Abstract

Next-generation high-intensity large acceptance fragment separators require a careful design due to the large high order aberrations induced by the large aperture superconducting magnets needed to collect rare isotopes obtained from a high energy primary heavy-ion beam hitting a target. In this paper we propose a fragment separator layout based on various symmetries that satisfies the baseline requirements. Analytical calculations based on symmetry theories simplify the design to numerical optimization of a basic cell with only a few magnetic elements. The insight provided by these calculations resulted in the specification of a simple layout with large acceptance, transmission, and resolution. The design method may be easily adapted to project-specific needs. The important effects of energy degraders necessary for full fragment separator design will be addressed in a future publication.

Highlights

  • The generation of research in nuclear physics requires advanced exotic beam facilities based on heavy-ion drivers

  • In this paper we present the optical design concepts developed for the fragment separator area

  • In this paper we present our design of a fragment separator based on several symmetries

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Summary

Erdelyi*

Next-generation high-intensity large acceptance fragment separators require a careful design due to the large high order aberrations induced by the large aperture superconducting magnets needed to collect rare isotopes obtained from a high energy primary heavy-ion beam hitting a target. In this paper we propose a fragment separator layout based on various symmetries that satisfies the baseline requirements. Analytical calculations based on symmetry theories simplify the design to numerical optimization of a basic cell with only a few magnetic elements. The insight provided by these calculations resulted in the specification of a simple layout with large acceptance, transmission, and resolution. The design method may be adapted to project-specific needs. The important effects of energy degraders necessary for full fragment separator design will be addressed in a future publication

INTRODUCTION
Time-independence ‘‘symmetry’’
Midplane symmetry
SYMMETRIES APPLIED TO THE DESIGN
Mirror symmetry
DESIGN PRINCIPLES
OPTICS OF A FRAGMENT SEPARATOR
Findings
SUMMARY AND CONCLUSIONS
Full Text
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