On the Shifter Hyposthesis for the Elimination of Motion Blur

Moving objects may stimulate many retinal photoreceptors within the integration time of the receptors without motion blur being experienced. Anderson and vanEssen (1987) suggested that the neuronal representation of retinal images is shifted on its way to the cortex, in an opposite direction t...

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Main Author: Fahle, Manfred
Language:en_US
Published: 2004
Subjects:
Online Access:http://hdl.handle.net/1721.1/5999
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author Fahle, Manfred
author_facet Fahle, Manfred
author_sort Fahle, Manfred
collection MIT
description Moving objects may stimulate many retinal photoreceptors within the integration time of the receptors without motion blur being experienced. Anderson and vanEssen (1987) suggested that the neuronal representation of retinal images is shifted on its way to the cortex, in an opposite direction to the motion. Thus, the cortical representation of objects would be stationary. I have measured thresholds for two vernier stimuli, moving simultaneously into opposite directions over identical positions. Motion blur for these stimuli is not stronger than with a single moving stimulus, and thresholds can be below a photoreceptor diameter. This result cannot be easily reconciled with the hypothesis of Tshifter circuitsU.
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spelling mit-1721.1/59992019-04-12T08:28:25Z On the Shifter Hyposthesis for the Elimination of Motion Blur Fahle, Manfred human psychophysics spatio-temporal interpolation motionssmear motion blur Moving objects may stimulate many retinal photoreceptors within the integration time of the receptors without motion blur being experienced. Anderson and vanEssen (1987) suggested that the neuronal representation of retinal images is shifted on its way to the cortex, in an opposite direction to the motion. Thus, the cortical representation of objects would be stationary. I have measured thresholds for two vernier stimuli, moving simultaneously into opposite directions over identical positions. Motion blur for these stimuli is not stronger than with a single moving stimulus, and thresholds can be below a photoreceptor diameter. This result cannot be easily reconciled with the hypothesis of Tshifter circuitsU. 2004-10-04T14:35:31Z 2004-10-04T14:35:31Z 1990-08-01 AIM-1242 http://hdl.handle.net/1721.1/5999 en_US AIM-1242 14 p. 2026773 bytes 797404 bytes application/postscript application/pdf application/postscript application/pdf
spellingShingle human psychophysics
spatio-temporal interpolation
motionssmear
motion blur
Fahle, Manfred
On the Shifter Hyposthesis for the Elimination of Motion Blur
title On the Shifter Hyposthesis for the Elimination of Motion Blur
title_full On the Shifter Hyposthesis for the Elimination of Motion Blur
title_fullStr On the Shifter Hyposthesis for the Elimination of Motion Blur
title_full_unstemmed On the Shifter Hyposthesis for the Elimination of Motion Blur
title_short On the Shifter Hyposthesis for the Elimination of Motion Blur
title_sort on the shifter hyposthesis for the elimination of motion blur
topic human psychophysics
spatio-temporal interpolation
motionssmear
motion blur
url http://hdl.handle.net/1721.1/5999
work_keys_str_mv AT fahlemanfred ontheshifterhyposthesisfortheeliminationofmotionblur