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Cited by (117)
Changes in perceived temporal variation due to context: Contributions from two distinct neural mechanisms
2011, Vision ResearchCitation Excerpt :Temporal processing in the human visual system frequently is studied using detection thresholds (Kelly, 1961; Mandler & Makous, 1984; Smith, 1971; Lee, Pokorny, Smith, Martin, & Valberg, 1990; Cass & Alais, 2006). The temporal contrast sensitivity function, which characterizes human sensitivity to different temporal frequencies, is believed to result from multiple underlying temporal mechanisms (Cass & Alais, 2006; Mandler & Makous, 1984). The current study shows this is also the case for the influence of temporally varying surrounding context.
Frequency dependency of temporal contrast adaptation in normal subjects
2011, Vision ResearchCitation Excerpt :Unlike spatial contrast adaptation, temporal contrast adaptation does not only occur at stimulus frequencies that are close to the adapting frequency (Smith, 1971). Instead two (Cass & Alais, 2006) and possibly three (Mandler & Makous, 1984) temporal frequency channels are proposed. A low temporal frequency channel (up to about 4 Hz) probably has a cortical origin because cortical neurons respond only at these temporal frequencies.
Higher order color mechanisms: A critical review
2009, Vision ResearchTwo Distinct Visual Motion Mechanisms for Smooth Pursuit: Evidence from Individual Differences
2007, NeuronCitation Excerpt :First, a noisy visual motion signal could be attenuated in magnitude by some kind of gain control, leading to weaker pursuit acceleration (Stocker and Simoncelli, 2006). Second, our low-level motion test (relatively high in temporal frequency at 11 Hz) could rely upon a high temporal frequency mechanism important for robust pursuit acceleration (Mandler and Makous, 1984). Recent functional magnetic resonance imaging, electrophysiological, and lesion studies suggest that human IPL (inferior parietal lobe), monkey LIP (lateral intraparietal area) and area 7a, and other parietal areas may play a role in high-level motion processing (Battelli et al., 2001; Claeys et al., 2003; Williams et al., 2003; Merchant et al., 2005).
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Present address: Department of Transportation, USCG Research and Development Center, Avery Point, Groton, CT 06340, U.S.A.