Austin Shane, Millar Crystal-Ann, Christmas Sherena
Department of Biological and Chemical Sciences, The University of the West Indies, Cave Hill Campus, Bridgetown, Barbados.
Essays Biochem. 2022 Apr 29;66(1):53-63. doi: 10.1042/EBC20210048.
The use of LEGO® bricks in the higher education classroom has increased in the last two decades. This is no different in the STEM classroom and several disciplines, including physics, chemistry, and biology, have all made use of LEGO® bricks in some way to create models for active learning activities. Currently, the discipline to make the greatest use of LEGO® bricks is chemistry; only limited examples exist in biochemistry and the molecular life sciences. Here, we present the use of a LEGO® brick modelling activity in the introductory biochemistry classroom during the teaching of metabolism. We present student comments on the activity and the models that were generated by the students. Additionally, we focus on other instructor and project student-designed models for the teaching of ATP synthesis, gene regulation and restriction digestion. Interestingly, both the gene regulation and restriction digest activities were generated with the help of undergraduate students or recent graduates, by applying a backward design approach. This case study seeks to encourage more molecular life science educators to adopt the use of LEGO® bricks in their classrooms to engage in more active learning.
在过去二十年里,乐高积木在高等教育课堂中的使用有所增加。在STEM课堂中也是如此,包括物理、化学和生物学在内的多个学科都以某种方式使用乐高积木来创建用于主动学习活动的模型。目前,使用乐高积木最多的学科是化学;在生物化学和分子生命科学中只有有限的例子。在这里,我们展示了在代谢教学过程中,在基础生物化学课堂上使用乐高积木建模活动的情况。我们展示了学生对该活动以及学生制作的模型的评论。此外,我们还重点介绍了其他由教师和项目学生设计的用于ATP合成、基因调控和限制性消化教学的模型。有趣的是,基因调控和限制性消化活动都是在本科生或刚毕业的学生的帮助下,通过采用逆向设计方法生成的。本案例研究旨在鼓励更多分子生命科学教育工作者在课堂上采用乐高积木,以开展更积极的学习。