Pan, Y.; Dong, A.; Zhou, Y.; Antonov, S.; Chen, Z.; Du, D.; Sun, B.: Synergistic enhancement of high temperature strength and ductility with a novel g/e dual-phase hetero-nanostructure in NiCoCr-based alloys. Materials Science and Engineering A: Structural Materials Properties Microstructure and Processing 877, 145142 (2023)
Zhu, Y.; Heo, T. W.; Rodriguez, J. N.; Weber, P. K.; Shi, R.; Baer, B. J.; Morgado, F. F.; Antonov, S.; Kweon, K. E.; Watkins, E. B.et al.; Savage, D. J.; Chapman, J. E.; Keilbart, N. D.; Song, Y.; Zhen, Q.; Gault, B.; Vogel, S. C.; Sen-Britain, S. T.; Shalloo, M. G.; Orme, C.; Bagge-Hansen, M.; Hahn, C.; Pham, T. A.; Macdonald, D. D.; Qiu, R. S.; Wood, B. C.: Hydriding of titanium: Recent trends and perspectives in advanced characterization and multiscale modeling. Current Opinion in Solid State and Materials Science 26, 101020 (2022)
Zhang, C.; Yu, H.; Antonov, S.; Li, W.; He, J.; Zhi, H.; Su, Y.: Alleviating the strength-ductility trade-off dilemma in high manganese steels after hydrogen charging by adjusting the gradient distribution of twins. Corrosion Science 207, 110579 (2022)
Tan, Q.; Yan, Z.; Li, R.; Ren, Y.; Wang, Y.; Gault, B.; Antonov, S.: In-situ synchrotron-based high energy X-ray diffraction study of the deformation mechanism of δ-hydrides in a commercially pure titanium. Scripta Materialia 213, 114608 (2022)
Tan, Q.; Yan, Z.; Wang, H.; Dye, D.; Antonov, S.; Gault, B.: The role of β pockets resulting from Fe impurities in hydride formation in titanium. Scripta Materialia 213, 114640 (2022)
International researcher team presents a novel microstructure design strategy for lean medium-manganese steels with optimized properties in the journal Science
Hydrogen embrittlement is one of the most substantial issues as we strive for a greener future by transitioning to a hydrogen-based economy. The mechanisms behind material degradation caused by hydrogen embrittlement are poorly understood owing to the elusive nature of hydrogen. Therefore, in the project "In situ Hydrogen Platform for…
Efficient harvesting of sunlight and (photo-)electrochemical conversion into solar fuels is an emerging energy technology with enormous promise. Such emerging technologies depend critically on materials systems, in which the integration of dissimilar components and the internal interfaces that arise between them determine the functionality.
In this project, links are being established between local chemical variation and the mechanical response of laser-processed metallic alloys and advanced materials.
The unpredictable failure mechanism of White Etching Crack (WEC) formation in bearing steels urgently demands in-depth understanding of the underlying mechanisms in the microstructure. The first breakthrough was achieved by relating the formation of White Etching Areas (WEAs) to successive WEC movement.