Screpis Giuseppe Andrea, Aleo Andrea, Privitera Natalia, Capuano Giuseppe Emanuele, Farina Roberta, Corso Domenico, Libertino Sebania, Coniglio Maria Anna
Department of Medical and Surgical Sciences and Advanced Technologies "G.F. Ingrassia", University of Catania, Via S. Sofia 87, 95123 Catania, Italy.
Institute for Microelectronics and Microsystems (CNR-IMM), HQ, National Research Council of Italy, VIII Street Z.I., 5, 95121 Catania, Italy.
Microorganisms. 2024 Sep 6;12(9):1855. doi: 10.3390/microorganisms12091855.
The detection of in environmental samples, such as water, is crucial for public health monitoring and outbreak prevention. Although effective, traditional detection methods, including culture-based techniques and polymerase chain reaction, have limitations such as long processing times, trained operators, and the need for specialized laboratory equipment. Biosensing technologies offer a promising alternative due to their rapid, sensitive, cost-effectiveness, and on-site detection capabilities. To summarize the current advancements in biosensor development for detecting in environmental samples, we used '' AND 'biosensors' NEAR 'environmental samples' OR 'water' as keywords searching through the most relevant biomedical databases for research articles. After removing duplicates and inadequate articles from the n.1268 records identified using the PRISMA methodology exclusion criteria, we selected n.65 full-text articles which suited the inclusion criteria. Different results between the studies describing the current biosensing techniques, including optical, electrochemical, magnetic, and mass-sensitive sensors were observed. For each biosensing technique, sensitivity, specificity, and detection limits were evaluated. Furthermore, the integration of nanomaterials, microfluidics, and portable devices in biosensor systems' design were discussed, highlighting their role in enhancing detection performance. The potential challenges and future directions in the field of biosensing were also addressed, providing insights into the feasibility of implementing these technologies in routine environmental monitoring. Undoubtedly, biosensors can play a crucial role in the early detection and management of infections and outbreaks, ultimately protecting public health and safety.
在水等环境样本中检测[具体物质未给出]对于公共卫生监测和疫情预防至关重要。尽管传统检测方法有效,包括基于培养的技术和聚合酶链反应,但存在处理时间长、需要训练有素的操作人员以及需要专门实验室设备等局限性。生物传感技术因其快速、灵敏、成本效益高和现场检测能力而提供了一种有前景的替代方案。为了总结用于检测环境样本中[具体物质未给出]的生物传感器开发的当前进展,我们使用“[具体物质未给出]”以及“生物传感器”且靠近“环境样本”或“水”作为关键词,在最相关的生物医学数据库中搜索研究文章。在使用PRISMA方法排除标准从1268条记录中去除重复和不充分的文章后,我们选择了65篇符合纳入标准的全文文章。观察到描述当前生物传感技术(包括光学、电化学、磁性和质量敏感传感器)的研究之间存在不同结果。对每种生物传感技术的灵敏度、特异性和检测限进行了评估。此外,还讨论了纳米材料、微流体和便携式设备在生物传感器系统设计中的整合,突出了它们在提高检测性能方面的作用。还探讨了[具体物质未给出]生物传感领域的潜在挑战和未来方向,为在常规环境监测中实施这些技术的可行性提供了见解。毫无疑问,生物传感器在[具体物质未给出]感染和疫情的早期检测和管理中可以发挥关键作用,最终保护公众健康和安全。