1. Alsmeyer, H., Cenerino, G., Cordfunke, E.H.P., Fioravanti, D., Fischer, M., Foit, J.J., Howe, L.D., Huntelaar, M.E., Locateli, S., Parozzi, F., Szabo, I., Turland, B.D., Vidard, M., Wegener, D., 1995. Molten corium/concrete interaction and corium coolability – A state of the art report, European Commission Report EUR16649EN.
2. Baker Jr, L., Mansoori, G.A., Gabor J.D., Bingle, J.D., 1975. Investigation of Thermite-Type Chemical Reactions to Generate Molten Core Materials for Reactor Safety Experiments, Trans. ANS Winter Mtg, San Francisco, Nov. 1975, 443 (1975).
3. Phase Relations in ZrO2-FeO system;Beshta;Rus. J. Inorg. Chem.,2006
4. Boulin, A., Haquet, J.F., Piluso, P., Semenov, M., Antoni, M., Washiya, T., Nakayoshi A., Kitagaki, T. 2018. Hydrodynamic numerical simulations of a prototypical oxide-metal corium melt representative of Fukushima 1-F1 severe accident conditions, In: Proc. ATH 2018, Orlando, United States, Nov 2018.
5. Bouyer, V., Cassiaut-Louis, N., Fouquart, P., Piluso, P., 2015. PLINIUS prototypic corium experimental platform: major results and future works, In: Proc. NURETH16, 16th Int. Topical Mtg on Nucelar Thermal Hydraulics, Chicago, IL, Sept. 2015.