Generation of 2-mode scale-free graphs for link-level internet topology modeling.

Comprehensive analysis that aims to understand the topology of real-world networks and the development of algorithms that replicate their characteristics has been significant research issues. Although the accuracy of newly developed network protocols or algorithms does not depend on the underlying t...

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Main Authors: Khalid Bakhshaliyev, Mehmet Hadi Gunes
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2020-01-01
Series:PLoS ONE
Online Access:https://doi.org/10.1371/journal.pone.0240100
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spelling doaj-ff3a2c7ce15f48e68837393ac6a1615b2021-03-04T11:52:41ZengPublic Library of Science (PLoS)PLoS ONE1932-62032020-01-011511e024010010.1371/journal.pone.0240100Generation of 2-mode scale-free graphs for link-level internet topology modeling.Khalid BakhshaliyevMehmet Hadi GunesComprehensive analysis that aims to understand the topology of real-world networks and the development of algorithms that replicate their characteristics has been significant research issues. Although the accuracy of newly developed network protocols or algorithms does not depend on the underlying topology, the performance generally depends on the topology. As a result, network practitioners have concentrated on generating representative synthetic topologies and utilize them to investigate the performance of their design in simulation or emulation environments. Network generators typically represent the Internet topology as a graph composed of point-to-point links. In this study, we discuss the implications of multi-access links on the synthetic network generation and modeling of the networks as bi-partite graphs to represent both subnetworks and routers. We then analyze the characteristics of sampled Internet topology data sets from backbone Autonomous Systems (AS) and observe that in addition to the commonly recognized power-law node degree distribution, the subnetwork size and the router interface distributions often exhibit power-law characteristics. We introduce a SubNetwork Generator (SubNetG) topology generation approach that incorporates the observed measurements to produce bipartite network topologies. In particular, generated topologies capture the 2-mode relation between the layer-2 (i.e., the subnetwork and interface distributions) and the layer-3 (i.e., the degree distribution) that is missing from the current network generators that produce 1-mode graphs. The SubNetG source code and experimental data is available at https://github.com/netml/sonet.https://doi.org/10.1371/journal.pone.0240100
collection DOAJ
language English
format Article
sources DOAJ
author Khalid Bakhshaliyev
Mehmet Hadi Gunes
spellingShingle Khalid Bakhshaliyev
Mehmet Hadi Gunes
Generation of 2-mode scale-free graphs for link-level internet topology modeling.
PLoS ONE
author_facet Khalid Bakhshaliyev
Mehmet Hadi Gunes
author_sort Khalid Bakhshaliyev
title Generation of 2-mode scale-free graphs for link-level internet topology modeling.
title_short Generation of 2-mode scale-free graphs for link-level internet topology modeling.
title_full Generation of 2-mode scale-free graphs for link-level internet topology modeling.
title_fullStr Generation of 2-mode scale-free graphs for link-level internet topology modeling.
title_full_unstemmed Generation of 2-mode scale-free graphs for link-level internet topology modeling.
title_sort generation of 2-mode scale-free graphs for link-level internet topology modeling.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2020-01-01
description Comprehensive analysis that aims to understand the topology of real-world networks and the development of algorithms that replicate their characteristics has been significant research issues. Although the accuracy of newly developed network protocols or algorithms does not depend on the underlying topology, the performance generally depends on the topology. As a result, network practitioners have concentrated on generating representative synthetic topologies and utilize them to investigate the performance of their design in simulation or emulation environments. Network generators typically represent the Internet topology as a graph composed of point-to-point links. In this study, we discuss the implications of multi-access links on the synthetic network generation and modeling of the networks as bi-partite graphs to represent both subnetworks and routers. We then analyze the characteristics of sampled Internet topology data sets from backbone Autonomous Systems (AS) and observe that in addition to the commonly recognized power-law node degree distribution, the subnetwork size and the router interface distributions often exhibit power-law characteristics. We introduce a SubNetwork Generator (SubNetG) topology generation approach that incorporates the observed measurements to produce bipartite network topologies. In particular, generated topologies capture the 2-mode relation between the layer-2 (i.e., the subnetwork and interface distributions) and the layer-3 (i.e., the degree distribution) that is missing from the current network generators that produce 1-mode graphs. The SubNetG source code and experimental data is available at https://github.com/netml/sonet.
url https://doi.org/10.1371/journal.pone.0240100
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