Linked from

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

• PalaeotheriidaeRelated: Comparative anatomy and fossils shape hypotheses about palaeotheriid relationships.

• PandanaceaeRelated: Phylogenetic analyses help test relationships within Pandanales and Pandanaceae.

• PinguiculaRelated: Phylogenetic analyses help resolve how butterwort species diversified.

• PlacozoaRelated: Different datasets have produced competing placements for Placozoa among animal lineages.

• Sunda clouded leopardRelated: Genetic evidence helped establish the Sunda clouded leopard as a distinct species.

• TeratornithidaeRelated: Their placement among storks, condors, and other birds depends on phylogenetic evidence.

• ThelodontiRelated: Different analyses place thelodonts differently among early jawless vertebrates.

• AccentorRelated: Phylogenetic research helps establish where accentors belong among songbirds.

• AcorusRelated: Molecular phylogenies overturned Acorus's traditional placement among ordinary monocots.

• AfrocarpusRelated: Evolutionary evidence helps establish Afrocarpus’s boundaries and relationships within Podocarpaceae.

• Aliivibrio fischeriRelated: Phylogenetic comparisons helped distinguish Aliivibrio from closely related Vibrio species.

• Balaur bondocRelated: Different analyses of Balaur’s anatomical characters have produced competing placements on the theropod family tree.

• CaenagnathidaeRelated: Different character analyses can shift the placement of fragmentary oviraptorosaurs.

• CercozoaRelated: Molecular phylogenetics revealed Cercozoa as a broad lineage of diverse protists.

• Class (biology)Related: Phylogenetic evidence informs how taxonomists delimit and revise classes.

• CornusRelated: Genetic evidence helps resolve the evolutionary history and classification of dogwoods.

• DicyemidaRelated: Molecular phylogenetics has challenged older classifications based on dicyemid anatomy alone.

• Evolutionary linguisticsRelated: Phylogenetic models help infer how language families diversified over time.

• Green pheasantRelated: Phylogenetic evidence helps test how distinct green pheasants are from common pheasants.

• LithocarpusRelated: Phylogenetic evidence helps resolve the limits and relationships of Lithocarpus species.

• MotacillidaeRelated: Phylogenetic evidence helps resolve relationships among wagtails, pipits, and other passerines.

• NotostracaRelated: Phylogenetic analyses test where Notostraca belongs among branchiopods and other crustaceans.

• NymphalidaeRelated: Phylogenetic methods test how nymphalid subfamilies and tribes are related.

• OrthonectidaRelated: Phylogenetic analyses reshaped ideas about where orthonectids belong among animals.

• PareiasauriaRelated: Anatomical comparisons place pareiasaurs within the debated early amniote family tree.

• Rock-wallabyRelated: Genetic relationships help clarify how Petrogale species diversified.

• SilesauridaeRelated: Silesaurid placement depends on how anatomical characters are grouped and interpreted.

• SipunculaRelated: Phylogenetic analyses resolved the worms' close relationship to annelids despite their unsegmented appearance.

• StomiiformesRelated: Molecular and anatomical phylogenies test how stomiiform families relate to one another and other fishes.

• Terrestrial crabRelated: Phylogenies help test whether terrestrial adaptations evolved independently across crab groups.

• TodyRelated: Phylogenetic comparisons place todies among other bird lineages.

• Transitional fossilRelated: Phylogenetic analysis places transitional fossils among related lineages.

• VachelliaRelated: Phylogenetic evidence supports recognizing Vachellia as a lineage distinct from other acacias.

• AnaspidaRelated: Different interpretations of anaspid traits can change their inferred position.

• AnolidaeRelated: Phylogenetic evidence has reshaped the boundaries and names of anole families.

• AntbirdRelated: Phylogenetic research has reshaped the boundaries and internal classification of Thamnophilidae.

• Armen TakhtajanRelated: His classification aimed to represent the evolutionary history of plants.

• Bioinformatics educationRelated: It demonstrates how computational analyses can test hypotheses about biological history.

• BrantaRelated: It provides methods for testing which geese belong together in Branta.

• CeratogaulusRelated: Its precise placement among fossil and living gophers depends on reconstructing evolutionary relationships.

• CervalcesRelated: Phylogenetic analyses can test whether named stag-moose species form one lineage.

• ChloroflexotaRelated: It provides the framework for interpreting relationships among Chloroflexota lineages.

• ClamatorRelated: Phylogenetic analyses help establish Clamator’s relationships to other cuckoo genera.

• DalbergiaRelated: Phylogenetic studies help clarify relationships among Dalbergia species.

• DromornisRelated: Comparisons of skeletal characters help test where dromornithids belong on the bird family tree.

• GalanthusRelated: Phylogenetic evidence helps place Galanthus within Amaryllidaceae.

• GalaxiidaeRelated: Phylogenetic analyses test whether traditional galaxiid groupings reflect ancestry.

• Hump-winged grigRelated: Grig anatomy and genes help place an ancient lineage within katydid evolution.

• LagerpetidaeRelated: Comparisons of anatomical characters place lagerpetids near the origin of pterosaurs.

• LarusRelated: Genetic evidence helps test whether traditional Larus groupings reflect ancestry.