Dynamics and stability of ferrofluids, surface interactions
Formulation of incompressible ferrohydrodynamics of ferrofluid with nonlinear magnetization
Engineering topics
Publications and source records attributed to Melcher, J. R..
Formulation of incompressible ferrohydrodynamics of ferrofluid with nonlinear magnetization
Interfacial charge relaxation overstability in tangential electrical field, discussing electromechanical polarization surface waves propagation and dielectrophoretic orientation of liquids in zero gravity space
Stability criterion for initially static, stratified fluid subject to electrical stress
Design of dielectrophoretic liquid orientation and expulsion systems for zero gravity environments with maximum electromechanical effects of imposed electric field
Electrohydrodynamic charge relaxation and interfacial perpendicular-field instability
Instabilities for two highly conducting finite length streams in relative motion and coupled by transverse electric or longitudinal magnetic fields
Analytical and experimental feasibility study for using electrohydrodynamic forces to stabilize sloshing cryogenic propellant
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Dynamic model for charge relaxation effects on electromechanical polarization surface waves of electric field
Off-on dielectrophoretic propellant orientation in low gravity environment
Spatially periodic cellular Stokes flow in fluid- fluid interface region electrohydrodynamically induced by electric shear stress of spatially periodic electric field
Gradient stabilization of cryogenic liquids in pendulum and sloshing motions, noting response to kinetic energy input, oscillation frequency period and stability criteria
Traveling-wave bulk electroconvection induced in slightly conducting liquid with temperature gradient, giving velocity profile equations for plane flow
Spatially periodic, time invariant electric field used to create spatially periodic cellular flow by action of electric shear stress in region of fluid-fluid interface
Phase shift as quantitative measure of relationship between surface convection and charge relaxation
Electrohydrodynamic equilibrium showing continuum feedback control of Rayleigh-Taylor type instability
Traveling wave bulk electroconvection induced across temperature gradient
Fluid interface instability suppression via feedback, noting stability criteria and parameters