arXiv:1212.0573 [physics.flu-dyn]AbstractReferencesReviewsResources
Lagrangian and geometric analysis of finite-time Euler singularities
Published 2012-12-03Version 1
We present a numerical method of analyzing possibly singular incompressible 3D Euler flows using massively parallel high-resolution adaptively refined numerical simulations up to 8192^3 mesh points. Geometrical properties of Lagrangian vortex line segments are used in combination with analytical non-blowup criteria by Deng et al [Commun. PDE 31 (2006)] to reliably distinguish between singular and near-singular flow evolution. We then apply the presented technique to a class of high-symmetry initial conditions and present numerical evidence against the formation of a finite-time singularity in this case.
Comments: arXiv admin note: text overlap with arXiv:1210.2534
Categories: physics.flu-dyn
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