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猫纹状皮层中神经元的优势取向与感受野位置之间的关系。

Relationship between preferred orientation and receptive field position of neurons in cat striate cortex.

作者信息

Leventhal A G

出版信息

J Comp Neurol. 1983 Nov 10;220(4):476-83. doi: 10.1002/cne.902200409.

DOI:10.1002/cne.902200409
PMID:6643740
Abstract

It has been known for two decades that neurons in mammalian visual cortex respond selectively to stimuli falling on the retina at a particular angular orientation (Hubel and Wiesel, '62). Recent evidence suggests that most cat retinal ganglion cells (Levick and Thibos, '82) and relay cells (Vidyasagar and Urbas, '82) in the cat's dorsal lateral geniculate nucleus are also orientation selective. In the retina there is a systematic relationship between receptive field position (polar angle) and preferred orientation. Outside of the area centralis, most retinal ganglion cells have oriented dendritic fields (Leventhal and Schall, '83) and respond best to stimuli oriented radially, i.e., oriented parallel to the line connecting their receptive fields to the area centralis (Levick an Thibos, '82). This relationship is strongest close to the horizontal meridian (the visual streak) of the retina (Leventhal and Schall, '83). To determine if a relationship between preferred orientation and polar angle exists in visual cortex, the preferred orientations and receptive field positions of 768 striate cortical neurons were studied. As in the retina, a systematic relationship exists between preferred orientation and visual field position in area 17. In parts of striate cortex 15--80 degrees from the area centralis projection there is a strong tendency for cells to respond best to lines oriented radially. In regions 4--15 degrees from the area centralis projection this relationship appears weaker. In regions subserving the central 4 degrees of visual angle no such relationship exists. Throughout area 17 the relationship between preferred orientation and polar angle is strongest in regions subserving the horizontal meridian.(ABSTRACT TRUNCATED AT 250 WORDS)

摘要

二十年来,人们已经知道哺乳动物视觉皮层中的神经元会选择性地对落在视网膜上特定角度方向的刺激做出反应(休伯尔和威塞尔,1962年)。最近的证据表明,猫的背侧外侧膝状核中的大多数视网膜神经节细胞(利维克和蒂博斯,1982年)以及中继细胞(维迪亚萨加尔和乌尔巴斯,1982年)也具有方向选择性。在视网膜中,感受野位置(极角)与偏好方向之间存在系统关系。在中央凹区域之外,大多数视网膜神经节细胞具有定向的树突场(莱文索尔和沙尔,1983年),并且对径向定向的刺激反应最佳,即与将它们的感受野连接到中央凹区域的线平行的方向(利维克和蒂博斯,1982年)。这种关系在靠近视网膜水平子午线(视觉条纹)处最为强烈(莱文索尔和沙尔,1983年)。为了确定视觉皮层中是否存在偏好方向与极角之间的关系,对768个纹状皮层神经元的偏好方向和感受野位置进行了研究。与视网膜一样,17区的偏好方向与视野位置之间存在系统关系。在距中央凹投射15 - 80度的部分纹状皮层中,细胞对径向定向的线条反应最佳的趋势很强。在距中央凹投射4 - 15度的区域,这种关系似乎较弱。在服务于中央4度视角的区域不存在这种关系。在整个17区,偏好方向与极角之间的关系在服务于水平子午线的区域最为强烈。(摘要截取自250字)

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