Class Extensions

Provides extension methods.

Inheritance

object

Extensions

Inherited Members

object.Equals(object)

object.Equals(object, object)

object.GetHashCode()

object.GetType()

object.MemberwiseClone()

object.ReferenceEquals(object, object)

object.ToString()

Namespace: andywiecko.BurstTriangulator.LowLevel.Unsafe

Assembly: .dll

Syntax

public static class Extensions

Methods

Name	Description
AlphaShapeFilter(UnsafeTriangulator, NativeOutputData<double2>, Allocator, double, bool, bool, bool)	Applies the α-shape filter to the output data. The filter removes triangles whose circumradius R satisfies the condition R² ≥ α⁻¹. See the documentation for more details.
AlphaShapeFilter(UnsafeTriangulator<fp2>, NativeOutputData<fp2>, Allocator, fp?, bool, bool, bool)	Applies the α-shape filter to the output data. The filter removes triangles whose circumradius R satisfies the condition R² ≥ α⁻¹. See the documentation for more details.
AlphaShapeFilter(UnsafeTriangulator<double2>, NativeOutputData<double2>, Allocator, double, bool, bool, bool)	Applies the α-shape filter to the output data. The filter removes triangles whose circumradius R satisfies the condition R² ≥ α⁻¹. See the documentation for more details.
AlphaShapeFilter(UnsafeTriangulator<float2>, NativeOutputData<float2>, Allocator, float, bool, bool, bool)	Applies the α-shape filter to the output data. The filter removes triangles whose circumradius R satisfies the condition R² ≥ α⁻¹. See the documentation for more details.
AlphaShapeFilter(UnsafeTriangulator<int2>, NativeOutputData<int2>, Allocator, float, bool, bool, bool)	Applies the α-shape filter to the output data. The filter removes triangles whose circumradius R satisfies the condition R² ≥ α⁻¹. See the documentation for more details.
AlphaShapeFilter(UnsafeTriangulator<Vector2>, NativeOutputData<Vector2>, Allocator, float, bool, bool, bool)	Applies the α-shape filter to the output data. The filter removes triangles whose circumradius R satisfies the condition R² ≥ α⁻¹. See the documentation for more details.
ConstrainEdge(UnsafeTriangulator, NativeOutputData<double2>, int, int, Allocator, bool, int, bool)	Constrains the edge formed by the point indices (pi, pj) using the provided output triangulation data.
ConstrainEdge(UnsafeTriangulator, NativeOutputData<double2>, int, int, Args, Allocator, bool)
ConstrainEdge(UnsafeTriangulator<fp2>, NativeOutputData<fp2>, int, int, Allocator, bool, int, bool)	Constrains the edge formed by the point indices (pi, pj) using the provided output triangulation data.
ConstrainEdge(UnsafeTriangulator<fp2>, NativeOutputData<fp2>, int, int, Args, Allocator, bool)
ConstrainEdge(UnsafeTriangulator<double2>, NativeOutputData<double2>, int, int, Allocator, bool, int, bool)	Constrains the edge formed by the point indices (pi, pj) using the provided output triangulation data.
ConstrainEdge(UnsafeTriangulator<double2>, NativeOutputData<double2>, int, int, Args, Allocator, bool)
ConstrainEdge(UnsafeTriangulator<float2>, NativeOutputData<float2>, int, int, Allocator, bool, int, bool)	Constrains the edge formed by the point indices (pi, pj) using the provided output triangulation data.
ConstrainEdge(UnsafeTriangulator<float2>, NativeOutputData<float2>, int, int, Args, Allocator, bool)
ConstrainEdge(UnsafeTriangulator<int2>, NativeOutputData<int2>, int, int, Allocator, bool, int, bool)	Constrains the edge formed by the point indices (pi, pj) using the provided output triangulation data.
ConstrainEdge(UnsafeTriangulator<int2>, NativeOutputData<int2>, int, int, Args, Allocator, bool)
ConstrainEdge(UnsafeTriangulator<Vector2>, NativeOutputData<Vector2>, int, int, Allocator, bool, int, bool)	Constrains the edge formed by the point indices (pi, pj) using the provided output triangulation data.
ConstrainEdge(UnsafeTriangulator<Vector2>, NativeOutputData<Vector2>, int, int, Args, Allocator, bool)
DynamicInsertPoint(UnsafeTriangulator, NativeOutputData<double2>, int, double3, Allocator)	Inserts a point into the given triangulation output within the triangle at index tId, using the specified barycentric coordinates bar. For faster triangle lookup when inserting a point at specific coordinates, it is recommended to use an acceleration structure (e.g., bounding volume tree, buckets, etc.).
DynamicInsertPoint(UnsafeTriangulator<fp2>, NativeOutputData<fp2>, int, fp3, Allocator)	Inserts a point into the given triangulation output within the triangle at index tId, using the specified barycentric coordinates bar. For faster triangle lookup when inserting a point at specific coordinates, it is recommended to use an acceleration structure (e.g., bounding volume tree, buckets, etc.).
DynamicInsertPoint(UnsafeTriangulator<double2>, NativeOutputData<double2>, int, double3, Allocator)	Inserts a point into the given triangulation output within the triangle at index tId, using the specified barycentric coordinates bar. For faster triangle lookup when inserting a point at specific coordinates, it is recommended to use an acceleration structure (e.g., bounding volume tree, buckets, etc.).
DynamicInsertPoint(UnsafeTriangulator<float2>, NativeOutputData<float2>, int, float3, Allocator)	Inserts a point into the given triangulation output within the triangle at index tId, using the specified barycentric coordinates bar. For faster triangle lookup when inserting a point at specific coordinates, it is recommended to use an acceleration structure (e.g., bounding volume tree, buckets, etc.).
DynamicInsertPoint(UnsafeTriangulator<Vector2>, NativeOutputData<Vector2>, int, Vector3, Allocator)	Inserts a point into the given triangulation output within the triangle at index tId, using the specified barycentric coordinates bar. For faster triangle lookup when inserting a point at specific coordinates, it is recommended to use an acceleration structure (e.g., bounding volume tree, buckets, etc.).
DynamicRemoveBulkPoint(UnsafeTriangulator, NativeOutputData<double2>, int, Allocator)	Removes the specified point pId from the output data and re-triangulates the affected region to maintain a valid triangulation. This method supports only the removal of bulk points, i.e., points that are not located on the triangulation boundary.
DynamicRemoveBulkPoint(UnsafeTriangulator<fp2>, NativeOutputData<fp2>, int, Allocator)	Removes the specified point pId from the output data and re-triangulates the affected region to maintain a valid triangulation. This method supports only the removal of bulk points, i.e., points that are not located on the triangulation boundary.
DynamicRemoveBulkPoint(UnsafeTriangulator<double2>, NativeOutputData<double2>, int, Allocator)	Removes the specified point pId from the output data and re-triangulates the affected region to maintain a valid triangulation. This method supports only the removal of bulk points, i.e., points that are not located on the triangulation boundary.
DynamicRemoveBulkPoint(UnsafeTriangulator<float2>, NativeOutputData<float2>, int, Allocator)	Removes the specified point pId from the output data and re-triangulates the affected region to maintain a valid triangulation. This method supports only the removal of bulk points, i.e., points that are not located on the triangulation boundary.
DynamicRemoveBulkPoint(UnsafeTriangulator<Vector2>, NativeOutputData<Vector2>, int, Allocator)	Removes the specified point pId from the output data and re-triangulates the affected region to maintain a valid triangulation. This method supports only the removal of bulk points, i.e., points that are not located on the triangulation boundary.
DynamicSplitHalfedge(UnsafeTriangulator, NativeOutputData<double2>, int, double, Allocator)	Splits the halfedge specified by he by inserting a point at a position determined by linear interpolation. The position is interpolated between the start and end points of the halfedge in the triangulation output using alpha as the interpolation parameter. This method preserves the "constrained" state of the halfedge, meaning that if the specified halfedge is constrained, the two resulting sub-segments will also be marked as constrained.
DynamicSplitHalfedge(UnsafeTriangulator<fp2>, NativeOutputData<fp2>, int, fp, Allocator)	Splits the halfedge specified by he by inserting a point at a position determined by linear interpolation. The position is interpolated between the start and end points of the halfedge in the triangulation output using alpha as the interpolation parameter. This method preserves the "constrained" state of the halfedge, meaning that if the specified halfedge is constrained, the two resulting sub-segments will also be marked as constrained.
DynamicSplitHalfedge(UnsafeTriangulator<double2>, NativeOutputData<double2>, int, double, Allocator)	Splits the halfedge specified by he by inserting a point at a position determined by linear interpolation. The position is interpolated between the start and end points of the halfedge in the triangulation output using alpha as the interpolation parameter. This method preserves the "constrained" state of the halfedge, meaning that if the specified halfedge is constrained, the two resulting sub-segments will also be marked as constrained.
DynamicSplitHalfedge(UnsafeTriangulator<float2>, NativeOutputData<float2>, int, float, Allocator)	Splits the halfedge specified by he by inserting a point at a position determined by linear interpolation. The position is interpolated between the start and end points of the halfedge in the triangulation output using alpha as the interpolation parameter. This method preserves the "constrained" state of the halfedge, meaning that if the specified halfedge is constrained, the two resulting sub-segments will also be marked as constrained.
DynamicSplitHalfedge(UnsafeTriangulator<Vector2>, NativeOutputData<Vector2>, int, float, Allocator)	Splits the halfedge specified by he by inserting a point at a position determined by linear interpolation. The position is interpolated between the start and end points of the halfedge in the triangulation output using alpha as the interpolation parameter. This method preserves the "constrained" state of the halfedge, meaning that if the specified halfedge is constrained, the two resulting sub-segments will also be marked as constrained.
PlantHoleSeeds(UnsafeTriangulator, NativeInputData<double2>, NativeOutputData<double2>, Args, Allocator)
PlantHoleSeeds(UnsafeTriangulator, NativeOutputData<double2>, Allocator, bool, bool, NativeArray<double2>, NativeList<int>)	Plants hole seeds using either the autoHolesAndBoundary or restoreBoundary option, or by using the provided holeSeeds buffer within the triangulation data in output.
PlantHoleSeeds(UnsafeTriangulator<fp2>, NativeInputData<fp2>, NativeOutputData<fp2>, Args, Allocator)
PlantHoleSeeds(UnsafeTriangulator<fp2>, NativeOutputData<fp2>, Allocator, bool, bool, NativeArray<fp2>, NativeList<int>)	Plants hole seeds using either the autoHolesAndBoundary or restoreBoundary option, or by using the provided holeSeeds buffer within the triangulation data in output.
PlantHoleSeeds(UnsafeTriangulator<double2>, NativeInputData<double2>, NativeOutputData<double2>, Args, Allocator)
PlantHoleSeeds(UnsafeTriangulator<double2>, NativeOutputData<double2>, Allocator, bool, bool, NativeArray<double2>, NativeList<int>)	Plants hole seeds using either the autoHolesAndBoundary or restoreBoundary option, or by using the provided holeSeeds buffer within the triangulation data in output.
PlantHoleSeeds(UnsafeTriangulator<float2>, NativeInputData<float2>, NativeOutputData<float2>, Args, Allocator)
PlantHoleSeeds(UnsafeTriangulator<float2>, NativeOutputData<float2>, Allocator, bool, bool, NativeArray<float2>, NativeList<int>)	Plants hole seeds using either the autoHolesAndBoundary or restoreBoundary option, or by using the provided holeSeeds buffer within the triangulation data in output.
PlantHoleSeeds(UnsafeTriangulator<int2>, NativeInputData<int2>, NativeOutputData<int2>, Args, Allocator)
PlantHoleSeeds(UnsafeTriangulator<int2>, NativeOutputData<int2>, Allocator, bool, bool, NativeArray<int2>, NativeList<int>)	Plants hole seeds using either the autoHolesAndBoundary or restoreBoundary option, or by using the provided holeSeeds buffer within the triangulation data in output.
PlantHoleSeeds(UnsafeTriangulator<Vector2>, NativeInputData<Vector2>, NativeOutputData<Vector2>, Args, Allocator)
PlantHoleSeeds(UnsafeTriangulator<Vector2>, NativeOutputData<Vector2>, Allocator, bool, bool, NativeArray<Vector2>, NativeList<int>)	Plants hole seeds using either the autoHolesAndBoundary or restoreBoundary option, or by using the provided holeSeeds buffer within the triangulation data in output.
RefineMesh(UnsafeTriangulator, NativeOutputData<double2>, Allocator, double, double, double, bool)	Refines the mesh for a valid triangulation in output. Refinement parameters can be provided with the selected precision type T in generics, which is especially useful for fixed-point arithmetic. Refinement parameters in Args are restricted to float precision.
RefineMesh(UnsafeTriangulator<fp2>, NativeOutputData<fp2>, Allocator, fp?, fp?, fp?, bool)	Refines the mesh for a valid triangulation in output. Refinement parameters can be provided with the selected precision type T in generics, which is especially useful for fixed-point arithmetic. Refinement parameters in Args are restricted to float precision.
RefineMesh(UnsafeTriangulator<double2>, NativeOutputData<double2>, Allocator, double, double, double, bool)	Refines the mesh for a valid triangulation in output. Refinement parameters can be provided with the selected precision type T in generics, which is especially useful for fixed-point arithmetic. Refinement parameters in Args are restricted to float precision.
RefineMesh(UnsafeTriangulator<float2>, NativeOutputData<float2>, Allocator, float, float, float, bool)	Refines the mesh for a valid triangulation in output. Refinement parameters can be provided with the selected precision type T in generics, which is especially useful for fixed-point arithmetic. Refinement parameters in Args are restricted to float precision.
RefineMesh(UnsafeTriangulator<Vector2>, NativeOutputData<Vector2>, Allocator, float, float, float, bool)	Refines the mesh for a valid triangulation in output. Refinement parameters can be provided with the selected precision type T in generics, which is especially useful for fixed-point arithmetic. Refinement parameters in Args are restricted to float precision.
Triangulate(UnsafeTriangulator, NativeInputData<double2>, NativeOutputData<double2>, Args, Allocator)	Performs triangulation on the given input, producing the result in output based on the settings specified in args. This method corresponds to the native implementation of Run().
Triangulate(UnsafeTriangulator<fp2>, NativeInputData<fp2>, NativeOutputData<fp2>, Args, Allocator)	Performs triangulation on the given input, producing the result in output based on the settings specified in args. This method corresponds to the native implementation of Run().
Triangulate(UnsafeTriangulator<double2>, NativeInputData<double2>, NativeOutputData<double2>, Args, Allocator)	Performs triangulation on the given input, producing the result in output based on the settings specified in args. This method corresponds to the native implementation of Run().
Triangulate(UnsafeTriangulator<float2>, NativeInputData<float2>, NativeOutputData<float2>, Args, Allocator)	Performs triangulation on the given input, producing the result in output based on the settings specified in args. This method corresponds to the native implementation of Run().
Triangulate(UnsafeTriangulator<int2>, NativeInputData<int2>, NativeOutputData<int2>, Args, Allocator)	Performs triangulation on the given input, producing the result in output based on the settings specified in args. This method corresponds to the native implementation of Run().
Triangulate(UnsafeTriangulator<Vector2>, NativeInputData<Vector2>, NativeOutputData<Vector2>, Args, Allocator)	Performs triangulation on the given input, producing the result in output based on the settings specified in args. This method corresponds to the native implementation of Run().