Pyroprocessing technology was developed in the beginning for metal fuel treatment in the
US in the 1960s. The conventional aqueous process, such as PUREX, is not appropriate for …

Pyroprocessing technology has been actively developed at Korea Atomic Energy Research
Institute (KAERI) to meet the necessity of addressing spent fuel management issue. This …

The Li-ion batteries are currently the technology of choice for the future generation of Hybrid
and Electric Vehicles. New generation of these batteries based on less noble materials are …

In this study, the porous material zeolite with cage-like structure was modified to prepare
silver-doped zeolite 4A (abbreviated as Ag@ 4A) using ion exchange method, with a silver …

This paper summarizes research in used fuel pyroprocessing that has been published by
Idaho National Laboratory over the last decade. It includes work done both on treatment of …

The objective of this entry is to give a basic overview of the technology elements behind
nuclear fuel reprocessing. It should serve as a starting point for more detailed study with the …

In this current study, the molten salt aerosol–laser-induced breakdown spectroscopy (LIBS)
system was used to measure the uranium (U) content in a ternary UCl3–LiCl–KCl salt to …

In the pyrochemical separation of used nuclear fuel (UNF), fission product, rare earth, and
actinide chlorides accumulate in the molten salt electrolyte over time. Measuring this salt …

Pyroprocessing of used nuclear fuel (UNF) has many advantages—including that it is
proliferation resistant. However, as part of the process, special nuclear materials accumulate …

Four different concentrations of SmCl3 in LiCl-KCl were tested using cyclic voltammetry to
determine the diffusion coefficients of Sm (III) and Sm (II) found to be 8.59× 10− 6±1.67× 10 …