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共生防御代谢产物的产生反映了宿主植物和互利共生的树皮甲虫-真菌复合体之间的共同进化军备竞赛。

Production of complementary defense metabolites reflects a co-evolutionary arms race between a host plant and a mutualistic bark beetle-fungal complex.

机构信息

Department of Renewable Resources, University of Alberta, Edmonton, Alberta, Canada.

出版信息

Plant Cell Environ. 2021 Sep;44(9):3064-3077. doi: 10.1111/pce.14100. Epub 2021 Jun 6.

DOI:10.1111/pce.14100
PMID:34008191
Abstract

Intra-specific variation in conifers has been extensively studied with respect to defense against herbivores and pathogens. While studies have shown the ability of individual or specific mixtures of compounds to influence insects and microbes, research testing biologically relevant mixtures of defense compounds reflecting intra-specific variation amongst tree populations to enemy complexes is needed. We characterized the variations in lodgepole pine monoterpenes from a progeny trial in western Canada and grouped trees in four clusters using their monoterpene profiles. We then selected 11 representative families across four clusters and amended their entire monoterpene profiles (with the exception of β-phellandrene) in media to determine how representative families affect the performance of the mountain pine beetle or its fungal symbiont. We placed adult beetles or inoculated fungus on the amended media and measured beetle performance and fungal growth as a proxy to host suitability. We found that different clusters or families differentially influenced beetle or fungal responses. However, monoterpene profiles of trees suitable to the beetle or the fungus were dissimilar. These outcomes reflect a co-evolutionary arms-race between the host and the bark beetle-fungus complex, which has resulted in the production of complementary defense metabolites among different pine populations to enhance tree survival.

摘要

针对针叶树防御食草动物和病原体的能力,种内变异已得到广泛研究。虽然研究表明,个体或特定化合物混合物有能力影响昆虫和微生物,但需要研究反映树种种群内变异的具有生物相关性的防御化合物混合物,以应对复杂的天敌。我们对来自加拿大西部后代试验的黑云杉单萜进行了特征描述,并根据其单萜图谱将树木分为四个聚类。然后,我们在整个媒体中选择了 11 个代表家族,除了β-蒎烯之外,对其全部单萜图谱进行了修改,以确定代表家族如何影响山松甲虫或其真菌共生体的表现。我们将成年甲虫或接种真菌放在修改后的培养基上,并测量甲虫的表现和真菌的生长,以此作为宿主适宜性的替代指标。我们发现,不同的聚类或家族对甲虫或真菌的反应有不同的影响。然而,适合甲虫或真菌的树木的单萜图谱却有所不同。这些结果反映了宿主和树皮甲虫-真菌复合体之间的共同进化军备竞赛,这导致了不同松林种群之间互补防御代谢物的产生,以增强树木的生存能力。

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