Creep properties and structure of a zinc- copper-titanium alloy prepared by powder metallurgy.
Zinc-base alloy creep resistance and structure in extruded wire prepared by powder metallurgy
CREEP RESISTANCE↗
SEARCH · Search NASA
Results for “titanium alloy”
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.
The mechanism of stress corrosion of titanium alloys exposed to chlorides at elevated temperatures status report for period ending 30 nov. 1965
Explore the source record for details and available documents.
Bechtoldt, C. J.↗
Creep properties and structure of a zinc- copper-titanium alloy prepared by powder metallurgy
Explore the source record for details and available documents.
Bartow, C. J.↗
Compatibility of titanium and titanium alloys with liquid and gaseous fluorine
Explore the source record for details and available documents.
Chafey, J. E.↗
Equipment and procedures for glass-bead peening titanium-alloy tanks
Precision glass-bead peening equipment for propellant tank surface corrosion protection
Bales, T. T.↗
X-ray measurement of residual stresses in titanium alloy sheet.
Ti alloy sheet residual surface stresses due to glass bead peening, sand blasting and vibratory tumbling measured by X ray diffraction
Braski, D. N.↗
Stress corrosion cracking of titanium alloys. II - An electrochemical mechanism.
Electrochemistry for stress corrosion crack propagation through Ti alloy in aqueous solutions
Beck, T. R.↗
The role of moisture and hydrogen in hot-salt cracking of titanium alloys.
Moisture and hydrogen role in hot chloride salt stress corrosion cracking of Ti alloys by radiotracer technique and mass spectrography
Louthan, M. R., Jr.↗
Stress corrosion susceptibility of titanium alloys in aqueous environment.
Stress corrosion cracking of alpha and alpha-beta Ti alloys in aqueous environment at ambient temperature, noting Al content and microconstituents
Mackay, T. L.↗
Hot salt stress corrosion of a titanium alloy - Generation of hydrogen and its embrittling effect.
Hot salt stress corrosion of Ti alloy, discussing hydrogen generation during elevated temperature exposure and embrittlement as manifestation of strain rate
Gray, H. R.↗
Precipitation of hydrides in titanium alloys
Hydrides precipitation in Ti-Al-Mo-V alloys using transmission electron microscopy, discussing crystal structure, activation energy, hydride- matrix phase interface, etc
Boyd, J. D.↗
Application of solidification theory to titanium alloys
Solidification theory application to Ti alloys, predicting microsegregation in binary alloys
Brody, H. D.↗
Electrochemical mechanism in the stress corrosion cracking of titanium alloys
Electrochemical mechanism in Ti alloys stress corrosion cracking, formulating mass transport kinetics model
Beck, T. R.↗
Hot-salt stress corrosion cracking of titanium alloys
Ti alloys crack initiation and propagation during hot salt stress corrosion
Louthan, M. R., Jr.↗
Titanium alloy pressure vessels in the manned space program
Stress corrosion cracking of Ti alloys in nitrogen tetroxide and methyl alcohol environments in Apollo spacecraft pressure vessels
Johnson, R. E.↗
Hot-salt stress-corrosion of a titanium alloy in a dynamic air environment
Ti alloy hot salt stress corrosion under simulated engine environmental conditions, presenting threshold data based on residual tensile ductility
Gray, H. R.↗
Vacuum deposition of stainless-steel coating onto titanium alloy plate and cryogenic and mechanical properties of the coated product
Stainless steel coatings vacuum deposition on Ti alloy plates, considering product cryogenic and mechanical properties
Carmichael, D. C.↗
Role of hydrogen in hot-salt stress-corrosion of a titanium alloy
Hydrogen embrittlement in hot salt stress corrosion of Ti alloy
Gray, H. R.↗