Head movement relative to the stationary environment gives rise to congruent vestibular and
visual optic-flow signals. The resulting perception of a stationary visual environment …

The perception of motion-in-depth is important for avoiding collisions and for the control of
vergence eye-movements and other motor actions. Previous psychophysical studies have …

A moving random-dot stimulus was presented in two sequential frames separated by an
interstimulus interval (ISI) during which the field was spatially uniform with luminance equal …

The two-process account of motion perception and its binocular organization were
addressed in experiments on apparent movement (AM) with three types of grating …

In primates, tracking eye movements help vision by stabilising onto the retinas the images of
a moving object of interest. This sensorimotor transformation involves several stages of …

A series of experiments was conducted to clarify the distinction between motion aftereffects
(MAEs) with static and counterphasing test patterns (static and flicker MAEs). It was found …

Vision is obtained with a continuous motion of the eyes. The kinematic analysis of eye
motion, during any visual or ocular task, typically reveals two (kinematic) components …

Eye movements play multiple roles in human behaviour—small stabilizing movements are
important for keeping the image of the scene steady during locomotion, whilst large …

Recent findings suggest that the slow eye movement system, the optokinetic response
(OKR) in particular, provides the extra-retinal signal required for the perception of depth from …

This chapter is about basic conditions of seeing motion (mostly of single objects in the
frontoparallel plane). It emphasizes the richness and challenge of phenomena in motion …