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恐龙β-角蛋白的分子进化和表达:恐龙β-角蛋白的多样化和扩张以及羽毛β-角蛋白的起源。

Molecular evolution and expression of archosaurian β-keratins: diversification and expansion of archosaurian β-keratins and the origin of feather β-keratins.

机构信息

Department of Biological Sciences, University of South Carolina, Columbia, SC 29205, USA.

出版信息

J Exp Zool B Mol Dev Evol. 2013 Sep;320(6):393-405. doi: 10.1002/jez.b.22514. Epub 2013 Jun 6.

DOI:10.1002/jez.b.22514
PMID:23744807
Abstract

The archosauria consist of two living groups, crocodilians, and birds. Here we compare the structure, expression, and phylogeny of the beta (β)-keratins in two crocodilian genomes and two avian genomes to gain a better understanding of the evolutionary origin of the feather β-keratins. Unlike squamates such as the green anole with 40 β-keratins in its genome, the chicken and zebra finch genomes have over 100 β-keratin genes in their genomes, while the American alligator has 20 β-keratin genes, and the saltwater crocodile has 21 β-keratin genes. The crocodilian β-keratins are similar to those of birds and these structural proteins have a central filament domain and N- and C-termini, which contribute to the matrix material between the twisted β-sheets, which form the 2-3 nm filament. Overall the expression of alligator β-keratin genes in the integument increases during development. Phylogenetic analysis demonstrates that a crocodilian β-keratin clade forms a monophyletic group with the avian scale and feather β-keratins, suggesting that avian scale and feather β-keratins along with a subset of crocodilian β-keratins evolved from a common ancestral gene/s. Overall, our analyses support the view that the epidermal appendages of basal archosaurs used a diverse array of β-keratins, which evolved into crocodilian and avian specific clades. In birds, the scale and feather subfamilies appear to have evolved independently in the avian lineage from a subset of archosaurian claw β-keratins. The expansion of the avian specific feather β-keratin genes accompanied the diversification of birds and the evolution of feathers.

摘要

恐龙类由两个现生种群组成,鳄鱼和鸟类。在这里,我们比较了两种鳄鱼类和两种鸟类基因组中β-角蛋白的结构、表达和系统发育,以更好地了解羽毛β-角蛋白的进化起源。与具有 40 种β-角蛋白的蜥蜴目(例如绿鬣蜥)不同,鸡和斑胸草雀的基因组中有超过 100 种β-角蛋白基因,而美洲鳄有 20 种β-角蛋白基因,湾鳄有 21 种β-角蛋白基因。鳄鱼类的β-角蛋白与鸟类的β-角蛋白相似,这些结构蛋白具有中心丝束结构域和 N-和 C-末端,有助于形成扭曲β-片层之间的基质材料,这些β-片层形成 2-3nm 的丝束。总体而言,鳄鱼类β-角蛋白基因在表皮发育过程中的表达增加。系统发育分析表明,鳄鱼类β-角蛋白分支与鸟类鳞片和羽毛β-角蛋白形成单系群,这表明鸟类鳞片和羽毛β-角蛋白以及一部分鳄鱼类β-角蛋白是从一个共同的祖先基因/基因簇进化而来的。总的来说,我们的分析支持了这样一种观点,即基础恐龙类的表皮附属物使用了多种多样的β-角蛋白,这些角蛋白进化成了鳄鱼类和鸟类特有的分支。在鸟类中,鳞片和羽毛亚科似乎是从恐龙类的爪β-角蛋白亚科中独立进化而来的。鸟类特有的羽毛β-角蛋白基因的扩张伴随着鸟类的多样化和羽毛的进化。

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