Results 151 to 160 of about 121,460 (194)
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Packing cuts in undirected graphs

Networks, 2004
AbstractWe address the problem of finding the largest collection of edge‐disjoint cuts in an undirected graph, dubbed CUT PACKING, focusing on its complexity, about which very little is known. We show a very close relationship with INDEPENDENT SET, namely, for the same graph G, the size of the largest cut packing of G is at least the independence ...
CAPRARA, ALBERTO, A. Panconesi, R. Rizzi
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Undirected circulant graphs

Proceedings of the International Symposium on Parallel Architectures, Algorithms and Networks (ISPAN), 2002
A fundamental problem in designing massively parallel computer systems and fast communication networks is the maximization of the number of nodes given a diameter and degree of a network. This maximal number is bounded above by the Moore bound. For undirected circulant graphs, an upper bound is also given but no exact formula has been found yet for ...
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Simple Undirected Graphs

1995
When we consider graphical models for the multivariate complex normal distribution we formulate the models in terms of simple undirected graphs. This chapter presents the concept of simple undirected graphs. As the main purpose is to define and introduce the later needed results, the presentation is at times short and compact.
H. H. Andersen   +3 more
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Solving Undirected Graph Problems on VLSI

SIAM Journal on Computing, 1985
We study VLSI solutions to the connected component problem on networks that have area too small to store all the edges of the graph for the entire computation. We give lower bounds on the time needed to solve this problem on such networks, as well as an optimal algorithm.
Hambrusch, Susanne E., Simon, Janos
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Particle Systems Acting on Undirected Graphs

Journal of Statistical Physics, 1998
zbMATH Open Web Interface contents unavailable due to conflicting licenses.
Bandt, C., Hadeler, K. P., Kriese, F.
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Directed and Undirected Graphs

2016
Up to now, we have been able to construct all basic number domains ℕ, ℤ, ℚ, ℝ, ℂ. But we have not considered geometric objects. This chapter begins to fill that gap. It introduces the most elementary geometric objects: graphs—systems of points and arrows connected by directed or undirected lines.
Guerino Mazzola, Maria Mannone, Yan Pang
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Vertex cutsets of undirected graphs

IEEE Transactions on Reliability, 1995
This paper deals with the enumeration of all minimal s-t vertex cutsets separating two vertices (source and terminal) in an undirected graph. The problem is handled by direct-enumeration based on a necessary and sufficient condition for a set of vertices to be a minimal vertex cutset.
C. Patvardhan, V.C. Prasad, V.P. Pyara
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A SURVEY ON UNDIRECTED CIRCULANT GRAPHS

Discrete Mathematics, Algorithms and Applications, 2012
Circulant graphs have been extensively investigated over the past 30 years because of their broad application to different fields of theory and practice. Two known surveys on circulant networks including a survey on undirected circulants have been published: by Bermond et al. [Distributed loop computer networks: A survey, J.
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Applications of numbered undirected graphs

Proceedings of the IEEE, 1977
Numbered undirected graphs are becoming an increasingly useful family of mathematical models for a broad range of applications. They have found usage in various coding theory problems, including the design of good radar-type codes, synch-set codes and convolutional codes with optimal autocorrelation properties.
G.S. Bloom, S.W. Golomb
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Undirected Graphs Realizable as Graphs of Modular Lattices

Canadian Journal of Mathematics, 1965
If (L, ≥) is a lattice or partial order we may think of its Hesse diagram as a directed graph, G, containing the single edge E(c, d) if and only if c covers d in (L, ≥). This graph we shall call the graph of (L, ≥). Strictly speaking it is the basis graph of (L, ≥) with the loops at each vertex removed; see (3, p.
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