A Highschooler’s Guide to GeV-Range Electromagnetism

S. Chatterji, Aayush Desai, Aditya Dwarkesh, Anushree Ganesh, Ameya Kunder, P. Malhotra, Roshni Sahoo, Jinal Shah, K. Velmurugan, M. Joos, Cristóvão Silva, G. Morello
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引用次数: 1

Abstract

The following article has been written primarily by the high school students who make up the team “Cryptic Ontics”, one of the two winning teams in the 2018 edition of CERN’s Beamline for Schools (BL4S) competition, and is based on the set of experiments the students endeavoured to conduct over the course of a two-week period at CERN. Reconstructing influential physical theories from scratch often helps in uncovering hitherto unknown logical connections and eliciting instructive empirical checkpoints within said theory. With this in mind, in the following article, a top-down reconstruction (beginning with the experimental observations and ending at the theoretical framework) of the Lorentz force equation is performed, and potentially interesting questions which come up are explored. In its most common form, the equation is written out as: [Formula: see text]. Only the term that includes the magnetic field [Formula: see text] will be dealt with for this article. The independent parameters we use are (i) the momenta of the particles, (ii) the charge (rather, the types) of particles, either positive or negative, and (iii) the current passing through the dipole generating the electromagnetic field. We then measure the angle by which particles get deflected while varying these three parameters and derive an empirical relationship between them.
高中生gev范围电磁学指南
以下文章主要由组成“Cryptic Ontics”团队的高中生撰写,该团队是2018年欧洲核子研究中心(CERN)学校光束线(BL4S)竞赛的两个获奖团队之一,并基于学生们在CERN为期两周的课程中努力进行的一系列实验。从零开始重建有影响力的物理理论,往往有助于发现迄今为止未知的逻辑联系,并在所述理论中引出有益的经验检验点。考虑到这一点,在下面的文章中,对洛伦兹力方程进行了自上而下的重建(从实验观察开始,以理论框架结束),并探讨了可能出现的有趣问题。最常见的形式是:[公式:见正文]。本文只讨论包含磁场的项[公式:见正文]。我们使用的独立参数是(i)粒子的动量,(ii)粒子的电荷(确切地说,是类型),无论是正的还是负的,以及(iii)通过偶极子产生电磁场的电流。然后,我们测量粒子在改变这三个参数时发生偏转的角度,并推导出它们之间的经验关系。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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