A heat sterilizable remotely activated battery
Heat sterilizable remotely activated silver zinc battery for energy source of planetary lander capsule
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Heat sterilizable remotely activated silver zinc battery for energy source of planetary lander capsule
This presentation outlines the regimes of hypersonic flight and the application of ceramic materials.
Design considerations and performance features of yo-yo despinning mechanisms
Ethylene/acrylic acid separators for silver zinc battery applications
Regression analysis of cycle life data for long life 20 ampere hour sealed nickel cadmium battery
A general discussion of the battery requirements for the Galileo probe is presented. Problems arising from mission changes are emphasized.
Separator system development for primary zinc- silver oxide battery
Heat sterilizable battery program including development of Ag-Zn battery, electrochemistry, separators and case materials
Screening tests for separators in silver-zinc batteries
Ethylene/methyl acrylate copolymer synthesis for silver-zinc battery separators
Active compound formation on battery nickel oxide electrode during charge, overcharge, and discharge
This presentation describes the historical context and contemporary implementation of the NASA pre-launch quarantine program known as the Health Stabilization Program (HSP).
Absorber evaluation of alkaline battery separator systems with electrolyte wetting and wicking measurement
NASA’s Volatiles Investigating Polar Exploration Rover (VIPER) mission consists of a rover designed to explore the lunar south pole. One of the main challenges faced by the rover during the lunar polar exploration is the adverse thermal environment. Temperatures can fluctuate more than a 100°C between day and night; potentially dropping to −246°C in permanent shadow regions. To maintain the rover components within temperature limits, VIPER’s Thermal Management System (TMS) relies heavily on Loop Heat Pipes (LHPs). To assist the design of the thermal management system, an Engineering Design Unit (EDU) LHP has been tested in several opportunities under thermal vacuum (TVAC) environment. Of particular interest was the LHP performance in lunar gravity. To that end, the EDU LHP was tested at the nominal orientation within the rover assembly, vertical, and inclined such that the gravitational component acting on the LHP evaporator and condenser was 1/6g (lunar gravity is 1/6 of Earth gravity) when compared to the vertical configuration. This paper will examine the LHP conductance as one the key parameters to assess the effect of the gravity on the LHP performance.
Life cycle tests being run on the 50 A lightweight nickel hydrogen flight battery are discussed and the preliminary results are presented.
Report on work with SMAB in the summer of 2019 in support of STMD. Focuses on STMD Strategic Framework development and Power technology metric analysis.
Acceptance testing, performance characteristics, life cycling, and failed cell analysis in NASA SPACECRAFT battery evaluation program