Low-cost table-top experiments for teaching multi-scale geophysical fluid dynamics

Multi-scale instabilities are ubiquitous in atmospheric and oceanic flows and are essential topics in teaching geophysical fluid dynamics. Yet these topics are often difficult to teach and counter-intuitive to new learners. In this paper, we introduce our state-of-the-art Do-It Yourself Dynamics (DI...

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Veröffentlicht in:Frontiers in Marine Science 2023-08, Vol.10
Hauptverfasser: Moscoso, Jordyn E., Tripoli, Rachel E., Chen, Shizhe, Church, William J., Gonzalez, Henry, Hill, Spencer A., Khoo, Norris, Lonner, Taylor L., Aurnou, Jonathan M.
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Sprache:eng
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Zusammenfassung:Multi-scale instabilities are ubiquitous in atmospheric and oceanic flows and are essential topics in teaching geophysical fluid dynamics. Yet these topics are often difficult to teach and counter-intuitive to new learners. In this paper, we introduce our state-of-the-art Do-It Yourself Dynamics (DIYnamics) LEGO ® robotics kit that allows users to create table-top models of geophysical flows. Deep ocean convection processes are simulated via three experiments – upright convection, thermal wind flows, and baroclinic instability – in order to demonstrate the robust multi-scale modeling capabilities of our kit. Detailed recipes are provided to allow users to reproduce these experiments. Further, dye-visualization measurements show that the table-top experimental results adequately agree with theory. In sum, our DIYnamics setup provides students and educators with an accessible table-top framework by which to model the multi-scale behaviors, inherent in canonical geophysical flows, such as deep ocean convection.
ISSN:2296-7745
2296-7745
DOI:10.3389/fmars.2023.1192056