Redox catalysis. Theory for a Nernstian reaction coupled to an irreversible reaction
Andrew Mills, Neil McMurray
Abstract
Andrew Mills, Neil McMurray
Abstract
An electrochemical model based on the Wagner–Traud additivity principle has been used to predict the kinetics of catalysis of a redox reaction involving a Nernstian reduction reaction (Ox1+n1 e–→ Red1) coupled to an irreversible oxidation reaction (Red2→ Ox2+n2 e–). The mixture current (imix) flowing through a redox catalyst may be diffusion-controlled, partly diffusion-controlled or activation-controlled depending upon the mixture potential adopted by the redox catalyst. Kinetic equations are derived for each of these cases and predictions are made about the mixture current as a function of [Ox1], [Red1], catalyst surface area and temperature. In addition,xs a general method for reconstructing [Ox1]vs. time decay curves is described.
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An electrochemical model based on the Wagner–Traud additivity principle has been used to predict the kinetics of catalysis of a redox reaction involving a Nernstian reduction reaction (Ox1+n1 e–→ Red1) coupled to an irreversible oxidation reaction (Red2→ Ox2+n2 e–). The mixture current (imix) flowing through a redox catalyst may be diffusion-controlled, partly diffusion-controlled or activation-controlled depending upon the mixture potential adopted by the redox catalyst. Kinetic equations are derived for each of these cases and predictions are made about the mixture current as a function of [Ox1], [Red1], catalyst surface area and temperature. In addition,xs a general method for reconstructing [Ox1]vs. time decay curves is described.
Key concepts: Redox, Catalysis, Chemistry, Half-reaction, Diffusion, Kinetics, Electrochemistry, Reaction rate