Studies in fundamental chemistry of fuel cell reactions Semiannual progress report, 1 Jul. - 31 Dec. 1966
Fundamental chemistry of fuel cell reactions
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Fundamental chemistry of fuel cell reactions
Studies in fundamental chemistry of fuel cell reactions
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The development of new analytical methods most often focus on novel materials used to impart selectivity or sensitivity to the protocol. Ionic liquids (ILs) are a class of solvents that have been extensively explored as promising materials for various applications and continue to be explored due to their tunable physicochemical properties. These materials possess melting temperatures below 100 °C and can interact with analytes through a multitude of interactions afforded by their readily tunable chemical structure. These interactions include electrostatic, dispersive, hydrogen bonding, π–π, and dipolar interactions and can be modulated or strengthened based on the functional groups present within the chemical structure. ILs consist predominately of organic cations and either inorganic or organic anions, both of which can be functionalized with desired moieties. Common cation and anions found in IL chemical structures are presented in Figure 1. The unique polarity afforded by the ionic structure has also led to their increasing use in areas including sample preparation, chemical separations, electrochemistry, mass spectrometry, and spectroscopy.
Chemical reactions, catalytic activity, and electrode behavior in fuel cells
Chemistry of fuel cell reactions - Potentials of zero charge, electrocatalysis, electrode reactions, model porous electrode, potential sweep, and proton transfer across double layers
Chemistry, volt-ampere characteristics, capacity, and adsorption studies on electrodes for fuel cells
Progress summaries of studies in materials, components, and basic chemical reactions of fuel cells
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/
Ion adsorption mechanism and electrochemical energy conversion on fuel cell electrode
Electrochemical behavior of tungsten bronzes, formation mechanism of zinc dendrite, and organic compounds for secondary batteries
Research developments in fuel cell chemistry
Anion adsorption at solid electrolyte interfaces, organic compounds for high energy batteries, oxygen dissolution reaction, sodium diffusion in crystals and related studies for fuel cells
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
Fuel cell studies on reversibility of organic reactions, oxygen dissolution reaction, and organic adsorption on zinc electrodes of silver zinc batteries
Oxygen dissolution reaction, activation energy values, and dendrite growth inhibition in fuel cell chemistry
Oxygen dissolution reaction in fuel cells and properties of metal electrodes