int csg_display_cylinder(t_rt *s, t_object *obj)
{
t_cylinder *shape;
s->hit.limited = 0;
shape = (t_cylinder *)obj->datas;
if (inter_cylinder(s, shape) == 1)
return (csg_cylinder_plans_inters(s, shape, obj));
if (get_simple_inter(s, s->ray.vct, &s->ray.new_eye))
return(end_rotation(&s->rotation, s->ray.vct, &shape->rot), 0);
end_rotation(&s->rotation, s->ray.vct, &shape->rot);
if (limited_cylinder(s, shape) == 0
&& limited_cylinder2(s, shape) == 0 && order_solutions(s) == 0)
{
shape->simple_inter1 = s->hit.simple_inter1;
shape->simple_inter2 = s->hit.simple_inter2;
shape->k1 = s->hit.k1;
shape->k2 = s->hit.k2;
shape->norm1 = s->hit.norm1;
shape->limited = s->hit.limited;
if ((fill_inter_list_cylinder(s, obj)) == -1)
return (-1);
s->hit.name = obj->name;
}
return (0);
}
static gboolean intersection2(t_env *rt, t_vector ray, t_vector origin,
int i)
{
if ((rt->object[i].name == L_SPHERE && limited_sphere(ray,
rt->object[i], origin, rt)) ||
(rt->object[i].name == L_CYLINDER && limited_cylinder(ray,
rt->object[i], origin, rt)) ||
(rt->object[i].name == L_CONE && limited_cone(ray, rt->object[i]
, origin, rt)) ||
(rt->object[i].name == TRIANGLE && triangle(ray, rt->object[i],
&rt->t, origin)) ||
(rt->object[i].name == TORUS && torus(ray, rt->object[i], &rt->t
, origin)) ||
(rt->object[i].name == ELLIPSOIDE && ellipsoide(ray, rt->object[i],
&rt->t, origin)) ||
(rt->object[i].name == PARABOL && parabol(ray, rt->object[i],
&rt->t, origin)) ||
(rt->object[i].name == QUADRILATERAL && quadrilateral(ray,
rt->object[i], &rt->t, origin)) ||
(rt->object[i].name == CUBE && cube(ray, &rt->object[i], &rt->t,
origin)))
return (1);
return (0);
}
