Inorganic separator for high temperature silver-zinc battery Final report, Jul. 27, 1964 - Jul. 29, 1965
Inorganic separator for high temperature silver- zinc battery
SILVER-ZINC BATTERY↗
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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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Research and development of a high capacity nonaqueous secondary battery second quarterly report
Lithium and copper electrode studies in research and development of high capacity nonaqueous secondary battery
ELECTRODE↗
Research and development of a high capacity, nonaqueous secondary battery Final report, Oct. 1964 - Dec. 1965
High capacity nonaqueous secondary battery
BATTERY↗
GRX-810 and the Future of AM-Enabled High-Temperature Propulsion
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Propulsion↗
Phenylethynyl Terminated Imide (PETI) Composites Made by High Temperature VARTM
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Sayata Ghosh↗
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↗
Bipolar rechargeable lithium battery for high power applications
Viewgraphs of a discussion on bipolar rechargeable lithium battery for high power applications are presented. Topics covered include cell chemistry, electrolytes, reaction mechanisms, cycling behavior, cycle life, and cell assembly.
Hossain, Sohrab↗
Cutback Experimental Design for Evaluating Small Amounts of High Explosive
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Chemistry - Chemical explosives↗
A program to develop a high-energy density primary battery with a minimum of 200 watt hours per pound of total battery weight first quarterly report, jul. - sep. 1964
Highly conductive nonaqueous electrolytes for high energy battery
CONDUCTIVITY↗
Hygrothermal aging effects & degradation pathways of acrylate-based adhesive co-polymers for applications in high-performance flat-flex cables
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Chemistry↗
EnergyPlus Building Energy Simulations of High-Performance Vapor-Compression Based Cold Climate Water Heaters
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Zhang, Mingkan [ORNL] (ORCID:000000022224698X)↗
New X-ray Light Sources, Innovative Pressure Platforms, and Advances in AI: Opportunities for High-Pressure Research
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Materials science↗
High-Fidelity Simulation of Asteroid Airbursts at LLNL
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Astronomy and AstroPhysics↗
Research and development of a high capacity nonaqueous secondary battery Final report, Jul. 1963 - Sep. 1964
High capacity nonaqueous secondary battery - synthesis and electrochemical studies of dialkyl and diary beryllium compounds, organoberyllium complex salts, and other complex salt solutions
DRY CELL BATTERY↗
A predictive continuum framework for concrete subjected to high-velocity impact loading
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Engineering - Mechanical and civil engineering↗
Solid-State High Harmonic Generation in Common Large Bandgap Substrate Materials
Not provided.
Chemistry↗
Safe, High Power/Voltage Battery Module Design Challenges
NASA seeks to demonstrate a path for achieving safe, high power, and high performing Li-ion battery designs for the purpose of establishing design guidelines for our aeronautic and spacecraft applications. Safe means passively resistant to thermal runaway propagation of any single cell catastrophic thermal runaway. High power means capable of 3C continuous discharge without overheating. High performing means achieving > 160 Wh/kg, 200 Wh/L. The biggest challenge has been balancing a high flux light weight path for cell heat dissipation during the high rate discharge that minimizes thermal gradients between cells and also protects adjacent cells from the heat load of thermal runaway cell. Our solution includes an oscillating heat pipe spine that contacts every 18650 cell in the pack and careful cell design selection to maximize the range of initial temperatures conditions where the battery can safely complete the 3C discharge.
Thermal runaway↗