It is well known that any graph admits a crossing-free straight-line drawing in R-3 and that any planar graph admits the same even in R-2. For a graph G and d is an element of{2, 3}, let rho(1)(d) (G) denote the minimum number of lines in R-d that together can cover all edges of a drawing of G. For d = 2, G must be planar. We investigate the complexity of computing these parameters and obtain the following hardness and algorithmic results.- For d is an element of {2, 3}, we prove that deciding whether rho(1)(d) ( G) = 2. Hence, the problem is not fixed-parameter tractable with respect to k unless P = NP
We define the visual complexity of a plane graph drawing to be the number of basic geometric objects...
We define the emph{visual complexity of a plane graph drawing to be the number of basic geometric ob...
We define the emph{visual complexity of a plane graph drawing to be the number of basic geometric ob...
It is well known that any graph admits a crossing-free straight-line drawing in R-3 and that any pla...
It is well known that any graph admits a crossing-free straight-line drawing in R-3 and that any pla...
It is well known that any graph admits a crossing-free straight-line drawing in R3 and that any plan...
It is well known that any graph admits a crossing-free straight-line drawing in R3 and that any plan...
It is well known that any graph admits a crossing-free straight-line drawing in R3 and that any plan...
We investigate the problem of drawing graphs in 2D and 3D such that their edges (or only their verti...
We investigate the problem of drawing graphs in 2D and 3D such that their edges (or only their verti...
We investigate the problem of drawing graphs in 2D and 3D such that their edges (or only their verti...
We investigate the problem of drawing graphs in 2D and 3D such that their edges (or only their verti...
We investigate the problem of drawing graphs in 2D and 3D such that their edges (or only their verti...
We investigate the problem of drawing graphs in 2D and 3D such that their edges (or only their verti...
We investigate the problem of drawing graphs in 2D and 3D such that their edges (or only their verti...
We define the visual complexity of a plane graph drawing to be the number of basic geometric objects...
We define the emph{visual complexity of a plane graph drawing to be the number of basic geometric ob...
We define the emph{visual complexity of a plane graph drawing to be the number of basic geometric ob...
It is well known that any graph admits a crossing-free straight-line drawing in R-3 and that any pla...
It is well known that any graph admits a crossing-free straight-line drawing in R-3 and that any pla...
It is well known that any graph admits a crossing-free straight-line drawing in R3 and that any plan...
It is well known that any graph admits a crossing-free straight-line drawing in R3 and that any plan...
It is well known that any graph admits a crossing-free straight-line drawing in R3 and that any plan...
We investigate the problem of drawing graphs in 2D and 3D such that their edges (or only their verti...
We investigate the problem of drawing graphs in 2D and 3D such that their edges (or only their verti...
We investigate the problem of drawing graphs in 2D and 3D such that their edges (or only their verti...
We investigate the problem of drawing graphs in 2D and 3D such that their edges (or only their verti...
We investigate the problem of drawing graphs in 2D and 3D such that their edges (or only their verti...
We investigate the problem of drawing graphs in 2D and 3D such that their edges (or only their verti...
We investigate the problem of drawing graphs in 2D and 3D such that their edges (or only their verti...
We define the visual complexity of a plane graph drawing to be the number of basic geometric objects...
We define the emph{visual complexity of a plane graph drawing to be the number of basic geometric ob...
We define the emph{visual complexity of a plane graph drawing to be the number of basic geometric ob...