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Turbulence generation by large-scale extreme vertical drafts and the modulation of local energy dissipation in stably stratified geophysical flows

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arxiv 2106.15219 v2 pith:UZPBZ6ZY submitted 2021-06-29 physics.flu-dyn

classification physics.flu-dyn
keywords dissipationdraftsenergygeophysicalextremeflowslocalmodulation
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We observe the emergence of strong vertical drafts in direct numerical simulations of the Boussinesq equations in a range of parameters of geophysical interest. These structures, which appear intermittently in space and time, generate turbulence and enhance kinetic and potential energy dissipation, providing a possible explanation for the observed variability of the local energy dissipation in the bulk of oceanic flows, and the modulation of its probability distribution function. We show how, due to the extreme drafts, in runs with Froude numbers observable in geophysical scenarios, roughly 10% of the domain flow can account for up to 50% of the global volume dissipation, reminiscent of estimates based on oceanic models.

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  1. Characterization of local energy transfer in large-scale intermittent stratified turbulent flows via coarse graining

    physics.flu-dyn 2024-12 conditional novelty 6.0 of 10

    Using coarse-grained Boussinesq simulations, strong vertical drafts are associated with enhanced downscale kinetic transfer and bidirectional potential-energy transfer near the buoyancy scale.

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