Sensory conflict among visual, vestibular, and somatosensory information induces
vertiginous sensation and postural instability. To elucidate the cognitive mechanisms of the …

The human vestibular system is crucial for motion perception, balance control, and various
higher cognitive functions. Exploring how the cerebral cortex responds to vestibular signals …

Significance A fleeting flash aligned vertically with an object remaining stationary in the
head-centered space would be perceived as lagging behind the object during the observer's …

Conflicting inputs from visual and vestibular afferents produce motion sickness and postural
instability. However, the relationship of visual and vestibular inputs to each other remains …

The brain combines visual, vestibular and proprioceptive information to distinguish between
self-and world motion. Often these signals are complementary and indicate that the …

Visually induced illusion of self-motion (vection) has been used as a tool to address neural
correlates of visual-vestibular interaction. The extent to which vestibular cortical areas are …

In this study, we examined the effects of sensory inputs of visual-vestibulosomatosensory
conflict induced by virtual reality (VR) on subjective dizziness, posture stability and visual …

Patients with unilateral vestibular failure (UVF) experience oscillopsia (apparent motion of
the visual scene) during rapid head movements due to increased retinal slip caused by …

Background and purpose Individuals with visual vertigo (VV) describe symptoms of
dizziness, disorientation, and/or impaired balance in environments with conflicting visual …

Human postural control system is inherently complex with nonlinear interaction among
multiple subsystems. Accordingly, such postural control system has the flexibility in …