Evolution__3rd_Edition

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750 Index synonymous changes (cont.): DNA 170, 176, 178 mutation 173–4, 176, 177 nucleotides 169, 170 random drift 181–2 synthetic theory of evolution 15 systematics 689 new 18 Systematics and the Origin of Species (Mayr) 17 tandem repeats 27 tarweed plant 503, 504 taxa 689 characters influencing extinction/speciation rates 658, 660–2, 663, 664 extinction probability 666–7 Lazarus 647 origin of higher 551–2 phenetic definition 647 replacements 669–74 taxonomic patterns 669–70 taxonomic rate of evolution 609–11 taxonomy 349, 374–7, 689 above species level 376–7 evolutionary 475 folk 375 numerical 354, 368, 474, 478, 686 ranking 484 see also classification 3TC drug resistance 45–6, 75, 88 teeth horse 591, 592, 593, 598 mammalian 544 primates 546 see also carnivores, saber-toothed Telicomys gigantissimus 513 temephos resistance 117 Tempo and Mode in <strong>Evolution</strong> (Simpson) 18 tension zones 410 terminal addition 574–5 Tertiary era 540 Tetraopes (beetle) 618–19 tetrapods 540–2, 689 leg function 264–5 limb evolution 541 pentadactyl limb 55–7, 59 ancestors 541–2 homology 428, 431 Hox gene expression 584–5 modern 541–2 rate of evolution 165 phylogenetic relations 481–2 see also amphibians; birds; mammals; reptiles therapsids 544–5 Thompson, D’Arcy 577, 578 thumb, opposable 546 thymine (T) 25 “tiger”, saber-toothed 429–30, 504–5 tiger moth, scarlet 16 titanotheres 257–8 toucan 493 Tragopogon (salsify) 405 transcription 25–6, 689 transcription factors 24, 579–80 transfer RNA (tRNA) 25, 26, 57, 58, 689 transformation of species 7, 64, 577, 578 transformism 7, 44, 689 transitions 28–9, 689 translation 25–6, 689 transposable elements 29 transposition 29 transversions 28–9, 689 tree-frog 10, 335 Triassic era extinctions 649 Tribolium castaneum (flour beetle) 303–4, 356–7 trilobites, Ordovician 605 Triturus cristatus (European crested newt) 274–5 tropical adaptation 552 Tsuga (hemlock tree) 498 tuatara 494, 495 turtles, classification 476 two-locus model 199, 202–3 adaptive topography 215 hitch-hiking 210 natural selection 206–10 typological species 354, 689 “typological thinking” 363–5, 485n Ubx gene 585 ungulates 513 uniformitarianism 54, 66 vaccines, human disease virulence 629 valley crossing 394–5, 600–1 see also adaptive peaks Van Valen, L.M. 637–8, 639 variables, frequency (P) 99n variance (statistical) 232, 233, 689 additive 232, 235–6 fruitfly viability 322 phenotypic 235–6 variation adaptation 88 biochemical level 83–4 cellular level 81–3 chromosomes 82–3 continuous 76, 80, 226, 227 directed 13 DNA level 84 environmental effects 228–31, 231–2 fitness 74 genetic effects 228–32 heritable 245–6 human 364, 365 interindividual 52 mimetic 226 morphological level 81 mutation 87–8 natural populations 246–9 natural selection 74 population 81–4 recombination 87–8 reproductive success 85–7 see also genetic variation The Variation of Animals in Nature (Robson & Richards) 17 vascular tissue 538 vehicles, selection 311 Vermeij, G.J. 634, 636 vertebrae, cervical/thoracic 583–4, 585–6 vertebrates, evolution 540–5 vicariance events 505–12 virulence human disease and vaccines 629 parasitic 624–5, 626, 627–8, 629 viruses 689 human diseases 451 movement between species 451 mutations 88 primate infections 631–2 see also HIV; RNA viruses vision, stereoscopic 545 visual acuity 261–2 volcanic eruptions 655, 657 de Vries, Hugo 13 Vulpes (fox) 472 Wahlund effect 130 waif dispersal 513 Wallace, Alfred Russell 10, 11, 494 Wallace’s line 494, 495 warblers 389 Maine species 353 Seychelles 339–40 Ward, P.D. 653 warning coloration 128–9 wasps braconid 614, 615 fig 413, 628, 629 ..
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.. EVOLUTION
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© 2004 by Blackwell Science Ltd a
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vi Brief Contents PART 5. MACROEVOL
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viii Full Contents 3.5 Ring “spec
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x Full Contents 7.2 Rates of molecu
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xii Full Contents 10.5 Genetics of
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xiv Full Contents PART 4. EVOLUTION
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xvi Full Contents 14.12 Identificat
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xviii Full Contents 17.7 Geographic
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xx Full Contents 21.4.3 Ordovician
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Preface The theory of evolution is
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xxiv Preface evolve resistance to d
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.. Introduction Part one When Darwi
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4 PART 1 / Introduction Evolution i
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6 PART 1 / Introduction Examples ex
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8 PART 1 / Introduction Time (a) (b
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10 PART 1 / Introduction . . . look
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12 PART 1 / Introduction Time (a) (
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14 PART 1 / Introduction Figure 1.7
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18 PART 1 / Introduction . . . and
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20 PART 1 / Introduction Further re
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22 PART 1 / Introduction DNA is car
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24 PART 1 / Introduction Most genes
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26 PART 1 / Introduction Table 2.1
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28 PART 1 / Introduction Original D
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30 PART 1 / Introduction (a) Transp
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32 PART 1 / Introduction . . . per
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34 PART 1 / Introduction Dominance
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Figure 2.11 Two populations with 10
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42 PART 1 / Introduction Study and
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44 PART 1 / Introduction Life could
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48 PART 1 / Introduction Tooth qual
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50 PART 1 / Introduction Artificial
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52 PART 1 / Introduction Ring speci
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54 PART 1 / Introduction Human obse
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58 PART 1 / Introduction 5' pG Anti
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62 PART 1 / Introduction (a) α-hem
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64 PART 1 / Introduction Age (Myr a
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66 PART 1 / Introduction The groups
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68 PART 1 / Introduction The scient
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70 PART 1 / Introduction Study and
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Plate 3 Here in the lower row are s
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Plate 6 Scrub jays (Aphelocoma coer
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Plate 8 Chromosomal races of the ho
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Plate 10 Geological map of North Am
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72 PART 1 / Introduction Cod produc
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74 PART 1 / Introduction The strugg
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76 PART 1 / Introduction Many chara
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82 PART 1 / Introduction Chromosome
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86 PART 1 / Introduction The condit
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90 PART 1 / Introduction Summary 1
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.. Evolutionary Genetics Part two T
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.. 5 The Theory of Natural Selectio
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.. Figure 5.1 The general model of
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.. . . . and use Mendel’s rules t
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.. A simpler proof of the Hardy- We
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.. The MN human blood group system
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.. CHAPTER 5 / The Theory of Natura
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.. We need to know more to understa
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.. Figure 5.4 Peppered moths natura
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.. Mark-recapture experiments sugge
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.. Manchester The fitness estimates
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.. Pests, such as mosquitoes, evolv
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.. Figure 5.8 The mortality of mosq
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.. Box 5.2 Resistance Management Th
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.. Other factors will be at work in
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.. . . . which can sometimes be use
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.. Figure 5.9 The global incidence
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.. In host-parasite relations, the
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.. Populations may be subdivided CH
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.. We construct a model of gene fre
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.. We construct a model of selectio
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.. Further reading CHAPTER 5 / The
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.. 6 Random Events in Population Ge
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.. Box 6.1 Random Sampling in Genet
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.. Probability of polymorphism 1.0
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.. Evolution can occur by random dr
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.. Random drift has consequences fo
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.. Generation 1 Generation2 Adults
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.. CHAPTER 6 / Random Events in Pop
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.. Heterozygosity ( H ) 1.0 0.9 0.8
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.. Summary 1 In a small population,
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.. 7 Natural Selection and Random D
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.. Two extreme views b selectionist
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.. The original neutral theory has
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.. . . . and levels of polymorphism
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.. homozygotes by normal Mendelian
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.. Amino acid differences 1.0 0.9 0
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.. Globin evolution in “living fo
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.. Long-generation species, e.g., w
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.. Observed heterozygosity 1.0 0.8
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.. The nearly neutral theory can ex
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.. Insulin illustrates the effect o
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.. CHAPTER 7 / Natural Selection an
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.. Biologists came to accept, throu
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.. Elevated dN/dS ratios are observ
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.. Box 7.4 Model Organisms for Biom
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.. But the test has proved illumina
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.. Evidence shows that synonymous c
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.. The genomic era is allowing new
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.. Summary 1 The neutral theory of
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.. Study and review questions 1 Dra
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.. The tiger swallowtail butterfly
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.. Mimicry requires the correct com
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.. A haplotype is a haploid combina
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.. Linkage disequilibrium ( D) r =
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.. The more complex multilocus mode
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.. Expected frequency ( piqi ) (a)
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.. A model of haplotype frequency c
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.. Evidence for linkage disequilibr
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.. (proportion of polymorphic sites
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.. CHAPTER 8 / Two-locus and Multil
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.. Adaptive topographies can be use
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.. Mean population fitness ( w ) -
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.. p' 0 1 0 Frequency of A allele S
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.. Study and review questions 1 Her
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.. Beak size influences feeding eff
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.. Population size Seed √depth ×
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.. Continuous characters are influe
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.. Genetic and environmental influe
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.. Several non-additive genetic fac
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.. Box 9.1 Some Statistical Terms U
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.. Parent-offspring similarity depe
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.. Frequency Frequency Generation 1
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.. New variation can be introduced
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.. (a) 1976-1977 (b) 1981-1982 (c)
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.. Figure 9.11 (a) The main veins i
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.. Certain non-linear relations can
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.. Behavior Physiology Life history
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.. Some heritable characters do not
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.. Further reading CHAPTER 9 / Quan
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.. Adaptation and Natural Selection
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.. 10Adaptive Explanation T his cha
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.. . . . factually, ... . . . or th
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.. Not all evolution is adaptive CH
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.. Figure 10.2 Stages in the evolut
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.. Some critics suggest that the in
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.. Box 10.1 Molecular Cooption The
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.. Fitness (a) (b) Small mutation L
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.. Figure 10.5 A cross between the
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.. . . . by experiment, ... . . . a
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.. Figure 10.6 The fruits of (a) Cr
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.. Heterozygous advantage may lead
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.. Figure 10.7 Developmental asymme
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.. . . . that can be tested between
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.. Fitness (a) Time 1 (b) Time 2 (c
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.. Fitness Fitness (a) Time 1 (c) T
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.. Imperfect adaptations may or may
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.. The “design” of an eye for s
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.. hypothesis of adaptation or cons
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.. Study and review questions 1 Wha
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.. An adaptation may benefit one le
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.. The sd gene gains an advantage f
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.. CHAPTER 11 / The Units of Select
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.. We define Hamilton’s rule Hami
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.. Kin selection is at work in this
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.. Selfish The theories of group se
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.. Box 11.1 Group Selection for Egg
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.. The unit of selection, in a seco
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.. * * The word “gene” is being
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.. Summary 1 Adaptations evolve by
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.. in Sexual Reproduction 12Adaptat
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.. Figure 12.2 Non-reproductive sex
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.. Figure 12.3 Evolution in (a) ase
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.. Asexual reproduction has a spind
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.. . . . as illustrated by a motor
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.. Log fitness of organisms Number
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.. Figure 12.7 Frequency changes of
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.. Genetic cycles in snails are con
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.. Darwin provided comparative evid
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.. . . . which may explain extreme
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.. Theory requires open-ended choic
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.. But selection may have removed h
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.. Courtship bouts Net reproductive
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.. Theory predicts deviations from
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.. CHAPTER 12 / Adaptations in Sexu
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.. Study and review questions 1 Wha
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346 PART 4 / Evolution and Diversit
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17Evolutionary Biogeography B iogeo
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522 PART 5 / Macroevolution looked
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524 PART 5 / Macroevolution Fossili
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526 PART 5 / Macroevolution Era Per
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528 PART 5 / Macroevolution N = N 0
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530 PART 5 / Macroevolution Early l
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532 PART 5 / Macroevolution Cells h
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.. Multicellular life originated ov
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.. Present ~540 Myr ~1,200 Myr Echi
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.. Figure 18.8 The rise of the angi
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.. Figure 18.9 The origin of tetrap
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.. Probainognathus Thrinaxodon Proc
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.. . . . and cynodonts but their te
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.. . . . and sexual dimorphism all
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.. Homo sapiens c. 100,000 years ag
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.. Macroevolution may be due to ext
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.. Summary 1 Fossils are formed whe
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.. Study and review questions 1 Rev
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.. Evolutionary genomics aims to an
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.. Figure 19.1 The history of the h
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.. (a) A (b) 2 1 B C Vertebrate 1 2
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.. Following symbiosis ... . . . ge
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.. X and Y chromosomes evolve apart
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.. Figure 19.5 (a) A chromosomal in
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.. Mice do not show the same patter
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.. Study and review questions 1 (a)
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.. Morphological evolution is drive
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.. Figure 20.2 (a) Evolution by ter
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.. Developmental change can be by h
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.. . . . than might be expected fro
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.. A similar gene works in eye deve
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.. Figure 20.6 History of the Hox g
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.. Changes in arthropod limbs are a
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.. Switching systems may have made
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.. Study and review questions 1 If
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.. Horse teeth are an example of ho
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.. Horse teeth show a representativ
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.. Figure 21.2 Possible phylogeny o
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.. Figure 21.3 The relation between
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.. . . . disappear after the measur
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.. Box 21.1 Two Meanings of Gradual
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.. Time Punctuated equilibrium extr
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.. Time General younging direction
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.. Score Change in score per millio
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.. Time (Myr) Two species/million y
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.. Summary CHAPTER 21 / Rates of Ev
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.. 22Coevolution C oevolution happe
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.. Figure 22.2 Coevolution means th
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.. Pollinator relationships have le
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.. (a) Time Character Plant Insect
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.. (a) Plant ( Bursera ) sarukhanii
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.. Abiotic pollination Biotic polli
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.. Myxomatosis reduced rabbit popul
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.. Virulence depends on ... . . . t
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.. lower Virulence higher 1.1 1.0 0
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.. . . . is probably due to cospeci
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.. Brain size . . . are used to mea
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.. Incidence of repair 0.6 0.5 0.4
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.. Taxonomic survivorship curves ar
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.. . . . or a static equilibrium ..
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.. present. Biotic pollination, in
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.. 23Extinction and Radiation T his
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.. Figure 23.1 (a) The number of fa
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.. Box 23.1 Pseudoextinction Specie
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.. Figure 23.2 The observed extinct
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.. Position (m) 300 340 330 KT 0 10
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.. The fossil evidence can be teste
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.. Several factors may work interac
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.. Several models could explain why
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.. Box 23.2 Changes in Extinction R
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.. Molluskan larval types can be in
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.. (a) (b) Planktotrophic larvae No
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.. Figure 23.10 Species selection b
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.. CHAPTER 23 / Extinction and Radi
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.. Taxonomic replacements can be co
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.. Mammals proliferated in the earl
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.. Time (a) Observed incompleteness
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.. Number of families Number of fam
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.. Early research established the m
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.. 8 If natural selection favors on
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.. Study and review questions 1 Why
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.. Biogenetic law The name given by
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.. genetic load A reduction in the
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.. phenetic classification using la
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.. stabilizing selection Selection
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.. first terrestrial tetrapods; and
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.. photosynthesis a probably evolve
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.. Chapter 15 1. 2. A B C D E C A B
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.. 2. The eyes of insects and verte
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.. References Abouheif, E., Akam, M
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.. References 701 Bell, G. (1997a).
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.. References 703 Byers, J.A. (1997
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.. References 705 Cronin, T.M. & Sc
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.. References 707 Eldredge, N. & Go
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.. References 709 Gingerich, P.D. (
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.. References 711 Hamilton, W.D. (1
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.. References 713 Huelsenbeck, J.P.
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.. References 715 King, M-C. & Wils
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.. References 717 Lens, L., van Don
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.. References 719 Maynard Smith, J.
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.. References 721 Nielsen, R. (2001
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.. References 723 Philippe, H. & Fo
Page 1518: .. References 725 Runnegar, B. (200
Page 1522: .. References 727 Singer, R. (ed.)
Page 1526: .. References 729 True, J.R., Weir,
Page 1530: .. References 731 Wiley, E.O. (1988
Page 1534: .. Index Note: page numbers in ital
Page 1538: .. see also Battus philenor (pipevi
Page 1542: .. deletion 562 diversity 161 homop
Page 1546: .. Cambrian 535-8 eutherian mammals
Page 1550: .. parent-offspring regressional sl
Page 1554: .. lungfish 540 evolutionary rate 6
Page 1558: .. linkage disequilibrium 207, 309
Page 1562: .. multiple niche 128, 248 natural
Page 1566: .. signaling proteins 579, 580 silv
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