太阳能粒子事件光谱的地面无源生成:3D打印调制器的规划和制造。

IF 2.4 4区 医学 Q2 RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING Zeitschrift fur Medizinische Physik Pub Date : 2024-02-01 DOI:10.1016/j.zemedi.2023.10.002
Tabea Pfuhl , Uli Weber , Felix Horst , Marco Durante , Christoph Schuy
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引用次数: 0

摘要

在未来的长期太空任务中,地球上空间辐射的产生对于研究和预测辐射对太空旅行者、电子产品或材料的影响至关重要。除了银河系宇宙射线的重离子之外,太阳粒子事件在太空辐射风险方面发挥着重要作用,太空辐射风险由光谱宽、能量高达几百兆电子伏的中等能量质子组成。这项工作描述了一种基于地面产生太阳粒子事件的方法。作为原理证明,设计了一种具有特定漏斗形周期结构的无源光束调制器,用于将单能质子束转换为光谱质子能量分布,模拟1972年8月的太阳粒子事件,这被称为有记录以来最强的SPE事件之一。所需质子束220 MeV可以在研究或粒子治疗设施中的许多现有粒子加速器中产生。调制器的规划、制造和测试是逐步描述的。通过实验和蒙特卡罗模拟测试了它的正确制造和太阳粒子事件模拟器的特性。未来的调制器将遵循相同的概念,进行较小的调整,例如更大的横向扩展。到目前为止,所提出的光束调制器可供研究界在GSI进行太阳粒子事件条件下暴露的实验。此外,研究人员可以使用并应用所描述的概念来设计和打印他们的个性化调制器,以再现任何所需的太阳粒子事件光谱,或者向作者请求所提供的调制器几何结构。
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Ground-based passive generation of Solar Particle Event spectra: Planning and manufacturing of a 3D-printed modulator

The generation of space radiation on Earth is essential to study and predict the effects of radiation on space travelers, electronics, or materials during future long-term space missions. Next to the heavy ions of the galactic cosmic rays, solar particle events play a major role concerning the radiation risk in space, which consist of intermediate-energy protons with broad spectra and energies up to a few hundred MeV. This work describes an approach for the ground-based generation of solar particle events. As a proof of principle, a passive beam modulator with a specific funnel-shaped periodic structure was designed and is used to convert a monoenergetic proton beam into a spectral proton energy distribution, mimicking a solar particle event from August 1972, which is known as one of the strongest recorded SPE events. The required proton beam of 220 MeV can be generated at many existing particle accelerators at research or particle therapy facilities. The planning, manufacturing and testing of the modulator is described step by step. Its correct manufacturing and the characteristics of the solar particle event simulator are tested experimentally and by means of Monte Carlo simulations. Future modulators will follow the same concept with minor adjustments such as a larger lateral extension. As of now, the presented beam modulator is available to the research community to conduct experiments at GSI for exposure under solar particle event conditions. In addition, researchers can use and apply the described concept to design and print their individualized modulator to reproduce any desired solar particle event spectrum or request the presented modulator geometry from the authors.

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来源期刊
CiteScore
3.70
自引率
10.00%
发文量
69
审稿时长
65 days
期刊介绍: Zeitschrift fur Medizinische Physik (Journal of Medical Physics) is an official organ of the German and Austrian Society of Medical Physic and the Swiss Society of Radiobiology and Medical Physics.The Journal is a platform for basic research and practical applications of physical procedures in medical diagnostics and therapy. The articles are reviewed following international standards of peer reviewing. Focuses of the articles are: -Biophysical methods in radiation therapy and nuclear medicine -Dosimetry and radiation protection -Radiological diagnostics and quality assurance -Modern imaging techniques, such as computed tomography, magnetic resonance imaging, positron emission tomography -Ultrasonography diagnostics, application of laser and UV rays -Electronic processing of biosignals -Artificial intelligence and machine learning in medical physics In the Journal, the latest scientific insights find their expression in the form of original articles, reviews, technical communications, and information for the clinical practice.
期刊最新文献
Editorial Board Contents Development and clinical implementation of a digital system for risk assessments for radiation therapy End-to-end testing for stereotactic radiotherapy including the development of a Multi-Modality phantom Note on uncertainty in Monte Carlo dose calculations and its relation to microdosimetry
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