Computer Simulation of the Ion Escape from High-Energy Electron Tracks in Nonpolar Liquids
Laurens D. A. Siebbeles, Witold M. Bartczak, M. Terrissol, Andries Hummel
Abstract
Laurens D. A. Siebbeles, Witold M. Bartczak, M. Terrissol, Andries Hummel
Abstract
The number of ions escaping from recombination in high-energy electron tracks in saturated hydrocarbon liquids is calculated and compared with experimental results from the literature. The initial track structure is obtained by bringing the details of the electron scattering into account. The number of positive ions and electrons that escape from charge recombination is obtained from a computer simulation of the trajectories of the positive ions and the electrons. The probability that the charges escape from each other is seen to change appreciably with the energy of the primary high-energy electron. The thermalization distance distribution of the electrons in the track is obtained by comparing the calculated results with those from experiments. The influence of external electric fields on the escape of ions is considered.
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The number of ions escaping from recombination in high-energy electron tracks in saturated hydrocarbon liquids is calculated and compared with experimental results from the literature. The initial track structure is obtained by bringing the details of the electron scattering into account. The number of positive ions and electrons that escape from charge recombination is obtained from a computer simulation of the trajectories of the positive ions and the electrons. The probability that the charges escape from each other is seen to change appreciably with the energy of the primary high-energy electron. The thermalization distance distribution of the electrons in the track is obtained by comparing the calculated results with those from experiments. The influence of external electric fields on the escape of ions is considered.
Key concepts: Electron, Ion, Thermalisation, Atomic physics, Ion track, Scattering, Chemistry, Secondary electrons