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Illustration from Frank Finn (1907) depicting Batesian mimicry between a predatorial shikra hawk (top) and its harmless mimic, the common hawk-cuckoo (bottom).

In evolutionary biology, mimicry in vertebrates is defined by cases in which a vertebrate mimic appropriates some characteristic of a model organism or object (not necessarily a vertebrate) in order to deceive another animal.[1] Mimicry is an adaptation that has evolved to be noticeable to other organisms, in contrast to camouflage, another common type of visual deception that animals use to remain hidden.[2]

While there are relatively few well-studied examples, many of the basic types of mimicry persist in vertebrate systems[1]. Visual, olfactory, auditory, biochemical, and behavioral modalities of mimicry have been documented in vertebrates.[1][3] Human perception may be a limiting factor in our understanding of vertebrate mimicry, as humans are hyper-perceptive to visual mimicry systems, and find these the most abundant. However, olfactory, biochemical, electroreceptive, and other complex forms of mimicry are likely to be much more common than currently accounted for.[1]

Classification of a mimicry system is largely based on its function (e.g. to defend against predators), and is not mutually exclusive. Though a majority of known mimics are insects, diverse forms of Müllerian, Batesian, predatory, parasitic, sexual, and anatomical mimicry have all been observed in various vertebrate groups, including mammals, reptiles, birds, amphibians, and fish.[3][4]

Classification

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Defensive

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Defensive mimicry is used to avoid potentially dangerous or harmful encounters by deceiving potential predators or competition into treating an organism as something else. This is often done by using warning coloration.[5]

Batesian

[edit]
An illustration of a venomous coral snake and its multiple nonvenomous mimic species

Batesian mimicry is a form of defense that allows a harmless species to mimic the appearance of a toxic, noxious, or harmful species to protect itself from predators.[6] By mimicking the appearance of a harmful species, a predator is less likely to attack the mimic due to its awareness of the signal of warning color patterns.[6] Batesian mimicry occurs in multiple vertebrates, but is less prevalent in mammals due to a relative rarity of well-marked harmful models[1]. However, this form of mimicry is prevalent in snakes and frogs, where chemical and venomous defenses have co-evolved with distinct coloration.[7]

A well documented example of this occurs in the scarlet kingsnake. This species resembles the venomous coral snake, sharing a pattern of red, black, and yellow bands[8]. Although the order of the color rings differ between the two snakes, from a distance a predators often mistake the scarlet kingsnake for its venomous model.[9]

Cheetah cubs may also copy the appearance of a sympatric species, the honey badger (Mellivora capensis). As cubs, cheetahs are roughly the same size and have the same reverse-countershading color pattern[10]. Due to this conspicuous coloration, potential predators like lions and birds of prey are less likely to hunt cheetah cubs, as from a distance they appear to be honey badgers. Honey badgers make an effective model because their aggressive nature and noxious tail glands enable them to deter predators up to 10x its size.[11]

Müllerian

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Large-eyed pit viper
White-lipped Island Pit Viper
An example of Mullerian mimicry between two Asian pit vipers, both displaying bright green coloration and a red tail

Müllerian mimicry is another form of defensive mimicry, except the system involves species that are all potentially dangerous. These species develop similar appearances to collectively protect against predators by advertising their potency.[12] Again, the relative lack of noxious models limits most examples to systems that involve reptiles or amphibians.[1]

Many snakes, including pitvipers, exhibit this form of mimicry. All pit vipers are capable of delivering a life-threateningly venomous bite, and multiple species found throughout Asia have evolved separately to have a very similar appearance.[13] Though each species evolved allopatrically, they have the same green coloration with reddish tail tip.[14] Species that benefit from this system include Trimeresurus macrops, Trimeresurus septentrionalis, T. flavomaculatus and T. hageni[13].

Examples of the defensive posture and facial markings of the slow loris, which activates the individual's venom glands and may imitate a cobra hood.

Similarly, the mimic poison frog (Ranitomeya imitator) closely resembles three similarly poisonous frogs of the same genus that live in different areas (R. variabilis, R. fantastica, and R. ventrimaculatus)[15]. D. imitator replicates the different color patterns of all three species, with variations of black spots, a yellow back, and bluish green limbs.[15]

The slow loris is the only known venomous primate, and appears to use Müllerian mimicry for protection through biochemical, behavioral, visual, and auditory modalities[16]. It is hypothesized that its venom may have allowed it to develop this unique system of Müllerian mimicry with the Indian cobra.[16] Slow lorises resemble the cobras with facial markings that closely mirror the eyespots and stripes of the cobra, and also make a noise that mimics the hiss of a cobra when provoked.[16]

Aggressive

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Aggressive mimicry is a form of mimicry, opposite in principle to defensive mimicry, that occurs in certain predators, parasites or parasitoids.[17] These organisms benefit by sharing some of the characteristics of a harmless species in order to deceive their prey or host. Most examples of aggressive mimicry involve the predator employing a signal to lure its prey towards it under the promise of food, sex, or other rewards.[5]

In predators

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Some predator mimics pretend to be a prey species, while others mimic a third-party organism that the prey is known to interact with in a beneficial manner. In either situation, the mimicry increases the predator's chances of catching its prey.[5]

One form of predatory mimicry, lingual luring, involves wriggling the tongue to attract prey, duping them into believing the tongue is a small worm. Multiple species of carniverous reptile have been documented using this technique, including the common puff adder, alligator snapping turtle, and aquatic garter snake.[18][19][20]

The spider-tailed horned viper, which uses caudal luring to mimic a spider in order to attract insect-eating prey.
False cleanerfish
Bluestreak cleaner wrasse
A comparison of the false cleanerfish, an aggressive mimic, which poses as its harmless model, the bluestreak cleaner wrasse, to gain access to prey

Another form of aggressive mimicry is caudal luring, which is notably exhibited in sidewinder rattlesnakes, puff adders, lanceheads, spider-tailed horned vipers, and multiple other ambush-predatory snakes to attract prey.[21][22][23][24] By mimicking invertebrates, the predator attracts insectivorous prey such as frogs, lizards, and birds.[18] Caudal luring is similar to lingual luring in that the mimic attempts to dupe its target into thinking there is a small worm or other prey, but instead of using their tongue, mimics use their tails as the disguise[24].

Complicated forms of aggressive mimicry have also been observed in fish, creating a system that resembles Batesian mimicry. The false cleanerfish, Aspidontus taeniatus, is a fin-eating blenny that has evolved to resemble a local species of cleaner wrasse, Labroides dimidiatus, which engages in mutualistic cleaning with larger fish.[25] By closely mimicking the coloration and the cleaner fish's distinctive dancing display, false cleanerfish are able to remain in close quarters with large predatory reef fish, and gain easy access to their victims during foraging.[25]

Some aggressive mimics switch rapidly between aggressive mimicry and defensive behavior depending on whether they are in the presence of a prey or a potential predator. For example, the sidewinder rattlesnake ceases caudal luring upon the arrival of a predatory toad to avoid attracting the potential threat.[21]

In parasites

[edit]
Examples of parasitized broods containing a cuckoo egg, where the parasitic egg is near impossible to discern from the host's eggs.

Host-parasite mimicry is a form of aggressive mimicry in which a parasite mimics its own host. Brood parasitism is a common form of parasitic aggressive mimicry that occurs in vertebrates, with cuckoos being a notable example.[26] Parasitic mothers secretly lay their eggs, which match the color and pattern of their host's own eggs, in the nest of another bird. Hatchlings avoid detection by mimicking the acoustic and visual appearance of the host offspring.[27][28] This allows the progeny to be nurtured without energy expenditure or parental care by the true parent.[26][29][27] However, host-parasite systems are not always as precise. Great spotted cuckoos are brood parasites that lay eggs which can successfully dupe other birds such as the magpie, pied starling, and black crow, despite having different characteristics, like egg color, egg size, and offspring features.[30]


Evidence also exists for other forms of parasitic mimicry in vertebrates. One such form is interspecific social dominance mimicry, a type of social parasitism where a subordinate species (usually determined by size) evolves over time to mimic its dominant ecological competitor, thereby competing with its previously socially dominant opponent.[31] One such example is found in the tyrant flycatcher family, where species of similar appearance exist from six different genera[32]. Smaller-bodied species from four genera have been found to mimic the appearance of the larger species of the other two genera, suggesting that an avian mimicry complex has contributed to convergent evolution, providing a competitive advantage in the same ecological niche.[32]

Automimicry

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Automimicry is a type of mimicry in which an individual mimics either a different member of its own species or a part of its own body[33]. Automimicry is exhibited by a wide variety of vertebrates, and in some cases is considered a form of Batesian mimicry. Vertebrates use many of the same automimicry strategies that invertebrates classically exhibit, such as eyespots and false heads.

A visually distinctive Broadley's Flat lizard (a dominant male), which is strongly sexually dimorphic. Some subordinate males display duller colors similar to females. This deceitful coloration allows them to sneak by the dominant males to copulate with females.

Sexual

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In sexual mimicry, an organism mimics the behaviors or physical traits of the opposite sex within its own species. Sexual mimicry can be advantageous when members of the opposite sex have certain advantages or opportunities over the other, which can be exploited by any individual that mimics said sex.[34] Spotted hyenas are one of the few vertebrate sexual mimics, as females have a pseudo-penis, which is highly erectile clitoral tissue, as well as a false scrotum. Females have also evolved to mimic the testosterone levels of males.[35] This is advantageous because it lends females heightened aggression and dominance over males in a highly competitive environment. It also bestows an advantage upon sexually indistinguishable female cubs, which experience a high level of female-targeted infanticide.[36]

A different form of sexual mimicry can be seen in flat lizards, where some males imitate female coloring to sneak around more dominant males and achieve copulation with females.[37] Here, smaller and less dominant male flat lizards, which have low reproductive success when competing for females, can increase through sexual mimicry; female-appearing male lizards are not attacked by dominant males, and therefore may avoid detection when mating with real females.[38]

The eyespots on the back of a pygmy owl's head, giving off the appearance of eyes.

Anatomical

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Some vertebrate species self-mimic their own body parts, through the use of patterns or actual anatomy. Two widespread examples of this are eyespots and false heads, both of which can misdirect, confuse, or intimidate potential predators.[39]

The four-eyed butterfly fish is an automimic, the pattern on its flank resembling an eye.

Eyespots are a form of automimicry in which an organism displays false eyes on a different part of its body, considered to be an aversion to predators who believe the prey animal has spotted them or is behaving aggressively, even when they are actually facing the other direction and unaware[40]. In the case of attack, eyespots may also redirect damage away from the true head.[41] Eyespots can be found across vertebrate taxa, from the four-eyed butterfly fish to pygmy owls.[42]

False-head mimicry occurs when an organism displays a different body part that has evolved to look like a head, achieving the same scare tactic as eyespots, and also protecting the vulnerable and important real head in case of attack. Losing a section of a tail or other extremity that resembles a head through predator conflict is far less costly than sustaining injury or removal of the real head, which is fatal.[43] For example, the defensive strategy of the rubber boa is to coil up and hide their vulnerable heads when confronted with threats, instead displaying their tails, which morphologically resemble their own head.[44]

Evolutionary patterns

[edit]

The evolution of mimicry, in vertebrates or otherwise, is widely hypothesized to follow patterns of directional selection, as mimic phenotypes are expected to shift towards advantageous alleles that increase the mimic's likeness to its model.[6] However, it is argued that, while positive evolution might stabilize mimic forms, other evolutionary factors like random mutation create mimetic forms simply by coincidence.[45]

The range of the Eastern Coral Snake, the venemous model of the Scarlet Kingsnake. Over 60% of the mimic's range is allopatric, extending as far north as Virginia
The range of the Eastern Coral Snake, the venemous model of the Scarlet Kingsnake. Over 60% of the mimic's range is allopatric, extending as far north as Virginia

While it had been historically postulated that mimicry systems evolve sympatrically, current theory states that mimics must only share a common signal reciever and not a geographic location.[46] Allopatric mimicry systems can theoretically evolve, as long as they are connected by the same signal reciever (e.g. a migratory bird).[47] This is likely the case with allopatric coral snake mimics, which share many wide-ranging predators, allowing them to extend over 1500km past the range of their model in some cases.[9] Other likely causes of allopatry in mimics exists where the range of the model has retracted or a mimic's range has expanded sincethe evolution of the system.[15]

Another evolutionary postulate that has since been disproven is the theory that mimics must be encountered less frequently than their models.[47] This is based on the assumption that an unreliable signal will not be evolutionarily stable. In effect, a predator that encounters a non-harmful mimic more often than its dangerous model will evolve to ignore the signal. However, this is not always the case. Disproportionate populations that favor mimics can evolve in mimicry systems where the model is particularly dangerous (e.g. venemous snakes).[47] For this reason, populous vertebrate Batesian mimics are most common, as vertebrate models are often particularly dangerous to predators or enemies. Still, the protective power of models lessens as the proportion of mimics increases, and every system will reach a critical mass after which the mimicry system becomes evolutionarily unstable.[47]

Ecological differences between vertebrates and insects are assumed to be the source of the different quantitative and qualitative characteristics we observe between the mimicry systems of vertebrates and other animals.[1] The primary difference between mimicry in vertebrates and in insects is a decreased diversity and frequency. The 50,000 extant vertebrates are dwarfed by the over 1 million known invertebrates. This might create a negative feedback loop for vertebrates whereby fewer examples of mimicry evolve due to a rarity of species to mimic, and may help to explain the relative scarcity of precise mimicry in vertebrates.[1] Further, vertebrates seem to have multiple barriers to precise mimicry that invertebrates do not. Due to the drastic difference in average body size between the two phyla, vertebrates tend to mimic other living things, while invertebrates are much better able to mimic inanimate objects.[1][4] Large size makes any imprecision much more noticeable to the naked eye, slowing or preventing the evolution of mimicry. However, when a potential prey is highly noxious, predators that avoid even poor mimics gain a strong selective advantage. Insects are rarely able to deliver enough toxin to threaten vertebrate predators, and therefore need precise mimicry to avoid detection.[1][3]

References

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  1. ^ a b c d e f g h i j Pough, F.H. (1988). "Mimicry of Vertebrates: Are the Rules Different?". The American Naturalist. 131: S67–S102. JSTOR 2461943.
  2. ^ Owen, D. (1982). Camouflage and Mimicry. University Of Chicago Press.
  3. ^ a b c Caro, T. (2014). "Antipredator deception in terrestrial vertebrates" (PDF). Current Zoology. 60 (1): 16–25.
  4. ^ a b Wickler, Wolfgang (1968). Mimicry in Plants and Animals. McGraw-Hill.
  5. ^ a b c Wickler, W.J. "Mimicry | Definition & Examples". Encyclopedia Britannica. Retrieved 2018-11-27.
  6. ^ a b c "Batesian mimicry | zoology". Encyclopedia Britannica. Retrieved 2018-11-28. Cite error: The named reference ":17" was defined multiple times with different content (see the help page).
  7. ^ Summers, K. (2003). "Convergent evolution of bright coloration and toxicity in frogs". Proceedings of the National Academy of Sciences. 100 (22): 12533–12534. doi:10.1073/pnas.2335928100. ISSN 0027-8424. PMID 14569014.
  8. ^ "Roger Conant 1975. A Field Guide to Reptiles and Amphibians of Eastern and Central North America. Illustrated by Isabelle Hunt Conant, 2nd Ed. Houghton Mifflin Co., Boston. 427p w/48 pls and 311 distribution maps". Japanese journal of herpetology. 6 (3): 99–99. 1976. doi:10.5358/hsj1972.6.3_99. ISSN 0285-3191.
  9. ^ a b Pfennig, D.W.; Harcombe, W.R.; Pfennig, K.S. (2001). "Frequency-dependent Batesian mimicry". Nature. 410 (6826): 323. doi:10.1038/35066628. ISSN 0028-0836.
  10. ^ Smith, Charles H.; Beccaloni, George (2008-11-27). Natural Selection and Beyond: The Intellectual Legacy of Alfred Russel Wallace. OUP Oxford. ISBN 9780191553585.
  11. ^ Eaton, R.L. (1976). "A Possible Case of Mimicry in Larger Mammals". Evolution; International Journal of Organic Evolution. 30 (4): 853–856. doi:10.1111/j.1558-5646.1976.tb00971.x. PMID 28563327.
  12. ^ Sherratt, T.N. (2008). "The evolution of Müllerian mimicry". Die Naturwissenschaften. 95 (8): 681–695. doi:10.1007/s00114-008-0403-y. ISSN 0028-1042. PMC 2443389. PMID 18542902.{{cite journal}}: CS1 maint: PMC format (link)
  13. ^ a b Sanders, K. L.; Malhotra, A.; Thorpe, R. S. (2006). "Evidence for a Müllerian mimetic radiation in Asian pitvipers". Proceedings of the Royal Society of London B: Biological Sciences. 273 (1590): 1135–1141. doi:10.1098/rspb.2005.3418. ISSN 0962-8452. PMC 1560257. PMID 16600892.{{cite journal}}: CS1 maint: PMC format (link)
  14. ^ Sanders, K.L.; Malhotra, A.; Thorpe, R.S. (2004). "Ecological diversification in a group of Indomalayan pitvipers (Trimeresurus): convergence in taxonomically important traits has implications for species identification". Journal of Evolutionary Biology. 17 (4): 721–731. doi:10.1111/j.1420-9101.2004.00735.x. ISSN 1010-061X.
  15. ^ a b c Symula, R.; Schulte, R.; Summers, K. (2001). "Molecular phylogenetic evidence for a mimetic radiation in Peruvian poison frogs supports a Müllerian mimicry hypothesis". Proceedings of the Royal Society of London B: Biological Sciences. 268 (1484): 2415–2421. doi:10.1098/rspb.2001.1812. ISSN 0962-8452. PMC 1088895. PMID 11747559.{{cite journal}}: CS1 maint: PMC format (link)
  16. ^ a b c Nekaris, K.A.; Moore, R.S.; Rode, E.J.; Fry, B.G. (September 2013). "Mad, bad and dangerous to know: the biochemistry, ecology and evolution of slow loris venom". The Journal of Venomous Animals and Toxins Including Tropical Diseases. 19 (1): 21. doi:10.1186/1678-9199-19-21. PMC 3852360. PMID 24074353.{{cite journal}}: CS1 maint: multiple names: authors list (link) CS1 maint: unflagged free DOI (link)
  17. ^ Michael, B.; Townsend, C.R.; Harper, J.L. (2006). Ecology: from individuals to ecosystems (Fourth edition ed.). Malden, MA. ISBN 9781405111171. OCLC 57675855. {{cite book}}: |edition= has extra text (help)CS1 maint: location missing publisher (link)
  18. ^ a b Glaudas, X.; Alexander, G. J. (2016). "A lure at both ends: aggressive visual mimicry signals and prey-specific luring behaviour in an ambush-foraging snake". Behavioral Ecology and Sociobiology. 71 (1). doi:10.1007/s00265-016-2244-6.
  19. ^ Drummond, H.; Gordon, E.R. (2010). "Luring in the Neonate Alligator Snapping Turtle (Macroclemys temminckii): Description and Experimental Analysis". Ethology. 50 (2): 136–152. doi:10.1111/j.1439-0310.1979.tb01022.x. ISSN 0044-3573.
  20. ^ Welsh, H.H.; Lind, A.J. (2000). "Evidence of Lingual-Luring by an Aquatic Snake". Journal of Herpetology. 34 (1): 67–74. doi:10.2307/1565240.
  21. ^ a b Reiserer, R.S.; Schuett, G.W. (2008). "Aggressive mimicry in neonates of the sidewinder rattlesnake, Crotalus cerastes (Serpentes: Viperidae): stimulus control and visual perception of prey luring". Biological Journal of the Linnean Society. 95 (1): 81–91. doi:10.1111/j.1095-8312.2008.01016.x.
  22. ^ Schuett, G.W.; Clark, D.L.; Kraus, F. (1984). "Feeding mimicry in the rattlesnake Sistrurus catenatus, with comments on the evolution of the rattle". Animal Behaviour. 32 (2): 625–626. doi:10.1016/s0003-3472(84)80301-2.
  23. ^ Andrade, D.V.; Marques, O.V.; Gavira, R.B.; Barbo, F.E.; Zacariotti, R.L.; Sazima, I. (2010). "Tail Luring by the Golden Lancehead (Bothrops insularis), an Island Endemic Snake from South-Eastern Brazil". South American Journal of Herpetology. 5 (3): 175–180. doi:10.2994/057.005.0302.
  24. ^ a b Fathinia, B.; Rastegar-Pouyani, N.; Rastegar-Pouyani, E.; Todehdehghan, F.; Amiri, F. (2015). "Avian deception using an elaborate caudal lure in Pseudocerastes urarachnoides". Amphibia-Reptilia. 36 (3): 223–231. doi:10.1163/15685381-00002997.
  25. ^ a b Wickler, W. (December 1966). "Mimicry in tropical fishes". Phil. Trans. R. Soc. Lond. B. 251 (772): 473–474. doi:10.1098/rstb.1966.0036.
  26. ^ a b Davies, N. B.; Kilner, R. M.; Noble, D. G. (1998). "Nestling cuckoos, Cuculus canorus, exploit hosts with begging calls that mimic a brood". Proceedings of the Royal Society of London B: Biological Sciences. 265 (1397): 673–678. doi:10.1098/rspb.1998.0346. PMC 1689031.
  27. ^ a b Langmore, N.E.; Maurer, G.; Adcock, G.J.; Kilner, R.M. (2008). "Socially acquired host-specific mimicry and the evolution of host races in Horsfield's bronze-cuckoo Chalcites basalis". Evolution; International Journal of Organic Evolution. 62 (7): 1689–1699. doi:10.1111/j.1558-5646.2008.00405.x. PMID 18419751.
  28. ^ Langmore, N.E.; Stevens, M.; Maurer, G.; Heinsohn, R.; Hall, M.L.; Peters, A.; Kilner, R.M. (2011). "Visual mimicry of host nestlings by cuckoos". Proceedings of the Royal Society of London B: Biological Sciences. 278 (1717): 2455–2463. doi:10.1098/rspb.2010.2391. PMC 3125623. PMID 21227972.
  29. ^ Stoddard, M.C.; Stevens, M. (2010). "Pattern mimicry of host eggs by the common cuckoo, as seen through a bird's eye". Proceedings of the Royal Society of London B: Biological Sciences. 277 (1686): 1387–1393. doi:10.1098/rspb.2009.2018. PMC 2871939. PMID 20053650.
  30. ^ Soler, J.J.; Aviles, J.M.; Soler, M.; Moller, A.P. (2003). "Evolution of host egg mimicry in a brood parasite, the great spotted cuckoo". Biological Journal of the Linnean Society. 79 (4): 551–563. doi:10.1046/j.1095-8312.2003.00209.x. ISSN 0024-4066.
  31. ^ "Parasitism | Definition & Examples". Encyclopedia Britannica. Retrieved 2018-11-27.
  32. ^ a b Prum, R.O. (2014). "Interspecific social dominance mimicry in birds". Zoological Journal of the Linnean Society. 172 (4): 910–941. doi:10.1111/zoj.12192.
  33. ^ NEDVED, O. (2006-10-02). "BOOK REVIEW: Ruxton G.D., Sherratt T.N. & Speed M.P. 2004: AVOIDING ATTACK. The evolutionary ecology of crypsis, warning signals, and mimicry". European Journal of Entomology. 103 (4): 830–830. doi:10.14411/eje.2006.113. ISSN 1210-5759.
  34. ^ Pasteur, G. (1982). "A Classificatory Review of Mimicry Systems". Annual Review of Ecology and Systematics. 13 (1): 169–199. doi:10.1146/annurev.es.13.110182.001125. ISSN 0066-4162.
  35. ^ Racey, P. A.; Skinner, J. D. (2009). "Endocrine aspects of sexual mimicry in Spotted hyaenas Crocuta crocuta". Journal of Zoology. 187 (3): 315–326. doi:10.1111/j.1469-7998.1979.tb03372.x. ISSN 0952-8369.
  36. ^ Frank, L.G. (1997). "Evolution of genital masculinization: why do female hyaenas have such a large 'penis'?". Trends in Ecology & Evolution. 12 (2): 58–62. doi:10.1016/s0169-5347(96)10063-x. ISSN 0169-5347.
  37. ^ Bauer, A.M.; Branch, W.R. (1999). "Field Guide to Snakes and Other Reptiles of Southern Africa". Copeia. 1999 (1): 236. doi:10.2307/1447414. ISSN 0045-8511.
  38. ^ Whiting, M.J.; Webb, J.K.; Keogh, J.S. (2009). "Flat lizard female mimics use sexual deception in visual but not chemical signals". Proceedings of the Royal Society of London B: Biological Sciences. 276 (1662): 1585–1591. doi:10.1098/rspb.2008.1822. ISSN 0962-8452. PMC 2660994. PMID 19324828.{{cite journal}}: CS1 maint: PMC format (link)
  39. ^ Poulton, E.B. (1890). The colours of animals : their meaning and use, especially considered in the case of insects /. New York :: D. Appleton,.{{cite book}}: CS1 maint: extra punctuation (link)
  40. ^ Stevens, M. (2005). "The role of eyespots as anti-predator mechanisms, principally demonstrated in the Lepidoptera". Biological Reviews. 80 (04): 573. doi:10.1017/s1464793105006810. ISSN 1464-7931.
  41. ^ Meadows, D.W. (1993). "Morphological Variation in Eyespots of the Foureye Butterflyfish (Chaetodon capistratus): Implications for Eyespot Function". Copeia. 1993 (1): 235–240. doi:10.2307/1446319. JSTOR 1446319.
  42. ^ "Owl Research Institute". Owl Research Institute. Retrieved 2018-10-23.
  43. ^ Powell, R.A. (1982). "Evolution of Black-Tipped Tails in Weasels: Predator Confusion". The American Naturalist. 119 (1): 126–131. doi:10.1086/283897. ISSN 0003-0147.
  44. ^ Graham, S.P.; Shine, R. (2018). American snakes. Baltimore. ISBN 9781421423593. OCLC 994263218.{{cite book}}: CS1 maint: location missing publisher (link)
  45. ^ Alexander, V.N. (2002). "Nabokov, Teleology, and Insect Mimicry". Nabokov Studies. 7 (1): 177–213. doi:10.1353/nab.2010.0004.
  46. ^ Pfennig, D.W.; Mullen, S.P. (2010). "Mimics without models: causes and consequences of allopatry in Batesian mimicry complexes". Proceedings of the Royal Society of London B: Biological Sciences. 277 (1694): 2577–2585. doi:10.1098/rspb.2010.0586. ISSN 0962-8452. PMID 20484238.
  47. ^ a b c d Wickler, W.J.H. (2018-11-28). "Mimicry - The evolution of mimicry". Encyclopedia Britannica.

Category:Mimicry Category:Evolution of vertebrates

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