Rogers K R
Mol Biotechnol. 2000 Feb;14(2):109-29. doi: 10.1385/MB:14:2:109.
Despite the amount of resources that have been invested by national and international academic, government, and commercial sectors to develop affinity-based biosensor products, little obvious success has been realized through commercialization of these devices for specific applications (such as the enzyme biosensors for blood glucose analysis). Nevertheless, the fastest growing area in the biosensors research literature continues to involve advances in affinity-based biosensors and biosensor-related methods. Numerous biosensor techniques have been reported that allow researchers to better study the kinetics, structure, and (solid/liquid) interface phenomena associated with protein-ligand binding interactions. In addition, potential application areas for which affinity-based biosensor techniques show promise include clinical/diagnostics, food processing, military/antiterrorism, and environmental monitoring. The design and structural features of these devices--composed of a biological affinity element interfaced to a signal transducer--primarily determine their operational characteristics. This paper, although not intended as a comprehensive review, will outline the principles of affinity biosensors with respect to potential application areas.
尽管国家和国际学术界、政府及商业部门投入了大量资源来开发基于亲和作用的生物传感器产品,但通过将这些设备商业化用于特定应用(如用于血糖分析的酶生物传感器),却几乎没有取得明显成功。然而,生物传感器研究文献中发展最快的领域仍然是基于亲和作用的生物传感器及与生物传感器相关方法的进展。已经报道了许多生物传感器技术,这些技术使研究人员能够更好地研究与蛋白质 - 配体结合相互作用相关的动力学、结构和(固/液)界面现象。此外,基于亲和作用的生物传感器技术显示出应用前景的潜在领域包括临床/诊断、食品加工、军事/反恐和环境监测。这些由与信号换能器相连的生物亲和元件组成的设备的设计和结构特征,主要决定了它们的操作特性。本文虽并非全面综述,但将概述亲和生物传感器在潜在应用领域方面的原理。