传粉者
转化式学习
计算机科学
杀虫剂
风险评估
风险分析(工程)
深度学习
保护
人类健康
工作(物理)
生态系统健康
风险管理
残余物
深层神经网络
生态系统服务
健康风险
生态系统
人工智能
环境资源管理
业务
持续性
生物
毒性
环境规划
农药
药物发现
生化工程
生物多样性
作者
Zhaokai Yang,Hao Wang,M. K. Song,Bihong Tian,Wei Sun,Jianze Wei,Jian Wu
标识
DOI:10.1021/acs.jafc.5c12299
摘要
Isoxazoline pesticides, such as fluxametamide, while effective against parasites and pests, pose a severe environmental threat due to their high toxicity to honeybees – critical pollinators essential for ecosystem health and food security. Existing predictive platforms fail to accurately assess this risk for isoxazolines due to critical data gaps. To address this issue, we developed BeeSafe 2.0, an innovative deep learning model uniquely integrating graph neural networks (GGHT) and residual networks (ResNet) architecture, further enhanced by new training set. BeeSafe 2.0 demonstrates superior predictive performance, specifically overcoming previous limitations for isoxazolines, and provides an accessible online server (www.beesafe.top) for chemical bee toxicity assessment. Crucially, leveraging BeeSafe 2.0, we discovered WT-02, a novel isoxazoline insecticide exhibiting potent efficacy against diverse pests while displaying dramatically reduced bee toxicity (only 1/18 of that for fluxametamide). This work presents a transformative “new architecture–new data–application” approach, offering a powerful tool for environmental risk management of pesticides and enabling the discovery of truly bee-safe, greener alternatives to safeguard pollinator health and promote sustainable agriculture.
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