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粘细菌对土壤细菌的捕食作用比较分析。

Comparative analysis of myxococcus predation on soil bacteria.

机构信息

School of Biological Sciences, Institute of Evolutionary Biology, University of Edinburgh, Edinburgh EH93JT, United Kingdom.

出版信息

Appl Environ Microbiol. 2010 Oct;76(20):6920-7. doi: 10.1128/AEM.00414-10. Epub 2010 Aug 27.

Abstract

Predator-prey relationships among prokaryotes have received little attention but are likely to be important determinants of the composition, structure, and dynamics of microbial communities. Many species of the soil-dwelling myxobacteria are predators of other microbes, but their predation range is poorly characterized. To better understand the predatory capabilities of myxobacteria in nature, we analyzed the predation performance of numerous Myxococcus isolates across 12 diverse species of bacteria. All predator isolates could utilize most potential prey species to effectively fuel colony expansion, although one species hindered predator swarming relative to a control treatment with no growth substrate. Predator strains varied significantly in their relative performance across prey types, but most variation in predatory performance was determined by prey type, with Gram-negative prey species supporting more Myxococcus growth than Gram-positive species. There was evidence for specialized predator performance in some predator-prey combinations. Such specialization may reduce resource competition among sympatric strains in natural habitats. The broad prey range of the Myxococcus genus coupled with its ubiquity in the soil suggests that myxobacteria are likely to have very important ecological and evolutionary effects on many species of soil prokaryotes.

摘要

原核生物中的捕食者-被捕食者关系一直没有得到太多关注,但它们很可能是微生物群落组成、结构和动态的重要决定因素。许多土壤栖居的粘细菌物种都是其他微生物的捕食者,但它们的捕食范围描述得很差。为了更好地了解粘细菌在自然界中的捕食能力,我们分析了 12 种不同细菌中许多粘球菌分离株的捕食性能。所有的捕食者分离株都可以利用大多数潜在的猎物物种来有效地促进菌落的扩张,尽管有一种物种的捕食者聚集行为相对于没有生长基质的对照处理受到了阻碍。捕食者菌株在对猎物类型的相对表现上存在显著差异,但捕食表现的大多数变化是由猎物类型决定的,革兰氏阴性猎物物种比革兰氏阳性物种更能支持粘球菌的生长。在一些捕食者-被捕食者组合中存在专门的捕食者表现的证据。这种特化可能会减少自然栖息地中同域菌株之间的资源竞争。粘细菌属的广泛猎物范围及其在土壤中的普遍存在表明,粘细菌很可能对许多土壤原核生物具有非常重要的生态和进化影响。

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