| Literature DB >> 33265146 |
Jacques Demongeot1,2, Mariem Jelassi1,3,4, Hana Hazgui1, Slimane Ben Miled3, Narjes Bellamine Ben Saoud4, Carla Taramasco2.
Abstract
Networks used in biological applications at different scales (molecule, cell and population) are of different types: neuronal, genetic, and social, but they share the same dynamical concepts, in their continuous differential versions (e.g., non-linear Wilson-Cowan system) as well as in their discrete Boolean versions (e.g., non-linear Hopfield system); in both cases, the notion of interaction graph G(J) associated to its Jacobian matrix J, and also the concepts of frustrated nodes, positive or negative circuits of G(J), kinetic energy, entropy, attractors, structural stability, etc., are relevant and useful for studying the dynamics and the robustness of these systems. We will give some general results available for both continuous and discrete biological networks, and then study some specific applications of three new notions of entropy: (i) attractor entropy, (ii) isochronal entropy and (iii) entropy centrality; in three domains: a neural network involved in the memory evocation, a genetic network responsible of the iron control and a social network accounting for the obesity spread in high school environment.Entities:
Keywords: attractor entropy; biological networks; dynamic entropy; entropy centrality; isochronal entropy; robustness
Year: 2018 PMID: 33265146 PMCID: PMC7512242 DOI: 10.3390/e20010036
Source DB: PubMed Journal: Entropy (Basel) ISSN: 1099-4300 Impact factor: 2.524