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一种关键资源——锗-68/镓-68发生器的成熟:发展与新见解

Maturation of a key resource - the germanium-68/gallium-68 generator: development and new insights.

作者信息

Roesch F

机构信息

Institute of Nuclear Chemistry, University of Mainz, D-55128 Mainz, Germany.

出版信息

Curr Radiopharm. 2012 Jul;5(3):202-11. doi: 10.2174/1874471011205030202.

Abstract

(68)Ge/(68)Ga radionuclide generators have been investigated for almost fifty years, since the cyclotron-independent availability of positron emitting (68)Ga via the (68)Ge/(68)Ga system had always attracted researches working in basic nuclear chemistry as well as radiopharmaceutical chemistry. However, it took decades and generations of research (and researchers) to finally reach a level of (68)Ge/(68)Ga radionuclide generator designs adequate to the modern requirements of radiometal labelling chemistry. Nevertheless, most of the existing commercial generator systems address aspects of (68)Ge breakthrough and safe synthesis of (68)Ga radiopharmaceuticals by adopting eluate post-processing technologies. Among the strategies to purify (68)Ga eluates, the cation exchange based version is relevant in terms of purification efficiency. In addition, it offers more options towards further developments of (68)Ga radiopharmaceuticals. Today, one may expect that the (68)Ge/(68)Ga radionuclide generator systems could contribute to the clinical impact of nuclear medicine diagnoses for PET similar to the established (99)Mo/(99m)Tc generator system for SPECT. The exciting perspective for the (68)Ge/(68)Ga radionuclide generator system, in turn, asks for systematic chemical, radiochemical, technological and radiopharmaceutical efforts, to guarantee reliable, highly-efficient and medically approved (68)Ge/(68)Ga generator systems.

摘要

自通过(68)Ge/(68)Ga系统独立于回旋加速器获得发射正电子的(68)Ga以来,(68)Ge/(68)Ga放射性核素发生器已被研究了近五十年,这一直吸引着基础核化学以及放射性药物化学领域的研究人员。然而,经过几十年以及几代人的研究(和研究人员),才最终达到了(68)Ge/(68)Ga放射性核素发生器设计的水平,足以满足放射性金属标记化学的现代要求。尽管如此,现有的大多数商业发生器系统通过采用洗脱液后处理技术来解决(68)Ge突破和(68)Ga放射性药物安全合成的问题。在纯化(68)Ga洗脱液的策略中,基于阳离子交换的方法在纯化效率方面具有重要意义。此外,它为(68)Ga放射性药物的进一步发展提供了更多选择。如今,可以预期(68)Ge/(68)Ga放射性核素发生器系统能够像用于单光子发射计算机断层扫描(SPECT)的成熟(99)Mo/(99m)Tc发生器系统一样,对正电子发射断层扫描(PET)核医学诊断的临床影响做出贡献。反过来,(68)Ge/(68)Ga放射性核素发生器系统令人兴奋的前景要求在化学、放射化学、技术和放射性药物方面做出系统性努力,以确保可靠、高效且获得医学认可的(68)Ge/(68)Ga发生器系统。

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