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澳大利亚人工种植块菌林中外生菌根真菌黑孢块菌的遗传多样性和交配型分布及其对块菌栽培的意义。

Genetic diversity and mating type distribution of Tuber melanosporum and their significance to truffle cultivation in artificially planted truffieres in Australia.

机构信息

Evolution, Ecology, and Genetics, Research School of Biology, Australian National University, Canberra, Australian Capital Territory, Australia.

出版信息

Appl Environ Microbiol. 2012 Sep;78(18):6534-9. doi: 10.1128/AEM.01558-12. Epub 2012 Jul 6.

DOI:10.1128/AEM.01558-12
PMID:22773652
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC3426713/
Abstract

Tuber melanosporum is a truffle native to Europe and is cultivated in countries such as Australia for the gastronomic market, where production yields are often lower than expected. We assessed the genetic diversity of T. melanosporum with six microsatellite loci to assess the effect of genetic drift on truffle yield in Australia. Genetic diversity as assessed on 210 ascocarps revealed a higher allelic diversity compared to previous studies from Europe, suggesting a possible genetic expansion and/or multiple and diverse source populations for inoculum. The results also suggest that the single sequence repeat diversity of locus ME2 is adaptive and that, for example, the probability of replication errors is increased for this locus. Loss of genetic diversity in Australian populations is therefore not a likely factor in limiting ascocarp production. A survey of nursery seedlings and trees inoculated with T. melanosporum revealed that <70% of seedlings and host trees were colonized with T. melanosporum and that some trees had been contaminated by Tuber brumale, presumably during the inoculation process. Mating type (MAT1-1-1 and MAT1-2-1) analyses on seedling and four- to ten-year-old host trees found that 100% of seedlings but only approximately half of host trees had both mating types present. Furthermore, MAT1-1-1 was detected significantly more commonly than MAT1-2-1 in established trees, suggesting a competitive advantage for MAT1-1-1 strains. This study clearly shows that there are more factors involved in ascocarp production than just the presence of both mating types on host trees.

摘要

块菌是一种原产于欧洲的块菌,在澳大利亚等国被用于美食市场,其产量往往低于预期。我们使用 6 个微卫星标记评估了 T. melanosporum 的遗传多样性,以评估遗传漂变对澳大利亚块菌产量的影响。在 210 个子实体上进行的遗传多样性评估显示,与来自欧洲的先前研究相比,等位基因多样性更高,这表明可能存在遗传扩张和/或多个不同的种源用于接种。结果还表明,位点 ME2 的单核苷酸重复多样性是适应性的,例如,该位点的复制错误概率增加。因此,澳大利亚种群遗传多样性的丧失不太可能是限制子实体产生的因素。对接种了 T. melanosporum 的苗圃幼苗和树木进行的调查显示,<70%的幼苗和宿主树木被 T. melanosporum 定植,并且一些树木被 Tuber brumale 污染,大概是在接种过程中。对幼苗和四到十年生的宿主树木的交配型(MAT1-1-1 和 MAT1-2-1)分析发现,100%的幼苗但只有大约一半的宿主树木存在两种交配型。此外,在已建立的树木中,MAT1-1-1 的检测频率明显高于 MAT1-2-1,这表明 MAT1-1-1 菌株具有竞争优势。这项研究清楚地表明,影响子实体产生的因素不仅仅是宿主树木上存在两种交配型。

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