int32_t delta_d, delta_a;
double coef_deriv = traj->circle_coef;
double new_radius;
+ double new_angle;
struct quadramp_filter * q_d, * q_a;
q_d = traj->csm_distance->consign_filter_params;
q_a = traj->csm_angle->consign_filter_params;
+ /*
delta_a = a_speed;//q_a->previous_var;
delta_d = d_speed;//q_d->previous_var;
+ */
+ delta_a = q_a->previous_var;
+ delta_d = q_d->previous_var;
/* step 1 : process new commands to quadramps */
vect2_cart2pol(&v2cart_pos, &v2pol_target);
v2pol_target.theta = simple_modulo_2pi(v2pol_target.theta - a);
+#if 0
/* pas trop mal, mais oscille */
//new_radius = traj->target.circle.radius - delta_a * delta_d * coef_deriv;
if (v2pol_target.r > traj->target.circle.radius/2)
(traj->position->phys.track_mm) / 2.0);
a_consign += rs_get_angle(traj->robot);
+#endif
+
+ d_speed/=100;
+ if (d_speed > v2pol_target.r)
+ d_speed = v2pol_target.r/2;
+ if (d_speed == 0)
+ d_speed = v2pol_target.r/2;
+ new_angle = (d_speed * d_speed);
+ new_angle += (v2pol_target.r * v2pol_target.r);
+ new_angle -= (traj->target.circle.radius * traj->target.circle.radius);
+ new_angle /= 2 * d_speed * v2pol_target.r;
+
+ printf("robot %f %f dspeed %d polr %f pola %f cnewa %f\n",
+ x, y,
+ d_speed,
+ v2pol_target.r, v2pol_target.theta * 180 / M_PI,
+ new_angle);
+
+ if (new_angle < -1)
+ new_angle = -1;
+
+ if (new_angle > 1)
+ new_angle = 1;
+
+
+ new_angle = acos(new_angle);
+ printf("new_a: %f\n", new_angle*180/M_PI);
+
+ new_angle = v2pol_target.theta - new_angle;
+ a_consign = (int32_t)(new_angle *
+ (traj->position->phys.distance_imp_per_mm) *
+ (traj->position->phys.track_mm) / 2.0);
+ a_consign += rs_get_angle(traj->robot);
+
+
+ /* XXX check flags */
+ d_consign = 40000 + rs_get_distance(traj->robot);
+
+
+
+
+
+
+
+
+
+
/* step 2 : update state, or delete event if we reached the
* destination */