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C(4) 类被子植物不比 C(4) 单子叶植物年轻。

C(4) eudicots are not younger than C(4) monocots.

机构信息

Department of Ecology and Evolutionary Biology, Brown University, 80 Waterman St, Box G-W, Providence, RI 02912, USA.

出版信息

J Exp Bot. 2011 May;62(9):3171-81. doi: 10.1093/jxb/err041. Epub 2011 Mar 10.

DOI:10.1093/jxb/err041
PMID:21393383
Abstract

C(4) photosynthesis is a plant adaptation to high levels of photorespiration. Physiological models predict that atmospheric CO(2) concentration selected for C(4) grasses only after it dropped below a critical threshold during the Oligocene (∼30 Ma), a hypothesis supported by phylogenetic and molecular dating analyses. However the same models predict that CO(2) should have reached much lower levels before selecting for C(4) eudicots, making C(4) eudicots younger than C(4) grasses. In this study, different phylogenetic datasets were combined in order to conduct the first comparative analysis of the age of C(4) origins in eudicots. Our results suggested that all lineages of C(4) eudicots arose during the last 30 million years, with the earliest before 22 Ma in Chenopodiaceae and Aizoaceae, and the latest probably after 2 Ma in Flaveria. C(4) eudicots are thus not globally younger than C(4) monocots. All lineages of C(4) plants evolved in a similar low CO(2) atmosphere that predominated during the last 30 million years. Independent C(4) origins were probably driven by different combinations of specific factors, including local ecological characteristics such as habitat openness, aridity, and salinity, as well as the speciation and dispersal history of each clade. Neither the lower number of C(4) species nor the frequency of C(3)-C(4) intermediates in eudicots can be attributed to a more recent origin, but probably result from variation in diversification and evolutionary rates among the different groups that evolved the C(4) pathway.

摘要

C(4)光合作用是植物对高光呼吸水平的一种适应。生理模型预测,大气 CO(2)浓度在渐新世(约 3000 万年前)下降到一个关键阈值以下后,才选择了 C(4)草本植物,这一假说得到了系统发育和分子定年分析的支持。然而,同样的模型预测,在选择 C(4)真双子叶植物之前,CO(2)应该已经达到了更低的水平,这使得 C(4)真双子叶植物比 C(4)草本植物更年轻。在这项研究中,不同的系统发育数据集被组合在一起,以便首次对真双子叶植物 C(4)起源的年龄进行比较分析。我们的结果表明,所有 C(4)真双子叶植物的谱系都出现在过去的 3000 万年中,最早的起源于 2200 万年前的藜科和番杏科,最晚的可能在 200 万年前的假紫罗兰科。因此,C(4)真双子叶植物并不普遍比 C(4)单子叶植物年轻。所有 C(4)植物的谱系都在过去 3000 万年中占主导地位的类似低 CO(2)大气中进化而来。独立的 C(4)起源可能是由不同的特定因素组合驱动的,包括栖息地开放性、干旱和盐度等局部生态特征,以及每个分支的物种形成和扩散历史。真双子叶植物中 C(4)物种数量较少和 C(3)-C(4)中间型的频率较低,既不能归因于较晚的起源,也不能归因于不同进化出 C(4)途径的群体之间的多样化和进化速率的变化。

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