Linked from

The 204 pages that link to Phylogenetics, each with the reason it gives.

• PaleontologyRelated: Turns fossil traits into hypotheses about ancestry and evolutionary branching.

• Human evolutionRelated: It helps distinguish branching ancestry from misleading linear diagrams of human evolution.

• Comparative anatomyRelated: Shared anatomical characters can help infer branching relationships.

• Plant taxonomyRelated: Evolutionary relationships inform modern plant classifications.

• EvolutionRelated: It uses patterns of inherited similarity to infer shared ancestry.

• PaleoanthropologyRelated: It organizes fossil traits into hypotheses about hominin ancestry and branching.

• Evolutionary biologyRelated: Evolutionary hypotheses organize biodiversity into testable histories of common ancestry.

• HomininRelated: It provides the framework for deciding which fossils belong on the hominin branch.

• DinosauriaRelated: Dinosaur classification is revised by comparing anatomical traits across evolutionary trees.

• PaleobotanyRelated: Comparing fossil and living plant traits places fossils on evolutionary branches.

• HomologyRelated: Homologous characters provide evidence for reconstructing evolutionary trees.

• AnuraRelated: Phylogenetic analyses test how living frogs relate to one another and extinct relatives.

• ChelicerataRelated: Phylogenetic analyses test which living and fossil arthropods belong within Chelicerata.

• Modern synthesisRelated: It reconstructs the lineage histories that the synthesis sought to explain.

• Plant systematicsRelated: It provides methods for reconstructing relationships among plant lineages.

• Ribosomal RNARelated: Comparative rRNA sequences provide evidence for reconstructing evolutionary trees.

• ColeopteraRelated: Phylogenetic methods help resolve relationships among beetle lineages.

• BioinformaticsRelated: Computational comparisons of sequences can support evolutionary trees.

• MorphologyRelated: Comparisons of homologous structures can help reconstruct evolutionary relationships.

• FagaceaeRelated: Phylogenetic analyses test how the family’s genera and species are related.

• Species problemRelated: Phylogenetic trees supply evidence for lineage-based species concepts, but gene trees can conflict.

• TaxonRelated: Phylogenetic evidence often guides which organisms are grouped into a taxon.

• Fish taxonomyRelated: Phylogenetic hypotheses guide how fish groups are ranked and revised.

• Fungal taxonomyRelated: Modern fungal groups are chiefly tested against inferred evolutionary relationships.

• PhasianidaeRelated: Phylogenetic methods have reshaped boundaries and relationships among phasianid groups.

• ProtistRelated: Phylogenetic analysis reveals that organisms called protists belong to many branches.

• Taxonomic revisionRelated: Phylogenetic evidence can require rearranging a group’s classification.

• Vertebrate paleontologyRelated: Anatomical characters from fossils help place extinct vertebrates on evolutionary trees.

• Evolution of birdsRelated: Competing phylogenetic analyses can place fossil birds and their relatives differently.

• AvesRelated: DNA and fossil data help resolve relationships within Aves.

• Bird taxonomyRelated: It provides the evolutionary framework that modern bird classifications seek to represent.

• Last universal common ancestorRelated: Phylogenetic methods infer the deep branching relationships that place LUCA before major lineages diverged.

• Sequence alignmentRelated: Aligned homologous sites provide characters for reconstructing evolutionary trees.

• CrocodyliformesRelated: Crocodyliform classification depends on hypotheses about branching evolutionary relationships.

• PancrustaceaRelated: Pancrustacea is a clade recovered by comparing traits and genetic data.

• SauropsidaRelated: Fossils and molecular data are combined to test the branching history of Sauropsida.

• StramenopileRelated: Molecular phylogenetics established stramenopiles as a lineage beyond their shared flagellar feature.

• UlmaceaeRelated: Phylogenetic analyses determine which genera belong within Ulmaceae and its neighboring families.

• Biological classificationRelated: Phylogenetics supplies ancestry-based evidence for modern classifications.

• Evolutionary taxonomyRelated: Phylogenetic hypotheses supply the ancestry component of evolutionary classifications.

• OdonataRelated: Phylogenetic analyses test how dragonflies, damselflies, and fossil relatives are related.

• PikaiaRelated: Its changing placement reflects how phylogenetic hypotheses depend on interpreting fossil characters.

• VestigialityRelated: Evolutionary relationships help reconstruct the ancestral form of a trait.

• Hominin taxonomyRelated: Phylogenetic methods underpin hypotheses about hominin ancestry.

• OrnithologyRelated: Phylogenetic methods reconstruct how bird lineages are related.

• PaleogenomicsRelated: Phylogenetic methods place ancient sequences within evolutionary histories.

• CoelurosauriaRelated: Competing evolutionary trees can shift which fossil species are placed within Coelurosauria.

• Endosymbiotic gene transferRelated: Sequence comparisons help test whether a nuclear gene came from an endosymbiont.

• HaikouichthysRelated: Its placement shifts with the characters selected and how they are interpreted.

• Hominin evolutionRelated: Phylogenetic methods organize hominin species into hypotheses of relatedness.