NeverWorld2: an idealized model hierarchy to investigate ocean mesoscale eddies across resolutions

Author:

Marques Gustavo M.ORCID,Loose Nora,Yankovsky Elizabeth,Steinberg Jacob M.ORCID,Chang Chiung-Yin,Bhamidipati Neeraja,Adcroft Alistair,Fox-Kemper BaylorORCID,Griffies Stephen M.ORCID,Hallberg Robert W.,Jansen Malte F.,Khatri HemantORCID,Zanna Laure

Abstract

Abstract. We describe an idealized primitive-equation model for studying mesoscale turbulence and leverage a hierarchy of grid resolutions to make eddy-resolving calculations on the finest grids more affordable. The model has intermediate complexity, incorporating basin-scale geometry with idealized Atlantic and Southern oceans and with non-uniform ocean depth to allow for mesoscale eddy interactions with topography. The model is perfectly adiabatic and spans the Equator and thus fills a gap between quasi-geostrophic models, which cannot span two hemispheres, and idealized general circulation models, which generally include diabatic processes and buoyancy forcing. We show that the model solution is approaching convergence in mean kinetic energy for the ocean mesoscale processes of interest and has a rich range of dynamics with circulation features that emerge only due to resolving mesoscale turbulence.

Funder

U.S. Department of Commerce

Division of Ocean Sciences

Division of Atmospheric and Geospace Sciences

Climate Program Office

Publisher

Copernicus GmbH

Subject

General Medicine

Reference41 articles.

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