Current activity:
2000-current Professor (C4) of Technical Physics, Faculty of Physics, Technical University of Kaiserslautern
Academic Education:
1996 Venia legendi for physical chemistry, Faculty of Chemistry, University Tübingen 1991 - 1996
Christian Kersten, Dr. rer. nat., Medical/Pharmaceutical Chemistry Specialisation
Department of Chemistry, Pharmacy, Geography and Earth Sciences, Institute for Pharmaceutical and Biomedical Sciences (IPBW), Johannes Gutenberg-University (JGU), Mainz
ORCID ID Profile
Current activity:
2017-current Academic Councillor for Medicinal/Pharmaceutical Chemistry Department of Chemistry, Pharmacy, Geography and Earth Sciences, Institute of Pharmaceutical and Biomedical Sciences (IPBW), Johannes Gutenberg-Univers
Topic specific publications (with Peer Review)
1. Johé, P.; Jaenicke, E.; Neuweiler, H.; Schirmeister, T.; Kersten, C.; Hellmich, U. A. Structure, Interdomain Dynamics and pH-Dependent Autoactivation of pro-Rhodesain, the Main Lysosomal Cysteine Protease from African Trypanosomes. J. Biol. Chem. 2021, 100565. doi: 10.1016/j.jbc.2021.10056
Current activity:
2017-current Academic Councillor for Medicinal/Pharmaceutical Chemistry Department of Chemistry, Pharmacy, Geography and Earth Sciences, Institute of Pharmaceutical and Biomedical Sciences (IPBW), Johannes Gutenberg-Univers
Quantified evaluation of the frequency influence on the fatigue behavior of unalloyed steels for implementing in resource-efficient fatigue life prediction methods
For a reliable service life prediction, it is necessary to determine comprehensive material information that takes into account the microstructure and the associated material mechanisms
The aim is to expand the established LPV for the HCF regime for a frequency of 5 Hz for higher frequencies (up to 260 Hz) and higher cycle numbers (up to 108) and thus to describe the transition between LCF/HCF and VHCF regime and to validate using conventional constant amplitude tests (CAT). In this connection a multi-parameter approach is being
Quantified evaluation of the frequency influence on the fatigue behavior of unalloyed steels for implementing in resource-efficient fatigue life prediction methods
For a reliable service life prediction, it is necessary to determine comprehensive material information that takes into account the microstructure and the associated material mechanisms
