Engineering topics
Publications and source records attributed to Bockris, J. O..
This paper deals with the electrochemical production of hydrogen by depolarizing the oxygen evolution reaction using human feces and urine, which contains 30-40% bacteria and yeast. The electroactivity of graphite, tungsten carbide, perovskite and RuO2-coated Ebonex (Ti4O7) as anode materials are compared. The scale-up of the process in a laboratory-scale three-dimensional packed bed cell is discussed.
The concept of tunnelling in the theory of electron and proton transfer reactions has recently been questioned on the ground that the situation is a nonstationary one. It has been suggested that time-dependent perturbation theory should be applied to obtain the quantum mechanical transition probability. We have done this for a square barrier. The result for most reactions is the same as obtained by the WKB approximation.
Oxygen dissolution reaction in fuel cells and properties of metal electrodes
Oxygen dissolution reaction, activation energy values, and dendrite growth inhibition in fuel cell chemistry
Fuel cell studies on reversibility of organic reactions, oxygen dissolution reaction, and organic adsorption on zinc electrodes of silver zinc batteries
Electrocatalysts, dendritic deposition of zinc from alkaline solution, reversibility of organic reactions with platinum and gold electrodes, ion adsorption, and related studies on fuel cells
Research developments in fuel cell chemistry
Physiochemical properties of liquid mixtures of lithium chloride and lithium carbonate
Electrochemical behavior of tungsten bronzes, formation mechanism of zinc dendrite, and organic compounds for secondary batteries
Ion adsorption mechanism and electrochemical energy conversion on fuel cell electrode
Electrocrystallization of deposited zinc in dendritic form in operation of silver zinc and zinc air batteries
Ellipsometric measurement of ion adsorption on mercury, and reversibility of organic reactions /chemistry of fuel cell reactions/
Overpotential transients on rotating disk, current and potential distributions in cylinders, foamed electrolyte fuel cell, atomic scale electrode processes, and charge transfer complexes
Electrochemical and chemical catalysis differences due to applied field and solvent, discussing fuel cell reaction rates enhancement in electrochemical energy conversion
Fundamental chemistry of fuel cell reactions
Chemistry of fuel cell reactions - Potentials of zero charge, electrocatalysis, electrode reactions, model porous electrode, potential sweep, and proton transfer across double layers
Hydrogen-tritium separation factors for determining mechanism of proton transfer across double layers
Electrocatalysis influence on electrochemical energy conversion - activation of electrode by radiation - fuel cell technology