Risalvato Jacquline, Sewid Alaa H, Eda Shigetoshi, Gerhold Richard W, Wu Jie Jayne
Biomedical and Diagnostic Sciences, College of Veterinary Medicine, The University of Tennessee, Knoxville, TN 37996, USA.
School of Natural Resources, The University of Tennessee Institute of Agriculture, Knoxville, TN 37996, USA.
Biosensors (Basel). 2025 Jul 1;15(7):419. doi: 10.3390/bios15070419.
() remains a major concern in poultry production due to its ability to incite foodborne illness and public health crisis, zoonotic potential, and the increasing prevalence of antibiotic-resistant strains. The contamination of poultry products with pathogenic , including avian pathogenic (APEC) and Shiga toxin-producing (STEC), presents risks at multiple stages of the poultry production cycle. The stages affected by range from, but are not limited to, the hatcheries to grow-out operations, slaughterhouses, and retail markets. While traditional detection methods such as culture-based assays and polymerase chain reaction (PCR) are well-established for detection in the food supply chain, their time, cost, and high infrastructure demands limit their suitability for rapid and field-based surveillance-hindering the ability for effective cessation and handling of outbreaks. Biosensors have emerged as powerful diagnostic tools that offer rapid, sensitive, and cost-effective alternatives for detection across various stages of poultry development and processing where detection is needed. This review examines current biosensor technologies designed to detect bacterial biomarkers, toxins, antibiotic resistance genes, and host immune response indicators for . Emphasis is placed on field-deployable and point-of-care (POC) platforms capable of integrating into poultry production environments. In addition to enhancing early pathogen detection, biosensors support antimicrobial resistance monitoring, facilitate integration into Hazard Analysis Critical Control Points (HACCP) systems, and align with the One Health framework by improving both animal and public health outcomes. Their strategic implementation in slaughterhouse quality control and marketplace testing can significantly reduce contamination risk and strengthen traceability in the poultry value chain. As biosensor technology continues to evolve, its application in surveillance is poised to play a transformative role in sustainable poultry production and global food safety.
由于其引发食源性疾病和公共卫生危机的能力、人畜共患病潜力以及抗生素耐药菌株的日益流行,(某事物,原文未明确写出)仍然是家禽生产中的一个主要问题。家禽产品被包括禽致病性(某菌,原文未明确写出)(APEC)和产志贺毒素(某菌,原文未明确写出)(STEC)在内的病原菌污染,在家禽生产周期的多个阶段都存在风险。受(某事物,原文未明确写出)影响的阶段包括但不限于孵化场到育成养殖场、屠宰场和零售市场。虽然基于培养的检测方法和聚合酶链反应(PCR)等传统检测方法在食品供应链中检测(某事物,原文未明确写出)方面已经成熟,但它们的时间、成本和对基础设施的高要求限制了它们在快速和现场监测中的适用性,阻碍了有效遏制和处理疫情的能力。生物传感器已成为强大的诊断工具,为在家禽发育和加工的各个需要检测的阶段检测(某事物,原文未明确写出)提供了快速、灵敏且经济高效的替代方法。本综述研究了当前旨在检测细菌生物标志物、毒素、抗生素耐药基因和(某事物,原文未明确写出)宿主免疫反应指标的生物传感器技术。重点是能够集成到家禽生产环境中的现场可部署和即时检测(POC)平台。除了加强早期病原体检测外,生物传感器还支持抗菌药物耐药性监测,促进融入危害分析与关键控制点(HACCP)系统,并通过改善动物和公共卫生结果与“同一健康”框架保持一致。它们在屠宰场质量控制和市场检测中的战略实施可以显著降低污染风险,并加强家禽价值链中的可追溯性。随着生物传感器技术不断发展,其在(某事物,原文未明确写出)监测中的应用有望在可持续家禽生产和全球食品安全中发挥变革性作用。