Heavy traffic approximation for the stationary distribution of a generalized Jackson network: the BAR approach
Anton Braverman, J.G. Dai, Masakiyo Miyazawa

TL;DR
This paper introduces a novel BAR-based approach to justify the heavy traffic steady-state approximation of generalized Jackson networks, offering a more natural alternative to the traditional limit interchange method.
Contribution
It proposes using the basic adjoint relationship (BAR) directly for steady-state analysis, expanding the toolkit for studying stochastic processing networks.
Findings
BAR approach effectively justifies heavy traffic steady-state approximation
Method potentially applicable to other complex queueing networks
Provides a more natural framework than limit interchange method
Abstract
In the seminal paper of Gamarnik and Zeevi (2006), the authors justify the steady-state diffusion approximation of a generalized Jackson network (GJN) in heavy traffic. Their approach involves the so-called limit interchange argument, which has since become a popular tool employed by many others who study diffusion approximations. In this paper we illustrate a novel approach by using it to justify the steady-state approximation of a GJN in heavy traffic. Our approach involves working directly with the basic adjoint relationship (BAR), an integral equation that characterizes the stationary distribution of a Markov process. As we will show, the BAR approach is a more natural choice than the limit interchange approach for justifying steady-state approximations, and can potentially be applied to the study of other stochastic processing networks such as multiclass queueing networks.
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Taxonomy
TopicsAdvanced Queuing Theory Analysis · Transportation Planning and Optimization · Markov Chains and Monte Carlo Methods
