Integrative Physiology In The Proteomics And Post Genomics Age

The advent of molecular techniques has shifted the focus of physiology from its traditional role as an integrative science concerned with the study of regulatory mechanisms leading to adaptation and homeostasis, to a field preoccupied with the problems and challenges inherent in those techniques. In Integrative Physiology in the Proteomics and Post-Genomics Age, internationally recognized researchers highlight the major questions and accomplishments of modern physiological research and demonstrate that modern molecular methods can well be incorporated and strengthen the original integrative perspectives of physiology set out by Claude Bernard's concept of the "milieu interieur." Among the critical issues discussed are the place of functional genomics in regulatory physiology, the role of model systems in integrative physiology, the function of neural circuits in behavior and consciousness, and the influence of external challenges to the whole body and the environment on genes. The question of integrative physiology in curriculum design for the health sciences is also discussed. Perceptive and timely, Integrative Physiology in the Proteomics and Post-Genomics Age bridges the gap between molecular biology and whole body function, establishing the future of physiology as an integrative science based on new molecular insights.

There is a perception in the scientific community that the discipline of Physiology is in crisis, or at least, in a phase of profound transition and change. At the root of the problem is confusion between objectives (the biological questions to be solved) and the methods and technologies to be applied. Traditionally, ever since Claude Bernard’s concept of the “milieu interieur,” Physiology was an integrative science with the prime concern of studying regulatory mechanisms leading to adaptation and homeostasis in the presence of challenges from a dynamic internal and external environment. This study of control mechanisms can be applied on any level of fu- tion whether subcellular, cellular, and organ, but reaches its highest level of complexity with the functioning of the body as a whole and its interaction with the external environment. This involves the determination of the interaction of genetic with environmental factors and the resulting integrated body adaptation. It might seem obvious that in the pursuit of these questions any appropriate combination of techniques on any organizational level could be used. Yet the advent of molecular techniques has resulted in a preoccupation with the problems and challenges inherent in these techniques, sometimes at the expense of the original perspectives and concepts. The many new mechanisms that have been discovered at the molecular level, as well as their economical exploitation, have contributed to a climate of reductionism.

This book covers the many ways humans benefit from interactions with other living species. By studying animals of all kinds and sizes, from microbial organisms to elephants and whales, we can learn about their adaptations to extreme conditions on the planet Earth, about the evolutionary development of specialized capabilities, and about their ways of defending themselves against predators and diseases. The authors discuss the strengths and weaknesses of Homo sapiens, and how the study of animals can make us stronger and healthier. To deepen our knowledge of genetics, molecular and cell biology, physiology and medicine, we need to study model organisms. To cure human disease, we can learn from animals how they have evolved ways to protect themselves. To improve human performance, we can study the animal kingdom’s top performers and learn from their successes. Considering these important pointers, the authors review genetic engineering techniques that can translate our existing and future animal connections into benefits for human health and performance.

The present two volume book "Brain Injury" is distinctive in its presentation and includes a wealth of updated information on many aspects in the field of brain injury. The Book is devoted to the pathogenesis of brain injury, concepts in cerebral blood flow and metabolism, investigative approaches and monitoring of brain injured, different protective mechanisms and recovery and management approach to these individuals, functional and endocrine aspects of brain injuries, approaches to rehabilitation of brain injured and preventive aspects of traumatic brain injuries. The collective contribution from experts in brain injury research area would be successfully conveyed to the readers and readers will find this book to be a valuable guide to further develop their understanding about brain injury.

This volume presents the proceedings of CLABIO 2015 - II Latin American Conference on Bioimpedance, held in Montevideo, Uruguay - September 30 - October 02, 2015. The works cover a broad range in Biomedical Engineering and Computing, Medical Physics and Medical Sciences, Environment, Biology and Chemistry. The topics are: ·Bioimpedance Applications ·Bioimpedance Instrumentation ·Body and Tissue Composition ·Cell Culture and Cell Suspension ·Electrical Impedance Tomography ·Electrode Modelling ·Magnetic Induction - Electrical Impedance Tomography ·Magnetic Resonance - Electrical Impedance Tomography ·Nonlinear Phenomena ·Organ and Tissue Impedance ·Plant Tissue Impedance ·Skin Impedance Modelling ·Technological Advances in Bioimpedance ·Theory and Modelling

This collection of 60 cases covers the clinically relevant physiology topics that first- and second-year medical students need to know for a first-year physiology course and for USMLE Step 1. Organized by body system, the book presents case studies with questions and problems, followed by complete explanations and solutions including diagrams, graphs, and charts. This edition includes four new cases and more illustrations and flowcharts. A companion Website will offer the fully searchable online text.

The patenting and licensing of human genetic material and proteins represents an extension of intellectual property (IP) rights to naturally occurring biological material and scientific information, much of it well upstream of drugs and other disease therapies. This report concludes that IP restrictions rarely impose significant burdens on biomedical research, but there are reasons to be apprehensive about their future impact on scientific advances in this area. The report recommends 13 actions that policy-makers, courts, universities, and health and patent officials should take to prevent the increasingly complex web of IP protections from getting in the way of potential breakthroughs in genomic and proteomic research. It endorses the National Institutes of Health guidelines for technology licensing, data sharing, and research material exchanges and says that oversight of compliance should be strengthened. It recommends enactment of a statutory exception from infringement liability for research on a patented invention and raising the bar somewhat to qualify for a patent on upstream research discoveries in biotechnology. With respect to genetic diagnostic tests to detect patient mutations associated with certain diseases, the report urges patent holders to allow others to perform the tests for purposes of verifying the results.

History of Exercise Physiology brings together leading authorities in the profession to present this first-of-its-kind resource that is certain to become an essential reference for exercise physiology researchers and practitioners. The contributing authors were selected based on their significant contributions to the field, including many examples in which they were part of seminal research. The result of this vast undertaking is the most comprehensive resource on exercise physiology research ever compiled. Exercise physiology research is ongoing, and its knowledge base is stronger than ever. But today’s scholars owe much of their success to their predecessors. The contributors to this book believe it is essential for exercise physiologists to understand the past when approaching the future, and they have compiled this reference to aid in that process. The text includes the following features: • A broad scope of the primary ideas and work done in exercise physiology from antiquity to the present • A review of early contributions to exercise physiology made by Scandinavian scientists, the Harvard Fatigue Laboratory, German laboratories, and the Copenhagen Muscle Research Centre • The incorporation of molecular biology into exercise biology and physiology research that paved the way for exercise physiology • An explanation of the relationship between genomics, genetics, and exercise biology • An integrative view of the autonomic nervous system in exercise • An examination of central and peripheral influences on the cardiovascular system • An in-depth investigation and analysis of how exercise influences the body’s primary systems •A table in most chapters highlighting the significant research milestones Well illustrated with figures and photos, History of Exercise Physiology helps readers understand the research findings and meet the most prominent professionals in the field. From studying great thinkers of antiquity and cutting-edge work done by pioneers at research institutions, to exploring the inner workings of all the body’s systems, researchers will gain a precise understanding of what happens when human bodies move—and who influenced and furthered that understanding.