Part3D(std::shared_ptr<Part3D> parent)
: Stacked::Object( Final::template objectTypeID<typename Final::Part3D>::ID::value ),
m_system(parent->m_system) {
typedef typename Final::Kernel Kernel;
typedef typename Kernel::Scalar Scalar;
typedef symbolic::TypeGeometry<Part3D> TypeGeometry;
//we may need to setup the graph. We do this here to allow to clear the geometry and later reinitialize by setting a new geometry.
std::shared_ptr<typename Final::Graph> cluster = std::static_pointer_cast<typename Final::Graph>(parent->m_cluster);
std::pair<std::shared_ptr<typename Final::Graph>, graph::LocalVertex> res = cluster->createCluster();
setVertexProperty(cluster->getGlobalVertex(res.second));
m_cluster = res.first;
};
/**
* @brief The graph has to be described by *edges*
* (source Vertex ==> target Vertex) and
* the *vertices* of this graph.
*
*/
BGL(GraphDescription graphDesc) :
id(0){
std::vector<VertexID> vertices = graphDesc.first;
std::vector<EdgeDescription> edges = graphDesc.second;
graph = new BGLGraph(vertices.size());
EdgeID edgeCount = 0;
for(EdgeDescription edge: edges){
VertexID srcVertex = std::get<0>(edge);
VertexID targetVertex = std::get<1>(edge);
BGLEdge edgeID = boost::add_edge(srcVertex, targetVertex, (*graph)).first;
setEdgeProperty(edgeID, Edge(edgeCount++));
}
// Bind vertex_descriptor and VertexProperty;
for(unsigned vertexID = 0; vertexID < vertices.size(); ++vertexID){
setVertexProperty(vertexID, Vertex(vertexID));
}
}
