Enhancing Physics Education Through MOOCs-Based Virtual Laboratory Modules: Development, Validation, and Future Directions

This paper explores the development and evaluation of a MOOCs-based virtual physics measurement laboratory module designed to overcome common barriers in physics education, such as limited physical lab access, high costs, and safety concerns.Utilizing the Borg and Gall Research and Development model, this module integrates structured layouts, comprehensive content, and interactive simulations aligned with the current curriculum to provide a robust virtual learning environment.The development process included extensive validation by content, media, and IT experts to ensure educational effectiveness, user-friendliness, and technical feasibility.Product testing with students showed high feasibility for content quality and media display, though highlighted areas for technical refinement.Despite the module's benefits in accessibility, cost-effectiveness, and safety, challenges such as the lack of tactile experiences and variations in student digital literacy persist.The paper suggests future directions involving advanced technologies like Augmented Reality (AR), Virtual Reality (VR), and Artificial Intelligence (AI) to enhance the interactive and immersive aspects of the learning experience.Overall, this study demonstrates the significant potential of virtual laboratories to enhance physics education through innovative educational technology.

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Publication Details

Journal
The Journal of Educators Online
Published
2025-03-30
DOI
https://doi.org/10.9743/jeo.2025.22.2.5
Primary Topic
Experimental Learning in Engineering
Type
article
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article

Enhancing Physics Education Through MOOCs-Based Virtual Laboratory Modules: Development, Validation, and Future Directions

Mukarramah Mustari
The Journal of Educators Online
Experimental Learning in Engineering
article

Enhancing Physics Education Through MOOCs-Based Virtual Laboratory Modules: Development, Validation, and Future Directions

Mukarramah Mustari
article en

Abstract

This paper explores the development and evaluation of a MOOCs-based virtual physics measurement laboratory module designed to overcome common barriers in physics education, such as limited physical lab access, high costs, and safety concerns.Utilizing the Borg and Gall Research and Development model, this module integrates structured layouts, comprehensive content, and interactive simulations aligned with the current curriculum to provide a robust virtual learning environment.The development process included extensive validation by content, media, and IT experts to ensure educational effectiveness, user-friendliness, and technical feasibility.Product testing with students showed high feasibility for content quality and media display, though highlighted areas for technical refinement.Despite the module's benefits in accessibility, cost-effectiveness, and safety, challenges such as the lack of tactile experiences and variations in student digital literacy persist.The paper suggests future directions involving advanced technologies like Augmented Reality (AR), Virtual Reality (VR), and Artificial Intelligence (AI) to enhance the interactive and immersive aspects of the learning experience.Overall, this study demonstrates the significant potential of virtual laboratories to enhance physics education through innovative educational technology.

The Journal of Educators OnlineVol. 22(2)
State University of Semarang (ID)
Quality Education
Openalex Percentile: Top 92%
Experimental Learning in Engineering
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