Abstract
An external electric field acts on the ionic transport in solids as a second driving force in addition to the chemical potential gradient. The acceleration of the spinel-forming reaction between two binary oxides under the influence of an external electric field is studied for a model system. The results indicate that the morphology during early stages of growth of the MgIn 2O 4 in the electric field is determined by the grain structure of the In 2O 3 layer. The reaction front progresses faster in the vicinity of grain boundaries in the In 2O 3 layer. Morphological instabilities due to specific transport properties in MgO, MgIn 2O 4 and In 2O 3 are less important. A simple kinetic model based on defect thermodynamics and linear transport theory is presented.
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