Originally published in 1992, this volume looks in detail at the important relationship, initially studied in 1871 by Bowditch, between the strength of the heartbeat and the interval between beats. The book draws together the work and experience of leading international research workers in this field. Collectively, the contributors illuminated the underlying mechanisms involved, their expression in both isolated muscle and the intact heart, and speculate on further avenues of research. The volume will be of interest to cardiologists, physiologists and all those concerned with the function of the heart.
Electrons are involved in all electrical phenomena, and living cells cannot be an exception. This book takes on a decidedly different approach to existing texts on electrophysiology, by considering electrical physiological processes from the viewpoint of electron flow, rather than the conventional notion of ion movement. It concisely describes the theoretical background of electron density and cellular voltage, before exploring thought-provoking questions such as the relationship between electrolyte distribution and transmembrane potential, and the source of electricity generation in living cells. A new electromagnetic theory of muscular function is presented, and all topics of relevance — including the electrophysiology of invertebrates, plants, fungi and bacteria — are comprehensively covered. Using plain language and more than 40 original illustrations, the author has designed each chapter to provide a succinct overview of an individual topic in a format that appeals to both the expert and the uninitiated. Electromagnetism, Quanta, and Electron Flow in the Electrophysiology of Living Cells proffers a refreshingly new way to understand a fascinatingly old subject.
Originally published in 1992, this volume looks in detail at the important relationship, initially studied in 1871 by Bowditch, between the strength of the heartbeat and the interval between beats. The book draws together the work and experience of leading international research workers in this field. Collectively, the contributors illuminated the underlying mechanisms involved, their expression in both isolated muscle and the intact heart, and speculate on further avenues of research. The volume will be of interest to cardiologists, physiologists and all those concerned with the function of the heart.
Electrons are involved in all electrical phenomena, and living cells cannot be an exception. This book takes on a decidedly different approach to existing texts on electrophysiology, by considering electrical physiological processes from the viewpoint of electron flow, rather than the conventional notion of ion movement. It concisely describes the theoretical background of electron density and cellular voltage, before exploring thought-provoking questions such as the relationship between electrolyte distribution and transmembrane potential, and the source of electricity generation in living cells. A new electromagnetic theory of muscular function is presented, and all topics of relevance — including the electrophysiology of invertebrates, plants, fungi and bacteria — are comprehensively covered. Using plain language and more than 40 original illustrations, the author has designed each chapter to provide a succinct overview of an individual topic in a format that appeals to both the expert and the uninitiated. Electromagnetism, Quanta, and Electron Flow in the Electrophysiology of Living Cells proffers a refreshingly new way to understand a fascinatingly old subject.