AbstractInfinite energy solutions to the Navier–Stokes equations in R2 may be constructed by decomposing the initial data into a finite energy piece and an infinite energy piece, which are then treated separately. We prove that the finite energy part of such solutions is bounded for all time and decays algebraically in time when the same can be said of heat energy starting from the same data. As a consequence, we describe the asymptotic behavior of the infinite energy solutions. Specifically, we consider the solutions of Gallagher and Planchon (2002) [2] as well as solutions constructed from a “radial energy decomposition”. Our proof uses the Fourier Splitting technique of M.E. Schonbek
AbstractWe prove the global existence of a unique strong solution to the compressible Navier–Stokes ...
AbstractWe consider the initial–boundary value problem for the wave equation with a dissipation a(t,...
AbstractWe consider the Navier–Stokes system with slowly decaying external forces[formula]We show th...
International audienceWe give explicit time lower bounds in the Lebesgue spaces for all nontrivial s...
We analyse the behaviour of solutions of the linear heat equation in R d for initial data in the cla...
We give explicit time lower bounds in the Lebesgue spaces for all nontrivial solutions of nonlin-ear...
We prove that there exist infinitely many distributional solutions with infinite kinetic energy to b...
In this paper, we investigate the asymptotic behavior and decay of the solution of the discrete in t...
We consider the energy-critical heat equation in ℝn for n ≥ 6 (Formula presented) which corresponds ...
35 pages. 2nd version revised according to referee's remarks. to appear in Trans. Amer. Math. Soc.In...
We study solutions of the equation ut−Δu+λu=f, for initial data that is ‘large at infinity’ as treat...
AbstractWe show that solutions u(x,t) of the nonstationary incompressible Navier–Stokes system in Rd...
International audienceDifferent results related to the asymptotic behavior of incompressible fluid e...
AbstractWe consider a class of nonlinear evolution systems, namely the Rayleigh–Benard equations. Th...
We study solutions of the equation ut−Δu+λu=f, for initial data that is ‘large at infinity’ as treat...
AbstractWe prove the global existence of a unique strong solution to the compressible Navier–Stokes ...
AbstractWe consider the initial–boundary value problem for the wave equation with a dissipation a(t,...
AbstractWe consider the Navier–Stokes system with slowly decaying external forces[formula]We show th...
International audienceWe give explicit time lower bounds in the Lebesgue spaces for all nontrivial s...
We analyse the behaviour of solutions of the linear heat equation in R d for initial data in the cla...
We give explicit time lower bounds in the Lebesgue spaces for all nontrivial solutions of nonlin-ear...
We prove that there exist infinitely many distributional solutions with infinite kinetic energy to b...
In this paper, we investigate the asymptotic behavior and decay of the solution of the discrete in t...
We consider the energy-critical heat equation in ℝn for n ≥ 6 (Formula presented) which corresponds ...
35 pages. 2nd version revised according to referee's remarks. to appear in Trans. Amer. Math. Soc.In...
We study solutions of the equation ut−Δu+λu=f, for initial data that is ‘large at infinity’ as treat...
AbstractWe show that solutions u(x,t) of the nonstationary incompressible Navier–Stokes system in Rd...
International audienceDifferent results related to the asymptotic behavior of incompressible fluid e...
AbstractWe consider a class of nonlinear evolution systems, namely the Rayleigh–Benard equations. Th...
We study solutions of the equation ut−Δu+λu=f, for initial data that is ‘large at infinity’ as treat...
AbstractWe prove the global existence of a unique strong solution to the compressible Navier–Stokes ...
AbstractWe consider the initial–boundary value problem for the wave equation with a dissipation a(t,...
AbstractWe consider the Navier–Stokes system with slowly decaying external forces[formula]We show th...