Within the incompressible three-dimensional Euler equations, we study the pancake-like high vorticity regions, which arise during the onset of developed hydrodynamic turbulence. We show that these regions have an internal fine structure consisting of three vortex layers. Such a layered structure, together with the power law of self-similar evolution of the pancake, prevents development of the Kelvin-Helmholtz instability.Comment: 4 pages, 2 figure
We study the interplay between the local geometric properties and the non-blowup of the 3D incompres...
Numerical simulations of the incompressible Euler equations are performed using the Taylor-Green vor...
By exploring a local geometric property of the vorticity field along a vortex filament, we establish...
This article revisits the instability of sharp shear interfaces, also called vortex sheets, in incom...
We study formation of quasi two-dimensional (thin pancakes) vortex structures in three-dimensional f...
We study the evolution of solutions to the 2D Euler equations whose vorticity is sharply concentrate...
We study the evolution of vortex sheets according to the Birkhoff-Rott equation, which describe the ...
We present high-resolution numerical simulations of the Euler and NavierStokes equations for a pair ...
A review of analyses based upon anti-parallel vortex structures suggests that structurally stable d...
Kelvin-Stuart vortices are classical mixing layer flows with many applications in fluid mechanics, p...
The nonlinear evolution of a vortex sheet driven by the Kelvin--Helmholtz instability is characteriz...
We study the interplay between the local geometric properties and the non-blowup of the 3D incompres...
In this article we describe the system of point vortices, derived by Helmholtz from the Euler equati...
International audienceVortices in stably stratified fluids generally have a pancake shape with a sma...
The structure and two- and three-dimensional stability properties of a linear array of compressible ...
We study the interplay between the local geometric properties and the non-blowup of the 3D incompres...
Numerical simulations of the incompressible Euler equations are performed using the Taylor-Green vor...
By exploring a local geometric property of the vorticity field along a vortex filament, we establish...
This article revisits the instability of sharp shear interfaces, also called vortex sheets, in incom...
We study formation of quasi two-dimensional (thin pancakes) vortex structures in three-dimensional f...
We study the evolution of solutions to the 2D Euler equations whose vorticity is sharply concentrate...
We study the evolution of vortex sheets according to the Birkhoff-Rott equation, which describe the ...
We present high-resolution numerical simulations of the Euler and NavierStokes equations for a pair ...
A review of analyses based upon anti-parallel vortex structures suggests that structurally stable d...
Kelvin-Stuart vortices are classical mixing layer flows with many applications in fluid mechanics, p...
The nonlinear evolution of a vortex sheet driven by the Kelvin--Helmholtz instability is characteriz...
We study the interplay between the local geometric properties and the non-blowup of the 3D incompres...
In this article we describe the system of point vortices, derived by Helmholtz from the Euler equati...
International audienceVortices in stably stratified fluids generally have a pancake shape with a sma...
The structure and two- and three-dimensional stability properties of a linear array of compressible ...
We study the interplay between the local geometric properties and the non-blowup of the 3D incompres...
Numerical simulations of the incompressible Euler equations are performed using the Taylor-Green vor...
By exploring a local geometric property of the vorticity field along a vortex filament, we establish...