The human auditory cortex comprises multiple areas, largely distributed across the
supratemporal plane, but the precise number and configuration of auditory areas and their …

The effect of the type of the auditory motion stimulus on neural correlates of motion
processing were investigated using high-density electroencephalography. Sound motion …

Background The brain generates signals in a wide frequency range (∼ 2840 Hz). Existing
magnetoencephalography (MEG) methods typically detect brain activity in a median …

The study investigated the processing of sound motion, employing a psychophysical motion
discrimination task in combination with electroencephalography. Following stationary …

The aim of this functional magnetic resonance imaging (fMRI) study was to identify human
brain areas that are sensitive to the direction of auditory motion. Such directional sensitivity …

The neural processing of auditory motion information shows a pronounced interhemispheric
asymmetry. In previous electrophysiological studies, the so‐called motion‐onset response …

The detection of a change in space is an essential prerequisite of adequate responding to
dynamic aspects of our auditory environment, be it induced by smooth motion or abrupt and …

Interaural intensity and time differences (IID and ITD) are two binaural auditory cues for
localizing sounds in space. This study investigated the spatio-temporal brain mechanisms …

The review presents the current understanding of interhemispheric asymmetry of the human
brain activity, recorded by electrophysiological and hemodynamic methods using various …

Recent studies have shown that the mismatch negativity (MMN), a change-specific
component of the auditory event-related potential (ERP), is accurately tracking the spatial …