One fungus, which genes? Development and assessment of universal primers for potential secondary fungal DNA barcodes

J. B. Stielow, C. Lévesque, K. Seifert, W. Meyer, L. Iriny, D. Smits, R. Renfurm, G. Verkley, M. Groenewald, D. Chaduli, A. Lomascolo, S. Welti, L. Lesage-Meessen, A. Favel, A. Al‐Hatmi, U. Damm, N. Yilmaz, J. Houbraken, L. Lombard, W. Quaedvlieg, M. Binder, L. Vaas, D. Vu, Andrey M. Yurkov, D. Begerow, O. Roehl, M. Guerreiro, A. Fonseca, K. Samerpitak, A. V. van Diepeningen, S. Dolatabadi, L. Moreno, S. Casaregola, S. Mallet, N. Jacques, L. Roscini, E. Egidi, C. Bizet, D. Garcia-Hermoso, M. P. Martín, S. Deng, J. Groenewald, T. Boekhout, Z. D. de Beer, I. Barnes, T. Duong, M. Wingfield, G. S. de Hoog, P. Crous, C. Lewis, S. Hambleton, T. Moussa, H. Al-Zahrani, O. Almaghrabi, G. Louis-Seize, R. Assabgui, W. McCormick, G. Omer, K. Dukik, G. Cardinali, U. Eberhardt, M. de Vries, V. Robert
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引用次数: 356

Abstract

The aim of this study was to assess potential candidate gene regions and corresponding universal primer pairs as secondary DNA barcodes for the fungal kingdom, additional to ITS rDNA as primary barcode. Amplification efficiencies of 14 (partially) universal primer pairs targeting eight genetic markers were tested across > 1 500 species (1 931 strains or specimens) and the outcomes of almost twenty thousand (19 577) polymerase chain reactions were evaluated. We tested several well-known primer pairs that amplify: i) sections of the nuclear ribosomal RNA gene large subunit (D1–D2 domains of 26/28S); ii) the complete internal transcribed spacer region (ITS1/2); iii) partial β -tubulin II (TUB2); iv) γ-actin (ACT); v) translation elongation factor 1-α (TEF1α); and vi) the second largest subunit of RNA-polymerase II (partial RPB2, section 5–6). Their PCR efficiencies were compared with novel candidate primers corresponding to: i) the fungal-specific translation elongation factor 3 (TEF3); ii) a small ribosomal protein necessary for t-RNA docking; iii) the 60S L10 (L1) RP; iv) DNA topoisomerase I (TOPI); v) phosphoglycerate kinase (PGK); vi) hypothetical protein LNS2; and vii) alternative sections of TEF1α. Results showed that several gene sections are accessible to universal primers (or primers universal for phyla) yielding a single PCR-product. Barcode gap and multi-dimensional scaling analyses revealed that some of the tested candidate markers have universal properties providing adequate infra- and inter-specific variation that make them attractive barcodes for species identification. Among these gene sections, a novel high fidelity primer pair for TEF1α, already widely used as a phylogenetic marker in mycology, has potential as a supplementary DNA barcode with superior resolution to ITS. Both TOPI and PGK show promise for the Ascomycota, while TOPI and LNS2 are attractive for the Pucciniomycotina, for which universal primers for ribosomal subunits often fail.
一种真菌,哪些基因?潜在次生真菌DNA条形码通用引物的开发与评价
本研究的目的是评估潜在的候选基因区域和相应的通用引物对作为真菌王国的二级DNA条形码,除了ITS rDNA作为一级条形码。针对8个遗传标记的14对(部分)通用引物在超过1 500种(31株或标本)中进行了扩增效率测试,并对近2万次(19 577次)聚合酶链反应结果进行了评价。我们测试了几种著名的引物对,它们可以扩增:i)核糖体RNA基因大亚基部分(26/28S的D1-D2结构域);ii)完整的内部转录间隔区(ITS1/2);iii)部分β -微管蛋白II (TUB2);iv) γ-肌动蛋白(ACT);v)翻译延伸因子1-α (TEF1α);vi) rna聚合酶II的第二大亚基(部分RPB2,第5-6节)。将它们的PCR效率与新的候选引物进行比较,这些引物对应于:i)真菌特异性翻译伸长因子3 (TEF3);ii) t-RNA对接所需的小核糖体蛋白;iii) 60S L10 (L1) RP;iv) DNA拓扑异构酶I (TOPI);v)磷酸甘油酸激酶(PGK);vi)假设蛋白LNS2;和vii) TEF1α的替代切片。结果表明,通用引物(或门通用引物)可以访问多个基因片段,产生单个pcr产物。条形码间隙和多维尺度分析表明,一些被测试的候选标记具有普遍的特性,提供了足够的种内和种间变异,使它们成为物种鉴定的有吸引力的条形码。在这些基因片段中,一个新的高保真的TEF1α引物对,已经广泛用作真菌学的系统发育标记,有潜力作为DNA条形码的补充,具有比ITS更高的分辨率。TOPI和PGK都显示出对子囊菌门的希望,而TOPI和LNS2对puccininiomycotina有吸引力,而核糖体亚基的通用引物通常失败。
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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