Many-Body Effects in the Photoionization of Radon
Document Type
Article
Publication Date
1-1-2000
Abstract
The total and partial photoionization cross sections, branching ratios, and photoelectron angular-distribution asymmetry parameters have been calculated for atomic radon (Z = 86) for all subshells from the 6p valence shell down to the deep n = 3 subshells. The relativistic random-phase approximation, the relativistic random-phase approximation modified to include relaxation effects, and the relativistic random-phase approximation modified to include relaxation effects and Auger decay were all used to determine the relative importance of various many-body effects such as interchannel coupling, core relaxation, and Auger decay. Comparisons are made between the various theoretical models and experimental data for the total cross sections. Interchannel coupling among many channels was found to be important in calculations of the total cross sections for most shells, and relaxation effects were found to be substantial for the n = 5 shell. ©2000 The American Physical Society.
Journal Title
Physical Review A - Atomic, Molecular, and Optical Physics
Volume
61
Issue
6
First Page
1
Last Page
7
DOI
https://doi.org/10.1103/PhysRevA.61.062703
First Department
Physics
Recommended Citation
Kutzner, Mickey; Pelley, Paul; Banks, Lauralea; Robertson, Richard; and Caesar, Lloyd, "Many-Body Effects in the Photoionization of Radon" (2000). Faculty Publications. 2650.
https://digitalcommons.andrews.edu/pubs/2650