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限制互利共生关系中的欺骗者:来自互利共生丝兰蛾与欺骗性丝兰蛾杂交的证据。

Limiting cheaters in mutualism: evidence from hybridization between mutualist and cheater yucca moths.

作者信息

Segraves Kari A, Althoff David M, Pellmyr Olle

机构信息

Department of Biological Sciences, University of Idaho, Moscow, ID 83844-3051, USA.

出版信息

Proc Biol Sci. 2005 Oct 22;272(1577):2195-201. doi: 10.1098/rspb.2005.3201.

Abstract

Mutualisms are balanced antagonistic interactions where both species gain a net benefit. Because mutualisms generate resources, they can be exploited by individuals that reap the benefits of the interaction without paying any cost. The presence of such 'cheaters' may have important consequences, yet we are only beginning to understand how cheaters evolve from mutualists and how their evolution may be curtailed within mutualistic lineages. The yucca-yucca moth pollination mutualism is an excellent model in this context as there have been two origins of cheating from within the yucca moth lineage. We used nuclear and mitochondrial DNA markers to examine genetic structure in a moth population where a cheater species is parapatric with a resident pollinator. The results revealed extensive hybridization between pollinators and cheaters. Hybrids were genetically intermediate to parental populations, even though all individuals in this population had a pollinator phenotype. The results suggest that mutualisms can be stable in the face of introgression of cheater genes and that the ability of cheaters to invade a given mutualism may be more limited than previously appreciated.

摘要

互利共生是一种平衡的对抗性相互作用,其中两个物种都能获得净收益。由于互利共生会产生资源,它们可能会被那些不付出任何代价就能从这种相互作用中获益的个体利用。这种“作弊者”的存在可能会产生重要后果,但我们才刚刚开始了解作弊者是如何从互利共生者进化而来的,以及它们的进化在互利共生谱系中可能如何受到抑制。在这种情况下,丝兰 - 丝兰蛾授粉互利共生是一个很好的模型,因为在丝兰蛾谱系中有两个作弊起源。我们使用核DNA和线粒体DNA标记来研究一个蛾类种群的遗传结构,在这个种群中,一个作弊物种与一个本地传粉者分布区相邻但不重叠。结果显示传粉者和作弊者之间存在广泛的杂交。杂交种在基因上介于亲本种群之间,尽管这个种群中的所有个体都具有传粉者的表型。结果表明,面对作弊者基因的渗入,互利共生可能是稳定的,而且作弊者侵入特定互利共生关系的能力可能比之前认为的更有限。

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