Rotational Jitter around the Observer’s Line of Sight Can Facilitate Visually Induced Perception of Forward Self-Motion (Forward Vection)

in Multisensory Research
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Previous studies have shown that the addition of jittering motion into a visual inducer facilitates vection. A psychophysical experiment with 12 observers found that the expanding visual inducer, which contained rotational jitter around the observer’s line of sight, can induce stronger forward vection than a pure radial expansion without any additional jittering component. The results suggested that angular rotational jitter can facilitate vection without the enhancement of motion parallax, which has been considered one of the critical factors in explaining jitter effects.

Rotational Jitter around the Observer’s Line of Sight Can Facilitate Visually Induced Perception of Forward Self-Motion (Forward Vection)

in Multisensory Research

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References

FischerM. H.KornmüllerA. E. (1930). Optokinetisch ausgelöste Bewegungswahrnehmung und optokinetischer NystagmusJ. Psychol. Neurol. 44273308.

KimJ.PalmisanoS.BonatoF. (2012). Simulated angular head oscillation enhances vection in depthPerception 41402414.

NakamuraS. (2010). Additional oscillation can facilitate visually induced self-motion perception: The effects of its coherence and amplitude gradientPerception 39320329.

NakamuraS. (2013a). Effects of additional visual oscillation on vection under voluntary eye movement conditions — retinal image motion is critical in vection facilitationPerception 42529536.

NakamuraS. (2013b). Visual jitter inhibits roll vection for an upright observerPerception 42751758.

NakamuraS.ShimojoS. (1998). Stimulus size and eccentricity in visually induced perception of translational self-motionPercept. Mot. Skills 87659663.

NakamuraS.ShimojoS. (1999). Critical role of foreground stimuli in perceiving visually induced self-motion (vection)Perception 28893902.

OhmiM.HowardI. P.LandoltJ. P. (1987). Circular vection as a function of foreground–background relationshipsPerception 161722.

PalmisanoS.AllisonR. S.KimJ.BonatoF. (2011). Simulated viewpoint jitter shakes sensory conflict accounts of vectionSeeing Perceiving 24173200.

PalmisanoS.AllisonR. S.PekinF. (2008). Accelerating self-motion displays produce more compelling vection in depthPerception 372233.

PalmisanoS.BurkeD.AllisonR. S. (2003). Coherent perspective jitter induces visual illusions of self-motionPerception 3297110.

PalmisanoS.GillamB. J.BlackburnS. G. (2000). Global-perspective jitter improves vection in central visionPerception 295767.

PalmisanoS.KimJ. (2009). Effects of gaze on vection from jittering, oscillating and purely radial optic flowAtten. Percept. Psychophys. 7118421853.

PalmisanoS.KimJ.FreemanT. C. (2012). Horizontal fixation point oscillation and simulated viewpoint oscillation both increase vection in depthJ. Vis. 12(12) 15.

PostR. B. (1988). Circular vection is independent of stimulus eccentricityPerception 17737744.

WarrenW. H. (1995). Self-motion: Visual perception and visual control in: Perception of Space and MotionEpsteinW.RogersS. (Eds) pp.  263325. Academic PressSan Diego, CA, USA.

Figures

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    Averaged latency (a), duration (b) and estimated magnitude of vection measured under each stimulus condition. Error bars indicate standard deviation. It should be noted that the estimated magnitude of vection for the control condition was always assigned a value of 100.

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