For decades, electrical machines have played a central role in energy conversion, not only as generators for producing electrical energy, but also as motors, e.g. for electric vehicles. They account for more than half of total energy consumption. Modern power electronics have brought about numerous new operating and application possibilities for such motors, and together with new materials and manufacturing techniques, this opens up great potential for innovation. Supported by advances in design optimisation and control, new propulsion systems offer enormous potential for contributing to the achievement of climate targets.
I am very happy about this first German-Austrian Collaborative Research Centre. We have a long-standing and intensively lived strategic partnership with TU Graz. The joint Collaborative Research Centre marks a new quality in our cooperation. (Tanja Brühl, President of TU Darmstadt)
Current design methods for electrical machines are based on a limited number of parameters and operating modes, typically at constant speed or constant torque, thus neglecting considerable optimisation potential. The scientists want to make use of this potential in the newly approved TRR 361 (“Computational Electrical Machine Laboratory. Thermal modelling, transient analysis, geometry description and robust design”).
The research work in Transregio 361 is carrying out a paradigm shift towards new integrated simulation and design approaches in order to exploit the potential of modern electric drives. These approaches take into account all important aspects of an electrical machine from the outset, for example shape and topology, time-dependent operating cycles, complex material behaviour, parameter uncertainties, robustness and noise generation, as well as new cooling techniques to push thermal limits. The modelling, simulation and optimisation of such a complex system poses extreme challenges for computational engineering (CE).
CE is an interdisciplinary scientific discipline with links to applied mathematics, computer science and engineering sciences, and has established itself as the third pillar of gaining knowledge in engineering alongside theory and experiment.
Through interdisciplinary cooperation between scientists from Darmstadt and Graz, the Collaborative Research Centre will break new ground in optimising the design of modern electrical machines and thus also promote the sustainable use of resources. (Peter Stephan, Vice President for Research and Early Careers)
The approved TRR 361 project is the first joint German-Austrian research association in the funding line of Collaborative Research Centres (DFG) / Special Research Centres (FWF). In the future, the Technical University of Darmstadt (TU Darmstadt) and will deepen and advance their joint research work on the simulation of electrical machines here. Graz University of Technology (TU Graz)
, head of the Computational Electromagnetics (CEM) Institute at The Department Electrical Engineering and Information Technology, as spokesperson for the German side, and Professor Sebastian Schöps, head of the Electric Drives and Machines Institute (EAM) at TU Graz, as spokesperson for the Austrian side, have already been working together in this field for several years. The consortium of scientists from TU Darmstadt and its strategic partner TU Graz as well as Johannes Kepler University Linz includes not only proven experts in the participating subject areas but also numerous young scientists. Professor Annette Mütze
TRR 361 is closely integrated into the structures at both universities, such as the Centre for Computational Engineering (CCE) at TU Darmstadt and the Graz Center of Computational Engineering (GCCE).