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Development of the Nervous System presents a broad outline of neural development principles as exemplified by key experiments and observations from past and recent times. The text is organized along a development pathway from the induction of the neural primordium to the emergence of behavior. It covers all the major topics including the patterning and growth of the nervous system, neuronal determination, axonal navigation and targeting, synapse formation and plasticity, and neuronal survival and death. This new text reflects the complete modernization of the field achieved through the use of model organisms and the intensive application of molecular and genetic approaches. Original, artist-rendered drawings combined with clear, concise writing make Development of the Nervous System well suited to anyone approaching this complex field for the first time.
@introbul:Key Features @bul:* Provides a synopsis of concepts and experimental strategies
- Includes designs of critical experiments that are easy to understand
- Outlines the molecular and genetic bases for many developmental events
- Presents new information on the function of the developing central nervous system
- Richly illustrated with original drawings
- Treats the field as an experimental rather than a descriptive science
- Written at a level that is appropriate for undergraduates and beyond
Neuroscience researchers, students, and educators at graduate and medical schools.
Development and Evolution of Neurons.
Early Embryology of Metazoans.
Neural Tissue Is Derived from Ectoderm.
Interactions with Neighboring Tissues Are Required for the Ectoderm to Make Neural Tissue in Many Animals.
Interactions among the Ectodermal Cells Control the Process of Neuroblast Segregation.
Polarity and Regionalization
Regional Identity of the Nervous System.
The Anterior-Posterior Axis and Hox Genes.
Hox Gene Function.
Signaling Molecules that Pattern the Anterior-Posterior Axis in Vertebrates. Organizing Centers in the Developing Brain.
Forebrain Development, Prosomeres and Pax Genes.
Dorsal-Ventral Polarity in the Neural Tube.
Molecular Basis of Dorsal-Ventral Polarity.
Dorsal Neural Tube and Neural Crest.
Birth and Migration
Cell Cycle Genes Control the Number of Neurons Generated during Development.
Cell Interactions Control the Number of Neurons and Glia Generated.
Cerebral Cortex Histogenesis. The Subventricular Zone: A Secondary Zone of Neurogenesis.
Cerebellar Cortex Histogenesis.
Postembryonic and Adult Neurogenesis.
Determination and Differentiation
Transcriptional Control of Invariant Lineages.
Position and Determination.
Multiple Interactions in a Lineage-Based System with Asymmetric Cell Division.
The Dominance of Cellular Interactions in the Determination of Drosphila Retinal Cells.
Vertebrate Retinogenesis Has a Similar Developmental Strategy.
Glial Cell Fate.
Fate Decisions in the Vertebrate Neural Crest. Neuronal Fate in the Vertebrate Spinal Cord.
Laminar Fate in the Cerebral Cortex.
Positional Cues Determine Axonal Projection Patterns.
Regulation of Phenotype by the Target.
Axon Growth and Guidance
The Growth Cone.
The Growing Zone. The Dynamic Cytoskeleton.
Growth Cone Guidance.
Extracellular Matrix and Axon Outgrowth.
Cell Adhesion Molecules.
Labeled Pathways and Global Guidance.
Gradients of Diffusible Tropic Factors.
Repulsive Factors . Axon Regeneration.
Guidance at the Target.
Cellular Target Recognition.
Targeting to the Correct Layer. Topographic Mapping.
Mapping the Body.
Somatotopy: Maps in the Brain and Their Modification.
Visual Maps and the Theory of Chemospecificity.
Determination of Retinotopic Identity.
Shifting Connections, Fine Tuning, and Registration.
Survival and Growth
What Does Neuron Death Look Like?
How Many Neurons Die?
Survival Depends on the Synaptic Target.
NGF: A Target-Derived Survival Factor.
NGF Is a Member of the Neurotrophin Family.
There Is a Family of Neurotrophin Receptors.
The Low-Affinity Neurotrophin Receptor.
The Expanding World of Survival Factors.
Endocrine Control of Cell Survival. Cell Death Requires Protein Synthesis.
Caspases: Agents of Death . Regulating Death Proteins.
Synaptic Transmission at the Target.
Afferent Regulation of Cell Survival.
Synapse Formation and Electric Function
What Does Synapse Formation Look Like?
Where Do Synaptic Specializations Form?
Initial Signs of Synaptogenesis in Vitro.
Role of Calcium during Presynaptic Differentiation.
Second Messengers Mediate Presynaptic Differentiation.
Molecular Signals and Presynaptic Differentiation. Receptor Clustering Signifies Postsynaptic Differentiation at NMJ.
Presynaptic Terminals Induce Receptor Aggregation.
Agrin, a Transynaptic Clustering Signal.
Postsynaptic Response to Agrin.
Receptor Clustering Mechanisms in the CNS.
Regulation of Receptor Expression and Synthesis.
Neuronal Activity Limits Receptor Expression.
ARIA, a Transynaptic Regulator of Transcription.
Rapid Modulation of Release and Receptor Function.
Maturation of Transmission and Receptor Isoform Transitions.
Maturation of Transmitter Reuptake.
Appearance of Synaptic Inhibition.
Is Inhibition Really Inhibitory during Development?
Resting Potential and Membrane Properties.
The Action Potential.
Significance of Calcium Channel Expression . Regulation of Ionic Channel Expression.
Refinement of Synaptic Connections
Rearranging Synaptic Connections.
Functional Synapses Are Eliminated.
Axonal Arbors Are Refined or Eliminated.
Some Terminals Expand or Remain Stable.
Neural Activity Regulates Synaptic Connections.
Sensory Coding Properties Reflect Synapse Rearrangement.
Activity Contributes to the Alignment of Sensory Maps.
Spontaneous Activity and Afferent Segregation.
Some Forms of Plasticity Have a Time Limit.
Cellular Events during Synapse Elimination.
Synapses Interact Over a Short Distance.
Effect of Disuse.
Postsynaptic Receptors Are Eliminated.
Involvement of Intracellular Calcium.
NMDA Receptors and Calcium Signaling.
The Role of Second Messenger Systems.
Metabotropic Receptors: The Plot Broadens.
Plasticity of Inhibitory Connections . Synaptic Influence on Neuron Morphology.
Cellular and Environmental Mechanisms.
Environmental Determinants of Behavioral Development.
Motor Behavior: The First Movements.
Are the First Behaviors Spontaneous or Reflexive?
The Mechanism of Spontaneous Movements .
Embryonic Movements: Uncoordinated or Integrated?
The Role of Activity in the Emergence of Coordinated Behavior.
Beginning to Make Sense of the World.
Asking Babies Questions.
Hormonal Control of Brain Gender.
Genetic Control of Brain Gender.
Singing in the Brain.
From Gonads to Brain?
Learning to Remember.
Fear and Loathing.
Getting Information from One Brain to Another.
- No. of pages:
- © Academic Press 2000
- 7th June 2000
- Academic Press
- eBook ISBN:
Dr. Sanes is Professor in the Center for Neural Science and Department of Biology at New York University. Named a Fellow of the American Association for the Advancement of Science (AAAS) in 2010 for his research in auditory central nervous system development, his research has been supported by the National Institute on Deafness and Other Communication Disorders and the National Science Foundation. His lab studies synaptic plasticity and central auditory processing, and the phenomenon of hearing loss during development.
Professor, Center for Neural Science and Department of Biology, New York University, NY, USA
Dr. Reh is Professor of Biological Structure and Director of the Neurobiology and Behavior Program at the University of Washington. He is currently a member of the Scientific Advisory Board of the Foundation Fighting Blindness, and of a start-up biotechnology company, Acucela. He has received several awards for his work, including the AHFMR and Sloan Scholar awards and has published over 100 journal articles, reviews and books. Funded by numerous N.I.H. and private foundation grants, his lab is focused on the development and repair of the retina, with an overall goal of understanding the cellular and molecular biology of regeneration in the eye.
Professor of Biological Structure and Director of the Neurobiology and Behavior Program, University of Washington, Seattle, USA
Dr. Harris is co-chair of Cambridge Neuroscience and Director of Studies in Neuroscience. He is also Head of the Department of Physiology, Development, and Neuroscience, and is Professor of Anatomy. Elected a Fellow of the Royal Society of London in 2007, he was Professor of Biology at UCSD prior to accepting a position at Cambridge. His lab is working to elucidate the cellular and molecular events that are used to push or induce cells to transition from proliferating stem cells to differentiated neurons and glia, and how particular regions of the nervous system produce the right number of neurons and the right proportions of different neuron subtypes.
Head of the Department of Physiology, Development, and Neuroscience, Professor of Anatomy, University of Cambridge, UK
@qu:"...a truly excellent text that will serve to excite new students in neuroscience and development for years to come...[The authors] imbue their text with enthusiasm, which combined with a scholarly and methodical review of the history of developmental neurology generates a shockingly easy to read and interesting text." @source:--Douglas Kerr, Johns Hopkins Hospital in TRENDS IN NEUROSCIENCES (May 2001) @qu:"Clearly and accurately written, beautifully illustrated and thoughtfully organized, this book covers everything from neural induction to the ontogeny of behavior in a style that is easily accessible to students." @source:--RONALD W. OPPENHEIM, Ph.D. Department of Neurobiology & Anatomy, Wake Forest University, Bowman Gray Medical School @qu:"The book provides a scholarly review of the past and a carefully pruned view of the present. With relief, I can add that it is written in a clear, accessible style that students will appreciate." @source:--Sally Temple, NATURE NEUROSCIENCE @qu:"I certainly intend to make this book required reading for our own graduate course in Developmental Neuroscience." @source:--JOHN L. BIXBY, Neuroscience Program, University of Miami, School of Medicine
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