Exploration of Vocational College Education Mechanism - Modular Course Development to Adapt to the Upgrading of Enterprise Production Lines

In response to the evolving job responsibilities driven by the upgrading of enterprise production lines, this study proposes a framework for developing modular courses based on finite element technology. Initially, the teaching content was designed in alignment with industry demands. Subsequently, geometric and finite element models were established based on the operational principles of production line detection systems. Third, numerical calculations yielded visual resources, exemplified by Mises stress plots and displacement (U) plots. These visual aids facilitated the creation of a modular curriculum, which was implemented through teaching experiments followed by comprehensive evaluations. Results indicate that the modular course effectively enables students to grasp the operational principles, procedural workflows, and mechanical performance assessments of detection systems. By incorporating digital materials and interactive teaching methods, student engagement and motivation were significantly enhanced. This approach allows vocational colleges to better adapt to the changing needs of enterprises, thereby developing more effective modular courses that cultivate high-quality skilled personnel.

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Published
2024-12-20
DOI
https://doi.org/10.1109/icise-ie64355.2024.11025436
Primary Topic
Higher Education and Teaching Methods
Type
article
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article

Exploration of Vocational College Education Mechanism - Modular Course Development to Adapt to the Upgrading of Enterprise Production Lines

Meiqin Liang, Huagang Liu, Shang Wang
Higher Education and Teaching Methods
article

Exploration of Vocational College Education Mechanism - Modular Course Development to Adapt to the Upgrading of Enterprise Production Lines

Meiqin Liang, Huagang Liu, Shang Wang
article en

Abstract

In response to the evolving job responsibilities driven by the upgrading of enterprise production lines, this study proposes a framework for developing modular courses based on finite element technology. Initially, the teaching content was designed in alignment with industry demands. Subsequently, geometric and finite element models were established based on the operational principles of production line detection systems. Third, numerical calculations yielded visual resources, exemplified by Mises stress plots and displacement (U) plots. These visual aids facilitated the creation of a modular curriculum, which was implemented through teaching experiments followed by comprehensive evaluations. Results indicate that the modular course effectively enables students to grasp the operational principles, procedural workflows, and mechanical performance assessments of detection systems. By incorporating digital materials and interactive teaching methods, student engagement and motivation were significantly enhanced. This approach allows vocational colleges to better adapt to the changing needs of enterprises, thereby developing more effective modular courses that cultivate high-quality skilled personnel.

Beijing Polytechnic (CN)
Openalex Percentile: Top 51%
Higher Education and Teaching Methods
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Exploration of Vocational College Education Mechanism - Modular Course Development to Adapt to the Upgrading of Enterprise Production Lines — Meiqin Liang, Huagang Liu, et al. · (2024) | TGRS Research Map | TGRS