Inhomogeneous coherent states in small-world networks: application to the functional brain networks
Bahruz Gadjiev, Tatiana Progulova

TL;DR
This paper models small-world networks with power-law degree distributions, deriving equations for their dynamics, and applies these findings to understand brain processes and the emergence of mind.
Contribution
It introduces an analytical framework using fractional differential equations to describe inhomogeneous coherent states in small-world networks, with applications to brain dynamics.
Findings
Derived an equation of motion for the order parameter in small-world networks.
Obtained analytical solutions for various stable phases of the system.
Applied the model to describe processes in the brain and emergence of mind.
Abstract
We study the dynamics of the processes in the small-world networks with a power-law degree distribution where every node is considered to be in one of the two available statuses. We present an algorithm for generation of such network and determine analytically a temporal dependence of the network nodes degrees and using the maximum entropy principle we define a degree distribution of the network. We discuss the results of the Ising discrete model for small-world networks and in the framework of the continuous approach using the principle of least action, we derive an equation of motion for the order parameter in these networks in the form of a fractional differential equation. The obtained equation enables the description of the problem of a spontaneous symmetry breaking in the system and determination of the spatio-temporal dependencies of the order parameter in varies stable phases of…
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