About 25 years ago, the discovery of receptive field (RF) remapping in the parietal cortex of
nonhuman primates revealed that visual RFs, widely assumed to have a fixed retinotopic …

Human observers make large rapid eye movements—saccades—to bring behaviorally
relevant information into the fovea, where spatial resolution is high. In some visual tasks [1 …

Visual perception is limited by spatial resolution, the ability to discriminate fine details.
Spatial resolution not only declines with eccentricity but also differs for polar angle locations …

With every saccadic eye movement, humans bring new information into their fovea to be
processed with high visual acuity. Notably, perception is enhanced already before a relevant …

The world appears stable despite saccadic eye-movements. One possible explanation for
this phenomenon is that the visual system predicts upcoming input across saccadic eye …

Perceptual learning is the ability to enhance perception through practice. The hallmark of
perceptual learning is its specificity for the trained location and stimulus features, such as …

To facilitate visual continuity across eye movements, the visual system must presaccadically
acquire information about the future foveal image. Previous studies have indicated that …

Rapid saccadic eye movements bring the foveal region of the eye's retina onto objects for
high-acuity vision. Saccades change the location and resolution of objects' retinal images …

Visual perception is based on information processing during periods of eye fixations that are
interrupted by fast saccadic eye movements. The ability to sample and relate information on …

While humans typically saccade every∼ 250 ms in natural settings, studies on vision tend to
prevent or restrict eye movements. As it takes∼ 50 ms to initiate and execute a saccade, this …