/* The main program: */
int main ()
{
// Construct the input planes.
std::list<Surface_3> planes;
planes.push_back (Surface_3(Plane_3(0, -1, 1, 0)));
planes.push_back (Surface_3(Plane_3(-1, 0, 1, 0)));
planes.push_back (Surface_3(Plane_3(0, 1 , 1, 0)));
planes.push_back (Surface_3(Plane_3(1, 0, 1, 0)));
// Compute and print the minimization diagram.
Envelope_diagram_2 min_diag;
CGAL::lower_envelope_3 (planes.begin(), planes.end(), min_diag);
std::cout << std::endl << "The minimization diagram:" << std::endl;
print_diagram (min_diag);
// Compute and print the maximization diagram.
Envelope_diagram_2 max_diag;
CGAL::upper_envelope_3 (planes.begin(), planes.end(), max_diag);
std::cout << std::endl << "The maximization diagram:" << std::endl;
print_diagram (max_diag);
return (0);
}
int
main(void)
{
const int ARR_LEN = 10;
double cels_arr[ARR_LEN] = {-400.45, -300.24, -200.68, -100.45, -50.23, -10.98, 50.76, 100.45, 150.34, 250.93};
double far_arr[ARR_LEN];
c_f_conversion(cels_arr, far_arr, ARR_LEN);
print_diagram(cels_arr, far_arr, ARR_LEN);
return 0;
}
/*! The main program. */
int main ()
{
// Create four input circles.
Curve_2 circles[4];
circles[0] = Circle_2 (Kernel_point_2 (1, 3), CGAL::square(2));
circles[1] = Circle_2 (Kernel_point_2 (4, 5), CGAL::square(4));
circles[2] = Circle_2 (Kernel_point_2 (5, 1), CGAL::square(1));
circles[3] = Circle_2 (Kernel_point_2 (6, 7), CGAL::square(2));
// Compute the minimization diagram that represents their lower envelope.
Diagram_1 min_diag;
lower_envelope_2 (&(circles[0]), &(circles[4]), min_diag);
print_diagram (min_diag);
// Compute the maximization diagram that represents the upper envelope.
Diagram_1 max_diag;
upper_envelope_2 (&(circles[0]), &(circles[4]), max_diag);
print_diagram (max_diag);
return (0);
}
