THE MAKER CULTURE AS A STRATEGY FOR DIDACTIC TRANSFER IN THE TEACHING OF ELECTRICITY AND MAGNETISM: A STRUCTURED THEMATIC REVIEW
DOI:
https://doi.org/10.63330/armv1n10-012Keywords:
Maker Culture, STEM, Electricity and Magnetism, Didactic Transposition, Thematic ReviewAbstract
The teaching of Electricity and Magnetism (E&M) in secondary education is characterized by high conceptual abstraction, which leads to persistent difficulties in transposing theoretical knowledge into practical application. This Structured Thematic Review aimed to analyze how the adoption of Maker Culture and active methodologies can influence the formation of practical and conceptual skills in E&M. The methodology involved a rigorous search in scientific databases (such as CAPES Journals Portal, Scopus, Web of Science, IEEE Xplore, and Google Scholar), resulting in the analysis and synthesis of a corpus of 23 articles. The findings indicate that the central premise of the study is validated: active interventions (including Peer Instruction, CBL, interactive simulations, and Augmented Reality) demonstrate improvement in conceptual acquisition and the development of systemic thinking and "knowledge work" competence. Maker Culture establishes a robust link between theory and practice, proving to be an effective strategy for overcoming the inherent abstraction of the subject. However, the full implementation of this approach depends on investments in teacher training, as didactic insecurity regarding E&M conceptual mastery persists. Future research is suggested to explore the efficacy of these methodologies in specific curricular contexts.
References
[1] YANG, H. et al. Maker Competency Instrument for Elementary and Secondary School Science. Journal of Science Education and Technology, v. 32, n. 4, p. 493–509, 1 ago. 2023.
[2] WALAN, S.; GERICKE, N. Transferring makerspace activities to the classroom: a tension between two learning cultures. International Journal of Technology and Design Education, v. 33, n. 5, p. 1755–1772, 1 nov. 2023.
[3] PEER, T.; KAPON, S. Instructional design and teaching that fosters meaningful engagement in disciplinary practice in a Maker project on projectile-motion. Physics Education, v. 60, n. 6, p. 065032, 17 out. 2025.
[4] AMARAL, L. A.; BELICH, H. Kleinberg’s Navigation in Fractal Small-World Networks by Dynamic Rejection Sampling. Brazilian Journal of Physics 2021 51:6, v. 51, n. 6, p. 1858–1866, 9 out. 2021.
[5] ARAUJO, A. S. et al. Analysis of Soft Skills in Electrical Engineering Through the Use of Paradidactic Materials. Proceedings of 2025 34th Annual Conference of the European Association for Education in Electrical and Information Engineering, EAEEIE 2025, 2025.
[6] GODHE, A.-L.; LILJA, P.; SELWYN, N. Making sense of making: critical issues in the integration of maker education into schools. Technology, Pedagogy and Education, v. 28, n. 3, p. 317–328, 27 maio 2019.
[7] ABDURRAHMAN, A. et al. Impacts of integrating engineering design process into STEM makerspace on renewable energy unit to foster students’ system thinking skills. Heliyon, v. 9, n. 4, p. e15100, 1 abr. 2023.
[8] ILOMÄKI, L.; VASILEVA, T.; STEFANOVA, S. Promoting knowledge practices in upper secondary schools: case studies from Finland and Bulgaria. Research Papers in Education, v. 35, n. 1, p. 43–63, 2 jan. 2020.
[9] HSU, Y.-C.; BALDWIN, S.; CHING, Y.-H. Learning through Making and Maker Education. TechTrends, v. 61, n. 6, p. 589–594, 9 nov. 2017.
[10] NIVALAINEN, V. et al. Preservice and Inservice Teachers’ Challenges in the Planning of Practical Work in Physics. Journal of Science Teacher Education, v. 21, n. 4, p. 393–409, 15 jun. 2010.
[11] GUNSTONE, R.; MULHALL, P.; MCKITTRICK, B. Physics teachers’ perceptions of the difficulty of teaching electricity. Research in Science Education, v. 39, n. 4, p. 515–538, 2009.
[12] TURŞUCU, S.; SPANDAW, J.; DE VRIES, M. J. Search for Symbol Sense Behavior: Students in Upper Secondary Education Solving Algebraic Physics Problems. Research in Science Education, v. 50, n. 5, p. 2131–2157, 17 out. 2020.
[13] SERMEUS, J.; DE COCK, M.; ELEN, J. Critical thinking in electricity and magnetism: assessing and stimulating secondary school students. International Journal of Science Education, v. 43, n. 16, p. 2597–2617, 2021.
[14] BINNIE, A. Using the History of Electricity and Magnetism to Enhance Teaching. Science & Education, v. 10, n. 4, p. 379–389, jul. 2001.
[15] NGUYEN, Q. L. et al. Developing students’ scientific competence through the STSE model: an active learning intervention. Discover Education, v. 4, n. 1, p. 363, 26 set. 2025.
[16] RETHLEFSEN, M. L. et al. PRISMA-S: an extension to the PRISMA Statement for Reporting Literature Searches in Systematic Reviews. Systematic Reviews, v. 10, n. 1, p. 1–19, 26 jan. 2021.
[17] KRAUS, S. et al. Literature reviews as independent studies: guidelines for academic practice. Review of Managerial Science, v. 16, n. 8, p. 2577–2595, 1 nov. 2022.
[18] BAUMEISTER, R. F.; LEARY, M. R. Writing narrative literature reviews. Review of General Psychology, v. 1, n. 3, p. 311–320, 1 set. 1997.
[19] ABDUSSELAM, M. S.; KARAL, H. The effect of using augmented reality and sensing technology to teach magnetism in high school physics. Technology, Pedagogy and Education, v. 29, n. 4, p. 407–424, 7 ago. 2020.
[20] ŠORGO, A. et al. Opinions about STEM content and classroom experiences as predictors of upper secondary school students’ career aspirations to become researchers or teachers. Journal of Research in Science Teaching, v. 55, n. 10, p. 1448–1468, 1 dez. 2018.
[21] DEGA, B. G.; KRIEK, J.; MOGESE, T. F. Students’ conceptual change in electricity and magnetism using simulations: A comparison of cognitive perturbation and cognitive conflict. Journal of Research in Science Teaching, v. 50, n. 6, p. 677–698, ago. 2013.
[22] ROBLEDO-RELLA, V. et al. Challenge-based learning during the pandemic for engineering courses based on competencies. 2022 IEEE Frontiers in Education Conference (FIE). Anais...IEEE, 8 out. 2022.
[23] KAPICI, H. O.; AKCAY, H.; CAKIR, H. Investigating the effects of different levels of guidance in inquiry-based hands-on and virtual science laboratories. International Journal of Science Education, v. 44, n. 2, p. 324–345, 22 jan. 2022.
[24] HUANG, H. et al. Enquiry-based learning designed for transient response of dynamic circuits in electric circuits course. International Journal of Electrical Engineering and Education, v. 53, n. 2, p. 137–144, 1 abr. 2016.
[25] POWELL, N. J. et al. Four case studies of adapting enquiry-based learning (EBL) in electrical and electronic engineering. International Journal of Electrical Engineering and Education, v. 45, n. 2, p. 121–130, 2008.
[26] GOK, T. The impact of peer instruction on college students’ beliefs about physics and conceptual understanding of electricity and magnetism. International Journal of Science and Mathematics Education, v. 10, n. 2, p. 417–436, abr. 2012.
[27] BUNTING, C. F.; CHEVILLE, R. A. VECTOR: A Hands-On Approach That Makes Electromagnetics Relevant to Students. IEEE Transactions on Education, v. 52, n. 3, p. 350–359, ago. 2009.
Downloads
Published
Issue
Section
License

This work is licensed under a Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License.