新工科背景下生成式AI融入“工具–协作–批判”教学与科研协同育人实践——以汽车工程材料课程为例
Integrating Generative AI into “Tool-Collaboration-Critique” Teaching and Research Practice under the New Engineering Background—Taking Automotive Engineering Materials Course as an Example
摘要: 新工科建设对材料学科人才培养提出了更高要求,然而当前汽车工程材料课程教学中,生成式AI的应用普遍停留在“智能问答”式的浅层辅助,与真实科研实践严重脱节。为此,本文提出并实践了一种从“智能问答”走向“实验求证”的研究性教学模式。该模式以“AI辅助生成可验证假设–团队协作优化–实验实证批判修正”为核心链路,将真实科研任务——“AI辅助设计新型锂电池电解质材料”——贯穿教学全程。实践表明,学生借助生成式AI工具成功筛选出三种新型化合物,经实验室合成与电化学性能测试,实测数据显示其性能较传统材料显著提升,相关教学案例成果已整理并拟投稿至国际EI会议进行学术交流。该模式有效弥合了AI应用与科研训练之间的鸿沟,实现了“以研促学、以学助研”的良性循环,为新工科背景下材料类课程的教学改革提供了可复制的研究性教学路径。
Abstract: The development of New Engineering Education imposes increasingly rigorous demands on talent cultivation in materials science. Nevertheless, within the current teaching framework of the Automotive Engineering Materials course, the application of generative artificial intelligence remains predominantly confined to a superficial assistive level—typically in the form of intelligent question‑answering—which is markedly disconnected from authentic research practice. In response, this study presents and implements a research‑oriented pedagogical model that transitions from “intelligent Q&A” to “experimental validation.” The model is structured around a core loop: AI‑assisted generation of verifiable hypotheses, team‑based collaborative optimization, and empirical verification with critical revision. A real‑world research task—the AI‑assisted design of novel electrolyte materials for lithium batteries—is seamlessly integrated throughout the entire instructional process. Empirical results show that students, using generative AI tools, successfully screen three novel compounds. Subsequent laboratory synthesis and electrochemical performance testing reveal that the measured properties are substantially improved over those of conventional materials. The outcomes of this pedagogical case are systematized and are intended for submission to an international EI‑indexed conference for scholarly dissemination. This model effectively narrows the gap between AI application and research training, thereby achieving a virtuous cycle of “research‑enhanced learning and learning‑supported research.” It offers a replicable pathway for research‑oriented teaching reform in materials‑related curricula within the context of New Engineering Education.
文章引用:赵梦涵, 郑云天, 王磊, 刘浩浩, 马正元, 梁巍, 秦颐鸣, 罗泽顺吉, 黄伊琳, 方黎阳, 师维涛, 卢双燕, 王若, 陈珊珊. 新工科背景下生成式AI融入“工具–协作–批判”教学与科研协同育人实践——以汽车工程材料课程为例[J]. 教育进展, 2026, 16(9): 443-453. https://doi.org/10.12677/ae.2026.1691922

参考文献

[1] 徐晓飞, 张策. 生成式人工智能赋能工程教育及学生能力的培养, 测评与认证体系[J]. 高等工程教育研究, 2025(4): 1-9.
[2] 教育部: 实施“六卓越一拔尖”计划2.0 [J]. 教育(周刊), 2018(44): 8.
[3] 翁俊强. 新型材料在汽车上的应用[J]. 时代汽车, 2020(22): 11-12.
[4] 张容基. 新型材料在新能源汽车零部件轻量化设计中的应用研究[J]. 模具制造, 2025, 25(3): 177-179.
[5] 刘琪, 冒国兵. 新工科建设背景下材料科学与工程专业建设与综合改革探索[J]. 黑龙江工业学院学报(综合版), 2019, 19(5): 25-28.
[6] 卢宇, 余京蕾, 陈鹏鹤, 等. 生成式人工智能的教育应用与展望——以ChatGPT系统为例[J]. 中国远程教育, 2023(4): 24-31, 51.
[7] 刘邦奇, 聂小林, 王士进, 等. 生成式人工智能与未来教育形态重塑: 技术框架、能力特征及应用趋势[J]. 电化教育研究, 2024, 45(1): 13-20.
[8] 刘三女牙, 郝晓晗. 生成式人工智能助力教育创新的挑战与进路[J]. 清华大学教育研究, 2024, 45(3): 1-12.
[9] 郭蕾蕾. 生成式人工智能驱动教育变革: 机制、风险及应对——以DeepSeek为例[J]. 重庆高教研究, 2025, 13(3): 38-47.
[10] 林佳妮, 胡德鑫, 夏淑倩, 等. 新工科研究与实践的发展现状、成效评价与未来趋势[J]. 高等工程教育研究, 2024(2): 38-43.
[11] 龙莹. 机械类专业“工程材料”课程教学改革——以车辆工程专业为例[J]. 科技风, 2024(24): 74-76.
[12] 曹宇, 李晓雪, 解莉, 等. 混合式教学模式下的课程思政开展模式构建——以机械工程材料为例[J]. 汽车实用技术, 2024, 49(16): 153-157.
[13] 邓想, 郭朝博, 郭战永, 等. 基于现代信息技术的《机械工程材料》课程教学改革与实践[J]. 内江科技, 2024, 45(7): 66-68.
[14] 张润博, 于柏峰, 遇家运. 人工智能在纤维增强复合材料制造中的应用研究[J]. 高科技纤维与应用, 2024, 49(6): 37-47.
[15] Rabbi, A.B.K. and Jeelani, I. (2024) AI Integration in Construction Safety: Current State, Challenges, and Future Opportunities in Text, Vision, and Audio Based Applications. Automation in Construction, 164, Article 105443.
https://doi.org/10.1016/j.autcon.2024.105443