The distribution of shortest path lengths in the corded directed node-duplication network is a convolution of the seed distribution with Poisson terms, and its mean distance grows logarithmically with network size while the connected fraction vanishes.
Simple and accurate analytical calculation of shortest path lengths
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abstract
We present an analytical approach to calculating the distribution of shortest paths lengths (also called intervertex distances, or geodesic paths) between nodes in unweighted undirected networks. We obtain very accurate results for synthetic random networks with specified degree distribution (the so-called configuration model networks). Our method allows us to accurately predict the distribution of shortest path lengths on real-world networks using their degree distribution, or joint degree-degree distribution. Compared to some other methods, our approach is simpler and yields more accurate results. In order to obtain the analytical results, we use the analogy between an infection reaching a node in $n$ discrete time steps (i.e., as in the susceptible-infected epidemic model) and that node being at a distance $n$ from the source of the infection.
fields
physics.soc-ph 1years
2019 1verdicts
CONDITIONAL 1representative citing papers
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Analytical results for the distribution of shortest path lengths in directed random networks that grow by node duplication
The distribution of shortest path lengths in the corded directed node-duplication network is a convolution of the seed distribution with Poisson terms, and its mean distance grows logarithmically with network size while the connected fraction vanishes.