Ion-transport theory for a slightly ionized rarefied gas in a strong electric field
- 1 January 1975
- journal article
- research article
- Published by American Physical Society (APS) in Physical Review A
- Vol. 11 (1) , 297-307
- https://doi.org/10.1103/physreva.11.297
Abstract
A moment solution to the Boltzmann equation is considered for the initial-value problem of a weakly ionized rarefied gas, or gas mixture, in a uniform electric field. No restrictions are placed on the smoothness of the initial data or the mass ratio between the ions and the neutrals although the theory converges fastest for heavy ions in a light gas. A principal result of this theory is the prediction of shock-wave phenomena in pulsed drift tubes. The result is most persistent for heavy ions in a light gas. For instance ions in He can be significantly affected by sharp initial conditions for collisions. Comparison is made with the results of asymptotic theories to smooth initial data.
Keywords
This publication has 93 references indexed in Scilit:
- Computer Simulation of an Electron Swarm at low E/p in HeliumAustralian Journal of Physics, 1974
- On the Theory of Electron Diffusion in Electrostatic Fields in GasesAustralian Journal of Physics, 1974
- Anisotropic Diffusion and the Townsend?Huxley ExperimentAustralian Journal of Physics, 1973
- Mobility and Diffusion. I. Boltzmann Equation Treatment for Charged Particles in a Neutral GasAustralian Journal of Physics, 1973
- On the Theory of the Diffusing Electron Stream in a GasAustralian Journal of Physics, 1973
- Transport Model for Converting Charged Species in Drift TubesPhysical Review B, 1969
- Der Stromverlauf einer Elektronenlawine mit DiffusionThe European Physical Journal A, 1964
- Back Diffusion of Electrons in Nitrogen, Hydrogen, and ArgonPhysical Review B, 1962
- The Structure of a Stream of Electrons and Ions Drifting and Diffusing in a Gas When Ionization by Collision and Molecular Attachment are PresentAustralian Journal of Physics, 1959
- The Measurement of the Drift Velocity of Electrons Through Gases by the Electron Shutter MethodAustralian Journal of Physics, 1957