Cellular and Molecular Neurophysiology, Fourth Edition, is the only up-to-date textbook on the market that focuses on the molecular and cellular physiology of neurons and synapses. Hypothesis-driven rather than a dry presentation of the facts, the book promotes a real understanding of the function of nerve cells that is useful for practicing neurophysiologists and students in a graduate-level course on the topic alike.
This new edition explains the molecular properties and functions of excitable cells in detail and teaches students how to construct and conduct intelligent research experiments. The content is firmly based on numerous experiments performed by top experts in the field
This book will be a useful resource for neurophysiologists, neurobiologists, neurologists, and students taking graduate-level courses on neurophysiology.
- 70% new or updated material in full color throughout, with more than 350 carefully selected and constructed illustrations
- Fifteen appendices describing neurobiological techniques are interspersed in the text
|Edition description:||New Edition|
|Product dimensions:||8.50(w) x 11.00(h) x 1.10(d)|
About the Author
After many years of lecturing neurobiology to biology and psychology students it became apparent that students were in need of a book to help understand the basic principles of cell electrophysiology. Discussions with Philippe Ascher convinced her that the best way to approach the subject was to explain ionic currents and potential changes in terms of single channels and unitary currents, describing pioneering neurobiological experiments. This first book "Neurobiologie Cellulaire" (written in French with her colleague Danièle Tritsch) appeared in 1990. Its immediate success inspired her to completely revise the book content and publish it in English giving it to a larger audience; Appearing in 1996 the fist edition of "Cellular and Molecular Neuroscience" was born.
Table of Contents
Part I. Neurons: Excitable and Secretory Cells That Establish Synapses 1. Neurons 2. Neuron - Glial Cell Cooperation 3. Ionic Gradients, Membrane Potential and Ionic Currents 4. The Voltage-Gated Channels of Na+ Action Potentials 5. The Voltage-Gated Channels of Ca+2 Action Potentials: Generalization 6. The Chemical Synapses 7. Neurotransmitter Release
Part II. Ionotropic and Metabotropic Receptors in Synaptic Transmission and Sensory Transduction 8. The Ionotropic Nicotinic Acetycholine Receptors 9. The Ionotropic GABAA Receptor 10. The Ionotropic Glutamate Receptors 11. The Metabotropic GABAB Receptors 12. The Metabotropic Glutamate Receptors
Part III. Somato-Dendritic Processing and Plasticity of Postsynaptic Potentials 13. Somato-Dendritic Processing of Postsynaptic Potentials I: Passive Properties of Dendrites 14. Subliminal Voltage-Gated Currents of the Somato-Dendritic Membrane 15. Somato-Dendritic Processing of Postsynaptic Potentials II: Role of Subthreshold Depolarizing Voltage-Gated Currents 16. Somato-Dendritic Processing of Postsynaptic Potentials III: Role of High Voltage-Activated Depolarizing Currents 17. Firing Patterns of Neurons 18. Synaptic Plasticity
Part IV. The Adult Hippocampal Network 19. The Adult Hippocampal Network 20. Maturation of the Hippocampal Network