AbstractTwo different binocular cues are known for detecting motion in depth. One is disparity change in time and the other is inter-ocular velocity difference. In contrast to the well known fact of the use of the disparity cues, no evidence of contribution of inter-ocular velocity differences for detecting motion in depth has been reported. We demonstrate that motion in depth can be seen based solely on inter-ocular velocity differences using binocularly uncorrelated random-dot kinematograms. This indicates that the visual system uses monocular velocity signals for processing motion in depth in addition to disparity change in time
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
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...
When an object moves in three dimensions, the two eyes' views of the world deliver slightly differen...
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...
There are two binocular cues of motion in depth: the interocular velocity difference (IOVD) and chan...
AbstractThere are two possible binocular mechanisms for the detection of motion in depth. One is bas...
The role of two binocular cues to motion in depth - changing disparity (CD) and interocular velocity...
Motion-in-depth can be detected by using two different types of binocular cues: change of disparity ...
Motion-in-depth can be detected by using two different types of binocular cues: change of disparity ...
Motion-in-depth can be detected by using two different types of binocular cues: change of disparity ...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
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...
When an object moves in three dimensions, the two eyes' views of the world deliver slightly differen...
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...
There are two binocular cues of motion in depth: the interocular velocity difference (IOVD) and chan...
AbstractThere are two possible binocular mechanisms for the detection of motion in depth. One is bas...
The role of two binocular cues to motion in depth - changing disparity (CD) and interocular velocity...
Motion-in-depth can be detected by using two different types of binocular cues: change of disparity ...
Motion-in-depth can be detected by using two different types of binocular cues: change of disparity ...
Motion-in-depth can be detected by using two different types of binocular cues: change of disparity ...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
Many individuals with normal visual acuity are unable to discriminate the direction of 3-D motion in...
Our forward-facing eyes allow us the advantage of binocular visual information: using the tiny diffe...