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基于图谱赋能+智能伴学+数智评价的现代工科微生物学智慧课程生态系统的构建与实践
作者:
作者单位:

1西安电子科技大学 生命科学技术学院,陕西 西安 710126;2西安电子科技大学研究生院,陕西 西安 710126

作者简介:

谢晖:课程主讲,总体改革实施,文章撰写,数据分析,获取基金;付凯元:方法论,评价优化,获取基金;朱守平:执行调研,提供材料,提供资源;任子琪:执行调研,软件程序,教学追踪;陈雪利:监督指导,稿件润色修改,方案设计,项目管理。

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基金项目:

全国教育科学规划一般项目(ZTB250519);西安电子科技大学名师培育项目(MS251501)


Construction and practice of a modern smart course ecosystem of Modern Engineering Microbiology based on graph empowerment+intelligent companion learning+digital intelligence evaluation
Author:
Affiliation:

1School of Life Science and Technology, Xidian University, Xi’an 710126, Shaanxi, China;2Graduate School, Xidian University, Xi’an 710126, Shaanxi, China

Fund Project:

This work was supported by the General Project of National Educational Science Planning (ZTB250519) and the Xidian University Distinguished Teacher Training Program (MS251501).

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    摘要:

    在教育数字化转型和智能赋能高等教育背景下,本课程团队针对电子信息特色的现代工科微生物课程内容体系、师-生-机三元深度交互优化以及全周期精准实时评价3个核心问题进行了深入探索,构建了一个集成“图谱赋能+智能伴学+数智评价”功能的智慧课程生态系统。该系统以微生物学基础理论为基石,利用知识-问题-育人多维度图谱将复杂的概念、机制、工程问题及价值观目标可视化和逻辑化,实现了课程内容的结构化导航。通过深度融合生物医学工程专业人才培养方案中的跨学科核心知识关联,强化了学习目标的达成。此外,开发了一种基于海量数字化资源训练迭代而成的智能助教系统,提供个性化学习路径和即时反馈,有效增强了学生对课程内容的掌握。自主研发的三全育人多模态数智评价系统能够全程追踪并可视化学生的学习成效,实现精准指导。经过多轮教学实践迭代,结果显示学生的知识点掌握度、自主学习投入度及学习成绩均有显著提升。这一智慧课程生态系统的建设不仅提升了教学效率,促进了学生主动学习与批判思维的发展,还公平公正地量化了学生的全过程学习成效,为培养具有医工交叉背景的新工科生物医学工程拔尖创新人才奠定了坚实的基础。

    Abstract:

    In the context of digital transformation in education and intelligent empowerment of higher education, our course team has conducted in-depth exploration on three core issues: the content system of Modern Engineering Microbiology with electronic information characteristics, the optimization of teacher-student-machine deep interaction, and the full-cycle accurate real-time evaluation. We have built a smart course ecosystem that integrates graph empowerment, intelligent companion learning, and digital intelligence evaluation. The system is based on the fundamental theory of microbiology and utilizes a multidimensional graph encompassing knowledge, problem, and education to visualize and logicalize complex concepts, mechanisms, engineering problems, and value goals, achieving structured navigation of course contents. Through the deep incorporation of interdisciplinary core knowledge connections in the talent training program for biomedical engineering, the achievement of learning objectives has been strengthened. In addition, we have developed an intelligent teaching assistant system based on massive digital resource training iterations to provide personalized learning paths and instant feedback, effectively enhancing students’ mastery of course contents. The independently developed multimodal digital intelligence evaluation system for comprehensive education can track and visualize students’ learning outcomes throughout the process, achieving precise guidance. After multiple iterations of teaching practice, the results show that students’ mastery of knowledge points, engagement in self-directed learning, and academic performance have all significantly improved. The construction of this intelligent course ecosystem not only improves teaching efficiency and fosters students’ active learning and critical thinking, but also fairly and justly quantifies the learning outcomes of students throughout the entire process, laying a solid foundation for cultivating outstanding innovative talents in biomedical engineering in the context of emerging engineering education.

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谢晖,付凯元,朱守平,任子琪,陈雪利. 基于图谱赋能+智能伴学+数智评价的现代工科微生物学智慧课程生态系统的构建与实践[J]. 微生物学通报, 2026, 53(4): 1754-1771

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  • 收稿日期:2025-12-17
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  • 在线发布日期: 2026-04-22
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