Oxford Handbook Of Auditory Science Hearing

Volume 1: The Ear (edited by Paul Fuchs) Volume 2: The Auditory Brain (edited by Alan Palmer and Adrian Rees) Volume 3: Hearing (edited by Chris Plack) Auditory science is one of the fastest growing areas of biomedical research. There are now around 10,000 researchers in auditory science, and ten times that number working in allied professions. This growth is attributable to several major developments: Research on the inner ear has shown that elaborate systems of mechanical, transduction and neural processes serve to improve sensitivity, sharpen frequency tuning, and modulate response of the ear to sound. Most recently, the molecular machinery underlying these phenomena has been explored and described in detail. The development, maintenance, and repair of the ear are also subjects of contemporary interest at the molecular level, as is the genetics of hearing disorders due to cochlear malfunctions.

Volume 1: The Ear (edited by Paul Fuchs) Volume 2: The Auditory Brain (edited by Alan Palmer and Adrian Rees) Volume 3: Hearing (edited by Chris Plack) Auditory science is one of the fastest growing areas of biomedical research. There are now around 10,000 researchers in auditory science, and ten times that number working in allied professions. This growth is attributable to several major developments: Research on the inner ear has shown that elaborate systems of mechanical, transduction and neural processes serve to improve sensitivity, sharpen frequency tuning, and modulate response of the ear to sound. Most recently, the molecular machinery underlying these phenomena has been explored and described in detail. The development, maintenance, and repair of the ear are also subjects of contemporary interest at the molecular level, as is the genetics of hearing disorders due to cochlear malfunctions. The auditory brain has now been shown to consist of much more than the regions of the classical 'central auditory system'. Through fMRI studies in humans and the application of novel methods in animal research, the cortical areas involved in hearing and listening in primates have been found to extend beyond the superior temporal plane into more rostral and ventral regions of the temporal cortex, and into parietal and frontal lobes. At the same time, our understanding of subcortical and core cortical areas has expanded through the use of spectrally complex stimuli and multi-channel recordings, increasingly in awake, behaving animals. Studies of auditory perception have increasingly focused on auditory 'ecology', on complex sound perception in real (or virtual) environments. Traditional distinctions between spectral, temporal and binaural processing have evolved into more functional concerns, with speech, pitch, spatial hearing and auditory object perception. Dynamic properties of hearing are becoming more prominent as adaptation and learning receive increasing recognition. Finally, influences of hearing on and by cognition (attention, memory and emotion), action and vision add to a picture of a powerful, working, integrated sense that is, arguably, the most important contributor to our interaction with our world. With each volume dedicated to one these core topics, The Oxford Handbook of Auditory Science is a major publication in the field. It brings together the views of leading researchers in the field to provide a comprehensive and authoritative review of the current state of the art in auditory science. The breadth of coverage, coupled with the accessibility of the short chapter format will make the handbook essential reading for both students and researchers in the field of audition, as well as those in psychology and neuroscience. Clinical audiologists and otolaryngologists will also find this handbook an indispensable reference source.

Volume 1: The Ear (edited by Paul Fuchs) Volume 2: The Auditory Brain (edited by Alan Palmer and Adrian Rees) Volume 3: Hearing (edited by Chris Plack) Auditory science is one of the fastest growing areas of biomedical research. There are now around 10,000 researchers in auditory science, and ten times that number working in allied professions. This growth is attributable to several major developments: Research on the inner ear has shown that elaborate systems of mechanical, transduction and neural processes serve to improve sensitivity, sharpen frequency tuning, and modulate response of the ear to sound. Most recently, the molecular machinery underlying these phenomena has been explored and described in detail. The development, maintenance, and repair of the ear are also subjects of contemporary interest at the molecular level, as is the genetics of hearing disorders due to cochlear malfunctions.

The first volume in The Oxford Handbook of Auditory Science, The Ear serves both as an introduction and as a reference work for anyone interested in how 'hearing' happens. It will be a valuable resource, for anyone interested in the ongoing challenge, and adventure, of understanding the mysteries of the ear.

"Hearing" is the third and final volume in the Oxford Handbook of Auditory Science series. It provides a comprehensive account of our current understanding of auditory perception; that is, how humans and other animals experience the auditory world.

The Oxford Handbook of The Auditory Brainstem provides an introduction as well as an in-depth reference to the organization and function of ascending and descending auditory pathways in the mammalian brainstem. Individual chapters are organized along the auditory pathway beginning with the cochlea and ending with the auditory midbrain. Each chapter provides an introduction to the respective area, and summarizes our current knowledge before discussing disputes and challenges the field currently faces. A major emphasis throughout this book is on the numerous forms of plasticity that are increasingly observed in many areas of the auditory brainstem. Several chapters focus on neuronal modulation of function and synaptic, neuronal, and circuit plasticity, especially under circumstances when they occur most prominently: during development, aging, and following peripheral hearing loss. In addition, the book addresses the role of trauma-induced maladaptive plasticity with respect to its contribution in generating central hearing dysfunction such as hyperacusis and tinnitus. The book is intended for students and postdocs starting in the auditory field, and researchers of related fields who wish to get an authoritative and up-to-date summary of the current state of auditory brainstem research. For clinical practitioners in audiology, otolaryngology, and neurology, the book is a valuable resource of information about the neuronal mechanisms that are major candidates for the generation of central hearing dysfunction.

Written by the world's leading scholars and researchers in sound studies, this handbook offers new and engaging perspectives on the significance of sound in its material and cultural forms.