Numerical studies of the steady-state plasma sheath problem
Numerical solutions to steady state plasma sheath problems
PLASMA SHEATH↗
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Surface current excitation on an inhomogeneously sheathed plasma-immersed cylinder by electromagnetic and electrokinetic waves.
Inhomogeneous sheath effect on surface currents and scattering cross section of plasma-immersed cylinder in presence of electromagnetic and electrokinetic waves
PLASMA SHEATH↗
Metal sheath improves thermocouple using graphite in one leg
Thermocouple using graphite in one leg is sealed in a moistureproof metal sheath which permits high emf output and good mechanical strength.
Source record↗
Metal boot permits fabrication of hermetically sealed splices in metal sheathed instrumentation cables
Metal boot splices hard sheathed instrumentation cables used with high temperature strain gages and thermocouples. Silver brazing the conductors together, hermetically seals the splice. This boot is a highly reliable sealed splice which is equally effective at cryogenic temperatures, high temperatures, nuclear environments, and combinations of the above.
Chambers, G.↗
Excitation of surface currents on a plasma- immersed cylinder by electromagnetic and electrokinetic waves. I - The vacuum sheath.
Vacuum sheath effect on surface currents excited on plasma-immersed cylinder by EM and EK plane waves
PLASMA CYLINDER↗
Thoriated tungsten tube provides improved high temperature thermocouple sheath
Thermocouple tubing of thoriated tungsten with a very fine grain structure produces a small-diameter sheath capable of operating up to 5000 degrees R in a hydrogen and graphite environment. This tubing remains ductile and resists both grain growth and carbiding even after prolonged exposure to temperature.
Zellner, G. J.↗
Computer programs for plane collisionless sheaths between field-modified emitter and thermally ionized plasma exemplified by cesium
FORTRAN computer programs for plane collisionless sheaths between field modified emitter and thermally ionized plasma exemplified by cesium
Button, S. L.↗
Pairs of emitter and collector sheaths for cesium thermionic diodes
Pairs of emitter and collector sheaths for cesium thermionic diodes
Morris, J. F.↗
Effects of the plasma sheath on antenna performance
Methods for evaluating radiation patterns and near field effects of plasma sheath on antenna performance
Hodara, H.↗
Dynamics of a one-dimensional plasma sheath
Dynamics of bounded one dimensional plasma sheath
Hohl, F.↗
Emitter and collector sheaths for cesium thermionic diodes with polycrystalline tungsten electrodes
Emitter and collector sheaths for cesium thermionic diodes with polycrystalline tungsten electrodes
Morris, J. F.↗
The Kosenbluth-Ferraro-Dungey sheath
Rosenbluth-Ferraro-Dungey sheath model of interaction between cold collisionless plasma and vacuum magnetic field
Buffalano, C.↗
Collisionless sheaths between field-modified emitters and thermally ionized plasmas exemplified by cesium
Iterative calculation model and results for plane collisionless sheaths between field modified emitter and thermally ionized cesium plasma
Morris, J. F.↗
Boundary conditions and iterative procedures for plasma sheath problems
Boundary conditions and iterative procedures for plasma sheath problems
Parker, L. W.↗
Effects of the plasma sheath on antenna performance.
Antenna radiation patterns and near field effects by solving aperture and plasma sheath problems independently in reentry communications
Hodara, H.↗
Collisionless plasma sheath with transverse flow.
Transverse bulk flow effect on collisionless plasma sheath structure, noting transverse ion velocity variations
Hu, P. N.↗
Plane collisionless sheaths between field- modified emitting electrodes and thermally ionized plasmas exemplified by cesium.
Plane collisionless sheath effects between field modified emitting electrodes and thermally ionized plasmas and thermionic diode configurations
Morris, J. F.↗
Surface effects on the structure of a collisionless sheath near an electrode.
Surface effects on collisionless sheath structure near electrode, assuming Maxwellian distribution functions and stability dependent on accommodation coefficient value
Hassan, H. A.↗