void
AirspaceRoute::Synchronise(const Airspaces &master,
const AirspacePredicate &_condition,
const AGeoPoint &origin,
const AGeoPoint &destination)
{
// @todo: also synchronise with AirspaceWarningManager to filter out items that are
// acknowledged.
h_min = std::min((int)origin.altitude, std::min((int)destination.altitude, h_min));
h_max = std::max((int)origin.altitude, std::max((int)destination.altitude, h_max));
// @todo: have margin for h_max to allow for climb
AirspacePredicateHeightRangeExcludeTwo h_condition(h_min, h_max, origin, destination);
const auto and_condition = MakeAndPredicate(h_condition,
AirspacePredicateRef(_condition));
const auto predicate = WrapAirspacePredicate(and_condition);
if (m_airspaces.SynchroniseInRange(master, origin.Middle(destination),
0.5 * origin.Distance(destination),
predicate)) {
if (!m_airspaces.IsEmpty())
dirty = true;
}
}
void
AirspaceRoute::Synchronise(const Airspaces& master,
const AGeoPoint& origin,
const AGeoPoint& destination)
{
// @todo: also synchronise with AirspaceWarningManager to filter out items that are
// acknowledged.
h_min = std::min(origin.altitude, std::min(destination.altitude, h_min));
h_max = std::max(origin.altitude, std::max(destination.altitude, h_max));
// @todo: have margin for h_max to allow for climb
AirspacePredicateHeightRangeExcludeTwo condition(h_min, h_max, origin, destination);
if (m_airspaces.SynchroniseInRange(master, origin.Middle(destination),
Half(origin.Distance(destination)),
condition))
{
if (m_airspaces.size())
dirty = true;
}
}
