We address the swimming problem at low Reynolds number. This regime, which is typically used for micro-swimmers, is described by Stokes equations. We couple a PDE solver of Stokes equations, derived from the Feel++ finite elements library, to a quaternion-based rigid-body solver. We validate our numerical results both on a 2D exact solution and on an exact solution for a rotating rigid body respectively. Finally, we apply them to simulate the motion of a one-hinged swimmer, which obeys to the scallop theorem
Biological microorganisms swim with flagella and cilia that execute nonreciprocal motions for low Re...
Abstract. In this article, we consider a swimmer (i.e. a self-deformable body) immersed in a fluid, ...
In this dissertation, we investigate the effect of shape on the motion of microscopic particles that...
International audienceWe address the swimming problem at low Reynolds number. This regime, which is ...
We address the swimming problem at low Reynolds number. This regime, which is typically used for mic...
We develop a general framework for modeling the hydrodynamic self-propulsion (i.e., swimming) of bod...
Three different models, relating to the study of microswimmers immersed in a low Reynolds number flui...
In this article, we consider a swimmer (i.e. a self-deformable body) immersed in a fluid, ...
This thesis is devoted to modelling and simulating swimmers at low Reynolds number. Two computationa...
Artificial microswimmers have a huge potential in various microfluidic and medical applications. Mos...
We present an analytical framework to study the motion of microswimmers in a viscous fluid. Our main...
Biological microorganisms swim with flagella and cilia that execute non-reciprocal motions for low R...
In this thesis, we focus on two problems relevant to the swimming of slender bodies at low Reynolds ...
This thesis sets out with a goal of answering two questions about the swimming of mi- croorganisms. ...
We combine a general formulation of microswimmer equations of motion with a numerical beadshell mode...
Biological microorganisms swim with flagella and cilia that execute nonreciprocal motions for low Re...
Abstract. In this article, we consider a swimmer (i.e. a self-deformable body) immersed in a fluid, ...
In this dissertation, we investigate the effect of shape on the motion of microscopic particles that...
International audienceWe address the swimming problem at low Reynolds number. This regime, which is ...
We address the swimming problem at low Reynolds number. This regime, which is typically used for mic...
We develop a general framework for modeling the hydrodynamic self-propulsion (i.e., swimming) of bod...
Three different models, relating to the study of microswimmers immersed in a low Reynolds number flui...
In this article, we consider a swimmer (i.e. a self-deformable body) immersed in a fluid, ...
This thesis is devoted to modelling and simulating swimmers at low Reynolds number. Two computationa...
Artificial microswimmers have a huge potential in various microfluidic and medical applications. Mos...
We present an analytical framework to study the motion of microswimmers in a viscous fluid. Our main...
Biological microorganisms swim with flagella and cilia that execute non-reciprocal motions for low R...
In this thesis, we focus on two problems relevant to the swimming of slender bodies at low Reynolds ...
This thesis sets out with a goal of answering two questions about the swimming of mi- croorganisms. ...
We combine a general formulation of microswimmer equations of motion with a numerical beadshell mode...
Biological microorganisms swim with flagella and cilia that execute nonreciprocal motions for low Re...
Abstract. In this article, we consider a swimmer (i.e. a self-deformable body) immersed in a fluid, ...
In this dissertation, we investigate the effect of shape on the motion of microscopic particles that...