Release site heterogeneity represents a previously unknown level of structural and functional organization within individual active zones in central synapses, which determines the spatiotemporal dynamics of multi-vesicular release.

Down regulation of the gain from the vestibular sensory sources prior to the initiation of movement is a motor control solution to overcome the reflex-stabilizing mechanisms to enable motion from a postural orientation.

A protein kinase complex that is important for cell division is lost in testicular seminoma, which is a common cancer in men.

In both frontal and temporal–parietal visual cortices of macaque, distinct spatial coordinates of visual and vestibular signals are predominantly eye centered and head centered, respectively.

A match between neuronal variability and tuning enables optimized coding of natural self-motion in early vestibular pathways.

Immunolabelling and morphological assessment, complemented by complete transcriptomic analysis, demonstrates that supporting cells can be induced to convert towards a hair cell-like phenotype in human vestibular sensory epithelia.

Zebrafish use their sense of gravity and their cerebellum to coordinate the fin and body movements that, as they develop, allow them to better maintain balance as they climb.

In central synapses, the mobility and supply of synaptic vesicles are determined by two independent biological factors: the morphological and structural organization of nerve terminals and the molecular signature of vesicles.

The spatial and dynamic properties of self-motion signals are acquired at the first stage of otolith signal transformation, which is in the brainstem and cerebellum, and conserved across brainstem, cerebellar and cortical areas.

The development of brainstem auditory nuclei echoes the divergent evolutionary history of amniote auditory systems.