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青藏高原特有植物羽叶风毛菊属(菊科)的分子系统发育与生物地理学

Molecular phylogeny and biogeography of the Qinghai-Tibet Plateau endemic Nannoglottis (Asteraceae).

作者信息

Liu Jian-Quan, Gao Tian-Gang, Chen Zhi-Duan, Lu An-Ming

机构信息

Northwest Plateau Institute of Biology, Chinese Academy of Sciences, Xining 81001, Qinghai, China.

出版信息

Mol Phylogenet Evol. 2002 Jun;23(3):307-25. doi: 10.1016/s1055-7903(02)00039-8.

DOI:10.1016/s1055-7903(02)00039-8
PMID:12099790
Abstract

All taxa endemic to the Qinghai-Tibet Plateau are hypothesized to have originated in situ or from immediately adjacent areas because of the relatively recent formation of the plateau since the Pliocene, followed by the large-scaled biota extinction and recession caused by the Quaternary ice sheet. However, identification of specific progenitors remains difficult for some endemics, especially some endemic genera. Nannoglottis, with about eight species endemic to this region, is one such genus. Past taxonomic treatments have suggested its relationships with four different tribes of Asteraceae. We intend to identify the closest relatives of Nannoglottis by evaluating the level of monophyly, tribal delimitation, and systematic position of the genus by using molecular data from ndhF gene, trnL-F, and ITS region sequences. We find that all sampled species of Nannoglottis are a well-defined monophyly. This supports all recent taxonomic treatments of Nannoglottis, in which all sampled species were placed in one broadly re-circumscribed genus. Nannoglottis is most closely related to the Astereae, but stands as an isolated genus as the first diverging lineage of the tribe, without close relatives. A tentative relationship was suggested for Nannoglottis and the next lineage of the tribe was based on the ITS topology, the "basal group," which consists of seven genera from the Southern Hemisphere. Such a relationship is supported by some commonly shared plesiomorphic morphological characters. Despite the very early divergence of Nannoglottis in the Astereae, the tribe must be regarded to have its origin in Southern Hemisphere rather than in Asia, because based on all morphological, molecular, biogeographical, and fossil data, the Asteraceae and its major lineages (tribes) are supposed to have originated in the former area. Long-distance dispersal using Southeast Asia as a steppingstone from Southern Hemisphere to the Qinghai-Tibet Plateau is the most likely explanation for this unusual biogeographic link of Nannoglottis. The 23-32-million-year divergence time between Nannoglottis and the other Astereae estimated by DNA sequences predated the formation of the plateau. This estimation is further favored by the fossil record of the Asteraceae and the possible time of origin of the Astereae. Nannoglottis seems to have reached the Qinghai-Tibet area in the Oligocene-Eocene and then re-diversified with the uplift of the plateau. The molecular infragenetic phylogeny of the genus identifies two distinct clades, which reject the earlier infrageneric classification based on the arrangement of the involucral bracts and the length of the ligules, but agree well with the habits and ecological preferences of its current species. The "alpine shrub" vs. "coniferous forest" divergence within Nannoglottis was estimated at about 3.4 million years ago when the plateau began its first large-scale uplifting and the coniferous vegetation began to appear. Most of the current species at the "coniferous forest" clade of the genus are estimated to have originated from 1.02 to 1.94 million years ago, when the second and third uprisings of the plateau occurred, the climate oscillated and the habitats were strongly changed. The assumed evolution, speciation diversity, and radiation of Nannoglottis based on molecular phylogeny and divergence times agree well with the known geological and paleobotanical histories of the Qinghai-Tibet Plateau.

摘要

由于青藏高原自上新世以来形成时间相对较近,随后又经历了第四纪冰盖导致的大规模生物群灭绝和衰退,因此推测所有青藏高原特有类群均原地起源或起源于紧邻地区。然而,对于一些特有类群,尤其是一些特有属,确定其具体祖先仍很困难。匙叶菊属(Nannoglottis)就是这样一个属,该地区约有8个特有物种。过去的分类处理表明它与菊科四个不同的族存在亲缘关系。我们打算通过利用ndhF基因、trnL-F和ITS区域序列的分子数据,评估匙叶菊属的单系性水平、族的划分以及系统位置,从而确定其最亲近的亲属。我们发现匙叶菊属所有采样物种构成一个定义明确的单系类群。这支持了匙叶菊属最近的所有分类处理,即在这些处理中,所有采样物种都被置于一个广义重新界定的属中。匙叶菊属与紫菀族(Astereae)关系最为密切,但作为该族第一个分化的谱系,它是一个孤立的属,没有近亲。基于ITS拓扑结构,匙叶菊属与该族的下一个谱系存在一种初步的亲缘关系,即由南半球七个属组成的“基部类群”。这种关系得到了一些共同具有的原始形态特征的支持。尽管匙叶菊属在紫菀族中分化很早,但该族的起源应被认为是在南半球而非亚洲,因为基于所有形态、分子、生物地理和化石数据,菊科及其主要谱系(族)应该起源于前一地区。以东南亚为跳板,从南半球远距离扩散到青藏高原是匙叶菊属这种不寻常生物地理联系最可能的解释。根据DNA序列估计,匙叶菊属与其他紫菀族之间的分歧时间为2300万至3200万年,早于高原的形成。菊科的化石记录以及紫菀族可能的起源时间进一步支持了这一估计。匙叶菊属似乎在渐新世 - 始新世时期到达青藏高原地区,然后随着高原的隆升再次分化。该属的分子种下系统发育确定了两个不同的分支,这否定了基于总苞苞片排列和舌片长度的早期种下分类,但与当前物种的习性和生态偏好非常吻合。匙叶菊属内“高山灌木”与“针叶林”的分化估计发生在约340万年前,当时高原开始首次大规模隆升,针叶植被开始出现。该属“针叶林”分支中的大多数当前物种估计起源于102万至194万年前,即高原第二和第三次隆升时期,气候振荡,栖息地发生强烈变化。基于分子系统发育和分歧时间推测的匙叶菊属的演化、物种形成多样性和辐射与青藏高原已知的地质和古植物历史非常吻合。

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