Nanostructuring zirconium alloy surfaces to less than 100 nm grain size improves corrosion resistance without compromising mechanical properties.
Varying thorium to uranium ratios in fuel rods reduces internal power peaking and reactivity variations without burnable absorbers.
Variable hole alignment in the flow control assembly addresses fuel rod swelling and thermal expansion risks.
Increasing TRISO kernel diameter and packing fraction boosts heavy metal mass to resolve reactivity deficits in CANDU reactors.
Sprays burnable poison particles onto nuclear fuel rod cladding to form a protective oxide layer that prevents dissolution in aqueous reactor coolant.
A jet spouted bed reactor uses a convex transition profile to stabilize fluidization and maintain consistent gas flow velocity.
Segmenting cylindrical fuel rods into multi-lobed metal structures increases surface area, resolving overheating risks while enabling higher power generation.
A segmented fuel rod assembly uses varying diameters and spacer grids to maintain optimal rod spacing within a nuclear reactor core.