inline void apply(Item1 const& item1, Item2 const& item2)
{
if ( !items_overlap
&& (geometry::within(*points_begin(*item1), *item2)
|| geometry::within(*points_begin(*item2), *item1))
)
{
items_overlap = true;
}
}
static inline return_type apply(Linear1 const& linear1,
Linear2 const& linear2,
Strategy const& strategy,
bool = false)
{
if (geometry::num_points(linear1) == 1)
{
return dispatch::distance
<
typename point_type<Linear1>::type,
Linear2,
Strategy
>::apply(*points_begin(linear1), linear2, strategy);
}
if (geometry::num_points(linear2) == 1)
{
return dispatch::distance
<
typename point_type<Linear2>::type,
Linear1,
Strategy
>::apply(*points_begin(linear2), linear1, strategy);
}
if (geometry::num_segments(linear2) < geometry::num_segments(linear1))
{
return point_or_segment_range_to_geometry_rtree
<
geometry::segment_iterator<Linear2 const>,
Linear1,
Strategy
>::apply(geometry::segments_begin(linear2),
geometry::segments_end(linear2),
linear1,
strategy);
}
return point_or_segment_range_to_geometry_rtree
<
geometry::segment_iterator<Linear1 const>,
Linear2,
Strategy
>::apply(geometry::segments_begin(linear1),
geometry::segments_end(linear1),
linear2,
strategy);
}
Curve::const_point_iterator Curve::vertices_begin() const
{
return points_begin(0);
}
// Adavnced Iterators access
Curve::point_iterator Curve::vertices_begin()
{
return points_begin(0);
}
static inline iterator_type begin(MultiPoint& multipoint)
{
return points_begin(multipoint);
}
void Ftbs::recalculate_radius() {
max_radius2 = 0;
furthest_point = Vector::Zero;
for (auto it = points_begin(); it != points_end(); ++it)
update_radius(*it);
}
