EU Management and Uncertainties of Severe Accidents (MUSA) Project (2019-2023) (http://musa-h2020.eu/)
Assessing the capability of SA codes when modelling SA scenarios for Gen. II/III/III+ reactor designs and SFPs by using the UQ methods.
Effect of existing/innovative SAMs on accident progression and ST mitigation
Establishment ofa harmonised approach for the analysis of uncertainties and sensitivities associated with severe accident (SA) analysisamong EU and non-EU entities.
ASTEC COMmunity (ASCOM) project
NUGENIA + project with focus on ASTEC development and validation as a fully reliable tool for SA analyses and SAM in a wide range of nuclear safety applications.
WAME Project (2019-2023): ‘Maintaining competence in nuclear technology (KEK) of the Federal Ministry of Economics and Technology (BMWi)’
Development of a novel real-time program system to improve decision making in severe accident events in nuclear power plants (PhD).
IAEA CRP I31033 on Advancing the State-of-Practice in Uncertainty and Sensitivity Methodologies for Severe Accident Analysis in Water Cooled Reactors (2019-2024).
Explore UQ-methodologies and their application to severe accident codes
KIT involvement: provide test data of QUENCH-06 and perform uncertainty quantification of ASTEC for the simulation of the QUENCH.06 test.
Application of UQ-tools to the assessment of the uncertainties of severe accident codes performing plant analysis
Other participants will use RELAP/SCDAP, SOCRAT and the UQ-tools such as RAVEN, SUNSET, URANIE and SUSA.
H2020 Project McSAFER (High-Performance Advanced Methods and Experimental Investigations for the Safety Evaluation of Generic Small Modular Reactors): www.mcsafer-h2020.eu
Start: 1.9.2020 - 31.8.2023
Coordinator: KIT (Dr. V. Sanchez Espinoza)
Partners: The consortium consists of 13 partners from EU and Latin America including nine countries e.g. Germany, France, UK, Belgium, Czech Republic, Sweden, Finland, Spain, and Argentina
Scientific goals: The main objective of the McSAFER project is to advance safety research for Small Modular Reactors (SMR) by combining experimental investigations and innovative numerical simulations. Safety-relevant experiments are performed on European thermal hydraulic test facilities at KIT (COSMOS Facility), LUT (MOTEL facility) and KTH (HWAT facility). Experimental investigations of SMR-specific safety-relevant phenomena e.g. subcooled boiling, critical heat flux, cross-flow, transition from forced to natural circulation will enhance the understanding and provide important data for code validation. Advanced computational tools developed in previous European projects also coordinated by KIT e.g. HPMC and McSAFE will be applied to assess the safety features of the different SMR-concepts under investigations.
Scientific goal: The main objective of the CAMIVVER project is to develop and improve codes and methods for VVER comprehensive assessment. Hence, neutronics and thermal-hydraulics and safety analysis codes used for the simulation of the VVER-plants under normal and accidental conditions will be improved, validated and applied to safety-relevant scenarios.
McSAFE: High performance methods for reactor safety: http://www.mcsafe-h2020.eu/: The overall objective of the McSAFE project is to move the Monte Carlo based stand-alone and coupled solution methodologies to become valuable and widespread numerical tools for realistic core design, safety analysis and industry-like applications of LWRs of generation II and III including advanced depletion, optimal coupling of MC-codes to thermal-hydraulic solvers, time-dependent Monte Carlo and methods and algorithms for massively parallel simulations