Linked from

The 155 pages that link to Molecular phylogenetics, each with the reason it gives.

• CharaciformesRelated: Genetic data have reshaped hypotheses about characiform evolution and classification.

• DeuterostomeRelated: Molecular evidence tests clade relationships independently of the embryological traits behind the name.

• FagalesRelated: DNA comparisons have reshaped relationships among families within the order.

• PanarthropodaRelated: Sequence comparisons have reshaped hypotheses about relationships among panarthropod branches.

• AmoebozoaRelated: Sequence comparisons reshaped the placement and internal classification of amoebozoans.

• GadidaeRelated: Genetic evidence helps resolve relationships among gadid genera and species.

• Hawaiian honeycreeperRelated: DNA comparisons established the finch ancestry and relationships of honeycreepers.

• Hominin phylogenyRelated: Genetic comparisons test relationships that fossil anatomy alone cannot resolve.

• Insect taxonomyRelated: Sequence comparisons test relationships inferred from insect anatomy.

• MusteloideaRelated: Sequence comparisons help test relationships among the four musteloid families.

• SyngnathiformesRelated: DNA evidence has helped test which fish families belong together in this order.

• AcanthomorphaRelated: Sequence evidence has reshaped hypotheses about relationships among acanthomorph groups.

• AmphisbaeniaRelated: Molecular evidence helps resolve relationships obscured by convergent burrowing adaptations.

• Arachnid phylogenyRelated: Sequence data provide an independent source of evidence for arachnid relationships.

• AsparagalesRelated: Molecular data have helped resolve relationships within the order.

• Caspian tigerRelated: DNA from museum specimens helped establish the Caspian tiger’s close relationship to other mainland tigers.

• EricalesRelated: Molecular comparisons revealed relationships obscured by superficial similarities among Ericales families.

• EulipotyphlaRelated: Genetic comparisons helped establish Eulipotyphla as a distinct placental lineage.

• HerpestidaeRelated: Molecular evidence has helped resolve relationships among mongoose-like families.

• LamialesRelated: DNA analyses reshaped family boundaries and established modern Lamiales relationships.

• MicrobatRelated: Molecular evidence exposed the traditional microbat grouping as evolutionarily misleading.

• New Zealand biogeographyRelated: Genetic trees can distinguish ancient persistence from more recent arrivals and diversification.

• NothofagaceaeRelated: Genetic trees test whether living southern beeches diversified before or after continental separation.

• Old World warblerRelated: Genetic phylogenies exposed how unrelated lineages had been grouped as warblers.

• PasseridaeRelated: Genetic analyses have helped revise relationships among sparrows and allied birds.

• RhizariaRelated: Sequence comparisons helped unite groups once classified separately by their appearance.

• BifidobacteriumRelated: Sequence comparisons reshaped the classification of bifidobacteria.

• DecapodRelated: Genetic analyses help test and revise classifications based on decapod anatomy.

• GruiformesRelated: Genetic analyses have reshaped the boundaries and relationships of Gruiformes families.

• IguanidaeRelated: Genetic data have reshaped hypotheses about iguanid relationships.

• MalpighialesRelated: Sequence comparisons helped resolve relationships among families whose morphology gives few clear clues.

• Thomas Cavalier-SmithRelated: Sequence-based analyses provided independent tests of his morphological and evolutionary hypotheses.

• AcariformesRelated: Sequence data have reshaped hypotheses about deep relationships among mite lineages.

• AplacophoraRelated: Sequence data help test competing hypotheses about aplacophoran relationships to other mollusks.

• MalacologyRelated: Genetic evidence can revise classifications based on shell form and anatomy.

• MephitidaeRelated: Genetic comparisons helped establish skunks as a distinct family rather than mustelids.

• Old World flycatcherRelated: Genetic studies have helped revise traditional classifications based on appearance and behavior.

• ProtostomeRelated: Sequence data exposed relationships that traditional developmental traits had obscured.

• Tyrant flycatcherRelated: Genetic analyses have reshaped classifications within this diverse family.

• CharacidaeRelated: Genetic studies continue to test which lineages properly belong within Characidae.

• HelicidaeRelated: DNA analyses can test whether traditional shell-based helicid classifications reflect ancestry.

• HomininaeRelated: DNA comparisons help establish relationships among hominine lineages.

• IchthyosporeaRelated: Sequence comparisons established Ichthyosporea as a distinct opisthokont lineage.

• LacertidaeRelated: Genetic analyses have reshaped hypotheses about relationships among lacertid genera.

• MacraucheniaRelated: Protein evidence helped place litopterns closer to perissodactyls than earlier anatomy-based schemes suggested.

• MesonychiaRelated: Molecular results reshaped hypotheses linking whales with hoofed mammals.

• Nucleic acid sequenceRelated: Shared sequence changes provide evidence about common ancestry.

• PalpigradiRelated: Genetic evidence can test palpigrade relationships that morphology alone has left uncertain.

• PeramelemorphiaRelated: DNA comparisons have helped resolve relationships among peramelemorphian families.

• XiphosuraRelated: Genetic evidence has challenged classifications based mainly on horseshoe crab body form.