Jiang Miao, Li Yanran
Key Laboratory of Systems Bioengineering, Ministry of Education, College of Chemical Engineering, Tianjin University, Tianjin 300350, China.
Sheng Wu Gong Cheng Xue Bao. 2023 Mar 25;39(3):881-897. doi: 10.13345/j.cjb.220468.
Facing the increasingly severe energy shortage and environmental pollution, electrocatalytic processes using electroactive microorganisms provide a new alternative for achieving environmental-friendly production. Because of its unique respiratory mode and electron transfer ability, MR-1 has been widely used in the fields of microbial fuel cell, bioelectrosynthesis of value-added chemicals, metal waste treatment and environmental remediation system. The electrochemically active biofilm of . MR-1 is an excellent carrier for transferring the electrons of the electroactive microorganisms. The formation of electrochemically active biofilm is a dynamic and complex process, which is affected by many factors, such as electrode materials, culture conditions, strains and their metabolism. The electrochemically active biofilm plays a very important role in enhancing bacterial environmental stress resistance, improving nutrient uptake and electron transfer efficiency. This paper reviewed the formation process, influencing factors and applications of . MR-1 biofilm in bio-energy, bioremediation and biosensing, with the aim to facilitate and expand its further application.
面对日益严峻的能源短缺和环境污染问题,利用电活性微生物的电催化过程为实现环境友好型生产提供了一种新的选择。由于其独特的呼吸模式和电子转移能力,MR-1已广泛应用于微生物燃料电池、增值化学品的生物电合成、金属废物处理和环境修复系统等领域。MR-1的电化学活性生物膜是电活性微生物电子转移的优良载体。电化学活性生物膜的形成是一个动态而复杂的过程,受电极材料、培养条件、菌株及其代谢等多种因素影响。电化学活性生物膜在增强细菌环境抗逆性、提高养分吸收和电子转移效率方面发挥着非常重要的作用。本文综述了MR-1生物膜在生物能源、生物修复和生物传感方面的形成过程、影响因素及应用,旨在促进和拓展其进一步应用。