Sound localization in reverberant environments is a difficult task that human listeners perform effortlessly.
Many neural mechanisms have been proposed to account for this behavior. Generally they rely on emphasizing
localization information at the onset of the incoming sound while discarding localization cues that arrive later.
We modelled several of these mechanisms using neural circuits commonly found in the brain and tested their
performance in the context of experiments showing that, in the dominant frequency region for sound localisation,
we have a preference for auditory cues arriving during the rising slope of the sound energy (Dietz et al. 2013).
We found that both single cell mechanisms (onset and adaptation) and population mechanisms (lateral inhibition)
were easily able to reproduce the results across a very wide range of parameter settings. This suggests that
sound localization in reverberant environments may not require specialised mechanisms specific to that task, but
may instead rely on common neural circuits in the brain. This is in line with the theory that the brain consists
of functionally overlapping general purpose mechanisms rather than a collection of mechanisms each highly
specialised to specific tasks. This research is fully reproducible, and we made our code available to edit and
run online via interactive live notebooks.