Flagella are widely expressed in electroactive biofilms; however, their actual role is
unknown. To understand the role of flagella, two Geobacter sulfurreducens strains (KN400 …

Shewanella oneidensis is able to carry out extracellular electron transfer (EET), although its
EET efficiency is largely limited by low flavin concentrations, poor biofilm forming‐ability, and …

Microbial electrosynthesis (ME) seeks to use electroautotrophy (the reduction of CO2 by
microbial electrode catalysts) to generate useful multi-carbon compounds. It combines the …

Microbial electrochemical technologies (METs) have emerged in recent years as a
promising alternative green source of energy, with microbes consuming organic matter to …

Concerns regarding increased antibiotic resistance arising from the emergent properties of
biofilms have spurred interest in the discovery of novel antibiotic agents and techniques to …

Shear stress is an important factor that affects the formation and structure of anode biofilms,
which are strongly related to the extracellular electron transfer phenomena and bioelectric …

The electrode material is one of the key components of a bioelectrochemical system (BES),
serving as substratum for the electroactive biofilm development and hence playing a pivotal …

Once pathogens form a biofilm, they become more tolerant to drugs and quicker to recover
from physical removal than planktonic cells. Because such robustness of a biofilm is …

Bacteria often reside at surfaces as complex biofilms in which an exopolysaccharide matrix
entraps the population while allowing access to its chemical environment. There is a …

The direct monitoring of biofilm formation enables valuable insights into the industrial
processes, microbiology, and biomedical applications. Therefore, in the present study, nano …