Temporal summation of visual motion
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Cited by (28)
Is conscious perception a series of discrete temporal frames?
2018, Consciousness and CognitionCitation Excerpt :Thus, one could have a percept of a stimulus of given brightness persisting for 50 ms or for 150 ms, but that does not happen: instead, the percept is of a stimulus that is brighter when its objective duration is 150 ms than when it is 50 ms. Something similar appears to be the case for perceived loudness of auditory stimuli, on a time scale of more than 200 ms under some conditions (Räsänen & Laine, 2013; Rimmele et al., 2015; Zwislocki, 1969). Visual motion percepts involve summation or integration on a time scale of about 80–130 ms (McKee & Welch, 1985; Simpson, 1994; Snowden & Braddick, 1991), but under some conditions temporal integration for both biological and non-biological motion perception can occur on a time scale up to about 3000 ms (Burr & Santoro, 2001; Neri, Morrone, & Burr, 1998). I have already discussed the example of visible persistence, showing that the duration of visible persistence is not fixed but varies depending on both stimulus duration and motion properties (Di Lollo, 1980; Farrell, 1984), which represents a compromise between the processing objectives of feature analysis and minimisation of visual smear (Farrell, 1984).
The two-pulse experiment and cross-correlation
2006, Vision ResearchMarker correspondence, not processing latency, determines temporal binding of visual attributes
2002, Current BiologyCitation Excerpt :This is, at least in part, we believe, because of temporal limits on the allocation of attention needed to link transitions and turning points. There is also considerable evidence showing that changes in speed (second-order changes) are poorly detected by the visual system [24–27]. Given that neural sensors specialized for temporal change exist only for transitions, but not for turning points, it is reasonable that the visual system can use only transitions at high temporal rates.
Direction-specific changes of sensitivity after brief apparent motion stimuli
2001, Vision Research