#include #include #include #include #include #include #include #include #include #include #include #include #include class Run { private: float xx, yy, zz, theta; // xx < 0 : forward // xx > 0 : backward // yy > 0 : right // yy < 0 : left // zz > 0 : up // zz < 0 : down float plan_vel, z_vel, angle_vel, up_factor, neutral_z; float max_curv; float z_dev_min, x_dev_min, y_dev_min, th_dev_min; uint64_t min_number; bool first_msg; ros::Publisher pub; void publish() { geometry_msgs::Twist::Ptr mvt(new geometry_msgs::Twist()); if (fabs(zz) > z_dev_min) { if (zz > 0) mvt->linear.z = zz * z_vel * up_factor ; else mvt->linear.z = zz * z_vel; } if (fabs(yy) > fabs(xx) && fabs(yy) > y_dev_min) { mvt->linear.y = yy * plan_vel; } else if (fabs(xx) > x_dev_min) { mvt->linear.x = - xx * plan_vel; } if (fabs(theta) > th_dev_min) { mvt->angular.z * angle_vel; } assert(mvt->linear.x == 0. || mvt->linear.y == 0.); pub.publish(mvt); ROS_INFO("cmd published"); }//end publish public: Run(const ros::Publisher& cmd_publisher, const float& max_curvature, const float& plan_velocity, const float& angle_velocity, const float& z_velocity, const float& x_minimal_deviation, const float& y_minimal_deviation, const float& z_minimal_deviation, const float& neutral_alt, const float& theta_minimal_deviation, const int& min_points_number, const float& up_fact) : pub(cmd_publisher), plan_vel(plan_velocity), angle_vel(angle_velocity); max_curv(max_curvature), z_vel(z_velocity), xx(0), yy(0), zz(0), theta(0), x_dev_min(x_minimal_deviation), y_dev_min(y_minimal_deviation), z_dev_min(z_minimal_deviation), neutral_z(neutral_alt), first_msg(true), min_number(min_points_number), up_factor(up_fact) void callback(const hand_control::Plan::ConstPtr& msg) { ROS_INFO("plan received"); if (msg->curvature < max_curv && msg->number > min_number) { if(msg->normal.z > 0) { yy = msg->normal.x; xx = msg->normal.y; } else { yy = - msg->normal.x; xx = - msg->normal.y; } zz = msg->altitude - neutral_z; theta = msg->angle; if (first_msg) { first_msg = false; ROS_INFO("first msg received"); } ROS_INFO("coords updated"); } else { xx = yy = zz = 0.; } publish(); }; void reconfigure(const hand_control::CommandeConfig& c, const uint32_t& level) { max_curv = c.max_curvature; x_dev_min = c.x_minimal_deviation; y_dev_min = c.y_minimal_deviation; z_dev_min = c.z_minimal_deviation; th_dev_min = c.theta_minimal_deviation; neutral_z = c.neutral_alt; min_number = c.min_points_number; up_factor = c.up_fact; } void run() { ros::spin(); } }; int main(int argc, char** argv) { ros::init(argc, argv, "commande"); ros::NodeHandle node("commande"); double max_curv(0); if (node.getParam("max_curv", max_curv)) { ROS_INFO("max_curv : %f" , max_curv); } else { node.setParam("max_curv", 0.08); node.getParam("max_curv", max_curv); ROS_INFO("max_curv : %f (default value)", max_curv); } double plan_vel(0); if (node.getParam("plan_vel", plan_vel)) { ROS_INFO("plan_vel : %f" , plan_vel); } else { node.setParam("plan_vel", 0.8); node.getParam("plan_vel", plan_vel); ROS_INFO("plan_vel : %f (default value)", plan_vel); } double z_vel(0); if (node.getParam("z_vel", z_vel)) { ROS_INFO("z_vel : %f" , z_vel); } else { node.setParam("z_vel", 0.8); node.getParam("z_vel", z_vel); ROS_INFO("z_vel : %f (default value)", z_vel); } double angle_vel(0); if (node.getParam("angle_vel", angle_vel)) { ROS_INFO("angle_vel : %f" , angle_vel); } else { node.setParam("angle_vel", 10); node.getParam("angle_vel", angle_vel); ROS_INFO("angle_vel : %f (default value)", angle_vel); } int min_number(0); if (node.getParam("min_number", min_number)) { ROS_INFO("min_number : %d" , min_number); } else { node.setParam("min_number", 500); node.getParam("min_number", min_number); ROS_INFO("min_number : %d (default value)", min_number); } double x_dev_min(0); if (node.getParam("x_dev_min", x_dev_min)) { ROS_INFO("x_dev_min : %f" , x_dev_min); } else { node.setParam("x_dev_min", 0.05); node.getParam("x_dev_min", x_dev_min); ROS_INFO("x_dev_min : %f (default value)", x_dev_min); } double y_dev_min(0); if (node.getParam("y_dev_min", y_dev_min)) { ROS_INFO("y_dev_min : %f" , y_dev_min); } else { node.setParam("y_dev_min", 0.05); node.getParam("y_dev_min", y_dev_min); ROS_INFO("y_dev_min : %f (default value)", y_dev_min); } double z_dev_min(0); if (node.getParam("z_dev_min", z_dev_min)) { ROS_INFO("z_dev_min : %f" , z_dev_min); } else { node.setParam("z_dev_min", 0.1); node.getParam("z_dev_min", z_dev_min); ROS_INFO("z_dev_min : %f (default value)", z_dev_min); } double th_dev_min(0); if (node.getParam("th_dev_min", th_dev_min)) { ROS_INFO("th_dev_min : %f" , th_dev_min); } else { node.setParam("th_dev_min", 15); node.getParam("th_dev_min", th_dev_min); ROS_INFO("th_dev_min : %f (default value)", th_dev_min); } double neutral_z(0); if (node.getParam("neutral_z", neutral_z)) { ROS_INFO("neutral_z : %f" , neutral_z); } else { node.setParam("neutral_z", 1.5); node.getParam("neutral_z", neutral_z); ROS_INFO("neutral_z : %f (default value)", neutral_z); } double up_fact(0); if (node.getParam("up_fact", up_fact)) { ROS_INFO("up_fact : %f" , up_fact); } else { node.setParam("up_fact", 1.5); node.getParam("up_fact", up_fact); ROS_INFO("up_fact : %f (default value)", up_fact); } ros::Publisher cmd_pub = node.advertise("/cmd_vel", 1); Run run(cmd_pub, max_curv, plan_vel, z_vel, angle_vel, x_dev_min, y_dev_min, z_dev_min, th_dev_min, neutral_z, min_number, up_fact); ros::Subscriber plan_sub = node.subscribe("input", 1, &Run::callback, &run); dynamic_reconfigure::Server server; dynamic_reconfigure::Server::CallbackType f; f = boost::bind(&Run::reconfigure, &run, _1, _2); server.setCallback(f); run.run(); return 0; }