IEEE Transactions on Computers · 1995 · 31 citations · 9 references
ComputingComputer EngineeringComputer ScienceFault ToleranceInterconnection NetworksParallel ComputingFault Tolerance In Parallel SystemsFault-tolerant CommunicationHypercube NetworksMesh NetworksNetwork TopologyTorus NetworksCommunication CapabilitiesFault-tolerant Interconnection NetworksFolded HypercubeHypercube Network Fault ToleranceMesh PartitioningTorus-based Parallel Architectures
Hypercubes, meshes and tori are well known interconnection networks for parallel computers. The sets of edges in those graphs can be partitioned to dimensions. It is well known that the hypercube can be extended by adding a wildcard dimension resulting in a folded hypercube that has better fault-tolerant and communication capabilities. First we prove that the folded hypercube is optimal in the sense that only a single wildcard dimension ran be added to the hypercube. We then investigate the idea of adding wildcard dimensions to d-dimensional meshes and tori. Using techniques from error correcting codes we construct d-dimensional meshes and tori with wildcard dimensions. Finally, we show how these constructions can be used to tolerate edge and node faults in mesh and torus networks.< <ETX xmlns:mml="http://www.w3.org/1998/Math/MathML" xmlns:xlink="http://www.w3.org/1999/xlink">></ETX>
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Connectivity of transitive graphs
Mark E. Watkins · Journal of Combinatorial Theory · 1970 · 222 citations
Cayley graphs with optimal fault tolerance
Brian Alspach · IEEE Transactions on Computers · 1992 · 31 citations