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泛酸、天冬氨酸、抗坏血酸和酒石酸对向日葵(Helianthus annuus L.)铅植物提取的辅助作用比较评估。

Comparative assessment of pantothenic, aspartic, ascorbic and tartaric acids assisted Pb-phytoextraction by sunflower (Helianthus annuus L.).

作者信息

Ghafoor Asif, Shafiq Fahad, Anwar Sumera, Zhang Lixin, Ashraf Muhammad

机构信息

Institue of Molecular Biology and Biotechnology, The University of Lahore, Lahore, 54590, Pakistan.

Deaprtment of Botany, Government College University Lahore, Lahore, 54000, Pakistan.

出版信息

Biometals. 2024 Dec;37(6):1471-1486. doi: 10.1007/s10534-024-00619-9. Epub 2024 Jul 29.

DOI:10.1007/s10534-024-00619-9
PMID:39073690
Abstract

Phytoextraction of lead (Pb) is a challenging task due to its extremely low mobility within soil and plant systems. In this study, we tested the influence of some novel chelating agents for Pb-phytoextraction using sunflower. The Pb was applied at control (0.0278 mM) and 4.826 mM Pb as Pb(NO) through soil-spiking. After 10 days of Pb addition, four different organic ligands (aspartic, ascorbic, tartaric, and pantothenic acids) were added to the soil at 1 mM concentration each. respectively. In the absence of any chelate, sunflower plants grown at 4.826 mM Pb level accumulated Pb concentrations up to 104 µg g DW in roots, whereas 64 µg g DW in shoot. By contrast, tartaric acid promoted significantly Pb accumulation in roots (191 µg g DW; + 45.5%) and shoot (131.6 µg g DW; + 51.3%). Pantothenic acid also resulted in a significant Pb-uptake in the sunflower shoots (123 µg g DW; + 47.9%) and in roots (177.3 µg g DW; + 41.3%). The least effective amongst the chelates tested was aspartic acid, but it still contributed to + 40.1% more Pb accumulation in the sunflower root and shoots. In addition, plant growth, biochemical, and ionomic parameters were positively regulated by the organic chelates used. Especially, an increase in leaf Ca, P, and S was evident in Pb-stressed plants in response to chelates. These results highlight that the use of biocompatible organic chelates positively alters plant physio-biochemical traits contributing to higher Pb-sequestration in sunflower plant parts.

摘要

由于铅(Pb)在土壤和植物系统中的迁移率极低,因此通过植物提取铅是一项具有挑战性的任务。在本研究中,我们测试了一些新型螯合剂对利用向日葵进行铅植物提取的影响。通过土壤加标,以对照(0.0278 mM)和4.826 mM的硝酸铅(Pb(NO₃)₂)形式施加铅。添加铅10天后,分别以1 mM的浓度向土壤中添加四种不同的有机配体(天冬氨酸、抗坏血酸、酒石酸和泛酸)。在没有任何螯合剂的情况下,生长在4.826 mM铅水平的向日葵植株根部积累的铅浓度高达104 μg g干重,而地上部为64 μg g干重。相比之下,酒石酸显著促进了根部(191 μg g干重;增加45.5%)和地上部(131.6 μg g干重;增加51.3%)的铅积累。泛酸也导致向日葵地上部(123 μg g干重;增加47.9%)和根部(177.3 μg g干重;增加41.3%)的铅吸收显著增加。在所测试的螯合剂中效果最差的是天冬氨酸,但它仍使向日葵根和地上部的铅积累增加了40.1%。此外,所使用的有机螯合剂对植物生长、生化和离子组学参数有正向调节作用。特别是,在铅胁迫的植物中,响应螯合剂,叶片中的钙、磷和硫含量明显增加。这些结果表明,使用生物相容性有机螯合剂可正向改变植物生理生化特性,有助于向日葵植株各部分更高的铅固定。

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