Separation and purification of Sr-90 nuclide from a waste mixture

Sr-90 is utilized as a raw material in various fields such as nuclear batteries, medical applications, and industrial use as a beta particle source. Therefore, high-purity Sr-90 is required to increase the thermal efficiency of nuclear battery operation or to prevent side effects on the human body d...

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Veröffentlicht in:Journal of radioanalytical and nuclear chemistry 2022, Vol.331 (1), p.275-281
Hauptverfasser: Lee, Byeonggwan, Choi, Jung-Hoon, Lee, Ki Rak, Kang, Hyun Woo, Eom, Hyeon Jin, Shin, Kyuchul, Park, Hwan-Seo
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container_issue 1
container_start_page 275
container_title Journal of radioanalytical and nuclear chemistry
container_volume 331
creator Lee, Byeonggwan
Choi, Jung-Hoon
Lee, Ki Rak
Kang, Hyun Woo
Eom, Hyeon Jin
Shin, Kyuchul
Park, Hwan-Seo
description Sr-90 is utilized as a raw material in various fields such as nuclear batteries, medical applications, and industrial use as a beta particle source. Therefore, high-purity Sr-90 is required to increase the thermal efficiency of nuclear battery operation or to prevent side effects on the human body during its use in medical therapy. Sr-90 is present in spent nuclear fuel and can be separated via reactive distillation through a pyrochemical process developed at the Korea Atomic Energy Research Institute, where Ba is obtained simultaneously via co-precipitation owing to its chemical similarity. In addition, Sr-90 decays into Zr-90 during the storage period after separation. Therefore, Ba and Zr-90 should be separated to obtain high-purity Sr-90 nuclides. In the present study, a separation and purification process is developed for the recovery of Sr-90 from a waste mixture containing Sr-90, Ba, and Zr-90. To separate Ba and Zr-90, the chromate precipitation reaction is modified via pH control, which can enhance the precipitation efficiency of Ba and prevent the co-precipitation of Sr owing to the excess amount of precipitants. A systematic study is conducted to optimize Sr-90 separation and purification processes, where a high yield of 84.3% is obtained, and a high purity exceeding 99.9% is maintained.
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subjects Aqueous solution reactions
Barium
Batteries
Beta particles
Beta rays
Chemical fingerprinting
Chemical precipitation
Chemistry
Chemistry and Materials Science
Chromates
Coprecipitation
Diagnostic Radiology
Distillation
Hadrons
Heavy Ions
Industrial applications
Inorganic Chemistry
Nuclear Chemistry
Nuclear energy
Nuclear industry
Nuclear Physics
Nuclides
pH control
Physical Chemistry
Purification
Purity
Raw materials
Separation
Side effects
Spent nuclear fuels
Spent reactor fuels
Strontium
Thermodynamic efficiency
Zirconium
title Separation and purification of Sr-90 nuclide from a waste mixture
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