Redesign and Implementation of Project-Based Teaching Content for EDA Courses in Higher Education Institutions under the OBE Approach
DOI: https://doi.org/10.62381/ACS.EMIS2025.18
Author(s)
Xiaolan Liu1,2,*, Haili Guo1, Yuwei Qu1, Hui Liu1, Shiyao Chong1
Affiliation(s)
1Department of Physics, Hengshui University, Hengshui, Hebei, China
2Department of Economics and Management, Hengshui University, Hengshui, Hebei, China
*Corresponding Author
Abstract
This paper is guided by the OBE (Outcome Based Education) philosophy of engineering education accreditation and addresses the disconnect between theory and practice in traditional EDA (Electronic Design Automation) course instruction. It proposes a project-based teaching content restructuring reform method. Taking the Electronic Information Engineering program at Hengshui University as an example, this paper establishes a “needs-objectives-evaluation” closed-loop system based on the OBE model of engineering education accreditation. Centered on the student, this approach clarifies learning objectives, encourages personalized instruction and teamwork, emphasizes the practical application of learning and the cultivation of problem-solving skills, enabling students to better apply their knowledge to real-world work scenarios and enhance the practicality and value of their learning. Practice has proven that the improved project-based course teaching method enables students to complete system design through project collaboration, encouraging them to continuously challenge themselves and gradually enhance their capabilities. This model provides a replicable implementation paradigm for curriculum reform in electronic information-related majors and holds significant practical value.
Keywords
EDA Technology; Project-Based Teaching; OBE Concept; Tiered Teaching
References
[1] Lin W, Zhang Q, Li R. Sequential Routing-based Time-division Multiplexing Optimization for Multi-FPGA Systems, ACM Transactions on Design Automation of Electronic Systems. 2024, 29(2):1-25.
[2] Xian J, Chen Y, Wang T. et al. WCP Net: Jointly Predicting Wirelength, Congestion and Power for FPGA Using Multi-task Learning, ACM Transactions on Design Automation of Electronic Systems. 2024, 29(3):45-62.
[3] Wang Y, Li H, Zhang Z. Machine Learning for Electronic Design Automation: A Survey, ACM Transactions on Design Automation of Electronic Systems. 2021, 26(4):1-38.
[4] You H, Bi S, Li C, et al. TopoOrderPart: A Multi-level Scheduling-Driven Partitioning Framework for Processor-Based Emulation, IEEE Transactions on Computer-Aided Design of Integrated Circuits and Systems. 2024, 43(7):1305-1318.
[5] Yang D, Li T, Zhang Y. Hardware-Oriented Teaching Reform for EDA Technology Using Verilog HDL, IEEE Transactions on Education. 2025, 68(2):145-158.
[6] Xu L, Huang K, Chen R. Integration of Multisim and FPGA in Digital Circuits Laboratory Teaching, Computer Applications in Engineering Education. 2024, 32(3):512-527.
[7] Wang Q, Liu F, Zhou X. Project-Driven EDA Curriculum Design for Cultivating Engineering Practice Abilities, International Journal of Electrical Engineering Education. 2023, 60(1):89-104.
[8] Zhao M, Sun W. Embedded Evaluation System for FPGA-Based Teaching Using Six-Step Rubric Design, Journal of Engineering Education, 2024, 113(4):731-748.
[9] Tang S, Patel R. Generative AI-Assisted EDA Teaching: A Case Study of Autonomous Circuit Design, Computers & Education. 2025, 198:105632.
[10] Kumar A, Mehta V. Modular Teaching Framework for VHDL/Verilog in Undergraduate Embedded Courses, IEEE Transactions on Education. 2022, 65(4):621-635.
[11] Liu Y, Gao P. Virtual Simulation Experiments in Digital IC Backend Design Teaching Reform, ACM Transactions on Computing Education. 2023, 23(2):1-26.