Recursive Scene Graphs for Art and Design

The connection between non-geometrical data stored in the databases and the 3D geometrical model has to be realized in such a way that two tasks can be performed: One, it must

Since our graph is directed, each node identifies a sub- graph and the geometric attribute associated to the node is obtained from the surface related to its subgraph, see figure

The major advantages of our approach are that: (1) bricks of different resolutions are stored in a single 3D cache tex- ture and can be freely mixed during rendering; (2)

These versions can be chosen with a switch node, available in most (if not all) scene graph engines. This solution is expensive in memory usage, what can make it unfordable in case

Tree matching can be modeled as a bipartite graph matching problem, where G is a graph, with two disjoint node sets, P and Q, corresponding to the branch sets A and B of the source

In the first phase, the road network input data has to be con- verted into a suitable tagged graph structure, in which each edge represents a road segment, and each node represents

In addition, only keys of nodes whose references are not always stored in the most recently postponed node register need to be hashed: Keys are only hashed if their corresponding

Identification of the highest density graphs To identify in which local graph a given calculation has to be done, and from which graph a result can be fetched from another graph,