Moiseeva Anzhelika N, Favaretto Chiara, Talip Zeynep, Grundler Pascal V, van der Meulen Nicholas P
Center for Radiopharmaceutical Sciences, PSI Center for Life Sciences, Villigen PSI, Switzerland.
Radiopharmacy and Cyclotron Department, IRCCS Sacro Cuore Don Calabria, Negrar di Valpolicella, Italy.
Front Nucl Med. 2024 Oct 11;4:1472500. doi: 10.3389/fnume.2024.1472500. eCollection 2024.
The interest in terbium radionuclides, which can be used in nuclear medicine, has increased tremendously over the last decade. Several research studies have shown the potential of four terbium radionuclides Tb both for cancer diagnosis as well as therapy. The comparison of Tb and Lu showed Tb as the preferred candidate not only for standard radiotherapy, but also for the treatment of minimal residual disease. Nevertheless, among the terbium sisters, currently, only Tb has an established production protocol where its no-carrier-added form is obtained via neutron irradiation of enriched Gd targets. The other terbium radioisotopes face challenges related to production capacity and production yield, which currently restricts their use in nuclear medicine. The purpose of this review is to report on recent research on the production and separation of terbium sisters and to assess the prospects for upscaling their production for nuclear medicine applications.
在过去十年中,可用于核医学的铽放射性核素的关注度大幅提高。多项研究表明,四种铽放射性核素Tb在癌症诊断和治疗方面均具有潜力。Tb与Lu的比较表明,Tb不仅是标准放疗的首选候选者,也是治疗微小残留病的首选。然而,在铽系元素中,目前只有Tb有既定的生产方案,即通过对富集的Gd靶进行中子辐照获得其无载体添加形式。其他铽放射性同位素面临着与生产能力和产率相关的挑战,这目前限制了它们在核医学中的应用。本综述的目的是报告铽系元素生产和分离的最新研究,并评估扩大其生产规模以用于核医学应用的前景。