When an object moves in three dimensions, the two eyes' views of the world deliver slightly different information to the visual system, providing binocular cues to depth and motion-in-depth. This short review describes the two main sources of binocular information, namely, changing disparity over time and interocular velocity differences this could be used for the perception of motion-in-depth. We discuss the evidence obtained in recent years on the extent to which each of them is used in human vision. We also highlight outstanding questions and issues in the field that have yet to be addressed.</p
Howard (2012) published very similar studies using the motion aftereffect to probe the way in which ...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
When an object moves in three dimensions (3-D), a combination of binocular disparity and lateral mot...
AbstractTwo different binocular cues are known for detecting motion in depth. One is disparity chang...
We examine how various sources of information contribute to the percept of motion in depth. Subjects...
Our forward-facing eyes allow us the advantage of binocular visual information: using the tiny diffe...
Our forward-facing eyes allow us the advantage of binocular visual information: using the tiny diffe...
AbstractAn object moving in depth produces retinal images that change in position over time by diffe...
There are in principle at least two binocular sources of information that could be used to determine...
There are in principle at least two binocular sources of information that could be used to determine...
AbstractWe examine how various sources of information contribute to the percept of motion in depth. ...
AbstractThere are two possible binocular mechanisms for the detection of motion in depth. One is bas...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
When an object moves in three dimensions (3-D), a combination of binocular disparity and lateral mot...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
Howard (2012) published very similar studies using the motion aftereffect to probe the way in which ...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
When an object moves in three dimensions (3-D), a combination of binocular disparity and lateral mot...
AbstractTwo different binocular cues are known for detecting motion in depth. One is disparity chang...
We examine how various sources of information contribute to the percept of motion in depth. Subjects...
Our forward-facing eyes allow us the advantage of binocular visual information: using the tiny diffe...
Our forward-facing eyes allow us the advantage of binocular visual information: using the tiny diffe...
AbstractAn object moving in depth produces retinal images that change in position over time by diffe...
There are in principle at least two binocular sources of information that could be used to determine...
There are in principle at least two binocular sources of information that could be used to determine...
AbstractWe examine how various sources of information contribute to the percept of motion in depth. ...
AbstractThere are two possible binocular mechanisms for the detection of motion in depth. One is bas...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
When an object moves in three dimensions (3-D), a combination of binocular disparity and lateral mot...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
Howard (2012) published very similar studies using the motion aftereffect to probe the way in which ...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
When an object moves in three dimensions (3-D), a combination of binocular disparity and lateral mot...