Glass- boron-, and graphite-filament-wound resin composites and liners for cryogenic pressure vessels.
Glass, boron and graphite filament wound resin composites and liners for cryogenic pressure vessels
Hanson, M. P.↗
SEARCH · Engineering Papers
Results for “vessel”
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.
Transmission characteristics of axial waves in blood vessels.
Axial waves in blood vessels, determining phase velocities and damping, noting anisotropic behavior of artery wall
Anliker, M.↗
Pressure-diameter relations of capillaries and small blood vessels in frog lung.
Static pressure-diameter measurements on small pulmonary blood vessels of frogs, analyzing capillary septal area as function of intravascular pressures noting high compliance
Castle, B. L.↗
Elastic and plastic stresses at weld sinkages and other discontinuities in pressure vessels
Mismatch and weld sinkage problems of pressure vessel geometric discontinuities studied in design graphs and test program
Holmes, A. M. C.↗
Analysis of filament-wound dome and polar boss of metal-lined glass-filament-wound pressure vessels
Structural analysis of glass filament wound, aluminum lined pressure vessel designs
Landes, R. E.↗
Comparison of Flaw Growth Characteristics Under Cryogenic Proof and Ambient Test Conditions for Apollo Titanium Pressure Vessels
Comparison of flaw growth characteristics under cryogenic proof and ambient test conditions for Apollo titanium pressure vessels
Bixler, W. D.↗
Cryoformed 301 stainless steel for pressure vessels
Manufacture and performance of cryogenically formed stainless steel pressure vessels for liquid gas storage
Irvine, C. N.↗
Static and dynamic fatigue behavior of glass filament-wound pressure vessels at ambient and cryogenic temperatures
Static and dynamic fatigue behavior of glass filament-wound plastic pressure vessels at ambient and cryogenic temperatures
Hanson, M. P.↗
Elastic and plastic analysis of pressure vessel weld lands with mismatch
Elastic and plastic analysis of pressure vessel weld lands with mismatch
Holmes, A. M. C.↗
Fracture mechanics analysis of Apollo block 1 titanium alloy pressure vessels /command and service modules/
Linear elastic fracture mechanics analysis of titanium alloy pressure vessels of block 1 Apollo command and service modules
Ecord, G. M.↗
An investigation of Apollo titanium pressure vessel welds made with commercially pure filler wire
Hydride formation analysis on Apollo titanium pressure vessel welds made with commercial wire
Ecord, G. M.↗
Nonlinear analysis of pressure and shock waves in blood vessels
Nonlinear analysis of pressure waves and shock waves in blood vessels
Rockwell, R. L.↗
Comparison of Inconel 718 and aluminum 2219 for a high-pressure hydrogen vessel.
Inconel 718 and Al 2219 alloys surface flawed specimens fracture toughness and flaw growth comparison for high pressure hydrogen vessel
Taylor, J. L.↗
The performance of glass-filament-wound pressure vessels with metal liners at cryogenic temperatures
Metal lined glass filament-wound pressure vessel performance at cryogenic temperatures, discussing fibers, resins and liners
Morris, E. E.↗
Titanium pressure vessel manufacturing techniques
Saturn booster Ti alloy pressure vessel forging, heat treatment and welding, discussing machining, cleaning and tooling
Garfield, G.↗
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.↗
Slope discontinuities in pressure vessels
Shell of revolution /pressure vessel/ with meridional slope discontinuity, calculating pressurization effect on stresses by computer program
Skogh, J.↗
Fracture mechanics evaluation of Ti-6A1-4V pressure vessels
Computer program calculates maximum potential flaw depth after specific cyclic pressure history. Kobayashi's solution to critical stress intensity equation and empirical relation for flaw growth rate are used. Program assesses pressure vessels of any material but only cylindrical or spherical shapes.
Cox, D. G.↗