Scene::Scene()
{
objs = std::vector<Shape*>();
lights = std::vector<PointLight*>();
tempMaterial = Material(LightIntensity(0.4f, 0.4f, 0.4f), LightIntensity(0.7f, 0.7f, 0.7f), LightIntensity(0.9f, 1.0f, 0.9f), 32, MaterialType::Diffuse );
}
LightIntensity CameraPerspective::TestWithAllObjectsInScene(Scene& scene, Ray ray, float initialDistance, bool wasReflective, int reflectiveIgnore)
{
LightIntensity tempColor = LightIntensity(0);
float distance;
float temp = initialDistance;
int impactedIter = reflectiveIgnore;
for (int l = 0; l < scene.objs.size(); l++)
{
distance = initialDistance;
if (l == impactedIter)
{
continue;
}
if (scene.objs[l]->IntersectDistance(ray, distance) > 0)
{
if (distance < temp)
{
temp = distance;
tempColor = scene.objs[l]->innerColor;
impactedIter = l;
}
}
}
if (temp < initialDistance)
{
Vector impactPos = temp * ray.direction + ray.origin;
float NdotL = 0;
float specular = 0;
Vector R;
Vector N;
Ray lightRay;
Material* materialPointer = scene.materials[scene.objs[impactedIter]->materialId];
LightIntensity ambientFragment = LightIntensity(0);
switch (materialPointer->materialType)
{
case (Diffuse):
case (Haxative):
ambientFragment = materialPointer->ambient * (1.0f / (float) scene.lights.size());
tempColor = LightIntensity(0);
for (int k = 0; k < scene.lights.size(); k++)
{
lightRay = Ray(impactPos, scene.lights[k]->position);
N = scene.objs[impactedIter]->GetNormal(lightRay.origin);
R = (N * N.Dot(lightRay.direction) * 2.0f) - lightRay.direction;
//float LightIntensity = scene.lights[k]->intensity / (lightRay.distance * lightRay.distance);
distance = initialDistance;
for (int l = 0; l < scene.objs.size(); l++)
{
if (l == impactedIter)
{
//LightIntensity(0.5f, 0, 0);//temp * scene.lights[k]->color;
continue;
}
scene.objs[l]->IntersectDistance(lightRay, distance);
//if (scene.objs[l]->IntersectDistance(lightRay, distance) > 0)
//{
// //tempColor = tempColor * scene.lights[k]->color;
//}
}
if (temp <= initialDistance)
{
NdotL = lightRay.direction.Dot(N);
if (NdotL < 0) NdotL = 0;
specular = (-ray.direction).Dot(R);
if (specular < 0)
{
specular = 0;
}
else
{
specular = powf(specular, materialPointer->specularPower);
}
float attenuation;
if (materialPointer->materialType == Diffuse)
{
attenuation = distance / scene.lights[k]->intensity;
}
else
{
attenuation = scene.lights[k]->intensity / (1.5f * distance);
}
tempColor += ambientFragment * attenuation +
(materialPointer->diffuse * scene.lights[k]->color * NdotL ) * attenuation +
(materialPointer->specular * scene.lights[k]->color * specular) * attenuation;
}
}
//int u = 0, v = 0;
//scene.objs[impactedIter]->ComputeUV(u, v, impactPos, scene.tempMaterial.texSize);
//tempColor = tempColor * scene.tempMaterial.texture->GetPixel(u, v);
break;
case (Reflective) :
if (wasReflective != Reflective)
{
N = scene.objs[impactedIter]->GetNormal(impactPos);
R = R = (N * N.Dot(-ray.direction) * 2.0f) + ray.direction;//N; //2 * N + ray.direction; //R = (N * N.Dot(-ray.direction) * 2.0f) + ray.direction;
tempColor = AAProbing(scene, impactPos, initialDistance, _pxWidth, _pxHeight, aaIterations, 0.05f, Start, LightIntensity(0), LightIntensity(0), Reflective, R, impactedIter);
}
else
{
tempColor = materialPointer->ambient;
}
break;
case (Refractive) :
Vector temp = Vector(0);
Vector testDir = -scene.objs[impactedIter]->GetNormal(impactPos);//ray.direction;
testDir = (testDir * 4 + ray.direction).NormalizeProduct();
scene.objs[impactedIter]->IntersectWithBackfaces(Ray(impactPos, 10000000, testDir), temp);//(testDir * 2 + ray.direction).NormalizeProduct()), temp );
tempColor = AAProbing(scene, temp, initialDistance, _pxWidth, _pxHeight, aaIterations, 0.05f, Start, LightIntensity(0), LightIntensity(0), Refractive, (scene.objs[impactedIter]->GetNormal(temp)*3 - ray.direction ).NormalizeProduct(), impactedIter);
break;
};
}
return tempColor;
}
void MainWindow::renderScene()
{
// Setup scene
Camera camera (Vector3(0.0,0.0,-29.0),
Vector3(0.0,0.0,0.0),
0.01f, 500.0, 55.0);
camera.SetImage(m_image);
camera.SetResultFileName("output_image"); //default filename of output image, particular rendering methods override it using actual params for filename
camera.SetPhotonMappingParams(5, 400, 3, 100); //default setup of parameters (searching radius and number of searched photons for global and caustic map
int liczbaodbic=0;
int liczbafotonow=0;
//pętla przebiegów renderingu
for (int przebieg=0; przebieg</*11*/1; przebieg++){
//SCENA PIRAMIDA Z BOXOW
/*
Scene scene;
Box* box1111 = new Box(Vector3(-4.5,-9,-5),Vector3(2,2,2));
Box* box2111 = new Box(Vector3(-1.5,-9,-5),Vector3(2,2,2));
Box* box3111 = new Box(Vector3(1.5,-9,-5),Vector3(2,2,2));
Box* box4111 = new Box(Vector3(4.5,-9,-5),Vector3(2,2,2));
Box* box111 = new Box(Vector3(-3,-7,-4),Vector3(2,2,2));
Box* box211 = new Box(Vector3(0,-7,-4),Vector3(2,2,2));
Box* box311 = new Box(Vector3(3,-7,-4),Vector3(2,2,2));
Box* box11 = new Box(Vector3(-1.5,-5,-3),Vector3(2,2,2));
Box* box21 = new Box(Vector3(1.5,-5,-3),Vector3(2,2,2));
Box* box4 = new Box(Vector3(0,-3,-2),Vector3(2,2,2));
ReflectiveMaterial mat;
RefractiveMaterial mat2(0.45f);
DiffuseMaterial mat3(Color(1,1,1),Color(1,1,1),Color(0,0,0), 15, 0.0f);
//cornell box musi byc na poczatku listy geometrii aby przy renderingu (funkcja traceraystream)z listy usuwane byly dwa ostatnie trojkaty sciany frontowej
scene.AddGeometry(new CornellBox(Vector3(0,0,0), Vector3(20,20,20)));
box1111->SetMaterial(&mat3);
box2111->SetMaterial(&mat3);
box3111->SetMaterial(&mat3);
box4111->SetMaterial(&mat3);
box111->SetMaterial(&mat3);
box211->SetMaterial(&mat3);
box311->SetMaterial(&mat3);
box11->SetMaterial(&mat3);
box21->SetMaterial(&mat3);
box4->SetMaterial(&mat3);
if(przebieg>0) scene.AddGeometry(box1111);
if(przebieg>1) scene.AddGeometry(box2111);
if(przebieg>2) scene.AddGeometry(box3111);
if(przebieg>3) scene.AddGeometry(box4111);
if(przebieg>4) scene.AddGeometry(box111);
if(przebieg>5) scene.AddGeometry(box211);
if(przebieg>6) scene.AddGeometry(box311);
if(przebieg>7) scene.AddGeometry(box11);
if(przebieg>8) scene.AddGeometry(box21);
if(przebieg>9) scene.AddGeometry(box4);
//LPOINT LIGHT
//scene.AddLight(new POINTLight(Vector3(0, 9.5, -3),Color(1.0,1.0,1.0),Vector3(1,0.1f,0.0f)));
//AREA LIGHT
scene.AddLight(new AreaLight(Vector3(0, 9.5, -4),Vector2(3,3),Color(1.0,1.0,1.0),Vector3(1,0.1f,0.0f),4));
*/
//SCENA DYFUZYJNA
// Scene scene;
// //Sphere* sphere1 = new Sphere(Vector3(-3,-7,2), 3);
// // Sphere* sphere2 = new Sphere(Vector3(4.6,-6.8,-2), 3.5);
// //Sphere* sphere3 = new Sphere(Vector3(-4,-7,-6), 3);
// //Box* box1 = new Box(Vector3(-4,-8,0),Vector3(6,6,6));
// MS3DModel* model = new MS3DModel();
// model->Load("box.ms3d");
// ReflectiveMaterial mat;
// RefractiveMaterial mat2(0.45f);
// DiffuseMaterial mat3(Color(1,1,1),Color(1,1,1),Color(0,0,0), 15, 0.0f);
// //cornell box musi byc na poczatku listy geometrii aby przy renderingu (funkcja traceraystream)z listy usuwane byly dwa ostatnie trojkaty sciany frontowej
// scene.AddGeometry(new CornellBox(Vector3(0,0,0), Vector3(20,20,20)));
// //sphere1->SetMaterial(&mat);
// // sphere2->SetMaterial(&mat3);
// //sphere3->SetMaterial(&mat3);
// //box1->SetMaterial(&mat3);
// model->SetMaterial(&mat3);
// model->SetPositionAndScale(Vector3(-4,-7.2,-2), 3);
// //LPOINT LIGHT
// //scene.AddLight(new POINTLight(Vector3(0, 9.5, -3),Color(1.0,1.0,1.0),Vector3(1,0.1f,0.0f)));
// //AREA LIGHT
// scene.AddLight(new AreaLight(Vector3(0, 9.5, -3),Vector2(3,3),Color(1.0,1.0,1.0),Vector3(1,0.1f,0.0f),4));
// //scene.AddGeometry(sphere1);
// //scene.AddGeometry(box1);
// //SFERA DO TESTOW
// // scene.AddGeometry(sphere2);
// //BOX DO TESTOW
// scene.AddGeometry(model);
//SCENA KAUSTYCZNA DWIE SFERY
Scene scene;
Sphere* sphere1 = new Sphere(Vector3(-4.6,-6.8,-2), 3.5);
Sphere* sphere2 = new Sphere(Vector3(4.6,-6.8,-2), 3.5);
//Box* box1 = new Box(Vector3(0,-6.8,0), Vector3(3.5,3.5,3.5));
ReflectiveMaterial mat;
RefractiveMaterial mat2(0.45f);
// DiffuseMaterial mat3(Color(0,0,0),Color(0,1,0),Color(0,0,0), 15, 0.0f);
//cornel box musi byc na poczatku listy geometrii aby przy renderingu (funkcja traceraystream)z listy usuwane byly dwa ostatnie trojkaty sciany frontowej
scene.AddGeometry(new CornellBox(Vector3(0,0,0), Vector3(20,20,20)));
sphere1->SetMaterial(&mat);
sphere2->SetMaterial(&mat2);
//box1->SetMaterial(&mat3);
scene.AddGeometry(sphere1);
scene.AddGeometry(sphere2);
const Vector3 c(0.0f, 9.5f, -1.0f);
const float d = 3.0f;
Triangle* emisiveTriangle1 = new Triangle(Vector3(c.x+d, c.y, c.z+d), Vector3(c.x+d, c.y, c.z-d), Vector3(c.x-d, c.y, c.z+d));
Triangle* emisiveTriangle2 = new Triangle(Vector3(c.x-d, c.y, c.z-d), Vector3(c.x-d, c.y, c.z+d), Vector3(c.x+d, c.y, c.z-d));
EmmisiveMaterial emmisiveMat(LightIntensity(1.0f, 1.0f, 1.0f));
emisiveTriangle1->SetMaterial(&emmisiveMat);
emisiveTriangle2->SetMaterial(&emmisiveMat);
scene.AddGeometry(emisiveTriangle1);
scene.AddGeometry(emisiveTriangle2);
//scene.AddGeometry(box1);
//LPOINT LIGHT
//scene.AddLight(new POINTLight(Vector3(0, 9.5, -3),Color(1.0,1.0,1.0),Vector3(1,0.1f,0.0f)));
//AREA LIGHT
scene.AddLight(new AreaLight(c,Vector2(d,d),Color(1.0,1.0,1.0),Vector3(1,0.1f,0.0f),4));
//SCENA KATAKAUSTYCZNA
/*
Scene scene;
ReflectiveMaterial mat1;
RefractiveMaterial mat2(0.45f);
DiffuseMaterial mat3(Color(1,1,1),Color(1,1,1),Color(0,0,0), 15, 0.0f);
//cornel box musi byc na poczatku listy geometrii aby przy renderingu (funkcja traceraystream)z listy usuwane byly dwa ostatnie trojkaty sciany frontowej
scene.AddGeometry(new CornellBox(Vector3(0,0,0), Vector3(20,20,20)));
//1 scianka od prawej
Triangle* t1 = new Triangle(Vector3(2,-10,4), Vector3(0,-10,5), Vector3(0,-2,5));
Triangle* t2 = new Triangle(Vector3(0,-2,5), Vector3(2,-2,4), Vector3(2,-10,4));
//2 scianka
Triangle* t3 = new Triangle(Vector3(0,-10,5), Vector3(-2,-10,5), Vector3(-2,-2,5));
Triangle* t4 = new Triangle(Vector3(-2,-2,5), Vector3(0,-2,5), Vector3(0,-10,5));
//3 scianka
Triangle* t5 = new Triangle(Vector3(-2,-10,5), Vector3(-4,-10,4), Vector3(-4,-2,4));
Triangle* t6 = new Triangle(Vector3(-4,-2,4), Vector3(-2,-2,5), Vector3(-2,-10,5));
//4 scianka
Triangle* t7 = new Triangle(Vector3(-4,-10,4), Vector3(-5,-10,2), Vector3(-5,-2,2));
Triangle* t8 = new Triangle(Vector3(-5,-2,2), Vector3(-4,-2,4), Vector3(-4,-10,4));
//5 scianka
Triangle* t9 = new Triangle(Vector3(-5,-10,2), Vector3(-5,-10,0), Vector3(-5,-2,0));
Triangle* t10 = new Triangle(Vector3(-5,-2,0), Vector3(-5,-2,2), Vector3(-5,-10,2));
//6 scianka
Triangle* t11 = new Triangle(Vector3(-5,-10,0), Vector3(-4,-10,-2), Vector3(-4,-2,-2));
Triangle* t12 = new Triangle(Vector3(-4,-2,-2), Vector3(-5,-2,0), Vector3(-5,-10,0));
t1->SetMaterial(&mat1);
scene.AddGeometry(t1);
t2->SetMaterial(&mat1);
scene.AddGeometry(t2);
t3->SetMaterial(&mat1);
scene.AddGeometry(t3);
t4->SetMaterial(&mat1);
scene.AddGeometry(t4);
t5->SetMaterial(&mat1);
scene.AddGeometry(t5);
t6->SetMaterial(&mat1);
scene.AddGeometry(t6);
t7->SetMaterial(&mat1);
scene.AddGeometry(t7);
t8->SetMaterial(&mat1);
scene.AddGeometry(t8);
t9->SetMaterial(&mat1);
scene.AddGeometry(t9);
t10->SetMaterial(&mat1);
scene.AddGeometry(t10);
t11->SetMaterial(&mat1);
scene.AddGeometry(t11);
t12->SetMaterial(&mat1);
scene.AddGeometry(t12);
//LPOINT LIGHT
//scene.AddLight(new POINTLight(Vector3(0, 9.5, -3),Color(1.0,1.0,1.0),Vector3(1,0.1f,0.0f)));
//AREA LIGHT
scene.AddLight(new AreaLight(Vector3(0, 9.5, -3),Vector2(3,3),Color(1.0,1.0,1.0),Vector3(1,0.1f,0.0f),4));
*/
// SCENA STANFORD BUNNY
/*
Scene scene;
DiffuseMaterial mat3(Color(1,1,1),Color(1,1,1),Color(0,0,0), 15, 0.0f);
//cornel box musi byc na poczatku listy geometrii aby przy renderingu (funkcja traceraystream)z listy usuwane byly dwa ostatnie trojkaty sciany frontowej
scene.AddGeometry(new CornellBox(Vector3(0,0,0), Vector3(20,20,20)));
MS3DModel* model = new MS3DModel();
model->Load("bunny.ms3d");
model->SetPositionAndScale(Vector3(-2,-13,-2), 4);
model->SetMaterial(&mat3);
scene.AddGeometry(model);
//LPOINT LIGHT
//scene.AddLight(new POINTLight(Vector3(0, 9.5, -3),Color(1.0,1.0,1.0),Vector3(1,0.1f,0.0f)));
//AREA LIGHT
scene.AddLight(new AreaLight(Vector3(0, 9.5, -3),Vector2(3,3),Color(1.0,1.0,1.0),Vector3(1,0.1f,0.0f),4));
*/
// SCENA UTAH TEAPOT
/*
Scene scene;
DiffuseMaterial mat3(Color(1,1,1),Color(1,1,1),Color(0,0,0), 15, 0.0f);
//cornel box musi byc na poczatku listy geometrii aby przy renderingu (funkcja traceraystream)z listy usuwane byly dwa ostatnie trojkaty sciany frontowej
scene.AddGeometry(new CornellBox(Vector3(0,0,0), Vector3(20,20,20)));
MS3DModel* model = new MS3DModel();
model->Load("teapot.ms3d");
model->SetPositionAndScale(Vector3(0,-10,-2), 5);
model->SetMaterial(&mat3);
scene.AddGeometry(model);
//LPOINT LIGHT
//scene.AddLight(new POINTLight(Vector3(0, 9.5, -3),Color(1.0,1.0,1.0),Vector3(1,0.1f,0.0f)));
//AREA LIGHT
scene.AddLight(new AreaLight(Vector3(0, 9.5, -3),Vector2(3,3),Color(1.0,1.0,1.0),Vector3(1,0.1f,0.0f),4));
*/
// Render image using selected method
if (StreamRenderer == m_rendererPanel->renderingMethod()) {
RendererParams params = m_rendererPanel->getRendererParams();
//podmiana parametrów renderingu
if(przebieg>=0){
liczbafotonow=10;
liczbaodbic=7;
}
if(przebieg>=1){
liczbafotonow=20;
liczbaodbic=7;
}
if(przebieg>=2){
liczbafotonow=30;
liczbaodbic=7;
}
if(przebieg>=3){
liczbafotonow=50;
liczbaodbic=7;
}
if(przebieg>=4){
liczbafotonow=100;
liczbaodbic=7;
}
if(przebieg>=5){
liczbafotonow=150;
liczbaodbic=7;
}
if(przebieg>=6){
liczbafotonow=200;
liczbaodbic=7;
}
if(przebieg>=7){
liczbafotonow=250;
liczbaodbic=7;
}
if(przebieg>=8){
liczbafotonow=300;
liczbaodbic=7;
}
if(przebieg>=9){
liczbafotonow=400;
liczbaodbic=7;
}
if(przebieg>9){
liczbafotonow=500;
liczbaodbic=7;
}
//dla foton mapingu
//liczbafotonowPM=liczbafotonow*1000;
//liczbafotonow=0;
camera.SetPhotonMappingParams(params.m_globalSearchingRadius, params.m_numSearchedGlobalPhotons, params.m_causticSearchingRadius, params.m_numSearchedCausticPhotons);
camera.RenderSceneStream(&scene,
params.m_numSamples,
params.m_numEmittedGlobalPhotons,
//liczbafotonowPM,
params.m_numEmittedCausticPhotons,
liczbafotonow,
params.m_streamRadius,
liczbaodbic);
m_rendererPanel->updateRenderingTime(camera.renderingTime());
} else if (PhotonMapRenderer == m_rendererPanel->renderingMethod()) {
RendererParams params = m_rendererPanel->getRendererParams();
camera.RenderScene(&scene,
params.m_numSamples,
params.m_numEmittedGlobalPhotons,
params.m_numEmittedCausticPhotons);
m_rendererPanel->updateRenderingTime(camera.renderingTime());
} else if (StreamVisualizer == m_rendererPanel->renderingMethod()) {
RendererParams params = m_rendererPanel->getRendererParams();
camera.VisualizeStreamPhotonMap(&scene,
params.m_numPhotons,
params.m_maxReflections,
params.m_numAssociatedPhotons,
params.m_streamRadius);
m_rendererPanel->updateRenderingTime(camera.renderingTime());
} else if (PhotonMapVisualizer == m_rendererPanel->renderingMethod()) {
RendererParams params = m_rendererPanel->getRendererParams();
camera.VisualizePhotonMap(&scene,
params.m_numPhotons,
params.m_maxReflections);
m_rendererPanel->updateRenderingTime(camera.renderingTime());
} else {
QMessageBox::warning(this,"Wrong rendering method",
"Error");
}
repaint();
}
QMessageBox::warning(this,"The End",
"Complete");
}
LightIntensity CameraPerspective::AAProbing(Scene& scene, Vector pointOnPlane, float initialDistance, float pixelWidth, float pixelHeight, int iterationsLeft, float difference, EProbes phase, LightIntensity corner1v2, LightIntensity corner3v4, MaterialType materialType, Vector reflectionDirection, int reflectiveIgnore)
{
int iterLeft = iterationsLeft - 1;
const float iDistance = initialDistance;
LightIntensity center = LightIntensity();
LightIntensity corner1 = LightIntensity();
LightIntensity corner2 = LightIntensity();
LightIntensity corner3 = LightIntensity();
LightIntensity corner4 = LightIntensity();
float halfWidth = pixelWidth * 0.5f;
float halfHeight = pixelHeight * 0.5f;
Vector tempVector = Vector();
Vector testingDirection;
if (materialType == Diffuse)
{
testingDirection = (pointOnPlane - position).NormalizeProduct();
}
else
{
testingDirection = reflectionDirection;
}
center = TestWithAllObjectsInScene(scene, Ray(pointOnPlane, initialDistance, testingDirection), iDistance, materialType, reflectiveIgnore);
if (iterLeft >= 0)
{
if (phase == EProbes::Corner1n4)
{
corner1 = corner1v2;
corner4 = corner3v4;
}
else
{
initialDistance = iDistance;
tempVector = pointOnPlane - u * halfWidth - v * halfHeight;
corner1 = TestWithAllObjectsInScene(scene, Ray(tempVector, initialDistance, testingDirection), iDistance, materialType, reflectiveIgnore);
initialDistance = iDistance;
tempVector = pointOnPlane + u * halfWidth + v * halfHeight;
corner4 = TestWithAllObjectsInScene(scene, Ray(tempVector, initialDistance, testingDirection), iDistance, materialType, reflectiveIgnore);
}
if (phase == EProbes::Corner2n3)
{
corner2 = corner1v2;
corner3 = corner3v4;
}
else
{
initialDistance = iDistance;
tempVector = pointOnPlane + u * halfWidth - v * halfHeight;
corner2 = TestWithAllObjectsInScene(scene, Ray(tempVector, initialDistance, testingDirection), iDistance, materialType, reflectiveIgnore);
initialDistance = iDistance;
tempVector = pointOnPlane - u * halfWidth + v * halfHeight;
corner3 = TestWithAllObjectsInScene(scene, Ray(tempVector, initialDistance, testingDirection), iDistance, materialType, reflectiveIgnore);
}
}
//switch (phase)
//{
//case Start:
//
// initialDistance = iDistance;
// tempVector = pointOnPlane - u * halfWidth - v * halfHeight;
// corner1 = TestWithAllObjectsInScene(scene, Ray(tempVector, initialDistance, tempVector - position), iDistance);
//
// initialDistance = iDistance;
// tempVector = pointOnPlane + u * halfWidth - v * halfHeight;
// corner2 = TestWithAllObjectsInScene(scene, Ray(tempVector, initialDistance, tempVector - position), iDistance);
//
// initialDistance = iDistance;
// tempVector = pointOnPlane - u * halfWidth + v * halfHeight;
// corner3 = TestWithAllObjectsInScene(scene, Ray(tempVector, initialDistance, tempVector - position), iDistance);
//
// initialDistance = iDistance;
// tempVector = pointOnPlane + u * halfWidth + v * halfHeight;
// corner4 = TestWithAllObjectsInScene(scene, Ray(tempVector, initialDistance, tempVector - position), iDistance);
//
// break;
//case Corner1n4:
//
// corner1 = corner1v2;
// corner4 = corner3v4;
//
// initialDistance = iDistance;
// tempVector = pointOnPlane + u * halfWidth - v * halfHeight;
// corner2 = TestWithAllObjectsInScene(scene, Ray(tempVector, initialDistance, tempVector - position), iDistance);
//
// initialDistance = iDistance;
// tempVector = pointOnPlane - u * halfWidth + v * halfHeight;
// corner3 = TestWithAllObjectsInScene(scene, Ray(tempVector, initialDistance, tempVector - position), iDistance);
//
// break;
//case Corner2n3:
//
// corner2 = corner1v2;
// corner3 = corner3v4;
//
// initialDistance = iDistance;
// tempVector = pointOnPlane - u * halfWidth - v * halfHeight;
// corner1 = TestWithAllObjectsInScene(scene, Ray(tempVector, initialDistance, tempVector - position), iDistance);
//
// initialDistance = iDistance;
// tempVector = pointOnPlane + u * halfWidth + v * halfHeight;
// corner4 = TestWithAllObjectsInScene(scene, Ray(tempVector, initialDistance, tempVector - position), iDistance);
//
// break;
//default:
// break;
//}
halfWidth *= 0.5f;
halfHeight *= 0.5f;
if (iterLeft > 0)
{
if (center.TestProbleCornerWithCenter(corner1, difference) == false)
{
tempVector = pointOnPlane - u * halfWidth - v * halfHeight;
corner1 = AAProbing(scene, tempVector, iDistance, halfWidth, halfHeight, iterLeft, difference, EProbes::Corner1n4, corner1, center);
}
if (center.TestProbleCornerWithCenter(corner2, difference) == false)
{
tempVector = pointOnPlane + u * halfWidth - v * halfHeight;
corner2 = AAProbing(scene, tempVector, iDistance, halfWidth, halfHeight, iterLeft, difference, EProbes::Corner2n3, corner2, center);
}
if (center.TestProbleCornerWithCenter(corner3, difference) == false)
{
tempVector = pointOnPlane - u * halfWidth + v * halfHeight;
corner3 = AAProbing(scene, tempVector, iDistance, halfWidth, halfHeight, iterLeft, difference, EProbes::Corner2n3, center, corner3);
}
if (center.TestProbleCornerWithCenter(corner4, difference) == false)
{
tempVector = pointOnPlane + u * halfWidth + v * halfHeight;
corner4 = AAProbing(scene, tempVector, iDistance, halfWidth, halfHeight, iterLeft, difference, EProbes::Corner1n4, center, corner4);
}
}
return (center + corner1 + corner2 + corner3 + corner4) * 0.2f;
}