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A Band-Structure-Based Approach to Modeling X-Ray Absorption, Fluorescence, and Resonant Inelastic Scattering

Published

Author(s)

Eric L. Shirley, J A. Carlisle, Steven R. Blankenship, R N. Smith, L J. Terminello, J J. Jia, T A. Callcott, D L. Ederer

Abstract

X-ray optical processes in solids--absorption, fluorescence and resonantscattering--are modeled within a band-structure-basedapproach to describe electron states. The theory goes beyond a simpleone-electron treatment by considering self-energy corrections for electronstates, the perturbation acting on electron states, the perturbation acting on electron states because of a core hole, and, to a lesser degree, lifetime effects for high energy electron states in solids.Aspects of the work that suggest extensions to be made in the future arediscussed. Theoretical results for all three types of x-ray spectra(absorption, fluorescence, and resonant scattering) are presented and comparedto experiment. Results are presented for diamond, graphite, NaF and Al.
Proceedings Title
18th International Conference
Conference Dates
August 1, 1999
Conference Title
International Conference on X-Ray and Inner-Shell Processes

Keywords

absorption, fluorescence, graphite, scattering, solid, x-ray

Citation

Shirley, E. , Carlisle, J. , Blankenship, S. , Smith, R. , Terminello, L. , Jia, J. , Callcott, T. and Ederer, D. (1999), A Band-Structure-Based Approach to Modeling X-Ray Absorption, Fluorescence, and Resonant Inelastic Scattering, 18th International Conference (Accessed October 11, 2024)

Issues

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Created August 1, 1999, Updated February 17, 2017