Abstract—The degree distribution of scale-free Small World networks follows a power law. For random graph generators, its exponent is constrained by the construction mechanism, whereas in real-world data, different slopes can be observed. However, the degree distribution alone does not reveal much of the local structure of these graphs. Therefore, we propose a graph transformation we call ”higher order ” transformation, which encodes the number of common neighbours two vertices share in its edge weights. Studying the degree distribution of second-and third order graphs and comparing it to natural language co-occurrence data, we find that the higher order transformation reveals differences that cannot be detected by only looking at tradition...
We show how scale-free degree distributions can emerge naturally from growing networks by using rand...
Recent work has shown the prevalence of small-world phenomena [28] in many networks. Small-world gra...
Subgraphs such as cliques, loops and stars form crucial connections in the topologies of real-world ...
<p>Right column shows illustrations of prototypical networks: the (ring) lattice small-world, the cl...
We propose a simple mechanism for generating scale-free networks with degree exponent γ = 3, where t...
<p>Random, small-world and scale-free networks containing 20 nodes and 73 connections were generated...
We develop a combinatorial structure to serve as model of random real world networks. Starting with ...
We develop a combinatorial structure to serve as model of random real world networks. Starting with ...
In many real-world networks, such as the Internet and social networks, power-law degree sequences ha...
We introduce a model for directed scale-free graphs that grow with preferential attachment depending...
Abstract We introduce a model for directed scale-free graphs that grow with preferential attachment ...
We introduce a model for directed scale-free graphs that grow with preferential attachment depending...
International audienceSmall world graphs are examples of random graphs which mimic empirically obser...
AbstractA power law degree distribution is established for a graph evolution model based on the grap...
Recently, Barabási and Albert [2] suggested modeling complex real-world networks such as the worldwi...
We show how scale-free degree distributions can emerge naturally from growing networks by using rand...
Recent work has shown the prevalence of small-world phenomena [28] in many networks. Small-world gra...
Subgraphs such as cliques, loops and stars form crucial connections in the topologies of real-world ...
<p>Right column shows illustrations of prototypical networks: the (ring) lattice small-world, the cl...
We propose a simple mechanism for generating scale-free networks with degree exponent γ = 3, where t...
<p>Random, small-world and scale-free networks containing 20 nodes and 73 connections were generated...
We develop a combinatorial structure to serve as model of random real world networks. Starting with ...
We develop a combinatorial structure to serve as model of random real world networks. Starting with ...
In many real-world networks, such as the Internet and social networks, power-law degree sequences ha...
We introduce a model for directed scale-free graphs that grow with preferential attachment depending...
Abstract We introduce a model for directed scale-free graphs that grow with preferential attachment ...
We introduce a model for directed scale-free graphs that grow with preferential attachment depending...
International audienceSmall world graphs are examples of random graphs which mimic empirically obser...
AbstractA power law degree distribution is established for a graph evolution model based on the grap...
Recently, Barabási and Albert [2] suggested modeling complex real-world networks such as the worldwi...
We show how scale-free degree distributions can emerge naturally from growing networks by using rand...
Recent work has shown the prevalence of small-world phenomena [28] in many networks. Small-world gra...
Subgraphs such as cliques, loops and stars form crucial connections in the topologies of real-world ...