The chapter highlights the role and importance of electroactive biofilm (EAB) formation in
microbial electrochemical system (MES). The strategies for the development of such biofilm …

Biofilms are used in wastewater treatment and in the production of valuable compounds.
Bioelectrochemical system (BES) technology represents one practical application of …

The scale up of bioelectrochemical systems (BESs) is a challenging problem that limits the
advancement and practical implementation of the technology. The goal of this work is to …

The growth of anodic electroactive microbial biofilms from waste water inocula in a fed-batch
reactor is demonstrated using a three-electrode setup controlled by a potentiostat. Thereby …

The applications of bioelectrochemical systems (BESs) in the field of environment and
energy are achieved through the bioelectrocatalytic process of electroactive biofilms. As a …

The bioelectrochemical system (BES) is a sustainable technology that can directly produce
bioelectricity while treating wastewater by using exoelectrogenic microorganisms as …

The negative impact of biofilms in both the industry and the human health, demands the
development of strategies for the in situ and early detection of biofilm formation. In this …

Electroactive biofilm (EAB) has garnered significant attention due to its effectiveness in
pollutant remediation, electricity generation, and chemical synthesis. However, achieving …

The role of oxygen in anodic biofilms is still a matter of debate. In this study, we tried to
elucidate the structure and performance of an electrogenic biofilm that develops on air …

While most biological materials are insulating in nature, efficient extracellular electron
transfer is a critical property of biofilms associated with microbial electrochemical systems …