Department of Chemistry, Michigan State University, East Lansing, Michigan, United States of America.
Department of Physics & Astronomy, Michigan State University, East Lansing, Michigan, United States of America.
PLoS One. 2024 May 31;19(5):e0295887. doi: 10.1371/journal.pone.0295887. eCollection 2024.
In recent years, much of the emphasis for transformation of introductory STEM courses has focused on "active learning", and while this approach has been shown to produce more equitable outcomes for students, the construct of "active learning" is somewhat ill-defined and is often used as a "catch-all" that can encompass a wide range of pedagogical techniques. Here we present an alternative approach for how to think about the transformation of STEM courses that focuses instead on what students should know and what they can do with that knowledge. This approach, known as three-dimensional learning (3DL), emerged from the National Academy's "A Framework for K-12 Science Education", which describes a vision for science education that centers the role of constructing productive causal accounts for phenomena. Over the past 10 years, we have collected data from introductory biology, chemistry, and physics courses to assess the impact of such a transformation on higher education courses. Here we report on an analysis of video data of class sessions that allows us to characterize these sessions as active, 3D, neither, or both 3D and active. We find that 3D classes are likely to also involve student engagement (i.e. be active), but the reverse is not necessarily true. That is, focusing on transformations involving 3DL also tends to increase student engagement, whereas focusing solely on student engagement might result in courses where students are engaged in activities that do not involve meaningful engagement with core ideas of the discipline.
近年来,基础阶段 STEM 课程改革的重点主要放在“主动学习”上,尽管这种方法已经证明对学生的效果更为公平,但“主动学习”的概念有些模糊,通常被用作一个“包罗万象”的术语,可以涵盖多种教学方法。在这里,我们提出了一种替代方法来思考 STEM 课程的改革,该方法侧重于学生应该知道什么以及他们可以用这些知识做什么。这种方法被称为三维学习(3DL),它源自美国国家科学院的“K-12 科学教育框架”,该框架描述了一种以构建对现象的富有成效的因果解释为中心的科学教育愿景。在过去的 10 年中,我们从基础生物学、化学和物理课程中收集数据,以评估这种转变对高等教育课程的影响。在这里,我们报告了对课堂视频数据的分析,该分析使我们能够将这些课程描述为主动的、三维的、非主动的或三维和主动的。我们发现,三维课程很可能涉及学生的参与(即主动),但反之则不然。也就是说,专注于涉及 3DL 的转变也往往会增加学生的参与度,而仅仅关注学生的参与度可能会导致学生参与到不涉及学科核心思想的有意义的活动中。