activity
20222026
most citedPropagation of regularity for transport equations. A Littlewood-Paley approach

1 citations · 1 across the 10 of their papers we have counts for

collaborators

11 papers

math.AP2026

A Uniqueness theorem for the Vortex-Wave system with non-constant vorticity near the point vortex

David Meyer

We study the uniqueness of the vortex wave system, i.e.\ the 2D incompressible Euler equations with vorticity consisting of a point vortex and a bounded part. We show that if the i…

math.AP2026

Vortex-sheet desingularization for three-dimensional ideal fluids

Alberto Enciso, Antonio J. Fernández, David Meyer

We prove a desingularization theorem for analytic vortex sheets of the 3D incompressible Euler equations. Starting from an analytic solution of the corresponding Birkhoff-Rott syst…

math.AP2025

On the attainment of boundary data in variational problems with linear growth

David Meyer

It is well-known that convex variational problems with linear growth and Dirichlet boundary conditions might not have minimizers if the boundary condition is not suitably relaxed.…

math.AP2025

Motion of a massive rigid loop in a 3D perfect incompressible flow

Olivier Glass, David Meyer, Franck Sueur

We consider the motion of a rigid body immersed in an inviscid incompressible fluid. In 2D, an important physical effect associated with this system is the famous Kutta-Joukowski e…

math.AP2025

Long time confinement of multiple concentrated vortices

David Meyer

We study the stability of multiple almost circular concentrated vortices in a fluid evolving according to the two-dimensional Euler equations. We show that, for general configurati…

math.AP2025

Desingularization of vortex sheets for the 2D Euler equations

Alberto Enciso, Antonio J. Fernández, David Meyer

We show how to regularize vortex sheets by means of smooth, compactly supported vorticities that asymptotically evolve according to the Birkhoff-Rott vortex sheet dynamics. More pr…

math.AP2025

Steady bubbles and drops in inviscid fluids

David Meyer, Lukas Niebel, Christian Seis

We construct steady non-spherical bubbles and drops, which are traveling wave solutions to the axisymmetric two-phase Euler equations with surface tension, whose inner phase is a b…

math.AP2024

Steady Ring-Shaped Vortex Sheets

David Meyer, Christian Seis

In this work, we construct traveling wave solutions to the two-phase Euler equations, featuring a vortex sheet at the interface between the two phases. The inner phase exhibits a u…

math.AP2024

Optimal Regularity for the 2D Euler Equations in the Yudovich class

Nicola de Nitti, David Meyer, Christian Seis

We analyze the optimal regularity that is exactly propagated by a transport equation driven by a velocity field with BMO gradient. As an application, we study the 2D Euler equation…

math.AP2023

Total -variation flows

David Meyer

We study the -gradient flows, , of functionals of the type , where is a conve…

math.AP2022★ 1 cited

Propagation of regularity for transport equations. A Littlewood-Paley approach

David Meyer, Christian Seis

It is known that linear advection equations with Sobolev velocity fields have very poor regularity properties: Solutions propagate only derivatives of logarithmic order, which can…