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Cerebral Lateralization and Cognition: Evolutionary and Developmental Investigations of Behavioral Biases, Volume 238 [Kõva köide]

Volume editor , Volume editor (Senior Lecturer in Developmental Psychology, Melbourne and Olga Tennison Autism Research Centre (OTARC), La Trobe University, Au), Volume editor (Senior Lecturer in Psychology, Department of Psychological Sciences, Birkbeck, University of London, UK), Volume editor
  • Formaat: Hardback, 457 pages, kõrgus x laius: 235x191 mm, kaal: 1100 g
  • Sari: Progress in Brain Research
  • Ilmumisaeg: 09-Aug-2018
  • Kirjastus: Academic Press Inc
  • ISBN-10: 0128146710
  • ISBN-13: 9780128146712
Teised raamatud teemal:
  • Formaat: Hardback, 457 pages, kõrgus x laius: 235x191 mm, kaal: 1100 g
  • Sari: Progress in Brain Research
  • Ilmumisaeg: 09-Aug-2018
  • Kirjastus: Academic Press Inc
  • ISBN-10: 0128146710
  • ISBN-13: 9780128146712
Teised raamatud teemal:

Cerebral Lateralization and Cognition: Evolutionary and Developmental Investigations of Motor Biases, Volume 238, the latest release in the Progress in Brain Research series, discusses interdisciplinary research on the influence of cerebral lateralization on cognition within an evolutionary framework. Chapters of note in this release include Evolutionary Perspectives: Visual/Motor Biases and Cognition, Manual laterality and cognition through evolution: An archeological perspective, Laterality in insects, Motor asymmetries in fish, amphibians and reptiles, Visual biases and social cognition in animals, Mother and offspring lateralized social interaction across animal species, Manual bias, personality and cognition in common marmosets and other primates, and more.

  • Presents investigations of cognitive development in an evolutionary framework
  • Provides a better understanding of the causal relationship between motor function and brain organization
  • Brings clinicians and neuroscientists together to consider the relevance of motor biases as behavioral biomarkers of cognitive disorders
  • Includes future possibilities for early detection and motor intervention therapies
Contributors v
Introduction xix
Short Biographies xxiii
Section 1 BEHAVIORAL BIASES IN ANIMALS
Chapter 1 Insights Into the Evolution of Lateralization From the Insects
3(30)
Jeremy E. Niven
Elisa Frasnelli
1 Introduction
3(2)
2 Lateralization in the Insects
5(8)
2.1 Behavioral and Motor Lateralization
5(2)
2.2 Sensory Lateralization
7(1)
2.3 Lateralization in Feeding Behavior
8(1)
2.4 Lateralization in Interactions
9(3)
2.5 Learning, Memory, and Lateralization
12(1)
3 What Advantages Does Lateralization Confer?
13(4)
3.1 The Evolution of Individual and Population-Level Lateralization
14(1)
3.2 Evidence for the Benefits and Costs of Lateralization in Insects
15(2)
4 Social Interactions, Behavioral Modularity, and the Evolution of Lateralization
17(4)
4.1 Social Environments Promote Population-Level Behavioral Lateralization
18(1)
4.2 Specificity of Lateralized Behaviors
19(1)
4.3 Are There Alternative Explanations for the Evolution of Lateralization?
20(1)
5 Common Origin or Independent Evolution?
21(3)
5.1 Origins of Lateralization in the Insects
21(2)
5.2 Is There a Common Origin of Insect and Vertebrate Lateralization?
23(1)
6 Conclusion
24(9)
Acknowledgments
25(1)
References
25(6)
Further Reading
31(2)
Chapter 2 Motor Asymmetries in Fishes, Amphibians, and Reptiles
33(24)
Gionata Stancher
Valeria Anna Sovrano
Giorgio Vallortigara
1 The Occurrence of Motor Asymmetries in Lower Vertebrates
33(8)
1.1 Limb P References in Fishes, Amphibians, and Reptiles
34(3)
1.2 Turning in Fish as a Model Behavior in the Study of Lateralization
37(4)
2 Evolutionary Perspectives on Motor Asymmetries: Proximate and Ultimate Causes of Motoric Lateralization
41(16)
2.1 The Occurrence of Lateralized Behaviors in Lower Vertebrates and the Tricky Phylogeny of Motoric Lateralization
46(5)
References
51(6)
Chapter 3 A Review of Performance Asymmetries in Hand Skill in Nonhuman Primates With a Special Emphasis on Chimpanzees
57(34)
William D. Hopkins
1 Introduction
58(3)
2 Grasping Morphology and Hand Use
61(4)
3 Intermanual Differences in Motor Skill or Performance
65(12)
3.1 Grasping Performance
65(2)
3.2 Tool Use
67(3)
3.3 Brinkman Board Task
70(1)
3.4 Bent Wire or Lifesaver Task
71(1)
3.5 Joystick Manipulation
72(1)
3.6 Bimanual Feeding
73(1)
3.7 Quantifying Handedness Preference (the QHP Task)
73(4)
4 Discussion
77(14)
Acknowledgments
81(1)
References
81(10)
Chapter 4 Manual Bias, Behavior, and Cognition in Common Marmosets and Other Primates
91(24)
Lesley J. Rogers
1 Introduction
91(4)
2 Performance Differences Between Left- and Right-Handed Primates
95(7)
2.1 Exploration
95(3)
2.2 Social Behavior
98(1)
2.3 Cognitive Bias
99(1)
2.4 Fear and Stress Responses
100(1)
2.5 Learning
101(1)
3 Absence of Differences Between Left- and Right-Handed Primates
102(2)
4 Strength of Hand Preference
104(2)
5 Associations Between Hand Preference and Neuroanatomy
106(1)
6 General Discussion
107(8)
References
109(6)
Chapter 5 Mother and Offspring Lateralized Social Behavior Across Mammalian Species
115(30)
Karina Karenina
Andrey Giljov
1 Introduction
115(4)
1.1 Infant Cradling/Holding Bias in Humans and Nonhuman Primates
116(1)
1.2 When Left Is Right: Lateral P References in Mother and Infant in Relation to Brain Lateralization
117(1)
1.3 An Evolutionary Perspective on Lateralized Mother-Infant Relationships in Primates
118(1)
2 Lateralization of Infants' Perception of Mother
119(8)
2.1 Approaches to Investigating Lateralized Infants' Behavior
119(2)
2.2 Infants' Lateral Position P References
121(1)
2.3 Lateralized Suckling Position
121(3)
2.4 Potential Confounding Factors
124(1)
2.5 Right Hemisphere Advantage for an Infant's Perception of Their Mother
125(2)
3 Lateralization of Mothers' Perception of Infant
127(3)
3.1 Maternal P References for the Lateral Position Favoring Right Hemisphere Processing
127(2)
3.2 Factors Affecting Lateralization in Mothers
129(1)
4 Costs and Benefits of Lateralized Mother-Infant Interactions
130(5)
4.1 Advantages of Greater Right Hemisphere Involvement for Mother and Infant
131(1)
4.2 Spatial Conflict Between Mother an Infant
132(2)
4.3 Differential Lateralization in Sons and Daughters
134(1)
5 Conclusion
135(10)
Acknowledgments
135(1)
References
136(5)
Further Reading
141(4)
Section 2 BEHAVIORAL BIASES IN HUMANS
Chapter 6 Speech Lateralization and Motor Control
145(34)
Jessica C. Hodgson
John M. Hudson
1 Introduction
145(1)
2 Speech Lateralization
146(3)
2.1 Sex Differences in Speech Lateralization
148(1)
2.2 Developmental Patterns of Speech Lateralization
148(1)
3 Motor Lateralization
149(5)
3.1 Developmental Patterns of Motor Lateralization
150(1)
3.2 Measurement and Classification
151(1)
3.3 Preference Measures
152(1)
3.4 Performance Measures
152(2)
4 Associations Between Speech and Motor Laterality
154(9)
4.1 Neuropsychological Evidence
155(2)
4.2 Developmental Evidence
157(1)
4.3 Neurodevelopmental Evidence
158(1)
4.4 Neurophysiological Evidence
159(2)
4.5 Neurobiological Evidence
161(1)
4.6 Genetic Considerations
162(1)
5 A Model for Praxis and Speech
163(3)
6 Summary
166(13)
References
167(11)
Further Reading
178(1)
Chapter 7 Handedness and Cognitive Ability: Using Meta-Analysis to Make Sense of the Data
179(28)
Marietta Papadatou-Pastou
1 Introduction
179(1)
2 Importance of Understanding Whether a Relationship Between Handedness and Cognitive Ability Exists
180(2)
3 Sources of Discrepancy in the Literature
182(3)
3.1 Cognitive Ability vs Intelligence: Issues of Definition and Measurement
182(1)
3.2 Conceptualization and Measurement of Handedness
183(1)
3.3 Sample Size and Participant Characteristics
184(1)
3.4 Section Summary
185(1)
4 Theories Linking Handedness With Cognitive Ability
185(3)
5 The Meta-analytic Method
188(2)
6 Meta-analysis of General Population Studies on the Relationship Between Handedness and Cognitive Ability
190(5)
6.1 Handedness and Verbal and Spatial Ability
190(2)
6.2 Handedness and Intelligence Measured via Full-Scale IQ
192(3)
7 Meta-analysis of Studies With Special Populations
195(2)
8 Summary and Conclusions
197(10)
References
200(7)
Chapter 8 Atypical Structural and Functional Motor Networks in Autism
207(42)
Dorothea L. Floris
Henrietta Howells
1 Cerebral Lateralization
207(6)
1.1 Introduction
207(2)
1.2 Evolutionary Perspective
209(1)
1.3 Origins: Genetic and Environmental Factors
210(3)
2 Altered Motor Behavior in Autism Spectrum Disorder
213(5)
2.1 Early Motor Development
213(1)
2.2 Gross Motor Disturbance
214(2)
2.3 Fine Motor Disturbance
216(2)
3 Handedness and Autism Spectrum Disorder
218(2)
3.1 Developmental Origins
218(1)
3.2 Handedness in Autism Spectrum Disorder
219(1)
4 Structural Lateralization and Autism Spectrum Disorder
220(5)
4.1 Developmental Origins
220(1)
4.2 Altered Structural Lateralization in Autism Spectrum Disorder
221(4)
5 Functional Lateralization and Autism Spectrum Disorder
225(5)
5.1 Developmental Origins
225(1)
5.2 Altered Functional Lateralization in Autism Spectrum Disorder
226(4)
6 Conclusion
230(19)
References
231(18)
Chapter 9 Lateralization of the Expression of Facial Emotion in Humans
249(22)
Annukka Lindell
1 Right Hemisphere Emotion Lateralization
251(3)
2 Hemifacial Asymmetries in Emotional Expressivity
254(7)
3 Humans Are Intuitively Aware of the Left Cheek's Greater Expressivity
261(3)
4 Summary and Conclusions
264(7)
References
265(5)
Further Reading
270(1)
Chapter 10 Split-Brain Patients: Visual Biases for Faces
271(24)
Giulia Prete
Luca Tommasi
1 Split-Brain Patients
272(5)
1.1 The Callosal Disconnection Syndrome
274(3)
2 Human Faces as Special Stimuli
277(7)
2.1 Hemispheric Asymmetry for Faces in the Disconnected Brain
278(3)
2.2 Emotions as Viewed by a Disconnected Brain
281(1)
2.3 Subliminal Emotions and the Disconnected Brain
282(2)
3 Conclusions
284(11)
References
284(7)
Further Reading
291(4)
Section 3 METHODOLOGICAL CONSIDERATIONS
Chapter 11 Manual Laterality and Cognition Through Evolution: An Archeological Perspective
295(30)
Natalie T. Uomini
Lana Ruck
1 Introduction
295(6)
1.1 Laterality in the Animal Kingdom
296(3)
1.2 Evolution of Laterality and Cognition
299(1)
1.3 Variety of Lateralities
300(1)
2 Evolution of Laterality: The Data
301(4)
2.1 Integrating Multiple Lines of Evidence
304(1)
3 Colaterality: Is Handedness a Valuable Proxy?
305(6)
3.1 Large-Sample Studies on Hemispheric Lateralization and Hand Preference
306(4)
3.2 Contextualizing Colaterality: Additional Evidence
310(1)
4 Discussion
311(14)
Acknowledgments
313(1)
References
313(10)
Further Reading
323(2)
Chapter 12 Cognitive Archeology, Body Cognition, and Hand-Tool Interaction
325(22)
Emiliano Bruner
Annapaola Fedato
Maria Silva-Gago
Rodrigo Alonso-Alcalde
Marcos Terradillos-Bernal
Maria Angeles Fernandez-Durantes
Elena Martm-Guerra
1 Paleoneurology and Endocranial Asymmetries
326(1)
2 Parietal Lobes and Visuospatial Evolution
327(3)
3 Haptic Cognition and Cognitive Extension
330(1)
4 Touching Stones: Hands and Emotion
331(6)
4.1 Hand Morphology
331(2)
4.2 Electrodermal Activity
333(4)
5 Perspectives in Haptic Cognition and Cognitive Archeology
337(10)
Acknowledgments
339(1)
References
339(8)
Chapter 13 Evolution and Development of Handedness: An Evo-Devo Approach
347(30)
George F. Michel
Iryna Babik
Eliza L. Nelson
Julie M. Campbell
Emily C. Marcinowski
1 Introduction
348(1)
2 Evolutionary Theory: How the EES Differs From the Conventional Synthetic Theory
348(7)
2.1 Evolutionary Theory: Natural Selection
350(2)
2.2 Evolutionary Theory: Adaptation
352(1)
2.3 Evolutionary Theory: The Role of Genes in Evolution and Development
353(1)
2.4 Evolutionary Theory: Inheritance Holism
354(1)
3 Evo-Devo: Contrasts Between ST and EES in Developmental Theory
355(5)
3.1 Evo-Devo: A ST Account of Primate Handedness
357(1)
3.2 Evo-Devo: The Evo-Devo Approach to Development
358(2)
4 Relations of EES and Evo-Devo to Handedness
360(2)
5 An Evo-Devo Approach to the Study of Human Handedness
362(4)
5.1 Development of Human Handedness During Infancy
363(3)
6 Handedness and Cognition
366(1)
7 Conclusions
367(10)
References
368(9)
Section 4 CEREBRAL LATERALIZATION AND BEHAVIORAL BIASES AS A FOUNDATION FOR HIGHER COGNITIVE FUNCTION
Chapter 14 A Comparative Perspective on Lateral Biases and Social Behavior
377(28)
Gillian S. Forrester
Brenda K. Todd
1 Introduction
378(1)
1.1 Cerebral Lateralization and Associated Motor Biases
378(1)
1.2 Cerebral Lateralization as a Foundation for Higher Cognitive Function
379(1)
2 Lateralized Visual Biases
379(3)
2.1 Nonhuman Animals
379(2)
2.2 Humans
381(1)
3 Left Lateralized Biases in the Natural World
382(6)
3.1 Social Hand Dominance
382(2)
3.2 Social Positioning
384(4)
4 Lateral Biases and Cognition
388(3)
4.1 Lateral Biases in Early Social Development
388(1)
4.2 Motor Biases as a Marker of Cognitive Ability
389(2)
5 Disrupted Motor Biases and Social Cognition
391(3)
5.1 Deprivation
392(1)
5.2 Stress and Depression
392(1)
5.3 Autism
393(1)
6 Conclusions
394(11)
References
395(8)
Further Reading
403(2)
Chapter 15 Sensorimotor Lateralization Scaffolds Cognitive Specialization
405
Claudia L.R. Gonzalez
Nicole A. van Rootselaar
Robbin L. Gibb
1 Introduction
405(1)
2 Cerebral Lateralization for Visuomotor Control (Left Hemisphere)
406(3)
2.1 Defining "Handedness"
406(1)
2.2 Behavioral Distinctions According to Task and Actor Intent
407(1)
2.3 Neuroimaging Perspectives
408(1)
3 Cerebral Lateralization for Visuomotor Control and Its Relationship to Language
409(5)
3.1 Motor Outcomes of Language and Manual Interactions
409(2)
3.2 Lateralization Mediates Development
411(1)
3.3 Neuroimaging Perspectives
412(1)
3.4 Summary
413(1)
4 Cerebral Lateralization for Visuomotor Control and Its Relationship to Executive Function (and Musical Training)
414(6)
4.1 Defining Executive Function
414(1)
4.2 Lifelong Coordination of EF and Motor Control
414(1)
4.3 Let Us Talk About EF: The Role of Lateralization in Language and EF
415(2)
4.4 "Executive" Functional Magnetic Imaging
417(1)
4.5 Functional Music: The Effect of Musical Training on EF and Language
418(2)
5 Cerebral Lateralization for Haptic Control (Right Hemisphere)
420(1)
5.1 Behavioral Evidence of Right-Hemisphere Haptic Advantage
420(1)
6 Cerebral Lateralization for Haptic Control and Its Relationship to Spatial (and Numerical) Abilities
421(4)
6.1 How to Test What You Cannot See
421(3)
6.2 Numerical Processing Notes
424(1)
7 Conclusion and Future Directions
425
References
426(7)
Further Reading
433
Gillian Forrester is a Senior Lecturer in Psychology at Birkbeck, University of Londons Department of Psychological Sciences. Her research focuses on the evolution and development of cognition with a specialization in cerebral lateralization and motor biases in great apes and in neurotypical and non-neurotypical human populations. Kristelle Hudry is a Senior Lecturer in Developmental Psychology and Senior Research Fellow at the Olga Tennison Autism Research Centre, La Trobe University, Melbourne. Her research focuses on the natural course of development of young children with autism spectrum disorder and developmental plasticity through experience, including early intervention. Annukka Lindell is a Senior Lecturer in Experimental Neuropsychology at La Trobe University, Melbourne, specializing in the consequences of cerebral lateralization for human perception. William D Hopkins is a Professor of Neuroscience at Georgia State University. He has published over 330 research articles focusing on individual and phylogenetic differences in cognition and the brain of primates. Many of his research endeavours have considered the evolution and heritability of cerebral lateralization of function.