In natural settings, our eyes tend to track approaching objects. To estimate motion, the brain should thus take account of eye movements, perhaps using retinal cues (retinal slip of static objects) or extra-retinal signals (motor commands). Previous work suggests that extra-retinal ocular vergence signals do not support the perceptual judgments. Here, we re-evaluate this conclusion, studying motion judgments based on retinal slip and extra-retinal signals. We find that (1) each cue can be sufficient, and, (2) retinal and extra-retinal signals are combined, when estimating motion-in-depth. This challenges the accepted view that observers are essentially blind to eye vergence changes. (C) 2009 Elsevier Ltd. All rights reserved.</p
Eye movements introduce retinal motion to the image and so affect motion cues to depth. For instance...
Eye movements introduce retinal motion to the image and so affect motion cues to depth. For instance...
Multiple cues contribute to the visual perception of an object's distance from the observer. The man...
AbstractIn natural settings, our eyes tend to track approaching objects. To estimate motion, the bra...
In natural settings, our eyes tend to track approaching objects. To estimate motion, the brain shoul...
AbstractIn natural settings, our eyes tend to track approaching objects. To estimate motion, the bra...
In natural settings, our eyes tend to track interesting or dangerous objects moving towards us. This...
In natural settings, our eyes tend to track interesting or dangerous objects moving towards us. This...
In natural settings, our eyes tend to track interesting or dangerous objects moving towards us. This...
In natural settings, our eyes tend to track interesting or dangerous objects moving towards us. This...
Depth perception requires the use of an internal model of the eye-head geometry to infer distance fr...
When an object is tracked with the eyes, veridical perception of the motion of that object and other...
When tracking an object moving in depth, the visual system should take changes of eye vergence into ...
Eye movements introduce retinal motion to the image and so affect motion cues to depth. For instance...
Eye movements introduce retinal motion to the image and so affect motion cues to depth. For instance...
Eye movements introduce retinal motion to the image and so affect motion cues to depth. For instance...
Eye movements introduce retinal motion to the image and so affect motion cues to depth. For instance...
Multiple cues contribute to the visual perception of an object's distance from the observer. The man...
AbstractIn natural settings, our eyes tend to track approaching objects. To estimate motion, the bra...
In natural settings, our eyes tend to track approaching objects. To estimate motion, the brain shoul...
AbstractIn natural settings, our eyes tend to track approaching objects. To estimate motion, the bra...
In natural settings, our eyes tend to track interesting or dangerous objects moving towards us. This...
In natural settings, our eyes tend to track interesting or dangerous objects moving towards us. This...
In natural settings, our eyes tend to track interesting or dangerous objects moving towards us. This...
In natural settings, our eyes tend to track interesting or dangerous objects moving towards us. This...
Depth perception requires the use of an internal model of the eye-head geometry to infer distance fr...
When an object is tracked with the eyes, veridical perception of the motion of that object and other...
When tracking an object moving in depth, the visual system should take changes of eye vergence into ...
Eye movements introduce retinal motion to the image and so affect motion cues to depth. For instance...
Eye movements introduce retinal motion to the image and so affect motion cues to depth. For instance...
Eye movements introduce retinal motion to the image and so affect motion cues to depth. For instance...
Eye movements introduce retinal motion to the image and so affect motion cues to depth. For instance...
Multiple cues contribute to the visual perception of an object's distance from the observer. The man...