#include <iostream>
#include <array>

#include <solve.h>
#include <math/math_defs.hpp>

int main()
{
    auto primitive_data_center = create_primitive_data_center();
    //auto sphere1               = create_primitive(primitive_data_center, PRIMITIVE_TYPE_SPHERE);
    //auto sphere2               = create_primitive(primitive_data_center, PRIMITIVE_TYPE_SPHERE);
    //auto cylinder1              = create_primitive(primitive_data_center, PRIMITIVE_TYPE_CYLINDER);
    //auto cylinder2             = create_primitive(primitive_data_center, PRIMITIVE_TYPE_CYLINDER);
    //auto polyline_extrude       = create_primitive(primitive_data_center, PRIMITIVE_TYPE_EXTRUDE_POLYLINE);  
    auto helixline_extrude       = create_primitive(primitive_data_center, PRIMITIVE_TYPE_EXTRUDE_HELIXLINE);


    //primitive_apply_translation(cylinder1, {1.0, 0.0, 0.0});
    //primitive_apply_translation(sphere1, {1.0, 0.0, 0.0});
    //primitive_apply_translation(polyline_extrude, {0.3, 0.0, 0.0});
    //primitive_apply_scale(cylinder1, {0.5, 1.0, 1.5});
    //primitive_apply_scale(sphere2, {0.5, 1.0, 1.5});
    ////primitive_apply_scale(polyline_extrude, {1.3, 2.0, 0.6});
    ////primitive_apply_scale(helixline_extrude, {0.7, 2.0, 1.0});
    //double   angle_x = 90.0 * pi / 180.0; // 角度转弧度
    //primitive_apply_rotation(cylinder1, {sin(angle_x / 2.0), 0.0, 0.0, cos(angle_x / 2.0)});
    //primitive_apply_rotation(sphere1, {sin(angle_x / 2.0), 0.0, 0.0, cos(angle_x / 2.0)});
    ////primitive_apply_rotation(polyline_extrude, {sin(angle_x / 3.0), 0.0, 0.0, cos(angle_x / 1.0)});
    //std::cout << "primitive created..." << std::endl;

    auto runtime_blobtree = create_blobtree();

    auto node_iter = blobtree_add_primitive_node(runtime_blobtree, helixline_extrude);
    //auto node_iter1       = blobtree_add_primitive_node(runtime_blobtree, cylinder1);
    //auto node_iter2       = blobtree_add_primitive_node(runtime_blobtree, sphere1);
    //auto node_iter3       = blobtree_add_operation_node(runtime_blobtree, node_iter1, node_iter2, INTERSECTION_OP);
    //auto node_iter4       = blobtree_add_primitive_node(runtime_blobtree, sphere2);
    //auto node_iter5       = blobtree_add_operation_node(runtime_blobtree, node_iter3, node_iter4, UNION_OP);
    //auto node_iter6       = blobtree_add_primitive_node(runtime_blobtree, cylinder2);
    //auto node_iter7       = blobtree_add_operation_node(runtime_blobtree, node_iter6, node_iter5, DIFFERENCE_OP);
    //auto node_iter8       = blobtree_add_primitive_node(runtime_blobtree, polyline_extrude);
    //auto node_iter9       = blobtree_add_operation_node(runtime_blobtree, node_iter7, node_iter8, UNION_OP);

    auto baked_blobtree   = bake_blobtree(runtime_blobtree);
    destroy_blobtree(runtime_blobtree);

    std::cout << "blobtree created..." << std::endl;

    s_settings settings{};
    settings.resolution                         = 48; // 72
    settings.scene_aabb_margin                  = 1e-5;
    settings.restricted_primitive_bounding_test = true;
    auto solver                                 = create_solver(baked_blobtree, settings);

    auto result = generate_polymesh(solver);
    print_statistics(solver);
    
    destroy_solver(solver);
    destroy_baked_blobtree(baked_blobtree);
    //destroy_primitive(sphere1);
    //destroy_primitive(cylinder1);
    //destroy_primitive(polyline_extrude);
    destroy_primitive(helixline_extrude);
    destroy_primitive_data_center(primitive_data_center);

    return 0;
}