Critical heat flux (CHF) prediction is crucial for efficiency and safety in nuclear reactors to prevent equipment damage.
Traditional machine learning approaches have shown potential for CHF prediction but lack interpretability and reliability in diverse operational conditions.
Hybrid models, combining data-driven ML with physics-based models, demonstrate lower error metrics and improved accuracy compared to empirical correlations.
Integration of ML-based CHF models into subchannel codes shows promise in enhancing performance over conventional methods.