Our motor skills determine how well we perform in athletics, dance, music, and in carrying out countless daily chores. While our proficiency at performing individual actions and synthesizing them into seamless sequences limits our athletic and artistic talents, we are not perpetually bound by such limitations. The nervous system can acquire new, and modify old, motor behaviors through experience and practice. That is motor learning.The Acquisition of Motor Behavior in Vertebratesprovides a broad, multidisciplinary survey of recent research on the brain systems and mechanisms underlying motor learning. Following the editors' introduction, nineteen contributions report on the neurobiology of these higher brain functions and on diverse types of motor learning such as reflex adaptation, conditioned and instrumental reflex learning, visually guided actions, and complex sequences and skills.

This cutting-edge book offers a theoretical account of the evolution of multiple memory systems of the brain. The authors conceptualize these memory systems from both behavioral and neurobiological perspectives, guided by three related principles. First, that our understanding of a wide range of memory phenomena can be advanced by breaking down memory into multiple forms with different operating characteristics. Second, that different forms of memory representation are supported by distinct brain pathways with circuitry and neural coding properties. Third, that the contributions of different brain systems can be compared and contrasted by distinguishing between dedicated (or specific) and elaborate (or general) memory systems. A primary goal of this work is to relate the neurobiological properties of dedicated and elaborate systems to their neuropsychological counterparts, and in so doing, account for the phenomenology of memory, from conditioning to conscious recollection.

Recent advances in motor behavior research rely on detailed knowledge of the characteristics of the neurons and networks that generate motor behavior. At the cellular level, Neurons, Networks, and Motor Behavior describes the computational characteristics of individual neurons and how these characteristics are modified by neuromodulators. At the network and behavioral levels, the volume discusses how network structure is dynamically modulated to produce adaptive behavior. Comparisons of model systems throughout the animal kingdom provide insights into general principles of motor control. Contributors describe how networks generate such motor behaviors as walking, swimming, flying, scratching, reaching, breathing, feeding, and chewing. An emerging principle of organization is that nervous systems are remarkably efficient in constructing neural networks that control multiple tasks and dynamically adapt to change.The volume contains six sections: selection and initiation of motor patterns; generation and formation of motor patterns: cellular and systems properties; generation and formation of motor patterns: computational approaches; modulation and reconfiguration; short-term modulation of pattern generating circuits; and sensory modification of motor output to control whole body orientation.

Body Memory, Metaphor and Movement is an interdisciplinary volume with contributions from philosophers, cognitive scientists, and movement therapists. Part one provides the phenomenologically grounded definition of body memory with its different typologies. Part two follows the aim to integrate phenomenology, conceptual metaphor theory, and embodiment approaches from the cognitive sciences for the development of appropriate empirical methods to address body memory. Part three inquires into the forms and effects of therapeutic work with body memory, based on the integration of theory, empirical findings, and clinical applications. It focuses on trauma treatment and the healing power of movement. The book also contributes to metaphor theory, application and research, and therefore addresses metaphor researchers and linguists interested in the embodied grounds of metaphor. Thus, it is of particular interest for researchers from the cognitive sciences, social sciences, and humanities as well as clinical practitioners.

This volume contains a collection of papers written by former students, postdoctoral fellows, and colleagues of Richard Thompson and represent written versions of papers presented at the Festschrift symposium. The Festschrift provided an excellent opportunity for the participants to recount their memories and experiences of working with one of the leading figures in behavioral neuroscience, and to place their current research in the context of earlier research conducted in the Thompson laboratory. As a Festschrift volume, the various chapters contain numerous and sometimes very personal references to Richard Thompson's influence on the careers of the authors, as well as summaries of past and present work being conducted in the authors' laboratories. Part I includes studies of spinal cord plasticity and the involvement of the hippocampus and related structure in classical eyeblink conditioning. Part II explores the critical role of the cerebellum and associated areas in classical eyeblink conditioning. Part III focuses on a continued exploration of the involvement of the cerebellum in classical eyeblink conditioning using standard procedures as well as innovative molecular biology and genetic techniques. It also includes studies aimed at delineating modulatory influences on learning such as stress and hormonal factors. The incredible influence that Richard Thompson has had on the fields of experimental psychology and neuroscience should be evident on reading the contributions made by the various authors to this volume. The research conducted in Thompson's laboratory over the years has been cutting-edge, comprehensive, and influential. Therefore, this volume is dedicated to Richard F. Thompson a productive, innovative scientist and outstanding mentor.

Brain Mechanisms for the Integration of Posture and Movement

The purpose of The Corporeal Turn is to document in a single text the impressive array of investigations possible with respect to the body and bodily life, and to show that, whatever the specific topic being examined, it is a matter of fathoming and elucidating complex and subtle structures of animate meaning. The corporeal turn is envisioned as an ever-expanding, continuous, and open-ended spiral of inquiry in which deeper and deeper understandings are forged, understandings that in each instance themselves call out for deeper and deeper inquiries. The first thirteen essays have already been published as distinct articles. The two new essays constituting the final two chapters are testimony to this open-ended spiral of inquiry.

There are many difficulties hindering western scientists from becoming acquainted with Russian scientific literature, including both political and language barriers. Russian science has a long and proud tradition going back as far as Peter the Great and the founding of the Russian Academy of Science in 1725. However, Russian neuroscientists from th

Covers the basic sciences relevant to recovery of function following injury to the nervous system.

August 8-12, 1994, Brighton, England From Animals to Animats 3 brings together research intended to advance the fron tier of an exciting new approach to understanding intelligence. The contributors represent a broad range of interests from artificial intelligence and robotics to ethology and the neurosciences. Unifying these approaches is the notion of "animat" -- an artificial animal, either simulated by a computer or embodied in a robot, which must survive and adapt in progressively more challenging environments. The 58 contributions focus particularly on well-defined models, computer simulations, and built robots in order to help characterize and compare various principles and architectures capable of inducing adaptive behavior in real or artificial animals. Topics include: - Individual and collective behavior. - Neural correlates of behavior. - Perception and motor control. - Motivation and emotion. - Action selection and behavioral sequences. - Ontogeny, learning, and evolution. - Internal world models and cognitive processes. - Applied adaptive behavior. - Autonomous robots. - Heirarchical and parallel organizations. - Emergent structures and behaviors. - Problem solving and planning. - Goal-directed behavior. - Neural networks and evolutionary computation. - Characterization of environments. A Bradford Book