1.1.2025 – 31.12.2027
ARIS - Slovenian Research and Innovation Agency, L2 - 60149 (B), co-financing from Krško Nuclear Power Plant
Project MARIONETTE discusses identifying the atmosphere’s ability to disperse for accidental radioactive pollutant release. Several EU countries are investing in new nuclear power plants, and the EU classifies them as carbon-neutral energy sources due to their lack of CO2 emissions during electricity generation. Expert studies are underway in Slovenia to determine whether a new nuclear power plant should be established in Krško, where one (NEK) is already situated. NEK recently received a license extension for the next 20 years based on modernizations and security enhancements. Project MARIONETTE aims to advance the understanding and speed up quantifying radionuclides’ dispersion in the ambient air in the event of accidental releases. Due to unknown accidental emissions, traditional physics-based dispersion models cannot be used quickly. Models are crucial for protecting the population against potential hazards associated with nuclear power plants. The dispersion of accidental radioactive air pollution is a significant scientific concern, irrespective of one's stance on nuclear power generation. Scientific research on accidental dispersion is needed for reasons such as accidents or terrorist threats. Furthermore, the project is also applicable for accidental releases of toxic pollutants during chemical accidents, like a train accident in the USA and incidents in Slovenia covered by the SEVESO European Union Directive. The typical research question across nuclear and chemical industries and terrorist activities concerns understanding how airborne pollutants spread during accidental releases. Rapid and accurate descriptions of atmospheric dispersion are needed, especially in challenging terrains. The limitations arising from the initial lack of information on the quantity and time distribution of accidental pollutant releases hinder the use of traditional dispersion models. To address these challenges, the project proposes a combination of theoretical and experimental modelling, utilizing system identification and machine learning methods. This approach aims to accelerate, enhance and replace physics-based models used for atmospheric dispersion from unpredictable and unsteady sources like accidental releases. We plan to develop:
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