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将电子束离子阱源集成到用于临床前癌症研究的静电加速器中。

Integration of an electron beam ion trap source into an electrostatic accelerator for pre-clinical cancer research.

作者信息

Deoli Naresh T, Siebenwirth Christian, Harken Andrew D, Ponnaiya Brian, Tan Yuewen, Randers-Pehrson Gerhard, Garty Guy, Brenner David J

机构信息

Radiological Research Accelerator Facility, Columbia University Irving Medical Center, P.O. Box 21, Irvington, NY 10533.

Bundeswehr Institute of Radiobiology, Neuherbergstr, Munich, Germany.

出版信息

Nucl Instrum Methods Phys Res A. 2025 Nov;1080. doi: 10.1016/j.nima.2025.170789. Epub 2025 Jun 20.

DOI:10.1016/j.nima.2025.170789
PMID:40613093
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC12215897/
Abstract

A commercial electron beam ion trap (EBIT) source has been integrated into the 5.0 MV Singletron accelerator at the Radiological Research Accelerator Facility (RARAF). Generally used as an injector for particle accelerators, it is the first integration of an EBIT source into a single-ended electrostatic accelerator, for cancer heavy-ion radiotherapy (HIRT) research. The EBIT source generates highly charged ions (B, C, etc.) in addition to light ions (protons, deuterons, and helium ions) produced by the standard High Voltage Engineering Europe (HVEE) configuration of the RARAF accelerator, i.e., using a radiofrequency ion source. Meeting the requirements for the operation of the EBIT source inside the pressure vessel of the accelerator required some structural, electrical, and vacuum modifications. With unconventional source materials for EBIT like propane (for carbon ions) and trimethyl borate (for hydrogen and boron ions), the integrated system delivers a series of mono-linear-energy-transfer beams that provide exposures to a cell monolayer for radiological work at RARAF. We discuss the methodology for integrating the EBIT source into an HVEE Singletron and optimizing ions of particular interest in HIRT.

摘要

一种商用电子束离子阱(EBIT)源已被集成到放射研究加速器设施(RARAF)的5.0 MV单级加速器中。EBIT源通常用作粒子加速器的注入器,这是首次将EBIT源集成到用于癌症重离子放射治疗(HIRT)研究的单端静电加速器中。除了RARAF加速器的标准欧洲高压工程(HVEE)配置(即使用射频离子源)产生的轻离子(质子、氘核和氦离子)外,EBIT源还能产生高电荷离子(硼、碳等)。要满足在加速器压力容器内运行EBIT源的要求,需要对结构、电气和真空进行一些改造。使用丙烷(用于碳离子)和硼酸三甲酯(用于氢和硼离子)等非常规的EBIT源材料,该集成系统可提供一系列单一线性能量传递束,用于在RARAF进行放射学工作时对细胞单层进行照射。我们讨论了将EBIT源集成到HVEE单级加速器中以及优化HIRT中特别感兴趣的离子的方法。