Krieg Thomas, Madjarov Joana, Rosa Luis F M, Enzmann Franziska, Harnisch Falk, Holtmann Dirk, Rabaey Korneel
DECHEMA-Forschungsinstitut - Industrial Biotechnology, Frankfurt am Main, Germany.
IMTEK - Department of Microsystems Engineering, University of Freiburg, Freiburg, Germany.
Adv Biochem Eng Biotechnol. 2019;167:231-271. doi: 10.1007/10_2017_40.
From the first electromicrobial experiment to a sophisticated microbial electrochemical process - it all takes place in a reactor. Whereas the reactor design and materials used strongly influence the obtained results, there are no common platforms for MES reactors. This is a critical convention gap, as cross-comparison and benchmarking among MES as well as MES vs. conventional biotechnological processes is needed. Only knowledge driven engineering of MES reactors will pave the way to application and commercialization. In this chapter we first assess the requirements on reactors to be used for bioelectrochemical systems as well as potential losses caused by the reactor design. Subsequently, we compile the main types and designs of reactors used for MES so far, starting from simple H-cells to stirred tank reactors. We conclude with a discussion on the weaknesses and strengths of the existing types of reactors for bioelectrochemical systems that are scored on design criteria and draw conclusions for the future engineering of MES reactors.
从第一个电微生物实验到复杂的微生物电化学过程——所有这些都在一个反应器中进行。虽然反应器的设计和所用材料对所获得的结果有很大影响,但微生物电解池(MES)反应器却没有通用的平台。这是一个关键的惯例差距,因为需要对MES之间以及MES与传统生物技术过程进行交叉比较和基准测试。只有基于知识驱动的MES反应器工程才能为其应用和商业化铺平道路。在本章中,我们首先评估用于生物电化学系统的反应器的要求以及由反应器设计导致的潜在损失。随后,我们汇总了迄今为止用于MES的反应器的主要类型和设计,从简单的H型电解池到搅拌槽反应器。我们最后讨论了现有生物电化学系统反应器类型在设计标准方面的优缺点,并为MES反应器的未来工程设计得出结论。