void apply(osg::Geometry& geom)
{
geom.setUseDisplayList(false);
if (!_manualVertexAliasing) return;
osg::notify(osg::NOTICE)<<"Found geometry "<<&geom<<std::endl;
if (geom.getVertexArray())
{
setVertexAttrib(geom, _vertexAlias, geom.getVertexArray(), false, osg::Array::BIND_PER_VERTEX);
geom.setVertexArray(0);
}
if (geom.getNormalArray())
{
setVertexAttrib(geom, _normalAlias, geom.getNormalArray(), true);
geom.setNormalArray(0);
}
if (geom.getColorArray())
{
setVertexAttrib(geom, _colorAlias, geom.getColorArray(), false);
geom.setColorArray(0);
}
if (geom.getSecondaryColorArray())
{
setVertexAttrib(geom, _secondaryColorAlias, geom.getSecondaryColorArray(), false);
geom.setSecondaryColorArray(0);
}
if (geom.getFogCoordArray())
{
// should we normalize the FogCoord array? Don't think so...
setVertexAttrib(geom, _fogCoordAlias, geom.getFogCoordArray(), false);
geom.setFogCoordArray(0);
}
unsigned int maxNumTexCoords = geom.getNumTexCoordArrays();
if (maxNumTexCoords>8)
{
osg::notify(osg::NOTICE)<<"Warning: Ignoring "<<maxNumTexCoords-8<<" texture coordinate arrays, only 8 are currently supported in vertex attribute conversion code."<<std::endl;
maxNumTexCoords = 8;
}
for(unsigned int i=0; i<maxNumTexCoords; ++i)
{
if (geom.getTexCoordArray(i))
{
setVertexAttrib(geom, _texCoordAlias[i], geom.getTexCoordArray(i), false, osg::Array::BIND_PER_VERTEX);
geom.setTexCoordArray(i,0);
}
else
{
osg::notify(osg::NOTICE)<<"Found empty TexCoordArray("<<i<<")"<<std::endl;
}
}
}
void RigGeometry::copyFrom(osg::Geometry& from)
{
bool copyToSelf = (this==&from);
osg::Geometry& target = *this;
if (!copyToSelf) target.setStateSet(from.getStateSet());
// copy over primitive sets.
if (!copyToSelf) target.getPrimitiveSetList() = from.getPrimitiveSetList();
if (from.getVertexArray())
{
if (!copyToSelf) target.setVertexArray(from.getVertexArray());
}
if (from.getNormalArray())
{
if (!copyToSelf) target.setNormalArray(from.getNormalArray());
}
if (from.getColorArray())
{
if (!copyToSelf) target.setColorArray(from.getColorArray());
}
if (from.getSecondaryColorArray())
{
if (!copyToSelf) target.setSecondaryColorArray(from.getSecondaryColorArray());
}
if (from.getFogCoordArray())
{
if (!copyToSelf) target.setFogCoordArray(from.getFogCoordArray());
}
for(unsigned int ti=0;ti<from.getNumTexCoordArrays();++ti)
{
if (from.getTexCoordArray(ti))
{
if (!copyToSelf) target.setTexCoordArray(ti,from.getTexCoordArray(ti));
}
}
osg::Geometry::ArrayList& arrayList = from.getVertexAttribArrayList();
for(unsigned int vi=0;vi< arrayList.size();++vi)
{
osg::Array* array = arrayList[vi].get();
if (array)
{
if (!copyToSelf) target.setVertexAttribArray(vi,array);
}
}
}
VertexAttribComparitor(osg::Geometry& geometry)
{
add(geometry.getVertexArray());
add(geometry.getNormalArray());
add(geometry.getColorArray());
add(geometry.getSecondaryColorArray());
add(geometry.getFogCoordArray());
unsigned int i;
for(i=0;i<geometry.getNumTexCoordArrays();++i)
{
add(geometry.getTexCoordArray(i));
}
for(i=0;i<geometry.getNumVertexAttribArrays();++i)
{
add(geometry.getVertexAttribArray(i));
}
}
void Tessellator::handleNewVertices(osg::Geometry& geom,VertexPtrToIndexMap &vertexPtrToIndexMap)
{
if (!_newVertexList.empty())
{
osg::Vec3Array* vertices = dynamic_cast<osg::Vec3Array*>(geom.getVertexArray());
osg::Vec3Array* normals = NULL;
if (geom.getNormalBinding()==osg::Geometry::BIND_PER_VERTEX)
{
normals = dynamic_cast<osg::Vec3Array*>(geom.getNormalArray());
}
typedef std::vector<osg::Array*> ArrayList;
ArrayList arrays;
if (geom.getColorBinding()==osg::Geometry::BIND_PER_VERTEX)
{
arrays.push_back(geom.getColorArray());
}
if (geom.getSecondaryColorBinding()==osg::Geometry::BIND_PER_VERTEX)
{
arrays.push_back(geom.getSecondaryColorArray());
}
if (geom.getFogCoordBinding()==osg::Geometry::BIND_PER_VERTEX)
{
arrays.push_back(geom.getFogCoordArray());
}
osg::Geometry::ArrayDataList& tcal = geom.getTexCoordArrayList();
for(osg::Geometry::ArrayDataList::iterator tcalItr=tcal.begin();
tcalItr!=tcal.end();
++tcalItr)
{
if (tcalItr->array.valid())
{
arrays.push_back(tcalItr->array.get());
}
}
// now add any new vertices that are required.
for(NewVertexList::iterator itr=_newVertexList.begin();
itr!=_newVertexList.end();
++itr)
{
NewVertex& newVertex = (*itr);
osg::Vec3* vertex = newVertex._vpos;
// assign vertex.
vertexPtrToIndexMap[vertex]=vertices->size();
vertices->push_back(*vertex);
// assign normals
if (normals)
{
osg::Vec3 norm(0.0f,0.0f,0.0f);
if (newVertex._v1) norm += (*normals)[vertexPtrToIndexMap[newVertex._v1]] * newVertex._f1;
if (newVertex._v2) norm += (*normals)[vertexPtrToIndexMap[newVertex._v2]] * newVertex._f2;
if (newVertex._v3) norm += (*normals)[vertexPtrToIndexMap[newVertex._v3]] * newVertex._f3;
if (newVertex._v4) norm += (*normals)[vertexPtrToIndexMap[newVertex._v4]] * newVertex._f4;
norm.normalize();
normals->push_back(norm);
}
if (!arrays.empty())
{
InsertNewVertices inv(newVertex._f1,vertexPtrToIndexMap[newVertex._v1],
newVertex._f2,vertexPtrToIndexMap[newVertex._v2],
newVertex._f3,vertexPtrToIndexMap[newVertex._v3],
newVertex._f4,vertexPtrToIndexMap[newVertex._v4]);
// assign the rest of the attributes.
for(ArrayList::iterator aItr=arrays.begin();
aItr!=arrays.end();
++aItr)
{
(*aItr)->accept(inv);
}
}
}
}
}