Implementing Interactive Laboratory-Based Learning Techniques in Second-Semester Introductory Physics

在第二学期物理入门中实施基于交互式实验室的学习技术

• 批准号: 9455732
• 负责人: Gay Stewart
• 金额: $ 17.36万
• 依托单位: University of Arkansas
• 依托单位国家: 美国
• 项目类别: Continuing Grant
• 财政年份: 1995
• 资助国家: 美国
• 起止时间: 1995-05-15 至 2000-09-30
• 项目状态: 已结题
• 来源: https://www.nsf.gov/awardsearch/showAward?AWD_ID=9455732&HistoricalAwards=false
• 关键词: Implementing; Interactive; Laboratory; Based; Learning

9455732 Stewart Research shows that students use formula-centered problem-solving strategies that differ from those used by experienced scientists, and that the knowledge students gain in introductory physics is a randomly organized set of facts and equations, with little conceptual understanding and many misconceptions. Many approaches have been developed to overcome these problems, and have met with reasonable success in small institutions, or for a particular professor. These approaches are often too expensive or complicated to transfer to large comprehensive universities. Also, graduate students, the future instructors of science, are in general inadequately trained as educators. A teaching system designed to overcome these problems in a method that could be standardized and made available to larger engineering schools, as well as being appropriate for smaller institutions, will be developed. The method involves leading the student from concrete "hands-on" examples to conceptual understanding through group discussion, in the idea first, name afterward fashion. Quantitative experimental results provide verification. Concepts are related to everyday phenomena familiar to the student. Students are taught how to think about physics problems. Cooperative learning, found to improve retention of female and minority students, is emphasized. Graduate and advanced undergraduate students are brought into the teaching process as apprentices, with materials to acquaint them with the teaching strategies to be employed. In a calculus-based introductory physics course (300 students annually), over a three year period, the technique will be refined, using testing and interviews to determine the most successful strategies. The results will be made available in a format designed to facilitate implementation elsewhere. A standard of evaluation for conceptual understanding for electromagnetism, similar to the Hestenes mechanics evaluati on, will be developed. The "hands-on" Activity Guide would be useful in non-engineering courses, particularly classes for educators, and could be adapted for use in lower education.

小行星9455732 研究表明，学生使用的以公式为中心的解决问题的策略与经验丰富的科学家使用的策略不同，学生在入门物理学中获得的知识是一组随机组织的事实和方程，几乎没有概念理解和许多误解。已经开发了许多方法来克服这些问题，并且在小型机构或特定教授中取得了合理的成功。这些方法往往过于昂贵或复杂，无法转移到大型综合性大学。此外，研究生，未来的科学教师，一般没有得到充分的教育培训。将开发一种教学系统，以克服这些问题，其方法可以标准化，可供较大的工程学校使用，也适用于较小的机构。该方法包括引导学生从具体的“动手”的例子，通过小组讨论的概念理解，在想法第一，名称后的时尚。定量实验结果提供了验证。概念与学生熟悉的日常现象有关。教学生如何思考物理问题。合作学习，发现提高保留的女性和少数民族学生，强调。研究生和高级本科生作为学徒被带入教学过程，并提供材料让他们熟悉将要采用的教学策略。在一个以微积分为基础的入门物理课程（每年300名学生）中，在三年的时间里，将使用测试和面试来确定最成功的策略，从而完善该技术。结果将以一种旨在便利其他地方执行的格式提供。一个评价标准的概念理解的电磁学，类似于Hestenes力学评价，将制定。“动手”活动指南在非工程课程中，特别是在教育工作者的课堂上将是有用的，并可加以调整，以供在较低教育中使用。