Volume 8,Issue 9
Innovative Research on Teaching Mode of Integrating Digital Teaching Resources Into Theoretical Mechanics Classroom
As a core basic course for engineering disciplines, Theoretical Mechanics has long confronted teaching dilemmas including abstract concepts, hard‑to‑visualize motion processes and complicated mathematical derivations. Targeting the structural contradiction of “difficult‑to‑teach” and “difficult‑to‑learn” in traditional classrooms, this paper analyzes the visual‑oriented and fragmented cognitive characteristics of students in the digital age and puts forward feasible paths for the integration of digital resources. This research focuses on constructing systematic resources covering dynamic visualization, step‑by‑step deduction, and virtual‑real integrated engineering cases. It also designs a whole‑process teaching mode of “pre‑class resource preloading and problem‑oriented guidance — in‑class dynamic demonstration and interactive discussion — after‑class virtual simulation and hierarchical expansion”. Practice shows that this mode can effectively resolve difficult knowledge points and improve students’ capabilities in mechanical modeling and engineering analysis. With rigorous logical organization, this paper provides an operable innovative paradigm for classroom reform of Theoretical Mechanics.
[1] Zhu K, Tang Q, Yang Q, 2025, Research on Application of Digital Courseware in Classroom Teaching of Theoretical Mechanics. Science-Education Article Collects, (23): 132–136.
[2] Zhang Y, Wang G, 2025, Exploration on Teaching-Mode Reform of the Digitally-Empowered “Sports Biomechanics” Course. Journal of Hefei Normal University, 43(6): 128–132.
[3] Zhang N, Yang X, Wang X, et al., 2025, Exploration on Digital Transformation of Mechanics of Materials Course Teaching: Procedures, Experiments and Classroom. Higher Education in Science, (6): 84–91.
[4] Zhang T, Wang W, Wang W, et al., 2025, Teaching-Reform Reflections on Hydraulics Course Promoted by Digital Education Under the Background of Emerging Engineering Education. Youth of Shanxi, (19): 139–141.
[5] Yin X, 2025, Exploration on Large-Unit Physics Experiment Teaching Integrating Digitization and Contextualization—Taking “Mechanics” Unit Experiment Teaching of Junior High-School Physics (Shanghai-Science-and-Technology Press Edition) as an Example. Middle-School Teaching Reference, (29): 47–50.
[6] Lin L, 2025, Improvement of Senior-High-School Physics Mechanics Experiments and Application-Effect Analysis of Digital-Experiment Tools. Gaokao, (25): 107–109.
[7] Zhang X, Yuan B, 2025, Practice and Exploration of Integrated Teaching-Evaluation for “Engineering Mechanics” Under Digital Background. Journal of Huaibei Normal University (Natural-Science Edition), 46(1): 83–87.
[8] Han M, 2024, Digitally-Empowered New Ecology of Vocational-Course Education—Taking Fluid Mechanics Course Teaching as an Example. China Journal of Multimedia & Network-Based Teaching (Mid-Month Edition), (12): 9–12.
[9] Zhang M, Liang Y, Li H, et al., 2024, “Theory-Practice Integration and AI Empowerment”: Teaching Practice and Exploration of “Theoretical Mechanics” Under Digital Transformation. In: Teaching Steering Committee for Aerospace-Related Majors in Institutions of Higher Education Under Ministry of Education, Proceedings of the 6th National Teaching-and-Research Symposium for Aerospace-Related Majors in Institutions of Higher Education. Beihang University Press: 930–936.
[10] Zhang J, 2024, Teaching Innovation and Practice of Theoretical Mechanics Driven by Progressive Teaching-and-Learning Coupling. China University Teaching, (5): 39–44.
[11] Wang X, 2023, Application of Virtual-Simulation Digital Textbooks in Mechanics-Course Teaching. Industry and Science-Technology Forum, 22(20): 86–87.
[12] Zhao Z, Fu Y, Chen J, et al., 2022, Construction of Digital Teaching Resources and Online-Course Groups for Basic Mechanics. China Modern Educational Equipment, (11): 21–23.
[13] Chen X, Zhuo X, Li X, et al., 2022, Exploration on Industry-Oriented Talent-Cultivation Mode for Digital Modeling and Simulation—Taking Engineering Fluid Mechanics Teaching as an Example. Higher Architectural Education, 31(3): 63–69.
[14] Cao Y, 2022, Exploration on Integration of Junior-High-School Physics Experiment Teaching From the Perspective of Scientific-and-Technological Innovation. Science-Examination Research for Middle Schools, 29(12): 33–36.