FThumbnailPreviewScene::FThumbnailPreviewScene()
: FPreviewScene( ConstructionValues()
.SetLightRotation( FRotator(304.736, 39.84, 0) )
.SetCreatePhysicsScene(false)
.SetTransactional(false))
{
// A background sky sphere
UStaticMeshComponent* BackgroundComponent = NewObject<UStaticMeshComponent>();
BackgroundComponent->SetStaticMesh( GUnrealEd->GetThumbnailManager()->EditorSkySphere );
const float SkySphereScale = 2000.0f;
const FTransform BackgroundTransform(FRotator(0,0,0), FVector(0,0,0), FVector(SkySphereScale));
FPreviewScene::AddComponent(BackgroundComponent, BackgroundTransform);
// Adjust the default light
DirectionalLight->Intensity = 0.2f;
// Add additional lights
UDirectionalLightComponent* DirectionalLight2 = NewObject<UDirectionalLightComponent>();
DirectionalLight->Intensity = 5.0f;
AddComponent(DirectionalLight2, FTransform( FRotator(-40,-144.678, 0) ));
UDirectionalLightComponent* DirectionalLight3 = NewObject<UDirectionalLightComponent>();
DirectionalLight->Intensity = 1.0f;
AddComponent(DirectionalLight3, FTransform( FRotator(299.235,144.993, 0) ));
// Add an infinite plane
const float FloorPlaneScale = 10000.f;
const FTransform FloorPlaneTransform(FRotator(-90.f,0,0), FVector::ZeroVector, FVector(FloorPlaneScale));
UStaticMeshComponent* FloorPlaneComponent = NewObject<UStaticMeshComponent>();
FloorPlaneComponent->SetStaticMesh( GUnrealEd->GetThumbnailManager()->EditorPlane );
FloorPlaneComponent->SetMaterial( 0, GUnrealEd->GetThumbnailManager()->FloorPlaneMaterial );
FPreviewScene::AddComponent(FloorPlaneComponent, FloorPlaneTransform);
}
void AFlarePlanetarium::BeginPlay()
{
Super::BeginPlay();
FLOG("AFlarePlanetarium::BeginPlay");
TArray<UActorComponent*> Components = GetComponentsByClass(UStaticMeshComponent::StaticClass());
for (int32 ComponentIndex = 0; ComponentIndex < Components.Num(); ComponentIndex++)
{
UStaticMeshComponent* PlanetCandidate = Cast<UStaticMeshComponent>(Components[ComponentIndex]);
if (PlanetCandidate)
{
// Apply a new dynamic material to planets so that we can control shading parameters
UMaterialInstanceConstant* BasePlanetMaterial = Cast<UMaterialInstanceConstant>(PlanetCandidate->GetMaterial(0));
if (BasePlanetMaterial)
{
//FLOGV("AFlarePlanetarium::BeginPlay : found planet '%s'", *PlanetCandidate->GetName());
#if PLATFORM_LINUX
int32 UseNormalAsLightingDirection = 1;
#else
int32 UseNormalAsLightingDirection = 0;
#endif
UMaterialInstanceDynamic* PlanetMaterial = UMaterialInstanceDynamic::Create(BasePlanetMaterial, GetWorld());
PlanetCandidate->SetMaterial(0, PlanetMaterial);
PlanetMaterial->SetScalarParameterValue("UseNormalAsLightingDirection", UseNormalAsLightingDirection);
}
}
}
}
void UCarlaSettingsDelegate::SetAllRoads(UWorld* world, const float max_draw_distance, const TArray<FStaticMaterial> &road_pieces_materials) const
{
if(!world||!IsValid(world)||world->IsPendingKill()) return;
AsyncTask(ENamedThreads::GameThread, [=](){
if(!world||!IsValid(world)||world->IsPendingKill()) return;
TArray<AActor*> actors;
UGameplayStatics::GetAllActorsWithTag(world, UCarlaSettings::CARLA_ROAD_TAG,actors);
for(int32 i=0; i<actors.Num(); i++)
{
AActor* actor = actors[i];
if(!IsValid(actor) || actor->IsPendingKill()) continue;
TArray<UActorComponent*> components = actor->GetComponentsByClass(UStaticMeshComponent::StaticClass());
for(int32 j=0; j<components.Num(); j++)
{
UStaticMeshComponent* staticmeshcomponent = Cast<UStaticMeshComponent>(components[j]);
if(staticmeshcomponent)
{
staticmeshcomponent->bAllowCullDistanceVolume = (max_draw_distance>0);
staticmeshcomponent->bUseAsOccluder = false;
staticmeshcomponent->LDMaxDrawDistance = max_draw_distance;
staticmeshcomponent->CastShadow = (max_draw_distance==0);
if(road_pieces_materials.Num()>0)
{
TArray<FName> meshslotsnames = staticmeshcomponent->GetMaterialSlotNames();
for(int32 k=0; k<meshslotsnames.Num(); k++)
{
const FName &slotname = meshslotsnames[k];
road_pieces_materials.ContainsByPredicate(
[staticmeshcomponent,slotname](const FStaticMaterial& material)
{
if(material.MaterialSlotName.IsEqual(slotname))
{
staticmeshcomponent->SetMaterial(
staticmeshcomponent->GetMaterialIndex(slotname),
material.MaterialInterface
);
return true;
} else return false;
});
}
}
}
}
}
}); //,DELAY_TIME_TO_SET_ALL_ROADS, false);
}
void AShaderPluginDemoCharacter::OnFire()
{
//Try to set a texture to the object we hit!
FHitResult HitResult;
FVector StartLocation = FirstPersonCameraComponent->GetComponentLocation();
FRotator Direction = FirstPersonCameraComponent->GetComponentRotation();
FVector EndLocation = StartLocation + Direction.Vector() * 10000;
FCollisionQueryParams QueryParams;
QueryParams.AddIgnoredActor(this);
if (GetWorld()->LineTraceSingleByChannel(HitResult, StartLocation, EndLocation, ECC_Visibility, QueryParams))
{
TArray<UStaticMeshComponent*> StaticMeshComponents = TArray<UStaticMeshComponent*>();
AActor* HitActor = HitResult.GetActor();
if (NULL != HitActor)
{
HitActor->GetComponents<UStaticMeshComponent>(StaticMeshComponents);
for (int32 i = 0; i < StaticMeshComponents.Num(); i++)
{
UStaticMeshComponent* CurrentStaticMeshPtr = StaticMeshComponents[i];
CurrentStaticMeshPtr->SetMaterial(0, MaterialToApplyToClickedObject);
UMaterialInstanceDynamic* MID = CurrentStaticMeshPtr->CreateAndSetMaterialInstanceDynamic(0);
UTexture* CastedRenderTarget = Cast<UTexture>(RenderTarget);
MID->SetTextureParameterValue("InputTexture", CastedRenderTarget);
}
}
}
// try and play the sound if specified
if (FireSound != NULL)
{
UGameplayStatics::PlaySoundAtLocation(this, FireSound, GetActorLocation());
}
// try and play a firing animation if specified
if (FireAnimation != NULL)
{
// Get the animation object for the arms mesh
UAnimInstance* AnimInstance = Mesh1P->GetAnimInstance();
if (AnimInstance != NULL)
{
AnimInstance->Montage_Play(FireAnimation, 1.f);
}
}
}
// Sets default values
AKrofna_CPP::AKrofna_CPP()
{
// Set this actor to call Tick() every frame. You can turn this off to improve performance if you don't need it.
PrimaryActorTick.bCanEverTick = true;
UStaticMeshComponent *Krofna = CreateDefaultSubobject<UStaticMeshComponent,UStaticMeshComponent>(TEXT("krofnica"));
URotatingMovementComponent *Rotacija = CreateDefaultSubobject<URotatingMovementComponent, URotatingMovementComponent>(TEXT("rotaciona komponenta"));
UPointLightComponent *Svetlo1 = CreateDefaultSubobject <UPointLightComponent, UPointLightComponent>(TEXT("Svetlo1"));
UPointLightComponent *Svetlo2 = CreateDefaultSubobject <UPointLightComponent, UPointLightComponent>(TEXT("Svetlo2"));
USphereComponent *Kolizija = CreateDefaultSubobject <USphereComponent, USphereComponent>(TEXT("Kolizija"));
Kolizija->SetSphereRadius(65.f);
Kolizija->Activate(true);
Kolizija->bGenerateOverlapEvents = true;
Kolizija->SetRelativeLocation(FVector(0,0,18.f));
this->RootComponent = Krofna;
Kolizija->AttachTo(RootComponent);
Svetlo1->AttachTo(RootComponent);
Svetlo2->AttachTo(RootComponent);
Svetlo1->SetRelativeLocation(FVector(0, 0, 65));
Svetlo2->SetRelativeLocation(FVector(0, 0, -45));
Svetlo1->SetLightColor(FLinearColor(0.65f, 1.f, 0.875f));
Svetlo2->SetLightColor(FLinearColor(0.45f, 1.f, 0.82f));
this->DisableComponentsSimulatePhysics();
Krofna->SetCollisionResponseToAllChannels(ECollisionResponse::ECR_Overlap);
static ConstructorHelpers::FObjectFinder<UStaticMesh> Krofna_SM(TEXT("StaticMesh'/Game/StarterContent/Shapes/Shape_Torus.Shape_Torus'"));
Krofna->SetStaticMesh(Krofna_SM.Object);
static ConstructorHelpers::FObjectFinder<UMaterial> Krofna_M(TEXT("Material'/Game/StarterContent/Materials/M_Metal_Gold.M_Metal_Gold'"));
Krofna->SetMaterial(0, Krofna_M.Object);
Rotacija->SetActive(true);
Rotacija->RotationRate = FRotator(120,120,120);
this->SetActorEnableCollision(true);
OnActorBeginOverlap.AddDynamic(this, &AKrofna_CPP::OnBeginOverlap);
}
void FComponentTypeRegistryData::AddBasicShapeComponents(TArray<FComponentClassComboEntryPtr>& SortedClassList)
{
FString BasicShapesHeading = LOCTEXT("BasicShapesHeading", "Basic Shapes").ToString();
const auto OnBasicShapeCreated = [](UActorComponent* Component)
{
UStaticMeshComponent* SMC = Cast<UStaticMeshComponent>(Component);
if (SMC)
{
SMC->SetMaterial(0, LoadObject<UMaterial>(nullptr, TEXT("/Engine/BasicShapes/BasicShapeMaterial.BasicShapeMaterial")));
}
};
{
FComponentEntryCustomizationArgs Args;
Args.AssetOverride = LoadObject<UStaticMesh>(nullptr, *UActorFactoryBasicShape::BasicCube.ToString());
Args.OnComponentCreated = FOnComponentCreated::CreateStatic(OnBasicShapeCreated);
Args.ComponentNameOverride = LOCTEXT("BasicCubeShapeDisplayName", "Cube").ToString();
Args.IconOverrideBrushName = FName("ClassIcon.Cube");
Args.SortPriority = 2;
{
FComponentClassComboEntryPtr NewShape = MakeShareable(new FComponentClassComboEntry(BasicShapesHeading, UStaticMeshComponent::StaticClass(), true, EComponentCreateAction::SpawnExistingClass, Args));
SortedClassList.Add(NewShape);
}
{
//Cube also goes in the common group
FComponentClassComboEntryPtr NewShape = MakeShareable(new FComponentClassComboEntry(CommonClassGroup, UStaticMeshComponent::StaticClass(), false, EComponentCreateAction::SpawnExistingClass, Args));
SortedClassList.Add(NewShape);
}
}
{
FComponentEntryCustomizationArgs Args;
Args.AssetOverride = LoadObject<UStaticMesh>(nullptr, *UActorFactoryBasicShape::BasicSphere.ToString());
Args.OnComponentCreated = FOnComponentCreated::CreateStatic(OnBasicShapeCreated);
Args.ComponentNameOverride = LOCTEXT("BasicSphereShapeDisplayName", "Sphere").ToString();
Args.IconOverrideBrushName = FName("ClassIcon.Sphere");
Args.SortPriority = 2;
{
FComponentClassComboEntryPtr NewShape = MakeShareable(new FComponentClassComboEntry(BasicShapesHeading, UStaticMeshComponent::StaticClass(), true, EComponentCreateAction::SpawnExistingClass, Args));
SortedClassList.Add(NewShape);
}
{
// Sphere also goes in the common group
FComponentClassComboEntryPtr NewShape = MakeShareable(new FComponentClassComboEntry(CommonClassGroup, UStaticMeshComponent::StaticClass(), false, EComponentCreateAction::SpawnExistingClass, Args));
SortedClassList.Add(NewShape);
}
}
{
FComponentEntryCustomizationArgs Args;
Args.AssetOverride = LoadObject<UStaticMesh>(nullptr, *UActorFactoryBasicShape::BasicCylinder.ToString());
Args.OnComponentCreated = FOnComponentCreated::CreateStatic(OnBasicShapeCreated);
Args.ComponentNameOverride = LOCTEXT("BasicCylinderShapeDisplayName", "Cylinder").ToString();
Args.IconOverrideBrushName = FName("ClassIcon.Cylinder");
Args.SortPriority = 3;
FComponentClassComboEntryPtr NewShape = MakeShareable(new FComponentClassComboEntry(BasicShapesHeading, UStaticMeshComponent::StaticClass(), true, EComponentCreateAction::SpawnExistingClass, Args));
SortedClassList.Add(NewShape);
}
{
FComponentEntryCustomizationArgs Args;
Args.AssetOverride = LoadObject<UStaticMesh>(nullptr, *UActorFactoryBasicShape::BasicCone.ToString());
Args.OnComponentCreated = FOnComponentCreated::CreateStatic(OnBasicShapeCreated);
Args.ComponentNameOverride = LOCTEXT("BasicConeShapeDisplayName", "Cone").ToString();
Args.IconOverrideBrushName = FName("ClassIcon.Cone");
Args.SortPriority = 4;
FComponentClassComboEntryPtr NewShape = MakeShareable(new FComponentClassComboEntry(BasicShapesHeading, UStaticMeshComponent::StaticClass(), true, EComponentCreateAction::SpawnExistingClass, Args));
SortedClassList.Add(NewShape);
}
}
void AFlarePlanetarium::SetupCelestialBody(CelestialBodyPosition* BodyPosition, double DisplayDistance, double DisplayRadius)
{
FVector PlayerShipLocation = FVector::ZeroVector;
if (GetGame()->GetPC()->GetShipPawn())
{
PlayerShipLocation = GetGame()->GetPC()->GetShipPawn()->GetActorLocation();
}
#ifdef PLANETARIUM_DEBUG
DrawDebugSphere(GetWorld(), FVector::ZeroVector, DisplayDistance /1000 , 32, FColor::Blue, false);
PlayerShipLocation = FVector::ZeroVector;
DisplayRadius /= 1000;
DisplayDistance /= 1000;
#endif
BodyPosition->BodyComponent->SetRelativeLocation((DisplayDistance * BodyPosition->AlignedLocation.GetUnsafeNormal()).ToVector() + PlayerShipLocation);
float Scale = DisplayRadius / 512; // Mesh size is 1024;
BodyPosition->BodyComponent->SetRelativeScale3D(FPreciseVector(Scale).ToVector());
FTransform BaseRotation = FTransform(FRotator(0, 0 ,90));
FTransform TimeRotation = FTransform(FRotator(0, BodyPosition->TotalRotation, 0));
FQuat Rotation = (TimeRotation * BaseRotation).GetRotation();
// TODO Rotation float time interpolation
BodyPosition->BodyComponent->SetRelativeRotation(FQuat::Identity);
BodyPosition->BodyComponent->SetRelativeRotation(Rotation);
// Apply sun direction to component
UMaterialInstanceDynamic* ComponentMaterial = Cast<UMaterialInstanceDynamic>(BodyPosition->BodyComponent->GetMaterial(0));
if (!ComponentMaterial)
{
ComponentMaterial = UMaterialInstanceDynamic::Create(BodyPosition->BodyComponent->GetMaterial(0) , GetWorld());
BodyPosition->BodyComponent->SetMaterial(0, ComponentMaterial);
}
ComponentMaterial->SetVectorParameterValue("SunDirection", SunDirection.ToVector());
// Look for rings and orient them
TArray<USceneComponent*> RingCandidates;
BodyPosition->BodyComponent->GetChildrenComponents(true, RingCandidates);
for (int32 ComponentIndex = 0; ComponentIndex < RingCandidates.Num(); ComponentIndex++)
{
UStaticMeshComponent* RingComponent = Cast<UStaticMeshComponent>(RingCandidates[ComponentIndex]);
if (RingComponent && RingComponent->GetName().Contains("ring"))
{
// Get or create the material
UMaterialInstanceDynamic* RingMaterial = Cast<UMaterialInstanceDynamic>(RingComponent->GetMaterial(0));
if (!RingMaterial)
{
RingMaterial = UMaterialInstanceDynamic::Create(RingComponent->GetMaterial(0), GetWorld());
RingComponent->SetMaterial(0, RingMaterial);
}
// Get world-space rotation angles for the ring and the sun
float SunRotationPitch = FMath::RadiansToDegrees(FMath::Atan2(SunDirection.Z,SunDirection.X)) + 180;
float RingRotationPitch = -BodyPosition->TotalRotation;
// Feed params to the shader
RingMaterial->SetScalarParameterValue("RingPitch", RingRotationPitch / 360);
RingMaterial->SetScalarParameterValue("SunPitch", SunRotationPitch / 360);
}
}
// Sun also rotates to track direction
if (BodyPosition->Body == &Sun)
{
BodyPosition->BodyComponent->SetRelativeRotation(SunDirection.ToVector().Rotation());
}
// Compute sun occlusion
if (BodyPosition->Body != &Sun)
{
double OcclusionAngle = FPreciseMath::Asin(BodyPosition->Radius / BodyPosition->Distance);
float BodyPhase = FMath::UnwindRadians(FMath::Atan2(BodyPosition->AlignedLocation.Z, BodyPosition->AlignedLocation.X));
float CenterAngularDistance = FMath::Abs(FMath::UnwindRadians(SunPhase - BodyPhase));
float AngleSum = (SunOcclusionAngle + OcclusionAngle);
float AngleDiff = FMath::Abs(SunOcclusionAngle - OcclusionAngle);
/*FLOGV("SetupCelestialBody %s BodyPhase = %f", *BodyPosition->Body->Name.ToString(), FMath::RadiansToDegrees(BodyPhase));
FLOGV("SetupCelestialBody %s SunPhase = %f", *BodyPosition->Body->Name.ToString(), FMath::RadiansToDegrees(SunPhase));
FLOGV("SetupCelestialBody %s OcclusionAngle = %f", *BodyPosition->Body->Name.ToString(), FMath::RadiansToDegrees(OcclusionAngle));
FLOGV("SetupCelestialBody %s SunOcclusionAngle = %f", *BodyPosition->Body->Name.ToString(), FMath::RadiansToDegrees(SunOcclusionAngle));
FLOGV("SetupCelestialBody %s AngleDiff = %f", *BodyPosition->Body->Name.ToString(), FMath::RadiansToDegrees(AngleDiff));
FLOGV("SetupCelestialBody %s CenterAngularDistance = %f", *BodyPosition->Body->Name.ToString(), FMath::RadiansToDegrees(CenterAngularDistance));
FLOGV("SetupCelestialBody %s AngleSum = %f", *BodyPosition->Body->Name.ToString(), FMath::RadiansToDegrees(AngleSum));*/
if (CenterAngularDistance < AngleSum)
{
// There is occlusion
float OcclusionRatio;
if (CenterAngularDistance < AngleDiff)
{
// Maximum occlusion
OcclusionRatio = 1.0;
}
else
{
// Partial occlusion
OcclusionRatio = (AngleSum - CenterAngularDistance) / (2* FMath::Min(SunOcclusionAngle, OcclusionAngle));
// OcclusionRatio = ((SunOcclusionAngle + OcclusionAngle) + FMath::Max(SunOcclusionAngle, OcclusionAngle) - FMath::Min(SunOcclusionAngle, OcclusionAngle)) / (2 * CenterAngularDistance);
}
//FLOGV("MoveCelestialBody %s OcclusionRatio = %f", *Body->Name, OcclusionRatio);
// Now, find the surface occlusion
float SunAngularSurface = PI*FMath::Square(SunOcclusionAngle);
float MaxOcclusionAngularSurface = PI*FMath::Square(FMath::Min(SunOcclusionAngle, OcclusionAngle));
float MaxOcclusion = MaxOcclusionAngularSurface / SunAngularSurface;
float Occlusion = OcclusionRatio * MaxOcclusion;
/*FLOGV("SetupCelestialBody %s CenterAngularDistance = %f", *BodyPosition->Body->Name.ToString(), CenterAngularDistance);
FLOGV("SetupCelestialBody %s SunOcclusionAngle = %f", *BodyPosition->Body->Name.ToString(), SunOcclusionAngle);
FLOGV("SetupCelestialBody %s OcclusionAngle = %f", *BodyPosition->Body->Name.ToString(), OcclusionAngle);
FLOGV("SetupCelestialBody %s SunAngularSurface = %f", *BodyPosition->Body->Name.ToString(), SunAngularSurface);
FLOGV("SetupCelestialBody %s MaxOcclusionAngularSurface = %f", *BodyPosition->Body->Name.ToString(), MaxOcclusionAngularSurface);
FLOGV("SetupCelestialBody %s MaxOcclusion = %f", *BodyPosition->Body->Name.ToString(), MaxOcclusion);
FLOGV("SetupCelestialBody %s Occlusion = %f", *BodyPosition->Body->Name.ToString(), Occlusion);*/
if (Occlusion > SunOcclusion)
{
// Keep only best occlusion
SunOcclusion = Occlusion;
}
}
}
}