Timo Oess

This study investigates how the auditory system tracks moving sound sources by integrating velocity and spatial error in a delayed frame, showing improved prediction with preceding head orientation.

This study shows that head movements create a perceptual bias in the direction of a moving sound source, similar to visual motion illusions, revealing errors in integrating auditory and proprioceptive cues.

This study demonstrates that binaural integration improves vertical sound source localization by leveraging sound type-specific prior information.

This paper develops a neural model to simulate binaural signal integration with an adaptation mechanism, showing it extends the perceptual range of auditory space and improves localization precision.

The paper develops a model of stabilized neoHebbian learning to explain how visual input guides the formation and maintenance of spatially aligned auditory maps in the colliculus.