Manipulation of phyllosphere bacterial communities reversibly alters the plant microbiome and leaf traits in the field

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS
Lisa-Maria Ohler, Sarah Seeleitner, Stefan Haselberger, Sabine Kraushaar, Jan-Christoph Otto, Birgit Mitter, Robert R. Junker
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Abstract

Bacterial communities in the phyllosphere are shaped by host genotype and phenotype and spatio-temporal variation of the environment. In turn, bacteria have the potential for altering the plant phenotype. Field experiments can help to estimate bacterial effects on plant functional traits under natural conditions. We used a transplantation approach of culturable bacterial communities to explore how manipulation of leaf-associated microbial communities in two different successional stages within a glacier foreland can influence microbial composition and functional plant traits. Our study documents successional stage-specific variations in the composition of foliar bacterial communities and shifts therein throughout a season and between years. We show that cultured bacteria transferred between plant communities can alter diversity and composition of the microbiome on plant community level as well as species-specific functional plant traits of two selected plant species within one growing season. Furthermore, our results demonstrate a strong resilience of plant-associated bacterial communities and of plants in response to bacterial invaders. Our study illustrates that inoculation experiments in the field with naturally occurring microbial communities of wild plants are suited to investigate complex interactions between microbial communities, the environment, and plant traits.

叶际细菌群落的操作可逆地改变了田间植物微生物组和叶片性状
叶层中的细菌群落是由宿主基因型和表型以及环境的时空变化形成的。反过来,细菌具有改变植物表型的潜力。田间试验有助于估计自然条件下细菌对植物功能性状的影响。我们使用可培养细菌群落的移植方法来探索在冰川前陆的两个不同演替阶段对叶片相关微生物群落的操作如何影响微生物组成和功能植物特征。我们的研究记录了叶片细菌群落组成的连续阶段特定变化,以及在整个季节和年份之间的变化。我们表明,在植物群落之间转移的培养细菌可以在一个生长季节内改变植物群落水平上微生物组的多样性和组成,以及两个选定植物物种的物种特异性功能植物特征。此外,我们的研究结果表明,植物相关细菌群落和植物对细菌入侵的反应具有强大的弹性。我们的研究表明,在野外用野生植物的天然微生物群落进行接种实验,适合研究微生物群落、环境和植物性状之间的复杂相互作用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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