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用超富集植物根际真菌接种硒超富集植物斯坦利羽扇豆及相关非富集植物矮羽扇豆——对硒积累和形态影响的研究

Inoculation of selenium hyperaccumulator Stanleya pinnata and related non-accumulator Stanleya elata with hyperaccumulator rhizosphere fungi--investigation of effects on Se accumulation and speciation.

作者信息

Lindblom Stormy Dawn, Fakra Sirine C, Landon Jessica, Schulz Paige, Tracy Ben, Pilon-Smits Elizabeth A H

机构信息

Biology Department, Colorado State University, Fort Collins, CO, 80523, USA.

出版信息

Physiol Plant. 2014 Jan;150(1):107-18. doi: 10.1111/ppl.12094. Epub 2013 Sep 19.

DOI:10.1111/ppl.12094
PMID:24032473
Abstract

Little is known about how fungi affect elemental accumulation in hyperaccumulators (HAs). Here, two rhizosphere fungi from selenium (Se) HA Stanleya pinnata, Alternaria seleniiphila (A1) and Aspergillus leporis (AS117), were used to inoculate S. pinnata and related non-HA Stanleya elata. Growth and Se and sulfur (S) accumulation were analyzed. Furthermore, X-ray microprobe analysis was used to investigate elemental distribution and speciation. Growth of S. pinnata was not affected by inoculation or by Se. Stanleya elata growth was negatively affected by AS117 and by Se, but combination of both did not reduce growth. Selenium translocation was reduced in inoculated S. pinnata, and inoculation reduced S translocation in both species. Root Se distribution and speciation were not affected by inoculation in either species; both species accumulated mainly (90%) organic Se. Sulfur, in contrast, was present equally in organic and inorganic forms in S. pinnata roots. Thus, these rhizosphere fungi can affect growth and Se and/or S accumulation, depending on host species. They generally enhanced root accumulation and reduced translocation. These effects cannot be attributed to altered plant Se speciation but may involve altered rhizosphere speciation, as these fungi are known to produce elemental Se. Reduced Se translocation may be useful in applications where toxicity to herbivores and movement of Se into the food chain is a concern. The finding that fungal inoculation can enhance root Se accumulation may be useful in Se biofortification or phytoremediation using root crop species.

摘要

关于真菌如何影响超富集植物(HAs)中元素积累的了解甚少。在这里,使用来自硒(Se)超富集植物羽叶长柄芥的两种根际真菌,嗜硒链格孢(A1)和兔曲霉(AS117),对羽叶长柄芥和相关的非超富集植物窄叶长柄芥进行接种。分析了它们的生长以及硒和硫(S)的积累情况。此外,还使用X射线微探针分析来研究元素分布和形态。羽叶长柄芥的生长不受接种或硒的影响。窄叶长柄芥的生长受到AS117和硒的负面影响,但两者共同作用并未降低其生长。接种后的羽叶长柄芥中硒的转运减少,接种降低了两个物种中硫的转运。接种对两种植物根系中硒的分布和形态均无影响;两种植物主要积累(90%)有机硒。相比之下,羽叶长柄芥根系中的硫以有机和无机形式等量存在。因此,这些根际真菌可根据宿主物种影响生长以及硒和/或硫的积累。它们通常会增强根系积累并减少转运。这些影响不能归因于植物硒形态的改变,但可能涉及根际形态的改变,因为已知这些真菌会产生元素硒。减少硒的转运在关注对食草动物的毒性和硒进入食物链的应用中可能是有用的。真菌接种可增强根系硒积累这一发现,在利用根作物物种进行硒生物强化或植物修复方面可能是有用的。

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