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Animal Behavior 12th Revised edition [Mīkstie vāki]

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  • Formāts: Paperback / softback, 608 pages
  • Sērija : Sinauer
  • Izdošanas datums: 13-Sep-2023
  • Izdevniecība: Oxford University Press Inc
  • ISBN-10: 0197564917
  • ISBN-13: 9780197564912
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  • Cena: 167,85 €
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  • Formāts: Paperback / softback, 608 pages
  • Sērija : Sinauer
  • Izdošanas datums: 13-Sep-2023
  • Izdevniecība: Oxford University Press Inc
  • ISBN-10: 0197564917
  • ISBN-13: 9780197564912
Citas grāmatas par šo tēmu:
The leading text in the field shows how researchers use scientific logic to study the underlying mechanisms and evolutionary bases of behavior, with emphasis on how evolutionary theory unifies the various sub disciplines within animal behavior. A comparative and integrative overview of how and why animals as diverse as insects and humans behave the way that they do, linking behaviors to the brain, genes, and hormones, as well as to the surrounding ecological and social environments.

Recenzijas

This is a book that attempts to integrate proximate and ultimate mechanisms of animal behavior across different physiological levels and across varying environmental contexts. The breadth and context-dependence of animal behavior makes this a very challenging task, but the authors do a good job of integrating both within an organism's organizational structure as well as across proximate and ultimate mechanisms in a compelling way." -Matthew Zipple, Duke University [ The new edition of Animal Behavior] integrates learning objectives and multimedia files to supplement the theory and research findings of the neural physiology behind animal behavior." -Christine Brodsky, Pittsburg State University Rubenstein's Animal Behavior provides a comprehensive introduction to the study of animal behavior from every conceivable angle. It provides specific examples to contextualize the science behind particular behaviors, while remaining interesting and easy to understand." -Amanda A. Rollins, Wilmington College The data-driven figures are priceless. The focus on scientific investigations is magnificent. And the maintenance of the rich tradition of having an extensive bibliography of peer-reviewed studies is without equal." -Arshad Khan, University of Texas at El Paso

1 An Introduction to Animal Behavior
3(20)
1.1 Natural Selection and the Evolution of Behavior
5(7)
The Cost-Benefit Approach
7(1)
The Levels of Analysis
8(1)
Box 1.1 Natural selection and infanticide in primates
9(2)
The Integrative Study of Animal Behavior
11(1)
1.2 Approaches to Studying Behavior
12(11)
Box 1.2 Phylogenies and the comparative method
13(1)
Examining the Adaptive Basis of Behavior
14(2)
Inferring the Evolutionary History of Behavior
16(1)
Box 1.3 The benefit of high nest density for the arctic skua
17(6)
2 The Integrative Study of Behavior
23(32)
Box 2.1 Characterizing sounds made by animals
24(2)
2.1 The Development of Song Learning
26(4)
Intraspecific Variation and Dialects
26(3)
Social Experience and Song Development
29(1)
Box 2.2 Song learning in birds adopted by another species
30(1)
2.2 Mechanisms of Song Learning
31(2)
The Genetics of Song Learning
32(1)
Box 2.3 Proximate mechanisms underlying song preferences in females
33(3)
The Avian Song Control System
33(3)
2.3 The Evolution of Song Learning
36(4)
An Evolutionary History of Bird Song
36(2)
Song Learning: A Comparative Approach
38(2)
2.4 The Adaptive Value of Song Learning
40(15)
Ecological and Social Correlates of Song Learning
41(1)
Box 2.4 Why might song learning make males communicate more effectively with rivals or potential mates?
42(4)
Social Competition and Mate Choice
46(9)
3 The Developmental and Molecular Bases of Behavior
55(34)
3.1 Behavior Requires Genes and the Environment
56(12)
Behavioral Ontogeny
57(1)
Box 3.1 Behavioral genetics: Identifying the genetic basis of differences in behavior
58(3)
Box 3.2 Genome editing: Reverse genetics and CRISPR technology
61(3)
Gene Regulation Influences Behavior
64(1)
Box 3.3 Migratory restlessness
65(3)
3.2 The Evolutionary Development of Behavior
68(6)
The Evo-Devo Approach to Understanding Behavior
68(4)
Molecular Toolkits and the Development of Behavior
72(1)
Box 3.4 The genetics of foraging behavior in honey bees
73(1)
3.3 The Development of Behavioral Variation
74(15)
Early Life Developmental Conditions
75(3)
Alternative Behavioral Phenotypes
78(11)
4 The Neural Basis of Behavior
89(34)
4.1 Responding to Stimuli
90(11)
Complex Behavioral Responses to Simple Stimuli
91(2)
How Moths Avoid Bats
93(4)
Box 4.1 Ultrasound detection in the moth ear
97(4)
4.2 Sensory Stimuli and Nervous System Control
101(7)
Decision Making in the Brain
102(2)
Box 4.2 Optogenetics: Using light to control neurons
104(1)
Alternative Sensory Modalities
105(3)
4.3 Translating Sensory Stimuli into Behavior
108(15)
Neural Mechanisms of Information Transfer
108(6)
Stimulus Filtering
114(1)
Box 4.3 Determining how female parasitoid wasps choose their singing male bush-cricket hosts
115(4)
Box 4.4 Cortical magnification in mammals
119(4)
5 The Physiological and Endocrine Bases of Behavior
123(36)
5.1 Endogenous Rhythms and Changing Behavioral Priorities
124(8)
Endogenous versus Exogenous Control of Behavioral Priorities
124(4)
Mechanisms of Changing Behavioral Priorities
128(4)
5.2 Cues that Entrain Cycles of Behavior
132(10)
Predictable Environmental Cues
133(5)
Box 5.1 Hormonal responses to light in birds
138(1)
Unpredictable Environmental Cues
139(3)
5.3 Hormones and Behavior
142(17)
Activational Effects of Hormones
142(1)
Box 5.2 Measuring hormones in animals
143(5)
Box 5.3 Do steroid hormones modulate male parental behavior in California mice?
148(1)
Hormonal Causes and Consequences of Behavior
148(11)
6 Avoiding Predators and Finding Food
159(36)
6.1 Antipredator Behavior
160(18)
Blending In
160(4)
Standing Out
164(6)
Social Defenses
170(1)
Box 6.1 Periodical cicadas emerge only on prime number years
171(5)
Optimality Theory and Antipredator Behavior
176(2)
6.2 Foraging Behavior
178(17)
Optimal Foraging Theory
178(1)
Box 6.2 Optimal foraging by pike cichlidfish
179(2)
Box 6.3 Territoriality and feeding behavior in golden-winged sunbirds
181(4)
Landscapes of Fear
185(2)
Cognition and Finding Food
187(1)
Frequency Dependence and Foraging Behavior
188(1)
Box 6.4 Evolutionary game theory
189(6)
7 Territoriality and Movement
195(38)
7.1 Where to Live
196(14)
Habitat Selection
196(1)
Territoriality
197(6)
Box 7.1 How to track migratory songbirds
203(1)
Competition for Territories
204(6)
7.2 To Stay or Go
210(23)
Dispersal
210(3)
Box 7.2 Opposite patterns of sex-biased dispersal in mammals and birds
213(2)
Migration
215(5)
Box 7.3 Behaviors to reduce the costs of flying during migration
220(5)
Variation in Migratory Behavior and Connectivity
225(3)
Box 7.4 Migratory pathways of Swainson's thrush
228(5)
8 Principles of Communication
233(38)
8.1 Communication and Animal Signals
234(4)
A Communication Framework
235(1)
Functionally Referent Signals
235(3)
8.2 The Evolution of Animal Signals
238(12)
Preexisting Traits
239(2)
Preexisting Biases
241(2)
Box 8.1 Spiders hunting prey at night
243(2)
Preexisting Traits versus Preexisting Biases
245(2)
Box 8.2 Why do female moths mate with males that produce ultrasonic mimetic signals similar to those produced by predatory bats?
247(3)
8.3 The Function of Animal Signals
250(21)
Honest Signaling
253(4)
Box 8.3 Mechanisms and measurement of animal coloration
257(3)
Deceitful Signaling
260(5)
Eavesdropping on Others
265(6)
9 Reproductive Behavior
271(42)
9.1 Sexual Selection and the Evolution of Sex Differences
272(10)
Sex Differences in Behavior and Investment
275(1)
Box 9.1 Are sperm always cheap?
276(2)
A Reversal in Sex Differences
278(4)
9.2 Intrasexual Selection and Competition for Mates
282(10)
Competition and Access to Mates
283(1)
Conditional Mating Tactics versus Alternative Mating Strategies
284(4)
Sperm Competition
288(2)
Paternity Assurance
290(2)
9.3 Intersexual Selection and Mate Choice
292(13)
Female Mate Choice: Direct versus Indirect Benefits
292(6)
Box 9.2 Sexual selection in the peacock
298(4)
Cryptic Female Choice
302(1)
Signal Evolution: Runaway versus Chase-Away Sexual Selection
303(2)
9.4 Sexual Conflict
305(8)
The Manipulation of Female Choice
306(1)
Box 9.3 Can there be sexual conflict among hermaphrodites?
307(1)
Sexual Arms Races
308(5)
10 Mating Systems
313(44)
10.1 Monogamy: A Lack of Multiple Mating
315(7)
Why Be Monogamous?
315(3)
Monogamy and Biparental Care
318(4)
10.2 Polyandry: Multiple Mating by Females
322(16)
Female versus Male Control of Mating
322(1)
Box 10.1 Sexual parasitism, dwarf males, and the evolution of gigolos
323(4)
Indirect versus Direct Benefits
327(2)
Box 10.2 Extra-pair paternity and good genes in birds
329(6)
Box 10.3 Infanticide risk and the evolution of animal mating systems
335(3)
10.3 Polygyny: Multiple Mating by Males
338(14)
Female Defense Polygyny
339(2)
Resource Defense Polygyny
341(4)
Lek Polygyny
345(4)
Scramble Competition Polygyny
349(2)
Box 10.4 Lekking females in a sex-role reversed pipefish
351(1)
10.4 Polygynandry and Promiscuity: Multiple Mating by Both Sexes
352(5)
Polygynandry
353(1)
Promiscuity
353(4)
11 Parental Care
357(40)
11.1 Offspring Value and Parental Investment
358(10)
Parental Care Decisions
358(4)
Parental Favoritism in Offspring Care and Production
362(3)
Family Conflict
365(3)
11.2 To Care or Not to Care
368(13)
Current versus Future Reproduction
369(2)
Sexual Conflict and Parental Care
371(2)
Box 11.1 Why do females provide all of the care in treehoppers?
373(1)
Maternal versus Paternal Care
374(3)
Box 11.2 Reactions of nest-defending bluegill males to potential egg and fry predators under two conditions
377(4)
11.3 (Non-)Discriminating Parental Care
381(16)
Offspring Recognition and Interspecific Brood Parasitism
381(2)
Box 11.3 Why do parents in some species adopt genetic strangers of their own species?
383(2)
Coevolutionary Arms Races
385(5)
The Evolution of Brood Parasitism
390(7)
12 Principles of Social Evolution
397(32)
Box 12.1 Can plants exhibit eusociality?
399(1)
Box 12.2 The major evolutionary transitions
400(1)
12.1 Altruism and Levels of Selection
401(5)
Individual versus Group Selection
402(1)
Kin Selection
403(1)
Box 12.3 Calculating genetic relatedness
404(2)
12.2 Kin Selection and Inclusive Fitness Theory
406(15)
Box 12.4 Altruism in amoebae
408(2)
Haplodiploidy and the Evolution of Eusociality
410(3)
Inclusive Fitness and Monogamy
413(1)
Box 12.5 Division of labor in clonal trematode flatworms
414(3)
Sterility and Caste Differentiation
417(4)
12.3 Social Conflict in Animal Societies
421(8)
Reproductive Conflict
422(3)
Consequences of Social Conflict
425(4)
13 Social Behavior and Sociality
429(36)
13.1 Forms of Social Behavior
430(13)
Mutual Benefit
431(1)
Box 13.1 How do groups of animals decid' where to go?
432(3)
Box 13.2 Social network analysis
435(2)
Altruism and Reciprocity
437(4)
Selfishness and Spite
441(2)
Box 13.3 The microbiota living inside animals can influence their host's behavior
443(1)
13.2 The Evolution of Cooperative Breeding
443(11)
Direct versus Indirect Benefits
445(1)
Box 13.4 Mobbing and kinship in groups of Siberian jays
446(4)
Costs of Breeding Cooperatively
450(3)
Individual Differences in Cooperative Behavior
453(1)
13.3 Reproductive Conflict
454(11)
Social Organization and Reproductive Skew
455(1)
Box 13.5 Why do males and females both have elaborate traits in social species?
456(2)
Reproductive Suppression and Senescence
458(7)
14 Human Behavior
465(2)
14.1 Human Speech and Complex Language
467(9)
The Development and Evolutionary History of Human Speech
467(1)
Box 14.1 Do energetic demands explain why humans have such large brains?
468(2)
Box 14.2 Ethical studies of humans and other animals
470(2)
The Neurophysiology of Human Speech
472(2)
The Adaptive Value of Human Speech
474(2)
14.2 Human Reproductive Behavior
476(1)
Mate Choice in Humans
477(4)
Box 14.3 Female choice and the features of dominant versus attractive men
481(2)
Box 14.4 Human mate choice in an online world
483(5)
Social Conflict in Humans
488(1)
Box 14.5 Sexual selection and the evolution of facial hair in men
489
Glossary 1(1)
References 1(1)
Index 1
Dustin Rubenstein is a Professor of Ecology at Columbia University and an integrative behavioral and evolutionary ecologist who studies (1) the evolution of complex animal societies and (2) how organisms adapt to and cope with environmental change.