Abstract:The proliferation of higher education makerspaces -sites where students, faculty, and staff design and build solutions to engineering challenges and other problems -suggests that such spaces have a special value on university campuses in a number of contexts. This paper reports on the unique impact of a higher education makerspace (the Yale Center for Engineering Innovation and Design) in the arena of design education. We review the history of design education, identifying the values of this form of pedagogy a… Show more
“…By fostering creativity and an awareness of the importance of trial and error, programs that incorporate makerspace education have shown a significant increase in student participation [9,14]. Courses taught in higher-education makerspaces meet long-standing design education goals [15,16].…”
Langara College, as one of the leading undergraduate institutions in the province of British Columbia (BC), offers the “Applied Science for Engineering” two-year diploma program as well as the “Engineering Transfer” two-semester certificate program. Three project-based courses are offered as part of the two-year diploma program in Applied Science (APSC) and Computer Science (CPSC) departments: “APSC 1010—Engineering and Technology in Society”, “CPSC 1090—Engineering Graphics”, and “CPSC 1490—Applications of Microcontrollers”, with CPSC 1090 and CPSC 1490 also part of the Engineering Transfer curriculum. Although the goals, scopes, objectives, and evaluation criteria of these courses are different, the main component of all three courses is a group-based technical project. Engineering students have access to Langara College’s Makerspace for the hands-on component of their project. Makerspaces expand experiential learning opportunities and allows students to gain a skillset outside the traditional classroom. This paper begins with a detailed review of the maker movement and the impact of makerspace in higher education. Different forms of makerspace and the benefits of incorporating them on first-year students’ creativity, sense of community, self-confidence, and entrepreneurial skills are discussed. This paper introduces Langara’s engineering program and its project-based design courses. Langara’s interdisciplinary makerspace, its goals and objectives, equipment, and some sample projects are introduced in this paper in detail. We then explain how the group-project component of APSC 1010, CPSC 1090, and CPSC 1490 are managed and how using makerspace improves students’ performance in such projects. In conclusion, the paper describes the evaluation of learning outcomes via an anonymous student survey.
“…By fostering creativity and an awareness of the importance of trial and error, programs that incorporate makerspace education have shown a significant increase in student participation [9,14]. Courses taught in higher-education makerspaces meet long-standing design education goals [15,16].…”
Langara College, as one of the leading undergraduate institutions in the province of British Columbia (BC), offers the “Applied Science for Engineering” two-year diploma program as well as the “Engineering Transfer” two-semester certificate program. Three project-based courses are offered as part of the two-year diploma program in Applied Science (APSC) and Computer Science (CPSC) departments: “APSC 1010—Engineering and Technology in Society”, “CPSC 1090—Engineering Graphics”, and “CPSC 1490—Applications of Microcontrollers”, with CPSC 1090 and CPSC 1490 also part of the Engineering Transfer curriculum. Although the goals, scopes, objectives, and evaluation criteria of these courses are different, the main component of all three courses is a group-based technical project. Engineering students have access to Langara College’s Makerspace for the hands-on component of their project. Makerspaces expand experiential learning opportunities and allows students to gain a skillset outside the traditional classroom. This paper begins with a detailed review of the maker movement and the impact of makerspace in higher education. Different forms of makerspace and the benefits of incorporating them on first-year students’ creativity, sense of community, self-confidence, and entrepreneurial skills are discussed. This paper introduces Langara’s engineering program and its project-based design courses. Langara’s interdisciplinary makerspace, its goals and objectives, equipment, and some sample projects are introduced in this paper in detail. We then explain how the group-project component of APSC 1010, CPSC 1090, and CPSC 1490 are managed and how using makerspace improves students’ performance in such projects. In conclusion, the paper describes the evaluation of learning outcomes via an anonymous student survey.
“…There are five current VIP courses, with a new course this semester taking full advantage of the makerspace for meeting, prototyping, and equipment. Future plans include merging some of the best practices of the Yale CEID model for design courses (Wilczynski, 2016) with more student-based and informal learnings models like the Innovation Studio at Georgia Tech (Forest, 2014) or the d-school at Stanford to create an environment that can best support engineering design education. This blended model will work best as it acknowledges the institutional constraints of new curriculum design and implementation while also providing more opportunities for experimentation and interdisciplinary collaborations across departments in the engineering school and across different schools within the university.…”
Section: Future Work: Experiments To Develop the Community Of Practicementioning
This paper reports on the first nine months of a new makerspace, with a focus on student perception of the space and the development of a community of practice. A mixed method approach-a survey, in situ observations, and interviews-was used to assess the space. Staff, faculty, and student involvement are reported. Student led training sessions and workshops, with varying levels of participation, are documented to develop best practices. Qualitative and quantitative data show that a true community of practice has yet to emerge, but many elements are present in the space. First semester attendance indicates that over half the population of the school of engineering uses the space and diversity of use is growing. Integration into the curriculum of several departments is planned as the space will grow into a resource to supplement engineering design education. An iterative approach was used for the design of the space, and this approach is continued as the community and culture of the makerspace develops.
“…While makerspaces, hackerspaces, innovation labs, fab labs, and engineering labs are technically defined with different meanings, in general usage, those terms are considered to be interchangeable [2]. In general, makerspaces are credited with helping to increase diversity and inclusion in the STEM fields.…”
Section: Best Practices Noted At Universities and Public Librariesmentioning
confidence: 99%
“…But, if the makerspace activities are interesting to a larger population, that may be enough to encourage the potentially diverse, non-engineering population to get involved at the makerspace. Encouraging interdisciplinary activities not only increases usage of the makerspace [4], especially with Entrepreneurial majors, but also increases the diversity of those who use the lab space [3] [4] and their overall interaction [2].…”
Section: Best Practices Noted At Universities and Public Librariesmentioning
confidence: 99%
“…In general, the sense of community often originates from simply allowing the students to participate in the governing and daily operation of the makerspace [4] [7]. Collaborative cultures tend to stem from encouraging collaboration when carrying out daily operations [4], having few restrictions on usage by encouraging academic, extracurricular, and personal projects [2], and having activities that encourage people to work together [8]. Scheduled activities such as training, workshops, and social events also encourages students to interact with each other outside of collaborative projects, which may strengthen the sense of community [2] [7].…”
Section: Best Practices Noted At Universities and Public Librariesmentioning
He received his M.S. degree from San Francisco State University in embedded electrical engineering and computer systems. His educational research interests include technology-enhanced instruction, online education, metacognitive teaching and learning strategies, reading apprenticeship in STEM, and the development of novel instructional equipment and curricula for enhancing academic success in science and engineering. Mr. Marco Wehrfritz, Skyline Community College Marco received his B.S. and M.S. in Physics from the University of Bonn in 2004 and 2009, respectively, and worked from 2009 to 2015 as a research associate and consultant of nuclear safety for the German independent expert and consulting organization (GRS) of the German Federal Ministry for the Environment, Nature Conservation, Building and Nuclear Safety (BMUB). In 2016 he joined the Skyline Community College, where he teaches Physics as an adjunct faculty and implemented and is running the Fabrication Lab as its main lab technician.
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