The fluoride-salt-cooled high-temperature reactor (FHR) is a Generation IV nuclear energy
system with huge potential for further development. Owing to its unique advantages, such as …

The Advanced High-Temperature Reactor (AHTR) is a novel reactor design that utilizes the
graphite-matrix high-temperature fuel of helium-cooled reactors, but provides cooling with a …

Liquid-fluoride-salt heat transfer fluids are proposed to raise the heat-to-electricity
efficiencies of solar power towers to about 50%. The liquid salt would deliver heat from the …

Based on the analysis of energy structure and the development trends of advanced nuclear
energy technology, combining the complementary advantages of nuclear energy and other …

The small modular fluorid-salt-cooled high temperature reactor has a higher core outlet
temperature, and the Rankine cycle cannot meet the design requirements of this type …

This document presents the results of a study conducted at Oak Ridge National Laboratory
during 2010 to explore the feasibility of small modular fluoride salt-cooled high temperature …

Abstract Fluoride-salt-cooled, high-temperature reactor (FHR) technology combines the
robust coated-particle fuel of high-temperature, gas-cooled reactors with the single phase …

Interest in molten salts has increased significantly over the last decade due to their potential
application in various clean-energy technologies including hydrogen generation, solar heat …

The development of next-generation molten salt reactors relies on accurate knowledge of
the thermophysical properties of the candidate coolant and fueled molten salts. These …

Liquid-fueled nuclear reactors, particularly molten salt reactors (MSRs), have recently
gained significant interest in the advanced reactor community. As with all reactors, modeling …