Influence of heat input on hypersonic flows past a sphere and a circular cylinder
Heat input influence on hypersonic flows past sphere and circular cylinder
Schneider, W.↗
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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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Experimental studies in magneto-fluid dynamics - Flow over a sphere with a cylindrical afterbody.
Pressure distribution measurement over sphere with cylindrical afterbody in magnetofluid dynamic flow, showing drag decrease at large magnetic field
Maxworthy, T.↗
A passive method for scanning the celestial sphere.
Celestial sphere scanning by passive method applicable to space missions requiring long lifetime and moderate pointing accuracies
Fleig, A. J., Jr.↗
Theoretical seismograms of spheroidal type on the surface of a gravitating elastic sphere. III - Case of a homogeneous mantle with a liquid core.
Spheroidal disturbances theoretical seismograms on surface of gravitating elastic sphere with homogeneous mantle and liquid core, considering gravity and polar radial stress effects
Landisman, M.↗
Experiments on the flow around a sphere at high Reynolds numbers.
Fluid flow around sphere at high Reynolds number by measuring pressure distribution, considering boundary layer separation, tunnel blockage, etc
Maxworthy, T.↗
Improved linings for integrating spheres
Sphere surface is covered with plain weave of glass fibers coated with polytetrafluoroethylene and one or two layers of magnesium oxide vapor. The resultant lining is suitable for measurement of radiation in the ultraviolet, visible, and near-infrared wavelengths, is not damage prone, and is easily cleaned.
Fergerson, P. O.↗
Aeronautical characteristics of an oblate spheroid and a sphere at Mach numbers from 1.70 to 10.49
Drag coefficients of oblate spheroid and sphere at Mach numbers from 1.70 to 10.49
Jernell, L. S.↗
Status of Passive Inflatable Falling-Sphere Technology for Atmospheric Sensing to 100 Km
Research and development of falling spheres for meteorological rocket soundings of upper atmosphere
Source record↗
A summary of AFCRL passive-sphere development efforts and experience
Falling spheres for meteorological rocket sounding
Wright, J. B.↗
Operational experience with passive falling spheres on the AFETR
Operational performance of falling sphere systems for measuring meteorological parameters of upper atmosphere
Daniel, O. H.↗
Capability of NOL ballistics ranges for obtaining sphere drag coefficient data
Ballistic ranges for measuring drag coefficients of spheres
Lyons, W. C., Jr.↗
An assessment of sphere drag coefficient data
Wind tunnel test data for falling sphere drag coefficient determination
Heinrich, H. G.↗
Adequacy of the passive inflated falling sphere technique
Inflated falling sphere for high altitude sounding at radar site
Mc Watters, K. D.↗
A capability model for passive spheres at high altitudes
Error model for falling sphere measurements on atmospheric density
Phibbs, R. G.↗
Requirements for tracking radar for falling spheres
Error analysis on radar tracking of falling spheres
Brockman, W. E.↗
Some properties of data from falling sphere soundings
Data evaluation for upper atmosphere falling sphere soundings
Quiroz, R. S.↗
Data from falling sphere experiments including comparison tests between different systems
Data comparison for falling sphere experimental measurements on atmospheric density
Smith, L. B.↗
Results from several experiments at White Sands Missile Range aimed at assessment of falling-sphere density data
Evaluation of atmospheric density data obtained by inflatable falling spheres
Olsen, R.↗