2016
DOI: 10.1016/j.physa.2016.03.111
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Epidemic spreading on one-way-coupled networks

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Cited by 11 publications
(7 citation statements)
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“…Thus, the linking strengths coupling different cells are unequal. This model is different from those in [16], [17], and [19].…”
Section: Backgroundsmentioning
confidence: 79%
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“…Thus, the linking strengths coupling different cells are unequal. This model is different from those in [16], [17], and [19].…”
Section: Backgroundsmentioning
confidence: 79%
“…Funk et al [16] investigated the effects of the layer overlapping in a two-layer network by extending the bond percolation analysis of two competitive viruses. Wang et al [17] studied the scenario of epidemic spreading on a one-way-coupled network comprising two subnetworks; they found that the basic reproduction number was independent of the cross-infection rate and cross-contact pattern, and it increased rapidly with the growth of inner infection rate if the inner contact pattern was SF. Zuzek et al [18] studied random immunization in a partially overlapped multiplex network and concluded that the critical threshold of the epidemic was dominated by the most heterogeneous layer when the overlapping fraction q was very small.…”
Section: Backgroundsmentioning
confidence: 99%
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“…Theorem 2. If there exists an interconnected directed network, and R 0 > 1, but some subnetwork's R 0 is less than one, for example R single A 0 < 1, in addition, this network is one-way [16], i.e., there exist no directed edges from subnetwork B to subnetwork A or λ a b = 0. Then there exist two equilibria for model (11), one is DFE E 0 which is a saddle, and another is boundary EE E 1 which is globally asymptotically stable in ∆ − {0}.…”
Section: Mathematical Analysismentioning
confidence: 99%
“…A simplified version of the epidemic threshold is proposed for undirected networks. References [8,9,15] investigated the mathematical epidemic model, SEIR (SusceptibleExposed-Infected-Removed), through extensive simulations of the effects of social network on epidemic spread in a Small World (SW) network, to understand how an influenza epidemic spreads through a human population. A combined SEIR-SW model was built, to help understand the dynamics of infectious disease in a community and to identify the main characteristics of epidemic transmission and its evolution over time.…”
Section: Background and Statusmentioning
confidence: 99%