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两个独立的 C4 起源于 Aristidoideae(禾本科),这是通过招募不同的磷酸烯醇丙酮酸羧化酶基因揭示的。

Two independent C4 origins in Aristidoideae (Poaceae) revealed by the recruitment of distinct phosphoenolpyruvate carboxylase genes.

机构信息

Department of Ecology and Evolution, University of Lausanne, 1015 Lausanne, Switzerland.

出版信息

Am J Bot. 2009 Dec;96(12):2234-9. doi: 10.3732/ajb.0900111. Epub 2009 Nov 20.

DOI:10.3732/ajb.0900111
PMID:21622339
Abstract

Determining the number of evolutions of an adaptive novelty is primordial to understand its evolutionary significance. C(4) photosynthesis, an adaptation to low CO(2) atmospheric concentration and high temperature, evolved multiple times, but the number of convergent evolutions is still debated. In Poaceae phylogeny, numerous C(4) groups are separated by C(3) taxa, but whether these correspond to independent C(4) origins or a few C(4) evolutions followed by reversals is controversial. The Aristidoideae subfamily is formed by two C(4) genera, Aristida and Stipagrostis, separated by the C(3) genus Sartidia. In the current study, we investigated the evolutionary history of genes encoding phosphoenolpyruvate carboxylases (PEPC) to shed light on the photosynthetic transitions that occurred in Aristidoideae. We identified six distinct PEPC gene lineages that appeared through several rounds of gene duplications before or early during grass diversification. The gene lineage encoding the C(4) PEPC of Stipagrostis differs from those of the other C(4) grasses, including Aristida. These distinct origins of C(4) PEPC genes from these two Aristidoideae genera unequivocally indicate that they integrated the C(4) pathway independently. This highlights the importance of candidate-gene studies when inferring the evolutionary history of a character such as C(4) photosynthesis, one of the greatest evolutionary successes in plant history.

摘要

确定适应性新颖性的进化次数对于理解其进化意义至关重要。C(4)光合作用是一种适应低 CO(2)大气浓度和高温的适应性,但多次进化,而趋同进化的次数仍存在争议。在禾本科植物的系统发育中,许多 C(4)类群被 C(3)类群分开,但这些是否对应于独立的 C(4)起源还是少数 C(4)进化后再逆转仍存在争议。Aristidoideae 亚科由两个 C(4)属,Aristida 和 Stipagrostis,以及一个 C(3)属 Sartidia 组成。在当前的研究中,我们研究了编码磷酸烯醇丙酮酸羧化酶 (PEPC)的基因的进化历史,以阐明 Aristidoideae 中发生的光合作用转变。我们确定了六个不同的 PEPC 基因谱系,这些谱系在草类多样化之前或早期通过几轮基因复制出现。编码 Stipagrostis C(4)PEPC 的基因谱系与其他 C(4)草类,包括 Aristida,不同。这两个 Aristidoideae 属的 C(4)PEPC 基因的不同起源明确表明它们独立整合了 C(4)途径。这突出了候选基因研究在推断 C(4)光合作用等特征的进化历史时的重要性,这是植物历史上最伟大的进化成功之一。

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