AbstractInterocular transfer of the motion aftereffect (MAE) has been extensively investigated for the purpose of analysing the binocularity of the underlying motion mechanism. Previous studies unanimously reported that the transfer of the classical static MAE is partial, but there is a controversy as to whether the transfer of the flicker MAE (MAE measured using counterphase gratings) is partial or perfect. To gain insight into the discrepancy between studies, we investigated whether the interocular transfer of the flicker MAE is influenced by the MAE measurement method, retinal eccentricity and attention. Our results showed that the transfer was perfect or nearly so when the MAE duration was measured in the central visual field with obser...
AbstractThe spatial frequency selectivity of motion detection mechanisms can be measured by comparin...
AbstractActivation of the human visual motion area V5/MT was previously thought to be the basis of t...
AbstractSimultaneously adapting to retinal motion and non-collinear pursuit eye movement produces a ...
AbstractWe found that the motion aftereffect measured using a directionally ambiguous counterphase g...
AbstractWe found that the motion aftereffect measured using a directionally ambiguous counterphase g...
AbstractA series of experiments was conducted to clarify the distinction between motion aftereffects...
AbstractTemporal tuning property of motion aftereffect (MAE) with flickering test stimuli (flicker M...
AbstractThe motion after-effect (MAE) can be elicited by adapting observers to global motion of rand...
AbstractOne of the many interesting questions in motion aftereffect (MAE) research is concerned with...
AbstractWe measured the magnitude of the motion aftereffect (MAE) elicited by gratings viewed throug...
After prolonged adaptation to a moving pattern, a subsequently presented static or dynamic test patt...
AbstractIn the motion aftereffect (MAE), a stationary pattern appears to move in the opposite direct...
AbstractA series of experiments was conducted to clarify the distinction between motion aftereffects...
The motion aftereffect (MAE) can be elicited by adapting observers to global motion before they view...
AbstractThe motion aftereffect (MAE) to drifting bivectorial stimuli, such as plaids, is usually uni...
AbstractThe spatial frequency selectivity of motion detection mechanisms can be measured by comparin...
AbstractActivation of the human visual motion area V5/MT was previously thought to be the basis of t...
AbstractSimultaneously adapting to retinal motion and non-collinear pursuit eye movement produces a ...
AbstractWe found that the motion aftereffect measured using a directionally ambiguous counterphase g...
AbstractWe found that the motion aftereffect measured using a directionally ambiguous counterphase g...
AbstractA series of experiments was conducted to clarify the distinction between motion aftereffects...
AbstractTemporal tuning property of motion aftereffect (MAE) with flickering test stimuli (flicker M...
AbstractThe motion after-effect (MAE) can be elicited by adapting observers to global motion of rand...
AbstractOne of the many interesting questions in motion aftereffect (MAE) research is concerned with...
AbstractWe measured the magnitude of the motion aftereffect (MAE) elicited by gratings viewed throug...
After prolonged adaptation to a moving pattern, a subsequently presented static or dynamic test patt...
AbstractIn the motion aftereffect (MAE), a stationary pattern appears to move in the opposite direct...
AbstractA series of experiments was conducted to clarify the distinction between motion aftereffects...
The motion aftereffect (MAE) can be elicited by adapting observers to global motion before they view...
AbstractThe motion aftereffect (MAE) to drifting bivectorial stimuli, such as plaids, is usually uni...
AbstractThe spatial frequency selectivity of motion detection mechanisms can be measured by comparin...
AbstractActivation of the human visual motion area V5/MT was previously thought to be the basis of t...
AbstractSimultaneously adapting to retinal motion and non-collinear pursuit eye movement produces a ...