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To interact with the environment, an individual must code, store, and translate spatial information into the appropriate motor commands for achieving an outcome. Working from this premise, Vision and Goal-Directed Movement: Neurobehavioral Perspectives discusses how visual perception, attention, and memory are linked to the processes of movement preparation and execution. With contributions from active researchers in movement science, Vision and Goal-Directed Movement presents the latest theories on the utilization of vision in goal-directed movement control. As a resource for motor control and motor learning researchers, students, educators, and clinicians, Vision and Goal-Directed Movement offers the following: Comprehensive coverage of current behavior-based literature on the visual control of goal-directed movement; A systematic explication of the sensory and physiological processes and systems responsible for fast, accurate, and efficient performance; A solid foundation for further study of the sensory and neural systems responsible for precise goal-directed behavior; A discussion of how current research on vision and goal-directed movement can assist in creating efficient and safe work environments. Using research informed by neural imaging and magnetic brain stimulation, this text provides readers with a better understanding of the neural foundations for goal-directed movement, illustrates the flexibility of the human visuomotor system, and discusses how regulation of movements depends on the learning and developmental history of the performer. It begins by reviewing the works of R.S. Woodworth and the influence of his theories on current research. The majority of the chapters in the first section of the book take a behavioral and process-oriented approach to exploring goal-directed movement. The text then explores the sensory and neural foundations for goal-directed action, including issues related to both pursuit and saccadic eye movements as well as discussion of the specialization of various cortical systems for the regulation of movement. Especially relevant to professionals and scientists concerned with skill instruction and rehabilitation, the final part of the text provides a review of recent research on how and why limb control changes occur with practice and development. In addition, Vision and Goal-Directed Movement considers how the research presented can maximize precision, efficiency, and safety in workspace design. Vision and Goal-Directed Movement: Neurobehavioral Perspectives adds a unique offering to the literature base for motor behavior, demonstrating how advances in both behavioral and neurophysiological methods can inform theories related to the biological systems contributing to skilled performance.
Perceptual-motor processes. --- Motion perception (Vision) --- Visual perception.
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Motor Activity --- Goals. --- Intention. --- Psychomotor Performance --- Visual Perception --- Perceptual-motor processes. --- Motion perception (Vision) --- Visual perception. --- Processus perceptivomoteurs --- Perception du mouvement (Vision) --- Perception visuelle --- physiology. --- Perceptual-motor processes --- Goals --- Intention --- Activité motrice --- Perception spatiale --- Mouvement --- physiology --- 612.8 --- Fysiologie --- Zenuwstelsel --- Bewegen --- Motoriek --- Zenuwstelsel. Zintuigen. Motorische neurowetenschappen --- Visual perception --- Optics, Psychological --- Vision --- Perception --- Visual discrimination --- Sensory-motor processes --- Movement, Psychology of --- Movement perception (Vision) --- Speed perception --- Psychological aspects
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Traditionally a large proportion of perceptual research has assumed a specialization of cortical regions for the processing of stimuli in a single sensory modality. However, perception in everyday life usually consists of inputs from multiple sensory channels. Recently the question of how the brain integrates multisensory information has become the focus of a growing number of neuroscientific investigations. This work has identified both multisensory integration regions and crossmodal influences in brain areas traditionally thought to be specific to one sensory modality. Furthermore, several factors have been identified that enhance integration such as spatio-temporal stimulus coincidence and semantic congruency. Written for academic researchers and graduate students, the present book aims at elucidating the mechanisms of multisensory integration of object-related information with a focus on the visual, auditory, and tactile sensory modalities. Evidence will be presented from studies in both human and nonhuman primates at different levels of analysis ranging from intracranial electrophysiological recordings to non-invasive electro- or magnetoencephalography, functional magnetic resonance imaging, behavioral approaches, and computational modeling. Seventeen chapters have been aggregated in four sections: underlying mechanisms, audio-visual integration, visuo-tactile integration, and plasticity. About the Editors: Marcus J. Naumer studied biology, philosophy, and psychology at the universities of Freiburg and Landau in Germany. He obtained his PhD from the Faculty of Psychology and Neuroscience, University of Maastricht, The Netherlands. Since 2005 he has headed the Crossmodal Neuroimaging Lab at the Institute of Medical Psychology, Goethe University, Frankfurt, Germany. He conducts basic and clinical research on human multisensory (auditory, visual, and haptic) object perception using functional magnetic resonance imaging and magnetoencephalography. Jochen Kaiser studied psychology at the universities of Mainz in Germany and Glasgow in Scotland. He obtained a PhD from Imperial College School of Medicine, University of London, UK, in 1998. In 2004 he was appointed Full Professor and Director of the Institute of Medical Psychology at Goethe University in Frankfurt am Main, Germany. He has conducted extensive research on auditory and audio-visual perception, short-term memory and cortical oscillations in humans, using magnetoencephalography and functional magnetic resonance imaging.
Adaptation (Biology). --- Primates -- Anatomy. --- Primates -- Evolution. --- Primates --- Brain --- Visual perception --- Mental Processes --- Biological Science Disciplines --- Mammals --- Cerebrum --- Natural Science Disciplines --- Vertebrates --- Psychological Phenomena and Processes --- Telencephalon --- Perception --- Cerebral Cortex --- Physiology --- Disciplines and Occupations --- Prosencephalon --- Psychiatry and Psychology --- Chordata --- Animals --- Eukaryota --- Central Nervous System --- Nervous System --- Organisms --- Anatomy --- Medicine --- Human Anatomy & Physiology --- Health & Biological Sciences --- Neuroscience --- Neurology --- Sensorimotor cortex. --- Sensorimotor integration. --- Perception. --- Physiology. --- Supraliminal perception --- Integration, Sensorimotor --- Intersensory integration --- Perceptual-motor integration --- Sensimotor integration --- Sensory integration --- Sensory-motor integration --- Sensomotor cortex --- Medicine. --- Neurosciences. --- Neurobiology. --- Cognitive psychology. --- Biomedicine. --- Cognitive Psychology. --- Cognition --- Apperception --- Senses and sensation --- Thought and thinking --- Perceptual-motor processes --- Sensory integration dysfunction --- Cerebral cortex --- Consciousness. --- Mind and body --- Philosophy --- Psychology --- Spirit --- Self --- Neurosciences --- Neural sciences --- Neurological sciences --- Medical sciences --- Nervous system --- Psychology, Cognitive --- Cognitive science
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