Linked from

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

• PhylogeneticsRelated: It produces resemblance that can be mistaken for evidence of close ancestry.

• Adaptive radiationRelated: Separate radiations can produce similar forms when lineages encounter comparable ecological roles.

• TheropodaRelated: Bipedal posture also evolved outside Theropoda, so it alone cannot identify the group.

• EvolutionRelated: It shows how similar environmental pressures can produce similar adaptations independently.

• C4 carbon fixationRelated: Repeated origins of C4 photosynthesis exemplify this evolutionary pattern.

• RaptorRelated: Predatory adaptations evolved in separate bird groups rather than from one recent raptor ancestor.

• ViviparityRelated: Viviparity arose independently many times, rather than from one live-bearing ancestor.

• Marine reptileRelated: Separate reptile groups repeatedly evolved streamlined bodies and swimming adaptations.

• Cryptic speciesRelated: Similar forms can evolve separately, making unrelated species look alike.

• Prehensile tailRelated: Grasping tails evolved in multiple groups rather than from one shared prehensile-tailed ancestor.

• PerciformesRelated: Similar body shapes among fishes can mislead classifications based mainly on appearance.

• Plant morphologyRelated: Similar plant forms can arise in unrelated lineages facing comparable pressures.

• AdaptationRelated: Similar adaptations can evolve independently without being inherited from a shared recent ancestor.

• Comparative genomicsRelated: Similar genomic changes need not indicate that lineages inherited them from a recent common ancestor.

• MosasaurRelated: Their streamlined form resembles that of sharks and whales despite a different ancestry.

• ProboscisRelated: Tubular feeding structures evolved in unrelated animals with similar food-access challenges.

• IchthyosauriaRelated: Their streamlined forms resemble dolphins despite a distant evolutionary relationship.

• CAM photosynthesisRelated: CAM has evolved independently many times among unrelated plant groups.

• Lobe-finned fishRelated: Some fish-like traits in aquatic tetrapods evolved independently of lobe-finned fish anatomy.

• Cave ecologyRelated: Repeated cave traits raise questions about shared selection versus inherited history.

• FlipperRelated: Similar swimming demands produced flipper-like forms in unrelated animal groups.

• SynapomorphyRelated: Convergence can produce resemblance without the shared origin required for a synapomorphy.

• Evolution of cetaceansRelated: Streamlined bodies and flippers evolved repeatedly among aquatic mammals, not only cetaceans.

• FeliformiaRelated: Similar body forms among carnivorans can obscure true evolutionary relationships.

• ThylacineRelated: Its doglike form resembles that of placental canids despite distant ancestry.

• FlightlessnessRelated: Flightlessness evolved repeatedly in unrelated birds facing comparable ecological conditions.

• SmilodonRelated: Saber-like canines appeared in unrelated mammals, not just machairodont cats.

• Aerial insectivoreRelated: Unrelated groups evolved ways to catch flying insects, without sharing a recent specialized ancestor.

• NectarivoryRelated: Different animal groups independently evolved ways to exploit nectar.

• SauropterygiaRelated: Sauropterygians acquired aquatic adaptations also found in unrelated marine reptiles.

• GastrolithRelated: Similar stone-swallowing behavior may have evolved independently in different animal groups.

• MosasauridaeRelated: Its streamlined body resembles that of marine reptiles from separate evolutionary lineages.

• Saber-toothed catRelated: Saber-like canines appeared in several unrelated mammalian lineages.

• 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.

• 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.

• 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.