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Autor/inn/en | Thomas-Seale, L. E. J.; Kanagalingam, Sanjeevan; Kirkman-Brown, J. C.; Attallah, M. M.; Espino, D. M.; Shepherd, D. E. T. |
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Titel | Teaching Design for Additive Manufacturing: Efficacy of and Engagement with Lecture and Laboratory Approaches |
Quelle | In: International Journal of Technology and Design Education, 33 (2023) 2, S.585-622 (38 Seiten)Infoseite zur Zeitschrift
PDF als Volltext |
Zusatzinformation | ORCID (Thomas-Seale, L. E. J.) |
Sprache | englisch |
Dokumenttyp | gedruckt; online; Zeitschriftenaufsatz |
ISSN | 0957 7572 |
DOI | 10.1007/s10798-022-09741-6 |
Schlagwörter | Foreign Countries; Manufacturing; Computer Peripherals; Printing; Instructional Design; Teaching Methods; Instructional Effectiveness; Undergraduate Students; Problem Based Learning; Laboratories; United Kingdom |
Abstract | Additive manufacturing (AM) is projected to require 60,000 jobs in the UK by 2025, but there are a series of barriers to the industrial application. One of the most problematic is non-comprehensive knowledge in design for AM (DfAM). This study aims to test the effect of two undergraduate DfAM teaching approaches. A visual and audial approach (design lecture) and a kinaesthetic, problem-based learning (PBL) approach (manufacturing laboratory) were compared against technical and participant perspective criteria to assess the learning, engagement, and self-efficacy of the students. The participants were set a DfAM challenge; to redesign a bracket. The technical merits of the designs were evaluated after teaching through a design lecture alone or after a design lecture and manufacturing-laboratory. The participant's perspective was evaluated at the end of the study. The groups who undertook both the design lecture and manufacturing laboratory showed a mean technical mark of 100% for criteria (C) 13 ("Parts have been consolidated into one part"), 91.7% for C14 ("The bracket is hollowed where possible") and 100% for C16 ("Manufacture was successful"). These technical marks demonstrate a statistically significant increase over those of the groups who undertook the design lecture alone. The participant evaluation reinforced this result; the manufacturing laboratory was chosen more frequently in answer to questions on applicability (Q13 = 83%), preparedness (Q15 = 83%), and gaining confidence in DfAM (Q31 = 74%). This study demonstrates the importance of PBL in DfAM, both to increase technical aptitude of the student (creativity and manufacturing) and their perspective on their own learning and self-efficacy. (As Provided). |
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Erfasst von | ERIC (Education Resources Information Center), Washington, DC |
Update | 2024/1/01 |