MetaCartSign in to MyCiteSeer

Include Citations | Advanced Search | Help

Include Citations | Advanced Search | Help

  On the emergence of highly variable distributions in the autonomous system topology (2003) [3 citations — 0 self]

Download:
Download as a PDF
by Marwan Fayed, Paul Krapivsky, John Byers, Mark Crovella, David Finkel, Sid Redner
ACM Computer Communication Review
http://www.cs.bu.edu/techreports/pdf/2003-005-AS-degree-distribution.pdf
Add To MetaCart

Abstract:

Recent studies have noted that vertex degree in the autonomous system (AS) graph exhibits a highly variable distribution [15, 22]. The most prominent explanatory model for this phenomenon is the Barabási-Albert (B-A) model [5, 2]. A central feature of the B-A model is preferential connectivity — meaning that the likelihood a new node in a growing graph will connect to an existing node is proportional to the existing node’s degree. In this paper we ask whether a more general explanation than the B-A model, and absent the assumption of preferential connectivity, is consistent with empirical data. We are motivated by two observations: first, AS degree and AS size are highly correlated [11]; and second, highly variable AS size can arise simply through exponential growth. We construct a model incorporating exponential growth in the size of the Internet, and in the number of ASes. We then show via analysis that such a model yields a size distribution exhibiting a power-law tail. In such a model, if an AS’s link formation is roughly proportional to its size, then AS degree will also show high variability. We instantiate such a model with empirically derived estimates of growth rates and show that the resulting degree distribution is in good agreement with that of real AS graphs.

Citations

699 On power-law relationship of the internet topology – FALOUTSOS, FALOUTSOS, et al. - 1999
632 Emergence of scaling in random networks – BARABÁSI, ALBERT - 1999
358 Statistical mechanics of complex networks – Albert, Barabási - 2002
337 Modeling internet topology – Calvert, Doar, et al. - 1997
222 Heuristics for Internet Map Discovery – Govindan, Tangmunarunkit - 2000
169 BRITE: An Approach to Universal Topology Generation – Medina, Lakhina, et al. - 2001
163 A Quantitative Comparison of Graph-based Models for Internet Topology – Zegura, Donahoo - 1997
124 On the origin of power laws in internet topologies – Medina, Matta, et al. - 2000
109 On distinguishing between internet power law topology generators – Bu, Towsley - 2002
99 Network topology generators: degree-based vs. structural – Tangmunarunkit, Govindan, et al.
93 Topology of Evolving Networks: Local Events and Universality – Albert, Barabási - 2000
85 On a class of skew distribution functions – Simon - 1955
74 Towards Capturing Representative AS-Level Internet Topologies – Chang, Govindan, et al. - 2002
71 Heuristically optimized trade-offs: A new paradigm for power laws – Fabrikant, Koutsoupias, et al. - 2002
55 Random evolution in massive graphs – Aiello, Chung, et al. - 2001
45 Networks of scientific papers – Price, J - 1965
39 Connectivity of growing random networks – Krapivsky, Redner, et al. - 2000
39 Spectral analysis of internet topologies – Gkantsidis, Mihail, et al. - 2003
36 A general theory of bibliometric and other cumulative advantage processes – Price - 1976
36 Analysis of the autonomous system network topology – Magoni, Pansiot - 2001
26 Inferring as-level internet topology from router-level path traces – Chang, Jamin, et al. - 2001
19 and Albert-László Barabási. Topology of evolving networks: Local events and universality – Albert - 2000
17 Towards an optimization-driven framework for designing and generating realistic Internet topologies – Alderson, Doyle, et al.
9 Truncation of power law behavior in “scale-free” network models due to information filtering – Mossa, Barthélémy, et al. - 2002
6 Degree distributions of growing networks – Krapivsky, Rodgers, et al. - 2001
5 On the size distribution of autonomous systems – Fayed, Krapivsky, et al. - 2003
3 On generating graphs with prescribed degree sequences for complex network modeling applications – Mihail, Visnoi - 2002
1 Truncation of Power Law Behavior in "Scale-Free" Network Models due to Information Filtering – Mossa, emy, et al. - 2002