tmp<GeomField>
coupledInfo<MeshType>::subSetField
(
const GeomField& f,
const ZeroType& zeroValue,
const labelList& internalMapper
) const
{
typedef typename GeomField::InternalField InternalField;
typedef typename GeomField::PatchFieldType PatchFieldType;
typedef typename GeomField::GeometricBoundaryField GeomBdyFieldType;
typedef typename GeomField::DimensionedInternalField DimInternalField;
// Create and map the internal-field values
InternalField internalField(f.internalField(), internalMapper);
// Create and map the patch field values
label nPatches = subMesh().boundary().size();
PtrList<PatchFieldType> patchFields(nPatches);
// Define patch type names, assumed to be
// common for volume and surface fields
word emptyType(emptyPolyPatch::typeName);
word processorType(processorPolyPatch::typeName);
// Create dummy types for initial field creation
forAll(patchFields, patchI)
{
if (patchI == (nPatches - 1))
{
// Artificially set last patch
patchFields.set
(
patchI,
PatchFieldType::New
(
emptyType,
subMesh().boundary()[patchI],
DimInternalField::null()
)
);
}
else
{
patchFields.set
(
patchI,
PatchFieldType::New
(
PatchFieldType::calculatedType(),
subMesh().boundary()[patchI],
DimInternalField::null()
)
);
}
}
// Create new field from pieces
tmp<GeomField> subFld
(
new GeomField
(
IOobject
(
"subField_" + f.name(),
subMesh().time().timeName(),
subMesh(),
IOobject::NO_READ,
IOobject::NO_WRITE,
false
),
subMesh(),
f.dimensions(),
internalField,
patchFields
)
);
// Set correct references for patch internal fields,
// and map values from the supplied geometric field
GeomBdyFieldType& bf = subFld().boundaryField();
forAll(bf, patchI)
{
if (patchI == (nPatches - 1))
{
// Artificially set last patch
bf.set
(
patchI,
PatchFieldType::New
(
emptyType,
subMesh().boundary()[patchI],
subFld().dimensionedInternalField()
)
);
}
else
if (isA<processorPolyPatch>(subMesh().boundary()[patchI].patch()))
{
bf.set
(
patchI,
PatchFieldType::New
(
processorType,
subMesh().boundary()[patchI],
subFld().dimensionedInternalField()
)
);
// Avoid dealing with uninitialised values
// by artificially assigning to zero
bf[patchI] == zeroValue;
}
else
{
bf.set
(
patchI,
PatchFieldType::New
(
f.boundaryField()[patchI],
subMesh().boundary()[patchI],
subFld().dimensionedInternalField(),
subMeshMapper(*this, patchI)
)
);
}
}
return subFld;
}
void coupledInfo<MeshType>::setField
(
const wordList& fieldNames,
const dictionary& fieldDicts,
const label internalSize,
PtrList<GeomField>& fields
) const
{
typedef typename GeomField::InternalField InternalField;
typedef typename GeomField::PatchFieldType PatchFieldType;
typedef typename GeomField::GeometricBoundaryField GeomBdyFieldType;
typedef typename GeomField::DimensionedInternalField DimInternalField;
// Size up the pointer list
fields.setSize(fieldNames.size());
// Define patch type names, assumed to be
// common for volume and surface fields
word emptyType(emptyPolyPatch::typeName);
word processorType(processorPolyPatch::typeName);
forAll(fieldNames, i)
{
// Create and map the patch field values
label nPatches = subMesh().boundary().size();
// Create field parts
PtrList<PatchFieldType> patchFields(nPatches);
// Read dimensions
dimensionSet dimSet
(
fieldDicts.subDict(fieldNames[i]).lookup("dimensions")
);
// Read the internal field
InternalField internalField
(
"internalField",
fieldDicts.subDict(fieldNames[i]),
internalSize
);
// Create dummy types for initial field creation
forAll(patchFields, patchI)
{
if (patchI == (nPatches - 1))
{
// Artificially set last patch
patchFields.set
(
patchI,
PatchFieldType::New
(
emptyType,
subMesh().boundary()[patchI],
DimInternalField::null()
)
);
}
else
{
patchFields.set
(
patchI,
PatchFieldType::New
(
PatchFieldType::calculatedType(),
subMesh().boundary()[patchI],
DimInternalField::null()
)
);
}
}
// Create field with dummy patches
fields.set
(
i,
new GeomField
(
IOobject
(
fieldNames[i],
subMesh().time().timeName(),
subMesh(),
IOobject::NO_READ,
IOobject::NO_WRITE,
false
),
subMesh(),
dimSet,
internalField,
patchFields
)
);
// Set correct references for patch internal fields,
// and fetch values from the supplied geometric field dictionaries
GeomBdyFieldType& bf = fields[i].boundaryField();
forAll(bf, patchI)
{
if (patchI == (nPatches - 1))
{
// Artificially set last patch
bf.set
(
patchI,
PatchFieldType::New
(
emptyType,
subMesh().boundary()[patchI],
fields[i].dimensionedInternalField()
)
);
}
else
if (isA<processorPolyPatch>(subMesh().boundary()[patchI].patch()))
{
bf.set
(
patchI,
PatchFieldType::New
(
processorType,
subMesh().boundary()[patchI],
fields[i].dimensionedInternalField()
)
);
}
else
{
bf.set
(
patchI,
PatchFieldType::New
(
subMesh().boundary()[patchI],
fields[i].dimensionedInternalField(),
fieldDicts.subDict
(
fieldNames[i]
).subDict("boundaryField").subDict
(
subMesh().boundary()[patchI].name()
)
)
);
}
}
}
NzSubMesh* NzMesh::BuildSubMesh(const NzPrimitive& primitive, const NzMeshParams& params)
{
#if NAZARA_UTILITY_SAFE
if (!m_impl)
{
NazaraError("Mesh not created");
return nullptr;
}
if (m_impl->animationType != nzAnimationType_Static)
{
NazaraError("Mesh must be static");
return nullptr;
}
if (!params.IsValid())
{
NazaraError("Parameters must be valid");
return nullptr;
}
#endif
NzBoxf aabb;
std::unique_ptr<NzIndexBuffer> indexBuffer;
std::unique_ptr<NzVertexBuffer> vertexBuffer;
NzMatrix4f matrix(primitive.matrix);
matrix.ApplyScale(params.scale);
NzVertexDeclaration* declaration = NzVertexDeclaration::Get(nzVertexLayout_XYZ_Normal_UV_Tangent);
switch (primitive.type)
{
case nzPrimitiveType_Box:
{
unsigned int indexCount;
unsigned int vertexCount;
NzComputeBoxIndexVertexCount(primitive.box.subdivision, &indexCount, &vertexCount);
indexBuffer.reset(new NzIndexBuffer(vertexCount > std::numeric_limits<nzUInt16>::max(), indexCount, params.storage, nzBufferUsage_Static));
indexBuffer->SetPersistent(false);
vertexBuffer.reset(new NzVertexBuffer(declaration, vertexCount, params.storage, nzBufferUsage_Static));
vertexBuffer->SetPersistent(false);
NzBufferMapper<NzVertexBuffer> vertexMapper(vertexBuffer.get(), nzBufferAccess_WriteOnly);
NzIndexMapper indexMapper(indexBuffer.get(), nzBufferAccess_WriteOnly);
NzGenerateBox(primitive.box.lengths, primitive.box.subdivision, matrix, primitive.textureCoords, static_cast<NzMeshVertex*>(vertexMapper.GetPointer()), indexMapper.begin(), &aabb);
break;
}
case nzPrimitiveType_Cone:
{
unsigned int indexCount;
unsigned int vertexCount;
NzComputeConeIndexVertexCount(primitive.cone.subdivision, &indexCount, &vertexCount);
indexBuffer.reset(new NzIndexBuffer(vertexCount > std::numeric_limits<nzUInt16>::max(), indexCount, params.storage, nzBufferUsage_Static));
indexBuffer->SetPersistent(false);
vertexBuffer.reset(new NzVertexBuffer(declaration, vertexCount, params.storage, nzBufferUsage_Static));
vertexBuffer->SetPersistent(false);
NzBufferMapper<NzVertexBuffer> vertexMapper(vertexBuffer.get(), nzBufferAccess_WriteOnly);
NzIndexMapper indexMapper(indexBuffer.get(), nzBufferAccess_WriteOnly);
NzGenerateCone(primitive.cone.length, primitive.cone.radius, primitive.cone.subdivision, matrix, primitive.textureCoords, static_cast<NzMeshVertex*>(vertexMapper.GetPointer()), indexMapper.begin(), &aabb);
break;
}
case nzPrimitiveType_Plane:
{
unsigned int indexCount;
unsigned int vertexCount;
NzComputePlaneIndexVertexCount(primitive.plane.subdivision, &indexCount, &vertexCount);
indexBuffer.reset(new NzIndexBuffer(vertexCount > std::numeric_limits<nzUInt16>::max(), indexCount, params.storage, nzBufferUsage_Static));
indexBuffer->SetPersistent(false);
vertexBuffer.reset(new NzVertexBuffer(declaration, vertexCount, params.storage, nzBufferUsage_Static));
vertexBuffer->SetPersistent(false);
NzBufferMapper<NzVertexBuffer> vertexMapper(vertexBuffer.get(), nzBufferAccess_WriteOnly);
NzIndexMapper indexMapper(indexBuffer.get(), nzBufferAccess_WriteOnly);
NzGeneratePlane(primitive.plane.subdivision, primitive.plane.size, matrix, primitive.textureCoords, static_cast<NzMeshVertex*>(vertexMapper.GetPointer()), indexMapper.begin(), &aabb);
break;
}
case nzPrimitiveType_Sphere:
{
switch (primitive.sphere.type)
{
case nzSphereType_Cubic:
{
unsigned int indexCount;
unsigned int vertexCount;
NzComputeCubicSphereIndexVertexCount(primitive.sphere.cubic.subdivision, &indexCount, &vertexCount);
indexBuffer.reset(new NzIndexBuffer(vertexCount > std::numeric_limits<nzUInt16>::max(), indexCount, params.storage, nzBufferUsage_Static));
indexBuffer->SetPersistent(false);
vertexBuffer.reset(new NzVertexBuffer(declaration, vertexCount, params.storage, nzBufferUsage_Static));
vertexBuffer->SetPersistent(false);
NzBufferMapper<NzVertexBuffer> vertexMapper(vertexBuffer.get(), nzBufferAccess_WriteOnly);
NzIndexMapper indexMapper(indexBuffer.get(), nzBufferAccess_WriteOnly);
NzGenerateCubicSphere(primitive.sphere.size, primitive.sphere.cubic.subdivision, matrix, primitive.textureCoords, static_cast<NzMeshVertex*>(vertexMapper.GetPointer()), indexMapper.begin(), &aabb);
break;
}
case nzSphereType_Ico:
{
unsigned int indexCount;
unsigned int vertexCount;
NzComputeIcoSphereIndexVertexCount(primitive.sphere.ico.recursionLevel, &indexCount, &vertexCount);
indexBuffer.reset(new NzIndexBuffer(vertexCount > std::numeric_limits<nzUInt16>::max(), indexCount, params.storage, nzBufferUsage_Static));
indexBuffer->SetPersistent(false);
vertexBuffer.reset(new NzVertexBuffer(declaration, vertexCount, params.storage, nzBufferUsage_Static));
vertexBuffer->SetPersistent(false);
NzBufferMapper<NzVertexBuffer> vertexMapper(vertexBuffer.get(), nzBufferAccess_WriteOnly);
NzIndexMapper indexMapper(indexBuffer.get(), nzBufferAccess_WriteOnly);
NzGenerateIcoSphere(primitive.sphere.size, primitive.sphere.ico.recursionLevel, matrix, primitive.textureCoords, static_cast<NzMeshVertex*>(vertexMapper.GetPointer()), indexMapper.begin(), &aabb);
break;
}
case nzSphereType_UV:
{
unsigned int indexCount;
unsigned int vertexCount;
NzComputeUvSphereIndexVertexCount(primitive.sphere.uv.sliceCount, primitive.sphere.uv.stackCount, &indexCount, &vertexCount);
indexBuffer.reset(new NzIndexBuffer(vertexCount > std::numeric_limits<nzUInt16>::max(), indexCount, params.storage, nzBufferUsage_Static));
indexBuffer->SetPersistent(false);
vertexBuffer.reset(new NzVertexBuffer(declaration, vertexCount, params.storage, nzBufferUsage_Static));
vertexBuffer->SetPersistent(false);
NzBufferMapper<NzVertexBuffer> vertexMapper(vertexBuffer.get(), nzBufferAccess_WriteOnly);
NzIndexMapper indexMapper(indexBuffer.get(), nzBufferAccess_WriteOnly);
NzGenerateUvSphere(primitive.sphere.size, primitive.sphere.uv.sliceCount, primitive.sphere.uv.stackCount, matrix, primitive.textureCoords, static_cast<NzMeshVertex*>(vertexMapper.GetPointer()), indexMapper.begin(), &aabb);
break;
}
}
break;
}
}
std::unique_ptr<NzStaticMesh> subMesh(new NzStaticMesh(this));
if (!subMesh->Create(vertexBuffer.get()))
{
NazaraError("Failed to create StaticMesh");
return nullptr;
}
vertexBuffer.release();
if (params.optimizeIndexBuffers)
indexBuffer->Optimize();
subMesh->SetIndexBuffer(indexBuffer.get());
indexBuffer.release();
subMesh->SetAABB(aabb);
AddSubMesh(subMesh.get());
return subMesh.release();
}