Experimental pub crawl from Rayleigh–Bénard to magnetostrophic convection

The interplay between convective, rotational and magnetic forces defines the dynamics within the electrically conducting regions of planets and stars. Yet their triadic effects are separated from one another in most studies, arguably due to the richness of each subset. In a single laboratory experim...

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Published in:Journal of fluid mechanics 2022-05, Vol.939, Article R1
Main Authors: Grannan, Alexander M., Cheng, Jonathan S., Aggarwal, Ashna, Hawkins, Emily K., Xu, Yufan, Horn, Susanne, Sánchez-Álvarez, Jose, Aurnou, Jonathan M.
Format: Article
Language:English
Subjects:
Bénard convection
Convection
Convection modes
ENGINEERING
Estimates
Experiments
Fluid mechanics
Forces
Heat
Heat flux
Heat transfer
Intercomparison
JFM Rapids
Liquid metals
Magnetic field
Magnetic fields
Magnetic flux
magneto convection
Metals
Rayleigh number
Rayleigh-Benard convection
Reynolds number
rotating flows
Rotation
Sensors
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cited_by cdi_FETCH-LOGICAL-c367t-ec8ca53932a3ce66f32f59eb39cc0d96b99046133f7ba479a05688c3f91574c63
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container_title Journal of fluid mechanics
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creator Grannan, Alexander M.
Cheng, Jonathan S.
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Sánchez-Álvarez, Jose
Aurnou, Jonathan M.
description The interplay between convective, rotational and magnetic forces defines the dynamics within the electrically conducting regions of planets and stars. Yet their triadic effects are separated from one another in most studies, arguably due to the richness of each subset. In a single laboratory experiment, we apply a fixed heat flux, two different magnetic field strengths and one rotation rate, allowing us to chart a continuous path through Rayleigh–Bénard convection (RBC), two regimes of magnetoconvection, rotating convection and two regimes of rotating magnetoconvection, before finishing back at RBC. Dynamically rapid transitions are determined to exist between jump rope vortex states, thermoelectrically driven magnetoprecessional modes, mixed wall- and oscillatory-mode rotating convection and a novel magnetostrophic wall mode. Thus, our laboratory ‘pub crawl’ provides a coherent intercomparison of the broadly varying responses arising as a function of the magnetorotational forces imposed on a liquid-metal convection system.
doi_str_mv 10.1017/jfm.2022.204
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subjects Bénard convection
Convection
Convection modes
ENGINEERING
Estimates
Experiments
Fluid mechanics
Forces
Heat
Heat flux
Heat transfer
Intercomparison
JFM Rapids
Liquid metals
Magnetic field
Magnetic fields
Magnetic flux
magneto convection
Metals
Rayleigh number
Rayleigh-Benard convection
Reynolds number
rotating flows
Rotation
Sensors
title Experimental pub crawl from Rayleigh–Bénard to magnetostrophic convection
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