Integrated process, material, and structural analysis
The focus of our research activities is on the development and application of advanced numerical modelling and simulation techniques for the analysis of the complex structure-property relationships in modern materials and structures.
Notably, there is a growing interest in the simulation of manufacturing processes and in the consideration of mechanical and coupled long-term loadings. We will address these needs in terms of an integrated simulation of processes, materials ands structures and the development of numerical tools for fatigue analysis.
For the parametrisation and validation of the simulation models, we develeop and apply experimental techniques for the characterisation of the material and structural behaviour with special emphasis on optical field measuring techniques.
Competences in Research
Main research areas of the chair are:
- Isogeometric analysis (IGA)
- Extended Finite element method (XFEM)
- Phase-field modelling of crack propagation and structural evolution
- Experimental characterisation and phenomenological modelling of inelastic material behaviour
- Multiscale modelling and simulation fo the deformation, damage, and failure behaviour of heterogeneous materials
- Continuum formulation and numerical solution of coupled problems
- Process simulation and structural analysis
- Experimental and numerical analysis of fatigue in modern materials and structures (with WG Fatigue Strength)
These materials are in the focus of the computational and experimental investigations:
- Polymers
- Fibre-reinforced polymer (FRP)
- Hybrid materials and structures (FRP/metal)
- Magnetorheological elastomers and fluids
Details of our activities can be found in the section Research projects.