Global stability of a susceptible-infected-susceptible epidemic model on networks with individual awareness *Li Ke-Zan(李科赞) a) , Xu Zhong-Pu(徐忠朴) a) , Zhu Guang-Hu(祝光湖) a) , and Ding Yong(丁 勇) a)b) †
Real epidemic spreading networks are often composed of several kinds of complex networks interconnected with each other, such as Lyme disease, and the interrelated networks may have different topologies and epidemic dynamics. Moreover, most human infectious diseases are derived from animals, and zoonotic infections always spread on directed interconnected networks. So, in this article, we consider the epidemic dynamics of zoonotic infections on a unidirectional circular-coupled network. Here, we construct two unidirectional three-layer circular interactive networks, one model has direct contact between interactive networks, the other model describes diseases transmitted through vectors between interactive networks, which are established by introducing the heterogeneous mean-field approach method. Then we obtain the basic reproduction numbers and stability of equilibria of the two models. Through mathematical analysis and numerical simulations, it is found that basic reproduction numbers of the models depend on the infection rates, infection periods, average degrees, and degree ratios. Numerical simulations illustrate and expand these theoretical results very well. theory [5,6], complex networks have become a powerful tool in studying epidemiology models [7][8][9][10][11]. Especially, a population can be viewed as a complex network, in the sense that a node denotes an individual and a link (edge) denotes the correlation between two individuals, then the disease can spread along edges of the network. In an epidemiology model, because the complexity of different contact types between individuals, it is unreasonable to simplify the complex network to a homogeneous network [12]. And, in order to study the effect of network structures on epidemic spread, many heterogeneous epidemic models have been established [13][14][15].Many previous studies focus on a single network, however, real networks are usually large and complex, such as social networks, neural networks, information networks and transportation networks [16][17][18][19][20][21][22][23], and many diseases spread among different populations with various contact patterns. Therefore, it is essential to study epidemic transmission on multiplex networks and coupled networks. Recently, some researchers have achieved important results, which lead to a deeper study on epidemiology [24][25][26][27][28][29][30]. For instance, Granell [24] studied a coupled multiplex network embed individual awareness and infection. In [25], the authors discussed the epidemic dynamics of infectious diseases on two interconnected complex networks. In [29], Wang compared network-based approach with homogeneous-mixing approach, then they showed the differences between two methods, and described individual behaviors of epidemic dynamics on complex networks.In multiplex networks, many studies are based on two-layer interdependent networks, which just contain two populations. In [31], the authors established a mathematical model in a one-way-coupled network with two subnetworks by mean-field a...
This paper investigates epidemic control behavioral synchronization for a class of complex networks resulting from spread of epidemic diseases via pinning feedback control strategy. Based on the quenched mean field theory, epidemic control synchronization models with inhibition of contact behavior is constructed, combining with the epidemic transmission system and the complex dynamical network carrying extra controllers. By the properties of convex functions and Gerschgorin theorem, the epidemic threshold of the model is obtained, and the global stability of disease-free equilibrium is analyzed. For individual's infected situation, when epidemic spreads, two types of feedback control strategies depended on the diseases' information are designed: the one only adds controllers to infected individuals, the other adds controllers both to infected and susceptible ones. And by using Lyapunov stability theory, under designed controllers, some criteria that guarantee epidemic control synchronization system achieving behavior synchronization are also derived. Several numerical simulations are performed to show the effectiveness of our theoretical results. As far as we know, this is the first work to address the controlling behavioral synchronization induced by epidemic spreading under the pinning feedback mechanism. It is hopeful that we may have more deeper insight into the essence between disease's spreading and collective behavior controlling in complex dynamical networks.
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