镍与土壤肥力:回顾对环境和粮食安全的益处

Alon Rabinovich, Rong Di, Sean Lindert, Joseph Heckman
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摘要

镍(Ni)是植物必需的微量营养元素,负责通过脲酶代谢尿素氮(脲-N),并通过乙二醛酶(Gly)和谷胱甘肽(GSH)循环减轻非生物和氧化胁迫。然而,过量的镍对植物的毒性大于 100 毫克/千克,但对镍的耐受性大于 1000 毫克/千克的高积累植物除外。本综述讨论了镍养分管理对土壤肥力、提高粮食安全以及最大限度地减少尿素过量施用对环境造成的不利影响的益处。许多农田土壤都缺镍,这表明每公顷施用 0.05-5 千克镍可提高产量和尿素-氮的利用效率。叶面和土壤施用镍肥主要通过控制真菌病害来减少生物胁迫。镍的生物利用率是植物、动物内脏和土壤微生物群中脲酶合成的限制因素。植物中脲酶活性的提高以及随后通过牲畜内脏中的饲料提高脲酶活性,可减少一氧化二氮和亚硝酸盐污染物的释放。由于镍在植物中的流动性很强,不会在果实或叶片组织中积累,不会对消费者的健康造成影响,因此施用在作物上的肥料镍会分散在植被组织中。新的微量营养元素输送方法,包括根瘤噬菌、回收的硬石膏和纳米颗粒肥料,可以提高镍在农业系统中的生物利用率。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Nickel and Soil Fertility: Review of Benefits to Environment and Food Security
Nickel (Ni) is an essential micronutrient for plants, responsible for metabolizing urea nitrogen (urea-N) by urease and mitigating abiotic and oxidative stresses through the glyoxalase (Gly) and glutathione (GSH) cycles. However, excess Ni is toxic to flora at >100 mg kg−1, except for hyperaccumulators that tolerate >1000 mg kg−1 Ni. This review discusses the benefits of Ni nutrient management for soil fertility, improving food security, and minimizing adverse environmental impacts from urea overapplication. Many farming soils are Ni deficient, suggesting that applying 0.05–5 kg ha−1 of Ni improves yield and urea-N use efficiency. Applied foliar and soil Ni fertilizers decrease biotic stresses primarily by control of fungal diseases. The bioavailability of Ni is the limiting factor for urease synthesis in plants, animal guts, and the soil microbiome. Improved urease activity in plants and subsequently through feed in livestock guts reduces the release of nitrous oxide and nitrite pollutants. Fertilizer Ni applied to crops is dispersed in vegetative tissue since Ni is highly mobile in plants and is not accumulated in fruit or leafy tissues to cause health concerns for consumers. New methods for micronutrient delivery, including rhizophagy, recycled struvite, and nanoparticle fertilizers, can improve Ni bioavailability in farming systems.
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