Global well-posedness and closed fluctuation-statistics equations are proven for the Lagrangian-averaged SALT 2D Euler-Boussinesq system.
Implications of Kunita-It\^o-Wentzell formula for $k$-forms in stochastic fluid dynamics
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abstract
We extend the It\^o-Wentzell formula for the evolution of a time-dependent stochastic field along a semimartingale to $k$-form-valued stochastic processes. The result is the Kunita-It\^o-Wentzell (KIW) formula for $k$-forms. We also establish a correspondence between the KIW formula for $k$-forms derived here and a certain class of stochastic fluid dynamics models which preserve the geometric structure of deterministic ideal fluid dynamics. This geometric structure includes Eulerian and Lagrangian variational principles, Lie--Poisson Hamiltonian formulations and natural analogues of the Kelvin circulation theorem, all derived in the stochastic setting.
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2019 1verdicts
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Modelling the climate and weather of a 2D Lagrangian-averaged Euler-Boussinesq equation with transport noise
Global well-posedness and closed fluctuation-statistics equations are proven for the Lagrangian-averaged SALT 2D Euler-Boussinesq system.