Abstract
We consider networks of queues in which the independent operators of individual queues may cooperate to reduce the amount of waiting. More specifically, we focus on Jackson networks in which the total capacity of the servers can be redistributed over all queues in any desired way. If we associate a cost to waiting that is linear in the queue lengths, it is known from the literature how the operators should share the available service capacity to minimize the long run total cost. This paper deals with the question whether or not (the operators of) the individual queues will indeed cooperate in this way, and if so, how they could share the cost in the new situation such that each operator never pays more than his own cost without cooperation. For the particular case of a tandem network with two or three nodes it is known from previous work that cooperation is indeed beneficial, but for larger tandem networks and for general Jackson networks this question was still open. The main result of this paper gives for any Jackson network an explicit cost allocation that is beneficial for all operators. The approach we use also works for other cost functions, such as the server utilization.
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Notes
Where this is convenient, we will denote the permutation in the superscript without parentheses and commas; e.g., in Sect. 3.2 we write \(m^{123}(c)\) instead of \(m^{(1,2,3)}(c),\) etc.
We may assume this without loss of generality by relabeling the nodes. If two or three queues have equal r value, either of these can be chosen as “the” queue with middle r value.
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In the Netherlands, the three universities of technology have formed the 3TU.Federation. This article is the result of joint research in the 3TU.Centre of Competence NIRICT (Netherlands Institute for Research on ICT).
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Timmer, J., Scheinhardt, W. Cost sharing of cooperating queues in a Jackson network. Queueing Syst 75, 1–17 (2013). https://doi.org/10.1007/s11134-012-9336-4
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DOI: https://doi.org/10.1007/s11134-012-9336-4