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The rapid growth of immersive educational technology has opened up new possibilities in higher education, particularly in engineering education, where hands-on and experiential learning are crucial. This study examines the potential impact of utilizing the metaverse in lesson design on the way engineering is taught in schools. The study offers a comprehensive educational framework that incorporates gamified homework, collaborative work with avatars, 3D virtual worlds, and real-time simulations of engineering processes. It is based on theories of constructivist and experiential learning. The study employed a combination of methods and included undergraduate engineering students from core fields such as electronics and computer science. The participants utilized Unity and spatial platforms to learn in a metaverse-based environment, which replaced traditional lectures with coding worlds, virtual labs, and problem-solving scenarios. We used pre- and post-tests to determine how much students learned in mathematics. We also conducted focus groups and interviews with teachers to gauge their interest, ease of use, and perceived usefulness for teaching purposes. The results showed that students were significantly more motivated, engaged, and understanding when they used this method compared to traditional classroom methods. Students reported that using avatars made it easier for them to collaborate, think more clearly, and pay closer attention. The study also identified real-world challenges, including the need for faculty training in virtual instructional design, the difficulties of onboarding, and the limitations of technology. This study contributes to the growing field of metaverse-driven pedagogy by presenting a flexible and scalable approach to designing engineering curricula. It provides schools that want to incorporate immersive environments into their regular classes with helpful advice. The results show that the metaverse can help bridge the gap between theory and practice. This will make engineers more creative, flexible, and ready for the job market.
Published in: International Journal of Engineering Pedagogy (iJEP)
Volume 15, Issue 8, pp. 17-30