void G3D::readSoA(AbstractReader& reader, G3D::GeometrySoA& geometry) {
if (reader.isOpen()) {
geometry.info = readHeader(reader);
if (geometry.info.numberVertices == 0)
return;
if (geometry.info.vertexType == SoA)
readContent(reader, geometry);
else if (geometry.info.vertexType == AoS) {
geometry.info.vertexType = SoA;
geometry.indices = readIndices(reader, geometry.info);
std::vector<float> vertices = readVertices(reader, geometry.info);
geometry.vertexAttributes = convertVertices(vertices, geometry.info);
}
}
}
void G3D::readAoS(AbstractReader& reader, G3D::GeometryAoS& geometry) {
if (reader.isOpen()) {
geometry.info = readHeader(reader);
if (geometry.info.numberVertices == 0)
return;
if (geometry.info.vertexType == AoS)
readContent(reader, geometry);
else if (geometry.info.vertexType == SoA) {
geometry.info.vertexType = AoS;
geometry.indices = readIndices(reader, geometry.info);
auto vertexAttributes = readVertexAttributes(reader, geometry.info);
geometry.vertices = convertVertices(vertexAttributes, geometry.info);
}
}
}
void GFF3Struct::readFields(Common::SeekableReadStream &data, uint32 index, uint32 count) {
// Sanity check
if (index > _parent->_header.fieldIndicesCount)
throw Common::Exception("GFF3: Field indices index out of range (%d/%d)",
index , _parent->_header.fieldIndicesCount);
// Seek
data.seek(_parent->_header.fieldIndicesOffset + index);
// Read the field indices
std::vector<uint32> indices;
readIndices(data, indices, count);
// Read the fields
for (std::vector<uint32>::const_iterator i = indices.begin(); i != indices.end(); ++i)
readField(data, *i);
}
void G3D::read(const std::string & file, GeometrySoA * const geometry)
{
std::fstream fs;
fs.open(file.c_str(), std::fstream::in | std::fstream::binary);
if (fs.is_open())
{
readHeader(fs, geometry->info);
if (geometry->info.vertexType == SoA) readContent(fs, *geometry);
else if (geometry->info.vertexType == AoS)
{
geometry->info.vertexType = SoA;
readIndices(fs, geometry->indices, geometry->info);
float * vertices = NULL;
readVertices(fs, vertices, geometry->info);
convertVertices(vertices, geometry->vertexAttributes, geometry->info);
cleanVertices(vertices);
}
fs.close();
}
}
reflectionAnalysis2DLS::reflectionAnalysis2DLS
(
const Time& rT,
const dictionary& actionProp,
const word& action
)
:
postProcessingWaves( rT, actionProp, action ),
# include "../../../dataDict.H"
,
N_( readLabel( actionProperties_.lookup("nFreq") ) ),
period_( readScalar( actionProperties_.lookup("period") )),
waveNumber_( vector( actionProperties_.lookup("waveNumber")) )
{
readIndices( dataDict_, indices_ );
x_.setSize( indices_.size(), point::zero);
scalarField x( dataDict_.lookup("x") );
scalarField y( dataDict_.lookup("y") );
scalarField z( dataDict_.lookup("z") );
forAll (indices_ , indexi)
{
x_[indexi] =
vector
(
x[indices_[indexi]],
y[indices_[indexi]],
z[indices_[indexi]]
);
}
//! reads a mesh sections and creates a mesh buffer from it
IMeshBuffer* CIrrMeshFileLoader::readMeshBuffer(io::IXMLReader* reader)
{
CDynamicMeshBuffer* buffer = 0;
core::stringc verticesSectionName = "vertices";
core::stringc bbSectionName = "boundingBox";
core::stringc materialSectionName = "material";
core::stringc indicesSectionName = "indices";
core::stringc bufferSectionName = "buffer";
bool insideVertexSection = false;
bool insideIndexSection = false;
int vertexCount = 0;
int indexCount = 0;
video::SMaterial material;
if (!reader->isEmptyElement())
while(reader->read())
{
if (reader->getNodeType() == io::EXN_ELEMENT)
{
const wchar_t* nodeName = reader->getNodeName();
if (bbSectionName == nodeName)
{
// inside a bounding box, ignore it for now because
// we are calculating this anyway ourselves later.
}
else
if (materialSectionName == nodeName)
{
//we've got a material
io::IAttributes* attributes = FileSystem->createEmptyAttributes(SceneManager->getVideoDriver());
attributes->read(reader, true, L"material");
SceneManager->getVideoDriver()->fillMaterialStructureFromAttributes(material, attributes);
attributes->drop();
}
else
if (verticesSectionName == nodeName)
{
// vertices section
const core::stringc vertexTypeName1 = "standard";
const core::stringc vertexTypeName2 = "2tcoords";
const core::stringc vertexTypeName3 = "tangents";
const wchar_t* vertexType = reader->getAttributeValue(L"type");
vertexCount = reader->getAttributeValueAsInt(L"vertexCount");
insideVertexSection = true;
video::E_INDEX_TYPE itype = (vertexCount > 65536)?irr::video::EIT_32BIT:irr::video::EIT_16BIT;
if (vertexTypeName1 == vertexType)
{
buffer = new CDynamicMeshBuffer(irr::video::EVT_STANDARD, itype);
}
else
if (vertexTypeName2 == vertexType)
{
buffer = new CDynamicMeshBuffer(irr::video::EVT_2TCOORDS, itype);
}
else
if (vertexTypeName3 == vertexType)
{
buffer = new CDynamicMeshBuffer(irr::video::EVT_TANGENTS, itype);
}
buffer->getVertexBuffer().reallocate(vertexCount);
buffer->Material = material;
}
else
if (indicesSectionName == nodeName)
{
// indices section
indexCount = reader->getAttributeValueAsInt(L"indexCount");
insideIndexSection = true;
}
} // end if node type is element
else
if (reader->getNodeType() == io::EXN_TEXT)
{
// read vertex data
if (insideVertexSection)
{
readMeshBuffer(reader, vertexCount, buffer);
insideVertexSection = false;
} // end reading vertex array
else
if (insideIndexSection)
{
readIndices(reader, indexCount, buffer->getIndexBuffer());
insideIndexSection = false;
}
} // end if node type is text
else
if (reader->getNodeType() == io::EXN_ELEMENT_END)
{
if (bufferSectionName == reader->getNodeName())
{
// end of buffer section reached, cancel out
break;
}
}
} // end while reader->read();
if (buffer)
buffer->recalculateBoundingBox();
return buffer;
}
void G3D::readContent(std::fstream & fs, GeometrySoA & geometry)
{
readIndices(fs, geometry.indices, geometry.info);
readVertices(fs, geometry.vertexAttributes, geometry.info);
}
void G3D::readContent(std::fstream & fs, GeometryAoS & geometry)
{
readIndices(fs, geometry.indices, geometry.info);
readVertices(fs, geometry.vertices, geometry.info);
}
//! reads a mesh sections and creates a mesh buffer from it
IMeshBuffer* CIrrMeshFileLoader::readMeshBuffer(io::IXMLReader* reader)
{
IMeshBuffer* buffer = 0;
SMeshBuffer* sbuffer1 = 0;
SMeshBufferLightMap* sbuffer2 = 0;
SMeshBufferTangents* sbuffer3 = 0;
core::stringc verticesSectionName = "vertices";
core::stringc bbSectionName = "boundingBox";
core::stringc materialSectionName = "material";
core::stringc indicesSectionName = "indices";
core::stringc bufferSectionName = "buffer";
bool insideVertexSection = false;
bool insideIndexSection = false;
int vertexCount = 0;
int indexCount = 0;
video::SMaterial material;
if (!reader->isEmptyElement())
while(reader->read())
{
if (reader->getNodeType() == io::EXN_ELEMENT)
{
const wchar_t* nodeName = reader->getNodeName();
if (bbSectionName == nodeName)
{
// inside a bounding box, ignore it for now because
// we are calculating this anyway ourselves later.
}
else
if (materialSectionName == nodeName)
{
//we've got a material
io::IAttributes* attributes = FileSystem->createEmptyAttributes(SceneManager->getVideoDriver());
attributes->read(reader, true, L"material");
SceneManager->getVideoDriver()->fillMaterialStructureFromAttributes(material, attributes);
attributes->drop();
}
else
if (verticesSectionName == nodeName)
{
// vertices section
core::stringc vertexTypeName1 = "standard";
core::stringc vertexTypeName2 = "2tcoords";
core::stringc vertexTypeName3 = "tangents";
const wchar_t* vertexType = reader->getAttributeValue(L"type");
vertexCount = reader->getAttributeValueAsInt(L"vertexCount");
insideVertexSection = true;
if (vertexTypeName1 == vertexType)
{
sbuffer1 = new SMeshBuffer();
sbuffer1->Vertices.reallocate(vertexCount);
sbuffer1->Material = material;
buffer = sbuffer1;
}
else
if (vertexTypeName2 == vertexType)
{
sbuffer2 = new SMeshBufferLightMap();
sbuffer2->Vertices.reallocate(vertexCount);
sbuffer2->Material = material;
buffer = sbuffer2;
}
else
if (vertexTypeName3 == vertexType)
{
sbuffer3 = new SMeshBufferTangents();
sbuffer3->Vertices.reallocate(vertexCount);
sbuffer3->Material = material;
buffer = sbuffer3;
}
}
else
if (indicesSectionName == nodeName)
{
// indices section
indexCount = reader->getAttributeValueAsInt(L"indexCount");
insideIndexSection = true;
}
} // end if node type is element
else
if (reader->getNodeType() == io::EXN_TEXT)
{
// read vertex data
if (insideVertexSection)
{
if (sbuffer1)
readMeshBuffer(reader, vertexCount, sbuffer1);
else
if (sbuffer2)
readMeshBuffer(reader, vertexCount, sbuffer2);
else
if (sbuffer3)
readMeshBuffer(reader, vertexCount, sbuffer3);
insideVertexSection = false;
} // end reading vertex array
else
if (insideIndexSection)
{
if (sbuffer1)
readIndices(reader, indexCount, sbuffer1->Indices);
else
if (sbuffer2)
readIndices(reader, indexCount, sbuffer2->Indices);
else
if (sbuffer3)
readIndices(reader, indexCount, sbuffer3->Indices);
insideIndexSection = false;
}
} // end if node type is text
else
if (reader->getNodeType() == io::EXN_ELEMENT_END)
{
if (bufferSectionName == reader->getNodeName())
{
// end of buffer section reached, cancel out
break;
}
}
} // end while reader->read();
if (buffer)
buffer->recalculateBoundingBox();
return buffer;
}
void G3D::readContent(AbstractReader& reader, GeometrySoA& geometry) {
geometry.indices = readIndices(reader, geometry.info);
geometry.vertexAttributes = readVertexAttributes(reader, geometry.info);
}
void G3D::readContent(AbstractReader& reader, GeometryAoS& geometry) {
geometry.indices = readIndices(reader, geometry.info);
geometry.vertices = readVertices(reader, geometry.info);
}
