🤖 AI Summary
This study investigates the chaotic dynamics, wealth inequality, and energy transport mechanisms arising from nonlinear interactions within social stratification systems. By constructing a network of Hamiltonian oscillators coupled through social ties and incorporating energy (wealth) stratification alongside nonlinear coupling, the work pioneers the application of Rayleigh–Jeans thermalization theory and the Kolmogorov–Zakharov wave turbulence framework to social modeling. The analysis reveals that above a critical chaos threshold, the system approaches a Rayleigh–Jeans distribution, accompanied by condensation in low-energy states—analogous to extreme wealth concentration in real societies. Under external energy pumping, the system exhibits canonical wave turbulence characteristics. This research establishes a novel paradigm rooted in nonlinear dynamics and statistical physics for understanding the dynamical origins of wealth inequality.
📝 Abstract
We study the nonlinear chaotic dynamics in a system of linear oscillators coupled by social network links with an additional stratification of oscillator energies, or frequencies, and supplementary nonlinear interactions. It is argued that this system can be viewed as a model of social stratification in a society with nonlinear interacting agents with energies playing a role of wealth states of society. The Hamiltonian evolution is characterized by two integrals of motion being energy and probability norm. Above a certain chaos border the chaotic dynamics leads to dynamical thermalization with the Rayleigh-Jeans (RJ) distribution over states with given energy or wealth. At low energies, this distribution has RJ condensation of norm at low energy modes. We point out a similarity of this condensation with the wealth inequality in the world countries where about a half of population owns only a couple of percent of the total wealth. In the presence of energy pumping and absorption, the system reveals features of the Kolmogorov-Zakharov turbulence of nonlinear waves.