1999
DOI: 10.21236/ada459412
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A Practical Framework for Minimum-Delay Routing in Computer Networks

Abstract: The conventional approach to routing in computer networks consists of using a heuristic to compute a single shortest path from a source to a destination. Single-path routing is very responsive to topological and link-cost changes; however, except under light traffic loads, the delays obtained with this type of routing are far from optimal. Furthermore, if link costs are associated with delays, single-path routing exhibits oscillatory behavior and becomes unstable as traffic loads increase. On the other hand, m… Show more

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Cited by 4 publications
(2 citation statements)
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References 29 publications
(42 reference statements)
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“…According to this algorithm each node, thanks to a distance-vector algorithm, knows the distance from the Internet through each path in the Mesh network, and forwards packets, in a round-robin fashion, through all the paths having the same minimum cost to reach the Internet, whatever the destination Gateway node. The distance-vector multipath network-balancing routing algorithm is used for two reasons: first it is able to reduce delay [25,35,36]; secondly, thanks to its multipath peculiarity, it increases the robustness of the architecture to external attacks and interceptions. In fact, if a path is shielded (maliciously or not), or its quality is temporally degraded, all the packets flowing through it are lost; however, the application of the multipath network-balancing routing algorithm guarantees that a high percentage of packets are able to reach the Video Decoder block, and therefore frames can be decoded, by applying an error concealment video decoding algorithm [37][38][39].…”
Section: Wireless Mesh Networkmentioning
confidence: 99%
“…According to this algorithm each node, thanks to a distance-vector algorithm, knows the distance from the Internet through each path in the Mesh network, and forwards packets, in a round-robin fashion, through all the paths having the same minimum cost to reach the Internet, whatever the destination Gateway node. The distance-vector multipath network-balancing routing algorithm is used for two reasons: first it is able to reduce delay [25,35,36]; secondly, thanks to its multipath peculiarity, it increases the robustness of the architecture to external attacks and interceptions. In fact, if a path is shielded (maliciously or not), or its quality is temporally degraded, all the packets flowing through it are lost; however, the application of the multipath network-balancing routing algorithm guarantees that a high percentage of packets are able to reach the Video Decoder block, and therefore frames can be decoded, by applying an error concealment video decoding algorithm [37][38][39].…”
Section: Wireless Mesh Networkmentioning
confidence: 99%
“…There, the general optimization problems are variants of NP-complete Steiner-Tree problems and are also NP-complete. Several works have developed heuristic approximations [15], [16], [24], [19], [18] or ratio-bounded approximations [5] to these optimization problems. However, these heuristics are inapplicable to the problems addressed in this paper since there is no straightforward way to account for degree constraints of nodes in a tree that are less its degree in the underlying connectivity graph.…”
Section: Related Workmentioning
confidence: 99%