Our prime motivation is thermal fluid-structure interaction (FSI) where two domains with jumps in the material coefficients are connected through an interface. There exist two main strategies to simulate FSI models: the monolithic approach where a new code is tailored for the coupled equations and the partitioned approach that allows to reuse existing software for each sub-problem. Here we want to develop multirate methods that contribute to the time parallelization of the sub-problems for the partitioned simulation of FSI problems
Added-mass instability is known to be an important issue in the partitioned approach for fluid-struc...
Fluid-structure interaction (FSI) simulations can be used to quantify the frequency, damping constan...
The aim of this thesis is to develop and then to implement a framework for numerical simulation of f...
The efficient simulation of thermal interaction between fluids and structures is crucial in the desi...
We introduce a time adaptive multirate method based on the Dirichlet-Neumann waveform relaxation (DN...
We discuss thermal fluid-structure interaction processes, where a simulation of the time-dependent t...
We consider efficient methods for the partitioned time-integration of multiphysics problems, which c...
An important challenge when coupling two different time dependent problems is to increase paralleliz...
We consider time dependent thermal fluid structure interaction. The respective models are the compre...
The efficient numerical simulation of stiff multiphysics systems remains a core challenge in scienti...
The stability of relaxation techniques has been studied for strongly coupled fluid-structure interac...
The coupled solution of a time step in a partitioned fluid-structure interaction simulation must sat...
International audienceWith the objective of studying fluid-structure interaction (FSI) applications ...
We consider thermal fluid structure interaction to model industrial gas quenching in ste...
We present novel coupling schemes for partitioned multiphysics simulation that combine four importan...
Added-mass instability is known to be an important issue in the partitioned approach for fluid-struc...
Fluid-structure interaction (FSI) simulations can be used to quantify the frequency, damping constan...
The aim of this thesis is to develop and then to implement a framework for numerical simulation of f...
The efficient simulation of thermal interaction between fluids and structures is crucial in the desi...
We introduce a time adaptive multirate method based on the Dirichlet-Neumann waveform relaxation (DN...
We discuss thermal fluid-structure interaction processes, where a simulation of the time-dependent t...
We consider efficient methods for the partitioned time-integration of multiphysics problems, which c...
An important challenge when coupling two different time dependent problems is to increase paralleliz...
We consider time dependent thermal fluid structure interaction. The respective models are the compre...
The efficient numerical simulation of stiff multiphysics systems remains a core challenge in scienti...
The stability of relaxation techniques has been studied for strongly coupled fluid-structure interac...
The coupled solution of a time step in a partitioned fluid-structure interaction simulation must sat...
International audienceWith the objective of studying fluid-structure interaction (FSI) applications ...
We consider thermal fluid structure interaction to model industrial gas quenching in ste...
We present novel coupling schemes for partitioned multiphysics simulation that combine four importan...
Added-mass instability is known to be an important issue in the partitioned approach for fluid-struc...
Fluid-structure interaction (FSI) simulations can be used to quantify the frequency, damping constan...
The aim of this thesis is to develop and then to implement a framework for numerical simulation of f...