Policy-Preferred Paths in AS-level Internet Topology Graphs

Using Autonomous System (AS) level Internet topology maps to determine accurate AS-level paths is essential for network diagnostics, performance optimization, security enforcement, business policy management and topology-aware application development. One significant drawback that we have observed i...

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Main Author: Mehmet Tozal
Format: Article
Language:English
Published: Georgia Southern University 2018-03-01
Series:Theory and Applications of Graphs
Subjects:
Online Access:https://digitalcommons.georgiasouthern.edu/tag/vol5/iss1/3
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spelling doaj-9df78da61caf4cf687dfe4244abf23b22020-11-25T00:04:00ZengGeorgia Southern UniversityTheory and Applications of Graphs2470-98592018-03-015110.20429/tag.2018.050103Policy-Preferred Paths in AS-level Internet Topology GraphsMehmet TozalUsing Autonomous System (AS) level Internet topology maps to determine accurate AS-level paths is essential for network diagnostics, performance optimization, security enforcement, business policy management and topology-aware application development. One significant drawback that we have observed in many studies is simplifying the AS-level topology map of the Internet to an undirected graph, and then using the hop distance as a means to find the shortest paths between the ASes. A less significant drawback is restricting the shortest paths to only valley-free paths. Both approaches usually inflate the number of paths between ASes; introduce erroneous paths that do not conform to economic policies; and generate symmetric paths, which in reality is not a rule. As a result, the derived conclusions might be greatly misleading. In this study we introduce a single-destination, policy-preferred path enumeration algorithm which discovers policy consistent paths from all ASes to a destination AS in an edge-labeled, finite, directed graph representing the Internet topology. Considering that our algorithm's run time complexity is the same as Dijkstra's shortest paths algorithm, we believe that the proposed algorithm will notably enhance the future works that leverage AS-to-AS paths in Internet topology graphs.https://digitalcommons.georgiasouthern.edu/tag/vol5/iss1/3Internet Topology GraphsAlgorithmsPolicy Consistent Paths
collection DOAJ
language English
format Article
sources DOAJ
author Mehmet Tozal
spellingShingle Mehmet Tozal
Policy-Preferred Paths in AS-level Internet Topology Graphs
Theory and Applications of Graphs
Internet Topology Graphs
Algorithms
Policy Consistent Paths
author_facet Mehmet Tozal
author_sort Mehmet Tozal
title Policy-Preferred Paths in AS-level Internet Topology Graphs
title_short Policy-Preferred Paths in AS-level Internet Topology Graphs
title_full Policy-Preferred Paths in AS-level Internet Topology Graphs
title_fullStr Policy-Preferred Paths in AS-level Internet Topology Graphs
title_full_unstemmed Policy-Preferred Paths in AS-level Internet Topology Graphs
title_sort policy-preferred paths in as-level internet topology graphs
publisher Georgia Southern University
series Theory and Applications of Graphs
issn 2470-9859
publishDate 2018-03-01
description Using Autonomous System (AS) level Internet topology maps to determine accurate AS-level paths is essential for network diagnostics, performance optimization, security enforcement, business policy management and topology-aware application development. One significant drawback that we have observed in many studies is simplifying the AS-level topology map of the Internet to an undirected graph, and then using the hop distance as a means to find the shortest paths between the ASes. A less significant drawback is restricting the shortest paths to only valley-free paths. Both approaches usually inflate the number of paths between ASes; introduce erroneous paths that do not conform to economic policies; and generate symmetric paths, which in reality is not a rule. As a result, the derived conclusions might be greatly misleading. In this study we introduce a single-destination, policy-preferred path enumeration algorithm which discovers policy consistent paths from all ASes to a destination AS in an edge-labeled, finite, directed graph representing the Internet topology. Considering that our algorithm's run time complexity is the same as Dijkstra's shortest paths algorithm, we believe that the proposed algorithm will notably enhance the future works that leverage AS-to-AS paths in Internet topology graphs.
topic Internet Topology Graphs
Algorithms
Policy Consistent Paths
url https://digitalcommons.georgiasouthern.edu/tag/vol5/iss1/3
work_keys_str_mv AT mehmettozal policypreferredpathsinaslevelinternettopologygraphs
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