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资源和竞争动态塑造了植物病原体中公共物品合作的效益。

Resource and competitive dynamics shape the benefits of public goods cooperation in a plant pathogen.

机构信息

1001 East 3rd Street, Department of Biology, Indiana University, Bloomington, IN 47405, USA.

出版信息

Evolution. 2012 Jun;66(6):1953-65. doi: 10.1111/j.1558-5646.2011.01571.x. Epub 2012 Feb 14.

DOI:10.1111/j.1558-5646.2011.01571.x
PMID:22671559
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC3707318/
Abstract

Cooperative benefits depend on a variety of ecological factors. Many cooperative bacteria increase the population size of their groups by making a public good available. Increased local population size can alleviate the constraints of kin competition on the evolution of cooperation by enhancing the between-group fitness of cooperators. The cooperative pathogenesis of Agrobacterium tumefaciens causes infected plants to exude opines--resources that provide a nearly exclusive source of nutrient for the pathogen. We experimentally demonstrate that opines provide cooperative A. tumefaciens cells a within-group fitness advantage over saprophytic agrobacteria. Our results are congruent with a resource-consumer competition model, which predicts that cooperative, virulent agrobacteria are at a competitive disadvantage when opines are unavailable, but have an advantage when opines are available at sufficient levels. This model also predicts that freeloading agrobacteria that catabolize opines but cannot infect plants competitively displace the cooperative pathogen from all environments. However, we show that these cooperative public goods also promote increased local population size. A model built from the Price Equation shows that this effect on group size can contribute to the persistence of cooperative pathogenesis despite inherent kin competition for the benefits of pathogenesis.

摘要

合作效益取决于多种生态因素。许多合作细菌通过提供公共利益来增加其群体的种群规模。局部种群规模的增加可以通过增强合作者之间的群体适应性来减轻亲缘竞争对合作进化的限制。根瘤农杆菌的合作发病机制导致受感染的植物分泌出分解植物营养物质的物质——营养物质(opines),这些营养物质几乎是病原体的唯一营养来源。我们通过实验证明,营养物质(opines)为合作型根瘤农杆菌细胞提供了一种在群体内的适应性优势,使其相对于腐生型根瘤农杆菌具有竞争优势。我们的结果与资源消费者竞争模型一致,该模型预测,当营养物质(opines)不可用时,合作型、毒性根瘤农杆菌处于竞争劣势,但当营养物质(opines)以足够的水平存在时,它们具有优势。该模型还预测,能够代谢利用营养物质(opines)但不能竞争性感染植物的搭便车腐生型根瘤农杆菌会将合作性病原体从所有环境中排挤出去。然而,我们发现这些合作性公共物品也促进了局部种群规模的增加。从普莱斯方程建立的模型表明,这种对群体规模的影响有助于合作发病机制的持续存在,尽管在发病机制的利益方面存在亲缘竞争。