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铜纳米材料形态和组成控制通过表皮的叶部转移,并介导番茄对根真菌病的抗性()。

Copper Nanomaterial Morphology and Composition Control Foliar Transfer through the Cuticle and Mediate Resistance to Root Fungal Disease in Tomato ().

机构信息

Center for Sustainable Nanotechnology, Department of Chemistry, University of Wisconsin-Madison, 1101 University Avenue, Madison, Wisconsin 53706, United States.

Department of Analytical Chemistry, The Connecticut Agricultural Experiment Station, 123 Huntington Street, New Haven, Connecticut 06504, United States.

出版信息

J Agric Food Chem. 2020 Oct 14;68(41):11327-11338. doi: 10.1021/acs.jafc.0c04546. Epub 2020 Sep 30.

DOI:10.1021/acs.jafc.0c04546
PMID:32936626
Abstract

Two copper nanomaterials (CuO nanoparticles [NPs] and Cu(PO)·3HO nanosheets) and CuSO were applied to tomato () leaves, and elemental Cu movement from the leaf surface through the cuticle and into the interior leaf tissue was monitored over 8 h. Two forms of nanoscale Cu were used to foliar treat tomato on a weekly basis in greenhouse and field experiments in the presence of the pathogen f. sp. . For CuSO, Cu accumulation and retention in the cuticle was over 7-fold greater than the nanomaterials, demonstrating that nanoscale morphology and composition mediate Cu accumulation in leaf tissue. In the greenhouse, weekly foliar applications of the nanosheets and NPs increased seedling biomass by 90.9 and 93.3%, respectively, compared to diseased and ionic Cu controls. In the field, Cu(PO)·3HO nanosheets reduced disease progress by 26.0% and significantly increased fruit yield by over 45.5% per plant relative to the other treatments in diseased soil. These findings suggest that nanoscale nutrient chemical properties can be tuned to maximize and control movement through the cuticle and that interactions at the seedling leaf biointerface can lead to season-long benefit for tomato growing in the presence of spp.

摘要

两种铜纳米材料(氧化铜纳米颗粒[NPs]和 Cu(PO)·3HO 纳米片)和 CuSO 被应用于番茄叶片,监测了 8 小时内元素铜从叶片表面通过角质层进入内部叶片组织的过程。在病原体 f. sp.. 的存在下,每周使用两种形式的纳米级 Cu 通过叶面处理温室和田间试验中的番茄。对于 CuSO,纳米材料的角质层中 Cu 的积累和保留量超过 7 倍,表明纳米级形态和组成介导了 Cu 在叶片组织中的积累。在温室中,与患病和离子 Cu 对照相比,纳米片和 NPs 的每周叶面应用分别使幼苗生物量增加了 90.9%和 93.3%。在田间,Cu(PO)·3HO 纳米片将病害进展减少了 26.0%,与患病土壤中的其他处理相比,每株植物的果实产量显著增加了 45.5%以上。这些发现表明,可以调整纳米级养分化学性质以最大程度地控制通过角质层的运动,并且在幼苗叶片生物界面的相互作用可以为番茄在 spp. 存在下的生长带来长达一个季节的益处。

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