Soft robotics is an emerging subfield of robotics that enables the development of highly flexible and adaptable systems. While robotics is frequently incorporated into engineering curricula to teach topics such as mechanical design and machine design, its integration into thermo fluid sciences remains limited. Because commonly used fluidic driven soft robotic actuators operate through fluid power, they offer a valuable context for making abstract fluid mechanics concepts more tangible while simultaneously introducing students to emerging technological applications.
This ongoing study investigates the implementation of a soft robotics module in an undergraduate fluid mechanics course and examines its potential effects on both students’ conceptual understanding of fluid mechanics and their awareness of soft robotics. Twenty-two students are participating in a seven-week, project-based module in which they fabricate McKibben muscles using latex balloons and nylon sleeves that are pneumatically actuated using syringes. These actuators are used to compress intravenous (IV) fluid bags and pump fluid to a target height, modeling the pumping action of the human heart. Students collect and analyze pressure data from both the pneumatic actuator and the fluid system, perform relevant calculations, and propose potential commercial applications for McKibben muscles. The module emphasizes key concepts including pneumatic actuation, compressible versus incompressible flow, manometry, and pumping dynamics.
To evaluate the educational impact of this module, students will complete a post-module survey designed to assess both learning outcomes and student perceptions. The survey will collect feedback on content relevance, the effectiveness of hands-on engagement, perceived understanding of fluid mechanics concepts, awareness of soft robotics, overall satisfaction, and areas for improvement. Quantitative and qualitative analyses will be employed to identify patterns in student responses and inform future iterations of the module.
This work promotes soft robotics as a promising pedagogical tool for enhancing engagement, contextualizing theoretical fluid mechanics principles, and introducing interdisciplinary applications in engineering education. The findings will contribute to broader discussions on integrating emerging technologies into core engineering curricula to support active and experiential learning.
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