Construction of Teaching Resource Optimization Model from the Perspective of Human-Machine Collaboration

This study aims at the current problems such as the disconnection and insufficient adaptability between digital teaching resources and the needs of teachers and students, and constructs a teaching resource optimization model from the perspective of human-machine collaboration, in order to improve resource allocation, enhance the accuracy of resources and personalized teaching. By analyzing the demands of teachers and students, a resource optimization model centered on the trinity collaboration of "teacher - GenAI - student" is proposed. Teaching resources are scientifically divided, and a four-step dynamic process of "data collection - demand transformation - resource generation - application iteration" is designed. Taking the "Obstacle Avoidance Design of Intelligent Logistics Robots" project of the Python course in higher vocational education as a case for practical verification, the results show that students' mastery rate of sensor principles, code debugging efficiency, and ability of cross-scenario knowledge transfer have all improved. This model has achieved the transformation of teaching resources from supply-driven to demand-led by precisely matching the needs of teachers and students and dynamically optimizing the supply of resources, providing theoretical support and practical paths for the construction of the human-machine collaborative education ecosystem.

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Published
2025-06-20
DOI
https://doi.org/10.1145/3756580.3756610
Primary Topic
Innovative Educational Techniques
Type
article
Field-Weighted Citation Impact
0.00

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article

Construction of Teaching Resource Optimization Model from the Perspective of Human-Machine Collaboration

C.M. Wang, Wenqing Li, Pingzhang Gou
Innovative Educational Techniques
article

Construction of Teaching Resource Optimization Model from the Perspective of Human-Machine Collaboration

C.M. Wang, Wenqing Li, Pingzhang Gou
article en

Abstract

This study aims at the current problems such as the disconnection and insufficient adaptability between digital teaching resources and the needs of teachers and students, and constructs a teaching resource optimization model from the perspective of human-machine collaboration, in order to improve resource allocation, enhance the accuracy of resources and personalized teaching. By analyzing the demands of teachers and students, a resource optimization model centered on the trinity collaboration of "teacher - GenAI - student" is proposed. Teaching resources are scientifically divided, and a four-step dynamic process of "data collection - demand transformation - resource generation - application iteration" is designed. Taking the "Obstacle Avoidance Design of Intelligent Logistics Robots" project of the Python course in higher vocational education as a case for practical verification, the results show that students' mastery rate of sensor principles, code debugging efficiency, and ability of cross-scenario knowledge transfer have all improved. This model has achieved the transformation of teaching resources from supply-driven to demand-led by precisely matching the needs of teachers and students and dynamically optimizing the supply of resources, providing theoretical support and practical paths for the construction of the human-machine collaborative education ecosystem.

Northwest Normal University (CN)
Northwest Normal University
Openalex Percentile: Top 72%
Innovative Educational Techniques
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