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猫视觉皮层细胞的色觉敏感性和空间组织:锥体细胞与杆体细胞的相互作用

Chromatic sensitivity and spatial organization of cat visual cortical cells: cone-rod interaction.

作者信息

Hammond P

出版信息

J Physiol. 1971 Mar;213(2):475-94. doi: 10.1113/jphysiol.1971.sp009394.

DOI:10.1113/jphysiol.1971.sp009394
PMID:5574852
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC1331772/
Abstract
  1. Colour sensitivity and spatial organization were determined for the dominant-eye receptive fields of thirty-eight simple or complex cells in cat primary visual vortex. Receptive fields were all from the cortical area associated with central vision. Each cell was investigated with threshold or suprathreshold monochromatic stimuli, under scotopic, low and high mesopic adaptation.2. The Purkinje shift, well defined for all units, was consistent with dual input from each of only two receptor mechanisms, viz. 556 nm cones and 500 nm rods. With change of adaptation level there was a systematic change in the peak sensitivity of spectral response curves to suprathreshold monochromatic stimuli, equated for quantum flux but of different wave-length. Equally with change of adaptation, the relative shift in threshold between wave-lengths selective for cone or rod activation was in close agreement with the change predicted from the Dartnall nomogram curves for visual pigments 556 and 507 respectively.3. For ganglion cells with concentric fields rod input derives from a spatially larger area than cone input. Rod field centre and rod field surround are substantially larger than the corresponding centre and surround for cones (Andrews & Hammond, 1970b). For cortical cells a conclusive comparable change could only be demonstrated for one simple unit. Its receptive field consisted of a horizontal excitatory stripe with asymmetric inhibitory flanks. When light-adapted the weaker, upper flank was functionally undetectable, indicative of purely rod input to this sideband, and the preference for upward movement was enhanced.4. No difference in receptive field configuration, or in spatial extent of input mediated by cones or by rods, was detected for any other unit. The discrepancy between retinal and cortical findings is discussed. It is inferred that cortical fields are compounded essentially by convergent input from geniculate cell field-centres.
摘要
  1. 测定了猫初级视涡中38个简单或复杂细胞的优势眼感受野的颜色敏感性和空间组织。感受野均来自与中央视觉相关的皮质区域。在暗视、低和高中间适应条件下,用阈限或阈上单色刺激对每个细胞进行研究。

  2. 所有单位的浦肯野位移都很明确,这与仅两种受体机制中每一种的双重输入一致,即556纳米视锥细胞和500纳米视杆细胞。随着适应水平的变化,光谱响应曲线对阈上单色刺激的峰值敏感性发生系统性变化,这些刺激的量子通量相等但波长不同。同样,随着适应的变化,对视锥细胞或视杆细胞激活有选择性的波长之间的阈值相对位移与分别根据达特纳尔列线图曲线对视觉色素556和507预测的变化密切一致。

  3. 对于具有同心视野的神经节细胞,视杆细胞输入来自比视锥细胞输入更大的空间区域。视杆细胞视野中心和视杆细胞视野周边比视锥细胞的相应中心和周边大得多(安德鲁斯和哈蒙德,1970b)。对于皮质细胞,只能对一个简单单位证明有确凿的可比变化。其感受野由一条水平兴奋性条纹和不对称抑制性侧翼组成。当光适应时,较弱的上侧翼在功能上无法检测到,表明该边带仅有视杆细胞输入,并且向上运动的偏好增强。

  4. 对于任何其他单位,未检测到感受野配置或视锥细胞或视杆细胞介导的输入空间范围的差异。讨论了视网膜和皮质研究结果之间的差异。据推断,皮质视野基本上是由膝状细胞视野中心的汇聚输入复合而成的。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/58d3/1331772/1018d42bafa0/jphysiol01032-0222-a.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/58d3/1331772/1018d42bafa0/jphysiol01032-0222-a.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/58d3/1331772/1018d42bafa0/jphysiol01032-0222-a.jpg

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