Abstract
Realizing higher operating temperatures to increase efficiency of future applications for energy conversion and storage while minimizing cost is a challenge for development of high-temperature materials. Simultaneous optimization of mechanical properties and corrosion resistance continues to be a difficult task but is essential due to the need to significantly accelerate the transition between technology readiness levels in the future. Oxidation-induced degradation will be a critical life-limiting mechanism at increased operating temperatures. Suitable high-temperature materials cannot be solely identified by time-consuming experiments and reliable computational methods incorporating the relevant physics of processes must be considered to complement the experimental efforts. In the present work, a review of the methods employed to model oxidation-induced material degradation described in literature will be discussed. Furthermore, their capability to predict lifetime and aid in material selection will be evaluated.
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Acknowledgements
Many of the experimental results reported in the present work were generated at IEK-2, Forschungszentrum Julich. The authors are grateful to Mr H. Cosler for carrying out the high-temperature exposures. Dr E. Wessel is kindly acknowledged for the EBSD measurements. Mr V. Gutzeit and Dr D. Grüner are acknowledged for optical microscopy and SEM/EDX/EDX analyses, respectively. P. Tortorelli, B.A. Pint and M. Romedenne are thanked for their valuable comments on the paper.
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Pillai, R., Chyrkin, A. & Quadakkers, W.J. Modeling in High Temperature Corrosion: A Review and Outlook. Oxid Met 96, 385–436 (2021). https://doi.org/10.1007/s11085-021-10033-y
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DOI: https://doi.org/10.1007/s11085-021-10033-y