Classics in Movement Science begins with a through and provocative introductory chapter on the beginnings of movement science, which sets the stage for the rest of the book. It presents 13 classical papers from famous scientists.

If you could fit our culture of convenience into a petri dish, what would it look like?Movement Matters is a series of essays in which biomechanist Katy Bowman continues to explain the mechanics of a sedentary culture and the deep complexity of the phenomenon we call movement. By exposing convenience as a way of outsourcing movements, Katy's groundbreaking work in the relationship between movement and nature expands to models that have evolved from thinking of the body as a single structure to considering it to be a cluster of a trillion bodies, and how those trillion bodies are being loaded by our habitat and how we move to interact with it.From movement nutrients to forest school to the problems with investigating parts, our culturally conditioned preference to be sedentary is explored from many angles.Thought-provoking, inspiring, and always entertaining, Movement Matters is a collection of essays conducting a deep exploration of movement and its role in science, community, work, and social responsibility. Deftly deconstructing sedentary assumptions that underlie much of our research into human health, Bowman works to reclaim our space in and responsibility to nature and ourselves.With essays on foraging, the nearsightedness epidemic, and the limitations of a parts approach to health, Bowman's gaze is sweeping and incisive, always with the underlying message that moving is powerful and important, and perhaps the most joyful, freeing, and efficient form of activism there is.

Discover new perspectives and recent research findings to apply to the children and families on your caseload With Movement Sciences: Transfer of Knowledge into Pediatric Therapy Practice, you will explore the motor control, learning, and development of children with movement disorders, allowing you to increase the effectiveness of intervention. This book provides cutting-edge information on motor disabilities in children—such as cerebral palsy, Down syndrome, or Erb's palsy—and how prehension, balance, and mobility are affected. Expert researchers and practitioners offer their findings and techniques for improving motor processes, using figures, tables, and extensive resources to help you create more effective pediatric rehabilitation programs. With this book, you will gain a better understanding of: motor control for posture and prehension the motor learning challenges of children with movement dysfunction predictors of standing balance in children with cerebral palsy the effect of environment setting on mobility methods of children with cerebral palsy the reliability of a clinical measure of muscle extensibility in preterm and full-term newborn infants Movement Sciences: Transfer of Knowledge into Pediatric Therapy Practice will help physical therapists, occupational therapists, and other health care professionals implement motor learning concepts safely and effectively. This book also delivers practical advice for achieving the best results with a younger population by utilizing interventions that address the needs of their clients. With this guide, you will be able to determine which approaches are acceptable to the children and families in your practice, and ensure the therapy is meaningful to their daily lives.

Mixed methods research techniques, combining both quantitative and qualitative elements, have become well established throughout the social, behavioural and natural sciences. This is the first book to focus on the application of mixed methods research in the movement sciences, specifically in sport, physical education and dance. Researchers and practitioners in each of these fields are concerned with the study of habitual behaviour in naturalistic contexts, and of the concurrent and sequential nature of events and states, precisely the kind of work that multi-method research design can help illuminate. The book is arranged into four sections. The first provides a thorough overview of mixed methods procedures and research design, and summarizes their applicability to the movement sciences. The remaining sections then offer detailed case studies of mixed methods research in team and individual sports (analyzing hidden patterns of play and optimising technique); kinesics and dance (analyzing motor skills behaviour in childhood, and the complexity of motor responses in dance); and physical education (detecting interaction patterns in group situations, and optimizing non-verbal communication by teachers and sports coaches). Mixed Methods Research in the Movement Sciences offers an important new tool for researchers and helps to close the gap between the analysis of expert performance and our understanding of the general principles of movement science. It is important reading for any student, researcher or professional with an interest in motor control, sport and dance pedagogy, coaching, performance analysis or decision-making in sport.

"This book provides information regarding state-of-the-art research outcomes and cutting-edge technology on various aspects of the human movement"--Provided by publisher.

An engaging introduction to human and animal movement seen through the lens of mechanics. How do Olympic sprinters run so fast? Why do astronauts adopt a bounding gait on the moon? How do running shoes improve performance while preventing injuries? This engaging and generously illustrated book answers these questions by examining human and animal movement through the lens of mechanics. The authors present simple conceptual models to study walking and running and apply mechanical principles to a range of interesting examples. They explore the biology of how movement is produced, examining the structure of a muscle down to its microscopic force-generating motors. Drawing on their deep expertise, the authors describe how to create simulations that provide insight into muscle coordination during walking and running, suggest treatments to improve function following injury, and help design devices that enhance human performance.