Layered enzyme electrodes integrate redox enzymes with conductive supports so the biocatalysts are electrically contacted to the electrode. The abstract presents them as a core platform for bioelectronics and optobioelectronics.
First-pass extracted concept
layered enzyme electrodes
Aliases
electrically contacted, layered enzyme electrodes, layered enzyme electrode
Extracted Explainers
What the tool is doing
Resources required
What problem it solves
Evidence Snippets
Supporting Sources
Linked Claims
Functionalized layered enzyme electrodes are applied as biosensor devices and electrically wired enzymes are discussed as catalytic interfaces in biofuel cells.
The application of the functionalized electrodes as biosensor devices is addressed and further application of electrically "wired" enzymes as catalytic interfaces in biofuel cells is discussed.
Covalent tethering of electron relay units, cross-linking of affinity complexes on relay-cofactor-functionalized electrodes, or surface reconstitution of apo-enzymes on relay-cofactor-functionalized electrodes yield bioelectrocatalytic electrodes.
Covalent tethering of electron relay units to layered enzyme electrodes, the cross-linking of affinity complexes formed between redox proteins and electrodes functionalized with relay-cofactor units, or surface reconstitution of apo-enzymes on relay-cofactor-functionalized electrodes yield bioelectrocatalytic electrodes.
Electrical contact in layered enzyme electrodes can be achieved using diffusional electron mediators including ferrocene derivatives, ferricyanide, quinones, and bipyridinium salts.
Electrical contact in the layered enzyme electrode is achieved by the application of diffusional electron mediators, such as ferrocene derivatives, ferricyanide, quinones, and bipyridinium salts.