Transport equations for a weakly ionized electron gas.
Electron traceless pressure and heat flow for weakly ionized electron gas in DC magnetic field assuming electron-neutral collisions dominate
Tanenbaum, B. S.↗
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Self-consistent Green's-function approach to the electron-gas problem
Electron gas problem in metal physics by self consistent Green function formalism, presenting momentum-space Feynman rules and integral equations derivation
Zmuidzinas, J. S.↗
Many-body theory of a rapidly varying inhomogeneous electron gas
Dielectric formulation for inhomogeneous electron gas, and Green function formalism for treating static dielectric screening of point impurity in electron gas
Gadzuk, J. W.↗
The theoretical time-dependent thermal behavior of the ionospheric electron gas.
Time dependent thermal behavior of ionospheric electron gas
IONOSPHERIC TEMPERATURE↗
Method for determining the thermodynamic properties of the quantum electron gas.
Effective pair potential obtained for quantum electron gas to determine thermodynamic properties over large temperature and density range
DENSITY DISTRIBUTION↗
Quantum theory of an electron gas in intense magnetic fields.
Relativistic electron gas in strong magnetic field, obtaining equation of state with quantum theory
Canuto, V.↗
Transport properties of the ionospheric electron gas
Thermoelectric transport properties of ionospheric electron gas above 100 km
Schunk, R. W.↗
Quantum-mechanical relation for a magnetized electron gas
Quantum mechanical relation for magnetized electron gas in constant magnetic field and thermal equilibrium
Canuto, V.↗
Kinetic theory of the classical electron gas in a positive background. i - equilibrium theory.
Equilibrium parameters of electron gas in positive background
PLASMA STABILITY↗
The opacity due to Compton scattering at relativistic temperatures in a semidegenerate electron gas.
Opacity due to Compton scattering at relativistic temperatures in semidegenerate electron gas
RADIATIVE HEAT TRANSFER↗
Kinetic theory of the classical electron gas in a positive background. i- equilibrium theory
Kinetic theory of classical electron gas in positive background - equilibrium theory
EQUILIBRIUM↗
Kinetic theory of the electron gas in a positive background. ii - nonequilibrium theory.
Convergent kinetic equation for electron gas in positive background, dividing Coulomb potential into short range and weak parts
ELECTRON GAS↗
Pair-correlation functions and correlation energies of a quantum electron gas.
Pair correlation functions and energies of quantum electron gas in thermal equilibrium
Broyles, A. A.↗
Neutrino-pair bremsstrahlung from a degenerate electron gas.
Neutrino-pair bremsstrahlung for hot degenerate electron gas during Coulomb scattering on imbedded nuclei in stellar regimes including lattice structure effects
Festa, G. G.↗
Application of the collective approach to the thermodynamics of an electron gas
Collective approach to thermodynamics of N- particle electron gas including transverse radiation, calculating internal energy and pressure of modes
Caroff, L. J.↗
Electrical conductivity and conductive opacity of a relativistic electron gas
Electrical conductivity and conductive opacity for relativistic electron gas in presence of ions taking into account ion-ion interaction
Canuto, V.↗
Properties of the Flight Model Gas Electron Multiplier for the GEMS Mission
We present the gain properties of the gas electron multiplier (GEM) foil in pure dimethyl ether (DME) at 190 Torr. The GEM is one of the micro pattern gas detectors and it is adopted as a key part of the X-ray polarimeter for the GEMS mission. The X-ray polarimeter is a time projection chamber operating in pure DME gas at 190 Torr. We describe experimental results of (1) the maximum gain the GEM can achieve without any discharges, (2) the linearity of the energy scale for the GEM operation, and (3) the two-dimensional gain variation of the active area. First, our experiment with 6.4 keV X-ray irradiation of the whole GEM area demonstrates that the maximum effective gain is 2 x 10(exp 4) with the applied voltage of 580 V. Second, the measured energy scale is linear among three energies of 4.5, 6.4, and 8.0 keV. Third, the two-dimensional gain mapping test derives the standard deviation of the gain variability of 7% across the active area.
gas electron multiplier (GEM)↗
INFLUENCE OF CORRELATIONS ON THE DIELECTRIC BEHAVIOR OF AN ELECTRON GAS. NONPERTURBATIVE APPROACH TO THE MANY-FERMION SYSTEM
Influence of correlations on dielectric behavior of electron gas - nonperturbative approach to many-fermion system
FERMI STATISTICS↗