ComputeCentroid ( PolygonPoints )	Compute the centroid of a polygon that is defined by the points. The centroid may be outside of the polygon in case the polygon is non convex. Signature static FVector2D UMRUKBPLibrary::ComputeCentroid(const TArray< FVector2D > &PolygonPoints) Parameters `PolygonPoints: const TArray< FVector2D > &` Points that define the polygon. Returns `FVector2D` The centroid.
ComputeDirectionAwayFromClosestWall ( Anchor , OutCardinalAxisIndex , ExcludedAxes )	Compute the direction that faces away from the closest wall of the given anchor. Signature static FVector UMRUKBPLibrary::ComputeDirectionAwayFromClosestWall(const AMRUKAnchor Anchor, int &OutCardinalAxisIndex, const TArray< int > ExcludedAxes) Parameters `Anchor: const AMRUKAnchor ` The anchor for which the direction should be computed. `OutCardinalAxisIndex: int &` The index of the computed cardinal axis. Can be either 0, 1, 2 or 3 `ExcludedAxes: const TArray< int >` Axes to exclude in the computation. Can contain 0, 1, 2, 3 Returns `FVector` The direction
ComputeRoomBoxGrid ( Room , MaxPointsCount , PointsPerUnitX , PointsPerUnitY )	Compute a grid by taking into account the room box geometry. E.g. create evenly spaced points on ceiling, floor and walls. Signature static TArray< FVector > UMRUKBPLibrary::ComputeRoomBoxGrid(const AMRUKRoom Room, int32 MaxPointsCount, double PointsPerUnitX=1.0, double PointsPerUnitY=1.0) Parameters `Room: const AMRUKRoom ` The room to use `MaxPointsCount: int32` The maximum number of points `PointsPerUnitX: double` The density of points on the X axis `PointsPerUnitY: double` The density of points on the Y axis Returns `TArray< FVector >` The computed points
ConstructTexture2D ( RenderTarget2D , Outer , TexName )	Construct a 2D texture from a render target. Signature static UTexture2D * UMRUKBPLibrary::ConstructTexture2D(UTextureRenderTarget2D RenderTarget2D, UObject Outer, const FString &TexName) Parameters `RenderTarget2D: UTextureRenderTarget2D ` The render target from which the texture should be created. `Outer: UObject ` The (optional) outer object for the created texture. `TexName: const FString &` Name for the new texture. Returns `UTexture2D *` The newly created texture.
CreateMeshSegmentation ( MeshPositions , MeshIndices , SegmentationPoints , ReservedMin , ReservedMax , OutSegments , OutReservedSegment )	Create mesh segments from the given mesh. This can be used for creating a destructible mesh system. Signature static void UMRUKBPLibrary::CreateMeshSegmentation(const TArray< FVector > &MeshPositions, const TArray< uint32 > &MeshIndices, const TArray< FVector > &SegmentationPoints, const FVector &ReservedMin, const FVector &ReservedMax, TArray< FMRUKMeshSegment > &OutSegments, FMRUKMeshSegment &OutReservedSegment) Parameters `MeshPositions: const TArray< FVector > &` The mesh positions that should be segmented `MeshIndices: const TArray< uint32 > &` The mesh indices that should be segmented `SegmentationPoints: const TArray< FVector > &` A set of points that should be used to calculate the segments `ReservedMin: const FVector &` Reserved space from the lower part of the bound box `ReservedMax: const FVector &` Reserved space from the upper part of the bounding box `OutSegments: TArray< FMRUKMeshSegment > &` The segmented meshes that have been created from the given mesh `OutReservedSegment: FMRUKMeshSegment &` Returns `void`
GetMatrixColumn ( Matrix , Index )	Extract a column from a matrix. Signature static FLinearColor UMRUKBPLibrary::GetMatrixColumn(const FMatrix &Matrix, int32 Index) Parameters `Matrix: const FMatrix &` The matrix to use. `Index: int32` The column index. Returns `FLinearColor` The column of the matrix.
IsUnrealEngineMetaFork ()	Check if the current Unreal Engine is the fork of Meta. Signature static bool UMRUKBPLibrary::IsUnrealEngineMetaFork() Returns `bool` Whether its the fork or not.
LoadGlobalMeshFromDevice ( SpaceHandle , OutProceduralMesh , LoadCollision , WorldContext )	Load the global mesh from the device. Signature static bool UMRUKBPLibrary::LoadGlobalMeshFromDevice(FOculusXRUInt64 SpaceHandle, UProceduralMeshComponent OutProceduralMesh, bool LoadCollision, const UObject WorldContext) Parameters `SpaceHandle: FOculusXRUInt64` Space handle of the room. `OutProceduralMesh: UProceduralMeshComponent ` Procedural mesh to load the triangle data in. `LoadCollision: bool` Whether to generate collision or not. `WorldContext: const UObject ` Context of the world. Returns `bool` Whether the load was successful or not.
RecalculateProceduralMeshAndTangents ( Mesh )	(Re)Calculate Normals and Tangents of the given procedural mesh. Signature static void UMRUKBPLibrary::RecalculateProceduralMeshAndTangents(class UProceduralMeshComponent Mesh) Parameters `Mesh: class UProceduralMeshComponent ` The procedural mesh. Returns `void`
SetScaleRecursivelyAdjustingForRotation ( SceneComponent , UnRotatedScale )	In Unreal Engine, scale is always applied in the local space to avoid any skew. This means that if you have a component which has a 90 degree rotation and is scaled, or any of its children are scaled then the scale axes will not be applied as you would expect. This is can make it very awkward to work with when trying to scale the actors to fit within the scene volumes. To work around this problem, this function will attempt to adjust the scale axes recursively to match the expected behaviour. This will only work reliably if the rotations involved are 90 degrees, if they are not then it will pick the closest axis. Signature static void UMRUKBPLibrary::SetScaleRecursivelyAdjustingForRotation(USceneComponent SceneComponent, const FVector &UnRotatedScale) Parameters `SceneComponent: USceneComponent ` The component where the scale should be set `UnRotatedScale: const FVector &` The scale you would like to have without considering any rotations Returns `void`