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E-raamat: Evolution: The Origins and Mechanisms of Diversity [Taylor & Francis e-raamat]

(Balliol College, University of Oxford, Oxfordshire, UK)
  • Formaat: 536 pages, 38 Tables, color; 94 Line drawings, color; 75 Halftones, color; 169 Illustrations, color
  • Ilmumisaeg: 31-Dec-2021
  • Kirjastus: CRC Press
  • ISBN-13: 9780429346217
  • Taylor & Francis e-raamat
  • Hind: 267,74 €*
  • * hind, mis tagab piiramatu üheaegsete kasutajate arvuga ligipääsu piiramatuks ajaks
  • Tavahind: 382,48 €
  • Säästad 30%
  • Formaat: 536 pages, 38 Tables, color; 94 Line drawings, color; 75 Halftones, color; 169 Illustrations, color
  • Ilmumisaeg: 31-Dec-2021
  • Kirjastus: CRC Press
  • ISBN-13: 9780429346217
Evolution is the single unifying principle of biology and core to everything in the life sciences. More than a century of work by scientists from across the biological spectrum has produced a detailed history of life across the phyla and explained the mechanisms by which new species form.

This textbook covers both this history and the mechanisms of speciation; it also aims to provide students with the background needed to read the research literature on evolution. Students will therefore learn about cladistics, molecular phylogenies, the molecular-genetical basis of evolutionary change including the important role of protein networks, symbionts and holobionts, together with the core principles of developmental biology. The book also includes introductory appendices that provide background knowledge on, for example, the diversity of life today, fossils, the geology of Earth and the history of evolutionary thought.

Key Features





Summarizes the origins of life and the evolution of the eukaryotic cell and of Urbilateria, the last common ancestor of invertebrates and vertebrates. Reviews the history of life across the phyla based on the fossil record and computational phylogenetics. Explains evo-devo and the generation of anatomical novelties. Illustrates the roles of small populations, genetic drift, mutation and selection in speciation. Documents human evolution using the fossil record and evidence of dispersal across the world leading to the emergence of modern humans.
Preface xv
Website Support Materials xvii
Acknowledgements xix
About the Author xxi
SECTION ONE AN INTRODUCTION TO EVOLUTION
1(36)
1 Approaching Evolution
3(6)
Perspectives
4(1)
Evolutionary research today
5(2)
Systems biology
7(1)
Further readings
8(1)
Websites
8(1)
2 A Potted History of Evolutionary Science
9(6)
The pre-Darwinian Era
9(1)
The Darwinian Era
10(1)
The era of evolutionary genetics
11(1)
The molecular era
12(2)
Further readings
14(1)
Website
14(1)
3 The Ancient World
15(10)
The evolving earth
16(2)
Extinctions
18(2)
Four billion years of life
20(1)
Prokaryotes
20(1)
Unicellular eukaryotes
20(1)
Early large eukaryotes
20(3)
Further readings
23(1)
Websites
23(2)
4 Life Today: Species, Diversity, and Classification
25(12)
The diversity of life today
26(1)
Defining a species
27(2)
Variation within a species
29(1)
The numbers of species today
30(1)
Taxonomies: Organising diversity
31(4)
Phytogenies and evolutionary history
35(1)
Key points
36(1)
Further readings
36(1)
Websites
36(1)
SECTION TWO THE EVIDENCE FOR EVOLUTION
37(54)
5 Analysing Evolutionary Change
39(12)
Descent with modification is the identifier for evolution
39(5)
Cladistic links organisms by anatomical inheritance
44(1)
Linnaean and cladistic taxonomies are different
45(1)
Apparent anomalies
45(1)
Homoplasies
46(1)
Lost plesiomorphies
46(1)
Exaptations
47(1)
The broader importance of Darwin's ideas
48(1)
Key points
49(1)
Further reading
49(1)
Websites
49(2)
6 The Anatomical Evidence for Evolutionary Change
51(14)
The evolution of the pentadactyl limb
52(4)
The evolution of the mammalian skull
56(1)
The evolution of middle-ear bones and the reorganization of the jaw
57(2)
The evolution of the zygomatic arch
59(1)
The evolution of the secondary palate
60(1)
The evolution of mammalian teeth
61(1)
The evolution of the equidae
61(3)
Key points
64(1)
Further readings
64(1)
Website
64(1)
7 The Genomic Evidence
65(12)
Phylograms and cladograms are subtly different
66(2)
Constructing sequence-based phylogenetic trees
68(1)
Ancestral sequences
69(1)
Choosing sequences for phylogenetic analysis
69(2)
Three examples of molecular phytogenies
71(1)
The evolutionary status of the Amphillim 1/5 Gene
71(1)
Phylogenetic relationships among a group of anemone fish
72(1)
Phylogenetic relationships across the family of hox genes
72(1)
Gene trees, species trees, and phylogenomics
73(1)
Adding timings to phylograms
74(1)
Molecular phylogenetics today
75(1)
Key points
75(1)
Further readings
76(1)
Websites
76(1)
8 The Evo-Devo Evidence
77(14)
The molecular basis of evo-devo homologies
78(1)
Signal and receptor homologies
78(1)
Transcription factor homologies
79(7)
Protein network homologies
86(2)
Implications of protein homologies
88(1)
Key points
89(1)
Further readings
90(1)
Websites
90(1)
SECTION THREE THE HISTORY OF LIFE
91(138)
9 The First Two Billion Years
93(16)
The origin of life
94(2)
FUCA, the first universal common ancestor
96(1)
LUCA, the last universal common ancestor
97(1)
The prokaryotic seas: Eubacteria and Archaebacteria
98(1)
Eubacteria
99(1)
Archaebacteria
100(1)
FECA, the first eukaryote common ancestor
101(2)
LECA, the last eukaryote common ancestor
103(1)
Mitochondria
104(1)
Membranes and cytoskeleton
105(1)
Timings
105(1)
Key points
106(1)
Further readings
107(1)
Websites
107(2)
10 The Roots of the Eukaryotic Tree of Life
109(16)
The diversification of the leca
112(1)
Flagella, centrioles, and basal bodies
112(1)
Cell walls
113(1)
Sexual reproduction and diploidy
114(1)
Plastids
115(1)
Protist systematics
115(2)
The origins of social behaviour
117(1)
The acquisition of multicellularity
117(2)
Fungal evolution
119(4)
Key points
123(1)
Further readings
123(1)
Websites
123(1)
Fungi
123(2)
11 The Evolution of Algae and Plants
125(16)
Algae
126(2)
Algal fossil record
128(1)
Evolution of algae
128(2)
Plants
130(2)
Plant evolution
132(4)
Plant systematics
136(2)
Key points
138(1)
Further readings
139(1)
Websites
139(2)
12 The Ediacaran Period and the Early Evolution of the Metazoa
141(12)
The Ediacaran biota
142(3)
The evolution of diploblastic and triploblastic embryos
145(1)
Protostomes
146(1)
Deuterostomes
147(1)
The evolution of Urbilateria
147(3)
Key points
150(1)
Further readings
151(1)
Website
151(2)
13 The Cambrian Explosion and the Evolution of Protostomes
153(18)
The Cambrian fossil record
154(2)
The protostome world
156(1)
Porifera
156(1)
Coelenterata
156(2)
The Bilateria and protostome diversity
158(2)
Protostome systematics
160(1)
The major protostome phyla
161(1)
Molluscs
162(2)
Arthropods
164(5)
Key points
169(1)
Further readings
170(1)
Websites
170(1)
14 Deuterostome Evolution: From the Beginnings to the Amphibians
171(20)
Modern deuterostome anamniotes
172(2)
Ambulacraria
174(1)
The minor chordate clades
174(1)
Craniata
175(2)
The early deuterostome fossil record
177(1)
The fish fossil record
178(3)
From water to land
181(4)
Limb evolution
185(1)
Girdle evolution
186(1)
Breathing
187(1)
Metamorphosis
187(1)
Amphibians
188(1)
Key points
189(1)
Further readings
189(1)
Websites
190(1)
15 Vertebrate Evolution: Stem Mammals, Reptiles, and Birds
191(18)
Anatomical innovations in stem amniotes
193(1)
The evolution of the amniote egg
193(2)
The evolution of the early amniote skeleton
195(3)
The fossil record of Mesozoic reptiles
198(1)
The Paleozoic Era
199(1)
The Mesozoic Era (252-66 Mya)
200(4)
The K-T extinction and the beginnings of the Cenozoic Era (66 Mya)
204(1)
The origin of flight
204(1)
Pterosaurs
204(1)
Birds
205(2)
Key points
207(1)
Further readings
208(1)
Websites
208(1)
16 Vertebrate Evolution: Mammals
209(20)
The mammalian fossil record from the Mesozoic
212(3)
The evolution of some key mammalian features
215(1)
Changes to the skull
216(1)
Changes to soft tissues
216(5)
The evolution of the Cetacea
221(2)
Defensive adaptations
223(1)
Probosces with a second function
223(1)
Flight
223(1)
Back to the sea and the evolution of whales
224(3)
Key points
227(1)
Further readings
227(1)
Websites
227(2)
SECTION FOUR THE MECHANISMS OF EVOLUTION
229(106)
17 Variation 1: Mutations and Phenotypes
233(18)
Phenotypic variation
234(1)
Unusual variation: Sports and anomalies
235(1)
Variation leading to human disease
236(2)
Secondary variation
238(1)
Genotypic variation
239(1)
Mutation
239(2)
The effects of mutation on the genotype
241(1)
The effect of mutation on individual genes
242(1)
Larger-scale genomic changes
243(1)
Horizontal gene transfer
244(1)
The role of the environment in generating variation
245(1)
Transgenerational epigenetic inheritance (TEI)
245(3)
The wider context
248(1)
Key points
248(1)
Further readings
249(1)
Websites
249(2)
18 Variation 2: Evolutionary Change
251(18)
Some origins of anatomical change
252(1)
Organism size
253(1)
Timing changes
253(1)
Limb variation
254(3)
Other evolutionary variants
257(3)
The effect of mutation on signaling and network systems
260(1)
Signals, receptors, and transcription factors
260(1)
Networks
261(2)
Developmental constraints on variation
263(3)
The mutational basis of trait change--The broader view
266(1)
Key points
266(1)
Further readings
267(1)
Websites
267(2)
19 Adaptation, Symbionts, and Holobionts
269(16)
Types of adaptation
271(1)
Camouflage and mimicry
271(2)
Exaptation
273(1)
Niche construction
273(1)
Parasites
274(1)
Facilitating reproduction
275(1)
Increasing offspring numbers
276(1)
Symbiosis
276(2)
Holobiosis
278(3)
Developmental plasticity and adaptive change
281(1)
Key points
282(1)
Further readings
283(1)
Websites
283(2)
20 Selection
285(16)
Natural selection
286(2)
The evolution of the camera eye under selection
288(2)
Sexual selection
290(1)
The advantages and disadvantages of sexual reproduction
290(1)
The sexual phenotype
291(1)
The sex ratio
292(1)
Kin selection and altruism
292(4)
The speed of change under selection
296(1)
Controlling selection
297(1)
Selective breeding
297(1)
Generating anatomical novelties
297(2)
Selection pressures imposed by humans
299(1)
Key points
300(1)
Further readings
300(1)
Websites
300(1)
21 Evolutionary Population Genetics
301(18)
Classical population genetics
303(1)
Linkage
303(1)
Nonrandom breeding
304(1)
Migration
304(1)
Genetic drift
305(1)
The effects of selection
306(2)
Practical considerations
308(1)
Neutral theory versus selection
309(1)
Small populations and founder groups
310(1)
Quantitative and complex traits
311(1)
Gene identification
311(1)
Selfish genes
312(1)
Coalescence approaches
313(2)
Conclusion
315(1)
Key points
316(1)
Further readings
316(1)
Websites
317(2)
22 Speciation
319(16)
Defining a species
320(1)
The breeding criterion
321(1)
The morphological criterion
321(1)
The habitat criterion
321(1)
The molecular criterion
321(1)
The timing criterion
322(1)
How new species form
322(2)
Modes of reproductive isolation
324(1)
Allopatric separation
324(1)
Peripatric speciation
325(1)
Parapatric speciation
325(1)
Sympatric separation
326(1)
The rate of speciation
326(1)
Hybrids
327(1)
Speciation speeds under allopatric conditions
328(1)
Species flocks
329(2)
Experimental speciation
331(1)
The genetics of speciation
332(1)
The key role of chromosomes
333(1)
Key points
334(1)
Further readings
334(1)
Websites
334(1)
SECTION FIVE HUMAN EVOLUTION
335(58)
23 Human Evolution 1: The Fossil Evidence
337(14)
Human fossil material
340(2)
The major hominin groups
342(1)
Possible early hominins (7-4.5 Mya)
342(1)
Archaic hominins (4.5-2.5 Mya)
342(1)
Megadont archaic hominins (2.5-1 Mya)
343(1)
Transitional hominins (-2.5-1.4 Mya)
343(1)
Pre-modern Homo (1.9 Mya-30Kya)
343(4)
Anatomically modern Homo (from 0.2 Mya onwards)
347(1)
Selection and speciation
347(1)
Key points
348(1)
Further readings
349(1)
Websites
349(2)
24 Human Evolution 2: Genes and Migrations
351(12)
Information from chimpanzee genomes
352(1)
Ancient Homo DNA
353(2)
Contemporary human genomes
355(1)
Mitochondrial DNA
355(1)
Migrations within Africa
356(1)
Migrations out of Africa
357(3)
The wider picture
360(1)
Key points
361(1)
Further readings
362(1)
Websites
362(1)
25 Human Evolution 3: The Origins of Modern Humans
363(18)
The rise of H. sapiens
364(1)
Cultural inheritance
364(1)
Tool-making
365(2)
Social living
367(1)
Speech
367(1)
Art
368(3)
The modern brain
371(1)
The origins of human differences
371(2)
Skin pigmentation
373(3)
Eye colour
376(1)
Genetic disorders
377(1)
Body differences
377(1)
Are humans still evolving?
378(1)
Key points
379(1)
Further readings
380(1)
Websites
380(1)
26 Conclusions
381(12)
The achievements of evolutionary science
382(1)
Contemporary challenges
382(1)
The history of life
383(1)
The mechanisms of speciation
384(1)
Is anything missing?
385(1)
The speed of evolutionary change and noncanonical heritability
385(2)
The origins of novel phenotypes
387(1)
Neurobiology and behaviour
387(1)
Origin of life
387(1)
The evolutionary future of Homo sapiens
388(1)
Is the human species still evolving
388(1)
The effect of humans on the planet
389(1)
Finally
390(1)
Websites
391(2)
Appendices
393(67)
Appendix 1 Systems Biology
395(8)
The narrow view
396(1)
The broader view
397(1)
Events within each level are complex
398(1)
There are interactions between levels
398(1)
Causality is distributed
398(1)
A note on systems terminology
399(2)
Further readings
401(1)
Websites
401(2)
Appendix 2 A History of Evolutionary Thought
403(16)
The early days
404(1)
The move to evolutionary thinking
405(1)
The early 19th century
406(1)
Lamarck: The first evolutionary scientist
407(2)
The era of Darwin
409(2)
The 19th century after Darwin
411(2)
The early 20th century
413(2)
Taxonomy
415(1)
The molecular era
416(1)
DNA sequence analysis
416(1)
Evo-devo
417(1)
Systems biology
417(1)
Further readings
417(1)
Websites
418(1)
Appendix 3 A Brief History of the World
419(2)
Appendix 4 Rocks, Dates, and Fossils
421(6)
Rock types
421(1)
Ageing rocks (geochronology)
422(1)
Paleoclimatology
423(1)
How fossils form
424(2)
Dating ancient organisms
426(1)
Further readings
426(1)
Websites
426(1)
Appendix 5 Constructing Molecular Phytogenies
427(6)
Phylogenies based on shared/absent sequences
427(1)
Phylogenies based on distance matrices
428(1)
Phylogenies based on tree-searching methods
429(1)
Maximum parsimony
429(1)
Maximum likelihood
429(1)
Bayesian methods
430(1)
Phylogeny choices
431(1)
Further readings
431(1)
Websites
431(2)
Appendix 6 Three Key Model Organisms: Mouse, Drosophila, and H. sapiens
433(8)
Drosophila development
434(2)
Mouse development
436(1)
Similarities and differences
437(1)
Homo sapiens
438(1)
Further readings
438(1)
Websites
438(3)
Appendix 7 Some Principles of Animal Developmental Biology
441(10)
Driving developmental change
444(1)
How tissues form
445(1)
Tissue modules
446(2)
The origins of anatomical differences
448(1)
The role of the genome in development
449(1)
Key points
450(1)
Further readings
450(1)
Websites
450(1)
Appendix 8 Evolution and Creationism
451(9)
Creationism
452(1)
The claim
452(1)
Evolutionary criticisms of creationism
453(3)
Evolution
456(1)
The claims
456(1)
The creationists' criticisms of evolution
457(3)
Conclusions 460(1)
Websites 461(2)
Glossary 463(8)
References 471(26)
Index 497
Professor Jonathan Bard is a vertebrate developmental anatomist who has also published research papers in evolutionary, theoretical and systems biology and in bioinformatics. He worked at the MRC Human Genetics Unit and at the University of Edinburgh and is currently a graduate advisor at Balliol College Oxford.