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龟视网膜中视锥细胞反应的颜色依赖性。

Colour-dependence of cone responses in the turtle retina.

作者信息

Fuortes M G, Schwartz E A, Simon E J

出版信息

J Physiol. 1973 Oct;234(1):199-216. doi: 10.1113/jphysiol.1973.sp010341.

DOI:10.1113/jphysiol.1973.sp010341
PMID:4766220
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC1350658/
Abstract
  1. Responses to monochromatic lights were recorded intracellularly from red cones, green cones, and luminosity horizontal cells (L-cells) in the retinae of turtles.2. Both types of cones responded to small fields of illumination with graded hyperpolarizations. Red cones were only moderately more sensitive to deep red (680 nm) than to green (550 nm) light while green cones were much more sensitive to the green light than to the red. L-cells produced small responses for flashes of either colour covering small fields.3. Stimulation of large fields with monochromatic lights of moderate or high intensity evoked large L-cell responses and composite responses in cones. These latter include the hyperpolarizing action of the light absorbed by the cone itself (direct response), its enhancement by illumination of the near surround, and the depolarizing effects of L-cell feed-back.4. L-cells respond primarily to the activity of red cones; with sufficient intensity of the light, however, their responses are influenced also by green cones. As a result, if a red and a green light stimulate red cones equally, the L-cell response is larger for the green stimulus.5. Green cones were depolarized by deep red lights of moderate intensity applied over large fields. These depolarizing responses include oscillations which follow closely oscillations in L-cells. Green light applied to the same large fields produced hyperpolarization of green cones.6. Red cones were hyperpolarized by red or green light covering large fields, but the time course of their responses differed for the two colours, reflecting a corresponding difference in L-cell activity.7. Red light in the form of an annulus produced large responses in central L-cells without eliciting direct responses in central green cones. In these conditions green cones developed depolarizing waves which included a large, sharp transient.8. It is concluded from these and other results that the direct response of each cone is modified by two interactions: enhancement only from nearby cones of the same colour and depression controlled (through L-cell feed-back) by cones of all colours. In this way the response of any cone will change as the proportion of responses in cones of different colours changes, this proportion being a function of the wave-length of the light.
摘要
  1. 在海龟视网膜的红色视锥细胞、绿色视锥细胞和亮度水平细胞(L细胞)中,以细胞内记录的方式记录了对单色光的反应。

  2. 两种类型的视锥细胞对小照明区域的反应均为分级超极化。红色视锥细胞对深红色(680纳米)光的敏感度仅略高于对绿色(550纳米)光的敏感度,而绿色视锥细胞对绿光的敏感度远高于对红光的敏感度。L细胞对覆盖小区域的任何一种颜色的闪光产生小反应。

  3. 用中等强度或高强度的单色光刺激大区域会诱发L细胞的大反应以及视锥细胞的复合反应。后者包括视锥细胞自身吸收的光的超极化作用(直接反应)、近周边照明对其的增强作用以及L细胞反馈的去极化作用。

  4. L细胞主要对红色视锥细胞的活动做出反应;然而,在光强度足够时,它们的反应也会受到绿色视锥细胞的影响。因此,如果红色和绿色光对等刺激红色视锥细胞,L细胞对绿色刺激的反应会更大。

  5. 中等强度的深红色光照射大区域会使绿色视锥细胞去极化。这些去极化反应包括与L细胞振荡紧密相随的振荡。相同大区域照射绿光则会使绿色视锥细胞超极化。

  6. 覆盖大区域的红光或绿光会使红色视锥细胞超极化,但两种颜色的反应时间进程不同,这反映了L细胞活动的相应差异。

  7. 环形的红光在中央L细胞中产生大反应,而不会在中央绿色视锥细胞中引发直接反应。在这些条件下,绿色视锥细胞会产生去极化波,其中包括一个大的、尖锐的瞬变。

  8. 从这些及其他结果可以得出结论,每个视锥细胞的直接反应会因两种相互作用而改变:仅来自相同颜色附近视锥细胞的增强作用以及受所有颜色视锥细胞控制(通过L细胞反馈)的抑制作用。这样,任何视锥细胞的反应会随着不同颜色视锥细胞反应比例的变化而改变,该比例是光波长的函数。

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