Electroactive bacterial biofilms can function as living biomaterials that merge the
functionality of living cells with electronic components. However, the development of such …

Natural living conductive biofilms transport electrons between electrodes and cells, as well
as among cells fixed within the film, catalyzing an array of reactions from acetate oxidation to …

Here we demonstrate the method of electrochemical gating used to characterize electrical
conductivity of electrode-grown microbial biofilms under physiologically relevant conditions …

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 …

Bioelectronics brings together the fields of biology and microelectronics to create
multifunctional devices with the potential to address longstanding technological challenges …

Electroactive biofilm plays a crucial rule in the electron transfer efficiency of bio-
electrochemical systems (BES). However, the slow rate of interfacial electron transfer (IET) …

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

Bioelectrochemical systems couple electricity demand/supply to the metabolic redox
reactions of microorganisms. Generally, electrodes act not only as electron …

Electroactive biofilm plays a crucial rule in the electron transfer efficiency of microbial
electrochemical systems (MES). However, the low ability to form biofilm and the low …

Biosensors detect signals using biological sensing components such as redox enzymes and
biological cells. Although cellular versatility can be beneficial for different applications …