/****************************************************************************** 版权所有 (C), 2018-2099, Radkil ****************************************************************************** 文 件 名 : msp_Timer.c 版 本 号 : 初稿 作 者 : radkil 生成日期 : 2026年9月17日 最近修改 : 功能描述 : 硬件定时器任务 修改历史 : 1.日 期 : 2026年9月17日 作 者 : radkil 修改内容 : 创建文件 ******************************************************************************/ #include "BHBF.h" #include "msg_center.h" #include "rd_time.h" #include "tim.h" #include "lua_base.h" /*----------------------------------------------* * 外部变量说明 * *----------------------------------------------*/ extern volatile int32_t g_RF_Angle_Roll; /*----------------------------------------------* * 外部函数原型说明 * *----------------------------------------------*/ double Angle_Tune_PID(double CurrentAngle, double TargetAngle, double Position_KP, double Position_KI, double Position_KD, double MaxValue); /*----------------------------------------------* * 内部函数原型说明 * *----------------------------------------------*/ /*----------------------------------------------* * 全局变量 * *----------------------------------------------*/ /*----------------------------------------------* * 模块级变量 * *----------------------------------------------*/ static uint32_t g_uiTimModuleID = 0; /*----------------------------------------------* * 常量定义 * *----------------------------------------------*/ /*----------------------------------------------* * 宏定义 * *----------------------------------------------*/ static void Timer_ModuleHandler(const Msg_t *pstMsg) { if (NULL == pstMsg) { return; } int aiMotorSpeed[2] = {0}; static int g_dletAngle = 0; //PID最终计算补偿值 static uint32_t uiLastSendTick = 0; //上一次时间戳,用于控制直线行驶距离 static int bTimerStarted = 0; //直线行驶距离单次触发标志 static int bstrgightfinish = 0; //直线行驶完成 switch (pstMsg->m_uiMsgID) { case TIMER_CMD_RESET_STRAIGHT: { uiLastSendTick = 0; bTimerStarted = 0; bstrgightfinish = 0; break; } case TIMER_CMD_STRAIGHT_DRIVE: { BHBF_straight_drive_Cmd stCmd = {0}; if (pstMsg->m_uiDataLen >= sizeof(stCmd)) { if (1 == bstrgightfinish) // 这里换道完成认为第一步旋转已经完成不再根据计时卡状态 { MsgCenter_SendTo(MODULE_NAME_CUSTOM, CUSTOM_CMD_STRAIGHT_DRIVE, NULL, 0); break; } RD_MEMCPY(&stCmd, pstMsg->m_aucData, sizeof(stCmd)); if (stCmd.m_iTime >= 0 && 0 == bTimerStarted) { uiLastSendTick = Rd_GetTime(); bTimerStarted = 1; // 开始计时 } if (0 == stCmd.m_iMode) { break; } if (abs(g_RF_Angle_Roll - stCmd.m_iAngle) <= g_stCV.PID_mid.PID_Angle) { if (abs(g_RF_Angle_Roll - stCmd.m_iAngle) < g_stCV.PID_low.PID_Angle) { g_dletAngle = Angle_Tune_PID((double)g_RF_Angle_Roll, stCmd.m_iAngle, g_stCV.PID_low.Kp, g_stCV.PID_low.Ki, g_stCV.PID_low.Kd, 10); } else { g_dletAngle = Angle_Tune_PID((double)g_RF_Angle_Roll, stCmd.m_iAngle, g_stCV.PID_mid.Kp, g_stCV.PID_mid.Ki, g_stCV.PID_mid.Kd, 10); } if (stCmd.m_iMode > 0) { aiMotorSpeed[0] = (stCmd.m_iSpeed * 10) - g_dletAngle ; aiMotorSpeed[1] = (stCmd.m_iSpeed * 10) + g_dletAngle ; } else { aiMotorSpeed[0] = -(stCmd.m_iSpeed * 10) - g_dletAngle ; aiMotorSpeed[1] = -(stCmd.m_iSpeed * 10) + g_dletAngle ; } } else { g_dletAngle = Angle_Tune_PID((double)g_RF_Angle_Roll, stCmd.m_iAngle, g_stCV.PID_high.Kp, g_stCV.PID_high.Ki, g_stCV.PID_high.Kd,50); aiMotorSpeed[0] = -g_dletAngle ; aiMotorSpeed[1] = g_dletAngle ; } if (stCmd.m_iTime >= 0 && (int32_t)(Rd_GetTime() - uiLastSendTick) >= stCmd.m_iTime)// 到时间停止 { aiMotorSpeed[0] = 0; aiMotorSpeed[1] = 0; bstrgightfinish = 1; MsgCenter_SendTo(MODULE_NAME_CUSTOM, CUSTOM_CMD_STRAIGHT_DRIVE, NULL, 0); } MsgCenter_SendTo(MODULE_NAME_MOTOR, MOTOR_SET_SPEED, aiMotorSpeed, sizeof(aiMotorSpeed)); } break; } case TIMER_CMD_TURN_ANGLE: { int iTargetAngle = 0; if (pstMsg->m_uiDataLen >= sizeof(int)) { RD_MEMCPY(&iTargetAngle, pstMsg->m_aucData, sizeof(int)); if (1 == bstrgightfinish) // 这里换道完成认为第一步旋转已经完成不再根据角度卡状态 { MsgCenter_SendTo(MODULE_NAME_CUSTOM, CUSTOM_CMD_TURN_ANGLE, &iTargetAngle, sizeof(iTargetAngle)); break; } if (abs(g_RF_Angle_Roll - iTargetAngle) <= 50) { aiMotorSpeed[0] = 0; aiMotorSpeed[1] = 0; MsgCenter_SendTo(MODULE_NAME_CUSTOM, CUSTOM_CMD_TURN_ANGLE, &iTargetAngle, sizeof(iTargetAngle)); } else if (abs(g_RF_Angle_Roll - iTargetAngle) <= 1000) { g_dletAngle = Angle_Tune_PID((double)g_RF_Angle_Roll, iTargetAngle, 1, 0,0.5, 10); aiMotorSpeed[0] = -g_dletAngle ; aiMotorSpeed[1] = g_dletAngle; } else { g_dletAngle = Angle_Tune_PID((double)g_RF_Angle_Roll, iTargetAngle, 2, 0, 0.5, 85); aiMotorSpeed[0] = -g_dletAngle ; aiMotorSpeed[1] = g_dletAngle ; } MsgCenter_SendTo(MODULE_NAME_MOTOR, MOTOR_SET_SPEED, aiMotorSpeed, sizeof(aiMotorSpeed)); } break; } case TIMER_CMD_TURN_UP: { if (abs(g_RF_Angle_Roll - g_stCV.RobotUpAngleValue) <= 50) { aiMotorSpeed[0] = 0; aiMotorSpeed[1] = 0; } else if (abs(g_RF_Angle_Roll - g_stCV.RobotUpAngleValue) <= 1000) { g_dletAngle = Angle_Tune_PID((double)g_RF_Angle_Roll, g_stCV.RobotUpAngleValue, 1, 0,0.5, 10); aiMotorSpeed[0] = -g_dletAngle ; aiMotorSpeed[1] = g_dletAngle; } else { g_dletAngle = Angle_Tune_PID((double)g_RF_Angle_Roll, g_stCV.RobotUpAngleValue, 2, 0, 0.5, 85); aiMotorSpeed[0] = -g_dletAngle ; aiMotorSpeed[1] = g_dletAngle ; } MsgCenter_SendTo(MODULE_NAME_MOTOR, MOTOR_SET_SPEED, aiMotorSpeed, sizeof(aiMotorSpeed)); break; } case COMMON_CMD_SHOW_INFO: { lua_print("\ng_dletAngle = %d\nuiLastSendTick = %d\nbTimerStarted = %d\nbstrgightfinish = %d\ng_RF_Angle_Roll = %d\n", g_dletAngle, uiLastSendTick, bTimerStarted, bstrgightfinish, g_RF_Angle_Roll); break; } default: break; } } void Timer_Task(void) { MsgCenter_Process(g_uiTimModuleID); } void Timer_Init(void) { HAL_TIM_Base_Start_IT(&htim8); g_uiTimModuleID = MsgCenter_Register(MODULE_NAME_TIMER, Timer_ModuleHandler); }