Thermodynamic study of plasmas using the principle of maximum entropy
Thermodynamics of plasmas using principle of maximum entropy
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.
Thermodynamics of plasmas using principle of maximum entropy
Thermodynamic property data tables for CHNOPS compounds and heats of combustion and formation for organic compounds of biological interest
Thermodynamic, transport, and nuclear properties of saturated liquid and vapor potassium
Thermodynamic analysis of spacecraft thermal control and pressurization requirements for Mars Orbiter and Mars Excursion Module missions
Thermodynamics of adiabatic expansion of mixture of two phases capable of interchanging heat and matter across phase boundary
Monatomic and diatomic gas mixture channel flow with chemical and thermodynamic nonequilibrium, noting high enthalpy hypersonic nozzle air flow
High temperature thermodynamics requiring species and phases identification, crystal structures, molecular geometries and vibrational, rotational and electronic energy levels and equilibrium constants
Molten salts thermodynamic properties, discussing pure salts corresponding states and binary mixtures conformal solution theories, using model ionic melt
Equilibrium between gaseous phases and interstitial solid solutions analyzed for thermodynamic parameters of solute atoms
Mean oscillation amplitudes, thermodynamic functions and molecular polarizabilities of mixed phosphorus halides
Ionizing atomic plasma thermodynamic functions in case where molecules and negative ions may be neglected
Generalized Thomas-Fermi and Thomas-Fermi- Dirac theories thermodynamic functions, deriving expression for entropy, constant volume heat capacity and Helmholtz function
Transient temperature and voltage response characteristics of fuel cell system predicted by thermodynamic model
This report describes the results of a study of cryogenic container thermodynamics during propellant transfer. The purpose of this study is to provide analytical and empirical descriptions of the transient phenomena occurring in cryogenic transfer lines and receive tanks during initial propellant transfer. A further basic objective is to identify those conditions which give rise to the possibility of tank implosion, and to establish the procedures and/or systems necessary to eliminate this possibility.
Prediction of thermodynamic effects of developed cavitation based on liquid hydrogen and Freon- 114 data in scaled venturis
Thermodynamic behavior of interstitial elements in Mo, W, Nb, and Ta
Relativistic theory of elastic and thermodynamic continuous media
Thermodynamic and related properties of oxygen from experimental pressure-volume-temperature measurements