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绿色盲患者中红细胞视蛋白作用光谱的变异。

Variation in the action spectrum of erythrolabe among deuteranopes.

作者信息

Alpern M, Pugh E N

出版信息

J Physiol. 1977 Apr;266(3):613-46. doi: 10.1113/jphysiol.1977.sp011785.

DOI:10.1113/jphysiol.1977.sp011785
PMID:301186
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC1283583/
Abstract
  1. Eight deuteranopes matched a mixture of a monochromatic light on the long wave side of the neutral point and a violet (450 nm) primary to a fixed white as well as a monochromatic light on the short wave side of the neutral point mixed with a red (650 nm) primary, to the same white. For lambda greater than 530 nm, the former set of matches defined the action spectrum of the long wave sensitive foveal cones, and for lambda less than 480 nm, the latter that of the short wave sensitive cones. 2. Individual differences in the former matches were approximately correlated with the respective ratio of the sensitivities of the wave-length of the anomaloscope primaries, in a way that individual differences of the latter were not. 3. Assuming that eye media differences alone account for the differences in long wave sensitive foveal action spectra, the spectral reflectivity of the foveal fundus was predicted for these deuteranopes. The prediction is inconsistent with measurement. 4. Thirteen deuteranopes matched monochromatic spectral lights with a green (535 nm) and a blue (460 nm) primary. The result were analysed by von Kries' method in which differences in matching due to differences in eye media absorption are obviated. The matches of five differed significantly from one another when so analysed. It was concluded that at least one of two action spectra of the foveal cones of every one of these five differed from that of all of the others. 5. The canon that deuteranopes accept normal colour matches was evaluated by confronting a single normal with five deuternopes in the analytical anomaloscope of Baker & Rushton, set in the mode of each of the five in turn. Obvious differences existed between this normal's matches and those of four of five deuteranopes. 6. Explanations for differences in the spectrum of erythrolabe in different deuteranopes are evaluated. The possibilities that all have the identical visual pigment but (a) in cones with different optical funnelling properties or (b) in different optical densities are considered. Preliminary results are not in agreement with the expectations of either of these ideas. 7. It is suggested that the visual pigment in the foveal long wave sensitive cones of different deuternopes (and of different normals) may have different extinction spectra. The idea is consistent with micro-spectrophotometric measurements of rhodopsin in individual rods from different frogs (Bowmaker, Loew & Leibman, 1975).
摘要
  1. 八名绿色盲患者将中性点长波侧的单色光与紫色(450纳米)原色的混合光匹配为固定白色,同时将中性点短波侧的单色光与红色(650纳米)原色混合,也匹配为相同的白色。对于波长大于530纳米的情况,前一组匹配定义了长波敏感中央凹视锥细胞的作用光谱;对于波长小于480纳米的情况,后一组匹配定义了短波敏感视锥细胞的作用光谱。2. 前一组匹配中的个体差异与色盲检查仪原色波长敏感度的各自比率大致相关,而后一组个体差异则不然。3. 假设仅眼介质差异导致长波敏感中央凹作用光谱的差异,据此预测了这些绿色盲患者中央凹眼底的光谱反射率。该预测与测量结果不一致。4. 13名绿色盲患者将单色光谱光与绿色(535纳米)和蓝色(460纳米)原色进行匹配。结果采用冯·克里兹方法进行分析,该方法消除了因眼介质吸收差异导致的匹配差异。经如此分析,其中5名患者的匹配结果彼此存在显著差异。得出的结论是,这5名患者中每一人的中央凹视锥细胞的两种作用光谱中至少有一种与其他所有人的不同。5. 通过在贝克与拉什顿分析型色盲检查仪中,依次以5名绿色盲患者各自的模式,让一名正常人与5名绿色盲患者进行对比,对绿色盲患者接受正常颜色匹配这一准则进行了评估。该正常人与5名绿色盲患者中的4人的匹配结果存在明显差异。6. 对不同绿色盲患者中红色素光谱差异的解释进行了评估。考虑了所有患者都具有相同视觉色素,但(a)处于具有不同光学漏斗特性的视锥细胞中,或(b)处于不同光学密度下的可能性。初步结果与这两种观点的预期均不一致。7. 有人提出,不同绿色盲患者(以及不同正常人)的中央凹长波敏感视锥细胞中的视觉色素可能具有不同的消光光谱。这一观点与对不同青蛙个体视杆细胞中视紫红质的显微分光光度测量结果(鲍马克、洛和莱布曼,1975年)一致。

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2
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Psychol Res. 1982;44(2):147-63. doi: 10.1007/BF00308447.
3
The directional sensitivities of the Stiles' colour mechanisms.斯泰尔斯颜色机制的方向敏感性。
J Physiol. 1983 May;338:627-49. doi: 10.1113/jphysiol.1983.sp014693.
4
Classical tritanopia.典型蓝色盲
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5
Lack of uniformity in colour matching.颜色匹配缺乏一致性。
J Physiol. 1979 Mar;288:85-105.
6
The red and green cone visual pigments of deuternomalous trichromacy.绿色弱的红绿色视锥色素
J Physiol. 1977 Apr;266(3):647-75. doi: 10.1113/jphysiol.1977.sp011786.
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Cone pigments in human deutan colour vision defects.人类绿色色觉缺陷中的视锥色素
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本文引用的文献

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The breakdown of a colour match with high intensities of adaptation.高强度适应下颜色匹配的分解。
J Physiol. 1936 Jun 10;87(1):23-33. doi: 10.1113/jphysiol.1936.sp003385.
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