新工科背景下人工智能驱动的离散数学课程教学模式探索
Exploring an AI-Driven Teaching Model for Discrete Mathematics Courses in the Context of Emerging Engineering Education
DOI: 10.12677/ve.2025.149434, PDF,    国家自然科学基金支持
作者: 朱秀丽, 鞠亚美:上海理工大学光电信息与计算机工程学院,上海;王 鹏*:上海交通大学自动化与感知学院,上海
关键词: 离散数学人工智能教学模式探索Discrete Mathematics Artificial Intelligence Teaching Model Exploration
摘要: 在新工科“智能+”战略背景下,离散数学作为衔接数学理论与计算思维的核心基础课程,面临“内容抽象、场景缺位、智能缺位”的三重困境。本文深入剖析其根源:1) 概念高度抽象,脱离真实工程语境,导致学生难以建立认知锚点;2) 教学场景单一,缺少跨学科项目驱动,致使知识迁移受阻;3) 智能化手段流于表层,未能与课程知识图谱、学习数据深度融合。针对上述痛点,提出“一体两翼三融”教学模式:以“课堂教学”为体,承载课程目标与能力指标;以“人工智能相关竞赛”和“企业项目实践”为两翼,分别提供智能交互环境与工程实践场域;通过“专业教师与思政教师–思政教育和岗课赛证–线下与线上育人”三融,实现专业教师与思政教师协同、思政元素与岗课赛证融通、线下与线上育人联动,形成“价值塑造–知识传授–能力培养”一体化的离散数学课堂新生态。教学实践表明,该模式使学生的复杂问题解决能力显著提升,为新工科基础课程智能化转型提供了一种有益的探索和参考。
Abstract: Against the backdrop of the “Intelligent+” strategy for emerging engineering education, discrete mathematics—as a core foundational course bridging mathematical theory and computational thinking—faces a triple dilemma of “abstract content, absent scenarios, and absent intelligence.” This paper dissects the root causes: 1) highly abstract concepts detached from authentic engineering contexts, making it difficult for students to establish cognitive anchors; 2) monotonous instructional scenarios lacking interdisciplinary project drivers, impeding knowledge transfer; and 3) superficial application of intelligent technologies that fail to integrate deeply with course knowledge graphs and learning data. To address these pain points, we propose the “One-Body, Two-Wings, Three-Fusion” teaching model: classroom teaching serves as the “body,” carrying course objectives and competency indicators; AI-related competitions and enterprise project practices constitute the “two wings,” providing intelligent interactive environments and authentic engineering arenas, respectively. The “three fusions” integrate subject and ideological-education teachers, ideological elements with “post-course-competition-certificate,” and offline and online education, creating a new discrete-mathematics classroom ecosystem that unifies “value cultivation, knowledge delivery, and competency development”. Empirical results show that this model significantly enhances students’ complex problem-solving abilities and offers a valuable reference for the intelligent transformation of foundational courses in emerging engineering education.
文章引用:朱秀丽, 王鹏, 鞠亚美. 新工科背景下人工智能驱动的离散数学课程教学模式探索[J]. 职业教育发展, 2025, 14(9): 228-233. https://doi.org/10.12677/ve.2025.149434

参考文献

[1] 马巧梅, 何志英, 康珺, 等. “分层次引导-全过程评价”的离散数学课程教学改革与实践[J]. 电脑知识与技术, 2025, 21(8): 158-160+164.
[2] 谭作文. 新工科背景下离散数学课程“案例 + 四层次实验”实践教学探索[J]. 计算机教育, 2024(3): 199-204.
[3] 司亚利, 聂盼红, 李峰, 等. 离散数学课程创新教学探索[J]. 计算机教育, 2023(9): 78-81.
[4] 林开彬, 汪政, 彭立, 等. 生成式人工智能赋能离散数学课程教学改革探索[J]. 电脑知识与技术, 2025, 21(6): 159-163.
[5] 董玲珍, 杨明俊, 温智华. 离散数学课程教学改革的实践与分析[J]. 现代职业教育, 2023(19): 129-132.
[6] 杜秀全. 关于离散数学形象化教学的思考[J]. 电脑知识与技术, 2014, 20(11): 7661-7663.
[7] 何楚明, 刘冬宁. 离散数学课程中计算思维与课程思政的切入与融合[J]. 计算机教育, 2023(2): 79-82.