1989
DOI: 10.1007/bf01225328
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An extension to Norton's equivalent

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Cited by 16 publications
(10 citation statements)
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“…The aggregation technique was introduced by Chandy, Herzog, and Woo (1975) to study the performance of BCMP queueing networks (Baskett et al 1975). The technique has been extended for more general multiclass queueing networks by Kritzinger, Van Wyk, and Krzesinski (1982), Walrand (1983), Hsiao and Lazar (1989), and Boucherie and van Dijk (1993). Based on Norton's theorem, the idea of the aggregation technique is to decompose the queueing network into subnetworks and to replace each subnetwork with a flow equivalent single server with load-dependent service rates.…”
Section: Aggregation Techniquementioning
confidence: 99%
“…The aggregation technique was introduced by Chandy, Herzog, and Woo (1975) to study the performance of BCMP queueing networks (Baskett et al 1975). The technique has been extended for more general multiclass queueing networks by Kritzinger, Van Wyk, and Krzesinski (1982), Walrand (1983), Hsiao and Lazar (1989), and Boucherie and van Dijk (1993). Based on Norton's theorem, the idea of the aggregation technique is to decompose the queueing network into subnetworks and to replace each subnetwork with a flow equivalent single server with load-dependent service rates.…”
Section: Aggregation Techniquementioning
confidence: 99%
“…Two streams of literature developed in parallel: results based on partial balance (e.g. [25][26][27][28][29]) and results based on quasi-reversibility (e.g. [30][31][32][33]).…”
Section: Decompositionmentioning
confidence: 99%
“…As noted by Hsiao and Lazar [9], the first-order equivalence yields a simplified proof of Norton's theorem (see also Walrand [39]).…”
Section: First-order Equivalencementioning
confidence: 99%