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The research objective of this NSF-funded study is to explore and understand how open-ended, hands-on making work and activities can reflect student learning trajectories and learning gains in the product-based learning, undergraduate engineering classroom. The aim is to expand understanding of what making learning in the context of engineering design education might be and to illustrate educational pathways within the engineering education curriculum. Making is rooted in constructionism – learning by doing and constructing knowledge through that doing. Aspects of making work and activities that are unique to making that could appear in the engineering classroom or curriculum include: sharing, practical ingenuity, personal investment, playful invention, risk taking, community building and self-directed learning. The main research questions of this work is: How do engineering students learn and apply making? What are the attributes of making in the engineering classroom? Empirical evidence of what making in the engineering classroom looks like, and how it changes over time, and how students conceptualize making through making, designerly, and engineering ways of knowing-doing-acting will come from revisiting and additional qualitative analysis of student project data collected during a product-based learning course engineering design course. To best address the research question, this proposed study proposes multiple qualitative methods to collect and analyze data on engineering students learning making. We aim to triangulate what students think they are learning, what they are being taught, and what students are demonstrating. This work is exploratory in nature. In our approach to understanding making outside of formal engineering education, at events like Maker Faires in the Maker Community, it does seem evident that there is a lot of overlap between a making mindset and a designerly way of knowing or engineering way of knowing. In the sphere of formal engineering education however, making is regularly viewed as lesser than engineering, engineering design without the engineering science or analysis. Making is not yet valued as part of formal engineering education efforts. If making is something that can be connected to beneficial student learning and is additive to the required technical content and provides a means for students to figure out what area of problems they want to tackle in the studies and beyond, it would make for a student-centered making revolution. This study advances the knowledge of the learning pathways of making by capturing empirical evidence of such learning trajectories. This study will advance the currently limited knowledge of learning in the making community and making in the engineering classroom. Initial findings generated during this study describe the learning trajectories of engineers learning making. By examining the engineering student making learning experience through the lens of cognitive science and illustrating empirical making learning trajectories, this work may impact the quality of engineering design teaching. By sharing learning trajectories across multiple communities, we seek to change the conversation by illuminating pathways for a wider array of student makers to become the makers and engineers of the future. 

Within the last ten years, the Maker Movement has had a significant effect on Science, Technology, Engineering and Mathematics (STEM) education. Growing in tandem with the interest in makerspaces, digital fabrication technology, and innovation-oriented curricula has been researchers’ desire to understand the pedagogical value of these efforts. Strategies have included measuring technological literacies, uncovering the links between Maker practices and professional engineering standards, and developing standards to capture the non-technical skills, such as self-efficacy and persistence, that Makers develop. The diffusion of Maker Education research has worked in favor of constructing diverse kinds of knowledge, but at the expense of developing coherent theory, pedagogy, and practice. Even within Engineering Education, the aims, theoretical approaches, and methods used to study Maker Education vary widely. Given that a significant body of literature has been amassed, we believe it is an opportune time to take stock of what has been learned through Maker Education research. As an initial step towards a larger multidisciplinary study, this paper will focus on assessing the state of Engineering Education literature on Maker Education and synthesizing it with theoretical frameworks established within Learning Sciences research.