The cytoskeleton is comprised of a variety of specialized proteins, and is a dynamic structure that is involved in the majority of key cellular events. There is increasing interest in the role of the cytoskeleton in human disease. This volume brings together human disease states where cytoskeletal disruptions are driving disease. Our emerging understanding of the molecular and cellular events that drive cytoskeletal mediated diseases including cancer, heart disease, myopathies and skin disorders, are also helping shape targeted therapeutic approaches to treating these diseases.

This volume addresses the structural and functional roles of the cytoskeleton and its dysfunctions which often lead to disease. It provides thorough discussion of microtubules, microfilaments, intermediate filaments, and cytoskeletal functions and dysfunctions in different organ systems. Comprehensive yet concise. The Cytoskeleton In Health And Disease presents cutting-edge discoveries balanced with background information and highlights the new aspects of the research and its impact on the design of new strategies or the identification of new targets for therapeutic intervention. There is a significant need for a book on this topic, as interest in the cytoskeleton continues to grow as causes and cures for cytoskeletal diseases are further explored in biomedical research. This book is essential reading for scientists, students, and teachers interested in expanding their knowledge related to the cytoskeleton. New researchers entering the field will find classic and well as contemporary information not easily found in the current literature or internet resources.

The cytoskeleton is comprised of a variety of specialized proteins, and is a dynamic structure that is involved in the majority of key cellular events. There is increasing interest in the role of the cytoskeleton in human disease. This volume brings together human disease states where cytoskeletal disruptions are driving disease. Our emerging understanding of the molecular and cellular events that drive cytoskeletal mediated diseases including cancer, heart disease, myopathies and skin disorders, are also helping shape targeted therapeutic approaches to treating these diseases.

This book provides an overview on the organization and function of the microtubule cytoskeleton, which is essential to many cellular processes and profoundly linked to a range of human diseases. Covering basic concepts as well as molecular details, the book discusses how microtubules are nucleated and organized into ordered arrays, at different cell cycle stages and in distinct cell types. In addition, the book highlights how defects in the microtubule cytoskeleton are linked to diseases such as neurodevelopmental disorders. The book is intended for students, graduates and more senior researchers in cell and developmental biology as well as for medical doctors.

There are scattered reports in the published literature citing relationships between actin, actin-binding proteins and disease. This volume brings this information together for the first time, with a focus on human disorders. The volume is relevant to a wide readership including cell biologists interested in understanding how structural and functional changes in proteins impact on the organism as a whole.

This book discusses the primary functions of microtubule-associated proteins (MAPs) such as MAP2 and tau in neuronal morphogenesis, as well as relationships between neuronal differentiation and the expression of neuronal intermediate filaments (nestin, alpha internexin, and neurofilament triplet proteins). It emphasizes the importance of several cytoskeletal proteins for neuronal differentiation and morphogenesis, organelle transport, and synaptic functions. The book considers the involvement of tau MAPs in the formation of paired helical filaments in Alzheimer's disease, and it examines the mechanisms of organelle transports and molecular motors such as kinesin, braindynein, and kinesin superfamily proteins. Cytoskeletal proteins involved in synaptic formation and transmitter release and new synaptic junctional-associated proteins are explored as well.