人工智能时代中外合作办学基础生物化学课程知识图谱融入教学的构筑与实践
Construction and Practice of Integrating Knowledge Graphs into General Biochemistry Teaching under Sino-Foreign Cooperative Education in the AI Era
DOI: 10.12677/ass.2026.155423, PDF,    科研立项经费支持
作者: 张小宁*, 谢 洁*, 周 游, 刘晓姣:西南大学蚕桑纺织与生物质科学学院,重庆2;;;西南大学西塔学院,重庆;龙梦娴:西南大学资源昆虫高效养殖与利用全国重点实验室,重庆
关键词: 知识图谱人工智能中外合作办学Knowledge Graph Artificial Intelligence Sino-Foreign Cooperative Education
摘要: 针对人工智能(AI)时代中外合作办学《基础生物化学》课程全英文教学中面临的知识呈现碎片化、学情差异化等痛点,本工作探索了知识图谱与AI技术深度融合的教学模式。依托智慧教学平台,教学团队开展了多维层级知识图谱的协同构建,实现跨课程与跨章节知识点的有效连接;引入大语言模型辅助知识图谱构建与PBL情境教学设计;融合中外教师跨文化视域共铸高阶思想育人节点;结合中外数字化工具(超星学习通与EchoPoll)实施数据驱动的全过程互动教学闭环,并在教学过程中规范AI使用。问卷调查数据表明,学生对该授课模式的满意度达100%;96.43%的学生认为中外数字化工具互补显著提升了课堂互动与沉浸感;96.43%的学生认可知识图谱对理解课程内容的帮助。本次教学实践表明,“图谱驱动、AI赋能、中外协同”的教学模式有效破解了传统全英文教学瓶颈,显著降低了跨语言认知负荷,为人工智能时代中外合作办学背景下课程全英文教学提供了一个有益的探索和参考案例。
Abstract: To address the challenges of knowledge fragmentation and diverse learner profiles in fully English-taught courses under Sino-foreign cooperative education, this study explores an innovative pedagogical model integrating knowledge graphs and artificial intelligence (AI) for a General Biochemistry course. Supported by intelligent educational platforms, a multi-dimensional hierarchical knowledge graph was constructed to facilitate cross-disciplinary and inter-chapter knowledge connections. Large language models (LLMs) were employed to assist in the construction of the knowledge graph and the design of Problem-Based Learning (PBL) instructional contexts. Furthermore, a cross-cultural collaborative approach was adopted by Chinese and Australian instructors to co-construct high-order, value-shaping educational nodes. By combining complementary digital tools (Chaoxing Xuexitong and EchoPoll), a data-driven, closed-loop interactive teaching environment was implemented, alongside the establishment of clear ethical guidelines for AI usage. Empirical results from student surveys indicate a 100% overall satisfaction rate with the proposed teaching model. Specifically, 96.43% of the participants reported that the digital tools significantly enhanced the class participation, and an equal percentage (96.43%) acknowledged the knowledge graph’s effectiveness in facilitating content comprehension. These findings suggest that the “Graph-Driven, AI-Empowered, and Cross-Culturally Collaborative” teaching framework effectively overcomes the limitations of traditional English-taught courses and significantly mitigates cross-linguistic cognitive load. This study provides a highly valuable practical paradigm for fully English-taught courses in Sino-foreign cooperative education in the AI era.
文章引用:张小宁, 谢洁, 周游, 龙梦娴, 刘晓姣. 人工智能时代中外合作办学基础生物化学课程知识图谱融入教学的构筑与实践[J]. 社会科学前沿, 2026, 15(5): 484-493. https://doi.org/10.12677/ass.2026.155423

参考文献

[1] 张铭锐, 闫志明, 孙铭璐, 刘方媛, 张昕. 教师知识图谱: 人工智能赋能教师专业发展的必由之路[J]. 现代教育技术, 2023, 33(8): 38-47.
[2] 赵万祥, 李滔, 刘强, 王玉枝. 以活动为导向的有机化学知识图谱构建与实践[J]. 化学教育(中英文), 2024, 45(4): 113-120.
[3] 伍宏珏. 基于知识图谱的自适应学习路径生成技术研究[J]. 信息产业报道, 2023(5): 94-96.
[4] 崔婉蓉, 张婧. 基于知识图谱可视化的数学课堂教学评价研究探析[J]. 教育进展, 2022, 12(6): 1878-1885.
[5] 谢兆辉, 焦德杰, 王丽燕, 曹际云. 生物化学课程思政融合点的发掘[J]. 化学教育, 2020, 41(14): 71-75.
[6] 段丹阳. 中国高校全英教学理论探讨[J]. 高等建筑教育, 2017, 26(5): 82-86.
[7] 张德祥. 高等教育基本关系与高等教育学体系建设[J]. 高等教育研究, 2020, 41(10): 46-54.
[8] 宋俊祎, 吴小敏, 叶宗煌, 朱律韵, 胡碧茹. 高等生物化学课程思政模块设计[J]. 教育科学, 2022(8): 167-170.
[9] 邬艳. 基于知识图谱的个性化学习系统研究与实现[D]: [硕士学位论文]. 南昌: 江西师范大学, 2022.