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肥料使用与土壤、作物和食品中的镉。

Fertilizer usage and cadmium in soils, crops and food.

机构信息

National Research Council, Ottawa, K1A 0R6, Canada.

Université de Montreal, Montreal, H3C 3J7l, Canada.

出版信息

Environ Geochem Health. 2018 Dec;40(6):2739-2759. doi: 10.1007/s10653-018-0140-x. Epub 2018 Jun 23.

DOI:10.1007/s10653-018-0140-x
PMID:29936671
Abstract

Phosphate fertilizers were first implicated by Schroeder and Balassa (Science 140(3568):819-820, 1963) for increasing the Cd concentration in cultivated soils and crops. This suggestion has become a part of the accepted paradigm on soil toxicity. Consequently, stringent fertilizer control programs to monitor Cd have been launched. Attempts to link Cd toxicity and fertilizers to chronic diseases, sometimes with good evidence, but mostly on less certain data are frequent. A re-assessment of this "accepted" paradigm is timely, given the larger body of data available today. The data show that both the input and output of Cd per hectare from fertilizers are negligibly small compared to the total amount of Cd/hectare usually present in the soil itself. Calculations based on current agricultural practices are used to show that it will take centuries to double the ambient soil Cd level, even after neglecting leaching and other removal effects. The concern of long-term agriculture should be the depletion of available phosphate fertilizers, rather than the negligible contamination of the soil by trace metals from fertilizer inputs. This conclusion is confirmed by showing that the claimed correlations between fertilizer input and Cd accumulation in crops are not robust. Alternative scenarios that explain the data are presented. Thus, soil acidulation on fertilizer loading and the effect of Mg, Zn and F ions contained in fertilizers are considered using recent [Formula: see text], [Formula: see text] and [Formula: see text] ion-association theories. The protective role of ions like Zn, Se, Fe is emphasized, and the question of Cd toxicity in the presence of other ions is considered. These help to clarify difficulties in the standard point of view. This analysis does not modify the accepted views on Cd contamination by airborne delivery, smoking, and industrial activity, or algal blooms caused by phosphates.

摘要

施罗德和巴拉斯(Science 140(3568):819-820, 1963)首次提出,磷肥会增加耕地和作物中的镉浓度。这一观点已成为土壤毒性公认理论的一部分。因此,为监测镉含量,已启动了严格的肥料控制计划。人们时常根据有限的数据,尝试将镉毒性和肥料与慢性疾病联系起来,有时证据充分,但多数情况下证据并不确凿。鉴于当今有更多的数据可用,重新评估这一“公认”的观点是适时的。这些数据表明,与土壤中通常存在的镉总量相比,肥料中镉的每公顷输入和输出量都微不足道。基于当前农业实践的计算表明,即使忽略淋溶和其他去除效应,要使环境土壤镉水平翻倍也需要数百年的时间。长期农业关注的应该是可利用的磷肥的消耗,而不是肥料投入对土壤中痕量金属的微不足道的污染。通过表明声称的肥料投入与作物中镉积累之间的相关性不稳健,这一结论得到了证实。提出了替代方案来解释这些数据。因此,考虑到肥料加载导致的土壤酸化以及肥料中所含的 Mg、Zn 和 F 离子的影响,使用最近的[Formula: see text]、[Formula: see text]和[Formula: see text]离子缔合理论进行了讨论。强调了像 Zn、Se、Fe 等离子的保护作用,并考虑了其他离子存在时的镉毒性问题。这些有助于澄清标准观点中的困难。这种分析并不改变对空气输送、吸烟和工业活动造成的镉污染以及磷酸盐引起的藻类大量繁殖的公认观点。

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