In the emerging field of multi-physics simulations, we often face the challenge to establish
new connections between physical fields, to add additional aspects to existing models, or to …

Within the last decade, very sophisticated numerical methods for the iterative and partitioned
solution of fluid–structure interaction problems have been developed that allow for high …

Today's multi-physics simulations suffer from a lack of either flexibility or scalability. Only
reconciling both will allow for translating the higher compute power of the forthcoming exa …

Abstract The Quasi-Newton Inverse Least Squares method has become a popular method to
solve partitioned interaction problems. Its performance can be enhanced by using …

During the last 5 years, quasi-Newton schemes have proven to be a robust and efficient way
to couple partitioned fluid-structure interaction. We showed in previous work that they also …

We have developed a highly efficient and portable fluid–structure interaction (FSI) simulation
package, so-called OpenFSI. Within this package, the structure dynamics is accounted by a …

For multi-field simulations involving a larger number of different physical fields and in cases
where the involved fields or simulation codes change due to new modelling insights, eg …

In this work, we present a flexible and generic C++ framework for the numerical solution of
strongly coupled multifield problems, based on a partitioned approach. Coupled problems …

Implicit partitioned methods for solving thermomechanical problems possess various
advantages over monolithic schemes, such as flexibility and simplicity of implementation, at …

The partitioned simulation of fluid–structure interactions offers great flexibility in terms of
exchanging flow and structure solver and using existing established codes. However, it often …