Humans and other animals use spatial hearing to rapidly localize events in the environment.
However, neural encoding of sound location is a complex process involving the computation …

Our ability to make sense of the auditory world results from neural processing that begins in
the ear, goes through multiple subcortical areas, and continues in the cortex. The specific …

Models that predict brain responses to stimuli provide one measure of understanding of a
sensory system and have many potential applications in science and engineering. Deep …

Recently, we showed that in a simple acoustic scene with one sound source, auditory cortex
tracks the time-varying location of a continuously moving sound. Specifically, we found that …

Over the years, the effect of aging on auditory function has been investigated in animal
models and humans in an effort to characterize age-related changes in both perception and …

Few auditory functions are as important or as universal as the capacity for auditory spatial
awareness (eg, sound localization). That ability relies on sensitivity to acoustical cues …

It is of increasing practical interest to be able to decode the spatial characteristics of an
auditory scene from electrophysiological signals. However, the cortical representation of …

Spatial hearing sensitivity in humans is dynamic and task-dependent, but the mechanisms in
human auditory cortex that enable dynamic sound location encoding remain unclear. Using …

In primates, posterior auditory cortical areas are thought to be part of a dorsal auditory
pathway that processes spatial information. But how posterior (and other) auditory areas …

Previous studies reported that auditory cortices (AC) were mostly activated by sounds
coming from the contralateral hemifield. As a result, sound locations could be encoded by …