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节肢动物血蓝蛋白和昆虫储存蛋白(六聚蛋白)的进化

Evolution of arthropod hemocyanins and insect storage proteins (hexamerins).

作者信息

Beintema J J, Stam W T, Hazes B, Smidt M P

机构信息

Department of Biochemistry, University of Groningen, The Netherlands.

出版信息

Mol Biol Evol. 1994 May;11(3):493-503. doi: 10.1093/oxfordjournals.molbev.a040129.

DOI:10.1093/oxfordjournals.molbev.a040129
PMID:8015442
Abstract

Crustacean and cheliceratan hemocyanins (oxygen-transport proteins) and insect hexamerins (storage proteins) are homologous gene products, although the latter do not bind oxygen and do not possess the copper-binding histidines present in the hemocyanins. An alignment of 19 amino acid sequences of hemocyanin subunits and insect hexamerins was made, based on the conservation of elements of secondary structure observed in X-ray structures of two hemocyanin subunits. The alignment was analyzed using parsimony and neighbor-joining methods. Results provide strong indications for grouping together the sequences of the 2 crustacean hemocyanin subunits, the 5 cheliceratan hemocyanin subunits, and the 12 insect hexamerins. Within the insect clade, four methionine-rich proteins, four arylphorins, and two juvenile hormone-suppressible proteins from Lepidoptera, as well as two dipteran proteins, form four separate groups. In the absence of an outgroup sequence, it is not possible to present information about the ancestral state from which these proteins are derived. Although this family of proteins clearly consists of homologous gene products, there remain striking differences in gene organization and site of biosynthesis of the proteins within the cell. Because studies on 18S and 12S rRNA sequences indicate a rather close relationship between insects and crustaceans, we propose that hemocyanin is the ancestral arthropod protein and that insect hexamerins lost their copper-binding capability after divergence of the insects from the crustaceans.

摘要

甲壳类动物和螯肢动物的血蓝蛋白(氧运输蛋白)以及昆虫的六聚体蛋白(储存蛋白)是同源基因产物,尽管后者不结合氧气,也不具有血蓝蛋白中存在的与铜结合的组氨酸。基于在两个血蓝蛋白亚基的X射线结构中观察到的二级结构元件的保守性,对血蓝蛋白亚基和昆虫六聚体蛋白的19个氨基酸序列进行了比对。使用简约法和邻接法对该比对进行了分析。结果有力地表明,2个甲壳类动物血蓝蛋白亚基、5个螯肢动物血蓝蛋白亚基和12个昆虫六聚体蛋白的序列可以归为一组。在昆虫类群中,来自鳞翅目的4种富含甲硫氨酸的蛋白、4种芳基蛋白和2种可被保幼激素抑制的蛋白,以及2种双翅目蛋白,形成了4个独立的组。由于缺乏外类群序列,无法提供有关这些蛋白质起源的祖先状态的信息。尽管这一蛋白质家族显然由同源基因产物组成,但在基因组织和细胞内蛋白质的生物合成位点方面仍存在显著差异。因为对18S和12S rRNA序列的研究表明昆虫和甲壳类动物之间关系相当密切,我们提出血蓝蛋白是节肢动物的祖先蛋白,并且昆虫六聚体蛋白在昆虫与甲壳类动物分化后失去了它们的铜结合能力。

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