Directed Extended-Range Percolation shows that directionality simplifies long-range connectivity calculations in directed networks with path length R, yielding exact thresholds and correlation-dependent critical behavior on random graphs.
Percolation on sparse networks
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abstract
We study percolation on networks, which is used as a model of the resilience of networked systems such as the Internet to attack or failure and as a simple model of the spread of disease over human contact networks. We reformulate percolation as a message passing process and demonstrate how the resulting equations can be used to calculate, among other things, the size of the percolating cluster and the average cluster size. The calculations are exact for sparse networks when the number of short loops in the network is small, but even on networks with many short loops we find them to be highly accurate when compared with direct numerical simulations. By considering the fixed points of the message passing process, we also show that the percolation threshold on a network with few loops is given by the inverse of the leading eigenvalue of the so-called non-backtracking matrix.
fields
cond-mat.dis-nn 1years
2026 1verdicts
UNVERDICTED 1representative citing papers
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Directed extended-range percolation
Directed Extended-Range Percolation shows that directionality simplifies long-range connectivity calculations in directed networks with path length R, yielding exact thresholds and correlation-dependent critical behavior on random graphs.