The study of neuroendocrine-immune interactions has become a highly visible and fast-growing segment of mainstream immunology. This book provides an overview of the immune system and in-depth coverage of the many different areas that make up neuroendocrine-immune research. The main emphasis is on the physiology of the processes involved, stressing an integrated approach to immunology. The text is organized in seven sections, beginning with an introduction to the immune system. Section II outlines how the central nervous system (CNS) communicates with central and peripheral lymphoid organs. Section III provides information on factors from the immune system that act as messengers to the CNS. The metabolic regulation of growth and development is discussed in Section IV. Section V examines the interactions occurring between the reproductive and immune systems. The effects of other physiologic stressors on immunity are reviewed in Section VI. Section VII considers cyclic and periodic influences on the immune system. Finally, there is a consideration of a new unifying theory for immunology. Students, researchers, clinicians, and veterinary scientists can discover new areas of interest in specific diseases and immune interactions in this novel presentation.

Published since 1959, International Review of Neurobiology is a well-known series appealing to neuroscientists, clinicians, psychologists, physiologists, and pharmacologists. Led by an internationally renowned editorial board, this important serial publishes both eclectic volumes made up of timely reviews and thematic volumes that focus on recent progress in a specific area of neurobiology research. - Provides solid scientific basis to our understanding of the associations between the brain and the immune system the importance of these connections - Presents coherent development from cellular and molecular neuroimmune communication to social and health considerations, including psychological intervention - Addresses the theory that there is a neurobiology of the immune system

In Cytokines and the CNS, leading practicing physicians and scientists review the current status of cytokines, with an emphasis on their role in developmental and pathological processes in the central nervous system (CNS). They describe various cytokine families and their receptors, focusing on the delineation of known mechanisms by which ligand-receptor interactions mediate biological effects. The book also emphasizes interactions between cytokines and other biological regulators at the cellular and molecular level, and considers in detail tissue-specific effects exerted on CNS cells by cytokines. Cytokine regulation of CNS development also is discussed. With this background, Cytokines and the CNS then explores how cytokine action may be implicated in various human disease processes, including inflammation, neoplasia, degeneration, and the neurological manifestations of HIV infection. This book features cutting-edge information in this rapidly expanding area of investigation - the result of explosive growth in the understanding of cytokines' role in hematopoiesis, inflammation, and immunity, combined with tremendous advances in the identification and characterization of neurotrophic factors. Cytokines and the CNS contains chapters by practicing researchers from the fields of neurobiology and immunology/hematopoiesis, and presents both practical and conceptual information.

The new edition of this definitive textbook reflects the continuing reintegration of psychiatry into the mainstream of biomedical science. The research tools that are transforming other branches of medicine - epidemiology, genetics, molecular biology, imaging, and medicinal chemistry - are also transforming psychiatry. The field stands poised to make dramatic advances in defining disease pathogenesis, developing diagnostic methods capable of identifying specific and valid disease entities, discovering novel and more effective treatments, and ultimately preventing psychiatric disorders. The Neurobiology of Mental Illness is written by world-renowned experts in basic neuroscience and the pathophysiology and treatment of psychiatric disorders. It begins with a succint overview of the basic neurosciences followed by and evaluation of the tools that are available for the study of mental disorders in humans. The core of the book is a series of consistently organized sections on the major psychiatric disorders that cover their diagnostic classification, molecular genetics, functional neuroanatomy, neurochemistry and pharmacology, neuroimaging, and principles of pharmacotherapy. Chapters are written in a clear style that is easily accessible to practicing psychiatrists, and yet they are detailed enough to interest researchers and academics.For this second edition, every section has been thoroughly updated, and 13 new chapters have been added in areas where significant advances have been made, including functional genomics and animal models of illness; epidemiology; cognitive neuroscience; postmortem investigation of human brain; drug discovery methods for psychiatric disorders; the neurobiology of schizophrenia; animal models of anxiety disorders; neuroimaging studies of anxiety disorders; developmental neurobiology and childhood onset of psychiatric disorders; the neurobiology of mental retardation; the interface between neurological and psychiatric disorders; the neurobiology of circadian rhythms; and the neurobiology of sleep disorders. Both as a textbook and a reference work, Neurobiology of Mental Illness represents a uniquely valuable resource for psychiatrists, neuroscientists, and their students or trainees.

Neurodegeneration is one of the most important subjects of the investigation now and in the coming 21st century. Alzheimer's disease is the leading cause of dementia in the elderly people and Parkinson's disease is one of the major neurologic disorders with the prevalence between 1 and 2/1 000 population in advanced countries. Many others are suffering from intractable neurodegener ative disorders such as amyotrophic lateral sclerosis, Huntington's disease, or spinocerebellar degeneration. No truly effective treatment is available for any of these neurodegenerative disorders except for Parkinson's disease; even in Parkinson's disease, still it is impossible to slow down the disease process with the currently available treatment. It is urgently needed to develop new effective technique to halt or slow down the disease process in each of those disorders. Recent advance in the molecular biological and molecular genetic technique has brought us great progress in the understanding of etiology and pathogenesis of these disorders, but still it is not known how neurons are going to die in these disorders. To explore the question, mutual cooperation and exchange of ideas between basic scientists and clinical peoples are of utmost importance.

The second edition of Neurobiology of Disease includes nearly 200 articles surveying all major disorders of the nervous system in both adults and children, focusing on relevant diagnosis and treatments from the perspective of cutting edge clinical and basic neurobiological research. Akin to an encyclopedia of every neurologic disorder, this comprehensive work is ideal for graduate and medical school students, residents, and candidates preparing for their board certification examinations. Each chapter is illustrated with detailed figures, supplemented with descriptive and diagnostic tables, and thoroughly referenced for further investigations. The book's editors, Michael V. Johnston, Harold P. Adams Jr., and Ali Fatemi bring their unique expertise in clinical and research neurology to the overall scope of this work. To further enhance the scope and quality of this new edition, the following Section Editors provided oversight of their respective sections: · Movement Disorders-Joel Perlmutter, Washington University · Dementias-David Knopman, Mayo Clinic · Motorneuron Diseases-Merit Cudkowicz, Massachusetts General Hospital · Paroxysmal Disorders-Solomon Moshe, Albert Einstein College of Medicine · Pediatric Neurology and Developmental Disorders-Tanjala Gipson and Deepa Menon, Kennedy Krieger Institute and Johns Hopkins University · Neuroimmunological Diseases-Carlos Pardo-Villamizar, Johns Hopkins University · Cerebrovascular Diseases-Harold P. Adams Jr., University of Iowa · Peripheral and Autonomic Nervous System Disorders and Pain-Nicholas Maragakis, Johns Hopkins University · Neoplastic and Paraneoplastic Diseases-Lisa DeAngelis, Memorial Sloan-Kettering Cancer Center · Infectious Diseases of the Nervous System-Karen L. Roos, Indiana University · Sleep Disturbances-Mark Dyken, University of Iowa · Substance Abuse and Toxicology Disorders-Barry E. Kosofsky, Weill-Cornell University Medical Center · Neurologic Manifestations of Medical Disorders-John C. Probasco, Johns Hopkins University

Cytokines had been characterized in the early eighties as communication mole cules between immune cells, and between immunocytes and other peripheral cells, such as fibroblasts and endothelial cells. They play a key role in the regulation of the immune response and the coordination of the host response to infection. Based on these biological properties, nobody would have predicted that one decade later cytokines would burst upon neurosciences and permeate into several avenues of current research. In neurology, the connection between cytokines and inflammation, and the demonstration of a pivotal role of some of these molecules in cell death by apoptosis, prompted the investigation of their involvement in several neurological diseases involving an inflammatory component, including multiple sclerosis, brain trauma, stroke, and Alzheimer's disease. This movement started in the late eighties, and the corresponding field of research, known as neuroimmunology, is presently booming. In psychiatry, however, the relationship between cytokines and mental disorders was much less evident and took longer to materialize. The first indication that cytokines might be involved in psychopathology came from cancerology and internal medicine.

It is now accepted that immune molecules are not only present within the brain during pathology but they exert physiological functions in the “healthy” brain as well. Increasing evidence points to a neuro-modulatory role of cytokines and chemokines (CHEMOtactic cytoKINES) in basal transmission and plasticity processes where signaling between peri-synaptic astrocytes, microglia and neurons plays an important role. Nevertheless, the exact mechanisms as to how cytokines, and in particular chemokines, participate in the molecular and cellular processes thought to subserve memory formation, plasticity processes and responsiveness to environmental stimuli remain to be clarified. Interestingly, in in vitro preparations, molecules like TNF-α, interleukin (IL)-1β, IL-6, CX3CL1, CXCL12, CCL2 and CCL3 are implicated in synaptic formation and scaling, in modulation of glutamatergic transmission, in plasticity and neurogenesis, in particular in the hippocampus. The hippocampus is an extremely plastic structure, one of the main neurogenic niches in the adult brain, that exhibits a marked sensibility to environmental stimuli. Indeed exposure of mice to environmental enrichment (EE) modifies learning and memory abilities increasing neurogenesis and neuronal plasticity whether exposure to severe stressful experiences diminishes neurotrophic support, impairs neurogenesis, plasticity and cognition. In the hippocampus cytokines play a key role in mediating both positive as well as negative effects of the environment affecting neuronal plasticity also in stress related pathologies, such as depression. It has been reported that mice lacking type 1 receptor for IL-1 display impaired hippocampal memory and LTP that are restored by EE; moreover negative effects on neuronal plasticity (and thus behavior) induced by stress exposure can be prevented by blocking IL-1 activity. In addition, mice lacking IL-6 have improved cognitive functions whereas the absence of microglia-driven CX3CR1 signaling increases hippocampal plasticity and spatial memory occluding the potentiating effects of EE. However, the factors mediating the effect of environmental stimuli on behavior and plasticity has been only partially identified. Interestingly, it has been suggested that chemokines can play a key role in the flexibility of hippocampal structure and may modulate neuronal signaling during behavior. The question is how cytokines may translate environmental stimuli in plasticity and behavioral changes. This research topic is proposed to explore the role of cytokines, and more in particular chemokines, in the modulation of neuronal activity as a fundamental step for the correct brain wiring, function and susceptibility to environment. We encourage the submission of original research reports, review articles, commentaries, perspectives or short communications, in the following (but not limited to) topics: - Role of cytokines and chemokines in neuronal plasticity - Immune molecules and responsiveness to environment - Role of chemokine in the flexibility of hippocampal structure

The Neuroscience of Depression: Genetics, Cell Biology, Neurology, Behaviour and Diet is a comprehensive reference to the aspects, features and effects of depression. This book provides readers with the behavior and psychopathological effects of depression, linking anxiety, anger and PSTD to depression. Readers are provided with a detailed outline of the genetic aspects of depression including synaptic genes and the genome-wide association studies (GWAS) of depression, followed by a thorough analysis of the neurological and imaging techniques used to study depression. This book also includes three full sections on the various effects of depression, including diet, nutrition and molecular and cellular effects. The Neuroscience of Depression: Genetics, Cell Biology, Neurology, Behaviour and Diet is the only resource for researchers and practitioners studying depression. - Features a section on neurological and imaging, including SPECT Neuroimaging - Analyzes how diet and nutrition effect depression - Examines the molecular and cellular effects of depression - Covers genetics of depression - Includes more than 250 illustrations and tables