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Supertree Construction: Opportunities and Challenges

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arxiv 1805.03530 v1 pith:RV6QAUEC submitted 2018-05-09 q-bio.PE

classification q-bio.PE
keywords supertreemethodsconstructionspeciestreetreescombineddivide-and-conquer
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Supertree construction is the process by which a set of phylogenetic trees, each on a subset of the overall set X of species, is combined into a tree on the full set S. The traditional use of supertree methods is the assembly of a large species tree from previously computed smaller species trees; however, supertree methods are also used to address large-scale tree estimation using divide-and-conquer (i.e., a dataset is divided into overlapping subsets, trees are constructed on the subsets, and then combined using the supertree method). Because most supertree methods are heuristics for NP-hard optimization problems, the use of supertree estimation on large datasets is challenging, both in terms of scalability and accuracy. In this paper, we describe the current state of the art in supertree construction and the use of supertree methods in divide-and-conquer strategies. Finally, we identify directions where future research could lead to improved supertree methods.

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  1. Likelihood-free inference of phylogenetic tree posterior distributions

    q-bio.PE 2025-10 conditional novelty 7.0 of 10

    A neural network estimates full posterior distributions over phylogenetic trees without likelihood computation, beating likelihood-based methods in topology accuracy on simulated benchmarks.

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