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Finding Adam in random growing trees

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arxiv 1411.3317 v2 pith:PDVQHC6A submitted 2014-11-12 math.PR cs.DMcs.SImath.STstat.TH

classification math.PRcs.DMcs.SImath.STstat.TH
keywords epsilonattachmentalgorithmsbestcasefirstleastpreferential
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abstract

We investigate algorithms to find the first vertex in large trees generated by either the uniform attachment or preferential attachment model. We require the algorithm to output a set of $K$ vertices, such that, with probability at least $1-\epsilon$, the first vertex is in this set. We show that for any $\epsilon$, there exist such algorithms with $K$ independent of the size of the input tree. Moreover, we provide almost tight bounds for the best value of $K$ as a function of $\epsilon$. In the uniform attachment case we show that the optimal $K$ is subpolynomial in $1/\epsilon$, and that it has to be at least superpolylogarithmic. On the other hand, the preferential attachment case is exponentially harder, as we prove that the best $K$ is polynomial in $1/\epsilon$. We conclude the paper with several open problems.

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  1. Subcritical percolation and network archaeology on random recursive tree substrate networks

    math.PR 2026-07 accept novelty 5.0 of 10

    For random recursive trees with independent Erdős–Rényi shortcut edges, subcritical bond percolation exposes a decorated tree structure on which Jordan centrality recovers the root within a deterministic-size confidence set.

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