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鸽子和人类对视觉对象中的非偶然变化比尺寸变化更敏感。

Pigeons and humans are more sensitive to nonaccidental than to metric changes in visual objects.

作者信息

Lazareva Olga F, Wasserman Edward A, Biederman Irving

机构信息

Department of Psychology, University of Iowa, Iowa City, IA 52242-1407, USA.

出版信息

Behav Processes. 2008 Feb;77(2):199-209. doi: 10.1016/j.beproc.2007.11.009. Epub 2007 Dec 3.

Abstract

Humans and macaques are more sensitive to differences in nonaccidental image properties, such as straight vs. curved contours, than to differences in metric properties, such as degree of curvature [Biederman, I., Bar, M., 1999. One-shot viewpoint invariance in matching novel objects. Vis. Res. 39, 2885-2899; Kayaert, G., Biederman, I., Vogels, R., 2003. Shape tuning in macaque inferior temporal cortex. J. Neurosci. 23, 3016-3027; Kayaert, G., Biederman, I., Vogels, R., 2005. Representation of regular and irregular shapes in macaque inferotemporal cortex. Cereb. Cortex 15, 1308-1321]. This differential sensitivity allows facile recognition when the object is viewed at an orientation in depth not previously experienced. In Experiment 1, we trained pigeons to discriminate grayscale, shaded images of four shapes. Pigeons made more confusion errors to shapes that shared more nonaccidental properties. Although the images in that experiment were not well controlled for incidental changes in metric properties, the same results were apparent with better controlled stimuli in Experiment 2: pigeons trained to discriminate a target shape from a metrically changed shape and a nonaccidentally changed shape committed more confusion errors to the metrically changed shape, suggesting that they perceived it to be more similar to the target shape. Humans trained with similar stimuli and procedure exhibited the same tendency to make more errors to the metrically changed shape. These results document the greater saliency of nonaccidental differences for shape recognition and discrimination in a non-primate species and suggest that nonaccidental sensitivity may be characteristic of all shape-discriminating species.

摘要

与度量属性的差异(如曲率程度)相比,人类和猕猴对非偶然图像属性的差异(如直线与曲线轮廓)更为敏感[比德曼,I.,巴尔,M.,1999年。匹配新物体时的一次性视角不变性。视觉研究。39,2885 - 2899;卡亚尔特,G.,比德曼,I.,沃格斯,R.,2003年。猕猴颞下皮质中的形状调谐。神经科学杂志。23,3016 - 3027;卡亚尔特,G.,比德曼,I.,沃格斯,R.,2005年。猕猴颞下皮质中规则和不规则形状的表征。大脑皮层。15,1308 - 1321]。当物体以之前未经历过的深度方向被观察时,这种差异敏感性使得识别变得容易。在实验1中,我们训练鸽子区分四种形状的灰度阴影图像。鸽子对具有更多非偶然属性的形状犯的混淆错误更多。尽管该实验中的图像在度量属性的偶然变化方面控制得不好,但在实验2中使用控制更好的刺激时,相同的结果很明显:训练鸽子区分目标形状与度量变化形状和非偶然变化形状,鸽子对度量变化形状犯的混淆错误更多,这表明它们认为它与目标形状更相似。用类似刺激和程序训练的人类对度量变化形状犯更多错误的倾向相同。这些结果证明了非偶然差异在非灵长类物种形状识别和辨别中具有更大的显著性,并表明非偶然敏感性可能是所有形状辨别物种的特征。

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