A Fast Method for Approximating Maximum Likelihoods of Phylogenetic Trees from Nucleotide Sequences

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Abstract

We have developed a rapid parsimony method for reconstructing ancestral nucleotide states that allows calculation of initial branch lengths that are good approximations to optimal maximum-likelihood estimates under several commonly used substitution models. Use of these approximate branch lengths (rather than fixed arbitrary values) as starting points significantly reduces the time required for iteration to a solution that maximizes the likelihood of a tree. These branch lengths are close enough to the optimal values that they can be used without further iteration to calculate approximate maximum-likelihood scores that are very close to the "exact" scores found by iteration. Several strategies are described for using these approximate scores to substantially reduce times needed for maximum-likelihood tree searches.

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APA

Rogers, J. S., & Swofford, D. L. (1998). A Fast Method for Approximating Maximum Likelihoods of Phylogenetic Trees from Nucleotide Sequences. Systematic Biology, 47(1), 77–89. https://doi.org/10.1080/106351598261049

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