稻壳生物炭比甘蔗渣生物炭更能有效阻止在受污染田地上种植的两种芸薹属蔬菜中镉和铅的积累。

IF 3.2 3区 环境科学与生态学 Q3 ENGINEERING, ENVIRONMENTAL
Lingtong Quan, Mengni Sun, Chun Qin, Aiguo Wang, Qiucheng Wen, Huan Liu, Liang Shi, Feng Hu, Jing Zhou, Yahua Chen, Zhenguo Shen, Yan Xia
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引用次数: 0

摘要

重金属污染土壤对蔬菜作物减产和土壤微生物群落破坏有很大影响。生物炭衍生废物生物质是重金属污染土壤中最常用的土壤改良剂之一。在不同的重金属污染土壤中添加合适的生物炭,是实现农作物安全生产的一种令人感兴趣的方法。本研究通过田间试验研究了两种生物炭(稻壳生物炭(RHB)和甘蔗渣生物炭(SBB))对上海青(SHQ,甘蓝品种)和丰收 737(FY,甘蓝品种)镉和铅积累的影响,以及对土壤微生物群落的影响。通过扫描电子显微镜、傅立叶变换红外光谱和布鲁诺-艾美特-泰勒法对 RHB 和 SBB 进行了表征。结果表明,RHB 和 SBB 具有更高的 pH 值、阳离子交换容量和孔隙性质,添加 RHB 和 SBB 可提高土壤 pH 值和根瘤微生物,促进蔬菜产量。在减少镉和铅的向上转移、阻止镉和铅在 SHQ 和 FY 食用部分的积累以及降低土壤中镉和铅的生物利用率方面,RHB 处理比 SBB 处理更有效。此外,RHB 和 SBB 改变了根圈土壤微生物群落的组成。施用生物炭促进了根圈土壤中有益生态的细菌(Nitrospira、Opitutus 和 Gemmatimonas)和真菌(Mortierella 和 Holtermanniella)的生长,同时减少了植物病原真菌(Alternaria、Stagonosporopsis、Lectera 和 Periconia)的富集。我们的研究结果表明,施用 RHB 可以降低土壤中镉和铅的生物利用率,并改变在镉/铅污染土壤上种植的两种芸薹属蔬菜根瘤菌群的组成,从而显著减少食用部分的镉和铅积累。因此,施用两种生物炭,特别是 RHB,是在镉/铅共污染土壤中安全生产蔬菜作物的可行策略。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Rice husk biochar is more effective in blocking the cadmium and lead accumulation in two Brassica vegetables grown on a contaminated field than sugarcane bagasse biochar.

Heavy metal-contaminated soil has a great impact on yield reduction of vegetable crops and soil microbial community destruction. Biochar-derived waste biomass is one of the most commonly applied soil conditioners in heavy metal-contaminated soil. Different heavy metal-contaminated soil added with suitable biochars represent an intriguing way of the safe production of crops. This study investigated the effects of two types of biochar [rice husk biochar (RHB) and sugarcane bagasse biochar (SBB)] on Cd and Pb accumulation in Shanghaiqing (SHQ, a variety of Brassica campestris L.) and Fengyou 737 (FY, a variety of Brassica napus), as well as on the soil microbial community, through a field experiment. RHB and SBB were characterized by scanning electron microscopy, Fourier transform infrared spectroscopy, and Brunauer-Emmet-Teller method. The results showed that RHB and SBB displayed the higher pH, cation exchange capacity and pore properties, and the addition of RHB and SBB enhanced soil pH and rhizosphere microorganisms promoting vegetables yield. RHB treatments were more effective than SBB in reducing upward transfer of Cd and Pb, blocking the accumulation of Cd and Pb in the edible parts of SHQ and FY, and decreasing soil Cd and Pb bioavailability. Additionally, RHB and SBB changed the composition of the rhizosphere soil microbial community. The application of biochar promoted the growth of ecologically beneficial bacteria (Nitrospira, Opitutus, and Gemmatimonas) and fungi (Mortierella and Holtermanniella), whereas reducing the enrichment of plant pathogenic fungi (Alternaria, Stagonosporopsis, Lectera, and Periconia) in rhizosphere soil. Our findings demonstrated that the application of RHB significantly reduces Cd and Pb accumulation in the edible parts by decreasing the soil Cd and Pb bioavailability and altering the rhizosphere microbial community composition in two Brassica vegetables grown on Cd/Pb-contaminated soils. Thus, the application of two biochar, especially RHB is a feasible strategy for the safe production of vegetable crops in Cd/Pb co-contaminated soils.

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来源期刊
Environmental Geochemistry and Health
Environmental Geochemistry and Health 环境科学-工程:环境
CiteScore
8.00
自引率
4.80%
发文量
279
审稿时长
4.2 months
期刊介绍: Environmental Geochemistry and Health publishes original research papers and review papers across the broad field of environmental geochemistry. Environmental geochemistry and health establishes and explains links between the natural or disturbed chemical composition of the earth’s surface and the health of plants, animals and people. Beneficial elements regulate or promote enzymatic and hormonal activity whereas other elements may be toxic. Bedrock geochemistry controls the composition of soil and hence that of water and vegetation. Environmental issues, such as pollution, arising from the extraction and use of mineral resources, are discussed. The effects of contaminants introduced into the earth’s geochemical systems are examined. Geochemical surveys of soil, water and plants show how major and trace elements are distributed geographically. Associated epidemiological studies reveal the possibility of causal links between the natural or disturbed geochemical environment and disease. Experimental research illuminates the nature or consequences of natural or disturbed geochemical processes. The journal particularly welcomes novel research linking environmental geochemistry and health issues on such topics as: heavy metals (including mercury), persistent organic pollutants (POPs), and mixed chemicals emitted through human activities, such as uncontrolled recycling of electronic-waste; waste recycling; surface-atmospheric interaction processes (natural and anthropogenic emissions, vertical transport, deposition, and physical-chemical interaction) of gases and aerosols; phytoremediation/restoration of contaminated sites; food contamination and safety; environmental effects of medicines; effects and toxicity of mixed pollutants; speciation of heavy metals/metalloids; effects of mining; disturbed geochemistry from human behavior, natural or man-made hazards; particle and nanoparticle toxicology; risk and the vulnerability of populations, etc.
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