AbstractThe visual motion aftereffect (MAE) typically occurs when stationary contours are presented to a retinal region that has previously been exposed to motion. It can also be generated following observation of a stationary grating when two gratings (above and below it) move laterally: the surrounding gratings induce motion in the opposite direction in the central one. Following adaptation, the centre appears to move in the direction opposite to the previously induced motion, but little or no MAE is visible in the surround gratings [Swanston and Wade (1992)Perception, 21, 569–582]. The stimulus conditions that generate the MAE from induced motion were examined in five experiments. It was found that: the central MAE occurs when tested wit...
AbstractWe found that the motion aftereffect measured using a directionally ambiguous counterphase g...
AbstractSimultaneously adapting to retinal motion and non-collinear pursuit eye movement produces a ...
Simultaneously adapting to retinal motion and non-collinear pursuit eye movement produces a motion a...
AbstractThe visual motion aftereffect (MAE) typically occurs when stationary contours are presented ...
We conducted three experiments to examine the effect of spatial arrangement of test stimulus on the ...
none2siSubsecond adaptation to directional motion can induce a rapid form of motion after-effect (rM...
Repetitive eye movements are known to produce motion aftereffect (MAE) when made to track a moving s...
Repetitive eye movements are known to produce motion aftereffect (MAE) when made to track a moving s...
Repetitive eye movements are known to produce motion aftereffect (MAE) when made to track a moving s...
Repetitive eye movements are known to produce motion aftereffect (MAE) when made to track a moving s...
Repetitive eye movements are known to produce motion aftereffect (MAE) when made to track a moving s...
After a prolonged exposure to directional motion (adaptation), a subsequently presented stationary t...
After prolonged adaptation to a moving pattern, a subsequently presented static or dynamic test patt...
Subsecond adaptation to directional motion can induce a rapid form of motion after-effect (rMAE). Un...
Simultaneously adapting to retinal motion and non-collinear pursuit eye movement produces a motion a...
AbstractWe found that the motion aftereffect measured using a directionally ambiguous counterphase g...
AbstractSimultaneously adapting to retinal motion and non-collinear pursuit eye movement produces a ...
Simultaneously adapting to retinal motion and non-collinear pursuit eye movement produces a motion a...
AbstractThe visual motion aftereffect (MAE) typically occurs when stationary contours are presented ...
We conducted three experiments to examine the effect of spatial arrangement of test stimulus on the ...
none2siSubsecond adaptation to directional motion can induce a rapid form of motion after-effect (rM...
Repetitive eye movements are known to produce motion aftereffect (MAE) when made to track a moving s...
Repetitive eye movements are known to produce motion aftereffect (MAE) when made to track a moving s...
Repetitive eye movements are known to produce motion aftereffect (MAE) when made to track a moving s...
Repetitive eye movements are known to produce motion aftereffect (MAE) when made to track a moving s...
Repetitive eye movements are known to produce motion aftereffect (MAE) when made to track a moving s...
After a prolonged exposure to directional motion (adaptation), a subsequently presented stationary t...
After prolonged adaptation to a moving pattern, a subsequently presented static or dynamic test patt...
Subsecond adaptation to directional motion can induce a rapid form of motion after-effect (rMAE). Un...
Simultaneously adapting to retinal motion and non-collinear pursuit eye movement produces a motion a...
AbstractWe found that the motion aftereffect measured using a directionally ambiguous counterphase g...
AbstractSimultaneously adapting to retinal motion and non-collinear pursuit eye movement produces a ...
Simultaneously adapting to retinal motion and non-collinear pursuit eye movement produces a motion a...