Yang Haoyi, Xu Zezheng, Xu Zetong, Li Yuanzhe
NUS College of Design and Engineering, National University of Singapore, Singapore 118429, Singapore.
UNSW Environment Leadership Program, The University of New South Wales, Kensington, NSW 2052, Australia.
Membranes (Basel). 2023 Jan 18;13(2):125. doi: 10.3390/membranes13020125.
The growth of biofilm, which is caused by microorganism accumulation and growth on wetted surfaces, may damage industrial piping systems, increase maintenance and cleaning costs for the system sterilization, and even divulge the immune system into high risk. This article systematically analyzes the biofilm interactions with piping surface materials from the perspectives of physical convection, and biological and chemical adhesion. The thermodynamics of the flow, bacterial surface sensing, and bio-communication are the most critical factors for biofilm attachment. Furthermore, experimental analysis methods as well as biofilm control and removal approaches, are also included in this study. Finally, the resistance and growth of biofilm, as well as the practical and advanced methodology to control the biofilm and challenges associated with technology, are also discussed. Moreover, this paper may also offer a significant reference for the practice and strategic applications to address the biofilm resistance issues in industrial piping.
生物膜的生长是由微生物在湿润表面的积聚和生长引起的,它可能会损坏工业管道系统,增加系统灭菌的维护和清洁成本,甚至使免疫系统陷入高风险状态。本文从物理对流、生物和化学粘附的角度系统地分析了生物膜与管道表面材料的相互作用。流动的热力学、细菌表面传感和生物通讯是生物膜附着的最关键因素。此外,本研究还包括实验分析方法以及生物膜控制和去除方法。最后,还讨论了生物膜的抗性和生长,以及控制生物膜的实用和先进方法以及与技术相关的挑战。此外,本文还可为解决工业管道中生物膜抗性问题的实践和战略应用提供重要参考。