A new momentum integral method for treating magnetohydrodynamic and simple hydrodynamic entrance flows
Momentum integral method treating magnetohydrodynamic and simple hydrodynamic entrance flows
SEARCH · Search NASA
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.
Momentum integral method treating magnetohydrodynamic and simple hydrodynamic entrance flows
Precursor ionization effects on magnetohydrodynamic switch-on-shock structure
Solution of magnetohydrodynamic equations applied to solar magnetic field
Liquid metal magnetohydrodynamic energy conversion cycles for spacecraft supply
Electrothermal instabilities effects on Brayton and Rankine cycle magnetohydrodynamic space power generation systems
Escape of light hydrogen and helium atoms from earth atmosphere under action of magnetohydrodynamic oscillations
Design calculations for magnetohydrodynamic power conversion system for nuclear electric propelled unmanned spacecraft
Error analysis on moment distribution functions of magnetohydrodynamic plasma equations
Variational principle for calculating velocity profile and electric potential distribution in magnetohydrodynamic channel flow
Design and weight summary for baseline magnetohydrodynamic power system of nuclear electric propulsion spacecraft
Design of liquid metal magnetohydrodynamic power system for nuclear propulsion spacecraft
Magnetohydrodynamics - JPL Conference, Padasena, March 1970
Analytical models for magnetohydrodynamic turbulence and unstable plasma behavior
Floating potential profiles, electrode drops, and electrode temperature measurements in unseeded, supersonic argon magnetohydrodynamic generator
Closed cycle magnetohydrodynamic power generators with two channels
Performance of helium seeded with uranium in magnetohydrodynamic generator
Development of combined turbine-magnetohydrodynamic generator operating in Brayton cycle with NERVA nuclear reactor for space and ground applications
The effect of wall friction on magnetohydrodynamic generator performance is determined by introduction of a wall friction factor into the one-dimensional generator equations. This addition should be useful in improving generator analysis and determining optimum generator geometry. The curves presented can be used to determine the effects of changes in wall friction and generator performance. Wall friction has an increasing effect on the Mach number increases and a decreasing effect as the pressure drop across the generator increase.