On the infinite dimension limit of invariant measures and solutions of Zeitlin's 2D Euler equations
arXiv:2203.08997 · doi:10.1007/s10955-022-03007-0
Abstract
In this work we consider a finite dimensional approximation for the 2D Euler equations on the sphere, proposed by V. Zeitlin, and show their convergence towards a solution to Euler equations with marginals distributed as the enstrophy measure. The method relies on nontrivial computations on the structure constants of , that appear to be new. In the last section we discuss the problem of extending our results to Gibbsian measures associated with higher Casimirs.
arXiv comment21 pages
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