The ENEA TRIGA RC-1 facility inside the SECURE project: Production of medical isotopes by neutron activation

TRIGA (Training, Research, and Isotope production General Atomics) facilities are research reactors extensively used for neutron activation analyses and various neutron-related experiments and applications. Neutron fluxes in TRIGA reactors can be employed for radionuclide production through techniques such as Neutron Activation Analysis (NAA), enabling the generation of radioactive sources for technical applications and the production of medical isotopes. In this process, a non-radioactive material is exposed to neutrons, resulting in the generation of radioactive nuclei. The ENEA TRIGA RC-1 reactor is involved in the EU-funded SECURE Project (HORIZON-EURATOM-2021-NRT-01 call, Strengthening the European Chain of sUpply for next generation medical RadionuclidEs, October 2022-September 2025), which aims to explore the feasibility of local radionuclide production for medical applications in Europe, including both currently established and innovative ways. Specifically, the ENEA team investigated the potential to produce terbium-161 ( 161 Tb), an isotope that shows promise for targeted radionuclide therapy and may offer advantages over lutetium-177 ( 177 Lu), which is currently used in cancer treatment. 161 Tb production exploits the reaction channel 160 Gd(n,γ) 161 Gd(β − ) 161 Tb, involving the neutron activation of a gadolinium (Gd) target that is highly enriched (more than 98%) in gadolinium-160 ( 160 Gd). After the appropriate chemical processes, both 161 Tb (the raw radionuclide precursor for radiopharmaceuticals used in cancer therapy) and 160 Gd oxide (which can be reused for future irradiation cycles) are extracted and purified.

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Publication Details

Journal
EPJ Web of Conferences
Published
2025-01-01
DOI
https://doi.org/10.1051/epjconf/202533809006
Citations
1
Primary Topic
Boron Compounds in Chemistry
Type
article
Field-Weighted Citation Impact
1.36

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article

The ENEA TRIGA RC-1 facility inside the SECURE project: Production of medical isotopes by neutron activation

V. Fabrizio, Limosani Francesca, M. Capogni, Tiziana Guarcini et al.
1 citations
EPJ Web of Conferences
Boron Compounds in Chemistry
1.36
article

The ENEA TRIGA RC-1 facility inside the SECURE project: Production of medical isotopes by neutron activation

V. Fabrizio, Limosani Francesca, M. Capogni, Tiziana Guarcini, Luca Falconi, Luigi Lepore, Andrea Roberti, A. Pagano, Lucrezia Spagnuolo, Davide Formenton, Letizia Cozzella, Simone Placidi
article en
1 citations

Abstract

TRIGA (Training, Research, and Isotope production General Atomics) facilities are research reactors extensively used for neutron activation analyses and various neutron-related experiments and applications. Neutron fluxes in TRIGA reactors can be employed for radionuclide production through techniques such as Neutron Activation Analysis (NAA), enabling the generation of radioactive sources for technical applications and the production of medical isotopes. In this process, a non-radioactive material is exposed to neutrons, resulting in the generation of radioactive nuclei. The ENEA TRIGA RC-1 reactor is involved in the EU-funded SECURE Project (HORIZON-EURATOM-2021-NRT-01 call, Strengthening the European Chain of sUpply for next generation medical RadionuclidEs, October 2022-September 2025), which aims to explore the feasibility of local radionuclide production for medical applications in Europe, including both currently established and innovative ways. Specifically, the ENEA team investigated the potential to produce terbium-161 ( 161 Tb), an isotope that shows promise for targeted radionuclide therapy and may offer advantages over lutetium-177 ( 177 Lu), which is currently used in cancer treatment. 161 Tb production exploits the reaction channel 160 Gd(n,γ) 161 Gd(β − ) 161 Tb, involving the neutron activation of a gadolinium (Gd) target that is highly enriched (more than 98%) in gadolinium-160 ( 160 Gd). After the appropriate chemical processes, both 161 Tb (the raw radionuclide precursor for radiopharmaceuticals used in cancer therapy) and 160 Gd oxide (which can be reused for future irradiation cycles) are extracted and purified.

EPJ Web of ConferencesVol. 338
National Agency for New Technologies, Energy and Sustainable Economic Development (IT), Institute of Reactor Materials (Russia) (RU)
European Commission
Openalex Percentile: Top 14%
Boron Compounds in Chemistry
1.36
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