Description

Book Synopsis
Deals with all aspects of adaptive resemblance Full colourCovers everything from classic examples of Batesian, Mullerian, aggressive and sexual mimicries through to human behavioural and microbial molecular deceptionsHighlights areas where additonal work or specific exeprimentation could be fruitfulIncludes, animals, plants, micro-organisms and humans

Table of Contents

Preface, xiii

A comment on statistics, xv

A comment on scientific names, xvi

Acknowledgements, xvii

1 INTRODUCTION AND CLASSIFICATION OF MIMICRY SYSTEMS, 1

A brief history, 2

On definitions of ‘mimicry’ and adaptive resemblance, 3

The concept of ‘adaptive resemblance’, 8

The classification of mimicry systems, 9

Wickler’s system, 9

Vane‐Wright’s system, 10

Georges Pasteur (1930–2015), 11

Other approaches, 13

Endler, 13

Zabka & Tembrock, 13

Maran, 14

Mimicry as demonstration of evolution, 14

2 CAMOUFLAGE: CRYPSIS AND DISRUPTIVE COLOURATION IN ANIMALS, 19

Introduction, 20

Distinguishing crypsis from masquerade, 20

Crypsis examples, 24

Countershading, 24

Experimental tests of concealment by countershading, 27

Bioluminescent counter‐illumination, 28

Background matching, 29

Visual sensitivity of predators, 30

To make a perfect match or compromise, 31

Colour polymorphism, 32

Seasonal colour polymorphism, 32

Butterfly pupal colour polymorphism, 32

Winter pelage: pelts and plumage, 35

Melanism, 37

Industrial melanism, 37

Fire melanism, 40

Background selection, 41

Orientation and positioning, 43

Transparency, 45

Reflectance and silvering, 47

Adaptive colour change, 49

Caterpillars and food plant colouration, 50

Daily and medium‐paced changes, 54

Rapid colour change, 56

Chameleons, 56

Cephalopod chromatophores and dermal papillae, 57

Bird eggs and their backgrounds, 58

Disguising your eyes, 61

Disruptive and distractive markings, 61

Edge‐intercepting patches, 61

Distractive markings, 63

Zebra stripes and tsetse flies, 66

Stripes and motion dazzle – more zebras, kraits and tigers, 69

Computer graphics experiments with human subjects, 69

Observations on real animals, 69

Comparative analysis, 71

Dual signals, 72

Protective crypsis in non‐visual modalities, 73

Apostatic and antiapostatic selection, 73

Search images, 74

Experimental tests of search image, 76

Gestalt perception, 76

Effect of cryptic prey variability, 77

Reflexive selection and aspect diversity, 77

Searching for cryptic prey – mathematical models, 80

Ontogenetic changes and crypsis, 81

Hiding the evidence, 82

Petiole clipping by caterpillars, 82

Exogenous crypsis, 82

Military camouflage and masquerade, 85

3 CAMOUFLAGE: MASQUERADE, 87

Introduction, 88

Classic examples, 88

Twigs as models, 88

Leaves (alive or dead) as models, 88

Bird dropping resemblances, 89

Spider web stabilimenta, 93

Tubeworms, etc., 94

Experimental tests of survival value of masquerade, 94

Ontogenetic changes and masquerade, 97

Thanatosis (death feigning), 97

Feign or flee? The trade‐offs of thanatosis, 100

Other aspects of death mimicry, 100

Seedless seeds and seedless fruit, 100

4 APOSEMATISM AND ITS EVOLUTION, 103

Introduction, 104

Initial evolution of aposematism, 108

Associations of unpalatable experience with place, 109

Mathematical models and ideas of warning colouration evolution, 112

Kin selection models, 112

Green beard selection, 112

Family selection models, 113

Individual selection models, 113

Spatial models and metapopulations, 116

Handicap and signal honesty, 117

Early warnings – reflex bleeding, vomiting and other noxious secretions, 120

Longevity of aposematic protected taxa, 121

Macroevolutionary consequences, 121

Experimental studies, 121

Tough aposematic prey and individual selection, 121

Pyrazine and other early warnings, 123

Learning and memorability, 124

Strength of obnoxiousness, 126

Is the nature of the protective compound important?, 126

Neophobia and the role of novelty, 127

Innate responses of predators, 130

Aposematism and gregariousness, 132

Phylogenetic analysis of aposematism and gregariousness, 134

Behaviour of protected aposematic animals, 135

Of birds and butterflies, 135

Evolution of sluggishness, 139

Origins of protective compounds, 140

Plant‐derived toxins, 140

Cardiac glycosides, 141

Pyrrolizidine alkaloids, 144

De novo synthesis of protective compounds, 145

Obtaining toxins from animal sources, 147

Costs of chemical defence, 149

Aposematism with non‐chemical defence, 150

Escape speed and low profitability, 150

Parasitoids and aposematic insects, 152

Diversity of aposematic forms, 152

Egg load assessment, 154

Proof of aposematism, 154

Bioluminescence as a warning signal, 155

Warning sounds, 155

Warning colouration in mammals, 157

Weapon advertisement, 158

Mutualistic aposematism, 160

Aposematism induced by a parasite, 161

Aposematic commensalism, 161

Polymorphism and geographic variation in aposematic species, 161

Aposematism in plants, 163

Synergistic selection of unpalatability in plants, 165

Aposematism in fungi, 166

Why are some unpalatable organisms aposematic and others not?, 167

5 ANTI‐PREDATOR MIMICRY. I. MATHEMATICAL MODELS, 171

Introduction, 172

Properties of models, rewards, learning rates and numerical relationships, 172

Simple models and their limitations, 173

Muller’s original model, 173

Simple models of Batesian and Mullerian mimicry, 173

Are Batesian and Mullerian mimicry different?, 174

An information theory model, 176

Monte‐Carlo simulations, 177

More refined models – time, learning, forgetting and sampling, 180

Importance of alternative prey, 181

Signal detection theory, 181

Genetic and evolutionary models, 182

Coevolutionary chases, 185

Models involving population dynamics, 185

Neural networks and evolution of Batesian mimicry, 188

Automimicry in Batesian/Mullerian mimicry, 188

Predator’s dilemma with potentially harmful prey, 190

6 ANTI‐PREDATOR MIMICRY. II. EXPERIMENTAL TESTS, 191

Introduction, 192

Experimental tests of mimetic advantage, 192

How similar do mimics need to be?, 194

Is a two‐step process necessary?, 198

Relative abundances of models and mimics in nature, 198

Sex‐limited mimicries and mimetic load, 198

Mimetic load, 203

Apostatic selection and Batesian mimicry, 204

Mullerian mimicry and unequal defence, 204

Imperfect (satyric) mimicry, 206

7 ANTI‐PREDATOR MIMICRY. III. BATESIAN AND MULLERIAN EXAMPLES, 213

Introduction, 214

Types of model, 214

Mimicry of slow flight in butterflies, 214

The Batesian/Mullerian spectrum, 215

Famous butterflies: ecology, genetics and supergenes, 216

Heliconius, 216

Hybrid zones, 217

Wing pattern genetics, 219

Modelling polymorphism, 220

Danaus and Hypolimnas, 220

Papilio dardanus, 221

Papilio glaucus, 223

Papilio memnon, 223

Supergenes and their origins, 223

Mimicry between caterpillars, 224

Some specific types of model among insects, 225

Wasp (and bee) mimicry, 225

How to look like a wasp, 228

Time of appearance of aculeate mimics, 228

Pseudostings and pseudostinging behaviour, 230

Wasmannian (or ant) mimicry, 231

Ant mimicry as defence against predation, 231

Ant mimicry by spiders, 234

Spiders that feed on ants, 236

How to look like an ant or an ant carrying something?, 236

Myrmecomorphy by caterpillars, 237

Ant chemical mimicry by parasitoid wasps, 237

Protective mimicries among vertebrates, 239

Fish, 239

Batesian mimicry among fish, 239

Mullerian mimicry among fish, 239

Batesian and Mullerian mimicry among terrestrial vertebrates, 239

The coral snake problem – Emsleyan (or Mertensian) mimicry, 240

Other snakes, zig‐zag markings and head shape, 244

Mimicry of invertebrates by terrestrial vertebrates, 246

Inaccurate (satyric) mimics, 248

Mimicry of model behaviour, 249

Aide mémoire mimicry, 250

Batesian–Poultonian (predator) mimicry, 251

Mimicry within predator–prey and host–parasite systems, 253

Bluff and appearing larger than you are, 253

Collective mimicry including an aggressive mimicry, 255

Jamming, 255

Man as model – the case of the samurai crab, 258

8 ANTI‐PREDATOR MIMICRY. ATTACK DEFLECTION, SCHOOLING, ETC., 259

Introduction, 260

Attack deflection devices, 260

Eyespots, 260

Experimental tests of importance of eyespot features, 262

Eyespots in butterflies, 266

Wing marginal eyespots, 267

Eyes with sparkles, 267

Eyespots on caterpillars, 269

Importance of eyespot conspicuousness, 269

Eyespots and fish, 269

Not just an eyespot but a whole head, winking and other enhancements, 271

Reverse mimicry, 271

Insects, 271

Reverse mimicry in flight, 275

Reverse mimicry in terrestrial vertebrates, 275

Other deflectors, 277

Injury feigning in nesting birds, 277

Tail‐shedding (urotomy) in lizards and snakes, 277

Flash and startle colouration, 280

Intimidating displays and bizarre mimicries, 283

Schooling, flocking and predator confusion, 284

‘Social’ mimicry in birds and fish, 286

Alarm call mimicry for protection, 287

9 ANTI‐HERBIVORY DECEPTIONS, 289

Introduction, 290

Crypsis as protection in plants, 290

Leaf mottling and variegation for crypsis, 291

Mistletoes and lianas, 293

Fruit masquerade by leaves, 294

Protective Batesian and Mullerian mimicry in plants, 295

False indicators of damage or likely future damage, 296

Conspicuousness of leafmines, 297

Dark central florets in some Apiaceae, 297

Mimicry of silk or fungal hyphae, 299

Insect egg mimics, 299

Defensive aphid and caterpillar mimicry in plants, 300

Aphid deterrence by alarm pheromone mimicry, 300

Ant mimicry in plants, 301

Of orchids and bees, 301

Carrion mimicry as defence, 302

Algae and corals, 302

Plant galls, 302

Experimental evidence for plant aposematism and Batesian mimetic potential in plants, 302

10 AGGRESSIVE DECEPTIONS, 305

Introduction, 306

Cryptic versus alluring features, 307

Crypsis and masquerade by predators, 307

Stealth, 307

Shadowing, 308

Seasonal polymorphisms in predators, 308

Why seabirds are black and white (and grey), 309

Chemical crypsis by a predatory fish, 309

Alluring mimicries, 310

Flower mimicry, 312

Rain mimicry, 315

Physical lures, 315

Angling fish, 315

Caudal (and tongue) lures in reptiles, 317

Caudal lure in a dragonfly, 318

Death feigning as a lure, 318

Other prey and food mimicry, 319

The case of the German cockroach, 319

Wolves in sheeps’ clothing, 319

Vulture‐like hawks, 319

Cleaner fish and their mimics, 320

Mingling with an innocuous crowd, 322

Duping by mimicry of competitors, 323

Seeming to be conspecific, 324

Getting close, 325

Appearing to be a potential mate, 325

Pheromone lures, 326

Mimicking danger as a flushing device, 328

Human use of aggressive mimicry, 328

Cuckoldry, inquilines and brood parasitism, 329

Cuckoldry in birds, 329

Gentes and ‘cuckoo’ eggs, 332

Cues for egg rejection, 335

Mimicry by chicks – genetic and substantive differences, 338

Cuckoo chick appearance, 338

Begging calls, 339

Cuckoo and host coevolution, 340

Mimicry between adult cuckoos and their hosts, 340

Hawk mimicry by adult cuckoos, 340

Mimicry of harmless birds by adult cuckoos, 342

Brood parasitism and inquilinism in social insects, 342

Cuckoo bees and cuckoo wasps, 342

Kleptoparasites of bees, 346

Myrmecophily, 346

Acquired chemical mimicry in social parasites and inquilines, 346

Brood‐parasitic and slave‐making ants, 348

Chemical mimicry and ant and termite inquilines, 349

A brood‐parasitic aphid, 349

Ants and aphid trophallaxis, 349

Aphidiine parasitoids of ant‐attended aphids, 350

Does aggressive mimicry occur in plants?, 350

11 SEXUAL MIMICRIES IN ANIMALS (INCLUDING HUMANS), 353

Introduction, 354

Mimicking the opposite sex, 354

Female mimicry by males, 354

Avoiding aggression from competing males, 357

Mate guarding through distracting other males, 357

Androchromatism and male mimicry by females, 358

Egg dummies on fish, 360

Food dummies and sex, 362

Mimicry by sperm‐dependent all‐female lineages, 363

Female genital mimicry in a female, 363

Energy‐saving cheating for sex, 364

Behavioural deceptions in higher vertebrates, 364

Polygynous birds, 364

Deceptive use of alarm calls and paternity protection, 365

Female–female mounting behaviour in mammals and birds, 365

Mimicry in humans, 367

Make‐up, clothes and silicone, 367

Cryptic oestrus in humans, 368

Flirting in humans, 368

12 REPRODUCTIVE MIMICRIES IN PLANTS, 371

Introduction, 372

Pollinator deception, 372

Pollinator sex pheromone mimicry, 376

Food deception, 382

Specific floral mimicry, 382

Generalised floral mimicry, 386

Mimicry of a fungus‐infected plant, 388

Brood‐site/oviposition‐site deception, 388

Shelter mimicry, 392

Flower similarity over time, 392

Flower automimicry – intraspecific food deception (bakerian mimicry), 393

Mathematical modelling of sexual deception by plants, 394

Pollinator guild syndromes, 394

Bird‐pollinated systems, 394

13 INTRA‐ AND INTERSPECIFIC COOPERATION, COMPETITION AND HIERARCHIES, 399

Introduction, 400

Remaining looking young, 400

Delayed plumage maturation, 400

Interspecific social dominance mimicry, 401

Bird song and alarm call mimicry – deceptive acquisition of resources, 401

Wicklerian mimicry – mimicry of opposite sex to reduce aggression, 403

Female resemblance in male primates, 403

Social appeasement by female mimicry in an insect, 404

Hyperfemininity in prereproductive adolescent primates, 404

Mimicry of male genitalia by females, 404

The case of the spotted hyaena, 404

Mimicry of male genitalia in other mammals, 404

Phallic mimicry by males, 405

Appetitive (foraging) mimicry, 406

Appetitive mimicry and deceptive use of alarm calls, 406

Beau Geste and seeming to be more than you are, 408

Appearing older than you are, 408

Weapon automimicry, 408

14 ADAPTIVE RESEMBLANCES AND DISPERSAL: SEEDS, SPORES AND EGGS, 409

Introduction, 410

Fruit and seed dispersal by birds, 410

Warningly coloured fruit, 414

Fruit mimicry by seeds, 414

Seed dispersal by humans, arable weeds and Vavilovian mimicry, 414

Seed elaiosomes and their insect mimics, 415

Mimicry by parasites to facilitate host finding, 415

The trematode and the snail, 415

The trematode and the fish, 416

Pocketbook clams and fish, 416

‘Termite balls’, 417

Pseudoflowers, pseudo‐anthers and pseudo‐pollen, 417

Truffles, 418

Mimicry of dead flesh by fungi and mosses, 419

Deception of dung beetles by fruit, 419

15 MOLECULAR MIMICRY: PARASITES, PATHOGENS AND PLANTS, 421

Introduction, 422

Macro‐animal systems, 422

Anemone fish, 422

Parasitic helminthes, 422

Platyhelminthes (Trematoda), 422

Tapeworms (Platyhelminthes: Cestoda), 423

Parasitic nematodes, 423

Parasitoid wasp eggs, 424

Pathogenic fungi, 424

Protista, 424

Chagas’ disease, 424

Microbial systems, 424

Bacterial chemical mimicry and autoimmune responses, 424

Helicobacter pylori, 425

Campylobacter jejuni, 425

Mimicry by plant‐pathogenic bacteria, 425

Viruses, 425

Plants, 425

Sugar, toxin and satiation mimicry, 425

Phytoecdysteroids – plant chemicals that mimicinsect moulting hormone, 427

Plant oestrogens – phyto‐contraceptives, 427

Extended glossary, 429

References, 445

Author index, 515

General index, 533

Taxonomic index, 539

Mimicry Crypsis Masquerade and other Adaptive

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    A Hardback by Donald L. J. Quicke

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      Publisher: John Wiley and Sons Ltd
      Publication Date: 06/10/2017
      ISBN13: 9781118931530, 978-1118931530
      ISBN10: 111893153X

      Description

      Book Synopsis
      Deals with all aspects of adaptive resemblance Full colourCovers everything from classic examples of Batesian, Mullerian, aggressive and sexual mimicries through to human behavioural and microbial molecular deceptionsHighlights areas where additonal work or specific exeprimentation could be fruitfulIncludes, animals, plants, micro-organisms and humans

      Table of Contents

      Preface, xiii

      A comment on statistics, xv

      A comment on scientific names, xvi

      Acknowledgements, xvii

      1 INTRODUCTION AND CLASSIFICATION OF MIMICRY SYSTEMS, 1

      A brief history, 2

      On definitions of ‘mimicry’ and adaptive resemblance, 3

      The concept of ‘adaptive resemblance’, 8

      The classification of mimicry systems, 9

      Wickler’s system, 9

      Vane‐Wright’s system, 10

      Georges Pasteur (1930–2015), 11

      Other approaches, 13

      Endler, 13

      Zabka & Tembrock, 13

      Maran, 14

      Mimicry as demonstration of evolution, 14

      2 CAMOUFLAGE: CRYPSIS AND DISRUPTIVE COLOURATION IN ANIMALS, 19

      Introduction, 20

      Distinguishing crypsis from masquerade, 20

      Crypsis examples, 24

      Countershading, 24

      Experimental tests of concealment by countershading, 27

      Bioluminescent counter‐illumination, 28

      Background matching, 29

      Visual sensitivity of predators, 30

      To make a perfect match or compromise, 31

      Colour polymorphism, 32

      Seasonal colour polymorphism, 32

      Butterfly pupal colour polymorphism, 32

      Winter pelage: pelts and plumage, 35

      Melanism, 37

      Industrial melanism, 37

      Fire melanism, 40

      Background selection, 41

      Orientation and positioning, 43

      Transparency, 45

      Reflectance and silvering, 47

      Adaptive colour change, 49

      Caterpillars and food plant colouration, 50

      Daily and medium‐paced changes, 54

      Rapid colour change, 56

      Chameleons, 56

      Cephalopod chromatophores and dermal papillae, 57

      Bird eggs and their backgrounds, 58

      Disguising your eyes, 61

      Disruptive and distractive markings, 61

      Edge‐intercepting patches, 61

      Distractive markings, 63

      Zebra stripes and tsetse flies, 66

      Stripes and motion dazzle – more zebras, kraits and tigers, 69

      Computer graphics experiments with human subjects, 69

      Observations on real animals, 69

      Comparative analysis, 71

      Dual signals, 72

      Protective crypsis in non‐visual modalities, 73

      Apostatic and antiapostatic selection, 73

      Search images, 74

      Experimental tests of search image, 76

      Gestalt perception, 76

      Effect of cryptic prey variability, 77

      Reflexive selection and aspect diversity, 77

      Searching for cryptic prey – mathematical models, 80

      Ontogenetic changes and crypsis, 81

      Hiding the evidence, 82

      Petiole clipping by caterpillars, 82

      Exogenous crypsis, 82

      Military camouflage and masquerade, 85

      3 CAMOUFLAGE: MASQUERADE, 87

      Introduction, 88

      Classic examples, 88

      Twigs as models, 88

      Leaves (alive or dead) as models, 88

      Bird dropping resemblances, 89

      Spider web stabilimenta, 93

      Tubeworms, etc., 94

      Experimental tests of survival value of masquerade, 94

      Ontogenetic changes and masquerade, 97

      Thanatosis (death feigning), 97

      Feign or flee? The trade‐offs of thanatosis, 100

      Other aspects of death mimicry, 100

      Seedless seeds and seedless fruit, 100

      4 APOSEMATISM AND ITS EVOLUTION, 103

      Introduction, 104

      Initial evolution of aposematism, 108

      Associations of unpalatable experience with place, 109

      Mathematical models and ideas of warning colouration evolution, 112

      Kin selection models, 112

      Green beard selection, 112

      Family selection models, 113

      Individual selection models, 113

      Spatial models and metapopulations, 116

      Handicap and signal honesty, 117

      Early warnings – reflex bleeding, vomiting and other noxious secretions, 120

      Longevity of aposematic protected taxa, 121

      Macroevolutionary consequences, 121

      Experimental studies, 121

      Tough aposematic prey and individual selection, 121

      Pyrazine and other early warnings, 123

      Learning and memorability, 124

      Strength of obnoxiousness, 126

      Is the nature of the protective compound important?, 126

      Neophobia and the role of novelty, 127

      Innate responses of predators, 130

      Aposematism and gregariousness, 132

      Phylogenetic analysis of aposematism and gregariousness, 134

      Behaviour of protected aposematic animals, 135

      Of birds and butterflies, 135

      Evolution of sluggishness, 139

      Origins of protective compounds, 140

      Plant‐derived toxins, 140

      Cardiac glycosides, 141

      Pyrrolizidine alkaloids, 144

      De novo synthesis of protective compounds, 145

      Obtaining toxins from animal sources, 147

      Costs of chemical defence, 149

      Aposematism with non‐chemical defence, 150

      Escape speed and low profitability, 150

      Parasitoids and aposematic insects, 152

      Diversity of aposematic forms, 152

      Egg load assessment, 154

      Proof of aposematism, 154

      Bioluminescence as a warning signal, 155

      Warning sounds, 155

      Warning colouration in mammals, 157

      Weapon advertisement, 158

      Mutualistic aposematism, 160

      Aposematism induced by a parasite, 161

      Aposematic commensalism, 161

      Polymorphism and geographic variation in aposematic species, 161

      Aposematism in plants, 163

      Synergistic selection of unpalatability in plants, 165

      Aposematism in fungi, 166

      Why are some unpalatable organisms aposematic and others not?, 167

      5 ANTI‐PREDATOR MIMICRY. I. MATHEMATICAL MODELS, 171

      Introduction, 172

      Properties of models, rewards, learning rates and numerical relationships, 172

      Simple models and their limitations, 173

      Muller’s original model, 173

      Simple models of Batesian and Mullerian mimicry, 173

      Are Batesian and Mullerian mimicry different?, 174

      An information theory model, 176

      Monte‐Carlo simulations, 177

      More refined models – time, learning, forgetting and sampling, 180

      Importance of alternative prey, 181

      Signal detection theory, 181

      Genetic and evolutionary models, 182

      Coevolutionary chases, 185

      Models involving population dynamics, 185

      Neural networks and evolution of Batesian mimicry, 188

      Automimicry in Batesian/Mullerian mimicry, 188

      Predator’s dilemma with potentially harmful prey, 190

      6 ANTI‐PREDATOR MIMICRY. II. EXPERIMENTAL TESTS, 191

      Introduction, 192

      Experimental tests of mimetic advantage, 192

      How similar do mimics need to be?, 194

      Is a two‐step process necessary?, 198

      Relative abundances of models and mimics in nature, 198

      Sex‐limited mimicries and mimetic load, 198

      Mimetic load, 203

      Apostatic selection and Batesian mimicry, 204

      Mullerian mimicry and unequal defence, 204

      Imperfect (satyric) mimicry, 206

      7 ANTI‐PREDATOR MIMICRY. III. BATESIAN AND MULLERIAN EXAMPLES, 213

      Introduction, 214

      Types of model, 214

      Mimicry of slow flight in butterflies, 214

      The Batesian/Mullerian spectrum, 215

      Famous butterflies: ecology, genetics and supergenes, 216

      Heliconius, 216

      Hybrid zones, 217

      Wing pattern genetics, 219

      Modelling polymorphism, 220

      Danaus and Hypolimnas, 220

      Papilio dardanus, 221

      Papilio glaucus, 223

      Papilio memnon, 223

      Supergenes and their origins, 223

      Mimicry between caterpillars, 224

      Some specific types of model among insects, 225

      Wasp (and bee) mimicry, 225

      How to look like a wasp, 228

      Time of appearance of aculeate mimics, 228

      Pseudostings and pseudostinging behaviour, 230

      Wasmannian (or ant) mimicry, 231

      Ant mimicry as defence against predation, 231

      Ant mimicry by spiders, 234

      Spiders that feed on ants, 236

      How to look like an ant or an ant carrying something?, 236

      Myrmecomorphy by caterpillars, 237

      Ant chemical mimicry by parasitoid wasps, 237

      Protective mimicries among vertebrates, 239

      Fish, 239

      Batesian mimicry among fish, 239

      Mullerian mimicry among fish, 239

      Batesian and Mullerian mimicry among terrestrial vertebrates, 239

      The coral snake problem – Emsleyan (or Mertensian) mimicry, 240

      Other snakes, zig‐zag markings and head shape, 244

      Mimicry of invertebrates by terrestrial vertebrates, 246

      Inaccurate (satyric) mimics, 248

      Mimicry of model behaviour, 249

      Aide mémoire mimicry, 250

      Batesian–Poultonian (predator) mimicry, 251

      Mimicry within predator–prey and host–parasite systems, 253

      Bluff and appearing larger than you are, 253

      Collective mimicry including an aggressive mimicry, 255

      Jamming, 255

      Man as model – the case of the samurai crab, 258

      8 ANTI‐PREDATOR MIMICRY. ATTACK DEFLECTION, SCHOOLING, ETC., 259

      Introduction, 260

      Attack deflection devices, 260

      Eyespots, 260

      Experimental tests of importance of eyespot features, 262

      Eyespots in butterflies, 266

      Wing marginal eyespots, 267

      Eyes with sparkles, 267

      Eyespots on caterpillars, 269

      Importance of eyespot conspicuousness, 269

      Eyespots and fish, 269

      Not just an eyespot but a whole head, winking and other enhancements, 271

      Reverse mimicry, 271

      Insects, 271

      Reverse mimicry in flight, 275

      Reverse mimicry in terrestrial vertebrates, 275

      Other deflectors, 277

      Injury feigning in nesting birds, 277

      Tail‐shedding (urotomy) in lizards and snakes, 277

      Flash and startle colouration, 280

      Intimidating displays and bizarre mimicries, 283

      Schooling, flocking and predator confusion, 284

      ‘Social’ mimicry in birds and fish, 286

      Alarm call mimicry for protection, 287

      9 ANTI‐HERBIVORY DECEPTIONS, 289

      Introduction, 290

      Crypsis as protection in plants, 290

      Leaf mottling and variegation for crypsis, 291

      Mistletoes and lianas, 293

      Fruit masquerade by leaves, 294

      Protective Batesian and Mullerian mimicry in plants, 295

      False indicators of damage or likely future damage, 296

      Conspicuousness of leafmines, 297

      Dark central florets in some Apiaceae, 297

      Mimicry of silk or fungal hyphae, 299

      Insect egg mimics, 299

      Defensive aphid and caterpillar mimicry in plants, 300

      Aphid deterrence by alarm pheromone mimicry, 300

      Ant mimicry in plants, 301

      Of orchids and bees, 301

      Carrion mimicry as defence, 302

      Algae and corals, 302

      Plant galls, 302

      Experimental evidence for plant aposematism and Batesian mimetic potential in plants, 302

      10 AGGRESSIVE DECEPTIONS, 305

      Introduction, 306

      Cryptic versus alluring features, 307

      Crypsis and masquerade by predators, 307

      Stealth, 307

      Shadowing, 308

      Seasonal polymorphisms in predators, 308

      Why seabirds are black and white (and grey), 309

      Chemical crypsis by a predatory fish, 309

      Alluring mimicries, 310

      Flower mimicry, 312

      Rain mimicry, 315

      Physical lures, 315

      Angling fish, 315

      Caudal (and tongue) lures in reptiles, 317

      Caudal lure in a dragonfly, 318

      Death feigning as a lure, 318

      Other prey and food mimicry, 319

      The case of the German cockroach, 319

      Wolves in sheeps’ clothing, 319

      Vulture‐like hawks, 319

      Cleaner fish and their mimics, 320

      Mingling with an innocuous crowd, 322

      Duping by mimicry of competitors, 323

      Seeming to be conspecific, 324

      Getting close, 325

      Appearing to be a potential mate, 325

      Pheromone lures, 326

      Mimicking danger as a flushing device, 328

      Human use of aggressive mimicry, 328

      Cuckoldry, inquilines and brood parasitism, 329

      Cuckoldry in birds, 329

      Gentes and ‘cuckoo’ eggs, 332

      Cues for egg rejection, 335

      Mimicry by chicks – genetic and substantive differences, 338

      Cuckoo chick appearance, 338

      Begging calls, 339

      Cuckoo and host coevolution, 340

      Mimicry between adult cuckoos and their hosts, 340

      Hawk mimicry by adult cuckoos, 340

      Mimicry of harmless birds by adult cuckoos, 342

      Brood parasitism and inquilinism in social insects, 342

      Cuckoo bees and cuckoo wasps, 342

      Kleptoparasites of bees, 346

      Myrmecophily, 346

      Acquired chemical mimicry in social parasites and inquilines, 346

      Brood‐parasitic and slave‐making ants, 348

      Chemical mimicry and ant and termite inquilines, 349

      A brood‐parasitic aphid, 349

      Ants and aphid trophallaxis, 349

      Aphidiine parasitoids of ant‐attended aphids, 350

      Does aggressive mimicry occur in plants?, 350

      11 SEXUAL MIMICRIES IN ANIMALS (INCLUDING HUMANS), 353

      Introduction, 354

      Mimicking the opposite sex, 354

      Female mimicry by males, 354

      Avoiding aggression from competing males, 357

      Mate guarding through distracting other males, 357

      Androchromatism and male mimicry by females, 358

      Egg dummies on fish, 360

      Food dummies and sex, 362

      Mimicry by sperm‐dependent all‐female lineages, 363

      Female genital mimicry in a female, 363

      Energy‐saving cheating for sex, 364

      Behavioural deceptions in higher vertebrates, 364

      Polygynous birds, 364

      Deceptive use of alarm calls and paternity protection, 365

      Female–female mounting behaviour in mammals and birds, 365

      Mimicry in humans, 367

      Make‐up, clothes and silicone, 367

      Cryptic oestrus in humans, 368

      Flirting in humans, 368

      12 REPRODUCTIVE MIMICRIES IN PLANTS, 371

      Introduction, 372

      Pollinator deception, 372

      Pollinator sex pheromone mimicry, 376

      Food deception, 382

      Specific floral mimicry, 382

      Generalised floral mimicry, 386

      Mimicry of a fungus‐infected plant, 388

      Brood‐site/oviposition‐site deception, 388

      Shelter mimicry, 392

      Flower similarity over time, 392

      Flower automimicry – intraspecific food deception (bakerian mimicry), 393

      Mathematical modelling of sexual deception by plants, 394

      Pollinator guild syndromes, 394

      Bird‐pollinated systems, 394

      13 INTRA‐ AND INTERSPECIFIC COOPERATION, COMPETITION AND HIERARCHIES, 399

      Introduction, 400

      Remaining looking young, 400

      Delayed plumage maturation, 400

      Interspecific social dominance mimicry, 401

      Bird song and alarm call mimicry – deceptive acquisition of resources, 401

      Wicklerian mimicry – mimicry of opposite sex to reduce aggression, 403

      Female resemblance in male primates, 403

      Social appeasement by female mimicry in an insect, 404

      Hyperfemininity in prereproductive adolescent primates, 404

      Mimicry of male genitalia by females, 404

      The case of the spotted hyaena, 404

      Mimicry of male genitalia in other mammals, 404

      Phallic mimicry by males, 405

      Appetitive (foraging) mimicry, 406

      Appetitive mimicry and deceptive use of alarm calls, 406

      Beau Geste and seeming to be more than you are, 408

      Appearing older than you are, 408

      Weapon automimicry, 408

      14 ADAPTIVE RESEMBLANCES AND DISPERSAL: SEEDS, SPORES AND EGGS, 409

      Introduction, 410

      Fruit and seed dispersal by birds, 410

      Warningly coloured fruit, 414

      Fruit mimicry by seeds, 414

      Seed dispersal by humans, arable weeds and Vavilovian mimicry, 414

      Seed elaiosomes and their insect mimics, 415

      Mimicry by parasites to facilitate host finding, 415

      The trematode and the snail, 415

      The trematode and the fish, 416

      Pocketbook clams and fish, 416

      ‘Termite balls’, 417

      Pseudoflowers, pseudo‐anthers and pseudo‐pollen, 417

      Truffles, 418

      Mimicry of dead flesh by fungi and mosses, 419

      Deception of dung beetles by fruit, 419

      15 MOLECULAR MIMICRY: PARASITES, PATHOGENS AND PLANTS, 421

      Introduction, 422

      Macro‐animal systems, 422

      Anemone fish, 422

      Parasitic helminthes, 422

      Platyhelminthes (Trematoda), 422

      Tapeworms (Platyhelminthes: Cestoda), 423

      Parasitic nematodes, 423

      Parasitoid wasp eggs, 424

      Pathogenic fungi, 424

      Protista, 424

      Chagas’ disease, 424

      Microbial systems, 424

      Bacterial chemical mimicry and autoimmune responses, 424

      Helicobacter pylori, 425

      Campylobacter jejuni, 425

      Mimicry by plant‐pathogenic bacteria, 425

      Viruses, 425

      Plants, 425

      Sugar, toxin and satiation mimicry, 425

      Phytoecdysteroids – plant chemicals that mimicinsect moulting hormone, 427

      Plant oestrogens – phyto‐contraceptives, 427

      Extended glossary, 429

      References, 445

      Author index, 515

      General index, 533

      Taxonomic index, 539

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