3D Euler about a 2D Symmetry Plane

Abstract

Initial results from new calculations of interacting anti-parallel Euler vortices are presented with the objective of understanding the origins of singular scaling presented by Kerr (1993) and the lack thereof by Hou and Li (2006). Core profiles designed to reproduce the two results are presented, new more robust analysis is proposed, and new criteria for when calculations should be terminated are introduced and compared with classical resolution studies and spectral convergence tests. Most of the analysis is on a $512\times 128\times 2048$ mesh, with new analysis on a just completed $1024\times 256\times 2048$ used to confirm trends. One might hypothesize that there is a finite-time singularity with enstrophy growth like $\Omega \sim (T_c-t{)}^{-{\gamma }_{\Omega }}$ and vorticity growth like $||\omega |{|}_{\infty }\sim (T_c-t{)}^{-\gamma }$. The new analysis would then support ${\gamma }_{\Omega }\approx 1/2$ and $\gamma >1$. These represent modifications of the conclusions of Kerr (1993). Issues that might arise at higher resolution are discussed.

References in corpus (3)

• Computing Nearly Singular Solutions Using Pseudo-Spectral Methods
• Dynamic Depletion of Vortex Stretching and Non-Blowup of the 3-D Incompressible Euler Equations
• Numerical simulations of possible finite time singularities in the incompressible Euler equations: comparison of numerical methods

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