Radiation effects on silver and zinc battery electrodes, III Interim report, Oct. 1965 - Jan. 1966
Radiation effects on silver-zinc battery electrodes
ELECTRODE↗
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Results for “sodium-ion batteries”
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.
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Fabrication and testing of battery separator material from modified polyethylene Final report
Fabrication and testing of battery separator material of modified polyethylene film
MATERIAL TESTING↗
Radiation effects of silver and zinc battery electrodes Final report, Apr. 1965 - Oct. 1966
Gamma radiation effects on silver and zinc battery electrodes
SILVER-ZINC BATTERY↗
NiCd space battery test data analysis project, phase 2 Quarterly report, 1 Jan. - 30 Apr. 1967
Cryptanalytic technique for evaluating nickel- cadmium battery cell failure characteristic data
FAILURE↗
DS2 Mars Microprobe Battery
Develop battery that will meet DS-2 power requirements under specified operational, environmental, and life requirements.
Microprobe Lithium Battery↗
Development of a sealed lead-acid battery for use in space Final report
Development of sealed lead-acid battery with lead- calcium grid for space application
LEAD ALLOY↗
Development of the dry tape battery concept Quarterly report no. 4, 9 Mar. - 9 Jun. 1966
Aqueous and nonqueous electrolytic actions, and energy density measurements for dry tape battery
ELECTROLYTE↗
Lithium Battery Space Experiment
The Jet Propulsion Laboratory will test a lithium battery (Li- TiS2) in orbit and examine the battery after it is returned to Earth. The results will be used to suggest design changes for a battery that may eventually be 3-4 times lighter than the equivalent NiCd battery.
battery↗
Program to develop an inorganic separator for a high temperature silver-zinc battery Quarterly progress report, 29 Apr. - 29 Jul. 1966
Inorganic separator for high temperature silver-zinc battery
SEPARATOR↗
Separator development for a heat sterilizable battery Quarterly report, 1 Jun. - 30 Sep. 1966
Filler and matrix composite materials for use in silver-zinc battery separators
COMPOSITE MATERIAL↗
Electrochemical characterization of systems for secondary battery application Second quarterly report, Aug. - Oct. 1966
Multisweep cyclic voltammetry for electrochemical characterization of systems for secondary battery application
VOLT-AMPERE CHARACTERISTICS↗
Separator development for a heat sterilizable battery Quarterly report, Jan. 1 - Mar. 31, 1967
Inorganic fillers and pressure effects on films for separators for heat sterilizable silver zinc battery
SILVER-ZINC BATTERY↗
Investigations leading to the development of a primary zinc-silver oxide battery of improved performance characteristics final report, 1 jul. 1963 - 29 jun. 1964
Primary zinc-silver oxide battery - separator material, construction, and prototype cell evaluation
ZINC-SILVER OXIDE BATTERY↗
Development of a low temperature battery for space probe applications third quarterly report, 24 dec. 1964 - 23 mar. 1965
Test of electrochemical cell and local action mechanisms of wet cell battery for space probe applications
SPACE PROBE↗
Research and development of the dry tape battery concept Quarterly report, 9 Jun. - 9 Sep. 1966
Dry tape battery concept - cathode and anode research, energy densities, tape cell preparation, and supporting research
CATHODE↗
Development and fabrication of advanced battery energy storage system Mid-term report, 27 Sep. 1966 - 26 Mar. 1967
Silver-cadmium secondary battery energy storage system using vented cells for manned orbital spacecraft
SPACECRAFT POWER SUPPLY↗
Challenges in Solid-State Batteries toward Applications in Extreme Space Environment
Explore the source record for details and available documents.
extreme environment↗
The Galileo probe Li/SO2 battery: The safest battery on Jupiter
The unique power requirement of NASA's Galileo Jupiter Probe are most readily met by a Li/SO2 battery; however, because this battery system is not space flight proven, extensive effort was required to qualify this device from the stand point of performance and safety. Due to the rather checkered safety record of the Li/SO2 system, safety has been foremost among the design considerations and has been addressed at the cell, battery and system level. The mission requirements which led to the choice of the Li/SO2 battery and the safety engineering which went into the battery and power system design are described.
Marcoux, L. S.↗