Mimicry, Aposematism, and Related Phenomena

Total Page:16

File Type:pdf, Size:1020Kb

Mimicry, Aposematism, and Related Phenomena Stanislav Komárek Mimicry, Aposematism, and related Phenomena Mimetism in Nature and the History of its Study Spilogale putorius in the aposematic display Lincom München Contents Introduction .................................................................................................. 7 Defining the scope of interest ....................................................................... 9 Surface, interiority, similarity, and kinship................................................. 10 The time-period up to the year 1800 .......................................................... 17 The time-period from 1800-1860 ............................................................... 23 The time-period between 1859 and 1900 ................................................... 28 Darwinism and sociomorphic modeling .......................................................................................... 37 Sexual dimorphism and selection, exaggerated structures.............................................................. 44 Wallace’s concept of adaptive coloration ....................................................................................... 50 Aposematism .................................................................................................................................. 55 Wallace’s concept of mimicry ........................................................................................................ 59 Müllerian mimicry ........................................................................................................................... 62 Mimicry rings .................................................................................................................................. 64 The time period from 1890 to 1953 (with a note on later r ............................ development trends up to the nineties of the 20th century)..................... 67 Teachings on mimicry and interpretations of the external appearance of organisms in England ... 67 Poulton, a classic of Darwinian interpretation ................................................................................ 70 Hingston and his original conception of animal coloration .............................................................. 81 Poulton’s coworkers and followers................................................................................................. 84 Research and interpretation of mimetic phenomena a and external appearance of organisms on the Continent ................................................................ 89 Eimer and the problem of animal color patterns ............................................................................. 90 Linking color patterns and Portmann’s concept ............................................................................. 99 Piepers, Wasmann, Heikertinger, and other Continental authors .................................................. 106 Mimicry in plants and fungi ...................................................................... 118 Summary ................................................................................................... 126 Glossary ................................................................................................... 128 Bibliography ............................................................................................ 129 List of Illustrations ................................................................................... 152 Name Index .............................................................................................. 155 Subject Index ............................................................................................ 161 About the author ....................................................................................... 167 5 6 Introduction The history of the research of mimetic phenomena in nature (and the interpretation of the external appearance of organisms generally) has not been studied in depth so far, even thou- gh it is an absolutely pivotal theme in biology, as was noted by Mayr (1982), for example. A certain hint of a historical overview of this research area, albeit not very extensive, none- the-less clear and deep, can by found in certain texts by Heikertinger (1921-27, 1954). Re- search of mimicry as exemplary instances of evolutionary theory was pursued by W. C. Kimler (1982) in his dissertation, which was partially published later in year 1983. This work is an example of Anglo-Saxon point of view, which disregardes almost all continental work on the subject and interprets only the most important Anglo-Saxon authors between the era of natu- ral theology, Bates (1862a), and Neo-Darwinian syntheses of the British population’s genetics in the style of reports on the linear progression of science (this method of research is appli- cable only when considering main-stream British and American research, which gives the impression of cumulation of knowledge). All other approaches, for example Hingston (1933), lead in a different direction, not to mention the continental, especially the German school’s approach to mimetic expressions in nature. At the same time Kimler’s work is not aware of the deeper aspects of mimetic expressions in nature, especially the general problem of forms. However large the extent of knowledge attained by Anglo-Saxon authors in the field of research and theoretical explanations of mimetic phenomena in nature, I consider it necessary to study Continental authors as well, and that for two reasons. First of all, Central European biology and the author himself, belong to this school and intellectual tradition, and secondly the postmodern era characteristically accentuates that, which is often considered marginal. The- se marginal themes have a tendency to become central, if only because central themes lost their potential for development due to intensive exploitation. The materials for this study were gathered from 1985 to 1995, first in Vienna and later in Prague, Leiden, and Amsterdam. The study is complemented by a bibliography (Komárek, 1998), and a database of works about mimetic phenomena, which contains around 5000 entries causing it to be the largest piece of work of this kind ever created. While the bibliography only encompasses the years 1800 to 1990 and concentrates only on cases of mimicry, aposematism, and certain important cases of crypsis, the study itself is wider because it encompasses a larger time period and a broader range of themes, especially concerning the history of the interpretation of the exterior appea- rance of living organisms. For that reason only quotations from the most important texts are cited in this book and in cases of need for a wider referential system the citations will point to the above mentioned Bibliography (in the text with a capital ‘B’). Only works concerning skin and wing patterns of animals, which are not included in the Bibliography, are referred to in full. The goal of this book is to point out the centrality of the problem of resemblance and mimicry in nature and the dependence on the understanding of this phenomena in the biolo- gical paradigm of the given era, the intellectual atmosphere, and the language in which the problem is interpreted. This work can also be interpreted to an extent as an „archeological“ study, because the swamp of forgetfulness, into which most written and later duly published works eventually sink can be more easily compared to studying deep layers of an archeological excavation than to the study of recent, easily accessible knowledge. The myth of linearly pro- gressing science, where nothing disappears beyond the horizon, is one of the most flagrant of unconscious modern hypocrisies. Only after concrete work in libraries, directly with historical texts, does the number of particularities and even complete alternative concepts, which have almost entirely disappeared beyond the horizon, become apparent. This research is similar to uncovering material archeologically or paleontologically, material which is difficult to find and also is to an extent fragmentary and which today does not address us directly, but in the best of cases through its „descendants“. Therefore, it is often strongly derivative making it difficult to trace back to its roots. This permanent masking of the past in science has the advantage that research starts with an almost entirely clean slate and doesn’t drag „deadwood“ from the past along with it (this phenomenon is generally acknowledged even outside of scientific histo- ry, where early Christianity discards „heathen prattle“, the Renaissance „scholastic trash“, Communism and Nazism „city-slicker deadwood“, etc.). It is always necessary to prepare a clean stage so the next generation has room to make themselves known, and this is only possible by moving the clutter of theses and particularities of the older era „off stage“, in other words into 7 the province of forgetfulness. This ends not only in their loss in memory but eventually even their true loss (this doom isn’t limited for example to Alexandrian science, but after another „reorganization of libraries“ may even afflict older layers of the modern period). Every social structure, including modern science, actively and even unconsciously camouflages and lays shadows on its own past. The past, incorporated into skinny textbooks or brochures, can only be viewed in this metamorphosed and simplified or even caricatured form. No historical study can compensate for studying original historical texts for the serious
Recommended publications
  • Geographic and Individual Variation in Carotenoid Coloration in Golden-Crowned Kinglets (Regulus Satrapa)
    University of Windsor Scholarship at UWindsor Electronic Theses and Dissertations Theses, Dissertations, and Major Papers 2009 Geographic and individual variation in carotenoid coloration in golden-crowned kinglets (Regulus satrapa) Celia Chui University of Windsor Follow this and additional works at: https://scholar.uwindsor.ca/etd Recommended Citation Chui, Celia, "Geographic and individual variation in carotenoid coloration in golden-crowned kinglets (Regulus satrapa)" (2009). Electronic Theses and Dissertations. 280. https://scholar.uwindsor.ca/etd/280 This online database contains the full-text of PhD dissertations and Masters’ theses of University of Windsor students from 1954 forward. These documents are made available for personal study and research purposes only, in accordance with the Canadian Copyright Act and the Creative Commons license—CC BY-NC-ND (Attribution, Non-Commercial, No Derivative Works). Under this license, works must always be attributed to the copyright holder (original author), cannot be used for any commercial purposes, and may not be altered. Any other use would require the permission of the copyright holder. Students may inquire about withdrawing their dissertation and/or thesis from this database. For additional inquiries, please contact the repository administrator via email ([email protected]) or by telephone at 519-253-3000ext. 3208. GEOGRAPHIC AND INDIVIDUAL VARIATION IN CAROTENOID COLORATION IN GOLDEN-CROWNED KINGLETS ( REGULUS SATRAPA ) by Celia Kwok See Chui A Thesis Submitted to the Faculty of Graduate Studies through Biological Sciences in Partial Fulfillment of the Requirements for the Degree of Master of Science at the University of Windsor Windsor, Ontario, Canada 2009 © 2009 Celia Kwok See Chui Geographic and individual variation in carotenoid coloration in golden-crowned kinglets (Regulus satrapa ) by Celia Kwok See Chui APPROVED BY: ______________________________________________ Dr.
    [Show full text]
  • 119 Genus Amauris Huebner
    AFROTROPICAL BUTTERFLIES 17th edition (2018). MARK C. WILLIAMS. http://www.lepsocafrica.org/?p=publications&s=atb Genus Amauris Hübner, [1816] In: Hübner, [1816-[1826]. Verzeichniss bekannter Schmettlinge 14 (432 + 72 pp.). Augsburg. Type-species: Papilio niavius Linnaeus, by subsequent designation (Scudder, 1875. Proceedings of the American Academy of Arts and Sciences 10: 108 (91-293).). The genus Amauris belongs to the Family Nymphalidae Rafinesque, 1815; Subfamily Danainae Boisduval, 1833; Tribe Danaini Boisduval, 1833; Subtribe Amaurina Le Cerf, 1922. Amauris is the only Afrotropical genus in the Subtribe Amaurina. Amauris is an exclusively Afrotropical genus containing 16 species. Relevant literature: De Vries, 2002 [Differential wing toughness with other taxa]. Amauris species. Final instar larva. Images courtesy Raimund Schutte Amauris species. Pupa. 1 Image courtesy Raimund Schutte Subgenus Amauris Hübner, [1816] In: Hübner, [1816-26]. Verzeichniss bekannter Schmettlinge 14 (432 + 72 pp.). Augsburg. Type-species: Papilio niavius Linnaeus, by subsequent designation (Scudder, 1875. Proceedings of the American Academy of Arts and Sciences 10: 108 (91-293).). *Amauris (Amauris) niavius (Linnaeus, 1758)# Friar Male of the Friar Butterfly (Amauris niavius) at Lake Sibaya, Zululand. Image courtesy Steve Woodhall. Papilio niavius Linnaeus, 1758. Systema Naturae 1, Regnum Animale, 10th edition: 470 (824 pp.). Holmiae. Amauris (Amauris) niavius (Linnaeus, 1758). Pringle et al., 1994: 48. Amauris niavius niavius. Male (Wingspan 75 mm). Left
    [Show full text]
  • Aposematic Coloration
    Preprint for: Joron, M. 2003. In Encyclopedia of insects (R. T. Cardé & V. H. Resh, eds), pp. 39-45. Academic Press, New York. Aposematic Coloration Mathieu Joron Leiden University nsects attract collectors’ attention because they are ex- tremely diverse and often bear spectacular colors. To I biologists, however, bright coloration has been a con- stantly renewed puzzle because it makes an insect a highly FIGURE 1 Pseudosphinx tetrio hawk moth caterpillar from the Peruvian conspicuous prey to prospective predators. Charles Darwin Amazon showing a combination of red and black, classical colors used by aposematic insects. These larvae feed on toxic latex-sapped trees in understood that bright colors or exaggerated morphologies the Apocynaceae. Length 14 cm. (Photograph © M. Joron, 1999.) could evolve via sexual selection. However, he felt sexual selection could not account for the conspicuous color pattern Unprofitability is difficult to define, and even more difficult of non-reproductive larvae in, for example, Pseudosphinx to measure. It is certainly contextually defined, because the hawk moth caterpillars (Fig. 1). In a reply to Darwin about propensity of an animal to eat something is highly dependent this puzzle, Alfred R. Wallace proposed that bright colors on its level of hunger and its ability to use the prey for energy could advertise the unpalatability of the caterpillars to experi- once eaten. Palatability (i.e., the predator’s perception of prey enced predators. Indeed, prey that are not edible to predators profitability), greatly determines whether the predator will or are predicted to gain by exhibiting conspicuous and very rec- will not eat the prey.
    [Show full text]
  • Borneo: Broadbills & Bristleheads
    TROPICAL BIRDING Trip Report: BORNEO June-July 2012 A Tropical Birding Set Departure Tour BORNEO: BROADBILLS & BRISTLEHEADS RHINOCEROS HORNBILL: The big winner of the BIRD OF THE TRIP; with views like this, it’s easy to understand why! 24 June – 9 July 2012 Tour Leader: Sam Woods All but one photo (of the Black-and-yellow Broadbill) were taken by Sam Woods (see http://www.pbase.com/samwoods or his blog, LOST in BIRDING http://www.samwoodsbirding.blogspot.com for more of Sam’s photos) 1 www.tropicalbirding.com Tel: +1-409-515-0514 E-mail: [email protected] TROPICAL BIRDING Trip Report: BORNEO June-July 2012 INTRODUCTION Whichever way you look at it, this year’s tour of Borneo was a resounding success: 297 bird species were recorded, including 45 endemics . We saw all but a few of the endemic birds we were seeking (and the ones missed are mostly rarely seen), and had good weather throughout, with little rain hampering proceedings for any significant length of time. Among the avian highlights were five pitta species seen, with the Blue-banded, Blue-headed, and Black-and-crimson Pittas in particular putting on fantastic shows for all birders present. The Blue-banded was so spectacular it was an obvious shoe-in for one of the top trip birds of the tour from the moment we walked away. Amazingly, despite absolutely stunning views of a male Blue-headed Pitta showing his shimmering cerulean blue cap and deep purple underside to spectacular effect, he never even got a mention in the final highlights of the tour, which completely baffled me; he simply could not have been seen better, and birds simply cannot look any better! However, to mention only the endemics is to miss the mark, as some of the, other, less local birds create as much of a stir, and can bring with them as much fanfare.
    [Show full text]
  • Mimicry and Defense
    3/24/2015 Professor Donald McFarlane Mimicry and Defense Protective Strategies Camouflage (“Cryptic coloration”) Diverse Coloration Diversion Structures Startle Structures 2 1 3/24/2015 Camouflage (“Cryptic coloration”) Minimize 3d shape, e.g. flatfish Halibut (Hippoglossus hippoglossus) 3 4 2 3/24/2015 Counter‐Shading 5 Disruptive Coloration 6 3 3/24/2015 Polymorphism – Cepeae snails 7 Polymorphism – Oophaga granuliferus 8 4 3/24/2015 Polymorphism – 9 Polymorphism – Oophaga Geographic locations of study populations and their color patterns. (A) Map of the pacific coast of Colombia showing the three study localities: in blue Oophaga histrionica, in orange O. lehmanni, and in green the pHYB population. (B) Examples of color patterns of individuals from the pHYB population (1–4) and the pattern from a hybrid between Oophaga histrionica and O. lehmanni bred in the laboratory (H) 10 5 3/24/2015 Diversion Structures 11 Startle Structures 12 6 3/24/2015 Warning Coloration (Aposematic coloration) Advertise organism as distasteful, toxic or venomous Problem: Predators must learn by attacking prey; predator learning is costly to prey. Therefore strong selective pressure to STANDARDIZE on a few colors/patterns. This is MULLERIAN MIMICRY. Most common is yellow/black, or red/yellow/black 13 Warning Coloration (Aposematic coloration) Bumblebee (Bombus Black and yellow mangrove snake (Boiga sp.) Sand Wasp (bembix oculata) dendrophila) Yellow‐banded poison dart frog (Dendrobates leucomelas Fire salamander ( Salamandra salamandra) 14 7 3/24/2015 Warning Coloration (Aposematic coloration) coral snakes (Micrurus sp.) ~ 50 species in two families, all venomous 15 Batesian Mimicry 1862 –Henry Walter Bates; “A Naturalist on the River Amazons” 16 8 3/24/2015 Batesian Mimicry Batesian mimics “cheat” –they lack toxins, venom, etc.
    [Show full text]
  • Dynamics of Salticid-Ant Mimicry Systems
    ResearchOnline@JCU This file is part of the following reference: Ceccarelli, Fadia Sara (2006) Dynamics of salticid-ant mimicry systems. PhD thesis, James Cook University. Access to this file is available from: http://eprints.jcu.edu.au/1311/ If you believe that this work constitutes a copyright infringement, please contact [email protected] and quote http://eprints.jcu.edu.au/1311/ TITLE PAGE Dynamics of Salticid-Ant Mimicry Systems Thesis submitted by Fadia Sara CECCARELLI BSc (Hons) in March 2006 for the degree of Doctor of Philosophy in Zoology and Tropical Ecology within the School of Tropical Biology James Cook University I STATEMENT OF ACCESS I, the undersigned author of this thesis, understand that James Cook University will make it available for use within the University Library and, by microfilm or other means, allow access to users in other approved libraries. All users consulting this thesis will have to sign the following statement: In consulting this thesis I agree not to copy or closely paraphrase it in whole of part without the written consent of the author; and to make proper public written acknowledgement for any assistance which I have obtained from it. Beyond this, I do not wish to place any restriction on access to this thesis. ------------------------------ -------------------- F. Sara Ceccarelli II ABSTRACT Mimicry in arthropods is seen as an example of evolution by natural selection through predation pressure. The aggressive nature of ants, and their possession of noxious chemicals, stings and strong mandibles make them unfavourable prey for many animals. The resemblance of a similar-sized arthropod to an ant can therefore also protect the mimic from predation.
    [Show full text]
  • And Ford, I; Ford, '953) on the Other Hand Have Put Forward a View Intermediate Between the Extreme Ones of Darwin on the One Hand and Goldschmidt on the Other
    THE EVOLUTION OF MIMICRY IN THE BUTTERFLY PAPILIO DARDANUS C. A. CLARKE and P. M. SHEPPARD Departments of Medicine and Zoology, University of Liverpool Received23.V.59 1.INTRODUCTION WHENBatesputforward the mimicry hypothesis which bears his name, Darwin (1872), although accepting it, had some difficulty in explaining the evolution of the mimetic resemblance of several distinct species to one distasteful model by a series of small changes, a require- ment of his general theory of evolution. He said "it is necessary to suppose in some cases that ancient members belonging to several distinct groups, before they had diverged to their present extent, accidentally resembled a member of another and protected group in a sufficient degree to afford some slight protection; this having given the basis for the subsequent acquisition of the most perfect resemb- lance ". Punnett (1915) realised that the difficulty is even more acute when one is dealing with a polymorphic species whose forms mimic very distantly related models. Knowing that, in those butterflies which had been investigated genetically, the forms differed by single allelomorphs he concluded that the mimicry did not evolve gradually and did not confer any advantage or disadvantage to the individual. He argued that an allelomorph arises at a single step by mutation and that therefore the mimicry also arises by chance at a single step. Goldschmidt (x) although not denying that mimicry confers some advantage to its possessors also maintained that the resemblance arises fully perfected by a single mutation of a gene distinct from that producing the colour pattern in the model, but producing a similar effect in the mimic.
    [Show full text]
  • Predatory Behavior of Jumping Spiders
    Annual Reviews www.annualreviews.org/aronline Annu Rev. Entomol. 19%. 41:287-308 Copyrighl8 1996 by Annual Reviews Inc. All rights reserved PREDATORY BEHAVIOR OF JUMPING SPIDERS R. R. Jackson and S. D. Pollard Department of Zoology, University of Canterbury, Christchurch, New Zealand KEY WORDS: salticids, salticid eyes, Portia, predatory versatility, aggressive mimicry ABSTRACT Salticids, the largest family of spiders, have unique eyes, acute vision, and elaborate vision-mediated predatory behavior, which is more pronounced than in any other spider group. Diverse predatory strategies have evolved, including araneophagy,aggressive mimicry, myrmicophagy ,and prey-specific preycatch- ing behavior. Salticids are also distinctive for development of behavioral flexi- bility, including conditional predatory strategies, the use of trial-and-error to solve predatory problems, and the undertaking of detours to reach prey. Predatory behavior of araneophagic salticids has undergone local adaptation to local prey, and there is evidence of predator-prey coevolution. Trade-offs between mating and predatory strategies appear to be important in ant-mimicking and araneo- phagic species. INTRODUCTION With over 4000 described species (1 l), jumping spiders (Salticidae) compose by Fordham University on 04/13/13. For personal use only. the largest family of spiders. They are characterized as cursorial, diurnal predators with excellent eyesight. Although spider eyes usually lack the struc- tural complexity required for acute vision, salticids have unique, complex eyes with resolution abilities without known parallels in animals of comparable size Annu. Rev. Entomol. 1996.41:287-308. Downloaded from www.annualreviews.org (98). Salticids are the end-product of an evolutionary process in which a small silk-producing animal with a simple nervous system acquires acute vision, resulting in a diverse array of complex predatory strategies.
    [Show full text]
  • INTERNATIONAL JOURNAL of RESEARCH –GRANTHAALAYAH a Knowledge Repository Art
    [Conference-Composition of Colours :December , 2014 ] ISSN- 2350-0530 DOI: https://doi.org/10.29121/granthaalayah.v2.i3SE.2014.3515 INTERNATIONAL JOURNAL of RESEARCH –GRANTHAALAYAH A knowledge Repository Art PROTECTIVE COLORATION IN ANIMALS Leena Lakhani Govt. Girls P.G. College, Ujjain (M.P.) India [email protected] INTRODUCTION Animals have range of defensive markings which helps to the risk of predator detection (camouflage), warn predators of the prey’s unpalatability (aposematism) or fool a predator into mimicry, masquerade. Animals also use colors in advertising, signalling services such as cleaning to animals of other species, to signal sexual status to other members of the same species. Some animals use color to divert attacks by startle (dalmatic behaviour), surprising a predator e.g. with eyespots or other flashes of color or possibly by motion dazzle, confusing a predator attack by moving a bold pattern like zebra stripes. Some animals are colored for physical protection, such as having pigments in the skin to protect against sunburn; some animals can lighten or darken their skin for temperature regulation. This adaptive mechanism is known as protective coloration. After several years of evolution, most animals now achieved the color pattern most suited for their natural habitat and role in the food chains. Animals in the world rely on their coloration for either protection from predators, concealment from prey or sexual selection. In general the purpose of protective coloration is to decrease an organism’s visibility or to alter its appearance to other organisms. Sometimes several forms of protective coloration are superimposed on one animal. TYPES OF PROTECTIVE COLORATION PREVENTIVE DETECTION AND RECOGNITION CRYPSIS AND DISRUPTION Cryptic coloration helps to disguise an animal so that it is less visible to predators or prey.
    [Show full text]
  • Hyperspectral Imaging of Cuttlefish Camouflage Indicates Good Color
    Hyperspectral imaging of cuttlefish camouflage indicates good color match in the eyes of fish predators Chuan-Chin Chiaoa,b,1, J. Kenneth Wickiserc, Justine J. Allena,d, Brock Genterc, and Roger T. Hanlona,e aMarine Biological Laboratory, Woods Hole, MA 02543; bDepartment of Life Science, National Tsing Hua University, Hsinchu, Taiwan 30013; cDepartment of Chemistry and Life Science, United States Military Academy, West Point, NY 10996; and Departments of dNeuroscience and eEcology and Evolutionary Biology, Brown University, Providence, RI 02912 Edited* by A. Kimball Romney, University of California, Irvine, CA, and approved April 13, 2011 (received for review December 30, 2010) Camouflage is a widespread phenomenon throughout nature and hyperspectral image is typically captured by scanning the 2D an important antipredator tactic in natural selection. Many visual sensor either spectrally or spatially in the third dimension to predators have keen color perception, and thus camouflage acquire the 3D data cube of which the z axis normally represents patterns should provide some degree of color matching in addition the reflectance spectrum of the corresponding point in the scene. to other visual factors such as pattern, contrast, and texture. Camouflage is the primary defense of coleoid cephalopods Quantifying camouflage effectiveness in the eyes of the predator (octopus, squid, and cuttlefish) and their rapidly adaptable body is a challenge from the perspectives of both biology and optical patterning system is among the most sophisticated in the animal imaging technology. Here we take advantage of hyperspectral kingdom (21–23). The expression of camouflaged body patterns imaging (HSI), which records full-spectrum light data, to simulta- in cuttlefish is a visually driven behavior.
    [Show full text]
  • Mimicry - Ecology - Oxford Bibliographies 12/13/12 7:29 PM
    Mimicry - Ecology - Oxford Bibliographies 12/13/12 7:29 PM Mimicry David W. Kikuchi, David W. Pfennig Introduction Among nature’s most exquisite adaptations are examples in which natural selection has favored a species (the mimic) to resemble a second, often unrelated species (the model) because it confuses a third species (the receiver). For example, the individual members of a nontoxic species that happen to resemble a toxic species may dupe any predators by behaving as if they are also dangerous and should therefore be avoided. In this way, adaptive resemblances can evolve via natural selection. When this phenomenon—dubbed “mimicry”—was first outlined by Henry Walter Bates in the middle of the 19th century, its intuitive appeal was so great that Charles Darwin immediately seized upon it as one of the finest examples of evolution by means of natural selection. Even today, mimicry is often used as a prime example in textbooks and in the popular press as a superlative example of natural selection’s efficacy. Moreover, mimicry remains an active area of research, and studies of mimicry have helped illuminate such diverse topics as how novel, complex traits arise; how new species form; and how animals make complex decisions. General Overviews Since Henry Walter Bates first published his theories of mimicry in 1862 (see Bates 1862, cited under Historical Background), there have been periodic reviews of our knowledge in the subject area. Cott 1940 was mainly concerned with animal coloration. Subsequent reviews, such as Edmunds 1974 and Ruxton, et al. 2004, have focused on types of mimicry associated with defense from predators.
    [Show full text]
  • Müllerian and Batesian Mimicry Rings of White- Variegated Aposematic Spiny and Thorny Plants: a Hypothesis
    Israel Journal of Plant Sciences ISSN: 0792-9978 (Print) 2223-8980 (Online) Journal homepage: http://www.tandfonline.com/loi/tips20 Müllerian and Batesian mimicry rings of white- variegated aposematic spiny and thorny plants: A hypothesis Simcha Lev-Yadun To cite this article: Simcha Lev-Yadun (2009) Müllerian and Batesian mimicry rings of white- variegated aposematic spiny and thorny plants: A hypothesis, Israel Journal of Plant Sciences, 57:1-2, 107-116 To link to this article: http://dx.doi.org/10.1560/IJPS.57.1-2.107 Published online: 14 Mar 2013. Submit your article to this journal Article views: 41 View related articles Citing articles: 1 View citing articles Full Terms & Conditions of access and use can be found at http://www.tandfonline.com/action/journalInformation?journalCode=tips20 Download by: [Universitaire De Lausanne] Date: 03 May 2016, At: 02:12 Israel Journal of Plant Sciences Vol. 57 2009 pp. 107–116 DOI: 10.1560/IJPS.57.1–2.107 This paper has been contributed in honor of Azaria Alon on the occasion of his 90th birthday. Müllerian and Batesian mimicry rings of white-variegated aposematic spiny and thorny plants: A hypothesis SIMCHA LEV-YADUN Department of Science Education–Biology, Faculty of Science and Science Education, University of Haifa—Oranim, Tivon 36006, Israel (Received 4 August 2008; accepted in revised form 9 March 2009) ABSTRACT Twenty-one wild spiny or thorny plant species growing in Israel have been found so far that are conspicuous because of white stripes and spots found on their leaves. Twenty of these species occupy open habitats, and only one is a climber (Smilax aspera) that is found in both shady and open habitats.
    [Show full text]