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沿海波罗的海和北海沙鲷种群中视蛋白基因的选择模式差异。

Differential modes of selection on the rhodopsin gene in coastal Baltic and North Sea populations of the sand goby, Pomatoschistus minutus.

机构信息

Laboratory of Animal Diversity and Systematics, Katholieke Universiteit Leuven, Leuven, Belgium.

出版信息

Mol Ecol. 2010 Jun;19(11):2256-68. doi: 10.1111/j.1365-294X.2010.04643.x. Epub 2010 Apr 23.

DOI:10.1111/j.1365-294X.2010.04643.x
PMID:20444083
Abstract

An excellent model to elucidate the mechanisms and importance of evolution in the marine environment is the spectral tuning mechanism of the visual pigment in vertebrates. In the sand goby Pomatoschistus minutus (Teleostei; Gobiidae), a distribution-wide study showed that spatial variation at the rhodopsin gene (RH1) matches the characteristics of specific light environments. This match suggests that populations are locally adapted to selective light regimes targeting the RH1 gene. If so, then the direction of selection should depend on the regional spatial and temporal stability of the light conditions. We tested this prediction by comparing goby populations from two regions: the Baltic Sea, characterized by divergent, but temporally stable light conditions, and the North Sea, characterized by locally heterogeneous and temporally variable light conditions. RH1 sequences of 491 Pomatoschistus minutus individuals from 15 locations were analysed. We found that variation at the RH1 gene in the Baltic populations showed signatures of diversifying selection, whereas the RH1 gene in the North Sea showed signatures of stabilizing selection. These different modes of selection are consistent with the regional light conditions and hence support our predictions, but may also be influenced by migration between the open sea and more turbid estuarine environments. An interesting observation is that within one gene, synonymous and non-synonymous SNPs show a totally different pattern between populations. Population differentiation based on non-synonymous SNPs of the RH1 gene correlated with spectral variation of the local environment of the sand goby populations. In contrast, the differentiation based on synonymous SNPs of RH1 reflects more the neutral historical pattern of the species.

摘要

阐明海洋环境中进化机制和重要性的一个极好模型是脊椎动物视觉色素的光谱调谐机制。在沙鲷(Pomatoschistus minutus)(硬骨鱼;虾虎鱼科)中,一项广泛的分布区研究表明,视蛋白基因(RH1)的空间变异与特定光照环境的特征相匹配。这种匹配表明,种群在局部适应针对 RH1 基因的选择光照条件。如果是这样,那么选择的方向应该取决于光照条件的区域时空稳定性。我们通过比较来自两个区域的鲷鱼种群来检验这一预测:波罗的海,其特征是光条件不同但具有时间稳定性;北海,其特征是光条件具有局部异质性和时间可变性。分析了来自 15 个地点的 491 个沙鲷个体的 RH1 序列。我们发现,波罗的海种群中 RH1 基因的变异显示出多样化选择的特征,而北海的 RH1 基因则显示出稳定选择的特征。这些不同的选择模式与区域光照条件一致,因此支持我们的预测,但也可能受到来自开阔海域和更浑浊河口环境的迁移的影响。一个有趣的观察是,在一个基因内,同义和非同义 SNPs 之间的表现完全不同。基于 RH1 基因非同义 SNPs 的种群分化与沙鲷种群局部环境的光谱变化相关。相比之下,基于 RH1 的同义 SNPs 的分化则更多地反映了该物种的中性历史模式。

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