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用于眼镜镜片补偿的视锥信号:对短波长和长波长的差异反应。

Cone signals for spectacle-lens compensation: differential responses to short and long wavelengths.

作者信息

Rucker Frances J, Wallman Josh

机构信息

Department of Biology, City College of New York, 138th Street and Convent Avenue, New York, NY 10031, USA.

出版信息

Vision Res. 2008 Sep;48(19):1980-91. doi: 10.1016/j.visres.2008.06.003. Epub 2008 Jul 27.

DOI:10.1016/j.visres.2008.06.003
PMID:18585403
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC2790044/
Abstract

Chick eyes compensate for defocus imposed by spectacle lenses by making compensatory changes in eye length and choroidal thickness, a laboratory model of emmetropization. To investigate the roles of longitudinal chromatic aberration and of chromatic mechanisms in emmetropization, we examined the participation of different cone classes, and we compared the efficacy of lens compensation under monochromatic illumination with that under white light of the same illuminance to the chick eye. Chicks wore positive or negative 6D or 8D lenses on one eye for 3 days, under either blue (460 nm) or red (620 nm) light at 0.67 lux or under white light at 0.67 or 0.2 lux (all measures are corrected for chick photopic sensitivity). The illumination conditions were chosen to differentially stimulate either the short-wavelength and ultraviolet cones or the long-wavelength and double cones. Measurements are expressed as the relative change: the inter-ocular difference in the amount of change over the 3 days of lens wear. We find that under this low illumination the two components of lens compensation were differentially affected by the monochromatic illumination: in blue light lens compensation was mainly due to changes in eye length, whereas in red light lens compensation was mainly due to changes in choroidal thickness. In general, white light produced better lens compensation than monochromatic illumination. NEGATIVE LENSES: Under white light negative lenses caused an increase in eye length (60 microm) together with a decrease in choroidal thickness (-51 microm) relative to the fellow eye. Under blue light, although there was an increase in eye length (32 microm), there was no change in choroidal thickness (5 microm). In contrast, under red light there was a decrease in choroidal thickness (-62 microm) but no increase in eye length (8 microm). Relative ocular elongation was the same in white and monochromatic light. POSITIVE LENSES: Under white light positive lenses caused a decrease in eye length (-142 microm) together with an increase in choroidal thickness (68 microm) relative to the fellow eye. Under blue light, there was a decrease in eye length (-64 microm), but no change in choroidal thickness (2 microm). In contrast, under red light there was an increase (90 microm) in choroidal thickness but less of a decrease (-36 microm) in eye length. Lens compensation by inhibition of ocular elongation was less effective under monochromatic illumination than under white light (white v red: p=0.003; white v blue p=.014). The differential effects of red and blue light on the choroidal and ocular length compensatory responses suggest that they are driven by different proportions of the cone-types, implying that, although chromatic contrast is not essential for lens compensation and presumably for emmetropization as well, the retinal substrates exist for utilizing chromatic contrast in these compensatory responses. The generally better lens compensation in white than monochromatic illumination suggests that longitudinal chromatic aberration may be used in lens compensation.

摘要

雏鸡眼睛通过改变眼轴长度和脉络膜厚度来补偿由眼镜镜片引起的离焦,这是正视化的一种实验室模型。为了研究纵向色差和色觉机制在正视化过程中的作用,我们检测了不同视锥细胞类型的参与情况,并比较了单色光照明下与相同照度白光照明下雏鸡眼睛的镜片补偿效果。雏鸡单眼佩戴±6D或±8D镜片3天,分别处于0.67勒克斯的蓝光(460纳米)或红光(620纳米)下,或0.67勒克斯或0.2勒克斯的白光下(所有测量值均根据雏鸡明视觉敏感度进行了校正)。选择这些照明条件是为了分别刺激短波和紫外视锥细胞或长波和双视锥细胞。测量结果以相对变化表示:佩戴镜片3天期间两眼变化量的眼间差异。我们发现,在这种低照度下,单色光照明对镜片补偿的两个组成部分有不同影响:蓝光下镜片补偿主要是由于眼轴长度的变化,而红光下镜片补偿主要是由于脉络膜厚度的变化。一般来说,白光比单色光能产生更好的镜片补偿效果。

负镜片

白光下,负镜片使眼轴长度增加(60微米),同时脉络膜厚度相对于对侧眼减少(-51微米)。蓝光下,虽然眼轴长度增加了(32微米),但脉络膜厚度没有变化(5微米)。相比之下,红光下脉络膜厚度减少(-62微米),但眼轴长度没有增加(8微米)。白光和单色光下的相对眼轴伸长情况相同。

正镜片

白光下,正镜片使眼轴长度减少(-142微米),同时脉络膜厚度相对于对侧眼增加(68微米)。蓝光下,眼轴长度减少(-64微米),但脉络膜厚度没有变化(2微米)。相比之下,红光下脉络膜厚度增加(90微米),但眼轴长度减少幅度较小(-36微米)。单色光照明下通过抑制眼轴伸长进行的镜片补偿比白光下效果差(白光与红光比较:p = 0.003;白光与蓝光比较:p = 0.014)。红光和蓝光对脉络膜和眼轴长度补偿反应的不同影响表明,它们是由不同比例的视锥细胞类型驱动的,这意味着,虽然色差对比度对于镜片补偿以及可能对于正视化过程并非必不可少,但视网膜底物可用于在这些补偿反应中利用色差对比度。白光下镜片补偿总体上比单色光更好,这表明纵向色差可能用于镜片补偿。

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