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Incorporating a Hands-On Device-Based Activity in a Human Factors Biomedical Engineering Course in Sub-Saharan
Alick O Vweza1, Sara Mehta2, Matthew Wettergreen3
1Malawi University of Business and Applied Sciences, Blantyre, Malawi.
Biomedical engineering students enhanced a vital signs monitor by applying human factors principles in Malawi. This hands-on approach improved both the device design and student learning in a low-income clinical context.
Area of Science:
- Biomedical Engineering
- Human Factors Engineering
- Medical Device Design
Background:
- Integrating practical medical product experience into biomedical engineering curricula, particularly in low-income settings, presents challenges.
- A significant gap exists between theoretical human factors concepts and their application within the specific clinical context of Malawi.
- Designing and evaluating medical devices requires consideration of local user needs and environmental factors.
Purpose of the Study:
- To develop and implement new hands-on modules for a biomedical engineering human factors course at Malawi University of Business and Applied Sciences.
- To enhance student understanding and application of human factors principles by engaging them with a locally relevant medical device.
- To improve the human factors aspects of the IMPALA vital signs monitoring device through student evaluation and recommendations.
Main Methods:
- Students critically evaluated the software and hardware of the IMPALA, a vital signs monitor designed for Malawi.
- Hands-on modules were developed and integrated into the biomedical engineering human factors course.
- Student feedback and design recommendations were collected regarding user interface elements, controls, and ports.
Main Results:
- Students gained practical insights into human factors issues, including user interface design, by interacting with the IMPALA device.
- The collaboration leveraged local student expertise to inform improvements in the IMPALA patient monitoring system.
- Student engagement was significantly higher during interactive modules compared to traditional lectures.
Conclusions:
- Applying human factors concepts to a real-world medical device like IMPALA greatly benefited student learning and engagement.
- The project successfully integrated direct experience with medical products into the biomedical engineering curriculum.
- Student-led evaluations provided valuable input for refining the design of a medical device for a low-income setting.
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