2011
DOI: 10.1007/978-3-642-19592-1
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Random Walks and Diffusions on Graphs and Databases

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Cited by 64 publications
(48 citation statements)
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“…In this case, the order parameter would be non vanishing only on an infinitesimal fraction of the network and, therefore, it is not possible to speak of a true phase transition at β c determined by Eq. (202). Finally, for annealed networks which rewire their connections on the same time scale of the dynamical process and keep their degree sequence constant, one can approximate r ij as r ij = ⟨a ij ⟩ = k i k j ⟨k⟩ .…”
Section: Disease Spreading On Single-layer Networkmentioning
confidence: 99%
“…In this case, the order parameter would be non vanishing only on an infinitesimal fraction of the network and, therefore, it is not possible to speak of a true phase transition at β c determined by Eq. (202). Finally, for annealed networks which rewire their connections on the same time scale of the dynamical process and keep their degree sequence constant, one can approximate r ij as r ij = ⟨a ij ⟩ = k i k j ⟨k⟩ .…”
Section: Disease Spreading On Single-layer Networkmentioning
confidence: 99%
“…In the following we provide a short summary that highlights the important properties of this process. Note that these are facts already known from the theory of random walks on single layer networks [8,19], but later on we will extend this framework to multi-layer networks.…”
Section: Methods and Definitionsmentioning
confidence: 92%
“…Since our graph G is a connected, non-bipartite, and undirected graph, it can be shown that the markov chain over it is irreducible and aperiodic [2]. Thus, by the PerronFrobenius theorem [7], it is clear that the random walk on G will converge to a stationary state which corresponds to the left eigenvector of the stochastic matrix.…”
Section: Random Walk Based Algorithm For Reviewer Recommendationmentioning
confidence: 97%