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大气氮的生物固定在世界主要作物生产中的作用:政策视角。

Biofixation of atmospheric nitrogen in the context of world staple crop production: Policy perspectives.

机构信息

Schar School of Policy & Government, George Mason University, Arlington 22201, VA, United States.

Schar School of Policy & Government, George Mason University, Arlington 22201, VA, United States.

出版信息

Sci Total Environ. 2020 Jan 20;701:134945. doi: 10.1016/j.scitotenv.2019.134945. Epub 2019 Nov 2.

DOI:10.1016/j.scitotenv.2019.134945
PMID:31734483
Abstract

The extensive use of nitrogen (N) fertilizers implicates a paradox: while fertilizers ensure the supply of a large amount of food, they cause negative environmental externalities, including reduced biodiversity, and eutrophic streams and lakes. Moreover, such fertilizers may also result in a major public health hazard: increased antibiotic resistance. This article discusses the critical implications of perturbations in N cycle caused by excessive use of fertilizers and resulting policy implications as they relate to ecosystem services. While there are solutions such as cover crops, these solutions are expensive and inconvenient for farmers. We advocate the use of biological fixation (BF) for staple crops-microbiome mediated natural supply of fixed N. This would involve engineering a microbiome that can be grown cheaply and at industrial scale. Fertilizers resulting from such innovation are termed as "biofertilizers" in this article. Following a qualitative cost-benefit analysis broken down by key stakeholders and a quick exploration of policy frameworks as they relate to the advancement of biofertilizers, we propose a practical pathway of where and how research investments should be directed to make such a solution feasible. We make five policy recommendations for decision-makers to facilitate a successful trajectory for this solution: (1) Future agricultural science should seek to understand how BF might be employed as a practical and efficient strategy. This effort would require that industry and the government partner to establish a pre-competitive research laboratory equipped with the latest state-of-the-art technologies that conduct metagenomic experiments to reveal signature microbiomes and form novel symbiotic connections. (2) To have a smooth ride in the market, ag-bio companies should: (i) create awareness among farmers; (ii) impart skills to farmers in testing and using biofertilizers, and (iii) conduct extensive field tests and more research in studying the scalability potential of such fertilizers. (3)The United States Department of Agriculture (USDA) and state governments should provide research and development (R&D) tax credits to biotech companies specifically geared towards R&D investments aimed at increasing the viability of BF and microbiome engineering. (4) To control agricultural pollution in the biosphere, federal governments should consider passing a Clean Agriculture Act (CAA), including a specific clause that regulate the use of chemical fertilizers. (5) Governments and the UN Food and Agriculture Organization (FAO) should coordinate Biological Advanced Research in Agriculture (BARA)-a global agricultural innovation initiative for investments and research in biological fixation and ethical, legal, and social implications of such innovation. While biological fixation will be central in BARA, we envision it to conduct research around other agricultural innovations as well, such as increasing photosynthetic efficiency.

摘要

过量使用氮肥带来了一个悖论

氮肥虽然保证了大量食物的供应,但也带来了负外部性,包括生物多样性减少、贫营养化的河流和湖泊。此外,这种肥料还可能导致一个主要的公共卫生危害:抗生素耐药性的增加。本文讨论了由于过度使用肥料而导致的氮循环波动的关键影响及其与生态系统服务相关的政策含义。虽然有覆盖作物等解决方案,但这些解决方案对农民来说既昂贵又不方便。我们提倡使用生物固氮(BF)来种植主要农作物——通过微生物组介导的固定氮的自然供应。这将涉及到设计一种可以廉价且大规模生产的微生物组。本文将这种由创新产生的肥料称为“生物肥料”。在对关键利益相关者进行定性成本效益分析,并快速探讨与生物肥料推进相关的政策框架之后,我们提出了一个实际的途径,说明在哪里以及如何引导研究投资,使这一解决方案可行。我们为决策者提出了五项政策建议,以促进这一解决方案的成功实施:(1)未来的农业科学应该寻求理解如何将 BF 作为一种实用和有效的策略加以利用。这需要工业界和政府合作,建立一个预竞争研究实验室,配备最新的最先进技术,进行宏基因组实验,以揭示特征微生物组并形成新的共生关系。(2)为了在市场上顺利进行,农业生物公司应该:(i)提高农民的意识;(ii)向农民传授测试和使用生物肥料的技能;(iii)进行广泛的田间试验,并进行更多的研究,以研究此类肥料的可扩展性潜力。(3)美国农业部(USDA)和州政府应向专门从事旨在提高 BF 和微生物组工程可行性的研发投资的生物技术公司提供研发税收抵免。(4)为了控制生物圈中的农业污染,联邦政府应考虑通过《清洁农业法案》(CAA),包括一项具体条款,对化肥的使用进行监管。(5)政府和联合国粮食及农业组织(FAO)应协调农业生物技术高级研究(BARA)——一项全球农业创新倡议,用于投资和研究生物固氮以及此类创新的伦理、法律和社会影响。虽然生物固氮将是 BARA 的核心,但我们设想它也将围绕其他农业创新进行研究,例如提高光合作用效率。

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