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功能性视蛋白基因、短波视锥细胞光色素及色觉的丧失——哺乳动物视觉进化中的一个显著趋势。

Losses of functional opsin genes, short-wavelength cone photopigments, and color vision--a significant trend in the evolution of mammalian vision.

作者信息

Jacobs Gerald H

机构信息

Department of Psychological and Brain Sciences, University of California, Santa Barbara, California 93106, USA.

出版信息

Vis Neurosci. 2013 Mar;30(1-2):39-53. doi: 10.1017/S0952523812000429. Epub 2013 Jan 3.

DOI:10.1017/S0952523812000429
PMID:23286388
Abstract

All mammalian cone photopigments are derived from the operation of representatives from two opsin gene families (SWS1 and LWS in marsupial and eutherian mammals; SWS2 and LWS in monotremes), a process that produces cone pigments with respective peak sensitivities in the short and middle-to-long wavelengths. With the exception of a number of primate taxa, the modal pattern for mammals is to have two types of cone photopigment, one drawn from each of the gene families. In recent years, it has been discovered that the SWS1 opsin genes of a widely divergent collection of eutherian mammals have accumulated mutational changes that render them nonfunctional. This alteration reduces the retinal complements of these species to a single cone type, thus rendering ordinary color vision impossible. At present, several dozen species from five mammalian orders have been identified as falling into this category, but the total number of mammalian species that have lost short-wavelength cones in this way is certain to be much larger, perhaps reaching as high as 10% of all species. A number of circumstances that might be used to explain this widespread cone loss can be identified. Among these, the single consistent fact is that the species so affected are nocturnal or, if they are not technically nocturnal, they at least feature retinal organizations that are typically associated with that lifestyle. At the same time, however, there are many nocturnal mammals that retain functional short-wavelength cones. Nocturnality thus appears to set the stage for loss of functional SWS1 opsin genes in mammals, but it cannot be the sole circumstance.

摘要

所有哺乳动物的视锥光色素都源自两个视蛋白基因家族(有袋类和真兽类哺乳动物中的SWS1和LWS;单孔类动物中的SWS2和LWS)的代表基因的作用,这一过程产生了在短波长和中长波长具有各自峰值敏感度的视锥色素。除了一些灵长类分类群外,哺乳动物的典型模式是拥有两种视锥光色素,每种基因家族各有一种。近年来,人们发现,种类广泛的真兽类哺乳动物的SWS1视蛋白基因积累了突变,使其失去功能。这种改变将这些物种的视网膜光感受器类型减少到一种,从而使普通的色觉成为不可能。目前,已经确定有五个哺乳纲的几十个物种属于这一类别,但以这种方式失去短波长视锥细胞的哺乳动物物种总数肯定要大得多,可能高达所有物种的10%。可以确定一些可能用来解释这种广泛的视锥细胞丧失的情况。其中,唯一一致的事实是,受影响的物种是夜行性的,或者,如果它们严格来说不是夜行性的,它们至少具有通常与那种生活方式相关的视网膜组织。然而,与此同时,有许多夜行性哺乳动物保留了功能性的短波长视锥细胞。因此,夜行性似乎为哺乳动物功能性SWS1视蛋白基因的丧失创造了条件,但它不可能是唯一的情况。

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