DEVELOPMENT AND IMPLEMENTATION OF A DIVERSIFIED, SELF-DIRECTED TALENT DEVELOPMENT MODEL FOR COMMUNICATION ENGINEERING UNDER EMERGING ENGINEERING EDUCATION
Keywords:
Emerging Engineering Education, Communication Engineering, Talent development, Modular curriculum, Progressive practical trainingAbstract
With the extensive deployment of 5G and forward-looking research and development on 6G, the intelligent transformation of the communication industry is placing higher demands on engineering education. Conventional Communication Engineering programs still face fragmented curricula, delayed integration of emerging technologies, lecture-dominated instruction that limits innovative thinking, discontinuous practical training, and insufficient depth in university-industry collaboration. To address these limitations, this paper develops a four-component talent development model integrating differentiated track-based development, a modular curriculum, progressive practical training, and dynamic continuous improvement. Students are allowed to select development tracks according to their interests and career plans, while tiered competency development and track-specific course clusters provide targeted academic support. A progressive practice pathway connects basic experiments, integrated course projects, system integration, authentic industry projects, competitions, and capstone design. Teaching and employment feedback are further incorporated into a closed-loop improvement mechanism to keep the curriculum aligned with rapidly evolving technologies. The proposed framework provides an implementable reference for local universities seeking to strengthen application-oriented Communication Engineering education under Emerging Engineering Education.References
[1] Bao J Y. Zhang Ping: Network capabilities must evolve with the times from 5G-A to the 6G intelligent era. Communications World, 2025(10): 11.
[2] Hu Y, Zhang X Z, Zeng S F, et al. Exploration of an interdisciplinary talent development model for "Artificial Intelligence + Communication Engineering". Internet Weekly, 2024(20): 50-52.
[3] Wang Q, Yao L, Wang E L. Practice and exploration in developing a national first-class Communication Engineering program at application-oriented undergraduate universities. Journal of Jilin Engineering Normal University, 2022, 38(6): 72-74.
[4] MIT EECS Department. Interdisciplinary programs in communications and machine learning. 2022. https://www.eecs.mit.edu.
[5] Qiyue G, Rongjian L, Shiyao Z, et al. Research on the "Competition-Teaching" Integrated Experimental Teaching Model for "Python Programming". International Educational Research Development, 2026, 3(3): 7-9. DOI: 10.662022/IERD.ISSN3007-7664.2026.03.003.
[6] Ge K, Kang Z, Zhu M, et al. Research on the Teaching Reform of "Promoting Teaching and Learning through Competitions" in the Course of Principles and Applications of Embedded Systems: A Case Study of the Embedded Systems Event in the Lanqiao Cup Electronic Design Competiti. Journal of Natural Science Education, 2024, 1(5): 23-29. DOI: 10.62517/JNSE.202417505.
[7] Hu Y. Avoiding the "Pragmatism" Trap in School-Enterprise Cooperation: Constructing Moral Education Pathways in "Cooperative Teaching" in Vocational Colleges. New Explorations in Education and Teaching, 2026, 4(6). DOI: 10.70711/NEET.V4I6.9531.
[8] Sun L. Developing “Double-Qualified” Teachers in Vocational Colleges: The Role of School-Enterprise Cooperation. Journal of Educational Research and Policies, 2026, 8(5): 103-109. DOI: 10.53469/JERP.2026.08(05).13.