Linked from

The 149 pages that link to Convergent evolution, each with the reason it gives.

• Vertebrate evolutionRelated: Similar vertebrate adaptations can arise separately, complicating inferences from resemblance alone.

• ViperidaeRelated: Venomous fangs and similar hunting adaptations evolved in multiple snake families.

• DiffusionismCompared with: It provides a biological analogy for similarity without direct transmission.

• MetatheriaRelated: Some metatherians resemble placental mammals that evolved similar adaptations independently.

• MonophylyRelated: Convergence can make unrelated lineages appear to form a natural group.

• RodentiaRelated: Rodent-like teeth or habits evolved in mammals outside Rodentia as adaptations to similar demands.

• Snake identificationRelated: Unrelated snakes can acquire similar warning colors or body shapes, misleading visual comparisons.

• Animal evolutionRelated: Similar animal adaptations can arise separately rather than from a shared recent ancestor.

• AukRelated: Auks resemble penguins in wing-powered diving, but the two groups evolved this ability separately.

• Dental batteryNarrower topic: Distinct mammal and dinosaur lineages evolved dense grinding tooth arrays separately.

• Electric fishRelated: Electric organs evolved independently multiple times among fishes.

• High-altitude adaptationRelated: Tibetan, Andean, and Ethiopian populations evolved distinct solutions to chronic hypoxia.

• Primate cognitionRelated: Similar cognitive skills may arise independently under comparable ecological or social pressures.

• SlugRelated: Slug-like forms arose repeatedly as different gastropod lineages reduced or lost shells.

• BillRelated: Similar feeding demands can produce comparable bill shapes in unrelated birds.

• Bird wingRelated: Bird, bat, and pterosaur wings evolved as separate solutions to powered flight.

• Cephalopod intelligenceRelated: Complex cognition in cephalopods and vertebrates arose along separate evolutionary paths.

• CreodontaRelated: It explains why creodonts and carnivorans developed comparable predatory adaptations.

• Dire wolfRelated: Dire wolves resembled gray wolves despite belonging to a deeply separate lineage.

• Hawaiian honeycreeperRelated: Some honeycreeper forms resemble distant bird groups adapted to comparable foods.

• MachairodontinaeRelated: Saber-like teeth arose in several distant mammal groups, not just machairodontines.

• PalaeognathaeRelated: Large body size and flightlessness arose independently in multiple palaeognath lineages.

• Plesiosaur feedingRelated: Similar teeth or skull shapes can suggest feeding habits without proving identical behavior.

• StomatopodaRelated: The resemblance between mantis shrimp and true shrimp in common names does not indicate close order-level identity.

• ThylacosmilusNarrower topic: Its resemblance to saber-toothed cats arose independently, despite their distant relationship.

• TylosaurusRelated: Its streamlined body and flippers resemble those of marine animals from unrelated groups.

• AcanthomorphaRelated: Similar fish forms can obscure relationships when classification relies heavily on anatomy.

• AmphisbaeniaRelated: Their elongated, reduced-limbed form evolved alongside similar shapes in unrelated burrowers.

• AnteaterNarrower topic: Ant-eating mammals repeatedly evolved long tongues and strong digging claws.

• Canid evolutionRelated: Wolf-like features evolved in distinct canid branches, making appearance alone a poor guide to kinship.

• Carnivory in plantsNarrower topic: Different plant groups independently evolved traps and prey digestion.

• ColugoRelated: Colugo and squirrel gliding membranes arose in separate mammal lineages.

• MicrobatRelated: Similar sensory traits helped obscure relationships among the traditional bat groups.

• NimravidaeRelated: Nimravids and true saber-toothed cats evolved similar teeth without being close relatives.

• Parallel evolutionCompared with: Unlike parallel evolution, convergence usually involves lineages with less recent shared ancestry.

• River dolphinRelated: Their shared river adaptations arose in lineages that are not close relatives.

• ApocynaceaeRelated: Similar milky sap and toxic chemistry occur in unrelated plant families too.

• CryptobiosisRelated: Nematodes, tardigrades, rotifers, plants, and yeasts solved drying separately, inviting comparison.

• New World vultureRelated: Separate vulture lineages evolved similar scavenging forms and lifestyles.

• Old World vultureRelated: Old and New World vultures evolved similar carrion-feeding forms despite separate ancestry.

• Pitcher plantRelated: Pitcher traps evolved independently in several plant families.

• DasyuromorphiaRelated: The thylacine's wolf-like form arose in a marsupial lineage, unlike the placental wolves it resembled.

• Pit viperRelated: Heat-sensitive pits evolved independently in pit vipers and some boas and pythons.

• WiwaxiaRelated: Similar armor or feeding structures need not prove close kinship with living groups.

• Canid hybridCompared with: Similar looks can arise without hybrid ancestry or recent interbreeding.

• Divergent evolutionCompared with: It produces resemblance across lineages, whereas divergence produces differences among relatives.

• Genetic admixtureCompared with: Similar genetic or physical traits can arise without any interbreeding between lineages.

• IchthyosaurusRelated: Ichthyosaurus and dolphins acquired similar streamlined forms despite distant ancestry.

• Legless lizardRelated: Limbless body forms arose independently in multiple lizard lineages.

• MacraucheniaRelated: Macrauchenia’s resemblance to camels and other mammals illustrates the challenge of reading ancestry from shape alone.