#include "Classis_Wheels.h" #include "can.h" #include "Parameter.h" #include PID_PositionInitTypedef Wheels_SpeedPID[4]; extern M3508_Motor Can1_M3508_MotorStatus[8]; extern M3508_Motor Can2_M3508_MotorStatus[8]; extern M6020_Motor Can1_M6020_MotorStatus[7];//GM6020电机状态数组 extern M6020_Motor Can2_M6020_MotorStatus[7];//GM6020电机状态数组 extern Remote_Data Remote_RxData;//遥控器接收数据 extern CAN_HandleTypeDef hcan1; //-------------------测试区 #define BigYaw_MediumPosition -114//大yaw中位位置(直接读大yaw电机角度) #define Mecanum_rx 0.24f //底盘中心到轮子中心的距离的x轴分量(m) #define Mecanum_ry 0.24f //底盘中心到轮子中心的距离的y轴分量(m) #define Mecanum_WheelRadius 0.07f //轮子半径(m) #define MAX_RPM 2000 // 最大转速,根据电机调整 #define L 0.2f // 轮距(单位:米) float K_yaw = 10.0f; // 旋转速度的比例系数 //#define Wheel_RightFront 0x201//右前轮 //#define Wheel_LeftFront 0x202//左前轮 //#define Wheel_LeftRear 0x203//左后轮 //#define Wheel_RightRear 0x204//右后轮 void Classis_Wheels_Init(void) { PID_PositionStructureInit (&Wheels_SpeedPID[0],0); PID_PositionSetParameter (&Wheels_SpeedPID[0],10,0,0); PID_PositionSetOUTRange (&Wheels_SpeedPID[0],-20000,20000); PID_PositionSetEkRange (&Wheels_SpeedPID[0], -3.0f, 3.0f); PID_PositionStructureInit (&Wheels_SpeedPID[1],0); PID_PositionSetParameter (&Wheels_SpeedPID[1],10,0,0); PID_PositionSetOUTRange (&Wheels_SpeedPID[1],-20000,20000); PID_PositionSetEkRange (&Wheels_SpeedPID[1], -3.0f, 3.0f); PID_PositionStructureInit (&Wheels_SpeedPID[2],0); PID_PositionSetParameter (&Wheels_SpeedPID[2],10,0,0); PID_PositionSetOUTRange (&Wheels_SpeedPID[2],-20000,20000); PID_PositionSetEkRange (&Wheels_SpeedPID[2],-3.0f, 3.0f); PID_PositionStructureInit (&Wheels_SpeedPID[3],0); PID_PositionSetParameter (&Wheels_SpeedPID[3],10,0,0); PID_PositionSetOUTRange (&Wheels_SpeedPID[3],-20000,20000); PID_PositionSetEkRange (&Wheels_SpeedPID[3], -3.0f, 3.0f); // PID_PositionStructureInit(&Mecanum_TrackPID,4096); // PID_PositionSetParameter(&Mecanum_TrackPID,0,0,0); // PID_PositionSetEkRange(&Mecanum_TrackPID,-5,5); // PID_PositionSetOUTRange(&Mecanum_TrackPID,-1,1); } //-------------------测试区 // void Classis_Wheels_Control(void) // { // extern const RC_ctrl_t *local_rc_ctrl; // // 1. 获取左摇杆(ch[2]=左右, ch[3]=上下) // float vy_chassis = -(float)Remote_RxData.Remote_R_RL; // 左右 → 横向 // float vx = -(float)Remote_RxData.Remote_R_UD; // 上下 → 纵向 // // 3. 麦轮解算 —— 用一个缩放系数 K 代替所有几何参数 // const float K = 4.0f; // int16_t fl = (int16_t)((vx - vy_chassis) * K); // 左前 // int16_t fr = (int16_t)((vx + vy_chassis) * K); // 右前 // int16_t bl = (int16_t)((vx + vy_chassis) * K); // 左后 // int16_t br = (int16_t)((vx - vy_chassis) * K); // 右后 // // 4. 发送目标转速(单位:RPM) // Classis_Wheels_Setspeed(fl, fr, bl, br); // } /*-------------------测试区 ↑y | ------------------>x ↑w | | -------------------测试区*/ void Classis_Wheels_Control(void) { // 1. 通过遥控器获取车体运动的期望速度:x轴前后平动速度,y轴左右平动速度,转动角速度(前右为正,逆时针为正) float vy_chassis = (float)Remote_RxData.Remote_R_UD / 660.0f;//范围-1~1,归一化为-1~1的速度比例 float vx_chassis = (float)Remote_RxData.Remote_R_RL / 660.0f; float sigma = sqrtf(vx_chassis*vx_chassis + vy_chassis*vy_chassis);//归一化系数 float w_chassis = 0.0f; // 旋转速度暂时设为3 float theta = BigYaw_MediumPosition - Can2_M6020_MotorStatus[0].ANgle; //云台底盘相对角度 if(theta > 180.0f) theta -= 360.0f; // 将角度调整到[-180, 180]范围内 if(theta < -180.0f) theta += 360.0f; vy_chassis = vy_chassis / sigma; // 归一化到最大转速 vx_chassis = vx_chassis / sigma; // 归一化到最大转速 float vx_=vx_chassis,vy_=vy_chassis; vy_chassis = vy_*cosf(theta)-vx_*sinf(theta);//根据底盘云台相对角度修正xy轴速度 vx_chassis = vx_*cosf(theta)+vy_*sinf(theta); //2. vy_chassis *= 0.2; vx_chassis *= 0.2; int16_t RightFrontSpeed =(int16_t)((-vx_chassis+vy_chassis+w_chassis*(Mecanum_rx+Mecanum_ry))/Mecanum_WheelRadius*181.43663512f);//右前 int16_t LeftFrontSpeed =(int16_t)((+vx_chassis+vy_chassis-w_chassis*(Mecanum_rx+Mecanum_ry))/Mecanum_WheelRadius*181.43663512f);//左前 int16_t LeftRearSpeed =(int16_t)((-vx_chassis+vy_chassis-w_chassis*(Mecanum_rx+Mecanum_ry))/Mecanum_WheelRadius*181.43663512f);//左后 int16_t RightRearSpeed =(int16_t)((+vx_chassis+vy_chassis+w_chassis*(Mecanum_rx+Mecanum_ry))/Mecanum_WheelRadius*181.43663512f);//右后 //w' = v/R (rad/s) = v/(2Π×R) (r/s)(圈每秒) = 60×v/(2Π×R) (r/min)=1/19 w //⇒ w=19 × 60 × v/(2Π×R)=19×60×v/(2Π×R)=181.43663512×v/R (圈每分),R单位m Classis_Wheels_Setspeed(RightFrontSpeed,LeftFrontSpeed,LeftRearSpeed,RightRearSpeed); } void Classis_Wheels_Setspeed(int16_t LeftFrontSpeed,int16_t RightFrontSpeed,int16_t LeftRearSpeed,int16_t RightRearSpeed) { //更改期望 Wheels_SpeedPID[0].Need_Value =LeftFrontSpeed;//左前轮 Wheels_SpeedPID[1].Need_Value =RightFrontSpeed;//右前轮; Wheels_SpeedPID[2].Need_Value =LeftRearSpeed;//左后轮 Wheels_SpeedPID[3].Need_Value =RightRearSpeed;//右后轮 //PID计算 PID_PositionCalc(&Wheels_SpeedPID[0],Can1_M3508_MotorStatus[0].RotorSpeed);//右前轮 PID_PositionCalc(&Wheels_SpeedPID[1],Can1_M3508_MotorStatus[1].RotorSpeed);//左前轮 PID_PositionCalc(&Wheels_SpeedPID[2],Can1_M3508_MotorStatus[2].RotorSpeed);//左后轮 PID_PositionCalc(&Wheels_SpeedPID[3],Can1_M3508_MotorStatus[3].RotorSpeed);//右后轮 // Mecanum_Current=0; // for(uint8_t i=0;i<4;i++) // Mecanum_Current+=fabs(Wheels_SpeedPID[i].OUT); // if(Mecanum_Current>Mecanum_CurrentLimit) // { // Wheels_SpeedPID[0].OUT*=(Mecanum_CurrentLimit/Mecanum_Current); // Wheels_SpeedPID[1].OUT*=(Mecanum_CurrentLimit/Mecanum_Current); // Wheels_SpeedPID[2].OUT*=(Mecanum_CurrentLimit/Mecanum_Current); // Wheels_SpeedPID[3].OUT*=(Mecanum_CurrentLimit/Mecanum_Current); // } // Motor_3508_Current1((int16_t)Wheels_SpeedPID[0].OUT , (int16_t)Wheels_SpeedPID[1].OUT, (int16_t)Wheels_SpeedPID[2].OUT , (int16_t)Wheels_SpeedPID[3].OUT, &hcan1);//M3508控制 }