二氧化硅纳米生物催化剂:向可持续和创新应用迈进

Priyanshu Jain , Amritpreet Kaur Minhas , Pawan Kaur , Palash Kumar Manna , Munish Puri , Colin J. Barrow , Shovon Mandal
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引用次数: 0

摘要

纳米生物催化剂是一种有用的技术发展,它将现代纳米技术和生物技术结合在一起,为提高生物加工应用中酶的活性、稳定性和性能带来了好处。与传统材料相比,纳米催化剂中使用的纳米支撑材料具有许多优点,包括框架坚固、形态可调、表面积增大、孔隙几何形状优异、固有特性以及支撑基质的独特光学特性。基于二氧化硅的纳米生物催化剂已被用于药物输送、光学成像、污染控制和其他催化过程。在这篇综述中,我们将追溯作为支撑基质的二氧化硅基纳米生物催化剂的发展历程,讨论它们的结构-性能关系,并讨论酶与表面之间的分子级相互作用。我们还研究了孔径、形态和表面修饰等参数对固定化效率和活性的影响。此外,还总结了未来可能应用于生物燃料生产和生物修复的硅基纳米生物催化剂的重要进展。总之,综述指出纳米二氧化硅生物催化剂是一种前景广阔的辅助材料,并提出了未来的发展方向和挑战。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Silica nanobiocatalyst: Advancements toward sustainable and innovative applications

Nanobiocatalyst is a useful technological development that brings together modern nanotechnology and biotechnology and offers benefits for enhancing the activity, stability, and performance of enzymes in bioprocessing applications. Nanosupports used in nanocatalysts have a number of advantages over conventional materials, including a robust framework, tunable morphology, increased surface area, excellent pore geometry, inherent properties, and distinctive optical properties for the supporting matrix. Nanobiocatalysts based on silica have been used in drug delivery, optical imaging, pollution control and other catalytic processes. In this review we trace the development of silica-based nano-bio catalysts as a supporting matrix, discussing their structure-property relationships and discuss molecular-level interactions between enzymes and surfaces. The influence of parameters such as pore size, morphology, and surface modifications on immobilisation efficiency and resulting activity is also examined. Additionally, a summary and significant advancements of silica -based nano biocatalysts with potential future applications in the production of biofuel and bioremediation is provided. Overall, the review identifies nano-silica biocatalysts as a promising support and suggests future directions and challenges.

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