Influence analysis of dipole magnet design and beam collimation in the high-precision energy spectrometry system

The high-precision energy spectrometry system, as a key electron beam diagnostic, enables accurate measurement of beam energy distribution and supports injector performance optimization. Beam collimation prior to the system affects measurement accuracy. For electron injectors operating at a few MeV, a high-precision spectrometry system based on the magnetic deflection method is developed, and an energy spectrum model is established to study the design and magnetic field optimization of the key dipole magnet (D-magnet) as well as the influence of upstream beam collimation on beam trajectory accuracy. Simulation results indicate that the optimized D-magnet enhances performance, and beam collimation analysis verifies effective trajectory control, improving system precision and providing technical support for high-precision energy measurements.

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Publication Details

Journal
JACOW
Published
2026-01-20
DOI
https://doi.org/10.18429/jacow-ibic2025-wepco15
Primary Topic
Photocathodes and Microchannel Plates
Type
article
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Influence analysis of dipole magnet design and beam collimation in the high-precision energy spectrometry system

Di Lu, Wenjie Han, Dongyun Xiao, Yan Wang et al.
JACOW
Photocathodes and Microchannel Plates
article

Influence analysis of dipole magnet design and beam collimation in the high-precision energy spectrometry system

Di Lu, Wenjie Han, Dongyun Xiao, Yan Wang, Kaifeng Liu, Tongning Hu, Hao Hu, Yifeng Zeng
article en

Abstract

The high-precision energy spectrometry system, as a key electron beam diagnostic, enables accurate measurement of beam energy distribution and supports injector performance optimization. Beam collimation prior to the system affects measurement accuracy. For electron injectors operating at a few MeV, a high-precision spectrometry system based on the magnetic deflection method is developed, and an energy spectrum model is established to study the design and magnetic field optimization of the key dipole magnet (D-magnet) as well as the influence of upstream beam collimation on beam trajectory accuracy. Simulation results indicate that the optimized D-magnet enhances performance, and beam collimation analysis verifies effective trajectory control, improving system precision and providing technical support for high-precision energy measurements.

JACOW
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Openalex Percentile: Top 83%
Photocathodes and Microchannel Plates
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