Protein-film voltammetry is seen as simplest methodology designed to study electrochemical features of lipophilic redox enzymes. By adsorbing a given redox enzyme on working electrode surface, it is possible to recognize the mechanism of action of many important proteins. Moreover, one can get access to relevant thermodynamic and kinetic parameters, which might reveal important chemical and physiological aspects of many enzyme-substrate interactions. Understanding the electrochemical behavior of redox enzymes contributes to a better understanding of many metabolisms in living systems. In addition, it also brings important information for designing of specific biosensors, simple medical devices, and bio-fuel cells. In this work, we present a...
Electrochemical processes where the initial electrochemically active entities arise from chemical re...
The supplementary MATHCAD file of this item is related to the work "Square‑wave voltammetry of two-s...
Surface reaction Ox(ads) + ne- = Red(ads), in which both participants are firmly adsorbed at the wor...
Protein-film voltammetry is considered as an efficient electrochemical tool in analysis of electroch...
Two-step electrode mechanisms coupled with intermediate reversible chemical reaction between both el...
Loss of the material from adsorbed protein-film and the enzymatic inhibition of initial redox form o...
Although the potential ramp of cyclic square wave voltammetry is defined more than 30 years ago, it ...
Protein-film voltammetry is recognized as a simple but useful technique that can provide access to t...
This MATHCAD File contains recurrent formula to simulate an electrochemical mechanism related to che...
Protein-film square-wave voltammetry of uniformly adsorbed molecules of redox lipophilic enzymes is ...
Many enzymes that contain quinone moieties or polyvalent metal ions (V, W, Mo, Mn) as redox active c...
Electrode transformation of many metal ions, drugs, and physiologically relevant compounds from wate...
This supporting material provides entire MATHCAD File that contains all formulas for simulation of c...
Access to kinetics of many drug-drug and enzyme-substrate reactions, in which the electrochemically ...
Redox mechanisms in which the redox transformation is coupled to other chemical reactions are of sig...
Electrochemical processes where the initial electrochemically active entities arise from chemical re...
The supplementary MATHCAD file of this item is related to the work "Square‑wave voltammetry of two-s...
Surface reaction Ox(ads) + ne- = Red(ads), in which both participants are firmly adsorbed at the wor...
Protein-film voltammetry is considered as an efficient electrochemical tool in analysis of electroch...
Two-step electrode mechanisms coupled with intermediate reversible chemical reaction between both el...
Loss of the material from adsorbed protein-film and the enzymatic inhibition of initial redox form o...
Although the potential ramp of cyclic square wave voltammetry is defined more than 30 years ago, it ...
Protein-film voltammetry is recognized as a simple but useful technique that can provide access to t...
This MATHCAD File contains recurrent formula to simulate an electrochemical mechanism related to che...
Protein-film square-wave voltammetry of uniformly adsorbed molecules of redox lipophilic enzymes is ...
Many enzymes that contain quinone moieties or polyvalent metal ions (V, W, Mo, Mn) as redox active c...
Electrode transformation of many metal ions, drugs, and physiologically relevant compounds from wate...
This supporting material provides entire MATHCAD File that contains all formulas for simulation of c...
Access to kinetics of many drug-drug and enzyme-substrate reactions, in which the electrochemically ...
Redox mechanisms in which the redox transformation is coupled to other chemical reactions are of sig...
Electrochemical processes where the initial electrochemically active entities arise from chemical re...
The supplementary MATHCAD file of this item is related to the work "Square‑wave voltammetry of two-s...
Surface reaction Ox(ads) + ne- = Red(ads), in which both participants are firmly adsorbed at the wor...