Functional design of a wideband RF system for helics synchrotron

Abstract Within the framework of the NIMMS (Next Ion Medical Machine Study) initiative at CERN, a comprehensive study is being performed for the Helium Light Ion Compact Synchrotron (HeLICS), a compact accelerator for hadron therapy. A key component of this facility is the radiofrequency (RF) cavity. Its proposed design is based on the wideband technology successfully implemented in the CERN PS Booster. It comprises four cells filled with Finemet material that enable the acceleration of protons and 4 He 2+ over a broad energy range. The cavity, designed to deliver a peak voltage of up to 2 kV within a frequency range from 0.88 to 10 MHz, features a compact design to meet the stringent requirements of the medical accelerator. It operates in double-harmonic mode, to effectively reduce longitudinal line density of the beam bunch and mitigate space-charge effects at low energy. The combination of compactness and operational flexibility positions this RF cavity as an optimal solution for compact synchrotrons, enabling more efficient, precise, and accessible hadron therapy for cancer treatment.

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Publication Details

Journal
Journal of Physics Conference Series
Published
2025-09-01
DOI
https://doi.org/10.1088/1742-6596/3094/1/012051
Primary Topic
Particle Accelerators and Free-Electron Lasers
Type
article
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article

Functional design of a wideband RF system for helics synchrotron

M. Vretenar, Toms Torims, Heikki Huttunen, Heiko Damerau et al.
Journal of Physics Conference Series
Particle Accelerators and Free-Electron Lasers
article

Functional design of a wideband RF system for helics synchrotron

M. Vretenar, Toms Torims, Heikki Huttunen, Heiko Damerau, Antti Kolehmainen, E. Benedetto, M. E. Angoletta, Andris Ratkus, V. A. Sansipersico
article en

Abstract

Abstract Within the framework of the NIMMS (Next Ion Medical Machine Study) initiative at CERN, a comprehensive study is being performed for the Helium Light Ion Compact Synchrotron (HeLICS), a compact accelerator for hadron therapy. A key component of this facility is the radiofrequency (RF) cavity. Its proposed design is based on the wideband technology successfully implemented in the CERN PS Booster. It comprises four cells filled with Finemet material that enable the acceleration of protons and 4 He 2+ over a broad energy range. The cavity, designed to deliver a peak voltage of up to 2 kV within a frequency range from 0.88 to 10 MHz, features a compact design to meet the stringent requirements of the medical accelerator. It operates in double-harmonic mode, to effectively reduce longitudinal line density of the beam bunch and mitigate space-charge effects at low energy. The combination of compactness and operational flexibility positions this RF cavity as an optimal solution for compact synchrotrons, enabling more efficient, precise, and accessible hadron therapy for cancer treatment.

Journal of Physics Conference SeriesVol. 3094(1)
University of Geneva (CH), University of Helsinki (FI), Riga Technical University (LV), European Organization for Nuclear Research (CH)
Openalex Percentile: Top 77%
Particle Accelerators and Free-Electron Lasers
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