Separation of Thorium from Uranium Product at the Tail End of Thorium Fuel Reprocessing Using Macroporous Cation-Exchange Resin
R. K. Rastogi, MaryAnn Mahajan, Ν. Κ. Chaudhuri
Abstract
R. K. Rastogi, MaryAnn Mahajan, Ν. Κ. Chaudhuri
Abstract
The utility of macroporous cation-exchange resins for the separation of uranium from thorium (relevant to the final purification of the product uranium after reprocessing of the thorium breeder fuel) was examined. Two such cation-exchange resins were studied and compared with a previously used gel-type resin. Batch experiments and column experiments were performed to generate equilibrium data and to optimize the procedure for the separation of U from Th under process conditions. Recovery and purity of the final product were the same while loading and washing rates were much higher (120 mL/h) than those used for gel-type resins (40 mL/h). Much higher throughput was achieved without losing product quality when macroporous resins were used instead of the gel-type resin.
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The utility of macroporous cation-exchange resins for the separation of uranium from thorium (relevant to the final purification of the product uranium after reprocessing of the thorium breeder fuel) was examined. Two such cation-exchange resins were studied and compared with a previously used gel-type resin. Batch experiments and column experiments were performed to generate equilibrium data and to optimize the procedure for the separation of U from Th under process conditions. Recovery and purity of the final product were the same while loading and washing rates were much higher (120 mL/h) than those used for gel-type resins (40 mL/h). Much higher throughput was achieved without losing product quality when macroporous resins were used instead of the gel-type resin.
Key concepts: Thorium, Chemistry, Uranium, Ion-exchange resin, Radiochemistry, Ion exchange, Nuclear chemistry, Chromatography