Manuel A.Chairez Ortega , Rafael E. González Landaeta , Francisco S. Aguirre Tostado , Soledad V. Torres Argüelles , Amanda Carrillo Castillo
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引用次数: 0
摘要
近年来,通过测量尿素水平来诊断肾功能衰竭一直是一个热门研究课题。研究的重点是提高尿素生物传感器的灵敏度、线性度、精确度、准确性和选择性。虽然尿素生物传感器的制造中使用了多种材料,但陶瓷和钙化物在这一领域的应用较少。最近,人们研究了陶瓷(如沸石)的使用,以改进尿素生物传感器中的酶固定方法及其在离子选择膜中的应用,从而提高设备的特异性。虽然氧化物已被广泛用作尿素生物传感器中的传感器,但元素周期表第 VI 族的铬化半导体材料也显示出良好的性能,如化学稳定性、信号传导能力和改进的电学测量。本综述全面概述了尿素生物传感器的最新研究成果,特别强调了使用陶瓷固定酶和铬化物作为换能器的情况,以及这些材料如何有助于提高这些设备的性能。
Urea biosensors based in zeolites and chalcogenide-oxide semiconductor thin films as active materials: A review
Diagnosis of renal failure by measuring urea levels has been a topic of intense study in recent years. A major focus has been on improving the sensitivity, linearity, precision, accuracy, and selectivity of biosensors for measuring urea. Although various materials have been used in the fabrication of urea biosensors, ceramics, and chalcogenides have been less explored in this field. Recently, the use of ceramics such as zeolite has been investigated to improve enzyme immobilization methods in urea biosensors and their application in ion-selective membranes, to increase the specificity of the devices. While oxides have been widely used as transducers in urea biosensors, chalcogenide semiconductor materials from Group VI of the periodic table also show promising properties, such as chemical stability, to signal transduction capability, and improved electrical measurements. This review provides a comprehensive overview of recent research in urea biosensors, with a special emphasis on the use of ceramics for enzyme immobilization and chalcogenides as transducers and how these materials contribute to improving the performance of these devices.