Active Learning Strategies in Biomechanics Education

Active learning in biomechanics education encompasses pedagogical approaches that engage students directly in the process of inquiry, analysis and problem solving. Such strategies shift the focus from traditional lecturer-centred delivery to student-centred activities that integrate hands-on experimentation, collaborative work and digital simulation tools. Core elements include flipped classrooms, peer instruction, project-based and experiential learning, often supported by 3D modelling software, motion-capture technology and real-time data analysis. These approaches foster critical thinking and practical skills, enabling students to explore kinematic and kinetic concepts in contexts that mirror professional practice. Globally, the adoption of active learning in biomechanics has been driven by evidence of improved knowledge retention, heightened student motivation and the development of transferrable abilities such as interdisciplinary teamwork and independent research. Practical applications range from laboratory-based gait analysis projects to web-integrated tutorials that prepare students for careers in sports science, rehabilitation engineering and ergonomics. Interconnections between campus-based and blended formats underscore the versatility of active methods, which can adapt to resource constraints and evolving educational technologies.

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Active Learning Strategies in Biomechanics Education publication trend

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Technical terms

Active learning: An instructional method that engages students in activities requiring analysis, synthesis and evaluation of class content.

Flipped learning: A pedagogical model where initial content delivery occurs outside the classroom, with in-class time devoted to interactive activities.

Peer instruction: A collaborative learning strategy in which students discuss and answer conceptual questions in small groups, guided by formative feedback.

Experiential learning: A process in which knowledge is created through the transformation of experience, often structured around concrete tasks and reflective practice.

3D modelling: The use of computer software to create virtual representations of objects or systems, allowing simulation and analysis of biomechanical phenomena.

References

1. Early introduction of 3D modeling modules promotes the development of simulation skills in downstream biomedical engineering curricula. Journal of Biological Engineering (2023).
2. The Use of Peer Instruction and Flipped Learning to Support Flexible Blended Learning During and After the COVID-19 Pandemic. International Journal Of Management and Applied Research (2020).
3. Transdisciplinary experiential learning in biomedical engineering education for healthcare systems improvement. BMC Medical Education (2023).