Nonparaxial propagation of an intense relativistic electron beam through dense media

An envelope equation is used to explore the propagation of a focused electron beam through dense conductive media like partially ionized high-pressure gas, metal vapor plumes from beam-target interactions, or low-density solid-phase targets. Envelope equations have been a most useful tool for predicting experimental results of beam propagation in gas, and they are refined for the general problem of propagation through a dense medium. The envelope equation is modified to account for the large beam divergence resulting from multiple scattering. The envelope code results are in qualitative agreement with published experimental data.

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Publication Details

Journal
Physical Review Accelerators and Beams
Published
2025-04-14
DOI
https://doi.org/10.1103/physrevaccelbeams.28.044501
Primary Topic
Gyrotron and Vacuum Electronics Research
Type
article
Field-Weighted Citation Impact
0.00

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article

Nonparaxial propagation of an intense relativistic electron beam through dense media

Carl Ekdahl
Physical Review Accelerators and Beams
Gyrotron and Vacuum Electronics Research
article

Nonparaxial propagation of an intense relativistic electron beam through dense media

Carl Ekdahl
article en

Abstract

An envelope equation is used to explore the propagation of a focused electron beam through dense conductive media like partially ionized high-pressure gas, metal vapor plumes from beam-target interactions, or low-density solid-phase targets. Envelope equations have been a most useful tool for predicting experimental results of beam propagation in gas, and they are refined for the general problem of propagation through a dense medium. The envelope equation is modified to account for the large beam divergence resulting from multiple scattering. The envelope code results are in qualitative agreement with published experimental data.

Physical Review Accelerators and BeamsVol. 28(4)
Los Alamos National Laboratory (US)
U.S. Department of Energy, Los Alamos National Laboratory
Openalex Percentile: Top 94%
Gyrotron and Vacuum Electronics Research
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