Merk, B.; Detkina, A.; Atkinson, S.; Litskevich, D.; Cartland-Glover, G. On the Dimensions Required for a Molten Salt Zero Power Reactor Operating on Chloride Salts. Appl. Sci.2021, 11, 6673.
Merk, B.; Detkina, A.; Atkinson, S.; Litskevich, D.; Cartland-Glover, G. On the Dimensions Required for a Molten Salt Zero Power Reactor Operating on Chloride Salts. Appl. Sci. 2021, 11, 6673.
Merk, B.; Detkina, A.; Atkinson, S.; Litskevich, D.; Cartland-Glover, G. On the Dimensions Required for a Molten Salt Zero Power Reactor Operating on Chloride Salts. Appl. Sci.2021, 11, 6673.
Merk, B.; Detkina, A.; Atkinson, S.; Litskevich, D.; Cartland-Glover, G. On the Dimensions Required for a Molten Salt Zero Power Reactor Operating on Chloride Salts. Appl. Sci. 2021, 11, 6673.
Abstract
Molten salt reactors have gained substantial interest in the last years due to their flexibility and their potential for simplified closed fuel cycle operation for massive net-zero energy production. The importance of a zero-power reactor for the process of developing a new, innovative rector concept like molten salt fast reactor is described here. It is based on historical developments as well as the current demand for experimental results and key factors that are relevant to the success of the next step in the development process of all innovative reactor types. In the systematic modelling & simulation of a zero-power molten salt reactor, the radius and the feedback effects are studied for a eutectic based system, while a heavy metal rich chloride-based system are studied depending on the uranium enrichment accompanied with the effects on neutron flux spectrum and spatial distribution. These results are used to support the relevant decision for the narrowing down of the configurations supported by considerations on cost and proliferation for the follow up 3D analysis to provide for the first time a systematic modelling & simulation approach for a new reactor physics experiment. The expected core volumes for these configurations have been studied using multi-group and continuous energy Monte-Carlo simulations identifying the 35% enriched systems as the most attractive and finally leading to the choice of the heavy metal rich compositions 35% enrichment as the reference system for future studies of the next steps in the zero power reactor investigation. The inter-comparison of the different applied codes and approaches available in the SCALE package has delivered a very good agreement between the results creating trust into the developed and used models and methods.
Copyright:
This is an open access article distributed under the Creative Commons Attribution License which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.
