Experimental study of the effective thermal conductivity of liquid saturated sintered fiber metal wicks.
Explore the source record for details and available documents.
Singh, B. S.↗
Engineering topics
Lyman, F. A.
Publications and source records attributed to Lyman, F. A..
Heat transfer by condensation of low pressure metal vapors.
The film condensation of low pressure metal vapors on isothermal vertical flat plates or tubes is considered. The liquid film is treated as a thin layer in which the acceleration and pressure forces are negligible and across which the temperature distribution is linear. The average behavior of the vapor is found from the linearized one-dimensional vapor flow equations. In order to calculate the rate of condensation, a consistent distribution function for the vapor particles at the liquid-vapor interface is necessary and is determined. The result of the analysis is a set of algebraic equations from which one can predict the condensation rate of low pressure metal vapors. A large but continuous temperature decrease in the vapor is predicted and calculated.
Huang, Y. S.↗
Condensation heat transfer of low pressure metal vapors
Film condensation and heat transfer of low pressure metal vapor on flat surfaces
Huang, Y.-S.↗
Analysis of temperature distributions in heat pipe wicks.
Temperature distributions in heat pipe wicks as function of liquid thermal conductivity
Huang, Y. S.↗
Solution of the Boltzmann and rate equations for the electron distribution function and state populations in nonequilibrium MHD PLASMAS.
Solution of Boltzmann and rate equations for electron distribution function and state populations in nonequilibrium MHD plasmas
ELECTRON DISTRIBUTION↗
Maxwellization of electrons in a low-voltage, atmospheric pressure gas discharge.
Electric conductivity in low voltage atmospheric pressure gas discharge, noting Maxwellian electron density distribution
GAS DISCHARGE↗
Solution of the Boltzmann and rate equations for the electron distribution function and state populations in non-equilibrium MHD PLASMAS.
Solution of Boltzmann and rate equations for electron distribution function and state populations in nonequilibrium MHD plasmas
NONEQUILIBRIUM PLASMA↗
Solution of the Boltzmann and rate equations for the electron distribution function and state populations in nonequilibrium MHD plasmas
Solution of Boltzmann, and rate equations for bound electronic states in nonequilibrium magnetohydrodynamic plasma
Albers, L. U.↗
Seeding criterion for nonequilibrium magnetohydrodynamic generators
Criterion for magnetohydrodynamic generator seeding
MAGNETOHYDRODYNAMIC GENERATOR↗
Expansion of the fokker-planck equation in spherical harmonics
Fokker-Planck equation expansion in spherical harmonics
SPHERICAL HARMONICS↗