Malvankar et al. reply—Yates et al. claim1 to have replicated the methods we used in our
paper entitled 'Tunable metalliclike conductivity in microbial nanowire networks'2. However …

Microbial biofilms produce electrochemical interactions with metal surfaces by following a
wide variety of different electron exchange pathways. Reviewing the mechanisms identified …

Revealing the pathways of electron transport within electrochemically active biofilms (EABs)
is of great importance. Here, mixed-culture EABs are grown on three interdigitated …

Microbial electrochemistry has from the onset been recognized for its sensing potential due
to the microbial ability to enhance signals through metabolic cascades, its relative selectivity …

Electrotaxis is the property of cells to sense electric fields and use them to orient their
displacement. This property has been widely investigated with eukaryotic cells but it remains …

Recent studies of electrochemically active bacteria paint a mechanistic picture where
multistep hopping of electrons can be driven by redox gradients, allowing electron …

The mechanism of electron transport across electroactive biofilms (EABs) is of high interest
and still a matter of debate. Quantitative assessments of their redox conduction take …

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 …

More than 65% of bacterial infections are caused by biofilms. However, standard biofilm
susceptibility tests are not available for clinical use. All conventional biofilm models suffer …

Optimization of bio-electrochemical systems (BESs) relies on a better understanding of
electro-active biofilms (EABfs). These microbial communities are studied with a range of …