Research on Teaching Boundaries and Optimization Paths of the Course "Industrial Network and Configuration Technology" Based on Differences in Professional Core Competencies

Authors

  • Lingtao Bu
  • Dingcheng Yang
  • Yu Zhou

DOI:

https://doi.org/10.54097/3wkw6w98

Keywords:

Industrial Network and Configuration Technology, Teaching Boundaries, Digital Cornerstone, SCADA System, MVP

Abstract

As a "digital cornerstone" course in contemporary engineering education, "Industrial Network and Configuration Technology" has been widely integrated into the teaching system of engineering majors, aiming to cultivate interdisciplinary talents capable of connecting bottom-level control, top-level platforms, and cross-field integration. This paper focuses on the teaching boundary issues of the course. By constructing an analysis model oriented to professional core competencies (e.g., "control" for automation majors, "communication/computation" for computer majors, "measurement" for measurement and control majors, "connection" for intelligent manufacturing majors, and "stability" for energy majors), it systematically analyzes the differentiated characteristics of different majors in terms of teaching objectives, prerequisite course foundation, and teaching content focus. The research clarifies the teaching positioning of key technologies such as configuration technology, industrial networks, industrial communication protocols, and security integration in related majors, as well as the diversified roles of SCADA systems as teaching carriers. Based on the above findings, this paper further proposes an optimization strategy of Minimum Viable Industrial Monitoring Project (MVP), providing theoretical basis and practical paths for enhancing the professional adaptability and overall teaching effectiveness of the course.

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References

[1] Peng Dingwen, Chen Hanwen. Curriculum Development Path for Higher Vocational Engineering Majors Facing ASEAN – Taking the Course "Industrial Network and Configuration Technology" as an Example[J]. Modern Vocational Education, 2025, (23): 124-127.

[2] Wen Feng, Yao Kai, Jiang Yan, et al. Construction of Professional Core Curriculum Group to Improve Students' Practical Ability – Taking Electrical Engineering Major as an Example[J]. China Electric Power Education, 2024, (06): 68-70. DOI: 10.19429/j.cnki.cn11-3776/g4.2024.06.028.

[3] Sun Qiang, Chen Niansheng. Construction of Curriculum System for Computer Majors in Undergraduate Vocational Education[J]. Computer Education, 2022, (09): 113-118. DOI: 10. 16512/j.cnki.jsjjy.2022.09.002.

[4] Zhang Jinhong. Simulation Curriculum Design of Industrial Network and Configuration Control Technology Based on Factory IO[J]. Application of IC, 2023, 40(04): 112-113. DOI: 10. 19339/j.issn.1674-2583.2023.04.045.

[5] Lingtao Bu, Dingcheng Yang. Research on Optimization Strategies of Curriculum System in the New Quality Teaching Reform of Intelligent Control Technology Specialty[J]. Scientific Journal of Economics and Management Research, 2024, 6(8): 9-15. DOI:10.54691/1Z2FFS74.

[6] Yan Xiangkui, Li Mingxia, Chen Yuxi, et al. Web-Based SCADA Design and Its Application in IoT Training[J]. Computer Simulation, 2025, 42(11): 266-271.

[7] Huang Min. Design and Implementation of Virtual Simulation Experimental Teaching Software for Internet Product MVP Iterative Development[D]. Jiangxi University of Finance and Economics, 2022. DOI: 10.27175/d.cnki.gjxcu.2022.000319.

[8] Bu Lingtao, Yang Dingcheng. Teaching Practice of "Electrical and Electronic Technology" Course in Vocational Education[J]. Electronic Technology, 2024, 53(12): 74-77.

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Published

28-02-2026

Issue

Section

Articles

How to Cite

Bu, L., Yang, D., & Zhou, Y. (2026). Research on Teaching Boundaries and Optimization Paths of the Course "Industrial Network and Configuration Technology" Based on Differences in Professional Core Competencies. Highlights in Art and Design, 13(2), 22-29. https://doi.org/10.54097/3wkw6w98