固定化脂肪酶作为生物传感器的挑战与机遇

Mahadevan Iyer, Ishita Shreshtha, Hrithik Baradia, Soham Chattopadhyay
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引用次数: 7

摘要

多年来,生物传感器科学取得了重大进展。第一代或最早一代生物传感器仅检测作为电子转移途径的产物或反应物基天然介质的减少或增加。随后的第二代生物传感器以生物分子为基础,使用人工氧化还原介质(如有机染料)来检测并提高结果的再现性和灵敏度。然而,最近一代的生物传感器大多是基于电子迁移的原理,有不同的标准,如选择性,精度,灵敏度等,可以用来量化,有效地。本文综述了固定化脂肪酶生物传感器的研究范围和应用。一般来说,甘油三酯或TG分子要么用气相色谱法检测,要么用化学或酶法检测。在固体载体上固定化脂肪酶可以提高酶在非水溶剂中的稳定性和可重用性。固定化脂肪酶生物传感器具有更好的酶性能,高效的产物回收和分离反应,在世界范围内引起了越来越多的兴趣。除了包括但不限于前面提到的优点外,固定化脂肪酶生物传感器也有其自身的一系列挑战,例如分析物与水介质的分配,反应速度较慢等,它们已在以下综述中进行了讨论。同时,我们也回顾了基于纳米技术的新一代生物传感器和生物电子器件的发展。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Challenges and opportunities of using immobilized lipase as biosensor
ABSTRACT Over the years, the science of biosensors has evolved significantly. The first or earliest generation of biosensors only detected either the decrease or increase of product or reactant-based natural mediators as the pathway for electron transfer. The subsequent second-generation biosensors were biomolecule based and used artificial redox mediators, such as organic dyes to detect and to increase the reproducibility and sensitivity of the result. However, the recent generation of biosensors work mostly on the principle of electron mobility, with different criteria, such as selectivity, precision, sensitivity, etc., can be used to quantify, efficiently. This review deals with exploring the scope and applications of Immobilized lipase biosensors. Generally, Triglycerides or TG molecules are either detected using Gas Chromatography or, using a chemical or an enzymatic assay. Immobilization of lipase on solid supports has led to increased stability and reusability of the enzyme in non-aqueous solvents. With better enzyme performance, efficient product recovery, and separation from the reaction, immobilized lipase biosensors are garnering increasing interest worldwide. Along with so many advantages including but not limiting to ones mentioned earlier, immobilized lipase-based biosensors come with their own set of challenges, such as the partitioning of the analyte with aqueous medium, slower reaction rate, etc., they have been discussed in the following review. Alongside, we also review the development of a new generation of biosensors and bioelectronic devices based on nanotechnology.
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