Silver-Zinc Battery Separator Material Development
Silver zinc battery separator material development and production
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Silver zinc battery separator material development and production
Hot spot temperature of silver zinc batteries as function of dimensions, current, electrodes and thermal conductivity
Inorganic separator for high temperature silver- zinc battery
Remote activated silver zinc battery performance
Standard production procedures for manufacturing silver zinc batteries are evaluated and modified to reduce oxygen generation during open circuit stand and discharge. Production predictions of several variable combinations using analysis models are listed for minimum gassing, with emphasis on the concentration of potassium hydroxide in plate formation. A recommendation for work optimizing the variables involved in plate processing is included.
Design and test results for sealed secondary silver-zinc batteries
Radiation effects on silver and zinc electrodes in silver-zinc battery
Radiation effects on silver and zinc battery electrodes
Methods necessary to provide a remotely activated, silver zinc battery capable of an extended activated stand while in a sealed condition were investigated. These requirements were to be accomplished in a battery package demonstrating an energy density of at least 35 watt hours per pound. Several methods of gas suppression were considered in view of the primary nature of this unit and utilized the electroplated dendritic zinc electrode. Amalgamation of the electrode provided the greatest suppression of gas at the zinc electrode. The approach to extending the activated stand capability of the remotely activated battery was through evaluation of three basic methods of remote, multi-cell activation; 1) the electrolyte manifold, 2) the gas manifold and 3) the individual cell. All three methods of activation can be incorporated into units which will meet the minimum energy density requirement.
Silver-zinc batteries power supply for Atmosphere Explorer-B spacecraft, cells, design, and charging technique
Gamma radiation effects on silver and zinc battery electrodes
Radiation effects on silver-zinc battery electrodes
Ethylene/acrylic acid separators for silver zinc battery applications
Inorganic separator for high temperature silver-zinc battery
Performance characteristics determined and materials tested for silver-zinc batteries with inorganic compound separators
Ethylene/methyl acrylate copolymer synthesis for silver-zinc battery separators
Gamma radiation effects determined on silver and zinc battery electrodes and silver-cadmium cells
Polyphenylene oxide case and cover mechanical properties determination, and component reliability tests for silver-zinc battery with inorganic separators