Sustained-load tests of partially cracked 0.220-in. solution-treated and aged Ti-6Al-4V
Load and fatigue tests on titanium aluminum vanadium alloy sheet metal
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Load and fatigue tests on titanium aluminum vanadium alloy sheet metal
Phase diagram of titanium vanadium carbon system in high temperature environment
Electron microscopic fractography to determine fatigue behavior of materials for supersonic transport - titanium, aluminum, molybdenum, and vanadium
Mechanism of superhyperfine structure inferred from large and small SHFS observed in electron spin resonance spectrum of vanadium ion doped tin oxide
Graphite effect on molybdenum-carbide composite properties and tungsten, vanadium, hafnium, tantalum, niobium, and zirconium metal systems
Salt stress corrosion of residually stressed titanium-aluminum-molybdenum-vanadium alloy sheet after high temperature exposure
Dynamic Jahn-Teller effect in excited state vanadium doped aluminum oxide
Electric heat treatment process for aluminum and titanium aluminum vanadium alloys
A group of silicide coatings developed for the T222 tantalum-base alloy have afforded over 600 hours of protection at 1600 and 2400 F during cyclic exposure in air. These coatings were applied in two steps. A modifier alloy was applied by slurry techniques and was sintered in vacuum prior to siliciding by pack cementation in argon. Application of the modifier alloy by pack cementation was found to be much less effective. The addition of titanium and vanadium to molybdenum and tungsten yielded beneficial modifier alloys, whereas the addition of chromium showed no improvement. After siliciding, the 15Ti- 35W-15V-35Mo modifier alloy exhibited the best performance; one sample survived 1064 hours of oxidation at 2400 F. This same coating was the only coating to reproducibly provide 600 hours of protection at both 1600 and 2400 F; in the second and third of three experiments, involving oxidation of three to five specimens at each temperature in each experiment, no failures were observed in 600 hours of testing. The slurry coatings were also shown to protect the Cb752 and D43 columbium-base alloys.
Chromite composition in chondrites using electron microprobe technique, discussing petrographic origin and vanadium abundance
Stress corrosion cracking of titanium aluminum vanadium alloy in nitrogen tetroxide under pressure
Nuclear radiation effects on aluminum, titanium, vanadium, and tin alloys at cryogenic temperature
Nucleation and growth of iron and vanadium thin films to observe polymorphic transformation using electron microscope
Structure of ordered compound vanadium carbide, discussing carbon vacancy in hexagonal superlattice and domain structure
Tungsten, titanium, vanadium, and molybdenum modifier alloys for coating of tantalum base alloys
Floating zone technique for vanadium carbide single crystal growth
Electrical, optical, magnetic and structural properties of titanium oxide, stressing transition difference with vanadium oxide
Transmission and backscatter coefficients of normally incident electrons on aluminum, copper, gold and vanadium, and some alloys