Jinxin Liu, Marti Z Hua, Xinyu Yan, Luyao Ma, Shenmiao Li, Yang Wang, Tian Yang, Yihan He, Michael E Konkel, Greta Gölz, Thomas Alter, Jinsong Feng, Qian Liu, Xiaonan Lu
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引用次数: 0
Abstract
Introduction: Antimicrobial resistance (AMR) threatens food safety across the farm-to-fork continuum. Real-time surveillance is crucial to mitigate its global escalation, yet conventional antimicrobial susceptibility testing (AST) remains slow, labor-intensive, and impractical for large-scale monitoring.
Objectives: We developed an Artificial Intelligence of Things (AIoT)-integrated multiplex microfluidic platform enabling automated AMR surveillance ofpathogens in food supply chain.
Results: Each node combines a single-board AIoT controller (Orange Pi 5B), portable incubator, chromogenic microfluidic chips, and environmental sensors, reducing costs by 98% compared with standard AST. A lightweight YOLO model embedded in the controller achieved > 99% accuracy in identifying bacterial growth and inhibition under antibiotic pressure, showing 96% and 95% agreement with standard results forSalmonella andCampylobacter, respectively. Data are synchronized to a cloud server for real-time aggregation and early resistance warning.
Conclusion: This fully automated and low-cost system minimizes human error and workload, providing a scalable sample-to-answer solution for AMR surveillance in global agri-food system.
抗菌素耐药性(AMR)威胁着从农场到餐桌整个过程的食品安全。实时监测对于缓解其全球升级至关重要,但传统的抗生素药敏试验(AST)仍然缓慢、劳动密集,而且不适合大规模监测。目的:我们开发了一个人工智能物联网(AIoT)集成的多路微流控平台,可以对食品供应链中的病原体进行自动AMR监测。结果:每个节点结合了单板AIoT控制器(Orange Pi 5B)、便携式培养箱、比色微流控芯片和环境传感器,与标准AST相比,成本降低了98%。嵌入控制器的轻量级YOLO模型在抗生素压力下识别细菌生长和抑制的准确率达到 > 99%,与沙门氏菌和弯曲杆菌的标准结果分别达到96%和95%。数据同步到云服务器进行实时聚合和早期耐药性预警。结论:该全自动低成本系统最大限度地减少了人为错误和工作量,为全球农业食品系统中的抗菌素耐药性监测提供了可扩展的从样本到答案的解决方案。