Robot's source code
Dependencies: mbed
main.cpp
- Committer:
- Jagang
- Date:
- 2015-05-06
- Revision:
- 118:09bfc62d4867
- Parent:
- 116:73d7d87e0299
- Parent:
- 117:f8c147141a0c
- Child:
- 119:c45efcd706d9
File content as of revision 118:09bfc62d4867:
#include "mbed.h" #include "defines.h" #include "QEI.h" #include "Map.h" #include "Objectif.h" #include "Obj_clap.h" #include "Obj_pince.h" #include "Obj_depot.h" #include "AX12.h" #ifdef PLAN_A #include "Odometry.h" #include "Asserv.h" #else #include "Odometry2.h" #include "planB.h" #endif #include "Motor.h" void update(); // *--------------------------* // // Déclarations // // Decl. logger // Serial logger(OUT_TX, OUT_RX); // tx, rx // Decl. timer // Timer t; Ticker ticker; // Decl. AX12 // AX12 ax12_pince(AX12_TX,AX12_RX,5,250000); AX12 ax12_brasG(AX12_TX,AX12_RX,2,250000); AX12 ax12_brasD(AX12_TX,AX12_RX,3,250000); // Decl. Moteurs // PwmOut pw1(PWM_MOT1); DigitalOut dir1(DIR_MOT1); PwmOut pw2(PWM_MOT2); DigitalOut dir2(DIR_MOT2); Motor motorL(PWM_MOT1,DIR_MOT1); Motor motorR(PWM_MOT2,DIR_MOT2); // Decl. Sharps // AnalogIn sharp_devant(SHARP_D); AnalogIn sharp_devant_droite(SHARP_DD); AnalogIn sharp_devant_gauche(SHARP_DG); AnalogIn sharp_arriere_gauche(SHARP_AG); AnalogIn sharp_arriere_droite(SHARP_AD); // Decl. Boutons // DigitalIn bp(BP_DESSUS); DigitalIn tirette(TIRETTE_DESSUS); DigitalIn couleur(COULEUR_DESSUS); // Decl. Odometrie // #ifdef PLAN_A QEI qei_right(PB_3,PA_10,NC,1024*4,QEI::X4_ENCODING); QEI qei_left(PB_4,PB_5,NC,1024*4,QEI::X4_ENCODING); Odometry2 odometry(&qei_left,&qei_right,63.84/2.,63.65/2.,252); #else QEI qei_left(ODO_G_A,ODO_G_B,NC,1024*4,QEI::X4_ENCODING); QEI qei_right(ODO_D_A,ODO_D_B,NC,1024*4,QEI::X4_ENCODING); Odometry2 odometry(&qei_left,&qei_right,63.84/2.,63.65/2.,252); #endif // Decl. Asserv // #ifdef PLAN_A Asserv<float> asserv(&odometry); #else aserv_planB asserv(odometry,motorL,motorR); #endif // Decl. IA // Map terrain; std::vector<Objectif*> objectifs; char couleurRobot = COULEUR_JAUNE; // Fin Decl. // // *--------------------------* // int main() { #ifdef OUT_USB logger.baud((int)921600); #endif // *--------------------------* // // Init // logger.printf("Initialisation............."); // Init. AX12 // ax12_pince.setMode(0); ax12_brasG.setMode(0); ax12_brasD.setMode(0); // Init. Moteurs // motorL.setSpeed(0); motorR.setSpeed(0); // Init. Sharps // // Init. Boutons // // Init. Odometrie // #ifdef PLAN_A odometry.setTheta(0); odometry.setX(0); odometry.setY(0); #else odometry.setTheta(PI/2); odometry.setX(0); odometry.setY(0); #endif // Init. IA // terrain.build(); logger.printf("[done]\r\n"); // Fin Init. // // *--------------------------* // // *--------------------------* // // MIP // logger.printf("Appuyer sur le bouton pour mettre en position\r\n"); while(!bp); // On attend le top de mise en position logger.printf("MIP........................"); odometry.update(1); odometry.setTheta(PI/2); odometry.setX(1000); odometry.setY(400); ax12_pince.setMaxTorque(MAX_TORQUE); ax12_brasG.setMaxTorque(MAX_TORQUE); ax12_brasD.setMaxTorque(MAX_TORQUE); ax12_pince.setGoal(PINCE_FERMEE); ax12_brasG.setGoal(BRASG_OUVERT); ax12_brasD.setGoal(BRASD_OUVERT); wait(0.5); ax12_pince.setGoal(PINCE_OUVERTE); ax12_brasG.setGoal(BRASG_FERME); ax12_brasD.setGoal(BRASD_FERME); wait(1.5); ax12_pince.setMaxTorque(0); ax12_brasG.setMaxTorque(0); ax12_brasD.setMaxTorque(0); logger.printf("[done]\r\n"); // // // *--------------------------* // // *--------------------------* // // Asserv // logger.printf("Demarrage asserv..........."); t.start(); ticker.attach_us(&update,10000); //100Hz logger.printf("[done]\r\n"); // // // *--------------------------* // // *--------------------------* // // Tirrette + couleur // //while(tirette); // La tirrette if(couleur == COULEUR_JAUNE) { couleurRobot = COULEUR_JAUNE; odometry.setTheta(PI/2); odometry.setX(1000); odometry.setY(400); //objectifs.push_back(new Obj_clap(0, 0, 0, &ax12_brasG,&ax12_brasD)); objectifs.push_back( new Obj_pince(1750, 550, -PI/2, &ax12_pince) ); objectifs.back()->setId(IDO_PC1); objectifs.push_back( new Obj_depot(1000, 500, -PI/2, &ax12_pince) ); objectifs.back()->setId(IDO_DEPOT); } else { couleurRobot = COULEUR_VERTE; } // // // *--------------------------* // bool continuer = true; // *--------------------------* // // IA // #define IA #ifdef IA logger.printf("Pathfinding ... "); Timer t; t.start(); int i = terrain.AStar(1000,400,1750,600,10); t.stop(); logger.printf("[done]\r\n"); logger.printf("Return : %d in %.3fms\r\n",i,t.read()*1000); for(i=1;i<terrain.path.size()-1;i++) { logger.printf("%d\t%.3f\t%.3f\r\n",i,terrain.path[i].x,terrain.path[i].y); asserv.setGoal(terrain.path[i].x,terrain.path[i].y); while(!asserv.isArrived())wait(0.1); } asserv.setGoal(terrain.path[i].x,terrain.path[i].y); while(!asserv.isArrived())wait(0.1); logger.printf("Finit !! \r\n"); while(1); while(continuer) { logger.printf("Recherche d'objectif......."); int objAct = 0; bool newObj = false; for(objAct = 0 ; objAct < objectifs.size() ; objAct++) { //logger.printf("Obj %d\r\n",objAct); if(objectifs[objAct]->isDone()) // Pas la peine de le faire, il est déjà fait ;) continue; //logger.printf("Pas done\r\n"); if(!objectifs[objAct]->isActive()) // Pas la peine de le faire, il n'est pas actif continue; //logger.printf("Actif\r\n"); int retourAStar = terrain.AStar(odometry.getX(), odometry.getY(), objectifs[objAct]->getX(), objectifs[objAct]->getX(), 5); if(retourAStar == 1) // L'objectif est atteignable !! { newObj = true; break; } if(retourAStar == 3) // Overload memoire { retourAStar = terrain.AStar(odometry.getX(), odometry.getY(), objectifs[objAct]->getX(), objectifs[objAct]->getX(), 50); } if(retourAStar == 1) // L'objectif est atteignable !! { newObj = true; break; } } logger.printf("[done]\r\n"); if(newObj) { logger.printf("-> Objectif : %d\r\n",objectifs[objAct]->getId()); // Déplacement vers le nouvel objectif // for(int i=1;i<terrain.path.size()-1;i++) { logger.printf("%d\t%.3f\t%.3f\r\n",i,terrain.path[i].x,terrain.path[i].y); asserv.setGoal(terrain.path[i].x,terrain.path[i].y); while(!asserv.isArrived())wait(0.1); } asserv.setGoal(objectifs[objAct]->getX(),objectifs[objAct]->getY(),objectifs[objAct]->getTheta()); while(!asserv.isArrived())wait(0.1); logger.printf("Execution de l'objectif...."); // Exection de l'objectif // objectifs[objAct]->run(); logger.printf("[done]\r\n"); } else { logger.printf("-> Nothind to be done ... :( \r\n"); wait(1); } } #endif #ifdef PLAN_A asserv.setGoal(300.0f,200.0f,0.0f); logger.printf("GOAL SET... RUNNING!\r\n"); char state = 0; while(continuer) { //#define test #ifndef test if(state == 0 && asserv.isArrived()) { state = 1; logger.printf("Arrive en 0,0 !!!!!\r\n"); motorR.setSpeed(0.0f); motorL.setSpeed(0.0f); wait(5); asserv.setGoal(0.0f,0.0f,0.0f); } else if(state == 1 && asserv.isArrived()) { state = 0; logger.printf("Arrive en 0,200 !!!!!\r\n"); motorR.setSpeed(0.0f); motorL.setSpeed(0.0f); wait(5); asserv.setGoal(0.0f,0.0f,0.0f); } #endif #ifdef test if(state == 0 && asserv.isArrivedRho()) { state = 1; logger.printf("Arrive en 0,0 !!!!!\r\n"); motorR.setSpeed(0.0f); motorL.setSpeed(0.0f); wait(5); asserv.setGoal(300.0f,200.0f,0.0f); } else if(state == 1 && asserv.isArrivedRho()) { state = 2; logger.printf("Arrive en 200,200 !!!!!\r\n"); motorR.setSpeed(0.0f); motorL.setSpeed(0.0f); wait(5); asserv.setGoal(0.0f,300.0f,0.0f); } else if(state == 2 && asserv.isArrivedRho()) { state = 0; logger.printf("Arrive en 0,200 !!!!!\r\n"); motorR.setSpeed(0.0f); motorL.setSpeed(0.0f); wait(5); asserv.setGoal(0.0f,0.0f,0.0f); } #endif } #else asserv.setGoal(1,300,0); logger.printf("Attente\r\n"); while(!asserv.isArrived())wait(0.1); logger.printf("Arrivé\r\n"); wait(1); asserv.setGoal(-300,300,0); while(!asserv.isArrived())wait(0.1); wait(1); asserv.setGoal(-300,-1,0); while(!asserv.isArrived())wait(0.1); wait(1); asserv.setGoal(-300,-300,0); while(!asserv.isArrived())wait(0.1); wait(1); asserv.setGoal(1,-300,0); while(!asserv.isArrived())wait(0.1); wait(1); asserv.setGoal(300,-300,0); while(!asserv.isArrived())wait(0.1); wait(1); asserv.setGoal(0,0,0); #endif while(1); } void update() { float dt = t.read(); t.reset(); odometry.update(dt); asserv.update(dt); #ifdef PLAN_A float phi_r = (float)instanceAsserv.getPhiR(); float phi_l = (float)instanceAsserv.getPhiL(); float phi_max = (float)instanceAsserv.getPhiMax(); motorR.setSpeed(0.08+(phi_r/phi_max)); motorL.setSpeed(0.08+(phi_l/phi_max)); #endif }