#include "work.h" #include "board.h" #define OUTPUT_INFORMATION_CYCLE_BASE 100 work_t work; /** * @brief 输出信息 * * 该函数用于输出一些信息,具体输出内容未实现。 */ static void output_information(void) { char data[128]; uint8_t len = 0; int32_t rst = 0; osel_memset((uint8_t *)data, 0, ARRAY_LEN(data)); if (work.type == WORK_MOTOR_POS) { rst = snprintf(data, ARRAY_LEN(data), "%f,%d,%f\r\n", work.target_pos, work.encoder_cnt, work.pwm_percent); } else if (work.type == WORK_MOTOR_SPEED) { } else { return; } if (rst == 0 || rst > ARRAY_LEN(data)) { return; } len = osel_mstrlen((uint8_t *)data); uart_send((uint8_t *)data, len); } static void pwm_map(void) { set_motor_pwm(work.pwm_percent); } static void motor_pos(void) { work.pid.sub_type = PID_SUB_TYPE_POSITION; work.pwm_percent = work.pid.pid_u.fuzzy.execute(&work.pid.pid_u.fuzzy, work.target_pos, work.encoder_cnt); set_motor_pwm(work.pwm_percent); } static void motor_speed(void) { work.pid.sub_type = PID_SUB_TYPE_INCREMENT; } static void pwm_map_key_handle(button_id_e id) { int8_t min = -100, max = 100; int8_t step = 10; switch (id) { case KEY_ADD: if (work.pwm_percent < max) { work.pwm_percent += step; } break; case KEY_SUB: if (work.pwm_percent > min) { work.pwm_percent -= step; } break; case KEY_S: work.pwm_percent = 0; break; default: break; } } static void motot_pos_key_handle(button_id_e id) { int8_t min = -100, max = 100; int8_t step = 10; switch (id) { case KEY_ADD: if (work.target_pos < max) { work.target_pos += step; } break; case KEY_SUB: if (work.target_pos > min) { work.target_pos -= step; } break; case KEY_S: work.target_pos = 50; break; default: break; } if (work.target_pos == 0) { work.encoder_cnt = 0; } } static void motor_speed_key_handle(button_id_e id) { } void work_key_handle_cb(button_id_e id) { switch (work.type) { case WORK_PWM_MAP: pwm_map_key_handle(id); break; case WORK_MOTOR_POS: motot_pos_key_handle(id); break; case WORK_MOTOR_SPEED: motor_speed_key_handle(id); break; default: DBG_ASSERT(FALSE __DBG_LINE); break; } } void work_process(void) { switch (work.type) { case WORK_PWM_MAP: pwm_map(); break; case WORK_MOTOR_POS: motor_pos(); break; case WORK_MOTOR_SPEED: motor_speed(); break; default: break; } if (work.enter_cnt++ % (OUTPUT_INFORMATION_CYCLE_BASE / work.timer_cycle) == 0) { output_information(); } work.pid.pid_u.fuzzy.set_kp(&work.pid.pid_u.fuzzy, work.pid_params.kp); work.pid.pid_u.fuzzy.set_ki(&work.pid.pid_u.fuzzy, work.pid_params.ki); work.pid.pid_u.fuzzy.set_kd(&work.pid.pid_u.fuzzy, work.pid_params.kd); } void work_encoder_exti(void) { if (GPIO_READ(MOTOR_B_GPIO_Port, MOTOR_B_Pin)) { work.encoder_cnt++; } else { work.encoder_cnt--; } } void work_init(void) { osel_memset((uint8_t *)&work, 0, sizeof(work_t)); PWM_START(PWM_TIM, PWM_CHANNEL); PWM_SET_DUTY(PWM_TIM, PWM_CHANNEL, 0); work.pwm_feq = PWM_GET_FREQ(PWM_TIM); work.type = WORK_MOTOR_POS; work.pid_params.kp = 1; work.pid_params.ki = 0.01f; work.pid_params.kd = 5; work.pid_params.dead_zone = 0.5f; // PID初始化 { work.pid.type = PID_TYPE_FUZZY; work.pid.sub_type = PID_SUB_TYPE_POSITION; work.pid.pid_u.fuzzy.deadzone_dir = DEAD_ZONE_BOTH; pid_constructor(&work.pid); work.pid.pid_u.fuzzy.set_ctrl_prm(&work.pid.pid_u.fuzzy, work.pid_params.kp, work.pid_params.ki, work.pid_params.kd, work.pid_params.dead_zone, 0, -90, 90); // 电机输出不要超过90 work.pid.pid_u.fuzzy.set_kd_enable(&work.pid.pid_u.fuzzy, TRUE); } work.target_pos = 20; work.timer_cycle = TIM_CYCLE(WORK_TIM); return; }