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

• Vertebrate evolutionRelated: Phylogenetic methods organize vertebrate fossils and living species into hypotheses of ancestry.

• Viral evolutionRelated: Viral phylogenies reveal ancestry, divergence, and the movement of lineages.

• Asgard archaeaRelated: Asgard’s placement depends on how genomic data are compared and evolutionary trees are built.

• PercomorphaRelated: Percomorpha's boundaries and internal branches are inferred from evolutionary relationships.

• DeuterostomeRelated: Deuterostome membership and branching order are established through phylogenetic analysis.

• JuglandaceaeRelated: Phylogenetic analysis clarifies relationships among the family’s genera.

• Molecular epidemiologyRelated: Phylogenetic trees help infer how sampled pathogen lineages are related.

• ParavesRelated: Paraves’ membership and internal branches are inferred from shared traits and evolutionary analyses.

• PoalesRelated: Molecular phylogenies have reshaped the boundaries and internal relationships of Poales.

• ChromalveolataRelated: Phylogenetic analyses repeatedly revise the inferred relationships that Chromalveolata was meant to summarize.

• Evolution of the horseRelated: Phylogenetic methods distinguish branching ancestry from a simple ladder of horse forms.

• IguaniaRelated: Iguania's boundaries and internal relationships are inferred from evolutionary trees.

• Insect taxonomyRelated: Evolutionary trees help classify insects by common ancestry.

• LiliaceaeRelated: Molecular phylogenies helped distinguish Liliaceae from other lily-like families.

• OpabiniaRelated: Opabinia’s placement has shifted as researchers compare its anatomical features.

• Pterosaur classificationRelated: It provides the evolutionary framework that pterosaur classifications aim to represent.

• StegosauriaRelated: It provides the framework for testing which dinosaurs belong within Stegosauria.

• VaranidaeRelated: Phylogenetic analyses clarify relationships among monitor species and their closest lizard relatives.

• AcanthomorphaRelated: Molecular and anatomical trees determine which lineages belong to Acanthomorpha.

• AllosauroideaRelated: Allosauroidea is defined and revised through hypotheses of shared ancestry.

• Bacterial phylumRelated: Phylogenetic evidence helps determine which lineages belong together in a phylum.

• EricalesRelated: DNA-based phylogenies reshaped the order’s circumscription and family relationships.

• EuphyllophyteRelated: Phylogenetic analysis establishes Euphyllophyta’s relationship to lycophytes and seed plants.

• Evolutionary theoryRelated: It reconstructs patterns of descent implied by evolutionary theory.

• LavandulaRelated: Phylogenetic evidence helps clarify how Lavandula relates to other genera in Lamiaceae.

• NeornithesRelated: It provides the methods for reconstructing relationships among living birds and fossils.

• OnychophoraRelated: Molecular and anatomical data are used to resolve relationships among velvet-worm lineages and their relatives.

• Parallel evolutionRelated: Phylogenies establish whether lineages are related enough for a comparison to count as parallel.

• SalviaRelated: Phylogenetic evidence helps resolve relationships among Salvia species and close relatives.

• BaboonRelated: Baboon lineages help researchers reconstruct the evolution of African primates.

• CarexRelated: Phylogenetic studies test relationships among Carex species and clarify the genus's boundaries.

• History of lifeRelated: Phylogenetic trees organize evidence about the ancestry and branching of life.

• IguanidaeRelated: Phylogenetic analyses test which living lizard groups belong within Iguanidae.

• MicrosporidiaRelated: Molecular phylogenetics established microsporidia as fungi rather than primitive protozoa.

• UrticaceaeRelated: DNA-based phylogenies help resolve relationships within this diverse plant family.

• AcariformesRelated: Phylogenetic analyses test Acariformes’ boundaries and its relationships to other mites.

• Computational biologyRelated: Algorithms infer evolutionary histories from biological traits and sequences.

• ExcavataRelated: Phylogenetic analyses test whether Excavata forms a single evolutionary lineage.

• Family (biology)Related: Phylogenetic evidence can prompt taxonomists to revise family boundaries.

• Juniperus oxycedrusRelated: Genetic evidence can clarify relationships among geographically separated prickly juniper populations.

• MammalogyRelated: Mammalogists use it to test how mammal groups are related.

• ProtostomeRelated: Molecular phylogenetics reshaped the internal branches of Protostomia.

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

• African wolfRelated: Phylogenetic analyses overturned the assumption that the African wolf was merely a golden jackal.

• DicotyledonRelated: Phylogenetic methods exposed the traditional dicotyledon group as non-monophyletic.

• DroseraceaeRelated: Phylogenetic analyses establish relationships among the family’s genera and their relatives.

• HeterodontosauridaeRelated: Fossil anatomy and changing analyses shape the family’s position among ornithischians.

• MacroevolutionRelated: Phylogenetic trees represent the branching relationships whose patterns macroevolution examines.

• MagnoliaceaeRelated: Phylogenetic analyses clarify relationships among magnoliaceous genera and other flowering plants.

• MorchellaRelated: Phylogenetic analyses clarify how named morel species are related.