用于测量临床碳束疗法中线性能量沉积分布的金刚石能量色散剂量计

IF 1.4 3区 物理与天体物理 Q3 INSTRUMENTS & INSTRUMENTATION
Takumi Matsumoto , Katsumi Aoki , Hideyuki Takei , Takahiro Makino , Shunsuke Yonai , Christina Weiss , Erich Griesmayer , Takeshi Ohshima , Makoto Sakai , Akihiko Matsumura , Wataru Kada
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引用次数: 0

摘要

我们制作了厚度为 50 μm 的薄型金刚石膜能量色散剂量计,用于估算临床剂量分布。与传统半导体相比,金刚石宽带隙半导体具有极佳的辐射耐受性和生物兼容性,这主要是基于临床碳粒子停止功率比的线性关系。我们获得了群马大学重离子医疗中心产生的临床碳光束的线性能量传递(LET)光谱和布拉格曲线。根据 LET 光谱估算了单能量和分散布拉格峰辐照配置的相对生物效应(RBE)分布。金刚石探测器还被用作固体电离室,以获得辐射诱导电流(RIC)分布,这代表了物理剂量分布。根据 RIC 和 RBE 分布估算出临床剂量分布,作为单芯片金刚石能量色散剂量计在临床碳束治疗领域的概念验证。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Diamond energy-dispersive dosimeter for measuring linear energy deposition distributions in clinical carbon beam therapy

A thin diamond membrane energy-dispersive dosimeter 50 μm thick was fabricated for estimating clinical dose distribution. In contrast to conventional semiconductors, diamond wide-bandgap semiconductors are expected to have excellent radiation tolerance and biological compatibility based on the linear relationship of stopping power ratio for clinical carbon particles. Linear energy transfer (LET) spectra were obtained along with the Bragg curve for a clinical carbon beam generated at Gunma University Heavy Ion Medical Center. The relative biological effectiveness (RBE) distributions were estimated from the LET spectra for both the mono-energy and spread-out Bragg peak irradiation configurations. The diamond detector was also used as a solid ionization chamber to obtain the radiation-induced current (RIC) distribution, which represents the physical dose distribution. The clinical dose distribution was estimated from the RIC and RBE distributions as proof of concept for the clinical carbon beam therapy field with a single-chip diamond energy-dispersive dosimeter.

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来源期刊
CiteScore
2.80
自引率
7.70%
发文量
231
审稿时长
1.9 months
期刊介绍: Section B of Nuclear Instruments and Methods in Physics Research covers all aspects of the interaction of energetic beams with atoms, molecules and aggregate forms of matter. This includes ion beam analysis and ion beam modification of materials as well as basic data of importance for these studies. Topics of general interest include: atomic collisions in solids, particle channelling, all aspects of collision cascades, the modification of materials by energetic beams, ion implantation, irradiation - induced changes in materials, the physics and chemistry of beam interactions and the analysis of materials by all forms of energetic radiation. Modification by ion, laser and electron beams for the study of electronic materials, metals, ceramics, insulators, polymers and other important and new materials systems are included. Related studies, such as the application of ion beam analysis to biological, archaeological and geological samples as well as applications to solve problems in planetary science are also welcome. Energetic beams of interest include atomic and molecular ions, neutrons, positrons and muons, plasmas directed at surfaces, electron and photon beams, including laser treated surfaces and studies of solids by photon radiation from rotating anodes, synchrotrons, etc. In addition, the interaction between various forms of radiation and radiation-induced deposition processes are relevant.
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