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Stereoscopic advantages for vection induced by radial, circular, and spiral optic flows
Author(s) -
Stephen Palmisano,
Stephanie Summersby,
Rodney G. Davies,
Juno Kim
Publication year - 2016
Publication title -
journal of vision
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 1.126
H-Index - 113
ISSN - 1534-7362
DOI - 10.1167/16.14.7
Subject(s) - stereoscopy , spiral (railway) , monocular , circular motion , motion (physics) , computer vision , perception , physics , artificial intelligence , optical flow , observer (physics) , optics , computer science , mathematics , psychology , neuroscience , classical mechanics , mathematical analysis , quantum mechanics , image (mathematics)
Although observer motions project different patterns of optic flow to our left and right eyes, there has been surprisingly little research into potential stereoscopic contributions to self-motion perception. This study investigated whether visually induced illusory selfmotion (i.e., vection) is influenced by the addition of consistent stereoscopic information to radial, circular, and spiral (i.e., combined radial + circular) patterns of optic flow. Stereoscopic vection advantages were found for radial and spiral (but not circular) flows when monocular motion signals were strong. Under these conditions, stereoscopic benefits were greater for spiral flow than for radial flow. These effects can be explained by differences in the motion aftereffects generated by these displays, which suggest that the circular motion component in spiral flow selectively reduced adaptation to stereoscopic motion-in-depth. Stereoscopic vection advantages were not observed for circular flow when monocular motion signals were strong, but emerged when monocular motion signals were weakened. These findings show that stereoscopic information can contribute to visual self-motion perception in multiple ways

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