Joint Burke's Theorem and RSK Representation for a Queue and a StoreConference paperAuthors: Moez Draief
1; Jean Mairesse
1; Neil O'Connell
2
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Moez Draief;Jean Mairesse;Neil O'Connell
- 1 Laboratoire d'informatique Algorithmique : Fondements et Applications
- 2 Warwick Mathematics Institute
Consider the single server queue with an infinite buffer and a FIFO discipline, either of type M/M/1 or Geom/Geom/1. Denote by $\mathcal{A}$ the arrival process and by $s$ the services. Assume the stability condition to be satisfied. Denote by $\mathcal{D}$ the departure process in equilibrium and by $r$ the time spent by the customers at the very back of the queue. We prove that $(\mathcal{D},r)$ has the same law as $(\mathcal{A},s)$ which is an extension of the classical Burke Theorem. In fact, $r$ can be viewed as the departures from a dual storage model. This duality between the two models also appears when studying the transient behavior of a tandem by means of the RSK algorithm: the first and last row of the resulting semi-standard Young tableau are respectively the last instant of departure in the queue and the total number of departures in the store.
Volume: DMTCS Proceedings vol. AC, Discrete Random Walks (DRW'03)
Section: Proceedings
Published on: January 1, 2003
Imported on: May 10, 2017
Keywords: [INFO.INFO-DS]Computer Science [cs]/Data Structures and Algorithms [cs.DS], [INFO.INFO-DM]Computer Science [cs]/Discrete Mathematics [cs.DM], [MATH.MATH-CO]Mathematics [math]/Combinatorics [math.CO], [INFO.INFO-CG]Computer Science [cs]/Computational Geometry [cs.CG], [en] Single server queue, storage model, Burke's theorem, non-colliding random walks, tandem of queues, Robinson-Schensted-Knuth algorithm
Funding:
Source : OpenAIRE Graph- Deep Drug Discovery and Deployment; Code: PTDC/CCI-BIO/29266/2017