Complex Trkalian Fields and Solutions to Euler's Equations for the Ideal Fluid
P. R. Baldwin, G. M. Townsend
Abstract
We consider solutions to the complex Trkalian equation,~ ∇ × = , where~ is a 3 component vector function with each component in the complex field, and may be expressed in the form~ = eig ∇ F, with~g real and~F complex. We find, there are precisely two classes of solutions; one where~g is a Cartesian variable and one where~g is the spherical radial coordinate. We consider these flows to be the simplest of all exact 3-d solutions to the Euler's equation for the ideal incompressible fluid. The novel approach we use in solving for these classes of solutions to these 3-dimensional vector pdes involves differential geometric techniques: one may employ the method to generate solutions to other classes of vector pdes.
Create a lesson
Related papers
Chaotic eigenfunctions in phase space
S. Nonnenmacher, A. Voros
Improved control of delayed measured systems
Jens Christian Claussen, Heinz Georg Schuster
The accurate and comprehensive model of thin fluid flows with inertia on curved substrates
A. J. Roberts, Zhenquan Li
On periodic solutions of a Hamilton-Jacobi equation with periodic forcing
Andrei Sobolevskii
Drifters dispersion in the Adriatic Sea: Lagrangian data and chaotic model
Guglielmo Lacorata, Erik Aurell, Angelo Vulpiani
Generalized multibaker maps for open dissipative systems
Z. Kaufmann, P. Szépfalusy