论文标题
调查学生如何通过结构化任务进行合作以引起物理问题
Investigating how students collaborate to generate physics problems through structured tasks
论文作者
论文摘要
传统上,物理教育研究的学者会注意学生解决结构良好的学习活动的学生,这为合作和创意的近距离提供了限制的空间。为了鼓励小组成员之间的信息社会化,我们利用了一个现实世界中的问题,要求学生生成结构良好的物理任务,并调查了学生团体如何在北部辣椒大学的一所大学的入门物理课程上为年轻学生提供物理问题的合作。数据收集包括音频记录小组讨论,同时他们正在协作以开发其物理问题以及为问题创建的解决方案。通过访谈,我们访问了学生对任务及其挑战的看法。结果表明,产生问题是学生提出想法并就问题,概念和程序,上下文细节以及大小和单位进行决定的机会,以在其产生的问题中介绍问题。此外,我们发现了证据表明,小组通过参与经常观察到基于代数的物理问题的策略来测试其创造的有效性,例如数学程序和对问题中嵌入的物理学的定性描述,但与更多的定性描述相比,小组在基于代数的策略中投入了更多时间。学生们重视任务的开放性质,并认识到其将物理思想用于上下文中的好处,这反过来又以与传统基于代数的问题不经历的方式相关的合作。这些发现支持将生成活动用作学生参与现实世界中物理问题的途径,从而允许各种集体过程和思想。
Traditionally, scholars in physics education research pay attention to students solving well-structured learning activities, which provide restricted room for collaboration and idea-generation due to their close-ended nature. In order to encourage the socialization of information among group members, we utilized a real-world problem where students were asked to generate a well-structured physics task, and investigated how student groups collaborated to create physics problems for younger students at an introductory physics course at a university in northern Chile. Data collection consists of audio recording the group discussions while they were collaborating to develop their physics problems as well as the solutions they created to their problems. Through interviews, we accessed students' perceptions on the task and its challenges. Results suggest that generating problems is an opportunity for students to propose ideas and make decisions regarding the goals of the problem, concepts and procedures, contextual details and magnitudes and units to introduce in their generated problems. In addition, we found evidence that groups tested the validity of their creations by engaging in strategies often observed with algebra-based physics problems, such as mathematical procedures and qualitative descriptions of the physics embedded in the problem, yet groups invested more time with algebra-based strategies compared to more qualitative descriptions. Students valued the open-ended nature of the task and recognized its benefits in utilizing physics ideas into context, which in turn enabled collaboration in a way not experienced with traditional algebra-based problems. These findings support the use of generative activities as a pathway for students to engage in real-world physics problems that allow for a range and variety of collective processes and ideas.