John Barton Furness

The Enteric Nervous System

• Gebundenes Buch

Produktbeschreibung

Covers all aspects of the structure, function, neurochemistry, transmitter identification and development of the enteric nervous system The enteric nervous system is of special interest because it is the only substantial grouping of neurons outside the central nervous system that form circuits capable of autonomous reflex activity. In humans it contains around 500 million neurons that fall into about 20 functional classes. Because of its size, complexity, and certain structural similarities, it has been likened to a second brain. This book brings together extensive knowledge of the structure and cell physiology of the enteric nervous system and provides an up-to-date synthesis of the roles of the enteric nervous system in the control of motility, secretion and blood supply in the gastrointestinal tract. It includes sections on the enteric nervous system in disease, genetic abnormalities that affect enteric nervous system function, and targets for therapy in the enteric nervous system. It also includes many newly created explanatory diagrams and illustrations of the organization of enteric nerve circuits. This new book is ideal for gastroenterologists (including trainees/fellows), clinical physiologists and educators. It will be invaluable for the many scientists in academia, research institutes and industry who have been drawn to work on the gastrointestinal innervation because of its intrinsic interest, its economic importance and its involvement in unsolved health problems. It provides a valuable resource for undergraduate and graduate teaching.

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Produktdetails

• Verlag: Wiley
• 2nd edition
• Seitenzahl: 288
• Erscheinungstermin: 9. Januar 2006
• Englisch
• Abmessung: 257mm x 182mm x 24mm
• Gewicht: 885g
• ISBN-13: 9781405133760
• ISBN-10: 1405133767
• Artikelnr.: 22709242

Autorenporträt

John Furness is an expert on the enteric nervous system and its functions and has published over 300 relevant papers. In addition to his academic roles, he is a consultant in the GI drug development programs of GlaxoSmithKline, Novartis and Pfizer and has contracts with GSK and Pfizer for target identification and lead compound testing. Relevant honours include: Distinguished Achievement Award, Australian Neuroscience Society, 2003 Davenport Medal, American Physiological Society, 1997 Grossman Lecturer, Cambridge, 1995 (The field of the Grossman Foundation is gastroenterology) Australian Physiological and Pharmacological Society Lecture and Medal, 1995 Distinguished Research Prize, Gastroenterological Society of Australia, 1994 Janssen Research Award, 1993 (The field of the award is gastroenterology) Fellow, Australian Academy of Science, Elected 1989

Inhaltsangabe

Chapter 1: Structure of the enteric nervous system.
The enteric plexuses.
Interconnections between the plexuses.
Extent of the ganglionated plexuses.
Intramural extensions of extrinsic nerves.
Electron microscope studies.
Enteric glia.
The structural similarities and functional differences between regions may
have an evolutionary basis.
Development of the enteric nervous system.
Maturation of enteric neurons and development of function.
Changes in enteric neurons with aging.
Summary and conclusions.
Chapter 2: Constituent neurons of the enteric nervous system.
Shapes of enteric neurons.
Cell physiological classifications of enteric neurons.
Functionally defined enteric neurons.
Neurons in human intestine with equivalence to those investigated in
laboratory animals.
Summary and conclusions.
Chapter 3: Reflex circuitry of the enteric nervous system.
Evolution of ideas about enteric circuitry.
Motility controlling circuits of the small and large intestine.
Intrinsic secretomotor and vasomotor circuits.
Assemblies of neurons.
Circuits in the esophagus and stomach.
Co-ordination of motility, secretomotor and vasomotor reflexes.
Circuits connecting the intestine, biliary system and pancreas.
Sympathetic innervation of the gastrointestinal tract.
Summary and conclusions.
Chapter 4: Pharmacology of transmission and sites of drug action in the
enteric nervous system.
Chemical coding and multiple transmitters.
Transmitters of motor neurons that innervate the smooth muscle of the gut.
Transmitters at neuro-neuronal synapses.
Sites within the reflex circuitry where specific pharmacologies of
transmission can be deduced to occur.
Transmission from entero-endocrine cells to IPANs.
Roles of interstitial cells of Cajal in neuromuscular transmission.
Transmitters of secretomotor and vasodilator neurons.
Synapses in secretomotor and vasodilator pathways.
Transmitters of motor neurons innervating gastrin cells.
Summary and conclusions.
Chapter 5: Neural control of motility.
Rhythmic activity of gastrointestinal muscle.
Structure and properties of interstitial cells of Cajal.
Relationship between slow wave activity and neural control.
Gastric motility.
Patterns of small intestine motility and their intrinsic neural control.
Motility of the colon.
Neural control of the esophagus.
Gall-bladder motility.
Sphincters.
Muscle of the mucosa.
Mechanism of sympathetic inhibition of motility in non-sphincter regions.
Sympathetic innervation of the sphincters.
Physiological effects of noradrenergic neurons on motility in undisturbed
animals.
Reflex activities of sympathetic neurons that affect motility.
Summary and conclusions.
Chapter 6: Enteric neurons and the physiological control of fluid secretion
and vasodilation.
Water and electrolyte secretion in the small and large intestines.
Reflex control of water and electrolyte secretion.
Secretion of gastric acid.
Pepsinogen secretion.
Gastric secretion of bicarbonate.
Secretion into the gall bladder.
Pancreatic exocrine secretion.
Summary and conclusions.
Chapter 7: Disorders of motility and secretion and therapeutic targets in
the enteric nervous system.
Therapeutic endpoints for motility disorders.
Therapies for secretory diarrheas.
Enteric neuropathies involving neuronal loss or phenotypic changes.
Mitochondriopathies with intestinal manifestations.
Irritable bowel syndrome and plasticity of enteric neurons.
Summary and conclusions.
Epilogue: the future of enteric neurobiology.
References.
Index.