The simulation of complex engineering problems often involves an interaction or coupling of individual phenomena, which are traditionally related by themselves to separate fields of applied mechanics. Typical examples of these so- called multifield problems are the thermo-mechanical analysis of solids with coupling between mechanical stress analysis and thermal heat transfer processes, the simulation of coupled deformation and fluid transport mechanisms in porous media, the prediction of mass transport and phase transition phenomena of mixtures, the analysis of sedimentation proces- ses based...
The simulation of complex engineering problems often involves an interaction or coupling of individual phenomena, which are traditionally related by t...
The simulation of engineering problems often involves an interaction of individual phenomena, which are related to separate fields of applied mechanics. Examples of these multifield problems are the thermo-mechanical analysis of solids with coupling between mechanical stress analysis and thermal heat transfer processes.
The simulation of engineering problems often involves an interaction of individual phenomena, which are related to separate fields of applied mechanic...
The so-called boundary element methods BEM, i.e. finite element approxima tions of boundary integral equations have been improved recently even more vividly then ever before and found some remarkable support by the German Research Foundation DFG in the just finished Priority Research Program "boundary element methods" . When this program began, we could start from several already existing particular activities which then during the six years initiated many new re sults and decisive new developments in theory and algorithms. The program was started due to encouragement by E. Stein, when most...
The so-called boundary element methods BEM, i.e. finite element approxima tions of boundary integral equations have been improved recently even more v...