Textbook of Ion Channels
Three Volume Set
1st Edition
Will be published approx. on 27. October 2025
Book
1064 pages
978-1-032-42430-9 (ISBN)
Description
The Textbook of Ion Channels is a set of three volumes providing a wide-ranging reference source on ion channels for students, instructors, and researchers. Ion channels are membrane proteins that control the electrical properties of neurons and cardiac cells, mediate the detection and response to sensory stimuli like light, sound, odor, and taste, and regulate the response to physical stimuli like temperature and pressure. In non-excitable tissues, ion channels are instrumental for the regulation of basic salt balance that is critical for homeostasis. Ion channels are located at the surface membrane of cells, giving them the unique ability to communicate with the environment, as well as the membrane of intracellular organelles, allowing them to regulate internal homeostasis. Ion channels are fundamentally important for human health and diseases, and are important targets for pharmaceuticals in mental illness, heart disease, anesthesia, pain and other clinical applications. The modern methods used in their study are powerful and diverse, ranging from single ion-channel measurement techniques to models of ion channel diseases in animals, and human clinical trials for ion channel drugs.
All three volumes give the reader an introduction to fundamental concepts needed to understand the mechanism of ion channels, a guide to the technical aspects of ion channel research, offer a modern guide to the properties of major ion channel families, and include coverage of key examples of regulatory, physiological, and disease roles for ion channels.
All three volumes give the reader an introduction to fundamental concepts needed to understand the mechanism of ion channels, a guide to the technical aspects of ion channel research, offer a modern guide to the properties of major ion channel families, and include coverage of key examples of regulatory, physiological, and disease roles for ion channels.
More details
Language
English
Place of publication
London
United Kingdom
Publishing group
Taylor & Francis Ltd
Target group
Postgraduate and Undergraduate Advanced
Illustrations
17 s/w Tabellen, 214 farbige Zeichnungen, 30 s/w Zeichnungen, 67 Farbfotos bzw. farbige Rasterbilder, 3 s/w Photographien bzw. Rasterbilder, 281 farbige Abbildungen, 33 s/w Abbildungen
17 Tables, black and white; 214 Line drawings, color; 30 Line drawings, black and white; 67 Halftones, color; 3 Halftones, black and white; 281 Illustrations, color; 33 Illustrations, black and white
Dimensions
Height: 254 mm
Width: 178 mm
Weight
1970 gr
ISBN-13
978-1-032-42430-9 (9781032424309)
Copyright in bibliographic data and cover images is held by Nielsen Book Services Limited or by the publishers or by their respective licensors: all rights reserved.
Schweitzer Classification
Other editions
Additional editions
E-Book
07/2023
1st Edition
Taylor & Francis
€191.99
Available for download
Book
07/2023
1st Edition
CRC Press
€371.75
Shipment within 10-20 days
Persons
Jie Zheng, PhD, is a professor at the University of California Davis School of Medicine, where he has served as a faculty member in the Department of Physiology and Membrane Biology since 2004. Dr. Zheng earned a bachelor's degree in physiology and biophysics (1988) and a master's degree in biophysics (1991) at Peking University. He earned a PhD in physiology (1998) at Yale University, where he studied with Dr. Fredrick J. Sigworth on patch-clamp recording, single-channel analysis, and voltage-dependent activation mechanisms. He received his postdoctoral training at the Howard Hughes Medical Institute (HHMI) and the University of Washington during 1999-2003, working with Dr. William N. Zagotta on the cyclic nucleotide-gated channels activation mechanism and novel fluorescence techniques for ion channel research. Currently, Dr. Zheng's research focuses on temperature-sensitive TRP channels.
Matthew C. Trudeau, PhD, is a professor in the Department of Physiology at the University of Maryland School of Medicine in Baltimore, Maryland. He earned a bachelor's degree in biochemistry and molecular biology in 1992 and a PhD in physiology in 1998 while working with Gail Robertson, PhD, at the University of Wisconsin-Madison. His thesis work was on the properties of voltage-gated potassium channels in the human ether-ai-go-go related gene (hERG) family and the role of these channels in heart disease. Dr. Trudeau was a postdoctoral fellow with William Zagotta, PhD, at the University of Washington and the Howard Hughes Medical Institute (HHMI) in Seattle from 1998 to 2004, where he focused on the molecular physiology of cyclic nucleotide-gated ion channels, the mechanism of their modulation by calcium-calmodulin, and their role in an inherited form of vision loss. Currently, Dr. Trudeau's work focuses on hERG potassium channels, their biophysical mechanisms, and their role in cardiac physiology and cardiac arrhythmias.
Matthew C. Trudeau, PhD, is a professor in the Department of Physiology at the University of Maryland School of Medicine in Baltimore, Maryland. He earned a bachelor's degree in biochemistry and molecular biology in 1992 and a PhD in physiology in 1998 while working with Gail Robertson, PhD, at the University of Wisconsin-Madison. His thesis work was on the properties of voltage-gated potassium channels in the human ether-ai-go-go related gene (hERG) family and the role of these channels in heart disease. Dr. Trudeau was a postdoctoral fellow with William Zagotta, PhD, at the University of Washington and the Howard Hughes Medical Institute (HHMI) in Seattle from 1998 to 2004, where he focused on the molecular physiology of cyclic nucleotide-gated ion channels, the mechanism of their modulation by calcium-calmodulin, and their role in an inherited form of vision loss. Currently, Dr. Trudeau's work focuses on hERG potassium channels, their biophysical mechanisms, and their role in cardiac physiology and cardiac arrhythmias.
Content
Volume I 1. Ion Selectivity and Conductance 2. Voltage-Dependent Gating of Ion Channels 3. Ligand-Dependent Gating Mechanism 4. Mechanosensitive Channels and Their Emerging Gating Mechanisms 5. Inactivation and Desensitization 6. Ion Channel Inhibitors 7. Expression of Channels in Heterologous Systems and Voltage Clamp Recordings of Macroscopic Currents 8. Patch Clamping and Single-Channel Analysis 9. Patch Clamp Recordings from Native Cells and Isolation of Membrane Currents 10. Models of Ion Channel Gating 11. Investigating Ion Channel Structure and Dynamics Using Fluorescence Spectroscopy 12. Ion Channel Structural Biology in the Era of Single Particle Cryo-EM 13. Protein Crystallography 14. Rosetta Structural Modeling 15. Molecular Dynamics 16. Genetic Models and Transgenics 17. EPR and DEER Spectroscopy Volume II 1. Taxonomy and Evolution of Ion Channels 2. Voltage-Gated Sodium Channels 3. Voltage-Gated Calcium Channels 4. Voltage-Gated Potassium Channels 5. ERG Family of K Channels 6. KCNQ Channels 7. BK Channels 8. Small-Conductance Calcium-Activated Potassium (SK) Channels 9. Inward Rectifier Potassium Channels 10. Two-Pore Domain Potassium Channels 11. Cyclic Nucleotide-Gated Channels 12. HCN Channels 13. CLC Chloride Channels and Transporters 14. Ca-Activated Cl- Channels 15: Acetylcholine Receptors 16. Ionotropic Glutamate Receptors 17. 5-HT3 Receptors 18. GABAA Receptors 19. Glycine Receptors 20. Acid Sensing Ion Channels 21: ENaC Channels 22. TRPC Channels 23. TRPM Channels 24. TRPV Channels 25. Store-Operated CRAC Channels 26. Piezo Channels 27. Ryanodine Receptors 28. Proton Channels 29. P2X Receptors Volume III 1. Alternative Splicing 2. Calmodulin Regulation of Ion Channels 3. Mechanism of G-protein Regulation of Ion Channels 4. Regulation of Ion Channels by Membrane Lipids 5. Ion Channels of the Heart 6. Ion Channels in Sperm and Eggs 7. Ion Channels in Immune Cells 8. Ion Channels in Epilepsy 9. Ion Channels in Pain 10. Cystic Fibrosis and the CFTR Anion Channels 11. CLC-Related Proteins in Diseases 12. KATP Channels and the Regulation of Insulin Secretion