Social contagions with communication channels alternation on multiplex networks
arXiv:1708.01724 · doi:10.1103/PhysRevE.98.062320
Abstract
Internet communication channels, e.g., Facebook, Twitter, and email, are multiplex networks that facilitate interaction and information-sharing among individuals. During brief time periods users often use a single communication channel, but then communication channel alteration (CCA) occurs. This means that we must refine our understanding of the dynamics of social contagions. We propose a non-Markovian behavior spreading model in multiplex networks that takes into account the CCA mechanism, and we develop a generalized edge-based compartmental method to describe the spreading dynamics. Through extensive numerical simulations and theoretical analyses we find that the time delays induced by CCA slow the behavior spreading but do not affect the final adoption size. We also find that the CCA suppresses behavior spreading. On two coupled random regular networks, the adoption size exhibits hybrid growth, i.e., it grows first continuously and then discontinuously with the information transmission probability. CCA in ER-SF multiplex networks in which two subnetworks are Erdős-Rényi (ER) and scale-free (SF) introduces a crossover from continuous to hybrid growth in adoption size versus information transmission probability. Our results extend our understanding of the role of CCA in spreading dynamics, and may elicit further research.
11 pages, 7 figures, Accepted by Physical Review E
References in corpus (11)
- The structure and dynamics of multilayer networks
- The scaling laws of human travel
- Critical phenomena in complex networks
- Explosive synchronization in adaptive and multilayer networks
- A message passing approach for general epidemic models
- Unification of theoretical approaches for epidemic spreading on complex networks
- Analysis of complex contagions in random multiplex networks
- Epidemic spreading on complex networks with general degree and weight distributions
- Heterogeneous-k-core versus Bootstrap Percolation on Complex Networks
- Communication dynamics in finite capacity social networks
- Multiple outbreaks in epidemic spreading with local vaccination and limited vaccines