9/19
Dependencies: mbed KondoServoLibrary CalPID AMT21_right_arm ros_lib_melodic MotorController_AbsEC_right_arm
Diff: main.cpp
- Revision:
- 4:e20532e09d42
- Parent:
- 3:ab266b418d90
diff -r ab266b418d90 -r e20532e09d42 main.cpp --- a/main.cpp Fri Sep 10 09:02:52 2021 +0000 +++ b/main.cpp Sun Sep 19 13:33:57 2021 +0000 @@ -3,8 +3,8 @@ #include "CalPID.h" #include "MotorController.h" #include "KondoServo.h" -//#include <ros.h> -//#include <geometry_msgs/Point.h> +#include <ros.h> +#include <geometry_msgs/Point.h> #define DELTA_T 0.01 //制御周期 @@ -53,20 +53,6 @@ return rad*180/M_PI; } -void angleControll() -{ - //motorA.AcOmega_1(target_rad); //duty式角度制御 - //motorB.AcOmega_2(target_rad); //速度式角度制御 -} - - -double function(double x) -{ - double y; - y = 0.6 + sqrt(0.01 - (x-0.6)*(x-0.6));//円の軌道 - return y; -} - double theta1(double x, double y, double theta_2)//原点角度計算 { //(x:目標座標 y:目標座標) @@ -84,77 +70,69 @@ return theta_2; } -double robot_x, robot_y; //ロボット座標 +double robot_x, robot_y,robot_theta; //ロボット座標 double pot_x, pot_y; //ポット座標 -int fan_switch = -1, arm_switch = 0; //扇風機on/off, アーム関節on/off +int fan_switch = -1, arm_switch =0; //扇風機on/off, アーム関節on/off + +void robotCallback(const geometry_msgs::Point &robot_pos) +{ + robot_x = robot_pos.x; + robot_y = robot_pos.y; + robot_theta = robot_pos.z; -//void robotCallback(const geometry_msgs::Point &robot_pos) -//{ -// robot_x = robot_pos.x; -// robot_y = robot_pos.y; -// -//} -//void potCallback(const geometry_msgs::Point &pot_pos) -//{ -// pot_x = pot_pos.x; -// pot_y = pot_pos.y; -//} -//void switchCallback(const geometry_msgs::Point &button_fa) -//{ -// fan_switch = button_fa.x; //fan -// arm_switch = button_fa.y; //arm -//} +} +void potCallback(const geometry_msgs::Point &pot_pos) +{ + pot_x = pot_pos.x; + pot_y = pot_pos.y; +} +void switchCallback(const geometry_msgs::Point &button_fa) +{ + fan_switch = button_fa.x; //fan + arm_switch = button_fa.y; //arm +} + ////////////////////////////////////////////////////////////////////////////// +ros::NodeHandle nh; +ros::Subscriber<geometry_msgs::Point> sub_robo_posi("/posi_dr",&robotCallback); +ros::Subscriber<geometry_msgs::Point> sub_pot_posi("/posi_pot",&potCallback); +ros::Subscriber<geometry_msgs::Point> sub_switch("/fan_switch",&switchCallback); -float plot[]= {0.6,0.1,0.6,0.1}; -double x[20]; -double target_radA[20]; -double target_radB[20]; - -//ros::NodeHandle nh; -//ros::Subscriber<geometry_msgs::Point> sub_robo_posi("/robot",&robotCallback); -//ros::Subscriber<geometry_msgs::Point> sub_pot_posi("/posi_pot",&potCallback); -//ros::Subscriber<geometry_msgs::Point> sub_switch("/fan_switch",&switchCallback); +geometry_msgs::Point relative_posi_pot; +geometry_msgs::Point target_kakudo; +ros::Publisher pub_pot("/relative_pot",&relative_posi_pot); +ros::Publisher pub_theta("/target_theta",&target_kakudo); int main () { - -// nh.getHardware()->setBaud(115200); -// nh.initNode(); -// nh.subscribe(sub_robo_posi); -// nh.subscribe(sub_pot_posi); -// nh.subscribe(sub_switch); -// NVIC_SetPriority(TIMER3_IRQn, 5); + + nh.getHardware()->setBaud(115200); + nh.initNode(); + nh.subscribe(sub_robo_posi); + nh.subscribe(sub_pot_posi); + nh.subscribe(sub_switch); + nh.advertise(pub_pot); + nh.advertise(pub_theta); + NVIC_SetPriority(TIMER3_IRQn, 5); motorA.setEquation(0.082047,0.020033,-0.08206,0.020087);//原点、速度制御のC値D値 motorB.setEquation(0.096001,0.067528,-0.08753,0.043631);//肘関節、速度制御のC値D値 motorR.period_us(50); motorL.period_us(50); ////////////////////////////////////////////////////////////////////////////// - int i = 0; int mode_1 = 1; //arm_switch = 1 用 - int mode_0 = 1; //arm_switch = 0 用 - double Deg,angle,Count,rad; + int mode_0 = 4; //arm_switch = 0 用 double DegA,DegB; double angleA,angleB; - double CountA,CountB; double radA,radB; double start_theta_A, start_theta_B; //初期角度 - double target_theta_A,target_theta_B;//目標角度(robot_xy, pot_xyから計算) + double target_theta_A=0,target_theta_B=0;//目標角度(robot_xy, pot_xyから計算) + double relative_pot_x,relative_pot_y;//アーム原点から見たポットの相対座標 int servo_speed = 37; int servo_degree; - static bool IsFirst = true; - int M=0,N=0; - /* - for(int i = 0; i < 20; i++) {//軌道のプロット - x[i] = 0.5 + 0.01*i; - target_radA[i] = theta1(x[i],function(x[i]),20.0); - target_radB[i] = theta2(x[i],function(x[i]),target_radA[i]); - target_radA[i] = -target_radA[i]; - target_radB[i] = target_radB[i] - 1; - printf("%f\t%f\t%f\r\n",x[i],target_radA[i],target_radB[i]); - }*/ + target_kakudo.x=0; + target_kakudo.y=0; double target_x = 1.05; //ポット相対座標x double target_y = 1.05; //ポット相対座標y @@ -162,36 +140,14 @@ target_theta_A = theta1(target_x,target_y,target_theta_B); //目標角度計算(第一関節) servo_degree = 148 - (int)(0.7111*rad_deg_convert(target_theta_B)); //目標位置(サーボモータ) target_theta_B = deg_rad_convert(5.0); //第二関節決め打ち(実験用) - target_theta_A =deg_rad_convert(45.0); //第一関節決め打ち(実験用) + target_theta_A = deg_rad_convert(45.0); //第一関節決め打ち(実験用) //printf("%f\t%f\r\n",target_theta_A,target_theta_B); - start_theta_A = deg_rad_convert(95); - start_theta_B = deg_rad_convert(-165); + start_theta_A = deg_rad_convert(85); //初期角度 + start_theta_B = deg_rad_convert(-140); //初期角度 wait(3); while(1) { - /* - ecA.rewriteCount_1(); - ecB.rewriteCount_2(); - DegA = ecA.getDeg(); - DegB = ecB.getDeg(); - radA = ecA.getRad()/3 + deg_rad_convert(159.72); - if(radA >= 0){ - radB = ecB.getRad()*36/60 - deg_rad_convert(102 + angleA/3 + angleA*16.63/90); - }else if(radA < 0){ - radB = ecB.getRad()*36/60 - deg_rad_convert(102 + angleA/3 - angleA*16.63/90); - } - angleA = DegA/3 + 159.72; - if(angleA >= 0){ - angleB = DegB*36/60 - angleA/3-102-angleA*16.63/90; - }else if(angleA < 0){ - angleB = DegB*36/60 - angleA/3-102+angleA*16.63/90; - } - - CountA = ecA.getCount(); - CountB = ecB.getCount(); - printf("%f\t%f\t%f\t%f\t%f\t%f\r\n",DegA,DegB,CountA,CountB,angleA,angleB); - */ - //nh.spinOnce(); + nh.spinOnce(); wait_ms(1); ecA.rewriteCount_1(); ecB.rewriteCount_2(); @@ -199,92 +155,77 @@ DegB = ecB.getDeg(); radA = ecA.getRad()/3 + deg_rad_convert(159.72); if(radA >= 0) { - radB = ecB.getRad()*36/60 - deg_rad_convert(102 + angleA/3 + angleA*16.63/90); + radB = ecB.getRad()*36/60 - deg_rad_convert(115 + angleA/3 + angleA*16.63/90); } else if(radA < 0) { - radB = ecB.getRad()*36/60 - deg_rad_convert(102 + angleA/3 - angleA*16.63/90); + radB = ecB.getRad()*36/60 - deg_rad_convert(115 + angleA/3 - angleA*16.63/90); } angleA = DegA/3 + 159.72; if(angleA >= 0) { - angleB = DegB*36/60 - 102 - angleA/3 - angleA*16.63/90; + angleB = DegB*36/60 - 115 - angleA/3 - angleA*16.63/90; } else if(angleA < 0) { - angleB = DegB*36/60 - 102 - angleA/3 + angleA*16.63/90; + angleB = DegB*36/60 - 115 - angleA/3 + angleA*16.63/90; } + ///////////////目標角度を常に計算する////////////////// + relative_pot_x = 6.0 - (robot_x + (0.185*cos(-robot_theta) + 0.29275*sin(-robot_theta))); //potの相対座標x(目標座標) + relative_pot_y = 8.0 - (robot_y + (0.185*sin(-robot_theta) - 0.29275*cos(-robot_theta))); //potの相対座標y(目標座標) + target_theta_B = theta2(relative_pot_x,relative_pot_y); //目標角度計算(第二関節) + target_theta_A = theta1(relative_pot_x,relative_pot_y,target_theta_B); //目標角度計算(第一関節) + + relative_posi_pot.x = relative_pot_x; + relative_posi_pot.y = relative_pot_y; + if(target_theta_A){ + + target_kakudo.x = double(target_theta_A); + target_kakudo.y = double(target_theta_B); + } + target_kakudo.z=0; + pub_pot.publish(&relative_posi_pot); + pub_theta.publish(&target_kakudo); if(arm_switch == 1) { - printf("%f\t%f\t%f\t%f\t%f\t%f\r\n",angleA,angleB,radA,radB,target_theta_A,target_theta_B); + //printf("%f\t%f\t%f\t%f\t%f\t%f\r\n",angleA,angleB,radA,radB,target_theta_A,target_theta_B); myled_2 = 1; mode_0 = 1; if(mode_1 == 1) { motorA.AcOmega_1(target_theta_A,0.2); - if(fabs(target_theta_A - radA) < 0.01) { //収束判定 - mode_1++; - } - printf("1_1 "); - } else if(mode_1 == 2) { motorB.AcOmega_2(target_theta_B,angleA,0.2); - if(fabs(target_theta_B - radB) < 0.01) { //収束判定 + if(fabs(target_theta_A - radA) < 0.01 && fabs(target_theta_B - radB) < 0.01) { //収束判定 mode_1++; } - printf("1_2 "); - } else if(mode_1 == 3) { - mode_1++; - printf("1_3 "); - } else if(mode_1 == 4) { - printf("1_4 "); - motorA.AcOmega_1(target_theta_A,0.05); //位置固定 - motorB.AcOmega_2(target_theta_B,angleA,0.05); //位置固定 - - if(fabs(target_theta_A - radA) < 0.001) { //収束判定 - target_theta_B = target_theta_B + 0.01744; - M++; - if(M == 2) { - target_theta_B = target_theta_B - 0.01744*2; - M = 0; - } - } - if(fabs(target_theta_B - radB) < 0.001) { //収束判定 - target_theta_B = target_theta_B + 0.01744; - N++; - if(N == 2) { - target_theta_B = target_theta_B - 0.01744*2; - N = 0; - } - } + //printf("1_1 "); + } else if(mode_1 == 2) {//最初にswitchをオンにした後のため、最大dutyを下げておく + //printf("1_2 "); + motorA.AcOmega_1(target_theta_A,0.1);//更新し続ける目標値に常に移動 + motorB.AcOmega_2(target_theta_B,angleA,0.1); //更新し続ける目標値に常に移動 } } else if(arm_switch == 0) { - printf("%f\t%f\t%f\t%f\t%f\t%f\r\n",angleA,angleB,radA,radB,start_theta_A,start_theta_B); - myled_2 = !myled_2; + //printf("%f\t%f\t%f\t%f\t%f\t%f\r\n",angleA,angleB,radA,radB,start_theta_A,start_theta_B); + myled_2 = 0; mode_1 = 1; if(mode_0 == 1) { - motorA.AcOmega_1(start_theta_A,0.2); - if(fabs(start_theta_A - radA) < 0.01) { //収束判定 + motorA.AcOmega_1(start_theta_A,0.2); //最初の位置に移動 + motorB.AcOmega_2(start_theta_B,angleA,0.2);//最初の位置に移動 + if(fabs(start_theta_B - radB) < 0.01 && fabs(start_theta_A - radA) < 0.01) { //収束判定 mode_0++; } - printf("0_1 "); - } else if(mode_0 == 2) { - motorB.AcOmega_2(start_theta_B,angleA,0.2); - if(fabs(start_theta_B - radB) < 0.01) { //収束判定 - mode_0++; - } - printf("0_2 "); - - - - } else if(mode_0 == 3) { - mode_0++; - printf("0_3 "); - } else if(mode_0 == 4) { - printf("0_4 "); - } + //printf("0_1 "); + } else if(mode_0 == 2) { + motorA.AcOmega_1(start_theta_A,0.01); + motorB.AcOmega_2(start_theta_B,angleA,0.04); + //printf("0_2 "); + } else {} } if(fan_switch == 0) { myled_1 = 0; motorR = 0; } else if (fan_switch == 1) { myled_1 = 1; - motorR = 0.1; //扇風機回す - printf("fan_on "); + motorR = 0.5; //扇風機回す + //printf("fan_on "); + } else if (fan_switch == 2){ + myled_1 = !myled_1; //点滅 + motorL = 0.5; } } } \ No newline at end of file