Accuracy of mean-field theory for dynamics on real-world networks
Year: 2012
Type: article
Abstract: Mean-field analysis is an important tool for understanding dynamics on complex networks. However, surprisingly little attention has been paid to the question of whether mean-field predictions are accurate, and this is particularly true for real-world networks with clustering and modular structure. In this paper, we compare mean-field predictions to numerical simulation results for dynamical processes running on 21 real-world networks and demonstrate that the accuracy of such theory depends not only on the mean degree of the networks but also on the mean first-neighbor degree. We show that mean-field theory can give (unexpectedly) accurate results for certain dynamics on disassortative real-world networks even when the mean degree is as low as 4.
Source: Physical Review E
Authors: James P. Gleeson, Sergey Melnik, Jonathan A. Ward, Mason A. Porter, Peter J. Mucha
Language: English
Subfield: Statistical and Nonlinear Physics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
Awards: CAREER: Model Fluid-Solid Interactions, Networks REUs, and BioCalculus, Applied Stochastic Dynamics for ICT and Biotechnology, Coevolution, interconnections and communities of social and political networks in the United States Congress, G4672029619, MOLTEN: Mathematics Of Large Technological Evolving Networks, SRC SEES: Sustainable Electrical Energy Systems (SEES), MACSI (Mathematics Applications Consortium for Science and Industry), G6059303790
OpenAlex ID: W2027304386
