Electrochemical engineering

[1] Electrochemical engineering combines the study of heterogeneous charge transfer at electrode/electrolyte interphases with the development of practical materials and processes.

Later, Hamilton Castner improved the process aluminium manufacturing and devised the electrolysis of brine in large mercury cells for the production of chlorine and caustic soda, effectively founding the chlor-alkali industry with Karl Kellner in 1892.

A critical advance was provided by the work of Carl Wagner and Veniamin Levich in 1962, who linked the hydrodynamics of a flowing electrolyte towards a rotating disc electrode with the mass transport control of the electrochemical reaction through a rigorous mathematical treatment.

[4] During the 60s and 70s Charles W. Tobias, who is regarded as the "father of electrochemical engineering" by the Electrochemical Society, was concerned with ionic transport by diffusion, migration, and convection, exact solutions of potential and current distribution problems, conductance in heterogeneous media, quantitative description of processes in porous electrodes.

In Switzerland, Norbert Ibl contributed to experimental and theoretical studies of mass transfer and potential distribution in electrolyses, especially at porous electrodes.

In addition, several individuals, including Kuhn, Kreysa, Rousar, Fleischmann, Alkire, Coeuret, Pletcher, and Walsh established many other training centers and, with their colleagues, developed important experimental and theoretical methods of study.

Other inorganic chemicals produced by electrolysis include: The established performance criteria, definitions, and nomenclature for electrochemical engineering can be found in Kreysa et al.[9] and an IUPAC report.

This diagram shows the relationship between electrochemical engineering and other disciplines.
Cell room of a chlor-alkali plant ca. 1920