Exciting Standing Rossby Waves in the Large Rotating Annulus
Kial D. Stewart, Callum J. Shakespeare, Thomas G. Schmaltz

TL;DR
This paper reports on 93 laboratory experiments using rotating tanks to identify configurations that excite and sustain standing Rossby waves, advancing understanding of atmospheric wave phenomena through physical analogues.
Contribution
The study systematically explores experimental setups to reliably generate and observe standing Rossby waves in a rotating tank, providing valuable data for atmospheric dynamics research.
Findings
Identified specific configurations that excite standing Rossby waves
Demonstrated sustained Rossby wave patterns in laboratory settings
Provided a comprehensive dataset for future atmospheric wave studies
Abstract
Laboratory experiments with rotating tanks remain the premier physical analogue for atmospheric dynamics. Often, the equipment involved is engineered to be sufficiently versatile and modular so as to be able to accommodate experiments that explore a wide range of atmospheric processes. The exercise of initially configuring the apparatus then involves running experiments that sweep through parameter space to identify the specific dynamical regimes of interest. This process is typically considered part of the development and testing phase of a given project, and these initial experiments are generally left unreported; while many of these test experiments may not be directly relevant to the project at hand, they may be useful for other applications or scientific communities. Here we report on a series of 93 different laboratory experiments run with the intention of identifying suitable…
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Taxonomy
TopicsOceanographic and Atmospheric Processes · Meteorological Phenomena and Simulations · Fluid dynamics and aerodynamics studies
