Patil Pravin D, Karvekar Aparna, Salokhe Sakshi, Tiwari Manishkumar S, Nadar Shamraja S
Department of Basic Science & Humanities, Mukesh Patel School of Technology Management & Engineering, SVKM's NMIMS, Mumbai, Maharashtra 400056, India.
Department of Biotechnology Engineering, Kolhapur Institute of Technology's College of Engineering, Kolhapur 416 234, India.
Int J Biol Macromol. 2024 Jun;271(Pt 1):132357. doi: 10.1016/j.ijbiomac.2024.132357. Epub 2024 May 19.
Integrating enzymes and nanozymes in various applications is a topic of significant interest. The researchers have explored the encapsulation of enzymes using diverse nanostructures to create nanomaterial-enzyme hybrids. These nanomaterials introduce unique properties that contribute to the additional activity along with the stabilization of enzymes in immobilized form, enabling a cascade of second-order reactions. This review centers on dual-activity nanozymes, providing insights into their applications in biosensors and biocatalysis. These applications leverage the enhanced catalytic activity and stability offered by dual-activity nanozymes. These nanozymes find promising applications in fields like bioremediation, offering eco-friendly solutions for mitigating environmental pollution while showing potential in medical diagnostics. The review delves into various techniques for creating enzyme-nanozyme hybrid catalysts, including adsorption, encapsulation, and incorporation methods. The review also addresses the challenges that must be overcome, such as overlapping catalytic surfaces and disparities in reaction rates in multi-enzyme cascade reactions. It concludes by presenting strategies to tackle these issues and offers insights into the field's promising future, suggesting that machine learning may drive further advancements in enzyme-nanozyme integration. This comprehensive exploration illuminates the present and charts a promising course for future innovations in the seamless integration of enzymes and nanozymes, heralding a new era of catalytic possibilities.
在各种应用中整合酶和纳米酶是一个备受关注的话题。研究人员探索了使用各种纳米结构来封装酶,以创建纳米材料-酶杂化体。这些纳米材料引入了独特的性质,有助于在固定化形式下稳定酶的同时增加其活性,从而实现一系列二级反应。本综述聚焦于双活性纳米酶,深入探讨其在生物传感器和生物催化中的应用。这些应用利用了双活性纳米酶提供的增强催化活性和稳定性。这些纳米酶在生物修复等领域有着广阔的应用前景,在减轻环境污染方面提供了环保解决方案,同时在医学诊断中也显示出潜力。该综述深入研究了制备酶-纳米酶杂化催化剂的各种技术,包括吸附、封装和掺入方法。该综述还讨论了必须克服的挑战,如多酶级联反应中催化表面的重叠和反应速率的差异。最后提出了解决这些问题的策略,并对该领域充满希望的未来进行了展望,表明机器学习可能推动酶-纳米酶整合的进一步发展。这一全面的探索阐明了当前情况,并为酶和纳米酶无缝整合的未来创新绘制了一条充满希望的道路,预示着催化可能性的新时代。