gs_deflection_deg_node(NULL),
gs_deflection_norm_node(NULL),
gs_rate_of_climb_node(NULL),
+ gs_rate_of_climb_fpm_node(NULL),
gs_dist_node(NULL),
gs_inrange_node(NULL),
nav_id_node(NULL),
gs_deflection_deg_node = node->getChild("gs-needle-deflection-deg", 0, true);
gs_deflection_norm_node = node->getChild("gs-needle-deflection-norm", 0, true);
gs_rate_of_climb_node = node->getChild("gs-rate-of-climb", 0, true);
+ gs_rate_of_climb_fpm_node = node->getChild("gs-rate-of-climb-fpm", 0, true);
gs_dist_node = node->getChild("gs-distance", 0, true);
gs_inrange_node = node->getChild("gs-in-range", 0, true);
double gs_diff = target_gs - angle;
// convert desired vertical path angle into a climb rate
double des_angle = angle - 10 * gs_diff;
+ /* printf("target_gs=%.1f angle=%.1f gs_diff=%.1f des_angle=%.1f\n",
+ target_gs, angle, gs_diff, des_angle); */
// estimate horizontal speed towards ILS in meters per minute
double elapsedDistance = last_x - gsDist;
last_x = gsDist;
double new_vel = ( elapsedDistance / dt );
- horiz_vel = 0.75 * horiz_vel + 0.25 * new_vel;
+ horiz_vel = 0.99 * horiz_vel + 0.01 * new_vel;
+ /* printf("vel=%.1f (dist=%.1f dt=%.2f)\n", horiz_vel, elapsedDistance, dt);*/
gs_rate_of_climb_node
->setDoubleValue( -sin( des_angle * SGD_DEGREES_TO_RADIANS )
* horiz_vel * SG_METER_TO_FEET );
+ gs_rate_of_climb_fpm_node
+ ->setDoubleValue( gs_rate_of_climb_node->getDoubleValue() * 60 );
}
void FGNavRadio::updateDME(const SGVec3d& aircraft)