Poisson Hypothesis for information networks (A study in non-linear Markov processes)
Alexander Rybko, Senya Shlosman

TL;DR
This paper proves the Poisson Hypothesis for large queueing systems modeled by non-linear Markov processes, showing their dynamics converge to fixed points and exploring self-averaging properties through integral equations.
Contribution
It introduces a proof of the Poisson Hypothesis for mean-field queueing systems using non-linear integral equations and combinatorial analysis.
Findings
Large queueing systems exhibit convergence to fixed points.
The dynamical systems have a line of global attractors.
Self-averaging properties are confirmed through integral equations.
Abstract
In this paper we prove the Poisson Hypothesis for the limiting behavior of the large queueing systems in some simple ("mean-field") cases. We show in particular that the corresponding dynamical systems, defined by the non-linear Markov processes, have a line of fixed points which are global attractors. To do this we derive the corresponding non-linear integral equation and we explore its self-averaging properties. Our derivation relies on a solution of a combinatorial problem of rode placements.
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Taxonomy
TopicsStochastic processes and statistical mechanics · Markov Chains and Monte Carlo Methods · Complex Network Analysis Techniques
