Electric field generated by a rotating magnetized sphere.
Electric field generated by rotating magnetized sphere causes surrounding plasma rotation
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Electric field generated by rotating magnetized sphere causes surrounding plasma rotation
Calculation of force acting on superconducting sphere in magnetic field
Monte Carlo analysis of sphere transmission experiments for average capture cross sections from slow neutron resonance spectroscopy data
Computer study to determine effect of balloon footprint and optical characteristics on material temperatures of sphere on lunar surface for high noon condition
Full scale ground inflation tests to evaluate structural and RF backscatter characteristics of Echo II prototype spheres as function of their internal pressures
Gravity anomalies and convection currents, examining sphere and cylinder sinking beneath surface of viscous fluid
Potential and charge density distributions derived for stationary charged sphere and charged body moving through plasma
Upper and lower bounds on partition functions for finite systems of rigid disks and spheres for high density limit
Integrating sphere reflectometer for measuring absolute hemispherical spectral reflectance of surfaces
Green formula and moment functions, predicting rate of radiative energy loss from boundaries of absorbing-emitting slab or sphere
Spheres of 2017-T4 aluminum with diameters of, 1/16, 1/8, and ½ inch were launched into semi-infinite targets of 2024-T4 and 1100-0 aluminum. The momentum transfer during impact was measured by means of a simple ballistic pendulum to which the target was attached. The ratio of target momentum to projectile momentum increased with increasing projectile velocity and with projectile diameter. Mass loss due to cratering, penetration, and crater diameter were also obtained for these experiments. It was noted that the variation of these parameters was also a function of the projectile diameter. No conclusive evidence was uncovered to explain this apparent scale effect. However, close examination of the various craters suggests that the cratering process is, in fact, different for the different size projectiles. The cause for this difference has yet to be resolved.
Necklace-like formations in Poiseuille flow of suspension of spheres
Streaming birefringence study of interaction of submicroscopic rods and spheres
Sodium salicylate fluorescent properties utilized in coatings of integrating sphere reflectometers for vacuum ultraviolet spectral regions
Monte Carlo analysis of sphere transmission data for gold and iodine slow neutron capture cross sections at 24 keV
Drag coefficients of microscopic spheres in free molecule flow
Optical scattering cross sections for polydispersions of dielectric spheres, showing dependence on ratio of third to second moment of shape and size distribution function