Liu Liming, Wang Na, Laghari Azhar Ali, Li Hong, Wang Can, Zhao Zhenyu, Gao Xin, Zeng Qiang
School of Environmental Science and Engineering, Tianjin University, Tianjin, 300350 China.
School of Chemical Engineering and Technology, National Engineering Research Center of Distillation Technology, Collaborative Innovation Center of Chemical Science and Engineering (Tianjin), Tianjin University, Tianjin, 300350 China.
Curr Pollut Rep. 2023;9(1):46-59. doi: 10.1007/s40726-022-00247-2. Epub 2023 Jan 30.
In the context of COVID-19 sweeping the world, the development of microbial disinfection methods in gas, liquid, and solid media has received widespread attention from researchers. As a disinfection technology that can adapt to different environmental media, microwave-assisted disinfection has the advantages of strong permeability, no secondary pollution, etc. The purpose of this review is to put forward new development requirements for future microwave disinfection strategies by summarizing current microwave disinfection methods and effects. From the perspective of the interaction mechanism of microwave and microorganisms, this review provides a development direction for more accurate and microscopic disinfection mechanism research.
Compared to other traditional environmental disinfection techniques, microwave-assisted disinfection means have the advantages of being more destructive, free of secondary contamination, and thorough. Currently, researchers generally agree that the efficiency of microwave disinfection is the result of a combination of thermal and non-thermal effects. However, the performance of microwave disinfection shows the differences in the face of different environmental media as well as different types of microorganisms.
This review highlights the inactivation mechanism of microwave-assisted disinfection techniques used in different scenarios. Suggestions for promoting the efficiency and overcoming the limitations of low energy utilization, complex reactor design, and inaccurate monitoring methods are proposed.
在新冠疫情席卷全球的背景下,气体、液体和固体介质中微生物消毒方法的发展受到了研究人员的广泛关注。作为一种能够适应不同环境介质的消毒技术,微波辅助消毒具有穿透性强、无二次污染等优点。本综述的目的是通过总结当前微波消毒方法及其效果,对未来微波消毒策略提出新的发展要求。从微波与微生物相互作用机制的角度,为更精确、微观的消毒机制研究提供发展方向。
与其他传统环境消毒技术相比,微波辅助消毒手段具有更强的破坏性、无二次污染且更彻底等优点。目前,研究人员普遍认为微波消毒的效率是热效应和非热效应共同作用的结果。然而,面对不同的环境介质以及不同类型的微生物,微波消毒的性能表现存在差异。
本综述重点介绍了不同场景下微波辅助消毒技术的失活机制。针对提高效率以及克服能量利用低、反应器设计复杂和监测方法不准确等局限性提出了建议。