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源自线粒体细胞色素氧化酶II基因序列变异的原齿甲属(鞘翅目;金龟科;鳃金龟亚科)的系统发育关系。

Phylogenetic relationships of the Prodontria (Coleoptera; Scarabaeidae; subfamily Melolonthinae), derived from sequence variation in the mitochondrial cytochrome oxidase II gene.

作者信息

Emerson B C, Wallis G P

机构信息

Department of Zoology, University of Otago, Dunedin, New Zealand.

出版信息

Mol Phylogenet Evol. 1995 Dec;4(4):433-47. doi: 10.1006/mpev.1995.1040.

DOI:10.1006/mpev.1995.1040
PMID:8747299
Abstract

The beetle genus Prodontria is of importance to New Zealand conservation programs. All Prodontria species are brachypterous (having reduced wings), and the genus presents some interesting evolutionary and biogeographic questions that are testable using phylogenetic reconstruction. A phylogeny was produced for 14 flightless Prodontria species, 2 macropterous (fully winged) Odontria species, and single representatives of 2 outgroup genera using sequence data from the mitochondrial COII gene. The data support probable conspecificity of the morphologically similar P. modesta and P. bicolorata but do not support their hypothesized sister-species relationship with the geographically proximate P. lewisi. The alpine P. capito is found to be a paraphyletic group, with the most eastern population diverging after the western populations made their appearance. Many interesting biogeographic disjunctions are here proposed to be anomalous and the result of morphological convergence. The data do not support the idea of a common flightless ancester for Prodontria, but suggest that brachyptery has evolved numerous times. In some instances, this appears to have led to contemporaneous speciation resulting in little resolution of phylogenetic relationships in some parts of the tree. These data allow for a new interpretation of the origin and diversification of the southern New Zealand flightless melolonthine fauna. Multiple speciation events involving wing reduction are suggested to involve at least one widespread flighted ancestor that has given rise to brachypterous forms.

摘要

普罗东特里亚甲虫属对新西兰的保护计划具有重要意义。所有普罗东特里亚物种均为短翅型(翅膀退化),该属提出了一些有趣的进化和生物地理问题,可通过系统发育重建进行检验。利用线粒体COII基因的序列数据,为14种无飞行能力的普罗东特里亚物种、2种长翅型(翅膀完全发育)的奥东特里亚物种以及2个外类群属的单一代表构建了系统发育树。数据支持形态相似的谦逊普罗东特里亚和双色普罗东特里亚可能为同种,但不支持它们与地理上相邻的刘易斯普罗东特里亚的假定姐妹物种关系。发现高山的卡皮托普罗东特里亚是一个并系群,最东部的种群在西部种群出现后才分化出来。这里提出许多有趣的生物地理间断是异常的,是形态趋同的结果。数据不支持普罗东特里亚有一个共同的无飞行能力祖先的观点,但表明短翅现象已经多次进化。在某些情况下,这似乎导致了同期物种形成,从而使系统发育树某些部分的系统发育关系几乎无法分辨。这些数据为新西兰南部无飞行能力的鳃角金龟科动物群的起源和多样化提供了新的解释。涉及翅膀退化的多次物种形成事件表明,至少有一个广泛分布的有飞行能力的祖先产生了短翅型。

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