High-Temperature Materials and Joining Technologies

About

The research group “High-Temperature Materials and Joining Technologies” consists of the world's leading experts in the field of scientific engineering, developing innovative research devices, instruments and equipment in the form of prototypes and demonstration facilities. As a cross-cutting function of various disciplines and technologies, the group makes a significant contribution to interdisciplinary projects, focusing on the development and manufacture of devices and components. These include high-temperature electrolysis stacks, water-gas shift reactors, methanol synthesis reactors and bipolar plates for low-temperature fuel cell stacks, as well as key components such as the innovative heating system for the Wendelstein 7-X fusion reactor project.

The research group’s core competencies lie in the integration and engineering of components with complex and highly demanding materials, in the processing of special metals, ceramics, glass, plastics and composite materials. The entire development chain is covered, from materials development to design, simulation, system and prototype realisation, production and post-operational studies. It also includes automation, metrology, certification and the development of new technologies.

Outstanding contributions to the energy theme include novel high-temperature glass-ceramic joining materials and innovative metal brazing for high-temperature applications. The group has also developed new components and fully automated catalytic dehydration plants and processes, as well as optimised electrolysis or solar cells.

Research Topics

  • scientific engineering and new technologies
  • development of joining materials and processes
  • materials science and material behaviour
  • measurement and testing methods in welding and joining technology
  • high vacuum technology

Contact

Prof. Dr. Ghaleb Natour

ITE

Building 03.21 / Room 4007

+49 2461/61-5045

E-Mail

Members

Dr.-Ing. Wilfried BehrNoneBuilding 02.3 / Room R 116+49 2461/61-2156
Guido OffermannsNoneBuilding 03.21 / Room 4016+49 2461/61-5907
Dr. rer. nat. Sonja-Michaela Groß-BarsnickNoneBuilding 02.3 / Room 113+49 2461/61-6475
Dr.-Ing. Holger WillmsAbteilungsleiter Engineering und neue TechnologienBuilding 03.21 / Room 4042+49 2461/61-2296
Dr. Falk Schulze-KüppersMaterials ScientistBuilding 03.21 / Room 4031+49 2461/61-6350

More information

Publications

Article
Beidler, C.D., Smith, H.M., Alonso, A. et al. Demonstration of reduced neoclassical energy transport in Wendelstein 7-X. Nature 596, 221–226 (2021).
https://doi.org/10.1038/s41586-021-03687-w

Journal Article
Janssen, H. ; Holtwerth, S. ; Zwaygardt, W. ; et al
A facile and economical approach to fabricate a single-piece bipolar plate for PEM electrolyzers
International journal of hydrogen energy 49(Part C), 816-828 (2024) [10.1016/j.ijhydene.2023.09.175]
OpenAccess: PDF

Journal Article
Sunn Pedersen, T. ; Abramovic, I. ; Agostinetti, P. ; et al
Experimental confirmation of efficient island divertor operation and successful neoclassical transport optimization in Wendelstein 7-X
Nuclear fusion 62(4), 042022 - (2022) [10.1088/1741-4326/ac2cf5]
OpenAccess: PDF

Journal Article
Castaño Bardawil, D. A. ; Schweer, B. ; Ongena, J. ; et al
Design improvements, assembly and testing of the ICRH antenna for W7-X
Fusion engineering and design 166, 112205 - (2021) [10.1016/j.fusengdes.2020.112205]
OpenAccess: PDF (zusätzliche Dateien)

Patent
Müller, M., Zwaygardt, W., Janssen, H., Holtwerth, S., Behr, W., & Federmann, D. (2023).
U.S. Patent Application No. 17/916,118.
DE102020109430A1

Last Modified: 31.01.2025