This book discusses unique ion channels and transporters that are located within epithelial tissues of various organs including the kidney, intestine, pancreas and respiratory tract. The authors will show, that each of these channels and transporters play crucial roles in transepithelial ion and fluid transport across epithelia and their responsibility in maintaining homeostasis. The reader gains an understanding of the fundamentals of epithelial ion transport, in terms of function, modelling, regulation, trafficking, structure and pharmacology. This is the third of three volumes highlighting the importance of epithelial ion channels and transporters in basic physiology and pathophysiology of human diseases.
The focus of this volume lies with different ion channel and transporter families. Additionally, this volume benefits from pharmaceutical contributors and their insights into recent pre-clinical drug discovery efforts and results from clinical trials. Overall, these chapters offer a more thorough coverage of individual epithelial ion channels and transporters from the 1st Edition, along with eleven new chapters. That makes Volume 3 an insightful contribution for physiology students, scientists and clinicians.

Is a much more comprehensive second edition with multiple new chapters on numerous ion channels Bridges the gap between historical fundamentals and the latest developments in ion channel research Provides insights and methods from leading laboratories around the world

Autorentext
Kirk L. Hamilton was born in Baltimore, Maryland in 1953. He gained his undergraduate (biology/chemistry) and M.Sc. (ecology) degrees from the University of Texas at Arlington. He obtained his Ph.D. at Utah State University under the tutelage of Dr. James A. Gessaman, where he studied incubation physiology of Barn owls. His first post-doctoral position was at the University of Texas Medical Branch in Galveston, Texas under the mentorship of Dr. Douglas C. Eaton where he studied epithelial ion transport, specifically, the epithelial sodium channel (ENaC). He then moved to the Department of Physiology at the University of Alabama, Birmingham for additional post-doctoral training under the supervision of the late Dr. Dale J. Benos where he further studied ENaC, and non-specific cation channels. He took his first academic post in the Department of Biology at Xavier University of Louisiana in New Orleans (1990-1994). He then joined the Department of Physiology at the University of Otago in 1994, and he is currently an Associate Professor. He has focused his research on the molecular physiology and trafficking of potassium channels (specifically KCa3.1). He has published more than 60 papers and book chapters. His research work has been funded by the NIH, American Heart Association, Cystic Fibrosis Foundation, and Lottery Health Board New Zealand. Dr. Devor and he have been collaborators since 1999. When he not working, he enjoys playing guitar (blues and jazz) and volleyball. Kirk is married to Judith Rodda, a recent Ph.D. graduate in spatial ecology. They have 2 children, Nathan (b. 1995) and Emma (b. 1998).
Daniel C. Devor was born in Vandercook Lake, Michigan in 1961. His education took him through Southampton College of Long Island University, where he studied Marine Biology, before entering SUNY Buffalo for his Ph.D., under the guidance of Dr. Michael E. Duffey. During this time, he studied the role of basolateral potassium channels in regulating transepithelial ion transport. He subsequently did his post-doctoral work at the University of Alabama, Birmingham, under the mentorship of Dr. Raymond A. Frizzell, where he studied both apical CFTR and basolateral KCa3.1 in intestinal and airway epithelia. He joined the University of Pittsburgh faculty in 1995 where he is currently a Professor of Cell Biology. During this time, he has continued to study the regulation, gating and trafficking of KCa3.1 as well as the related family member, KCa2.3, publishing more than 50 papers on these topics. These studies have been funded by the NIH, Cystic Fibrosis Foundation, American Heart Association and pharmaceutical industry. When not in the lab, he enjoys photography and growing exotic plants. Dan is married to Catherine Seluga, an elementary school teacher. They have 3 children, Caitlin (b. 1990), Emily (b. 1993) and Daniel (b. 1997).

Inhalt

1. Na+/K+-ATPase Drives Most Asymmetric Transports and Modulates the Phenotype of Epithelial Cells.- 2. Na+-K+-2Cl- Cotransporter.- 3. Thiazide-sensitive NaCl Cotransporter.- 4. NBCe1, an Electrogenic Na+ Bicarbonate Cotransporter, in Epithelia.- 5. Na+/H+ Exchangers in Epithelia.- 6. Sugar Transport Across Epithelia.- 7. Amino Acid Transporters of Epithelia.- 8. Structure-Dynamic and Regulatory Specificities of Epithelial Na+/Ca2+ Exchangers (NCX).- 9. Urea Transporters in Health and Disease.- 10. H,K-ATPases in Epithelia.- 11. Zinc Transporters Involved in Vectorial Zinc Transport in Intestinal Epithelial Cells.- 12. Properties, Structure and Function of the Solute Carrier 26 Family of Anion Transporters.- 13. ClC-2 Chloride Channels.- 14. The Role of the Endosomal Chloride/Proton Antiporter ClC-5 in Proximal Tubule Endocytosis and Kidney Physiology.- 15. CFTR and Cystic Fibrosis: A Need for Personalized Medicine.- 16. Molecular Physiology and Pharmacology of the Cystic Fibrosis Transmembrane Conductance Regulator.- 17. TMEM16 Proteins (Anoctamins) in Epithelia.- 18. Epithelial Sodium Channels (ENaC).- 19. ROMK and Bartter Syndrome Type 2.- 20. Inwardly-rectifying K+ channel 4.1 regulates renal K+ excretion in the aldosterone-sensitive distal nephron.- 21. Small-molecule Pharmacology of Epithelial Inward Rectifier Potassium Channels.- 22. KCa3.1 in Epithelia.- 23. BK Channels in Epithelia.- 24. Recent Developments in the Pharmacology of Epithelial Ca2+-Activated K+ channels.- 25. KCNE regulation of KCNQ channels.- 26. Orai Channels.- 27. Trp Channels in Renal Epithelia.- 28. P2X receptors in Epithelia.- 29. The Polycystins and Polycystic Kidney Disease.- 30. Renal Aquaporins in Health and Disease.