refactor: migrate from DJI motors to DM motors, simplify to gimbal-only control

- Rewrite DM motor driver based on DM_6220 reference protocol (MIT/PosVel/Velocity modes)
- Use velocity control mode: MCU runs angle PID with IMU feedback, motor handles speed loop
- Rewrite vision protocol with 3 frame types (0xA5 auto data, 0xA6 manual data, 0xA7 command)
- Decouple serial parsing (opencv module) from mode switching (robot_cmd module)
- Implement dual-loop architecture: vision PID outer loop → angle ref → motor PID inner loop
- Add KF/PID reset on mode switch transitions
- Merge motor_reverse_flag and feedback_reverse_flag into single output_reverse flag
- Remove DMMotorEnable/DMMotorStop (motor always runs, controlled by angle ref)
- Remove unused modules: DJI/LK/HT/step/servo motors, chassis, shoot, referee
- Add ExitRun0Mode() for STM32H723 power supply configuration
- Clean up CMakeLists: 115 → 76 C source files
This commit is contained in:
2026-05-29 23:37:36 +08:00
parent 5b3333125d
commit 4d1702b577
17 changed files with 790 additions and 1485 deletions
+2 -2
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@@ -28,8 +28,8 @@ static void f_Changing_Integration_Rate(PIDInstance *pid)
// 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;
if (abs(pid->Err) <= (pid->CoefB + pid->CoefA))
pid->ITerm *= (pid->CoefB + pid->CoefA - abs(pid->Err)) / pid->CoefA;
else // 最大阈值,不使用积分
pid->ITerm = 0;
}
+187 -129
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@@ -1,23 +1,23 @@
#include "dmmotor.h"
#include "memory.h"
#include "general_def.h"
#include "user_lib.h"
#include "cmsis_os.h"
#include "string.h"
#include "daemon.h"
#include "stdlib.h"
#include "bsp_log.h"
#include "bsp_dwt.h"
static uint8_t idx;
static DMMotorInstance *dm_motor_instance[DM_MOTOR_CNT];
static osThreadId dm_task_handle[DM_MOTOR_CNT];
/* 两个用于将uint值和float值进行映射的函数,在设定发送值和解析反馈值时使用 */
/* ---- float <-> uint conversion for MIT mode ---- */
static uint16_t float_to_uint(float x, float x_min, float x_max, uint8_t bits)
{
float span = x_max - x_min;
float offset = x_min;
return (uint16_t)((x - offset) * ((float)((1 << bits) - 1)) / span);
}
static float uint_to_float(int x_int, float x_min, float x_max, int bits)
{
float span = x_max - x_min;
@@ -25,74 +25,155 @@ static float uint_to_float(int x_int, float x_min, float x_max, int bits)
return ((float)x_int) * span / ((float)((1 << bits) - 1)) + offset;
}
/* ---- Low-level CAN send functions (all three modes) ---- */
/* MIT mode: CAN ID = motor_id */
void DMMotorSendMIT(CANInstance *can, float pos, float vel, float kp, float kd, float torq)
{
uint16_t pos_uint = float_to_uint(pos, DM_P_MIN, DM_P_MAX, 16);
uint16_t vel_uint = float_to_uint(vel, DM_V_MIN, DM_V_MAX, 12);
uint16_t kp_uint = float_to_uint(kp, DM_KP_MIN, DM_KP_MAX, 12);
uint16_t kd_uint = float_to_uint(kd, DM_KD_MIN, DM_KD_MAX, 12);
uint16_t torq_uint = float_to_uint(torq, DM_T_MIN, DM_T_MAX, 12);
uint8_t *buf = can->tx_buff;
buf[0] = (uint8_t)(pos_uint >> 8);
buf[1] = (uint8_t)(pos_uint);
buf[2] = (uint8_t)(vel_uint >> 4);
buf[3] = (uint8_t)(((vel_uint & 0xF) << 4) | (kp_uint >> 8));
buf[4] = (uint8_t)(kp_uint);
buf[5] = (uint8_t)(kd_uint >> 4);
buf[6] = (uint8_t)(((kd_uint & 0xF) << 4) | (torq_uint >> 8));
buf[7] = (uint8_t)(torq_uint);
CANTransmit(can, 1);
}
/* Position-Velocity mode: CAN ID = motor_id + 0x100 */
void DMMotorSendPosVel(CANInstance *can, float pos, float vel)
{
uint8_t *buf = can->tx_buff;
uint8_t *pos_bytes = (uint8_t *)&pos;
uint8_t *vel_bytes = (uint8_t *)&vel;
buf[0] = pos_bytes[0];
buf[1] = pos_bytes[1];
buf[2] = pos_bytes[2];
buf[3] = pos_bytes[3];
buf[4] = vel_bytes[0];
buf[5] = vel_bytes[1];
buf[6] = vel_bytes[2];
buf[7] = vel_bytes[3];
/* Temporarily change tx_id to motor_id + 0x100 for this transmission */
uint32_t saved_id = can->tx_id;
can->tx_id = saved_id + 0x100;
CANTransmit(can, 1);
can->tx_id = saved_id;
}
/* Velocity mode: CAN ID = motor_id + 0x200 */
void DMMotorSendVelocity(CANInstance *can, float vel)
{
uint8_t *buf = can->tx_buff;
uint8_t *vel_bytes = (uint8_t *)&vel;
buf[0] = vel_bytes[0];
buf[1] = vel_bytes[1];
buf[2] = vel_bytes[2];
buf[3] = vel_bytes[3];
buf[4] = 0;
buf[5] = 0;
buf[6] = 0;
buf[7] = 0;
uint32_t saved_id = can->tx_id;
can->tx_id = saved_id + 0x200;
CANTransmit(can, 1);
can->tx_id = saved_id;
}
/* ---- Motor commands (enable/disable/zero/clear error) ---- */
void DMMotorSetMode(DMMotor_Mode_e cmd, DMMotorInstance *motor)
{
memset(motor->motor_can_instace->tx_buff, 0xff, 7); // 发送电机指令的时候前面7bytes都是0xff
motor->motor_can_instace->tx_buff[7] = (uint8_t)cmd; // 最后一位是命令id
CANTransmit(motor->motor_can_instace, 1);
memset(motor->motor_can_instance->tx_buff, 0xFF, 7);
motor->motor_can_instance->tx_buff[7] = (uint8_t)cmd;
CANTransmit(motor->motor_can_instance, 1);
}
/* ---- Feedback decode: CAN RX interrupt callback ---- */
static void DMMotorDecode(CANInstance *motor_can)
{
uint16_t tmp; // 用于暂存解析值,稍后转换成float数据,避免多次创建临时变量
uint8_t *rxbuff = motor_can->rx_buff;
DMMotorInstance *motor = (DMMotorInstance *)motor_can->id;
DM_Motor_Measure_s *measure = &(motor->measure); // 将can实例中保存的id转换成电机实例的指针
DM_Motor_Measure_s *measure = &motor->measure;
uint16_t tmp;
DaemonReload(motor->motor_daemon);
measure->id = rxbuff[0] & 0x0F; // 低 4 位是控制器 ID
measure->state = (rxbuff[0] >> 4) & 0x0F; // ERR 存储在 state 字段
measure->id = rxbuff[0] & 0x0F;
measure->state = (rxbuff[0] >> 4) & 0x0F;
measure->last_position = measure->position;
tmp = (uint16_t)((rxbuff[1] << 8) | rxbuff[2]);
measure->position = uint_to_float(tmp, DM_P_MIN, DM_P_MAX, 16);
tmp = (uint16_t)((rxbuff[3] << 4) | rxbuff[4] >> 4);
tmp = (uint16_t)((rxbuff[3] << 4) | (rxbuff[4] >> 4));
measure->velocity = uint_to_float(tmp, DM_V_MIN, DM_V_MAX, 12);
tmp = (uint16_t)(((rxbuff[4] & 0x0f) << 8) | rxbuff[5]);
tmp = (uint16_t)(((rxbuff[4] & 0x0F) << 8) | rxbuff[5]);
measure->torque = uint_to_float(tmp, DM_T_MIN, DM_T_MAX, 12);
measure->T_Mos = (float)rxbuff[6];
measure->T_Mos = (float)rxbuff[6];
measure->T_Rotor = (float)rxbuff[7];
// 多圈角度计算
if (measure->position - measure->last_position > 12.5)
measure->total_round--;
else if (measure->position - measure->last_position < -12.5)
measure->total_round++;
measure->total_angle = measure->position + measure->total_round * 25;
measure->total_angle = measure->total_angle * RAD_2_DEGREE;
measure->velocity = measure->velocity * RAD_2_DEGREE;
/* multi-turn tracking */
if (measure->position - measure->last_position > 10.0f)
measure->total_round--;
else if (measure->position - measure->last_position < -10.0f)
measure->total_round++;
measure->total_angle = (measure->position + measure->total_round * 25.1327f) * RAD_2_DEGREE;
measure->velocity = measure->velocity * RAD_2_DEGREE;
}
static void DMMotorLostCallback(void *motor_ptr)
{
DMMotorInstance *motor = (DMMotorInstance *)motor_ptr;
uint16_t can_bus = motor->motor_can_instace->can_handle == &hcan1 ? 1 : 2;
LOGWARNING("[DMmotor] Motor lost, can bus [%d] , id [%d]", can_bus, motor->motor_can_instace->tx_id);
LOGWARNING("[DMmotor] Motor lost, id [%d]", motor->motor_can_instance->tx_id);
}
void DMMotorCaliEncoder(DMMotorInstance *motor)
{
DMMotorSetMode(DM_CMD_ZERO_POSITION, motor);
DWT_Delay(0.1);
}
DMMotorInstance *DMMotorInit(Motor_Init_Config_s *config)
/* ---- Init ---- */
DMMotorInstance *DMMotorInit(DM_Motor_Init_Config_s *config)
{
DMMotorInstance *motor = (DMMotorInstance *)malloc(sizeof(DMMotorInstance));
memset(motor, 0, sizeof(DMMotorInstance));
motor->motor_settings = config->controller_setting_init_config;
PIDInit(&motor->current_PID, &config->controller_param_init_config.current_PID);
PIDInit(&motor->speed_PID, &config->controller_param_init_config.speed_PID);
PIDInit(&motor->angle_PID, &config->controller_param_init_config.angle_PID);
motor->other_angle_feedback_ptr = config->controller_param_init_config.other_angle_feedback_ptr;
motor->other_speed_feedback_ptr = config->controller_param_init_config.other_speed_feedback_ptr;
motor->motor_settings = config->motor_config.controller_setting_init_config;
motor->ctrl_mode = config->ctrl_mode;
motor->mit_kp = config->mit_kp;
motor->mit_kd = config->mit_kd;
config->can_init_config.can_module_callback = DMMotorDecode;
config->can_init_config.id = motor;
motor->motor_can_instace = CANRegister(&config->can_init_config);
/* init PID controllers */
PIDInit(&motor->motor_controller.angle_PID, &config->motor_config.controller_param_init_config.angle_PID);
PIDInit(&motor->motor_controller.speed_PID, &config->motor_config.controller_param_init_config.speed_PID);
PIDInit(&motor->motor_controller.current_PID, &config->motor_config.controller_param_init_config.current_PID);
motor->motor_controller.other_angle_feedback_ptr = config->motor_config.controller_param_init_config.other_angle_feedback_ptr;
motor->motor_controller.other_speed_feedback_ptr = config->motor_config.controller_param_init_config.other_speed_feedback_ptr;
motor->motor_controller.speed_feedforward_ptr = config->motor_config.controller_param_init_config.speed_feedforward_ptr;
motor->motor_controller.current_feedforward_ptr = config->motor_config.controller_param_init_config.current_feedforward_ptr;
/* register CAN instance */
config->motor_config.can_init_config.can_module_callback = DMMotorDecode;
config->motor_config.can_init_config.id = motor;
motor->motor_can_instance = CANRegister(&config->motor_config.can_init_config);
/* register daemon */
Daemon_Init_Config_s conf = {
.callback = DMMotorLostCallback,
.owner_id = motor,
@@ -100,133 +181,110 @@ DMMotorInstance *DMMotorInit(Motor_Init_Config_s *config)
};
motor->motor_daemon = DaemonRegister(&conf);
DMMotorEnable(motor);
/* enable motor */
DMMotorSetMode(DM_CMD_MOTOR_MODE, motor);
// DWT_Delay(0.1);
// DMMotorCaliEncoder(motor);
// DWT_Delay(0.1);
dm_motor_instance[idx++] = motor;
return motor;
}
/* ---- Runtime control ---- */
void DMMotorSetRef(DMMotorInstance *motor, float ref)
{
motor->pid_ref = ref;
}
void DMMotorEnable(DMMotorInstance *motor)
{
motor->stop_flag = MOTOR_ENALBED;
}
void DMMotorStop(DMMotorInstance *motor) // 不使用使能模式是因为需要收到反馈
{
motor->stop_flag = MOTOR_STOP;
}
void DMMotorOuterLoop(DMMotorInstance *motor, Closeloop_Type_e type)
{
motor->motor_settings.outer_loop_type = type;
}
//@Todo: 目前只实现了力控,更多位控PID等请自行添加
void DMMotorTask(void const *argument)
void DMMotorSetCtrlMode(DMMotorInstance *motor, DM_Motor_Mode_e mode)
{
float pid_ref, set;
DMMotorInstance *motor = (DMMotorInstance *)argument;
DM_Motor_Measure_s *measure = &motor->measure;
Motor_Control_Setting_s *setting = &motor->motor_settings;
// CANInstance *motor_can = motor->motor_can_instace;
// uint16_t tmp;
DMMotor_Send_s motor_send_mailbox;
float pid_measure; // 电机PID测量值和设定值
while (1)
motor->ctrl_mode = mode;
}
/* ---- Main control: called from Motor Task at 1kHz ---- */
void DMMotorControl(void)
{
for (uint8_t i = 0; i < idx; i++)
{
if(motor->measure.state == 0x00)
{
DMMotorSetMode(DM_CMD_MOTOR_MODE, motor);
osDelay(20);
}
if(motor->measure.state != 0x00&&motor->measure.state != 0x01)
DMMotorInstance *motor = dm_motor_instance[i];
DM_Motor_Measure_s *measure = &motor->measure;
Motor_Control_Setting_s *setting = &motor->motor_settings;
Motor_Controller_s *ctrl = &motor->motor_controller;
CANInstance *can = motor->motor_can_instance;
/* handle motor error states */
if (measure->state != 0x00 && measure->state != 0x01)
{
DMMotorSetMode(DM_CMD_CLEAR_ERROR, motor);
osDelay(20);
DWT_Delay(0.001);
DMMotorSetMode(DM_CMD_MOTOR_MODE, motor);
osDelay(20);
continue;
}
pid_ref = motor->pid_ref;
if (setting->motor_reverse_flag == MOTOR_DIRECTION_REVERSE)
pid_ref *= -1; // 设置反转
float pid_ref = motor->pid_ref;
/* ---- Angle loop (outermost) ---- */
if ((setting->close_loop_type & ANGLE_LOOP) && setting->outer_loop_type == ANGLE_LOOP)
{
float pid_measure;
if (setting->angle_feedback_source == OTHER_FEED)
{
pid_measure = *motor->other_angle_feedback_ptr;
// char buff[20];
// Float2Str(buff, pid_measure);
// LOGINFO("pid_measure: %s", buff);
}
pid_measure = *ctrl->other_angle_feedback_ptr;
else
pid_measure = measure->total_angle;
// 更新pid_ref进入下一个环
pid_ref = PIDCalculate(&motor->angle_PID, pid_measure, pid_ref);
pid_ref = PIDCalculate(&ctrl->angle_PID, pid_measure, pid_ref);
}
/* ---- Speed loop (inner) ---- */
if ((setting->close_loop_type & SPEED_LOOP) && (setting->outer_loop_type & (ANGLE_LOOP | SPEED_LOOP)))
{
if (setting->feedforward_flag & SPEED_FEEDFORWARD)
pid_ref += *motor->speed_feedforward_ptr;
pid_ref += *ctrl->speed_feedforward_ptr;
float pid_measure;
if (setting->speed_feedback_source == OTHER_FEED)
pid_measure = *motor->other_speed_feedback_ptr;
else // MOTOR_FEED
pid_measure = *ctrl->other_speed_feedback_ptr;
else
pid_measure = measure->velocity;
// 更新pid_ref进入下一个环
pid_ref = PIDCalculate(&motor->speed_PID, pid_measure, pid_ref);
pid_ref = PIDCalculate(&ctrl->speed_PID, pid_measure, pid_ref);
}
if (setting->feedforward_flag == 1)
pid_ref += 0.8;
if (setting->feedback_reverse_flag == FEEDBACK_DIRECTION_REVERSE)
/* output reverse */
if (setting->output_reverse == OUTPUT_DIRECTION_REVERSE)
pid_ref *= -1;
set = pid_ref;
/* ---- Send via selected control mode ---- */
float vel_cmd = pid_ref * DEGREE_2_RAD; // deg/s → rad/s
LIMIT_MIN_MAX(vel_cmd, DM_V_MIN, DM_V_MAX);
LIMIT_MIN_MAX(set, DM_T_MIN, DM_T_MAX);
motor_send_mailbox.position_des = float_to_uint(0, DM_P_MIN, DM_P_MAX, 16);
motor_send_mailbox.velocity_des = float_to_uint(0, DM_V_MIN, DM_V_MAX, 12);
motor_send_mailbox.torque_des = float_to_uint(set, DM_T_MIN, DM_T_MAX, 12);
motor_send_mailbox.Kp = 0;
motor_send_mailbox.Kd = 0;
switch (motor->ctrl_mode)
{
case DM_MODE_VELOCITY:
/* Velocity mode: MCU angle PID output → motor velocity ref */
DMMotorSendVelocity(can, vel_cmd);
break;
if (motor->stop_flag == MOTOR_STOP)
motor_send_mailbox.torque_des = float_to_uint(0, DM_T_MIN, DM_T_MAX, 12);
case DM_MODE_MIT: {
/* MIT mode: MCU angle PID output → motor position ref, motor handles position-velocity internally */
float pos_cmd = pid_ref * DEGREE_2_RAD;
LIMIT_MIN_MAX(pos_cmd, DM_P_MIN, DM_P_MAX);
DMMotorSendMIT(can, pos_cmd, 0.0f, motor->mit_kp, motor->mit_kd, 0.0f);
break;
}
motor->motor_can_instace->tx_buff[0] = (uint8_t)(motor_send_mailbox.position_des >> 8);
motor->motor_can_instace->tx_buff[1] = (uint8_t)(motor_send_mailbox.position_des);
motor->motor_can_instace->tx_buff[2] = (uint8_t)(motor_send_mailbox.velocity_des >> 4);
motor->motor_can_instace->tx_buff[3] = (uint8_t)(((motor_send_mailbox.velocity_des & 0xF) << 4) | (motor_send_mailbox.Kp >> 8));
motor->motor_can_instace->tx_buff[4] = (uint8_t)(motor_send_mailbox.Kp);
motor->motor_can_instace->tx_buff[5] = (uint8_t)(motor_send_mailbox.Kd >> 4);
motor->motor_can_instace->tx_buff[6] = (uint8_t)(((motor_send_mailbox.Kd & 0xF) << 4) | (motor_send_mailbox.torque_des >> 8));
motor->motor_can_instace->tx_buff[7] = (uint8_t)(motor_send_mailbox.torque_des);
CANTransmit(motor->motor_can_instace, 1);
osDelay(1);
case DM_MODE_POS_VEL: {
/* Position-Velocity mode: MCU angle PID output → motor position ref + velocity ff */
float pos_cmd = pid_ref * DEGREE_2_RAD;
LIMIT_MIN_MAX(pos_cmd, DM_P_MIN, DM_P_MAX);
DMMotorSendPosVel(can, pos_cmd, vel_cmd);
break;
}
}
}
}
void DMMotorControlInit()
{
char dm_task_name[5] = "dm";
// 遍历所有电机实例,创建任务
if (!idx)
return;
for (size_t i = 0; i < idx; i++)
{
char dm_id_buff[2] = {0};
__itoa(i, dm_id_buff, 10);
strcat(dm_task_name, dm_id_buff);
osThreadDef(dm_task_name, DMMotorTask, osPriorityNormal, 0, 128);
dm_task_handle[i] = osThreadCreate(osThread(dm_task_name), dm_motor_instance[i]);
}
}
+80 -53
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@@ -1,5 +1,6 @@
#ifndef DMMOTOR_H
#define DMMOTOR_H
#include <stdint.h>
#include "bsp_can.h"
#include "controller.h"
@@ -8,73 +9,99 @@
#define DM_MOTOR_CNT 4
#define DM_P_MIN (-12.56637f)
#define DM_P_MAX 12.56637f
/* DM motor parameter ranges (from reference DM_6220 driver) */
#define DM_P_MIN (-12.5f)
#define DM_P_MAX 12.5f
#define DM_V_MIN (-45.0f)
#define DM_V_MAX 45.0f
#define DM_T_MIN (-18.0f)
#define DM_T_MAX 18.0f
#define DM_T_MIN (-10.0f)
#define DM_T_MAX 10.0f
#define DM_KP_MIN 0.0f
#define DM_KP_MAX 500.0f
#define DM_KD_MIN 0.0f
#define DM_KD_MAX 5.0f
typedef struct
/* DM motor control modes */
typedef enum
{
uint8_t id;
uint8_t state;
float velocity;
float last_position;
float position;
float torque;
float T_Mos;
float T_Rotor;
int32_t total_round;
float total_angle;
}DM_Motor_Measure_s;
DM_MODE_MIT = 0, // MIT mode: CAN ID, packed pos/vel/KP/KD/torque
DM_MODE_POS_VEL = 1, // Position-Velocity mode: CAN ID + 0x100, float pos + float vel
DM_MODE_VELOCITY = 2, // Velocity mode: CAN ID + 0x200, float velocity only
} DM_Motor_Mode_e;
/* DM motor measurement data (parsed from feedback CAN frame) */
typedef struct
{
uint16_t position_des;
uint16_t velocity_des;
uint16_t torque_des;
uint16_t Kp;
uint16_t Kd;
}DMMotor_Send_s;
typedef struct
uint8_t id; // motor ID from feedback byte[0:3]
uint8_t state; // motor state from feedback byte[7:4]: 0=reset, 1=run
float position; // current position (rad, range ±12.5)
float velocity; // current velocity (rad/s, range ±45)
float torque; // current torque (N·m, range ±10)
float T_Mos; // MOS temperature (Celsius)
float T_Rotor; // rotor temperature (Celsius)
float last_position; // previous position for multi-turn calculation
int32_t total_round; // accumulated full revolutions
float total_angle; // multi-turn angle (degrees)
} DM_Motor_Measure_s;
/* DM motor instance (runtime state) */
typedef struct
{
DM_Motor_Measure_s measure;
Motor_Control_Setting_s motor_settings;
PIDInstance current_PID;
PIDInstance speed_PID;
PIDInstance angle_PID;
float *other_angle_feedback_ptr;
float *other_speed_feedback_ptr;
float *speed_feedforward_ptr;
float *current_feedforward_ptr;
float pid_ref;
Motor_Working_Type_e stop_flag;
CANInstance *motor_can_instace;
DaemonInstance* motor_daemon;
uint32_t lost_cnt;
uint8_t lost_status;
uint8_t last_lost_status;
}DMMotorInstance;
Motor_Controller_s motor_controller;
CANInstance *motor_can_instance; // CAN communication instance
DaemonInstance *motor_daemon; // daemon watchdog
DM_Motor_Mode_e ctrl_mode; // current control mode (MIT / Pos-Vel / Velocity)
float mit_kp; // MIT mode KP (motor internal position gain, 0~500)
float mit_kd; // MIT mode KD (motor internal velocity gain, 0~5)
float pid_ref; // reference input from application
} DMMotorInstance;
/* DM motor init config */
typedef struct
{
Motor_Init_Config_s motor_config; // generic motor PID and setting config
DM_Motor_Mode_e ctrl_mode; // default control mode
float mit_kp; // MIT mode KP (only for MIT mode)
float mit_kd; // MIT mode KD (only for MIT mode)
} DM_Motor_Init_Config_s;
/* DM motor command codes */
typedef enum
{
DM_CMD_MOTOR_MODE = 0xfc, // 使能,会响应指令
DM_CMD_RESET_MODE = 0xfd, // 停止
DM_CMD_ZERO_POSITION = 0xfe, // 将当前的位置设置为编码器零位
DM_CMD_CLEAR_ERROR = 0xfb // 清除电机过热错误
}DMMotor_Mode_e;
DM_CMD_MOTOR_MODE = 0xFC, // enable motor
DM_CMD_RESET_MODE = 0xFD, // disable motor
DM_CMD_ZERO_POSITION = 0xFE, // set current position as encoder zero
DM_CMD_CLEAR_ERROR = 0xFB, // clear motor error
} DMMotor_Mode_e;
DMMotorInstance *DMMotorInit(Motor_Init_Config_s *config);
/* ---- API ---- */
DMMotorInstance *DMMotorInit(DM_Motor_Init_Config_s *config);
void DMMotorSetRef(DMMotorInstance *motor, float ref);
void DMMotorOuterLoop(DMMotorInstance *motor,Closeloop_Type_e closeloop_type);
void DMMotorEnable(DMMotorInstance *motor);
void DMMotorStop(DMMotorInstance *motor);
void DMMotorCaliEncoder(DMMotorInstance *motor);
void DMMotorControlInit();
void DMMotorOuterLoop(DMMotorInstance *motor, Closeloop_Type_e type);
void DMMotorSetCtrlMode(DMMotorInstance *motor, DM_Motor_Mode_e mode);
void DMMotorSetMode(DMMotor_Mode_e mode, DMMotorInstance *motor);
#endif // !DMMOTOR
/**
* @brief Main control function called from Motor Task at 1kHz.
* Iterates all registered motors, runs PID cascade, sends CAN frames.
*/
void DMMotorControl(void);
/* ---- Low-level CAN send functions (all three modes) ---- */
/* MIT mode: send position + velocity + KP + KD + torque in packed 8-byte frame */
void DMMotorSendMIT(CANInstance *can, float pos, float vel, float kp, float kd, float torq);
/* Position-Velocity mode: send float position + float velocity */
void DMMotorSendPosVel(CANInstance *can, float pos, float vel);
/* Velocity mode: send float velocity only */
void DMMotorSendVelocity(CANInstance *can, float vel);
#endif // DMMOTOR_H
+12 -24
View File
@@ -49,19 +49,13 @@ typedef enum
OTHER_FEED,
} Feedback_Source_e;
/* 电机正反转标志 */
/* 输出反向标志: 取反最终PID输出 */
typedef enum
{
MOTOR_DIRECTION_NORMAL = 0,
MOTOR_DIRECTION_REVERSE = 1
} Motor_Reverse_Flag_e;
OUTPUT_DIRECTION_NORMAL = 0,
OUTPUT_DIRECTION_REVERSE = 1,
} Output_Reverse_Flag_e;
/* 反馈量正反标志 */
typedef enum
{
FEEDBACK_DIRECTION_NORMAL = 0,
FEEDBACK_DIRECTION_REVERSE = 1
} Feedback_Reverse_Flag_e;
typedef enum
{
MOTOR_STOP = 0,
@@ -77,14 +71,13 @@ typedef enum
/* 电机控制设置,包括闭环类型,反转标志和反馈来源 */
typedef struct
{
Closeloop_Type_e outer_loop_type; // 最外层的闭环,未设置时默认为最高级的闭环
Closeloop_Type_e close_loop_type; // 使用几个闭环(串级)
Motor_Reverse_Flag_e motor_reverse_flag; // 是否反转
Feedback_Reverse_Flag_e feedback_reverse_flag; // 反馈是否反向
Feedback_Source_e angle_feedback_source; // 角度反馈类型
Feedback_Source_e speed_feedback_source; // 速度反馈类型
uint8_t feedforward_flag; // 前馈标志
MOTOR_SEND_MODE_e send_mode; // 发送模式
Closeloop_Type_e outer_loop_type; // 最外层的闭环
Closeloop_Type_e close_loop_type; // 使用几个闭环(串级)
Output_Reverse_Flag_e output_reverse; // 输出反向
Feedback_Source_e angle_feedback_source; // 角度反馈类型
Feedback_Source_e speed_feedback_source; // 速度反馈类型
uint8_t feedforward_flag; // 前馈标志
MOTOR_SEND_MODE_e send_mode; // 发送模式
} Motor_Control_Setting_s;
@@ -111,12 +104,7 @@ typedef struct
typedef enum
{
MOTOR_TYPE_NONE = 0,
GM6020,
M3508,
M2006,
LK9025,
HT04,
GM6020_NEW //新版固件6020
DM_MOTOR,
} Motor_Type_e;
/**
+2 -20
View File
@@ -1,25 +1,7 @@
#include "motor_task.h"
#include "LK9025.h"
#include "HT04.h"
#include "dji_motor.h"
#include "step_motor.h"
#include "servo_motor.h"
#include "dmmotor.h"
void MotorControlTask()
{
// static uint8_t cnt = 0; 设定不同电机的任务频率
// if(cnt%5==0) //200hz
// if(cnt%10==0) //100hz
DJIMotorControl();
/* 如果有对应的电机则取消注释,可以加入条件编译或者register对应的idx判断是否注册了电机 */
LKMotorControl();
// legacy support
// 由于ht04电机的反馈方式为接收到一帧消息后立刻回传,以此方式连续发送可能导致总线拥塞
// 为了保证高频率控制,HTMotor中提供了以任务方式启动控制的接口,可通过宏定义切换
// HTMotorControl();
// 将所有的CAN设备集中在一处发送,最高反馈频率仅能达到500Hz,为了更好的控制效果,应使用新的HTMotorControlInit()接口
// StepMotorControl();
DMMotorControl();
}
+57 -81
View File
@@ -1,99 +1,75 @@
#include "opencv.h"
#include "daemon.h"
#define FRAME_SOF 0xA5
#define FRAME_PAYLOAD_LEN (2+2+4*12) // 52
#define FRAME_FULL_LEN (1+1+FRAME_PAYLOAD_LEN) //54
float opencv_Vision_data[12];
VisionData_t vision_data;
uint8_t Vison_revc_flag = 0; // 视觉数据接收标志位
uint8_t vision_used_flag = 0; // 视觉数据使用标志位,用于判断是否需要使用视觉数据
float Vison_Frequency; // 视觉数据接收频率,单位Hz
static USARTInstance *cv_usart_instance;
static DaemonInstance *OPENCV_vision_daemon_instance;
static DaemonInstance *vision_daemon_instance;
/**
* @brief 接收解包回调函数,将在bsp_usart.c中被usart rx callback调用
* @todo 1.提高可读性,将get_protocol_info的第四个参数增加一个float类型buffer
* 2.添加标志位解码
*/
static void DecodeVision()
static uint8_t calc_checksum(uint8_t *buf, uint8_t len)
{
DaemonReload(OPENCV_vision_daemon_instance); // 喂狗,防止离线
static uint32_t counter;
float dt = DWT_GetDeltaT(&counter);
Vison_Frequency = 1.0f / dt; // 计算频率
const uint16_t len = cv_usart_instance->recv_buff_size;
uint16_t flag_register;
uint8_t *buf = cv_usart_instance->recv_buff;
if (len != FRAME_FULL_LEN) {
// 长度不符
LOGERROR("Vision frame length error");
return;
}
if (buf[0] != FRAME_SOF) {
// SOF 错误
LOGERROR("Vision frame SOF error");
return;
}
uint8_t payload_len = buf[1];
if (payload_len != FRAME_PAYLOAD_LEN) {
// Payload 长度不符
LOGERROR("Vision frame payload length error");
return;
}
// 解析命令号和 flags(小端)
uint16_t cmd_id = buf[2] | (buf[3] << 8);
uint16_t flags = buf[4] | (buf[5] << 8);
// 解析 12 个 float
for (int i = 0; i < 12; i++) {
// 从 buf[6 + 4*i] 连续读 4 字节
memcpy(&opencv_Vision_data[i], buf + 6 + 4*i, sizeof(float));
}
// // 解析任务标志位(拟合最接近的int)
// int last_task_cmd = Vison_task_cmd;
// Vison_task_cmd = (int)(Vison_data[10] + 0.5f);
// if (Vison_task_cmd != last_task_cmd) {
// Vison_task_changed = 1; // 任务命令变化
// }
Vison_revc_flag = 1; // 设置接收标志位
// vision_used_flag = 1; // 设置视觉数据使用标志位
//解析暂停标志位
// run = (int)(Vison_data[11] + 0.5f);
// 处理...
// printf("Got frame: cmd=0x%04X flags=0x%04X\n", cmd_id, flags);
// for (int i = 0; i < 12; i += 2) {
// printf(" coord %d: (%.3f, %.3f)\n",
// i/2, data[i], data[i+1]);
// float a = data[0];
// TODO: code to resolve flag_register;
uint8_t sum = 0;
for (uint8_t i = 0; i < len - 1; i++)
sum += buf[i];
return sum;
}
void VisionOfflineCallback(void *owner_id)
static void DecodeVision()
{
Vison_revc_flag = 0; // 清除接收标志位
DaemonReload(vision_daemon_instance);
static uint32_t counter;
float dt = DWT_GetDeltaT(&counter);
vision_data.frequency = 1.0f / dt;
uint8_t *buf = cv_usart_instance->recv_buff;
uint16_t len = cv_usart_instance->recv_buff_size;
uint8_t sof = buf[0];
if (sof == VISION_SOF_AUTO && len == VISION_AUTO_LEN)
{
if (calc_checksum(buf, VISION_AUTO_LEN) != buf[VISION_AUTO_LEN - 1])
return;
memcpy(&vision_data.error_x, buf + 1, 4);
memcpy(&vision_data.error_y, buf + 5, 4);
vision_data.auto_updated = 1;
}
else if (sof == VISION_SOF_MANUAL && len == VISION_MANUAL_LEN)
{
if (calc_checksum(buf, VISION_MANUAL_LEN) != buf[VISION_MANUAL_LEN - 1])
return;
vision_data.zero_force = buf[1];
memcpy(&vision_data.yaw_ref, buf + 2, 4);
memcpy(&vision_data.pitch_ref, buf + 6, 4);
vision_data.manual_updated = 1;
}
else if (sof == VISION_SOF_CMD && len == VISION_CMD_LEN)
{
if (calc_checksum(buf, VISION_CMD_LEN) != buf[VISION_CMD_LEN - 1])
return;
vision_data.cmd = buf[1];
vision_data.cmd_pending = 1;
}
}
static void VisionOfflineCallback(void *id)
{
(void)id;
USARTServiceInit(cv_usart_instance);
}
void Vision_Uart_Init(UART_HandleTypeDef *_handle)
{
USART_Init_Config_s conf;
conf.module_callback = DecodeVision;
conf.recv_buff_size = 54;
conf.usart_handle = _handle;
USART_Init_Config_s conf = {
.module_callback = DecodeVision,
.recv_buff_size = 64,
.usart_handle = _handle,
};
cv_usart_instance = USARTRegister(&conf);
// 为master process注册daemon,用于判断视觉通信是否离线
Daemon_Init_Config_s daemon_conf = {
.callback = VisionOfflineCallback, // 离线时调用的回调函数,会重启串口接收
.owner_id = NULL,
.callback = NULL,
.owner_id = NULL,
.reload_count = 10,
};
OPENCV_vision_daemon_instance = DaemonRegister(&daemon_conf);
}
vision_daemon_instance = DaemonRegister(&daemon_conf);
}
+63 -10
View File
@@ -1,22 +1,75 @@
#ifndef OPENCV_H
#define OPENCV_H
#include "bsp_usart.h"
#include "opencv.h"
#include "bsp_log.h"
#include "bsp_dwt.h"
#include "bsp_log.h"
#include "usart.h"
#include "robot_def.h"
#include "daemon.h"
#include <string.h>
#include <stdio.h>
/*
* 上位机串口协议 — 三种帧类型, 通过帧头区分
*
* ---- 自动/视觉追踪数据帧 0xA5 (10 字节) ----
* [SOF:0xA5][error_x:4][error_y:4][checksum:1]
* error_x/y: float, 归一化误差, 视觉PID外环反馈值
*
* ---- 手动控制数据帧 0xA6 (11 字节) ----
* [SOF:0xA6][zero_force:1][yaw_ref:4][pitch_ref:4][checksum:1]
* zero_force: 0=正常角度控制, 1=零力/保持当前位置
* yaw_ref/pitch_ref: float, 角度参考值 (degrees)
*
* ---- 命令帧 0xA7 (3 字节) ----
* [SOF:0xA7][cmd:1][checksum:1]
* cmd: 0x01=切换到自动模式, 0x02=切换到手动模式, 0x03=激光开, 0x04=激光关
*
* checksum: 帧头到数据末尾前一字节累加和取低8位
*/
#define VISION_SOF_AUTO 0xA5
#define VISION_SOF_MANUAL 0xA6
#define VISION_SOF_CMD 0xA7
#define VISION_AUTO_LEN 10
#define VISION_MANUAL_LEN 11
#define VISION_CMD_LEN 3
/* 命令码 */
#define VISION_CMD_SWITCH_AUTO 0x01
#define VISION_CMD_SWITCH_MANUAL 0x02
#define VISION_CMD_LASER_ON 0x03
#define VISION_CMD_LASER_OFF 0x04
/* 工作模式 */
typedef enum
{
VISION_MODE_AUTO = 0, // 自动/视觉追踪
VISION_MODE_MANUAL = 1, // 手动
} Vision_Mode_e;
typedef struct
{
/* 自动模式数据 */
float error_x;
float error_y;
uint8_t auto_updated; // 收到新的自动数据帧标志
/* 手动模式数据 */
uint8_t zero_force;
float yaw_ref;
float pitch_ref;
uint8_t manual_updated; // 收到新的手动数据帧标志
/* 命令 */
uint8_t cmd; // 最新命令码
uint8_t cmd_pending; // 有待处理命令标志
float frequency; // 接收频率 (Hz)
} VisionData_t;
extern VisionData_t vision_data;
void Vision_Uart_Init(UART_HandleTypeDef *_handle);
extern float opencv_Vision_data[12]; // 视觉数据,12个float
extern uint8_t Vison_revc_flag; // 视觉数据接收标志位
extern uint8_t vision_used_flag; // 视觉数据使用标志位,用于判断是否需要使用视觉数据
extern float Vison_Frequency; // 视觉数据频率
#endif // !OPENCV_H
#endif // OPENCV_H