Nano Electrochemistry Laboratory, College of Engineering, University of Georgia, Athens, GA 30602, USA.
Biosensors (Basel). 2023 Feb 1;13(2):215. doi: 10.3390/bios13020215.
Foodborne pathogens are an important diagnostic target for the food, beverage, and health care industries due to their prevalence and the adverse effects they can cause to public health, food safety, and the economy. The standards that determine whether a given type of food is fit for consumption are set by governments and must be taken into account when designing a new diagnostic tool such as a biosensor platform. In order to meet these stringent detection limits, cost, and reliability standards, recent research has been focused on developing lab-on-a-chip-based approaches for detection devices that use microfluidic channels and platforms. The microfluidics-based devices are designed, developed, and used in different ways to achieve the established common standards for food pathogen testing that enable high throughput, rapid detection, low sample volume, and minimal pretreatment procedures. Combining microfluidic approaches with electrochemical biosensing could offer affordable, portable, and easy to use devices for food pathogen diagnostics. This review presents an analysis of the established common standards and the recent progress made in electrochemical sensors toward the development of future lab-on-a-chip devices that will aid 'collection-to-detection' using a single method and platform.
食源性致病菌由于其普遍性和对公共健康、食品安全和经济造成的不良影响,成为食品、饮料和医疗保健行业的重要诊断目标。政府制定了决定某种食品是否适合食用的标准,在设计生物传感器等新型诊断工具时必须考虑这些标准。为了满足这些严格的检测限、成本和可靠性标准,最近的研究集中在开发基于微流控芯片的检测设备,这些设备使用微流道和平台。基于微流控的设备以不同的方式进行设计、开发和使用,以实现食品病原体检测的既定通用标准,这些标准能够实现高通量、快速检测、小样本量和最小预处理步骤。将微流控方法与电化学生物传感相结合,可为食源性致病菌诊断提供经济实惠、便携且易于使用的设备。本文综述了现有的通用标准以及电化学生物传感器在开发未来微流控芯片设备方面的最新进展,这些设备将有助于使用单一方法和平台实现“从采集到检测”。