Corrosion Department
The Corrosion Department researches the compatibility of industrial processes and materials. To this end, the mechanisms of chemical and thermo-physical interactions with the operating environment are determined and the loss of material quantified. Besides new material concepts for extreme operating conditions, we also develop the testing facilities for simulating the process-specific loads in the laboratory.
Head of department: Dr. Carsten Schroer
The Gas Corrosion Group develops new alloy systems for high-temperature materials using thermodynamic modelling. We carry out corrosion tests in different oxidizing gases at 1000 °C and above, as well as advanced microstructure investigations. By developing materials that are stable under extreme conditions, our research contributes to increasing the efficiency of high-temperature energy conversion.
Group
The Liquid Metal Technology Group deals with the interactions between liquid metals and materials. We also develop methods for measuring and controlling non-metals dissolved in liquid metals as well as material coatings for use in liquid metals. With the qualification and targeted improvement of materials, we are opening up new fields of application for liquid metals.
Group
The availability of materials that are compatible with the operating conditions is a prerequisite for the reliable and economical implementation of processes in industrial plants and machines. Undesirable interactions between the materials and the process environment as well as advantageous material behaviour need to be understood on a mechanistic level and quantified. When established concepts reach their limits, new approaches must be developed, including new material classes or material composites. Our tools include thermodynamic modelling of alloy systems, testing equipment adapted to the process-specific loads, and modern materialography. Our work is currently focussed on gas corrosion and material interactions with liquid metals.
Publication
Baum, D.; Behrens, F.; Fricke, A.; Gatzemeier, K.; Schröpfer, L.; Spieß, C.; Szaguhn, M.; Wendeberg, E.; Ziegler, S.
2026, April 24
Puchades, J.; Niclòs, R.; Pérez-Planells, L.; Coll, C.; Göettsche, F.-M.; Valiente, J. A.; Valor, E.
2026. GIScience & Remote Sensing, 63 (1), Art.Nr: 2661533. doi:10.1080/15481603.2026.2661533
Buchholz, T.; Dörner, J.
2026. Karlsruher Institut für Technologie (KIT). doi:10.5445/IR/1000192616
Rovegno, E.; Vasilopoulou, C.; Pierotti, S.; Fitzgerald, T.; Wittbrodt, J.; Birney, E.; Vallone, D.; Loosli, F.; Bertolucci, C.; Foulkes, N. S.; Lucon-Xiccato, T.
2026. Frontiers in Behavioral Neuroscience, 20. doi:10.3389/fnbeh.2026.1681619
Braun, V. M.; Chetyrkin, K. G.; Manashov, A. N.
2026. Physical Review D, 113 (5), Art.-Nr.: 056026. doi:10.1103/47v7-ss7l
Seebach, E.; Kretzer, J. P.; Bormann, T.; Gibmeier, J.; Vaßen, R.; Kunisch, E.; Renkawitz, T.; Westhauser, F.
2026. Biomaterials Advances, Art.Nr: 214895. doi:10.1016/j.bioadv.2026.214895
Raiola, M.; Kriegseis, J.
2026. Physical Review Fluids, 11 (4), Art.-Nr.: 044905. doi:10.1103/bhlm-qwfh
Namdar Zangeneh, A.; Abbasi, M.; Ghorbannezhad, P.
2026. Biomass and Bioenergy, 213, Art.-Nr.: 109383. doi:10.1016/j.biombioe.2026.109383
Behle, E.; Herold, J.; Schug, A.
2026. Biophysical Journal, 125 (7), 1701–1712. doi:10.1016/j.bpj.2026.03.005
Nadj, M.; Maedche, A.; Riedl, R.; Seitz, J.; Schultz, T.
2026. Electronic Markets, 36 (1), Art.-Nr.: 38. doi:10.1007/s12525-026-00895-y