Information about the position of our hand is provided by multisensory signals that are often
not perfectly aligned. Discrepancies between the seen and felt hand position or its …

Perceptual coherence in the face of discrepant multisensory signals is achieved via the
processes of multisensory integration, recalibration and sometimes motor adaptation. These …

The brain engages the processes of multisensory integration and recalibration to deal with
discrepant multisensory signals. These processes consider the reliability of each sensory …

The brain estimates hand position using visual and proprioceptive cues, which are
combined to give an integrated multisensory estimate. Spatial mismatches between cues …

Reaching to targets with misaligned visual feedback of the hand leads to changes in
proprioceptive estimates of hand position and reach aftereffects. In such tasks, subjects are …

We examined the influence of extended exposure to a visuomotor rotation, which induces
both motor adaptation and sensory recalibration, on (partial) multisensory integration in a …

Multisensory integration enables rapid and accurate behavior. To orient in space, sensory
information registered initially in different reference frames has to be integrated with the …

When reaching to an object, information about the target location as well as the initial hand
position is required to program the motor plan for the arm. The initial hand position can be …

We estimate our hand's position by combining relevant visual and proprioceptive cues. A
cross-sensory spatial mismatch can be created by viewing the hand through a prism or …

To organize the plethora of sensory signals from our environment into a coherent percept,
our brain relies on the processes of multisensory integration and sensory recalibration. We …