Construction of fungicide nano delivery platform through crystal engineering for sustainable fungal control

嘧霉胺 杀菌剂 杀虫剂 浸出(土壤学) 化学 超分子化学 灰葡萄孢菌 环境污染 环境安全 工程类 环境化学 纳米技术 组合化学 材料科学 环境科学 有机化学 化学工程 人类健康 环境保护 土壤水分 晶体结构 生物 生态学 医学 植物 环境卫生 土壤科学
作者
Haibin Qu,Ye Gao,Lina Zhou,Songgu Wu,Junbo Gong
出处
期刊:Chemical Engineering Journal [Elsevier]
卷期号:490: 151902-151902 被引量:2
标识
DOI:10.1016/j.cej.2024.151902
摘要

The adverse effects resulting from off-target pesticide application pose significant risks to both ecosystems and public health. Therefore, developing a pesticide delivery system that is straightforward, effective, and devoid of secondary pollution is crucial for environmental safety. Herein, self-assembled crystalline materials involved pyrimethanil (PYR) and organic acids were constructed by crystal engineering. These materials allowed for direct manipulation of the physicochemical properties and environmental fate of PYR by the building modules. The melting point of PYR was increased from 96.19 °C to 206.69 °C. The photostability and volatile stability were improved by 3.85-fold and 297-fold, respectively. Afterwards, these crystalline materials were prepared as nano cocrystal suspensions (NCSs) in water by the one-pot method. The PYR NCSs exhibited potent bioactivity against Botrytis cinerea and demonstrated slow-release behavior. Upon foliar spraying, the PYR NCSs exhibited desirable foliar wettability with a contact angle lower than 36°. By limiting leaching into the soil and reducing environmental pesticide exposure, PYR NCS ensured the safety of both earthworms and plants. The structure–property relationships of PYR NCSs were elucidated through intermolecular interaction analysis and theoretical calculations. Overall, the NCSs constructed by the supramolecular chemistry strategy are characterized by the simple preparation, high bioactivity, stability, no carrier, slow-release, and minimal environmental risk, which offers insight for improving the utilization and sustainable management of pesticides.
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