Zhengyuan Jia*, Meng Deng
School of Geophysics and Information Technology, China University of Geosciences, Beijing 100083, China.
*Corresponding author: Zhengyuan Jia
Abstract
Within the framework of the “New Engineering” reform, engineering education has gradually shifted toward closer integration of theoretical understanding and operational competence. In geophysical exploration courses, this objective is often constrained by the limited availability of precision instruments, high maintenance costs, and strict spatial-temporal requirements associated with field training. To address these challenges, this paper presents the design and application of a web-based simulation platform for proton magnetometer instruction, developed using the Vue.js framework and a progressive Nuxt.js architecture. The platform implements a high-fidelity 1:1 virtual model of a proton magnetometer, accurately reproducing the instrument’s interface layout, menu logic, parameter configuration process, and measurement workflow. Through a visualized interactive console and real-time data feedback, the system establishes a closed instructional loop consisting of principle verification, operational training, and result analysis, thereby supporting a blended teaching mode that combines virtual simulation with physical experimentation. The platform has been deployed in geophysical exploration teaching since 2021 and has served over 600 individual users during its operational period. Usage statistics and instructional observations indicate that the simulation significantly improves students’ familiarity with instrument operation, reduces procedural errors during field practice, and alleviates dependence on limited laboratory resources. Overall, the observed outcomes indicate that web-based instrument simulation can support a level of instructional fidelity comparable to physical devices, while offering a sustainable option for experimental engineering education.
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How to cite this paper
Web-based Proton Magnetometer Simulation System: Architecture, Implementation, and Teaching Practice
How to cite this paper: Zhengyuan Jia, Meng Deng. (2026) Web-based Proton Magnetometer Simulation System: Architecture, Implementation, and Teaching Practice. Advances in Computer and Communication, 7(1), 7-13.
DOI: http://dx.doi.org/10.26855/acc.2026.03.002