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反刍亚目动物的分子与形态系统发育以及麝科的另类位置

Molecular and morphological phylogenies of ruminantia and the alternative position of the moschidae.

作者信息

Hassanin Alexandre, Douzery Emmanuel J P

机构信息

Laboratoire de Paléontologie, Paléobiologie et Phylogénie, Institut des Sciences de l'Evolution UMR 5554 CNRS, Université Montpellier II, CC064, Place E. Bataillon, 34 095 Montpellier Cedex 05, France.

出版信息

Syst Biol. 2003 Apr;52(2):206-28. doi: 10.1080/10635150390192726.

DOI:10.1080/10635150390192726
PMID:12746147
Abstract

The ruminants constitute the largest group of ungulates, with >190 species, and its distribution is widespread throughout all continents except Australia and Antarctica. Six families are traditionally recognized within the suborder Ruminantia: Antilocapridae (pronghorns), Bovidae (cattle, sheep, and antelopes), Cervidae (deer), Giraffidae (giraffes and okapis), Moschidae (musk deer), and Tragulidae (chevrotains). The interrelationships of the families have been an area of controversy among morphology, palaeontology, and molecular studies, and almost all possible evolutionary scenarios have been proposed in the literature. We analyzed a large DNA data set (5,322 nucleotides) for 23 species including both mitochondrial (cytochrome b, 12S ribosomal RNA (rRNA), and 16S rRNA) and nuclear (kappa-casein, cytochrome P-450, lactoferrin, and alpha-lactalbumin) markers. Our results show that the family Tragulidae occupies a basal position with respect to all other ruminant families, confirming the traditional view that separates Tragulina and Pecora. Within the pecorans, Antilocapridae and Giraffidae emerge first, and the families Bovidae, Moschidae, and Cervidae are allied, with the unexpected placement of Moschus close to bovids rather than to cervids. We used these molecular results to assess the homoplastic evolution of morphological characters within the Ruminantia. A Bayesian relaxed molecular clock approach based on the continuous autocorrelation of evolutionary rates along branches was applied to estimate the divergence ages between the major clades of ruminants. The evolutionary radiation of Pecora occurred at the Early/Late Oligocene transition, and Pecoran families diversified and dispersed rapidly during the Early and Middle Miocene. We propose a biogeographic scenario to explain the extraordinary expansion of this group during the Cenozoic era.

摘要

反刍动物是有蹄类动物中最大的类群,有超过190个物种,其分布广泛,除了澳大利亚和南极洲外遍布所有大陆。传统上在反刍亚目内认可六个科:叉角羚科(叉角羚)、牛科(牛、羊和羚羊)、鹿科(鹿)、长颈鹿科(长颈鹿和霍加狓)、麝科(麝)和鼷鹿科(鼷鹿)。这些科之间的相互关系一直是形态学、古生物学和分子研究中的一个争议领域,文献中几乎提出了所有可能的进化情景。我们分析了一个包含23个物种的大型DNA数据集(5322个核苷酸),包括线粒体(细胞色素b、12S核糖体RNA(rRNA)和16S rRNA)和核(κ-酪蛋白、细胞色素P-450、乳铁蛋白和α-乳白蛋白)标记。我们的结果表明,鼷鹿科相对于所有其他反刍动物科占据基部位置,证实了将鼷鹿类和牛型亚目分开的传统观点。在牛型亚目中,叉角羚科和长颈鹿科最先出现,牛科、麝科和鹿科是联合的,麝属意外地靠近牛科而不是鹿科。我们利用这些分子结果评估反刍动物形态特征的趋同进化。应用基于沿分支进化速率的连续自相关的贝叶斯松弛分子钟方法来估计反刍动物主要类群之间的分歧时间。牛型亚目的进化辐射发生在渐新世早期/晚期过渡时期,牛型亚目各科在中新世早期和中期迅速分化和扩散。我们提出一个生物地理情景来解释该类群在新生代的非凡扩张。

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