基于“AI赋能–双驱教学–动态评价”三维协同的自动化人才培养模式改革研究
Research on the Reform of the Automated Talent Training Model Based on the Three-Dimensional Synergy of “AI Empowerment, Dual-Drive Teaching, and Dynamic Evaluation”
DOI: 10.12677/ae.2026.162310, PDF,    科研立项经费支持
作者: 文 瑶*, 黄 鑫, 黄龙旺, 朱 浩:重庆邮电大学自动化学院/工业互联网学院,重庆
关键词: 人工智能自动化专业三维协同新工科人才培养AI Automation Three-Dimensional Synergy Emerging Engineering Education Talent Cultivation
摘要: 为应对智能制造时代对AI融合型自动化人才的迫切需求,针对当前自动化专业教育中存在的AI技术融合浅表化、产教协同机制不畅、评价体系单向静态等瓶颈,构建“AI赋能–双驱教学–动态评价”三维协同人才培养模式。重构传统课程体系,形成基础层–贯通层–实战层三阶递进式AI赋能课程群;打造“数字孪生虚拟仿真 + 企业真实项目案例库”双轮驱动的虚实融合教学平台,构建模拟验证–真机调试–迭代优化的工程能力培养闭环;建立基于多源学习行为大数据的动态评价系统,实现对工程实践能力的多维度精准评估与智能反馈,形成“技术赋能–平台支撑–评价引领”三位一体的新工科人才培养解决方案。
Abstract: In response to the urgent demand for AI-integrated automation talents in the era of intelligent manufacturing, addressing the current bottlenecks in automation education—such as superficial AI integration, ineffective industry-education collaboration mechanisms, and a one-dimensional static evaluation system-a three-dimensional collaborative talent cultivation model of “AI Empowerment, Dual-Driven Teaching, and Dynamic Evaluation” has been developed. This model restructures the traditional curriculum system to form a three-tier, progressively advanced AI-enhanced course cluster: foundation, integration, and application. It creates a dual-driven virtual-physical integrated teaching platform based on “digital twin virtual simulation and real-world enterprise project cases,” forming a closed-loop for cultivating engineering capabilities through simulation verification, real-device debugging, and iterative optimization. Furthermore, a dynamic evaluation system utilizing big data from diverse learning behaviors enables multidimensional, precise assessment and intelligent feedback on engineering practice skills. Ultimately, this approach establishes a comprehensive talent cultivation solution for emerging engineering education, characterized by the integration of “technology empowerment, platform support, and evaluation guidance.”
文章引用:文瑶, 黄鑫, 黄龙旺, 朱浩. 基于“AI赋能–双驱教学–动态评价”三维协同的自动化人才培养模式改革研究[J]. 教育进展, 2026, 16(2): 395-402. https://doi.org/10.12677/ae.2026.162310

参考文献

[1] 陈世军, 查长礼. 以“学科竞赛”为依托的新工科背景下自动化专业人才培养的探索与实践[J]. 教育现代化, 2020, 7(52): 36-38.
[2] da Silva, J.A.B., de Souza, P.C.P. and Valentim, R.A.M. (2023) Integration of Artificial Intelligence and Control Theory in Engineering Education: A Review and Future Directions. IEEE Transactions on Education, 66, 245-258.
[3] 李鹏, 李志坚, 马杰. “双一流”建设地方高校基础学科拔尖创新人才培养的协同创新模式研究[J]. 中国大学教学, 2025(6): 11-16.
[4] 王宏宇, 刘莉. 新工科背景下地方高校创新人才培养模式研究: 以自动化专业为例[J]. 创新创业理论研究与实践, 2023, 6(21): 85-88.
[5] 金东寒, 马新宾. 推动新工科教育迭代升级支撑服务新型工业化建设[J]. 中国高等教育, 2024(5): 8-11.
[6] 屈岩峰, 王雪飞, 侯爱菊, 赵晟锌. 地方应用型本科高校新工科专业创新型人才培养模式改革策略研究[J]. 教师, 2025(4): 146-148.
[7] 任晓芳, 林娟, 王淑红. 新工科背景下自动化专业创新创业人才培养模式改革与实践[J]. 未来与发展, 2023, 47(1): 80-85.
[8] 许德新, 赵玉新, 刘志林. 自动化类专业创新创业人才培养实践教学体系构建与实施路径[J]. 创新创业理论研究与实践, 2024, 7(6): 105-110.