Originally published in 1985, Hormones and Human Behaviour provides an account of knowledge concerning the influence of hormones on human behaviour, largely from a physiological point of view. The topics covered include the control of eating, drinking, sexual behaviour, emotional behaviour, learning and memory, as well as the ways in which psychiatric states may affect these activities, and in which hormones may alter mental function. Thus the book will be of interest to those working in the behavioural sciences and psychiatry, as well as to those studying for specialist qualifications in psychological medicine.

There are many modes of communication that neurons use to transmit information besides what has come to be called neurotransmission. Many of these other types of communication can be classified as neuromodulatory, where instead of conveying excitation or inhibition, the signal from one neuron changes the properties of other neurons or synapses. This form of neuronal communication is often overlooked by systems physiologists, but it is extremely prevalent in the nervous system and needs to be included in any description of how the nervous system processes information. This book provides the foundations for understanding the cellular and molecular basis for neuromodulatory effects. It illustrates some key examples of the roles played by neuromodulation in sensory processing, neuromuscular transmission, generation of motor behaviours, and learning. Finally, the book seeks to point out areas that are likely to be of importance in the future study of information processing by the nervous system. For neurobiology students and researchers, the book summarizes a vast amount of research, and puts it into the context of how these cellular mechanisms are used in systems of neurons. By spanning the levels of analysis from sub-cellular mechanisms through cellular properties and neuronal systems to behaviour, the book provides a framework for understanding this currently exploding field of research. It is accessible to anyone with a basic understanding of neurobiology, but is in depth enough to satisfy readers who are very familiar with the field.

This book summarizes the most recent data on the molecular and cellular mechanisms which determine the unique properties of nerve cells - their ability to differentiate, establish connections to each other, and to form the nervous system with its immense capability for receiving, analysing, and storing information about our external and internal world. The key role of calcium ions in this process is particularly explored, along with nervous system function in aging and neural pathology. The author, based at a high-profile research unit in the Ukraine, is able to draw on significant new research which has not been widely published. Plasticity in nerve cell function will be of interest to researchers and research students in the fields of neurophysiology, cellular physiology, biophysics, and neurochemistry in particular. It will also be of relevance to researchers and medical doctors interested in neuropathology and aging.

This is the first volume in a series on membrane protein transfer. Membrane protein transport underlies the topological disposition of many proteins within cells and it is this disposition that allows for the co-ordination of the central cellular processes, such as metabolism.

Despite extensive physiological, biochemical, and structural studies, the mechanisms of muscle contraction operating in living muscle fibres are still not clearly understood. This book aims to describe and assess various experimental methods currently used in the field of muscle research. For
each method discussed, there is a comprehensive description of its advantages, problems, and limitations. Each chapter also contains a summary of the central results to have been obtained using each method. Comprehensively written by experts in their respective fields, this book will be of interest
to all investigators in muscle physiology.

Adenosine Receptors in Neurodegenerative Diseases covers the role of adenosine receptors in brain function, also focusing on related methodologies and perspectives in therapeutics. The book provides an up-to-date overview by the best specialists in the field, helping readers consider the importance of adenosine and expand the global impact and visibility of adenosine research in the CNS field. Chapters include adenosine biology and signaling, gene regulation, control of motor function, and novel adenosine-based therapies in the CNS. It is an ideal resource for researchers, advanced graduate students, clinicians, and industry scientists working in the fields of clinical neuroscience and molecular and cellular neuroscience.

Electric currents and electromagnetic fields have been applied to biological systems, particularly humans, with both therapeutic and pathological results. Applied Bioelectricity discusses biological responses to electric currents and electromagnetic fields, including medical applications and shock hazards. The book covers fundamental physical and engineering principles of responses to short-term electrical exposure and emphasizes human reactions, although animal responses to electricity are considered as well. The treatment covers reactions from the just-detectable to the clearly detrimental. An important new chapter discusses standards for human exposure to electromagnetic fields and electric current and demonstrates how these standards have been developed based on the principles treated in earlier chapters. J. Patrick Reilly is a member of the principal staff of the Johns Hopkins University Applied Physics Laboratory and is President of Metatec Associates.

This book sheds new light on "inducible" lymphoid organs (ILOs): antigen presentation sites that are generated de novo in peripheral tissues under various pathogenic conditions. Accomplished immunologists demonstrate that the physiological role of these ILOs is completely different from that of central lymphoid organs, i.e., the lymph nodes or spleen. In addition to the central organs, the ILOs are considered essential structures for the efficient elicitation of adaptive immune responses in lesions. The respective chapters highlight examples from multiple sites, e.g. the skin, lung, intestinal tract, genital tract, the synovial membrane of the joints and artificial lymph nodes. Accordingly, readers will learn that ILO structure and function can vary substantially, depending on the context. Presenting the results of the latest immunological research, the book offers a fascinating and insightful read for both scientists and clinicians in the areas of infectious and immune-associated diseases.

At the heart of this classic, seminal book is Julian Jaynes's still-controversial thesis that human consciousness did not begin far back in animal evolution but instead is a learned process that came about only three thousand years ago and is still developing. The implications of this revolutionary scientific paradigm extend into virtually every aspect of our psychology, our history and culture, our religion -- and indeed our future.

After 17 years, the Nutricia Symposium retumed to its horne grounds in The of the 10th Nutricia Netherlands, where the first five Symposia were held. The objective Symposium was to bring together a limited number of opinion leaders and key researchers in selected topics of infant nutrition to discuss the current state of the art based on original contributions and reviews. The discussion sessions after the papers were taped and edited and may give additional information and views. As a result of time constraints, the discussions on a few papers had to be cut short, or, unfortunately, could not take place at all. Nevertheless, we strongly recommend reading the discussion sections, such as the panel discussion on the requirements for LCPUFA for term and/or preterm infants. During the preparation of the Symposium the sad news that Professor J . H. P. Jonxis died prompted the organisers to dedicate one special lecture to the memory of the principal organiser of the first four Nutricia Symposia. This lecture entitled "What determines the production and composition ofbreast milk?" was given by Dr. Kathleen Moti . Acknowledgement should be made to the co-organizers and co-chairmen Professor Sir David HuH, Professor Pieter Sauer and Dr. Terence Stephenson for their contri bution. Finally, without mentioning names, the editors wish to thank a number of persons within the Nutricia organization without whom the Symposium and its Pro ceedings would not have been possible."

A complete overview of electromyography with contributions from pacesetters in the field

In recent years, insights from the field of engineering have illuminated the vast potential of electromyography (EMG) in biomedical technology. Featuring contributions from key innovators working in the field today, "Electromyography" reveals the broad applications of EMG data in areas as diverse as neurology, ergonomics, exercise physiology, rehabilitation, movement analysis, biofeedback, and myoelectric control of prosthesis.

Bridging the gap between engineering and physiology, this pioneering volume explains the essential concepts needed to detect, understand, process, and interpret EMG signals using non-invasive electrodes. "Electromyography" shows how engineering tools such as models and signal processing methods can greatly augment the insight provided by surface EMG signals.

Topics covered include:

• Basic physiology and biophysics of EMG generation
• Needle and surface electrode detection techniques
• Signal conditioning and processing issues
• Single- and multi-channel techniques for information extraction
• Development and application of physical models
• Advanced signal processing techniquesWith its fresh engineering perspective, "Electromyography" offers physiologists, medical professionals, and students in biomedical engineering a new window into the far-reaching possibilities of this dynamic technology.

Approx.572 pages

Ghrelin, the endogenous ligand for the growth hormone secretagogue (GHS) receptor, is critical in the control of food intake and energy balance. The ghrelin receptors are now known to have important physiological properties as modulators of growth hormone release, appetite, glucose homeostasis, metabolism, immune function, neurotransmitter activity, cognitive function and neurodegeneration. Bringing all of this information together in the first comprehensive text on the topic, Ghrelin in Health and Disease provides a state-of-the-art synthesis of the latest work in this area for physicians and physician-scientists. This volume addresses the unique property of ghrelin as a modulator of function. Such a property provides potential utility for safe intervention in a wide variety of disease states. Indeed as we learn more about the basic physiology of ghrelin, the potential for treating new disease targets emerge requiring validation in the clinic. Each chapter in this volume is authored by a leading investigator in the field. The introductory chapter sets the background for the book and provides a superb overview of the relevance of ghrelin to physiology, describing how the discovery of ghrelin has prompted us to completely rethink traditional physiology. The authors conclude their chapters by critically addressing the future translational aspects of ghrelin biology and outlining what key basic research and clinical questions remain to be addressed. An invaluable resource, Ghrelin in Health and Disease distinguishes itself as the first comprehensive title covering all of the molecular and clinical issues relating to ghrelin and advancing our clinical understanding of obesity, growth, and reproductive pathogenesis.

This volume is concerned with the enzymes of the nervous system. Cerebral enzymes form the basis of the functional brain. They are needed for the control of the energetics of the nervous system, whether it be their release or their direction; for the elaboration of transmitters and for their destruction; for the synthesis, transport, and breakdown of all metabolites of the nervous system. They are indispensable for the control of the multitude of factors that govern our thinking and our behavior. They make it possible for us to comprehend what is taking place around us and perhaps to understand what may be in store for us. Enzymes are the stuff of life, and no living cell can be without them. They are the results of many millions of years of evolution, from the time when biological membranes first came into being and were folded to produce the first cells within which the earliest enzymes were wrought. Countless changes have taken place within them, so that, now, only those enzymes exist that play specific roles in the functions of the living cells of today. Those in the nervous system possess a mUltiple role: in the creation, maintenance, and ultimate breakdown of the component cells and in enabling consciousness, perception, memory, and thought to become possible. But though life may go on forever, the enzymes that make life possible will undergo the many changes involved in the evolutionary process.

Erasmus Darwin (1731 1802) is remembered not only as the grandfather of Charles but as a pioneering scientist in his own right. A friend and correspondent of Josiah Wedgwood, Joseph Priestley and Matthew Boulton, he practised medicine in Lichfield, but also wrote prolifically on scientific subjects. He organised the translation of Linnaeus from Latin into English prose, coining many plant names in the process, and also wrote a version in verse, The Loves of Plants. The aim of his Zoonomia, published in two volumes (1794 6), is to 'reduce the facts belonging to animal life into classes, orders, genera, and species; and by comparing them with each other, to unravel the theory of diseases'. The first volume describes human physiology, especially importance of motion, both voluntary and involuntary; the second is a detailed description of the symptoms of, and the cures for, diseases, categorised according to his physiological classes.

Reviews of Physiology, Biochemistry and Pharmacology

Volume 160 2008

V. di Marzo: Endocannabinoids: Synthesis and Degradation

R. Rivera and J. Chun: Biological Effects of Lysophospholipids

S. J. O'Meara, K. Rodgers, and C. Godson: Lipoxins: Update and Impact of Endogenous Pro-Resolution Lipid Mediators

R.K.P. Benninger, M. Hao, and D. Piston: Multi-photon Excitation Imaging of Dynamic Processes in Living Cells and Tissues

G. Schmitz and M. Grandl: Lipid Homeostasis in Macrophages - Implications for Atherosclerosis

Despite the success of earlier Neuromethads volumes, I was initially reluctant to edit a further volume because my own - search is concerned with nonneural tissues. I changed my mind for two simple reasons. First, though the sheer diversity of ext- cellular signal molecules is staggering, still more impressive is the remarkably small number of transmembrane signaling processes they recruit- their receptors either have integral ion channels or enzyme activities, or else they catalytically activate G proteins. Likewise, when we look to the final intracellular t- gets of these signaling pathways, they are stucturally diverse, but again there are common themes: the response may either be the gating of an ion channel, or else the phosphorylation of a target protein. Such conservation of signaling mechanisms is both impressive and convenient, and provides my justification for asking authors with interests in diverse tissues to contribute their methodological expertise to this volume. Second, I think it would be difficult to overestimate the extent to which our understanding of intracellular signaling has been transformed by new and improved methodology. Thus, simple methods for measuring inositol phosphates have revealed the profound and widespread importance of the ph- phoinositide pathways, the techniques of contemporary - lecular biology have provided unrivaled opportunities to relate structure and function, and the complex spatial and t- poral characteristics of intracellular signaling pathways were barely imaginable before the introduction of fluorescent indi- tors and single cell-imaging technology.

First published in 1988, Vertebrate Blood Cells provided a comprehensive review of our knowledge of the structure and function of vertebrate blood cells. This was the first book to attempt to draw together such a guide, and this volume was essential reading for this subject. The book consists of six chapters on general evolutionary aspects, fish, amphibian, reptilian, avian and mammalian haematology written by experts in his/her field. Of particular importance is the standardized format used from chapter to chapter which allows the reader to compare the information available on a particular aspect from one group of animals to another. The book should be of interest to immunologists, haematologists and general biologists as well as undergraduate students of zoology, cell biology, microbiology and veterinary and human medicine.

This contributed volume is the first of a series that introduces safe, feasible, and practical decellularization and recellularization techniques for tissue and organ reconstruction. We have put special emphasis on the research areas most likely to develop well-engineered scaffolds for tissue and organ engineering, while presenting easily applicable bench-to-bedside approaches highlighting the latest technical innovations in the field. This book includes both a fundamental discussion for a broad understanding of the basis of tissue repair and substitution, as well as chapters written by world renowned specialists from 20 countries providing deeper discussions and analysis of related sub disciplines. Within these pages, the reader will find state-of-the-art protocols and current clinical challenges in cell and tissue biology, including accurate and comprehensive information on extracellular matrices, natural biomaterials, tissue dynamics, morphogenesis, stem cells, cellular fate progressions, cell and tissue properties for in-vitro and in-vivo applications. This comprehensive and carefully organized treatise provides a clear framework for graduate students and postdoctoral researchers new to the field, but also for researchers and practitioners looking to expand their knowledge on tissue and organ reconstruction.

The central nervous system, which includes the brain and spinal cord, has a high metabolic demand. The physiology of the brain is such that it is easily affected by alterations in other systems, which in turn can compromise cerebral blood flow and oxygenation. Together the brain and spinal cord control the automatic function of our body systems. While other systems of body controls individual functions, central nervous system at the same time does many different functions, especially, controlling the function of other systems. This interaction between the brain and other systems is important when it comes to understanding how injuries to the brain can, at times, produce complications in remote organs or systems of the body, such as the lungs. This book explains the lesser-known crosstalks between acutely or chronically affected brain and lung, describing the pathophysiology of the lung following brain injury and discussing in detail the conflicts between the brain and lungs in relation to the tidal volumes, positive end-expiratory pressures, arterial carbon dioxide and oxygen levels, recruitment maneuvers and positioning, as well as potential therapeutic targets.