Holder for a physical mesh, this can be generated through various ways (see single- and multi-layered clothing) or hand crafted. More...
#include <ClothingPhysicalMesh.h>
Public Member Functions | |
| virtual uint32_t | getNumVertices () const =0 |
| returns the number of vertices | |
| virtual uint32_t | getNumSimulatedVertices () const =0 |
| returns the number of simulated vertices | |
| virtual uint32_t | getNumMaxDistance0Vertices () const =0 |
| returns the number of vertices with zero max distance | |
| virtual uint32_t | getNumIndices () const =0 |
| returns the number of indices | |
| virtual uint32_t | getNumSimulatedIndices () const =0 |
| returns the number of simulated indices | |
| virtual void | getIndices (void *indexDestination, uint32_t byteStride, uint32_t numIndices) const =0 |
| writes the indices to a destination buffer | |
| virtual bool | isTetrahedralMesh () const =0 |
| returns whether the mesh is built out of tetrahedra or triangles | |
| virtual void | simplify (uint32_t subdivisions, int32_t maxSteps, float maxError, IProgressListener *progress)=0 |
| This will simplify the current mesh. | |
| virtual void | setGeometry (bool tetraMesh, uint32_t numVertices, uint32_t vertexByteStride, const void *vertices, const uint32_t *driveChannels, uint32_t numIndices, uint32_t indexByteStride, const void *indices)=0 |
| Create a physical mesh from scratch. | |
| virtual bool | getIndices (uint32_t *indices, uint32_t byteStride) const =0 |
| writes the indices into a user specified buffer. | |
| virtual bool | getVertices (PxVec3 *vertices, uint32_t byteStride) const =0 |
| Writes the vertex positions into a user specified buffer. | |
| virtual bool | getNormals (PxVec3 *normals, uint32_t byteStride) const =0 |
| Writes the normals into a user specified buffer. | |
| virtual uint32_t | getNumBonesPerVertex () const =0 |
| Returns the number of bones per vertex. | |
| virtual bool | getBoneIndices (uint16_t *boneIndices, uint32_t byteStride) const =0 |
| Writes the bone indices into a user specified buffer. | |
| virtual bool | getBoneWeights (float *boneWeights, uint32_t byteStride) const =0 |
| Writes the bone weights into a user specified buffer. | |
| virtual void | allocateMasterFlagsBuffer ()=0 |
| Allocates and initializes the drive channels (master flags) of the physics mesh. | |
| virtual uint32_t * | getMasterFlagsBuffer ()=0 |
| Returns the masterFlag buffer pointer in order to edit the values. | |
| virtual void | allocateConstrainCoefficientBuffer ()=0 |
| Allocates and initializes the constrain coefficients of the physics mesh. | |
| virtual ClothingConstrainCoefficients * | getConstrainCoefficientBuffer () const =0 |
| Returns the constrain coefficient buffer pointer in order to edit the values. | |
| virtual bool | getConstrainCoefficients (ClothingConstrainCoefficients *coeffs, uint32_t byteStride) const =0 |
| Writes the cloth constrain coefficients into a user specified buffer. | |
| virtual void | getStats (ClothingPhysicalMeshStats &stats) const =0 |
| Returns stats (sizes, counts) for the asset. See ClothingPhysicalMeshStats. | |
Holder for a physical mesh, this can be generated through various ways (see single- and multi-layered clothing) or hand crafted.
| virtual void nvidia::apex::ClothingPhysicalMesh::allocateConstrainCoefficientBuffer | ( | ) | [pure virtual] |
Allocates and initializes the constrain coefficients of the physics mesh.
This allows to set the constrain coefficients like maxDistance directly on the physics mesh. If this is not called by the authoring tool, the constrain coefficients are read from the graphical mesh.
| virtual void nvidia::apex::ClothingPhysicalMesh::allocateMasterFlagsBuffer | ( | ) | [pure virtual] |
Allocates and initializes the drive channels (master flags) of the physics mesh.
This allows to set the drive channels directly on the physics mesh.
| virtual bool nvidia::apex::ClothingPhysicalMesh::getBoneIndices | ( | uint16_t * | boneIndices, |
| uint32_t | byteStride | ||
| ) | const [pure virtual] |
Writes the bone indices into a user specified buffer.
Returns false if the buffer doesn't exist. The buffer must be bigger than sizeof(uint16_t) * getNumVertices() * getNumBonesPerVertex(). (numBonesPerVertex is the same as in the graphical mesh for LOD 0)
The bytestride is applied only after writing numBonesPerVertex and thus must be >= sizoef(uint16_t) * numBonesPerVertex
| virtual bool nvidia::apex::ClothingPhysicalMesh::getBoneWeights | ( | float * | boneWeights, |
| uint32_t | byteStride | ||
| ) | const [pure virtual] |
Writes the bone weights into a user specified buffer.
Returns false if the buffer doesn't exist. The buffer must be bigger than sizeof(float) * getNumVertices() * getNumBonesPerVertex(). (numBonesPerVertex is the same as in the graphical mesh for LOD 0) The bytestride is applied only after writing numBonesPerVertex and thus must be >= sizoef(float) * numBonesPerVertex
| virtual ClothingConstrainCoefficients* nvidia::apex::ClothingPhysicalMesh::getConstrainCoefficientBuffer | ( | ) | const [pure virtual] |
Returns the constrain coefficient buffer pointer in order to edit the values.
This allows to set the constrain coefficients like maxDistance directly on the physics mesh.
| virtual bool nvidia::apex::ClothingPhysicalMesh::getConstrainCoefficients | ( | ClothingConstrainCoefficients * | coeffs, |
| uint32_t | byteStride | ||
| ) | const [pure virtual] |
Writes the cloth constrain coefficients into a user specified buffer.
Returns false if the buffer doesn't exist. The buffer must be bigger than sizeof(ClothingConstrainCoefficients) * getNumVertices().
| virtual bool nvidia::apex::ClothingPhysicalMesh::getIndices | ( | uint32_t * | indices, |
| uint32_t | byteStride | ||
| ) | const [pure virtual] |
writes the indices into a user specified buffer.
Returns false if the buffer doesn't exist. The buffer must be bigger than sizeof(uint32_t) * getNumIndices()
| virtual void nvidia::apex::ClothingPhysicalMesh::getIndices | ( | void * | indexDestination, |
| uint32_t | byteStride, | ||
| uint32_t | numIndices | ||
| ) | const [pure virtual] |
writes the indices to a destination buffer
| [out] | indexDestination | destination buffer where to write the indices |
| [in] | byteStride | stride of the destination buffer |
| [in] | numIndices | number of indices the buffer can hold. This can be smaller than getNumIndices() |
| virtual uint32_t* nvidia::apex::ClothingPhysicalMesh::getMasterFlagsBuffer | ( | ) | [pure virtual] |
Returns the masterFlag buffer pointer in order to edit the values.
This allows to set values directly on the physics mesh.
| virtual bool nvidia::apex::ClothingPhysicalMesh::getNormals | ( | PxVec3 * | normals, |
| uint32_t | byteStride | ||
| ) | const [pure virtual] |
Writes the normals into a user specified buffer.
Returns false if the buffer doesn't exist. The buffer must be bigger than sizeof(PxVec3) * getNumVertices()
| virtual bool nvidia::apex::ClothingPhysicalMesh::getVertices | ( | PxVec3 * | vertices, |
| uint32_t | byteStride | ||
| ) | const [pure virtual] |
Writes the vertex positions into a user specified buffer.
Returns false if the buffer doesn't exist. The buffer must be bigger than sizeof(PxVec3) * getNumVertices()
| virtual void nvidia::apex::ClothingPhysicalMesh::setGeometry | ( | bool | tetraMesh, |
| uint32_t | numVertices, | ||
| uint32_t | vertexByteStride, | ||
| const void * | vertices, | ||
| const uint32_t * | driveChannels, | ||
| uint32_t | numIndices, | ||
| uint32_t | indexByteStride, | ||
| const void * | indices | ||
| ) | [pure virtual] |
Create a physical mesh from scratch.
Overwrites all vertices/indices, and invalidates all misc vertex buffers. vertices must be PxVec3 and indices uint32_t. If driveChannels is NULL, all vertices are assigned to all drive channels (initialized to 0xffffffff)
| virtual void nvidia::apex::ClothingPhysicalMesh::simplify | ( | uint32_t | subdivisions, |
| int32_t | maxSteps, | ||
| float | maxError, | ||
| IProgressListener * | progress | ||
| ) | [pure virtual] |
This will simplify the current mesh.
| [in] | subdivisions | used to derive the maximal length a new edge can get. Divide the bounding box diagonal by this value to get the maximal edge length for newly created edges Use 0 to not restrict the maximal edge length |
| [in] | maxSteps | The maximum number of edges to be considered for simplification. Use 0 to turn off |
| [in] | maxError | The maximal quadric error an edge can cause to be considered simplifyable. Use any value < 0 to turn off |
| [in] | progress | Callback class that will be fired every now and then to update a progress bar in the gui. |