A New Phylogenetic Inference Based on Genetic Attribute Reduction for Morphological Data
Autor: | Liu Zeyun, Hongwei Feng, Jian Han, Jianni Liu, Jun Feng, Richard F. E. Sutcliffe |
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Jazyk: | angličtina |
Rok vydání: | 2019 |
Předmět: |
0106 biological sciences
Computer science Grafting (decision trees) Decision tree General Physics and Astronomy lcsh:Astrophysics Bayesian inference 010603 evolutionary biology 01 natural sciences Article 010104 statistics & probability lcsh:QB460-466 morphological analysis phylogenetic tree 0101 mathematics lcsh:Science Blossom algorithm Seed tree Phylogenetic tree business.industry information entropy Pattern recognition Missing data lcsh:QC1-999 Maximum parsimony ComputingMethodologies_PATTERNRECOGNITION attribute reduction lcsh:Q Artificial intelligence business lcsh:Physics |
Zdroj: | Entropy Volume 21 Issue 3 Entropy, Vol 21, Iss 3, p 313 (2019) |
ISSN: | 1099-4300 |
DOI: | 10.3390/e21030313 |
Popis: | To address the instability of phylogenetic trees in morphological datasets caused by missing values, we present a phylogenetic inference method based on a concept decision tree (CDT) in conjunction with attribute reduction. First, a reliable initial phylogenetic seed tree is created using a few species with relatively complete morphological information by using biologists&rsquo prior knowledge or by applying existing tools such as MrBayes. Second, using a top-down data processing approach, we construct concept-sample templates by performing attribute reduction at each node in the initial phylogenetic seed tree. In this way, each node is turned into a decision point with multiple concept-sample templates, providing decision-making functions for grafting. Third, we apply a novel matching algorithm to evaluate the degree of similarity between the species&rsquo attributes and their concept-sample templates and to determine the location of the species in the initial phylogenetic seed tree. In this manner, the phylogenetic tree is established step by step. We apply our algorithm to several datasets and compare it with the maximum parsimony, maximum likelihood, and Bayesian inference methods using the two evaluation criteria of accuracy and stability. The experimental results indicate that as the proportion of missing data increases, the accuracy of the CDT method remains at 86.5%, outperforming all other methods and producing a reliable phylogenetic tree. |
Databáze: | OpenAIRE |
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