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
Engineering topics
Publications and source records attributed to Morris, J. F..
Iterative calculation model and results for plane collisionless sheaths between field modified emitter and thermally ionized cesium plasma
Equations for determining substrate surface coverages from arrival rates and desorption characteristics of adsorbate ions and atoms
FORTRAN computer programs for plane collisionless sheaths between field modified emitter and thermally ionized plasma exemplified by cesium
Pairs of emitter and collector sheaths for cesium thermionic diodes
Experimental determination of pulse code modulation signal to noise ratio, and methods of signal analysis for pulse code modulation analog data
Plane collisionless sheath effects between field modified emitting electrodes and thermally ionized plasmas and thermionic diode configurations
Isothermal diode as study basis for internal complex controlling thermionic energy conversion
Small plasma probes with guard rings and thermocouples
Thermal field emission calculations for terminated image potential
Theory for thermal field emission with image potential terminated at Fermi level
Terminated image potential for study of electron emission - transmission coefficients
Electric power generation for space vehicles - batteries, solar cells, thermoelectric converters, magnetohydrodynamic converters, fuel cells, and thermionic converters
Damping of quantized longitudinal electron oscillations in nondegenerate plasma
Damping of quantized longitudinal electron oscillations in nondegenerate plasma
Large quantities of high-temperature air are needed for work with hypersonic flight problems. At temperatures above 2500 degrees Reamur, where conventional heat exchangers have exceeded their material limits, regenerative pebble-bed exchangers may be used with high-temperature refractories. The design of such a heat exchanger requires the use of reliable heat-transfer coefficients for a packed bed. Considerable data are available on the subject, but they spread over two orders of magnitude at any one Reynolds number value. The facility from which the present data were obtained is used at the Lewis Research Center (NASA) for testing air-breathing engine components. The purpose of this work was to obtain heat-transfer data during the initial operation of the bed as a guide to the design of similar equipment. The facility was designed with a conservative estimate of the heat-transfer coefficient, and is shown schematically. Temperatures throughout the packing were measured continuously so that point values of the coefficient might be obtained.
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Turbojet thrust augmentation with fuel-rich afterburning of hydrogen, diborane, and hydrazine