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godot/tests/scene/test_primitives.h

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/**************************************************************************/
/* test_primitives.h */
/**************************************************************************/
/* This file is part of: */
/* GODOT ENGINE */
/* https://godotengine.org */
/**************************************************************************/
/* Copyright (c) 2014-present Godot Engine contributors (see AUTHORS.md). */
/* Copyright (c) 2007-2014 Juan Linietsky, Ariel Manzur. */
/* */
/* Permission is hereby granted, free of charge, to any person obtaining */
/* a copy of this software and associated documentation files (the */
/* "Software"), to deal in the Software without restriction, including */
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/* distribute, sublicense, and/or sell copies of the Software, and to */
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/* the following conditions: */
/* */
/* The above copyright notice and this permission notice shall be */
/* included in all copies or substantial portions of the Software. */
/* */
/* THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, */
/* EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF */
/* MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. */
/* IN NO EVENT SHALL THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY */
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/**************************************************************************/
#ifndef TEST_PRIMITIVES_H
#define TEST_PRIMITIVES_H
#include "scene/resources/primitive_meshes.h"
#include "tests/test_macros.h"
namespace TestPrimitives {
TEST_CASE("[SceneTree][Primitive][Capsule] Capsule Primitive") {
Ref<CapsuleMesh> capsule = memnew(CapsuleMesh);
SUBCASE("[SceneTree][Primitive][Capsule] Default values should be valid") {
CHECK_MESSAGE(capsule->get_radius() > 0,
"Radius of default capsule positive.");
CHECK_MESSAGE(capsule->get_height() > 0,
"Height of default capsule positive.");
CHECK_MESSAGE(capsule->get_radial_segments() >= 0,
"Radius Segments of default capsule positive.");
CHECK_MESSAGE(capsule->get_rings() >= 0,
"Number of rings of default capsule positive.");
}
SUBCASE("[SceneTree][Primitive][Capsule] Set properties of the capsule and get them with accessor methods") {
capsule->set_height(7.1f);
capsule->set_radius(1.3f);
capsule->set_radial_segments(16);
capsule->set_rings(32);
CHECK_MESSAGE(capsule->get_radius() == doctest::Approx(1.3f),
"Get/Set radius work with one set.");
CHECK_MESSAGE(capsule->get_height() == doctest::Approx(7.1f),
"Get/Set radius work with one set.");
CHECK_MESSAGE(capsule->get_radial_segments() == 16,
"Get/Set radius work with one set.");
CHECK_MESSAGE(capsule->get_rings() == 32,
"Get/Set radius work with one set.");
}
SUBCASE("[SceneTree][Primitive][Capsule] If set segments negative, default to at least 0") {
capsule->set_radial_segments(-5);
capsule->set_rings(-17);
CHECK_MESSAGE(capsule->get_radial_segments() >= 0,
"Ensure number of radial segments is >= 0.");
CHECK_MESSAGE(capsule->get_rings() >= 0,
"Ensure number of rings is >= 0.");
}
SUBCASE("[SceneTree][Primitive][Capsule] If set height < 2*radius, adjust radius and height to radius=height*0.5") {
capsule->set_radius(1.f);
capsule->set_height(0.5f);
CHECK_MESSAGE(capsule->get_radius() >= capsule->get_height() * 0.5,
"Ensure radius >= height * 0.5 (needed for capsule to exist).");
}
SUBCASE("[Primitive][Capsule] Check mesh is correct") {
Array data{};
data.resize(RS::ARRAY_MAX);
float radius{ 0.5f };
float height{ 4.f };
int num_radial_segments{ 4 };
int num_rings{ 8 };
CapsuleMesh::create_mesh_array(data, radius, height, num_radial_segments, num_rings);
Vector<Vector3> points = data[RS::ARRAY_VERTEX];
SUBCASE("[Primitive][Capsule] Ensure all vertices positions are within bounding radius and height") {
// Get mesh data
// Check all points within radius of capsule
float dist_to_yaxis = 0.f;
for (Vector3 point : points) {
float new_dist_to_y = point.x * point.x + point.z * point.z;
if (new_dist_to_y > dist_to_yaxis)
dist_to_yaxis = new_dist_to_y;
}
CHECK(dist_to_yaxis <= radius * radius);
// Check highest point and lowest point are within height of each other
float max_y{ 0.f };
float min_y{ 0.f };
for (Vector3 point : points) {
if (point.y > max_y)
max_y = point.y;
if (point.y < min_y)
min_y = point.y;
}
CHECK(max_y - min_y <= height);
}
SUBCASE("[Primitive][Capsule] If normal.y == 0, then mesh makes a cylinder.") {
Vector<Vector3> normals = data[RS::ARRAY_NORMAL];
for (int ii = 0; ii < points.size(); ++ii) {
float point_dist_from_yaxis = Math::sqrt(points[ii].x * points[ii].x + points[ii].z * points[ii].z);
Vector3 yaxis_to_point{ points[ii].x / point_dist_from_yaxis, 0.f, points[ii].z / point_dist_from_yaxis };
if (normals[ii].y == 0.f) {
float mag_of_normal = Math::sqrt(normals[ii].x * normals[ii].x + normals[ii].z * normals[ii].z);
Vector3 normalized_normal = normals[ii] / mag_of_normal;
CHECK_MESSAGE(point_dist_from_yaxis == doctest::Approx(radius),
"Points on the tube of the capsule are radius away from y-axis.");
CHECK_MESSAGE(normalized_normal.is_equal_approx(yaxis_to_point),
"Normal points orthogonal from mid cylinder.");
}
}
}
}
} // End capsule tests
TEST_CASE("[SceneTree][Primitive][Box] Box Primitive") {
Ref<BoxMesh> box = memnew(BoxMesh);
SUBCASE("[SceneTree][Primitive][Box] Default values should be valid") {
CHECK(box->get_size().x > 0);
CHECK(box->get_size().y > 0);
CHECK(box->get_size().z > 0);
CHECK(box->get_subdivide_width() >= 0);
CHECK(box->get_subdivide_height() >= 0);
CHECK(box->get_subdivide_depth() >= 0);
}
SUBCASE("[SceneTree][Primitive][Box] Set properties and get them with accessor methods") {
Vector3 size{ 2.1, 3.3, 1.7 };
box->set_size(size);
box->set_subdivide_width(3);
box->set_subdivide_height(2);
box->set_subdivide_depth(4);
CHECK(box->get_size().is_equal_approx(size));
CHECK(box->get_subdivide_width() == 3);
CHECK(box->get_subdivide_height() == 2);
CHECK(box->get_subdivide_depth() == 4);
}
SUBCASE("[SceneTree][Primitive][Box] Set subdivides to negative and ensure they are >= 0") {
box->set_subdivide_width(-2);
box->set_subdivide_height(-2);
box->set_subdivide_depth(-2);
CHECK(box->get_subdivide_width() >= 0);
CHECK(box->get_subdivide_height() >= 0);
CHECK(box->get_subdivide_depth() >= 0);
}
SUBCASE("[Primitive][Box] Check mesh is correct.") {
Array data{};
data.resize(RS::ARRAY_MAX);
Vector3 size{ 0.5f, 1.2f, .9f };
int subdivide_width{ 3 };
int subdivide_height{ 2 };
int subdivide_depth{ 8 };
BoxMesh::create_mesh_array(data, size, subdivide_width, subdivide_height, subdivide_depth);
Vector<Vector3> points = data[RS::ARRAY_VERTEX];
Vector<Vector3> normals = data[RS::ARRAY_NORMAL];
SUBCASE("Only 6 distinct normals.") {
Vector<Vector3> distinct_normals{};
distinct_normals.push_back(normals[0]);
for (const Vector3 &normal : normals) {
bool add_normal{ true };
for (const Vector3 &vec : distinct_normals) {
if (vec.is_equal_approx(normal))
add_normal = false;
}
if (add_normal)
distinct_normals.push_back(normal);
}
CHECK_MESSAGE(distinct_normals.size() == 6,
"There are exactly 6 distinct normals in the mesh data.");
// All normals are orthogonal, or pointing in same direction.
bool normal_correct_direction{ true };
for (int rowIndex = 0; rowIndex < distinct_normals.size(); ++rowIndex) {
for (int colIndex = rowIndex + 1; colIndex < distinct_normals.size(); ++colIndex) {
if (!Math::is_equal_approx(distinct_normals[rowIndex].normalized().dot(distinct_normals[colIndex].normalized()), 0) &&
!Math::is_equal_approx(distinct_normals[rowIndex].normalized().dot(distinct_normals[colIndex].normalized()), 1) &&
!Math::is_equal_approx(distinct_normals[rowIndex].normalized().dot(distinct_normals[colIndex].normalized()), -1)) {
normal_correct_direction = false;
break;
}
}
if (!normal_correct_direction)
break;
}
CHECK_MESSAGE(normal_correct_direction,
"All normals are either orthogonal or colinear.");
}
}
} // End box tests
TEST_CASE("[SceneTree][Primitive][Cylinder] Cylinder Primitive") {
Ref<CylinderMesh> cylinder = memnew(CylinderMesh);
SUBCASE("[SceneTree][Primitive][Cylinder] Default values should be valid") {
CHECK(cylinder->get_top_radius() > 0);
CHECK(cylinder->get_bottom_radius() > 0);
CHECK(cylinder->get_height() > 0);
CHECK(cylinder->get_radial_segments() > 0);
CHECK(cylinder->get_rings() > 0);
}
SUBCASE("[SceneTree][Primitive][Cylinder] Set properties and get them") {
cylinder->set_top_radius(4.3f);
cylinder->set_bottom_radius(1.2f);
cylinder->set_height(9.77f);
cylinder->set_radial_segments(12);
cylinder->set_rings(16);
cylinder->set_cap_top(false);
cylinder->set_cap_bottom(false);
CHECK(cylinder->get_top_radius() == doctest::Approx(4.3f));
CHECK(cylinder->get_bottom_radius() == doctest::Approx(1.2f));
CHECK(cylinder->get_height() == doctest::Approx(9.77f));
CHECK(cylinder->get_radial_segments() == 12);
CHECK(cylinder->get_rings() == 16);
CHECK(!cylinder->is_cap_top());
CHECK(!cylinder->is_cap_bottom());
}
SUBCASE("[SceneTree][Primitive][Cylinder] Ensure num segments is >= 0") {
cylinder->set_radial_segments(-12);
cylinder->set_rings(-16);
CHECK(cylinder->get_radial_segments() >= 0);
CHECK(cylinder->get_rings() >= 0);
}
SUBCASE("[Primitive][Cylinder] Actual cylinder mesh tests (top and bottom radius the same).") {
Array data{};
data.resize(RS::ARRAY_MAX);
real_t radius = .9f;
real_t height = 3.2f;
int radial_segments = 8;
int rings = 5;
bool top_cap = true;
bool bottom_cap = true;
CylinderMesh::create_mesh_array(data, radius, radius, height, radial_segments, rings, top_cap, bottom_cap);
Vector<Vector3> points = data[RS::ARRAY_VERTEX];
Vector<Vector3> normals = data[RS::ARRAY_NORMAL];
SUBCASE("[Primitive][Cylinder] Side points are radius away from y-axis.") {
bool is_radius_correct{ true };
for (int index = 0; index < normals.size(); ++index) {
if (Math::is_equal_approx(normals[index].y, 0)) {
if (!Math::is_equal_approx((points[index] - Vector3(0, points[index].y, 0)).length_squared(), radius * radius)) {
is_radius_correct = false;
break;
}
}
}
CHECK(is_radius_correct);
}
SUBCASE("[Primitive][Cylinder] Only possible normals point in direction of point or in positive/negative y direction.") {
bool is_correct_normals{ true };
for (int index = 0; index < normals.size(); ++index) {
Vector3 yaxis_to_point = points[index] - Vector3(0.f, points[index].y, 0.f);
Vector3 point_to_normal = normals[index].normalized() - yaxis_to_point.normalized();
// std::cout << "<" << point_to_normal.x << ", " << point_to_normal.y << ", " << point_to_normal.z << ">\n";
if (!(point_to_normal.is_equal_approx(Vector3(0, 0, 0))) &&
(!Math::is_equal_approx(Math::abs(normals[index].normalized().y), 1))) {
is_correct_normals = false;
break;
}
}
CHECK(is_correct_normals);
}
SUBCASE("[Primitive][Cylinder] Points on top and bottom are height/2 away from origin.") {
bool is_height_correct{ true };
real_t half_height = 0.5 * height;
for (int index = 0; index < normals.size(); ++index) {
if (Math::is_equal_approx(normals[index].x, 0) &&
Math::is_equal_approx(normals[index].z, 0) &&
normals[index].y > 0) {
if (!Math::is_equal_approx(points[index].y, half_height)) {
is_height_correct = false;
break;
}
}
if (Math::is_equal_approx(normals[index].x, 0) &&
Math::is_equal_approx(normals[index].z, 0) &&
normals[index].y < 0) {
if (!Math::is_equal_approx(points[index].y, -half_height)) {
is_height_correct = false;
break;
}
}
}
CHECK(is_height_correct);
}
SUBCASE("[Primitive][Cylinder] Does mesh obey cap parameters?") {
CylinderMesh::create_mesh_array(data, radius, radius, height, radial_segments, rings, top_cap, false);
points = data[RS::ARRAY_VERTEX];
normals = data[RS::ARRAY_NORMAL];
bool no_bottom_cap{ true };
for (int index = 0; index < normals.size(); ++index) {
if (Math::is_equal_approx(normals[index].x, 0) &&
Math::is_equal_approx(normals[index].z, 0) &&
normals[index].y < 0) {
no_bottom_cap = false;
break;
}
}
CHECK_MESSAGE(no_bottom_cap,
"Check there is no bottom cap.");
CylinderMesh::create_mesh_array(data, radius, radius, height, radial_segments, rings, false, bottom_cap);
points = data[RS::ARRAY_VERTEX];
normals = data[RS::ARRAY_NORMAL];
bool no_top_cap{ true };
for (int index = 0; index < normals.size(); ++index) {
if (Math::is_equal_approx(normals[index].x, 0) &&
Math::is_equal_approx(normals[index].z, 0) &&
normals[index].y > 0) {
no_top_cap = false;
break;
}
}
CHECK_MESSAGE(no_top_cap,
"Check there is no top cap.");
}
}
SUBCASE("[Primitive][Cylinder] Slanted cylinder mesh (top and bottom radius different).") {
Array data{};
data.resize(RS::ARRAY_MAX);
real_t top_radius = 2.f;
real_t bottom_radius = 1.f;
real_t height = 1.f;
int radial_segments = 8;
int rings = 5;
CylinderMesh::create_mesh_array(data, top_radius, bottom_radius, height, radial_segments, rings, false, false);
Vector<Vector3> points = data[RS::ARRAY_VERTEX];
Vector<Vector3> normals = data[RS::ARRAY_NORMAL];
SUBCASE("[Primitive][Cylinder] Side points lie correct distance from y-axis") {
bool is_radius_correct{ true };
for (int index = 0; index < points.size(); ++index) {
real_t radius = ((top_radius - bottom_radius) / height) * (points[index].y - 0.5 * height) + top_radius;
Vector3 distance_to_yaxis = points[index] - Vector3(0.f, points[index].y, 0.f);
if (!Math::is_equal_approx(distance_to_yaxis.length_squared(), radius * radius)) {
is_radius_correct = false;
break;
}
}
CHECK(is_radius_correct);
}
SUBCASE("[Primitive][Cylinder] Normal on side is orthogonal to side tangent vector") {
bool is_normal_correct{ true };
for (int index = 0; index < points.size(); ++index) {
Vector3 yaxis_to_point = points[index] - Vector3(0.f, points[index].y, 0.f);
Vector3 yaxis_to_rb = yaxis_to_point.normalized() * bottom_radius;
Vector3 rb_to_point = yaxis_to_point - yaxis_to_rb;
Vector3 y_to_bottom = -Vector3(0.f, points[index].y + 0.5 * height, 0.f);
Vector3 side_tangent = rb_to_point - y_to_bottom;
if (!Math::is_equal_approx(normals[index].dot(side_tangent), 0)) {
is_normal_correct = false;
break;
}
}
CHECK(is_normal_correct);
}
}
} // End cylinder tests
TEST_CASE("[SceneTree][Primitive][Plane] Plane Primitive") {
Ref<PlaneMesh> plane = memnew(PlaneMesh);
SUBCASE("[SceneTree][Primitive][Plane] Default values should be valid") {
CHECK(plane->get_size().x > 0);
CHECK(plane->get_size().y > 0);
CHECK(plane->get_subdivide_width() >= 0);
CHECK(plane->get_subdivide_depth() >= 0);
CHECK((plane->get_orientation() == PlaneMesh::FACE_X || plane->get_orientation() == PlaneMesh::FACE_Y || plane->get_orientation() == PlaneMesh::FACE_Z));
}
SUBCASE("[SceneTree][Primitive][Plane] Set properties and get them.") {
Size2 size{ 3.2, 1.8 };
Vector3 offset{ -7.3, 0.4, -1.7 };
plane->set_size(size);
plane->set_subdivide_width(15);
plane->set_subdivide_depth(29);
plane->set_center_offset(offset);
plane->set_orientation(PlaneMesh::FACE_X);
CHECK(plane->get_size().is_equal_approx(size));
CHECK(plane->get_subdivide_width() == 15);
CHECK(plane->get_subdivide_depth() == 29);
CHECK(plane->get_center_offset().is_equal_approx(offset));
CHECK(plane->get_orientation() == PlaneMesh::FACE_X);
}
SUBCASE("[SceneTree][Primitive][Plane] Ensure number of segments is >= 0.") {
plane->set_subdivide_width(-15);
plane->set_subdivide_depth(-29);
CHECK(plane->get_subdivide_width() >= 0);
CHECK(plane->get_subdivide_depth() >= 0);
}
}
TEST_CASE("[SceneTree][Primitive][Quad] QuadMesh Primitive") {
Ref<QuadMesh> quad = memnew(QuadMesh);
SUBCASE("[Primitive][Quad] Orientation on initialization is in z direction") {
CHECK(quad->get_orientation() == PlaneMesh::FACE_Z);
}
}
TEST_CASE("[SceneTree][Primitive][Prism] Prism Primitive") {
Ref<PrismMesh> prism = memnew(PrismMesh);
SUBCASE("[Primitive][Prism] There are valid values of properties on initialization.") {
CHECK(prism->get_left_to_right() >= 0);
CHECK(prism->get_size().x >= 0);
CHECK(prism->get_size().y >= 0);
CHECK(prism->get_size().z >= 0);
CHECK(prism->get_subdivide_width() >= 0);
CHECK(prism->get_subdivide_height() >= 0);
CHECK(prism->get_subdivide_depth() >= 0);
}
SUBCASE("[Primitive][Prism] Are able to change prism properties.") {
Vector3 size{ 4.3, 9.1, 0.43 };
prism->set_left_to_right(3.4f);
prism->set_size(size);
prism->set_subdivide_width(36);
prism->set_subdivide_height(5);
prism->set_subdivide_depth(64);
CHECK(prism->get_left_to_right() == doctest::Approx(3.4f));
CHECK(prism->get_size().is_equal_approx(size));
CHECK(prism->get_subdivide_width() == 36);
CHECK(prism->get_subdivide_height() == 5);
CHECK(prism->get_subdivide_depth() == 64);
}
SUBCASE("[Primitive][Prism] Ensure number of segments always >= 0") {
prism->set_subdivide_width(-36);
prism->set_subdivide_height(-5);
prism->set_subdivide_depth(-64);
CHECK(prism->get_subdivide_width() >= 0);
CHECK(prism->get_subdivide_height() >= 0);
CHECK(prism->get_subdivide_depth() >= 0);
}
}
TEST_CASE("[SceneTree][Primitive][Sphere] Sphere Primitive") {
Ref<SphereMesh> sphere = memnew(SphereMesh);
SUBCASE("[Primitive][Sphere] There are valid values of properties on initialization.") {
CHECK(sphere->get_radius() >= 0);
CHECK(sphere->get_height() >= 0);
CHECK(sphere->get_radial_segments() >= 0);
CHECK(sphere->get_rings() >= 0);
}
SUBCASE("[Primitive][Sphere] Are able to change prism properties.") {
sphere->set_radius(3.4f);
sphere->set_height(2.2f);
sphere->set_radial_segments(36);
sphere->set_rings(5);
sphere->set_is_hemisphere(true);
CHECK(sphere->get_radius() == doctest::Approx(3.4f));
CHECK(sphere->get_height() == doctest::Approx(2.2f));
CHECK(sphere->get_radial_segments() == 36);
CHECK(sphere->get_rings() == 5);
CHECK(sphere->get_is_hemisphere());
}
SUBCASE("[Primitive][Sphere] Ensure number of segments always >= 0") {
sphere->set_radial_segments(-36);
sphere->set_rings(-5);
CHECK(sphere->get_radial_segments() >= 0);
CHECK(sphere->get_rings() >= 0);
}
SUBCASE("[Primitive][Sphere] Sphere mesh tests.") {
Array data{};
data.resize(RS::ARRAY_MAX);
real_t radius = 1.1f;
int radial_segments = 8;
int rings = 5;
SphereMesh::create_mesh_array(data, radius, 2 * radius, radial_segments, rings);
Vector<Vector3> points = data[RS::ARRAY_VERTEX];
Vector<Vector3> normals = data[RS::ARRAY_NORMAL];
SUBCASE("[Primitive][Sphere] All points lie radius away from origin.") {
bool is_radius_correct = true;
for (Vector3 point : points) {
if (!Math::is_equal_approx(point.length_squared(), radius * radius)) {
is_radius_correct = false;
break;
}
}
CHECK(is_radius_correct);
}
SUBCASE("[Primitive][Sphere] All normals lie in direction of corresponding point.") {
bool is_normals_correct = true;
for (int index = 0; index < points.size(); ++index) {
if (!Math::is_equal_approx(normals[index].normalized().dot(points[index].normalized()), 1)) {
is_normals_correct = false;
break;
}
}
CHECK(is_normals_correct);
}
}
}
TEST_CASE("[SceneTree][Primitive][Torus] Torus Primitive") {
Ref<TorusMesh> torus = memnew(TorusMesh);
Ref<PrimitiveMesh> prim = memnew(PrimitiveMesh);
SUBCASE("[Primitive][Torus] There are valid values of properties on initialization.") {
CHECK(torus->get_inner_radius() > 0);
CHECK(torus->get_outer_radius() > 0);
CHECK(torus->get_rings() >= 0);
CHECK(torus->get_ring_segments() >= 0);
}
SUBCASE("[Primitive][Torus] Are able to change properties.") {
torus->set_inner_radius(3.2f);
torus->set_outer_radius(9.5f);
torus->set_rings(19);
torus->set_ring_segments(43);
CHECK(torus->get_inner_radius() == doctest::Approx(3.2f));
CHECK(torus->get_outer_radius() == doctest::Approx(9.5f));
CHECK(torus->get_rings() == 19);
CHECK(torus->get_ring_segments() == 43);
}
}
TEST_CASE("[SceneTree][Primitive][TubeTrail] TubeTrail Primitive") {
Ref<TubeTrailMesh> tube = memnew(TubeTrailMesh);
SUBCASE("[Primitive][TubeTrail] There are valid values of properties on initialization.") {
CHECK(tube->get_radius() > 0);
CHECK(tube->get_radial_steps() >= 0);
CHECK(tube->get_sections() >= 0);
CHECK(tube->get_section_length() > 0);
CHECK(tube->get_section_rings() >= 0);
CHECK(tube->get_curve() == nullptr);
CHECK(tube->get_builtin_bind_pose_count() >= 0);
}
SUBCASE("[Primitive][TubeTrail] Are able to change properties.") {
tube->set_radius(7.2f);
tube->set_radial_steps(9);
tube->set_sections(33);
tube->set_section_length(5.5f);
tube->set_section_rings(12);
Ref<Curve> curve = memnew(Curve);
tube->set_curve(curve);
CHECK(tube->get_radius() == doctest::Approx(7.2f));
CHECK(tube->get_section_length() == doctest::Approx(5.5f));
CHECK(tube->get_radial_steps() == 9);
CHECK(tube->get_sections() == 33);
CHECK(tube->get_section_rings() == 12);
CHECK(tube->get_curve() == curve);
}
SUBCASE("[Primitive][TubeTrail] Setting same curve more than once, it remains the same.") {
Ref<Curve> curve = memnew(Curve);
tube->set_curve(curve);
tube->set_curve(curve);
tube->set_curve(curve);
CHECK(tube->get_curve() == curve);
}
SUBCASE("[Primitive][TubeTrail] Setting curve, then changing to different curve.") {
Ref<Curve> curve1 = memnew(Curve);
Ref<Curve> curve2 = memnew(Curve);
tube->set_curve(curve1);
CHECK(tube->get_curve() == curve1);
tube->set_curve(curve2);
CHECK(tube->get_curve() == curve2);
}
SUBCASE("[Primitive][TubeTrail] Assign same curve to two different tube trails") {
Ref<TubeTrailMesh> tube2 = memnew(TubeTrailMesh);
Ref<Curve> curve = memnew(Curve);
tube->set_curve(curve);
tube2->set_curve(curve);
CHECK(tube->get_curve() == curve);
CHECK(tube2->get_curve() == curve);
}
}
TEST_CASE("[SceneTree][Primitive][RibbonTrail] RibbonTrail Primitive") {
Ref<RibbonTrailMesh> ribbon = memnew(RibbonTrailMesh);
SUBCASE("[Primitive][RibbonTrail] There are valid values of properties on initialization.") {
CHECK(ribbon->get_size() > 0);
CHECK(ribbon->get_sections() >= 0);
CHECK(ribbon->get_section_length() > 0);
CHECK(ribbon->get_section_segments() >= 0);
CHECK(ribbon->get_builtin_bind_pose_count() >= 0);
CHECK(ribbon->get_curve() == nullptr);
CHECK((ribbon->get_shape() == RibbonTrailMesh::SHAPE_CROSS ||
ribbon->get_shape() == RibbonTrailMesh::SHAPE_FLAT));
}
SUBCASE("[Primitive][RibbonTrail] Able to change properties.") {
Ref<Curve> curve = memnew(Curve);
ribbon->set_size(4.3f);
ribbon->set_sections(16);
ribbon->set_section_length(1.3f);
ribbon->set_section_segments(9);
ribbon->set_curve(curve);
CHECK(ribbon->get_size() == doctest::Approx(4.3f));
CHECK(ribbon->get_section_length() == doctest::Approx(1.3f));
CHECK(ribbon->get_sections() == 16);
CHECK(ribbon->get_section_segments() == 9);
CHECK(ribbon->get_curve() == curve);
}
SUBCASE("[Primitive][RibbonTrail] Setting same curve more than once, it remains the same.") {
Ref<Curve> curve = memnew(Curve);
ribbon->set_curve(curve);
ribbon->set_curve(curve);
ribbon->set_curve(curve);
CHECK(ribbon->get_curve() == curve);
}
SUBCASE("[Primitive][RibbonTrail] Setting curve, then changing to different curve.") {
Ref<Curve> curve1 = memnew(Curve);
Ref<Curve> curve2 = memnew(Curve);
ribbon->set_curve(curve1);
CHECK(ribbon->get_curve() == curve1);
ribbon->set_curve(curve2);
CHECK(ribbon->get_curve() == curve2);
}
SUBCASE("[Primitive][RibbonTrail] Assign same curve to two different ribbon trails") {
Ref<RibbonTrailMesh> ribbon2 = memnew(RibbonTrailMesh);
Ref<Curve> curve = memnew(Curve);
ribbon->set_curve(curve);
ribbon2->set_curve(curve);
CHECK(ribbon->get_curve() == curve);
CHECK(ribbon2->get_curve() == curve);
}
}
TEST_CASE("[SceneTree][Primitive][Text] Text Primitive") {
Ref<TextMesh> text = memnew(TextMesh);
SUBCASE("[Primitive][Text] There are valid values of properties on initialization.") {
CHECK((text->get_horizontal_alignment() == HORIZONTAL_ALIGNMENT_CENTER ||
text->get_horizontal_alignment() == HORIZONTAL_ALIGNMENT_LEFT ||
text->get_horizontal_alignment() == HORIZONTAL_ALIGNMENT_RIGHT ||
text->get_horizontal_alignment() == HORIZONTAL_ALIGNMENT_FILL));
CHECK((text->get_vertical_alignment() == VERTICAL_ALIGNMENT_BOTTOM ||
text->get_vertical_alignment() == VERTICAL_ALIGNMENT_TOP ||
text->get_vertical_alignment() == VERTICAL_ALIGNMENT_CENTER ||
text->get_vertical_alignment() == VERTICAL_ALIGNMENT_FILL));
CHECK(text->get_font() == nullptr);
CHECK(text->get_font_size() > 0);
CHECK(text->get_line_spacing() >= 0);
CHECK((text->get_autowrap_mode() == TextServer::AUTOWRAP_OFF ||
text->get_autowrap_mode() == TextServer::AUTOWRAP_ARBITRARY ||
text->get_autowrap_mode() == TextServer::AUTOWRAP_WORD ||
text->get_autowrap_mode() == TextServer::AUTOWRAP_WORD_SMART));
CHECK((text->get_text_direction() == TextServer::DIRECTION_AUTO ||
text->get_text_direction() == TextServer::DIRECTION_LTR ||
text->get_text_direction() == TextServer::DIRECTION_RTL));
CHECK((text->get_structured_text_bidi_override() == TextServer::STRUCTURED_TEXT_DEFAULT ||
text->get_structured_text_bidi_override() == TextServer::STRUCTURED_TEXT_URI ||
text->get_structured_text_bidi_override() == TextServer::STRUCTURED_TEXT_FILE ||
text->get_structured_text_bidi_override() == TextServer::STRUCTURED_TEXT_EMAIL ||
text->get_structured_text_bidi_override() == TextServer::STRUCTURED_TEXT_LIST ||
text->get_structured_text_bidi_override() == TextServer::STRUCTURED_TEXT_NONE ||
text->get_structured_text_bidi_override() == TextServer::STRUCTURED_TEXT_CUSTOM));
CHECK(text->get_structured_text_bidi_override_options().size() >= 0);
CHECK(text->get_width() > 0);
CHECK(text->get_depth() > 0);
CHECK(text->get_curve_step() > 0);
CHECK(text->get_pixel_size() > 0);
}
SUBCASE("[Primitive][Text] Change the properties of the mesh.") {
Ref<Font> font = memnew(Font);
Array options{};
Point2 offset{ 30.8, 104.23 };
text->set_horizontal_alignment(HORIZONTAL_ALIGNMENT_RIGHT);
text->set_vertical_alignment(VERTICAL_ALIGNMENT_BOTTOM);
text->set_text("Hello");
text->set_font(font);
text->set_font_size(12);
text->set_line_spacing(1.7f);
text->set_autowrap_mode(TextServer::AUTOWRAP_WORD_SMART);
text->set_text_direction(TextServer::DIRECTION_RTL);
text->set_language("French");
text->set_structured_text_bidi_override(TextServer::STRUCTURED_TEXT_EMAIL);
text->set_structured_text_bidi_override_options(options);
text->set_uppercase(true);
real_t width{ 0.6 };
real_t depth{ 1.7 };
real_t pixel_size{ 2.8 };
real_t curve_step{ 4.8 };
text->set_width(width);
text->set_depth(depth);
text->set_curve_step(curve_step);
text->set_pixel_size(pixel_size);
text->set_offset(offset);
CHECK(text->get_horizontal_alignment() == HORIZONTAL_ALIGNMENT_RIGHT);
CHECK(text->get_vertical_alignment() == VERTICAL_ALIGNMENT_BOTTOM);
CHECK(text->get_text_direction() == TextServer::DIRECTION_RTL);
CHECK(text->get_text() == "Hello");
CHECK(text->get_font() == font);
CHECK(text->get_font_size() == 12);
CHECK(text->get_autowrap_mode() == TextServer::AUTOWRAP_WORD_SMART);
CHECK(text->get_language() == "French");
CHECK(text->get_structured_text_bidi_override() == TextServer::STRUCTURED_TEXT_EMAIL);
CHECK(text->get_structured_text_bidi_override_options() == options);
CHECK(text->is_uppercase() == true);
CHECK(text->get_offset() == offset);
CHECK(text->get_line_spacing() == doctest::Approx(1.7f));
CHECK(text->get_width() == doctest::Approx(width));
CHECK(text->get_depth() == doctest::Approx(depth));
CHECK(text->get_curve_step() == doctest::Approx(curve_step));
CHECK(text->get_pixel_size() == doctest::Approx(pixel_size));
}
SUBCASE("[Primitive][Text] Set objects multiple times.") {
Ref<Font> font = memnew(Font);
Array options{};
Point2 offset{ 30.8, 104.23 };
text->set_font(font);
text->set_font(font);
text->set_font(font);
text->set_structured_text_bidi_override_options(options);
text->set_structured_text_bidi_override_options(options);
text->set_structured_text_bidi_override_options(options);
text->set_offset(offset);
text->set_offset(offset);
text->set_offset(offset);
CHECK(text->get_font() == font);
CHECK(text->get_structured_text_bidi_override_options() == options);
CHECK(text->get_offset() == offset);
}
SUBCASE("[Primitive][Text] Set then change objects.") {
Ref<Font> font1 = memnew(Font);
Ref<Font> font2 = memnew(Font);
Array options1{};
Array options2{};
Point2 offset1{ 30.8, 104.23 };
Point2 offset2{ -30.8, -104.23 };
text->set_font(font1);
text->set_structured_text_bidi_override_options(options1);
text->set_offset(offset1);
CHECK(text->get_font() == font1);
CHECK(text->get_structured_text_bidi_override_options() == options1);
CHECK(text->get_offset() == offset1);
text->set_font(font2);
text->set_structured_text_bidi_override_options(options2);
text->set_offset(offset2);
CHECK(text->get_font() == font2);
CHECK(text->get_structured_text_bidi_override_options() == options2);
CHECK(text->get_offset() == offset2);
}
SUBCASE("[Primitive][Text] Assign same font to two Textmeshes.") {
Ref<TextMesh> text2 = memnew(TextMesh);
Ref<Font> font = memnew(Font);
text->set_font(font);
text2->set_font(font);
CHECK(text->get_font() == font);
CHECK(text2->get_font() == font);
}
}
} // namespace TestPrimitives
#endif // TEST_PRIMITIVES_H
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