Network Science · 2014 · 10 citations · 41 references
ComputingComputer ScienceAlgorithmsComputational GeometryComputer NetworksGraph AlgorithmsGraph TheoryNetwork StructureNetwork TopologyStochastic NetworksComplex NetworksLocal StructureRandom Graph ComparisonRandom Graph TheoryRandom GraphsRandomness Generation
Abstract Real-world networks are often compared to random graphs to assess whether their topological structure could be a result of random processes. However, a simple random graph in large scale often lacks social structure beyond the dyadic level. As a result we need to generate clustered random graph to compare the local structure at higher network levels. In this paper a generalized version of Gleeson's algorithm G(V S , V T , E S , E T , S, T) is advanced to generate a clustered random graph in large-scale which persists the number of vertices | V |, the number of edges | E |, and the global clustering coefficient C Δ as in the real network and it works successfully for nine large-scale networks. Our new algorithm also has advantages in randomness evaluation and computation efficiency when compared with the existing algorithms.
41
Collective dynamics of ‘small-world’ networks
Duncan J. Watts, Steven H. Strogatz · Nature · 1998 · 43.2K citations
Mark Granovetter · American Journal of Sociology · 1973 · 38.5K citations
Emergence of Scaling in Random Networks
Albert-Ĺaszló Barabási, Réka Albert · Science · 1999 · 36.4K citations · Full text
The Structure and Function of Complex Networks
Michael Newman · SIAM Review · 2003 · 18.7K citations · Full text