The Development of an Improved Zinc/silver-oxide Battery
Separator system development for primary zinc- silver oxide battery
SEARCH · Search NASA
Search indexed NASA NTRS and DOE OSTI research on propulsion, heat transfer, battery materials and energy systems. Follow report and document links to the original sources.
Quote a phrase for an exact phrase match. Source license links do not imply unrestricted reuse.
Separator system development for primary zinc- silver oxide battery
Primary zinc, silver oxide battery design
Gamma radiation effects determined on silver and zinc battery electrodes and silver-cadmium cells
Inorganic separator for high temperature silver- zinc battery
Radiation effects on silver and zinc electrodes in silver-zinc battery
Radiation effects on silver and zinc battery electrodes
Radiation effects on silver-zinc battery electrodes
Gamma radiation effects on silver and zinc battery electrodes
Inorganic separator for high temperature silver-zinc battery
Development of battery terminal seal for sealing electrolyte for periods of three to five years is discussed. Operating conditions of battery are defined. Components of electrolyte seal and method of production are reported. Schematic diagrams of device are included.
Development of membrane separators for sterilizable silver-zinc battery
Development program for separator and modified polyethylene separator material for silver-zinc battery, and program for development of sealed heat sterilizable batteries
Filler and matrix composite materials for use in silver-zinc battery separators
Inorganic fillers and pressure effects on films for separators for heat sterilizable silver zinc battery
Fabrication and test of polyethylene base material for heat sterilization resistance and for battery separators in silver-zinc alkaline cell
Development and testing of vivyl polymer separator materials for sterilized silver-zinc secondary battery
Polymer separator materials for heat sterilizable battery
Three different terminals were designed for usage in a 40 ampere/hour silver zinc battery which has a 45% KOH by weight electrolyte in a plastic battery case. Life tests, including thermal cycling, electrical charge and discharge for up to three years duration, were conducted on these three different terminal designs. Tests for creep rate and tensile strength were conducted on the polyphenylene oxide plastic battery cases. Some cases were unused and others containing KOH electrolyte were placed on life tests. The design and testing of nonleaking battery terminals for use with a KOH electrolyte in a plastic case are considered.