Respiratory Physiology of Vertebrates: Life With and Without Oxygen [Paperback]

Describes how vertebrates get the oxygen they need and explores examples of extreme respiratory performance, including diving and high-altitude survival.Written primarily for graduate students and researchers in comparative physiology, this book describes the mechanisms of oxygen sensing, uptake and transport in vertebrates. These fundamentals are further illustrated using important examples of extreme respiratory performance, including diving in mammals and birds, air breathing in fish, and long-term survival without oxygen.Written primarily for graduate students and researchers in comparative physiology, this book describes the mechanisms of oxygen sensing, uptake and transport in vertebrates. These fundamentals are further illustrated using important examples of extreme respiratory performance, including diving in mammals and birds, air breathing in fish, and long-term survival without oxygen.How do vertebrates get the oxygen they need, or even manage without it for shorter or longer periods of time? How do they sense oxygen, how do they take it up from water or air, and how do they transport it to their tissues? Respiratory system adaptations allow numerous vertebrates to thrive in extreme environments where oxygen availability is limited or where there is no oxygen at all. Written for students and researchers in comparative physiology, this authoritative summary of vertebrate respiratory physiology begins by exploring the fundamentals of oxygen sensing, uptake and transport in a textbook style. Subsequently, the reader is shown important examples of extreme respiratory performance, like diving and high altitude survival in mammals and birds, air breathing in fish, and those few vertebrates that can survive without any oxygen at all for several months, showing how evolution has solved the problem of life without oxygen.Preface G?ran E. Nilsson; Part I. General Principles: 1. Introduction - why we need oxygen G?ran E. Nilsson; 2. Sensing oxygen Mikko Nikinmaa; 3.lã'