Bodkhe Gajanan A, Kumar Vishal, Li Xingjie, Pei Shichun, Ma Long, Kim Myunghee
Department of Food Science and Technology, Yeungnam University, Gyeongsan-si 38541, Gyeongsangbuk-do, Republic of Korea.
State Key Laboratory of Food Nutrition and Safety, Key Laboratory of Industrial Microbiology, Ministry of Education, College of Biotechnology, Tianjin University of Science & Technology, Tianjin 300457, China.
Microorganisms. 2025 Jul 21;13(7):1706. doi: 10.3390/microorganisms13071706.
Microorganisms play a crucial role in food processes, safety, and quality through their dynamic interactions with other organisms. In recent years, biosensors have become essential tools for monitoring these processes in the dairy, meat, and fresh produce industries. This review highlights how microbial diversity, starter cultures, and interactions, such as competition and quorum sensing, shape food ecosystems. Diverse biosensor platforms, including electrochemical, optical, piezoelectric, thermal, field-effect transistor-based, and lateral flow assays, offer distinct advantages tailored to specific food matrices and microbial targets, enabling rapid and sensitive detection. Biosensors have been developed for detecting pathogens in real-time monitoring of fermentation and tracking spoilage. Control strategies, including bacteriocins, probiotics, and biofilm management, support food safety, while decontamination methods provide an additional layer of protection. The integration of new techniques, such as nanotechnology, CRISPR, and artificial intelligence, into Internet of Things systems is enhancing precision, particularly in addressing regional food safety challenges. However, their adoption is still hindered by complex food matrices, high costs, and the growing challenge of antimicrobial resistance. Looking ahead, intelligent systems and wearable sensors may help overcome these barriers. Although gaps in standardization and accessibility remain, biosensors are well-positioned to revolutionize food microbiology, linking ecological insights to practical solutions and paving the way for safer, high-quality food worldwide.
微生物通过与其他生物的动态相互作用,在食品加工、安全和质量方面发挥着关键作用。近年来,生物传感器已成为乳制品、肉类和新鲜农产品行业监测这些过程的重要工具。本综述重点介绍了微生物多样性、发酵剂培养物以及竞争和群体感应等相互作用如何塑造食品生态系统。包括电化学、光学、压电、热、基于场效应晶体管和侧向流动分析在内的多种生物传感器平台,针对特定的食品基质和微生物目标具有独特优势,能够实现快速灵敏的检测。已开发出用于在发酵实时监测和追踪腐败过程中检测病原体的生物传感器。包括细菌素、益生菌和生物膜管理在内的控制策略有助于食品安全,而去污方法则提供了额外的保护层。将纳米技术、CRISPR和人工智能等新技术集成到物联网系统中正在提高精准度,尤其是在应对区域食品安全挑战方面。然而,复杂的食品基质、高成本以及日益严峻的抗菌药物耐药性挑战仍然阻碍着它们的应用。展望未来,智能系统和可穿戴传感器可能有助于克服这些障碍。尽管在标准化和可及性方面仍存在差距,但生物传感器已做好充分准备,将彻底改变食品微生物学,将生态见解与实际解决方案联系起来,并为全球更安全、高质量的食品铺平道路。