Nuclear power is a significant source of clean energy that can be used to mitigate climate change. In the western world, the average life of light-water power-reactors is increasing because no new reactors are being connected to the grid. In order to extend the life of the existing reactors innovative materials are being considered for the fuel of the reactors. The newer materials would be more resistant to a loss of coolant accident and allow for longer times between refueling plus permitting overall extended burn-ups, which will make the reactors safer and more economical to operate. This never used before in reactor materials include cladding concepts such as: 1) coated zirconium alloys, 2) monolithic iron-chromium-aluminum alloys, and 3) silicon carbide composites.
Growth kinetics of diiron boride (Fe2B) layer on a carbon steel by four approaches Corrosion assessment of a bronze equestrian statue exposed to urban environment Innovative accident tolerant nuclear fuel materials will help extending the life of light water reactors Prediction models for the kinetics of iron boride layers on AISI 316L steel Resistance of the welded joint of austenitic steel NEUTRONIT A 976 SM in the corrosive environment of boric acid Impact of the diffusion coefficient calculation on predicting Fe2B boride layer thickness Experimental studies on the corrosion inhibition of mild steel by 1-(phenylamino-1,3,4-thiadiazol-5-yl)-3-phenyl-3-oxopropan complemented with DFT Modeling Dissimilar weld joint corrosion in simulated boiler water environment