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用于感知和行动的周边视觉。

Peripheral vision for perception and action.

作者信息

Brown Liana E, Halpert Brooke A, Goodale Melvyn A

机构信息

Department of Psychology, 6250 Social Sciences Centre, University of Western Ontario, London, ON, Canada, N6A 5C2.

出版信息

Exp Brain Res. 2005 Aug;165(1):97-106. doi: 10.1007/s00221-005-2285-y. Epub 2005 Jun 7.

DOI:10.1007/s00221-005-2285-y
PMID:15940498
Abstract

Anatomical and physiological evidence suggests that vision-for-perception and vision-for-action may be differently sensitive to increasingly peripheral stimuli, and to stimuli in the upper and lower visual fields (VF). We asked participants to fixate one of 24 randomly presented LED arranged radially in eight directions and at three eccentricities around a central target location. One of two (small, large) target objects was presented briefly, and participants responded in two ways. For the action task, they reached for and grasped the target. For the perception task, they estimated target height by adjusting thumb-finger separation. In a final set of trials for each task, participants knew that target size would remain constant. We found that peak aperture increased with eccentricity for grasping, but not for perceptual estimations of size. In addition, peak grip aperture, but not size-estimation aperture, was more variable when targets were viewed in the upper as opposed to the lower VF. A second experiment demonstrated that prior knowledge about object size significantly reduced the variability of perceptual estimates, but had no effect on the variability of grip aperture. Overall, these results support the claim that peripheral VF stimuli are processed differently for perception and action. Moreover, they support the idea that the lower VF is specialized for the control of manual prehension. Finally, the effect of prior knowledge about target size on performance substantiates claims that perception is more tightly linked to memory systems than action.

摘要

解剖学和生理学证据表明,用于感知的视觉和用于行动的视觉可能对越来越周边的刺激以及对上下视野(VF)中的刺激具有不同的敏感性。我们要求参与者注视24个随机呈现的发光二极管(LED)中的一个,这些LED围绕中心目标位置呈放射状排列在八个方向上,且有三个不同的偏心率。短暂呈现两个(小、大)目标物体中的一个,参与者通过两种方式做出反应。在行动任务中,他们伸手去抓握目标。在感知任务中,他们通过调整拇指与手指的间距来估计目标高度。在每个任务的最后一组试验中,参与者知道目标大小将保持不变。我们发现,抓握时的最大孔径随偏心率增加,而对大小的感知估计则不然。此外,当目标在上视野而非下视野中被观察时,最大抓握孔径(而非大小估计孔径)的变化更大。第二个实验表明,关于物体大小的先验知识显著降低了感知估计的变异性,但对抓握孔径的变异性没有影响。总体而言,这些结果支持了这样的观点,即周边视野刺激在感知和行动中的处理方式不同。此外,它们支持了下视野专门用于控制手动抓握的观点。最后,关于目标大小的先验知识对表现的影响证实了感知比行动与记忆系统联系更紧密的观点。

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