White-rot fungus is able to secrete laccase, which can reduce O2 to H2O and has been
widely used in enzymatic fuel cells. In this work, a strain of white-rot fungus, Coriolus …

The fungi associated with termites secrete enzymes such as laccase (multi-copper oxidase)
that can degrade extracellular wood matrix. Laccase uses molecular oxygen as an electron …

White rot fungi (WRF) are planted on the cathode of a ceramic microbial fuel cell (C-MFC) to
enhance its removal of copper from wastewater. When P. eryngii was planted in the air …

An improved microbial fuel cell with laccase as the oxygen reduction catalyst - Energy &
Environmental Science (RSC Publishing) DOI:10.1039/B815331K Royal Society of Chemistry …

Wood-degrading white-rot fungi produce many extracellular enzymes, including the multi-
copper oxidative enzyme laccase (EC 1.10. 3.2). Laccase uses atmospheric oxygen as the …

The main limiting factor in Microbial Fuel Cell (MFC) power output is the cathode, because of
the high overpotential for oxygen reduction. Oxygen reducing biocathodes can decrease this …

A microbial fuel cell using aerobic microorganisms as the cathodic catalysts is described. By
using anaerobic sludge in the anode and aerobic sludge in the cathode as inocula, the …

The abiotic cathodes usually require a catalyst such as Pt to enhance power production,
increasing the cost and lowering the operational sustainability. In this paper, the …

The cathode reaction is one of the most seriously limiting factors in a microbial fuel cell
(MFC). The critical dissolved oxygen (DO) concentration of a platinum-loaded graphite …

In the present work, power generation and substrate removal efficiencies of long-term
operated microbial fuel cells, containing abiotic cathodes and biocathodes, were evaluated …