The bioremediation of emerging recalcitrant pollutants in wastewater via enzyme
biotechnology has been evolving as cost-effective with an input of low-energy technological …

Amongst all the bioelectrochemical system, single enzyme fuel cells have certain unique
features and capability of degrading organics and generate electricity under a low applied …

Highlights•Protein engineering has been widely used to improve biosensor performance.•
Enzymatic catalysis and electron transfer both play essential roles.•Oriented enzyme …

Cellobiose dehydrogenase (CDH) is capable of oxidizing cellobiose and related
carbohydrates and generating electrical current at carbon‐based electrodes through direct …

Enzymatic biofuel cells utilize oxidoreductases as highly specific and highly active
electrocatalysts to convert a fuel and an oxidant even in complex biological matrices like …

Direct electron transfer (DET) of enzymes on electrode surfaces is highly desirable both for
fundamental mechanistic studies and to achieve membrane-and mediator-less bioenergy …

Among the various types of enzyme-based biosensors, sensors utilizing enzymes capable of
direct electron transfer (DET) are recognized as the most ideal. However, only a limited …

The push for industrial sustainability benefits from the use of enzymes as a replacement for
traditional chemistry. Biological catalysts, especially those that have been engineered for …

Manganese peroxidase (MnP), a vital extracellular enzyme for the degradation of lignin and
other organic pollutants, has demonstrated immense potential for agricultural and …

Cellobiose dehydrogenase (CDH) is a bioelectrocatalyst that enables direct electron transfer
(DET) in biosensors and biofuel cells. The application of this bidomain hemoflavoenzyme for …