_float * xhatSize * zSize);
Matrix_Init(&kf->K, kf->xhatSize, kf->zSize, (float *) kf->K_data);
kf->S_data = (float *) user_malloc(sizeof_float * kf->xhatSize * kf->xhatSize);
kf->temp_matrix_data = (float *) user_malloc(sizeof_float * kf->xhatSize * kf->xhatSize);
kf->temp_matrix_data1 = (float *) user_malloc(sizeof_float * kf->xhatSize * kf->xhatSize);
kf->temp_vector_data = (float *) user_malloc(sizeof_float * kf->xhatSize);
kf->temp_vector_data1 = (float *) user_malloc(sizeof_float * kf->xhatSize);
Matrix_Init(&kf->S, kf->xhatSize, kf->xhatSize, (float *) kf->S_data);
Matrix_Init(&kf->temp_matrix, kf->xhatSize, kf->xhatSize, (float *) kf->temp_matrix_data);
Matrix_Init(&kf->temp_matrix1, kf->xhatSize, kf->xhatSize, (float *) kf->temp_matrix_data1);
Matrix_Init(&kf->temp_vector, kf->xhatSize, 1, (float *) kf->temp_vector_data);
Matrix_Init(&kf->temp_vector1, kf->xhatSize, 1, (float *) kf->temp_vector_data1);
kf->SkipEq1 = 0;
kf->SkipEq2 = 0;
kf->SkipEq3 = 0;
kf->SkipEq4 = 0;
kf->SkipEq5 = 0;
}
void Kalman_Filter_Measure(KalmanFilter_t *kf)
{
// 矩阵H K R根据量测情况自动调整
// matrix H K R auto adjustment
if (kf->UseAutoAdjustment != 0)
H_K_R_Adjustment(kf);
else
{
memcpy(kf->z_data, kf->MeasuredVector, sizeof_float * kf->zSize);
memset(kf->MeasuredVector, 0, sizeof_float * kf->zSize);
}
memcpy(kf->u_data, kf->ControlVector, sizeof_float * kf->uSize);
}
void Kalman_Filter_xhatMinusUpdate(KalmanFilter_t *kf)
{
if (!kf->SkipEq1)
{
if (kf->uSize > 0)
{
kf->temp_vector.numRows = kf->xhatSize;
kf->temp_vector.numCols = 1;
kf->MatStatus = Matrix_Multiply(&kf->F, &kf->xhat, &kf->temp_vector);
kf->temp_vector1.numRows = kf->xhatSize;
kf->temp_vector1.numCols = 1;
kf->MatStatus = Matrix_Multiply(&kf->B, &kf->u, &kf->temp_vector1);
kf->MatStatus = Matrix_Add(&kf->temp_vector, &kf->temp_vector1, &kf->xhatminus);
}
else
{
kf->MatStatus = Matrix_Multiply(&kf->F, &kf->xhat, &kf->xhatminus);
}
}
}
void Kalman_Filter_PminusUpdate(KalmanFilter_t *kf)
{
if (!kf->SkipEq2)
{
kf->MatStatus = Matrix_Transpose(&kf->F, &kf->FT);
kf->MatStatus = Matrix_Multiply(&kf->F, &kf->P, &kf->Pminus);
kf->temp_matrix.numRows = kf->Pminus.numRows;
kf->temp_matrix.numCols = kf->FT.numCols;
kf->MatStatus = Matrix_Multiply(&kf->Pminus, &kf->FT, &kf->temp_matrix); // temp_matrix = F P(k-1) FT
kf->MatStatus = Matrix_Add(&kf->temp_matrix, &kf->Q, &kf->Pminus);
}
}
void Kalman_Filter_SetK(KalmanFilter_t *kf)
{
if (!kf->SkipEq3)
{
kf->MatStatus = Matrix_Transpose(&kf->H, &kf->HT); // z|x => x|z
kf->temp_matrix.numRows = kf->H.numRows;
kf->temp_matrix.numCols = kf->Pminus.numCols;
kf->MatStatus = Matrix_Multiply(&kf->H, &kf->Pminus, &kf->temp_matrix); // temp_matrix = H·P'(k)
kf->temp_matrix1.numRows = kf->temp_matrix.numRows;
kf->temp_matrix1.numCols = kf->HT.numCols;
kf->MatStatus = Matrix_Multiply(&kf->temp_matrix, &kf->HT, &kf->temp_matrix1); // temp_matrix1 = H·P'(k)·HT
kf->S.numRows = kf->R.numRows;
kf->S.numCols = kf->R.numCols;
kf->MatStatus = Matrix_Add(&kf->temp_matrix1, &kf->R, &kf->S); // S = H P'(k) HT + R
kf->MatStatus = Matrix_Inverse(&kf->S, &kf->temp_matrix1); // temp_matrix1 = inv(H·P'(k)·HT + R)
kf->temp_matrix.numRows = kf->Pminus.numRows;
kf->temp_matrix.numCols = kf->HT.numCols;
kf->MatStatus = Matrix_Multiply(&kf->Pminus, &kf->HT, &kf->temp_matrix); // temp_matrix = P'(k)·HT
kf->MatStatus = Matrix_Multiply(&kf->temp_matrix, &kf->temp_matrix1, &kf->K);
}
}
void Kalman_Filter_xhatUpdate(KalmanFilter_t *kf)
{
if (!kf->SkipEq4)
{
kf->temp_vector.numRows = kf->H.numRows;
kf->temp_vector.numCols = 1;
kf->MatStatus = Matrix_Multiply(&kf->H, &kf->xhatminus, &kf->temp_vector); // temp_vector = H xhat'(k)
kf->temp_vector1.numRows = kf->z.numRows;
kf->temp_vector1.numCols = 1;
kf->MatStatus = Matrix_Subtract(&kf->z, &kf->temp_vector, &kf->temp_vector1);
// temp_vector1 = z(k) - H·xhat'(k)
kf->temp_vector.numRows = kf->K.numRows;
kf->temp_vector.numCols = 1;
kf->MatStatus = Matrix_Multiply(&kf->K, &kf->temp_vector1, &kf->temp_vector);
// temp_vector = K(k)·(z(k) - H·xhat'(k))
kf->MatStatus = Matrix_Add(&kf->xhatminus, &kf->temp_vector, &kf->xhat);
}
}
void Kalman_Filter_P_Update(KalmanFilter_t *kf)
{
if (!kf->SkipEq5)
{
kf->temp_matrix.numRows = kf->K.numRows;
kf->temp_matrix.numCols = kf->H.numCols;
kf->temp_matrix1.numRows = kf->temp_matrix.numRows;
kf->temp_matrix1.numCols = kf->Pminus.numCols;
kf->MatStatus = Matrix_Multiply(&kf->K, &kf->H, &kf->temp_matrix); // temp_matrix = K(k)·H
kf->MatStatus = Matrix_Multiply(&kf->temp_matrix, &kf->Pminus, &kf->temp_matrix1);
// temp_matrix1 = K(k)·H·P'(k)
kf->MatStatus = Matrix_Subtract(&kf->Pminus, &kf->temp_matrix1, &kf->P);
}
}
/**
* @brief 执行卡尔曼滤波黄金五式,提供了用户定义函数,可以替代五个中的任意一个环节,方便自行扩展为EKF/UKF/ESKF/AUKF等
*
* @param kf kf类型定义
* @return float* 返回滤波值
*/
float *Kalman_Filter_Update(KalmanFilter_t *kf)
{
// 0. 获取量测信息
Kalman_Filter_Measure(kf);
if (kf->User_Func0_f != NULL)
kf->User_Func0_f(kf);
// 先验估计
// 1. xhat'(k)= A·xhat(k-1) + B·u
Kalman_Filter_xhatMinusUpdate(kf);
if (kf->User_Func1_f != NULL)
kf->User_Func1_f(kf);
// 预测更新
// 2. P'(k) = A·P(k-1)·AT + Q
Kalman_Filter_PminusUpdate(kf);
if (kf->User_Func2_f != NULL)
kf->User_Func2_f(kf);
if (kf->MeasurementValidNum != 0 || kf->UseAutoAdjustment == 0)
{
// 量测更新
// 3. K(k) = P'(k)·HT / (H·P'(k)·HT + R)
Kalman_Filter_SetK(kf);
if (kf->User_Func3_f != NULL)
kf->User_Func3_f(kf);
// 融合
// 4. xhat(k) = xhat'(k) + K(k)·(z(k) - H·xhat'(k))
Kalman_Filter_xhatUpdate(kf);
if (kf->User_Func4_f != NULL)
kf->User_Func4_f(kf);
// 修正方差
// 5. P(k) = (1-K(k)·H)·P'(k) ==> P(k) = P'(k)-K(k)·H·P'(k)
Kalman_Filter_P_Update(kf);
}
else
{
// 无有效量测,仅预测
// xhat(k) = xhat'(k)
// P(k) = P'(k)
memcpy(kf->xhat_data, kf->xhatminus_data, sizeof_float * kf->xhatSize);
memcpy(kf->P_data, kf->Pminus_data, sizeof_float * kf->xhatSize * kf->xhatSize);
}
// 自定义函数,可以提供后处理等
if (kf->User_Func5_f != NULL)
kf->User_Func5_f(kf);
// 避免滤波器过度收敛
// suppress filter excessive convergence
for (uint8_t i = 0; i < kf->xhatSize; ++i)
{
if (kf->P_data[i * kf->xhatSize + i] < kf->StateMinVariance[i])
kf->P_data[i * kf->xhatSize + i] = kf->StateMinVariance[i];
}
memcpy(kf->FilteredValue, kf->xhat_data, sizeof_float * kf->xhatSize);
if (kf->User_Func6_f != NULL)
kf->User_Func6_f(kf);
return kf->FilteredValue;
}
static void H_K_R_Adjustment(KalmanFilter_t *kf)
{
kf->MeasurementValidNum = 0;
memcpy(kf->z_data, kf->MeasuredVector, sizeof_float * kf->zSize);
memset(kf->MeasuredVector, 0, sizeof_float * kf->zSize);
// 识别量测数据有效性并调整矩阵H R K
// recognize measurement validity and adjust matrices H R K
memset(kf->R_data, 0, sizeof_float * kf->zSize * kf->zSize);
memset(kf->H_data, 0, sizeof_float * kf->xhatSize * kf->zSize);
for (uint8_t i = 0; i < kf->zSize; ++i)
{
if (kf->z_data[i] != 0)
{
// 重构向量z
// rebuild vector z
kf->z_data[kf->MeasurementValidNum] = kf->z_data[i];
kf->temp[kf->MeasurementValidNum] = i;
// 重构矩阵H
// rebuild matrix H
kf->H_data[kf->xhatSize * kf->MeasurementValidNum + kf->MeasurementMap[i] - 1] = kf->MeasurementDegree[i];
kf->MeasurementValidNum++;
}
}
for (uint8_t i = 0; i < kf->MeasurementValidNum; ++i)
{
// 重构矩阵R
// rebuild matrix R
kf->R_data[i * kf->MeasurementValidNum + i] = kf->MatR_DiagonalElements[kf->temp[i]];
}
// 调整矩阵维数
// adjust the dimensions of system matrices
kf->H.numRows = kf->MeasurementValidNum;
kf->H.numCols = kf->xhatSize;
kf->HT.numRows = kf->xhatSize;
kf->HT.numCols = kf->MeasurementValidNum;
kf->R.numRows = kf->MeasurementValidNum;
kf->R.numCols = kf->MeasurementValidNum;
kf->K.numRows = kf->xhatSize;
kf->K.numCols = kf->MeasurementValidNum;
kf->z.numRows = kf->MeasurementValidNum;
}

View File

@@ -1,8 +1,135 @@
//
// Created by ASUS on 2025/11/15.
//
/**
******************************************************************************
* @file kalman filter.h
* @author Wang Hongxi
* @version V1.2.2
* @date 2022/1/8
* @brief
******************************************************************************
* @attention
*
******************************************************************************
*/
#ifndef __KALMAN_FILTER_H
#define __KALMAN_FILTER_H
#ifndef TRONONEH7_SCAFFOLD_KALMAN_FILTER_H
#define TRONONEH7_SCAFFOLD_KALMAN_FILTER_H
// cortex-m4 DSP lib
/*
#define __CC_ARM // Keil
#define ARM_MATH_CM4
#define ARM_MATH_MATRIX_CHECK
#define ARM_MATH_ROUNDING
#define ARM_MATH_DSP // define in arm_math.h
*/
#endif //TRONONEH7_SCAFFOLD_KALMAN_FILTER_H
#include "stm32h723xx.h"
#include "arm_math.h"
//#include "dsp/matrix_functions.h"
#include "math.h"
#include "stdint.h"
#include "stdlib.h"
#ifndef user_malloc
#ifdef _CMSIS_OS_H
#define user_malloc pvPortMalloc
#else
#define user_malloc malloc
#endif
#endif
// 若运算速度不够,可以使用q31代替f32,但是精度会降低
#define mat arm_matrix_instance_f32
#define Matrix_Init arm_mat_init_f32
#define Matrix_Add arm_mat_add_f32
#define Matrix_Subtract arm_mat_sub_f32
#define Matrix_Multiply arm_mat_mult_f32
#define Matrix_Transpose arm_mat_trans_f32
#define Matrix_Inverse arm_mat_inverse_f32
typedef struct kf_t
{
float *FilteredValue;
float *MeasuredVector;
float *ControlVector;
uint8_t xhatSize;
uint8_t uSize;
uint8_t zSize;
uint8_t UseAutoAdjustment;
uint8_t MeasurementValidNum;
uint8_t *MeasurementMap; // 量测与状态的关系 how measurement relates to the state
float *MeasurementDegree; // 测量值对应H矩阵元素值 elements of each measurement in H
float *MatR_DiagonalElements; // 量测方差 variance for each measurement
float *StateMinVariance; // 最小方差 避免方差过度收敛 suppress filter excessive convergence
uint8_t *temp;
// 配合用户定义函数使用,作为标志位用于判断是否要跳过标准KF中五个环节中的任意一个
uint8_t SkipEq1, SkipEq2, SkipEq3, SkipEq4, SkipEq5;
// definiion of struct mat: rows & cols & pointer to vars
mat xhat; // x(k|k)
mat xhatminus; // x(k|k-1)
mat u; // control vector u
mat z; // measurement vector z
mat P; // covariance matrix P(k|k)
mat Pminus; // covariance matrix P(k|k-1)
mat F, FT; // state transition matrix F FT
mat B; // control matrix B
mat H, HT; // measurement matrix H
mat Q; // process noise covariance matrix Q
mat R; // measurement noise covariance matrix R
mat K; // kalman gain K
mat S, temp_matrix, temp_matrix1, temp_vector, temp_vector1;
int8_t MatStatus;
// 用户定义函数,可以替换或扩展基准KF的功能
void (*User_Func0_f)(struct kf_t *kf);
void (*User_Func1_f)(struct kf_t *kf);
void (*User_Func2_f)(struct kf_t *kf);
void (*User_Func3_f)(struct kf_t *kf);
void (*User_Func4_f)(struct kf_t *kf);
void (*User_Func5_f)(struct kf_t *kf);
void (*User_Func6_f)(struct kf_t *kf);
// 矩阵存储空间指针
float *xhat_data, *xhatminus_data;
float *u_data;
float *z_data;
float *P_data, *Pminus_data;
float *F_data, *FT_data;
float *B_data;
float *H_data, *HT_data;
float *Q_data;
float *R_data;
float *K_data;
float *S_data, *temp_matrix_data, *temp_matrix_data1, *temp_vector_data, *temp_vector_data1;
} KalmanFilter_t;
extern uint16_t sizeof_float, sizeof_double;
void Kalman_Filter_Init(KalmanFilter_t *kf, uint8_t xhatSize, uint8_t uSize, uint8_t zSize);
void Kalman_Filter_Measure(KalmanFilter_t *kf);
void Kalman_Filter_xhatMinusUpdate(KalmanFilter_t *kf);
void Kalman_Filter_PminusUpdate(KalmanFilter_t *kf);
void Kalman_Filter_SetK(KalmanFilter_t *kf);
void Kalman_Filter_xhatUpdate(KalmanFilter_t *kf);
void Kalman_Filter_P_Update(KalmanFilter_t *kf);
float *Kalman_Filter_Update(KalmanFilter_t *kf);
#endif //__KALMAN_FILTER_H

View File

@@ -10,24 +10,14 @@
*
******************************************************************************
*/
#ifndef _USER_LIB_H
#define _USER_LIB_H
#ifndef USER_LIB_H
#define USER_LIB_H
#include "stdint.h"
#include "main.h"
#include "cmsis_os.h"
enum
{
CHASSIS_DEBUG = 1,
GIMBAL_DEBUG,
INS_DEBUG,
RC_DEBUG,
IMU_HEAT_DEBUG,
SHOOT_DEBUG,
AIMASSIST_DEBUG,
};
extern uint8_t GlobalDebugMode;
#include "stm32h723xx.h"
#include "arm_math.h"
#ifndef user_malloc
#ifdef _CMSIS_OS_H
@@ -37,6 +27,19 @@ extern uint8_t GlobalDebugMode;
#endif
#endif
#define msin(x) (arm_sin_f32(x))
#define mcos(x) (arm_cos_f32(x))
typedef arm_matrix_instance_f32 mat;
// 若运算速度不够,可以使用q31代替f32,但是精度会降低
#define MatAdd arm_mat_add_f32
#define MatSubtract arm_mat_sub_f32
#define MatMultiply arm_mat_mult_f32
#define MatTranspose arm_mat_trans_f32
#define MatInverse arm_mat_inverse_f32
void MatInit(mat *m, uint8_t row, uint8_t col);
/* boolean type definitions */
#ifndef TRUE
#define TRUE 1 /**< boolean true */
@@ -87,40 +90,9 @@ extern uint8_t GlobalDebugMode;
#define VAL_MIN(a, b) ((a) < (b) ? (a) : (b))
#define VAL_MAX(a, b) ((a) > (b) ? (a) : (b))
typedef struct
{
float input; //输入数据
float out; //输出数据
float min_value; //限幅最小值
float max_value; //限幅最大值
float frame_period; //时间间隔
} ramp_function_source_t;
typedef __packed struct
{
uint16_t Order;
uint32_t Count;
float *x;
float *y;
float k;
float b;
float StandardDeviation;
float t[4];
} Ordinary_Least_Squares_t;
//快速开方
float Sqrt(float x);
//斜波函数初始化
void ramp_init(ramp_function_source_t *ramp_source_type, float frame_period, float max, float min);
//斜波函数计算
float ramp_calc(ramp_function_source_t *ramp_source_type, float input);
//绝对限制
float abs_limit(float num, float Limit);
@@ -142,24 +114,20 @@ int16_t int16_constrain(int16_t Value, int16_t minValue, int16_t maxValue);
//循环限幅函数
float loop_float_constrain(float Input, float minValue, float maxValue);
//角度 °限幅 180 ~ -180
float theta_format(float Ang);
int float_rounding(float raw);
//弧度格式化为-PI~PI
float *Norm3d(float *v);
float NormOf3d(float *v);
void Cross3d(float *v1, float *v2, float *res);
float Dot3d(float *v1, float *v2);
float AverageFilter(float new_data, float *buf, uint8_t len);
#define rad_format(Ang) loop_float_constrain((Ang), -PI, PI)
void OLS_Init(Ordinary_Least_Squares_t *OLS, uint16_t order);
void OLS_Update(Ordinary_Least_Squares_t *OLS, float deltax, float y);
float OLS_Derivative(Ordinary_Least_Squares_t *OLS, float deltax, float y);
float OLS_Smooth(Ordinary_Least_Squares_t *OLS, float deltax, float y);
float Get_OLS_Derivative(Ordinary_Least_Squares_t *OLS);
float Get_OLS_Smooth(Ordinary_Least_Squares_t *OLS);
#endif

View File

@@ -0,0 +1,17 @@
#ifndef GENERAL_DEF_H
#define GENERAL_DEF_H
// 一些module的通用数值型定义,注意条件macro兼容,一些宏可能在math.h中已经定义过了
#ifndef PI
#define PI 3.1415926535f
#endif
#define PI2 (PI * 2.0f) // 2 pi
#define RAD_2_DEGREE 57.2957795f // 180/pi
#define DEGREE_2_RAD 0.01745329252f // pi/180
#define RPM_2_ANGLE_PER_SEC 6.0f // ×360°/60sec
#define RPM_2_RAD_PER_SEC 0.104719755f // ×2pi/60sec
#endif // !GENERAL_DEF_H

View File

@@ -5,7 +5,7 @@
#include "bsp_log.h"
#include <math.h>
#pragma message "this is a legacy support. test the new BMI088 module as soon as possible."
// Todo: #pragma message "this is a legacy support. test the new BMI088 module as soon as possible."
float BMI088_ACCEL_SEN = BMI088_ACCEL_6G_SEN;
float BMI088_GYRO_SEN = BMI088_GYRO_2000_SEN;
@@ -64,7 +64,9 @@ IMU_Data_t BMI088;
}
static void BMI088_write_single_reg(uint8_t reg, uint8_t data);
static void BMI088_read_single_reg(uint8_t reg, uint8_t *return_data);
static void BMI088_read_muli_reg(uint8_t reg, uint8_t *buf, uint8_t len);
#elif defined(BMI088_USE_IIC)
@@ -138,7 +140,7 @@ void Calibrate_MPU_Offset(IMU_Data_t *bmi088)
bmi088->GyroOffset[2] = GzOFFSET;
bmi088->gNorm = gNORM;
bmi088->TempWhenCali = 40;
LOGERROR("[BMI088] Calibrate Failed! Use offline params");
// Todo: LOGERROR("[BMI088] Calibrate Failed! Use offline params");
break;
}
@@ -209,7 +211,7 @@ void Calibrate_MPU_Offset(IMU_Data_t *bmi088)
gyroDiff[1] > 0.5f || //0.15
gyroDiff[2] > 0.5f) //0.15
{
LOGWARNING("[bmi088] calibration was interrupted\n");
// LOGWARNING("[bmi088] calibration was interrupted\n");
break;
}
@@ -264,7 +266,7 @@ uint8_t bmi088_accel_init(void)
// check the "who am I"
if (res != BMI088_ACC_CHIP_ID_VALUE)
{
LOGERROR("[bmi088] Can not read bmi088 acc chip id");
// Todo: LOGERROR("[bmi088] Can not read bmi088 acc chip id");
return BMI088_NO_SENSOR;
}
@@ -312,7 +314,7 @@ uint8_t bmi088_gyro_init(void)
// check the "who am I"
if (res != BMI088_GYRO_CHIP_ID_VALUE)
{
LOGERROR("[bmi088] Can not read bmi088 gyro chip id");
//Todo: LOGERROR("[bmi088] Can not read bmi088 gyro chip id");
return BMI088_NO_SENSOR;
}

View File

@@ -23,6 +23,7 @@ set(MX_Include_Dirs
${CMAKE_CURRENT_SOURCE_DIR}/../../Middlewares/ST/STM32_USB_Device_Library/Class/CDC/Inc
${CMAKE_CURRENT_SOURCE_DIR}/../../Drivers/CMSIS/Device/ST/STM32H7xx/Include
${CMAKE_CURRENT_SOURCE_DIR}/../../Drivers/CMSIS/Include
${CMAKE_CURRENT_SOURCE_DIR}/../../Middlewares/ST/ARM/DSP/Inc
)
# STM32CubeMX generated application sources