Session: 10-10-02: Teaching Laboratories, Hands-on lab Experiences, Online Laboratory Teaching, Virtual Lab Simulation, Use of AI in Laboratory Experiments, Laboratory Equipment and Safety Practices, Technology-Aided Lecturing, Novel Manufacturing Processes II

Paper Number: 168185

Advancing Engineering Learning With VR: Measuring Engagement and Performance Gains 

The rapid advancement of educational technology has created new opportunities to enhance the learning experience, particularly in disciplines such as engineering, where hands-on practice and spatial understanding play a crucial role. Among these innovations, Virtual Reality (VR) has emerged as a promising tool for immersive and interactive learning, providing students with realistic, engaging, and highly controlled training environments. This study investigates the potential of VR-based immersive learning environments to optimize educational outcomes in engineering, specifically in the context of engine assembly training.

The research compares two distinct instructional approaches: one group of students undergoes training in a fully immersive VR engine assembly environment, while a second group relies on traditional printed assembly manuals. The study evaluates key factors influencing learning effectiveness, including engagement, task completion time, assembly accuracy, and comprehension of underlying mechanical principles. To achieve a comprehensive assessment, a mixed-methods approach is employed, integrating both qualitative and quantitative data collection techniques.

Learner engagement is assessed through a combination of self-reported surveys, real-time behavioral observations, and engagement analytics recorded during the training sessions. Efficiency is measured by analyzing task completion time and the number of errors committed throughout the assembly process. Additionally, post-training assessments evaluate both immediate knowledge retention and the ability to apply acquired skills in practical, hands-on scenarios.

Preliminary findings indicate that students trained in the VR environment consistently demonstrate higher levels of engagement, reporting increased focus, motivation, and enjoyment compared to their counterparts using traditional manuals. Moreover, the VR-based training method yields significant efficiency improvements, as participants complete assembly tasks more quickly and with fewer errors. Beyond these performance metrics, students in the VR group exhibit a more profound understanding of engine mechanics, as demonstrated by their superior performance in post-training evaluations. This suggests that immersive VR learning not only enhances procedural efficiency but also strengthens conceptual comprehension, bridging the gap between theoretical knowledge and practical application.

These results highlight the transformative potential of VR in engineering education, offering an interactive and immersive alternative to conventional instructional methods. By optimizing both engagement and efficiency, VR-based learning environments may significantly enhance student outcomes, making technical training more effective and accessible. However, to fully realize its potential, further research is needed to explore the scalability, cost-effectiveness, and long-term impact of VR on skill development in engineering education. Future investigations should also examine best practices for integrating VR into engineering curricula, ensuring that this innovative technology is implemented in a way that maximizes educational benefits while addressing practical challenges such as accessibility, hardware limitations, and instructor training.

Ultimately, this study contributes to the growing body of evidence supporting the adoption of VR as a powerful pedagogical tool in engineering education, paving the way for more engaging, efficient, and effective learning experiences in technical fields.

Presenting Author: Miguel X. Rodriguez-Paz Tecnologico de Monterrey

Presenting Author Biography: Professor Rodriguez-Paz currently works on Innovative methods for Engineering Teaching. He has worked for the last twenty years in Tecnologico de Monterrey- Professor Rodriguez-Paz teaches undergraduate courses in Structural Mechanics and is also an influencer with a YouTube channel with more than 40k subscribers worldwide.

Disciplines
Mechanical Engineering, Engineering Education, Civil Engineering, Human-computer Interaction, Computing in Social science, Arts and Humanities, Computer and Society.

Authors:

Jorge A. Gonzalez-Mendivil Tecnologico de Monterrey
Miguel X. Rodriguez-Paz Tecnologico de Monterrey
Israel Zamora-Hernandez Tecnologico de Monterrey
Eduardo Caballero-Montes Tecnologico de Monterrey