| Literature DB >> 28296339 |
Linglin Zhou1,2, Pan Zhao3, Yu Chi1,2, Dongfang Wang1,2, Pan Wang4, Ning Liu3, Dongqing Cai1,2, Zhengyan Wu1,2, Naiqin Zhong3.
Abstract
Urea tends to be hydrolyzed by urease and then migrate into the environment, which results in a low utilization efficiency and severe environmental contamination. To solve this problem, a network-structured nanocomposite (sodium humate-attapulgite-polyacrylamide) was fabricated and used as an excellent fertilizer synergist (FS) that could effectively inhibit the hydrolysis, reduce the loss, and enhance the utilization efficiency of nitrogen. Additionally, the FS exerted significant positive effects on the expression of several nitrogen-uptake-related genes, ion flux in maize roots, the growth of crops, and the organic matter in soil. The FS could modify the microbial community in the soil and increase the number of bacteria involved in nitrogen metabolism, organic matter degradation, the iron cycle, and photosynthesis. Importantly, this technology displayed a high biosafety and has a great potential to reduce nonpoint agricultural pollution. Therefore, this work provides a promising approach to manage nitrogen and to promote the sustainable development of agriculture and the environment.Entities:
Keywords: fertilizers; hydrolysis; microbes; nitrogen fixation; urea
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Year: 2017 PMID: 28296339 DOI: 10.1002/cssc.201700032
Source DB: PubMed Journal: ChemSusChem ISSN: 1864-5631 Impact factor: 8.928