Energy- and enstrophy-conserving schemes for the shallow-water equations, based on mimetic finite elements
Andrew T. T. McRae, Colin J. Cotter

TL;DR
This paper introduces a family of mimetic finite element schemes for the rotating shallow-water equations that conserve both energy and enstrophy, applicable on non-orthogonal grids, with numerical verification of these properties.
Contribution
It develops a novel class of mixed finite element discretisations that simultaneously conserve energy and enstrophy for shallow-water equations, avoiding the need for orthogonal grids.
Findings
Conservation of energy and enstrophy demonstrated numerically.
Applicable to non-orthogonal grids, increasing flexibility.
Validated through numerical experiments.
Abstract
This paper presents a family of spatial discretisations of the nonlinear rotating shallow-water equations that conserve both energy and potential enstrophy. These are based on two-dimensional mixed finite element methods and hence, unlike some finite difference methods, do not require an orthogonal grid. Numerical verification of the aforementioned properties is also provided.
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