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ITS 真菌条形码引物与 18S AMF 特异性引物在三个山区葡萄园的根系和土壤中揭示了相似的基于 AMF 的多样性模式。

ITS fungal barcoding primers versus 18S AMF-specific primers reveal similar AMF-based diversity patterns in roots and soils of three mountain vineyards.

机构信息

Department of Life Sciences and System Biology, University of Torino, viale Mattioli 25, Torino 10125, Italy.

Institute for Sustainable Plant Protection, UOS Torino - National Research Council, viale Mattioli 25, Torino 10125, Italy.

出版信息

Environ Microbiol Rep. 2017 Oct;9(5):658-667. doi: 10.1111/1758-2229.12574. Epub 2017 Sep 21.

DOI:10.1111/1758-2229.12574
PMID:28799720
Abstract

ITS primers commonly used to describe soil fungi are flawed for AMF although it is unknown the extent to which they distort the interpretation of community patterns. Here, we focus on how the use of a specific ITS2 fungal barcoding primer pair biased for AMF changes the interpretation of AMF community patterns from three mountain vineyards compared to a novel AMF-specific approach on the 18S. We found that although discrepancies were present in the taxonomic composition of the two resulting datasets, the estimation of diversity patterns among AMF communities was similar and resulted in both primer systems being able to correctly assess the community-structuring effect of location, compartment (root vs. soil) and environment. Both methodologies made it possible to detect the same alpha-diversity trend among the locations under study but not between root and soil transects. We show that the ITS2 primer system for fungal barcoding provides a good estimate of both AMF community structure and relation to environmental variables. However, this primer system does not fit in with cross-compartment surveys (roots vs. soil) as it can underestimate AMF diversity in soil samples. When specifically focusing on AMF, the 18S primer system resulted in wide coverage and marginal non-target amplification.

摘要

ITS 引物通常用于描述土壤真菌,但对于 AMF 来说存在缺陷,尽管目前尚不清楚它们在多大程度上扭曲了群落模式的解释。在这里,我们专注于使用特定的 ITS2 真菌条形码引物对 AMF 产生偏好如何改变与 18S 上的新型 AMF 特异性方法相比,从三个山地葡萄园得出的 AMF 群落模式的解释。我们发现,尽管两个结果数据集的分类组成存在差异,但 AMF 群落多样性模式的估计相似,并且两种引物系统都能够正确评估位置、隔间(根与土壤)和环境的群落结构效应。这两种方法都能够检测到研究地点之间相同的 alpha 多样性趋势,但不能检测到根和土壤之间的趋势。我们表明,用于真菌条形码的 ITS2 引物系统能够很好地估计 AMF 群落结构及其与环境变量的关系。然而,这种引物系统不适合跨隔间调查(根与土壤),因为它会低估土壤样本中的 AMF 多样性。当专门关注 AMF 时,18S 引物系统导致广泛的覆盖和边缘非靶向扩增。

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