Grooming Traffic to Maximize Throughput in SONET Rings

Using a graph-theoretic formulation, a grooming in a SONET ring network may be interpreted as a decomposition of an undirected simple graph G=(V,E), where V corresponds to the n nodes in the ring, and each edge {i, j}ϵE represents the traffic requirements for the primitive ring {i, j}. In G = {G 1 ,...

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Published inJournal of optical communications and networking Vol. 3; no. 1; pp. 10 - 16
Main Authors Colbourn, C J, Quattrocchi, G, Syrotiuk, V R
Format Journal Article
LanguageEnglish
Published IEEE 01.01.2011
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ISSN1943-0620
1943-0639
DOI10.1364/JOCN.3.000010

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Abstract Using a graph-theoretic formulation, a grooming in a SONET ring network may be interpreted as a decomposition of an undirected simple graph G=(V,E), where V corresponds to the n nodes in the ring, and each edge {i, j}ϵE represents the traffic requirements for the primitive ring {i, j}. In G = {G 1 ,...,G 8 }, the decomposition of G, each subgraph G i specifies a set of primitive rings assigned to the same wavelength. If the maximum size set is c then G is a c-grooming. In this paper, bounding the maximum through put tp̅ (c, n, ℓ) of a c-grooming G is addressed, subject to each node being equipped with a limited number ℓ of add-drop multiplexers (ADMs). Naturally, restricting the number of ADMs limits the achievable throughput. For all ℓ, precise determinations of maximum throughput for grooming ratios c=2, 3, and 4 are given. These underlie substantially improved bounds for larger grooming ratios.
AbstractList Using a graph-theoretic formulation, a grooming in a SONET ring network may be interpreted as a decomposition of an undirected simple graph G=(V,E), where V corresponds to the n nodes in the ring, and each edge {i, j}ϵE represents the traffic requirements for the primitive ring {i, j}. In G = {G 1 ,...,G 8 }, the decomposition of G, each subgraph G i specifies a set of primitive rings assigned to the same wavelength. If the maximum size set is c then G is a c-grooming. In this paper, bounding the maximum through put tp̅ (c, n, ℓ) of a c-grooming G is addressed, subject to each node being equipped with a limited number ℓ of add-drop multiplexers (ADMs). Naturally, restricting the number of ADMs limits the achievable throughput. For all ℓ, precise determinations of maximum throughput for grooming ratios c=2, 3, and 4 are given. These underlie substantially improved bounds for larger grooming ratios.
Author Quattrocchi, G
Syrotiuk, V R
Colbourn, C J
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Snippet Using a graph-theoretic formulation, a grooming in a SONET ring network may be interpreted as a decomposition of an undirected simple graph G=(V,E), where V...
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SubjectTerms Aggregates
Artificial neural networks
Graph decompositions
Optimized production technology
SONET
SONET ring
Throughput
Throughput maximization
Traffic grooming
Transceivers
Upper bound
Title Grooming Traffic to Maximize Throughput in SONET Rings
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