We analyze the controllability of the motion of a fluid by means of the action of a vibrating shell coupled at the boundary of the fluid. The model considered is linear. We study its approximate controllability, i.e. whether the fluid may reach a dense set of final configurations at a given time. We show that this problem can be reduced to a unique continuation question for the Stokes system. We prove that this unique continuation property holds generically among analytic domains and therefore, that there is approximate controllability generically. We also prove that this result fails when Ω is a ball showing that the analyticity assumption on the domain is not sufficient
The goal of this article is the study of the approximate controllability for two approximations of ...
International audienceWe consider the 3D Navier-Stokes system driven by an additive finite-dimension...
In this paper we deal with the compressible Navier-Stokes equations with a friction term in one dime...
We consider a linear model of interaction between a viscous incompressible fluid and a thin elastic ...
A model representing the vibrations of a fluid-solid coupled structure is considered. Following Hil...
We study the exact controllability of a fluid-structure model. The fluctuations of velocity and pres...
AbstractWe give some negative and positive results on the approximate controllability of the Stokes ...
International audienceWe study control properties of a linearized fluid-structure interaction system...
A model representing the vibrations of a fluid-solid coupled structure is considered. Following Hilb...
We are interested by the controllability of a fluid-structure interaction system where the fluid is ...
We consider the equations modeling the coupled vibrations of a fluid-solid system. The control acts ...
In this paper, we consider the well-known Fattorini’s criterion for approximate controllability of i...
We consider the problem of boundary exact controllability of a coupled nonlinear system which descri...
AbstractWe consider a system coupling the Stokes equations in a two-dimensional domain with a struct...
We consider the 3D Navier-Stokes system driven by an additive finite-dimensional control force. The ...
The goal of this article is the study of the approximate controllability for two approximations of ...
International audienceWe consider the 3D Navier-Stokes system driven by an additive finite-dimension...
In this paper we deal with the compressible Navier-Stokes equations with a friction term in one dime...
We consider a linear model of interaction between a viscous incompressible fluid and a thin elastic ...
A model representing the vibrations of a fluid-solid coupled structure is considered. Following Hil...
We study the exact controllability of a fluid-structure model. The fluctuations of velocity and pres...
AbstractWe give some negative and positive results on the approximate controllability of the Stokes ...
International audienceWe study control properties of a linearized fluid-structure interaction system...
A model representing the vibrations of a fluid-solid coupled structure is considered. Following Hilb...
We are interested by the controllability of a fluid-structure interaction system where the fluid is ...
We consider the equations modeling the coupled vibrations of a fluid-solid system. The control acts ...
In this paper, we consider the well-known Fattorini’s criterion for approximate controllability of i...
We consider the problem of boundary exact controllability of a coupled nonlinear system which descri...
AbstractWe consider a system coupling the Stokes equations in a two-dimensional domain with a struct...
We consider the 3D Navier-Stokes system driven by an additive finite-dimensional control force. The ...
The goal of this article is the study of the approximate controllability for two approximations of ...
International audienceWe consider the 3D Navier-Stokes system driven by an additive finite-dimension...
In this paper we deal with the compressible Navier-Stokes equations with a friction term in one dime...