Matching velocity in central and peripheral vision
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2022, Vision ResearchCitation Excerpt :Some of these errors can depend on the way basic stimulus properties affect sensor output, and others on the way different sensors interact with each other. Examples of the former include the influence of contrast, spatial frequency and retinal location on perceived speed (Johnston & Wright, 1985; Smith & Edgar, 1991; Thompson, 1982); examples of the latter include the many types of simultaneous contrast illusion known to exist (Bosten & Mollon, 2010). The second broad category of explanation is ‘top-down’ and appeals to the influence of higher-level factors, such as prior knowledge about the world (Gregory, 1997; Teufel & Fletcher, 2020).
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2012, Vision ResearchCitation Excerpt :With regards to the neuronal substrate, perceptual effects of prolonged motion adaptation have been consistently attributed to mechanisms at the stage of V1: In psychophysical studies, reductions of perceived speed have been shown to transfer interocularly, indicating at least a cortical locus of motion adaptation (Cohen, 1965; Hunzelmann & Spillmann, 1984). Johnston and Wright (1986) have demonstrated that perceived speed scales inversely with the mean receptive field size of V1 neurons. Clifford and Wenderoth (1999) found that improvements in differential sensitivity by adaptation can be induced solely by temporal flicker without any net motion direction, which would be required to activate motion sensitive neurons beyond V1, specifically in area MT. In electrophysiological experiments, time constants of reductions in firing rate of V1 neurons have been shown to be similar to those of perceptual effects of adaptation (Giaschi et al., 1993; Vautin & Berkley, 1977).
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