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Neurobiology of Learning and Memory 3rd Revised edition [Hardback]

(, The University of Colorado Boulder Psychology)
  • Formāts: Hardback, 456 pages, height x width x depth: 239x193x25 mm, weight: 1134 g
  • Izdošanas datums: 30-Mar-2021
  • Izdevniecība: Oxford University Press Inc
  • ISBN-10: 1605359343
  • ISBN-13: 9781605359342
  • Hardback
  • Cena: 239,37 €
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  • Formāts: Hardback, 456 pages, height x width x depth: 239x193x25 mm, weight: 1134 g
  • Izdošanas datums: 30-Mar-2021
  • Izdevniecība: Oxford University Press Inc
  • ISBN-10: 1605359343
  • ISBN-13: 9781605359342
To understand how the brain learns and remembers requires an integration of psychological concepts and behavioral methods with mechanisms of synaptic plasticity and systems neuroscience. The Neurobiology of Learning and Memory, Third Edition, provides a synthesis of this interdisciplinary field. Each chapter makes the key concepts transparent and accessible to a reader with minimal background in either neurobiology or psychology and is extensively illustrated with full-color photographs and figures depicting important concepts and experimental data. The goal of this book remains the same as it was for the previous editions-to present a story of how memories are made. The story has three major parts, which have been expanded to include new chapters or reorganized to incorporate new findings and concepts.

Part One explores the molecular basis of the synaptic changes that support memory. It begins with an overview of memory from the perspective of the brain. It next describes the long-term potentiation methodology used to study how synapses are modified and concepts needed to understand the organization of synapses. The remaining chapters are organized around the idea that the synaptic changes that support long-term potentiation evolve in four overlapping stages referred to as (a) generation, (b) stabilization, (c) consolidation, and (d) maintenance. The goal of each chapter is to reveal that each stage depends on unique molecular processes and to describe what they are. There are now separate chapters on the generation and stabilization of long-term memory and the chapter Consolidating LTP: Specific Mechanisms has been extensively revised to give proper treatment to the local events in the dendritic spine region that consolidate memories.

Part Two builds on this foundation to show how molecules and cellular processes that have been identified from studies of synaptic plasticity also participate in the making of memories. It discusses some of the basic conceptual issues researchers face in trying to relate memory to synaptic molecules and describes some of the behavioral and neurobiological methods that are used. The chapters describing the processes involved in memory formation and consolidation have been extensively modified to provide a more detailed account of the molecular events that are engaged to ensure that established memories endure. The chapter Maintaining Long-Term Potentiation has been revised to provide a broader view of the topic. New chapters focus on recent advances in the neurobiology of forgetting (The Yin and Yang of Memory: Forgetting versus Maintenance) and the search for engrams (Hunting for Engrams). The Fate of Retrieved Memories chapter has been significantly revised to emphasize the importance of memory destabilization processes and how they combine with memory integration processes to allow new information to be incorporated into the retrieved memory.

Part Three is organized around the multiple memory systems view-that different neural systems have evolved to store the content contained in our experience. Three chapters are aimed at issues that surround how the medial-temporal hippocampal system supports episodic memory. The first begins with a discussion of Brenda Milner's research on H.M. that directed researchers to the hippocampus. The Hippocampus Index and Episodic Memory chapter has been significantly revised to include new findings, based on modern molecular techniques, that support Teyler and DiScenna's hippocampus index theory. A separate chapter, When Memories Age, is devoted to issues that emerge when researchers confront what happens as memories grow old. Next the cortical-striatal system and its relationship to what are called behavioral actions and habits is described, and the book ends with a discussion of neural systems involved in the acquisition and removal of emotional memories.

Recenzijas

I really appreciate the conversational tone in which Dr. Rudy writes, he manages to unpack a great deal of information while giving the feeling that he is in the room having a chat. This makes it very accessible to students. * Sondra Bland, University of Colorado Denver * The Neurobiology of Learning and Memory provides a cogent framework of organization and includes a comprehensive bibliography for those seeking historically significant references. * Michael Ferragamo, Gustavus Adolphus College * The Neurobiology of Learning and Memory does an exceptional job of simplifying difficult concepts so that students from various backgrounds can understand. * Roberto Galvez, University of Illinois at Urbana-Champaign * This book is accessible for newcomers to neuroscience, yet maintains the sophistication that is necessary to challenge more advanced neuroscience students. * Richard Hyson, Florida State University * The Neurobiology of Learning and Memory does a great job of presenting the field as a developing story. I appreciate the approach of introducing the major investigators of the field as key players in an ongoing story. * Laura Harrison, Tulane University * This book is accessible for newcomers to neuroscience, yet maintains the sophistication that is necessary to challenge more advanced neuroscience students. -Richard Hyson, Florida State University This book is ideal for my fourth-year seminar course. It would be more than appropriate for a third-year lecture course. Moreover, I have even used it as one of the main resources for graduate students completing a reading course on the neurobiology of learning and memory. -Hugo Lehmann, Trent University

1 Introduction: Fundamental Concepts and Historical Foundations
1(16)
Learning and Memory Are Theoretical Concepts
2(1)
Psychological and Neurobiological Approaches
3(3)
Psychological Approach
3(2)
Neurobiological Approach
5(1)
Historical Influences: The Golden Age
6(7)
Phenomena and Ideas
6(3)
The Neuron Doctrine and Synaptic Plasticity
9(2)
Behavioral Methods
11(2)
Core Themes
13(1)
Synaptic Basis of Memory
13(1)
Molecules and Memory
13(1)
Neural Systems and Memory
14(1)
Summary
14(1)
References
14(3)
PART 1 Synaptic Basis of Memory
17(134)
2 Memory and the Brain: Central Concepts
19(28)
A Brain's View of Memory
20(1)
The Phenomenon of Long-Term Potentiation
21(15)
The Conceptual Basis of LTP
24(8)
Methodology for Inducing and Measuring LTP
32(3)
Long-Term Depression: The Polar Opposite of LTP
35(1)
How Synapses Are Modified
36(4)
The Synapse as a Biochemical Factory
36(3)
Signaling Cascades
39(1)
An Organizing Framework: Three Principles
40(3)
The Duration of LTP Can Vary
41(1)
Molecular Processes Determine LTP Durability
42(1)
Synapses Are Strengthened and Maintained in Stages
42(1)
Summary
43(1)
References
44(3)
3 Generating Long-Term Potentiation
47(20)
The Role of Glutamate Receptors
48(6)
LTP Induction Requires NMDA Receptors
49(2)
Two Events Open the NMDA Channel
51(1)
Increase in AMPA Receptors Supports LTP Expression
51(3)
Post-Translation Processes
54(9)
AMPA Receptor Trafficking
54(7)
Actin Cytoskeleton Degradation
61(2)
Summary
63(1)
References
63(4)
4 Stabilizing Long-Term Potentiation
67(22)
Structural Changes in Dendritic Spines Support LTP
68(3)
Stabilizing LTP Requires Actin Polymerization
71(3)
Phase 1 Actin Filaments Are Unbundled and Severed
72(2)
Phase 2 The Actin--Spine Architecture Is Reconstructed
74(1)
Experimental Evidence
74(10)
Single Spine Imaging
75(2)
TBS Induces Actin Regulation
77(2)
Cell Adhesion Molecules Help Stabilize the Trace
79(5)
Summary
84(1)
References
84(5)
5 Consolidating LTP: Translation and Transcription
89(18)
The De Novo Protein Synthesis Hypothesis
90(1)
Local Protein Synthesis
91(3)
Genomic Signaling
94(5)
Synapse-to-Nucleus Signaling
94(3)
Soma-to-Nucleus Signaling
97(2)
Translation Requires Increased Calcium Levels
99(5)
Spine and Dendritic Compartments
101(2)
Soma Compartment
103(1)
Summary
104(1)
References
104(3)
6 Consolidating LTP: Specific Mechanisms
107(24)
Local Dendritic mRNA Dynamics
108(5)
Initiation of Local Protein Synthesis
109(2)
Signaling Pathways
111(2)
Protein Degradation
113(3)
The Ubiquitin--Proteasome System
113(1)
Protein Degradation and LTP
114(2)
Arc Protein Synthesis
116(2)
Arc Antisense Blocks Long-Lasting LTP
116(1)
BDNF--TrkB Consolidation Depends on Arc Protein Synthesis
117(1)
Arc Protein Sustains Actin Regulation
117(1)
The Clustered Plasticity Model
118(8)
Synaptic Tags and the Regulation of Spine Clusters
121(3)
What Is the Tag?
124(1)
Inverse Tags
125(1)
A Caveat
125(1)
Summary
126(1)
References
127(4)
7 Maintaining Long-Term Potentiation
131(14)
Maintenance Molecules
133(6)
CaMKII
133(1)
PKMγ
134(5)
Redundancy and Compensation
139(2)
Genomic Contributions
141(1)
Structural Contributions
141(1)
Summary
142(1)
References
142(3)
8 Bringing It All Together
145(6)
Generation
146(1)
Stabilization
147(1)
Consolidation
148(1)
Maintenance
149(1)
And So It Is
150(1)
PART 2 Molecules and Memory
151(144)
9 Making Memories: Conceptual Issues and Methodologies
153(22)
LTP and Memory
154(1)
Behavior and Memory
154(3)
Test Behavior: The Window to the Memory Trace
155(2)
The Learning--Performance Distinction
157(1)
Dimensions of Memory Traces
157(2)
The Concept of Memory Consolidation
159(1)
Electroconvulsive Shock and Memory Disruption
159(1)
Memory Disruption: A Storage or Retrieval Failure?
159(1)
Some Behavioral Test Methods for Studying Memory
160(7)
Inhibitory Avoidance Conditioning
161(1)
Fear Conditioning
162(2)
Spatial Learning in a Water-Escape Task
164(2)
Recognition Memory Tasks
166(1)
Methods for Manipulating Brain Function
167(5)
Stereotaxic Surgery
167(1)
Genetic Engineering
168(4)
Summary
172(1)
References
172(3)
10 Memory Formation: Early Stages
175(26)
NMDA Receptors and Memory Formation
176(7)
Pharmacological Alteration
176(2)
Genetic Engineering
178(3)
Cautions and Caveats
181(2)
AMPA Receptors and Memory Formation
183(4)
Fear Conditioning Drives GluA1 AMPA Receptors into Spines
183(2)
Preventing AMPA Receptor Trafficking Impairs Fear Conditioning
185(1)
Ampakines and Cognitive Enhancement
186(1)
NMDA and AMPA Receptors: Acquisition and Retrieval
187(2)
CaMKII and Memory Formation
189(3)
Preventing Autophosphorylation of CaMKII Impairs Learning
189(1)
CaMKII and Fear Memories
190(2)
Actin Dynamics and Memory Formation
192(1)
Working and Reference Memory
192(4)
An Animal Model
193(1)
Critical Contributions of Glutamate Receptor Subunits
194(2)
Summary
196(1)
References
197(4)
11 Memory Consolidation
201(20)
The Research Paradigm
202(2)
Criterion for When the Memory is Consolidated
204(1)
Inhibiting Protein Synthesis
204(2)
Molecular Basis of Consolidation
206(11)
Local Protein Synthesis: The First Wave
206(5)
Genomic Signaling: The Second Wave
211(6)
Protein Degradation Processes
217(1)
Summary
218(1)
References
218(3)
12 Memory Modulation Systems
221(22)
Memory Modulation Framework
222(1)
The Great Modulator: The Basolateral Amygdala
223(2)
The Role of Epinephrine
225(2)
The Epinephrine Vagus Connection
227(6)
Norepinephrine Enhances Memories
230(1)
Norepinephrine Enhances Glutamate Release and Arc Translation
230(3)
The Norepinephrine Signal in Other Storage Areas
233(1)
The Epinephrine Liver-Glucose Connection
233(4)
Bioenergetics and the Brain
233(1)
Glucose Modulates Memory
234(1)
Glucose and Aging
235(1)
Glucose and Transcription
235(2)
Glucocorticoids: The Other Adrenal Hormones
237(1)
Summary
238(1)
References
239(4)
13 The Yin and Yang of Memory: Forgetting versus Maintenance
243(16)
Psychological View of Forgetting
244(1)
Neurobiology of Forgetting: The Yin
244(7)
Calcium Signaling Regulates Forgetting
245(1)
AMPA Receptor Endocytosis
246(1)
Mediators of Calcium Signaling
246(5)
Memory Maintenance: The Yang
251(3)
PKMσ Opposes Forgetting
251(1)
Interfering with PKMσ Erases a Taste-Aversion Memory
252(1)
PKMσ Strengthens New Memories and Prevents Forgetting
253(1)
PKMσ Prevents AMPA Receptor Endocytosis
253(1)
Epilogue: Why Do We Forget or Remember?
254(1)
Summary
255(1)
References
255(4)
14 Hunting for Engrams
259(16)
The Engram Search: A Story of Technical Advances
261(6)
Immediate Early Genes
263(1)
The TetTag Mouse
263(3)
Optogenetics
266(1)
Dynamics of Engram Formation
267(2)
What Gets to Be an Engram Cell?
269(3)
Summary
272(1)
References
272(3)
15 The Fate of Retrieved Memories
275(20)
Historical Context
276(3)
Cue-Dependent Amnesia
276(1)
Active Trace Theory
277(2)
Reconsolidation Theory
279(7)
Trace Destabilization
281(1)
What Triggers Destabilization?
282(2)
Destabilization, Repetition, and Integration
284(1)
Destabilization without Behavioral Expression
285(1)
Integration Theory and Amnesia
286(1)
Memory Erasure: A Potential Therapy
287(4)
Drug Relapse
288(1)
Preventing Relapse
289(2)
Summary
291(1)
References
292(3)
PART 3 Neural Systems and Memory
295(108)
16 Memory Systems and the Hippocampus
297(20)
The Multiple Memory Systems Perspective
298(2)
Example 1 Personal Facts and Emotions
298(1)
Example 2 Personal Facts and Skills
298(2)
The Case of Henry Molaison
300(2)
The Episodic Memory System
302(5)
The Animal Model Strategy
302(3)
Studies of Patients with Selective Hippocampal Damage
305(2)
The DNMS Paradox Resolved
307(1)
The MTH System: Episodic Memory and Semantic Memory
308(2)
A Modular MTH System
310(2)
Growing Up without the Hippocampus
310(1)
Recognition Memory and MTH Modularity
311(1)
Summary
312(1)
References
313(4)
17 The Hippocampus Index and Episodic Memory
317(24)
Properties of Episodic Memory
318(2)
Conscious Recollection and Contextual Information Storage
318(1)
Automatic Capture of Episodic and Incidental Information
319(1)
Single Episode Capture with Protection from Interference
319(1)
Properties Summary
320(1)
A Neural System that Supports Episodic Memory
320(2)
The Hierarchy and the Loop
320(2)
The MTH System
322(1)
The Indexing Theory of Episodic Memory
322(4)
Pattern Completion and Pattern Separation
324(1)
Why Not Just Store the Memory in the Neocortex?
324(2)
Indexing Theory and Properties of Episodic Memory
326(1)
Evidence for the Indexing Theory
326(11)
Animal Studies
327(1)
Context Representations Depend on the Hippocampus
327(3)
Conscious Awareness and Recollection
330(1)
Automatic Capture of Single Episodes
330(1)
Pattern Separation
331(1)
Modern Tests
332(5)
Summary
337(1)
References
338(3)
18 When Memories Age
341(18)
The Standard Model of Systems Consolidation
342(2)
Evaluating the Standard Model
344(8)
Clinical Evidence
344(2)
Experimental Evidence
346(1)
Damage to the Hippocampus Disrupts Old and New Memories
346(2)
Memory without the Hippocampus
348(3)
Summary and Implications
351(1)
Systems Consolidation: Another Look
352(2)
Summary
354(1)
References
355(4)
19 Actions, Habits, and the Cortico-Striatal System
359(24)
The Concept of Instrumental Behavior
360(2)
Two Theories of Instrumental Behavior
362(1)
Thorndike's Law of Effect
362(1)
Tolman's Cognitive Expectancy Theory
362(1)
Action and Habit Systems
363(8)
With Practice, Actions Become Habits
367(1)
A Conceptual Model for Actions and Habits
368(1)
Action and Habit Systems Compete
369(1)
Action Systems Are Vulnerable
370(1)
A Cortico-Striatal System Supports Instrumental Behavior
371(7)
Neural Support for Actions
372(4)
Neural Support for Habits
376(2)
The Striatum Stores Action and Habit Memories
378(1)
The Neural Basis of Rewarding Outcomes
378(2)
Summary
380(1)
References
381(2)
20 Learning about Danger: The Neurobiology of Fear Memories
383(20)
The Fear System
384(2)
The Neural Basis of Fear
386(3)
Eliminating Maladaptive Fears: Theories of Extinction
389(3)
Neural Basis of Fear Extinction
392(6)
The CS--noUS Neural Circuit
392(1)
Why Fear Renews: A Role for the Hippocampus
393(1)
Why Fear Spontaneously Recovers: A Role for Forgetting
394(1)
Extinction Learning Depends on NMDA Receptors
394(2)
Extinction Can Erase Fear Memories
396(2)
Defensive Circuits and the Concept of Fear
398(1)
Summary
398(1)
References
399(4)
Glossary 403(16)
Index 419
Jerry W. Rudy is College Professor of Distinction in the Department of Psychology and Neuroscience at the University of Colorado at Boulder. He received his Ph.D. in psychology from the University of Virginia in 1970, and joined the CU Boulder faculty in 1980. He served as Department Chair for ten years and was instrumental in creating the undergraduate Neuroscience degree and served as the Director of that program for several years. The author of over 150 peer-reviewed research papers and book chapters, Dr. Rudy has served on the editorial boards of the Journal of Experimental Psychology: Animal Behavior Processes, Psychobiology, Developmental Psychobiology (Editor in Chief), Behavioral Neuroscience, Neuroscience & Biobehavioral Reviews, Learning and Memory, and Neurobiology of Learning and Memory (Associate Editor). He also served on the governing board and as President of the International Society for Developmental Psychobiology. He has received grant support from the National

Science Foundation, the National Institute of Mental Health, and the National Institute of Health. Professor Rudy's research interests center on learning and memory processes. His research focused primarily on memory development and understanding the complementary contributions the hippocampus and neocortex make to learning and memory. Professor Rudy retired in June 2019.