Deconstructing the frame effect

The perception of an object's location is profoundly influenced by the surrounding dynamics. This is dramatically demonstrated by the frame effect, where a moving frame induces substantial shifts in the perceived location of objects that flash within it. In this study, we examined the elements contributing to the large magnitude of this effect. Across three experiments, we manipulated the number of probes, the dynamics of the frame, and the spatiotemporal relationships between probes and the frame. We found that the presence of multiple probes amplified the position shift, whereas the accumulation of the frame effect over repeated motion cycles was minimal. Notably, an oscillating frame generated more pronounced effects compared to a unidirectional moving frame. Furthermore, the spatiotemporal distance between the frame and the probe played pivotal roles, with larger shifts observed near the leading edge of the frame. Interestingly, although larger frames produced stronger position shifts, the maximum shift occurred almost at the same distance relative to the frame's center across all tested sizes. Our findings suggest that the number of probes, frame size, relative probe-frame distance, and frame dynamics collectively contribute to the magnitude of the position shift.

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Publication Details

Journal
Journal of Vision
Published
2024-10-10
DOI
https://doi.org/10.1167/jov.24.11.8
Citations
2
Primary Topic
Visual perception and processing mechanisms
Type
article
Field-Weighted Citation Impact
0.69

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article

Deconstructing the frame effect

Patrick Cavanagh, Peter J. Kohler, Mohammad Shams-Ahmar
2 citations
Journal of Vision
Visual perception and processing mechanisms
0.69
article

Deconstructing the frame effect

Patrick Cavanagh, Peter J. Kohler, Mohammad Shams-Ahmar
article en
2 citations

Abstract

The perception of an object's location is profoundly influenced by the surrounding dynamics. This is dramatically demonstrated by the frame effect, where a moving frame induces substantial shifts in the perceived location of objects that flash within it. In this study, we examined the elements contributing to the large magnitude of this effect. Across three experiments, we manipulated the number of probes, the dynamics of the frame, and the spatiotemporal relationships between probes and the frame. We found that the presence of multiple probes amplified the position shift, whereas the accumulation of the frame effect over repeated motion cycles was minimal. Notably, an oscillating frame generated more pronounced effects compared to a unidirectional moving frame. Furthermore, the spatiotemporal distance between the frame and the probe played pivotal roles, with larger shifts observed near the leading edge of the frame. Interestingly, although larger frames produced stronger position shifts, the maximum shift occurred almost at the same distance relative to the frame's center across all tested sizes. Our findings suggest that the number of probes, frame size, relative probe-frame distance, and frame dynamics collectively contribute to the magnitude of the position shift.

Journal of VisionVol. 24(11)
York University (CA)
York University, Canada First Research Excellence Fund, Natural Sciences and Engineering Research Council of Canada
Openalex Percentile: Top 30%
Visual perception and processing mechanisms
0.69
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Deconstructing the frame effect — Patrick Cavanagh, Peter J. Kohler, et al. · Journal of Vision (2024) | TGRS Research Map | TGRS