The ability to smoothly perceive the environment across saccades without disturbing retinal motion sensations is generated by eye movement contingent habituation.

Spatial attention and saccadic processing co-ordinate to ensure that attention is available at a task-relevant location soon after the beginning of each eye fixation.

Before a saccadic eye movement to a location in the visual periphery, human observers' foveal vision becomes more sensitive to the features defining the eye movement target, anticipating information that will soon be fixated in a retinotopic reference frame.

Single-cell transcriptomic analysis defines hair cell and supporting cell types in the zebrafish inner ear, and reveals homologies with cells in the mammalian ear.

Mitochondrial activity and distribution control alveolar formation by conferring distinct cellular properties.

Emx2 reverses hair bundle orientation in sensory hair cells.

Cranial endocasts of fossil and extant lungfish, analysed via tomography and novel principle component analyses designed for use with missing data, show that lungfish forebrain and inner ear regions show the most variation in brain shape evolution through time.

Hierarchical transformations of visual representations, saccade-related activity, and sensorimotor associations occur in parallel at the juncture of visual and parietal cortex.

Sensory activity within the superior colliculus is read out by downstream motor structures and contributes to individual saccade kinematics with single spike precision.

Similar to spontaneous eye blinks perceptual stability, despite small saccades, is related to actively silencing transients in the high-level ends of both ventral and dorsal visual cortices, while activity in low-level visual cortex remains unstable.