A central issue in the science of complex systems is the quantitative characterization of complexity. In the present work we address this issue by resorting to information geometry. Actually we propose a constructive way to associate with a—in principle, any—network a differentiable object (a Riemannian manifold) whose volume is used to define the entropy. The effectiveness of the latter in measuring network complexity is successfully proved through its capability of detecting a classical phase transition occurring in both random graphs and scale-free networks, as well as of characterizing small exponential random graphs, configuration models, and real networks.
Franzosi, R., Felice, D., Mancini, S., Pettini, M. (2016). Riemannian-geometric entropy for measuring network complexity. PHYSICAL REVIEW. E, 93(6) [10.1103/PhysRevE.93.062317].
Riemannian-geometric entropy for measuring network complexity
Franzosi, R.;
2016-01-01
Abstract
A central issue in the science of complex systems is the quantitative characterization of complexity. In the present work we address this issue by resorting to information geometry. Actually we propose a constructive way to associate with a—in principle, any—network a differentiable object (a Riemannian manifold) whose volume is used to define the entropy. The effectiveness of the latter in measuring network complexity is successfully proved through its capability of detecting a classical phase transition occurring in both random graphs and scale-free networks, as well as of characterizing small exponential random graphs, configuration models, and real networks.File | Dimensione | Formato | |
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https://hdl.handle.net/11365/1226802