Agroscope Reckenholz-Tänikon Research Station ART, 8046 Zurich, Switzerland.
J Agric Food Chem. 2012 Oct 3;60(39):9781-92. doi: 10.1021/jf302154y. Epub 2012 Sep 21.
Scientific publications and patents on nanomaterials (NM) used in plant protection or fertilizer products have exponentially increased since the millennium shift. While the United States and Germany have published the highest number of patents, Asian countries released most scientific articles. About 40% of all contributions deal with carbon-based NM, followed by titanium dioxide, silver, silica, and alumina. Nanomaterials come in many diverse forms (surprisingly often ≫100 nm), from solid doped particles to (often nonpersistent) polymer and oil-water based structures. Nanomaterials serve equally as additives (mostly for controlled release) and active constituents. Product efficiencies possibly increased by NM should be balanced against enhanced environmental NM input fluxes. The dynamic development in research and its considerable public perception are in contrast with the currently still very small number of NM-containing products on the market. Nanorisk assessment and legislation are largely in their infancies.
自千禧年以来,用于植物保护或肥料产品的纳米材料(NM)的科学出版物和专利呈指数级增长。虽然美国和德国发布了最多的专利,但亚洲国家发布了最多的科学文章。大约 40%的贡献涉及基于碳的 NM,其次是二氧化钛、银、硅和氧化铝。纳米材料有多种不同的形式(令人惊讶的是,通常 ≫100nm),从固体掺杂颗粒到(通常非持久的)聚合物和油水基结构。纳米材料既可以作为添加剂(主要用于控制释放),也可以作为活性成分。应该权衡纳米材料可能提高的产品效率与增强的环境纳米材料输入通量。研究的动态发展及其相当大的公众认知与目前市场上数量仍然非常少的含纳米材料产品形成鲜明对比。纳米风险评估和立法仍处于起步阶段。